diff --git a/city_model_structure/building_demand/building_from_trimesh.py b/city_model_structure/building_demand/building_from_trimesh.py
new file mode 100644
index 00000000..2c0b9e31
--- /dev/null
+++ b/city_model_structure/building_demand/building_from_trimesh.py
@@ -0,0 +1,27 @@
+"""
+Building module a new implementation option
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+from city_model_structure.building_demand.surface import Surface
+from city_model_structure.city_object import CityObject
+from city_model_structure.attributes.polygon import Polygon
+
+
+class Building(CityObject):
+  """
+  Building(CityObject) class
+  """
+  def __init__(self, name, lod, trimesh, year_of_construction, function, city_lower_corner):
+    surfaces = []
+    for face in trimesh.faces:
+      # todo: review for obj with windows
+      points = []
+      for vertex_index in face:
+        points.append(trimesh.vertices[vertex_index])
+      solid_polygon = Polygon(points)
+      perimeter_polygon = solid_polygon
+      surface = Surface(solid_polygon, perimeter_polygon)
+      surfaces.append(surface)
+    super().__init__(name, lod, surfaces, city_lower_corner)
diff --git a/city_model_structure/building_demand/help.py b/city_model_structure/building_demand/help.py
new file mode 100644
index 00000000..7670b030
--- /dev/null
+++ b/city_model_structure/building_demand/help.py
@@ -0,0 +1,26 @@
+
+# from surfaces to thermal_zones
+
+#zone_surfaces = []
+# these should be the virtual internal surfaces (What about the internal walls??)
+#for surface_id in zone_surfaces_ids:
+#  zone_surfaces.append(self.surface(surface_id))
+#self._thermal_zones.append(ThermalZone(zone_surfaces))
+
+#for t_zones in self._thermal_zones:
+#  t_zones.bounded = [ThermalBoundary(s, [t_zones]) for s in t_zones.surfaces]
+
+from city_model_structure.attributes.polygon import Polygon
+from city_model_structure.attributes.plane import Plane
+from city_model_structure.attributes.point import Point
+import numpy as np
+
+coordinates = [np.array([1, 0, 0]), np.array([0, 0, 0]), np.array([0, 0, 1]), np.array([1, 0, 1])]
+polygon = Polygon(coordinates)
+origin = Point([0, 0, 0.5])
+normal = np.array([0, 0, 1])
+plane = Plane(normal=normal, origin=origin)
+intersection, polygon_1, polygon_2 = polygon.divide(plane)
+print('final polygon')
+print(polygon_1.coordinates)
+print(polygon_2.coordinates)
diff --git a/city_model_structure/city_model_structure/attributes/edge.py b/city_model_structure/city_model_structure/attributes/edge.py
new file mode 100644
index 00000000..c1b36165
--- /dev/null
+++ b/city_model_structure/city_model_structure/attributes/edge.py
@@ -0,0 +1,45 @@
+"""
+Node module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+Contributor Milad milad.aghamohamadnia@concordia.ca
+"""
+import uuid
+from typing import List
+from city_model_structure.attributes.node import Node
+
+
+class Edge:
+  """
+  Generic edge class to be used as base for the network edges
+  """
+  def __init__(self, name, nodes=None):
+    if nodes is None:
+      nodes = []
+    self._name = name
+    self._id = None
+    self._nodes = nodes
+
+  @property
+  def name(self):
+    """
+    Edge name
+    """
+    return self._name
+
+  @property
+  def id(self):
+    """
+    Edge id, an universally unique identifier randomly generated
+    :return: str
+    """
+    if self._id is None:
+      self._id = uuid.uuid4()
+    return self._id
+
+  @property
+  def nodes(self) -> List[Node]:
+    """
+    Delimiting nodes for the edge
+    """
+    return self._nodes
diff --git a/city_model_structure/city_model_structure/attributes/node.py b/city_model_structure/city_model_structure/attributes/node.py
new file mode 100644
index 00000000..12dba288
--- /dev/null
+++ b/city_model_structure/city_model_structure/attributes/node.py
@@ -0,0 +1,46 @@
+"""
+Node module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+Contributor Milad milad.aghamohamadnia@concordia.ca
+"""
+
+import uuid
+from typing import List
+from city_model_structure.attributes.edge import Edge
+
+
+class Node:
+  """
+  Generic node class to be used as base for the network nodes
+  """
+  def __init__(self, name, edges=None):
+    if edges is None:
+      edges = []
+    self._name = name
+    self._id = None
+    self._edges = edges
+
+  @property
+  def name(self):
+    """
+    Node name
+    """
+    return self._name
+
+  @property
+  def id(self):
+    """
+    Node id, an universally unique identifier randomly generated
+    :return: str
+    """
+    if self._id is None:
+      self._id = uuid.uuid4()
+    return self._id
+
+  @property
+  def edges(self) -> List[Edge]:
+    """
+    Edges delimited by the node
+    """
+    return self._edges
diff --git a/city_model_structure/city_model_structure/attributes/plane.py b/city_model_structure/city_model_structure/attributes/plane.py
new file mode 100644
index 00000000..f653d6c7
--- /dev/null
+++ b/city_model_structure/city_model_structure/attributes/plane.py
@@ -0,0 +1,57 @@
+"""
+Plane module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+from typing import TypeVar
+import numpy as np
+
+Point = TypeVar('Point')
+
+
+class Plane:
+  """
+  Plane class
+  """
+
+  def __init__(self, origin=None, normal=None):
+    # todo: other options to define the plane:
+    #  by two lines
+    #  by three points
+    self._origin = origin
+    self._normal = normal
+    self._opposite_normal = None
+
+  @property
+  def origin(self) -> Point:
+    """
+    Point origin of the plane
+    return Point
+    """
+    if self._origin is None:
+      raise NotImplementedError
+    return self._origin
+
+  @property
+  def normal(self):
+    """
+    Plane normal [x, y, z]
+    return np.ndarray
+    """
+    if self._normal is None:
+      raise NotImplementedError
+    return self._normal
+
+  @property
+  def opposite_normal(self):
+    """
+    Plane normal in the opposite direction [x, y, z]
+    return np.ndarray
+    """
+    if self._opposite_normal is None:
+      coordinates = []
+      for coordinate in self.normal:
+        coordinates.append(-coordinate)
+      self._opposite_normal = np.array(coordinates)
+    return self._opposite_normal
diff --git a/city_model_structure/city_model_structure/attributes/point.py b/city_model_structure/city_model_structure/attributes/point.py
new file mode 100644
index 00000000..71c3d987
--- /dev/null
+++ b/city_model_structure/city_model_structure/attributes/point.py
@@ -0,0 +1,35 @@
+"""
+Point module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+import math
+
+
+class Point:
+  """
+  Point class
+  """
+
+  def __init__(self, coordinates):
+    self._coordinates = coordinates
+
+  @property
+  def coordinates(self):
+    """
+    Point coordinates
+    """
+    return self._coordinates
+
+  def distance_to_point(self, other_point):
+    """
+    distance between points in an n-D Euclidean space
+    :param other_point: point or vertex
+    :return: float
+    """
+    power = 0
+    for dimension in range(0, len(self.coordinates)):
+      power += math.pow(other_point.coordinates[dimension]-self.coordinates[dimension], 2)
+    distance = math.sqrt(power)
+    return distance
diff --git a/city_model_structure/city_model_structure/attributes/polygon.py b/city_model_structure/city_model_structure/attributes/polygon.py
new file mode 100644
index 00000000..e82359b3
--- /dev/null
+++ b/city_model_structure/city_model_structure/attributes/polygon.py
@@ -0,0 +1,646 @@
+"""
+Polygon module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+
+from __future__ import annotations
+import math
+import sys
+from typing import List
+import numpy as np
+from trimesh import Trimesh
+import trimesh.intersections
+from city_model_structure.attributes.point import Point
+
+
+class Polygon:
+  """
+  Polygon class
+  """
+
+  def __init__(self, coordinates):
+
+    self._area = None
+    self._points = None
+    self._points_list = None
+    self._normal = None
+    self._inverse = None
+    self._edges = None
+    self._coordinates = coordinates
+    self._triangles = None
+    self._vertices = None
+    self._faces = None
+
+  @property
+  def points(self) -> List[Point]:
+    """
+    List of points belonging to the polygon [[x, y, z],...]
+    :return: List[Point]
+    """
+    if self._points is None:
+      self._points = []
+      for coordinate in self.coordinates:
+        self._points.append(Point(coordinate))
+    return self._points
+
+  @property
+  def coordinates(self) -> List[np.ndarray]:
+    """
+    List of points in the shape of its coordinates belonging to the polygon [[x, y, z],...]
+    :return: [np.ndarray]
+    """
+    return self._coordinates
+
+  @property
+  def points_list(self) -> np.ndarray:
+    """
+    Solid surface point coordinates list [x, y, z, x, y, z,...]
+    :return: np.ndarray
+    """
+    if self._points_list is None:
+      s = self.coordinates
+      self._points_list = np.reshape(s, len(s) * 3)
+    return self._points_list
+
+  @property
+  def edges(self):
+    """
+    Polygon edges list
+    """
+    if self._edges is None:
+      self._edges = []
+      for i in range(0, len(self.points)-1):
+        point_1 = self.points[i]
+        point_2 = self.points[i+1]
+        self._edges.append([point_1, point_2])
+      self._edges.append([self.points[len(self.points)-1], self.points[0]])
+    return self._edges
+
+  @property
+  def area(self):
+    """
+    Surface area in square meters
+    :return: float
+    """
+    # New method to calculate area
+    if self._area is None:
+      if len(self.points) < 3:
+        sys.stderr.write('Warning: the area of a line or point cannot be calculated 1. Area = 0\n')
+        return 0
+      alpha = 0
+      vec_1 = self.points[1].coordinates - self.points[0].coordinates
+      for i in range(2, len(self.points)):
+        vec_2 = self.points[i].coordinates - self.points[0].coordinates
+        alpha += self._angle_between_vectors(vec_1, vec_2)
+      if alpha == 0:
+        sys.stderr.write('Warning: the area of a line or point cannot be calculated 2. Area = 0\n')
+        return 0
+      horizontal_points = self._points_rotated_to_horizontal
+      area = 0
+      for i in range(0, len(horizontal_points)-1):
+        point = horizontal_points[i]
+        next_point = horizontal_points[i+1]
+        area += (next_point[1] + point[1]) / 2 * (next_point[0] - point[0])
+      next_point = horizontal_points[0]
+      point = horizontal_points[len(horizontal_points)-1]
+      area += (next_point[1] + point[1]) / 2 * (next_point[0] - point[0])
+      self._area = abs(area)
+    return self._area
+
+  @property
+  def _points_rotated_to_horizontal(self):
+    """
+    polygon points rotated to horizontal
+    :return: [float]
+    """
+    z_vector = [0, 0, 1]
+    normal_vector = self.normal
+    horizontal_points = []
+    x = normal_vector[0]
+    y = normal_vector[1]
+
+    if x == 0 and y == 0:
+      # Already horizontal
+      for point in self.points:
+        horizontal_points.append([point.coordinates[0], point.coordinates[1], 0])
+    else:
+      alpha = self._angle_between_vectors(normal_vector, z_vector)
+      rotation_line = np.cross(normal_vector, z_vector)
+      third_axis = np.cross(normal_vector, rotation_line)
+      w_1 = rotation_line / np.linalg.norm(rotation_line)
+      w_2 = normal_vector
+      w_3 = third_axis / np.linalg.norm(third_axis)
+      rotation_matrix = np.array([[1, 0, 0],
+                                 [0, np.cos(alpha), -np.sin(alpha)],
+                                 [0, np.sin(alpha), np.cos(alpha)]])
+      base_matrix = np.array([w_1, w_2, w_3])
+      rotation_base_matrix = np.matmul(base_matrix.transpose(), rotation_matrix.transpose())
+      rotation_base_matrix = np.matmul(rotation_base_matrix, base_matrix)
+
+      if rotation_base_matrix is None:
+        sys.stderr.write('Warning: rotation base matrix returned None\n')
+      else:
+        for point in self.points:
+          new_point = np.matmul(rotation_base_matrix, point.coordinates)
+          horizontal_points.append(new_point)
+    return horizontal_points
+
+  @property
+  def normal(self) -> np.ndarray:
+    """
+    Surface normal vector
+    :return: np.ndarray
+    """
+    if self._normal is None:
+      points = self.coordinates
+      # todo: IF THE FIRST ONE IS 0, START WITH THE NEXT
+      point_origin = points[len(points)-2]
+      vector_1 = points[len(points)-1] - point_origin
+      vector_2 = points[0] - point_origin
+      vector_3 = points[1] - point_origin
+      cross_product = np.cross(vector_1, vector_2)
+      if np.linalg.norm(cross_product) != 0:
+        cross_product = cross_product / np.linalg.norm(cross_product)
+        alpha = self._angle_between_vectors(vector_1, vector_2)
+      else:
+        cross_product = [0, 0, 0]
+        alpha = 0
+      if len(points) == 3:
+        return cross_product
+      if np.linalg.norm(cross_product) == 0:
+        return cross_product
+      alpha += self._angle(vector_2, vector_3, cross_product)
+      for i in range(0, len(points)-4):
+        vector_1 = points[i+1] - point_origin
+        vector_2 = points[i+2] - point_origin
+        alpha += self._angle(vector_1, vector_2, cross_product)
+      vector_1 = points[len(points) - 1] - point_origin
+      vector_2 = points[0] - point_origin
+      if alpha < 0:
+        cross_product = np.cross(vector_2, vector_1)
+      else:
+        cross_product = np.cross(vector_1, vector_2)
+      self._normal = cross_product / np.linalg.norm(cross_product)
+    return self._normal
+
+  @staticmethod
+  def _angle(vector_1, vector_2, cross_product):
+    """
+    alpha angle in radians
+    :param vector_1: [float]
+    :param vector_2: [float]
+    :param cross_product: [float]
+    :return: float
+    """
+    accepted_normal_difference = 0.01
+    cross_product_next = np.cross(vector_1, vector_2)
+    if np.linalg.norm(cross_product_next) != 0:
+      cross_product_next = cross_product_next / np.linalg.norm(cross_product_next)
+      alpha = Polygon._angle_between_vectors(vector_1, vector_2)
+    else:
+      cross_product_next = [0, 0, 0]
+      alpha = 0
+    delta_normals = 0
+    for j in range(0, 3):
+      delta_normals += cross_product[j] - cross_product_next[j]
+    if np.abs(delta_normals) < accepted_normal_difference:
+      return alpha
+    return -alpha
+
+  def triangulate(self) -> List[Polygon]:
+    """
+    triangulates a polygon following the ear clipping methodology
+    :return: list[triangles]
+    """
+    # todo: review triangulate_polygon in
+    #  https://github.com/mikedh/trimesh/blob/dad11126742e140ef46ba12f8cb8643c83356467/trimesh/creation.py#L415,
+    #  it had a problem with a class called 'triangle', but, if solved,
+    #  it could be a very good substitute of this method
+    #  this method is very dirty and has an infinite loop solved with a counter!!
+    if self._triangles is None:
+      points_list = self.points_list
+      normal = self.normal
+      if np.linalg.norm(normal) == 0:
+        sys.stderr.write('Not able to triangulate polygon\n')
+        return [self]
+      # are points concave or convex?
+      total_points_list, concave_points, convex_points = self._starting_lists(points_list, normal)
+
+      # list of ears
+      ears = []
+      j = 0
+      while (len(concave_points) > 3 or len(convex_points) != 0) and j < 100:
+        j += 1
+        for i in range(0, len(concave_points)):
+          ear = self._triangle(points_list, total_points_list, concave_points[i])
+          rest_points = []
+          for points in total_points_list:
+            rest_points.append(list(self.coordinates[points]))
+          if self._is_ear(ear, rest_points):
+            ears.append(ear)
+            point_to_remove = concave_points[i]
+            previous_point_in_list, next_point_in_list = self._enveloping_points(point_to_remove, total_points_list)
+            total_points_list.remove(point_to_remove)
+            concave_points.remove(point_to_remove)
+          # Was any of the adjacent points convex? -> check if changed status to concave
+            for convex_point in convex_points:
+              if convex_point == previous_point_in_list:
+                concave_points, convex_points, end_loop = self._if_concave_change_status(normal, points_list,
+                                                                                         convex_point,
+                                                                                         total_points_list,
+                                                                                         concave_points, convex_points,
+                                                                                         previous_point_in_list)
+                if end_loop:
+                  break
+                continue
+              if convex_point == next_point_in_list:
+                concave_points, convex_points, end_loop = self._if_concave_change_status(normal, points_list,
+                                                                                         convex_point,
+                                                                                         total_points_list,
+                                                                                         concave_points, convex_points,
+                                                                                         next_point_in_list)
+                if end_loop:
+                  break
+                continue
+            break
+        if len(total_points_list) <= 3 and len(convex_points) > 0:
+          sys.stderr.write('Not able to triangulate polygon\n')
+          return [self]
+      if j >= 100:
+        sys.stderr.write('Not able to triangulate polygon\n')
+        return [self]
+      last_ear = self._triangle(points_list, total_points_list, concave_points[1])
+      ears.append(last_ear)
+      self._triangles = ears
+    return self._triangles
+
+  @staticmethod
+  def _starting_lists(points_list, normal) -> [List[float], List[float], List[float]]:
+    """
+    creates the list of vertices (points) that define the polygon (total_points_list), together with other two lists
+    separating points between convex and concave
+    :param points_list: points_list
+    :param normal: normal
+    :return: list[point], list[point], list[point]
+    """
+    concave_points = []
+    convex_points = []
+    # lists of concave and convex points
+    # case 1: first point
+    point = points_list[0:3]
+    previous_point = points_list[len(points_list) - 3:]
+    next_point = points_list[3:6]
+    index = 0
+    total_points_list = [index]
+    if Polygon._point_is_concave(normal, point, previous_point, next_point):
+      concave_points.append(index)
+    else:
+      convex_points.append(index)
+    # case 2: all points except first and last
+    for i in range(0, int((len(points_list)-6)/3)):
+      point = points_list[(i+1)*3:(i+2)*3]
+      previous_point = points_list[i*3:(i+1)*3]
+      next_point = points_list[(i+2)*3:(i+3)*3]
+      index = i+1
+      total_points_list.append(index)
+      if Polygon._point_is_concave(normal, point, previous_point, next_point):
+        concave_points.append(index)
+      else:
+        convex_points.append(index)
+    # case 3: last point
+    point = points_list[len(points_list) - 3:]
+    previous_point = points_list[len(points_list) - 6:len(points_list) - 3]
+    next_point = points_list[0:3]
+    index = int(len(points_list)/3) - 1
+    total_points_list.append(index)
+    if Polygon._point_is_concave(normal, point, previous_point, next_point):
+      concave_points.append(index)
+    else:
+      convex_points.append(index)
+    return total_points_list, concave_points, convex_points
+
+  @staticmethod
+  def _triangle(points_list, total_points_list, point_position) -> Polygon:
+    """
+    creates a triangular polygon out of three points
+    :param points_list: points_list
+    :param total_points_list: [point]
+    :param point_position: int
+    :return: polygon
+    """
+    index = point_position * 3
+    previous_point_index, next_point_index = Polygon._enveloping_points_indices(point_position, total_points_list)
+    points = points_list[previous_point_index:previous_point_index + 3]
+    points = np.append(points, points_list[index:index + 3])
+    points = np.append(points, points_list[next_point_index:next_point_index + 3])
+    rows = points.size // 3
+    points = points.reshape(rows, 3)
+    triangle = Polygon(points)
+    return triangle
+
+  @staticmethod
+  def _enveloping_points_indices(point_position, total_points_list):
+    """
+    due to the fact that the lists are not circular, a method to find the previous and next points
+    of an specific one is needed
+    :param point_position: int
+    :param total_points_list: [point]
+    :return: int, int
+    """
+    previous_point_index = None
+    next_point_index = None
+    if point_position == total_points_list[0]:
+      previous_point_index = total_points_list[len(total_points_list) - 1] * 3
+      next_point_index = total_points_list[1] * 3
+    if point_position == total_points_list[len(total_points_list) - 1]:
+      previous_point_index = total_points_list[len(total_points_list) - 2] * 3
+      next_point_index = total_points_list[0] * 3
+    for i in range(1, len(total_points_list)-1):
+      if point_position == total_points_list[i]:
+        previous_point_index = total_points_list[i - 1] * 3
+        next_point_index = total_points_list[i + 1] * 3
+    return previous_point_index, next_point_index
+
+  @staticmethod
+  def _enveloping_points(point_to_remove, total_points_list):
+    """
+    due to the fact that the lists are not circular, a method to find the previous and next points
+    of an specific one is needed
+    :param point_to_remove: point
+    :param total_points_list: [point]
+    :return: point, point
+    """
+    index = total_points_list.index(point_to_remove)
+    if index == 0:
+      previous_point_in_list = total_points_list[len(total_points_list) - 1]
+      next_point_in_list = total_points_list[1]
+    elif index == len(total_points_list) - 1:
+      previous_point_in_list = total_points_list[len(total_points_list) - 2]
+      next_point_in_list = total_points_list[0]
+    else:
+      previous_point_in_list = total_points_list[index - 1]
+      next_point_in_list = total_points_list[index + 1]
+    return previous_point_in_list, next_point_in_list
+
+  @staticmethod
+  def _is_ear(ear, points) -> bool:
+    """
+    finds whether a triangle is an ear of the polygon
+    :param ear: polygon
+    :param points: [point]
+    :return: boolean
+    """
+    area_ear = ear.area
+    for point in points:
+      area_points = 0
+      point_is_not_vertex = True
+      for i in range(0, 3):
+        if abs(np.linalg.norm(point) - np.linalg.norm(ear.coordinates[i])) < 0.0001:
+          point_is_not_vertex = False
+          break
+      if point_is_not_vertex:
+        for i in range(0, 3):
+          if i != 2:
+            new_points = ear.coordinates[i][:]
+            new_points = np.append(new_points, ear.coordinates[i + 1][:])
+            new_points = np.append(new_points, point[:])
+          else:
+            new_points = ear.coordinates[i][:]
+            new_points = np.append(new_points, point[:])
+            new_points = np.append(new_points, ear.coordinates[0][:])
+          rows = new_points.size // 3
+          new_points = new_points.reshape(rows, 3)
+          new_triangle = Polygon(new_points)
+          area_points += new_triangle.area
+      if abs(area_points - area_ear) < 1e-6:
+        # point_inside_ear = True
+        return False
+    return True
+
+  @staticmethod
+  def _if_concave_change_status(normal, points_list, convex_point, total_points_list,
+                                concave_points, convex_points, point_in_list) -> [List[float], List[float], bool]:
+    """
+    checks whether an convex specific point change its status to concave after removing one ear in the polygon
+    returning the new convex and concave points lists together with a flag advising that the list of total points
+    already 3 and, therefore, the triangulation must be finished.
+    :param normal: normal
+    :param points_list: points_list
+    :param convex_point: int
+    :param total_points_list: [point]
+    :param concave_points: [point]
+    :param convex_points: [point]
+    :param point_in_list: int
+    :return: list[points], list[points], boolean
+    """
+    end_loop = False
+    point = points_list[point_in_list * 3:(point_in_list + 1) * 3]
+    pointer = total_points_list.index(point_in_list) - 1
+    if pointer < 0:
+      pointer = len(total_points_list) - 1
+    previous_point = points_list[total_points_list[pointer] * 3:total_points_list[pointer] * 3 + 3]
+    pointer = total_points_list.index(point_in_list) + 1
+    if pointer >= len(total_points_list):
+      pointer = 0
+    next_point = points_list[total_points_list[pointer] * 3:total_points_list[pointer] * 3 + 3]
+    if Polygon._point_is_concave(normal, point, previous_point, next_point):
+      if concave_points[0] > convex_point:
+        concave_points.insert(0, convex_point)
+      elif concave_points[len(concave_points) - 1] < convex_point:
+        concave_points.append(convex_point)
+      else:
+        for point_index in range(0, len(concave_points) - 1):
+          if concave_points[point_index] < convex_point < concave_points[point_index + 1]:
+            concave_points.insert(point_index + 1, convex_point)
+      convex_points.remove(convex_point)
+      end_loop = True
+    return concave_points, convex_points, end_loop
+
+  @staticmethod
+  def _point_is_concave(normal, point, previous_point, next_point) -> bool:
+    """
+    returns whether a point is concave
+    :param normal: normal
+    :param point: point
+    :param previous_point: point
+    :param next_point: point
+    :return: boolean
+    """
+    is_concave = False
+    accepted_error = 0.1
+    points = np.append(previous_point, point)
+    points = np.append(points, next_point)
+    rows = points.size // 3
+    points = points.reshape(rows, 3)
+    triangle = Polygon(points)
+    error_sum = 0
+    for i in range(0, len(normal)):
+      error_sum += triangle.normal[i] - normal[i]
+    if np.abs(error_sum) < accepted_error:
+      is_concave = True
+    return is_concave
+
+  @staticmethod
+  def _angle_between_vectors(vec_1, vec_2):
+    """
+    angle between vectors in radians
+    :param vec_1: vector
+    :param vec_2: vector
+    :return: float
+    """
+    if np.linalg.norm(vec_1) == 0 or np.linalg.norm(vec_2) == 0:
+      sys.stderr.write("Warning: impossible to calculate angle between planes' normal. Return 0\n")
+      return 0
+    cosine = np.dot(vec_1, vec_2) / np.linalg.norm(vec_1) / np.linalg.norm(vec_2)
+    if cosine > 1 and cosine-1 < 1e-5:
+      cosine = 1
+    elif cosine < -1 and cosine+1 > -1e-5:
+      cosine = -1
+    alpha = math.acos(cosine)
+    return alpha
+
+  @property
+  def inverse(self):
+    """
+    Flips the order of the coordinates
+    :return: [np.ndarray]
+    """
+    if self._inverse is None:
+      self._inverse = self.coordinates[::-1]
+    return self._inverse
+
+  def divide(self, plane):
+    """
+    Divides the polygon in two by a plane
+    :param plane: plane that intersects with self to divide it in two parts (Plane)
+    :return: Polygon, Polygon, [Point]
+    """
+    tri_polygons = Trimesh(vertices=self.vertices, faces=self.faces)
+    intersection = trimesh.intersections.mesh_plane(tri_polygons, plane.normal, plane.origin.coordinates)
+    polys_1 = trimesh.intersections.slice_mesh_plane(tri_polygons, plane.opposite_normal, plane.origin.coordinates)
+    polys_2 = trimesh.intersections.slice_mesh_plane(tri_polygons, plane.normal, plane.origin.coordinates)
+    triangles_1 = []
+    for triangle in polys_1.triangles:
+      triangles_1.append(Polygon(triangle))
+    polygon_1 = self._reshape(triangles_1)
+    triangles_2 = []
+    for triangle in polys_2.triangles:
+      triangles_2.append(Polygon(triangle))
+    polygon_2 = self._reshape(triangles_2)
+    return polygon_1, polygon_2, intersection
+
+  def _reshape(self, triangles) -> Polygon:
+    edges_list = []
+    for i in range(0, len(triangles)):
+      for edge in triangles[i].edges:
+        if not self._edge_in_edges_list(edge, edges_list):
+          edges_list.append(edge)
+        else:
+          edges_list = self._remove_from_list(edge, edges_list)
+    points = self._order_points(edges_list)
+    return Polygon(points)
+
+  @staticmethod
+  def _edge_in_edges_list(edge, edges_list):
+    for edge_element in edges_list:
+      if (edge_element[0].distance_to_point(edge[0]) == 0 and edge_element[1].distance_to_point(edge[1]) == 0) or\
+        (edge_element[1].distance_to_point(edge[0]) == 0 and edge_element[0].distance_to_point(edge[1]) == 0):
+        return True
+    return False
+
+  @staticmethod
+  def _order_points(edges_list):
+    # todo: not sure that this method works for any case -> RECHECK
+    points = edges_list[0]
+    for _ in range(0, len(points)):
+      for i in range(1, len(edges_list)):
+        point_1 = edges_list[i][0]
+        point_2 = points[len(points)-1]
+        if point_1.distance_to_point(point_2) == 0:
+          points.append(edges_list[i][1])
+    points.remove(points[len(points)-1])
+    array_points = []
+    for point in points:
+      array_points.append(point.coordinates)
+    return np.array(array_points)
+
+  @staticmethod
+  def _remove_from_list(edge, edges_list):
+    new_list = []
+    for edge_element in edges_list:
+      if not((edge_element[0].distance_to_point(edge[0]) == 0 and edge_element[1].distance_to_point(edge[1]) == 0) or
+             (edge_element[1].distance_to_point(edge[0]) == 0 and edge_element[0].distance_to_point(edge[1]) == 0)):
+        new_list.append(edge_element)
+    return new_list
+
+  @property
+  def vertices(self) -> np.ndarray:
+    """
+    Polyhedron vertices
+    :return: np.ndarray(int)
+    """
+    if self._vertices is None:
+      vertices, self._vertices = [], []
+      _ = [vertices.extend(s.coordinates) for s in self.triangulate()]
+      for vertex_1 in vertices:
+        found = False
+        for vertex_2 in self._vertices:
+          found = False
+          power = 0
+          for dimension in range(0, 3):
+            power += math.pow(vertex_2[dimension] - vertex_1[dimension], 2)
+          distance = math.sqrt(power)
+          if distance == 0:
+            found = True
+            break
+        if not found:
+          self._vertices.append(vertex_1)
+      self._vertices = np.asarray(self._vertices)
+    return self._vertices
+
+  @property
+  def faces(self) -> List[List[int]]:
+    """
+    Polyhedron triangular faces
+    :return: [face]
+    """
+    if self._faces is None:
+      self._faces = []
+
+      for polygon in self.triangulate():
+        face = []
+        points = polygon.coordinates
+        if len(points) != 3:
+          sub_polygons = polygon.triangulate()
+          # todo: I modified this! To be checked @Guille
+          if len(sub_polygons) >= 1:
+            for sub_polygon in sub_polygons:
+              face = []
+              points = sub_polygon.coordinates
+              for point in points:
+                face.append(self._position_of(point, face))
+              self._faces.append(face)
+        else:
+          for point in points:
+            face.append(self._position_of(point, face))
+          self._faces.append(face)
+    return self._faces
+
+  def _position_of(self, point, face):
+    """
+    position of a specific point in the list of points that define a face
+    :return: int
+    """
+    vertices = self.vertices
+    for i in range(len(vertices)):
+      # ensure not duplicated vertex
+      power = 0
+      vertex2 = vertices[i]
+      for dimension in range(0, 3):
+        power += math.pow(vertex2[dimension] - point[dimension], 2)
+      distance = math.sqrt(power)
+      if i not in face and distance == 0:
+        return i
+    return -1
diff --git a/city_model_structure/city_model_structure/attributes/polyhedron.py b/city_model_structure/city_model_structure/attributes/polyhedron.py
new file mode 100644
index 00000000..f0f225c0
--- /dev/null
+++ b/city_model_structure/city_model_structure/attributes/polyhedron.py
@@ -0,0 +1,252 @@
+"""
+Polyhedron module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+Contributors Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+from typing import List, Union
+import sys
+import math
+import numpy as np
+from trimesh import Trimesh
+from helpers.configuration_helper import ConfigurationHelper
+
+
+class Polyhedron:
+  """
+  Polyhedron class
+  """
+
+  def __init__(self, polygons):
+    self._polygons = polygons
+    self._polyhedron = None
+    self._triangulated_polyhedron = None
+    self._volume = None
+    self._faces = None
+    self._vertices = None
+    self._trimesh = None
+    self._centroid = None
+    self._max_z = None
+    self._max_y = None
+    self._max_x = None
+    self._min_z = None
+    self._min_y = None
+    self._min_x = None
+
+  def _position_of(self, point, face):
+    """
+    position of a specific point in the list of points that define a face
+    :return: int
+    """
+    vertices = self.vertices
+    for i in range(len(vertices)):
+      # ensure not duplicated vertex
+      power = 0
+      vertex2 = vertices[i]
+      for dimension in range(0, 3):
+        power += math.pow(vertex2[dimension] - point[dimension], 2)
+      distance = math.sqrt(power)
+      if i not in face and distance == 0:
+        return i
+    return -1
+
+  @property
+  def vertices(self) -> np.ndarray:
+    """
+    Polyhedron vertices
+    :return: np.ndarray(int)
+    """
+    if self._vertices is None:
+      vertices, self._vertices = [], []
+      _ = [vertices.extend(s.coordinates) for s in self._polygons]
+      for vertex_1 in vertices:
+        found = False
+        for vertex_2 in self._vertices:
+          found = False
+          power = 0
+          for dimension in range(0, 3):
+            power += math.pow(vertex_2[dimension] - vertex_1[dimension], 2)
+          distance = math.sqrt(power)
+          if distance == 0:
+            found = True
+            break
+        if not found:
+          self._vertices.append(vertex_1)
+      self._vertices = np.asarray(self._vertices)
+    return self._vertices
+
+  @property
+  def faces(self) -> List[List[int]]:
+    """
+    Polyhedron triangular faces
+    :return: [face]
+    """
+    if self._faces is None:
+      self._faces = []
+
+      for polygon in self._polygons:
+
+        face = []
+        points = polygon.coordinates
+        if len(points) != 3:
+          sub_polygons = polygon.triangulate()
+          # todo: I modified this! To be checked @Guille
+          if len(sub_polygons) >= 1:
+            for sub_polygon in sub_polygons:
+              face = []
+              points = sub_polygon.coordinates
+              for point in points:
+                face.append(self._position_of(point, face))
+              self._faces.append(face)
+        else:
+          for point in points:
+            face.append(self._position_of(point, face))
+          self._faces.append(face)
+    return self._faces
+
+  @property
+  def trimesh(self) -> Union[Trimesh, None]:
+    """
+    Get trimesh
+    :return: Trimesh
+    """
+    if self._trimesh is None:
+      for face in self.faces:
+        if len(face) != 3:
+          sys.stderr.write('Not able to generate trimesh\n')
+          return None
+      self._trimesh = Trimesh(vertices=self.vertices, faces=self.faces)
+    return self._trimesh
+
+  @property
+  def volume(self):
+    """
+    Polyhedron volume in cubic meters
+    :return: float
+    """
+    if self._volume is None:
+      if self.trimesh is None:
+        self._volume = np.inf
+      elif not self.trimesh.is_volume:
+        self._volume = np.inf
+      else:
+        self._volume = self.trimesh.volume
+    return self._volume
+
+  @property
+  def max_z(self):
+    """
+    Polyhedron maximal z value in meters
+    :return: float
+    """
+    if self._max_z is None:
+      self._max_z = ConfigurationHelper().min_coordinate
+      for polygon in self._polygons:
+        for point in polygon.coordinates:
+          self._max_z = max(self._max_z, point[2])
+    return self._max_z
+
+  @property
+  def max_y(self):
+    """
+    Polyhedron maximal y value in meters
+    :return: float
+    """
+    if self._max_y is None:
+      self._max_y = ConfigurationHelper().min_coordinate
+      for polygon in self._polygons:
+        for point in polygon.coordinates:
+          if self._max_y < point[1]:
+            self._max_y = point[1]
+    return self._max_y
+
+  @property
+  def max_x(self):
+    """
+    Polyhedron maximal x value in meters
+    :return: float
+    """
+    if self._max_x is None:
+      self._max_x = ConfigurationHelper().min_coordinate
+      for polygon in self._polygons:
+        for point in polygon.coordinates:
+          self._max_x = max(self._max_x, point[0])
+    return self._max_x
+
+  @property
+  def min_z(self):
+    """
+    Polyhedron minimal z value in meters
+    :return: float
+    """
+    if self._min_z is None:
+      self._min_z = self.max_z
+      for polygon in self._polygons:
+        for point in polygon.coordinates:
+          if self._min_z > point[2]:
+            self._min_z = point[2]
+    return self._min_z
+
+  @property
+  def min_y(self):
+    """
+    Polyhedron minimal y value in meters
+    :return: float
+    """
+    if self._min_y is None:
+      self._min_y = self.max_y
+      for polygon in self._polygons:
+        for point in polygon.coordinates:
+          if self._min_y > point[1]:
+            self._min_y = point[1]
+    return self._min_y
+
+  @property
+  def min_x(self):
+    """
+    Polyhedron minimal x value in meters
+    :return: float
+    """
+    if self._min_x is None:
+      self._min_x = self.max_x
+      for polygon in self._polygons:
+        for point in polygon.coordinates:
+          if self._min_x > point[0]:
+            self._min_x = point[0]
+    return self._min_x
+
+  @property
+  def centroid(self):
+    """
+    Polyhedron centroid
+    :return: [x,y,z]
+    """
+    if self._centroid is None:
+      trimesh = self.trimesh
+      if trimesh is None:
+        return None
+      self._centroid = self.trimesh.centroid
+    return self._centroid
+
+  def stl_export(self, full_path):
+    """
+    Export the polyhedron to stl given file
+    :param full_path: str
+    :return: None
+    """
+    self.trimesh.export(full_path, 'stl_ascii')
+
+  def obj_export(self, full_path):
+    """
+    Export the polyhedron to obj given file
+    :param full_path: str
+    :return: None
+    """
+    self.trimesh.export(full_path, 'obj')
+
+  def show(self):
+    """
+    Auxiliary function to render the polyhedron
+    """
+    self.trimesh.show()
diff --git a/city_model_structure/city_model_structure/attributes/schedule_value.py b/city_model_structure/city_model_structure/attributes/schedule_value.py
new file mode 100644
index 00000000..87d422b2
--- /dev/null
+++ b/city_model_structure/city_model_structure/attributes/schedule_value.py
@@ -0,0 +1,31 @@
+"""
+Building module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Sanam Dabirian sanam.dabirian@mail.concordia.ca
+"""
+
+
+class ScheduleValue:
+  """
+  Schedule Values class
+  """
+
+  def __init__(self, hour, probability):
+    self._hour = hour
+    self._probability = probability
+
+  @property
+  def hour(self):
+    """
+    Get hours
+    :return: hour of a day
+    """
+    return self._hour
+
+  @property
+  def probability(self):
+    """
+    Get probabilities of occupants' presence
+        :return: occupants' presence probabilities
+    """
+    return self._probability
diff --git a/city_model_structure/city_model_structure/bixi_feature.py b/city_model_structure/city_model_structure/bixi_feature.py
new file mode 100644
index 00000000..ae175a0c
--- /dev/null
+++ b/city_model_structure/city_model_structure/bixi_feature.py
@@ -0,0 +1,33 @@
+"""
+bixi_feature module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+from city_model_structure.city_object import CityObject
+
+
+class BixiFeature(CityObject):
+  """
+  BixiFeature(CityObject) class
+  """
+  def __init__(self, lod, surfaces, name, feature_type, coordinates):
+    super().__init__(lod, surfaces, name, [])
+    self._feature_type = feature_type
+    self._coordinates = coordinates
+    self._type = 'bixi_feature'
+
+  @property
+  def feature_type(self):
+    """
+    Get type of bixi feature
+    :return: feature_type
+    """
+    return self._feature_type
+
+  @property
+  def gps_coordinates(self):
+    """
+    Get bixi feature coordinates
+    :return: [x, y, z]
+    """
+    return self._coordinates
diff --git a/city_model_structure/city_model_structure/building.py b/city_model_structure/city_model_structure/building.py
new file mode 100644
index 00000000..c04acb42
--- /dev/null
+++ b/city_model_structure/city_model_structure/building.py
@@ -0,0 +1,353 @@
+"""
+Building module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+contributors: Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+from typing import List
+import numpy as np
+from city_model_structure.building_demand.surface import Surface
+from city_model_structure.building_demand.thermal_zone import ThermalZone
+from city_model_structure.building_demand.thermal_boundary import ThermalBoundary
+from city_model_structure.building_demand.usage_zone import UsageZone
+from city_model_structure.building_demand.storey import Storey
+from city_model_structure.city_object import CityObject
+
+
+class Building(CityObject):
+  """
+  Building(CityObject) class
+  """
+  def __init__(self, name, lod, surfaces, year_of_construction, function,
+               city_lower_corner, terrains=None):
+    super().__init__(name, lod, surfaces, city_lower_corner)
+    self._basement_heated = None
+    self._attic_heated = None
+    self._terrains = terrains
+    self._year_of_construction = year_of_construction
+    self._function = function
+    self._average_storey_height = None
+    self._storeys_above_ground = None
+    self._floor_area = None
+    self._roof_type = None
+    self._storeys = None
+    self._thermal_zones = []
+    self._thermal_boundaries = None
+    self._usage_zones = []
+    self._type = 'building'
+    self._heating = dict()
+    self._cooling = dict()
+    self._eave_height = None
+    self._grounds = []
+    self._roofs = []
+    self._walls = []
+    self._internal_walls = []
+    for surface_id, surface in enumerate(self.surfaces):
+      self._min_x = min(self._min_x, surface.lower_corner[0])
+      self._min_y = min(self._min_y, surface.lower_corner[1])
+      self._min_z = min(self._min_z, surface.lower_corner[2])
+      surface.id = surface_id
+      # todo: consider all type of surfaces, not only these four
+      if surface.type == 'Ground':
+        self._grounds.append(surface)
+      elif surface.type == 'Wall':
+        self._walls.append(surface)
+      elif surface.type == 'Roof':
+        self._roofs.append(surface)
+      else:
+        self._internal_walls.append(surface)
+
+    self._pv_plus_hp_installation = None
+
+  @property
+  def grounds(self) -> [Surface]:
+    """
+    Building ground surfaces
+    """
+    return self._grounds
+
+  @property
+  def is_heated(self):
+    """
+    Get building heated flag
+    :return: Boolean
+    """
+    for usage_zone in self.usage_zones:
+      if usage_zone.is_heated:
+        return usage_zone.is_heated
+    return False
+
+  @property
+  def is_cooled(self):
+    """
+    Get building cooled flag
+    :return: Boolean
+    """
+    for usage_zone in self.usage_zones:
+      if usage_zone.is_cooled:
+        return usage_zone.is_cooled
+    return False
+
+  @property
+  def roofs(self) -> [Surface]:
+    """
+    Building roof surfaces
+    """
+    return self._roofs
+
+  @property
+  def walls(self) -> [Surface]:
+    """
+    Building wall surfaces
+    """
+    return self._walls
+
+  @property
+  def usage_zones(self) -> List[UsageZone]:
+    """
+    Get city object usage zones
+    :return: [UsageZone]
+    """
+    if len(self._usage_zones) == 0:
+      for thermal_zone in self.thermal_zones:
+        self._usage_zones.extend(thermal_zone.usage_zones)
+    return self._usage_zones
+
+  @property
+  def terrains(self) -> List[Surface]:
+    """
+    Get city object terrain surfaces
+    :return: [Surface]
+    """
+    return self._terrains
+
+  @property
+  def attic_heated(self):
+    """
+    Get if the city object attic is heated
+    :return: Boolean
+    """
+    return self._attic_heated
+
+  @attic_heated.setter
+  def attic_heated(self, value):
+    """
+    Set if the city object attic is heated
+    :param value: Boolean
+    :return: None
+    """
+    self._attic_heated = value
+
+  @property
+  def basement_heated(self):
+    """
+    Get if the city object basement is heated
+    :return: Boolean
+    """
+    return self._basement_heated
+
+  @basement_heated.setter
+  def basement_heated(self, value):
+    """
+    Set if the city object basement is heated
+    :param value: Boolean
+    :return: None
+    """
+    self._basement_heated = value
+
+  @property
+  def name(self):
+    """
+    City object name
+    :return: str
+    """
+    return self._name
+
+  @property
+  def thermal_zones(self) -> List[ThermalZone]:
+    """
+    City object thermal zones
+    :return: [ThermalZone]
+    """
+    if len(self._thermal_zones) == 0:
+      for storey in self.storeys:
+        self._thermal_zones.append(storey.thermal_zone)
+    return self._thermal_zones
+
+  @property
+  def heated_volume(self):
+    """
+    City object heated volume in cubic meters
+    :return: float
+    """
+    # ToDo: this need to be calculated based on the basement and attic heated values
+    raise NotImplementedError
+
+  @property
+  def year_of_construction(self):
+    """
+    City object year of construction
+    :return: int
+    """
+    return self._year_of_construction
+
+  @property
+  def function(self):
+    """
+    City object function
+    :return: str
+    """
+    return self._function
+
+  @function.setter
+  def function(self, value):
+    """
+    Set building function
+    :param value: string
+    :return: None
+    """
+    self._function = value
+
+  @property
+  def average_storey_height(self):
+    """
+    Get city object average storey height in meters
+    :return: float
+    """
+    return self._average_storey_height
+
+  @average_storey_height.setter
+  def average_storey_height(self, value):
+    """
+    Set city object average storey height in meters
+    :param value: float
+    :return: None
+    """
+    self._average_storey_height = value
+
+  @property
+  def storeys_above_ground(self):
+    """
+    Get city object storeys number above ground
+    :return: int
+    """
+    return self._storeys_above_ground
+
+  @storeys_above_ground.setter
+  def storeys_above_ground(self, value):
+    """
+    Set city object storeys number above ground
+    :param value: int
+    :return:
+    """
+    self._storeys_above_ground = value
+
+  @staticmethod
+  def _tuple_to_point(xy_tuple):
+    return [xy_tuple[0], xy_tuple[1], 0.0]
+
+  @property
+  def heating(self) -> dict:
+    """
+    heating demand in Wh
+    :return: dict{DataFrame(float)}
+    """
+    return self._heating
+
+  @heating.setter
+  def heating(self, value):
+    """
+    heating demand in Wh
+    :param value: dict{DataFrame(float)}
+    """
+    self._heating = value
+
+  @property
+  def cooling(self) -> dict:
+    """
+    cooling demand in Wh
+    :return: dict{DataFrame(float)}
+    """
+    return self._cooling
+
+  @cooling.setter
+  def cooling(self, value):
+    """
+    cooling demand in Wh
+    :param value: dict{DataFrame(float)}
+    """
+    self._cooling = value
+
+  @property
+  def eave_height(self):
+    """
+    building eave height in meters
+    :return: float
+    """
+    if self._eave_height is None:
+      self._eave_height = 0
+      for wall in self.walls:
+        self._eave_height = max(self._eave_height, wall.upper_corner[2])
+    return self._eave_height
+
+  @property
+  def storeys(self) -> [Storey]:
+    """
+    Storeys inside the building
+    :return: [Storey]
+    """
+    return self._storeys
+
+  @storeys.setter
+  def storeys(self, value):
+    """
+    Storeys inside the building
+    :param value: [Storey]
+    """
+    self._storeys = value
+
+  @property
+  def roof_type(self):
+    """
+    Roof type for the building flat or pitch
+    """
+    if self._roof_type is None:
+      self._roof_type = 'flat'
+      for roof in self.roofs:
+        grads = np.rad2deg(roof.inclination)
+        if 355 > grads > 5:
+          self._roof_type = 'pitch'
+          break
+    return self._roof_type
+
+  @property
+  def floor_area(self):
+    """
+    Floor area of the building m2
+    :return: float
+    """
+    if self._floor_area is None:
+      self._floor_area = 0
+      for surface in self.surfaces:
+        if surface.type == 'Ground':
+          self._floor_area += surface.perimeter_polygon.area
+    return self._floor_area
+
+  @property
+  def thermal_boundaries(self) -> List[ThermalBoundary]:
+    """
+    List of all thermal boundaries associated to the building's thermal zones
+    :return: [ThermalBoundary]
+    """
+    if self._thermal_boundaries is None:
+      self._thermal_boundaries = []
+      for thermal_zone in self.thermal_zones:
+        _thermal_boundary_duplicated = False
+        for thermal_boundary in thermal_zone.thermal_boundaries:
+          if len(thermal_boundary.thermal_zones) > 1:
+            if thermal_zone != thermal_boundary.thermal_zones[1]:
+              self._thermal_boundaries.append(thermal_boundary)
+          else:
+            self._thermal_boundaries.append(thermal_boundary)
+    return self._thermal_boundaries
diff --git a/city_model_structure/city_model_structure/building_demand/building_from_trimesh.py b/city_model_structure/city_model_structure/building_demand/building_from_trimesh.py
new file mode 100644
index 00000000..2c0b9e31
--- /dev/null
+++ b/city_model_structure/city_model_structure/building_demand/building_from_trimesh.py
@@ -0,0 +1,27 @@
+"""
+Building module a new implementation option
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+from city_model_structure.building_demand.surface import Surface
+from city_model_structure.city_object import CityObject
+from city_model_structure.attributes.polygon import Polygon
+
+
+class Building(CityObject):
+  """
+  Building(CityObject) class
+  """
+  def __init__(self, name, lod, trimesh, year_of_construction, function, city_lower_corner):
+    surfaces = []
+    for face in trimesh.faces:
+      # todo: review for obj with windows
+      points = []
+      for vertex_index in face:
+        points.append(trimesh.vertices[vertex_index])
+      solid_polygon = Polygon(points)
+      perimeter_polygon = solid_polygon
+      surface = Surface(solid_polygon, perimeter_polygon)
+      surfaces.append(surface)
+    super().__init__(name, lod, surfaces, city_lower_corner)
diff --git a/city_model_structure/city_model_structure/building_demand/help.py b/city_model_structure/city_model_structure/building_demand/help.py
new file mode 100644
index 00000000..7670b030
--- /dev/null
+++ b/city_model_structure/city_model_structure/building_demand/help.py
@@ -0,0 +1,26 @@
+
+# from surfaces to thermal_zones
+
+#zone_surfaces = []
+# these should be the virtual internal surfaces (What about the internal walls??)
+#for surface_id in zone_surfaces_ids:
+#  zone_surfaces.append(self.surface(surface_id))
+#self._thermal_zones.append(ThermalZone(zone_surfaces))
+
+#for t_zones in self._thermal_zones:
+#  t_zones.bounded = [ThermalBoundary(s, [t_zones]) for s in t_zones.surfaces]
+
+from city_model_structure.attributes.polygon import Polygon
+from city_model_structure.attributes.plane import Plane
+from city_model_structure.attributes.point import Point
+import numpy as np
+
+coordinates = [np.array([1, 0, 0]), np.array([0, 0, 0]), np.array([0, 0, 1]), np.array([1, 0, 1])]
+polygon = Polygon(coordinates)
+origin = Point([0, 0, 0.5])
+normal = np.array([0, 0, 1])
+plane = Plane(normal=normal, origin=origin)
+intersection, polygon_1, polygon_2 = polygon.divide(plane)
+print('final polygon')
+print(polygon_1.coordinates)
+print(polygon_2.coordinates)
diff --git a/city_model_structure/city_model_structure/building_demand/internal_gains.py b/city_model_structure/city_model_structure/building_demand/internal_gains.py
new file mode 100644
index 00000000..7debf06b
--- /dev/null
+++ b/city_model_structure/city_model_structure/building_demand/internal_gains.py
@@ -0,0 +1,81 @@
+"""
+InternalGains module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+
+
+class InternalGains:
+  """
+    InternalGains class
+    """
+
+  def __init__(self):
+    self._average_internal_gain = None
+    self._convective_fraction = None
+    self._radiative_fraction = None
+    self._latent_fraction = None
+
+  @property
+  def average_internal_gain(self):
+    """
+    Get internal gains average internal gain in W/m2
+    :return: float
+    """
+    return self._average_internal_gain
+
+  @average_internal_gain.setter
+  def average_internal_gain(self, value):
+    """
+    Set internal gains average internal gain in W/m2
+    :param value: float
+    """
+    self._average_internal_gain = value
+
+  @property
+  def convective_fraction(self):
+    """
+    Get internal gains convective fraction
+    :return: float
+    """
+    return self._convective_fraction
+
+  @convective_fraction.setter
+  def convective_fraction(self, value):
+    """
+    Set internal gains convective fraction
+    :param value: float
+    """
+    self._convective_fraction = value
+
+  @property
+  def radiative_fraction(self):
+    """
+    Get internal gains radiative fraction
+    :return: float
+    """
+    return self._radiative_fraction
+
+  @radiative_fraction.setter
+  def radiative_fraction(self, value):
+    """
+    Set internal gains convective fraction
+    :param value: float
+    """
+    self._radiative_fraction = value
+
+  @property
+  def latent_fraction(self):
+    """
+    Get internal gains latent fraction
+    :return: float
+    """
+    return self._latent_fraction
+
+  @latent_fraction.setter
+  def latent_fraction(self, value):
+    """
+    Set internal gains latent fraction
+    :param value: float
+    """
+    self._latent_fraction = value
diff --git a/city_model_structure/city_model_structure/building_demand/layer.py b/city_model_structure/city_model_structure/building_demand/layer.py
new file mode 100644
index 00000000..69860270
--- /dev/null
+++ b/city_model_structure/city_model_structure/building_demand/layer.py
@@ -0,0 +1,59 @@
+"""
+Layers module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+import uuid
+from city_model_structure.building_demand.material import Material
+
+
+class Layer:
+  """
+  Layer class
+  """
+  def __init__(self):
+    self._material = None
+    self._thickness = None
+    self._id = None
+
+  @property
+  def id(self):
+    """
+    Get layer id, an universally unique identifier randomly generated
+    :return: str
+    """
+    if self._id is None:
+      self._id = uuid.uuid4()
+    return self._id
+
+  @property
+  def material(self) -> Material:
+    """
+    Get layer material
+    :return: Material
+    """
+    return self._material
+
+  @material.setter
+  def material(self, value):
+    """
+    Set layer material
+    :param value: Material
+    """
+    self._material = value
+
+  @property
+  def thickness(self):
+    """
+    Get layer thickness in meters
+    :return: float
+    """
+    return self._thickness
+
+  @thickness.setter
+  def thickness(self, value):
+    """
+    Get layer thickness in meters
+    :param value: float
+    """
+    self._thickness = value
diff --git a/city_model_structure/city_model_structure/building_demand/material.py b/city_model_structure/city_model_structure/building_demand/material.py
new file mode 100644
index 00000000..3aee0735
--- /dev/null
+++ b/city_model_structure/city_model_structure/building_demand/material.py
@@ -0,0 +1,165 @@
+"""
+Material module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+
+
+class Material:
+  """
+  Material class
+  """
+  def __init__(self):
+    self._name = None
+    self._conductivity = None
+    self._specific_heat = None
+    self._density = None
+    self._solar_absorptance = None
+    self._thermal_absorptance = None
+    self._visible_absorptance = None
+    self._no_mass = False
+    self._thermal_resistance = None
+
+  @property
+  def name(self):
+    """
+     Get material name
+     :return: string
+    """
+    return self._name
+
+  @name.setter
+  def name(self, value):
+    """
+    Set material name
+    :param value: string
+    """
+    self._name = value
+
+  @property
+  def conductivity(self):
+    """
+     Get material conductivity in W/mK
+     :return: float
+    """
+    return self._conductivity
+
+  @conductivity.setter
+  def conductivity(self, value):
+    """
+    Set material conductivity in W/mK
+    :param value: float
+    """
+    self._conductivity = value
+
+  @property
+  def specific_heat(self):
+    """
+    Get material conductivity in J/kgK
+    :return: float
+    """
+    return self._specific_heat
+
+  @specific_heat.setter
+  def specific_heat(self, value):
+    """
+    Get material conductivity in J/kgK
+    :param value: float
+    """
+    self._specific_heat = value
+
+  @property
+  def density(self):
+    """
+    Get material density in kg/m3
+    :return: float
+    """
+    return self._density
+
+  @density.setter
+  def density(self, value):
+    """
+    Set material density in kg/m3
+    :param value: float
+    """
+    self._density = value
+
+  @property
+  def solar_absorptance(self):
+    """
+    Get material solar absorptance
+    :return: float
+    """
+    return self._solar_absorptance
+
+  @solar_absorptance.setter
+  def solar_absorptance(self, value):
+    """
+    Set material solar absorptance
+    :param value: float
+    """
+    self._solar_absorptance = value
+
+  @property
+  def thermal_absorptance(self):
+    """
+    Get material thermal absorptance
+    :return: float
+    """
+    return self._thermal_absorptance
+
+  @thermal_absorptance.setter
+  def thermal_absorptance(self, value):
+    """
+    Set material thermal absorptance
+    :param value: float
+    """
+    self._thermal_absorptance = value
+
+  @property
+  def visible_absorptance(self):
+    """
+    Get material visible absorptance
+    :return: float
+    """
+    return self._visible_absorptance
+
+  @visible_absorptance.setter
+  def visible_absorptance(self, value):
+    """
+    Set material visible absorptance
+    :param value: float
+    """
+    self._visible_absorptance = value
+
+  @property
+  def no_mass(self):
+    """
+    Get material no mass flag
+    :return: Boolean
+    """
+    return self._no_mass
+
+  @no_mass.setter
+  def no_mass(self, value):
+    """
+    Set material no mass flag
+    :param value: Boolean
+    """
+    self._no_mass = value
+
+  @property
+  def thermal_resistance(self):
+    """
+    Get material thermal resistance in m2K/W
+    :return: float
+    """
+    return self._thermal_resistance
+
+  @thermal_resistance.setter
+  def thermal_resistance(self, value):
+    """
+    Set material thermal resistance in m2K/W
+    :param value: float
+    """
+    self._thermal_resistance = value
diff --git a/city_model_structure/city_model_structure/building_demand/occupants.py b/city_model_structure/city_model_structure/building_demand/occupants.py
new file mode 100644
index 00000000..f11cc770
--- /dev/null
+++ b/city_model_structure/city_model_structure/building_demand/occupants.py
@@ -0,0 +1,217 @@
+"""
+Occupants module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Sanam Dabirian sanam.dabirian@mail.concordia.ca
+Contributors Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+from typing import TypeVar
+import calendar as cal
+
+UsageZone = TypeVar('UsageZone')
+
+
+class Occupants:
+  """
+  Occupants class
+  """
+
+  def __init__(self):
+    """
+    Constructor
+    """
+
+    self._heat_dissipation = None
+    self._occupancy_rate = None
+    self._occupant_type = None
+    self._usage_zone = None
+    self._occupant_schedule = None
+    self._number_of_occupants = None
+    self._arrival_time = None
+    self._departure_time = None
+    self._break_time = None
+    self._day_of_week = None
+    self._pd_of_meetings_duration = None
+    self._complete_year_schedule = None
+
+  @property
+  def heat_dissipation(self):
+    """
+    Get heat dissipation of occupants in W/person
+    :return: float
+    """
+    return self._heat_dissipation
+
+  @heat_dissipation.setter
+  def heat_dissipation(self, value):
+    """
+    Set heat dissipation of occupants in W/person
+    :param value: float
+    """
+    self._heat_dissipation = value
+
+  @property
+  def occupancy_rate(self):
+    """
+    Get rate of schedules
+    :return: float
+    """
+    return self._occupancy_rate
+
+  @occupancy_rate.setter
+  def occupancy_rate(self, value):
+    """
+    Set rate of schedules
+    :param value: float
+    """
+    self._occupancy_rate = value
+
+  @property
+  def occupant_type(self):
+    """
+    Get type of schedules
+    :return: string
+    """
+    return self._occupant_type
+
+  @occupant_type.setter
+  def occupant_type(self, value):
+    """
+    Set type of schedules
+    :param value: float
+    """
+    self._occupant_type = value
+
+  @property
+  def usage_zone(self) -> UsageZone:
+    """
+    Get the zone an occupant is in
+    :return: UsageZone
+    """
+    return self._usage_zone
+
+  @property
+  def occupant_schedule(self):
+    """
+    Get the schedules when an occupant is in a zone (24 values, 1 per hour of the day)
+    :return: [float]
+    """
+    return self._occupant_schedule
+
+  @occupant_schedule.setter
+  def occupant_schedule(self, value):
+    """
+    Set the schedules when an occupant is in a zone (24 values, 1 per hour of the day)
+    :param value: [float]
+    """
+    self._occupant_schedule = value
+
+  @property
+  def number_of_occupants(self):
+    """
+    Get the number of occupants
+    :return: int
+    """
+    return self._number_of_occupants
+
+  @number_of_occupants.setter
+  def number_of_occupants(self, value):
+    """
+    Set the number of occupants
+    :param value: int
+    """
+    self._number_of_occupants = value
+
+  @property
+  def arrival_time(self):
+    """
+    Get the arrival time of the occupant (for office building) in UTC with format YYYYMMDD HH:mm:ss
+    :return: time
+    """
+    return self._arrival_time
+
+  @arrival_time.setter
+  def arrival_time(self, value):
+    """
+    Set the arrival time of the occupant (for office building) in UTC with format YYYYMMDD HH:mm:ss
+    :param value: time
+    """
+    self._arrival_time = value
+
+  @property
+  def departure_time(self):
+    """
+    Get the departure time of the occupant (for office building) in UTC with format YYYYMMDD HH:mm:ss
+    :return: time
+    """
+    return self._departure_time
+
+  @departure_time.setter
+  def departure_time(self, value):
+    """
+    Set the departure time of the occupant (for office building) in UTC with format YYYYMMDD HH:mm:ss
+    :param value: time
+    """
+    self._departure_time = value
+
+  @property
+  def break_time(self):
+    """
+    Get the lunch or break time of the occupant (for office building) in UTC with format ????
+    :return: break time
+    """
+    # todo @Sanam: define this format, is it the starting time? is it a list with both, starting and ending time?
+    return self._break_time
+
+  @property
+  def day_of_week(self):
+    """
+    Get the day of the week (MON, TUE, WED, THU, FRI, SAT, SUN)
+    :return: string
+    """
+    # todo @Sanam: is this a property or should it be a function
+    #  to get the day of the week of an specific day of the year?
+    return self._day_of_week
+
+  @property
+  def pd_of_meetings_duration(self):
+    """
+    Get the probability distribution of the meeting duration
+    :return: ??
+    """
+    # todo @Sanam: what format are you expecting here??
+    return self._pd_of_meetings_duration
+
+  @pd_of_meetings_duration.setter
+  def pd_of_meetings_duration(self, value):
+    """
+    Get the probability distribution of the meeting duration
+    :param value: ??
+    :return:
+    """
+    # todo @Sanam: what format are you expecting here??
+    self._pd_of_meetings_duration = value
+
+  def get_complete_year_schedule(self, schedules):
+    """
+    Get the a non-leap year (8760 h), starting on Monday schedules out of archetypal days of week
+    :return: [float]
+    """
+    if self._complete_year_schedule is None:
+      self._complete_year_schedule = []
+      for i in range(1, 13):
+        month_range = cal.monthrange(2015, i)[1]
+        for day in range(1, month_range+1):
+          if cal.weekday(2015, i, day) < 5:
+            for j in range(0, 24):
+              week_schedule = schedules['WD'][j]
+              self._complete_year_schedule.append(week_schedule)
+          elif cal.weekday(2015, i, day) == 5:
+            for j in range(0, 24):
+              week_schedule = schedules['Sat'][j]
+              self._complete_year_schedule.append(week_schedule)
+          else:
+            for j in range(0, 24):
+              week_schedule = schedules['Sun'][j]
+              self._complete_year_schedule.append(week_schedule)
+    return self._complete_year_schedule
diff --git a/city_model_structure/city_model_structure/building_demand/storey.py b/city_model_structure/city_model_structure/building_demand/storey.py
new file mode 100644
index 00000000..ad3e841e
--- /dev/null
+++ b/city_model_structure/city_model_structure/building_demand/storey.py
@@ -0,0 +1,93 @@
+"""
+Storey module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+from __future__ import annotations
+from typing import List
+from city_model_structure.building_demand.surface import Surface
+from city_model_structure.building_demand.thermal_boundary import ThermalBoundary
+from city_model_structure.building_demand.thermal_zone import ThermalZone
+
+
+class Storey:
+  # todo: rethink this class for buildings with windows
+  """
+  Storey class
+  """
+  def __init__(self, name, storey_surfaces, neighbours, volume):
+    # todo: the information of the parent surface is lost -> need to recover it
+    self._name = name
+    self._storey_surfaces = storey_surfaces
+    self._thermal_boundaries = None
+    self._virtual_surfaces = None
+    self._thermal_zone = None
+    self._neighbours = neighbours
+    self._volume = volume
+
+  @property
+  def name(self):
+    """
+    Storey's name
+    :return: str
+    """
+    return self._name
+
+  @property
+  def surfaces(self) -> List[Surface]:
+    """
+    External surfaces enclosing the storey
+    :return: [Surface]
+    """
+    return self._storey_surfaces
+
+  @property
+  def neighbours(self):
+    """
+    Neighbour storeys' names
+    :return: [str]
+    """
+    return self._neighbours
+
+  @property
+  def thermal_boundaries(self) -> List[ThermalBoundary]:
+    """
+    Thermal boundaries bounding the thermal zone
+    :return: [ThermalBoundary]
+    """
+    if self._thermal_boundaries is None:
+      self._thermal_boundaries = []
+      for surface in self.surfaces:
+        self._thermal_boundaries.append(ThermalBoundary(surface))
+    return self._thermal_boundaries
+
+  @property
+  def virtual_surfaces(self) -> List[Surface]:
+    """
+    Internal surfaces enclosing the thermal zone
+    :return: [Surface]
+    """
+    if self._virtual_surfaces is None:
+      self._virtual_surfaces = []
+      for thermal_boundary in self.thermal_boundaries:
+        self._virtual_surfaces.append(thermal_boundary.virtual_internal_surface)
+    return self._virtual_surfaces
+
+  @property
+  def thermal_zone(self) -> ThermalZone:
+    """
+    Thermal zone inside the storey
+    :return: ThermalZone
+    """
+    if self._thermal_zone is None:
+      self._thermal_zone = ThermalZone(self.thermal_boundaries, self.volume)
+    return self._thermal_zone
+
+  @property
+  def volume(self):
+    """
+    Storey's volume
+    :return: float
+    """
+    return self._volume
diff --git a/city_model_structure/city_model_structure/building_demand/surface.py b/city_model_structure/city_model_structure/building_demand/surface.py
new file mode 100644
index 00000000..3c18f2fc
--- /dev/null
+++ b/city_model_structure/city_model_structure/building_demand/surface.py
@@ -0,0 +1,295 @@
+"""
+Surface module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+contributors Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+from __future__ import annotations
+import uuid
+import numpy as np
+from city_model_structure.attributes.polygon import Polygon
+from city_model_structure.attributes.plane import Plane
+from city_model_structure.attributes.point import Point
+from city_model_structure.energy_systems.pv_system import PvSystem
+import helpers.constants as cte
+
+
+class Surface:
+  """
+  Surface class
+  """
+  def __init__(self, solid_polygon, perimeter_polygon, holes_polygons=None, name=None, surface_type=None, swr=None):
+    self._type = surface_type
+    self._swr = swr
+    self._name = name
+    self._id = None
+    self._azimuth = None
+    self._inclination = None
+    self._area_above_ground = None
+    self._area_below_ground = None
+    self._lower_corner = None
+    self._upper_corner = None
+    self._shared_surfaces = []
+    self._global_irradiance = dict()
+    self._perimeter_polygon = perimeter_polygon
+    self._holes_polygons = holes_polygons
+    self._solid_polygon = solid_polygon
+    self._pv_system_installed = None
+    self._inverse = None
+    # todo: do I need it???
+    self._associated_thermal_boundaries = None
+
+  @property
+  def name(self):
+    """
+    Surface name
+    :return: str
+    """
+    if self._name is None:
+      self._name = str(uuid.uuid4())
+    return self._name
+
+  @property
+  def id(self):
+    """
+    Surface id
+    :return str
+    """
+    if self._id is None:
+      raise ValueError('Undefined surface id')
+    return self._id
+
+  @property
+  def share_surfaces(self):
+    """
+    Raises not implemented error
+    """
+    raise NotImplementedError
+
+  @id.setter
+  def id(self, value):
+    """
+    Surface id
+    """
+    self._id = value
+
+  @property
+  def swr(self):
+    """
+    Get surface short wave reflectance
+    :return: float
+    """
+    return self._swr
+
+  @swr.setter
+  def swr(self, value):
+    """
+    Set surface short wave reflectance
+    :param value: float
+    """
+    self._swr = value
+
+  def _max_coord(self, axis):
+    if axis == 'x':
+      axis = 0
+    elif axis == 'y':
+      axis = 1
+    else:
+      axis = 2
+    max_coordinate = ''
+    for point in self.perimeter_polygon.coordinates:
+      if max_coordinate == '':
+        max_coordinate = point[axis]
+      elif max_coordinate < point[axis]:
+        max_coordinate = point[axis]
+    return max_coordinate
+
+  def _min_coord(self, axis):
+    if axis == 'x':
+      axis = 0
+    elif axis == 'y':
+      axis = 1
+    else:
+      axis = 2
+    min_coordinate = ''
+    for point in self.perimeter_polygon.coordinates:
+      if min_coordinate == '':
+        min_coordinate = point[axis]
+      elif min_coordinate > point[axis]:
+        min_coordinate = point[axis]
+    return min_coordinate
+
+  @property
+  def lower_corner(self):
+    """
+    Surface's lower corner [x, y, z]
+    :return: [float]
+    """
+    if self._lower_corner is None:
+      self._lower_corner = [self._min_coord('x'), self._min_coord('y'), self._min_coord('z')]
+    return self._lower_corner
+
+  @property
+  def upper_corner(self):
+    """
+    Surface's upper corner [x, y, z]
+    :return: [float]
+    """
+    if self._upper_corner is None:
+      self._upper_corner = [self._max_coord('x'), self._max_coord('y'), self._max_coord('z')]
+    return self._upper_corner
+
+  @property
+  def area_above_ground(self):
+    """
+    Surface area above ground in square meters
+    :return: float
+    """
+    if self._area_above_ground is None:
+      self._area_above_ground = self.perimeter_polygon.area - self.area_below_ground
+    return self._area_above_ground
+
+  # todo: to be implemented when adding terrains
+  @property
+  def area_below_ground(self):
+    """
+    Surface area below ground in square meters
+    :return: float
+    """
+    return 0.0
+
+  @property
+  def azimuth(self):
+    """
+    Surface azimuth in radians
+    :return: float
+    """
+    if self._azimuth is None:
+      normal = self.perimeter_polygon.normal
+      self._azimuth = np.arctan2(normal[1], normal[0])
+    return self._azimuth
+
+  @property
+  def inclination(self):
+    """
+    Surface inclination in radians
+    :return: float
+    """
+    if self._inclination is None:
+      self._inclination = np.arccos(self.perimeter_polygon.normal[2])
+    return self._inclination
+
+  @property
+  def type(self):
+    """
+    Surface type Ground, Wall or Roof
+    :return: str
+    """
+    if self._type is None:
+      grad = np.rad2deg(self.inclination)
+      if grad >= 170:
+        self._type = 'Ground'
+      elif 80 <= grad <= 100:
+        self._type = 'Wall'
+      else:
+        self._type = 'Roof'
+    return self._type
+
+  @property
+  def global_irradiance(self) -> dict:
+    """
+    global irradiance on surface in Wh/m2
+    :return: dict{DataFrame(float)}
+    """
+    return self._global_irradiance
+
+  @global_irradiance.setter
+  def global_irradiance(self, value):
+    """
+    global irradiance on surface in Wh/m2
+    :param value: dict{DataFrame(float)}
+    """
+    self._global_irradiance = value
+
+  @property
+  def perimeter_polygon(self) -> Polygon:
+    """
+    total surface defined by the perimeter, merging solid and holes
+    :return: Polygon
+    """
+    return self._perimeter_polygon
+
+  @property
+  def solid_polygon(self) -> Polygon:
+    """
+    solid surface
+    :return: Polygon
+    """
+    return self._solid_polygon
+
+  @property
+  def holes_polygons(self) -> [Polygon]:
+    """
+    hole surfaces, a list of hole polygons found in the surface
+    :return: None, [] or [Polygon]
+      None -> not known whether holes exist in reality or not due to low level of detail of input data
+      [] -> no holes in the surface
+      [Polygon] -> one or more holes in the surface
+    """
+    return self._holes_polygons
+
+  @property
+  def pv_system_installed(self) -> PvSystem:
+    """
+    PV system installed on the surface
+    :return: PvSystem
+    """
+    return self._pv_system_installed
+
+  @pv_system_installed.setter
+  def pv_system_installed(self, value):
+    """
+    PV system installed on the surface
+    :param value: PvSystem
+    """
+    self._pv_system_installed = value
+
+  @property
+  def inverse(self) -> Surface:
+    """
+    Returns the same surface pointing backwards
+    :return: Surface
+    """
+    if self._inverse is None:
+      new_solid_polygon = Polygon(self.solid_polygon.inverse)
+      new_perimeter_polygon = Polygon(self.perimeter_polygon.inverse)
+      new_holes_polygons = []
+      if self.holes_polygons is not None:
+        for hole in self.holes_polygons:
+          new_holes_polygons.append(Polygon(hole.inverse))
+      else:
+        new_holes_polygons = None
+      self._inverse = Surface(new_solid_polygon, new_perimeter_polygon, new_holes_polygons, cte.VIRTUAL_INTERNAL)
+    return self._inverse
+
+  def shared_surfaces(self):
+    """
+    Raises not implemented error
+    """
+    # todo: check https://trimsh.org/trimesh.collision.html as an option to implement this method
+    raise NotImplementedError
+
+  def divide(self, z):
+    """
+    Divides a surface at Z plane
+    """
+    # todo: recheck this method for LoD3 (windows)
+    origin = Point([0, 0, z])
+    normal = np.array([0, 0, 1])
+    plane = Plane(normal=normal, origin=origin)
+    polygon = self.perimeter_polygon
+    part_1, part_2, intersection = polygon.divide(plane)
+    surface_child = Surface(part_1, part_1, name=self.name, surface_type=self.type)
+    rest_surface = Surface(part_2, part_2, name=self.name, surface_type=self.type)
+    return surface_child, rest_surface, intersection
diff --git a/city_model_structure/city_model_structure/building_demand/thermal_boundary.py b/city_model_structure/city_model_structure/building_demand/thermal_boundary.py
new file mode 100644
index 00000000..878a9124
--- /dev/null
+++ b/city_model_structure/city_model_structure/building_demand/thermal_boundary.py
@@ -0,0 +1,394 @@
+"""
+ThermalBoundary module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+Contributors Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+from typing import List, TypeVar, Union
+from city_model_structure.building_demand.layer import Layer
+from city_model_structure.building_demand.thermal_opening import ThermalOpening
+from city_model_structure.building_demand.thermal_zone import ThermalZone
+from city_model_structure.building_demand.surface import Surface
+
+Polygon = TypeVar('Polygon')
+
+
+class ThermalBoundary:
+  """
+  ThermalBoundary class
+  """
+  def __init__(self, surface):
+    self._surface = surface
+    self._thermal_zones = None
+    # ToDo: up to at least LOD2 will be just one thermal opening per Thermal boundary only if window_ratio > 0,
+    #  review for LOD3 and LOD4
+    self._thermal_openings = None
+    self._layers = None
+    self._outside_solar_absorptance = None
+    self._outside_thermal_absorptance = None
+    self._outside_visible_absorptance = None
+    self._u_value = None
+    self._shortwave_reflectance = None
+    self._construction_name = None
+    self._hi = 3.5
+    self._he = 20
+    self._window_ratio = None
+    self._refurbishment_measure = None
+    self._surface_geometry = None
+    self._thickness = None
+    self._virtual_internal_surface = None
+    self._inside_emissivity = None
+    self._alpha_coefficient = None
+    self._radiative_coefficient = None
+
+  @property
+  def surface(self) -> Surface:
+    """
+    Get the surface that belongs to the thermal boundary
+    :return: Surface
+    """
+    # todo: in LoD4 this property will be a list of surfaces, not only one
+    return self._surface
+
+  @property
+  def thermal_zones(self) -> List[ThermalZone]:
+    """
+    Get the thermal zones delimited by the thermal boundary
+    :return: [ThermalZone]
+    """
+    return self._thermal_zones
+
+  @thermal_zones.setter
+  def thermal_zones(self, value):
+    """
+    Thermal zones delimited by the thermal boundary
+    :param value: [ThermalZone]
+    """
+    self._thermal_zones = value
+
+  @property
+  def azimuth(self):
+    """
+    Thermal boundary azimuth in radians
+    :return: float
+    """
+    return self._surface.azimuth
+
+  @property
+  def inclination(self):
+    """
+    Thermal boundary inclination in radians
+    :return: float
+    """
+    return self._surface.inclination
+
+  @property
+  def area(self):
+    """
+    Thermal boundary area in square meters
+    :return: float
+    """
+    # to check the lod without depending on that parameter
+    if float(self.surface.solid_polygon.area) - float(self.surface.perimeter_polygon.area) < 1e-3:
+      area = float(self.surface.perimeter_polygon.area) * (1 - float(self.window_ratio))
+    else:
+      area = self.surface.solid_polygon.area
+    return area
+
+  @property
+  def _total_area_including_windows(self):
+    """
+    Thermal boundary plus windows area in square meters
+    :return: float
+    """
+    return self.surface.perimeter_polygon.area
+
+  @property
+  def thickness(self):
+    """
+    Thermal boundary thickness in meters
+    :return: float
+    """
+    if self._thickness is None:
+      self._thickness = 0.0
+      if self.layers is not None:
+        for layer in self.layers:
+          self._thickness += layer.thickness
+    return self._thickness
+
+  @property
+  def outside_solar_absorptance(self):
+    """
+    Get thermal boundary outside solar absorptance
+    :return: float
+    """
+    return self._outside_solar_absorptance
+
+  @outside_solar_absorptance.setter
+  def outside_solar_absorptance(self, value):
+    """
+    Set thermal boundary outside solar absorptance
+    :param value: float
+    """
+    self._outside_solar_absorptance = value
+    self._shortwave_reflectance = 1.0 - float(value)
+
+  @property
+  def outside_thermal_absorptance(self):
+    """
+    Get thermal boundary outside thermal absorptance
+    :return: float
+    """
+    return self._outside_thermal_absorptance
+
+  @outside_thermal_absorptance.setter
+  def outside_thermal_absorptance(self, value):
+    """
+    Set thermal boundary outside thermal absorptance
+    :param value: float
+    """
+    self._outside_thermal_absorptance = value
+
+  @property
+  def outside_visible_absorptance(self):
+    """
+    Get thermal boundary outside visible absorptance
+    :return: float
+    """
+    return self._outside_visible_absorptance
+
+  @outside_visible_absorptance.setter
+  def outside_visible_absorptance(self, value):
+    """
+    Set thermal boundary outside visible absorptance
+    :param value: float
+    """
+    self._outside_visible_absorptance = value
+
+  @property
+  def thermal_openings(self) -> List[ThermalOpening]:
+    """
+    Get thermal boundary thermal openings
+    :return: [ThermalOpening]
+    """
+    if self._thermal_openings is None:
+      if float(self.window_ratio) > 0:
+        thermal_opening = ThermalOpening()
+        thermal_opening.area = float(self._total_area_including_windows) * float(self.window_ratio)
+        thermal_opening.hi = self.hi
+        thermal_opening.he = self.he
+        self._thermal_openings = [thermal_opening]
+      else:
+        self._thermal_openings = []
+    return self._thermal_openings
+
+  @thermal_openings.setter
+  def thermal_openings(self, value):
+    """
+    Set thermal boundary thermal openings
+    :param value: [ThermalOpening]
+    """
+    self._thermal_openings = value
+
+  @property
+  def construction_name(self):
+    """
+    Get construction name
+    :return: str
+    """
+    return self._construction_name
+
+  @construction_name.setter
+  def construction_name(self, value):
+    """
+    Set construction name
+    :param value: str
+    """
+    self._construction_name = value
+
+  @property
+  def layers(self) -> List[Layer]:
+    """
+    Get thermal boundary layers
+    :return: [Layers]
+    """
+    return self._layers
+
+  @layers.setter
+  def layers(self, value):
+    """
+    Set thermal boundary layers
+    :param value: [Layer]
+    """
+    self._layers = value
+
+  @property
+  def type(self):
+    """
+    Thermal boundary surface type
+    :return: str
+    """
+    return self._surface.type
+
+  @property
+  def window_ratio(self):
+    """
+    Get thermal boundary window ratio
+    :return: float
+    """
+    return self._window_ratio
+
+  @window_ratio.setter
+  def window_ratio(self, value):
+    """
+    Set thermal boundary window ratio
+    :param value: float
+    """
+    self._window_ratio = value
+
+  # todo: what if I just want to assign a number?? @Guille
+  @property
+  def u_value(self):
+    """
+    Get thermal boundary U-value in W/m2K
+    internal and external convective coefficient in W/m2K values, can be configured at configuration.ini
+    :return: float
+    """
+    if self._u_value is None:
+      h_i = self.hi
+      h_e = self.he
+      r_value = 1.0/h_i + 1.0/h_e
+      try:
+        for layer in self.layers:
+          if layer.material.no_mass:
+            r_value += float(layer.material.thermal_resistance)
+          else:
+            r_value = r_value + float(layer.material.conductivity) / float(layer.thickness)
+        self._u_value = 1.0/r_value
+      except TypeError:
+        raise Exception('Constructions layers are not initialized') from TypeError
+    return self._u_value
+
+  @u_value.setter
+  def u_value(self, value):
+    """
+    Set thermal boundary U-value in W/m2K
+    :param value: float
+    """
+    self._u_value = value
+
+  @property
+  def shortwave_reflectance(self):
+    """
+    Get thermal boundary shortwave reflectance
+    :return: float
+    """
+    return self._shortwave_reflectance
+
+  @shortwave_reflectance.setter
+  def shortwave_reflectance(self, value):
+    """
+    Set thermal boundary shortwave reflectance
+    :param value: float
+    """
+    self._shortwave_reflectance = value
+    self._outside_solar_absorptance = 1.0 - float(value)
+
+  @property
+  def hi(self):
+    """
+    Get internal convective heat transfer coefficient (W/m2K)
+    :return: float
+    """
+    return self._hi
+
+  @hi.setter
+  def hi(self, value):
+    """
+    Set internal convective heat transfer coefficient (W/m2K)
+    :param value: internal convective heat transfer coefficient (W/m2K)
+    """
+    self._hi = value
+
+  @property
+  def he(self):
+    """
+    Get external convective heat transfer coefficient (W/m2K)
+    :return: float
+    """
+    return self._he
+
+  @he.setter
+  def he(self, value):
+    """
+    Set external convective heat transfer coefficient (W/m2K)
+    :param value: external convective heat transfer coefficient (W/m2K)
+    """
+    self._he = value
+
+  @property
+  def surface_geometry(self) -> Union[NotImplementedError, Polygon]:
+    """
+    Get the polygon that defines the thermal boundary
+    :return: Polygon
+    """
+    raise NotImplementedError
+
+  @property
+  def virtual_internal_surface(self) -> Surface:
+    """
+    Get the internal surface of the thermal boundary
+    :return: Surface
+    """
+    if self._virtual_internal_surface is None:
+      self._virtual_internal_surface = self.surface.inverse
+    return self._virtual_internal_surface
+
+  # todo: need extract information from construction library or assume them at the beginning of workflows
+  @property
+  def inside_emissivity(self):
+    """
+    Get the short wave emissivity factor of the thermal boundary's internal surface (-)
+    :return: float
+    """
+    return self._inside_emissivity
+
+  @inside_emissivity.setter
+  def inside_emissivity(self, value):
+    """
+    Set short wave emissivity factor of the thermal boundary's internal surface (-)
+    :param value: float
+    """
+    self._inside_emissivity = value
+
+  @property
+  def alpha_coefficient(self):
+    """
+    Get the long wave emissivity factor of the thermal boundary's internal surface (-)
+    :return: float
+    """
+    return self._alpha_coefficient
+
+  @alpha_coefficient.setter
+  def alpha_coefficient(self, value):
+    """
+    Set long wave emissivity factor of the thermal boundary's internal surface (-)
+    :param value: float
+    """
+    self._alpha_coefficient = value
+
+  @property
+  def radiative_coefficient(self):
+    """
+    Get the radiative coefficient of the thermal boundary's external surface (-)
+    :return: float
+    """
+    return self._radiative_coefficient
+
+  @radiative_coefficient.setter
+  def radiative_coefficient(self, value):
+    """
+    Set radiative coefficient of the thermal boundary's external surface (-)
+    :param value: float
+    """
+    self._radiative_coefficient = value
diff --git a/city_model_structure/city_model_structure/building_demand/thermal_opening.py b/city_model_structure/city_model_structure/building_demand/thermal_opening.py
new file mode 100644
index 00000000..9897820c
--- /dev/null
+++ b/city_model_structure/city_model_structure/building_demand/thermal_opening.py
@@ -0,0 +1,279 @@
+"""
+ThermalOpening module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+Contributors Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+from typing import TypeVar
+
+Polygon = TypeVar('Polygon')
+
+
+class ThermalOpening:
+  """
+  ThermalOpening class
+  """
+  def __init__(self):
+    self._area = None
+    self._openable_ratio = None
+    self._conductivity = None
+    self._frame_ratio = None
+    self._g_value = None
+    self._thickness = None
+    self._front_side_solar_transmittance_at_normal_incidence = None
+    self._back_side_solar_transmittance_at_normal_incidence = None
+    self._overall_u_value = None
+    self._hi = None
+    self._he = None
+    self._surface_geometry = None
+    self._inside_emissivity = None
+    self._alpha_coefficient = None
+    self._radiative_coefficient = None
+
+  @property
+  def area(self):
+    """
+    Thermal opening area in square meters
+    :return: float
+    """
+    return self._area
+
+  @area.setter
+  def area(self, value):
+    """
+    Thermal opening area in square meters setter
+    :param value: float
+    """
+    self._area = value
+
+  @property
+  def openable_ratio(self):
+    """
+    Get thermal opening openable ratio, NOT IMPLEMENTED
+    :return: Exception
+    """
+    raise NotImplementedError
+
+  @openable_ratio.setter
+  def openable_ratio(self, value):
+    """
+    Set thermal opening openable ratio, NOT IMPLEMENTED
+    :param value: Any
+    :return: Exception
+    """
+    raise NotImplementedError
+
+  @property
+  def conductivity(self):
+    """
+    Get thermal opening conductivity in W/mK
+    :return: float
+    """
+    return self._conductivity
+
+  @conductivity.setter
+  def conductivity(self, value):
+    """
+    Get thermal opening conductivity in W/mK
+    :param value: float
+    """
+    # The code to calculate overall_u_value is duplicated here and in thickness_m.
+    # This ensures a more robust code that returns the overall_u_value regardless the order the parameters are read.
+    self._conductivity = value
+    if self._overall_u_value is None and self.thickness is not None:
+      h_i = self.hi
+      h_e = self.he
+      r_value = 1 / h_i + 1 / h_e + float(self.conductivity) / float(self.thickness)
+      self._overall_u_value = 1 / r_value
+
+  @property
+  def frame_ratio(self):
+    """
+    Get thermal opening frame ratio
+    :return: float
+    """
+    return self._frame_ratio
+
+  @frame_ratio.setter
+  def frame_ratio(self, value):
+    """
+    Set thermal opening frame ratio
+    :param value: float
+    """
+    self._frame_ratio = value
+
+  @property
+  def g_value(self):
+    """
+    Get thermal opening g-value
+    :return: float
+    """
+    return self._g_value
+
+  @g_value.setter
+  def g_value(self, value):
+    """
+    Set thermal opening g-value
+    :param value: float
+    """
+    self._g_value = value
+
+  @property
+  def thickness(self):
+    """
+    Get thermal opening thickness in meters
+    :return: float
+    """
+    return self._thickness
+
+  @thickness.setter
+  def thickness(self, value):
+    """
+    Set thermal opening thickness in meters
+    :param value: float
+    """
+    # The code to calculate overall_u_value is duplicated here and in conductivity.
+    # This ensures a more robust code that returns the overall_u_value regardless the order the parameters are read.
+    self._thickness = value
+    if self._overall_u_value is None and self.conductivity is not None:
+      h_i = self.hi
+      h_e = self.he
+      r_value = 1 / h_i + 1 / h_e + float(self.conductivity) / float(self.thickness)
+      self._overall_u_value = 1 / r_value
+
+  @property
+  def front_side_solar_transmittance_at_normal_incidence(self):
+    """
+    Get thermal opening front side solar transmittance at normal incidence
+    :return: float
+    """
+    return self._front_side_solar_transmittance_at_normal_incidence
+
+  @front_side_solar_transmittance_at_normal_incidence.setter
+  def front_side_solar_transmittance_at_normal_incidence(self, value):
+    """
+    Set thermal opening front side solar transmittance at normal incidence
+    :param value: float
+    """
+    self._front_side_solar_transmittance_at_normal_incidence = value
+
+  @property
+  def back_side_solar_transmittance_at_normal_incidence(self):
+    """
+    Get thermal opening back side solar transmittance at normal incidence
+    :return: float
+    """
+    return self._back_side_solar_transmittance_at_normal_incidence
+
+  @back_side_solar_transmittance_at_normal_incidence.setter
+  def back_side_solar_transmittance_at_normal_incidence(self, value):
+    """
+    Set thermal opening back side solar transmittance at normal incidence
+    :param value: float
+    """
+    self._back_side_solar_transmittance_at_normal_incidence = value
+
+  @property
+  def overall_u_value(self):
+    """
+    Get thermal opening overall U-value in W/m2K
+    :return: float
+    """
+    return self._overall_u_value
+
+  @overall_u_value.setter
+  def overall_u_value(self, value):
+    """
+    Get thermal opening overall U-value in W/m2K
+    :param value: float
+    """
+    self._overall_u_value = value
+
+  @property
+  def hi(self):
+    """
+    Get internal convective heat transfer coefficient (W/m2K)
+    :return: float
+    """
+    return self._hi
+
+  @hi.setter
+  def hi(self, value):
+    """
+    Set internal convective heat transfer coefficient (W/m2K)
+    :param value: internal convective heat transfer coefficient (W/m2K)
+    """
+    self._hi = value
+
+  @property
+  def he(self):
+    """
+    Get external convective heat transfer coefficient (W/m2K)
+    :return: float
+    """
+    return self._he
+
+  @he.setter
+  def he(self, value):
+    """
+    Set external convective heat transfer coefficient (W/m2K)
+    :param value: external convective heat transfer coefficient (W/m2K)
+    """
+    self._he = value
+
+  @property
+  def surface_geometry(self) -> Polygon:
+    """
+    Get the polygon that defines the thermal opening
+    :return: Polygon
+    """
+    return self._surface_geometry
+
+  # todo: need extract information from construction library or assume them at the beginning of workflows
+  @property
+  def inside_emissivity(self):
+    """
+    Get the short wave emissivity factor of the thermal opening's internal surface (-)
+    :return: float
+    """
+    return self._inside_emissivity
+
+  @inside_emissivity.setter
+  def inside_emissivity(self, value):
+    """
+    Set short wave emissivity factor of the thermal opening's internal surface (-)
+    :param value: float
+    """
+    self._inside_emissivity = value
+
+  @property
+  def alpha_coefficient(self):
+    """
+    Get the long wave emissivity factor of the thermal opening's internal surface (-)
+    :return: float
+    """
+    return self._alpha_coefficient
+
+  @alpha_coefficient.setter
+  def alpha_coefficient(self, value):
+    """
+    Set long wave emissivity factor of the thermal opening's internal surface (-)
+    :param value: float
+    """
+    self._alpha_coefficient = value
+
+  @property
+  def radiative_coefficient(self):
+    """
+    Get the radiative coefficient of the thermal opening's external surface (-)
+    :return: float
+    """
+    return self._radiative_coefficient
+
+  @radiative_coefficient.setter
+  def radiative_coefficient(self, value):
+    """
+    Set radiative coefficient of the thermal opening's external surface (-)
+    :param value: float
+    """
+    self._radiative_coefficient = value
diff --git a/city_model_structure/city_model_structure/building_demand/thermal_zone.py b/city_model_structure/city_model_structure/building_demand/thermal_zone.py
new file mode 100644
index 00000000..ddf23f4d
--- /dev/null
+++ b/city_model_structure/city_model_structure/building_demand/thermal_zone.py
@@ -0,0 +1,200 @@
+"""
+ThermalZone module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+Contributors Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import uuid
+from typing import List, TypeVar
+from city_model_structure.building_demand.usage_zone import UsageZone
+
+ThermalBoundary = TypeVar('ThermalBoundary')
+Polyhedron = TypeVar('Polyhedron')
+
+
+class ThermalZone:
+  """
+  ThermalZone class
+  """
+  def __init__(self, thermal_boundaries, volume):
+    self._floor_area = None
+    self._thermal_boundaries = thermal_boundaries
+    self._is_mechanically_ventilated = None
+    self._additional_thermal_bridge_u_value = None
+    self._effective_thermal_capacity = None
+    self._indirectly_heated_area_ratio = None
+    self._infiltration_rate_system_on = None
+    self._infiltration_rate_system_off = None
+    self._usage_zones = []
+    self._volume = volume
+    self._volume_geometry = None
+    self._id = None
+    self._ordinate_number = None
+
+  @property
+  def id(self):
+    """
+    Get thermal zone id, an universally unique identifier randomly generated
+    :return: str
+    """
+    if self._id is None:
+      self._id = uuid.uuid4()
+    return self._id
+
+  @property
+  def is_mechanically_ventilated(self):
+    """
+    Get thermal zone mechanical ventilation flag
+    :return: Boolean
+    """
+    return self._is_mechanically_ventilated
+
+  @property
+  def floor_area(self):
+    """
+    Get thermal zone floor area in m2
+    :return: float
+    """
+    if self._floor_area is None:
+      self._floor_area = 0
+      for thermal_boundary in self.thermal_boundaries:
+        s = thermal_boundary.surface
+        if s.type == 'Ground':
+          self._floor_area += s.perimeter_polygon.area
+    return self._floor_area
+
+  @property
+  def thermal_boundaries(self) -> List[ThermalBoundary]:
+    """
+    Get thermal boundaries bounding with the thermal zone
+    :return: [ThermalBoundary]
+    """
+    return self._thermal_boundaries
+
+  @property
+  def additional_thermal_bridge_u_value(self):
+    """
+    Get thermal zone additional thermal bridge u value W/m2K
+    :return: float
+    """
+    return self._additional_thermal_bridge_u_value
+
+  @additional_thermal_bridge_u_value.setter
+  def additional_thermal_bridge_u_value(self, value):
+    """
+    Set thermal zone additional thermal bridge u value W/m2K
+    :param value: float
+    """
+    self._additional_thermal_bridge_u_value = value
+
+  @property
+  def effective_thermal_capacity(self):
+    """
+    Get thermal zone effective thermal capacity in J/m2K
+    :return: float
+    """
+    return self._effective_thermal_capacity
+
+  @effective_thermal_capacity.setter
+  def effective_thermal_capacity(self, value):
+    """
+    Set thermal zone effective thermal capacity in J/m2K
+    :param value: float
+    """
+    self._effective_thermal_capacity = value
+
+  @property
+  def indirectly_heated_area_ratio(self):
+    """
+    Get thermal zone indirectly heated area ratio
+    :return: float
+    """
+    return self._indirectly_heated_area_ratio
+
+  @indirectly_heated_area_ratio.setter
+  def indirectly_heated_area_ratio(self, value):
+    """
+    Set thermal zone indirectly heated area ratio
+    :param value: float
+    """
+    self._indirectly_heated_area_ratio = value
+
+  @property
+  def infiltration_rate_system_on(self):
+    """
+    Get thermal zone infiltration rate system on in air changes per hour (ACH)
+    :return: float
+    """
+    return self._infiltration_rate_system_on
+
+  @infiltration_rate_system_on.setter
+  def infiltration_rate_system_on(self, value):
+    """
+    Set thermal zone infiltration rate system on in air changes per hour (ACH)
+    :param value: float
+    """
+    self._infiltration_rate_system_on = value
+
+  @property
+  def infiltration_rate_system_off(self):
+    """
+    Get thermal zone infiltration rate system off in air changes per hour (ACH)
+    :return: float
+    """
+    return self._infiltration_rate_system_off
+
+  @infiltration_rate_system_off.setter
+  def infiltration_rate_system_off(self, value):
+    """
+    Set thermal zone infiltration rate system on in air changes per hour (ACH)
+    :param value: float
+    """
+    self._infiltration_rate_system_off = value
+
+  @property
+  def usage_zones(self) -> List[UsageZone]:
+    """
+    Get thermal zone usage zones
+    :return: [UsageZone]
+    """
+    return self._usage_zones
+
+  @usage_zones.setter
+  def usage_zones(self, values):
+    """
+    Set thermal zone usage zones
+    :param values: [UsageZone]
+    """
+    self._usage_zones = values
+
+  @property
+  def volume(self):
+    """
+    Get thermal zone volume
+    :return: float
+    """
+    return self._volume
+
+  @property
+  def volume_geometry(self) -> Polyhedron:
+    """
+    Get the polyhedron defined by the thermal zone
+    :return: Polyhedron
+    """
+    return self._volume_geometry
+
+  @property
+  def ordinate_number(self):
+    """
+    In case the thermal_zones need to be enumerated and their order saved, this property saves that order
+    :return: int
+    """
+    return self._ordinate_number
+
+  @ordinate_number.setter
+  def ordinate_number(self, value):
+    """
+    Sets an specific order of the zones to be called
+    :param value: int
+    """
+    self._ordinate_number = value
diff --git a/city_model_structure/city_model_structure/building_demand/usage_zone.py b/city_model_structure/city_model_structure/building_demand/usage_zone.py
new file mode 100644
index 00000000..5ad104ca
--- /dev/null
+++ b/city_model_structure/city_model_structure/building_demand/usage_zone.py
@@ -0,0 +1,379 @@
+"""
+UsageZone module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+Contributors Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+import uuid
+from typing import List, TypeVar
+
+InternalGains = TypeVar('InternalGains')
+Occupants = TypeVar('Occupants')
+Polyhedron = TypeVar('Polyhedron')
+
+
+class UsageZone:
+  """
+  UsageZone class
+  """
+  def __init__(self):
+    self._id = None
+    self._usage = None
+    self._internal_gains = None
+    self._heating_setpoint = None
+    self._heating_setback = None
+    self._cooling_setpoint = None
+    self._occupancy_density = None
+    self._hours_day = None
+    self._days_year = None
+    self._dhw_average_volume_pers_day = None
+    self._dhw_preparation_temperature = None
+    self._electrical_app_average_consumption_sqm_year = None
+    self._mechanical_air_change = None
+    self._occupants = None
+    self._heating_schedule = None
+    self._cooling_schedule = None
+    self._ventilation_schedule = None
+    self._schedules = None
+    self._volume = None
+    self._volume_geometry = None
+    self._is_heated = False
+    self._is_cooled = False
+
+  @property
+  def id(self):
+    """
+    Get usage zone id, an universally unique identifier randomly generated
+    :return: str
+    """
+    if self._id is None:
+      self._id = uuid.uuid4()
+    return self._id
+
+  @property
+  def internal_gains(self) -> List[InternalGains]:
+    """
+    Get usage zone internal gains
+    :return: [InternalGains]
+    """
+    return self._internal_gains
+
+  @internal_gains.setter
+  def internal_gains(self, value):
+    """
+    Set usage zone internal gains
+    :param value: [InternalGains]
+    """
+    self._internal_gains = value
+
+  @property
+  def heating_setpoint(self):
+    """
+    Get usage zone heating set point in celsius grads
+    :return: float
+    """
+    return self._heating_setpoint
+
+  @heating_setpoint.setter
+  def heating_setpoint(self, value):
+    """
+    Set usage zone heating set point in celsius grads
+    :param value: float
+    """
+    self._heating_setpoint = value
+
+  @property
+  def heating_setback(self):
+    """
+    Get usage zone heating setback in celsius grads
+    :return: float
+    """
+    return self._heating_setback
+
+  @heating_setback.setter
+  def heating_setback(self, value):
+    """
+    Set usage zone heating setback in celsius grads
+    :param value: float
+    """
+    self._heating_setback = value
+
+  @property
+  def cooling_setpoint(self):
+    """
+    Get usage zone cooling setpoint in celsius grads
+    :return: float
+    """
+    return self._cooling_setpoint
+
+  @cooling_setpoint.setter
+  def cooling_setpoint(self, value):
+    """
+    Set usage zone cooling setpoint in celsius grads
+    :param value: float
+    """
+    self._cooling_setpoint = value
+
+  @property
+  def hours_day(self):
+    """
+    Get usage zone usage hours per day
+    :return: float
+    """
+    return self._hours_day
+
+  @hours_day.setter
+  def hours_day(self, value):
+    """
+    Set usage zone usage hours per day
+    :param value: float
+    """
+    self._hours_day = value
+
+  @property
+  def days_year(self):
+    """
+    Get usage zone usage days per year
+    :return: float
+    """
+    return self._days_year
+
+  @days_year.setter
+  def days_year(self, value):
+    """
+    Set usage zone usage days per year
+    :param value: float
+    """
+    self._days_year = value
+
+  @property
+  def mechanical_air_change(self):
+    """
+    Set usage zone mechanical air change in air change per hour (ACH)
+    :return: float
+    """
+    return self._mechanical_air_change
+
+  @mechanical_air_change.setter
+  def mechanical_air_change(self, value):
+    """
+    Get usage zone mechanical air change in air change per hour (ACH)
+    :param value: float
+    """
+    self._mechanical_air_change = value
+
+  @property
+  def usage(self):
+    """
+    Get usage zone usage
+    :return: str
+    """
+    return self._usage
+
+  @usage.setter
+  def usage(self, value):
+    """
+    Get usage zone usage
+    :param value: str
+    """
+    self._usage = value
+
+  @property
+  def occupants(self) -> List[Occupants]:
+    """
+    Get occupants data
+    :return: [Occupants]
+    """
+    return self._occupants
+
+  @occupants.setter
+  def occupants(self, values):
+    """
+    Set occupants data
+    :param values: [Occupants]
+    """
+    self._occupants = values
+
+  @property
+  def heating_schedule(self) -> dict:
+    """
+    Get heating schedules: list of 0, 1 that define whether the heating system should be OFF or ON
+    :return: dict{DataFrame(int)}
+    """
+    return self._heating_schedule
+
+  @heating_schedule.setter
+  def heating_schedule(self, values):
+    """
+    heating schedules
+    :param values: dict{DataFrame(int)}
+    """
+    self._heating_schedule = values
+
+  @property
+  def cooling_schedule(self) -> dict:
+    """
+    Get cooling schedules: list of 0, 1 that define whether the cooling system should be OFF or ON
+    :return: dict{DataFrame(int)}
+    """
+    return self._cooling_schedule
+
+  @cooling_schedule.setter
+  def cooling_schedule(self, values):
+    """
+    cooling schedules
+    :param values: dict{DataFrame(int)}
+    """
+    self._cooling_schedule = values
+
+  @property
+  def ventilation_schedule(self) -> dict:
+    """
+    Get ventilation schedules: list of 0, 1 that define whether the ventilation system should be OFF or ON
+    :return: dict{DataFrame(int)}
+    """
+    return self._ventilation_schedule
+
+  @ventilation_schedule.setter
+  def ventilation_schedule(self, values):
+    """
+    ventilation_schedule schedules
+    :param values: dict{DataFrame(int)}
+    """
+    self._ventilation_schedule = values
+
+  @property
+  def schedules(self) -> dict:
+    """
+    Get schedules of diverse issues in a dictionary
+    :return: dict()
+    """
+    return self._schedules
+
+  @schedules.setter
+  def schedules(self, values):
+    """
+    Set schedules of diverse issues in a dictionary
+    :param values: dict()
+    """
+    self._schedules = values
+
+  @property
+  def occupancy_density(self):
+    """
+    Get schedules density in persons per m2
+    :return: float
+    """
+    return self._occupancy_density
+
+  @occupancy_density.setter
+  def occupancy_density(self, values):
+    """
+    schedules density in persons per m2
+    :param values: float
+    """
+    self._occupancy_density = values
+
+  @property
+  def dhw_average_volume_pers_day(self):
+    """
+    Get average DHW consumption in m3 per person per day
+    :return: float
+    """
+    return self._dhw_average_volume_pers_day
+
+  @dhw_average_volume_pers_day.setter
+  def dhw_average_volume_pers_day(self, values):
+    """
+    average DHW consumption in m3 per person per day
+    :param values: float
+    """
+    self._dhw_average_volume_pers_day = values
+
+  @property
+  def dhw_preparation_temperature(self):
+    """
+    Get preparation temperature of the DHW in degree Celsius
+    :return: float
+    """
+    return self._dhw_preparation_temperature
+
+  @dhw_preparation_temperature.setter
+  def dhw_preparation_temperature(self, values):
+    """
+    preparation temperature of the DHW in degree Celsius
+    :param values: float
+    """
+    self._dhw_preparation_temperature = values
+
+  @property
+  def electrical_app_average_consumption_sqm_year(self):
+    """
+    Get average consumption of electrical appliances in Joules hour per m2 and year (J/m2yr)
+    :return: float
+    """
+    return self._electrical_app_average_consumption_sqm_year
+
+  @electrical_app_average_consumption_sqm_year.setter
+  def electrical_app_average_consumption_sqm_year(self, values):
+    """
+    average consumption of electrical appliances in Joules per m2 and year (J/m2yr)
+    :param values: float
+    """
+    self._electrical_app_average_consumption_sqm_year = values
+
+  @property
+  def volume_geometry(self) -> Polyhedron:
+    """
+    Get the polyhedron defined by the usage zone
+    :return: Polyhedron
+    """
+    return self._volume_geometry
+
+  @property
+  def volume(self):
+    """
+    Get the volume in m3
+    :return: float
+    """
+    return self._volume
+
+  @volume.setter
+  def volume(self, value):
+    """
+    Volume in m3 setter
+    :param value: float
+    """
+    self._volume = value
+
+  @property
+  def is_heated(self):
+    """
+    Get thermal zone heated flag
+    :return: Boolean
+    """
+    return self._is_heated
+
+  @is_heated.setter
+  def is_heated(self, value):
+    """
+    Set thermal zone heated flag
+    :param value: Boolean
+    """
+    self._is_heated = value
+
+  @property
+  def is_cooled(self):
+    """
+    Get thermal zone cooled flag
+    :return: Boolean
+    """
+    return self._is_cooled
+
+  @is_cooled.setter
+  def is_cooled(self, value):
+    """
+    Set thermal zone cooled flag
+    :param value: Boolean
+    """
+    self._is_cooled = value
diff --git a/city_model_structure/city_model_structure/buildings_cluster.py b/city_model_structure/city_model_structure/buildings_cluster.py
new file mode 100644
index 00000000..5ba7f74e
--- /dev/null
+++ b/city_model_structure/city_model_structure/buildings_cluster.py
@@ -0,0 +1,38 @@
+"""
+BuildingsCluster module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+from typing import List, TypeVar
+
+from city_model_structure.city_objects_cluster import CityObjectsCluster
+
+CityObject = TypeVar('CityObject')
+
+
+class BuildingsCluster(CityObjectsCluster):
+  """
+  BuildingsCluster(CityObjectsCluster) class
+  """
+  def __init__(self, name, city_objects):
+    self._cluster_type = 'buildings'
+    super().__init__(name, self._cluster_type, city_objects)
+    self._name = name
+    self._city_objects = city_objects
+
+  @property
+  def type(self):
+    """
+    Cluster type
+    :return: str
+    """
+    return self._cluster_type
+
+  @property
+  def city_objects(self) -> List[CityObject]:
+    """
+    List of city objects conforming the cluster
+    :return: [CityObject]
+    """
+    return self._city_objects
diff --git a/city_model_structure/city_model_structure/city.py b/city_model_structure/city_model_structure/city.py
new file mode 100644
index 00000000..326a0c89
--- /dev/null
+++ b/city_model_structure/city_model_structure/city.py
@@ -0,0 +1,366 @@
+"""
+City module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+from __future__ import annotations
+import sys
+import pickle
+import math
+from typing import List, Union, TypeVar
+import pyproj
+from pyproj import Transformer
+
+
+from city_model_structure.building import Building
+from city_model_structure.city_object import CityObject
+from city_model_structure.city_objects_cluster import CityObjectsCluster
+from city_model_structure.buildings_cluster import BuildingsCluster
+from city_model_structure.parts_consisting_building import PartsConsistingBuilding
+from helpers.geometry_helper import GeometryHelper
+from helpers.location import Location
+
+
+Path = TypeVar('Path')
+
+
+class City:
+  """
+  City class
+  """
+
+  def __init__(self, lower_corner, upper_corner, srs_name):
+    self._name = None
+    self._lower_corner = lower_corner
+    self._upper_corner = upper_corner
+    self._buildings = None
+    self._srs_name = srs_name
+    self._geometry = GeometryHelper()
+    # todo: right now extracted at city level, in the future should be extracted also at building level if exist
+    self._location = None
+    self._country_code = None
+    self._climate_reference_city = None
+    self._climate_file = None
+    self._latitude = None
+    self._longitude = None
+    self._time_zone = None
+    self._buildings_clusters = None
+    self._parts_consisting_buildings = None
+    self._city_objects_clusters = None
+    self._city_objects = None
+
+  def _get_location(self) -> Location:
+    if self._location is None:
+      gps = pyproj.CRS('EPSG:4326')  # LatLon with WGS84 datum used by GPS units and Google Earth
+      try:
+        input_reference = pyproj.CRS(self.srs_name)  # Projected coordinate system from input data
+      except pyproj.exceptions.CRSError:
+        sys.stderr.write('Invalid projection reference system, please check the input data. '
+                         '(e.g. in CityGML files: srs_name)\n')
+        sys.exit()
+      transformer = Transformer.from_crs(input_reference, gps)
+      coordinates = transformer.transform(self.lower_corner[0], self.lower_corner[1])
+      self._location = GeometryHelper.get_location(coordinates[0], coordinates[1])
+    return self._location
+
+  @property
+  def country_code(self):
+    """
+    City country code
+    :return: str
+    """
+    return self._get_location().country
+
+  @property
+  def name(self):
+    """
+    City name
+    :return: str
+    """
+    return self._get_location().city
+
+  @property
+  def climate_reference_city(self):
+    """
+    Name of the city of reference for climatic information
+    :return: str
+    """
+    return self._climate_reference_city
+
+  @climate_reference_city.setter
+  def climate_reference_city(self, value):
+    """
+    Name of the city of reference for climatic information
+    :param value: str
+    """
+    self._climate_reference_city = value
+
+  @property
+  def climate_file(self) -> Path:
+    """
+    Full path of climate file
+    :return: Path
+    """
+    return self._climate_file
+
+  @climate_file.setter
+  def climate_file(self, value):
+    """
+    Full path of climate file
+    :param value: Path
+    """
+    self._climate_file = value
+
+  @property
+  def city_objects(self) -> Union[List[CityObject], None]:
+    """
+    City objects belonging to the city
+    :return: None or [CityObject]
+    """
+    if self._city_objects is None:
+      if self.city_objects_clusters is None:
+        self._city_objects = []
+      else:
+        self._city_objects = self.city_objects_clusters
+      if self.buildings is not None:
+        for building in self.buildings:
+          self._city_objects.append(building)
+    return self._city_objects
+
+  @property
+  def buildings(self) -> Union[List[Building], None]:
+    """
+    Buildings belonging to the city
+    :return: None or [Building]
+    """
+    return self._buildings
+
+  @property
+  def trees(self) -> NotImplementedError:
+    """
+    Trees belonging to the city
+    :return: NotImplementedError
+    """
+    raise NotImplementedError
+
+  @property
+  def bixi_features(self) -> NotImplementedError:
+    """
+    Bixi features belonging to the city
+    :return: NotImplementedError
+    """
+    raise NotImplementedError
+
+  @property
+  def composting_plants(self) -> NotImplementedError:
+    """
+    Composting plants belonging to the city
+    :return: NotImplementedError
+    """
+    raise NotImplementedError
+
+  @property
+  def lower_corner(self):
+    """
+    City lower corner
+    :return: [x,y,z]
+    """
+    return self._lower_corner
+
+  @property
+  def upper_corner(self):
+    """
+    City upper corner
+    :return: [x,y,z]
+    """
+    return self._upper_corner
+
+  def city_object(self, name) -> Union[CityObject, None]:
+    """
+    Retrieve the city CityObject with the given name
+    :param name:str
+    :return: None or CityObject
+    """
+    for city_object in self.buildings:
+      if city_object.name == name:
+        return city_object
+    return None
+
+  def add_city_object(self, new_city_object):
+    """
+    Add a CityObject to the city
+    :param new_city_object:CityObject
+    :return: None or not implemented error
+    """
+    if new_city_object.type == 'building':
+      if self._buildings is None:
+        self._buildings = []
+      self._buildings.append(new_city_object)
+    else:
+      raise NotImplementedError(new_city_object.type)
+
+  def remove_city_object(self, city_object):
+    """
+    Remove a CityObject from the city
+    :param city_object:CityObject
+    :return: None
+    """
+    if city_object.type != 'building':
+      raise NotImplementedError(city_object.type)
+    if self._buildings is None or self._buildings == []:
+      sys.stderr.write('Warning: impossible to remove city_object, the city is empty\n')
+    else:
+      if city_object in self._buildings:
+        self._buildings.remove(city_object)
+
+  @property
+  def srs_name(self):
+    """
+    srs name
+    :return: str
+    """
+    return self._srs_name
+
+  @name.setter
+  def name(self, value):
+    """
+    Set the city name
+    :param value:str
+    :return: None
+    """
+    self._name = value
+
+  @staticmethod
+  def load(city_filename) -> City:
+    """
+    Load a city saved with city.save(city_filename)
+    :param city_filename: city filename
+    :return: City
+    """
+    with open(city_filename, 'rb') as file:
+      return pickle.load(file)
+
+  def save(self, city_filename):
+    """
+    Save a city into the given filename
+    :param city_filename: destination city filename
+    :return:
+    """
+    with open(city_filename, 'wb') as file:
+      pickle.dump(self, file)
+
+  def region(self, center, radius) -> City:
+    """
+    Save a city into the given filename
+    :param center: specific point in space [x, y, z]
+    :param radius: distance to center of the sphere selected in meters
+    :return: selected_region_city
+    """
+    selected_region_lower_corner = [center[0] - radius, center[1] - radius, center[2] - radius]
+    selected_region_upper_corner = [center[0] + radius, center[1] + radius, center[2] + radius]
+    selected_region_city = City(selected_region_lower_corner, selected_region_upper_corner, srs_name=self.srs_name)
+    selected_region_city.climate_file = self.climate_file
+#    selected_region_city.climate_reference_city = self.climate_reference_city
+    for city_object in self.city_objects:
+      location = city_object.centroid
+      if location is not None:
+        distance = math.sqrt(math.pow(location[0]-center[0], 2) + math.pow(location[1]-center[1], 2)
+                             + math.pow(location[2]-center[2], 2))
+        if distance < radius:
+          selected_region_city.add_city_object(city_object)
+    return selected_region_city
+
+  @property
+  def latitude(self):
+    """
+    city latitude in degrees
+    :return: float
+    """
+    return self._latitude
+
+  @latitude.setter
+  def latitude(self, value):
+    """
+    city latitude in degrees
+    :parameter value: float
+    """
+    self._latitude = value
+
+  @property
+  def longitude(self):
+    """
+    city longitude in degrees
+    :return: float
+    """
+    return self._longitude
+
+  @longitude.setter
+  def longitude(self, value):
+    """
+    city longitude in degrees
+    :parameter value: float
+    """
+    self._longitude = value
+
+  @property
+  def time_zone(self):
+    """
+    city time_zone
+    :return: float
+    """
+    return self._time_zone
+
+  @time_zone.setter
+  def time_zone(self, value):
+    """
+    city time_zone
+    :parameter value: float
+    """
+    self._time_zone = value
+
+  @property
+  def buildings_clusters(self) -> Union[List[BuildingsCluster], None]:
+    """
+    buildings clusters belonging to the city
+    :return: None or [BuildingsCluster]
+    """
+    return self._buildings_clusters
+
+  @property
+  def parts_consisting_buildings(self) -> Union[List[PartsConsistingBuilding], None]:
+    """
+    Parts consisting buildings belonging to the city
+    :return: None or [PartsConsistingBuilding]
+    """
+    return self._parts_consisting_buildings
+
+  @property
+  def city_objects_clusters(self) -> Union[List[CityObjectsCluster], None]:
+    """
+    City objects clusters belonging to the city
+    :return: None or [CityObjectsCluster]
+    """
+    if self.buildings_clusters is None:
+      self._city_objects_clusters = []
+    else:
+      self._city_objects_clusters = self.buildings_clusters
+    if self.parts_consisting_buildings is not None:
+      self._city_objects_clusters.append(self.parts_consisting_buildings)
+    return self._city_objects_clusters
+
+  def add_city_objects_cluster(self, new_city_objects_cluster):
+    """
+    Add a CityObject to the city
+    :param new_city_objects_cluster:CityObjectsCluster
+    :return: None or NotImplementedError
+    """
+    if new_city_objects_cluster.type == 'buildings':
+      if self._buildings_clusters is None:
+        self._buildings_clusters = []
+      self._buildings_clusters.append(new_city_objects_cluster)
+    elif new_city_objects_cluster.type == 'building_parts':
+      if self._parts_consisting_buildings is None:
+        self._parts_consisting_buildings = []
+      self._parts_consisting_buildings.append(new_city_objects_cluster)
+    else:
+      raise NotImplementedError
diff --git a/city_model_structure/city_model_structure/city_object.py b/city_model_structure/city_model_structure/city_object.py
new file mode 100644
index 00000000..f42a1c77
--- /dev/null
+++ b/city_model_structure/city_model_structure/city_object.py
@@ -0,0 +1,229 @@
+"""
+CityObject module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+
+import math
+from typing import List, Union
+
+
+from city_model_structure.iot.sensor import Sensor
+from city_model_structure.building_demand.surface import Surface
+from city_model_structure.attributes.polyhedron import Polyhedron
+from helpers.configuration_helper import ConfigurationHelper
+
+
+class CityObject:
+  """
+  class CityObject
+  """
+  def __init__(self, name, lod, surfaces, city_lower_corner):
+    self._name = name
+    self._lod = lod
+    self._surfaces = surfaces
+    self._city_lower_corner = city_lower_corner
+    self._type = None
+    self._city_object_lower_corner = None
+    self._detailed_polyhedron = None
+    self._simplified_polyhedron = None
+    self._min_x = ConfigurationHelper().max_coordinate
+    self._min_y = ConfigurationHelper().max_coordinate
+    self._min_z = ConfigurationHelper().max_coordinate
+    self._centroid = None
+    self._external_temperature = dict()
+    self._global_horizontal = dict()
+    self._diffuse = dict()
+    self._beam = dict()
+    self._sensors = []
+
+  @property
+  def lod(self):
+    """
+    City object level of detail 1, 2, 3 or 4
+    :return: int
+    """
+    lod = math.log(self._lod, 2) + 1
+    return lod
+
+  @property
+  def type(self):
+    """
+    city object type
+    :return: str
+    """
+    return self._type
+
+  @property
+  def volume(self):
+    """
+    City object volume in cubic meters
+    :return: float
+    """
+    return self.simplified_polyhedron.volume
+
+  @property
+  def detailed_polyhedron(self) -> Polyhedron:
+    """
+    City object polyhedron including details such as holes
+    :return: Polyhedron
+    """
+    if self._detailed_polyhedron is None:
+      polygons = []
+      for surface in self.surfaces:
+        polygons.append(surface.solid_polygon)
+        if surface.holes_polygons is not None:
+          for hole_polygon in surface.holes_polygons:
+            polygons.append(hole_polygon)
+      self._detailed_polyhedron = Polyhedron(polygons)
+    return self._detailed_polyhedron
+
+  @property
+  def simplified_polyhedron(self) -> Polyhedron:
+    """
+    City object polyhedron, just the simple lod2 representation
+    :return: Polyhedron
+    """
+    if self._simplified_polyhedron is None:
+      polygons = []
+      for surface in self.surfaces:
+        polygons.append(surface.perimeter_polygon)
+      self._simplified_polyhedron = Polyhedron(polygons)
+    return self._simplified_polyhedron
+
+  @property
+  def surfaces(self) -> List[Surface]:
+    """
+    City object surfaces
+    :return: [Surface]
+    """
+    return self._surfaces
+
+  def surface(self, name) -> Union[Surface, None]:
+    """
+    Get the city object surface with a given name
+    :param name: str
+    :return: None or Surface
+    """
+    for s in self.surfaces:
+      if s.name == name:
+        return s
+    return None
+
+  def surface_by_id(self, identification_number) -> Union[Surface, None]:
+    """
+    Get the city object surface with a given name
+    :param identification_number: str
+    :return: None or Surface
+    """
+    for s in self.surfaces:
+      if str(s.id) == str(identification_number):
+        return s
+    return None
+
+  @property
+  def centroid(self):
+    """
+    City object centroid
+    :return: [x,y,z]
+    """
+    if self._centroid is None:
+      self._centroid = self.simplified_polyhedron.centroid
+    return self._centroid
+
+  @property
+  def max_height(self):
+    """
+    City object maximal height in meters
+    :return: float
+    """
+    return self.simplified_polyhedron.max_z
+
+  @property
+  def external_temperature(self) -> dict:
+    """
+    external temperature surrounding the city object in grads Celsius
+    :return: dict{DataFrame(float)}
+    """
+    return self._external_temperature
+
+  @external_temperature.setter
+  def external_temperature(self, value):
+    """
+    external temperature surrounding the city object in grads Celsius
+    :param value: dict{DataFrame(float)}
+    """
+    self._external_temperature = value
+
+  @property
+  def global_horizontal(self) -> dict:
+    """
+    global horizontal radiation surrounding the city object in W/m2
+    :return: dict{DataFrame(float)}
+    """
+    return self._global_horizontal
+
+  @global_horizontal.setter
+  def global_horizontal(self, value):
+    """
+    global horizontal radiation surrounding the city object in W/m2
+    :param value: dict{DataFrame(float)}
+    """
+    self._global_horizontal = value
+
+  @property
+  def diffuse(self) -> dict:
+    """
+    diffuse radiation surrounding the city object in W/m2
+    :return: dict{DataFrame(float)}
+    """
+    return self._diffuse
+
+  @diffuse.setter
+  def diffuse(self, value):
+    """
+    diffuse radiation surrounding the city object in W/m2
+    :param value: dict{DataFrame(float)}
+    """
+    self._diffuse = value
+
+  @property
+  def beam(self) -> dict:
+    """
+    beam radiation surrounding the city object in W/m2
+    :return: dict{DataFrame(float)}
+    """
+    return self._beam
+
+  @beam.setter
+  def beam(self, value):
+    """
+    beam radiation surrounding the city object in W/m2
+    :param value: dict{DataFrame(float)}
+    """
+    self._beam = value
+
+  @property
+  def lower_corner(self):
+    """
+    City object lower corner coordinates [x, y, z]
+    """
+    if self._city_object_lower_corner is None:
+      self._city_object_lower_corner = [self._min_x, self._min_y, self._min_z]
+    return self._city_object_lower_corner
+
+  @property
+  def sensors(self) -> List[Sensor]:
+    """
+    Sensor list belonging to the city object
+    :return: [Sensor]
+    """
+    return self._sensors
+
+  @sensors.setter
+  def sensors(self, value):
+    """
+    Sensor list belonging to the city object
+    :param value: [Sensor]
+    """
+    self._sensors = value
diff --git a/city_model_structure/city_model_structure/city_objects_cluster.py b/city_model_structure/city_model_structure/city_objects_cluster.py
new file mode 100644
index 00000000..780574a1
--- /dev/null
+++ b/city_model_structure/city_model_structure/city_objects_cluster.py
@@ -0,0 +1,72 @@
+"""
+CityObjectsCluster module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+from abc import ABC
+from typing import List
+from city_model_structure.iot.sensor import Sensor
+from city_model_structure.city_object import CityObject
+
+
+class CityObjectsCluster(ABC, CityObject):
+  """
+  CityObjectsCluster(ABC) class
+  """
+  def __init__(self, name, cluster_type, city_objects):
+    self._name = name
+    self._cluster_type = cluster_type
+    self._city_objects = city_objects
+    self._sensors = []
+    self._lod = ''
+    super().__init__(name, self._lod, None, None)
+
+  @property
+  def name(self):
+    """
+    Cluster name
+    :return: str
+    """
+    return self._name
+
+  @property
+  def type(self):
+    """
+    City object cluster type raises NotImplemented error
+    """
+    raise NotImplementedError
+
+  @property
+  def city_objects(self):
+    """
+    City objects raises NotImplemented error
+    """
+    raise NotImplementedError
+
+  def add_city_object(self, city_object) -> List[CityObject]:
+    """
+    add new object to the cluster
+    :return: [CityObjects]
+    """
+    if self._city_objects is None:
+      self._city_objects = [city_object]
+    else:
+      self._city_objects.append(city_object)
+    return self._city_objects
+
+  @property
+  def sensors(self) -> List[Sensor]:
+    """
+    Sensor list belonging to the city objects cluster
+    :return: [Sensor]
+    """
+    return self._sensors
+
+  @sensors.setter
+  def sensors(self, value):
+    """
+    Sensor list belonging to the city objects cluster
+    :param value: [Sensor]
+    """
+    self._sensors = value
diff --git a/city_model_structure/city_model_structure/composting_plant.py b/city_model_structure/city_model_structure/composting_plant.py
new file mode 100644
index 00000000..0030b4d0
--- /dev/null
+++ b/city_model_structure/city_model_structure/composting_plant.py
@@ -0,0 +1,33 @@
+"""
+Composting plant module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+from city_model_structure.city_object import CityObject
+
+
+class CompostingPlant(CityObject):
+  """
+  CompostingPlant(CityObject) class
+  """
+  def __init__(self, lod, surfaces, name, waste_type, capacity):
+    super().__init__(lod, surfaces, name, [])
+    self._waste_type = waste_type
+    self._capacity = capacity
+    self._type = 'composting_plant'
+
+  @property
+  def waste_type(self):
+    """
+    Get waste_type treated in composting plant
+    :return: waste_type
+    """
+    return self._waste_type
+
+  @property
+  def capacity(self):
+    """
+    Get capacity of composting plant in kg
+    :return: capacity
+    """
+    return self._capacity
diff --git a/city_model_structure/city_model_structure/energy_systems/heat_pump.py b/city_model_structure/city_model_structure/energy_systems/heat_pump.py
new file mode 100644
index 00000000..c6b059bc
--- /dev/null
+++ b/city_model_structure/city_model_structure/energy_systems/heat_pump.py
@@ -0,0 +1,46 @@
+"""
+heat_pump module defines a heat pump
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+
+class HeatPump:
+  """
+  HeatPump class
+  """
+  def __init__(self):
+    self._seasonal_mean_cop = None
+    self._seasonal_mean_coverage_factor = None
+
+  @property
+  def seasonal_mean_cop(self):
+    """
+    Get seasonal mean COP (-)
+    :return: real
+    """
+    return self._seasonal_mean_cop
+
+  @seasonal_mean_cop.setter
+  def seasonal_mean_cop(self, value):
+    """
+    Get seasonal mean COP (-)
+    :param value: real
+    """
+    self._seasonal_mean_cop = value
+
+  @property
+  def seasonal_mean_coverage_factor(self):
+    """
+    Get percentage of demand covered by the hp (-)
+    :return: real
+    """
+    return self._seasonal_mean_coverage_factor
+
+  @seasonal_mean_coverage_factor.setter
+  def seasonal_mean_coverage_factor(self, value):
+    """
+    Set percentage of demand covered by the hp (-)
+    :return: real
+    """
+    self._seasonal_mean_coverage_factor = value
diff --git a/city_model_structure/city_model_structure/energy_systems/pv_system.py b/city_model_structure/city_model_structure/energy_systems/pv_system.py
new file mode 100644
index 00000000..e0facb47
--- /dev/null
+++ b/city_model_structure/city_model_structure/energy_systems/pv_system.py
@@ -0,0 +1,114 @@
+"""
+pv_system defines a pv system including all components: PV panels, transformer...
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+
+class PvSystem:
+  """
+  PvSystem class
+  """
+  def __init__(self):
+    self._modules_mean_seasonal_efficiency = None
+    self._total_area = None
+    self._module_area = None
+    self._number_of_modules = None
+    self._overall_system_performance_ratio = None
+    self._electricity_generation = None
+
+  @property
+  def modules_mean_seasonal_efficiency(self):
+    """
+    Get mean modules efficiency (-)
+    :return: float
+    """
+    return self._modules_mean_seasonal_efficiency
+
+  @modules_mean_seasonal_efficiency.setter
+  def modules_mean_seasonal_efficiency(self, value):
+    """
+    Set mean modules efficiency (-)
+    :param value: float
+    """
+    self._modules_mean_seasonal_efficiency = value
+
+  @property
+  def total_area(self):
+    """
+    Get total modules area (m2)
+    :return: float
+    """
+    return self._total_area
+
+  @total_area.setter
+  def total_area(self, value):
+    """
+    Set total modules area (m2)
+    :param value: float
+    """
+    self._total_area = value
+
+  @property
+  def module_area(self):
+    """
+    Get module area (m2)
+    :return: float
+    """
+    return self._module_area
+
+  @module_area.setter
+  def module_area(self, value):
+    """
+    Set module area (m2)
+    :param value: float
+    """
+    self._module_area = value
+
+  @property
+  def number_of_modules(self):
+    """
+    Get number of modules
+    :return: int
+    """
+    return self._number_of_modules
+
+  @number_of_modules.setter
+  def number_of_modules(self, value):
+    """
+    Set number of modules
+    :param value: int
+    """
+    self._number_of_modules = value
+
+  @property
+  def overall_system_performance_ratio(self):
+    """
+    Get overall system performance ratio (-)
+    :return: float
+    """
+    return self._overall_system_performance_ratio
+
+  @overall_system_performance_ratio.setter
+  def overall_system_performance_ratio(self, value):
+    """
+    Set overall system performance ratio (-)
+    :param value: float
+    """
+    self._overall_system_performance_ratio = value
+
+  @property
+  def electricity_generation(self):
+    """
+    Get electricity generation (J)
+    :return: float
+    """
+    return self._electricity_generation
+
+  @electricity_generation.setter
+  def electricity_generation(self, value):
+    """
+    Set electricity generation (J)
+    :param value: float
+    """
+    self._electricity_generation = value
diff --git a/city_model_structure/city_model_structure/iot/concordia_energy_sensor.py b/city_model_structure/city_model_structure/iot/concordia_energy_sensor.py
new file mode 100644
index 00000000..88a88e51
--- /dev/null
+++ b/city_model_structure/city_model_structure/iot/concordia_energy_sensor.py
@@ -0,0 +1,42 @@
+"""
+Energy Sensor module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+
+import pandas as pd
+from city_model_structure.iot.sensor import Sensor
+
+
+class ConcordiaEnergySensor(Sensor):
+  """
+  Concordia energy sensor.
+  """
+
+  def __init__(self, name):
+    super().__init__()
+    self._name = name
+    self._interval = 5
+    self._interval_units = 'minutes'
+    self._type = 'ConcordiaEnergySensor'
+    self._units = 'kW'
+    self._measures = pd.DataFrame(columns=["Date time", "Energy consumption"])
+
+  @property
+  def measures(self) -> pd.DataFrame:
+    """
+    Sensor measures [yyyy-mm-dd, hh:mm:ss kW]
+    :return: DataFrame["Date time", "Energy consumption"]
+    """
+    return self._measures
+
+  @measures.deleter
+  def measures(self):
+    self._measures.drop = None
+
+  def add_period(self, measures):
+    """
+    Add or update a period measures to the dataframe
+    """
+    measures = self._measures.append(measures, ignore_index=True)
+    self._measures = measures.drop_duplicates('Date time', keep='last')
diff --git a/city_model_structure/city_model_structure/iot/concordia_gas_flow_sensor.py b/city_model_structure/city_model_structure/iot/concordia_gas_flow_sensor.py
new file mode 100644
index 00000000..3dd7a7c0
--- /dev/null
+++ b/city_model_structure/city_model_structure/iot/concordia_gas_flow_sensor.py
@@ -0,0 +1,42 @@
+"""
+Gas Flow Sensor module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+import pandas as pd
+from city_model_structure.iot.sensor import Sensor
+
+
+class ConcordiaGasFlowSensor(Sensor):
+  """
+  Concordia gas flow sensor.
+  """
+
+  def __init__(self, name):
+    super().__init__()
+    self._name = name
+    self._interval = 5
+    self._interval_units = 'minutes'
+    self._type = 'ConcordiaGasFlowSensor'
+    self._units = 'm3'
+    self._measures = pd.DataFrame(columns=["Date time", "Gas Flow Cumulative Monthly"])
+
+  @property
+  def measures(self) -> pd.DataFrame:
+    """
+    Sensor measures [yyyy-mm-dd, hh:mm:ss m3]
+    :return: DataFrame["Date time", "Gas Flow Cumulative Monthly"]
+    """
+    return self._measures
+
+  @measures.deleter
+  def measures(self):
+    self._measures.drop = None
+
+  def add_period(self, measures):
+    """
+    Add or update a period measures to the dataframe
+    """
+    measures = self._measures.append(measures, ignore_index=True)
+    self._measures = measures.drop_duplicates('Date time', keep='last')
diff --git a/city_model_structure/city_model_structure/iot/concordia_temperature_sensor.py b/city_model_structure/city_model_structure/iot/concordia_temperature_sensor.py
new file mode 100644
index 00000000..ae1b1129
--- /dev/null
+++ b/city_model_structure/city_model_structure/iot/concordia_temperature_sensor.py
@@ -0,0 +1,42 @@
+"""
+Temperature Sensor module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+import pandas as pd
+from city_model_structure.iot.sensor import Sensor
+
+
+class ConcordiaTemperatureSensor(Sensor):
+  """
+  Concordia temperature sensor.
+  """
+
+  def __init__(self, name):
+    super().__init__()
+    self._name = name
+    self._interval = 5
+    self._interval_units = 'minutes'
+    self._type = 'ConcordiaTemperatureSensor'
+    self._units = 'Celsius'
+    self._measures = pd.DataFrame(columns=["Date time", "Temperature"])
+
+  @property
+  def measures(self) -> pd.DataFrame:
+    """
+    Sensor measures [yyyy-mm-dd, hh:mm:ss Celsius]
+    :return: DataFrame["Date time", "Temperature"]
+    """
+    return self._measures
+
+  @measures.deleter
+  def measures(self):
+    self._measures.drop = None
+
+  def add_period(self, measures):
+    """
+    Add or update a period measures to the dataframe
+    """
+    measures = self._measures.append(measures, ignore_index=True)
+    self._measures = measures.drop_duplicates('Date time', keep='last')
diff --git a/city_model_structure/city_model_structure/iot/sensor.py b/city_model_structure/city_model_structure/iot/sensor.py
new file mode 100644
index 00000000..6dfad778
--- /dev/null
+++ b/city_model_structure/city_model_structure/iot/sensor.py
@@ -0,0 +1,73 @@
+"""
+Sensor module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+
+from helpers.location import Location
+
+
+class Sensor:
+  """
+  Sensor abstract class
+  """
+  def __init__(self):
+    self._name = None
+    self._type = None
+    self._units = None
+    self._location = None
+
+  @property
+  def name(self):
+    """
+    Get sensor name
+    :return: str
+    """
+    return self._name
+
+  @name.setter
+  def name(self, value):
+    """
+    Set sensor name
+    :param value: str
+    """
+    self._name = value
+
+  @property
+  def type(self):
+    """
+    Get sensor type
+    :return: str
+    """
+    return self._type
+
+  @property
+  def units(self):
+    """
+    Get sensor units
+    :return: str
+    """
+    return self._units
+
+  @property
+  def location(self) -> Location:
+    """
+    Get sensor location
+    :return: Location
+    """
+    return self._location
+
+  @location.setter
+  def location(self, value):
+    """
+    Set sensor location
+    :param value: Location
+    """
+    self._location = value
+
+  @property
+  def measures(self):
+    """
+    Sensor measures
+    """
+    raise NotImplementedError
diff --git a/city_model_structure/city_model_structure/network.py b/city_model_structure/city_model_structure/network.py
new file mode 100644
index 00000000..67759f54
--- /dev/null
+++ b/city_model_structure/city_model_structure/network.py
@@ -0,0 +1,51 @@
+"""
+Network module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+Contributor Milad milad.aghamohamadnia@concordia.ca
+"""
+import uuid
+from typing import List
+
+from city_model_structure.city_object import CityObject
+from city_model_structure.attributes.edge import Edge
+from city_model_structure.attributes.node import Node
+
+
+class Network(CityObject):
+  """
+  Generic network class to be used as base for the network models
+  """
+  def __init__(self, name, edges=None, nodes=None):
+    super().__init__(name, 0, [], None)
+    if nodes is None:
+      nodes = []
+    if edges is None:
+      edges = []
+    self._id = None
+    self._edges = edges
+    self._nodes = nodes
+
+  @property
+  def id(self):
+    """
+    Network id, an universally unique identifier randomly generated
+    :return: str
+    """
+    if self._id is None:
+      self._id = uuid.uuid4()
+    return self._id
+
+  @property
+  def edges(self) -> List[Edge]:
+    """
+    Network edges
+    """
+    return self._edges
+
+  @property
+  def nodes(self) -> List[Node]:
+    """
+    Network nodes
+    """
+    return self._nodes
diff --git a/city_model_structure/city_model_structure/parts_consisting_building.py b/city_model_structure/city_model_structure/parts_consisting_building.py
new file mode 100644
index 00000000..bb342321
--- /dev/null
+++ b/city_model_structure/city_model_structure/parts_consisting_building.py
@@ -0,0 +1,36 @@
+"""
+PartsConsistingBuilding module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+from typing import List, TypeVar
+from city_model_structure.city_objects_cluster import CityObjectsCluster
+CityObject = TypeVar('CityObject')
+
+
+class PartsConsistingBuilding(CityObjectsCluster):
+  """
+  PartsConsistingBuilding(CityObjectsCluster) class
+  """
+  def __init__(self, name, city_objects):
+    self._cluster_type = 'building_parts'
+    super().__init__(name, self._cluster_type, city_objects)
+    self._name = name
+    self._city_objects = city_objects
+
+  @property
+  def type(self):
+    """
+    type of cluster
+    :return: str
+    """
+    return self._cluster_type
+
+  @property
+  def city_objects(self) -> List[CityObject]:
+    """
+    city objects that compose the cluster
+    :return: [CityObject]
+    """
+    return self._city_objects
diff --git a/city_model_structure/city_model_structure/subway_entrance.py b/city_model_structure/city_model_structure/subway_entrance.py
new file mode 100644
index 00000000..b42dd880
--- /dev/null
+++ b/city_model_structure/city_model_structure/subway_entrance.py
@@ -0,0 +1,44 @@
+"""
+Subway entrance module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+from city_model_structure.city_object import CityObject
+
+
+class SubwayEntrance(CityObject):
+  """
+  SubwayEntrance(CityObject) class
+  """
+  def __init__(self, name, latitude, longitude):
+    super().__init__(0, [], name, [])
+    self._name = name
+    self._latitude = latitude
+    self._longitude = longitude
+    self._type = 'subway_entrance'
+
+  @property
+  def latitude(self):
+    # todo: to be defined the spacial point and the units
+    """
+    Get latitude
+    :return: float
+    """
+    return self._latitude
+
+  @property
+  def longitude(self):
+    # todo: to be defined the spacial point and the units
+    """
+    Get longitude
+    :return: float
+    """
+    return self._longitude
+
+  @property
+  def name(self):
+    """
+    Get name
+    :return: string
+    """
+    return self._name
diff --git a/city_model_structure/city_model_structure/transport/connection.py b/city_model_structure/city_model_structure/transport/connection.py
new file mode 100644
index 00000000..9265a5df
--- /dev/null
+++ b/city_model_structure/city_model_structure/transport/connection.py
@@ -0,0 +1,119 @@
+"""
+Connection module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+Contributor Milad milad.aghamohamadnia@concordia.ca
+Contributor Guille guille.gutierrezmorote@concordia.ca
+"""
+from city_model_structure.attributes.edge import Edge
+from city_model_structure.transport.lane import Lane
+
+
+class Connection:
+  """
+  Connection class
+  """
+
+  def __init__(self):
+    self._from_edge = None
+    self._to_edge = None
+    self._from_lane = None
+    self._to_lane = None
+    self._pass = None
+    self._keep_clear = None
+
+  @property
+  def from_edge(self) -> Edge:
+    """
+    Edge the vehicle leaves
+    :return: Edge
+    """
+    return self._from_edge
+
+  @from_edge.setter
+  def from_edge(self, value):
+    """
+    Edge the vehicle leaves setter
+    :param value: Edge
+    """
+    self._from_edge = value
+
+  @property
+  def to_edge(self) -> Edge:
+    """
+    Edge the vehicle reaches
+    :return: Edge
+    """
+    return self._to_edge
+
+  @to_edge.setter
+  def to_edge(self, value):
+    """
+    Edge the vehicle reaches setter
+    :param value: Edge
+    """
+    self._to_edge = value
+
+  @property
+  def from_lane(self) -> Lane:
+    """
+    Incoming lane
+    :return: Lane
+    """
+    return self._to_lane
+
+  @from_lane.setter
+  def from_lane(self, value):
+    """
+    Incoming lane setter
+    :param value: Lane
+    """
+    self._from_lane = value
+
+  @property
+  def to_lane(self) -> Lane:
+    """
+    Outgoing lane
+    :return: Lane
+    """
+    return self._to_lane
+
+  @to_lane.setter
+  def to_lane(self, value):
+    """
+    Outgoing lane setter
+    :param value: Lane
+    """
+    self._to_lane = value
+
+  @property
+  def pass_not_wait(self):
+    """
+    if set, vehicles which pass this (lane-2-lane) connection will not wait
+    :return: bool
+    """
+    return self._pass
+
+  @pass_not_wait.setter
+  def pass_not_wait(self, value):
+    """
+    pass_not_wait setter
+    :param value: bool
+    """
+    self._pass = value
+
+  @property
+  def keep_clear(self):
+    """
+    if set to false, vehicles which pass this (lane-2-lane) connection will not worry about blocking the intersection
+    :return: bool
+    """
+    return self._keep_clear
+
+  @keep_clear.setter
+  def keep_clear(self, value):
+    """
+    keep_clear setter
+    :param value: bool
+    """
+    self._keep_clear = value
diff --git a/city_model_structure/city_model_structure/transport/crossing.py b/city_model_structure/city_model_structure/transport/crossing.py
new file mode 100644
index 00000000..5a2db9e2
--- /dev/null
+++ b/city_model_structure/city_model_structure/transport/crossing.py
@@ -0,0 +1,70 @@
+"""
+Crossing module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+Contributor Milad milad.aghamohamadnia@concordia.ca
+Contributor Guille guille.gutierrezmorote@concordia.ca
+"""
+
+from typing import List
+from city_model_structure.transport.traffic_node import TrafficNode
+
+
+class Crossing(TrafficNode):
+  """
+  Crossing class
+  """
+
+  def __init__(self, name, coordinates, priority, width, shape=None, edges=None):
+    super().__init__(name, coordinates, edges=edges, node_type='Crossing')
+    self._priority = priority
+    self._width = width
+    self._shape = shape
+
+  @property
+  def priority(self):
+    """
+    Whether the pedestrians have priority over the vehicles (automatically set to true at tls-controlled intersections).
+    :return: bool
+    """
+    return self._priority
+
+  @priority.setter
+  def priority(self, value):
+    """
+    Priority setter
+    :param value: bool
+    """
+    self._priority = value
+
+  @property
+  def width(self):
+    """
+    Width in m
+    :return: float
+    """
+    return self._width
+
+  @width.setter
+  def width(self, value):
+    """
+    Width in m setter
+    :param value: float
+    """
+    self._width = value
+
+  @property
+  def shape(self) -> List[List[float]]:
+    """
+    List of positions (positions in m)
+    :return: [[x, y, (z)]]
+    """
+    return self._shape
+
+  @shape.setter
+  def shape(self, value):
+    """
+    List of positions setter
+    :param value: [[x, y, (z)]]
+    """
+    self._shape = value
diff --git a/city_model_structure/city_model_structure/transport/join.py b/city_model_structure/city_model_structure/transport/join.py
new file mode 100644
index 00000000..a7f609b8
--- /dev/null
+++ b/city_model_structure/city_model_structure/transport/join.py
@@ -0,0 +1,27 @@
+"""
+Join module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+Contributor Milad milad.aghamohamadnia@concordia.ca
+Contributor Guille guille.gutierrezmorote@concordia.ca
+"""
+
+from city_model_structure.transport.traffic_node import TrafficNode
+
+
+class Join(TrafficNode):
+  """
+  Join class
+  """
+
+  def __init__(self, name, coordinates, nodes):
+    self._nodes = nodes
+    edges = []
+    prohibitions = []
+    connections = []
+    for node in self._nodes:
+      edges = edges + node.edges
+      prohibitions = prohibitions + node.prohibitions
+      connections = connections + node.connections
+    super().__init__(name, coordinates, edges=edges, prohibitions=prohibitions, connections=connections,
+                     node_type='Join')
diff --git a/city_model_structure/city_model_structure/transport/lane.py b/city_model_structure/city_model_structure/transport/lane.py
new file mode 100644
index 00000000..d89481d8
--- /dev/null
+++ b/city_model_structure/city_model_structure/transport/lane.py
@@ -0,0 +1,136 @@
+"""
+Lane module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+Contributor Milad milad.aghamohamadnia@concordia.ca
+"""
+
+from typing import List
+
+
+class Lane:
+  """
+  Lane class
+  """
+
+  def __init__(self):
+    self._index = None
+    self._allow = None
+    self._disallow = None
+    self._change_left = None
+    self._change_right = None
+    self._speed = None
+    self._width = None
+
+  @property
+  def index(self):
+    """
+    Lane index
+    The enumeration index of the lane (0 is the rightmost lane, <NUMBER_LANES>-1 is the leftmost one)
+    :return: int
+    """
+    return self._index
+
+  @index.setter
+  def index(self, value):
+    """
+    Index setter
+    :param value: int
+    """
+    self._index = value
+
+  @property
+  def allow(self) -> List[str]:
+    """
+    List of allowed vehicle classes
+    :return: [str]
+    """
+    return self._allow
+
+  @allow.setter
+  def allow(self, value):
+    """
+    List of allowed vehicle classes setter
+    :param value: [str]
+    """
+    self._allow = value
+
+  @property
+  def disallow(self) -> List[str]:
+    """
+    List of not allowed vehicle classes
+    :return: [str]
+    """
+    return self._disallow
+
+  @disallow.setter
+  def disallow(self, value):
+    """
+    List of not allowed vehicle classes setter
+    :param value: [str]
+    """
+    self._disallow = value
+
+  @property
+  def change_left(self) -> List[str]:
+    """
+    List of vehicle classes that may change left from this lane
+    :return: [str]
+    """
+    return self._change_left
+
+  @change_left.setter
+  def change_left(self, value):
+    """
+    change_left setter
+    :param value: [str]
+    """
+    self._change_left = value
+
+  @property
+  def change_right(self) -> List[str]:
+    """
+    List of vehicle classes that may change right from this lane
+    :return: [str]
+    """
+    return self._change_right
+
+  @change_right.setter
+  def change_right(self, value):
+    """
+    change_right setter
+    :param value: [str]
+    """
+    self._change_right = value
+
+  @property
+  def speed(self):
+    """
+    Speed in m/s
+    :return: float
+    """
+    return self._speed
+
+  @speed.setter
+  def speed(self, value):
+    """
+    Speed in m/s setter
+    :param value: float
+    """
+    self._speed = value
+
+  @property
+  def width(self):
+    """
+    Width in m
+    :return: float
+    """
+    return self._width
+
+  @width.setter
+  def width(self, value):
+    """
+    Width in m setter
+    :param value: float
+    """
+    self._width = value
diff --git a/city_model_structure/city_model_structure/transport/phase.py b/city_model_structure/city_model_structure/transport/phase.py
new file mode 100644
index 00000000..cc3f7a83
--- /dev/null
+++ b/city_model_structure/city_model_structure/transport/phase.py
@@ -0,0 +1,125 @@
+"""
+Phase module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+Contributor Milad milad.aghamohamadnia@concordia.ca
+"""
+
+from typing import List
+
+
+class Phase:
+  """
+  Phase class
+  """
+
+  def __init__(self):
+    self._duration = None
+    self._state = None
+    self._min_duration = None
+    self._max_duration = None
+    self._name = None
+    self._next = None
+
+  @property
+  def duration(self):
+    """
+    Duration in seconds
+    :return: int
+    """
+    return self._duration
+
+  @duration.setter
+  def duration(self, value):
+    """
+    Duration setter
+    :param value: int
+    """
+    self._duration = value
+
+  @property
+  def state(self):
+    """
+    List of signal states
+    :return: []
+    """
+    return self._state
+
+  @state.setter
+  def state(self, value):
+    """
+    List of signal states setter
+    :param value: []
+    """
+    self._state = value
+
+  @property
+  def min_duration(self):
+    """
+    Minimum duration in seconds
+    :return: int
+    """
+    if self._min_duration is None:
+      self._min_duration = self._duration
+    return self._min_duration
+
+  @min_duration.setter
+  def min_duration(self, value):
+    """
+    Minimum duration setter
+    :param value: int
+    """
+    self._min_duration = value
+
+  @property
+  def max_duration(self):
+    """
+    Maximum duration in seconds
+    :return: int
+    """
+    if self._max_duration is None:
+      self._max_duration = self._duration
+    return self._max_duration
+
+  @max_duration.setter
+  def max_duration(self, value):
+    """
+    Maximum duration setter
+    :param value: int
+    """
+    self._max_duration = value
+
+  @property
+  def name(self):
+    """
+    Phase name
+    :return: str
+    """
+    return self._name
+
+  @name.setter
+  def name(self, value):
+    """
+    Phase name setter
+    :param value: str
+    """
+    self._name = value
+
+  @property
+  def next(self) -> List[int]:
+    """
+    The next phase in the cycle after the current.
+    This is useful when adding extra transition phases to a traffic light plan which are not part of every cycle.
+    Traffic lights of type 'actuated' can make use of a list of indices for selecting among alternative
+    successor phases.
+    :return: [int]
+    """
+    return self._next
+
+  @next.setter
+  def next(self, value):
+    """
+    Next setter
+    :param value: [int]
+    """
+    self._next = value
diff --git a/city_model_structure/city_model_structure/transport/traffic_edge.py b/city_model_structure/city_model_structure/transport/traffic_edge.py
new file mode 100644
index 00000000..6bfa3d39
--- /dev/null
+++ b/city_model_structure/city_model_structure/transport/traffic_edge.py
@@ -0,0 +1,135 @@
+"""
+Edge module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+Contributor Milad milad.aghamohamadnia@concordia.ca
+Contributor Guille guille.gutierrezmorote@concordia.ca
+"""
+
+from typing import List
+from city_model_structure.attributes.edge import Edge
+from city_model_structure.transport.lane import Lane
+
+
+class TrafficEdge(Edge):
+  """
+  Edge class
+  Each edge is unidirectional and starts at the "from" node and ends at the "to" node
+  """
+
+  def __init__(self, name, nodes, priority, speed, lanes, length, allows=None, disallows=None, sidewalk_width=None,
+               edge_type='TrafficEdge'):
+    super().__init__(name, nodes)
+    self._edge_type = edge_type
+    self._lanes = lanes
+    self._priority = priority
+    self._speed = speed
+    self._length = length
+    self._allows = allows
+    self._disallows = disallows
+    self._sidewalk_width = sidewalk_width
+
+  @property
+  def edge_type(self):
+    """
+    The name of a edge type
+    :return: str
+    """
+    return self._edge_type
+
+  @property
+  def lanes(self) -> List[Lane]:
+    """
+    List of lanes on an edge
+    :return: List[Lane]
+    """
+    return self._lanes
+
+  @lanes.setter
+  def lanes(self, value):
+    """
+    List of lanes on an edge setter
+    :param value: List[Lane]
+    """
+    self._lanes = value
+
+  @property
+  def priority(self):
+    """
+    A number, which determines the priority between different road types.
+    It starts with one; higher numbers represent more important roads.
+    :return: int
+    """
+    return self._priority
+
+  @priority.setter
+  def priority(self, value):
+    """
+    Priority setter
+    :param value: int
+    """
+    self._priority = value
+
+  @property
+  def speed(self):
+    """
+    The speed limit in m/s
+    :return: float
+    """
+    return self._speed
+
+  @speed.setter
+  def speed(self, value):
+    """
+    The speed limit in m/s setter
+    :param value: float
+    """
+    self._speed = value
+
+  @property
+  def length(self):
+    """
+    Length in m
+    :return: float
+    """
+    return self._length
+
+  @length.setter
+  def length(self, value):
+    """
+    Length in m setter
+    :param value: float
+    """
+    self._length = value
+
+  @property
+  def allows(self) -> List[str]:
+    """
+    List of allowed vehicle classes
+    :return: [str]
+    """
+    return self._allows
+
+  @allows.setter
+  def allows(self, value):
+    """
+    List of allowed vehicle classes setter
+    :param value: [str]
+    """
+    self._allows = value
+
+  @property
+  def disallows(self) -> List[str]:
+    """
+    List of not allowed vehicle classes
+    :return: [str]
+    """
+    return self._disallows
+
+  @disallows.setter
+  def disallows(self, value):
+    """
+    List of not allowed vehicle classes setter
+    :param value: [str]
+    """
+    self._disallows = value
diff --git a/city_model_structure/city_model_structure/transport/traffic_light.py b/city_model_structure/city_model_structure/transport/traffic_light.py
new file mode 100644
index 00000000..a5244eaa
--- /dev/null
+++ b/city_model_structure/city_model_structure/transport/traffic_light.py
@@ -0,0 +1,70 @@
+"""
+Traffic light module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+Contributor Milad milad.aghamohamadnia@concordia.ca
+Contributor Guille guille.gutierrezmorote@concordia.ca
+"""
+
+from typing import List
+from city_model_structure.transport.phase import Phase
+from city_model_structure.transport.traffic_node import TrafficNode
+
+
+class TrafficLight(TrafficNode):
+  """
+  Traffic light class
+  """
+  def __init__(self, name, coordinates, offset, phases=None, edges=None, right_on_red=False):
+    super().__init__(name, coordinates, edges=edges, node_type='TrafficLight')
+    if phases is None:
+      phases = []
+    self._right_on_red = right_on_red
+    self._offset = offset
+    self._phases = phases
+
+  @property
+  def right_on_red(self):
+    """
+    Return if is possible to turn right if the traffic light is red
+    """
+    return self._right_on_red
+
+  @right_on_red.setter
+  def right_on_red(self, value):
+    """
+    Set if is possible to turn right if the traffic light is red
+    """
+    self._right_on_red = value
+
+  @property
+  def offset(self):
+    """
+    The initial time offset of the program
+    :return: int
+    """
+    return self._offset
+
+  @offset.setter
+  def offset(self, value):
+    """
+    The initial time offset of the program setter
+    :param value: int
+    """
+    self._offset = value
+
+  @property
+  def phases(self) -> List[Phase]:
+    """
+    Phases of the traffic light logic
+    :return: [Phase]
+    """
+    return self._phases
+
+  @phases.setter
+  def phases(self, value):
+    """
+    Phases setter
+    :param value: [Phase]
+    """
+    self._phases = value
diff --git a/city_model_structure/city_model_structure/transport/traffic_network.py b/city_model_structure/city_model_structure/transport/traffic_network.py
new file mode 100644
index 00000000..6bd46a52
--- /dev/null
+++ b/city_model_structure/city_model_structure/transport/traffic_network.py
@@ -0,0 +1,25 @@
+"""
+Traffic network module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+Contributor Milad milad.aghamohamadnia@concordia.ca
+Contributor Guille guille.gutierrezmorote@concordia.ca
+"""
+
+from city_model_structure.network import Network
+
+
+class TrafficNetwork(Network):
+  """
+  TrafficNetwork(CityObject) class
+  """
+  def __init__(self, name, edges=None, nodes=None):
+    super().__init__(name, edges, nodes)
+    self._type = "TrafficNetwork"
+
+  @property
+  def type(self):
+    """
+    Network type
+    """
+    return self._type
diff --git a/city_model_structure/city_model_structure/transport/traffic_node.py b/city_model_structure/city_model_structure/transport/traffic_node.py
new file mode 100644
index 00000000..1ff63de7
--- /dev/null
+++ b/city_model_structure/city_model_structure/transport/traffic_node.py
@@ -0,0 +1,84 @@
+"""
+Node module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+Contributor Milad milad.aghamohamadnia@concordia.ca
+Contributor Guille guille.gutierrezmorote@concordia.ca
+"""
+from typing import List
+
+from city_model_structure.attributes.edge import Edge
+from city_model_structure.attributes.node import Node
+from city_model_structure.attributes.point import Point
+
+
+from city_model_structure.transport.connection import Connection
+
+
+class TrafficNode(Node):
+  """
+  Node class
+  """
+
+  def __init__(self, name, coordinates, node_type='TrafficNode', edges=None, prohibitions=None, connections=None):
+    super().__init__(name, edges)
+    if connections is None:
+      connections = []
+    if prohibitions is None:
+      prohibitions = []
+    self._coordinates = coordinates
+    self._prohibitions = prohibitions
+    self._connections = connections
+    self._node_type = node_type
+
+  @property
+  def node_type(self):
+    """
+    The name of a node type
+    :return: str
+    """
+    return self._node_type
+
+  @property
+  def coordinates(self) -> Point:
+    """
+    The x,y,z - Node coordinates
+    :return: Point
+    """
+    return self._coordinates
+
+  @coordinates.setter
+  def coordinates(self, value):
+    """
+    The x,y,z - Node coordinates setter
+    :param value: Point
+    """
+    self._coordinates = value
+
+  @property
+  def prohibitions(self) -> List[(Edge, Edge)]:
+    """
+    return a list of forbidden edges tuples meaning you can not move from the first edge to the second
+    """
+    return self._prohibitions
+
+  @prohibitions.setter
+  def prohibitions(self, value):
+    """
+    Set the prohibitions tuples for this node
+    """
+    self._prohibitions = value
+
+  @property
+  def connections(self) -> List[Connection]:
+    """
+    Return a list of connections for the node
+    """
+    return self._connections
+
+  @connections.setter
+  def connections(self, value):
+    """
+    Set the connections for this node
+    """
+    self._connections = value
diff --git a/city_model_structure/city_model_structure/transport/walkway_node.py b/city_model_structure/city_model_structure/transport/walkway_node.py
new file mode 100644
index 00000000..cde5f821
--- /dev/null
+++ b/city_model_structure/city_model_structure/transport/walkway_node.py
@@ -0,0 +1,36 @@
+"""
+Walkway node module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+Contributor Milad milad.aghamohamadnia@concordia.ca
+Contributor Guille guille.gutierrezmorote@concordia.ca
+"""
+
+from typing import List
+from city_model_structure.transport.traffic_node import TrafficNode
+
+
+class WalkwayNode(TrafficNode):
+  """
+  WalkwayNode class
+  """
+
+  def __init__(self, name, coordinates, edges=None, shape=None):
+    super().__init__(name, coordinates, edges=edges, node_type='WalkwayNode')
+    self._shape = shape
+
+  @property
+  def shape(self) -> List[List[float]]:
+    """
+    List of positions (positions in m)
+    :return: [[x, y, (z)]]
+    """
+    return self._shape
+
+  @shape.setter
+  def shape(self, value):
+    """
+    List of positions setter
+    :param value: [[x, y, (z)]]
+    """
+    self._shape = value
diff --git a/city_model_structure/city_model_structure/tree.py b/city_model_structure/city_model_structure/tree.py
new file mode 100644
index 00000000..f1e0caff
--- /dev/null
+++ b/city_model_structure/city_model_structure/tree.py
@@ -0,0 +1,33 @@
+"""
+Tree module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+from city_model_structure.city_object import CityObject
+
+
+class Tree(CityObject):
+  """
+  Tree(CityObject) class
+  """
+  def __init__(self, lod, surfaces, name, height, canopy):
+    super().__init__(lod, surfaces, name, [])
+    self._height = height
+    self._canopy = canopy
+    self._type = 'tree'
+
+  @property
+  def height(self):
+    """
+    Get height of tree in meters
+    :return: height
+    """
+    return self._height
+
+  @property
+  def canopy(self):
+    """
+    Get canopy of tree
+    :return: canopy
+    """
+    return self._canopy
diff --git a/exports/exports/exports_factory.py b/exports/exports/exports_factory.py
new file mode 100644
index 00000000..06d90099
--- /dev/null
+++ b/exports/exports/exports_factory.py
@@ -0,0 +1,84 @@
+"""
+ExportsFactory export a city into several formats
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+
+from pathlib import Path
+from exports.formats.energy_ade import EnergyAde
+from exports.formats.idf import Idf
+from exports.formats.obj import Obj
+from exports.formats.simplified_radiosity_algorithm import SimplifiedRadiosityAlgorithm
+from exports.formats.stl import Stl
+
+
+class ExportsFactory:
+  """
+  Exports factory class
+  """
+  def __init__(self, export_type, city, path):
+    self._city = city
+    self._export_type = '_' + export_type.lower()
+    self._path = path
+
+  @property
+  def _citygml(self):
+    """
+    Export to citygml_classes with application domain extensions
+    :return: None
+    """
+    raise NotImplementedError
+
+  @property
+  def _energy_ade(self):
+    """
+    Export to citygml_classes with application domain extensions
+    :return: None
+    """
+    return EnergyAde(self._city, self._path)
+
+  @property
+  def _stl(self):
+    """
+    Export the city geometry to stl
+    :return: None
+    """
+    return Stl(self._city, self._path)
+
+  @property
+  def _obj(self):
+    """
+    Export the city geometry to obj
+    :return: None
+    """
+    return Obj(self._city, self._path)
+
+  @property
+  def _grounded_obj(self):
+    """
+    Export the city geometry to obj
+    :return: None
+    """
+    return Obj(self._city, self._path).to_ground_points()
+
+  @property
+  def _idf(self):
+    """
+    Export the city to Energy+ idf format
+    :return:
+    """
+    idf_data_path = (Path(__file__).parent / './formats/idf_files/').resolve()
+    # todo: create a get epw file function based on the city
+    weather_path = (Path(__file__).parent / '../data/weather/epw/CAN_PQ_Montreal.Intl.AP.716270_CWEC.epw').resolve()
+    return Idf(self._city, self._path, (idf_data_path / 'Minimal.idf'), (idf_data_path / 'Energy+.idd'), weather_path)
+
+  @property
+  def _sra(self):
+    return SimplifiedRadiosityAlgorithm(self._city, (self._path / f'{self._city.name}_sra.xml'))
+
+  def export(self):
+    """
+    Export the city model structure to the given export type
+    :return: None
+    """
+    return getattr(self, self._export_type, lambda: None)
diff --git a/exports/exports/formats/energy_ade.py b/exports/exports/formats/energy_ade.py
new file mode 100644
index 00000000..60c10af2
--- /dev/null
+++ b/exports/exports/formats/energy_ade.py
@@ -0,0 +1,378 @@
+"""
+ExportsFactory export a city into several formats
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+
+import uuid
+import datetime
+from pathlib import Path
+import xmltodict
+import helpers.constants as cte
+
+
+class EnergyAde:
+  """
+  Export the city to citygml + energy ade
+  """
+  def __init__(self, city, path):
+    self._city = city
+    self._path = path
+    self._surface_members = None
+    self._export()
+
+  def _export(self):
+    energy_ade = {
+      'core:CityModel': {
+        '@xmlns:brid': 'http://www.opengis.net/citygml/bridge/2.0',
+        '@xmlns:tran': 'http://www.opengis.net/citygml/transportation/2.0',
+        '@xmlns:frn': 'http://www.opengis.net/citygml/cityfurniture/2.0',
+        '@xmlns:wtr': 'http://www.opengis.net/citygml/waterbody/2.0',
+        '@xmlns:sch': 'http://www.ascc.net/xml/schematron',
+        '@xmlns:veg': 'http://www.opengis.net/citygml/vegetation/2.0',
+        '@xmlns:xlink': 'http://www.w3.org/1999/xlink',
+        '@xmlns:tun': 'http://www.opengis.net/citygml/tunnel/2.0',
+        '@xmlns:tex': 'http://www.opengis.net/citygml/texturedsurface/2.0',
+        '@xmlns:gml': 'http://www.opengis.net/gml',
+        '@xmlns:genobj': 'http://www.opengis.net/citygml/generics/2.0',
+        '@xmlns:dem': 'http://www.opengis.net/citygml/relief/2.0',
+        '@xmlns:app': 'http://www.opengis.net/citygml/appearance/2.0',
+        '@xmlns:luse': 'http://www.opengis.net/citygml/landuse/2.0',
+        '@xmlns:xAL': 'urn:oasis:names:tc:ciq:xsdschema:xAL:2.0',
+        '@xmlns:xsi': 'http://www.w3.org/2001/XMLSchema-instance',
+        '@xmlns:smil20lang': 'http://www.w3.org/2001/SMIL20/Language',
+        '@xmlns:pbase': 'http://www.opengis.net/citygml/profiles/base/2.0',
+        '@xmlns:smil20': 'http://www.w3.org/2001/SMIL20/',
+        '@xmlns:bldg': 'http://www.opengis.net/citygml/building/2.0',
+        '@xmlns:energy': "http://www.sig3d.org/citygml/2.0/energy/1.0",
+        '@xmlns:core': 'http://www.opengis.net/citygml/2.0',
+        '@xmlns:grp': 'http://www.opengis.net/citygml/cityobjectgroup/2.0',
+        'gml:boundedBy': {
+          'gml:Envelope': {
+            '@srsName': self._city.srs_name,
+            '@srsDimension': 3,
+            'gml:lowerCorner': ' '.join([str(e) for e in self._city.lower_corner]),
+            'gml:upperCorner': ' '.join([str(e) for e in self._city.upper_corner])
+          }
+        }
+      }
+    }
+    buildings = []
+    for building in self._city.buildings:
+      building_dic = {
+        'bldg:Building': {
+          '@gml:id': building.name,
+          'gml:description': f'Building {building.name} at {self._city.name}',
+          'gml:name': f'{building.name}',
+          'core:creationDate': datetime.datetime.now().strftime('%Y-%m-%d')
+        }
+      }
+      building_dic = EnergyAde._measures(building, building_dic)
+      building_dic = self._building_geometry(building, building_dic, self._city)
+      building_dic['bldg:Building']['energy:volume'] = {
+        'energy:VolumeType': {
+          'energy:type': 'grossVolume',
+          'energy:value': {
+            '@uom': 'm3',
+            'energy:value': building.volume
+          }
+        }
+      }
+      building_dic['bldg:Building']['energy:referencePoint'] = {
+        'gml:Point': {
+          '@srsName': self._city.srs_name,
+          '@gml:id': f'GML_{uuid.uuid4()}',
+          'gml:Pos': f'{" ".join(map(str, building.centroid))}'
+        }
+      }
+      building_dic['bldg:Building']['energy:thermalZone'] = self._thermal_zones(building, self._city)
+      buildings.append(building_dic)
+
+    energy_ade['core:CityModel']['core:cityObjectMember'] = buildings
+
+    file_name = self._city.name + '_ade.gml'
+    file_path = Path(self._path / file_name).resolve()
+    with open(file_path, 'w') as file:
+      file.write(xmltodict.unparse(energy_ade, pretty=True, short_empty_elements=True))
+
+  @staticmethod
+  def _measures(building, building_dic):
+    # todo: this method is only for year and insel need to be generalized
+    measures = []
+    measure = EnergyAde._measure(building.heating, cte.YEAR, 'Energy demand heating', 'INSEL')
+    if measure is not None:
+      measures.append(measure)
+    measure = EnergyAde._measure(building.cooling, cte.YEAR, 'Energy demand cooling', 'INSEL')
+    if measure is not None:
+      measures.append(measure)
+    if len(measures) != 0:
+      building_dic['bldg:Building']['genobj:measureAttribute'] = measures
+
+    demands = []
+    for key in building.heating:
+      if key != cte.YEAR:
+        demand = EnergyAde._demand(building.heating, key, 'Heating energy', 'INSEL')
+        demands.append(demand)
+
+    for key in building.cooling:
+      if key != cte.YEAR:
+        demand = EnergyAde._demand(building.cooling, key, 'Cooling energy', 'INSEL')
+        demands.append(demand)
+    if len(demands) != 0:
+      building_dic['bldg:Building']['energy:demands'] = demands
+
+    return building_dic
+
+  @staticmethod
+  def _measure(measure_dict, key_value, name, source):
+    measure = None
+    if key_value in measure_dict:
+      measure = {
+        '@name': name,
+        'genobj:value': {
+          '@uom': 'kWh',
+          '#text': ' '.join([str(e / 1000) for e in measure_dict[key_value][source]])
+        }
+      }
+    return measure
+
+  @staticmethod
+  def _demand(measure_dict, key_value, description, source):
+    demand = {
+      'energy:EnergyDemand': {
+        '@gml:id': f'GML_{uuid.uuid4()}',
+        'energy:energyAmount': {
+          'energy:RegularTimeSeries': {
+            'energy:variableProperties': {
+              'energy:TimeValuesProperties': {
+                'energy:acquisitionMethod': 'simulation',
+                'energy:source': source,
+                'energy:thematicDescription': description,
+              },
+              'energy:timeInterval': {
+                '@unit': key_value,
+                '#text': '1',
+              },
+              'energy:values': {
+                '@uom': 'kWh',
+                '#text': ' '.join([str(float(e) / 1000) for e in measure_dict[key_value][source]])
+              }
+            }
+          }
+        },
+        'energy:endUse': 'spaceHeating'
+      }
+    }
+    return demand
+
+  def _building_geometry(self, building, building_dic, city):
+
+    building_dic['bldg:Building']['bldg:function'] = building.function
+    building_dic['bldg:Building']['bldg:usage'] = ', '.join([u.usage for u in building.usage_zones])
+    building_dic['bldg:Building']['bldg:yearOfConstruction'] = building.year_of_construction
+    building_dic['bldg:Building']['bldg:roofType'] = building.roof_type
+    building_dic['bldg:Building']['bldg:measuredHeight'] = {
+      '@uom': 'm',
+      '#text': f'{building.max_height}'
+    }
+    building_dic['bldg:Building']['bldg:storeysAboveGround'] = building.storeys_above_ground
+
+    if building.lod == 1:
+      building_dic = self._lod1(building, building_dic, city)
+    elif building.lod == 2:
+      building_dic = self._lod2(building, building_dic, city)
+    else:
+      raise NotImplementedError('Only lod 1 and 2 can be exported')
+    return building_dic
+
+  def _lod1(self, building, building_dic, city):
+    raise NotImplementedError('Only lod 1 and 2 can be exported')
+
+  def _lod2(self, building, building_dic, city):
+    self._surface_members = []
+    boundaries = [{
+      'gml:Envelope': {
+        '@srsName': city.srs_name,
+        '@srsDimension': 3,
+        'gml:lowerCorner': ' '.join([str(e) for e in city.lower_corner]),
+        'gml:upperCorner': ' '.join([str(e) for e in city.upper_corner])
+      }}]
+    for surface in building.surfaces:
+      surface_member = {'@xlink:href': f'#PolyId{surface.name}'}
+      self._surface_members.append(surface_member)
+      if surface.type == 'Wall':
+        surface_type = 'bldg:WallSurface'
+      elif surface.type == 'Ground':
+        surface_type = 'bldg:GroundSurface'
+      else:
+        surface_type = 'bldg:RoofSurface'
+      surface_dic = {
+        surface_type: {
+          '@gml:id': f'GML_{uuid.uuid4()}',
+          'gml:name': f'{surface.name} ({surface.type})',
+          'gml:boundedBy': {
+            'gml:Envelope': {
+              '@srsName': city.srs_name,
+              'gml:lowerCorner': f'{surface.lower_corner[0]} {surface.lower_corner[1]}'
+                                 f' {surface.lower_corner[2]}',
+              'gml:upperCorner': f'{surface.upper_corner[0]} {surface.upper_corner[1]}'
+                                 f' {surface.upper_corner[2]}'
+            }
+          },
+          'bldg:lod2MultiSurface': {
+            'gml:MultiSurface': {
+              '@srsName': city.srs_name,
+              '@gml:id': f'GML_{uuid.uuid4()}',
+              'surfaceMember': {
+                'gml:Polygon': {
+                  '@srsName': city.srs_name,
+                  '@gml:id': f'PolyId{surface.name}',
+                  'gml:exterior': {
+                    'gml:LinearRing': {
+                      '@gml:id': f'PolyId{surface.name}_0',
+                      'gml:posList': {
+                        '@srsDimension': '3',
+                        '@count': len(surface.solid_polygon.coordinates) + 1,
+                        '#text': f'{" ".join(map(str, surface.solid_polygon.points_list))} '
+                                 f'{" ".join(map(str, surface.solid_polygon.coordinates[0]))}'
+                      }
+                    }
+                  }
+                }
+              }
+            }
+          }
+        }
+      }
+      boundaries.append(surface_dic)
+    building_dic['bldg:Building']['bldg:lod2Solid'] = {
+      'gml:Solid': {
+        '@gml:id': f'GML_{uuid.uuid4()}',
+        'gml:exterior': {
+          'gml:CompositeSurface': {
+            '@srsName': city.srs_name,
+            '@gml:id': f'GML_{uuid.uuid4()}',
+            'gml:surfaceMember': self._surface_members
+          }
+        }
+      }
+    }
+
+    building_dic['bldg:Building']['gml:boundedBy'] = boundaries
+    return building_dic
+
+  def _thermal_zones(self, building, city):
+    thermal_zones = []
+    for index, thermal_zone in enumerate(building.thermal_zones):
+      usage_zones = []
+      for usage_zone in thermal_zone.usage_zones:
+        usage_zones.append({'@xlink:href': f'#GML_{usage_zone.id}'})
+      thermal_zone_dic = {
+        'energy:ThermalZone': {
+          '@gml:id': f'GML_{thermal_zone.id}',
+          'gml:name': f'Thermal zone {index} in {building.name} building',
+          'energy:contains': [],
+          'energy:floorArea': {
+            'energy:FloorArea': {
+              'energy:type': 'grossFloorArea',
+              'energy:value': {
+                '@uom': 'm2',
+                '#text': f'{thermal_zone.floor_area}'
+              }
+            }
+          },
+          'energy:volume': {
+            'energy:VolumeType': {
+              'energy:type': 'grossVolume',
+              'energy:value': {
+                '@uom': 'm3',
+                # todo: for now we have just one thermal zone, therefore is the building volume, this need to be changed
+                '#text': f'{building.volume}'
+              }
+            }
+          },
+          'energy:isCooled': f'{thermal_zone.is_cooled}',
+          'energy:isHeated': f'{thermal_zone.is_heated}',
+          'energy:volumeGeometry': {
+            'gml:Solid': {
+              '@gml:id': f'GML_{uuid.uuid4()}',
+              'gml:exterior': {
+                'gml:CompositeSurface': {
+                  '@srsName': f'{city.srs_name}',
+                  '@gml:id': f'GML_{uuid.uuid4()}',
+                  'gml:surfaceMember': self._surface_members
+                }
+              }
+            }
+          },
+          'energy:boundedBy': self._thermal_boundaries(city, thermal_zone)
+        }
+      }
+      thermal_zone_dic['energy:ThermalZone']['energy:contains'] = usage_zones
+      thermal_zones.append(thermal_zone_dic)
+    return thermal_zones
+
+  def _thermal_boundaries(self, city, thermal_zone):
+    thermal_boundaries = []
+    for thermal_boundary in thermal_zone.thermal_boundaries:
+      thermal_boundary_dic = {
+        '@gml:id': f'GML_{uuid.uuid4()}',
+        'gml:name': f'{thermal_boundary.construction_name}',
+        'energy:thermalBoundaryType': thermal_boundary.type,
+        'energy:azumuth': {
+          '@uom': 'rad',
+          '#text': f'{thermal_boundary.azimuth}'
+        },
+        'energy:inclination': {
+          '@uom': 'rad',
+          '#text': f'{thermal_boundary.inclination}'
+        },
+        'energy:area': {
+          '@uom': 'm2',
+          '#text': f'{thermal_boundary.area}'
+        },
+        'energy:surfaceGeometry': {
+          'gml:MultiSurface': {
+            '@srsName': city.srs_name,
+            '@gml:id': f'GML_{uuid.uuid4()}',
+            'gml:surfaceMember': {
+              'gml:Polygon': {
+                '@srsName': city.srs_name,
+                '@gml:id': f'GML_{uuid.uuid4()}',
+                'gml:exterior': {
+                  'gml:LinearRing': {
+                    '@gml:id': f'GML_{uuid.uuid4()}',
+                    'gml:posList': {
+                      '@srsDimension': '3',
+                      '@count': len(thermal_boundary.surface.solid_polygon.coordinates) + 1,
+                      '#text': f'{" ".join(map(str, thermal_boundary.surface.solid_polygon.points_list))} '
+                               f'{" ".join(map(str, thermal_boundary.surface.solid_polygon.coordinates[0]))}'
+                    }
+                  }
+                }
+              }
+            }
+          }
+        }
+      }
+      construction = []
+      opening_construction = []
+      if thermal_boundary.layers is not None:
+        construction.append(uuid.uuid4())
+        thermal_boundary_dic['energy:construction'] = {
+          '@xlink:href': f'#GML_{construction[0]}'
+        }
+      if thermal_boundary.thermal_openings is not None:
+        for opening in thermal_boundary.thermal_openings:
+          opening_construction.append(uuid.uuid4())
+          thermal_boundary_dic['energy:contains'] = {
+            'energy:ThermalOpening': {
+              '@gml:id': f'GML_{uuid.uuid4()}',
+              'energy:construction': f'#GML_{opening_construction}',
+              'energy:surfaceGeometry': {
+
+              }
+            }
+          }
+      thermal_boundaries.append(thermal_boundary_dic)
+    return thermal_boundaries
diff --git a/exports/exports/formats/idf.py b/exports/exports/formats/idf.py
new file mode 100644
index 00000000..b956367e
--- /dev/null
+++ b/exports/exports/formats/idf.py
@@ -0,0 +1,278 @@
+"""
+TestOccupancyFactory test and validate the city model structure schedules parameters
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Soroush Samareh Abolhassani - soroush.samarehabolhassani@mail.concordia.ca
+"""
+from geomeppy import IDF
+
+
+class Idf:
+  """
+  Export city to IDF
+  """
+  _THERMOSTAT = 'HVACTEMPLATE:THERMOSTAT'
+  _IDEAL_LOAD_AIR_SYSTEM = 'HVACTEMPLATE:ZONE:IDEALLOADSAIRSYSTEM'
+  _SURFACE = 'BUILDINGSURFACE:DETAILED'
+  _CONSTRUCTION = 'CONSTRUCTION'
+  _MATERIAL = 'MATERIAL'
+  _MATERIAL_NOMASS = 'MATERIAL:NOMASS'
+  _ROUGHNESS = 'MediumRough'
+  _HOURLY_SCHEDULE = 'SCHEDULE:DAY:HOURLY'
+  _ZONE = 'ZONE'
+  _LIGHTS = 'LIGHTS'
+  _PEOPLE = 'PEOPLE'
+  _ELECTRIC_EQUIPMENT = 'ELECTRICEQUIPMENT'
+  _INFILTRATION = 'ZONEINFILTRATION:DESIGNFLOWRATE'
+  _BUILDING_SURFACE = 'BuildingSurfaceDetailed'
+  _SCHEDULE_LIMIT = 'SCHEDULETYPELIMITS'
+  _ON_OFF = 'On/Off'
+  _FRACTION = 'Fraction'
+  _ANY_NUMBER = 'Any Number'
+  _CONTINUOUS = 'CONTINUOUS'
+  _DISCRETE = 'DISCRETE'
+
+  idf_surfaces = {
+    # todo: make an enum for all the surface types
+    'Wall': 'wall',
+    'Ground': 'floor',
+    'Roof': 'roof'
+  }
+  idf_usage = {
+    # todo: make an enum for all the usage types
+    'residential': 'residential_building'
+  }
+
+  def __init__(self, city, output_path, idf_file_path, idd_file_path, epw_file_path, export_type="Surfaces"):
+    self._city = city
+    self._output_path = str((output_path / f'{city.name}.idf').resolve())
+    self._export_type = export_type
+    self._idd_file_path = str(idd_file_path)
+    self._idf_file_path = str(idf_file_path)
+    self._epw_file_path = str(epw_file_path)
+    IDF.setiddname(self._idd_file_path)
+    self._idf = IDF(self._idf_file_path, self._epw_file_path)
+    self._idf.newidfobject(self._SCHEDULE_LIMIT, Name=self._ANY_NUMBER)
+    self._idf.newidfobject(self._SCHEDULE_LIMIT, Name=self._FRACTION, Lower_Limit_Value=0.0, Upper_Limit_Value=1.0,
+                           Numeric_Type=self._CONTINUOUS)
+    self._idf.newidfobject(self._SCHEDULE_LIMIT, Name=self._ON_OFF, Lower_Limit_Value=0, Upper_Limit_Value=1,
+                           Numeric_Type=self._DISCRETE)
+    self._export()
+
+  @staticmethod
+  def _matrix_to_list(points):
+    points_list = []
+    for point in points:
+      point_tuple = (point[0], point[1], point[2])
+      points_list.append(point_tuple)
+    return points_list
+
+  @staticmethod
+  def _matrix_to_2d_list(points):
+    points_list = []
+    for point in points:
+      point_tuple = (point[0], point[1])
+      points_list.append(point_tuple)
+    return points_list
+
+  def _add_material(self, layer):
+    for material in self._idf.idfobjects[self._MATERIAL]:
+      if material.Name == layer.material.name:
+        return
+    for material in self._idf.idfobjects[self._MATERIAL_NOMASS]:
+      if material.Name == layer.material.name:
+        return
+    if layer.material.no_mass:
+      self._idf.newidfobject(self._MATERIAL_NOMASS,
+                             Name=layer.material.name,
+                             Roughness=self._ROUGHNESS,
+                             Thermal_Resistance=layer.material.thermal_resistance,
+                             Thermal_Absorptance=layer.material.thermal_absorptance,
+                             Solar_Absorptance=layer.material.solar_absorptance,
+                             Visible_Absorptance=layer.material.visible_absorptance
+                             )
+    else:
+      self._idf.newidfobject(self._MATERIAL,
+                             Name=layer.material.name,
+                             Roughness=self._ROUGHNESS,
+                             Thickness=layer.thickness,
+                             Conductivity=layer.material.conductivity,
+                             Density=layer.material.density,
+                             Specific_Heat=layer.material.specific_heat,
+                             Thermal_Absorptance=layer.material.thermal_absorptance,
+                             Solar_Absorptance=layer.material.solar_absorptance,
+                             Visible_Absorptance=layer.material.visible_absorptance
+                             )
+
+  def _add_schedule(self, usage_zone, schedule_type, limit_name='Any Number'):
+    for schedule in self._idf.idfobjects[self._HOURLY_SCHEDULE]:
+      if schedule.Name == f'{schedule_type} schedules {usage_zone.usage}':
+        return
+    if usage_zone.schedules is None or schedule_type not in usage_zone.schedules:
+      # there are no schedule for this type
+      return
+    schedule = self._idf.newidfobject(self._HOURLY_SCHEDULE, Name=f'{schedule_type} schedules {usage_zone.usage}')
+    schedule.Schedule_Type_Limits_Name = limit_name
+
+    schedule.Hour_1 = usage_zone.schedules[schedule_type]["WD"][0]
+    schedule.Hour_2 = usage_zone.schedules[schedule_type]["WD"][1]
+    schedule.Hour_3 = usage_zone.schedules[schedule_type]["WD"][2]
+    schedule.Hour_4 = usage_zone.schedules[schedule_type]["WD"][3]
+    schedule.Hour_5 = usage_zone.schedules[schedule_type]["WD"][4]
+    schedule.Hour_6 = usage_zone.schedules[schedule_type]["WD"][5]
+    schedule.Hour_7 = usage_zone.schedules[schedule_type]["WD"][6]
+    schedule.Hour_8 = usage_zone.schedules[schedule_type]["WD"][7]
+    schedule.Hour_9 = usage_zone.schedules[schedule_type]["WD"][8]
+    schedule.Hour_10 = usage_zone.schedules[schedule_type]["WD"][9]
+    schedule.Hour_11 = usage_zone.schedules[schedule_type]["WD"][10]
+    schedule.Hour_12 = usage_zone.schedules[schedule_type]["WD"][11]
+    schedule.Hour_13 = usage_zone.schedules[schedule_type]["WD"][12]
+    schedule.Hour_14 = usage_zone.schedules[schedule_type]["WD"][13]
+    schedule.Hour_15 = usage_zone.schedules[schedule_type]["WD"][14]
+    schedule.Hour_16 = usage_zone.schedules[schedule_type]["WD"][15]
+    schedule.Hour_17 = usage_zone.schedules[schedule_type]["WD"][16]
+    schedule.Hour_18 = usage_zone.schedules[schedule_type]["WD"][17]
+    schedule.Hour_19 = usage_zone.schedules[schedule_type]["WD"][18]
+    schedule.Hour_20 = usage_zone.schedules[schedule_type]["WD"][19]
+    schedule.Hour_21 = usage_zone.schedules[schedule_type]["WD"][20]
+    schedule.Hour_22 = usage_zone.schedules[schedule_type]["WD"][21]
+    schedule.Hour_23 = usage_zone.schedules[schedule_type]["WD"][22]
+    schedule.Hour_24 = usage_zone.schedules[schedule_type]["WD"][23]
+
+  def _add_construction(self, thermal_boundary):
+    for construction in self._idf.idfobjects[self._CONSTRUCTION]:
+      if construction.Name == thermal_boundary.construction_name:
+        return
+
+    if thermal_boundary.layers is None:
+      for material in self._idf.idfobjects[self._MATERIAL]:
+        if material.Name == "DefaultMaterial":
+          return
+      self._idf.set_default_constructions()
+      return
+    for layer in thermal_boundary.layers:
+      self._add_material(layer)
+    layers = thermal_boundary.layers
+    # The constructions should have at least one layer
+    _kwargs = {"Name": thermal_boundary.construction_name, "Outside_Layer": layers[0].material.name}
+    for i in range(1, len(layers) - 1):
+      _kwargs[f'Layer_{i + 1}'] = layers[1].material.name
+    self._idf.newidfobject(self._CONSTRUCTION, **_kwargs)
+
+  def _add_zone(self, usage_zone):
+    for zone in self._idf.idfobjects['ZONE']:
+      if zone.Name == usage_zone.id:
+        return
+    # todo: what does we need to define a zone in energy plus?
+    self._idf.newidfobject(self._ZONE, Name=usage_zone.id, Volume=usage_zone.volume)
+    self._add_heating_system(usage_zone)
+
+  def _add_thermostat(self, usage_zone):
+    thermostat_name = f'Thermostat {usage_zone.usage}'
+    for thermostat in self._idf.idfobjects[self._THERMOSTAT]:
+      if thermostat.Name == thermostat_name:
+        return thermostat
+    return self._idf.newidfobject(self._THERMOSTAT,
+                                  Name=thermostat_name,
+                                  Constant_Heating_Setpoint=usage_zone.heating_setpoint,
+                                  Constant_Cooling_Setpoint=usage_zone.cooling_setpoint)
+
+  def _add_heating_system(self, usage_zone):
+    for air_system in self._idf.idfobjects[self._IDEAL_LOAD_AIR_SYSTEM]:
+      if air_system.Zone_Name == usage_zone.id:
+        return
+    thermostat = self._add_thermostat(usage_zone)
+    self._idf.newidfobject(self._IDEAL_LOAD_AIR_SYSTEM,
+                           Zone_Name=usage_zone.id,
+                           Cooling_Availability_Schedule_Name=f'Refrigeration schedules {usage_zone.usage}',
+                           Template_Thermostat_Name=thermostat.Name)
+
+  def _add_occupancy(self, usage_zone):
+    self._idf.newidfobject(self._PEOPLE,
+                           Name=f'{usage_zone.id}_occupancy',
+                           Zone_or_ZoneList_Name=usage_zone.id,
+                           Number_of_People_Schedule_Name=f'Occupancy schedules {usage_zone.usage}',
+                           Number_of_People_Calculation_Method="People",
+                           Number_of_People=500,  # todo: get people from where?
+                           Fraction_Radiant=0.3,  # todo: howto get this from InternalGains
+                           Activity_Level_Schedule_Name='occupant schedules'
+                           )
+
+  def _add_equipment(self, usage_zone):
+    self._idf.newidfobject(self._ELECTRIC_EQUIPMENT,
+                           Name=f'{usage_zone.id}_electricload',
+                           Zone_or_ZoneList_Name=usage_zone.id,
+                           Schedule_Name=f'Electrical schedules {usage_zone.usage}',  # todo: add electrical schedules
+                           Design_Level_Calculation_Method='EquipmentLevel',
+                           Design_Level=566000  # todo: change it from usage catalog
+                           )
+
+  def _add_infiltration(self, usage_zone):
+    for zone in self._idf.idfobjects["ZONE"]:
+      if zone.Name == f'{usage_zone.id}_infiltration':
+        return
+    self._idf.newidfobject(self._INFILTRATION,
+                           Name=f'{usage_zone.id}_infiltration',
+                           Zone_or_ZoneList_Name=usage_zone.id,
+                           Schedule_Name=f'Infiltration schedules {usage_zone.usage}',
+                           Design_Flow_Rate_Calculation_Method='AirChanges/Hour',
+                           Air_Changes_per_Hour=0.35,  # todo: change it from usage catalog
+                           Constant_Term_Coefficient=0.606,  # todo: change it from usage catalog
+                           Temperature_Term_Coefficient=3.6359996E-02,  # todo: change it from usage catalog
+                           Velocity_Term_Coefficient=0.1177165,  # todo: change it from usage catalog
+                           Velocity_Squared_Term_Coefficient=0.0000000E+00  # todo: change it from usage catalog
+                           )
+
+  def _export(self):
+    """
+    Export the idf file into the given path
+    export type = "Surfaces|Block"
+    """
+    for building in self._city.buildings:
+      for usage_zone in building.usage_zones:
+        self._add_schedule(usage_zone, "Infiltration")
+        self._add_schedule(usage_zone, "Lights")
+        self._add_schedule(usage_zone, "Occupancy")
+        self._add_schedule(usage_zone, "Refrigeration", self._ON_OFF)
+
+        self._add_zone(usage_zone)
+        self._add_heating_system(usage_zone)
+        # self._add_infiltration(usage_zone)
+        # self._add_occupancy(usage_zone)
+      for thermal_zone in building.thermal_zones:
+        for thermal_boundary in thermal_zone.thermal_boundaries:
+          self._add_construction(thermal_boundary)
+
+      if self._export_type == "Surfaces":
+        self._add_surfaces(building)
+      else:
+        self._add_block(building)
+    self._idf.match()
+    self._idf.saveas(str(self._output_path))
+
+  def _add_block(self, building):
+    _points = self._matrix_to_2d_list(building.foot_print.coordinates)
+    self._idf.add_block(name=building.name, coordinates=_points, height=building.max_height,
+                        num_stories=int(building.storeys_above_ground))
+
+    for surface in self._idf.idfobjects[self._SURFACE]:
+      for thermal_zone in building.thermal_zones:
+        for boundary in thermal_zone.thermal_boundaries:
+          if surface.Type == self.idf_surfaces[boundary.surface.type]:
+            surface.Construction_Name = boundary.construction_name
+            break
+        for usage_zone in thermal_zone.usage_zones:
+          surface.Zone_Name = usage_zone.id
+          break
+        break
+    self._idf.intersect_match()
+
+  def _add_surfaces(self, building):
+    for thermal_zone in building.thermal_zones:
+      for boundary in thermal_zone.thermal_boundaries:
+        idf_surface_type = self.idf_surfaces[boundary.surface.type]
+        for usage_zone in thermal_zone.usage_zones:
+          surface = self._idf.newidfobject(self._SURFACE, Name=f'{boundary.surface.name}',
+                                           Surface_Type=idf_surface_type, Zone_Name=usage_zone.id,
+                                           Construction_Name=boundary.construction_name)
+          coordinates = self._matrix_to_list(boundary.surface.solid_polygon.coordinates)
+          surface.setcoords(coordinates)
diff --git a/exports/exports/formats/idf_files/Energy+.idd b/exports/exports/formats/idf_files/Energy+.idd
new file mode 100644
index 00000000..12d2d762
--- /dev/null
+++ b/exports/exports/formats/idf_files/Energy+.idd
@@ -0,0 +1,103532 @@
+!IDD_Version 9.5.0
+!IDD_BUILD de239b2e5f
+! **************************************************************************
+! This file is the Input Data Dictionary (IDD) for EnergyPlus.
+! The IDD defines the syntax and data model for each type of input "Object."
+! Lines in EnergyPlus input files (and IDD) are limited to 500 characters.
+!
+! Object Description
+! ------------------
+! To define an object (a record with data), develop a key word that is unique
+! Each data item to the object can be A (Alphanumeric string) or N (numeric)
+! Number each A and N. This will show how the data items will be put into the
+! arrays that are passed to the Input Processor "Get" (GetObjectItem) routines.
+! All alpha fields are limited to 100 characters. Numeric fields should be
+! valid numerics (can include such as 1.0E+05) and are placed into double
+! precision variables.
+!
+! NOTE: Even though a field may be optional, a comma representing that field
+!   must be included (unless it is the last field in the object). Since the
+!   entire input is "field-oriented" and not "keyword-oriented", the EnergyPlus
+!   Input Processor must have some representation (even if blank) for each
+!   field.
+!
+! Object Documentation
+! --------------------
+! In addition, the following special comments appear one per line and
+! most are followed by a value. Comments may apply to a field or the object
+! or a group of objects.
+!
+! Field-level comments:
+!
+!  \field           Name of field
+!                     (should be succinct and readable, blanks are encouraged)
+!
+!  \note            Note describing the field and its valid values. If multiple lines,
+!                   start each line with \note. Limit line length to 100 characters.
+!
+!  \required-field  To flag fields which must have a value. If the idf input is blank and
+!                   there is a \default, then the default will be used. However, as of v8.6.0
+!                   the use of \required-field and \default on the same field is discouraged
+!                   and instances with both have been changed.
+!                     (this comment has no "value")
+!
+!  \begin-extensible  Marks the first field at which the object accepts an extensible
+!                   field set. A fixed number of fields from this marker define the
+!                   extensible field set, see the object code \extensible for
+!                   more information.
+!
+!  \units           Units (must be from EnergyPlus standard units list)
+!                   EnergyPlus units are standard SI units
+!
+!  \ip-units        IP-Units (for use by input processors with IP units)
+!                   This is only used if the default conversion is not
+!                   appropriate.
+!
+!  \unitsBasedOnField  For fields that may have multiple possible units, indicates
+!                   the field in the object that can be used to determine
+!                   the units. The field reference is in the A2 form.
+!
+!  \minimum         Minimum that includes the following value
+!
+!  \minimum>        Minimum that must be > than the following value
+!
+!  \maximum         Maximum that includes the following value
+!
+!  \maximum<        Maximum that must be < than the following value
+!
+!  \default         Default for the field (if N/A then omit entire line). If a default is
+!                   added to an existing field, then \required-field should be removed if present.
+!                   Defaults are filled in only if the field is within \min-fields, or the actual
+!                   object is longer than this field.
+!
+!  \deprecated      This field is not really used and will be deleted from the object.
+!                   The required information is gotten internally or
+!                   not needed by the program.
+!
+!  \autosizable     Flag to indicate that this field can be used with the Auto
+!                   Sizing routines to produce calculated results for the
+!                   field. If a value follows this, then that will be used
+!                   when the "Autosize" feature is flagged. To trigger
+!                   autosizing for a field, enter Autosize as the field's
+!                   value. Only applicable to numeric fields.
+!
+!  \autocalculatable Flag to indicate that this field can be automatically
+!                   calculated. To trigger auto calculation for a field, enter
+!                   Autocalculate as the field's value. Only applicable to
+!                   numeric fields.
+!
+!  \type            Type of data for the field -
+!                     integer
+!                     real
+!                     alpha       (arbitrary string),
+!                     choice      (alpha with specific list of choices, see
+!                                 \key)
+!                     object-list (link to a list of objects defined elsewhere,
+!                                  see \object-list and \reference)
+!                     external-list (uses a special list from an external source,
+!                                    see \external-list)
+!                     node        (name used in connecting HVAC components)
+!
+!  \retaincase      Retains the alphabetic case for alpha type fields
+!
+!  \key             Possible value for "\type choice" (blanks are significant)
+!                     use multiple \key lines to indicate all valid choices
+!
+!  \object-list     Name of a list of user-provided object names that are valid
+!                     entries for this field (used with "\reference")
+!                     see Zone and BuildingSurface:Detailed objects below for
+!                     examples.
+!                  ** Note that a field may have multiple \object-list commands.
+!
+!  \external-list   The values for this field should be selected from a special
+!                   list generated outside of the IDD file. The choices for the
+!                   special lists are:
+!                        autoRDDvariable
+!                        autoRDDmeter
+!                        autoRDDvariableMeter
+!                   When one of these are selected the options for the field
+!                   are taken from the RDD or MDD file or both.
+!
+!  \reference       Name of a list of names to which this object belongs
+!                     used with "\type object-list" and with "\object-list"
+!                     see Zone and BuildingSurface:Detailed objects below for
+!                     examples:
+!
+!                        Zone,
+!                          A1 , \field Name
+!                               \type alpha
+!                               \reference ZoneNames
+!
+!                        BuildingSurface:Detailed,
+!                          A4 , \field Zone Name
+!                               \note Zone the surface is a part of
+!                               \type object-list
+!                               \object-list ZoneNames
+!
+!             For each zone, the field "Name" may be referenced
+!             by other objects, such as BuildingSurface:Detailed, so it is
+!             commented with "\reference ZoneNames"
+!             Fields that reference a zone name, such as BuildingSurface:Detailed's
+!             "Zone Name", are commented as
+!             "\type object-list" and "\object-list ZoneNames"
+!             ** Note that a field may have multiple \reference commands.
+!             ** This is useful if the object belongs to a small specific
+!             object-list as well as a larger more general object-list.
+!
+! Object-level comments:
+!
+!  \memo            Memo describing the object. If multiple lines, start each line
+!                   with \memo.
+!                   Limit line length to 100 characters.
+!
+!  \unique-object   To flag objects which should appear only once in an idf
+!                     (this comment has no "value")
+!
+!  \required-object To flag objects which are required in every idf
+!                     (this comment has no "value")
+!
+!  \min-fields      Minimum number of fields that should be included in the
+!                   object. If appropriate, the Input Processor will fill
+!                   any missing fields with defaults (for numeric fields).
+!                   It will also supply that number of fields to the "get"
+!                   routines using blanks for alpha fields (note -- blanks
+!                   may not be allowable for some alpha fields).
+!
+!  \obsolete        This object has been replaced though is kept (and is read)
+!                   in the current version. Please refer to documentation as
+!                   to the dispersal of the object. If this object is
+!                   encountered in an IDF, the InputProcessor will post an
+!                   appropriate message to the error file.
+!                   usage:  \obsolete New=>[New object name]
+!
+!  \extensible:<#>  This object is dynamically extensible -- meaning, if you
+!           change the IDD appropriately (if the object has a simple list
+!           structure -- just add items to the list arguments (i.e. BRANCH
+!           LIST). These will be automatically redimensioned and used during
+!           the simulation. <#> should be entered by the developer to signify
+!           how many of the last fields are needed to be extended (and EnergyPlus
+!           will attempt to auto-extend the object). The first field of the first
+!           instance of the extensible field set is marked with \begin-extensible.
+!
+!  \begin-extensible See previous item, marks beginning of extensible fields in
+!                   an object.
+!
+!  \format          The object should have a special format when saved in
+!                   the IDF Editor with the special format option enabled.
+!                   The options include SingleLine, Vertices, CompactSchedule,
+!                   FluidProperties, ViewFactors, and Spectral.
+!                   The SingleLine option puts all the fields for the object
+!                   on a single line. The Vertices option is used in objects
+!                   that use X, Y and Z fields to format those three fields
+!                   on a single line.
+!                   The CompactSchedule formats that specific object.
+!                   The FluidProperty option formats long lists of fluid
+!                   properties to ten values per line.
+!                   The ViewFactor option formats three fields related to
+!                   view factors per line.
+!                   The Spectral option formats the four fields related to
+!                   window glass spectral data per line.
+!
+!   \reference-class-name Adds the name of the class to the reference list
+!                   similar to \reference.
+!
+! Group-level comments:
+!
+!  \group          Name for a group of related objects
+!
+!
+! Notes on comments
+! -----------------
+!
+! 1. If a particular comment is not applicable (such as units, or default)
+! then simply omit the comment rather than indicating N/A.
+!
+! 2. Memos and notes should be brief (recommend 5 lines or less per block).
+! More extensive explanations are expected to be in the user documentation
+!
+! Default IP conversions (no \ip-units necessary)
+!      $/(m3/s)               =>   $/(ft3/min)         0.000472000059660808
+!      $/(W/K)                =>   $/(Btu/h-F)         0.52667614683731
+!      $/kW                   =>   $/(kBtuh/h)         0.293083235638921
+!      $/m2                   =>   $/ft2               0.0928939733269818
+!      $/m3                   =>   $/ft3               0.0283127014102352
+!      (kg/s)/W               =>   (lbm/sec)/(Btu/hr)  0.646078115385742
+!      1/K                    =>   1/F                 0.555555555555556
+!      1/m                    =>   1/ft                0.3048
+!      A/K                    =>   A/F                 0.555555555555556
+!      C                      =>   F                   1.8 (plus 32)
+!      cm                     =>   in                  0.3937
+!      cm2                    =>   inch2               0.15500031000062
+!      deltaC                 =>   deltaF              1.8
+!      deltaC/hr              =>   deltaF/hr           1.8
+!      deltaJ/kg              =>   deltaBtu/lb         0.0004299
+!      g/GJ                   =>   lb/MWh              0.00793664091373665
+!      g/kg                   =>   grains/lb           7
+!      g/MJ                   =>   lb/MWh              7.93664091373665
+!      g/mol                  =>   lb/mol              0.0022046
+!      g/m-s                  =>   lb/ft-s             0.000671968949659
+!      g/m-s-K                =>   lb/ft-s-F           0.000373574867724868
+!      GJ                     =>   ton-hrs             78.9889415481832
+!      J                      =>   Wh                  0.000277777777777778
+!      J/K                    =>   Btu/F               526.565
+!      J/kg                   =>   Btu/lb              0.00042986 (plus 7.686)
+!      J/kg-K                 =>   Btu/lb-F            0.000239005736137667
+!      J/kg-K2                =>   Btu/lb-F2           0.000132889924714692
+!      J/kg-K3                =>   Btu/lb-F3           7.38277359526066E-05
+!      J/m2-K                 =>   Btu/ft2-F           4.89224766847393E-05
+!      J/m3                   =>   Btu/ft3             2.68096514745308E-05
+!      J/m3-K                 =>   Btu/ft3-F           1.49237004739337E-05
+!      K                      =>   R                   1.8
+!      K/m                    =>   F/ft                0.54861322767449
+!      kg                     =>   lb                  2.2046
+!      kg/J                   =>   lb/Btu              2325.83774250441
+!      kg/kg-K                =>   lb/lb-F             0.555555555555556
+!      kg/m                   =>   lb/ft               0.67196893069637
+!      kg/m2                  =>   lb/ft2              0.204794053596664
+!      kg/m3                  =>   lb/ft3              0.062428
+!      kg/m-s                 =>   lb/ft-s             0.67196893069637
+!      kg/m-s-K               =>   lb/ft-s-F           0.373316072609094
+!      kg/m-s-K2              =>   lb/ft-s-F2          0.207397818116164
+!      kg/Pa-s-m2             =>   lb/psi-s-ft2        1412.00523459398
+!      kg/s                   =>   lb/s                2.20462247603796
+!      kg/s2                  =>   lb/s2               2.2046
+!      kg/s-m                 =>   lb/s-ft             0.67196893069637
+!      kJ/kg                  =>   Btu/lb              0.429925
+!      kPa                    =>   psi                 0.145038
+!      L/day                  =>   pint/day            2.11337629827348
+!      L/GJ                   =>   gal/kWh             0.000951022349025202
+!      L/kWh                  =>   pint/kWh            2.11337629827348
+!      L/MJ                   =>   gal/kWh             0.951022349025202
+!      lux                    =>   foot-candles        0.092902267
+!      m                      =>   ft                  3.28083989501312
+!      m/hr                   =>   ft/hr               3.28083989501312
+!      m/s                    =>   ft/min              196.850393700787
+!      m/s                    =>   miles/hr            2.2369362920544
+!      m/yr                   =>   inch/yr             39.3700787401575
+!      m2                     =>   ft2                 10.7639104167097
+!      m2/m                   =>   ft2/ft              3.28083989501312
+!      m2/person              =>   ft2/person          10.764961
+!      m2/s                   =>   ft2/s               10.7639104167097
+!      m2-K/W                 =>   ft2-F-hr/Btu        5.678263
+!      m3                     =>   ft3                 35.3146667214886
+!      m3                     =>   gal                 264.172037284185
+!      m3/GJ                  =>   ft3/MWh             127.13292
+!      m3/hr                  =>   ft3/hr              35.3146667214886
+!      m3/hr-m2               =>   ft3/hr-ft2          3.28083989501312
+!      m3/hr-person           =>   ft3/hr-person       35.3146667214886
+!      m3/kg                  =>   ft3/lb              16.018
+!      m3/m2                  =>   ft3/ft2             3.28083989501312
+!      m3/MJ                  =>   ft3/kWh             127.13292
+!      m3/person              =>   ft3/person          35.3146667214886
+!      m3/s                   =>   ft3/min             2118.88000328931
+!      m3/s-m                 =>   ft3/min-ft          645.89
+!      m3/s-m2                =>   ft3/min-ft2         196.85
+!      m3/s-person            =>   ft3/min-person      2118.6438
+!      m3/s-W                 =>   (ft3/min)/(Btu/h)   621.099127332943
+!      N-m                    =>   lbf-in              8.85074900525547
+!      N-s/m2                 =>   lbf-s/ft2           0.0208857913669065
+!      Pa                     =>   psi                 0.000145037743897283
+!      percent/K              =>   percent/F           0.555555555555556
+!      person/m2              =>   person/ft2          0.0928939733269818
+!      s/m                    =>   s/ft                0.3048
+!      V/K                    =>   V/F                 0.555555555555556
+!      W                      =>   Btu/h               3.4121412858518
+!      W/((m3/s)-Pa)          =>   W/((gal/min)-ftH20) 0.188582274697355
+!      W/((m3/s)-Pa)          =>   W/((ft3/min)-inH2O) 0.117556910599482
+!      W/(m3/s)               =>   W/(ft3/min)         0.0004719475
+!      W/K                    =>   Btu/h-F             1.89563404769544
+!      W/m                    =>   Btu/h-ft            1.04072
+!      W/m2                   =>   Btu/h-ft2           0.316957210776545
+!      W/m2                   =>   W/ft2               0.09290304
+!      W/m2-K                 =>   Btu/h-ft2-F         0.176110194261872
+!      W/m2-K2                =>   Btu/h-ft2-F2        0.097826
+!      W/m-K                  =>   Btu-in/h-ft2-F      6.93481276005548
+!      W/m-K2                 =>   Btu/h-F2-ft         0.321418310071648
+!      W/m-K3                 =>   Btu/h-F3-ft         0.178565727817582
+!      W/person               =>   Btu/h-person        3.4121412858518
+!
+! Other conversions supported (needs the \ip-units code)
+!
+!      kPa                    =>   inHg                0.29523
+!      m                      =>   in                  39.3700787401575
+!      m3/hr                  =>   gal/hr              264.172037284185
+!      m3/hr-m2               =>   gal/hr-ft2          24.5423853466941
+!      m3/hr-person           =>   gal/hr-person       264.172037284185
+!      m3/m2                  =>   gal/ft2             24.5423853466941
+!      m3/person              =>   gal/person          264.172037284185
+!      m3/s                   =>   gal/min             15850.3222370511
+!      m3/s-m                 =>   gal/min-ft          4831.17821785317
+!      m3/s-W                 =>   (gal/min)/(Btu/h)   4645.27137336702
+!      Pa                     =>   ftH2O               0.00033455
+!      Pa                     =>   inH2O               0.00401463
+!      Pa                     =>   inHg                0.00029613
+!      Pa                     =>   Pa                  1
+!      W                      =>   W                   1
+!      W/(m3/s)               =>   W/(gal/min)         0.0000630902
+!      W/m2                   =>   W/m2                1
+!      W/m-K                  =>   Btu/h-ft-F          0.577796066000163
+!      W/person               =>   W/person            1
+!
+! Units fields that are not translated
+!      $
+!      1/hr
+!      A
+!      A/V
+!      Ah
+!      Availability
+!      Control
+!      cycles/hr
+!      days
+!      deg
+!      dimensionless
+!      eV
+!      hh:mm
+!      hr
+!      J/J
+!      kg/kg
+!      kgWater/kgDryAir
+!      kmol
+!      kmol/s
+!      m3/m3
+!      micron
+!      minutes
+!      Mode
+!      ms
+!      ohms
+!      percent
+!      ppm
+!      rev/min
+!      s
+!      V
+!      VA
+!      W/m2 or deg C
+!      W/m2, W or deg C
+!      W/s
+!      W/W
+!      years
+! **************************************************************************
+
+\group Simulation Parameters
+
+Version,
+      \memo Specifies the EnergyPlus version of the IDF file.
+      \unique-object
+      \format singleLine
+  A1 ; \field Version Identifier
+      \default 9.5
+
+SimulationControl,
+      \unique-object
+      \memo Note that the following 3 fields are related to the Sizing:Zone, Sizing:System,
+      \memo and Sizing:Plant objects. Having these fields set to Yes but no corresponding
+      \memo Sizing object will not cause the sizing to be done. However, having any of these
+      \memo fields set to No, the corresponding Sizing object is ignored.
+      \memo Note also, if you want to do system sizing, you must also do zone sizing in the same
+      \memo run or an error will result.
+      \min-fields 7
+  A1, \field Do Zone Sizing Calculation
+      \note If Yes, Zone sizing is accomplished from corresponding Sizing:Zone objects
+      \note and autosize fields.
+      \type choice
+      \key Yes
+      \key No
+      \default No
+  A2, \field Do System Sizing Calculation
+      \note If Yes, System sizing is accomplished from corresponding Sizing:System objects
+      \note and autosize fields.
+      \note If Yes, Zone sizing (previous field) must also be Yes.
+      \type choice
+      \key Yes
+      \key No
+      \default No
+  A3, \field Do Plant Sizing Calculation
+      \note If Yes, Plant sizing is accomplished from corresponding Sizing:Plant objects
+      \note and autosize fields.
+      \type choice
+      \key Yes
+      \key No
+      \default No
+  A4, \field Run Simulation for Sizing Periods
+      \note If Yes, SizingPeriod:* objects are executed and results from those may be displayed..
+      \type choice
+      \key Yes
+      \key No
+      \default Yes
+  A5, \field Run Simulation for Weather File Run Periods
+      \note If Yes, RunPeriod:* objects are executed and results from those may be displayed..
+      \type choice
+      \key Yes
+      \key No
+      \default Yes
+  A6, \field Do HVAC Sizing Simulation for Sizing Periods
+      \note If Yes, SizingPeriod:* objects are exectuted additional times for advanced sizing.
+      \note Currently limited to use with coincident plant sizing, see Sizing:Plant object
+      \type choice
+      \key Yes
+      \key No
+      \default No
+  N1; \field Maximum Number of HVAC Sizing Simulation Passes
+      \note the entire set of SizingPeriod:* objects may be repeated to fine tune size results
+      \note this input sets a limit on the number of passes that the sizing algorithms can repeate the set
+      \type integer
+      \minimum 1
+      \default 1
+
+PerformancePrecisionTradeoffs,
+      \unique-object
+      \memo This object enables users to choose certain options that speed up EnergyPlus simulation,
+      \memo but may lead to small decreases in accuracy of results.
+  A1, \field Use Coil Direct Solutions
+      \note If Yes, an analytical or empirical solution will be used to replace iterations in
+      \note the coil performance calculations.
+      \type choice
+      \key Yes
+      \key No
+      \default No
+  A2, \field Zone Radiant Exchange Algorithm
+      \note Determines which algorithm will be used to solve long wave radiant exchange among surfaces within a zone.
+      \type choice
+      \key ScriptF
+      \key CarrollMRT
+      \default ScriptF
+  A3, \field Override Mode
+      \note The increasing mode number roughly correspond with increased speed. A description of each mode
+      \note are shown in the documentation. When Advanced is selected the N1 field value is used.
+      \type choice
+      \key Normal
+      \key Mode01
+      \key Mode02
+      \key Mode03
+      \key Mode04
+      \key Mode05
+      \key Mode06
+      \key Mode07
+      \key Advanced
+      \default Normal
+  N1, \field MaxZoneTempDiff
+      \note Maximum zone temperature change before HVAC timestep is shortened.
+      \note Only used when Override Mode is set to Advanced
+      \type real
+      \minimum 0.1
+      \maximum 3.0
+      \default 0.3
+  N2; \field MaxAllowedDelTemp
+      \note Maximum surface temperature change before HVAC timestep is shortened.
+      \note Only used when Override Mode is set to Advanced
+      \type real
+      \minimum 0.002
+      \maximum 0.1
+      \default 0.002
+
+Building,
+       \memo Describes parameters that are used during the simulation
+       \memo of the building. There are necessary correlations between the entries for
+       \memo this object and some entries in the Site:WeatherStation and
+       \memo Site:HeightVariation objects, specifically the Terrain field.
+       \unique-object
+       \required-object
+       \min-fields 8
+  A1 , \field Name
+       \retaincase
+       \default NONE
+  N1 , \field North Axis
+       \note degrees from true North
+       \units deg
+       \type real
+       \default 0.0
+  A2 , \field Terrain
+       \note  Country=FlatOpenCountry | Suburbs=CountryTownsSuburbs | City=CityCenter | Ocean=body of water (5km) | Urban=Urban-Industrial-Forest
+       \type choice
+       \key Country
+       \key Suburbs
+       \key City
+       \key Ocean
+       \key Urban
+       \default Suburbs
+  N2 , \field Loads Convergence Tolerance Value
+       \note Loads Convergence Tolerance Value is a change in load from one warmup day to the next
+       \type real
+       \minimum> 0.0
+       \maximum .5
+       \default .04
+       \units W
+  N3 , \field Temperature Convergence Tolerance Value
+       \units deltaC
+       \type real
+       \minimum> 0.0
+       \maximum .5
+       \default .4
+  A3 , \field Solar Distribution
+       \note  MinimalShadowing | FullExterior | FullInteriorAndExterior | FullExteriorWithReflections | FullInteriorAndExteriorWithReflections
+       \type choice
+       \key MinimalShadowing
+       \key FullExterior
+       \key FullInteriorAndExterior
+       \key FullExteriorWithReflections
+       \key FullInteriorAndExteriorWithReflections
+       \default FullExterior
+  N4 , \field Maximum Number of Warmup Days
+       \note EnergyPlus will only use as many warmup days as needed to reach convergence tolerance.
+       \note This field's value should NOT be set less than 25.
+       \type integer
+       \minimum> 0
+       \default 25
+  N5 ; \field Minimum Number of Warmup Days
+       \note The minimum number of warmup days that produce enough temperature and flux history
+       \note to start EnergyPlus simulation for all reference buildings was suggested to be 6.
+       \note However this can lead to excessive run times as warmup days can be repeated needlessly.
+       \note For faster execution rely on the convergence criteria to detect when warmup is complete.
+       \note When this field is greater than the maximum warmup days defined previous field
+       \note the maximum number of warmup days will be reset to the minimum value entered here.
+       \note Warmup days will be set to be the value you entered. The default is 1.
+       \type integer
+       \minimum> 0
+       \default 1
+
+ShadowCalculation,
+       \unique-object
+       \memo This object is used to control details of the solar, shading, and daylighting models
+       \extensible:1
+  A1 , \field Shading Calculation Method
+       \note Select between CPU-based polygon clipping method, the GPU-based pixel counting method,
+       \note or importing from external shading data.
+       \note If PixelCounting is selected and GPU hardware (or GPU emulation) is not available, a warning will be
+       \note displayed and EnergyPlus will revert to PolygonClipping.
+       \note If Scheduled is chosen, the External Shading Fraction Schedule Name is required
+       \note in SurfaceProperty:LocalEnvironment.
+       \note If Imported is chosen, the Schedule:File:Shading object is required.
+       \type choice
+       \key PolygonClipping
+       \key PixelCounting
+       \key Scheduled
+       \key Imported
+       \default PolygonClipping
+  A2 , \field Shading Calculation Update Frequency Method
+       \note choose calculation frequency method. note that Timestep is only needed for certain cases
+       \note and can increase execution time significantly.
+       \type choice
+       \key Periodic
+       \key Timestep
+       \default Periodic
+  N1 , \field Shading Calculation Update Frequency
+       \type integer
+       \minimum 1
+       \default 20
+       \note enter number of days
+       \note this field is only used if the previous field is set to Periodic
+       \note warning issued if >31
+  N2 , \field Maximum Figures in Shadow Overlap Calculations
+       \note Number of allowable figures in shadow overlap in PolygonClipping calculations
+       \type integer
+       \minimum 200
+       \default 15000
+  A3 , \field Polygon Clipping Algorithm
+       \note Advanced Feature. Internal default is SutherlandHodgman
+       \note Refer to InputOutput Reference and Engineering Reference for more information
+       \type choice
+       \key ConvexWeilerAtherton
+       \key SutherlandHodgman
+       \key SlaterBarskyandSutherlandHodgman
+       \default SutherlandHodgman
+  N3 , \field Pixel Counting Resolution
+       \note Number of pixels in both dimensions of the surface rendering
+       \type integer
+       \default 512
+  A4 , \field Sky Diffuse Modeling Algorithm
+       \note Advanced Feature. Internal default is SimpleSkyDiffuseModeling
+       \note If you have shading elements that change transmittance over the
+       \note year, you may wish to choose the detailed method.
+       \note Refer to InputOutput Reference and Engineering Reference for more information
+       \type choice
+       \key SimpleSkyDiffuseModeling
+       \key DetailedSkyDiffuseModeling
+       \default SimpleSkyDiffuseModeling
+  A5 , \field Output External Shading Calculation Results
+       \type choice
+       \key Yes
+       \key No
+       \default No
+       \note If Yes is chosen, the calculated external shading fraction results will be saved to an external CSV file with surface names as the column headers.
+  A6 , \field Disable Self-Shading Within Shading Zone Groups
+       \note If Yes, self-shading will be disabled from all exterior surfaces in a given Shading Zone Group to surfaces within
+       \note the same Shading Zone Group.
+       \note If both Disable Self-Shading Within Shading Zone Groups and Disable Self-Shading From Shading Zone Groups to Other Zones = Yes,
+       \note then all self-shading from exterior surfaces will be disabled.
+       \note If only one of these fields = Yes, then at least one Shading Zone Group must be specified, or this field will be ignored.
+       \note Shading from Shading:* surfaces, overhangs, fins, and reveals will not be disabled.
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  A7 , \field Disable Self-Shading From Shading Zone Groups to Other Zones
+       \note If Yes, self-shading will be disabled from all exterior surfaces in a given Shading Zone Group to all other zones in the model.
+       \note If both Disable Self-Shading Within Shading Zone Groups and Disable Self-Shading From Shading Zone Groups to Other Zones = Yes,
+       \note then all self-shading from exterior surfaces will be disabled.
+       \note If only one of these fields = Yes, then at least one Shading Zone Group must be specified, or this field will be ignored.
+       \note Shading from Shading:* surfaces, overhangs, fins, and reveals will not be disabled.
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  A8 , \field Shading Zone Group 1 ZoneList Name
+       \note Specifies a group of zones which are controlled by the Disable Self-Shading fields.
+       \type object-list
+       \object-list ZoneListNames
+       \begin-extensible
+  A9 , \field Shading Zone Group 2 ZoneList Name
+       \type object-list
+       \object-list ZoneListNames
+  A10, \field Shading Zone Group 3 ZoneList Name
+       \type object-list
+       \object-list ZoneListNames
+  A11, \field Shading Zone Group 4 ZoneList Name
+       \type object-list
+       \object-list ZoneListNames
+  A12, \field Shading Zone Group 5 ZoneList Name
+       \type object-list
+       \object-list ZoneListNames
+  A13; \field Shading Zone Group 6 ZoneList Name
+       \type object-list
+       \object-list ZoneListNames
+
+SurfaceConvectionAlgorithm:Inside,
+       \memo Default indoor surface heat transfer convection algorithm to be used for all zones
+       \unique-object
+       \format singleLine
+  A1 ; \field Algorithm
+       \type choice
+       \key Simple
+       \key TARP
+       \key CeilingDiffuser
+       \key AdaptiveConvectionAlgorithm
+       \key ASTMC1340
+       \default TARP
+       \note Simple = constant value natural convection (ASHRAE)
+       \note TARP = variable natural convection based on temperature difference (ASHRAE, Walton)
+       \note CeilingDiffuser = ACH-based forced and mixed convection correlations
+       \note  for ceiling diffuser configuration with simple natural convection limit
+       \note AdaptiveConvectionAlgorithm = dynamic selection of convection models based on conditions
+       \note ASTMC1340 = mixed convection correlations based on heat flow direction,
+       \note  surface tilt angle, surface characteristic length, and air speed past the surface.
+
+SurfaceConvectionAlgorithm:Outside,
+       \memo Default outside surface heat transfer convection algorithm to be used for all zones
+       \unique-object
+       \format singleLine
+  A1 ; \field Algorithm
+       \type choice
+       \key SimpleCombined
+       \key TARP
+       \key MoWiTT
+       \key DOE-2
+       \key AdaptiveConvectionAlgorithm
+       \default DOE-2
+       \note SimpleCombined = Combined radiation and convection coefficient using simple ASHRAE model
+       \note TARP = correlation from models developed by ASHRAE, Walton, and Sparrow et. al.
+       \note MoWiTT = correlation from measurements by Klems and Yazdanian for smooth surfaces
+       \note DOE-2 = correlation from measurements by Klems and Yazdanian for rough surfaces
+       \note AdaptiveConvectionAlgorithm = dynamic selection of correlations based on conditions
+
+HeatBalanceAlgorithm,
+       \memo Determines which Heat Balance Algorithm will be used ie.
+       \memo CTF (Conduction Transfer Functions),
+       \memo EMPD (Effective Moisture Penetration Depth with Conduction Transfer Functions).
+       \memo Advanced/Research Usage: CondFD (Conduction Finite Difference)
+       \memo Advanced/Research Usage: ConductionFiniteDifferenceSimplified
+       \memo Advanced/Research Usage: HAMT (Combined Heat And Moisture Finite Element)
+       \unique-object
+       \format singleLine
+  A1 , \field Algorithm
+       \type choice
+       \key ConductionTransferFunction
+       \key MoisturePenetrationDepthConductionTransferFunction
+       \key ConductionFiniteDifference
+       \key CombinedHeatAndMoistureFiniteElement
+       \default ConductionTransferFunction
+  N1 , \field Surface Temperature Upper Limit
+       \type real
+       \minimum 200
+       \default 200
+       \units C
+  N2 , \field Minimum Surface Convection Heat Transfer Coefficient Value
+       \units W/m2-K
+       \default 0.1
+       \minimum> 0.0
+  N3 ; \field Maximum Surface Convection Heat Transfer Coefficient Value
+       \units W/m2-K
+       \default 1000
+       \minimum 1.0
+
+HeatBalanceSettings:ConductionFiniteDifference,
+       \memo Determines settings for the Conduction Finite Difference
+       \memo algorithm for surface heat transfer modeling.
+       \unique-object
+  A1 , \field Difference Scheme
+       \type choice
+       \key CrankNicholsonSecondOrder
+       \key FullyImplicitFirstOrder
+       \default FullyImplicitFirstOrder
+  N1 , \field Space Discretization Constant
+       \note increase or decrease number of nodes
+       \type real
+       \default 3
+  N2 , \field Relaxation Factor
+       \type real
+       \default 1.0
+       \minimum 0.01
+       \maximum 1.0
+  N3 ; \field Inside Face Surface Temperature Convergence Criteria
+       \type real
+       \default 0.002
+       \minimum 1.0E-7
+       \maximum 0.01
+
+ZoneAirHeatBalanceAlgorithm,
+       \memo Determines which algorithm will be used to solve the zone air heat balance.
+       \unique-object
+       \format singleLine
+       \min-fields 1
+  A1 ; \field Algorithm
+       \type choice
+       \key ThirdOrderBackwardDifference
+       \key AnalyticalSolution
+       \key EulerMethod
+       \default ThirdOrderBackwardDifference
+
+ZoneAirContaminantBalance,
+       \memo Determines which contaminant concentration will be simulates.
+       \unique-object
+       \format singleLine
+  A1 , \field Carbon Dioxide Concentration
+       \note If Yes, CO2 simulation will be performed.
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  A2 , \field Outdoor Carbon Dioxide Schedule Name
+       \note Schedule values should be in parts per million (ppm)
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Generic Contaminant Concentration
+       \note If Yes, generic contaminant simulation will be performed.
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  A4 ; \field Outdoor Generic Contaminant Schedule Name
+       \note Schedule values should be generic contaminant concentration in parts per
+       \note million (ppm)
+       \type object-list
+       \object-list ScheduleNames
+
+ZoneAirMassFlowConservation,
+       \memo Enforces the zone air mass flow balance by either adjusting zone mixing object flow only,
+       \memo adjusting zone total return flow only, zone mixing and the zone total return flows,
+       \memo or adjusting the zone total return and zone mixing object flows. Zone infiltration flow air
+       \memo flow is increased or decreased depending user selection in the infiltration treatment method.
+       \memo If either of zone mixing or zone return flow adjusting methods or infiltration is active,
+       \memo then the zone air mass flow balance calculation will attempt to enforce conservation of
+       \memo mass for each zone. If flow balancing method is "None" and infiltration is "None", then the
+       \memo zone air mass flow calculation defaults to assume self-balanced simple flow mixing and
+       \memo infiltration objects.
+       \unique-object
+       \min-fields 3
+  A1,  \field Adjust Zone Mixing and Return For Air Mass Flow Balance
+       \note If "AdjustMixingOnly", zone mixing object flow rates are adjusted to balance the zone air mass
+       \note flow and zone infiltration air flow may be increased or decreased if required in order to balance
+       \note the zone air mass flow. If "AdjustReturnOnly", zone total return flow rate is adjusted to balance
+       \note the zone air mass flow and zone infiltration air flow may be increased or decreased if required
+       \note in order to balance the zone air mass flow. If "AdjustMixingThenReturn", first the zone mixing
+       \note objects flow rates are adjusted to balance the zone air flow, second zone total return flow rate
+       \note is adjusted and zone infiltration air flow may be increased or decreased if required in order to
+       \note balance the zone air mass flow. If "AdjustReturnThenMixing", first zone total return flow rate is
+       \note adjusted to balance the zone air flow, second the zone mixing object flow rates are adjusted and
+       \note infiltration air flow may be increased or decreased if required in order to balance the zone
+       \note air mass flow.
+       \type choice
+       \key AdjustMixingOnly
+       \key AdjustReturnOnly
+       \key AdjustMixingThenReturn
+       \key AdjustReturnThenMixing
+       \key None
+       \default None
+  A2,  \field Infiltration Balancing Method
+       \note This input field allows user to choose how zone infiltration flow is treated during
+       \note the zone air mass flow balance calculation.
+       \type choice
+       \key AddInfiltrationFlow
+       \key AdjustInfiltrationFlow
+       \key None
+       \default AddInfiltrationFlow
+       \note AddInfiltrationFlow may add infiltration to the base flow specified in the
+       \note infiltration object to balance the zone air mass flow. The additional infiltration
+       \note air mass flow is not self-balanced. The base flow is assumed to be self-balanced.
+       \note AdjustInfiltrationFlow may adjust the base flow calculated using
+       \note the base flow specified in the infiltration object to balance the zone air mass flow. If it
+       \note If no adjustment is required, then the base infiltration is assumed to be self-balanced.
+       \note None will make no changes to the base infiltration flow.
+  A3;  \field Infiltration Balancing Zones
+       \note This input field allows user to choose which zones are included in infiltration balancing.
+       \note MixingSourceZonesOnly allows infiltration balancing only in zones which as source zones for mixing
+       \note which also have an infiltration object defined.
+       \note AllZones allows infiltration balancing in any zone which has an infiltration object defined.
+       \type choice
+       \key MixingSourceZonesOnly
+       \key AllZones
+       \default MixingSourceZonesOnly
+
+ZoneCapacitanceMultiplier:ResearchSpecial,
+       \format singleLine
+       \memo Multiplier altering the relative capacitance of the air compared to an empty zone
+       \min-fields 6
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone or ZoneList Name
+       \type object-list
+       \object-list ZoneAndZoneListNames
+       \note If this field is left blank, the multipliers are applied to all the zones not specified
+  N1 , \field Temperature Capacity Multiplier
+       \type real
+       \default 1.0
+       \minimum> 0.0
+       \note Used to alter the capacitance of zone air with respect to heat or temperature
+  N2 , \field Humidity Capacity Multiplier
+       \type real
+       \default 1.0
+       \minimum> 0.0
+       \note Used to alter the capacitance of zone air with respect to moisture or humidity ratio
+  N3 , \field Carbon Dioxide Capacity Multiplier
+       \type real
+       \default 1.0
+       \minimum> 0.0
+       \note Used to alter the capacitance of zone air with respect to zone air carbon dioxide concentration
+  N4 ; \field Generic Contaminant Capacity Multiplier
+       \type real
+       \default 1.0
+       \minimum> 0.0
+       \note Used to alter the capacitance of zone air with respect to zone air generic contaminant concentration
+
+Timestep,
+       \memo Specifies the "basic" timestep for the simulation. The
+       \memo value entered here is also known as the Zone Timestep. This is used in
+       \memo the Zone Heat Balance Model calculation as the driving timestep for heat
+       \memo transfer and load calculations.
+       \unique-object
+       \format singleLine
+  N1 ; \field Number of Timesteps per Hour
+       \note Number in hour: normal validity 4 to 60: 6 suggested
+       \note Must be evenly divisible into 60
+       \note Allowable values include 1, 2, 3, 4, 5, 6, 10, 12, 15, 20, 30, and 60
+       \note Normal 6 is minimum as lower values may cause inaccuracies
+       \note A minimum value of 20 is suggested for both ConductionFiniteDifference
+       \note and CombinedHeatAndMoistureFiniteElement surface heat balance algorithms
+       \note A minimum of 12 is suggested for simulations involving a Vegetated Roof (Material:RoofVegetation).
+       \default 6
+       \type integer
+       \minimum 1
+       \maximum 60
+
+ConvergenceLimits,
+       \memo Specifies limits on HVAC system simulation timesteps and iterations.
+       \memo This item is an advanced feature that should be used only with caution.
+       \unique-object
+  N1 , \field Minimum System Timestep
+       \units minutes
+       \type integer
+       \note 0 sets the minimum to the zone timestep (ref: Timestep)
+       \note 1 is normal (ratchet down to 1 minute)
+       \note setting greater than zone timestep (in minutes) will effectively set to zone timestep
+       \minimum 0
+       \maximum 60
+  N2 , \field Maximum HVAC Iterations
+       \type integer
+       \default 20
+       \minimum 1
+  N3 , \field Minimum Plant Iterations
+       \note Controls the minimum number of plant system solver iterations within a single HVAC iteration
+       \note Larger values will increase runtime but might improve solution accuracy for complicated plant systems
+       \note Complex plants include: several interconnected loops, heat recovery, thermal load following generators, etc.
+       \type integer
+       \default 2
+       \minimum 1
+  N4 ; \field Maximum Plant Iterations
+       \note Controls the maximum number of plant system solver iterations within a single HVAC iteration
+       \note Smaller values might decrease runtime but could decrease solution accuracy for complicated plant systems
+       \type integer
+       \default 8
+       \minimum 2
+
+HVACSystemRootFindingAlgorithm,
+       \memo Specifies a HVAC system solver algorithm to find a root
+       \unique-object
+  A1 , \field Algorithm
+       \type choice
+       \key RegulaFalsi
+       \key Bisection
+       \key BisectionThenRegulaFalsi
+       \key RegulaFalsiThenBisection
+       \key Alternation
+       \default RegulaFalsi
+  N1 ; \field Number of Iterations Before Algorithm Switch
+       \note This field is used when RegulaFalsiThenBisection or BisectionThenRegulaFalsi is
+       \note entered. When iteration number is greater than the value, algorithm switches.
+       \type integer
+       \default 5
+
+\group Compliance Objects
+
+Compliance:Building,
+       \memo Building level inputs related to compliance to building standards, building codes, and beyond energy code programs.
+       \unique-object
+       \min-fields 1
+  N1;  \field Building Rotation for Appendix G
+       \note Additional degrees of rotation to be used with the requirement in ASHRAE Standard 90.1 Appendix G
+       \note that states that the baseline building should be rotated in four directions.
+       \units deg
+       \type real
+       \default 0.0
+
+\group Location and Climate
+
+Site:Location,
+       \memo Specifies the building's location. Only one location is allowed.
+       \memo Weather data file location, if it exists, will override this object.
+       \unique-object
+       \min-fields 5
+  A1 , \field Name
+       \required-field
+       \type alpha
+  N1 , \field Latitude
+       \units deg
+       \minimum -90.0
+       \maximum +90.0
+       \default 0.0
+       \note + is North, - is South, degree minutes represented in decimal (i.e. 30 minutes is .5)
+       \type real
+  N2 , \field Longitude
+       \units deg
+       \minimum -180.0
+       \maximum +180.0
+       \default 0.0
+       \note - is West, + is East, degree minutes represented in decimal (i.e. 30 minutes is .5)
+       \type real
+  N3 , \field Time Zone
+       \note basic these limits on the WorldTimeZone Map (2003)
+       \units hr
+       \minimum -12.0
+       \maximum +14.0
+       \default 0.0
+       \note  Time relative to GMT. Decimal hours.
+       \type real
+  N4 ; \field Elevation
+       \units m
+       \minimum -300.0
+       \maximum< 8900.0
+       \default 0.0
+       \type real
+
+Site:VariableLocation,
+       \memo Captures the scheduling of a moving/reorienting building, or more likely a vessel
+       \unique-object
+       \min-fields 1
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Building Location Latitude Schedule
+       \note The name of a schedule that defines the latitude of the building at any time.
+       \note If not entered, the latitude defined in the Site:Location, or the default
+       \note latitude, will be used for the entirety of the simulation
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Building Location Longitude Schedule
+       \note The name of a schedule that defines the longitude of the building at any time.
+       \note If not entered, the longitude defined in the Site:Location, or the default
+       \note longitude, will be used for the entirety of the simulation
+       \type object-list
+       \object-list ScheduleNames
+  A4 ; \field Building Location Orientation Schedule
+       \note The name of a schedule that defines the orientation of the building at any time.
+       \note This orientation is based on a change from the original orientation. -- NEED TO REFINE THIS
+       \note If not entered, the original orientation will be used for the entirety of the simulation
+       \type object-list
+       \object-list ScheduleNames
+
+SizingPeriod:DesignDay,
+      \memo The design day object creates the parameters for the program to create
+      \memo the 24 hour weather profile that can be used for sizing as well as
+      \memo running to test the other simulation parameters. Parameters in this
+      \memo include a date (month and day), a day type (which uses the appropriate
+      \memo schedules for either sizing or simple tests), min/max temperatures,
+      \memo wind speeds, and solar radiation values.
+  A1, \field Name
+       \type alpha
+       \required-field
+       \reference RunPeriodsAndDesignDays
+  N1,  \field Month
+       \required-field
+       \minimum 1
+       \maximum 12
+       \type integer
+  N2,  \field Day of Month
+       \required-field
+       \minimum 1
+       \maximum 31
+       \type integer
+       \note must be valid for Month field
+  A2,  \field Day Type
+       \required-field
+       \note Day Type selects the schedules appropriate for this design day
+       \type choice
+       \key Sunday
+       \key Monday
+       \key Tuesday
+       \key Wednesday
+       \key Thursday
+       \key Friday
+       \key Saturday
+       \key Holiday
+       \key SummerDesignDay
+       \key WinterDesignDay
+       \key CustomDay1
+       \key CustomDay2
+  N3,  \field Maximum Dry-Bulb Temperature
+       \note This field is required when field "Dry-Bulb Temperature Range Modifier Type"
+       \note is not "TemperatureProfileSchedule".
+       \units C
+       \minimum -90
+       \maximum 70
+       \type real
+  N4,  \field Daily Dry-Bulb Temperature Range
+       \note Must still produce appropriate maximum dry-bulb (within range)
+       \note This field is not needed if Dry-Bulb Temperature Range Modifier Type
+       \note is "delta".
+       \units deltaC
+       \minimum 0
+       \default 0
+       \type real
+  A3,  \field Dry-Bulb Temperature Range Modifier Type
+       \note Type of modifier to the dry-bulb temperature calculated for the timestep
+       \type choice
+       \key MultiplierSchedule
+       \key DifferenceSchedule
+       \key TemperatureProfileSchedule
+       \key DefaultMultipliers
+       \default DefaultMultipliers
+  A4,  \field Dry-Bulb Temperature Range Modifier Day Schedule Name
+       \type object-list
+       \object-list DayScheduleNames
+       \note Only used when previous field is "MultiplierSchedule", "DifferenceSchedule" or
+       \note   "TemperatureProfileSchedule".
+       \note For type "MultiplierSchedule"  the hour/time interval values should specify
+       \note   the fraction (0-1) of the dry-bulb temperature range to be subtracted
+       \note   from the maximum dry-bulb temperature for each timestep in the day
+       \note For type "DifferenceSchedule" the values should specify a number to be subtracted
+       \note   from the maximum dry-bulb temperature for each timestep in the day.
+       \note Note that numbers in the difference schedule cannot be negative as that
+       \note   would result in a higher maximum than the maximum previously specified.
+       \note For type "TemperatureProfileSchedule" the values should specify the actual dry-bulb
+       \note   temperature for each timestep in the day.
+  A5,  \field Humidity Condition Type
+       \note values/schedules indicated here and in subsequent fields create the humidity
+       \note values in the 24 hour design day conditions profile.
+       \type choice
+       \key WetBulb
+       \key DewPoint
+       \key HumidityRatio
+       \key Enthalpy
+       \key RelativeHumiditySchedule
+       \key WetBulbProfileMultiplierSchedule
+       \key WetBulbProfileDifferenceSchedule
+       \key WetBulbProfileDefaultMultipliers
+       \default WetBulb
+  N5,  \field Wetbulb or DewPoint at Maximum Dry-Bulb
+       \note Wetbulb or dewpoint temperature coincident with the maximum temperature.
+       \note Required only if field Humidity Condition Type is "Wetbulb", "Dewpoint",
+       \note "WetBulbProfileMultiplierSchedule", "WetBulbProfileDifferenceSchedule",
+       \note or "WetBulbProfileDefaultMultipliers"
+       \type real
+       \units C
+  A6,  \field Humidity Condition Day Schedule Name
+       \type object-list
+       \object-list DayScheduleNames
+       \note Only used when Humidity Condition Type is "RelativeHumiditySchedule",
+       \note  "WetBulbProfileMultiplierSchedule", or "WetBulbProfileDifferenceSchedule"
+       \note For type "RelativeHumiditySchedule", the hour/time interval values should specify
+       \note   relative humidity (percent) from 0.0 to 100.0.
+       \note For type "WetBulbProfileMultiplierSchedule" the hour/time interval values should specify
+       \note   the fraction (0-1) of the wet-bulb temperature range to be subtracted from the
+       \note   maximum wet-bulb temperature for each timestep in the day (units = Fraction)
+       \note For type "WetBulbProfileDifferenceSchedule" the values should specify a number to be subtracted
+       \note   from the maximum wet-bulb temperature for each timestep in the day. (units = deltaC)
+  N6,  \field Humidity Ratio at Maximum Dry-Bulb
+       \note Humidity ratio coincident with the maximum temperature (constant humidity ratio throughout day).
+       \note Required only if field Humidity Condition Type is "HumidityRatio".
+       \type real
+       \units kgWater/kgDryAir
+  N7,  \field Enthalpy at Maximum Dry-Bulb
+       \note Enthalpy coincident with the maximum temperature.
+       \note Required only if field Humidity Condition Type is "Enthalpy".
+       \type real
+       \units J/kg
+  N8,  \field Daily Wet-Bulb Temperature Range
+       \units deltaC
+       \note Required only if Humidity Condition Type = "WetbulbProfileMultiplierSchedule" or
+       \note "WetBulbProfileDefaultMultipliers"
+  N9,  \field Barometric Pressure
+       \note This field's value is also checked against the calculated "standard barometric pressure"
+       \note for the location. If out of range (>10%) or blank, then is replaced by standard value.
+       \units Pa
+       \minimum 31000
+       \maximum 120000
+       \type real
+       \ip-units inHg
+  N10, \field Wind Speed
+       \required-field
+       \units m/s
+       \minimum 0
+       \maximum 40
+       \ip-units miles/hr
+       \type real
+  N11, \field Wind Direction
+       \required-field
+       \units deg
+       \minimum 0
+       \maximum 360
+       \note North=0.0 East=90.0
+       \note 0 and 360 are the same direction.
+       \type real
+  A7,  \field Rain Indicator
+       \note Yes is raining (all day), No is not raining
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  A8,  \field Snow Indicator
+       \type choice
+       \key Yes
+       \key No
+       \default No
+       \note Yes is Snow on Ground, No is no Snow on Ground
+  A9,  \field Daylight Saving Time Indicator
+       \note Yes -- use schedules modified for Daylight Saving Time Schedules.
+       \note No - do not use schedules modified for Daylight Saving Time Schedules
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  A10, \field Solar Model Indicator
+       \type choice
+       \key ASHRAEClearSky
+       \key ZhangHuang
+       \key Schedule
+       \key ASHRAETau
+       \key ASHRAETau2017
+       \default ASHRAEClearSky
+  A11, \field Beam Solar Day Schedule Name
+       \note if Solar Model Indicator = Schedule, then beam schedule name (for day)
+       \type object-list
+       \object-list DayScheduleNames
+  A12, \field Diffuse Solar Day Schedule Name
+       \note if Solar Model Indicator = Schedule, then diffuse schedule name (for day)
+       \type object-list
+       \object-list DayScheduleNames
+  N12, \field ASHRAE Clear Sky Optical Depth for Beam Irradiance (taub)
+       \units dimensionless
+       \note Required if Solar Model Indicator = ASHRAETau or ASHRAETau2017
+       \note ASHRAETau2017 solar model can be used with 2013 and 2017 HOF matching taub
+       \minimum 0
+       \maximum 1.2
+       \default 0
+  N13, \field ASHRAE Clear Sky Optical Depth for Diffuse Irradiance (taud)
+       \units dimensionless
+       \note Required if Solar Model Indicator = ASHRAETau or ASHRAETau2017
+       \note ASHRAETau2017 solar model can be used with 2013 and 2017 HOF matching taud
+       \minimum 0
+       \maximum 3
+       \default 0
+  N14, \field Sky Clearness
+       \note Used if Sky Model Indicator = ASHRAEClearSky or ZhangHuang
+       \minimum 0.0
+       \maximum 1.2
+       \default 0.0
+       \note 0.0 is totally unclear, 1.0 is totally clear
+       \type real
+  N15, \field Maximum Number Warmup Days
+       \note If used this design day will be run with a custom limit on the maximum number of days that are repeated for warmup.
+       \note Limiting the number of warmup days can improve run time.
+       \type integer
+  A13; \field Begin Environment Reset Mode
+       \note If used this can control if you want the thermal history to be reset at the beginning of the design day.
+       \note When using a series of similiar design days, this field can be used to retain warmup state from the previous design day.
+       \type choice
+       \key FullResetAtBeginEnvironment
+       \key SuppressAllBeginEnvironmentResets
+       \default FullResetAtBeginEnvironment
+
+SizingPeriod:WeatherFileDays,
+       \memo Use a weather file period for design sizing calculations.
+  A1 , \field Name
+       \reference RunPeriodsAndDesignDays
+       \required-field
+       \note user supplied name for reporting
+  N1 , \field Begin Month
+       \required-field
+       \minimum 1
+       \maximum 12
+       \type integer
+  N2 , \field Begin Day of Month
+       \required-field
+       \minimum 1
+       \maximum 31
+       \type integer
+  N3 , \field End Month
+       \required-field
+       \minimum 1
+       \maximum 12
+       \type integer
+  N4 , \field End Day of Month
+       \required-field
+       \minimum 1
+       \maximum 31
+       \type integer
+  A2 , \field Day of Week for Start Day
+       \note  =[|Sunday|Monday|Tuesday|Wednesday|Thursday|Friday|Saturday|SummerDesignDay|WinterDesignDay|
+       \note    |CustomDay1|CustomDay2];
+       \note if you use SummerDesignDay or WinterDesignDay or the CustomDays then this will apply
+       \note to the whole period; other days (i.e., Monday) will signify a start day and
+       \note normal sequence of subsequent days
+       \default Monday
+       \type choice
+       \key Sunday
+       \key Monday
+       \key Tuesday
+       \key Wednesday
+       \key Thursday
+       \key Friday
+       \key Saturday
+       \key SummerDesignDay
+       \key WinterDesignDay
+       \key CustomDay1
+       \key CustomDay2
+  A3,  \field Use Weather File Daylight Saving Period
+       \note If yes or blank, use daylight saving period as specified on Weatherfile.
+       \note If no, do not use the daylight saving period as specified on the Weatherfile.
+       \type choice
+       \default Yes
+       \key Yes
+       \key No
+  A4;  \field Use Weather File Rain and Snow Indicators
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+
+SizingPeriod:WeatherFileConditionType,
+       \memo Use a weather file period for design sizing calculations.
+       \memo EPW weather files are created with typical and extreme periods
+       \memo created heuristically from the weather file data. For more
+       \memo details on these periods, see AuxiliaryPrograms document.
+  A1 , \field Name
+       \required-field
+       \reference RunPeriodsAndDesignDays
+       \note user supplied name for reporting
+  A2 , \field Period Selection
+       \required-field
+       \retaincase
+       \note Following is a list of all possible types of Extreme and Typical periods that
+       \note might be identified in the Weather File. Not all possible types are available
+       \note for all weather files.
+       \type choice
+       \key SummerExtreme
+       \key SummerTypical
+       \key WinterExtreme
+       \key WinterTypical
+       \key AutumnTypical
+       \key SpringTypical
+       \key WetSeason
+       \key DrySeason
+       \key NoDrySeason
+       \key NoWetSeason
+       \key TropicalHot
+       \key TropicalCold
+       \key NoDrySeasonMax
+       \key NoDrySeasonMin
+       \key NoWetSeasonMax
+       \key NoWetSeasonMin
+  A3 , \field Day of Week for Start Day
+       \note  =[|Sunday|Monday|Tuesday|Wednesday|Thursday|Friday|Saturday|SummerDesignDay|WinterDesignDay|
+       \note    |CustomDay1|CustomDay2];
+       \note if you use SummerDesignDay or WinterDesignDay or the CustomDays then this will apply
+       \note to the whole period; other days (i.e., Monday) will signify a start day and
+       \note normal sequence of subsequent days
+       \default Monday
+       \type choice
+       \key Sunday
+       \key Monday
+       \key Tuesday
+       \key Wednesday
+       \key Thursday
+       \key Friday
+       \key Saturday
+       \key SummerDesignDay
+       \key WinterDesignDay
+       \key CustomDay1
+       \key CustomDay2
+  A4,  \field Use Weather File Daylight Saving Period
+       \note If yes or blank, use daylight saving period as specified on Weatherfile.
+       \note If no, do not use the daylight saving period as specified on the Weatherfile.
+       \type choice
+       \default Yes
+       \key Yes
+       \key No
+  A5;  \field Use Weather File Rain and Snow Indicators
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+
+RunPeriod,
+       \memo Specify a range of dates and other parameters for a simulation.
+       \memo Multiple run periods may be input, but they may not overlap.
+       \min-fields 7
+  A1 , \field Name
+       \required-field
+       \reference RunPeriodsAndDesignDays
+       \note descriptive name (used in reporting mainly)
+       \note Cannot be not blank and must be unique
+  N1 , \field Begin Month
+       \required-field
+       \minimum 1
+       \maximum 12
+       \type integer
+  N2 , \field Begin Day of Month
+       \required-field
+       \minimum 1
+       \maximum 31
+       \type integer
+  N3,  \field Begin Year
+       \note Start year of the simulation, if this field is specified it must agree with the Day of Week for Start Day
+       \note If this field is blank, the year will be selected to match the weekday, which is Sunday if not specified
+  N4 , \field End Month
+       \required-field
+       \minimum 1
+       \maximum 12
+       \type integer
+  N5 , \field End Day of Month
+       \required-field
+       \minimum 1
+       \maximum 31
+       \type integer
+  N6,  \field End Year
+       \note end year of simulation, if specified
+  A2 , \field Day of Week for Start Day
+       \note =[Sunday|Monday|Tuesday|Wednesday|Thursday|Friday|Saturday];
+       \note If no year is input, this field will default to Sunday
+       \note If a year is input and this field is blank, the correct weekday is determined
+       \type choice
+       \key Sunday
+       \key Monday
+       \key Tuesday
+       \key Wednesday
+       \key Thursday
+       \key Friday
+       \key Saturday
+  A3,  \field Use Weather File Holidays and Special Days
+       \note If yes or blank, use holidays as specified on Weatherfile.
+       \note If no, do not use the holidays specified on the Weatherfile.
+       \note Note: You can still specify holidays/special days using the RunPeriodControl:SpecialDays object(s).
+       \type choice
+       \default Yes
+       \key Yes
+       \key No
+  A4,  \field Use Weather File Daylight Saving Period
+       \note If yes or blank, use daylight saving period as specified on Weatherfile.
+       \note If no, do not use the daylight saving period as specified on the Weatherfile.
+       \type choice
+       \default Yes
+       \key Yes
+       \key No
+  A5,  \field Apply Weekend Holiday Rule
+       \note if yes and single day holiday falls on weekend, "holiday" occurs on following Monday
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  A6,  \field Use Weather File Rain Indicators
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A7,  \field Use Weather File Snow Indicators
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A8;  \field Treat Weather as Actual
+       \type choice
+       \key Yes
+       \key No
+       \default No
+
+RunPeriodControl:SpecialDays,
+     \min-fields 4
+     \memo This object sets up holidays/special days to be used during weather file
+     \memo run periods. (These are not used with SizingPeriod:* objects.)
+     \memo Depending on the value in the run period, days on the weather file may also
+     \memo be used. However, the weather file specification will take precedence over
+     \memo any specification shown here. (No error message on duplicate days or overlapping
+     \memo days).
+ A1, \field Name
+     \required-field
+ A2, \field Start Date
+     \required-field
+     \note  Dates can be several formats:
+     \note  <number>/<number>  (month/day)
+     \note  <number> <Month>
+     \note  <Month> <number>
+     \note <Nth> <Weekday> in <Month)
+     \note Last <WeekDay> in <Month>
+     \note <Month> can be January, February, March, April, May, June, July, August, September, October, November, December
+     \note Months can be the first 3 letters of the month
+     \note <Weekday> can be Sunday, Monday, Tuesday, Wednesday, Thursday, Friday, Saturday
+     \note <Nth> can be 1 or 1st, 2 or 2nd, etc. up to 5(?)
+ N1, \field Duration
+     \units days
+     \minimum 1
+     \maximum 366
+     \default 1
+ A3; \field Special Day Type
+       \note Special Day Type selects the schedules appropriate for each day so labeled
+       \type choice
+       \key Holiday
+       \key SummerDesignDay
+       \key WinterDesignDay
+       \key CustomDay1
+       \key CustomDay2
+       \default Holiday
+
+RunPeriodControl:DaylightSavingTime,
+     \unique-object
+     \min-fields 2
+     \memo This object sets up the daylight saving time period for any RunPeriod.
+     \memo Ignores any daylight saving time period on the weather file and uses this definition.
+     \memo These are not used with SizingPeriod:DesignDay objects.
+     \memo Use with SizingPeriod:WeatherFileDays object can be controlled in that object.
+ A1, \field Start Date
+     \required-field
+ A2; \field End Date
+     \required-field
+     \note  Dates can be several formats:
+     \note  <number>/<number>  (month/day)
+     \note  <number> <Month>
+     \note  <Month> <number>
+     \note <Nth> <Weekday> in <Month)
+     \note Last <WeekDay> in <Month>
+     \note <Month> can be January, February, March, April, May, June, July, August, September, October, November, December
+     \note Months can be the first 3 letters of the month
+     \note <Weekday> can be Sunday, Monday, Tuesday, Wednesday, Thursday, Friday, Saturday
+     \note <Nth> can be 1 or 1st, 2 or 2nd, etc. up to 5(?)
+
+WeatherProperty:SkyTemperature,
+       \memo This object is used to override internal sky temperature calculations.
+  A1,  \field Name
+       \note blank in this field will apply to all run periods (that is, all objects=
+       \note SizingPeriod:WeatherFileDays, SizingPeriod:WeatherFileConditionType or RunPeriod
+       \note otherwise, this name must match one of the environment object names.
+       \type object-list
+       \object-list RunPeriodsAndDesignDays
+  A2,  \field Calculation Type
+       \required-field
+       \note The field indicates that the sky temperature will be imported from external schedules or calculated by alternative methods other than default.
+       \type choice
+       \key ClarkAllen
+       \key Brunt
+       \key Idso
+       \key BerdahlMartin
+       \key ScheduleValue
+       \key DifferenceScheduleDryBulbValue
+       \key DifferenceScheduleDewPointValue
+       \default ClarkAllen
+  A3,  \field Schedule Name
+       \note if name matches a SizingPeriod:DesignDay, put in a day schedule of this name
+       \note if name is for a SizingPeriod:WeatherFileDays, SizingPeriod:WeatherFileConditionType or
+       \note RunPeriod, put in a full year schedule that covers the appropriate days.
+       \note Required if Calculation Type is ScheduleValue, DifferenceScheduleDryBulbValue or DifferenceScheduleDewPointValue.
+       \type object-list
+       \object-list DayScheduleNames
+       \object-list ScheduleNames
+  A4; \field Use Weather File Horizontal IR
+       \note If yes or blank, use Horizontal IR values from weather file when present, otherwise use the specified sky model.
+       \note If no, always use the specified sky model and ignore the horizontal IR values from the weather file.
+       \note For Calculation Type = ScheduleValue, DifferenceScheduleDryBulbValue or DifferenceScheduleDewPointValue, this field is ignored and the scheduled values are used.
+       \type choice
+       \default Yes
+       \key Yes
+       \key No
+
+Site:WeatherStation,
+       \unique-object
+       \memo This object should only be used for non-standard weather data. Standard weather data
+       \memo such as TMY2, IWEC, and ASHRAE design day data are all measured at the
+       \memo default conditions and do not require this object.
+  N1 , \field Wind Sensor Height Above Ground
+       \type real
+       \units m
+       \default 10.0
+       \minimum> 0.0
+  N2 , \field Wind Speed Profile Exponent
+       \type real
+       \default 0.14
+       \minimum 0.0
+  N3 , \field Wind Speed Profile Boundary Layer Thickness
+       \type real
+       \units m
+       \default 270.0
+       \minimum 0.0
+  N4 ; \field Air Temperature Sensor Height Above Ground
+       \type real
+       \units m
+       \default 1.5
+       \minimum 0.0
+
+Site:HeightVariation,
+       \unique-object
+       \memo This object is used if the user requires advanced control over height-dependent
+       \memo variations in wind speed and temperature. When this object is not present, the default model
+       \memo for temperature dependence on height is used, and the wind speed is modeled according
+       \memo to the Terrain field of the BUILDING object.
+  N1 , \field Wind Speed Profile Exponent
+       \note Set to zero for no wind speed dependence on height.
+       \type real
+       \default 0.22
+       \minimum 0.0
+  N2 , \field Wind Speed Profile Boundary Layer Thickness
+       \type real
+       \units m
+       \default 370.0
+       \minimum> 0.0
+  N3 ; \field Air Temperature Gradient Coefficient
+       \note Set to zero for no air temperature dependence on height.
+       \type real
+       \units K/m
+       \default 0.0065
+       \minimum 0.0
+
+Site:GroundTemperature:BuildingSurface,
+       \memo These temperatures are specifically for those surfaces that have the outside environment
+       \memo of "Ground". Documentation about what values these should be is located in the
+       \memo Auxiliary programs document (Ground Heat Transfer) as well as the InputOutput Reference.
+       \memo CAUTION - Do not use the "undisturbed" ground temperatures from the weather data.
+       \memo These values are too extreme for the soil under a conditioned building.
+       \memo For best results, use the Slab or Basement program to calculate custom monthly
+       \memo average ground temperatures (see Auxiliary Programs). For typical commercial
+       \memo buildings in the USA, a reasonable default value is 2C less than the average indoor space temperature.
+       \unique-object
+       \min-fields 12
+       \format singleLine
+  N1 , \field January Ground Temperature
+       \units C
+       \type real
+       \default 18
+  N2 , \field February Ground Temperature
+       \units C
+       \type real
+       \default 18
+  N3 , \field March Ground Temperature
+       \units C
+       \type real
+       \default 18
+  N4 , \field April Ground Temperature
+       \units C
+       \type real
+       \default 18
+  N5 , \field May Ground Temperature
+       \units C
+       \type real
+       \default 18
+  N6 , \field June Ground Temperature
+       \units C
+       \type real
+       \default 18
+  N7 , \field July Ground Temperature
+       \units C
+       \type real
+       \default 18
+  N8 , \field August Ground Temperature
+       \units C
+       \type real
+       \default 18
+  N9 , \field September Ground Temperature
+       \units C
+       \type real
+       \default 18
+  N10, \field October Ground Temperature
+       \units C
+       \type real
+       \default 18
+  N11, \field November Ground Temperature
+       \units C
+       \type real
+       \default 18
+  N12; \field December Ground Temperature
+       \units C
+       \type real
+       \default 18
+
+Site:GroundTemperature:FCfactorMethod,
+       \memo These temperatures are specifically for underground walls and ground floors
+       \memo defined with the C-factor and F-factor methods, and should be close to the
+       \memo monthly average outdoor air temperature delayed by 3 months for the location.
+       \unique-object
+       \min-fields 12
+       \format singleLine
+  N1 , \field January Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N2 , \field February Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N3 , \field March Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N4 , \field April Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N5 , \field May Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N6 , \field June Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N7 , \field July Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N8 , \field August Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N9 , \field September Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N10, \field October Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N11, \field November Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N12; \field December Ground Temperature
+       \units C
+       \type real
+       \default 13
+
+Site:GroundTemperature:Shallow,
+       \memo These temperatures are specifically for the Surface Ground Heat Exchanger and
+       \memo should probably be close to the average outdoor air temperature for the location.
+       \memo They are not used in other models.
+       \unique-object
+       \min-fields 12
+       \format singleLine
+  N1 , \field January Surface Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N2 , \field February Surface Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N3 , \field March Surface Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N4 , \field April Surface Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N5 , \field May Surface Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N6 , \field June Surface Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N7 , \field July Surface Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N8 , \field August Surface Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N9 , \field September Surface Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N10, \field October Surface Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N11, \field November Surface Ground Temperature
+       \units C
+       \type real
+       \default 13
+  N12; \field December Surface Ground Temperature
+       \units C
+       \type real
+       \default 13
+
+Site:GroundTemperature:Deep,
+       \memo These temperatures are specifically for the ground heat exchangers that would use
+       \memo "deep" (3-4 m depth) ground temperatures for their heat source.
+       \memo They are not used in other models.
+       \unique-object
+       \min-fields 12
+       \format singleLine
+  N1 , \field January Deep Ground Temperature
+       \units C
+       \type real
+       \default 16
+  N2 , \field February Deep Ground Temperature
+       \units C
+       \type real
+       \default 16
+  N3 , \field March Deep Ground Temperature
+       \units C
+       \type real
+       \default 16
+  N4 , \field April Deep Ground Temperature
+       \units C
+       \type real
+       \default 16
+  N5 , \field May Deep Ground Temperature
+       \units C
+       \type real
+       \default 16
+  N6 , \field June Deep Ground Temperature
+       \units C
+       \type real
+       \default 16
+  N7 , \field July Deep Ground Temperature
+       \units C
+       \type real
+       \default 16
+  N8 , \field August Deep Ground Temperature
+       \units C
+       \type real
+       \default 16
+  N9 , \field September Deep Ground Temperature
+       \units C
+       \type real
+       \default 16
+  N10, \field October Deep Ground Temperature
+       \units C
+       \type real
+       \default 16
+  N11, \field November Deep Ground Temperature
+       \units C
+       \type real
+       \default 16
+  N12; \field December Deep Ground Temperature
+       \units C
+       \type real
+       \default 16
+
+Site:GroundTemperature:Undisturbed:FiniteDifference,
+       \memo Undisturbed ground temperature object using a
+       \memo detailed finite difference 1-D model
+       \min-fields 7
+  A1,  \field Name
+       \required-field
+       \reference UndisturbedGroundTempModels
+  N1,  \field Soil Thermal Conductivity
+       \required-field
+       \type real
+       \units W/m-K
+       \minimum> 0.0
+  N2,  \field Soil Density
+       \required-field
+       \type real
+       \units kg/m3
+       \minimum> 0.0
+  N3,  \field Soil Specific Heat
+       \required-field
+       \type real
+       \units J/kg-K
+       \minimum> 0.0
+  N4,  \field Soil Moisture Content Volume Fraction
+       \type real
+       \units percent
+       \minimum 0
+       \maximum 100
+       \default 30
+  N5,  \field Soil Moisture Content Volume Fraction at Saturation
+       \type real
+       \units percent
+       \minimum 0
+       \maximum 100
+       \default 50
+   N6; \field Evapotranspiration Ground Cover Parameter
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum 1.5
+       \default 0.4
+       \note This specifies the ground cover effects during evapotranspiration
+       \note  calculations. The value roughly represents the following cases:
+       \note  = 0   : concrete or other solid, non-permeable ground surface material
+       \note  = 0.5 : short grass, much like a manicured lawn
+       \note  = 1   : standard reference state (12 cm grass)
+       \note  = 1.5 : wild growth
+
+Site:GroundTemperature:Undisturbed:KusudaAchenbach,
+       \memo Undisturbed ground temperature object using the
+       \memo Kusuda-Achenbach 1965 correlation.
+       \min-fields 7
+  A1,  \field Name
+       \required-field
+       \reference UndisturbedGroundTempModels
+  N1,  \field Soil Thermal Conductivity
+       \required-field
+       \type real
+       \units W/m-K
+       \minimum> 0.0
+  N2,  \field Soil Density
+       \required-field
+       \type real
+       \units kg/m3
+       \minimum> 0.0
+  N3,  \field Soil Specific Heat
+       \required-field
+       \type real
+       \units J/kg-K
+       \minimum> 0.0
+  N4,  \field Average Soil Surface Temperature
+       \type real
+       \units C
+       \note Annual average surface temperature
+       \note If left blank the Site:GroundTemperature:Shallow object must be included in the input
+       \note The soil temperature, amplitude, and phase shift must all be included or omitted together
+  N5,  \field Average Amplitude of Surface Temperature
+       \type real
+       \units deltaC
+       \minimum 0
+       \note Annual average surface temperature variation from average.
+       \note If left blank the Site:GroundTemperature:Shallow object must be included in the input
+       \note The soil temperature, amplitude, and phase shift must all be included or omitted together
+  N6;  \field Phase Shift of Minimum Surface Temperature
+       \type real
+       \units days
+       \minimum 0
+       \maximum< 365
+       \note The phase shift of minimum surface temperature, or the day
+       \note of the year when the minimum surface temperature occurs.
+       \note If left blank the Site:GroundTemperature:Shallow object must be included in the input
+       \note The soil temperature, amplitude, and phase shift must all be included or omitted together
+
+Site:GroundTemperature:Undisturbed:Xing,
+       \memo Undisturbed ground temperature object using the
+       \memo Xing 2014 2 harmonic parameter model.
+       \min-fields 9
+  A1,  \field Name
+       \required-field
+       \reference UndisturbedGroundTempModels
+  N1,  \field Soil Thermal Conductivity
+       \required-field
+       \type real
+       \units W/m-K
+       \minimum> 0.0
+  N2,  \field Soil Density
+       \required-field
+       \type real
+       \units kg/m3
+       \minimum> 0.0
+  N3,  \field Soil Specific Heat
+       \required-field
+       \type real
+       \units J/kg-K
+       \minimum> 0.0
+  N4,  \field Average Soil Surface Tempeature
+       \required-field
+       \type real
+       \units C
+  N5,  \field Soil Surface Temperature Amplitude 1
+       \required-field
+       \type real
+       \units deltaC
+  N6,  \field Soil Surface Temperature Amplitude 2
+       \required-field
+       \type real
+       \units deltaC
+  N7,  \field Phase Shift of Temperature Amplitude 1
+       \required-field
+       \type real
+       \units days
+       \maximum< 365
+  N8;  \field Phase Shift of Temperature Amplitude 2
+       \required-field
+       \type real
+       \units days
+       \maximum< 365
+
+Site:GroundDomain:Slab,
+        \memo Ground-coupled slab model for on-grade and
+        \memo in-grade cases with or without insulation.
+   A1,  \field Name
+        \required-field
+   N1,  \field Ground Domain Depth
+        \type real
+        \default 10
+        \units m
+        \minimum> 0.0
+   N2,  \field Aspect Ratio
+        \type real
+        \default 1
+   N3,  \field Perimeter Offset
+        \type real
+        \default 5
+        \units m
+        \minimum> 0.0
+   N4,  \field Soil Thermal Conductivity
+        \type real
+        \default 1.5
+        \units W/m-K
+        \minimum> 0.0
+   N5,  \field Soil Density
+        \type real
+        \default 2800
+        \units kg/m3
+        \minimum> 0.0
+   N6,  \field Soil Specific Heat
+        \type real
+        \default 850
+        \units J/kg-K
+        \minimum> 0.0
+   N7,  \field Soil Moisture Content Volume Fraction
+        \type real
+        \units percent
+        \minimum 0
+        \maximum 100
+        \default 30
+   N8,  \field Soil Moisture Content Volume Fraction at Saturation
+        \type real
+        \units percent
+        \minimum 0
+        \maximum 100
+        \default 50
+   A2,  \field Undisturbed Ground Temperature Model Type
+        \required-field
+        \type choice
+        \key Site:GroundTemperature:Undisturbed:FiniteDifference
+        \key Site:GroundTemperature:Undisturbed:KusudaAchenbach
+        \key Site:GroundTemperature:Undisturbed:Xing
+   A3,  \field Undisturbed Ground Temperature Model Name
+        \required-field
+        \type object-list
+        \object-list UndisturbedGroundTempModels
+   N9,  \field Evapotranspiration Ground Cover Parameter
+        \type real
+        \minimum 0
+        \maximum 1.5
+        \default 0.4
+        \note This specifies the ground cover effects during evapotranspiration
+        \note  calculations. The value roughly represents the following cases:
+        \note  = 0   : concrete or other solid, non-permeable ground surface material
+        \note  = 0.5 : short grass, much like a manicured lawn
+        \note  = 1   : standard reference state (12 cm grass)
+        \note  = 1.5 : wild growth
+   A4,  \field Slab Boundary Condition Model Name
+        \required-field
+        \type object-list
+        \object-list OSCMNames
+   A5,  \field Slab Location
+        \required-field
+        \type choice
+        \key InGrade
+        \key OnGrade
+        \note This field specifies whether the slab is located "in-grade" or "on-grade"
+   A6,  \field Slab Material Name
+        \type object-list
+        \object-list MaterialName
+        \note Only applicable for the in-grade case
+   A7,  \field Horizontal Insulation
+        \type choice
+        \key Yes
+        \key No
+        \default No
+        \note This field specifies the presence of insulation beneath the slab.
+        \note Only required for in-grade case.
+   A8,  \field Horizontal Insulation Material Name
+        \type object-list
+        \object-list MaterialName
+        \note This field specifies the horizontal insulation material.
+   A9,  \field Horizontal Insulation Extents
+        \type choice
+        \key Full
+        \key Perimeter
+        \default Full
+        \note This field specifies whether the horizontal insulation fully insulates
+        \note the surface or is perimeter only insulation
+   N10, \field Perimeter Insulation Width
+        \type real
+        \units m
+        \minimum> 0.0
+        \note This field specifies the width of the underfloor perimeter insulation
+   A10, \field Vertical Insulation
+        \type choice
+        \key Yes
+        \key No
+        \default No
+        \note This field specifies the presence of vertical insulation at the slab edge.
+   A11, \field Vertical Insulation Material Name
+        \type object-list
+        \object-list MaterialName
+        \note This field specifies the vertical insulation material.
+   N11, \field Vertical Insulation Depth
+        \type real
+        \units m
+        \minimum> 0.0
+        \note Only used when including vertical insulation
+        \note This field specifies the depth of the vertical insulation
+   A12, \field Simulation Timestep
+        \type choice
+        \key Timestep
+        \key Hourly
+        \default Hourly
+        \note This field specifies the ground domain simulation timestep.
+   N12, \field Geometric Mesh Coefficient
+        \type real
+        \minimum 1.0
+        \maximum 2.0
+        \default 1.6
+   N13; \field Mesh Density Parameter
+        \type integer
+        \minimum 4
+        \default 6
+
+Site:GroundDomain:Basement,
+        \memo Ground-coupled basement model for simulating basements
+        \memo or other underground zones.
+   A1,  \field Name
+        \required-field
+   N1,  \field Ground Domain Depth
+        \type real
+        \default 10
+        \units m
+        \minimum> 0.0
+        \note The depth from ground surface to the deep ground boundary of the domain.
+   N2,  \field Aspect Ratio
+        \type real
+        \default 1
+        \note This defines the height to width ratio of the basement zone.
+   N3,  \field Perimeter Offset
+        \type real
+        \default 5
+        \units m
+        \minimum> 0.0
+        \note The distance from the basement wall edge to the edge of the ground domain
+   N4,  \field Soil Thermal Conductivity
+        \type real
+        \default 1.5
+        \units W/m-K
+        \minimum> 0.0
+   N5,  \field Soil Density
+        \type real
+        \default 2800
+        \units kg/m3
+        \minimum> 0.0
+   N6,  \field Soil Specific Heat
+        \type real
+        \default 850
+        \units J/kg-K
+        \minimum> 0.0
+   N7, \field Soil Moisture Content Volume Fraction
+        \type real
+        \units percent
+        \minimum 0
+        \maximum 100
+        \default 30
+   N8, \field Soil Moisture Content Volume Fraction at Saturation
+        \type real
+        \units percent
+        \minimum 0
+        \maximum 100
+        \default 50
+   A2,  \field Undisturbed Ground Temperature Model Type
+        \required-field
+        \type choice
+        \key Site:GroundTemperature:Undisturbed:FiniteDifference
+        \key Site:GroundTemperature:Undisturbed:KusudaAchenbach
+        \key Site:GroundTemperature:Undisturbed:Xing
+   A3,  \field Undisturbed Ground Temperature Model Name
+        \required-field
+        \type object-list
+        \object-list UndisturbedGroundTempModels
+   N9,  \field Evapotranspiration Ground Cover Parameter
+        \type real
+        \minimum 0
+        \maximum 1.5
+        \default 0.4
+        \note This specifies the ground cover effects during evapotranspiration
+        \note  calculations. The value roughly represents the following cases:
+        \note  = 0   : concrete or other solid, non-permeable ground surface material
+        \note  = 0.5 : short grass, much like a manicured lawn
+        \note  = 1   : standard reference state (12 cm grass)
+        \note  = 1.5 : wild growth
+   A4,  \field Basement Floor Boundary Condition Model Name
+        \required-field
+        \type object-list
+        \object-list OSCMNames
+   A5,  \field Horizontal Insulation
+        \type choice
+        \key Yes
+        \key No
+        \default No
+        \note This field specifies the presence of insulation beneath the basement floor.
+   A6,  \field Horizontal Insulation Material Name
+        \type object-list
+        \object-list MaterialName
+   A7,  \field Horizontal Insulation Extents
+        \type choice
+        \key Perimeter
+        \key Full
+        \default Full
+        \note This field specifies whether the horizontal insulation fully insulates
+        \note the surface or is perimeter only insulation
+   N10, \field Perimeter Horizontal Insulation Width
+        \type real
+        \units m
+        \minimum> 0.0
+        \note Width of horizontal perimeter insulation measured from
+        \note foundation wall inside surface.
+   N11, \field Basement Wall Depth
+        \type real
+        \units m
+        \minimum> 0.0
+        \note Depth measured from ground surface.
+   A8,  \field Basement Wall Boundary Condition Model Name
+        \required-field
+        \type object-list
+        \object-list OSCMNames
+   A9,  \field Vertical Insulation
+        \type choice
+        \key Yes
+        \key No
+        \default No
+   A10, \field Basement Wall Vertical Insulation Material Name
+        \type object-list
+        \object-list MaterialName
+   N12, \field Vertical Insulation Depth
+        \type real
+        \units m
+        \minimum> 0.0
+        \note Depth measured from the ground surface.
+   A11, \field Simulation Timestep
+        \type choice
+        \key Timestep
+        \key Hourly
+        \default Hourly
+        \note This field specifies the basement domain simulation interval.
+   N13; \field Mesh Density Parameter
+        \type integer
+        \default 4
+        \minimum 2
+
+Site:GroundReflectance,
+        \memo Specifies the ground reflectance values used to calculate ground reflected solar.
+        \memo The ground reflectance can be further modified when snow is on the ground
+        \memo by Site:GroundReflectance:SnowModifier.
+  \unique-object
+  \min-fields 12
+  \format singleLine
+  N1 , \field January Ground Reflectance
+        \default 0.2
+        \type real
+        \minimum 0.0
+        \maximum 1.0
+        \units dimensionless
+   N2 , \field February Ground Reflectance
+        \default 0.2
+        \type real
+        \minimum 0.0
+        \maximum 1.0
+        \units dimensionless
+   N3 , \field March Ground Reflectance
+        \default 0.2
+        \type real
+        \minimum 0.0
+        \maximum 1.0
+        \units dimensionless
+   N4 , \field April Ground Reflectance
+        \default 0.2
+        \type real
+        \minimum 0.0
+        \maximum 1.0
+        \units dimensionless
+   N5 , \field May Ground Reflectance
+        \default 0.2
+        \type real
+        \minimum 0.0
+        \maximum 1.0
+        \units dimensionless
+   N6 , \field June Ground Reflectance
+        \default 0.2
+        \type real
+        \minimum 0.0
+        \maximum 1.0
+        \units dimensionless
+   N7 , \field July Ground Reflectance
+        \default 0.2
+        \type real
+        \minimum 0.0
+        \maximum 1.0
+        \units dimensionless
+   N8 , \field August Ground Reflectance
+        \default 0.2
+        \type real
+        \minimum 0.0
+        \maximum 1.0
+        \units dimensionless
+   N9 , \field September Ground Reflectance
+         \default 0.2
+         \type real
+         \minimum 0.0
+         \maximum 1.0
+         \units dimensionless
+   N10 , \field October Ground Reflectance
+         \default 0.2
+         \type real
+         \minimum 0.0
+         \maximum 1.0
+         \units dimensionless
+   N11 , \field November Ground Reflectance
+         \default 0.2
+         \type real
+         \minimum 0.0
+         \maximum 1.0
+         \units dimensionless
+   N12 ; \field December Ground Reflectance
+         \default 0.2
+         \type real
+         \minimum 0.0
+         \maximum 1.0
+         \units dimensionless
+
+Site:GroundReflectance:SnowModifier,
+      \memo Specifies ground reflectance multipliers when snow resident on the ground.
+      \memo These multipliers are applied to the "normal" ground reflectances specified
+      \memo in Site:GroundReflectance.
+  N1, \field Ground Reflected Solar Modifier
+  \minimum 0.0
+  \default 1.0
+    \note Value for modifying the "normal" ground reflectance when Snow is on ground
+    \note  when calculating the "Ground Reflected Solar Radiation Value"
+    \note  a value of 1.0 here uses the "normal" ground reflectance
+    \note  Ground Reflected Solar = (BeamSolar*CosSunZenith + DiffuseSolar)*GroundReflectance
+    \note    This would be further modified by the Snow Ground Reflectance Modifier when Snow was on the ground
+    \note    When Snow on ground, effective GroundReflectance is normal GroundReflectance*"Ground Reflectance Snow Modifier"
+    \note  Ground Reflectance achieved in this manner will be restricted to [0.0,1.0]
+  N2; \field Daylighting Ground Reflected Solar Modifier
+  \minimum 0.0
+  \default 1.0
+    \note Value for modifying the "normal" daylighting ground reflectance when Snow is on ground
+    \note  when calculating the "Ground Reflected Solar Radiation Value"
+    \note  a value of 1.0 here uses the "normal" ground reflectance
+    \note  Ground Reflected Solar = (BeamSolar*CosSunZenith + DiffuseSolar)*GroundReflectance
+    \note    This would be further modified by the Snow Ground Reflectance Modifier when Snow was on the ground
+    \note    When Snow on ground, effective GroundReflectance is normal GroundReflectance*"Daylighting Ground Reflectance Snow Modifier"
+    \note  Ground Reflectance achieved in this manner will be restricted to [0.0,1.0]
+
+Site:WaterMainsTemperature,
+       \memo Used to calculate water mains temperatures delivered by underground water main pipes.
+       \memo Water mains temperatures are a function of outdoor climate conditions
+       \memo and vary with time of year.
+  A1 , \field Calculation Method
+       \required-field
+       \type choice
+       \key Schedule
+       \key Correlation
+       \key CorrelationFromWeatherFile
+       \default CorrelationFromWeatherFile
+       \note If calculation method is CorrelationFromWeatherFile, the two numeric input
+       \note fields are ignored. Instead, EnergyPlus calculates them from weather file.
+  A2 , \field Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Annual Average Outdoor Air Temperature
+       \note If calculation method is CorrelationFromWeatherFile or Schedule, this input
+       \note field is ignored.
+       \type real
+       \units C
+  N2 ; \field Maximum Difference In Monthly Average Outdoor Air Temperatures
+       \note If calculation method is CorrelationFromWeatherFile or Schedule, this input
+       \note field is ignored.
+       \type real
+       \units deltaC
+       \minimum 0
+
+Site:Precipitation,
+      \memo Used to describe the amount of water precipitation at the building site.
+      \memo Precipitation includes both rain and the equivalent water content of snow.
+  A1, \field Precipitation Model Type
+      \type choice
+      \key ScheduleAndDesignLevel
+  N1, \field Design Level for Total Annual Precipitation
+      \note meters of water per year used for design level
+      \units m/yr
+  A2, \field Precipitation Rates Schedule Name
+      \type object-list
+      \object-list ScheduleNames
+      \note Schedule values in meters of water per hour
+      \note values should be non-negative
+  N2; \field Average Total Annual Precipitation
+      \note meters of water per year from average weather statistics
+      \minimum 0
+      \units m/yr
+
+RoofIrrigation,
+      \memo Used to describe the amount of irrigation on the ecoroof surface over the course
+      \memo of the simulation runperiod.
+  A1, \field Irrigation Model Type
+      \type choice
+      \key Schedule
+      \key SmartSchedule
+      \note SmartSchedule will not allow irrigation when soil is already moist.
+      \note Current threshold set at 30% of saturation.
+  A2, \field Irrigation Rate Schedule Name
+      \type object-list
+      \object-list ScheduleNames
+      \note Schedule values in meters of water per hour
+      \note values should be non-negative
+  N1; \field Irrigation Maximum Saturation Threshold
+      \note Used with SmartSchedule to set the saturation level at which no
+      \note irrigation is allowed.
+      \units percent
+      \minimum 0.0
+      \maximum 100.0
+      \default 40.0
+
+Site:SolarAndVisibleSpectrum,
+      \memo If this object is omitted, the default solar and visible spectrum data will be used.
+      \unique-object
+  A1, \field Name
+      \required-field
+      \type alpha
+  A2, \field Spectrum Data Method
+      \note The method specifies which of the solar and visible spectrum data to use in the calculations.
+      \note Choices: Default - existing hard-wired spectrum data in EnergyPlus.
+      \note UserDefined - user specified spectrum data referenced by the next two fields
+      \type choice
+      \key Default
+      \key UserDefined
+      \default Default
+  A3, \field Solar Spectrum Data Object Name
+      \type object-list
+      \object-list SpectrumDataNames
+  A4; \field Visible Spectrum Data Object Name
+      \type object-list
+      \object-list SpectrumDataNames
+
+Site:SpectrumData,
+      \min-fields 8
+      \memo Spectrum Data Type is followed by up to 107 sets of normal-incidence measured values of
+      \memo [wavelength, spectrum] for wavelengths covering the solar (0.25 to 2.5 microns) or visible
+      \memo spectrum (0.38 to 0.78 microns)
+      \extensible:2
+  A1, \field Name
+      \required-field
+      \type alpha
+      \reference SpectrumDataNames
+  A2, \field Spectrum Data Type
+      \required-field
+      \type choice
+      \key Solar
+      \key Visible
+  N1, \field Wavelength
+      \type real
+      \units micron
+  N2, \field Spectrum
+      \type real
+  N3, \field Wavelength
+      \type real
+      \units micron
+  N4, \field Spectrum
+      \type real
+  N5, \field Wavelength
+      \begin-extensible
+      \type real
+      \units micron
+  N6, \field Spectrum
+      \type real
+  N7, N8,       \note fields as indicated
+  N9, N10,      \note fields as indicated
+  N11, N12,     \note fields as indicated
+  N13, N14,     \note fields as indicated
+  N15, N16,     \note fields as indicated
+  N17, N18,     \note fields as indicated
+  N19, N20,     \note fields as indicated
+  N21, N22,     \note fields as indicated
+  N23, N24,     \note fields as indicated
+  N25, N26,     \note fields as indicated
+  N27, N28,     \note fields as indicated
+  N29, N30,     \note fields as indicated
+  N31, N32,     \note fields as indicated
+  N33, N34,     \note fields as indicated
+  N35, N36,     \note fields as indicated
+  N37, N38,     \note fields as indicated
+  N39, N40,     \note fields as indicated
+  N41, N42,     \note fields as indicated
+  N43, N44,     \note fields as indicated
+  N45, N46,     \note fields as indicated
+  N47, N48,     \note fields as indicated
+  N49, N50,     \note fields as indicated
+  N51, N52,     \note fields as indicated
+  N53, N54,     \note fields as indicated
+  N55, N56,     \note fields as indicated
+  N57, N58,     \note fields as indicated
+  N59, N60,     \note fields as indicated
+  N61, N62,     \note fields as indicated
+  N63, N64,     \note fields as indicated
+  N65, N66,     \note fields as indicated
+  N67, N68,     \note fields as indicated
+  N69, N70,     \note fields as indicated
+  N71, N72,     \note fields as indicated
+  N73, N74,     \note fields as indicated
+  N75, N76,     \note fields as indicated
+  N77, N78,     \note fields as indicated
+  N79, N80,     \note fields as indicated
+  N81, N82,     \note fields as indicated
+  N83, N84,     \note fields as indicated
+  N85, N86,     \note fields as indicated
+  N87, N88,     \note fields as indicated
+  N89, N90,     \note fields as indicated
+  N91, N92,     \note fields as indicated
+  N93, N94,     \note fields as indicated
+  N95, N96,     \note fields as indicated
+  N97, N98,     \note fields as indicated
+  N99, N100,    \note fields as indicated
+  N101, N102,   \note fields as indicated
+  N103, N104,   \note fields as indicated
+  N105, N106,   \note fields as indicated
+  N107, N108,   \note fields as indicated
+  N109, N110,   \note fields as indicated
+  N111, N112,   \note fields as indicated
+  N113, N114,   \note fields as indicated
+  N115, N116,   \note fields as indicated
+  N117, N118,   \note fields as indicated
+  N119, N120,   \note fields as indicated
+  N121, N122,   \note fields as indicated
+  N123, N124,   \note fields as indicated
+  N125, N126,   \note fields as indicated
+  N127, N128,   \note fields as indicated
+  N129, N130,   \note fields as indicated
+  N131, N132,   \note fields as indicated
+  N133, N134,   \note fields as indicated
+  N135, N136,   \note fields as indicated
+  N137, N138,   \note fields as indicated
+  N139, N140,   \note fields as indicated
+  N141, N142,   \note fields as indicated
+  N143, N144,   \note fields as indicated
+  N145, N146,   \note fields as indicated
+  N147, N148,   \note fields as indicated
+  N149, N150,   \note fields as indicated
+  N151, N152,   \note fields as indicated
+  N153, N154,   \note fields as indicated
+  N155, N156,   \note fields as indicated
+  N157, N158,   \note fields as indicated
+  N159, N160,   \note fields as indicated
+  N161, N162,   \note fields as indicated
+  N163, N164,   \note fields as indicated
+  N165, N166,   \note fields as indicated
+  N167, N168,   \note fields as indicated
+  N169, N170,   \note fields as indicated
+  N171, N172,   \note fields as indicated
+  N173, N174,   \note fields as indicated
+  N175, N176,   \note fields as indicated
+  N177, N178,   \note fields as indicated
+  N179, N180,   \note fields as indicated
+  N181, N182,   \note fields as indicated
+  N183, N184,   \note fields as indicated
+  N185, N186,   \note fields as indicated
+  N187, N188,   \note fields as indicated
+  N189, N190,   \note fields as indicated
+  N191, N192,   \note fields as indicated
+  N193, N194,   \note fields as indicated
+  N195, N196,   \note fields as indicated
+  N197, N198,   \note fields as indicated
+  N199, N200,   \note fields as indicated
+  N201, N202,   \note fields as indicated
+  N203, N204,   \note fields as indicated
+  N205, N206,   \note fields as indicated
+  N207, N208,   \note fields as indicated
+  N209, N210,   \note fields as indicated
+  N211, N212,   \note fields as indicated
+  N213, N214;   \note fields as indicated
+
+\group Schedules
+
+ScheduleTypeLimits,
+       \memo ScheduleTypeLimits specifies the data types and limits for the values contained in schedules
+  A1,  \field Name
+       \required-field
+       \reference ScheduleTypeLimitsNames
+       \note used to validate schedule types in various schedule objects
+  N1,  \field Lower Limit Value
+       \note lower limit (real or integer) for the Schedule Type. e.g. if fraction, this is 0.0
+       \unitsBasedOnField A3
+  N2,  \field Upper Limit Value
+       \note upper limit (real or integer) for the Schedule Type. e.g. if fraction, this is 1.0
+       \unitsBasedOnField A3
+  A2,  \field Numeric Type
+       \note Numeric type is either Continuous (all numbers within the min and
+       \note max are valid or Discrete (only integer numbers between min and
+       \note max are valid. (Could also allow REAL and INTEGER to mean the
+       \note same things)
+       \type choice
+       \key Continuous
+       \key Discrete
+  A3;  \field Unit Type
+       \note Temperature (C or F)
+       \note DeltaTemperature (C or F)
+       \note PrecipitationRate (m/hr or ft/hr)
+       \note Angle (degrees)
+       \note Convection Coefficient (W/m2-K or Btu/sqft-hr-F)
+       \note Activity Level (W/person)
+       \note Velocity (m/s or ft/min)
+       \note Capacity (W or Btu/h)
+       \note Power (W)
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key DeltaTemperature
+       \key PrecipitationRate
+       \key Angle
+       \key ConvectionCoefficient
+       \key ActivityLevel
+       \key Velocity
+       \key Capacity
+       \key Power
+       \key Availability
+       \key Percent
+       \key Control
+       \key Mode
+       \default Dimensionless
+
+Schedule:Day:Hourly,
+       \min-fields 26
+       \memo A Schedule:Day:Hourly contains 24 values for each hour of the day.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference DayScheduleNames
+  A2 , \field Schedule Type Limits Name
+       \type object-list
+       \object-list ScheduleTypeLimitsNames
+  N1 , \field Hour 1
+       \type real
+       \default 0
+  N2 , \field Hour 2
+       \type real
+       \default 0
+  N3 , \field Hour 3
+       \type real
+       \default 0
+  N4 , \field Hour 4
+       \type real
+       \default 0
+  N5 , \field Hour 5
+       \type real
+       \default 0
+  N6 , \field Hour 6
+       \type real
+       \default 0
+  N7 , \field Hour 7
+       \type real
+       \default 0
+  N8 , \field Hour 8
+       \type real
+       \default 0
+  N9 , \field Hour 9
+       \type real
+       \default 0
+  N10, \field Hour 10
+       \type real
+       \default 0
+  N11, \field Hour 11
+       \type real
+       \default 0
+  N12, \field Hour 12
+       \type real
+       \default 0
+  N13, \field Hour 13
+       \type real
+       \default 0
+  N14, \field Hour 14
+       \type real
+       \default 0
+  N15, \field Hour 15
+       \type real
+       \default 0
+  N16, \field Hour 16
+       \type real
+       \default 0
+  N17, \field Hour 17
+       \type real
+       \default 0
+  N18, \field Hour 18
+       \type real
+       \default 0
+  N19, \field Hour 19
+       \type real
+       \default 0
+  N20, \field Hour 20
+       \type real
+       \default 0
+  N21, \field Hour 21
+       \type real
+       \default 0
+  N22, \field Hour 22
+       \type real
+       \default 0
+  N23, \field Hour 23
+       \type real
+       \default 0
+  N24; \field Hour 24
+       \type real
+       \default 0
+
+Schedule:Day:Interval,
+       \extensible:2 - repeat last two fields, remembering to remove ; from "inner" fields.
+       \memo A Schedule:Day:Interval contains a full day of values with specified end times for each value
+       \memo Currently, is set up to allow for 10 minute intervals for an entire day.
+       \min-fields 5
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference DayScheduleNames
+  A2 , \field Schedule Type Limits Name
+       \type object-list
+       \object-list ScheduleTypeLimitsNames
+  A3 , \field Interpolate to Timestep
+       \note when the interval does not match the user specified timestep a Average choice will average between the intervals request (to
+       \note timestep resolution. A No choice will use the interval value at the simulation timestep without regard to if it matches
+       \note the boundary or not. A Linear choice will interpolate linearly between successive values.
+       \type choice
+       \key Average
+       \key Linear
+       \key No
+       \default No
+ A4  , \field Time 1
+       \begin-extensible
+       \note "until" includes the time entered.
+       \units hh:mm
+ N1  , \field Value Until Time 1
+ A5  , \field Time 2
+       \note "until" includes the time entered.
+       \units hh:mm
+ N2  , \field Value Until Time 2
+ A6  , \field Time 3
+       \note "until" includes the time entered.
+       \units hh:mm
+ N3  , \field Value Until Time 3
+ A7  , \field Time 4
+       \note "until" includes the time entered.
+       \units hh:mm
+ N4  , \field Value Until Time 4
+ A8  , \field Time 5
+       \note "until" includes the time entered.
+       \units hh:mm
+ N5  , \field Value Until Time 5
+ A9  , \field Time 6
+       \note "until" includes the time entered.
+       \units hh:mm
+ N6  , \field Value Until Time 6
+ A10 , \field Time 7
+       \note "until" includes the time entered.
+       \units hh:mm
+ N7  , \field Value Until Time 7
+ A11 , \field Time 8
+       \note "until" includes the time entered.
+       \units hh:mm
+ N8  , \field Value Until Time 8
+ A12 , \field Time 9
+       \note "until" includes the time entered.
+       \units hh:mm
+ N9  , \field Value Until Time 9
+ A13 , \field Time 10
+       \note "until" includes the time entered.
+       \units hh:mm
+ N10 , \field Value Until Time 10
+ A14 , \field Time 11
+       \note "until" includes the time entered.
+       \units hh:mm
+ N11 , \field Value Until Time 11
+ A15 , \field Time 12
+       \note "until" includes the time entered.
+       \units hh:mm
+ N12 , \field Value Until Time 12
+ A16 , \field Time 13
+       \note "until" includes the time entered.
+       \units hh:mm
+ N13 , \field Value Until Time 13
+ A17 , \field Time 14
+       \note "until" includes the time entered.
+       \units hh:mm
+ N14 , \field Value Until Time 14
+ A18 , \field Time 15
+       \note "until" includes the time entered.
+       \units hh:mm
+ N15 , \field Value Until Time 15
+ A19 , \field Time 16
+       \note "until" includes the time entered.
+       \units hh:mm
+ N16 , \field Value Until Time 16
+ A20 , \field Time 17
+       \note "until" includes the time entered.
+       \units hh:mm
+ N17 , \field Value Until Time 17
+ A21 , \field Time 18
+       \note "until" includes the time entered.
+       \units hh:mm
+ N18 , \field Value Until Time 18
+ A22 , \field Time 19
+       \note "until" includes the time entered.
+       \units hh:mm
+ N19 , \field Value Until Time 19
+ A23 , \field Time 20
+       \note "until" includes the time entered.
+       \units hh:mm
+ N20 , \field Value Until Time 20
+ A24 , \field Time 21
+       \note "until" includes the time entered.
+       \units hh:mm
+ N21 , \field Value Until Time 21
+ A25 , \field Time 22
+       \note "until" includes the time entered.
+       \units hh:mm
+ N22 , \field Value Until Time 22
+ A26 , \field Time 23
+       \note "until" includes the time entered.
+       \units hh:mm
+ N23 , \field Value Until Time 23
+ A27 , \field Time 24
+       \note "until" includes the time entered.
+       \units hh:mm
+ N24 , \field Value Until Time 24
+ A28 , \field Time 25
+       \note "until" includes the time entered.
+       \units hh:mm
+ N25 , \field Value Until Time 25
+ A29 , \field Time 26
+       \note "until" includes the time entered.
+       \units hh:mm
+ N26 , \field Value Until Time 26
+ A30 , \field Time 27
+       \note "until" includes the time entered.
+       \units hh:mm
+ N27 , \field Value Until Time 27
+ A31 , \field Time 28
+       \note "until" includes the time entered.
+       \units hh:mm
+ N28 , \field Value Until Time 28
+ A32 , \field Time 29
+       \note "until" includes the time entered.
+       \units hh:mm
+ N29 , \field Value Until Time 29
+ A33 , \field Time 30
+       \note "until" includes the time entered.
+       \units hh:mm
+ N30 , \field Value Until Time 30
+ A34 , \field Time 31
+       \note "until" includes the time entered.
+       \units hh:mm
+ N31 , \field Value Until Time 31
+ A35 , \field Time 32
+       \note "until" includes the time entered.
+       \units hh:mm
+ N32 , \field Value Until Time 32
+ A36 , \field Time 33
+       \note "until" includes the time entered.
+       \units hh:mm
+ N33 , \field Value Until Time 33
+ A37 , \field Time 34
+       \note "until" includes the time entered.
+       \units hh:mm
+ N34 , \field Value Until Time 34
+ A38 , \field Time 35
+       \note "until" includes the time entered.
+       \units hh:mm
+ N35 , \field Value Until Time 35
+ A39 , \field Time 36
+       \note "until" includes the time entered.
+       \units hh:mm
+ N36 , \field Value Until Time 36
+ A40 , \field Time 37
+       \note "until" includes the time entered.
+       \units hh:mm
+ N37 , \field Value Until Time 37
+ A41 , \field Time 38
+       \note "until" includes the time entered.
+       \units hh:mm
+ N38 , \field Value Until Time 38
+ A42 , \field Time 39
+       \note "until" includes the time entered.
+       \units hh:mm
+ N39 , \field Value Until Time 39
+ A43 , \field Time 40
+       \note "until" includes the time entered.
+       \units hh:mm
+ N40 , \field Value Until Time 40
+ A44 , \field Time 41
+       \note "until" includes the time entered.
+       \units hh:mm
+ N41 , \field Value Until Time 41
+ A45 , \field Time 42
+       \note "until" includes the time entered.
+       \units hh:mm
+ N42 , \field Value Until Time 42
+ A46 , \field Time 43
+       \note "until" includes the time entered.
+       \units hh:mm
+ N43 , \field Value Until Time 43
+ A47 , \field Time 44
+       \note "until" includes the time entered.
+       \units hh:mm
+ N44 , \field Value Until Time 44
+ A48 , \field Time 45
+       \note "until" includes the time entered.
+       \units hh:mm
+ N45 , \field Value Until Time 45
+ A49 , \field Time 46
+       \note "until" includes the time entered.
+       \units hh:mm
+ N46 , \field Value Until Time 46
+ A50 , \field Time 47
+       \note "until" includes the time entered.
+       \units hh:mm
+ N47 , \field Value Until Time 47
+ A51 , \field Time 48
+       \note "until" includes the time entered.
+       \units hh:mm
+ N48 , \field Value Until Time 48
+ A52 , \field Time 49
+       \note "until" includes the time entered.
+       \units hh:mm
+ N49 , \field Value Until Time 49
+ A53 , \field Time 50
+       \note "until" includes the time entered.
+       \units hh:mm
+ N50 , \field Value Until Time 50
+ A54 , \field Time 51
+       \note "until" includes the time entered.
+       \units hh:mm
+ N51 , \field Value Until Time 51
+ A55 , \field Time 52
+       \note "until" includes the time entered.
+       \units hh:mm
+ N52 , \field Value Until Time 52
+ A56 , \field Time 53
+       \note "until" includes the time entered.
+       \units hh:mm
+ N53 , \field Value Until Time 53
+ A57 , \field Time 54
+       \note "until" includes the time entered.
+       \units hh:mm
+ N54 , \field Value Until Time 54
+ A58 , \field Time 55
+       \note "until" includes the time entered.
+       \units hh:mm
+ N55 , \field Value Until Time 55
+ A59 , \field Time 56
+       \note "until" includes the time entered.
+       \units hh:mm
+ N56 , \field Value Until Time 56
+ A60 , \field Time 57
+       \note "until" includes the time entered.
+       \units hh:mm
+ N57 , \field Value Until Time 57
+ A61 , \field Time 58
+       \note "until" includes the time entered.
+       \units hh:mm
+ N58 , \field Value Until Time 58
+ A62 , \field Time 59
+       \note "until" includes the time entered.
+       \units hh:mm
+ N59 , \field Value Until Time 59
+ A63 , \field Time 60
+       \note "until" includes the time entered.
+       \units hh:mm
+ N60 , \field Value Until Time 60
+ A64 , \field Time 61
+       \note "until" includes the time entered.
+       \units hh:mm
+ N61 , \field Value Until Time 61
+ A65 , \field Time 62
+       \note "until" includes the time entered.
+       \units hh:mm
+ N62 , \field Value Until Time 62
+ A66 , \field Time 63
+       \note "until" includes the time entered.
+       \units hh:mm
+ N63 , \field Value Until Time 63
+ A67 , \field Time 64
+       \note "until" includes the time entered.
+       \units hh:mm
+ N64 , \field Value Until Time 64
+ A68 , \field Time 65
+       \note "until" includes the time entered.
+       \units hh:mm
+ N65 , \field Value Until Time 65
+ A69 , \field Time 66
+       \note "until" includes the time entered.
+       \units hh:mm
+ N66 , \field Value Until Time 66
+ A70 , \field Time 67
+       \note "until" includes the time entered.
+       \units hh:mm
+ N67 , \field Value Until Time 67
+ A71 , \field Time 68
+       \note "until" includes the time entered.
+       \units hh:mm
+ N68 , \field Value Until Time 68
+ A72 , \field Time 69
+       \note "until" includes the time entered.
+       \units hh:mm
+ N69 , \field Value Until Time 69
+ A73 , \field Time 70
+       \note "until" includes the time entered.
+       \units hh:mm
+ N70 , \field Value Until Time 70
+ A74 , \field Time 71
+       \note "until" includes the time entered.
+       \units hh:mm
+ N71 , \field Value Until Time 71
+ A75 , \field Time 72
+       \note "until" includes the time entered.
+       \units hh:mm
+ N72 , \field Value Until Time 72
+ A76 , \field Time 73
+       \note "until" includes the time entered.
+       \units hh:mm
+ N73 , \field Value Until Time 73
+ A77 , \field Time 74
+       \note "until" includes the time entered.
+       \units hh:mm
+ N74 , \field Value Until Time 74
+ A78 , \field Time 75
+       \note "until" includes the time entered.
+       \units hh:mm
+ N75 , \field Value Until Time 75
+ A79 , \field Time 76
+       \note "until" includes the time entered.
+       \units hh:mm
+ N76 , \field Value Until Time 76
+ A80 , \field Time 77
+       \note "until" includes the time entered.
+       \units hh:mm
+ N77 , \field Value Until Time 77
+ A81 , \field Time 78
+       \note "until" includes the time entered.
+       \units hh:mm
+ N78 , \field Value Until Time 78
+ A82 , \field Time 79
+       \note "until" includes the time entered.
+       \units hh:mm
+ N79 , \field Value Until Time 79
+ A83 , \field Time 80
+       \note "until" includes the time entered.
+       \units hh:mm
+ N80 , \field Value Until Time 80
+ A84 , \field Time 81
+       \note "until" includes the time entered.
+       \units hh:mm
+ N81 , \field Value Until Time 81
+ A85 , \field Time 82
+       \note "until" includes the time entered.
+       \units hh:mm
+ N82 , \field Value Until Time 82
+ A86 , \field Time 83
+       \note "until" includes the time entered.
+       \units hh:mm
+ N83 , \field Value Until Time 83
+ A87 , \field Time 84
+       \note "until" includes the time entered.
+       \units hh:mm
+ N84 , \field Value Until Time 84
+ A88 , \field Time 85
+       \note "until" includes the time entered.
+       \units hh:mm
+ N85 , \field Value Until Time 85
+ A89 , \field Time 86
+       \note "until" includes the time entered.
+       \units hh:mm
+ N86 , \field Value Until Time 86
+ A90 , \field Time 87
+       \note "until" includes the time entered.
+       \units hh:mm
+ N87 , \field Value Until Time 87
+ A91 , \field Time 88
+       \note "until" includes the time entered.
+       \units hh:mm
+ N88 , \field Value Until Time 88
+ A92 , \field Time 89
+       \note "until" includes the time entered.
+       \units hh:mm
+ N89 , \field Value Until Time 89
+ A93 , \field Time 90
+       \note "until" includes the time entered.
+       \units hh:mm
+ N90 , \field Value Until Time 90
+ A94 , \field Time 91
+       \note "until" includes the time entered.
+       \units hh:mm
+ N91 , \field Value Until Time 91
+ A95 , \field Time 92
+       \note "until" includes the time entered.
+       \units hh:mm
+ N92 , \field Value Until Time 92
+ A96 , \field Time 93
+       \note "until" includes the time entered.
+       \units hh:mm
+ N93 , \field Value Until Time 93
+ A97 , \field Time 94
+       \note "until" includes the time entered.
+       \units hh:mm
+ N94 , \field Value Until Time 94
+ A98 , \field Time 95
+       \note "until" includes the time entered.
+       \units hh:mm
+ N95 , \field Value Until Time 95
+ A99 , \field Time 96
+       \note "until" includes the time entered.
+       \units hh:mm
+ N96 , \field Value Until Time 96
+ A100, \field Time 97
+       \note "until" includes the time entered.
+       \units hh:mm
+ N97 , \field Value Until Time 97
+ A101, \field Time 98
+       \note "until" includes the time entered.
+       \units hh:mm
+ N98 , \field Value Until Time 98
+ A102, \field Time 99
+       \note "until" includes the time entered.
+       \units hh:mm
+ N99 , \field Value Until Time 99
+ A103, \field Time 100
+       \note "until" includes the time entered.
+       \units hh:mm
+ N100, \field Value Until Time 100
+ A104, \field Time 101
+       \note "until" includes the time entered.
+       \units hh:mm
+ N101, \field Value Until Time 101
+ A105, \field Time 102
+       \note "until" includes the time entered.
+       \units hh:mm
+ N102, \field Value Until Time 102
+ A106, \field Time 103
+       \note "until" includes the time entered.
+       \units hh:mm
+ N103, \field Value Until Time 103
+ A107, \field Time 104
+       \note "until" includes the time entered.
+       \units hh:mm
+ N104, \field Value Until Time 104
+ A108, \field Time 105
+       \note "until" includes the time entered.
+       \units hh:mm
+ N105, \field Value Until Time 105
+ A109, \field Time 106
+       \note "until" includes the time entered.
+       \units hh:mm
+ N106, \field Value Until Time 106
+ A110, \field Time 107
+       \note "until" includes the time entered.
+       \units hh:mm
+ N107, \field Value Until Time 107
+ A111, \field Time 108
+       \note "until" includes the time entered.
+       \units hh:mm
+ N108, \field Value Until Time 108
+ A112, \field Time 109
+       \note "until" includes the time entered.
+       \units hh:mm
+ N109, \field Value Until Time 109
+ A113, \field Time 110
+       \note "until" includes the time entered.
+       \units hh:mm
+ N110, \field Value Until Time 110
+ A114, \field Time 111
+       \note "until" includes the time entered.
+       \units hh:mm
+ N111, \field Value Until Time 111
+ A115, \field Time 112
+       \note "until" includes the time entered.
+       \units hh:mm
+ N112, \field Value Until Time 112
+ A116, \field Time 113
+       \note "until" includes the time entered.
+       \units hh:mm
+ N113, \field Value Until Time 113
+ A117, \field Time 114
+       \note "until" includes the time entered.
+       \units hh:mm
+ N114, \field Value Until Time 114
+ A118, \field Time 115
+       \note "until" includes the time entered.
+       \units hh:mm
+ N115, \field Value Until Time 115
+ A119, \field Time 116
+       \note "until" includes the time entered.
+       \units hh:mm
+ N116, \field Value Until Time 116
+ A120, \field Time 117
+       \note "until" includes the time entered.
+       \units hh:mm
+ N117, \field Value Until Time 117
+ A121, \field Time 118
+       \note "until" includes the time entered.
+       \units hh:mm
+ N118, \field Value Until Time 118
+ A122, \field Time 119
+       \note "until" includes the time entered.
+       \units hh:mm
+ N119, \field Value Until Time 119
+ A123, \field Time 120
+       \note "until" includes the time entered.
+       \units hh:mm
+ N120, \field Value Until Time 120
+ A124, \field Time 121
+       \note "until" includes the time entered.
+       \units hh:mm
+ N121, \field Value Until Time 121
+ A125, \field Time 122
+       \note "until" includes the time entered.
+       \units hh:mm
+ N122, \field Value Until Time 122
+ A126, \field Time 123
+       \note "until" includes the time entered.
+       \units hh:mm
+ N123, \field Value Until Time 123
+ A127, \field Time 124
+       \note "until" includes the time entered.
+       \units hh:mm
+ N124, \field Value Until Time 124
+ A128, \field Time 125
+       \note "until" includes the time entered.
+       \units hh:mm
+ N125, \field Value Until Time 125
+ A129, \field Time 126
+       \note "until" includes the time entered.
+       \units hh:mm
+ N126, \field Value Until Time 126
+ A130, \field Time 127
+       \note "until" includes the time entered.
+       \units hh:mm
+ N127, \field Value Until Time 127
+ A131, \field Time 128
+       \note "until" includes the time entered.
+       \units hh:mm
+ N128, \field Value Until Time 128
+ A132, \field Time 129
+       \note "until" includes the time entered.
+       \units hh:mm
+ N129, \field Value Until Time 129
+ A133, \field Time 130
+       \note "until" includes the time entered.
+       \units hh:mm
+ N130, \field Value Until Time 130
+ A134, \field Time 131
+       \note "until" includes the time entered.
+       \units hh:mm
+ N131, \field Value Until Time 131
+ A135, \field Time 132
+       \note "until" includes the time entered.
+       \units hh:mm
+ N132, \field Value Until Time 132
+ A136, \field Time 133
+       \note "until" includes the time entered.
+       \units hh:mm
+ N133, \field Value Until Time 133
+ A137, \field Time 134
+       \note "until" includes the time entered.
+       \units hh:mm
+ N134, \field Value Until Time 134
+ A138, \field Time 135
+       \note "until" includes the time entered.
+       \units hh:mm
+ N135, \field Value Until Time 135
+ A139, \field Time 136
+       \note "until" includes the time entered.
+       \units hh:mm
+ N136, \field Value Until Time 136
+ A140, \field Time 137
+       \note "until" includes the time entered.
+       \units hh:mm
+ N137, \field Value Until Time 137
+ A141, \field Time 138
+       \note "until" includes the time entered.
+       \units hh:mm
+ N138, \field Value Until Time 138
+ A142, \field Time 139
+       \note "until" includes the time entered.
+       \units hh:mm
+ N139, \field Value Until Time 139
+ A143, \field Time 140
+       \note "until" includes the time entered.
+       \units hh:mm
+ N140, \field Value Until Time 140
+ A144, \field Time 141
+       \note "until" includes the time entered.
+       \units hh:mm
+ N141, \field Value Until Time 141
+ A145, \field Time 142
+       \note "until" includes the time entered.
+       \units hh:mm
+ N142, \field Value Until Time 142
+ A146, \field Time 143
+       \note "until" includes the time entered.
+       \units hh:mm
+ N143, \field Value Until Time 143
+ A147, \field Time 144
+       \note "until" includes the time entered.
+       \units hh:mm
+ N144; \field Value Until Time 144
+
+Schedule:Day:List,
+      \memo Schedule:Day:List will allow the user to list 24 hours worth of values, which can be sub-hourly in nature.
+      \min-fields 5
+      \extensible:1
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference DayScheduleNames
+  A2 , \field Schedule Type Limits Name
+       \type object-list
+       \object-list ScheduleTypeLimitsNames
+  A3 , \field Interpolate to Timestep
+       \note when the interval does not match the user specified timestep a "Average" choice will average between the intervals request (to
+       \note timestep resolution. A "No" choice will use the interval value at the simulation timestep without regard to if it matches
+       \note the boundary or not. A "Linear" choice will interpolate linearly between successive values.
+       \type choice
+       \key Average
+       \key Linear
+       \key No
+       \default No
+  N1 , \field Minutes per Item
+       \note Must be evenly divisible into 60
+       \type integer
+       \minimum 1
+       \maximum 60
+  N2,  \field Value 1
+       \begin-extensible
+       \default 0.0
+        N3,N4,         N5,N6,N7,N8,         N9,N10,N11,N12,      N13,N14,N15,N16,     N17,N18,N19,N20, \note fields as indicated
+  N21,N22,N23,N24,     N25,N26,N27,N28,     N29,N30,N31,N32,     N33,N34,N35,N36,     N37,N38,N39,N40, \note fields as indicated
+  N41,N42,N43,N44,     N45,N46,N47,N48,     N49,N50,N51,N52,     N53,N54,N55,N56,     N57,N58,N59,N60, \note fields as indicated
+  N61,N62,N63,N64,     N65,N66,N67,N68,     N69,N70,N71,N72,     N73,N74,N75,N76,     N77,N78,N79,N80, \note fields as indicated
+  N81,N82,N83,N84,     N85,N86,N87,N88,     N89,N90,N91,N92,     N93,N94,N95,N96,     N97,N98,N99,N100, \note fields as indicated
+
+  N101,N102,N103,N104, N105,N106,N107,N108, N109,N110,N111,N112, N113,N114,N115,N116, N117,N118,N119,N120, \note fields as indicated
+  N121,N122,N123,N124, N125,N126,N127,N128, N129,N130,N131,N132, N133,N134,N135,N136, N137,N138,N139,N140, \note fields as indicated
+  N141,N142,N143,N144, N145,N146,N147,N148, N149,N150,N151,N152, N153,N154,N155,N156, N157,N158,N159,N160, \note fields as indicated
+  N161,N162,N163,N164, N165,N166,N167,N168, N169,N170,N171,N172, N173,N174,N175,N176, N177,N178,N179,N180, \note fields as indicated
+  N181,N182,N183,N184, N185,N186,N187,N188, N189,N190,N191,N192, N193,N194,N195,N196, N197,N198,N199,N200, \note fields as indicated
+
+  N201,N202,N203,N204, N205,N206,N207,N208, N209,N210,N211,N212, N213,N214,N215,N216, N217,N218,N219,N220, \note fields as indicated
+  N221,N222,N223,N224, N225,N226,N227,N228, N229,N230,N231,N232, N233,N234,N235,N236, N237,N238,N239,N240, \note fields as indicated
+  N241,N242,N243,N244, N245,N246,N247,N248, N249,N250,N251,N252, N253,N254,N255,N256, N257,N258,N259,N260, \note fields as indicated
+  N261,N262,N263,N264, N265,N266,N267,N268, N269,N270,N271,N272, N273,N274,N275,N276, N277,N278,N279,N280, \note fields as indicated
+  N281,N282,N283,N284, N285,N286,N287,N288, N289,N290,N291,N292, N293,N294,N295,N296, N297,N298,N299,N300, \note fields as indicated
+
+  N301,N302,N303,N304, N305,N306,N307,N308, N309,N310,N311,N312, N313,N314,N315,N316, N317,N318,N319,N320, \note fields as indicated
+  N321,N322,N323,N324, N325,N326,N327,N328, N329,N330,N331,N332, N333,N334,N335,N336, N337,N338,N339,N340, \note fields as indicated
+  N341,N342,N343,N344, N345,N346,N347,N348, N349,N350,N351,N352, N353,N354,N355,N356, N357,N358,N359,N360, \note fields as indicated
+  N361,N362,N363,N364, N365,N366,N367,N368, N369,N370,N371,N372, N373,N374,N375,N376, N377,N378,N379,N380, \note fields as indicated
+  N381,N382,N383,N384, N385,N386,N387,N388, N389,N390,N391,N392, N393,N394,N395,N396, N397,N398,N399,N400, \note fields as indicated
+
+  N401,N402,N403,N404, N405,N406,N407,N408, N409,N410,N411,N412, N413,N414,N415,N416, N417,N418,N419,N420, \note fields as indicated
+  N421,N422,N423,N424, N425,N426,N427,N428, N429,N430,N431,N432, N433,N434,N435,N436, N437,N438,N439,N440, \note fields as indicated
+  N441,N442,N443,N444, N445,N446,N447,N448, N449,N450,N451,N452, N453,N454,N455,N456, N457,N458,N459,N460, \note fields as indicated
+  N461,N462,N463,N464, N465,N466,N467,N468, N469,N470,N471,N472, N473,N474,N475,N476, N477,N478,N479,N480, \note fields as indicated
+  N481,N482,N483,N484, N485,N486,N487,N488, N489,N490,N491,N492, N493,N494,N495,N496, N497,N498,N499,N500, \note fields as indicated
+
+  N501,N502,N503,N504, N505,N506,N507,N508, N509,N510,N511,N512, N513,N514,N515,N516, N517,N518,N519,N520, \note fields as indicated
+  N521,N522,N523,N524, N525,N526,N527,N528, N529,N530,N531,N532, N533,N534,N535,N536, N537,N538,N539,N540, \note fields as indicated
+  N541,N542,N543,N544, N545,N546,N547,N548, N549,N550,N551,N552, N553,N554,N555,N556, N557,N558,N559,N560, \note fields as indicated
+  N561,N562,N563,N564, N565,N566,N567,N568, N569,N570,N571,N572, N573,N574,N575,N576, N577,N578,N579,N580, \note fields as indicated
+  N581,N582,N583,N584, N585,N586,N587,N588, N589,N590,N591,N592, N593,N594,N595,N596, N597,N598,N599,N600, \note fields as indicated
+
+  N601,N602,N603,N604, N605,N606,N607,N608, N609,N610,N611,N612, N613,N614,N615,N616, N617,N618,N619,N620, \note fields as indicated
+  N621,N622,N623,N624, N625,N626,N627,N628, N629,N630,N631,N632, N633,N634,N635,N636, N637,N638,N639,N640, \note fields as indicated
+  N641,N642,N643,N644, N645,N646,N647,N648, N649,N650,N651,N652, N653,N654,N655,N656, N657,N658,N659,N660, \note fields as indicated
+  N661,N662,N663,N664, N665,N666,N667,N668, N669,N670,N671,N672, N673,N674,N675,N676, N677,N678,N679,N680, \note fields as indicated
+  N681,N682,N683,N684, N685,N686,N687,N688, N689,N690,N691,N692, N693,N694,N695,N696, N697,N698,N699,N700, \note fields as indicated
+
+  N701,N702,N703,N704, N705,N706,N707,N708, N709,N710,N711,N712, N713,N714,N715,N716, N717,N718,N719,N720, \note fields as indicated
+  N721,N722,N723,N724, N725,N726,N727,N728, N729,N730,N731,N732, N733,N734,N735,N736, N737,N738,N739,N740, \note fields as indicated
+  N741,N742,N743,N744, N745,N746,N747,N748, N749,N750,N751,N752, N753,N754,N755,N756, N757,N758,N759,N760, \note fields as indicated
+  N761,N762,N763,N764, N765,N766,N767,N768, N769,N770,N771,N772, N773,N774,N775,N776, N777,N778,N779,N780, \note fields as indicated
+  N781,N782,N783,N784, N785,N786,N787,N788, N789,N790,N791,N792, N793,N794,N795,N796, N797,N798,N799,N800, \note fields as indicated
+
+  N801,N802,N803,N804, N805,N806,N807,N808, N809,N810,N811,N812, N813,N814,N815,N816, N817,N818,N819,N820, \note fields as indicated
+  N821,N822,N823,N824, N825,N826,N827,N828, N829,N830,N831,N832, N833,N834,N835,N836, N837,N838,N839,N840, \note fields as indicated
+  N841,N842,N843,N844, N845,N846,N847,N848, N849,N850,N851,N852, N853,N854,N855,N856, N857,N858,N859,N860, \note fields as indicated
+  N861,N862,N863,N864, N865,N866,N867,N868, N869,N870,N871,N872, N873,N874,N875,N876, N877,N878,N879,N880, \note fields as indicated
+  N881,N882,N883,N884, N885,N886,N887,N888, N889,N890,N891,N892, N893,N894,N895,N896, N897,N898,N899,N900, \note fields as indicated
+
+  N901,N902,N903,N904, N905,N906,N907,N908, N909,N910,N911,N912, N913,N914,N915,N916, N917,N918,N919,N920, \note fields as indicated
+  N921,N922,N923,N924, N925,N926,N927,N928, N929,N930,N931,N932, N933,N934,N935,N936, N937,N938,N939,N940, \note fields as indicated
+  N941,N942,N943,N944, N945,N946,N947,N948, N949,N950,N951,N952, N953,N954,N955,N956, N957,N958,N959,N960, \note fields as indicated
+  N961,N962,N963,N964, N965,N966,N967,N968, N969,N970,N971,N972, N973,N974,N975,N976, N977,N978,N979,N980, \note fields as indicated
+  N981,N982,N983,N984, N985,N986,N987,N988, N989,N990,N991,N992, N993,N994,N995,N996, N997,N998,N999,N1000, \note fields as indicated
+
+  N1001,N1002,N1003,N1004, N1005,N1006,N1007,N1008, N1009,N1010,N1011,N1012, N1013,N1014,N1015,N1016, N1017,N1018,N1019,N1020, \note fields as indicated
+  N1021,N1022,N1023,N1024, N1025,N1026,N1027,N1028, N1029,N1030,N1031,N1032, N1033,N1034,N1035,N1036, N1037,N1038,N1039,N1040, \note fields as indicated
+  N1041,N1042,N1043,N1044, N1045,N1046,N1047,N1048, N1049,N1050,N1051,N1052, N1053,N1054,N1055,N1056, N1057,N1058,N1059,N1060, \note fields as indicated
+  N1061,N1062,N1063,N1064, N1065,N1066,N1067,N1068, N1069,N1070,N1071,N1072, N1073,N1074,N1075,N1076, N1077,N1078,N1079,N1080, \note fields as indicated
+  N1081,N1082,N1083,N1084, N1085,N1086,N1087,N1088, N1089,N1090,N1091,N1092, N1093,N1094,N1095,N1096, N1097,N1098,N1099,N1100, \note fields as indicated
+
+  N1101,N1102,N1103,N1104, N1105,N1106,N1107,N1108, N1109,N1110,N1111,N1112, N1113,N1114,N1115,N1116, N1117,N1118,N1119,N1120, \note fields as indicated
+  N1121,N1122,N1123,N1124, N1125,N1126,N1127,N1128, N1129,N1130,N1131,N1132, N1133,N1134,N1135,N1136, N1137,N1138,N1139,N1140, \note fields as indicated
+  N1141,N1142,N1143,N1144, N1145,N1146,N1147,N1148, N1149,N1150,N1151,N1152, N1153,N1154,N1155,N1156, N1157,N1158,N1159,N1160, \note fields as indicated
+  N1161,N1162,N1163,N1164, N1165,N1166,N1167,N1168, N1169,N1170,N1171,N1172, N1173,N1174,N1175,N1176, N1177,N1178,N1179,N1180, \note fields as indicated
+  N1181,N1182,N1183,N1184, N1185,N1186,N1187,N1188, N1189,N1190,N1191,N1192, N1193,N1194,N1195,N1196, N1197,N1198,N1199,N1200, \note fields as indicated
+
+  N1201,N1202,N1203,N1204, N1205,N1206,N1207,N1208, N1209,N1210,N1211,N1212, N1213,N1214,N1215,N1216, N1217,N1218,N1219,N1220,\note fields as indicated
+  N1221,N1222,N1223,N1224, N1225,N1226,N1227,N1228, N1229,N1230,N1231,N1232, N1233,N1234,N1235,N1236, N1237,N1238,N1239,N1240,\note fields as indicated
+  N1241,N1242,N1243,N1244, N1245,N1246,N1247,N1248, N1249,N1250,N1251,N1252, N1253,N1254,N1255,N1256, N1257,N1258,N1259,N1260,\note fields as indicated
+  N1261,N1262,N1263,N1264, N1265,N1266,N1267,N1268, N1269,N1270,N1271,N1272, N1273,N1274,N1275,N1276, N1277,N1278,N1279,N1280,\note fields as indicated
+  N1281,N1282,N1283,N1284, N1285,N1286,N1287,N1288, N1289,N1290,N1291,N1292, N1293,N1294,N1295,N1296, N1297,N1298,N1299,N1300,\note fields as indicated
+
+  N1301,N1302,N1303,N1304, N1305,N1306,N1307,N1308, N1309,N1310,N1311,N1312, N1313,N1314,N1315,N1316, N1317,N1318,N1319,N1320,\note fields as indicated
+  N1321,N1322,N1323,N1324, N1325,N1326,N1327,N1328, N1329,N1330,N1331,N1332, N1333,N1334,N1335,N1336, N1337,N1338,N1339,N1340,\note fields as indicated
+  N1341,N1342,N1343,N1344, N1345,N1346,N1347,N1348, N1349,N1350,N1351,N1352, N1353,N1354,N1355,N1356, N1357,N1358,N1359,N1360,\note fields as indicated
+  N1361,N1362,N1363,N1364, N1365,N1366,N1367,N1368, N1369,N1370,N1371,N1372, N1373,N1374,N1375,N1376, N1377,N1378,N1379,N1380,\note fields as indicated
+  N1381,N1382,N1383,N1384, N1385,N1386,N1387,N1388, N1389,N1390,N1391,N1392, N1393,N1394,N1395,N1396, N1397,N1398,N1399,N1400,\note fields as indicated
+
+  N1401,N1402,N1403,N1404, N1405,N1406,N1407,N1408, N1409,N1410,N1411,N1412, N1413,N1414,N1415,N1416, N1417,N1418,N1419,N1420,\note fields as indicated
+  N1421,N1422,N1423,N1424, N1425,N1426,N1427,N1428, N1429,N1430,N1431,N1432, N1433,N1434,N1435,N1436, N1437,N1438,N1439,N1440,\note fields as indicated
+  N1441;\note fields as indicated
+
+Schedule:Week:Daily,
+  \min-fields 13
+       \memo  A Schedule:Week:Daily contains 12 Schedule:Day:Hourly objects, one for each day type.
+  A1 , \field Name
+       \required-field
+       \reference WeekScheduleNames
+       \type alpha
+  A2 , \field Sunday Schedule:Day Name
+       \required-field
+       \type object-list
+       \object-list DayScheduleNames
+  A3 , \field Monday Schedule:Day Name
+       \required-field
+       \type object-list
+       \object-list DayScheduleNames
+  A4 , \field Tuesday Schedule:Day Name
+       \required-field
+       \type object-list
+       \object-list DayScheduleNames
+  A5 , \field Wednesday Schedule:Day Name
+       \required-field
+       \type object-list
+       \object-list DayScheduleNames
+  A6 , \field Thursday Schedule:Day Name
+       \required-field
+       \type object-list
+       \object-list DayScheduleNames
+  A7 , \field Friday Schedule:Day Name
+       \required-field
+       \type object-list
+       \object-list DayScheduleNames
+  A8 , \field Saturday Schedule:Day Name
+       \required-field
+       \type object-list
+       \object-list DayScheduleNames
+  A9 , \field Holiday Schedule:Day Name
+       \required-field
+       \type object-list
+       \object-list DayScheduleNames
+  A10, \field SummerDesignDay Schedule:Day Name
+       \required-field
+       \type object-list
+       \object-list DayScheduleNames
+  A11, \field WinterDesignDay Schedule:Day Name
+       \required-field
+       \type object-list
+       \object-list DayScheduleNames
+  A12, \field CustomDay1 Schedule:Day Name
+       \required-field
+       \type object-list
+       \object-list DayScheduleNames
+  A13; \field CustomDay2 Schedule:Day Name
+       \required-field
+       \type object-list
+       \object-list DayScheduleNames
+
+Schedule:Week:Compact,
+  \extensible:2 - repeat last two fields, remembering to remove ; from "inner" fields.
+  \memo Compact definition for Schedule:Day:List
+  \min-fields 3
+  A1 , \field Name
+       \required-field
+       \reference WeekScheduleNames
+       \type alpha
+  A2 , \field DayType List 1
+       \begin-extensible
+       \note "For" is an optional prefix/start of the For fields. Choices can be combined on single line
+       \note if separated by spaces. i.e. "Holiday Weekends"
+       \note Should have a space after For, if it is included. i.e. "For Alldays"
+       \required-field
+       \type choice
+       \key AllDays
+       \key AllOtherDays
+       \key Weekdays
+       \key Weekends
+       \key Sunday
+       \key Monday
+       \key Tuesday
+       \key Wednesday
+       \key Thursday
+       \key Friday
+       \key Saturday
+       \key Holiday
+       \key SummerDesignDay
+       \key WinterDesignDay
+       \key CustomDay1
+       \key CustomDay2
+  A3 , \field Schedule:Day Name 1
+       \required-field
+       \type object-list
+       \object-list DayScheduleNames
+  A4 , \field DayType List 2
+       \type choice
+       \key AllDays
+       \key AllOtherDays
+       \key Weekdays
+       \key Weekends
+       \key Sunday
+       \key Monday
+       \key Tuesday
+       \key Wednesday
+       \key Thursday
+       \key Friday
+       \key Saturday
+       \key Holiday
+       \key SummerDesignDay
+       \key WinterDesignDay
+       \key CustomDay1
+       \key CustomDay2
+  A5 , \field Schedule:Day Name 2
+       \type object-list
+       \object-list DayScheduleNames
+  A6 , \field DayType List 3
+       \type choice
+       \key AllDays
+       \key AllOtherDays
+       \key Weekdays
+       \key Weekends
+       \key Sunday
+       \key Monday
+       \key Tuesday
+       \key Wednesday
+       \key Thursday
+       \key Friday
+       \key Saturday
+       \key Holiday
+       \key SummerDesignDay
+       \key WinterDesignDay
+       \key CustomDay1
+       \key CustomDay2
+  A7 , \field Schedule:Day Name 3
+       \type object-list
+       \object-list DayScheduleNames
+  A8 , \field DayType List 4
+       \type choice
+       \key AllDays
+       \key AllOtherDays
+       \key Weekdays
+       \key Weekends
+       \key Sunday
+       \key Monday
+       \key Tuesday
+       \key Wednesday
+       \key Thursday
+       \key Friday
+       \key Saturday
+       \key Holiday
+       \key SummerDesignDay
+       \key WinterDesignDay
+       \key CustomDay1
+       \key CustomDay2
+  A9 , \field Schedule:Day Name 4
+       \type object-list
+       \object-list DayScheduleNames
+  A10, \field DayType List 5
+       \type choice
+       \key AllDays
+       \key AllOtherDays
+       \key Weekdays
+       \key Weekends
+       \key Sunday
+       \key Monday
+       \key Tuesday
+       \key Wednesday
+       \key Thursday
+       \key Friday
+       \key Saturday
+       \key Holiday
+       \key SummerDesignDay
+       \key WinterDesignDay
+       \key CustomDay1
+       \key CustomDay2
+  A11; \field Schedule:Day Name 5
+       \type object-list
+       \object-list DayScheduleNames
+
+Schedule:Year,
+       \min-fields 7
+       \extensible:5
+       \memo A Schedule:Year contains from 1 to 52 week schedules
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ScheduleNames
+  A2 , \field Schedule Type Limits Name
+       \type object-list
+       \object-list ScheduleTypeLimitsNames
+  A3 , \field Schedule:Week Name 1
+       \begin-extensible
+       \required-field
+       \type object-list
+       \object-list WeekScheduleNames
+  N1 , \field Start Month 1
+       \required-field
+       \type integer
+       \minimum 1
+       \maximum 12
+  N2 , \field Start Day 1
+       \required-field
+       \type integer
+       \minimum 1
+       \maximum 31
+  N3 , \field End Month 1
+       \required-field
+       \type integer
+       \minimum 1
+       \maximum 12
+  N4 , \field End Day 1
+       \required-field
+       \type integer
+       \minimum 1
+       \maximum 31
+  A4 , \field Schedule:Week Name 2
+       \type object-list
+       \object-list WeekScheduleNames
+  N5 , \field Start Month 2
+       \type integer
+       \minimum 1
+       \maximum 12
+  N6 , \field Start Day 2
+       \type integer
+       \minimum 1
+       \maximum 31
+  N7 , \field End Month 2
+       \type integer
+       \minimum 1
+       \maximum 12
+  N8 , \field End Day 2
+       \type integer
+       \minimum 1
+       \maximum 31
+  A5 , \field Schedule:Week Name 3
+       \type object-list
+       \object-list WeekScheduleNames
+  N9 , \field Start Month 3
+       \type integer
+       \minimum 1
+       \maximum 12
+  N10, \field Start Day 3
+       \type integer
+       \minimum 1
+       \maximum 31
+  N11, \field End Month 3
+       \type integer
+       \minimum 1
+       \maximum 12
+  N12, \field End Day 3
+       \type integer
+       \minimum 1
+       \maximum 31
+  A6 , \field Schedule:Week Name 4
+       \type object-list
+       \object-list WeekScheduleNames
+  N13, \field Start Month 4
+       \type integer
+       \minimum 1
+       \maximum 12
+  N14, \field Start Day 4
+       \type integer
+       \minimum 1
+       \maximum 31
+  N15, \field End Month 4
+       \type integer
+       \minimum 1
+       \maximum 12
+  N16, \field End Day 4
+       \type integer
+       \minimum 1
+       \maximum 31
+  A7 , \field Schedule:Week Name 5
+       \type object-list
+       \object-list WeekScheduleNames
+  N17, \field Start Month 5
+       \type integer
+       \minimum 1
+       \maximum 12
+  N18, \field Start Day 5
+       \type integer
+       \minimum 1
+       \maximum 31
+  N19, \field End Month 5
+       \type integer
+       \minimum 1
+       \maximum 12
+  N20, \field End Day 5
+       \type integer
+       \minimum 1
+       \maximum 31
+  A8 , \field Schedule:Week Name 6
+       \type object-list
+       \object-list WeekScheduleNames
+  N21, \field Start Month 6
+       \type integer
+       \minimum 1
+       \maximum 12
+  N22, \field Start Day 6
+       \type integer
+       \minimum 1
+       \maximum 31
+  N23, \field End Month 6
+       \type integer
+       \minimum 1
+       \maximum 12
+  N24, \field End Day 6
+       \type integer
+       \minimum 1
+       \maximum 31
+  A9 , \field Schedule:Week Name 7
+       \type object-list
+       \object-list WeekScheduleNames
+  N25, \field Start Month 7
+       \type integer
+       \minimum 1
+       \maximum 12
+  N26, \field Start Day 7
+       \type integer
+       \minimum 1
+       \maximum 31
+  N27, \field End Month 7
+       \type integer
+       \minimum 1
+       \maximum 12
+  N28, \field End Day 7
+       \type integer
+       \minimum 1
+       \maximum 31
+  A10, \field Schedule:Week Name 8
+       \type object-list
+       \object-list WeekScheduleNames
+  N29, \field Start Month 8
+       \type integer
+       \minimum 1
+       \maximum 12
+  N30, \field Start Day 8
+       \type integer
+       \minimum 1
+       \maximum 31
+  N31, \field End Month 8
+       \type integer
+       \minimum 1
+       \maximum 12
+  N32, \field End Day 8
+       \type integer
+       \minimum 1
+       \maximum 31
+  A11, \field Schedule:Week Name 9
+       \type object-list
+       \object-list WeekScheduleNames
+  N33, \field Start Month 9
+       \type integer
+       \minimum 1
+       \maximum 12
+  N34, \field Start Day 9
+       \type integer
+       \minimum 1
+       \maximum 31
+  N35, \field End Month 9
+       \type integer
+       \minimum 1
+       \maximum 12
+  N36, \field End Day 9
+       \type integer
+       \minimum 1
+       \maximum 31
+  A12, \field Schedule:Week Name 10
+       \type object-list
+       \object-list WeekScheduleNames
+  N37, \field Start Month 10
+       \type integer
+       \minimum 1
+       \maximum 12
+  N38, \field Start Day 10
+       \type integer
+       \minimum 1
+       \maximum 31
+  N39, \field End Month 10
+       \type integer
+       \minimum 1
+       \maximum 12
+  N40, \field End Day 10
+       \type integer
+       \minimum 1
+       \maximum 31
+  A13, \field Schedule:Week Name 11
+       \type object-list
+       \object-list WeekScheduleNames
+  N41, \field Start Month 11
+       \type integer
+       \minimum 1
+       \maximum 12
+  N42, \field Start Day 11
+       \type integer
+       \minimum 1
+       \maximum 31
+  N43, \field End Month 11
+       \type integer
+       \minimum 1
+       \maximum 12
+  N44, \field End Day 11
+       \type integer
+       \minimum 1
+       \maximum 31
+  A14, \field Schedule:Week Name 12
+       \type object-list
+       \object-list WeekScheduleNames
+  N45, \field Start Month 12
+       \type integer
+       \minimum 1
+       \maximum 12
+  N46, \field Start Day 12
+       \type integer
+       \minimum 1
+       \maximum 31
+  N47, \field End Month 12
+       \type integer
+       \minimum 1
+       \maximum 12
+  N48, \field End Day 12
+       \type integer
+       \minimum 1
+       \maximum 31
+  A15, \field Schedule:Week Name 13
+       \type object-list
+       \object-list WeekScheduleNames
+  N49, \field Start Month 13
+       \type integer
+       \minimum 1
+       \maximum 12
+  N50, \field Start Day 13
+       \type integer
+       \minimum 1
+       \maximum 31
+  N51, \field End Month 13
+       \type integer
+       \minimum 1
+       \maximum 12
+  N52, \field End Day 13
+       \type integer
+       \minimum 1
+       \maximum 31
+  A16, \field Schedule:Week Name 14
+       \type object-list
+       \object-list WeekScheduleNames
+  N53, \field Start Month 14
+       \type integer
+       \minimum 1
+       \maximum 12
+  N54, \field Start Day 14
+       \type integer
+       \minimum 1
+       \maximum 31
+  N55, \field End Month 14
+       \type integer
+       \minimum 1
+       \maximum 12
+  N56, \field End Day 14
+       \type integer
+       \minimum 1
+       \maximum 31
+  A17, \field Schedule:Week Name 15
+       \type object-list
+       \object-list WeekScheduleNames
+  N57, \field Start Month 15
+       \type integer
+       \minimum 1
+       \maximum 12
+  N58, \field Start Day 15
+       \type integer
+       \minimum 1
+       \maximum 31
+  N59, \field End Month 15
+       \type integer
+       \minimum 1
+       \maximum 12
+  N60, \field End Day 15
+       \type integer
+       \minimum 1
+       \maximum 31
+  A18, \field Schedule:Week Name 16
+       \type object-list
+       \object-list WeekScheduleNames
+  N61, \field Start Month 16
+       \type integer
+       \minimum 1
+       \maximum 12
+  N62, \field Start Day 16
+       \type integer
+       \minimum 1
+       \maximum 31
+  N63, \field End Month 16
+       \type integer
+       \minimum 1
+       \maximum 12
+  N64, \field End Day 16
+       \type integer
+       \minimum 1
+       \maximum 31
+  A19, \field Schedule:Week Name 17
+       \type object-list
+       \object-list WeekScheduleNames
+  N65, \field Start Month 17
+       \type integer
+       \minimum 1
+       \maximum 12
+  N66, \field Start Day 17
+       \type integer
+       \minimum 1
+       \maximum 31
+  N67, \field End Month 17
+       \type integer
+       \minimum 1
+       \maximum 12
+  N68, \field End Day 17
+       \type integer
+       \minimum 1
+       \maximum 31
+  A20, \field Schedule:Week Name 18
+       \type object-list
+       \object-list WeekScheduleNames
+  N69, \field Start Month 18
+       \type integer
+       \minimum 1
+       \maximum 12
+  N70, \field Start Day 18
+       \type integer
+       \minimum 1
+       \maximum 31
+  N71, \field End Month 18
+       \type integer
+       \minimum 1
+       \maximum 12
+  N72, \field End Day 18
+       \type integer
+       \minimum 1
+       \maximum 31
+  A21, \field Schedule:Week Name 19
+       \type object-list
+       \object-list WeekScheduleNames
+  N73, \field Start Month 19
+       \type integer
+       \minimum 1
+       \maximum 12
+  N74, \field Start Day 19
+       \type integer
+       \minimum 1
+       \maximum 31
+  N75, \field End Month 19
+       \type integer
+       \minimum 1
+       \maximum 12
+  N76, \field End Day 19
+       \type integer
+       \minimum 1
+       \maximum 31
+  A22, \field Schedule:Week Name 20
+       \type object-list
+       \object-list WeekScheduleNames
+  N77, \field Start Month 20
+       \type integer
+       \minimum 1
+       \maximum 12
+  N78, \field Start Day 20
+       \type integer
+       \minimum 1
+       \maximum 31
+  N79, \field End Month 20
+       \type integer
+       \minimum 1
+       \maximum 12
+  N80, \field End Day 20
+       \type integer
+       \minimum 1
+       \maximum 31
+  A23, \field Schedule:Week Name 21
+       \type object-list
+       \object-list WeekScheduleNames
+  N81, \field Start Month 21
+       \type integer
+       \minimum 1
+       \maximum 12
+  N82, \field Start Day 21
+       \type integer
+       \minimum 1
+       \maximum 31
+  N83, \field End Month 21
+       \type integer
+       \minimum 1
+       \maximum 12
+  N84, \field End Day 21
+       \type integer
+       \minimum 1
+       \maximum 31
+  A24, \field Schedule:Week Name 22
+       \type object-list
+       \object-list WeekScheduleNames
+  N85, \field Start Month 22
+       \type integer
+       \minimum 1
+       \maximum 12
+  N86, \field Start Day 22
+       \type integer
+       \minimum 1
+       \maximum 31
+  N87, \field End Month 22
+       \type integer
+       \minimum 1
+       \maximum 12
+  N88, \field End Day 22
+       \type integer
+       \minimum 1
+       \maximum 31
+  A25, \field Schedule:Week Name 23
+       \type object-list
+       \object-list WeekScheduleNames
+  N89, \field Start Month 23
+       \type integer
+       \minimum 1
+       \maximum 12
+  N90, \field Start Day 23
+       \type integer
+       \minimum 1
+       \maximum 31
+  N91, \field End Month 23
+       \type integer
+       \minimum 1
+       \maximum 12
+  N92, \field End Day 23
+       \type integer
+       \minimum 1
+       \maximum 31
+  A26, \field Schedule:Week Name 24
+       \type object-list
+       \object-list WeekScheduleNames
+  N93, \field Start Month 24
+       \type integer
+       \minimum 1
+       \maximum 12
+  N94, \field Start Day 24
+       \type integer
+       \minimum 1
+       \maximum 31
+  N95, \field End Month 24
+       \type integer
+       \minimum 1
+       \maximum 12
+  N96, \field End Day 24
+       \type integer
+       \minimum 1
+       \maximum 31
+  A27, \field Schedule:Week Name 25
+       \type object-list
+       \object-list WeekScheduleNames
+  N97, \field Start Month 25
+       \type integer
+       \minimum 1
+       \maximum 12
+  N98, \field Start Day 25
+       \type integer
+       \minimum 1
+       \maximum 31
+  N99, \field End Month 25
+       \type integer
+       \minimum 1
+       \maximum 12
+ N100, \field End Day 25
+       \type integer
+       \minimum 1
+       \maximum 31
+  A28, \field Schedule:Week Name 26
+       \type object-list
+       \object-list WeekScheduleNames
+ N101, \field Start Month 26
+       \type integer
+       \minimum 1
+       \maximum 12
+ N102, \field Start Day 26
+       \type integer
+       \minimum 1
+       \maximum 31
+ N103, \field End Month 26
+       \type integer
+       \minimum 1
+       \maximum 12
+ N104, \field End Day 26
+       \type integer
+       \minimum 1
+       \maximum 31
+ \note Schedule:Week for Weeks 27-53 are condensed
+ A29,N105,N106,N107,N108, \note For Week  27
+ A30,N109,N110,N111,N112, \note For Week  28
+ A31,N113,N114,N115,N116, \note For Week  29
+ A32,N117,N118,N119,N120, \note For Week  30
+ A33,N121,N122,N123,N124, \note For Week  31
+ A34,N125,N126,N127,N128, \note For Week  32
+ A35,N129,N130,N131,N132, \note For Week  33
+ A36,N133,N134,N135,N136, \note For Week  34
+ A37,N137,N138,N139,N140, \note For Week  35
+ A38,N141,N142,N143,N144, \note For Week  36
+ A39,N145,N146,N147,N148, \note For Week  37
+ A40,N149,N150,N151,N152, \note For Week  38
+ A41,N153,N154,N155,N156, \note For Week  39
+ A42,N157,N158,N159,N160, \note For Week  40
+ A43,N161,N162,N163,N164, \note For Week  41
+ A44,N165,N166,N167,N168, \note For Week  42
+ A45,N169,N170,N171,N172, \note For Week  43
+ A46,N173,N174,N175,N176, \note For Week  44
+ A47,N177,N178,N179,N180, \note For Week  45
+ A48,N181,N182,N183,N184, \note For Week  46
+ A49,N185,N186,N187,N188, \note For Week  47
+ A50,N189,N190,N191,N192, \note For Week  48
+ A51,N193,N194,N195,N196, \note For Week  49
+ A52,N197,N198,N199,N200, \note For Week  50
+ A53,N201,N202,N203,N204, \note For Week  51
+ A54,N205,N206,N207,N208, \note For Week  52
+ A55,N209,N210,N211,N212; \note For Week  53
+
+Schedule:Compact,
+   \extensible:1 - repeat last field, remembering to remove ; from "inner" fields.
+   \min-fields 5
+   \memo Irregular object. Does not follow the usual definition for fields. Fields A3... are:
+   \memo Through: Date
+   \memo For: Applicable days (ref: Schedule:Week:Compact)
+   \memo Interpolate: Average/Linear/No (ref: Schedule:Day:Interval) -- optional, if not used will be "No"
+   \memo Until: <Time> (ref: Schedule:Day:Interval)
+   \memo <numeric value>
+   \memo words "Through","For","Interpolate","Until" must be included.
+   \format compactSchedule
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ScheduleNames
+  A2 , \field Schedule Type Limits Name
+       \type object-list
+       \object-list ScheduleTypeLimitsNames
+  A3 , \field Field 1
+       \begin-extensible
+  A4 , \field Field 2
+  A5 , \field Field 3
+  A6 , \field Field 4
+  A7 , \field Field 5
+  A8 , \field Field 6
+  A9 , \field Field 7
+  A10, \field Field 8
+  A11, \field Field 9
+  A12, \field Field 10
+  A13, \field Field 11
+  A14, \field Field 12
+  A15, \field Field 13
+  A16, \field Field 14
+  A17, \field Field 15
+  A18, \field Field 16
+  A19, \field Field 17
+  A20, \field Field 18
+  A21, \field Field 19
+  A22, \field Field 20
+  A23, \field Field 21
+  A24, \field Field 22
+  A25, \field Field 23
+  A26, \field Field 24
+  A27, \field Field 25
+  A28, \field Field 26
+  A29, \field Field 27
+  A30, \field Field 28
+  A31, \field Field 29
+  A32, \field Field 30
+  A33, \field Field 31
+  A34, \field Field 32
+  A35, \field Field 33
+  A36, \field Field 34
+  A37, \field Field 35
+  A38, \field Field 36
+  A39, \field Field 37
+  A40, \field Field 38
+  A41, \field Field 39
+  A42, \field Field 40
+  A43, \field Field 41
+  A44, \field Field 42
+  A45, \field Field 43
+  A46, \field Field 44
+  A47, \field Field 45
+  A48, \field Field 46
+  A49, \field Field 47
+  A50, \field Field 48
+  A51, \field Field 49
+  A52, \field Field 50
+  A53, \field Field 51
+  A54, \field Field 52
+  A55, \field Field 53
+  A56, \field Field 54
+  A57, \field Field 55
+  A58, \field Field 56
+  A59, \field Field 57
+  A60, \field Field 58
+  A61, \field Field 59
+  A62, \field Field 60
+  A63, \field Field 61
+  A64, \field Field 62
+  A65, \field Field 63
+  A66, \field Field 64
+  A67, \field Field 65
+  A68, \field Field 66
+  A69, \field Field 67
+  A70, \field Field 68
+  A71, \field Field 69
+  A72, \field Field 70
+  A73, \field Field 71
+  A74, \field Field 72
+  A75, \field Field 73
+  A76, \field Field 74
+  A77, \field Field 75
+  A78, \field Field 76
+  A79, \field Field 77
+  A80, \field Field 78
+  A81, \field Field 79
+  A82, \field Field 80
+  A83, \field Field 81
+  A84, \field Field 82
+  A85, \field Field 83
+  A86, \field Field 84
+  A87, \field Field 85
+  A88, \field Field 86
+  A89, \field Field 87
+  A90, \field Field 88
+  A91, \field Field 89
+  A92, \field Field 90
+  A93, \field Field 91
+  A94, \field Field 92
+  A95, \field Field 93
+  A96, \field Field 94
+  A97, \field Field 95
+  A98, \field Field 96
+  A99, \field Field 97
+  A100, \field Field 98
+  A101, \field Field 99
+  A102, \field Field 100
+  A103, \field Field 101
+  A104, \field Field 102
+  A105, \field Field 103
+  A106, \field Field 104
+  A107, \field Field 105
+  A108, \field Field 106
+  A109, \field Field 107
+  A110, \field Field 108
+  A111, \field Field 109
+  A112, \field Field 110
+  A113, \field Field 111
+  A114, \field Field 112
+  A115, \field Field 113
+  A116, \field Field 114
+  A117, \field Field 115
+  A118, \field Field 116
+  A119, \field Field 117
+  A120, \field Field 118
+  A121, \field Field 119
+  A122, \field Field 120
+  A123, \field Field 121
+  A124, \field Field 122
+  A125, \field Field 123
+  A126, \field Field 124
+  A127, \field Field 125
+  A128, \field Field 126
+  A129, \field Field 127
+  A130, \field Field 128
+  A131, \field Field 129
+  A132, \field Field 130
+  A133, \field Field 131
+  A134, \field Field 132
+  A135, \field Field 133
+  A136, \field Field 134
+  A137, \field Field 135
+  A138, \field Field 136
+  A139, \field Field 137
+  A140, \field Field 138
+  A141, \field Field 139
+  A142, \field Field 140
+  A143, \field Field 141
+  A144, \field Field 142
+  A145, \field Field 143
+  A146, \field Field 144
+  A147, \field Field 145
+  A148, \field Field 146
+  A149, \field Field 147
+  A150, \field Field 148
+  A151, \field Field 149
+  A152, \field Field 150
+  A153,A154,A155,A156,A157,A158,A159,A160, \note fields as indicated
+  A161,A162,A163,A164,A165,A166,A167,A168,A169,A170,A171,A172,A173,A174,A175,A176,A177,A178,A179,A180, \note fields as indicated
+  A181,A182,A183,A184,A185,A186,A187,A188,A189,A190,A191,A192,A193,A194,A195,A196,A197,A198,A199,A200, \note fields as indicated
+  A201,A202,A203,A204,A205,A206,A207,A208,A209,A210,A211,A212,A213,A214,A215,A216,A217,A218,A219,A220, \note fields as indicated
+  A221,A222,A223,A224,A225,A226,A227,A228,A229,A230,A231,A232,A233,A234,A235,A236,A237,A238,A239,A240, \note fields as indicated
+  A241,A242,A243,A244,A245,A246,A247,A248,A249,A250,A251,A252,A253,A254,A255,A256,A257,A258,A259,A260, \note fields as indicated
+  A261,A262,A263,A264,A265,A266,A267,A268,A269,A270,A271,A272,A273,A274,A275,A276,A277,A278,A279,A280, \note fields as indicated
+  A281,A282,A283,A284,A285,A286,A287,A288,A289,A290,A291,A292,A293,A294,A295,A296,A297,A298,A299,A300, \note fields as indicated
+  A301,A302,A303,A304,A305,A306,A307,A308,A309,A310,A311,A312,A313,A314,A315,A316,A317,A318,A319,A320, \note fields as indicated
+  A321,A322,A323,A324,A325,A326,A327,A328,A329,A330,A331,A332,A333,A334,A335,A336,A337,A338,A339,A340, \note fields as indicated
+  A341,A342,A343,A344,A345,A346,A347,A348,A349,A350,A351,A352,A353,A354,A355,A356,A357,A358,A359,A360, \note fields as indicated
+  A361,A362,A363,A364,A365,A366,A367,A368,A369,A370,A371,A372,A373,A374,A375,A376,A377,A378,A379,A380, \note fields as indicated
+  A381,A382,A383,A384,A385,A386,A387,A388,A389,A390,A391,A392,A393,A394,A395,A396,A397,A398,A399,A400, \note fields as indicated
+  A401,A402,A403,A404,A405,A406,A407,A408,A409,A410,A411,A412,A413,A414,A415,A416,A417,A418,A419,A420, \note fields as indicated
+  A421,A422,A423,A424,A425,A426,A427,A428,A429,A430,A431,A432,A433,A434,A435,A436,A437,A438,A439,A440, \note fields as indicated
+  A441,A442,A443,A444,A445,A446,A447,A448,A449,A450,A451,A452,A453,A454,A455,A456,A457,A458,A459,A460, \note fields as indicated
+  A461,A462,A463,A464,A465,A466,A467,A468,A469,A470,A471,A472,A473,A474,A475,A476,A477,A478,A479,A480, \note fields as indicated
+  A481,A482,A483,A484,A485,A486,A487,A488,A489,A490,A491,A492,A493,A494,A495,A496,A497,A498,A499,A500, \note fields as indicated
+  A501,A502,A503,A504,A505,A506,A507,A508,A509,A510,A511,A512,A513,A514,A515,A516,A517,A518,A519,A520, \note fields as indicated
+  A521,A522,A523,A524,A525,A526,A527,A528,A529,A530,A531,A532,A533,A534,A535,A536,A537,A538,A539,A540, \note fields as indicated
+  A541,A542,A543,A544,A545,A546,A547,A548,A549,A550,A551,A552,A553,A554,A555,A556,A557,A558,A559,A560, \note fields as indicated
+  A561,A562,A563,A564,A565,A566,A567,A568,A569,A570,A571,A572,A573,A574,A575,A576,A577,A578,A579,A580, \note fields as indicated
+  A581,A582,A583,A584,A585,A586,A587,A588,A589,A590,A591,A592,A593,A594,A595,A596,A597,A598,A599,A600, \note fields as indicated
+  A601,A602,A603,A604,A605,A606,A607,A608,A609,A610,A611,A612,A613,A614,A615,A616,A617,A618,A619,A620, \note fields as indicated
+  A621,A622,A623,A624,A625,A626,A627,A628,A629,A630,A631,A632,A633,A634,A635,A636,A637,A638,A639,A640, \note fields as indicated
+  A641,A642,A643,A644,A645,A646,A647,A648,A649,A650,A651,A652,A653,A654,A655,A656,A657,A658,A659,A660, \note fields as indicated
+  A661,A662,A663,A664,A665,A666,A667,A668,A669,A670,A671,A672,A673,A674,A675,A676,A677,A678,A679,A680, \note fields as indicated
+  A681,A682,A683,A684,A685,A686,A687,A688,A689,A690,A691,A692,A693,A694,A695,A696,A697,A698,A699,A700, \note fields as indicated
+  A701,A702,A703,A704,A705,A706,A707,A708,A709,A710,A711,A712,A713,A714,A715,A716,A717,A718,A719,A720, \note fields as indicated
+  A721,A722,A723,A724,A725,A726,A727,A728,A729,A730,A731,A732,A733,A734,A735,A736,A737,A738,A739,A740, \note fields as indicated
+  A741,A742,A743,A744,A745,A746,A747,A748,A749,A750,A751,A752,A753,A754,A755,A756,A757,A758,A759,A760, \note fields as indicated
+  A761,A762,A763,A764,A765,A766,A767,A768,A769,A770,A771,A772,A773,A774,A775,A776,A777,A778,A779,A780, \note fields as indicated
+  A781,A782,A783,A784,A785,A786,A787,A788,A789,A790,A791,A792,A793,A794,A795,A796,A797,A798,A799,A800, \note fields as indicated
+  A801,A802,A803,A804,A805,A806,A807,A808,A809,A810,A811,A812,A813,A814,A815,A816,A817,A818,A819,A820, \note fields as indicated
+  A821,A822,A823,A824,A825,A826,A827,A828,A829,A830,A831,A832,A833,A834,A835,A836,A837,A838,A839,A840, \note fields as indicated
+  A841,A842,A843,A844,A845,A846,A847,A848,A849,A850,A851,A852,A853,A854,A855,A856,A857,A858,A859,A860, \note fields as indicated
+  A861,A862,A863,A864,A865,A866,A867,A868,A869,A870,A871,A872,A873,A874,A875,A876,A877,A878,A879,A880, \note fields as indicated
+  A881,A882,A883,A884,A885,A886,A887,A888,A889,A890,A891,A892,A893,A894,A895,A896,A897,A898,A899,A900, \note fields as indicated
+  A901,A902,A903,A904,A905,A906,A907,A908,A909,A910,A911,A912,A913,A914,A915,A916,A917,A918,A919,A920, \note fields as indicated
+  A921,A922,A923,A924,A925,A926,A927,A928,A929,A930,A931,A932,A933,A934,A935,A936,A937,A938,A939,A940, \note fields as indicated
+  A941,A942,A943,A944,A945,A946,A947,A948,A949,A950,A951,A952,A953,A954,A955,A956,A957,A958,A959,A960, \note fields as indicated
+  A961,A962,A963,A964,A965,A966,A967,A968,A969,A970,A971,A972,A973,A974,A975,A976,A977,A978,A979,A980, \note fields as indicated
+  A981,A982,A983,A984,A985,A986,A987,A988,A989,A990,A991,A992,A993,A994,A995,A996,A997,A998,A999,A1000, \note fields as indicated
+  A1001,A1002,A1003,A1004,A1005,A1006,A1007,A1008,A1009,A1010,A1011,A1012,A1013,A1014,A1015,A1016,A1017,A1018,A1019,A1020, \note fields as indicated
+  A1021,A1022,A1023,A1024,A1025,A1026,A1027,A1028,A1029,A1030,A1031,A1032,A1033,A1034,A1035,A1036,A1037,A1038,A1039,A1040, \note fields as indicated
+  A1041,A1042,A1043,A1044,A1045,A1046,A1047,A1048,A1049,A1050,A1051,A1052,A1053,A1054,A1055,A1056,A1057,A1058,A1059,A1060, \note fields as indicated
+  A1061,A1062,A1063,A1064,A1065,A1066,A1067,A1068,A1069,A1070,A1071,A1072,A1073,A1074,A1075,A1076,A1077,A1078,A1079,A1080, \note fields as indicated
+  A1081,A1082,A1083,A1084,A1085,A1086,A1087,A1088,A1089,A1090,A1091,A1092,A1093,A1094,A1095,A1096,A1097,A1098,A1099,A1100, \note fields as indicated
+  A1101,A1102,A1103,A1104,A1105,A1106,A1107,A1108,A1109,A1110,A1111,A1112,A1113,A1114,A1115,A1116,A1117,A1118,A1119,A1120, \note fields as indicated
+  A1121,A1122,A1123,A1124,A1125,A1126,A1127,A1128,A1129,A1130,A1131,A1132,A1133,A1134,A1135,A1136,A1137,A1138,A1139,A1140, \note fields as indicated
+  A1141,A1142,A1143,A1144,A1145,A1146,A1147,A1148,A1149,A1150,A1151,A1152,A1153,A1154,A1155,A1156,A1157,A1158,A1159,A1160, \note fields as indicated
+  A1161,A1162,A1163,A1164,A1165,A1166,A1167,A1168,A1169,A1170,A1171,A1172,A1173,A1174,A1175,A1176,A1177,A1178,A1179,A1180, \note fields as indicated
+  A1181,A1182,A1183,A1184,A1185,A1186,A1187,A1188,A1189,A1190,A1191,A1192,A1193,A1194,A1195,A1196,A1197,A1198,A1199,A1200, \note fields as indicated
+  A1201,A1202,A1203,A1204,A1205,A1206,A1207,A1208,A1209,A1210,A1211,A1212,A1213,A1214,A1215,A1216,A1217,A1218,A1219,A1220, \note fields as indicated
+  A1221,A1222,A1223,A1224,A1225,A1226,A1227,A1228,A1229,A1230,A1231,A1232,A1233,A1234,A1235,A1236,A1237,A1238,A1239,A1240, \note fields as indicated
+  A1241,A1242,A1243,A1244,A1245,A1246,A1247,A1248,A1249,A1250,A1251,A1252,A1253,A1254,A1255,A1256,A1257,A1258,A1259,A1260, \note fields as indicated
+  A1261,A1262,A1263,A1264,A1265,A1266,A1267,A1268,A1269,A1270,A1271,A1272,A1273,A1274,A1275,A1276,A1277,A1278,A1279,A1280, \note fields as indicated
+  A1281,A1282,A1283,A1284,A1285,A1286,A1287,A1288,A1289,A1290,A1291,A1292,A1293,A1294,A1295,A1296,A1297,A1298,A1299,A1300, \note fields as indicated
+  A1301,A1302,A1303,A1304,A1305,A1306,A1307,A1308,A1309,A1310,A1311,A1312,A1313,A1314,A1315,A1316,A1317,A1318,A1319,A1320, \note fields as indicated
+  A1321,A1322,A1323,A1324,A1325,A1326,A1327,A1328,A1329,A1330,A1331,A1332,A1333,A1334,A1335,A1336,A1337,A1338,A1339,A1340, \note fields as indicated
+  A1341,A1342,A1343,A1344,A1345,A1346,A1347,A1348,A1349,A1350,A1351,A1352,A1353,A1354,A1355,A1356,A1357,A1358,A1359,A1360, \note fields as indicated
+  A1361,A1362,A1363,A1364,A1365,A1366,A1367,A1368,A1369,A1370,A1371,A1372,A1373,A1374,A1375,A1376,A1377,A1378,A1379,A1380, \note fields as indicated
+  A1381,A1382,A1383,A1384,A1385,A1386,A1387,A1388,A1389,A1390,A1391,A1392,A1393,A1394,A1395,A1396,A1397,A1398,A1399,A1400, \note fields as indicated
+  A1401,A1402,A1403,A1404,A1405,A1406,A1407,A1408,A1409,A1410,A1411,A1412,A1413,A1414,A1415,A1416,A1417,A1418,A1419,A1420, \note fields as indicated
+  A1421,A1422,A1423,A1424,A1425,A1426,A1427,A1428,A1429,A1430,A1431,A1432,A1433,A1434,A1435,A1436,A1437,A1438,A1439,A1440, \note fields as indicated
+  A1441,A1442,A1443,A1444,A1445,A1446,A1447,A1448,A1449,A1450,A1451,A1452,A1453,A1454,A1455,A1456,A1457,A1458,A1459,A1460, \note fields as indicated
+  A1461,A1462,A1463,A1464,A1465,A1466,A1467,A1468,A1469,A1470,A1471,A1472,A1473,A1474,A1475,A1476,A1477,A1478,A1479,A1480, \note fields as indicated
+  A1481,A1482,A1483,A1484,A1485,A1486,A1487,A1488,A1489,A1490,A1491,A1492,A1493,A1494,A1495,A1496,A1497,A1498,A1499,A1500, \note fields as indicated
+  A1501,A1502,A1503,A1504,A1505,A1506,A1507,A1508,A1509,A1510,A1511,A1512,A1513,A1514,A1515,A1516,A1517,A1518,A1519,A1520, \note fields as indicated
+  A1521,A1522,A1523,A1524,A1525,A1526,A1527,A1528,A1529,A1530,A1531,A1532,A1533,A1534,A1535,A1536,A1537,A1538,A1539,A1540, \note fields as indicated
+  A1541,A1542,A1543,A1544,A1545,A1546,A1547,A1548,A1549,A1550,A1551,A1552,A1553,A1554,A1555,A1556,A1557,A1558,A1559,A1560, \note fields as indicated
+  A1561,A1562,A1563,A1564,A1565,A1566,A1567,A1568,A1569,A1570,A1571,A1572,A1573,A1574,A1575,A1576,A1577,A1578,A1579,A1580, \note fields as indicated
+  A1581,A1582,A1583,A1584,A1585,A1586,A1587,A1588,A1589,A1590,A1591,A1592,A1593,A1594,A1595,A1596,A1597,A1598,A1599,A1600, \note fields as indicated
+  A1601,A1602,A1603,A1604,A1605,A1606,A1607,A1608,A1609,A1610,A1611,A1612,A1613,A1614,A1615,A1616,A1617,A1618,A1619,A1620, \note fields as indicated
+  A1621,A1622,A1623,A1624,A1625,A1626,A1627,A1628,A1629,A1630,A1631,A1632,A1633,A1634,A1635,A1636,A1637,A1638,A1639,A1640, \note fields as indicated
+  A1641,A1642,A1643,A1644,A1645,A1646,A1647,A1648,A1649,A1650,A1651,A1652,A1653,A1654,A1655,A1656,A1657,A1658,A1659,A1660, \note fields as indicated
+  A1661,A1662,A1663,A1664,A1665,A1666,A1667,A1668,A1669,A1670,A1671,A1672,A1673,A1674,A1675,A1676,A1677,A1678,A1679,A1680, \note fields as indicated
+  A1681,A1682,A1683,A1684,A1685,A1686,A1687,A1688,A1689,A1690,A1691,A1692,A1693,A1694,A1695,A1696,A1697,A1698,A1699,A1700, \note fields as indicated
+  A1701,A1702,A1703,A1704,A1705,A1706,A1707,A1708,A1709,A1710,A1711,A1712,A1713,A1714,A1715,A1716,A1717,A1718,A1719,A1720, \note fields as indicated
+  A1721,A1722,A1723,A1724,A1725,A1726,A1727,A1728,A1729,A1730,A1731,A1732,A1733,A1734,A1735,A1736,A1737,A1738,A1739,A1740, \note fields as indicated
+  A1741,A1742,A1743,A1744,A1745,A1746,A1747,A1748,A1749,A1750,A1751,A1752,A1753,A1754,A1755,A1756,A1757,A1758,A1759,A1760, \note fields as indicated
+  A1761,A1762,A1763,A1764,A1765,A1766,A1767,A1768,A1769,A1770,A1771,A1772,A1773,A1774,A1775,A1776,A1777,A1778,A1779,A1780, \note fields as indicated
+  A1781,A1782,A1783,A1784,A1785,A1786,A1787,A1788,A1789,A1790,A1791,A1792,A1793,A1794,A1795,A1796,A1797,A1798,A1799,A1800, \note fields as indicated
+  A1801,A1802,A1803,A1804,A1805,A1806,A1807,A1808,A1809,A1810,A1811,A1812,A1813,A1814,A1815,A1816,A1817,A1818,A1819,A1820, \note fields as indicated
+  A1821,A1822,A1823,A1824,A1825,A1826,A1827,A1828,A1829,A1830,A1831,A1832,A1833,A1834,A1835,A1836,A1837,A1838,A1839,A1840, \note fields as indicated
+  A1841,A1842,A1843,A1844,A1845,A1846,A1847,A1848,A1849,A1850,A1851,A1852,A1853,A1854,A1855,A1856,A1857,A1858,A1859,A1860, \note fields as indicated
+  A1861,A1862,A1863,A1864,A1865,A1866,A1867,A1868,A1869,A1870,A1871,A1872,A1873,A1874,A1875,A1876,A1877,A1878,A1879,A1880, \note fields as indicated
+  A1881,A1882,A1883,A1884,A1885,A1886,A1887,A1888,A1889,A1890,A1891,A1892,A1893,A1894,A1895,A1896,A1897,A1898,A1899,A1900, \note fields as indicated
+  A1901,A1902,A1903,A1904,A1905,A1906,A1907,A1908,A1909,A1910,A1911,A1912,A1913,A1914,A1915,A1916,A1917,A1918,A1919,A1920, \note fields as indicated
+  A1921,A1922,A1923,A1924,A1925,A1926,A1927,A1928,A1929,A1930,A1931,A1932,A1933,A1934,A1935,A1936,A1937,A1938,A1939,A1940, \note fields as indicated
+  A1941,A1942,A1943,A1944,A1945,A1946,A1947,A1948,A1949,A1950,A1951,A1952,A1953,A1954,A1955,A1956,A1957,A1958,A1959,A1960, \note fields as indicated
+  A1961,A1962,A1963,A1964,A1965,A1966,A1967,A1968,A1969,A1970,A1971,A1972,A1973,A1974,A1975,A1976,A1977,A1978,A1979,A1980, \note fields as indicated
+  A1981,A1982,A1983,A1984,A1985,A1986,A1987,A1988,A1989,A1990,A1991,A1992,A1993,A1994,A1995,A1996,A1997,A1998,A1999,A2000, \note fields as indicated
+  A2001,A2002,A2003,A2004,A2005,A2006,A2007,A2008,A2009,A2010,A2011,A2012,A2013,A2014,A2015,A2016,A2017,A2018,A2019,A2020, \note fields as indicated
+  A2021,A2022,A2023,A2024,A2025,A2026,A2027,A2028,A2029,A2030,A2031,A2032,A2033,A2034,A2035,A2036,A2037,A2038,A2039,A2040, \note fields as indicated
+  A2041,A2042,A2043,A2044,A2045,A2046,A2047,A2048,A2049,A2050,A2051,A2052,A2053,A2054,A2055,A2056,A2057,A2058,A2059,A2060, \note fields as indicated
+  A2061,A2062,A2063,A2064,A2065,A2066,A2067,A2068,A2069,A2070,A2071,A2072,A2073,A2074,A2075,A2076,A2077,A2078,A2079,A2080, \note fields as indicated
+  A2081,A2082,A2083,A2084,A2085,A2086,A2087,A2088,A2089,A2090,A2091,A2092,A2093,A2094,A2095,A2096,A2097,A2098,A2099,A2100, \note fields as indicated
+  A2101,A2102,A2103,A2104,A2105,A2106,A2107,A2108,A2109,A2110,A2111,A2112,A2113,A2114,A2115,A2116,A2117,A2118,A2119,A2120, \note fields as indicated
+  A2121,A2122,A2123,A2124,A2125,A2126,A2127,A2128,A2129,A2130,A2131,A2132,A2133,A2134,A2135,A2136,A2137,A2138,A2139,A2140, \note fields as indicated
+  A2141,A2142,A2143,A2144,A2145,A2146,A2147,A2148,A2149,A2150,A2151,A2152,A2153,A2154,A2155,A2156,A2157,A2158,A2159,A2160, \note fields as indicated
+  A2161,A2162,A2163,A2164,A2165,A2166,A2167,A2168,A2169,A2170,A2171,A2172,A2173,A2174,A2175,A2176,A2177,A2178,A2179,A2180, \note fields as indicated
+  A2181,A2182,A2183,A2184,A2185,A2186,A2187,A2188,A2189,A2190,A2191,A2192,A2193,A2194,A2195,A2196,A2197,A2198,A2199,A2200, \note fields as indicated
+  A2201,A2202,A2203,A2204,A2205,A2206,A2207,A2208,A2209,A2210,A2211,A2212,A2213,A2214,A2215,A2216,A2217,A2218,A2219,A2220, \note fields as indicated
+  A2221,A2222,A2223,A2224,A2225,A2226,A2227,A2228,A2229,A2230,A2231,A2232,A2233,A2234,A2235,A2236,A2237,A2238,A2239,A2240, \note fields as indicated
+  A2241,A2242,A2243,A2244,A2245,A2246,A2247,A2248,A2249,A2250,A2251,A2252,A2253,A2254,A2255,A2256,A2257,A2258,A2259,A2260, \note fields as indicated
+  A2261,A2262,A2263,A2264,A2265,A2266,A2267,A2268,A2269,A2270,A2271,A2272,A2273,A2274,A2275,A2276,A2277,A2278,A2279,A2280, \note fields as indicated
+  A2281,A2282,A2283,A2284,A2285,A2286,A2287,A2288,A2289,A2290,A2291,A2292,A2293,A2294,A2295,A2296,A2297,A2298,A2299,A2300, \note fields as indicated
+  A2301,A2302,A2303,A2304,A2305,A2306,A2307,A2308,A2309,A2310,A2311,A2312,A2313,A2314,A2315,A2316,A2317,A2318,A2319,A2320, \note fields as indicated
+  A2321,A2322,A2323,A2324,A2325,A2326,A2327,A2328,A2329,A2330,A2331,A2332,A2333,A2334,A2335,A2336,A2337,A2338,A2339,A2340, \note fields as indicated
+  A2341,A2342,A2343,A2344,A2345,A2346,A2347,A2348,A2349,A2350,A2351,A2352,A2353,A2354,A2355,A2356,A2357,A2358,A2359,A2360, \note fields as indicated
+  A2361,A2362,A2363,A2364,A2365,A2366,A2367,A2368,A2369,A2370,A2371,A2372,A2373,A2374,A2375,A2376,A2377,A2378,A2379,A2380, \note fields as indicated
+  A2381,A2382,A2383,A2384,A2385,A2386,A2387,A2388,A2389,A2390,A2391,A2392,A2393,A2394,A2395,A2396,A2397,A2398,A2399,A2400, \note fields as indicated
+  A2401,A2402,A2403,A2404,A2405,A2406,A2407,A2408,A2409,A2410,A2411,A2412,A2413,A2414,A2415,A2416,A2417,A2418,A2419,A2420, \note fields as indicated
+  A2421,A2422,A2423,A2424,A2425,A2426,A2427,A2428,A2429,A2430,A2431,A2432,A2433,A2434,A2435,A2436,A2437,A2438,A2439,A2440, \note fields as indicated
+  A2441,A2442,A2443,A2444,A2445,A2446,A2447,A2448,A2449,A2450,A2451,A2452,A2453,A2454,A2455,A2456,A2457,A2458,A2459,A2460, \note fields as indicated
+  A2461,A2462,A2463,A2464,A2465,A2466,A2467,A2468,A2469,A2470,A2471,A2472,A2473,A2474,A2475,A2476,A2477,A2478,A2479,A2480, \note fields as indicated
+  A2481,A2482,A2483,A2484,A2485,A2486,A2487,A2488,A2489,A2490,A2491,A2492,A2493,A2494,A2495,A2496,A2497,A2498,A2499,A2500, \note fields as indicated
+  A2501,A2502,A2503,A2504,A2505,A2506,A2507,A2508,A2509,A2510,A2511,A2512,A2513,A2514,A2515,A2516,A2517,A2518,A2519,A2520, \note fields as indicated
+  A2521,A2522,A2523,A2524,A2525,A2526,A2527,A2528,A2529,A2530,A2531,A2532,A2533,A2534,A2535,A2536,A2537,A2538,A2539,A2540, \note fields as indicated
+  A2541,A2542,A2543,A2544,A2545,A2546,A2547,A2548,A2549,A2550,A2551,A2552,A2553,A2554,A2555,A2556,A2557,A2558,A2559,A2560, \note fields as indicated
+  A2561,A2562,A2563,A2564,A2565,A2566,A2567,A2568,A2569,A2570,A2571,A2572,A2573,A2574,A2575,A2576,A2577,A2578,A2579,A2580, \note fields as indicated
+  A2581,A2582,A2583,A2584,A2585,A2586,A2587,A2588,A2589,A2590,A2591,A2592,A2593,A2594,A2595,A2596,A2597,A2598,A2599,A2600, \note fields as indicated
+  A2601,A2602,A2603,A2604,A2605,A2606,A2607,A2608,A2609,A2610,A2611,A2612,A2613,A2614,A2615,A2616,A2617,A2618,A2619,A2620, \note fields as indicated
+  A2621,A2622,A2623,A2624,A2625,A2626,A2627,A2628,A2629,A2630,A2631,A2632,A2633,A2634,A2635,A2636,A2637,A2638,A2639,A2640, \note fields as indicated
+  A2641,A2642,A2643,A2644,A2645,A2646,A2647,A2648,A2649,A2650,A2651,A2652,A2653,A2654,A2655,A2656,A2657,A2658,A2659,A2660, \note fields as indicated
+  A2661,A2662,A2663,A2664,A2665,A2666,A2667,A2668,A2669,A2670,A2671,A2672,A2673,A2674,A2675,A2676,A2677,A2678,A2679,A2680, \note fields as indicated
+  A2681,A2682,A2683,A2684,A2685,A2686,A2687,A2688,A2689,A2690,A2691,A2692,A2693,A2694,A2695,A2696,A2697,A2698,A2699,A2700, \note fields as indicated
+  A2701,A2702,A2703,A2704,A2705,A2706,A2707,A2708,A2709,A2710,A2711,A2712,A2713,A2714,A2715,A2716,A2717,A2718,A2719,A2720, \note fields as indicated
+  A2721,A2722,A2723,A2724,A2725,A2726,A2727,A2728,A2729,A2730,A2731,A2732,A2733,A2734,A2735,A2736,A2737,A2738,A2739,A2740, \note fields as indicated
+  A2741,A2742,A2743,A2744,A2745,A2746,A2747,A2748,A2749,A2750,A2751,A2752,A2753,A2754,A2755,A2756,A2757,A2758,A2759,A2760, \note fields as indicated
+  A2761,A2762,A2763,A2764,A2765,A2766,A2767,A2768,A2769,A2770,A2771,A2772,A2773,A2774,A2775,A2776,A2777,A2778,A2779,A2780, \note fields as indicated
+  A2781,A2782,A2783,A2784,A2785,A2786,A2787,A2788,A2789,A2790,A2791,A2792,A2793,A2794,A2795,A2796,A2797,A2798,A2799,A2800, \note fields as indicated
+  A2801,A2802,A2803,A2804,A2805,A2806,A2807,A2808,A2809,A2810,A2811,A2812,A2813,A2814,A2815,A2816,A2817,A2818,A2819,A2820, \note fields as indicated
+  A2821,A2822,A2823,A2824,A2825,A2826,A2827,A2828,A2829,A2830,A2831,A2832,A2833,A2834,A2835,A2836,A2837,A2838,A2839,A2840, \note fields as indicated
+  A2841,A2842,A2843,A2844,A2845,A2846,A2847,A2848,A2849,A2850,A2851,A2852,A2853,A2854,A2855,A2856,A2857,A2858,A2859,A2860, \note fields as indicated
+  A2861,A2862,A2863,A2864,A2865,A2866,A2867,A2868,A2869,A2870,A2871,A2872,A2873,A2874,A2875,A2876,A2877,A2878,A2879,A2880, \note fields as indicated
+  A2881,A2882,A2883,A2884,A2885,A2886,A2887,A2888,A2889,A2890,A2891,A2892,A2893,A2894,A2895,A2896,A2897,A2898,A2899,A2900, \note fields as indicated
+  A2901,A2902,A2903,A2904,A2905,A2906,A2907,A2908,A2909,A2910,A2911,A2912,A2913,A2914,A2915,A2916,A2917,A2918,A2919,A2920, \note fields as indicated
+  A2921,A2922,A2923,A2924,A2925,A2926,A2927,A2928,A2929,A2930,A2931,A2932,A2933,A2934,A2935,A2936,A2937,A2938,A2939,A2940, \note fields as indicated
+  A2941,A2942,A2943,A2944,A2945,A2946,A2947,A2948,A2949,A2950,A2951,A2952,A2953,A2954,A2955,A2956,A2957,A2958,A2959,A2960, \note fields as indicated
+  A2961,A2962,A2963,A2964,A2965,A2966,A2967,A2968,A2969,A2970,A2971,A2972,A2973,A2974,A2975,A2976,A2977,A2978,A2979,A2980, \note fields as indicated
+  A2981,A2982,A2983,A2984,A2985,A2986,A2987,A2988,A2989,A2990,A2991,A2992,A2993,A2994,A2995,A2996,A2997,A2998,A2999,A3000, \note fields as indicated
+  A3001,A3002,A3003,A3004,A3005,A3006,A3007,A3008,A3009,A3010,A3011,A3012,A3013,A3014,A3015,A3016,A3017,A3018,A3019,A3020, \note fields as indicated
+  A3021,A3022,A3023,A3024,A3025,A3026,A3027,A3028,A3029,A3030,A3031,A3032,A3033,A3034,A3035,A3036,A3037,A3038,A3039,A3040, \note fields as indicated
+  A3041,A3042,A3043,A3044,A3045,A3046,A3047,A3048,A3049,A3050,A3051,A3052,A3053,A3054,A3055,A3056,A3057,A3058,A3059,A3060, \note fields as indicated
+  A3061,A3062,A3063,A3064,A3065,A3066,A3067,A3068,A3069,A3070,A3071,A3072,A3073,A3074,A3075,A3076,A3077,A3078,A3079,A3080, \note fields as indicated
+  A3081,A3082,A3083,A3084,A3085,A3086,A3087,A3088,A3089,A3090,A3091,A3092,A3093,A3094,A3095,A3096,A3097,A3098,A3099,A3100, \note fields as indicated
+  A3101,A3102,A3103,A3104,A3105,A3106,A3107,A3108,A3109,A3110,A3111,A3112,A3113,A3114,A3115,A3116,A3117,A3118,A3119,A3120, \note fields as indicated
+  A3121,A3122,A3123,A3124,A3125,A3126,A3127,A3128,A3129,A3130,A3131,A3132,A3133,A3134,A3135,A3136,A3137,A3138,A3139,A3140, \note fields as indicated
+  A3141,A3142,A3143,A3144,A3145,A3146,A3147,A3148,A3149,A3150,A3151,A3152,A3153,A3154,A3155,A3156,A3157,A3158,A3159,A3160, \note fields as indicated
+  A3161,A3162,A3163,A3164,A3165,A3166,A3167,A3168,A3169,A3170,A3171,A3172,A3173,A3174,A3175,A3176,A3177,A3178,A3179,A3180, \note fields as indicated
+  A3181,A3182,A3183,A3184,A3185,A3186,A3187,A3188,A3189,A3190,A3191,A3192,A3193,A3194,A3195,A3196,A3197,A3198,A3199,A3200, \note fields as indicated
+  A3201,A3202,A3203,A3204,A3205,A3206,A3207,A3208,A3209,A3210,A3211,A3212,A3213,A3214,A3215,A3216,A3217,A3218,A3219,A3220, \note fields as indicated
+  A3221,A3222,A3223,A3224,A3225,A3226,A3227,A3228,A3229,A3230,A3231,A3232,A3233,A3234,A3235,A3236,A3237,A3238,A3239,A3240, \note fields as indicated
+  A3241,A3242,A3243,A3244,A3245,A3246,A3247,A3248,A3249,A3250,A3251,A3252,A3253,A3254,A3255,A3256,A3257,A3258,A3259,A3260, \note fields as indicated
+  A3261,A3262,A3263,A3264,A3265,A3266,A3267,A3268,A3269,A3270,A3271,A3272,A3273,A3274,A3275,A3276,A3277,A3278,A3279,A3280, \note fields as indicated
+  A3281,A3282,A3283,A3284,A3285,A3286,A3287,A3288,A3289,A3290,A3291,A3292,A3293,A3294,A3295,A3296,A3297,A3298,A3299,A3300, \note fields as indicated
+  A3301,A3302,A3303,A3304,A3305,A3306,A3307,A3308,A3309,A3310,A3311,A3312,A3313,A3314,A3315,A3316,A3317,A3318,A3319,A3320, \note fields as indicated
+  A3321,A3322,A3323,A3324,A3325,A3326,A3327,A3328,A3329,A3330,A3331,A3332,A3333,A3334,A3335,A3336,A3337,A3338,A3339,A3340, \note fields as indicated
+  A3341,A3342,A3343,A3344,A3345,A3346,A3347,A3348,A3349,A3350,A3351,A3352,A3353,A3354,A3355,A3356,A3357,A3358,A3359,A3360, \note fields as indicated
+  A3361,A3362,A3363,A3364,A3365,A3366,A3367,A3368,A3369,A3370,A3371,A3372,A3373,A3374,A3375,A3376,A3377,A3378,A3379,A3380, \note fields as indicated
+  A3381,A3382,A3383,A3384,A3385,A3386,A3387,A3388,A3389,A3390,A3391,A3392,A3393,A3394,A3395,A3396,A3397,A3398,A3399,A3400, \note fields as indicated
+  A3401,A3402,A3403,A3404,A3405,A3406,A3407,A3408,A3409,A3410,A3411,A3412,A3413,A3414,A3415,A3416,A3417,A3418,A3419,A3420, \note fields as indicated
+  A3421,A3422,A3423,A3424,A3425,A3426,A3427,A3428,A3429,A3430,A3431,A3432,A3433,A3434,A3435,A3436,A3437,A3438,A3439,A3440, \note fields as indicated
+  A3441,A3442,A3443,A3444,A3445,A3446,A3447,A3448,A3449,A3450,A3451,A3452,A3453,A3454,A3455,A3456,A3457,A3458,A3459,A3460, \note fields as indicated
+  A3461,A3462,A3463,A3464,A3465,A3466,A3467,A3468,A3469,A3470,A3471,A3472,A3473,A3474,A3475,A3476,A3477,A3478,A3479,A3480, \note fields as indicated
+  A3481,A3482,A3483,A3484,A3485,A3486,A3487,A3488,A3489,A3490,A3491,A3492,A3493,A3494,A3495,A3496,A3497,A3498,A3499,A3500, \note fields as indicated
+  A3501,A3502,A3503,A3504,A3505,A3506,A3507,A3508,A3509,A3510,A3511,A3512,A3513,A3514,A3515,A3516,A3517,A3518,A3519,A3520, \note fields as indicated
+  A3521,A3522,A3523,A3524,A3525,A3526,A3527,A3528,A3529,A3530,A3531,A3532,A3533,A3534,A3535,A3536,A3537,A3538,A3539,A3540, \note fields as indicated
+  A3541,A3542,A3543,A3544,A3545,A3546,A3547,A3548,A3549,A3550,A3551,A3552,A3553,A3554,A3555,A3556,A3557,A3558,A3559,A3560, \note fields as indicated
+  A3561,A3562,A3563,A3564,A3565,A3566,A3567,A3568,A3569,A3570,A3571,A3572,A3573,A3574,A3575,A3576,A3577,A3578,A3579,A3580, \note fields as indicated
+  A3581,A3582,A3583,A3584,A3585,A3586,A3587,A3588,A3589,A3590,A3591,A3592,A3593,A3594,A3595,A3596,A3597,A3598,A3599,A3600, \note fields as indicated
+  A3601,A3602,A3603,A3604,A3605,A3606,A3607,A3608,A3609,A3610,A3611,A3612,A3613,A3614,A3615,A3616,A3617,A3618,A3619,A3620, \note fields as indicated
+  A3621,A3622,A3623,A3624,A3625,A3626,A3627,A3628,A3629,A3630,A3631,A3632,A3633,A3634,A3635,A3636,A3637,A3638,A3639,A3640, \note fields as indicated
+  A3641,A3642,A3643,A3644,A3645,A3646,A3647,A3648,A3649,A3650,A3651,A3652,A3653,A3654,A3655,A3656,A3657,A3658,A3659,A3660, \note fields as indicated
+  A3661,A3662,A3663,A3664,A3665,A3666,A3667,A3668,A3669,A3670,A3671,A3672,A3673,A3674,A3675,A3676,A3677,A3678,A3679,A3680, \note fields as indicated
+  A3681,A3682,A3683,A3684,A3685,A3686,A3687,A3688,A3689,A3690,A3691,A3692,A3693,A3694,A3695,A3696,A3697,A3698,A3699,A3700, \note fields as indicated
+  A3701,A3702,A3703,A3704,A3705,A3706,A3707,A3708,A3709,A3710,A3711,A3712,A3713,A3714,A3715,A3716,A3717,A3718,A3719,A3720, \note fields as indicated
+  A3721,A3722,A3723,A3724,A3725,A3726,A3727,A3728,A3729,A3730,A3731,A3732,A3733,A3734,A3735,A3736,A3737,A3738,A3739,A3740, \note fields as indicated
+  A3741,A3742,A3743,A3744,A3745,A3746,A3747,A3748,A3749,A3750,A3751,A3752,A3753,A3754,A3755,A3756,A3757,A3758,A3759,A3760, \note fields as indicated
+  A3761,A3762,A3763,A3764,A3765,A3766,A3767,A3768,A3769,A3770,A3771,A3772,A3773,A3774,A3775,A3776,A3777,A3778,A3779,A3780, \note fields as indicated
+  A3781,A3782,A3783,A3784,A3785,A3786,A3787,A3788,A3789,A3790,A3791,A3792,A3793,A3794,A3795,A3796,A3797,A3798,A3799,A3800, \note fields as indicated
+  A3801,A3802,A3803,A3804,A3805,A3806,A3807,A3808,A3809,A3810,A3811,A3812,A3813,A3814,A3815,A3816,A3817,A3818,A3819,A3820, \note fields as indicated
+  A3821,A3822,A3823,A3824,A3825,A3826,A3827,A3828,A3829,A3830,A3831,A3832,A3833,A3834,A3835,A3836,A3837,A3838,A3839,A3840, \note fields as indicated
+  A3841,A3842,A3843,A3844,A3845,A3846,A3847,A3848,A3849,A3850,A3851,A3852,A3853,A3854,A3855,A3856,A3857,A3858,A3859,A3860, \note fields as indicated
+  A3861,A3862,A3863,A3864,A3865,A3866,A3867,A3868,A3869,A3870,A3871,A3872,A3873,A3874,A3875,A3876,A3877,A3878,A3879,A3880, \note fields as indicated
+  A3881,A3882,A3883,A3884,A3885,A3886,A3887,A3888,A3889,A3890,A3891,A3892,A3893,A3894,A3895,A3896,A3897,A3898,A3899,A3900, \note fields as indicated
+  A3901,A3902,A3903,A3904,A3905,A3906,A3907,A3908,A3909,A3910,A3911,A3912,A3913,A3914,A3915,A3916,A3917,A3918,A3919,A3920, \note fields as indicated
+  A3921,A3922,A3923,A3924,A3925,A3926,A3927,A3928,A3929,A3930,A3931,A3932,A3933,A3934,A3935,A3936,A3937,A3938,A3939,A3940, \note fields as indicated
+  A3941,A3942,A3943,A3944,A3945,A3946,A3947,A3948,A3949,A3950,A3951,A3952,A3953,A3954,A3955,A3956,A3957,A3958,A3959,A3960, \note fields as indicated
+  A3961,A3962,A3963,A3964,A3965,A3966,A3967,A3968,A3969,A3970,A3971,A3972,A3973,A3974,A3975,A3976,A3977,A3978,A3979,A3980, \note fields as indicated
+  A3981,A3982,A3983,A3984,A3985,A3986,A3987,A3988,A3989,A3990,A3991,A3992,A3993,A3994,A3995,A3996,A3997,A3998,A3999,A4000, \note fields as indicated
+  A4001,A4002,A4003,A4004,A4005,A4006,A4007,A4008,A4009,A4010,A4011,A4012,A4013,A4014,A4015,A4016,A4017,A4018,A4019,A4020, \note fields as indicated
+  A4021,A4022,A4023,A4024,A4025,A4026,A4027,A4028,A4029,A4030,A4031,A4032,A4033,A4034,A4035,A4036,A4037,A4038,A4039,A4040, \note fields as indicated
+  A4041,A4042,A4043,A4044,A4045,A4046,A4047,A4048,A4049,A4050,A4051,A4052,A4053,A4054,A4055,A4056,A4057,A4058,A4059,A4060, \note fields as indicated
+  A4061,A4062,A4063,A4064,A4065,A4066,A4067,A4068,A4069,A4070,A4071,A4072,A4073,A4074,A4075,A4076,A4077,A4078,A4079,A4080, \note fields as indicated
+  A4081,A4082,A4083,A4084,A4085,A4086,A4087,A4088,A4089,A4090,A4091,A4092,A4093,A4094,A4095,A4096,A4097,A4098,A4099,A4100, \note fields as indicated
+  A4101,A4102,A4103,A4104,A4105,A4106,A4107,A4108,A4109,A4110,A4111,A4112,A4113,A4114,A4115,A4116,A4117,A4118,A4119,A4120, \note fields as indicated
+  A4121,A4122,A4123,A4124,A4125,A4126,A4127,A4128,A4129,A4130,A4131,A4132,A4133,A4134,A4135,A4136,A4137,A4138,A4139,A4140, \note fields as indicated
+  A4141,A4142,A4143,A4144,A4145,A4146,A4147,A4148,A4149,A4150,A4151,A4152,A4153,A4154,A4155,A4156,A4157,A4158,A4159,A4160, \note fields as indicated
+  A4161,A4162,A4163,A4164,A4165,A4166,A4167,A4168,A4169,A4170,A4171,A4172,A4173,A4174,A4175,A4176,A4177,A4178,A4179,A4180, \note fields as indicated
+  A4181,A4182,A4183,A4184,A4185,A4186,A4187,A4188,A4189,A4190,A4191,A4192,A4193,A4194,A4195,A4196,A4197,A4198,A4199,A4200, \note fields as indicated
+  A4201,A4202,A4203,A4204,A4205,A4206,A4207,A4208,A4209,A4210,A4211,A4212,A4213,A4214,A4215,A4216,A4217,A4218,A4219,A4220, \note fields as indicated
+  A4221,A4222,A4223,A4224,A4225,A4226,A4227,A4228,A4229,A4230,A4231,A4232,A4233,A4234,A4235,A4236,A4237,A4238,A4239,A4240, \note fields as indicated
+  A4241,A4242,A4243,A4244,A4245,A4246,A4247,A4248,A4249,A4250,A4251,A4252,A4253,A4254,A4255,A4256,A4257,A4258,A4259,A4260, \note fields as indicated
+  A4261,A4262,A4263,A4264,A4265,A4266,A4267,A4268,A4269,A4270,A4271,A4272,A4273,A4274,A4275,A4276,A4277,A4278,A4279,A4280, \note fields as indicated
+  A4281,A4282,A4283,A4284,A4285,A4286,A4287,A4288,A4289,A4290,A4291,A4292,A4293,A4294,A4295,A4296,A4297,A4298,A4299,A4300, \note fields as indicated
+  A4301,A4302,A4303,A4304,A4305,A4306,A4307,A4308,A4309,A4310,A4311,A4312,A4313,A4314,A4315,A4316,A4317,A4318,A4319,A4320, \note fields as indicated
+  A4321,A4322,A4323,A4324,A4325,A4326,A4327,A4328,A4329,A4330,A4331,A4332,A4333,A4334,A4335,A4336,A4337,A4338,A4339,A4340, \note fields as indicated
+  A4341,A4342,A4343,A4344,A4345,A4346,A4347,A4348,A4349,A4350,A4351,A4352,A4353,A4354,A4355,A4356,A4357,A4358,A4359,A4360, \note fields as indicated
+  A4361,A4362,A4363,A4364,A4365,A4366,A4367,A4368,A4369,A4370,A4371,A4372,A4373,A4374,A4375,A4376,A4377,A4378,A4379,A4380, \note fields as indicated
+  A4381,A4382,A4383,A4384,A4385,A4386,A4387,A4388,A4389,A4390,A4391,A4392,A4393,A4394,A4395,A4396,A4397,A4398,A4399,A4400, \note fields as indicated
+  A4401,A4402,A4403,A4404,A4405,A4406,A4407,A4408,A4409,A4410,A4411,A4412,A4413,A4414,A4415,A4416,A4417,A4418,A4419,A4420, \note fields as indicated
+  A4421,A4422,A4423,A4424,A4425,A4426,A4427,A4428,A4429,A4430,A4431,A4432,A4433,A4434,A4435,A4436,A4437,A4438,A4439,A4440, \note fields as indicated
+  A4441,A4442,A4443,A4444,A4445,A4446,A4447,A4448,A4449,A4450,A4451,A4452,A4453,A4454,A4455,A4456,A4457,A4458,A4459,A4460, \note fields as indicated
+  A4461,A4462,A4463,A4464,A4465,A4466,A4467,A4468,A4469,A4470,A4471,A4472,A4473,A4474,A4475,A4476,A4477,A4478,A4479,A4480, \note fields as indicated
+  A4481,A4482,A4483,A4484,A4485,A4486,A4487,A4488,A4489,A4490,A4491,A4492,A4493,A4494,A4495,A4496,A4497,A4498,A4499,A4500, \note fields as indicated
+  A4501,A4502,A4503,A4504,A4505,A4506,A4507,A4508,A4509,A4510,A4511,A4512,A4513,A4514,A4515,A4516,A4517,A4518,A4519,A4520, \note fields as indicated
+  A4521,A4522,A4523,A4524,A4525,A4526,A4527,A4528,A4529,A4530,A4531,A4532,A4533,A4534,A4535,A4536,A4537,A4538,A4539,A4540, \note fields as indicated
+  A4541,A4542,A4543,A4544,A4545,A4546,A4547,A4548,A4549,A4550,A4551,A4552,A4553,A4554,A4555,A4556,A4557,A4558,A4559,A4560, \note fields as indicated
+  A4561,A4562,A4563,A4564,A4565,A4566,A4567,A4568,A4569,A4570,A4571,A4572,A4573,A4574,A4575,A4576,A4577,A4578,A4579,A4580, \note fields as indicated
+  A4581,A4582,A4583,A4584,A4585,A4586,A4587,A4588,A4589,A4590,A4591,A4592,A4593,A4594,A4595,A4596,A4597,A4598,A4599,A4600, \note fields as indicated
+  A4601,A4602,A4603,A4604,A4605,A4606,A4607,A4608,A4609,A4610,A4611,A4612,A4613,A4614,A4615,A4616,A4617,A4618,A4619,A4620, \note fields as indicated
+  A4621,A4622,A4623,A4624,A4625,A4626,A4627,A4628,A4629,A4630,A4631,A4632,A4633,A4634,A4635,A4636,A4637,A4638,A4639,A4640, \note fields as indicated
+  A4641,A4642,A4643,A4644,A4645,A4646,A4647,A4648,A4649,A4650,A4651,A4652,A4653,A4654,A4655,A4656,A4657,A4658,A4659,A4660, \note fields as indicated
+  A4661,A4662,A4663,A4664,A4665,A4666,A4667,A4668,A4669,A4670,A4671,A4672,A4673,A4674,A4675,A4676,A4677,A4678,A4679,A4680, \note fields as indicated
+  A4681,A4682,A4683,A4684,A4685,A4686,A4687,A4688,A4689,A4690,A4691,A4692,A4693,A4694,A4695,A4696,A4697,A4698,A4699,A4700, \note fields as indicated
+  A4701,A4702,A4703,A4704,A4705,A4706,A4707,A4708,A4709,A4710,A4711,A4712,A4713,A4714,A4715,A4716,A4717,A4718,A4719,A4720, \note fields as indicated
+  A4721,A4722,A4723,A4724,A4725,A4726,A4727,A4728,A4729,A4730,A4731,A4732,A4733,A4734,A4735,A4736,A4737,A4738,A4739,A4740, \note fields as indicated
+  A4741,A4742,A4743,A4744,A4745,A4746,A4747,A4748,A4749,A4750,A4751,A4752,A4753,A4754,A4755,A4756,A4757,A4758,A4759,A4760, \note fields as indicated
+  A4761,A4762,A4763,A4764,A4765,A4766,A4767,A4768,A4769,A4770,A4771,A4772,A4773,A4774,A4775,A4776,A4777,A4778,A4779,A4780, \note fields as indicated
+  A4781,A4782,A4783,A4784,A4785,A4786,A4787,A4788,A4789,A4790,A4791,A4792,A4793,A4794,A4795,A4796,A4797,A4798,A4799,A4800, \note fields as indicated
+  A4801,A4802,A4803,A4804,A4805,A4806,A4807,A4808,A4809,A4810,A4811,A4812,A4813,A4814,A4815,A4816,A4817,A4818,A4819,A4820, \note fields as indicated
+  A4821,A4822,A4823,A4824,A4825,A4826,A4827,A4828,A4829,A4830,A4831,A4832,A4833,A4834,A4835,A4836,A4837,A4838,A4839,A4840, \note fields as indicated
+  A4841,A4842,A4843,A4844,A4845,A4846,A4847,A4848,A4849,A4850,A4851,A4852,A4853,A4854,A4855,A4856,A4857,A4858,A4859,A4860, \note fields as indicated
+  A4861,A4862,A4863,A4864,A4865,A4866,A4867,A4868,A4869,A4870,A4871,A4872,A4873,A4874,A4875,A4876,A4877,A4878,A4879,A4880, \note fields as indicated
+  A4881,A4882,A4883,A4884,A4885,A4886,A4887,A4888,A4889,A4890,A4891,A4892,A4893,A4894,A4895,A4896,A4897,A4898,A4899,A4900, \note fields as indicated
+  A4901,A4902,A4903,A4904,A4905,A4906,A4907,A4908,A4909,A4910,A4911,A4912,A4913,A4914,A4915,A4916,A4917,A4918,A4919,A4920, \note fields as indicated
+  A4921,A4922,A4923,A4924,A4925,A4926,A4927,A4928,A4929,A4930,A4931,A4932,A4933,A4934,A4935,A4936,A4937,A4938,A4939,A4940, \note fields as indicated
+  A4941,A4942,A4943,A4944,A4945,A4946,A4947,A4948,A4949,A4950,A4951,A4952,A4953,A4954,A4955,A4956,A4957,A4958,A4959,A4960, \note fields as indicated
+  A4961,A4962,A4963,A4964,A4965,A4966,A4967,A4968,A4969,A4970,A4971,A4972,A4973,A4974,A4975,A4976,A4977,A4978,A4979,A4980, \note fields as indicated
+  A4981,A4982,A4983,A4984,A4985,A4986,A4987,A4988,A4989,A4990,A4991,A4992,A4993,A4994,A4995,A4996,A4997,A4998,A4999,A5000, \note fields as indicated
+  A5001,A5002,A5003,A5004,A5005,A5006,A5007,A5008,A5009,A5010,A5011,A5012,A5013,A5014,A5015,A5016,A5017,A5018,A5019,A5020, \note fields as indicated
+  A5021,A5022,A5023,A5024,A5025,A5026,A5027,A5028,A5029,A5030,A5031,A5032,A5033,A5034,A5035,A5036,A5037,A5038,A5039,A5040, \note fields as indicated
+  A5041,A5042,A5043,A5044,A5045,A5046,A5047,A5048,A5049,A5050,A5051,A5052,A5053,A5054,A5055,A5056,A5057,A5058,A5059,A5060, \note fields as indicated
+  A5061,A5062,A5063,A5064,A5065,A5066,A5067,A5068,A5069,A5070,A5071,A5072,A5073,A5074,A5075,A5076,A5077,A5078,A5079,A5080, \note fields as indicated
+  A5081,A5082,A5083,A5084,A5085,A5086,A5087,A5088,A5089,A5090,A5091,A5092,A5093,A5094,A5095,A5096,A5097,A5098,A5099,A5100, \note fields as indicated
+  A5101,A5102,A5103,A5104,A5105,A5106,A5107,A5108,A5109,A5110,A5111,A5112,A5113,A5114,A5115,A5116,A5117,A5118,A5119,A5120, \note fields as indicated
+  A5121,A5122,A5123,A5124,A5125,A5126,A5127,A5128,A5129,A5130,A5131,A5132,A5133,A5134,A5135,A5136,A5137,A5138,A5139,A5140, \note fields as indicated
+  A5141,A5142,A5143,A5144,A5145,A5146,A5147,A5148,A5149,A5150,A5151,A5152,A5153,A5154,A5155,A5156,A5157,A5158,A5159,A5160, \note fields as indicated
+  A5161,A5162,A5163,A5164,A5165,A5166,A5167,A5168,A5169,A5170,A5171,A5172,A5173,A5174,A5175,A5176,A5177,A5178,A5179,A5180, \note fields as indicated
+  A5181,A5182,A5183,A5184,A5185,A5186,A5187,A5188,A5189,A5190,A5191,A5192,A5193,A5194,A5195,A5196,A5197,A5198,A5199,A5200, \note fields as indicated
+  A5201,A5202,A5203,A5204,A5205,A5206,A5207,A5208,A5209,A5210,A5211,A5212,A5213,A5214,A5215,A5216,A5217,A5218,A5219,A5220, \note fields as indicated
+  A5221,A5222,A5223,A5224,A5225,A5226,A5227,A5228,A5229,A5230,A5231,A5232,A5233,A5234,A5235,A5236,A5237,A5238,A5239,A5240, \note fields as indicated
+  A5241,A5242,A5243,A5244,A5245,A5246,A5247,A5248,A5249,A5250,A5251,A5252,A5253,A5254,A5255,A5256,A5257,A5258,A5259,A5260, \note fields as indicated
+  A5261,A5262,A5263,A5264,A5265,A5266,A5267,A5268,A5269,A5270,A5271,A5272,A5273,A5274,A5275,A5276,A5277,A5278,A5279,A5280, \note fields as indicated
+  A5281,A5282,A5283,A5284,A5285,A5286,A5287,A5288,A5289,A5290,A5291,A5292,A5293,A5294,A5295,A5296,A5297,A5298,A5299,A5300, \note fields as indicated
+  A5301,A5302,A5303,A5304,A5305,A5306,A5307,A5308,A5309,A5310,A5311,A5312,A5313,A5314,A5315,A5316,A5317,A5318,A5319,A5320, \note fields as indicated
+  A5321,A5322,A5323,A5324,A5325,A5326,A5327,A5328,A5329,A5330,A5331,A5332,A5333,A5334,A5335,A5336,A5337,A5338,A5339,A5340, \note fields as indicated
+  A5341,A5342,A5343,A5344,A5345,A5346,A5347,A5348,A5349,A5350,A5351,A5352,A5353,A5354,A5355,A5356,A5357,A5358,A5359,A5360, \note fields as indicated
+  A5361,A5362,A5363,A5364,A5365,A5366,A5367,A5368,A5369,A5370,A5371,A5372,A5373,A5374,A5375,A5376,A5377,A5378,A5379,A5380, \note fields as indicated
+  A5381,A5382,A5383,A5384,A5385,A5386,A5387,A5388,A5389,A5390,A5391,A5392,A5393,A5394,A5395,A5396,A5397,A5398,A5399,A5400, \note fields as indicated
+  A5401,A5402,A5403,A5404,A5405,A5406,A5407,A5408,A5409,A5410,A5411,A5412,A5413,A5414,A5415,A5416,A5417,A5418,A5419,A5420, \note fields as indicated
+  A5421,A5422,A5423,A5424,A5425,A5426,A5427,A5428,A5429,A5430,A5431,A5432,A5433,A5434,A5435,A5436,A5437,A5438,A5439,A5440, \note fields as indicated
+  A5441,A5442,A5443,A5444,A5445,A5446,A5447,A5448,A5449,A5450,A5451,A5452,A5453,A5454,A5455,A5456,A5457,A5458,A5459,A5460, \note fields as indicated
+  A5461,A5462,A5463,A5464,A5465,A5466,A5467,A5468,A5469,A5470,A5471,A5472,A5473,A5474,A5475,A5476,A5477,A5478,A5479,A5480, \note fields as indicated
+  A5481,A5482,A5483,A5484,A5485,A5486,A5487,A5488,A5489,A5490,A5491,A5492,A5493,A5494,A5495,A5496,A5497,A5498,A5499,A5500, \note fields as indicated
+  A5501,A5502,A5503,A5504,A5505,A5506,A5507,A5508,A5509,A5510,A5511,A5512,A5513,A5514,A5515,A5516,A5517,A5518,A5519,A5520, \note fields as indicated
+  A5521,A5522,A5523,A5524,A5525,A5526,A5527,A5528,A5529,A5530,A5531,A5532,A5533,A5534,A5535,A5536,A5537,A5538,A5539,A5540, \note fields as indicated
+  A5541,A5542,A5543,A5544,A5545,A5546,A5547,A5548,A5549,A5550,A5551,A5552,A5553,A5554,A5555,A5556,A5557,A5558,A5559,A5560, \note fields as indicated
+  A5561,A5562,A5563,A5564,A5565,A5566,A5567,A5568,A5569,A5570,A5571,A5572,A5573,A5574,A5575,A5576,A5577,A5578,A5579,A5580, \note fields as indicated
+  A5581,A5582,A5583,A5584,A5585,A5586,A5587,A5588,A5589,A5590,A5591,A5592,A5593,A5594,A5595,A5596,A5597,A5598,A5599,A5600, \note fields as indicated
+  A5601,A5602,A5603,A5604,A5605,A5606,A5607,A5608,A5609,A5610,A5611,A5612,A5613,A5614,A5615,A5616,A5617,A5618,A5619,A5620, \note fields as indicated
+  A5621,A5622,A5623,A5624,A5625,A5626,A5627,A5628,A5629,A5630,A5631,A5632,A5633,A5634,A5635,A5636,A5637,A5638,A5639,A5640, \note fields as indicated
+  A5641,A5642,A5643,A5644,A5645,A5646,A5647,A5648,A5649,A5650,A5651,A5652,A5653,A5654,A5655,A5656,A5657,A5658,A5659,A5660, \note fields as indicated
+  A5661,A5662,A5663,A5664,A5665,A5666,A5667,A5668,A5669,A5670,A5671,A5672,A5673,A5674,A5675,A5676,A5677,A5678,A5679,A5680, \note fields as indicated
+  A5681,A5682,A5683,A5684,A5685,A5686,A5687,A5688,A5689,A5690,A5691,A5692,A5693,A5694,A5695,A5696,A5697,A5698,A5699,A5700, \note fields as indicated
+  A5701,A5702,A5703,A5704,A5705,A5706,A5707,A5708,A5709,A5710,A5711,A5712,A5713,A5714,A5715,A5716,A5717,A5718,A5719,A5720, \note fields as indicated
+  A5721,A5722,A5723,A5724,A5725,A5726,A5727,A5728,A5729,A5730,A5731,A5732,A5733,A5734,A5735,A5736,A5737,A5738,A5739,A5740, \note fields as indicated
+  A5741,A5742,A5743,A5744,A5745,A5746,A5747,A5748,A5749,A5750,A5751,A5752,A5753,A5754,A5755,A5756,A5757,A5758,A5759,A5760, \note fields as indicated
+  A5761,A5762,A5763,A5764,A5765,A5766,A5767,A5768,A5769,A5770,A5771,A5772,A5773,A5774,A5775,A5776,A5777,A5778,A5779,A5780, \note fields as indicated
+  A5781,A5782,A5783,A5784,A5785,A5786,A5787,A5788,A5789,A5790,A5791,A5792,A5793,A5794,A5795,A5796,A5797,A5798,A5799,A5800, \note fields as indicated
+  A5801,A5802,A5803,A5804,A5805,A5806,A5807,A5808,A5809,A5810,A5811,A5812,A5813,A5814,A5815,A5816,A5817,A5818,A5819,A5820, \note fields as indicated
+  A5821,A5822,A5823,A5824,A5825,A5826,A5827,A5828,A5829,A5830,A5831,A5832,A5833,A5834,A5835,A5836,A5837,A5838,A5839,A5840, \note fields as indicated
+  A5841,A5842,A5843,A5844,A5845,A5846,A5847,A5848,A5849,A5850,A5851,A5852,A5853,A5854,A5855,A5856,A5857,A5858,A5859,A5860, \note fields as indicated
+  A5861,A5862,A5863,A5864,A5865,A5866,A5867,A5868,A5869,A5870,A5871,A5872,A5873,A5874,A5875,A5876,A5877,A5878,A5879,A5880, \note fields as indicated
+  A5881,A5882,A5883,A5884,A5885,A5886,A5887,A5888,A5889,A5890,A5891,A5892,A5893,A5894,A5895,A5896,A5897,A5898,A5899,A5900, \note fields as indicated
+  A5901,A5902,A5903,A5904,A5905,A5906,A5907,A5908,A5909,A5910,A5911,A5912,A5913,A5914,A5915,A5916,A5917,A5918,A5919,A5920, \note fields as indicated
+  A5921,A5922,A5923,A5924,A5925,A5926,A5927,A5928,A5929,A5930,A5931,A5932,A5933,A5934,A5935,A5936,A5937,A5938,A5939,A5940, \note fields as indicated
+  A5941,A5942,A5943,A5944,A5945,A5946,A5947,A5948,A5949,A5950,A5951,A5952,A5953,A5954,A5955,A5956,A5957,A5958,A5959,A5960, \note fields as indicated
+  A5961,A5962,A5963,A5964,A5965,A5966,A5967,A5968,A5969,A5970,A5971,A5972,A5973,A5974,A5975,A5976,A5977,A5978,A5979,A5980, \note fields as indicated
+  A5981,A5982,A5983,A5984,A5985,A5986,A5987,A5988,A5989,A5990,A5991,A5992,A5993,A5994,A5995,A5996,A5997,A5998,A5999,A6000, \note fields as indicated
+  A6001,A6002,A6003,A6004,A6005,A6006,A6007,A6008,A6009,A6010,A6011,A6012,A6013,A6014,A6015,A6016,A6017,A6018,A6019,A6020, \note fields as indicated
+  A6021,A6022,A6023,A6024,A6025,A6026,A6027,A6028,A6029,A6030,A6031,A6032,A6033,A6034,A6035,A6036,A6037,A6038,A6039,A6040, \note fields as indicated
+  A6041,A6042,A6043,A6044,A6045,A6046,A6047,A6048,A6049,A6050,A6051,A6052,A6053,A6054,A6055,A6056,A6057,A6058,A6059,A6060, \note fields as indicated
+  A6061,A6062,A6063,A6064,A6065,A6066,A6067,A6068,A6069,A6070,A6071,A6072,A6073,A6074,A6075,A6076,A6077,A6078,A6079,A6080, \note fields as indicated
+  A6081,A6082,A6083,A6084,A6085,A6086,A6087,A6088,A6089,A6090,A6091,A6092,A6093,A6094,A6095,A6096,A6097,A6098,A6099,A6100, \note fields as indicated
+  A6101,A6102,A6103,A6104,A6105,A6106,A6107,A6108,A6109,A6110,A6111,A6112,A6113,A6114,A6115,A6116,A6117,A6118,A6119,A6120, \note fields as indicated
+  A6121,A6122,A6123,A6124,A6125,A6126,A6127,A6128,A6129,A6130,A6131,A6132,A6133,A6134,A6135,A6136,A6137,A6138,A6139,A6140, \note fields as indicated
+  A6141,A6142,A6143,A6144,A6145,A6146,A6147,A6148,A6149,A6150,A6151,A6152,A6153,A6154,A6155,A6156,A6157,A6158,A6159,A6160, \note fields as indicated
+  A6161,A6162,A6163,A6164,A6165,A6166,A6167,A6168,A6169,A6170,A6171,A6172,A6173,A6174,A6175,A6176,A6177,A6178,A6179,A6180, \note fields as indicated
+  A6181,A6182,A6183,A6184,A6185,A6186,A6187,A6188,A6189,A6190,A6191,A6192,A6193,A6194,A6195,A6196,A6197,A6198,A6199,A6200, \note fields as indicated
+  A6201,A6202,A6203,A6204,A6205,A6206,A6207,A6208,A6209,A6210,A6211,A6212,A6213,A6214,A6215,A6216,A6217,A6218,A6219,A6220, \note fields as indicated
+  A6221,A6222,A6223,A6224,A6225,A6226,A6227,A6228,A6229,A6230,A6231,A6232,A6233,A6234,A6235,A6236,A6237,A6238,A6239,A6240, \note fields as indicated
+  A6241,A6242,A6243,A6244,A6245,A6246,A6247,A6248,A6249,A6250,A6251,A6252,A6253,A6254,A6255,A6256,A6257,A6258,A6259,A6260, \note fields as indicated
+  A6261,A6262,A6263,A6264,A6265,A6266,A6267,A6268,A6269,A6270,A6271,A6272,A6273,A6274,A6275,A6276,A6277,A6278,A6279,A6280, \note fields as indicated
+  A6281,A6282,A6283,A6284,A6285,A6286,A6287,A6288,A6289,A6290,A6291,A6292,A6293,A6294,A6295,A6296,A6297,A6298,A6299,A6300, \note fields as indicated
+  A6301,A6302,A6303,A6304,A6305,A6306,A6307,A6308,A6309,A6310,A6311,A6312,A6313,A6314,A6315,A6316,A6317,A6318,A6319,A6320, \note fields as indicated
+  A6321,A6322,A6323,A6324,A6325,A6326,A6327,A6328,A6329,A6330,A6331,A6332,A6333,A6334,A6335,A6336,A6337,A6338,A6339,A6340, \note fields as indicated
+  A6341,A6342,A6343,A6344,A6345,A6346,A6347,A6348,A6349,A6350,A6351,A6352,A6353,A6354,A6355,A6356,A6357,A6358,A6359,A6360, \note fields as indicated
+  A6361,A6362,A6363,A6364,A6365,A6366,A6367,A6368,A6369,A6370,A6371,A6372,A6373,A6374,A6375,A6376,A6377,A6378,A6379,A6380, \note fields as indicated
+  A6381,A6382,A6383,A6384,A6385,A6386,A6387,A6388,A6389,A6390,A6391,A6392,A6393,A6394,A6395,A6396,A6397,A6398,A6399,A6400, \note fields as indicated
+  A6401,A6402,A6403,A6404,A6405,A6406,A6407,A6408,A6409,A6410,A6411,A6412,A6413,A6414,A6415,A6416,A6417,A6418,A6419,A6420, \note fields as indicated
+  A6421,A6422,A6423,A6424,A6425,A6426,A6427,A6428,A6429,A6430,A6431,A6432,A6433,A6434,A6435,A6436,A6437,A6438,A6439,A6440, \note fields as indicated
+  A6441,A6442,A6443,A6444,A6445,A6446,A6447,A6448,A6449,A6450,A6451,A6452,A6453,A6454,A6455,A6456,A6457,A6458,A6459,A6460, \note fields as indicated
+  A6461,A6462,A6463,A6464,A6465,A6466,A6467,A6468,A6469,A6470,A6471,A6472,A6473,A6474,A6475,A6476,A6477,A6478,A6479,A6480, \note fields as indicated
+  A6481,A6482,A6483,A6484,A6485,A6486,A6487,A6488,A6489,A6490,A6491,A6492,A6493,A6494,A6495,A6496,A6497,A6498,A6499,A6500, \note fields as indicated
+  A6501,A6502,A6503,A6504,A6505,A6506,A6507,A6508,A6509,A6510,A6511,A6512,A6513,A6514,A6515,A6516,A6517,A6518,A6519,A6520, \note fields as indicated
+  A6521,A6522,A6523,A6524,A6525,A6526,A6527,A6528,A6529,A6530,A6531,A6532,A6533,A6534,A6535,A6536,A6537,A6538,A6539,A6540, \note fields as indicated
+  A6541,A6542,A6543,A6544,A6545,A6546,A6547,A6548,A6549,A6550,A6551,A6552,A6553,A6554,A6555,A6556,A6557,A6558,A6559,A6560, \note fields as indicated
+  A6561,A6562,A6563,A6564,A6565,A6566,A6567,A6568,A6569,A6570,A6571,A6572,A6573,A6574,A6575,A6576,A6577,A6578,A6579,A6580, \note fields as indicated
+  A6581,A6582,A6583,A6584,A6585,A6586,A6587,A6588,A6589,A6590,A6591,A6592,A6593,A6594,A6595,A6596,A6597,A6598,A6599,A6600, \note fields as indicated
+  A6601,A6602,A6603,A6604,A6605,A6606,A6607,A6608,A6609,A6610,A6611,A6612,A6613,A6614,A6615,A6616,A6617,A6618,A6619,A6620, \note fields as indicated
+  A6621,A6622,A6623,A6624,A6625,A6626,A6627,A6628,A6629,A6630,A6631,A6632,A6633,A6634,A6635,A6636,A6637,A6638,A6639,A6640, \note fields as indicated
+  A6641,A6642,A6643,A6644,A6645,A6646,A6647,A6648,A6649,A6650,A6651,A6652,A6653,A6654,A6655,A6656,A6657,A6658,A6659,A6660, \note fields as indicated
+  A6661,A6662,A6663,A6664,A6665,A6666,A6667,A6668,A6669,A6670,A6671,A6672,A6673,A6674,A6675,A6676,A6677,A6678,A6679,A6680, \note fields as indicated
+  A6681,A6682,A6683,A6684,A6685,A6686,A6687,A6688,A6689,A6690,A6691,A6692,A6693,A6694,A6695,A6696,A6697,A6698,A6699,A6700, \note fields as indicated
+  A6701,A6702,A6703,A6704,A6705,A6706,A6707,A6708,A6709,A6710,A6711,A6712,A6713,A6714,A6715,A6716,A6717,A6718,A6719,A6720, \note fields as indicated
+  A6721,A6722,A6723,A6724,A6725,A6726,A6727,A6728,A6729,A6730,A6731,A6732,A6733,A6734,A6735,A6736,A6737,A6738,A6739,A6740, \note fields as indicated
+  A6741,A6742,A6743,A6744,A6745,A6746,A6747,A6748,A6749,A6750,A6751,A6752,A6753,A6754,A6755,A6756,A6757,A6758,A6759,A6760, \note fields as indicated
+  A6761,A6762,A6763,A6764,A6765,A6766,A6767,A6768,A6769,A6770,A6771,A6772,A6773,A6774,A6775,A6776,A6777,A6778,A6779,A6780, \note fields as indicated
+  A6781,A6782,A6783,A6784,A6785,A6786,A6787,A6788,A6789,A6790,A6791,A6792,A6793,A6794,A6795,A6796,A6797,A6798,A6799,A6800, \note fields as indicated
+  A6801,A6802,A6803,A6804,A6805,A6806,A6807,A6808,A6809,A6810,A6811,A6812,A6813,A6814,A6815,A6816,A6817,A6818,A6819,A6820, \note fields as indicated
+  A6821,A6822,A6823,A6824,A6825,A6826,A6827,A6828,A6829,A6830,A6831,A6832,A6833,A6834,A6835,A6836,A6837,A6838,A6839,A6840, \note fields as indicated
+  A6841,A6842,A6843,A6844,A6845,A6846,A6847,A6848,A6849,A6850,A6851,A6852,A6853,A6854,A6855,A6856,A6857,A6858,A6859,A6860, \note fields as indicated
+  A6861,A6862,A6863,A6864,A6865,A6866,A6867,A6868,A6869,A6870,A6871,A6872,A6873,A6874,A6875,A6876,A6877,A6878,A6879,A6880, \note fields as indicated
+  A6881,A6882,A6883,A6884,A6885,A6886,A6887,A6888,A6889,A6890,A6891,A6892,A6893,A6894,A6895,A6896,A6897,A6898,A6899,A6900, \note fields as indicated
+  A6901,A6902,A6903,A6904,A6905,A6906,A6907,A6908,A6909,A6910,A6911,A6912,A6913,A6914,A6915,A6916,A6917,A6918,A6919,A6920, \note fields as indicated
+  A6921,A6922,A6923,A6924,A6925,A6926,A6927,A6928,A6929,A6930,A6931,A6932,A6933,A6934,A6935,A6936,A6937,A6938,A6939,A6940, \note fields as indicated
+  A6941,A6942,A6943,A6944,A6945,A6946,A6947,A6948,A6949,A6950,A6951,A6952,A6953,A6954,A6955,A6956,A6957,A6958,A6959,A6960, \note fields as indicated
+  A6961,A6962,A6963,A6964,A6965,A6966,A6967,A6968,A6969,A6970,A6971,A6972,A6973,A6974,A6975,A6976,A6977,A6978,A6979,A6980, \note fields as indicated
+  A6981,A6982,A6983,A6984,A6985,A6986,A6987,A6988,A6989,A6990,A6991,A6992,A6993,A6994,A6995,A6996,A6997,A6998,A6999,A7000, \note fields as indicated
+  A7001,A7002,A7003,A7004,A7005,A7006,A7007,A7008,A7009,A7010,A7011,A7012,A7013,A7014,A7015,A7016,A7017,A7018,A7019,A7020, \note fields as indicated
+  A7021,A7022,A7023,A7024,A7025,A7026,A7027,A7028,A7029,A7030,A7031,A7032,A7033,A7034,A7035,A7036,A7037,A7038,A7039,A7040, \note fields as indicated
+  A7041,A7042,A7043,A7044,A7045,A7046,A7047,A7048,A7049,A7050,A7051,A7052,A7053,A7054,A7055,A7056,A7057,A7058,A7059,A7060, \note fields as indicated
+  A7061,A7062,A7063,A7064,A7065,A7066,A7067,A7068,A7069,A7070,A7071,A7072,A7073,A7074,A7075,A7076,A7077,A7078,A7079,A7080, \note fields as indicated
+  A7081,A7082,A7083,A7084,A7085,A7086,A7087,A7088,A7089,A7090,A7091,A7092,A7093,A7094,A7095,A7096,A7097,A7098,A7099,A7100, \note fields as indicated
+  A7101,A7102,A7103,A7104,A7105,A7106,A7107,A7108,A7109,A7110,A7111,A7112,A7113,A7114,A7115,A7116,A7117,A7118,A7119,A7120, \note fields as indicated
+  A7121,A7122,A7123,A7124,A7125,A7126,A7127,A7128,A7129,A7130,A7131,A7132,A7133,A7134,A7135,A7136,A7137,A7138,A7139,A7140, \note fields as indicated
+  A7141,A7142,A7143,A7144,A7145,A7146,A7147,A7148,A7149,A7150,A7151,A7152,A7153,A7154,A7155,A7156,A7157,A7158,A7159,A7160, \note fields as indicated
+  A7161,A7162,A7163,A7164,A7165,A7166,A7167,A7168,A7169,A7170,A7171,A7172,A7173,A7174,A7175,A7176,A7177,A7178,A7179,A7180, \note fields as indicated
+  A7181,A7182,A7183,A7184,A7185,A7186,A7187,A7188,A7189,A7190,A7191,A7192,A7193,A7194,A7195,A7196,A7197,A7198,A7199,A7200, \note fields as indicated
+  A7201,A7202,A7203,A7204,A7205,A7206,A7207,A7208,A7209,A7210,A7211,A7212,A7213,A7214,A7215,A7216,A7217,A7218,A7219,A7220, \note fields as indicated
+  A7221,A7222,A7223,A7224,A7225,A7226,A7227,A7228,A7229,A7230,A7231,A7232,A7233,A7234,A7235,A7236,A7237,A7238,A7239,A7240, \note fields as indicated
+  A7241,A7242,A7243,A7244,A7245,A7246,A7247,A7248,A7249,A7250,A7251,A7252,A7253,A7254,A7255,A7256,A7257,A7258,A7259,A7260, \note fields as indicated
+  A7261,A7262,A7263,A7264,A7265,A7266,A7267,A7268,A7269,A7270,A7271,A7272,A7273,A7274,A7275,A7276,A7277,A7278,A7279,A7280, \note fields as indicated
+  A7281,A7282,A7283,A7284,A7285,A7286,A7287,A7288,A7289,A7290,A7291,A7292,A7293,A7294,A7295,A7296,A7297,A7298,A7299,A7300, \note fields as indicated
+  A7301,A7302,A7303,A7304,A7305,A7306,A7307,A7308,A7309,A7310,A7311,A7312,A7313,A7314,A7315,A7316,A7317,A7318,A7319,A7320, \note fields as indicated
+  A7321,A7322,A7323,A7324,A7325,A7326,A7327,A7328,A7329,A7330,A7331,A7332,A7333,A7334,A7335,A7336,A7337,A7338,A7339,A7340, \note fields as indicated
+  A7341,A7342,A7343,A7344,A7345,A7346,A7347,A7348,A7349,A7350,A7351,A7352,A7353,A7354,A7355,A7356,A7357,A7358,A7359,A7360, \note fields as indicated
+  A7361,A7362,A7363,A7364,A7365,A7366,A7367,A7368,A7369,A7370,A7371,A7372,A7373,A7374,A7375,A7376,A7377,A7378,A7379,A7380, \note fields as indicated
+  A7381,A7382,A7383,A7384,A7385,A7386,A7387,A7388,A7389,A7390,A7391,A7392,A7393,A7394,A7395,A7396,A7397,A7398,A7399,A7400, \note fields as indicated
+  A7401,A7402,A7403,A7404,A7405,A7406,A7407,A7408,A7409,A7410,A7411,A7412,A7413,A7414,A7415,A7416,A7417,A7418,A7419,A7420, \note fields as indicated
+  A7421,A7422,A7423,A7424,A7425,A7426,A7427,A7428,A7429,A7430,A7431,A7432,A7433,A7434,A7435,A7436,A7437,A7438,A7439,A7440, \note fields as indicated
+  A7441,A7442,A7443,A7444,A7445,A7446,A7447,A7448,A7449,A7450,A7451,A7452,A7453,A7454,A7455,A7456,A7457,A7458,A7459,A7460, \note fields as indicated
+  A7461,A7462,A7463,A7464,A7465,A7466,A7467,A7468,A7469,A7470,A7471,A7472,A7473,A7474,A7475,A7476,A7477,A7478,A7479,A7480, \note fields as indicated
+  A7481,A7482,A7483,A7484,A7485,A7486,A7487,A7488,A7489,A7490,A7491,A7492,A7493,A7494,A7495,A7496,A7497,A7498,A7499,A7500, \note fields as indicated
+  A7501,A7502,A7503,A7504,A7505,A7506,A7507,A7508,A7509,A7510,A7511,A7512,A7513,A7514,A7515,A7516,A7517,A7518,A7519,A7520, \note fields as indicated
+  A7521,A7522,A7523,A7524,A7525,A7526,A7527,A7528,A7529,A7530,A7531,A7532,A7533,A7534,A7535,A7536,A7537,A7538,A7539,A7540, \note fields as indicated
+  A7541,A7542,A7543,A7544,A7545,A7546,A7547,A7548,A7549,A7550,A7551,A7552,A7553,A7554,A7555,A7556,A7557,A7558,A7559,A7560, \note fields as indicated
+  A7561,A7562,A7563,A7564,A7565,A7566,A7567,A7568,A7569,A7570,A7571,A7572,A7573,A7574,A7575,A7576,A7577,A7578,A7579,A7580, \note fields as indicated
+  A7581,A7582,A7583,A7584,A7585,A7586,A7587,A7588,A7589,A7590,A7591,A7592,A7593,A7594,A7595,A7596,A7597,A7598,A7599,A7600, \note fields as indicated
+  A7601,A7602,A7603,A7604,A7605,A7606,A7607,A7608,A7609,A7610,A7611,A7612,A7613,A7614,A7615,A7616,A7617,A7618,A7619,A7620, \note fields as indicated
+  A7621,A7622,A7623,A7624,A7625,A7626,A7627,A7628,A7629,A7630,A7631,A7632,A7633,A7634,A7635,A7636,A7637,A7638,A7639,A7640, \note fields as indicated
+  A7641,A7642,A7643,A7644,A7645,A7646,A7647,A7648,A7649,A7650,A7651,A7652,A7653,A7654,A7655,A7656,A7657,A7658,A7659,A7660, \note fields as indicated
+  A7661,A7662,A7663,A7664,A7665,A7666,A7667,A7668,A7669,A7670,A7671,A7672,A7673,A7674,A7675,A7676,A7677,A7678,A7679,A7680, \note fields as indicated
+  A7681,A7682,A7683,A7684,A7685,A7686,A7687,A7688,A7689,A7690,A7691,A7692,A7693,A7694,A7695,A7696,A7697,A7698,A7699,A7700, \note fields as indicated
+  A7701,A7702,A7703,A7704,A7705,A7706,A7707,A7708,A7709,A7710,A7711,A7712,A7713,A7714,A7715,A7716,A7717,A7718,A7719,A7720, \note fields as indicated
+  A7721,A7722,A7723,A7724,A7725,A7726,A7727,A7728,A7729,A7730,A7731,A7732,A7733,A7734,A7735,A7736,A7737,A7738,A7739,A7740, \note fields as indicated
+  A7741,A7742,A7743,A7744,A7745,A7746,A7747,A7748,A7749,A7750,A7751,A7752,A7753,A7754,A7755,A7756,A7757,A7758,A7759,A7760, \note fields as indicated
+  A7761,A7762,A7763,A7764,A7765,A7766,A7767,A7768,A7769,A7770,A7771,A7772,A7773,A7774,A7775,A7776,A7777,A7778,A7779,A7780, \note fields as indicated
+  A7781,A7782,A7783,A7784,A7785,A7786,A7787,A7788,A7789,A7790,A7791,A7792,A7793,A7794,A7795,A7796,A7797,A7798,A7799,A7800, \note fields as indicated
+  A7801,A7802,A7803,A7804,A7805,A7806,A7807,A7808,A7809,A7810,A7811,A7812,A7813,A7814,A7815,A7816,A7817,A7818,A7819,A7820, \note fields as indicated
+  A7821,A7822,A7823,A7824,A7825,A7826,A7827,A7828,A7829,A7830,A7831,A7832,A7833,A7834,A7835,A7836,A7837,A7838,A7839,A7840, \note fields as indicated
+  A7841,A7842,A7843,A7844,A7845,A7846,A7847,A7848,A7849,A7850,A7851,A7852,A7853,A7854,A7855,A7856,A7857,A7858,A7859,A7860, \note fields as indicated
+  A7861,A7862,A7863,A7864,A7865,A7866,A7867,A7868,A7869,A7870,A7871,A7872,A7873,A7874,A7875,A7876,A7877,A7878,A7879,A7880, \note fields as indicated
+  A7881,A7882,A7883,A7884,A7885,A7886,A7887,A7888,A7889,A7890,A7891,A7892,A7893,A7894,A7895,A7896,A7897,A7898,A7899,A7900, \note fields as indicated
+  A7901,A7902,A7903,A7904,A7905,A7906,A7907,A7908,A7909,A7910,A7911,A7912,A7913,A7914,A7915,A7916,A7917,A7918,A7919,A7920, \note fields as indicated
+  A7921,A7922,A7923,A7924,A7925,A7926,A7927,A7928,A7929,A7930,A7931,A7932,A7933,A7934,A7935,A7936,A7937,A7938,A7939,A7940, \note fields as indicated
+  A7941,A7942,A7943,A7944,A7945,A7946,A7947,A7948,A7949,A7950,A7951,A7952,A7953,A7954,A7955,A7956,A7957,A7958,A7959,A7960, \note fields as indicated
+  A7961,A7962,A7963,A7964,A7965,A7966,A7967,A7968,A7969,A7970,A7971,A7972,A7973,A7974,A7975,A7976,A7977,A7978,A7979,A7980, \note fields as indicated
+  A7981,A7982,A7983,A7984,A7985,A7986,A7987,A7988,A7989,A7990,A7991,A7992,A7993,A7994,A7995,A7996,A7997,A7998,A7999,A8000, \note fields as indicated
+  A8001,A8002,A8003,A8004,A8005,A8006,A8007,A8008,A8009,A8010,A8011,A8012,A8013,A8014,A8015,A8016,A8017,A8018,A8019,A8020, \note fields as indicated
+  A8021,A8022,A8023,A8024,A8025,A8026,A8027,A8028,A8029,A8030,A8031,A8032,A8033,A8034,A8035,A8036,A8037,A8038,A8039,A8040, \note fields as indicated
+  A8041,A8042,A8043,A8044,A8045,A8046,A8047,A8048,A8049,A8050,A8051,A8052,A8053,A8054,A8055,A8056,A8057,A8058,A8059,A8060, \note fields as indicated
+  A8061,A8062,A8063,A8064,A8065,A8066,A8067,A8068,A8069,A8070,A8071,A8072,A8073,A8074,A8075,A8076,A8077,A8078,A8079,A8080, \note fields as indicated
+  A8081,A8082,A8083,A8084,A8085,A8086,A8087,A8088,A8089,A8090,A8091,A8092,A8093,A8094,A8095,A8096,A8097,A8098,A8099,A8100, \note fields as indicated
+  A8101,A8102,A8103,A8104,A8105,A8106,A8107,A8108,A8109,A8110,A8111,A8112,A8113,A8114,A8115,A8116,A8117,A8118,A8119,A8120, \note fields as indicated
+  A8121,A8122,A8123,A8124,A8125,A8126,A8127,A8128,A8129,A8130,A8131,A8132,A8133,A8134,A8135,A8136,A8137,A8138,A8139,A8140, \note fields as indicated
+  A8141,A8142,A8143,A8144,A8145,A8146,A8147,A8148,A8149,A8150,A8151,A8152,A8153,A8154,A8155,A8156,A8157,A8158,A8159,A8160, \note fields as indicated
+  A8161,A8162,A8163,A8164,A8165,A8166,A8167,A8168,A8169,A8170,A8171,A8172,A8173,A8174,A8175,A8176,A8177,A8178,A8179,A8180, \note fields as indicated
+  A8181,A8182,A8183,A8184,A8185,A8186,A8187,A8188,A8189,A8190,A8191,A8192,A8193,A8194,A8195,A8196,A8197,A8198,A8199,A8200, \note fields as indicated
+  A8201,A8202,A8203,A8204,A8205,A8206,A8207,A8208,A8209,A8210,A8211,A8212,A8213,A8214,A8215,A8216,A8217,A8218,A8219,A8220, \note fields as indicated
+  A8221,A8222,A8223,A8224,A8225,A8226,A8227,A8228,A8229,A8230,A8231,A8232,A8233,A8234,A8235,A8236,A8237,A8238,A8239,A8240, \note fields as indicated
+  A8241,A8242,A8243,A8244,A8245,A8246,A8247,A8248,A8249,A8250,A8251,A8252,A8253,A8254,A8255,A8256,A8257,A8258,A8259,A8260, \note fields as indicated
+  A8261,A8262,A8263,A8264,A8265,A8266,A8267,A8268,A8269,A8270,A8271,A8272,A8273,A8274,A8275,A8276,A8277,A8278,A8279,A8280, \note fields as indicated
+  A8281,A8282,A8283,A8284,A8285,A8286,A8287,A8288,A8289,A8290,A8291,A8292,A8293,A8294,A8295,A8296,A8297,A8298,A8299,A8300, \note fields as indicated
+  A8301,A8302,A8303,A8304,A8305,A8306,A8307,A8308,A8309,A8310,A8311,A8312,A8313,A8314,A8315,A8316,A8317,A8318,A8319,A8320, \note fields as indicated
+  A8321,A8322,A8323,A8324,A8325,A8326,A8327,A8328,A8329,A8330,A8331,A8332,A8333,A8334,A8335,A8336,A8337,A8338,A8339,A8340, \note fields as indicated
+  A8341,A8342,A8343,A8344,A8345,A8346,A8347,A8348,A8349,A8350,A8351,A8352,A8353,A8354,A8355,A8356,A8357,A8358,A8359,A8360, \note fields as indicated
+  A8361,A8362,A8363,A8364,A8365,A8366,A8367,A8368,A8369,A8370,A8371,A8372,A8373,A8374,A8375,A8376,A8377,A8378,A8379,A8380, \note fields as indicated
+  A8381,A8382,A8383,A8384,A8385,A8386,A8387,A8388,A8389,A8390,A8391,A8392,A8393,A8394,A8395,A8396,A8397,A8398,A8399,A8400, \note fields as indicated
+  A8401,A8402,A8403,A8404,A8405,A8406,A8407,A8408,A8409,A8410,A8411,A8412,A8413,A8414,A8415,A8416,A8417,A8418,A8419,A8420, \note fields as indicated
+  A8421,A8422,A8423,A8424,A8425,A8426,A8427,A8428,A8429,A8430,A8431,A8432,A8433,A8434,A8435,A8436,A8437,A8438,A8439,A8440, \note fields as indicated
+  A8441,A8442,A8443,A8444,A8445,A8446,A8447,A8448,A8449,A8450,A8451,A8452,A8453,A8454,A8455,A8456,A8457,A8458,A8459,A8460, \note fields as indicated
+  A8461,A8462,A8463,A8464,A8465,A8466,A8467,A8468,A8469,A8470,A8471,A8472,A8473,A8474,A8475,A8476,A8477,A8478,A8479,A8480, \note fields as indicated
+  A8481,A8482,A8483,A8484,A8485,A8486,A8487,A8488,A8489,A8490,A8491,A8492,A8493,A8494,A8495,A8496,A8497,A8498,A8499,A8500, \note fields as indicated
+  A8501,A8502,A8503,A8504,A8505,A8506,A8507,A8508,A8509,A8510,A8511,A8512,A8513,A8514,A8515,A8516,A8517,A8518,A8519,A8520, \note fields as indicated
+  A8521,A8522,A8523,A8524,A8525,A8526,A8527,A8528,A8529,A8530,A8531,A8532,A8533,A8534,A8535,A8536,A8537,A8538,A8539,A8540, \note fields as indicated
+  A8541,A8542,A8543,A8544,A8545,A8546,A8547,A8548,A8549,A8550,A8551,A8552,A8553,A8554,A8555,A8556,A8557,A8558,A8559,A8560, \note fields as indicated
+  A8561,A8562,A8563,A8564,A8565,A8566,A8567,A8568,A8569,A8570,A8571,A8572,A8573,A8574,A8575,A8576,A8577,A8578,A8579,A8580, \note fields as indicated
+  A8581,A8582,A8583,A8584,A8585,A8586,A8587,A8588,A8589,A8590,A8591,A8592,A8593,A8594,A8595,A8596,A8597,A8598,A8599,A8600, \note fields as indicated
+  A8601,A8602,A8603,A8604,A8605,A8606,A8607,A8608,A8609,A8610,A8611,A8612,A8613,A8614,A8615,A8616,A8617,A8618,A8619,A8620, \note fields as indicated
+  A8621,A8622,A8623,A8624,A8625,A8626,A8627,A8628,A8629,A8630,A8631,A8632,A8633,A8634,A8635,A8636,A8637,A8638,A8639,A8640, \note fields as indicated
+  A8641,A8642,A8643,A8644,A8645,A8646,A8647,A8648,A8649,A8650,A8651,A8652,A8653,A8654,A8655,A8656,A8657,A8658,A8659,A8660, \note fields as indicated
+  A8661,A8662,A8663,A8664,A8665,A8666,A8667,A8668,A8669,A8670,A8671,A8672,A8673,A8674,A8675,A8676,A8677,A8678,A8679,A8680, \note fields as indicated
+  A8681,A8682,A8683,A8684,A8685,A8686,A8687,A8688,A8689,A8690,A8691,A8692,A8693,A8694,A8695,A8696,A8697,A8698,A8699,A8700, \note fields as indicated
+  A8701,A8702,A8703,A8704,A8705,A8706,A8707,A8708,A8709,A8710,A8711,A8712,A8713,A8714,A8715,A8716,A8717,A8718,A8719,A8720, \note fields as indicated
+  A8721,A8722,A8723,A8724,A8725,A8726,A8727,A8728,A8729,A8730,A8731,A8732,A8733,A8734,A8735,A8736,A8737,A8738,A8739,A8740, \note fields as indicated
+  A8741,A8742,A8743,A8744,A8745,A8746,A8747,A8748,A8749,A8750,A8751,A8752,A8753,A8754,A8755,A8756,A8757,A8758,A8759,A8760, \note fields as indicated
+  A8761,A8762,A8763,A8764,A8765,A8766,A8767,A8768,A8769,A8770,A8771,A8772,A8773,A8774,A8775,A8776,A8777,A8778,A8779,A8780, \note fields as indicated
+  A8781,A8782,A8783,A8784,A8785,A8786,A8787,A8788,A8789,A8790,A8791,A8792,A8793,A8794,A8795,A8796,A8797,A8798,A8799,A8800, \note fields as indicated
+  A8801,A8802,A8803,A8804,A8805,A8806,A8807,A8808,A8809,A8810,A8811,A8812,A8813,A8814,A8815,A8816,A8817,A8818,A8819,A8820, \note fields as indicated
+  A8821,A8822,A8823,A8824,A8825,A8826,A8827,A8828,A8829,A8830,A8831,A8832,A8833,A8834,A8835,A8836,A8837,A8838,A8839,A8840, \note fields as indicated
+  A8841,A8842,A8843,A8844,A8845,A8846,A8847,A8848,A8849,A8850,A8851,A8852,A8853,A8854,A8855,A8856,A8857,A8858,A8859,A8860, \note fields as indicated
+  A8861,A8862,A8863,A8864,A8865,A8866,A8867,A8868,A8869,A8870,A8871,A8872,A8873,A8874,A8875,A8876,A8877,A8878,A8879,A8880, \note fields as indicated
+  A8881,A8882,A8883,A8884,A8885,A8886,A8887,A8888,A8889,A8890,A8891,A8892,A8893,A8894,A8895,A8896,A8897,A8898,A8899,A8900, \note fields as indicated
+  A8901,A8902,A8903,A8904,A8905,A8906,A8907,A8908,A8909,A8910,A8911,A8912,A8913,A8914,A8915,A8916,A8917,A8918,A8919,A8920, \note fields as indicated
+  A8921,A8922,A8923,A8924,A8925,A8926,A8927,A8928,A8929,A8930,A8931,A8932,A8933,A8934,A8935,A8936,A8937,A8938,A8939,A8940, \note fields as indicated
+  A8941,A8942,A8943,A8944,A8945,A8946,A8947,A8948,A8949,A8950,A8951,A8952,A8953,A8954,A8955,A8956,A8957,A8958,A8959,A8960, \note fields as indicated
+  A8961,A8962,A8963,A8964,A8965,A8966,A8967,A8968,A8969,A8970,A8971,A8972,A8973,A8974,A8975,A8976,A8977,A8978,A8979,A8980, \note fields as indicated
+  A8981,A8982,A8983,A8984,A8985,A8986,A8987,A8988,A8989,A8990,A8991,A8992,A8993,A8994,A8995,A8996,A8997,A8998,A8999,A9000, \note fields as indicated
+  A9001,A9002,A9003,A9004,A9005,A9006,A9007,A9008,A9009,A9010,A9011,A9012,A9013,A9014,A9015,A9016,A9017,A9018,A9019,A9020, \note fields as indicated
+  A9021,A9022,A9023,A9024,A9025,A9026,A9027,A9028,A9029,A9030,A9031,A9032,A9033,A9034,A9035,A9036,A9037,A9038,A9039,A9040, \note fields as indicated
+  A9041,A9042,A9043,A9044,A9045,A9046,A9047,A9048,A9049,A9050,A9051,A9052,A9053,A9054,A9055,A9056,A9057,A9058,A9059,A9060, \note fields as indicated
+  A9061,A9062,A9063,A9064,A9065,A9066,A9067,A9068,A9069,A9070,A9071,A9072,A9073,A9074,A9075,A9076,A9077,A9078,A9079,A9080, \note fields as indicated
+  A9081,A9082,A9083,A9084,A9085,A9086,A9087,A9088,A9089,A9090,A9091,A9092,A9093,A9094,A9095,A9096,A9097,A9098,A9099,A9100, \note fields as indicated
+  A9101,A9102,A9103,A9104,A9105,A9106,A9107,A9108,A9109,A9110,A9111,A9112,A9113,A9114,A9115,A9116,A9117,A9118,A9119,A9120, \note fields as indicated
+  A9121,A9122,A9123,A9124,A9125,A9126,A9127,A9128,A9129,A9130,A9131,A9132,A9133,A9134,A9135,A9136,A9137,A9138,A9139,A9140, \note fields as indicated
+  A9141,A9142,A9143,A9144,A9145,A9146,A9147,A9148,A9149,A9150,A9151,A9152,A9153,A9154,A9155,A9156,A9157,A9158,A9159,A9160, \note fields as indicated
+  A9161,A9162,A9163,A9164,A9165,A9166,A9167,A9168,A9169,A9170,A9171,A9172,A9173,A9174,A9175,A9176,A9177,A9178,A9179,A9180, \note fields as indicated
+  A9181,A9182,A9183,A9184,A9185,A9186,A9187,A9188,A9189,A9190,A9191,A9192,A9193,A9194,A9195,A9196,A9197,A9198,A9199,A9200, \note fields as indicated
+  A9201,A9202,A9203,A9204,A9205,A9206,A9207,A9208,A9209,A9210,A9211,A9212,A9213,A9214,A9215,A9216,A9217,A9218,A9219,A9220, \note fields as indicated
+  A9221,A9222,A9223,A9224,A9225,A9226,A9227,A9228,A9229,A9230,A9231,A9232,A9233,A9234,A9235,A9236,A9237,A9238,A9239,A9240, \note fields as indicated
+  A9241,A9242,A9243,A9244,A9245,A9246,A9247,A9248,A9249,A9250,A9251,A9252,A9253,A9254,A9255,A9256,A9257,A9258,A9259,A9260, \note fields as indicated
+  A9261,A9262,A9263,A9264,A9265,A9266,A9267,A9268,A9269,A9270,A9271,A9272,A9273,A9274,A9275,A9276,A9277,A9278,A9279,A9280, \note fields as indicated
+  A9281,A9282,A9283,A9284,A9285,A9286,A9287,A9288,A9289,A9290,A9291,A9292,A9293,A9294,A9295,A9296,A9297,A9298,A9299,A9300, \note fields as indicated
+  A9301,A9302,A9303,A9304,A9305,A9306,A9307,A9308,A9309,A9310,A9311,A9312,A9313,A9314,A9315,A9316,A9317,A9318,A9319,A9320, \note fields as indicated
+  A9321,A9322,A9323,A9324,A9325,A9326,A9327,A9328,A9329,A9330,A9331,A9332,A9333,A9334,A9335,A9336,A9337,A9338,A9339,A9340, \note fields as indicated
+  A9341,A9342,A9343,A9344,A9345,A9346,A9347,A9348,A9349,A9350,A9351,A9352,A9353,A9354,A9355,A9356,A9357,A9358,A9359,A9360, \note fields as indicated
+  A9361,A9362,A9363,A9364,A9365,A9366,A9367,A9368,A9369,A9370,A9371,A9372,A9373,A9374,A9375,A9376,A9377,A9378,A9379,A9380, \note fields as indicated
+  A9381,A9382,A9383,A9384,A9385,A9386,A9387,A9388,A9389,A9390,A9391,A9392,A9393,A9394,A9395,A9396,A9397,A9398,A9399,A9400, \note fields as indicated
+  A9401,A9402,A9403,A9404,A9405,A9406,A9407,A9408,A9409,A9410,A9411,A9412,A9413,A9414,A9415,A9416,A9417,A9418,A9419,A9420, \note fields as indicated
+  A9421,A9422,A9423,A9424,A9425,A9426,A9427,A9428,A9429,A9430,A9431,A9432,A9433,A9434,A9435,A9436,A9437,A9438,A9439,A9440, \note fields as indicated
+  A9441,A9442,A9443,A9444,A9445,A9446,A9447,A9448,A9449,A9450,A9451,A9452,A9453,A9454,A9455,A9456,A9457,A9458,A9459,A9460, \note fields as indicated
+  A9461,A9462,A9463,A9464,A9465,A9466,A9467,A9468,A9469,A9470,A9471,A9472,A9473,A9474,A9475,A9476,A9477,A9478,A9479,A9480, \note fields as indicated
+  A9481,A9482,A9483,A9484,A9485,A9486,A9487,A9488,A9489,A9490,A9491,A9492,A9493,A9494,A9495,A9496,A9497,A9498,A9499,A9500, \note fields as indicated
+  A9501,A9502,A9503,A9504,A9505,A9506,A9507,A9508,A9509,A9510,A9511,A9512,A9513,A9514,A9515,A9516,A9517,A9518,A9519,A9520, \note fields as indicated
+  A9521,A9522,A9523,A9524,A9525,A9526,A9527,A9528,A9529,A9530,A9531,A9532,A9533,A9534,A9535,A9536,A9537,A9538,A9539,A9540, \note fields as indicated
+  A9541,A9542,A9543,A9544,A9545,A9546,A9547,A9548,A9549,A9550,A9551,A9552,A9553,A9554,A9555,A9556,A9557,A9558,A9559,A9560, \note fields as indicated
+  A9561,A9562,A9563,A9564,A9565,A9566,A9567,A9568,A9569,A9570,A9571,A9572,A9573,A9574,A9575,A9576,A9577,A9578,A9579,A9580, \note fields as indicated
+  A9581,A9582,A9583,A9584,A9585,A9586,A9587,A9588,A9589,A9590,A9591,A9592,A9593,A9594,A9595,A9596,A9597,A9598,A9599,A9600, \note fields as indicated
+  A9601,A9602,A9603,A9604,A9605,A9606,A9607,A9608,A9609,A9610,A9611,A9612,A9613,A9614,A9615,A9616,A9617,A9618,A9619,A9620, \note fields as indicated
+  A9621,A9622,A9623,A9624,A9625,A9626,A9627,A9628,A9629,A9630,A9631,A9632,A9633,A9634,A9635,A9636,A9637,A9638,A9639,A9640, \note fields as indicated
+  A9641,A9642,A9643,A9644,A9645,A9646,A9647,A9648,A9649,A9650,A9651,A9652,A9653,A9654,A9655,A9656,A9657,A9658,A9659,A9660, \note fields as indicated
+  A9661,A9662,A9663,A9664,A9665,A9666,A9667,A9668,A9669,A9670,A9671,A9672,A9673,A9674,A9675,A9676,A9677,A9678,A9679,A9680, \note fields as indicated
+  A9681,A9682,A9683,A9684,A9685,A9686,A9687,A9688,A9689,A9690,A9691,A9692,A9693,A9694,A9695,A9696,A9697,A9698,A9699,A9700, \note fields as indicated
+  A9701,A9702,A9703,A9704,A9705,A9706,A9707,A9708,A9709,A9710,A9711,A9712,A9713,A9714,A9715,A9716,A9717,A9718,A9719,A9720, \note fields as indicated
+  A9721,A9722,A9723,A9724,A9725,A9726,A9727,A9728,A9729,A9730,A9731,A9732,A9733,A9734,A9735,A9736,A9737,A9738,A9739,A9740, \note fields as indicated
+  A9741,A9742,A9743,A9744,A9745,A9746,A9747,A9748,A9749,A9750,A9751,A9752,A9753,A9754,A9755,A9756,A9757,A9758,A9759,A9760, \note fields as indicated
+  A9761,A9762,A9763,A9764,A9765,A9766,A9767,A9768,A9769,A9770,A9771,A9772,A9773,A9774,A9775,A9776,A9777,A9778,A9779,A9780, \note fields as indicated
+  A9781,A9782,A9783,A9784,A9785,A9786,A9787,A9788,A9789,A9790,A9791,A9792,A9793,A9794,A9795,A9796,A9797,A9798,A9799,A9800, \note fields as indicated
+  A9801,A9802,A9803,A9804,A9805,A9806,A9807,A9808,A9809,A9810,A9811,A9812,A9813,A9814,A9815,A9816,A9817,A9818,A9819,A9820, \note fields as indicated
+  A9821,A9822,A9823,A9824,A9825,A9826,A9827,A9828,A9829,A9830,A9831,A9832,A9833,A9834,A9835,A9836,A9837,A9838,A9839,A9840, \note fields as indicated
+  A9841,A9842,A9843,A9844,A9845,A9846,A9847,A9848,A9849,A9850,A9851,A9852,A9853,A9854,A9855,A9856,A9857,A9858,A9859,A9860, \note fields as indicated
+  A9861,A9862,A9863,A9864,A9865,A9866,A9867,A9868,A9869,A9870,A9871,A9872,A9873,A9874,A9875,A9876,A9877,A9878,A9879,A9880, \note fields as indicated
+  A9881,A9882,A9883,A9884,A9885,A9886,A9887,A9888,A9889,A9890,A9891,A9892,A9893,A9894,A9895,A9896,A9897,A9898,A9899,A9900, \note fields as indicated
+  A9901,A9902,A9903,A9904,A9905,A9906,A9907,A9908,A9909,A9910,A9911,A9912,A9913,A9914,A9915,A9916,A9917,A9918,A9919,A9920, \note fields as indicated
+  A9921,A9922,A9923,A9924,A9925,A9926,A9927,A9928,A9929,A9930,A9931,A9932,A9933,A9934,A9935,A9936,A9937,A9938,A9939,A9940, \note fields as indicated
+  A9941,A9942,A9943,A9944,A9945,A9946,A9947,A9948,A9949,A9950,A9951,A9952,A9953,A9954,A9955,A9956,A9957,A9958,A9959,A9960, \note fields as indicated
+  A9961,A9962,A9963,A9964,A9965,A9966,A9967,A9968,A9969,A9970,A9971,A9972,A9973,A9974,A9975,A9976,A9977,A9978,A9979,A9980, \note fields as indicated
+  A9981,A9982,A9983,A9984,A9985,A9986,A9987,A9988,A9989,A9990,A9991,A9992,A9993,A9994,A9995,A9996,A9997,A9998,A9999,A10000; \note fields as indicated
+
+Schedule:Constant,
+   \memo Constant hourly value for entire year.
+   \format singleLine
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ScheduleNames
+  A2 , \field Schedule Type Limits Name
+       \type object-list
+       \object-list ScheduleTypeLimitsNames
+  N1 ; \field Hourly Value
+       \type real
+       \default 0
+
+Schedule:File:Shading,
+       \min-fields 1
+       \memo A Schedule:File:Shading points to a CSV file that has 8760-8784
+       \memo hours of sunlit fraction data for all or some of the exterior surfaces.
+       \unique-object
+  A1 ; \field File Name
+       \note The name of the file that writes all shading data.
+       \required-field
+       \retaincase
+
+Schedule:File,
+ \min-fields 5
+       \memo A Schedule:File points to a text computer file that has 8760-8784 hours of data.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ScheduleNames
+  A2 , \field Schedule Type Limits Name
+       \type object-list
+       \object-list ScheduleTypeLimitsNames
+  A3 , \field File Name
+       \required-field
+       \retaincase
+  N1 , \field Column Number
+       \required-field
+       \type integer
+       \minimum 1
+  N2 , \field Rows to Skip at Top
+       \required-field
+       \type integer
+       \minimum 0
+  N3 , \field Number of Hours of Data
+       \note 8760 hours does not account for leap years, 8784 does.
+       \note should be either 8760 or 8784
+       \default 8760
+       \minimum 8760
+       \maximum 8784
+  A4 , \field Column Separator
+       \type choice
+       \key Comma
+       \key Tab
+       \key Space
+       \key Semicolon
+       \default Comma
+  A5 , \field Interpolate to Timestep
+       \note when the interval does not match the user specified timestep a "Yes" choice will average between the intervals request (to
+       \note timestep resolution. a "No" choice will use the interval value at the simulation timestep without regard to if it matches
+       \note the boundary or not.
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  N4 ; \field Minutes per Item
+       \note Must be evenly divisible into 60
+       \type integer
+       \minimum 1
+       \maximum 60
+
+\group Surface Construction Elements
+
+Material,
+    \memo Regular materials described with full set of thermal properties
+    \min-fields 6
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference MaterialName
+  A2 , \field Roughness
+       \required-field
+       \type choice
+       \key VeryRough
+       \key Rough
+       \key MediumRough
+       \key MediumSmooth
+       \key Smooth
+       \key VerySmooth
+  N1 , \field Thickness
+       \required-field
+       \units m
+       \type real
+       \minimum> 0
+       \ip-units in
+  N2 , \field Conductivity
+       \required-field
+       \units W/m-K
+       \type real
+       \minimum> 0
+  N3 , \field Density
+       \required-field
+       \units kg/m3
+       \type real
+       \minimum> 0
+  N4 , \field Specific Heat
+       \required-field
+       \units J/kg-K
+       \type real
+       \minimum 100
+  N5 , \field Thermal Absorptance
+       \type real
+       \minimum> 0
+       \default .9
+       \maximum 0.99999
+  N6 , \field Solar Absorptance
+       \type real
+       \default .7
+       \minimum 0
+       \maximum 1
+  N7 ; \field Visible Absorptance
+       \type real
+       \minimum 0
+       \default .7
+       \maximum 1
+
+Material:NoMass,
+    \memo Regular materials properties described whose principal description is R (Thermal Resistance)
+     \min-fields 3
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference MaterialName
+  A2 , \field Roughness
+       \required-field
+       \type choice
+       \key VeryRough
+       \key Rough
+       \key MediumRough
+       \key MediumSmooth
+       \key Smooth
+       \key VerySmooth
+  N1 , \field Thermal Resistance
+       \required-field
+       \units m2-K/W
+       \type real
+       \minimum .001
+  N2 , \field Thermal Absorptance
+       \type real
+       \minimum> 0
+       \default .9
+       \maximum 0.99999
+  N3 , \field Solar Absorptance
+       \type real
+       \minimum 0
+       \default .7
+       \maximum 1
+  N4 ; \field Visible Absorptance
+       \type real
+       \minimum 0
+       \default .7
+       \maximum 1
+
+Material:InfraredTransparent,
+       \memo Special infrared transparent material. Similar to a Material:Nomass with low thermal resistance.
+       \memo  High absorptance in both wavelengths.
+       \memo  Area will be doubled internally to make internal radiant exchange accurate.
+       \memo  Should be only material in single layer surface construction.
+       \memo  All thermal properties are set internally. User needs only to supply name.
+       \memo Cannot be used with ConductionFiniteDifference solution algorithms
+       \min-fields 1
+  A1 ; \field Name
+       \required-field
+       \type alpha
+       \reference MaterialName
+
+Material:AirGap,
+       \min-fields 2
+       \memo Air Space in Opaque Construction
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference MaterialName
+  N1 ; \field Thermal Resistance
+       \required-field
+       \units m2-K/W
+       \type real
+       \minimum> 0
+
+Material:RoofVegetation,
+  \memo EcoRoof model, plant layer plus soil layer
+  \memo Implemented by Portland State University
+  \memo (Sailor et al., January, 2007)
+  \memo only one material must be referenced per simulation though the same EcoRoof material could be
+  \memo used in multiple constructions. New moisture redistribution scheme (2010) requires higher
+  \memo number of timesteps per hour (minimum 12 recommended).
+  \min-fields 19
+  A1 ,\field Name
+      \required-field
+      \type alpha
+      \reference MaterialName
+  N1 ,\field Height of Plants
+      \type real
+      \note The ecoroof module is designed for short plants and shrubs.
+      \minimum> 0.005
+      \maximum  1.0
+      \units m
+      \default .2
+  N2 ,\field Leaf Area Index
+      \units dimensionless
+      \note Entire surface is assumed covered, so decrease LAI accordingly.
+      \minimum> 0.001
+      \maximum 5.0
+      \default 1.0
+      \type real
+  N3 ,\field Leaf Reflectivity
+      \type real
+      \units dimensionless
+      \note Leaf reflectivity (albedo) is typically 0.18-0.25
+      \maximum 0.5
+      \minimum 0.05
+      \default 0.22
+  N4 ,\field Leaf Emissivity
+      \type real
+      \minimum 0.8
+      \maximum 1.0
+      \default 0.95
+  N5 ,\field Minimum Stomatal Resistance
+      \units s/m
+      \default 180.0
+      \note This depends upon plant type
+      \minimum 50.0
+      \maximum 300.
+      \type real
+  A2 ,\field Soil Layer Name
+      \type alpha
+      \default Green Roof Soil
+  A3 ,\field Roughness
+      \type choice
+      \key VeryRough
+      \key MediumRough
+      \key Rough
+      \key Smooth
+      \key MediumSmooth
+      \key VerySmooth
+      \default MediumRough
+  N6 ,\field Thickness
+      \note thickness of the soil layer of the EcoRoof
+      \units m
+      \type real
+      \note Soil depths of 0.15m (6in) and 0.30m (12in) are common.
+      \default 0.1
+      \minimum> 0.05
+      \maximum 0.7
+      \ip-units in
+  N7 ,\field Conductivity of Dry Soil
+      \units W/m-K
+      \type real
+      \note Thermal conductivity of dry soil.
+      \note Typical ecoroof soils range from 0.3 to 0.5
+      \default 0.35
+      \minimum  0.2
+      \maximum 1.5
+  N8 ,\field Density of Dry Soil
+      \units kg/m3
+      \note Density of dry soil (the code modifies this as the soil becomes moist)
+      \note Typical ecoroof soils range from 400 to 1000 (dry to wet)
+      \type real
+      \minimum 300
+      \maximum 2000
+      \default 1100
+  N9 ,\field Specific Heat of Dry Soil
+      \units J/kg-K
+      \type real
+      \note Specific heat of dry soil
+      \minimum> 500
+      \maximum 2000
+      \default 1200
+  N10,\field Thermal Absorptance
+      \type real
+      \note Soil emissivity is typically in range of 0.90 to 0.98
+      \minimum> 0.8
+      \default .9
+      \maximum 1.0
+  N11,\field Solar Absorptance
+      \type real
+      \note Solar absorptance of dry soil (1-albedo) is typically 0.60 to 0.85
+      \note corresponding to a dry albedo of 0.15 to 0.40
+      \default .70
+      \minimum 0.40
+      \maximum 0.9
+  N12,\field Visible Absorptance
+      \type real
+      \minimum> 0.5
+      \default .75
+      \maximum 1.0
+  N13,\field Saturation Volumetric Moisture Content of the Soil Layer
+      \type real
+      \note Maximum moisture content is typically less than 0.5
+      \minimum> 0.1
+      \maximum 0.5
+      \default 0.3
+  N14,\field Residual Volumetric Moisture Content of the Soil Layer
+      \type real
+      \minimum  0.01
+      \maximum  0.1
+      \default 0.01
+  N15,\field Initial Volumetric Moisture Content of the Soil Layer
+      \type real
+      \minimum> 0.05
+      \maximum  0.5
+      \default 0.1
+  A4; \field Moisture Diffusion Calculation Method
+      \note Advanced calculation requires increased number of timesteps (recommended >20).
+      \type choice
+      \key Simple
+      \key Advanced
+      \default Advanced
+
+WindowMaterial:SimpleGlazingSystem,
+       \min-fields 3
+       \memo Alternate method of describing windows
+       \memo This window material object is used to define an entire glazing system
+       \memo using simple performance parameters.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference MaterialName
+       \reference GlazingMaterialName
+  N1 , \field U-Factor
+       \required-field
+       \note Enter U-Factor including film coefficients
+       \note Note that the effective upper limit for U-factor is 5.8 W/m2-K
+       \units W/m2-K
+       \minimum> 0
+       \maximum  7
+  N2 , \field Solar Heat Gain Coefficient
+       \required-field
+       \note SHGC at Normal Incidence
+       \minimum> 0
+       \maximum< 1
+  N3 ; \field Visible Transmittance
+       \note VT at Normal Incidence
+       \note optional
+       \minimum> 0
+       \maximum< 1
+
+WindowMaterial:Glazing,
+    \min-fields 14
+    \memo Glass material properties for Windows or Glass Doors
+    \memo Transmittance/Reflectance input method.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference MaterialName
+       \reference GlazingMaterialName
+       \reference CFSGlazingName
+  A2 , \field Optical Data Type
+       \required-field
+       \type choice
+       \key SpectralAverage
+       \key Spectral
+       \key BSDF
+       \key SpectralAndAngle
+  A3 , \field Window Glass Spectral Data Set Name
+       \note Used only when Optical Data Type = Spectral
+       \type object-list
+       \object-list SpectralDataSets
+  N1 , \field Thickness
+       \required-field
+       \units m
+       \type real
+       \minimum> 0.0
+       \ip-units in
+  N2 , \field Solar Transmittance at Normal Incidence
+       \note Used only when Optical Data Type = SpectralAverage
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N3 , \field Front Side Solar Reflectance at Normal Incidence
+       \note Used only when Optical Data Type = SpectralAverage
+       \note Front Side is side closest to outdoor air
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N4 , \field Back Side Solar Reflectance at Normal Incidence
+       \note Used only when Optical Data Type = SpectralAverage
+       \note Back Side is side closest to zone air
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N5 , \field Visible Transmittance at Normal Incidence
+       \note Used only when Optical Data Type = SpectralAverage
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N6 , \field Front Side Visible Reflectance at Normal Incidence
+       \note Used only when Optical Data Type = SpectralAverage
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N7 , \field Back Side Visible Reflectance at Normal Incidence
+       \note Used only when Optical Data Type = SpectralAverage
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N8 , \field Infrared Transmittance at Normal Incidence
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N9 , \field Front Side Infrared Hemispherical Emissivity
+       \type real
+       \minimum> 0.0
+       \maximum< 1.0
+       \default 0.84
+  N10, \field Back Side Infrared Hemispherical Emissivity
+       \type real
+       \minimum> 0.0
+       \maximum< 1.0
+       \default 0.84
+  N11, \field Conductivity
+       \units W/m-K
+       \type real
+       \minimum> 0.0
+       \default 0.9
+  N12, \field Dirt Correction Factor for Solar and Visible Transmittance
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 1.0
+  A4,  \field Solar Diffusing
+       \type choice
+       \key No
+       \key Yes
+       \default No
+  N13, \field Young's modulus
+       \note coefficient used for deflection calculations. Used only with complex
+       \note fenestration when deflection model is set to TemperatureAndPressureInput
+       \units Pa
+       \type real
+       \minimum> 0.0
+       \default 7.2e10
+  N14, \field Poisson's ratio
+       \note coefficient used for deflection calculations. Used only with complex
+       \note fenestration when deflection model is set to TemperatureAndPressureInput
+       \type real
+       \minimum>  0.0
+       \maximum<  1.0
+       \default 0.22
+  A5 , \field Window Glass Spectral and Incident Angle Transmittance Data Set Table Name
+       \note Used only when Optical Data Type = SpectralAndAngle
+       \type object-list
+       \object-list BivariateFunctions
+  A6 , \field Window Glass Spectral and Incident Angle Front Reflectance Data Set Table Name
+       \note Used only when Optical Data Type = SpectralAndAngle
+       \type object-list
+       \object-list BivariateFunctions
+  A7 ; \field Window Glass Spectral and Incident Angle Back Reflectance Data Set Table Name
+       \note Used only when Optical Data Type = SpectralAndAngle
+       \type object-list
+       \object-list BivariateFunctions
+
+WindowMaterial:GlazingGroup:Thermochromic,
+    \min-fields 3
+    \extensible:2 - repeat last two fields remembering to remove ; from "inner" fields.
+    \memo thermochromic glass at different temperatures
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference MaterialName
+       \reference GlazingMaterialName
+  N1 , \field Optical Data Temperature 1
+       \begin-extensible
+       \required-field
+       \units C
+       \ip-units F
+       \type real
+  A2 , \field Window Material Glazing Name 1
+       \required-field
+       \type object-list
+       \object-list GlazingMaterialName
+  N2 , \field Optical Data Temperature 2
+       \units C
+       \ip-units F
+       \type real
+  A3 , \field Window Material Glazing Name 2
+       \type object-list
+       \object-list GlazingMaterialName
+  N3 , \field Optical Data Temperature 3
+       \units C
+       \ip-units F
+       \type real
+  A4 , \field Window Material Glazing Name 3
+       \type object-list
+       \object-list GlazingMaterialName
+  N4 , \field Optical Data Temperature 4
+       \units C
+       \ip-units F
+       \type real
+  A5 , \field Window Material Glazing Name 4
+       \type object-list
+       \object-list GlazingMaterialName
+  N5 , \field Optical Data Temperature 5
+       \units C
+       \ip-units F
+       \type real
+  A6 , \field Window Material Glazing Name 5
+       \type object-list
+       \object-list GlazingMaterialName
+  N6 , \field Optical Data Temperature 6
+       \units C
+       \ip-units F
+       \type real
+  A7 , \field Window Material Glazing Name 6
+       \type object-list
+       \object-list GlazingMaterialName
+  N7 , \field Optical Data Temperature 7
+       \units C
+       \ip-units F
+       \type real
+  A8 , \field Window Material Glazing Name 7
+       \type object-list
+       \object-list GlazingMaterialName
+  N8 , \field Optical Data Temperature 8
+       \units C
+       \ip-units F
+       \type real
+  A9 , \field Window Material Glazing Name 8
+       \type object-list
+       \object-list GlazingMaterialName
+  N9 , \field Optical Data Temperature 9
+       \units C
+       \ip-units F
+       \type real
+  A10, \field Window Material Glazing Name 9
+       \type object-list
+       \object-list GlazingMaterialName
+  N10, \field Optical Data Temperature 10
+       \units C
+       \ip-units F
+       \type real
+  A11, \field Window Material Glazing Name 10
+       \type object-list
+       \object-list GlazingMaterialName
+  N11, \field Optical Data Temperature 11
+       \units C
+       \ip-units F
+       \type real
+  A12, \field Window Material Glazing Name 11
+       \type object-list
+       \object-list GlazingMaterialName
+  N12, \field Optical Data Temperature 12
+       \units C
+       \ip-units F
+       \type real
+  A13, \field Window Material Glazing Name 12
+       \type object-list
+       \object-list GlazingMaterialName
+  N13, \field Optical Data Temperature 13
+       \units C
+       \ip-units F
+       \type real
+  A14, \field Window Material Glazing Name 13
+       \type object-list
+       \object-list GlazingMaterialName
+  N14, \field Optical Data Temperature 14
+       \units C
+       \ip-units F
+       \type real
+  A15, \field Window Material Glazing Name 14
+       \type object-list
+       \object-list GlazingMaterialName
+  N15, \field Optical Data Temperature 15
+       \units C
+       \ip-units F
+       \type real
+  A16, \field Window Material Glazing Name 15
+       \type object-list
+       \object-list GlazingMaterialName
+  N16, \field Optical Data Temperature 16
+       \units C
+       \ip-units F
+       \type real
+  A17, \field Window Material Glazing Name 16
+       \type object-list
+       \object-list GlazingMaterialName
+  N17, \field Optical Data Temperature 17
+       \units C
+       \ip-units F
+       \type real
+  A18, \field Window Material Glazing Name 17
+       \type object-list
+       \object-list GlazingMaterialName
+  N18, \field Optical Data Temperature 18
+       \units C
+       \ip-units F
+       \type real
+  A19, \field Window Material Glazing Name 18
+       \type object-list
+       \object-list GlazingMaterialName
+  N19, \field Optical Data Temperature 19
+       \units C
+       \ip-units F
+       \type real
+  A20, \field Window Material Glazing Name 19
+       \type object-list
+       \object-list GlazingMaterialName
+  N20, \field Optical Data Temperature 20
+       \units C
+       \ip-units F
+       \type real
+  A21, \field Window Material Glazing Name 20
+       \type object-list
+       \object-list GlazingMaterialName
+  N21, \field Optical Data Temperature 21
+       \units C
+       \ip-units F
+       \type real
+  A22, \field Window Material Glazing Name 21
+       \type object-list
+       \object-list GlazingMaterialName
+  N22, \field Optical Data Temperature 22
+       \units C
+       \ip-units F
+       \type real
+  A23, \field Window Material Glazing Name 22
+       \type object-list
+       \object-list GlazingMaterialName
+  N23, \field Optical Data Temperature 23
+       \units C
+       \ip-units F
+       \type real
+  A24, \field Window Material Glazing Name 23
+       \type object-list
+       \object-list GlazingMaterialName
+  N24, \field Optical Data Temperature 24
+       \units C
+       \ip-units F
+       \type real
+  A25, \field Window Material Glazing Name 24
+       \type object-list
+       \object-list GlazingMaterialName
+  N25, \field Optical Data Temperature 25
+       \units C
+       \ip-units F
+       \type real
+  A26, \field Window Material Glazing Name 25
+       \type object-list
+       \object-list GlazingMaterialName
+  N26, \field Optical Data Temperature 26
+       \units C
+       \ip-units F
+       \type real
+  A27, \field Window Material Glazing Name 26
+       \type object-list
+       \object-list GlazingMaterialName
+  N27, \field Optical Data Temperature 27
+       \units C
+       \ip-units F
+       \type real
+  A28, \field Window Material Glazing Name 27
+       \type object-list
+       \object-list GlazingMaterialName
+  N28, \field Optical Data Temperature 28
+       \units C
+       \ip-units F
+       \type real
+  A29, \field Window Material Glazing Name 28
+       \type object-list
+       \object-list GlazingMaterialName
+  N29, \field Optical Data Temperature 29
+       \units C
+       \ip-units F
+       \type real
+  A30, \field Window Material Glazing Name 29
+       \type object-list
+       \object-list GlazingMaterialName
+  N30, \field Optical Data Temperature 30
+       \units C
+       \ip-units F
+       \type real
+  A31, \field Window Material Glazing Name 30
+       \type object-list
+       \object-list GlazingMaterialName
+  N31, \field Optical Data Temperature 31
+       \units C
+       \ip-units F
+       \type real
+  A32, \field Window Material Glazing Name 31
+       \type object-list
+       \object-list GlazingMaterialName
+  N32, \field Optical Data Temperature 32
+       \units C
+       \ip-units F
+       \type real
+  A33, \field Window Material Glazing Name 32
+       \type object-list
+       \object-list GlazingMaterialName
+  N33, \field Optical Data Temperature 33
+       \units C
+       \ip-units F
+       \type real
+  A34, \field Window Material Glazing Name 33
+       \type object-list
+       \object-list GlazingMaterialName
+  N34, \field Optical Data Temperature 34
+       \units C
+       \ip-units F
+       \type real
+  A35, \field Window Material Glazing Name 34
+       \type object-list
+       \object-list GlazingMaterialName
+  N35, \field Optical Data Temperature 35
+       \units C
+       \ip-units F
+       \type real
+  A36, \field Window Material Glazing Name 35
+       \type object-list
+       \object-list GlazingMaterialName
+  N36, \field Optical Data Temperature 36
+       \units C
+       \ip-units F
+       \type real
+  A37, \field Window Material Glazing Name 36
+       \type object-list
+       \object-list GlazingMaterialName
+  N37, \field Optical Data Temperature 37
+       \units C
+       \ip-units F
+       \type real
+  A38, \field Window Material Glazing Name 37
+       \type object-list
+       \object-list GlazingMaterialName
+  N38, \field Optical Data Temperature 38
+       \units C
+       \ip-units F
+       \type real
+  A39, \field Window Material Glazing Name 38
+       \type object-list
+       \object-list GlazingMaterialName
+  N39, \field Optical Data Temperature 39
+       \units C
+       \ip-units F
+       \type real
+  A40, \field Window Material Glazing Name 39
+       \type object-list
+       \object-list GlazingMaterialName
+  N40, \field Optical Data Temperature 40
+       \units C
+       \ip-units F
+       \type real
+  A41, \field Window Material Glazing Name 40
+       \type object-list
+       \object-list GlazingMaterialName
+  N41, \field Optical Data Temperature 41
+       \units C
+       \ip-units F
+       \type real
+  A42, \field Window Material Glazing Name 41
+       \type object-list
+       \object-list GlazingMaterialName
+  N42, \field Optical Data Temperature 42
+       \units C
+       \ip-units F
+       \type real
+  A43, \field Window Material Glazing Name 42
+       \type object-list
+       \object-list GlazingMaterialName
+  N43, \field Optical Data Temperature 43
+       \units C
+       \ip-units F
+       \type real
+  A44, \field Window Material Glazing Name 43
+       \type object-list
+       \object-list GlazingMaterialName
+  N44, \field Optical Data Temperature 44
+       \units C
+       \ip-units F
+       \type real
+  A45, \field Window Material Glazing Name 44
+       \type object-list
+       \object-list GlazingMaterialName
+  N45, \field Optical Data Temperature 45
+       \units C
+       \ip-units F
+       \type real
+  A46; \field Window Material Glazing Name 45
+       \type object-list
+       \object-list GlazingMaterialName
+
+WindowMaterial:Glazing:RefractionExtinctionMethod,
+    \memo Glass material properties for Windows or Glass Doors
+    \memo Index of Refraction/Extinction Coefficient input method
+    \memo Not to be used for coated glass
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference MaterialName
+       \reference GlazingMaterialName
+  N1 , \field Thickness
+       \required-field
+       \units m
+       \type real
+       \minimum> 0.0
+       \ip-units in
+  N2 , \field Solar Index of Refraction
+       \required-field
+       \type real
+       \minimum> 1.0
+  N3 , \field Solar Extinction Coefficient
+       \required-field
+       \units 1/m
+       \type real
+       \minimum> 0.0
+  N4 , \field Visible Index of Refraction
+       \required-field
+       \type real
+       \minimum> 1.0
+  N5 , \field Visible Extinction Coefficient
+       \required-field
+       \units 1/m
+       \type real
+       \minimum> 0.0
+  N6 , \field Infrared Transmittance at Normal Incidence
+       \type real
+       \maximum< 1.0
+       \minimum 0.0
+       \default 0.0
+  N7 , \field Infrared Hemispherical Emissivity
+       \note Emissivity of front and back side assumed equal
+       \type real
+       \maximum< 1.0
+       \minimum> 0.0
+       \default 0.84
+  N8 , \field Conductivity
+       \units W/m-K
+       \type real
+       \minimum> 0.0
+       \default 0.9
+  N9 , \field Dirt Correction Factor for Solar and Visible Transmittance
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 1.0
+  A2 ; \field Solar Diffusing
+       \type choice
+       \key No
+       \key Yes
+       \default No
+
+WindowMaterial:Gas,
+    \memo Gas material properties that are used in Windows or Glass Doors
+       \min-fields 3
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference MaterialName
+       \reference WindowGasAndGasMixtures
+  A2 , \field Gas Type
+       \required-field
+       \type choice
+       \key Air
+       \key Argon
+       \key Krypton
+       \key Xenon
+       \key Custom
+  N1 , \field Thickness
+       \required-field
+       \units m
+       \type real
+       \minimum> 0.0
+       \ip-units in
+  N2 , \field Conductivity Coefficient A
+       \units W/m-K
+       \type real
+       \note Used only if Gas Type = Custom
+  N3 , \field Conductivity Coefficient B
+       \units W/m-K2
+       \type real
+       \note Used only if Gas Type = Custom
+  N4 , \field Conductivity Coefficient C
+       \units W/m-K3
+       \type real
+       \note Used only if Gas Type = Custom
+  N5 , \field Viscosity Coefficient A
+       \units kg/m-s
+       \type real
+       \note Used only if Gas Type = Custom
+       \minimum> 0.0
+  N6 , \field Viscosity Coefficient B
+       \units kg/m-s-K
+       \type real
+       \note Used only if Gas Type = Custom
+  N7 , \field Viscosity Coefficient C
+       \units kg/m-s-K2
+       \type real
+       \note Used only if Gas Type = Custom
+  N8 , \field Specific Heat Coefficient A
+       \units J/kg-K
+       \type real
+       \note Used only if Gas Type = Custom
+       \minimum> 0.0
+  N9 , \field Specific Heat Coefficient B
+       \units J/kg-K2
+       \type real
+       \note Used only if Gas Type = Custom
+  N10 ,\field Specific Heat Coefficient C
+       \units J/kg-K3
+       \type real
+       \note Used only if Gas Type = Custom
+  N11 ,\field Molecular Weight
+       \type real
+       \note Used only if Gas Type = Custom
+       \units g/mol
+       \minimum 20.0
+       \maximum 200.0
+  N12 ;\field Specific Heat Ratio
+       \type real
+       \note Used only if Gas Type = Custom
+       \minimum> 1.0
+
+WindowGap:SupportPillar,
+    \memo used to define pillar geometry for support pillars
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference WindowGapSupportPillars
+  N1 , \field Spacing
+       \units m
+       \type real
+       \minimum> 0.0
+       \default 0.04
+ N2 ; \field Radius
+       \units m
+       \type real
+       \minimum> 0.0
+       \default 0.0004
+
+WindowGap:DeflectionState,
+       \memo Used to enter data describing deflection state of the gap. It is referenced from
+       \memo WindowMaterial:Gap object only and it is used only when deflection model is set to
+       \memo MeasuredDeflection, otherwise it is ignored.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference WindowGapDeflectionStates
+  N1 , \field Deflected Thickness
+       \note If left blank will be considered that gap has no deflection.
+       \units m
+       \type real
+       \minimum 0.0
+       \default 0.0
+  N2 , \field Initial Temperature
+       \units C
+       \type real
+       \minimum 0.0
+       \default 25
+  N3 ; \field Initial Pressure
+       \units Pa
+       \type real
+       \minimum 0.0
+       \default 101325
+
+WindowMaterial:GasMixture,
+    \memo Gas mixtures that are used in Windows or Glass Doors
+       \min-fields 7
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference MaterialName
+       \reference WindowGasAndGasMixtures
+  N1 , \field Thickness
+       \required-field
+       \units m
+       \type real
+       \minimum> 0.0
+  N2 , \field Number of Gases in Mixture
+       \required-field
+       \type integer
+       \minimum 1
+       \maximum 4
+  A2 , \field Gas 1 Type
+       \required-field
+       \type choice
+       \key Air
+       \key Argon
+       \key Krypton
+       \key Xenon
+  N3 , \field Gas 1 Fraction
+       \required-field
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+  A3 , \field Gas 2 Type
+       \required-field
+       \type choice
+       \key Air
+       \key Argon
+       \key Krypton
+       \key Xenon
+  N4 , \field Gas 2 Fraction
+       \required-field
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+  A4 , \field Gas 3 Type
+       \type choice
+       \key Air
+       \key Argon
+       \key Krypton
+       \key Xenon
+  N5 , \field Gas 3 Fraction
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+  A5 , \field Gas 4 Type
+       \type choice
+       \key Air
+       \key Argon
+       \key Krypton
+       \key Xenon
+  N6 ; \field Gas 4 Fraction
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+
+WindowMaterial:Gap,
+       \memo Used to define the gap between two layers in a complex fenestration system, where the
+       \memo Construction:ComplexFenestrationState object is used. It is referenced as a layer in the
+       \memo Construction:ComplexFenestrationState object. It cannot be referenced as a layer from the
+       \memo Construction object.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference CFSGap
+  N1 , \field Thickness
+       \required-field
+       \units m
+       \type real
+       \minimum> 0
+  A2 , \field Gas (or Gas Mixture)
+       \note This field should reference only WindowMaterial:Gas
+       \note or WindowMaterial:GasMixture objects
+       \required-field
+       \type object-list
+       \object-list WindowGasAndGasMixtures
+  N2 , \field Pressure
+       \units Pa
+       \type real
+       \default 101325
+  A3 , \field Deflection State
+       \note If left blank, it will be considered that gap is not deflected
+       \type object-list
+       \object-list WindowGapDeflectionStates
+  A4 ; \field Support Pillar
+       \note If left blank, it will be considered that gap does not have
+       \note support pillars
+       \type object-list
+       \object-list WindowGapSupportPillars
+
+WindowMaterial:Shade,
+       \memo Specifies the properties of window shade materials. Reflectance and emissivity
+       \memo properties are assumed to be the same on both sides of the shade. Shades are considered
+       \memo to be perfect diffusers (all transmitted and reflected radiation is
+       \memo hemispherically-diffuse) independent of angle of incidence.
+  \min-fields 15
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference MaterialName
+       \reference WindowShadesScreensAndBlinds
+  N1 , \field Solar Transmittance
+       \required-field
+       \note Assumed independent of incidence angle
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N2 , \field Solar Reflectance
+       \required-field
+       \note Assumed same for both sides
+       \note Assumed independent of incidence angle
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N3 , \field Visible Transmittance
+       \required-field
+       \note Assumed independent of incidence angle
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N4 , \field Visible Reflectance
+       \required-field
+       \note Assumed same for both sides
+       \note Assumed independent of incidence angle
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N5 , \field Infrared Hemispherical Emissivity
+       \required-field
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum> 0
+  N6 , \field Infrared Transmittance
+       \required-field
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum 0
+  N7 , \field Thickness
+       \required-field
+       \type real
+       \units m
+       \minimum> 0
+       \ip-units in
+  N8 , \field Conductivity
+       \required-field
+       \units W/m-K
+       \type real
+       \minimum> 0
+  N9 , \field Shade to Glass Distance
+       \type real
+       \units m
+       \minimum 0.001
+       \maximum 1.0
+       \default 0.050
+       \ip-units in
+  N10, \field Top Opening Multiplier
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.5
+  N11, \field Bottom Opening Multiplier
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.5
+  N12, \field Left-Side Opening Multiplier
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.5
+  N13, \field Right-Side Opening Multiplier
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.5
+  N14; \field Airflow Permeability
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 0.8
+       \default 0.0
+
+WindowMaterial:ComplexShade,
+    \memo Complex window shading layer thermal properties
+     \min-fields 12
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference WindowComplexShades
+  A2 , \field Layer Type
+       \type choice
+       \key VenetianHorizontal
+       \key VenetianVertical
+       \key Woven
+       \key Perforated
+       \key BSDF
+       \key OtherShadingType
+       \default OtherShadingType
+  N1 , \field Thickness
+       \type real
+       \units m
+       \minimum> 0
+       \default 0.002
+  N2 , \field Conductivity
+       \units W/m-K
+       \type real
+       \minimum> 0
+       \default 1
+  N3 , \field IR Transmittance
+       \type real
+       \maximum 1
+       \minimum 0
+       \default 0
+  N4 , \field Front Emissivity
+       \type real
+       \maximum 1
+       \minimum> 0
+       \default 0.84
+  N5 , \field Back Emissivity
+       \type real
+       \maximum 1
+       \minimum> 0
+       \default 0.84
+  N6 , \field Top Opening Multiplier
+       \type real
+       \minimum 0
+       \maximum 1
+       \default 0
+  N7 , \field Bottom Opening Multiplier
+       \type real
+       \minimum 0
+       \maximum 1
+       \default 0
+  N8 , \field Left Side Opening Multiplier
+       \type real
+       \minimum 0
+       \maximum 1
+       \default 0
+  N9 , \field Right Side Opening Multiplier
+       \type real
+       \minimum 0
+       \maximum 1
+       \default 0
+ N10 , \field Front Opening Multiplier
+       \type real
+       \minimum 0
+       \maximum 1
+       \default 0.05
+ N11 , \field Slat Width
+       \units m
+       \type real
+       \minimum> 0
+       \default 0.016
+ N12 , \field Slat Spacing
+       \note Distance between adjacent slat faces
+       \units m
+       \type real
+       \minimum> 0
+       \default 0.012
+  N13 , \field Slat Thickness
+       \note Distance between top and bottom surfaces of slat
+       \note Slat is assumed to be rectangular in cross section and flat
+       \type real
+       \units m
+       \minimum> 0
+       \default 0.0006
+  N14 , \field Slat Angle
+       \type real
+       \units deg
+       \default 90
+       \minimum -90
+       \maximum 90
+  N15 , \field Slat Conductivity
+       \type real
+       \units W/m-K
+       \minimum> 0
+       \default 160.0
+  N16 ; \field Slat Curve
+       \note this value represents curvature radius of the slat.
+       \note if the slat is flat use zero.
+       \note if this value is not zero, then it must be > SlatWidth/2.
+       \type real
+       \units m
+       \minimum 0.0
+       \default 0
+
+WindowMaterial:Blind,
+    \memo Window blind thermal properties
+     \min-fields 29
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference MaterialName
+       \reference WindowShadesScreensAndBlinds
+  A2 , \field Slat Orientation
+       \type choice
+       \key Horizontal
+       \key Vertical
+       \default Horizontal
+  N1 , \field Slat Width
+       \required-field
+       \units m
+       \type real
+       \minimum> 0
+       \maximum 1
+       \ip-units in
+  N2 , \field Slat Separation
+       \required-field
+       \note Distance between adjacent slat faces
+       \units m
+       \type real
+       \minimum> 0
+       \maximum 1
+       \ip-units in
+  N3 , \field Slat Thickness
+       \note Distance between top and bottom surfaces of slat
+       \note Slat is assumed to be rectangular in cross section and flat
+       \type real
+       \units m
+       \minimum> 0
+       \maximum 0.1
+       \default 0.00025
+       \ip-units in
+  N4 , \field Slat Angle
+       \note If WindowShadingControl referencing the window that incorporates this blind
+       \note has Type of Slat Angle Control for Blinds = FixedSlatAngle,
+       \note then this is the fixed value of the slat angle;
+       \note If WindowShadingControl referencing the window that incorporates this blind
+       \note has Type of Slat Angle Control for Blinds = BlockBeamSolar,
+       \note then this is the slat angle when slat angle control
+       \note is not in effect (e.g., when there is no beam solar on the blind);
+       \note Not used if WindowShadingControl referencing the window that incorporates this blind
+       \note has Type of Slat Angle Control for Blinds = ScheduledSlatAngle.
+       \type real
+       \units deg
+       \default 45
+       \minimum 0
+       \maximum 180
+  N5 , \field Slat Conductivity
+       \type real
+       \units W/m-K
+       \minimum> 0
+       \default 221.0
+       \note default is for aluminum
+  N6 , \field Slat Beam Solar Transmittance
+       \type real
+       \maximum< 1
+       \minimum 0
+       \default 0
+  N7 , \field Front Side Slat Beam Solar Reflectance
+       \required-field
+       \type real
+       \maximum< 1
+       \minimum 0
+  N8 , \field Back Side Slat Beam Solar Reflectance
+       \required-field
+       \type real
+       \maximum< 1
+       \minimum 0
+  N9 , \field Slat Diffuse Solar Transmittance
+       \note Must equal "Slat beam solar transmittance"
+       \type real
+       \maximum< 1
+       \minimum 0
+       \default 0
+  N10, \field Front Side Slat Diffuse Solar Reflectance
+       \note Must equal "Front Side Slat Beam Solar Reflectance"
+       \required-field
+       \type real
+       \maximum< 1
+       \minimum 0
+  N11, \field Back Side Slat Diffuse Solar Reflectance
+       \note Must equal "Back Side Slat Beam Solar Reflectance"
+       \required-field
+       \type real
+       \maximum< 1
+       \minimum 0
+  N12, \field Slat Beam Visible Transmittance
+       \note Required for detailed daylighting calculation
+       \type real
+       \maximum< 1
+       \minimum 0
+       \required-field
+  N13, \field Front Side Slat Beam Visible Reflectance
+       \note Required for detailed daylighting calculation
+       \type real
+       \maximum< 1
+       \minimum 0
+  N14, \field Back Side Slat Beam Visible Reflectance
+       \note Required for detailed daylighting calculation
+       \type real
+       \maximum< 1
+       \minimum 0
+  N15, \field Slat Diffuse Visible Transmittance
+       \note Used only for detailed daylighting calculation
+       \note Must equal "Slat Beam Visible Transmittance"
+       \type real
+       \maximum< 1
+       \minimum 0
+       \default 0
+  N16, \field Front Side Slat Diffuse Visible Reflectance
+       \note Required for detailed daylighting calculation
+       \note Must equal "Front Side Slat Beam Visible Reflectance"
+       \type real
+       \maximum< 1
+       \minimum 0
+  N17, \field Back Side Slat Diffuse Visible Reflectance
+       \note Required for detailed daylighting calculation
+       \note Must equal "Back Side Slat Beam Visible Reflectance"
+       \type real
+       \maximum< 1
+       \minimum 0
+  N18, \field Slat Infrared Hemispherical Transmittance
+       \type real
+       \maximum< 1
+       \minimum 0
+       \default 0
+  N19, \field Front Side Slat Infrared Hemispherical Emissivity
+       \type real
+       \maximum< 1
+       \minimum 0
+       \default 0.9
+  N20, \field Back Side Slat Infrared Hemispherical Emissivity
+       \type real
+       \maximum< 1
+       \minimum 0
+       \default 0.9
+  N21, \field Blind to Glass Distance
+       \type real
+       \units m
+       \minimum 0.01
+       \maximum 1.0
+       \default 0.050
+       \ip-units in
+  N22, \field Blind Top Opening Multiplier
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.5
+  N23, \field Blind Bottom Opening Multiplier
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N24, \field Blind Left Side Opening Multiplier
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.5
+  N25, \field Blind Right Side Opening Multiplier
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.5
+  N26, \field Minimum Slat Angle
+       \note Used only if WindowShadingControl referencing the window that incorporates
+       \note this blind varies the slat angle (i.e., WindowShadingControl with
+       \note Type of Slat Angle Control for Blinds = ScheduledSlatAngle
+       \note or BlockBeamSolar)
+       \type real
+       \units deg
+       \default 0
+       \minimum 0
+       \maximum 180
+  N27; \field Maximum Slat Angle
+       \note Used only if WindowShadingControl referencing the window that incorporates
+       \note this blind varies the slat angle (i.e., WindowShadingControl with
+       \note Type of Slat Angle Control for Blinds = ScheduledSlatAngle
+       \note or BlockBeamSolar)
+       \type real
+       \units deg
+       \default 180
+       \minimum 0
+       \maximum 180
+
+WindowMaterial:Screen,
+       \memo Window screen physical properties. Can only be located on the exterior side of a window construction.
+       \min-fields 9
+  A1 , \field Name
+       \note Enter a unique name for this window screen material.
+       \required-field
+       \type alpha
+       \reference MaterialName
+       \reference WindowShadesScreensAndBlinds
+  A2 , \field Reflected Beam Transmittance Accounting Method
+       \note Select the method used to account for the beam solar reflected off the material surface.
+       \type choice
+       \key DoNotModel
+       \key ModelAsDirectBeam
+       \key ModelAsDiffuse
+       \default ModelAsDiffuse
+  N1 , \field Diffuse Solar Reflectance
+       \note Diffuse reflectance of the screen material over the entire solar radiation spectrum.
+       \note Assumed to be the same for both sides of the screen.
+       \required-field
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N2 , \field Diffuse Visible Reflectance
+       \note Diffuse visible reflectance of the screen material averaged over the solar spectrum
+       \note and weighted by the response of the human eye.
+       \note Assumed to be the same for both sides of the screen.
+       \required-field
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N3 , \field Thermal Hemispherical Emissivity
+       \note Long-wave emissivity of the screen material.
+       \note Assumed to be the same for both sides of the screen.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum> 0
+       \default 0.9
+  N4 , \field Conductivity
+       \note Thermal conductivity of the screen material.
+       \type real
+       \units W/m-K
+       \minimum> 0
+       \default 221.0
+       \note Default is for aluminum.
+  N5 , \field Screen Material Spacing
+       \note Spacing assumed to be the same in both directions.
+       \required-field
+       \type real
+       \units m
+       \minimum> 0
+       \ip-units in
+  N6 , \field Screen Material Diameter
+       \note Diameter assumed to be the same in both directions.
+       \required-field
+       \type real
+       \units m
+       \minimum> 0
+       \ip-units in
+  N7 , \field Screen to Glass Distance
+       \note Distance from the window screen to the adjacent glass surface.
+       \type real
+       \units m
+       \minimum 0.001
+       \maximum 1.0
+       \default 0.025
+       \ip-units in
+  N8 , \field Top Opening Multiplier
+       \note Effective area for air flow at the top of the screen divided by the perpendicular
+       \note area between the glass and the top of the screen.
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N9 , \field Bottom Opening Multiplier
+       \note Effective area for air flow at the bottom of the screen divided by the perpendicular
+       \note area between the glass and the bottom of the screen.
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N10, \field Left Side Opening Multiplier
+       \note Effective area for air flow at the left side of the screen divided by the perpendicular
+       \note area between the glass and the left side of the screen.
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N11, \field Right Side Opening Multiplier
+       \note Effective area for air flow at the right side of the screen divided by the perpendicular
+       \note area between the glass and the right side of the screen.
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N12; \field Angle of Resolution for Screen Transmittance Output Map
+       \note Select the resolution of azimuth and altitude angles for the screen transmittance map.
+       \note A value of 0 means no transmittance map will be generated.
+       \note Valid values for this field are 0, 1, 2, 3 and 5.
+       \type choice
+       \units deg
+       \key 0
+       \key 1
+       \key 2
+       \key 3
+       \key 5
+       \default 0
+
+WindowMaterial:Shade:EquivalentLayer,
+       \memo Specifies the properties of equivalent layer window shade material
+       \memo Shades are considered to be perfect diffusers (all transmitted and
+       \memo reflected radiation is hemispherically-diffuse) independent of angle
+       \memo  of incidence. Shade represents roller blinds.
+       \min-fields 6
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference WindowEquivalentLayerMaterialNames
+  N1 , \field Shade Beam-Beam Solar Transmittance
+       \note The beam-beam solar transmittance at normal incidence. This value is
+       \note the same as the openness area fraction of the shade material. Assumed
+       \note to be the same for front and back sides.
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 0.8
+       \default 0.0
+  N2 , \field Front Side Shade Beam-Diffuse Solar Transmittance
+       \required-field
+       \note The front side beam-diffuse solar transmittance at normal incidence averaged
+       \note over the entire spectrum of solar radiation.
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N3 , \field Back Side Shade Beam-Diffuse Solar Transmittance
+       \required-field
+       \note The back side beam-diffuse solar transmittance at normal incidence averaged
+       \note over the entire spectrum of solar radiation.
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N4 , \field Front Side Shade Beam-Diffuse Solar Reflectance
+       \required-field
+       \note The front side beam-diffuse solar reflectance at normal incidence averaged
+       \note over the entire spectrum of solar radiation.
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N5 , \field Back Side Shade Beam-Diffuse Solar Reflectance
+       \required-field
+       \note The back side beam-diffuse solar reflectance at normal incidence averaged
+       \note over the entire spectrum of solar radiation.
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N6 , \field Shade Beam-Beam Visible Transmittance at Normal Incidence
+       \note The beam-beam visible transmittance at normal incidence averaged over the
+       \note visible spectrum range of solar radiation. Assumed to be the same for
+       \note front and back sides of the shade.
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N7 , \field Shade Beam-Diffuse Visible Transmittance at Normal Incidence
+       \note The beam-diffuse visible transmittance at normal incidence averaged over the
+       \note visible spectrum range of solar radiation. Assumed to be the same for
+       \note front and back sides of the shade.
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N8 , \field Shade Beam-Diffuse Visible Reflectance at Normal Incidence
+       \note The beam-diffuse visible reflectance at normal incidence averaged over the
+       \note visible spectrum range of solar radiation. Assumed to be the same for
+       \note front and back sides of the shade.
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N9 , \field Shade Material Infrared Transmittance
+       \note The long-wave transmittance of the shade material at zero shade openness.
+       \note Assumed to be the same for front and back sides of the shade.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum 0
+       \default 0.05
+  N10, \field Front Side Shade Material Infrared Emissivity
+       \note The front side long-wave emissivity of the shade material at zero shade
+       \note openness. Openness fraction is used to calculate the effective emissivity
+       \note value.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum> 0
+       \default 0.91
+  N11; \field Back Side Shade Material Infrared Emissivity
+       \note The back side long-wave emissivity of the shade material at zero shade
+       \note openness. Openness fraction is used to calculate the effective emissivity
+       \note value.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum> 0
+       \default 0.91
+
+WindowMaterial:Drape:EquivalentLayer,
+       \memo Specifies the properties of equivalent layer drape fabric materials.
+       \memo Shades are considered to be perfect diffusers (all transmitted and reflected
+       \memo radiation is hemispherically-diffuse) independent of angle of incidence.
+       \memo unpleated drape fabric is treated as thin and flat layer.
+       \min-fields 4
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference WindowEquivalentLayerMaterialNames
+  N1 , \field Drape Beam-Beam Solar Transmittance at Normal Incidence
+       \note The beam-beam solar transmittance at normal incidence. This value is the
+       \note same as the openness area fraction of the drape fabric. Assumed to be
+       \note same for front and back sides.
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 0.2
+       \default 0.0
+  N2 , \field Front Side Drape Beam-Diffuse Solar Transmittance
+       \required-field
+       \note The front side beam-diffuse solar transmittance at normal incidence averaged
+       \note over the entire spectrum of solar radiation. Assumed to be the same for front
+       \note and back sides.
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N3 , \field Back Side Drape Beam-Diffuse Solar Transmittance
+       \required-field
+       \note The back side beam-diffuse solar transmittance at normal incidence averaged
+       \note over the entire spectrum of solar radiation. Assumed to be the same for front
+       \note and back sides.
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N4 , \field Front Side Drape Beam-Diffuse Solar Reflectance
+       \required-field
+       \note The front side beam-diffuse solar reflectance at normal incidence averaged
+       \note over the entire spectrum of solar radiation.
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N5 , \field Back Side Drape Beam-Diffuse Solar Reflectance
+       \required-field
+       \note The back side beam-diffuse solar reflectance at normal incidence averaged
+       \note over the entire spectrum of solar radiation.
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N6 , \field Drape Beam-Beam Visible Transmittance
+       \note The beam-beam visible transmittance at normal incidence averaged over the
+       \note visible spectrum of solar radiation. Assumed same for front and back sides.
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N7 , \field Drape Beam-Diffuse Visible Transmittance
+       \note The beam-diffuse visible transmittance at normal incidence averaged over the
+       \note visible spectrum range of solar radiation. Assumed to be the same for front
+       \note and back sides.
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N8 , \field Drape Beam-Diffuse Visible Reflectance
+       \note The beam-diffuse visible reflectance at normal incidence average over the
+       \note visible spectrum range of solar radiation. Assumed to be the same for front
+       \note and back sides.
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N9 , \field Drape Material Infrared Transmittance
+       \note Long-wave transmittance of the drape fabric at zero openness fraction.
+       \note Assumed same for front and back sides.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum 0
+       \default 0.05
+  N10, \field Front Side Drape Material Infrared Emissivity
+       \note Front side long-wave emissivity of the drape fabric at zero shade openness.
+       \note Openness fraction specified above is used to calculate the effective
+       \note emissivity value.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum> 0
+       \default 0.87
+  N11, \field Back Side Drape Material Infrared Emissivity
+       \note Back side long-wave emissivity of the drape fabric at zero shade openness.
+       \note Openness fraction specified above is used to calculate the effective
+       \note emissivity value.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum> 0
+       \default 0.87
+  N12, \field Width of Pleated Fabric
+       \note Width of the pleated section of the draped fabric. If the drape fabric is
+       \note unpleated or is flat, then the pleated section width is set to zero.
+       \type real
+       \units m
+       \minimum 0
+       \ip-units in
+       \default 0
+  N13; \field Length of Pleated Fabric
+       \note Length of the pleated section of the draped fabric. If the drape fabric is
+       \note unpleated or is flat, then the pleated section length is set to zero.
+       \type real
+       \units m
+       \minimum 0
+       \ip-units in
+       \default 0
+
+WindowMaterial:Blind:EquivalentLayer,
+       \memo Window equivalent layer blind slat optical and thermal properties.
+       \memo The model assumes that slats are thin and flat, applies correction
+       \memo empirical correlation to account for curvature effect. Slats are
+       \memo assumed to transmit and reflect diffusely.
+       \min-fields 10
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference WindowEquivalentLayerMaterialNames
+  A2 , \field Slat Orientation
+       \type choice
+       \key Horizontal
+       \key Vertical
+       \default Horizontal
+  N1 , \field Slat Width
+       \required-field
+       \units m
+       \type real
+       \minimum> 0
+       \maximum 0.025
+       \ip-units in
+  N2 , \field Slat Separation
+       \required-field
+       \note Distance between adjacent slat faces
+       \units m
+       \type real
+       \minimum> 0
+       \maximum 0.025
+       \ip-units in
+  N3 , \field Slat Crown
+       \note Perpendicular length between the cord and the curve.
+       \note Slat is assumed to be rectangular in cross section
+       \note and flat. Crown=0.0625x"Slat width"
+       \type real
+       \units m
+       \minimum 0
+       \maximum 0.00156
+       \default 0.0015
+       \ip-units in
+  N4 , \field Slat Angle
+       \type real
+       \units deg
+       \minimum -90
+       \maximum 90
+       \default 45
+       \note Slat angle is +ve if the tip of the slat front face is tilted upward, else
+       \note the slat angle is -ve if the tip of the slat front face is tilted downward.
+       \note The slat angle varies between -90 to +90. The default value is 45 degrees.
+  N5 , \field Front Side Slat Beam-Diffuse Solar Transmittance
+       \note The front side beam-diffuse solar transmittance of the slat at normal
+       \note incidence averaged over the entire spectrum of solar radiation.
+       \type real
+       \maximum< 1
+       \minimum 0
+       \default 0
+  N6 , \field Back Side Slat Beam-Diffuse Solar Transmittance
+       \note The back side beam-diffuse solar transmittance of the slat at normal
+       \note incidence averaged over the entire spectrum of solar radiation.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum 0
+       \default 0
+  N7,  \field Front Side Slat Beam-Diffuse Solar Reflectance
+       \note The front side beam-diffuse solar reflectance of the slat at normal
+       \note incidence averaged over the entire spectrum of solar radiation.
+       \required-field
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum 0
+  N8,  \field Back Side Slat Beam-Diffuse Solar Reflectance
+       \note The back side beam-diffuse solar reflectance of the slat at normal
+       \note incidence averaged over the entire spectrum of solar radiation.
+       \required-field
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum 0
+  N9 , \field Front Side Slat Beam-Diffuse Visible Transmittance
+       \note The front side beam-diffuse visible transmittance of the slat
+       \note at normal incidence averaged over the visible spectrum range
+       \note of solar radiation.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum 0
+       \default 0
+  N10, \field Back Side Slat Beam-Diffuse Visible Transmittance
+       \note The back side beam-diffuse visible transmittance of the slat
+       \note at normal incidence averaged over the visible spectrum range
+       \note of solar radiation.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum 0
+       \default 0
+  N11, \field Front Side Slat Beam-Diffuse Visible Reflectance
+       \note The front side beam-diffuse visible reflectance of the slat
+       \note at normal incidence averaged over the visible spectrum range
+       \note of solar radiation.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum 0
+  N12, \field Back Side Slat Beam-Diffuse Visible Reflectance
+       \note The back side beam-diffuse visible reflectance of the slat
+       \note at normal incidence averaged over the visible spectrum range
+       \note of solar radiation.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum 0
+  N13, \field Slat Diffuse-Diffuse Solar Transmittance
+       \note The beam-diffuse solar transmittance of the slat averaged
+       \note over the entire solar spectrum of solar radiation.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum 0
+       \default 0
+  N14, \field Front Side Slat Diffuse-Diffuse Solar Reflectance
+       \note The front side beam-diffuse solar reflectance of the slat
+       \note averaged over the entire solar spectrum of solar radiation.
+       \required-field
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum 0
+  N15, \field Back Side Slat Diffuse-Diffuse Solar Reflectance
+       \note The back side beam-diffuse solar reflectance of the slat
+       \note averaged over the entire solar spectrum of solar radiation.
+       \required-field
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum 0
+  N16, \field Slat Diffuse-Diffuse Visible Transmittance
+       \note The beam-diffuse visible transmittance of the slat averaged
+       \note over the visible spectrum range of solar radiation.
+       \type real
+       \maximum< 1
+       \minimum 0
+  N17, \field Front Side Slat Diffuse-Diffuse Visible Reflectance
+       \note The front side beam-diffuse visible reflectance of the slat
+       \note averaged over the visible spectrum range of solar radiation.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum 0
+  N18, \field Back Side Slat Diffuse-Diffuse Visible Reflectance
+       \note The back side beam-diffuse visible reflectance of the slat
+       \note averaged over the visible spectrum range of solar radiation.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum 0
+  N19, \field Slat Infrared Transmittance
+       \note Long-wave hemispherical transmittance of the slat material.
+       \note Assumed to be the same for both sides of the slat.
+       \type real
+       \maximum< 1
+       \minimum 0
+       \default 0
+  N20, \field Front Side Slat Infrared Emissivity
+       \note Front side long-wave hemispherical emissivity of the slat material.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum 0
+       \default 0.9
+  N21, \field Back Side Slat Infrared Emissivity
+       \note Back side long-wave hemispherical emissivity of the slat material.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum 0
+       \default 0.9
+  A3;  \field Slat Angle Control
+       \note Used only if slat angle control is desired to either maximize solar
+       \note gain (MaximizeSolar), maximize visibility while eliminating beam solar
+       \note radiation (BlockBeamSolar), or fixed slate angle (FixedSlatAngle).
+       \note If FixedSlatAngle is selected, the slat angle entered above is used.
+       \type choice
+       \key FixedSlatAngle
+       \key MaximizeSolar
+       \key BlockBeamSolar
+       \default FixedSlatAngle
+
+WindowMaterial:Screen:EquivalentLayer,
+       \memo Equivalent layer window screen physical properties. Can only be
+       \memo located on the exterior side of a window construction.
+       \min-fields 11
+  A1 , \field Name
+       \note Enter a unique name for this window screen material.
+       \required-field
+       \type alpha
+       \reference WindowEquivalentLayerMaterialNames
+  N1 , \field Screen Beam-Beam Solar Transmittance
+       \note The beam-beam transmittance of the screen material at normal incidence.
+       \note This input field is the same as the material openness area fraction
+       \note and can be autocalculated from the wire spacing and wire and diameter.
+       \note Assumed to be the same for both sides of the screen.
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+       \autocalculatable
+       \default autocalculate
+  N2 , \field Screen Beam-Diffuse Solar Transmittance
+       \note The beam-diffuse solar transmittance of the screen material at normal
+       \note incidence averaged over the entire spectrum of solar radiation.
+       \note Assumed to be the same for both sides of the screen.
+       \required-field
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N3 , \field Screen Beam-Diffuse Solar Reflectance
+       \note The beam-diffuse solar reflectance of the screen material at normal
+       \note incidence averaged over the entire spectrum of solar radiation.
+       \note Assumed to be the same for both sides of the screen.
+       \required-field
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N4 , \field Screen Beam-Beam Visible Transmittance
+       \note The beam-beam visible transmittance of the screen material at normal
+       \note incidence averaged over the visible spectrum range of solar radiation.
+       \note Assumed to be the same for both sides of the screen.
+       \required-field
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N5 , \field Screen Beam-Diffuse Visible Transmittance
+       \note The beam-diffuse visible transmittance of the screen material at normal
+       \note incidence averaged over the visible spectrum range of solar radiation.
+       \note Assumed to be the same for both sides of the screen.
+       \required-field
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N6 , \field Screen Beam-Diffuse Visible Reflectance
+       \note Beam-diffuse visible reflectance of the screen material at normal
+       \note incidence averaged over the visible spectrum range of solar radiation.
+       \note Assumed to be the same for both sides of the screen.
+       \required-field
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+  N7 , \field Screen Infrared Transmittance
+       \note The long-wave hemispherical transmittance of the screen material.
+       \note Assumed to be the same for both sides of the screen.
+       \type real
+       \units dimensionless
+       \minimum 0
+       \maximum< 1
+       \default 0.02
+  N8 , \field Screen Infrared Emissivity
+       \note The long-wave hemispherical emissivity of the screen material.
+       \note Assumed to be the same for both sides of the screen.
+       \type real
+       \units dimensionless
+       \maximum< 1
+       \minimum> 0
+       \default 0.93
+  N9 , \field Screen Wire Spacing
+       \note Spacing assumed to be the same in both directions.
+       \type real
+       \units m
+       \minimum> 0
+       \ip-units in
+       \default 0.025
+  N10; \field Screen Wire Diameter
+       \note Diameter assumed to be the same in both directions.
+       \type real
+       \units m
+       \minimum> 0
+       \ip-units in
+       \default 0.005
+
+WindowMaterial:Glazing:EquivalentLayer,
+       \min-fields 11
+       \memo Glass material properties for Windows or Glass Doors
+       \memo Transmittance/Reflectance input method.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference WindowEquivalentLayerMaterialNames
+  A2 , \field Optical Data Type
+       \type choice
+       \key Spectral
+       \key SpectralAverage
+       \default SpectralAverage
+       \note Spectral is not currently supported and SpectralAverage is the default.
+  A3 , \field Window Glass Spectral Data Set Name
+       \note Spectral data is not currently supported.
+       \note Used only when Optical Data Type = Spectral
+       \type object-list
+       \object-list SpectralDataSets
+  N1 , \field Front Side Beam-Beam Solar Transmittance
+       \note Used only when Optical Data Type = SpectralAverage
+       \required-field
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+  N2 , \field Back Side Beam-Beam Solar Transmittance
+       \note Used only when Optical Data Type = SpectralAverage
+       \required-field
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+  N3 , \field Front Side Beam-Beam Solar Reflectance
+       \note Used only when Optical Data Type = SpectralAverage
+       \note Front Side is side closest to outdoor air
+       \required-field
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+  N4 , \field Back Side Beam-Beam Solar Reflectance
+       \note Used only when Optical Data Type = SpectralAverage
+       \note Back Side is side closest to zone air
+       \required-field
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+  N5 , \field Front Side Beam-Beam Visible Solar Transmittance
+       \note Used only when Optical Data Type = SpectralAverage
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+  N6 , \field Back Side Beam-Beam Visible Solar Transmittance
+       \note Used only when Optical Data Type = SpectralAverage
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+  N7 , \field Front Side Beam-Beam Visible Solar Reflectance
+       \note Used only when Optical Data Type = SpectralAverage
+       \note Front Side is side closest to outdoor air
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+  N8 , \field Back Side Beam-Beam Visible Solar Reflectance
+       \note Used only when Optical Data Type = SpectralAverage
+       \note Back Side is side closest to zone air
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+  N9 , \field Front Side Beam-Diffuse Solar Transmittance
+       \note Used only when Optical Data Type = SpectralAverage
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N10, \field Back Side Beam-Diffuse Solar Transmittance
+       \note Used only when Optical Data Type = SpectralAverage
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N11, \field Front Side Beam-Diffuse Solar Reflectance
+       \note Used only when Optical Data Type = SpectralAverage
+       \note Front Side is side closest to outdoor air
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N12, \field Back Side Beam-Diffuse Solar Reflectance
+       \note Used only when Optical Data Type = SpectralAverage
+       \note Back Side is side closest to zone air
+       \type real
+       \minimum 0.0
+       \units dimensionless
+       \maximum 1.0
+       \default 0.0
+  N13, \field Front Side Beam-Diffuse Visible Solar Transmittance
+       \note Used only when Optical Data Type = SpectralAverage
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N14, \field Back Side Beam-Diffuse Visible Solar Transmittance
+       \note Used only when Optical Data Type = SpectralAverage
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N15, \field Front Side Beam-Diffuse Visible Solar Reflectance
+       \note Used only when Optical Data Type = SpectralAverage
+       \note Front Side is side closest to outdoor air
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N16, \field Back Side Beam-Diffuse Visible Solar Reflectance
+       \note Used only when Optical Data Type = SpectralAverage
+       \note Back Side is side closest to zone air
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N17, \field Diffuse-Diffuse Solar Transmittance
+       \note Used only when Optical Data Type = SpectralAverage
+       \note If this field is autocalculate, then the diffuse-diffuse solar
+       \note transmittance is automatically estimated from other inputs and used
+       \note in subsequent calculations. If this field is zero or positive, then
+       \note the value entered here will be used.
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \autocalculatable
+       \default autocalculate
+ N18, \field Front Side Diffuse-Diffuse Solar Reflectance
+       \note Used only when Optical Data Type = SpectralAverage
+       \note If this field is autocalculate, then the front diffuse-diffuse solar
+       \note reflectance is automatically estimated from other inputs and used in
+       \note subsequent calculations. If this field is zero or positive, then the value
+       \note entered here will be used. Front Side is side closest to outdoor air.
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \autocalculatable
+       \default autocalculate
+  N19, \field Back Side Diffuse-Diffuse Solar Reflectance
+       \note Used only when Optical Data Type = SpectralAverage
+       \note If this field is autocalculate, then the back diffuse-diffuse solar
+       \note reflectance is automatically estimated from other inputs and used in
+       \note subsequent calculations. If this field is zero or positive, then the value
+       \note entered here will be used. Back side is side closest to indoor air.
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \autocalculatable
+       \default autocalculate
+  N20, \field Diffuse-Diffuse Visible Solar Transmittance
+       \note Used only when Optical Data Type = SpectralAverage
+       \note This input field is not used currently.
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \autocalculatable
+       \default autocalculate
+ N21,  \field Front Side Diffuse-Diffuse Visible Solar Reflectance
+       \note Used only when Optical Data Type = SpectralAverage
+       \note This input field is not used currently.
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \autocalculatable
+       \default autocalculate
+  N22, \field Back Side Diffuse-Diffuse Visible Solar Reflectance
+       \note Used only when Optical Data Type = SpectralAverage
+       \note This input field is not used currently.
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \autocalculatable
+       \default autocalculate
+  N23, \field Infrared Transmittance (applies to front and back)
+       \note The long-wave hemispherical transmittance of the glazing.
+       \note Assumed to be the same for both sides of the glazing.
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N24, \field Front Side Infrared Emissivity
+       \note The front side long-wave hemispherical emissivity of the glazing.
+       \type real
+       \units dimensionless
+       \minimum> 0.0
+       \maximum< 1.0
+       \default 0.84
+  N25, \field Back Side Infrared Emissivity
+       \note The back side long-wave hemispherical emissivity of the glazing.
+       \type real
+       \units dimensionless
+       \minimum> 0.0
+       \maximum< 1.0
+       \default 0.84
+  N26; \field Thermal Resistance
+       \note This is the R-Value in SI for the glass. The default value is an
+       \note approximation for a single layer of glass at 1/4" inch thickness.
+       \note This field is used only for movable insulation defined with this
+       \note material type.
+       \type real
+       \units m2-K/W
+       \minimum> 0.0
+       \default 0.158
+
+WindowMaterial:Gap:EquivalentLayer,
+       \memo Gas material properties that are used in Windows Equivalent Layer
+       \memo References only WindowMaterial:Gas properties
+       \min-fields 3
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference WindowEquivalentLayerMaterialNames
+  A2 , \field Gas Type
+       \required-field
+       \type choice
+       \key AIR
+       \key ARGON
+       \key KRYPTON
+       \key XENON
+       \key CUSTOM
+  N1 , \field Thickness
+       \required-field
+       \units m
+       \type real
+       \minimum> 0.0
+       \ip-units in
+  A3 , \field Gap Vent Type
+       \required-field
+       \type choice
+       \key Sealed
+       \key VentedIndoor
+       \key VentedOutdoor
+       \note Sealed means the gap is enclosed and gas tight, i.e., no venting to indoor or
+       \note outdoor environment. VentedIndoor means the gap is vented to indoor environment, and
+       \note VentedOutdoor means the gap is vented to the outdoor environment. The gap types
+       \note VentedIndoor and VentedOutdoor are used with gas type "Air" only.
+  N2 , \field Conductivity Coefficient A
+       \units W/m-K
+       \type real
+       \note Used only if Gas Type = Custom
+  N3 , \field Conductivity Coefficient B
+       \units W/m-K2
+       \type real
+       \note Used only if Gas Type = Custom
+  N4 , \field Conductivity Coefficient C
+       \units W/m-K3
+       \type real
+       \note Used only if Gas Type = Custom
+  N5 , \field Viscosity Coefficient A
+       \units kg/m-s
+       \type real
+       \note Used only if Gas Type = Custom
+       \minimum> 0.0
+  N6 , \field Viscosity Coefficient B
+       \units kg/m-s-K
+       \type real
+       \note Used only if Gas Type = Custom
+  N7 , \field Viscosity Coefficient C
+       \units kg/m-s-K2
+       \type real
+       \note Used only if Gas Type = Custom
+  N8 , \field Specific Heat Coefficient A
+       \units J/kg-K
+       \type real
+       \note Used only if Gas Type = Custom
+       \minimum> 0.0
+  N9 , \field Specific Heat Coefficient B
+       \units J/kg-K2
+       \type real
+       \note Used only if Gas Type = Custom
+  N10 ,\field Specific Heat Coefficient C
+       \units J/kg-K3
+       \type real
+       \note Used only if Gas Type = Custom
+  N11 ,\field Molecular Weight
+       \type real
+       \note Used only if Gas Type = Custom
+       \units g/mol
+       \minimum 20.0
+       \maximum 200.0
+  N12 ;\field Specific Heat Ratio
+       \type real
+       \note Used only if Gas Type = Custom
+       \minimum> 1.0
+
+MaterialProperty:MoisturePenetrationDepth:Settings,
+    \memo Additional properties for moisture using EMPD procedure
+    \memo HeatBalanceAlgorithm choice=MoisturePenetrationDepthConductionTransferFunction only
+    \memo Has no effect with other HeatBalanceAlgorithm solution algorithms
+    \min-fields 10
+  A1 , \field Name
+       \required-field
+       \type object-list
+       \object-list MaterialName
+       \note Material Name that the moisture properties will be added to.
+       \note Additional material properties required to perform the EMPD model.
+       \note Effective Mean Penetration Depth (EMPD)
+  N1 , \field Water Vapor Diffusion Resistance Factor
+       \required-field
+       \units dimensionless
+       \minimum 0.0
+       \type real
+       \note Ratio of water vapor permeability of stagnant air to water vapor
+       \note permeability of material
+  N2 , \field Moisture Equation Coefficient a
+       \required-field
+       \units dimensionless
+       \type real
+  N3 , \field Moisture Equation Coefficient b
+       \required-field
+       \units dimensionless
+       \type real
+  N4 , \field Moisture Equation Coefficient c
+       \required-field
+       \units dimensionless
+       \type real
+  N5 , \field Moisture Equation Coefficient d
+       \required-field
+       \units dimensionless
+       \type real
+  N6 , \field Surface Layer Penetration Depth
+       \units m
+       \ip-units in
+       \type real
+       \minimum> 0
+       \autocalculatable
+       \default autocalculate
+  N7 , \field Deep Layer Penetration Depth
+       \units m
+       \ip-units in
+       \type real
+       \minimum 0
+       \autocalculatable
+       \default autocalculate
+  N8 , \field Coating Layer Thickness
+       \required-field
+       \type real
+       \units m
+       \ip-units in
+       \minimum 0
+  N9 ; \field Coating Layer Water Vapor Diffusion Resistance Factor
+       \required-field
+       \type real
+       \units dimensionless
+       \minimum 0
+       \note The coating's resistance to water vapor diffusion relative to the
+       \note resistance to water vapor diffusion in stagnant air
+       \note (see Water Vapor Diffusion Resistance Factor above).
+
+MaterialProperty:PhaseChange,
+    \memo Additional properties for temperature dependent thermal conductivity
+    \memo and enthalpy for Phase Change Materials (PCM)
+    \memo HeatBalanceAlgorithm = CondFD(ConductionFiniteDifference) solution algorithm only.
+    \memo Constructions with this should use the detailed CondFD process.
+    \memo Has no effect with other HeatBalanceAlgorithm solution algorithms
+  A1 , \field Name
+       \required-field
+       \type object-list
+       \object-list MaterialName
+       \note Regular Material Name to which the additional properties will be added.
+       \note this the material name for the basic material properties.
+  N1 , \field Temperature Coefficient for Thermal Conductivity
+       \note The base temperature is 20C.
+       \note This is the thermal conductivity change per degree excursion from 20C.
+       \note This variable conductivity function is overridden by the VariableThermalConductivity object, if present.
+       \units W/m-K2
+       \type real
+       \default 0.0
+  N2 , \field Temperature 1
+       \required-field
+       \note for Temperature-enthalpy function
+       \units C
+       \type real
+  N3,  \field Enthalpy 1
+       \required-field
+       \note for Temperature-enthalpy function corresponding to temperature 1
+       \units J/kg
+  N4 , \field Temperature 2
+       \required-field
+       \note for Temperature-enthalpy function
+       \units C
+       \type real
+  N5,  \field Enthalpy 2
+       \required-field
+       \note for Temperature-enthalpy function corresponding to temperature 2
+       \units J/kg
+       \type real
+  N6 , \field Temperature 3
+       \required-field
+       \note for Temperature-enthalpy function
+       \units C
+       \type real
+  N7,  \field Enthalpy 3
+       \required-field
+       \note for Temperature-enthalpy function corresponding to temperature 3
+       \units J/kg
+       \type real
+  N8 , \field Temperature 4
+       \note for Temperature-enthalpy function
+       \units C
+       \type real
+  N9,  \field Enthalpy 4
+       \note for Temperature-enthalpy function corresponding to temperature 4
+       \units J/kg
+       \type real
+  N10, \field Temperature 5
+       \note for Temperature-enthalpy function
+       \units C
+       \type real
+  N11, \field Enthalpy 5
+       \note for Temperature-enthalpy function corresponding to temperature 5
+       \units J/kg
+       \type real
+  N12, \field Temperature 6
+       \note for Temperature-enthalpy function
+       \units C
+       \type real
+  N13, \field Enthalpy 6
+       \note for Temperature-enthalpy function corresponding to temperature 6
+       \units J/kg
+       \type real
+  N14, \field Temperature 7
+       \note for Temperature-enthalpy function
+       \units C
+       \type real
+  N15, \field Enthalpy 7
+       \note for Temperature-enthalpy function corresponding to temperature 7
+       \units J/kg
+       \type real
+  N16, \field Temperature 8
+       \note for Temperature-enthalpy function
+       \units C
+       \type real
+  N17, \field Enthalpy 8
+       \note for Temperature-enthalpy function corresponding to temperature 8
+       \units J/kg
+       \type real
+  N18 , \field Temperature 9
+       \note for Temperature-enthalpy function
+       \units C
+       \type real
+  N19,  \field Enthalpy 9
+       \note for Temperature-enthalpy function corresponding to temperature 1
+       \units J/kg
+  N20 , \field Temperature 10
+       \note for Temperature-enthalpy function
+       \units C
+       \type real
+  N21,  \field Enthalpy 10
+       \note for Temperature-enthalpy function corresponding to temperature 2
+       \units J/kg
+       \type real
+  N22 , \field Temperature 11
+       \note for Temperature-enthalpy function
+       \units C
+       \type real
+  N23,  \field Enthalpy 11
+       \note for Temperature-enthalpy function corresponding to temperature 3
+       \units J/kg
+       \type real
+  N24 , \field Temperature 12
+       \note for Temperature-enthalpy function
+       \units C
+       \type real
+  N25,  \field Enthalpy 12
+       \note for Temperature-enthalpy function corresponding to temperature 14
+       \units J/kg
+       \type real
+  N26, \field Temperature 13
+       \note for Temperature-enthalpy function
+       \units C
+       \type real
+  N27, \field Enthalpy 13
+       \note for Temperature-enthalpy function corresponding to temperature 15
+       \units J/kg
+       \type real
+  N28, \field Temperature 14
+       \note for Temperature-enthalpy function
+       \units C
+       \type real
+  N29, \field Enthalpy 14
+       \note for Temperature-enthalpy function corresponding to temperature 16
+       \units J/kg
+       \type real
+  N30, \field Temperature 15
+       \note for Temperature-enthalpy function
+       \units C
+       \type real
+  N31, \field Enthalpy 15
+       \note for Temperature-enthalpy function corresponding to temperature 17
+       \units J/kg
+       \type real
+  N32, \field Temperature 16
+       \note for Temperature-enthalpy function
+       \units C
+       \type real
+  N33; \field Enthalpy 16
+       \note for Temperature-enthalpy function corresponding to temperature 16
+       \units J/kg
+       \type real
+
+MaterialProperty:PhaseChangeHysteresis,
+    \memo Additional properties for temperature dependent thermal conductivity
+    \memo and enthalpy for Phase Change Materials (PCM) with separate melting and freezing curves.
+    \memo HeatBalanceAlgorithm = CondFD (ConductionFiniteDifference) solution algorithm only.
+    \memo Constructions with this should use the detailed CondFD process.
+    \memo Has no effect with other HeatBalanceAlgorithm solution algorithms.
+  A1,  \field Name
+       \required-field
+       \type object-list
+       \object-list MaterialName
+       \note Regular Material Name to which the additional properties will be added.
+       \note this the material name for the basic material properties.
+  N1 , \field Latent Heat during the Entire Phase Change Process
+       \note The total latent heat absorbed or rejected during the transition from solid to liquid, or back
+       \required-field
+       \units J/kg
+       \type real
+       \minimum> 0
+  N2 , \field Liquid State Thermal Conductivity
+       \note The thermal conductivity used by this material when the material is fully liquid
+       \required-field
+       \units W/m-K
+       \type real
+       \minimum> 0
+  N3 , \field Liquid State Density
+       \note The density used by this material when the material is fully liquid
+       \required-field
+       \units kg/m3
+       \type real
+       \minimum> 0
+  N4 , \field Liquid State Specific Heat
+       \note The constant specific heat used for the fully melted (liquid) state
+       \required-field
+       \units J/kg-K
+       \type real
+       \minimum> 0
+  N5 , \field High Temperature Difference of Melting Curve
+       \note The total melting range of the material is the sum of low and high temperature difference of melting curve.
+       \required-field
+       \units deltaC
+       \type real
+       \minimum> 0
+  N6 , \field Peak Melting Temperature
+       \note The temperature at which the melting curve peaks
+       \required-field
+       \units C
+       \type real
+       \minimum> 0
+  N7 , \field Low Temperature Difference of Melting Curve
+       \note The total melting range of the material is the sum of low and high temperature difference of melting curve.
+       \required-field
+       \units deltaC
+       \type real
+       \minimum> 0
+  N8 , \field Solid State Thermal Conductivity
+       \note The thermal conductivity used by this material when the material is fully solid
+       \required-field
+       \units W/m-K
+       \type real
+       \minimum> 0
+  N9 , \field Solid State Density
+       \note The density used by this material when the material is fully solid
+       \required-field
+       \units kg/m3
+       \type real
+       \minimum> 0
+  N10, \field Solid State Specific Heat
+       \note The constant specific heat used for the fully frozen (crystallized) state
+       \required-field
+       \units J/kg-K
+       \type real
+       \minimum> 0
+  N11, \field High Temperature Difference of Freezing Curve
+       \note The total freezing range of the material is the sum of low and high temperature difference of freezing curve.
+       \required-field
+       \units deltaC
+       \type real
+       \minimum> 0
+  N12, \field Peak Freezing Temperature
+       \note The temperature at which the freezing curve peaks
+       \required-field
+       \units C
+       \type real
+       \minimum> 0
+  N13; \field Low Temperature Difference of Freezing Curve
+       \note The total freezing range of the material is the sum of low and high temperature difference of freezing curve.
+       \required-field
+       \units deltaC
+       \type real
+       \minimum> 0
+
+MaterialProperty:VariableThermalConductivity,
+    \memo Additional properties for temperature dependent thermal conductivity
+    \memo using piecewise linear temperature-conductivity function.
+    \memo HeatBalanceAlgorithm = CondFD(ConductionFiniteDifference) solution algorithm only.
+    \memo Has no effect with other HeatBalanceAlgorithm solution algorithms
+  A1 , \field Name
+       \required-field
+       \type object-list
+       \object-list MaterialName
+       \note Regular Material Name to which the additional properties will be added.
+       \note this the material name for the basic material properties.
+  N1 , \field Temperature 1
+       \required-field
+       \note for Temperature-Thermal Conductivity function
+       \units C
+       \type real
+  N2,  \field Thermal Conductivity 1
+       \required-field
+       \note for Temperature-Thermal Conductivity function corresponding to temperature 1
+       \units W/m-K
+  N3 , \field Temperature 2
+       \required-field
+       \note for Temperature-Thermal Conductivity function
+       \units C
+       \type real
+  N4,  \field Thermal Conductivity 2
+       \required-field
+       \note for Temperature-Thermal Conductivity function corresponding to temperature 2
+       \units W/m-K
+       \type real
+  N5 , \field Temperature 3
+       \required-field
+       \note for Temperature-Thermal Conductivity function
+       \units C
+       \type real
+  N6,  \field Thermal Conductivity 3
+       \required-field
+       \note for Temperature-Thermal Conductivity function corresponding to temperature 3
+       \units W/m-K
+       \type real
+  N7 , \field Temperature 4
+       \note for Temperature-Thermal Conductivity function
+       \units C
+       \type real
+  N8,  \field Thermal Conductivity 4
+       \note for Temperature-Thermal Conductivity function corresponding to temperature 4
+       \units W/m-K
+       \type real
+  N9, \field Temperature 5
+       \note for Temperature-Thermal Conductivity function
+       \units C
+       \type real
+  N10, \field Thermal Conductivity 5
+       \note for Temperature-Thermal Conductivity function corresponding to temperature 5
+       \units W/m-K
+       \type real
+  N11, \field Temperature 6
+       \note for Temperature-Thermal Conductivity function
+       \units C
+       \type real
+  N12, \field Thermal Conductivity 6
+       \note for Temperature-Thermal Conductivity function corresponding to temperature 6
+       \units W/m-K
+       \type real
+  N13, \field Temperature 7
+       \note for Temperature-Thermal Conductivity function
+       \units C
+       \type real
+  N14, \field Thermal Conductivity 7
+       \note for Temperature-Thermal Conductivity function corresponding to temperature 7
+       \units W/m-K
+       \type real
+  N15, \field Temperature 8
+       \note for Temperature-Thermal Conductivity function
+       \units C
+       \type real
+  N16, \field Thermal Conductivity 8
+       \note for Temperature-Thermal Conductivity function corresponding to temperature 8
+       \units W/m-K
+       \type real
+  N17 , \field Temperature 9
+       \note for Temperature-Thermal Conductivity function
+       \units C
+       \type real
+  N18,  \field Thermal Conductivity 9
+       \note for Temperature-Thermal Conductivity function corresponding to temperature 9
+       \units W/m-K
+  N19 , \field Temperature 10
+       \note for Temperature-Thermal Conductivity function
+       \units C
+       \type real
+  N20;  \field Thermal Conductivity 10
+       \note for Temperature-Thermal Conductivity function corresponding to temperature 10
+       \units W/m-K
+       \type real
+
+MaterialProperty:HeatAndMoistureTransfer:Settings,
+    \memo HeatBalanceAlgorithm = CombinedHeatAndMoistureFiniteElement solution algorithm only.
+    \memo Additional material properties for surfaces.
+    \memo Has no effect with other HeatBalanceAlgorithm solution algorithms
+    \min-fields 3
+  A1, \field Material Name
+      \required-field
+      \type object-list
+      \object-list MaterialName
+      \note Material Name that the moisture properties will be added to.
+      \note This augments material properties needed for combined heat and moisture transfer for surfaces.
+  N1, \field Porosity
+      \required-field
+      \units m3/m3
+      \minimum 0.0
+      \maximum 1.0
+      \type real
+  N2; \field Initial Water Content Ratio
+      \note units are the water/material density ratio at the beginning of each run period.
+      \units kg/kg
+      \minimum 0.0
+      \default 0.2
+      \type real
+
+MaterialProperty:HeatAndMoistureTransfer:SorptionIsotherm,
+    \memo HeatBalanceAlgorithm = CombinedHeatAndMoistureFiniteElement solution algorithm only.
+    \memo Relationship between moisture content and relative humidity fraction.
+    \memo Has no effect with other HeatBalanceAlgorithm solution algorithms
+  A1 , \field Material Name
+       \required-field
+       \type object-list
+       \object-list MaterialName
+       \note The Material Name that the moisture sorption isotherm will be added to.
+  N1,  \field Number of Isotherm Coordinates
+       \required-field
+       \note Number of data Coordinates
+       \minimum 1
+       \maximum 25
+       \type integer
+  N2, \field Relative Humidity Fraction 1
+      \required-field
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N3, \field Moisture Content 1
+      \required-field
+      \minimum 0.0
+      \units kg/m3
+  N4, \field Relative Humidity Fraction 2
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N5, \field Moisture Content 2
+      \minimum 0.0
+      \units kg/m3
+  N6, \field Relative Humidity Fraction 3
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N7, \field Moisture Content 3
+      \minimum 0.0
+      \units kg/m3
+  N8, \field Relative Humidity Fraction 4
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N9, \field Moisture Content 4
+      \units kg/m3
+      \minimum 0.0
+  N10, \field Relative Humidity Fraction 5
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N11, \field Moisture Content 5
+      \minimum 0.0
+      \units kg/m3
+  N12, \field Relative Humidity Fraction 6
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N13, \field Moisture Content 6
+      \minimum 0.0
+      \units kg/m3
+  N14, \field Relative Humidity Fraction 7
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N15, \field Moisture Content 7
+      \minimum 0.0
+      \units kg/m3
+  N16, \field Relative Humidity Fraction 8
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N17, \field Moisture Content 8
+      \minimum 0.0
+      \units kg/m3
+  N18,\field Relative Humidity Fraction 9
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N19, \field Moisture Content 9
+      \minimum 0.0
+      \units kg/m3
+  N20,\field Relative Humidity Fraction 10
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N21, \field Moisture Content 10
+      \minimum 0.0
+      \units kg/m3
+  N22,\field Relative Humidity Fraction 11
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N23, \field Moisture Content 11
+      \minimum 0.0
+      \units kg/m3
+  N24,\field Relative Humidity Fraction 12
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N25, \field Moisture Content 12
+      \minimum 0.0
+      \units kg/m3
+  N26,\field Relative Humidity Fraction 13
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N27, \field Moisture Content 13
+      \minimum 0.0
+      \units kg/m3
+  N28,\field Relative Humidity Fraction 14
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N29,\field Moisture Content 14
+      \minimum 0.0
+      \units kg/m3
+  N30,\field Relative Humidity Fraction 15
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N31,\field Moisture Content 15
+      \minimum 0.0
+      \units kg/m3
+  N32,\field Relative Humidity Fraction 16
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N33,\field Moisture Content 16
+      \minimum 0.0
+      \units kg/m3
+  N34,\field Relative Humidity Fraction 17
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N35,\field Moisture Content 17
+      \minimum 0.0
+      \units kg/m3
+  N36,\field Relative Humidity Fraction 18
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N37,\field Moisture Content 18
+      \minimum 0.0
+      \units kg/m3
+  N38,\field Relative Humidity Fraction 19
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N39,\field Moisture Content 19
+      \minimum 0.0
+      \units kg/m3
+  N40,\field Relative Humidity Fraction 20
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N41,\field Moisture Content 20
+      \minimum 0.0
+      \units kg/m3
+  N42,\field Relative Humidity Fraction 21
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N43,\field Moisture Content 21
+      \minimum 0.0
+      \units kg/m3
+  N44,\field Relative Humidity Fraction 22
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N45,\field Moisture Content 22
+      \minimum 0.0
+      \units kg/m3
+  N46,\field Relative Humidity Fraction 23
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N47,\field Moisture Content 23
+      \minimum 0.0
+      \units kg/m3
+  N48,\field Relative Humidity Fraction 24
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N49,\field Moisture Content 24
+      \minimum 0.0
+      \units kg/m3
+  N50,\field Relative Humidity Fraction 25
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N51;\field Moisture Content 25
+      \minimum 0.0
+      \units kg/m3
+
+MaterialProperty:HeatAndMoistureTransfer:Suction,
+    \memo HeatBalanceAlgorithm = CombinedHeatAndMoistureFiniteElement solution algorithm only.
+    \memo Relationship between liquid suction transport coefficient and moisture content
+    \memo Has no effect with other HeatBalanceAlgorithm solution algorithms
+  A1 , \field Material Name
+       \required-field
+       \type object-list
+       \object-list MaterialName
+       \note Material Name that the moisture properties will be added to.
+  N1,  \field Number of Suction points
+       \required-field
+       \note Number of Suction Liquid Transport Coefficient coordinates
+       \minimum 1
+       \maximum 25
+       \type integer
+  N2,\field Moisture Content 1
+     \required-field
+     \minimum 0.0
+     \units kg/m3
+  N3,\field Liquid Transport Coefficient 1
+     \required-field
+     \minimum 0.0
+     \units m2/s
+  N4,\field Moisture Content 2
+      \minimum 0.0
+     \units kg/m3
+  N5,\field Liquid Transport Coefficient 2
+      \minimum 0.0
+     \units m2/s
+  N6,\field Moisture Content 3
+      \minimum 0.0
+     \units kg/m3
+  N7,\field Liquid Transport Coefficient 3
+      \minimum 0.0
+     \units m2/s
+  N8,\field Moisture Content 4
+      \minimum 0.0
+     \units kg/m3
+  N9,\field Liquid Transport Coefficient 4
+      \minimum 0.0
+     \units m2/s
+  N10,\field Moisture Content 5
+      \minimum 0.0
+     \units kg/m3
+  N11,\field Liquid Transport Coefficient 5
+      \minimum 0.0
+     \units m2/s
+  N12,\field Moisture Content 6
+      \minimum 0.0
+     \units kg/m3
+  N13,\field Liquid Transport Coefficient 6
+      \minimum 0.0
+     \units m2/s
+  N14,\field Moisture Content 7
+      \minimum 0.0
+     \units kg/m3
+  N15,\field Liquid Transport Coefficient 7
+      \minimum 0.0
+     \units m2/s
+  N16,\field Moisture Content 8
+      \minimum 0.0
+     \units kg/m3
+  N17,\field Liquid Transport Coefficient 8
+      \minimum 0.0
+     \units m2/s
+  N18,\field Moisture Content 9
+      \minimum 0.0
+     \units kg/m3
+  N19,\field Liquid Transport Coefficient 9
+      \minimum 0.0
+     \units m2/s
+  N20,\field Moisture Content 10
+      \minimum 0.0
+     \units kg/m3
+  N21,\field Liquid Transport Coefficient 10
+      \minimum 0.0
+     \units m2/s
+  N22,\field Moisture Content 11
+      \minimum 0.0
+     \units kg/m3
+  N23,\field Liquid Transport Coefficient 11
+      \minimum 0.0
+     \units m2/s
+  N24,\field Moisture Content 12
+      \minimum 0.0
+     \units kg/m3
+  N25,\field Liquid Transport Coefficient 12
+      \minimum 0.0
+     \units m2/s
+  N26,\field Moisture Content 13
+      \minimum 0.0
+     \units kg/m3
+  N27,\field Liquid Transport Coefficient 13
+      \minimum 0.0
+     \units m2/s
+  N28,\field Moisture Content 14
+      \minimum 0.0
+     \units kg/m3
+  N29,\field Liquid Transport Coefficient 14
+      \minimum 0.0
+     \units m2/s
+  N30,\field Moisture Content 15
+      \minimum 0.0
+     \units kg/m3
+  N31,\field Liquid Transport Coefficient 15
+      \minimum 0.0
+     \units m2/s
+  N32,\field Moisture Content 16
+      \minimum 0.0
+     \units kg/m3
+  N33,\field Liquid Transport Coefficient 16
+      \minimum 0.0
+     \units m2/s
+  N34,\field Moisture Content 17
+      \minimum 0.0
+     \units kg/m3
+  N35,\field Liquid Transport Coefficient 17
+      \minimum 0.0
+     \units m2/s
+  N36,\field Moisture Content 18
+      \minimum 0.0
+     \units kg/m3
+  N37,\field Liquid Transport Coefficient 18
+      \minimum 0.0
+     \units m2/s
+  N38,\field Moisture Content 19
+      \minimum 0.0
+     \units kg/m3
+  N39,\field Liquid Transport Coefficient 19
+      \minimum 0.0
+     \units m2/s
+  N40,\field Moisture Content 20
+      \minimum 0.0
+     \units kg/m3
+  N41,\field Liquid Transport Coefficient 20
+      \minimum 0.0
+     \units m2/s
+  N42,\field Moisture Content 21
+      \minimum 0.0
+     \units kg/m3
+  N43,\field Liquid Transport Coefficient 21
+      \minimum 0.0
+     \units m2/s
+  N44,\field Moisture Content 22
+      \minimum 0.0
+     \units kg/m3
+  N45,\field Liquid Transport Coefficient 22
+      \minimum 0.0
+     \units m2/s
+  N46,\field Moisture Content 23
+      \minimum 0.0
+     \units kg/m3
+  N47,\field Liquid Transport Coefficient 23
+      \minimum 0.0
+     \units m2/s
+  N48,\field Moisture Content 24
+      \minimum 0.0
+     \units kg/m3
+  N49,\field Liquid Transport Coefficient 24
+      \minimum 0.0
+     \units m2/s
+  N50,\field Moisture Content 25
+      \minimum 0.0
+     \units kg/m3
+  N51;\field Liquid Transport Coefficient 25
+      \minimum 0.0
+     \units m2/s
+
+MaterialProperty:HeatAndMoistureTransfer:Redistribution,
+    \memo HeatBalanceAlgorithm = CombinedHeatAndMoistureFiniteElement solution algorithm only.
+    \memo Relationship between liquid transport coefficient and moisture content
+    \memo Has no effect with other HeatBalanceAlgorithm solution algorithms
+  A1 , \field Material Name
+       \required-field
+       \type object-list
+       \object-list MaterialName
+       \note Moisture Material Name that the moisture properties will be added to.
+  N1,  \field Number of Redistribution points
+       \required-field
+       \note number of data points
+       \minimum 1
+       \maximum 25
+       \type integer
+  N2,\field Moisture Content 1
+     \minimum 0.0
+     \required-field
+     \units kg/m3
+  N3,\field Liquid Transport Coefficient 1
+     \minimum 0.0
+     \required-field
+     \units m2/s
+  N4,\field Moisture Content 2
+      \minimum 0.0
+     \units kg/m3
+  N5,\field Liquid Transport Coefficient 2
+      \minimum 0.0
+     \units m2/s
+  N6,\field Moisture Content 3
+      \minimum 0.0
+     \units kg/m3
+  N7,\field Liquid Transport Coefficient 3
+      \minimum 0.0
+     \units m2/s
+  N8,\field Moisture Content 4
+      \minimum 0.0
+     \units kg/m3
+  N9,\field Liquid Transport Coefficient 4
+      \minimum 0.0
+     \units m2/s
+  N10,\field Moisture Content 5
+      \minimum 0.0
+     \units kg/m3
+  N11,\field Liquid Transport Coefficient 5
+      \minimum 0.0
+     \units m2/s
+  N12,\field Moisture Content 6
+      \minimum 0.0
+     \units kg/m3
+  N13,\field Liquid Transport Coefficient 6
+      \minimum 0.0
+     \units m2/s
+  N14,\field Moisture Content 7
+      \minimum 0.0
+     \units kg/m3
+  N15,\field Liquid Transport Coefficient 7
+      \minimum 0.0
+     \units m2/s
+  N16,\field Moisture Content 8
+      \minimum 0.0
+     \units kg/m3
+  N17,\field Liquid Transport Coefficient 8
+      \minimum 0.0
+     \units m2/s
+  N18,\field Moisture Content 9
+      \minimum 0.0
+     \units kg/m3
+  N19,\field Liquid Transport Coefficient 9
+      \minimum 0.0
+     \units m2/s
+  N20,\field Moisture Content 10
+      \minimum 0.0
+     \units kg/m3
+  N21,\field Liquid Transport Coefficient 10
+      \minimum 0.0
+     \units m2/s
+  N22,\field Moisture Content 11
+      \minimum 0.0
+     \units kg/m3
+  N23,\field Liquid Transport Coefficient 11
+      \minimum 0.0
+     \units m2/s
+  N24,\field Moisture Content 12
+      \minimum 0.0
+     \units kg/m3
+  N25,\field Liquid Transport Coefficient 12
+      \minimum 0.0
+     \units m2/s
+  N26,\field Moisture Content 13
+      \minimum 0.0
+     \units kg/m3
+  N27,\field Liquid Transport Coefficient 13
+      \minimum 0.0
+     \units m2/s
+  N28,\field Moisture Content 14
+      \minimum 0.0
+     \units kg/m3
+  N29,\field Liquid Transport Coefficient 14
+      \minimum 0.0
+     \units m2/s
+  N30,\field Moisture Content 15
+      \minimum 0.0
+     \units kg/m3
+  N31,\field Liquid Transport Coefficient 15
+      \minimum 0.0
+     \units m2/s
+  N32,\field Moisture Content 16
+      \minimum 0.0
+     \units kg/m3
+  N33,\field Liquid Transport Coefficient 16
+      \minimum 0.0
+     \units m2/s
+  N34,\field Moisture Content 17
+      \minimum 0.0
+     \units kg/m3
+  N35,\field Liquid Transport Coefficient 17
+      \minimum 0.0
+     \units m2/s
+  N36,\field Moisture Content 18
+      \minimum 0.0
+     \units kg/m3
+  N37,\field Liquid Transport Coefficient 18
+      \minimum 0.0
+     \units m2/s
+  N38,\field Moisture Content 19
+      \minimum 0.0
+     \units kg/m3
+  N39,\field Liquid Transport Coefficient 19
+      \minimum 0.0
+     \units m2/s
+  N40,\field Moisture Content 20
+      \minimum 0.0
+     \units kg/m3
+  N41,\field Liquid Transport Coefficient 20
+      \minimum 0.0
+     \units m2/s
+  N42,\field Moisture Content 21
+      \minimum 0.0
+     \units kg/m3
+  N43,\field Liquid Transport Coefficient 21
+      \minimum 0.0
+     \units m2/s
+  N44,\field Moisture Content 22
+      \minimum 0.0
+     \units kg/m3
+  N45,\field Liquid Transport Coefficient 22
+      \minimum 0.0
+     \units m2/s
+  N46,\field Moisture Content 23
+      \minimum 0.0
+     \units kg/m3
+  N47,\field Liquid Transport Coefficient 23
+      \minimum 0.0
+     \units m2/s
+  N48,\field Moisture Content 24
+      \minimum 0.0
+     \units kg/m3
+  N49,\field Liquid Transport Coefficient 24
+      \minimum 0.0
+     \units m2/s
+  N50,\field Moisture Content 25
+      \minimum 0.0
+     \units kg/m3
+  N51;\field Liquid Transport Coefficient 25
+      \minimum 0.0
+     \units m2/s
+
+MaterialProperty:HeatAndMoistureTransfer:Diffusion,
+    \memo HeatBalanceAlgorithm = CombinedHeatAndMoistureFiniteElement solution algorithm only.
+    \memo Relationship between water vapor diffusion and relative humidity fraction
+    \memo Has no effect with other HeatBalanceAlgorithm solution algorithms
+  A1 , \field Material Name
+       \required-field
+       \type object-list
+       \object-list MaterialName
+       \note Moisture Material Name that the moisture properties will be added to.
+  N1,  \field Number of Data Pairs
+       \required-field
+       \note Water Vapor Diffusion Resistance Factor
+       \minimum 1
+       \maximum 25
+       \type integer
+  N2, \field Relative Humidity Fraction 1
+      \required-field
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N3,\field Water Vapor Diffusion Resistance Factor 1
+      \required-field
+      \minimum 0.0
+      \units dimensionless
+  N4, \field Relative Humidity Fraction 2
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N5,\field Water Vapor Diffusion Resistance Factor 2
+      \minimum 0.0
+      \units dimensionless
+  N6, \field Relative Humidity Fraction 3
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N7,\field Water Vapor Diffusion Resistance Factor 3
+      \minimum 0.0
+      \units dimensionless
+  N8, \field Relative Humidity Fraction 4
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N9,\field Water Vapor Diffusion Resistance Factor 4
+      \minimum 0.0
+      \units dimensionless
+  N10, \field Relative Humidity Fraction 5
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N11,\field Water Vapor Diffusion Resistance Factor 5
+      \minimum 0.0
+      \units dimensionless
+  N12,\field Relative Humidity Fraction 6
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N13,\field Water Vapor Diffusion Resistance Factor 6
+      \minimum 0.0
+      \units dimensionless
+  N14,\field Relative Humidity Fraction 7
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N15,\field Water Vapor Diffusion Resistance Factor 7
+      \minimum 0.0
+      \units dimensionless
+  N16,\field Relative Humidity Fraction 8
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N17,\field Water Vapor Diffusion Resistance Factor 8
+      \minimum 0.0
+      \units dimensionless
+  N18,\field Relative Humidity Fraction 9
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N19,\field Water Vapor Diffusion Resistance Factor 9
+      \minimum 0.0
+      \units dimensionless
+  N20,\field Relative Humidity Fraction 10
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N21,\field Water Vapor Diffusion Resistance Factor 10
+      \minimum 0.0
+      \units dimensionless
+  N22,\field Relative Humidity Fraction 11
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N23,\field Water Vapor Diffusion Resistance Factor 11
+      \minimum 0.0
+      \units dimensionless
+ N24,\field Relative Humidity Fraction 12
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N25,\field Water Vapor Diffusion Resistance Factor 12
+      \minimum 0.0
+      \units dimensionless
+  N26,\field Relative Humidity Fraction 13
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N27,\field Water Vapor Diffusion Resistance Factor 13
+      \minimum 0.0
+      \units dimensionless
+  N28,\field Relative Humidity Fraction 14
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N29,\field Water Vapor Diffusion Resistance Factor 14
+      \minimum 0.0
+      \units dimensionless
+  N30,\field Relative Humidity Fraction 15
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N31,\field Water Vapor Diffusion Resistance Factor 15
+      \minimum 0.0
+      \units dimensionless
+  N32,\field Relative Humidity Fraction 16
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N33,\field Water Vapor Diffusion Resistance Factor 16
+      \minimum 0.0
+      \units dimensionless
+  N34,\field Relative Humidity Fraction 17
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N35,\field Water Vapor Diffusion Resistance Factor 17
+      \minimum 0.0
+      \units dimensionless
+  N36,\field Relative Humidity Fraction 18
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N37,\field Water Vapor Diffusion Resistance Factor 18
+      \minimum 0.0
+      \units dimensionless
+  N38,\field Relative Humidity Fraction 19
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N39,\field Water Vapor Diffusion Resistance Factor 19
+      \minimum 0.0
+      \units dimensionless
+  N40,\field Relative Humidity Fraction 20
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N41,\field Water Vapor Diffusion Resistance Factor 20
+      \minimum 0.0
+      \units dimensionless
+  N42,\field Relative Humidity Fraction 21
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N43,\field Water Vapor Diffusion Resistance Factor 21
+      \minimum 0.0
+      \units dimensionless
+  N44,\field Relative Humidity Fraction 22
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N45,\field Water Vapor Diffusion Resistance Factor 22
+      \minimum 0.0
+      \units dimensionless
+  N46,\field Relative Humidity Fraction 23
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N47,\field Water Vapor Diffusion Resistance Factor 23
+      \minimum 0.0
+      \units dimensionless
+  N48,\field Relative Humidity Fraction 24
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N49,\field Water Vapor Diffusion Resistance Factor 24
+      \minimum 0.0
+      \units dimensionless
+  N50,\field Relative Humidity Fraction 25
+      \note The relative humidity is entered as a fraction.
+      \minimum 0.0
+      \maximum 1.0
+      \units dimensionless
+  N51;\field Water Vapor Diffusion Resistance Factor 25
+      \minimum 0.0
+      \units dimensionless
+
+MaterialProperty:HeatAndMoistureTransfer:ThermalConductivity,
+    \memo HeatBalanceAlgorithm = CombinedHeatAndMoistureFiniteElement solution algorithm only.
+    \memo Relationship between thermal conductivity and moisture content
+    \memo Has no effect with other HeatBalanceAlgorithm solution algorithms
+  A1 , \field Material Name
+       \required-field
+       \type object-list
+       \object-list MaterialName
+       \note Moisture Material Name that the Thermal Conductivity will be added to.
+  N1,  \field Number of Thermal Coordinates
+       \required-field
+       \note number of data coordinates
+       \minimum 1
+       \maximum 25
+       \type integer
+  N2, \field Moisture Content 1
+      \required-field
+      \minimum 0.0
+      \units kg/m3
+  N3, \field Thermal Conductivity 1
+      \required-field
+      \minimum> 0.0
+      \units W/m-K
+  N4, \field Moisture Content 2
+      \minimum 0.0
+      \units kg/m3
+  N5, \field Thermal Conductivity 2
+      \minimum> 0.0
+      \units W/m-K
+  N6, \field Moisture Content 3
+      \minimum 0.0
+      \units kg/m3
+  N7, \field Thermal Conductivity 3
+      \minimum> 0.0
+      \units W/m-K
+  N8, \field Moisture Content 4
+      \minimum 0.0
+      \units kg/m3
+  N9, \field Thermal Conductivity 4
+      \minimum> 0.0
+      \units W/m-K
+  N10, \field Moisture Content 5
+      \minimum 0.0
+      \units kg/m3
+  N11,\field Thermal Conductivity 5
+      \minimum> 0.0
+      \units W/m-K
+  N12, \field Moisture Content 6
+      \minimum 0.0
+      \units kg/m3
+  N13,\field Thermal Conductivity 6
+      \minimum> 0.0
+      \units W/m-K
+  N14,\field Moisture Content 7
+      \minimum 0.0
+      \units kg/m3
+  N15,\field Thermal Conductivity 7
+      \minimum> 0.0
+      \units W/m-K
+  N16,\field Moisture Content 8
+      \minimum 0.0
+      \units kg/m3
+  N17,\field Thermal Conductivity 8
+      \minimum> 0.0
+      \units W/m-K
+  N18,\field Moisture Content 9
+      \minimum 0.0
+      \units kg/m3
+  N19,\field Thermal Conductivity 9
+      \minimum> 0.0
+      \units W/m-K
+  N20,\field Moisture Content 10
+      \minimum 0.0
+      \units kg/m3
+  N21,\field Thermal Conductivity 10
+      \minimum> 0.0
+      \units W/m-K
+  N22,\field Moisture Content 11
+      \minimum 0.0
+      \units kg/m3
+  N23,\field Thermal Conductivity 11
+      \minimum> 0.0
+      \units W/m-K
+  N24,\field Moisture Content 12
+      \minimum 0.0
+      \units kg/m3
+  N25,\field Thermal Conductivity 12
+      \minimum> 0.0
+      \units W/m-K
+  N26,\field Moisture Content 13
+      \minimum 0.0
+      \units kg/m3
+  N27,\field Thermal Conductivity 13
+      \minimum> 0.0
+      \units W/m-K
+  N28,\field Moisture Content 14
+      \minimum 0.0
+      \units kg/m3
+  N29,\field Thermal Conductivity 14
+      \minimum> 0.0
+      \units W/m-K
+  N30,\field Moisture Content 15
+      \minimum 0.0
+      \units kg/m3
+  N31,\field Thermal Conductivity 15
+      \minimum> 0.0
+      \units W/m-K
+  N32,\field Moisture Content 16
+      \minimum 0.0
+      \units kg/m3
+  N33,\field Thermal Conductivity 16
+      \minimum> 0.0
+      \units W/m-K
+  N34,\field Moisture Content 17
+      \minimum 0.0
+      \units kg/m3
+  N35,\field Thermal Conductivity 17
+      \minimum> 0.0
+      \units W/m-K
+  N36,\field Moisture Content 18
+      \minimum 0.0
+      \units kg/m3
+  N37,\field Thermal Conductivity 18
+      \minimum> 0.0
+      \units W/m-K
+  N38,\field Moisture Content 19
+      \minimum 0.0
+      \units kg/m3
+  N39,\field Thermal Conductivity 19
+      \minimum> 0.0
+      \units W/m-K
+  N40,\field Moisture Content 20
+      \minimum 0.0
+      \units kg/m3
+  N41,\field Thermal Conductivity 20
+      \minimum> 0.0
+      \units W/m-K
+  N42,\field Moisture Content 21
+      \minimum 0.0
+      \units kg/m3
+  N43,\field Thermal Conductivity 21
+      \minimum> 0.0
+      \units W/m-K
+  N44,\field Moisture Content 22
+      \minimum 0.0
+      \units kg/m3
+  N45,\field Thermal Conductivity 22
+      \minimum> 0.0
+      \units W/m-K
+  N46,\field Moisture Content 23
+      \minimum 0.0
+      \units kg/m3
+  N47,\field Thermal Conductivity 23
+      \minimum> 0.0
+      \units W/m-K
+  N48,\field Moisture Content 24
+      \minimum 0.0
+      \units kg/m3
+  N49,\field Thermal Conductivity 24
+      \minimum> 0.0
+      \units W/m-K
+  N50,\field Moisture Content 25
+      \minimum 0.0
+      \units kg/m3
+  N51;\field Thermal Conductivity 25
+      \minimum> 0.0
+      \units W/m-K
+
+MaterialProperty:GlazingSpectralData,
+       \memo Name is followed by up to 800 sets of normal-incidence measured values of
+       \memo [wavelength, transmittance, front reflectance, back reflectance] for wavelengths
+       \memo covering the solar spectrum (from about 0.25 to 2.5 microns)
+       \format Spectral
+       \extensible:4
+  A1,  \field Name
+       \required-field
+       \reference SpectralDataSets
+  N1,  \field Wavelength 1
+       \type real
+       \units micron
+  N2,  \field Transmittance 1
+  N3,  \field Front Reflectance 1
+  N4,  \field Back Reflectance 1
+  N5,  \field Wavelength 2
+       \type real
+       \units micron
+  N6,  \field Transmittance 2
+  N7,  \field Front Reflectance 2
+  N8,  \field Back Reflectance 2
+  N9,  \field Wavelength 3
+       \type real
+       \units micron
+  N10, \field Transmittance 3
+  N11, \field Front Reflectance 3
+  N12, \field Back Reflectance 3
+  N13, \field Wavelength 4
+       \type real
+       \units micron
+  N14, \field Transmittance 4
+  N15, \field Front Reflectance 4
+  N16, \field Back Reflectance 4
+  N17, \field Wavelength 5
+       \begin-extensible
+       \type real
+       \units micron
+  N18, \field Transmittance 5
+  N19, \field Front Reflectance 5
+  N20, \field Back Reflectance 5
+  N21,N22,N23,N24,     N25,N26,N27,N28,     N29,N30,N31,N32,     N33,N34,N35,N36,     N37,N38,N39,N40, \note fields as indicated
+  N41,N42,N43,N44,     N45,N46,N47,N48,     N49,N50,N51,N52,     N53,N54,N55,N56,     N57,N58,N59,N60, \note fields as indicated
+  N61,N62,N63,N64,     N65,N66,N67,N68,     N69,N70,N71,N72,     N73,N74,N75,N76,     N77,N78,N79,N80, \note fields as indicated
+  N81,N82,N83,N84,     N85,N86,N87,N88,     N89,N90,N91,N92,     N93,N94,N95,N96,     N97,N98,N99,N100, \note fields as indicated
+
+  N101,N102,N103,N104, N105,N106,N107,N108, N109,N110,N111,N112, N113,N114,N115,N116, N117,N118,N119,N120, \note fields as indicated
+  N121,N122,N123,N124, N125,N126,N127,N128, N129,N130,N131,N132, N133,N134,N135,N136, N137,N138,N139,N140, \note fields as indicated
+  N141,N142,N143,N144, N145,N146,N147,N148, N149,N150,N151,N152, N153,N154,N155,N156, N157,N158,N159,N160, \note fields as indicated
+  N161,N162,N163,N164, N165,N166,N167,N168, N169,N170,N171,N172, N173,N174,N175,N176, N177,N178,N179,N180, \note fields as indicated
+  N181,N182,N183,N184, N185,N186,N187,N188, N189,N190,N191,N192, N193,N194,N195,N196, N197,N198,N199,N200, \note fields as indicated
+
+  N201,N202,N203,N204, N205,N206,N207,N208, N209,N210,N211,N212, N213,N214,N215,N216, N217,N218,N219,N220, \note fields as indicated
+  N221,N222,N223,N224, N225,N226,N227,N228, N229,N230,N231,N232, N233,N234,N235,N236, N237,N238,N239,N240, \note fields as indicated
+  N241,N242,N243,N244, N245,N246,N247,N248, N249,N250,N251,N252, N253,N254,N255,N256, N257,N258,N259,N260, \note fields as indicated
+  N261,N262,N263,N264, N265,N266,N267,N268, N269,N270,N271,N272, N273,N274,N275,N276, N277,N278,N279,N280, \note fields as indicated
+  N281,N282,N283,N284, N285,N286,N287,N288, N289,N290,N291,N292, N293,N294,N295,N296, N297,N298,N299,N300, \note fields as indicated
+
+  N301,N302,N303,N304, N305,N306,N307,N308, N309,N310,N311,N312, N313,N314,N315,N316, N317,N318,N319,N320, \note fields as indicated
+  N321,N322,N323,N324, N325,N326,N327,N328, N329,N330,N331,N332, N333,N334,N335,N336, N337,N338,N339,N340, \note fields as indicated
+  N341,N342,N343,N344, N345,N346,N347,N348, N349,N350,N351,N352, N353,N354,N355,N356, N357,N358,N359,N360, \note fields as indicated
+  N361,N362,N363,N364, N365,N366,N367,N368, N369,N370,N371,N372, N373,N374,N375,N376, N377,N378,N379,N380, \note fields as indicated
+  N381,N382,N383,N384, N385,N386,N387,N388, N389,N390,N391,N392, N393,N394,N395,N396, N397,N398,N399,N400, \note fields as indicated
+
+  N401,N402,N403,N404, N405,N406,N407,N408, N409,N410,N411,N412, N413,N414,N415,N416, N417,N418,N419,N420, \note fields as indicated
+  N421,N422,N423,N424, N425,N426,N427,N428, N429,N430,N431,N432, N433,N434,N435,N436, N437,N438,N439,N440, \note fields as indicated
+  N441,N442,N443,N444, N445,N446,N447,N448, N449,N450,N451,N452, N453,N454,N455,N456, N457,N458,N459,N460, \note fields as indicated
+  N461,N462,N463,N464, N465,N466,N467,N468, N469,N470,N471,N472, N473,N474,N475,N476, N477,N478,N479,N480, \note fields as indicated
+  N481,N482,N483,N484, N485,N486,N487,N488, N489,N490,N491,N492, N493,N494,N495,N496, N497,N498,N499,N500, \note fields as indicated
+
+  N501,N502,N503,N504, N505,N506,N507,N508, N509,N510,N511,N512, N513,N514,N515,N516, N517,N518,N519,N520, \note fields as indicated
+  N521,N522,N523,N524, N525,N526,N527,N528, N529,N530,N531,N532, N533,N534,N535,N536, N537,N538,N539,N540, \note fields as indicated
+  N541,N542,N543,N544, N545,N546,N547,N548, N549,N550,N551,N552, N553,N554,N555,N556, N557,N558,N559,N560, \note fields as indicated
+  N561,N562,N563,N564, N565,N566,N567,N568, N569,N570,N571,N572, N573,N574,N575,N576, N577,N578,N579,N580, \note fields as indicated
+  N581,N582,N583,N584, N585,N586,N587,N588, N589,N590,N591,N592, N593,N594,N595,N596, N597,N598,N599,N600, \note fields as indicated
+
+  N601,N602,N603,N604, N605,N606,N607,N608, N609,N610,N611,N612, N613,N614,N615,N616, N617,N618,N619,N620, \note fields as indicated
+  N621,N622,N623,N624, N625,N626,N627,N628, N629,N630,N631,N632, N633,N634,N635,N636, N637,N638,N639,N640, \note fields as indicated
+  N641,N642,N643,N644, N645,N646,N647,N648, N649,N650,N651,N652, N653,N654,N655,N656, N657,N658,N659,N660, \note fields as indicated
+  N661,N662,N663,N664, N665,N666,N667,N668, N669,N670,N671,N672, N673,N674,N675,N676, N677,N678,N679,N680, \note fields as indicated
+  N681,N682,N683,N684, N685,N686,N687,N688, N689,N690,N691,N692, N693,N694,N695,N696, N697,N698,N699,N700, \note fields as indicated
+
+  N701,N702,N703,N704, N705,N706,N707,N708, N709,N710,N711,N712, N713,N714,N715,N716, N717,N718,N719,N720, \note fields as indicated
+  N721,N722,N723,N724, N725,N726,N727,N728, N729,N730,N731,N732, N733,N734,N735,N736, N737,N738,N739,N740, \note fields as indicated
+  N741,N742,N743,N744, N745,N746,N747,N748, N749,N750,N751,N752, N753,N754,N755,N756, N757,N758,N759,N760, \note fields as indicated
+  N761,N762,N763,N764, N765,N766,N767,N768, N769,N770,N771,N772, N773,N774,N775,N776, N777,N778,N779,N780, \note fields as indicated
+  N781,N782,N783,N784, N785,N786,N787,N788, N789,N790,N791,N792, N793,N794,N795,N796, N797,N798,N799,N800, \note fields as indicated
+
+  N801,N802,N803,N804, N805,N806,N807,N808, N809,N810,N811,N812, N813,N814,N815,N816, N817,N818,N819,N820, \note fields as indicated
+  N821,N822,N823,N824, N825,N826,N827,N828, N829,N830,N831,N832, N833,N834,N835,N836, N837,N838,N839,N840, \note fields as indicated
+  N841,N842,N843,N844, N845,N846,N847,N848, N849,N850,N851,N852, N853,N854,N855,N856, N857,N858,N859,N860, \note fields as indicated
+  N861,N862,N863,N864, N865,N866,N867,N868, N869,N870,N871,N872, N873,N874,N875,N876, N877,N878,N879,N880, \note fields as indicated
+  N881,N882,N883,N884, N885,N886,N887,N888, N889,N890,N891,N892, N893,N894,N895,N896, N897,N898,N899,N900, \note fields as indicated
+
+  N901,N902,N903,N904, N905,N906,N907,N908, N909,N910,N911,N912, N913,N914,N915,N916, N917,N918,N919,N920, \note fields as indicated
+  N921,N922,N923,N924, N925,N926,N927,N928, N929,N930,N931,N932, N933,N934,N935,N936, N937,N938,N939,N940, \note fields as indicated
+  N941,N942,N943,N944, N945,N946,N947,N948, N949,N950,N951,N952, N953,N954,N955,N956, N957,N958,N959,N960, \note fields as indicated
+  N961,N962,N963,N964, N965,N966,N967,N968, N969,N970,N971,N972, N973,N974,N975,N976, N977,N978,N979,N980, \note fields as indicated
+  N981,N982,N983,N984, N985,N986,N987,N988, N989,N990,N991,N992, N993,N994,N995,N996, N997,N998,N999,N1000, \note fields as indicated
+
+  N1001,N1002,N1003,N1004, N1005,N1006,N1007,N1008, N1009,N1010,N1011,N1012, N1013,N1014,N1015,N1016, N1017,N1018,N1019,N1020, \note fields as indicated
+  N1021,N1022,N1023,N1024, N1025,N1026,N1027,N1028, N1029,N1030,N1031,N1032, N1033,N1034,N1035,N1036, N1037,N1038,N1039,N1040, \note fields as indicated
+  N1041,N1042,N1043,N1044, N1045,N1046,N1047,N1048, N1049,N1050,N1051,N1052, N1053,N1054,N1055,N1056, N1057,N1058,N1059,N1060, \note fields as indicated
+  N1061,N1062,N1063,N1064, N1065,N1066,N1067,N1068, N1069,N1070,N1071,N1072, N1073,N1074,N1075,N1076, N1077,N1078,N1079,N1080, \note fields as indicated
+  N1081,N1082,N1083,N1084, N1085,N1086,N1087,N1088, N1089,N1090,N1091,N1092, N1093,N1094,N1095,N1096, N1097,N1098,N1099,N1100, \note fields as indicated
+
+  N1101,N1102,N1103,N1104, N1105,N1106,N1107,N1108, N1109,N1110,N1111,N1112, N1113,N1114,N1115,N1116, N1117,N1118,N1119,N1120, \note fields as indicated
+  N1121,N1122,N1123,N1124, N1125,N1126,N1127,N1128, N1129,N1130,N1131,N1132, N1133,N1134,N1135,N1136, N1137,N1138,N1139,N1140, \note fields as indicated
+  N1141,N1142,N1143,N1144, N1145,N1146,N1147,N1148, N1149,N1150,N1151,N1152, N1153,N1154,N1155,N1156, N1157,N1158,N1159,N1160, \note fields as indicated
+  N1161,N1162,N1163,N1164, N1165,N1166,N1167,N1168, N1169,N1170,N1171,N1172, N1173,N1174,N1175,N1176, N1177,N1178,N1179,N1180, \note fields as indicated
+  N1181,N1182,N1183,N1184, N1185,N1186,N1187,N1188, N1189,N1190,N1191,N1192, N1193,N1194,N1195,N1196, N1197,N1198,N1199,N1200, \note fields as indicated
+
+  N1201,N1202,N1203,N1204, N1205,N1206,N1207,N1208, N1209,N1210,N1211,N1212, N1213,N1214,N1215,N1216, N1217,N1218,N1219,N1220, \note fields as indicated
+  N1221,N1222,N1223,N1224, N1225,N1226,N1227,N1228, N1229,N1230,N1231,N1232, N1233,N1234,N1235,N1236, N1237,N1238,N1239,N1240, \note fields as indicated
+  N1241,N1242,N1243,N1244, N1245,N1246,N1247,N1248, N1249,N1250,N1251,N1252, N1253,N1254,N1255,N1256, N1257,N1258,N1259,N1260, \note fields as indicated
+  N1261,N1262,N1263,N1264, N1265,N1266,N1267,N1268, N1269,N1270,N1271,N1272, N1273,N1274,N1275,N1276, N1277,N1278,N1279,N1280, \note fields as indicated
+  N1281,N1282,N1283,N1284, N1285,N1286,N1287,N1288, N1289,N1290,N1291,N1292, N1293,N1294,N1295,N1296, N1297,N1298,N1299,N1300, \note fields as indicated
+
+  N1301,N1302,N1303,N1304, N1305,N1306,N1307,N1308, N1309,N1310,N1311,N1312, N1313,N1314,N1315,N1316, N1317,N1318,N1319,N1320, \note fields as indicated
+  N1321,N1322,N1323,N1324, N1325,N1326,N1327,N1328, N1329,N1330,N1331,N1332, N1333,N1334,N1335,N1336, N1337,N1338,N1339,N1340, \note fields as indicated
+  N1341,N1342,N1343,N1344, N1345,N1346,N1347,N1348, N1349,N1350,N1351,N1352, N1353,N1354,N1355,N1356, N1357,N1358,N1359,N1360, \note fields as indicated
+  N1361,N1362,N1363,N1364, N1365,N1366,N1367,N1368, N1369,N1370,N1371,N1372, N1373,N1374,N1375,N1376, N1377,N1378,N1379,N1380, \note fields as indicated
+  N1381,N1382,N1383,N1384, N1385,N1386,N1387,N1388, N1389,N1390,N1391,N1392, N1393,N1394,N1395,N1396, N1397,N1398,N1399,N1400, \note fields as indicated
+
+  N1401,N1402,N1403,N1404, N1405,N1406,N1407,N1408, N1409,N1410,N1411,N1412, N1413,N1414,N1415,N1416, N1417,N1418,N1419,N1420, \note fields as indicated
+  N1421,N1422,N1423,N1424, N1425,N1426,N1427,N1428, N1429,N1430,N1431,N1432, N1433,N1434,N1435,N1436, N1437,N1438,N1439,N1440, \note fields as indicated
+  N1441,N1442,N1443,N1444, N1445,N1446,N1447,N1448, N1449,N1450,N1451,N1452, N1453,N1454,N1455,N1456, N1457,N1458,N1459,N1460, \note fields as indicated
+  N1461,N1462,N1463,N1464, N1465,N1466,N1467,N1468, N1469,N1470,N1471,N1472, N1473,N1474,N1475,N1476, N1477,N1478,N1479,N1480, \note fields as indicated
+  N1481,N1482,N1483,N1484, N1485,N1486,N1487,N1488, N1489,N1490,N1491,N1492, N1493,N1494,N1495,N1496, N1497,N1498,N1499,N1500, \note fields as indicated
+
+  N1501,N1502,N1503,N1504, N1505,N1506,N1507,N1508, N1509,N1510,N1511,N1512, N1513,N1514,N1515,N1516, N1517,N1518,N1519,N1520, \note fields as indicated
+  N1521,N1522,N1523,N1524, N1525,N1526,N1527,N1528, N1529,N1530,N1531,N1532, N1533,N1534,N1535,N1536, N1537,N1538,N1539,N1540, \note fields as indicated
+  N1541,N1542,N1543,N1544, N1545,N1546,N1547,N1548, N1549,N1550,N1551,N1552, N1553,N1554,N1555,N1556, N1557,N1558,N1559,N1560, \note fields as indicated
+  N1561,N1562,N1563,N1564, N1565,N1566,N1567,N1568, N1569,N1570,N1571,N1572, N1573,N1574,N1575,N1576, N1577,N1578,N1579,N1580, \note fields as indicated
+  N1581,N1582,N1583,N1584, N1585,N1586,N1587,N1588, N1589,N1590,N1591,N1592, N1593,N1594,N1595,N1596, N1597,N1598,N1599,N1600, \note fields as indicated
+
+  N1601,N1602,N1603,N1604, N1605,N1606,N1607,N1608, N1609,N1610,N1611,N1612, N1613,N1614,N1615,N1616, N1617,N1618,N1619,N1620, \note fields as indicated
+  N1621,N1622,N1623,N1624, N1625,N1626,N1627,N1628, N1629,N1630,N1631,N1632, N1633,N1634,N1635,N1636, N1637,N1638,N1639,N1640, \note fields as indicated
+  N1641,N1642,N1643,N1644, N1645,N1646,N1647,N1648, N1649,N1650,N1651,N1652, N1653,N1654,N1655,N1656, N1657,N1658,N1659,N1660, \note fields as indicated
+  N1661,N1662,N1663,N1664, N1665,N1666,N1667,N1668, N1669,N1670,N1671,N1672, N1673,N1674,N1675,N1676, N1677,N1678,N1679,N1680, \note fields as indicated
+  N1681,N1682,N1683,N1684, N1685,N1686,N1687,N1688, N1689,N1690,N1691,N1692, N1693,N1694,N1695,N1696, N1697,N1698,N1699,N1700, \note fields as indicated
+
+  N1701,N1702,N1703,N1704, N1705,N1706,N1707,N1708, N1709,N1710,N1711,N1712, N1713,N1714,N1715,N1716, N1717,N1718,N1719,N1720, \note fields as indicated
+  N1721,N1722,N1723,N1724, N1725,N1726,N1727,N1728, N1729,N1730,N1731,N1732, N1733,N1734,N1735,N1736, N1737,N1738,N1739,N1740, \note fields as indicated
+  N1741,N1742,N1743,N1744, N1745,N1746,N1747,N1748, N1749,N1750,N1751,N1752, N1753,N1754,N1755,N1756, N1757,N1758,N1759,N1760, \note fields as indicated
+  N1761,N1762,N1763,N1764, N1765,N1766,N1767,N1768, N1769,N1770,N1771,N1772, N1773,N1774,N1775,N1776, N1777,N1778,N1779,N1780, \note fields as indicated
+  N1781,N1782,N1783,N1784, N1785,N1786,N1787,N1788, N1789,N1790,N1791,N1792, N1793,N1794,N1795,N1796, N1797,N1798,N1799,N1800, \note fields as indicated
+
+  N1801,N1802,N1803,N1804, N1805,N1806,N1807,N1808, N1809,N1810,N1811,N1812, N1813,N1814,N1815,N1816, N1817,N1818,N1819,N1820,  \note fields as indicated
+  N1821,N1822,N1823,N1824, N1825,N1826,N1827,N1828, N1829,N1830,N1831,N1832, N1833,N1834,N1835,N1836, N1837,N1838,N1839,N1840,  \note fields as indicated
+  N1841,N1842,N1843,N1844, N1845,N1846,N1847,N1848, N1849,N1850,N1851,N1852, N1853,N1854,N1855,N1856, N1857,N1858,N1859,N1860,  \note fields as indicated
+  N1861,N1862,N1863,N1864, N1865,N1866,N1867,N1868, N1869,N1870,N1871,N1872, N1873,N1874,N1875,N1876, N1877,N1878,N1879,N1880,  \note fields as indicated
+  N1881,N1882,N1883,N1884, N1885,N1886,N1887,N1888, N1889,N1890,N1891,N1892, N1893,N1894,N1895,N1896, N1897,N1898,N1899,N1900,  \note fields as indicated
+
+  N1901,N1902,N1903,N1904, N1905,N1906,N1907,N1908, N1909,N1910,N1911,N1912, N1913,N1914,N1915,N1916, N1917,N1918,N1919,N1920,  \note fields as indicated
+  N1921,N1922,N1923,N1924, N1925,N1926,N1927,N1928, N1929,N1930,N1931,N1932, N1933,N1934,N1935,N1936, N1937,N1938,N1939,N1940,  \note fields as indicated
+  N1941,N1942,N1943,N1944, N1945,N1946,N1947,N1948, N1949,N1950,N1951,N1952, N1953,N1954,N1955,N1956, N1957,N1958,N1959,N1960,  \note fields as indicated
+  N1961,N1962,N1963,N1964, N1965,N1966,N1967,N1968, N1969,N1970,N1971,N1972, N1973,N1974,N1975,N1976, N1977,N1978,N1979,N1980,  \note fields as indicated
+  N1981,N1982,N1983,N1984, N1985,N1986,N1987,N1988, N1989,N1990,N1991,N1992, N1993,N1994,N1995,N1996, N1997,N1998,N1999,N2000,  \note fields as indicated
+
+  N2001,N2002,N2003,N2004, N2005,N2006,N2007,N2008, N2009,N2010,N2011,N2012, N2013,N2014,N2015,N2016, N2017,N2018,N2019,N2020,  \note fields as indicated
+  N2021,N2022,N2023,N2024, N2025,N2026,N2027,N2028, N2029,N2030,N2031,N2032, N2033,N2034,N2035,N2036, N2037,N2038,N2039,N2040,  \note fields as indicated
+  N2041,N2042,N2043,N2044, N2045,N2046,N2047,N2048, N2049,N2050,N2051,N2052, N2053,N2054,N2055,N2056, N2057,N2058,N2059,N2060,  \note fields as indicated
+  N2061,N2062,N2063,N2064, N2065,N2066,N2067,N2068, N2069,N2070,N2071,N2072, N2073,N2074,N2075,N2076, N2077,N2078,N2079,N2080,  \note fields as indicated
+  N2081,N2082,N2083,N2084, N2085,N2086,N2087,N2088, N2089,N2090,N2091,N2092, N2093,N2094,N2095,N2096, N2097,N2098,N2099,N2100,  \note fields as indicated
+
+  N2101,N2102,N2103,N2104, N2105,N2106,N2107,N2108, N2109,N2110,N2111,N2112, N2113,N2114,N2115,N2116, N2117,N2118,N2119,N2120,  \note fields as indicated
+  N2121,N2122,N2123,N2124, N2125,N2126,N2127,N2128, N2129,N2130,N2131,N2132, N2133,N2134,N2135,N2136, N2137,N2138,N2139,N2140,  \note fields as indicated
+  N2141,N2142,N2143,N2144, N2145,N2146,N2147,N2148, N2149,N2150,N2151,N2152, N2153,N2154,N2155,N2156, N2157,N2158,N2159,N2160,  \note fields as indicated
+  N2161,N2162,N2163,N2164, N2165,N2166,N2167,N2168, N2169,N2170,N2171,N2172, N2173,N2174,N2175,N2176, N2177,N2178,N2179,N2180,  \note fields as indicated
+  N2181,N2182,N2183,N2184, N2185,N2186,N2187,N2188, N2189,N2190,N2191,N2192, N2193,N2194,N2195,N2196, N2197,N2198,N2199,N2200,  \note fields as indicated
+
+  N2201,N2202,N2203,N2204, N2205,N2206,N2207,N2208, N2209,N2210,N2211,N2212, N2213,N2214,N2215,N2216, N2217,N2218,N2219,N2220,  \note fields as indicated
+  N2221,N2222,N2223,N2224, N2225,N2226,N2227,N2228, N2229,N2230,N2231,N2232, N2233,N2234,N2235,N2236, N2237,N2238,N2239,N2240,  \note fields as indicated
+  N2241,N2242,N2243,N2244, N2245,N2246,N2247,N2248, N2249,N2250,N2251,N2252, N2253,N2254,N2255,N2256, N2257,N2258,N2259,N2260,  \note fields as indicated
+  N2261,N2262,N2263,N2264, N2265,N2266,N2267,N2268, N2269,N2270,N2271,N2272, N2273,N2274,N2275,N2276, N2277,N2278,N2279,N2280,  \note fields as indicated
+  N2281,N2282,N2283,N2284, N2285,N2286,N2287,N2288, N2289,N2290,N2291,N2292, N2293,N2294,N2295,N2296, N2297,N2298,N2299,N2300,  \note fields as indicated
+
+  N2301,N2302,N2303,N2304, N2305,N2306,N2307,N2308, N2309,N2310,N2311,N2312, N2313,N2314,N2315,N2316, N2317,N2318,N2319,N2320,  \note fields as indicated
+  N2321,N2322,N2323,N2324, N2325,N2326,N2327,N2328, N2329,N2330,N2331,N2332, N2333,N2334,N2335,N2336, N2337,N2338,N2339,N2340,  \note fields as indicated
+  N2341,N2342,N2343,N2344, N2345,N2346,N2347,N2348, N2349,N2350,N2351,N2352, N2353,N2354,N2355,N2356, N2357,N2358,N2359,N2360,  \note fields as indicated
+  N2361,N2362,N2363,N2364, N2365,N2366,N2367,N2368, N2369,N2370,N2371,N2372, N2373,N2374,N2375,N2376, N2377,N2378,N2379,N2380,  \note fields as indicated
+  N2381,N2382,N2383,N2384, N2385,N2386,N2387,N2388, N2389,N2390,N2391,N2392, N2393,N2394,N2395,N2396, N2397,N2398,N2399,N2400,  \note fields as indicated
+
+  N2401,N2402,N2403,N2404, N2405,N2406,N2407,N2408, N2409,N2410,N2411,N2412, N2413,N2414,N2415,N2416, N2417,N2418,N2419,N2420,  \note fields as indicated
+  N2421,N2422,N2423,N2424, N2425,N2426,N2427,N2428, N2429,N2430,N2431,N2432, N2433,N2434,N2435,N2436, N2437,N2438,N2439,N2440,  \note fields as indicated
+  N2441,N2442,N2443,N2444, N2445,N2446,N2447,N2448, N2449,N2450,N2451,N2452, N2453,N2454,N2455,N2456, N2457,N2458,N2459,N2460,  \note fields as indicated
+  N2461,N2462,N2463,N2464, N2465,N2466,N2467,N2468, N2469,N2470,N2471,N2472, N2473,N2474,N2475,N2476, N2477,N2478,N2479,N2480,  \note fields as indicated
+  N2481,N2482,N2483,N2484, N2485,N2486,N2487,N2488, N2489,N2490,N2491,N2492, N2493,N2494,N2495,N2496, N2497,N2498,N2499,N2500,  \note fields as indicated
+
+  N2501,N2502,N2503,N2504, N2505,N2506,N2507,N2508, N2509,N2510,N2511,N2512, N2513,N2514,N2515,N2516, N2517,N2518,N2519,N2520,  \note fields as indicated
+  N2521,N2522,N2523,N2524, N2525,N2526,N2527,N2528, N2529,N2530,N2531,N2532, N2533,N2534,N2535,N2536, N2537,N2538,N2539,N2540,  \note fields as indicated
+  N2541,N2542,N2543,N2544, N2545,N2546,N2547,N2548, N2549,N2550,N2551,N2552, N2553,N2554,N2555,N2556, N2557,N2558,N2559,N2560,  \note fields as indicated
+  N2561,N2562,N2563,N2564, N2565,N2566,N2567,N2568, N2569,N2570,N2571,N2572, N2573,N2574,N2575,N2576, N2577,N2578,N2579,N2580,  \note fields as indicated
+  N2581,N2582,N2583,N2584, N2585,N2586,N2587,N2588, N2589,N2590,N2591,N2592, N2593,N2594,N2595,N2596, N2597,N2598,N2599,N2600,  \note fields as indicated
+
+  N2601,N2602,N2603,N2604, N2605,N2606,N2607,N2608, N2609,N2610,N2611,N2612, N2613,N2614,N2615,N2616, N2617,N2618,N2619,N2620,  \note fields as indicated
+  N2621,N2622,N2623,N2624, N2625,N2626,N2627,N2628, N2629,N2630,N2631,N2632, N2633,N2634,N2635,N2636, N2637,N2638,N2639,N2640,  \note fields as indicated
+  N2641,N2642,N2643,N2644, N2645,N2646,N2647,N2648, N2649,N2650,N2651,N2652, N2653,N2654,N2655,N2656, N2657,N2658,N2659,N2660,  \note fields as indicated
+  N2661,N2662,N2663,N2664, N2665,N2666,N2667,N2668, N2669,N2670,N2671,N2672, N2673,N2674,N2675,N2676, N2677,N2678,N2679,N2680,  \note fields as indicated
+  N2681,N2682,N2683,N2684, N2685,N2686,N2687,N2688, N2689,N2690,N2691,N2692, N2693,N2694,N2695,N2696, N2697,N2698,N2699,N2700,  \note fields as indicated
+
+  N2701,N2702,N2703,N2704, N2705,N2706,N2707,N2708, N2709,N2710,N2711,N2712, N2713,N2714,N2715,N2716, N2717,N2718,N2719,N2720,  \note fields as indicated
+  N2721,N2722,N2723,N2724, N2725,N2726,N2727,N2728, N2729,N2730,N2731,N2732, N2733,N2734,N2735,N2736, N2737,N2738,N2739,N2740,  \note fields as indicated
+  N2741,N2742,N2743,N2744, N2745,N2746,N2747,N2748, N2749,N2750,N2751,N2752, N2753,N2754,N2755,N2756, N2757,N2758,N2759,N2760,  \note fields as indicated
+  N2761,N2762,N2763,N2764, N2765,N2766,N2767,N2768, N2769,N2770,N2771,N2772, N2773,N2774,N2775,N2776, N2777,N2778,N2779,N2780,  \note fields as indicated
+  N2781,N2782,N2783,N2784, N2785,N2786,N2787,N2788, N2789,N2790,N2791,N2792, N2793,N2794,N2795,N2796, N2797,N2798,N2799,N2800,  \note fields as indicated
+
+  N2801,N2802,N2803,N2804, N2805,N2806,N2807,N2808, N2809,N2810,N2811,N2812, N2813,N2814,N2815,N2816, N2817,N2818,N2819,N2820,  \note fields as indicated
+  N2821,N2822,N2823,N2824, N2825,N2826,N2827,N2828, N2829,N2830,N2831,N2832, N2833,N2834,N2835,N2836, N2837,N2838,N2839,N2840,  \note fields as indicated
+  N2841,N2842,N2843,N2844, N2845,N2846,N2847,N2848, N2849,N2850,N2851,N2852, N2853,N2854,N2855,N2856, N2857,N2858,N2859,N2860,  \note fields as indicated
+  N2861,N2862,N2863,N2864, N2865,N2866,N2867,N2868, N2869,N2870,N2871,N2872, N2873,N2874,N2875,N2876, N2877,N2878,N2879,N2880,  \note fields as indicated
+  N2881,N2882,N2883,N2884, N2885,N2886,N2887,N2888, N2889,N2890,N2891,N2892, N2893,N2894,N2895,N2896, N2897,N2898,N2899,N2900,  \note fields as indicated
+
+  N2901,N2902,N2903,N2904, N2905,N2906,N2907,N2908, N2909,N2910,N2911,N2912, N2913,N2914,N2915,N2916, N2917,N2918,N2919,N2920,  \note fields as indicated
+  N2921,N2922,N2923,N2924, N2925,N2926,N2927,N2928, N2929,N2930,N2931,N2932, N2933,N2934,N2935,N2936, N2937,N2938,N2939,N2940,  \note fields as indicated
+  N2941,N2942,N2943,N2944, N2945,N2946,N2947,N2948, N2949,N2950,N2951,N2952, N2953,N2954,N2955,N2956, N2957,N2958,N2959,N2960,  \note fields as indicated
+  N2961,N2962,N2963,N2964, N2965,N2966,N2967,N2968, N2969,N2970,N2971,N2972, N2973,N2974,N2975,N2976, N2977,N2978,N2979,N2980,  \note fields as indicated
+  N2981,N2982,N2983,N2984, N2985,N2986,N2987,N2988, N2989,N2990,N2991,N2992, N2993,N2994,N2995,N2996, N2997,N2998,N2999,N3000,  \note fields as indicated
+
+  N3001,N3002,N3003,N3004, N3005,N3006,N3007,N3008, N3009,N3010,N3011,N3012, N3013,N3014,N3015,N3016, N3017,N3018,N3019,N3020,  \note fields as indicated
+  N3021,N3022,N3023,N3024, N3025,N3026,N3027,N3028, N3029,N3030,N3031,N3032, N3033,N3034,N3035,N3036, N3037,N3038,N3039,N3040,  \note fields as indicated
+  N3041,N3042,N3043,N3044, N3045,N3046,N3047,N3048, N3049,N3050,N3051,N3052, N3053,N3054,N3055,N3056, N3057,N3058,N3059,N3060,  \note fields as indicated
+  N3061,N3062,N3063,N3064, N3065,N3066,N3067,N3068, N3069,N3070,N3071,N3072, N3073,N3074,N3075,N3076, N3077,N3078,N3079,N3080,  \note fields as indicated
+  N3081,N3082,N3083,N3084, N3085,N3086,N3087,N3088, N3089,N3090,N3091,N3092, N3093,N3094,N3095,N3096, N3097,N3098,N3099,N3100,  \note fields as indicated
+
+  N3101,N3102,N3103,N3104, N3105,N3106,N3107,N3108, N3109,N3110,N3111,N3112, N3113,N3114,N3115,N3116, N3117,N3118,N3119,N3120,  \note fields as indicated
+  N3121,N3122,N3123,N3124, N3125,N3126,N3127,N3128, N3129,N3130,N3131,N3132, N3133,N3134,N3135,N3136, N3137,N3138,N3139,N3140,  \note fields as indicated
+  N3141,N3142,N3143,N3144, N3145,N3146,N3147,N3148, N3149,N3150,N3151,N3152, N3153,N3154,N3155,N3156, N3157,N3158,N3159,N3160,  \note fields as indicated
+  N3161,N3162,N3163,N3164, N3165,N3166,N3167,N3168, N3169,N3170,N3171,N3172, N3173,N3174,N3175,N3176, N3177,N3178,N3179,N3180,  \note fields as indicated
+  N3181,N3182,N3183,N3184, N3185,N3186,N3187,N3188, N3189,N3190,N3191,N3192, N3193,N3194,N3195,N3196, N3197,N3198,N3199,N3200;  \note fields as indicated
+
+Construction,
+       \memo Start with outside layer and work your way to the inside layer
+       \memo Up to 10 layers total, 8 for windows
+       \memo Enter the material name for each layer
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ConstructionNames
+  A2 , \field Outside Layer
+       \required-field
+       \type object-list
+       \object-list MaterialName
+  A3 , \field Layer 2
+       \type object-list
+       \object-list MaterialName
+  A4 , \field Layer 3
+       \type object-list
+       \object-list MaterialName
+  A5 , \field Layer 4
+       \type object-list
+       \object-list MaterialName
+  A6 , \field Layer 5
+       \type object-list
+       \object-list MaterialName
+  A7 , \field Layer 6
+       \type object-list
+       \object-list MaterialName
+  A8 , \field Layer 7
+       \type object-list
+       \object-list MaterialName
+  A9 , \field Layer 8
+       \type object-list
+       \object-list MaterialName
+  A10, \field Layer 9
+       \type object-list
+       \object-list MaterialName
+  A11; \field Layer 10
+       \type object-list
+       \object-list MaterialName
+
+Construction:CfactorUndergroundWall,
+       \memo Alternate method of describing underground wall constructions
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ConstructionNames
+  N1 , \field C-Factor
+       \required-field
+       \units W/m2-K
+       \type real
+       \minimum> 0.0
+       \note Enter C-Factor without film coefficients or soil
+  N2 ; \field Height
+       \required-field
+       \units m
+       \type real
+       \minimum> 0.0
+       \note Enter height of the underground wall
+
+Construction:FfactorGroundFloor,
+       \memo Alternate method of describing slab-on-grade or underground floor constructions
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ConstructionNames
+  N1 , \field F-Factor
+       \required-field
+       \units W/m-K
+       \ip-units Btu/h-ft-F
+       \type real
+       \minimum> 0.0
+  N2 , \field Area
+       \required-field
+       \units m2
+       \type real
+       \minimum> 0.0
+       \note Enter area of the floor
+  N3 ; \field PerimeterExposed
+       \required-field
+       \units m
+       \type real
+       \minimum 0.0
+       \note Enter exposed perimeter of the floor
+
+ConstructionProperty:InternalHeatSource,
+       \memo Internal heat source to be attached to a construction layer
+  A1,  \field Name
+       \required-field
+       \type alpha
+       \reference InternalHeatSourceNames
+  A2,  \field Construction Name
+       \type object-list
+       \object-list ConstructionNames
+  N1,  \field Thermal Source Present After Layer Number
+       \required-field
+       \type integer
+       \minimum 1
+       \note refers to the list of materials which follows
+  N2,  \field Temperature Calculation Requested After Layer Number
+       \required-field
+       \type integer
+       \note refers to the list of materials which follows
+  N3,  \field Dimensions for the CTF Calculation
+       \required-field
+       \type integer
+       \minimum 1
+       \maximum 2
+       \note 1 = 1-dimensional calculation, 2 = 2-dimensional calculation
+  N4,  \field Tube Spacing
+       \required-field
+       \type real
+       \units m
+       \note uniform spacing between tubes or resistance wires in direction
+       \note perpendicular to main intended direction of heat transfer
+  N5;  \field Two-Dimensional Temperature Calculation Position
+       \required-field
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+       \units dimensionless
+       \note used in conjunction with field Temperature Calculation Requested After Layer Number
+       \note this field is the location perpendicular to the main direction of heat transfer
+       \note 0.0 means in line with the tubing, 1.0 means at the midpoint between two adjacent pipes
+       \note this field is ignored for 1-D calculations
+
+Construction:AirBoundary,
+       \memo Indicates an open boundary between two zones. It may be used for base surfaces and fenestration surfaces.
+       \memo The two adjacent zones are grouped together for solar, daylighting and radiant exchange.
+       \memo When this construction type is used, the Outside Boundary Condition of the surface
+       \memo (or the base surface of a fenestration surface) must be either Surface or Zone.
+       \memo A base surface with Construction:AirBoundary cannot hold any fenestration surfaces.
+       \min-fields 4
+  A1,  \field Name
+       \required-field
+       \type alpha
+       \reference ConstructionNames
+  A2,  \field Air Exchange Method
+       \note This field controls how air exchange is modeled across this boundary.
+       \type choice
+       \key None
+       \key SimpleMixing
+       \default None
+  N1,  \field Simple Mixing Air Changes per Hour
+       \note If the Air Exchange Method is SimpleMixing then this field specifies the air changes per hour
+       \note using the volume of the smaller zone as the basis.
+       \note If an AirflowNetwork simulation is active this field is ignored.
+       \units 1/hr
+       \type real
+       \minimum 0
+       \default 0.5
+  A3;  \field Simple Mixing Schedule Name
+       \note If the Air Exchange Method is SimpleMixing then this field specifies the air exchange schedule.
+       \note If this field is blank, the schedule is always 1.0.
+       \note If an AirflowNetwork simulation is active this field is ignored.
+       \type object-list
+       \object-list ScheduleNames
+
+WindowThermalModel:Params,
+       \memo object is used to select which thermal model should be used in tarcog simulations
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference WindowThermalModelParameters
+  A2 , \field standard
+       \type choice
+       \key ISO15099
+       \key EN673Declared
+       \key EN673Design
+       \default ISO15099
+  A3 , \field Thermal Model
+       \type choice
+       \key ISO15099
+       \key ScaledCavityWidth
+       \key ConvectiveScalarModel_NoSDThickness
+       \key ConvectiveScalarModel_withSDThickness
+       \default ISO15099
+  N1 , \field SDScalar
+       \type real
+       \minimum  0.0
+       \maximum 1.0
+       \default 1
+  A4 , \field Deflection Model
+       \type choice
+       \key NoDeflection
+       \key TemperatureAndPressureInput
+       \key MeasuredDeflection
+       \default NoDeflection
+  N2 , \field Vacuum Pressure Limit
+       \type real
+       \units Pa
+       \minimum> 0
+       \default 13.238
+  N3 , \field Initial temperature
+       \note This is temperature in time of window fabrication
+       \type real
+       \units C
+       \minimum> 0
+       \default 25
+  N4 ; \field Initial pressure
+       \note This is pressure in time of window fabrication
+       \type real
+       \units Pa
+       \minimum> 0
+       \default 101325
+
+WindowsCalculationEngine,
+       \memo Describes which window model will be used in calculations. Built in windows model will use algorithms that are part of EnergyPlus,
+       \memo while ExternalWindowsModel will use Windows-CalcEngine library to perform optical and thermal performances of windows and doors.
+  A1;  \field Windows engine
+       \type choice
+       \key BuiltInWindowsModel
+       \key ExternalWindowsModel
+       \default BuiltInWindowsModel
+
+Construction:ComplexFenestrationState,
+       \memo Describes one state for a complex glazing system
+       \memo These input objects are typically generated by using WINDOW software and export to IDF syntax
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ComplexFenestrationStates
+  A2 , \field Basis Type
+       \type choice
+       \key LBNLWINDOW
+       \key UserDefined
+       \default LBNLWINDOW
+  A3 , \field Basis Symmetry Type
+       \type choice
+       \key Axisymmetric
+       \key None
+       \default None
+  A4 , \field Window Thermal Model
+       \required-field
+       \type object-list
+       \object-list WindowThermalModelParameters
+  A5 , \field Basis Matrix Name
+       \type object-list
+       \object-list DataMatrices
+       \required-field
+  A6 , \field Solar Optical Complex Front Transmittance Matrix Name
+       \type object-list
+       \object-list DataMatrices
+       \required-field
+  A7 , \field Solar Optical Complex Back Reflectance Matrix Name
+       \type object-list
+       \object-list DataMatrices
+       \required-field
+  A8 , \field Visible Optical Complex Front Transmittance Matrix Name
+       \type object-list
+       \object-list DataMatrices
+       \required-field
+  A9 , \field Visible Optical Complex Back Transmittance Matrix Name
+       \type object-list
+       \object-list DataMatrices
+       \required-field
+  A10, \field Outside Layer Name
+       \required-field
+       \type object-list
+       \object-list CFSGlazingName
+       \object-list WindowComplexShades
+  A11,  \field Outside Layer Directional Front Absoptance Matrix Name
+       \required-field
+       \type object-list
+       \object-list DataMatrices
+  A12, \field Outside Layer Directional Back Absoptance Matrix Name
+       \required-field
+       \type object-list
+       \object-list DataMatrices
+  A13, \field Gap 1 Name
+       \type object-list
+       \object-list CFSGap
+  A14, \field CFS Gap 1 Directional Front Absoptance Matrix Name
+       \note Reserved for future use. Leave it blank for this version
+       \type object-list
+       \object-list DataMatrices
+  A15, \field CFS Gap 1 Directional Back Absoptance Matrix Name
+       \note Reserved for future use. Leave it blank for this version
+       \type object-list
+       \object-list DataMatrices
+  A16, \field Layer 2 Name
+       \type object-list
+       \object-list CFSGlazingName
+       \object-list WindowComplexShades
+  A17, \field Layer 2 Directional Front Absoptance Matrix Name
+       \type object-list
+       \object-list DataMatrices
+  A18, \field Layer 2 Directional Back Absoptance Matrix Name
+       \type object-list
+       \object-list DataMatrices
+  A19, \field Gap 2 Name
+       \type object-list
+       \object-list CFSGap
+  A20, \field Gap 2 Directional Front Absoptance Matrix Name
+       \note Reserved for future use. Leave it blank for this version
+       \type object-list
+       \object-list DataMatrices
+  A21, \field Gap 2 Directional Back Absoptance Matrix Name
+       \note Reserved for future use. Leave it blank for this version
+       \type object-list
+       \object-list DataMatrices
+  A22, \field Layer 3 Material
+       \type object-list
+       \object-list CFSGlazingName
+       \object-list WindowComplexShades
+  A23, \field Layer 3 Directional Front Absoptance Matrix Name
+       \type object-list
+       \object-list DataMatrices
+  A24, \field Layer 3 Directional Back Absoptance Matrix Name
+       \type object-list
+       \object-list DataMatrices
+  A25, \field Gap 3 Name
+       \type object-list
+       \object-list CFSGap
+  A26, \field Gap 3 Directional Front Absoptance Matrix Name
+       \note Reserved for future use. Leave it blank for this version
+       \type object-list
+       \object-list DataMatrices
+  A27, \field Gap 3 Directional Back Absoptance Matrix Name
+       \note Reserved for future use. Leave it blank for this version
+       \type object-list
+       \object-list DataMatrices
+  A28, \field Layer 4 Name
+       \type object-list
+       \object-list CFSGlazingName
+       \object-list WindowComplexShades
+  A29, \field Layer 4 Directional Front Absoptance Matrix Name
+       \type object-list
+       \object-list DataMatrices
+  A30, \field Layer 4 Directional Back Absoptance Matrix Name
+       \type object-list
+       \object-list DataMatrices
+  A31, \field Gap 4 Name
+       \type object-list
+       \object-list CFSGap
+  A32, \field Gap 4 Directional Front Absoptance Matrix Name
+       \note Reserved for future use. Leave it blank for this version
+       \type object-list
+       \object-list DataMatrices
+  A33, \field Gap 4 Directional Back Absoptance Matrix Name
+       \note Reserved for future use. Leave it blank for this version
+       \type object-list
+       \object-list DataMatrices
+  A34, \field Layer 5 Name
+       \type object-list
+       \object-list CFSGlazingName
+       \object-list WindowComplexShades
+  A35, \field Layer 5 Directional Front Absoptance Matrix Name
+       \type object-list
+       \object-list DataMatrices
+  A36; \field Layer 5 Directional Back Absoptance Matrix Name
+
+Construction:WindowEquivalentLayer,
+       \memo Start with outside layer and work your way to the inside Layer
+       \memo Up to 11 layers total. Up to six solid layers and up to five gaps.
+       \memo Enter the material name for each layer
+       \min-fields 2
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ConstructionNames
+  A2 , \field Outside Layer
+       \required-field
+       \type object-list
+       \object-list WindowEquivalentLayerMaterialNames
+  A3 , \field Layer 2
+       \type object-list
+       \object-list WindowEquivalentLayerMaterialNames
+  A4 , \field Layer 3
+       \type object-list
+       \object-list WindowEquivalentLayerMaterialNames
+  A5 , \field Layer 4
+       \type object-list
+       \object-list WindowEquivalentLayerMaterialNames
+  A6 , \field Layer 5
+       \type object-list
+       \object-list WindowEquivalentLayerMaterialNames
+  A7 , \field Layer 6
+       \type object-list
+       \object-list WindowEquivalentLayerMaterialNames
+  A8 , \field Layer 7
+       \type object-list
+       \object-list WindowEquivalentLayerMaterialNames
+  A9 , \field Layer 8
+       \type object-list
+       \object-list WindowEquivalentLayerMaterialNames
+  A10, \field Layer 9
+       \type object-list
+       \object-list WindowEquivalentLayerMaterialNames
+  A11, \field Layer 10
+       \type object-list
+       \object-list WindowEquivalentLayerMaterialNames
+  A12; \field Layer 11
+       \type object-list
+       \object-list WindowEquivalentLayerMaterialNames
+
+Construction:WindowDataFile,
+       \memo Initiates search of the Window data file for a window called Name.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ConstructionNames
+  A2 ; \field File Name
+       \retaincase
+       \note default file name is "Window5DataFile.dat"
+       \note limit on this field is 100 characters.
+
+\group Thermal Zones and Surfaces
+
+GlobalGeometryRules,
+      \memo Specifies the geometric rules used to describe the input of surface vertices and
+      \memo daylighting reference points.
+      \required-object
+      \unique-object
+  A1, \field Starting Vertex Position
+      \required-field
+      \note Specified as entry for a 4 sided surface/rectangle
+      \note Surfaces are specified as viewed from outside the surface
+      \note Shading surfaces as viewed from behind. (towards what they are shading)
+      \type choice
+      \key UpperLeftCorner
+      \key LowerLeftCorner
+      \key UpperRightCorner
+      \key LowerRightCorner
+  A2, \field Vertex Entry Direction
+      \required-field
+      \type choice
+      \key Counterclockwise
+      \key Clockwise
+  A3, \field Coordinate System
+      \required-field
+      \note Relative -- coordinates are entered relative to zone origin
+      \note World -- all coordinates entered are "absolute" for this facility
+      \type choice
+      \key Relative
+      \key World
+  A4, \field Daylighting Reference Point Coordinate System
+      \type choice
+      \key Relative
+      \default Relative
+      \note Relative -- coordinates are entered relative to zone origin
+      \key World
+      \note World -- all coordinates entered are "absolute" for this facility
+  A5; \field Rectangular Surface Coordinate System
+      \type choice
+      \key Relative
+      \default Relative
+      \note Relative -- Starting corner is entered relative to zone origin
+      \key World
+      \note World -- Starting corner is entered in "absolute"
+
+GeometryTransform,
+      \memo Provides a simple method of altering the footprint geometry of a model. The intent
+      \memo is to provide a single parameter that can be used to reshape the building description
+      \memo contained in the rest of the input file.
+     \unique-object
+     \min-fields 3
+  A1, \field Plane of Transform
+      \type choice
+      \key XY
+      \default XY
+      \note only current allowed value is "XY"
+  N1, \field Current Aspect Ratio
+      \required-field
+      \minimum> 0
+      \note Aspect ratio of building as described in idf
+  N2; \field New Aspect Ratio
+      \required-field
+      \minimum> 0
+      \note Aspect ratio to transform to during run
+
+Zone,
+       \memo Defines a thermal zone of the building.
+  \format vertices
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ZoneNames
+       \reference OutFaceEnvNames
+       \reference ZoneAndZoneListNames
+       \reference AirflowNetworkNodeAndZoneNames
+  N1 , \field Direction of Relative North
+       \units deg
+       \type real
+       \default 0
+  N2 , \field X Origin
+       \units m
+       \type real
+       \default 0
+  N3 , \field Y Origin
+       \units m
+       \type real
+       \default 0
+  N4 , \field Z Origin
+       \units m
+       \type real
+       \default 0
+  N5 , \field Type
+       \type integer
+       \maximum 1
+       \minimum 1
+       \default 1
+  N6 , \field Multiplier
+       \type integer
+       \minimum 1
+       \default 1
+  N7 , \field Ceiling Height
+       \note If this field is 0.0, negative or autocalculate, then the average height
+       \note of the zone is automatically calculated and used in subsequent calculations.
+       \note If this field is positive, then the number entered here will be used.
+       \note Note that the Zone Ceiling Height is the distance from the Floor to
+       \note the Ceiling in the Zone, not an absolute height from the ground.
+       \units m
+       \type real
+       \autocalculatable
+       \default autocalculate
+  N8 , \field Volume
+       \note If this field is 0.0, negative or autocalculate, then the volume of the zone
+       \note is automatically calculated and used in subsequent calculations.
+       \note If this field is positive, then the number entered here will be used.
+       \units m3
+       \type real
+       \autocalculatable
+       \default autocalculate
+  N9 , \field Floor Area
+       \note If this field is 0.0, negative or autocalculate, then the floor area of the zone
+       \note is automatically calculated and used in subsequent calculations.
+       \note If this field is positive, then the number entered here will be used.
+       \units m2
+       \type real
+       \autocalculatable
+       \default autocalculate
+  A2 , \field Zone Inside Convection Algorithm
+       \type choice
+       \key Simple
+       \key TARP
+       \key CeilingDiffuser
+       \key AdaptiveConvectionAlgorithm
+       \key TrombeWall
+       \key ASTMC1340
+       \note Will default to same value as SurfaceConvectionAlgorithm:Inside object
+       \note setting this field overrides the default SurfaceConvectionAlgorithm:Inside for this zone
+       \note Simple = constant natural convection (ASHRAE)
+       \note TARP = variable natural convection based on temperature difference (ASHRAE)
+       \note CeilingDiffuser = ACH based forced and mixed convection correlations
+       \note  for ceiling diffuser configuration with simple natural convection limit
+       \note AdaptiveConvectionAlgorithm = dynamic selection of convection models based on conditions
+       \note TrombeWall = variable natural convection in an enclosed rectangular cavity
+       \note ASTMC1340 = mixed convection correlations specified for attic zone
+  A3,  \field Zone Outside Convection Algorithm
+       \note Will default to same value as SurfaceConvectionAlgorithm:Outside object
+       \note setting this field overrides the default SurfaceConvectionAlgorithm:Outside for this zone
+       \type choice
+       \key SimpleCombined
+       \key TARP
+       \key DOE-2
+       \key MoWiTT
+       \key AdaptiveConvectionAlgorithm
+       \note SimpleCombined = Combined radiation and convection coefficient using simple ASHRAE model
+       \note TARP = correlation from models developed by ASHRAE, Walton, and Sparrow et. al.
+       \note MoWiTT = correlation from measurements by Klems and Yazdanian for smooth surfaces
+       \note DOE-2 = correlation from measurements by Klems and Yazdanian for rough surfaces
+       \note AdaptiveConvectionAlgorithm = dynamic selection of correlations based on conditions
+  A4;  \field Part of Total Floor Area
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+
+ZoneList,
+       \memo Defines a list of thermal zones which can be referenced as a group. The ZoneList name
+       \memo may be used elsewhere in the input to apply a parameter to all zones in the list.
+       \memo ZoneLists can be used effectively with the following objects: People, Lights,
+       \memo ElectricEquipment, GasEquipment, HotWaterEquipment, ZoneInfiltration:DesignFlowRate,
+       \memo ZoneVentilation:DesignFlowRate, Sizing:Zone, ZoneControl:Thermostat, and others.
+       \min-fields 2
+       \extensible:1 - repeat last field, remembering to remove ; from "inner" fields.
+  A1 , \field Name
+       \note Name of the Zone List
+       \required-field
+       \type alpha
+       \reference ZoneListNames
+       \reference ZoneAndZoneListNames
+  A2 , \field Zone 1 Name
+       \begin-extensible
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A3 , \field Zone 2 Name
+       \type object-list
+       \object-list ZoneNames
+  A4 , \field Zone 3 Name
+       \type object-list
+       \object-list ZoneNames
+  A5 , \field Zone 4 Name
+       \type object-list
+       \object-list ZoneNames
+  A6 , \field Zone 5 Name
+       \type object-list
+       \object-list ZoneNames
+  A7 , \field Zone 6 Name
+       \type object-list
+       \object-list ZoneNames
+  A8 , \field Zone 7 Name
+       \type object-list
+       \object-list ZoneNames
+  A9 , \field Zone 8 Name
+       \type object-list
+       \object-list ZoneNames
+  A10, \field Zone 9 Name
+       \type object-list
+       \object-list ZoneNames
+  A11, \field Zone 10 Name
+       \type object-list
+       \object-list ZoneNames
+  A12, \field Zone 11 Name
+       \type object-list
+       \object-list ZoneNames
+  A13, \field Zone 12 Name
+       \type object-list
+       \object-list ZoneNames
+  A14, \field Zone 13 Name
+       \type object-list
+       \object-list ZoneNames
+  A15, \field Zone 14 Name
+       \type object-list
+       \object-list ZoneNames
+  A16, \field Zone 15 Name
+       \type object-list
+       \object-list ZoneNames
+  A17, \field Zone 16 Name
+       \type object-list
+       \object-list ZoneNames
+  A18, \field Zone 17 Name
+       \type object-list
+       \object-list ZoneNames
+  A19, \field Zone 18 Name
+       \type object-list
+       \object-list ZoneNames
+  A20, \field Zone 19 Name
+       \type object-list
+       \object-list ZoneNames
+  A21, \field Zone 20 Name
+       \type object-list
+       \object-list ZoneNames
+  A22, \field Zone 21 Name
+       \type object-list
+       \object-list ZoneNames
+  A23, \field Zone 22 Name
+       \type object-list
+       \object-list ZoneNames
+  A24, \field Zone 23 Name
+       \type object-list
+       \object-list ZoneNames
+  A25, \field Zone 24 Name
+       \type object-list
+       \object-list ZoneNames
+  A26, \field Zone 25 Name
+       \type object-list
+       \object-list ZoneNames
+  A27, \field Zone 26 Name
+       \type object-list
+       \object-list ZoneNames
+  A28, \field Zone 27 Name
+       \type object-list
+       \object-list ZoneNames
+  A29, \field Zone 28 Name
+       \type object-list
+       \object-list ZoneNames
+  A30, \field Zone 29 Name
+       \type object-list
+       \object-list ZoneNames
+  A31, \field Zone 30 Name
+       \type object-list
+       \object-list ZoneNames
+  A32, \field Zone 31 Name
+       \type object-list
+       \object-list ZoneNames
+  A33, \field Zone 32 Name
+       \type object-list
+       \object-list ZoneNames
+  A34, \field Zone 33 Name
+       \type object-list
+       \object-list ZoneNames
+  A35, \field Zone 34 Name
+       \type object-list
+       \object-list ZoneNames
+  A36, \field Zone 35 Name
+       \type object-list
+       \object-list ZoneNames
+  A37, \field Zone 36 Name
+       \type object-list
+       \object-list ZoneNames
+  A38, \field Zone 37 Name
+       \type object-list
+       \object-list ZoneNames
+  A39, \field Zone 38 Name
+       \type object-list
+       \object-list ZoneNames
+  A40, \field Zone 39 Name
+       \type object-list
+       \object-list ZoneNames
+  A41, \field Zone 40 Name
+       \type object-list
+       \object-list ZoneNames
+  A42, \field Zone 41 Name
+       \type object-list
+       \object-list ZoneNames
+  A43, \field Zone 42 Name
+       \type object-list
+       \object-list ZoneNames
+  A44, \field Zone 43 Name
+       \type object-list
+       \object-list ZoneNames
+  A45, \field Zone 44 Name
+       \type object-list
+       \object-list ZoneNames
+  A46, \field Zone 45 Name
+       \type object-list
+       \object-list ZoneNames
+  A47, \field Zone 46 Name
+       \type object-list
+       \object-list ZoneNames
+  A48, \field Zone 47 Name
+       \type object-list
+       \object-list ZoneNames
+  A49, \field Zone 48 Name
+       \type object-list
+       \object-list ZoneNames
+  A50, \field Zone 49 Name
+       \type object-list
+       \object-list ZoneNames
+  A51, \field Zone 50 Name
+       \type object-list
+       \object-list ZoneNames
+  A52, \field Zone 51 Name
+       \type object-list
+       \object-list ZoneNames
+  A53, \field Zone 52 Name
+       \type object-list
+       \object-list ZoneNames
+  A54, \field Zone 53 Name
+       \type object-list
+       \object-list ZoneNames
+  A55, \field Zone 54 Name
+       \type object-list
+       \object-list ZoneNames
+  A56, \field Zone 55 Name
+       \type object-list
+       \object-list ZoneNames
+  A57, \field Zone 56 Name
+       \type object-list
+       \object-list ZoneNames
+  A58, \field Zone 57 Name
+       \type object-list
+       \object-list ZoneNames
+  A59, \field Zone 58 Name
+       \type object-list
+       \object-list ZoneNames
+  A60, \field Zone 59 Name
+       \type object-list
+       \object-list ZoneNames
+  A61, \field Zone 60 Name
+       \type object-list
+       \object-list ZoneNames
+  A62, \field Zone 61 Name
+       \type object-list
+       \object-list ZoneNames
+  A63, \field Zone 62 Name
+       \type object-list
+       \object-list ZoneNames
+  A64, \field Zone 63 Name
+       \type object-list
+       \object-list ZoneNames
+  A65, \field Zone 64 Name
+       \type object-list
+       \object-list ZoneNames
+  A66, \field Zone 65 Name
+       \type object-list
+       \object-list ZoneNames
+  A67, \field Zone 66 Name
+       \type object-list
+       \object-list ZoneNames
+  A68, \field Zone 67 Name
+       \type object-list
+       \object-list ZoneNames
+  A69, \field Zone 68 Name
+       \type object-list
+       \object-list ZoneNames
+  A70, \field Zone 69 Name
+       \type object-list
+       \object-list ZoneNames
+  A71, \field Zone 70 Name
+       \type object-list
+       \object-list ZoneNames
+  A72, \field Zone 71 Name
+       \type object-list
+       \object-list ZoneNames
+  A73, \field Zone 72 Name
+       \type object-list
+       \object-list ZoneNames
+  A74, \field Zone 73 Name
+       \type object-list
+       \object-list ZoneNames
+  A75, \field Zone 74 Name
+       \type object-list
+       \object-list ZoneNames
+  A76, \field Zone 75 Name
+       \type object-list
+       \object-list ZoneNames
+  A77, \field Zone 76 Name
+       \type object-list
+       \object-list ZoneNames
+  A78, \field Zone 77 Name
+       \type object-list
+       \object-list ZoneNames
+  A79, \field Zone 78 Name
+       \type object-list
+       \object-list ZoneNames
+  A80, \field Zone 79 Name
+       \type object-list
+       \object-list ZoneNames
+  A81, \field Zone 80 Name
+       \type object-list
+       \object-list ZoneNames
+  A82, \field Zone 81 Name
+       \type object-list
+       \object-list ZoneNames
+  A83, \field Zone 82 Name
+       \type object-list
+       \object-list ZoneNames
+  A84, \field Zone 83 Name
+       \type object-list
+       \object-list ZoneNames
+  A85, \field Zone 84 Name
+       \type object-list
+       \object-list ZoneNames
+  A86, \field Zone 85 Name
+       \type object-list
+       \object-list ZoneNames
+  A87, \field Zone 86 Name
+       \type object-list
+       \object-list ZoneNames
+  A88, \field Zone 87 Name
+       \type object-list
+       \object-list ZoneNames
+  A89, \field Zone 88 Name
+       \type object-list
+       \object-list ZoneNames
+  A90, \field Zone 89 Name
+       \type object-list
+       \object-list ZoneNames
+  A91, \field Zone 90 Name
+       \type object-list
+       \object-list ZoneNames
+  A92, \field Zone 91 Name
+       \type object-list
+       \object-list ZoneNames
+  A93, \field Zone 92 Name
+       \type object-list
+       \object-list ZoneNames
+  A94, \field Zone 93 Name
+       \type object-list
+       \object-list ZoneNames
+  A95, \field Zone 94 Name
+       \type object-list
+       \object-list ZoneNames
+  A96, \field Zone 95 Name
+       \type object-list
+       \object-list ZoneNames
+  A97, \field Zone 96 Name
+       \type object-list
+       \object-list ZoneNames
+  A98, \field Zone 97 Name
+       \type object-list
+       \object-list ZoneNames
+  A99, \field Zone 98 Name
+       \type object-list
+       \object-list ZoneNames
+  A100, \field Zone 99 Name
+       \type object-list
+       \object-list ZoneNames
+  A101, \field Zone 100 Name
+       \type object-list
+       \object-list ZoneNames
+  A102,A103,A104,A105,A106,A107,A108,A109,A110,A111, \note fields as indicated
+  A112,A113,A114,A115,A116,A117,A118,A119,A120,A121, \note fields as indicated
+  A122,A123,A124,A125,A126,A127,A128,A129,A130,A131, \note fields as indicated
+  A132,A133,A134,A135,A136,A137,A138,A139,A140,A141, \note fields as indicated
+  A142,A143,A144,A145,A146,A147,A148,A149,A150,A151, \note fields as indicated
+  A152,A153,A154,A155,A156,A157,A158,A159,A160,A161, \note fields as indicated
+  A162,A163,A164,A165,A166,A167,A168,A169,A170,A171, \note fields as indicated
+  A172,A173,A174,A175,A176,A177,A178,A179,A180,A181, \note fields as indicated
+  A182,A183,A184,A185,A186,A187,A188,A189,A190,A191, \note fields as indicated
+  A192,A193,A194,A195,A196,A197,A198,A199,A200,A201, \note fields as indicated
+  A202,A203,A204,A205,A206,A207,A208,A209,A210,A211, \note fields as indicated
+  A212,A213,A214,A215,A216,A217,A218,A219,A220,A221, \note fields as indicated
+  A222,A223,A224,A225,A226,A227,A228,A229,A230,A231, \note fields as indicated
+  A232,A233,A234,A235,A236,A237,A238,A239,A240,A241, \note fields as indicated
+  A242,A243,A244,A245,A246,A247,A248,A249,A250,A251, \note fields as indicated
+  A252,A253,A254,A255,A256,A257,A258,A259,A260,A261, \note fields as indicated
+  A262,A263,A264,A265,A266,A267,A268,A269,A270,A271, \note fields as indicated
+  A272,A273,A274,A275,A276,A277,A278,A279,A280,A281, \note fields as indicated
+  A282,A283,A284,A285,A286,A287,A288,A289,A290,A291, \note fields as indicated
+  A292,A293,A294,A295,A296,A297,A298,A299,A300,A301, \note fields as indicated
+  A302,A303,A304,A305,A306,A307,A308,A309,A310,A311, \note fields as indicated
+  A312,A313,A314,A315,A316,A317,A318,A319,A320,A321, \note fields as indicated
+  A322,A323,A324,A325,A326,A327,A328,A329,A330,A331, \note fields as indicated
+  A332,A333,A334,A335,A336,A337,A338,A339,A340,A341, \note fields as indicated
+  A342,A343,A344,A345,A346,A347,A348,A349,A350,A351, \note fields as indicated
+  A352,A353,A354,A355,A356,A357,A358,A359,A360,A361, \note fields as indicated
+  A362,A363,A364,A365,A366,A367,A368,A369,A370,A371, \note fields as indicated
+  A372,A373,A374,A375,A376,A377,A378,A379,A380,A381, \note fields as indicated
+  A382,A383,A384,A385,A386,A387,A388,A389,A390,A391, \note fields as indicated
+  A392,A393,A394,A395,A396,A397,A398,A399,A400,A401, \note fields as indicated
+  A402,A403,A404,A405,A406,A407,A408,A409,A410,A411, \note fields as indicated
+  A412,A413,A414,A415,A416,A417,A418,A419,A420,A421, \note fields as indicated
+  A422,A423,A424,A425,A426,A427,A428,A429,A430,A431, \note fields as indicated
+  A432,A433,A434,A435,A436,A437,A438,A439,A440,A441, \note fields as indicated
+  A442,A443,A444,A445,A446,A447,A448,A449,A450,A451, \note fields as indicated
+  A452,A453,A454,A455,A456,A457,A458,A459,A460,A461, \note fields as indicated
+  A462,A463,A464,A465,A466,A467,A468,A469,A470,A471, \note fields as indicated
+  A472,A473,A474,A475,A476,A477,A478,A479,A480,A481, \note fields as indicated
+  A482,A483,A484,A485,A486,A487,A488,A489,A490,A491, \note fields as indicated
+  A492,A493,A494,A495,A496,A497,A498,A499,A500,A501; \note fields as indicated
+
+ZoneGroup,
+       \memo Adds a multiplier to a ZoneList. This can be used to reduce the amount of input
+       \memo necessary for simulating repetitive structures, such as the identical floors of a
+       \memo multi-story building.
+       \min-fields 2
+  A1 , \field Name
+       \note Name of the Zone Group
+       \required-field
+       \type alpha
+  A2,  \field Zone List Name
+       \required-field
+       \type object-list
+       \object-list ZoneListNames
+  N1;  \field Zone List Multiplier
+       \type integer
+       \default 1
+       \minimum 1
+
+BuildingSurface:Detailed,
+  \memo Allows for detailed entry of building heat transfer surfaces. Does not include subsurfaces such as windows or doors.
+  \extensible:3 -- duplicate last set of x,y,z coordinates (last 3 fields), remembering to remove ; from "inner" fields.
+  \format vertices
+  \min-fields 19
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SurfaceNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference OutFaceEnvNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+       \reference AllShadingAndHTSurfNames
+       \reference FloorSurfaceNames
+  A2 , \field Surface Type
+       \required-field
+       \type choice
+       \key Floor
+       \key Wall
+       \key Ceiling
+       \key Roof
+  A3 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A4 , \field Zone Name
+       \required-field
+       \note Zone the surface is a part of
+       \type object-list
+       \object-list ZoneNames
+  A5 , \field Outside Boundary Condition
+       \required-field
+       \type choice
+       \key Adiabatic
+       \key Surface
+       \key Zone
+       \key Outdoors
+       \key Foundation
+       \key Ground
+       \key GroundFCfactorMethod
+       \key OtherSideCoefficients
+       \key OtherSideConditionsModel
+       \key GroundSlabPreprocessorAverage
+       \key GroundSlabPreprocessorCore
+       \key GroundSlabPreprocessorPerimeter
+       \key GroundBasementPreprocessorAverageWall
+       \key GroundBasementPreprocessorAverageFloor
+       \key GroundBasementPreprocessorUpperWall
+       \key GroundBasementPreprocessorLowerWall
+  A6,  \field Outside Boundary Condition Object
+       \type object-list
+       \object-list OutFaceEnvNames
+       \note Non-blank only if the field Outside Boundary Condition is Surface,
+       \note Zone, OtherSideCoefficients or OtherSideConditionsModel
+       \note If Surface, specify name of corresponding surface in adjacent zone or
+       \note specify current surface name for internal partition separating like zones
+       \note If Zone, specify the name of the corresponding zone and
+       \note the program will generate the corresponding interzone surface
+       \note If Foundation, specify the name of the corresponding Foundation object and
+       \note the program will calculate the heat transfer appropriately
+       \note If OtherSideCoefficients, specify name of SurfaceProperty:OtherSideCoefficients
+       \note If OtherSideConditionsModel, specify name of SurfaceProperty:OtherSideConditionsModel
+  A7 , \field Sun Exposure
+       \type choice
+       \key SunExposed
+       \key NoSun
+       \default SunExposed
+  A8,  \field Wind Exposure
+       \type choice
+       \key WindExposed
+       \key NoWind
+       \default WindExposed
+  N1,  \field View Factor to Ground
+       \type real
+       \note From the exterior of the surface
+       \note Unused if one uses the "reflections" options in Solar Distribution in Building input
+       \note unless a DaylightingDevice:Shelf or DaylightingDevice:Tubular object has been specified.
+       \note autocalculate will automatically calculate this value from the tilt of the surface
+       \autocalculatable
+       \minimum 0.0
+       \maximum 1.0
+       \default autocalculate
+  N2 , \field Number of Vertices
+       \note shown with 120 vertex coordinates -- extensible object
+       \note  "extensible" -- duplicate last set of x,y,z coordinates (last 3 fields),
+       \note remembering to remove ; from "inner" fields.
+       \note for clarity in any error messages, renumber the fields as well.
+       \note (and changing z terminator to a comma "," for all but last one which needs a semi-colon ";")
+       \autocalculatable
+       \minimum 3
+       \default autocalculate
+       \note vertices are given in GlobalGeometryRules coordinates -- if relative, all surface coordinates
+       \note are "relative" to the Zone Origin. If world, then building and zone origins are used
+       \note for some internal calculations, but all coordinates are given in an "absolute" system.
+  N3,  \field Vertex 1 X-coordinate
+       \begin-extensible
+       \required-field
+       \units m
+       \type real
+  N4 , \field Vertex 1 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N5 , \field Vertex 1 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N6,  \field Vertex 2 X-coordinate
+       \required-field
+       \units m
+       \type real
+  N7,  \field Vertex 2 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N8,  \field Vertex 2 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N9,  \field Vertex 3 X-coordinate
+       \required-field
+       \units m
+       \type real
+  N10, \field Vertex 3 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N11, \field Vertex 3 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N12, \field Vertex 4 X-coordinate
+       \units m
+       \type real
+  N13, \field Vertex 4 Y-coordinate
+       \type real
+       \units m
+  N14, \field Vertex 4 Z-coordinate
+       \units m
+       \type real
+  N15, \field Vertex 5 X-coordinate
+       \units m
+       \type real
+  N16, \field Vertex 5 Y-coordinate
+       \type real
+       \units m
+  N17, \field Vertex 5 Z-coordinate
+       \units m
+       \type real
+  N18, \field Vertex 6 X-coordinate
+       \units m
+       \type real
+  N19, \field Vertex 6 Y-coordinate
+       \type real
+       \units m
+  N20, \field Vertex 6 Z-coordinate
+       \units m
+       \type real
+  N21, \field Vertex 7 X-coordinate
+       \units m
+       \type real
+  N22, \field Vertex 7 Y-coordinate
+       \type real
+       \units m
+  N23, \field Vertex 7 Z-coordinate
+       \units m
+       \type real
+  N24, \field Vertex 8 X-coordinate
+       \units m
+       \type real
+  N25, \field Vertex 8 Y-coordinate
+       \type real
+       \units m
+  N26, \field Vertex 8 Z-coordinate
+       \units m
+       \type real
+  N27, \field Vertex 9 X-coordinate
+       \units m
+       \type real
+  N28, \field Vertex 9 Y-coordinate
+       \type real
+       \units m
+  N29, \field Vertex 9 Z-coordinate
+       \units m
+       \type real
+  N30, \field Vertex 10 X-coordinate
+       \units m
+       \type real
+  N31, \field Vertex 10 Y-coordinate
+       \type real
+       \units m
+  N32, \field Vertex 10 Z-coordinate
+       \units m
+       \type real
+  N33, \field Vertex 11 X-coordinate
+       \units m
+       \type real
+  N34, \field Vertex 11 Y-coordinate
+       \type real
+       \units m
+  N35, \field Vertex 11 Z-coordinate
+       \units m
+       \type real
+  N36, \field Vertex 12 X-coordinate
+       \units m
+       \type real
+  N37, \field Vertex 12 Y-coordinate
+       \type real
+       \units m
+  N38, \field Vertex 12 Z-coordinate
+       \units m
+       \type real
+  N39, \field Vertex 13 X-coordinate
+       \units m
+       \type real
+  N40, \field Vertex 13 Y-coordinate
+       \type real
+       \units m
+  N41, \field Vertex 13 Z-coordinate
+       \units m
+       \type real
+  N42, \field Vertex 14 X-coordinate
+       \units m
+       \type real
+  N43, \field Vertex 14 Y-coordinate
+       \type real
+       \units m
+  N44, \field Vertex 14 Z-coordinate
+       \units m
+       \type real
+  N45, \field Vertex 15 X-coordinate
+       \units m
+       \type real
+  N46, \field Vertex 15 Y-coordinate
+       \type real
+       \units m
+  N47, \field Vertex 15 Z-coordinate
+       \units m
+       \type real
+  N48, \field Vertex 16 X-coordinate
+       \units m
+       \type real
+  N49, \field Vertex 16 Y-coordinate
+       \type real
+       \units m
+  N50, \field Vertex 16 Z-coordinate
+       \units m
+       \type real
+  N51, \field Vertex 17 X-coordinate
+       \units m
+       \type real
+  N52, \field Vertex 17 Y-coordinate
+       \type real
+       \units m
+  N53, \field Vertex 17 Z-coordinate
+       \units m
+       \type real
+  N54, \field Vertex 18 X-coordinate
+       \units m
+       \type real
+  N55, \field Vertex 18 Y-coordinate
+       \type real
+       \units m
+  N56, \field Vertex 18 Z-coordinate
+       \units m
+       \type real
+  N57, \field Vertex 19 X-coordinate
+       \units m
+       \type real
+  N58, \field Vertex 19 Y-coordinate
+       \type real
+       \units m
+  N59, \field Vertex 19 Z-coordinate
+       \units m
+       \type real
+  N60, \field Vertex 20 X-coordinate
+       \units m
+       \type real
+  N61, \field Vertex 20 Y-coordinate
+       \type real
+       \units m
+  N62, \field Vertex 20 Z-coordinate
+       \units m
+       \type real
+  N63, \field Vertex 21 X-coordinate
+       \units m
+       \type real
+  N64, \field Vertex 21 Y-coordinate
+       \type real
+       \units m
+  N65, \field Vertex 21 Z-coordinate
+       \units m
+       \type real
+  N66, \field Vertex 22 X-coordinate
+       \units m
+       \type real
+  N67, \field Vertex 22 Y-coordinate
+       \type real
+       \units m
+  N68, \field Vertex 22 Z-coordinate
+       \units m
+       \type real
+  N69, \field Vertex 23 X-coordinate
+       \units m
+       \type real
+  N70, \field Vertex 23 Y-coordinate
+       \type real
+       \units m
+  N71, \field Vertex 23 Z-coordinate
+       \units m
+       \type real
+  N72, \field Vertex 24 X-coordinate
+       \units m
+       \type real
+  N73, \field Vertex 24 Y-coordinate
+       \type real
+       \units m
+  N74, \field Vertex 24 Z-coordinate
+       \units m
+       \type real
+  N75, \field Vertex 25 X-coordinate
+       \units m
+       \type real
+  N76, \field Vertex 25 Y-coordinate
+       \type real
+       \units m
+  N77, \field Vertex 25 Z-coordinate
+       \units m
+       \type real
+  N78, \field Vertex 26 X-coordinate
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+       \units m
+       \type real
+  N360, \field Vertex 120 X-coordinate
+       \units m
+       \type real
+  N361, \field Vertex 120 Y-coordinate
+       \units m
+       \type real
+  N362; \field Vertex 120 Z-coordinate
+       \units m
+       \type real
+
+Wall:Detailed,
+  \memo Allows for detailed entry of wall heat transfer surfaces.
+  \extensible:3 -- duplicate last set of x,y,z coordinates (last 3 fields), remembering to remove ; from "inner" fields.
+  \format vertices
+  \min-fields 18
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SurfaceNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference OutFaceEnvNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+       \reference AllShadingAndHTSurfNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Zone Name
+       \required-field
+       \note Zone the surface is a part of
+       \type object-list
+       \object-list ZoneNames
+  A4 , \field Outside Boundary Condition
+       \required-field
+       \type choice
+       \key Adiabatic
+       \key Surface
+       \key Zone
+       \key Outdoors
+       \key Foundation
+       \key Ground
+       \key GroundFCfactorMethod
+       \key OtherSideCoefficients
+       \key OtherSideConditionsModel
+       \key GroundSlabPreprocessorAverage
+       \key GroundSlabPreprocessorCore
+       \key GroundSlabPreprocessorPerimeter
+       \key GroundBasementPreprocessorAverageWall
+       \key GroundBasementPreprocessorAverageFloor
+       \key GroundBasementPreprocessorUpperWall
+       \key GroundBasementPreprocessorLowerWall
+  A5,  \field Outside Boundary Condition Object
+       \type object-list
+       \object-list OutFaceEnvNames
+       \note Non-blank only if the field Outside Boundary Condition is Surface,
+       \note Zone, OtherSideCoefficients or OtherSideConditionsModel
+       \note If Surface, specify name of corresponding surface in adjacent zone or
+       \note specify current surface name for internal partition separating like zones
+       \note If Zone, specify the name of the corresponding zone and
+       \note the program will generate the corresponding interzone surface
+       \note If Foundation, specify the name of the corresponding Foundation object and
+       \note If OtherSideCoefficients, specify name of SurfaceProperty:OtherSideCoefficients
+       \note If OtherSideConditionsModel, specify name of SurfaceProperty:OtherSideConditionsModel
+  A6 , \field Sun Exposure
+       \type choice
+       \key SunExposed
+       \key NoSun
+       \default SunExposed
+  A7,  \field Wind Exposure
+       \type choice
+       \key WindExposed
+       \key NoWind
+       \default WindExposed
+  N1,  \field View Factor to Ground
+       \type real
+       \note From the exterior of the surface
+       \note Unused if one uses the "reflections" options in Solar Distribution in Building input
+       \note unless a DaylightingDevice:Shelf or DaylightingDevice:Tubular object has been specified.
+       \note autocalculate will automatically calculate this value from the tilt of the surface
+       \autocalculatable
+       \minimum 0.0
+       \maximum 1.0
+       \default autocalculate
+  N2 , \field Number of Vertices
+       \note shown with 10 vertex coordinates -- extensible object
+       \note  "extensible" -- duplicate last set of x,y,z coordinates, renumbering please
+       \note (and changing z terminator to a comma "," for all but last one which needs a semi-colon ";")
+       \autocalculatable
+       \minimum 3
+       \default autocalculate
+       \note vertices are given in GlobalGeometryRules coordinates -- if relative, all surface coordinates
+       \note are "relative" to the Zone Origin. If world, then building and zone origins are used
+       \note for some internal calculations, but all coordinates are given in an "absolute" system.
+  N3,  \field Vertex 1 X-coordinate
+       \begin-extensible
+       \required-field
+       \units m
+       \type real
+  N4 , \field Vertex 1 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N5 , \field Vertex 1 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N6,  \field Vertex 2 X-coordinate
+       \required-field
+       \units m
+       \type real
+  N7,  \field Vertex 2 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N8,  \field Vertex 2 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N9,  \field Vertex 3 X-coordinate
+       \required-field
+       \units m
+       \type real
+  N10, \field Vertex 3 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N11, \field Vertex 3 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N12, \field Vertex 4 X-coordinate
+       \units m
+       \type real
+  N13, \field Vertex 4 Y-coordinate
+       \type real
+       \units m
+  N14, \field Vertex 4 Z-coordinate
+       \units m
+       \type real
+  N15, \field Vertex 5 X-coordinate
+       \units m
+       \type real
+  N16, \field Vertex 5 Y-coordinate
+       \type real
+       \units m
+  N17, \field Vertex 5 Z-coordinate
+       \units m
+       \type real
+  N18, \field Vertex 6 X-coordinate
+       \units m
+       \type real
+  N19, \field Vertex 6 Y-coordinate
+       \type real
+       \units m
+  N20, \field Vertex 6 Z-coordinate
+       \units m
+       \type real
+  N21, \field Vertex 7 X-coordinate
+       \units m
+       \type real
+  N22, \field Vertex 7 Y-coordinate
+       \type real
+       \units m
+  N23, \field Vertex 7 Z-coordinate
+       \units m
+       \type real
+  N24, \field Vertex 8 X-coordinate
+       \units m
+       \type real
+  N25, \field Vertex 8 Y-coordinate
+       \type real
+       \units m
+  N26, \field Vertex 8 Z-coordinate
+       \units m
+       \type real
+  N27, \field Vertex 9 X-coordinate
+       \units m
+       \type real
+  N28, \field Vertex 9 Y-coordinate
+       \type real
+       \units m
+  N29, \field Vertex 9 Z-coordinate
+       \units m
+       \type real
+  N30, \field Vertex 10 X-coordinate
+       \units m
+       \type real
+  N31, \field Vertex 10 Y-coordinate
+       \type real
+       \units m
+  N32; \field Vertex 10 Z-coordinate
+       \units m
+       \type real
+
+RoofCeiling:Detailed,
+  \memo Allows for detailed entry of roof/ceiling heat transfer surfaces.
+  \extensible:3 -- duplicate last set of x,y,z coordinates (last 3 fields), remembering to remove ; from "inner" fields.
+  \format vertices
+  \min-fields 18
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SurfaceNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference OutFaceEnvNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+       \reference AllShadingAndHTSurfNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Zone Name
+       \required-field
+       \note Zone the surface is a part of
+       \type object-list
+       \object-list ZoneNames
+  A4 , \field Outside Boundary Condition
+       \required-field
+       \type choice
+       \key Adiabatic
+       \key Surface
+       \key Zone
+       \key Outdoors
+       \key Ground
+       \key OtherSideCoefficients
+       \key OtherSideConditionsModel
+       \key GroundSlabPreprocessorAverage
+       \key GroundSlabPreprocessorCore
+       \key GroundSlabPreprocessorPerimeter
+       \key GroundBasementPreprocessorAverageWall
+       \key GroundBasementPreprocessorAverageFloor
+       \key GroundBasementPreprocessorUpperWall
+       \key GroundBasementPreprocessorLowerWall
+ A5,  \field Outside Boundary Condition Object
+       \type object-list
+       \object-list OutFaceEnvNames
+       \note Non-blank only if the field Outside Boundary Condition is Surface,
+       \note Zone, OtherSideCoefficients or OtherSideConditionsModel
+       \note If Surface, specify name of corresponding surface in adjacent zone or
+       \note specify current surface name for internal partition separating like zones
+       \note If Zone, specify the name of the corresponding zone and
+       \note the program will generate the corresponding interzone surface
+       \note If OtherSideCoefficients, specify name of SurfaceProperty:OtherSideCoefficients
+       \note If OtherSideConditionsModel, specify name of SurfaceProperty:OtherSideConditionsModel
+  A6 , \field Sun Exposure
+       \type choice
+       \key SunExposed
+       \key NoSun
+       \default SunExposed
+  A7,  \field Wind Exposure
+       \type choice
+       \key WindExposed
+       \key NoWind
+       \default WindExposed
+  N1,  \field View Factor to Ground
+       \type real
+       \note From the exterior of the surface
+       \note Unused if one uses the "reflections" options in Solar Distribution in Building input
+       \note unless a DaylightingDevice:Shelf or DaylightingDevice:Tubular object has been specified.
+       \note autocalculate will automatically calculate this value from the tilt of the surface
+       \autocalculatable
+       \minimum 0.0
+       \maximum 1.0
+       \default autocalculate
+  N2 , \field Number of Vertices
+       \note shown with 10 vertex coordinates -- extensible object
+       \note  "extensible" -- duplicate last set of x,y,z coordinates, renumbering please
+       \note (and changing z terminator to a comma "," for all but last one which needs a semi-colon ";")
+       \autocalculatable
+       \minimum 3
+       \default autocalculate
+       \note vertices are given in GlobalGeometryRules coordinates -- if relative, all surface coordinates
+       \note are "relative" to the Zone Origin. If world, then building and zone origins are used
+       \note for some internal calculations, but all coordinates are given in an "absolute" system.
+  N3,  \field Vertex 1 X-coordinate
+       \begin-extensible
+       \required-field
+       \units m
+       \type real
+  N4 , \field Vertex 1 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N5 , \field Vertex 1 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N6,  \field Vertex 2 X-coordinate
+       \required-field
+       \units m
+       \type real
+  N7,  \field Vertex 2 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N8,  \field Vertex 2 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N9,  \field Vertex 3 X-coordinate
+       \required-field
+       \units m
+       \type real
+  N10, \field Vertex 3 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N11, \field Vertex 3 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N12, \field Vertex 4 X-coordinate
+       \units m
+       \type real
+  N13, \field Vertex 4 Y-coordinate
+       \type real
+       \units m
+  N14, \field Vertex 4 Z-coordinate
+       \units m
+       \type real
+  N15, \field Vertex 5 X-coordinate
+       \units m
+       \type real
+  N16, \field Vertex 5 Y-coordinate
+       \type real
+       \units m
+  N17, \field Vertex 5 Z-coordinate
+       \units m
+       \type real
+  N18, \field Vertex 6 X-coordinate
+       \units m
+       \type real
+  N19, \field Vertex 6 Y-coordinate
+       \type real
+       \units m
+  N20, \field Vertex 6 Z-coordinate
+       \units m
+       \type real
+  N21, \field Vertex 7 X-coordinate
+       \units m
+       \type real
+  N22, \field Vertex 7 Y-coordinate
+       \type real
+       \units m
+  N23, \field Vertex 7 Z-coordinate
+       \units m
+       \type real
+  N24, \field Vertex 8 X-coordinate
+       \units m
+       \type real
+  N25, \field Vertex 8 Y-coordinate
+       \type real
+       \units m
+  N26, \field Vertex 8 Z-coordinate
+       \units m
+       \type real
+  N27, \field Vertex 9 X-coordinate
+       \units m
+       \type real
+  N28, \field Vertex 9 Y-coordinate
+       \type real
+       \units m
+  N29, \field Vertex 9 Z-coordinate
+       \units m
+       \type real
+  N30, \field Vertex 10 X-coordinate
+       \units m
+       \type real
+  N31, \field Vertex 10 Y-coordinate
+       \type real
+       \units m
+  N32; \field Vertex 10 Z-coordinate
+       \units m
+       \type real
+
+Floor:Detailed,
+  \memo Allows for detailed entry of floor heat transfer surfaces.
+  \extensible:3 -- duplicate last set of x,y,z coordinates (last 3 fields), remembering to remove ; from "inner" fields.
+  \format vertices
+  \min-fields 18
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SurfaceNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference OutFaceEnvNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+       \reference AllShadingAndHTSurfNames
+       \reference FloorSurfaceNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Zone Name
+       \required-field
+       \note Zone the surface is a part of
+       \type object-list
+       \object-list ZoneNames
+  A4 , \field Outside Boundary Condition
+       \required-field
+       \type choice
+       \key Adiabatic
+       \key Surface
+       \key Zone
+       \key Outdoors
+       \key Foundation
+       \key Ground
+       \key GroundFCfactorMethod
+       \key OtherSideCoefficients
+       \key OtherSideConditionsModel
+       \key GroundSlabPreprocessorAverage
+       \key GroundSlabPreprocessorCore
+       \key GroundSlabPreprocessorPerimeter
+       \key GroundBasementPreprocessorAverageWall
+       \key GroundBasementPreprocessorAverageFloor
+       \key GroundBasementPreprocessorUpperWall
+       \key GroundBasementPreprocessorLowerWall
+ A5,  \field Outside Boundary Condition Object
+       \type object-list
+       \object-list OutFaceEnvNames
+       \note Non-blank only if the field Outside Boundary Condition is Surface,
+       \note Zone, OtherSideCoefficients or OtherSideConditionsModel
+       \note If Surface, specify name of corresponding surface in adjacent zone or
+       \note specify current surface name for internal partition separating like zones
+       \note If Zone, specify the name of the corresponding zone and
+       \note the program will generate the corresponding interzone surface
+       \note If Foundation, specify the name of the corresponding Foundation object and
+       \note If OtherSideCoefficients, specify name of SurfaceProperty:OtherSideCoefficients
+       \note If OtherSideConditionsModel, specify name of SurfaceProperty:OtherSideConditionsModel
+  A6 , \field Sun Exposure
+       \type choice
+       \key SunExposed
+       \key NoSun
+       \default SunExposed
+  A7,  \field Wind Exposure
+       \type choice
+       \key WindExposed
+       \key NoWind
+       \default WindExposed
+  N1,  \field View Factor to Ground
+       \type real
+       \note From the exterior of the surface
+       \note Unused if one uses the "reflections" options in Solar Distribution in Building input
+       \note unless a DaylightingDevice:Shelf or DaylightingDevice:Tubular object has been specified.
+       \note autocalculate will automatically calculate this value from the tilt of the surface
+       \autocalculatable
+       \minimum 0.0
+       \maximum 1.0
+       \default autocalculate
+  N2 , \field Number of Vertices
+       \note shown with 10 vertex coordinates -- extensible object
+       \note  "extensible" -- duplicate last set of x,y,z coordinates, renumbering please
+       \note (and changing z terminator to a comma "," for all but last one which needs a semi-colon ";")
+       \autocalculatable
+       \minimum 3
+       \default autocalculate
+       \note vertices are given in GlobalGeometryRules coordinates -- if relative, all surface coordinates
+       \note are "relative" to the Zone Origin. If world, then building and zone origins are used
+       \note for some internal calculations, but all coordinates are given in an "absolute" system.
+  N3,  \field Vertex 1 X-coordinate
+       \begin-extensible
+       \required-field
+       \units m
+       \type real
+  N4 , \field Vertex 1 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N5 , \field Vertex 1 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N6,  \field Vertex 2 X-coordinate
+       \required-field
+       \units m
+       \type real
+  N7,  \field Vertex 2 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N8,  \field Vertex 2 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N9,  \field Vertex 3 X-coordinate
+       \required-field
+       \units m
+       \type real
+  N10, \field Vertex 3 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N11, \field Vertex 3 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N12, \field Vertex 4 X-coordinate
+       \units m
+       \type real
+  N13, \field Vertex 4 Y-coordinate
+       \type real
+       \units m
+  N14, \field Vertex 4 Z-coordinate
+       \units m
+       \type real
+  N15, \field Vertex 5 X-coordinate
+       \units m
+       \type real
+  N16, \field Vertex 5 Y-coordinate
+       \type real
+       \units m
+  N17, \field Vertex 5 Z-coordinate
+       \units m
+       \type real
+  N18, \field Vertex 6 X-coordinate
+       \units m
+       \type real
+  N19, \field Vertex 6 Y-coordinate
+       \type real
+       \units m
+  N20, \field Vertex 6 Z-coordinate
+       \units m
+       \type real
+  N21, \field Vertex 7 X-coordinate
+       \units m
+       \type real
+  N22, \field Vertex 7 Y-coordinate
+       \type real
+       \units m
+  N23, \field Vertex 7 Z-coordinate
+       \units m
+       \type real
+  N24, \field Vertex 8 X-coordinate
+       \units m
+       \type real
+  N25, \field Vertex 8 Y-coordinate
+       \type real
+       \units m
+  N26, \field Vertex 8 Z-coordinate
+       \units m
+       \type real
+  N27, \field Vertex 9 X-coordinate
+       \units m
+       \type real
+  N28, \field Vertex 9 Y-coordinate
+       \type real
+       \units m
+  N29, \field Vertex 9 Z-coordinate
+       \units m
+       \type real
+  N30, \field Vertex 10 X-coordinate
+       \units m
+       \type real
+  N31, \field Vertex 10 Y-coordinate
+       \type real
+       \units m
+  N32; \field Vertex 10 Z-coordinate
+       \units m
+       \type real
+
+Wall:Exterior,
+       \memo Allows for simplified entry of exterior walls.
+       \memo View Factor to Ground is automatically calculated.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SurfaceNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+       \reference AllShadingAndHTSurfNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Zone Name
+       \required-field
+       \note Zone the surface is a part of
+       \type object-list
+       \object-list ZoneNames
+  N1,  \field Azimuth Angle
+       \note Facing direction of outside of wall (S=180,N=0,E=90,W=270)
+       \minimum 0
+       \maximum 360
+       \units deg
+  N2,  \field Tilt Angle
+       \note Walls are usually tilted 90 degrees
+       \default 90
+       \minimum 0
+       \maximum 180
+       \units deg
+  N3,  \field Starting X Coordinate
+       \note Starting (x,y,z) coordinate is the Lower Left Corner of the Wall
+       \units m
+  N4,  \field Starting Y Coordinate
+       \units m
+  N5,  \field Starting Z Coordinate
+       \units m
+  N6,  \field Length
+       \units m
+  N7;  \field Height
+       \units m
+
+Wall:Adiabatic,
+       \memo Allows for simplified entry of interior walls.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SurfaceNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+       \reference AllShadingAndHTSurfNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Zone Name
+       \required-field
+       \note Zone the surface is a part of
+       \type object-list
+       \object-list ZoneNames
+  N1,  \field Azimuth Angle
+       \note Facing direction of outside of wall (S=180,N=0,E=90,W=270)
+       \minimum 0
+       \maximum 360
+       \units deg
+  N2,  \field Tilt Angle
+       \note Walls are usually tilted 90 degrees
+       \default 90
+       \minimum 0
+       \maximum 180
+       \units deg
+  N3,  \field Starting X Coordinate
+       \note Starting (x,y,z) coordinate is the Lower Left Corner of the Wall
+       \units m
+  N4,  \field Starting Y Coordinate
+       \units m
+  N5,  \field Starting Z Coordinate
+       \units m
+  N6,  \field Length
+       \units m
+  N7;  \field Height
+       \units m
+
+Wall:Underground,
+       \memo Allows for simplified entry of underground walls.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SurfaceNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+       \reference AllShadingAndHTSurfNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file.
+       \note If the construction is type "Construction:CfactorUndergroundWall",
+       \note then the GroundFCfactorMethod will be used.
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Zone Name
+       \required-field
+       \note Zone the surface is a part of
+       \type object-list
+       \object-list ZoneNames
+  N1,  \field Azimuth Angle
+       \note Facing direction of outside of wall (S=180,N=0,E=90,W=270)
+       \minimum 0
+       \maximum 360
+       \units deg
+  N2,  \field Tilt Angle
+       \note Walls are usually tilted 90 degrees
+       \default 90
+       \minimum 0
+       \maximum 180
+       \units deg
+  N3,  \field Starting X Coordinate
+       \note Starting (x,y,z) coordinate is the Lower Left Corner of the Wall
+       \units m
+  N4,  \field Starting Y Coordinate
+       \units m
+  N5,  \field Starting Z Coordinate
+       \units m
+  N6,  \field Length
+       \units m
+  N7;  \field Height
+       \units m
+
+Wall:Interzone,
+       \memo Allows for simplified entry of interzone walls (walls between zones).
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SurfaceNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference OutFaceEnvNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+       \reference AllShadingAndHTSurfNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Zone Name
+       \required-field
+       \note Zone for the inside of the surface
+       \type object-list
+       \object-list ZoneNames
+  A4 , \field Outside Boundary Condition Object
+       \required-field
+       \note Specify a surface name in an adjacent zone for known interior walls.
+       \note Specify a zone name of an adjacent zone to automatically generate
+       \note the interior wall in the adjacent zone.
+       \type object-list
+       \object-list OutFaceEnvNames
+  N1,  \field Azimuth Angle
+       \note Facing direction of outside of wall (S=180,N=0,E=90,W=270)
+       \minimum 0
+       \maximum 360
+       \units deg
+  N2,  \field Tilt Angle
+       \note Walls are usually tilted 90 degrees
+       \default 90
+       \minimum 0
+       \maximum 180
+       \units deg
+  N3,  \field Starting X Coordinate
+       \note Starting (x,y,z) coordinate is the Lower Left Corner of the Wall
+       \units m
+  N4,  \field Starting Y Coordinate
+       \units m
+  N5,  \field Starting Z Coordinate
+       \units m
+  N6,  \field Length
+       \units m
+  N7;  \field Height
+       \units m
+
+Roof,
+       \memo Allows for simplified entry of roofs (exterior).
+       \memo View Factor to Ground is automatically calculated.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SurfaceNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+       \reference AllShadingAndHTSurfNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Zone Name
+       \required-field
+       \note Zone the surface is a part of
+       \type object-list
+       \object-list ZoneNames
+  N1,  \field Azimuth Angle
+       \note Facing direction of outside of Roof
+       \minimum 0
+       \maximum 360
+       \units deg
+  N2,  \field Tilt Angle
+       \note Flat Roofs are tilted 0 degrees
+       \minimum 0
+       \maximum 180
+       \default 0
+       \units deg
+  N3,  \field Starting X Coordinate
+       \note If not Flat, Starting coordinate is the Lower Left Corner of the Roof
+       \units m
+  N4,  \field Starting Y Coordinate
+       \units m
+  N5,  \field Starting Z Coordinate
+       \units m
+  N6,  \field Length
+       \note Along X Axis
+       \units m
+  N7;  \field Width
+       \note Along Y Axis
+       \units m
+
+Ceiling:Adiabatic,
+       \memo Allows for simplified entry of interior ceilings.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SurfaceNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+       \reference AllShadingAndHTSurfNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Zone Name
+       \required-field
+       \note Zone the surface is a part of
+       \type object-list
+       \object-list ZoneNames
+  N1,  \field Azimuth Angle
+       \note Facing direction of outside of Ceiling
+       \minimum 0
+       \maximum 360
+       \units deg
+  N2,  \field Tilt Angle
+       \note Ceilings are usually tilted 0 degrees
+       \minimum 0
+       \maximum 180
+       \default 0
+       \units deg
+  N3,  \field Starting X Coordinate
+       \note If not Flat, Starting coordinate is the Lower Left Corner of the Ceiling
+       \units m
+  N4,  \field Starting Y Coordinate
+       \units m
+  N5,  \field Starting Z Coordinate
+       \units m
+  N6,  \field Length
+       \note Along X Axis
+       \units m
+  N7;  \field Width
+       \note Along Y Axis
+       \units m
+
+Ceiling:Interzone,
+       \memo Allows for simplified entry of ceilings using adjacent zone
+       \memo (interzone) heat transfer - adjacent surface should be a floor
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SurfaceNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference OutFaceEnvNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+       \reference AllShadingAndHTSurfNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Zone Name
+       \required-field
+       \note Zone for the inside of the surface
+       \type object-list
+       \object-list ZoneNames
+  A4 , \field Outside Boundary Condition Object
+       \required-field
+       \note Specify a surface name in an adjacent zone for known interior floors
+       \note Specify a zone name of an adjacent zone to automatically generate
+       \note the interior floor in the adjacent zone.
+       \type object-list
+       \object-list OutFaceEnvNames
+  N1,  \field Azimuth Angle
+       \note Facing direction of outside of wall (S=180,N=0,E=90,W=270)
+       \minimum 0
+       \maximum 360
+       \units deg
+  N2,  \field Tilt Angle
+       \note Ceilings are usually tilted 0 degrees
+       \minimum 0
+       \maximum 180
+       \default 0
+       \units deg
+  N3,  \field Starting X Coordinate
+       \note If not Flat, should be Lower Left Corner (from outside)
+       \units m
+  N4,  \field Starting Y Coordinate
+       \units m
+  N5,  \field Starting Z Coordinate
+       \units m
+  N6,  \field Length
+       \note Along X Axis
+       \units m
+  N7;  \field Width
+       \note Along Y Axis
+       \units m
+
+Floor:GroundContact,
+       \memo Allows for simplified entry of exterior floors with ground contact.
+       \memo View Factors to Ground is automatically calculated.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SurfaceNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+       \reference AllShadingAndHTSurfNames
+       \reference FloorSurfaceNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \note If the construction is type "Construction:FfactorGroundFloor",
+       \note then the GroundFCfactorMethod will be used.
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Zone Name
+       \required-field
+       \note Zone the surface is a part of
+       \type object-list
+       \object-list ZoneNames
+  N1,  \field Azimuth Angle
+       \units deg
+       \minimum 0
+       \maximum 360
+  N2,  \field Tilt Angle
+       \note Floors are usually tilted 180 degrees
+       \units deg
+       \minimum 0
+       \maximum 180
+       \default 180
+  N3,  \field Starting X Coordinate
+       \note if not flat, should be lower left corner (from outside)
+       \units m
+  N4,  \field Starting Y Coordinate
+       \units m
+  N5,  \field Starting Z Coordinate
+       \units m
+  N6,  \field Length
+       \note Along X Axis
+       \units m
+  N7;  \field Width
+       \note Along Y Axis
+       \units m
+
+Floor:Adiabatic,
+       \memo Allows for simplified entry of exterior floors
+       \memo ignoring ground contact or interior floors.
+       \memo View Factor to Ground is automatically calculated.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SurfaceNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+       \reference AllShadingAndHTSurfNames
+       \reference FloorSurfaceNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Zone Name
+       \required-field
+       \note Zone the surface is a part of
+       \type object-list
+       \object-list ZoneNames
+  N1,  \field Azimuth Angle
+       \units deg
+       \minimum 0
+       \maximum 360
+  N2,  \field Tilt Angle
+       \note Floors are usually tilted 180 degrees
+       \units deg
+       \minimum 0
+       \maximum 180
+       \default 180
+  N3,  \field Starting X Coordinate
+       \note if not flat, should be lower left corner (from outside)
+       \units m
+  N4,  \field Starting Y Coordinate
+       \units m
+  N5,  \field Starting Z Coordinate
+       \units m
+  N6,  \field Length
+       \note Along X Axis
+       \units m
+  N7;  \field Width
+       \note Along Y Axis
+       \units m
+
+Floor:Interzone,
+       \memo Allows for simplified entry of floors using adjacent zone
+       \memo (interzone) heat transfer - adjacent surface should be a ceiling.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SurfaceNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference OutFaceEnvNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+       \reference AllShadingAndHTSurfNames
+       \reference FloorSurfaceNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Zone Name
+       \required-field
+       \note Zone for the inside of the surface
+       \type object-list
+       \object-list ZoneNames
+  A4 , \field Outside Boundary Condition Object
+       \required-field
+       \note Specify a surface name in an adjacent zone for known interior ceilings.
+       \note Specify a zone name of an adjacent zone to automatically generate
+       \note the interior ceiling in the adjacent zone.
+       \type object-list
+       \object-list OutFaceEnvNames
+  N1,  \field Azimuth Angle
+       \minimum 0
+       \maximum 360
+       \units deg
+  N2,  \field Tilt Angle
+       \note Floors are usually tilted 180 degrees
+       \minimum 0
+       \maximum 180
+       \default 180
+       \units deg
+  N3,  \field Starting X Coordinate
+       \note If not Flat, should be Lower Left Corner (from outside)
+       \units m
+  N4,  \field Starting Y Coordinate
+       \units m
+  N5,  \field Starting Z Coordinate
+       \units m
+  N6,  \field Length
+       \note Along X Axis
+       \units m
+  N7;  \field Width
+       \note Along Y Axis
+       \units m
+
+FenestrationSurface:Detailed,
+       \memo Allows for detailed entry of subsurfaces
+       \memo (windows, doors, glass doors, tubular daylighting devices).
+       \min-fields 18
+       \format vertices
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SubSurfNames
+       \reference GlazedExtSubSurfNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference OutFaceEnvNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+       \reference AllShadingAndHTSurfNames
+  A2 , \field Surface Type
+       \required-field
+       \type choice
+       \key Window
+       \key Door
+       \key GlassDoor
+       \key TubularDaylightDome
+       \key TubularDaylightDiffuser
+  A3 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+       \object-list ComplexFenestrationStates
+  A4 , \field Building Surface Name
+       \required-field
+       \type object-list
+       \object-list SurfaceNames
+  A5,  \field Outside Boundary Condition Object
+       \type object-list
+       \object-list OutFaceEnvNames
+       \note Non-blank only if base surface field Outside Boundary Condition is
+       \note Surface or OtherSideCoefficients
+       \note If Base Surface's Surface, specify name of corresponding subsurface in adjacent zone or
+       \note specify current subsurface name for internal partition separating like zones
+       \note If OtherSideCoefficients, specify name of SurfaceProperty:OtherSideCoefficients
+       \note  or leave blank to inherit Base Surface's OtherSide Coefficients
+  N1, \field View Factor to Ground
+       \type real
+       \note From the exterior of the surface
+       \note Unused if one uses the "reflections" options in Solar Distribution in Building input
+       \note unless a DaylightingDevice:Shelf or DaylightingDevice:Tubular object has been specified.
+       \note autocalculate will automatically calculate this value from the tilt of the surface
+       \autocalculatable
+       \minimum 0.0
+       \maximum 1.0
+       \default autocalculate
+  A6,  \field Frame and Divider Name
+       \note Enter the name of a WindowProperty:FrameAndDivider object
+       \type object-list
+       \object-list WindowFrameAndDividerNames
+       \note Used only for exterior windows (rectangular) and glass doors.
+       \note Unused for triangular windows.
+       \note If not specified (blank), window or glass door has no frame or divider
+       \note and no beam solar reflection from reveal surfaces.
+  N2,  \field Multiplier
+       \note Used only for Surface Type = WINDOW, GLASSDOOR or DOOR
+       \note Non-integer values will be truncated to integer
+       \default 1.0
+       \minimum 1.0
+  N3,  \field Number of Vertices
+       \minimum 3
+       \maximum 4
+       \autocalculatable
+       \default autocalculate
+       \note vertices are given in GlobalGeometryRules coordinates -- if relative, all surface coordinates
+       \note are "relative" to the Zone Origin. If world, then building and zone origins are used
+       \note for some internal calculations, but all coordinates are given in an "absolute" system.
+  N4,  \field Vertex 1 X-coordinate
+       \required-field
+       \units m
+       \type real
+  N5 , \field Vertex 1 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N6 , \field Vertex 1 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N7,  \field Vertex 2 X-coordinate
+       \required-field
+       \units m
+       \type real
+  N8,  \field Vertex 2 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N9,  \field Vertex 2 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N10,  \field Vertex 3 X-coordinate
+       \required-field
+       \units m
+       \type real
+  N11, \field Vertex 3 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N12, \field Vertex 3 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N13, \field Vertex 4 X-coordinate
+       \units m
+       \type real
+       \note Not used for triangles
+  N14, \field Vertex 4 Y-coordinate
+       \type real
+       \units m
+       \note Not used for triangles
+  N15; \field Vertex 4 Z-coordinate
+       \units m
+       \type real
+       \note Not used for triangles
+
+Window,
+       \memo Allows for simplified entry of Windows.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SubSurfNames
+       \reference GlazedExtSubSurfNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference OutFaceEnvNames
+       \reference AllHeatTranAngFacNames
+       \reference AllShadingAndHTSurfNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Building Surface Name
+       \note Name of Surface (Wall, usually) the Window is on (i.e., Base Surface)
+       \note Window assumes the azimuth and tilt angles of the surface it is on.
+       \required-field
+       \type object-list
+       \object-list SurfaceNames
+  A4, \field Frame and Divider Name
+       \note Enter the name of a WindowProperty:FrameAndDivider object
+       \type object-list
+       \object-list WindowFrameAndDividerNames
+       \note Used only for exterior windows (rectangular) and glass doors.
+       \note Unused for triangular windows.
+       \note If not specified (blank), window or glass door has no frame or divider
+       \note and no beam solar reflection from reveal surfaces.
+  N1 , \field Multiplier
+       \note Used only for Surface Type = WINDOW, GLASSDOOR or DOOR
+       \note Non-integer values will be truncated to integer
+       \default 1.0
+       \minimum 1.0
+  N2,  \field Starting X Coordinate
+       \note Window starting coordinate is specified relative to the Base Surface origin.
+       \units m
+  N3,  \field Starting Z Coordinate
+       \note How far up the wall the Window starts. (in 2-d, this would be a Y Coordinate)
+       \units m
+  N4,  \field Length
+       \units m
+  N5;  \field Height
+       \units m
+
+Door,
+       \memo Allows for simplified entry of opaque Doors.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SubSurfNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference OutFaceEnvNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+       \reference AllShadingAndHTSurfNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Building Surface Name
+       \note Name of Surface (Wall, usually) the Door is on (i.e., Base Surface)
+       \note Door assumes the azimuth and tilt angles of the surface it is on.
+       \required-field
+       \type object-list
+       \object-list SurfaceNames
+  N1 , \field Multiplier
+       \note Used only for Surface Type = WINDOW, GLASSDOOR or DOOR
+       \note Non-integer values will be truncated to integer
+       \default 1.0
+       \minimum 1.0
+  N2,  \field Starting X Coordinate
+       \note Door starting coordinate is specified relative to the Base Surface origin.
+       \units m
+  N3,  \field Starting Z Coordinate
+       \note How far up the wall the Door starts. (in 2-d, this would be a Y Coordinate)
+       \units m
+  N4,  \field Length
+       \units m
+  N5;  \field Height
+       \units m
+
+GlazedDoor,
+       \memo Allows for simplified entry of glass Doors.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SubSurfNames
+       \reference GlazedExtSubSurfNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference OutFaceEnvNames
+       \reference AllHeatTranAngFacNames
+       \reference AllShadingAndHTSurfNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Building Surface Name
+       \note Name of Surface (Wall, usually) the Door is on (i.e., Base Surface)
+       \note Door assumes the azimuth and tilt angles of the surface it is on.
+       \required-field
+       \type object-list
+       \object-list SurfaceNames
+  A4, \field Frame and Divider Name
+       \note Enter the name of a WindowProperty:FrameAndDivider object
+       \type object-list
+       \object-list WindowFrameAndDividerNames
+       \note Used only for exterior windows (rectangular) and glass doors.
+       \note Unused for triangular windows.
+       \note If not specified (blank), window or glass door has no frame or divider
+       \note and no beam solar reflection from reveal surfaces.
+  N1 , \field Multiplier
+       \note Used only for Surface Type = WINDOW, GLASSDOOR or DOOR
+       \note Non-integer values will be truncated to integer
+       \default 1.0
+       \minimum 1.0
+  N2,  \field Starting X Coordinate
+       \note Door starting coordinate is specified relative to the Base Surface origin.
+       \units m
+  N3,  \field Starting Z Coordinate
+       \note How far up the wall the Door starts. (in 2-d, this would be a Y Coordinate)
+       \units m
+  N4,  \field Length
+       \units m
+  N5;  \field Height
+       \units m
+
+Window:Interzone,
+       \memo Allows for simplified entry of interzone windows (adjacent to
+       \memo other zones).
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SubSurfNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference OutFaceEnvNames
+       \reference AllHeatTranAngFacNames
+       \reference AllShadingAndHTSurfNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Building Surface Name
+       \note Name of Surface (Wall, usually) the Window is on (i.e., Base Surface)
+       \note Window assumes the azimuth and tilt angles of the surface it is on.
+       \required-field
+       \type object-list
+       \object-list SurfaceNames
+  A4,  \field Outside Boundary Condition Object
+       \type object-list
+       \object-list OutFaceEnvNames
+       \note Specify a surface name in an adjacent zone for known interior windows.
+       \note Specify a zone name of an adjacent zone to automatically generate
+       \note the interior window in the adjacent zone.
+       \note a blank field will set up a Window in an adjacent zone
+       \note (same zone as adjacent to base surface)
+  N1 , \field Multiplier
+       \note Used only for Surface Type = WINDOW, GLASSDOOR or DOOR
+       \note Non-integer values will be truncated to integer
+       \default 1.0
+       \minimum 1.0
+  N2,  \field Starting X Coordinate
+       \note Window starting coordinate is specified relative to the Base Surface origin.
+       \units m
+  N3,  \field Starting Z Coordinate
+       \note How far up the wall the Window starts. (in 2-d, this would be a Y Coordinate)
+       \units m
+  N4,  \field Length
+       \units m
+  N5;  \field Height
+       \units m
+
+Door:Interzone,
+       \memo Allows for simplified entry of interzone (opaque interior) doors (adjacent to
+       \memo other zones).
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SubSurfNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference OutFaceEnvNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+       \reference AllShadingAndHTSurfNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Building Surface Name
+       \note Name of Surface (Wall, usually) the Door is on (i.e., Base Surface)
+       \note Door assumes the azimuth and tilt angles of the surface it is on.
+       \required-field
+       \type object-list
+       \object-list SurfaceNames
+  A4,  \field Outside Boundary Condition Object
+       \type object-list
+       \object-list OutFaceEnvNames
+       \note Specify a surface name in an adjacent zone for known interior doors.
+       \note Specify a zone name of an adjacent zone to automatically generate
+       \note the interior door in the adjacent zone.
+       \note a blank field will set up a Window in an adjacent zone
+       \note (same zone as adjacent to base surface)
+  N1 , \field Multiplier
+       \note Used only for Surface Type = WINDOW, GLASSDOOR or DOOR
+       \note Non-integer values will be truncated to integer
+       \default 1.0
+       \minimum 1.0
+  N2,  \field Starting X Coordinate
+       \note Door starting coordinate is specified relative to the Base Surface origin.
+       \units m
+  N3,  \field Starting Z Coordinate
+       \note How far up the wall the Door starts. (in 2-d, this would be a Y Coordinate)
+       \units m
+  N4,  \field Length
+       \units m
+  N5;  \field Height
+       \units m
+
+GlazedDoor:Interzone,
+       \memo Allows for simplified entry of interzone (glass interior) doors (adjacent to
+       \memo other zones).
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SubSurfNames
+       \reference SurfAndSubSurfNames
+       \reference AllHeatTranSurfNames
+       \reference OutFaceEnvNames
+       \reference AllHeatTranAngFacNames
+       \reference AllShadingAndHTSurfNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Building Surface Name
+       \note Name of Surface (Wall, usually) the Door is on (i.e., Base Surface)
+       \note Door assumes the azimuth and tilt angles of the surface it is on.
+       \required-field
+       \type object-list
+       \object-list SurfaceNames
+  A4,  \field Outside Boundary Condition Object
+       \type object-list
+       \object-list OutFaceEnvNames
+       \note Specify a surface name in an adjacent zone for known interior doors.
+       \note Specify a zone name of an adjacent zone to automatically generate
+       \note the interior door in the adjacent zone.
+       \note a blank field will set up a Window in an adjacent zone
+       \note (same zone as adjacent to base surface)
+  N1 , \field Multiplier
+       \note Used only for Surface Type = WINDOW, GLASSDOOR or DOOR
+       \note Non-integer values will be truncated to integer
+       \default 1.0
+       \minimum 1.0
+  N2,  \field Starting X Coordinate
+       \note Door starting coordinate is specified relative to the Base Surface origin.
+       \units m
+  N3,  \field Starting Z Coordinate
+       \note How far up the wall the Door starts. (in 2-d, this would be a Y Coordinate)
+       \units m
+  N4,  \field Length
+       \units m
+  N5;  \field Height
+       \units m
+
+WindowShadingControl,
+       \memo Specifies the type, location, and controls for window shades, window blinds, and
+       \memo switchable glazing. Referencing the surface objects for exterior windows and glass
+       \memo doors (ref: FenestrationSurface:Detailed, Window, and GlazedDoor).
+       \extensible:1
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference WindowShadeControlNames
+       \note Referenced by surfaces that are exterior windows
+       \note Not used by interzone windows
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  N1 , \field Shading Control Sequence Number
+       \type integer
+       \minimum 1
+       \default 1
+       \note If multiple WindowShadingControl objects are used than the order that they deploy the window shades
+       \note can be set with this field. The first WindowShadingControl should be 1 and subsequent
+       \note WindowShadingControl should 2 or 3 or higher. This is usually used when the Multiple Surface Control Type
+       \note field is set to Group and groups of windows are being controlled in a certain order.
+  A3 , \field Shading Type
+       \required-field
+       \type choice
+       \key InteriorShade
+       \key ExteriorShade
+       \key ExteriorScreen
+       \key InteriorBlind
+       \key ExteriorBlind
+       \key BetweenGlassShade
+       \key BetweenGlassBlind
+       \key SwitchableGlazing
+  A4 , \field Construction with Shading Name
+       \type object-list
+       \object-list ConstructionNames
+       \note Required if Shading Type = SwitchableGlazing
+       \note Required if Shading Type = interior or exterior shade or blind, or exterior screen, and
+       \note "Shading Device Material Name" is not specified.
+       \note If both "Construction with Shading Name" and "Shading Device Material Name" are entered,
+       \note the former takes precedence.
+  A5 , \field Shading Control Type
+       \required-field
+       \type choice
+       \key AlwaysOn
+       \key AlwaysOff
+       \key OnIfScheduleAllows
+       \note OnIfScheduleAllows requires that Schedule Name be specified and
+       \note Shading Control Is Scheduled = Yes.
+       \note AlwaysOn, AlwaysOff and OnIfScheduleAllows are the only valid control types for ExteriorScreen.
+       \note The following six control types are used primarily to reduce
+       \note zone cooling load due to window solar gain
+       \key OnIfHighSolarOnWindow
+       \key OnIfHighHorizontalSolar
+       \key OnIfHighOutdoorAirTemperature
+       \key OnIfHighZoneAirTemperature
+       \key OnIfHighZoneCooling
+       \key OnIfHighGlare
+       \note Following entry should be used only if Shading Type = SwitchableGlazing
+       \note and window is in a daylit zone
+       \key MeetDaylightIlluminanceSetpoint
+       \note The following three control types are used to reduce zone Heating load. They can be
+       \note used with any Shading Type but are most appropriate for opaque interior or exterior
+       \note shades with high insulating value ("opaque movable insulation")
+       \key OnNightIfLowOutdoorTempAndOffDay
+       \key OnNightIfLowInsideTempAndOffDay
+       \key OnNightIfHeatingAndOffDay
+       \note The following two control types are used to reduce zone heating and cooling load.
+       \note They can be used with any Shading Type but are most appropriate for translucent interior
+       \note or exterior shades with high insulating value ("translucent movable insulation")
+       \key OnNightIfLowOutdoorTempAndOnDayIfCooling
+       \key OnNightIfHeatingAndOnDayIfCooling
+       \note The following two control types are used to reduce zone Cooling load.
+       \note They can be used with any Shading Type but are most appropriate for interior
+       \note or exterior blinds,interior or exterior shades with low insulating value, or
+       \note switchable glazing
+       \key OffNightAndOnDayIfCoolingAndHighSolarOnWindow
+       \key OnNightAndOnDayIfCoolingAndHighSolarOnWindow
+       \note The following four control types require that both Setpoint and Setpoint2 be specified
+       \note Setpoint will correspond to outdoor air temp or zone air temp (deg C)
+       \note Setpoint2 will correspond to solar on window or horizontal solar (W/m2)
+       \key OnIfHighOutdoorAirTempAndHighSolarOnWindow
+       \key OnIfHighOutdoorAirTempAndHighHorizontalSolar
+       \key OnIfHighZoneAirTempAndHighSolarOnWindow
+       \key OnIfHighZoneAirTempAndHighHorizontalSolar
+  A6 , \field Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Required if Shading Control Is Scheduled = Yes.
+       \note If schedule value = 1, shading control is active, i.e., shading can take place only
+       \note if the control test passes. If schedule value = 0, shading is off whether or not
+       \note the control test passes. Schedule Name is required if Shading Control Is Scheduled = Yes.
+       \note If Schedule Name is not specified, shading control is assumed to be active at all times.
+  N2 , \field Setpoint
+       \units W/m2, W or deg C
+       \note W/m2 for solar-based controls, W for cooling- or heating-based controls,
+       \note deg C for temperature-based controls.
+       \note Unused for Shading Control Type = AlwaysOn, AlwaysOff, OnIfScheduleAllows,
+       \note OnIfHighGlare, Glare, and DaylightIlluminance
+       \type real
+  A7 , \field Shading Control Is Scheduled
+       \type choice
+       \key No
+       \key Yes
+       \default No
+       \note If Yes, Schedule Name is required; if No, Schedule Name is not used.
+       \note Shading Control Is Scheduled = Yes is required if Shading Control Type = OnIfScheduleAllows.
+  A8 , \field Glare Control Is Active
+       \type choice
+       \key No
+       \key Yes
+       \default No
+       \note If Yes and window is in a daylit zone, shading is on if zone's discomfort glare index exceeds
+       \note the maximum discomfort glare index specified in the Daylighting object referenced by the zone.
+       \note The glare test is OR'ed with the test specified by Shading Control Type.
+       \note Glare Control Is Active = Yes is required if Shading Control Type = OnIfHighGlare.
+  A9 , \field Shading Device Material Name
+       \type object-list
+       \object-list WindowShadesScreensAndBlinds
+       \note Enter the name of a WindowMaterial:Shade, WindowMaterial:Screen or WindowMaterial:Blind object.
+       \note Required if "Construction with Shading Name" is not specified.
+       \note Not used if Shading Control Type = SwitchableGlazing, BetweenGlassShade, or BetweenGlassBlind.
+       \note If both "Construction with Shading Name" and "Shading Device Material Name" are entered,
+       \note the former takes precedence.
+  A10, \field Type of Slat Angle Control for Blinds
+       \type choice
+       \key FixedSlatAngle
+       \key ScheduledSlatAngle
+       \key BlockBeamSolar
+       \default FixedSlatAngle
+       \note Used only if Shading Type = InteriorBlind, ExteriorBlind or BetweenGlassBlind.
+       \note If choice is ScheduledSlatAngle then Slat Angle Schedule Name is required.
+  A11, \field Slat Angle Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Used only if Shading Type = InteriorBlind, ExteriorBlind or BetweenGlassBlind.
+       \note Required if Type of Slat Angle Control for Blinds = ScheduledSlatAngle
+       \note Schedule values should be degrees (0 minimum, 180 maximum)
+  N3 , \field Setpoint 2
+       \units W/m2 or deg C
+       \note W/m2 for solar-based controls, deg C for temperature-based controls.
+       \note Used only as the second setpoint for the following two-setpoint control types:
+       \note OnIfHighOutdoorAirTempAndHighSolarOnWindow, OnIfHighOutdoorAirTempAndHighHorizontalSolar,
+       \note OnIfHighZoneAirTempAndHighSolarOnWindow, and OnIfHighZoneAirTempAndHighHorizontalSolar
+       \type real
+       \ip-units unknown
+  A12, \field Daylighting Control Object Name
+       \type object-list
+       \object-list DaylightingControlNames
+       \note Reference to the Daylighting:Controls object that provides the glare and illuminance control to the zone.
+  A13, \field Multiple Surface Control Type
+       \type choice
+       \key Sequential
+       \key Group
+       \default Sequential
+       \note When Sequential is used the list of fenestration surfaces are controlled individually in the order specified
+       \note When Group is used the entire list is controlled simultaneously and if glare control is needed the entire
+       \note group of window shades are deployed together a the same time
+  A14, \field Fenestration Surface 1 Name
+       \required-field
+       \begin-extensible
+       \type object-list
+       \object-list GlazedExtSubSurfNames
+       \note When Multiple Surface Control Type is set to Sequential the shades will be deployed for the referenced surface objects in order.
+       \note When that field is set to Group the entire list is controlled simultaneously.
+  A15, \field Fenestration Surface 2 Name
+       \type object-list
+       \object-list GlazedExtSubSurfNames
+       \note When Multiple Surface Control Type is set to Sequential the shades will be deployed for the referenced surface objects in order.
+       \note When that field is set to Group the entire list is controlled simultaneously.
+  A16, \field Fenestration Surface 3 Name
+       \type object-list
+       \object-list GlazedExtSubSurfNames
+       \note When Multiple Surface Control Type is set to Sequential the shades will be deployed for the referenced surface objects in order.
+       \note When that field is set to Group the entire list is controlled simultaneously.
+  A17, \field Fenestration Surface 4 Name
+       \type object-list
+       \object-list GlazedExtSubSurfNames
+       \note When Multiple Surface Control Type is set to Sequential the shades will be deployed for the referenced surface objects in order.
+       \note When that field is set to Group the entire list is controlled simultaneously.
+  A18, \field Fenestration Surface 5 Name
+       \type object-list
+       \object-list GlazedExtSubSurfNames
+       \note When Multiple Surface Control Type is set to Sequential the shades will be deployed for the referenced surface objects in order.
+       \note When that field is set to Group the entire list is controlled simultaneously.
+  A19, \field Fenestration Surface 6 Name
+       \type object-list
+       \object-list GlazedExtSubSurfNames
+       \note When Multiple Surface Control Type is set to Sequential the shades will be deployed for the referenced surface objects in order.
+       \note When that field is set to Group the entire list is controlled simultaneously.
+  A20, \field Fenestration Surface 7 Name
+       \type object-list
+       \object-list GlazedExtSubSurfNames
+       \note When Multiple Surface Control Type is set to Sequential the shades will be deployed for the referenced surface objects in order.
+       \note When that field is set to Group the entire list is controlled simultaneously.
+  A21, \field Fenestration Surface 8 Name
+       \type object-list
+       \object-list GlazedExtSubSurfNames
+       \note When Multiple Surface Control Type is set to Sequential the shades will be deployed for the referenced surface objects in order.
+       \note When that field is set to Group the entire list is controlled simultaneously.
+  A22, \field Fenestration Surface 9 Name
+       \type object-list
+       \object-list GlazedExtSubSurfNames
+       \note When Multiple Surface Control Type is set to Sequential the shades will be deployed for the referenced surface objects in order.
+       \note When that field is set to Group the entire list is controlled simultaneously.
+  A23; \field Fenestration Surface 10 Name
+       \type object-list
+       \object-list GlazedExtSubSurfNames
+       \note When Multiple Surface Control Type is set to Sequential the shades will be deployed for the referenced surface objects in order.
+       \note When that field is set to Group the entire list is controlled simultaneously.
+
+WindowProperty:FrameAndDivider,
+         \memo Specifies the dimensions of a window frame, dividers, and inside reveal surfaces.
+         \memo Referenced by the surface objects for exterior windows and glass doors
+         \memo (ref: FenestrationSurface:Detailed, Window, and GlazedDoor).
+      \min-fields 20
+    A1 , \field Name
+         \required-field
+         \type alpha
+         \reference WindowFrameAndDividerNames
+         \note Referenced by surfaces that are exterior windows
+         \note Not used by interzone windows
+    N1 , \field Frame Width
+         \units m
+         \type real
+         \minimum 0.0
+         \maximum 1.0
+         \default 0.0
+         \note Width of frame in plane of window
+         \note Frame width assumed the same on all sides of window
+    N2 , \field Frame Outside Projection
+         \units m
+         \type real
+         \minimum 0.0
+         \maximum 0.5
+         \default 0.0
+         \note Amount that frame projects outward from the outside face of the glazing
+    N3 , \field Frame Inside Projection
+         \units m
+         \type real
+         \minimum 0.0
+         \maximum 0.5
+         \default 0.0
+         \note Amount that frame projects inward from the inside face of the glazing
+    N4 , \field Frame Conductance
+         \units W/m2-K
+         \type real
+         \minimum 0.0
+         \note Effective conductance of frame
+         \note Excludes air films
+         \note Obtained from WINDOW 5 or other 2-D calculation
+    N5 , \field Ratio of Frame-Edge Glass Conductance to Center-Of-Glass Conductance
+         \type real
+         \minimum> 0.0
+         \maximum 4.0
+         \default 1.0
+         \note Excludes air films; applies only to multipane windows
+         \note Obtained from WINDOW 5 or other 2-D calculation
+    N6 , \field Frame Solar Absorptance
+         \type real
+         \minimum 0.0
+         \maximum 1.0
+         \default 0.7
+         \note Assumed same on outside and inside of frame
+    N7 , \field Frame Visible Absorptance
+         \type real
+         \minimum 0.0
+         \maximum 1.0
+         \default 0.7
+         \note Assumed same on outside and inside of frame
+    N8 , \field Frame Thermal Hemispherical Emissivity
+         \type real
+         \minimum> 0.0
+         \default 0.9
+         \note Assumed same on outside and inside of frame
+    A2 , \field Divider Type
+         \type choice
+         \key DividedLite
+         \key Suspended
+         \default DividedLite
+    N9 , \field Divider Width
+         \units m
+         \type real
+         \minimum 0.0
+         \maximum 0.5
+         \default 0.0
+         \note Width of dividers in plane of window
+         \note Width assumed the same for all dividers
+    N10, \field Number of Horizontal Dividers
+         \type real
+         \minimum 0
+         \default 0
+         \note "Horizontal" means parallel to local window X-axis
+    N11, \field Number of Vertical Dividers
+         \type real
+         \minimum 0
+         \default 0
+         \note "Vertical" means parallel to local window Y-axis
+    N12, \field Divider Outside Projection
+         \units m
+         \type real
+         \minimum 0.0
+         \maximum 0.5
+         \default 0.0
+         \note Amount that divider projects outward from the outside face of the glazing
+         \note Outside projection assumed the same for all divider elements
+    N13, \field Divider Inside Projection
+         \units m
+         \type real
+         \minimum 0.0
+         \maximum 0.5
+         \default 0.0
+         \note Amount that divider projects inward from the inside face of the glazing
+         \note Inside projection assumed the same for all divider elements
+    N14, \field Divider Conductance
+         \units W/m2-K
+         \type real
+         \minimum 0.0
+         \default 0.0
+         \note Effective conductance of divider
+         \note Excludes air films
+         \note Obtained from WINDOW 5 or other 2-D calculation
+    N15, \field Ratio of Divider-Edge Glass Conductance to Center-Of-Glass Conductance
+         \type real
+         \minimum> 0.0
+         \maximum 4.0
+         \default 1.0
+         \note Excludes air films
+         \note Obtained from WINDOW 5 or other 2-D calculation
+    N16, \field Divider Solar Absorptance
+         \type real
+         \minimum 0.0
+         \maximum 1.0
+         \default 0.0
+         \note Assumed same on outside and inside of divider
+    N17, \field Divider Visible Absorptance
+         \type real
+         \minimum 0.0
+         \maximum 1.0
+         \default 0.0
+         \note Assumed same on outside and inside of divider
+    N18, \field Divider Thermal Hemispherical Emissivity
+         \type real
+         \minimum> 0.0
+         \maximum< 1.0
+         \default 0.9
+         \note Assumed same on outside and inside of divider
+    N19, \field Outside Reveal Solar Absorptance
+         \type real
+         \minimum 0.0
+         \maximum 1.0
+         \default 0.0
+    N20, \field Inside Sill Depth
+         \units m
+         \type real
+         \minimum 0.0
+         \maximum 2.0
+         \default 0.0
+    N21, \field Inside Sill Solar Absorptance
+         \type real
+         \minimum 0.0
+         \maximum 1.0
+         \default 0.0
+    N22, \field Inside Reveal Depth
+         \note Distance from plane of inside surface of glazing
+         \note to plane of inside surface of wall.
+         \note Outside reveal depth is determined from the geometry
+         \note of the window and the wall it is on; it is non-zero if the plane of
+         \note the outside surface of the glazing is set back from the plane of the
+         \note outside surface of the wall.
+         \units m
+         \minimum 0.0
+         \maximum 2.0
+         \default 0.0
+    N23; \field Inside Reveal Solar Absorptance
+         \type real
+         \minimum 0.0
+         \maximum 1.0
+         \default 0.0
+
+WindowProperty:AirflowControl,
+    \memo Used to control forced airflow through a gap between glass layers
+    \min-fields 7
+  A1 , \field Name
+       \required-field
+       \type object-list
+       \object-list SubSurfNames
+       \note Name must be that of an exterior window with two or three glass layers.
+  A2 , \field Airflow Source
+       \type choice
+       \key IndoorAir
+       \key OutdoorAir
+       \default IndoorAir
+  A3 , \field Airflow Destination
+       \note If ReturnAir is selected, the name of the Return Air Node may be specified below.
+       \type choice
+       \key IndoorAir
+       \key OutdoorAir
+       \key ReturnAir
+       \default OutdoorAir
+  N1 , \field Maximum Flow Rate
+       \units m3/s-m
+       \note Above is m3/s per m of glazing width
+       \ip-units ft3/min-ft
+       \default 0.0
+       \minimum 0.0
+  A4 , \field Airflow Control Type
+       \type choice
+       \key AlwaysOnAtMaximumFlow
+       \key AlwaysOff
+       \key ScheduledOnly
+       \note ScheduledOnly requires that Airflow Has Multiplier Schedule Name = Yes
+       \note  and that Airflow Multiplier Schedule Name is specified.
+       \default AlwaysOnAtMaximumFlow
+  A5 , \field Airflow Is Scheduled
+       \type choice
+       \key Yes
+       \key No
+       \default No
+       \note If Yes, then Airflow Multiplier Schedule Name must be specified
+  A6 , \field Airflow Multiplier Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Required if Airflow Is Scheduled = Yes.
+       \note Schedule values are 0.0 or 1.0 and multiply Maximum Air Flow.
+  A7 ; \field Airflow Return Air Node Name
+       \note Name of the return air node for this airflow window if the Airflow Destination is ReturnAir.
+       \note If left blank, defaults to the first return air node for the zone of the window surface.
+       \type node
+
+WindowProperty:StormWindow,
+       \min-fields 7
+       \memo This is a movable exterior glass layer that is usually applied in the winter
+       \memo and removed in the summer.
+  A1,  \field Window Name
+       \note Must be the name of a FenestrationSurface:Detailed object with Surface Type = WINDOW.
+       \note The WindowProperty:StormWindow object can only be used with exterior windows.
+       \required-field
+       \type object-list
+       \object-list SubSurfNames
+  A2,  \field Storm Glass Layer Name
+       \note Must be a WindowMaterial:Glazing or WindowMaterial:Glazing:RefractionExtinctionMethod
+       \note Gap between storm glass layer and adjacent glass layer is assumed to be filled
+       \note with Air
+       \required-field
+       \type object-list
+       \object-list GlazingMaterialName
+  N1,  \field Distance Between Storm Glass Layer and Adjacent Glass
+       \type real
+       \units m
+       \minimum> 0.0
+       \maximum 0.5
+       \default 0.050
+  N2,  \field Month that Storm Glass Layer is Put On
+       \required-field
+       \minimum 1
+       \maximum 12
+       \type integer
+  N3,  \field Day of Month that Storm Glass Layer is Put On
+       \required-field
+       \minimum 1
+       \maximum 31
+       \type integer
+  N4,  \field Month that Storm Glass Layer is Taken Off
+       \required-field
+       \minimum 1
+       \maximum 12
+       \type integer
+  N5;  \field Day of Month that Storm Glass Layer is Taken Off
+       \required-field
+       \minimum 1
+       \maximum 31
+       \type integer
+
+InternalMass,
+       \memo Used to describe internal zone surface area that does not need to be part of geometric
+       \memo representation. This should be the total surface area exposed to the zone air.
+       \memo If you use a ZoneList in the Zone or ZoneList name field then this definition applies
+       \memo to all the zones in the ZoneList.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference AllHeatTranSurfNames
+       \reference AllHeatTranAngFacNames
+       \reference RadiantSurfaceNames
+  A2 , \field Construction Name
+       \required-field
+       \note To be matched with a construction in this input file
+       \type object-list
+       \object-list ConstructionNames
+  A3 , \field Zone or ZoneList Name
+       \required-field
+       \type object-list
+       \object-list ZoneAndZoneListNames
+       \note Zone the surface is a part of
+       \note used to be Interior Environment
+  N1 ; \field Surface Area
+       \required-field
+       \units m2
+       \minimum> 0
+
+Shading:Site,
+       \memo used for shading elements such as trees
+       \memo these items are fixed in space and would not move with relative geometry
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference AllShadingAndHTSurfNames
+       \reference AllShadingSurfNames
+  N1,  \field Azimuth Angle
+       \note Facing direction of outside of shading device (S=180,N=0,E=90,W=270)
+       \minimum 0
+       \maximum 360
+       \units deg
+  N2,  \field Tilt Angle
+       \default 90
+       \minimum 0
+       \maximum 180
+       \units deg
+  N3,  \field Starting X Coordinate
+       \note Starting coordinate is the Lower Left Corner of the Shade
+       \units m
+  N4,  \field Starting Y Coordinate
+       \units m
+  N5,  \field Starting Z Coordinate
+       \units m
+  N6,  \field Length
+       \units m
+  N7;  \field Height
+       \units m
+
+Shading:Building,
+       \memo used for shading elements such as trees, other buildings, parts of this building not being modeled
+       \memo these items are relative to the current building and would move with relative geometry
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference AllShadingAndHTSurfNames
+       \reference AllShadingSurfNames
+  N1,  \field Azimuth Angle
+       \note Facing direction of outside of shading device (S=180,N=0,E=90,W=270)
+       \minimum 0
+       \maximum 360
+       \units deg
+  N2,  \field Tilt Angle
+       \default 90
+       \minimum 0
+       \maximum 180
+       \units deg
+  N3,  \field Starting X Coordinate
+       \note Starting coordinate is the Lower Left Corner of the Shade
+       \units m
+  N4,  \field Starting Y Coordinate
+       \units m
+  N5,  \field Starting Z Coordinate
+       \units m
+  N6,  \field Length
+       \units m
+  N7;  \field Height
+       \units m
+
+Shading:Site:Detailed,
+  \extensible:3 -- duplicate last set of x,y,z coordinates, renumbering please (and changing z terminator to , for all but last)
+       \memo used for shading elements such as trees
+       \memo these items are fixed in space and would not move with relative geometry
+       \format vertices
+       \min-fields 12
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference AllShadingAndHTSurfNames
+       \reference AllShadingSurfNames
+  A2,  \field Transmittance Schedule Name
+       \note Transmittance schedule for the shading device, defaults to zero (always opaque)
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Number of Vertices
+       \note shown with 6 vertex coordinates -- extensible object
+       \autocalculatable
+       \default autocalculate
+       \minimum 3
+       \note Rules for vertices are given in GlobalGeometryRules coordinates --
+       \note For this object all surface coordinates are in world coordinates.
+  N2,  \field Vertex 1 X-coordinate
+       \begin-extensible
+       \required-field
+       \units m
+       \type real
+  N3 , \field Vertex 1 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N4 , \field Vertex 1 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N5,  \field Vertex 2 X-coordinate
+       \required-field
+       \units m
+       \type real
+  N6,  \field Vertex 2 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N7, \field Vertex 2 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N8, \field Vertex 3 X-coordinate
+       \required-field
+       \units m
+       \type real
+  N9,  \field Vertex 3 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N10, \field Vertex 3 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N11, \field Vertex 4 X-coordinate
+       \units m
+       \type real
+  N12, \field Vertex 4 Y-coordinate
+       \units m
+       \type real
+  N13, \field Vertex 4 Z-coordinate
+       \units m
+       \type real
+  N14, \field Vertex 5 X-coordinate
+       \units m
+       \type real
+  N15, \field Vertex 5 Y-coordinate
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+       \units m
+       \type real
+  N297, \field Vertex 99 Y-coordinate
+       \units m
+       \type real
+  N298, \field Vertex 99 Z-coordinate
+       \units m
+       \type real
+  N299, \field Vertex 100 X-coordinate
+       \units m
+       \type real
+  N300, \field Vertex 100 Y-coordinate
+       \units m
+       \type real
+  N301, \field Vertex 100 Z-coordinate
+       \units m
+       \type real
+  N302, \field Vertex 101 X-coordinate
+       \units m
+       \type real
+  N303, \field Vertex 101 Y-coordinate
+       \units m
+       \type real
+  N304, \field Vertex 101 Z-coordinate
+       \units m
+       \type real
+  N305, \field Vertex 102 X-coordinate
+       \units m
+       \type real
+  N306, \field Vertex 102 Y-coordinate
+       \units m
+       \type real
+  N307, \field Vertex 102 Z-coordinate
+       \units m
+       \type real
+  N308, \field Vertex 103 X-coordinate
+       \units m
+       \type real
+  N309, \field Vertex 103 Y-coordinate
+       \units m
+       \type real
+  N310, \field Vertex 103 Z-coordinate
+       \units m
+       \type real
+  N311, \field Vertex 104 X-coordinate
+       \units m
+       \type real
+  N312, \field Vertex 104 Y-coordinate
+       \units m
+       \type real
+  N313, \field Vertex 104 Z-coordinate
+       \units m
+       \type real
+  N314, \field Vertex 105 X-coordinate
+       \units m
+       \type real
+  N315, \field Vertex 105 Y-coordinate
+       \units m
+       \type real
+  N316, \field Vertex 105 Z-coordinate
+       \units m
+       \type real
+  N317, \field Vertex 106 X-coordinate
+       \units m
+       \type real
+  N318, \field Vertex 106 Y-coordinate
+       \units m
+       \type real
+  N319, \field Vertex 106 Z-coordinate
+       \units m
+       \type real
+  N320, \field Vertex 107 X-coordinate
+       \units m
+       \type real
+  N321, \field Vertex 107 Y-coordinate
+       \units m
+       \type real
+  N322, \field Vertex 107 Z-coordinate
+       \units m
+       \type real
+  N323, \field Vertex 108 X-coordinate
+       \units m
+       \type real
+  N324, \field Vertex 108 Y-coordinate
+       \units m
+       \type real
+  N325, \field Vertex 108 Z-coordinate
+       \units m
+       \type real
+  N326, \field Vertex 109 X-coordinate
+       \units m
+       \type real
+  N327, \field Vertex 109 Y-coordinate
+       \units m
+       \type real
+  N328, \field Vertex 109 Z-coordinate
+       \units m
+       \type real
+  N329, \field Vertex 110 X-coordinate
+       \units m
+       \type real
+  N330, \field Vertex 110 Y-coordinate
+       \units m
+       \type real
+  N331, \field Vertex 110 Z-coordinate
+       \units m
+       \type real
+  N332, \field Vertex 111 X-coordinate
+       \units m
+       \type real
+  N333, \field Vertex 111 Y-coordinate
+       \units m
+       \type real
+  N334, \field Vertex 111 Z-coordinate
+       \units m
+       \type real
+  N335, \field Vertex 112 X-coordinate
+       \units m
+       \type real
+  N336, \field Vertex 112 Y-coordinate
+       \units m
+       \type real
+  N337, \field Vertex 112 Z-coordinate
+       \units m
+       \type real
+  N338, \field Vertex 113 X-coordinate
+       \units m
+       \type real
+  N339, \field Vertex 113 Y-coordinate
+       \units m
+       \type real
+  N340, \field Vertex 113 Z-coordinate
+       \units m
+       \type real
+  N341, \field Vertex 114 X-coordinate
+       \units m
+       \type real
+  N342, \field Vertex 114 Y-coordinate
+       \units m
+       \type real
+  N343, \field Vertex 114 Z-coordinate
+       \units m
+       \type real
+  N344, \field Vertex 115 X-coordinate
+       \units m
+       \type real
+  N345, \field Vertex 115 Y-coordinate
+       \units m
+       \type real
+  N346, \field Vertex 115 Z-coordinate
+       \units m
+       \type real
+  N347, \field Vertex 116 X-coordinate
+       \units m
+       \type real
+  N348, \field Vertex 116 Y-coordinate
+       \units m
+       \type real
+  N349, \field Vertex 116 Z-coordinate
+       \units m
+       \type real
+  N350, \field Vertex 117 X-coordinate
+       \units m
+       \type real
+  N351, \field Vertex 117 Y-coordinate
+       \units m
+       \type real
+  N352, \field Vertex 117 Z-coordinate
+       \units m
+       \type real
+  N353, \field Vertex 118 X-coordinate
+       \units m
+       \type real
+  N354, \field Vertex 118 Y-coordinate
+       \units m
+       \type real
+  N355, \field Vertex 118 Z-coordinate
+       \units m
+       \type real
+  N356, \field Vertex 119 X-coordinate
+       \units m
+       \type real
+  N357, \field Vertex 119 Y-coordinate
+       \units m
+       \type real
+  N358, \field Vertex 119 Z-coordinate
+       \units m
+       \type real
+  N359, \field Vertex 120 X-coordinate
+       \units m
+       \type real
+  N360, \field Vertex 120 Y-coordinate
+       \units m
+       \type real
+  N361; \field Vertex 120 Z-coordinate
+       \units m
+       \type real
+
+Shading:Building:Detailed,
+  \extensible:3 -- duplicate last set of x,y,z coordinates, renumbering please (and changing z terminator to , for all but last)
+       \memo used for shading elements such as trees, other buildings, parts of this building not being modeled
+       \memo these items are relative to the current building and would move with relative geometry
+       \format vertices
+       \min-fields 12
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference AllShadingAndHTSurfNames
+       \reference AllShadingSurfNames
+  A2,  \field Transmittance Schedule Name
+       \note Transmittance schedule for the shading device, defaults to zero (always opaque)
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Number of Vertices
+       \note shown with 6 vertex coordinates -- extensible object
+       \autocalculatable
+       \default autocalculate
+       \minimum 3
+       \note Rules for vertices are given in GlobalGeometryRules coordinates --
+       \note For this object all surface coordinates are relative to the building origin (0,0,0)
+       \note and will rotate with the BUILDING north axis.
+  N2,  \field Vertex 1 X-coordinate
+       \begin-extensible
+       \required-field
+       \units m
+       \type real
+  N3 , \field Vertex 1 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N4 , \field Vertex 1 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N5,  \field Vertex 2 X-coordinate
+       \required-field
+       \units m
+       \type real
+  N6,  \field Vertex 2 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N7, \field Vertex 2 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N8, \field Vertex 3 X-coordinate
+       \required-field
+       \units m
+       \type real
+  N9,  \field Vertex 3 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N10, \field Vertex 3 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N11, \field Vertex 4 X-coordinate
+       \units m
+       \type real
+  N12, \field Vertex 4 Y-coordinate
+       \type real
+       \units m
+  N13, \field Vertex 4 Z-coordinate
+       \units m
+       \type real
+  N14, \field Vertex 5 X-coordinate
+       \units m
+       \type real
+  N15, \field Vertex 5 Y-coordinate
+       \units m
+       \type real
+  N16, \field Vertex 5 Z-coordinate
+       \units m
+       \type real
+  N17, \field Vertex 6 X-coordinate
+       \units m
+       \type real
+  N18, \field Vertex 6 Y-coordinate
+       \units m
+       \type real
+  N19, \field Vertex 6 Z-coordinate
+       \units m
+       \type real
+  N20, \field Vertex 7 X-coordinate
+       \units m
+       \type real
+  N21, \field Vertex 7 Y-coordinate
+       \units m
+       \type real
+  N22, \field Vertex 7 Z-coordinate
+       \units m
+       \type real
+  N23, \field Vertex 8 X-coordinate
+       \units m
+       \type real
+  N24, \field Vertex 8 Y-coordinate
+       \units m
+       \type real
+  N25, \field Vertex 8 Z-coordinate
+       \units m
+       \type real
+  N26, \field Vertex 9 X-coordinate
+       \units m
+       \type real
+  N27, \field Vertex 9 Y-coordinate
+       \units m
+       \type real
+  N28, \field Vertex 9 Z-coordinate
+       \units m
+       \type real
+  N29, \field Vertex 10 X-coordinate
+       \units m
+       \type real
+  N30, \field Vertex 10 Y-coordinate
+       \units m
+       \type real
+  N31, \field Vertex 10 Z-coordinate
+       \units m
+       \type real
+  N32, \field Vertex 11 X-coordinate
+       \units m
+       \type real
+  N33, \field Vertex 11 Y-coordinate
+       \units m
+       \type real
+  N34, \field Vertex 11 Z-coordinate
+       \units m
+       \type real
+  N35, \field Vertex 12 X-coordinate
+       \units m
+       \type real
+  N36, \field Vertex 12 Y-coordinate
+       \units m
+       \type real
+  N37, \field Vertex 12 Z-coordinate
+       \units m
+       \type real
+  N38, \field Vertex 13 X-coordinate
+       \units m
+       \type real
+  N39, \field Vertex 13 Y-coordinate
+       \units m
+       \type real
+  N40, \field Vertex 13 Z-coordinate
+       \units m
+       \type real
+  N41, \field Vertex 14 X-coordinate
+       \units m
+       \type real
+  N42, \field Vertex 14 Y-coordinate
+       \units m
+       \type real
+  N43, \field Vertex 14 Z-coordinate
+       \units m
+       \type real
+  N44, \field Vertex 15 X-coordinate
+       \units m
+       \type real
+  N45, \field Vertex 15 Y-coordinate
+       \units m
+       \type real
+  N46, \field Vertex 15 Z-coordinate
+       \units m
+       \type real
+  N47, \field Vertex 16 X-coordinate
+       \units m
+       \type real
+  N48, \field Vertex 16 Y-coordinate
+       \units m
+       \type real
+  N49, \field Vertex 16 Z-coordinate
+       \units m
+       \type real
+  N50, \field Vertex 17 X-coordinate
+       \units m
+       \type real
+  N51, \field Vertex 17 Y-coordinate
+       \units m
+       \type real
+  N52, \field Vertex 17 Z-coordinate
+       \units m
+       \type real
+  N53, \field Vertex 18 X-coordinate
+       \units m
+       \type real
+  N54, \field Vertex 18 Y-coordinate
+       \units m
+       \type real
+  N55, \field Vertex 18 Z-coordinate
+       \units m
+       \type real
+  N56, \field Vertex 19 X-coordinate
+       \units m
+       \type real
+  N57, \field Vertex 19 Y-coordinate
+       \units m
+       \type real
+  N58, \field Vertex 19 Z-coordinate
+       \units m
+       \type real
+  N59, \field Vertex 20 X-coordinate
+       \units m
+       \type real
+  N60, \field Vertex 20 Y-coordinate
+       \units m
+       \type real
+  N61, \field Vertex 20 Z-coordinate
+       \units m
+       \type real
+  N62, \field Vertex 21 X-coordinate
+       \units m
+       \type real
+  N63, \field Vertex 21 Y-coordinate
+       \units m
+       \type real
+  N64, \field Vertex 21 Z-coordinate
+       \units m
+       \type real
+  N65, \field Vertex 22 X-coordinate
+       \units m
+       \type real
+  N66, \field Vertex 22 Y-coordinate
+       \units m
+       \type real
+  N67, \field Vertex 22 Z-coordinate
+       \units m
+       \type real
+  N68, \field Vertex 23 X-coordinate
+       \units m
+       \type real
+  N69, \field Vertex 23 Y-coordinate
+       \units m
+       \type real
+  N70, \field Vertex 23 Z-coordinate
+       \units m
+       \type real
+  N71, \field Vertex 24 X-coordinate
+       \units m
+       \type real
+  N72, \field Vertex 24 Y-coordinate
+       \units m
+       \type real
+  N73, \field Vertex 24 Z-coordinate
+       \units m
+       \type real
+  N74, \field Vertex 25 X-coordinate
+       \units m
+       \type real
+  N75, \field Vertex 25 Y-coordinate
+       \units m
+       \type real
+  N76, \field Vertex 25 Z-coordinate
+       \units m
+       \type real
+  N77, \field Vertex 26 X-coordinate
+       \units m
+       \type real
+  N78, \field Vertex 26 Y-coordinate
+       \units m
+       \type real
+  N79, \field Vertex 26 Z-coordinate
+       \units m
+       \type real
+  N80, \field Vertex 27 X-coordinate
+       \units m
+       \type real
+  N81, \field Vertex 27 Y-coordinate
+       \units m
+       \type real
+  N82, \field Vertex 27 Z-coordinate
+       \units m
+       \type real
+  N83, \field Vertex 28 X-coordinate
+       \units m
+       \type real
+  N84, \field Vertex 28 Y-coordinate
+       \units m
+       \type real
+  N85, \field Vertex 28 Z-coordinate
+       \units m
+       \type real
+  N86, \field Vertex 29 X-coordinate
+       \units m
+       \type real
+  N87, \field Vertex 29 Y-coordinate
+       \units m
+       \type real
+  N88, \field Vertex 29 Z-coordinate
+       \units m
+       \type real
+  N89, \field Vertex 30 X-coordinate
+       \units m
+       \type real
+  N90, \field Vertex 30 Y-coordinate
+       \units m
+       \type real
+  N91, \field Vertex 30 Z-coordinate
+       \units m
+       \type real
+  N92, \field Vertex 31 X-coordinate
+       \units m
+       \type real
+  N93, \field Vertex 31 Y-coordinate
+       \units m
+       \type real
+  N94, \field Vertex 31 Z-coordinate
+       \units m
+       \type real
+  N95, \field Vertex 32 X-coordinate
+       \units m
+       \type real
+  N96, \field Vertex 32 Y-coordinate
+       \units m
+       \type real
+  N97, \field Vertex 32 Z-coordinate
+       \units m
+       \type real
+  N98, \field Vertex 33 X-coordinate
+       \units m
+       \type real
+  N99, \field Vertex 33 Y-coordinate
+       \units m
+       \type real
+  N100, \field Vertex 33 Z-coordinate
+       \units m
+       \type real
+  N101, \field Vertex 34 X-coordinate
+       \units m
+       \type real
+  N102, \field Vertex 34 Y-coordinate
+       \units m
+       \type real
+  N103, \field Vertex 34 Z-coordinate
+       \units m
+       \type real
+  N104, \field Vertex 35 X-coordinate
+       \units m
+       \type real
+  N105, \field Vertex 35 Y-coordinate
+       \units m
+       \type real
+  N106, \field Vertex 35 Z-coordinate
+       \units m
+       \type real
+  N107, \field Vertex 36 X-coordinate
+       \units m
+       \type real
+  N108, \field Vertex 36 Y-coordinate
+       \units m
+       \type real
+  N109, \field Vertex 36 Z-coordinate
+       \units m
+       \type real
+  N110, \field Vertex 37 X-coordinate
+       \units m
+       \type real
+  N111, \field Vertex 37 Y-coordinate
+       \units m
+       \type real
+  N112, \field Vertex 37 Z-coordinate
+       \units m
+       \type real
+  N113, \field Vertex 38 X-coordinate
+       \units m
+       \type real
+  N114, \field Vertex 38 Y-coordinate
+       \units m
+       \type real
+  N115, \field Vertex 38 Z-coordinate
+       \units m
+       \type real
+  N116, \field Vertex 39 X-coordinate
+       \units m
+       \type real
+  N117, \field Vertex 39 Y-coordinate
+       \units m
+       \type real
+  N118, \field Vertex 39 Z-coordinate
+       \units m
+       \type real
+  N119, \field Vertex 40 X-coordinate
+       \units m
+       \type real
+  N120, \field Vertex 40 Y-coordinate
+       \units m
+       \type real
+  N121, \field Vertex 40 Z-coordinate
+       \units m
+       \type real
+  N122, \field Vertex 41 X-coordinate
+       \units m
+       \type real
+  N123, \field Vertex 41 Y-coordinate
+       \units m
+       \type real
+  N124, \field Vertex 41 Z-coordinate
+       \units m
+       \type real
+  N125, \field Vertex 42 X-coordinate
+       \units m
+       \type real
+  N126, \field Vertex 42 Y-coordinate
+       \units m
+       \type real
+  N127, \field Vertex 42 Z-coordinate
+       \units m
+       \type real
+  N128, \field Vertex 43 X-coordinate
+       \units m
+       \type real
+  N129, \field Vertex 43 Y-coordinate
+       \units m
+       \type real
+  N130, \field Vertex 43 Z-coordinate
+       \units m
+       \type real
+  N131, \field Vertex 44 X-coordinate
+       \units m
+       \type real
+  N132, \field Vertex 44 Y-coordinate
+       \units m
+       \type real
+  N133, \field Vertex 44 Z-coordinate
+       \units m
+       \type real
+  N134, \field Vertex 45 X-coordinate
+       \units m
+       \type real
+  N135, \field Vertex 45 Y-coordinate
+       \units m
+       \type real
+  N136, \field Vertex 45 Z-coordinate
+       \units m
+       \type real
+  N137, \field Vertex 46 X-coordinate
+       \units m
+       \type real
+  N138, \field Vertex 46 Y-coordinate
+       \units m
+       \type real
+  N139, \field Vertex 46 Z-coordinate
+       \units m
+       \type real
+  N140, \field Vertex 47 X-coordinate
+       \units m
+       \type real
+  N141, \field Vertex 47 Y-coordinate
+       \units m
+       \type real
+  N142, \field Vertex 47 Z-coordinate
+       \units m
+       \type real
+  N143, \field Vertex 48 X-coordinate
+       \units m
+       \type real
+  N144, \field Vertex 48 Y-coordinate
+       \units m
+       \type real
+  N145, \field Vertex 48 Z-coordinate
+       \units m
+       \type real
+  N146, \field Vertex 49 X-coordinate
+       \units m
+       \type real
+  N147, \field Vertex 49 Y-coordinate
+       \units m
+       \type real
+  N148, \field Vertex 49 Z-coordinate
+       \units m
+       \type real
+  N149, \field Vertex 50 X-coordinate
+       \units m
+       \type real
+  N150, \field Vertex 50 Y-coordinate
+       \units m
+       \type real
+  N151, \field Vertex 50 Z-coordinate
+       \units m
+       \type real
+  N152, \field Vertex 51 X-coordinate
+       \units m
+       \type real
+  N153, \field Vertex 51 Y-coordinate
+       \units m
+       \type real
+  N154, \field Vertex 51 Z-coordinate
+       \units m
+       \type real
+  N155, \field Vertex 52 X-coordinate
+       \units m
+       \type real
+  N156, \field Vertex 52 Y-coordinate
+       \units m
+       \type real
+  N157, \field Vertex 52 Z-coordinate
+       \units m
+       \type real
+  N158, \field Vertex 53 X-coordinate
+       \units m
+       \type real
+  N159, \field Vertex 53 Y-coordinate
+       \units m
+       \type real
+  N160, \field Vertex 53 Z-coordinate
+       \units m
+       \type real
+  N161, \field Vertex 54 X-coordinate
+       \units m
+       \type real
+  N162, \field Vertex 54 Y-coordinate
+       \units m
+       \type real
+  N163, \field Vertex 54 Z-coordinate
+       \units m
+       \type real
+  N164, \field Vertex 55 X-coordinate
+       \units m
+       \type real
+  N165, \field Vertex 55 Y-coordinate
+       \units m
+       \type real
+  N166, \field Vertex 55 Z-coordinate
+       \units m
+       \type real
+  N167, \field Vertex 56 X-coordinate
+       \units m
+       \type real
+  N168, \field Vertex 56 Y-coordinate
+       \units m
+       \type real
+  N169, \field Vertex 56 Z-coordinate
+       \units m
+       \type real
+  N170, \field Vertex 57 X-coordinate
+       \units m
+       \type real
+  N171, \field Vertex 57 Y-coordinate
+       \units m
+       \type real
+  N172, \field Vertex 57 Z-coordinate
+       \units m
+       \type real
+  N173, \field Vertex 58 X-coordinate
+       \units m
+       \type real
+  N174, \field Vertex 58 Y-coordinate
+       \units m
+       \type real
+  N175, \field Vertex 58 Z-coordinate
+       \units m
+       \type real
+  N176, \field Vertex 59 X-coordinate
+       \units m
+       \type real
+  N177, \field Vertex 59 Y-coordinate
+       \units m
+       \type real
+  N178, \field Vertex 59 Z-coordinate
+       \units m
+       \type real
+  N179, \field Vertex 60 X-coordinate
+       \units m
+       \type real
+  N180, \field Vertex 60 Y-coordinate
+       \units m
+       \type real
+  N181, \field Vertex 60 Z-coordinate
+       \units m
+       \type real
+  N182, \field Vertex 61 X-coordinate
+       \units m
+       \type real
+  N183, \field Vertex 61 Y-coordinate
+       \units m
+       \type real
+  N184, \field Vertex 61 Z-coordinate
+       \units m
+       \type real
+  N185, \field Vertex 62 X-coordinate
+       \units m
+       \type real
+  N186, \field Vertex 62 Y-coordinate
+       \units m
+       \type real
+  N187, \field Vertex 62 Z-coordinate
+       \units m
+       \type real
+  N188, \field Vertex 63 X-coordinate
+       \units m
+       \type real
+  N189, \field Vertex 63 Y-coordinate
+       \units m
+       \type real
+  N190, \field Vertex 63 Z-coordinate
+       \units m
+       \type real
+  N191, \field Vertex 64 X-coordinate
+       \units m
+       \type real
+  N192, \field Vertex 64 Y-coordinate
+       \units m
+       \type real
+  N193, \field Vertex 64 Z-coordinate
+       \units m
+       \type real
+  N194, \field Vertex 65 X-coordinate
+       \units m
+       \type real
+  N195, \field Vertex 65 Y-coordinate
+       \units m
+       \type real
+  N196, \field Vertex 65 Z-coordinate
+       \units m
+       \type real
+  N197, \field Vertex 66 X-coordinate
+       \units m
+       \type real
+  N198, \field Vertex 66 Y-coordinate
+       \units m
+       \type real
+  N199, \field Vertex 66 Z-coordinate
+       \units m
+       \type real
+  N200, \field Vertex 67 X-coordinate
+       \units m
+       \type real
+  N201, \field Vertex 67 Y-coordinate
+       \units m
+       \type real
+  N202, \field Vertex 67 Z-coordinate
+       \units m
+       \type real
+  N203, \field Vertex 68 X-coordinate
+       \units m
+       \type real
+  N204, \field Vertex 68 Y-coordinate
+       \units m
+       \type real
+  N205, \field Vertex 68 Z-coordinate
+       \units m
+       \type real
+  N206, \field Vertex 69 X-coordinate
+       \units m
+       \type real
+  N207, \field Vertex 69 Y-coordinate
+       \units m
+       \type real
+  N208, \field Vertex 69 Z-coordinate
+       \units m
+       \type real
+  N209, \field Vertex 70 X-coordinate
+       \units m
+       \type real
+  N210, \field Vertex 70 Y-coordinate
+       \units m
+       \type real
+  N211, \field Vertex 70 Z-coordinate
+       \units m
+       \type real
+  N212, \field Vertex 71 X-coordinate
+       \units m
+       \type real
+  N213, \field Vertex 71 Y-coordinate
+       \units m
+       \type real
+  N214, \field Vertex 71 Z-coordinate
+       \units m
+       \type real
+  N215, \field Vertex 72 X-coordinate
+       \units m
+       \type real
+  N216, \field Vertex 72 Y-coordinate
+       \units m
+       \type real
+  N217, \field Vertex 72 Z-coordinate
+       \units m
+       \type real
+  N218, \field Vertex 73 X-coordinate
+       \units m
+       \type real
+  N219, \field Vertex 73 Y-coordinate
+       \units m
+       \type real
+  N220, \field Vertex 73 Z-coordinate
+       \units m
+       \type real
+  N221, \field Vertex 74 X-coordinate
+       \units m
+       \type real
+  N222, \field Vertex 74 Y-coordinate
+       \units m
+       \type real
+  N223, \field Vertex 74 Z-coordinate
+       \units m
+       \type real
+  N224, \field Vertex 75 X-coordinate
+       \units m
+       \type real
+  N225, \field Vertex 75 Y-coordinate
+       \units m
+       \type real
+  N226, \field Vertex 75 Z-coordinate
+       \units m
+       \type real
+  N227, \field Vertex 76 X-coordinate
+       \units m
+       \type real
+  N228, \field Vertex 76 Y-coordinate
+       \units m
+       \type real
+  N229, \field Vertex 76 Z-coordinate
+       \units m
+       \type real
+  N230, \field Vertex 77 X-coordinate
+       \units m
+       \type real
+  N231, \field Vertex 77 Y-coordinate
+       \units m
+       \type real
+  N232, \field Vertex 77 Z-coordinate
+       \units m
+       \type real
+  N233, \field Vertex 78 X-coordinate
+       \units m
+       \type real
+  N234, \field Vertex 78 Y-coordinate
+       \units m
+       \type real
+  N235, \field Vertex 78 Z-coordinate
+       \units m
+       \type real
+  N236, \field Vertex 79 X-coordinate
+       \units m
+       \type real
+  N237, \field Vertex 79 Y-coordinate
+       \units m
+       \type real
+  N238, \field Vertex 79 Z-coordinate
+       \units m
+       \type real
+  N239, \field Vertex 80 X-coordinate
+       \units m
+       \type real
+  N240, \field Vertex 80 Y-coordinate
+       \units m
+       \type real
+  N241, \field Vertex 80 Z-coordinate
+       \units m
+       \type real
+  N242, \field Vertex 81 X-coordinate
+       \units m
+       \type real
+  N243, \field Vertex 81 Y-coordinate
+       \units m
+       \type real
+  N244, \field Vertex 81 Z-coordinate
+       \units m
+       \type real
+  N245, \field Vertex 82 X-coordinate
+       \units m
+       \type real
+  N246, \field Vertex 82 Y-coordinate
+       \units m
+       \type real
+  N247, \field Vertex 82 Z-coordinate
+       \units m
+       \type real
+  N248, \field Vertex 83 X-coordinate
+       \units m
+       \type real
+  N249, \field Vertex 83 Y-coordinate
+       \units m
+       \type real
+  N250, \field Vertex 83 Z-coordinate
+       \units m
+       \type real
+  N251, \field Vertex 84 X-coordinate
+       \units m
+       \type real
+  N252, \field Vertex 84 Y-coordinate
+       \units m
+       \type real
+  N253, \field Vertex 84 Z-coordinate
+       \units m
+       \type real
+  N254, \field Vertex 85 X-coordinate
+       \units m
+       \type real
+  N255, \field Vertex 85 Y-coordinate
+       \units m
+       \type real
+  N256, \field Vertex 85 Z-coordinate
+       \units m
+       \type real
+  N257, \field Vertex 86 X-coordinate
+       \units m
+       \type real
+  N258, \field Vertex 86 Y-coordinate
+       \units m
+       \type real
+  N259, \field Vertex 86 Z-coordinate
+       \units m
+       \type real
+  N260, \field Vertex 87 X-coordinate
+       \units m
+       \type real
+  N261, \field Vertex 87 Y-coordinate
+       \units m
+       \type real
+  N262, \field Vertex 87 Z-coordinate
+       \units m
+       \type real
+  N263, \field Vertex 88 X-coordinate
+       \units m
+       \type real
+  N264, \field Vertex 88 Y-coordinate
+       \units m
+       \type real
+  N265, \field Vertex 88 Z-coordinate
+       \units m
+       \type real
+  N266, \field Vertex 89 X-coordinate
+       \units m
+       \type real
+  N267, \field Vertex 89 Y-coordinate
+       \units m
+       \type real
+  N268, \field Vertex 89 Z-coordinate
+       \units m
+       \type real
+  N269, \field Vertex 90 X-coordinate
+       \units m
+       \type real
+  N270, \field Vertex 90 Y-coordinate
+       \units m
+       \type real
+  N271, \field Vertex 90 Z-coordinate
+       \units m
+       \type real
+  N272, \field Vertex 91 X-coordinate
+       \units m
+       \type real
+  N273, \field Vertex 91 Y-coordinate
+       \units m
+       \type real
+  N274, \field Vertex 91 Z-coordinate
+       \units m
+       \type real
+  N275, \field Vertex 92 X-coordinate
+       \units m
+       \type real
+  N276, \field Vertex 92 Y-coordinate
+       \units m
+       \type real
+  N277, \field Vertex 92 Z-coordinate
+       \units m
+       \type real
+  N278, \field Vertex 93 X-coordinate
+       \units m
+       \type real
+  N279, \field Vertex 93 Y-coordinate
+       \units m
+       \type real
+  N280, \field Vertex 93 Z-coordinate
+       \units m
+       \type real
+  N281, \field Vertex 94 X-coordinate
+       \units m
+       \type real
+  N282, \field Vertex 94 Y-coordinate
+       \units m
+       \type real
+  N283, \field Vertex 94 Z-coordinate
+       \units m
+       \type real
+  N284, \field Vertex 95 X-coordinate
+       \units m
+       \type real
+  N285, \field Vertex 95 Y-coordinate
+       \units m
+       \type real
+  N286, \field Vertex 95 Z-coordinate
+       \units m
+       \type real
+  N287, \field Vertex 96 X-coordinate
+       \units m
+       \type real
+  N288, \field Vertex 96 Y-coordinate
+       \units m
+       \type real
+  N289, \field Vertex 96 Z-coordinate
+       \units m
+       \type real
+  N290, \field Vertex 97 X-coordinate
+       \units m
+       \type real
+  N291, \field Vertex 97 Y-coordinate
+       \units m
+       \type real
+  N292, \field Vertex 97 Z-coordinate
+       \units m
+       \type real
+  N293, \field Vertex 98 X-coordinate
+       \units m
+       \type real
+  N294, \field Vertex 98 Y-coordinate
+       \units m
+       \type real
+  N295, \field Vertex 98 Z-coordinate
+       \units m
+       \type real
+  N296, \field Vertex 99 X-coordinate
+       \units m
+       \type real
+  N297, \field Vertex 99 Y-coordinate
+       \units m
+       \type real
+  N298, \field Vertex 99 Z-coordinate
+       \units m
+       \type real
+  N299, \field Vertex 100 X-coordinate
+       \units m
+       \type real
+  N300, \field Vertex 100 Y-coordinate
+       \units m
+       \type real
+  N301, \field Vertex 100 Z-coordinate
+       \units m
+       \type real
+  N302, \field Vertex 101 X-coordinate
+       \units m
+       \type real
+  N303, \field Vertex 101 Y-coordinate
+       \units m
+       \type real
+  N304, \field Vertex 101 Z-coordinate
+       \units m
+       \type real
+  N305, \field Vertex 102 X-coordinate
+       \units m
+       \type real
+  N306, \field Vertex 102 Y-coordinate
+       \units m
+       \type real
+  N307, \field Vertex 102 Z-coordinate
+       \units m
+       \type real
+  N308, \field Vertex 103 X-coordinate
+       \units m
+       \type real
+  N309, \field Vertex 103 Y-coordinate
+       \units m
+       \type real
+  N310, \field Vertex 103 Z-coordinate
+       \units m
+       \type real
+  N311, \field Vertex 104 X-coordinate
+       \units m
+       \type real
+  N312, \field Vertex 104 Y-coordinate
+       \units m
+       \type real
+  N313, \field Vertex 104 Z-coordinate
+       \units m
+       \type real
+  N314, \field Vertex 105 X-coordinate
+       \units m
+       \type real
+  N315, \field Vertex 105 Y-coordinate
+       \units m
+       \type real
+  N316, \field Vertex 105 Z-coordinate
+       \units m
+       \type real
+  N317, \field Vertex 106 X-coordinate
+       \units m
+       \type real
+  N318, \field Vertex 106 Y-coordinate
+       \units m
+       \type real
+  N319, \field Vertex 106 Z-coordinate
+       \units m
+       \type real
+  N320, \field Vertex 107 X-coordinate
+       \units m
+       \type real
+  N321, \field Vertex 107 Y-coordinate
+       \units m
+       \type real
+  N322, \field Vertex 107 Z-coordinate
+       \units m
+       \type real
+  N323, \field Vertex 108 X-coordinate
+       \units m
+       \type real
+  N324, \field Vertex 108 Y-coordinate
+       \units m
+       \type real
+  N325, \field Vertex 108 Z-coordinate
+       \units m
+       \type real
+  N326, \field Vertex 109 X-coordinate
+       \units m
+       \type real
+  N327, \field Vertex 109 Y-coordinate
+       \units m
+       \type real
+  N328, \field Vertex 109 Z-coordinate
+       \units m
+       \type real
+  N329, \field Vertex 110 X-coordinate
+       \units m
+       \type real
+  N330, \field Vertex 110 Y-coordinate
+       \units m
+       \type real
+  N331, \field Vertex 110 Z-coordinate
+       \units m
+       \type real
+  N332, \field Vertex 111 X-coordinate
+       \units m
+       \type real
+  N333, \field Vertex 111 Y-coordinate
+       \units m
+       \type real
+  N334, \field Vertex 111 Z-coordinate
+       \units m
+       \type real
+  N335, \field Vertex 112 X-coordinate
+       \units m
+       \type real
+  N336, \field Vertex 112 Y-coordinate
+       \units m
+       \type real
+  N337, \field Vertex 112 Z-coordinate
+       \units m
+       \type real
+  N338, \field Vertex 113 X-coordinate
+       \units m
+       \type real
+  N339, \field Vertex 113 Y-coordinate
+       \units m
+       \type real
+  N340, \field Vertex 113 Z-coordinate
+       \units m
+       \type real
+  N341, \field Vertex 114 X-coordinate
+       \units m
+       \type real
+  N342, \field Vertex 114 Y-coordinate
+       \units m
+       \type real
+  N343, \field Vertex 114 Z-coordinate
+       \units m
+       \type real
+  N344, \field Vertex 115 X-coordinate
+       \units m
+       \type real
+  N345, \field Vertex 115 Y-coordinate
+       \units m
+       \type real
+  N346, \field Vertex 115 Z-coordinate
+       \units m
+       \type real
+  N347, \field Vertex 116 X-coordinate
+       \units m
+       \type real
+  N348, \field Vertex 116 Y-coordinate
+       \units m
+       \type real
+  N349, \field Vertex 116 Z-coordinate
+       \units m
+       \type real
+  N350, \field Vertex 117 X-coordinate
+       \units m
+       \type real
+  N351, \field Vertex 117 Y-coordinate
+       \units m
+       \type real
+  N352, \field Vertex 117 Z-coordinate
+       \units m
+       \type real
+  N353, \field Vertex 118 X-coordinate
+       \units m
+       \type real
+  N354, \field Vertex 118 Y-coordinate
+       \units m
+       \type real
+  N355, \field Vertex 118 Z-coordinate
+       \units m
+       \type real
+  N356, \field Vertex 119 X-coordinate
+       \units m
+       \type real
+  N357, \field Vertex 119 Y-coordinate
+       \units m
+       \type real
+  N358, \field Vertex 119 Z-coordinate
+       \units m
+       \type real
+  N359, \field Vertex 120 X-coordinate
+       \units m
+       \type real
+  N360, \field Vertex 120 Y-coordinate
+       \units m
+       \type real
+  N361; \field Vertex 120 Z-coordinate
+       \units m
+       \type real
+
+Shading:Overhang,
+      \memo Overhangs are usually flat shading surfaces that reference a window or door.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference AttachedShadingSurfNames
+       \reference AllShadingAndHTSurfNames
+       \reference AllShadingSurfNames
+  A2 , \field Window or Door Name
+       \required-field
+       \type object-list
+       \object-list SubSurfNames
+  N1,  \field Height above Window or Door
+       \units m
+  N2,  \field Tilt Angle from Window/Door
+       \units deg
+       \default 90
+       \minimum 0
+       \maximum 180
+  N3,  \field Left extension from Window/Door Width
+       \units m
+  N4,  \field Right extension from Window/Door Width
+       \note N3 + N4 + Window/Door Width is Overhang Length
+       \units m
+  N5;  \field Depth
+       \units m
+       \minimum 0
+
+Shading:Overhang:Projection,
+      \memo Overhangs are typically flat shading surfaces that reference a window or door.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference AttachedShadingSurfNames
+       \reference AllShadingAndHTSurfNames
+       \reference AllShadingSurfNames
+  A2 , \field Window or Door Name
+       \required-field
+       \type object-list
+       \object-list SubSurfNames
+  N1,  \field Height above Window or Door
+       \units m
+  N2,  \field Tilt Angle from Window/Door
+       \units deg
+       \default 90
+       \minimum 0
+       \maximum 180
+  N3,  \field Left extension from Window/Door Width
+       \units m
+  N4,  \field Right extension from Window/Door Width
+       \units m
+       \note N3 + N4 + Window/Door Width is Overhang Length
+  N5;  \field Depth as Fraction of Window/Door Height
+       \units dimensionless
+       \minimum 0
+
+Shading:Fin,
+      \memo Fins are usually shading surfaces that are perpendicular to a window or door.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference AttachedShadingSurfNames
+       \reference AllShadingAndHTSurfNames
+       \reference AllShadingSurfNames
+  A2 , \field Window or Door Name
+       \required-field
+       \type object-list
+       \object-list SubSurfNames
+  N1,  \field Left Extension from Window/Door
+       \units m
+  N2,  \field Left Distance Above Top of Window
+       \units m
+  N3,  \field Left Distance Below Bottom of Window
+       \units m
+       \note N2 + N3 + height of Window/Door is height of Fin
+  N4,  \field Left Tilt Angle from Window/Door
+       \units deg
+       \default 90
+       \minimum 0
+       \maximum 180
+  N5,  \field Left Depth
+       \units m
+       \minimum 0
+  N6,  \field Right Extension from Window/Door
+       \units m
+  N7,  \field Right Distance Above Top of Window
+       \units m
+  N8,  \field Right Distance Below Bottom of Window
+       \note N7 + N8 + height of Window/Door is height of Fin
+       \units m
+  N9,  \field Right Tilt Angle from Window/Door
+       \units deg
+       \default 90
+       \minimum 0
+       \maximum 180
+  N10; \field Right Depth
+       \units m
+       \minimum 0
+
+Shading:Fin:Projection,
+      \memo Fins are usually shading surfaces that are perpendicular to a window or door.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference AttachedShadingSurfNames
+       \reference AllShadingAndHTSurfNames
+       \reference AllShadingSurfNames
+  A2 , \field Window or Door Name
+       \required-field
+       \type object-list
+       \object-list SubSurfNames
+  N1,  \field Left Extension from Window/Door
+       \units m
+  N2,  \field Left Distance Above Top of Window
+       \units m
+  N3,  \field Left Distance Below Bottom of Window
+       \units m
+       \note N2 + N3 + height of Window/Door is height of Fin
+  N4,  \field Left Tilt Angle from Window/Door
+       \units deg
+       \default 90
+       \minimum 0
+       \maximum 180
+  N5,  \field Left Depth as Fraction of Window/Door Width
+       \units dimensionless
+       \minimum 0
+  N6,  \field Right Extension from Window/Door
+       \units m
+  N7,  \field Right Distance Above Top of Window
+       \units m
+  N8,  \field Right Distance Below Bottom of Window
+       \note N7 + N8 + height of Window/Door is height of Fin
+       \units m
+  N9,  \field Right Tilt Angle from Window/Door
+       \units deg
+       \default 90
+       \minimum 0
+       \maximum 180
+  N10; \field Right Depth as Fraction of Window/Door Width
+       \units dimensionless
+       \minimum 0
+
+Shading:Zone:Detailed,
+  \extensible:3 -- duplicate last set of x,y,z coordinates, renumbering please (and changing z terminator to , for all but last)
+       \memo used For fins, overhangs, elements that shade the building, are attached to the building
+       \memo but are not part of the heat transfer calculations
+       \format vertices
+       \min-fields 13
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference AttachedShadingSurfNames
+       \reference AllShadingAndHTSurfNames
+       \reference AllShadingSurfNames
+  A2 , \field Base Surface Name
+       \required-field
+       \type object-list
+       \object-list SurfaceNames
+  A3,  \field Transmittance Schedule Name
+       \note Transmittance schedule for the shading device, defaults to zero (always opaque)
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Number of Vertices
+       \note shown with 6 vertex coordinates -- extensible object
+       \autocalculatable
+       \default autocalculate
+       \minimum 3
+       \note vertices are given in GlobalGeometryRules coordinates -- if relative, all surface coordinates
+       \note are "relative" to the Zone Origin. if world, then building and zone origins are used
+       \note for some internal calculations, but all coordinates are given in an "absolute" system.
+  N2,  \field Vertex 1 X-coordinate
+       \begin-extensible
+       \required-field
+       \units m
+       \type real
+  N3 , \field Vertex 1 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N4 , \field Vertex 1 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N5,  \field Vertex 2 X-coordinate
+       \required-field
+       \units m
+       \type real
+  N6,  \field Vertex 2 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N7, \field Vertex 2 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N8, \field Vertex 3 X-coordinate
+       \required-field
+       \units m
+       \type real
+  N9,  \field Vertex 3 Y-coordinate
+       \required-field
+       \units m
+       \type real
+  N10, \field Vertex 3 Z-coordinate
+       \required-field
+       \units m
+       \type real
+  N11, \field Vertex 4 X-coordinate
+       \units m
+       \type real
+  N12, \field Vertex 4 Y-coordinate
+       \type real
+       \units m
+  N13, \field Vertex 4 Z-coordinate
+       \units m
+       \type real
+  N14, \field Vertex 5 X-coordinate
+       \units m
+       \type real
+  N15, \field Vertex 5 Y-coordinate
+       \type real
+       \units m
+  N16, \field Vertex 5 Z-coordinate
+       \units m
+       \type real
+  N17, \field Vertex 6 X-coordinate
+       \units m
+       \type real
+  N18, \field Vertex 6 Y-coordinate
+       \units m
+       \type real
+  N19, \field Vertex 6 Z-coordinate
+       \units m
+       \type real
+  N20, \field Vertex 7 X-coordinate
+       \units m
+       \type real
+  N21, \field Vertex 7 Y-coordinate
+       \units m
+       \type real
+  N22, \field Vertex 7 Z-coordinate
+       \units m
+       \type real
+  N23, \field Vertex 8 X-coordinate
+       \units m
+       \type real
+  N24, \field Vertex 8 Y-coordinate
+       \units m
+       \type real
+  N25, \field Vertex 8 Z-coordinate
+       \units m
+       \type real
+  N26, \field Vertex 9 X-coordinate
+       \units m
+       \type real
+  N27, \field Vertex 9 Y-coordinate
+       \units m
+       \type real
+  N28, \field Vertex 9 Z-coordinate
+       \units m
+       \type real
+  N29, \field Vertex 10 X-coordinate
+       \units m
+       \type real
+  N30, \field Vertex 10 Y-coordinate
+       \units m
+       \type real
+  N31, \field Vertex 10 Z-coordinate
+       \units m
+       \type real
+  N32, \field Vertex 11 X-coordinate
+       \units m
+       \type real
+  N33, \field Vertex 11 Y-coordinate
+       \units m
+       \type real
+  N34, \field Vertex 11 Z-coordinate
+       \units m
+       \type real
+  N35, \field Vertex 12 X-coordinate
+       \units m
+       \type real
+  N36, \field Vertex 12 Y-coordinate
+       \units m
+       \type real
+  N37, \field Vertex 12 Z-coordinate
+       \units m
+       \type real
+  N38, \field Vertex 13 X-coordinate
+       \units m
+       \type real
+  N39, \field Vertex 13 Y-coordinate
+       \units m
+       \type real
+  N40, \field Vertex 13 Z-coordinate
+       \units m
+       \type real
+  N41, \field Vertex 14 X-coordinate
+       \units m
+       \type real
+  N42, \field Vertex 14 Y-coordinate
+       \units m
+       \type real
+  N43, \field Vertex 14 Z-coordinate
+       \units m
+       \type real
+  N44, \field Vertex 15 X-coordinate
+       \units m
+       \type real
+  N45, \field Vertex 15 Y-coordinate
+       \units m
+       \type real
+  N46, \field Vertex 15 Z-coordinate
+       \units m
+       \type real
+  N47, \field Vertex 16 X-coordinate
+       \units m
+       \type real
+  N48, \field Vertex 16 Y-coordinate
+       \units m
+       \type real
+  N49, \field Vertex 16 Z-coordinate
+       \units m
+       \type real
+  N50, \field Vertex 17 X-coordinate
+       \units m
+       \type real
+  N51, \field Vertex 17 Y-coordinate
+       \units m
+       \type real
+  N52, \field Vertex 17 Z-coordinate
+       \units m
+       \type real
+  N53, \field Vertex 18 X-coordinate
+       \units m
+       \type real
+  N54, \field Vertex 18 Y-coordinate
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+       \units m
+       \type real
+  N336, \field Vertex 112 Y-coordinate
+       \units m
+       \type real
+  N337, \field Vertex 112 Z-coordinate
+       \units m
+       \type real
+  N338, \field Vertex 113 X-coordinate
+       \units m
+       \type real
+  N339, \field Vertex 113 Y-coordinate
+       \units m
+       \type real
+  N340, \field Vertex 113 Z-coordinate
+       \units m
+       \type real
+  N341, \field Vertex 114 X-coordinate
+       \units m
+       \type real
+  N342, \field Vertex 114 Y-coordinate
+       \units m
+       \type real
+  N343, \field Vertex 114 Z-coordinate
+       \units m
+       \type real
+  N344, \field Vertex 115 X-coordinate
+       \units m
+       \type real
+  N345, \field Vertex 115 Y-coordinate
+       \units m
+       \type real
+  N346, \field Vertex 115 Z-coordinate
+       \units m
+       \type real
+  N347, \field Vertex 116 X-coordinate
+       \units m
+       \type real
+  N348, \field Vertex 116 Y-coordinate
+       \units m
+       \type real
+  N349, \field Vertex 116 Z-coordinate
+       \units m
+       \type real
+  N350, \field Vertex 117 X-coordinate
+       \units m
+       \type real
+  N351, \field Vertex 117 Y-coordinate
+       \units m
+       \type real
+  N352, \field Vertex 117 Z-coordinate
+       \units m
+       \type real
+  N353, \field Vertex 118 X-coordinate
+       \units m
+       \type real
+  N354, \field Vertex 118 Y-coordinate
+       \units m
+       \type real
+  N355, \field Vertex 118 Z-coordinate
+       \units m
+       \type real
+  N356, \field Vertex 119 X-coordinate
+       \units m
+       \type real
+  N357, \field Vertex 119 Y-coordinate
+       \units m
+       \type real
+  N358, \field Vertex 119 Z-coordinate
+       \units m
+       \type real
+  N359, \field Vertex 120 X-coordinate
+       \units m
+       \type real
+  N360, \field Vertex 120 Y-coordinate
+       \units m
+       \type real
+  N361; \field Vertex 120 Z-coordinate
+       \units m
+       \type real
+
+ShadingProperty:Reflectance,
+       \min-fields 3
+       \memo If this object is not defined for a shading surface the default values
+       \memo listed in following fields will be used in the solar reflection calculation.
+  A1,  \field Shading Surface Name
+       \required-field
+       \type object-list
+       \object-list AllShadingSurfNames
+  N1,  \field Diffuse Solar Reflectance of Unglazed Part of Shading Surface
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.2
+  N2,  \field Diffuse Visible Reflectance of Unglazed Part of Shading Surface
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.2
+  N3,  \field Fraction of Shading Surface That Is Glazed
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  A2;  \field Glazing Construction Name
+       \note Required if Fraction of Shading Surface That Is Glazed > 0.0
+
+\group Advanced Construction, Surface, Zone Concepts
+
+SurfaceProperty:HeatTransferAlgorithm,
+       \memo Determines which Heat Balance Algorithm will be used for a specific surface
+       \memo Allows selectively overriding the global setting in HeatBalanceAlgorithm
+       \memo CTF (Conduction Transfer Functions),
+       \memo EMPD (Effective Moisture Penetration Depth with Conduction Transfer Functions).
+       \memo Advanced/Research Usage: CondFD (Conduction Finite Difference)
+       \memo Advanced/Research Usage: HAMT (Combined Heat And Moisture Finite Element)
+       \min-fields 2
+  A1 , \field Surface Name
+       \required-field
+       \type object-list
+       \object-list SurfaceNames
+  A2 ; \field Algorithm
+       \type choice
+       \key ConductionTransferFunction
+       \key MoisturePenetrationDepthConductionTransferFunction
+       \key ConductionFiniteDifference
+       \key CombinedHeatAndMoistureFiniteElement
+       \default ConductionTransferFunction
+
+SurfaceProperty:HeatTransferAlgorithm:MultipleSurface,
+       \memo Determines which Heat Balance Algorithm will be used for a group of surface types
+       \memo Allows selectively overriding the global setting in HeatBalanceAlgorithm
+       \memo CTF (Conduction Transfer Functions),
+       \memo EMPD (Effective Moisture Penetration Depth with Conduction Transfer Functions).
+       \memo Advanced/Research Usage: CondFD (Conduction Finite Difference)
+       \memo Advanced/Research Usage: HAMT (Combined Heat And Moisture Finite Element)
+       \min-fields 3
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Surface Type
+       \required-field
+       \type choice
+       \key AllExteriorSurfaces
+       \key AllExteriorWalls
+       \key AllExteriorRoofs
+       \key AllExteriorFloors
+       \key AllGroundContactSurfaces
+       \key AllInteriorSurfaces
+       \key AllInteriorWalls
+       \key AllInteriorCeilings
+       \key AllInteriorFloors
+  A3 ; \field Algorithm
+       \type choice
+       \key ConductionTransferFunction
+       \key MoisturePenetrationDepthConductionTransferFunction
+       \key ConductionFiniteDifference
+       \key CombinedHeatAndMoistureFiniteElement
+       \default ConductionTransferFunction
+
+SurfaceProperty:HeatTransferAlgorithm:SurfaceList,
+       \min-fields 3
+       \extensible:1
+       \memo Determines which Heat Balance Algorithm will be used for a list of surfaces
+       \memo Allows selectively overriding the global setting in HeatBalanceAlgorithm
+       \memo CTF (Conduction Transfer Functions),
+       \memo EMPD (Effective Moisture Penetration Depth with Conduction Transfer Functions).
+       \memo Advanced/Research Usage: CondFD (Conduction Finite Difference)
+       \memo Advanced/Research Usage: HAMT (Combined Heat And Moisture Finite Element)
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Algorithm
+       \type choice
+       \key ConductionTransferFunction
+       \key MoisturePenetrationDepthConductionTransferFunction
+       \key ConductionFiniteDifference
+       \key CombinedHeatAndMoistureFiniteElement
+       \default ConductionTransferFunction
+  A3 , \field Surface Name 1
+       \begin-extensible
+       \required-field
+       \type object-list
+       \object-list SurfaceNames
+  A4 , \field Surface Name 2
+       \type object-list
+       \object-list SurfaceNames
+  A5 , \field Surface Name 3
+       \type object-list
+       \object-list SurfaceNames
+  A6 , \field Surface Name 4
+       \type object-list
+       \object-list SurfaceNames
+  A7 , \field Surface Name 5
+       \type object-list
+       \object-list SurfaceNames
+  A8 ; \field Surface Name 6
+       \type object-list
+       \object-list SurfaceNames
+
+SurfaceProperty:HeatTransferAlgorithm:Construction,
+       \memo Determines which Heat Balance Algorithm will be used for surfaces that have a specific type of construction
+       \memo Allows selectively overriding the global setting in HeatBalanceAlgorithm
+       \memo CTF (Conduction Transfer Functions),
+       \memo EMPD (Effective Moisture Penetration Depth with Conduction Transfer Functions).
+       \memo Advanced/Research Usage: CondFD (Conduction Finite Difference)
+       \memo Advanced/Research Usage: HAMT (Combined Heat And Moisture Finite Element)
+       \min-fields 3
+  A1 , \field Name
+       \type alpha
+  A2 , \field Algorithm
+       \type choice
+       \key ConductionTransferFunction
+       \key MoisturePenetrationDepthConductionTransferFunction
+       \key ConductionFiniteDifference
+       \key CombinedHeatAndMoistureFiniteElement
+       \default ConductionTransferFunction
+  A3 ; \field Construction Name
+       \required-field
+       \type object-list
+       \object-list ConstructionNames
+
+SurfaceProperty:HeatBalanceSourceTerm,
+       \memo Allows an additional heat source term to be added to the inside or outside surface boundary.
+       \memo A heat source can be added to either or both the inside and outside of the same surface.
+       \min-fields 3
+  A1 , \field Surface Name
+       \required-field
+       \type object-list
+       \object-list SurfaceNames
+  A2 , \field Inside Face Heat Source Term Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note The value of this schedule is the source term value for the inside face of this surface
+       \note If this field is left blank, no inside surface source term will be applied.
+       \note The schedule values are heat rate per surface area (W/m2), when positive
+       \note schedule values indicate heat gain and negative values indicates loss.
+  A3 ; \field Outside Face Heat Source Term Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note The value of this schedule is the source term value for the outside face of this surface
+       \note If this field is left blank, no outside surface source term will be applied.
+       \note The schedule values are heat rate per surface area (W/m2), when positive
+       \note schedule values indicate heat gain and negative values indicates loss.
+
+SurfaceControl:MovableInsulation,
+      \memo Exterior or Interior Insulation on opaque surfaces
+  A1, \field Insulation Type
+      \required-field
+      \type choice
+      \key Outside
+      \key Inside
+  A2, \field Surface Name
+      \required-field
+      \type object-list
+      \object-list SurfaceNames
+  A3, \field Material Name
+      \required-field
+      \type object-list
+      \object-list MaterialName
+  A4; \field Schedule Name
+      \required-field
+      \type object-list
+      \object-list ScheduleNames
+
+SurfaceProperty:OtherSideCoefficients,
+      \memo This object sets the other side conditions for a surface in a variety of ways.
+      \min-fields 8
+  A1, \field Name
+      \required-field
+      \reference OutFaceEnvNames
+  N1, \field Combined Convective/Radiative Film Coefficient
+      \units W/m2-K
+      \required-field
+      \type real
+      \note if>0, this field becomes the exterior convective/radiative film coefficient
+      \note and the other fields are used to calculate the outdoor air temperature
+      \note then exterior surface temperature based on outdoor air and specified coefficient
+      \note if<=0, then remaining fields calculate the outside surface temperature
+      \note The following fields are used in the equation:
+      \note OtherSideTemp=N2*N3 + N4*OutdoorDry-bulb + N5*GroundTemp + N6*WindSpeed*OutdoorDry-bulb + N7*TempZone + N9*TempPrev
+  N2, \field Constant Temperature
+      \units C
+      \type real
+      \default 0
+      \note This parameter will be overwritten by the values from the Constant Temperature Schedule Name (below) if one is present
+  N3, \field Constant Temperature Coefficient
+      \note This coefficient is used even with a Schedule. It should normally be 1.0 in that case.
+      \note This field is ignored if Sinusoidal Variation of Constant Temperature Coefficient = Yes.
+      \default 1
+  N4, \field External Dry-Bulb Temperature Coefficient
+      \type real
+      \default 0
+  N5, \field Ground Temperature Coefficient
+      \type real
+      \default 0
+  N6, \field Wind Speed Coefficient
+      \type real
+      \default 0
+  N7, \field Zone Air Temperature Coefficient
+      \type real
+      \default 0
+  A2, \field Constant Temperature Schedule Name
+      \note Name of schedule for values of constant temperature.
+      \note Schedule values replace any value specified in the field Constant Temperature.
+      \type object-list
+      \object-list ScheduleNames
+  A3, \field Sinusoidal Variation of Constant Temperature Coefficient
+      \note Optionally used to vary Constant Temperature Coefficient with unitary sine wave
+      \type choice
+      \key Yes
+      \key No
+      \default No
+  N8, \field Period of Sinusoidal Variation
+      \note Use with sinusoidal variation to define the time period
+      \type real
+      \units hr
+      \default 24
+      \minimum> 0
+  N9, \field Previous Other Side Temperature Coefficient
+      \note This coefficient multiplies the other side temperature result from the
+      \note previous zone timestep
+      \type real
+      \default 0
+ N10, \field Minimum Other Side Temperature Limit
+      \note This field specifies a lower limit for the other side temperature result.
+      \note Blank indicates no limit
+      \type real
+      \units C
+ N11; \field Maximum Other Side Temperature Limit
+      \note This field specifies an upper limit for the other side temperature result.
+      \note Blank indicates no limit
+      \type real
+      \units C
+
+SurfaceProperty:OtherSideConditionsModel,
+      \memo This object sets up modifying the other side conditions for a surface from other model results.
+  A1, \field Name
+      \required-field
+      \reference OSCMNames
+      \reference OutFaceEnvNames
+  A2; \field Type of Modeling
+      \type choice
+      \key GapConvectionRadiation
+      \key UndergroundPipingSystemSurface
+      \key GroundCoupledSurface
+      \key ConvectiveUnderwater
+      \note GapConvectionRadiation provides boundary conditions for convection
+      \note  and linearized thermal radiation across a gap or cavity
+      \note  on the other side of the surface that are modeled separately.
+      \note UndergroundPipingSystemSurface provides boundary conditions for
+      \note  surfaces in contact with PipingSystem:Underground domains
+      \note GroundCoupledSurface provides boundary conditions for surfaces
+      \note  in contact with GroundDomain objects
+      \note ConvectiveUnderwater provides a connection between a surface and
+      \note  an underwater boundary condition defined using a
+      \note  SurfaceProperty:Underwater object
+      \default GapConvectionRadiation
+
+SurfaceProperty:Underwater,
+       \memo This object sets up a convective water boundary condition for a surface
+       \memo The free stream temperature and velocity are scheduled. If the free stream
+       \memo velocity is zero, the surface will naturally convect with the surrounding water.
+       \min-fields 3
+  A1,  \field Name
+       \required-field
+       \reference SurfacePropUnderWaterNames
+       \type alpha
+  N1,  \field Distance from Surface Centroid to Leading Edge of Boundary Layer
+       \note This is the distance from the leading edge of the boundary layer development
+       \note to the centroid of the surface of interest. The value of this field is used
+       \note as the distance in the Reynolds number for evaluating the local convection coefficient.
+       \type real
+       \units m
+       \required-field
+  A2,  \field Free Stream Water Temperature Schedule
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \units C
+  A3;  \field Free Stream Water Velocity Schedule
+       \type object-list
+       \object-list ScheduleNames
+       \units m/s
+
+Foundation:Kiva,
+       \memo Refined definition of the foundation surface construction used to
+       \memo inform two-dimensional heat transfer calculated using the Kiva
+       \memo ground heat transfer methodology.
+       \extensible:4
+  A1,  \field Name
+       \required-field
+       \type alpha
+       \reference OutFaceEnvNames
+  N1,  \field Initial Indoor Air Temperature
+       \note Indoor air temperature used for Kiva initialization (prior to warmup period)
+       \note If left blank, indoor air temperature will be determined based on zone setpoints
+       \units C
+       \type real
+  A2,  \field Interior Horizontal Insulation Material Name
+       \type object-list
+       \object-list MaterialName
+  N2,  \field Interior Horizontal Insulation Depth
+       \note Distance from the slab bottom to the top of interior horizontal
+       \note insulation
+       \units m
+       \type real
+       \minimum 0.0
+       \default 0.0
+  N3,  \field Interior Horizontal Insulation Width
+       \note Extent of insulation as measured from the wall interior
+       \units m
+       \type real
+       \minimum> 0.0
+  A3,  \field Interior Vertical Insulation Material Name
+       \type object-list
+       \object-list MaterialName
+  N4,  \field Interior Vertical Insulation Depth
+       \note Extent of insulation as measured from the wall top to the bottom
+       \note edge of the interior vertical insulation
+       \units m
+       \type real
+       \minimum> 0.0
+  A4,  \field Exterior Horizontal Insulation Material Name
+       \type object-list
+       \object-list MaterialName
+  N5,  \field Exterior Horizontal Insulation Depth
+       \note Distance from the exterior grade to the top of exterior horizontal
+       \note insulation
+       \units m
+       \type real
+       \minimum 0.0
+  N6,  \field Exterior Horizontal Insulation Width
+       \note Extent of insulation as measured from the wall exterior
+       \units m
+       \type real
+       \minimum 0.0
+       \default 0.0
+  A5,  \field Exterior Vertical Insulation Material Name
+       \type object-list
+       \object-list MaterialName
+  N7,  \field Exterior Vertical Insulation Depth
+       \note Extent of insulation as measured from the wall top to the bottom
+       \note edge of the exterior vertical insulation
+       \units m
+       \type real
+       \minimum> 0.0
+  N8,  \field Wall Height Above Grade
+       \note Distance from the exterior grade to the wall top
+       \units m
+       \type real
+       \minimum 0.0
+       \default 0.2
+  N9,  \field Wall Depth Below Slab
+       \note Distance from the slab bottom to the bottom of the foundation wall
+       \units m
+       \type real
+       \minimum 0.0
+       \default 0.0
+  A6,  \field Footing Wall Construction Name
+       \note Defines the below-grade surface construction for slabs. Required
+       \note if foundation wall is not exposed to the zone.
+       \type object-list
+       \object-list ConstructionNames
+  A7,  \field Footing Material Name
+       \type object-list
+       \object-list MaterialName
+  N10,  \field Footing Depth
+       \note Top-to-bottom dimension of the footing (not to be confused with its
+       \note depth in the ground). The width of the footing is defined by the
+       \note material's thickness.
+       \units m
+       \type real
+       \minimum> 0.0
+       \default 0.3
+  A8,  \field Custom Block 1 Material Name
+       \begin-extensible
+       \type object-list
+       \object-list MaterialName
+  N11, \field Custom Block 1 Depth
+       \note Top-to-bottom dimension of the block downward.
+       \units m
+       \type real
+       \minimum> 0.0
+  N12, \field Custom Block 1 X Position
+       \note Position outward (+) or inward (-) relative to the foundation wall
+       \note interior
+       \units m
+       \type real
+  N13, \field Custom Block 1 Z Position
+       \note Position downward (+) relative to the foundation wall top
+       \units m
+       \type real
+  A9,  \field Custom Block 2 Material Name
+       \type object-list
+       \object-list MaterialName
+  N14, \field Custom Block 2 Depth
+       \units m
+       \type real
+       \minimum> 0.0
+  N15, \field Custom Block 2 X Position
+       \units m
+       \type real
+  N16, \field Custom Block 2 Z Position
+       \units m
+       \type real
+  A10, \field Custom Block 3 Material Name
+       \type object-list
+       \object-list MaterialName
+  N17, \field Custom Block 3 Depth
+       \units m
+       \type real
+       \minimum> 0.0
+  N18, \field Custom Block 3 X Position
+       \units m
+       \type real
+  N19, \field Custom Block 3 Z Position
+       \units m
+       \type real
+  A11, \field Custom Block 4 Material Name
+       \type object-list
+       \object-list MaterialName
+  N20, \field Custom Block 4 Depth
+       \units m
+       \type real
+       \minimum> 0.0
+  N21, \field Custom Block 4 X Position
+       \units m
+       \type real
+  N22, \field Custom Block 4 Z Position
+       \units m
+       \type real
+  A12, \field Custom Block 5 Material Name
+       \type object-list
+       \object-list MaterialName
+  N23, \field Custom Block 5 Depth
+       \units m
+       \type real
+       \minimum> 0.0
+  N24, \field Custom Block 5 X Position
+       \units m
+       \type real
+  N25, \field Custom Block 5 Z Position
+       \units m
+       \type real
+  A13, \field Custom Block 6 Material Name
+       \type object-list
+       \object-list MaterialName
+  N26, \field Custom Block 6 Depth
+       \units m
+       \type real
+       \minimum> 0.0
+  N27, \field Custom Block 6 X Position
+       \units m
+       \type real
+  N28, \field Custom Block 6 Z Position
+       \units m
+       \type real
+  A14, \field Custom Block 7 Material Name
+       \type object-list
+       \object-list MaterialName
+  N29, \field Custom Block 7 Depth
+       \units m
+       \type real
+       \minimum> 0.0
+  N30, \field Custom Block 7 X Position
+       \units m
+       \type real
+  N31, \field Custom Block 7 Z Position
+       \units m
+       \type real
+  A15, \field Custom Block 8 Material Name
+       \type object-list
+       \object-list MaterialName
+  N32, \field Custom Block 8 Depth
+       \units m
+       \type real
+       \minimum> 0.0
+  N33, \field Custom Block 8 X Position
+       \units m
+       \type real
+  N34, \field Custom Block 8 Z Position
+       \units m
+       \type real
+  A16, \field Custom Block 9 Material Name
+       \type object-list
+       \object-list MaterialName
+  N35, \field Custom Block 9 Depth
+       \units m
+       \type real
+       \minimum> 0.0
+  N36, \field Custom Block 9 X Position
+       \units m
+       \type real
+  N37, \field Custom Block 9 Z Position
+       \units m
+       \type real
+  A17, \field Custom Block 10 Material Name
+       \type object-list
+       \object-list MaterialName
+  N38, \field Custom Block 10 Depth
+       \units m
+       \type real
+  N39, \field Custom Block 10 X Position
+       \units m
+       \type real
+       \minimum> 0.0
+  N40; \field Custom Block 10 Z Position
+       \units m
+       \type real
+
+Foundation:Kiva:Settings,
+       \memo Settings applied across all Kiva foundation calculations.
+       \memo Object is not required. If not defined, defaults will be applied.
+  N1,  \field Soil Conductivity
+       \type real
+       \default 1.73
+       \units W/m-K
+       \minimum> 0.0
+  N2,  \field Soil Density
+       \type real
+       \default 1842
+       \units kg/m3
+       \minimum> 0.0
+  N3,  \field Soil Specific Heat
+       \type real
+       \default 419
+       \units J/kg-K
+       \minimum> 0.0
+  N4,  \field Ground Solar Absorptivity
+       \type real
+       \default 0.9
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+  N5,  \field Ground Thermal Absorptivity
+       \type real
+       \default 0.9
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+  N6,  \field Ground Surface Roughness
+       \type real
+       \default 0.03
+       \units m
+       \minimum> 0.0
+  N7,  \field Far-Field Width
+       \type real
+       \default 40
+       \units m
+       \minimum> 0.0
+  A1,  \field Deep-Ground Boundary Condition
+       \type choice
+       \key ZeroFlux
+       \key GroundWater
+       \key Autoselect
+       \default Autoselect
+  N8,  \field Deep-Ground Depth
+       \type real
+       \units m
+       \minimum> 0.0
+       \autocalculatable
+       \default autocalculate
+  N9,  \field Minimum Cell Dimension
+       \type real
+       \default 0.02
+       \units m
+       \minimum> 0.0
+  N10, \field Maximum Cell Growth Coefficient
+       \type real
+       \default 1.5
+       \units dimensionless
+       \minimum 1.0
+  A2;  \field Simulation Timestep
+       \type choice
+       \key Hourly
+       \key Timestep
+       \default Hourly
+
+SurfaceProperty:ExposedFoundationPerimeter,
+       \memo Defines the perimeter of a foundation floor that is exposed to the
+       \memo exterior environment through the floor. User may either define the
+       \memo total exposed perimeter, fraction of perimeter exposed or
+       \memo individually define which segments of the floor surface perimeter
+       \memo are exposed.
+       \extensible:1
+  A1 , \field Surface Name
+       \required-field
+       \type object-list
+       \object-list FloorSurfaceNames
+  A2 , \field Exposed Perimeter Calculation Method
+       \note Choices: TotalExposedPerimeter => total exposed perimeter in meters
+       \note ExposedPerimeterFraction => fraction of total perimeter that is
+       \note exposed. Value * Fraction = Total exposed perimeter
+       \note BySegment => define whether the segment between each set of
+       \note consecutive vertices of the floor surface is exposed.
+       \note SUM(exposed segement lengths) = Total exposed perimeter
+       \required-field
+       \type choice
+       \key TotalExposedPerimeter
+       \key ExposedPerimeterFraction
+       \key BySegment
+  N1 , \field Total Exposed Perimeter
+       \type real
+       \units m
+       \minimum 0.0
+  N2 , \field Exposed Perimeter Fraction
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  A3 , \field Surface Segment 1 Exposed
+       \note Surface Segment N is the perimeter between the Nth and (N+1)th
+       \note vertices
+       \begin-extensible
+       \type choice
+       \default Yes
+       \key Yes
+       \key No
+  A4 , \field Surface Segment 2 Exposed
+       \type choice
+       \key Yes
+       \key No
+  A5 , \field Surface Segment 3 Exposed
+       \type choice
+       \key Yes
+       \key No
+  A6 , \field Surface Segment 4 Exposed
+       \type choice
+       \key Yes
+       \key No
+  A7 , \field Surface Segment 5 Exposed
+       \type choice
+       \key Yes
+       \key No
+  A8 , \field Surface Segment 6 Exposed
+       \type choice
+       \key Yes
+       \key No
+  A9 , \field Surface Segment 7 Exposed
+       \type choice
+       \key Yes
+       \key No
+  A10, \field Surface Segment 8 Exposed
+       \type choice
+       \key Yes
+       \key No
+  A11, \field Surface Segment 9 Exposed
+       \type choice
+       \key Yes
+       \key No
+  A12; \field Surface Segment 10 Exposed
+       \type choice
+       \key Yes
+       \key No
+
+SurfaceConvectionAlgorithm:Inside:AdaptiveModelSelections,
+       \unique-object
+       \memo Options to change the individual convection model equations for dynamic selection when using AdaptiveConvectiongAlgorithm
+       \memo This object is only needed to make changes to the default model selections for any or all of the surface categories.
+       \memo This object is for the inside face, the side of the surface facing a thermal zone.
+       \min-fields 91
+  A1 , \field Name
+       \type alpha
+  A2 , \field Simple Buoyancy Vertical Wall Equation Source
+       \note Applies to zone with no HVAC or when HVAC is off
+       \note This is for vertical walls
+       \type choice
+       \default FohannoPolidoriVerticalWall
+       \key ASHRAEVerticalWall
+       \key AlamdariHammondVerticalWall
+       \key KhalifaEq3WallAwayFromHeat
+       \key KhalifaEq6NonHeatedWalls
+       \key FohannoPolidoriVerticalWall
+       \key ISO15099Windows
+       \key UserCurve
+  A3 , \field Simple Buoyancy Vertical Wall User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A4 , \field Simple Buoyancy Stable Horizontal Equation Source
+       \note Applies to zone with no HVAC or when HVAC is off
+       \note This is for horizontal surfaces with heat flow directed for stable thermal stratification
+       \type choice
+       \default AlamdariHammondStableHorizontal
+       \key WaltonStableHorizontalOrTilt
+       \key AlamdariHammondStableHorizontal
+       \key UserCurve
+  A5 , \field Simple Buoyancy Stable Horizontal Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A6 , \field Simple Buoyancy Unstable Horizontal Equation Source
+       \note Applies to zone with no HVAC or when HVAC is off
+        \note This is for passive horizontal surfaces with heat flow for unstable thermal stratification
+       \type choice
+       \default AlamdariHammondUnstableHorizontal
+       \key WaltonUnstableHorizontalOrTilt
+       \key AlamdariHammondUnstableHorizontal
+       \key UserCurve
+  A7 , \field Simple Buoyancy Unstable Horizontal Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A8 , \field Simple Buoyancy Stable Tilted Equation Source
+       \note Applies to zone with no HVAC or when HVAC is off
+       \note This is for tilted surfaces with heat flow for stable thermal stratification
+       \type choice
+       \default WaltonStableHorizontalOrTilt
+       \key WaltonStableHorizontalOrTilt
+       \key AlamdariHammondStableHorizontal
+       \key UserCurve
+  A9 , \field Simple Buoyancy Stable Tilted Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A10 , \field Simple Buoyancy Unstable Tilted Equation Source
+       \note Applies to zone with no HVAC or when HVAC is off
+       \note This is for tilted surfaces with heat flow for unstable thermal stratification
+       \type choice
+       \default WaltonUnstableHorizontalOrTilt
+       \key WaltonUnstableHorizontalOrTilt
+       \key AlamdariHammondUnstableHorizontal
+       \key UserCurve
+  A11, \field Simple Buoyancy Unstable Tilted Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A12, \field Simple Buoyancy Windows Equation Source
+       \note Applies to zone with no HVAC or when HVAC is off
+       \note This is for all window surfaces
+       \type choice
+       \default ISO15099Windows
+       \key ASHRAEVerticalWall
+       \key AlamdariHammondVerticalWall
+       \key FohannoPolidoriVerticalWall
+       \key KaradagChilledCeiling
+       \key ISO15099Windows
+       \key UserCurve
+  A13, \field Simple Buoyancy Windows Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A14, \field Floor Heat Ceiling Cool Vertical Wall Equation Source
+       \note Applies to zone with in-floor heating and/or in-ceiling cooling
+       \note This is for vertical walls
+       \type choice
+       \default KhalifaEq3WallAwayFromHeat
+       \key ASHRAEVerticalWall
+       \key AlamdariHammondVerticalWall
+       \key KhalifaEq3WallAwayFromHeat
+       \key FohannoPolidoriVerticalWall
+       \key ISO15099Windows
+       \key UserCurve
+  A15, \field Floor Heat Ceiling Cool Vertical Wall Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A16, \field Floor Heat Ceiling Cool Stable Horizontal Equation Source
+       \note Applies to zone with in-floor heating and/or in-ceiling cooling
+       \note This is for passive horizontal surfaces with heat flow for stable thermal stratification
+       \type choice
+       \default AlamdariHammondStableHorizontal
+       \key WaltonStableHorizontalOrTilt
+       \key AlamdariHammondStableHorizontal
+       \key UserCurve
+  A17, \field Floor Heat Ceiling Cool Stable Horizontal Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A18, \field Floor Heat Ceiling Cool Unstable Horizontal Equation Source
+       \note Applies to zone with in-floor heating and/or in-ceiling cooling
+       \note This is for passive horizontal surfaces with heat flow for unstable thermal stratification
+       \type choice
+       \default KhalifaEq4CeilingAwayFromHeat
+       \key WaltonUnstableHorizontalOrTilt
+       \key AlamdariHammondUnstableHorizontal
+       \key KhalifaEq4CeilingAwayFromHeat
+       \key UserCurve
+  A19, \field Floor Heat Ceiling Cool Unstable Horizontal Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A20, \field Floor Heat Ceiling Cool Heated Floor Equation Source
+       \note Applies to zone with in-floor heating and/or in-ceiling cooling
+       \note This is for a floor with active heating elements
+       \type choice
+       \default AwbiHattonHeatedFloor
+       \key WaltonUnstableHorizontalOrTilt
+       \key AlamdariHammondUnstableHorizontal
+       \key AwbiHattonHeatedFloor
+       \key UserCurve
+  A21, \field Floor Heat Ceiling Cool Heated Floor Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A22, \field Floor Heat Ceiling Cool Chilled Ceiling Equation Source
+       \note Applies to zone with in-floor heating and/or in-ceiling cooling
+       \note This is for a ceiling with active cooling elements
+       \type choice
+       \default KaradagChilledCeiling
+       \key WaltonUnstableHorizontalOrTilt
+       \key AlamdariHammondUnstableHorizontal
+       \key KaradagChilledCeiling
+       \key UserCurve
+  A23, \field Floor Heat Ceiling Cool Chilled Ceiling Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A24, \field Floor Heat Ceiling Cool Stable Tilted Equation Source
+       \note Applies to zone with in-floor heating and/or in-ceiling cooling
+       \note This is for tilted surfaces with heat flow for stable thermal stratification
+       \type choice
+       \default WaltonStableHorizontalOrTilt
+       \key WaltonStableHorizontalOrTilt
+       \key AlamdariHammondStableHorizontal
+       \key ISO15099Windows
+       \key UserCurve
+  A25, \field Floor Heat Ceiling Cool Stable Tilted Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A26, \field Floor Heat Ceiling Cool Unstable Tilted Equation Source
+       \note Applies to zone with in-floor heating and/or in-ceiling cooling
+       \note This is for tilted surfaces with heat flow for unstable thermal stratification
+       \type choice
+       \default WaltonUnstableHorizontalOrTilt
+       \key WaltonUnstableHorizontalOrTilt
+       \key AlamdariHammondUnstableHorizontal
+       \key ISO15099Windows
+       \key UserCurve
+  A27, \field Floor Heat Ceiling Cool Unstable Tilted Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A28, \field Floor Heat Ceiling Cool Window Equation Source
+       \note Applies to zone with in-floor heating and/or in-ceiling cooling
+       \note This is for all window surfaces
+       \type choice
+       \default ISO15099Windows
+       \key ASHRAEVerticalWall
+       \key AlamdariHammondVerticalWall
+       \key ISO15099Windows
+       \key UserCurve
+  A29, \field Floor Heat Ceiling Cool Window Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A30, \field Wall Panel Heating Vertical Wall Equation Source
+       \note Applies to zone with in-wall panel heating
+       \note This is for vertical walls that are not actively heated
+       \type choice
+       \default KhalifaEq6NonHeatedWalls
+       \key ASHRAEVerticalWall
+       \key AlamdariHammondVerticalWall
+       \key KhalifaEq6NonHeatedWalls
+       \key FohannoPolidoriVerticalWall
+       \key ISO15099Windows
+       \key UserCurve
+  A31, \field Wall Panel Heating Vertical Wall Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A32, \field Wall Panel Heating Heated Wall Equation Source
+       \note Applies to zone with in-wall panel heating
+       \note This is for vertical walls that are being actively heated
+       \type choice
+       \default AwbiHattonHeatedWall
+       \key ASHRAEVerticalWall
+       \key AlamdariHammondVerticalWall
+       \key KhalifaEq5WallNearHeat
+       \key AwbiHattonHeatedWall
+       \key FohannoPolidoriVerticalWall
+       \key ISO15099Windows
+       \key UserCurve
+  A33, \field Wall Panel Heating Heated Wall Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A34, \field Wall Panel Heating Stable Horizontal Equation Source
+       \note Applies to zone with in-wall panel heating
+       \note This is for horizontal surfaces with heat flow directed for stable thermal stratification
+       \type choice
+       \default AlamdariHammondStableHorizontal
+       \key WaltonStableHorizontalOrTilt
+       \key AlamdariHammondStableHorizontal
+       \key UserCurve
+  A35, \field Wall Panel Heating Stable Horizontal Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A36, \field Wall Panel Heating Unstable Horizontal Equation Source
+       \note Applies to zone with in-wall panel heating
+       \note This is for horizontal surfaces with heat flow directed for unstable thermal stratification
+       \type choice
+       \default KhalifaEq7Ceiling
+       \key ASHRAEVerticalWall
+       \key WaltonUnstableHorizontalOrTilt
+       \key AlamdariHammondUnstableHorizontal
+       \key KhalifaEq7Ceiling
+       \key KaradagChilledCeiling
+       \key UserCurve
+  A37, \field Wall Panel Heating Unstable Horizontal Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A38, \field Wall Panel Heating Stable Tilted Equation Source
+       \note Applies to zone with in-wall panel heating
+       \note This is for tilted surfaces with heat flow for stable thermal stratification
+       \type choice
+       \default WaltonStableHorizontalOrTilt
+       \key WaltonStableHorizontalOrTilt
+       \key AlamdariHammondStableHorizontal
+       \key ISO15099Windows
+       \key UserCurve
+  A39, \field Wall Panel Heating Stable Tilted Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A40, \field Wall Panel Heating Unstable Tilted Equation Source
+       \note Applies to zone with in-wall panel heating
+       \note This is for tilted surfaces with heat flow for unstable thermal stratification
+       \type choice
+       \default WaltonUnstableHorizontalOrTilt
+       \key WaltonUnstableHorizontalOrTilt
+       \key AlamdariHammondUnstableHorizontal
+       \key ISO15099Windows
+       \key UserCurve
+  A41, \field Wall Panel Heating Unstable Tilted Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A42, \field Wall Panel Heating Window Equation Source
+       \note Applies to zone with in-wall panel heating
+       \note This is for all window surfaces
+       \type choice
+       \default ISO15099Windows
+       \key ASHRAEVerticalWall
+       \key AlamdariHammondVerticalWall
+       \key FohannoPolidoriVerticalWall
+       \key ISO15099Windows
+       \key UserCurve
+  A43, \field Wall Panel Heating Window Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A44, \field Convective Zone Heater Vertical Wall Equation Source
+       \note Applies to zone with convective heater
+       \note This is for vertical walls not directly affected by heater
+       \type choice
+       \default FohannoPolidoriVerticalWall
+       \key ASHRAEVerticalWall
+       \key AlamdariHammondVerticalWall
+       \key KhalifaEq3WallAwayFromHeat
+       \key KhalifaEq6NonHeatedWalls
+       \key FohannoPolidoriVerticalWall
+       \key ISO15099Windows
+       \key UserCurve
+  A45, \field Convective Zone Heater Vertical Wall Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A46, \field Convective Zone Heater Vertical Walls Near Heater Equation Source
+       \note Applies to zone with convective heater
+       \note This is for vertical walls that are directly affected by heater
+       \note Walls are considered "near" when listed in field set for Fraction of Radiant Energy to Surface
+       \type choice
+       \default KhalifaEq5WallNearHeat
+       \key ASHRAEVerticalWall
+       \key AlamdariHammondVerticalWall
+       \key KhalifaEq5WallNearHeat
+       \key AwbiHattonHeatedWall
+       \key FohannoPolidoriVerticalWall
+       \key ISO15099Windows
+       \key UserCurve
+  A47, \field Convective Zone Heater Vertical Walls Near Heater Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A48, \field Convective Zone Heater Stable Horizontal Equation Source
+       \note Applies to zone with convective heater
+       \note This is for horizontal surfaces with heat flow directed for stable thermal stratification
+       \type choice
+       \default AlamdariHammondStableHorizontal
+       \key WaltonStableHorizontalOrTilt
+       \key AlamdariHammondStableHorizontal
+       \key UserCurve
+  A49, \field Convective Zone Heater Stable Horizontal Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A50, \field Convective Zone Heater Unstable Horizontal Equation Source
+       \note Applies to zone with convective heater
+       \note This is for horizontal surfaces with heat flow directed for unstable thermal stratification
+       \type choice
+       \default KhalifaEq7Ceiling
+       \key WaltonUnstableHorizontalOrTilt
+       \key AlamdariHammondUnstableHorizontal
+       \key KhalifaEq4CeilingAwayFromHeat
+       \key KhalifaEq7Ceiling
+       \key UserCurve
+  A51, \field Convective Zone Heater Unstable Horizontal Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A52, \field Convective Zone Heater Stable Tilted Equation Source
+       \note Applies to zone with convective heater
+       \note This is for tilted surfaces with heat flow for stable thermal stratification
+       \type choice
+       \default WaltonStableHorizontalOrTilt
+       \key WaltonStableHorizontalOrTilt
+       \key AlamdariHammondStableHorizontal
+       \key UserCurve
+  A53, \field Convective Zone Heater Stable Tilted Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A54, \field Convective Zone Heater Unstable Tilted Equation Source
+       \note Applies to zone with convective heater
+       \note This is for tilted surfaces with heat flow for unstable thermal stratification
+       \type choice
+       \default WaltonUnstableHorizontalOrTilt
+       \key WaltonUnstableHorizontalOrTilt
+       \key AlamdariHammondUnstableHorizontal
+       \key UserCurve
+  A55, \field Convective Zone Heater Unstable Tilted Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A56, \field Convective Zone Heater Windows Equation Source
+       \note Applies to zone with convective heater
+       \note This is for all window surfaces
+       \type choice
+       \default ISO15099Windows
+       \key ASHRAEVerticalWall
+       \key AlamdariHammondVerticalWall
+       \key KhalifaEq3WallAwayFromHeat
+       \key FohannoPolidoriVerticalWall
+       \key ISO15099Windows
+       \key UserCurve
+  A57, \field Convective Zone Heater Windows Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A58, \field Central Air Diffuser Wall Equation Source
+       \note Applies to zone with mechanical forced central air with diffusers
+       \note This is for all wall surfaces
+       \type choice
+       \default GoldsteinNovoselacCeilingDiffuserWalls
+       \key ASHRAEVerticalWall
+       \key FisherPedersenCeilingDiffuserWalls
+       \key AlamdariHammondVerticalWall
+       \key BeausoleilMorrisonMixedAssistedWall
+       \key BeausoleilMorrisonMixedOpposingWall
+       \key FohannoPolidoriVerticalWall
+       \key ISO15099Windows
+       \key GoldsteinNovoselacCeilingDiffuserWalls
+       \key UserCurve
+  A59, \field Central Air Diffuser Wall Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A60, \field Central Air Diffuser Ceiling Equation Source
+       \note Applies to zone with mechanical forced central air with diffusers
+       \note This is for all ceiling surfaces
+       \type choice
+       \default FisherPedersenCeilingDiffuserCeiling
+       \key FisherPedersenCeilingDiffuserCeiling
+       \key BeausoleilMorrisonMixedStableCeiling
+       \key BeausoleilMorrisonMixedUnstableCeiling
+       \key UserCurve
+  A61, \field Central Air Diffuser Ceiling Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A62, \field Central Air Diffuser Floor Equation Source
+       \note Applies to zone with mechanical forced central air with diffusers
+       \note This is for all floor surfaces
+       \type choice
+       \default GoldsteinNovoselacCeilingDiffuserFloor
+       \key FisherPedersenCeilingDiffuserFloor
+       \key BeausoleilMorrisonMixedStableFloor
+       \key BeausoleilMorrisonMixedUnstableFloor
+       \key GoldsteinNovoselacCeilingDiffuserFloor
+       \key UserCurve
+  A63, \field Central Air Diffuser Floor Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A64, \field Central Air Diffuser Window Equation Source
+       \note Applies to zone with mechanical forced central air with diffusers
+       \note This is for all window surfaces
+       \type choice
+       \default GoldsteinNovoselacCeilingDiffuserWindow
+       \key ASHRAEVerticalWall
+       \key FisherPedersenCeilingDiffuserWalls
+       \key BeausoleilMorrisonMixedAssistedWall
+       \key BeausoleilMorrisonMixedOpposingWall
+       \key FohannoPolidoriVerticalWall
+       \key AlamdariHammondVerticalWall
+       \key ISO15099Windows
+       \key GoldsteinNovoselacCeilingDiffuserWindow
+       \key UserCurve
+  A65, \field Central Air Diffuser Window Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A66, \field Mechanical Zone Fan Circulation Vertical Wall Equation Source
+       \note reference choice fields
+       \type choice
+       \default KhalifaEq3WallAwayFromHeat
+       \key KhalifaEq3WallAwayFromHeat
+       \key ASHRAEVerticalWall
+       \key FisherPedersenCeilingDiffuserWalls
+       \key AlamdariHammondVerticalWall
+       \key BeausoleilMorrisonMixedAssistedWall
+       \key BeausoleilMorrisonMixedOpposingWall
+       \key FohannoPolidoriVerticalWall
+       \key ISO15099Windows
+       \key GoldsteinNovoselacCeilingDiffuserWalls
+       \key UserCurve
+  A67, \field Mechanical Zone Fan Circulation Vertical Wall Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A68, \field Mechanical Zone Fan Circulation Stable Horizontal Equation Source
+       \note reference choice fields
+       \type choice
+       \default AlamdariHammondStableHorizontal
+       \key WaltonStableHorizontalOrTilt
+       \key AlamdariHammondStableHorizontal
+       \key UserCurve
+  A69, \field Mechanical Zone Fan Circulation Stable Horizontal Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A70, \field Mechanical Zone Fan Circulation Unstable Horizontal Equation Source
+       \note reference choice fields
+       \type choice
+       \default KhalifaEq4CeilingAwayFromHeat
+       \key KhalifaEq4CeilingAwayFromHeat
+       \key WaltonUnstableHorizontalOrTilt
+       \key AlamdariHammondUnstableHorizontal
+       \key UserCurve
+  A71, \field Mechanical Zone Fan Circulation Unstable Horizontal Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A72, \field Mechanical Zone Fan Circulation Stable Tilted Equation Source
+       \note reference choice fields
+       \type choice
+       \default WaltonStableHorizontalOrTilt
+       \key WaltonStableHorizontalOrTilt
+       \key UserCurve
+  A73, \field Mechanical Zone Fan Circulation Stable Tilted Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A74, \field Mechanical Zone Fan Circulation Unstable Tilted Equation Source
+       \note reference choice fields
+       \type choice
+       \default WaltonUnstableHorizontalOrTilt
+       \key WaltonUnstableHorizontalOrTilt
+       \key AlamdariHammondUnstableHorizontal
+       \key UserCurve
+  A75, \field Mechanical Zone Fan Circulation Unstable Tilted Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A76, \field Mechanical Zone Fan Circulation Window Equation Source
+       \note reference choice fields
+       \type choice
+       \default ISO15099Windows
+       \key ASHRAEVerticalWall
+       \key AlamdariHammondVerticalWall
+       \key FohannoPolidoriVerticalWall
+       \key ISO15099Windows
+       \key GoldsteinNovoselacCeilingDiffuserWindow
+       \key UserCurve
+  A77, \field Mechanical Zone Fan Circulation Window Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A78, \field Mixed Regime Buoyancy Assisting Flow on Walls Equation Source
+       \note reference choice fields
+       \type choice
+       \default BeausoleilMorrisonMixedAssistedWall
+       \key BeausoleilMorrisonMixedAssistedWall
+       \key AlamdariHammondVerticalWall
+       \key FohannoPolidoriVerticalWall
+       \key ASHRAEVerticalWall
+       \key FisherPedersenCeilingDiffuserWalls
+       \key GoldsteinNovoselacCeilingDiffuserWalls
+       \key UserCurve
+  A79, \field Mixed Regime Buoyancy Assisting Flow on Walls Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A80, \field Mixed Regime Buoyancy Opposing Flow on Walls Equation Source
+       \note reference choice fields
+       \type choice
+       \default BeausoleilMorrisonMixedOpposingWall
+       \key BeausoleilMorrisonMixedOpposingWall
+       \key AlamdariHammondVerticalWall
+       \key FohannoPolidoriVerticalWall
+       \key ASHRAEVerticalWall
+       \key FisherPedersenCeilingDiffuserWalls
+       \key GoldsteinNovoselacCeilingDiffuserWalls
+       \key UserCurve
+  A81, \field Mixed Regime Buoyancy Opposing Flow on Walls Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A82, \field Mixed Regime Stable Floor Equation Source
+       \note reference choice fields
+       \type choice
+       \default BeausoleilMorrisonMixedStableFloor
+       \key BeausoleilMorrisonMixedStableFloor
+       \key WaltonStableHorizontalOrTilt
+       \key AlamdariHammondStableHorizontal
+       \key UserCurve
+  A83, \field Mixed Regime Stable Floor Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A84, \field Mixed Regime Unstable Floor Equation Source
+       \note reference choice fields
+       \type choice
+       \default BeausoleilMorrisonMixedUnstableFloor
+       \key BeausoleilMorrisonMixedUnstableFloor
+       \key WaltonUnstableHorizontalOrTilt
+       \key AlamdariHammondUnstableHorizontal
+       \key UserCurve
+  A85, \field Mixed Regime Unstable Floor Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A86, \field Mixed Regime Stable Ceiling Equation Source
+       \note reference choice fields
+       \type choice
+       \default BeausoleilMorrisonMixedStableCeiling
+       \key BeausoleilMorrisonMixedStableCeiling
+       \key WaltonStableHorizontalOrTilt
+       \key AlamdariHammondStableHorizontal
+       \key UserCurve
+  A87, \field Mixed Regime Stable Ceiling Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A88, \field Mixed Regime Unstable Ceiling Equation Source
+       \note reference choice fields
+       \type choice
+       \default BeausoleilMorrisonMixedUnstableCeiling
+       \key BeausoleilMorrisonMixedUnstableCeiling
+       \key WaltonUnstableHorizontalOrTilt
+       \key AlamdariHammondUnstableHorizontal
+       \key UserCurve
+  A89, \field Mixed Regime Unstable Ceiling Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+  A90, \field Mixed Regime Window Equation Source
+       \note reference choice fields
+       \type choice
+       \default GoldsteinNovoselacCeilingDiffuserWindow
+       \key GoldsteinNovoselacCeilingDiffuserWindow
+       \key ISO15099Windows
+       \key UserCurve
+  A91; \field Mixed Regime Window Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Inside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionInsideModels
+
+SurfaceConvectionAlgorithm:Outside:AdaptiveModelSelections,
+       \unique-object
+       \memo Options to change the individual convection model equations for dynamic selection when using AdaptiveConvectiongAlgorithm
+       \memo This object is only needed to make changes to the default model selections for any or all of the surface categories.
+       \memo This object is for the outside face, the side of the surface facing away from the thermal zone.
+       \min-fields 13
+  A1 , \field Name
+       \type alpha
+  A2 , \field Wind Convection Windward Vertical Wall Equation Source
+       \type choice
+       \default TARPWindward
+       \key SimpleCombined
+       \key TARPWindward
+       \key MoWiTTWindward
+       \key DOE2Windward
+       \key NusseltJurges
+       \key McAdams
+       \key Mitchell
+       \key BlockenWindward
+       \key EmmelVertical
+       \key UserCurve
+  A3 , \field Wind Convection Windward Equation Vertical Wall User Curve Name
+       \note The SurfaceConvectionAlgorithm:Outside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionOutsideModels
+  A4 , \field Wind Convection Leeward Vertical Wall Equation Source
+       \type choice
+       \default TARPLeeward
+       \key SimpleCombined
+       \key TARPLeeward
+       \key MoWiTTLeeward
+       \key DOE2Leeward
+       \key EmmelVertical
+       \key NusseltJurges
+       \key McAdams
+       \key Mitchell
+       \key UserCurve
+  A5 , \field Wind Convection Leeward Vertical Wall Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Outside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionOutsideModels
+  A6 , \field Wind Convection Horizontal Roof Equation Source
+       \type choice
+       \default ClearRoof
+       \key SimpleCombined
+       \key TARPWindward
+       \key MoWiTTWindward
+       \key DOE2Windward
+       \key NusseltJurges
+       \key McAdams
+       \key Mitchell
+       \key BlockenWindward
+       \key EmmelRoof
+       \key ClearRoof
+       \key UserCurve
+  A7 , \field Wind Convection Horizontal Roof User Curve Name
+       \note The SurfaceConvectionAlgorithm:Outside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionOutsideModels
+  A8 , \field Natural Convection Vertical Wall Equation Source
+       \note This is for vertical walls
+       \type choice
+       \default ASHRAEVerticalWall
+       \key ASHRAEVerticalWall
+       \key AlamdariHammondVerticalWall
+       \key FohannoPolidoriVerticalWall
+       \key ISO15099Windows
+       \key UserCurve
+       \key None
+  A9 , \field Natural Convection Vertical Wall Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Outside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionOutsideModels
+  A10, \field Natural Convection Stable Horizontal Equation Source
+       \note This is for horizontal surfaces with heat flow directed for stable thermal stratification
+       \type choice
+       \default WaltonStableHorizontalOrTilt
+       \key WaltonStableHorizontalOrTilt
+       \key AlamdariHammondStableHorizontal
+       \key UserCurve
+       \key None
+  A11, \field Natural Convection Stable Horizontal Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Outside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionOutsideModels
+  A12, \field Natural Convection Unstable Horizontal Equation Source
+       \type choice
+       \default WaltonUnstableHorizontalOrTilt
+       \key WaltonUnstableHorizontalOrTilt
+       \key AlamdariHammondUnstableHorizontal
+       \key UserCurve
+       \key None
+  A13; \field Natural Convection Unstable Horizontal Equation User Curve Name
+       \note The SurfaceConvectionAlgorithm:Outside:UserCurve named in this field is used when the previous field is set to UserCurve
+       \type object-list
+       \object-list UserConvectionOutsideModels
+
+SurfaceConvectionAlgorithm:Inside:UserCurve,
+       \memo Used to describe a custom model equation for surface convection heat transfer coefficient
+       \memo If more than one curve is referenced they are all used and added together.
+  A1 , \field Name
+       \reference UserConvectionInsideModels
+       \reference UserConvectionModels
+  A2 , \field Reference Temperature for Convection Heat Transfer
+       \note Controls which temperature is differenced from surface temperature when using the Hc value
+       \type choice
+       \key MeanAirTemperature
+       \key AdjacentAirTemperature
+       \key SupplyAirTemperature
+  A3 , \field Hc Function of Temperature Difference Curve Name
+       \note  Curve's "x" is absolute value of delta-T (Surface temperature minus reference temperature, (C))
+       \type object-list
+       \object-list UnivariateFunctions
+  A4 , \field Hc Function of Temperature Difference Divided by Height Curve Name
+       \note Curve's "x" is absolute value of delta-T/Height (Surface temp minus Air temp)/(vertical length scale), (C/m)
+       \note when used for an inside face the vertical length scale is the zone's interior height
+       \type object-list
+       \object-list UnivariateFunctions
+  A5 , \field Hc Function of Air Change Rate Curve Name
+       \note Curve's "x" is mechanical ACH (Air Changes per hour from mechanical air system), (1/hr)
+       \type object-list
+       \object-list UnivariateFunctions
+  A6 ; \field Hc Function of Air System Volume Flow Rate Divided by Zone Perimeter Length Curve Name
+       \note Curve's "x" is mechanical system air flow rate (m3/s) divided by zone's length along
+       \note exterior walls (m).
+       \type object-list
+       \object-list UnivariateFunctions
+
+SurfaceConvectionAlgorithm:Outside:UserCurve,
+       \memo Used to describe a custom model equation for surface convection heat transfer coefficient
+       \memo If more than one curve is referenced they are all used and added together.
+  A1 , \field Name
+       \reference UserConvectionOutsideModels
+       \reference UserConvectionModels
+  A2 , \field Wind Speed Type for Curve
+       \type choice
+       \key WeatherFile
+       \key HeightAdjust
+       \key ParallelComponent
+       \key ParallelComponentHeightAdjust
+       \default HeightAdjust
+  A3 , \field Hf Function of Wind Speed Curve Name
+       \note Curve's "x" is wind speed of the type determined in the previous field (m/s)
+       \type object-list
+       \object-list UnivariateFunctions
+  A4 , \field Hn Function of Temperature Difference Curve Name
+       \note  Curve's "x" is absolute value of delta-T (Surface temperature minus air temperature, (C))
+       \type object-list
+       \object-list UnivariateFunctions
+  A5 ; \field Hn Function of Temperature Difference Divided by Height Curve Name
+       \note Curve's "x" is absolute value of delta-T/Height (Surface temp minus Air temp)/(vertical length scale), (C/m)
+       \note when used for an outside face the vertical length scale is the exterior facade's overall height
+       \type object-list
+       \object-list UnivariateFunctions
+
+SurfaceProperty:ConvectionCoefficients,
+      \memo Allow user settable interior and/or exterior convection coefficients.
+      \memo Note that some other factors may limit the lower bounds for these values, such as
+      \memo for windows, the interior convection coefficient must be >.28,
+      \memo for trombe wall algorithm selection (zone), the interior convection coefficient must be >.1
+      \memo for TARP interior convection, the lower limit is also .1
+      \memo Minimum and maximum limits are set in HeatBalanceAlgorithm object.
+      \memo Defaults in HeatBalanceAlgorithm object are [.1,1000].
+  A1, \field Surface Name
+      \required-field
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  A2, \field Convection Coefficient 1 Location
+      \required-field
+      \type choice
+      \key Outside
+      \key Inside
+  A3, \field Convection Coefficient 1 Type
+      \required-field
+      \type choice
+      \key Value
+      \key Schedule
+      \key UserCurve
+      \key Simple
+      \key SimpleCombined
+      \key TARP
+      \key DOE-2
+      \key MoWitt
+      \key AdaptiveConvectionAlgorithm
+      \key ASHRAEVerticalWall
+      \key ASTMC1340
+      \key WaltonUnstableHorizontalOrTilt
+      \key WaltonStableHorizontalOrTilt
+      \key FisherPedersenCeilingDiffuserWalls
+      \key FisherPedersenCeilingDiffuserCeiling
+      \key FisherPedersenCeilingDiffuserFloor
+      \key AlamdariHammondStableHorizontal
+      \key AlamdariHammondUnstableHorizontal
+      \key AlamdariHammondVerticalWall
+      \key KhalifaEq3WallAwayFromHeat
+      \key KhalifaEq4CeilingAwayFromHeat
+      \key KhalifaEq5WallNearHeat
+      \key KhalifaEq6NonHeatedWalls
+      \key KhalifaEq7Ceiling
+      \key AwbiHattonHeatedFloor
+      \key AwbiHattonHeatedWall
+      \key BeausoleilMorrisonMixedAssistedWall
+      \key BeausoleilMorrisonMixedOpposingWall
+      \key BeausoleilMorrisonMixedStableFloor
+      \key BeausoleilMorrisonMixedUnstableFloor
+      \key BeausoleilMorrisonMixedStableCeiling
+      \key BeausoleilMorrisonMixedUnstableCeiling
+      \key FohannoPolidoriVerticalWall
+      \key KaradagChilledCeiling
+      \key ISO15099Windows
+      \key GoldsteinNovoselacCeilingDiffuserWindow
+      \key GoldsteinNovoselacCeilingDiffuserWalls
+      \key GoldsteinNovoselacCeilingDiffuserFloor
+      \key NusseltJurges
+      \key McAdams
+      \key Mitchell
+      \key EmmelVertical
+      \key EmmelRoof
+      \key ClearRoof
+  N1, \field Convection Coefficient 1
+      \note used if Convection Type=Value, min and max limits are set in HeatBalanceAlgorithm object.
+      \note Default limits are Minimum >= 0.1 and Maximum <= 1000
+      \units W/m2-K
+  A4, \field Convection Coefficient 1 Schedule Name
+      \note used if Convection Type=Schedule,  min and max limits are set in HeatBalanceAlgorithm object.
+      \note Default limits are Minimum >= 0.1 and Maximum <= 1000
+      \type object-list
+      \object-list ScheduleNames
+  A5, \field Convection Coefficient 1 User Curve Name
+      \note used if Convection Type = UserCurve
+      \type object-list
+      \object-list UserConvectionModels
+  A6, \field Convection Coefficient 2 Location
+      \type choice
+      \key Outside
+      \key Inside
+  A7, \field Convection Coefficient 2 Type
+      \type choice
+      \key Value
+      \key Schedule
+      \key UserCurve
+      \key Simple
+      \key SimpleCombined
+      \key TARP
+      \key DOE-2
+      \key MoWitt
+      \key AdaptiveConvectionAlgorithm
+      \key ASHRAEVerticalWall
+      \key ASTMC1340
+      \key WaltonUnstableHorizontalOrTilt
+      \key WaltonStableHorizontalOrTilt
+      \key FisherPedersenCeilingDiffuserWalls
+      \key FisherPedersenCeilingDiffuserCeiling
+      \key FisherPedersenCeilingDiffuserFloor
+      \key AlamdariHammondStableHorizontal
+      \key AlamdariHammondUnstableHorizontal
+      \key AlamdariHammondVerticalWall
+      \key KhalifaEq3WallAwayFromHeat
+      \key KhalifaEq4CeilingAwayFromHeat
+      \key KhalifaEq5WallNearHeat
+      \key KhalifaEq6NonHeatedWalls
+      \key KhalifaEq7Ceiling
+      \key AwbiHattonHeatedFloor
+      \key AwbiHattonHeatedWall
+      \key BeausoleilMorrisonMixedAssistedWall
+      \key BeausoleilMorrisonMixedOpposingWall
+      \key BeausoleilMorrisonMixedStableFloor
+      \key BeausoleilMorrisonMixedUnstableFloor
+      \key BeausoleilMorrisonMixedStableCeiling
+      \key BeausoleilMorrisonMixedUnstableCeiling
+      \key FohannoPolidoriVerticalWall
+      \key KaradagChilledCeiling
+      \key ISO15099Windows
+      \key GoldsteinNovoselacCeilingDiffuserWindow
+      \key GoldsteinNovoselacCeilingDiffuserWalls
+      \key GoldsteinNovoselacCeilingDiffuserFloor
+      \key NusseltJurges
+      \key McAdams
+      \key Mitchell
+      \key EmmelVertical
+      \key EmmelRoof
+      \key ClearRoof
+  N2, \field Convection Coefficient 2
+      \note used if Convection Type=Value, min and max limits are set in HeatBalanceAlgorithm object.
+      \note Default limits are Minimum >= 0.1 and Maximum <= 1000
+      \default .1
+      \units W/m2-K
+  A8, \field Convection Coefficient 2 Schedule Name
+      \note used if Convection Type=Schedule,  min and max limits are set in HeatBalanceAlgorithm object.
+      \note Default limits are Minimum >= 0.1 and Maximum <= 1000
+      \type object-list
+      \object-list ScheduleNames
+  A9; \field Convection Coefficient 2 User Curve Name
+      \note used if Convection Type = UserCurve
+      \type object-list
+      \object-list UserConvectionModels
+
+SurfaceProperty:ConvectionCoefficients:MultipleSurface,
+      \memo Allow user settable interior and/or exterior convection coefficients.
+      \memo Note that some other factors may limit the lower bounds for these values, such as
+      \memo for windows, the interior convection coefficient must be >.28,
+      \memo for trombe wall algorithm selection (zone), the interior convection coefficient must be >.1
+      \memo for TARP interior convection, the lower limit is also .1
+      \memo Minimum and maximum limits are set in HeatBalanceAlgorithm object.
+      \memo Defaults in HeatBalanceAlgorithm object are [.1,1000].
+  A1, \field Surface Type
+      \required-field
+      \type choice
+      \key AllExteriorSurfaces
+      \key AllExteriorWindows
+      \key AllExteriorWalls
+      \key AllExteriorRoofs
+      \key AllExteriorFloors
+      \key AllInteriorSurfaces
+      \key AllInteriorWalls
+      \key AllInteriorWindows
+      \key AllInteriorCeilings
+      \key AllInteriorFloors
+  A2, \field Convection Coefficient 1 Location
+      \required-field
+      \type choice
+      \key Outside
+      \key Inside
+  A3, \field Convection Coefficient 1 Type
+      \required-field
+      \type choice
+      \key Value
+      \key Schedule
+      \key Simple
+      \key SimpleCombined
+      \key TARP
+      \key DOE-2
+      \key MoWitt
+      \key AdaptiveConvectionAlgorithm
+      \key ASHRAEVerticalWall
+      \key ASTMC1340
+      \key WaltonUnstableHorizontalOrTilt
+      \key WaltonStableHorizontalOrTilt
+      \key FisherPedersenCeilingDiffuserWalls
+      \key FisherPedersenCeilingDiffuserCeiling
+      \key FisherPedersenCeilingDiffuserFloor
+      \key AlamdariHammondStableHorizontal
+      \key AlamdariHammondUnstableHorizontal
+      \key AlamdariHammondVerticalWall
+      \key KhalifaEq3WallAwayFromHeat
+      \key KhalifaEq4CeilingAwayFromHeat
+      \key KhalifaEq5WallNearHeat
+      \key KhalifaEq6NonHeatedWalls
+      \key KhalifaEq7Ceiling
+      \key AwbiHattonHeatedFloor
+      \key AwbiHattonHeatedWall
+      \key BeausoleilMorrisonMixedAssistedWall
+      \key BeausoleilMorrisonMixedOpposingWall
+      \key BeausoleilMorrisonMixedStableFloor
+      \key BeausoleilMorrisonMixedUnstableFloor
+      \key BeausoleilMorrisonMixedStableCeiling
+      \key BeausoleilMorrisonMixedUnstableCeiling
+      \key FohannoPolidoriVerticalWall
+      \key KaradagChilledCeiling
+      \key ISO15099Windows
+      \key GoldsteinNovoselacCeilingDiffuserWindow
+      \key GoldsteinNovoselacCeilingDiffuserWalls
+      \key GoldsteinNovoselacCeilingDiffuserFloor
+      \key NusseltJurges
+      \key McAdams
+      \key Mitchell
+      \key BlockenWindard
+      \key EmmelVertical
+      \key EmmelRoof
+      \key ClearRoof
+      \key UserCurve
+  N1, \field Convection Coefficient 1
+      \note used if Convection Type=Value, min and max limits are set in HeatBalanceAlgorithm object.
+      \note Default limits are Minimum >= 0.1 and Maximum <= 1000
+      \units W/m2-K
+  A4, \field Convection Coefficient 1 Schedule Name
+      \note used if Convection Type=Schedule,  min and max limits are set in HeatBalanceAlgorithm object.
+      \note Default limits are Minimum >= 0.1 and Maximum <= 1000
+      \type object-list
+      \object-list ScheduleNames
+  A5, \field Convection Coefficient 1 User Curve Name
+      \note used if Convection Type = UserCurve
+      \type object-list
+      \object-list UserConvectionModels
+  A6, \field Convection Coefficient 2 Location
+      \type choice
+      \key Outside
+      \key Inside
+  A7, \field Convection Coefficient 2 Type
+      \type choice
+      \key Value
+      \key Schedule
+      \key Simple
+      \key SimpleCombined
+      \key TARP
+      \key DOE-2
+      \key MoWitt
+      \key AdaptiveConvectionAlgorithm
+      \key ASHRAEVerticalWall
+      \key ASTMC1340
+      \key WaltonUnstableHorizontalOrTilt
+      \key WaltonStableHorizontalOrTilt
+      \key FisherPedersenCeilingDiffuserWalls
+      \key FisherPedersenCeilingDiffuserCeiling
+      \key FisherPedersenCeilingDiffuserFloor
+      \key AlamdariHammondStableHorizontal
+      \key AlamdariHammondUnstableHorizontal
+      \key AlamdariHammondVerticalWall
+      \key KhalifaEq3WallAwayFromHeat
+      \key KhalifaEq4CeilingAwayFromHeat
+      \key KhalifaEq5WallNearHeat
+      \key KhalifaEq6NonHeatedWalls
+      \key KhalifaEq7Ceiling
+      \key AwbiHattonHeatedFloor
+      \key AwbiHattonHeatedWall
+      \key BeausoleilMorrisonMixedAssistedWall
+      \key BeausoleilMorrisonMixedOpposingWall
+      \key BeausoleilMorrisonMixedStableFloor
+      \key BeausoleilMorrisonMixedUnstableFloor
+      \key BeausoleilMorrisonMixedStableCeiling
+      \key BeausoleilMorrisonMixedUnstableCeiling
+      \key FohannoPolidoriVerticalWall
+      \key KaradagChilledCeiling
+      \key ISO15099Windows
+      \key GoldsteinNovoselacCeilingDiffuserWindow
+      \key GoldsteinNovoselacCeilingDiffuserWalls
+      \key GoldsteinNovoselacCeilingDiffuserFloor
+      \key NusseltJurges
+      \key McAdams
+      \key Mitchell
+      \key BlockenWindard
+      \key EmmelVertical
+      \key EmmelRoof
+      \key ClearRoof
+      \key UserCurve
+  N2, \field Convection Coefficient 2
+      \note used if Convection Type=Value, min and max limits are set in HeatBalanceAlgorithm object.
+      \note Default limits are Minimum >= 0.1 and Maximum <= 1000
+      \default .1
+      \units W/m2-K
+  A8, \field Convection Coefficient 2 Schedule Name
+      \note used if Convection Type=Schedule,  min and max limits are set in HeatBalanceAlgorithm object.
+      \note Default limits are Minimum >= 0.1 and Maximum <= 1000
+      \type object-list
+      \object-list ScheduleNames
+  A9; \field Convection Coefficient 2 User Curve Name
+      \note used if Convection Type = UserCurve
+      \type object-list
+      \object-list UserConvectionModels
+
+SurfaceProperties:VaporCoefficients,
+      \memo The interior and external vapor transfer coefficients.
+      \memo Normally these value are calculated using the heat convection coefficient values.
+      \memo Use this object to used fixed constant values.
+      \memo Units are kg/Pa.s.m2
+      \memo This will only work with the CombinedHeatAndMoistureFiniteElement algorithm for surfaces.
+      \memo Other algorithms will ignore these coefficients
+      \min-fields 4
+  A1, \field Surface Name
+      \required-field
+      \type object-list
+      \object-list SurfaceNames
+  A2, \field Constant External Vapor Transfer Coefficient
+      \type choice
+      \key Yes
+      \key No
+      \default No
+  N1, \field External Vapor Coefficient Value
+      \units kg/Pa-s-m2
+      \default 0
+      \minimum 0.0
+  A3, \field Constant Internal vapor Transfer Coefficient
+      \type choice
+      \key Yes
+      \key No
+      \default No
+  N2; \field Internal Vapor Coefficient Value
+      \units kg/Pa-s-m2
+      \default 0
+      \minimum 0.0
+
+SurfaceProperty:ExteriorNaturalVentedCavity,
+       \memo Used to describe the decoupled layer, or baffle, and the characteristics of the cavity
+       \memo and openings for naturally ventilated exterior surfaces. This object is also used in
+       \memo conjunction with the OtherSideConditionsModel.
+       \extensible:1 - repeat last field, remembering to remove ; from "inner" fields.
+  A1,  \field Name
+       \required-field
+       \type alpha
+  A2,  \field Boundary Conditions Model Name
+       \note Enter the name of a SurfaceProperty:OtherSideConditionsModel object
+       \required-field
+       \type object-list
+       \object-list OSCMNames
+  N1,  \field Area Fraction of Openings
+       \type real
+       \minimum> 0
+       \maximum 1.0
+       \units dimensionless
+  N2,  \field Thermal Emissivity of Exterior Baffle Material
+       \type real
+       \minimum 0
+       \maximum 1
+       \units dimensionless
+  N3,  \field Solar Absorbtivity of Exterior Baffle
+       \type real
+       \minimum 0
+       \maximum 1
+       \units dimensionless
+  N4, \field Height Scale for Buoyancy-Driven Ventilation
+       \type real
+       \units m
+       \minimum> 0.0
+  N5,  \field Effective Thickness of Cavity Behind Exterior Baffle
+       \type real
+       \minimum> 0.
+       \units m
+       \note if corrugated, use average depth
+  N6,  \field Ratio of Actual Surface Area to Projected Surface Area
+       \type real
+       \note this parameter is used to help account for corrugations in the collector
+       \default 1.0
+       \minimum 0.8
+       \maximum 2.0
+       \units dimensionless
+  A3,  \field Roughness of Exterior Surface
+       \required-field
+       \type choice
+       \key VeryRough
+       \key Rough
+       \key MediumRough
+       \key MediumSmooth
+       \key Smooth
+       \key VerySmooth
+  N7,  \field Effectiveness for Perforations with Respect to Wind
+       \type real
+       \units dimensionless
+       \default 0.25
+       \minimum> 0
+       \maximum 1.5
+  N8,  \field Discharge Coefficient for Openings with Respect to Buoyancy Driven Flow
+       \type real
+       \units dimensionless
+       \default 0.65
+       \minimum> 0.0
+       \maximum 1.5
+  A4,  \field Surface 1 Name
+       \begin-extensible
+       \required-field
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A5,  \field Surface 2 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A6,  \field Surface 3 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A7,  \field Surface 4 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A8,  \field Surface 5 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A9,  \field Surface 6 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A10,  \field Surface 7 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A11,  \field Surface 8 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A12,  \field Surface 9 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A13;  \field Surface 10 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+
+SurfaceProperty:SolarIncidentInside,
+       \memo Used to provide incident solar radiation on the inside of the surface. Reference surface-construction pair
+       \memo and if that pair is used in a simulation, then program will use value provided in schedule instead of calculating it.
+  A1,  \field Name
+       \required-field
+  A2,  \field Surface Name
+       \required-field
+       \type object-list
+       \object-list SurfaceNames
+  A3,  \field Construction Name
+       \required-field
+       \type object-list
+       \object-list ConstructionNames
+  A4;  \field Inside Surface Incident Sun Solar Radiation Schedule Name
+       \note Values in schedule are expected to be in W/m2
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+
+SurfaceProperty:LocalEnvironment,
+       \min-fields 3
+       \memo This object defines the local environment properties of an exterior surface.
+       \memo One or more environment properties have to be defined and linked to the exterior surface.
+   A1, \field Name
+       \required-field
+       \type alpha
+       \reference SurfaceLocalEnvironmentNames
+   A2, \field Exterior Surface Name
+       \type object-list
+       \object-list SurfaceNames
+       \note Enter the name of an exterior surface object
+   A3, \field External Shading Fraction Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Enter the name of a Schedule object
+   A4, \field Surrounding Surfaces Object Name
+       \type object-list
+       \object-list SurroundingSurfacesNames
+       \note Enter the name of a SurfaceProperty:SurroundingSurfaces object
+   A5; \field Outdoor Air Node Name
+       \type object-list
+       \object-list OutdoorAirNodeNames
+       \note Enter the name of an OutdoorAir:Node object
+
+ZoneProperty:LocalEnvironment,
+       \min-fields 3
+       \memo This object defines the local environment properties of a zone object.
+       \memo A corresponding outdoor air node should be defined and linked to the zone object.
+   A1, \field Name
+       \required-field
+       \type alpha
+       \reference ZoneLocalEnvironmentNames
+   A2, \field Zone Name
+       \type object-list
+       \object-list ZoneNames
+       \note Enter the name of a zone object
+   A3; \field Outdoor Air Node Name
+       \type object-list
+       \object-list OutdoorAirNodeNames
+       \note Enter the name of an OutdoorAir:Node object
+
+SurfaceProperty:SurroundingSurfaces,
+       \min-fields 8
+       \memo This object defines a list of surrounding surfaces for an exterior surface.
+       \extensible:3 -- duplicate last set of surrounding surface properties (the last three fields), remembering to remove ; from "inner" fields.
+   A1, \field Name
+       \required-field
+       \type alpha
+       \reference SurroundingSurfacesNames
+   N1, \field Sky View Factor
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.5
+       \note optional
+   A2, \field Sky Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values are real numbers, -100.0 to 100.0, units C
+       \note optional
+   N2, \field Ground View Factor
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.5
+       \note optional
+   A3, \field Ground Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values are real numbers, -100.0 to 100.0, units C
+       \note optional
+   A4, \field Surrounding Surface 1 Name
+       \begin-extensible
+       \required-field
+       \type alpha
+   N3, \field Surrounding Surface 1 View Factor
+       \required-field
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+   A5, \field Surrounding Surface 1 Temperature Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values are real numbers, -100.0 to 100.0, units C
+   A6, \field Surrounding Surface 2 Name
+       \type alpha
+   N4, \field Surrounding Surface 2 View Factor
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+   A7, \field Surrounding Surface 2 Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values are real numbers, -100.0 to 100.0, units C
+   A8, \field Surrounding Surface 3 Name
+       \type alpha
+   N5, \field Surrounding Surface 3 View Factor
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+   A9, \field Surrounding Surface 3 Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values are real numbers, -100.0 to 100.0, units C
+   A10,\field Surrounding Surface 4 Name
+       \type alpha
+   N6, \field Surrounding Surface 4 View Factor
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+   A11,\field Surrounding Surface 4 Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values are real numbers, -100.0 to 100.0, units C
+   A12,\field Surrounding Surface 5 Name
+       \type alpha
+   N7, \field Surrounding Surface 5 View Factor
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+   A13,\field Surrounding Surface 5 Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values are real numbers, -100.0 to 100.0, units C
+   A14,\field Surrounding Surface 6 Name
+       \type alpha
+   N8, \field Surrounding Surface 6 View Factor
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+   A15,\field Surrounding Surface 6 Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values are real numbers, -100.0 to 100.0, units C
+   A16,\field Surrounding Surface 7 Name
+       \type alpha
+   N9, \field Surrounding Surface 7 View Factor
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+   A17,\field Surrounding Surface 7 Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values are real numbers, -100.0 to 100.0, units C
+   A18,\field Surrounding Surface 8 Name
+       \type alpha
+   N10,\field Surrounding Surface 8 View Factor
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+   A19,\field Surrounding Surface 8 Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values are real numbers, -100.0 to 100.0, units C
+   A20, \field Surrounding Surface 9 Name
+       \type alpha
+   N11,\field Surrounding Surface 9 View Factor
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+   A21,\field Surrounding Surface 9 Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values are real numbers, -100.0 to 100.0, units C
+   A22,\field Surrounding Surface 10 Name
+       \type alpha
+   N12,\field Surrounding Surface 10 View Factor
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+   A23;\field Surrounding Surface 10 Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values are real numbers, -100.0 to 100.0, units C
+
+ComplexFenestrationProperty:SolarAbsorbedLayers,
+       \memo Used to provide solar radiation absorbed in fenestration layers. References surface-construction pair
+       \memo and if that pair is used in a simulation, then program will use value provided in schedules instead of calculating it.
+  A1,  \field Name
+       \required-field
+  A2,  \field Fenestration Surface
+       \required-field
+       \type object-list
+       \object-list SubSurfNames
+  A3,  \field Construction Name
+       \required-field
+       \type object-list
+       \object-list ComplexFenestrationStates
+  A4,  \field Layer 1 Solar Radiation Absorbed Schedule Name
+       \note Values in schedule are expected to be in W/m2
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A5,  \field Layer 2 Solar Radiation Absorbed Schedule Name
+       \note Values in schedule are expected to be in W/m2
+       \type object-list
+       \object-list ScheduleNames
+  A6,  \field Layer 3 Solar Radiation Absorbed Schedule Name
+       \note Values in schedule are expected to be in W/m2
+       \type object-list
+       \object-list ScheduleNames
+  A7,  \field Layer 4 Solar Radiation Absorbed Schedule Name
+       \note Values in schedule are expected to be in W/m2
+       \type object-list
+       \object-list ScheduleNames
+  A8;  \field Layer 5 Solar Radiation Absorbed Schedule Name
+       \note Values in schedule are expected to be in W/m2
+       \type object-list
+       \object-list ScheduleNames
+
+
+ZoneProperty:UserViewFactors:BySurfaceName,
+       \memo View factors for Surface to Surface in a zone.
+       \memo (Number of Surfaces)**2 are expected. Any omitted surface pairs will be assumed to have a view factor of zero.
+       \extensible:3 - copy last three fields, remembering to remove ;
+       \format ViewFactor
+  A1,  \field Zone or ZoneList Name
+       \note View factors may be entered for a single zone or for a group of zones connected by Construction:AirBoundary
+       \type object-list
+       \object-list ZoneNames
+       \object-list ZoneListNames
+  A2,  \field From Surface 1
+       \begin-extensible
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A3,  \field To Surface 1
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N1,  \field View Factor 1
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A4,  \field From Surface 2
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A5,  \field To Surface 2
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N2,  \field View Factor 2
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A6,  \field From Surface 3
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A7,  \field To Surface 3
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N3,  \field View Factor 3
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A8,  \field From Surface 4
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A9,  \field To Surface 4
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N4,  \field View Factor 4
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A10, \field From Surface 5
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A11, \field To Surface 5
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N5,  \field View Factor 5
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A12, \field From Surface 6
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A13, \field To Surface 6
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N6,  \field View Factor 6
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A14, \field From Surface 7
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A15, \field To Surface 7
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N7,  \field View Factor 7
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A16, \field From Surface 8
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A17, \field To Surface 8
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N8,  \field View Factor 8
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A18, \field From Surface 9
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A19, \field To Surface 9
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N9,  \field View Factor 9
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A20, \field From Surface 10
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A21, \field To Surface 10
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N10, \field View Factor 10
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A22, \field From Surface 11
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A23, \field To Surface 11
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N11, \field View Factor 11
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A24, \field From Surface 12
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A25, \field To Surface 12
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N12, \field View Factor 12
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A26, \field From Surface 13
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A27, \field To Surface 13
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N13, \field View Factor 13
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A28, \field From Surface 14
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A29, \field To Surface 14
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N14, \field View Factor 14
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A30, \field From Surface 15
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A31, \field To Surface 15
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N15, \field View Factor 15
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A32, \field From Surface 16
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A33, \field To Surface 16
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N16, \field View Factor 16
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A34, \field From Surface 17
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A35, \field To Surface 17
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N17, \field View Factor 17
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A36, \field From Surface 18
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A37, \field To Surface 18
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N18, \field View Factor 18
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A38, \field From Surface 19
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A39, \field To Surface 19
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N19, \field View Factor 19
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A40, \field From Surface 20
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A41, \field To Surface 20
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N20, \field View Factor 20
+       \note This value is the view factor value From Surface => To Surface
+       \type real
+       \maximum 1.0
+  A42,A43,N21,A44,A45,N22,A46,A47,N23,A48,A49,N24,A50,A51,N25,A52,A53,N26,A54,A55,N27,A56,A57,N28,A58,A59,N29,A60,A61,N30,
+  A62,A63,N31,A64,A65,N33,A66,A67,N35,A68,A69,N37,A70,A71,N39,A72,A73,N41,A74,A75,N43,A76,A77,N45,A78,A79,N47,A80,A81,N49,
+  A82,A83,N41,A84,A85,N43,A86,A87,N45,A88,A89,N47,A90,A91,N49,A92,A93,N51,A94,A95,N53,A96,A97,N55,A98,A99,N57,A100,A101,N59,
+  A102,A103,N51,A104,A105,N53,A106,A107,N55,A108,A109,N57,A110,A111,N59,A112,A113,N61,A114,A115,N63,A116,A117,N65,A118,A119,N67,A120,A121,N69,
+  A122,A123,N61,A124,A125,N63,A126,A127,N65,A128,A129,N67,A130,A131,N69,A132,A133,N71,A134,A135,N73,A136,A137,N75,A138,A139,N77,A140,A141,N79,
+  A142,A143,N71,A144,A145,N73,A146,A147,N75,A148,A149,N77,A150,A151,N79,A152,A153,N81,A154,A155,N83,A156,A157,N85,A158,A159,N87,A160,A161,N89,
+  A162,A163,N81,A164,A165,N83,A166,A167,N85,A168,A169,N87,A170,A171,N89,A172,A173,N91,A174,A175,N93,A176,A177,N95,A178,A179,N97,A180,A181,N99,
+  A182,A183,N91,A184,A185,N93,A186,A187,N95,A188,A189,N97,A190,A191,N99,A192,A193,N101,A194,A195,N103,A196,A197,N105,A198,A199,N107,A200,A201,N109,
+  A202,A203,N101,A204,A205,N103,A206,A207,N105,A208,A209,N107,A210,A211,N109,A212,A213,N111,A214,A215,N113,A216,A217,N115,A218,A219,N117,A220,A221,N119,
+  A222,A223,N111,A224,A225,N113,A226,A227,N115,A228,A229,N117,A230,A231,N119,A232,A233,N121,A234,A235,N123,A236,A237,N125,A238,A239,N127,A240,A241,N129,
+  A242,A243,N121,A244,A245,N123,A246,A247,N125,A248,A249,N127,A250,A251,N129,A252,A253,N131,A254,A255,N133,A256,A257,N135,A258,A259,N137,A260,A261,N139,
+  A262,A263,N131,A264,A265,N133,A266,A267,N135,A268,A269,N137,A270,A271,N139,A272,A273,N141,A274,A275,N143,A276,A277,N145,A278,A279,N147,A280,A281,N149,
+  A282,A283,N141,A284,A285,N143,A286,A287,N145,A288,A289,N147,A290,A291,N149,A292,A293,N151,A294,A295,N153,A296,A297,N155,A298,A299,N157,A300,A301,N159,
+  A302,A303,N151,A304,A305,N153,A306,A307,N155,A308,A309,N157,A310,A311,N159,A312,A313,N161,A314,A315,N163,A316,A317,N165,A318,A319,N167,A320,A321,N169,
+  A322,A323,N161,A324,A325,N163,A326,A327,N165,A328,A329,N167,A330,A331,N169,A332,A333,N171,A334,A335,N173,A336,A337,N175,A338,A339,N177,A340,A341,N179,
+  A342,A343,N171,A344,A345,N173,A346,A347,N175,A348,A349,N177,A350,A351,N179,A352,A353,N181,A354,A355,N183,A356,A357,N185,A358,A359,N187,A360,A361,N189,
+  A362,A363,N181,A364,A365,N183,A366,A367,N185,A368,A369,N187,A370,A371,N189,A372,A373,N191,A374,A375,N193,A376,A377,N195,A378,A379,N197,A380,A381,N199,
+  A382,A383,N191,A384,A385,N193,A386,A387,N195,A388,A389,N197,A390,A391,N199,A392,A393,N201,A394,A395,N203,A396,A397,N205,A398,A399,N207,A400,A401,N209,
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+  A702,A703,N351,A704,A705,N353,A706,A707,N355,A708,A709,N357,A710,A711,N359,A712,A713,N361,A714,A715,N363,A716,A717,N365,A718,A719,N367,A720,A721,N369,
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+  A762,A763,N381,A764,A765,N383,A766,A767,N385,A768,A769,N387,A770,A771,N389,A772,A773,N391,A774,A775,N393,A776,A777,N395,A778,A779,N397,A780,A781,N399,
+  A782,A783,N391,A784,A785,N393,A786,A787,N395,A788,A789,N397,A790,A791,N399,A792,A793,N401,A794,A795,N403,A796,A797,N405,A798,A799,N407,A800,A801,N409,
+  A802,A803,N401,A804,A805,N403,A806,A807,N405,A808,A809,N407,A810,A811,N409,A812,A813,N411,A814,A815,N413,A816,A817,N415,A818,A819,N417,A820,A821,N419,
+  A822,A823,N411,A824,A825,N413,A826,A827,N415,A828,A829,N417,A830,A831,N419,A832,A833,N421,A834,A835,N423,A836,A837,N425,A838,A839,N427,A840,A841,N429,
+  A842,A843,N421,A844,A845,N423,A846,A847,N425,A848,A849,N427,A850,A851,N429,A852,A853,N431,A854,A855,N433,A856,A857,N435,A858,A859,N437,A860,A861,N439,
+  A862,A863,N431,A864,A865,N433,A866,A867,N435,A868,A869,N437,A870,A871,N439,A872,A873,N441,A874,A875,N443,A876,A877,N445,A878,A879,N447,A880,A881,N449,
+  A882,A883,N441,A884,A885,N443,A886,A887,N445,A888,A889,N447,A890,A891,N449,A892,A893,N451,A894,A895,N453,A896,A897,N455,A898,A899,N457,A900,A901,N459,
+  A902,A903,N451,A904,A905,N453,A906,A907,N455,A908,A909,N457,A910,A911,N459,A912,A913,N461,A914,A915,N463,A916,A917,N465,A918,A919,N467,A920,A921,N469,
+  A922,A923,N461,A924,A925,N463,A926,A927,N465,A928,A929,N467,A930,A931,N469,A932,A933,N471,A934,A935,N473,A936,A937,N475,A938,A939,N477,A940,A941,N479,
+  A942,A943,N471,A944,A945,N473,A946,A947,N475,A948,A949,N477,A950,A951,N479,A952,A953,N481,A954,A955,N483,A956,A957,N485,A958,A959,N487,A960,A961,N489,
+  A962,A963,N481,A964,A965,N483,A966,A967,N485,A968,A969,N487,A970,A971,N489,A972,A973,N491,A974,A975,N493,A976,A977,N495,A978,A979,N497,A980,A981,N499;
+
+\group Detailed Ground Heat Transfer
+
+GroundHeatTransfer:Control,
+  \memo Object determines if the Slab and Basement preprocessors
+  \memo are going to be executed.
+  A1 , \field Name
+    \note This field is included for consistency.11
+  A2 , \field Run Basement Preprocessor
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  A3 ; \field Run Slab Preprocessor
+       \type choice
+       \key Yes
+       \key No
+       \default No
+
+GroundHeatTransfer:Slab:Materials,
+    \memo Object gives an overall description of the slab ground heat transfer model.
+        N1, \field NMAT: Number of materials
+            \note This field specifies the number of different materials that will be used in the model.
+            \note Typically only a ground material and a slab material are used. (2 materials)
+            \minimum> 0
+          \required-field
+        N2, \field ALBEDO: Surface Albedo: No Snow
+            \note Two fields specify the albedo value of the surface: first for no snow coverage days;
+            \note second for days with snow coverage. The albedo is the solar reflectivity of the surface,
+            \note and can vary from 0.05 for blacktop to 0.95 for fresh snow.
+            \note Typical values for North America reported by Bahnfleth range from 0.16 to 0.4.
+            \minimum 0.0
+            \maximum 1.0
+          \default 0.16
+        N3, \field ALBEDO: Surface Albedo: Snow
+            \minimum 0.0
+            \maximum 1.0
+          \default 0.40
+        N4, \field EPSLW: Surface Emissivity: No Snow
+          \note EPSLW (No Snow and Snow) specifies the long wavelength (thermal) emissivity of the ground surface.
+          \note primarily important for nighttime radiation to sky.
+          \note typical value .95
+            \minimum> 0.0
+          \default 0.94
+        N5, \field EPSLW: Surface Emissivity: Snow
+            \minimum> 0.0
+          \default 0.86
+        N6, \field Z0: Surface Roughness: No Snow
+          \note fields Z0 (No Snow and Snow) describe the height at which an experimentally velocity profile goes to zero.
+          \note typical value= .75 cm
+         \minimum> 0.0
+          \default .75
+          \units cm
+        N7, \field Z0: Surface Roughness: Snow
+            \note typical value= .05 cm
+         \minimum> 0.0
+          \default 0.25
+          \units cm
+        N8, \field HIN: Indoor HConv: Downward Flow
+            \note These fields specify the combined convective and radiative heat transfer coefficient between
+            \note the slab top inside surface and the room air for the cases where heat is flowing downward,
+            \note and upward. The program toggles between the two if the direction of the heat flux changes.
+            \note Typical values can be found in the ASHRAE Handbook of Fundamentals, but should be
+            \note about 6 W/(m2-K) for downward heat flow and 9 W/(m2-K) for upward heat flow.
+            \note typical value= 4-10
+            \units W/m2-K
+            \minimum> 0.0
+          \default 6.13
+        N9; \field HIN: Indoor HConv: Upward
+            \minimum> 0.0
+            \note typical value= 4-10
+            \units W/m2-K
+          \default 9.26
+
+GroundHeatTransfer:Slab:MatlProps,
+    \memo This object contains the material properties for the materials
+    \memo used in the model. The fields are mostly self explanatory.
+     N1,  \field RHO: Slab Material density
+          \note Density of Slab Material
+          \note typical value= 2300.0
+          \units kg/m3
+          \minimum> 0.0
+          \default 2300
+     N2,  \field RHO: Soil Density
+          \note Density of Soil Material
+          \note typical value= 1200.0
+          \minimum> 0.0
+          \default 1200
+          \units kg/m3
+     N3,  \field CP: Slab CP
+          \note Specific Heat of Slab Material
+          \note typical value=650.0
+          \units J/kg-K
+          \minimum> 0.0
+          \default 650
+     N4,  \field CP: Soil CP
+          \note Specific Heat of Soil Material
+          \note typical value= 1200.0
+          \minimum> 0.0
+          \default 1200
+          \units J/kg-K
+     N5,  \field TCON: Slab k
+          \note Conductivity of Slab Material
+          \note typical value= .9
+          \minimum> 0.0
+          \units W/m-K
+          \default 0.9
+     N6;  \field TCON: Soil k
+          \note Conductivity of Soil Material
+          \note typical value= 1.0
+          \minimum> 0.0
+          \units W/m-K
+          \default 1.0
+
+GroundHeatTransfer:Slab:BoundConds,
+      \memo Supplies some of the boundary conditions used in the ground heat transfer calculations.
+        A1, \field EVTR: Is surface evapotranspiration modeled
+            \note This field specifies whether or not to use the evapotransporation model.
+            \note The inclusion of evapotransporation in the calculation has the greatest
+            \note effect in warm dry climates, primarily on the ground surface temperature.
+            \note This field can be used to turn the evapotransporation off and on to check
+            \note sensitivity to it.
+            \type choice
+            \key TRUE
+            \key FALSE
+          \required-field
+        A2, \field FIXBC: is the lower boundary at a fixed temperature
+            \note This field permits using a fixed temperature at the lower surface of the model
+            \note instead of a zero heat flux condition. This change normally has a very small
+            \note effect on the results.
+            \note FALSE selects the zero flux lower boundary condition
+            \type choice
+            \key TRUE
+            \key FALSE
+          \required-field
+        N1, \field TDEEPin
+            \note User input lower boundary temperature if FIXBC is TRUE
+            \note Blank for FIXBC FALSE or to use the calculated 1-D deep ground temperature.
+            \units C
+        A3, \field USRHflag: Is the ground surface h specified by the user?
+            \note This field flags the use of a user specified heat transfer coefficient
+            \note on the ground surface. This condition is used primarily for testing.
+            \note For normal runs (USPHflag is FALSE) and the program calculates the heat
+            \note transfer coefficient using the weather conditions.
+            \type choice
+            \key TRUE
+            \key FALSE
+          \required-field
+        N2; \field USERH: User specified ground surface heat transfer coefficient
+            \note Used only if USRHflag is TRUE and the heat transfer coefficient value is
+            \note specified in this field.
+            \units W/m2-K
+
+GroundHeatTransfer:Slab:BldgProps,
+          \memo Object provides information about the building and its operating conditions
+          \memo Monthly Average Temperature SetPoint fields
+          \memo specify the average indoor building set point temperatures for each
+          \memo month of the year. These fields are useful for simulating a building
+          \memo that is not temperature controlled for some of the year.
+          \memo In such a case, the average indoor set point temperatures
+          \memo can be obtained by first running the model in EnergyPlus with an
+          \memo insulated floor boundary condition, and then using the resulting
+          \memo monthly average zone temperatures in these fields.
+      N1, \field IYRS: Number of years to iterate
+          \note This field specifies the number of years to iterate.
+          \note Either the ground heat transfer calculations come to an
+          \note an annual steady periodic condition by converging to a tolerance
+          \note (see ConvTol field) or it runs for this number of years.
+          \note A ten year maximum is usually sufficient.
+          \default 10
+          \minimum 1
+      N2, \field Shape: Slab shape
+          \note Use only the value 0 here. Only a rectangular shape is implemented.
+          \minimum 0
+          \maximum 0
+      N3, \field HBLDG: Building height
+          \note This field supplies the building height. This is used to calculate
+          \note the building shadowing on the ground.
+          \minimum 0
+          \note typical value= 0-20
+          \units m
+      N4, \field TIN1: January Indoor Average Temperature Setpoint
+          \note see memo on object for more information
+          \default 22
+          \units C
+      N5, \field TIN2: February Indoor Average Temperature Setpoint
+          \note see memo on object for more information
+          \default 22
+          \units C
+      N6, \field TIN3: March Indoor Average Temperature Setpoint
+          \note see memo on object for more information
+          \default 22
+          \units C
+      N7, \field TIN4: April Indoor Average Temperature Setpoint
+          \note see memo on object for more information
+          \default 22
+          \units C
+      N8, \field TIN5: May Indoor Average Temperature Setpoint
+          \note see memo on object for more information
+          \default 22
+          \units C
+      N9, \field TIN6: June Indoor Average Temperature Setpoint
+          \note see memo on object for more information
+          \default 22
+          \units C
+      N10,\field TIN7: July Indoor Average Temperature Setpoint
+          \note see memo on object for more information
+          \default 22
+          \units C
+      N11,\field TIN8: August Indoor Average Temperature Setpoint
+          \note see memo on object for more information
+          \default 22
+          \units C
+      N12,\field TIN9: September Indoor Average Temperature Setpoint
+          \note see memo on object for more information
+          \default 22
+          \units C
+      N13,\field TIN10: October Indoor Average Temperature Setpoint
+          \note see memo on object for more information
+          \default 22
+          \units C
+      N14,\field TIN11: November Indoor Average Temperature Setpoint
+          \note see memo on object for more information
+          \default 22
+          \units C
+      N15,\field TIN12: December Indoor Average Temperature Setpoint
+          \note see memo on object for more information
+          \default 22
+          \units C
+      N16,\field TINAmp: Daily Indoor sine wave variation amplitude
+          \note This field permits imposing a daily sinusoidal variation
+          \note in the indoor setpoint temperature to simulate the effect
+          \note of a setback profile.
+          \note The value specified is the amplitude of the sine wave.
+          \default 0
+          \units deltaC
+      N17;\field ConvTol: Convergence Tolerance
+          \note This field specifies the convergence tolerance used to
+          \note control the iteration. When the temperature change of all nodes
+          \note is less than the convergence value, iteration ceases.
+          \default 0.1
+
+GroundHeatTransfer:Slab:Insulation,
+    \memo This object supplies the information about insulation used around the slab.
+    \memo There are two possible configurations: under the slab or vertical insulation
+    \memo around the slab.
+    \min-fields 5
+        N1, \field RINS: R value of under slab insulation
+            \note This field provides the thermal resistance value
+            \note of the under slab insulation. It should be zero
+            \note if the vertical insulation configuration is selected.
+            \note typical value= 0-2.0
+            \units m2-K/W
+          \default 0.0
+        N2, \field DINS: Width of strip of under slab insulation
+            \note This specifies the width of the perimeter strip of insulation
+            \note under the slab. It should be zero if for the vertical insulation
+            \note configuration is selected.
+            \note typical value= 0-2.0
+            \units m
+          \default 0.0
+        N3, \field RVINS: R value of vertical insulation
+            \note This field specifies the thermal resistance of the vertical
+            \note insulation. It should be zero if the under slab insulation
+            \note configuration is selected.
+            \note typical value= 0-3.0
+            \units m2-K/W
+          \default 0.0
+        N4, \field ZVINS: Depth of vertical insulation
+            \note This field specifies the depth of the vertical insulation
+            \note into the ground in meters. It starts at the slab upper surface
+            \note and extends into the ground.
+            \note It should be zero if the under slab insulation
+            \note configuration is selected.
+            \note only use values= .2 .4 .6 .8 1.0 1.5 2.0 2.5 3.0
+            \units m
+          \default 0
+        N5; \field IVINS: Flag: Is there vertical insulation
+            \note Specifies if the vertical insulation configuration is being used.
+            \note values: 1=yes vertical insulation 0=no under-slab insulation
+          \type choice
+          \key 0
+          \key 1
+          \default 0
+
+GroundHeatTransfer:Slab:EquivalentSlab,
+    \memo Using an equivalent slab allows non-rectangular shapes to be modeled accurately.
+    \memo Object uses the area - perimeter (area/perimeter) ratio to determine the
+    \memo size of an equivalent rectangular slab.
+    \memo EnergyPlus users normally use this option.
+     N1,  \field APRatio: The area to perimeter ratio for this slab
+          \note Equivalent square slab is simulated,  side is 4*APRatio.
+          \units m
+          \minimum 1.5
+          \maximum 22
+          \required-field
+     N2,  \field SLABDEPTH: Thickness of slab on grade
+          \note This field specifies the thickness of the slab. The slab top surface is level
+          \note with the ground surface, so this is the depth into the ground.
+          \note The slab depth has a significant effect on the temperature calculation,
+          \note and it is also important for the auto-grid process.
+          \note The finite difference grids are set in such a way that they use the slab thickness
+          \note to determine the vertical grid spacing. Autogridding will fail if the slab thickness
+          \note is specified larger than 0.25 meters.
+          \default 0.1
+          \units m
+     N3,  \field CLEARANCE: Distance from edge of slab to domain edge
+          \note This field specifies the distance from the slab to the edge of
+          \note the area that will be modeled with the grid system. It is the basic size
+          \note dimension that is used to set the horizontal extent of the domain.
+          \note 15 meters is a reasonable value.
+          \default 15.0
+          \units m
+     N4;  \field ZCLEARANCE: Distance from bottom of slab to domain bottom
+          \note This field specifies the vertical distance from the slab to the
+          \note bottom edge of the area that will be modeled with the grid system.
+          \note 15 meters is a reasonable value.
+          \default 15.0
+          \units m
+
+GroundHeatTransfer:Slab:AutoGrid,
+            \memo AutoGrid only necessary when EquivalentSlab option not chosen.
+            \memo  Not normally needed by EnergyPlus users.
+            \memo  This object permits user selection of rectangular slab dimensions.
+            \memo  NO SLAB DIMENSIONS LESS THAN 6 m.
+        N1, \field SLABX: X dimension of the building slab
+            \minimum 6
+            \note typical values= 6 to 60.0
+            \units m
+          \required-field
+        N2, \field SLABY: Y dimension of the building slab
+            \minimum 6
+            \note typical values= 6 to 60.0
+            \units m
+          \required-field
+        N3, \field SLABDEPTH: Thickness of slab on grade
+            \default 0.1
+            \units m
+        N4, \field CLEARANCE: Distance from edge of slab to domain edge
+            \default 15.0
+            \units m
+        N5; \field ZCLEARANCE: Distance from bottom of slab to domain bottom
+            \default 15.0
+            \units m
+
+GroundHeatTransfer:Slab:ManualGrid,
+            \memo Manual Grid only necessary when using manual gridding (not recommended)
+            \memo Used only in special cases when previous two objects are not used.
+            \memo User must input complete gridding information.
+        N1, \field NX: Number of cells in the X direction
+          \minimum 1
+          \required-field
+        N2, \field NY: Number of cells in the Y direction
+          \minimum 1
+          \required-field
+        N3, \field NZ: Number of cells in the Z direction
+          \minimum 1
+          \required-field
+        N4, \field IBOX: X direction cell indicator of slab edge
+            \note typical values= 1-10
+          \required-field
+        N5; \field JBOX: Y direction cell indicator of slab edge
+            \note typical values= 1-10
+          \required-field
+
+GroundHeatTransfer:Slab:XFACE,
+         \memo This is only needed when using manual gridding (not recommended)
+         \memo XFACE: X Direction cell face coordinates: m
+        N1, N2, N3, N4, N5, N6, N7, N8, N9, N10, N11, N12, N13, N14,                  \note fields as indicated
+        N15, N16, N17, N18, N19, N20, N21, N22, N23, N24, N25, N26, N27, N28, N29,    \note fields as indicated
+        N30, N31, N32, N33, N34, N35, N36, N37, N38, N39, N40;                        \note fields as indicated
+
+GroundHeatTransfer:Slab:YFACE,
+         \memo This is only needed when using manual gridding (not recommended)
+         \memo YFACE: Y Direction cell face coordinates: m,
+        N1, N2, N3, N4, N5, N6, N7, N8, N9, N10, N11, N12, N13, N14,                  \note fields as indicated
+        N15, N16, N17, N18, N19, N20, N21, N22, N23, N24, N25, N26, N27, N28, N29,    \note fields as indicated
+        N30, N31, N32, N33, N34, N35, N36, N37, N38, N39, N40;                        \note fields as indicated
+
+GroundHeatTransfer:Slab:ZFACE,
+         \memo This is only needed when using manual gridding (not recommended)
+         \memo ZFACE: Z Direction cell face coordinates: m
+        N1, N2, N3, N4, N5, N6, N7, N8, N9, N10, N11, N12, N13, N14,                  \note fields as indicated
+        N15, N16, N17, N18, N19, N20, N21, N22, N23, N24, N25;                        \note fields as indicated
+
+GroundHeatTransfer:Basement:SimParameters,
+          \memo Specifies certain parameters that control the Basement preprocessor ground heat
+          \memo transfer simulation.
+     N1,  \field F: Multiplier for the ADI solution
+         \note 0<F<1.0,
+          \note typically 0.1 (0.3 for high k soil - saturated sand is about 2.6 w/m-K)
+          \minimum> 0.0
+          \maximum 1.0
+      N2; \field IYRS: Maximum number of yearly iterations:
+         \note typically 15-30]
+          \minimum 0
+          \default 15
+
+GroundHeatTransfer:Basement:MatlProps,
+         \memo Specifies the material properties for the Basement preprocessor ground heat
+         \memo transfer simulation. Only the Foundation Wall, Floor Slab, Soil,
+         \memo and Gravel properties are currently used.
+     N1, \field NMAT: Number of materials in this domain
+         \maximum 6
+          \required-field
+     N2, \field Density for Foundation Wall
+         \minimum> 0.0
+         \default 2243
+         \units kg/m3
+     N3, \field density for Floor Slab
+         \minimum> 0.0
+         \default 2243
+         \units kg/m3
+     N4, \field density for Ceiling
+         \minimum> 0.0
+         \default 311
+         \units kg/m3
+     N5, \field density for Soil
+         \minimum> 0.0
+         \default 1500
+         \units kg/m3
+     N6, \field density for Gravel
+         \minimum> 0.0
+         \default 2000
+         \units kg/m3
+     N7, \field density for Wood
+         \minimum> 0.0
+         \default 449
+         \units kg/m3
+     N8,  \field Specific heat for foundation wall
+          \minimum> 0.0
+          \default 880
+          \units J/kg-K
+     N9,  \field Specific heat for floor slab
+          \minimum> 0.0
+          \default 880
+          \units J/kg-K
+     N10, \field Specific heat for ceiling
+          \minimum> 0.0
+          \default 1530
+          \units J/kg-K
+     N11, \field Specific heat for soil
+          \minimum> 0.0
+          \default 840
+          \units J/kg-K
+     N12, \field Specific heat for gravel
+          \minimum> 0.0
+          \default 720
+          \units J/kg-K
+     N13, \field Specific heat for wood
+          \minimum> 0.0
+          \default 1530
+          \units J/kg-K
+     N14, \field Thermal conductivity for foundation wall
+          \minimum> 0.0
+          \default 1.4
+          \units W/m-K
+     N15, \field Thermal conductivity for floor slab
+          \minimum> 0.0
+          \default 1.4
+          \units W/m-K
+     N16, \field Thermal conductivity for ceiling
+          \minimum> 0.0
+          \default 0.09
+          \units W/m-K
+     N17, \field thermal conductivity for soil
+          \minimum> 0.0
+          \default 1.1
+          \units W/m-K
+     N18, \field thermal conductivity for gravel
+          \minimum> 0.0
+          \default 1.9
+          \units W/m-K
+     N19; \field thermal conductivity for wood
+          \minimum> 0.0
+          \default 0.12
+          \units W/m-K
+
+GroundHeatTransfer:Basement:Insulation,
+         \memo Describes the insulation used on an exterior basement wall for the Basement
+         \memo preprocessor ground heat transfer simulation.
+     N1, \field REXT: R Value of any exterior insulation
+         \minimum> 0.0
+         \units m2-K/W
+     A1; \field INSFULL: Flag: Is the wall fully insulated?
+          \required-field
+         \type choice
+          \key TRUE
+          \key FALSE
+         \note  True for full insulation
+         \note  False for insulation half way down side wall from grade line
+
+GroundHeatTransfer:Basement:SurfaceProps,
+         \memo Specifies the soil surface properties for the Basement preprocessor ground
+         \memo heat transfer simulation.
+         \min-fields 7
+     N1, \field ALBEDO: Surface albedo for No snow conditions
+         \minimum 0.0
+          \maximum 1.0
+         \default 0.16
+     N2, \field ALBEDO: Surface albedo for snow conditions
+         \minimum 0.0
+          \maximum 1.0
+         \default 0.40
+     N3, \field EPSLN: Surface emissivity No Snow
+          \minimum 0.0
+          \maximum 1.0
+         \default 0.94
+     N4, \field EPSLN: Surface emissivity with Snow
+          \minimum 0.0
+          \maximum 1.0
+         \default 0.86
+     N5, \field VEGHT: Surface roughness No snow conditions
+          \minimum 0.0
+         \default 6.0
+         \units cm
+     N6, \field VEGHT: Surface roughness Snow conditions
+          \minimum 0.0
+         \default 0.25
+         \units cm
+     A1; \field PET: Flag, Potential evapotranspiration on?
+          \note  Typically, PET is False
+         \type choice
+          \key TRUE
+          \key FALSE
+          \default FALSE
+
+GroundHeatTransfer:Basement:BldgData,
+         \memo Specifies the surface and gravel thicknesses used for the Basement
+         \memo preprocessor ground heat transfer simulation.
+     N1, \field DWALL: Wall thickness
+         \units m
+         \minimum 0.2
+          \default 0.2
+     N2, \field DSLAB: Floor slab thickness
+         \units m
+         \minimum> 0.0
+         \maximum 0.25
+          \default 0.1
+     N3, \field DGRAVXY: Width of gravel pit beside basement wall
+         \minimum> 0.0
+         \units  m
+          \default 0.3
+     N4, \field DGRAVZN: Gravel depth extending above the floor slab
+         \minimum> 0.0
+         \units m
+          \default 0.2
+     N5; \field DGRAVZP: Gravel depth below the floor slab
+         \minimum> 0.0
+         \units m
+         \default 0.1
+
+GroundHeatTransfer:Basement:Interior,
+       \memo Provides the information needed to simulate the inside boundary conditions for
+       \memo the Basement preprocessor ground heat transfer simulation.
+       \min-fields 7
+   A1, \field COND: Flag: Is the basement conditioned?
+       \type choice
+          \key TRUE
+          \key FALSE
+          \default TRUE
+       \note for EnergyPlus this should be TRUE
+   N1, \field HIN: Downward convection only heat transfer coefficient
+       \units W/m2-K
+          \minimum> 0.0
+          \default 0.92
+   N2, \field HIN: Upward convection only heat transfer coefficient
+       \units W/m2-K
+          \minimum> 0.0
+          \default 4.04
+   N3, \field HIN: Horizontal convection only heat transfer coefficient
+       \units W/m2-K
+          \minimum> 0.0
+          \default 3.08
+   N4, \field HIN: Downward combined (convection and radiation) heat transfer coefficient
+       \units W/m2-K
+          \minimum> 0.0
+          \default 6.13
+   N5, \field HIN: Upward combined (convection and radiation) heat transfer coefficient
+       \units W/m2-K
+          \minimum> 0.0
+          \default 9.26
+   N6; \field HIN: Horizontal combined (convection and radiation) heat transfer coefficient
+       \units W/m2-K
+          \minimum> 0.0
+          \default 8.29
+
+GroundHeatTransfer:Basement:ComBldg,
+   \memo ComBldg contains the monthly average temperatures (C) and possibility of daily variation amplitude
+   N1,  \field January average temperature
+        \units C
+          \default 22
+   N2,  \field February average temperature
+        \units C
+          \default 22
+   N3,  \field March average temperature
+        \units C
+          \default 22
+   N4,  \field April average temperature
+        \units C
+          \default 22
+   N5,  \field May average temperature
+        \units C
+          \default 22
+   N6,  \field June average temperature
+        \units C
+          \default 22
+   N7,  \field July average temperature
+        \units C
+          \default 22
+   N8,  \field August average temperature
+        \units C
+          \default 22
+   N9,  \field September average temperature
+        \units C
+          \default 22
+   N10, \field October average temperature
+        \units C
+          \default 22
+   N11, \field November average temperature
+        \units C
+          \default 22
+   N12, \field December average temperature
+        \units C
+          \default 22
+   N13; \field Daily variation sine wave amplitude
+          \units deltaC
+          \default 0
+        \note (Normally zero, just for checking)
+
+GroundHeatTransfer:Basement:EquivSlab,  !  Supplies the EquivSizing Flag
+    \memo Using an equivalent slab allows non-rectangular shapes to be
+    \memo modeled accurately.
+    \memo The simulation default should be EquivSizing=True
+   N1, \field APRatio: The area to perimeter ratio for this slab
+       \minimum> 0.0
+       \units m
+          \required-field
+   A1; \field EquivSizing: Flag
+          \required-field
+       \type choice
+          \key TRUE
+          \key FALSE
+       \note Will the dimensions of an equivalent slab be calculated (TRUE)
+       \note or will the dimensions be input directly? (FALSE)]
+       \note Only advanced special simulations should use FALSE.
+
+GroundHeatTransfer:Basement:EquivAutoGrid,
+    \memo EquivAutoGrid necessary when EquivSizing=TRUE, TRUE is is the normal case.
+   N1, \field CLEARANCE: Distance from outside of wall to edge of 3-D ground domain
+          \minimum 0.0
+       \units m
+       \default 15
+   N2, \field SlabDepth: Thickness of the floor slab
+          \minimum 0.0
+       \units m
+       \default  0.1
+   N3; \field BaseDepth: Depth of the basement wall below grade
+          \minimum 0.0
+       \units  m
+          \default 2
+
+GroundHeatTransfer:Basement:AutoGrid,
+   \memo AutoGrid only necessary when EquivSizing is false
+   \memo If the modeled building is not a rectangle or square, Equivalent
+   \memo sizing MUST be used to get accurate results
+   N1, \field CLEARANCE: Distance from outside of wall to edge,
+          \minimum 0
+       \units m
+       \default 15
+   N2, \field SLABX: X dimension of the building slab
+          \required-field
+       \units m
+       \minimum 0
+       \maximum 60
+   N3, \field SLABY: Y dimension of the building slab
+          \required-field
+       \units m
+       \minimum 0
+       \maximum 60
+   N4, \field ConcAGHeight: Height of the foundation wall above grade
+       \units m
+          \minimum 0
+          \default 0
+   N5, \field SlabDepth: Thickness of the floor slab
+       \units m
+       \default 0.1
+   N6; \field BaseDepth: Depth of the basement wall below grade
+       \units m
+          \minimum 0
+          \default 2
+
+GroundHeatTransfer:Basement:ManualGrid,
+    \memo Manual Grid only necessary using manual gridding (not recommended)
+       N1, \field NX: Number of cells in the X direction: 20]
+          \minimum 1
+          \required-field
+       N2, \field NY: Number of cells in the Y direction: 20]
+          \minimum 1
+          \required-field
+       N3, \field NZAG: Number of cells in the Z direction. above grade: 4 Always]
+          \minimum 1
+          \required-field
+       N4, \field NZBG: Number of cells in Z direction. below grade: 10-35]
+          \minimum 1
+          \required-field
+       N5, \field IBASE: X direction cell indicator of slab edge: 5-20]
+          \required-field
+       N6, \field JBASE: Y direction cell indicator of slab edge: 5-20]
+          \required-field
+       N7; \field KBASE: Z direction cell indicator of the top of the floor slab: 5-20]
+          \required-field
+
+GroundHeatTransfer:Basement:XFACE,
+    \memo This is only needed when using manual gridding (not recommended)
+    \memo XFACE: X Direction cell face coordinates: m
+       N1, N2, N3, N4, N5, N6, N7, N8, N9, N10, N11, N12, N13, N14,  \note fields as indicated
+       N15, N16, N17, N18, N19, N20, N21, N22, N23, N24, N25, N26,   \note fields as indicated
+       N27, N28, N29, N30, N31, N32, N33, N34, N35, N36, N37, N38,   \note fields as indicated
+       N39, N40, N41, N42, N43, N44;                                 \note fields as indicated
+
+GroundHeatTransfer:Basement:YFACE,
+    \memo This is only needed when using manual gridding (not recommended)
+    \memo YFACE: Y Direction cell face coordinates: m
+       N1, N2, N3, N4, N5, N6, N7, N8, N9, N10, N11, N12, N13, N14,  \note fields as indicated
+       N15, N16, N17, N18, N19, N20, N21, N22, N23, N24, N25, N26,   \note fields as indicated
+       N27, N28, N29, N30, N31, N32, N33, N34, N35, N36, N37, N38,   \note fields as indicated
+       N39, N40, N41, N42, N43, N44;                                 \note fields as indicated
+
+GroundHeatTransfer:Basement:ZFACE,
+    \memo This is only needed when using manual gridding (not recommended)
+    \memo ZFACE: Z Direction cell face coordinates: m
+       N1, N2, N3, N4, N5, N6, N7, N8, N9, N10, N11, N12, N13, N14,  \note fields as indicated
+       N15, N16, N17, N18, N19, N20, N21, N22, N23, N24, N25, N26,   \note fields as indicated
+       N27, N28, N29, N30, N31, N32, N33, N34, N35, N36, N37, N38,   \note fields as indicated
+       N39, N40;                                                     \note fields as indicated
+
+\group Room Air Models
+
+RoomAirModelType,
+      \memo Selects the type of room air model to be used in a given zone. If no RoomAirModelType
+      \memo object is specified then the default Mixing model (all zone air at the same
+      \memo temperature) will be used.
+      \min-fields 4
+  A1, \field Name
+      \required-field
+      \type alpha
+  A2, \field Zone Name
+      \required-field
+      \type object-list
+      \object-list ZoneNames
+  A3, \field Room-Air Modeling Type
+      \type choice
+      \key Mixing
+      \key UserDefined
+      \key OneNodeDisplacementVentilation
+      \key ThreeNodeDisplacementVentilation
+      \key CrossVentilation
+      \key UnderFloorAirDistributionInterior
+      \key UnderFloorAirDistributionExterior
+      \key AirflowNetwork
+      \default Mixing
+      \note Mixing = Complete mixing air model
+      \note UserDefined = UserDefined Room Air Temperature Patterns
+      \note needs RoomAir:TemperaturePattern:UserDefined object referencing this Zone
+      \note OneNodeDisplacementVentilation = Mundt roomair model for displacement ventilation with single floor air node
+      \note needs RoomAirSettings:OneNodeDisplacementVentilation object referencing this Zone
+      \note ThreeNodeDisplacementVentilation = RoomAir modeling using UCSD three-node displacement ventilation model
+      \note needs RoomAirSettings:ThreeNodeDisplacementVentilation object referencing this Zone
+      \note CrossVentilation = RoomAir modeling using UCSD two-zone cross ventilation model
+      \note needs RoomAirSettings:CrossVentilation object referencing this Zone
+      \note UnderFloorAirDistributionInterior = 2-Node UFAD model for interior zones
+      \note needs RoomAirSettings:UnderFloorAirDistributionInterior object referencing this Zone
+      \note UnderFloorAirDistributionExterior = RoomAir modeling using 2-Node UFAD model for exterior zones
+      \note needs RoomAirSettings:UnderFloorAirDistributionExterior object referencing this Zone
+      \note AirflowNetwork = RoomAir modeling using AirflowNetwork
+      \note needs RoomAirSettings:AirflowNetwork object referencing this Zone
+  A4; \field Air Temperature Coupling Strategy
+      \type choice
+      \key Direct
+      \key Indirect
+      \default Direct
+
+RoomAir:TemperaturePattern:UserDefined,
+       \memo Used to explicitly define temperature patterns that are to be applied to the mean air
+       \memo temperature within a thermal zone. Used with RoomAirModelType = UserDefined.
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A3 , \field Availability Schedule Name
+       \note Availability schedule name for this model. Schedule value > 0 means the model is
+       \note active. Schedule value = 0 means the model is inactive and the zone will be modeled
+       \note as fully mixed (Mixing). If this field is blank, the model is always active.
+       \type object-list
+       \object-list ScheduleNames
+  A4 ; \field Pattern Control Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note The schedule should contain integer values that
+       \note correspond to unique Control Integer fields in
+       \note one of the RoomAir:TemperaturePattern:* objects.
+
+RoomAir:TemperaturePattern:ConstantGradient,
+      \memo Used to model room air with a fixed temperature gradient in the vertical direction.
+      \memo Used in combination with RoomAir:TemperaturePattern:UserDefined.
+  A1, \field Room Air Temperature Pattern Constant Gradient Name
+      \required-field
+      \type alpha
+  N1, \field Control Integer for Pattern Control Schedule Name
+      \note reference this entry in Schedule Name
+      \type integer
+      \required-field
+  N2, \field Thermostat Offset
+      \note = (Temp at thermostat- Mean Air Temp)
+      \units deltaC
+      \type real
+  N3, \field Return Air Offset
+      \note = (Tleaving - Mean Air Temp )
+      \units deltaC
+      \type real
+  N4, \field Exhaust Air Offset
+      \note = (Texhaust - Mean Air Temp) deg C
+      \units deltaC
+      \type real
+  N5; \field Temperature Gradient
+      \note Slope of temperature change in vertical direction
+      \units K/m
+      \type real
+
+RoomAir:TemperaturePattern:TwoGradient,
+      \memo Used to model room air with two temperature gradients in the vertical direction.
+      \memo Used in combination with RoomAir:TemperaturePattern:UserDefined.
+  A1, \field Room Air Temperature Pattern Two Gradient Name
+      \required-field
+      \type alpha
+  N1, \field Control Integer for Pattern Control Schedule Name
+      \note reference this entry in Schedule Name
+      \type integer
+      \required-field
+  N2, \field Thermostat Height
+      \note = Distance from floor of zone
+      \units m
+      \type real
+  N3, \field Return Air Height
+      \note = Distance from floor of zone
+      \units m
+      \type real
+  N4, \field Exhaust Air Height
+      \note = Distance from floor of zone
+      \units m
+      \type real
+  N5, \field Temperature Gradient Lower Bound
+      \note Slope of temperature change in vertical direction
+      \units K/m
+      \type real
+  N6, \field Temperature Gradient Upper  Bound
+      \note Slope of temperature change in vertical direction
+      \units K/m
+      \type real
+  A2, \field Gradient Interpolation Mode
+      \type choice
+      \key OutdoorDryBulbTemperature
+      \key ZoneDryBulbTemperature
+      \key ZoneAndOutdoorTemperatureDifference
+      \key SensibleCoolingLoad
+      \key SensibleHeatingLoad
+  N7, \field Upper Temperature Bound
+      \units C
+      \type real
+  N8, \field Lower Temperature Bound
+      \units C
+      \type real
+  N9, \field Upper Heat Rate Bound
+      \units W
+      \type real
+  N10; \field Lower Heat Rate Bound
+      \units W
+      \type real
+
+RoomAir:TemperaturePattern:NondimensionalHeight,
+      \memo Defines a distribution pattern for air temperatures relative to the current mean air
+      \memo temperature as a function of height. The height, referred to as Zeta, is nondimensional
+      \memo by normalizing with the zone ceiling height.
+      \memo Used in combination with RoomAir:TemperaturePattern:UserDefined.
+      \extensible:2 - repeat last two fields remembering to remove ; from "inner" fields.
+  A1, \field Name
+      \required-field
+      \type alpha
+  N1, \field Control Integer for Pattern Control Schedule Name
+      \note this value should appear in as a schedule value
+      \type integer
+      \required-field
+  N2, \field Thermostat Offset
+      \note = (Temp at thermostat- Mean Air Temp)
+      \units deltaC
+      \type real
+  N3, \field Return Air Offset
+      \note = (Temp leaving - Mean Air Temp ) deg C
+      \units deltaC
+      \type real
+  N4, \field Exhaust Air Offset
+      \note = (Temp exhaust - Mean Air Temp) deg C
+      \units deltaC
+      \type real
+      \note the remaining fields have pairs that describe the relative
+      \note temperature pattern in the vertical direction of a zone
+      \note Zeta is the nondimensional height (in z-direction). on [0..1]
+      \note DeltaTai =  (Tai - MAT) in units of deg. C
+      \note relative deg C on [-10.0 .. 20.0 ]
+  N5, \field Pair 1 Zeta Nondimensional Height
+      \begin-extensible
+      \type real
+      \required-field
+  N6, \field Pair 1 Delta Adjacent Air Temperature
+      \type real
+      \required-field
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N7, \field Pair 2 Zeta Nondimensional Height
+      \type real
+      \required-field
+  N8, \field Pair 2 Delta Adjacent Air Temperature
+      \type real
+      \required-field
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N9, \field Pair 3 Zeta Nondimensional Height
+      \type real
+  N10,\field Pair 3 Delta Adjacent Air Temperature
+      \type real
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N11,\field Pair 4 Zeta Nondimensional Height
+      \type real
+  N12,\field Pair 4 Delta Adjacent Air Temperature
+      \type real
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N13,\field Pair 5 Zeta Nondimensional Height
+      \type real
+  N14,\field Pair 5 Delta Adjacent Air Temperature
+      \type real
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N15,\field Pair 6 Zeta Nondimensional Height
+      \type real
+  N16,\field Pair 6 Delta Adjacent Air Temperature
+      \type real
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N17,\field Pair 7 Zeta Nondimensional Height
+      \type real
+  N18,\field Pair 7 Delta Adjacent Air Temperature
+      \type real
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N19,\field Pair 8 Zeta Nondimensional Height
+      \type real
+  N20,\field Pair 8 Delta Adjacent Air Temperature
+      \type real
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N21,\field Pair 9 Zeta Nondimensional Height
+      \type real
+  N22,\field Pair 9 Delta Adjacent Air Temperature
+      \type real
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N23,\field Pair 10 Zeta Nondimensional Height
+      \type real
+  N24,\field Pair 10 Delta Adjacent Air Temperature
+      \type real
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N25,\field Pair 11 Zeta Nondimensional Height
+      \type real
+  N26,\field Pair 11 Delta Adjacent Air Temperature
+      \type real
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N27,\field Pair 12 Zeta Nondimensional Height
+      \type real
+  N28,\field Pair 12 Delta Adjacent Air Temperature
+      \type real
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N29,\field Pair 13 Zeta Nondimensional Height
+      \type real
+  N30,\field Pair 13 Delta Adjacent Air Temperature
+      \type real
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N31,\field Pair 14 Zeta Nondimensional Height
+      \type real
+  N32,\field Pair 14 Delta Adjacent Air Temperature
+      \type real
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N33,\field Pair 15 Zeta Nondimensional Height
+      \type real
+  N34,\field Pair 15 Delta Adjacent Air Temperature
+      \type real
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N35,\field Pair 16 Zeta Nondimensional Height
+      \type real
+  N36,\field Pair 16 Delta Adjacent Air Temperature
+      \type real
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N37,\field Pair 17 Zeta Nondimensional Height
+      \type real
+  N38,\field Pair 17 Delta Adjacent Air Temperature
+      \type real
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N39,\field Pair 18 Zeta Nondimensional Height
+      \type real
+  N40,\field Pair 18 Delta Adjacent Air Temperature
+      \type real
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+  N41,\field Pair 19 Zeta Nondimensional Height
+      \type real
+  N42;\field Pair 19 Delta Adjacent Air Temperature
+      \type real
+      \units deltaC
+      \minimum -10.0
+      \maximum 20.0
+
+RoomAir:TemperaturePattern:SurfaceMapping,
+      \memo Defines a distribution pattern for the air temperatures adjacent to individual surfaces.
+      \memo This allows controlling the adjacent air temperature on a surface-by-surface basis
+      \memo rather than by height. This allows modeling different adjacent air temperatures on
+      \memo the opposite sides of the zone. Used in combination with
+      \memo RoomAir:TemperaturePattern:UserDefined.
+      \extensible:2 - repeat last two fields remembering to remove ; from "inner" fields.
+  A1, \field Name
+      \required-field
+      \type alpha
+  N1, \field Control Integer for Pattern Control Schedule Name
+      \note reference this entry in schedule
+      \type integer
+      \required-field
+  N2, \field Thermostat Offset
+      \note = (Temp at thermostat- Mean Air Temp)
+      \units deltaC
+  N3, \field Return Air Offset
+      \note = (Tleaving - Mean Air Temp ) deg C
+      \units deltaC
+  N4, \field Exhaust Air Offset
+      \note = (Texhaust - Mean Air Temp) deg C
+      \units deltaC
+  A2, \field Surface Name Pair 1
+      \begin-extensible
+      \required-field
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N5, \field Delta Adjacent Air Temperature Pair 1
+      \required-field
+      \type real
+      \units deltaC
+  A3, \field Surface Name Pair 2
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N6, \field Delta Adjacent Air Temperature Pair 2
+      \type real
+      \units deltaC
+  A4, \field Surface Name Pair 3
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N7, \field Delta Adjacent Air Temperature Pair 3
+      \type real
+      \units deltaC
+  A5, \field Surface Name Pair 4
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N8, \field Delta Adjacent Air Temperature Pair 4
+      \type real
+      \units deltaC
+  A6, \field Surface Name Pair 5
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N9, \field Delta Adjacent Air Temperature Pair 5
+      \type real
+      \units deltaC
+  A7, \field Surface Name Pair 6
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N10,\field Delta Adjacent Air Temperature Pair 6
+      \type real
+      \units deltaC
+  A8, \field Surface Name Pair 7
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N11,\field Delta Adjacent Air Temperature Pair 7
+      \type real
+      \units deltaC
+  A9, \field Surface Name Pair 8
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N12,\field Delta Adjacent Air Temperature Pair 8
+      \type real
+      \units deltaC
+  A10,\field Surface Name Pair 9
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N13,\field Delta Adjacent Air Temperature Pair 9
+      \type real
+      \units deltaC
+  A11,\field Surface Name Pair 10
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N14,\field Delta Adjacent Air Temperature Pair 10
+      \type real
+      \units deltaC
+  A12,\field Surface Name Pair 11
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N15,\field Delta Adjacent Air Temperature Pair 11
+      \type real
+      \units deltaC
+  A13,\field Surface Name Pair 12
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N16,\field Delta Adjacent Air Temperature Pair 12
+      \type real
+      \units deltaC
+  A14,\field Surface Name Pair 13
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N17,\field Delta Adjacent Air Temperature Pair 13
+      \type real
+      \units deltaC
+  A15,\field Surface Name Pair 14
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N18,\field Delta Adjacent Air Temperature Pair 14
+      \type real
+      \units deltaC
+  A16,\field Surface Name Pair 15
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N19,\field Delta Adjacent Air Temperature Pair 15
+      \type real
+      \units deltaC
+  A17,\field Surface Name Pair 16
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N20,\field Delta Adjacent Air Temperature Pair 16
+      \type real
+      \units deltaC
+  A18,\field Surface Name Pair 17
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N21,\field Delta Adjacent Air Temperature Pair 17
+      \type real
+      \units deltaC
+  A19,\field Surface Name Pair 18
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N22,\field Delta Adjacent Air Temperature Pair 18
+      \type real
+      \units deltaC
+  A20,\field Surface Name Pair 19
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N23,\field Delta Adjacent Air Temperature Pair 19
+      \type real
+      \units deltaC
+  A21,\field Surface Name Pair 20
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N24,\field Delta Adjacent Air Temperature Pair 20
+      \type real
+      \units deltaC
+  A22,\field Surface Name Pair 21
+      \type object-list
+      \object-list AllHeatTranSurfNames
+  N25;\field Delta Adjacent Air Temperature Pair 21
+      \type real
+      \units deltaC
+
+RoomAir:Node,
+      \memo Define an air node for some types of nodal room air models
+  A1, \field Name
+      \type alpha
+      \reference RoomAirNodes
+  A2, \field Node Type
+      \required-field
+      \type choice
+      \key Inlet
+      \key Floor
+      \key Control
+      \key Ceiling
+      \key MundtRoom
+      \key Return
+  A3, \field Zone Name
+      \required-field
+      \type object-list
+      \object-list ZoneNames
+  N1, \field Height of Nodal Control Volume Center
+      \required-field
+      \type real
+      \units m
+  A4 , \field Surface 1 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A5 , \field Surface 2 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A6 , \field Surface 3 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A7 , \field Surface 4 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A8 , \field Surface 5 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A9 , \field Surface 6 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A10, \field Surface 7 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A11, \field Surface 8 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A12, \field Surface 9 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A13, \field Surface 10 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A14, \field Surface 11 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A15, \field Surface 12 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A16, \field Surface 13 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A17, \field Surface 14 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A18, \field Surface 15 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A19, \field Surface 16 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A20, \field Surface 17 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A21, \field Surface 18 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A22, \field Surface 19 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A23, \field Surface 20 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A24; \field Surface 21 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+
+RoomAirSettings:OneNodeDisplacementVentilation,
+       \memo The Mundt model for displacement ventilation
+  A1 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  N1 , \field Fraction of Convective Internal Loads Added to Floor Air
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N2 ; \field Fraction of Infiltration Internal Loads Added to Floor Air
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+
+RoomAirSettings:ThreeNodeDisplacementVentilation,
+       \memo The UCSD model for Displacement Ventilation
+       \min-fields 6
+  A1 , \field Zone Name
+       \note Name of Zone being described. Any existing zone name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A2 , \field Gain Distribution Schedule Name
+       \note Distribution of the convective heat gains between the occupied and mixed zones.
+       \note 0<= Accepted Value <= 1.
+       \note In the DV model 1 means all convective gains in the lower layer.
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Number of Plumes per Occupant
+       \note Used only in the UCSD displacement ventilation model.
+       \note Effective number of separate plumes per occupant in the occupied zone.
+       \note Plumes that merge together in the occupied zone count as one.
+       \type real
+       \minimum> 0.0
+       \default 1.0
+  N2 , \field Thermostat Height
+       \note Height of thermostat/temperature control sensor above floor
+       \units m
+       \type real
+       \minimum> 0.0
+       \default 1.1
+  N3 , \field Comfort Height
+       \note Height at which air temperature is calculated for comfort purposes
+       \units m
+       \type real
+       \minimum> 0.0
+       \default 1.1
+  N4 ; \field Temperature Difference Threshold for Reporting
+       \note Minimum temperature difference between predicted upper and lower layer
+       \note temperatures above which DV auxiliary outputs are calculated.
+       \note These outputs are 'DV Transition Height', 'DV Fraction Min Recommended Flow Rate'
+       \note 'DV Average Temp Gradient' and 'DV Maximum Temp Gradient'. They
+       \note are set to negative values when the temperature difference is less than the
+       \note threshold and the output 'DV Zone Is Mixed' is set to 1
+       \units deltaC
+       \type real
+       \minimum 0.0
+       \default 0.4
+
+RoomAirSettings:CrossVentilation,
+       \memo This UCSD Cross Ventilation Room Air Model provides a simple model for heat transfer
+       \memo and vertical temperature profile prediction in cross ventilated rooms. The model
+       \memo distinguishes two regions in the room, the main jet region and the recirculations,
+       \memo and predicts characteristic airflow velocities and average air temperatures.
+       \memo Used with RoomAirModelType = CrossVentilation.
+  A1 , \field Zone Name
+       \note Name of Zone being described. Any existing zone name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A2 , \field Gain Distribution Schedule Name
+       \note Distribution of the convective heat gains between the jet and recirculation zones.
+       \note 0<= Accepted Value <= 1.
+       \note In the CV model 1 means all convective gains in the jet region.
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A3 ; \field Airflow Region Used for Thermal Comfort Evaluation
+       \note Required field whenever thermal comfort is predicted
+       \note defines Air temperature and Airflow velocity that will be used in the Fanger model
+       \note conditions must refer to one of the two regions: jet or recirculation
+       \type choice
+       \key Jet
+       \key Recirculation
+
+RoomAirSettings:UnderFloorAirDistributionInterior,
+       \memo This Room Air Model is applicable to interior spaces that are served by an underfloor
+       \memo air distribution system. The dominant sources of heat gain should be from people,
+       \memo equipment, and other localized sources located in the occupied part of the room.
+       \memo The model should be used with caution in zones which have large heat gains or losses
+       \memo through exterior walls or windows or which have considerable direct solar gain.
+       \memo Used with RoomAirModelType = UnderFloorAirDistributionInterior.
+       \min-fields 15
+  A1 , \field Zone Name
+       \note Name of Zone with underfloor air distribution
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  N1 , \field Number of Diffusers
+       \note Total number of diffusers in this zone
+       \type real
+       \minimum> 0.0
+       \autocalculatable
+       \default autocalculate
+  N2 , \field Power per Plume
+       \type real
+       \minimum 0.0
+       \units W
+       \autocalculatable
+       \default autocalculate
+  N3 , \field Design Effective Area of Diffuser
+       \type real
+       \units m2
+       \minimum> 0.0
+       \autocalculatable
+       \default Autocalculate
+  N4 , \field Diffuser Slot Angle from Vertical
+       \type real
+       \units deg
+       \minimum 0.0
+       \maximum 90.
+       \autocalculatable
+       \default Autocalculate
+  N5 , \field Thermostat Height
+       \note Height of thermostat/temperature control sensor above floor
+       \units m
+       \type real
+       \minimum> 0.0
+       \default 1.2
+  N6 , \field Comfort Height
+       \note Height at which air temperature is calculated for comfort purposes
+       \units m
+       \type real
+       \minimum> 0.0
+       \default 1.1
+  N7 , \field Temperature Difference Threshold for Reporting
+       \note Minimum temperature difference between predicted upper and lower layer
+       \note temperatures above which UFAD auxiliary outputs are calculated.
+       \note These outputs are 'UF Transition Height' and 'UF Average Temp Gradient'. They
+       \note are set to zero values when the temperature difference is less than the
+       \note threshold and the output 'UF Zone Is Mixed' is set to 1
+       \units deltaC
+       \type real
+       \minimum 0.0
+       \default 0.4
+  A2 , \field Floor Diffuser Type
+       \type choice
+       \key Custom
+       \key Swirl
+       \key VariableArea
+       \key HorizontalSwirl
+       \key LinearBarGrille
+       \default Swirl
+  N8 , \field Transition Height
+       \note user-specified height above floor of boundary between occupied and upper subzones
+       \type real
+       \units m
+       \minimum> 0.0
+       \autocalculatable
+       \default 1.7
+  N9,  \field Coefficient A
+       \note Coefficient A in Formula Kc = A*Gamma**B + C + D*Gamma + E*Gamma**2
+       \note Kc is the fraction of the total zone load attributable to the lower subzone
+       \type real
+       \autocalculatable
+       \default Autocalculate
+  N10, \field Coefficient B
+       \note Coefficient B in Formula Kc = A*Gamma**B + C + D*Gamma + E*Gamma**2
+       \note Kc is the fraction of the total zone load attributable to the lower subzone
+       \type real
+       \autocalculatable
+       \default Autocalculate
+  N11, \field Coefficient C
+       \note Coefficient C in Formula Kc = A*Gamma**B + C + D*Gamma + E*Gamma**2
+       \note Kc is the fraction of the total zone load attributable to the lower subzone
+       \type real
+       \autocalculatable
+       \default Autocalculate
+  N12, \field Coefficient D
+       \note Coefficient D in Formula Kc = A*Gamma**B + C + D*Gamma + E*Gamma**2
+       \note Kc is the fraction of the total zone load attributable to the lower subzone
+       \type real
+       \autocalculatable
+       \default Autocalculate
+  N13; \field Coefficient E
+       \note Coefficient E in Formula Kc = A*Gamma**B + C + D*Gamma + E*Gamma**2
+       \note Kc is the fraction of the total zone load attributable to the lower subzone
+       \type real
+       \autocalculatable
+       \default Autocalculate
+
+RoomAirSettings:UnderFloorAirDistributionExterior,
+       \memo Applicable to exterior spaces that are served by an underfloor air distribution system.
+       \memo The dominant sources of heat gain should be from people, equipment, and other
+       \memo localized sources located in the occupied part of the room, as well as convective gain
+       \memo  coming from a warm window. Used with RoomAirModelType = CrossVentilation.
+  \min-fields 15
+  A1 , \field Zone Name
+       \note Name of Zone being described. Any existing zone name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  N1 , \field Number of Diffusers per Zone
+       \type real
+       \minimum> 0.0
+       \autocalculatable
+       \default Autocalculate
+  N2 , \field Power per Plume
+       \type real
+       \minimum 0.0
+       \units W
+       \autocalculatable
+       \default autocalculate
+  N3 , \field Design Effective Area of Diffuser
+       \type real
+       \units m2
+       \minimum> 0.0
+       \autocalculatable
+       \default Autocalculate
+  N4 , \field Diffuser Slot Angle from Vertical
+       \type real
+       \units deg
+       \minimum 0.0
+       \maximum 90.
+       \autocalculatable
+       \default autocalculate
+  N5 , \field Thermostat Height
+       \note Height of thermostat/temperature control sensor above floor
+       \units m
+       \type real
+       \minimum> 0.0
+       \default 1.2
+  N6 , \field Comfort Height
+       \note Height at which Air temperature is calculated for comfort purposes
+       \units m
+       \type real
+       \minimum> 0.0
+       \default 1.1
+  N7 , \field Temperature Difference Threshold for Reporting
+       \note Minimum temperature difference between upper and lower layer
+       \note temperatures above which UFAD auxiliary outputs are calculated.
+       \note These outputs are 'UF Transition Height' and 'UF Average Temp Gradient'. They
+       \note are set to zero values when the temperature difference is less than the
+       \note threshold and the output 'UF Zone Is Mixed' is set to 1
+       \units deltaC
+       \type real
+       \minimum 0.0
+       \default 0.4
+  A2 , \field Floor Diffuser Type
+       \type choice
+       \key Custom
+       \key Swirl
+       \key VariableArea
+       \key HorizontalSwirl
+       \key LinearBarGrille
+       \default Swirl
+  N8 , \field Transition Height
+       \note User-specified height above floor of boundary between occupied and upper subzones
+       \type real
+       \units m
+       \minimum> 0.0
+       \autocalculatable
+       \default 1.7
+  N9,  \field Coefficient A in formula Kc = A*Gamma**B + C + D*Gamma + E*Gamma**2
+       \note Kc is the fraction of the total zone load attributable to the lower subzone
+       \type real
+       \autocalculatable
+       \default Autocalculate
+  N10, \field Coefficient B in formula Kc = A*Gamma**B + C + D*Gamma + E*Gamma**2
+       \note Kc is the fraction of the total zone load attributable to the lower subzone
+       \type real
+       \autocalculatable
+       \default Autocalculate
+  N11, \field Coefficient C in formula Kc = A*Gamma**B + C + D*Gamma + E*Gamma**2
+       \note Kc is the fraction of the total zone load attributable to the lower subzone
+       \type real
+       \autocalculatable
+       \default Autocalculate
+  N12, \field Coefficient D in formula Kc = A*Gamma**B + C + D*Gamma + E*Gamma**2
+       \note Kc is the fraction of the total zone load attributable to the lower subzone
+       \type real
+       \autocalculatable
+       \default Autocalculate
+  N13; \field Coefficient E in formula Kc = A*Gamma**B + C + D*Gamma + E*Gamma**2
+       \note Kc is the fraction of the total zone load attributable to the lower subzone
+       \type real
+       \autocalculatable
+       \default Autocalculate
+
+RoomAir:Node:AirflowNetwork,
+      \memo define an air node for some types of nodal air models
+  A1, \field Name
+      \type alpha
+      \reference RoomAirflowNetworkNodes
+  A2, \field Zone Name
+      \required-field
+      \type object-list
+      \object-list ZoneNames
+  N1, \field Fraction of Zone Air Volume
+      \type real
+      \minimum 0.0
+      \maximum 1.0
+  A3, \field RoomAir:Node:AirflowNetwork:AdjacentSurfaceList Name
+      \type object-list
+      \object-list RoomAirNodeSurfaceLists
+  A4, \field RoomAir:Node:AirflowNetwork:InternalGains Name
+      \type object-list
+      \object-list RoomAirNodeGains
+  A5; \field RoomAir:Node:AirflowNetwork:HVACEquipment Name
+      \type object-list
+      \object-list RoomAirNodeHVACEquipment
+
+RoomAir:Node:AirflowNetwork:AdjacentSurfaceList,
+       \extensible:1
+       \min-fields 2
+  A1,  \field Name
+       \type alpha
+       \reference RoomAirNodeSurfaceLists
+  A2 , \field Surface 1 Name
+       \begin-extensible
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A3 , \field Surface 2 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A4 , \field Surface 3 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A5 , \field Surface 4 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A6 , \field Surface 5 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A7 , \field Surface 6 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A8, \field Surface 7 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A9, \field Surface 8 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A10, \field Surface 9 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A11, \field Surface 10 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A12, \field Surface 11 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A13, \field Surface 12 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A14, \field Surface 13 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A15, \field Surface 14 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A16, \field Surface 15 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A17, \field Surface 16 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A18, \field Surface 17 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A19, \field Surface 18 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A20, \field Surface 19 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A21, \field Surface 20 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  A22; \field Surface 21 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+
+RoomAir:Node:AirflowNetwork:InternalGains,
+      \extensible:3
+      \min-fields 4
+      \memo define the internal gains that are associated with one particular RoomAir:Node
+  A1, \field Name
+      \type alpha
+      \reference RoomAirNodeGains
+  A2, \field Internal Gain Object 1 Type
+      \begin-extensible
+      \type choice
+      \key People
+      \key Lights
+      \key ElectricEquipment
+      \key GasEquipment
+      \key HotWaterEquipment
+      \key SteamEquipment
+      \key OtherEquipment
+      \key ZoneBaseboard:OutdoorTemperatureControlled
+      \key ZoneContaminantSourceAndSink:CarbonDioxide
+      \key WaterUse:Equipment
+      \key DaylightingDevice:Tubular
+      \key WaterHeater:Mixed
+      \key WaterHeater:Stratified
+      \key ThermalStorage:ChilledWater:Mixed
+      \key ThermalStorage:ChilledWater:Stratified
+      \key Generator:FuelCell
+      \key Generator:MicroCHP
+      \key ElectricLoadCenter:Transformer
+      \key ElectricLoadCenter:Inverter:Simple
+      \key ElectricLoadCenter:Inverter:FunctionOfPower
+      \key ElectricLoadCenter:Inverter:LookUpTable
+      \key ElectricLoadCenter:Storage:LiIonNMCBattery
+      \key ElectricLoadCenter:Storage:Battery
+      \key ElectricLoadCenter:Storage:Simple
+      \key ElectricLoadCenter:Storage:Converter
+      \key Pipe:Indoor
+      \key Refrigeration:Case
+      \key Refrigeration:CompressorRack
+      \key Refrigeration:System:Condenser:AirCooled
+      \key Refrigeration:TranscriticalSystem:GasCooler:AirCooled
+      \key Refrigeration:System:SuctionPipe
+      \key Refrigeration:TranscriticalSystem:SuctionPipeMT
+      \key Refrigeration:TranscriticalSystem:SuctionPipeLT
+      \key Refrigeration:SecondarySystem:Receiver
+      \key Refrigeration:SecondarySystem:Pipe
+      \key Refrigeration:WalkIn
+      \key Pump:VariableSpeed
+      \key Pump:ConstantSpeed
+      \key Pump:VariableSpeed:Condensate
+      \key HeaderedPumps:VariableSpeed
+      \key HeaderedPumps:ConstantSpeed
+      \key ZoneContaminantSourceAndSink:GenericContaminant
+      \key PlantComponent:UserDefined
+      \key Coil:UserDefined
+      \key ZoneHVAC:ForcedAir:UserDefined
+      \key AirTerminal:SingleDuct:UserDefined
+  A3, \field Internal Gain Object 1 Name
+      \type alpha
+  N1, \field Fraction of Gains to Node 1
+      \type real
+      \minimum 0.0
+      \maximum 1.0
+      \note fraction applies to sensible, latent, carbon dioxide, and generic contaminant gains or losses
+  A4, \field Internal Gain Object 2 Type
+      \type choice
+      \key People
+      \key Lights
+      \key ElectricEquipment
+      \key GasEquipment
+      \key HotWaterEquipment
+      \key SteamEquipment
+      \key OtherEquipment
+      \key ZoneBaseboard:OutdoorTemperatureControlled
+      \key ZoneContaminantSourceAndSink:CarbonDioxide
+      \key WaterUse:Equipment
+      \key DaylightingDevice:Tubular
+      \key WaterHeater:Mixed
+      \key WaterHeater:Stratified
+      \key ThermalStorage:ChilledWater:Mixed
+      \key ThermalStorage:ChilledWater:Stratified
+      \key Generator:FuelCell
+      \key Generator:MicroCHP
+      \key ElectricLoadCenter:Transformer
+      \key ElectricLoadCenter:Inverter:Simple
+      \key ElectricLoadCenter:Inverter:FunctionOfPower
+      \key ElectricLoadCenter:Inverter:LookUpTable
+      \key ElectricLoadCenter:Storage:LiIonNMCBattery
+      \key ElectricLoadCenter:Storage:Battery
+      \key ElectricLoadCenter:Storage:Simple
+      \key ElectricLoadCenter:Storage:Converter
+      \key Pipe:Indoor
+      \key Refrigeration:Case
+      \key Refrigeration:CompressorRack
+      \key Refrigeration:System:Condenser:AirCooled
+      \key Refrigeration:TranscriticalSystem:GasCooler:AirCooled
+      \key Refrigeration:System:SuctionPipe
+      \key Refrigeration:TranscriticalSystem:SuctionPipeMT
+      \key Refrigeration:TranscriticalSystem:SuctionPipeLT
+      \key Refrigeration:SecondarySystem:Receiver
+      \key Refrigeration:SecondarySystem:Pipe
+      \key Refrigeration:WalkIn
+      \key Pump:VariableSpeed
+      \key Pump:ConstantSpeed
+      \key Pump:VariableSpeed:Condensate
+      \key HeaderedPumps:VariableSpeed
+      \key HeaderedPumps:ConstantSpeed
+      \key ZoneContaminantSourceAndSink:GenericContaminant
+      \key PlantComponent:UserDefined
+      \key Coil:UserDefined
+      \key ZoneHVAC:ForcedAir:UserDefined
+      \key AirTerminal:SingleDuct:UserDefined
+  A5, \field Internal Gain Object 2 Name
+      \type alpha
+  N2, \field Fraction of Gains to Node 2
+      \type real
+      \minimum 0.0
+      \maximum 1.0
+  A6, \field Internal Gain Object 3 Type
+      \type choice
+      \key People
+      \key Lights
+      \key ElectricEquipment
+      \key GasEquipment
+      \key HotWaterEquipment
+      \key SteamEquipment
+      \key OtherEquipment
+      \key ZoneBaseboard:OutdoorTemperatureControlled
+      \key ZoneContaminantSourceAndSink:CarbonDioxide
+      \key WaterUse:Equipment
+      \key DaylightingDevice:Tubular
+      \key WaterHeater:Mixed
+      \key WaterHeater:Stratified
+      \key ThermalStorage:ChilledWater:Mixed
+      \key ThermalStorage:ChilledWater:Stratified
+      \key Generator:FuelCell
+      \key Generator:MicroCHP
+      \key ElectricLoadCenter:Transformer
+      \key ElectricLoadCenter:Inverter:Simple
+      \key ElectricLoadCenter:Inverter:FunctionOfPower
+      \key ElectricLoadCenter:Inverter:LookUpTable
+      \key ElectricLoadCenter:Storage:LiIonNMCBattery
+      \key ElectricLoadCenter:Storage:Battery
+      \key ElectricLoadCenter:Storage:Simple
+      \key ElectricLoadCenter:Storage:Converter
+      \key Pipe:Indoor
+      \key Refrigeration:Case
+      \key Refrigeration:CompressorRack
+      \key Refrigeration:System:Condenser:AirCooled
+      \key Refrigeration:TranscriticalSystem:GasCooler:AirCooled
+      \key Refrigeration:System:SuctionPipe
+      \key Refrigeration:TranscriticalSystem:SuctionPipeMT
+      \key Refrigeration:TranscriticalSystem:SuctionPipeLT
+      \key Refrigeration:SecondarySystem:Receiver
+      \key Refrigeration:SecondarySystem:Pipe
+      \key Refrigeration:WalkIn
+      \key Pump:VariableSpeed
+      \key Pump:ConstantSpeed
+      \key Pump:VariableSpeed:Condensate
+      \key HeaderedPumps:VariableSpeed
+      \key HeaderedPumps:ConstantSpeed
+      \key ZoneContaminantSourceAndSink:GenericContaminant
+      \key PlantComponent:UserDefined
+      \key Coil:UserDefined
+      \key ZoneHVAC:ForcedAir:UserDefined
+      \key AirTerminal:SingleDuct:UserDefined
+  A7, \field Internal Gain Object 3 Name
+      \type alpha
+  N3; \field Fraction of Gains to Node 3
+      \type real
+      \minimum 0.0
+      \maximum 1.0
+
+RoomAir:Node:AirflowNetwork:HVACEquipment,
+      \extensible:4
+      \memo define the zone equipment associated with one particular RoomAir:Node
+  A1, \field Name
+      \type alpha
+      \reference RoomAirNodeHVACEquipment
+  A2, \field ZoneHVAC or Air Terminal Equipment Object Type 1
+      \begin-extensible
+      \type choice
+      \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+      \key ZoneHVAC:EnergyRecoveryVentilator
+      \key ZoneHVAC:FourPipeFanCoil
+      \key ZoneHVAC:OutdoorAirUnit
+      \key ZoneHVAC:PackagedTerminalAirConditioner
+      \key ZoneHVAC:PackagedTerminalHeatPump
+      \key ZoneHVAC:UnitHeater
+      \key ZoneHVAC:UnitVentilator
+      \key ZoneHVAC:VentilatedSlab
+      \key ZoneHVAC:WaterToAirHeatPump
+      \key ZoneHVAC:WindowAirConditioner
+      \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+      \key ZoneHVAC:Baseboard:RadiantConvective:Water
+      \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+      \key ZoneHVAC:Baseboard:Convective:Electric
+      \key ZoneHVAC:Baseboard:Convective:Water
+      \key ZoneHVAC:HighTemperatureRadiant
+      \key ZoneHVAC:Dehumidifier:DX
+      \key ZoneHVAC:IdealLoadsAirSystem
+      \key ZoneHVAC:RefrigerationChillerSet
+      \key Fan:ZoneExhaust
+      \key WaterHeater:HeatPump
+      \key AirTerminal:DualDuct:ConstantVolume
+      \key AirTerminal:DualDuct:VAV
+      \key AirTerminal:SingleDuct:ConstantVolume:Reheat
+      \key AirTerminal:SingleDuct:ConstantVolume:NoReheat
+      \key AirTerminal:SingleDuct:VAV:Reheat
+      \key AirTerminal:SingleDuct:VAV:NoReheat
+      \key AirTerminal:SingleDuct:SeriesPIU:Reheat
+      \key AirTerminal:SingleDuct:ParallelPIU:Reheat
+      \key AirTerminal:SingleDuct:ConstantVolume:FourPipeInduction
+      \key AirTerminal:SingleDuct:VAV:Reheat:VariableSpeedFan
+      \key AirTerminal:SingleDuct:VAV:HeatAndCool:Reheat
+      \key AirTerminal:SingleDuct:VAV:HeatAndCool:NoReheat
+      \key AirTerminal:SingleDuct:ConstantVolume:CooledBeam
+      \key AirTerminal:DualDuct:VAV:OutdoorAir
+      \key AirLoopHVACReturnAir
+  A3, \field ZoneHVAC or Air Terminal Equipment Object Name 1
+      \type alpha
+      \note for object type AirLoopHVACReturnAir, then enter zone return air node name
+  N1, \field Fraction of Output or Supply Air from HVAC Equipment 1
+      \type real
+      \minimum 0.0
+      \maximum 1.0
+  N2, \field Fraction of Input or Return Air to HVAC Equipment 1
+      \type real
+      \minimum 0.0
+      \maximum 1.0
+  A4, \field ZoneHVAC or Air Terminal Equipment Object Type 2
+      \type choice
+      \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+      \key ZoneHVAC:EnergyRecoveryVentilator
+      \key ZoneHVAC:FourPipeFanCoil
+      \key ZoneHVAC:OutdoorAirUnit
+      \key ZoneHVAC:PackagedTerminalAirConditioner
+      \key ZoneHVAC:PackagedTerminalHeatPump
+      \key ZoneHVAC:UnitHeater
+      \key ZoneHVAC:UnitVentilator
+      \key ZoneHVAC:VentilatedSlab
+      \key ZoneHVAC:WaterToAirHeatPump
+      \key ZoneHVAC:WindowAirConditioner
+      \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+      \key ZoneHVAC:Baseboard:RadiantConvective:Water
+      \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+      \key ZoneHVAC:Baseboard:Convective:Electric
+      \key ZoneHVAC:Baseboard:Convective:Water
+      \key ZoneHVAC:HighTemperatureRadiant
+      \key ZoneHVAC:Dehumidifier:DX
+      \key ZoneHVAC:IdealLoadsAirSystem
+      \key ZoneHVAC:RefrigerationChillerSet
+      \key Fan:ZoneExhaust
+      \key WaterHeater:HeatPump
+      \key AirTerminal:DualDuct:ConstantVolume
+      \key AirTerminal:DualDuct:VAV
+      \key AirTerminal:SingleDuct:ConstantVolume:Reheat
+      \key AirTerminal:SingleDuct:VAV:Reheat
+      \key AirTerminal:SingleDuct:VAV:NoReheat
+      \key AirTerminal:SingleDuct:SeriesPIU:Reheat
+      \key AirTerminal:SingleDuct:ParallelPIU:Reheat
+      \key AirTerminal:SingleDuct:ConstantVolume:FourPipeInduction
+      \key AirTerminal:SingleDuct:VAV:Reheat:VariableSpeedFan
+      \key AirTerminal:SingleDuct:VAV:HeatAndCool:Reheat
+      \key AirTerminal:SingleDuct:VAV:HeatAndCool:NoReheat
+      \key AirTerminal:SingleDuct:ConstantVolume:CooledBeam
+      \key AirTerminal:DualDuct:VAV:OutdoorAir
+  A5, \field ZoneHVAC or Air Terminal Equipment Object Name 2
+      \type alpha
+  N3, \field Fraction of Output or Supply Air from HVAC Equipment 2
+      \type real
+      \minimum 0.0
+      \maximum 1.0
+  N4; \field Fraction of Input or Return Air to HVAC Equipment 2
+      \type real
+      \minimum 0.0
+      \maximum 1.0
+
+RoomAirSettings:AirflowNetwork,
+       \extensible:1
+       \memo RoomAir modeling using Airflow pressure network solver
+       \min-fields 5
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone Name
+       \note Name of Zone being described. Any existing zone name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A3 , \field Control Point RoomAirflowNetwork:Node Name
+       \type object-list
+       \object-list RoomAirflowNetworkNodes
+  A4 , \field RoomAirflowNetwork:Node Name 1
+       \type object-list
+       \object-list RoomAirflowNetworkNodes
+       \begin-extensible
+  A5 , \field RoomAirflowNetwork:Node Name 2
+       \type object-list
+       \object-list RoomAirflowNetworkNodes
+  A6 , \field RoomAirflowNetwork:Node Name 3
+       \type object-list
+       \object-list RoomAirflowNetworkNodes
+  A7 , \field RoomAirflowNetwork:Node Name 4
+       \type object-list
+       \object-list RoomAirflowNetworkNodes
+  A8 , \field RoomAirflowNetwork:Node Name 5
+       \type object-list
+       \object-list RoomAirflowNetworkNodes
+  A9 ; \field RoomAirflowNetwork:Node Name 6
+       \type object-list
+       \object-list RoomAirflowNetworkNodes
+
+\group Internal Gains
+
+People,
+   \memo Sets internal gains and contaminant rates for occupants in the zone.
+   \memo If you use a ZoneList in the Zone or ZoneList name field then this definition applies
+   \memo to all the zones in the ZoneList.
+   \min-fields 10
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference PeopleNames
+  A2 , \field Zone or ZoneList Name
+       \required-field
+       \type object-list
+       \object-list ZoneAndZoneListNames
+  A3 , \field Number of People Schedule Name
+       \required-field
+       \type object-list
+       \note units in schedule should be fraction applied to number of people (0.0 - 1.0)
+       \object-list ScheduleNames
+  A4 , \field Number of People Calculation Method
+       \note The entered calculation method is used to create the maximum number of people
+       \note for this set of attributes (i.e. sensible fraction, schedule, etc)
+       \note Choices: People -- simply enter number of occupants.
+       \note People per Zone Floor Area -- enter the number to apply. Value * Floor Area = Number of people
+       \note Zone Floor Area per Person -- enter the number to apply. Floor Area / Value = Number of people
+       \type choice
+       \key People
+       \key People/Area
+       \key Area/Person
+       \default People
+  N1 , \field Number of People
+       \type real
+       \minimum 0
+  N2 , \field People per Zone Floor Area
+       \type real
+       \minimum 0
+       \units person/m2
+  N3 , \field Zone Floor Area per Person
+       \type real
+       \minimum 0
+       \units m2/person
+  N4 , \field Fraction Radiant
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.3
+       \note This is radiant fraction of the sensible heat released by people in a zone. This value will be
+       \note multiplied by the total sensible heat released by people yields the amount of long wavelength
+       \note radiation gain from people in a zone. Default value is 0.30.
+  N5,  \field Sensible Heat Fraction
+       \note if input, overrides program calculated sensible/latent split
+       \autocalculatable
+       \default autocalculate
+       \minimum 0.0
+       \maximum 1.0
+  A5 , \field Activity Level Schedule Name
+       \required-field
+       \note Note that W has to be converted to mets in TC routine
+       \type object-list
+       \note units in schedule are W/person
+       \object-list ScheduleNames
+  N6 , \field Carbon Dioxide Generation Rate
+       \note CO2 generation rate per unit of activity level.
+       \type real
+       \units m3/s-W
+       \default 3.82E-8
+       \minimum 0.0
+       \maximum 3.82E-7
+       \note The default value is obtained from ASHRAE Std 62.1 at 0.0084 cfm/met/person over
+       \note the general adult population.
+  A6 , \field Enable ASHRAE 55 Comfort Warnings
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  A7 , \field Mean Radiant Temperature Calculation Type
+       \note optional (only required for thermal comfort runs)
+       \type choice
+       \key ZoneAveraged
+       \key SurfaceWeighted
+       \key AngleFactor
+       \default ZoneAveraged
+  A8 , \field Surface Name/Angle Factor List Name
+       \type object-list
+       \object-list AllHeatTranAngFacNames
+       \note optional (only required for runs of thermal comfort models: Fanger, Pierce, KSU, CoolingEffectASH55 and AnkleDraftASH55)
+  A9 , \field Work Efficiency Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note units in schedule are 0.0 to 1.0
+       \note optional (only required for runs of thermal comfort models: Fanger, Pierce, KSU, CoolingEffectASH55 and AnkleDraftASH55)
+  A10, \field Clothing Insulation Calculation Method
+       \type choice
+       \key ClothingInsulationSchedule
+       \key DynamicClothingModelASHRAE55
+       \key CalculationMethodSchedule
+       \default ClothingInsulationSchedule
+  A11, \field Clothing Insulation Calculation Method Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note a schedule value of 1 for the Scheduled method, and 2 for the DynamicClothingModelASHRAE55 method
+  A12, \field Clothing Insulation Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note use "Clo" from ASHRAE or Thermal Comfort guides
+       \note optional (only required for runs of thermal comfort models: Fanger, Pierce, KSU, CoolingEffectASH55 and AnkleDraftASH55)
+  A13, \field Air Velocity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note units in the schedule are m/s
+       \note optional (only required for runs of thermal comfort models: Fanger, Pierce, KSU, CoolingEffectASH55 and AnkleDraftASH55)
+  A14, \field Thermal Comfort Model 1 Type
+       \type choice
+       \key Fanger
+       \key Pierce
+       \key KSU
+       \key AdaptiveASH55
+       \key AdaptiveCEN15251
+       \key CoolingEffectASH55
+       \key AnkleDraftASH55
+       \note optional (only needed for people thermal comfort results reporting)
+  A15, \field Thermal Comfort Model 2 Type
+       \type choice
+       \key Fanger
+       \key Pierce
+       \key KSU
+       \key AdaptiveASH55
+       \key AdaptiveCEN15251
+       \key CoolingEffectASH55
+       \key AnkleDraftASH55
+       \note optional (second type of thermal comfort model and results reporting)
+  A16, \field Thermal Comfort Model 3 Type
+       \type choice
+       \key Fanger
+       \key Pierce
+       \key KSU
+       \key AdaptiveASH55
+       \key AdaptiveCEN15251
+       \key CoolingEffectASH55
+       \key AnkleDraftASH55
+       \note optional (third thermal comfort model and report type)
+  A17, \field Thermal Comfort Model 4 Type
+       \type choice
+       \key Fanger
+       \key Pierce
+       \key KSU
+       \key AdaptiveASH55
+       \key AdaptiveCEN15251
+       \key CoolingEffectASH55
+       \key AnkleDraftASH55
+       \note optional (fourth thermal comfort model and report type)
+  A18, \field Thermal Comfort Model 5 Type
+       \type choice
+       \key Fanger
+       \key Pierce
+       \key KSU
+       \key AdaptiveASH55
+       \key AdaptiveCEN15251
+       \key CoolingEffectASH55
+       \key AnkleDraftASH55
+       \note optional (fifth thermal comfort model and report type)
+  A19, \field Thermal Comfort Model 6 Type
+       \type choice
+       \key Fanger
+       \key Pierce
+       \key KSU
+       \key AdaptiveASH55
+       \key AdaptiveCEN15251
+       \key CoolingEffectASH55
+       \key AnkleDraftASH55
+       \note optional (sixth thermal comfort model and report type)
+  A20, \field Thermal Comfort Model 7 Type
+       \type choice
+       \key Fanger
+       \key Pierce
+       \key KSU
+       \key AdaptiveASH55
+       \key AdaptiveCEN15251
+       \key CoolingEffectASH55
+       \key AnkleDraftASH55
+       \note optional (seventh thermal comfort model and report type)
+  A21; \field Ankle Level Air Velocity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note units in the schedule are m/s
+       \note this is the schedule of the air speed at the 0.1 m above the floor
+       \note optional (only required for runs of thermal comfort models AnkleDraftASH55)
+
+ComfortViewFactorAngles,
+       \memo Used to specify radiant view factors for thermal comfort calculations.
+  A1 , \field Name
+       \type alpha
+       \reference AllHeatTranAngFacNames
+  A2 , \field Zone Name
+       \type object-list
+       \object-list ZoneNames
+  A3 , \field Surface 1 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N1 , \field Angle Factor 1
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A4 , \field Surface 2 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N2 , \field Angle Factor 2
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A5 , \field Surface 3 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N3 , \field Angle Factor 3
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A6 , \field Surface 4 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N4 , \field Angle Factor 4
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A7 , \field Surface 5 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N5 , \field Angle Factor 5
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A8 , \field Surface 6 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N6 , \field Angle Factor 6
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A9 , \field Surface 7 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N7 , \field Angle Factor 7
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A10, \field Surface 8 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N8 , \field Angle Factor 8
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A11, \field Surface 9 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N9 , \field Angle Factor 9
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A12, \field Surface 10 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N10, \field Angle Factor 10
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A13, \field Surface 11 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N11, \field Angle Factor 11
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A14, \field Surface 12 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N12, \field Angle Factor 12
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A15, \field Surface 13 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N13, \field Angle Factor 13
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A16, \field Surface 14 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N14, \field Angle Factor 14
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A17, \field Surface 15 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N15, \field Angle Factor 15
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A18, \field Surface 16 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N16, \field Angle Factor 16
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A19, \field Surface 17 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N17, \field Angle Factor 17
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A20, \field Surface 18 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N18, \field Angle Factor 18
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A21, \field Surface 19 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N19, \field Angle Factor 19
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A22, \field Surface 20 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N20; \field Angle Factor 20
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+
+Lights,
+   \memo Sets internal gains for lights in the zone.
+   \memo If you use a ZoneList in the Zone or ZoneList name field then this definition applies
+   \memo to all the zones in the ZoneList.
+       \min-fields 11
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference LightsNames
+  A2 , \field Zone or ZoneList Name
+       \required-field
+       \type object-list
+       \object-list ZoneAndZoneListNames
+  A3 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note units in schedule should be fraction applied to design level of lights, generally (0.0 - 1.0)
+  A4 , \field Design Level Calculation Method
+       \note The entered calculation method is used to create the maximum amount of lights
+       \note for this set of attributes
+       \note Choices: LightingLevel => Lighting Level -- simply enter watts of lights
+       \note Watts/Area => Watts per Zone Floor Area -- enter the number to apply. Value * Floor Area = Lights
+       \note Watts/Person => Watts per Person -- enter the number to apply. Value * Occupants = Lights
+       \type choice
+       \key LightingLevel
+       \key Watts/Area
+       \key Watts/Person
+       \default LightingLevel
+  N1 , \field Lighting Level
+       \units W
+       \type real
+       \minimum 0
+       \ip-units W
+  N2 , \field Watts per Zone Floor Area
+       \type real
+       \minimum 0
+       \units W/m2
+       \ip-units W/ft2
+  N3 , \field Watts per Person
+       \type real
+       \minimum 0
+       \units W/person
+       \ip-units W/person
+  N4 , \field Return Air Fraction
+       \note Used only for sizing calculation if return-air-fraction
+       \note coefficients are specified.
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  N5 , \field Fraction Radiant
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  N6 , \field Fraction Visible
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  N7 , \field Fraction Replaceable
+       \note For Daylighting:Controls must be 0 or 1:  0 = no dimming control, 1 = full dimming control
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  A5 , \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+  A6 , \field Return Air Fraction Calculated from Plenum Temperature
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  N8 , \field Return Air Fraction Function of Plenum Temperature Coefficient 1
+       \note Used only if Return Air Fraction Is Calculated from Plenum Temperature = Yes
+       \note Equation is Return Air Fraction = Coefficient#1 - Coefficient#2 X PlenumTemp(degC)
+       \type real
+       \minimum 0.0
+       \default 0.0
+  N9 , \field Return Air Fraction Function of Plenum Temperature Coefficient 2
+       \note Used only if Return Air Fraction Is Calculated from Plenum Temperature = Yes
+       \note Equation is Return Air Fraction = Coefficient#1 - Coefficient#2 X PlenumTemp(degC)
+       \type real
+       \units 1/K
+       \minimum 0.0
+       \default 0.0
+  A7 ; \field Return Air Heat Gain Node Name
+       \note Name of the return air node for this heat gain.
+       \note If left blank, defaults to the first return air node for the zone.
+       \note Leave this field blank when using a ZoneList name.
+       \type node
+
+
+ElectricEquipment,
+   \memo Sets internal gains for electric equipment in the zone.
+   \memo If you use a ZoneList in the Zone or ZoneList name field then this definition applies
+   \memo to all the zones in the ZoneList.
+   \min-fields 10
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ElectricEquipmentNames
+  A2 , \field Zone or ZoneList Name
+       \required-field
+       \type object-list
+       \object-list ZoneAndZoneListNames
+  A3 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note units in schedule should be fraction applied to design level of electric equipment, generally (0.0 - 1.0)
+  A4 , \field Design Level Calculation Method
+       \note The entered calculation method is used to create the maximum amount of electric equipment
+       \note for this set of attributes
+       \note Choices: EquipmentLevel => Equipment Level -- simply enter watts of equipment
+       \note Watts/Area => Watts per Zone Floor Area -- enter the number to apply. Value * Floor Area = Equipment Level
+       \note Watts/Person => Watts per Person -- enter the number to apply. Value * Occupants = Equipment Level
+       \type choice
+       \key EquipmentLevel
+       \key Watts/Area
+       \key Watts/Person
+       \default EquipmentLevel
+  N1 , \field Design Level
+       \units W
+       \type real
+       \minimum 0
+       \ip-units W
+  N2 , \field Watts per Zone Floor Area
+       \type real
+       \minimum 0
+       \units W/m2
+       \ip-units W/ft2
+  N3 , \field Watts per Person
+       \type real
+       \minimum 0
+       \units W/person
+       \ip-units W/person
+  N4 , \field Fraction Latent
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  N5 , \field Fraction Radiant
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  N6 , \field Fraction Lost
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  A5 ; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+GasEquipment,
+   \memo Sets internal gains and contaminant rates for gas equipment in the zone.
+   \memo If you use a ZoneList in the Zone name field then this definition applies to all those zones.
+   \min-fields 10
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone or ZoneList Name
+       \required-field
+       \type object-list
+       \object-list ZoneAndZoneListNames
+  A3 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note units in Schedule should be fraction applied to design level of gas equipment, generally (0.0 - 1.0)
+  A4 , \field Design Level Calculation Method
+       \note The entered calculation method is used to create the maximum amount of gas equipment
+       \note for this set of attributes
+       \note Choices: EquipmentLevel => Design Level -- simply enter power input of equipment
+       \note Watts/Area or Power/Area => Power per Zone Floor Area -- enter the number to apply. Value * Floor Area = Equipment Level
+       \note Watts/Person or Power/Person => Power per Person -- enter the number to apply. Value * Occupants = Equipment Level
+       \type choice
+       \key EquipmentLevel
+       \key Watts/Area
+       \key Watts/Person
+       \key Power/Area
+       \key Power/Person
+       \default EquipmentLevel
+  N1 , \field Design Level
+       \units W
+       \type real
+       \minimum 0
+       \ip-units Btu/h
+  N2 , \field Power per Zone Floor Area
+       \type real
+       \minimum 0
+       \units W/m2
+       \ip-units Btu/h-ft2
+  N3 , \field Power per Person
+       \type real
+       \minimum 0
+       \units W/person
+       \ip-units Btu/h-person
+  N4 , \field Fraction Latent
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  N5 , \field Fraction Radiant
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  N6 , \field Fraction Lost
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  N7 , \field Carbon Dioxide Generation Rate
+       \note CO2 generation rate per unit of power input
+       \type real
+       \units m3/s-W
+       \ip-units (ft3/min)/(Btu/h)
+       \default 0.0
+       \minimum 0.0
+       \maximum 4.0E-7
+       \note The default value assumes the equipment is fully vented.
+       \note For unvented equipment, a suggested value is 3.45E-8 m3/s-W. This value is
+       \note converted from a natural gas CO2 emission rate of 117 lbs CO2 per million Btu.
+       \note The maximum value assumes to be 10 times of the recommended value.
+  A5 ; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+HotWaterEquipment,
+   \memo Sets internal gains for hot water equipment in the zone.
+   \memo If you use a ZoneList in the Zone name field then this definition applies to all those zones.
+   \min-fields 10
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone or ZoneList Name
+       \required-field
+       \type object-list
+       \object-list ZoneAndZoneListNames
+  A3 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note units in Schedule should be fraction applied to design level of hot water equipment, generally (0.0 - 1.0)
+  A4 , \field Design Level Calculation Method
+       \note The entered calculation method is used to create the maximum amount of hot water equipment
+       \note for this set of attributes
+       \note Choices: EquipmentLevel => Design Level -- simply enter power input of equipment
+       \note Watts/Area or Power/Area => Power per Zone Floor Area -- enter the number to apply. Value * Floor Area = Equipment Level
+       \note Watts/Person or Power/Person => Power per Person -- enter the number to apply. Value * Occupants = Equipment Level
+       \type choice
+       \key EquipmentLevel
+       \key Watts/Area
+       \key Watts/Person
+       \key Power/Area
+       \key Power/Person
+       \default EquipmentLevel
+  N1 , \field Design Level
+       \units W
+       \type real
+       \minimum 0
+       \ip-units Btu/h
+  N2 , \field Power per Zone Floor Area
+       \type real
+       \minimum 0
+       \units W/m2
+       \ip-units Btu/h-ft2
+  N3 , \field Power per Person
+       \type real
+       \minimum 0
+       \units W/person
+       \ip-units Btu/h-person
+  N4 , \field Fraction Latent
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  N5 , \field Fraction Radiant
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  N6 , \field Fraction Lost
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  A5 ; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+SteamEquipment,
+   \memo Sets internal gains for steam equipment in the zone.
+   \min-fields 10
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone or ZoneList Name
+       \required-field
+       \type object-list
+       \object-list ZoneAndZoneListNames
+  A3 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note units in Schedule should be fraction applied to design level of steam equipment, generally (0.0 - 1.0)
+  A4 , \field Design Level Calculation Method
+       \note The entered calculation method is used to create the maximum amount of steam equipment
+       \note for this set of attributes
+       \note Choices: EquipmentLevel => Design Level -- simply enter power input of equipment
+       \note Watts/Area or Power/Area => Power per Zone Floor Area -- enter the number to apply. Value * Floor Area = Equipment Level
+       \note Watts/Person or Power/Person => Power per Person -- enter the number to apply. Value * Occupants = Equipment Level
+       \type choice
+       \key EquipmentLevel
+       \key Watts/Area
+       \key Watts/Person
+       \key Power/Area
+       \key Power/Person
+       \default EquipmentLevel
+  N1 , \field Design Level
+       \units W
+       \type real
+       \minimum 0
+       \ip-units Btu/h
+  N2 , \field Power per Zone Floor Area
+       \type real
+       \minimum 0
+       \units W/m2
+       \ip-units Btu/h-ft2
+  N3 , \field Power per Person
+       \type real
+       \minimum 0
+       \units W/person
+       \ip-units Btu/h-person
+  N4 , \field Fraction Latent
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  N5 , \field Fraction Radiant
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  N6 , \field Fraction Lost
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  A5 ; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+OtherEquipment,
+   \memo Sets internal gains or losses for "other" equipment in the zone.
+   \min-fields 11
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Fuel Type
+       \type choice
+       \key None
+       \key Electricity
+       \key NaturalGas
+       \key Propane
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key Diesel
+       \key Gasoline
+       \key Coal
+       \key OtherFuel1
+       \key OtherFuel2
+       \key Steam
+       \key DistrictHeating
+       \key DistrictCooling
+       \default None
+  A3 , \field Zone or ZoneList Name
+       \required-field
+       \type object-list
+       \object-list ZoneAndZoneListNames
+  A4 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note units in Schedule should be fraction applied to design level of other equipment, generally (0.0 - 1.0)
+  A5 , \field Design Level Calculation Method
+       \note The entered calculation method is used to create the maximum amount of other equipment.
+       \note to set a loss, use a negative value in the following fields.
+       \note for this set of attributes
+       \note Choices: EquipmentLevel => Design Level -- simply enter power input of equipment
+       \note Watts/Area or Power/Area => Power per Zone Floor Area -- enter the number to apply. Value * Floor Area = Equipment Level
+       \note Watts/Person or Power/Person => Power per Person -- enter the number to apply. Value * Occupants = Equipment Level
+       \type choice
+       \key EquipmentLevel
+       \key Watts/Area
+       \key Watts/Person
+       \key Power/Area
+       \key Power/Person
+       \default EquipmentLevel
+  N1 , \field Design Level
+       \units W
+       \type real
+       \ip-units Btu/h
+  N2 , \field Power per Zone Floor Area
+       \type real
+       \units W/m2
+       \ip-units Btu/h-ft2
+  N3 , \field Power per Person
+       \type real
+       \units W/person
+       \ip-units Btu/h-person
+  N4 , \field Fraction Latent
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  N5 , \field Fraction Radiant
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  N6 , \field Fraction Lost
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  N7 , \field Carbon Dioxide Generation Rate
+       \note CO2 generation rate per unit of power input
+       \type real
+       \units m3/s-W
+       \ip-units (ft3/min)/(Btu/h)
+       \default 0.0
+       \minimum 0.0
+       \maximum 4.0E-7
+       \note The default value assumes the equipment is fully vented.
+  A6 ; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+ElectricEquipment:ITE:AirCooled,
+   \memo This object describes air-cooled electric information technology equipment (ITE) which has
+   \memo variable power consumption as a function of loading and temperature.
+       \min-fields 28
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A3 , \field Air Flow Calculation Method
+       \note The specified method is used to calculate the IT inlet temperature and zone return
+       \note air temperature. If FlowFromSystem is chosen, the zone is assumed to be well-mixed.
+       \note If FlowControlWithApproachTemperatures is chosen, Supply and Return approach temperature
+       \note should be defined to indicate the temperature difference due to the air distribution. When
+       \note FlowControlWithApproachTemperatures is chosen, the inputs of Air Inlet Connection Type, Design Recirculation Fraction
+       \note and Recirculation Function of Loading and Supply Temperature Curve Name are ignored. For multiple
+       \note ITE objects defined for one zone, the same calculation method should apply.
+       \note The FlowControlWithApproachTemperatures only applies to ITE zones with single duct VAV terminal unit.
+       \note Other return air heat gains from window or lights are not allowed when FlowControlWithApproachTemperatures is chosen.
+       \type choice
+       \key FlowFromSystem
+       \key FlowControlWithApproachTemperatures
+       \default FlowFromSystem
+  A4 , \field Design Power Input Calculation Method
+       \note The entered calculation method is used to specify the design power input
+       \note Watts/Unit => Watts per Unit -- Design Power = Watts per Unit * Number of Units
+       \note Watts/Area => Watts per Zone Floor Area -- Design Power = Watts per Zone Floor Area * Floor Area
+       \type choice
+       \key Watts/Unit
+       \key Watts/Area
+       \default Watts/Unit
+  N1 , \field Watts per Unit
+       \units W
+       \type real
+       \minimum 0
+       \ip-units W
+  N2 , \field Number of Units
+       \type real
+       \minimum 0
+       \default 1
+  N3 , \field Watts per Zone Floor Area
+       \type real
+       \minimum 0
+       \units W/m2
+       \ip-units W/ft2
+  A5 , \field Design Power Input Schedule Name
+       \note Operating schedule for this equipment, fraction applied to the design power input,
+       \note generally (0.0 - 1.0)
+       \note If this field is blank, the schedule is assumed to always be 1.0.
+       \type object-list
+       \object-list ScheduleNames
+  A6 , \field CPU Loading  Schedule Name
+       \note CPU loading schedule for this equipment as a fraction from 0.0 (idle) to 1.0 (full load).
+       \note If this field is blank, the schedule is assumed to always be 1.0.
+       \type object-list
+       \object-list ScheduleNames
+  A7 , \field CPU Power Input Function of Loading and Air Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note The name of a two-variable curve or table lookup object which modifies the CPU power
+       \note input as a function of CPU loading (x) and air inlet node temperature (y).
+       \note This curve (table) should equal 1.0 at design conditions (CPU loading = 1.0 and
+       \note Design Entering Air Temperature).
+  N4 , \field Design Fan Power Input Fraction
+       \note The fraction of the total power input at design conditions which is for the cooling fan(s)
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N5,  \field Design Fan Air Flow Rate per Power Input
+       \note The cooling fan air flow rate per total electric power input at design conditions
+       \required-field
+       \type real
+       \units m3/s-W
+       \minimum 0.0
+  A8 , \field Air Flow Function of Loading and Air Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note The name of a two-variable curve or table lookup object which modifies the cooling
+       \note air flow rate as a function of CPU loading (x) and air inlet node temperature (y).
+       \note This curve (table) should equal 1.0 at design conditions (CPU loading = 1.0 and
+       \note Design Entering Air Temperature).
+  A9 , \field Fan Power Input Function of Flow Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note The name of a single-variable curve or table lookup object which modifies the cooling
+       \note fan power as a function of flow fraction (x).
+       \note This curve (table) should equal 1.0 at a flow fraction of 1.0.
+  N6,  \field Design Entering Air Temperature
+       \note The entering air temperature at design conditions.
+       \type real
+       \units C
+       \default 15.0
+  A10, \field Environmental Class
+       \note Specifies the allowable operating conditions for the air inlet conditions.
+       \note Used for reporting time outside allowable conditions.
+       \type choice
+       \key None
+       \key A1
+       \key A2
+       \key A3
+       \key A4
+       \key B
+       \key C
+       \default None
+  A11, \field Air Inlet Connection Type
+       \note Specifies the type of connection between the zone and the ITE air inlet node.
+       \note AdjustedSupply = ITE inlet temperature will be the current Supply Air Node temperature
+       \note adjusted by the current recirculation fraction.
+       \note All heat output is added to the zone air heat balance as a convective gain.
+       \note ZoneAirNode = ITE air inlet condition is  the average zone condition.
+       \note All heat output is added to the zone air heat balance as a convective gain.
+       \note RoomAirModel = ITE air inlet and outlet are connected to room air model nodes.
+       \note This field is only used when Air Flow Calculation Method is FlowFromSystem.
+       \type choice
+       \key AdjustedSupply
+       \key ZoneAirNode
+       \key RoomAirModel
+       \default AdjustedSupply
+  A12, \field Air Inlet Room Air Model Node Name
+       \note Name of a RoomAir:Node object which is connected to the ITE air inlet.
+       \type object-list
+       \object-list RoomAirNodes
+  A13, \field Air Outlet Room Air Model Node Name
+       \note Name of a RoomAir:Node object which is connected to the ITE air outlet.
+       \type object-list
+       \object-list RoomAirNodes
+  A14, \field Supply Air Node Name
+       \note Name of the supply air inlet node serving this ITE. Required if the
+       \note Air Node Connection Type = AdjustedSupply. Also required if
+       \note Calculation Method = FlowControlWithApproachTemperatures. Also required if reporting of
+       \note Supply Heat Index is desired.
+       \type node
+  N7,  \field Design Recirculation Fraction
+       \note The recirculation fraction for this equipment at design conditions. This field is used only
+       \note if the Air Node Connection Type = AdjustedSupply. The default is 0.0 (no recirculation).
+       \note This field is only used when Air Flow Calculation Method is FlowFromSystem.
+       \type real
+       \minimum 0.0
+       \maximum 0.5
+       \default 0.0
+  A15, \field Recirculation Function of Loading and Supply Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note The name of a two-variable curve or table lookup object which modifies the recirculation
+       \note fractionas a function of CPU loading (x) and supply air node temperature (y).
+       \note This curve (table) should equal 1.0 at design conditions (CPU loading = 1.0 and
+       \note Design Entering Air Temperature).This field is used only if the
+       \note Air Node Connection Type = AdjustedSupply. If this curve is left blank, then the curve
+       \note is assumed to always equal 1.0.
+       \note This field is only used when Air Flow Calculation Method is FlowFromSystem.
+  N8 , \field Design Electric Power Supply Efficiency
+       \note The efficiency of the power supply system serving this ITE
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 1.0
+  A16, \field Electric Power Supply Efficiency Function of Part Load Ratio Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note The name of a single-variable curve or table lookup object which modifies the electric
+       \note power supply efficiency as a function of part-load ratio (x).
+       \note This curve (table) should equal 1.0 at full load (PLR = 1.0).
+       \note If this curve is left blank, then the curve is assumed to always equal 1.0.
+  N9 , \field Fraction of Electric Power Supply Losses to Zone
+       \note Fraction of the electric power supply losses which are a heat gain to the zone
+       \note If this field is <1.0, the remainder of the losses are assumed to be lost to the outdoors.
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  A17, \field CPU End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default ITE-CPU
+  A18, \field Fan End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default ITE-Fans
+  A19, \field Electric Power Supply End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default ITE-UPS
+  N10, \field Supply Temperature Difference
+       \note The difference of the IT inlet temperature from the AHU supply air temperature.
+       \note Either Supply Temperature Difference or Supply Temperature Difference Schedule is required if Air Flow Calculation Method is set to FlowControlWithApproachTemperatures.
+       \note This field is ignored when Air Flow Calculation Method is FlowFromSystem.
+       \type real
+       \units deltaC
+  A20, \field Supply Temperature Difference Schedule
+       \note The difference schedule of the IT inlet temperature from the AHU supply air temperature.
+       \note Either Supply Temperature Difference or Supply Temperature Difference Schedule is required if Air Flow Calculation Method is set to FlowControlWithApproachTemperatures.
+       \note This field is ignored when Air Flow Calculation Method is FlowFromSystem.
+       \type object-list
+       \object-list ScheduleNames
+  N11, \field Return Temperature Difference
+       \note The difference of the the actual AHU return air temperature to the IT equipment outlet temperature.
+       \note Either Return Temperature Difference or Return Temperature Difference Schedule is required if Air Flow Calculation Method is set to FlowControlWithApproachTemperatures.
+       \note This field is ignored when Air Flow Calculation Method is FlowFromSystem.
+       \type real
+       \units deltaC
+  A21; \field Return Temperature Difference Schedule
+       \note The difference schedule of the actual AHU return air temperature to the IT equipment outlet temperature.
+       \note Either Return Temperature Difference or Return Temperature Difference Schedule is required if Air Flow Calculation Method is set to FlowControlWithApproachTemperatures.
+       \note This field is ignored when Air Flow Calculation Method is FlowFromSystem.
+       \type object-list
+       \object-list ScheduleNames
+
+ZoneBaseboard:OutdoorTemperatureControlled,
+       \memo Specifies outside temperature-controlled electric baseboard heating.
+       \min-fields 8
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A3 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note units in Schedule should be fraction applied to capacity of the baseboard heat equipment, generally (0.0 - 1.0)
+  N1 , \field Capacity at Low Temperature
+       \required-field
+       \type real
+       \units W
+       \minimum> 0
+  N2 , \field Low Temperature
+       \required-field
+       \units C
+       \type real
+  N3 , \field Capacity at High Temperature
+       \required-field
+       \type real
+       \units W
+       \minimum 0
+  N4 , \field High Temperature
+       \required-field
+       \units C
+       \type real
+  N5 , \field Fraction Radiant
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0
+  A4 ; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+
+SwimmingPool:Indoor,
+       \memo Specifies an indoor swimming pools linked to a floor surface.
+       \memo The pool is assumed to cover the entire floor to which it is linked.
+       \min-fields 16
+  A1,  \field Name
+       \required-field
+       \type alpha
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2,  \field Surface Name
+       \required-field
+       \note Name of the floor surface where the pool is located.
+       \type object-list
+       \object-list FloorSurfaceNames
+  N1,  \field Average Depth
+       \required-field
+       \type real
+       \units m
+  A3,  \field Activity Factor Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A4,  \field Make-up Water Supply Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A5,  \field Cover Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  N2,  \field Cover Evaporation Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N3,  \field Cover Convection Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N4,  \field Cover Short-Wavelength Radiation Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N5,  \field Cover Long-Wavelength Radiation Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  A6,  \field Pool Water Inlet Node
+       \required-field
+       \type node
+  A7,  \field Pool Water Outlet Node
+       \required-field
+       \type node
+  N6,  \field Pool Heating System Maximum Water Flow Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \minimum 0.0
+  N7,  \field Pool Miscellaneous Equipment Power
+       \note Power input per pool water flow rate
+       \units W/(m3/s)
+       \ip-units W/(gal/min)
+       \type real
+       \minimum 0.0
+  A8,  \field Setpoint Temperature Schedule
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  N8,  \field Maximum Number of People
+       \required-field
+       \minimum 0.0
+  A9,  \field People Schedule
+       \type object-list
+       \object-list ScheduleNames
+  A10; \field People Heat Gain Schedule
+       \type object-list
+       \object-list ScheduleNames
+
+ZoneContaminantSourceAndSink:CarbonDioxide,
+   \memo Represents internal CO2 gains and sinks in the zone.
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  N1 , \field Design Generation Rate
+       \units m3/s
+       \type real
+       \note Positive values represent sources and negative values represent sinks.
+  A3 ; \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note Value in this schedule should be a fraction (generally 0.0 - 1.0) applied to the Design Generation Rate
+
+ZoneContaminantSourceAndSink:Generic:Constant,
+   \memo Sets internal generic contaminant gains and sinks in a zone with constant values.
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  N1 , \field Design Generation Rate
+       \units m3/s
+       \type real
+       \minimum 0.0
+       \note The values represent source.
+  A3 , \field Generation Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note Value in this schedule should be a fraction (generally 0.0 - 1.0) applied to the Design Generation Rate
+  N2 , \field Design Removal Coefficient
+       \units m3/s
+       \type real
+       \minimum 0.0
+       \note The value represent sink.
+  A4 ; \field Removal Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note Value in this schedule should be a fraction (generally 0.0 - 1.0) applied to the
+       \note Design removal Coefficient
+
+SurfaceContaminantSourceAndSink:Generic:PressureDriven,
+   \memo Simulate generic contaminant source driven by the pressure difference across a surface.
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Surface Name
+       \required-field
+       \type object-list
+       \object-list SurfAndSubSurfNames
+  N1 , \field Design Generation Rate Coefficient
+       \units m3/s
+       \type real
+       \minimum 0.0
+  A3 , \field Generation Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note Value in this schedule should be a fraction (generally 0.0 - 1.0) applied to the
+       \note Design Generation Rate Coefficient
+  N2 ; \field Generation Exponent
+       \units dimensionless
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+
+ZoneContaminantSourceAndSink:Generic:CutoffModel,
+   \memo Simulate generic contaminant source driven by the cutoff concentration model.
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  N1 , \field Design Generation Rate Coefficient
+       \units m3/s
+       \type real
+       \minimum 0.0
+  A3 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note Value in this schedule should be a fraction (generally 0.0 - 1.0) applied to the
+       \note Design Generation Rate Coefficient
+  N2 ; \field Cutoff Generic Contaminant at which Emission Ceases
+       \units ppm
+       \type real
+       \minimum> 0.0
+       \note When the zone concentration level is greater than the cutoff level, emission stops,
+       \note and the source level is zero.
+
+ZoneContaminantSourceAndSink:Generic:DecaySource,
+   \memo Simulate generic contaminant source driven by the cutoff concentration model.
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  N1 , \field Initial Emission Rate
+       \units m3/s
+       \type real
+       \minimum 0.0
+  A3 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note Value in this schedule should be a fraction (generally 0.0 - 1.0) applied to the
+       \note Initial Emission Rate. When the value is equal to 1.0, the time will be reset to
+       \note zero.
+  N2 ; \field Delay Time Constant
+       \units s
+       \type real
+       \minimum> 0.0
+
+SurfaceContaminantSourceAndSink:Generic:BoundaryLayerDiffusion,
+   \memo Simulate generic contaminant source driven by the boundary layer diffusion controlled model.
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Surface Name
+       \required-field
+       \type object-list
+       \object-list SurfaceNames
+  N1 , \field Mass Transfer Coefficient
+       \units m/s
+       \type real
+       \minimum 0.0
+  A3 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note Value in this schedule should be a fraction (generally 0.0 - 1.0) applied to the
+       \note Initial Emission Rate. When the value is equal to 1.0, the time will be reset to
+       \note zero.
+  N2 ; \field Henry Adsorption Constant or Partition Coefficient
+       \units dimensionless
+       \type real
+       \minimum> 0.0
+
+SurfaceContaminantSourceAndSink:Generic:DepositionVelocitySink,
+   \memo Simulate generic contaminant source driven by the boundary layer diffusion controlled model.
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Surface Name
+       \required-field
+       \type object-list
+       \object-list SurfaceNames
+  N1 , \field Deposition Velocity
+       \units m/s
+       \type real
+       \minimum 0.0
+  A3 ; \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note Value in this schedule should be a fraction (generally 0.0 - 1.0) applied to the
+       \note Initial Emission Rate. When the value is equal to 1.0, the time will be reset to
+       \note zero.
+
+ZoneContaminantSourceAndSink:Generic:DepositionRateSink,
+   \memo Simulate generic contaminant source driven by the boundary layer diffusion controlled model.
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  N1 , \field Deposition Rate
+       \units m/s
+       \type real
+       \minimum 0.0
+  A3 ; \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note Value in this schedule should be a fraction (generally 0.0 - 1.0) applied to the
+       \note Initial Emission Rate. When the value is equal to 1.0, the time will be reset to
+       \note zero.
+
+\group Daylighting
+
+Daylighting:Controls,
+       \extensible:3 - repeat last three fields remembering to remove ; from "inner" fields.
+       \min-fields 16
+       \memo Dimming of overhead electric lighting is determined from each reference point.
+       \memo Glare from daylighting is also calculated.
+  A1,  \field Name
+       \required-field
+       \type alpha
+       \reference DaylightingControlNames
+  A2,  \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A3,  \field Daylighting Method
+       \type choice
+       \key SplitFlux
+       \key DElight
+       \default SplitFlux
+  A4,  \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A5,  \field Lighting Control Type
+       \type choice
+       \key Continuous
+       \key Stepped
+       \key ContinuousOff
+       \default Continuous
+  N1,  \field Minimum Input Power Fraction for Continuous or ContinuousOff Dimming Control
+       \type real
+       \minimum 0.0
+       \maximum 0.6
+       \default 0.3
+  N2,  \field Minimum Light Output Fraction for Continuous or ContinuousOff Dimming Control
+       \type real
+       \minimum 0.0
+       \maximum 0.6
+       \default 0.2
+  N3,  \field Number of Stepped Control Steps
+       \note The number of steps, excluding off, in a stepped lighting control system.
+       \note If Lighting Control Type is Stepped, this field must be greater than zero.
+       \note The steps are assumed to be equally spaced.
+       \type integer
+       \minimum 1
+       \default 1
+  N4,  \field Probability Lighting will be Reset When Needed in Manual Stepped Control
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  A6,  \field Glare Calculation Daylighting Reference Point Name
+       \type object-list
+       \object-list DaylightReferencePointNames
+  N5,  \field Glare Calculation Azimuth Angle of View Direction Clockwise from Zone y-Axis
+       \units deg
+       \minimum 0
+       \maximum 360
+       \default 0
+  N6,  \field Maximum Allowable Discomfort Glare Index
+       \type real
+       \minimum 1
+       \note The default is for general office work
+       \default 22
+  N7,  \field DElight Gridding Resolution
+       \units m2
+       \type real
+       \note Maximum surface area for nodes in gridding all surfaces in the DElight zone.
+       \note All reflective and transmitting surfaces will be subdivided
+       \note into approximately square nodes that do not exceed this maximum.
+       \note Higher resolution subdivisions require greater calculation times,
+       \note but generally produce more accurate results.
+       \minimum> 0.0
+  A7,  \field Daylighting Reference Point 1 Name
+       \type object-list
+       \object-list DaylightReferencePointNames
+       \begin-extensible
+       \required-field
+  N8,  \field Fraction of Zone Controlled by Reference Point 1
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  N9,  \field Illuminance Setpoint at Reference Point 1
+       \units lux
+       \type real
+       \minimum 0.0
+       \default 500
+  A8,  \field Daylighting Reference Point 2 Name
+       \type object-list
+       \object-list DaylightReferencePointNames
+  N10, \field Fraction of Zone Controlled by Reference Point 2
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  N11, \field Illuminance Setpoint at Reference Point 2
+       \units lux
+       \type real
+       \minimum 0.0
+       \default 500
+  A9,  \field Daylighting Reference Point 3 Name
+       \type object-list
+       \object-list DaylightReferencePointNames
+  N12, \field Fraction of Zone Controlled by Reference Point 3
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  N13, \field Illuminance Setpoint at Reference Point 3
+       \units lux
+       \type real
+       \minimum 0.0
+       \default 500
+  A10, \field Daylighting Reference Point 4 Name
+       \type object-list
+       \object-list DaylightReferencePointNames
+  N14, \field Fraction of Zone Controlled by Reference Point 4
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  N15, \field Illuminance Setpoint at Reference Point 4
+       \units lux
+       \type real
+       \minimum 0.0
+       \default 500
+  A11, \field Daylighting Reference Point 5 Name
+       \type object-list
+       \object-list DaylightReferencePointNames
+  N16, \field Fraction of Zone Controlled by Reference Point 5
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  N17, \field Illuminance Setpoint at Reference Point 5
+       \units lux
+       \type real
+       \minimum 0.0
+       \default 500
+  A12, \field Daylighting Reference Point 6 Name
+       \type object-list
+       \object-list DaylightReferencePointNames
+  N18, \field Fraction of Zone Controlled by Reference Point 6
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  N19, \field Illuminance Setpoint at Reference Point 6
+       \units lux
+       \type real
+       \minimum 0.0
+       \default 500
+  A13, \field Daylighting Reference Point 7 Name
+       \type object-list
+       \object-list DaylightReferencePointNames
+  N20, \field Fraction of Zone Controlled by Reference Point 7
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  N21, \field Illuminance Setpoint at Reference Point 7
+       \units lux
+       \type real
+       \minimum 0.0
+       \default 500
+  A14, \field Daylighting Reference Point 8 Name
+       \type object-list
+       \object-list DaylightReferencePointNames
+  N22, \field Fraction of Zone Controlled by Reference Point 8
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  N23, \field Illuminance Setpoint at Reference Point 8
+       \units lux
+       \type real
+       \minimum 0.0
+       \default 500
+  A15, \field Daylighting Reference Point 9 Name
+       \type object-list
+       \object-list DaylightReferencePointNames
+  N24, \field Fraction of Zone Controlled by Reference Point 9
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  N25, \field Illuminance Setpoint at Reference Point 9
+       \units lux
+       \type real
+       \minimum 0.0
+       \default 500
+  A16, \field Daylighting Reference Point 10 Name
+       \type object-list
+       \object-list DaylightReferencePointNames
+  N26, \field Fraction of Zone Controlled by Reference Point 10
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  N27; \field Illuminance Setpoint at Reference Point 10
+       \units lux
+       \type real
+       \minimum 0.0
+       \default 500
+
+Daylighting:ReferencePoint,
+       \min-fields 5
+       \memo Used by Daylighting:Controls to identify the reference point coordinates for each sensor.
+       \memo Reference points are given in coordinates specified in the GlobalGeometryRules object
+       \memo Daylighting Reference Point CoordinateSystem field
+  A1,  \field Name
+       \required-field
+       \type alpha
+       \reference DaylightReferencePointNames
+  A2,  \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  N1,  \field X-Coordinate of Reference Point
+       \units m
+       \required-field
+       \type real
+  N2,  \field Y-Coordinate of Reference Point
+       \units m
+       \required-field
+       \type real
+  N3;  \field Z-Coordinate of Reference Point
+       \units m
+       \default 0.8
+       \type real
+
+Daylighting:DELight:ComplexFenestration,
+       \min-fields 5
+       \memo Used for DElight Complex Fenestration of all types
+  A1,  \field Name
+       \required-field
+       \note Only used for user reference
+       \type alpha
+  A2,  \field Complex Fenestration Type
+       \required-field
+       \note Used to select the appropriate Complex Fenestration BTDF data
+       \type alpha
+  A3,  \field Building Surface Name
+       \required-field
+       \note This is a reference to a valid surface object (such as BuildingSurface:Detailed) hosting
+       \note this complex fenestration, analogous to the base surface Name
+       \note field for subsurfaces such as Windows.
+       \type object-list
+       \object-list SurfaceNames
+  A4,  \field Window Name
+       \required-field
+       \note This is a reference to a valid FenestrationSurface:Detailed window object
+       \note used to account for the geometry, and the solar and thermal gains/losses,
+       \note of the Complex Fenestration
+       \type object-list
+       \object-list SubSurfNames
+  N1;  \field Fenestration Rotation
+       \units deg
+       \type real
+       \note In-plane counter-clockwise rotation angle of the Complex Fenestration
+       \note optical reference direction and the base edge of the Complex Fenestration.
+       \note The Rotation will typically be zero when the host and CFS surfaces
+       \note are rectangular and height and width edges are aligned.
+       \default 0.0
+
+DaylightingDevice:Tubular,
+       \memo Defines a tubular daylighting device (TDD) consisting of three components:
+       \memo a dome, a pipe, and a diffuser. The dome and diffuser are defined separately using the
+       \memo FenestrationSurface:Detailed object.
+       \extensible:2 Duplicate the last two fields Transition Zone Name and Transition Zone Length
+       \min-fields 7
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Dome Name
+       \note This must refer to a subsurface object of type TubularDaylightDome
+       \required-field
+       \type object-list
+       \object-list SubSurfNames
+  A3 , \field Diffuser Name
+       \note This must refer to a subsurface object of type TubularDaylightDiffuser
+       \note Delivery zone is specified in the diffuser object
+       \required-field
+       \type object-list
+       \object-list SubSurfNames
+  A4 , \field Construction Name
+       \required-field
+       \type object-list
+       \object-list ConstructionNames
+  N1 , \field Diameter
+       \required-field
+       \units m
+       \type real
+       \minimum> 0
+  N2 , \field Total Length
+       \note The exterior exposed length is the difference between total and sum of zone lengths
+       \required-field
+       \units m
+       \type real
+       \minimum> 0
+  N3 , \field Effective Thermal Resistance
+       \note R value between TubularDaylightDome and TubularDaylightDiffuser
+       \units m2-K/W
+       \type real
+       \minimum> 0
+       \default 0.28
+  A5 , \field Transition Zone 1 Name
+       \begin-extensible
+       \type object-list
+       \object-list ZoneNames
+  N4 , \field Transition Zone 1 Length
+       \units m
+       \type real
+       \minimum 0.0
+  A6 , \field Transition Zone 2 Name
+       \type object-list
+       \object-list ZoneNames
+  N5 , \field Transition Zone 2 Length
+       \units m
+       \type real
+       \minimum 0.0
+  A7 , \field Transition Zone 3 Name
+       \type object-list
+       \object-list ZoneNames
+  N6 , \field Transition Zone 3 Length
+       \units m
+       \type real
+       \minimum 0.0
+  A8 , \field Transition Zone 4 Name
+       \type object-list
+       \object-list ZoneNames
+  N7; \field Transition Zone 4 Length
+       \units m
+       \type real
+       \minimum 0.0
+
+DaylightingDevice:Shelf,
+       \memo Defines a daylighting which can have an inside shelf, an outside shelf, or both.
+       \memo The inside shelf is defined as a building surface and the outside shelf is defined
+       \memo as a shading surface.
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Window Name
+       \required-field
+       \type object-list
+       \object-list SubSurfNames
+  A3 , \field Inside Shelf Name
+       \note This must refer to a BuildingSurface:Detailed or equivalent object
+       \note This surface must be its own Surface for other side boundary conditions.
+       \type object-list
+       \object-list SurfaceNames
+  A4 , \field Outside Shelf Name
+       \note This must refer to a Shading:Zone:Detailed object
+       \type object-list
+       \object-list AttachedShadingSurfNames
+  A5 , \field Outside Shelf Construction Name
+       \note Required if outside shelf is specified
+       \type object-list
+       \object-list ConstructionNames
+  N1 ; \field View Factor to Outside Shelf
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+
+DaylightingDevice:LightWell,
+       \min-fields 5
+       \memo Applies only to exterior windows in daylighting-controlled zones or
+       \memo in zones that share an interior window with a daylighting-controlled  zone.
+       \memo Generally used with skylights.
+  A1,  \field Exterior Window Name
+       \required-field
+       \type object-list
+       \object-list SubSurfNames
+  N1,  \field Height of Well
+       \note Distance from Bottom of Window to Bottom of Well
+       \required-field
+       \type real
+       \units m
+       \minimum 0.0
+  N2,  \field Perimeter of Bottom of Well
+       \required-field
+       \units m
+       \type real
+       \minimum> 0.0
+  N3,  \field Area of Bottom of Well
+       \required-field
+       \type real
+       \units m2
+       \minimum> 0.0
+  N4;  \field Visible Reflectance of Well Walls
+       \required-field
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+
+Output:DaylightFactors,
+   \memo Reports hourly daylight factors for each exterior window for four sky types
+   \memo (clear, turbid clear, intermediate, and overcast).
+  \format singleLine
+   A1;  \field Reporting Days
+   \required-field
+   \type choice
+   \key SizingDays
+   \key AllShadowCalculationDays
+
+Output:IlluminanceMap,
+   \min-fields 9
+   \memo reference points are given in coordinates specified in the GlobalGeometryRules object
+   \memo Daylighting Reference Point CoordinateSystem field
+  A1 , \field Name
+       \required-field
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  N1 , \field Z height
+       \units m
+       \type real
+       \default 0.0
+  N2 , \field X Minimum Coordinate
+       \units m
+       \type real
+       \default 0.0
+  N3 , \field X Maximum Coordinate
+       \units m
+       \type real
+       \default 1.0
+  N4 , \field Number of X Grid Points
+       \note Maximum number of total grid points must be <= 2500 (X*Y)
+       \type integer
+       \minimum 1
+       \default 2
+  N5 , \field Y Minimum Coordinate
+       \units m
+       \type real
+       \default 0.0
+  N6 , \field Y Maximum Coordinate
+       \units m
+       \type real
+       \default 1.0
+  N7 ; \field Number of Y Grid Points
+       \note Maximum number of total grid points must be <= 2500 (X*Y)
+       \type integer
+       \minimum 1
+       \default 2
+
+OutputControl:IlluminanceMap:Style,
+       \memo default style for the Daylighting Illuminance Map is comma -- this works well for
+       \memo importing into spreadsheet programs such as Excel(tm) but not so well for word
+       \memo processing programs -- there tab may be a better choice. fixed puts spaces between
+       \memo the "columns"
+       \unique-object
+   A1; \field Column Separator
+       \type choice
+       \key Comma
+       \key Tab
+       \key Fixed
+       \default Comma
+
+\group Zone Airflow
+
+ZoneInfiltration:DesignFlowRate,
+       \memo  Infiltration is specified as a design level which is modified by a Schedule fraction, temperature difference and wind speed:
+       \memo  Infiltration=Idesign * FSchedule * (A + B*|(Tzone-Todb)| + C*WindSpd + D * WindSpd**2)
+       \memo If you use a ZoneList in the Zone or ZoneList name field then this definition applies
+       \memo to all the zones in the ZoneList.
+       \min-fields 12
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone or ZoneList Name
+       \required-field
+       \type object-list
+       \object-list ZoneAndZoneListNames
+  A3 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A4 , \field Design Flow Rate Calculation Method
+       \note The entered calculation method is used to create the maximum amount of infiltration
+       \note for this set of attributes
+       \note Choices: Flow/Zone => Design Flow Rate -- simply enter Design Flow Rate
+       \note Flow/Area => Flow per Zone Floor Area - Value * Floor Area (zone) = Design Flow Rate
+       \note Flow/ExteriorArea => Flow per Exterior Surface Area - Value * Exterior Surface Area (zone) = Design Flow Rate
+       \note Flow/ExteriorWallArea => Flow per Exterior Surface Area - Value * Exterior Wall Surface Area (zone) = Design Flow Rate
+       \note AirChanges/Hour => Air Changes per Hour - Value * Floor Volume (zone) adjusted for m3/s = Design Volume Flow Rate
+       \note  "Idesign" in Equation is the result.
+       \type choice
+       \key Flow/Zone
+       \key Flow/Area
+       \key Flow/ExteriorArea
+       \key Flow/ExteriorWallArea
+       \key AirChanges/Hour
+       \default Flow/Zone
+  N1 , \field Design Flow Rate
+       \units m3/s
+       \type real
+       \minimum 0
+       \ip-units ft3/min
+  N2 , \field Flow per Zone Floor Area
+       \type real
+       \minimum 0
+       \units m3/s-m2
+  N3 , \field Flow per Exterior Surface Area
+       \note use key Flow/ExteriorArea for all exterior surface area
+       \note use key Flow/ExteriorWallArea to include only exterior wall area
+       \units m3/s-m2
+       \type real
+       \minimum 0
+  N4 , \field Air Changes per Hour
+       \units 1/hr
+       \type real
+       \minimum 0
+  N5 , \field Constant Term Coefficient
+       \note  "A" in Equation
+       \type real
+       \default 1
+  N6 , \field Temperature Term Coefficient
+       \note  "B" in Equation
+       \type real
+       \default 0
+  N7 , \field Velocity Term Coefficient
+       \note  "C" in Equation
+       \type real
+       \default 0
+  N8 ; \field Velocity Squared Term Coefficient
+       \note  "D" in Equation
+       \type real
+       \default 0
+
+ZoneInfiltration:EffectiveLeakageArea,
+       \min-fields 6
+       \memo  Infiltration is specified as effective leakage area at 4 Pa, schedule fraction, stack and wind coefficients, and
+       \memo  is a function of temperature difference and wind speed:
+       \memo  Infiltration=FSchedule * (AL /1000) SQRT(Cs*|(Tzone-Todb)| +  Cw*WindSpd**2 )
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A3 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Effective Air Leakage Area
+       \units cm2
+       \note "AL" in Equation
+       \note units are cm2 (square centimeters)
+       \minimum> 0
+       \type real
+       \required-field
+  N2 , \field Stack Coefficient
+       \note "Cs" in Equation
+       \minimum> 0
+       \type real
+       \required-field
+  N3 ; \field Wind Coefficient
+       \note "Cw" in Equation
+       \minimum> 0
+       \type real
+       \required-field
+
+ZoneInfiltration:FlowCoefficient,
+       \min-fields 8
+       \memo  Infiltration is specified as flow coefficient, schedule fraction, stack and wind coefficients, and
+       \memo  is a function of temperature difference and wind speed:
+       \memo  Infiltration=FSchedule * SQRT( (c * Cs*|(Tzone-Todb)|**n)**2 + (c* Cw*(s * WindSpd)**2n)**2 )
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A3 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Flow Coefficient
+       \note "c" in Equation
+       \minimum> 0
+       \type real
+       \required-field
+  N2 , \field Stack Coefficient
+       \note "Cs" in Equation
+       \minimum> 0
+       \type real
+       \required-field
+  N3 , \field Pressure Exponent
+       \note "n" in Equation
+       \minimum> 0
+       \type real
+       \default 0.67
+  N4 , \field Wind Coefficient
+       \note "Cw" in Equation
+       \minimum> 0
+       \type real
+       \required-field
+  N5 ; \field Shelter Factor
+       \note "s" in Equation
+       \minimum> 0
+       \type real
+       \required-field
+
+ZoneVentilation:DesignFlowRate,
+   \memo  Ventilation is specified as a design level which is modified by a schedule fraction, temperature difference and wind speed:
+   \memo  Ventilation=Vdesign * Fschedule * (A + B*|(Tzone-Todb)| + C*WindSpd + D * WindSpd**2)
+   \memo If you use a ZoneList in the Zone or ZoneList name field then this definition applies
+   \memo to all the zones in the ZoneList.
+   \min-fields 15
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference VentilationNames
+  A2 , \field Zone or ZoneList Name
+       \required-field
+       \type object-list
+       \object-list ZoneAndZoneListNames
+  A3 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A4 , \field Design Flow Rate Calculation Method
+       \note The entered calculation method is used to create the maximum amount of ventilation
+       \note for this set of attributes
+       \note Choices: Flow/Zone => Design Flow Rate -- simply enter Design Flow Rate
+       \note Flow/Area => Flow Rate per Zone Floor Area - Value * Floor Area (zone) = Design Flow Rate
+       \note Flow/Person => Flow Rate per Person - Value * #people = Design Flow Rate
+       \note AirChanges/Hour => Air Changes per Hour - Value * Floor Volume (zone) adjusted for m3/s = Design Volume Flow Rate
+       \note  "Vdesign" in Equation is the result.
+       \type choice
+       \key Flow/Zone
+       \key Flow/Area
+       \key Flow/Person
+       \key AirChanges/Hour
+       \default Flow/Zone
+  N1 , \field Design Flow Rate
+       \units m3/s
+       \type real
+       \minimum 0
+  N2 , \field Flow Rate per Zone Floor Area
+       \type real
+       \minimum 0
+       \units m3/s-m2
+  N3 , \field Flow Rate per Person
+       \type real
+       \minimum 0
+       \units m3/s-person
+  N4 , \field Air Changes per Hour
+       \units 1/hr
+       \type real
+       \minimum 0
+  A5 , \field Ventilation Type
+       \type choice
+       \key Natural
+       \key Intake
+       \key Exhaust
+       \key Balanced
+       \default Natural
+  N5 , \field Fan Pressure Rise
+       \note pressure rise across the fan
+       \type real
+       \units Pa
+       \minimum 0
+       \default 0
+  N6 , \field Fan Total Efficiency
+       \type real
+       \minimum> 0
+       \default 1
+  N7 , \field Constant Term Coefficient
+       \note  "A" in Equation
+       \type real
+       \default 1
+  N8 , \field Temperature Term Coefficient
+       \note  "B" in Equation
+       \type real
+       \default 0
+  N9 , \field Velocity Term Coefficient
+       \note  "C" in Equation
+       \type real
+       \default 0
+  N10, \field Velocity Squared Term Coefficient
+       \note  "D" in Equation
+       \type real
+       \default 0
+  N11, \field Minimum Indoor Temperature
+       \note this is the indoor temperature below which ventilation is shutoff
+       \units C
+       \type real
+       \minimum -100
+       \maximum 100
+       \default -100
+  A6 , \field Minimum Indoor Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the indoor temperature versus time below which
+       \note ventilation is shutoff.
+  N12, \field Maximum Indoor Temperature
+       \note this is the indoor temperature above which ventilation is shutoff
+       \units C
+       \type real
+       \minimum -100
+       \maximum 100
+       \default 100
+  A7 , \field Maximum Indoor Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the indoor temperature versus time above which
+       \note ventilation is shutoff.
+  N13, \field Delta Temperature
+       \note This is the temperature differential between indoor and outdoor below which ventilation is shutoff.
+       \note If ((IndoorTemp - OutdoorTemp) < DeltaTemperature) then ventilation is not allowed.
+       \note For example, if delta temperature is 2C, ventilation is assumed to be available if the outside air temperature
+       \note is at least 2C cooler than the zone air temperature. The values for this field can include negative numbers.
+       \note This allows ventilation to occur even if the outdoor temperature is above the indoor temperature.
+       \units deltaC
+       \type real
+       \minimum -100
+       \default -100
+  A8 , \field Delta Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the temperature differential between indoor and outdoor
+       \note versus time below which ventilation is shutoff.
+  N14, \field Minimum Outdoor Temperature
+       \note this is the outdoor temperature below which ventilation is shutoff
+       \units C
+       \type real
+       \minimum -100
+       \maximum 100
+       \default -100
+  A9 , \field Minimum Outdoor Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the outdoor temperature versus time below which
+       \note ventilation is shutoff.
+  N15, \field Maximum Outdoor Temperature
+       \note this is the outdoor temperature above which ventilation is shutoff
+       \units C
+       \type real
+       \minimum -100
+       \maximum 100
+       \default 100
+  A10, \field Maximum Outdoor Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the outdoor temperature versus time above which
+       \note ventilation is shutoff.
+  N16; \field Maximum Wind Speed
+       \note this is the outdoor wind speed above which ventilation is shutoff
+       \units m/s
+       \type real
+       \minimum 0
+       \maximum 40
+       \default 40
+
+ZoneVentilation:WindandStackOpenArea,
+  \min-fields 8
+       \memo This object is specified as natural ventilation driven by wind and stack effect only:
+       \memo Ventilation Wind = Cw * Opening Area * Schedule * WindSpd
+       \memo Ventilation Stack = Cd * Opening Area * Schedule * SQRT(2*g*DH*(|(Tzone-Todb)|/Tzone))
+       \memo Total Ventilation = SQRT((Ventilation Wind)^2 + (Ventilation Stack)^2)
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference VentilationNames
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  N1 , \field Opening Area
+       \note This is the opening area used to calculate stack effect and wind driven ventilation.
+       \units m2
+       \type real
+       \minimum 0
+       \default 0
+  A3 , \field Opening Area Fraction Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the fraction values applied to the opening area given in the previous
+       \note input field (0.0 - 1.0).
+  N2 , \field Opening Effectiveness
+       \note This field is used to calculate wind driven ventilation.
+       \note  "Cw" in the wind-driven equation and the maximum value is 1.0.
+       \note When the input is Autocalculate, the program calculates Cw based on an angle between
+       \note wind direction and effective angle
+       \note Cw = 0.55 at angle = 0, and Cw = 0.3 at angle=180
+       \note Linear interpolation is used to calculate Cw based on the above two values.
+       \units dimensionless
+       \autocalculatable
+       \type real
+       \minimum 0
+       \maximum 1
+       \default Autocalculate
+  N3 , \field Effective Angle
+       \note This field is defined as normal angle of the opening area and is used when input
+       \note field Opening Effectiveness = Autocalculate.
+       \type real
+       \units deg
+       \minimum 0.0
+       \maximum< 360.0
+       \default 0
+  N4 , \field Height Difference
+       \note This is the height difference between the midpoint of an opening and
+       \note the neutral pressure level.
+       \units m
+       \type real
+       \minimum 0
+       \default 0
+       \note  "DH" in the stack equation.
+  N5 , \field Discharge Coefficient for Opening
+       \note This is the discharge coefficient used to calculate stack effect.
+       \note  "Cd" in the stack equation and the maximum value is 1.0.
+       \note When the input is Autocalculate, the following equation is used to calculate the
+       \note coefficient:
+       \note Cd = 0.4 + 0.0045*|(Tzone-Todb)|
+       \autocalculatable
+       \minimum 0.0
+       \maximum 1.0
+       \default Autocalculate
+  N6 , \field Minimum Indoor Temperature
+       \note This is the indoor temperature below which ventilation is shutoff.
+       \units C
+       \type real
+       \minimum -100
+       \maximum 100
+       \default -100
+  A4 , \field Minimum Indoor Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the indoor temperature versus time below which
+       \note ventilation is shutoff.
+  N7 , \field Maximum Indoor Temperature
+       \note This is the indoor temperature above which ventilation is shutoff.
+       \units C
+       \type real
+       \minimum -100
+       \maximum 100
+       \default 100
+  A5 , \field Maximum Indoor Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the indoor temperature versus time above which
+       \note ventilation is shutoff.
+  N8 , \field Delta Temperature
+       \note This is the temperature differential between indoor and outdoor below
+       \note which ventilation is shutoff.
+       \units deltaC
+       \type real
+       \minimum -100
+       \default -100
+  A6 , \field Delta Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the temperature differential between indoor and outdoor
+       \note versus time below which ventilation is shutoff.
+  N9 , \field Minimum Outdoor Temperature
+       \note This is the outdoor temperature below which ventilation is shutoff.
+       \units C
+       \type real
+       \minimum -100
+       \maximum 100
+       \default -100
+  A7 , \field Minimum Outdoor Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the outdoor temperature versus time below which
+       \note ventilation is shutoff.
+  N10, \field Maximum Outdoor Temperature
+       \note This is the outdoor temperature above which ventilation is shutoff.
+       \units C
+       \type real
+       \minimum -100
+       \maximum 100
+       \default 100
+  A8 , \field Maximum Outdoor Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the outdoor temperature versus time above which
+       \note ventilation is shutoff.
+  N11; \field Maximum Wind Speed
+       \note This is the outdoor wind speed above which ventilation is shutoff.
+       \units m/s
+       \type real
+       \minimum 0
+       \maximum 40
+       \default 40
+
+ZoneAirBalance:OutdoorAir,
+       \memo Provide a combined zone outdoor air flow by including interactions between
+       \memo mechanical ventilation, infiltration and duct leakage.
+       \memo This object will combine outdoor flows from all ZoneInfiltration and
+       \memo ZoneVentilation objects in the same zone. Balanced flows will be summed, while
+       \memo unbalanced flows will be added in quadrature.
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A3 , \field Air Balance Method
+       \type choice
+       \key Quadrature
+       \key None
+       \default Quadrature
+       \note None: Only perform simple calculations without using a combined zone outdoor air.
+       \note Quadrature: A combined outdoor air is used in the quadrature sum.
+  N1 , \field Induced Outdoor Air Due to Unbalanced Duct Leakage
+       \units m3/s
+       \type real
+       \minimum 0
+       \default 0
+  A4 ; \field Induced Outdoor Air Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the fraction values applied to the Induced Outdoor Air given in the
+       \note previous input field (0.0 - 1.0).
+
+ZoneMixing,
+       \memo ZoneMixing is a simple air exchange from one zone to another. Note that this statement
+       \memo only affects the energy balance of the "receiving" zone and will not produce
+       \memo any effect on the "source" zone. Mixing statements can be complementary and include
+       \memo multiple zones, but the balancing of flows between zones is left to the user's
+       \memo discretion.
+ \min-fields 9
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A3 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A4 , \field Design Flow Rate Calculation Method
+       \note The entered calculation method is used to create the maximum amount of ventilation
+       \note for this set of attributes
+       \note Choices: Flow/Zone => Design Flow Rate -- simply enter Design Flow Rate
+       \note Flow/Area => Flow Rate per Zone Floor Area - Value * Floor Area (zone) = Design Flow Rate
+       \note Flow/Person => Flow Rate per Person - Value * #people = Design Flow Rate
+       \note AirChanges/Hour => Air Changes per Hour - Value * Floor Volume (zone) adjusted for m3/s = Design Volume Flow Rate
+       \note  "Vdesign" in Equation is the result.
+       \type choice
+       \key Flow/Zone
+       \key Flow/Area
+       \key Flow/Person
+       \key AirChanges/Hour
+       \default Flow/Zone
+  N1 , \field Design Flow Rate
+       \units m3/s
+       \type real
+       \minimum 0
+  N2 , \field Flow Rate per Zone Floor Area
+       \type real
+       \minimum 0
+       \units m3/s-m2
+  N3 , \field Flow Rate per Person
+       \type real
+       \minimum 0
+       \units m3/s-person
+  N4 , \field Air Changes per Hour
+       \units 1/hr
+       \type real
+       \minimum 0
+  A5 , \field Source Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  N5 , \field Delta Temperature
+       \units deltaC
+       \type real
+       \default 0
+       \note This field contains the constant temperature differential between source and
+       \note receiving zones below which mixing is shutoff.
+  A6 , \field Delta Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the temperature differential between source and receiving
+       \note zones versus time below which mixing is shutoff.
+  A7 , \field Minimum Zone Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the zone dry-bulb temperature versus time below which
+       \note mixing is shutoff.
+  A8 , \field Maximum Zone Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the zone dry-bulb temperature versus time above which
+       \note mixing is shutoff.
+  A9 , \field Minimum Source Zone Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the source zone dry-bulb temperature versus time below
+       \note which mixing is shutoff.
+  A10, \field Maximum Source Zone Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the source zone dry-bulb temperature versus time above
+       \note which mixing is shutoff.
+  A11, \field Minimum Outdoor Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the outdoor temperature versus time below which
+       \note mixing is shutoff.
+  A12; \field Maximum Outdoor Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the outdoor temperature versus time above which
+       \note mixing is shutoff.
+
+ZoneCrossMixing,
+       \memo ZoneCrossMixing exchanges an equal amount of air between two zones. Note that this
+       \memo statement affects the energy balance of both zones.
+  \min-fields 9
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A3 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A4 , \field Design Flow Rate Calculation Method
+       \note The entered calculation method is used to create the maximum amount of ventilation
+       \note for this set of attributes
+       \note Choices: Flow/Zone => Design Flow Rate -- simply enter Design Flow Rate
+       \note Flow/Area => Flow Rate per Zone Floor Area - Value * Floor Area (zone) = Design Flow Rate
+       \note Flow/Person => Flow Rate per Person - Value * #people = Design Flow Rate
+       \note AirChanges/Hour => Air Changes per Hour - Value * Floor Volume (zone) adjusted for m3/s = Design Volume Flow Rate
+       \note  "Vdesign" in Equation is the result.
+       \type choice
+       \key Flow/Zone
+       \key Flow/Person
+       \key Flow/Area
+       \key AirChanges/Hour
+       \default Flow/Zone
+  N1 , \field Design Flow Rate
+       \units m3/s
+       \type real
+       \minimum 0
+  N2 , \field Flow Rate per Zone Floor Area
+       \type real
+       \minimum 0
+       \units m3/s-m2
+  N3 , \field Flow Rate per Person
+       \type real
+       \minimum 0
+       \units m3/s-person
+  N4 , \field Air Changes per Hour
+       \units 1/hr
+       \type real
+       \minimum 0
+  A5 , \field Source Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  N5 , \field Delta Temperature
+       \units deltaC
+       \minimum 0.0
+       \type real
+       \default 0
+       \note This field contains the constant temperature differential between source and
+       \note receiving zones below which cross mixing is shutoff. This value must be greater
+       \note than or equal to zero.
+  A6 , \field Delta Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the temperature differential between source and receiving
+       \note zones versus time below which cross mixing is shutoff.
+  A7 , \field Minimum Zone Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the indoor temperature versus time below which
+       \note cross mixing is shutoff.
+  A8 , \field Maximum Zone Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the indoor temperature versus time above which
+       \note cross mixing is shutoff.
+  A9 , \field Minimum Source Zone Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the source zone dry-bulb temperature versus time below
+       \note which cross mixing is shutoff.
+  A10, \field Maximum Source Zone Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the source zone dry-bulb temperature versus time above
+       \note which cross mixing is shutoff.
+  A11, \field Minimum Outdoor Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the outdoor temperature versus time below which
+       \note cross mixing is shutoff.
+  A12; \field Maximum Outdoor Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This schedule contains the outdoor temperature versus time above which
+       \note cross mixing is shutoff.
+
+ZoneRefrigerationDoorMixing,
+  \min-fields 4
+       \memo Refrigeration Door Mixing is used for an opening between two zones that are at the
+       \memo   same elevation but have different air temperatures. In this case, the mixing air flow
+       \memo   between the two zones is determined by the density difference between the two zones.
+       \memo   This would typically be used between two zones in a refrigerated warehouse that are
+       \memo   controlled at different temperatures. It could also be used to model a door to a walk-in
+       \memo   refrigerated space if that space were modeled as a zone instead of using the object Refrigeration:WalkIn.
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone 1 Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A3 , \field Zone 2 Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A4 , \field Schedule Name
+       \note This schedule defines the fraction of the time the refrigeration door is open
+       \note  For example, if the warehouse is closed at night and there are no door openings
+       \note   between two zones, the value for that time period would be 0.
+       \note   If doors were propped open, the value  over that time period would be 1.0
+       \note   If the doors were open about 20% of the time, the value over that period would be 0.2
+       \note   Schedule values must lie between 0 and 1.0
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Door Height
+       \units m
+       \type real
+       \minimum 0
+       \maximum 50.
+       \default 3.0
+  N2 , \field Door Area
+       \type real
+       \minimum 0
+       \maximum 400.
+       \default 9.
+       \units m2
+  A5;  \field Door Protection Type
+       \note Door protection can reduce the air flow through a refrigeration door
+       \note The default value is "None"
+       \note Choices: "None", "AirCurtain", and "StripCurtain"
+       \note A strip curtain reduces the air flow more than an air curtain
+       \type choice
+       \key None
+       \key AirCurtain
+       \key StripCurtain
+       \default None
+
+ZoneEarthtube,
+  \min-fields 22
+      \memo  Earth Tube is specified as a design level which is modified by a Schedule fraction, temperature difference and wind speed:
+      \memo  Earthtube=Edesign * Fschedule * (A + B*|(Tzone-Todb)| + C*WindSpd + D * WindSpd**2)
+  A1, \field Zone Name
+      \required-field
+      \type object-list
+      \object-list ZoneNames
+  A2, \field Schedule Name
+      \required-field
+      \type object-list
+      \object-list ScheduleNames
+  N1, \field Design Flow Rate
+      \required-field
+      \units m3/s
+      \note  "Edesign" in Equation
+      \type real
+      \minimum 0
+  N2, \field Minimum Zone Temperature when Cooling
+      \required-field
+      \note this is the indoor temperature below which the earth tube is shut off
+      \units C
+      \type real
+      \minimum -100
+      \maximum 100
+  N3, \field Maximum Zone Temperature when Heating
+      \required-field
+      \note this is the indoor temperature above which the earth tube is shut off
+      \units C
+      \type real
+      \minimum -100
+      \maximum 100
+  N4, \field Delta Temperature
+      \required-field
+      \note This is the temperature difference between indoor and outdoor below which the earth tube is shut off
+      \units deltaC
+      \type real
+      \minimum 0
+  A3, \field Earthtube Type
+      \type choice
+      \key Natural
+      \key Intake
+      \key Exhaust
+      \default Natural
+  N5, \field Fan Pressure Rise
+      \note pressure rise across the fan
+      \type real
+      \units Pa
+      \minimum 0
+      \default 0
+  N6, \field Fan Total Efficiency
+      \type real
+      \minimum> 0
+      \default 1
+  N7, \field Pipe Radius
+      \units m
+      \type real
+      \minimum> 0
+      \default 1
+  N8, \field Pipe Thickness
+      \units m
+      \type real
+      \minimum> 0
+      \default 0.2
+  N9, \field Pipe Length
+      \units m
+      \type real
+      \minimum> 0
+      \default 15
+ N10, \field Pipe Thermal Conductivity
+      \units W/m-K
+      \type real
+      \minimum> 0
+      \default 200
+ N11, \field Pipe Depth Under Ground Surface
+      \units m
+      \type real
+      \minimum> 0
+      \default 3
+  A4, \field Soil Condition
+      \type choice
+      \key HeavyAndSaturated
+      \key HeavyAndDamp
+      \key HeavyAndDry
+      \key LightAndDry
+      \default HeavyAndDamp
+ N12, \field Average Soil Surface Temperature
+      \required-field
+      \units C
+      \type real
+ N13, \field Amplitude of Soil Surface Temperature
+      \required-field
+      \units deltaC
+      \type real
+      \minimum 0
+ N14, \field Phase Constant of Soil Surface Temperature
+      \required-field
+      \units days
+      \type real
+      \minimum 0
+ N15, \field Constant Term Flow Coefficient
+      \note  "A" in Equation
+      \type real
+      \default 1
+ N16, \field Temperature Term Flow Coefficient
+      \note  "B" in Equation
+      \type real
+      \default 0
+ N17, \field Velocity Term Flow Coefficient
+      \note  "C" in Equation
+      \type real
+      \default 0
+ N18; \field Velocity Squared Term Flow Coefficient
+      \note  "D" in Equation
+      \type real
+      \default 0
+
+ZoneCoolTower:Shower,
+     \memo A cooltower (sometimes referred to as a wind tower or a shower cooling tower)
+     \memo models passive downdraught evaporative cooling (PDEC) that is designed to capture the
+     \memo wind at the top of a tower and cool the outdoor air using water evaporation before
+     \memo delivering it to a space.
+ A1, \field Name
+     \required-field
+ A2, \field Availability Schedule Name
+     \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+     \note If this field is blank, the system is always available.
+     \type object-list
+     \object-list ScheduleNames
+ A3, \field Zone Name
+     \required-field
+     \type object-list
+     \object-list ZoneNames
+ A4, \field Water Supply Storage Tank Name
+     \note In case of stand alone tank or underground water, leave this input blank
+     \type object-list
+     \object-list WaterStorageTankNames
+ A5, \field Flow Control Type
+     \note Water flow schedule should be selected when the water flow rate is known.
+     \note Wind-driven flow should be selected when the water flow rate is unknown.
+     \type choice
+     \key WaterFlowSchedule
+     \key WindDrivenFlow
+     \default WindDrivenFlow
+ A6, \field Pump Flow Rate Schedule Name
+     \required-field
+     \type object-list
+     \object-list ScheduleNames
+ N1, \field Maximum Water Flow Rate
+     \required-field
+     \units m3/s
+     \ip-units gal/min
+     \type real
+ N2, \field Effective Tower Height
+     \note This field is from either the spray or the wet pad to the top of the outlet.
+     \required-field
+     \units m
+     \type real
+ N3, \field Airflow Outlet Area
+     \note User have to specify effective area when outlet area is relatively bigger than the cross sectional area
+     \note of cooltower. If the number of outlet is more than one, assume the air passes through only one.
+     \required-field
+     \units m2
+     \type real
+ N4, \field Maximum Air Flow Rate
+     \required-field
+     \units m3/s
+     \type real
+     \minimum 0
+ N5, \field Minimum Indoor Temperature
+     \required-field
+     \note This field is to specify the indoor temperature below which cooltower is shutoff.
+     \units C
+     \type real
+     \minimum -100
+     \maximum 100
+ N6, \field Fraction of Water Loss
+     \minimum 0
+     \maximum 1
+ N7, \field Fraction of Flow Schedule
+     \minimum 0
+     \maximum 1
+ N8; \field Rated Power Consumption
+     \required-field
+     \units W
+     \type real
+
+ZoneThermalChimney,
+       \memo A thermal chimney is a vertical shaft utilizing solar radiation to enhance natural
+       \memo ventilation. It consists of an absorber wall, air gap and glass cover with high solar
+       \memo transmissivity.
+   \min-fields 10
+   A1, \field Name
+        \required-field
+   A2,  \field Zone Name
+        \note Name of zone that is the thermal chimney
+        \required-field
+        \type object-list
+        \object-list ZoneNames
+   A3, \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   N1, \field Width of the Absorber Wall
+        \required-field
+        \units m
+        \type real
+        \minimum 0
+   N2, \field Cross Sectional Area of Air Channel Outlet
+        \required-field
+        \units m2
+        \type real
+        \minimum 0
+   N3, \field Discharge Coefficient
+        \type real
+        \minimum 0
+        \maximum 1
+        \default 0.8
+   A4, \field Zone 1 Name
+        \required-field
+        \type object-list
+        \object-list ZoneNames
+   N4, \field Distance from Top of Thermal Chimney to Inlet 1
+        \required-field
+        \units m
+        \type real
+        \minimum 0
+   N5, \field Relative Ratios of Air Flow Rates Passing through Zone 1
+        \type real
+        \minimum 0
+        \maximum 1
+        \default 1.0
+   N6, \field Cross Sectional Areas of Air Channel Inlet 1
+        \required-field
+        \units m2
+        \type real
+        \minimum 0
+   A5, \field Zone 2 Name
+        \type object-list
+        \object-list ZoneNames
+   N7, \field Distance from Top of Thermal Chimney to Inlet 2
+        \units m
+        \type real
+        \minimum 0
+   N8, \field Relative Ratios of Air Flow Rates Passing through Zone 2
+        \type real
+        \minimum 0
+        \maximum 1
+   N9, \field Cross Sectional Areas of Air Channel Inlet 2
+        \units m2
+        \type real
+        \minimum 0
+   A6, \field Zone 3 Name
+        \type object-list
+        \object-list ZoneNames
+   N10, \field Distance from Top of Thermal Chimney to Inlet 3
+        \units m
+        \type real
+        \minimum 0
+   N11, \field Relative Ratios of Air Flow Rates Passing through Zone 3
+        \type real
+        \minimum 0
+        \maximum 1
+   N12, \field Cross Sectional Areas of Air Channel Inlet 3
+        \units m2
+        \type real
+        \minimum 0
+   A7, \field Zone 4 Name
+        \type object-list
+        \object-list ZoneNames
+   N13, \field Distance from Top of Thermal Chimney to Inlet 4
+        \units m
+        \type real
+        \minimum 0
+   N14, \field Relative Ratios of Air Flow Rates Passing through Zone 4
+        \type real
+        \minimum 0
+        \maximum 1
+   N15, \field Cross Sectional Areas of Air Channel Inlet 4
+        \units m2
+        \type real
+        \minimum 0
+   A8, \field Zone 5 Name
+        \type object-list
+        \object-list ZoneNames
+   N16, \field Distance from Top of Thermal Chimney to Inlet 5
+        \units m
+        \type real
+        \minimum 0
+   N17, \field Relative Ratios of Air Flow Rates Passing through Zone 5
+        \type real
+        \minimum 0
+        \maximum 1
+   N18, \field Cross Sectional Areas of Air Channel Inlet 5
+        \units m2
+        \type real
+        \minimum 0
+   A9, \field Zone 6 Name
+        \type object-list
+        \object-list ZoneNames
+   N19, \field Distance from Top of Thermal Chimney to Inlet 6
+        \units m
+        \type real
+        \minimum 0
+   N20, \field Relative Ratios of Air Flow Rates Passing through Zone 6
+        \type real
+        \minimum 0
+        \maximum 1
+   N21, \field Cross Sectional Areas of Air Channel Inlet 6
+        \units m2
+        \type real
+        \minimum 0
+   A10, \field Zone 7 Name
+        \type object-list
+        \object-list ZoneNames
+   N22, \field Distance from Top of Thermal Chimney to Inlet 7
+        \units m
+        \type real
+        \minimum 0
+   N23, \field Relative Ratios of Air Flow Rates Passing through Zone 7
+        \type real
+        \minimum 0
+        \maximum 1
+   N24, \field Cross Sectional Areas of Air Channel Inlet 7
+        \units m2
+        \type real
+        \minimum 0
+   A11, \field Zone 8 Name
+        \type object-list
+        \object-list ZoneNames
+   N25, \field Distance from Top of Thermal Chimney to Inlet 8
+        \units m
+        \type real
+        \minimum 0
+   N26, \field Relative Ratios of Air Flow Rates Passing through Zone 8
+        \type real
+        \minimum 0
+        \maximum 1
+   N27, \field Cross Sectional Areas of Air Channel Inlet 8
+        \units m2
+        \type real
+        \minimum 0
+   A12, \field Zone 9 Name
+        \type object-list
+        \object-list ZoneNames
+   N28, \field Distance from Top of Thermal Chimney to Inlet 9
+        \units m
+        \type real
+        \minimum 0
+   N29, \field Relative Ratios of Air Flow Rates Passing through Zone 9
+        \type real
+        \minimum 0
+        \maximum 1
+   N30, \field Cross Sectional Areas of Air Channel Inlet 9
+        \units m2
+        \type real
+        \minimum 0
+   A13, \field Zone 10 Name
+        \type object-list
+        \object-list ZoneNames
+   N31, \field Distance from Top of Thermal Chimney to Inlet 10
+        \units m
+        \type real
+        \minimum 0
+   N32, \field Relative Ratios of Air Flow Rates Passing through Zone 10
+        \type real
+        \minimum 0
+        \maximum 1
+   N33, \field Cross Sectional Areas of Air Channel Inlet 10
+        \units m2
+        \type real
+        \minimum 0
+   A14, \field Zone 11 Name
+        \type object-list
+        \object-list ZoneNames
+   N34, \field Distance from Top of Thermal Chimney to Inlet 11
+        \units m
+        \type real
+        \minimum 0
+   N35, \field Relative Ratios of Air Flow Rates Passing through Zone 11
+        \type real
+        \minimum 0
+        \maximum 1
+   N36, \field Cross Sectional Areas of Air Channel Inlet 11
+        \units m2
+        \type real
+        \minimum 0
+   A15, \field Zone 12 Name
+        \type object-list
+        \object-list ZoneNames
+   N37, \field Distance from Top of Thermal Chimney to Inlet 12
+        \units m
+        \type real
+        \minimum 0
+   N38, \field Relative Ratios of Air Flow Rates Passing through Zone 12
+        \type real
+        \minimum 0
+        \maximum 1
+   N39, \field Cross Sectional Areas of Air Channel Inlet 12
+        \units m2
+        \type real
+        \minimum 0
+   A16, \field Zone 13 Name
+        \type object-list
+        \object-list ZoneNames
+   N40, \field Distance from Top of Thermal Chimney to Inlet 13
+        \units m
+        \type real
+        \minimum 0
+   N41, \field Relative Ratios of Air Flow Rates Passing through Zone 13
+        \type real
+        \minimum 0
+        \maximum 1
+   N42, \field Cross Sectional Areas of Air Channel Inlet 13
+        \units m2
+        \type real
+        \minimum 0
+   A17, \field Zone 14 Name
+        \type object-list
+        \object-list ZoneNames
+   N43, \field Distance from Top of Thermal Chimney to Inlet 14
+        \units m
+        \type real
+        \minimum 0
+   N44, \field Relative Ratios of Air Flow Rates Passing through Zone 14
+        \type real
+        \minimum 0
+        \maximum 1
+   N45, \field Cross Sectional Areas of Air Channel Inlet 14
+        \units m2
+        \type real
+        \minimum 0
+   A18, \field Zone 15 Name
+        \type object-list
+        \object-list ZoneNames
+   N46, \field Distance from Top of Thermal Chimney to Inlet 15
+        \units m
+        \type real
+        \minimum 0
+   N47, \field Relative Ratios of Air Flow Rates Passing through Zone 15
+        \type real
+        \minimum 0
+        \maximum 1
+   N48, \field Cross Sectional Areas of Air Channel Inlet 15
+        \units m2
+        \type real
+        \minimum 0
+   A19, \field Zone 16 Name
+        \type object-list
+        \object-list ZoneNames
+   N49, \field Distance from Top of Thermal Chimney to Inlet 16
+        \units m
+        \type real
+        \minimum 0
+   N50, \field Relative Ratios of Air Flow Rates Passing through Zone 16
+        \type real
+        \minimum 0
+        \maximum 1
+   N51, \field Cross Sectional Areas of Air Channel Inlet 16
+        \units m2
+        \type real
+        \minimum 0
+   A20, \field Zone 17 Name
+        \type object-list
+        \object-list ZoneNames
+   N52, \field Distance from Top of Thermal Chimney to Inlet 17
+        \units m
+        \type real
+        \minimum 0
+   N53, \field Relative Ratios of Air Flow Rates Passing through Zone 17
+        \type real
+        \minimum 0
+        \maximum 1
+   N54, \field Cross Sectional Areas of Air Channel Inlet 17
+        \units m2
+        \type real
+        \minimum 0
+   A21, \field Zone 18 Name
+        \type object-list
+        \object-list ZoneNames
+   N55, \field Distance from Top of Thermal Chimney to Inlet 18
+        \units m
+        \type real
+        \minimum 0
+   N56, \field Relative Ratios of Air Flow Rates Passing through Zone 18
+        \type real
+        \minimum 0
+        \maximum 1
+   N57, \field Cross Sectional Areas of Air Channel Inlet 18
+        \units m2
+        \type real
+        \minimum 0
+   A22, \field Zone 19 Name
+        \type object-list
+        \object-list ZoneNames
+   N58, \field Distance from Top of Thermal Chimney to Inlet 19
+        \units m
+        \type real
+        \minimum 0
+   N59, \field Relative Ratios of Air Flow Rates Passing through Zone 19
+        \type real
+        \minimum 0
+        \maximum 1
+   N60, \field Cross Sectional Areas of Air Channel Inlet 19
+        \units m2
+        \type real
+        \minimum 0
+   A23, \field Zone 20 Name
+        \type object-list
+        \object-list ZoneNames
+   N61, \field Distance from Top of Thermal Chimney to Inlet 20
+        \units m
+        \type real
+        \minimum 0
+   N62, \field Relative Ratios of Air Flow Rates Passing through Zone 20
+        \type real
+        \minimum 0
+        \maximum 1
+   N63; \field Cross Sectional Areas of Air Channel Inlet 20
+        \units m2
+        \type real
+        \minimum 0
+
+\group AirflowNetwork
+
+! Basic parameters
+AirflowNetwork:SimulationControl,
+      \min-fields 12
+      \unique-object
+      \memo This object defines the global parameters used in an Airflow Network simulation.
+ A1 , \field Name
+      \required-field
+      \note Enter a unique name for this object.
+ A2 , \field AirflowNetwork Control
+      \type choice
+      \key MultizoneWithDistribution
+      \key MultizoneWithoutDistribution
+      \key MultizoneWithDistributionOnlyDuringFanOperation
+      \key NoMultizoneOrDistribution
+      \default NoMultizoneOrDistribution
+      \note NoMultizoneOrDistribution: Only perform Simple calculations (objects ZoneInfiltration:*,
+      \note ZoneVentilation:*, ZoneMixing, ZoneCrossMixing, ZoneRefrigerationDoorMixing,
+      \note ZoneAirBalance:OutdoorAir, ZoneEarthtube, ZoneThermalChimney, and ZoneCoolTower:Shower);
+      \note MultizoneWithoutDistribution: Use AirflowNetwork objects to simulate multizone
+      \note Airflows driven by wind during simulation time,
+      \note and objects of ZoneInfiltration:*, ZoneVentilation:*, ZoneMixing, ZoneCrossMixing
+      \note ZoneRefrigerationDoorMixing, ZoneAirBalance:OutdoorAir, ZoneEarthtube,
+      \note ZoneThermalChimney, and ZoneCoolTower:Shower are ignored;
+      \note MultizoneWithDistributionOnlyDuringFanOperation: Perform distribution system
+      \note calculations during system fan on time
+      \note and Simple calculations during system Fan off time;
+      \note MultizoneWithDistribution: Perform distribution system calculations during system
+      \note fan on time and multizone Airflow driven by wind during system fan off time.
+ A3 , \field Wind Pressure Coefficient Type
+      \type choice
+      \key Input
+      \key SurfaceAverageCalculation
+      \default SurfaceAverageCalculation
+      \note Input: User must enter AirflowNetwork:MultiZone:WindPressureCoefficientArray,
+      \note AirflowNetwork:MultiZone:ExternalNode, and
+      \note AirflowNetwork:MultiZone:WindPressureCoefficientValues objects.
+      \note SurfaceAverageCalculation: used only for rectangular buildings.
+      \note If SurfaceAverageCalculation is selected,
+      \note AirflowNetwork:MultiZone:WindPressureCoefficientArray, AirflowNetwork:MultiZone:ExternalNode,
+      \note and AirflowNetwork:MultiZone:WindPressureCoefficientValues objects are not used.
+ A4 , \field Height Selection for Local Wind Pressure Calculation
+      \type choice
+      \key ExternalNode
+      \key OpeningHeight
+      \default OpeningHeight
+      \note If ExternalNode is selected, the height given in the
+      \note AirflowNetwork:MultiZone:ExternalNode object will be used.
+      \note If OpeningHeight is selected, the surface opening height (centroid) will be used to
+      \note calculate local wind pressure
+      \note This field is ignored when the choice of the Wind Pressure Coefficient Type field is
+      \note SurfaceAverageCalculation.
+ A5 , \field Building Type
+      \note Used only if Wind Pressure Coefficient Type = SurfaceAverageCalculation,
+      \note otherwise this field may be left blank.
+      \type choice
+      \key LowRise
+      \key HighRise
+      \default LowRise
+ N1 , \field Maximum Number of Iterations
+      \type integer
+      \units dimensionless
+      \default 500
+      \minimum> 10
+      \maximum 30000
+      \note Determines the maximum number of iterations used to converge on a solution. If this limit
+      \note is exceeded, the program terminates.
+ A6 , \field Initialization Type
+      \type choice
+      \key LinearInitializationMethod
+      \key ZeroNodePressures
+      \default ZeroNodePressures
+ N2 , \field Relative Airflow Convergence Tolerance
+      \type real
+      \units dimensionless
+      \default 1.E-4
+      \minimum> 0
+      \note This tolerance is defined as the absolute value of the sum of the mass Flow Rates
+      \note divided by the sum of the absolute value of the mass Flow Rates. The mass Flow Rates
+      \note described here refer to the mass Flow Rates at all Nodes in the AirflowNetwork model.
+      \note The solution converges when both this tolerance and the tolerance in the next field
+      \note (Absolute Airflow Convergence Tolerance) are satisfied.
+ N3 , \field Absolute Airflow Convergence Tolerance
+      \type real
+      \units kg/s
+      \default 1.E-6
+      \minimum> 0
+      \note This tolerance is defined as the absolute value of the sum of the mass flow rates. The mass
+      \note flow rates described here refer to the mass flow rates at all nodes in the AirflowNetwork
+      \note model. The solution converges when both this tolerance and the tolerance in the previous
+      \note field (Relative Airflow Convergence Tolerance) are satisfied.
+ N4 , \field Convergence Acceleration Limit
+      \type real
+      \units dimensionless
+      \note Used only for AirflowNetwork:SimulationControl
+      \minimum -1
+      \maximum 1
+      \default -0.5
+ N5 , \field Azimuth Angle of Long Axis of Building
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 180.0
+      \default 0.0
+      \note Degrees clockwise from true North.
+      \note Used only if Wind Pressure Coefficient Type = SurfaceAverageCalculation.
+ N6 , \field Ratio of Building Width Along Short Axis to Width Along Long Axis
+      \type real
+      \minimum> 0.0
+      \maximum 1.0
+      \default 1.0
+      \note Used only if Wind Pressure Coefficient Type = SurfaceAverageCalculation.
+ A7 , \field Height Dependence of External Node Temperature
+      \note If Yes, external node temperature is height dependent.
+      \note If No, external node temperature is based on zero height.
+      \type choice
+      \key Yes
+      \key No
+      \default No
+ A8 , \field Solver
+      \note Select the solver to use for the pressure network solution
+      \type choice
+      \key SkylineLU
+      \key ConjugateGradient
+      \default SkylineLU
+ A9 ; \field Allow Unsupported Zone Equipment
+      \note Set this input to Yes to have zone equipment that are currently unsupported in the AirflowNetwork model
+      \note allowed in the simulation if present. Setting this field to Yes, allows the following equipments
+      \note to be modeled along an AirflowNetwork model: ZoneHVAC:Dehumidifier, ZoneHVAC:EnergyRecoveryVentilator,
+      \note WaterHeater:HeatPump:*.
+      \type choice
+      \key Yes
+      \key No
+      \default No
+
+AirflowNetwork:MultiZone:Zone,
+      \min-fields 8
+      \memo This object is used to simultaneously control a thermal zone's window and door openings,
+      \memo both exterior and interior.
+  A1, \field Zone Name
+      \required-field
+      \reference AirFlowNetworkMultizoneZones
+      \type object-list
+      \object-list ZoneNames
+      \note Enter the zone name where ventilation control is required.
+  A2, \field Ventilation Control Mode
+      \type choice
+      \key Temperature
+      \key Enthalpy
+      \key Constant
+      \key ASHRAE55Adaptive
+      \key CEN15251Adaptive
+      \key NoVent
+      \default NoVent
+      \note When Ventilation Control Mode = Temperature or Enthalpy, the following
+      \note fields are used to modulate the Ventilation Open Factor for all
+      \note window and door openings in the zone according to the zone's
+      \note indoor-outdoor temperature or enthalpy difference.
+      \note Constant: controlled by field Venting Schedule Name.
+      \note NoVent: control will not open window or door during simulation (Ventilation Open Factor = 0).
+  A3, \field Ventilation Control Zone Temperature Setpoint Schedule Name
+      \type object-list
+      \object-list ScheduleNames
+      \note Used only if Ventilation Control Mode = Temperature or Enthalpy.
+  N1, \field Minimum Venting Open Factor
+      \type real
+      \units dimensionless
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.0
+      \note Used only if Ventilation Control Mode = Temperature or Enthalpy.
+  N2, \field Indoor and Outdoor Temperature Difference Lower Limit For Maximum Venting Open Factor
+      \type real
+      \units deltaC
+      \minimum 0.0
+      \maximum< 100.0
+      \default 0.0
+      \note Applicable only if Ventilation Control Mode = Temperature.
+      \note This value must be less than the corresponding upper value (next field).
+  N3, \field Indoor and Outdoor Temperature Difference Upper Limit for Minimum Venting Open Factor
+      \type real
+      \units deltaC
+      \minimum> 0.0
+      \default 100.0
+      \note Applicable only if Ventilation Control Mode = Temperature.
+      \note This value must be greater than the corresponding lower value (previous field).
+  N4, \field Indoor and Outdoor Enthalpy Difference Lower Limit For Maximum Venting Open Factor
+      \type real
+      \units deltaJ/kg
+      \minimum 0.0
+      \maximum< 300000.0
+      \default 0.0
+      \note Applicable only if Ventilation Control Mode = Enthalpy.
+      \note This value must be less than the corresponding upper value (next field).
+  N5, \field Indoor and Outdoor Enthalpy Difference Upper Limit for Minimum Venting Open Factor
+      \type real
+      \units deltaJ/kg
+      \minimum> 0.0
+      \default 300000.0
+      \note Applicable only if Ventilation Control Mode = Enthalpy.
+      \note This value must be greater than the corresponding lower value (previous field).
+  A4, \field Venting Availability Schedule Name
+      \type object-list
+      \object-list ScheduleNames
+      \note Non-zero Schedule value means venting is allowed if other venting control conditions are
+      \note satisfied. A zero (or negative) Schedule value means venting is not allowed under any
+      \note The Schedule values should be greater than or equal to 0 and less than or equal to 1.
+      \note circumstances. If this Schedule is not specified then venting is allowed if
+      \note other venting control conditions are satisfied.
+      \note Not used if Ventilation Control Mode = NoVent.
+  A5, \field Single Sided Wind Pressure Coefficient Algorithm
+      \type choice
+      \key Advanced
+      \key Standard
+      \default Standard
+      \note Selecting Advanced results in EnergyPlus calculating modified Wind Pressure Coefficients
+      \note to account for wind direction and turbulence effects on single sided ventilation rates.
+      \note Model is only valid for zones with 2 openings, both of which are on a single facade.
+  N6, \field Facade Width
+      \type real
+      \units m
+      \minimum 0.0
+      \default 10.0
+      \note This is the whole building width along the direction of the facade of this zone.
+  A6; \field Occupant Ventilation Control Name
+      \type object-list
+      \object-list AirflowNetworkOccupantVentilationControlNames
+      \note Enter the name where Occupancy Ventilation Control is required.
+
+AirflowNetwork:MultiZone:Surface,
+      \min-fields 4
+      \memo This object specifies the properties of a surface linkage through which air flows.
+      \memo Airflow Report: Node 1 as an inside face zone;
+      \memo Node 2 as an outside face zone or external node.
+  A1, \field Surface Name
+      \required-field
+      \type object-list
+      \object-list SurfAndSubSurfNames
+      \note Enter the name of a heat transfer surface.
+  A2, \field Leakage Component Name
+      \required-field
+      \type object-list
+      \object-list SurfaceAirflowLeakageNames
+      \note Enter the name of an Airflow Network leakage component. A leakage component is
+      \note one of the following AirflowNetwork:Multizone objects:
+      \note AirflowNetwork:MultiZone:Component:DetailedOpening,
+      \note AirflowNetwork:MultiZone:Component:SimpleOpening,
+      \note AirflowNetwork:MultiZone:Surface:Crack,
+      \note AirflowNetwork:MultiZone:Surface:EffectiveLeakageArea,
+      \note AirflowNetwork:MultiZone:Component:HorizontalOpening, or
+      \note AirflowNetwork:MultiZone:Component:ZoneExhaustFan.
+      \note When the zone exhaust fan name is entered, any surface control fields below A3 are
+      \note ignored when the zone exhaust fan turns on.
+  A3, \field External Node Name
+      \type object-list
+      \object-list ExternalNodeNames
+      \object-list OutdoorAirNodeNames
+      \note Used if Wind Pressure Coefficient Type = Input in the AirflowNetwork:SimulationControl object,
+      \note otherwise this field may be left blank.
+  N1, \field Window/Door Opening Factor, or Crack Factor
+      \type real
+      \units dimensionless
+      \minimum> 0.0
+      \maximum 1.0
+      \default 1.0
+      \note This field specifies a multiplier for a crack, window, or door.
+  A4, \field Ventilation Control Mode
+      \type choice
+      \key Temperature
+      \key Enthalpy
+      \key Constant
+      \key ASHRAE55Adaptive
+      \key CEN15251Adaptive
+      \key NoVent
+      \key ZoneLevel
+      \key AdjacentTemperature
+      \key AdjacentEnthalpy
+      \default ZoneLevel
+      \note When Ventilation Control Mode = Temperature or Enthalpy, the following
+      \note fields are used to modulate the Ventilation Open Factor for a
+      \note window or door opening according to the parent zone's
+      \note indoor-outdoor temperature or enthalpy difference.
+      \note When Ventilation Control Mode = AdjacentTemperature or AdjacentEnthalpy, the following
+      \note fields are used to modulate the Ventilation Open Factor for an interior
+      \note window or door opening according to temperature or enthalpy difference
+      \note between the parent zone and the adjacent zone.
+      \note Constant: controlled by field Venting Schedule Name.
+      \note NoVent: control will not open window or door during simulation (Ventilation Open Factor = 0).
+      \note ZoneLevel: control will be controlled by AirflowNetwork:MultiZone:Zone
+      \note Mode.
+  A5, \field Ventilation Control Zone Temperature Setpoint Schedule Name
+      \type object-list
+      \object-list ScheduleNames
+      \note Used only if Ventilation Control Mode = Temperature or Enthalpy.
+  N2, \field Minimum Venting Open Factor
+      \type real
+      \units dimensionless
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.0
+      \note Used only if Ventilation Control Mode = Temperature or Enthalpy.
+  N3, \field Indoor and Outdoor Temperature Difference Lower Limit For Maximum Venting Open Factor
+      \note Applicable only if Ventilation Control Mode = Temperature
+      \type real
+      \units deltaC
+      \minimum 0.0
+      \maximum< 100
+      \default 0.0
+  N4, \field Indoor and Outdoor Temperature Difference Upper Limit for Minimum Venting Open Factor
+      \type real
+      \units deltaC
+      \minimum> 0.0
+      \default 100.0
+      \note Applicable only if Ventilation Control Mode = Temperature.
+      \note This value must be greater than the corresponding lower value (previous field).
+  N5, \field Indoor and Outdoor Enthalpy Difference Lower Limit For Maximum Venting Open Factor
+      \type real
+      \units deltaJ/kg
+      \minimum 0.0
+      \maximum< 300000.0
+      \default 0.0
+      \note Applicable only if Ventilation Control Mode = Enthalpy.
+      \note This value must be less than the corresponding upper value (next field).
+  N6, \field Indoor and Outdoor Enthalpy Difference Upper Limit for Minimum Venting Open Factor
+      \type real
+      \units deltaJ/kg
+      \minimum> 0.0
+      \default 300000.0
+      \note Applicable only if Ventilation Control Mode = Enthalpy.
+      \note This value must be greater than the corresponding lower value (previous field).
+  A6, \field Venting Availability Schedule Name
+      \type object-list
+      \object-list ScheduleNames
+      \note Non-zero schedule value means venting is allowed if other venting control conditions are
+      \note satisfied. A zero (or negative) schedule value means venting is not allowed under any
+      \note circumstances. The schedule values should be greater than or equal to 0 and less than or
+      \note equal to 1. If this schedule is not specified then venting is allowed if
+      \note other venting control conditions are satisfied.
+      \note Not used if Ventilation Control Mode = NoVent or ZoneLevel.
+  A7, \field Occupant Ventilation Control Name
+      \type object-list
+      \object-list AirflowNetworkOccupantVentilationControlNames
+      \note Enter the name where Occupancy Ventilation Control is required.
+  A8, \field Equivalent Rectangle Method
+      \type choice
+      \key PolygonHeight
+      \key BaseSurfaceAspectRatio
+      \key UserDefinedAspectRatio
+      \default PolygonHeight
+      \note This field is applied to a non-rectangular window or door. The equivalent shape has
+      \note the same area as a polygonal window or door.
+  N7; \field Equivalent Rectangle Aspect Ratio
+      \note This field is used when UserDefinedAspectRatio is entered in the Equivalent
+      \note Rectangle Method field.
+      \units dimensionless
+      \type real
+      \minimum> 0.0
+      \default 1.0
+
+AirflowNetwork:MultiZone:ReferenceCrackConditions,
+      \min-fields 4
+      \memo This object specifies the conditions under which the air mass flow coefficient was measured.
+ A1 , \field Name
+      \required-field
+      \type alpha
+      \reference ReferenceCrackConditions
+      \note Enter a unique name for this object.
+ N1 , \field Reference Temperature
+      \type real
+      \units C
+      \default 20
+      \note Enter the reference temperature under which the surface crack data were obtained.
+ N2 , \field Reference Barometric Pressure
+      \type real
+      \units Pa
+      \default 101325
+      \minimum 31000
+      \maximum 120000
+      \ip-units inHg
+      \note Enter the reference barometric pressure under which the surface crack data were obtained.
+ N3 ; \field Reference Humidity Ratio
+      \type real
+      \units kgWater/kgDryAir
+      \default 0
+      \note Enter the reference humidity ratio under which the surface crack data were obtained.
+
+AirflowNetwork:MultiZone:Surface:Crack,
+      \min-fields 3
+      \memo This object specifies the properties of airflow through a crack.
+ A1 , \field Name
+      \required-field
+      \type alpha
+      \reference SurfaceAirflowLeakageNames
+      \note Enter a unique name for this object.
+ N1 , \field Air Mass Flow Coefficient at Reference Conditions
+      \type real
+      \required-field
+      \units kg/s
+      \minimum> 0
+      \note Enter the air mass flow coefficient at the conditions defined
+      \note in the Reference Crack Conditions object.
+      \note Defined at 1 Pa pressure difference across this crack.
+ N2 , \field Air Mass Flow Exponent
+      \type real
+      \units dimensionless
+      \minimum 0.5
+      \maximum 1.0
+      \default 0.65
+      \note Enter the air mass flow exponent for the surface crack.
+ A2 ; \field Reference Crack Conditions
+      \type object-list
+      \object-list ReferenceCrackConditions
+      \note Select a AirflowNetwork:MultiZone:ReferenceCrackConditions name associated with
+      \note the air mass flow coefficient entered above.
+
+AirflowNetwork:MultiZone:Surface:EffectiveLeakageArea,
+      \min-fields 5
+      \memo This object is used to define surface air leakage.
+ A1 , \field Name
+      \required-field
+      \type alpha
+      \reference SurfaceAirflowLeakageNames
+      \note Enter a unique name for this object.
+ N1 , \field Effective Leakage Area
+      \required-field
+      \type real
+      \units m2
+      \minimum> 0
+      \note Enter the effective leakage area.
+ N2 , \field Discharge Coefficient
+      \type real
+      \units dimensionless
+      \minimum> 0
+      \default 1.0
+      \note Enter the coefficient used in the air mass flow equation.
+ N3 , \field Reference Pressure Difference
+      \type real
+      \units Pa
+      \minimum> 0
+      \default 4.0
+      \note Enter the pressure difference used to define the air mass flow coefficient and exponent.
+ N4 ; \field Air Mass Flow Exponent
+      \units dimensionless
+      \type real
+      \default .65
+      \minimum 0.5
+      \maximum 1.0
+      \note Enter the exponent used in the air mass flow equation.
+
+AirflowNetwork:MultiZone:Component:DetailedOpening,
+      \min-fields 16
+      \memo This object specifies the properties of airflow through windows and doors (window, door and
+      \memo glass door heat transfer subsurfaces) when they are closed or open.
+ A1 , \field Name
+      \required-field
+      \type alpha
+      \reference SurfaceAirflowLeakageNames
+      \note Enter a unique name for this object.
+ N1 , \field Air Mass Flow Coefficient When Opening is Closed
+      \required-field
+      \type real
+      \units kg/s-m
+      \minimum> 0
+      \note Defined at 1 Pa per meter of crack length. Enter the coefficient used in the following
+      \note equation:
+      \note Mass Flow Rate = Air Mass Flow Coefficient * (dP)^Air Mass Flow Exponent.
+      \note Used only when opening (window or door) is closed.
+ N2 , \field Air Mass Flow Exponent When Opening is Closed
+      \units dimensionless
+      \type real
+      \minimum 0.5
+      \maximum 1.0
+      \default 0.65
+      \note Enter the exponent used in the following equation:
+      \note Mass Flow Rate = Air Mass Flow Coefficient * (dP)^Air Mass Flow Exponent.
+      \note Used only when opening (window or door) is closed.
+ A2 , \field Type of Rectangular Large Vertical Opening (LVO)
+      \type choice
+      \key NonPivoted
+      \key HorizontallyPivoted
+      \note Select the type of vertical opening: Non-pivoted opening or Horizontally pivoted opening.
+      \default NonPivoted
+ N3 , \field Extra Crack Length or Height of Pivoting Axis
+      \type real
+      \units m
+      \minimum 0
+      \default 0
+      \note Extra crack length is used for LVO Non-pivoted type with multiple openable parts.
+      \note Height of pivoting axis is used for LVO Horizontally pivoted type.
+      \note Specifies window or door characteristics that depend on the LVO type.
+      \note For Non-pivoted Type (rectangular windows and doors), this field is the extra crack length
+      \note in meters due to multiple openable parts, if present. Extra here means in addition
+      \note to the length of the cracks on the top, bottom and sides of the window/door.
+      \note For Horizontally pivoted Type, this field gives the height of the
+      \note pivoting axis measured from the bottom of the glazed part of the window (m).
+ N4 , \field Number of Sets of Opening Factor Data
+      \required-field
+      \type integer
+      \minimum 2
+      \maximum 4
+      \note Enter the number of the following sets of data for opening factor,
+      \note discharge coefficient, width factor, height factor, and start height factor.
+ N5 , \field Opening Factor 1
+      \type real
+      \units dimensionless
+      \minimum 0
+      \maximum 0
+      \default 0
+      \note This value must be specified as 0.
+ N6 , \field Discharge Coefficient for Opening Factor 1
+      \type real
+      \units dimensionless
+      \minimum> 0
+      \maximum 1
+      \default 0.001
+      \note The Discharge Coefficient indicates the fractional effectiveness
+      \note for air flow through a window or door at that Opening Factor.
+ N7 , \field Width Factor for Opening Factor 1
+      \type real
+      \units dimensionless
+      \minimum 0
+      \maximum 1
+      \default 0
+      \note The Width Factor is the opening width divided by the window or door width.
+ N8 , \field Height Factor for Opening Factor 1
+      \type real
+      \units dimensionless
+      \minimum 0
+      \maximum 1
+      \default 0
+      \note The Height Factor is the opening height divided by the window or door height.
+ N9 , \field Start Height Factor for Opening Factor 1
+      \type real
+      \units dimensionless
+      \minimum 0
+      \maximum 1
+      \default 0
+      \note The Start Height Factor is the Start Height divided by the window or door height.
+      \note Start Height is the distance between the bottom of the window or door and the
+      \note bottom of the window or door opening. The sum of the Height Factor and the Start Height
+      \note Factor must be less than 1.0 in order to have the opening within the window or door
+      \note dimensions.
+ N10, \field Opening Factor 2
+      \required-field
+      \type real
+      \units dimensionless
+      \minimum> 0
+      \maximum 1
+      \note If Number of Sets of Opening Factor Data = 2, this value must be 1.0.
+      \note If Number of Sets of Opening Factor Data = 3, this value must be less than 1.0.
+      \note If Number of Sets of Opening Factor Data = 4, this value must be less than the
+      \note value entered for Opening factor 3 and greater than the value entered
+      \note for Opening factor 1.
+ N11, \field Discharge Coefficient for Opening Factor 2
+      \type real
+      \units dimensionless
+      \minimum> 0
+      \maximum 1
+      \default 1
+      \note The Discharge Coefficient indicates the fractional effectiveness
+      \note for air flow through a window or door at that Opening Factor.
+ N12, \field Width Factor for Opening Factor 2
+      \type real
+      \units dimensionless
+      \minimum> 0
+      \maximum 1
+      \default 1
+      \note The Width Factor is the opening width divided by the window or door width.
+ N13, \field Height Factor for Opening Factor 2
+      \type real
+      \units dimensionless
+      \minimum> 0
+      \maximum 1
+      \default 1
+      \note The Height Factor is the opening height divided by the window or door height.
+ N14, \field Start Height Factor for Opening Factor 2
+      \type real
+      \units dimensionless
+      \minimum 0
+      \maximum< 1
+      \default 0
+      \note The Start Height Factor is the Start Height divided by the window or door height.
+      \note Start Height is the distance between the bottom of the window or door and the
+      \note bottom of the window or door opening. The sum of the Height Factor and the Start Height
+      \note Factor must be less than 1.0 in order to have the opening within the window or door
+      \note dimensions.
+ N15, \field Opening Factor 3
+      \type real
+      \units dimensionless
+      \minimum 0
+      \maximum 1
+      \note If Number of Sets of Opening Factor Data = 3, this value must be 1.0.
+      \note If Number of Sets of Opening Factor Data = 4, this value must be less than 1.0,
+      \note and greater than value entered for Opening factor 2.
+ N16, \field Discharge Coefficient for Opening Factor 3
+      \type real
+      \units dimensionless
+      \minimum 0
+      \maximum 1
+      \default 0
+      \note The Discharge Coefficient indicates the fractional effectiveness
+      \note for air flow through a window or door at that Opening Factor.
+ N17, \field Width Factor for Opening Factor 3
+      \type real
+      \units dimensionless
+      \minimum 0
+      \maximum 1
+      \default 0
+      \note The Width Factor is the opening width divided by the window or door width.
+ N18, \field Height Factor for Opening Factor 3
+      \type real
+      \units dimensionless
+      \minimum 0
+      \maximum 1
+      \default 0
+      \note The Height Factor is the opening height divided by the window or door height.
+ N19, \field Start Height Factor for Opening Factor 3
+      \type real
+      \units dimensionless
+      \minimum 0
+      \maximum 1
+      \default 0
+      \note The Start Height Factor is the Start Height divided by the window or door height.
+      \note Start Height is the distance between the bottom of the window or door and the
+      \note bottom of the window or door opening. The sum of the Height Factor and the Start Height
+      \note Factor must be less than 1.0 in order to have the opening within the window or door
+      \note dimensions.
+ N20, \field Opening Factor 4
+      \type real
+      \units dimensionless
+      \minimum 0
+      \maximum 1
+      \note If Number of Sets of Opening Factor Data = 4, this value must be 1.0
+ N21, \field Discharge Coefficient for Opening Factor 4
+      \type real
+      \units dimensionless
+      \minimum 0
+      \maximum 1
+      \default 0
+      \note The Discharge Coefficient indicates the fractional effectiveness
+      \note for air flow through a window or door at that Opening Factor.
+ N22, \field Width Factor for Opening Factor 4
+      \type real
+      \units dimensionless
+      \minimum 0
+      \maximum 1
+      \default 0
+      \note The Width Factor is the opening width divided by the window or door width.
+ N23, \field Height Factor for Opening Factor 4
+      \type real
+      \units dimensionless
+      \minimum 0
+      \maximum 1
+      \default 0
+      \note The Height Factor is the opening height divided by the window or door height.
+ N24; \field Start Height Factor for Opening Factor 4
+      \type real
+      \units dimensionless
+      \minimum 0
+      \maximum 1
+      \default 0
+      \note The Start Height Factor is the Start Height divided by the window or door height.
+      \note Start Height is the distance between the bottom of the window or door and the
+      \note bottom of the window or door opening. The sum of the Height Factor and the Start Height
+      \note Factor must be less than 1.0 in order to have the opening within the window or door
+      \note dimensions.
+
+AirflowNetwork:MultiZone:Component:SimpleOpening,
+      \min-fields 5
+      \memo This object specifies the properties of air flow through windows and doors (window, door and
+      \memo glass door heat transfer subsurfaces) when they are closed or open.
+ A1 , \field Name
+      \required-field
+      \type alpha
+      \reference SurfaceAirflowLeakageNames
+      \note Enter a unique name for this object.
+ N1 , \field Air Mass Flow Coefficient When Opening is Closed
+      \required-field
+      \type real
+      \minimum> 0
+      \units kg/s-m
+      \note Defined at 1 Pa pressure difference. Enter the coefficient used in the following equation:
+      \note Mass Flow Rate = Air Mass Flow Coefficient * (dP)^Air Mass Flow Exponent.
+      \note Used only when opening (window or door) is closed.
+ N2 , \field Air Mass Flow Exponent When Opening is Closed
+      \units dimensionless
+      \type real
+      \default .65
+      \minimum 0.5
+      \maximum 1.0
+      \note Enter the exponent used in the following equation:
+      \note Mass Flow Rate = Air Mass Flow Coefficient * (dP)^Air Mass Flow Exponent.
+      \note Used only when opening (window or door) is closed.
+ N3 , \field Minimum Density Difference for Two-Way Flow
+      \required-field
+      \units kg/m3
+      \type real
+      \minimum> 0
+      \note Enter the minimum density difference above which two-way flow may occur due to stack effect.
+ N4 ; \field Discharge Coefficient
+      \required-field
+      \units dimensionless
+      \type real
+      \minimum> 0
+      \note The Discharge Coefficient indicates the fractional effectiveness
+      \note for air flow through a window or door at that Opening Factor.
+
+AirflowNetwork:MultiZone:Component:HorizontalOpening,
+      \min-fields 5
+      \memo This object specifies the properties of air flow through a horizontal opening
+ A1 , \field Name
+      \required-field
+      \type alpha
+      \reference SurfaceAirflowLeakageNames
+      \note Enter a unique name for this object.
+ N1 , \field Air Mass Flow Coefficient When Opening is Closed
+      \required-field
+      \type real
+      \minimum> 0
+      \units kg/s-m
+      \note Defined at 1 Pa pressure difference. Enter the coefficient used in the following equation:
+      \note Mass flow rate = Air Mass Flow Coefficient * (dP)^Air Mass Flow Exponent.
+      \note Used only when opening is closed.
+ N2 , \field Air Mass Flow Exponent When Opening is Closed
+      \units dimensionless
+      \type real
+      \default .65
+      \minimum 0.5
+      \maximum 1.0
+      \note Enter the exponent used in the following equation:
+      \note Mass flow rate = Air Mass Flow Coefficient * (dP)^Air Mass Flow Exponent.
+      \note Used only when opening is closed.
+ N3 , \field Sloping Plane Angle
+      \units deg
+      \type real
+      \minimum> 0
+      \maximum 90
+      \default 90
+      \note Sloping plane angle = 90 is equivalent to fully open.
+ N4 ; \field Discharge Coefficient
+      \required-field
+      \units dimensionless
+      \type real
+      \minimum> 0
+      \note The Discharge Coefficient indicates the fractional effectiveness
+      \note for air flow through the opening at that Opening Factor.
+
+AirflowNetwork:MultiZone:Component:ZoneExhaustFan,
+      \min-fields 3
+      \memo This object specifies the additional properties for a zone exhaust fan
+      \memo to perform multizone airflow calculations.
+ A1 , \field Name
+      \required-field
+      \type object-list
+      \object-list FansZoneExhaust
+      \reference SurfaceAirflowLeakageNames
+      \note Enter the name of a Fan:ZoneExhaust object.
+ N1 , \field Air Mass Flow Coefficient When the Zone Exhaust Fan is Off at Reference Conditions
+      \required-field
+      \type real
+      \units kg/s
+      \minimum> 0
+      \note Enter the air mass flow coefficient at the conditions defined
+      \note in the Reference Crack Conditions object.
+      \note Defined at 1 Pa pressure difference. Enter the coefficient used in the following
+      \note equation:
+      \note Mass Flow Rate = Air Mass Flow Coefficient * (dP)^Air Mass Flow Exponent.
+      \note Used only when the fan is off.
+ N2 , \field Air Mass Flow Exponent When the Zone Exhaust Fan is Off
+      \units dimensionless
+      \type real
+      \minimum 0.5
+      \maximum 1.0
+      \default 0.65
+      \note Enter the exponent used in the following equation:
+      \note Mass Flow Rate = Air Mass Flow Coefficient * (dP)^Air Mass Flow Exponent.
+      \note Used only when the fan is off.
+ A2 ; \field Reference Crack Conditions
+      \type object-list
+      \object-list ReferenceCrackConditions
+      \note Select a AirflowNetwork:MultiZone:ReferenceCrackConditions name associated with
+      \note the air mass flow coefficient entered above.
+
+AirflowNetwork:MultiZone:ExternalNode,
+      \min-fields 3
+      \memo This object defines outdoor environmental conditions outside of the building.
+ A1 , \field Name
+      \required-field
+      \type alpha
+      \reference ExternalNodeNames
+      \note Enter a unique name for this object.
+      \note This node name will be referenced by a particular building facade.
+ N1 , \field External Node Height
+      \type real
+      \units m
+      \default 0.0
+      \note Designates the reference height used to calculate relative pressure.
+ A2 , \field Wind Pressure Coefficient Curve Name
+      \required-field
+      \type object-list
+      \object-list WPCValueNames
+      \object-list UnivariateFunctions
+      \note The name of the AirflowNetwork:MultiZone:WindPressureCoefficientValues, curve, or table object specifying the wind pressure coefficient.
+ A3 , \field Symmetric Wind Pressure Coefficient Curve
+      \type choice
+      \key Yes
+      \key No
+      \default No
+      \note Specify whether the pressure curve is symmetric or not.
+      \note Specify Yes for curves that should be evaluated from 0 to 180 degrees
+      \note Specify No for curves that should be evaluated from 0 to 360 degrees
+ A4 ; \field Wind Angle Type
+      \type choice
+      \key Absolute
+      \key Relative
+      \default Absolute
+      \note Specify whether the angle used to compute the wind pressure coefficient is absolute or relative
+      \note Specify Relative to compute the angle between the wind direction and the surface azimuth
+      \note Specify Absolute to use the wind direction angle directly
+
+AirflowNetwork:MultiZone:WindPressureCoefficientArray,
+      \min-fields 3
+      \memo Used only if Wind Pressure Coefficient (WPC) Type = Input in the AirflowNetwork:SimulationControl
+      \memo object. Number of WPC Values in the corresponding AirflowNetwork:MultiZone:WindPressureCoefficientValues
+      \memo object must be the same as the number of wind directions specified for
+      \memo this AirflowNetwork:MultiZone:WindPressureCoefficientArray object.
+ A1 , \field Name
+      \required-field
+      \reference WPCSetNames
+      \type alpha
+      \note Enter a unique name for the object.
+ N1 , \field Wind Direction 1
+      \required-field
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 1st WPC Array value.
+ N2 , \field Wind Direction 2
+      \required-field
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 2nd WPC Array value.
+ N3 , \field Wind Direction 3
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 3rd WPC Array value.
+ N4 , \field Wind Direction 4
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 4th WPC Array value.
+ N5 , \field Wind Direction 5
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 5th WPC Array value.
+ N6 , \field Wind Direction 6
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 6th WPC Array value.
+ N7 , \field Wind Direction 7
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 7th WPC Array value.
+ N8 , \field Wind Direction 8
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 8th WPC Array value.
+ N9 , \field Wind Direction 9
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 9th WPC Array value.
+ N10, \field Wind Direction 10
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 10th WPC Array value.
+ N11, \field Wind Direction 11
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 11th WPC Array value.
+ N12, \field Wind Direction 12
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 12th WPC Array value.
+ N13, \field Wind Direction 13
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 13th WPC Array value.
+ N14, \field Wind Direction 14
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 14th WPC Array value.
+ N15, \field Wind Direction 15
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 15th WPC Array value.
+ N16, \field Wind Direction 16
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 16th WPC Array value.
+ N17, \field Wind Direction 17
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 17th WPC Array value.
+ N18, \field Wind Direction 18
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 18th WPC Array value.
+ N19, \field Wind Direction 19
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 19th WPC Array value.
+ N20, \field Wind Direction 20
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 20th WPC Array value.
+ N21, \field Wind Direction 21
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 21st WPC Array value.
+ N22, \field Wind Direction 22
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 22nd WPC Array value.
+ N23, \field Wind Direction 23
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 23rd WPC Array value.
+ N24, \field Wind Direction 24
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 24th WPC Array value.
+ N25, \field Wind Direction 25
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 25th WPC Array value.
+ N26, \field Wind Direction 26
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 26th WPC Array value.
+ N27, \field Wind Direction 27
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 27th WPC Array value.
+ N28, \field Wind Direction 28
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 28th WPC Array value.
+ N29, \field Wind Direction 29
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 29th WPC Array value.
+ N30, \field Wind Direction 30
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 30th WPC Array value.
+ N31, \field Wind Direction 31
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 31st WPC Array value.
+ N32, \field Wind Direction 32
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 32nd WPC Array value.
+ N33, \field Wind Direction 33
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 33rd WPC Array value.
+ N34, \field Wind Direction 34
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 34th WPC Array value.
+ N35, \field Wind Direction 35
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 35th WPC Array value.
+ N36; \field Wind Direction 36
+      \type real
+      \units deg
+      \minimum 0.0
+      \maximum 360.0
+      \note Enter the wind direction corresponding to the 36th WPC Array value.
+
+AirflowNetwork:MultiZone:WindPressureCoefficientValues,
+      \min-fields 4
+      \memo Used only if Wind Pressure Coefficient (WPC) Type = INPUT in the AirflowNetwork:SimulationControl
+      \memo object. The number of WPC numeric inputs must correspond to the number of wind direction
+      \memo inputs in the AirflowNetwork:Multizone:WindPressureCoefficientArray object.
+ A1 , \field Name
+      \required-field
+      \type alpha
+      \reference WPCValueNames
+      \note Enter a unique name for this object.
+ A2 , \field AirflowNetwork:MultiZone:WindPressureCoefficientArray Name
+      \required-field
+      \type object-list
+      \object-list WPCSetNames
+      \note Enter the name of the AirflowNetwork:Multizone:WindPressureCoefficientArray object.
+ N1 , \field Wind Pressure Coefficient Value 1
+      \required-field
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 1st wind direction.
+ N2 , \field Wind Pressure Coefficient Value 2
+      \required-field
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 2nd wind direction.
+ N3 , \field Wind Pressure Coefficient Value 3
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 3rd wind direction.
+ N4 , \field Wind Pressure Coefficient Value 4
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 4th wind direction.
+ N5 , \field Wind Pressure Coefficient Value 5
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 5th wind direction.
+ N6 , \field Wind Pressure Coefficient Value 6
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 6th wind direction.
+ N7 , \field Wind Pressure Coefficient Value 7
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 7th wind direction.
+ N8 , \field Wind Pressure Coefficient Value 8
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 8th wind direction.
+ N9 , \field Wind Pressure Coefficient Value 9
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 9th wind direction.
+ N10, \field Wind Pressure Coefficient Value 10
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 10th wind direction.
+ N11, \field Wind Pressure Coefficient Value 11
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 11th wind direction.
+ N12, \field Wind Pressure Coefficient Value 12
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 12th wind direction.
+ N13, \field Wind Pressure Coefficient Value 13
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 13th wind direction.
+ N14, \field Wind Pressure Coefficient Value 14
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 14th wind direction.
+ N15, \field Wind Pressure Coefficient Value 15
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 15th wind direction.
+ N16, \field Wind Pressure Coefficient Value 16
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 16th wind direction.
+ N17, \field Wind Pressure Coefficient Value 17
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 17th wind direction.
+ N18, \field Wind Pressure Coefficient Value 18
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 18th wind direction.
+ N19, \field Wind Pressure Coefficient Value 19
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 19th wind direction.
+ N20, \field Wind Pressure Coefficient Value 20
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 20th wind direction.
+ N21, \field Wind Pressure Coefficient Value 21
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 21st wind direction.
+ N22, \field Wind Pressure Coefficient Value 22
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 22nd wind direction.
+ N23, \field Wind Pressure Coefficient Value 23
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 23rd wind direction.
+ N24, \field Wind Pressure Coefficient Value 24
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 24th wind direction.
+ N25, \field Wind Pressure Coefficient Value 25
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 25th wind direction.
+ N26, \field Wind Pressure Coefficient Value 26
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 26th wind direction.
+ N27, \field Wind Pressure Coefficient Value 27
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 27th wind direction.
+ N28, \field Wind Pressure Coefficient Value 28
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 28th wind direction.
+ N29, \field Wind Pressure Coefficient Value 29
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 29th wind direction.
+ N30, \field Wind Pressure Coefficient Value 30
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 30th wind direction.
+ N31, \field Wind Pressure Coefficient Value 31
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 31st wind direction.
+ N32, \field Wind Pressure Coefficient Value 32
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 32nd wind direction.
+ N33, \field Wind Pressure Coefficient Value 33
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 33rd wind direction.
+ N34, \field Wind Pressure Coefficient Value 34
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 34th wind direction.
+ N35, \field Wind Pressure Coefficient Value 35
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 35th wind direction.
+ N36; \field Wind Pressure Coefficient Value 36
+      \type real
+      \units dimensionless
+      \note Enter the WPC Value corresponding to the 36th wind direction.
+
+AirflowNetwork:ZoneControl:PressureController,
+      \memo This object is used to control a zone to a specified indoor pressure
+      \memo using the AirflowNetwork model. The specified pressure setpoint is used
+      \memo to control the zone exhaust fan flow rate in a controlled zone or
+      \memo the relief air flow rate in an air loop.
+      \unique-object
+ A1 , \field Name
+      \required-field
+      \reference AirflowNetworkZoneControlPressureControllerNames
+ A2 , \field Control Zone Name
+      \required-field
+      \type object-list
+      \object-list ZoneNames
+ A3 , \field Control Object Type
+      \required-field
+      \type choice
+      \key AirflowNetwork:MultiZone:Component:ZoneExhaustFan
+      \key AirflowNetwork:Distribution:Component:ReliefAirFlow
+      \note The current selection is AirflowNetwork:MultiZone:Component:ZoneExhaustFan
+      \note or AirflowNetwork:Distribution:Component:ReliefAirFlow.
+ A4 , \field Control Object Name
+      \note Control names are names of individual control objects
+      \required-field
+      \type object-list
+      \object-list AFNReliefAirFlowNames
+      \object-list FansZoneExhaust
+ A5 , \field Pressure Control Availability Schedule Name
+      \note Availability schedule name for pressure controller. Schedule value > 0 means the
+      \note pressure controller is enabled. If this field is blank, then pressure controller is
+      \note always enabled.
+      \type object-list
+      \object-list ScheduleNames
+ A6 ; \field Pressure Setpoint Schedule Name
+      \required-field
+      \type object-list
+      \object-list ScheduleNames
+
+AirflowNetwork:Distribution:Node,
+      \min-fields 4
+      \memo This object represents an air distribution node in the AirflowNetwork model.
+ A1 , \field Name
+      \required-field
+      \type alpha
+      \reference AirflowNetworkNodeAndZoneNames
+      \note Enter a unique name for this object.
+ A2 , \field Component Name or Node Name
+      \type alpha
+      \note Designates node names defined in another object. The node name may occur in air branches.
+      \note Enter a node name to represent a node already defined in an air loop.
+      \note Leave this field blank if the Node or Object Type field below is entered as
+      \note AirLoopHVAC:ZoneMixer, AirLoopHVAC:ZoneSplitter, AirLoopHVAC:OutdoorAirSystem, or Other.
+ A3 , \field Component Object Type or Node Type
+      \type choice
+      \key AirLoopHVAC:ZoneMixer
+      \key AirLoopHVAC:ZoneSplitter
+      \key AirLoopHVAC:OutdoorAirSystem
+      \key OAMixerOutdoorAirStreamNode
+      \key OutdoorAir:NodeList
+      \key OutdoorAir:Node
+      \key Other
+      \default Other
+      \note Designates Node type for the Node or Component Name defined in the field above.
+      \note AirLoopHVAC:ZoneMixer -- Represents a AirLoopHVAC:ZoneMixer object.
+      \note AirLoopHVAC:ZoneSplitter -- Represents a AirLoopHVAC:ZoneSplitter object.
+      \note AirLoopHVAC:OutdoorAirSystem -- Represents an AirLoopHVAC:OutdoorAirSystem object.
+      \note OAMixerOutdoorAirStreamNode -- Represents an external node used in the OutdoorAir:Mixer
+      \note OutdoorAir:NodeList -- Represents an external node when a heat exchanger is used before
+      \note the OutdoorAir:Mixer
+      \note OutdoorAir:Node -- Represents an external node when a heat exchanger is used before
+      \note the OutdoorAir:Mixer
+      \note Other -- none of the above, the Node name already defined in the previous field is part
+      \note of an air loop.
+ N1 ; \field Node Height
+      \type real
+      \units m
+      \default 0.0
+      \note Enter the reference height used to calculate the relative pressure.
+
+AirflowNetwork:Distribution:Component:Leak,
+      \min-fields 3
+      \memo This object defines the characteristics of a supply or return air leak.
+ A1 , \field Name
+      \required-field
+      \type alpha
+      \reference AirflowNetworkComponentNames
+      \note Enter a unique name for this object.
+ N1 , \field Air Mass Flow Coefficient
+      \required-field
+      \type real
+      \units kg/s
+      \minimum> 0
+      \note Defined at 1 Pa pressure difference across this component.
+      \note Enter the coefficient used in the following equation:
+      \note Mass Flow Rate = Air Mass Flow Coefficient * (dP)^Air Mass Flow Exponent
+ N2 ; \field Air Mass Flow Exponent
+      \type real
+      \units dimensionless
+      \minimum 0.5
+      \maximum 1.0
+      \default 0.65
+      \note Enter the exponent used in the following equation:
+      \note Mass Flow Rate = Air Mass Flow Coefficient * (dP)^Air Mass Flow Exponent
+
+AirflowNetwork:Distribution:Component:LeakageRatio,
+      \min-fields 5
+      \memo This object is used to define supply and return air leaks with respect to the fan's maximum
+      \memo air flow rate.
+ A1 , \field Name
+      \required-field
+      \type alpha
+      \reference AirflowNetworkComponentNames
+      \note Enter a unique name for this object.
+ N1 , \field Effective Leakage Ratio
+      \type real
+      \units dimensionless
+      \minimum> 0.0
+      \maximum 1.0
+      \note Defined as a ratio of leak flow rate to the maximum flow rate.
+ N2 , \field Maximum Flow Rate
+      \required-field
+      \units m3/s
+      \type real
+      \minimum> 0.0
+      \note Enter the maximum air flow rate in this air loop.
+ N3 , \field Reference Pressure Difference
+      \required-field
+      \units Pa
+      \type real
+      \minimum> 0.0
+      \note Enter the pressure corresponding to the Effective leakage ratio entered above.
+ N4 ; \field Air Mass Flow Exponent
+      \units dimensionless
+      \type real
+      \default 0.65
+      \minimum 0.5
+      \maximum 1.0
+      \note Enter the exponent used in the air mass flow equation.
+
+AirflowNetwork:Distribution:Component:Duct,
+      \min-fields 8
+      \memo This object defines the relationship between pressure and air flow through the duct.
+ A1 , \field Name
+      \required-field
+      \type alpha
+      \reference AirflowNetworkComponentNames
+      \note Enter a unique name for this object.
+ N1 , \field Duct Length
+      \required-field
+      \type real
+      \units m
+      \minimum> 0.0
+      \note Enter the length of the duct.
+ N2 , \field Hydraulic Diameter
+      \required-field
+      \type real
+      \units m
+      \minimum> 0.0
+      \note Enter the hydraulic diameter of the duct.
+      \note Hydraulic diameter is defined as 4 multiplied by cross section area divided by perimeter
+ N3 , \field Cross Section Area
+      \required-field
+      \type real
+      \units m2
+      \minimum> 0.0
+      \note Enter the cross section area of the duct.
+ N4 , \field Surface Roughness
+      \type real
+      \units m
+      \default 0.0009
+      \minimum> 0.0
+      \note Enter the inside surface roughness of the duct.
+ N5 , \field Coefficient for Local Dynamic Loss Due to Fitting
+      \type real
+      \units dimensionless
+      \default 0.0
+      \minimum 0.0
+      \note Enter the coefficient used to calculate dynamic losses of fittings (e.g. elbows).
+ N6 , \field Heat Transmittance Coefficient (U-Factor) for Duct Wall Construction
+      \note conduction only
+      \type real
+      \units W/m2-K
+      \minimum> 0.0
+      \default 0.943
+      \note Default value of 0.943 is equivalent to 1.06 m2-K/W (R6) duct insulation.
+ N7 , \field Overall Moisture Transmittance Coefficient from Air to Air
+      \type real
+      \units kg/m2
+      \minimum> 0.0
+      \default 0.001
+      \note Enter the overall moisture transmittance coefficient
+      \note including moisture film coefficients at both surfaces.
+ N8 , \field Outside Convection Coefficient
+      \note optional. convection coefficient calculated automatically, unless specified
+      \type real
+      \units W/m2-K
+      \minimum> 0.0
+ N9 ; \field Inside Convection Coefficient
+      \note optional. convection coefficient calculated automatically, unless specified
+      \type real
+      \units W/m2-K
+      \minimum> 0.0
+
+AirflowNetwork:Distribution:Component:Fan,
+      \min-fields 2
+      \memo This object defines the name of the supply Air Fan used in an Air loop.
+ A1 , \field Fan Name
+      \required-field
+      \type object-list
+      \object-list FansCVandOnOffandVAV
+      \object-list FansSystemModel
+      \reference AirflowNetworkComponentNames
+      \note Enter the name of the fan in the primary air loop.
+ A2 ; \field Supply Fan Object Type
+      \type choice
+      \key Fan:OnOff
+      \key Fan:ConstantVolume
+      \key Fan:VariableVolume
+      \key Fan:SystemModel
+      \default Fan:ConstantVolume
+
+AirflowNetwork:Distribution:Component:Coil,
+      \min-fields 4
+      \memo This object defines the name of a coil used in an air loop.
+ A1 , \field Coil Name
+      \required-field
+      \type object-list
+      \reference AirflowNetworkComponentNames
+      \object-list AFNCoilNames
+      \note Enter the name of a cooling or heating coil in the primary Air loop.
+ A2 , \field Coil Object Type
+      \required-field
+      \type choice
+      \key Coil:Cooling:DX
+      \key Coil:Cooling:DX:SingleSpeed
+      \key Coil:Cooling:DX:TwoSpeed
+      \key Coil:Heating:Fuel
+      \key Coil:Heating:Electric
+      \key Coil:Heating:DX:SingleSpeed
+      \key Coil:Cooling:Water
+      \key Coil:Heating:Water
+      \key Coil:Cooling:Water:DetailedGeometry
+      \key Coil:Cooling:DX:TwoStageWithHumidityControlMode
+      \key Coil:Cooling:DX:MultiSpeed
+      \key Coil:Heating:DX:MultiSpeed
+      \key Coil:Heating:Desuperheater
+      \note Select the type of coil corresponding to the name entered in the field above.
+ N1 , \field Air Path Length
+      \required-field
+      \type real
+      \units m
+      \minimum> 0
+      \note Enter the air path length (depth) for the coil.
+ N2 ; \field Air Path Hydraulic Diameter
+      \required-field
+      \units m
+      \type real
+      \minimum> 0
+      \note Enter the hydraulic diameter of this coil. The hydraulic diameter is
+      \note defined as 4 multiplied by the cross section area divided by perimeter.
+
+AirflowNetwork:Distribution:Component:HeatExchanger,
+      \min-fields 4
+      \memo This object defines the name of an air-to-air heat exchanger used in an air loop.
+ A1 , \field HeatExchanger Name
+      \required-field
+      \type object-list
+      \object-list AFNHeatExchangerNames
+      \reference AirflowNetworkComponentNames
+      \note Enter the name of an air-to-air heat exchanger in the primary Air loop.
+ A2 , \field HeatExchanger Object Type
+      \required-field
+      \type choice
+      \key HeatExchanger:AirToAir:FlatPlate
+      \key HeatExchanger:AirToAir:SensibleAndLatent
+      \key HeatExchanger:Desiccant:BalancedFlow
+      \note Select the type of heat exchanger corresponding to the name entered in the field above.
+ N1 , \field Air Path Length
+      \required-field
+      \type real
+      \units m
+      \minimum> 0
+      \note Enter the air path length (depth) for the heat exchanger.
+ N2 ; \field Air Path Hydraulic Diameter
+      \required-field
+      \units m
+      \type real
+      \minimum> 0
+      \note Enter the hydraulic diameter of this heat exchanger. The hydraulic diameter is
+      \note defined as 4 multiplied by the cross section area divided by perimeter.
+
+AirflowNetwork:Distribution:Component:TerminalUnit,
+      \min-fields 4
+      \memo This object defines the name of a terminal unit in an air loop.
+ A1 , \field Terminal Unit Name
+      \required-field
+      \type object-list
+      \reference AirflowNetworkComponentNames
+      \object-list AFNTerminalUnitNames
+      \note Enter the name of a terminal unit in the AirLoopHVAC.
+ A2 , \field Terminal Unit Object Type
+      \required-field
+      \type choice
+      \key AirTerminal:SingleDuct:ConstantVolume:Reheat
+      \key AirTerminal:SingleDuct:VAV:Reheat
+      \note Select the type of terminal unit corresponding to the name entered in the field above.
+ N1 , \field Air Path Length
+      \required-field
+      \type real
+      \units m
+      \minimum> 0
+      \note Enter the air path length (depth) for the terminal unit.
+ N2 ; \field Air Path Hydraulic Diameter
+      \required-field
+      \units m
+      \type real
+      \minimum> 0
+      \note Enter the hydraulic diameter of this terminal unit. The hydraulic diameter is
+      \note defined as 4 multiplied by the cross section area divided by perimeter.
+
+AirflowNetwork:Distribution:Component:ConstantPressureDrop,
+      \min-fields 2
+      \memo This object defines the characteristics of a constant pressure drop component (e.g. filter).
+      \memo Each node connected to this object can not be a node of mixer, splitter, a node of air primary
+      \memo loop, or zone equipment loop. It is recommended to connect to a duct component at both ends.
+ A1 , \field Name
+      \required-field
+      \type alpha
+      \reference AirflowNetworkComponentNames
+      \note Enter a unique name for this object.
+ N1 ; \field Pressure Difference Across the Component
+      \required-field
+      \units Pa
+      \type real
+      \minimum> 0.0
+      \note Enter the pressure drop across this component.
+
+AirflowNetwork:Distribution:Component:OutdoorAirFlow,
+      \min-fields 3
+      \memo This object includes the outdoor air flow rate set by the Controller:OutdoorAir
+      \memo object in the airflow network.
+ A1 , \field Name
+      \required-field
+      \reference AFNOutdoorAirFlowNames
+      \reference AirflowNetworkComponentNames
+ A2 , \field Outdoor Air Mixer Name
+      \required-field
+      \object-list OutdoorAirMixers
+ N1 , \field Air Mass Flow Coefficient When No Outdoor Air Flow at Reference Conditions
+      \required-field
+      \type real
+      \units kg/s
+      \minimum> 0
+      \note Enter the air mass flow coefficient at the conditions defined
+      \note in the Reference Crack Conditions object.
+      \note Defined at 1 Pa pressure difference. Enter the coefficient used in the following
+      \note equation:
+      \note Mass Flow Rate = Air Mass Flow Coefficient * (dP)^Air Mass Flow Exponent.
+      \note Used only when no outdoor air flow rate.
+ N2 , \field Air Mass Flow Exponent When No Outdoor Air Flow
+      \units dimensionless
+      \type real
+      \minimum 0.5
+      \maximum 1.0
+      \default 0.65
+      \note Enter the exponent used in the following equation:
+      \note Mass Flow Rate = Air Mass Flow Coefficient * (dP)^Air Mass Flow Exponent.
+      \note Used only when no outdoor air flow rate.
+ A3 ; \field Reference Crack Conditions
+      \type object-list
+      \object-list ReferenceCrackConditions
+      \note Select a AirflowNetwork:MultiZone:ReferenceCrackConditions name associated with
+      \note the air mass flow coefficient entered above.
+
+AirflowNetwork:Distribution:Component:ReliefAirFlow,
+      \min-fields 3
+      \memo This object allows variation of air flow rate to perform pressure.
+ A1 , \field Name
+      \required-field
+      \reference AFNReliefAirFlowNames
+      \reference AirflowNetworkComponentNames
+ A2 , \field Outdoor Air Mixer Name
+      \required-field
+      \object-list OutdoorAirMixers
+ N1 , \field Air Mass Flow Coefficient When No Outdoor Air Flow at Reference Conditions
+      \required-field
+      \type real
+      \units kg/s
+      \minimum> 0
+      \note Enter the air mass flow coefficient at the conditions defined
+      \note in the Reference Crack Conditions object.
+      \note Defined at 1 Pa pressure difference. Enter the coefficient used in the following
+      \note equation:
+      \note Mass Flow Rate = Air Mass Flow Coefficient * (dP)^Air Mass Flow Exponent.
+      \note Used only when no outdoor air flow rate.
+ N2 , \field Air Mass Flow Exponent When No Outdoor Air Flow
+      \units dimensionless
+      \type real
+      \minimum 0.5
+      \maximum 1.0
+      \default 0.65
+      \note Enter the exponent used in the following equation:
+      \note Mass Flow Rate = Air Mass Flow Coefficient * (dP)^Air Mass Flow Exponent.
+      \note Used only when no outdoor air flow rate.
+ A3 ; \field Reference Crack Conditions
+      \type object-list
+      \object-list ReferenceCrackConditions
+      \note Select a AirflowNetwork:MultiZone:ReferenceCrackConditions name associated with
+      \note the air mass flow coefficient entered above.
+
+AirflowNetwork:Distribution:Linkage,
+      \min-fields 4
+      \memo This object defines the connection between two nodes and a component.
+ A1 , \field Name
+      \required-field
+      \type alpha
+      \note Enter a unique name for this object.
+ A2 , \field Node 1 Name
+      \required-field
+      \type object-list
+      \object-list AirflowNetworkNodeAndZoneNames
+      \note Enter the name of zone or AirflowNetwork Node.
+ A3 , \field Node 2 Name
+      \required-field
+      \type object-list
+      \object-list AirflowNetworkNodeAndZoneNames
+      \note Enter the name of zone or AirflowNetwork Node.
+ A4 , \field Component Name
+      \required-field
+      \type object-list
+      \object-list AirflowNetworkComponentNames
+      \object-list FansCVandOnOffandVAV
+      \object-list AFNCoilNames
+      \object-list AFNHeatExchangerNames
+      \object-list AFNTerminalUnitNames
+      \note Enter the name of an AirflowNetwork component. A component is one of the
+      \note following AirflowNetwork:Distribution:Component objects: Leak, LeakageRatio,
+      \note Duct, ConstantVolumeFan, Coil, TerminalUnit, ConstantPressureDrop, or HeatExchanger.
+ A5 ; \field Thermal Zone Name
+      \type object-list
+      \object-list ZoneNames
+      \note Only used if component = AirflowNetwork:Distribution:Component:Duct
+      \note The zone name is where AirflowNetwork:Distribution:Component:Duct is exposed. Leave this field blank if the duct
+      \note conduction loss is ignored.
+
+AirflowNetwork:Distribution:DuctViewFactors,
+       \extensible:2 - repeat last two fields, remembering to remove ; from "inner" fields.
+       \memo This object is used to allow user-defined view factors to be used for duct-surface radiation
+       \memo calculations.
+  A1,  \field Linkage Name
+       \required-field
+       \type object-list
+       \object-list AirflowNetworkComponentNames
+  N1,  \field Duct Surface Exposure Fraction
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N2,  \field Duct Surface Emittance
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.9
+  A2,  \field Surface 1 Name
+       \begin-extensible
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N3,  \field Surface 1 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A3,  \field Surface 2 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N4,  \field Surface 2 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A4,  \field Surface 3 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N5,  \field Surface 3 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A5,  \field Surface 4 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N6,  \field Surface 4 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A6,  \field Surface 5 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N7,  \field Surface 5 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A7,  \field Surface 6 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N8,  \field Surface 6 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A8,  \field Surface 7 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N9,  \field Surface 7 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A9,  \field Surface 8 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N10, \field Surface 8 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A10, \field Surface 9 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N11, \field Surface 9 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A11, \field Surface 10 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N12, \field Surface 10 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A12, \field Surface 11 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N13, \field Surface 11 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A13, \field Surface 12 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N14, \field Surface 12 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A14, \field Surface 13 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N15, \field Surface 13 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A15, \field Surface 14 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N16, \field Surface 14 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A16, \field Surface 15 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N17, \field Surface 15 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A17, \field Surface 16 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N18, \field Surface 16 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A18, \field Surface 17 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N19, \field Surface 17 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A19, \field Surface 18 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N20, \field Surface 18 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A20, \field Surface 19 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N21, \field Surface 19 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A21, \field Surface 20 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N22; \field Surface 20 View Factor
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+
+AirflowNetwork:OccupantVentilationControl,
+      \memo This object is used to provide advanced thermal comfort control of window opening and closing
+      \memo for both exterior and interior windows.
+  A1, \field Name
+      \required-field
+      \type alpha
+      \reference AirflowNetworkOccupantVentilationControlNames
+      \note Enter the name where the advanced thermal comfort control is required.
+  N1, \field Minimum Opening Time
+      \type real
+      \units minutes
+      \minimum 0.0
+      \default 0.0
+  N2, \field Minimum Closing Time
+      \type real
+      \units minutes
+      \minimum 0.0
+      \default 0.0
+  A2, \field Thermal Comfort Low Temperature Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+      \note Enter a curve name that represents thermal comfort temperature as a
+      \note function of outdoor dry-bulb temperature. Up to two curves are allowed if the
+      \note performance cannot be represented by a single curve.
+      \note The following two fields are used if two curves are required.
+  N3, \field Thermal Comfort Temperature Boundary Point
+      \type real
+      \units C
+      \minimum 0.0
+      \default 10.0
+      \note This point is used to allow separate low and high thermal comfort temperature
+      \note curves. If a single performance curve is used, leave this field blank.
+  A3, \field Thermal Comfort High Temperature Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+      \note Enter a curve name that represents thermal comfort temperature as a
+      \note function of outdoor dry-bulb temperature. Up to two curves are allowed if the
+      \note performance cannot be represented by a single curve.
+      \note If a single performance curve is used, leave this field blank.
+  N4, \field Maximum Threshold for Persons Dissatisfied PPD
+      \type real
+      \units percent
+      \minimum 0
+      \maximum 100
+      \default 10.0
+  A4, \field Occupancy Check
+      \note If Yes, occupancy check will be performed as part of the opening probability check.
+      \type choice
+      \key Yes
+      \key No
+      \default No
+  A5, \field Opening Probability Schedule Name
+      \type object-list
+      \object-list ScheduleNames
+      \note If this field is blank, the opening probability check is bypassed and opening is true.
+  A6; \field Closing Probability Schedule Name
+      \type object-list
+      \object-list ScheduleNames
+      \note If this field is blank, the closing probability check is bypassed and closing is true.
+
+AirflowNetwork:IntraZone:Node,
+      \min-fields 2
+      \memo This object represents a node in a zone in the combination of RoomAir and
+      \memo AirflowNetwork model.
+ A1 , \field Name
+      \required-field
+      \type alpha
+      \reference AirflowNetworkNodeNames
+      \note Enter a unique name for this object.
+ A2 , \field RoomAir:Node:AirflowNetwork Name
+      \required-field
+      \type alpha
+      \object-list RoomAirflowNetworkNodes
+      \note Enter the name of a RoomAir:Node object defined in a RoomAirSettings:AirflowNetwork
+      \note object.
+ A3 , \field Zone Name
+      \required-field
+      \type object-list
+      \object-list AirFlowNetworkMultizoneZones
+      \note Enter the name of a zone object defined in a AirflowNetwork:MultiZone:Zone
+      \note object.
+ N1 ; \field Node Height
+      \type real
+      \units m
+      \default 0.0
+      \note Enter the reference height used to calculate the relative pressure
+
+AirflowNetwork:IntraZone:Linkage,
+      \min-fields 4
+      \memo This object defines the connection between two nodes and a component used
+      \memo in the combination of RoomAir and AirflowNetwork model.
+ A1 , \field Name
+      \required-field
+      \type alpha
+      \note Enter a unique name for this object.
+      \reference AirflowNetwork LinkageNames
+ A2 , \field Node 1 Name
+      \required-field
+      \type alpha
+      \object-list AirflowNetworkNodeNames
+      \object-list ZoneNames
+      \note Enter the name of zone or AirflowNetwork Node.
+ A3 , \field Node 2 Name
+      \required-field
+      \type alpha
+      \object-list AirflowNetworkNodeNames
+      \object-list ZoneNames
+      \note Enter the name of zone or AirflowNetwork Node.
+ A4 , \field Component Name
+      \type object-list
+      \object-list AirflowNetworkComponentNames
+      \note Enter the name of an AirflowNetwork component. A component is one of the
+      \note following AirflowNetwork:Multizone:Component objects:
+      \note AirflowNetwork:MultiZone:Surface:Crack,
+      \note AirflowNetwork:MultiZone:Surface:EffectiveLeakageArea,
+      \note If the next field is specified, this field can be either blank or ignored.
+ A5 ; \field AirflowNetwork:MultiZone:Surface Name
+      \type object-list
+      \object-list SurfAndSubSurfNames
+      \note Only used when one of two nodes defined above are not located in the same zone, and
+      \note the input of the Component Name field in this object is ignored
+
+\group Exterior Equipment
+       ! This equipment is used merely for reporting.
+Exterior:Lights,
+       \memo only used for Meter type reporting, does not affect building loads
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ExteriorLightsNames
+  A2 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note units in schedule should be fraction applied to capacity of the exterior lights equipment, generally (0.0 - 1.0)
+  N1 , \field Design Level
+       \required-field
+       \units W
+       \type real
+       \minimum 0
+       \ip-units W
+  A3,  \field Control Option
+       \note Astronomical Clock option overrides schedule to turn lights off when sun is up
+       \type choice
+       \key ScheduleNameOnly
+       \key AstronomicalClock
+  A4 ; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+Exterior:FuelEquipment,
+       \memo only used for Meter type reporting, does not affect building loads
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Fuel Use Type
+       \required-field
+       \type choice
+       \key Electricity
+       \key Water
+       \key NaturalGas
+       \key Propane
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key Diesel
+       \key Gasoline
+       \key Coal
+       \key OtherFuel1
+       \key OtherFuel2
+       \key Steam
+       \key DistrictHeating
+       \key DistrictCooling
+  A3 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note units in schedule should be fraction applied to capacity of the exterior fuel equipment, generally (0.0 - 1.0)
+  N1 , \field Design Level
+       \required-field
+       \units W
+       \type real
+       \minimum 0
+       \ip-units W
+  A4 ; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+Exterior:WaterEquipment,
+       \memo only used for Meter type reporting, does not affect building loads
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Fuel Use Type
+       \type choice
+       \key Water
+       \default Water
+  A3 , \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note units in Schedule should be fraction applied to capacity of the exterior water equipment, generally (0.0 - 1.0)
+  N1 , \field Design Level
+       \required-field
+       \units m3/s
+       \ip-units gal/min
+       \type real
+       \minimum 0
+  A4 ; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+!****************************************************************************************
+!*                   BUILDING/SYSTEM LOOP SPECIFICATIONS                                *
+!*                                                                                      *
+!*        The following syntax specifies the Loops, and equipment associated            *
+!*        with HVAC and Building Systems. Specifications include Plant Loops,          *
+!*        Condenser Loops, Air Loops and Zone Equipment. The following conventions     *
+!*        are followed:                                                                 *
+!*          1. The word 'KEY' followed by a description indicates that the alpha       *
+!*              string must be selected from the list indicated by the key description. *
+!*          2. The syntax is organized in the following major blocks:                  *
+!*               --PLANT LOOP SPECIFICATION                                             *
+!*               --CONDENSER LOOP SPECIFICATION
+!*               --AIR LOOP SPECIFICATION
+!*               --ZONE EQUIPMENT SPECIFICATION
+!*               --FLOW CONTROL
+!*               --PLANT LOOP CONNECTORS
+!*               --PLANT EQUIPMENT
+!*               --CONDENSING EQUIPMENT
+!*               --PUMPS
+!*               --COILS
+!*               --AIR LOOP COMPONENTS
+!*               --AIR DISTRIBUTION UNITS
+!*               --LOCAL CONVECTIVE EQUIPMENT
+!*               --HIGH TEMPERATURE RADIANT CONVECTIVE UNITS
+!*               --LOW TEMPERATURE RADIANT CONVECTIVE UNITS
+!*               --AIR LOOP CONNECTORS
+!*               --System Control and Controllers
+!************************************************************************************
+
+\group HVAC Templates
+
+HVACTemplate:Thermostat,
+      \min-fields 5
+      \memo Zone thermostat control. Referenced schedules must be
+      \memo defined elsewhere in the idf. Thermostat control type is
+      \memo dual setpoint with deadband. It is not necessary to create
+      \memo a thermostat object for every zone, only for each unique
+      \memo set of setpoint schedules. For example, an office building
+      \memo may have two thermostat objects, one for "Office" and one
+      \memo for "Storage".
+  A1, \field Name
+      \required-field
+      \note This name is referenced by HVACTemplate:Zone:* objects
+      \reference CompactHVACThermostats
+  A2, \field Heating Setpoint Schedule Name
+      \note  Leave blank if constant setpoint specified below, must enter schedule or constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+  N1, \field Constant Heating Setpoint
+      \note  Ignored if schedule specified above, must enter schedule or constant setpoint
+      \units C
+  A3, \field Cooling Setpoint Schedule Name
+      \note  Leave blank if constant setpoint specified below, must enter schedule or constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+  N2; \field Constant Cooling Setpoint
+      \note  Ignored if schedule specified above, must enter schedule or constant setpoint
+      \units C
+
+HVACTemplate:Zone:IdealLoadsAirSystem,
+       \min-fields 26
+       \memo Zone with ideal air system that meets heating or cooling loads
+  A1,  \field Zone Name
+       \required-field
+       \note Zone name must match a building zone name
+       \type object-list
+       \object-list ZoneNames
+  A2,  \field Template Thermostat Name
+       \note Enter the name of a HVACTemplate:Thermostat object.
+       \note If blank, then it is assumed that standard thermostat objects
+       \note have been defined for this zone.
+       \type object-list
+       \object-list CompactHVACThermostats
+  A3, \field System Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  N1,  \field Maximum Heating Supply Air Temperature
+       \units C
+       \minimum> 0
+       \maximum< 100
+       \default 50
+  N2,  \field Minimum Cooling Supply Air Temperature
+       \units C
+       \minimum> -100
+       \maximum< 50
+       \default 13
+  N3,  \field Maximum Heating Supply Air Humidity Ratio
+       \units kgWater/kgDryAir
+       \minimum> 0
+       \default 0.0156
+  N4,  \field Minimum Cooling Supply Air Humidity Ratio
+       \units kgWater/kgDryAir
+       \minimum> 0
+       \default 0.0077
+  A4,  \field Heating Limit
+       \type choice
+       \key NoLimit
+       \key LimitFlowRate
+       \key LimitCapacity
+       \key LimitFlowRateAndCapacity
+       \default NoLimit
+  N5,  \field Maximum Heating Air Flow Rate
+       \note This field is ignored if Heating Limit = NoLimit
+       \note If this field is blank, there is no limit.
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  N6,  \field Maximum Sensible Heating Capacity
+       \note This field is ignored if Heating Limit = NoLimit
+       \note If this field is blank, there is no limit.
+       \units W
+       \minimum 0.0
+       \autosizable
+  A5,  \field Cooling Limit
+       \type choice
+       \key NoLimit
+       \key LimitFlowRate
+       \key LimitCapacity
+       \key LimitFlowRateAndCapacity
+       \default NoLimit
+  N7,  \field Maximum Cooling Air Flow Rate
+       \note This field is ignored if Cooling Limit = NoLimit
+       \note This field is required if Outdoor Air Economizer Type is anything other than NoEconomizer.
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  N8,  \field Maximum Total Cooling Capacity
+       \note This field is ignored if Cooling Limit = NoLimit
+       \units W
+       \minimum 0.0
+       \autosizable
+  A6,  \field Heating Availability Schedule Name
+       \note If blank, heating is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A7,  \field Cooling Availability Schedule Name
+       \note If blank, cooling is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A8,  \field Dehumidification Control Type
+       \note ConstantSensibleHeatRatio means that the ideal loads system
+       \note will be controlled to meet the sensible cooling load, and the
+       \note latent cooling rate will be computed using a constant
+       \note sensible heat ratio (SHR)
+       \note Humidistat means that there is a ZoneControl:Humidistat for this
+       \note zone and the ideal loads system will attempt to satisfy the humidistat.
+       \note None means that there is no dehumidification.
+       \note ConstantSupplyHumidityRatio means that during cooling the supply air
+       \note will always be at the Minimum Cooling Supply Humidity Ratio.
+       \type choice
+       \key ConstantSensibleHeatRatio
+       \key Humidistat
+       \key None
+       \key ConstantSupplyHumidityRatio
+       \default ConstantSensibleHeatRatio
+  N9,  \field Cooling Sensible Heat Ratio
+       \note This field is applicable only when Dehumidification Control Type is ConstantSensibleHeatRatio
+       \units dimensionless
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.7
+  N10, \field Dehumidification Setpoint
+       \note Zone relative humidity setpoint in percent (0 to 100)
+       \type real
+       \minimum 0.0
+       \maximum 100.0
+       \default 60.0
+       \units percent
+  A9,  \field Humidification Control Type
+       \note None means that there is no humidification.
+       \note Humidistat means that there is a ZoneControl:Humidistat for this
+       \note zone and the ideal loads system will attempt to satisfy the humidistat.
+       \note ConstantSupplyHumidityRatio means that during heating the supply air
+       \note will always be at the Maximum Heating Supply Humidity Ratio.
+       \type choice
+       \key None
+       \key Humidistat
+       \key ConstantSupplyHumidityRatio
+       \default None
+  N11, \field Humidification Setpoint
+       \note Zone relative humidity setpoint in percent (0 to 100)
+       \type real
+       \minimum 0.0
+       \maximum 100.0
+       \default 30.0
+       \units percent
+  A10, \field Outdoor Air Method
+       \note None means there is no outdoor air and all related fields will be ignored
+       \note Flow/Person, Flow/Zone, Flow/Area, Sum, and Maximum use the values in the next three
+       \note fields: Outdoor Air Flow Rate per Person, Outdoor Air Flow Rate per Zone Floor Area,
+       \note and Outdoor Air Flow Rate per Zone.
+       \note DetailedSpecification ignores these three Outdoor Air Flow Rate fields and instead
+       \note references design specification objects named in the fields
+       \note Design Specification Outdoor Air Object Name and Design Specification Zone Air
+       \note Distribution Object Name.
+       \type choice
+       \key None
+       \key Flow/Person
+       \key Flow/Zone
+       \key Flow/Area
+       \key Sum
+       \key Maximum
+       \key DetailedSpecification
+       \default None
+  N12, \field Outdoor Air Flow Rate per Person
+       \units m3/s
+       \note Default 0.00944 is 20 cfm per person
+       \note This input is used if the field Outdoor Air Method is
+       \note Flow/Person, Sum, or Maximum
+       \default 0.00944
+  N13, \field Outdoor Air Flow Rate per Zone Floor Area
+       \units m3/s-m2
+       \default 0.0
+       \note This input is used if the field Outdoor Air Method is
+       \note Flow/Area, Sum, or Maximum
+  N14, \field Outdoor Air Flow Rate per Zone
+       \type real
+       \units m3/s
+       \default 0.0
+       \note This input is used if the field Outdoor Air Method is
+       \note Flow/Zone, Sum, or Maximum
+  A11, \field Design Specification Outdoor Air Object Name
+       \type object-list
+       \object-list DesignSpecificationOutdoorAirNames
+       \note When the name of a DesignSpecification:OutdoorAir object is entered, the minimum
+       \note outdoor air flow rate will be computed using these specifications. The outdoor air
+       \note flow rate will also be affected by the next two fields.
+       \note If this field is blank, there will be no outdoor air and the remaining fields will
+       \note be ignored.
+  A12, \field Demand Controlled Ventilation Type
+       \note This field controls how the minimum outdoor air flow rate is calculated.
+       \note None means that design occupancy will be used to compute the minimum outdoor air flow rate
+       \note OccupancySchedule means that current occupancy level will be used.
+       \note CO2Setpoint means that the design occupancy will be used to compute the minimum outdoor air flow
+       \note rate and the outdoor air flow rate may be increased if necessary to maintain the indoor air carbon
+       \note dioxide setpoint defined in a ZoneControl:ContaminantController object.
+       \type choice
+       \key None
+       \key OccupancySchedule
+       \key CO2Setpoint
+       \default None
+  A13, \field Outdoor Air Economizer Type
+       \note DifferentialDryBulb and DifferentialEnthalpy will increase the outdoor air flow rate
+       \note when there is a cooling load and the outdoor air temperature or enthalpy
+       \note is below the zone exhaust air temperature or enthalpy.
+       \type choice
+       \key NoEconomizer
+       \key DifferentialDryBulb
+       \key DifferentialEnthalpy
+       \default NoEconomizer
+  A14, \field Heat Recovery Type
+       \type choice
+       \key None
+       \key Sensible
+       \key Enthalpy
+       \default None
+  N15, \field Sensible Heat Recovery Effectiveness
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.70
+  N16; \field Latent Heat Recovery Effectiveness
+       \note Applicable only if Heat Recovery Type is Enthalpy.
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.65
+
+HVACTemplate:Zone:BaseboardHeat,
+      \min-fields 11
+      \memo Zone baseboard heating system.
+  A1, \field Zone Name
+      \required-field
+      \note Zone name must match a building zone name
+      \type object-list
+      \object-list ZoneNames
+  A2, \field Template Thermostat Name
+      \note Enter the name of a HVACTemplate:Thermostat object.
+      \note If blank, then it is assumed that standard thermostat objects
+      \note have been defined for this zone.
+      \type object-list
+      \object-list CompactHVACThermostats
+  N1, \field Zone Heating Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  A3, \field Baseboard Heating Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \default HotWater
+  A4, \field Baseboard Heating Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  N2, \field Baseboard Heating Capacity
+      \autosizable
+      \default autosize
+      \units W
+  A5, \field Dedicated Outdoor Air System Name
+      \note Enter the name of an HVACTemplate:System:DedicatedOutdoorAir object if this
+      \note zone is served by a separate dedicated outdoor air system (DOAS).
+      \note Leave field blank if no DOAS serves this zone.
+      \type object-list
+      \object-list HVACTemplateDOASSystems
+  A6, \field Outdoor Air Method
+      \note Flow/Person, Flow/Zone, Flow/Area, Sum, and Maximum use the values in the next three
+      \note fields: Outdoor Air Flow Rate per Person, Outdoor Air Flow Rate per Zone Floor Area,
+      \note and Outdoor Air Flow Rate per Zone.
+      \note DetailedSpecification ignores these three Outdoor Air Flow Rate fields and instead
+      \note references design specification objects named in the fields
+      \note Design Specification Outdoor Air Object Name and Design Specification Zone Air
+      \note Distribution Object Name.
+      \type choice
+      \key Flow/Person
+      \key Flow/Zone
+      \key Flow/Area
+      \key Sum
+      \key Maximum
+      \key DetailedSpecification
+      \default Flow/Person
+  N3, \field Outdoor Air Flow Rate per Person
+      \units m3/s
+      \note Default 0.00944 is 20 cfm per person
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Person, Sum, or Maximum
+      \default 0.00944
+  N4, \field Outdoor Air Flow Rate per Zone Floor Area
+      \units m3/s-m2
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Area, Sum, or Maximum
+  N5, \field Outdoor Air Flow Rate per Zone
+      \type real
+      \units m3/s
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Zone, Sum, or Maximum
+  A7, \field Design Specification Outdoor Air Object name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationOutdoorAirNames
+  A8; \field Design Specification Zone Air Distribution Object Name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationZoneAirDistributionNames
+
+HVACTemplate:Zone:FanCoil,
+      \min-fields 34
+      \memo 4 pipe fan coil unit with optional outdoor air.
+  A1, \field Zone Name
+      \required-field
+      \note Zone name must match a building zone name
+      \type object-list
+      \object-list ZoneNames
+  A2, \field Template Thermostat Name
+      \note Enter the name of a HVACTemplate:Thermostat object.
+      \note If blank, then it is assumed that standard thermostat objects
+      \note have been defined for this zone.
+      \type object-list
+      \object-list CompactHVACThermostats
+  N1, \field Supply Air Maximum Flow Rate
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \autosizable
+      \default autosize
+      \units m3/s
+  N2, \field Zone Heating Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  N3, \field Zone Cooling Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  A3, \field Outdoor Air Method
+      \note Flow/Person, Flow/Zone, Flow/Area, Sum, and Maximum use the values in the next three
+      \note fields: Outdoor Air Flow Rate per Person, Outdoor Air Flow Rate per Zone Floor Area,
+      \note and Outdoor Air Flow Rate per Zone.
+      \note DetailedSpecification ignores these three Outdoor Air Flow Rate fields and instead
+      \note references design specification objects named in the fields
+      \note Design Specification Outdoor Air Object Name and Design Specification Zone Air
+      \note Distribution Object Name.
+      \type choice
+      \key Flow/Person
+      \key Flow/Zone
+      \key Flow/Area
+      \key Sum
+      \key Maximum
+      \key DetailedSpecification
+      \default Flow/Person
+  N4, \field Outdoor Air Flow Rate per Person
+      \units m3/s
+      \note Default 0.00944 is 20 cfm per person
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Person, Sum, or Maximum
+      \default 0.00944
+  N5, \field Outdoor Air Flow Rate per Zone Floor Area
+      \units m3/s-m2
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Area, Sum, or Maximum
+  N6, \field Outdoor Air Flow Rate per Zone
+      \type real
+      \units m3/s
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Zone, Sum, or Maximum
+  A4, \field System Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  N7, \field Supply Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+  N8, \field Supply Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 75
+  N9, \field Supply Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+ N10, \field Supply Fan Motor in Air Stream Fraction
+      \minimum 0.0
+      \maximum 1.0
+      \default 1.0
+  A5, \field Cooling Coil Type
+      \type choice
+      \key  ChilledWater
+      \key  ChilledWaterDetailedFlatModel
+      \key  HeatExchangerAssistedChilledWater
+      \default  ChilledWater
+  A6, \field Cooling Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N11, \field Cooling Coil Design Setpoint
+      \note Used for sizing when Zone Cooling Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+      \default 14.0
+      \units C
+  A7, \field Heating Coil Type
+      \type choice
+      \key HotWater
+      \key Electric
+      \default HotWater
+  A8, \field Heating Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N12, \field Heating Coil Design Setpoint
+      \note Used for sizing when Zone Heating Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+      \default 50.0
+      \units C
+  A9, \field Dedicated Outdoor Air System Name
+      \note Enter the name of an HVACTemplate:System:DedicatedOutdoorAir object if this
+      \note zone is served by a separate dedicated outdoor air system (DOAS).
+      \note Leave field blank if no DOAS serves this zone.
+      \type object-list
+      \object-list HVACTemplateDOASSystems
+ A10, \field Zone Cooling Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Cooling Coil Design Setpoint (above)
+      \note TemperatureDifference = use the value from Zone Cooling Design Supply Air Temperature Difference
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \default SupplyAirTemperature
+ N13, \field Zone Cooling Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 11.11
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be subtracted from the zone temperature
+      \note at peak load to calculate the Zone Cooling Design Supply Air Temperature.
+ A11, \field Zone Heating Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Heating Coil Design Setpoint (above)
+      \note TemperatureDifference = use the value from Zone Heating Design Supply Air Temperature Difference
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \default SupplyAirTemperature
+ N14, \field Zone Heating Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 30.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be added to the zone temperature
+      \note at peak load to calculate the Zone Heating Design Supply Air Temperature.
+ A12, \field Design Specification Outdoor Air Object Name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationOutdoorAirNames
+ A13, \field Design Specification Zone Air Distribution Object Name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationZoneAirDistributionNames
+ A14, \field Capacity Control Method
+      \note If this field is left blank, it will default to CyclingFan if a Dedicated Outdoor Air
+      \note System is specified (see above), otherwise it will default to ConstantFanVariableFlow.
+      \type choice
+      \key ConstantFanVariableFlow
+      \key CyclingFan
+      \key VariableFanVariableFlow
+      \key VariableFanConstantFlow
+      \key MultiSpeedFan
+      \key ASHRAE90VariableFan
+ N15, \field Low Speed Supply Air Flow Ratio
+      \type real
+      \minimum> 0.0
+      \default 0.33
+ N16, \field Medium Speed Supply Air Flow Ratio
+      \note Medium Speed Supply Air Flow Ratio should be greater
+      \note than Low Speed Supply Air Flow Ratio
+      \type real
+      \minimum> 0.0
+      \default 0.66
+ A15, \field Outdoor Air Schedule Name
+      \note Value of schedule multiplies maximum outdoor air flow rate
+      \note This schedule is ignored if this zone is served by an HVACTemplate dedicated outdoor
+      \note air system.
+      \type object-list
+      \object-list ScheduleNames
+ A16, \field Baseboard Heating Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  None
+      \default None
+ A17, \field Baseboard Heating Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N17; \field Baseboard Heating Capacity
+      \autosizable
+      \default autosize
+      \units W
+
+HVACTemplate:Zone:PTAC,
+      \min-fields 40
+      \memo Packaged Terminal Air Conditioner
+  A1, \field Zone Name
+      \required-field
+      \note Zone name must match a building zone name
+      \type object-list
+      \object-list ZoneNames
+  A2, \field Template Thermostat Name
+      \note Enter the name of a HVACTemplate:Thermostat object.
+      \note If blank, then it is assumed that standard thermostat objects
+      \note have been defined for this zone.
+      \type object-list
+      \object-list CompactHVACThermostats
+  N1, \field Cooling Supply Air Flow Rate
+      \note Supply air flow rate during cooling operation
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \type real
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+      \units m3/s
+  N2, \field Heating Supply Air Flow Rate
+      \note Supply air flow rate during heating operation
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \type real
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+      \units m3/s
+  N3, \field No Load Supply Air Flow Rate
+      \note Supply air flow rate when no cooling or heating is needed
+      \note Only used when heat pump fan operating mode is continuous. This air flow rate
+      \note is used when no heating or cooling is required and the DX coil compressor is off.
+      \note If this field is left blank or zero, the supply air flow rate from the previous on cycle
+      \note (either cooling or heating) is used.
+      \note A value entered in this field will *not* be multiplied by the sizing factor or
+      \note by zone multipliers. It is best to autosize or leave blank when using zone multipliers.
+      \type real
+      \minimum 0
+      \autosizable
+      \units m3/s
+  N4, \field Zone Heating Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  N5, \field Zone Cooling Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  A3, \field Outdoor Air Method
+      \note Flow/Person, Flow/Zone, Flow/Area, Sum, and Maximum use the values in the next three
+      \note fields: Outdoor Air Flow Rate per Person, Outdoor Air Flow Rate per Zone Floor Area,
+      \note and Outdoor Air Flow Rate per Zone.
+      \note DetailedSpecification ignores these three Outdoor Air Flow Rate fields and instead
+      \note references design specification objects named in the fields
+      \note Design Specification Outdoor Air Object Name and Design Specification Zone Air
+      \note Distribution Object Name.
+      \type choice
+      \key Flow/Person
+      \key Flow/Zone
+      \key Flow/Area
+      \key Sum
+      \key Maximum
+      \key DetailedSpecification
+      \default Flow/Person
+  N6, \field Outdoor Air Flow Rate per Person
+      \units m3/s
+      \note Default 0.00944 is 20 cfm per person
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Person, Sum, or Maximum
+      \default 0.00944
+  N7, \field Outdoor Air Flow Rate per Zone Floor Area
+      \units m3/s-m2
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Area, Sum, or Maximum
+  N8, \field Outdoor Air Flow Rate per Zone
+      \type real
+      \units m3/s
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Zone, Sum, or Maximum
+  A4, \field System Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  A5, \field Supply Fan Operating Mode Schedule Name
+      \note Refers to a schedule to specify unitary supply fan operating mode.
+      \note Schedule Name values of 0 indicate cycling fan (auto)
+      \note Schedule values of 1 indicate continuous fan (on)
+      \note If this field is left blank, a schedule of always zero (cycling fan) will be used.
+      \type object-list
+      \object-list ScheduleNames
+  A6, \field Supply Fan Placement
+      \type choice
+      \key BlowThrough
+      \key DrawThrough
+      \default DrawThrough
+  N9, \field Supply Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+ N10, \field Supply Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 75
+ N11, \field Supply Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+  A7, \field Cooling Coil Type
+      \type choice
+      \key  SingleSpeedDX
+      \default SingleSpeedDX
+  A8, \field Cooling Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N12, \field Cooling Coil Gross Rated Total Capacity
+      \note Total cooling capacity not accounting for the effect of supply air fan heat
+      \note Rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+      \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+      \type real
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+      \units W
+ N13, \field Cooling Coil Gross Rated Sensible Heat Ratio
+      \note Rated sensible heat ratio (gross sensible capacity/gross total capacity)
+      \note Sensible and total capacities do not include effect of supply fan heat
+      \type real
+      \autosizable
+      \minimum 0.5
+      \maximum 1.0
+      \default autosize
+ N14, \field Cooling Coil Gross Rated Cooling COP
+      \note Gross cooling capacity divided by power input to the compressor and outdoor fan,
+      \note does not include supply fan heat or supply fan electrical energy input
+      \type real
+      \units W/W
+      \minimum> 0.0
+      \default 3.0
+  A9, \field Heating Coil Type
+      \type choice
+      \key  Electric
+      \key  HotWater
+      \key  Gas
+      \default Electric
+ A10, \field Heating Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N15, \field Heating Coil Capacity
+      \autosizable
+      \default autosize
+      \units W
+ N16, \field Gas Heating Coil Efficiency
+      \note Applies only if Heating Coil Type is Gas
+      \maximum 1.0
+      \minimum 0.0
+      \default 0.8
+ N17, \field Gas Heating Coil Parasitic Electric Load
+      \note Applies only if Heating Coil Type is Gas
+      \units W
+      \ip-units W
+      \minimum 0.0
+      \default 0.0
+ A11, \field Dedicated Outdoor Air System Name
+      \note Enter the name of an HVACTemplate:System:DedicatedOutdoorAir object if this
+      \note zone is served by a separate dedicated outdoor air system (DOAS).
+      \note Leave field blank if no DOAS serves this zone.
+      \type object-list
+      \object-list HVACTemplateDOASSystems
+ A12, \field Zone Cooling Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Cooling Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Cooling Design Supply Air Temperature Difference
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \default SupplyAirTemperature
+ N18, \field Zone Cooling Design Supply Air Temperature
+      \type real
+      \units C
+      \default 14.0
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N19, \field Zone Cooling Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 11.11
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be subtracted from the zone temperature
+      \note at peak load to calculate the Zone Cooling Design Supply Air Temperature.
+ A13, \field Zone Heating Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Heating Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Heating Design Supply Air Temperature Difference
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \default SupplyAirTemperature
+ N20, \field Zone Heating Design Supply Air Temperature
+      \type real
+      \units C
+      \default 50.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N21, \field Zone Heating Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 30.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be added to the zone temperature
+      \note at peak load to calculate the Zone Heating Design Supply Air Temperature.
+ A14, \field Design Specification Outdoor Air Object Name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationOutdoorAirNames
+ A15, \field Design Specification Zone Air Distribution Object Name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationZoneAirDistributionNames
+ A16, \field Baseboard Heating Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  None
+      \default None
+ A17, \field Baseboard Heating Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N22, \field Baseboard Heating Capacity
+      \autosizable
+      \default autosize
+      \units W
+ A18; \field Capacity Control Method
+      \type choice
+      \key None
+      \key SingleZoneVAV
+      \default None
+
+HVACTemplate:Zone:PTHP,
+      \min-fields 50
+      \memo Packaged Terminal Heat Pump
+  A1, \field Zone Name
+      \required-field
+      \note Zone name must match a building zone name
+      \type object-list
+      \object-list ZoneNames
+  A2, \field Template Thermostat Name
+      \note Enter the name of a HVACTemplate:Thermostat object.
+      \note If blank, then it is assumed that standard thermostat objects
+      \note have been defined for this zone.
+      \type object-list
+      \object-list CompactHVACThermostats
+  N1, \field Cooling Supply Air Flow Rate
+      \note Supply air flow rate during cooling operation
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \type real
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+      \units m3/s
+  N2, \field Heating Supply Air Flow Rate
+      \note Supply air flow rate during heating operation
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \type real
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+      \units m3/s
+  N3, \field No Load Supply Air Flow Rate
+      \note Supply air flow rate when no cooling or heating is needed
+      \note Only used when heat pump fan operating mode is continuous. This air flow rate
+      \note is used when no heating or cooling is required and the DX coil compressor is off.
+      \note If this field is left blank or zero, the supply air flow rate from the previous on cycle
+      \note (either cooling or heating) is used.
+      \note A value entered in this field will *not* be multiplied by the sizing factor or
+      \note by zone multipliers. It is best to autosize or leave blank when using zone multipliers.
+      \type real
+      \minimum 0
+      \autosizable
+      \units m3/s
+  N4, \field Zone Heating Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  N5, \field Zone Cooling Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  A3, \field Outdoor Air Method
+      \note Flow/Person, Flow/Zone, Flow/Area, Sum, and Maximum use the values in the next three
+      \note fields: Outdoor Air Flow Rate per Person, Outdoor Air Flow Rate per Zone Floor Area,
+      \note and Outdoor Air Flow Rate per Zone.
+      \note DetailedSpecification ignores these three Outdoor Air Flow Rate fields and instead
+      \note references design specification objects named in the fields
+      \note Design Specification Outdoor Air Object Name and Design Specification Zone Air
+      \note Distribution Object Name.
+      \type choice
+      \key Flow/Person
+      \key Flow/Zone
+      \key Flow/Area
+      \key Sum
+      \key Maximum
+      \key DetailedSpecification
+      \default Flow/Person
+  N6, \field Outdoor Air Flow Rate per Person
+      \units m3/s
+      \note Default 0.00944 is 20 cfm per person
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Person, Sum, or Maximum
+      \default 0.00944
+  N7, \field Outdoor Air Flow Rate per Zone Floor Area
+      \units m3/s-m2
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Area, Sum, or Maximum
+  N8, \field Outdoor Air Flow Rate per Zone
+      \type real
+      \units m3/s
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Zone, Sum, or Maximum
+  A4, \field System Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  A5, \field Supply Fan Operating Mode Schedule Name
+      \note Refers to a schedule to specify unitary supply fan operating mode.
+      \note Schedule values of 0 indicate cycling fan (auto)
+      \note Schedule values of 1 indicate continuous fan (on)
+      \note If this field is left blank, a schedule of always zero (cycling fan) will be used.
+      \type object-list
+      \object-list ScheduleNames
+  A6, \field Supply Fan Placement
+      \type choice
+      \key BlowThrough
+      \key DrawThrough
+      \default DrawThrough
+  N9, \field Supply Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+ N10, \field Supply Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 75
+ N11, \field Supply Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+  A7, \field Cooling Coil Type
+      \type choice
+      \key  SingleSpeedDX
+      \default SingleSpeedDX
+  A8, \field Cooling Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N12, \field Cooling Coil Gross Rated Total Capacity
+      \note Total cooling capacity not accounting for the effect of supply air fan heat
+      \note Rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+      \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+      \type real
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+      \units W
+ N13, \field Cooling Coil Gross Rated Sensible Heat Ratio
+      \note Rated sensible heat ratio (gross sensible capacity/gross total capacity)
+      \note Sensible and total capacities do not include effect of supply fan heat
+      \type real
+      \autosizable
+      \minimum 0.5
+      \maximum 1.0
+      \default autosize
+ N14, \field Cooling Coil Gross Rated COP
+      \note Gross cooling capacity divided by power input to the compressor and outdoor fan,
+      \note does not include supply fan heat or supply fan electrical energy input
+      \type real
+      \units W/W
+      \minimum> 0.0
+      \default 3.0
+  A9, \field Heat Pump Heating Coil Type
+      \type choice
+      \key  SingleSpeedDXHeatPump
+      \default SingleSpeedDXHeatPump
+ A10, \field Heat Pump Heating Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N15, \field Heat Pump Heating Coil Gross Rated Capacity
+      \note Capacity excluding supply air fan heat
+      \note Rating point outdoor dry-bulb temp 8.33 C, outdoor wet-bulb temp 6.11 C
+      \note Rating point heating coil entering air dry-bulb 21.11 C, coil entering wet-bulb 15.55 C
+      \type real
+      \units W
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+ N16, \field Heat Pump Heating Coil Gross Rated COP
+      \note Heat Pump Heating Coil Rated Capacity divided by power input to the compressor and outdoor fan,
+      \note Does not include supply air fan heat or supply air fan electrical energy
+      \note Rating point outdoor dry-bulb temp 8.33 C, outdoor wet-bulb temp 6.11 C
+      \note Rating point heating coil entering air dry-bulb 21.11 C, coil entering wet-bulb 15.55 C
+      \units W/W
+      \minimum> 0.0
+      \default 2.75
+ N17, \field Heat Pump Heating Minimum Outdoor Dry-Bulb Temperature
+      \type real
+      \minimum -20.0
+      \default -8.0
+      \units C
+ N18, \field Heat Pump Defrost Maximum Outdoor Dry-Bulb Temperature
+      \type real
+      \minimum 0.0
+      \maximum 7.22
+      \default 5.0
+      \units C
+ A11, \field Heat Pump Defrost Strategy
+      \type choice
+      \key ReverseCycle
+      \key Resistive
+      \default ReverseCycle
+ A12, \field Heat Pump Defrost Control
+      \type choice
+      \key Timed
+      \key OnDemand
+      \default Timed
+ N19, \field Heat Pump Defrost Time Period Fraction
+      \type real
+      \minimum 0.0
+      \default 0.058333
+      \note Fraction of time in defrost mode
+      \note only applicable if Timed defrost control is specified
+ A13, \field Supplemental Heating Coil Type
+      \type choice
+      \key  Electric
+      \key  Gas
+      \key  HotWater
+      \default Electric
+ A14, \field Supplemental Heating Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N20, \field Supplemental Heating Coil Capacity
+      \autosizable
+      \default autosize
+      \units W
+ N21, \field Supplemental Heating Coil Maximum Outdoor Dry-Bulb Temperature
+      \type real
+      \maximum 21.0
+      \default 21.0
+      \units C
+      \note Supplemental heater will not operate when outdoor temperature exceeds this value.
+ N22, \field Supplemental Gas Heating Coil Efficiency
+      \note Applies only if Supplemental Heating Coil Type is Gas
+      \maximum 1.0
+      \minimum 0.0
+      \default 0.8
+ N23, \field Supplemental Gas Heating Coil Parasitic Electric Load
+      \note Applies only if Supplemental Heating Coil Type is Gas
+      \units W
+      \ip-units W
+      \minimum 0.0
+      \default 0.0
+ A15, \field Dedicated Outdoor Air System Name
+      \note Enter the name of an HVACTemplate:System:DedicatedOutdoorAir object if this
+      \note zone is served by a separate dedicated outdoor air system (DOAS).
+      \note Leave field blank if no DOAS serves this zone.
+      \type object-list
+      \object-list HVACTemplateDOASSystems
+ A16, \field Zone Cooling Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Cooling Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Cooling Design Supply Air Temperature Difference
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \default SupplyAirTemperature
+ N24, \field Zone Cooling Design Supply Air Temperature
+      \type real
+      \units C
+      \default 14.0
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N25, \field Zone Cooling Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 11.11
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be subtracted from the zone temperature
+      \note at peak load to calculate the Zone Cooling Design Supply Air Temperature.
+ A17, \field Zone Heating Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Heating Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Heating Design Supply Air Temperature Difference
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \default SupplyAirTemperature
+ N26, \field Zone Heating Design Supply Air Temperature
+      \type real
+      \units C
+      \default 50.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N27, \field Zone Heating Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 30.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be added to the zone temperature
+      \note at peak load to calculate the Zone Heating Design Supply Air Temperature.
+ A18, \field Design Specification Outdoor Air Object Name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationOutdoorAirNames
+ A19, \field Design Specification Zone Air Distribution Object Name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationZoneAirDistributionNames
+ A20, \field Baseboard Heating Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  None
+      \default None
+ A21, \field Baseboard Heating Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N28, \field Baseboard Heating Capacity
+      \autosizable
+      \default autosize
+      \units W
+ A22; \field Capacity Control Method
+      \type choice
+      \key None
+      \key SingleZoneVAV
+      \default None
+
+HVACTemplate:Zone:WaterToAirHeatPump,
+      \min-fields 44
+      \memo Water to Air Heat Pump to be used with HVACTemplate:Plant:MixedWaterLoop
+  A1, \field Zone Name
+      \required-field
+      \note Zone name must match a building zone name
+      \type object-list
+      \object-list ZoneNames
+  A2, \field Template Thermostat Name
+      \note Enter the name of a HVACTemplate:Thermostat object.
+      \note If blank, then it is assumed that standard thermostat objects
+      \note have been defined for this zone.
+      \type object-list
+      \object-list CompactHVACThermostats
+  N1, \field Cooling Supply Air Flow Rate
+      \note Supply air flow rate during cooling operation
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \type real
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+      \units m3/s
+  N2, \field Heating Supply Air Flow Rate
+      \note Supply air flow rate during heating operation
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \type real
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+      \units m3/s
+  N3, \field No Load Supply Air Flow Rate
+      \note Supply air flow rate when no cooling or heating is needed
+      \note Only used when heat pump fan operating mode is continuous. This air flow rate
+      \note is used when no heating or cooling is required.
+      \note If this field is left blank or zero, the supply air flow rate from the previous on cycle
+      \note (either cooling or heating) is used.
+      \note A value entered in this field will *not* be multiplied by the sizing factor or
+      \note by zone multipliers. It is best to autosize or leave blank when using zone multipliers.
+      \type real
+      \minimum 0
+      \autosizable
+      \units m3/s
+  N4, \field Zone Heating Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  N5, \field Zone Cooling Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  A3, \field Outdoor Air Method
+      \note Flow/Person, Flow/Zone, Flow/Area, Sum, and Maximum use the values in the next three
+      \note fields: Outdoor Air Flow Rate per Person, Outdoor Air Flow Rate per Zone Floor Area,
+      \note and Outdoor Air Flow Rate per Zone.
+      \note DetailedSpecification ignores these three Outdoor Air Flow Rate fields and instead
+      \note references design specification objects named in the fields
+      \note Design Specification Outdoor Air Object Name and Design Specification Zone Air
+      \note Distribution Object Name.
+      \type choice
+      \key Flow/Person
+      \key Flow/Zone
+      \key Flow/Area
+      \key Sum
+      \key Maximum
+      \key DetailedSpecification
+      \default Flow/Person
+  N6, \field Outdoor Air Flow Rate per Person
+      \units m3/s
+      \note Default 0.00944 is 20 cfm per person
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Person, Sum, or Maximum
+      \default 0.00944
+  N7, \field Outdoor Air Flow Rate per Zone Floor Area
+      \units m3/s-m2
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Area, Sum, or Maximum
+  N8, \field Outdoor Air Flow Rate per Zone
+      \type real
+      \units m3/s
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Zone, Sum, or Maximum
+  A4, \field System Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  A5, \field Supply Fan Operating Mode Schedule Name
+      \note Refers to a schedule to specify unitary supply fan operating mode.
+      \note Schedule values of 0 indicate cycling fan (auto)
+      \note Schedule values of 1 indicate continuous fan (on)
+      \note If this field is left blank, a schedule of always zero (cycling fan) will be used.
+      \type object-list
+      \object-list ScheduleNames
+  A6, \field Supply Fan Placement
+      \type choice
+      \key BlowThrough
+      \key DrawThrough
+      \default DrawThrough
+  N9, \field Supply Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+ N10, \field Supply Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 75
+ N11, \field Supply Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+  A7, \field Cooling Coil Type
+      \type choice
+      \key  Coil:Cooling:WaterToAirHeatPump:EquationFit
+      \default Coil:Cooling:WaterToAirHeatPump:EquationFit
+ N12, \field Cooling Coil Gross Rated Total Capacity
+      \note Total cooling capacity not accounting for the effect of supply air fan heat
+      \type real
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+      \units W
+ N13, \field Cooling Coil Gross Rated Sensible Heat Ratio
+      \note Rated sensible heat ratio (gross sensible capacity/gross total capacity)
+      \note Sensible and total capacities do not include effect of supply fan heat
+      \type real
+      \autosizable
+      \minimum 0.5
+      \maximum 1.0
+      \default autosize
+ N14, \field Cooling Coil Gross Rated COP
+      \note Gross cooling capacity divided by power input to the compressor and outdoor fan,
+      \note does not include supply fan heat or supply fan electric power input
+      \type real
+      \units W/W
+      \minimum> 0.0
+      \default 3.5
+  A8, \field Heat Pump Heating Coil Type
+      \type choice
+      \key  Coil:Heating:WaterToAirHeatPump:EquationFit
+      \default Coil:Heating:WaterToAirHeatPump:EquationFit
+ N15, \field Heat Pump Heating Coil Gross Rated Capacity
+      \note Capacity excluding supply air fan heat
+      \type real
+      \units W
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+      \units W
+ N16, \field Heat Pump Heating Coil Gross Rated COP
+      \note Heat Pump Heating Coil Rated Capacity divided by power input to the compressor and outdoor fan,
+      \note does not include supply air fan heat or supply air fan electric power input
+      \units W/W
+      \minimum> 0.0
+      \default 4.2
+  A9, \field Supplemental Heating Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N17, \field Supplemental Heating Coil Capacity
+      \autosizable
+      \default autosize
+      \units W
+ N18, \field Maximum Cycling Rate
+      \type real
+      \units cycles/hr
+      \minimum 0.0
+      \maximum 5.0
+      \default 2.5
+      \note The maximum on-off cycling rate for the compressor
+      \note Suggested value is 2.5 for a typical heat pump
+ N19, \field Heat Pump Time Constant
+      \type real
+      \units s
+      \minimum 0.0
+      \maximum 500.0
+      \default 60.0
+      \note Time constant for the cooling coil's capacity to reach steady state after startup
+      \note Suggested value is 60 for a typical heat pump
+ N20, \field Fraction of On-Cycle Power Use
+      \minimum 0.0
+      \maximum 0.05
+      \default 0.01
+      \note The fraction of on-cycle power use to adjust the part load fraction based on
+      \note the off-cycle power consumption due to crankcase heaters, controls, fans, and etc.
+      \note Suggested value is 0.01 for a typical heat pump
+ N21, \field Heat Pump Fan Delay Time
+      \units s
+      \minimum 0.0
+      \default 60
+      \note Programmed time delay for heat pump fan to shut off after compressor cycle off.
+      \note Only required when fan operating mode is cycling
+      \note Enter 0 when fan operating mode is continuous
+ A10, \field Dedicated Outdoor Air System Name
+      \note Enter the name of an HVACTemplate:System:DedicatedOutdoorAir object if this
+      \note zone is served by a separate dedicated outdoor air system (DOAS).
+      \note Leave field blank if no DOAS serves this zone.
+      \type object-list
+      \object-list HVACTemplateDOASSystems
+ A11, \field Supplemental Heating Coil Type
+      \type choice
+      \key  Electric
+      \key  HotWater
+      \default Electric
+ A12, \field Zone Cooling Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Cooling Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Cooling Design Supply Air Temperature Difference
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \default SupplyAirTemperature
+ N22, \field Zone Cooling Design Supply Air Temperature
+      \type real
+      \units C
+      \default 14.0
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N23, \field Zone Cooling Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 11.11
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be subtracted from the zone temperature
+      \note at peak load to calculate the Zone Cooling Design Supply Air Temperature.
+ A13, \field Zone Heating Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Heating Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Heating Design Supply Air Temperature Difference
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \default SupplyAirTemperature
+ N24, \field Zone Heating Design Supply Air Temperature
+      \type real
+      \units C
+      \default 50.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N25, \field Zone Heating Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 30.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be added to the zone temperature
+      \note at peak load to calculate the Zone Heating Design Supply Air Temperature.
+ A14, \field Heat Pump Coil Water Flow Mode
+      \type choice
+      \key Constant
+      \key Cycling
+      \key ConstantOnDemand
+      \default Cycling
+      \note used only when the heat pump coils are of the type WaterToAirHeatPump:EquationFit
+      \note Constant results in 100% water flow regardless of compressor PLR
+      \note Cycling results in water flow that matches compressor PLR
+      \note ConstantOnDemand results in 100% water flow whenever the coil is on, but is 0% whenever the coil has no load
+ A15, \field Design Specification Outdoor Air Object Name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationOutdoorAirNames
+ A16, \field Design Specification Zone Air Distribution Object Name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationZoneAirDistributionNames
+ A17, \field Baseboard Heating Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  None
+      \default None
+ A18, \field Baseboard Heating Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N26; \field Baseboard Heating Capacity
+      \autosizable
+      \default autosize
+      \units W
+
+HVACTemplate:Zone:VRF,
+      \memo Zone terminal unit with variable refrigerant flow (VRF) DX cooling and heating coils
+      \memo (air-to-air or water-to-air heat pump). The VRF terminal units are served by an
+      \memo HVACTemplate:System:VRF system.
+      \min-fields 44
+  A1, \field Zone Name
+      \required-field
+      \note Zone name must match a building zone name
+      \type object-list
+      \object-list ZoneNames
+  A2, \field Template VRF System Name
+      \required-field
+      \note Name of a HVACTemplate:System:VRF object serving this zone
+      \type object-list
+      \object-list CompactHVACSystemVRF
+  A3, \field Template Thermostat Name
+      \note Enter the name of a HVACTemplate:Thermostat object.
+      \note If blank, then it is assumed that standard thermostat objects
+      \note have been defined for this zone.
+      \type object-list
+      \object-list CompactHVACThermostats
+  N1, \field Zone Heating Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  N2, \field Zone Cooling Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  N3, \field Rated Total Heating Capacity Sizing Ratio
+      \type real
+      \units W/W
+      \minimum 1.0
+      \default 1.0
+      \note If this terminal unit's heating coil is autosized, the heating capacity is sized
+      \note to be equal to the cooling capacity multiplied by this sizing ratio.
+      \note This input applies to the terminal unit heating coil and overrides the sizing
+      \note ratio entered in the HVACTemplate:System:VRF object.
+  N4, \field Cooling Supply Air Flow Rate
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \type real
+      \units m3/s
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+  N5, \field No Cooling Supply Air Flow Rate
+      \note This flow rate is used when the terminal is not cooling and the previous mode was cooling.
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \autosizable
+      \default autosize
+  N6, \field Heating Supply Air Flow Rate
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \type real
+      \units m3/s
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+  N7, \field No Heating Supply Air Flow Rate
+      \note This flow rate is used when the terminal is not heating and the previous mode was heating.
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \autosizable
+      \default autosize
+  N8, \field Cooling Outdoor Air Flow Rate
+      \note If this field is set to autosize it will be sized based on the outdoor air inputs below,
+      \note unless a dedicated outdoor air system is specified for this zone and then it will be
+      \note set to zero.
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \autosizable
+      \default autosize
+  N9, \field Heating Outdoor Air Flow Rate
+      \note If this field is set to autosize it will be sized based on the outdoor air inputs below,
+      \note unless a dedicated outdoor air system is specified for this zone and then it will be
+      \note set to zero.
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \autosizable
+      \default autosize
+ N10, \field No Load Outdoor Air Flow Rate
+      \note If this field is set to autosize it will be sized based on the outdoor air inputs below,
+      \note unless a dedicated outdoor air system is specified for this zone and then it will be
+      \note set to zero.
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \autosizable
+      \default autosize
+  A4, \field Outdoor Air Method
+      \note Flow/Person, Flow/Zone, Flow/Area, Sum, and Maximum use the values in the next three
+      \note fields: Outdoor Air Flow Rate per Person, Outdoor Air Flow Rate per Zone Floor Area,
+      \note and Outdoor Air Flow Rate per Zone.
+      \note DetailedSpecification ignores these three Outdoor Air Flow Rate fields and instead
+      \note references design specification objects named in the fields
+      \note Design Specification Outdoor Air Object Name and Design Specification Zone Air
+      \note Distribution Object Name.
+      \type choice
+      \key Flow/Person
+      \key Flow/Zone
+      \key Flow/Area
+      \key Sum
+      \key Maximum
+      \key DetailedSpecification
+      \default Flow/Person
+ N11, \field Outdoor Air Flow Rate per Person
+      \units m3/s
+      \note Default 0.00944 is 20 cfm per person
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Person, Sum, or Maximum
+      \default 0.00944
+ N12, \field Outdoor Air Flow Rate per Zone Floor Area
+      \units m3/s-m2
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Area, Sum, or Maximum
+ N13, \field Outdoor Air Flow Rate per Zone
+      \type real
+      \units m3/s
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Zone, Sum, or Maximum
+  A5, \field Design Specification Outdoor Air Object Name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationOutdoorAirNames
+  A6, \field Design Specification Zone Air Distribution Object Name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationZoneAirDistributionNames
+  A7, \field System Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  A8, \field Supply Fan Operating Mode Schedule Name
+      \note Refers to a schedule to specify unitary supply fan operating mode.
+      \note Schedule values of 0 indicate cycling fan (auto)
+      \note Schedule values of 1 indicate continuous fan (on)
+      \note If this field is left blank, a schedule of always zero (cycling fan) will be used.
+      \type object-list
+      \object-list ScheduleNames
+  A9, \field Supply Air Fan placement
+      \type choice
+      \key BlowThrough
+      \key DrawThrough
+      \default BlowThrough
+      \note Select fan placement as either blow through or draw through.
+ N14, \field Supply Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+ N15, \field Supply Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 75
+ N16, \field Supply Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+ A10, \field Cooling Coil Type
+      \type choice
+      \key VariableRefrigerantFlowDX
+      \key None
+      \default VariableRefrigerantFlowDX
+ A11, \field Cooling Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N17, \field Cooling Coil Gross Rated Total Capacity
+      \note Total cooling capacity not accounting for the effect of supply air fan heat
+      \note Rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+      \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+      \type real
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+      \units W
+ N18, \field Cooling Coil Gross Rated Sensible Heat Ratio
+      \note Rated sensible heat ratio (gross sensible capacity/gross total capacity)
+      \note Sensible and total capacities do not include effect of supply fan heat
+      \type real
+      \autosizable
+      \minimum 0.5
+      \maximum 1.0
+      \default autosize
+ A12, \field Heat Pump Heating Coil Type
+      \type choice
+      \key VariableRefrigerantFlowDX
+      \key None
+      \default VariableRefrigerantFlowDX
+ A13, \field Heat Pump Heating Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N19, \field Heat Pump Heating Coil Gross Rated Capacity
+      \note Capacity excluding supply air fan heat
+      \note Rating point outdoor dry-bulb temp 8.33 C, outdoor wet-bulb temp 6.11 C
+      \note Rating point heating coil entering air dry-bulb 21.11 C, coil entering wet-bulb 15.55 C
+      \type real
+      \units W
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+ N20, \field Zone Terminal Unit On Parasitic Electric Energy Use
+      \type real
+      \units W
+      \minimum 0
+      \default 0
+ N21, \field Zone Terminal Unit Off Parasitic Electric Energy Use
+      \type real
+      \units W
+      \minimum 0
+      \default 0
+ A14, \field Dedicated Outdoor Air System Name
+      \note Enter the name of an HVACTemplate:System:DedicatedOutdoorAir object if this
+      \note zone is served by a separate dedicated outdoor air system (DOAS).
+      \note Leave field blank if no DOAS serves this zone.
+      \type object-list
+      \object-list HVACTemplateDOASSystems
+ A15, \field Zone Cooling Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Cooling Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Cooling Design Supply Air Temperature Difference
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \default SupplyAirTemperature
+ N22, \field Zone Cooling Design Supply Air Temperature
+      \type real
+      \units C
+      \default 14.0
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N23, \field Zone Cooling Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 11.11
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be subtracted from the zone temperature
+      \note at peak load to calculate the Zone Cooling Design Supply Air Temperature.
+ A16, \field Zone Heating Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Heating Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Heating Design Supply Air Temperature Difference
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \default SupplyAirTemperature
+ N24, \field Zone Heating Design Supply Air Temperature
+      \type real
+      \units C
+      \default 50.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N25, \field Zone Heating Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 30.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be added to the zone temperature
+      \note at peak load to calculate the Zone Heating Design Supply Air Temperature.
+ A17, \field Baseboard Heating Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  None
+      \default None
+ A18, \field Baseboard Heating Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N26; \field Baseboard Heating Capacity
+      \autosizable
+      \default autosize
+      \units W
+
+HVACTemplate:Zone:Unitary,
+      \min-fields 21
+      \memo Zone terminal unit, constant volume, no controls.
+  A1, \field Zone Name
+      \required-field
+      \note Zone name must match a building zone name
+      \type object-list
+      \object-list ZoneNames
+  A2, \field Template Unitary System Name
+      \required-field
+      \note Enter the name of an HVACTemplate:System:Unitary, HVACTemplate:System:UnitaryHeatPump:AirTtoAir,
+      \note or HVACTemplate:System:UnitarySystem object serving this zone.
+      \type object-list
+      \object-list CompactHVACSystemUnitary
+  A3, \field Template Thermostat Name
+      \note Enter the name of a HVACTemplate:Thermostat object.
+      \note If blank, then it is assumed that standard thermostat objects
+      \note have been defined for this zone.
+      \type object-list
+      \object-list CompactHVACThermostats
+  N1, \field Supply Air Maximum Flow Rate
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \autosizable
+      \default autosize
+      \units m3/s
+  N2, \field Zone Heating Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  N3, \field Zone Cooling Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  A4, \field Outdoor Air Method
+      \note Flow/Person, Flow/Zone, Flow/Area, Sum, and Maximum use the values in the next three
+      \note fields: Outdoor Air Flow Rate per Person, Outdoor Air Flow Rate per Zone Floor Area,
+      \note and Outdoor Air Flow Rate per Zone.
+      \note DetailedSpecification ignores these three Outdoor Air Flow Rate fields and instead
+      \note references design specification objects named in the fields
+      \note Design Specification Outdoor Air Object Name and Design Specification Zone Air
+      \note Distribution Object Name.
+      \type choice
+      \key Flow/Person
+      \key Flow/Zone
+      \key Flow/Area
+      \key Sum
+      \key Maximum
+      \key DetailedSpecification
+      \default Flow/Person
+  N4, \field Outdoor Air Flow Rate per Person
+      \units m3/s
+      \note Default 0.00944 is 20 cfm per person
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Person, Sum, or Maximum
+      \default 0.00944
+  N5, \field Outdoor Air Flow Rate per Zone Floor Area
+      \units m3/s-m2
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Area, Sum, or Maximum
+  N6, \field Outdoor Air Flow Rate per Zone
+      \type real
+      \units m3/s
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Zone, Sum, or Maximum
+  A5, \field Supply Plenum Name
+      \note Plenum zone name. Supply plenum runs through only this zone.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+  A6, \field Return Plenum Name
+      \note Plenum zone name. Return plenum runs through only this zone.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+  A7, \field Baseboard Heating Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  None
+      \default None
+  A8, \field Baseboard Heating Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  N7, \field Baseboard Heating Capacity
+      \autosizable
+      \default autosize
+      \units W
+  A9, \field Zone Cooling Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Cooling Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Cooling Design Supply Air Temperature Difference
+      \note SystemSupplyAirTemperature = use the value from HVACTemplate:System:Unitary or HVACTemplate:System:UnitaryHeatPump:AirToAir
+      \note Cooling Design Supply Air Temperature
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \key SystemSupplyAirTemperature
+      \default SystemSupplyAirTemperature
+  N8, \field Zone Cooling Design Supply Air Temperature
+      \type real
+      \units C
+      \default 12.8
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+  N9, \field Zone Cooling Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 11.11
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be subtracted from the zone temperature
+      \note at peak load to calculate the Zone Cooling Design Supply Air Temperature.
+ A10, \field Zone Heating Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Heating Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Heating Design Supply Air Temperature Difference
+      \note SystemSupplyAirTemperature = use the value from HVACTemplate:System:Unitary or HVACTemplate:System:UnitaryHeatPump:AirToAir
+      \note Heating Design Supply Air Temperature
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \key SystemSupplyAirTemperature
+      \default SystemSupplyAirTemperature
+ N10, \field Zone Heating Design Supply Air Temperature
+      \type real
+      \units C
+      \default 50.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N11, \field Zone Heating Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 30.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be added to the zone temperature
+      \note at peak load to calculate the Zone Heating Design Supply Air Temperature.
+ A11, \field Design Specification Outdoor Air Object Name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationOutdoorAirNames
+ A12; \field Design Specification Zone Air Distribution Object Name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationZoneAirDistributionNames
+
+HVACTemplate:Zone:VAV,
+      \min-fields 32
+      \memo Zone terminal unit, variable volume, reheat optional.
+      \memo For heating, this unit activates reheat coil first, then increases airflow (if reverse
+      \memo action specified).
+  A1, \field Zone Name
+      \required-field
+      \note Zone name must match a building zone name
+      \type object-list
+      \object-list ZoneNames
+  A2, \field Template VAV System Name
+      \required-field
+      \note Name of a HVACTemplate:System:VAV or HVACTemplate:System:PackagedVAV
+      \note object serving this zone
+      \type object-list
+      \object-list CompactHVACSystemVAV
+  A3, \field Template Thermostat Name
+      \note Enter the name of a HVACTemplate:Thermostat object.
+      \note If blank, then it is assumed that standard thermostat objects
+      \note have been defined for this zone.
+      \type object-list
+      \object-list CompactHVACThermostats
+  N1, \field Supply Air Maximum Flow Rate
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \autosizable
+      \default autosize
+      \units m3/s
+  N2, \field Zone Heating Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  N3, \field Zone Cooling Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  A4, \field Zone Minimum Air Flow Input Method
+      \type choice
+      \key Constant
+      \key FixedFlowRate
+      \key Scheduled
+      \default Constant
+      \note Constant = Constant Minimum Air Flow Fraction (a fraction of Maximum Air Flow Rate)
+      \note FixedFlowRate = Fixed Minimum Air Flow Rate (a fixed minimum air volume flow rate)
+      \note Scheduled = Scheduled Minimum Air Flow Fraction (a fraction of Maximum Air Flow
+  N4, \field Constant Minimum Air Flow Fraction
+      \note This field is used if the field Zone Minimum Air Flow Input Method is Constant
+      \note If the field Zone Minimum Air Flow Input Method is Scheduled, then this field
+      \note is optional. If a value is entered, then it is used for sizing normal-action reheat coils.
+      \note If both this field and the following field are entered, the larger result is used.
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.2
+  N5, \field Fixed Minimum Air Flow Rate
+      \type real
+      \units m3/s
+      \note This field is used if the field Zone Minimum Air Flow Input Method is FixedFlowRate.
+      \note If the field Zone Minimum Air Flow Input Method is Scheduled, then this field
+      \note is optional. If a value is entered, then it is used for sizing normal-action reheat coils.
+      \note If both this field and the previous field are entered, the larger result is used.
+  A5, \field Minimum Air Flow Fraction Schedule Name
+      \type object-list
+      \object-list ScheduleNames
+      \note This field is used if the field Zone Minimum Air Flow Input Method is Scheduled
+      \note Schedule values are fractions, 0.0 to 1.0.
+      \note If the field Constant Minimum Air Flow Fraction is blank, then the average of the
+      \note minimum and maximum schedule values is used for sizing normal-action reheat coils.
+  A6, \field Outdoor Air Method
+      \note Flow/Person, Flow/Zone, Flow/Area, Sum, and Maximum use the values in the next three
+      \note fields: Outdoor Air Flow Rate per Person, Outdoor Air Flow Rate per Zone Floor Area,
+      \note and Outdoor Air Flow Rate per Zone.
+      \note DetailedSpecification ignores these three Outdoor Air Flow Rate fields and instead
+      \note references design specification objects named in the fields
+      \note Design Specification Outdoor Air Object Name and Design Specification Zone Air
+      \note Distribution Object Name.
+      \type choice
+      \key Flow/Person
+      \key Flow/Zone
+      \key Flow/Area
+      \key Sum
+      \key Maximum
+      \key DetailedSpecification
+      \default Flow/Person
+  N6, \field Outdoor Air Flow Rate per Person
+      \units m3/s
+      \note Default 0.00944 is 20 cfm per person
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Person, Sum, or Maximum
+      \default 0.00944
+  N7, \field Outdoor Air Flow Rate per Zone Floor Area
+      \units m3/s-m2
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Area, Sum, or Maximum
+  N8, \field Outdoor Air Flow Rate per Zone
+      \type real
+      \units m3/s
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Zone, Sum, or Maximum
+  A7, \field Reheat Coil Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  Gas
+      \key  None
+      \default None
+  A8, \field Reheat Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  A9, \field Damper Heating Action
+      \type choice
+      \key Normal
+      \key Reverse
+      \default Reverse
+  N9, \field Maximum Flow per Zone Floor Area During Reheat
+      \type real
+      \units m3/s-m2
+      \autocalculatable
+      \note Used only when Reheat Coil Object Type = Coil:Heating:Water and Damper Heating Action = Reverse
+      \note When autocalculating, the maximum flow per zone is set to 0.002032 m3/s-m2 (0.4 cfm/sqft)
+      \note This optional field limits the maximum flow allowed in reheat mode.
+      \note If this field and the following field are left blank, the maximum flow will not be limited.
+      \note At no time will the maximum flow rate calculated here exceed the value of
+      \note Maximum Air Flow Rate.
+ N10, \field Maximum Flow Fraction During Reheat
+      \type real
+      \autocalculatable
+      \note Used only when Reheat Coil Object Type = Coil:Heating:Water and Damper Heating Action = Reverse
+      \note When autocalculating, the maximum flow fraction is set to the ratio of
+      \note 0.002032 m3/s-m2 (0.4 cfm/sqft) multiplied by the zone floor area and the
+      \note Maximum Air Flow Rate.
+      \note This optional field limits the maximum flow allowed in reheat mode.
+      \note If this field and the previous field are left blank, the maximum flow will not be limited.
+      \note At no time will the maximum flow rate calculated here exceed the value of
+      \note Maximum Air Flow Rate.
+ N11, \field Maximum Reheat Air Temperature
+      \note Specifies the maximum allowable supply air temperature leaving the reheat coil.
+      \note If left blank, there is no limit and no default. If unknown, 35C (95F) is recommended.
+      \type real
+      \units C
+      \minimum> 0.0
+ A10, \field Design Specification Outdoor Air Object Name for Control
+      \type object-list
+      \object-list DesignSpecificationOutdoorAirNames
+      \note When the name of a DesignSpecification:OutdoorAir object is entered, the terminal
+      \note unit will increase flow as needed to meet this outdoor air requirement.
+      \note If Outdoor Air Flow per Person is non-zero, then the outdoor air requirement will
+      \note be computed based on the current number of occupants in the zone.
+      \note At no time will the supply air flow rate exceed the value for Maximum Air Flow Rate.
+      \note If this field is blank, then the terminal unit will not be controlled for outdoor air flow.
+      \note Note that this field is used only for specifying the design outdoor air flow rate used
+      \note for control. The field Design Specification Outdoor Air Object Name for Sizing
+      \note (see below) is used to specify the design outdoor air flow rate.
+ A11, \field Supply Plenum Name
+      \note Plenum zone name. Supply plenum runs through only this zone.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A12, \field Return Plenum Name
+      \note Plenum zone name. Return plenum runs through only this zone.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A13, \field Baseboard Heating Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  None
+      \default None
+ A14, \field Baseboard Heating Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N12, \field Baseboard Heating Capacity
+      \autosizable
+      \default autosize
+      \units W
+ A15, \field Zone Cooling Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Cooling Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Cooling Design Supply Air Temperature Difference
+      \note SystemSupplyAirTemperature = use the value from HVACTemplate:System:VAV Cooling Coil Design Setpoint
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \key SystemSupplyAirTemperature
+      \default SystemSupplyAirTemperature
+ N13, \field Zone Cooling Design Supply Air Temperature
+      \type real
+      \units C
+      \default 12.8
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N14, \field Zone Cooling Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 11.11
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be subtracted from the zone temperature
+      \note at peak load to calculate the Zone Cooling Design Supply Air Temperature.
+ A16, \field Zone Heating Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Heating Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Heating Design Supply Air Temperature Difference
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \default SupplyAirTemperature
+ N15, \field Zone Heating Design Supply Air Temperature
+      \type real
+      \units C
+      \default 50.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N16, \field Zone Heating Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 30.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be added to the zone temperature
+      \note at peak load to calculate the Zone Heating Design Supply Air Temperature.
+ A17, \field Design Specification Outdoor Air Object Name for Sizing
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \note Note that this field is used only for specifying the design outdoor air flow rate used
+      \note for sizing. The field Design Specification Outdoor Air Object Name for Control
+      \note (see above) is used to actively control the VAV terminal air flow rate.
+      \type object-list
+      \object-list DesignSpecificationOutdoorAirNames
+ A18; \field Design Specification Zone Air Distribution Object Name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationZoneAirDistributionNames
+
+HVACTemplate:Zone:VAV:FanPowered,
+      \min-fields 31
+      \memo Zone terminal unit, fan powered variable volume, reheat optional.
+      \memo Referenced schedules must be defined elsewhere in the idf.
+  A1, \field Zone Name
+      \required-field
+      \note Zone Name must match a building zone name
+      \type object-list
+      \object-list ZoneNames
+  A2, \field Template VAV System Name
+      \required-field
+      \note Enter the name of a HVACTemplate:System:VAV or HVACTemplate:System:PackagedVAV
+      \note object serving this zone.
+      \type object-list
+      \object-list CompactHVACSystemVAV
+  A3, \field Template Thermostat Name
+      \note Enter the name of a HVACTemplate:Thermostat object.
+      \note If blank, then it is assumed that standard thermostat objects
+      \note have been defined for this zone.
+      \type object-list
+      \object-list CompactHVACThermostats
+  N1, \field Primary Supply Air Maximum Flow Rate
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \autosizable
+      \default autosize
+      \units m3/s
+  N2, \field Zone Heating Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  N3, \field Zone Cooling Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  N4, \field Primary Supply Air Minimum Flow Fraction
+      \autosizable
+      \default autosize
+      \minimum 0.0
+      \maximum 1.0
+  N5, \field Secondary Supply Air Maximum Flow Rate
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \autosizable
+      \default autosize
+      \units m3/s
+  A4, \field Flow Type
+      \type choice
+      \key  Series
+      \key  Parallel
+      \key  SeriesFromPlenum
+      \key  ParallelFromPlenum
+      \default Parallel
+  N6, \field Parallel Fan On Flow Fraction
+      \note The fraction of the primary air flow at which fan turns on
+      \note Applicable only to Parallel Flow Type
+      \autosizable
+      \default autosize
+  A5, \field Outdoor Air Method
+      \note Flow/Person, Flow/Zone, Flow/Area, Sum, and Maximum use the values in the next three
+      \note fields: Outdoor Air Flow Rate per Person, Outdoor Air Flow Rate per Zone Floor Area,
+      \note and Outdoor Air Flow Rate per Zone.
+      \note DetailedSpecification ignores these three Outdoor Air Flow Rate fields and instead
+      \note references design specification objects named in the fields
+      \note Design Specification Outdoor Air Object Name and Design Specification Zone Air
+      \note Distribution Object Name.
+      \type choice
+      \key Flow/Person
+      \key Flow/Zone
+      \key Flow/Area
+      \key Sum
+      \key Maximum
+      \key DetailedSpecification
+      \default Flow/Person
+  N7, \field Outdoor Air Flow Rate per Person
+      \units m3/s
+      \note Default 0.00944 is 20 cfm per person
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Person, Sum, or Maximum
+      \default 0.00944
+  N8, \field Outdoor Air Flow Rate per Zone Floor Area
+      \units m3/s-m2
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/area, Sum, or Maximum
+  N9, \field Outdoor Air Flow Rate per Zone
+      \type real
+      \units m3/s
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Zone, Sum, or Maximum
+  A6, \field Reheat Coil Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  Gas
+      \default Electric
+  A7, \field Reheat Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N10, \field Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+ N11, \field Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 1000
+ N12, \field Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+  A8, \field Supply Plenum Name
+      \note Plenum zone name. Supply plenum runs through only this zone.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+  A9, \field Return Plenum Name
+      \note Plenum zone name. Return plenum runs through only this zone.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A10, \field Baseboard Heating Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  None
+      \default None
+ A11, \field Baseboard Heating Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N13, \field Baseboard Heating Capacity
+      \autosizable
+      \default autosize
+      \units W
+ A12, \field Zone Cooling Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Cooling Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Cooling Design Supply Air Temperature Difference
+      \note SystemSupplyAirTemperature = use the value from HVACTemplate:System:VAV Cooling Coil Design Setpoint
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \key SystemSupplyAirTemperature
+      \default SystemSupplyAirTemperature
+ N14, \field Zone Cooling Design Supply Air Temperature
+      \type real
+      \units C
+      \default 12.8
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N15, \field Zone Cooling Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 11.11
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be subtracted from the zone temperature
+      \note at peak load to calculate the Zone Cooling Design Supply Air Temperature.
+ A13, \field Zone Heating Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Heating Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Heating Design Supply Air Temperature Difference
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \default SupplyAirTemperature
+ N16, \field Zone Heating Design Supply Air Temperature
+      \type real
+      \units C
+      \default 50.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N17, \field Zone Heating Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 30.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be added to the zone temperature
+      \note at peak load to calculate the Zone Heating Design Supply Air Temperature.
+ A14, \field Zone PIU Fan Schedule Name
+      \note This is the operating schedule for the zone PIU fan.
+      \note For a parallel PIU, the fan operates only when the primary air flow is below the
+      \note Parallel Fan On Flow Fraction and the Zone PIU Fan Schedule is on, or it is
+      \note activated by an availability manager.
+      \note For a series PIU, the zone fan operates whenever the Zone PIU Fan Schedule is on, or it
+      \note is activated by an availability manager.
+      \note If this field is left blank, the System Availability Schedule for the
+      \note HVACTemplate:System serving this zone will be used.
+      \type object-list
+      \object-list ScheduleNames
+ A15, \field Design Specification Outdoor Air Object Name
+      \type object-list
+      \object-list DesignSpecificationOutdoorAirNames
+ A16; \field Design Specification Zone Air Distribution Object Name
+      \type object-list
+      \object-list DesignSpecificationZoneAirDistributionNames
+
+HVACTemplate:Zone:VAV:HeatAndCool,
+      \min-fields 27
+      \memo VAV system with VAV for both heating and cooling and optional reheat coil.
+      \memo For heating, this unit increases airflow first, then activates reheat coil.
+  A1, \field Zone Name
+      \required-field
+      \note Zone name must match a building zone name
+      \type object-list
+      \object-list ZoneNames
+  A2, \field Template VAV System Name
+      \required-field
+      \note Name of a HVACTemplate:System:VAV or HVACTemplate:System:PackagedVAV
+      \note object serving this zone
+      \type object-list
+      \object-list CompactHVACSystemVAV
+  A3, \field Template Thermostat Name
+      \note Enter the name of a HVACTemplate:Thermostat object.
+      \note If blank, then it is assumed that standard thermostat objects
+      \note have been defined for this zone.
+      \type object-list
+      \object-list CompactHVACThermostats
+  N1, \field Supply Air Maximum Flow Rate
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \autosizable
+      \default autosize
+      \units m3/s
+  N2, \field Zone Heating Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  N3, \field Zone Cooling Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  N4, \field Constant Minimum Air Flow Fraction
+      \note This field is used if the field Zone Minimum Air Flow Input Method is Constant
+      \note If the field Zone Minimum Air Flow Input Method is Scheduled, then this field
+      \note is optional. If a value is entered, then it is used for sizing normal-action reheat coils.
+      \note If both this field and the following field are entered, the larger result is used.
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.2
+  A4, \field Outdoor Air Method
+      \note Flow/Person, Flow/Zone, Flow/Area, Sum, and Maximum use the values in the next three
+      \note fields: Outdoor Air Flow Rate per Person, Outdoor Air Flow Rate per Zone Floor Area,
+      \note and Outdoor Air Flow Rate per Zone.
+      \note DetailedSpecification ignores these three Outdoor Air Flow Rate fields and instead
+      \note references design specification objects named in the fields
+      \note Design Specification Outdoor Air Object Name and Design Specification Zone Air
+      \note Distribution Object Name.
+      \type choice
+      \key Flow/Person
+      \key Flow/Zone
+      \key Flow/Area
+      \key Sum
+      \key Maximum
+      \key DetailedSpecification
+      \default Flow/Person
+  N5, \field Outdoor Air Flow Rate per Person
+      \units m3/s
+      \note Default 0.00944 is 20 cfm per person
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Person, Sum, or Maximum
+      \default 0.00944
+  N6, \field Outdoor Air Flow Rate per Zone Floor Area
+      \units m3/s-m2
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Area, Sum, or Maximum
+  N7, \field Outdoor Air Flow Rate per Zone
+      \type real
+      \units m3/s
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Zone, Sum, or Maximum
+  A5, \field Design Specification Outdoor Air Object Name for Sizing
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \note Note that this field is used only for specifying the design outdoor air flow rate used
+      \note for sizing. The field Design Specification Outdoor Air Object Name for Control
+      \note (see above) is used to actively control the VAV terminal air flow rate.
+      \type object-list
+      \object-list DesignSpecificationOutdoorAirNames
+  A6, \field Design Specification Zone Air Distribution Object Name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationZoneAirDistributionNames
+  A7, \field Reheat Coil Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  Gas
+      \key  None
+      \default None
+  A8, \field Reheat Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  N8, \field Maximum Reheat Air Temperature
+      \note Specifies the maximum allowable supply air temperature leaving the reheat coil.
+      \note If left blank, there is no limit and no default. If unknown, 35C (95F) is recommended.
+      \type real
+      \units C
+      \minimum> 0.0
+  A9, \field Supply Plenum Name
+      \note Plenum zone name. Supply plenum runs through only this zone.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A10, \field Return Plenum Name
+      \note Plenum zone name. Return plenum runs through only this zone.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A11, \field Baseboard Heating Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  None
+      \default None
+ A12, \field Baseboard Heating Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  N9, \field Baseboard Heating Capacity
+      \autosizable
+      \default autosize
+      \units W
+ A13, \field Zone Cooling Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Cooling Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Cooling Design Supply Air Temperature Difference
+      \note SystemSupplyAirTemperature = use the value from HVACTemplate:System:VAV Cooling Coil Design Setpoint
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \key SystemSupplyAirTemperature
+      \default SystemSupplyAirTemperature
+ N10, \field Zone Cooling Design Supply Air Temperature
+      \type real
+      \units C
+      \default 12.8
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N11, \field Zone Cooling Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 11.11
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be subtracted from the zone temperature
+      \note at peak load to calculate the Zone Cooling Design Supply Air Temperature.
+ A14, \field Zone Heating Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Heating Design Supply Air Temperature
+      \note SystemSupplyAirTemperature = use the value from HVACTemplate:System:VAV Heating Coil Design Setpoint
+      \note TemperatureDifference = use the value from Zone Heating Design Supply Air Temperature Difference
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \default SupplyAirTemperature
+ N12, \field Zone Heating Design Supply Air Temperature
+      \type real
+      \units C
+      \default 50.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N13; \field Zone Heating Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 30.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be added to the zone temperature
+      \note at peak load to calculate the Zone Heating Design Supply Air Temperature.
+
+HVACTemplate:Zone:ConstantVolume,
+      \min-fields 24
+      \memo Zone terminal unit, constant volume, reheat optional.
+      \memo Referenced schedules must be defined elsewhere in the idf.
+  A1, \field Zone Name
+      \required-field
+      \note Zone name must match a building zone name
+      \type object-list
+      \object-list ZoneNames
+      \reference HVACTemplateConstantVolumeZones
+  A2, \field Template Constant Volume System Name
+      \required-field
+      \note Name of a HVACTemplate:System:ConstantVolume object serving this zone
+      \type object-list
+      \object-list CompactHVACSystemConstantVolume
+  A3, \field Template Thermostat Name
+      \note Enter the name of a HVACTemplate:Thermostat object.
+      \note If blank, then it is assumed that standard thermostat objects
+      \note have been defined for this zone.
+      \type object-list
+      \object-list CompactHVACThermostats
+  N1, \field Supply Air Maximum Flow Rate
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \autosizable
+      \default autosize
+      \units m3/s
+  N2, \field Zone Heating Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  N3, \field Zone Cooling Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  A4, \field Outdoor Air Method
+      \note Flow/Person, Flow/Zone, Flow/Area, Sum, and Maximum use the values in the next three
+      \note fields: Outdoor Air Flow Rate per Person, Outdoor Air Flow Rate per Zone Floor Area,
+      \note and Outdoor Air Flow Rate per Zone.
+      \note DetailedSpecification ignores these three Outdoor Air Flow Rate fields and instead
+      \note references design specification objects named in the fields
+      \note Design Specification Outdoor Air Object Name and Design Specification Zone Air
+      \note Distribution Object Name.
+      \type choice
+      \key Flow/Person
+      \key Flow/Zone
+      \key Flow/Area
+      \key Sum
+      \key Maximum
+      \key DetailedSpecification
+      \default Flow/Person
+  N4, \field Outdoor Air Flow Rate per Person
+      \units m3/s
+      \note Default 0.00944 is 20 cfm per person
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Person, Sum, or Maximum
+      \default 0.00944
+  N5, \field Outdoor Air Flow Rate per Zone Floor Area
+      \units m3/s-m2
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Area, Sum, or Maximum
+  N6, \field Outdoor Air Flow Rate per Zone
+      \type real
+      \units m3/s
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Zone, Sum, or Maximum
+  A5, \field Design Specification Outdoor Air Object name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationOutdoorAirNames
+  A6, \field Design Specification Zone Air Distribution Object Name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationZoneAirDistributionNames
+  A7, \field Reheat Coil Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  Gas
+      \key  None
+      \default None
+  A8, \field Reheat Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  N7, \field Maximum Reheat Air Temperature
+      \note Specifies the maximum allowable supply air temperature leaving the reheat coil.
+      \note If left blank, there is no limit and no default. If unknown, 35C (95F) is recommended.
+      \type real
+      \units C
+      \minimum> 0.0
+  A9, \field Supply Plenum Name
+      \note Plenum zone name. Supply plenum runs through only this zone.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A10, \field Return Plenum Name
+      \note Plenum zone name. Return plenum runs through only this zone.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A11, \field Baseboard Heating Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  None
+      \default None
+ A12, \field Baseboard Heating Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  N8, \field Baseboard Heating Capacity
+      \autosizable
+      \default autosize
+      \units W
+ A13, \field Zone Cooling Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Cooling Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Cooling Design Supply Air Temperature Difference
+      \note SystemSupplyAirTemperature = use the value from HVACTemplate:System:VAV Cooling Coil Design Setpoint
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \key SystemSupplyAirTemperature
+      \default SystemSupplyAirTemperature
+  N9, \field Zone Cooling Design Supply Air Temperature
+      \type real
+      \units C
+      \default 12.8
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N10, \field Zone Cooling Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 11.11
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be subtracted from the zone temperature
+      \note at peak load to calculate the Zone Cooling Design Supply Air Temperature.
+ A14, \field Zone Heating Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Heating Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Heating Design Supply Air Temperature Difference
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \default SupplyAirTemperature
+ N11, \field Zone Heating Design Supply Air Temperature
+      \type real
+      \units C
+      \default 50.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N12; \field Zone Heating Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 30.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be added to the zone temperature
+      \note at peak load to calculate the Zone Heating Design Supply Air Temperature
+
+HVACTemplate:Zone:DualDuct,
+      \min-fields 26
+      \memo Zone terminal unit, dual-duct, constant or variable volume.
+  A1, \field Zone Name
+      \required-field
+      \note Zone name must match a building zone name
+      \type object-list
+      \object-list ZoneNames
+  A2, \field Template Dual Duct System Name
+      \required-field
+      \note Name of a HVACTemplate:System:DualDuct object serving this zone
+      \type object-list
+      \object-list CompactHVACSystemDualDuct
+  A3, \field Template Thermostat Name
+      \note Enter the name of a HVACTemplate:Thermostat object.
+      \note If blank, then it is assumed that standard thermostat objects
+      \note have been defined for this zone.
+      \type object-list
+      \object-list CompactHVACThermostats
+  N1, \field Supply Air Maximum Flow Rate
+      \note This field may be set to "autosize". If a value is entered, it will be
+      \note multiplied by the Supply Air Sizing Factor and by zone multipliers.
+      \autosizable
+      \default autosize
+      \units m3/s
+  N2, \field Zone Heating Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  N3, \field Zone Cooling Sizing Factor
+      \note If blank, value from Sizing:Parameters will be used.
+      \minimum 0
+  N4 ,\field Zone Minimum Air Flow Fraction
+      \note This field is the Zone Minimum Air Flow Fraction specified as a fraction of the
+      \note maximum air flow rate. This field is ignored if the system serving this zone is
+      \note constant volume.
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.2
+  A4, \field Outdoor Air Method
+      \note Flow/Person, Flow/Zone, Flow/Area, Sum, and Maximum use the values in the next three
+      \note fields: Outdoor Air Flow Rate per Person, Outdoor Air Flow Rate per Zone Floor Area,
+      \note and Outdoor Air Flow Rate per Zone.
+      \note DetailedSpecification ignores these three Outdoor Air Flow Rate fields and instead
+      \note references design specification objects named in the fields
+      \note Design Specification Outdoor Air Object Name and Design Specification Zone Air
+      \note Distribution Object Name.
+      \type choice
+      \key Flow/Person
+      \key Flow/Zone
+      \key Flow/Area
+      \key Sum
+      \key Maximum
+      \key DetailedSpecification
+      \default Flow/Person
+  N5, \field Outdoor Air Flow Rate per Person
+      \units m3/s
+      \note Default 0.00944 is 20 cfm per person
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Person, Sum, or Maximum
+      \default 0.00944
+  N6, \field Outdoor Air Flow Rate per Zone Floor Area
+      \units m3/s-m2
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Area, Sum, or Maximum
+  N7, \field Outdoor Air Flow Rate per Zone
+      \type real
+      \units m3/s
+      \default 0.0
+      \note This input is used if the field Outdoor Air Method is
+      \note Flow/Zone, Sum, or Maximum
+  A5, \field Design Specification Outdoor Air Object Name for Sizing
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \note Note that this field is used only for specifying the design outdoor air flow rate used
+      \note for sizing. The field Design Specification Outdoor Air Object Name for Control
+      \note (see above) is used to actively control the VAV terminal air flow rate.
+      \type object-list
+      \object-list DesignSpecificationOutdoorAirNames
+  A6, \field Design Specification Zone Air Distribution Object Name
+      \note This field is used only when Outdoor Air Method=DetailedSpecification.
+      \type object-list
+      \object-list DesignSpecificationZoneAirDistributionNames
+  A7, \field Design Specification Outdoor Air Object Name for Control
+      \type object-list
+      \object-list DesignSpecificationOutdoorAirNames
+      \note When the name of a DesignSpecification:OutdoorAir object is entered, the terminal
+      \note unit will increase flow as needed to meet this outdoor air requirement.
+      \note If Outdoor Air Flow per Person is non-zero, then the outdoor air requirement will
+      \note be computed based on the current number of occupants in the zone.
+      \note At no time will the supply air flow rate exceed the value for Maximum Air Flow Rate.
+      \note If this field is blank, then the terminal unit will not be controlled for outdoor air flow.
+      \note Note that this field is used only for specifying the design outdoor air flow rate used
+      \note for control. The field Design Specification Outdoor Air Object Name for Sizing
+      \note (see below) is used to specify the design outdoor air flow rate.
+  A8, \field Cold Supply Plenum Name
+      \note Plenum zone name. Cold supply plenum that serves only this zone.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+  A9, \field Hot Supply Plenum Name
+      \note Plenum zone name. Hot supply plenum that serves only this zone.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A10, \field Return Plenum Name
+      \note Plenum zone name. Return plenum that serves only this zone.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A11, \field Baseboard Heating Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  None
+      \default None
+ A12, \field Baseboard Heating Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  N8, \field Baseboard Heating Capacity
+      \autosizable
+      \default autosize
+      \units W
+ A13, \field Zone Cooling Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Cooling Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Cooling Design Supply Air Temperature Difference
+      \note SystemSupplyAirTemperature = use the value from HVACTemplate:System:DualDuct Cooling Coil Design Setpoint
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \key SystemSupplyAirTemperature
+      \default SystemSupplyAirTemperature
+  N9, \field Zone Cooling Design Supply Air Temperature
+      \type real
+      \units C
+      \default 12.8
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N10, \field Zone Cooling Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 11.11
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be subtracted from the zone temperature
+      \note at peak load to calculate the Zone Cooling Design Supply Air Temperature.
+ A14, \field Zone Heating Design Supply Air Temperature Input Method
+      \note SupplyAirTemperature = use the value from Zone Heating Design Supply Air Temperature
+      \note TemperatureDifference = use the value from Zone Heating Design Supply Air Temperature Difference
+      \note SystemSupplyAirTemperature = use the value from HVACTemplate:System:DualDuct Heating Coil Design Setpoint
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \key SystemSupplyAirTemperature
+      \default SystemSupplyAirTemperature
+ N11, \field Zone Heating Design Supply Air Temperature
+      \type real
+      \units C
+      \default 50.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+ N12; \field Zone Heating Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \default 30.0
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be added to the zone temperature
+      \note at peak load to calculate the Zone Heating Design Supply Air Temperature.
+
+HVACTemplate:System:VRF,
+      \memo Variable refrigerant flow (VRF) heat pump condensing unit. Serves one or more VRF zone
+      \memo terminal units (HVACTemplate:Zone:VRF).
+      \min-fields 39
+  A1, \field Name
+      \required-field
+      \reference CompactHVACSystemVRF
+      \reference HVACTemplateSystems
+  A2, \field System Availability Schedule Name
+      \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+      \note If this field is blank, the system is always available.
+      \type object-list
+      \object-list ScheduleNames
+  N1, \field Gross Rated Total Cooling Capacity
+      \type real
+      \units W
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+      \note Enter the total cooling capacity in watts at rated conditions or set to autosize.
+      \note Total cooling capacity not accounting for the effect of supply air fan heat
+  N2, \field Gross Rated Cooling COP
+      \type real
+      \units W/W
+      \minimum> 0.0
+      \default 3.3
+      \note Enter the coefficient of performance at rated conditions or leave blank to use default.
+      \note COP includes compressor and condenser fan electrical energy input
+      \note COP does not include supply fan heat or supply fan electric power input
+  N3, \field Minimum Outdoor Temperature in Cooling Mode
+      \type real
+      \units C
+      \default -6.0
+      \note Enter the minimum outdoor temperature allowed for cooling operation.
+      \note Cooling is disabled below this temperature.
+  N4, \field Maximum Outdoor Temperature in Cooling Mode
+      \type real
+      \units C
+      \default 43.0
+      \note Enter the maximum outdoor temperature allowed for cooling operation.
+      \note Cooling is disabled above this temperature.
+  N5, \field Gross Rated Heating Capacity
+      \type real
+      \units W
+      \autosizable
+      \default autosize
+      \note Enter the heating capacity in watts at rated conditions or set to autosize.
+      \note Heating capacity not accounting for the effect of supply air fan heat
+  N6, \field Rated Heating Capacity Sizing Ratio
+      \type real
+      \units W/W
+      \minimum 1.0
+      \default 1.0
+      \note If the Gross Rated Heating Capacity is autosized, the heating capacity is sized
+      \note to be equal to the cooling capacity multiplied by this sizing ratio. The zone
+      \note terminal unit heating coils are also sized using this ratio unless the sizing
+      \note ratio input in the ZoneHVAC:TerminalUnit:VariableRefrigerantFlow object is entered.
+  N7, \field Gross Rated Heating COP
+      \type real
+      \units W/W
+      \minimum> 0.0
+      \note COP includes compressor and condenser fan electrical energy input
+      \note COP does not include supply fan heat or supply fan electrical energy input
+      \default 3.4
+  N8, \field Minimum Outdoor Temperature in Heating Mode
+      \type real
+      \units C
+      \default -20.0
+      \note Enter the minimum outdoor temperature allowed for heating operation.
+  N9, \field Maximum Outdoor Temperature in Heating Mode
+      \type real
+      \units C
+      \default 16.0
+      \note Enter the maximum outdoor temperature allowed for heating operation.
+ N10, \field Minimum Heat Pump Part-Load Ratio
+      \type real
+      \units dimensionless
+      \note Enter the minimum heat pump part-load ratio (PLR). When the cooling or heating PLR is
+      \note below this value, the heat pump compressor will cycle to meet the cooling or heating
+      \note demand.
+      \default 0.15
+  A3, \field Zone Name for Master Thermostat Location
+      \type object-list
+      \object-list ZoneNames
+      \note Enter the name of the zone where the master thermostat is located.
+  A4, \field Master Thermostat Priority Control Type
+      \type choice
+      \key LoadPriority
+      \key ZonePriority
+      \key ThermostatOffsetPriority
+      \key MasterThermostatPriority
+      \key Scheduled
+      \default MasterThermostatPriority
+      \note Choose a thermostat control logic scheme. If these control types fail to control zone
+      \note temperature within a reasonable limit, consider using multiple VRF systems
+  A5, \field Thermostat Priority Schedule Name
+      \type object-list
+      \object-list ScheduleNames
+      \note this field is required if Master Thermostat Priority Control Type is Scheduled.
+      \note Schedule values of 0 denote cooling, 1 for heating, and all other values disable the system.
+  A6, \field Heat Pump Waste Heat Recovery
+      \type choice
+      \key No
+      \key Yes
+      \default No
+      \note This field is reserved for future use. The only valid choice is No.
+ N11, \field Equivalent Piping Length used for Piping Correction Factor in Cooling Mode
+      \type real
+      \units m
+      \default 30.0
+      \note Enter the equivalent length of the farthest terminal unit from the condenser
+ N12, \field Vertical Height used for Piping Correction Factor
+      \type real
+      \units m
+      \default 10.0
+      \note Enter the height difference between the highest and lowest terminal unit
+ N13, \field Equivalent Piping Length used for Piping Correction Factor in Heating Mode
+      \type real
+      \units m
+      \default 30.0
+      \note Enter the equivalent length of the farthest terminal unit from the condenser
+ N14, \field Crankcase Heater Power per Compressor
+      \type real
+      \units W
+      \default 33.0
+      \note Enter the value of the resistive heater located in the compressor(s). This heater
+      \note is used to warm the refrigerant and oil when the compressor is off.
+ N15, \field Number of Compressors
+      \type integer
+      \units dimensionless
+      \default 2
+      \note Enter the total number of compressor. This input is used only for crankcase
+      \note heater calculations.
+ N16, \field Ratio of Compressor Size to Total Compressor Capacity
+      \type real
+      \units W/W
+      \default 0.5
+      \note Enter the ratio of the first stage compressor to total compressor capacity.
+      \note All other compressors are assumed to be equally sized. This inputs is used
+      \note only for crankcase heater calculations.
+ N17, \field Maximum Outdoor Dry-bulb Temperature for Crankcase Heater
+      \type real
+      \units C
+      \default 5.0
+      \note Enter the maximum outdoor temperature above which the crankcase heaters are disabled.
+  A7, \field Defrost Strategy
+      \type choice
+      \key ReverseCycle
+      \key Resistive
+      \default Resistive
+      \note Select a defrost strategy. Reverse cycle reverses the operating mode from heating to cooling
+      \note to melt frost formation on the condenser coil. The resistive strategy uses a resistive heater
+      \note to melt the frost.
+  A8, \field Defrost Control
+      \type choice
+      \key Timed
+      \key OnDemand
+      \default Timed
+      \note Choose a defrost control type. Either use a fixed Timed defrost period or select
+      \note OnDemand to defrost only when necessary.
+ N18, \field Defrost Time Period Fraction
+      \type real
+      \units dimensionless
+      \minimum 0.0
+      \default 0.058333
+      \note Fraction of time in defrost mode.
+      \note Only applicable if timed defrost control is specified.
+ N19, \field Resistive Defrost Heater Capacity
+      \type real
+      \units W
+      \minimum 0.0
+      \default autosize
+      \autosizable
+      \note Enter the size of the resistive defrost heating element.
+      \note Only applicable if resistive defrost strategy is specified
+      \ip-units W
+ N20, \field Maximum Outdoor Dry-bulb Temperature for Defrost Operation
+      \type real
+      \units C
+      \default 5.0
+      \note Enter the maximum outdoor temperature above which defrost operation is disabled.
+  A9, \field Condenser Type
+      \type choice
+      \key AirCooled
+      \key EvaporativelyCooled
+      \key WaterCooled
+      \default AirCooled
+      \note Select either an air cooled or evaporatively cooled condenser.
+ N21, \field Water Condenser Volume Flow Rate
+      \type real
+      \units m3/s
+      \autosizable
+      \default autosize
+      \note Only used when Condenser Type = WaterCooled.
+ N22, \field Evaporative Condenser Effectiveness
+      \type real
+      \units dimensionless
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.9
+      \note Enter the effectiveness of the evaporatively cooled condenser.
+      \note This field is only used when the Condenser Type = EvaporativelyCooled.
+ N23, \field Evaporative Condenser Air Flow Rate
+      \type real
+      \units m3/s
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+      \note Used to calculate evaporative condenser water use.
+      \note This field is only used when the Condenser Type = EvaporativelyCooled.
+ N24, \field Evaporative Condenser Pump Rated Power Consumption
+      \type real
+      \units W
+      \minimum 0.0
+      \default 0.0
+      \autosizable
+      \note Rated power consumed by the evaporative condenser's water pump.
+      \note This field is only used when the Condenser Type = EvaporativelyCooled.
+ N25, \field Basin Heater Capacity
+      \type real
+      \units W/K
+      \minimum 0.0
+      \default 0.0
+      \note This field is only used for Condenser Type = EvaporativelyCooled and for periods
+      \note when the basin heater is available (field Basin Heater Operating Schedule Name).
+      \note For this situation, the heater maintains the basin water temperature at the basin heater
+      \note setpoint temperature when the outdoor air temperature falls below the setpoint temperature.
+      \note The basin heater only operates when the DX coil is off.
+ N26, \field Basin Heater Setpoint Temperature
+      \type real
+      \units C
+      \minimum 2.0
+      \default 2.0
+      \note This field is only used for Condenser Type = EvaporativelyCooled.
+      \note Enter the outdoor dry-bulb temperature when the basin heater turns on.
+ A10, \field Basin Heater Operating Schedule Name
+      \type object-list
+      \object-list ScheduleNames
+      \note This field is only used for Condenser Type = EvaporativelyCooled.
+      \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+      \note air dry-bulb temperature is below the basin heater setpoint temperature.
+      \note If a schedule name is not entered, the basin heater is allowed to operate
+      \note throughout the entire simulation.
+ A11, \field Fuel Type
+      \type choice
+      \key Electricity
+      \key NaturalGas
+      \key Propane
+      \key Diesel
+      \key Gasoline
+      \key FuelOilNo1
+      \key FuelOilNo2
+      \key OtherFuel1
+      \key OtherFuel2
+      \default Electricity
+ N27, \field Minimum Outdoor Temperature in Heat Recovery Mode
+      \type real
+      \units C
+      \note The minimum outdoor temperature below which heat
+      \note recovery mode will not operate.
+      \default -15
+ N28; \field Maximum Outdoor Temperature in Heat Recovery Mode
+      \type real
+      \units C
+      \note The maximum outdoor temperature above which heat
+      \note recovery mode will not operate.
+      \default 45
+
+HVACTemplate:System:Unitary,
+      \min-fields 51
+      \memo Unitary furnace with air conditioner
+  A1, \field Name
+      \required-field
+      \reference CompactHVACSystemUnitary
+      \reference HVACTemplateSystems
+  A2, \field System Availability Schedule Name
+      \note If blank, always on; Unitary System always on. Schedule is used in availability manager
+      \note and fan scheduling.
+      \note Also see "Night Cycle Control" field.
+      \type object-list
+      \object-list ScheduleNames
+  A3, \field Control Zone or Thermostat Location Name
+      \required-field
+      \type object-list
+      \object-list ZoneNames
+  N1, \field Supply Fan Maximum Flow Rate
+      \note This field may be set to "autosize". If a value is entered, it will *not* be
+      \note multiplied by any sizing factor or by zone multipliers. If using zone multipliers
+      \note a value entered here must be large enough to serve the multiplied zones.
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum> 0.0
+  A4, \field Supply Fan Operating Mode Schedule Name
+      \note Refers to a schedule to specify unitary supply fan operating mode.
+      \note Schedule values of 0 indicate cycling fan (auto)
+      \note Schedule values of 1 indicate continuous fan (on)
+      \note If this field is left blank, a schedule of always zero (cycling fan) will be used.
+      \type object-list
+      \object-list ScheduleNames
+  N2, \field Supply Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+  N3, \field Supply Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 600
+  N4, \field Supply Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+  N5, \field Supply Fan Motor in Air Stream Fraction
+      \minimum 0.0
+      \maximum 1.0
+      \default 1.0
+  A5, \field Cooling Coil Type
+      \type choice
+      \key  SingleSpeedDX
+      \key  None
+      \default SingleSpeedDX
+  A6, \field Cooling Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  N6, \field Cooling Design Supply Air Temperature
+      \note Used for sizing.
+      \default 12.8
+      \units C
+  N7, \field Cooling Coil Gross Rated Total Capacity
+      \note Total cooling capacity not accounting for the effect of supply air fan heat
+      \autosizable
+      \default autosize
+      \units W
+  N8, \field Cooling Coil Gross Rated Sensible Heat Ratio
+      \note Gross SHR
+      \autosizable
+      \minimum 0.5
+      \maximum 1.0
+      \default autosize
+  N9, \field Cooling Coil Gross Rated COP
+      \note Gross cooling capacity divided by power input to the compressor and outdoor fan,
+      \note does not include supply air fan heat or supply air fan electric power
+      \units W/W
+      \minimum> 0.0
+      \default 3.0
+  A7, \field Heating Coil Type
+      \required-field
+      \type choice
+      \key  Electric
+      \key  Gas
+      \key  HotWater
+  A8, \field Heating Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N10, \field Heating Design Supply Air Temperature
+      \note Used for sizing.
+      \default 50.0
+      \units C
+ N11, \field Heating Coil Capacity
+      \autosizable
+      \default autosize
+      \units W
+ N12, \field Gas Heating Coil Efficiency
+      \maximum 1.0
+      \minimum 0.0
+      \default 0.8
+ N13, \field Gas Heating Coil Parasitic Electric Load
+      \units W
+      \ip-units W
+      \minimum 0.0
+      \default 0.0
+ N14, \field Maximum Outdoor Air Flow Rate
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum 0.0
+ N15, \field Minimum Outdoor Air Flow Rate
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum 0.0
+  A9, \field Minimum Outdoor Air Schedule Name
+      \note Schedule values multiply the minimum outdoor air flow rate
+      \note If blank, always one
+      \type object-list
+      \object-list ScheduleNames
+ A10, \field Economizer Type
+      \type choice
+      \key FixedDryBulb
+      \key FixedEnthalpy
+      \key DifferentialDryBulb
+      \key DifferentialEnthalpy
+      \key FixedDewPointAndDryBulb
+      \key ElectronicEnthalpy
+      \key DifferentialDryBulbAndEnthalpy
+      \key NoEconomizer
+      \default NoEconomizer
+ A11, \field Economizer Lockout
+      \type choice
+      \key NoLockout
+      \key LockoutWithHeating
+      \key LockoutWithCompressor
+      \default NoLockout
+ N16, \field Economizer Upper Temperature Limit
+      \note Outdoor temperature above which economizer is disabled and
+      \note heat recovery is enabled (if available).
+      \note Blank means no limit.
+      \units C
+ N17, \field Economizer Lower Temperature Limit
+      \note Outdoor temperature below which economizer is disabled and
+      \note heat recovery is enabled (if available).
+      \note Blank means no limit.
+      \units C
+ N18, \field Economizer Upper Enthalpy Limit
+      \note Outdoor enthalpy above which economizer is disabled and
+      \note heat recovery is enabled (if available).
+      \note Blank means no limit.
+      \units J/kg
+ N19, \field Economizer Maximum Limit Dewpoint Temperature
+      \type real
+      \units C
+      \note Enter the maximum outdoor dewpoint temperature limit for FixedDewPointAndDryBulb
+      \note economizer control type. No input or blank input means this limit is not operative.
+      \note Limit is applied regardless of economizer control type.
+ A12, \field Supply Plenum Name
+      \note Plenum zone name. Supply plenum serves all zones on this system.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A13, \field Return Plenum Name
+      \note Plenum zone name. Return plenum serves all zones on this system.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A14, \field Supply Fan Placement
+      \type choice
+      \key BlowThrough
+      \key DrawThrough
+      \default BlowThrough
+ A15, \field Night Cycle Control
+      \type choice
+      \key StayOff
+      \key CycleOnAny
+      \key CycleOnControlZone
+      \default StayOff
+ A16, \field Night Cycle Control Zone Name
+      \note Applicable only if Night Cycle Control is Cycle On Control Zone.
+      \type object-list
+      \object-list ZoneNames
+ A17, \field Heat Recovery Type
+      \type choice
+      \key None
+      \key Sensible
+      \key Enthalpy
+      \default None
+ N20, \field Sensible Heat Recovery Effectiveness
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.70
+ N21, \field Latent Heat Recovery Effectiveness
+      \note Applicable only if Heat Recovery Type is Enthalpy.
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.65
+ A18, \field Dehumidification Control Type
+      \note None = meet sensible cooling load only
+      \note CoolReheatHeatingCoil = cool beyond the dry-bulb setpoint
+      \note as required to meet the humidity setpoint, reheat with main heating coil.
+      \note CoolReheatDesuperheater = cool beyond the dry-bulb setpoint
+      \note as required to meet the humidity setpoint, reheat with desuperheater coil.
+      \type choice
+      \key None
+      \key CoolReheatHeatingCoil
+      \key CoolReheatDesuperheater
+      \default None
+ N22, \field Dehumidification Setpoint
+      \note Zone relative humidity setpoint in percent (0 to 100)
+      \type real
+      \minimum 0.0
+      \maximum 100.0
+      \default 60.0
+      \units percent
+ A19, \field Humidifier Type
+      \type choice
+      \key None
+      \key ElectricSteam
+      \default None
+ A20, \field Humidifier Availability Schedule Name
+      \note If blank, always available
+      \type object-list
+      \object-list ScheduleNames
+ N23, \field Humidifier Rated Capacity
+      \note Moisture output rate at full rated power input.
+      \note The humidifier does not currently autosize, so the default is very large
+      \note to allow for adequate capacity.
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \default 0.000001
+      \ip-units gal/min
+ N24, \field Humidifier Rated Electric Power
+      \note Electric power input at rated capacity moisture output.
+      \note Power consumption is proportional to moisture output with no part-load penalty.
+      \type real
+      \units W
+      \minimum 0.0
+      \autosizable
+      \default autosize
+      \ip-units W
+ A21, \field Humidifier Control Zone Name
+      \note Zone name where humidistat is located
+      \type object-list
+      \object-list ZoneNames
+ N25, \field Humidifier Setpoint
+      \note Zone relative humidity setpoint in percent (0 to 100)
+      \type real
+      \minimum 0.0
+      \maximum 100.0
+      \default 30.0
+      \units percent
+ A22, \field Return Fan
+      \note Specifies if the system has a return fan.
+      \type choice
+      \key Yes
+      \key No
+      \default No
+ N26, \field Return Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+ N27, \field Return Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 500
+ N28, \field Return Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+ N29; \field Return Fan Motor in Air Stream Fraction
+      \minimum 0.0
+      \maximum 1.0
+      \default 1.0
+
+HVACTemplate:System:UnitaryHeatPump:AirToAir,
+      \min-fields 61
+      \memo Unitary furnace with electric air-to-air heat pump
+  A1, \field Name
+      \required-field
+      \reference CompactHVACSystemUnitary
+      \reference HVACTemplateSystems
+  A2, \field System Availability Schedule Name
+      \note If blank, always on; Unitary System always on. Schedule is used in availability manager
+      \note and fan scheduling.
+      \note Also see "Night Cycle Control" field.
+      \type object-list
+      \object-list ScheduleNames
+  A3, \field Control Zone or Thermostat Location Name
+      \required-field
+      \type object-list
+      \object-list ZoneNames
+  N1, \field Cooling Supply Air Flow Rate
+      \note Supply air flow rate during cooling operation
+      \note This field may be set to "autosize". If a value is entered, it will *not* be
+      \note multiplied by any sizing factor or by zone multipliers. If using zone multipliers
+      \note a value entered here must be large enough to serve the multiplied zones.
+      \type real
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+      \units m3/s
+  N2, \field Heating Supply Air Flow Rate
+      \note Supply air flow rate during heating operation
+      \note This field may be set to "autosize". If a value is entered, it will *not* be
+      \note multiplied by any sizing factor or by zone multipliers. If using zone multipliers
+      \note a value entered here must be large enough to serve the multiplied zones.
+      \type real
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+      \units m3/s
+  N3, \field No Load Supply Air Flow Rate
+      \note Supply air flow rate when no cooling or heating is needed
+      \note Only used when heat pump fan operating mode is Continuous. This air flow rate
+      \note is used when no heating or cooling is required and the DX coil compressor is off.
+      \note If this field is left blank or zero, the supply air flow rate from the previous on cycle
+      \note (either cooling or heating) is used.
+      \note This field may be set to "autosize". If a value is entered, it will *not* be
+      \note multiplied by any sizing factor or by zone multipliers. If using zone multipliers
+      \note a value entered here must be large enough to serve the multiplied zones.
+      \type real
+      \minimum 0
+      \default autosize
+      \autosizable
+      \units m3/s
+  A4, \field Supply Fan Operating Mode Schedule Name
+      \note Refers to a schedule to specify unitary supply fan operating mode.
+      \note Schedule values of 0 indicate cycling fan (auto)
+      \note Schedule values of 1 indicate continuous fan (on)
+      \note If this field is left blank, a schedule of always zero (cycling fan) will be used.
+      \type object-list
+      \object-list ScheduleNames
+  A5, \field Supply Fan Placement
+      \type choice
+      \key BlowThrough
+      \key DrawThrough
+      \default BlowThrough
+  N4, \field Supply Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+  N5, \field Supply Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 600
+  N6, \field Supply Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+  N7, \field Supply Fan Motor in Air Stream Fraction
+      \minimum 0.0
+      \maximum 1.0
+      \default 1.0
+  A6, \field Cooling Coil Type
+      \type choice
+      \key  SingleSpeedDX
+      \default SingleSpeedDX
+  A7, \field Cooling Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  N8, \field Cooling Design Supply Air Temperature
+      \note Used for sizing.
+      \default 12.8
+      \units C
+  N9, \field Cooling Coil Gross Rated Total Capacity
+      \note Total cooling capacity not accounting for the effect of supply air fan heat
+      \note Rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+      \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+      \autosizable
+      \default autosize
+      \units W
+ N10, \field Cooling Coil Gross Rated Sensible Heat Ratio
+      \note Rated sensible heat ratio (gross sensible capacity/gross total capacity)
+      \note Sensible and total capacities do not include effect of supply fan heat
+      \autosizable
+      \minimum 0.5
+      \maximum 1.0
+      \default autosize
+ N11, \field Cooling Coil Gross Rated COP
+      \note Gross cooling capacity divided by power input to the compressor and outdoor fan,
+      \note does not include supply fan heat or supply fan electric power input
+      \units W/W
+      \minimum> 0.0
+      \default 3.0
+  A8, \field Heat Pump Heating Coil Type
+      \type choice
+      \key  SingleSpeedDXHeatPump
+      \default SingleSpeedDXHeatPump
+  A9, \field Heat Pump Heating Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N12, \field Heating Design Supply Air Temperature
+      \note Used for sizing.
+      \default 50.0
+      \units C
+ N13, \field Heat Pump Heating Coil Gross Rated Capacity
+      \note Rated heating capacity excluding the effect of supply air fan heat
+      \note Rating point outdoor dry-bulb temp 8.33 C, outdoor wet-bulb temp 6.11 C
+      \note Rating point heating coil entering air dry-bulb 21.11 C, coil entering wet-bulb 15.55 C
+      \type real
+      \units W
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+ N14, \field Heat Pump Heating Coil Rated COP
+      \note Heat Pump Heating Coil Rated Capacity divided by power input to the compressor and outdoor fan,
+      \note does not include supply air fan heat or supply air fan electrical energy.
+      \note Rating point outdoor dry-bulb temp 8.33 C, outdoor wet-bulb temp 6.11 C
+      \note Rating point heating coil entering air dry-bulb 21.11 C, coil entering wet-bulb 15.55 C
+      \units W/W
+      \minimum> 0.0
+      \default 2.75
+ N15, \field Heat Pump Heating Minimum Outdoor Dry-Bulb Temperature
+      \type real
+      \minimum -20.0
+      \default -8.0
+      \units C
+ N16, \field Heat Pump Defrost Maximum Outdoor Dry-Bulb Temperature
+      \type real
+      \minimum 0.0
+      \maximum 7.22
+      \default 5.0
+      \units C
+ A10, \field Heat Pump Defrost Strategy
+      \type choice
+      \key ReverseCycle
+      \key Resistive
+      \default ReverseCycle
+ A11, \field Heat Pump Defrost Control
+      \type choice
+      \key Timed
+      \key OnDemand
+      \default Timed
+ N17, \field Heat Pump Defrost Time Period Fraction
+      \type real
+      \minimum 0.0
+      \default 0.058333
+      \note Fraction of time in defrost mode
+      \note only applicable if Timed defrost control is specified
+ A12, \field Supplemental Heating Coil Type
+      \type choice
+      \key  Electric
+      \key  Gas
+      \key  HotWater
+      \default Electric
+ A13, \field Supplemental Heating Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N18, \field Supplemental Heating Coil Capacity
+      \autosizable
+      \default autosize
+      \units W
+ N19, \field Supplemental Heating Coil Maximum Outdoor Dry-Bulb Temperature
+      \type real
+      \maximum 21.0
+      \default 21.0
+      \units C
+      \note Supplemental heater will not operate when outdoor temperature exceeds this value.
+ N20, \field Supplemental Gas Heating Coil Efficiency
+      \note Applies only if Supplemental Heating Coil Type is Gas
+      \maximum 1.0
+      \minimum 0.0
+      \default 0.8
+ N21, \field Supplemental Gas Heating Coil Parasitic Electric Load
+      \note Applies only if Supplemental Heating Coil Type is Gas
+      \units W
+      \ip-units W
+      \minimum 0.0
+      \default 0.0
+ N22, \field Maximum Outdoor Air Flow Rate
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum 0.0
+ N23, \field Minimum Outdoor Air Flow Rate
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum 0.0
+ A14, \field Minimum Outdoor Air Schedule Name
+      \note Schedule values multiply the minimum outdoor air flow rate
+      \note If blank, multiplier is always one
+      \type object-list
+      \object-list ScheduleNames
+ A15, \field Economizer Type
+      \type choice
+      \key FixedDryBulb
+      \key FixedEnthalpy
+      \key DifferentialDryBulb
+      \key DifferentialEnthalpy
+      \key FixedDewPointAndDryBulb
+      \key ElectronicEnthalpy
+      \key DifferentialDryBulbAndEnthalpy
+      \key NoEconomizer
+      \default NoEconomizer
+ A16, \field Economizer Lockout
+      \type choice
+      \key NoLockout
+      \key LockoutWithHeating
+      \key LockoutWithCompressor
+      \default NoLockout
+ N24, \field Economizer Maximum Limit Dry-Bulb Temperature
+      \type real
+      \units C
+      \note Enter the maximum outdoor dry-bulb temperature limit for FixedDryBulb
+      \note economizer control type. No input or blank input means this limit is
+      \note not operative. Limit is applied regardless of economizer control type.
+ N25, \field Economizer Maximum Limit Enthalpy
+      \type real
+      \units J/kg
+      \note Enter the maximum outdoor enthalpy limit for FixedEnthalpy economizer control type.
+      \note No input or blank input means this limit is not operative
+      \note Limit is applied regardless of economizer control type.
+ N26, \field Economizer Maximum Limit Dewpoint Temperature
+      \type real
+      \units C
+      \note Enter the maximum outdoor dewpoint temperature limit for FixedDewPointAndDryBulb
+      \note economizer control type. No input or blank input means this limit is not operative.
+      \note Limit is applied regardless of economizer control type.
+ N27, \field Economizer Minimum Limit Dry-Bulb Temperature
+      \type real
+      \units C
+      \note Enter the minimum outdoor dry-bulb temperature limit for economizer control.
+      \note No input or blank input means this limit is not operative
+      \note Limit is applied regardless of economizer control type.
+ A17, \field Supply Plenum Name
+      \note Plenum zone name. Supply plenum serves all zones on this system.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A18, \field Return Plenum Name
+      \note Plenum zone name. Return plenum serves all zones on this system.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A19, \field Night Cycle Control
+      \type choice
+      \key StayOff
+      \key CycleOnAny
+      \key CycleOnControlZone
+      \default StayOff
+ A20, \field Night Cycle Control Zone Name
+      \note Applicable only if Night Cycle Control is Cycle On Control Zone.
+      \type object-list
+      \object-list ZoneNames
+ A21, \field Heat Recovery Type
+      \type choice
+      \key None
+      \key Sensible
+      \key Enthalpy
+      \default None
+ N28, \field Sensible Heat Recovery Effectiveness
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.70
+ N29, \field Latent Heat Recovery Effectiveness
+      \note Applicable only if Heat Recovery Type is Enthalpy.
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.65
+ A22, \field Humidifier Type
+      \type choice
+      \key None
+      \key ElectricSteam
+      \default None
+ A23, \field Humidifier Availability Schedule Name
+      \note If blank, always available
+      \type object-list
+      \object-list ScheduleNames
+ N30, \field Humidifier Rated Capacity
+      \note Moisture output rate at full rated power input.
+      \note The humidifier does not currently autosize, so the default is very large
+      \note to allow for adequate capacity.
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \default 0.000001
+      \ip-units gal/min
+ N31, \field Humidifier Rated Electric Power
+      \note Electric power input at rated capacity moisture output.
+      \note Power consumption is proportional to moisture output with no part-load penalty.
+      \type real
+      \units W
+      \minimum 0.0
+      \autosizable
+      \default autosize
+      \ip-units W
+ A24, \field Humidifier Control Zone Name
+      \note Zone name where humidistat is located
+      \type object-list
+      \object-list ZoneNames
+ N32, \field Humidifier Setpoint
+      \note Zone relative humidity setpoint in percent (0 to 100)
+      \type real
+      \minimum 0.0
+      \maximum 100.0
+      \default 30.0
+      \units percent
+ A25, \field Return Fan
+      \note Specifies if the system has a return fan.
+      \type choice
+      \key Yes
+      \key No
+      \default No
+ N33, \field Return Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+ N34, \field Return Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 500
+ N35, \field Return Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+ N36; \field Return Fan Motor in Air Stream Fraction
+      \minimum 0.0
+      \maximum 1.0
+      \default 1.0
+
+HVACTemplate:System:UnitarySystem,
+      \min-fields 71
+      \memo Unitary HVAC system with optional cooling and heating. Supports DX and chilled water,
+      \memo cooling, gas, electric, and hot water heating, air-to-air and water-to-air heat pumps.
+  A1, \field Name
+      \required-field
+      \reference CompactHVACSystemUnitary
+      \reference HVACTemplateSystems
+  A2, \field System Availability Schedule Name
+      \note If blank, always available. Also see Supply Fan Operating Mode Schedule Name field.
+      \type object-list
+      \object-list ScheduleNames
+  A3,  \field Control Type
+       \type choice
+       \key Load
+       \key SetPoint
+       \default Load
+       \note Load control requires a Controlling Zone name.
+       \note SetPoint control requires set points at coil outlet nodes. The user must add appropriate
+       \note SetpointManager objects to the idf file.
+  A4, \field Control Zone or Thermostat Location Name
+      \note This field is required if Control Type is Load.
+      \type object-list
+      \object-list ZoneNames
+  N1, \field Cooling Supply Air Flow Rate
+      \note Supply air flow rate during cooling operation
+      \note This field may be set to "autosize". If a value is entered, it will *not* be
+      \note multiplied by any sizing factor or by zone multipliers. If using zone multipliers
+      \note a value entered here must be large enough to serve the multiplied zones.
+      \type real
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+      \units m3/s
+  N2, \field Heating Supply Air Flow Rate
+      \note Supply air flow rate during heating operation
+      \note This field may be set to "autosize". If a value is entered, it will *not* be
+      \note multiplied by any sizing factor or by zone multipliers. If using zone multipliers
+      \note a value entered here must be large enough to serve the multiplied zones.
+      \type real
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+      \units m3/s
+  N3, \field No Load Supply Air Flow Rate
+      \note Supply air flow rate when no cooling or heating is needed
+      \note Only used when heat pump fan operating mode is Continuous. This air flow rate
+      \note is used when no heating or cooling is required and the DX coil compressor is off.
+      \note If this field is left blank or zero, the supply air flow rate from the previous on cycle
+      \note (either cooling or heating) is used.
+      \note This field may be set to "autosize". If a value is entered, it will *not* be
+      \note multiplied by any sizing factor or by zone multipliers. If using zone multipliers
+      \note a value entered here must be large enough to serve the multiplied zones.
+      \type real
+      \minimum 0
+      \default autosize
+      \autosizable
+      \units m3/s
+  A5, \field Supply Fan Operating Mode Schedule Name
+      \note Refers to a schedule to specify unitary supply fan operating mode.
+      \note Schedule values of 0 indicate cycling fan (auto)
+      \note Schedule values of 1 indicate continuous fan (on)
+      \note If this field is left blank, a schedule of always zero (cycling fan) will be used.
+      \type object-list
+      \object-list ScheduleNames
+  A6, \field Supply Fan Placement
+      \type choice
+      \key BlowThrough
+      \key DrawThrough
+      \default BlowThrough
+  N4, \field Supply Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+  N5, \field Supply Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 600
+  N6, \field Supply Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+  N7, \field Supply Fan Motor in Air Stream Fraction
+      \minimum 0.0
+      \maximum 1.0
+      \default 1.0
+  A7, \field Cooling Coil Type
+      \type choice
+      \key  SingleSpeedDX
+      \key  TwoSpeedDX
+      \key  MultiSpeedDX
+      \key  TwoStageDX
+      \key  TwoStageHumidityControlDX
+      \key  HeatExchangerAssistedDX
+      \key  SingleSpeedDXWaterCooled
+      \key  ChilledWater
+      \key  ChilledWaterDetailedFlatModel
+      \key  HeatExchangerAssistedChilledWater
+      \key  None
+      \default SingleSpeedDX
+  N8, \field Number of Speeds for Cooling
+      \note Used only for Cooling Coil Type = MultiSpeedDX.
+      \type integer
+      \minimum 0
+      \maximum 4
+      \default 1
+  A8, \field Cooling Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  N9, \field Cooling Design Supply Air Temperature
+      \note Used for sizing.
+      \default 12.8
+      \units C
+ N10, \field DX Cooling Coil Gross Rated Total Capacity
+      \note Total cooling capacity not accounting for the effect of supply air fan heat
+      \note Rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+      \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+      \autosizable
+      \default autosize
+      \units W
+ N11, \field DX Cooling Coil Gross Rated Sensible Heat Ratio
+      \note Rated sensible heat ratio (gross sensible capacity/gross total capacity)
+      \note Sensible and total capacities do not include effect of supply fan heat
+      \autosizable
+      \minimum 0.5
+      \maximum 1.0
+      \default autosize
+ N12, \field DX Cooling Coil Gross Rated COP
+      \note Gross cooling capacity divided by power input to the compressor and outdoor fan,
+      \note does not include supply fan heat or supply fan electric power input
+      \units W/W
+      \minimum> 0.0
+      \default 3.0
+  A9, \field Heating Coil Type
+      \type choice
+      \key  Electric
+      \key  Gas
+      \key  HotWater
+      \key  SingleSpeedDXHeatPumpAirSource
+      \key  MultiSpeedDXHeatPumpAirSource
+      \key  SingleSpeedDXHeatPumpWaterSource
+      \key  MultiStageElectric
+      \key  MultiStageGas
+      \key  None
+      \default Gas
+ N13, \field Number of Speeds or Stages for Heating
+      \note Used only for Heating Coil Type = MultiSpeedDXHeatPumpAirSource),
+      \note MultiStageElectric, or MultiStageGas.
+      \type integer
+      \minimum 0
+      \maximum 4
+      \default 1
+ A10, \field Heating Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N14, \field Heating Design Supply Air Temperature
+      \note Used for sizing.
+      \default 50.0
+      \units C
+ N15, \field Heating Coil Gross Rated Capacity
+      \note Rated heating capacity excluding the effect of supply air fan heat
+      \note Rating point outdoor dry-bulb temp 8.33 C, outdoor wet-bulb temp 6.11 C
+      \note Rating point heating coil entering air dry-bulb 21.11 C, coil entering wet-bulb 15.55 C
+      \type real
+      \units W
+      \minimum> 0.0
+      \autosizable
+      \default autosize
+ N16, \field Gas Heating Coil Efficiency
+      \maximum 1.0
+      \minimum 0.0
+      \default 0.8
+ N17, \field Gas Heating Coil Parasitic Electric Load
+      \units W
+      \ip-units W
+      \minimum 0.0
+      \default 0.0
+ N18, \field Heat Pump Heating Coil Gross Rated COP
+      \note Heating Coil Rated Capacity divided by power input to the compressor and outdoor fan,
+      \note does not include supply air fan heat or supply air fan electrical energy.
+      \note Rating point outdoor dry-bulb temp 8.33 C, outdoor wet-bulb temp 6.11 C
+      \note Rating point heating coil entering air dry-bulb 21.11 C, coil entering wet-bulb 15.55 C
+      \note Applies only to DX coils
+      \units W/W
+      \minimum> 0.0
+      \default 2.75
+ N19, \field Heat Pump Heating Minimum Outdoor Dry-Bulb Temperature
+      \type real
+      \minimum -20.0
+      \default -8.0
+      \units C
+ N20, \field Heat Pump Defrost Maximum Outdoor Dry-Bulb Temperature
+      \type real
+      \minimum 0.0
+      \maximum 7.22
+      \default 5.0
+      \units C
+ A11, \field Heat Pump Defrost Strategy
+      \type choice
+      \key ReverseCycle
+      \key Resistive
+      \default ReverseCycle
+ A12, \field Heat Pump Defrost Control
+      \type choice
+      \key Timed
+      \key OnDemand
+      \default Timed
+ N21, \field Heat Pump Defrost Time Period Fraction
+      \type real
+      \minimum 0.0
+      \default 0.058333
+      \note Fraction of time in defrost mode
+      \note only applicable if Timed defrost control is specified
+ A13, \field Supplemental Heating or Reheat Coil Type
+      \type choice
+      \key  Electric
+      \key  Gas
+      \key  HotWater
+      \key  DesuperHeater
+      \key  None
+      \default None
+ A14, \field Supplemental Heating or Reheat Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N22, \field Supplemental Heating or Reheat Coil Capacity
+      \autosizable
+      \default autosize
+      \units W
+ N23, \field Supplemental Heating or Reheat Coil Maximum Outdoor Dry-Bulb Temperature
+      \type real
+      \maximum 21.0
+      \default 21.0
+      \units C
+      \note Supplemental heater will not operate when outdoor temperature exceeds this value.
+ N24, \field Supplemental Gas Heating or Reheat Coil Efficiency
+      \note Applies only if Supplemental Heating Coil Type is Gas
+      \maximum 1.0
+      \minimum 0.0
+      \default 0.8
+ N25, \field Supplemental Gas Heating or Reheat Coil Parasitic Electric Load
+      \note Applies only if Supplemental Heating Coil Type is Gas
+      \units W
+      \ip-units W
+      \minimum 0.0
+      \default 0.0
+ N26, \field Maximum Outdoor Air Flow Rate
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum 0.0
+ N27, \field Minimum Outdoor Air Flow Rate
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum 0.0
+ A15, \field Minimum Outdoor Air Schedule Name
+      \note Schedule values multiply the minimum outdoor air flow rate
+      \note If blank, multiplier is always one
+      \type object-list
+      \object-list ScheduleNames
+ A16, \field Economizer Type
+      \type choice
+      \key FixedDryBulb
+      \key FixedEnthalpy
+      \key DifferentialDryBulb
+      \key DifferentialEnthalpy
+      \key FixedDewPointAndDryBulb
+      \key ElectronicEnthalpy
+      \key DifferentialDryBulbAndEnthalpy
+      \key NoEconomizer
+      \default NoEconomizer
+ A17, \field Economizer Lockout
+      \type choice
+      \key NoLockout
+      \key LockoutWithHeating
+      \key LockoutWithCompressor
+      \default NoLockout
+ N28, \field Economizer Maximum Limit Dry-Bulb Temperature
+      \type real
+      \units C
+      \note Enter the maximum outdoor dry-bulb temperature limit for FixedDryBulb
+      \note economizer control type. No input or blank input means this limit is
+      \note not operative. Limit is applied regardless of economizer control type.
+ N29, \field Economizer Maximum Limit Enthalpy
+      \type real
+      \units J/kg
+      \note Enter the maximum outdoor enthalpy limit for FixedEnthalpy economizer control type.
+      \note No input or blank input means this limit is not operative
+      \note Limit is applied regardless of economizer control type.
+ N30, \field Economizer Maximum Limit Dewpoint Temperature
+      \type real
+      \units C
+      \note Enter the maximum outdoor dewpoint temperature limit for FixedDewPointAndDryBulb
+      \note economizer control type. No input or blank input means this limit is not operative.
+      \note Limit is applied regardless of economizer control type.
+ N31, \field Economizer Minimum Limit Dry-Bulb Temperature
+      \type real
+      \units C
+      \note Enter the minimum outdoor dry-bulb temperature limit for economizer control.
+      \note No input or blank input means this limit is not operative
+      \note Limit is applied regardless of economizer control type.
+ A18, \field Supply Plenum Name
+      \note Plenum zone name. Supply plenum serves all zones on this system.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A19, \field Return Plenum Name
+      \note Plenum zone name. Return plenum serves all zones on this system.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A20, \field Heat Recovery Type
+      \type choice
+      \key None
+      \key Sensible
+      \key Enthalpy
+      \default None
+ N32, \field Sensible Heat Recovery Effectiveness
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.70
+ N33, \field Latent Heat Recovery Effectiveness
+      \note Applicable only if Heat Recovery Type is Enthalpy.
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.65
+ A21, \field Heat Recovery Heat Exchanger Type
+      \type choice
+      \key Plate
+      \key Rotary
+      \default Plate
+ A22, \field Heat Recovery Frost Control Type
+      \type choice
+      \key None
+      \key ExhaustAirRecirculation
+      \key ExhaustOnly
+      \key MinimumExhaustTemperature
+      \default None
+ A23, \field Dehumidification Control Type
+      \note None = meet sensible load only
+      \note CoolReheat = cool beyond the dry-bulb setpoint, reheat with reheat coil
+      \note If no reheat coil specified, cold supply temps may occur.
+      \note Multimode = activate enhanced dehumidification mode as needed and meet sensible load.
+      \note Valid only for Cooling Coil Type = TwoStageHumidityControlDX or HeatExchangerAssistedDX
+      \type choice
+      \key None
+      \key CoolReheat
+      \key Multimode
+      \default None
+ N34, \field Dehumidification Relative Humidity Setpoint
+      \note Zone relative humidity setpoint in percent (0 to 100)
+      \note Ignored if Dehumidification Relative Humidity Setpoint Schedule specified below
+      \type real
+      \minimum 0.0
+      \maximum 100.0
+      \default 60.0
+      \units percent
+ A24, \field Dehumidification Relative Humidity Setpoint Schedule Name
+      \note Leave blank to use constant setpoint specified in Dehumidification Relative Humidity
+      \note Setpoint above. Schedule values must be in percent relative humidity (0 to 100).
+      \type object-list
+      \object-list ScheduleNames
+ A25, \field Humidifier Type
+      \type choice
+      \key None
+      \key ElectricSteam
+      \default None
+ A26, \field Humidifier Availability Schedule Name
+      \note If blank, always available
+      \type object-list
+      \object-list ScheduleNames
+ N35, \field Humidifier Rated Capacity
+      \note Moisture output rate at full rated power input.
+      \note The humidifier does not currently autosize, so the default is very large
+      \note to allow for adequate capacity.
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \default 0.000001
+      \ip-units gal/min
+ N36, \field Humidifier Rated Electric Power
+      \note Electric power input at rated capacity moisture output.
+      \note Power consumption is proportional to moisture output with no part-load penalty.
+      \type real
+      \units W
+      \minimum 0.0
+      \autosizable
+      \default autosize
+      \ip-units W
+ A27, \field Humidifier Control Zone Name
+      \note Zone name where humidistat is located
+      \type object-list
+      \object-list ZoneNames
+ N37, \field Humidifier Relative Humidity Setpoint
+      \note Zone relative humidity setpoint in percent (0 to 100).
+      \note Ignored if Humidifier Relative Humidity Setpoint Schedule specified below
+      \type real
+      \minimum 0.0
+      \maximum 100.0
+      \default 30.0
+      \units percent
+ A28, \field Humidifier Relative Humidity Setpoint Schedule Name
+      \note Leave blank to use constant setpoint specified in Humidifier Relative Humidity
+      \note  Setpoint above. Schedule values must be in percent relative humidity (0 to 100).
+      \type object-list
+      \object-list ScheduleNames
+ A29, \field Sizing Option
+      \note Select whether autosized system supply flow rate is the sum of Coincident or NonCoincident
+      \note zone air flow rates.
+      \type choice
+      \key Coincident
+      \key NonCoincident
+      \default NonCoincident
+ A30, \field Return Fan
+      \note Specifies if the system has a return fan.
+      \type choice
+      \key Yes
+      \key No
+      \default No
+ N38, \field Return Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+ N39, \field Return Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 300
+ N40, \field Return Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+ N41; \field Return Fan Motor in Air Stream Fraction
+      \minimum 0.0
+      \maximum 1.0
+      \default 1.0
+
+HVACTemplate:System:VAV,
+      \min-fields 61
+      \memo Variable Air Volume (VAV) air loop with optional heating coil
+      \memo and optional preheat.
+  A1, \field Name
+      \required-field
+      \reference CompactHVACSystemVAV
+      \reference HVACTemplateSystems
+  A2, \field System Availability Schedule Name
+      \note If blank, always on; VAV System always on. Schedule is used in availability manager
+      \note and fan scheduling.
+      \note Also see "Night Cycle Control" field.
+      \type object-list
+      \object-list ScheduleNames
+  N1, \field Supply Fan Maximum Flow Rate
+      \note This field may be set to "autosize". If a value is entered, it will *not* be
+      \note multiplied by any sizing factor or by zone multipliers. If using zone multipliers
+      \note a value entered here must be large enough to serve the multiplied zones.
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum> 0.0
+  N2, \field Supply Fan Minimum Flow Rate
+      \note This field is only used to set a minimum part load on the VAV fan power curve.
+      \note Autosize or zero is recommended.
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum 0.0
+  N3, \field Supply Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+  N4, \field Supply Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 1000
+  N5, \field Supply Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+  N6, \field Supply Fan Motor in Air Stream Fraction
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  A3, \field Cooling Coil Type
+      \type choice
+      \key  ChilledWater
+      \key  ChilledWaterDetailedFlatModel
+      \default  ChilledWater
+  A4, \field Cooling Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  A5, \field Cooling Coil Setpoint Schedule Name
+      \note  Leave blank if constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+  N7, \field Cooling Coil Design Setpoint
+      \note  Used for sizing and as constant setpoint if no Cooling Coil Setpoint Schedule Name is specified.
+      \default 12.8
+      \units C
+  A6, \field Heating Coil Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  Gas
+      \key  None
+      \default None
+  A7, \field Heating Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  A8, \field Heating Coil Setpoint Schedule Name
+      \note  Leave blank if constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+  N8, \field Heating Coil Design Setpoint
+      \note   Used for sizing and as constant setpoint if no Heating Coil Setpoint Schedule Name is specified.
+      \default 10.0
+      \units C
+  N9, \field Gas Heating Coil Efficiency
+      \maximum 1.0
+      \minimum 0.0
+      \default 0.8
+ N10, \field Gas Heating Coil Parasitic Electric Load
+      \units W
+      \ip-units W
+      \minimum 0.0
+      \default 0.0
+  A9, \field Preheat Coil Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  Gas
+      \key  None
+      \default None
+ A10, \field Preheat Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ A11, \field Preheat Coil Setpoint Schedule Name
+      \note  Leave blank if constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+ N11, \field Preheat Coil Design Setpoint
+      \note   Used for sizing and as constant setpoint if no Preheat Coil Setpoint Schedule Name specified.
+      \units C
+      \default 7.2
+ N12, \field Gas Preheat Coil Efficiency
+      \maximum 1.0
+      \minimum 0.0
+      \default 0.8
+ N13, \field Gas Preheat Coil Parasitic Electric Load
+      \units W
+      \ip-units W
+      \minimum 0.0
+      \default 0.0
+ N14, \field Maximum Outdoor Air Flow Rate
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum 0.0
+ N15, \field Minimum Outdoor Air Flow Rate
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum 0.0
+ A12, \field Minimum Outdoor Air Control Type
+      \type choice
+      \key FixedMinimum
+      \key ProportionalMinimum
+      \default ProportionalMinimum
+ A13, \field Minimum Outdoor Air Schedule Name
+      \note Schedule values multiply the Minimum Outdoor Air Flow Rate
+      \note If blank, multiplier is always one
+      \type object-list
+      \object-list ScheduleNames
+ A14, \field Economizer Type
+      \type choice
+      \key FixedDryBulb
+      \key FixedEnthalpy
+      \key DifferentialDryBulb
+      \key DifferentialEnthalpy
+      \key FixedDewPointAndDryBulb
+      \key ElectronicEnthalpy
+      \key DifferentialDryBulbAndEnthalpy
+      \key NoEconomizer
+      \default NoEconomizer
+ A15, \field Economizer Lockout
+      \type choice
+      \key NoLockout
+      \default NoLockout
+ N16, \field Economizer Upper Temperature Limit
+      \note Outdoor temperature above which economizer is disabled and
+      \note heat recovery is enabled (if available).
+      \note Blank means no limit.
+      \units C
+ N17, \field Economizer Lower Temperature Limit
+      \note Outdoor temperature below which economizer is disabled and
+      \note heat recovery is enabled (if available).
+      \note Blank means no limit.
+      \units C
+ N18, \field Economizer Upper Enthalpy Limit
+      \note Outdoor enthalpy above which economizer is disabled and
+      \note heat recovery is enabled (if available).
+      \note Blank means no limit.
+      \units J/kg
+ N19, \field Economizer Maximum Limit Dewpoint Temperature
+      \type real
+      \units C
+      \note Enter the maximum outdoor dewpoint temperature limit for FixedDewPointAndDryBulb
+      \note economizer control type. No input or blank input means this limit is not operative.
+      \note Limit is applied regardless of economizer control type.
+ A16, \field Supply Plenum Name
+      \note Plenum zone name. Supply plenum serves all zones on this system.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A17, \field Return Plenum Name
+      \note Plenum zone name. Supply plenum serves all zones on this system.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A18, \field Supply Fan Placement
+      \type choice
+      \key DrawThrough
+      \key BlowThrough
+      \default DrawThrough
+ A19, \field Supply Fan Part-Load Power Coefficients
+      \note This field selects a predefined set of fan power coefficients.
+      \note The ASHRAE 90.1-2004 Appendix G coefficients are from TABLE G3.1.3.15, Method 2.
+      \note The other sets of coefficients are from the EnergyPlus Input
+      \note Output Reference, Fan Coefficient Values table.
+      \type choice
+      \key InletVaneDampers
+      \key OutletDampers
+      \key VariableSpeedMotor
+      \key ASHRAE90.1-2004AppendixG
+      \key VariableSpeedMotorPressureReset
+      \default InletVaneDampers
+ A20, \field Night Cycle Control
+      \type choice
+      \key StayOff
+      \key CycleOnAny
+      \key CycleOnControlZone
+      \key CycleOnAnyZoneFansOnly
+      \default StayOff
+ A21, \field Night Cycle Control Zone Name
+      \note Applicable only if Night Cycle Control is Cycle On Control Zone.
+      \type object-list
+      \object-list ZoneNames
+ A22, \field Heat Recovery Type
+      \type choice
+      \key None
+      \key Sensible
+      \key Enthalpy
+      \default None
+ N20, \field Sensible Heat Recovery Effectiveness
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.70
+ N21, \field Latent Heat Recovery Effectiveness
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.65
+ A23, \field Cooling Coil Setpoint Reset Type
+      \note Overrides Cooling Coil Setpoint Schedule Name
+      \note None = no reset, control to Cooling Coil Design Setpoint Temperature or Schedule
+      \note Warmest = reset as warm as possible yet meet all zone cooling loads at max supply air flow rate
+      \note OutdoorAirTemperatureReset = reset based on outdoor air temperature (18.0C at 15.6C ODB,
+      \note to the Cooling Design Setpoint at 26.7C)
+      \note WarmestTemperatureFirst = reset as warm as possible yet meet all zone cooling loads at
+      \note min supply air flow rate
+      \type choice
+      \key None
+      \key Warmest
+      \key OutdoorAirTemperatureReset
+      \key WarmestTemperatureFirst
+      \default None
+ A24, \field Heating Coil Setpoint Reset Type
+      \note Overrides Heating Coil Setpoint Schedule Name
+      \note None = no reset, control to Heating Coil Design Setpoint Temperature or Schedule
+      \note OutdoorAirTemperatureReset = reset based on outdoor air temperature
+      \note (Heating Design Setpoint at -6.7C ODB to Heating Design Setpoint minus 5.2C at 10C ODB)
+      \note min supply air flow rate
+      \type choice
+      \key None
+      \key OutdoorAirTemperatureReset
+      \default None
+ A25, \field Dehumidification Control Type
+      \note None = meet sensible load only
+      \note CoolReheat = cool beyond the dry-bulb setpoint
+      \note as required to meet the humidity setpoint.
+      \type choice
+      \key None
+      \key CoolReheat
+      \default None
+ A26, \field Dehumidification Control Zone Name
+      \note Zone name where humidistat is located
+      \type object-list
+      \object-list ZoneNames
+ N22, \field Dehumidification Setpoint
+      \note Zone relative humidity setpoint in percent (0 to 100)
+      \type real
+      \minimum 0.0
+      \maximum 100.0
+      \default 60.0
+      \units percent
+ A27, \field Humidifier Type
+      \type choice
+      \key None
+      \key ElectricSteam
+      \default None
+ A28, \field Humidifier Availability Schedule Name
+      \note If blank, always available
+      \type object-list
+      \object-list ScheduleNames
+ N23, \field Humidifier Rated Capacity
+      \note Moisture output rate at full rated power input.
+      \note The humidifier does not currently autosize, so the default is very large
+      \note to allow for adequate capacity.
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \default 0.000001
+      \ip-units gal/min
+ N24, \field Humidifier Rated Electric Power
+      \note Electric power input at rated capacity moisture output.
+      \note Power consumption is proportional to moisture output with no part-load penalty.
+      \type real
+      \units W
+      \minimum 0.0
+      \autosizable
+      \default autosize
+      \ip-units W
+ A29, \field Humidifier Control Zone Name
+      \note Zone name where humidistat is located
+      \type object-list
+      \object-list ZoneNames
+ N25, \field Humidifier Setpoint
+      \note Zone relative humidity setpoint in percent (0 to 100)
+      \type real
+      \minimum 0.0
+      \maximum 100.0
+      \default 30.0
+      \units percent
+ A30, \field Sizing Option
+      \note Select whether autosized system supply flow rate is the sum of Coincident or NonCoincident
+      \note zone air flow rates.
+      \type choice
+      \key Coincident
+      \key NonCoincident
+      \default NonCoincident
+ A31, \field Return Fan
+      \note Specifies if the system has a return fan.
+      \type choice
+      \key Yes
+      \key No
+      \default No
+ N26, \field Return Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+ N27, \field Return Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 500
+ N28, \field Return Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+ N29, \field Return Fan Motor in Air Stream Fraction
+      \minimum 0.0
+      \maximum 1.0
+      \default 1.0
+ A32; \field Return Fan Part-Load Power Coefficients
+      \note This field selects a predefined set of fan power coefficients.
+      \note The ASHRAE 90.1-2004 Appendix G coefficients are from TABLE G3.1.3.15, Method 2.
+      \note The other sets of coefficients are from the EnergyPlus Input
+      \note Output Reference, Fan Coefficient Values table.
+      \type choice
+      \key InletVaneDampers
+      \key OutletDampers
+      \key VariableSpeedMotor
+      \key ASHRAE90.1-2004AppendixG
+      \key VariableSpeedMotorPressureReset
+      \default InletVaneDampers
+
+HVACTemplate:System:PackagedVAV,
+      \min-fields 59
+      \memo Packaged Variable Air Volume (PVAV) air loop with optional heating coil
+      \memo and optional preheat.
+  A1, \field Name
+      \required-field
+      \reference CompactHVACSystemVAV
+      \reference HVACTemplateSystems
+  A2, \field System Availability Schedule Name
+      \note If blank, always on; PVAV System always on. Schedule is used in availability manager
+      \note and fan scheduling.
+      \note Also see "Night Cycle Control" field.
+      \type object-list
+      \object-list ScheduleNames
+  N1, \field Supply Fan Maximum Flow Rate
+      \note This field may be set to "autosize". If a value is entered, it will *not* be
+      \note multiplied by any sizing factor or by zone multipliers. If using zone multipliers
+      \note a value entered here must be large enough to serve the multiplied zones.
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum> 0.0
+  N2, \field Supply Fan Minimum Flow Rate
+      \note This field is only used to set a minimum part load on the VAV fan power curve.
+      \note Autosize or zero is recommended.
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum 0.0
+  A3, \field Supply Fan Placement
+      \type choice
+      \key DrawThrough
+      \key BlowThrough
+      \default DrawThrough
+  N3, \field Supply Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+  N4, \field Supply Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 1000
+  N5, \field Supply Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+  N6, \field Supply Fan Motor in Air Stream Fraction
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  A4, \field Cooling Coil Type
+      \type choice
+      \key  TwoSpeedDX
+      \key  TwoSpeedHumidControlDX
+      \default TwoSpeedDX
+  A5, \field Cooling Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  A6, \field Cooling Coil Setpoint Schedule Name
+      \note  Leave blank if constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+  N7, \field Cooling Coil Design Setpoint
+      \note  Used for sizing and as constant setpoint if no Cooling Coil Setpoint Schedule Name is specified.
+      \default 12.8
+      \units C
+  N8, \field Cooling Coil Gross Rated Total Capacity
+      \note Total cooling capacity not accounting for the effect of supply air fan heat
+      \autosizable
+      \default autosize
+      \units W
+  N9, \field Cooling Coil Gross Rated Sensible Heat Ratio
+      \note Gross SHR
+      \autosizable
+      \minimum 0.5
+      \maximum 1.0
+      \default autosize
+ N10, \field Cooling Coil Gross Rated COP
+      \note Gross cooling capacity divided by power input to the compressor and outdoor fan,
+      \note does not include supply fan heat or supply fan electric power input
+      \units W/W
+      \minimum> 0.0
+      \default 3.0
+  A7, \field Heating Coil Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  Gas
+      \key  None
+      \default None
+  A8, \field Heating Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  A9, \field Heating Coil Setpoint Schedule Name
+      \note  Leave blank if constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+ N11, \field Heating Coil Design Setpoint
+      \note   Used for sizing and as constant setpoint if no Heating Coil Setpoint Schedule Name is specified.
+      \default 10.0
+      \units C
+ N12, \field Heating Coil Capacity
+      \autosizable
+      \default autosize
+      \units W
+ N13, \field Gas Heating Coil Efficiency
+      \maximum 1.0
+      \minimum 0.0
+      \default 0.8
+ N14, \field Gas Heating Coil Parasitic Electric Load
+      \units W
+      \ip-units W
+      \minimum 0.0
+      \default 0.0
+ N15, \field Maximum Outdoor Air Flow Rate
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum 0.0
+ N16, \field Minimum Outdoor Air Flow Rate
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum 0.0
+ A10, \field Minimum Outdoor Air Control Type
+      \type choice
+      \key FixedMinimum
+      \key ProportionalMinimum
+      \default ProportionalMinimum
+ A11, \field Minimum Outdoor Air Schedule Name
+      \note Schedule values multiply the Minimum Outdoor Air Flow Rate
+      \note If blank, multiplier is always one
+      \type object-list
+      \object-list ScheduleNames
+ A12, \field Economizer Type
+      \type choice
+      \key FixedDryBulb
+      \key FixedEnthalpy
+      \key DifferentialDryBulb
+      \key DifferentialEnthalpy
+      \key FixedDewPointAndDryBulb
+      \key ElectronicEnthalpy
+      \key DifferentialDryBulbAndEnthalpy
+      \key NoEconomizer
+      \default NoEconomizer
+ A13, \field Economizer Lockout
+      \type choice
+      \key NoLockout
+      \key LockoutWithHeating
+      \key LockoutWithCompressor
+      \default NoLockout
+ N17, \field Economizer Maximum Limit Dry-Bulb Temperature
+      \type real
+      \units C
+      \note Enter the maximum outdoor dry-bulb temperature limit for FixedDryBulb
+      \note economizer control type. No input or blank input means this limit is
+      \note not operative. Limit is applied regardless of economizer control type.
+ N18, \field Economizer Maximum Limit Enthalpy
+      \type real
+      \units J/kg
+      \note Enter the maximum outdoor enthalpy limit for FixedEnthalpy economizer control type.
+      \note No input or blank input means this limit is not operative
+      \note Limit is applied regardless of economizer control type.
+ N19, \field Economizer Maximum Limit Dewpoint Temperature
+      \type real
+      \units C
+      \note Enter the maximum outdoor dewpoint temperature limit for FixedDewPointAndDryBulb
+      \note economizer control type. No input or blank input means this limit is not operative.
+      \note Limit is applied regardless of economizer control type.
+ N20, \field Economizer Minimum Limit Dry-Bulb Temperature
+      \type real
+      \units C
+      \note Enter the minimum outdoor dry-bulb temperature limit for economizer control.
+      \note No input or blank input means this limit is not operative
+      \note Limit is applied regardless of economizer control type.
+ A14, \field Supply Plenum Name
+      \note Plenum zone name. Supply plenum serves all zones on this system.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A15, \field Return Plenum Name
+      \note Plenum zone name. Supply plenum serves all zones on this system.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A16, \field Supply Fan Part-Load Power Coefficients
+      \note This field selects a predefined set of fan power coefficients.
+      \note The ASHRAE 90.1-2004 Appendix G coefficients are from TABLE G3.1.3.15, Method 2.
+      \note The other sets of coefficients are from the EnergyPlus Input
+      \note Output Reference, Fan Coefficient Values table.
+      \type choice
+      \key InletVaneDampers
+      \key OutletDampers
+      \key VariableSpeedMotor
+      \key ASHRAE90.1-2004AppendixG
+      \key VariableSpeedMotorPressureReset
+      \default InletVaneDampers
+ A17, \field Night Cycle Control
+      \type choice
+      \key StayOff
+      \key CycleOnAny
+      \key CycleOnControlZone
+      \key CycleOnAnyZoneFansOnly
+      \default StayOff
+ A18, \field Night Cycle Control Zone Name
+      \note Applicable only if Night Cycle Control is Cycle On Control Zone.
+      \type object-list
+      \object-list ZoneNames
+ A19, \field Heat Recovery Type
+      \type choice
+      \key None
+      \key Sensible
+      \key Enthalpy
+      \default None
+ N21, \field Sensible Heat Recovery Effectiveness
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.70
+ N22, \field Latent Heat Recovery Effectiveness
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.65
+ A20, \field Cooling Coil Setpoint Reset Type
+      \note Overrides Cooling Coil Setpoint Schedule Name
+      \note None = no reset, control to Cooling Coil Design Setpoint Temperature or Schedule
+      \note Warmest = reset as warm as possible yet meet all zone cooling loads at max supply air flow rate
+      \note OutdoorAirTemperatureReset = reset based on outdoor air temperature (18.0C at 15.6C ODB,
+      \note to the Cooling Design Setpoint at 26.7C)
+      \note WarmestTemperatureFirst = reset as warm as possible yet meet all zone cooling loads at
+      \note min supply air flow rate
+      \type choice
+      \key None
+      \key Warmest
+      \key OutdoorAirTemperatureReset
+      \key WarmestTemperatureFirst
+      \default None
+ A21, \field Heating Coil Setpoint Reset Type
+      \note Overrides Heating Coil Setpoint Schedule Name
+      \note None = no reset, control to Heating Coil Design Setpoint Temperature or Schedule
+      \note OutdoorAirTemperatureReset = reset based on outdoor air temperature
+      \note (Heating Design Setpoint at -6.7C ODB to Heating Design Setpoint minus 5.2C at 10C ODB)
+      \note min supply air flow rate
+      \type choice
+      \key None
+      \key OutdoorAirTemperatureReset
+      \default None
+ A22, \field Dehumidification Control Type
+      \note None = meet sensible load only
+      \note CoolReheat = cool beyond the dry-bulb setpoint
+      \note as required to meet the humidity setpoint.
+      \type choice
+      \key None
+      \key CoolReheat
+      \default None
+ A23, \field Dehumidification Control Zone Name
+      \note Zone name where humidistat is located
+      \type object-list
+      \object-list ZoneNames
+ N23, \field Dehumidification Setpoint
+      \note Zone relative humidity setpoint in percent (0 to 100)
+      \type real
+      \minimum 0.0
+      \maximum 100.0
+      \default 60.0
+      \units percent
+ A24, \field Humidifier Type
+      \type choice
+      \key None
+      \key ElectricSteam
+      \default None
+ A25, \field Humidifier Availability Schedule Name
+      \note If blank, always available
+      \type object-list
+      \object-list ScheduleNames
+ N24, \field Humidifier Rated Capacity
+      \note Moisture output rate at full rated power input.
+      \note The humidifier does not currently autosize, so the default is very large
+      \note to allow for adequate capacity.
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \default 0.000001
+      \ip-units gal/min
+ N25, \field Humidifier Rated Electric Power
+      \note Electric power input at rated capacity moisture output.
+      \note Power consumption is proportional to moisture output with no part-load penalty.
+      \type real
+      \units W
+      \minimum 0.0
+      \autosizable
+      \default autosize
+      \ip-units W
+ A26, \field Humidifier Control Zone Name
+      \note Zone name where humidistat is located
+      \type object-list
+      \object-list ZoneNames
+ N26, \field Humidifier Setpoint
+      \note Zone relative humidity setpoint in percent (0 to 100)
+      \type real
+      \minimum 0.0
+      \maximum 100.0
+      \default 30.0
+      \units percent
+ A27, \field Sizing Option
+      \note Select whether autosized system supply flow rate is the sum of Coincident or NonCoincident
+      \note zone air flow rates.
+      \type choice
+      \key Coincident
+      \key NonCoincident
+      \default NonCoincident
+ A28, \field Return Fan
+      \note Specifies if the system has a return fan.
+      \type choice
+      \key Yes
+      \key No
+      \default No
+ N27, \field Return Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+ N28, \field Return Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 500
+ N29, \field Return Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+ N30, \field Return Fan Motor in Air Stream Fraction
+      \minimum 0.0
+      \maximum 1.0
+      \default 1.0
+ A29; \field Return Fan Part-Load Power Coefficients
+      \note This field selects a predefined set of fan power coefficients.
+      \note The ASHRAE 90.1-2004 Appendix G coefficients are from TABLE G3.1.3.15, Method 2.
+      \note The other sets of coefficients are from the EnergyPlus Input
+      \note Output Reference, Fan Coefficient Values table.
+      \type choice
+      \key InletVaneDampers
+      \key OutletDampers
+      \key VariableSpeedMotor
+      \key ASHRAE90.1-2004AppendixG
+      \key VariableSpeedMotorPressureReset
+      \default InletVaneDampers
+
+HVACTemplate:System:ConstantVolume,
+      \min-fields 70
+      \memo Constant Air Volume air loop with optional chilled water cooling coil,
+      \memo optional heating coil and optional preheat.
+  A1, \field Name
+      \required-field
+      \reference CompactHVACSystemConstantVolume
+      \reference HVACTemplateSystems
+  A2, \field System Availability Schedule Name
+      \note If blank, always on;  Schedule is used in availability manager
+      \note and fan scheduling.
+      \note Also see "Night Cycle Control" field.
+      \type object-list
+      \object-list ScheduleNames
+  N1, \field Supply Fan Maximum Flow Rate
+      \note This field may be set to "autosize". If a value is entered, it will *not* be
+      \note multiplied by any sizing factor or by zone multipliers. If using zone multipliers
+      \note a value entered here must be large enough to serve the multiplied zones.
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum> 0.0
+  N2, \field Supply Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+  N3, \field Supply Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 600
+  N4, \field Supply Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+  N5, \field Supply Fan Motor in Air Stream Fraction
+      \minimum 0.0
+      \maximum 1.0
+      \default 1.0
+  A3, \field Supply Fan Placement
+      \type choice
+      \key DrawThrough
+      \key BlowThrough
+      \default DrawThrough
+  A4, \field Cooling Coil Type
+      \type choice
+      \key  ChilledWater
+      \key  ChilledWaterDetailedFlatModel
+      \key  HeatExchangerAssistedChilledWater
+      \key  None
+      \default  ChilledWater
+  A5, \field Cooling Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  A6, \field Cooling Coil Setpoint Control Type
+      \type choice
+      \key  FixedSetpoint
+      \key  Scheduled
+      \key  OutdoorAirTemperatureReset
+      \key  Warmest
+      \key  ControlZone
+      \default FixedSetpoint
+  A7, \field Cooling Coil Control Zone name
+      \note name of the HVACTemplate:ZoneConstantVolume object that
+      \note contains the cooling thermostat when Cooling Coil Setpoint Control Type = ControlZone
+      \type object-list
+      \object-list HVACTemplateConstantVolumeZones
+  N6, \field Cooling Coil Design Setpoint Temperature
+      \note  Used for sizing and as constant setpoint if no Cooling Coil Setpoint Schedule Name is specified.
+      \default 12.8
+      \units C
+  A8, \field Cooling Coil Setpoint Schedule Name
+      \note  Leave blank if constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+  N7, \field Cooling Coil Setpoint at Outdoor Dry-Bulb Low
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 15.6
+  N8, \field Cooling Coil Reset Outdoor Dry-Bulb Low
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \note Defaults are 15.6C (60F) at 15.6C (60F) to 12.8C (55F) at 23.3C (74F)
+      \units C
+      \default 15.6
+  N9, \field Cooling Coil Setpoint at Outdoor Dry-Bulb High
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 12.8
+ N10, \field Cooling Coil Reset Outdoor Dry-Bulb High
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 23.3
+  A9, \field Heating Coil Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  Gas
+      \key  None
+      \default HotWater
+ A10, \field Heating Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ A11, \field Heating Coil Setpoint Control Type
+      \type choice
+      \key  FixedSetpoint
+      \key  Scheduled
+      \key  OutdoorAirTemperatureReset
+      \key  ControlZone
+      \default FixedSetpoint
+ A12, \field Heating Coil Control Zone name
+      \note name of the HVACTemplate:ZoneConstantVolume object that
+      \note contains the heating thermostat
+      \type object-list
+      \object-list HVACTemplateConstantVolumeZones
+ N11, \field Heating Coil Design Setpoint
+      \note  Used for sizing and as constant setpoint if no Heating Coil Setpoint Schedule Name is specified.
+      \default 10.0
+      \units C
+ A13, \field Heating Coil Setpoint Schedule Name
+      \note  Leave blank if constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+ N12, \field Heating Coil Setpoint at Outdoor Dry-Bulb Low
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 15.0
+ N13, \field Heating Coil Reset Outdoor Dry-Bulb Low
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \note Defaults are 15.6C (60F) at 15.6C (60F) to 12.8C (55F) at 23.3C (74F)
+      \units C
+      \default 7.8
+ N14, \field Heating Coil Setpoint at Outdoor Dry-Bulb High
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 12.2
+ N15, \field Heating Coil Reset Outdoor Dry-Bulb High
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 12.2
+ N16, \field Heating Coil Capacity
+      \autosizable
+      \default autosize
+      \units W
+ N17, \field Gas Heating Coil Efficiency
+      \maximum 1.0
+      \minimum 0.0
+      \default 0.8
+ N18, \field Gas Heating Coil Parasitic Electric Load
+      \units W
+      \ip-units W
+      \minimum 0.0
+      \default 0.0
+ A14, \field Preheat Coil Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  Gas
+      \key  None
+      \default None
+ A15, \field Preheat Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N19, \field Preheat Coil Design Setpoint
+      \note   Used for sizing and as constant setpoint if no Preheat Coil Setpoint Schedule Name specified.
+      \units C
+      \default 7.2
+ A16, \field Preheat Coil Setpoint Schedule Name
+      \note  Leave blank if constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+ N20, \field Gas Preheat Coil Efficiency
+      \maximum 1.0
+      \minimum 0.0
+      \default 0.8
+ N21, \field Gas Preheat Coil Parasitic Electric Load
+      \units W
+      \ip-units W
+      \minimum 0.0
+      \default 0.0
+ N22, \field Maximum Outdoor Air Flow Rate
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum 0.0
+ N23, \field Minimum Outdoor Air Flow Rate
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum 0.0
+ A17, \field Minimum Outdoor Air Schedule Name
+      \note Schedule values multiply the Minimum Outdoor Air Flow Rate
+      \note If blank, multiplier is always one
+      \type object-list
+      \object-list ScheduleNames
+ A18, \field Economizer Type
+      \type choice
+      \key FixedDryBulb
+      \key FixedEnthalpy
+      \key DifferentialDryBulb
+      \key DifferentialEnthalpy
+      \key FixedDewPointAndDryBulb
+      \key ElectronicEnthalpy
+      \key DifferentialDryBulbAndEnthalpy
+      \key NoEconomizer
+      \default NoEconomizer
+ N24, \field Economizer Upper Temperature Limit
+      \note Outdoor temperature above which economizer is disabled and
+      \note heat recovery is enabled (if available).
+      \note Blank means no limit.
+      \units C
+ N25, \field Economizer Lower Temperature Limit
+      \note Outdoor temperature below which economizer is disabled and
+      \note heat recovery is enabled (if available).
+      \note Blank means no limit.
+      \units C
+ N26, \field Economizer Upper Enthalpy Limit
+      \note Outdoor enthalpy above which economizer is disabled and
+      \note heat recovery is enabled (if available).
+      \note Blank means no limit.
+      \units J/kg
+ N27, \field Economizer Maximum Limit Dewpoint Temperature
+      \type real
+      \units C
+      \note Enter the maximum outdoor dewpoint temperature limit for FixedDewPointAndDryBulb
+      \note economizer control type. No input or blank input means this limit is not operative.
+      \note Limit is applied regardless of economizer control type.
+ A19, \field Supply Plenum Name
+      \note Plenum zone name. Supply plenum serves all zones on this system.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A20, \field Return Plenum Name
+      \note Plenum zone name. Supply plenum serves all zones on this system.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A21, \field Night Cycle Control
+      \type choice
+      \key StayOff
+      \key CycleOnAny
+      \key CycleOnControlZone
+      \key CycleOnAnyZoneFansOnly
+      \default StayOff
+ A22, \field Night Cycle Control Zone Name
+      \note Applicable only if Night Cycle Control is Cycle On Control Zone.
+      \type object-list
+      \object-list ZoneNames
+ A23, \field Heat Recovery Type
+      \type choice
+      \key None
+      \key Sensible
+      \key Enthalpy
+      \default None
+ N28, \field Sensible Heat Recovery Effectiveness
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.70
+ N29, \field Latent Heat Recovery Effectiveness
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.65
+ A24, \field Heat Recovery Heat Exchanger Type
+      \type choice
+      \key Plate
+      \key Rotary
+      \default Plate
+ A25, \field Heat Recovery Frost Control Type
+      \type choice
+      \key None
+      \key ExhaustAirRecirculation
+      \key ExhaustOnly
+      \key MinimumExhaustTemperature
+      \default None
+ A26, \field Dehumidification Control Type
+      \note None = meet sensible load only
+      \note CoolReheat = cool beyond the dry-bulb setpoint
+      \note as required to meet the humidity setpoint.
+      \type choice
+      \key None
+      \key CoolReheat
+      \default None
+ A27, \field Dehumidification Control Zone Name
+      \note Zone name where humidistat is located
+      \type object-list
+      \object-list ZoneNames
+ N30, \field Dehumidification Relative Humidity Setpoint
+      \note Zone relative humidity setpoint in percent (0 to 100)
+      \note Ignored if Dehumidification Relative Humidity Setpoint Schedule specified below
+      \type real
+      \minimum 0.0
+      \maximum 100.0
+      \default 60.0
+      \units percent
+ A28, \field Dehumidification Relative Humidity Setpoint Schedule Name
+      \note Leave blank to use constant setpoint specified in Dehumidification Relative Humidity
+      \note Setpoint above. Schedule values must be in percent relative humidity (0 to 100).
+      \type object-list
+      \object-list ScheduleNames
+ A29, \field Humidifier Type
+      \type choice
+      \key None
+      \key ElectricSteam
+      \default None
+ A30, \field Humidifier Availability Schedule Name
+      \note If blank, always available
+      \type object-list
+      \object-list ScheduleNames
+ N31, \field Humidifier Rated Capacity
+      \note Moisture output rate at full rated power input.
+      \note The humidifier does not currently autosize, so the default is very large
+      \note to allow for adequate capacity.
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \default 0.000001
+      \ip-units gal/min
+ N32, \field Humidifier Rated Electric Power
+      \note Electric power input at rated capacity moisture output.
+      \note Power consumption is proportional to moisture output with no part-load penalty.
+      \type real
+      \units W
+      \minimum 0.0
+      \autosizable
+      \default autosize
+      \ip-units W
+ A31, \field Humidifier Control Zone Name
+      \note Zone name where humidistat is located
+      \type object-list
+      \object-list ZoneNames
+ N33, \field Humidifier Relative Humidity Setpoint
+      \note Zone relative humidity setpoint in percent (0 to 100).
+      \note Ignored if Humidifier Relative Humidity Setpoint Schedule specified below
+      \type real
+      \minimum 0.0
+      \maximum 100.0
+      \default 30.0
+      \units percent
+ A32, \field Humidifier Relative Humidity Setpoint Schedule Name
+      \note Leave blank to use constant setpoint specified in Humidifier Relative Humidity
+      \note  Setpoint above. Schedule values must be in percent relative humidity (0 to 100).
+      \type object-list
+      \object-list ScheduleNames
+ A33, \field Return Fan
+      \note Specifies if the system has a return fan.
+      \type choice
+      \key Yes
+      \key No
+      \default No
+ N34, \field Return Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+ N35, \field Return Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 300
+ N36, \field Return Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+ N37; \field Return Fan Motor in Air Stream Fraction
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+
+HVACTemplate:System:DualDuct,
+      \min-fields 91
+      \memo Dual-duct constant volume or variable volume air loop
+  A1, \field Name
+      \required-field
+      \reference CompactHVACSystemDualDuct
+      \reference HVACTemplateSystems
+  A2, \field System Availability Schedule Name
+      \note If blank, always on;  Schedule is used in availability manager
+      \note and fan scheduling.
+      \note Also see "Night Cycle Control" field.
+      \type object-list
+      \object-list ScheduleNames
+  A3, \field System Configuration Type
+      \note SingleFan - a single supply fan before the split to dual ducts
+      \note DualFan - two supply fans, one each for the cold and hot ducts
+      \note ConstantVolume - constant volume
+      \note VariableVolume - variable volume
+      \type choice
+      \key SingleFanConstantVolume
+      \key DualFanConstantVolume
+      \key SingleFanVariableVolume
+      \key DualFanVariableVolume
+      \default SingleFanConstantVolume
+  N1, \field Main Supply Fan Maximum Flow Rate
+      \note This field may be set to "autosize". If a value is entered, it will *not* be
+      \note multiplied by any sizing factor or by zone multipliers. If using zone multipliers
+      \note a value entered here must be large enough to serve the multiplied zones.
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum> 0.0
+  N2, \field Main Supply Fan Minimum Flow Fraction
+      \default 0.2
+      \minimum 0.0
+      \maximum 1.0
+  N3, \field Main Supply Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+  N4, \field Main Supply Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 1000
+  N5, \field Main Supply Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+  N6, \field Main Supply Fan Motor in Air Stream Fraction
+      \minimum 0.0
+      \maximum 1.0
+      \default 1.0
+  A4, \field Main Supply Fan Part-Load Power Coefficients
+      \note This field selects a predefined set of fan power coefficients.
+      \note The ASHRAE 90.1-2004 Appendix G coefficients are from TABLE G3.1.3.15, Method 2.
+      \note The other sets of coefficients are from the EnergyPlus Input
+      \note Output Reference, Fan Coefficient Values table.
+      \type choice
+      \key InletVaneDampers
+      \key OutletDampers
+      \key VariableSpeedMotor
+      \key ASHRAE90.1-2004AppendixG
+      \key VariableSpeedMotorPressureReset
+      \default InletVaneDampers
+  N7, \field Cold Duct Supply Fan Maximum Flow Rate
+      \note This field may be set to "autosize". If a value is entered, it will *not* be
+      \note multiplied by any sizing factor or by zone multipliers. If using zone multipliers
+      \note a value entered here must be large enough to serve the multiplied zones.
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum> 0.0
+  N8, \field Cold Duct Supply Fan Minimum Flow Fraction
+      \default 0.2
+      \minimum 0.0
+      \maximum 1.0
+  N9, \field Cold Duct Supply Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+ N10, \field Cold Duct Supply Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 1000
+ N11, \field Cold Duct Supply Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+ N12, \field Cold Duct Supply Fan Motor in Air Stream Fraction
+      \minimum 0.0
+      \maximum 1.0
+      \default 1.0
+  A5, \field Cold Duct Supply Fan Part-Load Power Coefficients
+      \note This field selects a predefined set of fan power coefficients.
+      \note The ASHRAE 90.1-2004 Appendix G coefficients are from TABLE G3.1.3.15, Method 2.
+      \note The other sets of coefficients are from the EnergyPlus Input
+      \note Output Reference, Fan Coefficient Values table.
+      \type choice
+      \key InletVaneDampers
+      \key OutletDampers
+      \key VariableSpeedMotor
+      \key ASHRAE90.1-2004AppendixG
+      \key VariableSpeedMotorPressureReset
+      \default InletVaneDampers
+  A6, \field Cold Duct Supply Fan Placement
+      \type choice
+      \key BlowThrough
+      \key DrawThrough
+      \default DrawThrough
+ N13, \field Hot Duct Supply Fan Maximum Flow Rate
+      \note This field may be set to "autosize". If a value is entered, it will *not* be
+      \note multiplied by any sizing factor or by zone multipliers. If using zone multipliers
+      \note a value entered here must be large enough to serve the multiplied zones.
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum> 0.0
+ N14, \field Hot Duct Supply Fan Minimum Flow Fraction
+      \default 0.2
+      \minimum 0.0
+      \maximum 1.0
+ N15, \field Hot Duct Supply Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+ N16, \field Hot Duct Supply Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 1000
+ N17, \field Hot Duct Supply Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+ N18, \field Hot Duct Supply Fan Motor in Air Stream Fraction
+      \minimum 0.0
+      \maximum 1.0
+      \default 1.0
+  A7, \field Hot Duct Supply Fan Part-Load Power Coefficients
+      \note This field selects a predefined set of fan power coefficients.
+      \note The ASHRAE 90.1-2004 Appendix G coefficients are from TABLE G3.1.3.15, Method 2.
+      \note The other sets of coefficients are from the EnergyPlus Input
+      \note Output Reference, Fan Coefficient Values table.
+      \type choice
+      \key InletVaneDampers
+      \key OutletDampers
+      \key VariableSpeedMotor
+      \key ASHRAE90.1-2004AppendixG
+      \key VariableSpeedMotorPressureReset
+      \default InletVaneDampers
+  A8, \field Hot Duct Supply Fan Placement
+      \type choice
+      \key BlowThrough
+      \key DrawThrough
+      \default DrawThrough
+  A9, \field Cooling Coil Type
+      \type choice
+      \key  ChilledWater
+      \key  ChilledWaterDetailedFlatModel
+      \key  None
+      \default  ChilledWater
+ A10, \field Cooling Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ A11, \field Cooling Coil Setpoint Control Type
+      \type choice
+      \key  FixedSetpoint
+      \key  Scheduled
+      \key  OutdoorAirTemperatureReset
+      \key  Warmest
+      \default FixedSetpoint
+ N19, \field Cooling Coil Design Setpoint Temperature
+      \note  Used for sizing and as constant setpoint if no Cooling Coil Setpoint Schedule Name is specified.
+      \default 12.8
+      \units C
+ A12, \field Cooling Coil Setpoint Schedule Name
+      \note  Leave blank if constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+ N20, \field Cooling Coil Setpoint at Outdoor Dry-Bulb Low
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 15.6
+ N21, \field Cooling Coil Reset Outdoor Dry-Bulb Low
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \note Defaults are 15.6C (60F) at 15.6C (60F) to 12.8C (55F) at 23.3C (74F)
+      \units C
+      \default 15.6
+ N22, \field Cooling Coil Setpoint at Outdoor Dry-Bulb High
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 12.8
+ N23, \field Cooling Coil Reset Outdoor Dry-Bulb High
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 23.3
+ A13, \field Heating Coil Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  Gas
+      \key  None
+      \default HotWater
+ A14, \field Heating Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ A15, \field Heating Coil Setpoint Control Type
+      \type choice
+      \key  FixedSetpoint
+      \key  Scheduled
+      \key  OutdoorAirTemperatureReset
+      \key  Coldest
+      \default FixedSetpoint
+ N24, \field Heating Coil Design Setpoint
+      \note  Used for sizing and as constant setpoint if no Heating Coil Setpoint Schedule Name is specified.
+      \default 50.0
+      \units C
+ A16, \field Heating Coil Setpoint Schedule Name
+      \note  Leave blank if constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+ N25, \field Heating Coil Setpoint at Outdoor Dry-Bulb Low
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 50.0
+ N26, \field Heating Coil Reset Outdoor Dry-Bulb Low
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \note Defaults are 15.6C (60F) at 15.6C (60F) to 12.8C (55F) at 23.3C (74F)
+      \units C
+      \default 7.8
+ N27, \field Heating Coil Setpoint at Outdoor Dry-Bulb High
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 20.0
+ N28, \field Heating Coil Reset Outdoor Dry-Bulb High
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 12.2
+ N29, \field Heating Coil Capacity
+      \autosizable
+      \default autosize
+      \units W
+ N30, \field Gas Heating Coil Efficiency
+      \maximum 1.0
+      \minimum 0.0
+      \default 0.8
+ N31, \field Gas Heating Coil Parasitic Electric Load
+      \units W
+      \ip-units W
+      \minimum 0.0
+      \default 0.0
+ A17, \field Preheat Coil Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  Gas
+      \key  None
+      \default None
+ A18, \field Preheat Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ N32, \field Preheat Coil Design Setpoint
+      \note   Used for sizing and as constant setpoint if no Preheat Coil Setpoint Schedule Name specified.
+      \units C
+      \default 7.2
+ A19, \field Preheat Coil Setpoint Schedule Name
+      \note  Leave blank if constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+ N33, \field Gas Preheat Coil Efficiency
+      \maximum 1.0
+      \minimum 0.0
+      \default 0.8
+ N34, \field Gas Preheat Coil Parasitic Electric Load
+      \units W
+      \ip-units W
+      \minimum 0.0
+      \default 0.0
+ N35, \field Maximum Outdoor Air Flow Rate
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum 0.0
+ N36, \field Minimum Outdoor Air Flow Rate
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum 0.0
+ A20, \field Minimum Outdoor Air Control Type
+      \type choice
+      \key FixedMinimum
+      \key ProportionalMinimum
+      \default ProportionalMinimum
+ A21, \field Minimum Outdoor Air Schedule Name
+      \note Schedule values multiply the Minimum Outdoor Air Flow Rate
+      \note If blank, multiplier is always one
+      \type object-list
+      \object-list ScheduleNames
+ A22, \field Economizer Type
+      \type choice
+      \key FixedDryBulb
+      \key FixedEnthalpy
+      \key DifferentialDryBulb
+      \key DifferentialEnthalpy
+      \key FixedDewPointAndDryBulb
+      \key ElectronicEnthalpy
+      \key DifferentialDryBulbAndEnthalpy
+      \key NoEconomizer
+      \default NoEconomizer
+ A23, \field Economizer Lockout
+      \type choice
+      \key NoLockout
+      \default NoLockout
+ N37, \field Economizer Upper Temperature Limit
+      \note Outdoor temperature above which economizer is disabled and
+      \note heat recovery is enabled (if available).
+      \note Blank means no limit.
+      \units C
+ N38, \field Economizer Lower Temperature Limit
+      \note Outdoor temperature below which economizer is disabled and
+      \note heat recovery is enabled (if available).
+      \note Blank means no limit.
+      \units C
+ N39, \field Economizer Upper Enthalpy Limit
+      \note Outdoor enthalpy above which economizer is disabled and
+      \note heat recovery is enabled (if available).
+      \note Blank means no limit.
+      \units J/kg
+ N40, \field Economizer Maximum Limit Dewpoint Temperature
+      \type real
+      \units C
+      \note Enter the maximum outdoor dewpoint temperature limit for FixedDewPointAndDryBulb
+      \note economizer control type. No input or blank input means this limit is not operative.
+      \note Limit is applied regardless of economizer control type.
+ A24, \field Cold Supply Plenum Name
+      \note Plenum zone name. Supply plenum serves the cold inlets of all zones on this system.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A25, \field Hot Supply Plenum Name
+      \note Plenum zone name. Supply plenum serves the hot inlets of all zones on this system.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A26, \field Return Plenum Name
+      \note Plenum zone name. Supply plenum serves all zones on this system.
+      \note Blank if none.
+      \type object-list
+      \object-list ZoneNames
+ A27, \field Night Cycle Control
+      \type choice
+      \key StayOff
+      \key CycleOnAny
+      \key CycleOnControlZone
+      \default StayOff
+ A28, \field Night Cycle Control Zone Name
+      \note Applicable only if Night Cycle Control is Cycle On Control Zone.
+      \type object-list
+      \object-list ZoneNames
+ A29, \field Heat Recovery Type
+      \type choice
+      \key None
+      \key Sensible
+      \key Enthalpy
+      \default None
+ N41, \field Sensible Heat Recovery Effectiveness
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.70
+ N42, \field Latent Heat Recovery Effectiveness
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.65
+ A30, \field Heat Recovery Heat Exchanger Type
+      \type choice
+      \key Plate
+      \key Rotary
+      \default Plate
+ A31, \field Heat Recovery Frost Control Type
+      \type choice
+      \key None
+      \key ExhaustAirRecirculation
+      \key ExhaustOnly
+      \key MinimumExhaustTemperature
+      \default None
+ A32, \field Dehumidification Control Type
+      \note None = meet sensible load only
+      \note CoolReheat = cool beyond the dry-bulb setpoint
+      \note as required to meet the humidity setpoint.
+      \type choice
+      \key None
+      \key CoolReheat
+      \default None
+ A33, \field Dehumidification Control Zone Name
+      \note Zone name where humidistat is located
+      \type object-list
+      \object-list ZoneNames
+ N43, \field Dehumidification Relative Humidity Setpoint
+      \note Zone relative humidity setpoint in percent (0 to 100)
+      \note Ignored if Dehumidification Relative Humidity Setpoint Schedule specified below
+      \type real
+      \minimum 0.0
+      \maximum 100.0
+      \default 60.0
+      \units percent
+ A34, \field Dehumidification Relative Humidity Setpoint Schedule Name
+      \note Leave blank to use constant setpoint specified in Dehumidification Relative Humidity
+      \note Setpoint above. Schedule values must be in percent relative humidity (0 to 100).
+      \type object-list
+      \object-list ScheduleNames
+ A35, \field Humidifier Type
+      \type choice
+      \key None
+      \key ElectricSteam
+      \default None
+ A36, \field Humidifier Availability Schedule Name
+      \note If blank, always available
+      \type object-list
+      \object-list ScheduleNames
+ N44, \field Humidifier Rated Capacity
+      \note Moisture output rate at full rated power input.
+      \note The humidifier does not currently autosize, so the default is very large
+      \note to allow for adequate capacity.
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \default 0.000001
+      \ip-units gal/min
+ N45, \field Humidifier Rated Electric Power
+      \note Electric power input at rated capacity moisture output.
+      \note Power consumption is proportional to moisture output with no part-load penalty.
+      \type real
+      \units W
+      \minimum 0.0
+      \autosizable
+      \default autosize
+      \ip-units W
+ A37, \field Humidifier Control Zone Name
+      \note Zone name where humidistat is located
+      \type object-list
+      \object-list ZoneNames
+ N46, \field Humidifier Relative Humidity Setpoint
+      \note Zone relative humidity setpoint in percent (0 to 100).
+      \note Ignored if Humidifier Relative Humidity Setpoint Schedule specified below
+      \type real
+      \minimum 0.0
+      \maximum 100.0
+      \default 30.0
+      \units percent
+ A38, \field Humidifier Relative Humidity Setpoint Schedule Name
+      \note Leave blank to use constant setpoint specified in Humidifier Relative Humidity
+      \note  Setpoint above. Schedule values must be in percent relative humidity (0 to 100).
+      \type object-list
+      \object-list ScheduleNames
+ A39, \field Sizing Option
+      \note Select whether autosized system supply flow rate is the sum of Coincident or NonCoincident
+      \note zone air flow rates.
+      \type choice
+      \key Coincident
+      \key NonCoincident
+      \default NonCoincident
+ A40, \field Return Fan
+      \note Specifies if the system has a return fan.
+      \type choice
+      \key Yes
+      \key No
+      \default No
+ N47, \field Return Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+ N48, \field Return Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 500
+ N49, \field Return Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+ N50, \field Return Fan Motor in Air Stream Fraction
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+ A41; \field Return Fan Part-Load Power Coefficients
+      \note This field selects a predefined set of fan power coefficients.
+      \note The ASHRAE 90.1-2004 Appendix G coefficients are from TABLE G3.1.3.15, Method 2.
+      \note The other sets of coefficients are from the EnergyPlus Input
+      \note Output Reference, Fan Coefficient Values table.
+      \type choice
+      \key InletVaneDampers
+      \key OutletDampers
+      \key VariableSpeedMotor
+      \key ASHRAE90.1-2004AppendixG
+      \key VariableSpeedMotorPressureReset
+      \default InletVaneDampers
+
+HVACTemplate:System:DedicatedOutdoorAir,
+      \min-fields 46
+      \memo This object creates a dedicated outdoor air system that must be used with
+      \memo HVACTemplate:Zone:* objects for BaseboardHeat FanCoil PTAC PTHP WaterToAirHeatPump and VRF.
+      \memo Does not support HVACTemplate:Zone:VAV or other central multizone systems
+  A1, \field Name
+      \reference HVACTemplateDOASSystems
+      \reference HVACTemplateSystems
+  A2, \field System Availability Schedule Name
+      \note If blank, always on; DOAS System always on. Schedule is used in availability manager
+      \note and fan scheduling.
+      \type object-list
+      \object-list ScheduleNames
+  A3, \field Air Outlet Type
+      \type choice
+      \key  DirectIntoZone
+      \default  DirectIntoZone
+  N1, \field Supply Fan Flow Rate
+      \autosizable
+      \default autosize
+      \units m3/s
+      \minimum> 0.0
+  N2, \field Supply Fan Total Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.7
+  N3, \field Supply Fan Delta Pressure
+      \units Pa
+      \ip-units inH2O
+      \minimum 0
+      \default 1000
+  N4, \field Supply Fan Motor Efficiency
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.9
+  N5, \field Supply Fan Motor in Air Stream Fraction
+      \minimum 0.0
+      \maximum 1.0
+      \default 1.0
+  A4, \field Supply Fan Placement
+      \type choice
+      \key DrawThrough
+      \key BlowThrough
+      \default DrawThrough
+  A5, \field Cooling Coil Type
+      \type choice
+      \key  ChilledWater
+      \key  ChilledWaterDetailedFlatModel
+      \key  TwoSpeedDX
+      \key  TwoStageDX
+      \key  TwoStageHumidityControlDX
+      \key  HeatExchangerAssistedChilledWater
+      \key  HeatExchangerAssistedDX
+      \key  None
+      \default  ChilledWater
+  A6, \field Cooling Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+  A7, \field Cooling Coil Setpoint Control Type
+      \type choice
+      \key  FixedSetpoint
+      \key  Scheduled
+      \key  OutdoorAirTemperatureReset
+      \default FixedSetpoint
+  N6, \field Cooling Coil Design Setpoint
+      \note  Used for sizing and as constant setpoint if no Cooling Coil Setpoint Schedule Name is specified.
+      \default 12.8
+      \units C
+  A8, \field Cooling Coil Setpoint Schedule Name
+      \note  Leave blank if constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+  N7, \field Cooling Coil Setpoint at Outdoor Dry-Bulb Low
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 15.6
+  N8, \field Cooling Coil Reset Outdoor Dry-Bulb Low
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \note Defaults are 15.6C (60F) at 15.6C (60F) to 12.8C (55F) at 23.3C (74F)
+      \units C
+      \default 15.6
+  N9, \field Cooling Coil Setpoint at Outdoor Dry-Bulb High
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 12.8
+ N10, \field Cooling Coil Reset Outdoor Dry-Bulb High
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 23.3
+ N11, \field DX Cooling Coil Gross Rated Total Capacity
+      \note Total cooling capacity not accounting for the effect of supply air fan heat
+      \autosizable
+      \default autosize
+      \units W
+ N12, \field DX Cooling Coil Gross Rated Sensible Heat Ratio
+      \note Gross SHR
+      \autosizable
+      \minimum 0.5
+      \maximum 1.0
+      \default autosize
+ N13, \field DX Cooling Coil Gross Rated COP
+      \note Gross cooling capacity divided by power input to the compressor and outdoor fan,
+      \note does not include supply fan heat or supply fan electrical energy input
+      \units W/W
+      \minimum> 0.0
+      \default 3.0
+  A9, \field Heating Coil Type
+      \type choice
+      \key  HotWater
+      \key  Electric
+      \key  Gas
+      \key  None
+      \default HotWater
+ A10, \field Heating Coil Availability Schedule Name
+      \note If blank, always on
+      \type object-list
+      \object-list ScheduleNames
+ A11, \field Heating Coil Setpoint Control Type
+      \note When selecting OutdoorAirTemperatureReset, the Heating Coil Design Setpoint may need to be changed
+      \type choice
+      \key  FixedSetpoint
+      \key  Scheduled
+      \key  OutdoorAirTemperatureReset
+      \default FixedSetpoint
+ N14, \field Heating Coil Design Setpoint
+      \note   Used for sizing and as constant setpoint if no Heating Coil Setpoint Schedule Name is specified.
+      \default 12.2
+      \units C
+ A12, \field Heating Coil Setpoint Schedule Name
+      \note  Leave blank if constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+ N15, \field Heating Coil Setpoint at Outdoor Dry-Bulb Low
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \note Defaults 15.0C (59F) at 7.8C (46F) to 12.2C (54F) at 12.2C (54F)
+      \units C
+      \default 15.0
+ N16, \field Heating Coil Reset Outdoor Dry-Bulb Low
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 7.8
+ N17, \field Heating Coil Setpoint at Outdoor Dry-Bulb High
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 12.2
+ N18, \field Heating Coil Reset Outdoor Dry-Bulb High
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 12.2
+ N19, \field Gas Heating Coil Efficiency
+      \maximum 1.0
+      \minimum 0.0
+      \default 0.8
+ N20, \field Gas Heating Coil Parasitic Electric Load
+      \units W
+      \ip-units W
+      \minimum 0.0
+      \default 0.0
+ A13, \field Heat Recovery Type
+      \type choice
+      \key None
+      \key Sensible
+      \key Enthalpy
+      \default None
+ N21, \field Heat Recovery Sensible Effectiveness
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.70
+ N22, \field Heat Recovery Latent Effectiveness
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.65
+ A14, \field Heat Recovery Heat Exchanger Type
+      \type choice
+      \key Plate
+      \key Rotary
+      \default Plate
+ A15, \field Heat Recovery Frost Control Type
+      \type choice
+      \key None
+      \key ExhaustAirRecirculation
+      \key ExhaustOnly
+      \key MinimumExhaustTemperature
+      \default None
+ A16, \field Dehumidification Control Type
+      \note None = meet sensible load only
+      \note CoolReheatHeatingCoil = cool beyond the dry-bulb setpoint, reheat with heating coil
+      \note Valid for all cooling coil types. If no heating coil specified, cold supply temps may occur.
+      \note CoolReheatDesuperheater = cool beyond the dry-bulb setpoint
+      \note as required to meet the humidity setpoint, reheat with desuperheater coil.
+      \note Valid only for Cooling Coil Type = TwoSpeedDX, TwoStageDX, TwoStageHumidityControlDX, or HeatExchangerAssistedDX.
+      \note Multimode = activate enhanced dehumidification mode as needed and meet sensible load.
+      \note Valid only for Cooling Coil Type = TwoStageHumidityControlDX or HeatExchangerAssistedDX
+      \type choice
+      \key None
+      \key CoolReheatHeatingCoil
+      \key CoolReheatDesuperheater
+      \key Multimode
+      \default None
+ N23, \field Dehumidification Setpoint
+      \note The supply air humidity ratio for dehumidification control.
+      \note Default of 0.00924 kgWater/kgDryAir is equivalent to 12.8C (55F) dewpoint.
+      \note Ignored if Dehumidification Setpoint Schedule specified below
+      \type real
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.00924
+      \units kgWater/kgDryAir
+ A17, \field Humidifier Type
+      \type choice
+      \key None
+      \key ElectricSteam
+      \default None
+ A18, \field Humidifier Availability Schedule Name
+      \note If blank, always available
+      \type object-list
+      \object-list ScheduleNames
+ N24, \field Humidifier Rated Capacity
+      \note Moisture output rate at full rated power input.
+      \note The humidifier does not currently autosize, so the default is very large
+      \note to allow for adequate capacity.
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \default 0.000001
+      \ip-units gal/min
+ N25, \field Humidifier Rated Electric Power
+      \note Electric power input at rated capacity moisture output.
+      \note Power consumption is proportional to moisture output with no part-load penalty.
+      \type real
+      \units W
+      \minimum 0.0
+      \autosizable
+      \default autosize
+      \ip-units W
+ N26, \field Humidifier Constant Setpoint
+      \note The supply air humidity ratio for humidification control.
+      \note Ignored if Humidifier Setpoint Schedule specified below
+      \type real
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.003
+      \units kgWater/kgDryAir
+ A19, \field Dehumidification Setpoint Schedule Name
+      \note Leave blank to use constant setpoint specified in Dehumidification Setpoint above.
+      \note Schedule values must be in units of humidity ratio (kgWater/kgDryAir or lbWater/lbDryAir)
+      \type object-list
+      \object-list ScheduleNames
+ A20; \field Humidifier Setpoint Schedule Name
+      \note Leave blank to use constant setpoint specified in Humidifier Constant Setpoint above.
+      \note Schedule values must be in units of humidity ratio (kgWater/kgDryAir or lbWater/lbDryAir)
+      \type object-list
+      \object-list ScheduleNames
+
+HVACTemplate:Plant:ChilledWaterLoop,
+      \min-fields 21
+      \memo Plant and condenser loops to serve all HVACTemplate
+      \memo chilled water coils, chillers, and towers.
+      \unique-object
+  A1, \field Name
+      \required-field
+  A2, \field Pump Schedule Name
+      \note If blank, always available
+      \note Applies to both chilled water and condenser loop pumps
+      \type object-list
+      \object-list ScheduleNames
+  A3, \field Pump Control Type
+      \note Applies to both chilled water and condenser loop pumps
+      \type choice
+      \key Intermittent
+      \key Continuous
+      \default Intermittent
+  A4, \field Chiller Plant Operation Scheme Type
+      \note Default operation type makes all equipment available
+      \note at all times operating in order of Priority specified
+      \note in HVACTemplate:Plant:Chiller objects.
+      \type choice
+      \key Default
+      \key UserDefined
+      \default Default
+  A5, \field Chiller Plant Equipment Operation Schemes Name
+      \type object-list
+      \object-list PlantOperationSchemes
+      \note Name of a PlantEquipmentOperationSchemes object
+      \note Ignored if Chiller Plant Operation Scheme Type = Default
+  A6, \field Chilled Water Setpoint Schedule Name
+      \note  Leave blank if constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+  N1, \field Chilled Water Design Setpoint
+      \note   Used for sizing and as constant setpoint if no Chilled Water Setpoint Schedule Name is specified.
+      \default 7.22
+      \units C
+  A7, \field Chilled Water Pump Configuration
+      \note VariablePrimaryNoSecondary - variable flow to chillers and coils
+      \note ConstantPrimaryNoSecondary - constant flow to chillers and coils, excess bypassed
+      \note ConstantPrimaryVariableSecondary - constant flow to chillers, variable flow to coils
+      \note VariablePrimaryConstantSecondary - currently unsupported - variable flow to chillers, constant flow to coils
+      \type choice
+      \key ConstantPrimaryNoSecondary
+      \key VariablePrimaryNoSecondary
+      \key ConstantPrimaryVariableSecondary
+      \default ConstantPrimaryNoSecondary
+  N2, \field Primary Chilled Water Pump Rated Head
+      \units Pa
+      \minimum 0.0
+      \default 179352
+      \note default head is 60 feet H2O
+      \ip-units ftH2O
+  N3, \field Secondary Chilled Water Pump Rated Head
+      \units Pa
+      \minimum 0.0
+      \default 179352
+      \note default head is 60 feet H2O
+      \ip-units ftH2O
+  A8, \field Condenser Plant Operation Scheme Type
+      \note Default operation type makes all equipment available
+      \note at all times operating in order of Priority specified
+      \note in HVACTemplate:Plant:Tower objects.
+      \type choice
+      \key Default
+      \key UserDefined
+      \default Default
+      \note  May be left blank if not serving any water cooled chillers
+  A9, \field Condenser Equipment Operation Schemes Name
+      \type object-list
+      \object-list CondenserOperationSchemes
+      \note Name of a CondenserEquipmentOperationSchemes object
+      \note Ignored if Condenser Plant Operation Scheme Type = Default
+      \note  May be left blank if not serving any water cooled chillers
+ A10, \field Condenser Water Temperature Control Type
+      \note  May be left blank if not serving any water cooled chillers
+      \type choice
+      \key OutdoorWetBulbTemperature
+      \key SpecifiedSetpoint
+ A11, \field Condenser Water Setpoint Schedule Name
+      \note  Leave blank if constant setpoint
+      \note  May be left blank if not serving any water cooled chillers
+      \type object-list
+      \object-list ScheduleNames
+  N4, \field Condenser Water Design Setpoint
+      \note  Used for sizing and as constant setpoint if no Condenser Water Setpoint Schedule Name is specified.
+      \note  May be left blank if not serving any water cooled chillers
+      \default 29.4
+      \units C
+  N5, \field Condenser Water Pump Rated Head
+      \note  May be left blank if not serving any water cooled chillers
+      \units Pa
+      \minimum 0.0
+      \default 179352
+      \note default head is 60 feet H2O
+      \ip-units ftH2O
+ A12, \field Chilled Water Setpoint Reset Type
+      \note Overrides Chilled Water Setpoint Schedule Name
+      \type choice
+      \key None
+      \key OutdoorAirTemperatureReset
+      \default None
+  N6, \field Chilled Water Setpoint at Outdoor Dry-Bulb Low
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 12.2
+  N7, \field Chilled Water Reset Outdoor Dry-Bulb Low
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 15.6
+  N8, \field Chilled Water Setpoint at Outdoor Dry-Bulb High
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 6.7
+  N9, \field Chilled Water Reset Outdoor Dry-Bulb High
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 26.7
+ A13, \field Chilled Water Primary Pump Type
+      \note Describes the type of pump configuration used for the primary portion of the chilled water loop.
+      \type choice
+      \key SinglePump
+      \key PumpPerChiller
+      \key TwoHeaderedPumps
+      \key ThreeHeaderedPumps
+      \key FourHeaderedPumps
+      \key FiveHeaderedPumps
+      \default SinglePump
+ A14, \field Chilled Water Secondary Pump Type
+      \note Describes the type of pump configuration used for the secondary portion of the chilled water loop.
+      \type choice
+      \key SinglePump
+      \key TwoHeaderedPumps
+      \key ThreeHeaderedPumps
+      \key FourHeaderedPumps
+      \key FiveHeaderedPumps
+      \default SinglePump
+ A15, \field Condenser Water Pump Type
+      \note Describes the type of pump configuration used for the condenser water loop.
+      \type choice
+      \key SinglePump
+      \key PumpPerTower
+      \key TwoHeaderedPumps
+      \key ThreeHeaderedPumps
+      \key FourHeaderedPumps
+      \key FiveHeaderedPumps
+      \default SinglePump
+  A16,\field Chilled Water Supply Side Bypass Pipe
+      \note Determines if a supply side bypass pipe is present in the chilled water loop.
+      \type choice
+      \key Yes
+      \key No
+      \default Yes
+  A17,\field Chilled Water Demand Side Bypass Pipe
+      \note Determines if a demand side bypass pipe is present in the chilled water loop.
+      \type choice
+      \key Yes
+      \key No
+      \default Yes
+  A18,\field Condenser Water Supply Side Bypass Pipe
+      \note Determines if a supply side bypass pipe is present in the condenser water loop.
+      \type choice
+      \key Yes
+      \key No
+      \default Yes
+  A19,\field Condenser Water Demand Side Bypass Pipe
+      \note Determines if a demand side bypass pipe is present in the condenser water loop.
+      \type choice
+      \key Yes
+      \key No
+      \default Yes
+  A20,\field Fluid Type
+      \type choice
+      \key Water
+      \key EthyleneGlycol30
+      \key EthyleneGlycol40
+      \key EthyleneGlycol50
+      \key EthyleneGlycol60
+      \key PropyleneGlycol30
+      \key PropyleneGlycol40
+      \key PropyleneGlycol50
+      \key PropyleneGlycol60
+      \default Water
+  N10,\field Loop Design Delta Temperature
+      \note The temperature difference used in sizing the loop flow rate.
+      \units deltaC
+      \default 6.67
+  N11,\field Minimum Outdoor Dry Bulb Temperature
+      \note The minimum outdoor dry-bulb temperature that the chilled water loops operate.
+      \note Leave blank for no limit.
+      \units C
+  A21,\field Chilled Water Load Distribution Scheme
+      \type choice
+      \key Optimal
+      \key SequentialLoad
+      \key UniformLoad
+      \key UniformPLR
+      \key SequentialUniformPLR
+      \default SequentialLoad
+  A22;\field Condenser Water Load Distribution Scheme
+      \type choice
+      \key Optimal
+      \key SequentialLoad
+      \key UniformLoad
+      \key UniformPLR
+      \key SequentialUniformPLR
+      \default SequentialLoad
+
+HVACTemplate:Plant:Chiller,
+      \min-fields 7
+      \memo This object adds a chiller to an HVACTemplate:Plant:ChilledWaterLoop.
+  A1, \field Name
+      \required-field
+  A2, \field Chiller Type
+      \required-field
+      \type choice
+      \key DistrictChilledWater
+      \key ElectricCentrifugalChiller
+      \key ElectricScrewChiller
+      \key ElectricReciprocatingChiller
+  N1, \field Capacity
+      \autosizable
+      \default autosize
+      \units W
+      \minimum> 0.0
+  N2, \field Nominal COP
+      \required-field
+      \note Not applicable if Chiller Type is DistrictChilledWater
+      \note Electric Reciprocating Chiller
+      \units W/W
+      \minimum> 0.0
+  A3, \field Condenser Type
+      \note Not applicable if Chiller Type is DistrictChilledWater
+      \type choice
+      \key AirCooled
+      \key WaterCooled
+      \key EvaporativelyCooled
+      \default WaterCooled
+  A4, \field Priority
+      \note If Chiller Plant Operation Scheme Type=Default
+      \note in HVACTemplate:Plant:ChilledWaterLoop, then equipment
+      \note operates in Priority order, 1, 2, 3, etc.
+  N3, \field Sizing Factor
+      \note Multiplies the autosized capacity and flow rates
+      \type real
+      \minimum> 0.0
+      \default 1.0
+  N4, \field Minimum Part Load Ratio
+      \type real
+      \note Part load ratio below which the chiller starts cycling on/off to meet the load.
+      \note Must be less than or equal to Maximum Part Load Ratio.
+      \minimum 0.0
+      \default 0.0
+  N5, \field Maximum Part Load Ratio
+      \type real
+      \note Maximum allowable part load ratio. Must be greater than or equal to Minimum Part Load Ratio.
+      \minimum> 0.0
+      \default 1.0
+  N6, \field Optimum Part Load Ratio
+      \type real
+      \note Optimum part load ratio where the chiller is most efficient.
+      \note Must be greater than or equal to the Minimum Part Load Ratio
+      \note and less than or equal to the Maximum Part Load Ratio.
+      \minimum> 0.0
+      \default 1.0
+  N7, \field Minimum Unloading Ratio
+      \type real
+      \note Part load ratio where the chiller can no longer unload and false loading begins.
+      \note Minimum unloading ratio must be greater than or equal to the Minimum Part Load Ratio
+      \note and less than or equal to the Maximum Part Load Ratio.
+      \minimum 0.0
+      \default 0.25
+  N8; \field Leaving Chilled Water Lower Temperature Limit
+      \type real
+      \default 5.0
+      \units C
+
+HVACTemplate:Plant:Chiller:ObjectReference,
+      \min-fields 4
+      \memo This object references a detailed chiller object and adds it to
+      \memo an HVACTemplate:Plant:ChilledWaterLoop. The user must create a complete
+      \memo detailed chiller object with all required curve or performance objects.
+  A1, \field Name
+      \note The name of this object.
+      \required-field
+  A2, \field Chiller Object Type
+      \type choice
+      \key Chiller:Electric:EIR
+      \key Chiller:Electric:ReformulatedEIR
+      \default Chiller:Electric:EIR
+  A3, \field Chiller Name
+      \note The name of the detailed chiller object.
+      \required-field
+      \type object-list
+      \object-list Chillers
+  N1; \field Priority
+      \note If Chiller Plant Operation Scheme Type=Default
+      \note in HVACTemplate:Plant:ChilledWaterLoop, then equipment
+      \note operates in Priority order, 1, 2, 3, etc.
+
+HVACTemplate:Plant:Tower,
+      \min-fields 9
+      \memo This object adds a cooling tower to an HVACTemplate:Plant:ChilledWaterLoop or MixedWaterLoop.
+  A1, \field Name
+      \required-field
+  A2, \field Tower Type
+      \required-field
+      \type choice
+      \key SingleSpeed
+      \key TwoSpeed
+  N1, \field High Speed Nominal Capacity
+      \note Applicable for tower type SingleSpeed and TwoSpeed
+      \note Nominal tower capacity with entering water at 35C (95F), leaving water at
+      \note 29.44C (85F), entering air at 25.56C (78F) wet-bulb temperature and 35C (95F)
+      \note dry-bulb temperature, with the tower fan operating at high speed. Design water
+      \note flow rate assumed to be 5.382E-8 m3/s per watt(3 gpm/ton). Nominal tower capacity
+      \note times (1.25) gives the actual tower heat rejection at these operating conditions.
+      \autosizable
+      \default autosize
+      \units W
+      \minimum> 0.0
+  N2, \field High Speed Fan Power
+      \note Applicable for tower type SingleSpeed and TwoSpeed
+      \autosizable
+      \default autosize
+      \units W
+      \ip-units W
+      \minimum> 0.0
+  N3, \field Low Speed Nominal Capacity
+      \note Applicable only for Tower Type TwoSpeed
+      \note Nominal tower capacity with entering water at 35C (95F), leaving water at
+      \note 29.44C (85F), entering air at 25.56C (78F) wet-bulb temperature and 35C (95F)
+      \note dry-bulb temperature, with the tower fan operating at low speed. Design water flow
+      \note rate assumed to be 5.382E-8 m3/s per watt of tower high-speed nominal capacity
+      \note (3 gpm/ton). Nominal tower capacity times (1.25) gives the actual tower heat
+      \note rejection at these operating conditions.
+      \autosizable
+      \default autosize
+      \units W
+      \minimum> 0.0
+  N4, \field Low Speed Fan Power
+      \note Applicable only for Tower Type TwoSpeed
+      \autosizable
+      \default autosize
+      \units W
+      \ip-units W
+      \minimum> 0.0
+  N5, \field Free Convection Capacity
+      \note Applicable for Tower Type SingleSpeed and TwoSpeed
+      \note Tower capacity in free convection regime with entering water at 35C (95F),
+      \note leaving water at 29.44C (85F), entering air at 25.56C (78F) wet-bulb temperature
+      \note and 35C (95F) dry-bulb temperature. Design water flow rate assumed to be
+      \note 5.382E-8 m3/s per watt of tower high-speed nominal capacity (3 gpm/ton). Tower
+      \note free convection capacity times (1.25) gives the actual tower heat rejection at
+      \note these operating conditions.
+      \autosizable
+      \default autosize
+      \units W
+      \minimum 0.0
+  A3, \field Priority
+      \note Applicable for all Tower Types
+      \note If Condenser Plant Operation Scheme Type=Default
+      \note in HVACTemplate:Plant:ChilledWaterLoop, then equipment
+      \note operates in Priority order, 1, 2, 3, etc.
+  N6, \field Sizing Factor
+      \note Multiplies the autosized capacity and flow rates
+      \type real
+      \minimum> 0.0
+      \default 1.0
+  A4; \field Template Plant Loop Type
+      \note Specifies if this tower serves a template chilled water loop or mixed water loop
+      \note If left blank, will serve a chilled water loop if present, or a mixed water loop (if
+      \note no chilled water loop is present).
+      \type choice
+      \key ChilledWater
+      \key MixedWater
+
+HVACTemplate:Plant:Tower:ObjectReference,
+      \min-fields 4
+      \memo This object references a detailed cooling tower object and adds it to
+      \memo an HVACTemplate:Plant:ChilledWaterLoop or MixedWaterLoop. The user must create a complete
+      \memo detailed cooling tower object with all required curve or performance objects.
+  A1, \field Name
+      \note The name of this object.
+      \required-field
+  A2, \field Cooling Tower Object Type
+      \type choice
+      \key CoolingTower:SingleSpeed
+      \key CoolingTower:TwoSpeed
+      \key CoolingTower:VariableSpeed
+      \default CoolingTower:SingleSpeed
+  A3, \field Cooling Tower Name
+      \note The name of the detailed cooling tower object.
+      \required-field
+      \type object-list
+      \object-list CoolingTowers
+  N1, \field Priority
+      \note If Condenser Plant Operation Scheme Type=Default
+      \note in HVACTemplate:Plant:ChilledWaterLoop or MixedWaterLoop, then equipment
+      \note operates in Priority order, 1, 2, 3, etc.
+  A4; \field Template Plant Loop Type
+      \note Specifies if this tower serves a template chilled water loop or mixed water loop
+      \note If left blank, will serve a chilled water loop if present, or a mixed water loop (if
+      \note no chilled water loop is present).
+      \type choice
+      \key ChilledWater
+      \key MixedWater
+
+HVACTemplate:Plant:HotWaterLoop,
+      \min-fields 14
+      \unique-object
+      \memo Plant loop to serve all HVACTemplate
+      \memo hot water coils and boilers.
+  A1, \field Name
+      \required-field
+  A2, \field Pump Schedule Name
+      \note If blank, always available
+      \type object-list
+      \object-list ScheduleNames
+  A3, \field Pump Control Type
+      \type choice
+      \key Intermittent
+      \key Continuous
+      \default Intermittent
+  A4, \field Hot Water Plant Operation Scheme Type
+      \note Default operation type makes all equipment available
+      \note at all times operating in order of Priority specified
+      \note in HVACTemplate:Plant:Boiler objects.
+      \type choice
+      \key Default
+      \key UserDefined
+      \default Default
+  A5, \field Hot Water Plant Equipment Operation Schemes Name
+      \type object-list
+      \object-list PlantOperationSchemes
+      \note Name of a PlantEquipmentOperationSchemes object
+      \note Ignored if Plant Operation Scheme Type = Default
+  A6, \field Hot Water Setpoint Schedule Name
+      \note Leave blank if constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+  N1, \field Hot Water Design Setpoint
+      \note  Used for sizing and as constant setpoint if no Setpoint Schedule Name is specified.
+      \default 82.0
+      \units C
+  A7, \field Hot Water Pump Configuration
+      \note VariableFlow - variable flow to boilers and coils, excess bypassed
+      \note ConstantFlow - constant flow to boilers and coils, excess bypassed
+      \type choice
+      \key VariableFlow
+      \key ConstantFlow
+      \default ConstantFlow
+  N2, \field Hot Water Pump Rated Head
+      \units Pa
+      \minimum 0.0
+      \default 179352
+      \note Default head is 60 feet H2O
+      \ip-units ftH2O
+  A8, \field Hot Water Setpoint Reset Type
+      \note Overrides Hot Water Setpoint Schedule Name
+      \type choice
+      \key None
+      \key OutdoorAirTemperatureReset
+      \default None
+  N3, \field Hot Water Setpoint at Outdoor Dry-Bulb Low
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 82.2
+  N4, \field Hot Water Reset Outdoor Dry-Bulb Low
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default -6.7
+  N5, \field Hot Water Setpoint at Outdoor Dry-Bulb High
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 65.6
+  N6, \field Hot Water Reset Outdoor Dry-Bulb High
+      \note Applicable only for OutdoorAirTemperatureReset control.
+      \units C
+      \default 10.0
+  A9, \field Hot Water Pump Type
+      \note Describes the type of pump configuration used for the hot water loop.
+      \type choice
+      \key SinglePump
+      \key PumpPerBoiler
+      \key TwoHeaderedPumps
+      \key ThreeHeaderedPumps
+      \key FourHeaderedPumps
+      \key FiveHeaderedPumps
+      \default SinglePump
+  A10,\field Supply Side Bypass Pipe
+      \note Determines if a supply side bypass pipe is present in the hot water loop.
+      \type choice
+      \key Yes
+      \key No
+      \default Yes
+  A11,\field Demand Side Bypass Pipe
+      \note Determines if a demand side bypass pipe is present in the hot water loop.
+      \type choice
+      \key Yes
+      \key No
+      \default Yes
+  A12,\field Fluid Type
+      \type choice
+      \key Water
+      \key EthyleneGlycol30
+      \key EthyleneGlycol40
+      \key EthyleneGlycol50
+      \key EthyleneGlycol60
+      \key PropyleneGlycol30
+      \key PropyleneGlycol40
+      \key PropyleneGlycol50
+      \key PropyleneGlycol60
+      \default Water
+  N7, \field Loop Design Delta Temperature
+      \note The temperature difference used in sizing the loop flow rate.
+      \units deltaC
+      \default 11.0
+  N8, \field Maximum Outdoor Dry Bulb Temperature
+      \note The maximum outdoor dry-bulb temperature that the hot water loops operate.
+      \note Leave blank for no limit.
+      \units C
+  A13;\field Load Distribution Scheme
+      \type choice
+      \key Optimal
+      \key SequentialLoad
+      \key UniformLoad
+      \key UniformPLR
+      \key SequentialUniformPLR
+      \default SequentialLoad
+
+HVACTemplate:Plant:Boiler,
+      \min-fields 7
+      \memo This object adds a boiler to an HVACTemplate:Plant:HotWaterLoop or MixedWaterLoop.
+  A1, \field Name
+      \required-field
+  A2, \field Boiler Type
+      \required-field
+      \type choice
+      \key DistrictHotWater
+      \key HotWaterBoiler
+      \key CondensingHotWaterBoiler
+  N1, \field Capacity
+      \autosizable
+      \default autosize
+      \units W
+      \minimum> 0.0
+  N2, \field Efficiency
+      \note Not applicable  if Boiler Type is DistrictHotWater
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.8
+  A3, \field Fuel Type
+      \note Not applicable  if Boiler Type is DistrictHotWater
+      \type choice
+      \key Electricity
+      \key NaturalGas
+      \key Propane
+      \key FuelOilNo1
+      \key FuelOilNo2
+      \key Coal
+      \key Diesel
+      \key Gasoline
+      \key OtherFuel1
+      \key OtherFuel2
+  A4, \field Priority
+      \note If Hot Water Plant Operation Scheme Type=Default
+      \note in HVACTemplate:Plant:HotWaterLoop, then equipment
+      \note operates in priority order, 1, 2, 3, etc.
+  N3, \field Sizing Factor
+      \note Multiplies the autosized capacity and flow rates
+      \type real
+      \minimum> 0.0
+      \default 1.0
+  N4, \field Minimum Part Load Ratio
+      \type real
+      \minimum 0.0
+      \default 0.0
+  N5, \field Maximum Part Load Ratio
+      \type real
+      \minimum 0.0
+      \default 1.1
+  N6, \field Optimum Part Load Ratio
+      \type real
+      \minimum 0.0
+      \default 1.0
+  N7, \field Water Outlet Upper Temperature Limit
+      \type real
+      \units C
+      \default 100.0
+  A5; \field Template Plant Loop Type
+      \note Specifies if this boiler serves a template hot water loop or mixed water loop
+      \note If left blank, will serve a hot water loop if present, or a mixed water loop (if
+      \note no hot water loop is present).
+      \type choice
+      \key HotWater
+      \key MixedWater
+
+HVACTemplate:Plant:Boiler:ObjectReference,
+      \min-fields 4
+      \memo This object references a detailed boiler object and adds it to
+      \memo an HVACTemplate:Plant:HotWaterLoop or MixedWaterLoop. The user must create a complete
+      \memo detailed boiler object with all required curve or performance objects.
+  A1, \field Name
+      \note The name of this object.
+      \required-field
+  A2, \field Boiler Object Type
+      \type choice
+      \key Boiler:HotWater
+      \default Boiler:HotWater
+  A3, \field Boiler Name
+      \note The name of the detailed boiler object.
+      \required-field
+      \type object-list
+      \object-list Boilers
+  N1, \field Priority
+      \note If Hot Water Plant Operation Scheme Type=Default
+      \note in HVACTemplate:Plant:HotWaterLoop or MixedWaterLoop, then equipment
+      \note operates in Priority order, 1, 2, 3, etc.
+  A4; \field Template Plant Loop Type
+      \note Specifies if this boiler serves a template hot water loop or mixed water loop
+      \note If left blank, will serve a hot water loop if present, or a mixed water loop (if
+      \note no hot water loop is present).
+      \type choice
+      \key HotWater
+      \key MixedWater
+
+HVACTemplate:Plant:MixedWaterLoop,
+      \min-fields 11
+      \memo Central plant loop portion of a water source heat pump system.
+      \unique-object
+  A1, \field Name
+      \required-field
+  A2, \field Pump Schedule Name
+      \note If blank, always available
+      \note Applies to both chilled water and condenser loop pumps
+      \type object-list
+      \object-list ScheduleNames
+  A3, \field Pump Control Type
+      \note Applies to both chilled water and condenser loop pumps
+      \type choice
+      \key Intermittent
+      \key Continuous
+      \default Intermittent
+  A4, \field Operation Scheme Type
+      \note Default operation type makes all equipment available
+      \note at all times operating in order of Priority specified
+      \note in HVACTemplate:Plant:Boiler and HVACTemplate:Plant:Tower objects.
+      \type choice
+      \key Default
+      \key UserDefined
+      \default Default
+  A5, \field Equipment Operation Schemes Name
+      \type object-list
+      \object-list PlantOperationSchemes
+      \note Name of a PlantEquipmentOperationSchemes object
+      \note Ignored if Plant Operation Scheme Type = Default
+  A6, \field High Temperature Setpoint Schedule Name
+      \note Leave blank if constant setpoint
+      \type object-list
+      \object-list ScheduleNames
+  N1, \field High Temperature Design Setpoint
+      \note  Used for sizing and as constant setpoint if no Setpoint Schedule Name is specified.
+      \default 33.0
+      \units C
+  A7, \field Low Temperature Setpoint Schedule Name
+      \note  Leave blank if constant setpoint
+      \note  May be left blank if not serving any water cooled chillers
+      \type object-list
+      \object-list ScheduleNames
+  N2, \field Low Temperature Design Setpoint
+      \note  Used for sizing and as constant setpoint if no Condenser Water Setpoint Schedule Name is specified.
+      \note  May be left blank if not serving any water cooled chillers
+      \default 20.0
+      \units C
+  A8, \field Water Pump Configuration
+      \note VariableFlow - variable flow to boilers and coils, excess bypassed
+      \note ConstantFlow - constant flow to boilers and coils, excess bypassed
+      \type choice
+      \key VariableFlow
+      \key ConstantFlow
+      \default ConstantFlow
+  N3, \field Water Pump Rated Head
+      \note  May be left blank if not serving any water cooled chillers
+      \units Pa
+      \minimum 0.0
+      \default 179352
+      \note default head is 60 feet H2O
+      \ip-units ftH2O
+  A9, \field Water Pump Type
+      \note Describes the type of pump configuration used for the mixed water loop.
+      \type choice
+      \key SinglePump
+      \key PumpPerTowerOrBoiler
+      \key TwoHeaderedPumps
+      \key ThreeHeaderedPumps
+      \key FourHeaderedPumps
+      \key FiveHeaderedPumps
+      \default SinglePump
+  A10,\field Supply Side Bypass Pipe
+      \note Determines if a supply side bypass pipe is present in the hot water loop.
+      \type choice
+      \key Yes
+      \key No
+      \default Yes
+  A11,\field Demand Side Bypass Pipe
+      \note Determines if a demand side bypass pipe is present in the hot water loop.
+      \type choice
+      \key Yes
+      \key No
+      \default Yes
+  A12,\field Fluid Type
+      \type choice
+      \key Water
+      \key EthyleneGlycol30
+      \key EthyleneGlycol40
+      \key EthyleneGlycol50
+      \key EthyleneGlycol60
+      \key PropyleneGlycol30
+      \key PropyleneGlycol40
+      \key PropyleneGlycol50
+      \key PropyleneGlycol60
+      \default Water
+  N4, \field Loop Design Delta Temperature
+      \note The temperature difference used in sizing the loop flow rate.
+      \units deltaC
+      \default 5.6
+  A13;\field Load Distribution Scheme
+      \type choice
+      \key Optimal
+      \key SequentialLoad
+      \key UniformLoad
+      \key UniformPLR
+      \key SequentialUniformPLR
+      \default SequentialLoad
+
+\group HVAC Design Objects
+
+DesignSpecification:OutdoorAir,
+  \min-fields 1
+  \memo This object is used to describe general outdoor air requirements which
+  \memo are referenced by other objects.
+  A1, \field Name
+      \required-field
+      \type alpha
+      \reference DesignSpecificationOutdoorAirNames
+  A2, \field Outdoor Air Method
+      \type choice
+      \key Flow/Person
+      \key Flow/Area
+      \key Flow/Zone
+      \key AirChanges/Hour
+      \key Sum
+      \key Maximum
+      \key IndoorAirQualityProcedure
+      \key ProportionalControlBasedOnDesignOccupancy
+      \key ProportionalControlBasedOnOccupancySchedule
+      \default Flow/Person
+      \note Flow/Person => Outdoor Air Flow per Person * Occupancy = Design Flow Rate,
+      \note Flow/Area => Outdoor Air Flow per Zone Floor Area * Zone Floor Area = Design Flow Rate,
+      \note Flow/Zone => Outdoor Air Flow per Zone = Design Flow Rate,
+      \note AirChanges/Hour => Outdoor Air Flow Air Changes per Hour * Zone Volume adjusted for m3/s = Design Flow Rate
+  N1, \field Outdoor Air Flow per Person
+      \type real
+      \units m3/s-person
+      \default 0.00944
+      \minimum 0
+      \note 0.00944 m3/s is equivalent to 20 cfm per person
+      \note This input is only used if the field Outdoor Air Method is Flow/Person, Sum, or Maximum
+      \note For sizing, the design number of occupants is used. For outdoor air flow control, the use
+      \note of design occupants or current occupants depends on the component and DCV options.
+      \note AirTerminal:SingleDuct:VAV:NoReheat, AirTerminal:SingleDuct:VAV:Reheat use the DCV flag specified in Controller:MechanicalVentilation
+      \note AirTerminal:DualDuct:VAV:OutdoorAir and ZoneHVAC:IdealLoadsAirSystem have their own DCV control input.
+      \note ZoneHVAC:FourPipeFanCoil always uses current occupants.
+  N2, \field Outdoor Air Flow per Zone Floor Area
+      \units m3/s-m2
+      \default 0.0
+      \minimum 0
+      \note This input is only used if the field Outdoor Air Method is Flow/Area, Sum, or Maximum
+  N3, \field Outdoor Air Flow per Zone
+      \type real
+      \units m3/s
+      \default 0.0
+      \minimum 0
+      \note This input is only used if the field Outdoor Air Method is Flow/Zone, Sum, or Maximum
+  N4, \field Outdoor Air Flow Air Changes per Hour
+      \units 1/hr
+      \type real
+      \default 0.0
+      \minimum 0
+      \note This input is only used if the field Outdoor Air Method is AirChanges/Hour, Sum, or Maximum
+  A3, \field Outdoor Air Schedule Name
+      \type object-list
+      \object-list ScheduleNames
+      \note Schedule values are multiplied by the Outdoor Air Flow rate calculated using
+      \note the previous four inputs. Schedule values are limited to 0 to 1. If left blank, the schedule defaults to 1.0.
+      \note This schedule is ignored during sizing. All other components which reference this design specification
+      \note use the current schedule value to calculate the current outdoor air requirement. This includes
+      \note AirTerminal:SingleDuct:VAV:NoReheat, AirTerminal:SingleDuct:VAV:Reheat, AirTerminal:DualDuct:VAV:OutdoorAir,
+      \note ZoneHVAC:FourPipeFanCoil, and ZoneHVAC:IdealLoadsAirSystem.
+      \note This schedule will also be applied by Controller:MechanicalVentilation for all System Outdoor Air Methods.
+  A4; \field Proportional Control Minimum Outdoor Air Flow Rate Schedule Name
+      \type object-list
+      \object-list ScheduleNames
+      \note This input is only used to calculate the minimum outdoor air flow rate when the field
+      \note System Outdoor Air Method = ProportionalControlBasedOnDesignOARate in Controller:MechanicalVentilation.
+
+DesignSpecification:ZoneAirDistribution,
+  \min-fields 1
+  \memo This object is used to describe zone air distribution in terms of air distribution
+  \memo effectiveness and secondary recirculation fraction. It is referenced by Sizing:Zone
+  \memo and Controller:MechanicalVentilation objects
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference DesignSpecificationZoneAirDistributionNames
+   N1,  \field Zone Air Distribution Effectiveness in Cooling Mode
+        \type real
+        \default 1.0
+        \minimum> 0.0
+        \units dimensionless
+   N2,  \field Zone Air Distribution Effectiveness in Heating Mode
+        \type real
+        \default 1.0
+        \minimum> 0.0
+        \units dimensionless
+   A2,  \field Zone Air Distribution Effectiveness Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note optionally used to replace Zone Air Distribution Effectiveness in Cooling and
+        \note Heating Mode
+   N3,  \field Zone Secondary Recirculation Fraction
+        \type real
+        \default 0.0
+        \minimum 0.0
+        \units dimensionless
+   N4;  \field Minimum Zone Ventilation Efficiency
+        \type real
+        \default 0.0
+        \minimum 0.0
+        \maximum 1.0
+        \units dimensionless
+
+Sizing:Parameters,
+  \unique-object
+      \memo Specifies global heating and cooling sizing factors/ratios.
+      \memo These ratios are applied at the zone level to all of the zone heating and cooling loads
+      \memo and air flow rates. Then these new loads and air flow rates are used to calculate the
+      \memo system level flow rates and capacities and are used in all component sizing calculations.
+      \memo Specifies the width (in load timesteps) of a moving average window
+      \memo which is used to smooth the peak load across more than one timestep.
+  \min-fields 1
+  N1, \field Heating Sizing Factor
+      \type real
+      \minimum> 0.0
+      \default 1.0
+  N2, \field Cooling Sizing Factor
+      \type real
+      \minimum> 0.0
+      \default 1.0
+  N3; \field Timesteps in Averaging Window
+      \note blank => set the timesteps in averaging window to
+      \note Number of Timesteps per Hour resulting in a 1 hour averaging window
+      \note default is number of timesteps for 1 hour averaging window
+      \type integer
+      \minimum 1
+
+Sizing:Zone,
+      \memo Specifies the data needed to perform a zone design air flow calculation.
+      \memo The calculation is done for every sizing period included in the input. The maximum
+      \memo cooling and heating load and cooling, heating, and ventilation air flows are then saved
+      \memo for system level and zone component design calculations.
+  \min-fields 27
+  A1, \field Zone or ZoneList Name
+      \required-field
+      \type object-list
+      \object-list ZoneAndZoneListNames
+  A2, \field Zone Cooling Design Supply Air Temperature Input Method
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \default SupplyAirTemperature
+  N1, \field Zone Cooling Design Supply Air Temperature
+      \type real
+      \units C
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+  N2, \field Zone Cooling Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \note Zone Cooling Design Supply Air Temperature is only used when Zone Cooling Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be subtracted from the zone temperature
+      \note at peak load to calculate the Zone Cooling Design Supply Air Temperature.
+  A3, \field Zone Heating Design Supply Air Temperature Input Method
+      \type choice
+      \key SupplyAirTemperature
+      \key TemperatureDifference
+      \default SupplyAirTemperature
+  N3, \field Zone Heating Design Supply Air Temperature
+      \type real
+      \units C
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = SupplyAirTemperature
+  N4, \field Zone Heating Design Supply Air Temperature Difference
+      \type real
+      \units deltaC
+      \note Zone Heating Design Supply Air Temperature is only used when Zone Heating Design
+      \note Supply Air Temperature Input Method = TemperatureDifference
+      \note The absolute value of this field will be added to the zone temperature
+      \note at peak load to calculate the Zone Heating Design Supply Air Temperature.
+  N5, \field Zone Cooling Design Supply Air Humidity Ratio
+      \required-field
+      \minimum 0.0
+      \type real
+      \units kgWater/kgDryAir
+  N6, \field Zone Heating Design Supply Air Humidity Ratio
+      \required-field
+      \minimum 0.0
+      \type real
+      \units kgWater/kgDryAir
+  A4, \field Design Specification Outdoor Air Object Name
+      \type object-list
+      \object-list DesignSpecificationOutdoorAirNames
+  N7, \field Zone Heating Sizing Factor
+      \note if blank or zero, global heating sizing factor from Sizing:Parameters is used.
+      \minimum 0
+  N8, \field Zone Cooling Sizing Factor
+      \note if blank or zero, global cooling sizing factor from Sizing:Parameters is used.
+      \minimum 0
+  A5, \field Cooling Design Air Flow Method
+      \type choice
+      \key Flow/Zone
+      \key DesignDay
+      \key DesignDayWithLimit
+      \default DesignDay
+  N9, \field Cooling Design Air Flow Rate
+      \type real
+      \units m3/s
+      \minimum 0
+      \default 0
+      \note This input is used if Cooling Design Air Flow Method is Flow/Zone
+      \note This value will be multiplied by the global or zone sizing factor and
+      \note by zone multipliers.
+  N10,\field Cooling Minimum Air Flow per Zone Floor Area
+      \type real
+      \units m3/s-m2
+      \minimum 0
+      \default .000762
+      \note default is .15 cfm/ft2
+      \note This input is used if Cooling Design Air Flow Method is DesignDayWithLimit
+  N11,\field Cooling Minimum Air Flow
+      \type real
+      \units m3/s
+      \minimum 0
+      \default 0
+      \note This input is used if Cooling Design Air Flow Method is DesignDayWithLimit
+  N12,\field Cooling Minimum Air Flow Fraction
+      \note fraction of the Cooling design Air Flow Rate
+      \type real
+      \minimum 0
+      \default 0.2
+      \note This input is currently used in sizing the VAV air terminal unit and fan minimum flow rate
+      \note It does not currently affect other component autosizing.
+  A6, \field Heating Design Air Flow Method
+      \type choice
+      \key Flow/Zone
+      \key DesignDay
+      \key DesignDayWithLimit
+      \default DesignDay
+  N13,\field Heating Design Air Flow Rate
+      \type real
+      \units m3/s
+      \minimum 0
+      \default 0
+      \note This input is used if Heating Design Air Flow Method is Flow/Zone.
+      \note This value will be multiplied by the global or zone sizing factor and
+      \note by zone multipliers.
+  N14,\field Heating Maximum Air Flow per Zone Floor Area
+      \type real
+      \units m3/s-m2
+      \minimum 0
+      \default .002032
+      \note default is .40 cfm/ft2
+      \note This field is used to size the heating design flow rate when Heating Design Air Flow Method = Flow/Zone.
+      \note This input is used for autosizing components when Heating Design Air Flow Method = DesignDayWithLimit.
+  N15,\field Heating Maximum Air Flow
+      \type real
+      \units m3/s
+      \minimum 0
+      \default .1415762
+      \note default is 300 cfm
+      \note This input is used for autosizing components when Heating Design Air Flow Method = DesignDayWithLimit.
+  N16,\field Heating Maximum Air Flow Fraction
+      \note fraction of the Heating Design Air Flow Rate
+      \type real
+      \minimum 0
+      \default 0.3
+      \note This input is used for autosizing components when Heating Design Air Flow Method = DesignDayWithLimit.
+  A7, \field Design Specification Zone Air Distribution Object Name
+      \type object-list
+      \object-list DesignSpecificationZoneAirDistributionNames
+  A8, \field Account for Dedicated Outdoor Air System
+      \note account for effect of dedicated outdoor air system supplying air directly to the zone
+      \type choice
+      \key Yes
+      \key No
+      \default No
+  A9, \field Dedicated Outdoor Air System Control Strategy
+      \note 1)supply neutral ventilation air; 2)supply neutral dehumidified and reheated
+      \note ventilation air; 3)supply cold ventilation air
+      \type choice
+      \key NeutralSupplyAir
+      \key NeutralDehumidifiedSupplyAir
+      \key ColdSupplyAir
+      \default NeutralSupplyAir
+  N17,\field Dedicated Outdoor Air Low Setpoint Temperature for Design
+      \type real
+      \units C
+      \autosizable
+      \default autosize
+  N18;\field Dedicated Outdoor Air High Setpoint Temperature for Design
+      \type real
+      \units C
+      \autosizable
+      \default autosize
+
+DesignSpecification:ZoneHVAC:Sizing,
+  \min-fields 1
+  \memo This object is used to describe general scalable zone HVAC equipment sizing which
+  \memo are referenced by other objects.
+  A1, \field Name
+      \required-field
+      \type alpha
+      \reference DesignSpecificationZoneHVACSizingName
+  A2, \field Cooling Supply Air Flow Rate Method
+      \type choice
+      \key None
+      \key SupplyAirFlowRate
+      \key FlowPerFloorArea
+      \key FractionOfAutosizedCoolingAirflow
+      \key FlowPerCoolingCapacity
+      \default SupplyAirFlowRate
+      \note Enter the method used to determine the cooling supply air volume flow rate.
+      \note None is used when a cooling coil is not included in the Zone HVAC Equip or this field
+      \note may be blank. SupplyAirFlowRate => selected when the magnitude of the supply air volume
+      \note flow rate is specified. FlowPerFloorArea => selected when the supply air volume flow rate
+      \note is determined from total floor area served by the Zone HVAC unit and Flow Per Floor Area
+      \note value specified. FractionOfAutosizedCoolingAirflow => is selected when the supply air volume
+      \note is determined from a user specified fraction and the autosized cooling supply air flow rate
+      \note value determined by the simulation. FlowPerCoolingCapacity => is selected when the supply
+      \note air volume is determined from user specified flow per Cooling Capacity and Cooling Capacity
+      \note determined by the simulation.
+  N1, \field Cooling Supply Air Flow Rate
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \autosizable
+      \note Enter the magnitude of supply air volume flow rate during cooling operation.
+      \note Required field when Cooling Supply Air Flow Rate Method is SupplyAirFlowRate.
+      \note This field may be blank if a cooling coil is not included in the Zone HVAC equipment.
+  N2, \field Cooling Supply Air Flow Rate Per Floor Area
+      \type real
+      \units m3/s-m2
+      \minimum 0.0
+      \note Enter the cooling supply air volume flow rate per total conditioned floor area.
+      \note Required field when Cooling Supply Air Flow Rate Method is FlowPerFloorArea.
+      \note This field may be blank if a cooling coil is not included in the Zone HVAC equipment.
+  N3, \field Cooling Fraction of Autosized Cooling Supply Air Flow Rate
+      \type real
+      \minimum 0.0
+      \note Enter the supply air volume flow rate as a fraction of the cooling supply air flow rate.
+      \note Required field when Cooling Supply Air Flow Rate Method is
+      \note FractionOfAutosizedCoolingAirflow.
+      \note This field may be blank if a cooling coil is not included in the Zone HVAC equipment.
+  N4, \field Cooling Supply Air Flow Rate Per Unit Cooling Capacity
+      \type real
+      \units m3/s-W
+      \minimum 0.0
+      \note Enter the cooling supply air volume flow rate unit cooling capacity.
+      \note Required field when Cooling Supply Air Flow Rate Method is
+      \note FlowPerCoolingCapacity. This field may be blank if a cooling coil is not
+      \note included in the Zone HVAC equipment.
+  A3, \field No Load Supply Air Flow Rate Method
+      \type choice
+      \key None
+      \key SupplyAirFlowRate
+      \key FlowPerFloorArea
+      \key FractionOfAutosizedCoolingAirflow
+      \key FractionOfAutosizedHeatingAirflow
+      \default SupplyAirFlowRate
+      \note Enter the method used to determine the supply air volume flow rate When No Cooling or Heating
+      \note is Required. None is used when a cooling or heating coil is not included in the Zone HVAC
+      \note Equipment or this field may be blank. SupplyAirFlowRate => selected when the magnitude of the
+      \note supply air volume flow rate is specified. FlowPerFloorArea => selected when the supply air
+      \note volume flow rate is determined from total floor area served by the Zone HVAC unit and Flow Per
+      \note Floor Area is specified. FractionOfAutosizedCoolingAirflow => is selected when the supply
+      \note air volume is determined from a user specified fraction and the Autosized cooling supply
+      \note air flow rate value determined by the simulation. FractionOfAutosizedHeatingAirflow => is
+      \note selected when the supply air volume is determined from a user specified fraction and the
+      \note Autosized heating supply air flow rate value determined by the simulation.
+  N5, \field No Load Supply Air Flow Rate
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \autosizable
+      \note Enter the magnitude of the supply air volume flow rate during when no cooling or heating
+      \note is required. Required field when No Load Supply Air Flow Rate Method
+      \note is SupplyAirFlowRate.
+  N6, \field No Load Supply Air Flow Rate Per Floor Area
+      \type real
+      \units m3/s-m2
+      \minimum 0.0
+      \note Enter the supply air volume flow rate per total floor area.
+      \note Required field when No Load Supply Air Flow Rate Method
+      \note is FlowPerFloorArea.
+  N7, \field No Load Fraction of Cooling Supply Air Flow Rate
+      \type real
+      \minimum 0.0
+      \note Enter the supply air volume flow rate as a fraction of the cooling supply air flow rate.
+      \note Required field when No Load Supply Air Flow Rate Method
+      \note is FractionOfAutosizedCoolingAirflow.
+  N8, \field No Load Fraction of Heating Supply Air Flow Rate
+      \type real
+      \minimum 0.0
+      \note Enter the supply air volume flow rate as a fraction of the heating supply air flow rate.
+      \note Required field when No Load Supply Air Flow Rate Method
+      \note is FractionOfAutosizedHeatingAirflow.
+  A4, \field Heating Supply Air Flow Rate Method
+      \type choice
+      \key None
+      \key SupplyAirFlowRate
+      \key FlowPerFloorArea
+      \key FractionOfAutosizedHeatingAirflow
+      \key FlowPerHeatingCapacity
+      \default SupplyAirFlowRate
+      \note Enter the method used to determine the heating supply air volume flow rate.
+      \note None is used when a heating coil is not included in the Zone HVAC Equipment or this field may
+      \note be blank. SupplyAirFlowRate => selected when the magnitude of the heating supply air volume
+      \note flow rate is specified. FlowPerFloorArea => selected when the supply air volume flow rate is
+      \note determined from total floor area served by a Zone HVAC unit and user specified value of Flow
+      \note Per Floor Area. FractionOfAutosizedHeatingAirflow => is selected when the supply air volume
+      \note is determined from a user specified fraction and the Autosized heating supply air flow rate
+      \note value determined by the simulation. FlowPerHeatingCapacity => is selected when the supply
+      \note air volume is determined from user specified flow per Heating Capacity and Heating Capacity
+      \note determined by the simulation.
+  N9, \field Heating Supply Air Flow Rate
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \autosizable
+      \note Enter the magnitude of the supply air volume flow rate during heating operation.
+      \note Required field when Heating Supply Air Flow Rate Method is SupplyAirFlowRate.
+      \note This field may be blank if a heating coil is not included in the Zone HVAC equipment.
+ N10, \field Heating Supply Air Flow Rate Per Floor Area
+      \type real
+      \units m3/s-m2
+      \minimum 0.0
+      \note Enter the heating supply air volume flow rate per total conditioned floor area.
+      \note Required field when Heating Supply Air Flow Rate Method is FlowPerFloorArea.
+      \note This field may be blank if a heating coil is not included in the Zone HVAC equipment.
+ N11, \field Heating Fraction of Heating Supply Air Flow Rate
+      \type real
+      \minimum 0.0
+      \note Enter the supply air volume flow rate as a fraction of the heating supply air flow rate.
+      \note Required field when Heating Supply Air Flow Rate Method is
+      \note FractionOfAutosizedHeatingAirflow.
+      \note This field may be blank if a heating coil is not included in the Zone HVAC equipment.
+ N12, \field Heating Supply Air Flow Rate Per Unit Heating Capacity
+      \type real
+      \units m3/s-W
+      \minimum 0.0
+      \note Enter the supply air volume flow rate per unit heating capacity.
+      \note Required field when Heating Supply Air Flow Rate Method is
+      \note FlowPerHeatingCapacity.
+      \note This field may be blank if a heating coil is not included in the Zone HVAC equipment.
+  A5, \field Cooling Design Capacity Method
+      \type choice
+      \key None
+      \key CoolingDesignCapacity
+      \key CapacityPerFloorArea
+      \key FractionOfAutosizedCoolingCapacity
+      \default None
+      \note Enter the method used to determine the cooling design capacity for scalable sizing.
+      \note None is used when a cooling coils is not included in the Zone HVAC Equipment or
+      \note this field may be blank. If this input field is left blank, then the design cooling
+      \note capacity is set to zero. CoolingDesignCapacity => selected when the design cooling capacity
+      \note value is specified or auto-sized. CapacityPerFloorArea => selected when the design cooling
+      \note capacity is determine from user specified cooling capacity per floor area and zone floor area.
+      \note FractionOfAutosizedCoolingCapacity => is selected when the design cooling capacity is
+      \note determined from a user specified fraction and the auto-sized design cooling capacity.
+ N13, \field Cooling Design Capacity
+      \type real
+      \units W
+      \minimum 0.0
+      \autosizable
+      \note Enter the design cooling capacity. Required field when the cooling design capacity method
+      \note CoolingDesignCapacity.
+ N14, \field Cooling Design Capacity Per Floor Area
+      \type real
+      \units W/m2
+      \minimum 0.0
+      \note Enter the cooling design capacity per zone floor area. Required field when the cooling design
+      \note capacity method field is CapacityPerFloorArea.
+ N15, \field Fraction of Autosized Cooling Design Capacity
+      \type real
+      \minimum 0.0
+      \note Enter the fraction of auto-sized cooling design capacity. Required field when the cooling
+      \note design capacity method field is FractionOfAutosizedCoolingCapacity.
+  A6, \field Heating Design Capacity Method
+      \type choice
+      \key None
+      \key HeatingDesignCapacity
+      \key CapacityPerFloorArea
+      \key FractionOfAutosizedHeatingCapacity
+      \default None
+      \note Enter the method used to determine the heating design capacity for scalable sizing.
+      \note None is used when a heating coil is not included in the Zone HVAC Equipment or
+      \note this field may be blank. If this input field is left blank, then the design heating
+      \note capacity is set to zero. HeatingDesignCapacity => selected when the design heating capacity
+      \note value is specified or auto-sized. CapacityPerFloorArea => selected when the design cooling
+      \note capacity is determine from user specified heating capacity per flow area and zone floor area.
+      \note FractionOfAutosizedHeatingCapacity => is selected when the design heating capacity is
+      \note determined from a user specified fraction and the auto-sized design heating capacity
+ N16, \field Heating Design Capacity
+      \type real
+      \units W
+      \minimum 0.0
+      \autosizable
+      \note Enter the design heating capacity. Required field when the heating design capacity method
+      \note HeatingDesignCapacity.
+ N17, \field Heating Design Capacity Per Floor Area
+      \type real
+      \units W/m2
+      \minimum 0.0
+      \note Enter the heating design capacity per zone floor area. Required field when the heating design
+      \note capacity method field is CapacityPerFloorArea.
+ N18; \field Fraction of Autosized Heating Design Capacity
+      \type real
+      \minimum 0.0
+      \note Enter the fraction of auto-sized heating design capacity. Required field when capacity the
+      \note heating design capacity method field is FractionOfAutosizedHeatingCapacity.
+
+DesignSpecification:AirTerminal:Sizing,
+  \min-fields 1
+  \memo This object is used to scale the sizing of air terminal units.
+  A1, \field Name
+      \note This name may be referenced by a ZoneHVAC:AirDistributionUnit object.
+      \required-field
+      \type alpha
+      \reference DesignSpecificationAirTerminalSizingName
+  N1, \field Fraction of Design Cooling Load
+      \note The fraction of the design sensible cooling load to be met by this terminal unit.
+      \note This fraction is applied after the Zone Cooling Sizing Factor (see Sizing:Zone).
+      \type real
+      \units dimensionless
+      \minimum 0.0
+      \default 1.0
+  N2, \field Cooling Design Supply Air Temperature Difference Ratio
+      \note This ratio adjusts the supply air temperature difference used to calculate
+      \note the cooling design supply air flow rate for this terminal unit.
+      \type real
+      \units dimensionless
+      \minimum> 0.0
+      \default 1.0
+  N3, \field Fraction of Design Heating Load
+      \note The fraction of the design sensible heating load to be met by this terminal unit.
+      \note This fraction is applied after the Zone Heating Sizing Factor (see Sizing:Zone).
+      \type real
+      \units dimensionless
+      \minimum 0.0
+      \default 1.0
+  N4, \field Heating Design Supply Air Temperature Difference Ratio
+      \note This ratio adjusts the supply air temperature difference used to calculate
+      \note the heating design supply air flow rate for this terminal unit.
+      \type real
+      \units dimensionless
+      \minimum> 0.0
+      \default 1.0
+  N5; \field Fraction of Minimum Outdoor Air Flow
+      \note The fraction of the zone minimum outdoor air requirement to be met by this terminal unit.
+      \type real
+      \units dimensionless
+      \minimum 0.0
+      \default 1.0
+
+Sizing:System,
+      \memo Specifies the input needed to perform sizing calculations for a central forced air
+      \memo system. System design air flow, heating capacity, and cooling capacity will be calculated
+      \memo using this input data.
+      \min-fields 37
+  A1, \field AirLoop Name
+      \required-field
+      \type object-list
+      \object-list AirPrimaryLoops
+  A2, \field Type of Load to Size On
+      \note Specifies the basis for sizing the system supply air flow rate
+      \note Sensible and Total use the zone design air flow rates to size the system supply air flow rate
+      \note The cooling coil will then be sized at either the peak Sensible or Total flow rate and conditions
+      \note The heating coil is always sized at the peak sensible heating load.
+      \note VentilationRequirement uses the system ventilation requirement
+      \type choice
+      \key Sensible
+      \key Total
+      \key VentilationRequirement
+      \default Sensible
+  N1, \field Design Outdoor Air Flow Rate
+      \type real
+      \default autosize
+      \minimum 0.0
+      \units m3/s
+      \autosizable
+  N2, \field Central Heating Maximum System Air Flow Ratio
+      \type real
+      \minimum 0.0
+      \maximum 1.0
+      \default autosize
+      \autosizable
+  N3, \field Preheat Design Temperature
+      \required-field
+      \type real
+      \units C
+  N4, \field Preheat Design Humidity Ratio
+      \required-field
+      \type real
+      \units kgWater/kgDryAir
+  N5, \field Precool Design Temperature
+      \required-field
+      \type real
+      \units C
+  N6, \field Precool Design Humidity Ratio
+      \required-field
+      \type real
+      \units kgWater/kgDryAir
+  N7, \field Central Cooling Design Supply Air Temperature
+      \required-field
+      \type real
+      \units C
+  N8, \field Central Heating Design Supply Air Temperature
+      \required-field
+      \type real
+      \units C
+  A3, \field Type of Zone Sum to Use
+      \type choice
+      \key Coincident
+      \key NonCoincident
+      \default NonCoincident
+  A4, \field 100% Outdoor Air in Cooling
+      \type choice
+      \key Yes
+      \key No
+      \default No
+  A5, \field 100% Outdoor Air in Heating
+      \type choice
+      \key Yes
+      \key No
+      \default No
+  N9, \field Central Cooling Design Supply Air Humidity Ratio
+      \type real
+      \default 0.008
+      \units kgWater/kgDryAir
+ N10, \field Central Heating Design Supply Air Humidity Ratio
+      \type real
+      \default 0.008
+      \units kgWater/kgDryAir
+  A6, \field Cooling Supply Air Flow Rate Method
+      \type choice
+      \key Flow/System
+      \key DesignDay
+      \key FlowPerFloorArea
+      \key FractionOfAutosizedCoolingAirflow
+      \key FlowPerCoolingCapacity
+      \default DesignDay
+ N11, \field Cooling Supply Air Flow Rate
+      \note This input is used if Cooling Supply Air Flow Rate Method is Flow/System
+      \note This value will *not* be multiplied by any sizing factor or by zone multipliers.
+      \note If using zone multipliers, this value must be large enough to serve the multiplied zones.
+      \type real
+      \units m3/s
+      \minimum 0
+      \default 0
+ N12, \field Cooling Supply Air Flow Rate Per Floor Area
+      \type real
+      \units m3/s-m2
+      \minimum 0.0
+      \note Enter the cooling supply air volume flow rate per total conditioned floor area.
+      \note Required field when Cooling Supply Air Flow Rate Method is FlowPerFloorArea.
+ N13, \field Cooling Fraction of Autosized Cooling Supply Air Flow Rate
+      \type real
+      \minimum 0.0
+      \note Enter the supply air volume flow rate as a fraction of the cooling supply air flow rate.
+      \note Required field when Cooling Supply Air Flow Rate Method is
+      \note FractionOfAutosizedCoolingAirflow.
+ N14, \field Cooling Supply Air Flow Rate Per Unit Cooling Capacity
+      \type real
+      \units m3/s-W
+      \minimum 0.0
+      \note Enter the supply air volume flow rate per unit cooling capacity.
+      \note Required field when Cooling Supply Air Flow Rate Method is
+      \note FlowPerCoolingCapacity.
+  A7, \field Heating Supply Air Flow Rate Method
+      \type choice
+      \key Flow/System
+      \key DesignDay
+      \key FlowPerFloorArea
+      \key FractionOfAutosizedHeatingAirflow
+      \key FractionOfAutosizedCoolingAirflow
+      \key FlowPerHeatingCapacity
+      \default DesignDay
+ N15, \field Heating Supply Air Flow Rate
+      \note Required field when Heating Supply Air Flow Rate Method is Flow/System
+      \note This value will *not* be multiplied by any sizing factor or by zone multipliers.
+      \note If using zone multipliers, this value must be large enough to serve the multiplied zones.
+      \type real
+      \units m3/s
+      \minimum 0
+      \default 0
+ N16, \field Heating Supply Air Flow Rate Per Floor Area
+      \type real
+      \units m3/s-m2
+      \minimum 0.0
+      \note Enter the heating supply air volume flow rate per total conditioned floor area.
+      \note Required field when Heating Supply Air Flow Rate Method is FlowPerFloorArea.
+ N17, \field Heating Fraction of Autosized Heating Supply Air Flow Rate
+      \type real
+      \minimum 0.0
+      \note Enter the supply air volume flow rate as a fraction of the heating supply air flow rate.
+      \note Required field when Heating Supply Air Flow Rate Method is
+      \note FractionOfAutosizedHeatingAirflow.
+ N18, \field Heating Fraction of Autosized Cooling Supply Air Flow Rate
+      \type real
+      \minimum 0.0
+      \note Enter the supply air volume flow rate as a fraction of the cooling supply air flow rate.
+      \note Required field when Heating Supply Air Flow Rate Method is
+      \note FractionOfAutosizedCoolingAirflow.
+ N19, \field Heating Supply Air Flow Rate Per Unit Heating Capacity
+      \type real
+      \units m3/s-W
+      \minimum 0.0
+      \note Enter the heating supply air volume flow rate per unit heating capacity.
+      \note Required field when Heating Supply Air Flow Rate Method is
+      \note FlowPerHeatingCapacity.
+  A8, \field System Outdoor Air Method
+      \type choice
+      \key ZoneSum
+      \key VentilationRateProcedure
+      \default ZoneSum
+ N20, \field Zone Maximum Outdoor Air Fraction
+      \type real
+      \default 1.0
+      \minimum> 0.0
+      \units dimensionless
+  A9, \field Cooling Design Capacity Method
+      \type choice
+      \key None
+      \key CoolingDesignCapacity
+      \key CapacityPerFloorArea
+      \key FractionOfAutosizedCoolingCapacity
+      \default CoolingDesignCapacity
+      \note Enter the method used to determine the system cooling design capacity for scalable sizing.
+      \note None is used when a cooling coils is not included in an airloop or this field may be blank.
+      \note If this input field is left blank, then the design cooling capacity is set to zero.
+      \note CoolingDesignCapacity => selected when the design cooling capacity value is specified or
+      \note auto-sized. CapacityPerFloorArea => selected when the design cooling capacity is determined
+      \note from user specified cooling capacity per floor area and total floor area of cooled zones
+      \note served by an airloop. FractionOfAutosizedCoolingCapacity => is selected when the design
+      \note cooling capacity is determined from a user specified fraction and the auto-sized design
+      \note cooling capacity of the system.
+ N21, \field Cooling Design Capacity
+      \type real
+      \units W
+      \minimum 0.0
+      \autosizable
+      \default autosize
+      \note Enter the design cooling capacity.
+ N22, \field Cooling Design Capacity Per Floor Area
+      \type real
+      \units W/m2
+      \minimum 0.0
+      \note Enter the cooling design capacity per total floor area of cooled zones served by an airloop.
+      \note Required field when the cooling design capacity method field is CapacityPerFloorArea.
+ N23, \field Fraction of Autosized Cooling Design Capacity
+      \type real
+      \minimum 0.0
+      \note Enter the fraction of auto-sized cooling design capacity. Required field when the cooling
+      \note design capacity method field is FractionOfAutosizedCoolingCapacity.
+ A10, \field Heating Design Capacity Method
+      \type choice
+      \key None
+      \key HeatingDesignCapacity
+      \key CapacityPerFloorArea
+      \key FractionOfAutosizedHeatingCapacity
+      \default HeatingDesignCapacity
+      \note Enter the method used to determine the heating design capacity for scalable sizing.
+      \note None is used when a heating coil not included in an airloop or this field may be blank.
+      \note If this input field is left blank, then the design heating capacity is set to zero.
+      \note HeatingDesignCapacity => selected when the design heating capacity value is specified or
+      \note auto-sized. CapacityPerFloorArea => selected when the design heating capacity is determined
+      \note from user specified heating capacity per flow area and total floor area of heated zones
+      \note served by an airloop. FractionOfAutosizedHeatingCapacity => is selected when the design
+      \note heating capacity is determined from a user specified fraction and the auto-sized design
+      \note heating capacity of the system.
+ N24, \field Heating Design Capacity
+      \type real
+      \units W
+      \minimum 0.0
+      \autosizable
+      \default autosize
+      \note Enter the design heating capacity.
+ N25, \field Heating Design Capacity Per Floor Area
+      \type real
+      \units W/m2
+      \minimum 0.0
+      \note Enter the heating design capacity per zone floor area. Required field when the heating design
+      \note capacity method field is CapacityPerFloorArea.
+ N26, \field Fraction of Autosized Heating Design Capacity
+      \type real
+      \minimum 0.0
+      \note Enter the fraction of auto-sized heating design capacity. Required field when capacity the
+      \note heating design capacity method field is FractionOfAutosizedHeatingCapacity.
+ A11; \field Central Cooling Capacity Control Method
+      \note Method used to control the coil's output
+      \type choice
+      \key VAV
+      \key Bypass
+      \key VT
+      \key OnOff
+      \default OnOff
+
+Sizing:Plant,
+      \memo Specifies the input needed to autosize plant loop flow rates and equipment capacities.
+      \memo This information is initially used by components that use water for heating or cooling
+      \memo such as hot or chilled water coils to calculate their maximum water flow rates. These
+      \memo flow rates are then summed for use in calculating the Plant Loop flow rates.
+  \min-fields 4
+  A1, \field Plant or Condenser Loop Name
+      \note Enter the name of a PlantLoop or a CondenserLoop object
+      \required-field
+      \type object-list
+      \object-list PlantLoops
+  A2, \field Loop Type
+      \required-field
+      \type choice
+      \key Heating
+      \key Cooling
+      \key Condenser
+      \key Steam
+  N1, \field Design Loop Exit Temperature
+      \required-field
+      \type real
+      \units C
+  N2, \field Loop Design Temperature Difference
+      \required-field
+      \type real
+      \units deltaC
+      \minimum> 0.0
+  A3, \field Sizing Option
+      \note if Coincident is chosen, then sizing is based on HVAC Sizing Simulations and
+      \note the input field called Do HVAC Sizing Simulation for Sizing Periods in SimulationControl must be set to Yes
+      \type choice
+      \key Coincident
+      \key NonCoincident
+      \default NonCoincident
+  N3, \field Zone Timesteps in Averaging Window
+      \note this is used in the coincident sizing algorithm to apply a running average to peak flow rates
+      \note that occur during HVAC Sizing Simulations
+      \type integer
+      \minimum 1
+      \default 1
+  A4; \field Coincident Sizing Factor Mode
+      \note this is used to adjust the result for coincident sizing by applying a sizing factor
+      \type choice
+      \key None
+      \key GlobalHeatingSizingFactor
+      \key GlobalCoolingSizingFactor
+      \key LoopComponentSizingFactor
+
+OutputControl:Sizing:Style,
+       \memo Default style for the Sizing output files is comma -- this works well for
+       \memo importing into spreadsheet programs such as Excel(tm) but not so well for word
+       \memo processing programs -- there tab may be a better choice. Fixed puts spaces between
+       \memo the "columns"
+       \unique-object
+   A1; \field Column Separator
+       \required-field
+       \type choice
+       \key Comma
+       \key Tab
+       \key Fixed
+
+\group Zone HVAC Controls and Thermostats
+
+ZoneControl:Humidistat,
+       \memo Specifies zone relative humidity setpoint schedules for humidifying and dehumidifying.
+  \min-fields 3
+  A1 , \field Name
+       \required-field
+       \reference ZoneControlHumidistatNames
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A3 , \field Humidifying Relative Humidity Setpoint Schedule Name
+       \required-field
+       \note hourly schedule values should be in Relative Humidity (percent)
+       \type object-list
+       \object-list ScheduleNames
+  A4 ; \field Dehumidifying Relative Humidity Setpoint Schedule Name
+       \note hourly schedule values should be in Relative Humidity (percent)
+       \type object-list
+       \object-list ScheduleNames
+
+ZoneControl:Thermostat,
+   \memo Define the Thermostat settings for a zone or list of zones.
+   \memo If you use a ZoneList in the Zone or ZoneList name field then this definition applies
+   \memo to all the zones in the ZoneList.
+  A1 , \field Name
+       \required-field
+       \reference ZoneControlThermostaticNames
+  A2 , \field Zone or ZoneList Name
+       \required-field
+       \type object-list
+       \object-list ZoneAndZoneListNames
+  A3 , \field Control Type Schedule Name
+       \note This schedule contains appropriate control types for thermostat.
+       \note Control types are integers: 0 - Uncontrolled (floating, no thermostat), 1 = ThermostatSetpoint:SingleHeating,
+       \note 2 = ThermostatSetpoint:SingleCooling, 3 = ThermostatSetpoint:SingleHeatingOrCooling, 4 = ThermostatSetpoint:DualSetpoint
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A4 , \field Control 1 Object Type
+       \required-field
+       \type choice
+       \key ThermostatSetpoint:SingleHeating
+       \key ThermostatSetpoint:SingleCooling
+       \key ThermostatSetpoint:SingleHeatingOrCooling
+       \key ThermostatSetpoint:DualSetpoint
+  A5 , \field Control 1 Name
+       \note Control names are names of individual control objects (e.g. ThermostatSetpoint:SingleHeating)
+       \note Schedule values in these objects list actual setpoint temperatures for the control types
+       \required-field
+       \type object-list
+       \object-list ControlTypeNames
+  A6 , \field Control 2 Object Type
+       \type choice
+       \key ThermostatSetpoint:SingleHeating
+       \key ThermostatSetpoint:SingleCooling
+       \key ThermostatSetpoint:SingleHeatingOrCooling
+       \key ThermostatSetpoint:DualSetpoint
+  A7 , \field Control 2 Name
+       \note Control names are names of individual control objects (e.g. ThermostatSetpoint:SingleHeating)
+       \note Schedule values in these objects list actual setpoint temperatures for the control types
+       \type object-list
+       \object-list ControlTypeNames
+  A8 , \field Control 3 Object Type
+       \type choice
+       \key ThermostatSetpoint:SingleHeating
+       \key ThermostatSetpoint:SingleCooling
+       \key ThermostatSetpoint:SingleHeatingOrCooling
+       \key ThermostatSetpoint:DualSetpoint
+  A9 , \field Control 3 Name
+       \note Control names are names of individual control objects (e.g. ThermostatSetpoint:SingleHeating)
+       \note Schedule values in these objects list actual setpoint temperatures for the control types
+       \type object-list
+       \object-list ControlTypeNames
+  A10, \field Control 4 Object Type
+       \type choice
+       \key ThermostatSetpoint:SingleHeating
+       \key ThermostatSetpoint:SingleCooling
+       \key ThermostatSetpoint:SingleHeatingOrCooling
+       \key ThermostatSetpoint:DualSetpoint
+  A11, \field Control 4 Name
+       \note Control names are names of individual control objects (e.g. ThermostatSetpoint:SingleHeating)
+       \note Schedule values in these objects list actual setpoint temperatures for the control types
+       \type object-list
+       \object-list ControlTypeNames
+  N1 ; \field Temperature Difference Between Cutout And Setpoint
+       \note This optional choice field provides a temperature difference between cut-out temperature and
+       \note setpoint. The difference is used to adjust to heating or cooling setpoint based on control types.
+       \units deltaC
+       \type real
+       \minimum 0.0
+       \default 0.0
+
+ZoneControl:Thermostat:OperativeTemperature,
+       \memo This object can be used with the ZoneList option on a thermostat or with one
+       \memo of the zones on that list (but you won't be able to use the object list to
+       \memo pick only one of those zones. Thermostat names are <Zone Name> <global Thermostat name> internally.
+  A1,  \field Thermostat Name
+       \note Enter the name of a ZoneControl:Thermostat object.
+       \note This object modifies a ZoneControl:Thermostat object to add a
+       \note radiative fraction.
+       \required-field
+       \type object-list
+       \object-list ZoneControlThermostaticNames
+  A2,  \field Radiative Fraction Input Mode
+       \required-field
+       \type choice
+       \key Constant
+       \key Scheduled
+  N1,  \field Fixed Radiative Fraction
+       \minimum 0.0
+       \maximum< 0.9
+  A3,  \field Radiative Fraction Schedule Name
+       \note Schedule values of 0.0 indicate no operative temperature control
+       \type object-list
+       \object-list ScheduleNames
+  A4;  \field Adaptive Comfort Model Type
+       \type choice
+       \key None
+       \key AdaptiveASH55CentralLine
+       \key AdaptiveASH5580PercentUpperLine
+       \key AdaptiveASH5590PercentUpperLine
+       \key AdaptiveCEN15251CentralLine
+       \key AdaptiveCEN15251CategoryIUpperLine
+       \key AdaptiveCEN15251CategoryIIUpperLine
+       \key AdaptiveCEN15251CategoryIIIUpperLine
+       \default None
+       \note the cooling setpoint temperature schedule of the referenced thermostat will be adjusted based on the selected adaptive comfort model type
+
+ZoneControl:Thermostat:ThermalComfort,
+   \memo If you use a ZoneList in the Zone or ZoneList name field then this definition applies
+   \memo to all the zones in the ZoneList.
+       \min-fields 9
+  A1 , \field Name
+       \required-field
+  A2 , \field Zone or ZoneList Name
+       \required-field
+       \type object-list
+       \object-list ZoneAndZoneListNames
+  A3 , \field Averaging Method
+       \note The method used to calculate thermal comfort dry-bulb temperature setpoint
+       \note for multiple people objects in a zone
+       \type choice
+       \key SpecificObject
+       \key ObjectAverage
+       \key PeopleAverage
+       \default PeopleAverage
+  A4 , \field Specific People Name
+       \note Used only when Averaging Method = SpecificObject in the previous field.
+       \type object-list
+       \object-list PeopleNames
+  N1 , \field Minimum Dry-Bulb Temperature Setpoint
+       \type real
+       \units C
+       \minimum 0
+       \maximum 50
+       \default 0
+  N2 , \field Maximum Dry-Bulb Temperature Setpoint
+       \type real
+       \units C
+       \minimum 0
+       \maximum 50
+       \default 50
+  A5 , \field Thermal Comfort Control Type Schedule Name
+       \note The Thermal Comfort Control Type Schedule contains values that are appropriate control types.
+       \note Thermal Comfort Control types are integers: 0 - Uncontrolled (floating),
+       \note 1 = ThermostatSetpoint:ThermalComfort:Fanger:SingleHeating
+       \note 2 = ThermostatSetpoint:ThermalComfort:Fanger:SingleCooling
+       \note 3 = ThermostatSetpoint:ThermalComfort:Fanger:SingleHeatingOrCooling
+       \note 4 = ThermostatSetpoint:ThermalComfort:Fanger:DualSetpoint
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A6 , \field Thermal Comfort Control 1 Object Type
+       \required-field
+       \type choice
+       \key ThermostatSetpoint:ThermalComfort:Fanger:SingleHeating
+       \key ThermostatSetpoint:ThermalComfort:Fanger:SingleCooling
+       \key ThermostatSetpoint:ThermalComfort:Fanger:SingleHeatingOrCooling
+       \key ThermostatSetpoint:ThermalComfort:Fanger:DualSetpoint
+  A7 , \field Thermal Comfort Control 1 Name
+       \note Control type names are names for individual control type objects.
+       \note Schedule values in these objects list actual setpoint temperatures for the control types
+       \required-field
+       \type object-list
+       \object-list ThermalComfortControlTypeNames
+  A8 , \field Thermal Comfort Control 2 Object Type
+       \type choice
+       \key ThermostatSetpoint:ThermalComfort:Fanger:SingleHeating
+       \key ThermostatSetpoint:ThermalComfort:Fanger:SingleCooling
+       \key ThermostatSetpoint:ThermalComfort:Fanger:SingleHeatingOrCooling
+       \key ThermostatSetpoint:ThermalComfort:Fanger:DualSetpoint
+  A9 , \field Thermal Comfort Control 2 Name
+       \note Control Type names are names for individual control type objects.
+       \note Schedule values in these objects list actual setpoint temperatures for the control types
+       \type object-list
+       \object-list ThermalComfortControlTypeNames
+  A10, \field Thermal Comfort Control 3 Object Type
+       \type choice
+       \key ThermostatSetpoint:ThermalComfort:Fanger:SingleHeating
+       \key ThermostatSetpoint:ThermalComfort:Fanger:SingleCooling
+       \key ThermostatSetpoint:ThermalComfort:Fanger:SingleHeatingOrCooling
+       \key ThermostatSetpoint:ThermalComfort:Fanger:DualSetpoint
+  A11, \field Thermal Comfort Control 3 Name
+       \note Control type names are names for individual control type objects.
+       \note Schedule values in these objects list actual setpoint temperatures for the control types
+       \type object-list
+       \object-list ThermalComfortControlTypeNames
+  A12, \field Thermal Comfort Control 4 Object Type
+       \type choice
+       \key ThermostatSetpoint:ThermalComfort:Fanger:SingleHeating
+       \key ThermostatSetpoint:ThermalComfort:Fanger:SingleCooling
+       \key ThermostatSetpoint:ThermalComfort:Fanger:SingleHeatingOrCooling
+       \key ThermostatSetpoint:ThermalComfort:Fanger:DualSetpoint
+  A13; \field Thermal Comfort Control 4 Name
+       \note Control type names are names for individual control type objects.
+       \note Schedule values in these objects list actual setpoint temperatures for the control types
+       \type object-list
+       \object-list ThermalComfortControlTypeNames
+
+ZoneControl:Thermostat:TemperatureAndHumidity,
+       \min-fields 2
+       \memo This object modifies a ZoneControl:Thermostat object to effect temperature control based on
+       \memo zone air humidity conditions.
+  A1,  \field Thermostat Name
+       \required-field
+       \type object-list
+       \object-list ZoneControlThermostaticNames
+       \note Enter the name of a ZoneControl:Thermostat object whose operation is to be modified to
+       \note effect temperature control based on zone air humidity conditions. If the ZoneControl:
+       \note Thermostat object references a ZoneList, simply enter the name of the ZoneControl:Thermostat
+       \note object and this temperature and humidity thermostat control will be applied to all zones
+       \note in the ZoneList. If the ZoneControl:Thermostat object references a ZoneList but it is
+       \note desired that only a single zone within the ZoneList be controlled based on temperature and
+       \note humidity control, then the name to be put here is <Zone Name> <Thermostat Name> where the
+       \note Thermostat Name is the the name of the ZoneControl:Thermostat object.
+  A2 , \field Dehumidifying Relative Humidity Setpoint Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values should be in Relative Humidity (percent)
+  A3,  \field Dehumidification Control Type
+       \type choice
+       \key Overcool
+       \key None
+       \default Overcool
+  A4,  \field Overcool Range Input Method
+       \type choice
+       \key Constant
+       \key Scheduled
+       \default Constant
+  N1,  \field Overcool Constant Range
+       \type real
+       \units deltaC
+       \minimum 0.0
+       \maximum 3.0
+       \default 1.7
+       \note Maximum Overcool temperature range for cooling setpoint reduction.
+       \note Used with Dehumidification Control Type = Overcool.
+       \note A value of 0.0 indicates no zone temperature overcooling will be provided to
+       \note gain additional dehumidification.
+  A5,  \field Overcool Range Schedule Name
+       \note Schedule values of 0.0 indicates no zone temperature overcooling will be
+       \note provided to gain additional dehumidification.
+       \note Schedule values should be >= 0 and <= 3 (deltaC).
+       \type object-list
+       \object-list ScheduleNames
+  N2;  \field Overcool Control Ratio
+       \type real
+       \units percent/K
+       \minimum 0.0
+       \default 3.6
+       \note The value of this input field is used to adjust the cooling setpoint temperature
+       \note (established by the associated ZoneControl:Thermostat object) downward based on the
+       \note difference between the zone air relative humidity level and the dehumidifying
+       \note relative humidity setpoint.
+
+ThermostatSetpoint:SingleHeating,
+       \memo Used for a heating only thermostat. The setpoint can be scheduled and varied throughout
+       \memo the simulation but only heating is allowed with this control type.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ControlTypeNames
+  A2 ; \field Setpoint Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+
+ThermostatSetpoint:SingleCooling,
+       \memo Used for a cooling only thermostat. The setpoint can be scheduled and varied throughout
+       \memo the simulation but only cooling is allowed.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ControlTypeNames
+  A2 ; \field Setpoint Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+
+ThermostatSetpoint:SingleHeatingOrCooling,
+       \memo Used for a heating and cooling thermostat with a single setpoint. The setpoint can be
+       \memo scheduled and varied throughout the simulation for both heating and cooling.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ControlTypeNames
+  A2 ; \field Setpoint Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+
+ThermostatSetpoint:DualSetpoint,
+       \memo Used for a heating and cooling thermostat with dual setpoints. The setpoints can be
+       \memo scheduled and varied throughout the simulation for both heating and cooling.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ControlTypeNames
+  A2 , \field Heating Setpoint Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A3 ; \field Cooling Setpoint Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+
+ThermostatSetpoint:ThermalComfort:Fanger:SingleHeating,
+       \memo Used for heating only thermal comfort control. The PMV setpoint can be scheduled and
+       \memo varied throughout the simulation but only heating is allowed with this control type.
+       \min-fields 2
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ThermalComfortControlTypeNames
+  A2 ; \field Fanger Thermal Comfort Schedule Name
+       \note Schedule values should be Predicted Mean Vote (PMV)
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+
+ThermostatSetpoint:ThermalComfort:Fanger:SingleCooling,
+       \memo Used for cooling only thermal comfort control. The PMV setpoint can be scheduled and
+       \memo varied throughout the simulation but only cooling is allowed with this control type.
+       \min-fields 2
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ThermalComfortControlTypeNames
+  A2 ; \field Fanger Thermal Comfort Schedule Name
+       \note Schedule values should be Predicted Mean Vote (PMV)
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+
+ThermostatSetpoint:ThermalComfort:Fanger:SingleHeatingOrCooling,
+       \memo Used for heating and cooling thermal comfort control with a single setpoint. The PMV
+       \memo setpoint can be scheduled and varied throughout the simulation for both heating and
+       \memo cooling.
+       \min-fields 2
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ThermalComfortControlTypeNames
+  A2 ; \field Fanger Thermal Comfort Schedule Name
+       \note Schedule values should be Predicted Mean Vote (PMV)
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+
+ThermostatSetpoint:ThermalComfort:Fanger:DualSetpoint,
+       \memo Used for heating and cooling thermal comfort control with dual setpoints. The PMV
+       \memo setpoints can be scheduled and varied throughout the simulation for both heating and
+       \memo cooling.
+       \min-fields 3
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ThermalComfortControlTypeNames
+  A2 , \field Fanger Thermal Comfort Heating Schedule Name
+       \note Schedule values should be Predicted Mean Vote (PMV)
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A3 ; \field Fanger Thermal Comfort Cooling Schedule Name
+       \note Schedule values should be Predicted Mean Vote (PMV)
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+
+ZoneControl:Thermostat:StagedDualSetpoint,
+   \memo Define the Thermostat StagedDualSetpoint settings for a zone or list of zones.
+   \memo If you use a ZoneList in the Zone or ZoneList name field then this definition applies
+   \memo to all the zones in the ZoneList.
+  A1 , \field Name
+       \required-field
+       \reference ZoneControlThermostaticNames
+  A2 , \field Zone or ZoneList Name
+       \required-field
+       \type object-list
+       \object-list ZoneAndZoneListNames
+  N1 , \field Number of Heating Stages
+       \required-field
+       \type integer
+       \minimum 1
+       \maximum 4
+       \note Enter the number of the following sets of data for heating temperature offset
+  A3 , \field Heating Temperature Setpoint Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  N2 , \field Heating Throttling Temperature Range
+       \units deltaC
+       \minimum 0.0
+       \default 1.1
+  N3 , \field Stage 1 Heating Temperature Offset
+       \required-field
+       \type real
+       \units deltaC
+       \maximum 0.0
+       \note The heating temperature offset is used to determine heating stage number for
+       \note multi stage equipment.
+       \note When the temperature difference of the heating setpoint and the controlled zone
+       \note temperature at previous time step is less than Stage 1 value and greater than
+       \note Stage 2 value, the stage number is 1.
+  N4 , \field Stage 2 Heating Temperature Offset
+       \type real
+       \units deltaC
+       \maximum 0.0
+       \note The heating temperature offset is used to determine heating stage number for
+       \note multi stage equipment.
+       \note When the temperature difference of the heating setpoint and the controlled zone
+       \note temperature at previous time step is less than Stage 2 value and greater than
+       \note Stage 3 value, the stage number is 2.
+       \note The value of this field has to be less the value at the previous field.
+  N5 , \field Stage 3 Heating Temperature Offset
+       \type real
+       \units deltaC
+       \maximum 0.0
+       \note The heating temperature offset is used to determine heating stage number for
+       \note multi stage equipment.
+       \note When the temperature difference of the heating setpoint and the controlled zone
+       \note temperature at previous time step is less than Stage 3 value and greater than
+       \note Stage 4 value, the stage number is 3.
+       \note The value of this field has to be less the value at the previous field.
+  N6 , \field Stage 4 Heating Temperature Offset
+       \type real
+       \units deltaC
+       \maximum 0.0
+       \note The heating temperature offset is used to determine heating stage number for
+       \note multi stage equipment.
+       \note When the temperature difference of the heating setpoint and the controlled zone
+       \note temperature at previous time step is less than Stage 4 value, the stage number is 4.
+       \note The value of this field has to be less the value at the previous field.
+  N7 , \field Number of Cooling Stages
+       \required-field
+       \type integer
+       \minimum 1
+       \maximum 4
+       \note Enter the number of the following sets of data for cooling temperature offset
+  A4 , \field Cooling Temperature Setpoint Base Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  N8 , \field Cooling Throttling Temperature Range
+       \units deltaC
+       \minimum 0.0
+       \default 1.1
+  N9 , \field Stage 1 Cooling Temperature Offset
+       \required-field
+       \type real
+       \units deltaC
+       \minimum 0.0
+       \note The cooling temperature offset is used to determine cooling stage number for
+       \note multi stage equipment.
+       \note When the temperature difference of the cooling setpoint and the controlled zone
+       \note temperature at previous time step is greater than Stage 1 value and less than
+       \note Stage 2 value, the stage number is 1.
+  N10, \field Stage 2 Cooling Temperature Offset
+       \type real
+       \units deltaC
+       \minimum 0.0
+       \note The cooling temperature offset is used to determine cooling stage number for
+       \note multi stage equipment.
+       \note When the temperature difference of the cooling setpoint and the controlled zone
+       \note temperature at previous time step is greater than Stage 2 value and less than
+       \note Stage 3 value, the stage number is 2.
+       \note The value of this field has to be greater than the value at the previous field.
+  N11, \field Stage 3 Cooling Temperature Offset
+       \type real
+       \units deltaC
+       \minimum 0.0
+       \note The cooling temperature offset is used to determine cooling stage number for
+       \note multi stage equipment.
+       \note When the temperature difference of the cooling setpoint and the controlled zone
+       \note temperature at previous time step is greater than Stage 3 value and less than
+       \note Stage 4 value, the stage number is 3.
+       \note The value of this field has to be greater than the value at the previous field.
+  N12; \field Stage 4 Cooling Temperature Offset
+       \type real
+       \units deltaC
+       \minimum 0.0
+       \note The cooling temperature offset is used to determine cooling stage number for
+       \note multi stage equipment.
+       \note When the temperature difference of the cooling setpoint and the controlled zone
+       \note temperature at previous time step is greater than Stage 4 value, the stage number is 4.
+       \note The value of this field has to be greater than the value at the previous field.
+
+ZoneControl:ContaminantController,
+       \memo Used to control a zone to a specified indoor level of CO2 or generic contaminants, or
+       \memo to specify minimum CO2 concentration schedule name for a zone.
+       \min-fields 4
+  A1 , \field Name
+       \required-field
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A3 , \field Carbon Dioxide Control Availability Schedule Name
+       \note Availability schedule name for CO2 controller. Schedule value > 0 means the CO2
+       \note controller is enabled. If this field is blank, then CO2 controller is always enabled.
+       \type object-list
+       \object-list ScheduleNames
+  A4 , \field Carbon Dioxide Setpoint Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values should be carbon dioxide concentration in parts per million (ppm)
+  A5 , \field Minimum Carbon Dioxide Concentration Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values should be carbon dioxide concentration in parts per
+       \note million (ppm)
+       \note This field is used when the field System Outdoor Air Method =
+       \note ProportionalControlBasedOnOccupancySchedule or ProportionalControlBasedOnDesignOccupancy,
+       \note or ProportionalControlBasedOnDesignOARate in Controller:MechanicalVentilation
+  A6 , \field Maximum Carbon Dioxide Concentration Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values should be carbon dioxide concentration in parts per
+       \note million (ppm)
+       \note This field is used when the field System Outdoor Air Method =
+       \note ProportionalControlBasedOnOccupancySchedule or ProportionalControlBasedOnDesignOccupancy
+       \note or ProportionalControlBasedOnDesignOARate.
+  A7 , \field Generic Contaminant Control Availability Schedule Name
+       \note Availability schedule name for generic contaminant controller. Schedule value > 0 means
+       \note the generic contaminant controller is enabled. If this field is blank, then generic
+       \note contaminant controller is always enabled.
+       \type object-list
+       \object-list ScheduleNames
+  A8 ; \field Generic Contaminant Setpoint Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values should be generic contaminant concentration in parts per
+       \note million (ppm)
+       \note This field is used when the field System Outdoor Air Method =
+       \note IndoorAirQualityProcedureGenericContaminant in Controller:MechanicalVentilation
+
+\group Zone HVAC Forced Air Units
+
+ZoneHVAC:IdealLoadsAirSystem,
+       \memo Ideal system used to calculate loads without modeling a full HVAC system. All that is
+       \memo required for the ideal system are zone controls, zone equipment configurations, and
+       \memo the ideal loads system component. This component can be thought of as an ideal unit
+       \memo that mixes zone air with the specified amount of outdoor air and then adds or removes
+       \memo heat and moisture at 100% efficiency in order to meet the specified controls. Energy
+       \memo use is reported as DistrictHeating and DistrictCooling.
+       \min-fields 27
+  A1 , \field Name
+       \required-field
+       \reference ZoneEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Zone Supply Air Node Name
+       \note Must match a zone air inlet node name.
+       \required-field
+       \type node
+  A4 , \field Zone Exhaust Air Node Name
+       \note Should match a zone air exhaust node name.
+       \note This field is optional, but is required if this
+       \note this object is used with other forced air equipment.
+       \type node
+  A5 , \field System Inlet Air Node Name
+       \note This field is only required when the Ideal Loads Air System is connected to an
+       \note AirloopHVAC:ZoneReturnPlenum, otherwise leave this field blank. When connected to a plenum
+       \note the return plenum Outlet Node Name (or Induced Air Outlet Node Name when connecting multiple
+       \note ideal loads air sytems) is entered here. The two ideal loads air system node name fields described above,
+       \note the Zone Supply Air Node Name and the Zone Exhaust Air Node Name must also be entered.
+       \note The Zone Supply Air Node Name must match a zone inlet air node name for the zone where this
+       \note Ideal Loads Air System is connected. The Zone Exhaust Air Node Name must match an inlet air
+       \note node name of an AirloopHVAC:ReturnAirPlenum object.
+       \type node
+  N1 , \field Maximum Heating Supply Air Temperature
+       \units C
+       \minimum> 0
+       \maximum< 100
+       \default 50
+  N2 , \field Minimum Cooling Supply Air Temperature
+       \units C
+       \minimum> -100
+       \maximum< 50
+       \default 13
+  N3 , \field Maximum Heating Supply Air Humidity Ratio
+       \units kgWater/kgDryAir
+       \minimum> 0
+       \default 0.0156
+  N4 , \field Minimum Cooling Supply Air Humidity Ratio
+       \units kgWater/kgDryAir
+       \minimum> 0
+       \default 0.0077
+  A6 , \field Heating Limit
+       \type choice
+       \key NoLimit
+       \key LimitFlowRate
+       \key LimitCapacity
+       \key LimitFlowRateAndCapacity
+       \default NoLimit
+  N5 , \field Maximum Heating Air Flow Rate
+       \note This field is ignored if Heating Limit = NoLimit
+       \note If this field is blank, there is no limit.
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  N6 , \field Maximum Sensible Heating Capacity
+       \note This field is ignored if Heating Limit = NoLimit
+       \note If this field is blank, there is no limit.
+       \units W
+       \minimum 0.0
+       \autosizable
+  A7 , \field Cooling Limit
+       \type choice
+       \key NoLimit
+       \key LimitFlowRate
+       \key LimitCapacity
+       \key LimitFlowRateAndCapacity
+       \default NoLimit
+  N7 , \field Maximum Cooling Air Flow Rate
+       \note This field is ignored if Cooling Limit = NoLimit
+       \note This field is required if Outdoor Air Economizer Type is anything other than NoEconomizer.
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  N8 , \field Maximum Total Cooling Capacity
+       \note This field is ignored if Cooling Limit = NoLimit
+       \units W
+       \minimum 0.0
+       \autosizable
+  A8 , \field Heating Availability Schedule Name
+       \note If blank, heating is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A9 , \field Cooling Availability Schedule Name
+       \note If blank, cooling is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A10, \field Dehumidification Control Type
+       \note ConstantSensibleHeatRatio means that the ideal loads system
+       \note will be controlled to meet the sensible cooling load, and the
+       \note latent cooling rate will be computed using a constant
+       \note sensible heat ratio (SHR)
+       \note Humidistat means that there is a ZoneControl:Humidistat for this
+       \note zone and the ideal loads system will attempt to satisfy the humidistat.
+       \note None means that there is no dehumidification.
+       \note ConstantSupplyHumidityRatio means that during cooling the supply air
+       \note will always be at the Minimum Cooling Supply Humidity Ratio.
+       \type choice
+       \key ConstantSensibleHeatRatio
+       \key Humidistat
+       \key None
+       \key ConstantSupplyHumidityRatio
+       \default ConstantSensibleHeatRatio
+  N9 , \field Cooling Sensible Heat Ratio
+       \note This field is applicable only when Dehumidification Control Type is ConstantSensibleHeatRatio
+       \units dimensionless
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.7
+  A11, \field Humidification Control Type
+       \note None means that there is no humidification.
+       \note Humidistat means that there is a ZoneControl:Humidistat for this
+       \note zone and the ideal loads system will attempt to satisfy the humidistat.
+       \note ConstantSupplyHumidityRatio means that during heating the supply air
+       \note will always be at the Maximum Heating Supply Humidity Ratio.
+       \type choice
+       \key None
+       \key Humidistat
+       \key ConstantSupplyHumidityRatio
+       \default None
+  A12, \field Design Specification Outdoor Air Object Name
+       \type object-list
+       \object-list DesignSpecificationOutdoorAirNames
+       \note When the name of a DesignSpecification:OutdoorAir object is entered, the minimum
+       \note outdoor air flow rate will be computed using these specifications. The outdoor air
+       \note flow rate will also be affected by the next two fields.
+       \note If this field is blank, there will be no outdoor air and the remaining fields will
+       \note be ignored.
+  A13, \field Outdoor Air Inlet Node Name
+       \type node
+       \note This field is required if the system provides outdoor air
+       \note Enter the name of an outdoor air node. This node name is also specified in
+       \note an OutdoorAir:Node or OutdoorAir:NodeList object.
+  A14, \field Demand Controlled Ventilation Type
+       \note This field controls how the minimum outdoor air flow rate is calculated.
+       \note None means that design occupancy will be used to compute the minimum outdoor air flow rate
+       \note OccupancySchedule means that current occupancy level will be used.
+       \note CO2Setpoint means that the design occupancy will be used to compute the minimum outdoor air flow
+       \note rate and the outdoor air flow rate may be increased if necessary to maintain the indoor air carbon
+       \note dioxide setpoint defined in a ZoneControl:ContaminantController object.
+       \type choice
+       \key None
+       \key OccupancySchedule
+       \key CO2Setpoint
+       \default None
+  A15, \field Outdoor Air Economizer Type
+       \note DifferentialDryBulb and DifferentialEnthalpy will increase the outdoor air flow rate
+       \note when there is a cooling load and the outdoor air temperature or enthalpy
+       \note is below the zone exhaust air temperature or enthalpy.
+       \type choice
+       \key NoEconomizer
+       \key DifferentialDryBulb
+       \key DifferentialEnthalpy
+       \default NoEconomizer
+  A16, \field Heat Recovery Type
+       \type choice
+       \key None
+       \key Sensible
+       \key Enthalpy
+       \default None
+  N10, \field Sensible Heat Recovery Effectiveness
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.70
+  N11, \field Latent Heat Recovery Effectiveness
+       \note Applicable only if Heat Recovery Type is Enthalpy.
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.65
+  A17; \field Design Specification ZoneHVAC Sizing Object Name
+       \note Enter the name of a DesignSpecificationZoneHVACSizing object.
+       \type object-list
+       \object-list DesignSpecificationZoneHVACSizingName
+
+ZoneHVAC:FourPipeFanCoil,
+        \memo Four pipe fan coil system. Forced-convection hydronic heating-cooling unit with
+        \memo supply fan, hot water heating coil, chilled water cooling coil, and fixed-position
+        \memo outdoor air mixer.
+        \min-fields 24
+   A1 , \field Name
+        \required-field
+        \reference DOAToZonalUnit
+        \reference ZoneEquipmentNames
+   A2 , \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3 , \field Capacity Control Method
+        \required-field
+        \type choice
+        \key ConstantFanVariableFlow
+        \key CyclingFan
+        \key VariableFanVariableFlow
+        \key VariableFanConstantFlow
+        \key MultiSpeedFan
+        \key ASHRAE90VariableFan
+   N1 , \field Maximum Supply Air Flow Rate
+        \required-field
+        \autosizable
+        \units m3/s
+   N2 , \field Low Speed Supply Air Flow Ratio
+        \type real
+        \minimum> 0.0
+        \default 0.33
+   N3 , \field Medium Speed Supply Air Flow Ratio
+        \note Medium Speed Supply Air Flow Ratio should be greater
+        \note than Low Speed Supply Air Flow Ratio
+        \type real
+        \minimum> 0.0
+        \default 0.66
+   N4 , \field Maximum Outdoor Air Flow Rate
+        \required-field
+        \autosizable
+        \units m3/s
+   A4 , \field Outdoor Air Schedule Name
+        \note Value of schedule multiplies maximum outdoor air flow rate
+        \type object-list
+        \object-list ScheduleNames
+   A5 , \field Air Inlet Node Name
+        \required-field
+        \type node
+   A6 , \field Air Outlet Node Name
+        \required-field
+        \type node
+   A7,  \field Outdoor Air Mixer Object Type
+        \type choice
+        \key OutdoorAir:Mixer
+        \note Currently only one type OutdoorAir:Mixer object is available.
+        \note This field should be left blank if the FanCoil is connected to central
+        \note dedicated outdoor air through an AirTerminal:SingleDuct:Mixer object.
+   A8 , \field Outdoor Air Mixer Name
+        \type object-list
+        \object-list OutdoorAirMixers
+        \note If this field is blank, the OutdoorAir:Mixer is not used.
+        \note This optional field specifies the name of the OutdoorAir:Mixer object.
+        \note When used, this name needs to match name of the OutdoorAir:Mixer object.
+        \note This field should be left blank if the FanCoil is connected to central
+        \note dedicated outdoor air through an AirTerminal:SingleDuct:Mixer object.
+   A9 , \field Supply Air Fan Object Type
+        \required-field
+        \type choice
+        \key Fan:OnOff
+        \key Fan:ConstantVolume
+        \key Fan:VariableVolume
+        \key Fan:SystemModel
+        \note Fan type must be according to capacity control method (see I/O)
+        \note For ConstantFanVariableFlow a Fan:OnOff or Fan:ConstantVolume is valid.
+        \note For CyclingFan a Fan:OnOff is valid.
+        \note For VariableFanVariableFlow or VariableFanConstantFlow a Fan:VariableVolume is valid.
+        \note For ASHRAE90.1 a Fan:OnOff or Fan:VariableVolume is valid.
+        \note Fan:SystemModel is valid for all capacity control methods.
+        \note The fan's inlet node should be the same as the outdoor air mixer's mixed air node.
+   A10, \field Supply Air Fan Name
+        \required-field
+        \type object-list
+        \object-list FansCVandOnOffandVAV
+        \object-list FansSystemModel
+   A11, \field Cooling Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Cooling:Water
+        \key Coil:Cooling:Water:DetailedGeometry
+        \key CoilSystem:Cooling:Water:HeatExchangerAssisted
+   A12, \field Cooling Coil Name
+        \required-field
+        \type object-list
+        \object-list CoolingCoilsWater
+   N5 , \field Maximum Cold Water Flow Rate
+        \required-field
+        \autosizable
+        \units m3/s
+        \ip-units gal/min
+   N6 , \field Minimum Cold Water Flow Rate
+        \default 0.0
+        \units m3/s
+        \ip-units gal/min
+   N7 , \field Cooling Convergence Tolerance
+        \type real
+        \minimum> 0.0
+        \default 0.001
+   A13, \field Heating Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Heating:Water
+        \key Coil:Heating:Electric
+   A14, \field Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilsWater
+        \object-list HeatingCoilsElectric
+   N8 , \field Maximum Hot Water Flow Rate
+        \required-field
+        \autosizable
+        \units m3/s
+        \ip-units gal/min
+   N9 , \field Minimum Hot Water Flow Rate
+        \default 0.0
+        \units m3/s
+        \ip-units gal/min
+   N10, \field Heating Convergence Tolerance
+        \type real
+        \minimum> 0.0
+        \default 0.001
+   A15, \field Availability Manager List Name
+        \note Enter the name of an AvailabilityManagerAssignmentList object.
+        \type object-list
+        \object-list SystemAvailabilityManagerLists
+   A16, \field Design Specification ZoneHVAC Sizing Object Name
+        \note Enter the name of a DesignSpecificationZoneHVACSizing object.
+        \type object-list
+        \object-list DesignSpecificationZoneHVACSizingName
+   A17, \field Supply Air Fan Operating Mode Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Enter the name of a schedule that controls fan operation. Schedule Name values of 0 denote
+        \note cycling fan operation (fan cycles with cooling coil). Schedule values greater
+        \note than 0 denote constant fan operation (fan runs continually regardless of coil operation).
+        \note The fan operating mode defaults to cycling fan operation if this field is left blank.
+        \note This input field is currently used with MultiStageFan capacity control method
+   N11, \field Minimum Supply Air Temperature in Cooling Mode
+        \note For Capacity Control Method = ASHRAE90VariableFan, enter the minimum air temperature in cooling mode.
+        \note Leave this field blank or enter 0 to control to the zone load per ASHRAE 90.1. In this case, a zone sizing simulation is required.
+        \type real
+        \units C
+        \minimum 0.0
+        \autosizable
+        \default autosize
+   N12; \field Maximum Supply Air Temperature in Heating Mode
+        \note For Capacity Control Method = ASHRAE90VariableFan, enter the maximum air temperature in heating mode.
+        \note Leave this field blank or enter 0 to control to the zone load per ASHRAE 90.1. In this case, a zone sizing simulation is required.
+        \type real
+        \units C
+        \minimum 0.0
+        \autosizable
+        \default autosize
+
+ZoneHVAC:WindowAirConditioner,
+        \memo Window air conditioner. Forced-convection cooling-only unit with supply fan, direct
+        \memo expansion (DX) cooling coil, and fixed-position outdoor air mixer.
+        \min-fields 15
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference ZoneEquipmentNames
+   A2 , \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   N1 , \field Maximum Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \autosizable
+   N2 , \field Maximum Outdoor Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \autosizable
+   A3 , \field Air Inlet Node Name
+        \required-field
+        \type node
+   A4 , \field Air Outlet Node Name
+        \required-field
+        \type node
+   A5,  \field Outdoor Air Mixer Object Type
+        \required-field
+        \type choice
+        \key OutdoorAir:Mixer
+        \note currently only one OutdoorAir:Mixer object type is available.
+   A6 , \field Outdoor Air Mixer Name
+        \required-field
+        \type object-list
+        \object-list OutdoorAirMixers
+   A7 , \field Supply Air Fan Object Type
+        \required-field
+        \type choice
+        \key Fan:SystemModel
+        \key Fan:OnOff
+        \key Fan:ConstantVolume
+        \note Fan:ConstantVolume only works when continuous fan operation is used the entire
+        \note simulation (all supply air fan operating mode schedule values are greater than 0).
+        \note If any fan operating mode schedule values are 0 a Fan:SystemModel or Fan:OnOff object must be used.
+   A8 , \field Supply Air Fan Name
+        \required-field
+        \note Fan type Fan:ConstantVolume is used with continuous fan
+        \note and fan type Fan:OnOff is used with cycling Fan.
+        \type object-list
+        \object-list FansCVandOnOff
+        \object-list FansSystemModel
+   A9,  \field Cooling Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Cooling:DX:SingleSpeed
+        \key CoilSystem:Cooling:DX:HeatExchangerAssisted
+        \key Coil:Cooling:DX:VariableSpeed
+   A10, \field DX Cooling Coil Name
+        \required-field
+        \type object-list
+        \object-list CoolingCoilsDXSingleSpeed
+        \object-list CoolingCoilsDXVariableSpeed
+   A11, \field Supply Air Fan Operating Mode Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Enter the name of a schedule that controls fan operation. Schedule Name values of 0 denote
+        \note cycling fan operation (fan cycles with cooling coil). Schedule values greater
+        \note than 0 denote constant fan operation (fan runs continually regardless of coil operation).
+        \note The fan operating mode defaults to cycling fan operation if this field is left blank.
+   A12, \field Fan Placement
+        \required-field
+        \type choice
+        \key BlowThrough
+        \key DrawThrough
+   N3 , \field Cooling Convergence Tolerance
+        \type real
+        \minimum> 0.0
+        \default 0.001
+   A13, \field Availability Manager List Name
+        \note Enter the name of an AvailabilityManagerAssignmentList object.
+        \type object-list
+        \object-list SystemAvailabilityManagerLists
+   A14; \field Design Specification ZoneHVAC Sizing Object Name
+        \note Enter the name of a DesignSpecificationZoneHVACSizing object.
+        \type object-list
+        \object-list DesignSpecificationZoneHVACSizingName
+
+ZoneHVAC:PackagedTerminalAirConditioner,
+        \memo Packaged terminal air conditioner (PTAC). Forced-convection heating-cooling unit
+        \memo with supply fan, direct expansion (DX) cooling coil, heating coil (gas, electric, hot
+        \memo water, or steam) and fixed-position outdoor air mixer.
+        \min-fields 18
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference DOAToZonalUnit
+        \reference ZoneEquipmentNames
+        \note Unique name for this packaged terminal air conditioner object.
+   A2,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+        \note Schedule values of 0 denote the unit is off.
+   A3 , \field Air Inlet Node Name
+        \required-field
+        \type node
+        \note Air inlet node for the PTAC must be a zone air exhaust Node.
+   A4 , \field Air Outlet Node Name
+        \required-field
+        \type node
+        \note Air outlet node for the PTAC must be a zone air inlet node.
+   A5,  \field Outdoor Air Mixer Object Type
+        \type choice
+        \key OutdoorAir:Mixer
+        \note Currently only one OutdoorAir:Mixer object type is available.
+        \note This field should be left blank if the PTAC is connected to central
+        \note dedicated outdoor air through an AirTerminal:SingleDuct:Mixer object.
+   A6 , \field Outdoor Air Mixer Name
+        \type object-list
+        \object-list OutdoorAirMixers
+        \note If this field is blank, the OutdoorAir:Mixer is not used.
+        \note This optional field specifies the name of the OutdoorAir:Mixer object.
+        \note When used, this name needs to match name of the OutdoorAir:Mixer object.
+        \note This field should be left blank if the PTAC is connected to central
+        \note dedicated outdoor air through an AirTerminal:SingleDuct:Mixer object.
+   N1 , \field Cooling Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum> 0.0
+        \autosizable
+        \note Must be less than or equal to fan size.
+   N2 , \field Heating Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum> 0.0
+        \autosizable
+        \note Must be less than or equal to fan size.
+   N3 , \field No Load Supply Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum 0
+        \autosizable
+        \note Must be less than or equal to fan size.
+        \note Only used when supply air fan operating mode schedule values specify continuous fan
+        \note (schedule values greater than 0 specify continuous fan operation).
+        \note This air flow rate is used when no heating or cooling is required and the cooling or
+        \note heating coil is off. If this field is left blank or zero, the supply air flow rate
+        \note from the previous on cycle (either cooling or heating) is used.
+   N4 , \field Cooling Outdoor Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum 0
+        \autosizable
+        \note Must be less than or equal to supply air flow rate during cooling operation.
+        \note This field is set to zero flow when the PTAC is connected to central
+        \note dedicated outdoor air through air terminal single duct mixer object.
+   N5 , \field Heating Outdoor Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum 0
+        \autosizable
+        \note Must be less than or equal to supply air flow rate during heating operation.
+        \note This field is set to zero flow when the PTAC is connected to central
+        \note dedicated outdoor air through air terminal single duct mixer object.
+   N6 , \field No Load Outdoor Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum 0
+        \autosizable
+        \note Only used when supply air fan operating mode schedule values specify continuous fan
+        \note (schedule values greater than 0 specify continuous fan operation).
+        \note This air flow rate is used when no heating or cooling is required and the cooling or
+        \note heating coil is off. If this field is left blank or zero, the outdoor air flow rate
+        \note from the previous on cycle (either cooling or heating) is used.
+        \note This field is set to zero flow when the PTAC is connected to central
+        \note dedicated outdoor air through air terminal single duct mixer object.
+   A7 , \field Supply Air Fan Object Type
+        \required-field
+        \type choice
+        \key Fan:SystemModel
+        \key Fan:OnOff
+        \key Fan:ConstantVolume
+        \note Fan:ConstantVolume only works when continuous fan operation is used the entire
+        \note simulation (all supply air fan operating mode schedule values are greater than 0).
+        \note If any fan operating mode schedule values are 0 a Fan:SystemModel or Fan:OnOff object must be used.
+   A8 , \field Supply Air Fan Name
+        \required-field
+        \type object-list
+        \object-list FansCVandOnOff
+        \object-list FansSystemModel
+        \note Needs to match in the fan object.
+   A9 , \field Heating Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Heating:Fuel
+        \key Coil:Heating:Electric
+        \key Coil:Heating:Water
+        \key Coil:Heating:Steam
+        \note Select the type of heating coil.
+   A10 , \field Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilName
+        \note Needs to match in the heating coil object.
+   A11, \field Cooling Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Cooling:DX:SingleSpeed
+        \key Coil:Cooling:DX:VariableSpeed
+        \key CoilSystem:Cooling:DX:HeatExchangerAssisted
+        \note Select the type of Cooling Coil.
+        \note Only works with Coil:Cooling:DX:SingleSpeed or
+        \note CoilSystem:Cooling:DX:HeatExchangerAssisted or
+        \note Coil:Cooling:DX:VariableSpeed.
+   A12, \field Cooling Coil Name
+        \required-field
+        \type object-list
+        \object-list CoolingCoilsDXSingleSpeed
+        \object-list CoolingCoilsDXVariableSpeed
+        \note Needs to match a DX cooling coil object.
+   A13, \field Fan Placement
+        \type choice
+        \key BlowThrough
+        \key DrawThrough
+        \default DrawThrough
+        \note Select fan placement as either blow through or draw through.
+   A14, \field Supply Air Fan Operating Mode Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Enter the name of a schedule that controls fan operation. Schedule Name values of 0 denote
+        \note cycling fan operation (fan cycles with cooling or heating coil). Schedule Name values greater
+        \note than 0 denote constant fan operation (fan runs continually regardless of coil operation).
+   A15, \field Availability Manager List Name
+        \note Enter the name of an AvailabilityManagerAssignmentList object.
+        \type object-list
+        \object-list SystemAvailabilityManagerLists
+   A16, \field Design Specification ZoneHVAC Sizing Object Name
+        \note Enter the name of a DesignSpecificationZoneHVACSizing object.
+        \type object-list
+        \object-list DesignSpecificationZoneHVACSizingName
+   A17, \field Capacity Control Method
+        \type choice
+        \key None
+        \key SingleZoneVAV
+        \default None
+   N7 , \field Minimum Supply Air Temperature in Cooling Mode
+        \note For Capacity Control Method = SingleZoneVAV, enter the minimum air temperature limit for reduced fan speed.
+        \type real
+        \units C
+        \minimum 0.0
+        \autosizable
+        \default autosize
+   N8 ; \field Maximum Supply Air Temperature in Heating Mode
+        \note For Capacity Control Method = SingleZoneVAV, enter the maximum air temperature limit for reduced fan speed.
+        \type real
+        \units C
+        \minimum 0.0
+        \autosizable
+        \default autosize
+
+ZoneHVAC:PackagedTerminalHeatPump,
+        \memo Packaged terminal heat pump (PTHP). Forced-convection heating-cooling unit with
+        \memo supply fan, direct expansion (DX) cooling coil, DX heating coil (air-to-air heat
+        \memo pump), supplemental heating coil (gas, electric, hot water, or steam), and
+        \memo fixed-position outdoor air mixer.
+        \min-fields 26
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference DOAToZonalUnit
+        \reference ZoneEquipmentNames
+        \note Unique name for this packaged terminal heat pump object.
+   A2,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+        \note Schedule values of 0 denote the unit is off.
+   A3 , \field Air Inlet Node Name
+        \required-field
+        \type node
+        \note Air inlet node for the PTHP must be a zone air exhaust node.
+   A4 , \field Air Outlet Node Name
+        \required-field
+        \type node
+        \note Air outlet node for the PTHP must be a zone air inlet node.
+   A5,  \field Outdoor Air Mixer Object Type
+        \type choice
+        \key OutdoorAir:Mixer
+        \note Currently only one OutdoorAir:Mixer object type is available.
+        \note This field should be left blank if the PTHP is connected to central
+        \note dedicated outdoor air through an AirTerminal:SingleDuct:Mixer object.
+   A6 , \field Outdoor Air Mixer Name
+        \type object-list
+        \object-list OutdoorAirMixers
+        \note If this field is blank, the OutdoorAir:Mixer is not used.
+        \note This optional field specifies the name of the OutdoorAir:Mixer object.
+        \note When used, this name needs to match name of the OutdoorAir:Mixer object.
+        \note This field should be left blank if the PTHP is connected to central
+        \note dedicated outdoor air through an AirTerminal:SingleDuct:Mixer object.
+   N1 , \field Cooling Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum> 0.0
+        \autosizable
+        \note Must be less than or equal to fan size.
+   N2 , \field Heating Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum> 0.0
+        \autosizable
+        \note Must be less than or equal to fan size.
+   N3 , \field No Load Supply Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum 0
+        \autosizable
+        \note Must be less than or equal to fan size.
+        \note Only used when heat pump fan operating mode is continuous. This air flow rate
+        \note is used when no heating or cooling is required and the DX coil compressor is off.
+        \note If this field is left blank or zero, the supply air flow rate from the previous
+        \note on cycle (either cooling or heating) is used.
+   N4 , \field Cooling Outdoor Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum 0
+        \autosizable
+        \note Must be less than or equal to supply air flow rate during cooling operation.
+        \note This field is set to zero flow when the PTHP is connected to central
+        \note dedicated outdoor air through air terminal single duct mixer object.
+   N5 , \field Heating Outdoor Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum 0
+        \autosizable
+        \note Must be less than or equal to supply air flow rate during heating operation.
+        \note This field is set to zero flow when the PTHP is connected to central
+        \note dedicated outdoor air through air terminal single duct mixer object.
+   N6 , \field No Load Outdoor Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum 0
+        \autosizable
+        \note Only used when heat pump Fan operating mode is continuous. This air flow rate
+        \note is used when no heating or cooling is required and the DX coil compressor is off.
+        \note If this field is left blank or zero, the outdoor air flow rate from the previous
+        \note on cycle (either cooling or heating) is used.
+        \note This field is set to zero flow when the PTHP is connected to central
+        \note dedicated outdoor air through air terminal single duct mixer object.
+   A7 , \field Supply Air Fan Object Type
+        \required-field
+        \type choice
+        \key Fan:SystemModel
+        \key Fan:OnOff
+        \key Fan:ConstantVolume
+        \note Fan:ConstantVolume only works with fan operating mode is continuous.
+   A8 , \field Supply Air Fan Name
+        \required-field
+        \type object-list
+        \object-list FansCVandOnOff
+        \object-list FansSystemModel
+        \note Needs to match a fan object.
+   A9 , \field Heating Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Heating:DX:SingleSpeed
+        \key Coil:Heating:DX:VariableSpeed
+        \note Only works with Coil:Heating:DX:SingleSpeed or
+        \note Coil:Heating:DX:VariableSpeed.
+   A10 , \field Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilsDXSingleSpeed
+        \object-list HeatingCoilsDXVariableSpeed
+        \note Needs to match in the DX Heating Coil object.
+   N7 , \field Heating Convergence Tolerance
+        \type real
+        \minimum> 0.0
+        \default 0.001
+        \units dimensionless
+        \note Defines Heating convergence tolerance as a fraction of Heating load to be met.
+   A11, \field Cooling Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Cooling:DX:SingleSpeed
+        \key Coil:Cooling:DX:VariableSpeed
+        \key CoilSystem:Cooling:DX:HeatExchangerAssisted
+        \note Only works with Coil:Cooling:DX:SingleSpeed or
+        \note CoilSystem:Cooling:DX:HeatExchangerAssisted or
+        \note Coil:Cooling:DX:VariableSpeed.
+   A12, \field Cooling Coil Name
+        \required-field
+        \type object-list
+        \object-list CoolingCoilsDXSingleSpeed
+        \object-list CoolingCoilsDXVariableSpeed
+        \note Needs to match in the DX Cooling Coil object.
+   N8 , \field Cooling Convergence Tolerance
+        \type real
+        \minimum> 0.0
+        \default 0.001
+        \units dimensionless
+        \note Defines Cooling convergence tolerance as a fraction of the Cooling load to be met.
+   A13, \field Supplemental Heating Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Heating:Fuel
+        \key Coil:Heating:Electric
+        \key Coil:Heating:Water
+        \key Coil:Heating:Steam
+        \note works with gas, electric, hot water and steam heating coil.
+   A14, \field Supplemental Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilName
+        \note Needs to match in the supplemental heating coil object.
+   N9 , \field Maximum Supply Air Temperature from Supplemental Heater
+        \required-field
+        \type real
+        \units C
+        \autosizable
+        \note Supply air temperature from the supplemental heater will not exceed this value.
+   N10, \field Maximum Outdoor Dry-Bulb Temperature for Supplemental Heater Operation
+        \type real
+        \maximum 21.0
+        \default 21.0
+        \units C
+        \note Supplemental heater will not operate when outdoor temperature exceeds this value.
+   A15, \field Fan Placement
+        \type choice
+        \key BlowThrough
+        \key DrawThrough
+        \default DrawThrough
+        \note Select fan placement as either blow through or draw through.
+   A16, \field Supply Air Fan Operating Mode Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Enter the name of a schedule that controls fan operation. Schedule values of 0 denote
+        \note cycling fan operation (fan cycles with cooling or heating coil). Schedule Name values greater
+        \note than 0 denote constant fan operation (fan runs continually regardless of coil operation).
+        \note The fan operating mode defaults to cycling fan operation if this field is left blank.
+   A17, \field Availability Manager List Name
+        \note Enter the name of an AvailabilityManagerAssignmentList object.
+        \type object-list
+        \object-list SystemAvailabilityManagerLists
+   A18, \field Design Specification ZoneHVAC Sizing Object Name
+        \note Enter the name of a DesignSpecificationZoneHVACSizing object.
+        \type object-list
+        \object-list DesignSpecificationZoneHVACSizingName
+   A19, \field Capacity Control Method
+        \type choice
+        \key None
+        \key SingleZoneVAV
+        \default None
+   N11, \field Minimum Supply Air Temperature in Cooling Mode
+        \note For Capacity Control Method = SingleZoneVAV, enter the minimum air temperature limit for reduced fan speed.
+        \type real
+        \units C
+        \minimum 0.0
+        \autosizable
+        \default autosize
+   N12; \field Maximum Supply Air Temperature in Heating Mode
+        \note For Capacity Control Method = SingleZoneVAV, enter the maximum air temperature limit for reduced fan speed.
+        \type real
+        \units C
+        \minimum 0.0
+        \autosizable
+        \default autosize
+
+ZoneHVAC:WaterToAirHeatPump,
+        \memo Water-to-air heat pump. Forced-convection heating-cooling unit with supply fan,
+        \memo water-to-air cooling and heating coils, supplemental heating coil (gas, electric, hot
+        \memo water, or steam), and fixed-position outdoor air mixer.
+        \min-fields 25
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference DOAToZonalUnit
+        \reference ZoneEquipmentNames
+   A2,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3,  \field Air Inlet Node Name
+        \required-field
+        \type node
+   A4,  \field Air Outlet Node Name
+        \required-field
+        \type node
+   A5,  \field Outdoor Air Mixer Object Type
+        \type choice
+        \key OutdoorAir:Mixer
+        \note Currently only one OutdoorAir:Mixer object type is available.
+        \note This field should be left blank if the WSHP is connected to central
+        \note dedicated outdoor air through an AirTerminal:SingleDuct:Mixer object.
+   A6,  \field Outdoor Air Mixer Name
+        \type object-list
+        \object-list OutdoorAirMixers
+        \note If this field is blank, the OutdoorAir:Mixer is not used.
+        \note This optional field specifies the name of the OutdoorAir:Mixer object.
+        \note When used, this name needs to match name of the OutdoorAir:Mixer object.
+        \note This field should be left blank if the WSHP is connected to central
+        \note dedicated outdoor air through an AirTerminal:SingleDuct:Mixer object.
+   N1 , \field Cooling Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum> 0.0
+        \autosizable
+        \note Must be less than or equal to fan size.
+   N2 , \field Heating Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum> 0.0
+        \autosizable
+        \note Must be less than or equal to fan size.
+   N3 , \field No Load Supply Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum 0
+        \autosizable
+        \note Must be less than or equal to fan size.
+        \note Only used when heat pump fan operating mode is continuous. This air flow rate
+        \note is used when no heating or cooling is required and the DX coil compressor is off.
+        \note If this field is left blank or zero, the supply air flow rate from the previous
+        \note on cycle (either cooling or heating) is used.
+   N4 , \field Cooling Outdoor Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum 0
+        \autosizable
+        \note Must be less than or equal to supply air flow rate during cooling operation.
+        \note This field is set to zero flow when the WSHP is connected to central
+        \note dedicated outdoor air through air terminal single duct mixer object.
+   N5 , \field Heating Outdoor Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum 0
+        \autosizable
+        \note Must be less than or equal to supply air flow rate during heating operation.
+        \note This field is set to zero flow when the WSHP is connected to central
+        \note dedicated outdoor air through air terminal single duct mixer object.
+   N6 , \field No Load Outdoor Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum 0
+        \autosizable
+        \note Only used when heat pump Fan operating mode is continuous. This air flow rate
+        \note is used when no heating or cooling is required and the DX coil compressor is off.
+        \note If this field is left blank or zero, the outdoor air flow rate from the previous
+        \note on cycle (either cooling or heating) is used.
+        \note This field is set to zero flow when the PTHP is connected to central
+        \note dedicated outdoor air through air terminal single duct mixer object.
+   A7,  \field Supply Air Fan Object Type
+        \required-field
+        \type choice
+        \key Fan:SystemModel
+        \key Fan:OnOff
+   A8,  \field Supply Air Fan Name
+        \required-field
+        \type object-list
+        \object-list FansOnOff
+        \object-list FansSystemModel
+        \note Needs to match Fan:SystemModel or Fan:OnOff object
+   A9,  \field Heating Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Heating:WaterToAirHeatPump:EquationFit
+        \key Coil:Heating:WaterToAirHeatPump:VariableSpeedEquationFit
+   A10, \field Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilsWaterToAirHP
+        \object-list HeatingCoilsWaterToAirVSHP
+        \note  Needs to match in the water-to-air heat pump heating coil object
+   A11, \field Cooling Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Cooling:WaterToAirHeatPump:EquationFit
+        \key Coil:Cooling:WaterToAirHeatPump:VariableSpeedEquationFit
+   A12, \field Cooling Coil Name
+        \required-field
+        \type object-list
+        \object-list CoolingCoilsWaterToAirHP
+        \object-list CoolingCoilsWaterToAirVSHP
+        \note Needs to match in the water-to-air heat pump cooling coil object
+   N7,  \field Maximum Cycling Rate
+        \type real
+        \units cycles/hr
+        \minimum 0.0
+        \maximum 5.0
+        \default 2.5
+        \note The maximum on-off cycling rate for the compressor
+        \note Suggested value is 2.5 for a typical heat pump
+   N8,  \field Heat Pump Time Constant
+        \type real
+        \units s
+        \minimum 0.0
+        \maximum 500.0
+        \default 60.0
+        \note Time constant for the cooling coil's capacity to reach steady state after startup
+        \note Suggested value is 60 for a typical heat pump
+   N9,  \field Fraction of On-Cycle Power Use
+        \minimum 0.0
+        \maximum 0.05
+        \default 0.01
+        \note The fraction of on-cycle power use to adjust the part load fraction based on
+        \note the off-cycle power consumption due to crankcase heaters, controls, fans, and etc.
+        \note Suggested value is 0.01 for a typical heat pump
+   N10, \field Heat Pump Fan Delay Time
+        \units s
+        \minimum 0.0
+        \default 60
+        \note Programmed time delay for heat pump fan to shut off after compressor cycle off.
+        \note Only required when fan operating mode is cycling
+        \note Enter 0 when fan operating mode is continuous
+   A13, \field Supplemental Heating Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Heating:Fuel
+        \key Coil:Heating:Electric
+        \key Coil:Heating:Water
+        \key Coil:Heating:Steam
+        \note works with gas, electric, hot water and steam heating coils
+   A14, \field Supplemental Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilName
+        \note  Needs to match in the supplemental heating coil object
+   N11, \field Maximum Supply Air Temperature from Supplemental Heater
+        \required-field
+        \type real
+        \units C
+        \autosizable
+        \default autosize
+        \note Supply air temperature from the supplemental heater will not exceed this value.
+   N12, \field Maximum Outdoor Dry-Bulb Temperature for Supplemental Heater Operation
+        \type real
+        \maximum 21.0
+        \default 21.0
+        \units C
+   A15, \field Outdoor Dry-Bulb Temperature Sensor Node Name
+        \type node
+   A16, \field Fan Placement
+        \type choice
+        \key BlowThrough
+        \key DrawThrough
+        \default BlowThrough
+   A17, \field Supply Air Fan Operating Mode Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Enter the name of a schedule that controls fan operation. Schedule values of 0 denote
+        \note cycling fan operation (fan cycles with cooling or heating coil). Schedule values greater
+        \note than 0 denote constant fan operation (fan runs continually regardless of coil operation).
+        \note The fan operating mode defaults to cycling fan operation if this field is left blank.
+   A18, \field Availability Manager List Name
+        \note Enter the name of an AvailabilityManagerAssignmentList object.
+        \type object-list
+        \object-list SystemAvailabilityManagerLists
+   A19, \field Heat Pump Coil Water Flow Mode
+        \type choice
+        \key Constant
+        \key Cycling
+        \key ConstantOnDemand
+        \default Cycling
+        \note used only when the heat pump coils are of the type WaterToAirHeatPump:EquationFit
+        \note Constant results in 100% water flow regardless of compressor PLR
+        \note Cycling results in water flow that matches compressor PLR
+        \note ConstantOnDemand results in 100% water flow whenever the coil is on, but is 0% whenever the coil has no load
+   A20; \field Design Specification ZoneHVAC Sizing Object Name
+        \note Enter the name of a DesignSpecificationZoneHVACSizing object.
+        \type object-list
+        \object-list DesignSpecificationZoneHVACSizingName
+
+ZoneHVAC:Dehumidifier:DX,
+        \memo This object calculates the performance of zone (room) air dehumidifiers.
+        \memo Meant to model conventional direct expansion (DX) cooling-based room air
+        \memo dehumidifiers (reject 100% of condenser heat to the zone air), but this
+        \memo object might be able to be used to model other room air dehumidifier types.
+        \min-fields 13
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference ZoneEquipmentNames
+        \note Unique name for this direct expansion (DX) zone dehumidifier object.
+   A2,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+        \note Schedule values of 0 denote the unit is off.
+        \note Schedule values >0.0 (usually 1.0) indicate that the dehumidifier is available to operate.
+   A3 , \field Air Inlet Node Name
+        \required-field
+        \type node
+        \note Air inlet node for the dehumidifier must be a zone air exhaust node.
+   A4 , \field Air Outlet Node Name
+        \required-field
+        \type node
+        \note Air outlet node for the dehumidifier must be a zone air inlet node.
+   N1,  \field Rated Water Removal
+        \required-field
+        \type real
+        \units L/day
+        \minimum> 0.0
+        \note Rating point: air entering dehumidifier at 26.7 C (80 F) dry-bulb and 60% relative humidity.
+   N2,  \field Rated Energy Factor
+        \required-field
+        \type real
+        \units L/kWh
+        \minimum> 0.0
+        \note Rating point: air entering dehumidifier at 26.7 C (80 F) dry-bulb and 60% relative humidity.
+   N3,  \field Rated Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum> 0.0
+   A5,  \field Water Removal Curve Name
+        \required-field
+        \type object-list
+        \object-list BivariateFunctions
+        \note Name of a curve that describes the water removal rate (normalized to rated conditions)
+        \note as a function of the dry-bulb temperature and relative humidity of the air
+        \note entering the dehumidifier.
+        \note Curve output = (actual water removal/rated water removal) = a + b*T + c*T**2 + d*RH +
+        \note                                                             e*RH**2 + f*T*RH
+        \note T = inlet air dry-bulb temperature (C)
+        \note RH = inlet air RH (%)
+   A6,  \field Energy Factor Curve Name
+        \required-field
+        \type object-list
+        \object-list BivariateFunctions
+        \note Name of a curve that describes the energy factor (normalized to rated conditions)
+        \note as a function of the dry-bulb temperature and relative humidity of the air
+        \note entering the dehumidifier.
+        \note Curve output = (actual energy factor/rated energy factor) = a + b*T + c*T**2 + d*RH +
+        \note                                                             e*RH**2 + f*T*RH
+        \note T = inlet air dry-bulb temperature (C)
+        \note RH = inlet air RH (%)
+   A7,  \field Part Load Fraction Correlation Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note Name of a curve that describes the part load fraction (PLF) of the system as
+        \note a function of the part load ratio. Used to calculate dehumidifier run time fraction
+        \note and electric power.
+        \note quadratic curve = a + b*PLR + c*PLR**2
+        \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+        \note PLR = part load ratio (dehumidification load/steady state water removal capacity)
+   N4,  \field Minimum Dry-Bulb Temperature for Dehumidifier Operation
+        \type real
+        \units C
+        \default 10.0
+        \note Dehumidifier shut off if inlet air (zone) temperature is below this value.
+        \note This value must be less than the Maximum Dry-Bulb Temperature for Dehumidifier Operation.
+   N5,  \field Maximum Dry-Bulb Temperature for Dehumidifier Operation
+        \type real
+        \units C
+        \default 35.0
+        \note Dehumidifier shut off if inlet air (zone) temperature is above this value.
+        \note This value must be greater than the Minimum Dry-Bulb Temperature for Dehumidifier Operation.
+   N6,  \field Off-Cycle Parasitic Electric Load
+        \type real
+        \units W
+        \minimum 0.0
+        \default 0.0
+        \note Parasitic electric power consumed when the dehumidifier is available to operate, but
+        \note does not operate (i.e., no high humidity load to be met).
+        \note Off cycle parasitic power is 0 when the availability schedule is 0.
+        \note This electric load is considered as a heat gain to the zone air.
+   A8;  \field Condensate Collection Water Storage Tank Name
+        \type object-list
+        \object-list WaterStorageTankNames
+        \note Name of storage tank used to collect water removed by the dehumidifier.
+
+ZoneHVAC:EnergyRecoveryVentilator,
+        \memo This compound component models a stand-alone energy recovery ventilator (ERV)
+        \memo that conditions outdoor ventilation air and supplies that air directly to a zone.
+        \memo The ERV unit is modeled as a collection of components: air-to-air heat exchanger,
+        \memo supply air fan, exhaust air fan and an optional controller to avoid overheating
+        \memo of the supply air (economizer or free cooling operation).
+        \min-fields 7
+  A1,  \field Name
+        \required-field
+        \type alpha
+        \reference ZoneEquipmentNames
+  A2 ,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+  A3 ,  \field Heat Exchanger Name
+        \required-field
+        \note Heat exchanger type must be HeatExchanger:AirToAir:SensibleAndLatent
+        \type object-list
+        \object-list HXAirToAirSensibleAndLatentNames
+  N1 ,  \field Supply Air Flow Rate
+        \required-field
+        \autosizable
+        \type real
+        \minimum> 0.0
+        \units m3/s
+        \note This flow rate must match the supply fan's air flow rate.
+  N2 ,  \field Exhaust Air Flow Rate
+        \required-field
+        \autosizable
+        \type real
+        \minimum> 0.0
+        \units m3/s
+        \note This flow rate must match the supply fan air flow rate.
+  A4 ,  \field Supply Air Fan Name
+        \required-field
+        \note Fan type must be Fan:OnOff or Fan:SystemModel
+        \type object-list
+        \object-list FansOnOff
+        \object-list FansSystemModel
+  A5 ,  \field Exhaust Air Fan Name
+        \required-field
+        \note Fan type must be Fan:OnOff or Fan:SystemModel
+        \type object-list
+        \object-list FansOnOff
+        \object-list FansSystemModel
+  A6 ,  \field Controller Name
+        \note Enter the name of a ZoneHVAC:EnergyRecoveryVentilator:Controller object.
+        \type object-list
+        \object-list ControllerStandAloneEnergyRecoveryVentilator
+  N3 ,  \field Ventilation Rate per Unit Floor Area
+        \type real
+        \units m3/s-m2
+        \minimum 0.0
+        \note 0.000508 m3/s-m2 corresponds to 0.1 ft3/min-ft2
+        \note Used only when supply and exhaust air flow rates are autosized.
+  N4 ,  \field Ventilation Rate per Occupant
+        \type real
+        \units m3/s-person
+        \minimum 0.0
+        \note 0.00236 m3/s-person corresponds to 5 ft3/min-person
+        \note Used only when supply and exhaust air flow rates are autosized.
+  A7;   \field Availability Manager List Name
+        \note Enter the name of an AvailabilityManagerAssignmentList object.
+        \type object-list
+        \object-list SystemAvailabilityManagerLists
+
+ZoneHVAC:EnergyRecoveryVentilator:Controller,
+       \memo This controller is used exclusively by the ZoneHVAC:EnergyRecoveryVentilator object
+       \memo to allow economizer (free cooling) operation when possible.
+       \min-fields 3
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ControllerStandAloneEnergyRecoveryVentilator
+  N1 , \field Temperature High Limit
+       \type real
+       \units C
+       \note Enter the maximum outdoor dry-bulb temperature limit for economizer operation.
+       \note No input or blank input means this limit is not operative
+  N2 , \field Temperature Low Limit
+       \type real
+       \units C
+       \note Enter the minimum outdoor dry-bulb temperature limit for economizer operation.
+       \note No input or blank input means this limit is not operative
+  N3 , \field Enthalpy High Limit
+       \type real
+       \units J/kg
+       \note Enter the maximum outdoor enthalpy limit for economizer operation.
+       \note No input or blank input means this limit is not operative
+  N4 , \field Dewpoint Temperature Limit
+       \type real
+       \units C
+       \note Enter the maximum outdoor dew point temperature limit for economizer operation.
+       \note No input or blank input means this limit is not operative
+  A2 , \field Electronic Enthalpy Limit Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Enter the name of a quadratic or cubic curve which defines the maximum outdoor
+       \note humidity ratio (function of outdoor dry-bulb temperature) for economizer operation.
+       \note No input or blank input means this limit is not operative
+  A3 , \field Exhaust Air Temperature Limit
+       \type choice
+       \key ExhaustAirTemperatureLimit
+       \key NoExhaustAirTemperatureLimit
+       \default NoExhaustAirTemperatureLimit
+  A4 , \field Exhaust Air Enthalpy Limit
+       \type choice
+       \key ExhaustAirEnthalpyLimit
+       \key NoExhaustAirEnthalpyLimit
+       \default NoExhaustAirEnthalpyLimit
+  A5 , \field Time of Day Economizer Flow Control Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values greater than 0 indicate economizer operation is active. This
+       \note schedule may be used with or without the High Humidity Control option.
+       \note When used together, high humidity control has priority over economizer control.
+  A6 , \field High Humidity Control Flag
+       \type choice
+       \key Yes
+       \key No
+       \default No
+       \note Select Yes to modify air flow rates based on a zone humidistat.
+       \note Select No to disable this feature.
+  A7 , \field Humidistat Control Zone Name
+       \type object-list
+       \object-list ZoneNames
+       \note Enter the name of the zone where the humidistat is located.
+  N5 , \field High Humidity Outdoor Air Flow Ratio
+       \type real
+       \minimum> 0.0
+       \default 1.0
+       \note Enter the ratio of supply (outdoor) air to the maximum supply air flow rate when modified
+       \note air flow rates are active based on high indoor humidity.
+  A8 ; \field Control High Indoor Humidity Based on Outdoor Humidity Ratio
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+       \note If NO is selected, the air flow rate is modified any time indoor relative
+       \note humidity is above humidistat setpoint. If YES is selected, outdoor air flow
+       \note rate is modified any time indoor relative humidity is above the humidistat
+       \note setpoint AND the outdoor humidity ratio is less than the indoor humidity ratio.
+
+ZoneHVAC:UnitVentilator,
+        \memo Unit ventilator. Forced-convection ventilation unit with supply fan (constant-volume
+        \memo or variable-volume), optional chilled water cooling coil, optional heating coil
+        \memo (gas, electric, hot water, or steam) and controllable outdoor air mixer.
+        \min-fields 16
+   A1 , \field Name
+        \required-field
+        \reference DOAToZonalUnit
+        \reference ZoneEquipmentNames
+   A2 , \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   N1 , \field Maximum Supply Air Flow Rate
+        \required-field
+        \units m3/s
+        \minimum> 0
+        \autosizable
+   A3 , \field Outdoor Air Control Type
+        \required-field
+        \type choice
+        \key FixedAmount
+        \key VariablePercent
+        \key FixedTemperature
+   N2 , \field Minimum Outdoor Air Flow Rate
+        \required-field
+        \units m3/s
+        \autosizable
+        \minimum 0.0
+   A4 , \field Minimum Outdoor Air Schedule Name
+        \required-field
+        \type object-list
+        \object-list ScheduleNames
+        \note schedule values multiply the minimum outdoor air flow rate
+   N3 , \field Maximum Outdoor Air Flow Rate
+        \required-field
+        \units m3/s
+        \minimum 0
+        \autosizable
+   A5 , \field Maximum Outdoor Air Fraction or Temperature Schedule Name
+        \note that this depends on the control type as to whether it is a fraction or temperature
+        \required-field
+        \type object-list
+        \object-list ScheduleNames
+   A6 , \field Air Inlet Node Name
+        \required-field
+        \type node
+        \note Inlet node name must be zone exhaust node name if there is no DOA Mixer, or if the
+        \note unit ventilator is connected DOA, then the air inlet node name must be the mixer
+        \note outlet air node name for InletSide mixer connection.
+   A7 , \field Air Outlet Node Name
+        \required-field
+        \type node
+        \note Outlet node name must be zone inlet node name if there is no DOA Mixer, or if the
+        \note unit ventilator is connected DOA, then the air outlet node name must be the mixer
+        \note secondary air inlet node name for SupplySide mixer connection.
+   A8,  \field Outdoor Air Node Name
+        \type node
+        \note this field is left blank only if the Unit Ventilator is connected to a central
+        \note dedicated outdoor air (DOA) via AirTerminal:SingleDuct:Mixer object
+   A9,  \field Exhaust Air Node Name
+        \type node
+        \note this field is left blank only if the Unit Ventilator is connected to a central
+        \note dedicated outdoor air (DOA) via AirTerminal:SingleDuct:Mixer object
+   A10, \field Mixed Air Node Name
+        \type node
+        \note inlet to coils
+        \note this field is left blank only if the Unit Ventilator is connected to a central
+        \note dedicated outdoor air (DOA) via AirTerminal:SingleDuct:Mixer object
+   A11, \field Supply Air Fan Object Type
+        \required-field
+        \type choice
+        \key Fan:OnOff
+        \key Fan:ConstantVolume
+        \key Fan:VariableVolume
+        \key Fan:SystemModel
+        \note Allowable fan types are Fan:ConstantVolume, Fan:OnOff, Fan:VariableVolume, and Fan:SystemModel
+   A12, \field Supply Air Fan Name
+        \required-field
+        \type object-list
+        \object-list FansCVandOnOffandVAV
+        \object-list FansSystemModel
+   A13, \field Coil Option
+        \required-field
+        \type choice
+        \key None
+        \key Heating
+        \key Cooling
+        \key HeatingAndCooling
+   A14, \field Supply Air Fan Operating Mode Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Enter the name of a schedule that controls fan operation. Schedule
+        \note name values of 0 denote cycling fan operation (fan cycles with
+        \note cooling/heating coil). Schedule values greater than 0 denote
+        \note constant fan operation (fan runs continually regardless of coil
+        \note operation). The fan operating mode defaults to cycling fan operation
+        \note if this input field is left blank.
+   A15, \field Heating Coil Object Type
+        \type choice
+        \key Coil:Heating:Water
+        \key Coil:Heating:Electric
+        \key Coil:Heating:Fuel
+        \key Coil:Heating:Steam
+   A16, \field Heating Coil Name
+        \type object-list
+        \object-list HeatingCoilName
+   N4 , \field Heating Convergence Tolerance
+        \type real
+        \minimum> 0.0
+        \default 0.001
+   A17, \field Cooling Coil Object Type
+        \type choice
+        \key Coil:Cooling:Water
+        \key Coil:Cooling:Water:DetailedGeometry
+        \key CoilSystem:Cooling:Water:HeatExchangerAssisted
+   A18, \field Cooling Coil Name
+        \type object-list
+        \object-list CoolingCoilsWater
+   N5 , \field Cooling Convergence Tolerance
+        \type real
+        \minimum> 0.0
+        \default 0.001
+   A19, \field Availability Manager List Name
+        \note Enter the name of an AvailabilityManagerAssignmentList object.
+        \type object-list
+        \object-list SystemAvailabilityManagerLists
+   A20; \field Design Specification ZoneHVAC Sizing Object Name
+        \note Enter the name of a DesignSpecificationZoneHVACSizing object.
+        \type object-list
+        \object-list DesignSpecificationZoneHVACSizingName
+
+ZoneHVAC:UnitHeater,
+        \memo Unit heater. Forced-convection heating-only unit with supply fan, heating coil
+        \memo (gas, electric, hot water, or steam) and fixed-position outdoor air mixer.
+        \min-fields 11
+   A1 , \field Name
+        \required-field
+        \reference ZoneEquipmentNames
+   A2 , \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3 , \field Air Inlet Node Name
+        \type node
+   A4 , \field Air Outlet Node Name
+        \type node
+   A5 , \field Supply Air Fan Object Type
+        \required-field
+        \type choice
+        \key Fan:OnOff
+        \key Fan:ConstantVolume
+        \key Fan:VariableVolume
+        \key Fan:SystemModel
+        \note Allowable fan types are Fan:ConstantVolume, Fan:OnOff, Fan:VariableVolume and Fan:SystemModel
+   A6 , \field Supply Air Fan Name
+        \required-field
+        \type object-list
+        \object-list FansCVandOnOffandVAV
+        \object-list FansSystemModel
+   N1 , \field Maximum Supply Air Flow Rate
+        \required-field
+        \units m3/s
+        \minimum> 0
+        \autosizable
+   A7 , \field Heating Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Heating:Water
+        \key Coil:Heating:Electric
+        \key Coil:Heating:Fuel
+        \key Coil:Heating:Steam
+   A8 , \field Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilName
+   A9 , \field Supply Air Fan Operating Mode Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Enter the name of a schedule that controls fan operation. Schedule
+        \note name values of 0 denote cycling fan operation (fan cycles with the
+        \note heating coil). Schedule values greater than 0 denote constant fan
+        \note operation (fan runs continually regardless of coil operation).
+        \note The fan operating mode defaults to cycling fan operation if this
+        \note input field is left blank.
+   A10, \field Supply Air Fan Operation During No Heating
+        \required-field
+        \type choice
+        \key Yes
+        \key No
+        \note This choice field allows the user to define how the unit heater will operate
+        \note under "no heating load" or cooling conditions. If the "No" is selected, then
+        \note the fan will not run unless there is a heating load. If the fan does not run,
+        \note this effectively shuts the unit heater system off when there is no heating load.
+        \note If the "Yes" is selected, the unit heater is available and has a ConstantVolume
+        \note fan, or has an OnOff fan with "Supply Air Fan Operating Mode Schedule" value
+        \note greater than zero, then the fan will always run regardless of the zone load.
+   N2 , \field Maximum Hot Water or Steam Flow Rate
+        \note Not used when heating coil is gas or electric
+        \units m3/s
+        \minimum> 0
+        \autosizable
+        \ip-units gal/min
+   N3 , \field Minimum Hot Water or Steam Flow Rate
+        \note Not used when heating coil is gas or electric
+        \units m3/s
+        \minimum 0
+        \default 0
+        \ip-units gal/min
+   N4 , \field Heating Convergence Tolerance
+        \type real
+        \minimum> 0.0
+        \default 0.001
+   A11, \field Availability Manager List Name
+        \note Enter the name of an AvailabilityManagerAssignmentList object.
+        \type object-list
+        \object-list SystemAvailabilityManagerLists
+   A12; \field Design Specification ZoneHVAC Sizing Object Name
+        \note Enter the name of a DesignSpecificationZoneHVACSizing object.
+        \type object-list
+        \object-list DesignSpecificationZoneHVACSizingName
+
+ZoneHVAC:EvaporativeCoolerUnit,
+        \memo Zone evaporative cooler. Forced-convection cooling-only unit with supply fan,
+        \memo 100% outdoor air supply. Optional relief exhaust node
+        \min-fields 15
+   A1 , \field Name
+        \required-field
+        \reference ZoneEquipmentNames
+   A2 , \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3,  \field Availability Manager List Name
+        \note Enter the name of an AvailabilityManagerAssignmentList object.
+        \type object-list
+        \object-list SystemAvailabilityManagerLists
+   A4 , \field Outdoor Air Inlet Node Name
+        \required-field
+        \type node
+        \note this is an outdoor air node
+   A5 , \field Cooler Outlet Node Name
+        \required-field
+        \type node
+        \note this is a zone inlet node
+   A6 , \field Zone Relief Air Node Name
+        \type node
+        \note this is a zone exhaust node, optional if flow is being balanced elsewhere
+   A7 , \field Supply Air Fan Object Type
+        \required-field
+        \type choice
+        \key Fan:SystemModel
+        \key Fan:ComponentModel
+        \key Fan:ConstantVolume
+        \key Fan:OnOff
+        \key Fan:VariableVolume
+   A8 , \field Supply Air Fan Name
+        \required-field
+        \type object-list
+        \object-list Fans
+   N1 , \field Design Supply Air Flow Rate
+        \required-field
+        \units m3/s
+        \minimum> 0
+        \autosizable
+   A9 , \field Fan Placement
+        \required-field
+        \type choice
+        \key BlowThrough
+        \key DrawThrough
+   A10, \field Cooler Unit Control Method
+        \required-field
+        \type choice
+        \key ZoneTemperatureDeadbandOnOffCycling
+        \key ZoneCoolingLoadOnOffCycling
+        \key ZoneCoolingLoadVariableSpeedFan
+   N2 , \field Throttling Range Temperature Difference
+        \note used for ZoneTemperatureDeadbandOnOffCycling hystersis range for thermostatic control
+        \type real
+        \units deltaC
+        \default 1.0
+        \minimum> 0.0
+   N3 , \field Cooling Load Control Threshold Heat Transfer Rate
+        \type real
+        \units W
+        \default 100.0
+        \note Sign convention is that positive values indicate a cooling load
+        \minimum> 0.0
+   A11, \field First Evaporative Cooler Object Type
+        \required-field
+        \type choice
+        \key EvaporativeCooler:Direct:CelDekPad
+        \key EvaporativeCooler:Direct:ResearchSpecial
+        \key EvaporativeCooler:Indirect:CelDekPad
+        \key EvaporativeCooler:Indirect:WetCoil
+        \key EvaporativeCooler:Indirect:ResearchSpecial
+   A12, \field First Evaporative Cooler Object Name
+        \required-field
+        \type object-list
+        \object-list EvapCoolerNames
+   A13, \field Second Evaporative Cooler Object Type
+        \note optional, used for direct/indirect configurations
+        \note second cooler must be immediately downstream of first cooler, if present
+        \type choice
+        \key EvaporativeCooler:Direct:CelDekPad
+        \key EvaporativeCooler:Direct:ResearchSpecial
+        \key EvaporativeCooler:Indirect:CelDekPad
+        \key EvaporativeCooler:Indirect:WetCoil
+        \key EvaporativeCooler:Indirect:ResearchSpecial
+   A14, \field Second Evaporative Cooler Name
+        \note optional, used for direct/indirect configurations
+        \type object-list
+        \object-list EvapCoolerNames
+   A15; \field Design Specification ZoneHVAC Sizing Object Name
+        \note Enter the name of a DesignSpecificationZoneHVACSizing object.
+        \type object-list
+        \object-list DesignSpecificationZoneHVACSizingName
+
+ZoneHVAC:HybridUnitaryHVAC,
+        \memo Hybrid Unitary HVAC. A black box model for multi-mode packaged forced air equipment. Independent variables include outdoor air conditions and indoor air conditions. Controlled inputs include operating mode, supply air flow rate, and outdoor air faction. Emperical lookup tables are required to map supply air temperature supply air humidity, electricity use, fuel uses, water use, fan electricity use, and external static pressure as a function of each indpednent varaible and each controlled input. In each timestep the model will choose one or more combinations of settings for mode, supply air flow rate, outdoor air faction, and part runtime fraction so as to satisfy zone requests for sensible cooling, heating, ventilation, and/or dehumidification with the least resource consumption. Equipment in this class may consume electricity, water, and up to two additional fuel types.
+        \extensible:25 repeat last twentyfive fields remembering to move the semi-colon to the last value
+    A1, \field Name
+        \required-field
+        \type alpha
+        \retaincase
+        \reference ZoneEquipmentNames
+    A2, \field Availability Schedule Name
+        \note Enter the availability schedule name for this system. Schedule value > 0 means the system is available. If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+    A3, \field Availability Manager List Name
+        \note Enter the name of an AvailabilityManagerAssignmentList object.
+        \type object-list
+        \object-list SystemAvailabilityManagerLists
+    A4, \field Minimum Supply Air Temperature Schedule Name
+        \note Values in this schedule are used as a constraint in choosing the feasible settings for supply air flow rate and ouside air fraction in each operating mode. If this field is blank, no minimum is imposed.
+        \type object-list
+        \object-list ScheduleNames
+    A5, \field Maximum Supply Air Temperature Schedule Name
+        \note Values in this schedule are used as a constraint in choosing the feasible settings for supply air flow rate and outdoor air fraction in each operating mode. If this field is blank, no maximum is imposed.
+        \type object-list
+        \object-list ScheduleNames
+    A6, \field Minimum Supply Air Humidity Ratio Schedule Name
+        \note Values in this schedule are used as a constraint in choosing the feasible settings for supply air flow rate and outdoor air fraction in each operating mode. If this field is blank, no minimum is imposed.
+        \type object-list
+        \object-list ScheduleNames
+    A7, \field Maximum Supply Air Humidity Ratio Schedule Name
+        \note Values in this schedule are used as a constraint in choosing the feasible settings for supply air flow rate and outdoor air fraction in each operating mode. If this field is blank, no maximum is imposed.
+        \type object-list
+        \object-list ScheduleNames
+    A8, \field Method to Choose Controlled Inputs and Part Runtime Fraction
+        \note Select the method that will be used to choose operating mode(s), supply air flow rate(s), outdoor air fraction(s) and part runtime fraction(s) in each time step. "Automatic" = chooses controlled inputs and part runtime fraction(s) to minimize resource use within each time step while best satisfying requested sensible cooling, dehumidification and ventilation, and subject to constraints. "User Defined" = EMS will be used to choose controlled inputs and part runtime fraction(s) in each time step. If this field is blank, default to "Automatic".
+        \type choice
+        \key Automatic
+        \key User Defined
+        \default Automatic
+    A9, \field Return Air Node Name
+        \required-field
+        \type node
+        \note Return air node for the hybrid unit must be a zone exhaust node.
+   A10, \field Outdoor Air Node Name
+        \required-field
+        \type node
+        \note Outdoor air node for the hybrid unit must be an outdoor air node.
+   A11, \field Supply Air Node Name
+        \required-field
+        \type node
+        \note Supply air node for the hybrid unit must be a zone air inlet node.
+   A12, \field Relief Node Name
+        \type node
+        \note Relief node for the hybrid unit must be a zone exhaust node, unless flow is being balanced elsewhere.
+    N1, \field System Maximum Supply Air Flow Rate
+        \type real
+        \minimum> 0
+        \note The value in this field represents the maximum supply air volume flow rate among all operating modes. Values of extensive variables in lookup tables are normalized by the system maximum supply air mass flow rate that was used to build performance curves. The value in this field is used to rescale the output from exenstive variables to a desired system size.
+        \units m3/s
+    N2, \field External Static Pressure at System Maximum Supply Air Flow Rate
+        \type real
+        \minimum> 0
+        \note Input the external static pressure when the system operates at maximum supply air flow rate. Fan affinity laws are used to scale supply fan power from the values tabulated in lookup tables, to values that match the external static pressure input to this field. If this field is blank, the supply fan power is not scaled from the values tabulated in lookup tables.
+        \units Pa
+   A13, \field Fan Heat Included in Lookup Tables
+        \type choice
+        \key No
+        \key Yes
+        \default No
+        \note This field specifies if the fan heat is accounted for in the lookup tables.
+   A14, \field Fan Heat Gain Location
+        \type choice
+        \key MixedAirStream
+        \key SupplyAirStream
+        \default SupplyAirStream
+        \note This field specifies where to add the fan heat in the air stream.
+    N3, \field Fan Heat In Air Stream Fraction
+        \note 0.0 means no fan heat is added to the air stream, 1.0 means all fan heat is added to the air stream.
+        \type real
+        \default 1.0
+        \minimum 0.0
+        \maximum 1.0
+    N4, \field Scaling Factor
+        \type real
+        \minimum> 0
+        \note The value in this field scales all extensive performance variables including: supply air mass flow rate, fuel uses, and water use. If this field is blank, the default scaling factor is 1.
+        \default 1
+    N5, \field Minimum Time Between Mode Change
+        \type real
+        \minimum 1
+        \note Any mode selected will not operate for less time than the value input in this field. If the value in this field is larger than each timestep, the mode selected in one time step will persist in later time steps until the minimum time between mode change is satisfied. Supply air mass flow rate and outdoor air fraction within a mode are not subject to minimum runtime and may change in every time step. Mode 0 does not have a minimum time. If this field is blank, the default minimum time between mode change is 10 minutes.
+        \units minutes
+        \default 10
+   A15, \field First Fuel Type
+        \type choice
+        \key None
+        \key Electricity
+        \key NaturalGas
+        \key Propane
+        \key FuelOilNo1
+        \key FuelOilNo2
+        \key Diesel
+        \key Gasoline
+        \key Coal
+        \key OtherFuel1
+        \key OtherFuel2
+        \key Steam
+        \key DistrictHeating
+        \key DistrictCooling
+        \note Select the fuel type associated with field: "System Electric Power Lookup Table" in each mode.
+        \note If this field is blank, default first fuel type = Electricity.
+        \default Electricity
+   A16, \field Second Fuel Type
+        \type choice
+        \key None
+        \key Electricity
+        \key NaturalGas
+        \key Propane
+        \key FuelOilNo1
+        \key FuelOilNo2
+        \key Diesel
+        \key Gasoline
+        \key Coal
+        \key OtherFuel1
+        \key OtherFuel2
+        \key Steam
+        \key DistrictHeating
+        \key DistrictCooling
+        \note Select the fuel type associated with field: "System Second Fuel Consumption Lookup Table" in each mode.
+        \note If this field is blank, default second fuel type = None.
+        \default None
+   A17, \field Third Fuel Type
+        \type choice
+        \key None
+        \key Electricity
+        \key NaturalGas
+        \key Propane
+        \key FuelOilNo1
+        \key FuelOilNo2
+        \key Diesel
+        \key Gasoline
+        \key Coal
+        \key OtherFuel1
+        \key OtherFuel2
+        \key Steam
+        \key DistrictHeating
+        \key DistrictCooling
+        \note Select the fuel type associated with field: "System Third Fuel Consumption Lookup Table" in each mode.
+        \note If this field is blank, default third fuel type = None.
+        \default None
+   A18, \field Objective Function to Minimize
+        \type choice
+        \key Electricity Use
+        \key Second Fuel Use
+        \key Third Fuel Use
+        \key Water Use
+        \note In each time step, controlled variables will be chosen to minimize the selection in this field, subject to constraints.
+        \note If this field is blank, the objective function will minimize electricity use.
+        \default Electricity Use
+   A19, \field Design Specification Outdoor Air Object Name
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+        \note Enter the name of a DesignSpecification:OutdoorAir object. Information in that object will be used to compute the minimum outdoor air flow rate in each time step.
+        \note If this field is blank, the system may still supply outdoor air, if it is capable as described by lookup tables, when doing so is the most efficient way to satisfy other constraints.
+   A20, \field Mode 0 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 0.
+        \note Mode 0 describes equipment performance in standby. Mode 0 is usually characterized by electricity use for controls and crankcase heaters, or other standby resouce consumption. Mode 0 will be chosen for any timestep, or portion of timestep, when no ventilation, cooling, humidification, or dehumidification is required. Mode 0 is available at any environmental condition.
+   A21, \field Mode 0 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 0.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 0 will not be considered for any period that requires ventilation, heating, cooling, humidification, or dehumidification. If this field is blank, when Mode 0 is chosen (during standby periods) the supply air temperature will equal the return air temperature.
+   A22, \field Mode 0 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 0.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 0 will not be considered for any period that requires ventilation, heating, cooling, humidification, or dehumidification. If this field is blank, when Mode 0 is chosen (during standby periods) the supply air humidty ratio will equal the return air humidity ratio.
+   A23, \field Mode 0 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 0.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 0 does not consume electricity.
+   A24, \field Mode 0 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 0.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 0 does not consume electricity for supply fan.
+   A25, \field Mode 0 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 0.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported.
+   A26, \field Mode 0 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 0.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 0 does not consume a second fuel.
+   A27, \field Mode 0 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 0.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 0 does not consume a third fuel.
+   A28, \field Mode 0 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 0.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 0 does not consume water.
+    N6, \field Mode 0 Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the outdoor air fraction for Mode 0.
+        \note If this field is blank, the outdoor air fraction for Mode 0 will be 0.00.
+        \default 0.00
+    N7, \field Mode 0 Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the supply air mass flow rate ratio for Mode 0. The value in this field will be used to determine the supply air mass flow rate in Mode 0.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the supply air mass flow rate ratio for Mode 0 will be 0.
+        \default 0.00
+   A29, \field Mode 1 Name
+        \begin-extensible
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 1.
+   A30, \field Mode 1 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 1.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 1 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A31, \field Mode 1 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 1.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 1 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A32, \field Mode 1 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 1.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 1 does not use electricity
+   A33, \field Mode 1 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 1.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 1 does not use electricity for supply fan.
+   A34, \field Mode 1 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 1.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 1.
+   A35, \field Mode 1 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 1.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 1 does not consume a second fuel.
+   A36, \field Mode 1 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 1.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 1 does not consume a third fuel.
+   A37, \field Mode 1 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 1.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 1 does not consume water.
+    N8, \field Mode 1 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 1.
+        \note Mode 1 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+    N9, \field Mode 1 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 1.
+        \note Mode 1 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+   N10, \field Mode 1 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 1.
+        \note Mode 1 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+   N11, \field Mode 1 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 1.
+        \note Mode 1 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+   N12, \field Mode 1 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 1.
+        \note Mode 1 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+   N13, \field Mode 1 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 1.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 1 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+   N14, \field Mode 1 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 1.
+        \note Mode 1 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+   N15, \field Mode 1 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 1.
+        \note Mode 1 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+   N16, \field Mode 1 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 1.
+        \note Mode 1 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+   N17, \field Mode 1 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 1.
+        \note Mode 1 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+   N18, \field Mode 1 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 1.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 1 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+   N19, \field Mode 1 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 1.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 1 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+   N20, \field Mode 1 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 1.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 1.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+   N21, \field Mode 1 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 1.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 1.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+   N22, \field Mode 1 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 1.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 1.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+   N23, \field Mode 1 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 1.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 1.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+   A38, \field Mode 2 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 2.
+   A39, \field Mode 2 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 2.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 2 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A40, \field Mode 2 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 2.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 2 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A41, \field Mode 2 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 2.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 2 does not consume electricity.
+   A42, \field Mode 2 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 2.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 2 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A43, \field Mode 2 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 2.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 2.
+   A44, \field Mode 2 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 2.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 2 does not consume a second fuel.
+   A45, \field Mode 2 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 2.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 2 does not consume a third fuel.
+   A46, \field Mode 2 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 2.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 2 does not consume water.
+   N24, \field Mode 2 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 2.
+        \note Mode 2 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+   N25, \field Mode 2 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 2.
+        \note Mode 2 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+   N26, \field Mode 2 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 2.
+        \note Mode 2 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+   N27, \field Mode 2 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 2.
+        \note Mode 2 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+   N28, \field Mode 2 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 2.
+        \note Mode 2 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+   N29, \field Mode 2 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 2.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 2 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+   N30, \field Mode 2 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 2.
+        \note Mode 2 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+   N31, \field Mode 2 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 2.
+        \note Mode 2 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+   N32, \field Mode 2 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 2.
+        \note Mode 2 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+   N33, \field Mode 2 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 2.
+        \note Mode 2 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+   N34, \field Mode 2 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 2.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 2 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+   N35, \field Mode 2 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 2.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 2 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+   N36, \field Mode 2 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 2.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 2.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+   N37, \field Mode 2 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 2.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 2.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+   N38, \field Mode 2 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 2.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 2.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+   N39, \field Mode 2 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 2.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 2.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+   A47, \field Mode 3 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 3.
+   A48, \field Mode 3 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 3.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 3 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A49, \field Mode 3 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 3.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 3 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A50, \field Mode 3 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 3.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 3 does not consume electricity.
+   A51, \field Mode 3 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 3.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 3 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A52, \field Mode 3 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 3.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 3.
+   A53, \field Mode 3 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 3.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 3 does not consume a second fuel.
+   A54, \field Mode 3 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 3.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 3 does not consume a third fuel.
+   A55, \field Mode 3 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 3.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 3 does not consume water.
+   N40, \field Mode 3 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 3.
+        \note Mode 3 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+   N41, \field Mode 3 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 3.
+        \note Mode 3 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+   N42, \field Mode 3 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 3.
+        \note Mode 3 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+   N43, \field Mode 3 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 3.
+        \note Mode 3 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+   N44, \field Mode 3 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 3.
+        \note Mode 3 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+   N45, \field Mode 3 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 3.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 3 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+   N46, \field Mode 3 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 3.
+        \note Mode 3 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+   N47, \field Mode 3 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 3.
+        \note Mode 3 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+   N48, \field Mode 3 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 3.
+        \note Mode 3 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+   N49, \field Mode 3 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 3.
+        \note Mode 3 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+   N50, \field Mode 3 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 3.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 3 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+   N51, \field Mode 3 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 3.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 3 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+   N52, \field Mode 3 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 3.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 3.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+   N53, \field Mode 3 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 3.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 3.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+   N54, \field Mode 3 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 3.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 3.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+   N55, \field Mode 3 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 3.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 3.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+   A56, \field Mode 4 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 4.
+   A57, \field Mode 4 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 4.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 4 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A58, \field Mode 4 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 4.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 4 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A59, \field Mode 4 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 4.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 4 does not consume electricity.
+   A60, \field Mode 4 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 4.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 4 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A61, \field Mode 4 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 4.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 4.
+   A62, \field Mode 4 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 4.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 4 does not consume a second fuel.
+   A63, \field Mode 4 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 4.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 4 does not consume a third fuel.
+   A64, \field Mode 4 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 4.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 4 does not consume water.
+   N56, \field Mode 4 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 4.
+        \note Mode 4 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+   N57, \field Mode 4 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 4.
+        \note Mode 4 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+   N58, \field Mode 4 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 4.
+        \note Mode 4 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+   N59, \field Mode 4 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 4.
+        \note Mode 4 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+   N60, \field Mode 4 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 4.
+        \note Mode 4 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+   N61, \field Mode 4 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 4.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 4 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+   N62, \field Mode 4 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 4.
+        \note Mode 4 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+   N63, \field Mode 4 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 4.
+        \note Mode 4 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+   N64, \field Mode 4 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 4.
+        \note Mode 4 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+   N65, \field Mode 4 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 4.
+        \note Mode 4 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+   N66, \field Mode 4 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 4.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 4 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+   N67, \field Mode 4 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 4.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 4 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+   N68, \field Mode 4 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 4.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 4.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+   N69, \field Mode 4 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 4.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 4.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+   N70, \field Mode 4 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 4.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 4.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+   N71, \field Mode 4 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 4.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 4.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+   A65, \field Mode 5 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 5.
+   A66, \field Mode 5 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 5.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 5 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A67, \field Mode 5 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 5.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 5 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A68, \field Mode 5 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 5.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 5 does not consume electricity.
+   A69, \field Mode 5 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 5.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 5 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A70, \field Mode 5 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 5.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 5.
+   A71, \field Mode 5 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 5.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 5 does not consume a second fuel.
+   A72, \field Mode 5 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 5.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 5 does not consume a third fuel.
+   A73, \field Mode 5 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 5.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 5 does not consume water.
+   N72, \field Mode 5 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 5.
+        \note Mode 5 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+   N73, \field Mode 5 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 5.
+        \note Mode 5 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+   N74, \field Mode 5 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 5.
+        \note Mode 5 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+   N75, \field Mode 5 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 5.
+        \note Mode 5 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+   N76, \field Mode 5 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 5.
+        \note Mode 5 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+   N77, \field Mode 5 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 5.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 5 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+   N78, \field Mode 5 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 5.
+        \note Mode 5 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+   N79, \field Mode 5 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 5.
+        \note Mode 5 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+   N80, \field Mode 5 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 5.
+        \note Mode 5 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+   N81, \field Mode 5 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 5.
+        \note Mode 5 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+   N82, \field Mode 5 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 5.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 5 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+   N83, \field Mode 5 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 5.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 5 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+   N84, \field Mode 5 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 5.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 5.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+   N85, \field Mode 5 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 5.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 5.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+   N86, \field Mode 5 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 5.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 5.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+   N87, \field Mode 5 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 5.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 5.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+   A74, \field Mode 6 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 6.
+   A75, \field Mode 6 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 6.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 6 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A76, \field Mode 6 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 6.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 6 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A77, \field Mode 6 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 6.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 6 does not consume electricity.
+   A78, \field Mode 6 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 6.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 6 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A79, \field Mode 6 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 6.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 6.
+   A80, \field Mode 6 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 6.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 6 does not consume a second fuel.
+   A81, \field Mode 6 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 6.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 6 does not consume a third fuel.
+   A82, \field Mode 6 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 6.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 6 does not consume water.
+   N88, \field Mode 6 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 6.
+        \note Mode 6 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+   N89, \field Mode 6 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 6.
+        \note Mode 6 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+   N90, \field Mode 6 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 6.
+        \note Mode 6 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+   N91, \field Mode 6 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 6.
+        \note Mode 6 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+   N92, \field Mode 6 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 6.
+        \note Mode 6 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+   N93, \field Mode 6 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 6.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 6 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+   N94, \field Mode 6 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 6.
+        \note Mode 6 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+   N95, \field Mode 6 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 6.
+        \note Mode 6 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+   N96, \field Mode 6 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 6.
+        \note Mode 6 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+   N97, \field Mode 6 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 6.
+        \note Mode 6 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+   N98, \field Mode 6 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 6.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 6 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+   N99, \field Mode 6 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 6.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 6 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N100, \field Mode 6 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 6.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 6.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N101, \field Mode 6 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 6.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 6.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N102, \field Mode 6 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 6.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 6.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N103, \field Mode 6 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 6.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 6.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+   A83, \field Mode 7 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 7.
+   A84, \field Mode 7 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 7.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 7 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A85, \field Mode 7 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 7.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 7 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A86, \field Mode 7 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 7.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 7 does not consume electricity.
+   A87, \field Mode 7 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 7.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 7 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A88, \field Mode 7 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 7.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 7.
+   A89, \field Mode 7 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 7.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 7 does not consume a second fuel.
+   A90, \field Mode 7 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 7.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 7 does not consume a third fuel.
+   A91, \field Mode 7 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 7.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 7 does not consume water.
+  N104, \field Mode 7 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 7.
+        \note Mode 7 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N105, \field Mode 7 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 7.
+        \note Mode 7 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N106, \field Mode 7 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 7.
+        \note Mode 7 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N107, \field Mode 7 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 7.
+        \note Mode 7 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N108, \field Mode 7 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 7.
+        \note Mode 7 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N109, \field Mode 7 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 7.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 7 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N110, \field Mode 7 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 7.
+        \note Mode 7 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N111, \field Mode 7 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 7.
+        \note Mode 7 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N112, \field Mode 7 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 7.
+        \note Mode 7 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N113, \field Mode 7 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 7.
+        \note Mode 7 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N114, \field Mode 7 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 7.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 7 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N115, \field Mode 7 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 7.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 7 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N116, \field Mode 7 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 7.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 7.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N117, \field Mode 7 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 7.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 7.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N118, \field Mode 7 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 7.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 7.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N119, \field Mode 7 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 7.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 7.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+   A92, \field Mode 8 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 8.
+   A93, \field Mode 8 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 8.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 8 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A94, \field Mode 8 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 8.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 8 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A95, \field Mode 8 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 8.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 8 does not consume electricity.
+   A96, \field Mode 8 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 8.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 8 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+   A97, \field Mode 8 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 8.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 8.
+   A98, \field Mode 8 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 8.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 8 does not consume a second fuel.
+   A99, \field Mode 8 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 8.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 8 does not consume a third fuel.
+  A100, \field Mode 8 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 8.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 8 does not consume water.
+  N120, \field Mode 8 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 8.
+        \note Mode 8 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N121, \field Mode 8 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 8.
+        \note Mode 8 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N122, \field Mode 8 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 8.
+        \note Mode 8 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N123, \field Mode 8 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 8.
+        \note Mode 8 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N124, \field Mode 8 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 8.
+        \note Mode 8 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N125, \field Mode 8 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 8.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 8 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N126, \field Mode 8 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 8.
+        \note Mode 8 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N127, \field Mode 8 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 8.
+        \note Mode 8 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N128, \field Mode 8 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 8.
+        \note Mode 8 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N129, \field Mode 8 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 8.
+        \note Mode 8 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N130, \field Mode 8 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 8.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 8 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N131, \field Mode 8 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 8.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 8 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N132, \field Mode 8 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 8.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 8.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N133, \field Mode 8 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 8.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 8.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N134, \field Mode 8 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 8.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 8.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N135, \field Mode 8 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 8.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 8.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+  A101, \field Mode 9 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 9.
+  A102, \field Mode 9 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 9.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 9 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A103, \field Mode 9 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 9.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 9 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A104, \field Mode 9 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 9.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 9 does not consume electricity.
+  A105, \field Mode 9 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 9.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 9 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A106, \field Mode 9 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 9.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 9.
+  A107, \field Mode 9 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 9.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 9 does not consume a second fuel.
+  A108, \field Mode 9 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 9.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 9 does not consume a third fuel.
+  A109, \field Mode 9 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 9.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 9 does not consume water.
+  N136, \field Mode 9 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 9.
+        \note Mode 9 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N137, \field Mode 9 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 9.
+        \note Mode 9 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N138, \field Mode 9 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 9.
+        \note Mode 9 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N139, \field Mode 9 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 9.
+        \note Mode 9 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N140, \field Mode 9 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 9.
+        \note Mode 9 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N141, \field Mode 9 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 9.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 9 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N142, \field Mode 9 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 9.
+        \note Mode 9 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N143, \field Mode 9 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 9.
+        \note Mode 9 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N144, \field Mode 9 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 9.
+        \note Mode 9 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N145, \field Mode 9 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 9.
+        \note Mode 9 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N146, \field Mode 9 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 9.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 9 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N147, \field Mode 9 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 9.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 9 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N148, \field Mode 9 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 9.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 9.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N149, \field Mode 9 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 9.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 9.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N150, \field Mode 9 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 9.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 9.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N151, \field Mode 9 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 9.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 9.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+  A110, \field Mode 10 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 10.
+        \type alpha
+        \retaincase
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 10.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 10 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A111, \field Mode 10 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 1.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 1 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A112, \field Mode 10 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 10.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 10 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A113, \field Mode 10 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 10.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 10 does not consume electricity.
+  A114, \field Mode 10 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 10.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 10 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A115, \field Mode 10 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 10.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 10.
+  A116, \field Mode 10 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 10.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 10 does not consume a second fuel.
+  A117, \field Mode 10 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 10.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 10 does not consume a third fuel.
+  A118, \field Mode 10 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 10.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 10 does not consume water.
+  N152, \field Mode 10 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 10.
+        \note Mode 10 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N153, \field Mode 10 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 10.
+        \note Mode 10 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N154, \field Mode 10 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 10.
+        \note Mode 10 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N155, \field Mode 10 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 10.
+        \note Mode 10 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N156, \field Mode 10 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 10.
+        \note Mode 10 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N157, \field Mode 10 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 10.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 10 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N158, \field Mode 10 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 10.
+        \note Mode 10 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N159, \field Mode 10 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 10.
+        \note Mode 10 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N160, \field Mode 10 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 10.
+        \note Mode 10 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N161, \field Mode 10 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 10.
+        \note Mode 10 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N162, \field Mode 10 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 10.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 10 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N163, \field Mode 10 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 10.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 10 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N164, \field Mode 10 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 10.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 10.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N165, \field Mode 10 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 10.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 10.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N166, \field Mode 10 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 10.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 10.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N167, \field Mode 10 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 10.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 10.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+  A119, \field Mode 11 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 11.
+  A120, \field Mode 11 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 11.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 11 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A121, \field Mode 11 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 11.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 11 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A122, \field Mode 11 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 11.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 11 does not consume electricity.
+  A123, \field Mode 11 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 11.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 11 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A124, \field Mode 11 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 11.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 11.
+  A125, \field Mode 11 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 11.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 11 does not consume a second fuel.
+  A126, \field Mode 11 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 11.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 11 does not consume a third fuel.
+  A127, \field Mode 11 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 11.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 11 does not consume water.
+  N168, \field Mode 11 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 11.
+        \note Mode 11 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N169, \field Mode 11 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 11.
+        \note Mode 11 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N170, \field Mode 11 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 11.
+        \note Mode 11 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N171, \field Mode 11 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 11.
+        \note Mode 11 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N172, \field Mode 11 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 11.
+        \note Mode 11 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N173, \field Mode 11 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 11.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 11 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N174, \field Mode 11 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 11.
+        \note Mode 11 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N175, \field Mode 11 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 11.
+        \note Mode 11 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N176, \field Mode 11 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 11.
+        \note Mode 11 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N177, \field Mode 11 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 11.
+        \note Mode 11 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N178, \field Mode 11 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 11.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 11 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N179, \field Mode 11 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 11.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 11 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N180, \field Mode 11 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 11.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 11.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N181, \field Mode 11 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 11.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 11.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N182, \field Mode 11 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 11.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 11.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N183, \field Mode 11 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 11.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 11.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+  A128, \field Mode 12 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 12.
+  A129, \field Mode 12 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 12.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 12 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A130, \field Mode 12 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 12.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 12 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A131, \field Mode 12 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 12.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 12 does not consume electricity.
+  A132, \field Mode 12 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 12.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 12 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A133, \field Mode 12 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 12.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 12.
+  A134, \field Mode 12 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 12.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 12 does not consume a second fuel.
+  A135, \field Mode 12 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 12.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 12 does not consume a third fuel.
+  A136, \field Mode 12 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 12.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 12 does not consume water.
+  N184, \field Mode 12 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 12.
+        \note Mode 12 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N185, \field Mode 12 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 12.
+        \note Mode 12 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N186, \field Mode 12 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 12.
+        \note Mode 12 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N187, \field Mode 12 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 12.
+        \note Mode 12 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N188, \field Mode 12 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 12.
+        \note Mode 12 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N189, \field Mode 12 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 12.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 12 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N190, \field Mode 12 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 12.
+        \note Mode 12 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N191, \field Mode 12 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 12.
+        \note Mode 12 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N192, \field Mode 12 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 12.
+        \note Mode 12 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N193, \field Mode 12 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 12.
+        \note Mode 12 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N194, \field Mode 12 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 12.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 12 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N195, \field Mode 12 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 12.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 12 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N196, \field Mode 12 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 12.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 12.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N197, \field Mode 12 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 12.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 12.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N198, \field Mode 12 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 12.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 12.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N199, \field Mode 12 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 12.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 12.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+  A137, \field Mode 13 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 13.
+  A138, \field Mode 13 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 13.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 13 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A139, \field Mode 13 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 13.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 13 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A140, \field Mode 13 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 13.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 13 does not consume electricity.
+  A141, \field Mode 13 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 13.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 13 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A142, \field Mode 13 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 13.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 13.
+  A143, \field Mode 13 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 13.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 13 does not consume a second fuel.
+  A144, \field Mode 13 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 13.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 13 does not consume a third fuel.
+  A145, \field Mode 13 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 13.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 13 does not consume water.
+  N200, \field Mode 13 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 13.
+        \note Mode 13 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N201, \field Mode 13 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 13.
+        \note Mode 13 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N202, \field Mode 13 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 13.
+        \note Mode 13 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N203, \field Mode 13 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 13.
+        \note Mode 13 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N204, \field Mode 13 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 13.
+        \note Mode 13 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N205, \field Mode 13 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 13.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 13 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N206, \field Mode 13 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 13.
+        \note Mode 13 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N207, \field Mode 13 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 13.
+        \note Mode 13 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N208, \field Mode 13 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 13.
+        \note Mode 13 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N209, \field Mode 13 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 13.
+        \note Mode 13 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N210, \field Mode 13 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 13.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 13 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N211, \field Mode 13 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 13.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 13 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N212, \field Mode 13 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 13.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 13.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N213, \field Mode 13 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 13.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 13.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N214, \field Mode 13 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 13.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 13.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N215, \field Mode 13 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 13.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 13.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+  A146, \field Mode 14 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 14.
+  A147, \field Mode 14 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 14.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 14 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A148, \field Mode 14 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 14.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 14 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A149, \field Mode 14 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 14.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 14 does not consume electricity.
+  A150, \field Mode 14 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 14.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 14 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A151, \field Mode 14 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 14.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 14.
+  A152, \field Mode 14 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 14.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 14 does not consume a second fuel.
+  A153, \field Mode 14 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 14.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 14 does not consume a third fuel.
+  A154, \field Mode 14 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 14.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 14 does not consume water.
+  N216, \field Mode 14 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 14.
+        \note Mode 14 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N217, \field Mode 14 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 14.
+        \note Mode 14 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N218, \field Mode 14 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 14.
+        \note Mode 14 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N219, \field Mode 14 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 14.
+        \note Mode 14 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N220, \field Mode 14 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 14.
+        \note Mode 14 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N221, \field Mode 14 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 14.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 14 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N222, \field Mode 14 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 14.
+        \note Mode 14 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N223, \field Mode 14 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 14.
+        \note Mode 14 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N224, \field Mode 14 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 14.
+        \note Mode 14 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N225, \field Mode 14 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 14.
+        \note Mode 14 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N226, \field Mode 14 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 14.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 14 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N227, \field Mode 14 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 14.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 14 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N228, \field Mode 14 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 14.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 14.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N229, \field Mode 14 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 14.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 14.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N230, \field Mode 14 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 14.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 14.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N231, \field Mode 14 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 14.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 14.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+  A155, \field Mode 15 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 15.
+  A156, \field Mode 15 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 15.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 15 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A157, \field Mode 15 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 15.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 15 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A158, \field Mode 15 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 15.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 15 does not consume electricity.
+  A159, \field Mode 15 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 15.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 15 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A160, \field Mode 15 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 15.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 15.
+  A161, \field Mode 15 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 15.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 15 does not consume a second fuel.
+  A162, \field Mode 15 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 15.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 15 does not consume a third fuel.
+  A163, \field Mode 15 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 15.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 15 does not consume water.
+  N232, \field Mode 15 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 15.
+        \note Mode 15 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N233, \field Mode 15 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 15.
+        \note Mode 15 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N234, \field Mode 15 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 15.
+        \note Mode 15 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N235, \field Mode 15 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 15.
+        \note Mode 15 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N236, \field Mode 15 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 15.
+        \note Mode 15 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N237, \field Mode 15 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 15.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 15 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N238, \field Mode 15 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 15.
+        \note Mode 15 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N239, \field Mode 15 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 15.
+        \note Mode 15 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N240, \field Mode 15 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 15.
+        \note Mode 15 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N241, \field Mode 15 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 15.
+        \note Mode 15 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N242, \field Mode 15 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 15.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 15 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N243, \field Mode 15 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 15.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 15 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N244, \field Mode 15 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 15.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 15.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N245, \field Mode 15 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 15.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 15.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N246, \field Mode 15 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 15.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 15.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N247, \field Mode 15 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 15.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 15.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+  A164, \field Mode 16 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 16.
+  A165, \field Mode 16 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 16.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 16 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A166, \field Mode 16 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 16.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 16 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A167, \field Mode 16 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 16.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 16 does not consume electricity.
+  A168, \field Mode 16 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 16.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 16 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A169, \field Mode 16 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 16.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 16.
+  A170, \field Mode 16 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 16.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 16 does not consume a second fuel.
+  A171, \field Mode 16 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 16.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 16 does not consume a third fuel.
+  A172, \field Mode 16 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 16.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 16 does not consume water.
+  N248, \field Mode 16 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 16.
+        \note Mode 16 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N249, \field Mode 16 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 16.
+        \note Mode 16 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N250, \field Mode 16 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 16.
+        \note Mode 16 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N251, \field Mode 16 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 16.
+        \note Mode 16 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N252, \field Mode 16 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 16.
+        \note Mode 16 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N253, \field Mode 16 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 16.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 16 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N254, \field Mode 16 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 16.
+        \note Mode 16 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N255, \field Mode 16 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 16.
+        \note Mode 16 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N256, \field Mode 16 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 16.
+        \note Mode 16 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N257, \field Mode 16 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 16.
+        \note Mode 16 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N258, \field Mode 16 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 16.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 16 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N259, \field Mode 16 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 16.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 16 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N260, \field Mode 16 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 16.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 16.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N261, \field Mode 16 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 16.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 16.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N262, \field Mode 16 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 16.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 16.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N263, \field Mode 16 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 16.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 16.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+  A173, \field Mode 17 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 17.
+  A174, \field Mode 17 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 17.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 17 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A175, \field Mode 17 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 17.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 17 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A176, \field Mode 17 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 17.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 17 does not consume electricity.
+  A177, \field Mode 17 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 17.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 17 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A178, \field Mode 17 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 17.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 17.
+  A179, \field Mode 17 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 17.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 17 does not consume a second fuel.
+  A180, \field Mode 17 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 17.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 17 does not consume a third fuel.
+  A181, \field Mode 17 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 17.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 17 does not consume water.
+  N264, \field Mode 17 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 17.
+        \note Mode 17 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N265, \field Mode 17 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 17.
+        \note Mode 17 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N266, \field Mode 17 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 17.
+        \note Mode 17 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N267, \field Mode 17 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 17.
+        \note Mode 17 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N268, \field Mode 17 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 17.
+        \note Mode 17 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N269, \field Mode 17 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 17.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 17 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N270, \field Mode 17 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 17.
+        \note Mode 17 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N271, \field Mode 17 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 17.
+        \note Mode 17 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N272, \field Mode 17 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 17.
+        \note Mode 17 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N273, \field Mode 17 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 17.
+        \note Mode 17 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N274, \field Mode 17 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 17.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 17 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N275, \field Mode 17 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 17.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 17 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N276, \field Mode 17 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 17.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 17.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N277, \field Mode 17 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 17.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 17.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N278, \field Mode 17 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 17.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 17.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N279, \field Mode 17 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 17.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 17.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+  A182, \field Mode 18 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 18.
+  A183, \field Mode 18 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 18.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 18 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A184, \field Mode 18 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 18.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 18 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A185, \field Mode 18 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 18.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 18 does not consume electricity.
+  A186, \field Mode 18 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 18.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 18 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A187, \field Mode 18 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 18.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 18.
+  A188, \field Mode 18 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 18.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 18 does not consume a second fuel.
+  A189, \field Mode 18 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 18.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 18 does not consume a third fuel.
+  A190, \field Mode 18 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 18.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 18 does not consume water.
+  N280, \field Mode 18 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 18.
+        \note Mode 18 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N281, \field Mode 18 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 18.
+        \note Mode 18 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N282, \field Mode 18 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 18.
+        \note Mode 18 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N283, \field Mode 18 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 18.
+        \note Mode 18 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N284, \field Mode 18 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 18.
+        \note Mode 18 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N285, \field Mode 18 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 18.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 18 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N286, \field Mode 18 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 18.
+        \note Mode 18 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N287, \field Mode 18 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 18.
+        \note Mode 18 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N288, \field Mode 18 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 18.
+        \note Mode 18 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N289, \field Mode 18 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 18.
+        \note Mode 18 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N290, \field Mode 18 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 18.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 18 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N291, \field Mode 18 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 18.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 18 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N292, \field Mode 18 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 18.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 18.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N293, \field Mode 18 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 18.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 18.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N294, \field Mode 18 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 18.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 18.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N295, \field Mode 18 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 18.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 18.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+  A191, \field Mode 19 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 19.
+  A192, \field Mode 19 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 19.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 19 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A193, \field Mode 19 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 19.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 19 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A194, \field Mode 19 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 19.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 19 does not consume electricity.
+  A195, \field Mode 19 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 19.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 19 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A196, \field Mode 19 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 19.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 19.
+  A197, \field Mode 19 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 19.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 19 does not consume a second fuel.
+  A198, \field Mode 19 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 19.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 19 does not consume a third fuel.
+  A199, \field Mode 19 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 19.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 19 does not consume water.
+  N296, \field Mode 19 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 19.
+        \note Mode 19 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N297, \field Mode 19 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 19.
+        \note Mode 19 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N298, \field Mode 19 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 19.
+        \note Mode 19 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N299, \field Mode 19 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 19.
+        \note Mode 19 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N300, \field Mode 19 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 19.
+        \note Mode 19 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N301, \field Mode 19 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 19.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 19 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N302, \field Mode 19 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 19.
+        \note Mode 19 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N303, \field Mode 19 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 19.
+        \note Mode 19 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N304, \field Mode 19 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 19.
+        \note Mode 19 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N305, \field Mode 19 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 19.
+        \note Mode 19 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N306, \field Mode 19 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 19.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 19 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N307, \field Mode 19 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 19.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 19 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N308, \field Mode 19 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 19.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 19.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N309, \field Mode 19 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 19.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 19.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N310, \field Mode 19 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 19.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 19.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N311, \field Mode 19 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 19.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 19.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+  A200, \field Mode 20 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 20.
+  A201, \field Mode 20 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 20.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 20 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A202, \field Mode 20 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 20.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 20 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A203, \field Mode 20 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 20.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 20 does not consume electricity.
+  A204, \field Mode 20 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 20.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 20 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A205, \field Mode 20 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 20.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 20.
+  A206, \field Mode 20 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 20.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 20 does not consume a second fuel.
+  A207, \field Mode 20 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 20.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 20 does not consume a third fuel.
+  A208, \field Mode 20 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 20.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 20 does not consume water.
+  N312, \field Mode 20 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 20.
+        \note Mode 20 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N313, \field Mode 20 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 20.
+        \note Mode 20 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N314, \field Mode 20 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 20.
+        \note Mode 20 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N315, \field Mode 20 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 20.
+        \note Mode 20 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N316, \field Mode 20 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 20.
+        \note Mode 20 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N317, \field Mode 20 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 20.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 20 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N318, \field Mode 20 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 20.
+        \note Mode 20 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N319, \field Mode 20 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 20.
+        \note Mode 20 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N320, \field Mode 20 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 20.
+        \note Mode 20 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N321, \field Mode 20 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 20.
+        \note Mode 20 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N322, \field Mode 20 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 20.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 20 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N323, \field Mode 20 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 20.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 20 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N324, \field Mode 20 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 20.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 20.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N325, \field Mode 20 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 20.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 20.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N326, \field Mode 20 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 20.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 20.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N327, \field Mode 20 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 20.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 20.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+  A209, \field Mode 21 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 21.
+  A210, \field Mode 21 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 21.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 21 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A211, \field Mode 21 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 21.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 21 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A212, \field Mode 21 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 21.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 21 does not consume electricity.
+  A213, \field Mode 21 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 21.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 21 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A214, \field Mode 21 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 21.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 21.
+  A215, \field Mode 21 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 21.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 21 does not consume a second fuel.
+  A216, \field Mode 21 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 21.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 21 does not consume a third fuel.
+  A217, \field Mode 21 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 21.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 21 does not consume water.
+  N328, \field Mode 21 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 21.
+        \note Mode 21 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N329, \field Mode 21 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 21.
+        \note Mode 21 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N330, \field Mode 21 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 21.
+        \note Mode 21 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N331, \field Mode 21 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 21.
+        \note Mode 21 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N332, \field Mode 21 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 21.
+        \note Mode 21 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N333, \field Mode 21 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 21.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 21 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N334, \field Mode 21 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 21.
+        \note Mode 21 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N335, \field Mode 21 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 21.
+        \note Mode 21 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N336, \field Mode 21 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 21.
+        \note Mode 21 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N337, \field Mode 21 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 21.
+        \note Mode 21 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N338, \field Mode 21 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 21.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 21 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N339, \field Mode 21 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 21.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 21 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N340, \field Mode 21 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 21.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 21.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N341, \field Mode 21 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 21.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 21.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N342, \field Mode 21 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 21.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 21.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N343, \field Mode 21 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 21.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 21.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+  A218, \field Mode 22 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 22.
+  A219, \field Mode 22 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 22.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 22 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A220, \field Mode 22 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 22.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 22 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A221, \field Mode 22 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 22.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 22 does not consume electricity.
+  A222, \field Mode 22 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 22.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 22 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A223, \field Mode 22 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 22.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 22.
+  A224, \field Mode 22 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 22.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 22 does not consume a second fuel.
+  A225, \field Mode 22 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 22.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 22 does not consume a third fuel.
+  A226, \field Mode 22 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 22.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 22 does not consume water.
+  N344, \field Mode 22 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 22.
+        \note Mode 22 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N345, \field Mode 22 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 22.
+        \note Mode 22 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N346, \field Mode 22 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 22.
+        \note Mode 22 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N347, \field Mode 22 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 22.
+        \note Mode 22 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N348, \field Mode 22 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 22.
+        \note Mode 22 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N349, \field Mode 22 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 22.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 22 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N350, \field Mode 22 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 22.
+        \note Mode 22 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N351, \field Mode 22 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 22.
+        \note Mode 22 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N352, \field Mode 22 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 22.
+        \note Mode 22 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N353, \field Mode 22 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 22.
+        \note Mode 22 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N354, \field Mode 22 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 22.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 22 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N355, \field Mode 22 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 22.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 22 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N356, \field Mode 22 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 22.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 22.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N357, \field Mode 22 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 22.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 22.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N358, \field Mode 22 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 22.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 22.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N359, \field Mode 22 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 22.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 22.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+  A227, \field Mode 23 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 23.
+  A228, \field Mode 23 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 23.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 23 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A229, \field Mode 23 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 23.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 23 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A230, \field Mode 23 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 23.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 23 does not consume electricity.
+  A231, \field Mode 23 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 23.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 23 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A232, \field Mode 23 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 23.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 23.
+  A233, \field Mode 23 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 23.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 23 does not consume a second fuel.
+  A234, \field Mode 23 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 23.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 23 does not consume a third fuel.
+  A235, \field Mode 23 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 23.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 23 does not consume water.
+  N360, \field Mode 23 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 23.
+        \note Mode 23 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N361, \field Mode 23 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 23.
+        \note Mode 23 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N362, \field Mode 23 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 23.
+        \note Mode 23 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N363, \field Mode 23 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 23.
+        \note Mode 23 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N364, \field Mode 23 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 23.
+        \note Mode 23 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N365, \field Mode 23 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 23.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 23 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N366, \field Mode 23 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 23.
+        \note Mode 23 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N367, \field Mode 23 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 23.
+        \note Mode 23 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N368, \field Mode 23 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 23.
+        \note Mode 23 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N369, \field Mode 23 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 23.
+        \note Mode 23 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N370, \field Mode 23 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 23.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 23 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N371, \field Mode 23 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 23.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 23 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N372, \field Mode 23 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 23.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 23.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N373, \field Mode 23 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 23.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 23.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N374, \field Mode 23 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 23.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 23.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N375, \field Mode 23 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 23.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 23.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+  A236, \field Mode 24 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 24.
+  A237, \field Mode 24 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 24.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 24 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A238, \field Mode 24 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 24.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 24 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A239, \field Mode 24 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 24.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 24 does not consume electricity.
+  A240, \field Mode 24 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 24.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 24 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A241, \field Mode 24 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 24.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 24.
+  A242, \field Mode 24 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 24.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 24 does not consume a second fuel.
+  A243, \field Mode 24 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 24.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 24 does not consume a third fuel.
+  A244, \field Mode 24 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 24.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 24 does not consume water.
+  N376, \field Mode 24 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 24.
+        \note Mode 24 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N377, \field Mode 24 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 24.
+        \note Mode 24 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N378, \field Mode 24 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 24.
+        \note Mode 24 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N379, \field Mode 24 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 24.
+        \note Mode 24 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N380, \field Mode 24 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 24.
+        \note Mode 24 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N381, \field Mode 24 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 24.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 24 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N382, \field Mode 24 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 24.
+        \note Mode 24 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N383, \field Mode 24 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 24.
+        \note Mode 24 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N384, \field Mode 24 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 24.
+        \note Mode 24 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N385, \field Mode 24 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 24.
+        \note Mode 24 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N386, \field Mode 24 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 24.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 24 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N387, \field Mode 24 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 24.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 24 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N388, \field Mode 24 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 24.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 24.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N389, \field Mode 24 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 24.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 24.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N390, \field Mode 24 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 24.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 24.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N391, \field Mode 24 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 24.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 24.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+  A245, \field Mode 25 Name
+        \type alpha
+        \retaincase
+        \note Enter a name for Mode 25.
+  A246, \field Mode 25 Supply Air Temperature Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Temperature Lookup Table for Mode 25.
+        \note Units for lookup table values should be in C.
+        \note If this field is blank, Mode 25 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A247, \field Mode 25 Supply Air Humidity Ratio Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Air Humidity Ratio Lookup Table for Mode 25.
+        \note Units for lookup table values should be in kgWater/kgDryAir.
+        \note If this field is blank, Mode 25 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A248, \field Mode 25 System Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Electric Power Lookup Table for Mode 25.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 25 does not consume electricity.
+  A249, \field Mode 25 Supply Fan Electric Power Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the Supply Fan Electric Power Lookup Table for Mode 25.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 25 will not be considered for any time step that requires ventilation, heating, cooling, humidification, or dehumidification.
+  A250, \field Mode 25 External Static Pressure Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the External Static Pressure Lookup Table for Mode 25.
+        \note Units for lookup table values should be in Pa.
+        \note If this field is blank, external static pressure will not be reported for Mode 25.
+  A251, \field Mode 25 System Second Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Second Fuel Consumption Lookup Table for Mode 25.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 25 does not consume a second fuel.
+  A252, \field Mode 25 System Third Fuel Consumption Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Third Fuel Consumption Lookup Table for Mode 25.
+        \note Units for lookup table values should be in W.
+        \note If this field is blank, Mode 25 does not consume a third fuel.
+  A253, \field Mode 25 System Water Use Lookup Table Name
+        \type object-list
+        \object-list MultivariateFunctions
+        \note Enter the name of the System Water Use Lookup Table for Mode 25.
+        \note Units for lookup table values should be in kg/s.
+        \note If this field is blank, Mode 25 does not consume water.
+  N392, \field Mode 25 Minimum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum outdoor air temperature allowed for Mode 25.
+        \note Mode 25 will not be considered when outdoor air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on outdoor air temperature.
+  N393, \field Mode 25 Maximum Outdoor Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum outdoor air temperature allowed for Mode 25.
+        \note Mode 25 will not be considered wen outdoor air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on outdoor air temperature.
+  N394, \field Mode 25 Minimum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum outdoor humidity ratio allowed for Mode 25.
+        \note Mode 25 will not be considerd when outdoor air absolute humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N395, \field Mode 25 Maximum Outdoor Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum outdoor air humidity ratio allowed for Mode 25.
+        \note Mode 25 will not be considered when outdoor air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N396, \field Mode 25 Minimum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum outdoor relative humidity allowed for Mode 25.
+        \note Mode 25 will not be considered when the outdoor air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on outdoor air relative humidity will be 0.00%.
+        \default 0.00
+  N397, \field Mode 25 Maximum Outdoor Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum outdoor air relative humidity allowed for Mode 25.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 25 will not be considered when the outdoor air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on outdoor air relative humidity will be 100.00%.
+        \default 100.00
+  N398, \field Mode 25 Minimum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the minimum return air temperature allowed for Mode 25.
+        \note Mode 25 will not be considered when the return air temperature is below the value in this field.
+        \note If this field is blank, there will be no lower constraint on return air temperature.
+  N399, \field Mode 25 Maximum Return Air Temperature
+        \type real
+        \units C
+        \note Enter the maximum return air temperature allowed for Mode 25.
+        \note Mode 25 will not be considred when the return air temperature is above the value in this field.
+        \note If this field is blank, there will be no upper constraint on return air temperature.
+  N400, \field Mode 25 Minimum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the minimum return air humidity ratio allowed for Mode 25.
+        \note Mode 25 will not be considered when the return air humidity ratio is below the value in this field.
+        \note If this field is blank, the lower constraint on return air humidity ratio will be 0.00 kgWater/kgDryAir.
+        \default 0.00
+  N401, \field Mode 25 Maximum Return Air Humidity Ratio
+        \type real
+        \minimum 0.00
+        \maximum 0.10
+        \units kgWater/kgDryAir
+        \note Enter the maximum return air humidity ratio allowed for Mode 25.
+        \note Mode 25 will not be considered when the return air humidity ratio is above the value in this field.
+        \note If this field is blank, the upper constraint on return air humidity ratio will be 0.10 kgWater/kgDryAir.
+        \default 0.10
+  N402, \field Mode 25 Minimum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the minimum return air relative humidity allowed for Mode 25.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 25 will not be considered when the return air relative humidity is below the value in this field.
+        \note If this field is blank, the lower constraint on return air relative humidity will be 0.00%.
+        \default 0.00
+  N403, \field Mode 25 Maximum Return Air Relative Humidity
+        \type real
+        \minimum 0.00
+        \maximum 100.00
+        \units percent
+        \note Enter the maximum return air relative humdity allowed for Mode 25.
+        \note Relative humidity as percent from 0.00 to 100.00.
+        \note Mode 25 will not be considered when the return air relative humidity is above the value in this field.
+        \note If this field is blank, the upper constraint on return air relative humidity will be 100%.
+        \default 100.00
+  N404, \field Mode 25 Minimum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum outdoor air fraction allowed for Mode 25.
+        \note Outdoor air fractions below this value will not be considered for operation in Mode 25.
+        \note If this field is blank, the lower constraint on outdoor air fraction will be 0.00.
+        \default 0.10
+  N405, \field Mode 25 Maximum Outdoor Air Fraction
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum outdoor air fraction allowed for Mode 25.
+        \note Outdoor air fractions above this value will not be considered for operation in Mode 25.
+        \note If this field is blank, the upper constraint on outdoor air fraction will be 1.00.
+        \default 1.00
+  N406, \field Mode 25 Minimum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the minimum supply air mass flow rate ratio allowed for Mode 25.
+        \note Supply air mass flow rate ratios below this value will not be considered for operation in Mode 25.
+        \note Supply air mass flow rate ratio describes supply air mass flow rate as a fraction of mass flow rate associated with the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, the lower constraint on supply air mass flow rate ratio will be 0.10.
+        \default 0.10
+  N407; \field Mode 25 Maximum Supply Air Mass Flow Rate Ratio
+        \type real
+        \minimum 0.00
+        \maximum 1.00
+        \note Enter the maximum supply air mass flow rate ratio allowed for Mode 25.
+        \note Supply air mass flow rate ratios above this value will not be considered for operation in Mode 25.
+        \note Supply air mass flow rate ratio describes supply air flow rate as a fraction of the value in field: "System Maximum Supply Air Flow Rate".
+        \note If this field is blank, there upper constraint on supply air mass flow rate ratio will be 1.00.
+        \default 1.00
+
+ZoneHVAC:OutdoorAirUnit,
+       \memo The zone outdoor air unit models a single-zone dedicated outdoor air system (DOAS).
+       \memo Forced-convection 100% outdoor air unit with supply fan and optional equipment
+       \memo including exhaust fan, heating coil, cooling coil, and heat recovery.
+       \min-fields 18
+   A1, \field Name
+       \required-field
+       \reference ZoneEquipmentNames
+   A2, \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+   A3, \field Zone Name
+       \required-field
+       \note (name of zone system is serving)
+       \type object-list
+       \object-list ZoneNames
+   N1, \field Outdoor Air Flow Rate
+       \required-field
+       \units m3/s
+       \minimum> 0
+       \autosizable
+   A4, \field Outdoor Air Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+   A5, \field Supply Fan Name
+       \required-field
+       \note Allowable fan types are Fan:SystemModel and Fan:ConstantVolume and Fan:VariableVolume
+       \type object-list
+       \object-list FansCVandVAV
+       \object-list FansSystemModel
+  A6, \field Supply Fan Placement
+      \type choice
+      \key BlowThrough
+      \key DrawThrough
+      \default DrawThrough
+   A7, \field Exhaust Fan Name
+       \note Allowable fan types are Fan:SystemModel and Fan:ConstantVolume and Fan:VariableVolume
+       \note Fan:VariableVolume
+       \type object-list
+       \object-list FansCVandVAV
+       \object-list FansSystemModel
+   N2, \field Exhaust Air Flow Rate
+       \units m3/s
+       \autosizable
+   A8, \field Exhaust Air Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A9, \field Unit Control Type
+       \type choice
+       \key NeutralControl
+       \key TemperatureControl
+       \default NeutralControl
+   A10, \field High Air Control Temperature Schedule Name
+       \note Air and control temperatures for cooling. If outdoor air temperature
+       \note is above the high air control temperature, then the zone inlet air temperature
+       \note is set to the high air control temperature. If the outdoor air is between high and low
+       \note air control temperature, then there is no cooling/heating requirements.
+       \type object-list
+       \object-list ScheduleNames
+   A11, \field Low Air Control Temperature Schedule Name
+       \note Air and control temperatures for Heating. If outdoor air temperature
+       \note is below the low air control temperature, then the zone inlet air temperature
+       \note is set to the low air control temperature. If the outdoor air is between high and low
+       \note air control temperature, then there is no cooling/heating requirements.
+       \type object-list
+       \object-list ScheduleNames
+  A12, \field Outdoor Air Node Name
+       \required-field
+       \type node
+  A13, \field AirOutlet Node Name
+       \required-field
+       \type node
+  A14, \field AirInlet Node Name
+       \type node
+       \note air leaves zone
+  A15, \field Supply FanOutlet Node Name
+       \type node
+       \required-field
+  A16, \field Outdoor Air Unit List Name
+       \note Enter the name of an ZoneHVAC:OutdoorAirUnit:EquipmentList object.
+       \required-field
+       \type object-list
+       \object-list OutdoorAirUnitEquipmentLists
+  A17; \field Availability Manager List Name
+        \note Enter the name of an AvailabilityManagerAssignmentList object.
+        \type object-list
+        \object-list SystemAvailabilityManagerLists
+
+ZoneHVAC:OutdoorAirUnit:EquipmentList,
+       \memo Equipment list for components in a ZoneHVAC:OutdoorAirUnit. Components are simulated
+       \memo sequentially in the order given in the equipment list.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference OutdoorAirUnitEquipmentLists
+  A2 , \field Component 1 Object Type
+       \type choice
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Steam
+       \key Coil:Heating:Water
+       \key Coil:Cooling:Water
+       \key Coil:Cooling:Water:DetailedGeometry
+       \key CoilSystem:Cooling:Water:HeatexchangerAssisted
+       \key CoilSystem:Cooling:DX
+       \key CoilSystem:Heating:DX
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key HeatExchanger:AirToAir:SensibleAndLatent
+       \key Dehumidifier:Desiccant:NoFans
+       \key AirLoopHVAC:UnitarySystem
+  A3 , \field Component 1 Name
+  A4 , \field Component 2 Object Type
+       \type choice
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Steam
+       \key Coil:Heating:Water
+       \key Coil:Cooling:Water
+       \key Coil:Cooling:Water:DetailedGeometry
+       \key CoilSystem:Cooling:Water:HeatexchangerAssisted
+       \key CoilSystem:Cooling:DX
+       \key CoilSystem:Heating:DX
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key HeatExchanger:AirToAir:SensibleAndLatent
+       \key Dehumidifier:Desiccant:NoFans
+       \key AirLoopHVAC:UnitarySystem
+  A5 , \field Component 2 Name
+  A6 , \field Component 3 Object Type
+       \type choice
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Steam
+       \key Coil:Heating:Water
+       \key Coil:Cooling:Water
+       \key Coil:Cooling:Water:DetailedGeometry
+       \key CoilSystem:Cooling:Water:HeatexchangerAssisted
+       \key CoilSystem:Cooling:DX
+       \key CoilSystem:Heating:DX
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key HeatExchanger:AirToAir:SensibleAndLatent
+       \key Dehumidifier:Desiccant:NoFans
+       \key AirLoopHVAC:UnitarySystem
+  A7 , \field Component 3 Name
+  A8 , \field Component 4 Object Type
+       \type choice
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Steam
+       \key Coil:Heating:Water
+       \key Coil:Cooling:Water
+       \key Coil:Cooling:Water:DetailedGeometry
+       \key CoilSystem:Cooling:Water:HeatexchangerAssisted
+       \key CoilSystem:Cooling:DX
+       \key CoilSystem:Heating:DX
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key HeatExchanger:AirToAir:SensibleAndLatent
+       \key Dehumidifier:Desiccant:NoFans
+       \key AirLoopHVAC:UnitarySystem
+  A9 , \field Component 4 Name
+  A10 , \field Component 5 Object Type
+       \type choice
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Steam
+       \key Coil:Heating:Water
+       \key Coil:Cooling:Water
+       \key Coil:Cooling:Water:DetailedGeometry
+       \key CoilSystem:Cooling:Water:HeatexchangerAssisted
+       \key CoilSystem:Cooling:DX
+       \key CoilSystem:Heating:DX
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key HeatExchanger:AirToAir:SensibleAndLatent
+       \key Dehumidifier:Desiccant:NoFans
+       \key AirLoopHVAC:UnitarySystem
+  A11 , \field Component 5 Name
+  A12 , \field Component 6 Object Type
+       \type choice
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Steam
+       \key Coil:Heating:Water
+       \key Coil:Cooling:Water
+       \key Coil:Cooling:Water:DetailedGeometry
+       \key CoilSystem:Cooling:Water:HeatexchangerAssisted
+       \key CoilSystem:Cooling:DX
+       \key CoilSystem:Heating:DX
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key HeatExchanger:AirToAir:SensibleAndLatent
+       \key Dehumidifier:Desiccant:NoFans
+       \key AirLoopHVAC:UnitarySystem
+  A13 , \field Component 6 Name
+  A14 , \field Component 7 Object Type
+       \type choice
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Steam
+       \key Coil:Heating:Water
+       \key Coil:Cooling:Water
+       \key Coil:Cooling:Water:DetailedGeometry
+       \key CoilSystem:Cooling:Water:HeatexchangerAssisted
+       \key CoilSystem:Cooling:DX
+       \key CoilSystem:Heating:DX
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key HeatExchanger:AirToAir:SensibleAndLatent
+       \key Dehumidifier:Desiccant:NoFans
+       \key AirLoopHVAC:UnitarySystem
+  A15, \field Component 7 Name
+  A16 , \field Component 8 Object Type
+       \type choice
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Steam
+       \key Coil:Heating:Water
+       \key Coil:Cooling:Water
+       \key Coil:Cooling:Water:DetailedGeometry
+       \key CoilSystem:Cooling:Water:HeatexchangerAssisted
+       \key CoilSystem:Cooling:DX
+       \key CoilSystem:Heating:DX
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key HeatExchanger:AirToAir:SensibleAndLatent
+       \key Dehumidifier:Desiccant:NoFans
+       \key AirLoopHVAC:UnitarySystem
+  A17; \field Component 8 Name
+
+ZoneHVAC:TerminalUnit:VariableRefrigerantFlow,
+        \memo A terminal unit with variable refrigerant flow (VRF) DX cooling and heating coils
+        \memo (air-to-air heat pump). The VRF terminal units are served by an
+        \memo AirConditioner:VariableRefrigerantFlow or
+        \memo AirConditioner:VariableRefrigerantFlow:FluidTemperatureControl:* system.
+        \memo Terminal units can be configured as zone, air loop or outside air system equipment.
+        \min-fields 19
+  A1 ,  \field Zone Terminal Unit Name
+        \required-field
+        \type alpha
+        \reference ZoneTerminalUnitNames
+        \reference DOAToZonalUnit
+        \reference ZoneEquipmentNames
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+        \reference-class-name validOASysEquipmentTypes
+        \reference validOASysEquipmentNames
+  A2 ,  \field Terminal Unit Availability Schedule
+        \type object-list
+        \object-list ScheduleNames
+        \note The unit is available the entire simulation if this field is left blank
+        \note Schedule values of 0 denote the unit is off.
+  A3 ,  \field Terminal Unit Air Inlet Node Name
+        \required-field
+        \type node
+        \note the inlet node to the terminal unit
+  A4 ,  \field Terminal Unit Air Outlet Node Name
+        \required-field
+        \type node
+        \note the outlet node of the terminal unit
+  N1 ,  \field Cooling Supply Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum> 0.0
+        \autosizable
+  N2 ,  \field No Cooling Supply Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum 0.0
+        \autosizable
+  N3 ,  \field Heating Supply Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum> 0.0
+        \autosizable
+  N4 ,  \field No Heating Supply Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum 0.0
+        \autosizable
+  N5 ,  \field Cooling Outdoor Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum 0.0
+        \autosizable
+        \note This field is used only when an oudoor air mixer is included.
+        \note This field is set to zero flow when the VRF terminal unit is connected to
+        \note central dedicated outdoor air through air terminal single duct mixer object.
+        \note When this VRF terminal is used as air loop equipment the autosized flow
+        \note rate will be set to 0 when an outdoor air system is connected to this air loop,
+        \note otherwise the outdoor air flow rate will equal the maximum outdoor air flow rate.
+  N6 ,  \field Heating Outdoor Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum 0.0
+        \autosizable
+        \note This field is used only when an oudoor air mixer is included.
+        \note This field is set to zero flow when the VRF terminal unit is connected to
+        \note central dedicated outdoor air through air terminal single duct mixer object.
+        \note When this VRF terminal is used as air loop equipment the autosized flow
+        \note rate will be set to 0 when an outdoor air system is connected to this air loop,
+        \note otherwise the outdoor air flow rate will equal the maximum outdoor air flow rate.
+  N7 ,  \field No Load Outdoor Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum 0.0
+        \autosizable
+        \note This field is used only when an oudoor air mixer is included.
+        \note This field is set to zero flow when the VRF terminal unit is connected to
+        \note central dedicated outdoor air through air terminal single duct mixer object.
+        \note When this VRF terminal is used as air loop equipment the autosized flow
+        \note rate will be set to 0 when an outdoor air system is connected to this air loop,
+        \note otherwise the outdoor air flow rate will equal the maximum outdoor air flow rate.
+  A5 ,  \field Supply Air Fan Operating Mode Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Required for zone equipment. Leave blank if terminal unit is used in AirLoopHVAC:OutdoorAirSystem:EquipmentList.
+        \note Also leave blank if terminal unit is used on main AirloopHVAC branch and terminal unit has no fan.
+  A6 ,  \field Supply Air Fan Placement
+        \type choice
+        \key BlowThrough
+        \key DrawThrough
+        \default BlowThrough
+        \note Select fan placement as either blow through or draw through.
+        \note Required for zone equipment. This field is ignored if the VRF terminal unit is used
+        \note in AirLoopHVAC:OutdoorAirSystem:EquipmentList.
+        \note This field is also ignored if VRF terminal unit is used on main AirloopHVAC branch
+        \note and terminal unit has no fan.
+  A7 ,  \field Supply Air Fan Object Type
+        \type choice
+        \key Fan:SystemModel
+        \key Fan:OnOff
+        \key Fan:ConstantVolume
+        \key Fan:VariableVolume
+        \default Fan:ConstantVolume
+        \note Supply Air Fan Object Type must be Fan:SystemModel, Fan:OnOff, or Fan:ConstantVolume
+        \note if AirConditioner:VariableRefrigerantFlow is used to model VRF outdoor unit
+        \note Supply Air Fan Object Type must be Fan:SystemModel or Fan:VariableVolume if
+        \note AirConditioner:VariableRefrigerantFlow:FluidTemperatureControl or
+        \note AirConditioner:VariableRefrigerantFlow:FluidTemperatureControl:HR
+        \note is used to model VRF outdoor unit
+        \note Required for zone equipment. Leave blank if terminal unit is used in AirLoopHVAC:OutdoorAirSystem:EquipmentList.
+        \note Also leave blank if terminal unit is used on main AirloopHVAC branch and terminal unit has no fan.
+  A8 ,  \field Supply Air Fan Object Name
+        \type object-list
+        \object-list FansCVandOnOffandVAV
+        \object-list FansSystemModel
+  A9 ,  \field Outside Air Mixer Object Type
+        \type choice
+        \key OutdoorAir:Mixer
+        \note Currently only one type OutdoorAir:Mixer object is available.
+        \note If this field is blank, and outside air mixer is not used.
+        \note This field should be left blank if the VRF terminal unit is connected to
+        \note central dedicated outdoor air through an AirTerminal:SingleDuct:Mixer object.
+        \note This field may also be left blank when the VRF terminal is used in the air
+        \note loop or outdoor air system.
+  A10,  \field Outside Air Mixer Object Name
+        \type object-list
+        \object-list OutdoorAirMixers
+        \note If this field is blank, the OutdoorAir:Mixer is not used.
+        \note This optional field specifies the name of the OutdoorAir:Mixer object.
+        \note When used, this name needs to match name of the OutdoorAir:Mixer object.
+        \note This field should be left blank if the VRF terminal unit is connected to
+        \note central dedicated outdoor air through an AirTerminal:SingleDuct:Mixer object.
+        \note This field may also be left blank when the VRF terminal is used in the air
+        \note loop or outdoor air system.
+  A11,  \field Cooling Coil Object Type
+        \type choice
+        \key Coil:Cooling:DX:VariableRefrigerantFlow
+        \key Coil:Cooling:DX:VariableRefrigerantFlow:FluidTemperatureControl
+        \note Cooling Coil Type must be Coil:Cooling:DX:VariableRefrigerantFlow
+        \note if AirConditioner:VariableRefrigerantFlow is used
+        \note to model VRF outdoor unit
+        \note Cooling Coil Type must be
+        \note Coil:Cooling:DX:VariableRefrigerantFlow:FluidTemperatureControl
+        \note if AirConditioner:VariableRefrigerantFlow:FluidTemperatureControl or
+        \note if AirConditioner:VariableRefrigerantFlow:FluidTemperatureControl:HR
+        \note is used to model VRF outdoor unit
+        \note This field may be left blank if heating-only mode is used
+  A12,  \field Cooling Coil Object Name
+        \type object-list
+        \object-list CoolingCoilsDXVarRefrigFlow
+        \object-list CoolingCoilsDXVarRefrigFlowFluidTemperatureControl
+        \note Cooling Coil Type must be Coil:Cooling:DX:VariableRefrigerantFlow
+        \note This field may be left blank if heating-only mode is used
+  A13,  \field Heating Coil Object Type
+        \type choice
+        \key Coil:Heating:DX:VariableRefrigerantFlow
+        \key Coil:Heating:DX:VariableRefrigerantFlow:FluidTemperatureControl
+        \note Heating Coil Type must be Coil:Heating:DX:VariableRefrigerantFlow
+        \note if AirConditioner:VariableRefrigerantFlow is used
+        \note to model VRF outdoor unit
+        \note Heating Coil Type must be
+        \note Coil:Heating:DX:VariableRefrigerantFlow:FluidTemperatureControl
+        \note if AirConditioner:VariableRefrigerantFlow:FluidTemperatureControl or
+        \note if AirConditioner:VariableRefrigerantFlow:FluidTemperatureControl:HR
+        \note is used to model VRF outdoor unit
+        \note This field may be left blank if cooling-only mode is used
+  A14,  \field Heating Coil Object Name
+        \type object-list
+        \object-list HeatingCoilsDXVarRefrigFlow
+        \object-list HeatingCoilsDXVarRefrigFlowFluidTemperatureControl
+        \note Heating Coil Type must be Coil:Heating:DX:VariableRefrigerantFlow
+        \note This field may be left blank if cooling-only mode is used
+  N8 ,  \field Zone Terminal Unit On Parasitic Electric Energy Use
+        \type real
+        \units W
+        \minimum 0
+        \default 0
+  N9 ,  \field Zone Terminal Unit Off Parasitic Electric Energy Use
+        \type real
+        \units W
+        \minimum 0
+        \default 0
+  N10, \field Rated Heating Capacity Sizing Ratio
+       \type real
+       \units W/W
+       \minimum 1.0
+       \default 1.0
+       \note If this terminal unit's heating coil is autosized, the heating capacity is sized
+       \note to be equal to the cooling capacity multiplied by this sizing ratio.
+       \note This input applies to the terminal unit heating coil and overrides the sizing
+       \note ratio entered in the AirConditioner:VariableRefrigerantFlow object.
+  A15, \field Availability Manager List Name
+       \note Enter the name of an AvailabilityManagerAssignmentList object.
+       \type object-list
+       \object-list SystemAvailabilityManagerLists
+  A16, \field Design Specification ZoneHVAC Sizing Object Name
+       \note Enter the name of a DesignSpecificationZoneHVACSizing object.
+       \type object-list
+       \object-list DesignSpecificationZoneHVACSizingName
+  A17, \field Supplemental Heating Coil Object Type
+       \type choice
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Water
+       \key Coil:Heating:Steam
+       \note works with gas, electric, hot water and steam heating coil.
+  A18, \field Supplemental Heating Coil Name
+       \type object-list
+       \object-list HeatingCoilName
+       \note Needs to match in the supplemental heating coil object.
+  N11, \field Maximum Supply Air Temperature from Supplemental Heater
+       \required-field
+       \type real
+       \units C
+       \autosizable
+       \default autosize
+       \note Supply air temperature from the supplemental heater will not exceed this value.
+  N12, \field Maximum Outdoor Dry-Bulb Temperature for Supplemental Heater Operation
+       \type real
+       \maximum 21.0
+       \default 21.0
+       \units C
+       \note Supplemental heater will not operate when outdoor temperature exceeds this value.
+  A19; \field Controlling Zone or Thermostat Location
+       \type object-list
+       \object-list ZoneNames
+       \note Used only for AirloopHVAC equipment on a main branch and defines zone name where thermostat is located.
+       \note Not required for zone equipment. Leave blank if terminal unit is used in AirLoopHVAC:OutdoorAirSystem:EquipmentList.
+       \note Required when terminal unit is used on main AirloopHVAC branch and coils are not set point controlled.
+       \note When terminal unit is used in air loop and is load controlled, this zone's thermostat will control operation.
+
+
+\group Zone HVAC Radiative/Convective Units
+
+ZoneHVAC:Baseboard:RadiantConvective:Water:Design,
+       \min-fields 7
+  A1,  \field Name
+       \required-field
+       \type alpha
+       \reference BaseboardDesignObject
+  A2,  \field Heating Design Capacity Method
+       \type choice
+       \key HeatingDesignCapacity
+       \key CapacityPerFloorArea
+       \key FractionOfAutosizedHeatingCapacity
+       \default HeatingDesignCapacity
+       \note Enter the method used to determine the heating design capacity.
+       \note HeatingDesignCapacity = > selected when the design heating capacity value or autosize
+       \note is specified. CapacityPerFloorArea = > selected when the design heating capacity is
+       \note determine from user specified heating capacity per floor area and zone floor area.
+       \note FractionOfAutosizedHeatingCapacity = > is selected when the design heating capacity is
+       \note determined from a user specified fraction and the auto-sized design heating capacity.
+  N1, \field Heating Design Capacity Per Floor Area
+       \type real
+       \units W/m2
+       \minimum 0.0
+       \note Enter the heating design capacity per zone floor area. Required field when the heating design
+       \note capacity method field is CapacityPerFloorArea.
+  N2, \field Fraction of Autosized Heating Design Capacity
+       \type real
+       \minimum 0.0
+       \default 1.0
+       \note Enter the fraction of autosized heating design capacity. Required field when capacity the
+       \note heating design capacity method field is FractionOfAutosizedHeatingCapacity.
+  N3,  \field Convergence Tolerance
+       \type real
+       \minimum> 0.0
+       \default 0.001
+  N4,  \field Fraction Radiant
+       \required-field
+       \type real
+       \minimum 0
+       \maximum 1
+  N5;  \field Fraction of Radiant Energy Incident on People
+       \type real
+       \minimum 0
+       \maximum 1
+
+ZoneHVAC:Baseboard:RadiantConvective:Water,
+       \extensible:2 - repeat last two fields, remembering to remove ; from "inner" fields.
+       \memo The number of surfaces can be expanded beyond 100, if necessary, by adding more
+       \memo groups to the end of the list
+       \min-fields 9
+  A1,  \field Name
+       \required-field
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference ZoneEquipmentNames
+  A2,  \field Design Object
+       \type object-list
+       \object-list BaseboardDesignObject
+  A3,  \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A4,  \field Inlet Node Name
+       \required-field
+       \type node
+  A5,  \field Outlet Node Name
+       \required-field
+       \type node
+  N1,  \field Rated Average Water Temperature
+       \note Rated average water temperature is the average of the inlet and outlet water temperatures
+       \note at rated conditions.
+       \type real
+       \maximum 150.0
+       \minimum 20.0
+       \units C
+       \default 87.78
+  N2,  \field Rated Water Mass Flow Rate
+       \note Standard is I=B=R Rating document where all baseboards are rated at either 0.063 kg/s (1 gpm)
+       \note or 0.252 kg/s (4 gpm). It is recommended that users find data for the baseboard heater that
+       \note corresponds to performance at 0.063 kg/s unless the flow rate is expected to be above 0.252 kg/s.
+       \note If the flow rate is expected to be above 0.252 kg/s, this field should be 0.252 kg/s.
+       \type real
+       \maximum 10.0
+       \minimum> 0.0
+       \units kg/s
+       \default 0.063
+  N3, \field Heating Design Capacity
+       \type real
+       \units W
+       \minimum 0.0
+       \autosizable
+       \ip-units W
+       \default autosize
+       \note Enter the design heating capacity. Required field when the heating design capacity method
+       \note HeatingDesignCapacity. This input field is rated heating capacity. Users must multiply the
+       \note actual finned length published in the literature to determine the rated capacity. Rated
+       \note Capacity is for an inlet air dry-bulb temperature of 18.0C, the Rated Water Mass Flow Rate
+       \note of 0.063kg/s or 0.252kg/s, and the Rated Average Water Temperature between 32.2C and 115.6C.
+  N4,  \field Maximum Water Flow Rate
+       \required-field
+       \autosizable
+       \type real
+       \units m3/s
+       \ip-units gal/min
+  A6,  \field Surface 1 Name
+       \begin-extensible
+       \note Radiant energy may be distributed to specific surfaces
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N5, \field Fraction of Radiant Energy to Surface 1
+       \type real
+       \minimum 0
+       \maximum 1
+  A7,  \field Surface 2 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N6, \field Fraction of Radiant Energy to Surface 2
+       \type real
+       \minimum 0
+       \maximum 1
+  A8,  \field Surface 3 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N7, \field Fraction of Radiant Energy to Surface 3
+       \type real
+       \minimum 0
+       \maximum 1
+  A9,  \field Surface 4 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N8, \field Fraction of Radiant Energy to Surface 4
+       \type real
+       \minimum 0
+       \maximum 1
+  A10, \field Surface 5 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N9, \field Fraction of Radiant Energy to Surface 5
+       \type real
+       \minimum 0
+       \maximum 1
+  A11, \field Surface 6 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N10, \field Fraction of Radiant Energy to Surface 6
+       \type real
+       \minimum 0
+       \maximum 1
+  A12, \field Surface 7 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N11, \field Fraction of Radiant Energy to Surface 7
+       \type real
+       \minimum 0
+       \maximum 1
+  A13, \field Surface 8 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N12, \field Fraction of Radiant Energy to Surface 8
+       \type real
+       \minimum 0
+       \maximum 1
+  A14, \field Surface 9 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N13, \field Fraction of Radiant Energy to Surface 9
+       \type real
+       \minimum 0
+       \maximum 1
+  A15, \field Surface 10 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N14, \field Fraction of Radiant Energy to Surface 10
+       \type real
+       \minimum 0
+       \maximum 1
+  A16, \field Surface 11 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N15, \field Fraction of Radiant Energy to Surface 11
+       \type real
+       \minimum 0
+       \maximum 1
+  A17, \field Surface 12 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N16, \field Fraction of Radiant Energy to Surface 12
+       \type real
+       \minimum 0
+       \maximum 1
+  A18, \field Surface 13 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N17, \field Fraction of Radiant Energy to Surface 13
+       \type real
+       \minimum 0
+       \maximum 1
+  A19, \field Surface 14 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N18, \field Fraction of Radiant Energy to Surface 14
+       \type real
+       \minimum 0
+       \maximum 1
+  A20, \field Surface 15 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N19, \field Fraction of Radiant Energy to Surface 15
+       \type real
+       \minimum 0
+       \maximum 1
+  A21, \field Surface 16 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N20, \field Fraction of Radiant Energy to Surface 16
+       \type real
+       \minimum 0
+       \maximum 1
+  A22, \field Surface 17 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N21, \field Fraction of Radiant Energy to Surface 17
+       \type real
+       \minimum 0
+       \maximum 1
+  A23, \field Surface 18 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N22, \field Fraction of Radiant Energy to Surface 18
+       \type real
+       \minimum 0
+       \maximum 1
+  A24, \field Surface 19 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N23, \field Fraction of Radiant Energy to Surface 19
+       \type real
+       \minimum 0
+       \maximum 1
+  A25, \field Surface 20 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N24, \field Fraction of Radiant Energy to Surface 20
+       \type real
+       \minimum 0
+       \maximum 1
+  A26, \field Surface 21 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N25, \field Fraction of Radiant Energy to Surface 21
+       \type real
+       \minimum 0
+       \maximum 1
+  A27, \field Surface 22 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N26, \field Fraction of Radiant Energy to Surface 22
+       \type real
+       \minimum 0
+       \maximum 1
+  A28, \field Surface 23 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N27, \field Fraction of Radiant Energy to Surface 23
+       \type real
+       \minimum 0
+       \maximum 1
+  A29, \field Surface 24 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N28, \field Fraction of Radiant Energy to Surface 24
+       \type real
+       \minimum 0
+       \maximum 1
+  A30, \field Surface 25 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N29, \field Fraction of Radiant Energy to Surface 25
+       \type real
+       \minimum 0
+       \maximum 1
+  A31, \field Surface 26 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N30, \field Fraction of Radiant Energy to Surface 26
+       \type real
+       \minimum 0
+       \maximum 1
+  A32, \field Surface 27 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N31, \field Fraction of Radiant Energy to Surface 27
+       \type real
+       \minimum 0
+       \maximum 1
+  A33, \field Surface 28 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N32, \field Fraction of Radiant Energy to Surface 28
+       \type real
+       \minimum 0
+       \maximum 1
+  A34, \field Surface 29 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N33, \field Fraction of Radiant Energy to Surface 29
+       \type real
+       \minimum 0
+       \maximum 1
+  A35, \field Surface 30 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N34, \field Fraction of Radiant Energy to Surface 30
+       \type real
+       \minimum 0
+       \maximum 1
+  A36, \field Surface 31 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N35, \field Fraction of Radiant Energy to Surface 31
+       \type real
+       \minimum 0
+       \maximum 1
+  A37, \field Surface 32 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N36, \field Fraction of Radiant Energy to Surface 32
+       \type real
+       \minimum 0
+       \maximum 1
+  A38, \field Surface 33 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N37, \field Fraction of Radiant Energy to Surface 33
+       \type real
+       \minimum 0
+       \maximum 1
+  A39, \field Surface 34 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N38, \field Fraction of Radiant Energy to Surface 34
+       \type real
+       \minimum 0
+       \maximum 1
+  A40, \field Surface 35 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N39, \field Fraction of Radiant Energy to Surface 35
+       \type real
+       \minimum 0
+       \maximum 1
+  A41, \field Surface 36 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N40, \field Fraction of Radiant Energy to Surface 36
+       \type real
+       \minimum 0
+       \maximum 1
+  A42, \field Surface 37 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N41, \field Fraction of Radiant Energy to Surface 37
+       \type real
+       \minimum 0
+       \maximum 1
+  A43, \field Surface 38 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N42, \field Fraction of Radiant Energy to Surface 38
+       \type real
+       \minimum 0
+       \maximum 1
+  A44, \field Surface 39 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N43, \field Fraction of Radiant Energy to Surface 39
+       \type real
+       \minimum 0
+       \maximum 1
+  A45, \field Surface 40 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N44, \field Fraction of Radiant Energy to Surface 40
+       \type real
+       \minimum 0
+       \maximum 1
+  A46, \field Surface 41 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N45, \field Fraction of Radiant Energy to Surface 41
+       \type real
+       \minimum 0
+       \maximum 1
+  A47, \field Surface 42 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N46, \field Fraction of Radiant Energy to Surface 42
+       \type real
+       \minimum 0
+       \maximum 1
+  A48, \field Surface 43 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N47, \field Fraction of Radiant Energy to Surface 43
+       \type real
+       \minimum 0
+       \maximum 1
+  A49, \field Surface 44 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N48, \field Fraction of Radiant Energy to Surface 44
+       \type real
+       \minimum 0
+       \maximum 1
+  A50, \field Surface 45 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N49, \field Fraction of Radiant Energy to Surface 45
+       \type real
+       \minimum 0
+       \maximum 1
+  A51, \field Surface 46 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N50, \field Fraction of Radiant Energy to Surface 46
+       \type real
+       \minimum 0
+       \maximum 1
+  A52, \field Surface 47 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N51, \field Fraction of Radiant Energy to Surface 47
+       \type real
+       \minimum 0
+       \maximum 1
+  A53, \field Surface 48 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N52, \field Fraction of Radiant Energy to Surface 48
+       \type real
+       \minimum 0
+       \maximum 1
+  A54, \field Surface 49 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N53, \field Fraction of Radiant Energy to Surface 49
+       \type real
+       \minimum 0
+       \maximum 1
+  A55, \field Surface 50 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N54, \field Fraction of Radiant Energy to Surface 50
+       \type real
+       \minimum 0
+       \maximum 1
+  A56, \field Surface 51 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N55, \field Fraction of Radiant Energy to Surface 51
+       \type real
+       \minimum 0
+       \maximum 1
+  A57, \field Surface 52 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N56, \field Fraction of Radiant Energy to Surface 52
+       \type real
+       \minimum 0
+       \maximum 1
+  A58, \field Surface 53 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N57, \field Fraction of Radiant Energy to Surface 53
+       \type real
+       \minimum 0
+       \maximum 1
+  A59, \field Surface 54 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N58, \field Fraction of Radiant Energy to Surface 54
+       \type real
+       \minimum 0
+       \maximum 1
+  A60, \field Surface 55 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N59, \field Fraction of Radiant Energy to Surface 55
+       \type real
+       \minimum 0
+       \maximum 1
+  A61, \field Surface 56 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N60, \field Fraction of Radiant Energy to Surface 56
+       \type real
+       \minimum 0
+       \maximum 1
+  A62, \field Surface 57 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N61, \field Fraction of Radiant Energy to Surface 57
+       \type real
+       \minimum 0
+       \maximum 1
+  A63, \field Surface 58 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N62, \field Fraction of Radiant Energy to Surface 58
+       \type real
+       \minimum 0
+       \maximum 1
+  A64, \field Surface 59 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N63, \field Fraction of Radiant Energy to Surface 59
+       \type real
+       \minimum 0
+       \maximum 1
+  A65, \field Surface 60 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N64, \field Fraction of Radiant Energy to Surface 60
+       \type real
+       \minimum 0
+       \maximum 1
+  A66, \field Surface 61 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N65, \field Fraction of Radiant Energy to Surface 61
+       \type real
+       \minimum 0
+       \maximum 1
+  A67, \field Surface 62 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N66, \field Fraction of Radiant Energy to Surface 62
+       \type real
+       \minimum 0
+       \maximum 1
+  A68, \field Surface 63 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N67, \field Fraction of Radiant Energy to Surface 63
+       \type real
+       \minimum 0
+       \maximum 1
+  A69, \field Surface 64 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N68, \field Fraction of Radiant Energy to Surface 64
+       \type real
+       \minimum 0
+       \maximum 1
+  A70, \field Surface 65 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N69, \field Fraction of Radiant Energy to Surface 65
+       \type real
+       \minimum 0
+       \maximum 1
+  A71, \field Surface 66 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N70, \field Fraction of Radiant Energy to Surface 66
+       \type real
+       \minimum 0
+       \maximum 1
+  A72, \field Surface 67 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N71, \field Fraction of Radiant Energy to Surface 67
+       \type real
+       \minimum 0
+       \maximum 1
+  A73, \field Surface 68 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N72, \field Fraction of Radiant Energy to Surface 68
+       \type real
+       \minimum 0
+       \maximum 1
+  A74, \field Surface 69 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N73, \field Fraction of Radiant Energy to Surface 69
+       \type real
+       \minimum 0
+       \maximum 1
+  A75, \field Surface 70 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N74, \field Fraction of Radiant Energy to Surface 70
+       \type real
+       \minimum 0
+       \maximum 1
+  A76, \field Surface 71 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N75, \field Fraction of Radiant Energy to Surface 71
+       \type real
+       \minimum 0
+       \maximum 1
+  A77, \field Surface 72 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N76, \field Fraction of Radiant Energy to Surface 72
+       \type real
+       \minimum 0
+       \maximum 1
+  A78, \field Surface 73 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N77, \field Fraction of Radiant Energy to Surface 73
+       \type real
+       \minimum 0
+       \maximum 1
+  A79, \field Surface 74 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N78, \field Fraction of Radiant Energy to Surface 74
+       \type real
+       \minimum 0
+       \maximum 1
+  A80, \field Surface 75 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N79, \field Fraction of Radiant Energy to Surface 75
+       \type real
+       \minimum 0
+       \maximum 1
+  A81, \field Surface 76 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N80, \field Fraction of Radiant Energy to Surface 76
+       \type real
+       \minimum 0
+       \maximum 1
+  A82, \field Surface 77 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N81, \field Fraction of Radiant Energy to Surface 77
+       \type real
+       \minimum 0
+       \maximum 1
+  A83, \field Surface 78 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N82, \field Fraction of Radiant Energy to Surface 78
+       \type real
+       \minimum 0
+       \maximum 1
+  A84, \field Surface 79 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N83, \field Fraction of Radiant Energy to Surface 79
+       \type real
+       \minimum 0
+       \maximum 1
+  A85, \field Surface 80 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N84, \field Fraction of Radiant Energy to Surface 80
+       \type real
+       \minimum 0
+       \maximum 1
+  A86, \field Surface 81 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N85, \field Fraction of Radiant Energy to Surface 81
+       \type real
+       \minimum 0
+       \maximum 1
+  A87, \field Surface 82 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N86, \field Fraction of Radiant Energy to Surface 82
+       \type real
+       \minimum 0
+       \maximum 1
+  A88, \field Surface 83 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N87, \field Fraction of Radiant Energy to Surface 83
+       \type real
+       \minimum 0
+       \maximum 1
+  A89, \field Surface 84 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N88, \field Fraction of Radiant Energy to Surface 84
+       \type real
+       \minimum 0
+       \maximum 1
+  A90, \field Surface 85 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N89, \field Fraction of Radiant Energy to Surface 85
+       \type real
+       \minimum 0
+       \maximum 1
+  A91, \field Surface 86 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N90, \field Fraction of Radiant Energy to Surface 86
+       \type real
+       \minimum 0
+       \maximum 1
+  A92, \field Surface 87 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N91, \field Fraction of Radiant Energy to Surface 87
+       \type real
+       \minimum 0
+       \maximum 1
+  A93, \field Surface 88 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N92, \field Fraction of Radiant Energy to Surface 88
+       \type real
+       \minimum 0
+       \maximum 1
+  A94, \field Surface 89 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N93, \field Fraction of Radiant Energy to Surface 89
+       \type real
+       \minimum 0
+       \maximum 1
+  A95, \field Surface 90 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N94, \field Fraction of Radiant Energy to Surface 90
+       \type real
+       \minimum 0
+       \maximum 1
+  A96, \field Surface 91 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N95, \field Fraction of Radiant Energy to Surface 91
+       \type real
+       \minimum 0
+       \maximum 1
+  A97, \field Surface 92 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N96, \field Fraction of Radiant Energy to Surface 92
+       \type real
+       \minimum 0
+       \maximum 1
+  A98, \field Surface 93 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N97, \field Fraction of Radiant Energy to Surface 93
+       \type real
+       \minimum 0
+       \maximum 1
+  A99, \field Surface 94 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N98, \field Fraction of Radiant Energy to Surface 94
+       \type real
+       \minimum 0
+       \maximum 1
+ A100, \field Surface 95 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N99, \field Fraction of Radiant Energy to Surface 95
+       \type real
+       \minimum 0
+       \maximum 1
+ A101, \field Surface 96 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N100, \field Fraction of Radiant Energy to Surface 96
+       \type real
+       \minimum 0
+       \maximum 1
+ A102, \field Surface 97 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N101, \field Fraction of Radiant Energy to Surface 97
+       \type real
+       \minimum 0
+       \maximum 1
+ A103, \field Surface 98 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N102, \field Fraction of Radiant Energy to Surface 98
+       \type real
+       \minimum 0
+       \maximum 1
+ A104, \field Surface 99 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N103, \field Fraction of Radiant Energy to Surface 99
+       \type real
+       \minimum 0
+       \maximum 1
+ A105, \field Surface 100 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N104; \field Fraction of Radiant Energy to Surface 100
+       \type real
+       \minimum 0
+       \maximum 1
+
+ZoneHVAC:Baseboard:RadiantConvective:Steam:Design,
+       \min-fields 7
+  A1, \field Name
+       \required-field
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference ZoneEquipmentNames
+  A2, \field Heating Design Capacity Method
+       \type choice
+       \key HeatingDesignCapacity
+       \key CapacityPerFloorArea
+       \key FractionOfAutosizedHeatingCapacity
+       \default HeatingDesignCapacity
+       \note Enter the method used to determine the heating design capacity.
+       \note HeatingDesignCapacity is selected when the design heating capacity value or autosize
+       \note is specified. CapacityPerFloorArea is selected when the design heating capacity is
+       \note determine from user specified heating capacity per floor area and zone floor area.
+       \note FractionOfAutosizedHeatingCapacity is selected when the design heating capacity is
+       \note determined from a user specified fraction and the auto-sized design heating capacity.
+  N1, \field Heating Design Capacity Per Floor Area
+       \type real
+       \units W/m2
+       \minimum 0.0
+       \note Enter the heating design capacity per zone floor area. Required field when the heating design
+       \note capacity method field is CapacityPerFloorArea.
+  N2, \field Fraction of Autosized Heating Design Capacity
+       \type real
+       \minimum 0.0
+       \default 1.0
+       \note Enter the fraction of autosized heating design capacity. Required field when capacity the
+       \note heating design capacity method field is FractionOfAutosizedHeatingCapacity.
+  N3,  \field Convergence Tolerance
+       \type real
+       \minimum> 0.0
+       \default 0.001
+  N4,  \field Fraction Radiant
+       \required-field
+       \type real
+       \minimum 0
+       \maximum 1
+  N5;  \field Fraction of Radiant Energy Incident on People
+       \type real
+       \minimum 0
+       \maximum 1
+
+ZoneHVAC:Baseboard:RadiantConvective:Steam,
+       \min-fields 8
+       \extensible:2 - repeat last two fields, remembering to remove ; from "inner" fields.
+       \memo The number of surfaces can be expanded beyond 100, if necessary, by adding more
+       \memo groups to the end of the list.
+  A1,  \field Name
+       \required-field
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference ZoneEquipmentNames
+  A2, \field Design Object
+        \type object-list
+        \object-list RadiantDesignObject
+  A3,  \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A4,  \field Inlet Node Name
+       \required-field
+       \type node
+  A5,  \field Outlet Node Name
+       \required-field
+       \type node
+  N1, \field Heating Design Capacity
+       \type real
+       \units W
+       \minimum 0.0
+       \autosizable
+       \ip-units W
+       \default autosize
+       \note Enter the design heating capacity. Required field when the heating design capacity method
+       \note HeatingDesignCapacity.
+  N2,  \field Degree of SubCooling
+       \type real
+       \minimum 1.0
+       \default 5.0
+       \units deltaC
+  N3,  \field Maximum Steam Flow Rate
+       \required-field
+       \type real
+       \autosizable
+       \minimum> 0.0
+       \units m3/s
+  A6,  \field Surface 1 Name
+       \begin-extensible
+       \note Radiant energy may be distributed to specific surfaces
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N4,  \field Fraction of Radiant Energy to Surface 1
+       \type real
+       \minimum 0
+       \maximum 1
+  A7,  \field Surface 2 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N5, \field Fraction of Radiant Energy to Surface 2
+       \type real
+       \minimum 0
+       \maximum 1
+  A8,  \field Surface 3 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N6, \field Fraction of Radiant Energy to Surface 3
+       \type real
+       \minimum 0
+       \maximum 1
+  A9,  \field Surface 4 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N7, \field Fraction of Radiant Energy to Surface 4
+       \type real
+       \minimum 0
+       \maximum 1
+  A10, \field Surface 5 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N8, \field Fraction of Radiant Energy to Surface 5
+       \type real
+       \minimum 0
+       \maximum 1
+  A11, \field Surface 6 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N9, \field Fraction of Radiant Energy to Surface 6
+       \type real
+       \minimum 0
+       \maximum 1
+  A12, \field Surface 7 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N10, \field Fraction of Radiant Energy to Surface 7
+       \type real
+       \minimum 0
+       \maximum 1
+  A13, \field Surface 8 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N11, \field Fraction of Radiant Energy to Surface 8
+       \type real
+       \minimum 0
+       \maximum 1
+  A14, \field Surface 9 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N12, \field Fraction of Radiant Energy to Surface 9
+       \type real
+       \minimum 0
+       \maximum 1
+  A15, \field Surface 10 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N13, \field Fraction of Radiant Energy to Surface 10
+       \type real
+       \minimum 0
+       \maximum 1
+  A16, \field Surface 11 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N14, \field Fraction of Radiant Energy to Surface 11
+       \type real
+       \minimum 0
+       \maximum 1
+  A17, \field Surface 12 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N15, \field Fraction of Radiant Energy to Surface 12
+       \type real
+       \minimum 0
+       \maximum 1
+  A18, \field Surface 13 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N16, \field Fraction of Radiant Energy to Surface 13
+       \type real
+       \minimum 0
+       \maximum 1
+  A19, \field Surface 14 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N17, \field Fraction of Radiant Energy to Surface 14
+       \type real
+       \minimum 0
+       \maximum 1
+  A20, \field Surface 15 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N18, \field Fraction of Radiant Energy to Surface 15
+       \type real
+       \minimum 0
+       \maximum 1
+  A21, \field Surface 16 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N19, \field Fraction of Radiant Energy to Surface 16
+       \type real
+       \minimum 0
+       \maximum 1
+  A22, \field Surface 17 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N20, \field Fraction of Radiant Energy to Surface 17
+       \type real
+       \minimum 0
+       \maximum 1
+  A23, \field Surface 18 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N21, \field Fraction of Radiant Energy to Surface 18
+       \type real
+       \minimum 0
+       \maximum 1
+  A24, \field Surface 19 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N22, \field Fraction of Radiant Energy to Surface 19
+       \type real
+       \minimum 0
+       \maximum 1
+  A25, \field Surface 20 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N23, \field Fraction of Radiant Energy to Surface 20
+       \type real
+       \minimum 0
+       \maximum 1
+  A26, \field Surface 21 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N24, \field Fraction of Radiant Energy to Surface 21
+       \type real
+       \minimum 0
+       \maximum 1
+  A27, \field Surface 22 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N25, \field Fraction of Radiant Energy to Surface 22
+       \type real
+       \minimum 0
+       \maximum 1
+  A28, \field Surface 23 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N26, \field Fraction of Radiant Energy to Surface 23
+       \type real
+       \minimum 0
+       \maximum 1
+  A29, \field Surface 24 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N27, \field Fraction of Radiant Energy to Surface 24
+       \type real
+       \minimum 0
+       \maximum 1
+  A30, \field Surface 25 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N28, \field Fraction of Radiant Energy to Surface 25
+       \type real
+       \minimum 0
+       \maximum 1
+  A31, \field Surface 26 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N29, \field Fraction of Radiant Energy to Surface 26
+       \type real
+       \minimum 0
+       \maximum 1
+  A32, \field Surface 27 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N30, \field Fraction of Radiant Energy to Surface 27
+       \type real
+       \minimum 0
+       \maximum 1
+  A33, \field Surface 28 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N31, \field Fraction of Radiant Energy to Surface 28
+       \type real
+       \minimum 0
+       \maximum 1
+  A34, \field Surface 29 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N32, \field Fraction of Radiant Energy to Surface 29
+       \type real
+       \minimum 0
+       \maximum 1
+  A35, \field Surface 30 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N33, \field Fraction of Radiant Energy to Surface 30
+       \type real
+       \minimum 0
+       \maximum 1
+  A36, \field Surface 31 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N34, \field Fraction of Radiant Energy to Surface 31
+       \type real
+       \minimum 0
+       \maximum 1
+  A37, \field Surface 32 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N35, \field Fraction of Radiant Energy to Surface 32
+       \type real
+       \minimum 0
+       \maximum 1
+  A38, \field Surface 33 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N36, \field Fraction of Radiant Energy to Surface 33
+       \type real
+       \minimum 0
+       \maximum 1
+  A39, \field Surface 34 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N37, \field Fraction of Radiant Energy to Surface 34
+       \type real
+       \minimum 0
+       \maximum 1
+  A40, \field Surface 35 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N38, \field Fraction of Radiant Energy to Surface 35
+       \type real
+       \minimum 0
+       \maximum 1
+  A41, \field Surface 36 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N39, \field Fraction of Radiant Energy to Surface 36
+       \type real
+       \minimum 0
+       \maximum 1
+  A42, \field Surface 37 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N40, \field Fraction of Radiant Energy to Surface 37
+       \type real
+       \minimum 0
+       \maximum 1
+  A43, \field Surface 38 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N41, \field Fraction of Radiant Energy to Surface 38
+       \type real
+       \minimum 0
+       \maximum 1
+  A44, \field Surface 39 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N42, \field Fraction of Radiant Energy to Surface 39
+       \type real
+       \minimum 0
+       \maximum 1
+  A45, \field Surface 40 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N43, \field Fraction of Radiant Energy to Surface 40
+       \type real
+       \minimum 0
+       \maximum 1
+  A46, \field Surface 41 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N44, \field Fraction of Radiant Energy to Surface 41
+       \type real
+       \minimum 0
+       \maximum 1
+  A47, \field Surface 42 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N45, \field Fraction of Radiant Energy to Surface 42
+       \type real
+       \minimum 0
+       \maximum 1
+  A48, \field Surface 43 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N46, \field Fraction of Radiant Energy to Surface 43
+       \type real
+       \minimum 0
+       \maximum 1
+  A49, \field Surface 44 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N47, \field Fraction of Radiant Energy to Surface 44
+       \type real
+       \minimum 0
+       \maximum 1
+  A50, \field Surface 45 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N48, \field Fraction of Radiant Energy to Surface 45
+       \type real
+       \minimum 0
+       \maximum 1
+  A51, \field Surface 46 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N49, \field Fraction of Radiant Energy to Surface 46
+       \type real
+       \minimum 0
+       \maximum 1
+  A52, \field Surface 47 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N50, \field Fraction of Radiant Energy to Surface 47
+       \type real
+       \minimum 0
+       \maximum 1
+  A53, \field Surface 48 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N51, \field Fraction of Radiant Energy to Surface 48
+       \type real
+       \minimum 0
+       \maximum 1
+  A54, \field Surface 49 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N52, \field Fraction of Radiant Energy to Surface 49
+       \type real
+       \minimum 0
+       \maximum 1
+  A55, \field Surface 50 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N53, \field Fraction of Radiant Energy to Surface 50
+       \type real
+       \minimum 0
+       \maximum 1
+  A56, \field Surface 51 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N54, \field Fraction of Radiant Energy to Surface 51
+       \type real
+       \minimum 0
+       \maximum 1
+  A57, \field Surface 52 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N55, \field Fraction of Radiant Energy to Surface 52
+       \type real
+       \minimum 0
+       \maximum 1
+  A58, \field Surface 53 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N56, \field Fraction of Radiant Energy to Surface 53
+       \type real
+       \minimum 0
+       \maximum 1
+  A59, \field Surface 54 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N57, \field Fraction of Radiant Energy to Surface 54
+       \type real
+       \minimum 0
+       \maximum 1
+  A60, \field Surface 55 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N58, \field Fraction of Radiant Energy to Surface 55
+       \type real
+       \minimum 0
+       \maximum 1
+  A61, \field Surface 56 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N59, \field Fraction of Radiant Energy to Surface 56
+       \type real
+       \minimum 0
+       \maximum 1
+  A62, \field Surface 57 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N60, \field Fraction of Radiant Energy to Surface 57
+       \type real
+       \minimum 0
+       \maximum 1
+  A63, \field Surface 58 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N61, \field Fraction of Radiant Energy to Surface 58
+       \type real
+       \minimum 0
+       \maximum 1
+  A64, \field Surface 59 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N62, \field Fraction of Radiant Energy to Surface 59
+       \type real
+       \minimum 0
+       \maximum 1
+  A65, \field Surface 60 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N63, \field Fraction of Radiant Energy to Surface 60
+       \type real
+       \minimum 0
+       \maximum 1
+  A66, \field Surface 61 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N64, \field Fraction of Radiant Energy to Surface 61
+       \type real
+       \minimum 0
+       \maximum 1
+  A67, \field Surface 62 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N65, \field Fraction of Radiant Energy to Surface 62
+       \type real
+       \minimum 0
+       \maximum 1
+  A68, \field Surface 63 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N66, \field Fraction of Radiant Energy to Surface 63
+       \type real
+       \minimum 0
+       \maximum 1
+  A69, \field Surface 64 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N67, \field Fraction of Radiant Energy to Surface 64
+       \type real
+       \minimum 0
+       \maximum 1
+  A70, \field Surface 65 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N68, \field Fraction of Radiant Energy to Surface 65
+       \type real
+       \minimum 0
+       \maximum 1
+  A71, \field Surface 66 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N69, \field Fraction of Radiant Energy to Surface 66
+       \type real
+       \minimum 0
+       \maximum 1
+  A72, \field Surface 67 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N70, \field Fraction of Radiant Energy to Surface 67
+       \type real
+       \minimum 0
+       \maximum 1
+  A73, \field Surface 68 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N71, \field Fraction of Radiant Energy to Surface 68
+       \type real
+       \minimum 0
+       \maximum 1
+  A74, \field Surface 69 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N72, \field Fraction of Radiant Energy to Surface 69
+       \type real
+       \minimum 0
+       \maximum 1
+  A75, \field Surface 70 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N73, \field Fraction of Radiant Energy to Surface 70
+       \type real
+       \minimum 0
+       \maximum 1
+  A76, \field Surface 71 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N74, \field Fraction of Radiant Energy to Surface 71
+       \type real
+       \minimum 0
+       \maximum 1
+  A77, \field Surface 72 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N75, \field Fraction of Radiant Energy to Surface 72
+       \type real
+       \minimum 0
+       \maximum 1
+  A78, \field Surface 73 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N76, \field Fraction of Radiant Energy to Surface 73
+       \type real
+       \minimum 0
+       \maximum 1
+  A79, \field Surface 74 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N77, \field Fraction of Radiant Energy to Surface 74
+       \type real
+       \minimum 0
+       \maximum 1
+  A80, \field Surface 75 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N78, \field Fraction of Radiant Energy to Surface 75
+       \type real
+       \minimum 0
+       \maximum 1
+  A81, \field Surface 76 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N79, \field Fraction of Radiant Energy to Surface 76
+       \type real
+       \minimum 0
+       \maximum 1
+  A82, \field Surface 77 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N80, \field Fraction of Radiant Energy to Surface 77
+       \type real
+       \minimum 0
+       \maximum 1
+  A83, \field Surface 78 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N81, \field Fraction of Radiant Energy to Surface 78
+       \type real
+       \minimum 0
+       \maximum 1
+  A84, \field Surface 79 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N82, \field Fraction of Radiant Energy to Surface 79
+       \type real
+       \minimum 0
+       \maximum 1
+  A85, \field Surface 80 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N83, \field Fraction of Radiant Energy to Surface 80
+       \type real
+       \minimum 0
+       \maximum 1
+  A86, \field Surface 81 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N84, \field Fraction of Radiant Energy to Surface 81
+       \type real
+       \minimum 0
+       \maximum 1
+  A87, \field Surface 82 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N85, \field Fraction of Radiant Energy to Surface 82
+       \type real
+       \minimum 0
+       \maximum 1
+  A88, \field Surface 83 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N86, \field Fraction of Radiant Energy to Surface 83
+       \type real
+       \minimum 0
+       \maximum 1
+  A89, \field Surface 84 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N87, \field Fraction of Radiant Energy to Surface 84
+       \type real
+       \minimum 0
+       \maximum 1
+  A90, \field Surface 85 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N88, \field Fraction of Radiant Energy to Surface 85
+       \type real
+       \minimum 0
+       \maximum 1
+  A91, \field Surface 86 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N89, \field Fraction of Radiant Energy to Surface 86
+       \type real
+       \minimum 0
+       \maximum 1
+  A92, \field Surface 87 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N90, \field Fraction of Radiant Energy to Surface 87
+       \type real
+       \minimum 0
+       \maximum 1
+  A93, \field Surface 88 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N91, \field Fraction of Radiant Energy to Surface 88
+       \type real
+       \minimum 0
+       \maximum 1
+  A94, \field Surface 89 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N92, \field Fraction of Radiant Energy to Surface 89
+       \type real
+       \minimum 0
+       \maximum 1
+  A95, \field Surface 90 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N93, \field Fraction of Radiant Energy to Surface 90
+       \type real
+       \minimum 0
+       \maximum 1
+  A96, \field Surface 91 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N94, \field Fraction of Radiant Energy to Surface 91
+       \type real
+       \minimum 0
+       \maximum 1
+  A97, \field Surface 92 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N95, \field Fraction of Radiant Energy to Surface 92
+       \type real
+       \minimum 0
+       \maximum 1
+  A98, \field Surface 93 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N96, \field Fraction of Radiant Energy to Surface 93
+       \type real
+       \minimum 0
+       \maximum 1
+  A99, \field Surface 94 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N97, \field Fraction of Radiant Energy to Surface 94
+       \type real
+       \minimum 0
+       \maximum 1
+ A100, \field Surface 95 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N98, \field Fraction of Radiant Energy to Surface 95
+       \type real
+       \minimum 0
+       \maximum 1
+ A101, \field Surface 96 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N99, \field Fraction of Radiant Energy to Surface 96
+       \type real
+       \minimum 0
+       \maximum 1
+ A102, \field Surface 97 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N100, \field Fraction of Radiant Energy to Surface 97
+       \type real
+       \minimum 0
+       \maximum 1
+ A103, \field Surface 98 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N101, \field Fraction of Radiant Energy to Surface 98
+       \type real
+       \minimum 0
+       \maximum 1
+ A104, \field Surface 99 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N102, \field Fraction of Radiant Energy to Surface 99
+       \type real
+       \minimum 0
+       \maximum 1
+ A105, \field Surface 100 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N103; \field Fraction of Radiant Energy to Surface 100
+       \type real
+       \minimum 0
+       \maximum 1
+
+ZoneHVAC:Baseboard:RadiantConvective:Electric,
+       \min-fields 8
+       \extensible:2 - repeat last two fields, remembering to remove ; from "inner" fields.
+       \memo The number of surfaces can be expanded beyond 100, if necessary, by adding more
+       \memo groups to the end of the list
+  A1 , \field Name
+       \required-field
+       \reference ZoneEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Heating Design Capacity Method
+       \type choice
+       \key HeatingDesignCapacity
+       \key CapacityPerFloorArea
+       \key FractionOfAutosizedHeatingCapacity
+       \default HeatingDesignCapacity
+       \note Enter the method used to determine the heating design capacity.
+       \note HeatingDesignCapacity = > selected when the design heating capacity value or autosize
+       \note is specified. CapacityPerFloorArea = > selected when the design heating capacity is
+       \note determine from user specified heating capacity per floor area and zone floor area.
+       \note FractionOfAutosizedHeatingCapacity = > is selected when the design heating capacity is
+       \note determined from a user specified fraction and the auto-sized design heating capacity.
+  N1 , \field Heating Design Capacity
+       \type real
+       \units W
+       \minimum 0.0
+       \autosizable
+       \ip-units W
+       \default autosize
+       \note Enter the design heating capacity. Required field when the heating design capacity method
+       \note HeatingDesignCapacity.
+  N2 , \field Heating Design Capacity Per Floor Area
+       \type real
+       \units W/m2
+       \minimum 0.0
+       \note Enter the heating design capacity per zone floor area. Required field when the heating design
+       \note capacity method field is CapacityPerFloorArea.
+  N3 , \field Fraction of Autosized Heating Design Capacity
+       \type real
+       \minimum 0.0
+       \default 1.0
+       \note Enter the fraction of autosized heating design capacity. Required field when capacity the
+       \note heating design capacity method field is FractionOfAutosizedHeatingCapacity.
+  N4 , \field Efficiency
+       \maximum 1.0
+       \minimum> 0.0
+       \default 1.0
+  N5,  \field Fraction Radiant
+       \required-field
+       \type real
+       \minimum 0
+       \maximum 1
+  N6,  \field Fraction of Radiant Energy Incident on People
+       \type real
+       \minimum 0
+       \maximum 1
+  A4,  \field Surface 1 Name
+       \begin-extensible
+       \note Radiant energy may be distributed to specific surfaces
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N7,  \field Fraction of Radiant Energy to Surface 1
+       \type real
+       \minimum 0
+       \maximum 1
+  A5,  \field Surface 2 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N8,  \field Fraction of Radiant Energy to Surface 2
+       \type real
+       \minimum 0
+       \maximum 1
+  A6,  \field Surface 3 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N9,  \field Fraction of Radiant Energy to Surface 3
+       \type real
+       \minimum 0
+       \maximum 1
+  A7,  \field Surface 4 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N10, \field Fraction of Radiant Energy to Surface 4
+       \type real
+       \minimum 0
+       \maximum 1
+  A8,  \field Surface 5 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N11, \field Fraction of Radiant Energy to Surface 5
+       \type real
+       \minimum 0
+       \maximum 1
+  A9,  \field Surface 6 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N12, \field Fraction of Radiant Energy to Surface 6
+       \type real
+       \minimum 0
+       \maximum 1
+  A10,  \field Surface 7 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N13, \field Fraction of Radiant Energy to Surface 7
+       \type real
+       \minimum 0
+       \maximum 1
+  A11, \field Surface 8 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N14, \field Fraction of Radiant Energy to Surface 8
+       \type real
+       \minimum 0
+       \maximum 1
+  A12, \field Surface 9 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N15, \field Fraction of Radiant Energy to Surface 9
+       \type real
+       \minimum 0
+       \maximum 1
+  A13, \field Surface 10 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N16, \field Fraction of Radiant Energy to Surface 10
+       \type real
+       \minimum 0
+       \maximum 1
+  A14, \field Surface 11 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N17, \field Fraction of Radiant Energy to Surface 11
+       \type real
+       \minimum 0
+       \maximum 1
+  A15, \field Surface 12 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N18, \field Fraction of Radiant Energy to Surface 12
+       \type real
+       \minimum 0
+       \maximum 1
+  A16, \field Surface 13 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N19, \field Fraction of Radiant Energy to Surface 13
+       \type real
+       \minimum 0
+       \maximum 1
+  A17, \field Surface 14 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N20, \field Fraction of Radiant Energy to Surface 14
+       \type real
+       \minimum 0
+       \maximum 1
+  A18, \field Surface 15 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N21, \field Fraction of Radiant Energy to Surface 15
+       \type real
+       \minimum 0
+       \maximum 1
+  A19, \field Surface 16 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N22, \field Fraction of Radiant Energy to Surface 16
+       \type real
+       \minimum 0
+       \maximum 1
+  A20, \field Surface 17 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N23, \field Fraction of Radiant Energy to Surface 17
+       \type real
+       \minimum 0
+       \maximum 1
+  A21, \field Surface 18 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N24, \field Fraction of Radiant Energy to Surface 18
+       \type real
+       \minimum 0
+       \maximum 1
+  A22, \field Surface 19 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N25, \field Fraction of Radiant Energy to Surface 19
+       \type real
+       \minimum 0
+       \maximum 1
+  A23, \field Surface 20 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N26, \field Fraction of Radiant Energy to Surface 20
+       \type real
+       \minimum 0
+       \maximum 1
+  A24, \field Surface 21 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N27, \field Fraction of Radiant Energy to Surface 21
+       \type real
+       \minimum 0
+       \maximum 1
+  A25, \field Surface 22 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N28, \field Fraction of Radiant Energy to Surface 22
+       \type real
+       \minimum 0
+       \maximum 1
+  A26, \field Surface 23 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N29, \field Fraction of Radiant Energy to Surface 23
+       \type real
+       \minimum 0
+       \maximum 1
+  A27, \field Surface 24 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N30, \field Fraction of Radiant Energy to Surface 24
+       \type real
+       \minimum 0
+       \maximum 1
+  A28, \field Surface 25 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N31, \field Fraction of Radiant Energy to Surface 25
+       \type real
+       \minimum 0
+       \maximum 1
+  A29, \field Surface 26 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N32, \field Fraction of Radiant Energy to Surface 26
+       \type real
+       \minimum 0
+       \maximum 1
+  A30, \field Surface 27 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N33, \field Fraction of Radiant Energy to Surface 27
+       \type real
+       \minimum 0
+       \maximum 1
+  A31, \field Surface 28 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N34, \field Fraction of Radiant Energy to Surface 28
+       \type real
+       \minimum 0
+       \maximum 1
+  A32, \field Surface 29 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N35, \field Fraction of Radiant Energy to Surface 29
+       \type real
+       \minimum 0
+       \maximum 1
+  A33, \field Surface 30 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N36, \field Fraction of Radiant Energy to Surface 30
+       \type real
+       \minimum 0
+       \maximum 1
+  A34, \field Surface 31 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N37, \field Fraction of Radiant Energy to Surface 31
+       \type real
+       \minimum 0
+       \maximum 1
+  A35, \field Surface 32 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N38, \field Fraction of Radiant Energy to Surface 32
+       \type real
+       \minimum 0
+       \maximum 1
+  A36, \field Surface 33 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N39, \field Fraction of Radiant Energy to Surface 33
+       \type real
+       \minimum 0
+       \maximum 1
+  A37, \field Surface 34 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N40, \field Fraction of Radiant Energy to Surface 34
+       \type real
+       \minimum 0
+       \maximum 1
+  A38, \field Surface 35 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N41, \field Fraction of Radiant Energy to Surface 35
+       \type real
+       \minimum 0
+       \maximum 1
+  A39, \field Surface 36 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N42, \field Fraction of Radiant Energy to Surface 36
+       \type real
+       \minimum 0
+       \maximum 1
+  A40, \field Surface 37 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N43, \field Fraction of Radiant Energy to Surface 37
+       \type real
+       \minimum 0
+       \maximum 1
+  A41, \field Surface 38 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N44, \field Fraction of Radiant Energy to Surface 38
+       \type real
+       \minimum 0
+       \maximum 1
+  A42, \field Surface 39 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N45, \field Fraction of Radiant Energy to Surface 39
+       \type real
+       \minimum 0
+       \maximum 1
+  A43, \field Surface 40 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N46, \field Fraction of Radiant Energy to Surface 40
+       \type real
+       \minimum 0
+       \maximum 1
+  A44, \field Surface 41 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N47, \field Fraction of Radiant Energy to Surface 41
+       \type real
+       \minimum 0
+       \maximum 1
+  A45, \field Surface 42 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N48, \field Fraction of Radiant Energy to Surface 42
+       \type real
+       \minimum 0
+       \maximum 1
+  A46, \field Surface 43 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N49, \field Fraction of Radiant Energy to Surface 43
+       \type real
+       \minimum 0
+       \maximum 1
+  A47, \field Surface 44 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N50, \field Fraction of Radiant Energy to Surface 44
+       \type real
+       \minimum 0
+       \maximum 1
+  A48, \field Surface 45 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N51, \field Fraction of Radiant Energy to Surface 45
+       \type real
+       \minimum 0
+       \maximum 1
+  A49, \field Surface 46 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N52, \field Fraction of Radiant Energy to Surface 46
+       \type real
+       \minimum 0
+       \maximum 1
+  A50, \field Surface 47 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N53, \field Fraction of Radiant Energy to Surface 47
+       \type real
+       \minimum 0
+       \maximum 1
+  A51, \field Surface 48 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N54, \field Fraction of Radiant Energy to Surface 48
+       \type real
+       \minimum 0
+       \maximum 1
+  A52, \field Surface 49 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N55, \field Fraction of Radiant Energy to Surface 49
+       \type real
+       \minimum 0
+       \maximum 1
+  A53, \field Surface 50 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N56, \field Fraction of Radiant Energy to Surface 50
+       \type real
+       \minimum 0
+       \maximum 1
+  A54, \field Surface 51 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N57, \field Fraction of Radiant Energy to Surface 51
+       \type real
+       \minimum 0
+       \maximum 1
+  A55, \field Surface 52 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N58, \field Fraction of Radiant Energy to Surface 52
+       \type real
+       \minimum 0
+       \maximum 1
+  A56, \field Surface 53 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N59, \field Fraction of Radiant Energy to Surface 53
+       \type real
+       \minimum 0
+       \maximum 1
+  A57, \field Surface 54 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N60, \field Fraction of Radiant Energy to Surface 54
+       \type real
+       \minimum 0
+       \maximum 1
+  A58, \field Surface 55 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N61, \field Fraction of Radiant Energy to Surface 55
+       \type real
+       \minimum 0
+       \maximum 1
+  A59, \field Surface 56 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N62, \field Fraction of Radiant Energy to Surface 56
+       \type real
+       \minimum 0
+       \maximum 1
+  A60, \field Surface 57 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N63, \field Fraction of Radiant Energy to Surface 57
+       \type real
+       \minimum 0
+       \maximum 1
+  A61, \field Surface 58 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N64, \field Fraction of Radiant Energy to Surface 58
+       \type real
+       \minimum 0
+       \maximum 1
+  A62, \field Surface 59 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N65, \field Fraction of Radiant Energy to Surface 59
+       \type real
+       \minimum 0
+       \maximum 1
+  A63, \field Surface 60 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N66, \field Fraction of Radiant Energy to Surface 60
+       \type real
+       \minimum 0
+       \maximum 1
+  A64, \field Surface 61 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N67, \field Fraction of Radiant Energy to Surface 61
+       \type real
+       \minimum 0
+       \maximum 1
+  A65, \field Surface 62 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N68, \field Fraction of Radiant Energy to Surface 62
+       \type real
+       \minimum 0
+       \maximum 1
+  A66, \field Surface 63 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N69, \field Fraction of Radiant Energy to Surface 63
+       \type real
+       \minimum 0
+       \maximum 1
+  A67, \field Surface 64 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N70, \field Fraction of Radiant Energy to Surface 64
+       \type real
+       \minimum 0
+       \maximum 1
+  A68, \field Surface 65 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N71, \field Fraction of Radiant Energy to Surface 65
+       \type real
+       \minimum 0
+       \maximum 1
+  A69, \field Surface 66 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N72, \field Fraction of Radiant Energy to Surface 66
+       \type real
+       \minimum 0
+       \maximum 1
+  A70, \field Surface 67 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N73, \field Fraction of Radiant Energy to Surface 67
+       \type real
+       \minimum 0
+       \maximum 1
+  A71, \field Surface 68 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N74, \field Fraction of Radiant Energy to Surface 68
+       \type real
+       \minimum 0
+       \maximum 1
+  A72, \field Surface 69 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N75, \field Fraction of Radiant Energy to Surface 69
+       \type real
+       \minimum 0
+       \maximum 1
+  A73, \field Surface 70 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N76, \field Fraction of Radiant Energy to Surface 70
+       \type real
+       \minimum 0
+       \maximum 1
+  A74, \field Surface 71 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N77, \field Fraction of Radiant Energy to Surface 71
+       \type real
+       \minimum 0
+       \maximum 1
+  A75, \field Surface 72 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N78, \field Fraction of Radiant Energy to Surface 72
+       \type real
+       \minimum 0
+       \maximum 1
+  A76, \field Surface 73 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N79, \field Fraction of Radiant Energy to Surface 73
+       \type real
+       \minimum 0
+       \maximum 1
+  A77, \field Surface 74 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N80, \field Fraction of Radiant Energy to Surface 74
+       \type real
+       \minimum 0
+       \maximum 1
+  A78, \field Surface 75 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N81, \field Fraction of Radiant Energy to Surface 75
+       \type real
+       \minimum 0
+       \maximum 1
+  A79, \field Surface 76 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N82, \field Fraction of Radiant Energy to Surface 76
+       \type real
+       \minimum 0
+       \maximum 1
+  A80, \field Surface 77 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N83, \field Fraction of Radiant Energy to Surface 77
+       \type real
+       \minimum 0
+       \maximum 1
+  A81, \field Surface 78 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N84, \field Fraction of Radiant Energy to Surface 78
+       \type real
+       \minimum 0
+       \maximum 1
+  A82, \field Surface 79 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N85, \field Fraction of Radiant Energy to Surface 79
+       \type real
+       \minimum 0
+       \maximum 1
+  A83, \field Surface 80 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N86, \field Fraction of Radiant Energy to Surface 80
+       \type real
+       \minimum 0
+       \maximum 1
+  A84, \field Surface 81 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N87, \field Fraction of Radiant Energy to Surface 81
+       \type real
+       \minimum 0
+       \maximum 1
+  A85, \field Surface 82 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N88, \field Fraction of Radiant Energy to Surface 82
+       \type real
+       \minimum 0
+       \maximum 1
+  A86, \field Surface 83 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N89, \field Fraction of Radiant Energy to Surface 83
+       \type real
+       \minimum 0
+       \maximum 1
+  A87, \field Surface 84 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N90, \field Fraction of Radiant Energy to Surface 84
+       \type real
+       \minimum 0
+       \maximum 1
+  A88, \field Surface 85 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N91, \field Fraction of Radiant Energy to Surface 85
+       \type real
+       \minimum 0
+       \maximum 1
+  A89, \field Surface 86 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N92, \field Fraction of Radiant Energy to Surface 86
+       \type real
+       \minimum 0
+       \maximum 1
+  A90, \field Surface 87 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N93, \field Fraction of Radiant Energy to Surface 87
+       \type real
+       \minimum 0
+       \maximum 1
+  A91, \field Surface 88 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N94, \field Fraction of Radiant Energy to Surface 88
+       \type real
+       \minimum 0
+       \maximum 1
+  A92, \field Surface 89 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N95, \field Fraction of Radiant Energy to Surface 89
+       \type real
+       \minimum 0
+       \maximum 1
+  A93, \field Surface 90 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N96, \field Fraction of Radiant Energy to Surface 90
+       \type real
+       \minimum 0
+       \maximum 1
+  A94, \field Surface 91 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N97, \field Fraction of Radiant Energy to Surface 91
+       \type real
+       \minimum 0
+       \maximum 1
+  A95, \field Surface 92 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N98, \field Fraction of Radiant Energy to Surface 92
+       \type real
+       \minimum 0
+       \maximum 1
+  A96, \field Surface 93 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N99, \field Fraction of Radiant Energy to Surface 93
+       \type real
+       \minimum 0
+       \maximum 1
+  A97, \field Surface 94 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N100, \field Fraction of Radiant Energy to Surface 94
+       \type real
+       \minimum 0
+       \maximum 1
+  A98, \field Surface 95 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N101, \field Fraction of Radiant Energy to Surface 95
+       \type real
+       \minimum 0
+       \maximum 1
+  A99, \field Surface 96 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N102, \field Fraction of Radiant Energy to Surface 96
+       \type real
+       \minimum 0
+       \maximum 1
+ A100, \field Surface 97 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N103, \field Fraction of Radiant Energy to Surface 97
+       \type real
+       \minimum 0
+       \maximum 1
+ A101, \field Surface 98 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N104, \field Fraction of Radiant Energy to Surface 98
+       \type real
+       \minimum 0
+       \maximum 1
+ A102, \field Surface 99 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N105, \field Fraction of Radiant Energy to Surface 99
+       \type real
+       \minimum 0
+       \maximum 1
+ A103, \field Surface 100 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N106; \field Fraction of Radiant Energy to Surface 100
+       \type real
+       \minimum 0
+       \maximum 1
+
+ZoneHVAC:CoolingPanel:RadiantConvective:Water,
+       \extensible:2 - repeat last two fields, remembering to remove ; from "inner" fields.
+       \memo The number of surfaces can be expanded beyond 100, if necessary, by adding more
+       \memo groups to the end of the list
+       \min-fields 18
+  A1 , \field Name
+       \required-field
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference ZoneEquipmentNames
+  A2 , \field Availability Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Water Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Water Outlet Node Name
+       \required-field
+       \type node
+  N1 , \field Rated Inlet Water Temperature
+       \type real
+       \units C
+       \default 5.0
+  N2 , \field Rated Inlet Space Temperature
+       \type real
+       \units C
+       \default 24.0
+  N3 , \field Rated Water Mass Flow Rate
+       \type real
+       \minimum> 0.0
+       \units kg/s
+       \default 0.063
+  A5 , \field Cooling Design Capacity Method
+       \type choice
+       \key None
+       \key CoolingDesignCapacity
+       \key CapacityPerFloorArea
+       \key FractionOfAutosizedCoolingCapacity
+       \default CoolingDesignCapacity
+       \note Enter the method used to determine the cooling design capacity for scalable sizing.
+       \note CoolingDesignCapacity => selected when the design cooling capacity value is specified or
+       \note auto-sized. CapacityPerFloorArea => selected when the design cooling capacity is determined
+       \note from user specified cooling capacity per floor area and total floor area of cooled zone
+       \note served by the hydrolic unit. FractionOfAutosizedCoolingCapacity => is selected when the
+       \note design cooling capacity is determined from a user specified fraction and the auto-sized
+       \note design cooling capacity of the system.
+  N4 , \field Cooling Design Capacity
+       \type real
+       \units W
+       \minimum 0.0
+       \autosizable
+       \note Enter the design cooling capacity. Required field when the cooling design capacity method
+       \note CoolingDesignCapacity.
+  N5 , \field Cooling Design Capacity Per Floor Area
+       \type real
+       \units W/m2
+       \minimum 0.0
+       \note Enter the cooling design capacity per total floor area of cooled zones served by the unit.
+       \note Required field when the cooling design capacity method field is CapacityPerFloorArea.
+  N6, \field Fraction of Autosized Cooling Design Capacity
+       \type real
+       \minimum 0.0
+       \note Enter the fraction of auto-sized cooling design capacity. Required field when the cooling
+       \note design capacity method field is FractionOfAutosizedCoolingCapacity.
+  N7 , \field Maximum Chilled Water Flow Rate
+       \required-field
+       \autosizable
+       \type real
+       \units m3/s
+  A6 , \field Control Type
+       \note Temperature on which unit is controlled
+       \type choice
+       \key MeanAirTemperature
+       \key MeanRadiantTemperature
+       \key OperativeTemperature
+       \key OutdoorDryBulbTemperature
+       \key OutdoorWetBulbTemperature
+       \key ZoneTotalLoad
+       \key ZoneConvectiveLoad
+       \default MeanAirTemperature
+  N8 , \field Cooling Control Throttling Range
+       \units deltaC
+       \minimum 0.5
+       \default 0.5
+  A7 , \field Cooling Control Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A8 , \field Condensation Control Type
+       \type choice
+       \key Off
+       \key SimpleOff
+       \key VariableOff
+       \default SimpleOff
+  N9 , \field Condensation Control Dewpoint Offset
+       \units C
+       \default 1.0
+  N10, \field Fraction Radiant
+       \required-field
+       \type real
+       \minimum 0
+       \maximum 1
+  N11, \field Fraction of Radiant Energy Incident on People
+       \type real
+       \minimum 0
+       \maximum 1
+  A9 , \field Surface 1 Name
+       \begin-extensible
+       \note Radiant energy may be distributed to specific surfaces
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N12, \field Fraction of Radiant Energy to Surface 1
+       \type real
+       \minimum 0
+       \maximum 1
+  A10, \field Surface 2 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N13, \field Fraction of Radiant Energy to Surface 2
+       \type real
+       \minimum 0
+       \maximum 1
+  A11, \field Surface 3 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N14, \field Fraction of Radiant Energy to Surface 3
+       \type real
+       \minimum 0
+       \maximum 1
+  A12, \field Surface 4 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N15, \field Fraction of Radiant Energy to Surface 4
+       \type real
+       \minimum 0
+       \maximum 1
+  A13, \field Surface 5 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N16, \field Fraction of Radiant Energy to Surface 5
+       \type real
+       \minimum 0
+       \maximum 1
+  A14, \field Surface 6 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N17, \field Fraction of Radiant Energy to Surface 6
+       \type real
+       \minimum 0
+       \maximum 1
+  A15, \field Surface 7 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N18, \field Fraction of Radiant Energy to Surface 7
+       \type real
+       \minimum 0
+       \maximum 1
+  A16, \field Surface 8 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N19, \field Fraction of Radiant Energy to Surface 8
+       \type real
+       \minimum 0
+       \maximum 1
+  A17, \field Surface 9 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N20, \field Fraction of Radiant Energy to Surface 9
+       \type real
+       \minimum 0
+       \maximum 1
+  A18, \field Surface 10 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N21, \field Fraction of Radiant Energy to Surface 10
+       \type real
+       \minimum 0
+       \maximum 1
+  A19, \field Surface 11 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N22, \field Fraction of Radiant Energy to Surface 11
+       \type real
+       \minimum 0
+       \maximum 1
+  A20, \field Surface 12 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N23, \field Fraction of Radiant Energy to Surface 12
+       \type real
+       \minimum 0
+       \maximum 1
+  A21, \field Surface 13 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N24, \field Fraction of Radiant Energy to Surface 13
+       \type real
+       \minimum 0
+       \maximum 1
+  A22, \field Surface 14 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N25, \field Fraction of Radiant Energy to Surface 14
+       \type real
+       \minimum 0
+       \maximum 1
+  A23, \field Surface 15 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N26, \field Fraction of Radiant Energy to Surface 15
+       \type real
+       \minimum 0
+       \maximum 1
+  A24, \field Surface 16 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N27, \field Fraction of Radiant Energy to Surface 16
+       \type real
+       \minimum 0
+       \maximum 1
+  A25, \field Surface 17 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N28, \field Fraction of Radiant Energy to Surface 17
+       \type real
+       \minimum 0
+       \maximum 1
+  A26, \field Surface 18 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N29, \field Fraction of Radiant Energy to Surface 18
+       \type real
+       \minimum 0
+       \maximum 1
+  A27, \field Surface 19 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N30, \field Fraction of Radiant Energy to Surface 19
+       \type real
+       \minimum 0
+       \maximum 1
+  A28, \field Surface 20 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N31, \field Fraction of Radiant Energy to Surface 20
+       \type real
+       \minimum 0
+       \maximum 1
+  A29, \field Surface 21 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N32, \field Fraction of Radiant Energy to Surface 21
+       \type real
+       \minimum 0
+       \maximum 1
+  A30, \field Surface 22 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N33, \field Fraction of Radiant Energy to Surface 22
+       \type real
+       \minimum 0
+       \maximum 1
+  A31, \field Surface 23 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N34, \field Fraction of Radiant Energy to Surface 23
+       \type real
+       \minimum 0
+       \maximum 1
+  A32, \field Surface 24 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N35, \field Fraction of Radiant Energy to Surface 24
+       \type real
+       \minimum 0
+       \maximum 1
+  A33, \field Surface 25 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N36, \field Fraction of Radiant Energy to Surface 25
+       \type real
+       \minimum 0
+       \maximum 1
+  A34, \field Surface 26 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N37, \field Fraction of Radiant Energy to Surface 26
+       \type real
+       \minimum 0
+       \maximum 1
+  A35, \field Surface 27 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N38, \field Fraction of Radiant Energy to Surface 27
+       \type real
+       \minimum 0
+       \maximum 1
+  A36, \field Surface 28 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N39, \field Fraction of Radiant Energy to Surface 28
+       \type real
+       \minimum 0
+       \maximum 1
+  A37, \field Surface 29 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N40, \field Fraction of Radiant Energy to Surface 29
+       \type real
+       \minimum 0
+       \maximum 1
+  A38, \field Surface 30 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N41, \field Fraction of Radiant Energy to Surface 30
+       \type real
+       \minimum 0
+       \maximum 1
+  A39, \field Surface 31 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N42, \field Fraction of Radiant Energy to Surface 31
+       \type real
+       \minimum 0
+       \maximum 1
+  A40, \field Surface 32 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N43, \field Fraction of Radiant Energy to Surface 32
+       \type real
+       \minimum 0
+       \maximum 1
+  A41, \field Surface 33 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N44, \field Fraction of Radiant Energy to Surface 33
+       \type real
+       \minimum 0
+       \maximum 1
+  A42, \field Surface 34 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N45, \field Fraction of Radiant Energy to Surface 34
+       \type real
+       \minimum 0
+       \maximum 1
+  A43, \field Surface 35 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N46, \field Fraction of Radiant Energy to Surface 35
+       \type real
+       \minimum 0
+       \maximum 1
+  A44, \field Surface 36 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N47, \field Fraction of Radiant Energy to Surface 36
+       \type real
+       \minimum 0
+       \maximum 1
+  A45, \field Surface 37 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N48, \field Fraction of Radiant Energy to Surface 37
+       \type real
+       \minimum 0
+       \maximum 1
+  A46, \field Surface 38 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N49, \field Fraction of Radiant Energy to Surface 38
+       \type real
+       \minimum 0
+       \maximum 1
+  A47, \field Surface 39 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N50, \field Fraction of Radiant Energy to Surface 39
+       \type real
+       \minimum 0
+       \maximum 1
+  A48, \field Surface 40 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N51, \field Fraction of Radiant Energy to Surface 40
+       \type real
+       \minimum 0
+       \maximum 1
+  A49, \field Surface 41 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N52, \field Fraction of Radiant Energy to Surface 41
+       \type real
+       \minimum 0
+       \maximum 1
+  A50, \field Surface 42 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N53, \field Fraction of Radiant Energy to Surface 42
+       \type real
+       \minimum 0
+       \maximum 1
+  A51, \field Surface 43 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N54, \field Fraction of Radiant Energy to Surface 43
+       \type real
+       \minimum 0
+       \maximum 1
+  A52, \field Surface 44 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N55, \field Fraction of Radiant Energy to Surface 44
+       \type real
+       \minimum 0
+       \maximum 1
+  A53, \field Surface 45 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N56, \field Fraction of Radiant Energy to Surface 45
+       \type real
+       \minimum 0
+       \maximum 1
+  A54, \field Surface 46 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N57, \field Fraction of Radiant Energy to Surface 46
+       \type real
+       \minimum 0
+       \maximum 1
+  A55, \field Surface 47 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N58, \field Fraction of Radiant Energy to Surface 47
+       \type real
+       \minimum 0
+       \maximum 1
+  A56, \field Surface 48 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N59, \field Fraction of Radiant Energy to Surface 48
+       \type real
+       \minimum 0
+       \maximum 1
+  A57, \field Surface 49 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N60, \field Fraction of Radiant Energy to Surface 49
+       \type real
+       \minimum 0
+       \maximum 1
+  A58, \field Surface 50 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N61, \field Fraction of Radiant Energy to Surface 50
+       \type real
+       \minimum 0
+       \maximum 1
+  A59, \field Surface 51 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N62, \field Fraction of Radiant Energy to Surface 51
+       \type real
+       \minimum 0
+       \maximum 1
+  A60, \field Surface 52 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N63, \field Fraction of Radiant Energy to Surface 52
+       \type real
+       \minimum 0
+       \maximum 1
+  A61, \field Surface 53 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N64, \field Fraction of Radiant Energy to Surface 53
+       \type real
+       \minimum 0
+       \maximum 1
+  A62, \field Surface 54 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N65, \field Fraction of Radiant Energy to Surface 54
+       \type real
+       \minimum 0
+       \maximum 1
+  A63, \field Surface 55 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N66, \field Fraction of Radiant Energy to Surface 55
+       \type real
+       \minimum 0
+       \maximum 1
+  A64, \field Surface 56 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N67, \field Fraction of Radiant Energy to Surface 56
+       \type real
+       \minimum 0
+       \maximum 1
+  A65, \field Surface 57 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N68, \field Fraction of Radiant Energy to Surface 57
+       \type real
+       \minimum 0
+       \maximum 1
+  A66, \field Surface 58 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N69, \field Fraction of Radiant Energy to Surface 58
+       \type real
+       \minimum 0
+       \maximum 1
+  A67, \field Surface 59 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N70, \field Fraction of Radiant Energy to Surface 59
+       \type real
+       \minimum 0
+       \maximum 1
+  A68, \field Surface 60 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N71, \field Fraction of Radiant Energy to Surface 60
+       \type real
+       \minimum 0
+       \maximum 1
+  A69, \field Surface 61 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N72, \field Fraction of Radiant Energy to Surface 61
+       \type real
+       \minimum 0
+       \maximum 1
+  A70, \field Surface 62 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N73, \field Fraction of Radiant Energy to Surface 62
+       \type real
+       \minimum 0
+       \maximum 1
+  A71, \field Surface 63 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N74, \field Fraction of Radiant Energy to Surface 63
+       \type real
+       \minimum 0
+       \maximum 1
+  A72, \field Surface 64 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N75, \field Fraction of Radiant Energy to Surface 64
+       \type real
+       \minimum 0
+       \maximum 1
+  A73, \field Surface 65 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N76, \field Fraction of Radiant Energy to Surface 65
+       \type real
+       \minimum 0
+       \maximum 1
+  A74, \field Surface 66 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N77, \field Fraction of Radiant Energy to Surface 66
+       \type real
+       \minimum 0
+       \maximum 1
+  A75, \field Surface 67 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N78, \field Fraction of Radiant Energy to Surface 67
+       \type real
+       \minimum 0
+       \maximum 1
+  A76, \field Surface 68 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N79, \field Fraction of Radiant Energy to Surface 68
+       \type real
+       \minimum 0
+       \maximum 1
+  A77, \field Surface 69 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N80, \field Fraction of Radiant Energy to Surface 69
+       \type real
+       \minimum 0
+       \maximum 1
+  A78, \field Surface 70 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N81, \field Fraction of Radiant Energy to Surface 70
+       \type real
+       \minimum 0
+       \maximum 1
+  A79, \field Surface 71 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N82, \field Fraction of Radiant Energy to Surface 71
+       \type real
+       \minimum 0
+       \maximum 1
+  A80, \field Surface 72 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N83, \field Fraction of Radiant Energy to Surface 72
+       \type real
+       \minimum 0
+       \maximum 1
+  A81, \field Surface 73 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N84, \field Fraction of Radiant Energy to Surface 73
+       \type real
+       \minimum 0
+       \maximum 1
+  A82, \field Surface 74 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N85, \field Fraction of Radiant Energy to Surface 74
+       \type real
+       \minimum 0
+       \maximum 1
+  A83, \field Surface 75 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N86, \field Fraction of Radiant Energy to Surface 75
+       \type real
+       \minimum 0
+       \maximum 1
+  A84, \field Surface 76 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N87, \field Fraction of Radiant Energy to Surface 76
+       \type real
+       \minimum 0
+       \maximum 1
+  A85, \field Surface 77 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N88, \field Fraction of Radiant Energy to Surface 77
+       \type real
+       \minimum 0
+       \maximum 1
+  A86, \field Surface 78 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N89, \field Fraction of Radiant Energy to Surface 78
+       \type real
+       \minimum 0
+       \maximum 1
+  A87, \field Surface 79 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N90, \field Fraction of Radiant Energy to Surface 79
+       \type real
+       \minimum 0
+       \maximum 1
+  A88, \field Surface 80 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N91, \field Fraction of Radiant Energy to Surface 80
+       \type real
+       \minimum 0
+       \maximum 1
+  A89, \field Surface 81 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N92, \field Fraction of Radiant Energy to Surface 81
+       \type real
+       \minimum 0
+       \maximum 1
+  A90, \field Surface 82 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N93, \field Fraction of Radiant Energy to Surface 82
+       \type real
+       \minimum 0
+       \maximum 1
+  A91, \field Surface 83 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N94, \field Fraction of Radiant Energy to Surface 83
+       \type real
+       \minimum 0
+       \maximum 1
+  A92, \field Surface 84 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N95, \field Fraction of Radiant Energy to Surface 84
+       \type real
+       \minimum 0
+       \maximum 1
+  A93, \field Surface 85 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N96, \field Fraction of Radiant Energy to Surface 85
+       \type real
+       \minimum 0
+       \maximum 1
+  A94, \field Surface 86 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N97, \field Fraction of Radiant Energy to Surface 86
+       \type real
+       \minimum 0
+       \maximum 1
+  A95, \field Surface 87 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N98, \field Fraction of Radiant Energy to Surface 87
+       \type real
+       \minimum 0
+       \maximum 1
+  A96, \field Surface 88 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+  N99, \field Fraction of Radiant Energy to Surface 88
+       \type real
+       \minimum 0
+       \maximum 1
+  A97, \field Surface 89 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N100, \field Fraction of Radiant Energy to Surface 89
+       \type real
+       \minimum 0
+       \maximum 1
+  A98, \field Surface 90 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N101, \field Fraction of Radiant Energy to Surface 90
+       \type real
+       \minimum 0
+       \maximum 1
+  A99, \field Surface 91 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N102, \field Fraction of Radiant Energy to Surface 91
+       \type real
+       \minimum 0
+       \maximum 1
+ A100, \field Surface 92 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N103, \field Fraction of Radiant Energy to Surface 92
+       \type real
+       \minimum 0
+       \maximum 1
+ A101, \field Surface 93 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N104, \field Fraction of Radiant Energy to Surface 93
+       \type real
+       \minimum 0
+       \maximum 1
+ A102, \field Surface 94 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N105, \field Fraction of Radiant Energy to Surface 94
+       \type real
+       \minimum 0
+       \maximum 1
+ A103, \field Surface 95 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N106, \field Fraction of Radiant Energy to Surface 95
+       \type real
+       \minimum 0
+       \maximum 1
+ A104, \field Surface 96 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N107, \field Fraction of Radiant Energy to Surface 96
+       \type real
+       \minimum 0
+       \maximum 1
+ A105, \field Surface 97 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N108, \field Fraction of Radiant Energy to Surface 97
+       \type real
+       \minimum 0
+       \maximum 1
+ A106, \field Surface 98 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N109, \field Fraction of Radiant Energy to Surface 98
+       \type real
+       \minimum 0
+       \maximum 1
+ A107, \field Surface 99 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N110, \field Fraction of Radiant Energy to Surface 99
+       \type real
+       \minimum 0
+       \maximum 1
+ A108, \field Surface 100 Name
+       \type object-list
+       \object-list AllHeatTranSurfNames
+ N111; \field Fraction of Radiant Energy to Surface 100
+       \type real
+       \minimum 0
+       \maximum 1
+
+ZoneHVAC:Baseboard:Convective:Water,
+       \memo Hot water baseboard heater, convection-only. Natural convection hydronic heating unit.
+       \min-fields 10
+  A1 , \field Name
+       \required-field
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference ZoneEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Heating Design Capacity Method
+       \type choice
+       \key HeatingDesignCapacity
+       \key CapacityPerFloorArea
+       \key FractionOfAutosizedHeatingCapacity
+       \default HeatingDesignCapacity
+       \note Enter the method used to determine the heating design capacity.
+       \note HeatingDesignCapacity = > selected when the design heating capacity value or autosize
+       \note is specified. CapacityPerFloorArea = > selected when the design heating capacity is
+       \note determine from user specified heating capacity per floor area and zone floor area.
+       \note FractionOfAutosizedHeatingCapacity = > is selected when the design heating capacity is
+       \note determined from a user specified fraction and the auto-sized design heating capacity.
+  N1 , \field Heating Design Capacity
+       \type real
+       \units W
+       \minimum 0.0
+       \autosizable
+       \ip-units W
+       \default autosize
+       \note Enter the design heating capacity. Required field when the heating design capacity method
+       \note HeatingDesignCapacity.
+  N2 , \field Heating Design Capacity Per Floor Area
+       \type real
+       \units W/m2
+       \minimum 0.0
+       \note Enter the heating design capacity per zone floor area. Required field when the heating design
+       \note capacity method field is CapacityPerFloorArea.
+  N3 , \field Fraction of Autosized Heating Design Capacity
+       \type real
+       \minimum 0.0
+       \default 1.0
+       \note Enter the fraction of autosized heating design capacity. Required field when capacity the
+       \note heating design capacity method field is FractionOfAutosizedHeatingCapacity.
+  N4 , \field U-Factor Times Area Value
+       \required-field
+       \autosizable
+       \units W/K
+  N5 , \field Maximum Water Flow Rate
+       \required-field
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+  N6 ; \field Convergence Tolerance
+       \type real
+       \minimum> 0.0
+       \default 0.001
+
+ZoneHVAC:Baseboard:Convective:Electric,
+        \memo Electric baseboard heater, convection-only. Natural convection electric heating unit.
+        \min-fields 7
+  A1 ,  \field Name
+        \required-field
+        \reference ZoneEquipmentNames
+  A2 ,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+  A3 ,  \field Heating Design Capacity Method
+        \type choice
+        \key HeatingDesignCapacity
+        \key CapacityPerFloorArea
+        \key FractionOfAutosizedHeatingCapacity
+        \default HeatingDesignCapacity
+        \note Enter the method used to determine the heating design capacity.
+        \note HeatingDesignCapacity = > selected when the design heating capacity value or autosize
+        \note is specified. CapacityPerFloorArea = > selected when the design heating capacity is
+        \note determine from user specified heating capacity per floor area and zone floor area.
+        \note FractionOfAutosizedHeatingCapacity = > is selected when the design heating capacity is
+        \note determined from a user specified fraction and the auto-sized design heating capacity.
+  N1 ,  \field Heating Design Capacity
+        \type real
+        \units W
+        \minimum 0.0
+        \autosizable
+        \ip-units W
+        \default autosize
+        \note Enter the design heating capacity. Required field when the heating design capacity method
+        \note HeatingDesignCapacity.
+  N2 ,  \field Heating Design Capacity Per Floor Area
+        \type real
+        \units W/m2
+        \minimum 0.0
+        \note Enter the heating design capacity per zone floor area. Required field when the heating design
+        \note capacity method field is CapacityPerFloorArea.
+  N3 ,  \field Fraction of Autosized Heating Design Capacity
+        \type real
+        \minimum 0.0
+        \default 1.0
+        \note Enter the fraction of autosized heating design capacity. Required field when capacity the
+        \note heating design capacity method field is FractionOfAutosizedHeatingCapacity.
+  N4 ;  \field Efficiency
+        \maximum 1.0
+        \minimum 0.0
+        \default 1.0
+
+ZoneHVAC:LowTemperatureRadiant:VariableFlow,
+        \memo Low temperature hydronic radiant heating and/or cooling system embedded in a building
+        \memo surface (wall, ceiling, or floor). Controlled by varying the hot or chilled water
+        \memo flow to the unit.
+        \min-fields 16
+  A1, \field Name
+        \required-field
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+        \reference ZoneEquipmentNames
+  A2, \field Design Object
+        \type object-list
+        \object-list RadiantDesignObject
+  A3, \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+  A4, \field Zone Name
+        \note Name of zone system is serving
+        \type object-list
+        \object-list ZoneNames
+  A5, \field Surface Name or Radiant Surface Group Name
+        \note Identifies surfaces that radiant system is embedded in.
+        \note For a system with multiple surfaces, enter the name of
+        \note a ZoneHVAC:LowTemperatureRadiant:SurfaceGroup object.
+        \type object-list
+        \object-list RadiantSurfaceNames
+        \object-list RadiantGroupNames
+  N1, \field Hydronic Tubing Length
+        \note (total length of pipe embedded in surface)
+        \units m
+        \minimum> 0
+        \autosizable
+        \default autosize
+  N2, \field Heating Design Capacity
+        \type real
+        \units W
+        \minimum 0.0
+        \autosizable
+        \ip-units W
+        \default autosize
+        \note Enter the design heating capacity. Required field when the heating design capacity method
+        \note HeatingDesignCapacity.
+  N3, \field Maximum Hot Water Flow
+        \units m3/s
+        \minimum 0
+        \autosizable
+        \ip-units gal/min
+  A6, \field Heating Water Inlet Node Name
+        \type node
+  A7, \field Heating Water Outlet Node Name
+        \type node
+  N4, \field Cooling Design Capacity
+        \type real
+        \units W
+        \minimum 0.0
+        \autosizable
+        \note Enter the design cooling capacity. Required field when the cooling design capacity method
+        \note CoolingDesignCapacity.
+  N5, \field Maximum Cold Water Flow
+        \units m3/s
+        \minimum 0
+        \autosizable
+        \ip-units gal/min
+  A8, \field Cooling Water Inlet Node Name
+        \type node
+  A9, \field Cooling Water Outlet Node Name
+        \type node
+  A10, \field Number of Circuits
+        \type choice
+        \key OnePerSurface
+        \key CalculateFromCircuitLength
+        \default OnePerSurface
+  N6; \field Circuit Length
+        \units m
+        \default 106.7
+
+ZoneHVAC:LowTemperatureRadiant:VariableFlow:Design,
+        \min-fields 19
+  A1, \field Name
+        \type alpha
+        \reference RadiantDesignObject
+  A2, \field Fluid to Radiant Surface Heat Transfer Model
+        \note This parameter identifies how the heat transfer between
+        \note fluid being circulated through the radiant system and
+        \note the radiant system (slab) is modeled. ConvectionOnly
+        \note means that only convection between the fluid and the
+        \note inside surface of the pipe is modeled using a conventional
+        \note equation for flow inside a pipe. ISOStandard models
+        \note convection between the fluid and the inside of
+        \note of the pipe and conduction through the pipe material using
+        \note equations specific to ISO Standard 11855-2.
+        \type choice
+        \key ConvectionOnly
+        \key ISOStandard
+        \default ConvectionOnly
+  N1, \field Hydronic Tubing Inside Diameter
+        \units m
+        \minimum> 0
+        \default 0.013
+        \ip-units in
+  N2, \field Hydronic Tubing Outside Diameter
+        \units m
+        \minimum> 0
+        \default 0.016
+        \ip-units in
+  N3, \field Hydronic Tubing Conductivity
+        \note Conductivity of the tubing/piping material
+        \units W/m-K
+        \minimum> 0
+        \default 0.35
+  A3, \field Temperature Control Type
+        \note (Temperature on which unit is controlled)
+        \type choice
+        \key MeanAirTemperature
+        \key MeanRadiantTemperature
+        \key OperativeTemperature
+        \key OutdoorDryBulbTemperature
+        \key OutdoorWetBulbTemperature
+        \key SurfaceFaceTemperature
+        \key SurfaceInteriorTemperature
+        \default MeanAirTemperature
+  A4,  \field Setpoint Control Type
+        \note How setpoint temperature is defined
+        \type choice
+        \key HalfFlowPower
+        \key ZeroFlowPower
+        \default HalfFlowPower
+  A5, \field Heating Design Capacity Method
+        \type choice
+        \key HeatingDesignCapacity
+        \key CapacityPerFloorArea
+        \key FractionOfAutosizedHeatingCapacity
+        \default HeatingDesignCapacity
+        \note Enter the method used to determine the heating design capacity.
+        \note HeatingDesignCapacity = > selected when the design heating capacity value or autosize
+        \note is specified. CapacityPerFloorArea = > selected when the design heating capacity is
+        \note determine from user specified heating capacity per floor area and zone floor area.
+        \note FractionOfAutosizedHeatingCapacity = > is selected when the design heating capacity is
+        \note determined from a user specified fraction and the auto-sized design heating capacity.
+  N4, \field Heating Design Capacity Per Floor Area
+        \type real
+        \units W/m2
+        \minimum 0.0
+        \note Enter the heating design capacity per zone floor area. Required field when the heating design
+        \note capacity method field is CapacityPerFloorArea.
+  N5, \field Fraction of Autosized Heating Design Capacity
+        \type real
+        \minimum 0.0
+        \default 1.0
+        \note Enter the fraction of autosized heating design capacity. Required field when capacity the
+        \note heating design capacity method field is FractionOfAutosizedHeatingCapacity.
+  N6, \field Heating Control Throttling Range
+        \units deltaC
+        \minimum 0
+        \default 0.5
+  A6, \field Heating Control Temperature Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  A7, \field Cooling Design Capacity Method
+        \type choice
+        \key None
+        \key CoolingDesignCapacity
+        \key CapacityPerFloorArea
+        \key FractionOfAutosizedCoolingCapacity
+        \default CoolingDesignCapacity
+        \note Enter the method used to determine the cooling design capacity for scalable sizing.
+        \note CoolingDesignCapacity => selected when the design cooling capacity value is specified or
+        \note auto-sized. CapacityPerFloorArea => selected when the design cooling capacity is determined
+        \note from user specified cooling capacity per floor area and total floor area of cooled zone
+        \note served by the hydrolic unit. FractionOfAutosizedCoolingCapacity => is selected when the
+        \note design cooling capacity is determined from a user specified fraction and the auto-sized
+        \note design cooling capacity of the system.
+  N7, \field Cooling Design Capacity Per Floor Area
+        \type real
+        \units W/m2
+        \minimum 0.0
+        \note Enter the cooling design capacity per total floor area of cooled zones served by the unit.
+        \note Required field when the cooling design capacity method field is CapacityPerFloorArea.
+  N8, \field Fraction of Autosized Cooling Design Capacity
+        \type real
+        \minimum 0.0
+        \note Enter the fraction of auto-sized cooling design capacity. Required field when the cooling
+        \note design capacity method field is FractionOfAutosizedCoolingCapacity.
+  N9, \field Cooling Control Throttling Range
+        \units deltaC
+        \minimum 0
+        \default 0.5
+  A8, \field Cooling Control Temperature Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  A9, \field Condensation Control Type
+        \type choice
+        \key Off
+        \key SimpleOff
+        \key VariableOff
+        \default SimpleOff
+  N10, \field Condensation Control Dewpoint Offset
+        \units C
+        \default 1.0
+  A10; \field Changeover Delay Time Period Schedule
+        \note Changeover delay schedule name for this system. Schedule value <= 0 allows changeover with no delay
+        \note The schedule values are interpretted as hours.
+        \note If this field is blank, the system allows changeover with no delay
+        \type object-list
+        \object-list ScheduleNames
+
+ZoneHVAC:LowTemperatureRadiant:ConstantFlow,
+        \memo Low temperature hydronic radiant heating and/or cooling system embedded in a building
+        \memo surface (wall, ceiling, or floor). Controlled by varying the hot or chilled water
+        \memo temperature circulating through the unit.
+        \min-fields 24
+   A1 , \field Name
+        \required-field
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+        \reference ZoneEquipmentNames
+   A2 , \field Design Object
+        \type object-list
+        \object-list RadiantDesignObject
+   A3 , \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A4 , \field Zone Name
+        \note Name of zone system is serving
+        \type object-list
+        \object-list ZoneNames
+   A5 , \field Surface Name or Radiant Surface Group Name
+        \note Identifies surfaces that radiant system is embedded in.
+        \note For a system with multiple surfaces, enter the name of
+        \note a ZoneHVAC:LowTemperatureRadiant:SurfaceGroup object.
+        \type object-list
+        \object-list RadiantSurfaceNames
+        \object-list RadiantGroupNames
+   N1 , \field Hydronic Tubing Length
+        \note (total length of pipe embedded in surface)
+        \units m
+        \minimum> 0
+        \autosizable
+        \default autosize
+   N2 , \field Rated Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \autosizable
+   A6 , \field Pump Flow Rate Schedule Name
+        \note Modifies the Rated Flow Rate of the pump on a time basis
+        \note the default is that the pump is ON and runs according to its other
+        \note operational requirements specified above. The schedule is for special
+        \note pump operations. Values here are between 0 and 1 and are multipliers
+        \note on the previous field (Rated Flow Rate).
+        \type object-list
+        \object-list ScheduleNames
+   N3 , \field Rated Pump Head
+        \units Pa
+        \default 179352
+        \note default head is 60 feet
+   N4 , \field Rated Power Consumption
+        \units W
+   A7 , \field Heating Water Inlet Node Name
+        \type node
+   A8 , \field Heating Water Outlet Node Name
+        \type node
+   A9 , \field Heating High Water Temperature Schedule Name
+        \note Water and control temperatures for heating work together to provide
+        \note a linear function that determines the water temperature sent to the
+        \note radiant system. The current control temperature (see Temperature Control Type above) is
+        \note compared to the high and low control temperatures at the current time.
+        \note If the control temperature is above the high temperature, then the
+        \note inlet water temperature is set to the low water temperature. If the
+        \note control temperature is below the low temperature, then the inlet
+        \note water temperature is set to the high water temperature. If the control
+        \note temperature is between the high and low value, then the inlet water
+        \note temperature is linearly interpolated between the low and high water
+        \note temperature values.
+        \type object-list
+        \object-list ScheduleNames
+   A10, \field Heating Low Water Temperature Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+   A11, \field Heating High Control Temperature Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+   A12, \field Heating Low Control Temperature Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+   A13, \field Cooling Water Inlet Node Name
+        \type node
+   A14, \field Cooling Water Outlet Node Name
+        \type node
+   A15, \field Cooling High Water Temperature Schedule Name
+        \note See note for Heating High Water Temperature Schedule above for
+        \note interpretation information (or see the Input/Output Reference).
+        \type object-list
+        \object-list ScheduleNames
+   A16, \field Cooling Low Water Temperature Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+   A17, \field Cooling High Control Temperature Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+   A18, \field Cooling Low Control Temperature Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+   A19, \field Number of Circuits
+        \type choice
+        \key OnePerSurface
+        \key CalculateFromCircuitLength
+        \default OnePerSurface
+   N5 ; \field Circuit Length
+        \units m
+        \default 106.7
+
+ZoneHVAC:LowTemperatureRadiant:ConstantFlow:Design,
+        \min-fields 11
+   A1 , \field Name
+        \required-field
+        \reference RadiantDesignObject
+   A2 , \field Fluid to Radiant Surface Heat Transfer Model
+        \note This parameter identifies how the heat transfer between
+        \note fluid being circulated through the radiant system and
+        \note the radiant system (slab) is modeled. ConvectionOnly
+        \note means that only convection between the fluid and the
+        \note inside surface of the pipe is modeled using a conventional
+        \note equation for flow inside a pipe. ISOStandard models
+        \note convection between the fluid and the inside of
+        \note of the pipe and conduction through the pipe material using
+        \note equations specific to ISO Standard 11855-2.
+        \type choice
+        \key ConvectionOnly
+        \key ISOStandard
+        \default ConvectionOnly
+   N1 , \field Hydronic Tubing Inside Diameter
+        \units m
+        \minimum> 0
+        \default 0.013
+        \ip-units in
+   N2 , \field Hydronic Tubing Outside Diameter
+        \units m
+        \minimum> 0
+        \default 0.016
+        \ip-units in
+   N3 , \field Hydronic Tubing Conductivity
+        \note Conductivity of the tubing/piping material
+        \units W/m-K
+        \minimum> 0
+        \default 0.35
+   A3 , \field Temperature Control Type
+        \note Temperature used to control system
+        \type choice
+        \key MeanAirTemperature
+        \key MeanRadiantTemperature
+        \key OperativeTemperature
+        \key OutdoorDryBulbTemperature
+        \key OutdoorWetBulbTemperature
+        \key SurfaceFaceTemperature
+        \key SurfaceInteriorTemperature
+        \key RunningMeanOutdoorDryBulbTemperature
+        \default MeanAirTemperature
+   N4 , \field Running Mean Outdoor Dry-Bulb Temperature Weighting Factor
+        \note this is the weighting factor in the equation that calculate the running mean outdoor dry-bulb temperature
+        \note as a weighted average of the previous day’s running mean outdoor dry-bulb temperature and the previous day’s
+        \note average outdoor dry-bulb temperature this value is only used by EnergyPlus when the user elects to use the
+        \note RunningMeanOutdoorDryBulbTemperature control type
+        \minimum 0.0
+        \maximum 1.0
+        \default 0.8
+   N5 , \field Motor Efficiency
+        \type real
+        \minimum 0.0
+        \maximum 1.0
+        \default 0.9
+   N6 , \field Fraction of Motor Inefficiencies to Fluid Stream
+        \minimum 0.0
+        \maximum 1.0
+        \default 0.0
+   A4 , \field Condensation Control Type
+        \type choice
+        \key Off
+        \key SimpleOff
+        \key VariableOff
+        \default SimpleOff
+   N7 , \field Condensation Control Dewpoint Offset
+        \units C
+        \default 1.0
+   A5 ; \field Changeover Delay Time Period Schedule
+        \note Changeover delay schedule name for this system. Schedule value <= 0 allows changeover with no delay
+        \note The schedule values are interpretted as hours.
+        \note If this field is blank, the system allows changeover with no delay
+        \type object-list
+        \object-list ScheduleNames
+
+ZoneHVAC:LowTemperatureRadiant:Electric,
+        \memo Electric resistance low temperature radiant system
+        \min-fields 12
+   A1 , \field Name
+        \required-field
+        \reference ZoneEquipmentNames
+   A2 , \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3 , \field Zone Name
+        \note Name of zone system is serving
+        \type object-list
+        \object-list ZoneNames
+   A4 , \field Surface Name or Radiant Surface Group Name
+        \note Identifies surfaces that radiant system is embedded in.
+        \note For a system with multiple surfaces, enter the name of
+        \note a ZoneHVAC:LowTemperatureRadiant:SurfaceGroup object.
+        \type object-list
+        \object-list RadiantSurfaceNames
+        \object-list RadiantGroupNames
+   A5 , \field Heating Design Capacity Method
+        \type choice
+        \key HeatingDesignCapacity
+        \key CapacityPerFloorArea
+        \key FractionOfAutosizedHeatingCapacity
+        \default HeatingDesignCapacity
+        \note Enter the method used to determine the maximum electrical heating design capacity.
+        \note HeatingDesignCapacity = > selected when the design heating capacity value or autosize
+        \note is specified. CapacityPerFloorArea = > selected when the design heating capacity is
+        \note determine from user specified heating capacity per floor area and zone floor area.
+        \note FractionOfAutosizedHeatingCapacity = > is selected when the design heating capacity is
+        \note determined from a user specified fraction and the auto-sized design heating capacity.
+   N1 , \field Heating Design Capacity
+        \type real
+        \units W
+        \minimum 0.0
+        \autosizable
+        \ip-units W
+        \default autosize
+        \note Enter the design heating capacity. Required field when the heating design capacity method
+        \note HeatingDesignCapacity.
+   N2 , \field Heating Design Capacity Per Floor Area
+        \type real
+        \units W/m2
+        \minimum 0.0
+        \note Enter the heating design capacity per zone floor area. Required field when the heating design
+        \note capacity method field is CapacityPerFloorArea.
+   N3 , \field Fraction of Autosized Heating Design Capacity
+        \type real
+        \minimum 0.0
+        \default 1.0
+        \note Enter the fraction of autosized heating design capacity. Required field when capacity the
+        \note heating design capacity method field is FractionOfAutosizedHeatingCapacity.
+   A6 , \field Temperature Control Type
+        \note Temperature used to control unit
+        \type choice
+        \key MeanAirTemperature
+        \key MeanRadiantTemperature
+        \key OperativeTemperature
+        \key OutdoorDryBulbTemperature
+        \key OutdoorWetBulbTemperature
+        \key SurfaceFaceTemperature
+        \key SurfaceInteriorTemperature
+        \default MeanAirTemperature
+   A7,  \field Setpoint Control Type
+        \note How setpoint temperature is defined
+        \type choice
+        \key HalfFlowPower
+        \key ZeroFlowPower
+        \default HalfFlowPower
+   N4 , \field Heating Throttling Range
+        \units deltaC
+        \minimum 0
+        \default 0
+   A8 ; \field Heating Setpoint Temperature Schedule Name
+        \required-field
+        \type object-list
+        \object-list ScheduleNames
+
+ZoneHVAC:LowTemperatureRadiant:SurfaceGroup,
+        \memo This is used to allow the coordinate control of several radiant system surfaces.
+        \memo Note that the following flow fractions must sum up to 1.0
+        \extensible:2 - repeat last two fields, remembering to remove ; from "inner" fields.
+        \memo The number of surfaces can be expanded beyond 100, if necessary, by adding more
+        \memo groups to the end of the list
+   A1 , \field Name
+        \required-field
+        \type alpha
+        \reference RadiantGroupNames
+   A2 , \field Surface 1 Name
+        \begin-extensible
+        \required-field
+        \type object-list
+        \object-list RadiantSurfaceNames
+   N1 , \field Flow Fraction for Surface 1
+        \required-field
+        \minimum 0.0
+   A3 , \field Surface 2 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+   N2 , \field Flow Fraction for Surface 2
+        \minimum 0.0
+   A4 , \field Surface 3 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+   N3 , \field Flow Fraction for Surface 3
+        \minimum 0.0
+   A5 , \field Surface 4 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+   N4 , \field Flow Fraction for Surface 4
+        \minimum 0.0
+   A6 , \field Surface 5 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+   N5 , \field Flow Fraction for Surface 5
+        \minimum 0.0
+   A7 , \field Surface 6 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+   N6 , \field Flow Fraction for Surface 6
+        \minimum 0.0
+   A8 , \field Surface 7 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+   N7 , \field Flow Fraction for Surface 7
+        \minimum 0.0
+   A9 , \field Surface 8 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+   N8 , \field Flow Fraction for Surface 8
+        \minimum 0.0
+  A10 , \field Surface 9 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+   N9 , \field Flow Fraction for Surface 9
+        \minimum 0.0
+  A11 , \field Surface 10 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N10 , \field Flow Fraction for Surface 10
+        \minimum 0.0
+  A12 , \field Surface 11 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N11 , \field Flow Fraction for Surface 11
+        \minimum 0.0
+  A13 , \field Surface 12 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N12 , \field Flow Fraction for Surface 12
+        \minimum 0.0
+  A14 , \field Surface 13 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N13 , \field Flow Fraction for Surface 13
+        \minimum 0.0
+  A15 , \field Surface 14 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N14 , \field Flow Fraction for Surface 14
+        \minimum 0.0
+  A16 , \field Surface 15 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N15 , \field Flow Fraction for Surface 15
+        \minimum 0.0
+  A17 , \field Surface 16 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N16 , \field Flow Fraction for Surface 16
+        \minimum 0.0
+  A18 , \field Surface 17 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N17 , \field Flow Fraction for Surface 17
+        \minimum 0.0
+  A19 , \field Surface 18 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N18 , \field Flow Fraction for Surface 18
+        \minimum 0.0
+  A20 , \field Surface 19 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N19 , \field Flow Fraction for Surface 19
+        \minimum 0.0
+  A21 , \field Surface 20 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N20 , \field Flow Fraction for Surface 20
+        \minimum 0.0
+  A22 , \field Surface 21 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N21 , \field Flow Fraction for Surface 21
+        \minimum 0.0
+  A23 , \field Surface 22 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N22 , \field Flow Fraction for Surface 22
+        \minimum 0.0
+  A24 , \field Surface 23 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N23 , \field Flow Fraction for Surface 23
+        \minimum 0.0
+  A25 , \field Surface 24 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N24 , \field Flow Fraction for Surface 24
+        \minimum 0.0
+  A26 , \field Surface 25 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N25 , \field Flow Fraction for Surface 25
+        \minimum 0.0
+  A27 , \field Surface 26 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N26 , \field Flow Fraction for Surface 26
+        \minimum 0.0
+  A28 , \field Surface 27 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N27 , \field Flow Fraction for Surface 27
+        \minimum 0.0
+  A29 , \field Surface 28 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N28 , \field Flow Fraction for Surface 28
+        \minimum 0.0
+  A30 , \field Surface 29 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N29 , \field Flow Fraction for Surface 29
+        \minimum 0.0
+  A31 , \field Surface 30 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N30 , \field Flow Fraction for Surface 30
+        \minimum 0.0
+  A32 , \field Surface 31 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N31 , \field Flow Fraction for Surface 31
+        \minimum 0.0
+  A33 , \field Surface 32 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N32 , \field Flow Fraction for Surface 32
+        \minimum 0.0
+  A34 , \field Surface 33 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N33 , \field Flow Fraction for Surface 33
+        \minimum 0.0
+  A35 , \field Surface 34 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N34 , \field Flow Fraction for Surface 34
+        \minimum 0.0
+  A36 , \field Surface 35 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N35 , \field Flow Fraction for Surface 35
+        \minimum 0.0
+  A37 , \field Surface 36 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N36 , \field Flow Fraction for Surface 36
+        \minimum 0.0
+  A38 , \field Surface 37 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N37 , \field Flow Fraction for Surface 37
+        \minimum 0.0
+  A39 , \field Surface 38 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N38 , \field Flow Fraction for Surface 38
+        \minimum 0.0
+  A40 , \field Surface 39 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N39 , \field Flow Fraction for Surface 39
+        \minimum 0.0
+  A41 , \field Surface 40 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N40 , \field Flow Fraction for Surface 40
+        \minimum 0.0
+  A42 , \field Surface 41 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N41 , \field Flow Fraction for Surface 41
+        \minimum 0.0
+  A43 , \field Surface 42 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N42 , \field Flow Fraction for Surface 42
+        \minimum 0.0
+  A44 , \field Surface 43 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N43 , \field Flow Fraction for Surface 43
+        \minimum 0.0
+  A45 , \field Surface 44 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N44 , \field Flow Fraction for Surface 44
+        \minimum 0.0
+  A46 , \field Surface 45 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N45 , \field Flow Fraction for Surface 45
+        \minimum 0.0
+  A47 , \field Surface 46 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N46 , \field Flow Fraction for Surface 46
+        \minimum 0.0
+  A48 , \field Surface 47 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N47 , \field Flow Fraction for Surface 47
+        \minimum 0.0
+  A49 , \field Surface 48 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N48 , \field Flow Fraction for Surface 48
+        \minimum 0.0
+  A50 , \field Surface 49 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N49 , \field Flow Fraction for Surface 49
+        \minimum 0.0
+  A51 , \field Surface 50 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N50 , \field Flow Fraction for Surface 50
+        \minimum 0.0
+  A52 , \field Surface 51 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N51 , \field Flow Fraction for Surface 51
+        \minimum 0.0
+  A53 , \field Surface 52 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N52 , \field Flow Fraction for Surface 52
+        \minimum 0.0
+  A54 , \field Surface 53 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N53 , \field Flow Fraction for Surface 53
+        \minimum 0.0
+  A55 , \field Surface 54 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N54 , \field Flow Fraction for Surface 54
+        \minimum 0.0
+  A56 , \field Surface 55 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N55 , \field Flow Fraction for Surface 55
+        \minimum 0.0
+  A57 , \field Surface 56 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N56 , \field Flow Fraction for Surface 56
+        \minimum 0.0
+  A58 , \field Surface 57 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N57 , \field Flow Fraction for Surface 57
+        \minimum 0.0
+  A59 , \field Surface 58 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N58 , \field Flow Fraction for Surface 58
+        \minimum 0.0
+  A60 , \field Surface 59 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N59 , \field Flow Fraction for Surface 59
+        \minimum 0.0
+  A61 , \field Surface 60 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N60 , \field Flow Fraction for Surface 60
+        \minimum 0.0
+  A62 , \field Surface 61 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N61 , \field Flow Fraction for Surface 61
+        \minimum 0.0
+  A63 , \field Surface 62 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N62 , \field Flow Fraction for Surface 62
+        \minimum 0.0
+  A64 , \field Surface 63 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N63 , \field Flow Fraction for Surface 63
+        \minimum 0.0
+  A65 , \field Surface 64 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N64 , \field Flow Fraction for Surface 64
+        \minimum 0.0
+  A66 , \field Surface 65 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N65 , \field Flow Fraction for Surface 65
+        \minimum 0.0
+  A67 , \field Surface 66 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N66 , \field Flow Fraction for Surface 66
+        \minimum 0.0
+  A68 , \field Surface 67 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N67 , \field Flow Fraction for Surface 67
+        \minimum 0.0
+  A69 , \field Surface 68 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N68 , \field Flow Fraction for Surface 68
+        \minimum 0.0
+  A70 , \field Surface 69 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N69 , \field Flow Fraction for Surface 69
+        \minimum 0.0
+  A71 , \field Surface 70 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N70 , \field Flow Fraction for Surface 70
+        \minimum 0.0
+  A72 , \field Surface 71 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N71 , \field Flow Fraction for Surface 71
+        \minimum 0.0
+  A73 , \field Surface 72 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N72 , \field Flow Fraction for Surface 72
+        \minimum 0.0
+  A74 , \field Surface 73 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N73 , \field Flow Fraction for Surface 73
+        \minimum 0.0
+  A75 , \field Surface 74 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N74 , \field Flow Fraction for Surface 74
+        \minimum 0.0
+  A76 , \field Surface 75 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N75 , \field Flow Fraction for Surface 75
+        \minimum 0.0
+  A77 , \field Surface 76 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N76 , \field Flow Fraction for Surface 76
+        \minimum 0.0
+  A78 , \field Surface 77 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N77 , \field Flow Fraction for Surface 77
+        \minimum 0.0
+  A79 , \field Surface 78 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N78 , \field Flow Fraction for Surface 78
+        \minimum 0.0
+  A80 , \field Surface 79 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N79 , \field Flow Fraction for Surface 79
+        \minimum 0.0
+  A81 , \field Surface 80 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N80 , \field Flow Fraction for Surface 80
+        \minimum 0.0
+  A82 , \field Surface 81 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N81 , \field Flow Fraction for Surface 81
+        \minimum 0.0
+  A83 , \field Surface 82 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N82 , \field Flow Fraction for Surface 82
+        \minimum 0.0
+  A84 , \field Surface 83 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N83 , \field Flow Fraction for Surface 83
+        \minimum 0.0
+  A85 , \field Surface 84 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N84 , \field Flow Fraction for Surface 84
+        \minimum 0.0
+  A86 , \field Surface 85 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N85 , \field Flow Fraction for Surface 85
+        \minimum 0.0
+  A87 , \field Surface 86 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N86 , \field Flow Fraction for Surface 86
+        \minimum 0.0
+  A88 , \field Surface 87 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N87 , \field Flow Fraction for Surface 87
+        \minimum 0.0
+  A89 , \field Surface 88 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N88 , \field Flow Fraction for Surface 88
+        \minimum 0.0
+  A90 , \field Surface 89 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N89 , \field Flow Fraction for Surface 89
+        \minimum 0.0
+  A91 , \field Surface 90 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N90 , \field Flow Fraction for Surface 90
+        \minimum 0.0
+  A92 , \field Surface 91 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N91 , \field Flow Fraction for Surface 91
+        \minimum 0.0
+  A93 , \field Surface 92 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N92 , \field Flow Fraction for Surface 92
+        \minimum 0.0
+  A94 , \field Surface 93 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N93 , \field Flow Fraction for Surface 93
+        \minimum 0.0
+  A95 , \field Surface 94 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N94 , \field Flow Fraction for Surface 94
+        \minimum 0.0
+  A96 , \field Surface 95 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N95 , \field Flow Fraction for Surface 95
+        \minimum 0.0
+  A97 , \field Surface 96 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N96 , \field Flow Fraction for Surface 96
+        \minimum 0.0
+  A98 , \field Surface 97 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N97 , \field Flow Fraction for Surface 97
+        \minimum 0.0
+  A99 , \field Surface 98 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N98 , \field Flow Fraction for Surface 98
+        \minimum 0.0
+ A100 , \field Surface 99 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+  N99 , \field Flow Fraction for Surface 99
+        \minimum 0.0
+ A101 , \field Surface 100 Name
+        \type object-list
+        \object-list RadiantSurfaceNames
+ N100 ; \field Flow Fraction for Surface 100
+        \minimum 0.0
+
+ZoneHVAC:HighTemperatureRadiant,
+        \extensible:2 - repeat last two fields, remembering to remove ; from "inner" fields.
+        \memo The number of surfaces can be expanded beyond 100, if necessary, by adding more
+        \memo groups to the end of the list
+        \min-fields 14
+   A1,  \field Name
+        \required-field
+        \reference ZoneEquipmentNames
+   A2 , \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3 , \field Zone Name
+        \note Name of zone system is serving
+        \required-field
+        \type object-list
+        \object-list ZoneNames
+   A4 , \field Heating Design Capacity Method
+        \type choice
+        \key HeatingDesignCapacity
+        \key CapacityPerFloorArea
+        \key FractionOfAutosizedHeatingCapacity
+        \default HeatingDesignCapacity
+        \note Enter the method used to determine the maximum heating power input capacity.
+        \note HeatingDesignCapacity = > selected when the design heating capacity value or autosize
+        \note is specified. CapacityPerFloorArea = > selected when the design heating capacity is
+        \note determine from user specified heating capacity per floor area and zone floor area.
+        \note FractionOfAutosizedHeatingCapacity = > is selected when the design heating capacity is
+        \note determined from a user specified fraction and the auto-sized design heating capacity.
+   N1 , \field Heating Design Capacity
+        \type real
+        \units W
+        \minimum 0.0
+        \autosizable
+        \default autosize
+        \note Enter the design heating capacity. Required field when the heating design capacity method
+        \note HeatingDesignCapacity.
+   N2 , \field Heating Design Capacity Per Floor Area
+        \type real
+        \units W/m2
+        \minimum 0.0
+        \note Enter the heating design capacity per zone floor area. Required field when the heating design
+        \note capacity method field is CapacityPerFloorArea.
+   N3 , \field Fraction of Autosized Heating Design Capacity
+        \type real
+        \minimum 0.0
+        \default 1.0
+        \note Enter the fraction of autosized heating design capacity. Required field when capacity the
+        \note heating design capacity method field is FractionOfAutosizedHeatingCapacity.
+   A5 , \field Fuel Type
+        \note Natural gas or electricity
+        \required-field
+        \type choice
+        \key NaturalGas
+        \key Electricity
+   N4 , \field Combustion Efficiency
+        \note Not used for non-gas radiant heaters
+        \minimum 0
+        \maximum 1
+        \default 0.9
+   N5 , \field Fraction of Input Converted to Radiant Energy
+        \note Radiant+latent+lost fractions must sum to 1 or less, remainder is considered convective heat
+        \minimum 0
+        \maximum 1
+        \default 0.7
+   N6 , \field Fraction of Input Converted to Latent Energy
+        \minimum 0
+        \maximum 1
+        \default 0.0
+   N7 , \field Fraction of Input that Is Lost
+        \note Fraction of input vented to outdoor environment
+        \minimum 0
+        \maximum 1
+        \default 0.0
+   A6 , \field Temperature Control Type
+        \note Temperature type used to control unit
+        \type choice
+        \key MeanAirTemperature
+        \key MeanRadiantTemperature
+        \key OperativeTemperature
+        \key MeanAirTemperatureSetpoint
+        \key MeanRadiantTemperatureSetpoint
+        \key OperativeTemperatureSetpoint
+        \default OperativeTemperature
+   N8 , \field Heating Throttling Range
+        \units deltaC
+        \minimum 0
+        \default 2.0
+   A7 , \field Heating Setpoint Temperature Schedule Name
+        \note This setpoint is an "operative temperature" setpoint
+        \type object-list
+        \object-list ScheduleNames
+   N9,  \field Fraction of Radiant Energy Incident on People
+        \note This will affect thermal comfort but from an energy balance standpoint this value
+        \note gets added to the convective gains from the radiant heater
+        \minimum 0
+        \maximum 1
+   A8,  \field Surface 1 Name
+        \begin-extensible
+        \note Radiant energy may be distributed to specific surfaces
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N10, \field Fraction of Radiant Energy to Surface 1
+        \minimum 0
+        \maximum 1
+   A9,  \field Surface 2 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N11, \field Fraction of Radiant Energy to Surface 2
+        \minimum 0
+        \maximum 1
+   A10, \field Surface 3 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N12, \field Fraction of Radiant Energy to Surface 3
+        \minimum 0
+        \maximum 1
+   A11, \field Surface 4 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N13, \field Fraction of Radiant Energy to Surface 4
+        \minimum 0
+        \maximum 1
+   A12, \field Surface 5 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N14, \field Fraction of Radiant Energy to Surface 5
+        \minimum 0
+        \maximum 1
+   A13, \field Surface 6 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N15, \field Fraction of Radiant Energy to Surface 6
+        \minimum 0
+        \maximum 1
+   A14, \field Surface 7 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N16, \field Fraction of Radiant Energy to Surface 7
+        \minimum 0
+        \maximum 1
+   A15, \field Surface 8 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N17, \field Fraction of Radiant Energy to Surface 8
+        \minimum 0
+        \maximum 1
+   A16, \field Surface 9 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N18, \field Fraction of Radiant Energy to Surface 9
+        \minimum 0
+        \maximum 1
+   A17, \field Surface 10 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N19, \field Fraction of Radiant Energy to Surface 10
+        \minimum 0
+        \maximum 1
+   A18, \field Surface 11 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N20, \field Fraction of Radiant Energy to Surface 11
+        \minimum 0
+        \maximum 1
+   A19, \field Surface 12 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N21, \field Fraction of Radiant Energy to Surface 12
+        \minimum 0
+        \maximum 1
+   A20, \field Surface 13 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N22, \field Fraction of Radiant Energy to Surface 13
+        \minimum 0
+        \maximum 1
+   A21, \field Surface 14 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N23, \field Fraction of Radiant Energy to Surface 14
+        \minimum 0
+        \maximum 1
+   A22, \field Surface 15 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N24, \field Fraction of Radiant Energy to Surface 15
+        \minimum 0
+        \maximum 1
+   A23, \field Surface 16 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N25, \field Fraction of Radiant Energy to Surface 16
+        \minimum 0
+        \maximum 1
+   A24, \field Surface 17 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N26, \field Fraction of Radiant Energy to Surface 17
+        \minimum 0
+        \maximum 1
+   A25, \field Surface 18 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N27, \field Fraction of Radiant Energy to Surface 18
+        \minimum 0
+        \maximum 1
+   A26, \field Surface 19 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N28, \field Fraction of Radiant Energy to Surface 19
+        \minimum 0
+        \maximum 1
+   A27, \field Surface 20 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N29, \field Fraction of Radiant Energy to Surface 20
+        \minimum 0
+        \maximum 1
+   A28, \field Surface 21 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N30, \field Fraction of Radiant Energy to Surface 21
+        \minimum 0
+        \maximum 1
+   A29, \field Surface 22 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N31, \field Fraction of Radiant Energy to Surface 22
+        \minimum 0
+        \maximum 1
+   A30, \field Surface 23 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N32, \field Fraction of Radiant Energy to Surface 23
+        \minimum 0
+        \maximum 1
+   A31, \field Surface 24 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N33, \field Fraction of Radiant Energy to Surface 24
+        \minimum 0
+        \maximum 1
+   A32, \field Surface 25 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N34, \field Fraction of Radiant Energy to Surface 25
+        \minimum 0
+        \maximum 1
+   A33, \field Surface 26 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N35, \field Fraction of Radiant Energy to Surface 26
+        \minimum 0
+        \maximum 1
+   A34, \field Surface 27 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N36, \field Fraction of Radiant Energy to Surface 27
+        \minimum 0
+        \maximum 1
+   A35, \field Surface 28 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N37, \field Fraction of Radiant Energy to Surface 28
+        \minimum 0
+        \maximum 1
+   A36, \field Surface 29 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N38, \field Fraction of Radiant Energy to Surface 29
+        \minimum 0
+        \maximum 1
+   A37, \field Surface 30 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N39, \field Fraction of Radiant Energy to Surface 30
+        \minimum 0
+        \maximum 1
+   A38, \field Surface 31 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N40, \field Fraction of Radiant Energy to Surface 31
+        \minimum 0
+        \maximum 1
+   A39, \field Surface 32 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N41, \field Fraction of Radiant Energy to Surface 32
+        \minimum 0
+        \maximum 1
+   A40, \field Surface 33 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N42, \field Fraction of Radiant Energy to Surface 33
+        \minimum 0
+        \maximum 1
+   A41, \field Surface 34 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N43, \field Fraction of Radiant Energy to Surface 34
+        \minimum 0
+        \maximum 1
+   A42, \field Surface 35 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N44, \field Fraction of Radiant Energy to Surface 35
+        \minimum 0
+        \maximum 1
+   A43, \field Surface 36 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N45, \field Fraction of Radiant Energy to Surface 36
+        \minimum 0
+        \maximum 1
+   A44, \field Surface 37 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N46, \field Fraction of Radiant Energy to Surface 37
+        \minimum 0
+        \maximum 1
+   A45, \field Surface 38 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N47, \field Fraction of Radiant Energy to Surface 38
+        \minimum 0
+        \maximum 1
+   A46, \field Surface 39 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N48, \field Fraction of Radiant Energy to Surface 39
+        \minimum 0
+        \maximum 1
+   A47, \field Surface 40 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N49, \field Fraction of Radiant Energy to Surface 40
+        \minimum 0
+        \maximum 1
+   A48, \field Surface 41 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N50, \field Fraction of Radiant Energy to Surface 41
+        \minimum 0
+        \maximum 1
+   A49, \field Surface 42 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N51, \field Fraction of Radiant Energy to Surface 42
+        \minimum 0
+        \maximum 1
+   A50, \field Surface 43 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N52, \field Fraction of Radiant Energy to Surface 43
+        \minimum 0
+        \maximum 1
+   A51, \field Surface 44 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N53, \field Fraction of Radiant Energy to Surface 44
+        \minimum 0
+        \maximum 1
+   A52, \field Surface 45 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N54, \field Fraction of Radiant Energy to Surface 45
+        \minimum 0
+        \maximum 1
+   A53, \field Surface 46 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N55, \field Fraction of Radiant Energy to Surface 46
+        \minimum 0
+        \maximum 1
+   A54, \field Surface 47 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N56, \field Fraction of Radiant Energy to Surface 47
+        \minimum 0
+        \maximum 1
+   A55, \field Surface 48 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N57, \field Fraction of Radiant Energy to Surface 48
+        \minimum 0
+        \maximum 1
+   A56, \field Surface 49 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N58, \field Fraction of Radiant Energy to Surface 49
+        \minimum 0
+        \maximum 1
+   A57, \field Surface 50 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N59, \field Fraction of Radiant Energy to Surface 50
+        \minimum 0
+        \maximum 1
+   A58, \field Surface 51 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N60, \field Fraction of Radiant Energy to Surface 51
+        \minimum 0
+        \maximum 1
+   A59, \field Surface 52 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N61, \field Fraction of Radiant Energy to Surface 52
+        \minimum 0
+        \maximum 1
+   A60, \field Surface 53 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N62, \field Fraction of Radiant Energy to Surface 53
+        \minimum 0
+        \maximum 1
+   A61, \field Surface 54 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N63, \field Fraction of Radiant Energy to Surface 54
+        \minimum 0
+        \maximum 1
+   A62, \field Surface 55 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N64, \field Fraction of Radiant Energy to Surface 55
+        \minimum 0
+        \maximum 1
+   A63, \field Surface 56 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N65, \field Fraction of Radiant Energy to Surface 56
+        \minimum 0
+        \maximum 1
+   A64, \field Surface 57 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N66, \field Fraction of Radiant Energy to Surface 57
+        \minimum 0
+        \maximum 1
+   A65, \field Surface 58 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N67, \field Fraction of Radiant Energy to Surface 58
+        \minimum 0
+        \maximum 1
+   A66, \field Surface 59 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N68, \field Fraction of Radiant Energy to Surface 59
+        \minimum 0
+        \maximum 1
+   A67, \field Surface 60 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N69, \field Fraction of Radiant Energy to Surface 60
+        \minimum 0
+        \maximum 1
+   A68, \field Surface 61 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N70, \field Fraction of Radiant Energy to Surface 61
+        \minimum 0
+        \maximum 1
+   A69, \field Surface 62 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N71, \field Fraction of Radiant Energy to Surface 62
+        \minimum 0
+        \maximum 1
+   A70, \field Surface 63 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N72, \field Fraction of Radiant Energy to Surface 63
+        \minimum 0
+        \maximum 1
+   A71, \field Surface 64 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N73, \field Fraction of Radiant Energy to Surface 64
+        \minimum 0
+        \maximum 1
+   A72, \field Surface 65 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N74, \field Fraction of Radiant Energy to Surface 65
+        \minimum 0
+        \maximum 1
+   A73, \field Surface 66 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N75, \field Fraction of Radiant Energy to Surface 66
+        \minimum 0
+        \maximum 1
+   A74, \field Surface 67 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N76, \field Fraction of Radiant Energy to Surface 67
+        \minimum 0
+        \maximum 1
+   A75, \field Surface 68 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N77, \field Fraction of Radiant Energy to Surface 68
+        \minimum 0
+        \maximum 1
+   A76, \field Surface 69 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N76, \field Fraction of Radiant Energy to Surface 69
+        \minimum 0
+        \maximum 1
+   A77, \field Surface 70 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N77, \field Fraction of Radiant Energy to Surface 70
+        \minimum 0
+        \maximum 1
+   A78, \field Surface 71 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N80, \field Fraction of Radiant Energy to Surface 71
+        \minimum 0
+        \maximum 1
+   A79, \field Surface 72 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N81, \field Fraction of Radiant Energy to Surface 72
+        \minimum 0
+        \maximum 1
+   A80, \field Surface 73 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N82, \field Fraction of Radiant Energy to Surface 73
+        \minimum 0
+        \maximum 1
+   A81, \field Surface 74 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N83, \field Fraction of Radiant Energy to Surface 74
+        \minimum 0
+        \maximum 1
+   A82, \field Surface 75 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N84, \field Fraction of Radiant Energy to Surface 75
+        \minimum 0
+        \maximum 1
+   A83, \field Surface 76 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N85, \field Fraction of Radiant Energy to Surface 76
+        \minimum 0
+        \maximum 1
+   A84, \field Surface 77 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N86, \field Fraction of Radiant Energy to Surface 77
+        \minimum 0
+        \maximum 1
+   A85, \field Surface 78 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N87, \field Fraction of Radiant Energy to Surface 78
+        \minimum 0
+        \maximum 1
+   A86, \field Surface 79 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N88, \field Fraction of Radiant Energy to Surface 79
+        \minimum 0
+        \maximum 1
+   A87, \field Surface 80 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N87, \field Fraction of Radiant Energy to Surface 80
+        \minimum 0
+        \maximum 1
+   A88, \field Surface 81 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N90, \field Fraction of Radiant Energy to Surface 81
+        \minimum 0
+        \maximum 1
+   A89, \field Surface 82 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N91, \field Fraction of Radiant Energy to Surface 82
+        \minimum 0
+        \maximum 1
+   A90, \field Surface 83 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N92, \field Fraction of Radiant Energy to Surface 83
+        \minimum 0
+        \maximum 1
+   A91, \field Surface 84 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N93, \field Fraction of Radiant Energy to Surface 84
+        \minimum 0
+        \maximum 1
+   A92, \field Surface 85 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N94, \field Fraction of Radiant Energy to Surface 85
+        \minimum 0
+        \maximum 1
+   A93, \field Surface 86 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N95, \field Fraction of Radiant Energy to Surface 86
+        \minimum 0
+        \maximum 1
+   A94, \field Surface 87 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N96, \field Fraction of Radiant Energy to Surface 87
+        \minimum 0
+        \maximum 1
+   A95, \field Surface 88 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N97, \field Fraction of Radiant Energy to Surface 88
+        \minimum 0
+        \maximum 1
+   A96, \field Surface 89 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N98, \field Fraction of Radiant Energy to Surface 89
+        \minimum 0
+        \maximum 1
+   A97, \field Surface 90 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+   N99, \field Fraction of Radiant Energy to Surface 90
+        \minimum 0
+        \maximum 1
+   A98, \field Surface 91 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+  N100, \field Fraction of Radiant Energy to Surface 91
+        \minimum 0
+        \maximum 1
+   A99, \field Surface 92 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+  N101, \field Fraction of Radiant Energy to Surface 92
+        \minimum 0
+        \maximum 1
+  A100, \field Surface 93 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+  N102, \field Fraction of Radiant Energy to Surface 93
+        \minimum 0
+        \maximum 1
+  A101, \field Surface 94 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+  N103, \field Fraction of Radiant Energy to Surface 94
+        \minimum 0
+        \maximum 1
+  A102, \field Surface 95 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+  N104, \field Fraction of Radiant Energy to Surface 95
+        \minimum 0
+        \maximum 1
+  A103, \field Surface 96 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+  N105, \field Fraction of Radiant Energy to Surface 96
+        \minimum 0
+        \maximum 1
+  A104, \field Surface 97 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+  N106, \field Fraction of Radiant Energy to Surface 97
+        \minimum 0
+        \maximum 1
+  A105, \field Surface 98 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+  N107, \field Fraction of Radiant Energy to Surface 98
+        \minimum 0
+        \maximum 1
+  A106, \field Surface 99 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+  N108, \field Fraction of Radiant Energy to Surface 99
+        \minimum 0
+        \maximum 1
+  A107, \field Surface 100 Name
+        \type object-list
+        \object-list AllHeatTranSurfNames
+  N109; \field Fraction of Radiant Energy to Surface 100
+        \minimum 0
+        \maximum 1
+
+ZoneHVAC:VentilatedSlab,
+       \memo Ventilated slab system where outdoor air flows through hollow cores in a building
+       \memo surface (wall, ceiling, or floor).
+       \min-fields 32
+   A1, \field Name
+       \required-field
+       \reference ZoneEquipmentNames
+   A2, \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+   A3, \field Zone Name
+       \required-field
+       \note (name of zone system is serving)
+       \type object-list
+       \object-list ZoneNames
+   A4 ,\field Surface Name or Radiant Surface Group Name
+       \note (name of surface system is embedded in) or list of surfaces
+       \type object-list
+       \object-list RadiantSurfaceNames
+       \object-list VentSlabGroupNames
+   N1, \field Maximum Air Flow Rate
+       \required-field
+       \units m3/s
+       \minimum> 0
+       \autosizable
+   A5, \field Outdoor Air Control Type
+       \required-field
+       \type choice
+       \key VariablePercent
+       \key FixedTemperature
+       \key FixedAmount
+   N2, \field Minimum Outdoor Air Flow Rate
+       \required-field
+       \units m3/s
+       \autosizable
+       \minimum 0.0
+   A6, \field Minimum Outdoor Air Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+   N3, \field Maximum Outdoor Air Flow Rate
+       \required-field
+       \units m3/s
+       \autosizable
+       \minimum 0.0
+       \note schedule values multiply the minimum outdoor air flow rate
+   A7, \field Maximum Outdoor Air Fraction or Temperature Schedule Name
+       \note Note that this depends on the control type as to whether schedule values are a fraction or temperature
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+   A8, \field System Configuration Type
+       \type choice
+       \key SlabOnly
+       \key SlabAndZone
+       \key SeriesSlabs
+       \default SlabOnly
+   N4, \field Hollow Core Inside Diameter
+       \units m
+       \minimum 0
+       \default 0.05
+       \ip-units in
+   N5, \field Hollow Core Length
+       \note (length of core cavity embedded in surface)
+       \units m
+       \minimum 0
+   N6, \field Number of Cores
+       \note flow will be divided evenly among the cores
+       \minimum 0
+   A9, \field Temperature Control Type
+       \note (temperature on which unit is controlled)
+       \type choice
+       \key MeanAirTemperature
+       \key MeanRadiantTemperature
+       \key OperativeTemperature
+       \key OutdoorDryBulbTemperature
+       \key OutdoorWetBulbTemperature
+       \key SurfaceTemperature
+       \key ZoneAirDewPointTemperature
+       \default OutdoorDryBulbTemperature
+   A10, \field Heating High Air Temperature Schedule Name
+       \required-field
+       \note Air and control temperatures for heating work together to provide
+       \note a linear function that determines the air temperature sent to the
+       \note radiant system. The current control temperature (see A14) is
+       \note compared to the high and low control temperatures at the current time.
+       \note If the control temperature is above the high temperature, then the
+       \note inlet air temperature is set to the low air temperature. If the
+       \note control temperature is below the low temperature, then the inlet
+       \note air temperature is set to the high air temperature. If the control
+       \note temperature is between the high and low value, then the inlet air
+       \note temperature is linearly interpolated between the low and high air
+       \note temperature values.
+       \type object-list
+       \object-list ScheduleNames
+  A11, \field Heating Low Air Temperature Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A12, \field Heating High Control Temperature Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A13, \field Heating Low Control Temperature Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A14, \field Cooling High Air Temperature Schedule Name
+       \required-field
+       \note See note for heating high air temperature schedule above for
+       \note interpretation information (or see the Input/Output Reference).
+       \type object-list
+       \object-list ScheduleNames
+  A15, \field Cooling Low Air Temperature Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A16, \field Cooling High Control Temperature Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A17, \field Cooling Low Control Temperature Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A18, \field Return Air Node Name
+       \note This is the zone return air inlet to the ventilated slab system outdoor air mixer.
+       \note This node is typically a zone exhaust node (do not connect to "Zone Return Air Node").
+       \required-field
+       \type node
+  A19, \field Slab In Node Name
+       \note This is the node entering the slab or series of slabs after the fan and coil(s).
+       \required-field
+       \type node
+  A20, \field Zone Supply Air Node Name
+       \note This is the node name exiting the slab.
+       \note This node is typically a zone inlet node.
+       \note Leave blank when the system configuration is SlabOnly or SeriesSlabs.
+       \type node
+  A21, \field Outdoor Air Node Name
+       \note This node is the outdoor air inlet to the ventilated slab oa mixer.
+       \note This node should also be specified in an OutdoorAir:Node or OutdoorAir:NodeList object.
+       \required-field
+       \type node
+  A22, \field Relief Air Node Name
+       \note This node is the relief air node from the ventilated slab outdoor air mixer.
+       \required-field
+       \type node
+  A23, \field Outdoor Air Mixer Outlet Node Name
+       \note This is the node name leaving the outdoor air mixer and entering the fan and coil(s).
+       \required-field
+       \type node
+  A24, \field Fan Outlet Node Name
+       \note This is the node name of the fan outlet.
+       \required-field
+       \type node
+  A25, \field Fan Name
+       \required-field
+       \note Allowable fan types are Fan:SystemModel and Fan:ConstantVolume
+       \type object-list
+       \object-list FansCV
+       \object-list FansSystemModel
+  A26, \field Coil Option Type
+       \required-field
+       \type choice
+       \key None
+       \key Heating
+       \key Cooling
+       \key HeatingAndCooling
+  A27, \field Heating Coil Object Type
+       \type choice
+       \key Coil:Heating:Water
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Steam
+  A28, \field Heating Coil Name
+       \type object-list
+       \object-list HeatingCoilName
+  A29, \field Hot Water or Steam Inlet Node Name
+       \type node
+  A30, \field Cooling Coil Object Type
+       \type choice
+       \key Coil:Cooling:Water
+       \key Coil:Cooling:Water:DetailedGeometry
+       \key CoilSystem:Cooling:Water:HeatExchangerAssisted
+  A31, \field Cooling Coil Name
+       \type object-list
+       \object-list CoolingCoilsWater
+  A32, \field Cold Water Inlet Node Name
+       \type node
+  A33, \field Availability Manager List Name
+       \note Enter the name of an AvailabilityManagerAssignmentList object.
+       \type object-list
+       \object-list SystemAvailabilityManagerLists
+  A34; \field Design Specification ZoneHVAC Sizing Object Name
+       \note Enter the name of a DesignSpecificationZoneHVACSizing object.
+       \type object-list
+       \object-list DesignSpecificationZoneHVACSizingName
+
+ZoneHVAC:VentilatedSlab:SlabGroup,
+        \memo This is used to allow the coordinate control of several ventilated slab system
+        \memo surfaces. Note that the flow fractions must sum up to 1.0.
+        \memo The number of surfaces can be expanded beyond 10, if necessary, by adding more
+        \memo groups to the end of the list
+        \extensible:7 - repeat last seven fields, remembering to remove ; from "inner" fields.
+   A1 , \field Name
+         \required-field
+         \type alpha
+         \reference VentSlabGroupNames
+   A2  , \field Zone 1 Name
+         \begin-extensible
+         \required-field
+         \type object-list
+         \object-list ZoneNames
+   A3  , \field Surface 1 Name
+         \required-field
+         \type object-list
+         \object-list RadiantSurfaceNames
+   N1  , \field Core Diameter for Surface 1
+         \required-field
+         \minimum 0.0
+         \type real
+         \units m
+   N2  , \field Core Length for Surface 1
+         \required-field
+         \minimum 0.0
+         \type real
+         \units m
+   N3  , \field Core Numbers for Surface 1
+         \required-field
+         \minimum 0.0
+   A4  , \field Slab Inlet Node Name for Surface 1
+         \required-field
+         \type node
+   A5  , \field Slab Outlet Node Name for Surface 1
+         \required-field
+         \type node
+   A6  , \field Zone 2 Name
+         \type object-list
+         \object-list ZoneNames
+   A7  , \field Surface 2 Name
+         \type object-list
+         \object-list RadiantSurfaceNames
+   N4  , \field Core Diameter for Surface 2
+         \type real
+         \units m
+         \minimum 0.0
+   N5  , \field Core Length for Surface 2
+         \type real
+         \units m
+         \minimum 0.0
+   N6  , \field Core Numbers for Surface 2
+         \minimum 0.0
+   A8  , \field Slab Inlet Node Name for Surface 2
+         \type node
+   A9  , \field Slab Outlet Node Name for Surface 2
+         \type node
+   A10  , \field Zone 3 Name
+         \type object-list
+         \object-list ZoneNames
+   A11  , \field Surface 3 Name
+         \type object-list
+         \object-list RadiantSurfaceNames
+   N7  , \field Core Diameter for Surface 3
+         \type real
+         \units m
+         \minimum 0.0
+   N8  , \field Core Length for Surface 3
+         \type real
+         \units m
+         \minimum 0.0
+   N9  , \field Core Numbers for Surface 3
+         \minimum 0.0
+   A12  , \field Slab Inlet Node Name for Surface 3
+          \type node
+   A13  , \field Slab Outlet Node Name for Surface 3
+          \type node
+   A14  , \field Zone 4 Name
+         \type object-list
+         \object-list ZoneNames
+   A15  , \field Surface 4 Name
+         \type object-list
+         \object-list RadiantSurfaceNames
+   N10  , \field Core Diameter for Surface 4
+         \type real
+         \units m
+         \minimum 0.0
+   N11  , \field Core Length for Surface 4
+         \type real
+         \units m
+         \minimum 0.0
+   N12  , \field Core Numbers for Surface 4
+         \minimum 0.0
+   A16  , \field Slab Inlet Node Name for Surface 4
+          \type node
+   A17  , \field Slab Outlet Node Name for Surface 4
+          \type node
+   A18  , \field Zone 5 Name
+         \type object-list
+         \object-list ZoneNames
+   A19  , \field Surface 5 Name
+         \type object-list
+         \object-list RadiantSurfaceNames
+   N13  , \field Core Diameter for Surface 5
+         \type real
+         \units m
+         \minimum 0.0
+   N14  , \field Core Length for Surface 5
+         \type real
+         \units m
+         \minimum 0.0
+   N15  , \field Core Numbers for Surface 5
+         \minimum 0.0
+   A20  , \field Slab Inlet Node Name for Surface 5
+          \type node
+   A21  , \field Slab Outlet Node Name for Surface 5
+          \type node
+   A22  , \field Zone 6 Name
+         \type object-list
+         \object-list ZoneNames
+   A23  , \field Surface 6 Name
+         \type object-list
+         \object-list RadiantSurfaceNames
+   N16  , \field Core Diameter for Surface 6
+         \type real
+         \units m
+         \minimum 0.0
+   N17  , \field Core Length for Surface 6
+         \type real
+         \units m
+         \minimum 0.0
+   N18  , \field Core Numbers for Surface 6
+         \minimum 0.0
+   A24  , \field Slab Inlet Node Name for Surface 6
+          \type node
+   A25  , \field Slab Outlet Node Name for Surface 6
+          \type node
+   A26  , \field Zone 7 Name
+         \type object-list
+         \object-list ZoneNames
+   A27  , \field Surface 7 Name
+         \type object-list
+         \object-list RadiantSurfaceNames
+   N19  , \field Core Diameter for Surface 7
+         \type real
+         \units m
+         \minimum 0.0
+   N20  , \field Core Length for Surface 7
+         \type real
+         \units m
+         \minimum 0.0
+   N21  , \field Core Numbers for Surface 7
+         \minimum 0.0
+   A28  , \field Slab Inlet Node Name for Surface 7
+          \type node
+   A29  , \field Slab Outlet Node Name for Surface 7
+          \type node
+   A30  , \field Zone 8 Name
+         \type object-list
+         \object-list ZoneNames
+   A31  , \field Surface 8 Name
+         \type object-list
+         \object-list RadiantSurfaceNames
+   N22  , \field Core Diameter for Surface 8
+         \type real
+         \units m
+         \minimum 0.0
+   N23  , \field Core Length for Surface 8
+         \type real
+         \units m
+         \minimum 0.0
+   N24  , \field Core Numbers for Surface 8
+         \minimum 0.0
+   A32  , \field Slab Inlet Node Name for Surface 8
+          \type node
+   A33  , \field Slab Outlet Node Name for Surface 8
+          \type node
+   A34  , \field Zone 9 Name
+         \type object-list
+         \object-list ZoneNames
+   A35  , \field Surface 9 Name
+         \type object-list
+         \object-list RadiantSurfaceNames
+   N25  , \field Core Diameter for Surface 9
+         \type real
+         \units m
+         \minimum 0.0
+   N26  , \field Core Length for Surface 9
+         \type real
+         \units m
+         \minimum 0.0
+   N27  , \field Core Numbers for Surface 9
+         \minimum 0.0
+   A36  , \field Slab Inlet Node Name for Surface 9
+          \type node
+   A37  , \field Slab Outlet Node Name for Surface 9
+          \type node
+   A38  , \field Zone 10 Name
+         \type object-list
+         \object-list ZoneNames
+   A39  , \field Surface 10 Name
+         \type object-list
+         \object-list RadiantSurfaceNames
+   N28  , \field Core Diameter for Surface 10
+         \type real
+         \units m
+         \minimum 0.0
+   N29  , \field Core Length for Surface 10
+         \type real
+         \units m
+         \minimum 0.0
+   N30  , \field Core Numbers for Surface 10
+         \minimum 0.0
+   A40  , \field Slab Inlet Node Name for Surface 10
+          \type node
+   A41  ; \field Slab Outlet Node Name for Surface 10
+          \type node
+
+\group Zone HVAC Air Loop Terminal Units
+
+AirTerminal:SingleDuct:ConstantVolume:Reheat,
+       \memo Central air system terminal unit, single duct, constant volume, with reheat coil (hot
+       \memo water, electric, gas, or steam).
+  A1 , \field Name
+       \required-field
+       \reference AirTerminalUnitNames
+       \reference AFNTerminalUnitNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3,  \field Air Outlet Node Name
+       \required-field
+       \type node
+  A4,  \field Air Inlet Node Name
+       \required-field
+       \type node
+  N1,  \field Maximum Air Flow Rate
+       \required-field
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  A5,  \field Reheat Coil Object Type
+       \required-field
+       \type choice
+       \key Coil:Heating:Water
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Steam
+  A6,  \field Reheat Coil Name
+       \required-field
+       \type object-list
+       \object-list HeatingCoilName
+  N2,  \field Maximum Hot Water or Steam Flow Rate
+       \note Not used when reheat coil type is gas or electric
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+       \ip-units gal/min
+  N3,  \field Minimum Hot Water or Steam Flow Rate
+       \note Not used when reheat coil type is gas or electric
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \ip-units gal/min
+  N4,  \field Convergence Tolerance
+       \type real
+       \minimum> 0.0
+       \default 0.001
+  N5; \field Maximum Reheat Air Temperature
+      \note Specifies the maximum allowable supply air temperature leaving the reheat coil.
+      \note If left blank, there is no limit and no default. If unknown, 35C (95F) is recommended.
+      \type real
+      \units C
+      \minimum> 0.0
+
+AirTerminal:SingleDuct:ConstantVolume:NoReheat,
+       \memo Central air system terminal unit, single duct, constant volume, without reheat coil
+       \min-fields 5
+  A1 , \field Name
+       \required-field
+       \reference AirTerminalUnitNames
+       \reference AFNTerminalUnitNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3,  \field Air Inlet Node Name
+       \required-field
+       \type node
+       \note The air-inlet node name that connects the air splitter to the individual zone air distribution
+       \note unit. This node should also be one of the outlet air node of an AirLoopHVAC:ZoneSplitter or
+       \note AirLoopHVAC:SupplyPlenum component.
+  A4,  \field Air Outlet Node Name
+       \required-field
+       \type node
+       \note This is an air outlet node from the air distribution unit. This node name should be one of the
+       \note supply air inlet node names of a zone served by this component.
+  N1,  \field Maximum Air Flow Rate
+       \required-field
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+   A5, \field Design Specification Outdoor Air Object Name
+       \type object-list
+       \object-list DesignSpecificationOutdoorAirNames
+       \note This field is used to modulate the terminal unit flow rate based on the specified outdoor air
+       \note requirement. When the name of a DesignSpecification:OutdoorAir object is entered, the terminal unit will
+       \note adjust flow to meet this outdoor air requirement and no more. There is no control for zone load.
+       \note If Outdoor Air Flow per Person is non-zero, then the outdoor air requirement will be computed based
+       \note on either the current or design occupancy as specified in the Per Person Ventilation Rate Mode field.
+       \note At no time will the supply air flow rate exceed the value for Maximum Air Flow Rate. The requested flow
+       \note rate may not be fully met if the system is operating with cycling fan. If this field is blank, then
+       \note the terminal unit will not be controlled for outdoor air flow. This field is optional.
+   A6; \field Per Person Ventilation Rate Mode
+       \type choice
+       \key CurrentOccupancy
+       \key DesignOccupancy
+       \default CurrentOccupancy
+       \note CurrentOccupancy uses current number of people in the zone which may vary
+       \note DesignOccupancy uses the total number of people in the zone and is constant
+
+AirTerminal:SingleDuct:VAV:NoReheat,
+       \memo Central air system terminal unit, single duct, variable volume, with no reheat coil.
+  A1,  \field Name
+       \required-field
+       \reference AirTerminalUnitNames
+  A2,  \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3,  \field Air Outlet Node Name
+       \required-field
+       \type node
+  A4,  \field Air Inlet Node Name
+       \required-field
+       \type node
+  N1,  \field Maximum Air Flow Rate
+       \required-field
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  A5 , \field Zone Minimum Air Flow Input Method
+       \type choice
+       \key Constant
+       \key FixedFlowRate
+       \key Scheduled
+       \default Constant
+       \note Constant = Constant Minimum Air Flow Fraction (a fraction of Maximum Air Flow Rate)
+       \note FixedFlowRate = Fixed Minimum Air Flow Rate (a fixed minimum air volume flow rate)
+       \note Scheduled = Scheduled Minimum Air Flow Fraction (a fraction of Maximum Air Flow
+  N2 , \field Constant Minimum Air Flow Fraction
+       \type real
+       \autosizable
+       \default autosize
+       \note This field is used if the field Zone Minimum Air Flow Input Method is Constant
+       \note If the field Zone Minimum Air Flow Input Method is Scheduled, then this field
+       \note is optional; if a value is entered, then it is used for sizing normal-action reheat coils.
+       \note If both this field and the following field are entered, the larger result is used.
+       \note The values for autosizing are picked up from the Sizing:Zone input fields
+       \note "Cooling Minimum Air Flow per Zone Floor Area", "Cooling Minimum Air Flow", and
+       \note "Cooling Minimum Air Flow Fraction". If there is no sizing calculation a default of
+       \note 0.000762 m3/s-m2 (0.15 cfm/ft2) is used.
+  N3 , \field Fixed Minimum Air Flow Rate
+       \type real
+       \units m3/s
+       \autosizable
+       \default autosize
+       \note This field is used if the field Zone Minimum Air Flow Input Method is FixedFlowRate.
+       \note If the field Zone Minimum Air Flow Input Method is Scheduled, then this field
+       \note is optional; if a value is entered, then it is used for sizing normal-action reheat coils.
+       \note If both this field and the previous field are entered, the larger result is used.
+       \note The values for autosizing are picked up from the Sizing:Zone input fields
+       \note "Cooling Minimum Air Flow per Zone Floor Area", "Cooling Minimum Air Flow", and
+       \note "Cooling Minimum Air Flow Fraction". If there is no sizing calculation a default of
+       \note 0.000762 m3/s-m2 (0.15 cfm/ft2) is used.
+  A6 , \field Minimum Air Flow Fraction Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field is used if the field Zone Minimum Air Flow Input Method is Scheduled
+       \note Schedule values are fractions, 0.0 to 1.0.
+       \note If the field Constant Minimum Air Flow Fraction is blank, then the average of the
+       \note minimum and maximum schedule values is used for sizing normal-action reheat coils.
+  A7 , \field Design Specification Outdoor Air Object Name
+       \type object-list
+       \object-list DesignSpecificationOutdoorAirNames
+       \note When the name of a DesignSpecification:OutdoorAir object is entered, the terminal
+       \note unit will increase flow as needed to meet this outdoor air requirement.
+       \note If Outdoor Air Flow per Person is non-zero, then the outdoor air requirement will
+       \note be computed based on the current number of occupants in the zone.
+       \note At no time will the supply air flow rate exceed the value for Maximum Air Flow Rate.
+       \note If this field is blank, then the terminal unit will not be controlled for outdoor air flow.
+  A8 ; \field Minimum Air Flow Turndown Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field adjusts the design minimum flow rate by multiplying it using this schedule of fraction
+       \note values. This field can be used with any of the three "Zone Minimum Air Flow Input Method".
+       \note Schedule values are fractions, 0.0 to 1.0. This field adjusts the minimum airflow turndown
+       \note below the design minimum air flow and is intended for use with ASHRAE Standard 170.
+       \note If this field is left blank, then the turndown minimum air flow fraction value is set to 1.
+
+AirTerminal:SingleDuct:VAV:Reheat,
+       \memo Central air system terminal unit, single duct, variable volume, with reheat coil (hot
+       \memo water, electric, gas, or steam).
+       \min-fields 18
+  A1 , \field Name
+       \required-field
+       \reference AirTerminalUnitNames
+       \reference AFNTerminalUnitNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Damper Air Outlet Node Name
+       \note the outlet node of the damper and the inlet node of the reheat coil
+       \note this is an internal node to the terminal unit and connects the damper and reheat coil
+       \required-field
+       \type node
+  A4 , \field Air Inlet Node Name
+       \note the inlet node to the terminal unit and the damper
+       \required-field
+       \type node
+  N1 , \field Maximum Air Flow Rate
+       \required-field
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  A5 , \field Zone Minimum Air Flow Input Method
+       \type choice
+       \key Constant
+       \key FixedFlowRate
+       \key Scheduled
+       \default Constant
+       \note Constant = Constant Minimum Air Flow Fraction (a fraction of Maximum Air Flow Rate)
+       \note FixedFlowRate = Fixed Minimum Air Flow Rate (a fixed minimum air volume flow rate)
+       \note Scheduled = Scheduled Minimum Air Flow Fraction (a fraction of Maximum Air Flow
+  N2 , \field Constant Minimum Air Flow Fraction
+       \type real
+       \autosizable
+       \default autosize
+       \note This field is used if the field Zone Minimum Air Flow Input Method is Constant
+       \note If the field Zone Minimum Air Flow Input Method is Scheduled, then this field
+       \note is optional; if a value is entered, then it is used for sizing normal-action reheat coils.
+       \note If both this field and the following field are entered, the larger result is used.
+       \note The values for autosizing are picked up from the Sizing:Zone input fields
+       \note "Cooling Minimum Air Flow per Zone Floor Area", "Cooling Minimum Air Flow", and
+       \note "Cooling Minimum Air Flow Fraction". If there is no sizing calculation a default of
+       \note 0.000762 m3/s-m2 (0.15 cfm/ft2) is used.
+  N3 , \field Fixed Minimum Air Flow Rate
+       \type real
+       \units m3/s
+       \autosizable
+       \default autosize
+       \note This field is used if the field Zone Minimum Air Flow Input Method is FixedFlowRate.
+       \note If the field Zone Minimum Air Flow Input Method is Scheduled, then this field
+       \note is optional; if a value is entered, then it is used for sizing normal-action reheat coils.
+       \note If both this field and the previous field are entered, the larger result is used.
+       \note The values for autosizing are picked up from the Sizing:Zone input fields
+       \note "Cooling Minimum Air Flow per Zone Floor Area", "Cooling Minimum Air Flow", and
+       \note "Cooling Minimum Air Flow Fraction". If there is no sizing calculation a default of
+       \note 0.000762 m3/s-m2 (0.15 cfm/ft2) is used.
+  A6 , \field Minimum Air Flow Fraction Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field is used if the field Zone Minimum Air Flow Input Method is Scheduled
+       \note Schedule values are fractions, 0.0 to 1.0.
+       \note If the field Constant Minimum Air Flow Fraction is blank, then the average of the
+       \note minimum and maximum schedule values is used for sizing normal-action reheat coils.
+  A7 , \field Reheat Coil Object Type
+       \required-field
+       \type choice
+       \key Coil:Heating:Water
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Steam
+  A8 , \field Reheat Coil Name
+       \required-field
+       \type object-list
+       \object-list HeatingCoilName
+  N4 , \field Maximum Hot Water or Steam Flow Rate
+       \note Not used when reheat coil type is gas or electric
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+       \ip-units gal/min
+  N5 , \field Minimum Hot Water or Steam Flow Rate
+       \note Not used when reheat coil type is gas or electric
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \ip-units gal/min
+  A9 , \field Air Outlet Node Name
+       \required-field
+       \type node
+       \note The outlet node of the terminal unit and the reheat coil.
+       \note This is also the zone inlet node.
+  N6 , \field Convergence Tolerance
+       \type real
+       \minimum> 0.0
+       \default 0.001
+  A10, \field Damper Heating Action
+       \type choice
+       \key Normal
+       \key Reverse
+       \key ReverseWithLimits
+       \default ReverseWithLimits
+       \note Normal means the damper is fixed at the minimum position in heating mode
+       \note Reverse means the damper can open fully during reheat
+       \note ReverseWithLimits means the damper will open partially during reheat
+       \note as specified in the following 2 fields
+  N7 , \field Maximum Flow per Zone Floor Area During Reheat
+       \type real
+       \units m3/s-m2
+       \autosizable
+       \default autosize
+       \note Used only when Reheat Coil Object Type = Coil:Heating:Water and Damper Heating Action = ReverseWithLimits
+       \note When autocalculating, the maximum flow per zone is set to 0.002032 m3/s-m2 (0.4 cfm/sqft)
+       \note This optional field limits the maximum flow allowed in reheat mode.
+       \note At no time will the maximum flow rate calculated here exceed the value of
+       \note Maximum Air Flow Rate.
+  N8 , \field Maximum Flow Fraction During Reheat
+       \type real
+       \autosizable
+       \default autosize
+       \note Used only when Reheat Coil Object Type = Coil:Heating:Water and Damper Heating Action = ReverseWithLimits
+       \note When autocalculating, the maximum flow fraction is set to the ratio of
+       \note 0.002032 m3/s-m2 (0.4 cfm/sqft) multiplied by the zone floor area and the
+       \note Maximum Air Flow Rate.
+       \note This optional field limits the maximum flow allowed in reheat mode.
+       \note At no time will the maximum flow rate calculated here exceed the value of
+       \note Maximum Air Flow Rate.
+  N9 , \field Maximum Reheat Air Temperature
+       \type real
+       \units C
+       \minimum> 0.0
+       \note Specifies the maximum allowable supply air temperature leaving the reheat coil.
+       \note If left blank, there is no limit and no default. If unknown, 35C (95F) is recommended.
+  A11, \field Design Specification Outdoor Air Object Name
+       \type object-list
+       \object-list DesignSpecificationOutdoorAirNames
+       \note When the name of a DesignSpecification:OutdoorAir object is entered, the terminal
+       \note unit will increase flow as needed to meet this outdoor air requirement.
+       \note If Outdoor Air Flow per Person is non-zero, then the outdoor air requirement will
+       \note be computed based on the current number of occupants in the zone.
+       \note At no time will the supply air flow rate exceed the value for Maximum Air Flow Rate.
+       \note If this field is blank, then the terminal unit will not be controlled for outdoor air flow.
+  A12; \field Minimum Air Flow Turndown Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field adjusts the design minimum flow rate by multiplying it using this schedule of fraction
+       \note values. This field can be used with any of the three "Zone Minimum Air Flow Input Method".
+       \note Schedule values are fractions, 0.0 to 1.0. This field adjusts the minimum airflow turndown
+       \note below the design minimum air flow and is intended for use with ASHRAE Standard 170.
+       \note If this field is left blank, then the turndown minimum air flow fraction value is set to 1.
+
+AirTerminal:SingleDuct:VAV:Reheat:VariableSpeedFan,
+       \memo Central air system terminal unit, single duct, variable volume, with reheat coil (hot
+       \memo water, electric, gas, or steam) and variable-speed fan. These units are usually
+       \memo employed in underfloor air distribution (UFAD) systems where the air is supplied at
+       \memo low static pressure through an underfloor plenum. The fan is used to control the flow
+       \memo of conditioned air that enters the space.
+  A1,  \field Name
+       \required-field
+       \reference AirTerminalUnitNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1,  \field Maximum Cooling Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \autosizable
+       \minimum 0.0
+  N2,  \field Maximum Heating Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \autosizable
+       \minimum 0.0
+  N3,  \field Zone Minimum Air Flow Fraction
+       \required-field
+       \minimum 0.0
+       \maximum 1.0
+       \note fraction of cooling air flow rate
+  A3,  \field Air Inlet Node Name
+       \type node
+       \note The name of the HVAC system node that is the air inlet node for the
+       \note terminal unit. This is also the air inlet node for the unit's fan.
+  A4,  \field Air Outlet Node Name
+       \type node
+       \note The name of the HVAC system node that is the air outlet node for the
+       \note terminal unit. This is also the air outlet node for the unit's heating
+       \note coil's air outlet node. This node is also a zone inlet node.
+  A5,  \field Fan Object Type
+       \required-field
+       \type choice
+       \key Fan:SystemModel
+       \key Fan:VariableVolume
+  A6,  \field Fan Name
+       \required-field
+       \type object-list
+       \object-list FansVAV
+       \object-list FansSystemModel
+  A7,  \field Heating Coil Object Type
+       \required-field
+       \type choice
+       \key Coil:Heating:Water
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Steam
+  A8,  \field Heating Coil Name
+       \required-field
+       \type object-list
+       \object-list HeatingCoilName
+  N4,  \field Maximum Hot Water or Steam Flow Rate
+       \note Not used when heating coil type is gas or electric
+       \type real
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+  N5,  \field Minimum Hot Water or Steam Flow Rate
+       \note Not used when heating coil type is gas or electric
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \ip-units gal/min
+  N6,  \field Heating Convergence Tolerance
+       \type real
+       \minimum> 0.0
+       \default 0.001
+  A9;  \field Minimum Air Flow Turndown Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field adjusts the fan-off minimum flow rate by multiplying it using this scheduled fraction
+       \note values. This field is used with "Zone Minimum Air Flow Fraction". Schedule values are fractions
+       \note 0.0 to 1.0. This field adjusts the minimum airflow turndown below the design minimum air flow
+       \note and is intended for use with ASHRAE Standard 170. If this field is left blank, then the turndown
+       \note minimum air flow fraction value is set to 1 and the model uses the fixed fraction specified in
+       \note in the field "Zone Minimum Air Flow Fraction".
+
+AirTerminal:SingleDuct:VAV:HeatAndCool:NoReheat,
+       \memo Central air system terminal unit, single duct, variable volume for both cooling and
+       \memo heating, with no reheat coil.
+       \min-fields 6
+  A1,  \field Name
+       \required-field
+       \reference AirTerminalUnitNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3,  \field Air Outlet Node Name
+       \required-field
+       \type node
+       \note The outlet node of the terminal unit.
+       \note This is also the zone inlet node.
+  A4,  \field Air Inlet Node Name
+       \required-field
+       \type node
+  N1,  \field Maximum Air Flow Rate
+       \required-field
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+  N2,  \field Zone Minimum Air Flow Fraction
+       \required-field
+       \minimum 0.0
+       \maximum 1.0
+       \note fraction of maximum air flow
+  A5;  \field Minimum Air Flow Turndown Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field adjusts the design minimum flow rate by multiplying it using this schedule of fraction
+       \note values. This field is used with "Zone Minimum Air Flow Fraction". Schedule values are fractions
+       \note 0.0 to 1.0. This field adjusts the minimum airflow turndown below the design minimum air flow
+       \note and is intended for use with ASHRAE Standard 170. If this field is left blank, then the turndown
+       \note minimum air flow fraction value is set to 1 and the model uses the fixed fraction specified in
+       \note in the field "Zone Minimum Air Flow Fraction".
+
+AirTerminal:SingleDuct:VAV:HeatAndCool:Reheat,
+       \memo Central air system terminal unit, single duct, variable volume for both cooling and
+       \memo heating, with reheat coil (hot water, electric, gas, or steam).
+       \min-fields 11
+  A1,  \field Name
+       \required-field
+       \reference AirTerminalUnitNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3,  \field Damper Air Outlet Node Name
+       \required-field
+       \type node
+       \note the outlet node of the damper and the inlet node of the reheat coil
+       \note this is an internal node to the terminal unit and connects the damper and reheat coil
+  A4,  \field Air Inlet Node Name
+       \required-field
+       \type node
+       \note the inlet node to the terminal unit and the damper
+  N1,  \field Maximum Air Flow Rate
+       \required-field
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+  N2,  \field Zone Minimum Air Flow Fraction
+       \required-field
+       \minimum 0.0
+       \maximum 1.0
+       \note fraction of maximum air flow
+  A5,  \field Reheat Coil Object Type
+       \required-field
+       \type choice
+       \key Coil:Heating:Water
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Steam
+  A6,  \field Reheat Coil Name
+       \required-field
+       \type object-list
+       \object-list HeatingCoilName
+  N3,  \field Maximum Hot Water or Steam Flow Rate
+       \note Not used when reheat coil type is gas or electric
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+       \ip-units gal/min
+  N4,  \field Minimum Hot Water or Steam Flow Rate
+       \note Not used when reheat coil type is gas or electric
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \ip-units gal/min
+  A7,  \field Air Outlet Node Name
+       \required-field
+       \type node
+       \note The outlet node of the terminal unit and the reheat coil.
+       \note This is also the zone inlet node.
+  N5,  \field Convergence Tolerance
+       \type real
+       \minimum> 0.0
+       \default 0.001
+  N6,  \field Maximum Reheat Air Temperature
+       \note Specifies the maximum allowable supply air temperature leaving the reheat coil.
+       \note If left blank, there is no limit and no default. If unknown, 35C (95F) is recommended.
+       \type real
+       \units C
+       \minimum> 0.0
+  A8;  \field Minimum Air Flow Turndown Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field adjusts the design minimum flow rate by multiplying it using this schedule of fraction
+       \note values. This field is used with "Zone Minimum Air Flow Fraction". Schedule values are fractions
+       \note 0.0 to 1.0. This field adjusts the minimum airflow turndown below the design minimum air flow
+       \note and is intended for use with ASHRAE Standard 170. If this field is left blank, then the turndown
+       \note minimum air flow fraction value is set to 1 and the model uses the fixed fraction specified in
+       \note in the field "Zone Minimum Air Flow Fraction".
+
+AirTerminal:SingleDuct:SeriesPIU:Reheat,
+       \memo Central air system terminal unit, single duct, variable volume, series powered
+       \memo induction unit (PIU), with reheat coil (hot water, electric, gas, or steam).
+  A1,  \field Name
+       \required-field
+       \type alpha
+       \reference AirTerminalUnitNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1,  \field Maximum Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  N2,  \field Maximum Primary Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  N3,  \field Minimum Primary Air Flow Fraction
+       \required-field
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \autosizable
+  A3,  \field Supply Air Inlet Node Name
+       \type node
+  A4,  \field Secondary Air Inlet Node Name
+       \type node
+  A5,  \field Outlet Node Name
+       \type node
+  A6,  \field Reheat Coil Air Inlet Node Name
+       \type node
+  A7,  \field Zone Mixer Name
+       \type object-list
+       \object-list ZoneMixers
+  A8,  \field Fan Name
+       \note Fan type must be Fan:SystemModel or Fan:ConstantVolume
+       \type object-list
+       \object-list FansCV
+       \object-list FansSystemModel
+  A9,  \field Reheat Coil Object Type
+       \required-field
+       \type choice
+       \key Coil:Heating:Water
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Steam
+  A10, \field Reheat Coil Name
+       \required-field
+       \type object-list
+       \object-list HeatingCoilName
+  N4,  \field Maximum Hot Water or Steam Flow Rate
+       \note Not used when reheat coil type is gas or electric
+       \type real
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+  N5,  \field Minimum Hot Water or Steam Flow Rate
+       \note Not used when reheat coil type is gas or electric
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \ip-units gal/min
+  N6;  \field Convergence Tolerance
+       \type real
+       \minimum> 0.0
+       \default 0.001
+
+AirTerminal:SingleDuct:ParallelPIU:Reheat,
+       \memo Central air system terminal unit, single duct, variable volume, parallel powered
+       \memo induction unit (PIU), with reheat coil (hot water, electric, gas, or steam).
+  A1,  \field Name
+       \required-field
+       \type alpha
+       \reference AirTerminalUnitNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1,  \field Maximum Primary Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  N2,  \field Maximum Secondary Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  N3,  \field Minimum Primary Air Flow Fraction
+       \required-field
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \autosizable
+  N4,  \field Fan On Flow Fraction
+       \required-field
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \autosizable
+       \note the fraction of the primary air flow at which fan turns on
+  A3,  \field Supply Air Inlet Node Name
+       \type node
+  A4,  \field Secondary Air Inlet Node Name
+       \type node
+  A5,  \field Outlet Node Name
+       \type node
+  A6,  \field Reheat Coil Air Inlet Node Name
+       \type node
+       \note mixer outlet node
+  A7,  \field Zone Mixer Name
+       \type object-list
+       \object-list ZoneMixers
+  A8,  \field Fan Name
+       \note Fan type must be Fan:SystemModel or Fan:ConstantVolume
+       \type object-list
+       \object-list FansCV
+       \object-list FansSystemModel
+  A9,  \field Reheat Coil Object Type
+       \required-field
+       \type choice
+       \key Coil:Heating:Water
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Steam
+  A10, \field Reheat Coil Name
+       \required-field
+       \type object-list
+       \object-list HeatingCoilName
+  N5,  \field Maximum Hot Water or Steam Flow Rate
+       \note Not used when reheat coil type is gas or electric
+       \type real
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+  N6,  \field Minimum Hot Water or Steam Flow Rate
+       \note Not used when reheat coil type is gas or electric
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \ip-units gal/min
+  N7;  \field Convergence Tolerance
+       \type real
+       \minimum> 0.0
+       \default 0.001
+
+AirTerminal:SingleDuct:ConstantVolume:FourPipeInduction,
+       \memo Central air system terminal unit, single duct, variable volume, induction unit with
+       \memo hot water reheat coil and chilled water recool coil.
+       \min-fields 18
+  A1,  \field Name
+       \required-field
+       \type alpha
+       \reference AirTerminalUnitNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1,  \field Maximum Total Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \autosizable
+       \minimum 0.0
+  N2,  \field Induction Ratio
+       \type real
+       \minimum 0.0
+       \default 2.5
+       \note ratio of induced air flow rate to primary air flow rate
+  A3,  \field Supply Air Inlet Node Name
+       \type node
+       \required-field
+  A4,  \field Induced Air Inlet Node Name
+       \type node
+       \required-field
+       \note should be a zone exhaust node, also the heating coil inlet node
+  A5,  \field Air Outlet Node Name
+       \type node
+       \required-field
+       \note should be a zone inlet node
+  A6,  \field Heating Coil Object Type
+       \required-field
+       \type choice
+       \key Coil:Heating:Water
+  A7,  \field Heating Coil Name
+       \required-field
+       \type object-list
+       \object-list HeatingCoilName
+  N3,  \field Maximum Hot Water Flow Rate
+       \note Not used when heating coil type is gas or electric
+       \type real
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+  N4,  \field Minimum Hot Water Flow Rate
+       \note Not used when heating coil type is gas or electric
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \ip-units gal/min
+  N5,  \field Heating Convergence Tolerance
+       \type real
+       \minimum> 0.0
+       \default 0.001
+  A8,  \field Cooling Coil Object Type
+       \type choice
+       \key Coil:Cooling:Water
+       \key Coil:Cooling:Water:DetailedGeometry
+  A9,  \field Cooling Coil Name
+       \type object-list
+       \object-list CoolingCoilName
+  N6,  \field Maximum Cold Water Flow Rate
+       \type real
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+  N7,  \field Minimum Cold Water Flow Rate
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \ip-units gal/min
+  N8,  \field Cooling Convergence Tolerance
+       \type real
+       \minimum> 0.0
+       \default 0.001
+  A10; \field Zone Mixer Name
+       \required-field
+       \type object-list
+       \object-list ZoneMixers
+
+AirTerminal:SingleDuct:ConstantVolume:FourPipeBeam,
+       \memo Central air system terminal unit, single duct, constant volume,
+       \memo with heating and/or cooling.
+       \memo Operates as two-pipe unit if heating or cooling water is omitted.
+       \memo Heating and/or cooling can be scheduled off for dedicated ventilation.
+  A1 , \field Name
+       \type alpha
+       \required-field
+       \reference AirTerminalUnitNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Primary Air Availability Schedule Name
+       \note Primary air is supplied by central air handling unit and must be on for heating or cooling.
+       \note Schedule value > 0 means the primary air supply is available.
+       \note If this field is blank, the primary air supply is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Cooling Availability Schedule Name
+       \note Cooling operation can be controlled separately using this availability schedule.
+       \note Schedule value > 0 means beam cooling is available.
+       \note If this field is blank, the beam cooling is always available (as long as primary air is also available).
+       \type object-list
+       \object-list ScheduleNames
+  A4 , \field Heating Availability Schedule Name
+       \note Heating operation can be controlled separately using this availability schedule.
+       \note Schedule value > 0 means beam heating is available.
+       \note If this field is blank, the beam heating is always available (as long as primary air is also available).
+       \type object-list
+       \object-list ScheduleNames
+  A5 , \field Primary Air Inlet Node Name
+       \note Name of the air system node for primary supply air entering the air distribution unit.
+       \type node
+       \required-field
+  A6 , \field Primary Air Outlet Node Name
+       \note Name of the air system node for primary supply air leaving the air distribution unit and entering the zone.
+       \type node
+       \required-field
+  A7 , \field Chilled Water Inlet Node Name
+       \note Name of the plant system node for chilled water entering the beam.
+       \note The two chilled water nodes can (only) be omitted to model a two-pipe heating only beam.
+       \type node
+  A8 , \field Chilled Water Outlet Node Name
+       \note Name of the plant system node for chilled water leaving the beam.
+       \type node
+  A9 , \field Hot Water Inlet Node Name
+       \note Name of the plant system node for hot water entering the beam.
+       \note The two hot water nodes can (only) be omitted to model a two-pipe cooling-only beam.
+       \type node
+  A10, \field Hot Water Outlet Node Name
+       \note Name of the plant system node for hot water leaving the beam.
+       \type node
+  N1 , \field Design Primary Air Volume Flow Rate
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+       \default autosize
+  N2 , \field Design Chilled Water Volume Flow Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \minimum 0.0
+       \autosizable
+       \default autosize
+  N3 , \field Design Hot Water Volume Flow Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \minimum 0.0
+       \autosizable
+       \default autosize
+  N4 , \field Zone Total Beam Length
+       \note Sum of the length of all the beam units in the zone represented by this terminal unit.
+       \type real
+       \units m
+       \minimum> 0.0
+       \autosizable
+       \default autosize
+  N5 , \field Rated Primary Air Flow Rate per Beam Length
+       \note Primary air supply flow rate normalized by beam length.
+       \type real
+       \units m3/s-m
+       \minimum> 0.0
+       \default 0.035
+  N6 , \field Beam Rated Cooling Capacity per Beam Length
+       \note Sensible cooling capacity per meter of beam length at the rating point.
+       \type real
+       \units W/m
+       \minimum> 0.0
+       \default 600.0
+  N7 , \field Beam Rated Cooling Room Air Chilled Water Temperature Difference
+       \note Difference in temperature between the zone air and the entering chilled water at the rating point.
+       \type real
+       \units deltaC
+       \minimum> 0.0
+       \default 10.0
+  N8 , \field Beam Rated Chilled Water Volume Flow Rate per Beam Length
+       \note The volume flow rate of chilled water per meter of beam length at the rating point.
+       \type real
+       \units m3/s-m
+       \ip-units gal/min-ft
+       \minimum> 0.0
+       \default 0.00005
+  A11, \field Beam Cooling Capacity Temperature Difference Modification Factor Curve Name
+       \note Adjusts beam cooling capacity when the temperature difference between entering water and zone air
+       \note is different than at the rating point. Single independent variable is the ratio of the current
+       \note temperature difference divided by the rating point temperature difference.
+       \note This field is required when beam is connected to a chilled water plant.
+       \type object-list
+       \object-list UnivariateFunctions
+  A12, \field Beam Cooling Capacity Air Flow Modification Factor Curve Name
+       \note Adjusts beam cooling capacity when the primary air supply flow rate is different
+       \note than at the rating point. The single independent variable is the current normalized
+       \note air flow rate divided by the normalized air flow rate at the rating point.
+       \note This field is required when beam is connected to a chilled water plant.
+       \type object-list
+       \object-list UnivariateFunctions
+  A13, \field Beam Cooling Capacity Chilled Water Flow Modification Factor Curve Name
+       \note Adjusts beam cooling capacity when the normalized chilled water flow rate is different
+       \note than at the rating point. The single independent variable is the current normalized
+       \note chilled water flow rate divided by the normalized chilled water flow rate at the rating point.
+       \note This field is required when beam is connected to a chilled water plant.
+       \type object-list
+       \object-list UnivariateFunctions
+  N9 , \field Beam Rated Heating Capacity per Beam Length
+       \note Sensible heating capacity per meter of beam length at the rating point.
+       \type real
+       \units W/m
+       \minimum> 0.0
+       \default 1500.0
+  N10, \field Beam Rated Heating Room Air Hot Water Temperature Difference
+       \note Difference in temperature between the zone air and the entering hot water at the rating point.
+       \type real
+       \units deltaC
+       \minimum> 0.0
+       \default 27.8
+  N11, \field Beam Rated Hot Water Volume Flow Rate per Beam Length
+       \note The volume flow rate of hoy water per meter of beam length at the rating point.
+       \type real
+       \units m3/s-m
+       \ip-units gal/min-ft
+       \minimum> 0.0
+       \default 0.00005
+  A14, \field Beam Heating Capacity Temperature Difference Modification Factor Curve Name
+       \note Adjusts beam heating capacity when the temperature difference between entering water and zone air
+       \note is different than at the rating point. Single independent variable is the ratio of the current
+       \note temperature difference divided by the rating point temperature difference.
+       \note This field is required when beam is connected to a hot water plant.
+       \type object-list
+       \object-list UnivariateFunctions
+  A15, \field Beam Heating Capacity Air Flow Modification Factor Curve Name
+       \note Adjusts beam heating capacity when the primary air supply flow rate is different
+       \note than at the rating point. The single independent variable is the current normalized
+       \note air flow rate divided by the normalized air flow rate at the rating point.
+       \note This field is required when beam is connected to a hot water plant.
+       \type object-list
+       \object-list UnivariateFunctions
+  A16; \field Beam Heating Capacity Hot Water Flow Modification Factor Curve Name
+       \note Adjusts beam heating capacity when the normalized hot water flow rate is different
+       \note than at the rating point. The single independent variable is the current normalized
+       \note hot water flow rate divided by the normalized hot water flow rate at the rating point.
+       \note This field is required when beam is connected to a hot water plant.
+       \type object-list
+       \object-list UnivariateFunctions
+
+AirTerminal:SingleDuct:ConstantVolume:CooledBeam,
+       \memo Central air system terminal unit, single duct, constant volume, with cooled beam
+       \memo (active or passive).
+       \min-fields 23
+  A1 , \field Name
+       \type alpha
+       \required-field
+       \reference AirTerminalUnitNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Cooled Beam Type
+       \type choice
+       \required-field
+       \key Active
+       \key Passive
+  A4 , \field Supply Air Inlet Node Name
+       \type node
+       \required-field
+  A5 , \field Supply Air Outlet Node Name
+       \type node
+       \required-field
+  A6 , \field Chilled Water Inlet Node Name
+       \type node
+       \required-field
+  A7 , \field Chilled Water Outlet Node Name
+       \type node
+       \required-field
+  N1 , \field Supply Air Volumetric Flow Rate
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+       \default autosize
+  N2,  \field Maximum Total Chilled Water Volumetric Flow Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \minimum 0.0
+       \autosizable
+       \default autosize
+  N3 , \field Number of Beams
+       \note Number of individual beam units in the zone
+       \type integer
+       \minimum> 0
+       \autosizable
+       \default autosize
+  N4 , \field Beam Length
+       \note Length of an individual beam unit
+       \type real
+       \units m
+       \minimum> 0.0
+       \autosizable
+       \default autosize
+  N5 , \field Design Inlet Water Temperature
+       \type real
+       \units C
+       \minimum 0.0
+       \default 15.0
+  N6 , \field Design Outlet Water Temperature
+       \type real
+       \units C
+       \minimum 0.0
+       \default 17.0
+  N7 , \field Coil Surface Area per Coil Length
+       \type real
+       \units m2/m
+       \minimum 0.0
+       \default 5.422
+  N8 , \field Model Parameter a
+       \type real
+       \minimum 0.0
+       \default 15.3
+  N9 , \field Model Parameter n1
+       \type real
+       \minimum 0.0
+       \default 0.0
+  N10, \field Model Parameter n2
+       \type real
+       \minimum 0.0
+       \default 0.84
+  N11, \field Model Parameter n3
+       \type real
+       \minimum 0.0
+       \default 0.12
+  N12, \field Model Parameter a0
+       \note Free area of the coil in plan view per unit beam length
+       \type real
+       \units m2/m
+       \minimum 0.0
+       \default 0.171
+  N13, \field Model Parameter K1
+       \type real
+       \minimum 0.0
+       \default 0.0057
+  N14, \field Model Parameter n
+       \type real
+       \minimum 0.0
+       \default 0.4
+  N15, \field Coefficient of Induction Kin
+       \type real
+       \autocalculatable
+       \minimum 0.0
+       \maximum 4.0
+       \default Autocalculate
+  N16; \field Leaving Pipe Inside Diameter
+       \type real
+       \units m
+       \minimum> 0.0
+       \default 0.0145
+
+AirTerminal:SingleDuct:Mixer,
+       \memo The mixer air terminal unit provides a means of supplying central system
+       \memo air to the air inlet or outlet side of a zoneHVAC equipment such as a four
+       \memo pipe fan coil unit. Normally the central air would be ventilation air from
+       \memo a dedicated outdoor air system (DOAS).
+   A1, \field Name
+       \required-field
+       \reference AirTerminalUnitNames
+   A2, \field ZoneHVAC Unit Object Type
+       \required-field
+       \type choice
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:UnitVentilator
+       \key AirLoopHVAC:UnitarySystem
+       \note The type of ZoneHVAC equipment to which this terminal mixer will be connected.
+   A3, \field ZoneHVAC Unit Object Name
+       \required-field
+       \type object-list
+       \object-list DOAToZonalUnit
+       \note The name of ZoneHVAC equipment to which this terminal mixer will be connected.
+   A4, \field Mixer Outlet Node Name
+       \required-field
+       \type node
+       \note This is the outlet air node name of the mixer. This will be the inlet air node name
+       \note of the ZoneHVAC equipment if the connection type in the input field Mixer Connection
+       \note Type below is InletSide, else this will be an inlet air node name of the conditioned zone
+       \note if the connection type in the input field Mixer Connection Type below is SupplySide.
+   A5, \field Mixer Primary Air Inlet Node Name
+       \required-field
+       \type node
+       \note The primary air (treated outdoor air) inlet node name of the mixer. This will be an
+       \note outlet air node name of an AirLoopHVAC:ZoneSplitter or AirLoopHVAC:SupplyPlenum providing
+       \note the connection to the DOA system.
+   A6, \field Mixer Secondary Air Inlet Node Name
+       \required-field
+       \type node
+       \note The secondary air (recirculating air) inlet node name of the mixer. This will be
+       \note the outlet air node name of the ZoneHVAC equipment if the connection type in the
+       \note input field mixer Connection Type below is SupplySide, or else this will be an exhaust
+       \note air node name of the conditioned zone if the connection type in the input field
+       \note Mixer Connection Type below is InletSide.
+   A7, \field Mixer Connection Type
+       \required-field
+       \type choice
+       \key InletSide
+       \key SupplySide
+       \note This input field allows user to specify the mixer connection type. Valid choices
+       \note are InletSide or SupplySide. This is a required input field. If the mixer connection
+       \note type selected is InletSide, then the mixer is connected on the inlet side of the
+       \note ZoneHVAC equipment, or else if the mixer connection type selected is SupplySide, then
+       \note the mixer is connected at the outlet side of the ZoneHVAC equipment.
+   A8, \field Design Specification Outdoor Air Object Name
+       \type object-list
+       \object-list DesignSpecificationOutdoorAirNames
+       \note When the name of a DesignSpecification:OutdoorAir object is entered, the terminal
+       \note unit will adjust flow to meet this outdoor air requirement.
+       \note If Outdoor Air Flow per Person is non-zero, then the outdoor air requirement will
+       \note be computed based on the current number of occupants in the zone, as for demand controlled ventilation.
+       \note If this field is blank, then the terminal unit will be controlled using the
+       \note DesignSpecification:OutdoorAir objec referenced in the Sizing:Zone object.
+   A9; \field Per Person Ventilation Rate Mode
+       \type choice
+       \key CurrentOccupancy
+       \key DesignOccupancy
+       \default CurrentOccupancy
+       \note CurrentOccupancy models demand controlled ventilation using the current number of people
+       \note DesignOccupancy uses the total Number of People in the zone and is constant
+
+AirTerminal:DualDuct:ConstantVolume,
+       \memo Central air system terminal unit, dual duct, constant volume.
+       \min-fields 6
+  A1 , \field Name
+       \required-field
+       \reference AirTerminalUnitNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Air Outlet Node Name
+       \required-field
+       \type node
+       \note The outlet node of the terminal unit.
+       \note This is also the zone inlet node.
+  A4 , \field Hot Air Inlet Node Name
+       \required-field
+       \type node
+  A5 , \field Cold Air Inlet Node Name
+       \required-field
+       \type node
+  N1 ; \field Maximum Air Flow Rate
+       \required-field
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+
+AirTerminal:DualDuct:VAV,
+       \memo Central air system terminal unit, dual duct, variable volume.
+       \min-fields 7
+  A1 , \field Name
+       \required-field
+       \reference AirTerminalUnitNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Air Outlet Node Name
+       \required-field
+       \type node
+       \note The outlet node of the terminal unit.
+       \note This is also the zone inlet node.
+  A4 , \field Hot Air Inlet Node Name
+       \required-field
+       \type node
+  A5 , \field Cold Air Inlet Node Name
+       \required-field
+       \type node
+  N1 , \field Maximum Damper Air Flow Rate
+       \required-field
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  N2 , \field Zone Minimum Air Flow Fraction
+       \note fraction of maximum air flow
+       \maximum 1.0
+       \minimum 0.0
+       \default 0.2
+  A6 , \field Design Specification Outdoor Air Object Name
+       \type object-list
+       \object-list DesignSpecificationOutdoorAirNames
+       \note When the name of a DesignSpecification:OutdoorAir object is entered, the terminal
+       \note unit will increase flow as needed to meet this outdoor air requirement.
+       \note If Outdoor Air Flow per Person is non-zero, then the outdoor air requirement will
+       \note be computed based on the current number of occupants in the zone.
+       \note At no time will the supply air flow rate exceed the value for Maximum Air Flow Rate.
+       \note If this field is blank, then the terminal unit will not be controlled for outdoor air flow.
+  A7 ; \field Minimum Air Flow Turndown Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field adjusts the design minimum flow rate by multiplying it using this schedule of fraction
+       \note values. This field is used with "Zone Minimum Air Flow Fraction". Schedule values are fractions
+       \note 0.0 to 1.0. This field adjusts the minimum airflow turndown below the design minimum air flow
+       \note and is intended for use with ASHRAE Standard 170. If this field is left blank, then the turndown
+       \note minimum air flow fraction value is set to 1 and the VAV air terminal uses fixed fraction specified
+       \note in the field "Zone Minimum Air Flow Fraction".
+
+AirTerminal:DualDuct:VAV:OutdoorAir,
+       \memo Central air system terminal unit, dual duct, variable volume with special controls.
+       \memo One VAV duct is controlled to supply ventilation air and the other VAV duct is
+       \memo controlled to meet the zone cooling load.
+       \min-fields 7
+  A1 , \field Name
+       \required-field
+       \reference AirTerminalUnitNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Air Outlet Node Name
+       \required-field
+       \note The outlet node of the terminal unit.
+       \note This is also the zone inlet node.
+  A4 , \field Outdoor Air Inlet Node Name
+       \required-field
+       \type node
+  A5 , \field Recirculated Air Inlet Node Name
+       \type node
+  N1 , \field Maximum Terminal Air Flow Rate
+       \required-field
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+       \note If autosized this is the sum of flow needed for cooling and maximum required outdoor air
+  A6 , \field Design Specification Outdoor Air Object Name
+       \required-field
+       \type object-list
+       \object-list DesignSpecificationOutdoorAirNames
+       \note When the name of a DesignSpecification:OutdoorAir object is entered, the terminal
+       \note unit will increase flow as needed to meet this outdoor air requirement.
+       \note If Outdoor Air Flow per Person is non-zero, then the outdoor air requirement will
+       \note be computed based mode selected in the next field.
+       \note At no time will the supply air flow rate exceed the value for Maximum Air Flow Rate.
+  A7 ; \field Per Person Ventilation Rate Mode
+       \type choice
+       \key CurrentOccupancy
+       \key DesignOccupancy
+       \note CurrentOccupancy models demand controlled ventilation using the current number of people
+       \note DesignOccupancy uses the total Number of People in the zone and is constant
+
+ZoneHVAC:AirDistributionUnit,
+       \memo Central air system air distribution unit, serves as a wrapper for a specific type of
+       \memo air terminal unit. This object is referenced in a ZoneHVAC:EquipmentList.
+       \min-fields 4
+  A1 , \field Name
+       \required-field
+       \reference ZoneEquipmentNames
+  A2 , \field Air Distribution Unit Outlet Node Name
+       \required-field
+       \type node
+  A3 , \field Air Terminal Object Type
+       \type choice
+       \key AirTerminal:DualDuct:ConstantVolume
+       \key AirTerminal:DualDuct:VAV
+       \key AirTerminal:SingleDuct:ConstantVolume:Reheat
+       \key AirTerminal:SingleDuct:ConstantVolume:NoReheat
+       \key AirTerminal:SingleDuct:ConstantVolume:FourPipeBeam
+       \key AirTerminal:SingleDuct:VAV:Reheat
+       \key AirTerminal:SingleDuct:VAV:NoReheat
+       \key AirTerminal:SingleDuct:SeriesPIU:Reheat
+       \key AirTerminal:SingleDuct:ParallelPIU:Reheat
+       \key AirTerminal:SingleDuct:ConstantVolume:FourPipeInduction
+       \key AirTerminal:SingleDuct:VAV:Reheat:VariableSpeedFan
+       \key AirTerminal:SingleDuct:VAV:HeatAndCool:Reheat
+       \key AirTerminal:SingleDuct:VAV:HeatAndCool:NoReheat
+       \key AirTerminal:SingleDuct:ConstantVolume:CooledBeam
+       \key AirTerminal:DualDuct:VAV:OutdoorAir
+       \key AirTerminal:SingleDuct:UserDefined
+       \key AirTerminal:SingleDuct:Mixer
+       \required-field
+  A4 , \field Air Terminal Name
+       \required-field
+       \type object-list
+       \object-list AirTerminalUnitNames
+  N1 , \field Nominal Upstream Leakage Fraction
+       \note fraction at system design Flow; leakage Flow constant, leakage fraction
+       \note varies with variable system Flow Rate.
+       \type real
+       \minimum 0
+       \maximum 0.3
+       \default 0
+  N2 , \field Constant Downstream Leakage Fraction
+       \type real
+       \minimum 0
+       \maximum 0.3
+       \default 0
+  A5 ; \field Design Specification Air Terminal Sizing Object Name
+       \note This optional field is the name of a DesignSpecification:AirTerminal:Sizing object
+       \note which specifies sizing adjustments to be made for this terminal unit.
+       \type object-list
+       \object-list DesignSpecificationAirTerminalSizingName
+
+\group Zone HVAC Equipment Connections
+
+!*****************ZONE EQUIPMENT SPECIFICATION*********************
+!Zone Heating and Cooling Equipment are attached to zones by the following statements:
+
+ZoneHVAC:EquipmentList,
+       \extensible:6 Duplicate the six fields Zone Equipment Object Type through Sequential Heating Fraction
+       \memo List equipment in simulation order. Note that an ZoneHVAC:AirDistributionUnit
+       \memo object must be listed in this statement if there is a forced
+       \memo air system serving the zone from the air loop.
+       \memo Equipment is simulated in the order specified by Zone Equipment Cooling Sequence and
+       \memo Zone Equipment Heating or No-Load Sequence, depending on the thermostat request.
+       \memo For equipment of similar type, assign sequence 1 to the first system intended to
+       \memo serve that type of load. For situations where one or more equipment types has limited capacity or
+       \memo limited control, order the sequence so that the most controllable piece of equipment runs last.
+       \memo For example, with a dedicated outdoor air system (DOAS), the air terminal for the DOAS
+       \memo should be assigned Heating Sequence = 1 and Cooling Sequence = 1. Any other equipment should
+       \memo be assigned sequence 2 or higher so that it will see the net load after the DOAS air is added
+       \memo to the zone.
+       \min-fields 8
+  A1 , \field Name
+       \required-field
+       \reference ZoneEquipmentLists
+  A2 , \field Load Distribution Scheme
+       \type choice
+       \key SequentialLoad
+       \key UniformLoad
+       \key UniformPLR
+       \key SequentialUniformPLR
+       \default SequentialLoad
+  A3 , \field Zone Equipment 1 Object Type
+       \begin-extensible
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+       \required-field
+  A4 , \field Zone Equipment 1 Name
+       \required-field
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N1 , \field Zone Equipment 1 Cooling Sequence
+       \required-field
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N2 , \field Zone Equipment 1 Heating or No-Load Sequence
+       \required-field
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A5 , \field Zone Equipment 1 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A6 , \field Zone Equipment 1 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A7 , \field Zone Equipment 2 Object Type
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+  A8 , \field Zone Equipment 2 Name
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N3 , \field Zone Equipment 2 Cooling Sequence
+       \type integer
+       \minimum 1
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N4 , \field Zone Equipment 2 Heating or No-Load Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A9 , \field Zone Equipment 2 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A10, \field Zone Equipment 2 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A11, \field Zone Equipment 3 Object Type
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+  A12, \field Zone Equipment 3 Name
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N5 , \field Zone Equipment 3 Cooling Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N6 , \field Zone Equipment 3 Heating or No-Load Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A13, \field Zone Equipment 3 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A14, \field Zone Equipment 3 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A15, \field Zone Equipment 4 Object Type
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+  A16, \field Zone Equipment 4 Name
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N7 , \field Zone Equipment 4 Cooling Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N8 , \field Zone Equipment 4 Heating or No-Load Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A17, \field Zone Equipment 4 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A18, \field Zone Equipment 4 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A19, \field Zone Equipment 5 Object Type
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+  A20, \field Zone Equipment 5 Name
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N9 , \field Zone Equipment 5 Cooling Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N10, \field Zone Equipment 5 Heating or No-Load Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A21, \field Zone Equipment 5 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A22, \field Zone Equipment 5 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A23, \field Zone Equipment 6 Object Type
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+  A24, \field Zone Equipment 6 Name
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N11, \field Zone Equipment 6 Cooling Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N12, \field Zone Equipment 6 Heating or No-Load Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A25, \field Zone Equipment 6 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A26, \field Zone Equipment 6 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A27, \field Zone Equipment 7 Object Type
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+  A28, \field Zone Equipment 7 Name
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N13, \field Zone Equipment 7 Cooling Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N14, \field Zone Equipment 7 Heating or No-Load Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A29, \field Zone Equipment 7 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A30, \field Zone Equipment 7 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A31, \field Zone Equipment 8 Object Type
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+  A32, \field Zone Equipment 8 Name
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N15, \field Zone Equipment 8 Cooling Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N16, \field Zone Equipment 8 Heating or No-Load Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A33, \field Zone Equipment 8 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A34, \field Zone Equipment 8 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A35, \field Zone Equipment 9 Object Type
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+  A36, \field Zone Equipment 9 Name
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N17, \field Zone Equipment 9 Cooling Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N18, \field Zone Equipment 9 Heating or No-Load Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A37, \field Zone Equipment 9 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A38, \field Zone Equipment 9 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A39, \field Zone Equipment 10 Object Type
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+  A40, \field Zone Equipment 10 Name
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N19, \field Zone Equipment 10 Cooling Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N20, \field Zone Equipment 10 Heating or No-Load Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A41, \field Zone Equipment 10 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A42, \field Zone Equipment 10 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A43, \field Zone Equipment 11 Object Type
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+  A44, \field Zone Equipment 11 Name
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N21, \field Zone Equipment 11 Cooling Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N22, \field Zone Equipment 11 Heating or No-Load Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A45, \field Zone Equipment 11 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A46, \field Zone Equipment 11 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A47, \field Zone Equipment 12 Object Type
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+  A48, \field Zone Equipment 12 Name
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N23, \field Zone Equipment 12 Cooling Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N24, \field Zone Equipment 12 Heating or No-Load Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A49, \field Zone Equipment 12 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A50, \field Zone Equipment 12 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A51, \field Zone Equipment 13 Object Type
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+  A52, \field Zone Equipment 13 Name
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N25, \field Zone Equipment 13 Cooling Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N26, \field Zone Equipment 13 Heating or No-Load Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A53, \field Zone Equipment 13 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A54, \field Zone Equipment 13 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A55, \field Zone Equipment 14 Object Type
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+  A56, \field Zone Equipment 14 Name
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N27, \field Zone Equipment 14 Cooling Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N28, \field Zone Equipment 14 Heating or No-Load Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A57, \field Zone Equipment 14 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A58, \field Zone Equipment 14 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A59, \field Zone Equipment 15 Object Type
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+  A60, \field Zone Equipment 15 Name
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N29, \field Zone Equipment 15 Cooling Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N30, \field Zone Equipment 15 Heating or No-Load Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A61, \field Zone Equipment 15 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A62, \field Zone Equipment 15 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A63, \field Zone Equipment 16 Object Type
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+  A64, \field Zone Equipment 16 Name
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N31, \field Zone Equipment 16 Cooling Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N32, \field Zone Equipment 16 Heating or No-Load Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A65, \field Zone Equipment 16 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A66, \field Zone Equipment 16 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A67, \field Zone Equipment 17 Object Type
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+  A68, \field Zone Equipment 17 Name
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N33, \field Zone Equipment 17 Cooling Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N34, \field Zone Equipment 17 Heating or No-Load Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A69, \field Zone Equipment 17 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A70, \field Zone Equipment 17 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A71, \field Zone Equipment 18 Object Type
+       \type choice
+       \key ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \key ZoneHVAC:AirDistributionUnit
+       \key ZoneHVAC:EnergyRecoveryVentilator
+       \key ZoneHVAC:EvaporativeCoolerUnit
+       \key ZoneHVAC:HybridUnitaryHVAC
+       \key ZoneHVAC:ForcedAir:UserDefined
+       \key ZoneHVAC:FourPipeFanCoil
+       \key ZoneHVAC:OutdoorAirUnit
+       \key ZoneHVAC:PackagedTerminalAirConditioner
+       \key ZoneHVAC:PackagedTerminalHeatPump
+       \key ZoneHVAC:UnitHeater
+       \key ZoneHVAC:UnitVentilator
+       \key ZoneHVAC:VentilatedSlab
+       \key ZoneHVAC:WaterToAirHeatPump
+       \key ZoneHVAC:WindowAirConditioner
+       \key ZoneHVAC:Baseboard:RadiantConvective:Electric
+       \key ZoneHVAC:Baseboard:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:RadiantConvective:Steam
+       \key ZoneHVAC:CoolingPanel:RadiantConvective:Water
+       \key ZoneHVAC:Baseboard:Convective:Electric
+       \key ZoneHVAC:Baseboard:Convective:Water
+       \key ZoneHVAC:HighTemperatureRadiant
+       \key ZoneHVAC:LowTemperatureRadiant:VariableFlow
+       \key ZoneHVAC:LowTemperatureRadiant:ConstantFlow
+       \key ZoneHVAC:LowTemperatureRadiant:Electric
+       \key ZoneHVAC:Dehumidifier:DX
+       \key ZoneHVAC:IdealLoadsAirSystem
+       \key ZoneHVAC:RefrigerationChillerSet
+       \key Fan:ZoneExhaust
+       \key WaterHeater:HeatPump:PumpedCondenser
+       \key WaterHeater:HeatPump:WrappedCondenser
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key AirLoopHVAC:UnitarySystem
+  A72, \field Zone Equipment 18 Name
+       \type object-list
+       \object-list ZoneEquipmentNames
+  N35, \field Zone Equipment 18 Cooling Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests cooling
+  N36, \field Zone Equipment 18 Heating or No-Load Sequence
+       \type integer
+       \minimum 0
+       \note Specifies the zone equipment simulation order
+       \note when the zone thermostat requests heating or no load
+  A73, \field Zone Equipment 18 Sequential Cooling Fraction Schedule Name
+       \note The fraction of the remaining cooling load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+  A74; \field Zone Equipment 18 Sequential Heating Fraction Schedule Name
+       \note The fraction of the remaining heating load this equipment will attempt to serve
+       \note if the load distribution scheme is SequentialLoad, otherwise ignored.
+       \type object-list
+       \object-list ScheduleNames
+
+ZoneHVAC:EquipmentConnections,
+       \memo Specifies the HVAC equipment connections for a zone. Node names are specified for the
+       \memo zone air node, air inlet nodes, air exhaust nodes, and the air return node. A zone
+       \memo equipment list is referenced which lists all HVAC equipment connected to the zone.
+  A1 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A2 , \field Zone Conditioning Equipment List Name
+       \note Enter the name of a ZoneHVAC:EquipmentList object.
+       \required-field
+       \type object-list
+       \object-list ZoneEquipmentLists
+  A3 , \field Zone Air Inlet Node or NodeList Name
+       \type node
+  A4 , \field Zone Air Exhaust Node or NodeList Name
+       \type node
+  A5 , \field Zone Air Node Name
+       \required-field
+       \type node
+  A6 , \field Zone Return Air Node or NodeList Name
+       \type node
+  A7 , \field Zone Return Air Node 1 Flow Rate Fraction Schedule Name
+       \note This schedule is multiplied times the base return air flow rate.
+       \note If this field is left blank, the schedule defaults to 1.0 at all times.
+       \type object-list
+       \object-list ScheduleNames
+  A8 ; \field Zone Return Air Node 1 Flow Rate Basis Node or NodeList Name
+       \note The optional basis node(s) used to calculate the base return air flow
+       \note rate for the first return air node in this zone. The return air flow rate is the sum of the flow rates
+       \note at the basis node(s) multiplied by the Zone Return Air Flow Rate Fraction Schedule.
+       \note If this  field is blank, then the base return air flow rate is the total supply
+       \note inlet flow rate to the zone less the total exhaust node flow rate from the zone.
+       \type node
+
+
+\group Fans
+!*****************AIR LOOP COMPONENTS*********************
+Fan:SystemModel,
+       \memo Versatile simple fan that can be used in variable air volume, constant volume, on-off cycling, two-speed or multi-speed applications.
+       \memo Performance at different flow rates, or speed levels, is determined using separate performance curve or table
+       \memo or prescribed power fractions at discrete speed levels for two-speed or multi-speed fans.
+       \min-fields 14
+       \extensible:2
+  A1 , \field Name
+       \required-field
+       \reference Fans
+       \reference FansSystemModel
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this fan. Schedule value > 0 means the fan is available.
+       \note If this field is blank, the fan is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Air Inlet Node Name
+       \type node
+       \required-field
+  A4 , \field Air Outlet Node Name
+       \type node
+       \required-field
+  N1 , \field Design Maximum Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+  A5 , \field Speed Control Method
+       \type choice
+       \key Continuous
+       \key Discrete
+       \default Discrete
+  N2 , \field Electric Power Minimum Flow Rate Fraction
+       \type real
+       \default 0.2
+       \minimum 0.0
+       \maximum 1.0
+  N3 , \field Design Pressure Rise
+       \type real
+       \minimum> 0.0
+       \units Pa
+       \ip-units inH2O
+       \required-field
+  N4 , \field Motor Efficiency
+       \type real
+       \default 0.9
+       \minimum> 0.0
+       \maximum 1.0
+  N5 , \field Motor In Air Stream Fraction
+       \note 0.0 means fan motor outside of air stream, 1.0 means motor inside of air stream
+       \type real
+       \default 1.0
+       \minimum 0.0
+       \maximum 1.0
+  N6 , \field Design Electric Power Consumption
+       \type real
+       \units W
+       \autosizable
+       \default autosize
+       \note Fan power consumption at maximum air flow rate.
+       \note If autosized the method used to scale power is chosen in the following field
+  A6 , \field Design Power Sizing Method
+       \type choice
+       \key PowerPerFlow
+       \key PowerPerFlowPerPressure
+       \key TotalEfficiencyAndPressure
+       \default PowerPerFlowPerPressure
+  N7 , \field Electric Power Per Unit Flow Rate
+       \type real
+       \units W/(m3/s)
+       \ip-units W/(ft3/min)
+  N8 , \field Electric Power Per Unit Flow Rate Per Unit Pressure
+       \type real
+       \units W/((m3/s)-Pa)
+       \ip-units W/((ft3/min)-inH2O)
+       \default 1.66667
+  N9,  \field Fan Total Efficiency
+       \type real
+       \default 0.7
+       \minimum> 0.0
+       \maximum 1.0
+  A7 , \field Electric Power Function of Flow Fraction Curve Name
+       \note independent variable is normalized flow rate, current flow divided by Design Maximum Air Flow Rate.
+       \note dependent variable is modification factor multiplied by Design Power Consumption.
+       \note This field is required if Speed Control Method is set to Continuous or if the Number of Speeds is greater than 1 and Speed Electric Power Fraction fields are not used.
+       \type object-list
+       \object-list UnivariateFunctions
+  N10, \field Night Ventilation Mode Pressure Rise
+       \note Total system fan pressure rise at the fan when in night mode using AvailabilityManager:NightVentilation
+       \type real
+       \units Pa
+       \ip-units inH2O
+  N11, \field Night Ventilation Mode Flow Fraction
+       \note Fraction of Design Maximum Air Flow Rate to use when in night mode using AvailabilityManager:NightVentilation
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A8 , \field Motor Loss Zone Name
+        \note optional, if used fan motor heat losses that not added to air stream are transferred to zone as internal gains
+        \type object-list
+        \object-list ZoneNames
+  N12, \field Motor Loss Radiative Fraction
+        \note optional. If zone identified in previous field then this determines
+        \note the split between convection and radiation for the fan motor's skin losses
+        \type real
+        \minimum 0.0
+        \maximum 1.0
+  A9 , \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+  N13, \field Number of Speeds
+       \note number of different speed levels available when Speed Control Method is set to Discrete
+       \note Speed need to be arranged in increasing order in remaining field sets.
+       \note If set to 1, or omitted, and Speed Control Method is Discrete then constant fan speed is the design maximum.
+       \type integer
+       \default 1
+  N14, \field Speed 1 Flow Fraction
+       \begin-extensible
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N15, \field Speed 1 Electric Power Fraction
+       \note if left blank then use Electric Power Function of Flow Fraction Curve
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N16, \field Speed 2 Flow Fraction
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N17, \field Speed 2 Electric Power Fraction
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N18, \field Speed 3 Flow Fraction
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N19, \field Speed 3 Electric Power Fraction
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N20, \field Speed n Flow Fraction
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N21; \field Speed n Electric Power Fraction
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+
+Fan:ConstantVolume,
+       \memo Constant volume fan that is intended to operate continuously based on a time schedule.
+       \memo This fan will not cycle on and off based on cooling/heating load or other control
+       \memo signals.
+  \min-fields 9
+  A1 , \field Name
+       \required-field
+       \reference Fans
+       \reference FansCV
+       \reference FansCVandOnOff
+       \reference FansCVandVAV
+       \reference FansCVandOnOffandVAV
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Fan Total Efficiency
+       \type real
+       \default 0.7
+       \minimum> 0.0
+       \maximum 1.0
+  N2 , \field Pressure Rise
+       \units Pa
+       \ip-units inH2O
+       \required-field
+  N3 , \field Maximum Flow Rate
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  N4 , \field Motor Efficiency
+       \type real
+       \default 0.9
+       \minimum> 0.0
+       \maximum 1.0
+  N5 , \field Motor In Airstream Fraction
+       \note 0.0 means fan motor outside of air stream, 1.0 means motor inside of air stream
+       \type real
+       \default 1.0
+       \minimum 0.0
+       \maximum 1.0
+  A3 , \field Air Inlet Node Name
+       \type node
+       \required-field
+  A4 , \field Air Outlet Node Name
+       \type node
+       \required-field
+  A5 ; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+Fan:VariableVolume,
+       \memo Variable air volume fan where the electric power input varies according to a
+       \memo performance curve as a function of flow fraction.
+  \min-fields 17
+  A1 , \field Name
+       \required-field
+       \reference Fans
+       \reference FansVAV
+       \reference FansCVandVAV
+       \reference FansOnOffandVAV
+       \reference FansCVandOnOffandVAV
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Fan Total Efficiency
+       \type real
+       \default 0.7
+       \minimum> 0.0
+       \maximum 1.0
+  N2 , \field Pressure Rise
+       \required-field
+       \units Pa
+       \ip-units inH2O
+  N3 , \field Maximum Flow Rate
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  A3 , \field Fan Power Minimum Flow Rate Input Method
+       \type choice
+       \key Fraction
+       \key FixedFlowRate
+       \default Fraction
+  N4 , \field Fan Power Minimum Flow Fraction
+       \type real
+       \maximum 1.0
+       \minimum 0.0
+       \default 0.25
+  N5 , \field Fan Power Minimum Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum 0.0
+  N6 , \field Motor Efficiency
+       \type real
+       \default 0.9
+       \minimum> 0.0
+       \maximum 1.0
+  N7 , \field Motor In Airstream Fraction
+       \note 0.0 means fan motor outside of air stream, 1.0 means motor inside of air stream
+       \type real
+       \default 1.0
+       \minimum 0.0
+       \maximum 1.0
+  N8 , \field Fan Power Coefficient 1
+       \note all Fan Power Coefficients should not be 0.0 or no fan power will be consumed.
+       \note Fan Power Coefficents are specified as function of full flow rate/power
+       \note Equation:
+  N9 , \field Fan Power Coefficient 2
+  N10, \field Fan Power Coefficient 3
+  N11, \field Fan Power Coefficient 4
+  N12, \field Fan Power Coefficient 5
+  A4 , \field Air Inlet Node Name
+       \type node
+       \required-field
+  A5 , \field Air Outlet Node Name
+       \type node
+       \required-field
+  A6 ; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+Fan:OnOff,
+       \memo Constant volume fan that is intended to cycle on and off based on cooling/heating load
+       \memo or other control signals. This fan can also operate continuously like
+       \memo Fan:ConstantVolume.
+  \min-fields 9
+  A1 , \field Name
+       \required-field
+       \reference Fans
+       \reference FansCVandOnOff
+       \reference FansOnOff
+       \reference FansOnOffandVAV
+       \reference FansCVandOnOffandVAV
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Fan Total Efficiency
+       \type real
+       \default 0.6
+       \minimum> 0.0
+       \maximum 1.0
+  N2 , \field Pressure Rise
+       \units Pa
+       \ip-units inH2O
+       \required-field
+  N3 , \field Maximum Flow Rate
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  N4 , \field Motor Efficiency
+       \type real
+       \default 0.8
+       \minimum> 0.0
+       \maximum 1.0
+  N5 , \field Motor In Airstream Fraction
+       \note 0.0 means fan motor outside of air stream, 1.0 means motor inside of air stream
+       \type real
+       \default 1.0
+       \minimum 0.0
+       \maximum 1.0
+  A3 , \field Air Inlet Node Name
+       \type node
+       \required-field
+  A4 , \field Air Outlet Node Name
+       \type node
+       \required-field
+  A5 , \field Fan Power Ratio Function of Speed Ratio Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+  A6 , \field Fan Efficiency Ratio Function of Speed Ratio Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+  A7 ; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+Fan:ZoneExhaust,
+       \memo Models a fan that exhausts air from a zone.
+  \min-fields 7
+  A1 , \field Name
+       \required-field
+       \reference FansZoneExhaust
+       \reference ZoneEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Fan Total Efficiency
+       \type real
+       \default 0.6
+       \minimum> 0.0
+       \maximum 1.0
+  N2 , \field Pressure Rise
+       \units Pa
+       \ip-units inH2O
+       \required-field
+  N3 , \field Maximum Flow Rate
+       \units m3/s
+       \minimum 0.0
+  A3 , \field Air Inlet Node Name
+       \type node
+       \required-field
+  A4 , \field Air Outlet Node Name
+       \type node
+       \required-field
+  A5 , \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+  A6 , \field Flow Fraction Schedule Name
+       \note If field is used, then when fan runs the exhausted air flow rate is controlled to be the scheduled fraction times the Maximum Flow Rate
+       \type object-list
+       \object-list ScheduleNames
+  A7 , \field System Availability Manager Coupling Mode
+       \note Control if fan is to be interlocked with HVAC system Availability Managers or not.
+       \type choice
+       \key Coupled
+       \key Decoupled
+       \default Coupled
+  A8 , \field Minimum Zone Temperature Limit Schedule Name
+       \note If field is used, the exhaust fan will not run if the zone temperature is lower than this limit
+       \type object-list
+       \object-list ScheduleNames
+  A9 ; \field Balanced Exhaust Fraction Schedule Name
+       \note Used to control fan's impact on flow at the return air node. Enter the portion of the exhaust that is balanced by simple airflows.
+       \type object-list
+       \object-list ScheduleNames
+
+FanPerformance:NightVentilation,
+       \memo Specifies an alternate set of performance parameters for a fan. These alternate
+       \memo parameters are used when a system manager (such as AvailabilityManager:NightVentilation)
+       \memo sets a specified flow rate. May be used with Fan:ConstantVolume, Fan:VariableVolume and
+       \memo Fan:ComponentModel. If the fan model senses that a fixed flow rate has been set, it
+       \memo will use these alternate performance parameters. It is assumed that the fan will
+       \memo run at a fixed speed in the alternate mode.
+  A1 , \field Fan Name
+       \required-field
+       \type object-list
+       \object-list FansCVandVAV
+       \object-list FansComponentModel
+  N1 , \field Fan Total Efficiency
+       \type real
+       \required-field
+       \minimum> 0.0
+       \maximum 1.0
+  N2 , \field Pressure Rise
+       \units Pa
+       \ip-units inH2O
+       \required-field
+  N3 , \field Maximum Flow Rate
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  N4 , \field Motor Efficiency
+       \type real
+       \required-field
+       \minimum> 0
+       \maximum 1.0
+  N5 ; \field Motor in Airstream Fraction
+       \type real
+       \default 1.0
+       \minimum 0.0
+       \maximum 1.0
+       \note 0.0 means fan motor outside of airstream
+       \note 1.0 means fan motor inside of airstream
+
+Fan:ComponentModel,
+       \memo A detailed fan type for constant-air-volume (CAV) and variable-air-volume (VAV)
+       \memo systems. It includes inputs that describe the air-distribution system as well as the
+       \memo fan, drive belt (if used), motor, and variable-frequency-drive (if used).
+  A1 , \field Name
+       \required-field
+       \reference Fans
+       \reference FansComponentModel
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A3 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  A4 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Maximum Flow Rate
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  N2 , \field Minimum Flow Rate
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+  N3 , \field Fan Sizing Factor
+       \type real
+       \minimum 1.0
+       \default 1.0
+       \note Applied to specified or autosized max fan airflow
+  N4 , \field Fan Wheel Diameter
+       \required-field
+       \type real
+       \units m
+       \minimum> 0.0
+       \note Diameter of wheel outer circumference
+  N5 , \field Fan Outlet Area
+       \required-field
+       \type real
+       \units m2
+       \minimum> 0.0
+       \note Area at fan outlet plane for determining discharge velocity pressure
+  N6 , \field Maximum Fan Static Efficiency
+       \required-field
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \note Maximum ratio between power delivered to air and fan shaft input power
+       \note Determined from fan performance data
+  N7 , \field Euler Number at Maximum Fan Static Efficiency
+       \required-field
+       \type real
+       \minimum> 0.0
+       \note Euler number (Eu) determined from fan performance data
+  N8 , \field Maximum Dimensionless Fan Airflow
+       \required-field
+       \type real
+       \minimum> 0.0
+       \note Corresponds to maximum ratio between fan airflow and
+       \note fan shaft rotational speed for specified fan wheel diameter
+       \note Determined from fan performance data
+  N9 , \field Motor Fan Pulley Ratio
+       \type real
+       \minimum> 0.0
+       \default 1.0
+       \autosizable
+       \note Ratio of motor pulley diameter to fan pulley diameter
+  N10 , \field Belt Maximum Torque
+        \required-field
+        \type real
+        \units N-m
+        \minimum> 0.0
+        \autosizable
+        \note Maximum torque transmitted by belt
+  N11 , \field Belt Sizing Factor
+        \type real
+        \minimum 1.0
+        \default 1.0
+        \note Applied to specified or autosized max torque transmitted by belt
+  N12 , \field Belt Fractional Torque Transition
+        \type real
+        \minimum 0.0
+        \maximum 1.0
+        \default 0.167
+        \note Region 1 to 2 curve transition for belt normalized efficiency
+  N13 , \field Motor Maximum Speed
+        \required-field
+        \type real
+        \units rev/min
+        \minimum> 0.0
+        \note Maximum rotational speed of fan motor shaft
+  N14 , \field Maximum Motor Output Power
+        \required-field
+        \type real
+        \units W
+        \minimum> 0.0
+        \autosizable
+        \note Maximum power input to drive belt by motor
+  N15 , \field Motor Sizing Factor
+        \type real
+        \minimum 1.0
+        \default 1.0
+        \note Applied to specified or autosized motor output power
+  N16 , \field Motor In Airstream Fraction
+        \type real
+        \minimum 0.0
+        \maximum 1.0
+        \default 1.0
+        \note 0.0 means motor outside air stream
+        \note 1.0 means motor inside air stream
+  A5 , \field VFD Efficiency Type
+       \type choice
+       \key Speed
+       \key Power
+       \note Efficiency depends on fraction of full-load motor speed
+       \note Efficiency depends on  fraction of full-load motor input power
+       \note If field blank, then assumes constant VFD efficiency (0.97)
+  N17 , \field Maximum VFD Output Power
+        \required-field
+        \type real
+        \units W
+        \minimum> 0.0
+        \autosizable
+        \note Maximum power input to motor by VFD
+  N18 , \field VFD Sizing Factor
+        \type real
+        \minimum 1.0
+        \default 1.0
+        \note Applied to specified or autosized VFD output power
+  A6 , \field Fan Pressure Rise Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note Pressure rise depends on volumetric flow, system resistances,
+       \note system leakage, and duct static pressure set point
+  A7 , \field Duct Static Pressure Reset Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Function of fan volumetric flow
+       \note Minimum and maximum fan airflows correspond respectively to
+       \note minimum and maximum duct static pressure set points
+  A8 , \field Normalized Fan Static Efficiency Curve Name-Non-Stall Region
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note xfan <= 0
+       \note Curve should have maximum of 1.0
+  A9 , \field Normalized Fan Static Efficiency Curve Name-Stall Region
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note xfan > 0
+       \note Curve should have maximum of 1.0
+  A10 , \field Normalized Dimensionless Airflow Curve Name-Non-Stall Region
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note xspd <= 0
+        \note Curve should have maximum of 1.0
+  A11 , \field Normalized Dimensionless Airflow Curve Name-Stall Region
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note xspd > 0
+        \note Curve should have maximum of 1.0
+  A12 , \field Maximum Belt Efficiency Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note Determines maximum fan drive belt efficiency in log space
+        \note as function of xbelt,max
+        \note Curve should have minimum of -4.6 and maximum of 0.0
+        \note If field blank, assumes output of curve is always 1.0
+  A13 , \field Normalized Belt Efficiency Curve Name - Region 1
+        \type object-list
+        \object-list UnivariateFunctions
+        \note Region 1 (0 <= xbelt < xbelt,trans)
+        \note Curve should have minimum > 0.0 and maximum of 1.0
+        \note If field blank, assumes output of curve is always 1.0 in Region 1
+  A14 , \field Normalized Belt Efficiency Curve Name - Region 2
+        \type object-list
+        \object-list UnivariateFunctions
+        \note Region 2 (xbelt,trans <= xbelt <= 1)
+        \note Curve should have minimum > 0.0 and maximum of 1.0
+        \note If field blank, assumes output of curve is always 1.0 in Region 2
+  A15 , \field Normalized Belt Efficiency Curve Name - Region 3
+        \type object-list
+        \object-list UnivariateFunctions
+        \note Determines normalized drive belt efficiency Region 3 (xbelt > 1)
+        \note Curve should have minimum > 0.0 and maximum of 1.0
+        \note If field blank, assumes output of curve is always 1.0 in Region 3
+  A16 , \field Maximum Motor Efficiency Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note Curve should have minimum > 0.0 and maximum of 1.0
+        \note If field blank, assumes output of curve is always 1.0
+  A17 , \field Normalized Motor Efficiency Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note Curve should have minimum > 0.0 and maximum of 1.0
+        \note If field blank, assumes output of curve is always 1.0
+  A18 , \field VFD Efficiency Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note Determines VFD efficiency as function of motor load or speed fraction
+        \note Curve should have minimum > 0.0 and maximum of 1.0
+        \note If field blank, assumes constant VFD efficiency (0.97)
+  A19 ; \field End-Use Subcategory
+        \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+        \type alpha
+        \retaincase
+        \default General
+
+\group Coils
+
+!*****************COILS*********************
+Coil:Cooling:Water,
+       \memo Chilled water cooling coil, NTU-effectiveness model, with inputs for design entering
+       \memo and leaving conditions.
+   \min-fields 15
+  A1 , \field Name
+       \required-field
+       \reference CoolingCoilName
+       \reference CoolingCoilsWater
+       \reference CoolingCoilsWaterNoHX
+       \reference AFNCoilNames
+       \reference SimpleCoils
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Design Water Flow Rate
+       \units m3/s
+       \autosizable
+       \default autosize
+       \minimum 0
+       \ip-units gal/min
+  N2 , \field Design Air Flow Rate
+       \units m3/s
+       \autosizable
+       \default autosize
+       \minimum 0
+  N3 , \field Design Inlet Water Temperature
+       \units C
+       \autosizable
+       \default autosize
+       \minimum> 0
+  N4 , \field Design Inlet Air Temperature
+       \units C
+       \autosizable
+       \default autosize
+       \minimum> 0
+  N5 , \field Design Outlet Air Temperature
+       \units C
+       \autosizable
+       \default autosize
+       \minimum> 0
+  N6 , \field Design Inlet Air Humidity Ratio
+       \units kgWater/kgDryAir
+       \autosizable
+       \default autosize
+       \minimum 0
+  N7 , \field Design Outlet Air Humidity Ratio
+       \units kgWater/kgDryAir
+       \autosizable
+       \default autosize
+       \minimum 0
+  A3 , \field Water Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Water Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A6 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  A7 , \field Type of Analysis
+       \type choice
+       \key SimpleAnalysis
+       \key DetailedAnalysis
+       \default SimpleAnalysis
+  A8 , \field Heat Exchanger Configuration
+       \type choice
+       \key CrossFlow
+       \key CounterFlow
+       \default CounterFlow
+  A9,  \field Condensate Collection Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  N8 ; \field Design Water Temperature Difference
+       \type real
+       \units deltaC
+       \minimum> 0.0
+       \note This input field is optional. If specified, it is used for sizing the Design Water Flow Rate.
+       \note If blank or omitted, the Loop Design Temperature Difference value specified in Sizing:Plant
+       \note object is used for sizing the Design Water Flow Rate.
+
+Coil:Cooling:Water:DetailedGeometry,
+       \memo Chilled water cooling coil, detailed flat fin coil model for continuous plate fins,
+       \memo with inputs for detailed coil geometry specifications.
+  A1 , \field Name
+       \required-field
+       \reference CoolingCoilName
+       \reference CoolingCoilsWater
+       \reference CoolingCoilsWaterNoHX
+       \reference AFNCoilNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Maximum Water Flow Rate
+       \units m3/s
+       \autosizable
+       \default autosize
+       \ip-units gal/min
+  N2 , \field Tube Outside Surface Area
+       \units m2
+       \autosizable
+       \default autosize
+       \note Tube Primary Surface Area
+  N3 , \field Total Tube Inside Area
+       \units m2
+       \autosizable
+       \default autosize
+       \note Total tube inside surface area
+       \minimum> 0.0
+  N4 , \field Fin Surface Area
+       \units m2
+       \autosizable
+       \default autosize
+  N5 , \field Minimum Airflow Area
+       \units m2
+       \autosizable
+       \default autosize
+       \minimum> 0.0
+  N6 , \field Coil Depth
+       \autosizable
+       \default autosize
+       \units m
+       \ip-units in
+       \minimum> 0.0
+  N7 , \field Fin Diameter
+       \units m
+       \autosizable
+       \default autosize
+       \note Fin diameter or the coil height
+       \ip-units in
+       \minimum> 0.0
+  N8 , \field Fin Thickness
+       \type real
+       \units m
+       \ip-units in
+       \minimum> 0.0
+       \default .0015
+  N9 , \field Tube Inside Diameter
+       \units m
+       \note Inner diameter of tubes
+       \ip-units in
+       \default .01445
+       \minimum> 0.0
+  N10, \field Tube Outside Diameter
+       \units m
+       \note Outer diameter of tubes
+       \ip-units in
+       \default .0159
+       \minimum> 0.0
+  N11, \field Tube Thermal Conductivity
+       \type real
+       \units W/m-K
+       \minimum 1.0
+       \default 386.0
+  N12, \field Fin Thermal Conductivity
+       \type real
+       \units W/m-K
+       \minimum 1.0
+       \default 204.0
+  N13, \field Fin Spacing
+       \units m
+       \note Fin spacing or distance
+       \ip-units in
+       \default .0018
+       \minimum> 0.0
+  N14, \field Tube Depth Spacing
+       \units m
+       \ip-units in
+       \default .026
+       \minimum> 0.0
+  N15, \field Number of Tube Rows
+       \default 4
+       \minimum> 0.0
+  N16, \field Number of Tubes per Row
+       \autosizable
+       \default autosize
+       \minimum> 0.0
+  A3 , \field Water Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Water Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A6 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  A7 , \field Condensate Collection Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  N17; \field Design Water Temperature Difference
+       \type real
+       \units deltaC
+       \minimum> 0.0
+       \note This input field is optional. If specified, it is used for sizing the Design Water Flow Rate.
+       \note If blank or omitted, the Loop Design Temperature Difference value specified in Sizing:Plant
+       \note object is used for sizing the Design Water Flow Rate.
+
+Coil:Cooling:DX,
+       \memo New general DX cooling coil supporting on or more speeds and one or or operating  modes.
+       \memo Includes DX evaporator coil, compressor, and condenser.
+       \memo Object is currently only supported by the AIRLOOPHVAC:UNITARYSYSTEM object.
+       \memo Remaining Coil:Cooling:DX* objects will be deprecated at a future date,
+       \memo after which, this object will replace all other Coil:Cooling:DX* objects.
+       \min-fields 8
+   A1, \field Name
+       \required-field
+       \type alpha
+       \reference CoilCoolingDX
+       \reference AFNCoilNames
+   A2, \field Evaporator Inlet Node Name
+       \required-field
+       \type node
+   A3, \field Evaporator Outlet Node Name
+       \required-field
+       \type node
+   A4, \field Availability Schedule Name
+       \note Schedule value > 0 means the coil is available.
+       \note If this field is blank, the coil is always available.
+       \type object-list
+       \object-list ScheduleNames
+   A5, \field Condenser Zone Name
+       \note This input field is name of a conditioned or unconditioned zone where the secondary
+       \note coil (condenser) of a DX system or heat pump is to be placed. This is an optional
+       \note input field specified only when the user desires to reject the condenser heat into a
+       \note zone. The heat rejected is modeled as internal sensible heat gain of the zone.
+       \type object-list
+       \object-list ZoneNames
+   A6, \field Condenser Inlet Node Name
+       \required-field
+       \note This is the name of an air node in the simulation. This may be an explicitly defined outdoor
+       \note air node, or it may be a separate air node.
+       \type node
+   A7, \field Condenser Outlet Node Name
+       \required-field
+       \note This is the name of an air node in the simulation.
+       \type node
+   A8, \field Performance Object Name
+       \required-field
+       \type object-list
+       \object-list DXCoolingPerformanceNames
+   A9, \field Condensate Collection Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  A10; \field Evaporative Condenser Supply Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+
+Coil:Cooling:DX:CurveFit:Performance,
+       \memo DX cooling coil performance specification referencing one or more
+       \memo operating modes. Mode 1 is always the base design operating mode.
+       \memo Additional modes are optional states such as subcool reheat for humidity control.
+       \min-fields 11
+   A1, \field Name
+       \required-field
+       \type alpha
+       \reference DXCoolingPerformanceNames
+   N1, \field Crankcase Heater Capacity
+       \type real
+       \minimum 0.0
+       \default 0.0
+       \units W
+       \ip-units W
+   N2, \field Minimum Outdoor Dry-Bulb Temperature for Compressor Operation
+       \type real
+       \default -25.0
+       \units C
+   N3, \field Maximum Outdoor Dry-Bulb Temperature for Crankcase Heater Operation
+       \type real
+       \minimum 0.0
+       \default 10.0
+       \units C
+   N4, \field Unit Internal Static Air Pressure
+       \note Enter pressure drop for the unit containing the coil.
+       \note This value is only used to calculate Energy Efficiency Ratio
+       \note (EER), Integrated Energy Efficiency Ratio (IEER), and the
+       \note Standard Rating (Net) Cooling Capacity. This value is not
+       \note used for modeling the evaporator fan during simulations.
+       \type real
+       \units Pa
+       \minimum> 0.0
+   A2, \field Capacity Control Method
+       \type choice
+       \key Discrete
+       \key Continuous
+       \default Discrete
+   N5, \field Evaporative Condenser Basin Heater Capacity
+       \note This field is only used for Condenser Type = EvaporativelyCooled and for periods
+       \note when the basin heater is available (field Basin Heater Operating Schedule Name).
+       \note For this situation, the heater maintains the basin water temperature at the basin heater
+       \note setpoint temperature when the outdoor air temperature falls below the setpoint temperature.
+       \note The basin heater only operates when the DX coil is off.
+       \type real
+       \units W/K
+       \minimum 0.0
+       \default 0.0
+   N6, \field Evaporative Condenser Basin Heater Setpoint Temperature
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Enter the outdoor dry-bulb temperature when the basin heater turns on.
+       \type real
+       \units C
+       \minimum 2.0
+       \default 2.0
+   A3, \field Evaporative Condenser Basin Heater Operating Schedule Name
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+       \note air dry-bulb temperature is below the basin heater setpoint temperature.
+       \note If a schedule name is not entered, the basin heater is allowed to operate
+       \note throughout the entire simulation.
+       \type object-list
+       \object-list ScheduleNames
+   A4, \field Compressor Fuel Type
+       \type choice
+       \key Electricity
+       \key NaturalGas
+       \key Propane
+       \key Diesel
+       \key Gasoline
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key OtherFuel1
+       \key OtherFuel2
+       \default Electricity
+   A5, \field Base Operating Mode
+       \note Operating Mode 1 is always used as the base design operating mode.
+       \required-field
+       \type object-list
+       \object-list DXCoolingOperatingModeNames
+   A6, \field Alternative Operating Mode 1
+       \note The alternative operating mode is used for enhanced dehumidification.
+       \note If this is blank, the coil will always operate in the base operating mode.
+       \note If an alternate mode is defined here, the coil will use the enhanced mode if
+       \note activated by the parent system controls.
+       \type object-list
+       \object-list DXCoolingOperatingModeNames
+   A7; \field Alternative Operating Mode 2
+       \note The alternative operating mode is used for enhanced dehumidification.
+       \note If this is blank, the coil will always operate in the base operating mode or
+       \note Alternative Mode 1. If both Alternative Operating Mode 1 and Mode 2 are defined here,
+       \note the coil will perform both Subcool and Reheat modes for enhanced dehumidification.
+       \note Alternative Operating Mode 1 is used as Subcool mode, and Alternative Operating Mode 2
+       \note is used as Reheat mode.
+       \type object-list
+       \object-list DXCoolingOperatingModeNames
+
+Coil:Cooling:DX:CurveFit:OperatingMode,
+       \memo DX cooling coil performance for a single operating mode which may have one or more speeds.
+       \min-fields 13
+   A1, \field Name
+       \required-field
+       \type alpha
+       \reference DXCoolingOperatingModeNames
+   N1, \field Rated Gross Total Cooling Capacity
+       \note Total (sensible+latent) cooling capacity not accounting for the effect of supply air fan heat.
+       \note Rating point: air entering the evaporator coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+       \note air entering the condenser coil at 35 C dry-bulb/23.9 C wet-bulb.
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \default autosize
+       \note gross capacity excluding supply air fan heat
+   N2, \field Rated Evaporator Air Flow Rate
+       \note Flow rate corresponding to rated total cooling capacity, Rated SHR and Rated COP.
+       \note Should be between 0.00004027 m3/s and 0.00006041 m3/s per watt of rated total cooling capacity.
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+   N3, \field Rated Condenser Air Flow Rate
+       \note Used to calculate evaporative condenser water use.
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+   N4, \field Maximum Cycling Rate
+       \note The maximum on-off cycling Rate for the compressor, which occurs at 50% run time
+       \note fraction. Suggested value is 3; zero value means latent degradation model is disabled.
+       \type real
+       \units cycles/hr
+       \minimum 0.0
+       \maximum 5.0
+       \default 0.0
+   N5, \field Ratio of Initial Moisture Evaporation Rate and Steady State Latent Capacity
+       \note Ratio of the initial moisture evaporation rate from the cooling coil (when
+       \note the compressor first turns off) and the coil's steady state latent capacity
+       \note at rated air flow rate and temperature conditions. Suggested value is 1.5; zero value
+       \note means latent degradation model is disabled.
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 5.0
+       \default 0.0
+   N6, \field Latent Capacity Time Constant
+       \note Time constant for the cooling coil's latent capacity to reach steady state after
+       \note startup. Suggested value is 45; zero value means latent degradation model is disabled.
+       \type real
+       \units s
+       \minimum 0.0
+       \maximum 500.0
+       \default 0.0
+   N7, \field Nominal Time for Condensate Removal to Begin
+       \note The nominal time for condensate to begin leaving the coil's condensate
+       \note drain line at the coil's rated air flow rate and temperature conditions.
+       \note Nominal time is equal to the ratio of the energy of the coil's maximum
+       \note condensate holding capacity (J) to the coil's steady state latent capacity (W).
+       \note Suggested value is 1000; zero value means latent degradation model is disabled.
+       \type real
+       \units s
+       \minimum 0.0
+       \maximum 3000.0
+       \default 0.0
+   A2, \field Apply Latent Degradation to Speeds Greater than 1
+       \type choice
+       \key Yes
+       \key No
+       \default No
+   A3, \field Condenser Type
+       \type choice
+       \key AirCooled
+       \key EvaporativelyCooled
+       \default AirCooled
+   N8, \field Nominal Evaporative Condenser Pump Power
+       \note Rated power consumed by the evaporative condenser's water pump
+       \type real
+       \units W
+       \minimum 0.0
+       \default 0.0
+       \autosizable
+   N9, \field Nominal Speed Number
+       \note Must be lower than or equal to the highest speed number.
+       \note If blank, defaults to the highest speed number used.
+       \type integer
+   A4, \field Speed 1 Name
+       \required-field
+       \type object-list
+       \object-list DXCoolingSpeedNames
+   A5, \field Speed 2 Name
+       \type object-list
+       \object-list DXCoolingSpeedNames
+   A6, \field Speed 3 Name
+       \type object-list
+       \object-list DXCoolingSpeedNames
+   A7, \field Speed 4 Name
+       \type object-list
+       \object-list DXCoolingSpeedNames
+   A8, \field Speed 5 Name
+       \type object-list
+       \object-list DXCoolingSpeedNames
+  A9, \field Speed 6 Name
+       \type object-list
+       \object-list DXCoolingSpeedNames
+  A10, \field Speed 7 Name
+       \type object-list
+       \object-list DXCoolingSpeedNames
+  A11, \field Speed 8 Name
+       \type object-list
+       \object-list DXCoolingSpeedNames
+  A12, \field Speed 9 Name
+       \type object-list
+       \object-list DXCoolingSpeedNames
+  A13; \field Speed 10 Name
+       \type object-list
+       \object-list DXCoolingSpeedNames
+
+Coil:Cooling:DX:CurveFit:Speed,
+       \memo DX cooling coil performance for a single speed within a single operating mode.
+       \min-fields 15
+   A1, \field Name
+       \required-field
+       \type alpha
+       \reference DXCoolingSpeedNames
+   N1, \field Gross Total Cooling Capacity Fraction
+       \note Ratio of capacity at this speed to the
+       \note operating mode Rated Gross Total Cooling Capacity
+       \required-field
+       \type real
+       \minimum> 0.0
+   N2, \field Evaporator Air Flow Rate Fraction
+       \note Ratio of capacity at this speed to the
+       \note operating mode Rated Evaporator Air Flow Rate
+       \required-field
+       \type real
+       \minimum> 0.0
+   N3, \field Condenser Air Flow Rate Fraction
+       \note Ratio of condenser air flow at this speed to the
+       \note operating mode Rated Condenser Air Flow Rate
+       \type real
+       \minimum> 0.0
+   N4, \field Gross Sensible Heat Ratio
+       \note Rated sensible heat ratio (gross sensible capacity/gross total capacity)
+       \note sensible and total capacities do not include supply fan heat
+       \type real
+       \minimum 0.1
+       \maximum 1.0
+       \autosizable
+       \default autosize
+   N5, \field Gross Cooling COP
+       \note Gross cooling capacity divided by power input to the compressor and condenser fan.
+       \note Does not include supply fan heat or supply fan electrical energy input.
+       \type real
+       \units W/W
+       \minimum> 0.0
+       \default 3.0
+   N6, \field Active Fraction of Coil Face Area
+       \note The fraction of the cooling coil face which is actively cooled at this speed.
+       \note For non-split-face coils, this should be 1.0.
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 1.0
+   N7, \field Rated Evaporator Fan Power Per Volume Flow Rate
+       \note Enter the evaporator fan power per air volume flow rate at the rated test conditions.
+       \note The test conditions vary external static pressure based on total cooling capacity.
+       \note This value is only used to calculate Seasonal Energy Efficiency Ratio (SEER), and the
+       \note Standard Rating (Net) Cooling Capacity which will be outputs in the EnergyPlus eio file.
+       \note This value is not used for modeling the evaporator fan during simulations.
+       \type real
+       \units W/(m3/s)
+       \minimum 0.0
+       \maximum 1250.0
+       \default 773.3
+   N8, \field Evaporative Condenser Pump Power Fraction
+       \note Ratio of evaporative condenser pump power at this speed to the
+       \note operating mode Nominal Evaporative Condenser Pump Power
+       \type real
+       \minimum> 0.0
+       \default 1.0
+   N9, \field Evaporative Condenser Effectiveness
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.9
+   A2, \field Total Cooling Capacity Modifier Function of Temperature Curve Name
+       \note biquadratic curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note quadratic curve = a + b*edb + c*edb**2
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+   A3, \field Total Cooling Capacity Modifier Function of Air Flow Fraction Curve Name
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = Fraction of the full load flow
+       \type object-list
+       \object-list UnivariateFunctions
+   A4, \field Energy Input Ratio Modifier Function of Temperature Curve Name
+       \note curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+   A5, \field Energy Input Ratio Modifier Function of Air Flow Fraction Curve Name
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = Fraction of the full load flow
+       \type object-list
+       \object-list UnivariateFunctions
+   A6, \field Part Load Fraction Correlation Curve Name
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note PLR = part load ratio (cooling load/steady state capacity)
+       \type object-list
+       \object-list UnivariateFunctions
+   N10,\field Rated Waste Heat Fraction of Power Input
+       \note Recoverable waste heat at full load and rated conditions
+       \type real
+       \units dimensionless
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.2
+   A7, \field Waste Heat Modifier Function of Temperature Curve Name
+       \note curve = a + b*cdb + c*cdb**2 + d*edb + e*edb**2 + f*cdb*edb
+       \note cdb = entering condenser dry-bulb temperature (C)
+       \note edb = entering coil dry-bulb temperature (C)
+       \type object-list
+       \object-list BivariateFunctions
+   A8, \field Sensible Heat Ratio Modifier Function of Temperature Curve Name
+       \note curve = a + b*wb + c*wb**2 + d*db + e*db**2 + f*wb*db
+       \note wb = entering wet-bulb temperature seen by the DX cooling coil (C)
+       \note db = entering dry-bulb temperature seen by the DX cooling coil (C)
+       \note entering temperature can be outside air or pretreated air.
+       \note If this curve is used and the Sensible Heat Ratio Modifier Function of Flow Fraction (SHRFFF)
+       \note Curve Name is blank, the SHRFFF is assumed to be a constant value of 1.0.
+       \type object-list
+       \object-list BivariateFunctions
+  A9;  \field Sensible Heat Ratio Modifier Function of Flow Fraction Curve Name
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+       \note If this curve is used and the Sensible Heat Ratio Modifier Function of Temperature Curve Name (SHRFT)
+       \note Curve Name is blank, the SHRFT is assumed to be a constant value of 1.0.
+       \type object-list
+       \object-list UnivariateFunctions
+
+Coil:Cooling:DX:SingleSpeed,
+       \memo Direct expansion (DX) cooling coil and condensing unit (includes electric compressor
+       \memo and condenser fan), single-speed. Optional inputs for moisture evaporation from wet
+       \memo coil when compressor cycles off with continuous fan operation.
+  \min-fields 14
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference CoolingCoilsDX
+       \reference CoolingCoilsDXSingleSpeed
+       \reference CoolingCoilsDXMultiModeOrSingleSpeed
+       \reference DesuperHeatingCoilSources
+       \reference AFNCoilNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Gross Rated Total Cooling Capacity
+       \note Total cooling capacity not accounting for the effect of supply air fan heat
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note gross capacity excluding supply air fan heat
+       \note rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+       \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+  N2 , \field Gross Rated Sensible Heat Ratio
+       \required-field
+       \type real
+       \minimum 0.5
+       \maximum 1.0
+       \autosizable
+       \note Rated sensible heat ratio (gross sensible capacity/gross total capacity)
+       \note sensible and total capacities do not include supply fan heat
+  N3 , \field Gross Rated Cooling COP
+       \note Gross cooling capacity divided by power input to the compressor and outdoor fan,
+       \note does not include supply fan heat or supply fan electrical energy input
+       \type real
+       \units W/W
+       \minimum> 0.0
+       \default 3.0
+  N4 , \field Rated Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Flow rate corresponding to rated total cooling capacity, Rated SHR and Rated COP
+       \note should be between 0.00004027 m3/s and .00006041 m3/s per watt of rated total cooling capacity
+  N5 , \field Rated Evaporator Fan Power Per Volume Flow Rate
+       \note Enter the evaporator fan power per air volume flow rate at the rated test conditions.
+       \note The test conditions vary external static pressure based on total cooling capacity.
+       \note This value is only used to calculate Seasonal Energy Efficiency Ratio (SEER), Energy
+       \note Efficiency Ratio (EER), Integrated Energy Efficiency Ratio (IEER), and the Standard Rating
+       \note (Net) Cooling Capacity which will be outputs in the EnergyPlus eio file. This value is not
+       \note used for modeling the evaporator fan during simulations.
+       \type real
+       \units W/(m3/s)
+       \minimum 0.0
+       \maximum 1250.0
+       \default 773.3
+  A3 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Total Cooling Capacity Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+  A6 , \field Total Cooling Capacity Function of Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = Fraction of the full load flow
+  A7 , \field Energy Input Ratio Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+  A8 , \field Energy Input Ratio Function of Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = Fraction of the full load flow
+  A9 , \field Part Load Fraction Correlation Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note PLR = part load ratio (cooling load/steady state capacity)
+  N6 , \field Minimum Outdoor Dry-Bulb Temperature for Compressor Operation
+       \type real
+       \default -25.0
+       \units C
+  N7 , \field Nominal Time for Condensate Removal to Begin
+       \type real
+       \units s
+       \minimum 0.0
+       \maximum 3000.0
+       \default 0.0
+       \note The nominal time for condensate to begin leaving the coil's condensate
+       \note drain line at the coil's rated air flow rate and temperature conditions.
+       \note Nominal time is equal to the ratio of the energy of the coil's maximum
+       \note condensate holding capacity (J) to the coil's steady state latent capacity (W).
+       \note Suggested value is 1000; zero value means latent degradation model is disabled.
+  N8 , \field Ratio of Initial Moisture Evaporation Rate and Steady State Latent Capacity
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 5.0
+       \default 0.0
+       \note Ratio of the initial moisture evaporation rate from the cooling coil (when
+       \note the compressor first turns off) and the coil's steady state latent capacity
+       \note at rated air flow rate and temperature conditions. Suggested value is 1.5; zero value
+       \note means latent degradation model is disabled.
+  N9 , \field Maximum Cycling Rate
+       \type real
+       \units cycles/hr
+       \minimum 0.0
+       \maximum 5.0
+       \default 0.0
+       \note The maximum on-off cycling Rate for the compressor, which occurs at 50% run time
+       \note fraction. Suggested value is 3; zero value means latent degradation model is disabled.
+  N10, \field Latent Capacity Time Constant
+       \type real
+       \units s
+       \minimum 0.0
+       \maximum 500.0
+       \default 0.0
+       \note Time constant for the cooling coil's latent capacity to reach steady state after
+       \note startup. Suggested value is 45; zero value means latent degradation model is disabled.
+  A10, \field Condenser Air Inlet Node Name
+       \type node
+       \note Enter the name of an outdoor air node. This node name is also specified in
+       \note an OutdoorAir:Node or OutdoorAir:NodeList object.
+  A11, \field Condenser Type
+       \type choice
+       \key AirCooled
+       \key EvaporativelyCooled
+       \default AirCooled
+  N11, \field Evaporative Condenser Effectiveness
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.9
+  N12, \field Evaporative Condenser Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Used to calculate evaporative condenser water use
+  N13, \field Evaporative Condenser Pump Rated Power Consumption
+       \type real
+       \units W
+       \minimum 0.0
+       \default 0.0
+       \autosizable
+       \note Rated power consumed by the evaporative condenser's water pump
+  N14, \field Crankcase Heater Capacity
+       \type real
+       \minimum 0.0
+       \default 0.0
+       \units W
+       \ip-units W
+  N15, \field Maximum Outdoor Dry-Bulb Temperature for Crankcase Heater Operation
+       \type real
+       \minimum 0.0
+       \default 10.0
+       \units C
+  A12, \field Supply Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  A13, \field Condensate Collection Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  N16, \field Basin Heater Capacity
+       \type real
+       \units W/K
+       \minimum 0.0
+       \default 0.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled and for periods
+       \note when the basin heater is available (field Basin Heater Operating Schedule Name).
+       \note For this situation, the heater maintains the basin water temperature at the basin heater
+       \note setpoint temperature when the outdoor air temperature falls below the setpoint temperature.
+       \note The basin heater only operates when the DX coil is off.
+  N17, \field Basin Heater Setpoint Temperature
+       \type real
+       \units C
+       \minimum 2.0
+       \default 2.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Enter the outdoor dry-bulb temperature when the basin heater turns on.
+  A14, \field Basin Heater Operating Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+       \note air dry-bulb temperature is below the basin heater setpoint temperature.
+       \note If a schedule name is not entered, the basin heater is allowed to operate
+       \note throughout the entire simulation.
+  A15, \field Sensible Heat Ratio Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*db + e*db**2 + f*wb*db
+       \note wb = entering wet-bulb temperature seen by the DX cooling coil (C)
+       \note db = entering dry-bulb temperature seen by the DX cooling coil (C)
+       \note entering temperature can be outside air or pretreated air.
+  A16, \field Sensible Heat Ratio Function of Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A17, \field Report ASHRAE Standard 127 Performance Ratings
+       \type choice
+       \key Yes
+       \key No
+       \default No
+       \note when this input field is specified as Yes then the program calculates the net cooling
+       \note capacity and total electric power input of DX cooling coils per ANSI/ASHRAE 127.
+  A18; \field Zone Name for Condenser Placement
+       \type object-list
+       \object-list ZoneNames
+       \note This input field is name of a conditioned or unconditioned zone where the secondary
+       \note coil (condenser) of DX system or a heat pump is to be placed. This is an optional
+       \note input field specified only when user desires to reject the condenser heat into a
+       \note zone. The heat rejected is modelled as internal sensible heat gain of the zone.
+
+Coil:Cooling:DX:TwoSpeed,
+       \memo Direct expansion (DX) cooling coil and condensing unit (includes electric compressor
+       \memo and condenser fan), two-speed (or variable-speed). Requires two sets of performance
+       \memo data and will interpolate between speeds. Modeled as a single coil (multi-speed
+       \memo compressor or multiple compressors with row split or intertwined coil).
+  \min-fields 20
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference CoolingCoilsDX
+       \reference DesuperHeatingCoilSources
+       \reference AFNCoilNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field High Speed Gross Rated Total Cooling Capacity
+       \note Total cooling capacity not accounting for the effect of supply air fan heat
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note gross capacity excluding supply air fan heat
+       \note rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+       \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+  N2 , \field High Speed Rated Sensible Heat Ratio
+       \required-field
+       \type real
+       \minimum 0.5
+       \maximum 1.0
+       \autosizable
+       \note Rated sensible heat ratio (gross sensible capacity/gross total capacity)
+       \note sensible and total capacities do not include supply fan heat
+  N3 , \field High Speed Gross Rated Cooling COP
+       \note Gross cooling capacity divided by power input to the compressor and outdoor fan,
+       \note does not include supply fan heat or supply fan electrical energy input
+       \type real
+       \units W/W
+       \minimum> 0.0
+       \default 3.0
+  N4 , \field High Speed Rated Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Flow rate corresponding to rated total cooling capacity, Rated SHR
+       \note and Rated COP. Should be between 0.00004027 m3/s and .00006041 m3/s per watt
+       \note of rated total cooling capacity.
+  N5 , \field Unit Internal Static Air Pressure
+       \note Enter pressure drop for the unit containing the coil.
+       \note This value is only used to calculate Energy Efficiency Ratio
+       \note (EER), Integrated Energy Efficiency Ratio (IEER), and the
+       \note Standard Rating (Net) Cooling Capacity. This value is not
+       \note used for modeling the evaporator fan during simulations.
+       \type real
+       \units Pa
+       \minimum> 0.0
+  A3 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Total Cooling Capacity Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+  A6 , \field Total Cooling Capacity Function of Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A7 , \field Energy Input Ratio Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+  A8 , \field Energy Input Ratio Function of Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A9 , \field Part Load Fraction Correlation Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note PLR = part load ratio (cooling load/steady state capacity)
+  N6 , \field Low Speed Gross Rated Total Cooling Capacity
+       \note Total cooling capacity not accounting for the effect of supply air fan heat
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note gross capacity excluding supply air fan heat
+       \note rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+       \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+  N7 , \field Low Speed Gross Rated Sensible Heat Ratio
+       \required-field
+       \type real
+       \minimum 0.5
+       \maximum 1.0
+       \autosizable
+       \note Gross Rated Sensible Heat Ratio (gross sensible capacity/gross total capacity)
+       \note sensible and total capacities do not include supply fan heat
+  N8 , \field Low Speed Gross Rated Cooling COP
+       \note Gross cooling capacity divided by power input to the compressor and outdoor fan,
+       \note does not include supply fan heat or supply fan electrical energy input
+       \type real
+       \units W/W
+       \minimum> 0.0
+       \default 3.0
+  N9 , \field Low Speed Rated Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Flow rate corresponding to rated total cooling capacity, Rated SHR
+       \note and Rated COP. Should be between 0.00004027 m3/s and .00006041 m3/s per watt
+       \note of rated total cooling capacity.
+  A10, \field Low Speed Total Cooling Capacity Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+  A11, \field Low Speed Energy Input Ratio Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+  A12, \field Condenser Air Inlet Node Name
+       \type node
+       \note Enter the name of an outdoor air node. This node name is also specified in
+       \note an OutdoorAir:Node or OutdoorAir:NodeList object.
+  A13, \field Condenser Type
+       \type choice
+       \key AirCooled
+       \key EvaporativelyCooled
+       \default AirCooled
+  N10, \field Minimum Outdoor Dry-Bulb Temperature for Compressor Operation
+       \type real
+       \default -25.0
+       \units C
+  N11, \field High Speed Evaporative Condenser Effectiveness
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.9
+  N12, \field High Speed Evaporative Condenser Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Used to calculate evaporative condenser water use
+  N13, \field High Speed Evaporative Condenser Pump Rated Power Consumption
+       \type real
+       \units W
+       \minimum 0.0
+       \autosizable
+       \note Rated power consumed by the evaporative condenser's water pump at high speed
+  N14, \field Low Speed Evaporative Condenser Effectiveness
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.9
+  N15, \field Low Speed Evaporative Condenser Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Used to calculate evaporative condenser water use
+  N16, \field Low Speed Evaporative Condenser Pump Rated Power Consumption
+       \type real
+       \units W
+       \minimum 0.0
+       \autosizable
+       \note Rated power consumed by the evaporative condenser's water pump at low speed
+  A14, \field Supply Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  A15, \field Condensate Collection Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  N17, \field Basin Heater Capacity
+       \type real
+       \units W/K
+       \minimum 0.0
+       \default 0.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled and for periods
+       \note when the basin heater is available (field Basin Heater Operating Schedule Name).
+       \note For this situation, the heater maintains the basin water temperature at the basin heater
+       \note setpoint temperature when the outdoor air temperature falls below the setpoint temperature.
+       \note The basin heater only operates when the DX coil is off.
+  N18, \field Basin Heater Setpoint Temperature
+       \type real
+       \units C
+       \minimum 2.0
+       \default 2.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Enter the outdoor dry-bulb temperature when the basin heater turns on.
+  A16, \field Basin Heater Operating Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+       \note air dry-bulb temperature is below the basin heater setpoint temperature.
+       \note If a schedule name is not entered, the basin heater is allowed to operate
+       \note throughout the entire simulation.
+  A17, \field Sensible Heat Ratio Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*db + e*db**2 + f*wb*db
+       \note wb = entering wet-bulb temperature seen by the DX cooling coil (C)
+       \note db = entering dry-bulb temperature seen by the DX cooling coil (C)
+       \note entering temperature can be outside air or pretreated air.
+  A18, \field Sensible Heat Ratio Function of Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A19, \field Low Speed Sensible Heat Ratio Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*db + e*db**2 + f*wb*db
+       \note wb = entering wet-bulb temperature seen by the DX cooling coil (C)
+       \note db = entering dry-bulb temperature seen by the DX cooling coil (C)
+       \note entering temperature can be outside air or pretreated air.
+  A20, \field Low Speed Sensible Heat Ratio Function of Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A21; \field Zone Name for Condenser Placement
+       \type object-list
+       \object-list ZoneNames
+       \note This input field is name of a conditioned or unconditioned zone where the secondary
+       \note coil (condenser) of DX system or a heat pump is to be placed. This is an optional
+       \note input field specified only when user desires to reject the condenser heat into a
+       \note zone. The heat rejected is modelled as internal sensible heat gain of the zone.
+
+Coil:Cooling:DX:MultiSpeed,
+       \memo Direct expansion (DX) cooling coil and condensing unit (includes electric or
+       \memo engine-driven compressor and condenser fan), multi-speed (or variable-speed).
+       \memo Optional moisture evaporation from wet coil when compressor cycles off with continuous
+       \memo fan operation. Requires two to four sets of performance data and will interpolate
+       \memo between speeds. Modeled as a single coil (multi-speed compressor or multiple
+       \memo compressors with row split or intertwined coil).
+  \min-fields 56
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference CoolingCoilsDXMultiSpeed
+       \reference DesuperHeatingWaterOnlySources
+       \reference AFNCoilNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Condenser Air Inlet Node Name
+       \type node
+       \note Enter the name of an outdoor air node. This node name is also specified in
+       \note an OutdoorAir:Node or OutdoorAir:NodeList object.
+  A6 , \field Condenser Type
+       \type choice
+       \key AirCooled
+       \key EvaporativelyCooled
+       \default AirCooled
+  N1 , \field Minimum Outdoor Dry-Bulb Temperature for Compressor Operation
+       \type real
+       \default -25.0
+       \units C
+  A7 , \field Supply Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  A8 , \field Condensate Collection Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  A9 , \field Apply Part Load Fraction to Speeds Greater than 1
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  A10, \field Apply Latent Degradation to Speeds Greater than 1
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  N2 , \field Crankcase Heater Capacity
+       \type real
+       \minimum 0.0
+       \default 0.0
+       \units W
+       \ip-units W
+  N3 , \field Maximum Outdoor Dry-Bulb Temperature for Crankcase Heater Operation
+       \type real
+       \minimum 0.0
+       \default 10.0
+       \units C
+  N4 , \field Basin Heater Capacity
+       \type real
+       \units W/K
+       \minimum 0.0
+       \default 0.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled and for periods
+       \note when the basin heater is available (field Basin Heater Operating Schedule Name).
+       \note For this situation, the heater maintains the basin water temperature at the basin heater
+       \note setpoint temperature when the outdoor air temperature falls below the setpoint temperature.
+       \note The basin heater only operates when the DX coil is off.
+  N5 , \field Basin Heater Setpoint Temperature
+       \type real
+       \units C
+       \minimum 2.0
+       \default 2.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Enter the outdoor dry-bulb temperature when the basin heater turns on.
+  A11, \field Basin Heater Operating Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+       \note air dry-bulb temperature is below the basin heater setpoint temperature.
+       \note If a schedule name is not entered, the basin heater is allowed to operate
+       \note throughout the entire simulation.
+  A12, \field Fuel Type
+       \required-field
+       \type choice
+       \key Electricity
+       \key NaturalGas
+       \key Propane
+       \key Diesel
+       \key Gasoline
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key OtherFuel1
+       \key OtherFuel2
+  N6 , \field Number of Speeds
+       \required-field
+       \type integer
+       \minimum 2
+       \maximum 4
+       \note Enter the number of the following sets of data for coil capacity, SHR, COP,
+       \note flow rate, and associated curves.
+  N7 , \field Speed 1 Gross Rated Total Cooling Capacity
+       \note Total cooling capacity not accounting for the effect of supply air fan heat
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note Gross capacity excluding supply air fan heat
+       \note Rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+       \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+       \note Speed 1 is defined as low speed
+  N8 , \field Speed 1 Gross Rated Sensible Heat Ratio
+       \required-field
+       \type real
+       \minimum 0.5
+       \maximum 1.0
+       \autosizable
+       \note Gross Rated Sensible Heat Ratio (gross sensible capacity/gross total capacity)
+       \note Sensible and total capacities do not include supply fan heat
+  N9 , \field Speed 1 Gross Rated Cooling COP
+       \note Gross cooling capacity divided by power input to the compressor and outdoor fan,
+       \note does not include supply fan heat or supply fan electrical energy input
+       \type real
+       \units W/W
+       \minimum> 0.0
+       \default 3.0
+  N10, \field Speed 1 Rated Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Flow rate corresponding to rated total cooling capacity, rated SHR and rated
+       \note COP should be between 0.00004027 m3/s and .00006041 m3/s per watt of rated total
+       \note cooling capacity
+  N11, \field Speed 1 Rated Evaporator Fan Power Per Volume Flow Rate
+       \note Enter the evaporator fan power per air volume flow rate at the rated test conditions.
+       \note The test conditions vary external static pressure based on total cooling capacity.
+       \note This value is only used to calculate Seasonal Energy Efficiency Ratio (SEER), and the
+       \note Standard Rating (Net) Cooling Capacity which will be outputs in the EnergyPlus eio file.
+       \note This value is not used for modeling the evaporator fan during simulations.
+       \type real
+       \units W/(m3/s)
+       \minimum 0.0
+       \maximum 1250.0
+       \default 773.3
+  A13, \field Speed 1 Total Cooling Capacity Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+  A14, \field Speed 1 Total Cooling Capacity Function of Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = Fraction of the full load Flow
+  A15, \field Speed 1 Energy Input Ratio Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+  A16, \field Speed 1 Energy Input Ratio Function of Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A17, \field Speed 1 Part Load Fraction Correlation Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note PLR = part load ratio (cooling load/steady state capacity)
+  N12, \field Speed 1 Nominal Time for Condensate Removal to Begin
+       \type real
+       \units s
+       \minimum 0.0
+       \maximum 3000.0
+       \default 0.0
+       \note The nominal time for condensate to begin leaving the coil's condensate
+       \note drain line at the coil's rated air flow rate and temperature conditions.
+       \note Nominal time is equal to the ratio of the energy of the coil's maximum
+       \note condensate holding capacity (J) to the coil's steady state latent capacity (W).
+       \note Suggested value is 1000; zero value means latent degradation model is disabled.
+  N13, \field Speed 1 Ratio of Initial Moisture Evaporation Rate and Steady State Latent Capacity
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 5.0
+       \default 0.0
+       \note Ratio of the initial moisture evaporation Rate from the Cooling Coil (when
+       \note the compressor first turns off) and the Coil's steady state latent capacity
+       \note at rated air flow rate and temperature conditions. Suggested value is 1.5; zero value
+       \note means latent degradation model is disabled.
+  N14, \field Speed 1 Maximum Cycling Rate
+       \type real
+       \units cycles/hr
+       \minimum 0.0
+       \maximum 5.0
+       \default 0.0
+       \note The maximum on-off cycling rate for the compressor, which occurs at 50% run time
+       \note fraction. Suggested value is 3; zero value means latent degradation
+       \note model is disabled.
+  N15, \field Speed 1 Latent Capacity Time Constant
+       \type real
+       \units s
+       \minimum 0.0
+       \maximum 500.0
+       \default 0.0
+       \note Time constant for the cooling coil's latent capacity to reach steady state after
+       \note startup. Suggested value is 45; zero value means latent degradation
+       \note model is disabled.
+  N16, \field Speed 1 Rated Waste Heat Fraction of Power Input
+       \type real
+       \units dimensionless
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.2
+       \note Recoverable waste heat at full load and rated conditions
+  A18, \field Speed 1 Waste Heat Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*odb + c*odb**2 + d*db + e*db**2 + f*odb*db
+       \note odb = Outdoor air dry-bulb temperature (C)
+       \note db = entering coil dry-bulb temperature (C)
+  N17, \field Speed 1 Evaporative Condenser Effectiveness
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.9
+  N18, \field Speed 1 Evaporative Condenser Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Used to calculate evaporative condenser water use
+  N19, \field Speed 1 Rated Evaporative Condenser Pump Power Consumption
+       \type real
+       \units W
+       \minimum 0.0
+       \autosizable
+       \note Rated power consumed by the evaporative condenser's water pump at high speed
+  N20, \field Speed 2 Gross Rated Total Cooling Capacity
+       \note Total cooling capacity not accounting for the effect of supply air fan heat
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note Gross capacity excluding supply air fan heat
+       \note Rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+       \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+  N21, \field Speed 2 Gross Rated Sensible Heat Ratio
+       \required-field
+       \type real
+       \minimum 0.5
+       \maximum 1.0
+       \autosizable
+       \note Gross Rated Sensible Heat Ratio (gross sensible capacity/gross total capacity)
+       \note Sensible and total capacities do not include supply fan heat
+  N22, \field Speed 2 Gross Rated Cooling COP
+       \note Gross cooling capacity divided by power input to the compressor and outdoor fan,
+       \note does not include supply fan heat or supply fan electrical energy input
+       \type real
+       \units W/W
+       \minimum> 0.0
+       \default 3.0
+  N23, \field Speed 2 Rated Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Flow rate corresponding to rated total cooling capacity, rated SHR and rated
+       \note COP should be between 0.00004027 m3/s and .00006041 m3/s per watt of rated total
+       \note cooling capacity for Speed 2.
+  N24, \field Speed 2 Rated Evaporator Fan Power Per Volume Flow Rate
+       \note Enter the evaporator fan power per air volume flow rate at the rated test conditions.
+       \note The test conditions vary external static pressure based on total cooling capacity.
+       \note This value is only used to calculate Seasonal Energy Efficiency Ratio (SEER), and the
+       \note Standard Rating (Net) Cooling Capacity which will be outputs in the EnergyPlus eio file.
+       \note This value is not used for modeling the evaporator fan during simulations.
+       \type real
+       \units W/(m3/s)
+       \minimum 0.0
+       \maximum 1250.0
+       \default 773.3
+  A19, \field Speed 2 Total Cooling Capacity Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+  A20, \field Speed 2 Total Cooling Capacity Function of Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A21, \field Speed 2 Energy Input Ratio Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+  A22, \field Speed 2 Energy Input Ratio Function of Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = Fraction of the full load Flow
+  A23, \field Speed 2 Part Load Fraction Correlation Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note PLR = part load ratio (Cooling load/steady state capacity)
+  N25, \field Speed 2 Nominal Time for Condensate Removal to Begin
+       \type real
+       \units s
+       \minimum 0.0
+       \maximum 3000.0
+       \default 0.0
+       \note The nominal time for condensate to begin leaving the coil's condensate
+       \note drain line at the coil's rated air flow rate and temperature conditions.
+       \note Nominal time is equal to the ratio of the energy of the coil's maximum
+       \note condensate holding capacity (J) to the coil's steady state latent capacity (W).
+       \note Suggested value is 1000; zero value means latent degradation model is disabled.
+  N26, \field Speed 2 Ratio of Initial Moisture Evaporation Rate and steady state Latent Capacity
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 5.0
+       \default 0.0
+       \note Ratio of the initial moisture evaporation rate from the cooling coil (when
+       \note the compressor first turns off) and the coil's steady state latent capacity
+       \note at rated air flow rate and temperature conditions. Suggested value is 1.5; zero value
+       \note means latent degradation model is disabled.
+  N27, \field Speed 2 Maximum Cycling Rate
+       \type real
+       \units cycles/hr
+       \minimum 0.0
+       \maximum 5.0
+       \default 0.0
+       \note The maximum on-off cycling rate for the compressor, which occurs at 50% run time
+       \note fraction. Suggested value is 3; zero value means latent degradation
+       \note model is disabled.
+  N28, \field Speed 2 Latent Capacity Time Constant
+       \type real
+       \units s
+       \minimum 0.0
+       \maximum 500.0
+       \default 0.0
+       \note Time constant for the cooling coil's latent capacity to reach steady state after
+       \note startup. Suggested value is 45; zero value means latent degradation
+       \note model is disabled.
+  N29, \field Speed 2 Rated Waste Heat Fraction of Power Input
+       \type real
+       \units dimensionless
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.2
+       \note Recoverable waste heat at full load and rated conditions
+  A24, \field Speed 2 Waste Heat Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*odb + c*odb**2 + d*db + e*db**2 + f*odb*db
+       \note odb = Outdoor air dry-bulb temperature (C)
+       \note db = entering coil dry-bulb temperature (C)
+  N30, \field Speed 2 Evaporative Condenser Effectiveness
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.9
+  N31, \field Speed 2 Evaporative Condenser Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Used to calculate evaporative condenser water use
+  N32, \field Speed 2 Rated Evaporative Condenser Pump Power Consumption
+       \type real
+       \units W
+       \minimum 0.0
+       \autosizable
+       \note Rated power consumed by the evaporative condenser's water pump at low speed
+  N33, \field Speed 3 Gross Rated Total Cooling Capacity
+       \note Total cooling capacity not accounting for the effect of supply air fan heat
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note Gross capacity excluding supply air fan heat
+       \note Rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+       \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+  N34, \field Speed 3 Gross Rated Sensible Heat Ratio
+       \type real
+       \minimum 0.5
+       \maximum 1.0
+       \autosizable
+       \note Gross Rated Sensible Heat Ratio (gross sensible capacity/gross total capacity)
+       \note Sensible and total capacities do not include supply fan heat
+  N35, \field Speed 3 Gross Rated Cooling COP
+       \note Gross cooling capacity divided by power input to the compressor and outdoor fan,
+       \note does not include supply fan heat or supply fan electrical energy input
+       \type real
+       \units W/W
+       \minimum> 0.0
+       \default 3.0
+  N36, \field Speed 3 Rated Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Flow rate corresponding to rated total cooling capacity, rated SHR and rated
+       \note COP should be between 0.00004027 m3/s and .00006041 m3/s per watt of rated total
+       \note cooling capacity for Speed 3.
+  N37, \field Speed 3 Rated Evaporator Fan Power Per Volume Flow Rate
+       \note Enter the evaporator fan power per air volume flow rate at the rated test conditions.
+       \note The test conditions vary external static pressure based on total cooling capacity.
+       \note This value is only used to calculate Seasonal Energy Efficiency Ratio (SEER), and the
+       \note Standard Rating (Net) Cooling Capacity which will be outputs in the EnergyPlus eio file.
+       \note This value is not used for modeling the evaporator fan during simulations.
+       \type real
+       \units W/(m3/s)
+       \minimum 0.0
+       \maximum 1250.0
+       \default 773.3
+  A25, \field Speed 3 Total Cooling Capacity Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+  A26, \field Speed 3 Total Cooling Capacity Function of Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A27, \field Speed 3 Energy Input Ratio Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+  A28, \field Speed 3 Energy Input Ratio Function of Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A29, \field Speed 3 Part Load Fraction Correlation Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note PLR = part load ratio (Cooling load/steady state capacity)
+  N38, \field Speed 3 Nominal Time for Condensate Removal to Begin
+       \type real
+       \units s
+       \minimum 0.0
+       \maximum 3000.0
+       \default 0.0
+       \note The nominal time for condensate to begin leaving the coil's condensate
+       \note drain line at the coil's rated air flow rate and temperature conditions.
+       \note Nominal time is equal to the ratio of the energy of the coil's maximum
+       \note condensate holding capacity (J) to the coil's steady state latent capacity (W).
+       \note Suggested value is 1000; zero value means latent degradation model is disabled.
+  N39, \field Speed 3 Ratio of Initial Moisture Evaporation Rate and steady state Latent Capacity
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 5.0
+       \default 0.0
+       \note Ratio of the initial moisture evaporation rate from the cooling coil (when
+       \note the compressor first turns off) and the coil's steady state latent capacity
+       \note at rated air flow and temperature conditions. Suggested value is 1.5; zero value
+       \note means latent degradation model is disabled.
+  N40, \field Speed 3 Maximum Cycling Rate
+       \type real
+       \units cycles/hr
+       \minimum 0.0
+       \maximum 5.0
+       \default 0.0
+       \note The maximum on-off cycling rate for the compressor, which occurs at 50% run time
+       \note fraction. Suggested value is 3; zero value means latent degradation
+       \note model is disabled.
+  N41, \field Speed 3 Latent Capacity Time Constant
+       \type real
+       \units s
+       \minimum 0.0
+       \maximum 500.0
+       \default 0.0
+       \note Time constant for the cooling coil's latent capacity to reach steady state after
+       \note startup. Suggested value is 45; zero value means latent degradation
+       \note model is disabled.
+  N42, \field Speed 3 Rated Waste Heat Fraction of Power Input
+       \type real
+       \units dimensionless
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.2
+       \note Recoverable waste heat at full load and rated conditions
+  A30, \field Speed 3 Waste Heat Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*odb + c*odb**2 + d*db + e*db**2 + f*odb*db
+       \note odb = Outdoor air dry-bulb temperature (C)
+       \note db = entering coil dry-bulb temperature (C)
+  N43, \field Speed 3 Evaporative Condenser Effectiveness
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.9
+  N44, \field Speed 3 Evaporative Condenser Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Used to calculate evaporative condenser water use
+  N45, \field Speed 3 Rated Evaporative Condenser Pump Power Consumption
+       \type real
+       \units W
+       \minimum 0.0
+       \autosizable
+       \note Rated power consumed by the evaporative condenser's water pump at Low speed
+  N46, \field Speed 4 Gross Rated Total Cooling Capacity
+       \note Total cooling capacity not accounting for the effect of supply air fan heat
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note Gross capacity excluding supply air fan heat
+       \note Rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+       \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+  N47, \field Speed 4 Gross Rated Sensible Heat Ratio
+       \type real
+       \minimum 0.5
+       \maximum 1.0
+       \autosizable
+       \note Gross Rated Sensible Heat Ratio (gross sensible capacity/gross total capacity)
+       \note Sensible and total capacities do not include supply fan heat
+  N48, \field Speed 4 Gross Rated Cooling COP
+       \note Gross cooling capacity divided by power input to the compressor and outdoor fan,
+       \note does not include supply fan heat or supply fan electrical energy input
+       \type real
+       \units W/W
+       \minimum> 0.0
+       \default 3.0
+  N49, \field Speed 4 Rated Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Flow rate corresponding to rated total cooling capacity, rated SHR and rated
+       \note COP should be between 0.00004027 m3/s and .00006041 m3/s per watt of rated total
+       \note cooling capacity for Speed 4
+  N50, \field Speed 4 Rated Evaporator Fan Power Per Volume Flow Rate
+       \note Enter the evaporator fan power per air volume flow rate at the rated test conditions.
+       \note The test conditions vary external static pressure based on total cooling capacity.
+       \note This value is only used to calculate Seasonal Energy Efficiency Ratio (SEER), and the
+       \note Standard Rating (Net) Cooling Capacity which will be outputs in the EnergyPlus eio file.
+       \note This value is not used for modeling the evaporator fan during simulations.
+       \type real
+       \units W/(m3/s)
+       \minimum 0.0
+       \maximum 1250.0
+       \default 773.3
+  A31, \field Speed 4 Total Cooling Capacity Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+  A32, \field Speed 4 Total Cooling Capacity Function of Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A33, \field Speed 4 Energy Input Ratio Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+  A34, \field Speed 4 Energy Input Ratio Function of Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A35, \field Speed 4 Part Load Fraction Correlation Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note PLR = part load ratio (cooling load/steady state capacity)
+  N51, \field Speed 4 Nominal Time for Condensate Removal to Begin
+       \type real
+       \units s
+       \minimum 0.0
+       \maximum 3000.0
+       \default 0.0
+       \note The nominal time for condensate to begin leaving the coil's condensate
+       \note drain line at the coil's rated air flow rate and temperature conditions.
+       \note Nominal time is equal to the ratio of the energy of the coil's maximum
+       \note condensate holding capacity (J) to the coil's steady state latent capacity (W).
+       \note Suggested value is 1000; zero value means latent degradation model is disabled.
+  N52, \field Speed 4 Ratio of Initial Moisture Evaporation Rate and steady state Latent Capacity
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 5.0
+       \default 0.0
+       \note Ratio of the initial moisture evaporation rate from the cooling coil (when
+       \note the compressor first turns off) and the coil's steady state latent capacity
+       \note at rated air flow rate and temperature conditions. Suggested value is 1.5; zero value
+       \note means latent degradation model is disabled.
+  N53, \field Speed 4 Maximum Cycling Rate
+       \type real
+       \units cycles/hr
+       \minimum 0.0
+       \maximum 5.0
+       \default 0.0
+       \note The maximum on-off cycling rate for the compressor, which occurs at 50% run time
+       \note fraction. Suggested value is 3; zero value means latent degradation
+       \note model is disabled.
+  N54, \field Speed 4 Latent Capacity Time Constant
+       \type real
+       \units s
+       \minimum 0.0
+       \maximum 500.0
+       \default 0.0
+       \note Time constant for the cooling coil's latent capacity to reach steady state after
+       \note startup. Suggested value is 45; zero value means latent degradation
+       \note model is disabled.
+  N55, \field Speed 4 Rated Waste Heat Fraction of Power Input
+       \type real
+       \units dimensionless
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.2
+       \note Recoverable waste heat at full load and rated conditions
+  A36, \field Speed 4 Waste Heat Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*odb + c*odb**2 + d*db + e*db**2 + f*odb*db
+       \note odb = Outdoor air dry-bulb temperature (C)
+       \note db = entering coil dry-bulb temperature (C)
+  N56, \field Speed 4 Evaporative Condenser Effectiveness
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.9
+  N57, \field Speed 4 Evaporative Condenser Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Used to calculate evaporative condenser water use
+  N58, \field Speed 4 Rated Evaporative Condenser Pump Power Consumption
+       \type real
+       \units W
+       \minimum 0.0
+       \autosizable
+       \note Rated power consumed by the evaporative condenser's water pump at Speed 4
+  A37; \field Zone Name for Condenser Placement
+       \type object-list
+       \object-list ZoneNames
+       \note This input field is name of a conditioned or unconditioned zone where the secondary
+       \note coil (condenser) of DX system or a heat pump is to be placed. This is an optional
+       \note input field specified only when user desires to reject the condenser heat into a
+       \note zone. The heat rejected is modelled as internal sensible heat gain of the zone.
+
+Coil:Cooling:DX:VariableSpeed,
+        \memo Direct expansion (DX) cooling coil and condensing unit (includes electric compressor
+        \memo and condenser fan), variable-speed. Optional inputs for moisture evaporation from
+        \memo wet coil when compressor cycles off with continuous fan operation. Requires two to
+        \memo ten sets of performance data and will interpolate between speeds. Modeled as a
+        \memo single coil with variable-speed compressor.
+        \min-fields 31
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference CoolingCoilsDXVariableSpeed
+        \reference DesuperHeatingCoilSources
+   A2,  \field Indoor Air Inlet Node Name
+        \required-field
+        \type node
+   A3,  \field Indoor Air Outlet Node Name
+        \required-field
+        \type node
+   N1,  \field Number of Speeds
+        \units dimensionless
+        \type integer
+        \minimum 1
+        \maximum 10
+        \default 2
+   N2,  \field Nominal Speed Level
+        \units dimensionless
+        \type integer
+        \default 2
+        \note must be lower than or equal to the highest speed number
+   N3,  \field Gross Rated Total Cooling Capacity At Selected Nominal Speed Level
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \autosizable
+        \default autosize
+   N4,  \field Rated Air Flow Rate At Selected Nominal Speed Level
+        \units m3/s
+        \type real
+        \autosizable
+        \default autosize
+   N5,  \field Nominal Time for Condensate to Begin Leaving the Coil
+        \units s
+        \type real
+        \minimum 0
+        \default 0
+   N6,  \field Initial Moisture Evaporation Rate Divided by Steady-State AC Latent Capacity
+        \units dimensionless
+        \type real
+        \minimum 0
+        \default 0
+   A4,  \field Energy Part Load Fraction Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*PLR + c*PLR**2
+        \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+        \note PLR = part load ratio (cooling load/steady state capacity)
+   A5,  \field Condenser Air Inlet Node Name
+        \type node
+        \note Enter the name of an outdoor air node. This node name is also specified in
+        \note an OutdoorAir:Node or OutdoorAir:NodeList object.
+   A6,  \field Condenser Type
+        \type choice
+        \key AirCooled
+        \key EvaporativelyCooled
+        \default AirCooled
+   N7,  \field Evaporative Condenser Pump Rated Power Consumption
+        \type real
+        \units W
+        \minimum 0.0
+        \default 0.0
+        \autosizable
+        \note Rated power consumed by the evaporative condenser's water pump
+   N8,  \field Crankcase Heater Capacity
+        \type real
+        \minimum 0.0
+        \default 0.0
+        \units W
+        \ip-units W
+   N9,  \field Maximum Outdoor Dry-Bulb Temperature for Crankcase Heater Operation
+        \type real
+        \minimum 0.0
+        \default 10.0
+        \units C
+   N10, \field Minimum Outdoor Dry-Bulb Temperature for Compressor Operation
+        \type real
+        \default -25.0
+        \units C
+   A7,  \field Supply Water Storage Tank Name
+        \type object-list
+        \object-list WaterStorageTankNames
+   A8,  \field Condensate Collection Water Storage Tank Name
+        \type object-list
+        \object-list WaterStorageTankNames
+   N11, \field Basin Heater Capacity
+        \type real
+        \units W/K
+        \minimum 0.0
+        \default 0.0
+        \note This field is only used for Condenser Type = EvaporativelyCooled and for periods
+        \note when the basin heater is available (field Basin Heater Operating Schedule Name).
+        \note For this situation, the heater maintains the basin water temperature at the basin heater
+        \note setpoint temperature when the outdoor air temperature falls below the setpoint temperature.
+        \note The basin heater only operates when the DX coil is off.
+   N12, \field Basin Heater Setpoint Temperature
+        \type real
+        \units C
+        \minimum 2.0
+        \default 2.0
+        \note This field is only used for Condenser Type = EvaporativelyCooled.
+        \note Enter the outdoor dry-bulb temperature when the basin heater turns on.
+   A9,  \field Basin Heater Operating Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note This field is only used for Condenser Type = EvaporativelyCooled.
+        \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+        \note air dry-bulb temperature is below the basin heater setpoint temperature.
+        \note If a schedule name is not entered, the basin heater is allowed to operate
+        \note throughout the entire simulation.
+   N13, \field Speed 1 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+        \required-field
+   N14, \field Speed 1 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+        \required-field
+   N15, \field Speed 1 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+        \required-field
+   N16, \field Speed 1 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+        \required-field
+   N17, \field Speed 1 Reference Unit Rated Condenser Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+        \note This field is only used for Condenser Type = EvaporativelyCooled
+   N18, \field Speed 1 Reference Unit Rated Pad Effectiveness of Evap Precooling
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+        \note This field is only used for Condenser Type = EvaporativelyCooled
+   A10, \field Speed 1 Total Cooling Capacity Function of Temperature Curve Name
+        \required-field
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A11, \field Speed 1 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A12, \field Speed 1 Energy Input Ratio Function of Temperature Curve Name
+        \required-field
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A13, \field Speed 1 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N19, \field Speed 2 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N20, \field Speed 2 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N21, \field Speed 2 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N22, \field Speed 2 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N23, \field Speed 2 Reference Unit Rated Condenser Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N24, \field Speed 2 Reference Unit Rated Pad Effectiveness of Evap Precooling
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   A14, \field Speed 2 Total Cooling Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A15, \field Speed 2 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A16, \field Speed 2 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A17, \field Speed 2 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N25, \field Speed 3 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N26, \field Speed 3 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N27, \field Speed 3 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N28, \field Speed 3 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N29, \field Speed 3 Reference Unit Rated Condenser Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N30, \field Speed 3 Reference Unit Rated Pad Effectiveness of Evap Precooling
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   A18, \field Speed 3 Total Cooling Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A19, \field Speed 3 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A20, \field Speed 3 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A21, \field Speed 3 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N31, \field Speed 4 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N32, \field Speed 4 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N33, \field Speed 4 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N34, \field Speed 4 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N35, \field Speed 4 Reference Unit Rated Condenser Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N36, \field Speed 4 Reference Unit Rated Pad Effectiveness of Evap Precooling
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   A22, \field Speed 4 Total Cooling Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A23, \field Speed 4 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A24, \field Speed 4 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A25, \field Speed 4 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N37, \field Speed 5 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N38, \field Speed 5 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N39, \field Speed 5 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N40, \field Speed 5 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N41, \field Speed 5 Reference Unit Rated Condenser Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N42, \field Speed 5 Reference Unit Rated Pad Effectiveness of Evap Precooling
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   A26, \field Speed 5 Total Cooling Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A27, \field Speed 5 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A28, \field Speed 5 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A29, \field Speed 5 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N43, \field Speed 6 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N44, \field Speed 6 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N45, \field Speed 6 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N46, \field Speed 6 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N47, \field Speed 6 Reference Unit Condenser Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N48, \field Speed 6 Reference Unit Rated Pad Effectiveness of Evap Precooling
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   A30, \field Speed 6 Total Cooling Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A31, \field Speed 6 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A32, \field Speed 6 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A33, \field Speed 6 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N49, \field Speed 7 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N50, \field Speed 7 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N51, \field Speed 7 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N52, \field Speed 7 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N53, \field Speed 7 Reference Unit Condenser Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N54, \field Speed 7 Reference Unit Rated Pad Effectiveness of Evap Precooling
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   A34, \field Speed 7 Total Cooling Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A35, \field Speed 7 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A36, \field Speed 7 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A37, \field Speed 7 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N55, \field Speed 8 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N56, \field Speed 8 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N57, \field Speed 8 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N58, \field Speed 8 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N59, \field Speed 8 Reference Unit Condenser Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N60, \field Speed 8 Reference Unit Rated Pad Effectiveness of Evap Precooling
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   A38, \field Speed 8 Total Cooling Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A39, \field Speed 8 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A40, \field Speed 8 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A41, \field Speed 8 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N61, \field Speed 9 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N62, \field Speed 9 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N63, \field Speed 9 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N64, \field Speed 9 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N65, \field Speed 9 Reference Unit Condenser Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+        \note optional
+   N66, \field Speed 9 Reference Unit Rated Pad Effectiveness of Evap Precooling
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+        \note optional
+   A42, \field Speed 9 Total Cooling Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A43, \field Speed 9 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A44, \field Speed 9 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A45, \field Speed 9 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N67, \field Speed 10 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N68, \field Speed 10 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N69, \field Speed 10 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N70, \field Speed 10 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N71, \field Speed 10 Reference Unit Condenser Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+        \note optional
+   N72, \field Speed 10 Reference Unit Rated Pad Effectiveness of Evap Precooling
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+        \note optional
+   A46, \field Speed 10 Total Cooling Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A47, \field Speed 10 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A48, \field Speed 10 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*odb + e*odb**2 + f*wb*odb
+        \note wb = entering wet-bulb temperature (C)
+        \note odb = air entering temperature seen by the condenser (C)
+   A49; \field Speed 10 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+
+Coil:Cooling:DX:TwoStageWithHumidityControlMode,
+        \memo Direct expansion (DX) cooling coil and condensing unit (includes electric compressor
+        \memo and condenser fan), two-stage with humidity control mode (e.g. sub-cool or hot gas
+        \memo reheat). Optional inputs for moisture evaporation from wet coil when compressor
+        \memo cycles off with continuous fan operation. Requires two to four sets of performance
+        \memo data, see CoilPerformance:DX:Cooling. Stages are modeled as a face-split coil.
+  \min-fields 10
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference CoolingCoilsDX
+       \reference CoolingCoilsDXMultiModeOrSingleSpeed
+       \reference DesuperHeatingCoilSources
+       \reference AFNCoilNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  N1 , \field Crankcase Heater Capacity
+       \type real
+       \minimum 0.0
+       \default 0.0
+       \units W
+       \ip-units W
+  N2 , \field Maximum Outdoor Dry-Bulb Temperature for Crankcase Heater Operation
+       \type real
+       \minimum 0.0
+       \default 10.0
+       \units C
+  N3 , \field Number of Capacity Stages
+       \type integer
+       \minimum 1
+       \maximum 2
+       \default 1
+  N4 , \field Number of Enhanced Dehumidification Modes
+       \type integer
+       \minimum 0
+       \maximum 1
+       \default 0
+  A5 , \field Normal Mode Stage 1 Coil Performance Object Type
+       \required-field
+       \type choice
+       \key CoilPerformance:DX:Cooling
+  A6 , \field Normal Mode Stage 1 Coil Performance Name
+       \required-field
+       \type object-list
+       \object-list CoilPerformanceDX
+  A7 , \field Normal Mode Stage 1+2 Coil Performance Object Type
+       \type choice
+       \key CoilPerformance:DX:Cooling
+  A8 , \field Normal Mode Stage 1+2 Coil Performance Name
+       \type object-list
+       \object-list CoilPerformanceDX
+  A9 , \field Dehumidification Mode 1 Stage 1 Coil Performance Object Type
+       \type choice
+       \key CoilPerformance:DX:Cooling
+  A10, \field Dehumidification Mode 1 Stage 1 Coil Performance Name
+       \type object-list
+       \object-list CoilPerformanceDX
+  A11, \field Dehumidification Mode 1 Stage 1+2 Coil Performance Object Type
+       \type choice
+       \key CoilPerformance:DX:Cooling
+  A12, \field Dehumidification Mode 1 Stage 1+2 Coil Performance Name
+       \type object-list
+       \object-list CoilPerformanceDX
+  A13, \field Supply Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  A14, \field Condensate Collection Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  N5,  \field Minimum Outdoor Dry-Bulb Temperature for Compressor Operation
+       \type real
+       \default -25.0
+       \units C
+  N6,  \field Basin Heater Capacity
+       \type real
+       \units W/K
+       \minimum 0.0
+       \default 0.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled and for periods
+       \note when the basin heater is available (field Basin Heater Operating Schedule Name).
+       \note For this situation, the heater maintains the basin water temperature at the basin heater
+       \note setpoint temperature when the outdoor air temperature falls below the setpoint temperature.
+       \note The basin heater only operates when the DX coil is off.
+  N7,  \field Basin Heater Setpoint Temperature
+       \type real
+       \units C
+       \minimum 2.0
+       \default 2.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Enter the outdoor dry-bulb temperature when the basin heater turns on.
+  A15; \field Basin Heater Operating Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+       \note air dry-bulb temperature is below the basin heater setpoint temperature.
+       \note If a schedule name is not entered, the basin heater is allowed to operate
+       \note throughout the entire simulation.
+
+CoilPerformance:DX:Cooling,
+       \memo Used to specify DX cooling coil performance for one mode of operation for a
+       \memo Coil:Cooling:DX:TwoStageWithHumidityControlMode object which may reference one to four
+       \memo CoilPerformance:DX:Cooling objects depending on the specified number of stages and
+       \memo dehumidification modes. In nearly all cases, the Rated Air Flow Rate will be the same
+       \memo for all performance objects associated with a given coil. If bypass is specified,
+       \memo the Rated Air Flow Rate includes both the bypassed flow and the flow through the
+       \memo active part of the coil.
+  \min-fields 11
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference CoilPerformanceDX
+  N1 , \field Gross Rated Total Cooling Capacity
+       \note Total cooling capacity not accounting for the effect of supply air fan heat
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note gross capacity excluding supply air fan heat
+       \note rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+       \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+  N2 , \field Gross Rated Sensible Heat Ratio
+       \required-field
+       \type real
+       \minimum 0.5
+       \maximum 1.0
+       \autosizable
+       \note Rated sensible heat ratio (gross sensible capacity/gross total capacity)
+       \note sensible and total capacities do not include supply fan heat
+  N3 , \field Gross Rated Cooling COP
+       \note Gross cooling capacity divided by power input to the compressor and outdoor fan,
+       \note does not include supply fan heat or supply fan electrical energy input
+       \type real
+       \units W/W
+       \minimum> 0.0
+       \default 3.0
+  N4 , \field Rated Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Flow rate corresponding to Rated total Cooling capacity, Rated SHR and Rated COP
+  N5 , \field Fraction of Air Flow Bypassed Around Coil
+       \type real
+       \minimum 0.0
+       \maximum< 1.0
+       \default 0.0
+       \note Fraction of Rated Air Flow Rate which bypasses the cooling coil
+       \note in this performance mode. The remaining portion of the flow
+       \note should be between 0.00004027 m3/s and .00006041 m3/s per watt of rated total cooling capacity.
+       \note This is used to model face-split coils on multi-stage units or bypass dampers.
+       \note If total flow rate varies during simulation, the same fraction is bypassed.
+  A2 , \field Total Cooling Capacity Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+  A3 , \field Total Cooling Capacity Function of Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A4 , \field Energy Input Ratio Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*edb + e*edb**2 + f*wb*edb
+       \note wb = entering wet-bulb temperature (C)
+       \note edb = dry-bulb temperature seen by the condenser (C)
+  A5 , \field Energy Input Ratio Function of Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A6 , \field Part Load Fraction Correlation Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note PLR = part load ratio (cooling load/steady state capacity)
+  N6 , \field Nominal Time for Condensate Removal to Begin
+       \type real
+       \units s
+       \minimum 0.0
+       \maximum 3000.0
+       \default 0.0
+       \note The nominal time for condensate to begin leaving the coil's condensate
+       \note drain line at the coil's rated air flow rate and temperature conditions.
+       \note Nominal time is equal to the ratio of the energy of the coil's maximum
+       \note condensate holding capacity (J) to the coil's steady state latent capacity (W).
+       \note Suggested value is 1000; zero value means latent degradation model is disabled.
+  N7 , \field Ratio of Initial Moisture Evaporation Rate and Steady State Latent Capacity
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 5.0
+       \default 0.0
+       \note Ratio of the initial moisture evaporation rate from the cooling coil (when
+       \note the compressor first turns off) and the coil's steady state latent capacity
+       \note at rated air flow rate and temperature conditions. Suggested value is 1.5; zero value
+       \note means latent degradation model is disabled.
+  N8 , \field Maximum Cycling Rate
+       \type real
+       \units cycles/hr
+       \minimum 0.0
+       \maximum 5.0
+       \default 0.0
+       \note The maximum on-off cycling rate for the compressor, which occurs at 50% run time
+       \note fraction. Suggested value is 3; zero value means latent degradation model is disabled.
+  N9 , \field Latent Capacity Time Constant
+       \type real
+       \units s
+       \minimum 0.0
+       \maximum 500.0
+       \default 0.0
+       \note Time constant for the cooling coil's latent capacity to reach steady state after
+       \note startup. Suggested value is 45; zero value means latent degradation model is disabled.
+  A7 , \field Condenser Air Inlet Node Name
+       \type node
+       \note Enter the name of an outdoor air node. This node name is also specified in
+       \note an OutdoorAir:Node or OutdoorAir:NodeList object.
+  A8 , \field Condenser Type
+       \type choice
+       \key AirCooled
+       \key EvaporativelyCooled
+       \default AirCooled
+  N10 , \field Evaporative Condenser Effectiveness
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.9
+  N11, \field Evaporative Condenser Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Used to calculate evaporative condenser water use
+  N12, \field Evaporative Condenser Pump Rated Power Consumption
+       \type real
+       \units W
+       \minimum 0.0
+       \default 0.0
+       \autosizable
+       \note Rated power consumed by the evaporative condenser's water pump
+  A9,  \field Sensible Heat Ratio Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*db + e*db**2 + f*wb*db
+       \note wb = entering wet-bulb temperature seen by the DX cooling coil (C)
+       \note db = entering dry-bulb temperature seen by the DX cooling coil (C)
+       \note entering temperature can be outside air or pretreated air.
+  A10; \field Sensible Heat Ratio Function of Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+
+Coil:Cooling:DX:VariableRefrigerantFlow,
+       \memo Variable refrigerant flow (VRF) direct expansion (DX) cooling coil. Used with
+       \memo ZoneHVAC:TerminalUnit:VariableRefrigerantFlow. Condensing unit is modeled separately,
+       \memo see AirConditioner:VariableRefrigerantFlow.
+  \min-fields 9
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference CoolingCoilsDXVarRefrigFlow
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Gross Rated Total Cooling Capacity
+       \note Total cooling capacity not accounting for the effect of supply air fan heat
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note Cooling capacity excluding supply air fan heat
+  N2 , \field Gross Rated Sensible Heat Ratio
+       \required-field
+       \type real
+       \minimum> 0.0
+       \autosizable
+       \note Sensible heat ratio excluding supply air fan heat
+  N3 , \field Rated Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Volume flow rate corresponding to rated total cooling capacity
+       \note should be between 0.00004027 m3/s and .00006041 m3/s per watt of rated total cooling capacity
+  A3 , \field Cooling Capacity Ratio Modifier Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+  A4 , \field Cooling Capacity Modifier Curve Function of Flow Fraction Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A5 , \field Coil Air Inlet Node
+       \required-field
+       \type node
+  A6 , \field Coil Air Outlet Node
+       \required-field
+       \type node
+  A7 ; \field Name of Water Storage Tank for Condensate Collection
+       \type object-list
+       \object-list WaterStorageTankNames
+
+Coil:Heating:DX:VariableRefrigerantFlow,
+       \memo Variable refrigerant flow (VRF) direct expansion (DX) heating coil (air-to-air heat
+       \memo pump). Used with ZoneHVAC:TerminalUnit:VariableRefrigerantFlow. Condensing unit is
+       \memo modeled separately, see AirConditioner:VariableRefrigerantFlow.
+       \min-fields 5
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference HeatingCoilsDX
+       \reference HeatingCoilsDXSingleSpeed
+       \reference HeatingCoilsDXVarRefrigFlow
+  A2 , \field Availability Schedule
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Gross Rated Heating Capacity
+       \note Heating capacity not accounting for the effect of supply air fan heat
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note capacity excluding supply air fan heat
+       \note rating point outside dry-bulb temp 8.33 C, outside wet-bulb temp 6.11 C
+       \note rating point heating coil entering air dry-bulb 21.11 C, coil entering wetbulb 15.55 C
+  N2 , \field Rated Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note volume flow rate corresponding to rated total capacity
+       \note should be between 0.00004027 m3/s and .00006041 m3/s per watt of rated heating capacity
+  A3 , \field Coil Air Inlet Node
+       \required-field
+       \type node
+  A4 , \field Coil Air Outlet Node
+       \required-field
+       \type node
+  A5 , \field Heating Capacity Ratio Modifier Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+  A6 ; \field Heating Capacity Modifier Function of Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+
+Coil:Cooling:DX:VariableRefrigerantFlow:FluidTemperatureControl,
+       \memo This is a key object in the new physics based VRF model applicable for Fluid
+       \memo Temperature Control. It describes the the indoor unit coil of the system at cooling mode.
+       \memo Used with ZoneHVAC:TerminalUnit:VariableRefrigerantFlow.
+       \memo Outdoor unit is modeled separately, see AirConditioner:VariableRefrigerantFlow:FluidTemperatureControl
+       \memo or AirConditioner:VariableRefrigerantFlow:FluidTemperatureControl:HR
+       \min-fields 6
+  A1,  \field Name
+       \required-field
+       \type alpha
+       \reference CoolingCoilsDXVarRefrigFlowFluidTemperatureControl
+  A2,  \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Enter the name of a schedule that defines the availability of the coil
+       \note Schedule values of 0 denote the unit is off. All other values denote the unit is available
+       \note If this field is left blank, the unit is available the entire simulation
+  A3,  \field Coil Air Inlet Node
+       \required-field
+       \type node
+       \note the inlet node to the coil
+  A4,  \field Coil Air Outlet Node
+       \required-field
+       \type node
+       \note the outlet node to the coil
+  N1,  \field Rated Total Cooling Capacity
+       \required-field
+       \autosizable
+       \type real
+       \units W
+       \minimum> 0.0
+       \note Supply air fan heat is not included
+  N2,  \field Rated Sensible Heat Ratio
+       \required-field
+       \autosizable
+       \type real
+       \minimum> 0.0
+       \note Supply air fan heat is not included
+  N3,  \field Indoor Unit Reference Superheating
+       \type real
+       \units deltaC
+       \minimum 0.0
+       \default 5.0
+  A5,  \field Indoor Unit Evaporating Temperature Function of Superheating Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+  A6;  \field Name of Water Storage Tank for Condensate Collection
+       \type object-list
+       \object-list WaterStorageTankNames
+
+Coil:Heating:DX:VariableRefrigerantFlow:FluidTemperatureControl,
+       \memo This is a key object in the new physics based VRF model applicable for Fluid
+       \memo Temperature Control. It describes the the indoor unit coil of the system at heating mode.
+       \memo Used with ZoneHVAC:TerminalUnit:VariableRefrigerantFlow.
+       \memo Outdoor unit is modeled separately, see AirConditioner:VariableRefrigerantFlow:FluidTemperatureControl
+       \memo or AirConditioner:VariableRefrigerantFlow:FluidTemperatureControl:HR
+       \min-fields 5
+  A1,  \field Name
+       \required-field
+       \type alpha
+       \reference HeatingCoilsDXVarRefrigFlowFluidTemperatureControl
+  A2,  \field Availability Schedule
+       \type object-list
+       \object-list ScheduleNames
+       \note Enter the name of a schedule that defines the availability of the coil
+       \note Schedule values of 0 denote the unit is off. All other values denote the unit is available
+       \note If this field is left blank, the unit is available the entire simulation
+  A3,  \field Coil Air Inlet Node
+       \required-field
+       \type node
+       \note the inlet node to the coil
+  A4,  \field Coil Air Outlet Node
+       \required-field
+       \type node
+       \note the outlet node to the coil
+  N1,  \field Rated Total Heating Capacity
+       \required-field
+       \autosizable
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note Supply air fan heat is not included
+  N2,  \field Indoor Unit Reference Subcooling
+       \type real
+       \units deltaC
+       \minimum 0.0
+       \default 5.0
+  A5;  \field Indoor Unit Condensing Temperature Function of Subcooling Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+
+Coil:Heating:Water,
+       \memo Hot water heating coil, NTU-effectiveness model, assumes a cross-flow heat exchanger.
+       \memo Two options for capacity inputs: UA and water flow rate or capacity and design
+       \memo temperatures.
+       \min-fields 15
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference HeatingCoilName
+       \reference HeatingCoilsWater
+       \reference AFNCoilNames
+       \reference SimpleCoils
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field U-Factor Times Area Value
+       \note UA value under rating conditions
+       \units W/K
+       \autosizable
+       \default autosize
+  N2 , \field Maximum Water Flow Rate
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+       \default autosize
+  A3 , \field Water Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Water Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A6 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  A7 , \field Performance Input Method
+       \type choice
+       \key UFactorTimesAreaAndDesignWaterFlowRate
+       \key NominalCapacity
+       \default UFactorTimesAreaAndDesignWaterFlowRate
+  N3 , \field Rated Capacity
+       \type real
+       \units W
+       \autosizable
+       \minimum 0
+       \default autosize
+  N4 , \field Rated Inlet Water Temperature
+       \units C
+       \type real
+       \default 82.2
+  N5, \field Rated Inlet Air Temperature
+      \units C
+      \type real
+      \default 16.6
+  N6, \field Rated Outlet Water Temperature
+      \units C
+      \type real
+      \default 71.1
+  N7, \field Rated Outlet Air Temperature
+      \units C
+      \type real
+      \default 32.2
+  N8, \field Rated Ratio for Air and Water Convection
+      \type real
+      \default 0.5
+      \minimum> 0
+  N9; \field Design Water Temperature Difference
+      \type real
+      \units deltaC
+      \minimum> 0.0
+      \note This input field is optional. If specified, it is used for sizing the Design Water Flow Rate.
+      \note If blank or omitted, the Loop Design Temperature Difference value specified in Sizing:Plant
+      \note object is used for sizing the Design Water Flow Rate.
+
+Coil:Heating:Steam,
+       \memo Steam heating coil. Condenses and sub-cools steam at loop pressure and discharges
+       \memo condensate through steam traps to low pressure condensate line.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference HeatingCoilName
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Maximum Steam Flow Rate
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+  N2 , \field Degree of SubCooling
+       \units C
+       \minimum 1.0
+       \maximum 5.0
+  N3 , \field Degree of Loop SubCooling
+       \units C
+       \minimum 10.0
+       \default 20.0
+  A3 , \field Water Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Water Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A6 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  A7 , \field Coil Control Type
+       \note Use ZoneLoadControl if the coil is contained within another component such as an air
+       \note terminal unit, zone HVAC equipment, or unitary system. Use TemperatureSetpointControl
+       \note if the coil is located directly in an air loop branch or outdoor air equipment list.
+       \type choice
+       \key TemperatureSetpointControl
+       \key ZoneLoadControl
+  A8 ; \field Temperature Setpoint Node Name
+       \type node
+       \note Required if Coil Control Type is TemperatureSetpointControl
+
+Coil:Heating:Electric,
+       \memo Electric heating coil. If the coil is located directly in an air loop branch or
+       \memo outdoor air equipment list, then it is controlled on leaving air temperature and
+       \memo the Temperature Setpoint Node Name must be specified. If the coil is contained within
+       \memo another component such as an air terminal unit, zone HVAC equipment, or unitary
+       \memo system, then the coil is controlled by the parent component and the setpoint node name
+       \memo is not entered.
+  A1 , \field Name
+       \type alpha
+       \required-field
+       \reference HeatingCoilName
+       \reference HeatingCoilsElectric
+       \reference AFNCoilNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Efficiency
+       \maximum 1.0
+       \minimum> 0.0
+       \default 1.0
+  N2 , \field Nominal Capacity
+       \units W
+       \autosizable
+  A3 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  A5 ; \field Temperature Setpoint Node Name
+       \type node
+       \note Required if coil is temperature controlled.
+
+Coil:Heating:Electric:MultiStage,
+       \memo Electric heating coil, multi-stage. If the coil is located directly in an air loop
+       \memo branch or outdoor air equipment list, then it is controlled on leaving air temperature
+       \memo and the Temperature Setpoint Node Name must be specified. If the coil is contained
+       \memo within another component such as an air terminal unit, zone HVAC equipment, or unitary
+       \memo system, then the coil is controlled by the parent component and the setpoint node name
+       \memo is not entered.
+  A1 , \field Name
+       \type alpha
+       \required-field
+       \reference HeatingCoilsElectricMultiStage
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Temperature Setpoint Node Name
+       \type node
+       \note Required if coil is temperature controlled.
+       \note controlled
+  N1 , \field Number of Stages
+       \required-field
+       \type integer
+       \minimum 1
+       \maximum 4
+       \note Enter the number of the following sets of data for coil
+       \note capacity and Efficiency.
+  N2, \field Stage 1 Efficiency
+       \required-field
+       \type real
+       \units W/W
+       \minimum> 0.0
+  N3, \field Stage 1 Nominal Capacity
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+  N4, \field Stage 2 Efficiency
+       \type real
+       \units W/W
+       \minimum> 0.0
+  N5, \field Stage 2 Nominal Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+  N6, \field Stage 3 Efficiency
+       \type real
+       \units W/W
+       \minimum> 0.0
+  N7, \field Stage 3 Nominal Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+  N8, \field Stage 4 Efficiency
+       \type real
+       \units W/W
+       \minimum> 0.0
+  N9; \field Stage 4 Nominal Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+
+Coil:Heating:Fuel,
+       \memo Gas or other fuel heating coil. If the coil is located directly in an air loop branch or
+       \memo outdoor air equipment list, then it is controlled on leaving air temperature and
+       \memo the Temperature Setpoint Node Name must be specified. If the coil is contained within
+       \memo another component such as an air terminal unit, zone HVAC equipment, or unitary
+       \memo system, then the coil is controlled by the parent component and the setpoint node name
+       \memo is not entered.
+       \min-fields 7
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference HeatingCoilName
+       \reference AFNCoilNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Fuel Type
+       \type choice
+       \key NaturalGas
+       \key Propane
+       \key Diesel
+       \key Gasoline
+       \key Coal
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key OtherFuel1
+       \key OtherFuel2
+       \default NaturalGas
+  N1 , \field Burner Efficiency
+       \maximum 1.0
+       \minimum 0.0
+       \default 0.8
+  N2 , \field Nominal Capacity
+       \units W
+       \autosizable
+  A4 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A5 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  A6 , \field Temperature Setpoint Node Name
+       \type node
+       \note optional, used if coil is temperature control and not load-base controlled
+  N3 , \field Parasitic Electric Load
+       \units W
+       \note parasitic electric load associated with the coil operation
+       \note such as an inducer fan, etc... This will be modified by the part load ratio to reflect
+       \note the time of operation in a timestep.
+       \ip-units W
+  A7 , \field Part Load Fraction Correlation Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve, PLF = a + b*PLR + c*PLR**2
+       \note cubic curve, PLF = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note PLF = part load fraction
+       \note PLR = part load ratio (sensible heating load/steady state heating capacity)
+       \note Coil runtime fraction = Part Load Ratio / PLF
+       \note This part load degradation is for coil performance & will
+       \note increase the fuel consumption of the coil due to transient coil operation.
+  N4 ; \field Parasitic Fuel Load
+       \units W
+       \note parasitic fuel load associated with the coil operation (i.e., standing pilot)
+
+Coil:Heating:Gas:MultiStage,
+       \memo Gas heating coil, multi-stage. If the coil is located directly in an air loop
+       \memo branch or outdoor air equipment list, then it is controlled on leaving air temperature
+       \memo and the Temperature Setpoint Node Name must be specified. If the coil is contained
+       \memo within another component such as an air terminal unit, zone HVAC equipment, or unitary
+       \memo system, then the coil is controlled by the parent component and the setpoint node name
+       \memo is not entered.
+       \min-fields 8
+  A1 , \field Name
+       \required-field
+       \reference HeatingCoilsGasMultiStage
+       \type alpha
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Temperature Setpoint Node Name
+       \type node
+       \note optional, used if coil is temperature control and not load-base
+       \note controlled.
+  A6 , \field Part Load Fraction Correlation Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve, PLF = a + b*PLR + c*PLR**2
+       \note cubic curve, PLF = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note PLF = part load fraction
+       \note PLR = part load ratio (sensible heating load/steady state
+       \note heating capacity)
+       \note Coil runtime fraction = Part Load Ratio / PLF
+       \note This part load degradation is for coil performance & will
+       \note increase the gas consumption of the coil due to transient coil
+       \note operation.
+  N1,  \field Parasitic Gas Load
+       \units W
+       \note parasitic gas load associated with the gas coil operation (i.e.,
+       \note standing pilot)
+  N2 , \field Number of Stages
+       \required-field
+       \type integer
+       \minimum 1
+       \maximum 4
+       \note Enter the number of the following sets of data for coil
+       \note capacity and Gas Burner Efficiency.
+  N3, \field Stage 1 Gas Burner Efficiency
+       \required-field
+       \type real
+       \units W/W
+       \minimum> 0.0
+  N4, \field Stage 1 Nominal Capacity
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+  N5, \field Stage 1 Parasitic Electric Load
+       \units W
+       \note Stage 1 parasitic electric load associated with the gas coil operation
+       \note such as an inducer fan, etc. This will be modified by the part
+       \note load ratio to reflect the time of operation in a timestep.
+       \ip-units W
+  N6, \field Stage 2 Gas Burner Efficiency
+       \type real
+       \units W/W
+       \minimum> 0.0
+  N7, \field Stage 2 Nominal Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+  N8, \field Stage 2 Parasitic Electric Load
+       \units W
+       \note Stage 2 parasitic electric load associated with the gas coil operation
+       \note such as an inducer fan, etc. This will be modified by the part
+       \note load ratio to reflect the time of operation in a timestep.
+       \ip-units W
+  N9, \field Stage 3 Gas Burner Efficiency
+       \type real
+       \units W/W
+       \minimum> 0.0
+  N10, \field Stage 3 Nominal Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+  N11, \field Stage 3 Parasitic Electric Load
+       \units W
+       \note Stage 3 parasitic electric load associated with the gas coil operation
+       \note such as an inducer fan, etc. This will be modified by the part
+       \note load ratio to reflect the time of operation in a timestep.
+       \ip-units W
+  N12, \field Stage 4 Gas Burner Efficiency
+       \type real
+       \units W/W
+       \minimum> 0.0
+  N13, \field Stage 4 Nominal Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+  N14; \field Stage 4 Parasitic Electric Load
+       \units W
+       \note Stage 4 parasitic electric load associated with the gas coil operation
+       \note such as an inducer fan, etc. This will be modified by the part
+       \note load ratio to reflect the time of operation in a timestep.
+       \ip-units W
+
+Coil:Heating:Desuperheater,
+       \memo Desuperheater air heating coil. The heating energy provided by this coil is reclaimed
+       \memo from the superheated refrigerant gas leaving a compressor and does not impact the
+       \memo performance of the compressor. If the coil is located directly in an air loop
+       \memo branch or outdoor air equipment list, then it is controlled on leaving air temperature
+       \memo and the Temperature Setpoint Node Name must be specified. If the coil is contained
+       \memo within another component such as a unitary system, then the coil is controlled by the
+       \memo parent component and the setpoint node name is not entered.
+       \min-fields 7
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference HeatingCoilsDesuperheater
+       \reference AFNCoilNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Heat Reclaim Recovery Efficiency
+       \type real
+       \minimum 0.0
+  A3 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Heating Source Object Type
+       \required-field
+       \type choice
+       \key Coil:Cooling:DX:SingleSpeed
+       \key Coil:Cooling:DX:VariableSpeed
+       \key Coil:Cooling:DX:TwoSpeed
+       \key Coil:Cooling:DX:TwoStageWithHumidityControlMode
+       \key Refrigeration:CompressorRack
+       \key Refrigeration:Condenser:AirCooled
+       \key Refrigeration:Condenser:EvaporativeCooled
+       \key Refrigeration:Condenser:WaterCooled
+  A6 , \field Heating Source Name
+       \required-field
+       \type object-list
+       \object-list DesuperHeatingCoilSources
+  A7 , \field Temperature Setpoint Node Name
+       \type node
+       \note Required if coil is temperature controlled.
+       \note Temperature-based control requires the use of a SetpointManager object
+  N2 ; \field Parasitic Electric Load
+       \type real
+       \units W
+       \minimum 0
+       \note parasitic electric load associated with the desuperheater coil operation
+       \note such as solenoid valves, etc.
+       \ip-units W
+
+Coil:Heating:DX:SingleSpeed,
+       \memo Direct expansion (DX) heating coil (air-to-air heat pump) and compressor unit
+       \memo (includes electric compressor and outdoor fan), single-speed, with defrost controls.
+       \min-fields 21
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference HeatingCoilsDX
+       \reference HeatingCoilsDXSingleSpeed
+       \reference AFNCoilNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Gross Rated Heating Capacity
+       \note Heating capacity not accounting for the effect of supply air fan heat
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note capacity excluding supply air fan heat
+       \note rating point outdoor dry-bulb temp 8.33 C, outdoor wet-bulb temp 6.11 C
+       \note rating point heating coil entering air dry-bulb 21.11 C, coil entering wet-bulb 15.55 C
+  N2 , \field Gross Rated Heating COP
+       \note Rated heating capacity divided by power input to the compressor and outdoor fan,
+       \note does not include supply air fan heat or supply air fan electrical energy
+       \required-field
+       \type real
+       \units W/W
+       \minimum> 0.0
+       \note does not include supply air fan heat or supply air fan electrical energy
+  N3 , \field Rated Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Flow rate corresponding to rated total capacity
+       \note should be between 0.00004027 m3/s and .00006041 m3/s per watt of rated heating capacity
+  N4 , \field Rated Supply Fan Power Per Volume Flow Rate
+       \note Enter the supply fan power per air volume flow rate at the rated test conditions.
+       \note The test conditions vary external static pressure based on heating capacity.
+       \note This value is only used to calculate Heating Seasonal Performance Factor(HSPF). This value is not
+       \note used for modeling the supply (condenser) fan during simulations.
+       \type real
+       \units W/(m3/s)
+       \minimum 0.0
+       \maximum 1250.0
+       \default 773.3
+  A3 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Heating Capacity Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note quadratic curve = a + b*oat + c*oat**2
+       \note cubic curve = a + b*oat + c*oat**2 + d*oat**3
+       \note biquadratic curve = a + b*iat + c*iat**2 + d*oat + e*oat**2 + f*iat*oat
+       \note oat = outdoor air dry-bulb temperature (C)
+       \note iat = indoor air dry-bulb temperature (C)
+       \note Biquadratic curve is recommended if sufficient manufacturer data is
+       \note available for the heating capacity to be sensitive to both iat and oat.
+  A6 , \field Heating Capacity Function of Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+ A7 ,  \field Energy Input Ratio Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note quadratic curve = a + b*oat + c*oat**2
+       \note cubic curve = a + b*oat + c*oat**2 + d*oat**3
+       \note biquadratic curve = a + b*iat + c*iat**2 + d*oat + e*oat**2 + f*iat*oat
+       \note oat = outdoor air dry-bulb temperature (C)
+       \note iat = indoor air dry-bulb temperature (C)
+       \note biquadratic curve is recommended if sufficient manufacturer data is
+       \note available for the energy input ratio to be sensitive to both iat and oat.
+  A8 , \field Energy Input Ratio Function of Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A9 , \field Part Load Fraction Correlation Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note PLR = part load ratio (sensible heating load/steady state heating capacity)
+  A10, \field Defrost Energy Input Ratio Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note biquadratic curve = a + b*wb + c*wb**2 + d*oat + e*oat**2 + f*wb*oat
+       \note wb = wet-bulb temperature (C) of air entering the indoor coil
+       \note oat = outdoor air dry-bulb temperature (C)
+       \note only required if ReverseCycle defrost strategy is specified
+  N5 , \field Minimum Outdoor Dry-Bulb Temperature for Compressor Operation
+       \type real
+       \default -8.0
+       \units C
+  N6 , \field Outdoor Dry-Bulb Temperature to Turn On Compressor
+       \type real
+       \units C
+       \note The outdoor temperature when the compressor is automatically turned back on following an
+       \note automatic shut off because of low outdoor dry-bulb temperature. This field is only used
+       \note for the calculation of HSPF. If this field is not provided, then outdoor bin temperature
+       \note used in the HSPF calculation is always considered to be greater than this temperature and
+       \note 'Minimum Outdoor Dry-Bulb Temperature for Compressor Operation' field described above.
+       \note This assumption is based on AHRI standard 210/240 (2008) and can introduce significant error
+       \note in the final value of HSPF.
+  N7 , \field Maximum Outdoor Dry-Bulb Temperature for Defrost Operation
+       \type real
+       \minimum 0.0
+       \maximum 7.22
+       \default 5.0
+       \units C
+  N8,  \field Crankcase Heater Capacity
+       \type real
+       \minimum 0.0
+       \default 0.0
+       \units W
+       \ip-units W
+  N9,  \field Maximum Outdoor Dry-Bulb Temperature for Crankcase Heater Operation
+       \type real
+       \minimum 0.0
+       \default 10.0
+       \units C
+  A11, \field Defrost Strategy
+       \type choice
+       \key ReverseCycle
+       \key Resistive
+       \default ReverseCycle
+  A12, \field Defrost Control
+       \type choice
+       \key Timed
+       \key OnDemand
+       \default Timed
+  N10,  \field Defrost Time Period Fraction
+       \type real
+       \minimum 0.0
+       \default 0.058333
+       \note Fraction of time in defrost mode
+       \note only applicable if timed defrost control is specified
+  N11,  \field Resistive Defrost Heater Capacity
+       \type real
+       \minimum 0.0
+       \default 0.0
+       \autosizable
+       \units W
+       \note only applicable if resistive defrost strategy is specified
+       \ip-units W
+  N12, \field Region number for calculating HSPF
+       \type integer
+       \minimum 1
+       \maximum 6
+       \default 4
+       \note Standard Region number for which HSPF and other standard ratings are calculated
+  A13, \field Evaporator Air Inlet Node Name
+       \type node
+       \note Enter the name of an outdoor air node. This node name is also specified in
+       \note an OutdoorAir:Node or OutdoorAir:NodeList object.
+  A14, \field Zone Name for Evaporator Placement
+       \note This input field is name of a conditioned or unconditioned zone where the secondary
+       \note coil (evaporator) of a heat pump is to be placed. This is an optional input field
+       \note specified only when user desires to extract heat from the zone. The heat extracted
+       \note is modelled as internal gain of the zone. If the primary DX system is a heat pump,
+       \note then the zone name should be the same as the zone name specified for placing the
+       \note secondary cooling DX coil.
+  N13, \field Secondary Coil Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note This input value is the secondary coil (evaporator) air flow rate when the heat pump
+       \note is working in heating mode or the secondary DX coil (condenser) air flow rate when the
+       \note heat pump is working in cooling mode.
+  N14, \field Secondary Coil Fan Flow Scaling Factor
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \default 1.25
+       \note This input field is scaling factor for autosizing the secondary DX coil fan flow rate.
+       \note The secondary air flow rate is determined by multiplying the primary DX coil rated air
+       \note flow rate by the fan flow scaling factor. Default value is 1.25. If the secondary coil
+       \note fan flow rate is not autosized, then the secondary coil fan flow scaling factor is set
+       \note to 1.0.
+  N15, \field Nominal Sensible Heat Ratio of Secondary Coil
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \maximum 1.0
+       \note This input value is the nominal sensible heat ratio used to split the heat extracted by
+       \note a secondary DX coil (evaporator) of a heat pump into sensible and latent components.
+       \note This is an optional input field. If this input field is left blank, then pure sensible
+       \note internal heat gain is assumed, i.e., sensible heat ratio of 1.0.
+  A15, \field Sensible Heat Ratio Modifier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*db + e*db**2 + f*wb*db
+       \note wb = entering wet-bulb temperature seen by the secondary DX coil (C)
+       \note db = entering dry-bulb temperature seen by the primary DX coil (C)
+       \note This input field is name of sensible heat ratio modifier biquadratic curve. The value
+       \note of this curve modifies the nominal sensible heat ratio for current time step depending
+       \note on the secondary zone air node wet-bulb temperature and the heating DX coil entering
+       \note air dry-bulb temperature. This is an optional input field. If this input field is left
+       \note blank, then the nominal sensible heat ratio specified in the field above will be used.
+  A16; \field Sensible Heat Ratio Modifier Function of Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = secondary air flow fraction of the full load flow
+       \note This input field is name of sensible heat ratio modifier curve. The value
+       \note of this curve modifies the nominal sensible heat ratio for current time step depending
+       \note on the secondary coil air flow fraction. This is an optional input field. If this input
+       \note field is left blank, then the nominal sensible heat ratio specified will be used.
+
+Coil:Heating:DX:MultiSpeed,
+       \memo Direct expansion (DX) heating coil (air-to-air heat pump) and compressor unit
+       \memo (includes electric or engine-driven compressor and outdoor fan), multi-speed
+       \memo (or variable-speed), with defrost controls. Requires two to four sets
+       \memo of performance data and will interpolate between speeds.
+       \min-fields 40
+  A1 , \field Name
+       \required-field
+       \reference HeatingCoilsDXMultiSpeed
+       \reference AFNCoilNames
+       \type alpha
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  N1 , \field Minimum Outdoor Dry-Bulb Temperature for Compressor Operation
+       \type real
+       \default -8.0
+       \units C
+  N2 , \field Outdoor Dry-Bulb Temperature to Turn On Compressor
+       \type real
+       \units C
+       \note The outdoor temperature when the compressor is automatically turned back on following an
+       \note automatic shut off because of low outdoor dry-bulb temperature. This field is only used
+       \note for the calculation of HSPF. If this field is not provided, then outdoor bin temperature
+       \note used in the HSPF calculation is always considered to be greater than this temperature and
+       \note 'Minimum Outdoor Dry-Bulb Temperature for Compressor Operation' field described above.
+       \note This assumption is based on AHRI standard 210/240 (2008) and can introduce significant error
+       \note in the final value of HSPF.
+  N3 , \field Crankcase Heater Capacity
+       \type real
+       \minimum 0.0
+       \default 0.0
+       \units W
+       \ip-units W
+  N4 , \field Maximum Outdoor Dry-Bulb Temperature for Crankcase Heater Operation
+       \type real
+       \minimum 0.0
+       \default 10.0
+       \units C
+  A5 , \field Defrost Energy Input Ratio Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note biquadratic curve = a + b*wb + c*wb**2 + d*oat + e*oat**2 + f*wb*oat
+       \note wb = wet-bulb temperature (C) of air entering the indoor coil
+       \note oat = outdoor air dry-bulb temperature (C)
+       \note only required if ReverseCycle defrost strategy is specified
+  N5 , \field Maximum Outdoor Dry-Bulb Temperature for Defrost Operation
+       \type real
+       \minimum 0.0
+       \maximum 7.22
+       \default 5.0
+       \units C
+  A6 , \field Defrost Strategy
+       \type choice
+       \key ReverseCycle
+       \key Resistive
+       \default ReverseCycle
+  A7 , \field Defrost Control
+       \type choice
+       \key Timed
+       \key OnDemand
+       \default Timed
+  N6 , \field Defrost Time Period Fraction
+       \type real
+       \minimum 0.0
+       \default 0.058333
+       \note Fraction of time in defrost mode
+       \note only applicable if timed defrost control is specified
+  N7 , \field Resistive Defrost Heater Capacity
+       \type real
+       \minimum 0.0
+       \default 0.0
+       \autosizable
+       \units W
+       \note only applicable if resistive defrost strategy is specified
+       \ip-units W
+  A8 , \field Apply Part Load Fraction to Speeds Greater than 1
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  A9 , \field Fuel Type
+       \required-field
+       \type choice
+       \key Electricity
+       \key NaturalGas
+       \key Propane
+       \key Diesel
+       \key Gasoline
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key OtherFuel1
+       \key OtherFuel2
+  N8,  \field Region number for Calculating HSPF
+       \type integer
+       \minimum 1
+       \maximum 6
+       \default 4
+       \note Standard Region number for which HSPF and other standard ratings are calculated
+  N9 , \field Number of Speeds
+       \required-field
+       \type integer
+       \minimum 2
+       \maximum 4
+       \note Enter the number of the following sets of data for coil capacity, COP,
+       \note flow rate, and associated curves.
+  N10, \field Speed 1 Gross Rated Heating Capacity
+       \note Heating capacity not accounting for the effect of supply air fan heat
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note capacity excluding supply air fan heat
+       \note rating point outdoor dry-bulb temp 8.33 C, outdoor wet-bulb temp 6.11 C
+       \note rating point heating coil entering air dry-bulb 21.11 C, coil entering
+       \note wet-bulb 15.55 C
+  N11, \field Speed 1 Gross Rated Heating COP
+       \note Rated heating capacity divided by power input to the compressor and outdoor fan,
+       \note does not include supply air fan heat or supply air fan electrical energy
+       \required-field
+       \type real
+       \units W/W
+       \minimum> 0.0
+  N12, \field Speed 1 Rated Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Flow rate corresponding to rated total capacity
+       \note should be between 0.00004027 m3/s and .00006041 m3/s per watt of rated total
+       \note heating capacity
+  N13, \field Speed 1 Rated Supply Air Fan Power Per Volume Flow Rate
+       \note Enter the supply air fan power per air volume flow rate at the rated speed 1 test conditions.
+       \note The test conditions vary external static pressure based on heating capacity. This value
+       \note is only used to calculate Heating Seasonal Performance Factor(HSPF). This value is not
+       \note used for modeling the supply air fan during simulations.
+       \type real
+       \units W/(m3/s)
+       \minimum 0.0
+       \maximum 1250.0
+       \default 773.3
+  A10, \field Speed 1 Heating Capacity Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note quadratic curve = a + b*oat + c*oat**2
+       \note cubic curve = a + b*oat + c*oat**2 + d*oat**3
+       \note biquadratic curve = a + b*iat + c*iat**2 + d*oat + e*oat**2 + f*iat*oat
+       \note oat = outdoor air dry-bulb temperature (C)
+       \note iat = indoor air dry-bulb temperature (C)
+       \note biquadratic curve is recommended if sufficient manufacturer data is
+       \note available for the heating capacity to be sensitive to both iat and oat.
+  A11, \field Speed 1 Heating Capacity Function of Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A12, \field Speed 1 Energy Input Ratio Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note quadratic curve = a + b*oat + c*oat**2
+       \note cubic curve = a + b*oat + c*oat**2 + d*oat**3
+       \note biquadratic curve = a + b*iat + c*iat**2 + d*oat + e*oat**2 + f*iat*oat
+       \note oat = outdoor air dry-bulb temperature (C)
+       \note iat = indoor air dry-bulb temperature (C)
+       \note biquadratic curve is recommended if sufficient manufacturer data is
+       \note available for the energy input ratio to be sensitive to both iat and oat.
+  A13, \field Speed 1 Energy Input Ratio Function of Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A14, \field Speed 1 Part Load Fraction Correlation Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note PLR = part load ratio (sensible heating load/steady state heating capacity)
+  N14, \field Speed 1 Rated Waste Heat Fraction of Power Input
+       \type real
+       \units dimensionless
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.2
+       \note recoverable waste heat at full load and rated conditions
+  A15, \field Speed 1 Waste Heat Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*odb + c*odb**2 + d*db + e*db**2 + f*odb*db
+       \note odb = Outdoor air dry-bulb temperature (C)
+       \note db = entering coil dry-bulb temperature (C)
+  N15, \field Speed 2 Gross Rated Heating Capacity
+       \note Heating capacity not accounting for the effect of supply air fan heat
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note capacity excluding supply air fan heat
+       \note rating point outdoor dry-bulb temp 8.33 C, outdoor wet-bulb temp 6.11 C
+       \note rating point heating coil entering air dry-bulb 21.11 C, coil entering
+       \note wet-bulb 15.55 C
+  N16, \field Speed 2 Gross Rated Heating COP
+       \note Rated heating capacity divided by power input to the compressor and outdoor fan,
+       \note does not include supply air fan heat or supply air fan electrical energy
+       \required-field
+       \type real
+       \units W/W
+       \minimum> 0.0
+  N17, \field Speed 2 Rated Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Flow rate corresponding to rated total capacity
+       \note should be between 0.00004027 m3/s and .00006041 m3/s per watt of rated total
+       \note heating capacity
+  N18, \field Speed 2 Rated Supply Air Fan Power Per Volume Flow Rate
+       \note Enter the supply air fan power per air volume flow rate at the rated speed 2 test conditions.
+       \note The test conditions vary external static pressure based on heating capacity. This value
+       \note is only used to calculate Heating Seasonal Performance Factor(HSPF). This value is not
+       \note used for modeling the supply air fan during simulations.
+       \type real
+       \units W/(m3/s)
+       \minimum 0.0
+       \maximum 1250.0
+       \default 773.3
+  A16, \field Speed 2 Heating Capacity Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note quadratic curve = a + b*oat + c*oat**2
+       \note cubic curve = a + b*oat + c*oat**2 + d*oat**3
+       \note biquadratic curve = a + b*iat + c*iat**2 + d*oat + e*oat**2 + f*iat*oat
+       \note oat = outdoor air dry-bulb temperature (C)
+       \note iat = indoor air dry-bulb temperature (C)
+       \note biquadratic curve is recommended if sufficient manufacturer data is
+       \note available for the heating capacity to be sensitive to both iat and oat.
+  A17, \field Speed 2 Heating Capacity Function of Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A18, \field Speed 2 Energy Input Ratio Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note quadratic curve = a + b*oat + c*oat**2
+       \note cubic curve = a + b*oat + c*oat**2 + d*oat**3
+       \note biquadratic curve = a + b*iat + c*iat**2 + d*oat + e*oat**2 + f*iat*oat
+       \note oat = outdoor air dry-bulb temperature (C)
+       \note iat = indoor air dry-bulb temperature (C)
+       \note biquadratic curve is recommended if sufficient manufacturer data is
+       \note available for the energy input ratio to be sensitive to both iat and oat.
+  A19, \field Speed 2 Energy Input Ratio Function of Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A20, \field Speed 2 Part Load Fraction Correlation Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note PLR = part load ratio (sensible heating load/steady state heating capacity)
+  N19, \field Speed 2 Rated Waste Heat Fraction of Power Input
+       \type real
+       \units dimensionless
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.2
+       \note recoverable waste heat at full load and rated conditions
+  A21, \field Speed 2 Waste Heat Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*odb + c*odb**2 + d*db + e*db**2 + f*odb*db
+       \note odb = Outdoor air dry-bulb temperature (C)
+       \note db = entering coil dry-bulb temperature (C)
+  N20, \field Speed 3 Gross Rated Heating Capacity
+       \note Heating capacity not accounting for the effect of supply air fan heat
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note capacity excluding supply air fan heat
+       \note rating point outdoor dry-bulb temp 8.33 C, outdoor wet-bulb temp 6.11 C
+       \note rating point heating coil entering air dry-bulb 21.11 C, coil entering
+       \note wet-bulb 15.55 C
+  N21, \field Speed 3 Gross Rated Heating COP
+       \note Rated heating capacity divided by power input to the compressor and outdoor fan,
+       \note does not include supply air fan heat or supply air fan electrical energy
+       \type real
+       \units W/W
+       \minimum> 0.0
+  N22, \field Speed 3 Rated Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Flow rate corresponding to rated total capacity
+       \note should be between 0.00004027 m3/s and .00006041 m3/s per watt of rated total
+       \note heating capacity
+  N23, \field Speed 3 Rated Supply Air Fan Power Per Volume Flow Rate
+       \note Enter the supply air fan power per air volume flow rate at the rated speed 3 test conditions.
+       \note The test conditions vary external static pressure based on heating capacity. This value
+       \note is only used to calculate Heating Seasonal Performance Factor(HSPF). This value is not
+       \note used for modeling the supply air fan during simulations.
+       \type real
+       \units W/(m3/s)
+       \minimum 0.0
+       \maximum 1250.0
+       \default 773.3
+  A22, \field Speed 3 Heating Capacity Function of Temperature Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note quadratic curve = a + b*oat + c*oat**2
+       \note cubic curve = a + b*oat + c*oat**2 + d*oat**3
+       \note biquadratic curve = a + b*iat + c*iat**2 + d*oat + e*oat**2 + f*iat*oat
+       \note oat = outdoor air dry-bulb temperature (C)
+       \note iat = indoor air dry-bulb temperature (C)
+       \note biquadratic curve is recommended if sufficient manufacturer data is
+       \note available for the heating capacity to be sensitive to both iat and oat.
+  A23, \field Speed 3 Heating Capacity Function of Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A24, \field Speed 3 Energy Input Ratio Function of Temperature Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note quadratic curve = a + b*oat + c*oat**2
+       \note cubic curve = a + b*oat + c*oat**2 + d*oat**3
+       \note biquadratic curve = a + b*iat + c*iat**2 + d*oat + e*oat**2 + f*iat*oat
+       \note oat = outdoor air dry-bulb temperature (C)
+       \note iat = indoor air dry-bulb temperature (C)
+       \note biquadratic curve is recommended if sufficient manufacturer data is
+       \note available for the energy input ratio to be sensitive to both iat and oat.
+  A25, \field Speed 3 Energy Input Ratio Function of Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A26, \field Speed 3 Part Load Fraction Correlation Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note PLR = part load ratio (sensible heating load/steady state heating capacity)
+  N24, \field Speed 3 Rated Waste Heat Fraction of Power Input
+       \type real
+       \units dimensionless
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.2
+       \note recoverable waste heat at full load and rated conditions
+  A27, \field Speed 3 Waste Heat Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*odb + c*odb**2 + d*db + e*db**2 + f*odb*db
+       \note odb = Outdoor air dry-bulb temperature (C)
+       \note db = entering coil dry-bulb temperature (C)
+  N25, \field Speed 4 Gross Rated Heating Capacity
+       \note Heating capacity not accounting for the effect of supply air fan heat
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note capacity excluding supply air fan heat
+       \note rating point outdoor dry-bulb temp 8.33 C, outdoor wet-bulb temp 6.11 C
+       \note rating point heating coil entering air dry-bulb 21.11 C, coil entering
+       \note wet-bulb 15.55 C
+  N26, \field Speed 4 Gross Rated Heating COP
+       \note Rated heating capacity divided by power input to the compressor and outdoor fan,
+       \note does not include supply air fan heat or supply air fan electrical energy
+       \type real
+       \units W/W
+       \minimum> 0.0
+  N27, \field Speed 4 Rated Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Flow rate corresponding to rated total capacity
+       \note should be between 0.00004027 m3/s and .00006041 m3/s per watt of rated total
+       \note heating capacity
+  N28, \field Speed 4 Rated Supply Air Fan Power Per Volume Flow Rate
+       \note Enter the supply air fan power per air volume flow rate at the rated speed 4 test conditions.
+       \note The test conditions vary external static pressure based on heating capacity. This value
+       \note is only used to calculate Heating Seasonal Performance Factor(HSPF). This value is not
+       \note used for modeling the supply air fan during simulations.
+       \type real
+       \units W/(m3/s)
+       \minimum 0.0
+       \maximum 1250.0
+       \default 773.3
+  A28, \field Speed 4 Heating Capacity Function of Temperature Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note quadratic curve = a + b*oat + c*oat**2
+       \note cubic curve = a + b*oat + c*oat**2 + d*oat**3
+       \note biquadratic curve = a + b*iat + c*iat**2 + d*oat + e*oat**2 + f*iat*oat
+       \note oat = outdoor air dry-bulb temperature (C)
+       \note iat = indoor air dry-bulb temperature (C)
+       \note biquadratic curve is recommended if sufficient manufacturer data is
+       \note available for the heating capacity to be sensitive to both iat and oat.
+  A29, \field Speed 4 Heating Capacity Function of Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A30, \field Speed 4 Energy Input Ratio Function of Temperature Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note quadratic curve = a + b*oat + c*oat**2
+       \note cubic curve = a + b*oat + c*oat**2 + d*oat**3
+       \note biquadratic curve = a + b*iat + c*iat**2 + d*oat + e*oat**2 + f*iat*oat
+       \note oat = outdoor air dry-bulb temperature (C)
+       \note iat = indoor air dry-bulb temperature (C)
+       \note biquadratic curve is recommended if sufficient manufacturer data is
+       \note available for the energy input ratio to be sensitive to both iat and oat.
+  A31, \field Speed 4 Energy Input Ratio Function of Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = fraction of the full load flow
+  A32, \field Speed 4 Part Load Fraction Correlation Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note PLR = part load ratio (sensible heating load/steady state heating capacity)
+  N29, \field Speed 4 Rated Waste Heat Fraction of Power Input
+       \type real
+       \units dimensionless
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.2
+       \note recoverable waste heat at full load and rated conditions
+  A33, \field Speed 4 Waste Heat Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*odb + c*odb**2 + d*db + e*db**2 + f*odb*db
+       \note odb = Outdoor air dry-bulb temperature (C)
+       \note db = entering coil dry-bulb temperature (C)
+  A34, \field Zone Name for Evaporator Placement
+       \note This input field is name of a conditioned or unconditioned zone where the secondary
+       \note coil (evaporator) of a heat pump is to be placed. This is an optional input field
+       \note specified only when user desires to extract heat from the zone. The heat extracted
+       \note is modeled as internal heat gain of the zone. If the primary DX system is a heat pump,
+       \note then the zone name should be the same as the zone name specified for placing the
+       \note secondary cooling DX coil.
+  N30, \field Speed 1 Secondary Coil Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note This input value is the secondary coil (evaporator) air flow rate when the heat pump
+       \note is working in heating mode or the secondary DX coil (condenser) air flow rate when the
+       \note heat pump is working in cooling mode.
+  N31, \field Speed 1 Secondary Coil Fan Flow Scaling Factor
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \default 1.25
+       \note This input field is scaling factor for autosizing the secondary DX coil fan flow rate.
+       \note The secondary air flow rate is determined by multiplying the primary DX coil rated air
+       \note flow rate by the fan flow scaling factor. Default value is 1.25. If the secondary coil
+       \note fan flow rate is not autosized, then the secondary coil fan flow scaling factor is set
+       \note to 1.0.
+  N32, \field Speed 1 Nominal Sensible Heat Ratio of Secondary Coil
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \maximum 1.0
+       \note This input value is the nominal sensible heat ratio used to split the heat extracted by
+       \note a secondary DX coil (evaporator) of a heat pump into sensible and latent components.
+       \note This is an optional input field. If this input field is left blank, then pure sensible
+       \note internal heat gain is assumed, i.e., sensible heat ratio of 1.0.
+  A35, \field Speed 1 Sensible Heat Ratio Modifier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*db + e*db**2 + f*wb*db
+       \note wb = entering wet-bulb temperature seen by the secondary DX coil (C)
+       \note db = entering dry-bulb temperature seen by the primary DX coil (C)
+       \note This input field is name of sensible heat ratio modifier biquadratic curve. The value
+       \note of this curve modifies the nominal sensible heat ratio for current time step depending
+       \note on the secondary zone air node wet-bulb temperature and the heating DX coil entering
+       \note air dry-bulb temperature. This is an optional input field. If this input field is left
+       \note blank, then the nominal sensible heat ratio specified in the field above will be used.
+  A36, \field Speed 1 Sensible Heat Ratio Modifier Function of Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = secondary air flow fraction of the full load flow
+       \note This input field is name of sensible heat ratio modifier curve. The value
+       \note of this curve modifies the nominal sensible heat ratio for current time step depending
+       \note on the secondary coil air flow fraction. This is an optional input field. If this input
+       \note field is left blank, then the nominal sensible heat ratio specified will be used.
+  N33, \field Speed 2 Secondary Coil Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note This input value is the secondary coil (evaporator) air flow rate when the heat pump
+       \note is working in heating mode or the secondary DX coil (condenser) air flow rate when the
+       \note heat pump is working in cooling mode.
+  N34, \field Speed 2 Secondary Coil Fan Flow Scaling Factor
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \default 1.25
+       \note This input field is scaling factor for autosizing the secondary DX coil fan flow rate.
+       \note The secondary air flow rate is determined by multiplying the primary DX coil rated air
+       \note flow rate by the fan flow scaling factor. Default value is 1.25. If the secondary coil
+       \note fan flow rate is not autosized, then the secondary coil fan flow scaling factor is set
+       \note to 1.0.
+  N35, \field Speed 2 Nominal Sensible Heat Ratio of Secondary Coil
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \maximum 1.0
+       \note This input value is the nominal sensible heat ratio used to split the heat extracted by
+       \note a secondary DX coil (evaporator) of a heat pump into sensible and latent components.
+       \note This is an optional input field. If this input field is left blank, then pure sensible
+       \note internal heat gain is assumed, i.e., sensible heat ratio of 1.0.
+  A37, \field Speed 2 Sensible Heat Ratio Modifier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*db + e*db**2 + f*wb*db
+       \note wb = entering wet-bulb temperature seen by the secondary DX coil (C)
+       \note db = entering dry-bulb temperature seen by the primary DX coil (C)
+       \note This input field is name of sensible heat ratio modifier biquadratic curve. The value
+       \note of this curve modifies the nominal sensible heat ratio for current time step depending
+       \note on the secondary zone air node wet-bulb temperature and the heating DX coil entering
+       \note air dry-bulb temperature. This is an optional input field. If this input field is left
+       \note blank, then the nominal sensible heat ratio specified in the field above will be used.
+  A38, \field Speed 2 Sensible Heat Ratio Modifier Function of Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = secondary air flow fraction of the full load flow
+       \note This input field is name of sensible heat ratio modifier curve. The value
+       \note of this curve modifies the nominal sensible heat ratio for current time step depending
+       \note on the secondary coil air flow fraction. This is an optional input field. If this input
+       \note field is left blank, then the nominal sensible heat ratio specified will be used.
+  N36, \field Speed 3 Secondary Coil Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note This input value is the secondary coil (evaporator) air flow rate when the heat pump
+       \note is working in heating mode or the secondary DX coil (condenser) air flow rate when the
+       \note heat pump is working in cooling mode.
+  N37, \field Speed 3 Secondary Coil Fan Flow Scaling Factor
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \default 1.25
+       \note This input field is scaling factor for autosizing the secondary DX coil fan flow rate.
+       \note The secondary air flow rate is determined by multiplying the primary DX coil rated air
+       \note flow rate by the fan flow scaling factor. Default value is 1.25. If the secondary coil
+       \note fan flow rate is not autosized, then the secondary coil fan flow scaling factor is set
+       \note to 1.0.
+  N38, \field Speed 3 Nominal Sensible Heat Ratio of Secondary Coil
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \maximum 1.0
+       \note This input value is the nominal sensible heat ratio used to split the heat extracted by
+       \note a secondary DX coil (evaporator) of a heat pump into sensible and latent components.
+       \note This is an optional input field. If this input field is left blank, then pure sensible
+       \note internal heat gain is assumed, i.e., sensible heat ratio of 1.0.
+  A39, \field Speed 3 Sensible Heat Ratio Modifier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*db + e*db**2 + f*wb*db
+       \note wb = entering wet-bulb temperature seen by the secondary DX coil (C)
+       \note db = entering dry-bulb temperature seen by the primary DX coil (C)
+       \note This input field is name of sensible heat ratio modifier biquadratic curve. The value
+       \note of this curve modifies the nominal sensible heat ratio for current time step depending
+       \note on the secondary zone air node wet-bulb temperature and the heating DX coil entering
+       \note air dry-bulb temperature. This is an optional input field. If this input field is left
+       \note blank, then the nominal sensible heat ratio specified in the field above will be used.
+  A40, \field Speed 3 Sensible Heat Ratio Modifier Function of Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = secondary air flow fraction of the full load flow
+       \note This input field is name of sensible heat ratio modifier curve. The value
+       \note of this curve modifies the nominal sensible heat ratio for current time step depending
+       \note on the secondary coil air flow fraction. This is an optional input field. If this input
+       \note field is left blank, then the nominal sensible heat ratio specified will be used.
+  N39, \field Speed 4 Secondary Coil Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note This input value is the secondary coil (evaporator) air flow rate when the heat pump
+       \note is working in heating mode or the secondary DX coil (condenser) air flow rate when the
+       \note heat pump is working in cooling mode.
+  N40, \field Speed 4 Secondary Coil Fan Flow Scaling Factor
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \default 1.25
+       \note This input field is scaling factor for autosizing the secondary DX coil fan flow rate.
+       \note The secondary air flow rate is determined by multiplying the primary DX coil rated air
+       \note flow rate by the fan flow scaling factor. Default value is 1.25. If the secondary coil
+       \note fan flow rate is not autosized, then the secondary coil fan flow scaling factor is set
+       \note to 1.0.
+  N41, \field Speed 4 Nominal Sensible Heat Ratio of Secondary Coil
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \maximum 1.0
+       \note This input value is the nominal sensible heat ratio used to split the heat extracted by
+       \note a secondary DX coil (evaporator) of a heat pump into sensible and latent components.
+       \note This is an optional input field. If this input field is left blank, then pure sensible
+       \note internal heat gain is assumed, i.e., sensible heat ratio of 1.0.
+  A41, \field Speed 4 Sensible Heat Ratio Modifier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*wb + c*wb**2 + d*db + e*db**2 + f*wb*db
+       \note wb = entering wet-bulb temperature seen by the secondary DX coil (C)
+       \note db = entering dry-bulb temperature seen by the primary DX coil (C)
+       \note This input field is name of sensible heat ratio modifier biquadratic curve. The value
+       \note of this curve modifies the nominal sensible heat ratio for current time step depending
+       \note on the secondary zone air node wet-bulb temperature and the heating DX coil entering
+       \note air dry-bulb temperature. This is an optional input field. If this input field is left
+       \note blank, then the nominal sensible heat ratio specified in the field above will be used.
+  A42; \field Speed 4 Sensible Heat Ratio Modifier Function of Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = secondary air flow fraction of the full load flow
+       \note This input field is name of sensible heat ratio modifier curve. The value
+       \note of this curve modifies the nominal sensible heat ratio for current time step depending
+       \note on the secondary coil air flow fraction. This is an optional input field. If this input
+       \note field is left blank, then the nominal sensible heat ratio specified will be used.
+
+Coil:Heating:DX:VariableSpeed,
+        \memo Direct expansion (DX) heating coil (air-to-air heat pump) and compressor unit
+        \memo (includes electric compressor and outdoor fan), variable-speed, with defrost
+        \memo controls. Requires two to ten sets of performance data and will interpolate between
+        \memo speeds.
+        \min-fields 25
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference HeatingCoilsDXVariableSpeed
+   A2,  \field Indoor Air Inlet Node Name
+        \required-field
+        \type node
+   A3,  \field Indoor Air Outlet Node Name
+        \required-field
+        \type node
+   N1,  \field Number of Speeds
+        \units dimensionless
+        \type integer
+        \minimum 1
+        \maximum 10
+        \default 2
+   N2,  \field Nominal Speed Level
+        \units dimensionless
+        \type integer
+        \default 2
+        \note must be lower than or equal to the highest speed number
+   N3,  \field Rated Heating Capacity At Selected Nominal Speed Level
+        \units W
+        \type real
+        \autosizable
+        \default autosize
+   N4,  \field Rated Air Flow Rate At Selected Nominal Speed Level
+        \units m3/s
+        \type real
+        \autosizable
+        \default autosize
+   A4,  \field Energy Part Load Fraction Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*PLR + c*PLR**2
+        \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+        \note PLR = part load ratio (heating load/steady state capacity)
+   A5,  \field Defrost Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note biquadratic curve = a + b*wb + c*wb**2 + d*oat + e*oat**2 + f*wb*oat
+        \note wb = wet-bulb temperature (C) of air entering the indoor coil
+        \note oat = outdoor air dry-bulb temperature (C)
+        \note only required if ReverseCycle defrost strategy is specified
+   N5,  \field Minimum Outdoor Dry-Bulb Temperature for Compressor Operation
+        \type real
+        \default -8.0
+        \units C
+   N6,  \field Outdoor Dry-Bulb Temperature to Turn On Compressor
+        \type real
+        \units C
+        \note The outdoor temperature when the compressor is automatically turned back on following an
+        \note automatic shut off because of low outdoor dry-bulb temperature. This field is only used
+        \note for the calculation of HSPF. If this field is not provided, then outdoor bin temperature
+        \note used in the HSPF calculation is always considered to be greater than this temperature and
+        \note 'Minimum Outdoor Dry-Bulb Temperature for Compressor Operation' field described above.
+        \note This assumption is based on AHRI standard 210/240 (2008) and can introduce significant error
+        \note in the final value of HSPF.
+   N7,  \field Maximum Outdoor Dry-Bulb Temperature for Defrost Operation
+        \type real
+        \minimum 0.0
+        \maximum 7.22
+        \default 5.0
+        \units C
+   N8,  \field Crankcase Heater Capacity
+        \type real
+        \minimum 0.0
+        \default 0.0
+        \units W
+        \ip-units W
+   N9,  \field Maximum Outdoor Dry-Bulb Temperature for Crankcase Heater Operation
+        \type real
+        \minimum 0.0
+        \default 10.0
+        \units C
+   A6,  \field Defrost Strategy
+        \type choice
+        \key ReverseCycle
+        \key Resistive
+        \default ReverseCycle
+   A7,  \field Defrost Control
+        \type choice
+        \key Timed
+        \key OnDemand
+        \default Timed
+   N10, \field Defrost Time Period Fraction
+        \type real
+        \minimum 0.0
+        \default 0.058333
+        \note Fraction of time in defrost mode
+        \note only applicable if timed defrost control is specified
+   N11, \field Resistive Defrost Heater Capacity
+        \type real
+        \minimum 0.0
+        \default 0.0
+        \autosizable
+        \units W
+        \note only applicable if resistive defrost strategy is specified
+        \ip-units W
+   N12, \field Speed 1 Reference Unit Gross Rated Heating Capacity
+       \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+        \required-field
+   N13, \field Speed 1 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+        \required-field
+   N14,  \field Speed 1 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+        \required-field
+   A8,  \field Speed 1 Heating Capacity Function of Temperature Curve Name
+        \required-field
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A9,  \field Speed 1 Total  Heating Capacity Function of Air Flow Fraction Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A10, \field Speed 1 Energy Input Ratio Function of Temperature Curve Name
+        \required-field
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A11, \field Speed 1 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N15, \field Speed 2 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N16, \field Speed 2 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N17, \field Speed 2 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   A12, \field Speed 2 Heating Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A13, \field Speed 2 Total  Heating Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A14, \field Speed 2 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A15, \field Speed 2 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N18, \field Speed 3 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N19, \field Speed 3 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N20, \field Speed 3 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   A16, \field Speed 3 Heating Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A17, \field Speed 3 Total  Heating Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A18, \field Speed 3 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A19, \field Speed 3 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N21, \field Speed 4 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N22, \field Speed 4 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N23, \field Speed 4 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   A20, \field Speed 4 Heating Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A21, \field Speed 4 Heating Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A22, \field Speed 4 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A23, \field Speed 4 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N24, \field Speed 5 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N25, \field Speed 5 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N26, \field Speed 5 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   A24, \field Speed 5 Heating Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A25, \field Speed 5 Heating Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A26, \field Speed 5 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A27, \field Speed 5 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N27, \field Speed 6 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N28, \field Speed 6 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N29, \field Speed 6 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   A28, \field Speed 6 Heating Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A29, \field Speed 6 Heating Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A30, \field Speed 6 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A31, \field Speed 6 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N30, \field Speed 7 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N31, \field Speed 7 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N32, \field Speed 7 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   A32, \field Speed 7 Heating Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A33, \field Speed 7 Heating Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A34, \field Speed 7 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A35, \field Speed 7 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N33, \field Speed 8 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N34, \field Speed 8 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N35, \field Speed 8 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   A36, \field Speed 8 Heating Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A37, \field Speed 8 Heating Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A38, \field Speed 8 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A39, \field Speed 8 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N36, \field Speed 9 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N37, \field Speed 9 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N38, \field Speed 9 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   A40, \field Speed 9 Heating Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A41, \field Speed 9 Heating Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A42, \field Speed 9 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A43, \field Speed 9 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   N39, \field Speed 10 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N40, \field Speed 10 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N41, \field Speed 10 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   A44, \field Speed 10 Heating Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A45, \field Speed 10 Heating Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A46, \field Speed 10 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*oat + e*oat**2 + f*db*oat
+        \note db = entering air dry-bulb temperature (C)
+        \note oat = air entering temperature seen by the evaporator (C)
+   A47; \field Speed 10 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+
+
+Coil:Cooling:WaterToAirHeatPump:ParameterEstimation,
+        \memo Direct expansion (DX) cooling coil for water-to-air heat pump (includes electric
+        \memo compressor), single-speed, parameter estimation model. Optional inputs for moisture
+        \memo evaporation from wet coil when compressor cycles off with continuous fan operation.
+        \memo Parameter estimation model is a deterministic model that requires a consistent set of
+        \memo parameters to describe the operating conditions of the heat pump components.
+        \min-fields 18
+   A1 , \field Name
+        \required-field
+        \type alpha
+        \reference CoolingCoilsWaterToAirHP
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2 , \field Compressor Type
+        \required-field
+        \type choice
+        \key Reciprocating
+        \key Rotary
+        \key Scroll
+        \note Parameters 1-5 are as named below.
+        \note Parameters 6-10 depend on the type of compressor and fluid.
+        \note Refer to the InputOutputReference on the parameters required
+   A3,  \field Refrigerant Type
+        \type object-list
+        \object-list FluidNames
+        \default R22
+   N1,  \field Design Source Side Flow Rate
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m3/s
+        \ip-units gal/min
+   N2,  \field Nominal Cooling Coil Capacity
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units W
+   N3,  \field Nominal Time for Condensate Removal to Begin
+        \type real
+        \units s
+        \minimum 0.0
+        \maximum 3000.0
+        \default 0.0
+        \note The nominal time for condensate to begin leaving the coil's condensate
+        \note drain line at the coil's rated air flow rate and temperature conditions.
+        \note Nominal time is equal to the ratio of the energy of the coil's maximum
+        \note condensate holding capacity (J) to the coil's steady state latent capacity (W).
+        \note Suggested value is 1000; zero value means latent degradation model is disabled.
+   N4,  \field Ratio of Initial Moisture Evaporation Rate and Steady State Latent Capacity
+        \type real
+        \units dimensionless
+        \minimum 0.0
+        \maximum 5.0
+        \default 0.0
+        \note Ratio of the initial moisture evaporation rate from the cooling coil (when
+        \note the compressor first turns off) and the coil's steady state latent capacity
+        \note at rated air flow rate and temperature conditions. Suggested value is 1.5; zero value
+        \note means latent degradation model is disabled.
+   N5,  \field High Pressure Cutoff
+        \required-field
+        \minimum> 0.0
+        \units Pa
+   N6,  \field Low Pressure Cutoff
+        \required-field
+        \type real
+        \minimum 0.0
+        \units Pa
+   A4,  \field Water Inlet Node Name
+        \required-field
+        \type node
+   A5,  \field Water Outlet Node Name
+        \required-field
+        \type node
+   A6,  \field Air Inlet Node Name
+        \required-field
+        \type node
+   A7,  \field Air Outlet Node Name
+        \required-field
+        \type node
+   N7,  \field Load Side Total Heat Transfer Coefficient
+        \note Previously called Parameter 1
+        \required-field
+        \minimum> 0.0
+        \type real
+        \units W/K
+   N8,  \field Load Side Outside Surface Heat Transfer Coefficient
+        \note Previously called Parameter 2
+        \required-field
+        \minimum> 0.0
+        \type real
+        \units W/K
+   N9,  \field Superheat Temperature at the Evaporator Outlet
+        \note Previously called Parameter 3
+        \required-field
+        \minimum> 0.0
+        \type real
+        \units C
+   N10, \field Compressor Power Losses
+        \note Accounts for the loss of work due to mechanical and electrical losses in the compressor.
+        \note Previously called Parameter 4
+        \required-field
+        \minimum> 0.0
+        \type real
+        \units W
+   N11, \field Compressor Efficiency
+        \note Previously called Parameter 5
+        \required-field
+        \minimum> 0.0
+        \type real
+   N12, \field Compressor Piston Displacement
+        \note Use when Compressor Type is Reciprocating or Rotary
+        \note Leave this field blank for Compressor Type is Scroll.
+        \note Previously part of Parameter 6
+        \units m3/s
+        \minimum> 0.0
+        \type real
+   N13, \field Compressor Suction/Discharge Pressure Drop
+        \note Used when Compressor Type is Rotary or Reciprocating
+        \note Leave this field blank for Compressor Type is Scroll.
+        \note Previously part of Parameter 7
+        \units Pa
+        \minimum> 0.0
+        \type real
+   N14, \field Compressor Clearance Factor
+        \note Used when Compressor Type is Reciprocating.
+        \note Leave this field blank for Compressor Type is Rotary or Scroll.
+        \note Previously part of Parameter 8
+        \units dimensionless
+        \minimum> 0.0
+        \type real
+   N15, \field Refrigerant Volume Flow Rate
+        \note Use when Compressor Type is Scroll
+        \note Leave this field blank for Compressor Type is Rotary or Reciprocating.
+        \note Previously part of Parameter 6
+        \units m3/s
+        \minimum> 0.0
+        \type real
+   N16, \field Volume Ratio
+        \note Use when Compressor Type is Scroll.
+        \note Leave this field blank for Compressor Type is Rotary or Reciprocating.
+        \note Previously part of Parameter 7
+        \units dimensionless
+        \minimum> 0.0
+        \type real
+   N17, \field Leak Rate Coefficient
+        \note Use when Compressor Type is Scroll.
+        \note Leave this field blank for Compressor Type is Rotary or Reciprocating.
+        \note Previously part of Parameter 8
+        \minimum 0.0
+        \type real
+   N18, \field Source Side Heat Transfer Coefficient
+        \note Use when Source Side Fluid Name is Water
+        \note Leave this field blank when Source Side Fluid Name is an antifreeze
+        \note Previously part of Parameter 9
+        \units W/K
+        \minimum 0.0
+        \type real
+   N19, \field Source Side Heat Transfer Resistance1
+        \note Use when Source Side Fluid Name is an antifreeze
+        \note Leave this field blank for Source Side Fluid is Water
+        \note Previously part of Parameter 9
+        \minimum 0.0
+        \units dimensionless
+        \type real
+   N20; \field Source Side Heat Transfer Resistance2
+        \note Use when Source Side Fluid Name is an antifreeze
+        \note Leave this field blank for Source Side Fluid is Water
+        \note Previously part of Parameter 10
+        \units W/K
+        \minimum 0.0
+        \type real
+
+Coil:Heating:WaterToAirHeatPump:ParameterEstimation,
+        \memo Direct expansion (DX) heating coil for water-to-air heat pump (includes electric
+        \memo compressor), single-speed, parameter estimation model. Parameter estimation model is
+        \memo a deterministic model that requires a consistent set of parameters to describe
+        \memo the operating conditions of the heat pump components.
+        \min-fields 15
+   A1 , \field Name
+        \required-field
+        \type alpha
+        \reference HeatingCoilsWaterToAirHP
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2 , \field Compressor Type
+        \required-field
+        \type choice
+        \key Reciprocating
+        \key Rotary
+        \key Scroll
+        \note Parameters 1-4 are as named below.
+        \note Parameters 5-9 depend on the type of compressor.
+        \note Refer to the InputOutputReference on the parameters required
+   A3,  \field Refrigerant Type
+        \type object-list
+        \object-list FluidNames
+        \default R22
+   N1,  \field Design Source Side Flow Rate
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m3/s
+        \ip-units gal/min
+   N2,  \field Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units W
+   N3,  \field High Pressure Cutoff
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units Pa
+   N4,  \field Low Pressure Cutoff
+        \required-field
+        \type real
+        \minimum 0.0
+        \units Pa
+   A4,  \field Water Inlet Node Name
+        \required-field
+        \type node
+   A5,  \field Water Outlet Node Name
+        \required-field
+        \type node
+   A6,  \field Air Inlet Node Name
+        \required-field
+        \type node
+   A7,  \field Air Outlet Node Name
+        \required-field
+        \type node
+   N5,  \field Load Side Total Heat Transfer Coefficient
+        \note Previously called Parameter 1
+        \required-field
+        \minimum> 0.0
+        \type real
+        \units W/K
+   N6,  \field Superheat Temperature at the Evaporator Outlet
+        \note Previously called Parameter 2
+        \required-field
+        \minimum> 0.0
+        \type real
+        \units C
+   N7,  \field Compressor Power Losses
+        \note Accounts for the loss of work due to mechanical and electrical losses in the compressor.
+        \note Previously called Parameter 3
+        \required-field
+        \minimum> 0.0
+        \type real
+        \units W
+   N8,  \field Compressor Efficiency
+        \note Previously called Parameter 4
+        \required-field
+        \minimum> 0.0
+        \type real
+   N9,  \field Compressor Piston Displacement
+        \note Use when Compressor Type is Reciprocating or Rotary
+        \note Leave this field blank for Compressor Type is Scroll.
+        \note Previously part of Parameter 5
+        \units m3/s
+        \minimum> 0.0
+        \type real
+   N10, \field Compressor Suction/Discharge Pressure Drop
+        \note Used when Compressor Type is Rotary or Reciprocating
+        \note Leave this field blank for Compressor Type is Scroll.
+        \note Previously part of Parameter 6
+        \units Pa
+        \minimum> 0.0
+        \type real
+   N11, \field Compressor Clearance Factor
+        \note Used when Compressor Type is Reciprocating.
+        \note Leave this field blank for Compressor Type is Rotary or Scroll.
+        \note Previously part of Parameter 7
+        \units dimensionless
+        \minimum> 0.0
+        \type real
+   N12, \field Refrigerant Volume Flow Rate
+        \note Use when Compressor Type is Scroll
+        \note Leave this field blank for Compressor Type is Rotary or Reciprocating.
+        \note Previously part of Parameter 5
+        \units m3/s
+        \minimum> 0.0
+        \type real
+   N13, \field Volume Ratio
+        \note Use when Compressor Type is Scroll.
+        \note Leave this field blank for Compressor Type is Rotary or Reciprocating.
+        \note Previously part of Parameter 6
+        \units dimensionless
+        \minimum> 0.0
+        \type real
+   N14, \field Leak Rate Coefficient
+        \note Use when Compressor Type is Scroll.
+        \note Leave this field blank for Compressor Type is Rotary or Reciprocating.
+        \note Previously part of Parameter 7
+        \units dimensionless
+        \minimum 0.0
+        \type real
+   N15, \field Source Side Heat Transfer Coefficient
+        \note Use when Source Side Fluid Name is Water
+        \note Leave this field blank when Source Side Fluid is an antifreeze
+        \note Previously part of Parameter 8
+        \units W/K
+        \minimum 0.0
+        \type real
+   N16, \field Source Side Heat Transfer Resistance1
+        \note Use when Source Side Fluid Name is an antifreeze
+        \note Leave this field blank for Source Side Fluid is Water
+        \note Previously part of Parameter 8
+        \minimum 0.0
+        \units dimensionless
+        \type real
+   N17; \field Source Side Heat Transfer Resistance2
+        \note Use when Source Side Fluid Name is an antifreeze
+        \note Leave this field blank for Source Side Fluid is Water
+        \note Previously part of Parameter 9
+        \units W/K
+        \minimum 0.0
+        \type real
+
+Coil:Cooling:WaterToAirHeatPump:EquationFit,
+        \memo Direct expansion (DX) cooling coil for water-to-air heat pump (includes electric
+        \memo compressor), single-speed, equation-fit model. Optional inputs for moisture
+        \memo evaporation from wet coil when compressor cycles off with continuous fan operation.
+        \memo Equation-fit model uses normalized curves to describe the heat pump performance.
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference CoolingCoilsWaterToAirHP
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+        \reference DesuperHeatingWaterOnlySources
+   A2,  \field Water Inlet Node Name
+        \required-field
+        \type node
+   A3,  \field Water Outlet Node Name
+        \required-field
+        \type node
+   A4,  \field Air Inlet Node Name
+        \required-field
+        \type node
+   A5,  \field Air Outlet Node Name
+        \required-field
+        \type node
+   N1,  \field Rated Air Flow Rate
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m3/s
+        \autosizable
+   N2,  \field Rated Water Flow Rate
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m3/s
+        \ip-units gal/min
+        \autosizable
+   N3,  \field Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units W
+        \autosizable
+   N4,  \field Gross Rated Sensible Cooling Capacity
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units W
+        \autosizable
+   N5,  \field Gross Rated Cooling COP
+        \required-field
+        \type real
+        \units W/W
+        \minimum> 0.0
+   A6,  \field Total Cooling Capacity Curve Name
+        \required-field
+        \type object-list
+        \object-list QuadvariateFunctions
+   A7, \field Sensible Cooling Capacity Curve Name
+        \required-field
+        \type object-list
+        \object-list QuintvariateFunctions
+   A8, \field Cooling Power Consumption Curve Name
+        \required-field
+        \type object-list
+        \object-list QuadvariateFunctions
+   N6, \field Nominal Time for Condensate Removal to Begin
+        \type real
+        \units s
+        \minimum 0.0
+        \maximum 3000.0
+        \default 0.0
+        \note The nominal time for condensate to begin leaving the coil's condensate
+        \note drain line at the coil's rated air flow and temperature conditions.
+        \note Nominal time is equal to the ratio of the energy of the coil's maximum
+        \note condensate holding capacity (J) to the coil's steady state latent capacity (W).
+        \note Suggested value is 1000; zero value means latent degradation model is disabled.
+   N7; \field Ratio of Initial Moisture Evaporation Rate and Steady State Latent Capacity
+        \type real
+        \units dimensionless
+        \minimum 0.0
+        \maximum 5.0
+        \default 0.0
+        \note Ratio of the initial moisture evaporation rate from the cooling coil (when
+        \note the compressor first turns off) and the coil's steady state latent capacity
+        \note at rated air flow rate and temperature conditions. Suggested value is 1.5; zero value
+        \note means latent degradation model is disabled.
+
+Coil:Cooling:WaterToAirHeatPump:VariableSpeedEquationFit,
+        \memo Direct expansion (DX) cooling coil for water-to-air heat pump (includes electric
+        \memo compressor), variable-speed, equation-fit model. Optional inputs for moisture
+        \memo evaporation from wet coil when compressor cycles off with continuous fan operation.
+        \memo Equation-fit model uses normalized curves to describe the heat pump performance.
+        \memo Requires two to ten sets of performance data and will interpolate between speeds.
+        \memo Modeled as a single coil with variable-speed compressor.
+        \min-fields 27
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference CoolingCoilsWaterToAirVSHP
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2,  \field Water-to-Refrigerant HX Water Inlet Node Name
+        \required-field
+        \type node
+   A3,  \field Water-to-Refrigerant HX Water Outlet Node Name
+        \required-field
+        \type node
+   A4,  \field Indoor Air Inlet Node Name
+        \required-field
+        \type node
+   A5,  \field Indoor Air Outlet Node Name
+        \required-field
+        \type node
+   N1,  \field Number of Speeds
+        \units dimensionless
+        \type integer
+        \minimum 1
+        \maximum 10
+        \default 2
+   N2,  \field Nominal Speed Level
+        \units dimensionless
+        \type integer
+        \default 2
+        \note must be lower than or equal to the highest speed number
+   N3,  \field Gross Rated Total Cooling Capacity At Selected Nominal Speed Level
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \autosizable
+        \default autosize
+   N4,  \field Rated Air Flow Rate At Selected Nominal Speed Level
+        \units m3/s
+        \type real
+        \autosizable
+        \default autosize
+   N5,  \field Rated Water Flow Rate At Selected Nominal Speed Level
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \autosizable
+        \default autosize
+   N6,  \field Nominal Time for Condensate to Begin Leaving the Coil
+        \units s
+        \type real
+        \minimum 0
+        \default 0
+   N7,  \field Initial Moisture Evaporation Rate Divided by Steady-State AC Latent Capacity
+        \units dimensionless
+        \type real
+        \minimum 0
+        \default 0
+   N8,  \field Flag for Using Hot Gas Reheat, 0 or 1
+        \note Flag for using hot gas reheat, 0 - not used, 1 - used
+        \units dimensionless
+        \type real
+        \minimum 0
+        \default 0
+   A6,  \field Energy Part Load Fraction Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*PLR + c*PLR**2
+        \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+        \note PLR = part load ratio (cooling load/steady state capacity)
+   N9,  \field Speed 1 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+        \required-field
+   N10, \field Speed 1 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+        \required-field
+   N11, \field Speed 1 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+        \required-field
+   N12, \field Speed 1 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+        \required-field
+   N13, \field Speed 1 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+        \required-field
+   A7,  \field Speed 1 Total Cooling Capacity Function of Temperature Curve Name
+        \required-field
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A8,   \field Speed 1 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A9,  \field Speed 1 Total Cooling Capacity Function of Water Flow Fraction Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A10, \field Speed 1 Energy Input Ratio Function of Temperature Curve Name
+        \required-field
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A11, \field Speed 1 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A12, \field Speed 1 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N14, \field Speed 1 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+        \required-field
+   A13, \field Speed 1 Waste Heat Function of Temperature Curve Name
+        \required-field
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   N15, \field Speed 2 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N16, \field Speed 2 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N17, \field Speed 2 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N18, \field Speed 2 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N19, \field Speed 2 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A14, \field Speed 2 Total Cooling Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A15, \field Speed 2 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A16, \field Speed 2 Total Cooling Capacity Function of Water Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A17, \field Speed 2 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewet + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A18, \field Speed 2 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A19, \field Speed 2 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N20, \field Speed 2 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A20, \field Speed 2 Waste Heat Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   N21, \field Speed 3 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N22, \field Speed 3 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N23, \field Speed 3 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N24, \field Speed 3 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N25, \field Speed 3 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A21, \field Speed 3 Total Cooling Capacity Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A22, \field Speed 3 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A23, \field Speed 3 Total Cooling Capacity Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A24, \field Speed 3 Energy Input Ratio Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A25, \field Speed 3 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A26, \field Speed 3 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N26, \field Speed 3 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A27, \field Speed 3 Waste Heat Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   N27, \field Speed 4 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N28, \field Speed 4 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N29, \field Speed 4 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N30, \field Speed 4 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N31, \field Speed 4 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A28, \field Speed 4 Total Cooling Capacity Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A29, \field Speed 4 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A30, \field Speed 4 Total Cooling Capacity Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A31, \field Speed 4 Energy Input Ratio Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A32, \field Speed 4 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A33, \field Speed 4 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N32, \field Speed 4 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A34, \field Speed 4 Waste Heat Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   N33, \field Speed 5 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N34, \field Speed 5 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N35, \field Speed 5 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N36, \field Speed 5 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N37, \field Speed 5 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A35, \field Speed 5 Total Cooling Capacity Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A36, \field Speed 5 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A37, \field Speed 5 Total Cooling Capacity Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A38, \field Speed 5 Energy Input Ratio Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A39, \field Speed 5 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A40, \field Speed 5 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N38, \field Speed 5 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A41, \field Speed 5 Waste Heat Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   N39, \field Speed 6 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N40, \field Speed 6 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N41, \field Speed 6 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N42, \field Speed 6 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N43, \field Speed 6 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A42, \field Speed 6 Total Cooling Capacity Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A43, \field Speed 6 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A44, \field Speed 6 Total Cooling Capacity Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A45, \field Speed 6 Energy Input Ratio Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A46, \field Speed 6 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A47, \field Speed 6 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N44, \field Speed 6 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A48, \field Speed 6 Waste Heat Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   N45, \field Speed 7 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N46, \field Speed 7 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N47, \field Speed 7 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N48, \field Speed 7 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N49, \field Speed 7 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A49, \field Speed 7 Total Cooling Capacity Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A50, \field Speed 7 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A51, \field Speed 7 Total Cooling Capacity Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A52, \field Speed 7 Energy Input Ratio Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A53, \field Speed 7 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A54, \field Speed 7 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N50, \field Speed 7 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A55, \field Speed 7 Waste Heat Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   N51, \field Speed 8 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N52, \field Speed 8 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N53, \field Speed 8 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N54, \field Speed 8 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N55, \field Speed 8 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A56, \field Speed 8 Total Cooling Capacity Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A57, \field Speed 8 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A58, \field Speed 8 Total Cooling Capacity Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A59, \field Speed 8 Energy Input Ratio Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A60, \field Speed 8 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A61, \field Speed 8 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N56, \field Speed 8 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A62, \field Speed 8 Waste Heat Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   N57, \field Speed 9 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N58, \field Speed 9 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N59, \field Speed 9 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N60, \field Speed 9 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N61, \field Speed 9 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A63, \field Speed 9 Total Cooling Capacity Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A64, \field Speed 9 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A65, \field Speed 9 Total Cooling Capacity Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A66, \field Speed 9 Energy Input Ratio Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A67, \field Speed 9 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A68, \field Speed 9 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N62, \field Speed 9 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A69, \field Speed 9 Waste Heat Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   N63, \field Speed 10 Reference Unit Gross Rated Total Cooling Capacity
+        \note Total cooling capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N64, \field Speed 10 Reference Unit Gross Rated Sensible Heat Ratio
+        \units dimensionless
+        \type real
+        \minimum 0
+        \maximum 1.0
+   N65, \field Speed 10 Reference Unit Gross Rated Cooling COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N66, \field Speed 10 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N67, \field Speed 10 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A70, \field Speed 10 Total Cooling Capacity Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A71, \field Speed 10 Total Cooling Capacity Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A72, \field Speed 10 Total Cooling Capacity Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A73, \field Speed 10 Energy Input Ratio Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+   A74, \field Speed 10 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A75, \field Speed 10 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N68, \field Speed 10 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A76; \field Speed 10 Waste Heat Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+        \note wb = entering wet-bulb temperature (C)
+        \note ewt = water entering temperature seen by the condenser (C)
+
+Coil:Heating:WaterToAirHeatPump:EquationFit,
+        \memo Direct expansion (DX) heating coil for water-to-air heat pump (includes electric
+        \memo compressor), single-speed, equation-fit model. Equation-fit model uses normalized
+        \memo curves to describe the heat pump performance.
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference HeatingCoilsWaterToAirHP
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2,  \field Water Inlet Node Name
+        \required-field
+        \type node
+   A3,  \field Water Outlet Node Name
+        \required-field
+        \type node
+   A4,  \field Air Inlet Node Name
+        \required-field
+        \type node
+   A5,  \field Air Outlet Node Name
+        \required-field
+        \type node
+   N1,  \field Rated Air Flow Rate
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m3/s
+        \autosizable
+   N2,  \field Rated Water Flow Rate
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m3/s
+        \ip-units gal/min
+        \autosizable
+   N3,  \field Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units W
+        \autosizable
+   N4,  \field Gross Rated Heating COP
+        \required-field
+        \type real
+        \units W/W
+        \minimum> 0.0
+   A6,  \field Heating Capacity Curve Name
+        \required-field
+        \type object-list
+        \object-list QuadvariateFunctions
+   A7;  \field Heating Power Consumption Curve Name
+        \required-field
+        \type object-list
+        \object-list QuadvariateFunctions
+
+Coil:Heating:WaterToAirHeatPump:VariableSpeedEquationFit,
+        \memo Direct expansion (DX) heating coil for water-to-air heat pump (includes electric
+        \memo compressor), variable-speed, equation-fit model. Equation-fit model uses normalized
+        \memo curves to describe the heat pump performance. Requires two to ten sets of performance
+        \memo data and will interpolate between speeds.
+        \min-fields 23
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference HeatingCoilsWaterToAirVSHP
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2,  \field Water-to-Refrigerant HX Water Inlet Node Name
+        \required-field
+        \type node
+   A3,  \field Water-to-Refrigerant HX Water Outlet Node Name
+        \required-field
+        \type node
+   A4,  \field Indoor Air Inlet Node Name
+        \required-field
+        \type node
+   A5,  \field Indoor Air Outlet Node Name
+        \required-field
+        \type node
+   N1,  \field Number of Speeds
+        \units dimensionless
+       \type integer
+        \minimum 1
+        \maximum 10
+        \default 2
+   N2,  \field Nominal Speed Level
+        \units dimensionless
+        \type integer
+        \default 2
+        \note must be lower than or equal to the highest speed number
+   N3,  \field Rated Heating Capacity At Selected Nominal Speed Level
+        \units W
+        \type real
+        \autosizable
+        \default autosize
+   N4,  \field Rated Air Flow Rate At Selected Nominal Speed Level
+        \units m3/s
+        \type real
+        \autosizable
+        \default autosize
+   N5,  \field Rated Water Flow Rate At Selected Nominal Speed Level
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \autosizable
+        \default autosize
+   A6,  \field Energy Part Load Fraction Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*PLR + c*PLR**2
+        \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+        \note PLR = part load ratio (heating load/steady state capacity)
+   N6,  \field Speed 1 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+        \required-field
+   N7,  \field Speed 1 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+        \required-field
+   N8,  \field Speed 1 Reference Unit Rated Air Flow
+        \units m3/s
+        \type real
+        \minimum 0
+        \required-field
+   N9,  \field Speed 1 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+        \required-field
+   A7,  \field Speed 1 Heating Capacity Function of Temperature Curve Name
+        \required-field
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A8,  \field Speed 1 Total  Heating Capacity Function of Air Flow Fraction Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A9,  \field Speed 1 Heating Capacity Function of Water Flow Fraction Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A10, \field Speed 1 Energy Input Ratio Function of Temperature Curve Name
+        \required-field
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A11, \field Speed 1 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A12, \field Speed 1 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N10, \field Speed 1 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+        \required-field
+   A13, \field Speed 1 Waste Heat Function of Temperature Curve Name
+        \required-field
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   N11, \field Speed 2 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N12, \field Speed 2 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N13, \field Speed 2 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N14, \field Speed 2 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A14, \field Speed 2 Heating Capacity Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A15, \field Speed 2 Total  Heating Capacity Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A16, \field Speed 2 Heating Capacity Function of Water Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A17, \field Speed 2 Energy Input Ratio Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A18, \field Speed 2 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A19, \field Speed 2 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N15, \field Speed 2 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A20, \field Speed 2 Waste Heat Function of Temperature Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   N16, \field Speed 3 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N17, \field Speed 3 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N18, \field Speed 3 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N19, \field Speed 3 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A21, \field Speed 3 Heating Capacity Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A22, \field Speed 3 Total  Heating Capacity Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A23, \field Speed 3 Heating Capacity Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A24, \field Speed 3 Energy Input Ratio Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A25, \field Speed 3 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A26, \field Speed 3 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N20, \field Speed 3 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A27, \field Speed 3 Waste Heat Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   N21, \field Speed 4 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N22, \field Speed 4 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N23, \field Speed 4 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N24, \field Speed 4 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A28, \field Speed 4 Heating Capacity Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A29, \field Speed 4 Total  Heating Capacity Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A30, \field Speed 4 Heating Capacity Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A31, \field Speed 4 Energy Input Ratio Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A32, \field Speed 4 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A33, \field Speed 4 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N25, \field Speed 4 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A34, \field Speed 4 Waste Heat Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   N26, \field Speed 5 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N27, \field Speed 5 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N28, \field Speed 5 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N29, \field Speed 5 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A35, \field Speed 5 Heating Capacity Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A36, \field Speed 5 Total  Heating Capacity Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A37, \field Speed 5 Heating Capacity Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A38, \field Speed 5 Energy Input Ratio Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A39, \field Speed 5 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A40, \field Speed 5 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N30, \field Speed 5 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A41, \field Speed 5 Waste Heat Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   N31, \field Speed 6 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N32, \field Speed 6 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N33, \field Speed 6 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N34, \field Speed 6 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A42, \field Speed 6 Heating Capacity Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A43, \field Speed 6 Total  Heating Capacity Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A44, \field Speed 6 Heating Capacity Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A45, \field Speed 6 Energy Input Ratio Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A46, \field Speed 6 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A47, \field Speed 6 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N35, \field Speed 6 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A48, \field Speed 6 Waste Heat Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   N36, \field Speed 7 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N37, \field Speed 7 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N38, \field Speed 7 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N39, \field Speed 7 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A49, \field Speed 7 Heating Capacity Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A50, \field Speed 7 Total  Heating Capacity Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A51, \field Speed 7 Heating Capacity Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A52, \field Speed 7 Energy Input Ratio Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A53, \field Speed 7 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A54, \field Speed 7 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N40, \field Speed 7 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A55, \field Speed 7 Waste Heat Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   N41, \field Speed 8 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N42, \field Speed 8 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N43, \field Speed 8 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N44, \field Speed 8 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A56, \field Speed 8 Heating Capacity Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A57, \field Speed 8 Total  Heating Capacity Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A58, \field Speed 8 Heating Capacity Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A59, \field Speed 8 Energy Input Ratio Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A60, \field Speed 8 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A61, \field Speed 8 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N45, \field Speed 8 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A62, \field Speed 8 Waste Heat Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   N46, \field Speed 9 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N47, \field Speed 9 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N48, \field Speed 9 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N49, \field Speed 9 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A63, \field Speed 9 Heating Capacity Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A64, \field Speed 9 Total  Heating Capacity Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A65, \field Speed 9 Heating Capacity Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A66, \field Speed 9 Energy Input Ratio Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A67, \field Speed 9 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A68, \field Speed 9 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N50, \field Speed 9 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A69, \field Speed 9 Waste Heat Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   N51, \field Speed 10 Reference Unit Gross Rated Heating Capacity
+        \note Heating capacity not accounting for the effect of supply air fan heat
+        \units W
+        \type real
+        \minimum 0
+   N52, \field Speed 10 Reference Unit Gross Rated Heating COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+   N53, \field Speed 10 Reference Unit Rated Air Flow Rate
+        \units m3/s
+        \type real
+        \minimum 0
+   N54, \field Speed 10 Reference Unit Rated Water Flow Rate
+        \units m3/s
+        \ip-units gal/min
+        \type real
+        \minimum 0
+   A70, \field Speed 10 Heating Capacity Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A71, \field Speed 10 Total  Heating Capacity Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A72, \field Speed 10 Heating Capacity Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   A73, \field Speed 10 Energy Input Ratio Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+   A74, \field Speed 10 Energy Input Ratio Function of Air Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffa + c*ffa**2
+        \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+        \note ffa = Fraction of the full load Air Flow
+   A75, \field Speed 10 Energy Input Ratio Function of Water Flow Fraction Curve Name
+        \note optional
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*ffw + c*ffw**2
+        \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+        \note ffw = Fraction of the full load Water Flow
+   N55, \field Speed 10 Reference Unit Waste Heat Fraction of Input Power At Rated Conditions
+        \units dimensionless
+        \type real
+        \minimum 0
+   A76; \field Speed 10 Waste Heat Function of Temperature Curve Name
+        \note optional
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*db + c*db**2 + d*ewt + e*ewt**2 + f*db*ewt
+        \note db = entering air dry-bulb temperature (C)
+        \note ewt = water entering temperature seen by the evaporator (C)
+
+Coil:WaterHeating:AirToWaterHeatPump:Pumped,
+       \memo Heat pump water heater (HPWH) heating coil, air-to-water direct-expansion (DX)
+       \memo system which includes a water heating coil, evaporator air coil, evaporator
+       \memo fan, electric compressor, and water pump. Part of a WaterHeater:HeatPump:PumpedCondenser system.
+       \min-fields 21
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference HeatPumpWaterHeaterDXCoilsPumped
+       \note Unique name for this instance of a heat pump water heater DX coil.
+  N1 , \field Rated Heating Capacity
+       \required-field
+       \type real
+       \units W
+       \minimum> 0
+       \note Heating capacity at the rated inlet air temperatures, rated condenser inlet
+       \note water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump heat.
+  N2 , \field Rated COP
+       \type real
+       \units W/W
+       \minimum> 0
+       \default 3.2
+       \note Heating coefficient of performance at the rated inlet air temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump power and evaporator fan power (see fields below).
+  N3 , \field Rated Sensible Heat Ratio
+       \type real
+       \minimum 0.5
+       \maximum 1
+       \default 0.85
+       \note Gross air-side sensible heat ratio at the rated inlet air temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Sensible heat ratio equals gross sensible cooling capacity divided by gross total cooling
+       \note capacity. Rated SHR (gross) should not include evaporator fan heat, only sensible cooling
+       \note and dehumidification by the coil alone.
+  N4 , \field Rated Evaporator Inlet Air Dry-Bulb Temperature
+       \type real
+       \units C
+       \minimum> 5
+       \default 19.7
+       \note Evaporator inlet air dry-bulb temperature corresponding to rated coil performance
+       \note (heating capacity, COP and SHR).
+  N5 , \field Rated Evaporator Inlet Air Wet-Bulb Temperature
+       \type real
+       \units C
+       \minimum> 5
+       \default 13.5
+       \note Evaporator inlet air wet-bulb temperature corresponding to rated coil performance
+       \note (heating capacity, COP and SHR).
+  N6 , \field Rated Condenser Inlet Water Temperature
+       \type real
+       \units C
+       \minimum> 25
+       \default 57.5
+       \note Condenser inlet water temperature corresponding to rated coil performance
+       \note (heating capacity, COP and SHR).
+  N7 , \field Rated Evaporator Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0
+       \autocalculatable
+       \note Evaporator air flow rate corresponding to rated coil performance
+       \note (heating capacity, COP and SHR).
+       \note Default is 5.035E-5 m3/s/W (31.25 cfm/MBH) of rated heating capacity when autocalculated.
+  N8 , \field Rated Condenser Water Flow Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \minimum> 0
+       \autocalculatable
+       \note Condenser water flow rate corresponding to rated coil performance
+       \note (heating capacity, COP and SHR).
+       \note Default is 4.487E-8 m3/s/W (0.208 gpm/MBH) of rated heating capacity when autocalculated.
+       \note A warning message will be issued if the ratio of Rated Condenser Water Flow Rate
+       \note to Heating Capacity is less than 1.79405E-8 m3/s/W (0.083 gpm/MBH)
+       \note or greater than 8.97024E-8 m3/s/W (0.417 gpm/MBH), but the simulation will continue.
+  A2 , \field Evaporator Fan Power Included in Rated COP
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+       \note Select Yes if the evaporator fan power is included in the rated COP. This choice field
+       \note impacts the calculation of compressor electric power.
+  A3 , \field Condenser Pump Power Included in Rated COP
+       \type choice
+       \key Yes
+       \key No
+       \default No
+       \note Select Yes if the condenser pump power is included in the rated COP. This choice field
+       \note impacts the calculation of compressor electric power.
+  A4 , \field Condenser Pump Heat Included in Rated Heating Capacity and Rated COP
+       \type choice
+       \key Yes
+       \key No
+       \default No
+       \note Select Yes if the condenser pump heat is included in the rated heating capacity and
+       \note rated COP. This choice field impacts the calculation of water heating capacity.
+  N9 , \field Condenser Water Pump Power
+       \type real
+       \units W
+       \minimum 0
+       \default 0
+       \note A warning message will be issued if the ratio of Condenser Water Pump Power to Rated
+       \note Heating Capacity exceeds 0.1422 W/W (41.67 Watts/MBH), but the simulation will continue.
+  N10, \field Fraction of Condenser Pump Heat to Water
+       \type real
+       \minimum 0
+       \maximum 1
+       \default 0.2
+       \note Fraction of pump heat transferred to the condenser water. The pump is assumed
+       \note to be located downstream of the condenser.
+  A5 , \field Evaporator Air Inlet Node Name
+       \required-field
+       \type node
+       \note The node from which the DX coil draws its inlet air.
+  A6 , \field Evaporator Air Outlet Node Name
+       \required-field
+       \type node
+       \note The node to which the DX coil sends its outlet air.
+  A7 , \field Condenser Water Inlet Node Name
+       \required-field
+       \type node
+       \note The node from which the DX coil condenser draws its inlet water.
+       \note This name should match the source side outlet node name in the associated
+       \note water heater tank object.
+  A8 , \field Condenser Water Outlet Node Name
+       \required-field
+       \type node
+       \note The node to which the DX coil condenser sends its outlet water.
+       \note This name should match the source side inlet node name in the associated
+       \note water heater tank object.
+  N11, \field Crankcase Heater Capacity
+       \type real
+       \minimum 0
+       \default 0
+       \units W
+       \note The compressor crankcase heater only operates when the dry-bulb temperature of air
+       \note surrounding the compressor is below the Maximum Ambient Temperature for Crankcase
+       \note Heater Operation and the DX coil is off. The ambient temperature surrounding the
+       \note compressor is set by the WaterHeater:HeatPump:PumpedCondenser parent object (field Compressor Location).
+  N12, \field Maximum Ambient Temperature for Crankcase Heater Operation
+       \type real
+       \minimum 0
+       \default 10
+       \units C
+       \note The compressor crankcase heater only operates when the dry-bulb temperature of air
+       \note surrounding the compressor is below the Maximum Outdoor Temperature for Crankcase
+       \note Heater Operation and the unit is off. The ambient temperature surrounding the
+       \note compressor is set by the WaterHeater:HeatPump:PumpedCondenser parent object (field Compressor Location).
+  A9 , \field Evaporator Air Temperature Type for Curve Objects
+       \type choice
+       \key DryBulbTemperature
+       \key WetBulbTemperature
+       \default WetBulbTemperature
+       \note Determines temperature type for heating capacity curves and
+       \note heating COP curves. This input determines whether
+       \note the inlet air dry-bulb or wet-bulb temperature is used to evaluate these curves.
+  A10, \field Heating Capacity Function of Temperature Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note Heating capacity modifier curve (function of temperature) should be biquadratic or cubic.
+       \note Biquadratic curve = a + b(ta) + c(ta)^2 + d(tw) + e(tw)^2 + f(ta)(tw).
+       \note Cubic curve = a + b(ta) + c(ta)^2 + d(ta)^3.
+       \note ta = evaporator inlet air [dry-bulb or wet-bulb] temperature (C).
+       \note tw = condenser inlet water temperature (C).
+       \note The field Evaporator Air Temperature Type for Curve Objects determines if dry-bulb or wet-bulb
+       \note is used as the evaporator inlet air temperature (ta).
+  A11, \field Heating Capacity Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Heating capacity modifier curve (function of air flow fraction) should be quadratic or cubic.
+       \note Quadratic curve = a + b(ff) + c(ff)^2.
+       \note Cubic curve = a + b(ff) + c(ff)^2 + d(ff)^3.
+       \note ff = fraction of the rated evaporator air flow rate.
+       \note Use curve coefficients of 1,0,0 or leave this field blank when neglecting performance impacts
+       \note due to variations in air flow rate fraction.
+  A12, \field Heating Capacity Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Heating capacity modifier curve (function of water flow fraction) should be quadratic or cubic.
+       \note Quadratic curve = a + b(ff) + c(ff)^2.
+       \note Cubic curve = a + b(ff) + c(ff)^2 + d(ff)^3.
+       \note ff = fraction of the rated condenser water flow rate.
+       \note Use curve coefficients of 1,0,0 or leave this field blank when neglecting performance impacts
+       \note due to variations in water flow rate fraction.
+  A13, \field Heating COP Function of Temperature Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note Heating COP modifier curve (function of temperature) should be biquadratic or cubic.
+       \note Biquadratic curve = a + b(ta) + c(ta)^2 + d(tw) + e(tw)^2 + f(ta)(tw).
+       \note Cubic curve = a + b(ta) + c(ta)^2 + d(ta)^3.
+       \note ta = evaporator inlet air [dry-bulb or wet-bulb] temperature (C).
+       \note tw = condenser inlet water temperature (C).
+       \note The field Evaporator Air Temperature Type for Curve Objects determines if dry-bulb or wet-bulb
+       \note is used as the evaporator inlet air temperature (ta).
+  A14, \field Heating COP Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Heating COP modifier curve (function of air flow fraction) should be quadratic or cubic.
+       \note Quadratic curve = a + b(ff) + c(ff)^2.
+       \note Cubic curve = a + b(ff) + c(ff)^2 + d(ff)^3.
+       \note ff = fraction of the rated evaporator air flow rate.
+       \note Use curve coefficients of 1,0,0 or leave this field blank when neglecting performance impacts
+       \note due to variations in air flow rate fraction.
+  A15, \field Heating COP Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Heating COP modifier curve (function of water flow fraction) should be quadratic or cubic.
+       \note Quadratic curve = a + b(ff) + c(ff)^2.
+       \note Cubic curve = a + b(ff) + c(ff)^2 + d(ff)^3.
+       \note ff = fraction of the rated condenser water flow rate.
+       \note Use curve coefficients of 1,0,0 or leave this field blank when neglecting performance impacts
+       \note due to variations in water flow rate fraction.
+  A16; \field Part Load Fraction Correlation Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Part Load Fraction Correlation (function of part load ratio) should be quadratic or cubic.
+       \note Quadratic curve = a + b(PLR) + c(PLR)^2.
+       \note Cubic curve = a + b(PLR) + c(PLR)^2 + d(PLR)^3.
+       \note PLR = part load ratio (heating delivered/steady state heating capacity).
+       \note Use curve coefficients of 1,0,0 or leave this field blank when neglecting performance impacts
+       \note due to variations in part load ratio.
+
+Coil:WaterHeating:AirToWaterHeatPump:Wrapped,
+       \memo Heat pump water heater (HPWH) heating coil, air-to-water direct-expansion (DX)
+       \memo system which includes a water heating coil, evaporator air coil, evaporator
+       \memo fan, electric compressor, and water pump. Part of a WaterHeater:HeatPump:WrappedCondenser system.
+       \min-fields 14
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference HeatPumpWaterHeaterDXCoilsWrapped
+       \note Unique name for this instance of a heat pump water heater DX coil.
+  N1 , \field Rated Heating Capacity
+       \required-field
+       \type real
+       \units W
+       \minimum> 0
+       \note Heating capacity at the rated inlet air temperatures, rated condenser inlet
+       \note water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump heat.
+  N2 , \field Rated COP
+       \type real
+       \units W/W
+       \minimum> 0
+       \default 3.2
+       \note Heating coefficient of performance at the rated inlet air temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump power and evaporator fan power (see fields below).
+  N3 , \field Rated Sensible Heat Ratio
+       \type real
+       \minimum 0.5
+       \maximum 1
+       \default 0.85
+       \note Gross air-side sensible heat ratio at the rated inlet air temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Sensible heat ratio equals gross sensible cooling capacity divided by gross total cooling
+       \note capacity. Rated SHR (gross) should not include evaporator fan heat, only sensible cooling
+       \note and dehumidification by the coil alone.
+  N4 , \field Rated Evaporator Inlet Air Dry-Bulb Temperature
+       \type real
+       \units C
+       \minimum> 5
+       \default 19.7
+       \note Evaporator inlet air dry-bulb temperature corresponding to rated coil performance
+       \note (heating capacity, COP and SHR).
+  N5 , \field Rated Evaporator Inlet Air Wet-Bulb Temperature
+       \type real
+       \units C
+       \minimum> 5
+       \default 13.5
+       \note Evaporator inlet air wet-bulb temperature corresponding to rated coil performance
+       \note (heating capacity, COP and SHR).
+  N6 , \field Rated Condenser Water Temperature
+       \type real
+       \units C
+       \minimum> 25
+       \default 57.5
+       \note Condenser inlet water temperature corresponding to rated coil performance
+       \note (heating capacity, COP and SHR).
+  N7 , \field Rated Evaporator Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0
+       \autocalculatable
+       \note Evaporator air flow rate corresponding to rated coil performance
+       \note (heating capacity, COP and SHR).
+       \note Default is 5.035E-5 m3/s/W (31.25 cfm/MBH) of rated heating capacity when autocalculated.
+  A2 , \field Evaporator Fan Power Included in Rated COP
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+       \note Select Yes if the evaporator fan power is included in the rated COP. This choice field
+       \note impacts the calculation of compressor electric power.
+  A3,  \field Evaporator Air Inlet Node Name
+       \required-field
+       \type node
+       \note The node from which the DX coil draws its inlet air.
+  A4,  \field Evaporator Air Outlet Node Name
+       \required-field
+       \type node
+       \note The node to which the DX coil sends its outlet air.
+  N8,  \field Crankcase Heater Capacity
+       \type real
+       \minimum 0
+       \default 0
+       \units W
+       \note The compressor crankcase heater only operates when the dry-bulb temperature of air
+       \note surrounding the compressor is below the Maximum Ambient Temperature for Crankcase
+       \note Heater Operation and the DX coil is off. The ambient temperature surrounding the
+       \note compressor is set by the WaterHeater:HeatPump:WrappedCondenser parent object (field Compressor Location).
+  N9,  \field Maximum Ambient Temperature for Crankcase Heater Operation
+       \type real
+       \minimum 0
+       \default 10
+       \units C
+       \note The compressor crankcase heater only operates when the dry-bulb temperature of air
+       \note surrounding the compressor is below the Maximum Outdoor Temperature for Crankcase
+       \note Heater Operation and the unit is off. The ambient temperature surrounding the
+       \note compressor is set by the WaterHeater:HeatPump:WrappedCondenser parent object (field Compressor Location).
+  A5,  \field Evaporator Air Temperature Type for Curve Objects
+       \type choice
+       \key DryBulbTemperature
+       \key WetBulbTemperature
+       \default WetBulbTemperature
+       \note Determines temperature type for heating capacity curves and
+       \note heating COP curves. This input determines whether
+       \note the inlet air dry-bulb or wet-bulb temperature is used to evaluate these curves.
+  A6,  \field Heating Capacity Function of Temperature Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note Heating capacity modifier curve (function of temperature) should be biquadratic or cubic.
+       \note Biquadratic curve = a + b(ta) + c(ta)^2 + d(tw) + e(tw)^2 + f(ta)(tw).
+       \note Cubic curve = a + b(ta) + c(ta)^2 + d(ta)^3.
+       \note ta = evaporator inlet air [dry-bulb or wet-bulb] temperature (C).
+       \note tw = condenser inlet water temperature (C).
+       \note The field Evaporator Air Temperature Type for Curve Objects determines if dry-bulb or wet-bulb
+       \note is used as the evaporator inlet air temperature (ta).
+  A7,  \field Heating Capacity Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Heating capacity modifier curve (function of air flow fraction) should be quadratic or cubic.
+       \note Quadratic curve = a + b(ff) + c(ff)^2.
+       \note Cubic curve = a + b(ff) + c(ff)^2 + d(ff)^3.
+       \note ff = fraction of the rated evaporator air flow rate.
+       \note Use curve coefficients of 1,0,0 or leave this field blank when neglecting performance impacts
+       \note due to variations in air flow rate fraction.
+  A8,  \field Heating COP Function of Temperature Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note Heating COP modifier curve (function of temperature) should be biquadratic or cubic.
+       \note Biquadratic curve = a + b(ta) + c(ta)^2 + d(tw) + e(tw)^2 + f(ta)(tw).
+       \note Cubic curve = a + b(ta) + c(ta)^2 + d(ta)^3.
+       \note ta = evaporator inlet air [dry-bulb or wet-bulb] temperature (C).
+       \note tw = condenser inlet water temperature (C).
+       \note The field Evaporator Air Temperature Type for Curve Objects determines if dry-bulb or wet-bulb
+       \note is used as the evaporator inlet air temperature (ta).
+  A9,  \field Heating COP Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Heating COP modifier curve (function of air flow fraction) should be quadratic or cubic.
+       \note Quadratic curve = a + b(ff) + c(ff)^2.
+       \note Cubic curve = a + b(ff) + c(ff)^2 + d(ff)^3.
+       \note ff = fraction of the rated evaporator air flow rate.
+       \note Use curve coefficients of 1,0,0 or leave this field blank when neglecting performance impacts
+       \note due to variations in air flow rate fraction.
+  A10; \field Part Load Fraction Correlation Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Part Load Fraction Correlation (function of part load ratio) should be quadratic or cubic.
+       \note Quadratic curve = a + b(PLR) + c(PLR)^2.
+       \note Cubic curve = a + b(PLR) + c(PLR)^2 + d(PLR)^3.
+       \note PLR = part load ratio (heating delivered/steady state heating capacity).
+       \note Use curve coefficients of 1,0,0 or leave this field blank when neglecting performance impacts
+       \note due to variations in part load ratio.
+
+Coil:WaterHeating:AirToWaterHeatPump:VariableSpeed,
+       \memo vairlable-speed Heat pump water heater (VSHPWH) heating coil, air-to-water direct-expansion (DX)
+       \memo system which includes a variable-speed water heating coil, evaporator air coil, evaporator
+       \memo fan, electric compressor, and water pump. Part of a WaterHeater:HeatPump system.
+       \min-fields 33
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference HeatPumpWaterHeaterDXCoilsVariableSpeed
+       \note Unique name for this instance of a variable-speed heat pump water heater DX coil.
+  N1,  \field Number of Speeds
+       \units dimensionless
+       \type integer
+       \minimum 1
+       \maximum 10
+       \default 1
+  N2 , \field Nominal Speed Level
+       \units dimensionless
+       \type integer
+       \default 1
+       \note must be lower than or equal to the highest speed number
+  N3 , \field Rated Water Heating Capacity
+       \required-field
+       \type real
+       \units W
+       \minimum> 0
+       \note Water Heating capacity at the rated inlet air temperatures, rated condenser inlet
+       \note water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump heat.
+  N4 , \field Rated Evaporator Inlet Air Dry-Bulb Temperature
+       \type real
+       \units C
+       \minimum> 5
+       \default 19.7
+       \note Evaporator inlet air dry-bulb temperature corresponding to rated coil performance
+       \note (heating capacity, COP and SHR).
+  N5 , \field Rated Evaporator Inlet Air Wet-Bulb Temperature
+       \type real
+       \units C
+       \minimum> 5
+       \default 13.5
+       \note Evaporator inlet air wet-bulb temperature corresponding to rated coil performance
+       \note (heating capacity, COP and SHR).
+  N6 , \field Rated Condenser Inlet Water Temperature
+       \type real
+       \units C
+       \minimum> 25
+       \default 57.5
+       \note Condenser inlet water temperature corresponding to rated coil performance
+       \note (heating capacity, COP and SHR).
+  N7 , \field Rated Evaporator Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0
+       \autocalculatable
+       \note Evaporator air flow rate corresponding to rated coil performance
+       \note (heating capacity, COP and SHR).
+       \note Default is 5.035E-5 m3/s/W (31.25 cfm/MBH) of rated heating capacity when autocalculated.
+  N8 , \field Rated Condenser Water Flow Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \minimum> 0
+       \autocalculatable
+       \note Condenser water flow rate corresponding to rated coil performance
+       \note (heating capacity, COP and SHR).
+       \note Default is 4.487E-8 m3/s/W (0.208 gpm/MBH) of rated heating capacity when autocalculated.
+       \note A warning message will be issued if the ratio of Rated Condenser Water Flow Rate
+       \note to Heating Capacity is less than 1.79405E-8 m3/s/W (0.083 gpm/MBH)
+       \note or greater than 8.97024E-8 m3/s/W (0.417 gpm/MBH), but the simulation will continue.
+  A2 , \field Evaporator Fan Power Included in Rated COP
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+       \note Select Yes if the evaporator fan power is included in the rated COP. This choice field
+       \note impacts the calculation of compressor electric power.
+  A3 , \field Condenser Pump Power Included in Rated COP
+       \type choice
+       \key Yes
+       \key No
+       \default No
+       \note Select Yes if the condenser pump power is included in the rated COP. This choice field
+       \note impacts the calculation of compressor electric power.
+  A4 , \field Condenser Pump Heat Included in Rated Heating Capacity and Rated COP
+       \type choice
+       \key Yes
+       \key No
+       \default No
+       \note Select Yes if the condenser pump heat is included in the rated heating capacity and
+       \note rated COP. This choice field impacts the calculation of water heating capacity.
+  N9 , \field Fraction of Condenser Pump Heat to Water
+       \type real
+       \minimum 0
+       \maximum 1
+       \default 0.2
+       \note Fraction of pump heat transferred to the condenser water. The pump is assumed
+       \note to be located downstream of the condenser.
+  A5 , \field Evaporator Air Inlet Node Name
+       \required-field
+       \type node
+       \note The node from which the DX coil draws its inlet air.
+  A6 , \field Evaporator Air Outlet Node Name
+       \required-field
+       \type node
+       \note The node to which the DX coil sends its outlet air.
+  A7 , \field Condenser Water Inlet Node Name
+       \required-field
+       \type node
+       \note The node from which the DX coil condenser draws its inlet water.
+       \note This name should match the source side outlet node name in the associated
+       \note water heater tank object.
+  A8 , \field Condenser Water Outlet Node Name
+       \required-field
+       \type node
+       \note The node to which the DX coil condenser sends its outlet water.
+       \note This name should match the source side inlet node name in the associated
+       \note water heater tank object.
+  N10, \field Crankcase Heater Capacity
+       \type real
+       \minimum 0
+       \default 0
+       \units W
+       \note The compressor crankcase heater only operates when the dry-bulb temperature of air
+       \note surrounding the compressor is below the Maximum Ambient Temperature for Crankcase
+       \note Heater Operation and the DX coil is off. The ambient temperature surrounding the
+       \note compressor is set by the WaterHeater:HeatPump parent object (field Compressor Location).
+  N11, \field Maximum Ambient Temperature for Crankcase Heater Operation
+       \type real
+       \minimum 0
+       \default 10
+       \units C
+       \note The compressor crankcase heater only operates when the dry-bulb temperature of air
+       \note surrounding the compressor is below the Maximum Outdoor Temperature for Crankcase
+       \note Heater Operation and the unit is off. The ambient temperature surrounding the
+       \note compressor is set by the WaterHeater:HeatPump parent object (field Compressor Location).
+  A9 , \field Evaporator Air Temperature Type for Curve Objects
+       \type choice
+       \key DryBulbTemperature
+       \key WetBulbTemperature
+       \default WetBulbTemperature
+       \note Determines temperature type for heating capacity curves and
+       \note heating COP curves. This input determines whether
+       \note the inlet air dry-bulb or wet-bulb temperature is used to evaluate these curves.
+  A10, \field Part Load Fraction Correlation Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note Part Load Fraction Correlation (function of part load ratio) should be quadratic or cubic.
+       \note Quadratic curve = a + b(PLR) + c(PLR)^2.
+       \note Cubic curve = a + b(PLR) + c(PLR)^2 + d(PLR)^3.
+       \note PLR = part load ratio (heating delivered/steady state heating capacity).
+       \note Use curve coefficients of 1,0,0 or leave this field blank when neglecting performance impacts
+       \note due to variations in part load ratio.
+  N12, \field Rated Water Heating Capacity at Speed 1
+       \required-field
+       \type real
+       \units W
+       \minimum> 0
+       \note Heating capacity at the rated inlet air temperatures, rated condenser inlet
+       \note water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump heat.
+  N13, \field Rated Water Heating COP at Speed 1
+       \type real
+       \units W/W
+       \minimum> 0
+       \default 3.2
+       \note Heating coefficient of performance at the rated inlet air and water temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump power and evaporator fan power (see fields below).
+  N14, \field Rated Sensible Heat Ratio at Speed 1
+       \type real
+       \minimum 0.5
+       \maximum 1
+       \default 0.85
+       \note Gross air-side sensible heat ratio at the rated inlet air temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Sensible heat ratio equals gross sensible cooling capacity divided by gross total cooling
+       \note capacity. Rated SHR (gross) should not include evaporator fan heat, only sensible cooling
+       \note and dehumidification by the coil alone.
+  N15, \field Speed 1 Reference Unit Rated Air Flow Rate
+       \units m3/s
+       \type real
+       \minimum 0
+       \required-field
+  N16, \field Speed 1 Reference Unit Rated Water Flow Rate
+       \units m3/s
+       \ip-units gal/min
+       \type real
+       \minimum 0
+       \required-field
+  N17, \field Speed 1 Reference Unit Water Pump Input Power At Rated Conditions
+       \units W
+       \type real
+       \minimum 0
+       \required-field
+  A11, \field Speed 1 Total WH Capacity Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A12, \field Speed 1 Total WH Capacity Function of Air Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A13, \field Speed 1 Total WH Capacity Function of Water Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  A14, \field Speed 1 COP Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A15, \field Speed 1 COP Function of Air Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A16, \field Speed 1 COP Function of Water Flow Fraction Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  N18, \field Rated Water Heating Capacity at Speed 2
+       \type real
+       \units W
+       \minimum> 0
+       \note Heating capacity at the rated inlet air temperatures, rated condenser inlet
+       \note water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump heat.
+  N19, \field Rated Water Heating COP at Speed 2
+       \type real
+       \units W/W
+       \minimum> 0
+       \default 3.2
+       \note Heating coefficient of performance at the rated inlet air and water temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump power and evaporator fan power (see fields below).
+  N20, \field Rated Sensible Heat Ratio at Speed 2
+       \type real
+       \minimum 0.5
+       \maximum 1
+       \default 0.85
+       \note Gross air-side sensible heat ratio at the rated inlet air temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Sensible heat ratio equals gross sensible cooling capacity divided by gross total cooling
+       \note capacity. Rated SHR (gross) should not include evaporator fan heat, only sensible cooling
+       \note and dehumidification by the coil alone.
+  N21, \field Speed 2 Reference Unit Rated Air Flow Rate
+       \units m3/s
+       \type real
+       \minimum 0
+  N22, \field Speed 2 Reference Unit Rated Water Flow Rate
+       \units m3/s
+       \ip-units gal/min
+       \type real
+       \minimum 0
+  N23, \field Speed 2 Reference Unit Water Pump Input Power At Rated Conditions
+       \units dimensionless
+       \type real
+       \minimum 0
+  A17, \field Speed 2 Total WH Capacity Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A18, \field Speed 2 Total WH Capacity Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A19, \field Speed 2 Total WH Capacity Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  A20, \field Speed 2 COP Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A21, \field Speed 2 COP Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A22, \field Speed 2 COP Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  N24, \field Rated Water Heating Capacity at speed 3
+       \type real
+       \units W
+       \minimum> 0
+       \note Heating capacity at the rated inlet air temperatures, rated condenser inlet
+       \note water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump heat.
+  N25, \field Rated Water Heating COP at Speed 3
+       \type real
+       \units W/W
+       \minimum> 0
+       \default 3.2
+       \note Heating coefficient of performance at the rated inlet air and water temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump power and evaporator fan power (see fields below).
+  N26, \field Rated Sensible Heat Ratio at Speed 3
+       \type real
+       \minimum 0.5
+       \maximum 1
+       \default 0.85
+       \note Gross air-side sensible heat ratio at the rated inlet air temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Sensible heat ratio equals gross sensible cooling capacity divided by gross total cooling
+       \note capacity. Rated SHR (gross) should not include evaporator fan heat, only sensible cooling
+       \note and dehumidification by the coil alone.
+  N27, \field Speed 3 Reference Unit Rated Air Flow Rate
+       \units m3/s
+       \type real
+       \minimum 0
+  N28, \field Speed 3 Reference Unit Rated Water Flow Rate
+       \units m3/s
+       \ip-units gal/min
+       \type real
+       \minimum 0
+  N29, \field Speed 3 Reference Unit Water Pump Input Power At Rated Conditions
+       \units dimensionless
+       \type real
+       \minimum 0
+  A23, \field Speed 3 Total WH Capacity Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A24, \field Speed 3 Total WH Capacity Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A25, \field Speed 3 Total WH Capacity Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  A26, \field Speed 3 COP Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A27, \field Speed 3 COP Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A28, \field Speed 3 COP Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  N30, \field Rated Water Heating Capacity at Speed 4
+       \type real
+       \units W
+       \minimum> 0
+       \note Heating capacity at the rated inlet air temperatures, rated condenser inlet
+       \note water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump heat.
+  N31, \field Rated Water Heating COP at Speed 4
+       \type real
+       \units W/W
+       \minimum> 0
+       \default 3.2
+       \note Heating coefficient of performance at the rated inlet air and water temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump power and evaporator fan power (see fields below).
+  N32, \field Rated Sensible Heat Ratio at Speed 4
+       \type real
+       \minimum 0.5
+       \maximum 1
+       \default 0.85
+       \note Gross air-side sensible heat ratio at the rated inlet air temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Sensible heat ratio equals gross sensible cooling capacity divided by gross total cooling
+       \note capacity. Rated SHR (gross) should not include evaporator fan heat, only sensible cooling
+       \note and dehumidification by the coil alone.
+  N33, \field Speed 4 Reference Unit Rated Air Flow Rate
+       \units m3/s
+       \type real
+       \minimum 0
+  N34, \field Speed 4 Reference Unit Rated Water Flow Rate
+       \units m3/s
+       \ip-units gal/min
+       \type real
+       \minimum 0
+  N35, \field Speed 4 Reference Unit Water Pump Input Power At Rated Conditions
+       \units dimensionless
+       \type real
+       \minimum 0
+  A29, \field Speed 4 Total WH Capacity Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A30, \field Speed 4 Total WH Capacity Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A31, \field Speed 4 Total WH Capacity Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  A32, \field Speed 4 COP Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A33, \field Speed 4 COP Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A34, \field Speed 4 COP Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  N36, \field Rated Water Heating Capacity at Speed 5
+       \type real
+       \units W
+       \minimum> 0
+       \note Heating capacity at the rated inlet air temperatures, rated condenser inlet
+       \note water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump heat.
+  N37, \field Rated Water Heating COP at Speed 5
+       \type real
+       \units W/W
+       \minimum> 0
+       \default 3.2
+       \note Heating coefficient of performance at the rated inlet air and water temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump power and evaporator fan power (see fields below).
+  N38, \field Rated Sensible Heat Ratio at Speed 5
+       \type real
+       \minimum 0.5
+       \maximum 1
+       \default 0.85
+       \note Gross air-side sensible heat ratio at the rated inlet air temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Sensible heat ratio equals gross sensible cooling capacity divided by gross total cooling
+       \note capacity. Rated SHR (gross) should not include evaporator fan heat, only sensible cooling
+       \note and dehumidification by the coil alone.
+  N39, \field Speed 5 Reference Unit Rated Air Flow Rate
+       \units m3/s
+       \type real
+       \minimum 0
+  N40, \field Speed 5 Reference Unit Rated Water Flow Rate
+       \units m3/s
+       \ip-units gal/min
+       \type real
+       \minimum 0
+  N41, \field Speed 5 Reference Unit Water Pump Input Power At Rated Conditions
+       \units dimensionless
+       \type real
+       \minimum 0
+  A35, \field Speed 5 Total WH Capacity Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A36, \field Speed 5 Total WH Capacity Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A37, \field Speed 5 Total WH Capacity Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  A38, \field Speed 5 COP Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A39, \field Speed 5 COP Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A40, \field Speed 5 COP Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  N42, \field Rated Water Heating Capacity at Speed 6
+       \type real
+       \units W
+       \minimum> 0
+       \note Heating capacity at the rated inlet air temperatures, rated condenser inlet
+       \note water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump heat.
+  N43, \field Rated Water Heating COP at Speed 6
+       \type real
+       \units W/W
+       \minimum> 0
+       \default 3.2
+       \note Heating coefficient of performance at the rated inlet air and water temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump power and evaporator fan power (see fields below).
+  N44, \field Rated Sensible Heat Ratio at Speed 6
+       \type real
+       \minimum 0.5
+       \maximum 1
+       \default 0.85
+       \note Gross air-side sensible heat ratio at the rated inlet air temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Sensible heat ratio equals gross sensible cooling capacity divided by gross total cooling
+       \note capacity. Rated SHR (gross) should not include evaporator fan heat, only sensible cooling
+       \note and dehumidification by the coil alone.
+  N45, \field Speed 6 Reference Unit Rated Air Flow Rate
+       \units m3/s
+       \type real
+       \minimum 0
+  N46, \field Speed 6 Reference Unit Rated Water Flow Rate
+       \units m3/s
+       \ip-units gal/min
+       \type real
+       \minimum 0
+  N47, \field Speed 6 Reference Unit Water Pump Input Power At Rated Conditions
+       \units dimensionless
+       \type real
+       \minimum 0
+  A41, \field Speed 6 Total WH Capacity Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A42, \field Speed 6 Total WH Capacity Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A43, \field Speed 6 Total WH Capacity Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  A44, \field Speed 6 COP Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A45, \field Speed 6 COP Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A46, \field Speed 6 COP Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  N48, \field Rated Water Heating Capacity at Speed 7
+       \type real
+       \units W
+       \minimum> 0
+       \note Heating capacity at the rated inlet air temperatures, rated condenser inlet
+       \note water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump heat.
+  N49, \field Rated Water Heating COP at Speed 7
+       \type real
+       \units W/W
+       \minimum> 0
+       \default 3.2
+       \note Heating coefficient of performance at the rated inlet air and water temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump power and evaporator fan power (see fields below).
+  N50, \field Rated Sensible Heat Ratio at Speed 7
+       \type real
+       \minimum 0.5
+       \maximum 1
+       \default 0.85
+       \note Gross air-side sensible heat ratio at the rated inlet air temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Sensible heat ratio equals gross sensible cooling capacity divided by gross total cooling
+       \note capacity. Rated SHR (gross) should not include evaporator fan heat, only sensible cooling
+       \note and dehumidification by the coil alone.
+  N51, \field Speed 7 Reference Unit Rated Air Flow Rate
+       \units m3/s
+       \type real
+       \minimum 0
+  N52, \field Speed 7 Reference Unit Rated Water Flow Rate
+       \units m3/s
+       \ip-units gal/min
+       \type real
+       \minimum 0
+  N53, \field Speed 7 Reference Unit Water Pump Input Power At Rated Conditions
+       \units dimensionless
+       \type real
+       \minimum 0
+  A47, \field Speed 7 Total WH Capacity Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A48, \field Speed 7 Total WH Capacity Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A49, \field Speed 7 Total WH Capacity Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  A50, \field Speed 7 COP Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A51, \field Speed 7 COP Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A52, \field Speed 7 COP Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  N54, \field Rated Water Heating Capacity at Speed 8
+       \type real
+       \units W
+       \minimum> 0
+       \note Heating capacity at the rated inlet air temperatures, rated condenser inlet
+       \note water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump heat.
+  N55, \field Rated Water Heating COP at Speed 8
+       \type real
+       \units W/W
+       \minimum> 0
+       \default 3.2
+       \note Heating coefficient of performance at the rated inlet air and water temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump power and evaporator fan power (see fields below).
+  N56, \field Rated Sensible Heat Ratio at Speed 8
+       \type real
+       \minimum 0.5
+       \maximum 1
+       \default 0.85
+       \note Gross air-side sensible heat ratio at the rated inlet air temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Sensible heat ratio equals gross sensible cooling capacity divided by gross total cooling
+       \note capacity. Rated SHR (gross) should not include evaporator fan heat, only sensible cooling
+       \note and dehumidification by the coil alone.
+  N57, \field Speed 8 Reference Unit Rated Air Flow Rate
+       \units m3/s
+       \type real
+       \minimum 0
+  N58, \field Speed 8 Reference Unit Rated Water Flow Rate
+       \units m3/s
+       \ip-units gal/min
+       \type real
+       \minimum 0
+  N59, \field Speed 8 Reference Unit Water Pump Input Power At Rated Conditions
+       \units dimensionless
+       \type real
+       \minimum 0
+  A53, \field Speed 8 Total WH Capacity Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A54, \field Speed 8 Total WH Capacity Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A55, \field Speed 8 Total WH Capacity Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  A56, \field Speed 8 COP Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A57, \field Speed 8 COP Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A58, \field Speed 8 COP Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  N60, \field Rated Water Heating Capacity at Speed 9
+       \type real
+       \units W
+       \minimum> 0
+       \note Heating capacity at the rated inlet air temperatures, rated condenser inlet
+       \note water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump heat.
+  N61, \field Rated Water Heating COP at Speed 9
+       \type real
+       \units W/W
+       \minimum> 0
+       \default 3.2
+       \note Heating coefficient of performance at the rated inlet air and water temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump power and evaporator fan power (see fields below).
+  N62, \field Rated Sensible Heat Ratio at Speed 9
+       \type real
+       \minimum 0.5
+       \maximum 1
+       \default 0.85
+       \note Gross air-side sensible heat ratio at the rated inlet air temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Sensible heat ratio equals gross sensible cooling capacity divided by gross total cooling
+       \note capacity. Rated SHR (gross) should not include evaporator fan heat, only sensible cooling
+       \note and dehumidification by the coil alone.
+  N63, \field Speed 9 Reference Unit Rated Air Flow Rate
+       \units m3/s
+       \type real
+       \minimum 0
+  N64, \field Speed 9 Reference Unit Rated Water Flow Rate
+       \units m3/s
+       \ip-units gal/min
+       \type real
+       \minimum 0
+  N65, \field Speed 9 Reference Unit Water Pump Input Power At Rated Conditions
+       \units dimensionless
+       \type real
+       \minimum 0
+  A59, \field Speed 9 Total WH Capacity Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A60, \field Speed 9 Total WH Capacity Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A61, \field Speed 9 Total WH Capacity Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  A62, \field Speed 9 COP Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A63, \field Speed 9 COP Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A64, \field Speed 9 COP Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  N66, \field Rated Water Heating Capacity at Speed 10
+       \type real
+       \units W
+       \minimum> 0
+       \note Heating capacity at the rated inlet air temperatures, rated condenser inlet
+       \note water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump heat.
+  N67, \field Rated Water Heating COP at Speed 10
+       \type real
+       \units W/W
+       \minimum> 0
+       \default 3.2
+       \note Heating coefficient of performance at the rated inlet air and water temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Can optionally include condenser pump power and evaporator fan power (see fields below).
+  N68, \field Rated Sensible Heat Ratio at Speed 10
+       \type real
+       \minimum 0.5
+       \maximum 1
+       \default 0.85
+       \note Gross air-side sensible heat ratio at the rated inlet air temperatures,
+       \note rated condenser inlet water temperature, rated air flow rate, and rated water flow rate.
+       \note Sensible heat ratio equals gross sensible cooling capacity divided by gross total cooling
+       \note capacity. Rated SHR (gross) should not include evaporator fan heat, only sensible cooling
+       \note and dehumidification by the coil alone.
+  N69, \field Speed 10 Reference Unit Rated Air Flow Rate
+       \units m3/s
+       \type real
+       \minimum 0
+  N70, \field Speed 10 Reference Unit Rated Water Flow Rate
+       \units m3/s
+       \ip-units gal/min
+       \type real
+       \minimum 0
+  N71, \field Speed 10 Reference Unit Water Pump Input Power At Rated Conditions
+       \units dimensionless
+       \type real
+       \minimum 0
+  A65, \field Speed 10 Total WH Capacity Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A66, \field Speed 10 Total WH Capacity Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A67, \field Speed 10 Total WH Capacity Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+  A68, \field Speed 10 COP Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Table:Lookup object can also be used
+       \note curve = a + b*wb + c*wb**2 + d*ewt + e*ewt**2 + f*wb*ewt
+       \note wb = entering wet-bulb temperature or dry bulb temperature upon selection (C)
+       \note ewt = water entering temperature seen by the condenser (C)
+  A69, \field Speed 10 COP Function of Air Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffa + c*ffa**2
+       \note cubic curve = a + b*ffa + c*ffa**2 + d*ffa**3
+       \note ffa = Fraction of the full load Air Flow
+  A70; \field Speed 10 COP Function of Water Flow Fraction Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Table:Lookup object can also be used
+       \note quadratic curve = a + b*ffw + c*ffw**2
+       \note cubic curve = a + b*ffw + c*ffw**2 + d*ffw**3
+       \note ffw = Fraction of the full load Water Flow
+
+Coil:WaterHeating:Desuperheater,
+       \memo Desuperheater air heating coil. The heating energy provided by this coil is reclaimed
+       \memo from the superheated refrigerant gas leaving a compressor and does not impact the
+       \memo performance of the compressor. This coil must be used with a water heater tank, see
+       \memo Water Heater:Mixed.
+       \min-fields 18
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note Unique name for this instance of a desuperheater water heating coil.
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values of 0 denote the desuperheater heating coil is off and the parasitic electric
+       \note energy is also off.
+  A3 , \field Setpoint Temperature Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note Defines the cut-out temperature where the desuperheater water heating coil turns off.
+       \note The desuperheater heating coil setpoint temperature should always be greater
+       \note than the water tank's heater (element or burner) setpoint temperature. Temperature
+       \note schedule values should be in degrees C.
+  N1 , \field Dead Band Temperature Difference
+       \type real
+       \units deltaC
+       \minimum> 0
+       \maximum 20
+       \default 5
+       \note Setpoint temperature minus the dead band temperature difference defines
+       \note the cut-in temperature where the desuperheater water heating coil turns on.
+       \note The water tank's heater (element or burner) setpoint temperature
+       \note should always be less than the desuperheater heating coil cut-in temperature.
+  N2 , \field Rated Heat Reclaim Recovery Efficiency
+       \type real
+       \minimum> 0.0
+       \note Enter the fraction of waste heat reclaimed by the desuperheater water heating coil.
+  N3 , \field Rated Inlet Water Temperature
+       \required-field
+       \type real
+       \units C
+       \note The inlet water temperature corresponding to the rated heat reclaim recovery efficiency.
+  N4 , \field Rated Outdoor Air Temperature
+       \required-field
+       \type real
+       \units C
+       \note The outdoor air dry-bulb temperature corresponding to the
+       \note rated heat reclaim recovery efficiency.
+  N5 , \field Maximum Inlet Water Temperature for Heat Reclaim
+       \required-field
+       \type real
+       \units C
+       \note The desuperheater water heating coil is off when the inlet water temperature is above
+       \note the maximum inlet water temperature for heat reclaim.
+  A4 , \field Heat Reclaim Efficiency Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note A biquadratic curve defining the performance of the desuperheater heating coil.
+       \note Performance can be specified as a function of inlet water temperature, outdoor air
+       \note dry-bulb temperature, or both.
+       \note Curve = a + b*Tw + c*Tw**2 + d*odb + e*odb**2 + f*Tw*odb.
+       \note Tw = desuperheater heating coil entering water temperature (C).
+       \note Odb = outdoor dry-bulb temperature at DX system condenser (C).
+  A5 , \field Water Inlet Node Name
+       \required-field
+       \type node
+       \note The node from which the desuperheater heating coil draws its inlet water.
+       \note This name should match the source side outlet node name in the associated
+       \note water heater tank object.
+  A6 , \field Water Outlet Node Name
+       \required-field
+       \type node
+       \note The node to which the desuperheater heating coil sends its outlet water.
+       \note This name should match the source side inlet node name in the associated
+       \note water heater tank object.
+  A7 , \field Tank Object Type
+       \type choice
+       \key WaterHeater:Mixed
+       \key WaterHeater:Stratified
+       \default WaterHeater:Mixed
+       \note Specify the type of water heater tank used by this desuperheater water heating coil.
+  A8 , \field Tank Name
+       \required-field
+       \type object-list
+       \note The name of the water heater tank used by this desuperheater water heating coil.
+       \note Needs to match the name used in the corresponding water heater object.
+       \object-list WaterHeaterMixedNames
+       \object-list WaterHeaterStratifiedNames
+  A9 , \field Heating Source Object Type
+       \required-field
+       \type choice
+       \key Coil:Cooling:DX:SingleSpeed
+       \key Coil:Cooling:DX:TwoSpeed
+       \key Coil:Cooling:DX:TwoStageWithHumidityControlMode
+       \key Coil:Cooling:DX:VariableSpeed
+       \key Coil:Cooling:DX:MultiSpeed
+       \key Coil:Cooling:WaterToAirHeatPump:EquationFit
+       \key Refrigeration:CompressorRack
+       \key Refrigeration:Condenser:AirCooled
+       \key Refrigeration:Condenser:EvaporativeCooled
+       \key Refrigeration:Condenser:WaterCooled
+       \note The type of DX system that is providing waste heat for reclaim.
+  A10, \field Heating Source Name
+       \required-field
+       \type object-list
+       \object-list DesuperHeatingCoilSources
+       \object-list DesuperHeatingWaterOnlySources
+       \note The name of the DX system used for heat reclaim.
+  N6 , \field Water Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \minimum> 0
+       \note The operating water flow rate.
+  N7 , \field Water Pump Power
+       \type real
+       \units W
+       \ip-units W
+       \minimum 0.0
+       \default 0.0
+       \note The water circulation pump electric power.
+  N8 , \field Fraction of Pump Heat to Water
+       \type real
+       \minimum 0
+       \maximum 1
+       \default 0.2
+       \note The fraction of pump heat transferred to the water. The pump is assumed to be downstream of
+       \note the desuperheater water heating coil.
+  N9 , \field On-Cycle Parasitic Electric Load
+       \type real
+       \units W
+       \minimum 0
+       \default 0
+       \note Parasitic electric power consumed when the desuperheater water heating coil operates.
+       \note Parasitic electric load does not contribute to water heating or the zone air heat balance.
+       \ip-units W
+  N10; \field Off-Cycle Parasitic Electric Load
+       \type real
+       \units W
+       \minimum 0
+       \default 0
+       \note Parasitic electric load consumed when the desuperheater water heating coil is off.
+       \note Parasitic electric load does not contribute to water heating or the zone air heat balance.
+       \note Off-cycle parasitic power is 0 when the availability schedule is 0.
+       \ip-units W
+
+CoilSystem:Cooling:DX,
+        \memo Virtual container component that consists of a DX cooling coil and its associated
+        \memo controls. This control object supports several different types of DX cooling coils
+        \memo and may be placed directly in an air loop branch or outdoor air equipment list.
+        \min-fields 7
+   A1 , \field Name
+        \required-field
+        \reference CoolingCoilSystemName
+        \type alpha
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+        \reference-class-name validOASysEquipmentTypes
+        \reference validOASysEquipmentNames
+   A2 , \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3 , \field DX Cooling Coil System Inlet Node Name
+        \required-field
+        \type node
+   A4 , \field DX Cooling Coil System Outlet Node Name
+        \required-field
+        \type node
+   A5 , \field DX Cooling Coil System Sensor Node Name
+        \required-field
+        \type node
+   A6,  \field Cooling Coil Object Type
+        \type choice
+        \required-field
+        \key Coil:Cooling:DX:SingleSpeed
+        \key CoilSystem:Cooling:DX:HeatExchangerAssisted
+        \key Coil:Cooling:DX:TwoSpeed
+        \key Coil:Cooling:DX:TwoStageWithHumidityControlMode
+        \key Coil:Cooling:DX:VariableSpeed
+        \key Coil:Cooling:DX:SingleSpeed:ThermalStorage
+   A7,  \field Cooling Coil Name
+        \required-field
+        \type object-list
+        \object-list CoolingCoilsDX
+        \object-list CoolingCoilsDXVariableSpeed
+   A8,  \field Dehumidification Control Type
+        \type choice
+        \key None
+        \key Multimode
+        \key CoolReheat
+        \default None
+        \note None = meet sensible load only
+        \note Multimode = activate enhanced dehumidification mode
+        \note as needed and meet sensible load. If no sensible load
+        \note exists, and Run on Latent Load = Yes, and a latent
+        \note load exists, the unit will operate to meet the latent load.
+        \note Valid only with Coil:Cooling:DX:TwoStageWithHumidityControlMode
+        \note or CoilSystem:Cooling:DX:HeatExchangerAssisted.
+        \note CoolReheat = cool beyond the dry-bulb setpoint.
+        \note as required to meet the humidity setpoint.
+        \note Valid for all coil types.
+        \note For all dehumidification controls, the max
+        \note humidity setpoint on the Sensor Node is used.
+        \note SetpointManager:SingleZone:Humidity:Maximum,
+        \note SetpointManager:MultiZone:Humidity:Maximum, or
+        \note SetpointManager:MultiZone:MaximumHumidity:Average, and
+        \note SetpointManager:OutdoorAirPretreat (optional) objects.
+   A9,  \field Run on Sensible Load
+        \type choice
+        \key Yes
+        \key No
+        \default Yes
+        \note If Yes, unit will run if there is a sensible load.
+        \note If No, unit will not run if there is only a sensible load.
+        \note Dehumidification controls will be active if specified.
+  A10,  \field Run on Latent Load
+        \type choice
+        \key Yes
+        \key No
+        \default No
+        \note If Yes, unit will run if there is a latent load.
+        \note even if there is no sensible load.
+        \note If No, unit will not run only if there is a latent load.
+        \note Dehumidification controls will be active if specified.
+  A11,  \field Use Outdoor Air DX Cooling Coil
+        \type choice
+        \key Yes
+        \key No
+        \default No
+        \note This input field is designed for use with DX cooling coils with low air flow
+        \note to capacity ratio range (100 - 300 cfm/ton). Typical application is 100% dedicated
+        \note outdoor air system (DOAS). Other air loop or zone HVAC systems with low flow
+        \note to capacity ratio range may also use this input field. If Yes, the DX cooling
+        \note coil runs as 100% DOAS DX coil or low flow to capacity ratio range.
+        \note If No, the DX cooling coil runs as a regular DX coil. If left blank the
+        \note default is regular DX coil.
+  N1 ;  \field Outdoor Air DX Cooling Coil Leaving Minimum Air Temperature
+        \type real
+        \units C
+        \minimum 0.0
+        \maximum 7.2
+        \default 2.0
+        \note DX cooling coil leaving minimum air temperature defines the minimum DX cooling coil
+        \note leaving air temperature that should be maintained to avoid frost formation. This input
+        \note field is optional and only used along with the input field above.
+
+CoilSystem:Heating:DX,
+        \memo Virtual container component that consists of a DX heating coil (heat pump) and its
+        \memo associated controls. This control object supports two different types of DX heating
+        \memo coils and may be placed directly in an air loop branch or outdoor air equipment list.
+        \min-fields 4
+   A1 , \field Name
+        \required-field
+        \reference HeatingCoilSystemName
+        \type alpha
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+        \reference-class-name validOASysEquipmentTypes
+        \reference validOASysEquipmentNames
+   A2 , \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3,  \field Heating Coil Object Type
+        \type choice
+        \required-field
+        \key Coil:Heating:DX:SingleSpeed
+        \key Coil:Heating:DX:VariableSpeed
+   A4;  \field Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilsDXSingleSpeed
+        \object-list HeatingCoilsDXVariableSpeed
+
+CoilSystem:Cooling:Water:HeatExchangerAssisted,
+       \memo Virtual component consisting of a chilled-water cooling coil and an air-to-air heat
+       \memo exchanger. The air-to-air heat exchanger precools the air entering the cooling coil
+       \memo and reuses this energy to reheat the supply air leaving the cooling coil. This heat
+       \memo exchange process improves the latent removal performance of the cooling coil (lower
+       \memo sensible heat ratio).
+       \min-fields 5
+  A1 , \field Name
+       \required-field
+       \reference CoolingCoilsWater
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2 , \field Heat Exchanger Object Type
+       \required-field
+       \type choice
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key HeatExchanger:AirToAir:SensibleAndLatent
+  A3 , \field Heat Exchanger Name
+       \required-field
+  A4 , \field Cooling Coil Object Type
+       \required-field
+       \type choice
+       \key Coil:Cooling:Water
+       \key Coil:Cooling:Water:DetailedGeometry
+  A5 ; \field Cooling Coil Name
+       \required-field
+       \type object-list
+       \object-list CoolingCoilsWaterNoHX
+
+CoilSystem:Cooling:DX:HeatExchangerAssisted,
+       \memo Virtual component consisting of a direct expansion (DX) cooling coil and an
+       \memo air-to-air heat exchanger. The air-to-air heat exchanger precools the air entering the
+       \memo cooling coil and reuses this energy to reheat the supply air leaving the cooling
+       \memo coil. This heat exchange process improves the latent removal performance of the
+       \memo cooling coil (lower sensible heat ratio).
+       \min-fields 5
+  A1 , \field Name
+       \required-field
+       \reference CoolingCoilsDX
+       \reference CoolingCoilsDXSingleSpeed
+       \reference CoolingCoilsDXMultiModeOrSingleSpeed
+  A2 , \field Heat Exchanger Object Type
+       \required-field
+       \type choice
+       \key HeatExchanger:AirToAir:FlatPlate
+       \key HeatExchanger:AirToAir:SensibleAndLatent
+       \key HeatExchanger:Desiccant:BalancedFlow
+  A3 , \field Heat Exchanger Name
+       \required-field
+       \type object-list
+       \object-list HXAirToAirNames
+  A4 , \field Cooling Coil Object Type
+       \required-field
+       \type choice
+       \key Coil:Cooling:DX:SingleSpeed
+       \key Coil:Cooling:DX:VariableSpeed
+  A5 ; \field Cooling Coil Name
+       \required-field
+       \type object-list
+       \object-list CoolingCoilsDXSingleSpeed
+       \object-list CoolingCoilsDXVariableSpeed
+
+CoilSystem:IntegratedHeatPump:AirSource,
+      \memo This object is used for air-source integrated heat pump, a collection of its working modes.
+  A1, \field Name
+       \required-field
+       \type alpha
+       \reference IntegratedHeatPumps
+       \note Unique name for this instance of an air-source integrated heat pump.
+  A2, \field Supply Hot Water Flow Sensor Node Name
+       \required-field
+       \type node
+  A3, \field Space Cooling Coil  Name
+       \required-field
+       \type object-list
+       \object-list CoolingCoilsDXVariableSpeed
+       \note Must match the name used in the corresponding Coil:Cooling:DX:VariableSpeed object.
+  A4, \field Space Heating Coil Name
+       \type object-list
+       \object-list HeatingCoilsDXVariableSpeed
+       \note Must match the name used in the corresponding Coil:Heating:DX:VariableSpeed object.
+  A5, \field Dedicated Water Heating Coil Name
+       \type object-list
+       \object-list HeatPumpWaterHeaterDXCoilsVariableSpeed
+       \note Must match the name used in the corresponding Coil:WaterHeating:AirToWaterHeatPump:VariableSpeed object.
+  A6, \field SCWH Coil Name
+       \type object-list
+       \object-list HeatPumpWaterHeaterDXCoilsVariableSpeed
+       \note Must match the name used in the corresponding Coil:WaterHeating:AirToWaterHeatPump:VariableSpeed object.
+  A7, \field SCDWH Cooling Coil Name
+       \type object-list
+       \object-list CoolingCoilsDXVariableSpeed
+       \note Must match the name used in the corresponding Coil:Cooling:DX:VariableSpeed object.
+  A8, \field SCDWH Water Heating Coil Name
+       \type object-list
+       \object-list HeatPumpWaterHeaterDXCoilsVariableSpeed
+       \note Must match the name used in the corresponding Coil:WaterHeating:AirToWaterHeatPump:VariableSpeed object.
+  A9, \field SHDWH Heating Coil Name
+       \type object-list
+       \object-list HeatingCoilsDXVariableSpeed
+       \note Must match the name used in the corresponding Coil:Heating:DX:VariableSpeed object.
+  A10, \field SHDWH Water Heating Coil Name
+       \type object-list
+       \object-list HeatPumpWaterHeaterDXCoilsVariableSpeed
+       \note Must match the name used in the corresponding Coil:WaterHeating:AirToWaterHeatPump:VariableSpeed object.
+  N1 , \field Indoor Temperature Limit for SCWH Mode
+       \type real
+       \units C
+       \minimum> 15.0
+       \default 20.0
+       \note Indoor Temperature above which Indoor Overcooling is Allowed during Cooling Operation
+  N2 , \field Ambient Temperature Limit for SCWH Mode
+       \type real
+       \units C
+       \minimum> 20.0
+       \default 27.0
+       \note Ambient Temperature above which Indoor Overcooling is Allowed during Cooling Operation
+  N3 , \field Indoor Temperature above Which WH has Higher Priority
+       \type real
+       \units C
+       \minimum> 15.0
+       \default 20.0
+       \note Indoor Temperature above which Water Heating has the higher priority and Space Heating Call Can be ignored.
+  N4 , \field Ambient Temperature above Which WH has Higher Priority
+       \type real
+       \units C
+       \minimum> 15.0
+       \default 20.0
+       \note Ambient Temperature above which Water Heating has the higher priority and Space Heating Call Can be ignored.
+  N5,  \field Flag to Indicate Load Control in SCWH Mode
+       \units dimensionless
+       \type integer
+       \default 0
+       \note 0: match space cooling load in SCWH mode, 1: match water heating load in SCWH mode
+  N6,  \field Minimum Speed Level for SCWH Mode
+       \units dimensionless
+       \type integer
+       \default 1
+       \minimum> 0
+       \maximum< 10
+  N7 , \field Maximum Water Flow Volume before Switching from SCDWH to SCWH Mode
+       \type real
+       \units m3
+       \default 0.0
+  N8,  \field Minimum Speed Level for SCDWH Mode
+       \units dimensionless
+       \type integer
+       \default 1
+       \minimum> 0
+       \maximum< 10
+  N9,  \field Maximum Running Time before Allowing Electric Resistance Heat Use during SHDWH Mode
+       \type real
+       \units s
+       \minimum> 0.0
+       \default 360.0
+  N10; \field Minimum Speed Level for SHDWH Mode
+       \units dimensionless
+       \type integer
+       \default 1
+       \minimum> 0
+       \maximum< 10
+
+
+
+Coil:Cooling:DX:SingleSpeed:ThermalStorage,
+       \memo Direct expansion (DX) cooling coil and condensing unit (includes electric compressor
+       \memo and condenser fan), single-speed with packaged integrated thermal storage for cooling.
+       \min-fields 89
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference CoolingCoilsDX
+       \reference CoolingCoilsDXSingleSpeed
+       \reference CoolingCoilsDXMultiModeOrSingleSpeed
+       \reference AFNCoilNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Operating Mode Control Method
+       \required-field
+       \type choice
+       \key ScheduledModes
+       \key EMSControlled
+  A4 , \field Operation Mode Control Schedule Name
+       \note This field is used if the control method is set to ScheduledModes
+       \note Schedule values control operating mode: 0=off, 1=cooling only, 2= cooling and charge,
+       \note 3= cooling and discharge, 4= charge only, and 5= discharge only
+       \type object-list
+       \object-list ScheduleNames
+  A5 , \field Storage Type
+       \type choice
+       \key Water
+       \key UserDefinedFluidType
+       \key Ice
+       \required-field
+  A6 , \field User Defined Fluid Type
+       \type object-list
+       \object-list FluidAndGlycolNames
+       \note This field is required when Storage Type is UserDefinedFluidType
+  N1 , \field Fluid Storage Volume
+       \units m3
+       \ip-units gal
+       \type real
+       \minimum> 0
+       \note required field if Storage Type is Water or UserDefinedFluidType
+       \autocalculatable
+  N2 , \field Ice Storage Capacity
+       \units GJ
+       \type real
+       \minimum> 0
+       \note required field if Storage Type is Ice
+       \autocalculatable
+  N3 , \field Storage Capacity Sizing Factor
+       \type real
+       \units hr
+       \note If one of the previous two fields is set to autocalculate, this determines the storage capacity
+       \note as a function of Cooling Only Mode Rated Total Evaporator Cooling Capacity
+  A7 , \field Storage Tank Ambient Temperature Node Name
+       \type node
+       \required-field
+  N4 , \field Storage Tank to Ambient U-value Times Area Heat Transfer Coefficient
+       \type real
+       \units W/K
+       \minimum> 0
+       \required-field
+  N5,  \field Fluid Storage Tank Rating Temperature
+       \type real
+       \units C
+       \note required field if Storage Type is Water or UserDefinedFluidType
+  N6 , \field Rated Evaporator Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0
+       \autosizable
+       \note Flow rate corresponding to rated total cooling capacity, Rated SHR and Rated COP
+  A8 , \field Evaporator Air Inlet Node Name
+       \required-field
+       \type node
+  A9 , \field Evaporator Air Outlet Node Name
+       \required-field
+       \type node
+  A10 , \field Cooling Only Mode Available
+       \required-field
+       \type choice
+       \key Yes
+       \key No
+  N7 , \field Cooling Only Mode Rated Total Evaporator Cooling Capacity
+       \note required field if Cooling Only Mode is available or if autocalculating sizes
+       \type real
+       \units W
+       \minimum 0.0
+       \autosizable
+       \note gross capacity excluding supply air fan heat
+       \note rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+       \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+  N8 , \field Cooling Only Mode Rated Sensible Heat Ratio
+       \note required field if Cooling Only Mode is available
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.7
+       \note Rated sensible heat ratio (gross sensible capacity/gross total capacity)
+       \note sensible and total capacities do not include supply fan heat
+  N9 , \field Cooling Only Mode Rated COP
+       \note Gross cooling capacity divided by power input to the compressor and outdoor fan,
+       \note does not include supply fan heat or supply fan electrical energy input
+       \type real
+       \units W/W
+       \minimum> 0.0
+       \default 3.0
+       \note required field if Cooling Only Mode is available
+  A11, \field Cooling Only Mode Total Evaporator Cooling Capacity Function of Temperature Curve Name
+       \note required field if Cooling Only Mode is available
+       \type object-list
+       \object-list BivariateFunctions
+       \note Any curve or table with two independent variables can be used
+       \note biquadratic curve = a + b*ewb + c*ewb**2 + d*db + e*db**2 + f*ewb*db
+       \note x = ewb = evaporator entering wet-bulb temperature (C)
+       \note y = db = dry-bulb temperature seen by the condenser (C)
+  A12, \field Cooling Only Mode Total Evaporator Cooling Capacity Function of Flow Fraction Curve Name
+       \note required field if Cooling Only Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note x = ff = Fraction of the full load evaporator air flow rate
+  A13, \field Cooling Only Mode Energy Input Ratio Function of Temperature Curve Name
+       \note required field if Cooling Only Mode is available
+       \type object-list
+       \object-list BivariateFunctions
+       \note Any curve or table with two independent variables can be used
+       \note curve = a + b*ewb + c*ewb**2 + d*db + e*db**2 + f*ewb*db
+       \note x = ewb = evaporator entering wet-bulb temperature (C)
+       \note y = db = dry-bulb temperature seen by the condenser (C)
+  A14, \field Cooling Only Mode Energy Input Ratio Function of Flow Fraction Curve Name
+       \note required field if Cooling Only Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note x = ff = Fraction of the full load evaporator air flow
+  A15, \field Cooling Only Mode Part Load Fraction Correlation Curve Name
+       \note required field if Cooling Only Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note x = PLR = part load ratio (evaporator cooling load/steady state capacity)
+  A16, \field Cooling Only Mode Sensible Heat Ratio Function of Temperature Curve Name
+       \note required field if Cooling Only Mode is available
+       \type object-list
+       \object-list BivariateFunctions
+       \note Any curve or table with two independent variables can be used
+       \note curve = a + b*ewb + c*ewb**2 + d*edb + e*edb**2 + f*ewb*edb
+       \note x = ewb = evaporator entering wet-bulb temperature seen by the cooling coil (C)
+       \note y = edb = evaporator entering dry-bulb temperature seen by the cooling coil (C)
+  A17, \field Cooling Only Mode Sensible Heat Ratio Function of Flow Fraction Curve Name
+       \note required field if Cooling Only Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note x = ff = Fraction of the full load evaporator air flow
+  A18, \field Cooling And Charge Mode Available
+       \required-field
+       \type choice
+       \key Yes
+       \key No
+  N10 , \field Cooling And Charge Mode Rated Total Evaporator Cooling Capacity
+       \note required field if Cooling And Charge Mode is available
+       \type real
+       \units W
+       \minimum 0.0
+       \autocalculatable
+       \note gross capacity excluding supply air fan heat
+       \note rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+       \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+       \note thermal storage tank at Fluid Storage Tank Rating Temperature (water or fluid) or storage faction of 0.5 (ice)
+  N11, \field Cooling And Charge Mode Capacity Sizing Factor
+       \type real
+       \default 0.5
+       \note If previous field is autocalculate, this determines the evaporator capacity
+       \note as a multiplier on the Cooling Only Mode Rated Total Evaporator Cooling Capacity
+  N12, \field Cooling And Charge Mode Rated Storage Charging Capacity
+       \note required field if Cooling And Charge Mode is available
+       \type real
+       \units W
+       \minimum 0.0
+       \note net capacity including any internal devices
+       \note rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+       \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+       \note thermal storage tank at Fluid Storage Tank Rating Temperature (water or fluid) or storage faction of 0.5 (ice)
+       \autocalculatable
+  N13, \field Cooling And Charge Mode Storage Capacity Sizing Factor
+       \type real
+       \default 0.5
+       \note If previous field is autocalculate, this determines the storage cooling capacity
+       \note as a multiplier on the Cooling Only Mode Rated Total Evaporator Cooling Capacity
+  N14, \field Cooling And Charge Mode Rated Sensible Heat Ratio
+       \note required field if Cooling And Charge Mode is available
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.7
+       \note Rated sensible heat ratio (gross sensible evaporator capacity/gross total evaporator capacity)
+       \note sensible and total capacities do not include supply fan heat
+  N15, \field Cooling And Charge Mode Cooling Rated COP
+       \note Gross evaporator cooling capacity divided by power input to the compressor (for cooling) and outdoor fan,
+       \note does not include supply fan heat or supply fan electrical energy input
+       \type real
+       \units W/W
+       \minimum 0.0
+       \default 3.0
+       \note required field if Cooling And Charge Mode is available
+  N16, \field Cooling And Charge Mode Charging Rated COP
+       \note net cooling capacity divided by power input to the compressor (for charging) and outdoor fan,
+       \note includes any internal devices
+       \type real
+       \units W/W
+       \minimum> 0.0
+       \default 3.0
+       \note required field if Cooling And Charge Mode is available
+  A19, \field Cooling And Charge Mode Total Evaporator Cooling Capacity Function of Temperature Curve Name
+       \note required field if Cooling And Charge Mode is available
+       \type object-list
+       \object-list TrivariateFunctions
+       \note Allowed curve or table objects are Curve:Triquadratic and Table:Lookup
+       \note curve or table = func(x = ewb, y = db, z = stes)
+       \note x = ewb = evaporator entering wet-bulb temperature (C)
+       \note y = db = dry-bulb temperature seen by the condenser (C)
+       \note z = stes = state of thermal energy storage (C or fraction)
+  A20, \field Cooling And Charge Mode Total Evaporator Cooling Capacity Function of Flow Fraction Curve Name
+       \note required field if Cooling And Charge Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note x = ff = Fraction of the full load evaporator air flow
+  A21, \field Cooling And Charge Mode Evaporator Energy Input Ratio Function of Temperature Curve Name
+       \note required field if Cooling And Charge Mode is available
+       \type object-list
+       \object-list TrivariateFunctions
+       \note Allowed curve or table objects are Curve:Triquadratic and Table:Lookup
+       \note curve or table = func(x = ewb, y = db, z = stes)
+       \note x = ewb = evaporator entering wet-bulb temperature (C)
+       \note y = db = dry-bulb temperature seen by the condenser (C)
+       \note z = stes = state of thermal energy storage (C or fraction)
+  A22, \field Cooling And Charge Mode Evaporator Energy Input Ratio Function of Flow Fraction Curve Name
+       \note required field if Cooling And Charge Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note x = ff = Fraction of the full load evaporator air flow
+  A23, \field Cooling And Charge Mode Evaporator Part Load Fraction Correlation Curve Name
+       \note required field if Cooling And Charge Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note x = PLR = part load ratio (evaporator cooling load/steady state capacity)
+  A24, \field Cooling And Charge Mode Storage Charge Capacity Function of Temperature Curve Name
+       \note required field if Cooling And Charge Mode is available
+       \type object-list
+       \object-list TrivariateFunctions
+       \note Allowed curve or table objects are Curve:Triquadratic and Table:Lookup
+       \note curve or table = func(x = ewb, y = db, z = stes)
+       \note x = ewb = evaporator entering wet-bulb temperature (C)
+       \note y = db = dry-bulb temperature seen by the condenser (C)
+       \note z = stes = state of thermal energy storage (C or fraction)
+  A25, \field Cooling And Charge Mode Storage Charge Capacity Function of Total Evaporator PLR Curve Name
+       \note required field if Cooling And Charge Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note x = PLR = part load ratio (evaporator cooling load/steady state capacity)
+  A26, \field Cooling And Charge Mode Storage Energy Input Ratio Function of Temperature Curve Name
+       \note required field if Cooling And Charge Mode is available
+       \type object-list
+       \object-list TrivariateFunctions
+       \note Allowed curve or table objects are Curve:Triquadratic and Table:Lookup
+       \note curve or table = func(x = ewb, y = db, z = stes)
+       \note x = ewb = evaporator entering wet-bulb temperature (C)
+       \note y = db = dry-bulb temperature seen by the condenser (C)
+       \note z = stes = state of thermal energy storage (C or fraction)
+  A27, \field Cooling And Charge Mode Storage Energy Input Ratio Function of Flow Fraction Curve Name
+       \note required field if Cooling And Charge Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note x = ff = Fraction of the full load evaporator air flow
+  A28, \field Cooling And Charge Mode Storage Energy Part Load Fraction Correlation Curve Name
+       \note required field if Cooling And Charge Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note x = PLR = part load ratio (evaporator cooling load/steady state capacity)
+  A29, \field Cooling And Charge Mode Sensible Heat Ratio Function of Temperature Curve Name
+       \note required field if Cooling And Charge Mode is available
+       \type object-list
+       \object-list BivariateFunctions
+       \object-list TrivariateFunctions
+       \note Curves or tables with either two or three independent variables can be used.
+       \note Curve:Biquadratic, Table:Lookup, Curve:Bicubic and Curve:QuadraticLinear allowed
+       \note curve = a + b*ewb + c*ewb**2 + d*edb + e*edb**2 + f*ewb*edb
+       \note x = ewb = entering wet-bulb temperature seen by the cooling coil (C)
+       \note y = edb = entering dry-bulb temperature seen by the cooling coil (C)
+       \note Also allows Curve:Triquadratic and Table:Lookup
+       \note curve or table = func(x = ewb, y = edb, z = stes)
+       \note z = stes = state of thermal energy storage (C or fraction)
+  A30, \field Cooling And Charge Mode Sensible Heat Ratio Function of Flow Fraction Curve Name
+       \note required field if Cooling And Charge Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note x = ff = Fraction of the full load evaporator air flow
+  A31, \field Cooling And Discharge Mode Available
+       \required-field
+       \type choice
+       \key Yes
+       \key No
+  N17, \field Cooling And Discharge Mode Rated Total Evaporator Cooling Capacity
+       \note required field if Cooling And Discharge Mode is available
+       \type real
+       \units W
+       \minimum 0.0
+       \autocalculatable
+       \note gross capacity excluding supply air fan heat
+       \note rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+       \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+       \note thermal storage tank at Fluid Storage Tank Rating Temperature (water or fluid) or storage faction of 0.5 (ice)
+  N18, \field Cooling And Discharge Mode Evaporator Capacity Sizing Factor
+       \type real
+       \default 1.0
+       \note If previous field is autocalculate, this determines the charging capacity
+       \note as a multiplier on the Cooling Only Mode Rated Total Evaporator Cooling Capacity
+  N19, \field Cooling And Discharge Mode Rated Storage Discharging Capacity
+       \note required field if Cooling And Discharge Mode is available
+       \type real
+       \units W
+       \minimum 0.0
+       \note net capacity including any internal devices
+       \note rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+       \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+       \note thermal storage tank at 26.7 C (water) or storage faction of 0.5 (ice)
+       \autocalculatable
+  N20, \field Cooling And Discharge Mode Storage Discharge Capacity Sizing Factor
+       \type real
+       \default 1.0
+       \note If previous field is autocalculate, this determines the charging capacity
+       \note as a multiplier on the Cooling Only Mode Rated Total Evaporator Cooling Capacity
+  N21, \field Cooling And Discharge Mode Rated Sensible Heat Ratio
+       \note required field if Cooling And Discharge Mode is available
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.7
+       \note Rated sensible heat ratio (gross sensible evaporator capacity/gross total evaporator capacity)
+       \note sensible and total capacities do not include supply fan heat
+  N22, \field Cooling And Discharge Mode Cooling Rated COP
+       \note Gross evaporator cooling capacity divided by power input to the compressor (for cooling) and outdoor fan,
+       \note does not include supply fan heat or supply fan electrical energy input
+       \type real
+       \units W/W
+       \minimum 0.0
+       \default 3.0
+       \note required field if Cooling And Discharge Mode is available
+  N23, \field Cooling And Discharge Mode Discharging Rated COP
+       \note gross cooling capacity divided by power input to the compressor (for discharging),
+       \note includes any internal devices for discharging storage but not supply fan
+       \type real
+       \units W/W
+       \minimum> 0.0
+       \default 3.0
+       \note required field if Cooling And Discharge Mode is available
+  A32, \field Cooling And Discharge Mode Total Evaporator Cooling Capacity Function of Temperature Curve Name
+       \note required field if Cooling Only Mode is available
+       \type object-list
+       \object-list TrivariateFunctions
+       \note Allowed curve or table objects are Curve:Triquadratic and Table:Lookup
+       \note curve or table = func(x = ewb, y = db, z = stes)
+       \note x = ewb = evaporator entering wet-bulb temperature (C)
+       \note y = db = dry-bulb temperature seen by the condenser (C)
+       \note z = stes = state of thermal energy storage (C or fraction)
+  A33, \field Cooling And Discharge Mode Total Evaporator Cooling Capacity Function of Flow Fraction Curve Name
+       \note required field if Cooling And Discharge Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note x = ff = Fraction of the full load evaporator air flow
+  A34, \field Cooling And Discharge Mode Evaporator Energy Input Ratio Function of Temperature Curve Name
+       \note required field if Cooling And Discharge Mode is available
+       \type object-list
+       \object-list TrivariateFunctions
+       \note Allowed curve or table objects are Curve:Triquadratic and Table:Lookup
+       \note curve or table = func(x = ewb, y = db, z = stes)
+       \note x = ewb = evaporator entering wet-bulb temperature (C)
+       \note y = db = dry-bulb temperature seen by the condenser (C)
+       \note z = stes = state of thermal energy storage (C or fraction)
+  A35, \field Cooling And Discharge Mode Evaporator Energy Input Ratio Function of Flow Fraction Curve Name
+       \note required field if Cooling And Discharge Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = Fraction of the full load evaporator air flow
+  A36, \field Cooling And Discharge Mode Evaporator Part Load Fraction Correlation Curve Name
+       \note required field if Cooling And Discharge Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note x = PLR = part load ratio (evaporator cooling load/steady state capacity)
+  A37, \field Cooling And Discharge Mode Storage Discharge Capacity Function of Temperature Curve Name
+       \note required field if Cooling And Discharge Mode is available
+       \type object-list
+       \object-list TrivariateFunctions
+       \note Allowed curve or table objects are Curve:Triquadratic and Table:Lookup
+       \note curve or table = func(x = ewb, y = db, z = stes)
+       \note x = ewb = evaporator entering wet-bulb temperature (C)
+       \note y = db = dry-bulb temperature seen by the condenser (C)
+       \note z = stes = state of thermal energy storage (C or fraction)
+  A38, \field Cooling And Discharge Mode Storage Discharge Capacity Function of Flow Fraction Curve Name
+       \note required field if Cooling And Discharge Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = Fraction of the full load evaporator air flow
+  A39, \field Cooling And Discharge Mode Storage Discharge Capacity Function of Total Evaporator PLR Curve Name
+       \note required field if Cooling And Discharge Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note x =PLR = part load ratio (evaporator cooling load/steady state capacity)
+  A40, \field Cooling And Discharge Mode Storage Energy Input Ratio Function of Temperature Curve Name
+       \note required field if Cooling And Discharge Mode is available
+       \type object-list
+       \object-list TrivariateFunctions
+       \note Allowed curve or table objects are Curve:Triquadratic and Table:Lookup
+       \note curve or table = func(x = ewb, y = db, z = stes)
+       \note x = ewb = evaporator entering wet-bulb temperature (C)
+       \note y = db = dry-bulb temperature seen by the condenser (C)
+       \note z = stes = state of thermal energy storage (C or fraction)
+  A41, \field Cooling And Discharge Mode Storage Energy Input Ratio Function of Flow Fraction Curve Name
+       \note required field if Cooling And Discharge Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note x = ff = Fraction of the full load evaporator air flow
+  A42, \field Cooling And Discharge Mode Storage Energy Part Load Fraction Correlation Curve Name
+       \note required field if Cooling And Discharge Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+       \note x = PLR = part load ratio (evaporator cooling load/steady state capacity)
+  A43, \field Cooling And Discharge Mode Sensible Heat Ratio Function of Temperature Curve Name
+       \note required field if Cooling And Discharge Mode is available
+       \type object-list
+       \object-list BivariateFunctions
+       \object-list TrivariateFunctions
+       \note Curves or tables with either two or three independent variables can be used.
+       \note curve = a + b*ewb + c*ewb**2 + d*edb + e*edb**2 + f*ewb*edb
+       \note x = ewb = entering wet-bulb temperature seen by the cooling coil (C)
+       \note y = edb = entering dry-bulb temperature seen by the cooling coil (C)
+       \note Also allows Curve:Triquadratic and Table:Lookup
+       \note curve or table = func(x = ewb, y = edb, z = stes)
+       \note z = stes = state of thermal energy storage (C or fraction)
+  A44, \field Cooling And Discharge Mode Sensible Heat Ratio Function of Flow Fraction Curve Name
+       \note required field if Cooling And Discharge Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note x = ff = Fraction of the full load evaporator air flow
+  A45, \field Charge Only Mode Available
+       \required-field
+       \type choice
+       \key Yes
+       \key No
+  N24, \field Charge Only Mode Rated Storage Charging Capacity
+       \note required field if Charge Only  Mode is available
+       \type real
+       \units W
+       \minimum 0.0
+       \note net capacity including any internal devices
+       \note air entering the outdoor condenser coil at 35 C dry-bulb/23.9 C wet-bulb
+       \note thermal storage tank at 26.7 C (water) or storage faction of 0.5 (ice)
+       \autocalculatable
+  N25, \field Charge Only Mode Capacity Sizing Factor
+       \type real
+       \default 1.0
+       \note If previous field is autocalculate, this determines the charging capacity
+       \note as a multiplier on the Cooling Only Mode Rated Total Evaporator Cooling Capacity
+  N26, \field Charge Only Mode Charging Rated COP
+       \note net cooling capacity divided by power input to the compressor (for charging) and outdoor fan,
+       \note includes any internal devices
+       \type real
+       \units W/W
+       \minimum> 0.0
+       \default 3.0
+       \note required field if Charge Only Mode is available
+  A46, \field Charge Only Mode Storage Charge Capacity Function of Temperature Curve Name
+       \note required field if Charge Only Mode is available
+       \type object-list
+       \object-list BivariateFunctions
+       \note Any curve or table with two independent variables can be used
+       \note curve = a + b*db + c*db**2 + d*stes + e*stes**2 + f*db*stes
+       \note x = db = dry-bulb temperature seen by the condenser (C)
+       \note y = stes = state of thermal energy storage (C or fraction)
+  A47, \field Charge Only Mode Storage Energy Input Ratio Function of Temperature Curve Name
+       \note required field if Charge Only Mode is available
+       \type object-list
+       \object-list BivariateFunctions
+       \note Any curve or table with two independent variables can be used
+       \note curve = a + b*db + c*db**2 + d*stes + e*stes**2 + f*db*stes
+       \note x = db = dry-bulb temperature seen by the condenser (C)
+       \note y = stes = state of thermal energy storage (C or fraction)
+  A48, \field Discharge Only Mode Available
+       \required-field
+       \type choice
+       \key Yes
+       \key No
+  N27, \field Discharge Only Mode Rated Storage Discharging Capacity
+       \note required field if Discharge Only Mode is available
+       \type real
+       \units W
+       \minimum 0.0
+       \note net capacity including any internal devices
+       \note rating point: air entering the cooling coil at 26.7 C dry-bulb/19.4 C wet-bulb, and
+       \note thermal storage tank at 26.7 C (water) or storage faction of 0.5 (ice)
+       \autocalculatable
+  N28, \field Discharge Only Mode Capacity Sizing Factor
+       \type real
+       \default 1.0
+       \note If previous field is autocalculate, this determines the discharging capacity
+       \note as a multiplier on the Cooling Only Mode Rated Total Evaporator Cooling Capacity
+  N29, \field Discharge Only Mode Rated Sensible Heat Ratio
+       \note required field if Discharge Only Mode is available
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \note Rated sensible heat ratio (gross sensible evaporator capacity/gross total evaporator capacity)
+       \note sensible and total capacities do not include supply fan heat
+  N30, \field Discharge Only Mode Rated COP
+       \note required field if Discharge Only Mode is available
+       \note gross cooling capacity divided by power input to the compressor (for discharging),
+       \note includes any internal devices for discharging storage but not supply fan
+       \type real
+       \units W/W
+       \minimum> 0.0
+       \default 3.0
+  A49, \field Discharge Only Mode Storage Discharge Capacity Function of Temperature Curve Name
+       \note required field if Discharge Only Mode is available
+       \type object-list
+       \object-list BivariateFunctions
+       \note Any curve or table with two independent variables can be used
+       \note curve = a + b*ewb + c*ewb**2 + d*stes + e*stes**2 + f*ewb*stes
+       \note x = ewb = evaporator entering wet-bulb temperature (C)
+       \note y = stes = state of thermal energy storage (C or fraction)
+  A50, \field Discharge Only Mode Storage Discharge Capacity Function of Flow Fraction Curve Name
+       \note required field if Discharge Only Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note x = ff = Fraction of the full load evaporator air flow
+  A51, \field Discharge Only Mode Energy Input Ratio Function of Temperature Curve Name
+       \note required field if Discharge Only Mode is available
+       \type object-list
+       \object-list BivariateFunctions
+       \note Any curve or table with two independent variables can be used
+       \note curve = a + b*ewb + c*ewb**2 + d*stes + e*stes**2 + f*ewb*stes
+       \note x = ewb = evaporator entering wet-bulb temperature (C)
+       \note y = stes = state of thermal energy storage (C or fraction)
+  A52, \field Discharge Only Mode Energy Input Ratio Function of Flow Fraction Curve Name
+       \note required field if Discharge Only Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note x = ff = Fraction of the full load evaporator air flow
+  A53, \field Discharge Only Mode Part Load Fraction Correlation Curve Name
+       \note required field if Discharge Only Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*PLR + c*PLR**2
+       \note cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+  A54, \field Discharge Only Mode Sensible Heat Ratio Function of Temperature Curve Name
+       \note required field if Discharge Only Mode is available
+       \type object-list
+       \object-list BivariateFunctions
+       \object-list TrivariateFunctions
+       \note Curves or tables with either two or three independent variables can be used.
+       \note For two independent variables:
+       \note x = ewb = entering wet-bulb temperature seen by the cooling coil (C)
+       \note y = edb = entering dry-bulb temperature seen by the cooling coil (C)
+       \note For three independent variables:
+       \note curve or table = func(x = ewb, y = edb, z = stes)
+       \note z = stes = state of thermal energy storage (C or fraction)
+  A55, \field Discharge Only Mode Sensible Heat Ratio Function of Flow Fraction Curve Name
+       \note required field if Discharge Only Mode is available
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note quadratic curve = a + b*ff + c*ff**2
+       \note cubic curve = a + b*ff + c*ff**2 + d*ff**3
+       \note ff = Fraction of the full load evaporator air flow
+  N31, \field Ancillary Electric Power
+       \type real
+       \units W
+       \minimum 0.0
+       \note controls and miscellaneous standby ancillary electric power draw, when available
+  N32, \field Cold Weather Operation Minimum Outdoor Air Temperature
+       \type real
+       \units C
+  N33, \field Cold Weather Operation Ancillary Power
+       \type real
+       \units W
+       \minimum 0.0
+  A56, \field Condenser Air Inlet Node Name
+       \required-field
+       \type node
+       \note Enter the name of an outdoor air node. This node name is also specified in
+       \note an OutdoorAir:Node or OutdoorAir:NodeList object.
+  A57, \field Condenser Air Outlet Node Name
+       \required-field
+       \type node
+  N34, \field Condenser Design Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autocalculatable
+       \note Used to calculate condenser leaving conditions and water use if evaporatively cooled.
+  N35, \field Condenser Air Flow Sizing Factor
+       \type real
+       \default 1.0
+       \note If previous field is autocalculate, this determines the condenser air flow size as a
+       \note multiplier on the Rated Evaporator Air Flow Rate.
+  A58, \field Condenser Type
+       \type choice
+       \key AirCooled
+       \key EvaporativelyCooled
+       \default AirCooled
+  N36, \field Evaporative Condenser Effectiveness
+       \note required field if condenser type is evaporatively cooled
+       \type real
+       \units dimensionless
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.7
+  N37, \field Evaporative Condenser Pump Rated Power Consumption
+       \type real
+       \units W
+       \minimum 0.0
+       \default 0.0
+       \autosizable
+       \note Rated power consumed by the evaporative condenser's water pump
+  N38, \field Basin Heater Capacity
+       \type real
+       \units W/K
+       \minimum 0.0
+       \default 0.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled and for periods
+       \note when the basin heater is available (field Basin Heater Operating Schedule Name).
+       \note For this situation, the heater maintains the basin water temperature at the basin heater
+       \note setpoint temperature when the outdoor air temperature falls below the setpoint temperature.
+       \note The basin heater only operates when the DX coil is off.
+       \note If this field is blank, the basin heater is always available.
+  N39, \field Basin Heater Setpoint Temperature
+       \type real
+       \units C
+       \minimum 2.0
+       \default 2.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Enter the outdoor dry-bulb temperature when the basin heater turns on.
+  A59, \field Basin Heater Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+       \note air dry-bulb temperature is below the basin heater setpoint temperature.
+       \note If a schedule name is not entered, the basin heater is allowed to operate
+       \note throughout the entire simulation.
+  A60, \field Supply Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  A61, \field Condensate Collection Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  A62, \field Storage Tank Plant Connection Inlet Node Name
+       \type node
+  A63, \field Storage Tank Plant Connection Outlet Node Name
+       \type node
+  N40, \field Storage Tank Plant Connection Design Flow Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \minimum 0.0
+  N41, \field Storage Tank Plant Connection Heat Transfer Effectiveness
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.7
+  N42, \field Storage Tank Minimum Operating Limit Fluid Temperature
+       \type real
+       \units C
+       \note For fluid storage tanks only, minimum limit for storage tank
+       \note If omitted,then the minimum temperature limit is that used for fluid property data.
+  N43; \field Storage Tank Maximum Operating Limit Fluid Temperature
+       \type real
+       \units C
+       \note For fluid storage tanks only, maximum limit for storage tank
+       \note If omitted,then the maximum temperature limit is that used for fluid property data.
+
+\group Evaporative Coolers
+
+EvaporativeCooler:Direct:CelDekPad,
+       \memo Direct evaporative cooler with rigid media evaporative pad and recirculating water
+       \memo pump. This model has no controls other than its availability schedule.
+       \min-fields 7
+  A1 , \field Name
+       \type alpha
+       \reference EvapCoolerNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Direct Pad Area
+       \units m2
+       \minimum 0.0
+       \autosizable
+       \default autosize
+  N2 , \field Direct Pad Depth
+       \units m
+       \minimum 0.0
+       \autosizable
+       \default autosize
+  N3 , \field Recirculating Water Pump Power Consumption
+       \required-field
+       \units W
+       \ip-units W
+  A3 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Control Type
+       \note This field is not currently used and can be left blank
+  A6 ; \field Water Supply Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+
+EvaporativeCooler:Indirect:CelDekPad,
+       \memo Indirect evaporative cooler with rigid media evaporative pad, recirculating water
+       \memo pump, and secondary air fan. This model has no controls other than its availability
+       \memo schedule.
+       \min-fields 14
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference EvapCoolerNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Direct Pad Area
+       \type real
+       \units m2
+       \minimum 0.0
+       \autosizable
+       \default autosize
+  N2 , \field Direct Pad Depth
+       \type real
+       \units m
+       \minimum 0.0
+       \autosizable
+       \default autosize
+  N3 , \field Recirculating Water Pump Power Consumption
+       \required-field
+       \type real
+       \units W
+       \ip-units W
+  N4 , \field Secondary Air Fan Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum 0.0
+  N5 , \field Secondary Air Fan Total Efficiency
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+  N6 , \field Secondary Air Fan Delta Pressure
+       \required-field
+       \type real
+       \units Pa
+       \minimum 0.0
+       \ip-units inH2O
+  N7 , \field Indirect Heat Exchanger Effectiveness
+       \required-field
+       \type real
+       \minimum 0.0
+  A3 , \field Primary Air Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Primary Air Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Control Type
+       \note This field is not currently used and can be left blank
+  A6 , \field Water Supply Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  A7 ; \field Secondary Air Inlet Node Name
+       \type node
+       \note Enter the name of an outdoor air node
+
+EvaporativeCooler:Indirect:WetCoil,
+       \memo Indirect evaporative cooler with wetted coil, recirculating water pump, and secondary
+       \memo air fan. This model has no controls other than its availability schedule.
+       \min-fields 13
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference EvapCoolerNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Coil Maximum Efficiency
+       \required-field
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N2 , \field Coil Flow Ratio
+       \type real
+  N3 , \field Recirculating Water Pump Power Consumption
+       \required-field
+       \units W
+       \ip-units W
+  N4 , \field Secondary Air Fan Flow Rate
+       \required-field
+       \units m3/s
+       \minimum 0.0
+  N5 , \field Secondary Air Fan Total Efficiency
+       \required-field
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+  N6 , \field Secondary Air Fan Delta Pressure
+       \required-field
+       \units Pa
+       \minimum 0.0
+       \ip-units inH2O
+  A3 , \field Primary Air Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Primary Air Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Control Type
+       \note This field is not currently used and can be left blank
+  A6 , \field Water Supply Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  A7 ; \field Secondary Air Inlet Node Name
+       \required-field
+       \type node
+       \note Enter the name of an outdoor air node
+
+EvaporativeCooler:Indirect:ResearchSpecial,
+       \memo Indirect evaporative cooler with user-specified effectiveness (can represent rigid pad
+       \memo or wetted coil), recirculating water pump, and secondary air fan. This model is
+       \memo controlled to meet the primary air outlet temperature setpoint.
+       \min-fields 21
+  A1 , \field Name
+       \type alpha
+       \reference EvapCoolerNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Cooler Wetbulb Design Effectiveness
+       \required-field
+       \type real
+       \note wet operation effectiveness with respect to wetbulb depression
+       \note this is the nominal design wetbulb effectiveness at design air flow rates and water rate
+       \minimum 0.0
+       \maximum 2.0
+  A3 , \field Wetbulb Effectiveness Flow Ratio Modifier Curve Name
+       \note this curve modifies the wetbulb effectiveness in the previous field (eff_wb_design)
+       \note by multiplying the value by the result of this curve, eff_wb = eff_wb_design * func(HXFlowRatio)
+       \note x = HXFlowRatio = sum of the primary and secondary flow rates divided by the sum of the design flow
+       \note rates. If this input field is left blank, constant cooler wetbulb effectiveness is assumed.
+       \note This input field is required in order to use operating range control based on the following three
+       \note input fields: Evaporative Operation Minimum Limit Secondary Air Drybulb Temperature,
+       \note Evaporative Operation Maximum Limit Outdoor Wetbulb Temperature, and
+       \note Dry Operation Maximum Limit Outdoor Drybulb Temperature
+       \type object-list
+       \object-list UnivariateFunctions
+  N2 , \field Cooler Drybulb Design Effectiveness
+       \type real
+       \note dry operation effectiveness with respect to drybulb temperature difference
+       \note this is the nominal design dryblub effectiveness at design air flow rates, no evaporation water active
+       \minimum 0.0
+  A4 , \field Drybulb Effectiveness Flow Ratio Modifier Curve Name
+       \note this curve modifies the drybulb effectiveness in the previous field (eff_db_design)
+       \note by multiplying the value by the result of this curve, eff_db = eff_db_design * f(HXFlowRatio)
+       \note x = HXFlowRatio = sum of the primary and secondary flow rates divided by the sum of the design flow
+       \note rates. If this input field is left blank, constant cooler drybulb effectiveness is assumed.
+       \note This input field is required in order to use operating range control based on the following three
+       \note input fields: Evaporative Operation Minimum Limit Secondary Air Drybulb Temperature,
+       \note Evaporative Operation Maximum Limit Outdoor Wetbulb Temperature, and
+       \note Dry Operation Maximum Limit Outdoor Drybulb Temperature
+       \type object-list
+       \object-list UnivariateFunctions
+  N3 , \field Recirculating Water Pump Design Power
+       \units W
+       \ip-units W
+       \note This is the nominal design pump power of water recirculation and spray for evaporation at design air flow
+       \note rates and cooler design effectiveness
+       \autosizable
+       \default autosize
+  N4 , \field Water Pump Power Sizing Factor
+       \type real
+       \units W/(m3/s)
+       \ip-units W/(gal/min)
+       \default 90.0
+       \note This field is used when the previous field is set to autosize. The pump power is scaled with Secondary Air
+       \note Design Air Flow Rate. This value was backed out from inputs in energy plus example files. Average Pump Power
+       \note sizing factor was estimated from pump power and secondary air design flow rates inputs from energyplus example
+       \note files is about 90.0 [W/(m3/s)] (=90.0 ~ Pump Power / Secondary Air Design Flow Rate). The factor ranges from
+       \note 55.0 to 150.0 [W/(m3/s)] were noted. The pump power can be sized to zero by setting this factor to zero.
+  A5 , \field Water Pump Power Modifier Curve Name
+       \note this curve modifies the pump power in the previous field by multiplying the design power by the result of this curve.
+       \note x = ff = flow fraction on the secondary side, secondary air flow rate during operation divided by Secondary Air
+       \note Design Air Flow Rate. If this input field is left blank, pump power is assumed to be proportional to part load ratio.
+       \type object-list
+       \object-list UnivariateFunctions
+  N5 , \field Secondary Air Design Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \default autosize
+  N6 , \field Secondary Air Flow Scaling Factor
+       \type real
+       \units dimensionless
+       \default 1.0
+       \note This field is used when the previous field is set to autoize. The Primary Design Air Flow Rate is scaled using this factor
+       \note to calculate the secondary design air flow rate.
+  N7 , \field Secondary Air Fan Design Power
+       \type real
+       \units W
+       \note This is the fan design power at Secondary Design Air Flow Rate. This is the nominal design power at full speed.
+       \autosizable
+       \default autosize
+  N8 , \field Secondary Air Fan Sizing Specific Power
+       \type real
+       \units W/(m3/s)
+       \default 250.0
+       \note This field is used when the previous field is set to autosize. The fan power is scaled with Secondary Air Design Flow Rate.
+       \note The default value is estimated from 125 Pa fan total pressure and fan total efficiency of 50.0% (250.0 = 125/0.5).
+  A6 , \field Secondary Air Fan Power Modifier Curve Name
+       \note this curve modifies the design fan power in the previous field by multiplying the value by the result
+       \note of this curve. It should have a value of 1.0 at a x = 1.0.
+       \note x = ff = flow fraction on the secondary side, secondary air flow rate during operation divided by Secondary Air Design Air
+       \note Flow Rate. If this input field is left blank, the secondary fan power is assumed to be proportional to part load ratio.
+       \type object-list
+       \object-list UnivariateFunctions
+  A7 , \field Primary Air Inlet Node Name
+       \required-field
+       \type node
+  A8 , \field Primary Air Outlet Node Name
+       \required-field
+       \type node
+  N9 , \field Primary Air Design Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \default autosize
+  N10, \field Dewpoint Effectiveness Factor
+       \type real
+       \minimum 0.0
+  A9 , \field Secondary Air Inlet Node Name
+       \required-field
+       \type node
+  A10, \field Secondary Air Outlet Node Name
+       \required-field
+       \type node
+  A11, \field Sensor Node Name
+       \required-field
+       \type node
+  A12, \field Relief Air Inlet Node Name
+       \type node
+  A13, \field Water Supply Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  N11, \field Drift Loss Fraction
+       \type real
+       \minimum 0.0
+       \note Rate of drift loss as a fraction of evaporated water flow rate.
+       \note If this input field is left blank, then zero drift loss is assumed.
+       \default 0.0
+  N12, \field Blowdown Concentration Ratio
+       \type real
+       \minimum 2.0
+       \note Characterizes the rate of blowdown in the evaporative cooler.
+       \note Blowdown is water intentionally drained from the cooler in order to offset the build
+       \note up of solids in the water that would otherwise occur because of evaporation.
+       \note Ratio of solids in the blowdown water to solids in the make up water.
+       \note A typical value is 3. If left blank then there is no blowdown.
+  N13, \field Evaporative Operation Minimum Limit Secondary Air Drybulb Temperature
+       \type real
+       \note This input field value defines the secondary air inlet node drybulb temperature
+       \note limits in degreeCelsius. When the secondary side entering air dry bulb temperature
+       \note drops below this limit, then the evaporative cooler operation mode changes to dry
+       \note heat exchanger. Users specify their own limits. If this field is left blank, then
+       \note there is no drybulb temperature lower limit for evaporative cooler operation. If
+       \note operating range control is desired then this input field and the next two input
+       \note fields should be specified or all the three should be left blank or left out. If
+       \note no minimum drybulb temperature limit is desired while there are maximum drybulb
+       \note and wetbulb temperature limits then specify very low minimum temperature limit
+       \note value (e.g. -99.0C).
+  N14, \field Evaporative Operation Maximum Limit Outdoor Wetbulb Temperature
+       \type real
+       \note This input field value defines the secondary air inlet node wetbulb temperature
+       \note limits in degree Celsius. When the secondary side entering air wet bulb temperature
+       \note exceeds this limit, then the evaporative cooler urns off and does not attempt to do
+       \note any cooling. If this field is left blank, then there is no wetbulb temperature
+       \note upper limit for evaporative cooler wet operation mode. If this input field is left
+       \note blank then, the previous and the next input fields should also be left blank. If no
+       \note maximum wetbulb temperature limits is desired while there are minimum drybulb and
+       \note maximum drybulb upper temperature limits then specify very high maximum wetbulb
+       \note temperature limit value (e.g. 99.0 C).
+  N15; \field Dry Operation Maximum Limit Outdoor Drybulb Temperature
+       \type real
+       \note This input field value defines the secondary air inlet node drybulb temperature
+       \note limits in degree Celsius. When the secondary side entering air drybulb temperature
+       \note exceeds this limit, then the evaporative cooler will not run in dry operation mode
+       \note or may be turned off depending on its wetbulb temperature. If this field is left
+       \note blank, then there is no drybulb temperature maximum limit for evaporative cooler
+       \note operation. If this input field is left blank then, the previous and the next input
+       \note fields should also be left blank. If no maximum drybulb temperature limit is
+       \note desired while there are minimum drybulb and maximum wetbulb upper temperature
+       \note limits then specify very high maximum drybulb temperature limit value (e.g. 99.0 C).
+
+
+EvaporativeCooler:Direct:ResearchSpecial,
+       \memo Direct evaporative cooler with user-specified effectiveness (can represent rigid pad
+       \memo or similar media), and recirculating water pump, and secondary air fan. This model is
+       \memo controlled to meet the primary air outlet temperature setpoint.
+       \min-fields 11
+  A1 , \field Name
+       \type alpha
+       \reference EvapCoolerNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Cooler Design Effectiveness
+       \note effectiveness with respect to wet-bulb depression
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A3 , \field Effectiveness Flow Ratio Modifier Curve Name
+       \note this curve modifies the design effectiveness in the previous field
+       \note by multiplying the value by the result of this curve. The effectiveness flow modifier curve
+       \note is a function of flow fraction. Flow fraction is the ratio of current primary air flow rate to
+       \note the primary air design flow rate. If this input field is left blank then, the effectiveness
+       \note is assumed to be constant.
+       \type object-list
+       \object-list UnivariateFunctions
+  N2 , \field Primary Air Design Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \default autosize
+  N3 , \field Recirculating Water Pump Design Power
+       \units W
+       \ip-units W
+       \minimum 0.0
+       \note This is the design water pump or spray for evaporation at the primary air design air flow rates
+       \note and cooler design effectiveness
+       \autosizable
+       \default autosize
+  N4 , \field Water Pump Power Sizing Factor
+       \type real
+       \units W/(m3/s)
+       \ip-units W/(gal/min)
+       \default 90.0
+       \note This field is used when the previous field is set to autosize. The pump power is scaled with Primary Air
+       \note Design Air Flow Rate. This value was backed out from inputs in energy plus example files. Average Pump Power
+       \note sizing factor was estimated from pump power and primary air design flow rates inputs from energyplus example
+       \note files is about 90.0 [W/(m3/s)] (=90.0 ~ Pump Power / Primary Air Design Flow Rate). The factor ranges from
+       \note 55.0 to 150.0 [W/(m3/s)]. The pump power can be sized to zero by setting this factor to zero.
+  A4 , \field Water Pump Power Modifier Curve Name
+       \note this curve modifies the pump power in the previous field by multiplying the design power by the result of this curve.
+       \note x = ff = flow fraction on the primary air. The flow fraction is the primary air flow rate during current operation divided
+       \note by Primary Air Design Flow Rate
+       \type object-list
+       \object-list UnivariateFunctions
+  A5 , \field Air Inlet Node Name
+       \required-field
+       \type node
+  A6 , \field Air Outlet Node Name
+       \required-field
+       \type node
+  A7 , \field Sensor Node Name
+       \required-field
+       \type node
+  A8 , \field Water Supply Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  N5 , \field Drift Loss Fraction
+       \type real
+       \minimum 0.0
+       \note Rate of drift loss as a fraction of evaporated water flow rate
+  N6 , \field Blowdown Concentration Ratio
+       \type real
+       \minimum 2.0
+       \note Characterizes the rate of blowdown in the evaporative cooler.
+       \note Blowdown is water intentionally drained from the cooler in order to offset the build up
+       \note of solids in the water that would otherwise occur because of evaporation.
+       \note Ratio of solids in the blowdown water to solids in the make up water.
+       \note A typical value is 3. If left blank then there is no blowdown.
+  N7 , \field Evaporative Operation Minimum Drybulb Temperature
+       \type real
+       \minimum -99.0
+       \note This numeric field defines the evaporative cooler air inlet node drybulb temperature minimum
+       \note limit in degrees Celsius. The evaporative cooler will be turned off when the evaporator cooler
+       \note air inlet node dry-bulb temperature falls below this limit. The typical minimum value is 16degC. Users
+       \note are allowed to specify their own limits. If this field is left blank, then there is no drybulb lower
+       \note temperature limit for evaporative cooler operation.
+  N8 , \field Evaporative Operation Maximum Limit Wetbulb Temperature
+       \type real
+       \note when outdoor wetbulb temperature rises above this limit the cooler shuts down.
+       \note This numeric field defines the evaporative cooler air inlet node wet-bulb temperature maximum
+       \note limit in degrees Celsius. The evaporative cooler will be turned off when the evaporative cooler
+       \note air inlet node wet-bulb temperature exceeds this limit. The typical maximum value is 24degC. Users
+       \note are allowed to specify their own limits. If this field is left blank, then there is no upper
+       \note wetbulb temperature limit for evaporative cooler operation.
+  N9 ; \field Evaporative Operation Maximum Limit Drybulb Temperature
+       \type real
+       \note This numeric field defines the evaporative cooler air inlet node dry-bulb temperature maximum
+       \note limit in degrees Celsius. The evaporative cooler will be turned off when its air inlet node
+       \note drybulb temperature exceeds this limit. The typical maximum value is 26degC. Users
+       \note are allowed to specify their own limits. If this field is left blank, then there is no upper
+       \note temperature limit for evaporative cooler operation.
+
+\group Humidifiers and Dehumidifiers
+
+Humidifier:Steam:Electric,
+      \memo Electrically heated steam humidifier with fan.
+  A1, \field Name
+      \required-field
+      \reference-class-name validBranchEquipmentTypes
+      \reference validBranchEquipmentNames
+      \reference-class-name validOASysEquipmentTypes
+      \reference validOASysEquipmentNames
+  A2, \field Availability Schedule Name
+      \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+      \note If this field is blank, the system is always available.
+      \type object-list
+      \object-list ScheduleNames
+  N1, \field Rated Capacity
+      \note Capacity is m3/s of water at 5.05 C
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \ip-units gal/min
+      \autosizable
+  N2, \field Rated Power
+      \type real
+      \units W
+      \minimum 0.0
+      \ip-units W
+      \autosizable
+      \note if autosized the rated power is calculated from the rated capacity
+      \note and enthalpy rise of water from 20.0C to 100.0C steam and assumes
+      \note electric to thermal energy conversion efficiency of 100.0%
+  N3, \field Rated Fan Power
+      \type real
+      \units W
+      \minimum 0.0
+      \ip-units W
+  N4, \field Standby Power
+      \type real
+      \units W
+      \minimum 0.0
+      \ip-units W
+  A3, \field Air Inlet Node Name
+       \type node
+  A4, \field Air Outlet Node Name
+       \type node
+  A5; \field Water Storage Tank Name
+      \type object-list
+      \object-list WaterStorageTankNames
+
+Humidifier:Steam:Gas,
+      \memo Natural gas fired steam humidifier with optional blower fan.
+  A1, \field Name
+      \required-field
+      \reference-class-name validBranchEquipmentTypes
+      \reference validBranchEquipmentNames
+      \reference-class-name validOASysEquipmentTypes
+      \reference validOASysEquipmentNames
+  A2, \field Availability Schedule Name
+      \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+      \note If this field is blank, the system is always available.
+      \type object-list
+      \object-list ScheduleNames
+  N1, \field Rated Capacity
+      \note Capacity is m3/s of water at 5.05 C
+      \type real
+      \units m3/s
+      \minimum 0.0
+      \ip-units gal/min
+      \autosizable
+      \note The nominal full capacity water addition rate in m3/s of water at 5.05 C
+  N2, \field Rated Gas Use Rate
+      \type real
+      \units W
+      \minimum 0.0
+      \ip-units W
+      \autosizable
+      \note if auto-sized, the rated gas use rate is calculated from the rated
+      \note capacity and enthalpy rise of water from 20.0C to 100.0C steam and user
+      \note input thermal efficiency value specified in the next input field. If this
+      \note input field is hard-sized and Inlet Water Temperature Option input field is
+      \note selected as FixedInletWaterTemperature, then the thermal efficiency input
+      \note field will not be used or else if the Inlet Water Temperature Option input
+      \note field is selected as VariableInletWaterTemperature, then the thermal efficiency
+      \note input value is overridden by a value calculated from the capacity, rated gas use
+      \note rate and design condition.
+  N3, \field Thermal Efficiency
+      \type real
+      \units dimensionless
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.80
+      \note Based on the higher heating value of fuel.
+      \note If "Rated Gas Use Rate" in the field above is not auto-sized and the Inlet Water
+      \note Temperature Option input field is specified as FixedInletWaterTemperature, then the
+      \note thermal efficiency specified will not be used in the calculation, or else if the
+      \note Inlet Water Temperature Option input field is selected as VariableInletWaterTemperature,
+      \note then the thermal efficiency value is overridden by a value calculated from the capacity,
+      \note rated gas use rate and design condition.
+  A3, \field Thermal Efficiency Modifier Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+      \note Linear, Quadratic and Cubic efficiency curves are solely a function of PLR.
+      \note Linear = C1 + C2*PLR
+      \note Quadratic = C1 + C2*PLR + C3*PLR^2
+      \note Cubic = C1 + C2*PLR + C3*PLR^2 + C4*PLR^3
+      \note This is thermal efficiency modifier curve name of gas fired steam humidifier.
+      \note This curve is normalized, i.e., curve output value at rated condition is 1.0.
+  N4, \field Rated Fan Power
+      \type real
+      \units W
+      \minimum 0.0
+      \ip-units W
+      \note The nominal full capacity electric power input to the blower fan in Watts. If no
+      \note blower fan is required to inject the dry steam to the supply air stream, then
+      \note this input field is set to zero.
+  N5, \field Auxiliary Electric Power
+      \type real
+      \units W
+      \minimum 0.0
+      \ip-units W
+      \default 0.0
+      \note The auxiliary electric power input in watts. This amount of power will be consumed
+      \note whenever the unit is available (as defined by the availability schedule). This
+      \note electric power is used for control purpose only.
+  A4, \field Air Inlet Node Name
+      \type node
+  A5, \field Air Outlet Node Name
+      \type node
+  A6, \field Water Storage Tank Name
+      \type object-list
+      \object-list WaterStorageTankNames
+  A7; \field Inlet Water Temperature Option
+      \note The inlet water temperature can be fixed at 20C as it is done for electric steam
+      \note humidifier or it can be allowed to vary with temperature of the water source.
+      \note Currently allowed water sources are main water or water storage tank in water use objects.
+      \note if FixedInletWaterTemperature is specified, then a fixed 20C water temperature will be
+      \note used, or else if VariableInletWaterTemperature is specified, then inlet water will vary
+      \note depending the source water temperature. If this input field is left blank, then fixed
+      \note inlet water temperature of 20C will be assumed.
+      \type choice
+      \key FixedInletWaterTemperature
+      \key VariableInletWaterTemperature
+      \default FixedInletWaterTemperature
+
+Dehumidifier:Desiccant:NoFans,
+       \memo This object models a solid desiccant dehumidifier. The process
+       \memo air stream is the air which is dehumidified. The regeneration air
+       \memo stream is the air which is heated to regenerate the desiccant.
+       \memo This object determines the process air outlet conditions, the
+       \memo load on the regeneration heating coil, the electric power consumption
+       \memo for the wheel rotor motor, and the regeneration air fan mass flow rate.
+       \memo All other heat exchangers are modeled as separate objects connected
+       \memo to the inlet and outlet nodes of the dehumidifier. The solid
+       \memo desiccant dehumidifier is typically used in an AirLoopHVAC:OutdoorAirSystem,
+       \memo but can also be specified in any AirLoopHVAC.
+   A1, \field Name
+       \required-field
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+   A2, \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+   A3, \field Process Air Inlet Node Name
+       \note This is the node entering the process side of the desiccant wheel.
+       \type node
+   A4, \field Process Air Outlet Node Name
+       \note This is the node leaving the process side of the desiccant wheel.
+       \type node
+   A5, \field Regeneration Air Inlet Node Name
+       \note This is the node entering the regeneration side of the desiccant wheel
+       \note after the regeneration coil.
+       \type node
+   A6, \field Regeneration Fan Inlet Node Name
+       \note Node for air entering the regeneration fan, mass flow is set
+       \note by the desiccant dehumidifier module.
+       \type node
+   A7, \field Control Type
+       \note Type of setpoint control:
+       \note LeavingMaximumHumidityRatioSetpoint means that the unit is controlled
+       \note to deliver air at the Leaving Max Humidity Ratio Setpoint (see below),
+       \note SystemNodeMaximumHumidityRatioSetpoint means that the leaving humidity
+       \note ratio setpoint is the System Node Humidity Ratio Max property
+       \note of the Process Air Outlet Node. A Setpoint
+       \note object must be used to control this setpoint.
+       \note Both control types use bypass dampers to prevent over drying.
+       \type choice
+       \key LeavingMaximumHumidityRatioSetpoint
+       \key SystemNodeMaximumHumidityRatioSetpoint
+   N1, \field Leaving Maximum Humidity Ratio Setpoint
+       \note Fixed setpoint for maximum process air leaving humidity ratio
+       \note Applicable only when Control Type = LeavingMaximumHumidityRatioSetpoint.
+       \type real
+       \units kgWater/kgDryAir
+   N2, \field Nominal Process Air Flow Rate
+       \note Process air flow rate at nominal conditions
+       \type real
+       \units m3/s
+       \minimum> 0.0
+   N3, \field Nominal Process Air Velocity
+       \note Process air velocity at nominal flow
+       \note When using Performance Model Type of Default, must be 2.032 to 4.064 m/s (400 to 800 fpm)
+       \type real
+       \units m/s
+       \minimum> 0.0
+       \maximum 6
+   N4, \field Rotor Power
+       \note Power input to wheel rotor motor
+       \type real
+       \units W
+       \minimum 0.0
+       \ip-units W
+   A8, \field Regeneration Coil Object Type
+       \note heating coil type
+       \type choice
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Water
+       \key Coil:Heating:Steam
+       \note works with gas, electric, hot water and steam heating coils
+   A9, \field Regeneration Coil Name
+       \note Name of heating coil object for regeneration air
+       \type object-list
+       \object-list HeatingCoilName
+  A10, \field Regeneration Fan Object Type
+       \note Type of fan object for regeneration air. When using the Default
+       \note Performance Model Type (see below), only Fan:VariableVolume or Fan:SystemModel are valid.
+       \type choice
+       \key Fan:SystemModel
+       \key Fan:VariableVolume
+       \key Fan:ConstantVolume
+  A11, \field Regeneration Fan Name
+       \note Name of fan object for regeneration air
+       \type object-list
+       \object-list FansCVandVAV
+       \object-list FansSystemModel
+  A12, \field Performance Model Type
+       \note Specifies whether the default performance model or user-specified
+       \note curves should be used to model the performance. The default model
+       \note is a generic solid desiccant wheel using performance curves of the form:
+       \note curve = C1 + C2*edb + C3*edb**2 + C4*ew + C5*ew**2 + C6*vel + C7*vel**2
+       \note + C8*edb*ew + C9*edb**2*ew**2 + C10*edb*vel + C11*edb**2*vel**2
+       \note + C12*ew*vel + C13*ew**2*vel**2 + C14*ALOG(edb) + C15*ALOG(ew) + C16*ALOG(vel)
+       \note   edb = process entering dry-bulb temperature [C]
+       \note   ew  = process entering humidity ratio [kgWater/kgDryAir]
+       \note   vel = process air velocity [m/s]
+       \note If UserCurves are specified, then performance is calculated as follows:
+       \note   Leaving Dry-Bulb = (Leaving Dry-Bulb fTW Curve) * (Leaving Dry-Bulb fV Curve)
+       \note   Leaving Humidity Ratio = (Leaving Humidity Ratio fTW Curve) * (Leaving Humidity Ratio fV Curve)
+       \note   Regen Energy = (Regen Energy fTW Curve) * (Regen Energy fV Curve)
+       \note   Regen Velocity = (Regen Velocity fTW Curve) * (Regen Velocity fV Curve)
+       \type choice
+       \key Default
+       \key UserCurves
+  A13, \field Leaving Dry-Bulb Function of Entering Dry-Bulb and Humidity Ratio Curve Name
+       \note Leaving dry-bulb of process air as a function of entering dry-bulb
+       \note and entering humidity ratio, biquadratic curve
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = C1 + C2*edb + C3*edb**2 + C4*ew + C5*ew**2 + C6*edb*ew
+       \note edb = process entering dry-bulb temperature [C]
+       \note ew  = process entering humidity ratio [kgWater/kgDryAir]
+  A14, \field Leaving Dry-Bulb Function of Air Velocity Curve Name
+       \note Leaving dry-bulb of process air as a function of air velocity,
+       \note quadratic curve.
+       \type object-list
+       \object-list UnivariateFunctions
+       \note curve = C1 + C2*v + C3*v**2
+       \note v = process air velocity [m/s]
+  A15, \field Leaving Humidity Ratio Function of Entering Dry-Bulb and Humidity Ratio Curve Name
+       \note Leaving humidity ratio of process air as a function of entering dry-bulb
+       \note and entering humidity ratio, biquadratic curve
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = C1 + C2*edb + C3*edb**2 + C4*ew + C5*ew**2 + C6*edb*ew
+       \note edb = process entering dry-bulb temperature [C]
+       \note ew  = process entering humidity ratio [kgWater/kgDryAir]
+  A16, \field Leaving Humidity Ratio Function of Air Velocity Curve Name
+       \note Leaving humidity ratio of process air as a function of
+       \note process air velocity, quadratic curve.
+       \type object-list
+       \object-list UnivariateFunctions
+       \note curve = C1 + C2*v + C3*v**2
+       \note v = process air velocity [m/s]
+  A17, \field Regeneration Energy Function of Entering Dry-Bulb and Humidity Ratio Curve Name
+       \note Regeneration energy [J/kg of water removed] as a function of
+       \note entering dry-bulb and entering humidity ratio, biquadratic curve
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = C1 + C2*edb + C3*edb**2 + C4*ew + C5*ew**2 + C6*edb*ew
+       \note edb = process entering dry-bulb temperature [C]
+       \note ew  = process entering humidity ratio [kgWater/kgDryAir]
+  A18, \field Regeneration Energy Function of Air Velocity Curve Name
+       \note Regeneration energy [J/kg of water removed] as a function of
+       \note process air velocity, quadratic curve.
+       \type object-list
+       \object-list UnivariateFunctions
+       \note curve = C1 + C2*v + C3*v**2
+       \note v = process air velocity [m/s]
+  A19, \field Regeneration Velocity Function of Entering Dry-Bulb and Humidity Ratio Curve Name
+       \note Regeneration velocity [m/s] as a function of
+       \note entering dry-bulb and entering humidity ratio, biquadratic curve
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = C1 + C2*edb + C3*edb**2 + C4*ew + C5*ew**2 + C6*edb*ew
+       \note edb = process entering dry-bulb temperature [C]
+       \note ew  = process entering humidity ratio [kgWater/kgDryAir]
+  A20, \field Regeneration Velocity Function of Air Velocity Curve Name
+       \note Regeneration velocity [m/s] as a function of
+       \note process air velocity, quadratic curve.
+       \type object-list
+       \object-list UnivariateFunctions
+       \note curve = C1 + C2*v + C3*v**2
+       \note v = process air velocity [m/s]
+   N5; \field Nominal Regeneration Temperature
+       \note Nominal regen temperature upon which the regen energy modifier
+       \note  curve is based. Not used if Default if chosen for the field Performance Mode Type.
+       \note 121 C is a commonly used value.
+       \type real
+       \units C
+       \minimum 40
+       \maximum 250
+
+Dehumidifier:Desiccant:System,
+      \memo This compound object models a desiccant heat exchanger, an optional
+      \memo heater, and associated fans. The process air stream is the air which
+      \memo is dehumidified. The regeneration air stream is the air which is
+      \memo heated to regenerate the desiccant. The desiccant heat exchanger
+      \memo transfers both sensible and latent energy between the process and
+      \memo regeneration air streams. The desiccant dehumidifier is typically used
+      \memo in an AirLoopHVAC:OutdoorAirSystem, but can also be specified in any AirLoopHVAC.
+      \min-fields 8
+  A1,  \field Name
+       \required-field
+       \type alpha
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2,  \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3,  \field Desiccant Heat Exchanger Object Type
+       \required-field
+       \type choice
+       \key HeatExchanger:Desiccant:BalancedFlow
+  A4,  \field Desiccant Heat Exchanger Name
+       \required-field
+       \type object-list
+       \object-list HXDesiccantBalanced
+  A5,  \field Sensor Node Name
+       \required-field
+       \type node
+  A6,  \field Regeneration Air Fan Object Type
+       \required-field
+       \type choice
+       \key Fan:SystemModel
+       \key Fan:OnOff
+       \key Fan:ConstantVolume
+  A7,  \field Regeneration Air Fan Name
+       \required-field
+       \type object-list
+       \object-list FansOnOffandVAV
+       \object-list FansSystemModel
+  A8,  \field Regeneration Air Fan Placement
+       \type choice
+       \key BlowThrough
+       \key DrawThrough
+       \default DrawThrough
+  A9,  \field Regeneration Air Heater Object Type
+       \type choice
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Water
+       \key Coil:Heating:Steam
+       \note works with gas, electric, hot water and steam heating coils.
+       \note For autosizing the regeneration air heating coil the
+       \note Design Coil Inlet Air Condition used is the outdoor air condition
+       \note if the desiccant system is on the primary air loop, or else if the
+       \note desiccant system is on outdoor air system then it is the return air
+       \note condition. The Design Coil Outlet Air Temperature is the Regeneration
+       \note Inlet Air Setpoint Temperature specified in the input field below.
+  A10, \field Regeneration Air Heater Name
+       \type object-list
+       \object-list HeatingCoilName
+  N1,  \field Regeneration Inlet Air Setpoint Temperature
+       \type real
+       \units C
+       \default 46.0
+       \note This value is also used as regeneration air heater design coil air
+       \note outlet temperature for autosizing calculation of the heater.
+  A11, \field Companion Cooling Coil Object Type
+       \type choice
+       \key Coil:Cooling:DX:SingleSpeed
+       \key Coil:Cooling:DX:TwoStageWithHumidityControlMode
+       \key Coil:Cooling:DX:VariableSpeed
+  A12, \field Companion Cooling Coil Name
+       \type object-list
+       \object-list CoolingCoilsDXMultiModeOrSingleSpeed
+       \object-list CoolingCoilsDXVariableSpeed
+  A13, \field Companion Cooling Coil Upstream of Dehumidifier Process Inlet
+       \type choice
+       \key Yes
+       \key No
+       \default No
+       \note Select Yes if the companion cooling coil is located directly upstream
+       \note of the desiccant heat exchanger's process air inlet node.
+  A14, \field Companion Coil Regeneration Air Heating
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  N2,  \field Exhaust Fan Maximum Flow Rate
+       \type real
+       \units m3/s
+  N3,  \field Exhaust Fan Maximum Power
+       \type real
+       \units W
+  A15; \field Exhaust Fan Power Curve Name
+       \type object-list
+       \note Curve object type must be Curve:Quadratic or Curve:Cubic
+       \object-list UnivariateFunctions
+
+\group Heat Recovery
+
+HeatExchanger:AirToAir:FlatPlate,
+      \memo Flat plate air-to-air heat exchanger, typically used for exhaust or relief air heat
+      \memo recovery.
+      \min-fields 15
+  A1, \field Name
+      \required-field
+      \type alpha
+      \reference HXAirToAirNames
+      \reference AFNHeatExchangerNames
+      \reference-class-name validBranchEquipmentTypes
+      \reference validBranchEquipmentNames
+      \reference-class-name validOASysEquipmentTypes
+      \reference validOASysEquipmentNames
+      \reference ZoneEquipmentNames
+  A2, \field Availability Schedule Name
+      \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+      \note If this field is blank, the system is always available.
+      \type object-list
+      \object-list ScheduleNames
+  A3, \field Flow Arrangement Type
+      \type choice
+      \key CounterFlow
+      \key ParallelFlow
+      \key CrossFlowBothUnmixed
+  A4, \field Economizer Lockout
+      \type choice
+      \key Yes
+      \key No
+      \default Yes
+      \note Yes means that the heat exchanger will be locked out (off)
+      \note when the economizer is operating or high humidity control is active
+  N1, \field Ratio of Supply to Secondary hA Values
+      \type real
+      \note Ratio of h*A for supply side to h*A for exhaust side
+      \minimum 0.0
+  N2, \field Nominal Supply Air Flow Rate
+      \type real
+      \minimum> 0.0
+      \units m3/s
+      \autosizable
+      \default autosize
+  N3, \field Nominal Supply Air Inlet Temperature
+      \required-field
+      \type real
+      \units C
+  N4, \field Nominal Supply Air Outlet Temperature
+      \required-field
+      \type real
+      \units C
+  N5, \field Nominal Secondary Air Flow Rate
+      \required-field
+      \type real
+      \minimum> 0.0
+      \units m3/s
+      \autosizable
+  N6, \field Nominal Secondary Air Inlet Temperature
+      \required-field
+      \type real
+      \units C
+  N7, \field Nominal Electric Power
+      \type real
+      \units W
+      \ip-units W
+  A5, \field Supply Air Inlet Node Name
+      \required-field
+      \type node
+  A6, \field Supply Air Outlet Node Name
+      \required-field
+      \type node
+  A7, \field Secondary Air Inlet Node Name
+      \required-field
+      \type node
+  A8; \field Secondary Air Outlet Node Name
+      \required-field
+      \type node
+
+HeatExchanger:AirToAir:SensibleAndLatent,
+      \memo This object models an air-to-air heat exchanger using effectiveness relationships.
+      \memo The heat exchanger can transfer sensible energy, latent energy, or both between the
+      \memo supply (primary) and exhaust (secondary) air streams.
+      \min-fields 19
+  A1,  \field Name
+      \required-field
+      \type alpha
+      \reference HXAirToAirNames
+      \reference HXAirToAirSensibleAndLatentNames
+      \reference AFNHeatExchangerNames
+      \reference-class-name validBranchEquipmentTypes
+      \reference validBranchEquipmentNames
+      \reference-class-name validOASysEquipmentTypes
+      \reference validOASysEquipmentNames
+  A2, \field Availability Schedule Name
+      \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+      \note If this field is blank, the system is always available.
+      \type object-list
+      \object-list ScheduleNames
+  N1, \field Nominal Supply Air Flow Rate
+      \required-field
+      \type real
+      \autosizable
+      \minimum> 0.0
+      \units m3/s
+  N2, \field Sensible Effectiveness at 100% Heating Air Flow
+      \type real
+      \units dimensionless
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.0
+  N3, \field Latent Effectiveness at 100% Heating Air Flow
+      \type real
+      \units dimensionless
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.0
+  N4, \field Sensible Effectiveness at 75% Heating Air Flow
+      \type real
+      \units dimensionless
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.0
+  N5, \field Latent Effectiveness at 75% Heating Air Flow
+      \type real
+      \units dimensionless
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.0
+  N6, \field Sensible Effectiveness at 100% Cooling Air Flow
+      \type real
+      \units dimensionless
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.0
+  N7, \field Latent Effectiveness at 100% Cooling Air Flow
+      \type real
+      \units dimensionless
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.0
+  N8, \field Sensible Effectiveness at 75% Cooling Air Flow
+      \type real
+      \units dimensionless
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.0
+  N9, \field Latent Effectiveness at 75% Cooling Air Flow
+      \type real
+      \units dimensionless
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.0
+  A3, \field Supply Air Inlet Node Name
+      \required-field
+      \type node
+  A4, \field Supply Air Outlet Node Name
+      \required-field
+      \type node
+  A5, \field Exhaust Air Inlet Node Name
+      \required-field
+      \type node
+  A6, \field Exhaust Air Outlet Node Name
+      \required-field
+      \type node
+  N10,\field Nominal Electric Power
+      \type real
+      \units W
+      \ip-units W
+      \minimum 0.0
+      \default 0.0
+  A7, \field Supply Air Outlet Temperature Control
+      \type choice
+      \key No
+      \key Yes
+      \default No
+  A8, \field Heat Exchanger Type
+      \type choice
+      \key Plate
+      \key Rotary
+      \default Plate
+  A9, \field Frost Control Type
+      \type choice
+      \key None
+      \key ExhaustAirRecirculation
+      \key ExhaustOnly
+      \key MinimumExhaustTemperature
+      \default None
+  N11,\field Threshold Temperature
+      \type real
+      \units C
+      \default 1.7
+      \note Supply (outdoor) air inlet temp threshold for exhaust air recirculation and
+      \note exhaust only frost control types. Exhaust air outlet threshold Temperature for
+      \note minimum exhaust temperature frost control type.
+  N12,\field Initial Defrost Time Fraction
+      \type real
+      \units dimensionless
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.083
+      \note Fraction of the time when frost control will be invoked at the threshold temperature.
+      \note This field only used for exhaust air recirc and exhaust-only frost control types.
+  N13,\field Rate of Defrost Time Fraction Increase
+      \type real
+      \units 1/K
+      \minimum 0.0
+      \default 0.012
+      \note Rate of increase in defrost time fraction as actual temp falls below threshold temperature.
+      \note This field only used for exhaust air recirc and exhaust-only frost control types.
+  A10;\field Economizer Lockout
+      \type choice
+      \key Yes
+      \key No
+      \default Yes
+      \note Yes means that the heat exchanger will be locked out (off)
+      \note when the economizer is operating or high humidity control is active
+
+HeatExchanger:Desiccant:BalancedFlow,
+      \memo This object models a balanced desiccant heat exchanger.
+      \memo The heat exchanger transfers both sensible and latent energy between the
+      \memo process and regeneration air streams. The air flow rate and face velocity
+      \memo are assumed to be the same on both the process and regeneration sides of the
+      \memo heat exchanger.
+      \min-fields 8
+  A1, \field Name
+      \required-field
+      \type alpha
+      \reference HXDesiccantBalanced
+      \reference HXAirToAirNames
+      \reference AFNHeatExchangerNames
+      \reference-class-name validBranchEquipmentTypes
+      \reference validBranchEquipmentNames
+      \reference-class-name validOASysEquipmentTypes
+      \reference validOASysEquipmentNames
+  A2, \field Availability Schedule Name
+      \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+      \note If this field is blank, the system is always available.
+      \type object-list
+      \object-list ScheduleNames
+  A3, \field Regeneration Air Inlet Node Name
+      \required-field
+      \type node
+  A4, \field Regeneration Air Outlet Node Name
+      \required-field
+      \type node
+  A5, \field Process Air Inlet Node Name
+      \required-field
+      \type node
+  A6, \field Process Air Outlet Node Name
+      \required-field
+      \type node
+  A7, \field Heat Exchanger Performance Object Type
+      \type choice
+      \key HeatExchanger:Desiccant:BalancedFlow:PerformanceDataType1
+      \default HeatExchanger:Desiccant:BalancedFlow:PerformanceDataType1
+  A8, \field Heat Exchanger Performance Name
+      \required-field
+      \type object-list
+      \object-list DesiccantHXPerfData
+  A9; \field Economizer Lockout
+      \type choice
+      \key Yes
+      \key No
+      \default No
+      \note Yes means that the heat exchanger will be locked out (off)
+      \note when the economizer is operating or high humidity control is active
+
+HeatExchanger:Desiccant:BalancedFlow:PerformanceDataType1,
+       \memo RTO = B1 + B2*RWI + B3*RTI + B4*(RWI/RTI) + B5*PWI + B6*PTI + B7*(PWI/PTI)
+       \memo       + B8*RFV
+       \memo RWO = C1 + C2*RWI + C3*RTI + C4*(RWI/RTI) + C5*PWI + C6*PTI + C7*(PWI/PTI)
+       \memo       + C8*RFV
+       \memo where,
+       \memo RTO = Dry-bulb temperature of the regeneration outlet air (C)
+       \memo RWO = Humidity ratio of the regeneration outlet air (kgWater/kgDryAir)
+       \memo RWI = Humidity ratio of the regeneration inlet air (kgWater/kgDryAir)
+       \memo RTI = Dry-bulb temperature of the regeneration inlet air (C)
+       \memo PWI = Humidity ratio of the process inlet air (kgWater/kgDryAir)
+       \memo PTI = Dry-bulb temperature of the process inlet air (C)
+       \memo RFV = Regeneration Face Velocity (m/s)
+       \min-fields 52
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference DesiccantHXPerfData
+  N1,  \field Nominal Air Flow Rate
+       \note Air flow rate at nominal conditions (assumed to be the same for both sides
+       \note of the heat exchanger).
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+  N2 , \field Nominal Air Face Velocity
+       \required-field
+       \type real
+       \units m/s
+       \minimum> 0.0
+       \maximum 6.0
+       \autosizable
+  N3 , \field Nominal Electric Power
+       \note Parasitic electric power (e.g., desiccant wheel motor)
+       \type real
+       \units W
+       \ip-units W
+       \minimum 0.0
+       \default 0.0
+  N4 , \field Temperature Equation Coefficient 1
+       \required-field
+       \type real
+  N5 , \field Temperature Equation Coefficient 2
+       \required-field
+       \type real
+  N6 , \field Temperature Equation Coefficient 3
+       \required-field
+       \type real
+  N7 , \field Temperature Equation Coefficient 4
+       \required-field
+       \type real
+  N8 , \field Temperature Equation Coefficient 5
+       \required-field
+       \type real
+  N9 , \field Temperature Equation Coefficient 6
+       \required-field
+       \type real
+  N10, \field Temperature Equation Coefficient 7
+       \required-field
+       \type real
+  N11, \field Temperature Equation Coefficient 8
+       \required-field
+       \type real
+  N12, \field Minimum Regeneration Inlet Air Humidity Ratio for Temperature Equation
+       \required-field
+       \type real
+       \units kgWater/kgDryAir
+       \minimum 0.0
+       \maximum 1.0
+  N13, \field Maximum Regeneration Inlet Air Humidity Ratio for Temperature Equation
+       \required-field
+       \type real
+       \units kgWater/kgDryAir
+       \minimum 0.0
+       \maximum 1.0
+  N14, \field Minimum Regeneration Inlet Air Temperature for Temperature Equation
+       \required-field
+       \type real
+       \units C
+  N15, \field Maximum Regeneration Inlet Air Temperature for Temperature Equation
+       \required-field
+       \type real
+       \units C
+  N16, \field Minimum Process Inlet Air Humidity Ratio for Temperature Equation
+       \required-field
+       \type real
+       \units kgWater/kgDryAir
+       \minimum 0.0
+       \maximum 1.0
+  N17, \field Maximum Process Inlet Air Humidity Ratio for Temperature Equation
+       \required-field
+       \type real
+       \units kgWater/kgDryAir
+       \minimum 0.0
+       \maximum 1.0
+  N18, \field Minimum Process Inlet Air Temperature for Temperature Equation
+       \required-field
+       \type real
+       \units C
+  N19, \field Maximum Process Inlet Air Temperature for Temperature Equation
+       \required-field
+       \type real
+       \units C
+  N20, \field Minimum Regeneration Air Velocity for Temperature Equation
+       \required-field
+       \type real
+       \units m/s
+       \minimum> 0.0
+  N21, \field Maximum Regeneration Air Velocity for Temperature Equation
+       \required-field
+       \type real
+       \units m/s
+       \minimum> 0.0
+  N22, \field Minimum Regeneration Outlet Air Temperature for Temperature Equation
+       \required-field
+       \type real
+       \units C
+  N23, \field Maximum Regeneration Outlet Air Temperature for Temperature Equation
+       \required-field
+       \type real
+       \units C
+  N24, \field Minimum Regeneration Inlet Air Relative Humidity for Temperature Equation
+       \required-field
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+  N25, \field Maximum Regeneration Inlet Air Relative Humidity for Temperature Equation
+       \required-field
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+  N26, \field Minimum Process Inlet Air Relative Humidity for Temperature Equation
+       \required-field
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+  N27, \field Maximum Process Inlet Air Relative Humidity for Temperature Equation
+       \required-field
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+  N28, \field Humidity Ratio Equation Coefficient 1
+       \required-field
+       \type real
+  N29, \field Humidity Ratio Equation Coefficient 2
+       \required-field
+       \type real
+  N30, \field Humidity Ratio Equation Coefficient 3
+       \required-field
+       \type real
+  N31, \field Humidity Ratio Equation Coefficient 4
+       \required-field
+       \type real
+  N32, \field Humidity Ratio Equation Coefficient 5
+       \required-field
+       \type real
+  N33, \field Humidity Ratio Equation Coefficient 6
+       \required-field
+       \type real
+  N34, \field Humidity Ratio Equation Coefficient 7
+       \required-field
+       \type real
+  N35, \field Humidity Ratio Equation Coefficient 8
+       \required-field
+       \type real
+  N36, \field Minimum Regeneration Inlet Air Humidity Ratio for Humidity Ratio Equation
+       \required-field
+       \type real
+       \units kgWater/kgDryAir
+       \minimum 0.0
+       \maximum 1.0
+  N37, \field Maximum Regeneration Inlet Air Humidity Ratio for Humidity Ratio Equation
+       \required-field
+       \type real
+       \units kgWater/kgDryAir
+       \minimum 0.0
+       \maximum 1.0
+  N38, \field Minimum Regeneration Inlet Air Temperature for Humidity Ratio Equation
+       \required-field
+       \type real
+       \units C
+  N39, \field Maximum Regeneration Inlet Air Temperature for Humidity Ratio Equation
+       \required-field
+       \type real
+       \units C
+  N40, \field Minimum Process Inlet Air Humidity Ratio for Humidity Ratio Equation
+       \required-field
+       \type real
+       \units kgWater/kgDryAir
+       \minimum 0.0
+       \maximum 1.0
+  N41, \field Maximum Process Inlet Air Humidity Ratio for Humidity Ratio Equation
+       \required-field
+       \type real
+       \units kgWater/kgDryAir
+       \minimum 0.0
+       \maximum 1.0
+  N42, \field Minimum Process Inlet Air Temperature for Humidity Ratio Equation
+       \required-field
+       \type real
+       \units C
+  N43, \field Maximum Process Inlet Air Temperature for Humidity Ratio Equation
+       \required-field
+       \type real
+       \units C
+  N44, \field Minimum Regeneration Air Velocity for Humidity Ratio Equation
+       \required-field
+       \type real
+       \units m/s
+       \minimum> 0.0
+  N45, \field Maximum Regeneration Air Velocity for Humidity Ratio Equation
+       \required-field
+       \type real
+       \units m/s
+       \minimum> 0.0
+  N46, \field Minimum Regeneration Outlet Air Humidity Ratio for Humidity Ratio Equation
+       \required-field
+       \type real
+       \units kgWater/kgDryAir
+       \minimum 0.0
+       \maximum 1.0
+  N47, \field Maximum Regeneration Outlet Air Humidity Ratio for Humidity Ratio Equation
+       \required-field
+       \type real
+       \units kgWater/kgDryAir
+       \minimum 0.0
+       \maximum 1.0
+  N48, \field Minimum Regeneration Inlet Air Relative Humidity for Humidity Ratio Equation
+       \required-field
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+  N49, \field Maximum Regeneration Inlet Air Relative Humidity for Humidity Ratio Equation
+       \required-field
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+  N50, \field Minimum Process Inlet Air Relative Humidity for Humidity Ratio Equation
+       \required-field
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+  N51; \field Maximum Process Inlet Air Relative Humidity for Humidity Ratio Equation
+       \required-field
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+
+\group Unitary Equipment
+
+AirLoopHVAC:UnitarySystem,
+       \memo AirloopHVAC:UnitarySystem is a generic HVAC system type that allows any
+       \memo configuration of coils and/or fan. This object is a replacement of other
+       \memo AirloopHVAC objects. This object can be used in outdoor air systems,
+       \memo outdoor air units, air loops, and as zone equipment if desired.
+       \min-fields 14
+  A1,  \field Name
+       \required-field
+       \type alpha
+       \reference DOAToZonalUnit
+       \note Unique name for the Unitary System.
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+       \reference ZoneEquipmentNames
+  A2,  \field Control Type
+       \type choice
+       \key Load
+       \key SetPoint
+       \key SingleZoneVAV
+       \default Load
+       \note Load control requires a Controlling Zone name.
+       \note SetPoint control requires set points at coil outlet node.
+       \note SingleZoneVAV also requires a Controlling Zone name and allows
+       \note load control at low speed fan until the load exceeds capacity
+       \note or outlet air temperature limits. The fan speed is then increased.
+  A3,  \field Controlling Zone or Thermostat Location
+       \note Used only for Load based control
+       \type object-list
+       \object-list ZoneNames
+       \note Zone name where thermostat is located. Required when Control Type = Load.
+  A4,  \field Dehumidification Control Type
+       \type choice
+       \key None
+       \key Multimode
+       \key CoolReheat
+       \default None
+       \note None = meet sensible load only. Required when Control Type = SingleZoneVAV.
+       \note Multimode = activate enhanced dehumidification mode
+       \note as needed and meet sensible load. Valid only with
+       \note cooling coil type Coil:Cooling:DX:TwoStageWithHumidityControlMode or CoilSystem:Cooling:DX:HeatExchangerAssisted.
+       \note This control mode either switches the coil mode or allows the heat exchanger to be turned
+       \note on and off based on the zone dehumidification requirements.
+       \note A ZoneControl:Humidistat object is also required.
+       \note CoolReheat = cool beyond the dry-bulb setpoint.
+       \note as required to meet the humidity setpoint. Valid with all
+       \note cooling coil types. When a heat exchanger assisted cooling
+       \note coil is used, the heat exchanger is locked on at all times.
+       \note A ZoneControl:Humidistat object is also required.
+  A5,  \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \note A schedule value greater than zero (usually 1 is used) indicates that the unit is
+       \note available to operate as needed. A value less than or equal to zero (usually zero
+       \note is used) denotes that the unit must be off.
+  A6,  \field Air Inlet Node Name
+       \required-field
+       \type node
+       \note Enter the node name used as the inlet air node for the unitary system.
+  A7,  \field Air Outlet Node Name
+       \required-field
+       \type node
+       \note Enter the node name used as the outlet air node for the unitary system.
+  A8, \field Supply Fan Object Type
+       \type choice
+       \key Fan:SystemModel
+       \key Fan:OnOff
+       \key Fan:ConstantVolume
+       \key Fan:VariableVolume
+       \key Fan:ComponentModel
+       \note Enter the type of supply air fan if included in the unitary system.
+       \note Fan:ConstantVolume only works with continuous fan operating mode (i.e. supply
+       \note air fan operating mode schedule values greater than 0).
+       \note Specify a Fan:SystemModel or a Fan:OnOff object when the Supply Air Fan Operating Mode Schedule Name
+       \note input field above is left blank.
+       \note Specify a Fan:SystemModel or a Fan:VariableVolume when modeling VAV systems which used setpoint based control
+       \note if the fan is included in the unitary system object.
+       \note The ComponentModel fan type may be substituted for the ConstantVolume or VariableVolume
+       \note fan types when more detailed fan modeling is required.
+       \note The variable or constant volume fan may be specified on the branch instead of contained
+       \note within the unitary system object (i.e., this field may be blank for certain configurations).
+  A9, \field Supply Fan Name
+       \type object-list
+       \object-list Fans
+       \note Enter the name of the supply air fan if included in the unitary system.
+  A10, \field Fan Placement
+       \type choice
+       \key BlowThrough
+       \key DrawThrough
+       \note Enter the type of supply air fan if included in the unitary system.
+  A11, \field Supply Air Fan Operating Mode Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note A fan operating mode schedule value of 0 indicates cycling fan mode (supply air
+       \note fan cycles on and off in tandem with the cooling or heating coil).
+       \note Any other schedule value indicates continuous fan mode (supply air fan operates
+       \note continuously regardless of cooling or heating coil operation). Provide a schedule
+       \note with non-zero values when high humidity control is specified.
+       \note Leaving this schedule name blank will default to constant fan mode for the
+       \note entire simulation period.
+       \note This field is not used when set point based control is used where a set point
+       \note controls the coil.
+       \note SingleZoneVAV control type is only active when constant fan operating mode is active.
+  A12, \field Heating Coil Object Type
+       \type choice
+       \key Coil:Heating:DX:SingleSpeed
+       \key Coil:Heating:DX:MultiSpeed
+       \key Coil:Heating:DX:VariableSpeed
+       \key Coil:Heating:WaterToAirHeatPump:ParameterEstimation
+       \key Coil:Heating:WaterToAirHeatPump:EquationFit
+       \key Coil:Heating:WaterToAirHeatPump:VariableSpeedEquationFit
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Gas:MultiStage
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Electric:MultiStage
+       \key Coil:Heating:Water
+       \key Coil:Heating:Steam
+       \key Coil:Heating:Desuperheater
+       \key Coil:UserDefined
+       \note Enter the type of heating coil if included in the unitary system.
+  A13, \field Heating Coil Name
+       \type object-list
+       \object-list HeatingCoilsDX
+       \object-list HeatingCoilsDXMultiSpeed
+       \object-list HeatingCoilsDXVariableSpeed
+       \object-list HeatingCoilsWaterToAirHP
+       \object-list HeatingCoilsWaterToAirVSHP
+       \object-list HeatingCoilName
+       \object-list HeatingCoilsElectricMultiStage
+       \object-list HeatingCoilsGasMultiStage
+       \object-list HeatingCoilsDesuperheater
+       \object-list UserDefinedCoil
+       \note Enter the name of the heating coil if included in the unitary system.
+  N1 , \field DX Heating Coil Sizing Ratio
+       \type real
+       \default 1.0
+       \minimum> 0
+       \note Used to adjust heat pump heating capacity with respect to DX cooling capacity
+       \note used only for heat pump configurations (i.e., a DX cooling and DX heating coil is used).
+  A14, \field Cooling Coil Object Type
+       \type choice
+       \key Coil:Cooling:DX
+       \key Coil:Cooling:DX:SingleSpeed
+       \key Coil:Cooling:DX:TwoSpeed
+       \key Coil:Cooling:DX:MultiSpeed
+       \key Coil:Cooling:DX:VariableSpeed
+       \key Coil:Cooling:DX:TwoStageWithHumidityControlMode
+       \key Coil:Cooling:DX:SingleSpeed:ThermalStorage
+       \key CoilSystem:Cooling:DX:HeatExchangerAssisted
+       \key Coil:Cooling:WaterToAirHeatPump:ParameterEstimation
+       \key Coil:Cooling:WaterToAirHeatPump:EquationFit
+       \key Coil:Cooling:WaterToAirHeatPump:VariableSpeedEquationFit
+       \key Coil:Cooling:Water
+       \key Coil:Cooling:Water:DetailedGeometry
+       \key CoilSystem:Cooling:Water:HeatExchangerAssisted
+       \key Coil:UserDefined
+       \note Enter the type of cooling coil if included in the unitary system.
+  A15, \field Cooling Coil Name
+       \type object-list
+       \object-list CoilCoolingDX
+       \object-list CoolingCoilsDX
+       \object-list CoolingCoilsDXMultiSpeed
+       \object-list CoolingCoilsDXVariableSpeed
+       \object-list CoolingCoilsWaterToAirHP
+       \object-list CoolingCoilsWaterToAirVSHP
+       \object-list CoolingCoilsWater
+       \object-list UserDefinedCoil
+       \note Enter the name of the cooling coil if included in the unitary system.
+  A16, \field Use DOAS DX Cooling Coil
+       \type choice
+       \key Yes
+       \key No
+       \default No
+       \note If Yes, the DX cooling coil runs as 100% DOAS DX coil.
+       \note If No, the DX cooling coil runs as a regular DX coil.
+       \note If left blank the default is regular dx coil.
+  N2 , \field Minimum Supply Air Temperature
+       \type real
+       \units C
+       \minimum 0.0
+       \maximum 20.0
+       \default 2.0
+       \autosizable
+       \note When Use DOAS DX Cooling Coil is specified as Yes, Minimum Supply Air Temperature
+       \note defines the minimum DOAS DX cooling coil leaving air temperature that should
+       \note be maintained to avoid frost formation. This field is not autosizable when
+       \note the input for Use DOAS DX Cooling Coil = Yes.
+       \note When Control Type = SingleZoneVAV, enter the minimum air temperature limit for reduced fan speed.
+  A17, \field Latent Load Control
+       \type choice
+       \key SensibleOnlyLoadControl
+       \key LatentOnlyLoadControl
+       \key LatentWithSensibleLoadControl
+       \key LatentOrSensibleLoadControl
+       \default SensibleOnlyLoadControl
+       \note SensibleOnlyLoadControl is selected when thermostat or SingleZoneVAV control is used.
+       \note LatentOnlyLoadControl is selected when humidistat control is used.
+       \note LatentWithSensibleLoadControl is selected when thermostat control is used and
+       \note dehumidification is required only when a sensible load exists.
+       \note LatentOrSensibleLoadControl is selected when thermostat control is used and
+       \note dehumidification is required any time the humidistat set point is exceeded.
+  A18, \field Supplemental Heating Coil Object Type
+       \type choice
+       \key Coil:Heating:Fuel
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Desuperheater
+       \key Coil:Heating:Water
+       \key Coil:Heating:Steam
+       \key Coil:UserDefined
+       \note Enter the type of supplemental heating or reheat coil if included in the unitary system.
+       \note Only required if dehumidification control type is "CoolReheat".
+       \note This coil supplements heating mode operation or reheats the supply air during dehumidification
+       \note mode operation. If set point based control is used the coils operate to meet their respective
+       \note supply air temperature set point.
+  A19, \field Supplemental Heating Coil Name
+       \type object-list
+       \object-list HeatingCoilName
+       \object-list HeatingCoilsDesuperheater
+       \object-list UserDefinedCoil
+       \note Enter the name of the supplemental heating coil if included in the unitary system.
+       \note Only required if dehumidification control type is "CoolReheat".
+  A20, \field Cooling Supply Air Flow Rate Method
+       \type choice
+       \key None
+       \key SupplyAirFlowRate
+       \key FlowPerFloorArea
+       \key FractionOfAutosizedCoolingValue
+       \key FlowPerCoolingCapacity
+       \note Enter the method used to determine the cooling supply air volume flow rate.
+       \note None is used when a cooling coil is not included in the unitary system or this field may be blank.
+       \note SupplyAirFlowRate is selected when the magnitude of the supply air volume is used.
+       \note FlowPerFloorArea is selected when the supply air volume flow rate is based on total floor area
+       \note served by the unitary system.
+       \note FractionOfAutosizedCoolingValue is selected when the supply air volume is a fraction of the
+       \note value determined by the simulation.
+       \note FlowPerCoolingCapacity is selected when the supply air volume is a fraction of the cooling
+       \note capacity as determined by the simulation.
+  N3 , \field Cooling Supply Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+       \note Enter the magnitude of the supply air volume flow rate during cooling operation.
+       \note Required field when Cooling Supply Air Flow Rate Method is SupplyAirFlowRate.
+       \note This field may be blank if a cooling coil is not included in the unitary system.
+  N4 , \field Cooling Supply Air Flow Rate Per Floor Area
+       \type real
+       \units m3/s-m2
+       \minimum 0.0
+       \note Enter the supply air volume flow rate per total floor area fraction.
+       \note Required field when Cooling Supply Air Flow Rate Method is FlowPerFloorArea.
+       \note This field may be blank if a cooling coil is not included in the unitary system.
+  N5 , \field Cooling Fraction of Autosized Cooling Supply Air Flow Rate
+       \type real
+       \minimum 0.0
+       \note Enter the supply air volume flow rate as a fraction of the cooling supply air flow rate.
+       \note Required field when Cooling Supply Air Flow Rate Method is FractionOfAutosizedCoolingValue.
+       \note This field may be blank if a cooling coil is not included in the unitary system.
+  N6 , \field Cooling Supply Air Flow Rate Per Unit of Capacity
+       \type real
+       \units m3/s-W
+       \minimum 0.0
+       \note Enter the supply air volume flow rate as a fraction of the cooling capacity.
+       \note Required field when Cooling Supply Air Flow Rate Method is FlowPerCoolingCapacity.
+       \note This field may be blank if a cooling coil is not included in the unitary system.
+  A21, \field Heating Supply Air Flow Rate Method
+       \type choice
+       \key None
+       \key SupplyAirFlowRate
+       \key FlowPerFloorArea
+       \key FractionOfAutosizedHeatingValue
+       \key FlowPerHeatingCapacity
+       \note Enter the method used to determine the heating supply air volume flow rate.
+       \note None is used when a heating coil is not included in the unitary system or this field may be blank.
+       \note SupplyAirFlowRate is selected when the magnitude of the supply air volume is used.
+       \note FlowPerFloorArea is selected when the supply air volume flow rate is based on total floor area
+       \note served by the unitary system.
+       \note FractionOfAutosizedHeatingValue is selected when the supply air volume is a fraction of the
+       \note value determined by the simulation.
+       \note FlowPerHeatingCapacity is selected when the supply air volume is a fraction of the heating
+       \note capacity as determined by the simulation.
+  N7 , \field Heating Supply Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+       \note Enter the magnitude of the supply air volume flow rate during heating operation.
+       \note Required field when Heating Supply Air Flow Rate Method is SupplyAirFlowRate.
+       \note This field may be blank if a heating coil is not included in the unitary system.
+  N8 , \field Heating Supply Air Flow Rate Per Floor Area
+       \type real
+       \units m3/s-m2
+       \minimum 0.0
+       \note Enter the supply air volume flow rate per total floor area fraction.
+       \note Required field when Heating Supply Air Flow Rate Method is FlowPerFloorArea.
+       \note This field may be blank if a heating coil is not included in the unitary system.
+  N9 , \field Heating Fraction of Autosized Heating Supply Air Flow Rate
+       \type real
+       \minimum 0.0
+       \note Enter the supply air volume flow rate as a fraction of the heating supply air flow rate.
+       \note Required field when Heating Supply Air Flow Rate Method is FractionOfAutosizedHeatingValue.
+       \note This field may be blank if a heating coil is not included in the unitary system.
+  N10, \field Heating Supply Air Flow Rate Per Unit of Capacity
+       \type real
+       \units m3/s-W
+       \minimum 0.0
+       \note Enter the supply air volume flow rate as a fraction of the heating capacity.
+       \note Required field when Heating Supply Air Flow Rate Method is FlowPerHeatingCapacity.
+       \note This field may be blank if a heating coil is not included in the unitary system.
+  A22, \field No Load Supply Air Flow Rate Method
+       \type choice
+       \key None
+       \key SupplyAirFlowRate
+       \key FlowPerFloorArea
+       \key FractionOfAutosizedCoolingValue
+       \key FractionOfAutosizedHeatingValue
+       \key FlowPerCoolingCapacity
+       \key FlowPerHeatingCapacity
+       \note Enter the method used to determine the supply air volume flow rate when no cooling or heating is required.
+       \note None is used when a cooling and heating coil is not included in the unitary system or this field may be blank.
+       \note SupplyAirFlowRate is selected when the magnitude of the supply air volume is used.
+       \note FlowPerFloorArea is selected when the supply air volume flow rate is based on total floor area
+       \note served by the unitary system.
+       \note FractionOfAutosizedCoolingValue is selected when the supply air volume is a fraction of the
+       \note cooling value determined by the simulation.
+       \note FractionOfAutosizedHeatingValue is selected when the supply air volume is a fraction of the
+       \note heating value determined by the simulation.
+       \note FlowPerCoolingCapacity is selected when the supply air volume is a fraction of the cooling
+       \note capacity as determined by the simulation.
+       \note FlowPerHeatingCapacity is selected when the supply air volume is a fraction of the heating
+       \note capacity as determined by the simulation.
+  N11, \field No Load Supply Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \autosizable
+       \note Enter the magnitude of the supply air volume flow rate during when no cooling or heating is required.
+       \note Required field when No Load Supply Air Flow Rate Method is SupplyAirFlowRate.
+  N12, \field No Load Supply Air Flow Rate Per Floor Area
+       \type real
+       \units m3/s-m2
+       \minimum 0.0
+       \note Enter the supply air volume flow rate per total floor area fraction.
+       \note Required field when No Load Supply Air Flow Rate Method is FlowPerFloorArea.
+  N13, \field No Load Fraction of Autosized Cooling Supply Air Flow Rate
+       \type real
+       \minimum 0.0
+       \note Enter the supply air volume flow rate as a fraction of the cooling supply air flow rate.
+       \note Required field when No Load Supply Air Flow Rate Method is FractionOfAutosizedCoolingValue.
+  N14, \field No Load Fraction of Autosized Heating Supply Air Flow Rate
+       \type real
+       \minimum 0.0
+       \note Enter the supply air volume flow rate as a fraction of the heating supply air flow rate.
+       \note Required field when No Load Supply Air Flow Rate Method is FractionOfAutosizedHeatingValue.
+  N15, \field No Load Supply Air Flow Rate Per Unit of Capacity During Cooling Operation
+       \type real
+       \units m3/s-W
+       \minimum 0.0
+       \note Enter the supply air volume flow rate as a fraction of the cooling capacity.
+       \note Required field when No Load Supply Air Flow Rate Method is FlowPerCoolingCapacity.
+  N16, \field No Load Supply Air Flow Rate Per Unit of Capacity During Heating Operation
+       \type real
+       \units m3/s-W
+       \minimum 0.0
+       \note Enter the supply air volume flow rate as a fraction of the heating capacity.
+       \note Required field when No Load Supply Air Flow Rate Method is FlowPerHeatingCapacity.
+  N17, \field Maximum Supply Air Temperature
+       \type real
+       \units C
+       \autosizable
+       \default 80.0
+       \note Enter the maximum supply air temperature leaving the heating coil.
+       \note When Control Type = SingleZoneVAV, enter the maximum air temperature limit for reduced fan speed.
+  N18, \field Maximum Outdoor Dry-Bulb Temperature for Supplemental Heater Operation
+       \type real
+       \units C
+       \default 21.0
+       \note Enter the maximum outdoor dry-bulb temperature for supplemental heater operation.
+  A23, \field Outdoor Dry-Bulb Temperature Sensor Node Name
+       \type node
+       \note If this field is blank, outdoor temperature from the weather file is used.
+       \note If this field is not blank, the node name specified determines the outdoor temperature used
+       \note for controlling supplemental heater operation.
+  N19, \field Maximum Cycling Rate
+       \type real
+       \units cycles/hr
+       \minimum 0.0
+       \maximum 5.0
+       \default 2.5
+       \note Used only for water source heat pump.
+       \note The maximum on-off cycling rate for the compressor.
+       \note Suggested value is 2.5 for a typical heat pump.
+  N20, \field Heat Pump Time Constant
+       \type real
+       \units s
+       \minimum 0.0
+       \maximum 500.0
+       \default 60.0
+       \note Used only for water source heat pump.
+       \note Time constant for the cooling coil's capacity to reach steady state after startup.
+       \note Suggested value is 60 for a typical heat pump.
+  N21, \field Fraction of On-Cycle Power Use
+       \type real
+       \minimum 0.0
+       \maximum 0.05
+       \default 0.01
+       \note Used only for water source heat pump.
+       \note The fraction of on-cycle power use to adjust the part load fraction based on
+       \note the off-cycle power consumption due to crankcase heaters, controls, fans, and etc.
+       \note Suggested value is 0.01 for a typical heat pump.
+  N22, \field Heat Pump Fan Delay Time
+       \type real
+       \units s
+       \minimum 0.0
+       \default 60
+       \note Used only for water source heat pump.
+       \note Programmed time delay for heat pump fan to shut off after compressor cycle off.
+       \note Only required when fan operating mode is cycling.
+       \note Enter 0 when fan operating mode is continuous.
+  N23, \field Ancillary On-Cycle Electric Power
+       \type real
+       \units W
+       \minimum 0
+       \default 0
+       \note Enter the value of ancillary electric power for controls or other devices consumed during the on cycle.
+  N24, \field Ancillary Off-Cycle Electric Power
+       \type real
+       \units W
+       \minimum 0
+       \default 0
+       \note Enter the value of ancillary electric power for controls or other devices consumed during the off cycle.
+  N25, \field Design Heat Recovery Water Flow Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \minimum 0.0
+       \default 0.0
+       \note If non-zero, then the heat recovery inlet and outlet node names must be entered.
+       \note Used for heat recovery to an EnergyPlus plant loop.
+  N26, \field Maximum Temperature for Heat Recovery
+       \type real
+       \units C
+       \maximum 100.0
+       \minimum 0.0
+       \default 80.0
+       \note Enter the maximum heat recovery inlet temperature allowed for heat recovery.
+  A24, \field Heat Recovery Water Inlet Node Name
+       \type node
+       \note Enter the name of the heat recovery water inlet node if plant water loop connections are present.
+  A25, \field Heat Recovery Water Outlet Node Name
+       \type node
+       \note Enter the name of the heat recovery water outlet node if plant water loop connections are present.
+  A26, \field Design Specification Multispeed Object Type
+       \type choice
+       \key UnitarySystemPerformance:Multispeed
+       \note Enter the type of performance specification object used to describe the multispeed coil.
+  A27; \field Design Specification Multispeed Object Name
+       \type object-list
+       \object-list UnitarySystemPerformaceNames
+       \note Enter the name of the performance specification object used to describe the multispeed coil.
+
+UnitarySystemPerformance:Multispeed,
+       \memo The UnitarySystemPerformance object is used to specify the air flow ratio at each
+       \memo operating speed. This object is primarily used for multispeed DX and water coils to allow
+       \memo operation at alternate flow rates different from those specified in the coil object.
+       \extensible:2 - repeat last two fields, remembering to remove ; from "inner" fields.
+  A1 , \field Name
+       \required-field
+       \reference UnitarySystemPerformaceNames
+  N1 , \field Number of Speeds for Heating
+       \required-field
+       \type integer
+       \minimum 0
+       \maximum 10
+       \note Used only for Multi speed coils
+       \note Enter the number of the following sets of data for air flow rates.
+  N2 , \field Number of Speeds for Cooling
+       \required-field
+       \type integer
+       \minimum 0
+       \maximum 10
+       \note Used only for Multi speed coils
+       \note Enter the number of the following sets of data for air flow rates.
+  A2 , \field Single Mode Operation
+       \type choice
+       \key Yes
+       \key No
+       \default No
+       \note Controls coil operation during each HVAC timestep.
+       \note This choice does not apply to speed 1 operation.
+       \note Yes = operate at the highest speed possible without exceeding the current load.
+       \note No = allow operation at the average of two adjacent speeds to match the current load.
+  N3 , \field No Load Supply Air Flow Rate Ratio
+       \type real
+       \minimum 0
+       \maximum 1
+       \default 1
+       \note Used to define the no load operating air flow rate when the system fan
+       \note is specified to operate continuously.
+  N4 , \field Heating Speed 1 Supply Air Flow Ratio
+       \required-field
+       \type real
+       \autosizable
+       \minimum> 0
+       \begin-extensible
+       \note Used only for Multi speed coils
+       \note Enter the lowest operating supply air flow ratio during heating
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N5 , \field Cooling Speed 1 Supply Air Flow Ratio
+       \required-field
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the lowest operating supply air flow ratio during cooling
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N6 , \field Heating Speed 2 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during heating
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N7 , \field Cooling Speed 2 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during cooling
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N8 , \field Heating Speed 3 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during heating
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N9 , \field Cooling Speed 3 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during cooling
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N10, \field Heating Speed 4 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during heating
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N11, \field Cooling Speed 4 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during cooling
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N12, \field Heating Speed 5 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during heating
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N13, \field Cooling Speed 5 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during cooling
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N14, \field Heating Speed 6 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during heating
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N15, \field Cooling Speed 6 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during cooling
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N16, \field Heating Speed 7 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during heating
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N17, \field Cooling Speed 7 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during cooling
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N18, \field Heating Speed 8 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during heating
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N19, \field Cooling Speed 8 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during cooling
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N20, \field Heating Speed 9 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during heating
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N21, \field Cooling Speed 9 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during cooling
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N22, \field Heating Speed 10 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during heating
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+  N23; \field Cooling Speed 10 Supply Air Flow Ratio
+       \type real
+       \autosizable
+       \minimum> 0
+       \note Used only for Multi speed coils
+       \note Enter the next highest operating supply air flow ratio during cooling
+       \note operation or specify autosize. This value is the ratio of air flow
+       \note at this speed to the maximum air flow rate.
+
+AirLoopHVAC:Unitary:Furnace:HeatOnly,
+        \memo Unitary system, heating-only with constant volume supply fan (continuous or cycling)
+        \memo and heating coil (gas, electric, hot water, or steam). Identical to
+        \memo AirLoopHVAC:UnitaryHeatOnly.
+        \min-fields 13
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3,  \field Furnace Air Inlet Node Name
+        \required-field
+        \type node
+   A4,  \field Furnace Air Outlet Node Name
+        \required-field
+        \type node
+   A5,  \field Supply Air Fan Operating Mode Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note A fan operating mode schedule value of 0 indicates cycling fan mode (supply air
+        \note fan cycles on and off in tandem with the heating coil).
+        \note Any other schedule value indicates continuous fan mode (supply air fan operates
+        \note continuously regardless of heating coil operation).
+        \note Leaving this schedule name blank will default to cycling fan mode for the
+        \note entire simulation period.
+   N1,  \field Maximum Supply Air Temperature
+        \type real
+        \units C
+        \autosizable
+        \default 80.0
+   N2,  \field Heating Supply Air Flow Rate
+        \required-field
+        \type real
+        \note  This value should be > 0 and <= than the fan air flow rate.
+        \units m3/s
+        \minimum> 0.0
+        \autosizable
+   A6,  \field Controlling Zone or Thermostat Location
+        \required-field
+        \type object-list
+        \object-list ZoneNames
+   A7,  \field Supply Fan Object Type
+        \required-field
+        \type choice
+        \key Fan:OnOff
+        \key Fan:ConstantVolume
+        \note Fan:ConstantVolume only works with continuous fan operating mode (i.e. fan
+        \note operating mode schedule values are greater than 0).
+   A8,  \field Supply Fan Name
+        \required-field
+        \type object-list
+        \object-list FansCVandOnOff
+   A9 , \field Fan Placement
+        \type choice
+        \key BlowThrough
+        \key DrawThrough
+        \default BlowThrough
+   A10, \field Heating Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Heating:Fuel
+        \key Coil:Heating:Electric
+        \key Coil:Heating:Water
+        \key Coil:Heating:Steam
+        \note works with gas, electric, hot water and steam heating coils
+   A11; \field Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilName
+
+AirLoopHVAC:Unitary:Furnace:HeatCool,
+        \memo Unitary system, heating and cooling with constant volume supply fan (continuous or
+        \memo cycling), direct expansion (DX) cooling coil, heating coil (gas, electric,
+        \memo hot water, or steam), and optional reheat coil for dehumidification control.
+        \memo Identical to AirLoopHVAC:UnitaryHeatCool.
+        \min-fields 17
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+        \note A schedule value greater than zero (usually 1 is used) indicates that the unit is
+        \note available to operate as needed. A value less than or equal to zero (usually zero
+        \note is used) denotes that the unit must be off.
+   A3,  \field Furnace Air Inlet Node Name
+        \required-field
+        \type node
+   A4,  \field Furnace Air Outlet Node Name
+        \required-field
+        \type node
+   A5,  \field Supply Air Fan Operating Mode Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note A fan operating mode schedule value of 0 indicates cycling fan mode (supply air
+        \note fan cycles on and off in tandem with the cooling or heating coil).
+        \note Any other schedule value indicates continuous fan mode (supply air fan operates
+        \note continuously regardless of cooling or heating coil operation). Provide a schedule
+        \note with non-zero values when high humidity control is specified.
+        \note Leaving this schedule name blank will default to cycling fan mode for the
+        \note entire simulation period.
+   N1,  \field Maximum Supply Air Temperature
+        \type real
+        \units C
+        \autosizable
+        \default 80.0
+   N2,  \field Cooling Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum> 0.0
+        \autosizable
+        \note Must be less than or equal to the fan's maximum flow rate.
+   N3,  \field Heating Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum> 0.0
+        \autosizable
+        \note Must be less than or equal to the fan's maximum flow fate.
+   N4,  \field No Load Supply Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum 0.0
+        \autosizable
+        \note Must be less than or equal to the fan's maximum flow rate.
+        \note Only used when fan operating mode is continuous (disregarded for cycling fan mode).
+        \note This air flow rate is used when no heating or cooling is required (i.e., the DX coil
+        \note compressor and heating coil are off). If this field is left blank or zero, the supply
+        \note air flow rate from the previous on cycle (either cooling or heating) is used.
+   A6,  \field Controlling Zone or Thermostat Location
+        \required-field
+        \type object-list
+        \object-list ZoneNames
+   A7,  \field Supply Fan Object Type
+        \required-field
+        \type choice
+        \key Fan:OnOff
+        \key Fan:ConstantVolume
+        \note Fan:ConstantVolume only works with continuous fan operating mode (i.e. supply
+        \note air fan operating mode schedule values not equal to 0).
+   A8,  \field Supply Fan Name
+        \required-field
+        \type object-list
+        \object-list FansCVandOnOff
+   A9 , \field Fan Placement
+        \type choice
+        \key BlowThrough
+        \key DrawThrough
+        \default BlowThrough
+   A10, \field Heating Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Heating:Fuel
+        \key Coil:Heating:Electric
+        \key Coil:Heating:Water
+        \key Coil:Heating:Steam
+        \note works with gas, electric, hot water and steam heating coils
+   A11, \field Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilName
+   A12, \field Cooling Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Cooling:DX:SingleSpeed
+        \key Coil:Cooling:DX:VariableSpeed
+        \key CoilSystem:Cooling:DX:HeatExchangerAssisted
+        \note  Only works with DX cooling coil types
+   A13, \field Cooling Coil Name
+        \required-field
+        \type object-list
+        \object-list CoolingCoilsDXSingleSpeed
+        \object-list CoolingCoilsDXVariableSpeed
+   A14, \field Dehumidification Control Type
+        \type choice
+        \key None
+        \key Multimode
+        \key CoolReheat
+        \default None
+        \note None = meet sensible load only
+        \note Multimode = activate enhanced dehumidification mode
+        \note as needed and meet sensible load. Valid only with
+        \note cooling coil type CoilSystem:Cooling:DX:HeatExchangerAssisted.
+        \note This control mode allows the heat exchanger to be turned
+        \note on and off based on the zone dehumidification requirements.
+        \note A ZoneControl:Humidistat object is also required.
+        \note CoolReheat = cool beyond the dry-bulb setpoint.
+        \note as required to meet the humidity setpoint. Valid with all
+        \note cooling coil types. When a heat exchanger assisted cooling
+        \note coil is used, the heat exchanger is locked on at all times.
+        \note A ZoneControl:Humidistat object is also required.
+   A15, \field Reheat Coil Object Type
+        \type choice
+        \key Coil:Heating:Fuel
+        \key Coil:Heating:Electric
+        \key Coil:Heating:Desuperheater
+        \key Coil:Heating:Water
+        \key Coil:Heating:Steam
+        \note Only required if dehumidification control type is "CoolReheat"
+        \note works with gas, electric, hot water and steam heating coils
+   A16; \field Reheat Coil Name
+        \note Only required if dehumidification control type is "CoolReheat"
+        \type object-list
+        \object-list HeatingCoilName
+
+AirLoopHVAC:UnitaryHeatOnly,
+        \memo Unitary system, heating-only with constant volume supply fan (continuous or cycling)
+        \memo and heating coil (gas, electric, hot water, or steam). Identical to
+        \memo AirLoopHVAC:Unitary:Furnace:HeatOnly.
+        \min-fields 13
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3,  \field Unitary System Air Inlet Node Name
+        \required-field
+        \type node
+   A4,  \field Unitary System Air Outlet Node Name
+        \required-field
+        \type node
+   A5,  \field Supply Air Fan Operating Mode Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note A fan operating mode schedule value of 0 indicates cycling fan mode (supply air
+        \note fan cycles on and off in tandem with the heating coil).
+        \note Any other schedule value indicates continuous fan mode (supply air fan operates
+        \note continuously regardless of heating coil operation).
+        \note Leaving this schedule name blank will default to cycling fan mode for the
+        \note entire simulation period.
+   N1,  \field Maximum Supply Air Temperature
+        \type real
+        \units C
+        \autosizable
+        \default 80.0
+   N2,  \field Heating Supply Air Flow Rate
+        \required-field
+        \type real
+        \note  This value should be > 0 and <= than the fan air flow rate.
+        \units m3/s
+        \minimum> 0.0
+        \autosizable
+   A6,  \field Controlling Zone or Thermostat Location
+        \required-field
+        \type object-list
+        \object-list ZoneNames
+   A7,  \field Supply Fan Object Type
+        \required-field
+        \type choice
+        \key Fan:OnOff
+        \key Fan:ConstantVolume
+        \note Fan:ConstantVolume only works with continuous fan operating mode (i.e. fan
+        \note operating mode schedule values are greater than 0).
+   A8,  \field Supply Fan Name
+        \required-field
+        \type object-list
+        \object-list FansCVandOnOff
+   A9 , \field Fan Placement
+        \type choice
+        \key BlowThrough
+        \key DrawThrough
+        \default BlowThrough
+   A10, \field Heating Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Heating:Fuel
+        \key Coil:Heating:Electric
+        \key Coil:Heating:Water
+        \key Coil:Heating:Steam
+        \note works with gas, electric, hot water and steam heating coils
+   A11; \field Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilName
+
+AirLoopHVAC:UnitaryHeatCool,
+        \memo Unitary system, heating and cooling with constant volume supply fan (continuous or
+        \memo cycling), direct expansion (DX) cooling coil, heating coil (gas, electric,
+        \memo hot water, or steam), and optional reheat coil for dehumidification control.
+        \memo Identical to AirLoopHVAC:Unitary:Furnace:HeatCool.
+        \min-fields 17
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3,  \field Unitary System Air Inlet Node Name
+        \required-field
+        \type node
+   A4,  \field Unitary System Air Outlet Node Name
+        \required-field
+        \type node
+   A5,  \field Supply Air Fan Operating Mode Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note A fan operating mode schedule value of 0 indicates cycling fan mode (supply air
+        \note fan cycles on and off in tandem with the cooling or heating coil).
+        \note Any other schedule value indicates continuous fan mode (supply air fan operates
+        \note continuously regardless of cooling or heating coil operation). Provide a schedule
+        \note with non-zero values when high humidity control is specified.
+        \note Leaving this schedule name blank will default to cycling fan mode for the
+        \note entire simulation period.
+   N1,  \field Maximum Supply Air Temperature
+        \type real
+        \units C
+        \autosizable
+        \default 80.0
+   N2,  \field Cooling Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum> 0.0
+        \autosizable
+        \note Must be less than or equal to the fan's maximum flow rate.
+   N3,  \field Heating Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum> 0.0
+        \autosizable
+        \note Must be less than or equal to the fan's maximum flow rate.
+   N4,  \field No Load Supply Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum 0
+        \autosizable
+        \note Must be less than or equal to the fan's maximum flow rate.
+        \note Only used when fan operating mode is continuous (disregarded for cycling fan mode).
+        \note This air flow rate is used when no heating or cooling is required (i.e., the DX coil
+        \note compressor and heating coil are off). If this field is left blank or zero, the supply
+        \note air flow rate from the previous on cycle (either cooling or heating) is used.
+   A6,  \field Controlling Zone or Thermostat Location
+        \required-field
+        \type object-list
+        \object-list ZoneNames
+   A7,  \field Supply Fan Object Type
+        \required-field
+        \type choice
+        \key Fan:OnOff
+        \key Fan:ConstantVolume
+        \note Fan:ConstantVolume only works with continuous fan operating mode (i.e. supply
+        \note air fan operating mode schedule values not equal to 0).
+   A8,  \field Supply Fan Name
+        \required-field
+        \type object-list
+        \object-list FansCVandOnOff
+   A9 , \field Fan Placement
+        \type choice
+        \key BlowThrough
+        \key DrawThrough
+        \default BlowThrough
+   A10, \field Heating Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Heating:Fuel
+        \key Coil:Heating:Electric
+        \key Coil:Heating:Water
+        \key Coil:Heating:Steam
+        \note works with gas, electric, hot water and steam heating coils
+   A11, \field Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilName
+   A12, \field Cooling Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Cooling:DX:SingleSpeed
+        \key Coil:Cooling:DX:VariableSpeed
+        \key CoilSystem:Cooling:DX:HeatExchangerAssisted
+        \note  Only works with DX cooling coil types or
+        \note Coil:Cooling:DX:VariableSpeed.
+   A13, \field Cooling Coil Name
+        \required-field
+        \type object-list
+        \object-list CoolingCoilsDXSingleSpeed
+        \object-list CoolingCoilsDXVariableSpeed
+   A14, \field Dehumidification Control Type
+        \type choice
+        \key None
+        \key Multimode
+        \key CoolReheat
+        \default None
+        \note None = meet sensible load only
+        \note Multimode = activate enhanced dehumidification mode
+        \note as needed and meet sensible load. Valid only with
+        \note cooling coil type CoilSystem:Cooling:DX:HeatExchangerAssisted.
+        \note This control mode allows the heat exchanger to be turned
+        \note on and off based on the zone dehumidification requirements.
+        \note A ZoneControl:Humidistat object is also required.
+        \note CoolReheat = cool beyond the dry-bulb setpoint.
+        \note as required to meet the humidity setpoint. Valid with all
+        \note cooling coil types. When a heat exchanger assisted Cooling
+        \note coil is used, the heat exchanger is locked on at all times.
+        \note A ZoneControl:Humidistat object is also required.
+   A15, \field Reheat Coil Object Type
+        \type choice
+        \key Coil:Heating:Fuel
+        \key Coil:Heating:Electric
+        \key Coil:Heating:Desuperheater
+        \key Coil:Heating:Water
+        \key Coil:Heating:Steam
+        \note Only required if dehumidification control type is "CoolReheat"
+        \note works with gas, electric, desuperheating, hot water and steam heating coils
+   A16; \field Reheat Coil Name
+        \note Only required if dehumidification control type is "CoolReheat"
+        \type object-list
+        \object-list HeatingCoilName
+
+AirLoopHVAC:UnitaryHeatPump:AirToAir,
+        \memo Unitary heat pump system, heating and cooling, single-speed with supply fan, direct
+        \memo expansion (DX) cooling coil, DX heating coil (air-to-air heat pump), and supplemental
+        \memo heating coil (gas, electric, hot water, or steam).
+        \min-fields 19
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+        \note A schedule value greater than zero (usually 1 is used) indicates that the unit is
+        \note available to operate as needed. A value less than or equal to zero (usually zero
+        \note is used) denotes that the unit must be off.
+   A3,  \field Air Inlet Node Name
+        \required-field
+        \type node
+   A4,  \field Air Outlet Node Name
+        \required-field
+        \type node
+   N1,  \field Cooling Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum> 0.0
+        \autosizable
+        \note Must be less than or equal to the fan's maximum flow rate.
+   N2,  \field Heating Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \minimum> 0.0
+        \autosizable
+        \note Must be less than or equal to the fan's maximum flow rate.
+   N3,  \field No Load Supply Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum 0.0
+        \autosizable
+        \note Must be less than or equal to the fan's maximum flow rate.
+        \note Only used when fan operating mode is continuous (disregarded for cycling fan mode).
+        \note This air flow rate is used when no heating or cooling is required (i.e., the DX coil
+        \note compressor and supplemental heating coil are off). If this field is left blank or zero,
+        \note the supply air flow rate from the previous on cycle (either cooling or heating) is used.
+   A5,  \field Controlling Zone or Thermostat Location
+        \required-field
+        \type object-list
+        \object-list ZoneNames
+   A6,  \field Supply Air Fan Object Type
+        \required-field
+        \type choice
+        \key Fan:OnOff
+        \key Fan:ConstantVolume
+        \note Fan:ConstantVolume only works with continuous fan operating mode (i.e. fan
+        \note operating mode schedule values are greater than 0 or the fan operating mode
+        \note schedule name field is left blank).
+   A7,  \field Supply Air Fan Name
+        \required-field
+        \type object-list
+        \object-list FansCVandOnOff
+        \note  Needs to match in the fan object
+   A8,  \field Heating Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Heating:DX:SingleSpeed
+        \key Coil:Heating:DX:VariableSpeed
+        \key CoilSystem:IntegratedHeatPump:AirSource
+        \note  Only works with Coil:Heating:DX:SingleSpeed or
+        \note Coil:Heating:DX:VariableSpeed or
+        \note CoilSystem:IntegratedHeatPump:AirSource
+   A9,  \field Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilsDXSingleSpeed
+        \object-list HeatingCoilsDXVariableSpeed
+        \object-list IntegratedHeatPumps
+        \note  Needs to match in the DX heating coil object
+   A10, \field Cooling Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Cooling:DX:SingleSpeed
+        \key Coil:Cooling:DX:VariableSpeed
+        \key CoilSystem:Cooling:DX:HeatExchangerAssisted
+        \key CoilSystem:IntegratedHeatPump:AirSource
+        \note Only works with Coil:Cooling:DX:SingleSpeed or
+        \note CoilSystem:Cooling:DX:HeatExchangerAssisted or
+        \note Coil:Cooling:DX:VariableSpeed or
+        \note CoilSystem:IntegratedHeatPump:AirSource
+   A11, \field Cooling Coil Name
+        \required-field
+        \note Needs to match in the DX cooling coil object
+        \type object-list
+        \object-list CoolingCoilsDXSingleSpeed
+        \object-list CoolingCoilsDXVariableSpeed
+        \object-list IntegratedHeatPumps
+   A12, \field Supplemental Heating Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Heating:Fuel
+        \key Coil:Heating:Electric
+        \key Coil:Heating:Water
+        \key Coil:Heating:Steam
+        \note works with gas, electric, hot water and steam heating coils
+   A13, \field Supplemental Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilName
+        \note  Needs to match in the supplemental heating coil object
+   N4 , \field Maximum Supply Air Temperature from Supplemental Heater
+        \required-field
+        \type real
+        \units C
+        \autosizable
+   N5 , \field Maximum Outdoor Dry-Bulb Temperature for Supplemental Heater Operation
+        \type real
+        \maximum 21.0
+        \default 21.0
+        \units C
+   A14, \field Fan Placement
+        \type choice
+        \key BlowThrough
+        \key DrawThrough
+        \default BlowThrough
+   A15, \field Supply Air Fan Operating Mode Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note A fan operating mode schedule value of 0 indicates cycling fan mode (supply air
+        \note fan cycles on and off in tandem with the cooling or heating coil).
+        \note Any other schedule value indicates continuous fan mode (supply air fan operates
+        \note continuously regardless of cooling or heating coil operation).
+        \note Leaving this schedule name blank will default to cycling fan mode for the
+        \note entire simulation period.
+   A16; \field Dehumidification Control Type
+        \type choice
+        \key None
+        \key Multimode
+        \key CoolReheat
+        \default None
+        \note None = meet sensible load only
+        \note Multimode = activate enhanced dehumidification mode
+        \note as needed and meet sensible load. Valid only with
+        \note cooling coil type CoilSystem:Cooling:DX:HeatExchangerAssisted.
+        \note This control mode allows the heat exchanger to be turned
+        \note on and off based on the zone dehumidification requirements.
+        \note A ZoneControl:Humidistat object is also required.
+        \note CoolReheat = cool beyond the dry-bulb setpoint.
+        \note as required to meet the humidity setpoint. Valid with all
+        \note cooling coil types. When a heat exchanger assisted Cooling
+        \note coil is used, the heat exchanger is locked on at all times.
+        \note A ZoneControl:Humidistat object is also required.
+
+AirLoopHVAC:UnitaryHeatPump:WaterToAir,
+        \memo Unitary heat pump system, heating and cooling, single-speed with constant volume
+        \memo supply fan (continuous or cycling), direct expansion (DX) cooling coil, DX heating
+        \memo coil (water-to-air heat pump), and supplemental heating coil (gas, electric,
+        \memo hot water, or steam).
+        \min-fields 25
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3,  \field Air Inlet Node Name
+        \required-field
+        \type node
+   A4,  \field Air Outlet Node Name
+        \required-field
+        \type node
+   N1,  \field Supply Air Flow Rate
+        \required-field
+        \type real
+        \note  This value should be > 0 and <= than the fan air flow rate.
+        \units m3/s
+        \minimum> 0.0
+        \autosizable
+   A5,  \field Controlling Zone or Thermostat Location
+        \required-field
+        \type object-list
+        \object-list ZoneNames
+   A6,  \field Supply Air Fan Object Type
+        \required-field
+        \type choice
+        \key Fan:OnOff
+        \note  Only works with On/Off Fan
+   A7,  \field Supply Air Fan Name
+        \required-field
+        \type object-list
+        \object-list FansOnOff
+        \note Needs to match Fan:OnOff object
+   A8,  \field Heating Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Heating:WaterToAirHeatPump:ParameterEstimation
+        \key Coil:Heating:WaterToAirHeatPump:EquationFit
+        \key Coil:Heating:WaterToAirHeatPump:VariableSpeedEquationFit
+   A9,  \field Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilsWaterToAirHP
+        \object-list HeatingCoilsWaterToAirVSHP
+        \note  Needs to match in the water-to-air heat pump heating coil object
+   N2,  \field Heating Convergence
+        \type real
+        \minimum> 0.0
+        \default 0.001
+   A10, \field Cooling Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Cooling:WaterToAirHeatPump:ParameterEstimation
+        \key Coil:Cooling:WaterToAirHeatPump:EquationFit
+        \key Coil:Cooling:WaterToAirHeatPump:VariableSpeedEquationFit
+   A11, \field Cooling Coil Name
+        \required-field
+        \type object-list
+        \object-list CoolingCoilsWaterToAirHP
+        \object-list CoolingCoilsWaterToAirVSHP
+        \note Needs to match in the water-to-air heat pump cooling coil object
+   N3,  \field Cooling Convergence
+        \type real
+        \minimum> 0.0
+        \default 0.001
+   N4,  \field Maximum Cycling Rate
+        \type real
+        \units cycles/hr
+        \minimum 0.0
+        \maximum 5.0
+        \default 2.5
+        \note The maximum on-off cycling rate for the compressor
+        \note Suggested value is 2.5 for a typical heat pump
+   N5,  \field Heat Pump Time Constant
+        \type real
+        \units s
+        \minimum 0.0
+        \maximum 500.0
+        \default 60.0
+        \note Time constant for the cooling coil's capacity to reach steady state after startup
+        \note Suggested value is 60 for a typical heat pump
+   N6,  \field Fraction of On-Cycle Power Use
+        \minimum 0.0
+        \maximum 0.05
+        \default 0.01
+        \note The fraction of on-cycle power use to adjust the part load fraction based on
+        \note the off-cycle power consumption due to crankcase heaters, controls, fans, and etc.
+        \note Suggested value is 0.01 for a typical heat pump
+   N7,  \field Heat Pump Fan Delay Time
+        \units s
+        \minimum 0.0
+        \default 60
+        \note Programmed time delay for heat pump fan to shut off after compressor cycle off.
+        \note Only required when fan operating mode is cycling
+        \note Enter 0 when fan operating mode is continuous
+   A12, \field Supplemental Heating Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Heating:Fuel
+        \key Coil:Heating:Electric
+        \key Coil:Heating:Water
+        \key Coil:Heating:Steam
+        \note works with gas, electric, hot water and steam heating coils
+   A13, \field Supplemental Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilName
+        \note  Needs to match in the supplemental heating coil object
+   N8,  \field Maximum Supply Air Temperature from Supplemental Heater
+        \required-field
+        \type real
+        \units C
+        \autosizable
+   N9, \field Maximum Outdoor Dry-Bulb Temperature for Supplemental Heater Operation
+        \type real
+        \maximum 21.0
+        \default 21.0
+        \units C
+   A14, \field Outdoor Dry-Bulb Temperature Sensor Node Name
+        \type node
+   A15, \field Fan Placement
+        \type choice
+        \key BlowThrough
+        \key DrawThrough
+        \default BlowThrough
+   A16, \field Supply Air Fan Operating Mode Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Enter the name of a schedule that controls fan operation. Schedule values of 0 denote
+        \note cycling fan operation (fan cycles with cooling or heating coil). Schedule values greater
+        \note than 0 denote constant fan operation (fan runs continually regardless of coil operation).
+        \note The fan operating mode defaults to cycling fan operation if this field is left blank.
+   A17, \field Dehumidification Control Type
+        \type choice
+        \key None
+        \key CoolReheat
+        \default None
+        \note None = meet sensible load only
+        \note CoolReheat = cool beyond the dry-bulb setpoint.
+        \note as required to meet the humidity setpoint. Valid only with
+        \note Coil:Cooling:WaterToAirHeatPump:EquationFit or
+        \note Coil:Cooling:WaterToAirHeatPump:VariableSpeedEquationFit
+   A18; \field Heat Pump Coil Water Flow Mode
+        \type choice
+        \key Constant
+        \key Cycling
+        \key ConstantOnDemand
+        \default Cycling
+        \note used only when the heat pump coils are of the type WaterToAirHeatPump:EquationFit
+        \note Constant results in 100% water flow regardless of compressor PLR
+        \note Cycling results in water flow that matches compressor PLR
+        \note ConstantOnDemand results in 100% water flow whenever the coil is on, but is 0% whenever the coil has no load
+
+AirLoopHVAC:UnitaryHeatCool:VAVChangeoverBypass,
+        \memo Unitary system, heating and cooling with constant volume supply fan (continuous or
+        \memo cycling), direct expansion (DX) cooling coil, heating coil (gas, electric,
+        \memo hot water, steam, or DX air-to-air heat pump) and bypass damper for variable volume
+        \memo flow to terminal units. Used with AirTerminal:SingleDuct:VAV:HeatAndCool:Reheat
+        \memo or AirTerminal:SingleDuct:VAV:HeatAndCool:NoReheat.
+        \min-fields 23
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \note Enter a unique name for this unitary system.
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2 , \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+        \note Enter the availability schedule name. Schedule values of zero denote system
+        \note is Off. Non-zero schedule values denote system is available to operate.
+   N1 , \field Cooling Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \autosizable
+        \minimum> 0.0
+        \note Enter the system air flow rate during cooling
+        \note operation or specify autosize.
+   N2 , \field Heating Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \autosizable
+        \minimum> 0.0
+        \note Enter the system air flow rate during heating
+        \note operation or specify autosize.
+   N3 , \field No Load Supply Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum 0.0
+        \autosizable
+        \note Only used when the supply air fan operating mode is continuous (see field
+        \note Supply air fan operating mode schedule name). This system air flow rate
+        \note is used when no heating or cooling is required and the coils are off.
+        \note If this field is left blank or zero, the system air flow rate from the
+        \note previous on cycle (either cooling or heating) is used.
+   N4 , \field Cooling Outdoor Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \autosizable
+        \minimum 0.0
+        \note Enter the outdoor air flow rate during
+        \note cooling operation or specify autosize.
+   N5 , \field Heating Outdoor Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \autosizable
+        \minimum 0.0
+        \note Enter the outdoor air flow rate during
+        \note heating operation or specify autosize.
+   N6 , \field No Load Outdoor Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum 0.0
+        \autosizable
+        \note Only used when the supply air fan operating mode is continuous (see field
+        \note Supply air fan operating mode schedule name). This outdoor air flow rate
+        \note is used when no heating or cooling is required and the coils are off.
+        \note If this field is left blank or zero, the outdoor air flow rate from the previous on cycle
+        \note (either cooling or heating) is used.
+   A3 , \field Outdoor Air Flow Rate Multiplier Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Enter the name of a schedule that contains multipliers for the outdoor air
+        \note flow rates. Schedule values must be from 0 to 1.
+        \note If field is left blank, model assumes multiplier is 1 for the entire simulation period.
+   A4 , \field Air Inlet Node Name
+        \required-field
+        \type node
+        \note Enter the name of the unitary system's air inlet node.
+   A5 , \field Bypass Duct Mixer Node Name
+        \required-field
+        \type node
+        \note Enter the name of the bypass duct mixer node. This name should be the name
+        \note of the return air node for the outdoor air mixer associated with this system.
+        \note This node name must be different from the air inlet node name.
+   A6 , \field Bypass Duct Splitter Node Name
+        \required-field
+        \type node
+        \note Enter the name of the bypass duct splitter node.
+        \note This splitter air node is the outlet node of the last component in this unitary
+        \note system. For blow through fan placement, the splitter air node is the outlet
+        \note node of the heating coil. For draw through fan placement, the splitter node
+        \note is the outlet node of the supply air fan.
+   A7 , \field Air Outlet Node Name
+        \required-field
+        \type node
+        \note Enter the name of the unitary system's air outlet node.
+   A8,  \field Outdoor Air Mixer Object Type
+        \required-field
+        \type choice
+        \key OutdoorAir:Mixer
+        \note currently only one type OutdoorAir:Mixer object is available.
+   A9 , \field Outdoor Air Mixer Name
+        \required-field
+        \type object-list
+        \object-list OutdoorAirMixers
+        \note Enter the name of the outdoor air mixer used with this unitary system.
+   A10, \field Supply Air Fan Object Type
+        \required-field
+        \type choice
+        \key Fan:SystemModel
+        \key Fan:OnOff
+        \key Fan:ConstantVolume
+        \note Specify the type of supply air fan used in this unitary system.
+   A11, \field Supply Air Fan Name
+        \required-field
+        \type object-list
+        \object-list FansCVandOnOff
+        \object-list FansSystemModel
+        \note Enter the name of the supply air fan used in this unitary system.
+   A12, \field Supply Air Fan Placement
+        \required-field
+        \type choice
+        \key BlowThrough
+        \key DrawThrough
+        \note Specify supply air fan placement as either blow through or draw through.
+        \note BlowThrough means the supply air fan is located before the cooling
+        \note coil. DrawThrough means the supply air fan is located after the heating coil.
+   A13, \field Supply Air Fan Operating Mode Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Enter the name of a schedule to control the supply air fan. Schedule Name values of zero
+        \note mean that the supply air fan will cycle off if there is no cooling or heating load
+        \note in any of the zones being served by this system. Non-zero schedule values mean
+        \note that the supply air fan will operate continuously even if there is no cooling or
+        \note heating load in any of the zones being served. If this field is left blank,
+        \note the supply air fan will operate continuously for the entire simulation period.
+   A14, \field Cooling Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Cooling:DX:SingleSpeed
+        \key Coil:Cooling:DX:VariableSpeed
+        \key CoilSystem:Cooling:DX:HeatExchangerAssisted
+        \key Coil:Cooling:DX:TwoStageWithHumidityControlMode
+        \note Specify the type of cooling coil used in this unitary system.
+   A15, \field Cooling Coil Name
+        \required-field
+        \type object-list
+        \object-list CoolingCoilsDXMultiModeOrSingleSpeed
+        \object-list CoolingCoilsDXVariableSpeed
+        \note Enter the name of the cooling coil used in this unitary system.
+   A16, \field Heating Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Heating:DX:SingleSpeed
+        \key Coil:Heating:DX:VariableSpeed
+        \key Coil:Heating:Fuel
+        \key Coil:Heating:Electric
+        \key Coil:Heating:Water
+        \key Coil:Heating:Steam
+        \note works with DX, gas, electric, hot water and steam heating coils
+        \note Specify the type of heating coil used in this unitary system.
+   A17, \field Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilName
+        \object-list HeatingCoilsDXVariableSpeed
+        \note Enter the name of the heating coil used in this unitary system.
+   A18, \field Priority Control Mode
+        \type choice
+        \key CoolingPriority
+        \key HeatingPriority
+        \key ZonePriority
+        \key LoadPriority
+        \default ZonePriority
+        \note CoolingPriority = system provides cooling if any zone requires cooling.
+        \note HeatingPriority = system provides heating if any zone requires heating.
+        \note ZonePriority = system controlled based on the total number of zones
+        \note requiring cooling or heating (highest number of zones
+        \note in cooling or heating determines the system's operating mode).
+        \note LoadPriority = system provides cooling or heating based on total zone loads.
+   N7 , \field Minimum Outlet Air Temperature During Cooling Operation
+        \type real
+        \units C
+        \minimum> 0.0
+        \default 8.0
+        \note Specify the minimum outlet air temperature allowed for this unitary system
+        \note during cooling operation. This value should be less than the maximum outlet
+        \note air temperature during heating operation.
+   N8 , \field Maximum Outlet Air Temperature During Heating Operation
+        \type real
+        \units C
+        \minimum> 0.0
+        \default 50.0
+        \note Specify the maximum outlet air temperature allowed for this unitary system
+        \note during heating operation. This value should be greater than the minimum outlet
+        \note air temperature during cooling operation.
+   A19, \field Dehumidification Control Type
+        \type choice
+        \key None
+        \key Multimode
+        \key CoolReheat
+        \default None
+        \note None = meet sensible load only.
+        \note Multimode = activate enhanced dehumidification mode
+        \note as needed and meet sensible load. Valid only with
+        \note Coil:Cooling:DX:TwoStageWithHumidityControlMode.
+        \note CoolReheat = cool beyond the Dry-Bulb temperature setpoint
+        \note as required to meet the humidity setpoint. Valid only with
+        \note Coil:Cooling:DX:TwoStageWithHumidityControlMode.
+        \note For all dehumidification controls, the max humidity setpoint
+        \note on this unitary system's air outlet node is used.
+        \note This must be set using ZoneControl:Humidistat and
+        \note SetpointManager:SingleZone:Humidity:Maximum,
+        \note SetpointManager:MultiZone:Humidity:Maximum or
+        \note SetpointManager:MultiZone:MaximumHumidity:Average objects.
+   A20, \field Plenum or Mixer Inlet Node Name
+        \type node
+        \note Enter the name of the bypass duct node connected to a plenum or mixer.
+        \note This field is required when this HVAC System is connected to a plenum or mixer.
+        \note This is a different node name than that entered in the Bypass Duct Splitter Node Name field.
+   N9 ; \field Minimum Runtime Before Operating Mode Change
+        \type real
+        \units hr
+        \minimum 0.0
+        \default 0.25
+        \note This is the minimum amount of time the unit operates in cooling or heating mode before changing modes.
+
+AirLoopHVAC:UnitaryHeatPump:AirToAir:MultiSpeed,
+        \memo Unitary system, heating and cooling, multi-speed with constant volume supply fan
+        \memo (continuous or cycling), direct expansion (DX) cooling coil, heating coil
+        \memo (DX air-to-air heat pump, gas, electric, hot water, or steam), and supplemental
+        \memo heating coil (gas, electric, hot water, or steam).
+        \min-fields 31
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3,  \field Air Inlet Node Name
+        \required-field
+        \type node
+   A4,  \field Air Outlet Node Name
+        \required-field
+        \type node
+   A5,  \field Controlling Zone or Thermostat Location
+        \required-field
+        \type object-list
+        \object-list ZoneNames
+   A6,  \field Supply Air Fan Object Type
+        \required-field
+        \type choice
+        \key Fan:OnOff
+        \key Fan:ConstantVolume
+        \note Select the type of supply air fan used in this unitary system.
+   A7,  \field Supply Air Fan Name
+        \required-field
+        \type object-list
+        \object-list FansCVandOnOff
+        \note Enter the name of the supply air fan used in this unitary system.
+   A8,  \field Supply Air Fan Placement
+        \required-field
+        \type choice
+        \key BlowThrough
+        \key DrawThrough
+        \note Select supply air fan placement as either BlowThrough or DrawThrough.
+        \note BlowThrough means the supply air fan is located before the cooling
+        \note coil. DrawThrough means the supply air fan is located after the heating coil
+        \note but before the optional supplemental heating coil.
+   A9 , \field Supply Air Fan Operating Mode Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Enter the name of a schedule to control the supply air fan. Schedule values of zero
+        \note mean that the supply air fan will cycle off if there is no cooling or heating load
+        \note in the control zone. Non-zero schedule values mean that the supply air fan
+        \note will operate continuously even if there is no cooling or heating load
+        \note in the control zone. If this field is left blank, the supply air fan will
+        \note operate continuously for the entire simulation period.
+   A10, \field Heating Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Heating:DX:MultiSpeed
+        \key Coil:Heating:Electric:MultiStage
+        \key Coil:Heating:Gas:MultiStage
+        \key Coil:Heating:Water
+        \key Coil:Heating:Steam
+        \note Multi Speed DX, Electric, Gas, and Single speed Water and Steam coils
+   A11, \field Heating Coil Name
+        \required-field
+        \type object-list
+        \object-list HeatingCoilsDXMultiSpeed
+        \object-list HeatingCoilsElectricMultiStage
+        \object-list HeatingCoilsGasMultiStage
+   N1 , \field Minimum Outdoor Dry-Bulb Temperature for Compressor Operation
+        \type real
+        \default -8.0
+        \units C
+        \note Needs to match the corresponding minimum outdoor temperature defined
+        \note in the DX heating coil object.
+   A12, \field Cooling Coil Object Type
+        \required-field
+        \type choice
+        \key Coil:Cooling:DX:MultiSpeed
+        \note Only works with Coil:Cooling:DX:MultiSpeed
+   A13, \field Cooling Coil Name
+        \required-field
+        \note Needs to match in the DX Cooling Coil object
+        \type object-list
+        \object-list CoolingCoilsDXMultiSpeed
+   A14, \field Supplemental Heating Coil Object Type
+        \type choice
+        \key Coil:Heating:Fuel
+        \key Coil:Heating:Electric
+        \key Coil:Heating:Water
+        \key Coil:Heating:Steam
+        \note works with gas, electric, hot water and steam heating coils
+   A15, \field Supplemental Heating Coil Name
+        \type object-list
+        \object-list HeatingCoilName
+        \note Needs to match in the supplemental heating coil object
+   N2 , \field Maximum Supply Air Temperature from Supplemental Heater
+        \type real
+        \units C
+        \autosizable
+   N3 , \field Maximum Outdoor Dry-Bulb Temperature for Supplemental Heater Operation
+        \type real
+        \maximum 21.0
+        \default 21.0
+        \units C
+   N4 , \field Auxiliary On-Cycle Electric Power
+        \type real
+        \units W
+        \minimum 0
+        \default 0
+   N5 , \field Auxiliary Off-Cycle Electric Power
+        \type real
+        \units W
+        \minimum 0
+        \default 0
+   N6 , \field Design Heat Recovery Water Flow Rate
+        \type real
+        \note If non-zero, then the heat recovery inlet and outlet node names must be entered.
+        \note Used for heat recovery to an EnergyPlus plant loop.
+        \units m3/s
+        \ip-units gal/min
+        \minimum 0.0
+        \default 0.0
+   N7,  \field Maximum Temperature for Heat Recovery
+        \units C
+        \maximum 100.0
+        \minimum 0.0
+        \default 80.0
+   A16, \field Heat Recovery Water Inlet Node Name
+        \type node
+   A17, \field Heat Recovery Water Outlet Node Name
+        \type node
+   N8 , \field No Load Supply Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum 0
+        \autosizable
+        \note Only used when the supply air fan operating mode is continuous (see field
+        \note Supply Air Fan Operating Mode Schedule Name). This air flow rate
+        \note is used when no heating or cooling is required and the coils are off.
+        \note If this field is left blank or zero, the supply air flow rate from the
+        \note previous on cycle (either cooling or heating) is used.
+   N9, \field Number of Speeds for Heating
+        \required-field
+        \type integer
+        \minimum 1
+        \maximum 4
+        \note Enter the number of the following sets of data for air flow rates.
+        \note If Heating Coil Object Type is Coil:Heating:Water or Coil:Heating:Steam,
+        \note this field should be 1.
+   N10, \field Number of Speeds for Cooling
+        \required-field
+        \type integer
+        \minimum 2
+        \maximum 4
+        \note Enter the number of the following sets of data for air flow rates.
+   N11, \field Heating Speed 1 Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \autosizable
+        \minimum> 0
+        \note Enter the operating supply air flow rate during heating
+        \note operation or specify autosize.
+   N12, \field Heating Speed 2 Supply Air Flow Rate
+        \type real
+        \units m3/s
+        \autosizable
+        \minimum> 0
+        \note Enter the operating supply air flow rate during heating
+        \note operation or specify autosize.
+   N13, \field Heating Speed 3 Supply Air Flow Rate
+        \type real
+        \units m3/s
+        \autosizable
+        \minimum> 0
+        \note Enter the operating supply air flow rate during heating
+        \note operation or specify autosize.
+   N14, \field Heating Speed 4 Supply Air Flow Rate
+        \type real
+        \units m3/s
+        \autosizable
+        \minimum> 0
+        \note Enter the operating supply air flow rate during heating
+        \note operation or specify autosize.
+   N15, \field Cooling Speed 1 Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \autosizable
+        \minimum> 0
+        \note Enter the operating supply air flow rate during cooling
+        \note operation or specify autosize.
+   N16, \field Cooling Speed 2 Supply Air Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \autosizable
+        \minimum> 0
+        \note Enter the operating supply air flow rate during cooling
+        \note operation or specify autosize.
+   N17, \field Cooling Speed 3 Supply Air Flow Rate
+        \type real
+        \units m3/s
+        \autosizable
+        \minimum> 0
+        \note Enter the operating supply air flow rate during cooling
+        \note operation or specify autosize.
+   N18; \field Cooling Speed 4 Supply Air Flow Rate
+        \type real
+        \units m3/s
+        \autosizable
+        \minimum> 0
+        \note Enter the operating supply air flow rate during cooling
+        \note operation or specify autosize.
+
+\group Variable Refrigerant Flow Equipment
+
+AirConditioner:VariableRefrigerantFlow,
+       \memo Variable refrigerant flow (VRF) air-to-air heat pump condensing unit (includes one
+       \memo or more electric compressors and outdoor fan). Serves one or more VRF zone terminal
+       \memo units. See ZoneHVAC:TerminalUnit:VariableRefrigerantFlow and ZoneTerminalUnitList.
+       \min-fields 37
+  A1 , \field Heat Pump Name
+       \required-field
+       \type alpha
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \note Enter a unique name for this variable refrigerant flow heat pump.
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+       \note Enter the name of a schedule that defines the availability of the unit.
+       \note Schedule values of 0 denote the unit is off. All other values denote the unit is available.
+       \note If this field is left blank, the unit is available the entire simulation.
+  N1 , \field Gross Rated Total Cooling Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note Enter the total cooling capacity in watts at rated conditions or set to autosize.
+       \note Total cooling capacity not accounting for the effect of supply air fan heat
+  N2 , \field Gross Rated Cooling COP
+       \type real
+       \units W/W
+       \minimum> 0.0
+       \default 3.3
+       \note Enter the coefficient of performance at rated conditions or leave blank to use default.
+       \note COP includes compressor and condenser fan electrical energy input
+       \note COP does not include supply fan heat or supply fan electric power input
+  N3 , \field Minimum Outdoor Temperature in Cooling Mode
+       \type real
+       \units C
+       \default -6.0
+       \note Enter the minimum outdoor temperature allowed for cooling operation.
+       \note Cooling is disabled below this temperature.
+  N4 , \field Maximum Outdoor Temperature in Cooling Mode
+       \type real
+       \units C
+       \default 43.0
+       \note Enter the maximum outdoor temperature allowed for cooling operation.
+       \note Cooling is disabled above this temperature.
+  A3 , \field Cooling Capacity Ratio Modifier Function of Low Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Enter a curve name that represents full load cooling capacity ratio as a
+       \note function of outdoor dry-bulb temperature and indoor wet-bulb temperature.
+       \note Up to two curves are allowed if the performance cannot be represented by a single curve.
+       \note The following two fields are used if two curves are required.
+  A4 , \field Cooling Capacity Ratio Boundary Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note This curve object is used to allow separate low and high cooling capacity ratio
+       \note performance curves. This curve represents a line passing through the points where
+       \note performance changes. The curve calculates outdoor dry-bulb temperature given weighted
+       \note average indoor wet-bulb temperature. If a single performance curve is used,
+       \note leave this field blank.
+  A5 , \field Cooling Capacity Ratio Modifier Function of High Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note This curve object is used to describe the high outdoor temperature
+       \note performance curve used to describe cooling capacity ratio.
+       \note This curve is used when a single performance curve does not accurately describe
+       \note cooling capacity ratio as a function of temperature.
+       \note If a single performance curve is used, leave this field blank.
+  A6 , \field Cooling Energy Input Ratio Modifier Function of Low Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Enter a curve name that represents cooling energy ratio as a function of
+       \note outdoor dry-bulb temperature and indoor wet-bulb temperature
+  A7 , \field Cooling Energy Input Ratio Boundary Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note This curve object is used to allow separate low and high cooling energy input ratio
+       \note performance curves. This curve represents a line passing through the points where
+       \note performance changes. The curve calculates outdoor dry-bulb temperature given weighted
+       \note average indoor wet-bulb temperature. If a single performance curve is used,
+       \note leave this field blank.
+  A8 , \field Cooling Energy Input Ratio Modifier Function of High Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note This curve object is used to describe the high outdoor temperature
+       \note performance curve used to describe cooling energy ratio.
+       \note This curve is used when a single performance curve does not accurately describe
+       \note cooling energy ratio as a function of temperature
+  A9 , \field Cooling Energy Input Ratio Modifier Function of Low Part-Load Ratio Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Enter a curve name that represents cooling energy ratio as a function of
+       \note part-load ratio for part-load ratios less than or equal to 1.
+       \note If this field is left blank, the model assumes energy is proportional to
+       \note part-load ratio.
+  A10, \field Cooling Energy Input Ratio Modifier Function of High Part-Load Ratio Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Enter a curve name that represents cooling energy ratio as a function of
+       \note part-load ratio for part-load ratios greater than 1. Part-load ratios
+       \note can exceed 1 in variable speed compression systems.
+       \note If this field is left blank, the model assumes energy is proportional to
+       \note part-load ratio.
+  A11, \field Cooling Combination Ratio Correction Factor Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note This curve defines how rated capacity changes when the total indoor terminal unit cooling
+       \note capacity is greater than the Gross Rated Total Cooling Capacity defined in this object.
+       \note If this field is left blank, the model assumes total indoor terminal unit cooling
+       \note capacity is equal to the Gross Rated Total Cooling Capacity defined above.
+  A12, \field Cooling Part-Load Fraction Correlation Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note This curve defines the cycling losses when the heat pump compressor cycles on and off
+       \note below the Minimum Heat Pump Part-Load Ratio specified in the field below.
+  N5 , \field Gross Rated Heating Capacity
+       \type real
+       \units W
+       \autosizable
+       \note Enter the heating capacity in watts at rated conditions or set to autosize.
+       \note Heating capacity not accounting for the effect of supply air fan heat
+  N6 , \field Rated Heating Capacity Sizing Ratio
+       \type real
+       \units W/W
+       \minimum 1.0
+       \default 1.0
+       \note If the Gross Rated Heating Capacity is autosized, the heating capacity is sized
+       \note to be equal to the cooling capacity multiplied by this sizing ratio. The zone
+       \note terminal unit heating coils are also sized using this ratio unless the sizing
+       \note ratio input in the ZoneHVAC:TerminalUnit:VariableRefrigerantFlow object is entered.
+  N7 , \field Gross Rated Heating COP
+       \type real
+       \units W/W
+       \minimum> 0.0
+       \note COP includes compressor and condenser fan electrical energy input
+       \note COP does not include supply fan heat or supply fan electrical energy input
+       \default 3.4
+  N8 , \field Minimum Outdoor Temperature in Heating Mode
+       \type real
+       \units C
+       \default -20.0
+       \note Enter the minimum outdoor temperature allowed for heating operation.
+  N9 , \field Maximum Outdoor Temperature in Heating Mode
+       \type real
+       \units C
+       \default 16.0
+       \note Enter the maximum outdoor temperature allowed for heating operation.
+  A13, \field Heating Capacity Ratio Modifier Function of Low Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Enter a curve name that represents full load heating capacity ratio as a
+       \note function of outdoor wet-bulb temperature and indoor dry-bulb temperature.
+       \note Outdoor dry-bulb temperature may be used if wet-bulb temperature data is unavailable.
+       \note See Heating Performance Curve Outdoor Temperature Type input below to determine which
+       \note outdoor temperature type to use.
+       \note Up to two curves are allowed if the performance cannot be represented by a single curve.
+       \note The following two fields are used if two curves are required.
+  A14, \field Heating Capacity Ratio Boundary Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note This curve object is used to allow separate low and high heating capacity ratio
+       \note performance curves. This curve represents a line passing through the points where
+       \note performance changes. The curve calculates outdoor dry-bulb or wet-bulb temperature
+       \note given weighted average indoor dry-bulb temperature. See Heating Performance Curve
+       \note Outdoor Temperature Type input below to determine which outdoor temperature type to use.
+       \note If a single performance curve is used, leave this field blank.
+  A15, \field Heating Capacity Ratio Modifier Function of High Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note This curve object is used to describe the high outdoor temperature
+       \note performance curve used to describe heating capacity ratio.
+       \note This curve is used when a single performance curve does not accurately describe
+       \note heating capacity ratio as a function of temperature.
+       \note If a single performance curve is used, leave this field blank.
+  A16, \field Heating Energy Input Ratio Modifier Function of Low Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Enter a curve name that represents heating energy ratio as a function of
+       \note outdoor wet-bulb temperature and indoor dry-bulb temperature
+       \note Outdoor dry-bulb temperature may be used if wet-bulb temperature data is unavailable.
+       \note See Heating Performance Curve Outdoor Temperature Type input below to determine which
+       \note outdoor temperature type to use.
+  A17, \field Heating Energy Input Ratio Boundary Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note This curve object is used to allow separate low and high heating energy input ratio
+       \note performance curves. This curve represents a line passing through the points where
+       \note performance changes. The curve calculates outdoor dry-bulb or wet-bulb temperature
+       \note given weighted average indoor dry-bulb temperature. See Heating Performance Curve
+       \note Outdoor Temperature Type input below to determine which outdoor temperature type to use.
+       \note If a single performance curve is used, leave this field blank.
+  A18, \field Heating Energy Input Ratio Modifier Function of High Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note This curve object is used to allow separate performance curves for heating energy.
+       \note If a single performance curve is used, leave this field blank.
+  A19, \field Heating Performance Curve Outdoor Temperature Type
+       \type choice
+       \key DryBulbTemperature
+       \key WetBulbTemperature
+       \default WetBulbTemperature
+       \note Determines temperature type for heating capacity curves and heating energy curves.
+       \note This input determines whether the outdoor air dry-bulb or wet-bulb temperature
+       \note is used to evaluate these curves.
+  A20, \field Heating Energy Input Ratio Modifier Function of Low Part-Load Ratio Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note This curve represents the heating energy input ratio for part-load ratios less than 1.
+  A21, \field Heating Energy Input Ratio Modifier Function of High Part-Load Ratio Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note This curve represents the heating energy input ratio for part-load ratios greater than 1.
+  A22, \field Heating Combination Ratio Correction Factor Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note This curve defines how rated capacity changes when the total indoor terminal unit heating
+       \note capacity is greater than the Gross Rated Heating Capacity defined in this object.
+       \note If this field is left blank, the model assumes total indoor terminal unit heating
+       \note capacity is equal to the Gross Rated Heating Capacity defined above.
+  A23, \field Heating Part-Load Fraction Correlation Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note This curve defines the cycling losses when the heat pump compressor cycles on and off
+       \note below the Minimum Heat Pump Part-Load Ratio specified in the following field.
+  N10, \field Minimum Heat Pump Part-Load Ratio
+       \type real
+       \units dimensionless
+       \note Enter the minimum heat pump part-load ratio (PLR). When the cooling or heating PLR is
+       \note below this value, the heat pump compressor will cycle to meet the cooling or heating
+       \note demand.
+       \default 0.15
+  A24, \field Zone Name for Master Thermostat Location
+       \type object-list
+       \object-list ZoneNames
+       \note Enter the name of the zone where the master thermostat is located.
+  A25, \field Master Thermostat Priority Control Type
+       \type choice
+       \key LoadPriority
+       \key ZonePriority
+       \key ThermostatOffsetPriority
+       \key MasterThermostatPriority
+       \key Scheduled
+       \default MasterThermostatPriority
+       \note Choose a thermostat control logic scheme. If these control types fail to control zone
+       \note temperature within a reasonable limit, consider using multiple VRF systems.
+       \note This field is not used when all terminal units are set point controlled.
+  A26, \field Thermostat Priority Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note this field is required if Master Thermostat Priority Control Type is Scheduled.
+       \note Schedule values of 0 denote cooling, 1 for heating, and all other values disable the system.
+  A27, \field Zone Terminal Unit List Name
+       \required-field
+       \type object-list
+       \object-list ZoneTerminalUnitListNames
+       \note Enter the name of a ZoneTerminalUnitList. This list connects zone terminal units to this
+       \note heat pump.
+  A28, \field Heat Pump Waste Heat Recovery
+       \type choice
+       \key No
+       \key Yes
+       \default No
+       \note This field enables heat recovery operation within this VRF outdoor unit.
+  N11, \field Equivalent Piping Length used for Piping Correction Factor in Cooling Mode
+       \type real
+       \units m
+       \note Enter the equivalent length of the farthest terminal unit from the condenser
+  N12, \field Vertical Height used for Piping Correction Factor
+       \type real
+       \units m
+       \note Enter the height difference between the highest and lowest terminal unit
+  A29, \field Piping Correction Factor for Length in Cooling Mode Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note PCF = a0 + a1*L + a2*L^2 + a3*L^3 + a4*H
+       \note PCF = a0 + a1*L + a2*L^2 + a3*CR + a4*CR^2 + a5*(L)(CR)
+       \note where L = length and CR = combination ratio
+       \note specifies coefficients for a0, a1, a2, and a3 in the PCF equation
+  N13, \field Piping Correction Factor for Height in Cooling Mode Coefficient
+       \type real
+       \units 1/m
+       \default 0
+       \note PCF = a0 + a1*L + a2*L^2 + a3*L^3 + a4*H
+       \note PCF = a0 + a1*L + a2*L^2 + a3*CR + a4*CR^2 + a5*(L)(CR) + a6*H
+       \note where L = length, H = height, and CR = combination ratio
+       \note specifies coefficient a4 (or a6 for biquadratic) in the PCF equation
+  N14, \field Equivalent Piping Length used for Piping Correction Factor in Heating Mode
+       \type real
+       \units m
+       \note Enter the equivalent length of the farthest terminal unit from the condenser
+  A30, \field Piping Correction Factor for Length in Heating Mode Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note PCF = a0 + a1*L + a2*L^2 + a3*L^3 + a4*H
+       \note PCF = a0 + a1*L + a2*L^2 + a3*CR + a4*CR^2 + a5*(L)(CR) + a6*H
+       \note where L = length and CR = combination ratio
+       \note specifies coefficients for a0, a1, a2, and a3 (or a0-a5 for biquadratic) in the PCF equation
+  N15, \field Piping Correction Factor for Height in Heating Mode Coefficient
+       \type real
+       \units 1/m
+       \default 0
+       \note PCF = a0 + a1*L + a2*L^2 + a3*L^3 + a4*H
+       \note PCF = a0 + a1*L + a2*L^2 + a3*CR + a4*CR^2 + a5*(L)(CR) + a6*H
+       \note where L = length, H = height, and CR = combination ratio
+       \note specifies coefficient a4 (or a6 for biquadratic) in the PCF equation
+  N16, \field Crankcase Heater Power per Compressor
+       \type real
+       \units W
+       \default 33.0
+       \note Enter the value of the resistive heater located in the compressor(s). This heater
+       \note is used to warm the refrigerant and oil when the compressor is off.
+  N17, \field Number of Compressors
+       \type integer
+       \units dimensionless
+       \default 2
+       \note Enter the total number of compressor. This input is used only for crankcase
+       \note heater calculations.
+  N18, \field Ratio of Compressor Size to Total Compressor Capacity
+       \type real
+       \units W/W
+       \default 0.5
+       \note Enter the ratio of the first stage compressor to total compressor capacity.
+       \note All other compressors are assumed to be equally sized. This inputs is used
+       \note only for crankcase heater calculations.
+  N19, \field Maximum Outdoor Dry-Bulb Temperature for Crankcase Heater
+       \type real
+       \units C
+       \default 5.0
+       \note Enter the maximum outdoor temperature above which the crankcase heaters are disabled.
+  A31, \field Defrost Strategy
+       \type choice
+       \key ReverseCycle
+       \key Resistive
+       \default Resistive
+       \note Select a defrost strategy. Reverse cycle reverses the operating mode from heating to cooling
+       \note to melt frost formation on the condenser coil. The resistive strategy uses a resistive heater
+       \note to melt the frost.
+  A32, \field Defrost Control
+       \type choice
+       \key Timed
+       \key OnDemand
+       \default Timed
+       \note Choose a defrost control type. Either use a fixed Timed defrost period or select
+       \note OnDemand to defrost only when necessary.
+  A33, \field Defrost Energy Input Ratio Modifier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note A valid performance curve must be used if reversecycle defrost strategy is selected.
+  N20, \field Defrost Time Period Fraction
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \default 0.058333
+       \note Fraction of time in defrost mode.
+       \note Only applicable if timed defrost control is specified.
+  N21, \field Resistive Defrost Heater Capacity
+       \type real
+       \units W
+       \minimum 0.0
+       \default 0.0
+       \autosizable
+       \note Enter the size of the resistive defrost heating element.
+       \note Only applicable if resistive defrost strategy is specified
+       \ip-units W
+  N22, \field Maximum Outdoor Dry-bulb Temperature for Defrost Operation
+       \type real
+       \units C
+       \default 5.0
+       \note Enter the maximum outdoor temperature above which defrost operation is disabled.
+  A34, \field Condenser Type
+       \type choice
+       \key AirCooled
+       \key EvaporativelyCooled
+       \key WaterCooled
+       \default AirCooled
+       \note Select either an air-cooled, evaporatively-cooled or water-cooled condenser.
+  A35, \field Condenser Inlet Node Name
+       \type node
+       \note Choose an outside air node name or leave this field blank to use weather data.
+       \note If this field is blank, the Condenser Type is assumed to be AirCooled.
+       \note This input must be specified if Condenser Type = WaterCooled.
+  A36, \field Condenser Outlet Node Name
+       \type node
+       \note Enter a water outlet node name if Condenser Type = WaterCooled.
+       \note Leave this field blank if Condenser Type = Air or EvaporativelyCooled.
+  N23, \field Water Condenser Volume Flow Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \autosizable
+       \note Only used when Condenser Type = WaterCooled.
+  N24, \field Evaporative Condenser Effectiveness
+       \type real
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.9
+       \note Enter the effectiveness of the evaporatively cooled condenser.
+       \note This field is only used when the Condenser Type = EvaporativelyCooled.
+  N25, \field Evaporative Condenser Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Used to calculate evaporative condenser water use.
+       \note This field is only used when the Condenser Type = EvaporativelyCooled.
+  N26, \field Evaporative Condenser Pump Rated Power Consumption
+       \type real
+       \units W
+       \minimum 0.0
+       \default 0.0
+       \autosizable
+       \note Rated power consumed by the evaporative condenser's water pump.
+       \note This field is only used when the Condenser Type = EvaporativelyCooled.
+  A37, \field Supply Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+       \note A separate storage tank may be used to supply an evaporatively cooled condenser.
+  N27, \field Basin Heater Capacity
+       \type real
+       \units W/K
+       \minimum 0.0
+       \default 0.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled and for periods
+       \note when the basin heater is available (field Basin Heater Operating Schedule Name).
+       \note For this situation, the heater maintains the basin water temperature at the basin heater
+       \note setpoint temperature when the outdoor air temperature falls below the setpoint temperature.
+       \note The basin heater only operates when the DX coil is off.
+  N28, \field Basin Heater Setpoint Temperature
+       \type real
+       \units C
+       \minimum 2.0
+       \default 2.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Enter the outdoor dry-bulb temperature when the basin heater turns on.
+  A38, \field Basin Heater Operating Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+       \note air dry-bulb temperature is below the basin heater setpoint temperature.
+       \note If a schedule name is not entered, the basin heater is allowed to operate
+       \note throughout the entire simulation.
+  A39, \field Fuel Type
+       \type choice
+       \key Electricity
+       \key NaturalGas
+       \key Propane
+       \key Diesel
+       \key Gasoline
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key OtherFuel1
+       \key OtherFuel2
+       \default Electricity
+  N29, \field Minimum Outdoor Temperature in Heat Recovery Mode
+       \type real
+       \units C
+       \note The minimum outdoor temperature below which heat
+       \note recovery mode will not operate.
+  N30, \field Maximum Outdoor Temperature in Heat Recovery Mode
+       \type real
+       \units C
+       \note The maximum outdoor temperature above which heat
+       \note recovery mode will not operate.
+  A40, \field Heat Recovery Cooling Capacity Modifier Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Enter the name of a performance curve which represents
+       \note the change in cooling capacity when heat recovery is active
+       \note A default constant of 0.9 is used if this input is blank
+  N31, \field Initial Heat Recovery Cooling Capacity Fraction
+       \type real
+       \units W/W
+       \default 0.5
+       \note Enter the fractional capacity available at the start
+       \note of heat recovery mode. The capacity exponentially approaches
+       \note the steady-state value according to the inputs for
+       \note Heat Recovery Cooling Capacity Modifier and Heat Recovery
+       \note Cooling Capacity Time Constant
+  N32, \field Heat Recovery Cooling Capacity Time Constant
+       \type real
+       \units hr
+       \default 0.15
+       \note Enter the time constant used to model the transition
+       \note from cooling only mode to heat recovery mode
+  A41, \field Heat Recovery Cooling Energy Modifier Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Enter the name of a performance curve which represents
+       \note the change in cooling energy when heat recovery is active
+       \note A default constant of 1.1 is used if this input is blank
+  N33, \field Initial Heat Recovery Cooling Energy Fraction
+       \type real
+       \units W/W
+       \default 1.0
+       \note Enter the fractional electric consumption rate at the start
+       \note of heat recovery mode. The electric consumption rate exponentially
+       \note approaches the steady-state value according to the inputs for
+       \note Heat Recovery Cooling Energy Modifier and Heat Recovery
+       \note Cooling Energy Time Constant
+  N34, \field Heat Recovery Cooling Energy Time Constant
+       \type real
+       \units hr
+       \default 0
+       \note Enter the time constant used to model the transition
+       \note from cooling only mode to heat recovery mode
+  A42, \field Heat Recovery Heating Capacity Modifier Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Enter the name of a performance curve which represents
+       \note the change in heating capacity when heat recovery is active
+       \note A default constant of 1.1 is used if this input is blank
+  N35, \field Initial Heat Recovery Heating Capacity Fraction
+       \type real
+       \units W/W
+       \default 1
+       \note Enter the fractional capacity available at the start
+       \note of heat recovery mode. The capacity exponentially approaches
+       \note the steady-state value according to the inputs for
+       \note Heat Recovery Heating Capacity Modifier and Heat Recovery
+       \note Heating Capacity Time Constant
+  N36, \field Heat Recovery Heating Capacity Time Constant
+       \type real
+       \units hr
+       \default 0.15
+       \note Enter the time constant used to model the transition
+       \note from cooling only mode to heat recovery mode
+  A43, \field Heat Recovery Heating Energy Modifier Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note Enter the name of a performance curve which represents
+       \note the change in heating electric consumption rate when heat recovery is active
+       \note A default constant of 1.1 is used if this input is blank
+  N37, \field Initial Heat Recovery Heating Energy Fraction
+       \type real
+       \units W/W
+       \default 1
+       \note Enter the fractional electric consumption rate at the start
+       \note of heat recovery mode. The electric consumption rate exponentially
+       \note approaches the steady-state value according to the inputs for
+       \note Heat Recovery Cooling Energy Modifier and Heat Recovery
+       \note Cooling Energy Time Constant
+  N38; \field Heat Recovery Heating Energy Time Constant
+       \type real
+       \units hr
+       \default 0
+       \note Enter the time constant used to model the transition
+       \note from cooling only mode to heat recovery mode
+
+AirConditioner:VariableRefrigerantFlow:FluidTemperatureControl,
+       \memo This is a key object in the new physics based VRF model applicable for Fluid
+       \memo Temperature Control
+       \memo It describes the Variable Refrigerant Flow system excluding the performance of indoor units
+       \memo Indoor units are modeled separately, see ZoneHVAC:TerminalUnit:VariableRefrigerantFlow
+       \extensible:3 - repeat last three fields, remembering to remove ; from "inner" fields.
+       \min-fields 41
+  A1 , \field Heat Pump Name
+       \required-field
+       \type alpha
+       \note Enter a unique name for this variable refrigerant flow heat pump
+  A2 , \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Enter the name of a schedule that defines the availability of the unit
+       \note Schedule values of 0 denote the unit is off. All other values denote the unit is available
+       \note If this field is left blank, the unit is available the entire simulation
+  A3 , \field Zone Terminal Unit List Name
+       \required-field
+       \type object-list
+       \object-list ZoneTerminalUnitListNames
+       \note Enter the name of a ZoneTerminalUnitList. This list connects zone terminal units to this
+       \note heat pump
+  A4 , \field Refrigerant Type
+       \type object-list
+       \object-list FluidNames
+       \default R410A
+  N1 , \field Rated Evaporative Capacity
+       \type real
+       \units W
+       \autosizable
+       \minimum> 0.0
+       \default 40000
+       \note Enter the total evaporative capacity in watts at rated conditions
+       \note This is the capacity corresponding to the max compressor speed at rated conditions
+       \note The actual evaporative capacity is obtained by multiplying the
+       \note rated capacity with the modification factor calculated by Evaporative
+       \note Capacity Multiplier Function of Temperature Curve
+  N2 , \field Rated Compressor Power Per Unit of Rated Evaporative Capacity
+       \type real
+       \units dimensionless
+       \minimum> 0.0
+       \default 0.35
+       \note Enter the rated compressor power per Watt of rated evaporative capacity [W/W]
+       \note Rated compressor power corresponds to the max compressor speed at rated conditions
+       \note The actual compressor power is obtained by multiplying the
+       \note rated power with the modification factor calculated by Compressor
+       \note Power Multiplier Function of Temperature Curve
+  N3 , \field Minimum Outdoor Air Temperature in Cooling Mode
+       \type real
+       \units C
+       \default -6.0
+       \note Enter the minimum outdoor temperature allowed for cooling operation
+       \note Cooling is disabled below this temperature
+  N4 , \field Maximum Outdoor Air Temperature in Cooling Mode
+       \type real
+       \units C
+       \default 43.0
+       \note Enter the maximum outdoor temperature allowed for cooling operation
+       \note Cooling is disabled above this temperature
+  N5 , \field Minimum Outdoor Air Temperature in Heating Mode
+       \type real
+       \units C
+       \default -20.0
+       \note Enter the minimum outdoor temperature allowed for heating operation
+       \note Heating is disabled below this temperature
+  N6 , \field Maximum Outdoor Air Temperature in Heating Mode
+       \type real
+       \units C
+       \default 16.0
+       \note Enter the maximum outdoor temperature allowed for heating operation
+       \note Heating is disabled below this temperature
+  N7 , \field Reference Outdoor Unit Superheating
+       \type real
+       \units deltaC
+       \default 3
+  N8 , \field Reference Outdoor Unit Subcooling
+       \type real
+       \units deltaC
+       \default 5
+  A5 , \field Refrigerant Temperature Control Algorithm for Indoor Unit
+       \type choice
+       \key ConstantTemp
+       \key VariableTemp
+       \default VariableTemp
+  N9 , \field Reference Evaporating Temperature for Indoor Unit
+       \note This field is used if Refrigerant Temperature Control Algorithm
+       \note is ConstantTemp
+       \note Evaporating temperature is the refrigerant temperature, not air temperature
+       \type real
+       \units C
+       \default 6.0
+  N10, \field Reference Condensing Temperature for Indoor Unit
+       \note This field is used if Refrigerant Temperature Control Algorithm
+       \note is ConstantTemp
+       \note Condensing temperature is the refrigerant temperature, not air temperature
+       \type real
+       \units C
+       \default 44.0
+  N11, \field Variable Evaporating Temperature Minimum for Indoor Unit
+       \note This field is used if Refrigerant Temperature Control Algorithm
+       \note is VariableTemp
+       \note Evaporating temperature is the refrigerant temperature, not air temperature
+       \type real
+       \units C
+       \default 4.0
+  N12, \field Variable Evaporating Temperature Maximum for Indoor Unit
+       \note This field is used if Refrigerant Temperature Control Algorithm
+       \note is VariableTemp
+       \note Evaporating temperature is the refrigerant temperature, not air temperature
+       \type real
+       \units C
+       \default 13.0
+  N13, \field Variable Condensing Temperature Minimum for Indoor Unit
+       \note This field is used if Refrigerant Temperature Control Algorithm
+       \note is VariableTemp
+       \note Condensing temperature is the refrigerant temperature, not air temperature
+       \type real
+       \units C
+       \default 42.0
+  N14, \field Variable Condensing Temperature Maximum for Indoor Unit
+       \note This field is used if Refrigerant Temperature Control Algorithm
+       \note is VariableTemp
+       \note Condensing temperature is the refrigerant temperature, not air temperature
+       \type real
+       \units C
+       \default 46.0
+  N15, \field Outdoor Unit Fan Power Per Unit of Rated Evaporative Capacity
+       \note Enter the outdoor unit fan power per Watt of rated evaporative capacity [W/W]
+       \units dimensionless
+       \minimum> 0.0
+       \default 4.25E-3
+       \type real
+  N16, \field Outdoor Unit Fan Flow Rate Per Unit of Rated Evaporative Capacity
+       \note This field is only used if the previous is set to autocalculate and performance input method is NominalCapacity
+       \units m3/s-W
+       \minimum> 0.0
+       \default 7.50E-5
+       \type real
+  A6 , \field Outdoor Unit Evaporating Temperature Function of Superheating Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+  A7 , \field Outdoor Unit Condensing Temperature Function of Subcooling Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+  N17, \field Diameter of Main Pipe Connecting Outdoor Unit to the First Branch Joint
+       \note used to calculate the piping loss
+       \type real
+       \units m
+       \minimum 0.0
+       \default 0.0762
+  N18, \field Length of Main Pipe Connecting Outdoor Unit to the First Branch Joint
+       \note used to calculate the heat loss of the main pipe
+       \type real
+       \units m
+       \minimum 0.0
+       \default 30.0
+  N19, \field Equivalent Length of Main Pipe Connecting Outdoor Unit to the First Branch Joint
+       \note used to calculate the refrigerant pressure drop of the main pipe
+       \type real
+       \units m
+       \minimum 0.0
+       \default 36.0
+  N20, \field Height Difference Between Outdoor Unit and Indoor Units
+       \note Difference between outdoor unit height and indoor unit height
+       \note Positive means outdoor unit is higher than indoor unit
+       \note Negative means outdoor unit is lower than indoor unit
+       \type real
+       \units m
+       \default 5.0
+  N21, \field Main Pipe Insulation Thickness
+       \type real
+       \units m
+       \minimum 0.0
+       \default 0.02
+  N22, \field Main Pipe Insulation Thermal Conductivity
+       \type real
+       \units W/m-K
+       \minimum 0.0
+       \default 0.032
+  N23, \field Crankcase Heater Power per Compressor
+       \type real
+       \units W
+       \default 33.0
+       \note Enter the value of the resistive heater located in the compressor(s). This heater
+       \note is used to warm the refrigerant and oil when the compressor is off
+  N24, \field Number of Compressors
+       \type integer
+       \units dimensionless
+       \default 2
+       \note Enter the total number of compressor. This input is used only for crankcase
+       \note heater calculations.
+  N25, \field Ratio of Compressor Size to Total Compressor Capacity
+       \type real
+       \units W/W
+       \default 0.5
+       \note Enter the ratio of the first stage compressor to total compressor capacity
+       \note All other compressors are assumed to be equally sized. This inputs is used
+       \note only for crankcase heater calculations
+  N26, \field Maximum Outdoor Dry-Bulb Temperature for Crankcase Heater
+       \type real
+       \units C
+       \default 5.0
+       \note Enter the maximum outdoor temperature above which the crankcase heaters are disabled
+  A8 , \field Defrost Strategy
+       \type choice
+       \key ReverseCycle
+       \key Resistive
+       \default Resistive
+       \note Select a defrost strategy.
+       \note Reverse cycle reverses the operating mode from heating to
+       \note cooling to melt frost formation on the condenser coil
+       \note The resistive strategy uses a resistive heater
+       \note to melt the frost.
+  A9 , \field Defrost Control
+       \type choice
+       \key Timed
+       \key OnDemand
+       \default Timed
+       \note Choose a defrost control type
+       \note Either use a fixed Timed defrost period or select
+       \note OnDemand to defrost only when necessary
+  A10, \field Defrost Energy Input Ratio Modifier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note A valid performance curve must be used if ReverseCycle defrost strategy is selected
+  N27, \field Defrost Time Period Fraction
+       \type real
+       \minimum 0.0
+       \default 0.058333
+       \note Fraction of time in defrost mode
+       \note Only applicable if timed defrost control is specified
+  N28, \field Resistive Defrost Heater Capacity
+       \type real
+       \minimum 0.0
+       \default 0.0
+       \autosizable
+       \units W
+       \note Enter the size of the resistive defrost heating element
+       \note Only applicable if resistive defrost strategy is specified
+       \ip-units W
+  N29, \field Maximum Outdoor Dry-bulb Temperature for Defrost Operation
+       \type real
+       \units C
+       \default 5.0
+       \note Enter the maximum outdoor temperature above which the defrost operation is disabled
+  N30, \field Compressor maximum delta Pressure
+       \type real
+       \units Pa
+       \default 4500000.0
+       \minimum 0.0
+       \maximum 50000000.0
+  N31, \field Number of Compressor Loading Index Entries
+       \type integer
+       \default 2
+       \minimum 2
+       \maximum 9
+       \note First index represents minimal capacity operation
+       \note Last index represents full capacity operation
+  N32, \field Compressor Speed at Loading Index 1
+       \required-field
+       \type real
+       \begin-extensible
+       \note Minimum compressor speed
+       \units rev/min
+       \minimum> 0
+  A11, \field Loading Index 1 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+  A12, \field Loading Index 1 Compressor Power Multiplier Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+  N33, \field Compressor Speed at Loading Index 2
+       \required-field
+       \type real
+       \units rev/min
+       \minimum> 0
+  A13, \field Loading Index 2 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+  A14, \field Loading Index 2 Compressor Power Multiplier Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+  N34, \field Compressor Speed at Loading Index 3
+       \type real
+       \units rev/min
+       \minimum> 0
+  A15, \field Loading Index 3 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  A16, \field Loading Index 3 Compressor Power Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  N35, \field Compressor Speed at Loading Index 4
+       \type real
+       \units rev/min
+       \minimum> 0
+  A17, \field Loading Index 4 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  A18, \field Loading Index 4 Compressor Power Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  N36, \field Compressor Speed at Loading Index 5
+       \type real
+       \units rev/min
+       \minimum> 0
+  A19, \field Loading Index 5 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  A20, \field Loading Index 5 Compressor Power Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  N37, \field Compressor Speed at Loading Index 6
+       \type real
+       \units rev/min
+       \minimum> 0
+  A21, \field Loading Index 6 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  A22, \field Loading Index 6 Compressor Power Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  N38, \field Compressor Speed at Loading Index 7
+       \type real
+       \units rev/min
+       \minimum> 0
+  A23, \field Loading Index 7 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  A24, \field Loading Index 7 list
+       \object-list BivariateFunctions
+  N39, \field Compressor Speed at Loading Index 8
+       \type real
+       \units rev/min
+       \minimum> 0
+  A25, \field Loading Index 8 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  A26, \field Loading Index 8 Compressor Power Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  N40, \field Compressor Speed at Loading Index 9
+       \type real
+       \units rev/min
+       \minimum> 0
+  A27, \field Loading Index 9 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  A28; \field Loading Index 9 Compressor Power Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+
+AirConditioner:VariableRefrigerantFlow:FluidTemperatureControl:HR,
+       \memo This is a key object in the new physics based VRF Heat Recovery (HR) model applicable for Fluid
+       \memo Temperature Control. It describes the VRF HR system excluding the performance of indoor units.
+       \memo Indoor units are modeled separately in the ZoneHVAC:TerminalUnit:VariableRefrigerantFlow object
+       \extensible:3 repeat last three fields (changing numbering, please), remembering to remove ";" from "inner" fields.
+       \min-fields 58
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note Enter a unique name for this variable refrigerant flow heat pump
+  A2 , \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Enter the name of a schedule that defines the availability of the unit
+       \note Schedule values of 0 denote the unit is off. All other values denote the unit is available
+       \note If this field is left blank, the unit is available the entire simulation
+  A3 , \field Zone Terminal Unit List Name
+       \required-field
+       \type object-list
+       \object-list ZoneTerminalUnitListNames
+       \note Enter the name of a ZoneTerminalUnitList. This list connects zone terminal units to this
+       \note heat pump
+  A4 , \field Refrigerant Type
+       \type object-list
+       \object-list FluidNames
+       \default R410A
+  N1 , \field Rated Evaporative Capacity
+       \type real
+       \units W
+       \autosizable
+       \minimum> 0.0
+       \default 40000
+       \note Enter the total evaporative capacity in watts at rated conditions
+       \note This is the capacity corresponding to the max compressor speed at rated conditions
+       \note The actual evaporative capacity is obtained by multiplying the
+       \note rated capacity with the modification factor calculated by Evaporative
+       \note Capacity Multiplier Function of Temperature Curve
+  N2 , \field Rated Compressor Power Per Unit of Rated Evaporative Capacity
+       \type real
+       \units dimensionless
+       \minimum> 0.0
+       \default 0.35
+       \note Enter the rated compressor power per Watt of rated evaporative capacity [W/W]
+       \note Rated compressor power corresponds to the max compressor speed at rated conditions
+       \note The actual compressor power is obtained by multiplying the
+       \note rated power with the modification factor calculated by Compressor
+       \note Power Multiplier Function of Temperature Curve
+  N3 , \field Minimum Outdoor Air Temperature in Cooling Only Mode
+       \type real
+       \units C
+       \default -6.0
+       \note Enter the minimum outdoor temperature allowed for cooling operation
+       \note Cooling is disabled below this temperature
+  N4 , \field Maximum Outdoor Air Temperature in Cooling Only Mode
+       \type real
+       \units C
+       \default 43.0
+       \note Enter the maximum outdoor temperature allowed for cooling operation
+       \note Cooling is disabled above this temperature
+  N5 , \field Minimum Outdoor Air Temperature in Heating Only Mode
+       \type real
+       \units C
+       \default -20.0
+       \note Enter the minimum outdoor temperature allowed for heating operation
+       \note Heating is disabled below this temperature
+  N6 , \field Maximum Outdoor Air Temperature in Heating Only Mode
+       \type real
+       \units C
+       \default 16.0
+       \note Enter the maximum outdoor temperature allowed for heating operation
+       \note Heating is disabled below this temperature
+  N7 , \field Minimum Outdoor Temperature in Heat Recovery Mode
+       \type real
+       \units C
+       \default -20.0
+       \note The minimum outdoor temperature below which heat
+       \note recovery mode will not operate.
+  N8 , \field Maximum Outdoor Temperature in Heat Recovery Mode
+       \type real
+       \units C
+       \default 43.0
+       \note The maximum outdoor temperature above which heat
+       \note recovery mode will not operate.
+  A5 , \field Refrigerant Temperature Control Algorithm for Indoor Unit
+       \type choice
+       \key ConstantTemp
+       \key VariableTemp
+       \default VariableTemp
+  N9 , \field Reference Evaporating Temperature for Indoor Unit
+       \note This field is used if Refrigerant Temperature Control Algorithm
+       \note is ConstantTemp
+       \note Evaporating temperature is the refrigerant temperature, not air temperature
+       \type real
+       \units C
+       \default 6.0
+  N10, \field Reference Condensing Temperature for Indoor Unit
+       \note This field is used if Refrigerant Temperature Control Algorithm
+       \note is ConstantTemp
+       \note Condensing temperature is the refrigerant temperature, not air temperature
+       \type real
+       \units C
+       \default 44.0
+  N11, \field Variable Evaporating Temperature Minimum for Indoor Unit
+       \note This field is used if Refrigerant Temperature Control Algorithm
+       \note is VariableTemp
+       \note Evaporating temperature is the refrigerant temperature, not air temperature
+       \type real
+       \units C
+       \default 4.0
+  N12, \field Variable Evaporating Temperature Maximum for Indoor Unit
+       \note This field is used if Refrigerant Temperature Control Algorithm
+       \note is VariableTemp
+       \note Evaporating temperature is the refrigerant temperature, not air temperature
+       \type real
+       \units C
+       \default 13.0
+  N13, \field Variable Condensing Temperature Minimum for Indoor Unit
+       \note This field is used if Refrigerant Temperature Control Algorithm
+       \note is VariableTemp
+       \note Condensing temperature is the refrigerant temperature, not air temperature
+       \type real
+       \units C
+       \default 42.0
+  N14, \field Variable Condensing Temperature Maximum for Indoor Unit
+       \note This field is used if Refrigerant Temperature Control Algorithm
+       \note is VariableTemp
+       \note Condensing temperature is the refrigerant temperature, not air temperature
+       \type real
+       \units C
+       \default 46.0
+  N15, \field Outdoor Unit Evaporator Reference Superheating
+       \type real
+       \units deltaC
+       \default 3
+  N16, \field Outdoor Unit Condenser Reference Subcooling
+       \type real
+       \units deltaC
+       \default 5
+  N17, \field Outdoor Unit Evaporator Rated Bypass Factor
+       \type real
+       \units dimensionless
+       \minimum> 0
+       \default 0.4
+  N18, \field Outdoor Unit Condenser Rated Bypass Factor
+       \type real
+       \units dimensionless
+       \minimum> 0
+       \default 0.2
+  N19, \field Difference between Outdoor Unit Evaporating Temperature and Outdoor Air Temperature in Heat Recovery Mode
+       \type real
+       \units deltaC
+       \default 5
+  N20, \field Outdoor Unit Heat Exchanger Capacity Ratio
+       \note Enter the rated capacity ratio between the main and supplementary outdoor unit heat exchangers [W/W]
+       \type real
+       \units dimensionless
+       \minimum> 0
+       \default 0.3
+  N21, \field Outdoor Unit Fan Power Per Unit of Rated Evaporative Capacity
+       \note Enter the outdoor unit fan power per Watt of rated evaporative capacity [W/W]
+       \units dimensionless
+       \minimum> 0.0
+       \default 4.25E-3
+       \type real
+  N22, \field Outdoor Unit Fan Flow Rate Per Unit of Rated Evaporative Capacity
+       \note Enter the outdoor unit fan flow rate per Watt of rated evaporative capacity [W/W]
+       \units m3/s-W
+       \minimum> 0.0
+       \default 7.50E-5
+       \type real
+  A6 , \field Outdoor Unit Evaporating Temperature Function of Superheating Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+  A7 , \field Outdoor Unit Condensing Temperature Function of Subcooling Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+  N23, \field Diameter of Main Pipe for Suction Gas
+       \note used to calculate the piping loss
+       \type real
+       \units m
+       \minimum 0.0
+       \default 0.0762
+  N24, \field Diameter of Main Pipe for Discharge Gas
+       \note used to calculate the piping loss
+       \type real
+       \units m
+       \minimum 0.0
+       \default 0.0762
+  N25, \field Length of Main Pipe Connecting Outdoor Unit to the First Branch Joint
+       \note used to calculate the heat loss of the main pipe
+       \type real
+       \units m
+       \minimum 0.0
+       \default 30.0
+  N26, \field Equivalent Length of Main Pipe Connecting Outdoor Unit to the First Branch Joint
+       \note used to calculate the refrigerant pressure drop of the main pipe
+       \type real
+       \units m
+       \minimum 0.0
+       \default 36.0
+  N27, \field Height Difference Between Outdoor Unit and Indoor Units
+       \note Difference between outdoor unit height and indoor unit height
+       \note Positive means outdoor unit is higher than indoor unit
+       \note Negative means outdoor unit is lower than indoor unit
+       \type real
+       \units m
+       \default 5.0
+  N28, \field Main Pipe Insulation Thickness
+       \type real
+       \units m
+       \minimum 0.0
+       \default 0.02
+  N29, \field Main Pipe Insulation Thermal Conductivity
+       \type real
+       \units W/m-K
+       \minimum 0.0
+       \default 0.032
+  N30, \field Crankcase Heater Power per Compressor
+       \type real
+       \units W
+       \default 33.0
+       \note Enter the value of the resistive heater located in the compressor(s). This heater
+       \note is used to warm the refrigerant and oil when the compressor is off
+  N31, \field Number of Compressors
+       \type integer
+       \units dimensionless
+       \default 2
+       \note Enter the total number of compressor. This input is used only for crankcase
+       \note heater calculations.
+  N32, \field Ratio of Compressor Size to Total Compressor Capacity
+       \type real
+       \units W/W
+       \default 0.5
+       \note Enter the ratio of the first stage compressor to total compressor capacity
+       \note All other compressors are assumed to be equally sized. This inputs is used
+       \note only for crankcase heater calculations
+  N33, \field Maximum Outdoor Dry-Bulb Temperature for Crankcase Heater
+       \type real
+       \units C
+       \default 5.0
+       \note Enter the maximum outdoor temperature above which the crankcase heaters are disabled
+  A8, \field Defrost Strategy
+       \type choice
+       \key ReverseCycle
+       \key Resistive
+       \default Resistive
+       \note Select a defrost strategy.
+       \note Reverse cycle reverses the operating mode from heating to
+       \note cooling to melt frost formation on the condenser coil
+       \note The resistive strategy uses a resistive heater
+       \note to melt the frost.
+  A9, \field Defrost Control
+       \type choice
+       \key Timed
+       \key OnDemand
+       \default Timed
+       \note Choose a defrost control type
+       \note Either use a fixed Timed defrost period or select
+       \note OnDemand to defrost only when necessary
+  A10, \field Defrost Energy Input Ratio Modifier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+       \note A valid performance curve must be used if ReverseCycle defrost strategy is selected
+  N34, \field Defrost Time Period Fraction
+       \type real
+       \minimum 0.0
+       \default 0.058333
+       \note Fraction of time in defrost mode
+       \note Only applicable if timed defrost control is specified
+  N35, \field Resistive Defrost Heater Capacity
+       \type real
+       \minimum 0.0
+       \default 0.0
+       \autosizable
+       \units W
+       \note Enter the size of the resistive defrost heating element
+       \note Only applicable if resistive defrost strategy is specified
+       \ip-units W
+  N36, \field Maximum Outdoor Dry-bulb Temperature for Defrost Operation
+       \type real
+       \units C
+       \default 5.0
+       \note Enter the maximum outdoor temperature above which the defrost operation is disabled
+  N37, \field Initial Heat Recovery Cooling Capacity Fraction
+       \type real
+       \units W/W
+       \default 1
+       \note This is used to describe the transition from Cooling Only mode to Heat Recovery mode
+       \note Enter the fractional capacity available at the start
+       \note of heat recovery mode. The capacity exponentially approaches
+       \note the steady-state value according to the inputs for
+       \note Heat Recovery Cooling Capacity Modifier and Heat Recovery
+       \note Cooling Capacity Time Constant
+  N38, \field Heat Recovery Cooling Capacity Time Constant
+       \type real
+       \units hr
+       \default 0
+       \note This is used to describe the transition from Cooling Only mode to Heat Recovery mode
+       \note Enter the time constant used to model the transition
+       \note from cooling only mode to heat recovery mode
+  N39, \field Initial Heat Recovery Cooling Energy Fraction
+       \type real
+       \units W/W
+       \default 1
+       \note This is used to describe the transition from Cooling Only mode to Heat Recovery mode
+       \note Enter the fractional electric consumption rate at the start
+       \note of heat recovery mode. The electric consumption rate exponentially
+       \note approaches the steady-state value according to the inputs for
+       \note Heat Recovery Cooling Energy Modifier and Heat Recovery
+       \note Cooling Energy Time Constant
+  N40, \field Heat Recovery Cooling Energy Time Constant
+       \type real
+       \units hr
+       \default 0
+       \note This is used to describe the transition from Cooling Only mode to Heat Recovery mode
+       \note Enter the time constant used to model the transition
+       \note from cooling only mode to heat recovery mode
+  N41, \field Initial Heat Recovery Heating Capacity Fraction
+       \type real
+       \units W/W
+       \default 1
+       \note This is used to describe the transition from Heating Only mode to Heat Recovery mode
+       \note Enter the fractional capacity available at the start
+       \note of heat recovery mode. The capacity exponentially approaches
+       \note the steady-state value according to the inputs for
+       \note Heat Recovery Heating Capacity Modifier and Heat Recovery
+       \note Heating Capacity Time Constant
+  N42, \field Heat Recovery Heating Capacity Time Constant
+       \type real
+       \units hr
+       \default 0
+       \note This is used to describe the transition from Heating Only mode to Heat Recovery mode
+       \note Enter the time constant used to model the transition
+       \note from cooling only mode to heat recovery mode
+  N43, \field Initial Heat Recovery Heating Energy Fraction
+       \type real
+       \units W/W
+       \default 1
+       \note This is used to describe the transition from Heating Only mode to Heat Recovery mode
+       \note Enter the fractional electric consumption rate at the start
+       \note of heat recovery mode. The electric consumption rate exponentially
+       \note approaches the steady-state value according to the inputs for
+       \note Heat Recovery Cooling Energy Modifier and Heat Recovery
+       \note Cooling Energy Time Constant
+  N44, \field Heat Recovery Heating Energy Time Constant
+       \type real
+       \units hr
+       \default 0
+       \note This is used to describe the transition from Heating Only mode to Heat Recovery mode
+       \note Enter the time constant used to model the transition
+       \note from cooling only mode to heat recovery mode
+  N45, \field Compressor maximum delta Pressure
+       \type real
+       \units Pa
+       \default 4500000.0
+       \minimum 0.0
+       \maximum 50000000.0
+  N46, \field Compressor Inverter Efficiency
+       \type real
+       \units dimensionless
+       \minimum> 0
+       \maximum 1.0
+       \default 0.95
+       \note Efficiency of the compressor inverter
+  N47, \field Compressor Evaporative Capacity Correction Factor
+       \type real
+       \units dimensionless
+       \minimum> 0
+       \default 1.0
+       \note Describe the evaporative capacity difference because of system configuration
+       \note difference between test bed and real system.
+  N48, \field Number of Compressor Loading Index Entries
+       \type integer
+       \default 2
+       \minimum 2
+       \note Load index describe the compressor operational state,
+       \note either a single compressor or multiple compressors, at different load levels.
+       \note First index represents minimal capacity operation
+       \note Last index represents full capacity operation
+  N49, \field Compressor Speed at Loading Index 1
+       \required-field
+       \type real
+       \note Minimum compressor speed
+       \begin-extensible
+       \units rev/min
+       \minimum> 0
+  A11, \field Loading Index 1 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+  A12, \field Loading Index 1 Compressor Power Multiplier Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+  N50, \field Compressor Speed at Loading Index 2
+       \required-field
+       \type real
+       \units rev/min
+       \minimum> 0
+  A13, \field Loading Index 2 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+  A14, \field Loading Index 2 Compressor Power Multiplier Function of Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+  N51, \field Compressor Speed at Loading Index 3
+       \type real
+       \units rev/min
+       \minimum> 0
+  A15, \field Loading Index 3 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  A16, \field Loading Index 3 Compressor Power Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  N52, \field Compressor Speed at Loading Index 4
+       \type real
+       \units rev/min
+       \minimum> 0
+  A17, \field Loading Index 4 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  A18, \field Loading Index 4 Compressor Power Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  N53, \field Compressor Speed at Loading Index 5
+       \type real
+       \units rev/min
+       \minimum> 0
+  A19, \field Loading Index 5 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  A20, \field Loading Index 5 Compressor Power Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  N54, \field Compressor Speed at Loading Index 6
+       \type real
+       \units rev/min
+       \minimum> 0
+  A21, \field Loading Index 6 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  A22, \field Loading Index 6 Compressor Power Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  N55, \field Compressor Speed at Loading Index 7
+       \type real
+       \units rev/min
+       \minimum> 0
+  A23, \field Loading Index 7 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  A24, \field Loading Index 7 list
+       \object-list BivariateFunctions
+  N56, \field Compressor Speed at Loading Index 8
+       \type real
+       \units rev/min
+       \minimum> 0
+  A25, \field Loading Index 8 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  A26, \field Loading Index 8 Compressor Power Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  N57, \field Compressor Speed at Loading Index 9
+       \type real
+       \units rev/min
+       \minimum> 0
+  A27, \field Loading Index 9 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  A28, \field Loading Index 9 Compressor Power Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  N58, \field Compressor Speed at Loading Index 10
+       \type real
+       \units rev/min
+       \minimum> 0
+  A29, \field Loading Index 10 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  A30, \field Loading Index 10 Compressor Power Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  N59, \field Compressor Speed at Loading Index 11
+       \type real
+       \units rev/min
+       \minimum> 0
+  A31, \field Loading Index 11 Evaporative Capacity Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+  A32; \field Loading Index 11 Compressor Power Multiplier Function of Temperature Curve Name
+       \type object-list
+       \object-list BivariateFunctions
+
+ZoneTerminalUnitList,
+          \memo List of variable refrigerant flow (VRF) terminal units served by a given VRF condensing
+          \memo unit. See ZoneHVAC:TerminalUnit:VariableRefrigerantFlow and
+          \memo AirConditioner:VariableRefrigerantFlow.
+          \min-fields 2
+          \extensible:1 - repeat last field, remembering to remove ; from "inner" fields.
+  A1 ,    \field Zone Terminal Unit List Name
+          \required-field
+          \type alpha
+          \reference ZoneTerminalUnitListNames
+  A2 ,    \field Zone Terminal Unit Name 1
+          \begin-extensible
+          \required-field
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A3 ,    \field Zone Terminal Unit Name 2
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A4 ,    \field Zone Terminal Unit Name 3
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A5 ,    \field Zone Terminal Unit Name 4
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A6 ,    \field Zone Terminal Unit Name 5
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A7 ,    \field Zone Terminal Unit Name 6
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A8 ,    \field Zone Terminal Unit Name 7
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A9 ,    \field Zone Terminal Unit Name 8
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A10,    \field Zone Terminal Unit Name 9
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A11,    \field Zone Terminal Unit Name 10
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A12,    \field Zone Terminal Unit Name 11
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A13,    \field Zone Terminal Unit Name 12
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A14,    \field Zone Terminal Unit Name 13
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A15,    \field Zone Terminal Unit Name 14
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A16,    \field Zone Terminal Unit Name 15
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A17,    \field Zone Terminal Unit Name 16
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A18,    \field Zone Terminal Unit Name 17
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A19,    \field Zone Terminal Unit Name 18
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A20,    \field Zone Terminal Unit Name 19
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+  A21;    \field Zone Terminal Unit Name 20
+          \type object-list
+          \object-list ZoneTerminalUnitNames
+
+\group Controllers
+!*****************Controller****************************
+! A Controller mimics the function of an actual physical controller, though it
+! is somewhat more limited. It can sense one node variable, compare it with
+! its setpoint, and determine the desired value for another node variable.
+!
+! Rule: A Controller can not span a loop manager boundary (but a Setpoint
+! Manager can). Thus in an air loop the sensed node and the controlled
+! device must be in the air loop. This means that a single zone system can
+! not be modeled with a simple controller sensing zone temperature and
+! controlling coil water flow. Instead this must be modeled as a Setpoint
+! Manager sensing a zone temperature and resetting the supply air temperature
+! setpoint each timestep. This is artificial but should simplify the control
+! modeling task.
+!
+!
+Controller:WaterCoil,
+       \memo Controller for a water coil which is located directly in an air loop branch or
+       \memo outdoor air equipment list. Controls the coil water flow to meet the specified
+       \memo leaving air setpoint(s). Used with Coil:Heating:Water, Coil:Cooling:Water,
+       \memo Coil:Cooling:Water:DetailedGeometry, and
+       \memo CoilSystem:Cooling:Water:HeatexchangerAssisted.
+  \min-fields 9
+  A1 , \field Name
+       \type alpha
+       \required-field
+       \reference AirLoopControllers
+       \reference WaterCoilControllers
+  A2 , \field Control Variable
+       \required-field
+       \type choice
+       \key Temperature
+       \key HumidityRatio
+       \key TemperatureAndHumidityRatio
+       \note keys HumidityRatio or TemperatureAndHumidityRatio
+       \note requires a ZoneControl:Humidistat object along
+       \note with SetpointManager:SingleZone:Humidity:Maximum,
+       \note SetpointManager:MultiZone:MaximumHumidity:Average, or
+       \note SetpointManager:Multizone:Humidity:Maximum object
+  A3 , \field Action
+       \type choice
+       \key Normal
+       \key Reverse
+       \note Leave blank to have this automatically selected from coil type.
+       \note Chilled water coils should be reverse action
+       \note Hot water coils should be normal action
+  A4 , \field Actuator Variable
+       \required-field
+       \type choice
+       \key Flow
+  A5 , \field Sensor Node Name
+       \required-field
+       \type node
+  A6 , \field Actuator Node Name
+       \required-field
+       \type node
+  N1 , \field Controller Convergence Tolerance
+       \units deltaC
+       \type real
+       \default autosize
+       \autosizable
+  N2 , \field Maximum Actuated Flow
+       \type real
+       \minimum 0
+       \autosizable
+       \default autosize
+       \units m3/s
+       \ip-units gal/min
+  N3 ; \field Minimum Actuated Flow
+       \type real
+       \minimum 0
+       \default 0.0
+       \units m3/s
+       \ip-units gal/min
+
+Controller:OutdoorAir,
+       \memo Controller to set the outdoor air flow rate for an air loop. Control options include
+       \memo fixed, proportional, scheduled, economizer, and demand-controlled ventilation.
+  \min-fields 16
+  A1 , \field Name
+       \type alpha
+       \required-field
+       \reference AirLoopControllers
+       \reference OAControllerNames
+  A2 , \field Relief Air Outlet Node Name
+       \type node
+       \required-field
+  A3 , \field Return Air Node Name
+       \type node
+       \required-field
+  A4 , \field Mixed Air Node Name
+       \type node
+       \required-field
+  A5 , \field Actuator Node Name
+       \type node
+       \required-field
+       \note Outdoor air inlet node entering the first pre-treat component if any
+  N1 , \field Minimum Outdoor Air Flow Rate
+       \note If there is a Mechanical Ventilation Controller (Controller:MechanicalVentilation), note
+       \note that this value times the Minimum Outdoor Air Schedule is a hard minimum that may
+       \note override DCV or other advanced OA controls.
+       \type real
+       \required-field
+       \units m3/s
+       \autosizable
+  N2 , \field Maximum Outdoor Air Flow Rate
+       \type real
+       \required-field
+       \units m3/s
+       \autosizable
+  A6 , \field Economizer Control Type
+       \type choice
+       \key FixedDryBulb
+       \key FixedEnthalpy
+       \key DifferentialDryBulb
+       \key DifferentialEnthalpy
+       \key FixedDewPointAndDryBulb
+       \key ElectronicEnthalpy
+       \key DifferentialDryBulbAndEnthalpy
+       \key NoEconomizer
+       \default NoEconomizer
+  A7 , \field Economizer Control Action Type
+       \type choice
+       \key ModulateFlow
+       \key MinimumFlowWithBypass
+       \default ModulateFlow
+  N3 , \field Economizer Maximum Limit Dry-Bulb Temperature
+       \type real
+       \units C
+       \note Enter the maximum outdoor dry-bulb temperature limit for FixedDryBulb
+       \note economizer control type. No input or blank input means this limit is
+       \note not operative. Limit is applied regardless of economizer control type.
+  N4 , \field Economizer Maximum Limit Enthalpy
+       \type real
+       \units J/kg
+       \note Enter the maximum outdoor enthalpy limit for FixedEnthalpy economizer control type.
+       \note No input or blank input means this limit is not operative
+       \note Limit is applied regardless of economizer control type.
+  N5 , \field Economizer Maximum Limit Dewpoint Temperature
+       \type real
+       \units C
+       \note Enter the maximum outdoor dewpoint temperature limit for FixedDewPointAndDryBulb
+       \note economizer control type. No input or blank input means this limit is not operative.
+       \note Limit is applied regardless of economizer control type.
+  A8 , \field Electronic Enthalpy Limit Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Enter the name of a quadratic or cubic curve which defines the maximum outdoor
+       \note humidity ratio (function of outdoor dry-bulb temperature) for ElectronicEnthalpy
+       \note economizer control type. No input or blank input means this limit is not operative
+       \note Limit is applied regardless of economizer control type.
+  N6 , \field Economizer Minimum Limit Dry-Bulb Temperature
+       \type real
+       \units C
+       \note Enter the minimum outdoor dry-bulb temperature limit for economizer control.
+       \note No input or blank input means this limit is not operative
+       \note Limit is applied regardless of economizer control type.
+  A9 , \field Lockout Type
+       \type choice
+       \key NoLockout
+       \key LockoutWithHeating
+       \key LockoutWithCompressor
+       \default NoLockout
+  A10, \field Minimum Limit Type
+       \type choice
+       \key FixedMinimum
+       \key ProportionalMinimum
+       \default ProportionalMinimum
+  A11, \field Minimum Outdoor Air Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values multiply the minimum outdoor air flow rate
+  A12, \field Minimum Fraction of Outdoor Air Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note schedule values multiply the design/mixed air flow rate
+  A13, \field Maximum Fraction of Outdoor Air Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note schedule values multiply the design/mixed air flow rate
+  A14, \field Mechanical Ventilation Controller Name
+       \note Enter the name of a Controller:MechanicalVentilation object.
+       \type object-list
+       \object-list ControllerMechanicalVentNames
+       \note Optional field for defining outdoor ventilation air based on flow rate per unit floor
+       \note area and flow rate per person. Simplified method of demand-controlled ventilation.
+  A15, \field Time of Day Economizer Control Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Optional schedule to simulate "push-button" type economizer control.
+       \note Schedule values greater than 0 indicate time-of-day economizer control is enabled.
+       \note Economizer control may be used with or without the high humidity control option.
+       \note When used together, high humidity control has priority over economizer control.
+       \note If the field Economizer Control Type = NoEconomizer, then this option is disabled.
+  A16, \field High Humidity Control
+       \type choice
+       \key Yes
+       \key No
+       \default No
+       \note Optional field to enable modified outdoor air flow rates based on zone relative humidity.
+       \note Select Yes to modify outdoor air flow rate based on a zone humidistat.
+       \note Select No to disable this feature.
+       \note If the field Economizer Control Type = NoEconomizer, then this option is disabled.
+  A17, \field Humidistat Control Zone Name
+       \type object-list
+       \object-list ZoneNames
+       \note Enter the name of the zone where the humidistat is located.
+       \note This field is only used when the field High Humidity Control = Yes.
+  N7 , \field High Humidity Outdoor Air Flow Ratio
+       \type real
+       \minimum> 0.0
+       \default 1.0
+       \note Enter the ratio of outdoor air to the maximum outdoor air flow rate when modified air
+       \note flow rates are active based on high indoor humidity.
+       \note The minimum value must be greater than 0.
+       \note This field is only used when the field High Humidity Control = Yes.
+  A18, \field Control High Indoor Humidity Based on Outdoor Humidity Ratio
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+       \note If No is selected, the outdoor air flow rate is modified any time indoor relative
+       \note humidity is above the humidistat setpoint. If Yes is selected, the outdoor air
+       \note flow rate is modified any time the indoor relative humidity is above the humidistat
+       \note setpoint and the outdoor humidity ratio is less than the indoor humidity ratio.
+       \note This field is only used when the field High Humidity Control = Yes.
+  A19; \field Heat Recovery Bypass Control Type
+       \type choice
+       \key BypassWhenWithinEconomizerLimits
+       \key BypassWhenOAFlowGreaterThanMinimum
+       \default BypassWhenWithinEconomizerLimits
+       \note BypassWhenWithinEconomizerLimits specifies that heat recovery
+       \note is active only when the economizer is off because conditions
+       \note are outside the economizer control limits
+       \note BypassWhenOAFlowGreaterThanMinimum specifies enhanced economizer
+       \note controls to allow heat recovery when economizer is active
+       \note (within limits) but the outdoor air flow rate is at the minimum.
+
+Controller:MechanicalVentilation,
+        \memo This object is used in conjunction with Controller:OutdoorAir to specify outdoor
+        \memo ventilation air based on outdoor air specified in the DesignSpecification:OutdoorAir object
+        \memo The Controller:OutdoorAir object is associated with a specific air loop, so the
+        \memo outdoor air flow rates specified in Controller:MechanicalVentilation correspond to the zones
+        \memo attached to that specific air loop.
+        \min-fields 8
+        \extensible:3 - repeat last three fields, remembering to remove ; from "inner" fields.
+        \memo Duplicate groups of Zone name, Design Specification Outdoor Air Object Name,
+        \memo and Design Specification Zone Air Distribution Object Name to increase allowable number of entries
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference ControllerMechanicalVentNames
+   A2,  \field Availability Schedule Name
+        \note If this field is blank, the controller uses the values from the associated Controller:OutdoorAir.
+        \type object-list
+        \object-list ScheduleNames
+        \note Schedule values greater than 0 indicate mechanical ventilation is enabled
+   A3,  \field Demand Controlled Ventilation
+        \type choice
+        \key Yes
+        \key No
+        \default No
+   A4,  \field System Outdoor Air Method
+        \type choice
+        \key ZoneSum
+        \key VentilationRateProcedure
+        \key IndoorAirQualityProcedure
+        \key ProportionalControlBasedOnDesignOccupancy
+        \key ProportionalControlBasedOnOccupancySchedule
+        \key IndoorAirQualityProcedureGenericContaminant
+        \key IndoorAirQualityProcedureCombined
+        \key ProportionalControlBasedOnDesignOARate
+        \default VentilationRateProcedure
+   N1,  \field Zone Maximum Outdoor Air Fraction
+        \type real
+        \default 1.0
+        \minimum> 0.0
+        \units dimensionless
+   A5,  \field Zone or ZoneList 1 Name
+        \begin-extensible
+        \required-field
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A6,  \field Design Specification Outdoor Air Object Name 1
+        \note If left blank, the name will be taken from the Sizing:Zone object for this zone.
+        \note If no specification is found for this zone, then the default of 0.00944 m3/s-person will be used.
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A7,  \field Design Specification Zone Air Distribution Object Name 1
+        \note If left blank, the name will be taken from the Sizing:Zone object for this zone.
+        \note If no specification is found for this zone, then effectivness will be 1.0 and
+        \note and secondary recirculation will be zero.
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A8,  \field Zone or ZoneList 2 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A9,  \field Design Specification Outdoor Air Object Name 2
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A10, \field Design Specification Zone Air Distribution Object Name 2
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A11, \field Zone or ZoneList 3 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A12, \field Design Specification Outdoor Air Object Name 3
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A13, \field Design Specification Zone Air Distribution Object Name 3
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A14, \field Zone or ZoneList 4 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A15, \field Design Specification Outdoor Air Object Name 4
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A16, \field Design Specification Zone Air Distribution Object Name 4
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A17, \field Zone or ZoneList 5 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A18, \field Design Specification Outdoor Air Object Name 5
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A19, \field Design Specification Zone Air Distribution Object Name 5
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A20, \field Zone or ZoneList 6 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A21, \field Design Specification Outdoor Air Object Name 6
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A22, \field Design Specification Zone Air Distribution Object Name 6
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A23, \field Zone or ZoneList 7 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A24, \field Design Specification Outdoor Air Object Name 7
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A25, \field Design Specification Zone Air Distribution Object Name 7
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A26, \field Zone or ZoneList 8 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A27, \field Design Specification Outdoor Air Object Name 8
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A28, \field Design Specification Zone Air Distribution Object Name 8
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A29, \field Zone or ZoneList 9 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A30, \field Design Specification Outdoor Air Object Name 9
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A31, \field Design Specification Zone Air Distribution Object Name 9
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A32, \field Zone or ZoneList 10 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A33, \field Design Specification Outdoor Air Object Name 10
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A34, \field Design Specification Zone Air Distribution Object Name 10
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A35, \field Zone or ZoneList 11 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A36, \field Design Specification Outdoor Air Object Name 11
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A37, \field Design Specification Zone Air Distribution Object Name 11
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A38, \field Zone or ZoneList 12 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A39, \field Design Specification Outdoor Air Object Name 12
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A40, \field Design Specification Zone Air Distribution Object Name 12
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A41, \field Zone or ZoneList 13 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A42, \field Design Specification Outdoor Air Object Name 13
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A43, \field Design Specification Zone Air Distribution Object Name 13
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A44, \field Zone or ZoneList 14 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A45, \field Design Specification Outdoor Air Object Name 14
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A46, \field Design Specification Zone Air Distribution Object Name 14
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A47, \field Zone or ZoneList 15 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A48, \field Design Specification Outdoor Air Object Name 15
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A49, \field Design Specification Zone Air Distribution Object Name 15
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A50, \field Zone or ZoneList 16 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A51, \field Design Specification Outdoor Air Object Name 16
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A52, \field Design Specification Zone Air Distribution Object Name 16
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A53, \field Zone or ZoneList 17 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A54, \field Design Specification Outdoor Air Object Name 17
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A55, \field Design Specification Zone Air Distribution Object Name 17
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A56, \field Zone or ZoneList 18 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A57, \field Design Specification Outdoor Air Object Name 18
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A58, \field Design Specification Zone Air Distribution Object Name 18
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A59, \field Zone or ZoneList 19 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A60, \field Design Specification Outdoor Air Object Name 19
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A61, \field Design Specification Zone Air Distribution Object Name 19
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A62, \field Zone or ZoneList 20 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A63, \field Design Specification Outdoor Air Object Name 20
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A64, \field Design Specification Zone Air Distribution Object Name 20
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A65, \field Zone or ZoneList 21 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A66, \field Design Specification Outdoor Air Object Name 21
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A67, \field Design Specification Zone Air Distribution Object Name 21
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A68, \field Zone or ZoneList 22 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A69, \field Design Specification Outdoor Air Object Name 22
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A70, \field Design Specification Zone Air Distribution Object Name 22
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A71, \field Zone or ZoneList 23 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A72, \field Design Specification Outdoor Air Object Name 23
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A73, \field Design Specification Zone Air Distribution Object Name 23
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A74, \field Zone or ZoneList 24 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A75, \field Design Specification Outdoor Air Object Name 24
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A76, \field Design Specification Zone Air Distribution Object Name 24
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A77, \field Zone or ZoneList 25 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A78, \field Design Specification Outdoor Air Object Name 25
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A79, \field Design Specification Zone Air Distribution Object Name 25
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A80, \field Zone or ZoneList 26 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A81, \field Design Specification Outdoor Air Object Name 26
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A82, \field Design Specification Zone Air Distribution Object Name 26
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A83, \field Zone or ZoneList 27 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A84, \field Design Specification Outdoor Air Object Name 27
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A85, \field Design Specification Zone Air Distribution Object Name 27
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A86, \field Zone or ZoneList 28 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A87, \field Design Specification Outdoor Air Object Name 28
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A88, \field Design Specification Zone Air Distribution Object Name 28
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A89, \field Zone or ZoneList 29 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A90, \field Design Specification Outdoor Air Object Name 29
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A91, \field Design Specification Zone Air Distribution Object Name 29
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A92, \field Zone or ZoneList 30 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A93, \field Design Specification Outdoor Air Object Name 30
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A94, \field Design Specification Zone Air Distribution Object Name 30
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A95, \field Zone or ZoneList 31 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A96, \field Design Specification Outdoor Air Object Name 31
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A97, \field Design Specification Zone Air Distribution Object Name 31
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A98, \field Zone or ZoneList 32 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A99, \field Design Specification Outdoor Air Object Name 32
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A100,\field Design Specification Zone Air Distribution Object Name 32
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A101,\field Zone or ZoneList 33 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A102,\field Design Specification Outdoor Air Object Name 33
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A103,\field Design Specification Zone Air Distribution Object Name 33
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A104,\field Zone or ZoneList 34 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A105,\field Design Specification Outdoor Air Object Name 34
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A106,\field Design Specification Zone Air Distribution Object Name 34
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A107,\field Zone or ZoneList 35 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A108,\field Design Specification Outdoor Air Object Name 35
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A109,\field Design Specification Zone Air Distribution Object Name 35
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A110,\field Zone or ZoneList 36 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A111,\field Design Specification Outdoor Air Object Name 36
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A112,\field Design Specification Zone Air Distribution Object Name 36
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A113,\field Zone or ZoneList 37 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A114,\field Design Specification Outdoor Air Object Name 37
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A115,\field Design Specification Zone Air Distribution Object Name 37
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A116,\field Zone or ZoneList 38 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A117,\field Design Specification Outdoor Air Object Name 38
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A118,\field Design Specification Zone Air Distribution Object Name 38
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A119,\field Zone or ZoneList 39 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A120,\field Design Specification Outdoor Air Object Name 39
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A121,\field Design Specification Zone Air Distribution Object Name 39
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A122,\field Zone or ZoneList 40 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A123,\field Design Specification Outdoor Air Object Name 40
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A124,\field Design Specification Zone Air Distribution Object Name 40
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A125,\field Zone or ZoneList 41 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A126,\field Design Specification Outdoor Air Object Name 41
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A127,\field Design Specification Zone Air Distribution Object Name 41
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A128,\field Zone or ZoneList 42 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A129,\field Design Specification Outdoor Air Object Name 42
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A130,\field Design Specification Zone Air Distribution Object Name 42
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A131,\field Zone or ZoneList 43 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A132,\field Design Specification Outdoor Air Object Name 43
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A133,\field Design Specification Zone Air Distribution Object Name 43
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A134,\field Zone or ZoneList 44 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A135,\field Design Specification Outdoor Air Object Name 44
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A136,\field Design Specification Zone Air Distribution Object Name 44
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A137,\field Zone or ZoneList 45 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A138,\field Design Specification Outdoor Air Object Name 45
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A139,\field Design Specification Zone Air Distribution Object Name 45
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A140,\field Zone or ZoneList 46 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A141,\field Design Specification Outdoor Air Object Name 46
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A142,\field Design Specification Zone Air Distribution Object Name 46
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A143,\field Zone or ZoneList 47 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A144,\field Design Specification Outdoor Air Object Name 47
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A145,\field Design Specification Zone Air Distribution Object Name 47
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A146,\field Zone or ZoneList 48 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A147,\field Design Specification Outdoor Air Object Name 48
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A148,\field Design Specification Zone Air Distribution Object Name 48
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A149,\field Zone or ZoneList 49 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A150,\field Design Specification Outdoor Air Object Name 49
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A151,\field Design Specification Zone Air Distribution Object Name 49
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+   A152,\field Zone or ZoneList 50 Name
+        \type object-list
+        \object-list ZoneAndZoneListNames
+        \note A zone name or a zone list name may be used here
+   A153,\field Design Specification Outdoor Air Object Name 50
+        \type object-list
+        \object-list DesignSpecificationOutdoorAirNames
+   A154;\field Design Specification Zone Air Distribution Object Name 50
+        \type object-list
+        \object-list DesignSpecificationZoneAirDistributionNames
+
+AirLoopHVAC:ControllerList,
+       \memo List controllers in order of control sequence
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ControllerLists
+  A2 , \field Controller 1 Object Type
+       \required-field
+       \type choice
+       \key Controller:WaterCoil
+       \key Controller:OutdoorAir
+  A3 , \field Controller 1 Name
+       \required-field
+       \type object-list
+       \object-list AirLoopControllers
+  A4 , \field  Controller 2 Object Type
+       \type choice
+       \key Controller:WaterCoil
+       \key Controller:OutdoorAir
+  A5 , \field Controller 2 Name
+       \type object-list
+       \object-list AirLoopControllers
+  A6 , \field  Controller 3 Object Type
+       \type choice
+       \key Controller:WaterCoil
+       \key Controller:OutdoorAir
+  A7 , \field Controller 3 Name
+       \type object-list
+       \object-list AirLoopControllers
+  A8 , \field  Controller 4 Object Type
+       \type choice
+       \key Controller:WaterCoil
+       \key Controller:OutdoorAir
+  A9 , \field Controller 4 Name
+       \type object-list
+       \object-list AirLoopControllers
+  A10, \field  Controller 5 Object Type
+       \type choice
+       \key Controller:WaterCoil
+       \key Controller:OutdoorAir
+  A11, \field Controller 5 Name
+       \type object-list
+       \object-list AirLoopControllers
+  A12, \field  Controller 6 Object Type
+       \type choice
+       \key Controller:WaterCoil
+       \key Controller:OutdoorAir
+  A13, \field Controller 6 Name
+       \type object-list
+       \object-list AirLoopControllers
+  A14, \field  Controller 7 Object Type
+       \type choice
+       \key Controller:WaterCoil
+       \key Controller:OutdoorAir
+  A15, \field Controller 7 Name
+       \type object-list
+       \object-list AirLoopControllers
+  A16, \field  Controller 8 Object Type
+       \type choice
+       \key Controller:WaterCoil
+       \key Controller:OutdoorAir
+  A17; \field Controller 8 Name
+       \type object-list
+       \object-list AirLoopControllers
+
+ !*****************AIR LOOP SPECIFICATION*********************
+ ! Air system heating and cooling loops are specified in the following configuration statements.
+ ! The AirLoopHVAC input objects connect return and supply air paths from
+ ! the zone equipment to supply components on an air loop.
+ ! There can only be one return air path per air loop
+ ! and only up to 3 supply air streams (assuming a 3-deck multizone is the
+ ! most complex supply air configuration) per air system.
+
+\group Air Distribution
+
+AirLoopHVAC,
+       \min-fields 10
+       \memo Defines a central forced air system.
+   A1, \field Name
+       \required-field
+       \type alpha
+       \reference AirPrimaryLoops
+   A2, \field Controller List Name
+       \note Enter the name of an AirLoopHVAC:ControllerList object.
+       \type object-list
+       \object-list ControllerLists
+   A3, \field Availability Manager List Name
+       \note Enter the name of an AvailabilityManagerAssignmentList object.
+       \type object-list
+       \object-list SystemAvailabilityManagerLists
+   N1, \field Design Supply Air Flow Rate
+       \default 0
+       \units m3/s
+       \autosizable
+   A4, \field Branch List Name
+       \note Name of a BranchList containing all the branches in this air loop
+       \required-field
+       \type object-list
+       \object-list BranchLists
+   A5, \field Connector List Name
+       \note Name of a ConnectorList containing all the splitters and mixers in the loop
+       \type object-list
+       \object-list ConnectorLists
+   A6, \field Supply Side Inlet Node Name
+       \note Name of inlet node where air enters the supply side of the air loop.
+       \note If this air loop has a return path, then this node is where return air enters the supply side.
+       \note If this air loop has no return path, then this node is where outdoor air or other air enters the supply side.
+       \required-field
+       \type node
+   A7, \field Demand Side Outlet Node Name
+       \note Name of outlet node where return air leaves the demand side and enters the supply side.
+       \note Required if this air loop has a return path. Leave this field blank if there is no return.
+       \type node
+   A8, \field Demand Side Inlet Node Names
+       \note Name of a Node or NodeList containing the inlet node(s) supplying air to zone equipment.
+       \required-field
+       \type node
+   A9, \field Supply Side Outlet Node Names
+       \note Name of a Node or NodeList containing the outlet node(s) supplying air to the demand side.
+       \required-field
+       \type node
+   N2; \field Design Return Air Flow Fraction of Supply Air Flow
+       \note The design return air flow rate as a fraction of supply air flow rate with no exhaust.
+       \note This can be used to model a pressurized system or set to zero to model a DOAS with no return flow.
+       \note Use ZoneAirMassFlowConservation to balance zone infiltration and mixing flows.
+       \minimum 0.0
+       \default 1.0
+
+AirLoopHVAC:OutdoorAirSystem:EquipmentList,
+       \memo List equipment in simulation order
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference AirLoopOAEquipmentLists
+  A2 , \field Component 1 Object Type
+       \required-field
+       \type object-list
+       \object-list validOASysEquipmentTypes
+  A3 , \field Component 1 Name
+       \required-field
+       \type object-list
+       \object-list validOASysEquipmentNames
+  A4 , \field Component 2 Object Type
+       \type object-list
+       \object-list validOASysEquipmentTypes
+  A5 , \field Component 2 Name
+       \type object-list
+       \object-list validOASysEquipmentNames
+  A6 , \field Component 3 Object Type
+       \type object-list
+       \object-list validOASysEquipmentTypes
+  A7 , \field Component 3 Name
+       \type object-list
+       \object-list validOASysEquipmentNames
+  A8 , \field Component 4 Object Type
+       \type object-list
+       \object-list validOASysEquipmentTypes
+  A9 , \field Component 4 Name
+       \type object-list
+       \object-list validOASysEquipmentNames
+  A10, \field Component 5 Object Type
+       \type object-list
+       \object-list validOASysEquipmentTypes
+  A11, \field Component 5 Name
+       \type object-list
+       \object-list validOASysEquipmentNames
+  A12, \field Component 6 Object Type
+       \type object-list
+       \object-list validOASysEquipmentTypes
+  A13, \field Component 6 Name
+       \type object-list
+       \object-list validOASysEquipmentNames
+  A14, \field Component 7 Object Type
+       \type object-list
+       \object-list validOASysEquipmentTypes
+  A15, \field Component 7 Name
+       \type object-list
+       \object-list validOASysEquipmentNames
+  A16, \field Component 8 Object Type
+       \type object-list
+       \object-list validOASysEquipmentTypes
+  A17, \field Component 8 Name
+       \type object-list
+       \object-list validOASysEquipmentNames
+  A18, \field Component 9 Object Type
+       \type object-list
+       \object-list validOASysEquipmentTypes
+  A19; \field Component 9 Name
+       \type object-list
+       \object-list validOASysEquipmentNames
+
+AirLoopHVAC:OutdoorAirSystem,
+       \memo Outdoor air subsystem for an AirLoopHVAC. Includes an outdoor air mixing box and
+       \memo optional outdoor air conditioning equipment such as heat recovery, preheat, and precool
+       \memo coils. From the perspective of the primary air loop the outdoor air system is treated
+       \memo as a single component.
+       \min-fields 3
+   A1, \field Name
+       \required-field
+       \type alpha
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+   A2, \field Controller List Name
+       \note Enter the name of an AirLoopHVAC:ControllerList object or blank if this object is used in
+       \note AirLoopHVAC:DedicatedOutdoorAirSystem.
+       \type object-list
+       \object-list ControllerLists
+   A3, \field Outdoor Air Equipment List Name
+       \note Enter the name of an AirLoopHVAC:OutdoorAirSystem:EquipmentList object.
+       \required-field
+       \type object-list
+       \object-list AirLoopOAEquipmentLists
+   A4; \field Availability Manager List Name
+       \note Enter the name of an AvailabilityManagerAssignmentList object.
+       \type object-list
+       \object-list SystemAvailabilityManagerLists
+
+OutdoorAir:Mixer,
+      \memo Outdoor air mixer. Node names cannot be duplicated within a single OutdoorAir:Mixer
+      \memo object or across all outdoor air mixers.
+  A1, \field Name
+      \required-field
+      \type alpha
+      \reference OutdoorAirMixers
+      \reference-class-name validOASysEquipmentTypes
+      \reference validOASysEquipmentNames
+  A2, \field Mixed Air Node Name
+      \note Name of Mixed Air Node
+      \required-field
+      \type node
+  A3, \field Outdoor Air Stream Node Name
+      \note Name of Outdoor Air Stream Node
+      \required-field
+      \type node
+  A4, \field Relief Air Stream Node Name
+      \note Name of Relief Air Stream Node
+      \required-field
+      \type node
+  A5; \field Return Air Stream Node Name
+      \note Name of Return Air Stream Node
+      \required-field
+      \type node
+
+AirLoopHVAC:ZoneSplitter,
+       \extensible:1 Just duplicate last field and comments (changing numbering, please)
+       \memo Split one air stream into N outlet streams (currently 500 per air loop, but extensible). Node names
+       \memo cannot be duplicated within a single zone splitter (AirLoopHVAC:ZoneSplitter) list.
+   A1, \field Name
+       \required-field
+       \reference SupplyPathComponentNames
+   A2, \field Inlet Node Name
+       \required-field
+       \type node
+   A3, \field Outlet 1 Node Name
+       \begin-extensible
+       \required-field
+       \type node
+   A4, \field Outlet 2 Node Name
+       \type node
+   A5, \field Outlet 3 Node Name
+       \type node
+   A6, \field Outlet 4 Node Name
+       \type node
+   A7, \field Outlet 5 Node Name
+       \type node
+   A8, \field Outlet 6 Node Name
+       \type node
+   A9, \field Outlet 7 Node Name
+       \type node
+   A10, \field Outlet 8 Node Name
+        \type node
+   A11, \field Outlet 9 Node Name
+        \type node
+   A12, \field Outlet 10 Node Name
+        \type node
+   A13, \field Outlet 11 Node Name
+        \type node
+   A14, \field Outlet 12 Node Name
+        \type node
+   A15, \field Outlet 13 Node Name
+        \type node
+   A16, \field Outlet 14 Node Name
+        \type node
+   A17, \field Outlet 15 Node Name
+        \type node
+   A18, \field Outlet 16 Node Name
+        \type node
+   A19, \field Outlet 17 Node Name
+        \type node
+   A20, \field Outlet 18 Node Name
+        \type node
+   A21, \field Outlet 19 Node Name
+        \type node
+   A22, \field Outlet 20 Node Name
+        \type node
+   A23, \field Outlet 21 Node Name
+        \type node
+   A24, \field Outlet 22 Node Name
+        \type node
+   A25, \field Outlet 23 Node Name
+        \type node
+   A26, \field Outlet 24 Node Name
+        \type node
+   A27, \field Outlet 25 Node Name
+        \type node
+   A28, \field Outlet 26 Node Name
+        \type node
+   A29, \field Outlet 27 Node Name
+        \type node
+   A30, \field Outlet 28 Node Name
+        \type node
+   A31, \field Outlet 29 Node Name
+        \type node
+   A32, \field Outlet 30 Node Name
+        \type node
+   A33, \field Outlet 31 Node Name
+        \type node
+   A34, \field Outlet 32 Node Name
+        \type node
+   A35, \field Outlet 33 Node Name
+        \type node
+   A36, \field Outlet 34 Node Name
+        \type node
+   A37, \field Outlet 35 Node Name
+        \type node
+   A38, \field Outlet 36 Node Name
+        \type node
+   A39, \field Outlet 37 Node Name
+        \type node
+   A40, \field Outlet 38 Node Name
+        \type node
+   A41, \field Outlet 39 Node Name
+        \type node
+   A42, \field Outlet 40 Node Name
+        \type node
+   A43, \field Outlet 41 Node Name
+        \type node
+   A44, \field Outlet 42 Node Name
+        \type node
+   A45, \field Outlet 43 Node Name
+        \type node
+   A46, \field Outlet 44 Node Name
+        \type node
+   A47, \field Outlet 45 Node Name
+        \type node
+   A48, \field Outlet 46 Node Name
+        \type node
+   A49, \field Outlet 47 Node Name
+        \type node
+   A50, \field Outlet 48 Node Name
+        \type node
+   A51, \field Outlet 49 Node Name
+        \type node
+   A52, \field Outlet 50 Node Name
+        \type node
+   A53, \field Outlet 51 Node Name
+        \type node
+   A54, \field Outlet 52 Node Name
+        \type node
+   A55, \field Outlet 53 Node Name
+        \type node
+   A56, \field Outlet 54 Node Name
+        \type node
+   A57, \field Outlet 55 Node Name
+        \type node
+   A58, \field Outlet 56 Node Name
+        \type node
+   A59, \field Outlet 57 Node Name
+        \type node
+   A60, \field Outlet 58 Node Name
+        \type node
+   A61, \field Outlet 59 Node Name
+        \type node
+   A62, \field Outlet 60 Node Name
+        \type node
+   A63, \field Outlet 61 Node Name
+        \type node
+   A64, \field Outlet 62 Node Name
+        \type node
+   A65, \field Outlet 63 Node Name
+        \type node
+   A66, \field Outlet 64 Node Name
+        \type node
+   A67, \field Outlet 65 Node Name
+        \type node
+   A68, \field Outlet 66 Node Name
+        \type node
+   A69, \field Outlet 67 Node Name
+        \type node
+   A70, \field Outlet 68 Node Name
+        \type node
+   A71, \field Outlet 69 Node Name
+        \type node
+   A72, \field Outlet 70 Node Name
+        \type node
+   A73, \field Outlet 71 Node Name
+        \type node
+   A74, \field Outlet 72 Node Name
+        \type node
+   A75, \field Outlet 73 Node Name
+        \type node
+   A76, \field Outlet 74 Node Name
+        \type node
+   A77, \field Outlet 75 Node Name
+        \type node
+   A78, \field Outlet 76 Node Name
+        \type node
+   A79, \field Outlet 77 Node Name
+        \type node
+   A80, \field Outlet 78 Node Name
+        \type node
+   A81, \field Outlet 79 Node Name
+        \type node
+   A82, \field Outlet 80 Node Name
+        \type node
+   A83, \field Outlet 81 Node Name
+        \type node
+   A84, \field Outlet 82 Node Name
+        \type node
+   A85, \field Outlet 83 Node Name
+        \type node
+   A86, \field Outlet 84 Node Name
+        \type node
+   A87, \field Outlet 85 Node Name
+        \type node
+   A88, \field Outlet 86 Node Name
+        \type node
+   A89, \field Outlet 87 Node Name
+        \type node
+   A90, \field Outlet 88 Node Name
+        \type node
+   A91, \field Outlet 89 Node Name
+        \type node
+   A92, \field Outlet 90 Node Name
+        \type node
+   A93, \field Outlet 91 Node Name
+        \type node
+   A94, \field Outlet 92 Node Name
+        \type node
+   A95, \field Outlet 93 Node Name
+        \type node
+   A96, \field Outlet 94 Node Name
+        \type node
+   A97, \field Outlet 95 Node Name
+        \type node
+   A98, \field Outlet 96 Node Name
+        \type node
+   A99, \field Outlet 97 Node Name
+        \type node
+   A100, \field Outlet 98 Node Name
+         \type node
+   A101, \field Outlet 99 Node Name
+         \type node
+   A102, \field Outlet 100 Node Name
+         \type node
+   A103,A104,A105,A106,A107,A108,A109,A110,A111,A112, \note fields as indicated
+   A113,A114,A115,A116,A117,A118,A119,A120,A121,A122, \note fields as indicated
+   A123,A124,A125,A126,A127,A128,A129,A130,A131,A132, \note fields as indicated
+   A133,A134,A135,A136,A137,A138,A139,A140,A141,A142, \note fields as indicated
+   A143,A144,A145,A146,A147,A148,A149,A150,A151,A152, \note fields as indicated
+   A153,A154,A155,A156,A157,A158,A159,A160,A161,A162, \note fields as indicated
+   A163,A164,A165,A166,A167,A168,A169,A170,A171,A172, \note fields as indicated
+   A173,A174,A175,A176,A177,A178,A179,A180,A181,A182, \note fields as indicated
+   A183,A184,A185,A186,A187,A188,A189,A190,A191,A192, \note fields as indicated
+   A193,A194,A195,A196,A197,A198,A199,A200,A201,A202, \note fields as indicated
+   A203,A204,A205,A206,A207,A208,A209,A210,A211,A212, \note fields as indicated
+   A213,A214,A215,A216,A217,A218,A219,A220,A221,A222, \note fields as indicated
+   A223,A224,A225,A226,A227,A228,A229,A230,A231,A232, \note fields as indicated
+   A233,A234,A235,A236,A237,A238,A239,A240,A241,A242, \note fields as indicated
+   A243,A244,A245,A246,A247,A248,A249,A250,A251,A252, \note fields as indicated
+   A253,A254,A255,A256,A257,A258,A259,A260,A261,A262, \note fields as indicated
+   A263,A264,A265,A266,A267,A268,A269,A270,A271,A272, \note fields as indicated
+   A273,A274,A275,A276,A277,A278,A279,A280,A281,A282, \note fields as indicated
+   A283,A284,A285,A286,A287,A288,A289,A290,A291,A292, \note fields as indicated
+   A293,A294,A295,A296,A297,A298,A299,A300,A301,A302, \note fields as indicated
+   A303,A304,A305,A306,A307,A308,A309,A310,A311,A312, \note fields as indicated
+   A313,A314,A315,A316,A317,A318,A319,A320,A321,A322, \note fields as indicated
+   A323,A324,A325,A326,A327,A328,A329,A330,A331,A332, \note fields as indicated
+   A333,A334,A335,A336,A337,A338,A339,A340,A341,A342, \note fields as indicated
+   A343,A344,A345,A346,A347,A348,A349,A350,A351,A352, \note fields as indicated
+   A353,A354,A355,A356,A357,A358,A359,A360,A361,A362, \note fields as indicated
+   A363,A364,A365,A366,A367,A368,A369,A370,A371,A372, \note fields as indicated
+   A373,A374,A375,A376,A377,A378,A379,A380,A381,A382, \note fields as indicated
+   A383,A384,A385,A386,A387,A388,A389,A390,A391,A392, \note fields as indicated
+   A393,A394,A395,A396,A397,A398,A399,A400,A401,A402, \note fields as indicated
+   A403,A404,A405,A406,A407,A408,A409,A410,A411,A412, \note fields as indicated
+   A413,A414,A415,A416,A417,A418,A419,A420,A421,A422, \note fields as indicated
+   A423,A424,A425,A426,A427,A428,A429,A430,A431,A432, \note fields as indicated
+   A433,A434,A435,A436,A437,A438,A439,A440,A441,A442, \note fields as indicated
+   A443,A444,A445,A446,A447,A448,A449,A450,A451,A452, \note fields as indicated
+   A453,A454,A455,A456,A457,A458,A459,A460,A461,A462, \note fields as indicated
+   A463,A464,A465,A466,A467,A468,A469,A470,A471,A472, \note fields as indicated
+   A473,A474,A475,A476,A477,A478,A479,A480,A481,A482, \note fields as indicated
+   A483,A484,A485,A486,A487,A488,A489,A490,A491,A492, \note fields as indicated
+   A493,A494,A495,A496,A497,A498,A499,A500,A501,A502; \note fields as indicated
+
+AirLoopHVAC:SupplyPlenum,
+       \extensible:1 Just duplicate last field and comments (changing numbering, please)
+       \memo Connects 1 zone inlet air stream, through zone supply plenum, to one or more outlets.
+       \memo Node names cannot be duplicated within a single supply plenum list.
+   A1, \field Name
+       \required-field
+       \reference SupplyPathComponentNames
+   A2, \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+   A3, \field Zone Node Name
+       \required-field
+       \type node
+   A4, \field Inlet Node Name
+       \required-field
+       \type node
+   A5, \field Outlet 1 Node Name
+       \begin-extensible
+       \required-field
+       \type node
+   A6, \field Outlet 2 Node Name
+       \type node
+   A7, \field Outlet 3 Node Name
+       \type node
+   A8, \field Outlet 4 Node Name
+       \type node
+   A9, \field Outlet 5 Node Name
+       \type node
+   A10, \field Outlet 6 Node Name
+        \type node
+   A11, \field Outlet 7 Node Name
+        \type node
+   A12, \field Outlet 8 Node Name
+        \type node
+   A13, \field Outlet 9 Node Name
+        \type node
+   A14, \field Outlet 10 Node Name
+        \type node
+   A15, \field Outlet 11 Node Name
+        \type node
+   A16, \field Outlet 12 Node Name
+        \type node
+   A17, \field Outlet 13 Node Name
+        \type node
+   A18, \field Outlet 14 Node Name
+        \type node
+   A19, \field Outlet 15 Node Name
+        \type node
+   A20, \field Outlet 16 Node Name
+        \type node
+   A21, \field Outlet 17 Node Name
+        \type node
+   A22, \field Outlet 18 Node Name
+        \type node
+   A23, \field Outlet 19 Node Name
+        \type node
+   A24, \field Outlet 20 Node Name
+        \type node
+   A25, \field Outlet 21 Node Name
+        \type node
+   A26, \field Outlet 22 Node Name
+        \type node
+   A27, \field Outlet 23 Node Name
+        \type node
+   A28, \field Outlet 24 Node Name
+        \type node
+   A29, \field Outlet 25 Node Name
+        \type node
+   A30, \field Outlet 26 Node Name
+        \type node
+   A31, \field Outlet 27 Node Name
+        \type node
+   A32, \field Outlet 28 Node Name
+        \type node
+   A33, \field Outlet 29 Node Name
+        \type node
+   A34, \field Outlet 30 Node Name
+        \type node
+   A35, \field Outlet 31 Node Name
+        \type node
+   A36, \field Outlet 32 Node Name
+        \type node
+   A37, \field Outlet 33 Node Name
+        \type node
+   A38, \field Outlet 34 Node Name
+        \type node
+   A39, \field Outlet 35 Node Name
+        \type node
+   A40, \field Outlet 36 Node Name
+        \type node
+   A41, \field Outlet 37 Node Name
+        \type node
+   A42, \field Outlet 38 Node Name
+        \type node
+   A43, \field Outlet 39 Node Name
+        \type node
+   A44, \field Outlet 40 Node Name
+        \type node
+   A45, \field Outlet 41 Node Name
+        \type node
+   A46, \field Outlet 42 Node Name
+        \type node
+   A47, \field Outlet 43 Node Name
+        \type node
+   A48, \field Outlet 44 Node Name
+        \type node
+   A49, \field Outlet 45 Node Name
+        \type node
+   A50, \field Outlet 46 Node Name
+        \type node
+   A51, \field Outlet 47 Node Name
+        \type node
+   A52, \field Outlet 48 Node Name
+        \type node
+   A53, \field Outlet 49 Node Name
+        \type node
+   A54, \field Outlet 50 Node Name
+        \type node
+   A55, \field Outlet 51 Node Name
+        \type node
+   A56, \field Outlet 52 Node Name
+        \type node
+   A57, \field Outlet 53 Node Name
+        \type node
+   A58, \field Outlet 54 Node Name
+        \type node
+   A59, \field Outlet 55 Node Name
+        \type node
+   A60, \field Outlet 56 Node Name
+        \type node
+   A61, \field Outlet 57 Node Name
+        \type node
+   A62, \field Outlet 58 Node Name
+        \type node
+   A63, \field Outlet 59 Node Name
+        \type node
+   A64, \field Outlet 60 Node Name
+        \type node
+   A65, \field Outlet 61 Node Name
+        \type node
+   A66, \field Outlet 62 Node Name
+        \type node
+   A67, \field Outlet 63 Node Name
+        \type node
+   A68, \field Outlet 64 Node Name
+        \type node
+   A69, \field Outlet 65 Node Name
+        \type node
+   A70, \field Outlet 66 Node Name
+        \type node
+   A71, \field Outlet 67 Node Name
+        \type node
+   A72, \field Outlet 68 Node Name
+        \type node
+   A73, \field Outlet 69 Node Name
+        \type node
+   A74, \field Outlet 70 Node Name
+        \type node
+   A75, \field Outlet 71 Node Name
+        \type node
+   A76, \field Outlet 72 Node Name
+        \type node
+   A77, \field Outlet 73 Node Name
+        \type node
+   A78, \field Outlet 74 Node Name
+        \type node
+   A79, \field Outlet 75 Node Name
+        \type node
+   A80, \field Outlet 76 Node Name
+        \type node
+   A81, \field Outlet 77 Node Name
+        \type node
+   A82, \field Outlet 78 Node Name
+        \type node
+   A83, \field Outlet 79 Node Name
+        \type node
+   A84, \field Outlet 80 Node Name
+        \type node
+   A85, \field Outlet 81 Node Name
+        \type node
+   A86, \field Outlet 82 Node Name
+        \type node
+   A87, \field Outlet 83 Node Name
+        \type node
+   A88, \field Outlet 84 Node Name
+        \type node
+   A89, \field Outlet 85 Node Name
+        \type node
+   A90, \field Outlet 86 Node Name
+        \type node
+   A91, \field Outlet 87 Node Name
+        \type node
+   A92, \field Outlet 88 Node Name
+        \type node
+   A93, \field Outlet 89 Node Name
+        \type node
+   A94, \field Outlet 90 Node Name
+        \type node
+   A95, \field Outlet 91 Node Name
+        \type node
+   A96, \field Outlet 92 Node Name
+        \type node
+   A97, \field Outlet 93 Node Name
+        \type node
+   A98, \field Outlet 94 Node Name
+        \type node
+   A99, \field Outlet 95 Node Name
+         \type node
+   A100, \field Outlet 96 Node Name
+         \type node
+   A101, \field Outlet 97 Node Name
+         \type node
+   A102, \field Outlet 98 Node Name
+         \type node
+   A103, \field Outlet 99 Node Name
+         \type node
+   A104, \field Outlet 100 Node Name
+         \type node
+   A105,A106,A107,A108,A109,A110,A111,A112,A113,A114, \note fields as indicated
+   A115,A116,A117,A118,A119,A120,A121,A122,A123,A124, \note fields as indicated
+   A125,A126,A127,A128,A129,A130,A131,A132,A133,A134, \note fields as indicated
+   A135,A136,A137,A138,A139,A140,A141,A142,A143,A144, \note fields as indicated
+   A145,A146,A147,A148,A149,A150,A151,A152,A153,A154, \note fields as indicated
+   A155,A156,A157,A158,A159,A160,A161,A162,A163,A164, \note fields as indicated
+   A165,A166,A167,A168,A169,A170,A171,A172,A173,A174, \note fields as indicated
+   A175,A176,A177,A178,A179,A180,A181,A182,A183,A184, \note fields as indicated
+   A185,A186,A187,A188,A189,A190,A191,A192,A193,A194, \note fields as indicated
+   A195,A196,A197,A198,A199,A200,A201,A202,A203,A204, \note fields as indicated
+   A205,A206,A207,A208,A209,A210,A211,A212,A213,A214, \note fields as indicated
+   A215,A216,A217,A218,A219,A220,A221,A222,A223,A224, \note fields as indicated
+   A225,A226,A227,A228,A229,A230,A231,A232,A233,A234, \note fields as indicated
+   A235,A236,A237,A238,A239,A240,A241,A242,A243,A244, \note fields as indicated
+   A245,A246,A247,A248,A249,A250,A251,A252,A253,A254, \note fields as indicated
+   A255,A256,A257,A258,A259,A260,A261,A262,A263,A264, \note fields as indicated
+   A265,A266,A267,A268,A269,A270,A271,A272,A273,A274, \note fields as indicated
+   A275,A276,A277,A278,A279,A280,A281,A282,A283,A284, \note fields as indicated
+   A285,A286,A287,A288,A289,A290,A291,A292,A293,A294, \note fields as indicated
+   A295,A296,A297,A298,A299,A300,A301,A302,A303,A304, \note fields as indicated
+   A305,A306,A307,A308,A309,A310,A311,A312,A313,A314, \note fields as indicated
+   A315,A316,A317,A318,A319,A320,A321,A322,A323,A324, \note fields as indicated
+   A325,A326,A327,A328,A329,A330,A331,A332,A333,A334, \note fields as indicated
+   A335,A336,A337,A338,A339,A340,A341,A342,A343,A344, \note fields as indicated
+   A345,A346,A347,A348,A349,A350,A351,A352,A353,A354, \note fields as indicated
+   A355,A356,A357,A358,A359,A360,A361,A362,A363,A364, \note fields as indicated
+   A365,A366,A367,A368,A369,A370,A371,A372,A373,A374, \note fields as indicated
+   A375,A376,A377,A378,A379,A380,A381,A382,A383,A384, \note fields as indicated
+   A385,A386,A387,A388,A389,A390,A391,A392,A393,A394, \note fields as indicated
+   A395,A396,A397,A398,A399,A400,A401,A402,A403,A404, \note fields as indicated
+   A405,A406,A407,A408,A409,A410,A411,A412,A413,A414, \note fields as indicated
+   A415,A416,A417,A418,A419,A420,A421,A422,A423,A424, \note fields as indicated
+   A425,A426,A427,A428,A429,A430,A431,A432,A433,A434, \note fields as indicated
+   A435,A436,A437,A438,A439,A440,A441,A442,A443,A444, \note fields as indicated
+   A445,A446,A447,A448,A449,A450,A451,A452,A453,A454, \note fields as indicated
+   A455,A456,A457,A458,A459,A460,A461,A462,A463,A464, \note fields as indicated
+   A465,A466,A467,A468,A469,A470,A471,A472,A473,A474, \note fields as indicated
+   A475,A476,A477,A478,A479,A480,A481,A482,A483,A484, \note fields as indicated
+   A485,A486,A487,A488,A489,A490,A491,A492,A493,A494, \note fields as indicated
+   A495,A496,A497,A498,A499,A500,A501,A502,A503,A504; \note fields as indicated
+
+AirLoopHVAC:SupplyPath,
+       \extensible:2 Just duplicate last two fields and comments (changing numbering, please)
+       \memo A supply path can only contain AirLoopHVAC:ZoneSplitter and AirLoopHVAC:SupplyPlenum objects
+       \memo which may be in series or parallel.
+   A1, \field Name
+       \required-field
+   A2, \field Supply Air Path Inlet Node Name
+       \required-field
+       \type node
+   A3, \field Component 1 Object Type
+       \begin-extensible
+       \note Supply path components must be listed in flow order.
+       \required-field
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+   A4, \field Component 1 Name
+       \required-field
+       \type object-list
+       \object-list SupplyPathComponentNames
+   A5, \field Component 2 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+   A6, \field Component 2 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+   A7, \field Component 3 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+   A8, \field Component 3 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+   A9, \field Component 4 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A10, \field Component 4 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A11, \field Component 5 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A12, \field Component 5 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A13, \field Component 6 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A14, \field Component 6 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A15, \field Component 7 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A16, \field Component 7 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A17, \field Component 8 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A18, \field Component 8 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A19, \field Component 9 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A20, \field Component 9 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A21, \field Component 10 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A22, \field Component 10 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A23, \field Component 11 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A24, \field Component 11 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A25, \field Component 12 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A26, \field Component 12 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A27, \field Component 13 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A28, \field Component 13 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A29, \field Component 14 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A30, \field Component 14 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A31, \field Component 15 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A32, \field Component 15 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A33, \field Component 16 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A34, \field Component 16 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A35, \field Component 17 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A36, \field Component 17 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A37, \field Component 18 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A38, \field Component 18 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A39, \field Component 19 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A40, \field Component 19 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A41, \field Component 20 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A42, \field Component 20 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A43, \field Component 21 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A44, \field Component 21 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A45, \field Component 22 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A46, \field Component 22 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A47, \field Component 23 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A48, \field Component 23 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A49, \field Component 24 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A50, \field Component 24 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+  A51, \field Component 25 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneSplitter
+       \key AirLoopHVAC:SupplyPlenum
+  A52; \field Component 25 Name
+       \type object-list
+       \object-list SupplyPathComponentNames
+
+AirLoopHVAC:ZoneMixer,
+       \extensible:1 Just duplicate last field and comments (changing numbering, please)
+       \memo Mix N inlet air streams into one (currently 500 per air loop, but extensible). Node names cannot
+       \memo be duplicated within a single zone mixer (AirLoopHVAC:ZoneMixer) list.
+   A1, \field Name
+       \required-field
+       \reference ZoneMixers
+       \reference ReturnPathComponentNames
+   A2, \field Outlet Node Name
+       \required-field
+       \type node
+   A3, \field Inlet 1 Node Name
+       \begin-extensible
+       \required-field
+       \type node
+   A4, \field Inlet 2 Node Name
+       \type node
+   A5, \field Inlet 3 Node Name
+       \type node
+   A6, \field Inlet 4 Node Name
+       \type node
+   A7, \field Inlet 5 Node Name
+       \type node
+   A8, \field Inlet 6 Node Name
+       \type node
+   A9, \field Inlet 7 Node Name
+       \type node
+   A10, \field Inlet 8 Node Name
+        \type node
+   A11, \field Inlet 9 Node Name
+        \type node
+   A12, \field Inlet 10 Node Name
+        \type node
+   A13, \field Inlet 11 Node Name
+        \type node
+   A14, \field Inlet 12 Node Name
+        \type node
+   A15, \field Inlet 13 Node Name
+        \type node
+   A16, \field Inlet 14 Node Name
+        \type node
+   A17, \field Inlet 15 Node Name
+        \type node
+   A18, \field Inlet 16 Node Name
+        \type node
+   A19, \field Inlet 17 Node Name
+        \type node
+   A20, \field Inlet 18 Node Name
+        \type node
+   A21, \field Inlet 19 Node Name
+        \type node
+   A22, \field Inlet 20 Node Name
+        \type node
+   A23, \field Inlet 21 Node Name
+        \type node
+   A24, \field Inlet 22 Node Name
+        \type node
+   A25, \field Inlet 23 Node Name
+        \type node
+   A26, \field Inlet 24 Node Name
+        \type node
+   A27, \field Inlet 25 Node Name
+        \type node
+   A28, \field Inlet 26 Node Name
+        \type node
+   A29, \field Inlet 27 Node Name
+        \type node
+   A30, \field Inlet 28 Node Name
+        \type node
+   A31, \field Inlet 29 Node Name
+        \type node
+   A32, \field Inlet 30 Node Name
+        \type node
+   A33, \field Inlet 31 Node Name
+        \type node
+   A34, \field Inlet 32 Node Name
+        \type node
+   A35, \field Inlet 33 Node Name
+        \type node
+   A36, \field Inlet 34 Node Name
+        \type node
+   A37, \field Inlet 35 Node Name
+        \type node
+   A38, \field Inlet 36 Node Name
+        \type node
+   A39, \field Inlet 37 Node Name
+        \type node
+   A40, \field Inlet 38 Node Name
+        \type node
+   A41, \field Inlet 39 Node Name
+        \type node
+   A42, \field Inlet 40 Node Name
+        \type node
+   A43, \field Inlet 41 Node Name
+        \type node
+   A44, \field Inlet 42 Node Name
+        \type node
+   A45, \field Inlet 43 Node Name
+        \type node
+   A46, \field Inlet 44 Node Name
+        \type node
+   A47, \field Inlet 45 Node Name
+        \type node
+   A48, \field Inlet 46 Node Name
+        \type node
+   A49, \field Inlet 47 Node Name
+        \type node
+   A50, \field Inlet 48 Node Name
+        \type node
+   A51, \field Inlet 49 Node Name
+        \type node
+   A52, \field Inlet 50 Node Name
+        \type node
+   A53, \field Inlet 51 Node Name
+        \type node
+   A54, \field Inlet 52 Node Name
+        \type node
+   A55, \field Inlet 53 Node Name
+        \type node
+   A56, \field Inlet 54 Node Name
+        \type node
+   A57, \field Inlet 55 Node Name
+        \type node
+   A58, \field Inlet 56 Node Name
+        \type node
+   A59, \field Inlet 57 Node Name
+        \type node
+   A60, \field Inlet 58 Node Name
+        \type node
+   A61, \field Inlet 59 Node Name
+        \type node
+   A62, \field Inlet 60 Node Name
+        \type node
+   A63, \field Inlet 61 Node Name
+        \type node
+   A64, \field Inlet 62 Node Name
+        \type node
+   A65, \field Inlet 63 Node Name
+        \type node
+   A66, \field Inlet 64 Node Name
+        \type node
+   A67, \field Inlet 65 Node Name
+        \type node
+   A68, \field Inlet 66 Node Name
+        \type node
+   A69, \field Inlet 67 Node Name
+        \type node
+   A70, \field Inlet 68 Node Name
+        \type node
+   A71, \field Inlet 69 Node Name
+        \type node
+   A72, \field Inlet 70 Node Name
+        \type node
+   A73, \field Inlet 71 Node Name
+        \type node
+   A74, \field Inlet 72 Node Name
+        \type node
+   A75, \field Inlet 73 Node Name
+        \type node
+   A76, \field Inlet 74 Node Name
+        \type node
+   A77, \field Inlet 75 Node Name
+        \type node
+   A78, \field Inlet 76 Node Name
+        \type node
+   A79, \field Inlet 77 Node Name
+        \type node
+   A80, \field Inlet 78 Node Name
+        \type node
+   A81, \field Inlet 79 Node Name
+        \type node
+   A82, \field Inlet 80 Node Name
+        \type node
+   A83, \field Inlet 81 Node Name
+        \type node
+   A84, \field Inlet 82 Node Name
+        \type node
+   A85, \field Inlet 83 Node Name
+        \type node
+   A86, \field Inlet 84 Node Name
+        \type node
+   A87, \field Inlet 85 Node Name
+        \type node
+   A88, \field Inlet 86 Node Name
+        \type node
+   A89, \field Inlet 87 Node Name
+        \type node
+   A90, \field Inlet 88 Node Name
+        \type node
+   A91, \field Inlet 89 Node Name
+        \type node
+   A92, \field Inlet 90 Node Name
+        \type node
+   A93, \field Inlet 91 Node Name
+        \type node
+   A94, \field Inlet 92 Node Name
+        \type node
+   A95, \field Inlet 93 Node Name
+        \type node
+   A96, \field Inlet 94 Node Name
+        \type node
+   A97, \field Inlet 95 Node Name
+        \type node
+   A98, \field Inlet 96 Node Name
+        \type node
+   A99, \field Inlet 97 Node Name
+         \type node
+   A100, \field Inlet 98 Node Name
+         \type node
+   A101, \field Inlet 99 Node Name
+         \type node
+   A102, \field Inlet 100 Node Name
+         \type node
+   A103,A104,A105,A106,A107,A108,A109,A110,A111,A112, \note fields as indicated
+   A113,A114,A115,A116,A117,A118,A119,A120,A121,A122, \note fields as indicated
+   A123,A124,A125,A126,A127,A128,A129,A130,A131,A132, \note fields as indicated
+   A133,A134,A135,A136,A137,A138,A139,A140,A141,A142, \note fields as indicated
+   A143,A144,A145,A146,A147,A148,A149,A150,A151,A152, \note fields as indicated
+   A153,A154,A155,A156,A157,A158,A159,A160,A161,A162, \note fields as indicated
+   A163,A164,A165,A166,A167,A168,A169,A170,A171,A172, \note fields as indicated
+   A173,A174,A175,A176,A177,A178,A179,A180,A181,A182, \note fields as indicated
+   A183,A184,A185,A186,A187,A188,A189,A190,A191,A192, \note fields as indicated
+   A193,A194,A195,A196,A197,A198,A199,A200,A201,A202, \note fields as indicated
+   A203,A204,A205,A206,A207,A208,A209,A210,A211,A212, \note fields as indicated
+   A213,A214,A215,A216,A217,A218,A219,A220,A221,A222, \note fields as indicated
+   A223,A224,A225,A226,A227,A228,A229,A230,A231,A232, \note fields as indicated
+   A233,A234,A235,A236,A237,A238,A239,A240,A241,A242, \note fields as indicated
+   A243,A244,A245,A246,A247,A248,A249,A250,A251,A252, \note fields as indicated
+   A253,A254,A255,A256,A257,A258,A259,A260,A261,A262, \note fields as indicated
+   A263,A264,A265,A266,A267,A268,A269,A270,A271,A272, \note fields as indicated
+   A273,A274,A275,A276,A277,A278,A279,A280,A281,A282, \note fields as indicated
+   A283,A284,A285,A286,A287,A288,A289,A290,A291,A292, \note fields as indicated
+   A293,A294,A295,A296,A297,A298,A299,A300,A301,A302, \note fields as indicated
+   A303,A304,A305,A306,A307,A308,A309,A310,A311,A312, \note fields as indicated
+   A313,A314,A315,A316,A317,A318,A319,A320,A321,A322, \note fields as indicated
+   A323,A324,A325,A326,A327,A328,A329,A330,A331,A332, \note fields as indicated
+   A333,A334,A335,A336,A337,A338,A339,A340,A341,A342, \note fields as indicated
+   A343,A344,A345,A346,A347,A348,A349,A350,A351,A352, \note fields as indicated
+   A353,A354,A355,A356,A357,A358,A359,A360,A361,A362, \note fields as indicated
+   A363,A364,A365,A366,A367,A368,A369,A370,A371,A372, \note fields as indicated
+   A373,A374,A375,A376,A377,A378,A379,A380,A381,A382, \note fields as indicated
+   A383,A384,A385,A386,A387,A388,A389,A390,A391,A392, \note fields as indicated
+   A393,A394,A395,A396,A397,A398,A399,A400,A401,A402, \note fields as indicated
+   A403,A404,A405,A406,A407,A408,A409,A410,A411,A412, \note fields as indicated
+   A413,A414,A415,A416,A417,A418,A419,A420,A421,A422, \note fields as indicated
+   A423,A424,A425,A426,A427,A428,A429,A430,A431,A432, \note fields as indicated
+   A433,A434,A435,A436,A437,A438,A439,A440,A441,A442, \note fields as indicated
+   A443,A444,A445,A446,A447,A448,A449,A450,A451,A452, \note fields as indicated
+   A453,A454,A455,A456,A457,A458,A459,A460,A461,A462, \note fields as indicated
+   A463,A464,A465,A466,A467,A468,A469,A470,A471,A472, \note fields as indicated
+   A473,A474,A475,A476,A477,A478,A479,A480,A481,A482, \note fields as indicated
+   A483,A484,A485,A486,A487,A488,A489,A490,A491,A492, \note fields as indicated
+   A493,A494,A495,A496,A497,A498,A499,A500,A501,A502; \note fields as indicated
+
+AirLoopHVAC:ReturnPlenum,
+       \extensible:1 Just duplicate last field and comments (changing numbering, please)
+       \memo Connects N zone inlet air streams, through zone return plenum, to outlet
+       \memo (currently 500 per air loop)
+       \memo Node names cannot be duplicated within a single plenum list.
+   A1, \field Name
+       \required-field
+       \reference ReturnPathComponentNames
+   A2, \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+   A3, \field Zone Node Name
+       \required-field
+       \type node
+   A4, \field Outlet Node Name
+       \required-field
+       \type node
+   A5, \field Induced Air Outlet Node or NodeList Name
+       \type node
+   A6, \field Inlet 1 Node Name
+       \begin-extensible
+       \required-field
+       \type node
+   A7, \field Inlet 2 Node Name
+       \type node
+   A8, \field Inlet 3 Node Name
+       \type node
+   A9, \field Inlet 4 Node Name
+       \type node
+   A10,\field Inlet 5 Node Name
+       \type node
+   A11, \field Inlet 6 Node Name
+        \type node
+   A12, \field Inlet 7 Node Name
+        \type node
+   A13, \field Inlet 8 Node Name
+        \type node
+   A14, \field Inlet 9 Node Name
+        \type node
+   A15, \field Inlet 10 Node Name
+        \type node
+   A16, \field Inlet 11 Node Name
+        \type node
+   A17, \field Inlet 12 Node Name
+        \type node
+   A18, \field Inlet 13 Node Name
+        \type node
+   A19, \field Inlet 14 Node Name
+        \type node
+   A20, \field Inlet 15 Node Name
+        \type node
+   A21, \field Inlet 16 Node Name
+        \type node
+   A22, \field Inlet 17 Node Name
+        \type node
+   A23, \field Inlet 18 Node Name
+        \type node
+   A24, \field Inlet 19 Node Name
+        \type node
+   A25, \field Inlet 20 Node Name
+        \type node
+   A26, \field Inlet 21 Node Name
+        \type node
+   A27, \field Inlet 22 Node Name
+        \type node
+   A28, \field Inlet 23 Node Name
+        \type node
+   A29, \field Inlet 24 Node Name
+        \type node
+   A30, \field Inlet 25 Node Name
+        \type node
+   A31, \field Inlet 26 Node Name
+        \type node
+   A32, \field Inlet 27 Node Name
+        \type node
+   A33, \field Inlet 28 Node Name
+        \type node
+   A34, \field Inlet 29 Node Name
+        \type node
+   A35, \field Inlet 30 Node Name
+        \type node
+   A36, \field Inlet 31 Node Name
+        \type node
+   A37, \field Inlet 32 Node Name
+        \type node
+   A38, \field Inlet 33 Node Name
+        \type node
+   A39, \field Inlet 34 Node Name
+        \type node
+   A40, \field Inlet 35 Node Name
+        \type node
+   A41, \field Inlet 36 Node Name
+        \type node
+   A42, \field Inlet 37 Node Name
+        \type node
+   A43, \field Inlet 38 Node Name
+        \type node
+   A44, \field Inlet 39 Node Name
+        \type node
+   A45, \field Inlet 40 Node Name
+        \type node
+   A46, \field Inlet 41 Node Name
+        \type node
+   A47, \field Inlet 42 Node Name
+        \type node
+   A48, \field Inlet 43 Node Name
+        \type node
+   A49, \field Inlet 44 Node Name
+        \type node
+   A50, \field Inlet 45 Node Name
+        \type node
+   A51, \field Inlet 46 Node Name
+        \type node
+   A52, \field Inlet 47 Node Name
+        \type node
+   A53, \field Inlet 48 Node Name
+        \type node
+   A54, \field Inlet 49 Node Name
+        \type node
+   A55, \field Inlet 50 Node Name
+        \type node
+   A56, \field Inlet 51 Node Name
+        \type node
+   A57, \field Inlet 52 Node Name
+        \type node
+   A58, \field Inlet 53 Node Name
+        \type node
+   A59, \field Inlet 54 Node Name
+        \type node
+   A60, \field Inlet 55 Node Name
+        \type node
+   A61, \field Inlet 56 Node Name
+        \type node
+   A62, \field Inlet 57 Node Name
+        \type node
+   A63, \field Inlet 58 Node Name
+        \type node
+   A64, \field Inlet 59 Node Name
+        \type node
+   A65, \field Inlet 60 Node Name
+        \type node
+   A66, \field Inlet 61 Node Name
+        \type node
+   A67, \field Inlet 62 Node Name
+        \type node
+   A68, \field Inlet 63 Node Name
+        \type node
+   A69, \field Inlet 64 Node Name
+        \type node
+   A70, \field Inlet 65 Node Name
+        \type node
+   A71, \field Inlet 66 Node Name
+        \type node
+   A72, \field Inlet 67 Node Name
+        \type node
+   A73, \field Inlet 68 Node Name
+        \type node
+   A74, \field Inlet 69 Node Name
+        \type node
+   A75, \field Inlet 70 Node Name
+        \type node
+   A76, \field Inlet 71 Node Name
+        \type node
+   A77, \field Inlet 72 Node Name
+        \type node
+   A78, \field Inlet 73 Node Name
+        \type node
+   A79, \field Inlet 74 Node Name
+        \type node
+   A80, \field Inlet 75 Node Name
+        \type node
+   A81, \field Inlet 76 Node Name
+        \type node
+   A82, \field Inlet 77 Node Name
+        \type node
+   A83, \field Inlet 78 Node Name
+        \type node
+   A84, \field Inlet 79 Node Name
+        \type node
+   A85, \field Inlet 80 Node Name
+        \type node
+   A86, \field Inlet 81 Node Name
+        \type node
+   A87, \field Inlet 82 Node Name
+        \type node
+   A88, \field Inlet 83 Node Name
+        \type node
+   A89, \field Inlet 84 Node Name
+        \type node
+   A90, \field Inlet 85 Node Name
+        \type node
+   A91, \field Inlet 86 Node Name
+        \type node
+   A92, \field Inlet 87 Node Name
+        \type node
+   A93, \field Inlet 88 Node Name
+        \type node
+   A94, \field Inlet 89 Node Name
+        \type node
+   A95, \field Inlet 90 Node Name
+        \type node
+   A96, \field Inlet 91 Node Name
+        \type node
+   A97, \field Inlet 92 Node Name
+        \type node
+   A98, \field Inlet 93 Node Name
+        \type node
+   A99, \field Inlet 94 Node Name
+        \type node
+   A100, \field Inlet 95 Node Name
+         \type node
+   A101, \field Inlet 96 Node Name
+         \type node
+   A102, \field Inlet 97 Node Name
+         \type node
+   A103, \field Inlet 98 Node Name
+         \type node
+   A104, \field Inlet 99 Node Name
+         \type node
+   A105, \field Inlet 100 Node Name
+         \type node
+   A106,A107,A108,A109,A110,A111,A112,A113,A114,A115, \note fields as indicated
+   A116,A117,A118,A119,A120,A121,A122,A123,A124,A125, \note fields as indicated
+   A126,A127,A128,A129,A130,A131,A132,A133,A134,A135, \note fields as indicated
+   A136,A137,A138,A139,A140,A141,A142,A143,A144,A145, \note fields as indicated
+   A146,A147,A148,A149,A150,A151,A152,A153,A154,A155, \note fields as indicated
+   A156,A157,A158,A159,A160,A161,A162,A163,A164,A165, \note fields as indicated
+   A166,A167,A168,A169,A170,A171,A172,A173,A174,A175, \note fields as indicated
+   A176,A177,A178,A179,A180,A181,A182,A183,A184,A185, \note fields as indicated
+   A186,A187,A188,A189,A190,A191,A192,A193,A194,A195, \note fields as indicated
+   A196,A197,A198,A199,A200,A201,A202,A203,A204,A205, \note fields as indicated
+   A206,A207,A208,A209,A210,A211,A212,A213,A214,A215, \note fields as indicated
+   A216,A217,A218,A219,A220,A221,A222,A223,A224,A225, \note fields as indicated
+   A226,A227,A228,A229,A230,A231,A232,A233,A234,A235, \note fields as indicated
+   A236,A237,A238,A239,A240,A241,A242,A243,A244,A245, \note fields as indicated
+   A246,A247,A248,A249,A250,A251,A252,A253,A254,A255, \note fields as indicated
+   A256,A257,A258,A259,A260,A261,A262,A263,A264,A265, \note fields as indicated
+   A266,A267,A268,A269,A270,A271,A272,A273,A274,A275, \note fields as indicated
+   A276,A277,A278,A279,A280,A281,A282,A283,A284,A285, \note fields as indicated
+   A286,A287,A288,A289,A290,A291,A292,A293,A294,A295, \note fields as indicated
+   A296,A297,A298,A299,A300,A301,A302,A303,A304,A305, \note fields as indicated
+   A306,A307,A308,A309,A310,A311,A312,A313,A314,A315, \note fields as indicated
+   A316,A317,A318,A319,A320,A321,A322,A323,A324,A325, \note fields as indicated
+   A326,A327,A328,A329,A330,A331,A332,A333,A334,A335, \note fields as indicated
+   A336,A337,A338,A339,A340,A341,A342,A343,A344,A345, \note fields as indicated
+   A346,A347,A348,A349,A350,A351,A352,A353,A354,A355, \note fields as indicated
+   A356,A357,A358,A359,A360,A361,A362,A363,A364,A365, \note fields as indicated
+   A366,A367,A368,A369,A370,A371,A372,A373,A374,A375, \note fields as indicated
+   A376,A377,A378,A379,A380,A381,A382,A383,A384,A385, \note fields as indicated
+   A386,A387,A388,A389,A390,A391,A392,A393,A394,A395, \note fields as indicated
+   A396,A397,A398,A399,A400,A401,A402,A403,A404,A405, \note fields as indicated
+   A406,A407,A408,A409,A410,A411,A412,A413,A414,A415, \note fields as indicated
+   A416,A417,A418,A419,A420,A421,A422,A423,A424,A425, \note fields as indicated
+   A426,A427,A428,A429,A430,A431,A432,A433,A434,A435, \note fields as indicated
+   A436,A437,A438,A439,A440,A441,A442,A443,A444,A445, \note fields as indicated
+   A446,A447,A448,A449,A450,A451,A452,A453,A454,A455, \note fields as indicated
+   A456,A457,A458,A459,A460,A461,A462,A463,A464,A465, \note fields as indicated
+   A466,A467,A468,A469,A470,A471,A472,A473,A474,A475, \note fields as indicated
+   A476,A477,A478,A479,A480,A481,A482,A483,A484,A485, \note fields as indicated
+   A486,A487,A488,A489,A490,A491,A492,A493,A494,A495, \note fields as indicated
+   A496,A497,A498,A499,A500,A501,A502,A503,A504,A505; \note fields as indicated
+
+AirLoopHVAC:ReturnPath,
+       \extensible:2 Just duplicate last two fields and comments (changing numbering, please)
+       \memo A return air path can only contain one AirLoopHVAC:ZoneMixer
+       \memo and one or more AirLoopHVAC:ReturnPlenum objects.
+   A1, \field Name
+       \required-field
+   A2, \field Return Air Path Outlet Node Name
+       \required-field
+       \type node
+   A3, \field Component 1 Object Type
+       \begin-extensible
+       \required-field
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+   A4, \field Component 1 Name
+       \required-field
+       \type object-list
+       \object-list ReturnPathComponentNames
+   A5, \field Component 2 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+   A6, \field Component 2 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+   A7, \field Component 3 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+   A8, \field Component 3 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+   A9, \field Component 4 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A10, \field Component 4 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A11, \field Component 5 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A12, \field Component 5 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A13, \field Component 6 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A14, \field Component 6 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A15, \field Component 7 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A16, \field Component 7 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A17, \field Component 8 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A18, \field Component 8 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A19, \field Component 9 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A20, \field Component 9 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A21, \field Component 10 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A22, \field Component 10 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A23, \field Component 11 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A24, \field Component 11 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A25, \field Component 12 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A26, \field Component 12 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A27, \field Component 13 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A28, \field Component 13 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A29, \field Component 14 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A30, \field Component 14 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A31, \field Component 15 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A32, \field Component 15 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A33, \field Component 16 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A34, \field Component 16 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A35, \field Component 17 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A36, \field Component 17 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A37, \field Component 18 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A38, \field Component 18 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A39, \field Component 19 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A40, \field Component 19 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A41, \field Component 20 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A42, \field Component 20 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A43, \field Component 21 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A44, \field Component 21 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A45, \field Component 22 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A46, \field Component 22 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A47, \field Component 23 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A48, \field Component 23 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A49, \field Component 24 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A50, \field Component 24 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+  A51, \field Component 25 Object Type
+       \type choice
+       \key AirLoopHVAC:ZoneMixer
+       \key AirLoopHVAC:ReturnPlenum
+  A52; \field Component 25 Name
+       \type object-list
+       \object-list ReturnPathComponentNames
+
+AirLoopHVAC:DedicatedOutdoorAirSystem,
+       \extensible:1 Just duplicate last field and comments (changing numbering, please)
+       \min-fields 11
+       \memo Defines a central forced air system to provide dedicated outdoor air to multiple
+       \memo AirLoopHVACs.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference DOASAirLoops
+  A2 , \field AirLoopHVAC:OutdoorAirSystem Name
+       \note Enter the name of an AirLoopHVAC:OutdoorAirSystem object.
+       \type object-list
+       \object-list validBranchEquipmentNames
+  A3 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A4 , \field AirLoopHVAC:Mixer Name
+       \note Name of AirLoopHVAC:Mixer.
+       \object-list AirLoopHVACMixerNames
+       \required-field
+  A5 , \field AirLoopHVAC:Splitter Name
+       \note Name of AirLoopHVAC:Splitter.
+       \object-list AirLoopHVACSplitterNames
+       \required-field
+  N1 , \field Preheat Design Temperature
+       \required-field
+       \type real
+       \units C
+  N2 , \field Preheat Design Humidity Ratio
+       \required-field
+       \type real
+       \units kgWater/kgDryAir
+  N3 , \field Precool Design Temperature
+       \required-field
+       \type real
+       \units C
+  N4 , \field Precool Design Humidity Ratio
+       \required-field
+       \type real
+       \units kgWater/kgDryAir
+  N5 , \field Number of AirLoopHVAC
+       \required-field
+       \type integer
+       \note Enter the number of the AirLoopHAVC served by AirLoopHVAC:DedicatedOutdoorAirSystem
+  A6 , \field AirLoopHVAC 1 Name
+       \note The rest of fields are extensible. It requires AirLoopHVAC names served by
+       \note an AirLoopHVAC:DedicatedOutdoorAirSystem.
+       \begin-extensible
+       \type object-list
+       \object-list AirPrimaryLoops
+  A7 , \field AirLoopHVAC 2 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A8 , \field AirLoopHVAC 3 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A9 , \field AirLoopHVAC 4 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A10, \field AirLoopHVAC 5 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A11, \field AirLoopHVAC 6 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A12, \field AirLoopHVAC 7 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A13, \field AirLoopHVAC 8 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A14, \field AirLoopHVAC 9 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A15, \field AirLoopHVAC 10 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A16, \field AirLoopHVAC 11 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A17, \field AirLoopHVAC 12 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A18, \field AirLoopHVAC 13 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A19, \field AirLoopHVAC 14 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A20, \field AirLoopHVAC 15 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A21, \field AirLoopHVAC 16 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A22, \field AirLoopHVAC 17 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A23, \field AirLoopHVAC 18 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A24, \field AirLoopHVAC 19 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+  A25; \field AirLoopHVAC 20 Name
+       \type object-list
+       \object-list AirPrimaryLoops
+
+AirLoopHVAC:Mixer,
+       \extensible:1 - Just duplicate last field and comments (changing numbering, please)
+       \memo Mix N inlet air streams from Relief Air Stream Node in OutdoorAir:Mixer objects
+       \memo served by AirLoopHVAC objects listed in AirLoopHVAC:DedicatedOutdoorAirSystem into one
+       \memo (currently 10 as default, but extensible). Node names cannot
+       \memo be duplicated within a single mixer list.
+  A1 , \field Name
+       \required-field
+       \reference AirLoopHVACMixerNames
+  A2 , \field Outlet Node Name
+       \required-field
+       \type node
+  A3 , \field Inlet 1 Node Name
+       \begin-extensible
+       \required-field
+       \type node
+  A4 , \field Inlet 2 Node Name
+       \type node
+  A5 , \field Inlet 3 Node Name
+       \type node
+  A6 , \field Inlet 4 Node Name
+       \type node
+  A7 , \field Inlet 5 Node Name
+       \type node
+  A8 , \field Inlet 6 Node Name
+       \type node
+  A9 , \field Inlet 7 Node Name
+       \type node
+  A10, \field Inlet 8 Node Name
+       \type node
+  A11, \field Inlet 9 Node Name
+       \type node
+  A12, \field Inlet 10 Node Name
+       \type node
+  A13, \field Inlet 11 Node Name
+       \type node
+  A14, \field Inlet 12 Node Name
+       \type node
+  A15, \field Inlet 13 Node Name
+       \type node
+  A16, \field Inlet 14 Node Name
+       \type node
+  A17, \field Inlet 15 Node Name
+       \type node
+  A18, \field Inlet 16 Node Name
+       \type node
+  A19, \field Inlet 17 Node Name
+       \type node
+  A20, \field Inlet 18 Node Name
+       \type node
+  A21, \field Inlet 19 Node Name
+       \type node
+  A22, \field Inlet 20 Node Name
+       \type node
+  A23, \field Inlet 21 Node Name
+       \type node
+  A24, \field Inlet 22 Node Name
+       \type node
+  A25, \field Inlet 23 Node Name
+       \type node
+  A26, \field Inlet 24 Node Name
+       \type node
+  A27, \field Inlet 25 Node Name
+       \type node
+  A28, \field Inlet 26 Node Name
+       \type node
+  A29, \field Inlet 27 Node Name
+       \type node
+  A30, \field Inlet 28 Node Name
+       \type node
+  A31, \field Inlet 29 Node Name
+       \type node
+  A32, \field Inlet 30 Node Name
+       \type node
+  A33, \field Inlet 31 Node Name
+       \type node
+  A34, \field Inlet 32 Node Name
+       \type node
+  A35, \field Inlet 33 Node Name
+       \type node
+  A36, \field Inlet 34 Node Name
+       \type node
+  A37, \field Inlet 35 Node Name
+       \type node
+  A38, \field Inlet 36 Node Name
+       \type node
+  A39, \field Inlet 37 Node Name
+       \type node
+  A40, \field Inlet 38 Node Name
+       \type node
+  A41, \field Inlet 39 Node Name
+       \type node
+  A42, \field Inlet 40 Node Name
+       \type node
+  A43, \field Inlet 41 Node Name
+       \type node
+  A44, \field Inlet 42 Node Name
+       \type node
+  A45, \field Inlet 43 Node Name
+       \type node
+  A46, \field Inlet 44 Node Name
+       \type node
+  A47, \field Inlet 45 Node Name
+       \type node
+  A48, \field Inlet 46 Node Name
+       \type node
+  A49, \field Inlet 47 Node Name
+       \type node
+  A50, \field Inlet 48 Node Name
+       \type node
+  A51, \field Inlet 49 Node Name
+       \type node
+  A52; \field Inlet 50 Node Name
+       \type node
+
+AirLoopHVAC:Splitter,
+       \extensible:1 Just duplicate last field and comments (changing numbering, please)
+       \memo Split one air stream from AirLoopHVAC:DedicatedOutdoorAirSystem outlet node into N
+       \memo outlet streams (currently 10 as default, but extensible). Node names
+       \memo should be Outdoor Air Stream Node Name in OutdoorAir:Mixer objects served by
+       \memo AirLoopHVAC objects listed in AirLoopHVAC:DedicatedOutdoorAirSystem.
+  A1 , \field Name
+       \required-field
+       \reference AirLoopHVACSplitterNames
+  A2 , \field Inlet Node Name
+       \required-field
+       \type node
+  A3 , \field Outlet 1 Node Name
+       \begin-extensible
+       \required-field
+       \type node
+  A4 , \field Outlet 2 Node Name
+       \type node
+  A5 , \field Outlet 3 Node Name
+       \type node
+  A6 , \field Outlet 4 Node Name
+       \type node
+  A7 , \field Outlet 5 Node Name
+       \type node
+  A8 , \field Outlet 6 Node Name
+       \type node
+  A9 , \field Outlet 7 Node Name
+       \type node
+  A10, \field Outlet 8 Node Name
+       \type node
+  A11, \field Outlet 9 Node Name
+       \type node
+  A12, \field Outlet 10 Node Name
+       \type node
+  A13, \field Outlet 11 Node Name
+       \type node
+  A14, \field Outlet 12 Node Name
+       \type node
+  A15, \field Outlet 13 Node Name
+       \type node
+  A16, \field Outlet 14 Node Name
+       \type node
+  A17, \field Outlet 15 Node Name
+       \type node
+  A18, \field Outlet 16 Node Name
+       \type node
+  A19, \field Outlet 17 Node Name
+       \type node
+  A20, \field Outlet 18 Node Name
+       \type node
+  A21, \field Outlet 19 Node Name
+       \type node
+  A22, \field Outlet 20 Node Name
+       \type node
+  A23, \field Outlet 21 Node Name
+       \type node
+  A24, \field Outlet 22 Node Name
+       \type node
+  A25, \field Outlet 23 Node Name
+       \type node
+  A26, \field Outlet 24 Node Name
+       \type node
+  A27, \field Outlet 25 Node Name
+       \type node
+  A28, \field Outlet 26 Node Name
+       \type node
+  A29, \field Outlet 27 Node Name
+       \type node
+  A30, \field Outlet 28 Node Name
+       \type node
+  A31, \field Outlet 29 Node Name
+       \type node
+  A32, \field Outlet 30 Node Name
+       \type node
+  A33, \field Outlet 31 Node Name
+       \type node
+  A34, \field Outlet 32 Node Name
+       \type node
+  A35, \field Outlet 33 Node Name
+       \type node
+  A36, \field Outlet 34 Node Name
+       \type node
+  A37, \field Outlet 35 Node Name
+       \type node
+  A38, \field Outlet 36 Node Name
+       \type node
+  A39, \field Outlet 37 Node Name
+       \type node
+  A40, \field Outlet 38 Node Name
+       \type node
+  A41, \field Outlet 39 Node Name
+       \type node
+  A42, \field Outlet 40 Node Name
+       \type node
+  A43, \field Outlet 41 Node Name
+       \type node
+  A44, \field Outlet 42 Node Name
+       \type node
+  A45, \field Outlet 43 Node Name
+       \type node
+  A46, \field Outlet 44 Node Name
+       \type node
+  A47, \field Outlet 45 Node Name
+       \type node
+  A48, \field Outlet 46 Node Name
+       \type node
+  A49, \field Outlet 47 Node Name
+       \type node
+  A50, \field Outlet 48 Node Name
+       \type node
+  A51, \field Outlet 49 Node Name
+       \type node
+  A52; \field Outlet 50 Node Name
+       \type node
+
+\group Node-Branch Management
+
+Branch,
+        \extensible:4 Just duplicate last 4 fields and comments (changing numbering, please)
+        \memo List components on the branch in simulation and connection order
+        \memo Note: this should NOT include splitters or mixers which define
+        \memo endpoints of branches
+   A1,  \field Name
+        \required-field
+        \reference Branches
+   A2,  \field Pressure Drop Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note Optional field to include this branch in plant pressure drop calculations
+        \note This field is only relevant for branches in PlantLoops and CondenserLoops
+        \note Air loops do not account for pressure drop using this field
+        \note Valid curve types are: Curve:Functional:PressureDrop or
+        \note one of Curve:{Linear,Quadratic,Cubic,Exponent}')
+   A3,  \field Component 1 Object Type
+        \begin-extensible
+        \required-field
+        \type object-list
+        \object-list validBranchEquipmentTypes
+   A4,  \field Component 1 Name
+        \required-field
+        \type object-list
+        \object-list validBranchEquipmentNames
+   A5,  \field Component 1 Inlet Node Name
+        \required-field
+        \type node
+   A6,  \field Component 1 Outlet Node Name
+        \required-field
+        \type node
+   A7,  \field Component 2 Object Type
+        \type object-list
+        \object-list validBranchEquipmentTypes
+   A8,  \field Component 2 Name
+        \type object-list
+        \object-list validBranchEquipmentNames
+   A9,  \field Component 2 Inlet Node Name
+        \type node
+   A10, \field Component 2 Outlet Node Name
+        \type node
+   A11, \field Component 3 Object Type
+        \type object-list
+        \object-list validBranchEquipmentTypes
+   A12, \field Component 3 Name
+        \type object-list
+        \object-list validBranchEquipmentNames
+   A13, \field Component 3 Inlet Node Name
+        \type node
+   A14, \field Component 3 Outlet Node Name
+        \type node
+   A15, \field Component 4 Object Type
+        \type object-list
+        \object-list validBranchEquipmentTypes
+   A16, \field Component 4 Name
+        \type object-list
+        \object-list validBranchEquipmentNames
+   A17, \field Component 4 Inlet Node Name
+        \type node
+   A18, \field Component 4 Outlet Node Name
+        \type node
+   A19, \field Component 5 Object Type
+        \type object-list
+        \object-list validBranchEquipmentTypes
+   A20, \field Component 5 Name
+        \type object-list
+        \object-list validBranchEquipmentNames
+   A21, \field Component 5 Inlet Node Name
+        \type node
+   A22, \field Component 5 Outlet Node Name
+        \type node
+   A23, \field Component 6 Object Type
+        \type object-list
+        \object-list validBranchEquipmentTypes
+   A24, \field Component 6 Name
+        \type object-list
+        \object-list validBranchEquipmentNames
+   A25, \field Component 6 Inlet Node Name
+        \type node
+   A26, \field Component 6 Outlet Node Name
+        \type node
+   A27, \field Component 7 Object Type
+        \type object-list
+        \object-list validBranchEquipmentTypes
+   A28, \field Component 7 Name
+        \type object-list
+        \object-list validBranchEquipmentNames
+   A29, \field Component 7 Inlet Node Name
+        \type node
+   A30, \field Component 7 Outlet Node Name
+        \type node
+   A31, \field Component 8 Object Type
+        \type object-list
+        \object-list validBranchEquipmentTypes
+   A32, \field Component 8 Name
+        \type object-list
+        \object-list validBranchEquipmentNames
+   A33, \field Component 8 Inlet Node Name
+        \type node
+   A34, \field Component 8 Outlet Node Name
+        \type node
+   A35, \field Component 9 Object Type
+        \type object-list
+        \object-list validBranchEquipmentTypes
+   A36, \field Component 9 Name
+        \type object-list
+        \object-list validBranchEquipmentNames
+   A37, \field Component 9 Inlet Node Name
+        \type node
+   A38, \field Component 9 Outlet Node Name
+        \type node
+   A39, \field Component 10 Object Type
+        \type object-list
+        \object-list validBranchEquipmentTypes
+   A40, \field Component 10 Name
+        \type object-list
+        \object-list validBranchEquipmentNames
+   A41, \field Component 10 Inlet Node Name
+        \type node
+   A42, \field Component 10 Outlet Node Name
+        \type node
+   A43, \field Component 11 Object Type
+        \type object-list
+        \object-list validBranchEquipmentTypes
+   A44, \field Component 11 Name
+        \type object-list
+        \object-list validBranchEquipmentNames
+   A45, \field Component 11 Inlet Node Name
+        \type node
+   A46; \field Component 11 Outlet Node Name
+        \type node
+
+BranchList,
+ \extensible:1 Just duplicate last field and comments (changing numbering, please)
+ \memo Branches MUST be listed in Flow order: Inlet branch, then parallel branches, then Outlet branch.
+ \memo Branches are simulated in the order listed. Branch names cannot be duplicated within a single branch list.
+   A1,  \field Name
+       \required-field
+       \reference BranchLists
+   A2, \field Branch 1 Name
+       \begin-extensible
+       \required-field
+       \type object-list
+       \object-list Branches
+   A3, \field Branch 2 Name
+       \type object-list
+       \object-list Branches
+   A4, \field Branch 3 Name
+       \type object-list
+       \object-list Branches
+   A5, \field Branch 4 Name
+       \type object-list
+       \object-list Branches
+   A6, \field Branch 5 Name
+       \type object-list
+       \object-list Branches
+   A7, \field Branch 6 Name
+       \type object-list
+       \object-list Branches
+   A8, \field Branch 7 Name
+       \type object-list
+       \object-list Branches
+   A9, \field Branch 8 Name
+       \type object-list
+       \object-list Branches
+   A10, \field Branch 9 Name
+        \type object-list
+        \object-list Branches
+   A11, \field Branch 10 Name
+        \type object-list
+        \object-list Branches
+   A12, \field Branch 11 Name
+        \type object-list
+        \object-list Branches
+   A13, \field Branch 12 Name
+       \type object-list
+        \object-list Branches
+   A14, \field Branch 13 Name
+        \type object-list
+        \object-list Branches
+   A15, \field Branch 14 Name
+        \type object-list
+        \object-list Branches
+   A16, \field Branch 15 Name
+        \type object-list
+        \object-list Branches
+   A17, \field Branch 16 Name
+        \type object-list
+        \object-list Branches
+   A18, \field Branch 17 Name
+        \type object-list
+        \object-list Branches
+   A19, \field Branch 18 Name
+        \type object-list
+        \object-list Branches
+   A20, \field Branch 19 Name
+        \type object-list
+        \object-list Branches
+   A21, \field Branch 20 Name
+        \type object-list
+        \object-list Branches
+   A22, \field Branch 21 Name
+        \type object-list
+        \object-list Branches
+   A23, \field Branch 22 Name
+        \type object-list
+        \object-list Branches
+   A24, \field Branch 23 Name
+        \type object-list
+        \object-list Branches
+   A25, \field Branch 24 Name
+        \type object-list
+        \object-list Branches
+   A26, \field Branch 25 Name
+        \type object-list
+        \object-list Branches
+   A27, \field Branch 26 Name
+        \type object-list
+        \object-list Branches
+   A28, \field Branch 27 Name
+        \type object-list
+        \object-list Branches
+   A29, \field Branch 28 Name
+        \type object-list
+        \object-list Branches
+   A30, \field Branch 29 Name
+        \type object-list
+        \object-list Branches
+   A31, \field Branch 30 Name
+        \type object-list
+        \object-list Branches
+   A32, \field Branch 31 Name
+        \type object-list
+        \object-list Branches
+   A33, \field Branch 32 Name
+        \type object-list
+        \object-list Branches
+   A34, \field Branch 33 Name
+        \type object-list
+        \object-list Branches
+   A35, \field Branch 34 Name
+        \type object-list
+        \object-list Branches
+   A36, \field Branch 35 Name
+        \type object-list
+        \object-list Branches
+   A37, \field Branch 36 Name
+        \type object-list
+        \object-list Branches
+   A38, \field Branch 37 Name
+        \type object-list
+        \object-list Branches
+   A39, \field Branch 38 Name
+        \type object-list
+        \object-list Branches
+   A40, \field Branch 39 Name
+        \type object-list
+        \object-list Branches
+   A41, \field Branch 40 Name
+        \type object-list
+        \object-list Branches
+   A42, \field Branch 41 Name
+        \type object-list
+        \object-list Branches
+   A43, \field Branch 42 Name
+        \type object-list
+        \object-list Branches
+   A44, \field Branch 43 Name
+        \type object-list
+        \object-list Branches
+   A45, \field Branch 44 Name
+        \type object-list
+        \object-list Branches
+   A46, \field Branch 45 Name
+        \type object-list
+        \object-list Branches
+   A47, \field Branch 46 Name
+        \type object-list
+        \object-list Branches
+   A48, \field Branch 47 Name
+        \type object-list
+        \object-list Branches
+   A49, \field Branch 48 Name
+        \type object-list
+        \object-list Branches
+   A50, \field Branch 49 Name
+        \type object-list
+        \object-list Branches
+   A51, \field Branch 50 Name
+        \type object-list
+        \object-list Branches
+   A52, \field Branch 51 Name
+        \type object-list
+        \object-list Branches
+   A53, \field Branch 52 Name
+        \type object-list
+        \object-list Branches
+   A54, \field Branch 53 Name
+        \type object-list
+        \object-list Branches
+   A55, \field Branch 54 Name
+        \type object-list
+        \object-list Branches
+   A56, \field Branch 55 Name
+        \type object-list
+        \object-list Branches
+   A57, \field Branch 56 Name
+        \type object-list
+        \object-list Branches
+   A58, \field Branch 57 Name
+        \type object-list
+        \object-list Branches
+   A59, \field Branch 58 Name
+        \type object-list
+        \object-list Branches
+   A60, \field Branch 59 Name
+        \type object-list
+        \object-list Branches
+   A61, \field Branch 60 Name
+        \type object-list
+        \object-list Branches
+   A62, \field Branch 61 Name
+        \type object-list
+        \object-list Branches
+   A63, \field Branch 62 Name
+        \type object-list
+        \object-list Branches
+   A64, \field Branch 63 Name
+        \type object-list
+        \object-list Branches
+   A65, \field Branch 64 Name
+        \type object-list
+        \object-list Branches
+   A66, \field Branch 65 Name
+        \type object-list
+        \object-list Branches
+   A67, \field Branch 66 Name
+        \type object-list
+        \object-list Branches
+   A68, \field Branch 67 Name
+        \type object-list
+        \object-list Branches
+   A69, \field Branch 68 Name
+        \type object-list
+        \object-list Branches
+   A70, \field Branch 69 Name
+        \type object-list
+        \object-list Branches
+   A71, \field Branch 70 Name
+        \type object-list
+        \object-list Branches
+   A72, \field Branch 71 Name
+        \type object-list
+        \object-list Branches
+   A73, \field Branch 72 Name
+        \type object-list
+        \object-list Branches
+   A74, \field Branch 73 Name
+        \type object-list
+        \object-list Branches
+   A75, \field Branch 74 Name
+        \type object-list
+        \object-list Branches
+   A76, \field Branch 75 Name
+        \type object-list
+        \object-list Branches
+   A77, \field Branch 76 Name
+        \type object-list
+        \object-list Branches
+   A78, \field Branch 77 Name
+        \type object-list
+        \object-list Branches
+   A79, \field Branch 78 Name
+        \type object-list
+        \object-list Branches
+   A80, \field Branch 79 Name
+        \type object-list
+        \object-list Branches
+   A81, \field Branch 80 Name
+        \type object-list
+        \object-list Branches
+   A82, \field Branch 81 Name
+        \type object-list
+        \object-list Branches
+   A83, \field Branch 82 Name
+        \type object-list
+        \object-list Branches
+   A84, \field Branch 83 Name
+        \type object-list
+        \object-list Branches
+   A85, \field Branch 84 Name
+        \type object-list
+        \object-list Branches
+   A86, \field Branch 85 Name
+        \type object-list
+        \object-list Branches
+   A87, \field Branch 86 Name
+        \type object-list
+        \object-list Branches
+   A88, \field Branch 87 Name
+        \type object-list
+        \object-list Branches
+   A89, \field Branch 88 Name
+        \type object-list
+        \object-list Branches
+   A90, \field Branch 89 Name
+        \type object-list
+        \object-list Branches
+   A91, \field Branch 90 Name
+        \type object-list
+        \object-list Branches
+   A92, \field Branch 91 Name
+        \type object-list
+        \object-list Branches
+   A93, \field Branch 92 Name
+        \type object-list
+        \object-list Branches
+   A94, \field Branch 93 Name
+        \type object-list
+        \object-list Branches
+   A95, \field Branch 94 Name
+        \type object-list
+        \object-list Branches
+   A96, \field Branch 95 Name
+        \type object-list
+        \object-list Branches
+   A97, \field Branch 96 Name
+        \type object-list
+        \object-list Branches
+   A98, \field Branch 97 Name
+        \type object-list
+        \object-list Branches
+   A99, \field Branch 98 Name
+        \type object-list
+        \object-list Branches
+  A100, \field Branch 99 Name
+        \type object-list
+        \object-list Branches
+  A101, \field Branch 100 Name
+        \type object-list
+        \object-list Branches
+  A102,A103,A104,A105,A106,A107,A108,A109,A110,A111, \note fields as indicated
+  A112,A113,A114,A115,A116,A117,A118,A119,A120,A121, \note fields as indicated
+  A122,A123,A124,A125,A126,A127,A128,A129,A130,A131, \note fields as indicated
+  A132,A133,A134,A135,A136,A137,A138,A139,A140,A141, \note fields as indicated
+  A142,A143,A144,A145,A146,A147,A148,A149,A150,A151, \note fields as indicated
+  A152,A153,A154,A155,A156,A157,A158,A159,A160,A161, \note fields as indicated
+  A162,A163,A164,A165,A166,A167,A168,A169,A170,A171, \note fields as indicated
+  A172,A173,A174,A175,A176,A177,A178,A179,A180,A181, \note fields as indicated
+  A182,A183,A184,A185,A186,A187,A188,A189,A190,A191, \note fields as indicated
+  A192,A193,A194,A195,A196,A197,A198,A199,A200,A201, \note fields as indicated
+  A202,A203,A204,A205,A206,A207,A208,A209,A210,A211, \note fields as indicated
+  A212,A213,A214,A215,A216,A217,A218,A219,A220,A221, \note fields as indicated
+  A222,A223,A224,A225,A226,A227,A228,A229,A230,A231, \note fields as indicated
+  A232,A233,A234,A235,A236,A237,A238,A239,A240,A241, \note fields as indicated
+  A242,A243,A244,A245,A246,A247,A248,A249,A250,A251, \note fields as indicated
+  A252,A253,A254,A255,A256,A257,A258,A259,A260,A261, \note fields as indicated
+  A262,A263,A264,A265,A266,A267,A268,A269,A270,A271, \note fields as indicated
+  A272,A273,A274,A275,A276,A277,A278,A279,A280,A281, \note fields as indicated
+  A282,A283,A284,A285,A286,A287,A288,A289,A290,A291, \note fields as indicated
+  A292,A293,A294,A295,A296,A297,A298,A299,A300,A301, \note fields as indicated
+  A302,A303,A304,A305,A306,A307,A308,A309,A310,A311, \note fields as indicated
+  A312,A313,A314,A315,A316,A317,A318,A319,A320,A321, \note fields as indicated
+  A322,A323,A324,A325,A326,A327,A328,A329,A330,A331, \note fields as indicated
+  A332,A333,A334,A335,A336,A337,A338,A339,A340,A341, \note fields as indicated
+  A342,A343,A344,A345,A346,A347,A348,A349,A350,A351, \note fields as indicated
+  A352,A353,A354,A355,A356,A357,A358,A359,A360,A361, \note fields as indicated
+  A362,A363,A364,A365,A366,A367,A368,A369,A370,A371, \note fields as indicated
+  A372,A373,A374,A375,A376,A377,A378,A379,A380,A381, \note fields as indicated
+  A382,A383,A384,A385,A386,A387,A388,A389,A390,A391, \note fields as indicated
+  A392,A393,A394,A395,A396,A397,A398,A399,A400,A401, \note fields as indicated
+  A402,A403,A404,A405,A406,A407,A408,A409,A410,A411, \note fields as indicated
+  A412,A413,A414,A415,A416,A417,A418,A419,A420,A421, \note fields as indicated
+  A422,A423,A424,A425,A426,A427,A428,A429,A430,A431, \note fields as indicated
+  A432,A433,A434,A435,A436,A437,A438,A439,A440,A441, \note fields as indicated
+  A442,A443,A444,A445,A446,A447,A448,A449,A450,A451, \note fields as indicated
+  A452,A453,A454,A455,A456,A457,A458,A459,A460,A461, \note fields as indicated
+  A462,A463,A464,A465,A466,A467,A468,A469,A470,A471, \note fields as indicated
+  A472,A473,A474,A475,A476,A477,A478,A479,A480,A481, \note fields as indicated
+  A482,A483,A484,A485,A486,A487,A488,A489,A490,A491, \note fields as indicated
+  A492,A493,A494,A495,A496,A497,A498,A499,A500,A501; \note fields as indicated
+
+Connector:Splitter,
+  \min-fields 3
+       \extensible:1 Just duplicate last field and comments (changing numbering, please)
+       \memo Split one air/water stream into N outlet streams. Branch names cannot be duplicated
+       \memo within a single Splitter list.
+   A1, \field Name
+        \required-field
+        \reference PlantConnectors
+   A2, \field Inlet Branch Name
+        \required-field
+        \type object-list
+        \object-list Branches
+   A3, \field Outlet Branch 1 Name
+        \begin-extensible
+        \required-field
+        \type object-list
+        \object-list Branches
+   A4, \field Outlet Branch 2 Name
+        \type object-list
+        \object-list Branches
+   A5, \field Outlet Branch 3 Name
+        \type object-list
+        \object-list Branches
+   A6, \field Outlet Branch 4 Name
+        \type object-list
+        \object-list Branches
+   A7, \field Outlet Branch 5 Name
+        \type object-list
+        \object-list Branches
+   A8, \field Outlet Branch 6 Name
+        \type object-list
+        \object-list Branches
+   A9, \field Outlet Branch 7 Name
+        \type object-list
+        \object-list Branches
+   A10, \field Outlet Branch 8 Name
+        \type object-list
+        \object-list Branches
+   A11, \field Outlet Branch 9 Name
+        \type object-list
+        \object-list Branches
+   A12, \field Outlet Branch 10 Name
+        \type object-list
+        \object-list Branches
+   A13, \field Outlet Branch 11 Name
+        \type object-list
+        \object-list Branches
+   A14, \field Outlet Branch 12 Name
+        \type object-list
+        \object-list Branches
+   A15, \field Outlet Branch 13 Name
+        \type object-list
+        \object-list Branches
+   A16, \field Outlet Branch 14 Name
+        \type object-list
+        \object-list Branches
+   A17, \field Outlet Branch 15 Name
+        \type object-list
+        \object-list Branches
+   A18, \field Outlet Branch 16 Name
+        \type object-list
+        \object-list Branches
+   A19, \field Outlet Branch 17 Name
+        \type object-list
+        \object-list Branches
+   A20, \field Outlet Branch 18 Name
+        \type object-list
+        \object-list Branches
+   A21, \field Outlet Branch 19 Name
+        \type object-list
+        \object-list Branches
+   A22, \field Outlet Branch 20 Name
+        \type object-list
+        \object-list Branches
+   A23, \field Outlet Branch 21 Name
+        \type object-list
+        \object-list Branches
+   A24, \field Outlet Branch 22 Name
+        \type object-list
+        \object-list Branches
+   A25, \field Outlet Branch 23 Name
+        \type object-list
+        \object-list Branches
+   A26, \field Outlet Branch 24 Name
+        \type object-list
+        \object-list Branches
+   A27, \field Outlet Branch 25 Name
+        \type object-list
+        \object-list Branches
+   A28, \field Outlet Branch 26 Name
+        \type object-list
+        \object-list Branches
+   A29, \field Outlet Branch 27 Name
+        \type object-list
+        \object-list Branches
+   A30, \field Outlet Branch 28 Name
+        \type object-list
+        \object-list Branches
+   A31, \field Outlet Branch 29 Name
+        \type object-list
+        \object-list Branches
+   A32, \field Outlet Branch 30 Name
+        \type object-list
+        \object-list Branches
+   A33, \field Outlet Branch 31 Name
+        \type object-list
+        \object-list Branches
+   A34, \field Outlet Branch 32 Name
+        \type object-list
+        \object-list Branches
+   A35, \field Outlet Branch 33 Name
+        \type object-list
+        \object-list Branches
+   A36, \field Outlet Branch 34 Name
+        \type object-list
+        \object-list Branches
+   A37, \field Outlet Branch 35 Name
+        \type object-list
+        \object-list Branches
+   A38, \field Outlet Branch 36 Name
+        \type object-list
+        \object-list Branches
+   A39, \field Outlet Branch 37 Name
+        \type object-list
+        \object-list Branches
+   A40, \field Outlet Branch 38 Name
+        \type object-list
+        \object-list Branches
+   A41, \field Outlet Branch 39 Name
+        \type object-list
+        \object-list Branches
+   A42, \field Outlet Branch 40 Name
+        \type object-list
+        \object-list Branches
+   A43, \field Outlet Branch 41 Name
+        \type object-list
+        \object-list Branches
+   A44, \field Outlet Branch 42 Name
+        \type object-list
+        \object-list Branches
+   A45, \field Outlet Branch 43 Name
+        \type object-list
+        \object-list Branches
+   A46, \field Outlet Branch 44 Name
+        \type object-list
+        \object-list Branches
+   A47, \field Outlet Branch 45 Name
+        \type object-list
+        \object-list Branches
+   A48, \field Outlet Branch 46 Name
+        \type object-list
+        \object-list Branches
+   A49, \field Outlet Branch 47 Name
+        \type object-list
+        \object-list Branches
+   A50, \field Outlet Branch 48 Name
+        \type object-list
+        \object-list Branches
+   A51, \field Outlet Branch 49 Name
+        \type object-list
+        \object-list Branches
+   A52, \field Outlet Branch 50 Name
+        \type object-list
+        \object-list Branches
+   A53, \field Outlet Branch 51 Name
+        \type object-list
+        \object-list Branches
+   A54, \field Outlet Branch 52 Name
+        \type object-list
+        \object-list Branches
+   A55, \field Outlet Branch 53 Name
+        \type object-list
+        \object-list Branches
+   A56, \field Outlet Branch 54 Name
+        \type object-list
+        \object-list Branches
+   A57, \field Outlet Branch 55 Name
+        \type object-list
+        \object-list Branches
+   A58, \field Outlet Branch 56 Name
+        \type object-list
+        \object-list Branches
+   A59, \field Outlet Branch 57 Name
+        \type object-list
+        \object-list Branches
+   A60, \field Outlet Branch 58 Name
+        \type object-list
+        \object-list Branches
+   A61, \field Outlet Branch 59 Name
+        \type object-list
+        \object-list Branches
+   A62, \field Outlet Branch 60 Name
+        \type object-list
+        \object-list Branches
+   A63, \field Outlet Branch 61 Name
+        \type object-list
+        \object-list Branches
+   A64, \field Outlet Branch 62 Name
+        \type object-list
+        \object-list Branches
+   A65, \field Outlet Branch 63 Name
+        \type object-list
+        \object-list Branches
+   A66, \field Outlet Branch 64 Name
+        \type object-list
+        \object-list Branches
+   A67, \field Outlet Branch 65 Name
+        \type object-list
+        \object-list Branches
+   A68, \field Outlet Branch 66 Name
+        \type object-list
+        \object-list Branches
+   A69, \field Outlet Branch 67 Name
+        \type object-list
+        \object-list Branches
+   A70, \field Outlet Branch 68 Name
+        \type object-list
+        \object-list Branches
+   A71, \field Outlet Branch 69 Name
+        \type object-list
+        \object-list Branches
+   A72, \field Outlet Branch 70 Name
+        \type object-list
+        \object-list Branches
+   A73, \field Outlet Branch 71 Name
+        \type object-list
+        \object-list Branches
+   A74, \field Outlet Branch 72 Name
+        \type object-list
+        \object-list Branches
+   A75, \field Outlet Branch 73 Name
+        \type object-list
+        \object-list Branches
+   A76, \field Outlet Branch 74 Name
+        \type object-list
+        \object-list Branches
+   A77, \field Outlet Branch 75 Name
+        \type object-list
+        \object-list Branches
+   A78, \field Outlet Branch 76 Name
+        \type object-list
+        \object-list Branches
+   A79, \field Outlet Branch 77 Name
+        \type object-list
+        \object-list Branches
+   A80, \field Outlet Branch 78 Name
+        \type object-list
+        \object-list Branches
+   A81, \field Outlet Branch 79 Name
+        \type object-list
+        \object-list Branches
+   A82, \field Outlet Branch 80 Name
+        \type object-list
+        \object-list Branches
+   A83, \field Outlet Branch 81 Name
+        \type object-list
+        \object-list Branches
+   A84, \field Outlet Branch 82 Name
+        \type object-list
+        \object-list Branches
+   A85, \field Outlet Branch 83 Name
+        \type object-list
+        \object-list Branches
+   A86, \field Outlet Branch 84 Name
+        \type object-list
+        \object-list Branches
+   A87, \field Outlet Branch 85 Name
+        \type object-list
+        \object-list Branches
+   A88, \field Outlet Branch 86 Name
+        \type object-list
+        \object-list Branches
+   A89, \field Outlet Branch 87 Name
+        \type object-list
+        \object-list Branches
+   A90, \field Outlet Branch 88 Name
+        \type object-list
+        \object-list Branches
+   A91, \field Outlet Branch 89 Name
+        \type object-list
+        \object-list Branches
+   A92, \field Outlet Branch 90 Name
+        \type object-list
+        \object-list Branches
+   A93, \field Outlet Branch 91 Name
+        \type object-list
+        \object-list Branches
+   A94, \field Outlet Branch 92 Name
+        \type object-list
+        \object-list Branches
+   A95, \field Outlet Branch 93 Name
+        \type object-list
+        \object-list Branches
+   A96, \field Outlet Branch 94 Name
+        \type object-list
+        \object-list Branches
+   A97, \field Outlet Branch 95 Name
+        \type object-list
+        \object-list Branches
+   A98, \field Outlet Branch 96 Name
+        \type object-list
+        \object-list Branches
+   A99, \field Outlet Branch 97 Name
+        \type object-list
+        \object-list Branches
+  A100, \field Outlet Branch 98 Name
+        \type object-list
+        \object-list Branches
+  A101, \field Outlet Branch 99 Name
+        \type object-list
+        \object-list Branches
+  A102, \field Outlet Branch 100 Name
+        \type object-list
+        \object-list Branches
+  A103,A104,A105,A106,A107,A108,A109,A110,A111,A112, \note fields as indicated
+  A113,A114,A115,A116,A117,A118,A119,A120,A121,A122, \note fields as indicated
+  A123,A124,A125,A126,A127,A128,A129,A130,A131,A132, \note fields as indicated
+  A133,A134,A135,A136,A137,A138,A139,A140,A141,A142, \note fields as indicated
+  A143,A144,A145,A146,A147,A148,A149,A150,A151,A152, \note fields as indicated
+  A153,A154,A155,A156,A157,A158,A159,A160,A161,A162, \note fields as indicated
+  A163,A164,A165,A166,A167,A168,A169,A170,A171,A172, \note fields as indicated
+  A173,A174,A175,A176,A177,A178,A179,A180,A181,A182, \note fields as indicated
+  A183,A184,A185,A186,A187,A188,A189,A190,A191,A192, \note fields as indicated
+  A193,A194,A195,A196,A197,A198,A199,A200,A201,A202, \note fields as indicated
+  A203,A204,A205,A206,A207,A208,A209,A210,A211,A212, \note fields as indicated
+  A213,A214,A215,A216,A217,A218,A219,A220,A221,A222, \note fields as indicated
+  A223,A224,A225,A226,A227,A228,A229,A230,A231,A232, \note fields as indicated
+  A233,A234,A235,A236,A237,A238,A239,A240,A241,A242, \note fields as indicated
+  A243,A244,A245,A246,A247,A248,A249,A250,A251,A252, \note fields as indicated
+  A253,A254,A255,A256,A257,A258,A259,A260,A261,A262, \note fields as indicated
+  A263,A264,A265,A266,A267,A268,A269,A270,A271,A272, \note fields as indicated
+  A273,A274,A275,A276,A277,A278,A279,A280,A281,A282, \note fields as indicated
+  A283,A284,A285,A286,A287,A288,A289,A290,A291,A292, \note fields as indicated
+  A293,A294,A295,A296,A297,A298,A299,A300,A301,A302, \note fields as indicated
+  A303,A304,A305,A306,A307,A308,A309,A310,A311,A312, \note fields as indicated
+  A313,A314,A315,A316,A317,A318,A319,A320,A321,A322, \note fields as indicated
+  A323,A324,A325,A326,A327,A328,A329,A330,A331,A332, \note fields as indicated
+  A333,A334,A335,A336,A337,A338,A339,A340,A341,A342, \note fields as indicated
+  A343,A344,A345,A346,A347,A348,A349,A350,A351,A352, \note fields as indicated
+  A353,A354,A355,A356,A357,A358,A359,A360,A361,A362, \note fields as indicated
+  A363,A364,A365,A366,A367,A368,A369,A370,A371,A372, \note fields as indicated
+  A373,A374,A375,A376,A377,A378,A379,A380,A381,A382, \note fields as indicated
+  A383,A384,A385,A386,A387,A388,A389,A390,A391,A392, \note fields as indicated
+  A393,A394,A395,A396,A397,A398,A399,A400,A401,A402, \note fields as indicated
+  A403,A404,A405,A406,A407,A408,A409,A410,A411,A412, \note fields as indicated
+  A413,A414,A415,A416,A417,A418,A419,A420,A421,A422, \note fields as indicated
+  A423,A424,A425,A426,A427,A428,A429,A430,A431,A432, \note fields as indicated
+  A433,A434,A435,A436,A437,A438,A439,A440,A441,A442, \note fields as indicated
+  A443,A444,A445,A446,A447,A448,A449,A450,A451,A452, \note fields as indicated
+  A453,A454,A455,A456,A457,A458,A459,A460,A461,A462, \note fields as indicated
+  A463,A464,A465,A466,A467,A468,A469,A470,A471,A472, \note fields as indicated
+  A473,A474,A475,A476,A477,A478,A479,A480,A481,A482, \note fields as indicated
+  A483,A484,A485,A486,A487,A488,A489,A490,A491,A492, \note fields as indicated
+  A493,A494,A495,A496,A497,A498,A499,A500,A501,A502; \note fields as indicated
+
+Connector:Mixer,
+  \min-fields 3
+       \extensible:1 Just duplicate last field and comments (changing numbering, please)
+       \memo Mix N inlet air/water streams into one. Branch names cannot be duplicated within
+       \memo a single mixer list.
+   A1 , \field Name
+        \required-field
+        \reference PlantConnectors
+   A2 , \field Outlet Branch Name
+        \required-field
+        \type object-list
+        \object-list Branches
+   A3 , \field Inlet Branch 1 Name
+        \begin-extensible
+        \required-field
+        \type object-list
+        \object-list Branches
+   A4 , \field Inlet Branch 2 Name
+        \type object-list
+        \object-list Branches
+   A5 , \field Inlet Branch 3 Name
+        \type object-list
+        \object-list Branches
+   A6 , \field Inlet Branch 4 Name
+        \type object-list
+        \object-list Branches
+   A7 , \field Inlet Branch 5 Name
+        \type object-list
+        \object-list Branches
+   A8 , \field Inlet Branch 6 Name
+        \type object-list
+        \object-list Branches
+   A9 , \field Inlet Branch 7 Name
+        \type object-list
+        \object-list Branches
+   A10, \field Inlet Branch 8 Name
+        \type object-list
+        \object-list Branches
+   A11, \field Inlet Branch 9 Name
+        \type object-list
+        \object-list Branches
+   A12, \field Inlet Branch 10 Name
+        \type object-list
+        \object-list Branches
+   A13, \field Inlet Branch 11 Name
+        \type object-list
+        \object-list Branches
+   A14, \field Inlet Branch 12 Name
+        \type object-list
+        \object-list Branches
+   A15, \field Inlet Branch 13 Name
+        \type object-list
+        \object-list Branches
+   A16, \field Inlet Branch 14 Name
+        \type object-list
+        \object-list Branches
+   A17, \field Inlet Branch 15 Name
+        \type object-list
+        \object-list Branches
+   A18, \field Inlet Branch 16 Name
+        \type object-list
+        \object-list Branches
+   A19, \field Inlet Branch 17 Name
+        \type object-list
+        \object-list Branches
+   A20, \field Inlet Branch 18 Name
+        \type object-list
+        \object-list Branches
+   A21, \field Inlet Branch 19 Name
+        \type object-list
+        \object-list Branches
+   A22, \field Inlet Branch 20 Name
+        \type object-list
+        \object-list Branches
+   A23, \field Inlet Branch 21 Name
+        \type object-list
+        \object-list Branches
+   A24, \field Inlet Branch 22 Name
+        \type object-list
+        \object-list Branches
+   A25, \field Inlet Branch 23 Name
+        \type object-list
+        \object-list Branches
+   A26, \field Inlet Branch 24 Name
+        \type object-list
+        \object-list Branches
+   A27, \field Inlet Branch 25 Name
+        \type object-list
+        \object-list Branches
+   A28, \field Inlet Branch 26 Name
+        \type object-list
+        \object-list Branches
+   A29, \field Inlet Branch 27 Name
+        \type object-list
+        \object-list Branches
+   A30, \field Inlet Branch 28 Name
+        \type object-list
+        \object-list Branches
+   A31, \field Inlet Branch 29 Name
+        \type object-list
+        \object-list Branches
+   A32, \field Inlet Branch 30 Name
+        \type object-list
+        \object-list Branches
+   A33, \field Inlet Branch 31 Name
+        \type object-list
+        \object-list Branches
+   A34, \field Inlet Branch 32 Name
+        \type object-list
+        \object-list Branches
+   A35, \field Inlet Branch 33 Name
+        \type object-list
+        \object-list Branches
+   A36, \field Inlet Branch 34 Name
+        \type object-list
+        \object-list Branches
+   A37, \field Inlet Branch 35 Name
+        \type object-list
+        \object-list Branches
+   A38, \field Inlet Branch 36 Name
+        \type object-list
+        \object-list Branches
+   A39, \field Inlet Branch 37 Name
+        \type object-list
+        \object-list Branches
+   A40, \field Inlet Branch 38 Name
+        \type object-list
+        \object-list Branches
+   A41, \field Inlet Branch 39 Name
+        \type object-list
+        \object-list Branches
+   A42, \field Inlet Branch 40 Name
+        \type object-list
+        \object-list Branches
+   A43, \field Inlet Branch 41 Name
+        \type object-list
+        \object-list Branches
+   A44, \field Inlet Branch 42 Name
+        \type object-list
+        \object-list Branches
+   A45, \field Inlet Branch 43 Name
+        \type object-list
+        \object-list Branches
+   A46, \field Inlet Branch 44 Name
+        \type object-list
+        \object-list Branches
+   A47, \field Inlet Branch 45 Name
+        \type object-list
+        \object-list Branches
+   A48, \field Inlet Branch 46 Name
+        \type object-list
+        \object-list Branches
+   A49, \field Inlet Branch 47 Name
+        \type object-list
+        \object-list Branches
+   A50, \field Inlet Branch 48 Name
+        \type object-list
+        \object-list Branches
+   A51, \field Inlet Branch 49 Name
+        \type object-list
+        \object-list Branches
+   A52, \field Inlet Branch 50 Name
+        \type object-list
+        \object-list Branches
+   A53, \field Inlet Branch 51 Name
+        \type object-list
+        \object-list Branches
+   A54, \field Inlet Branch 52 Name
+        \type object-list
+        \object-list Branches
+   A55, \field Inlet Branch 53 Name
+        \type object-list
+        \object-list Branches
+   A56, \field Inlet Branch 54 Name
+        \type object-list
+        \object-list Branches
+   A57, \field Inlet Branch 55 Name
+        \type object-list
+        \object-list Branches
+   A58, \field Inlet Branch 56 Name
+        \type object-list
+        \object-list Branches
+   A59, \field Inlet Branch 57 Name
+        \type object-list
+        \object-list Branches
+   A60, \field Inlet Branch 58 Name
+        \type object-list
+        \object-list Branches
+   A61, \field Inlet Branch 59 Name
+        \type object-list
+        \object-list Branches
+   A62, \field Inlet Branch 60 Name
+        \type object-list
+        \object-list Branches
+   A63, \field Inlet Branch 61 Name
+        \type object-list
+        \object-list Branches
+   A64, \field Inlet Branch 62 Name
+        \type object-list
+        \object-list Branches
+   A65, \field Inlet Branch 63 Name
+        \type object-list
+        \object-list Branches
+   A66, \field Inlet Branch 64 Name
+        \type object-list
+        \object-list Branches
+   A67, \field Inlet Branch 65 Name
+        \type object-list
+        \object-list Branches
+   A68, \field Inlet Branch 66 Name
+        \type object-list
+        \object-list Branches
+   A69, \field Inlet Branch 67 Name
+        \type object-list
+        \object-list Branches
+   A70, \field Inlet Branch 68 Name
+        \type object-list
+        \object-list Branches
+   A71, \field Inlet Branch 69 Name
+        \type object-list
+        \object-list Branches
+   A72, \field Inlet Branch 70 Name
+        \type object-list
+        \object-list Branches
+   A73, \field Inlet Branch 71 Name
+        \type object-list
+        \object-list Branches
+   A74, \field Inlet Branch 72 Name
+        \type object-list
+        \object-list Branches
+   A75, \field Inlet Branch 73 Name
+        \type object-list
+        \object-list Branches
+   A76, \field Inlet Branch 74 Name
+        \type object-list
+        \object-list Branches
+   A77, \field Inlet Branch 75 Name
+        \type object-list
+        \object-list Branches
+   A78, \field Inlet Branch 76 Name
+        \type object-list
+        \object-list Branches
+   A79, \field Inlet Branch 77 Name
+        \type object-list
+        \object-list Branches
+   A80, \field Inlet Branch 78 Name
+        \type object-list
+        \object-list Branches
+   A81, \field Inlet Branch 79 Name
+        \type object-list
+        \object-list Branches
+   A82, \field Inlet Branch 80 Name
+        \type object-list
+        \object-list Branches
+   A83, \field Inlet Branch 81 Name
+        \type object-list
+        \object-list Branches
+   A84, \field Inlet Branch 82 Name
+        \type object-list
+        \object-list Branches
+   A85, \field Inlet Branch 83 Name
+        \type object-list
+        \object-list Branches
+   A86, \field Inlet Branch 84 Name
+        \type object-list
+        \object-list Branches
+   A87, \field Inlet Branch 85 Name
+        \type object-list
+        \object-list Branches
+   A88, \field Inlet Branch 86 Name
+        \type object-list
+        \object-list Branches
+   A89, \field Inlet Branch 87 Name
+        \type object-list
+        \object-list Branches
+   A90, \field Inlet Branch 88 Name
+        \type object-list
+        \object-list Branches
+   A91, \field Inlet Branch 89 Name
+        \type object-list
+        \object-list Branches
+   A92, \field Inlet Branch 90 Name
+        \type object-list
+        \object-list Branches
+   A93, \field Inlet Branch 91 Name
+        \type object-list
+        \object-list Branches
+   A94, \field Inlet Branch 92 Name
+        \type object-list
+        \object-list Branches
+   A95, \field Inlet Branch 93 Name
+        \type object-list
+        \object-list Branches
+   A96, \field Inlet Branch 94 Name
+        \type object-list
+        \object-list Branches
+   A97, \field Inlet Branch 95 Name
+        \type object-list
+        \object-list Branches
+   A98, \field Inlet Branch 96 Name
+        \type object-list
+        \object-list Branches
+   A99, \field Inlet Branch 97 Name
+        \type object-list
+        \object-list Branches
+  A100, \field Inlet Branch 98 Name
+        \type object-list
+        \object-list Branches
+  A101, \field Inlet Branch 99 Name
+        \type object-list
+        \object-list Branches
+  A102, \field Inlet Branch 100 Name
+        \type object-list
+        \object-list Branches
+  A103,A104,A105,A106,A107,A108,A109,A110,A111,A112, \note fields as indicated
+  A113,A114,A115,A116,A117,A118,A119,A120,A121,A122, \note fields as indicated
+  A123,A124,A125,A126,A127,A128,A129,A130,A131,A132, \note fields as indicated
+  A133,A134,A135,A136,A137,A138,A139,A140,A141,A142, \note fields as indicated
+  A143,A144,A145,A146,A147,A148,A149,A150,A151,A152, \note fields as indicated
+  A153,A154,A155,A156,A157,A158,A159,A160,A161,A162, \note fields as indicated
+  A163,A164,A165,A166,A167,A168,A169,A170,A171,A172, \note fields as indicated
+  A173,A174,A175,A176,A177,A178,A179,A180,A181,A182, \note fields as indicated
+  A183,A184,A185,A186,A187,A188,A189,A190,A191,A192, \note fields as indicated
+  A193,A194,A195,A196,A197,A198,A199,A200,A201,A202, \note fields as indicated
+  A203,A204,A205,A206,A207,A208,A209,A210,A211,A212, \note fields as indicated
+  A213,A214,A215,A216,A217,A218,A219,A220,A221,A222, \note fields as indicated
+  A223,A224,A225,A226,A227,A228,A229,A230,A231,A232, \note fields as indicated
+  A233,A234,A235,A236,A237,A238,A239,A240,A241,A242, \note fields as indicated
+  A243,A244,A245,A246,A247,A248,A249,A250,A251,A252, \note fields as indicated
+  A253,A254,A255,A256,A257,A258,A259,A260,A261,A262, \note fields as indicated
+  A263,A264,A265,A266,A267,A268,A269,A270,A271,A272, \note fields as indicated
+  A273,A274,A275,A276,A277,A278,A279,A280,A281,A282, \note fields as indicated
+  A283,A284,A285,A286,A287,A288,A289,A290,A291,A292, \note fields as indicated
+  A293,A294,A295,A296,A297,A298,A299,A300,A301,A302, \note fields as indicated
+  A303,A304,A305,A306,A307,A308,A309,A310,A311,A312, \note fields as indicated
+  A313,A314,A315,A316,A317,A318,A319,A320,A321,A322, \note fields as indicated
+  A323,A324,A325,A326,A327,A328,A329,A330,A331,A332, \note fields as indicated
+  A333,A334,A335,A336,A337,A338,A339,A340,A341,A342, \note fields as indicated
+  A343,A344,A345,A346,A347,A348,A349,A350,A351,A352, \note fields as indicated
+  A353,A354,A355,A356,A357,A358,A359,A360,A361,A362, \note fields as indicated
+  A363,A364,A365,A366,A367,A368,A369,A370,A371,A372, \note fields as indicated
+  A373,A374,A375,A376,A377,A378,A379,A380,A381,A382, \note fields as indicated
+  A383,A384,A385,A386,A387,A388,A389,A390,A391,A392, \note fields as indicated
+  A393,A394,A395,A396,A397,A398,A399,A400,A401,A402, \note fields as indicated
+  A403,A404,A405,A406,A407,A408,A409,A410,A411,A412, \note fields as indicated
+  A413,A414,A415,A416,A417,A418,A419,A420,A421,A422, \note fields as indicated
+  A423,A424,A425,A426,A427,A428,A429,A430,A431,A432, \note fields as indicated
+  A433,A434,A435,A436,A437,A438,A439,A440,A441,A442, \note fields as indicated
+  A443,A444,A445,A446,A447,A448,A449,A450,A451,A452, \note fields as indicated
+  A453,A454,A455,A456,A457,A458,A459,A460,A461,A462, \note fields as indicated
+  A463,A464,A465,A466,A467,A468,A469,A470,A471,A472, \note fields as indicated
+  A473,A474,A475,A476,A477,A478,A479,A480,A481,A482, \note fields as indicated
+  A483,A484,A485,A486,A487,A488,A489,A490,A491,A492, \note fields as indicated
+  A493,A494,A495,A496,A497,A498,A499,A500,A501,A502; \note fields as indicated
+
+ConnectorList,
+        \memo only two connectors allowed per loop
+        \memo if two entered, one must be Connector:Splitter and one must be Connector:Mixer
+    A1, \field Name
+        \required-field
+        \reference ConnectorLists
+    A2, \field Connector 1 Object Type
+        \required-field
+        \type choice
+        \key Connector:Splitter
+        \key Connector:Mixer
+    A3, \field Connector 1 Name
+        \required-field
+        \type object-list
+        \object-list PlantConnectors
+    A4, \field Connector 2 Object Type
+        \type choice
+        \key Connector:Splitter
+        \key Connector:Mixer
+    A5; \field Connector 2 Name
+        \type object-list
+        \object-list PlantConnectors
+
+NodeList,
+  \min-fields 2
+       \extensible:1 Just duplicate last field and comments (changing numbering, please)
+       \memo This object is used in places where lists of nodes may be
+       \memo needed, e.g. ZoneHVAC:EquipmentConnections field Zone Air Inlet Node or NodeList Name
+  A1 , \field Name
+       \required-field
+       \type node
+  A2 , \field Node 1 Name
+       \required-field
+       \begin-extensible
+       \type node
+  A3 , \field Node 2 Name
+       \type node
+  A4 , \field Node 3 Name
+       \type node
+  A5 , \field Node 4 Name
+       \type node
+  A6 , \field Node 5 Name
+       \type node
+  A7 , \field Node 6 Name
+       \type node
+  A8 , \field Node 7 Name
+       \type node
+  A9 , \field Node 8 Name
+       \type node
+  A10, \field Node 9 Name
+       \type node
+  A11, \field Node 10 Name
+       \type node
+  A12, \field Node 11 Name
+       \type node
+  A13, \field Node 12 Name
+       \type node
+  A14, \field Node 13 Name
+       \type node
+  A15, \field Node 14 Name
+       \type node
+  A16, \field Node 15 Name
+       \type node
+  A17, \field Node 16 Name
+       \type node
+  A18, \field Node 17 Name
+       \type node
+  A19, \field Node 18 Name
+       \type node
+  A20, \field Node 19 Name
+       \type node
+  A21, \field Node 20 Name
+       \type node
+  A22, \field Node 21 Name
+       \type node
+  A23, \field Node 22 Name
+       \type node
+  A24, \field Node 23 Name
+       \type node
+  A25, \field Node 24 Name
+       \type node
+  A26, \field Node 25 Name
+       \type node
+  A27, \field Node 26 Name
+       \type node
+  A28, \field Node 27 Name
+       \type node
+  A29, \field Node 28 Name
+       \type node
+  A30, \field Node 29 Name
+       \type node
+  A31, \field Node 30 Name
+       \type node
+  A32, \field Node 31 Name
+       \type node
+  A33, \field Node 32 Name
+       \type node
+  A34, \field Node 33 Name
+       \type node
+  A35, \field Node 34 Name
+       \type node
+  A36, \field Node 35 Name
+       \type node
+  A37, \field Node 36 Name
+       \type node
+  A38, \field Node 37 Name
+       \type node
+  A39, \field Node 38 Name
+       \type node
+  A40, \field Node 39 Name
+       \type node
+  A41, \field Node 40 Name
+       \type node
+  A42, \field Node 41 Name
+       \type node
+  A43, \field Node 42 Name
+       \type node
+  A44, \field Node 43 Name
+       \type node
+  A45, \field Node 44 Name
+       \type node
+  A46, \field Node 45 Name
+       \type node
+  A47, \field Node 46 Name
+       \type node
+  A48, \field Node 47 Name
+       \type node
+  A49, \field Node 48 Name
+       \type node
+  A50, \field Node 49 Name
+       \type node
+  A51, \field Node 50 Name
+       \type node
+  A52, \field Node 51 Name
+       \type node
+  A53, \field Node 52 Name
+       \type node
+  A54, \field Node 53 Name
+       \type node
+  A55, \field Node 54 Name
+       \type node
+  A56, \field Node 55 Name
+       \type node
+  A57, \field Node 56 Name
+       \type node
+  A58, \field Node 57 Name
+       \type node
+  A59, \field Node 58 Name
+       \type node
+  A60, \field Node 59 Name
+       \type node
+  A61, \field Node 60 Name
+       \type node
+  A62, \field Node 61 Name
+       \type node
+  A63, \field Node 62 Name
+       \type node
+  A64, \field Node 63 Name
+       \type node
+  A65, \field Node 64 Name
+       \type node
+  A66, \field Node 65 Name
+       \type node
+  A67, \field Node 66 Name
+       \type node
+  A68, \field Node 67 Name
+       \type node
+  A69, \field Node 68 Name
+       \type node
+  A70, \field Node 69 Name
+       \type node
+  A71, \field Node 70 Name
+       \type node
+  A72, \field Node 71 Name
+       \type node
+  A73, \field Node 72 Name
+       \type node
+  A74, \field Node 73 Name
+       \type node
+  A75, \field Node 74 Name
+       \type node
+  A76, \field Node 75 Name
+       \type node
+  A77, \field Node 76 Name
+       \type node
+  A78, \field Node 77 Name
+       \type node
+  A79, \field Node 78 Name
+       \type node
+  A80, \field Node 79 Name
+       \type node
+  A81, \field Node 80 Name
+       \type node
+  A82, \field Node 81 Name
+       \type node
+  A83, \field Node 82 Name
+       \type node
+  A84, \field Node 83 Name
+       \type node
+  A85, \field Node 84 Name
+       \type node
+  A86, \field Node 85 Name
+       \type node
+  A87, \field Node 86 Name
+       \type node
+  A88, \field Node 87 Name
+       \type node
+  A89, \field Node 88 Name
+       \type node
+  A90, \field Node 89 Name
+       \type node
+  A91, \field Node 90 Name
+       \type node
+  A92, \field Node 91 Name
+       \type node
+  A93, \field Node 92 Name
+       \type node
+  A94, \field Node 93 Name
+       \type node
+  A95, \field Node 94 Name
+       \type node
+  A96, \field Node 95 Name
+       \type node
+  A97, \field Node 96 Name
+       \type node
+  A98, \field Node 97 Name
+       \type node
+  A99, \field Node 98 Name
+       \type node
+  A100, \field Node 99 Name
+        \type node
+  A101, \field Node 100 Name
+        \type node
+  A102,A103,A104,A105,A106,A107,A108,A109,A110,A111, \note fields as indicated
+  A112,A113,A114,A115,A116,A117,A118,A119,A120,A121, \note fields as indicated
+  A122,A123,A124,A125,A126,A127,A128,A129,A130,A131, \note fields as indicated
+  A132,A133,A134,A135,A136,A137,A138,A139,A140,A141, \note fields as indicated
+  A142,A143,A144,A145,A146,A147,A148,A149,A150,A151, \note fields as indicated
+  A152,A153,A154,A155,A156,A157,A158,A159,A160,A161, \note fields as indicated
+  A162,A163,A164,A165,A166,A167,A168,A169,A170,A171, \note fields as indicated
+  A172,A173,A174,A175,A176,A177,A178,A179,A180,A181, \note fields as indicated
+  A182,A183,A184,A185,A186,A187,A188,A189,A190,A191, \note fields as indicated
+  A192,A193,A194,A195,A196,A197,A198,A199,A200,A201, \note fields as indicated
+  A202,A203,A204,A205,A206,A207,A208,A209,A210,A211, \note fields as indicated
+  A212,A213,A214,A215,A216,A217,A218,A219,A220,A221, \note fields as indicated
+  A222,A223,A224,A225,A226,A227,A228,A229,A230,A231, \note fields as indicated
+  A232,A233,A234,A235,A236,A237,A238,A239,A240,A241, \note fields as indicated
+  A242,A243,A244,A245,A246,A247,A248,A249,A250,A251, \note fields as indicated
+  A252,A253,A254,A255,A256,A257,A258,A259,A260,A261, \note fields as indicated
+  A262,A263,A264,A265,A266,A267,A268,A269,A270,A271, \note fields as indicated
+  A272,A273,A274,A275,A276,A277,A278,A279,A280,A281, \note fields as indicated
+  A282,A283,A284,A285,A286,A287,A288,A289,A290,A291, \note fields as indicated
+  A292,A293,A294,A295,A296,A297,A298,A299,A300,A301, \note fields as indicated
+  A302,A303,A304,A305,A306,A307,A308,A309,A310,A311, \note fields as indicated
+  A312,A313,A314,A315,A316,A317,A318,A319,A320,A321, \note fields as indicated
+  A322,A323,A324,A325,A326,A327,A328,A329,A330,A331, \note fields as indicated
+  A332,A333,A334,A335,A336,A337,A338,A339,A340,A341, \note fields as indicated
+  A342,A343,A344,A345,A346,A347,A348,A349,A350,A351, \note fields as indicated
+  A352,A353,A354,A355,A356,A357,A358,A359,A360,A361, \note fields as indicated
+  A362,A363,A364,A365,A366,A367,A368,A369,A370,A371, \note fields as indicated
+  A372,A373,A374,A375,A376,A377,A378,A379,A380,A381, \note fields as indicated
+  A382,A383,A384,A385,A386,A387,A388,A389,A390,A391, \note fields as indicated
+  A392,A393,A394,A395,A396,A397,A398,A399,A400,A401, \note fields as indicated
+  A402,A403,A404,A405,A406,A407,A408,A409,A410,A411, \note fields as indicated
+  A412,A413,A414,A415,A416,A417,A418,A419,A420,A421, \note fields as indicated
+  A422,A423,A424,A425,A426,A427,A428,A429,A430,A431, \note fields as indicated
+  A432,A433,A434,A435,A436,A437,A438,A439,A440,A441, \note fields as indicated
+  A442,A443,A444,A445,A446,A447,A448,A449,A450,A451, \note fields as indicated
+  A452,A453,A454,A455,A456,A457,A458,A459,A460,A461, \note fields as indicated
+  A462,A463,A464,A465,A466,A467,A468,A469,A470,A471, \note fields as indicated
+  A472,A473,A474,A475,A476,A477,A478,A479,A480,A481, \note fields as indicated
+  A482,A483,A484,A485,A486,A487,A488,A489,A490,A491, \note fields as indicated
+  A492,A493,A494,A495,A496,A497,A498,A499,A500,A501; \note fields as indicated
+
+OutdoorAir:Node,
+       \memo This object sets the temperature and humidity conditions
+       \memo for an outdoor air node. It allows the height above ground to be
+       \memo specified. This object may be used more than once.
+       \memo The same node name may not appear in both an OutdoorAir:Node object and
+       \memo an OutdoorAir:NodeList object.
+       \memo This object defines local outdoor air environmental conditions.
+  A1,  \field Name
+       \required-field
+       \reference OutdoorAirNodeNames
+       \type node
+  N1,  \field Height Above Ground
+       \note A value less than zero indicates that the height will be ignored and the weather file conditions will be used.
+       \type real
+       \units m
+       \default -1.0
+  A2 , \field Drybulb Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values are real numbers, -100.0 to 100.0, units C
+  A3 , \field Wetbulb Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values are real numbers, -100.0 to 100.0, units C
+  A4 , \field Wind Speed Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values are real numbers, 0.0 to 40.0, units m/s
+  A5 , \field Wind Direction Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values are real numbers, 0.0 to 360.0, units degree
+  A6 , \field Wind Pressure Coefficient Curve Name
+       \type object-list
+       \object-list WPCValueNames
+       \object-list UnivariateFunctions
+       \note The name of the AirflowNetwork:MultiZone:WindPressureCoefficientValues, curve, or table object specifying the wind pressure coefficient.
+  A7 , \field Symmetric Wind Pressure Coefficient Curve
+       \type choice
+       \key Yes
+       \key No
+       \default No
+       \note Specify whether the pressure curve is symmetric or not.
+       \note Specify Yes for curves that should be evaluated from 0 to 180 degrees
+       \note Specify No for curves that should be evaluated from 0 to 360 degrees
+  A8 ; \field Wind Angle Type
+       \type choice
+       \key Absolute
+       \key Relative
+       \default Absolute
+       \note Specify whether the angle used to compute the wind pressure coefficient is absolute or relative
+       \note Specify Relative to compute the angle between the wind direction and the surface azimuth
+       \note Specify Absolute to use the wind direction angle directly
+
+OutdoorAir:NodeList,
+       \extensible:1 Just duplicate last field and comments (changing numbering, please)
+       \memo This object sets the temperature and humidity conditions
+       \memo for an outdoor air node using the weather data values.
+       \memo to vary outdoor air node conditions with height above ground
+       \memo use OutdoorAir:Node instead of this object.
+       \memo This object may be used more than once.
+       \memo The same node name may not appear in both an OutdoorAir:Node object and
+       \memo an OutdoorAir:NodeList object.
+  A1 , \field Node or NodeList Name 1
+       \required-field
+       \type node
+       \begin-extensible
+  A2 , \field Node or NodeList Name 2
+       \type node
+  A3 , \field Node or NodeList Name 3
+       \type node
+  A4 , \field Node or NodeList Name 4
+       \type node
+  A5 , \field Node or NodeList Name 5
+       \type node
+  A6 , \field Node or NodeList Name 6
+       \type node
+  A7 , \field Node or NodeList Name 7
+       \type node
+  A8 , \field Node or NodeList Name 8
+       \type node
+  A9 , \field Node or NodeList Name 9
+       \type node
+  A10, \field Node or NodeList Name 10
+       \type node
+  A11, \field Node or NodeList Name 11
+       \type node
+  A12, \field Node or NodeList Name 12
+       \type node
+  A13, \field Node or NodeList Name 13
+       \type node
+  A14, \field Node or NodeList Name 14
+       \type node
+  A15, \field Node or NodeList Name 15
+       \type node
+  A16, \field Node or NodeList Name 16
+       \type node
+  A17, \field Node or NodeList Name 17
+       \type node
+  A18, \field Node or NodeList Name 18
+       \type node
+  A19, \field Node or NodeList Name 19
+       \type node
+  A20, \field Node or NodeList Name 20
+       \type node
+  A21, \field Node or NodeList Name 21
+       \type node
+  A22, \field Node or NodeList Name 22
+       \type node
+  A23, \field Node or NodeList Name 23
+       \type node
+  A24, \field Node or NodeList Name 24
+       \type node
+  A25, \field Node or NodeList Name 25
+       \type node
+  A26, \field Node or NodeList Name 26
+       \type node
+  A27, \field Node or NodeList Name 27
+       \type node
+  A28, \field Node or NodeList Name 28
+       \type node
+  A29, \field Node or NodeList Name 29
+       \type node
+  A30, \field Node or NodeList Name 30
+       \type node
+  A31, \field Node or NodeList Name 31
+       \type node
+  A32, \field Node or NodeList Name 32
+       \type node
+  A33, \field Node or NodeList Name 33
+       \type node
+  A34, \field Node or NodeList Name 34
+       \type node
+  A35, \field Node or NodeList Name 35
+       \type node
+  A36, \field Node or NodeList Name 36
+       \type node
+  A37, \field Node or NodeList Name 37
+       \type node
+  A38, \field Node or NodeList Name 38
+       \type node
+  A39, \field Node or NodeList Name 39
+       \type node
+  A40, \field Node or NodeList Name 40
+       \type node
+  A41, \field Node or NodeList Name 41
+       \type node
+  A42, \field Node or NodeList Name 42
+       \type node
+  A43, \field Node or NodeList Name 43
+       \type node
+  A44, \field Node or NodeList Name 44
+       \type node
+  A45, \field Node or NodeList Name 45
+       \type node
+  A46, \field Node or NodeList Name 46
+       \type node
+  A47, \field Node or NodeList Name 47
+       \type node
+  A48, \field Node or NodeList Name 48
+       \type node
+  A49, \field Node or NodeList Name 49
+       \type node
+  A50, \field Node or NodeList Name 50
+       \type node
+  A51, \field Node or NodeList Name 51
+       \type node
+  A52, \field Node or NodeList Name 52
+       \type node
+  A53, \field Node or NodeList Name 53
+       \type node
+  A54, \field Node or NodeList Name 54
+       \type node
+  A55, \field Node or NodeList Name 55
+       \type node
+  A56, \field Node or NodeList Name 56
+       \type node
+  A57, \field Node or NodeList Name 57
+       \type node
+  A58, \field Node or NodeList Name 58
+       \type node
+  A59, \field Node or NodeList Name 59
+       \type node
+  A60, \field Node or NodeList Name 60
+       \type node
+  A61, \field Node or NodeList Name 61
+       \type node
+  A62, \field Node or NodeList Name 62
+       \type node
+  A63, \field Node or NodeList Name 63
+       \type node
+  A64, \field Node or NodeList Name 64
+       \type node
+  A65, \field Node or NodeList Name 65
+       \type node
+  A66, \field Node or NodeList Name 66
+       \type node
+  A67, \field Node or NodeList Name 67
+       \type node
+  A68, \field Node or NodeList Name 68
+       \type node
+  A69, \field Node or NodeList Name 69
+       \type node
+  A70, \field Node or NodeList Name 70
+       \type node
+  A71, \field Node or NodeList Name 71
+       \type node
+  A72, \field Node or NodeList Name 72
+       \type node
+  A73, \field Node or NodeList Name 73
+       \type node
+  A74, \field Node or NodeList Name 74
+       \type node
+  A75, \field Node or NodeList Name 75
+       \type node
+  A76, \field Node or NodeList Name 76
+       \type node
+  A77, \field Node or NodeList Name 77
+       \type node
+  A78, \field Node or NodeList Name 78
+       \type node
+  A79, \field Node or NodeList Name 79
+       \type node
+  A80, \field Node or NodeList Name 80
+       \type node
+  A81, \field Node or NodeList Name 81
+       \type node
+  A82, \field Node or NodeList Name 82
+       \type node
+  A83, \field Node or NodeList Name 83
+       \type node
+  A84, \field Node or NodeList Name 84
+       \type node
+  A85, \field Node or NodeList Name 85
+       \type node
+  A86, \field Node or NodeList Name 86
+       \type node
+  A87, \field Node or NodeList Name 87
+       \type node
+  A88, \field Node or NodeList Name 88
+       \type node
+  A89, \field Node or NodeList Name 89
+       \type node
+  A90, \field Node or NodeList Name 90
+       \type node
+  A91, \field Node or NodeList Name 91
+       \type node
+  A92, \field Node or NodeList Name 92
+       \type node
+  A93, \field Node or NodeList Name 93
+       \type node
+  A94, \field Node or NodeList Name 94
+       \type node
+  A95, \field Node or NodeList Name 95
+       \type node
+  A96, \field Node or NodeList Name 96
+       \type node
+  A97, \field Node or NodeList Name 97
+       \type node
+  A98, \field Node or NodeList Name 98
+       \type node
+  A99, \field Node or NodeList Name 99
+       \type node
+  A100, \field Node or NodeList Name 100
+        \type node
+  A101,A102,A103,A104,A105,A106,A107,A108,A109,A110, \note fields as indicated
+  A111,A112,A113,A114,A115,A116,A117,A118,A119,A120, \note fields as indicated
+  A121,A122,A123,A124,A125,A126,A127,A128,A129,A130, \note fields as indicated
+  A131,A132,A133,A134,A135,A136,A137,A138,A139,A140, \note fields as indicated
+  A141,A142,A143,A144,A145,A146,A147,A148,A149,A150, \note fields as indicated
+  A151,A152,A153,A154,A155,A156,A157,A158,A159,A160, \note fields as indicated
+  A161,A162,A163,A164,A165,A166,A167,A168,A169,A170, \note fields as indicated
+  A171,A172,A173,A174,A175,A176,A177,A178,A179,A180, \note fields as indicated
+  A181,A182,A183,A184,A185,A186,A187,A188,A189,A190, \note fields as indicated
+  A191,A192,A193,A194,A195,A196,A197,A198,A199,A200, \note fields as indicated
+  A201,A202,A203,A204,A205,A206,A207,A208,A209,A210, \note fields as indicated
+  A211,A212,A213,A214,A215,A216,A217,A218,A219,A220, \note fields as indicated
+  A221,A222,A223,A224,A225,A226,A227,A228,A229,A230, \note fields as indicated
+  A231,A232,A233,A234,A235,A236,A237,A238,A239,A240, \note fields as indicated
+  A241,A242,A243,A244,A245,A246,A247,A248,A249,A250, \note fields as indicated
+  A251,A252,A253,A254,A255,A256,A257,A258,A259,A260, \note fields as indicated
+  A261,A262,A263,A264,A265,A266,A267,A268,A269,A270, \note fields as indicated
+  A271,A272,A273,A274,A275,A276,A277,A278,A279,A280, \note fields as indicated
+  A281,A282,A283,A284,A285,A286,A287,A288,A289,A290, \note fields as indicated
+  A291,A292,A293,A294,A295,A296,A297,A298,A299,A300, \note fields as indicated
+  A301,A302,A303,A304,A305,A306,A307,A308,A309,A310, \note fields as indicated
+  A311,A312,A313,A314,A315,A316,A317,A318,A319,A320, \note fields as indicated
+  A321,A322,A323,A324,A325,A326,A327,A328,A329,A330, \note fields as indicated
+  A331,A332,A333,A334,A335,A336,A337,A338,A339,A340, \note fields as indicated
+  A341,A342,A343,A344,A345,A346,A347,A348,A349,A350, \note fields as indicated
+  A351,A352,A353,A354,A355,A356,A357,A358,A359,A360, \note fields as indicated
+  A361,A362,A363,A364,A365,A366,A367,A368,A369,A370, \note fields as indicated
+  A371,A372,A373,A374,A375,A376,A377,A378,A379,A380, \note fields as indicated
+  A381,A382,A383,A384,A385,A386,A387,A388,A389,A390, \note fields as indicated
+  A391,A392,A393,A394,A395,A396,A397,A398,A399,A400, \note fields as indicated
+  A401,A402,A403,A404,A405,A406,A407,A408,A409,A410, \note fields as indicated
+  A411,A412,A413,A414,A415,A416,A417,A418,A419,A420, \note fields as indicated
+  A421,A422,A423,A424,A425,A426,A427,A428,A429,A430, \note fields as indicated
+  A431,A432,A433,A434,A435,A436,A437,A438,A439,A440, \note fields as indicated
+  A441,A442,A443,A444,A445,A446,A447,A448,A449,A450, \note fields as indicated
+  A451,A452,A453,A454,A455,A456,A457,A458,A459,A460, \note fields as indicated
+  A461,A462,A463,A464,A465,A466,A467,A468,A469,A470, \note fields as indicated
+  A471,A472,A473,A474,A475,A476,A477,A478,A479,A480, \note fields as indicated
+  A481,A482,A483,A484,A485,A486,A487,A488,A489,A490, \note fields as indicated
+  A491,A492,A493,A494,A495,A496,A497,A498,A499,A500; \note fields as indicated
+
+Pipe:Adiabatic,
+       \memo Passes Inlet Node state variables to Outlet Node state variables
+   A1,  \field Name
+        \required-field
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2, \field Inlet Node Name
+        \required-field
+        \type node
+  A3; \field Outlet Node Name
+        \required-field
+        \type node
+
+Pipe:Adiabatic:Steam,
+       \memo Passes Inlet Node state variables to Outlet Node state variables
+   A1,  \field Name
+        \required-field
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2, \field Inlet Node Name
+        \required-field
+        \type node
+  A3; \field Outlet Node Name
+        \required-field
+        \type node
+
+Pipe:Indoor,
+        \memo Pipe model with transport delay and heat transfer to the environment.
+   A1,  \field Name
+        \required-field
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2,  \field Construction Name
+        \required-field
+        \type object-list
+        \object-list ConstructionNames
+   A3,  \field Fluid Inlet Node Name
+        \type node
+        \required-field
+   A4,  \field Fluid Outlet Node Name
+        \required-field
+        \type node
+   A5,  \field Environment Type
+        \type choice
+        \key Zone
+        \key Schedule
+        \default Zone
+   A6,  \field Ambient Temperature Zone Name
+        \type object-list
+        \object-list ZoneNames
+   A7,  \field Ambient Temperature Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+   A8,  \field Ambient Air Velocity Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+   N1,  \field Pipe Inside Diameter
+        \type real
+        \units m
+        \minimum> 0
+        \ip-units in
+   N2;  \field Pipe Length
+        \type real
+        \units m
+        \minimum> 0.0
+
+Pipe:Outdoor,
+        \memo Pipe model with transport delay and heat transfer to the environment.
+   A1,  \field Name
+        \required-field
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2,  \field Construction Name
+        \required-field
+        \type object-list
+        \object-list ConstructionNames
+   A3,  \field Fluid Inlet Node Name
+        \type node
+        \required-field
+   A4,  \field Fluid Outlet Node Name
+        \required-field
+        \type node
+   A5,  \field Ambient Temperature Outdoor Air Node Name
+        \type node
+   N1,  \field Pipe Inside Diameter
+        \type real
+        \units m
+        \minimum> 0
+        \ip-units in
+   N2;  \field Pipe Length
+        \type real
+        \units m
+        \minimum> 0.0
+
+Pipe:Underground,
+        \memo Buried Pipe model: For pipes buried at a depth less
+        \memo than one meter, this is an alternative object to:
+        \memo HeatExchanger:Surface
+   A1,  \field Name
+        \required-field
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2,  \field Construction Name
+        \required-field
+        \type object-list
+        \object-list ConstructionNames
+   A3,  \field Fluid Inlet Node Name
+        \type node
+        \required-field
+   A4,  \field Fluid Outlet Node Name
+        \type node
+        \required-field
+   A5,  \field Sun Exposure
+        \required-field
+        \type choice
+        \key SunExposed
+        \key NoSun
+   N1,  \field Pipe Inside Diameter
+        \note pipe thickness is defined in the Construction object
+        \type real
+        \units m
+        \minimum> 0
+        \ip-units in
+   N2,  \field Pipe Length
+        \type real
+        \units m
+        \minimum> 0.0
+   A6,  \field Soil Material Name
+        \type alpha
+        \required-field
+   A7,  \field Undisturbed Ground Temperature Model Type
+        \required-field
+        \type choice
+        \key Site:GroundTemperature:Undisturbed:FiniteDifference
+        \key Site:GroundTemperature:Undisturbed:KusudaAchenbach
+        \key Site:GroundTemperature:Undisturbed:Xing
+   A8;  \field Undisturbed Ground Temperature Model Name
+        \required-field
+        \type object-list
+        \object-list UndisturbedGroundTempModels
+
+PipingSystem:Underground:Domain,
+        \memo The ground domain object for underground piping system simulation.
+        \min-fields 31
+        \extensible:1
+   A1,  \field Name
+        \required-field
+        \type alpha
+   N1,  \field Xmax
+        \required-field
+        \type real
+        \units m
+        \minimum> 0
+        \note Domain extent in the local 'X' direction
+   N2,  \field Ymax
+        \required-field
+        \type real
+        \units m
+        \minimum> 0
+        \note Domain extent in the local 'Y' direction
+   N3,  \field Zmax
+        \required-field
+        \type real
+        \units m
+        \minimum> 0
+        \note Domain extent in the local 'Y' direction
+   N4,  \field X-Direction Mesh Density Parameter
+        \type integer
+        \minimum> 0
+        \default 4
+        \note If mesh type is symmetric geometric, this should be an even number.
+   A2,  \field X-Direction Mesh Type
+        \required-field
+        \type choice
+        \key Uniform
+        \key SymmetricGeometric
+   N5,  \field X-Direction Geometric Coefficient
+        \note optional
+        \type real
+        \minimum 1
+        \default 1.3
+        \maximum 2
+        \note Only used if mesh type is symmetric geometric
+   N6,  \field Y-Direction Mesh Density Parameter
+        \type integer
+        \minimum> 0
+        \default 4
+        \note If mesh type is symmetric geometric, this should be an even number.
+   A3,  \field Y-Direction Mesh Type
+        \required-field
+        \type choice
+        \key Uniform
+        \key SymmetricGeometric
+   N7,  \field Y-Direction Geometric Coefficient
+        \note optional
+        \type real
+        \minimum 1
+        \default 1.3
+        \maximum 2
+        \note Only used if mesh type is symmetric geometric
+   N8,  \field Z-Direction Mesh Density Parameter
+        \type integer
+        \minimum> 0
+        \default 4
+        \note If mesh type is symmetric geometric, this should be an even number.
+   A4,  \field Z-Direction Mesh Type
+        \required-field
+        \type choice
+        \key Uniform
+        \key SymmetricGeometric
+   N9,  \field Z-Direction Geometric Coefficient
+        \note optional
+        \type real
+        \minimum 1
+        \default 1.3
+        \maximum 2
+        \note Only used if mesh type is symmetric geometric
+   N10, \field Soil Thermal Conductivity
+        \required-field
+        \type real
+        \units W/m-K
+        \minimum> 0
+   N11, \field Soil Density
+        \required-field
+        \type real
+        \units kg/m3
+        \minimum> 0
+   N12, \field Soil Specific Heat
+        \required-field
+        \type real
+        \units J/kg-K
+        \minimum> 0
+        \note This is a dry soil property, which is adjusted for freezing effects
+        \note   by the simulation algorithm.
+   N13, \field Soil Moisture Content Volume Fraction
+        \type real
+        \units percent
+        \minimum 0
+        \maximum 100
+        \default 30
+   N14, \field Soil Moisture Content Volume Fraction at Saturation
+        \type real
+        \units percent
+        \minimum 0
+        \maximum 100
+        \default 50
+   A5,  \field Undisturbed Ground Temperature Model Type
+        \required-field
+        \type choice
+        \key Site:GroundTemperature:Undisturbed:FiniteDifference
+        \key Site:GroundTemperature:Undisturbed:KusudaAchenbach
+        \key Site:GroundTemperature:Undisturbed:Xing
+   A6,  \field Undisturbed Ground Temperature Model Name
+        \required-field
+        \type object-list
+        \object-list UndisturbedGroundTempModels
+   A7,  \field This Domain Includes Basement Surface Interaction
+        \type choice
+        \key Yes
+        \key No
+        \default No
+        \note if Yes, then the following basement inputs are used
+        \note if No, then the following basement inputs are *ignored*
+   N15, \field Width of Basement Floor in Ground Domain
+        \type real
+        \units m
+        \note Required only if Domain Has Basement Interaction
+   N16, \field Depth of Basement Wall In Ground Domain
+        \type real
+        \units m
+        \note Required only if Domain Has Basement Interaction
+   A8,  \field Shift Pipe X Coordinates By Basement Width
+        \type choice
+        \key Yes
+        \key No
+        \note Required only if Domain Has Basement Interaction
+   A9,  \field Name of Basement Wall Boundary Condition Model
+        \type object-list
+        \object-list OSCMNames
+        \note Required only if Domain Has Basement Interaction
+   A10,  \field Name of Basement Floor Boundary Condition Model
+        \type object-list
+        \object-list OSCMNames
+        \note Required only if Domain Has Basement Interaction
+   N17, \field Convergence Criterion for the Outer Cartesian Domain Iteration Loop
+        \type real
+        \units deltaC
+        \minimum 0.000001
+        \maximum 0.5
+        \default 0.001
+   N18, \field Maximum Iterations in the Outer Cartesian Domain Iteration Loop
+        \type integer
+        \minimum 3
+        \maximum 10000
+        \default 500
+   N19, \field Evapotranspiration Ground Cover Parameter
+        \type real
+        \minimum 0
+        \maximum 1.5
+        \default 0.4
+        \note This specifies the ground cover effects during evapotranspiration
+        \note  calculations. The value roughly represents the following cases:
+        \note  = 0   : concrete or other solid, non-permeable ground surface material
+        \note  = 0.5 : short grass, much like a manicured lawn
+        \note  = 1   : standard reference state (12 cm grass)
+        \note  = 1.5 : wild growth
+   N20, \field Number of Pipe Circuits Entered for this Domain
+        \required-field
+        \type integer
+        \minimum 1
+   A11,  \field Pipe Circuit 1
+        \required-field
+        \begin-extensible
+        \type object-list
+        \object-list PipingSystemUndergroundCircuitNames
+        \note Name of a pipe circuit to be simulated in this domain
+   A12, \field Pipe Circuit 2
+        \note optional
+        \type object-list
+        \object-list PipingSystemUndergroundCircuitNames
+        \note Name of a pipe circuit to be simulated in this domain
+   A13, \field Pipe Circuit 3
+        \note optional
+        \type object-list
+        \object-list PipingSystemUndergroundCircuitNames
+        \note Name of a pipe circuit to be simulated in this domain
+   A14, \field Pipe Circuit 4
+        \note optional
+        \type object-list
+        \object-list PipingSystemUndergroundCircuitNames
+        \note Name of a pipe circuit to be simulated in this domain
+   A15, \field Pipe Circuit 5
+        \note optional
+        \type object-list
+        \object-list PipingSystemUndergroundCircuitNames
+        \note Name of a pipe circuit to be simulated in this domain
+   A16; \field Pipe Circuit 6
+        \note optional
+        \type object-list
+        \object-list PipingSystemUndergroundCircuitNames
+        \note Name of a pipe circuit to be simulated in this domain
+
+PipingSystem:Underground:PipeCircuit,
+        \memo The pipe circuit object in an underground piping system.
+        \memo This object is simulated within an underground piping domain object
+        \memo  and connected on a branch on a plant loop.
+        \min-fields 15
+        \extensible:1
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference PipingSystemUndergroundCircuitNames
+        \reference-class-name validPlantEquipmentTypes
+        \reference validPlantEquipmentNames
+        \reference-class-name validCondenserEquipmentTypes
+        \reference validCondenserEquipmentNames
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   N1,  \field Pipe Thermal Conductivity
+        \required-field
+        \type real
+        \units W/m-K
+        \minimum> 0
+   N2,  \field Pipe Density
+        \required-field
+        \type real
+        \units kg/m3
+        \minimum> 0
+   N3,  \field Pipe Specific Heat
+        \required-field
+        \type real
+        \units J/kg-K
+        \minimum> 0
+   N4,  \field Pipe Inner Diameter
+        \required-field
+        \type real
+        \units m
+        \minimum> 0
+   N5,  \field Pipe Outer Diameter
+        \required-field
+        \type real
+        \units m
+        \minimum> 0
+   N6,  \field Design Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \ip-units gal/min
+        \minimum> 0
+   A2,  \field Circuit Inlet Node
+        \required-field
+        \type node
+   A3,  \field Circuit Outlet Node
+        \required-field
+        \type node
+   N7,  \field Convergence Criterion for the Inner Radial Iteration Loop
+        \type real
+        \units deltaC
+        \minimum 0.000001
+        \maximum 0.5
+        \default 0.001
+   N8,  \field Maximum Iterations in the Inner Radial Iteration Loop
+        \type integer
+        \minimum 3
+        \maximum 10000
+        \default 500
+   N9,  \field Number of Soil Nodes in the Inner Radial Near Pipe Mesh Region
+        \type integer
+        \minimum 1
+        \maximum 15
+        \default 3
+   N10, \field Radial Thickness of Inner Radial Near Pipe Mesh Region
+        \required-field
+        \type real
+        \minimum> 0
+        \note Required because it must be selected by user instead of being
+        \note  inferred from circuit/domain object inputs.
+   N11, \field Number of Pipe Segments Entered for this Pipe Circuit
+        \required-field
+        \type integer
+        \minimum 1
+   A4,  \field Pipe Segment 1
+        \required-field
+        \begin-extensible
+        \type object-list
+        \object-list PipingSystemUndergroundSegmentNames
+        \note Name of a pipe segment to be included in this pipe circuit
+   A5,  \field Pipe Segment 2
+        \note optional
+        \type object-list
+        \object-list PipingSystemUndergroundSegmentNames
+        \note Name of a pipe segment to be included in this pipe circuit
+   A6,  \field Pipe Segment 3
+        \note optional
+        \type object-list
+        \object-list PipingSystemUndergroundSegmentNames
+        \note Name of a pipe segment to be included in this pipe circuit
+   A7,  \field Pipe Segment 4
+        \note optional
+        \type object-list
+        \object-list PipingSystemUndergroundSegmentNames
+        \note Name of a pipe segment to be included in this pipe circuit
+   A8,  \field Pipe Segment 5
+        \note optional
+        \type object-list
+        \object-list PipingSystemUndergroundSegmentNames
+        \note Name of a pipe segment to be included in this pipe circuit
+   A9;  \field Pipe Segment 6
+        \note optional
+        \type object-list
+        \object-list PipingSystemUndergroundSegmentNames
+        \note Name of a pipe segment to be included in this pipe circuit
+
+PipingSystem:Underground:PipeSegment,
+        \memo The pipe segment to be used in an underground piping system
+        \memo This object represents a single pipe leg positioned axially
+        \memo  in the local z-direction, at a given x, y location in the domain
+        \min-fields 4
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference PipingSystemUndergroundSegmentNames
+   N1,  \field X Position
+        \required-field
+        \type real
+        \units m
+        \minimum> 0
+        \note This segment will be centered at this distance from the x=0
+        \note  domain surface or the basement wall surface, based on whether
+        \note  a basement exists in this domain and the selection of the
+        \note  shift input field found in the domain object.
+   N2,  \field Y Position
+        \required-field
+        \type real
+        \units m
+        \minimum> 0
+        \note This segment will be centered at this distance away from the
+        \note  ground surface; thus this value represents the burial depth
+        \note  of this pipe segment.
+   A3;  \field Flow Direction
+        \required-field
+        \type choice
+        \key IncreasingZ
+        \key DecreasingZ
+        \note This segment will be simulated such that the flow is in the
+        \note  selected direction. This can allow for detailed analysis
+        \note  of circuiting effects in a single domain.
+
+Duct,
+       \memo Passes inlet node state variables to outlet node state variables
+   A1,  \field Name
+        \required-field
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2, \field Inlet Node Name
+        \required-field
+        \type node
+   A3; \field Outlet Node Name
+        \required-field
+        \type node
+
+\group Pumps
+
+Pump:VariableSpeed,
+       \memo This pump model is described in the ASHRAE secondary HVAC toolkit.
+       \min-fields 14
+  A1 , \field Name
+       \required-field
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Inlet Node Name
+       \required-field
+       \type node
+  A3 , \field Outlet Node Name
+       \required-field
+       \type node
+  N1 , \field Design Maximum Flow Rate
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+       \minimum> 0
+  N2 , \field Design Pump Head
+       \units Pa
+       \default 179352
+       \note default head is 60 feet
+       \ip-units ftH2O
+  N3 , \field Design Power Consumption
+       \note When autosized the type of scaling factor is chosen in the input field Design Power Sizing Method
+       \units W
+       \autosizable
+       \ip-units W
+  N4 , \field Motor Efficiency
+       \note This is the motor efficiency only. When the Design Power Consumption is autosized using PowerPerFlowPerPressure,
+       \note the Design Shaft Power per Unit Flow Rate per Unit Head is used in addition to the motor efficiency.
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.9
+  N5 , \field Fraction of Motor Inefficiencies to Fluid Stream
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N6 , \field Coefficient 1 of the Part Load Performance Curve
+       \default 0.0
+  N7 , \field Coefficient 2 of the Part Load Performance Curve
+       \default 1.0
+  N8 , \field Coefficient 3 of the Part Load Performance Curve
+       \default 0.0
+  N9 , \field Coefficient 4 of the Part Load Performance Curve
+       \default 0.0
+  N10, \field Design Minimum Flow Rate
+        \note When autosized the scaling factor is the input field Design Minimum Flow Rate Fraction
+        \units m3/s
+        \autosizable
+        \default autosize
+        \ip-units gal/min
+  A4 , \field Pump Control Type
+        \type choice
+        \key Continuous
+        \key Intermittent
+        \default Continuous
+  A5 , \field Pump Flow Rate Schedule Name
+        \note Modifies the rated flow rate of the pump on a time basis. Default is
+        \note that the pump is on and runs according to its other operational requirements
+        \note specified above. The schedule is for special pump operations.
+        \type object-list
+        \object-list ScheduleNames
+  A6 , \field Pump Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note This references any single independent variable polynomial curve in order to
+        \note  do pressure vs. flow calculations for this pump. The available types are then:
+        \note  Linear, Quadratic, Cubic, and Quartic
+        \note The non-dimensional pump pressure relationship is of the following form:
+        \note  (psi = C4*phi^4 + C3*phi^3 + C2*phi^2 + C1*phi + C0)
+        \note Where the non-dimensional variables are defined as:
+        \note  delP = rho * ((N/60)^2) * (D^2) * psi
+        \note  mdot = rho * (N/60) * (D^3) * phi
+  N11 , \field Impeller Diameter
+        \units m
+        \type real
+        \note "D" in above expression in field A6
+  A7 ,  \field VFD Control Type
+        \type choice
+        \key ManualControl
+        \key PressureSetpointControl
+  A8 ,  \field Pump RPM Schedule Name
+        \note Modifies the rpm of the pump on a time basis. Default is
+        \note that the pump is on and runs according to its other operational requirements
+        \note specified above. The schedule is for special pump operations.
+        \type object-list
+        \object-list ScheduleNames
+  A9 ,  \field Minimum Pressure Schedule
+        \units Pa
+        \type object-list
+        \object-list ScheduleNames
+  A10,  \field Maximum Pressure Schedule
+        \units Pa
+        \type object-list
+        \object-list ScheduleNames
+  A11,  \field Minimum RPM Schedule
+        \units rev/min
+        \type object-list
+        \object-list ScheduleNames
+  A12,  \field Maximum RPM Schedule
+        \units rev/min
+        \type object-list
+        \object-list ScheduleNames
+  A13,  \field Zone Name
+        \note optional, if used pump losses transfered to zone as internal gains
+        \type object-list
+        \object-list ZoneNames
+  N12,  \field Skin Loss Radiative Fraction
+        \note optional. If zone identified in previous field then this determines
+        \note the split between convection and radiation for the skin losses
+        \type real
+        \minimum 0.0
+        \maximum 1.0
+  A14,  \field Design Power Sizing Method
+        \note Used to indicate which sizing factor is used to calculate Design Power Consumption.
+        \type choice
+        \key PowerPerFlow
+        \note PowerPerFlow indicates that Design Electric Power per Unit Flow Rate is used as scaling factor.
+        \note Design Power Consumption = Design Maximum Flow Rate * scaling factor
+        \key PowerPerFlowPerPressure
+        \note PowerPerFlowPerPressure indicates that Design Shaft Power per Unit Flow Rate per Unit Head is used as scaling factor.
+        \note Design Power Consumption = Design Maximum Flow Rate * Design Pump Head * scaling factor / Motor Efficiency
+        \default PowerPerFlowPerPressure
+  N13,  \field Design Electric Power per Unit Flow Rate
+        \type real
+        \note Used to size Design Power Consumption from design flow rate
+        \default 348701.1
+        \units W/(m3/s)
+        \ip-units W/(gal/min)
+        \minimum> 0
+  N14,  \field Design Shaft Power per Unit Flow Rate per Unit Head
+        \type real
+        \note Used to size Design Power Consumption from design flow rate for head and motor efficiency
+        \default 1.282051282
+        \units W/((m3/s)-Pa)
+        \ip-units W/((gal/min)-ftH20)
+        \minimum> 0
+  N15,  \field Design Minimum Flow Rate Fraction
+        \type real
+        \note Used to size Design Minimum Flow Rate
+        \default 0.0
+        \minimum 0
+        \maximum 1.0
+  A15; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+Pump:ConstantSpeed,
+       \memo This pump model is described in the ASHRAE secondary HVAC toolkit.
+       \min-fields 9
+  A1,  \field Name
+       \required-field
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Inlet Node Name
+       \required-field
+       \type node
+  A3 , \field Outlet Node Name
+       \required-field
+       \type node
+  N1 , \field Design Flow Rate
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+       \minimum> 0
+  N2 , \field Design Pump Head
+       \units Pa
+       \default 179352
+       \note default head is 60 feet
+       \ip-units ftH2O
+  N3 , \field Design Power Consumption
+       \note When autosized the type of scaling factor is chosen in the input field Design Power Sizing Method
+       \units W
+       \autosizable
+       \ip-units W
+  N4 , \field Motor Efficiency
+       \note This is the motor efficiency only. When the Design Power Consumption is autosized using PowerPerFlowPerPressure,
+       \note the Design Shaft Power per Unit Flow Rate per Unit Head is used in addition to the motor efficiency.
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.9
+  N5 , \field Fraction of Motor Inefficiencies to Fluid Stream
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  A4 , \field Pump Control Type
+       \type choice
+       \key Continuous
+       \key Intermittent
+       \default Continuous
+  A5 , \field Pump Flow Rate Schedule Name
+       \note Modifies the rated flow rate of the pump on a time basis. Default is
+       \note that the pump is on and runs according to its other operational requirements
+       \note specified above. The schedule is for special pump operations.
+       \type object-list
+       \object-list ScheduleNames
+  A6 , \field Pump Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note This references any single independent variable polynomial curve in order to
+       \note  do pressure vs. flow calculations for this pump. The available types are then:
+       \note  Linear, Quadratic, Cubic, and Quartic
+       \note The non-dimensional pump pressure relationship is of the following form:
+       \note  (psi = C4*phi^4 + C3*phi^3 + C2*phi^2 + C1*phi + C0)
+       \note Where the non-dimensional variables are defined as:
+       \note  delP = rho * ((N/60)^2) * (D^2) * psi
+       \note  mdot = rho * (N/60) * (D^3) * phi
+  N6 , \field Impeller Diameter
+       \units m
+       \type real
+       \note "D" in above expression in field A6
+  N7 , \field Rotational Speed
+       \units rev/min
+       \type real
+       \note "N" in above expression in field A6
+  A7,  \field Zone Name
+       \note optional, if used pump losses transfered to zone as internal gains
+       \type object-list
+       \object-list ZoneNames
+  N8,  \field Skin Loss Radiative Fraction
+       \note optional. If zone identified in previous field then this determines
+       \note the split between convection and radiation for the skin losses
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A8,  \field Design Power Sizing Method
+       \note Used to indicate which sizing factor is used to calculate Design Power Consumption.
+       \type choice
+       \key PowerPerFlow
+       \note PowerPerFlow indicates that Design Electric Power per Unit Flow Rate is used as scaling factor.
+       \note Design Power Consumption = Design Maximum Flow Rate * scaling factor
+       \key PowerPerFlowPerPressure
+       \note PowerPerFlowPerPressure indicates that Design Shaft Power per Unit Flow Rate per Unit Head is used as scaling factor.
+       \note Design Power Consumption = Design Maximum Flow Rate * Design Pump Head * scaling factor / Motor Efficiency
+       \default PowerPerFlowPerPressure
+  N9,  \field Design Electric Power per Unit Flow Rate
+       \type real
+       \note Used to size Design Power Consumption from design flow rate
+       \default 348701.1
+       \units W/(m3/s)
+       \ip-units W/(gal/min)
+       \minimum> 0
+  N10, \field Design Shaft Power per Unit Flow Rate per Unit Head
+       \type real
+       \note Used to size Design Power Consumption from design flow rate for head and motor efficiency
+       \default 1.282051282
+       \units W/((m3/s)-Pa)
+       \ip-units W/((gal/min)-ftH20)
+       \minimum> 0
+  A9;  \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+Pump:VariableSpeed:Condensate,
+       \memo This pump model is described in the ASHRAE secondary HVAC toolkit.
+       \memo Variable Speed Condensate pump for Steam Systems
+       \min-fields 13
+  A1 , \field Name
+       \required-field
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Inlet Node Name
+       \required-field
+       \type node
+  A3 , \field Outlet Node Name
+       \required-field
+       \type node
+  N1 , \field Design Steam Volume Flow Rate
+       \note this is the volume of steam before condensation, the volume of condensate is much lower and calculated from steam density
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+       \minimum> 0
+  N2 , \field Design Pump Head
+       \units Pa
+       \default 179352
+       \note default head is 60 feet
+       \ip-units ftH2O
+  N3 , \field Design Power Consumption
+       \note When autosized the type of scaling factor is chosen in the input field Design Power Sizing Method
+       \units W
+       \autosizable
+       \ip-units W
+  N4 , \field Motor Efficiency
+       \note This is the motor efficiency only. When the Design Power Consumption is autosized using PowerPerFlowPerPressure,
+       \note the Design Shaft Power per Unit Flow Rate per Unit Head is used in addition to the motor efficiency.
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.9
+  N5 , \field Fraction of Motor Inefficiencies to Fluid Stream
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N6 , \field Coefficient 1 of the Part Load Performance Curve
+       \default 0.0
+  N7 , \field Coefficient 2 of the Part Load Performance Curve
+       \default 1.0
+  N8 , \field Coefficient 3 of the Part Load Performance Curve
+       \default 0.0
+  N9,  \field Coefficient 4 of the Part Load Performance Curve
+       \default 0.0
+  A4 , \field Pump Flow Rate Schedule Name
+       \note Modifies the rated flow rate of the pump on a time basis. Default is
+       \note that the pump is on and runs according to its other operational requirements
+       \note specified above. The schedule is for special pump operations.
+       \type object-list
+       \object-list ScheduleNames
+  A5 , \field Zone Name
+       \note optional, if used pump losses transfered to zone as internal gains
+       \type object-list
+       \object-list ZoneNames
+  N10, \field Skin Loss Radiative Fraction
+       \note optional. If zone identified in previous field then this determines
+       \note the split between convection and radiation for the skin losses
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A6,  \field Design Power Sizing Method
+       \note Used to indicate which sizing factor is used to calculate Design Power Consumption.
+       \type choice
+       \key PowerPerFlow
+       \note PowerPerFlow indicates that Design Electric Power per Unit Flow Rate is used as scaling factor.
+       \note Design Power Consumption = Design Maximum Flow Rate * scaling factor
+       \key PowerPerFlowPerPressure
+       \note PowerPerFlowPerPressure indicates that Design Shaft Power per Unit Flow Rate per Unit Head is used as scaling factor.
+       \note Design Power Consumption = Design Maximum Flow Rate * Design Pump Head * scaling factor / Motor Efficiency
+       \default PowerPerFlowPerPressure
+  N11, \field Design Electric Power per Unit Flow Rate
+       \type real
+       \note Used to size Design Power Consumption from design flow rate
+       \default 348701.1
+       \units W/(m3/s)
+       \ip-units W/(gal/min)
+       \minimum> 0
+  N12, \field Design Shaft Power per Unit Flow Rate per Unit Head
+       \type real
+       \note Used to size Design Power Consumption from design flow rate for head and motor efficiency
+       \default 1.282051282
+       \units W/((m3/s)-Pa)
+       \ip-units W/((gal/min)-ftH20)
+       \minimum> 0
+  A7;  \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+HeaderedPumps:ConstantSpeed,
+       \memo This Headered pump object describes a pump bank with more than 1 pump in parallel
+       \min-fields 9
+  A1 , \field Name
+       \required-field
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Inlet Node Name
+       \required-field
+       \type node
+  A3 , \field Outlet Node Name
+       \required-field
+       \type node
+  N1 , \field Total Design Flow Rate
+       \note If the field is not autosized set to the flow rate to
+       \note the total flow when all pumps are running at full load
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+       \minimum> 0
+  N2 , \field Number of Pumps in Bank
+       \type integer
+  A4 , \field Flow Sequencing Control Scheme
+       \type choice
+       \key Sequential
+       \default Sequential
+  N3 , \field Design Pump Head
+       \units Pa
+       \default 179352
+       \note default head is 60 feet
+       \ip-units ftH2O
+  N4 , \field Design Power Consumption
+       \note If the field is not autosized set to the power consumed by the pump bank
+       \note when all the pumps are running at nominal flow
+       \note When autosized the type of scaling factor is chosen in the input field Design Power Sizing Method
+       \units W
+       \autosizable
+       \ip-units W
+  N5 , \field Motor Efficiency
+       \note This is the motor efficiency only. When the Design Power Consumption is autosized using PowerPerFlowPerPressure,
+       \note the Design Shaft Power per Unit Flow Rate per Unit Head is used in addition to the motor efficiency.
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.9
+  N6 , \field Fraction of Motor Inefficiencies to Fluid Stream
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  A5 , \field Pump Control Type
+       \type choice
+       \key Continuous
+       \key Intermittent
+       \default Continuous
+  A6 , \field Pump Flow Rate Schedule Name
+       \note Modifies the rated flow rate of the pump on a time basis. Default is
+       \note that the pump is on and runs according to its other operational requirements
+       \note specified above. The schedule is for special pump operations.
+       \type object-list
+       \object-list ScheduleNames
+  A7 , \field Zone Name
+       \note optional, if used pump losses transfered to zone as internal gains
+       \type object-list
+       \object-list ZoneNames
+  N7 , \field Skin Loss Radiative Fraction
+       \note optional. If zone identified in previous field then this determines
+       \note the split between convection and radiation for the skin losses
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A8,  \field Design Power Sizing Method
+       \note Used to indicate which sizing factor is used to calculate Design Power Consumption.
+       \type choice
+       \key PowerPerFlow
+       \note PowerPerFlow indicates that Design Electric Power per Unit Flow Rate is used as scaling factor.
+       \note Design Power Consumption = Design Maximum Flow Rate * scaling factor
+       \key PowerPerFlowPerPressure
+       \note PowerPerFlowPerPressure indicates that Design Shaft Power per Unit Flow Rate per Unit Head is used as scaling factor.
+       \note Design Power Consumption = Design Maximum Flow Rate * Design Pump Head * scaling factor / Motor Efficiency
+       \default PowerPerFlowPerPressure
+  N8,  \field Design Electric Power per Unit Flow Rate
+       \type real
+       \note Used to size Design Power Consumption from design flow rate
+       \default 348701.1
+       \units W/(m3/s)
+       \ip-units W/(gal/min)
+       \minimum> 0
+  N9,  \field Design Shaft Power per Unit Flow Rate per Unit Head
+       \type real
+       \note Used to size Design Power Consumption from design flow rate for head and motor efficiency
+       \default 1.282051282
+       \units W/((m3/s)-Pa)
+       \ip-units W/((gal/min)-ftH20)
+       \minimum> 0
+  A9;  \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+HeaderedPumps:VariableSpeed,
+       \memo This Headered pump object describes a pump bank with more than 1 pump in parallel
+       \min-fields 14
+  A1 , \field Name
+       \required-field
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Inlet Node Name
+       \required-field
+       \type node
+  A3 , \field Outlet Node Name
+       \required-field
+       \type node
+  N1 , \field Total Design Flow Rate
+       \note If the field is not autosized set to the flow rate to
+       \note the total flow when all pumps are running at full load
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+       \minimum> 0
+  N2 , \field Number of Pumps in Bank
+       \type integer
+  A4 , \field Flow Sequencing Control Scheme
+       \type choice
+       \key Sequential
+       \default Sequential
+  N3 , \field Design Pump Head
+       \units Pa
+       \default 179352
+       \note default head is 60 feet
+       \ip-units ftH2O
+  N4 , \field Design Power Consumption
+       \note If the field is not autosized set to the power consumed by the pump bank
+       \note when all the pumps are running at nominal flow
+       \note When autosized the type of scaling factor is chosen in the input field Design Power Sizing Method
+       \units W
+       \autosizable
+       \ip-units W
+  N5 , \field Motor Efficiency
+       \note This is the motor efficiency only. When the Design Power Consumption is autosized using PowerPerFlowPerPressure,
+       \note the Design Shaft Power per Unit Flow Rate per Unit Head is used in addition to the motor efficiency.
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.9
+  N6 , \field Fraction of Motor Inefficiencies to Fluid Stream
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N7 , \field Coefficient 1 of the Part Load Performance Curve
+       \default 0.0
+  N8 , \field Coefficient 2 of the Part Load Performance Curve
+       \default 1.0
+  N9, \field Coefficient 3 of the Part Load Performance Curve
+       \default 0.0
+  N10, \field Coefficient 4 of the Part Load Performance Curve
+       \default 0.0
+  N11, \field Minimum Flow Rate Fraction
+       \note This value can be zero and will be defaulted to that if not specified.
+       \default 0.0
+       \minimum 0.0
+       \maximum 1.0
+  A5 , \field Pump Control Type
+       \type choice
+       \key Continuous
+       \key Intermittent
+       \default Continuous
+  A6 , \field Pump Flow Rate Schedule Name
+       \note Modifies the rated flow rate of the pump on a time basis. Default is
+       \note that the pump is on and runs according to its other operational requirements
+       \note specified above. The schedule is for special pump operations.
+       \type object-list
+       \object-list ScheduleNames
+  A7 , \field Zone Name
+       \note optional, if used pump losses transfered to zone as internal gains
+       \type object-list
+       \object-list ZoneNames
+  N12, \field Skin Loss Radiative Fraction
+       \note optional. If zone identified in previous field then this determines
+       \note the split between convection and radiation for the skin losses
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A8,  \field Design Power Sizing Method
+       \note Used to indicate which sizing factor is used to calculate Design Power Consumption.
+       \type choice
+       \key PowerPerFlow
+       \note PowerPerFlow indicates that Design Electric Power per Unit Flow Rate is used as scaling factor.
+       \note Design Power Consumption = Design Maximum Flow Rate * scaling factor
+       \key PowerPerFlowPerPressure
+       \note PowerPerFlowPerPressure indicates that Design Shaft Power per Unit Flow Rate per Unit Head is used as scaling factor.
+       \note Design Power Consumption = Design Maximum Flow Rate * Design Pump Head * scaling factor / Motor Efficiency
+       \default PowerPerFlowPerPressure
+  N13, \field Design Electric Power per Unit Flow Rate
+       \type real
+       \note Used to size Design Power Consumption from design flow rate
+       \default 348701.1
+       \units W/(m3/s)
+       \ip-units W/(gal/min)
+       \minimum> 0
+  N14, \field Design Shaft Power per Unit Flow Rate per Unit Head
+       \type real
+       \note Used to size Design Power Consumption from design flow rate for head and motor efficiency
+       \default 1.282051282
+       \units W/((m3/s)-Pa)
+       \ip-units W/((gal/min)-ftH20)
+       \minimum> 0
+  A9;  \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+\group Plant-Condenser Flow Control
+
+TemperingValve,
+      \memo Temperature-controlled diversion valve used to divert flow around one or more plant
+      \memo components such as a hot water heater. It can only be used on one of two branches
+      \memo between a Splitter and a Mixer.
+  A1, \field Name
+      \required-field
+      \type alpha
+      \reference-class-name validPlantEquipmentTypes
+      \reference validPlantEquipmentNames
+      \reference-class-name validCondenserEquipmentTypes
+      \reference validCondenserEquipmentNames
+      \reference-class-name validBranchEquipmentTypes
+      \reference validBranchEquipmentNames
+  A2, \field Inlet Node Name
+      \required-field
+      \type node
+      \note Name of a Node
+  A3, \field Outlet Node Name
+      \required-field
+      \type node
+      \note Name of a Node
+  A4, \field Stream 2 Source Node Name
+      \required-field
+      \type node
+      \note Name of a Node
+  A5, \field Temperature Setpoint Node Name
+      \required-field
+      \type node
+      \note Name of a Node
+  A6; \field Pump Outlet Node Name
+      \required-field
+      \type node
+
+\group Non-Zone Equipment
+
+LoadProfile:Plant,
+       \memo Used to simulate a scheduled plant loop demand profile. Load and flow rate are
+       \memo specified using schedules. Positive values are heating loads, and negative values are
+       \memo cooling loads. The actual load met is dependent on the performance of the supply
+       \memo loop components.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Inlet Node Name
+       \required-field
+       \type node
+  A3 , \field Outlet Node Name
+       \required-field
+       \type node
+  A4 , \field Load Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values are load in [W]
+  N1 , \field Peak Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \ip-units gal/min
+  A5 ; \field Flow Rate Fraction Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+
+\group Solar Collectors
+
+SolarCollectorPerformance:FlatPlate,
+       \memo Thermal and optical performance parameters for a single flat plate solar collector
+       \memo module. These parameters are based on the testing methodologies described in ASHRAE
+       \memo Standards 93 and 96 which are used Solar Rating and Certification Corporation (SRCC)
+       \memo Directory of SRCC Certified Solar Collector Ratings. See EnergyPlus DataSets file
+       \memo SolarCollectors.idf.
+       \min-fields 7
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference FlatPlateSolarCollectorParameters
+  N1 , \field Gross Area
+       \required-field
+       \type real
+       \minimum> 0
+       \units m2
+  A2,  \field Test Fluid
+       \type choice
+       \key Water
+       \default Water
+  N2,  \field Test Flow Rate
+       \required-field
+       \type real
+       \minimum> 0
+       \units m3/s
+       \ip-units gal/min
+  A3 , \field Test Correlation Type
+       \required-field
+       \type choice
+       \key Inlet
+       \key Average
+       \key Outlet
+  N3 , \field Coefficient 1 of Efficiency Equation
+       \required-field
+       \type real
+       \units dimensionless
+       \note Y-intercept term
+  N4 , \field Coefficient 2 of Efficiency Equation
+       \required-field
+       \type real
+       \units W/m2-K
+       \note 1st Order term
+  N5 , \field Coefficient 3 of Efficiency Equation
+       \type real
+       \units W/m2-K2
+       \note 2nd order term
+  N6 , \field Coefficient 2 of Incident Angle Modifier
+       \type real
+       \note 1st order term
+  N7 ; \field Coefficient 3 of Incident Angle Modifier
+       \type real
+       \note 2nd order term
+
+SolarCollector:FlatPlate:Water,
+       \memo Flat plate water solar collector (single glazed, unglazed, or evacuated tube).
+       \memo Thermal and optical properties are taken from the referenced
+       \memo SolarCollectorPerformance:FlatPlate object. Collector tilt, azimuth, and gross area
+       \memo are taken from the referenced building surface or shading surface. The collector
+       \memo surface participates normally in all shading calculations.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+  A2 , \field SolarCollectorPerformance Name
+       \required-field
+       \type object-list
+       \object-list FlatPlateSolarCollectorParameters
+  A3 , \field Surface Name
+       \required-field
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A4 , \field Inlet Node Name
+       \required-field
+       \type node
+  A5 , \field Outlet Node Name
+       \required-field
+       \type node
+  N1 ; \field Maximum Flow Rate
+       \type real
+       \minimum> 0
+       \units m3/s
+       \ip-units gal/min
+
+SolarCollector:FlatPlate:PhotovoltaicThermal,
+       \memo Models hybrid photovoltaic-thermal (PVT) solar collectors that convert incident solar
+       \memo energy into both electricity and useful thermal energy by heating air or water.
+  A1 , \field Name
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+  A2 , \field Surface Name
+       \required-field
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A3 , \field Photovoltaic-Thermal Model Performance Name
+       \type object-list
+       \object-list FlatPlatePVTParameters
+  A4 , \field Photovoltaic Name
+       \note Enter the name of a Generator:Photovoltaic object.
+       \type object-list
+       \object-list PVGeneratorNames
+  A5 , \field Thermal Working Fluid Type
+       \type choice
+       \key Water
+       \key Air
+  A6 , \field Water Inlet Node Name
+       \type node
+  A7 , \field Water Outlet Node Name
+       \type node
+  A8 , \field Air Inlet Node Name
+       \type node
+  A9 , \field Air Outlet Node Name
+       \type node
+  N1 ; \field Design Flow Rate
+       \units m3/s
+       \autosizable
+
+SolarCollectorPerformance:PhotovoltaicThermal:Simple,
+       \memo Thermal performance parameters for a hybrid photovoltaic-thermal (PVT) solar collector.
+  A1 , \field Name
+       \reference FlatPlatePVTParameters
+  N1 , \field Fraction of Surface Area with Active Thermal Collector
+       \required-field
+       \type real
+       \units dimensionless
+       \minimum> 0.0
+       \maximum 1.0
+  A2 , \field Thermal Conversion Efficiency Input Mode Type
+       \type choice
+       \key Fixed
+       \key Scheduled
+  N2 , \field Value for Thermal Conversion Efficiency if Fixed
+       \note Efficiency = (thermal power generated [W])/(incident solar[W])
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A3 , \field Thermal Conversion Efficiency Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  N3 ; \field Front Surface Emittance
+       \type real
+       \default 0.84
+       \minimum> 0.00
+       \maximum< 1.00
+
+SolarCollector:IntegralCollectorStorage,
+       \memo Glazed solar collector with integral storage unit. Thermal and optical properties are
+       \memo taken from the referenced SolarCollectorPerformance:IntegralCollectorStorage object.
+       \memo Collector tilt, azimuth, and gross area are taken from the referenced building surface
+       \memo or shading surface. The collector surface participates normally in all shading
+       \memo calculations.
+       \min-fields 7
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+  A2 , \field IntegralCollectorStorageParameters Name
+       \required-field
+       \type object-list
+       \object-list CollectorStoragePerformance
+  A3 , \field Surface Name
+       \required-field
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A4 , \field Bottom Surface Boundary Conditions Type
+       \type choice
+       \key OtherSideConditionsModel
+       \key AmbientAir
+       \default AmbientAir
+  A5 , \field Boundary Condition Model Name
+       \type alpha
+       \note Enter the name of a SurfaceProperty:OtherSideConditionsModel
+       \note object. Specified only if the boundary condition type is
+       \note OtherSideConditionsModel, otherwise leave it blank
+  A6 , \field Inlet Node Name
+       \required-field
+       \type node
+  A7 , \field Outlet Node Name
+       \required-field
+       \type node
+  N1 ; \field Maximum Flow Rate
+       \type real
+       \minimum> 0
+       \units m3/s
+       \ip-units gal/min
+
+SolarCollectorPerformance:IntegralCollectorStorage,
+       \memo Thermal and optical performance parameters for a single glazed solar collector with
+       \memo integral storage unit.
+       \min-fields 19
+  A1,  \field Name
+       \required-field
+       \type alpha
+       \reference CollectorStoragePerformance
+  A2,  \field ICS Collector Type
+       \type choice
+       \key RectangularTank
+       \default RectangularTank
+       \note Currently only RectangularTank ICS collector type is available.
+  N1,  \field Gross Area
+       \type real
+       \minimum> 0
+       \units m2
+  N2,  \field Collector Water Volume
+       \type real
+       \minimum> 0
+       \units m3
+       \ip-units gal
+  N3,  \field Bottom Heat Loss Conductance
+       \type real
+       \minimum> 0
+       \default 0.40
+       \units W/m2-K
+       \note Heat loss conductance of the collector bottom insulation
+  N4,  \field Side Heat Loss Conductance
+       \type real
+       \minimum> 0
+       \default 0.60
+       \units W/m2-K
+       \note heat loss conductance of the collector side insulation
+  N5,  \field Aspect Ratio
+       \type real
+       \minimum> 0.5
+       \maximum< 1.0
+       \default 0.8
+       \units m
+       \note This value is ratio of the width (short side) to length
+       \note (long side of) of the collector. Used to calculate the
+       \note perimeter of the collector
+  N6,  \field Collector Side Height
+       \type real
+       \minimum> 0
+       \maximum< 0.30
+       \default 0.20
+       \units m
+       \note This value is used to estimate collector side area for the heat
+       \note loss calculation through the collector side
+  N7,  \field Thermal Mass of Absorber Plate
+       \type real
+       \minimum 0
+       \default 0
+       \units J/m2-K
+       \note Calculated from the specific heat, density and thickness
+       \note of the absorber plate.
+  N8,  \field Number of Covers
+       \type integer
+       \minimum 1
+       \maximum 2
+       \default 2
+       \note Number of transparent covers. Common practice is to use low-iron
+       \note glass as the outer cover and very thin transparent sheet such as
+       \note Teflon as the inner cover.
+  N9,  \field Cover Spacing
+       \type real
+       \minimum> 0
+       \maximum 0.20
+       \default 0.05
+       \units m
+       \note The gap between the transparent covers and between the inner cover
+       \note and the absorber plate
+  N10,  \field Refractive Index of Outer Cover
+       \type real
+       \minimum 1.0
+       \maximum 2.0
+       \default 1.526
+       \units dimensionless
+       \note Refractive index of outer cover. Typically low-iron glass is used
+       \note as the outer cover material, and used as the default outer cover
+       \note with a value of 1.526.
+  N11,  \field Extinction Coefficient Times Thickness of Outer Cover
+       \type real
+       \minimum 0.
+       \default 0.045
+       \units dimensionless
+       \note Clear glass has extinction coefficient of about 15 [1/m]
+       \note and with thickness of 3.0mm, the product of the extinction
+       \note coefficient and thickness becomes 0.045 (=15 * 0.003)
+  N12,  \field Emissivity of Outer Cover
+       \type real
+       \minimum> 0.
+       \maximum< 1.0
+       \default 0.88
+       \units dimensionless
+       \note Thermal emissivity of the outer cover, commonly glass is used as
+       \note the out collector cover material.
+  N13,  \field Refractive Index of Inner Cover
+       \type real
+       \minimum 1.0
+       \maximum 2.0
+       \default 1.37
+       \units dimensionless
+       \note Typical material is very thin sheet of Teflon (PTFE). The default
+       \note value is refractive index of Teflon.
+  N14, \field Extinction Coefficient Times Thickness of the inner Cover
+       \type real
+       \minimum 0.
+       \default 0.008
+       \units dimensionless
+       \note Default inner cover is very thin sheet of Teflon with
+       \note extinction coefficient of approximately 40.0 and a thickness
+       \note 0.2mm yields a default value of 0.008.
+  N15, \field Emissivity of Inner Cover
+       \type real
+       \minimum> 0.
+       \maximum< 1.0
+       \default 0.88
+       \units dimensionless
+       \note Thermal emissivity of the inner cover material
+  N16, \field Absorptance of Absorber Plate
+       \type real
+       \minimum> 0.
+       \maximum< 1.0
+       \default 0.96
+       \units dimensionless
+       \note The absorber plate solar absorptance. Copper is assumed as
+       \note the default absorber plate.
+  N17; \field Emissivity of Absorber Plate
+       \type real
+       \minimum> 0.
+       \maximum< 1.0
+       \default 0.30
+       \units dimensionless
+       \note Thermal emissivity of the absorber plate
+
+SolarCollector:UnglazedTranspired,
+       \memo Unglazed transpired solar collector (UTSC) used to condition outdoor air. This type of
+       \memo collector is generally used to heat air drawn through perforated absorbers and also
+       \memo recover heat conducted out through the underlying surface. This object represents a
+       \memo single collector attached to one or more building or shading surfaces and to one or
+       \memo more outdoor air systems.
+       \min-fields 23
+       \extensible:1 - repeat last field, remembering to remove ; from "inner" fields.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference UTSCNames
+       \reference-class-name validOASysEquipmentTypes
+       \reference validOASysEquipmentNames
+  A2,  \field Boundary Conditions Model Name
+       \required-field
+       \type object-list
+       \object-list OSCMNames
+       \note Enter the name of a SurfaceProperty:OtherSideConditionsModel object
+  A3 , \field Availability Schedule Name
+       \note Availability schedule name for this collector. Schedule value > 0 means it is available.
+       \note If this field is blank, the collector is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A4 , \field Inlet Node Name
+       \type node
+       \note required field if no SolarCollector:UnglazedTranspired:Multisystem
+  A5 , \field Outlet Node Name
+       \type node
+       \note required field if no SolarCollector:UnglazedTranspired:Multisystem
+  A6,  \field Setpoint Node Name
+       \type node
+       \note This node is where the mixed air setpoint is determined.
+       \note required field if no SolarCollector:UnglazedTranspired:Multisystem
+  A7,  \field Zone Node Name
+       \type node
+       \note This node is used to identify the affected zone
+       \note required field if no SolarCollector:UnglazedTranspired:Multisystem
+  A8,  \field Free Heating Setpoint Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  N1,  \field Diameter of Perforations in Collector
+       \required-field
+       \type real
+       \minimum> 0
+       \units m
+  N2,  \field Distance Between Perforations in Collector
+       \required-field
+       \type real
+       \minimum> 0
+       \units m
+  N3,  \field Thermal Emissivity of Collector Surface
+       \required-field
+       \type real
+       \minimum 0
+       \maximum 1
+       \units dimensionless
+  N4,  \field Solar Absorbtivity of Collector Surface
+       \required-field
+       \type real
+       \minimum 0
+       \maximum 1
+       \units dimensionless
+  N5, \field Effective Overall Height of Collector
+       \required-field
+       \type real
+       \minimum> 0.0
+  N6,  \field Effective Gap Thickness of Plenum Behind Collector
+       \required-field
+       \type real
+       \minimum> 0.
+       \units m
+       \note if corrugated, use average depth
+  N7,  \field Effective Cross Section Area of Plenum Behind Collector
+       \required-field
+       \type real
+       \minimum> 0
+       \units m2
+       \note if corrugated, use average depth
+  A9,  \field Hole Layout Pattern for Pitch
+       \type choice
+       \key Triangle
+       \key Square
+       \default Square
+  A10,  \field Heat Exchange Effectiveness Correlation
+       \type choice
+       \key Kutscher1994
+       \key VanDeckerHollandsBrunger2001
+       \default Kutscher1994
+  N8,  \field Ratio of Actual Collector Surface Area to Projected Surface Area
+       \type real
+       \note This parameter is used to help account for corrugations in the collector
+       \default 1.0
+       \minimum 1.0
+       \maximum 2.0
+       \units dimensionless
+  A11, \field Roughness of Collector
+       \required-field
+       \type choice
+       \key VeryRough
+       \key Rough
+       \key MediumRough
+       \key MediumSmooth
+       \key Smooth
+       \key VerySmooth
+  N9, \field Collector Thickness
+       \type real
+       \note Collector thickness is not required for Kutscher correlation
+       \note Collector thickness is required for Van Decker et al. correlation
+       \minimum 0.0005
+       \maximum 0.007
+       \units m
+  N10, \field Effectiveness for Perforations with Respect to Wind
+       \note Cv
+       \type real
+       \units dimensionless
+       \default 0.25
+       \minimum> 0
+       \maximum 1.5
+  N11, \field Discharge Coefficient for Openings with Respect to Buoyancy Driven Flow
+       \note Cd
+       \type real
+       \units dimensionless
+       \default 0.65
+       \minimum> 0.0
+       \maximum 1.5
+  A12, \field Surface 1 Name
+       \begin-extensible
+       \required-field
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A13, \field Surface 2 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A14, \field Surface 3 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A15, \field Surface 4 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A16, \field Surface 5 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A17, \field Surface 6 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A18, \field Surface 7 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A19, \field Surface 8 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A20, \field Surface 9 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A21; \field Surface 10 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+
+SolarCollector:UnglazedTranspired:Multisystem,
+       \extensible:4 - repeat last four fields, remembering to remove ; from "inner" fields.
+       \memo quad-tuples of inlet, outlet, control, and zone nodes
+       \memo for multiple different outdoor air systems attached to same collector
+  A1 , \field Solar Collector Name
+       \required-field
+       \note Enter the name of a SolarCollector:UnglazedTranspired object.
+       \type object-list
+       \object-list UTSCNames
+  A2 , \field Outdoor Air System 1 Collector Inlet Node
+       \begin-extensible
+       \type node
+  A3 , \field Outdoor Air System 1 Collector Outlet Node
+       \type node
+  A4 , \field Outdoor Air System 1 Mixed Air Node
+       \type node
+  A5 , \field Outdoor Air System 1 Zone Node
+       \type node
+  A6 , \field Outdoor Air System 2 Collector Inlet Node
+       \type node
+  A7 , \field Outdoor Air System 2 Collector Outlet Node
+       \type node
+  A8 , \field Outdoor Air System 2 Mixed Air Node
+       \type node
+  A9 , \field Outdoor Air System 2 Zone Node
+       \type node
+  A10, \field Outdoor Air System 3 Collector Inlet Node
+       \type node
+  A11, \field Outdoor Air System 3 Collector Outlet Node
+       \type node
+  A12, \field Outdoor Air System 3 Mixed Air Node
+       \type node
+  A13, \field Outdoor Air System 3 Zone Node
+       \type node
+  A14, \field Outdoor Air System 4 Collector Inlet Node
+       \type node
+  A15, \field Outdoor Air System 4 Collector Outlet Node
+       \type node
+  A16, \field Outdoor Air System 4 Mixed Air Node
+       \type node
+  A17, \field Outdoor Air System 4 Zone Node
+       \type node
+  A18, \field Outdoor Air System 5 Collector Inlet Node
+       \type node
+  A19, \field Outdoor Air System 5 Collector Outlet Node
+       \type node
+  A20, \field Outdoor Air System 5 Mixed Air Node
+       \type node
+  A21; \field Outdoor Air System 5 Zone Node
+       \type node
+
+!*****************PLANT EQUIPMENT*********************
+!KEY--Plant Equipment:  The following types are used to specify
+!                  equipment connected to the supply side of
+!                  the supply side of the plant loop. Note
+!                  that at least one inlet and outlet node
+!                  must be specified for each node
+!  CLASS of the following comes first (naming convention) separated further by :
+
+\group Plant Heating and Cooling Equipment
+
+Boiler:HotWater,
+    \min-fields 12
+       \memo This boiler model is an adaptation of the empirical model from the Building
+       \memo Loads and System Thermodynamics (BLAST) program. Boiler performance
+       \memo curves are generated by fitting catalog data to polynomial equations.
+       \memo A constant efficiency boiler may be modeled by leaving the normalized
+       \memo boiler efficiency curve name input blank.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference Boilers
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Fuel Type
+       \required-field
+       \type choice
+       \key Electricity
+       \key NaturalGas
+       \key Propane
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key Coal
+       \key Diesel
+       \key Gasoline
+       \key OtherFuel1
+       \key OtherFuel2
+  N1 , \field Nominal Capacity
+       \type real
+       \units W
+       \autosizable
+       \minimum 0.0
+  N2 , \field Nominal Thermal Efficiency
+       \required-field
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \note Based on the higher heating value of fuel.
+  A3 , \field Efficiency Curve Temperature Evaluation Variable
+       \type choice
+       \key EnteringBoiler
+       \key LeavingBoiler
+  A4 , \field Normalized Boiler Efficiency Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note Linear, Quadratic and Cubic efficiency curves are solely a function of PLR.
+       \note All other efficiency curve types are a function of PLR and boiler water temperature.
+       \note Linear = C1 + C2*PLR
+       \note Quadratic = C1 + C2*PLR + C3*PLR^2
+       \note Cubic = C1 + C2*PLR + C3*PLR^2 + C4*PLR^3
+       \note Biquadratic = C1 + C2*PLR + C3*PLR^2 + C4*T + C5*T^2 + C6*PLR*T
+       \note QuadraticLinear = C1 + C2*PLR + C3*PLR^2 + (C4 + C5*PLR + C6*PLR^2)*T
+       \note BiCubic = C1+C2*PLR+C3*PLR^2+C4*T+C5*T^2+C6*PLR*T+C7*PLR^3+C8*T^3+C9*PLR^2*T+C10*PLR*T^2
+       \note TriQuadratic curves are not allowed.
+       \note PLR = part-load ratio
+       \note T = boiler water temperature (either entering or leaving).
+  N3 , \field Design Water Flow Rate
+       \type real
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+       \minimum 0.0
+       \default autosize
+  N4 , \field Minimum Part Load Ratio
+       \type real
+       \minimum 0.0
+       \default 0.0
+  N5 , \field Maximum Part Load Ratio
+       \type real
+       \minimum 0.0
+       \default 1.0
+  N6 , \field Optimum Part Load Ratio
+       \type real
+       \minimum 0.0
+       \default 1.0
+  A5 , \field Boiler Water Inlet Node Name
+       \required-field
+       \type node
+  A6 , \field Boiler Water Outlet Node Name
+       \required-field
+       \type node
+  N7 , \field Water Outlet Upper Temperature Limit
+       \type real
+       \units C
+       \default 99.9
+  A7 , \field Boiler Flow Mode
+       \note Select operating mode for fluid flow through the boiler. "NotModulated" is for
+       \note either variable or constant pumping with flow controlled by the external plant system.
+       \note "ConstantFlow" is for constant pumping with flow controlled by boiler to operate at
+       \note full design flow rate. "LeavingSetpointModulated" is for variable pumping with flow
+       \note controlled by boiler to vary flow to target a leaving temperature setpoint.
+       \type choice
+       \key ConstantFlow
+       \key LeavingSetpointModulated
+       \key NotModulated
+       \default NotModulated
+  N8 , \field Parasitic Electric Load
+       \type real
+       \units W
+       \minimum 0.0
+       \default 0.0
+  N9, \field Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+  A8 ; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+Boiler:Steam,
+       \memo This boiler model is an adaptation of the empirical model from the Building
+       \memo Loads and System Thermodynamics (BLAST) program. Boiler performance
+       \memo curves are generated by fitting catalog data to third order
+       \memo polynomial equations. A constant efficiency boiler is modeled by setting
+       \memo the fuel use coefficients as follows: N9=1, N10=0, N11=0
+  A1 , \field Name
+       \required-field
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Fuel Type
+       \required-field
+       \type choice
+       \key Electricity
+       \key NaturalGas
+       \key Propane
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key Coal
+       \key Diesel
+       \key Gasoline
+       \key OtherFuel1
+       \key OtherFuel2
+  N1 , \field Maximum Operating Pressure
+       \required-field
+       \units Pa
+       \default 160000
+  N2 , \field Theoretical Efficiency
+       \required-field
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.8
+  N3 , \field Design Outlet Steam Temperature
+       \required-field
+       \units C
+       \default 100
+  N4 , \field Nominal Capacity
+       \units W
+       \autosizable
+  N5 , \field Minimum Part Load Ratio
+       \minimum 0.0
+  N6 , \field Maximum Part Load Ratio
+       \minimum 0.0
+  N7 , \field Optimum Part Load Ratio
+       \minimum 0.0
+  N8 , \field Coefficient 1 of Fuel Use Function of Part Load Ratio Curve
+  N9 , \field Coefficient 2 of Fuel Use Function of Part Load Ratio Curve
+  N10, \field Coefficient 3 of Fuel Use Function of Part Load Ratio Curve
+  A3 , \field Water Inlet Node Name
+       \type node
+  A4 , \field Steam Outlet Node Name
+       \type node
+  N11, \field Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+  A5 ; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+Chiller:Electric:EIR,
+\min-fields 23
+   \memo This chiller model is the empirical model from the DOE-2 building Energy
+   \memo simulation program. Chiller performance at off-reference conditions is modeled
+   \memo using three polynomial equations. Three curves objects are required.
+  A1 , \field Name
+       \type alpha
+       \reference Chillers
+       \required-field
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  N1 , \field Reference Capacity
+       \type real
+       \units W
+       \required-field
+       \minimum> 0.0
+       \autosizable
+  N2 , \field Reference COP
+       \note Efficiency of the chiller compressor (cooling output/compressor energy input).
+       \note Condenser fan power should not be included here.
+       \type real
+       \units W/W
+       \required-field
+       \minimum> 0.0
+  N3 , \field Reference Leaving Chilled Water Temperature
+       \type real
+       \default 6.67
+       \units C
+  N4 , \field Reference Entering Condenser Fluid Temperature
+       \type real
+       \default 29.4
+       \units C
+  N5 , \field Reference Chilled Water Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0
+       \autosizable
+       \ip-units gal/min
+  N6 , \field Reference Condenser Fluid Flow Rate
+       \type real
+       \units m3/s
+       \autosizable
+       \minimum 0.0
+       \ip-units gal/min
+       \note This field is only used for Condenser Type = AirCooled or EvaporativelyCooled
+       \note when Heat Recovery is specified
+  A2 , \field Cooling Capacity Function of Temperature Curve Name
+       \note Cooling capacity as a function of CW supply temp and entering condenser temp
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*CWS + c*CWS**2 + d*ECT + e*ECT**2 + f*CWS*ECT
+       \note CWS = supply (leaving) chilled water temperature(C)
+       \note ECT = entering condenser fluid temperature(C)
+  A3 , \field Electric Input to Cooling Output Ratio Function of Temperature Curve Name
+       \note Electric Input Ratio (EIR) as a function of temperature
+       \note EIR = 1/COP
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*CWS + c*CWS**2 + d*ECT + e*ECT**2 + f*CWS*ECT
+       \note CWS = supply (leaving) chilled water temperature(C)
+       \note ECT = entering condenser fluid temperature(C)
+  A4 , \field Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
+       \note Electric Input Ratio (EIR) as a function of Part Load Ratio (PLR)
+       \note EIR = 1/COP
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note quadratic curve = a + b*PLR + c*PLR**2 is typical, other univariate curves may be used
+       \note PLR = part load ratio (cooling load/steady state capacity)
+  N7 , \field Minimum Part Load Ratio
+       \type real
+       \note Part load ratio below which the chiller starts cycling on/off to meet the load.
+       \note Must be less than or equal to Maximum Part Load Ratio.
+       \minimum 0.0
+       \default 0.1
+  N8 , \field Maximum Part Load Ratio
+       \type real
+       \note Maximum allowable part load ratio. Must be greater than or equal to Minimum Part Load Ratio.
+       \minimum> 0.0
+       \default 1.0
+  N9 , \field Optimum Part Load Ratio
+       \type real
+       \note Optimum part load ratio where the chiller is most efficient.
+       \note Must be greater than or equal to the Minimum Part Load Ratio
+       \note and less than or equal to the Maximum Part Load Ratio.
+       \minimum> 0.0
+       \default 1.0
+  N10, \field Minimum Unloading Ratio
+       \type real
+       \note Part load ratio where the chiller can no longer unload and false loading begins.
+       \note Minimum unloading ratio must be greater than or equal to the Minimum Part Load Ratio
+       \note and less than or equal to the Maximum Part Load Ratio.
+       \minimum 0.0
+       \default 0.2
+  A5 , \field Chilled Water Inlet Node Name
+       \type node
+       \required-field
+  A6 , \field Chilled Water Outlet Node Name
+       \type node
+       \required-field
+  A7 , \field Condenser Inlet Node Name
+       \type node
+       \note Not required if air-cooled or evaporatively-cooled
+  A8 , \field Condenser Outlet Node Name
+       \type node
+       \note Not required if air-cooled or evaporatively-cooled
+  A9 , \field Condenser Type
+       \type choice
+       \key AirCooled
+       \key WaterCooled
+       \key EvaporativelyCooled
+       \default WaterCooled
+  N11, \field Condenser Fan Power Ratio
+       \type real
+       \units W/W
+       \minimum 0.0
+       \default 0.0
+       \note Use for air-cooled or evaporatively-cooled condensers.
+       \note Ratio of condenser fan power to reference chiller capacity
+  N12, \field Fraction of Compressor Electric Consumption Rejected by Condenser
+       \type real
+       \note Fraction of compressor electrical energy that must be rejected by the condenser.
+       \note Enter a value of 1.0 when modeling hermetic chillers.
+       \note For open chillers, enter the compressor motor efficiency.
+       \note This value should be greater than 0.6 for practical applications.
+       \minimum> 0.0
+       \maximum 1.0
+       \default 1.0
+  N13, \field Leaving Chilled Water Lower Temperature Limit
+       \type real
+       \default 2.0
+       \units C
+  A10, \field Chiller Flow Mode
+       \note Select operating mode for fluid flow through the chiller. "NotModulated" is for
+       \note either variable or constant pumping with flow controlled by the external plant system.
+       \note "ConstantFlow" is for constant pumping with flow controlled by chiller to operate at
+       \note full design flow rate. "LeavingSetpointModulated" is for variable pumping with flow
+       \note controlled by chiller to vary flow to target a leaving temperature setpoint.
+       \type choice
+       \key ConstantFlow
+       \key LeavingSetpointModulated
+       \key NotModulated
+       \default NotModulated
+  N14, \field Design Heat Recovery Water Flow Rate
+       \type real
+       \note If non-zero, then the heat recovery inlet and outlet node names must be entered.
+       \note Heat recovery is only available with Condenser Type = WaterCooled.
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \autosizable
+       \ip-units gal/min
+  A11, \field Heat Recovery Inlet Node Name
+       \type node
+  A12, \field Heat Recovery Outlet Node Name
+       \type node
+  N15, \field Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+  N16, \field Basin Heater Capacity
+       \type real
+       \units W/K
+       \minimum 0.0
+       \default 0.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled and for periods
+       \note when the basin heater is available (field Basin Heater Operating Schedule Name).
+       \note For this situation, the heater maintains the basin water temperature at the basin heater
+       \note setpoint temperature when the outdoor air temperature falls below the setpoint temperature.
+       \note The basin heater only operates when the chiller is not operating.
+  N17, \field Basin Heater Setpoint Temperature
+       \type real
+       \units C
+       \minimum 2.0
+       \default 2.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Enter the outdoor dry-bulb temperature when the basin heater turns on.
+  A13, \field Basin Heater Operating Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+       \note air dry-bulb temperature is below the basin heater setpoint temperature.
+       \note If a schedule name is not entered, the basin heater is allowed to operate
+       \note throughout the entire simulation.
+  N18, \field Condenser Heat Recovery Relative Capacity Fraction
+       \note This optional field is the fraction of total rejected heat that can be recovered at full load
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A14, \field Heat Recovery Inlet High Temperature Limit Schedule Name
+       \note This optional schedule of temperatures will turn off heat recovery if inlet exceeds the value
+       \type object-list
+       \object-list ScheduleNames
+  A15, \field Heat Recovery Leaving Temperature Setpoint Node Name
+       \note This optional field provides control over the heat recovery
+       \note Using this triggers a model more suited to series bundle and chillers with higher temperature heat recovery
+       \note If this field is not used, the bundles are modeled as being in parallel
+       \type node
+  A16; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+Chiller:Electric:ReformulatedEIR,
+\min-fields 22
+   \memo This chiller model is an empirical model, a reformulated version of Chiller:Electric:EIR
+   \memo where the performance is a function of condenser leaving fluid Temperature instead of
+   \memo condenser entering fluid Temperature. Chiller performance at off-reference conditions is
+   \memo modeled using three polynomial equations. Three curve objects are required.
+  A1 , \field Name
+       \type alpha
+       \reference Chillers
+       \required-field
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+   N1 , \field Reference Capacity
+       \type real
+       \units W
+       \required-field
+       \minimum> 0.0
+       \autosizable
+  N2 , \field Reference COP
+       \note Efficiency of the chiller compressor (cooling output/compressor energy input).
+       \note Condenser fan power should not be included here.
+       \type real
+       \units W/W
+       \required-field
+       \minimum> 0.0
+  N3 , \field Reference Leaving Chilled Water Temperature
+       \type real
+       \default 6.67
+       \units C
+  N4 , \field Reference Leaving Condenser Water Temperature
+       \type real
+       \default 35.0
+       \units C
+  N5 , \field Reference Chilled Water Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0
+       \autosizable
+       \ip-units gal/min
+  N6 , \field Reference Condenser Water Flow Rate
+       \type real
+       \units m3/s
+       \autosizable
+       \minimum> 0.0
+       \ip-units gal/min
+  A2 , \field Cooling Capacity Function of Temperature Curve Name
+       \note Cooling capacity as a function of supply (leaving) chilled water temperature
+       \note and leaving condenser fluid temperature
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*CWS + c*CWS**2 + d*LCT + e*LCT**2 + f*CWS*LCT
+       \note CWS = supply (leaving) chilled water temperature(C)
+       \note LCT = leaving condenser fluid temperature(C)
+  A3 , \field Electric Input to Cooling Output Ratio Function of Temperature Curve Name
+       \note Electric Input Ratio (EIR) as a function of supply (leaving) chilled water temperature
+       \note and leaving condenser fluid temperature. EIR = 1/COP.
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*CWS + c*CWS**2 + d*LCT + e*LCT**2 + f*CWS*LCT
+       \note CWS = supply (leaving) chilled water temperature(C)
+       \note LCT = leaving condenser fluid temperature(C)
+  A4 , \field Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Type
+       \note Two curve types are available:
+       \note Type LeavingCondenserWaterTemperature: based on the leaving condenser water temperature.
+       \note Type Lift: based on the normalized lift, which is the temperature difference between the
+       \note leaving condenser water temperature and the leaving evaporator water temperature.
+       \type choice
+       \key LeavingCondenserWaterTemperature
+       \key Lift
+       \default LeavingCondenserWaterTemperature
+  A5 , \field Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
+       \note Electric Input Ratio (EIR) as a function of Part Load Ratio (PLR)
+       \note EIR = 1/COP
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \object-list TrivariateFunctions
+       \note The form of this curve is based on the input for
+       \note Electric Input to Cooling Output RatioFunction of Part Load Ratio Curve Type
+       \note Type=LeavingCondenserWaterTemperature: Calculated based on LCT and PLR
+       \note Curve object type should be Curve:Bicubic or Table:Lookup
+       \note Bicubic curve = a + b*LCT + c*LCT**2 + d*PLR + e*PLR**2 + f*LCT*PLR + g*0 + h*PLR**3
+       \note + i*0 + j*0
+       \note PLR = part load ratio (cooling load/steady state capacity)
+       \note LCT = leaving condenser fluid temperature(C)
+       \note Type=Lift: Calculated based on dT*, Tdev* and PLR
+       \note Curve object type should be Curve:ChillerPartLoadWithLiftCurves or Table:Lookup
+       \note ChillerPartLoadWithLiftCurves curve = a + b*(dT*) + c*(dT*)**2 + d*PLR + e*PLR**2 + f*(dT*)*PLR + g*(dT*)**3
+       \note + h*PLR**3 + i*(dT*)**2*PLR + j*(dT*)*PLR**2 + k*(dT*)**2*PLR**2 + l*(Tdev*)*PLR**3
+       \note x = dT* = normalized fractional Lift = dT / dTref
+       \note y = PLR = part load ratio (cooling load/steady state capacity)
+       \note z = Tdev* = normalized Tdev = Tdev / dTref
+       \note Where:
+       \note dT = Lift = Leaving Condenser Water Temperature - Leaving Chilled Water Temperature
+       \note dTref = dT at the reference condition
+       \note Tdev = Leaving Chilled Water Temperature - Reference Chilled Water Temperature
+  N7 , \field Minimum Part Load Ratio
+       \type real
+       \note Part load ratio below which the chiller starts cycling on/off to meet the load.
+       \note Must be less than or equal to Maximum Part Load Ratio.
+       \minimum 0.0
+       \default 0.1
+  N8 , \field Maximum Part Load Ratio
+       \type real
+       \note Maximum allowable part load ratio. Must be greater than or equal to Minimum Part Load Ratio.
+       \minimum> 0.0
+       \default 1.0
+  N9 , \field Optimum Part Load Ratio
+       \type real
+       \note Optimum part load ratio where the chiller is most efficient.
+       \note Must be greater than or equal to the Minimum Part Load Ratio
+       \note and less than or equal to the Maximum Part Load Ratio.
+       \minimum> 0.0
+       \default 1.0
+  N10, \field Minimum Unloading Ratio
+       \type real
+       \note Part load ratio where the chiller can no longer unload and false loading begins.
+       \note Minimum unloading ratio must be greater than or equal to the Minimum Part Load Ratio
+       \note and less than or equal to the Maximum Part Load Ratio.
+       \minimum 0.0
+       \default 0.2
+  A6 , \field Chilled Water Inlet Node Name
+       \type node
+       \required-field
+  A7 , \field Chilled Water Outlet Node Name
+       \type node
+       \required-field
+  A8 , \field Condenser Inlet Node Name
+       \type node
+       \required-field
+  A9 , \field Condenser Outlet Node Name
+       \type node
+       \required-field
+  N11, \field Fraction of Compressor Electric Consumption Rejected by Condenser
+       \type real
+       \note Fraction of compressor electrical energy that must be rejected by the condenser.
+       \note Enter a value of 1.0 when modeling hermetic chillers.
+       \note For open chillers, enter the compressor motor efficiency.
+       \note This value should be greater than 0.6 for practical applications.
+       \minimum> 0.0
+       \maximum 1.0
+       \default 1.0
+  N12, \field Leaving Chilled Water Lower Temperature Limit
+       \type real
+       \default 2.0
+       \units C
+  A10, \field Chiller Flow Mode Type
+       \note Select operating mode for fluid flow through the chiller. "NotModulated" is for
+       \note either variable or constant pumping with flow controlled by the external plant system.
+       \note "ConstantFlow" is for constant pumping with flow controlled by chiller to operate at
+       \note full design flow rate. "LeavingSetpointModulated" is for variable pumping with flow
+       \note controlled by chiller to vary flow to target a leaving temperature setpoint.
+       \type choice
+       \key ConstantFlow
+       \key LeavingSetpointModulated
+       \key NotModulated
+       \default NotModulated
+  N13, \field Design Heat Recovery Water Flow Rate
+       \type real
+       \note If non-zero, then the heat recovery inlet and outlet node names must be entered.
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \ip-units gal/min
+       \autosizable
+  A11, \field Heat Recovery Inlet Node Name
+       \type node
+  A12, \field Heat Recovery Outlet Node Name
+       \type node
+  N14, \field Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+  N15, \field Condenser Heat Recovery Relative Capacity Fraction
+       \note This optional field is the fraction of total rejected heat that can be recovered at full load
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A13, \field Heat Recovery Inlet High Temperature Limit Schedule Name
+       \note This optional schedule of temperatures will turn off heat recovery if inlet exceeds the value
+       \type object-list
+       \object-list ScheduleNames
+  A14, \field Heat Recovery Leaving Temperature Setpoint Node Name
+       \note This optional field provides control over the heat recovery
+       \note Using this triggers a model more suited to series bundle and chillers with higher temperature heat recovery
+       \note If this field is not used, the bundles are modeled as being in parallel
+       \type node
+  A15; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+Chiller:Electric,
+    \min-fields 27
+       \memo This chiller model is the empirical model from the Building Loads
+       \memo and System Thermodynamics (BLAST) program. Chiller performance
+       \memo curves are generated by fitting catalog data to third order
+       \memo polynomial equations. Three sets of coefficients are required.
+  A1 , \field Name
+       \required-field
+       \reference Chillers
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Condenser Type
+       \type choice
+       \key AirCooled
+       \key WaterCooled
+       \key EvaporativelyCooled
+       \default AirCooled
+  N1 , \field Nominal Capacity
+       \units W
+       \required-field
+       \autosizable
+       \minimum 0.0
+  N2 , \field Nominal COP
+       \required-field
+       \units W/W
+       \minimum> 0.0
+  A3 , \field Chilled Water Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Chilled Water Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Condenser Inlet Node Name
+       \type node
+  A6 , \field Condenser Outlet Node Name
+       \type node
+  N3 , \field Minimum Part Load Ratio
+       \minimum 0.0
+  N4 , \field Maximum Part Load Ratio
+       \minimum 0.0
+  N5 , \field Optimum Part Load Ratio
+       \minimum 0.0
+  N6 , \field Design Condenser Inlet Temperature
+       \units C
+  N7 , \field Temperature Rise Coefficient
+       \required-field
+       \minimum> 0.0
+  N8 , \field Design Chilled Water Outlet Temperature
+       \units C
+  N9 , \field Design Chilled Water Flow Rate
+       \note  For variable volume this is the maximum flow & for constant flow this is the flow.
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+       \minimum 0.0
+  N10, \field Design Condenser Fluid Flow Rate
+       \units m3/s
+       \autosizable
+       \minimum 0.0
+       \ip-units gal/min
+       \note This field is only used for Condenser Type = AirCooled or EvaporativelyCooled
+       \note when Heat Recovery is specified
+  N11, \field Coefficient 1 of Capacity Ratio Curve
+  N12, \field Coefficient 2 of Capacity Ratio Curve
+  N13, \field Coefficient 3 of Capacity Ratio Curve
+  N14, \field Coefficient 1 of Power Ratio Curve
+  N15, \field Coefficient 2 of Power Ratio Curve
+  N16, \field Coefficient 3 of Power Ratio Curve
+  N17, \field Coefficient 1 of Full Load Ratio Curve
+  N18, \field Coefficient 2 of Full Load Ratio Curve
+  N19, \field Coefficient 3 of Full Load Ratio Curve
+  N20, \field Chilled Water Outlet Temperature Lower Limit
+       \units C
+  A7,  \field Chiller Flow Mode
+       \note Select operating mode for fluid flow through the chiller. "NotModulated" is for
+       \note either variable or constant pumping with flow controlled by the external plant system.
+       \note "ConstantFlow" is for constant pumping with flow controlled by chiller to operate at
+       \note full design flow rate. "LeavingSetpointModulated" is for variable pumping with flow
+       \note controlled by chiller to vary flow to target a leaving temperature setpoint.
+       \type choice
+       \key ConstantFlow
+       \key LeavingSetpointModulated
+       \key NotModulated
+       \default NotModulated
+  N21, \field Design Heat Recovery Water Flow Rate
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \note If non-zero, then the heat recovery inlet and outlet node names must be entered.
+       \note Heat recovery is only available with Condenser Type = WaterCooled.
+       \ip-units gal/min
+       \autosizable
+  A8 , \field Heat Recovery Inlet Node Name
+       \type node
+  A9 , \field Heat Recovery Outlet Node Name
+       \type node
+  N22, \field Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+  N23, \field Basin Heater Capacity
+       \type real
+       \units W/K
+       \minimum 0.0
+       \default 0.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled and for periods
+       \note when the basin heater is available (field Basin Heater Operating Schedule Name).
+       \note For this situation, the heater maintains the basin water temperature at the basin heater
+       \note setpoint temperature when the outdoor air temperature falls below the setpoint temperature.
+       \note The basin heater only operates when the chiller is not operating.
+  N24, \field Basin Heater Setpoint Temperature
+       \type real
+       \units C
+       \minimum 2.0
+       \default 2.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Enter the outdoor dry-bulb temperature when the basin heater turns on.
+  A10, \field Basin Heater Operating Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+       \note air dry-bulb temperature is below the basin heater setpoint temperature.
+       \note If a schedule name is not entered, the basin heater is allowed to operate
+       \note throughout the entire simulation.
+  N25, \field Condenser Heat Recovery Relative Capacity Fraction
+       \note This optional field is the fraction of total rejected heat that can be recovered at full load
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  A11, \field Heat Recovery Inlet High Temperature Limit Schedule Name
+       \note This optional schedule of temperatures will turn off heat recovery if inlet exceeds the value
+       \type object-list
+       \object-list ScheduleNames
+  A12, \field Heat Recovery Leaving Temperature Setpoint Node Name
+       \note This optional field provides control over the heat recovery
+       \note Using this triggers a model more suited to series bundle and chillers with higher temperature heat recovery
+       \note If this field is not used, the bundles are modeled as being in parallel
+       \type node
+  A13; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+Chiller:Absorption:Indirect,
+   \min-fields 17
+       \memo This indirect absorption chiller model is an enhanced model from the
+       \memo Building Loads and System Thermodynamics (BLAST) program. Chiller
+       \memo performance curves are generated by fitting catalog data to third order
+       \memo polynomial equations. The chiller capacity is a function of condenser,
+       \memo chilled water, and generator temperatures. The heat input is a function
+       \memo of part-load ratio, condenser temperature, and chilled water temperature.
+  A1 , \field Name
+       \type alpha
+       \reference Chillers
+       \required-field
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  N1 , \field Nominal Capacity
+       \type real
+       \required-field
+       \units W
+       \minimum> 0.0
+       \autosizable
+  N2 , \field Nominal Pumping Power
+       \type real
+       \required-field
+       \units W
+       \ip-units W
+       \minimum 0.0
+       \autosizable
+  A2 , \field Chilled Water Inlet Node Name
+       \type node
+       \required-field
+  A3 , \field Chilled Water Outlet Node Name
+       \type node
+       \required-field
+  A4 , \field Condenser Inlet Node Name
+       \type node
+       \required-field
+  A5 , \field Condenser Outlet Node Name
+       \type node
+       \required-field
+  N3 , \field Minimum Part Load Ratio
+       \type real
+       \minimum 0.0
+  N4 , \field Maximum Part Load Ratio
+       \type real
+       \minimum 0.0
+  N5 , \field Optimum Part Load Ratio
+       \type real
+       \minimum 0.0
+  N6 , \field Design Condenser Inlet Temperature
+       \type real
+       \units C
+       \default 30.0
+       \note Used only when condenser flow rate is autosized.
+  N7 , \field Condenser Inlet Temperature Lower Limit
+       \type real
+       \units C
+       \default 15.0
+       \note Provides warnings when entering condenser temperature is below minimum.
+       \note Capacity is not adjusted when entering condenser temperature is below minimum.
+  N8 , \field Chilled Water Outlet Temperature Lower Limit
+       \type real
+       \units C
+       \default 5.0
+       \note Capacity is adjusted when leaving chilled water temperature is below minimum.
+  N9 , \field Design Chilled Water Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0
+       \default autosize
+       \autosizable
+       \ip-units gal/min
+       \note For variable flow this is the max flow & for constant flow this is the flow.
+  N10, \field Design Condenser Water Flow Rate
+       \type real
+       \units m3/s
+       \default autosize
+       \autosizable
+       \minimum> 0.0
+       \ip-units gal/min
+  A6 , \field Chiller Flow Mode
+       \note Select operating mode for fluid flow through the chiller. "NotModulated" is for
+       \note either variable or constant pumping with flow controlled by the external plant system.
+       \note "ConstantFlow" is for constant pumping with flow controlled by chiller to operate at
+       \note full design flow rate. "LeavingSetpointModulated" is for variable pumping with flow
+       \note controlled by chiller to vary flow to target a leaving temperature setpoint.
+       \type choice
+       \key ConstantFlow
+       \key LeavingSetpointModulated
+       \key NotModulated
+       \default NotModulated
+  A7,  \field Generator Heat Input Function of Part Load Ratio Curve Name
+       \type object-list
+       \required-field
+       \object-list UnivariateFunctions
+  A8,  \field Pump Electric Input Function of Part Load Ratio Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+  A9 , \field Generator Inlet Node Name
+       \type node
+       \note Enter the generator inlet node name which connects this chiller to a
+       \note steam or hot water plant, otherwise leave this field blank.
+       \note Generator nodes are used to model heat input to the chiller.
+  A10, \field Generator Outlet Node Name
+       \type node
+       \note Enter the generator outlet node name which connects this chiller to a
+       \note steam or hot water plant, otherwise leave this field blank.
+       \note Generator nodes are used to model heat input to the chiller.
+  A11, \field Capacity Correction Function of Condenser Temperature Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Curve which shows the change in normalized capacity to changes in condenser temperature.
+  A12, \field Capacity Correction Function of Chilled Water Temperature Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Curve which shows the change in normalized capacity to changes in leaving chilled water temperature.
+  A13, \field Capacity Correction Function of Generator Temperature Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Used when generator fluid type is hot water
+       \note Curve which shows the change in normalized capacity to changes in generator temperature.
+  A14, \field Generator Heat Input Correction Function of Condenser Temperature Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Curve which shows the change in normalized heat input to changes in condenser temperature.
+  A15, \field Generator Heat Input Correction Function of Chilled Water Temperature Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Curve which shows the change in normalized heat input to changes in leaving chilled water temperature.
+  A16, \field Generator Heat Source Type
+       \type choice
+       \key HotWater
+       \key Steam
+       \default Steam
+       \note The Generator side of the chiller can be connected to a hot water or steam plant where the
+       \note generator inlet and outlet nodes are connected to a plant loop. If the generator is not
+       \note connected to a plant loop, and the generator inlet/outlet nodes are not used, this field should be
+       \note specified as steam or left blank. When a plant is not used, the model assumes steam as the heat source.
+  N11, \field Design Generator Fluid Flow Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \autosizable
+       \note  For variable flow this is the max flow and for constant flow this is the flow.
+  N12, \field Temperature Lower Limit Generator Inlet
+       \type real
+       \units C
+       \default 0.0
+       \note Provides warnings when entering generator temperature is below minimum.
+       \note Capacity is not adjusted when entering generator temperature is below minimum.
+  N13, \field Degree of Subcooling in Steam Generator
+       \type real
+       \units C
+       \minimum 0.0
+       \maximum 20.0
+       \default 1.0
+       \note This field is not used when the generator inlet/outlet nodes are not specified or
+       \note the generator is connected to a hot water loop.
+  N14, \field Degree of Subcooling in Steam Condensate Loop
+       \type real
+       \units C
+       \minimum 0.0
+       \default 0.0
+       \note This field is not used when the generator inlet/outlet nodes are not specified or
+       \note the generator is connected to a hot water loop.
+  N15; \field Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+
+Chiller:Absorption,
+   \min-fields 23
+       \memo This indirect absorption chiller model is the empirical model from the
+       \memo Building Loads and System Thermodynamics (BLAST) program. Chiller
+       \memo performance curves are generated by fitting catalog data to third order
+       \memo polynomial equations. Two sets of coefficients are required.
+  A1 , \field Name
+       \reference Chillers
+       \required-field
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  N1 , \field Nominal Capacity
+       \type real
+       \units W
+       \required-field
+       \minimum> 0.0
+       \autosizable
+  N2 , \field Nominal Pumping Power
+       \units W
+       \required-field
+       \ip-units W
+       \minimum 0.0
+       \autosizable
+  A2 , \field Chilled Water Inlet Node Name
+       \required-field
+       \type node
+  A3 , \field Chilled Water Outlet Node Name
+       \required-field
+       \type node
+  A4 , \field Condenser Inlet Node Name
+       \required-field
+       \type node
+  A5 , \field Condenser Outlet Node Name
+       \required-field
+       \type node
+  N3 , \field Minimum Part Load Ratio
+       \minimum 0.0
+  N4 , \field Maximum Part Load Ratio
+       \minimum 0.0
+  N5 , \field Optimum Part Load Ratio
+       \minimum 0.0
+  N6 , \field Design Condenser Inlet Temperature
+       \units C
+  N7 , \field Design Chilled Water Flow Rate
+       \note  For variable volume this is the max flow & for constant flow this is the flow.
+       \type real
+       \units m3/s
+       \minimum> 0
+       \autosizable
+       \ip-units gal/min
+  N8 , \field Design Condenser Water Flow Rate
+       \note  The steam use coefficients below specify the
+       \note  steam use as a fraction of chiller operating capacity
+       \type real
+       \units m3/s
+       \autosizable
+       \minimum> 0.0
+       \ip-units gal/min
+  N9 , \field Coefficient 1 of the Hot Water or Steam Use Part Load Ratio Curve
+  N10, \field Coefficient 2 of the Hot Water or Steam Use Part Load Ratio Curve
+  N11, \field Coefficient 3 of the Hot Water or Steam Use Part Load Ratio Curve
+  N12, \field Coefficient 1 of the Pump Electric Use Part Load Ratio Curve
+       \note  The pump electric use coefficients specify the
+       \note  pumping power as a Fraction of Nominal pumping power
+  N13, \field Coefficient 2 of the Pump Electric Use Part Load Ratio Curve
+  N14, \field Coefficient 3 of the Pump Electric Use Part Load Ratio Curve
+  N15, \field Chilled Water Outlet Temperature Lower Limit
+       \units C
+  A6 , \field Generator Inlet Node Name
+       \type node
+  A7 , \field Generator Outlet Node Name
+       \type node
+  A8 , \field Chiller Flow Mode
+       \note Select operating mode for fluid flow through the chiller. "NotModulated" is for
+       \note either variable or constant pumping with flow controlled by the external plant system.
+       \note "ConstantFlow" is for constant pumping with flow controlled by chiller to operate at
+       \note full design flow rate. "LeavingSetpointModulated" is for variable pumping with flow
+       \note controlled by chiller to vary flow to target a leaving temperature setpoint.
+       \type choice
+       \key ConstantFlow
+       \key LeavingSetpointModulated
+       \key NotModulated
+       \default NotModulated
+  A9 , \field Generator Heat Source Type
+       \type choice
+       \key Steam
+       \key HotWater
+       \default Steam
+       \note The Generator side of the chiller can be connected to a hot water or steam plant where the
+       \note generator inlet and outlet nodes are connected to a plant loop. If the generator is not
+       \note connected to a plant loop, and the generator inlet/outlet nodes are not used, this field should be
+       \note specified as steam or left blank. When a plant is not used, the model assumes steam as the heat source.
+  N16, \field Design Generator Fluid Flow Rate
+       \type real
+       \autosizable
+       \units m3/s
+       \ip-units gal/min
+       \minimum> 0.0
+  N17, \field Degree of Subcooling in Steam Generator
+       \type real
+       \units C
+       \default 1.0
+       \note This field is not used when the generator inlet/outlet nodes are not specified or
+       \note the generator is connected to a hot water loop.
+  N18; \field Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+
+Chiller:ConstantCOP,
+  \min-fields 12
+       \memo This constant COP chiller model provides a means of quickly specifying a
+       \memo Chiller where performance data is not available.
+  A1 , \field Name
+       \reference Chillers
+       \required-field
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  N1 , \field Nominal Capacity
+       \type real
+       \autosizable
+       \units W
+       \required-field
+       \minimum 0.0
+  N2 , \field Nominal COP
+       \type real
+       \units W/W
+       \required-field
+       \minimum> 0.0
+  N3 , \field Design Chilled Water Flow Rate
+       \note  For variable volume this is the maximum flow and for constant flow this is the flow.
+       \units m3/s
+       \ip-units gal/min
+       \autosizable
+       \minimum 0.0
+  N4 , \field Design Condenser Water Flow Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \autosizable
+       \minimum 0.0
+       \note This field is not used for Condenser Type = AirCooled or EvaporativelyCooled
+  A2 , \field Chilled Water Inlet Node Name
+       \required-field
+       \type node
+  A3 , \field Chilled Water Outlet Node Name
+       \required-field
+       \type node
+  A4 , \field Condenser Inlet Node Name
+       \type node
+  A5 , \field Condenser Outlet Node Name
+       \type node
+  A6 , \field Condenser Type
+       \type choice
+       \key AirCooled
+       \key WaterCooled
+       \key EvaporativelyCooled
+       \default AirCooled
+  A7 , \field Chiller Flow Mode
+       \note Select operating mode for fluid flow through the chiller. "NotModulated" is for
+       \note either variable or constant pumping with flow controlled by the external plant system.
+       \note "ConstantFlow" is for constant pumping with flow controlled by chiller to operate at
+       \note full design flow rate. "LeavingSetpointModulated" is for variable pumping with flow
+       \note controlled by chiller to vary flow to target a leaving temperature setpoint.
+       \type choice
+       \key ConstantFlow
+       \key LeavingSetpointModulated
+       \key NotModulated
+       \default NotModulated
+  N5 , \field Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+  N6 , \field Basin Heater Capacity
+       \type real
+       \units W/K
+       \minimum 0.0
+       \default 0.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled and for periods
+       \note when the basin heater is available (field Basin Heater Operating Schedule Name).
+       \note For this situation, the heater maintains the basin water temperature at the basin heater
+       \note setpoint temperature when the outdoor air temperature falls below the setpoint temperature.
+       \note The basin heater only operates when the chiller is not operating.
+  N7 , \field Basin Heater Setpoint Temperature
+       \type real
+       \units C
+       \minimum 2.0
+       \default 2.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Enter the outdoor dry-bulb temperature when the basin heater turns on.
+  A8 ; \field Basin Heater Operating Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+       \note air dry-bulb temperature is below the basin heater setpoint temperature.
+       \note If a schedule name is not entered, the basin heater is allowed to operate
+       \note throughout the entire simulation.
+
+Chiller:EngineDriven,
+   \min-fields 43
+       \memo This chiller model is the empirical model from the Building Loads
+       \memo and System Thermodynamics (BLAST) program. Chiller performance
+       \memo curves are generated by fitting catalog data to third order
+       \memo polynomial equations. Three sets of coefficients are required.
+  A1 , \field Name
+       \reference Chillers
+       \required-field
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Condenser Type
+       \type choice
+       \key AirCooled
+       \key WaterCooled
+       \key EvaporativelyCooled
+       \default AirCooled
+  N1 , \field Nominal Capacity
+       \units W
+       \required-field
+       \autosizable
+       \minimum 0.0
+  N2 , \field Nominal COP
+       \required-field
+       \units W/W
+       \note Nominal Refrigeration Cycle COP
+       \minimum> 0.0
+  A3 , \field Chilled Water Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Chilled Water Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Condenser Inlet Node Name
+       \type node
+  A6 , \field Condenser Outlet Node Name
+       \type node
+  N3 , \field Minimum Part Load Ratio
+       \minimum 0.0
+  N4 , \field Maximum Part Load Ratio
+       \minimum 0.0
+  N5 , \field Optimum Part Load Ratio
+       \minimum 0.0
+  N6 , \field Design Condenser Inlet Temperature
+       \units C
+  N7 , \field Temperature Rise Coefficient
+       \required-field
+       \minimum> 0.0
+  N8 , \field Design Chilled Water Outlet Temperature
+       \units C
+  N9 , \field Design Chilled Water Flow Rate
+       \note  For variable volume this is the maximum flow and for constant flow this is the flow.
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+       \minimum 0.0
+  N10, \field Design Condenser Water Flow Rate
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+       \minimum 0.0
+       \note This field is not used for Condenser Type = AirCooled or EvaporativelyCooled
+  N11, \field Coefficient 1 of Capacity Ratio Curve
+  N12, \field Coefficient 2 of Capacity Ratio Curve
+  N13, \field Coefficient 3 of Capacity Ratio Curve
+  N14, \field Coefficient 1 of Power Ratio Curve
+  N15, \field Coefficient 2 of Power Ratio Curve
+  N16, \field Coefficient 3 of Power Ratio Curve
+  N17, \field Coefficient 1 of Full Load Ratio Curve
+  N18, \field Coefficient 2 of Full Load Ratio Curve
+  N19, \field Coefficient 3 of Full Load Ratio Curve
+  N20, \field Chilled Water Outlet Temperature Lower Limit
+       \units C
+       \note  Special EngineDriven Chiller Parameters Below
+  A7, \field Fuel Use Curve Name
+       \note Curve is a function of Part Load Ratio (PLR)
+       \type object-list
+       \object-list UnivariateFunctions
+       \note curve = a + b*PLR + c*PLR**2
+       \note PLR = Ratio of evaporator heat transfer rate to nominal capacity
+  A8, \field Jacket Heat Recovery Curve Name
+       \note Curve is a function of Part Load Ratio (PLR)
+       \type object-list
+       \object-list UnivariateFunctions
+       \note curve = a + b*PLR + c*PLR**2
+       \note PLR = Ratio of evaporator heat transfer rate to nominal capacity
+  A9, \field Lube Heat Recovery Curve Name
+       \note Curve is a function of Part Load Ratio (PLR)
+       \type object-list
+       \object-list UnivariateFunctions
+       \note curve = a + b*PLR + c*PLR**2
+       \note PLR = Ratio of evaporator heat transfer rate to nominal capacity
+  A10, \field Total Exhaust Energy Curve Name
+       \note Curve is a function of Part Load Ratio (PLR)
+       \type object-list
+       \object-list UnivariateFunctions
+       \note curve = a + b*PLR + c*PLR**2
+       \note PLR = Ratio of evaporator heat transfer rate to nominal capacity
+  A11, \field Exhaust Temperature Curve Name
+       \note Curve is a function of Part Load Ratio (PLR)
+       \type object-list
+       \object-list UnivariateFunctions
+       \note curve = a + b*PLR + c*PLR**2
+       \note PLR = Ratio of evaporator heat transfer rate to nominal capacity
+  N21, \field Coefficient 1 of U-Factor Times Area Curve
+       \note curve = C1 * (nominal capacity)**C2
+  N22, \field Coefficient 2 of U-Factor Times Area Curve
+       \note curve = C1 * (nominal capacity)**C2
+       \note typical value .9
+       \maximum 2
+  N23, \field Maximum Exhaust Flow per Unit of Power Output
+       \units (kg/s)/W
+       \minimum 0.0
+  N24, \field Design Minimum Exhaust Temperature
+       \units C
+  A12, \field Fuel Type
+       \required-field
+       \type choice
+       \key NaturalGas
+       \key Propane
+       \key Diesel
+       \key Gasoline
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key OtherFuel1
+       \key OtherFuel2
+  N25, \field Fuel Higher Heating Value
+       \units kJ/kg
+  N26, \field Design Heat Recovery Water Flow Rate
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \note If non-zero, then the heat recovery inlet and outlet node names must be entered.
+       \ip-units gal/min
+       \autosizable
+  A13, \field Heat Recovery Inlet Node Name
+       \type node
+  A14, \field Heat Recovery Outlet Node Name
+       \type node
+  A15, \field Chiller Flow Mode
+       \note Select operating mode for fluid flow through the chiller. "NotModulated" is for
+       \note either variable or constant pumping with flow controlled by the external plant system.
+       \note "ConstantFlow" is for constant pumping with flow controlled by chiller to operate at
+       \note full design flow rate. "LeavingSetpointModulated" is for variable pumping with flow
+       \note controlled by chiller to vary flow to target a leaving temperature setpoint.
+       \type choice
+       \key ConstantFlow
+       \key LeavingSetpointModulated
+       \key NotModulated
+       \default NotModulated
+  N27, \field Maximum Temperature for Heat Recovery at Heat Recovery Outlet Node
+       \units C
+       \maximum 100.0
+       \minimum 0.0
+       \default 60.0
+  N28, \field Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+  N29, \field Basin Heater Capacity
+       \type real
+       \units W/K
+       \minimum 0.0
+       \default 0.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled and for periods
+       \note when the basin heater is available (field Basin Heater Operating Schedule Name).
+       \note For this situation, the heater maintains the basin water temperature at the basin heater
+       \note setpoint temperature when the outdoor air temperature falls below the setpoint temperature.
+       \note The basin heater only operates when the chiller is not operating.
+  N30, \field Basin Heater Setpoint Temperature
+       \type real
+       \units C
+       \minimum 2.0
+       \default 2.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Enter the outdoor dry-bulb temperature when the basin heater turns on.
+  A16, \field Basin Heater Operating Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+       \note air dry-bulb temperature is below the basin heater setpoint temperature.
+       \note If a schedule name is not entered, the basin heater is allowed to operate
+       \note throughout the entire simulation.
+  N31; \field Condenser Heat Recovery Relative Capacity Fraction
+       \note This optional field is the fraction of total rejected heat that can be recovered at full load.
+       \note Also used to autosize Design Heat Recovery Water Flow Rate as a fraction of Design Condenser Water Flow Rate.
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+
+Chiller:CombustionTurbine,
+   \min-fields 56
+       \memo This chiller model is the empirical model from the Building Loads
+       \memo and System Thermodynamics (BLAST) program. Chiller performance
+       \memo curves are generated by fitting catalog data to third order
+       \memo polynomial equations. Three sets of coefficients are required.
+  A1 , \field Name
+       \reference Chillers
+       \required-field
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Condenser Type
+       \type choice
+       \key AirCooled
+       \key WaterCooled
+       \key EvaporativelyCooled
+       \default AirCooled
+  N1 , \field Nominal Capacity
+       \units W
+       \required-field
+       \autosizable
+       \minimum 0.0
+  N2 , \field Nominal COP
+       \required-field
+       \units W/W
+       \minimum> 0.0
+  A3 , \field Chilled Water Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Chilled Water Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Condenser Inlet Node Name
+       \type node
+  A6 , \field Condenser Outlet Node Name
+       \type node
+  N3 , \field Minimum Part Load Ratio
+       \minimum 0.0
+  N4 , \field Maximum Part Load Ratio
+       \minimum 0.0
+  N5 , \field Optimum Part Load Ratio
+       \minimum 0.0
+  N6 , \field Design Condenser Inlet Temperature
+       \units C
+  N7 , \field Temperature Rise Coefficient
+       \required-field
+       \minimum> 0.0
+  N8 , \field Design Chilled Water Outlet Temperature
+       \units C
+  N9 , \field Design Chilled Water Flow Rate
+       \note  For variable volume this is the max flow & for constant flow this is the flow.
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+       \minimum 0.0
+  N10, \field Design Condenser Water Flow Rate
+       \units m3/s
+       \autosizable
+       \ip-units gal/min
+       \minimum 0.0
+       \note This field is not used for Condenser Type = AirCooled or EvaporativelyCooled
+  N11, \field Coefficient 1 of Capacity Ratio Curve
+  N12, \field Coefficient 2 of Capacity Ratio Curve
+  N13, \field Coefficient 3 of Capacity Ratio Curve
+  N14, \field Coefficient 1 of Power Ratio Curve
+  N15, \field Coefficient 2 of Power Ratio Curve
+  N16, \field Coefficient 3 of Power Ratio Curve
+  N17, \field Coefficient 1 of Full Load Ratio Curve
+  N18, \field Coefficient 2 of Full Load Ratio Curve
+  N19, \field Coefficient 3 of Full Load Ratio Curve
+  N20, \field Chilled Water Outlet Temperature Lower Limit
+       \units C
+       \note  Special Gas Turbine Chiller Parameters Below
+  N21, \field Coefficient 1 of Fuel Input Curve
+  N22, \field Coefficient 2 of Fuel Input Curve
+  N23, \field Coefficient 3 of Fuel Input Curve
+  N24, \field Coefficient 1 of Temperature Based Fuel Input Curve
+  N25, \field Coefficient 2 of Temperature Based Fuel Input Curve
+  N26, \field Coefficient 3 of Temperature Based Fuel Input Curve
+  N27, \field Coefficient 1 of Exhaust Flow Curve
+  N28, \field Coefficient 2 of Exhaust Flow Curve
+  N29, \field Coefficient 3 of Exhaust Flow Curve
+  N30, \field Coefficient 1 of Exhaust Gas Temperature Curve
+  N31, \field Coefficient 2 of Exhaust Gas Temperature Curve
+  N32, \field Coefficient 3 of Exhaust Gas Temperature Curve
+  N33, \field Coefficient 1 of Temperature Based Exhaust Gas Temperature Curve
+  N34, \field Coefficient 2 of Temperature Based Exhaust Gas Temperature Curve
+  N35, \field Coefficient 3 of Temperature Based Exhaust Gas Temperature Curve
+  N36, \field Coefficient 1 of Recovery Lube Heat Curve
+  N37, \field Coefficient 2 of Recovery Lube Heat Curve
+  N38, \field Coefficient 3 of Recovery Lube Heat Curve
+  N39, \field Coefficient 1 of U-Factor Times Area Curve
+  N40, \field Coefficient 2 of U-Factor Times Area Curve
+       \note typical value .9
+       \maximum 2
+  N41, \field Gas Turbine Engine Capacity
+       \autosizable
+       \units W
+       \minimum> 0.0
+  N42, \field Maximum Exhaust Flow per Unit of Power Output
+       \units (kg/s)/W
+  N43, \field Design Steam Saturation Temperature
+       \units C
+  N44, \field Fuel Higher Heating Value
+       \units kJ/kg
+  N45, \field Design Heat Recovery Water Flow Rate
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \note If non-zero, then the heat recovery inlet and outlet node names must be entered.
+       \ip-units gal/min
+       \autosizable
+  A7 , \field Heat Recovery Inlet Node Name
+       \type node
+  A8 , \field Heat Recovery Outlet Node Name
+       \type node
+  A9 , \field Chiller Flow Mode
+       \note Select operating mode for fluid flow through the chiller. "NotModulated" is for
+       \note either variable or constant pumping with flow controlled by the external plant system.
+       \note "ConstantFlow" is for constant pumping with flow controlled by chiller to operate at
+       \note full design flow rate. "LeavingSetpointModulated" is for variable pumping with flow
+       \note controlled by chiller to vary flow to target a leaving temperature setpoint.
+       \type choice
+       \key ConstantFlow
+       \key LeavingSetpointModulated
+       \key NotModulated
+       \default NotModulated
+  A10, \field Fuel Type
+       \type choice
+       \key NaturalGas
+       \key Propane
+       \key Diesel
+       \key Gasoline
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key OtherFuel1
+       \key OtherFuel2
+       \default NaturalGas
+  N46, \field Heat Recovery Maximum Temperature
+       \units C
+       \maximum 100.0
+       \minimum 0.0
+       \default 80.0
+  N47, \field Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+  N48, \field Basin Heater Capacity
+       \type real
+       \units W/K
+       \minimum 0.0
+       \default 0.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled and for periods
+       \note when the basin heater is available (field Basin Heater Operating Schedule Name).
+       \note For this situation, The heater maintains the basin water temperature at the basin heater
+       \note setpoint temperature when the outdoor air temperature falls below the setpoint temperature.
+       \note The basin heater only operates when the chiller is not operating.
+  N49, \field Basin Heater Setpoint Temperature
+       \type real
+       \units C
+       \minimum 2.0
+       \default 2.0
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Enter the outdoor dry-bulb temperature when the basin heater turns on.
+  A11, \field Basin Heater Operating Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field is only used for Condenser Type = EvaporativelyCooled.
+       \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+       \note air dry-bulb temperature is below the basin heater setpoint temperature.
+       \note If a schedule name is not entered, the basin heater is allowed to operate
+       \note throughout the entire simulation.
+  N50, \field Condenser Heat Recovery Relative Capacity Fraction
+       \note This optional field is the fraction of total rejected heat that can be recovered at full load.
+       \note Also used to autosize Design Heat Recovery Water Flow Rate as a fraction of Design Condenser Water Flow Rate.
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N51; \field Turbine Engine Efficiency
+       \note This optional field is the nominal turbine engine efficiency and is used when Gas Turbine Engine Capacity is set to Autosize
+       \default 0.35
+       \type real
+
+ChillerHeater:Absorption:DirectFired,
+  \min-fields 34
+  \memo Direct fired gas absorption chiller-heater using performance curves similar to DOE-2
+  A1,  \field Name
+       \required-field
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  N1 , \field Nominal Cooling Capacity
+       \autosizable
+       \default autosize
+       \units W
+  N2 , \field Heating to Cooling Capacity Ratio
+       \note A positive fraction that represents the ratio of the
+       \note heating capacity divided by the cooling capacity at rated conditions.
+       \minimum  0
+       \default  0.8
+  N3 , \field Fuel Input to Cooling Output Ratio
+            \note The positive fraction that represents the ratio of the
+            \note instantaneous fuel used divided by the cooling capacity at rated conditions.
+            \minimum> 0
+            \default  0.97
+  N4   ,  \field Fuel Input to Heating Output Ratio
+            \note The positive fraction that represents the ratio of the
+            \note instantaneous fuel used divided by the nominal heating capacity.
+            \minimum  0
+            \default  1.25
+  N5   ,  \field Electric Input to Cooling Output Ratio
+            \note The positive fraction that represents the ratio of the
+            \note instantaneous electricity used divided by the cooling capacity at rated conditions.
+            \note If the chiller is both heating and cooling only the cooling electricity is used.
+            \minimum  0
+            \default  0.01
+  N6   ,  \field Electric Input to Heating Output Ratio
+            \note The positive fraction that represents the ratio of the
+            \note instantaneous electricity used divided by the nominal heating capacity.
+            \note If the chiller is both heating and cooling only the cooling electricity is used.
+            \minimum  0
+            \default  0
+  A2   ,  \field Chilled Water Inlet Node Name
+          \required-field
+          \type node
+  A3   ,  \field Chilled Water Outlet Node Name
+          \required-field
+          \type node
+  A4   ,  \field Condenser Inlet Node Name
+          \required-field
+          \type node
+  A5   ,  \field Condenser Outlet Node Name
+          \note Not required if air-cooled
+          \type node
+  A6   ,  \field Hot Water Inlet Node Name
+          \required-field
+          \type node
+  A7   ,  \field Hot Water Outlet Node Name
+          \required-field
+          \type node
+  N7   ,  \field Minimum Part Load Ratio
+            \note The positive fraction that represents the minimum cooling output possible when
+            \note operated continually at rated temperature conditions divided by the nominal
+            \note cooling capacity at those same conditions. If the load on the chiller is below
+            \note this fraction the chiller will cycle.
+            \minimum> 0
+            \default  0.1
+  N8   ,  \field Maximum Part Load Ratio
+            \note The positive fraction that represents the maximum cooling output possible at
+            \note rated temperature conditions divided by the nominal cooling capacity at those
+            \note same conditions. If greater than 1.0, the chiller is typically thought of as
+            \note capable of being overloaded.
+            \minimum  0.5
+            \default  1.0
+  N9   ,  \field Optimum Part Load Ratio
+            \note The positive fraction that represents the optimal cooling output at rated
+            \note temperature conditions divided by the nominal cooling capacity at those same
+            \note conditions. It represents the most desirable operating point for the chiller.
+            \minimum> 0
+            \default  1.0
+  N10  ,  \field Design Entering Condenser Water Temperature
+            \note The temperature of the water entering the condenser of the chiller when
+            \note operating at design conditions. This is usually based on the temperature
+            \note delivered by the cooling tower in a water cooled application.
+            \default 29
+            \units C
+  N11  ,  \field Design Leaving Chilled Water Temperature
+            \note The temperature of the water leaving the evaporator of the chiller when
+            \note operating at design conditions also called the chilled water supply temperature
+            \note or leaving chilled water temperature.
+            \default 7
+            \units C
+  N12 ,   \field Design Chilled Water Flow Rate
+            \note  For variable volume this is the max flow & for constant flow this is the flow.
+            \autosizable
+            \default autosize
+            \units m3/s
+            \ip-units gal/min
+  N13  ,  \field Design Condenser Water Flow Rate
+            \note The water flow rate at design conditions through the condenser.
+            \autosizable
+            \default autosize
+            \units m3/s
+            \ip-units gal/min
+            \note This field is not used for Condenser Type = AirCooled
+  N14  ,  \field Design Hot Water Flow Rate
+            \note The water flow rate at design conditions through the heater side.
+            \autosizable
+            \default autosize
+            \units m3/s
+            \ip-units gal/min
+  A8   ,  \field Cooling Capacity Function of Temperature Curve Name
+            \note The CoolCapFT curve represents the fraction of the cooling capacity of the chiller as it
+            \note varies by temperature. The curve is normalized so that at design conditions the
+            \note value of the curve should be 1.0. This is a biquadratic curve with the
+            \note input variables being the leaving chilled water temperature and either
+            \note the entering or leaving condenser water temperature.
+            \type object-list
+            \object-list BivariateFunctions
+  A9   ,  \field Fuel Input to Cooling Output Ratio Function of Temperature Curve Name
+            \note The curve represents the fraction of the fuel input to the chiller at full load as
+            \note it varies by temperature. The curve is normalized so that at design conditions the
+            \note value of the curve should be 1.0. This is a biquadratic curve with the
+            \note input variables being the leaving chilled water temperature and either
+            \note the entering or leaving condenser water temperature.
+            \type object-list
+            \object-list BivariateFunctions
+  A10  ,  \field Fuel Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
+            \note The curve represents the fraction of the fuel input to the chiller as the load on
+            \note the chiller varies but the operating temperatures remain at the design values.
+            \note The curve is normalized so that at full load the value of the curve should be 1.0.
+            \note The curve is usually linear or quadratic.
+            \type object-list
+            \object-list UnivariateFunctions
+  A11  ,  \field Electric Input to Cooling Output Ratio Function of Temperature Curve Name
+            \note The curve represents the fraction of the electricity to the chiller at full load as
+            \note it varies by temperature. The curve is normalized so that at design conditions the
+            \note value of the curve should be 1.0. This is a biquadratic curve with the
+            \note input variables being the leaving chilled water temperature and either
+            \note the entering or leaving condenser water temperature.
+            \type object-list
+            \object-list BivariateFunctions
+  A12  ,  \field Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
+            \note The curve represents the fraction of the electricity to the chiller as the load on
+            \note the chiller varies but the operating temperatures remain at the design values.
+            \note The curve is normalized so that at full load the value of the curve should be 1.0.
+            \note The curve is usually linear or quadratic.
+            \type object-list
+            \object-list UnivariateFunctions
+  A13  ,  \field Heating Capacity Function of Cooling Capacity Curve Name
+            \note The curve represents how the heating capacity of the chiller varies with cooling
+            \note capacity when the chiller is simultaneous heating and cooling. The curve is normalized
+            \note so an input of 1.0 represents the nominal cooling capacity and an output of 1.0
+            \note represents the full heating capacity (see the Heating to cooling capacity ratio input)
+            \note The curve is usually linear or quadratic.
+            \type object-list
+            \object-list UnivariateFunctions
+  A14  ,  \field Fuel Input to Heat Output Ratio During Heating Only Operation Curve Name
+            \note When the chiller is operating as only a heater, this curve is used to represent the
+            \note fraction of fuel used as the heating load varies. It is normalized so that a value
+            \note of 1.0 is the full heating capacity. The curve is usually linear or quadratic and
+            \note will probably be similar to a boiler curve for most chillers.
+            \type object-list
+            \object-list UnivariateFunctions
+  A15  ,  \field Temperature Curve Input Variable
+            \type choice
+            \key LeavingCondenser
+            \key EnteringCondenser
+            \default EnteringCondenser
+            \note Sets the second independent variable in the three temperature dependent performance
+            \note curves to either the leaving or entering condenser water temperature. Manufacturers
+            \note express the performance of their chillers using either the leaving condenser water
+            \note temperature (to the tower) or the entering condenser water temperature (from the tower).
+  A16  ,  \field Condenser Type
+            \note The condenser can either be air cooled or connected to a cooling tower.
+            \type choice
+            \key AirCooled
+            \key WaterCooled
+            \default WaterCooled
+  N15  ,  \field Chilled Water Temperature Lower Limit
+            \note The chilled water supply temperature below which the chiller
+            \note will shut off.
+            \units C
+            \default 2.0
+  N16  ,  \field Fuel Higher Heating Value
+            \note Not currently used.
+            \units kJ/kg
+            \default 0.0
+  A17  ,  \field Fuel Type
+            \type choice
+            \key NaturalGas
+            \key Propane
+            \key Diesel
+            \key Gasoline
+            \key FuelOilNo1
+            \key FuelOilNo2
+            \key OtherFuel1
+            \key OtherFuel2
+            \default NaturalGas
+  N17  ;  \field Sizing Factor
+            \note Multiplies the autosized capacity and flow rates
+            \type real
+            \minimum> 0.0
+            \default 1.0
+
+ChillerHeater:Absorption:DoubleEffect,
+  \min-fields 34
+  \memo Exhaust fired absorption chiller-heater using performance curves similar to DOE-2
+  A1,  \field Name
+       \type alpha
+       \required-field
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  N1 , \field Nominal Cooling Capacity
+       \autosizable
+       \default autosize
+       \units W
+  N2 , \field Heating to Cooling Capacity Ratio
+       \note A positive fraction that represents the ratio of the
+       \note heating capacity divided by the cooling capacity at rated conditions.
+       \minimum 0
+       \default 0.8
+  N3 , \field Thermal Energy Input to Cooling Output Ratio
+       \note The positive fraction that represents the ratio of the
+       \note instantaneous fuel used divided by the cooling capacity at rated conditions.
+       \minimum> 0
+       \default 0.97
+  N4 , \field Thermal Energy Input to Heating Output Ratio
+       \note The positive fraction that represents the ratio of the
+       \note instantaneous fuel used divided by the nominal heating capacity.
+       \minimum 0
+       \default 1.25
+  N5 , \field Electric Input to Cooling Output Ratio
+       \note The positive fraction that represents the ratio of the
+       \note instantaneous electricity used divided by the cooling capacity at rated conditions.
+       \note If the chiller is both heating and cooling only the cooling electricity is used.
+       \minimum 0
+       \default 0.01
+  N6 , \field Electric Input to Heating Output Ratio
+       \note The positive fraction that represents the ratio of the
+       \note instantaneous electricity used divided by the nominal heating capacity.
+       \note If the chiller is both heating and cooling only the cooling electricity is used.
+       \minimum 0
+       \default 0
+  A2 , \field Chilled Water Inlet Node Name
+       \required-field
+       \type node
+  A3 , \field Chilled Water Outlet Node Name
+       \required-field
+       \type node
+  A4 , \field Condenser Inlet Node Name
+       \required-field
+       \type node
+  A5 , \field Condenser Outlet Node Name
+       \note Not required if air-cooled
+       \type node
+  A6 , \field Hot Water Inlet Node Name
+       \required-field
+       \type node
+  A7 , \field Hot Water Outlet Node Name
+       \required-field
+       \type node
+  N7 , \field Minimum Part Load Ratio
+       \note The positive fraction that represents the minimum cooling output possible when
+       \note operated continually at rated temperature conditions divided by the nominal
+       \note cooling capacity at those same conditions. If the load on the chiller is below
+       \note this fraction the chiller will cycle.
+       \minimum> 0
+       \default 0.1
+  N8 , \field Maximum Part Load Ratio
+       \note The positive fraction that represents the maximum cooling output possible at
+       \note rated temperature conditions divided by the nominal cooling capacity at those
+       \note same conditions. If greater than 1.0, the chiller is typically thought of as
+       \note capable of being overloaded.
+       \minimum 0.5
+       \default 1.0
+  N9 , \field Optimum Part Load Ratio
+       \note The positive fraction that represents the optimal cooling output at rated
+       \note temperature conditions divided by the nominal cooling capacity at those same
+       \note conditions. It represents the most desirable operating point for the chiller.
+       \minimum> 0
+       \default 1.0
+  N10, \field Design Entering Condenser Water Temperature
+       \note The temperature of the water entering the condenser of the chiller when
+       \note operating at design conditions. This is usually based on the temperature
+       \note delivered by the cooling tower in a water cooled application.
+       \default 29
+       \units C
+  N11, \field Design Leaving Chilled Water Temperature
+       \note The temperature of the water leaving the evaporator of the chiller when
+       \note operating at design conditions also called the chilled water supply temperature
+       \note or leaving chilled water temperature.
+       \default 7
+       \units C
+  N12, \field Design Chilled Water Flow Rate
+       \note  For variable volume this is the max flow & for constant flow this is the flow.
+       \autosizable
+       \default autosize
+       \units m3/s
+       \ip-units gal/min
+  N13, \field Design Condenser Water Flow Rate
+       \note The water flow rate at design conditions through the condenser.
+       \note This field is not used for Condenser Type = AirCooled
+       \autosizable
+       \default autosize
+       \units m3/s
+       \ip-units gal/min
+  N14, \field Design Hot Water Flow Rate
+       \note The water flow rate at design conditions through the heater side.
+       \autosizable
+       \default autosize
+       \units m3/s
+       \ip-units gal/min
+  A8 , \field Cooling Capacity Function of Temperature Curve Name
+       \note The CoolCapFT curve represents the fraction of the cooling capacity of the chiller as it
+       \note varies by temperature. The curve is normalized so that at design conditions the
+       \note value of the curve should be 1.0. This is a biquadratic curve with the
+       \note input variables being the leaving chilled water temperature and either
+       \note the entering or leaving condenser water temperature.
+       \type object-list
+       \object-list BivariateFunctions
+  A9 , \field Fuel Input to Cooling Output Ratio Function of Temperature Curve Name
+       \note The curve represents the fraction of the fuel input to the chiller at full load as
+       \note it varies by temperature. The curve is normalized so that at design conditions the
+       \note value of the curve should be 1.0. This is a biquadratic curve with the
+       \note input variables being the leaving chilled water temperature and either
+       \note the entering or leaving condenser water temperature.
+       \type object-list
+       \object-list BivariateFunctions
+  A10, \field Fuel Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
+       \note The curve represents the fraction of the fuel input to the chiller as the load on
+       \note the chiller varies but the operating temperatures remain at the design values.
+       \note The curve is normalized so that at full load the value of the curve should be 1.0.
+       \note The curve is usually linear or quadratic.
+       \type object-list
+       \object-list UnivariateFunctions
+  A11, \field Electric Input to Cooling Output Ratio Function of Temperature Curve Name
+       \note The curve represents the fraction of the electricity to the chiller at full load as
+       \note it varies by temperature. The curve is normalized so that at design conditions the
+       \note value of the curve should be 1.0. This is a biquadratic curve with the
+       \note input variables being the leaving chilled water temperature and either
+       \note the entering or leaving condenser water temperature.
+       \type object-list
+       \object-list BivariateFunctions
+  A12, \field Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
+       \note The curve represents the fraction of the electricity to the chiller as the load on
+       \note the chiller varies but the operating temperatures remain at the design values.
+       \note The curve is normalized so that at full load the value of the curve should be 1.0.
+       \note The curve is usually linear or quadratic.
+       \type object-list
+       \object-list UnivariateFunctions
+  A13, \field Heating Capacity Function of Cooling Capacity Curve Name
+       \note The curve represents how the heating capacity of the chiller varies with cooling
+       \note capacity when the chiller is simultaneous heating and cooling. The curve is normalized
+       \note so an input of 1.0 represents the nominal cooling capacity and an output of 1.0
+       \note represents the full heating capacity (see the Heating to cooling capacity ratio input)
+       \note The curve is usually linear or quadratic.
+       \type object-list
+       \object-list UnivariateFunctions
+  A14, \field Fuel Input to Heat Output Ratio During Heating Only Operation Curve Name
+       \note When the chiller is operating as only a heater, this curve is used to represent the
+       \note fraction of fuel used as the heating load varies. It is normalized so that a value
+       \note of 1.0 is the full heating capacity. The curve is usually linear or quadratic and
+       \note will probably be similar to a boiler curve for most chillers.
+       \type object-list
+       \object-list UnivariateFunctions
+  A15, \field Temperature Curve Input Variable
+       \type choice
+       \key LeavingCondenser
+       \key EnteringCondenser
+       \default EnteringCondenser
+       \note Sets the second independent variable in the three temperature dependent performance
+       \note curves to either the leaving or entering condenser water temperature. Manufacturers
+       \note express the performance of their chillers using either the leaving condenser water
+       \note temperature (to the tower) or the entering condenser water temperature (from the tower).
+  A16, \field Condenser Type
+       \note The condenser can either be air cooled or connected to a cooling tower.
+       \type choice
+       \key AirCooled
+       \key WaterCooled
+       \default WaterCooled
+  N15, \field Chilled Water Temperature Lower Limit
+       \note The chilled water supply temperature below which the chiller
+       \note will shut off.
+       \units C
+       \default 2.0
+  A17, \field Exhaust Source Object Type
+       \type choice
+       \required-field
+       \key Generator:MicroTurbine
+  A18, \field Exhaust Source Object Name
+       \type object-list
+       \object-list MicroTurbineGeneratorNames
+  N16; \field Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+
+HeatPump:PlantLoop:EIR:Cooling,
+        \memo An EIR formulated water to water heat pump model, cooling operation.
+        \min-fields 14
+   A1,  \field Name
+        \type alpha
+        \reference PLHPCoolingNames
+        \required-field
+        \reference-class-name validPlantEquipmentTypes
+        \reference validPlantEquipmentNames
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2,  \field Load Side Inlet Node Name
+        \required-field
+        \type node
+   A3,  \field Load Side Outlet Node Name
+        \required-field
+        \type node
+   A4,  \field Condenser Type
+        \required-field
+        \type choice
+        \key WaterSource
+        \key AirSource
+        \default WaterSource
+   A5,  \field Source Side Inlet Node Name
+        \required-field
+        \type node
+   A6,  \field Source Side Outlet Node Name
+        \required-field
+        \type node
+   A7,  \field Companion Heat Pump Name
+        \note This field allows the user to specify a companion heating
+        \note object for this cooling object. The companion is used in
+        \note sizing the heat pump as well as to allow checks for unexpected
+        \note simultaneous operation of the two objects.
+        \reference PLHPHeatingNames
+   N1,  \field Load Side Reference Flow Rate
+        \note This component is currently a constant-flow device, meaning it will always
+        \note try to request the full design flow from the central plant manager.
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m3/s
+        \ip-units gal/min
+        \autosizable
+        \default autosize
+   N2,  \field Source Side Reference Flow Rate
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m3/s
+        \ip-units gal/min
+        \autosizable
+        \default autosize
+   N3,  \field Reference Capacity
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units W
+        \autosizable
+        \default autosize
+   N4,  \field Reference Coefficient of Performance
+        \required-field
+        \type real
+        \minimum> 0.0
+        \default 7.5
+        \units W/W
+   N5,  \field Sizing Factor
+        \required-field
+        \note Multiplies the autosized capacity and flow rates
+        \type real
+        \minimum> 0.0
+        \default 1.0
+   A8,  \field Capacity Modifier Function of Temperature Curve Name
+        \note Cooling capacity modifier as a function of CW supply temp and entering condenser temp
+        \required-field
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*CWS + c*CWS**2 + d*ECT + e*ECT**2 + f*CWS*ECT
+        \note CWS = supply (leaving) chilled water temperature(C)
+        \note ECT = entering condenser fluid temperature(C)
+   A9,  \field Electric Input to Output Ratio Modifier Function of Temperature Curve Name
+        \note Electric Input Ratio (EIR) modifier as a function of temperature
+        \note EIR = 1/COP
+        \required-field
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*CWS + c*CWS**2 + d*ECT + e*ECT**2 + f*CWS*ECT
+        \note CWS = supply (leaving) chilled water temperature(C)
+        \note ECT = entering condenser fluid temperature(C)
+   A10; \field Electric Input to Output Ratio Modifier Function of Part Load Ratio Curve Name
+        \note Electric Input Ratio (EIR) modifier as a function of Part Load Ratio (PLR)
+        \note EIR = 1/COP
+        \required-field
+        \type object-list
+        \object-list UniVariateFunctions
+        \note quadratic curve = a + b*PLR + c*PLR**2 is typical, other univariate curves may be used
+        \note PLR = part load ratio (cooling load/steady state capacity)
+
+HeatPump:PlantLoop:EIR:Heating,
+        \memo An EIR formulated water to water heat pump model, heating operation
+        \min-fields 14
+   A1,  \field Name
+        \type alpha
+        \reference PLHPHeatingNames
+        \required-field
+        \reference-class-name validPlantEquipmentTypes
+        \reference validPlantEquipmentNames
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2,  \field Load Side Inlet Node Name
+        \required-field
+        \type node
+   A3,  \field Load Side Outlet Node Name
+        \required-field
+        \type node
+   A4,  \field Condenser Type
+        \type choice
+        \required-field
+        \key WaterSource
+        \key AirSource
+        \default WaterSource
+   A5,  \field Source Side Inlet Node Name
+        \required-field
+        \type node
+   A6,  \field Source Side Outlet Node Name
+        \required-field
+        \type node
+   A7,  \field Companion Heat Pump Name
+        \note This field allows the user to specify a companion cooling
+        \note object for this heating object. The companion is used in
+        \note sizing the heat pump as well as to allow checks for unexpected
+        \note simultaneous operation of the two objects.
+        \type object-list
+        \object-list WWHPCoolingNames
+        \reference PLHPCoolingNames
+   N1,  \field Load Side Reference Flow Rate
+        \note This component is currently a constant-flow device, meaning it will always
+        \note try to request the full design flow from the central plant manager.
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m3/s
+        \ip-units gal/min
+        \autosizable
+        \default autosize
+   N2,  \field Source Side Reference Flow Rate
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m3/s
+        \ip-units gal/min
+        \autosizable
+        \default autosize
+   N3,  \field Reference Capacity
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units W
+        \autosizable
+        \default autosize
+   N4,  \field Reference Coefficient of Performance
+        \required-field
+        \type real
+        \minimum> 0.0
+        \default 7.5
+        \units W/W
+   N5,  \field Sizing Factor
+        \note Multiplies the autosized capacity and flow rates
+        \required-field
+        \type real
+        \minimum> 0.0
+        \default 1.0
+   A8,  \field Capacity Modifier Function of Temperature Curve Name
+        \note Heating capacity modifier as a function of CW supply temp and entering condenser temp
+        \required-field
+        \type object-list
+        \object-list BivariateFunctions
+        \note curve = a + b*CWS + c*CWS**2 + d*ECT + e*ECT**2 + f*CWS*ECT
+        \note CWS = supply (leaving) hot water temperature(C)
+        \note ECT = entering condenser fluid temperature(C)
+   A9,  \field Electric Input to Output Ratio Modifier Function of Temperature Curve Name
+        \note Electric Input Ratio (EIR) modifier as a function of temperature
+        \note EIR = 1/COP
+        \required-field
+        \type object-list
+        \object-list BiVariateFunctions
+        \note curve = a + b*CWS + c*CWS**2 + d*ECT + e*ECT**2 + f*CWS*ECT
+        \note CWS = supply (leaving) hot water temperature(C)
+        \note ECT = entering condenser fluid temperature(C)
+   A10; \field Electric Input to Output Ratio Modifier Function of Part Load Ratio Curve Name
+        \note Electric Input Ratio (EIR) modifier as a function of Part Load Ratio (PLR)
+        \note EIR = 1/COP
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note quadratic curve = a + b*PLR + c*PLR**2 is typical, other univariate curves may be used
+        \note PLR = part load ratio (hot load/steady state capacity)
+
+HeatPump:WaterToWater:EquationFit:Heating,
+        \memo simple water-water hp curve-fit model
+        \min-fields 11
+   A1,  \field Name
+        \type alpha
+        \reference WWHPHeatingNames
+        \required-field
+        \reference-class-name validPlantEquipmentTypes
+        \reference validPlantEquipmentNames
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2,  \field Source Side Inlet Node Name
+        \required-field
+        \type node
+   A3,  \field Source Side Outlet Node Name
+        \required-field
+        \type node
+   A4,  \field Load Side Inlet Node Name
+        \required-field
+        \type node
+   A5,  \field Load Side Outlet Node Name
+        \required-field
+        \type node
+   N1,  \field Reference Load Side Flow Rate
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m3/s
+        \ip-units gal/min
+        \autosizable
+   N2,  \field Reference Source Side Flow Rate
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m3/s
+        \ip-units gal/min
+        \autosizable
+   N3,  \field Reference Heating Capacity
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units W
+        \autosizable
+   N4,  \field Reference Heating Power Consumption
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units W
+        \autosizable
+   A6,  \field Heating Capacity Curve Name
+        \required-field
+        \type object-list
+        \object-list QuadvariateFunctions
+   A7,  \field Heating Compressor Power Curve Name
+        \required-field
+        \type object-list
+        \object-list QuadvariateFunctions
+   N5,  \field Reference Coefficient of Performance
+        \note This optional field is used to autosize Reference Heating Power Consumption
+        \note COP = Reference Heating Capacity / Reference Heating Power Consumption
+        \type real
+        \units W/W
+        \minimum> 0.0
+        \default 7.5
+   N6,  \field Sizing Factor
+        \note Multiplies the autosized capacity and flow rates
+        \type real
+        \minimum> 0.0
+        \default 1.0
+   A8 ; \field Companion Cooling Heat Pump Name
+        \type object-list
+        \object-list WWHPCoolingNames
+
+HeatPump:WaterToWater:EquationFit:Cooling,
+        \memo simple water-water heat pump curve-fit model
+        \min-fields 11
+   A1,  \field Name
+        \type alpha
+        \reference WWHPCoolingNames
+        \required-field
+        \reference-class-name validPlantEquipmentTypes
+        \reference validPlantEquipmentNames
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2,  \field Source Side Inlet Node Name
+        \required-field
+        \type node
+   A3,  \field Source Side Outlet Node Name
+        \required-field
+        \type node
+   A4,  \field Load Side Inlet Node Name
+        \required-field
+        \type node
+   A5,  \field Load Side Outlet Node Name
+        \required-field
+        \type node
+   N1,  \field Reference Load Side Flow Rate
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m3/s
+        \ip-units gal/min
+        \autosizable
+   N2,  \field Reference Source Side Flow Rate
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m3/s
+        \ip-units gal/min
+        \autosizable
+   N3,  \field Reference Cooling Capacity
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units W
+        \autosizable
+   N4,  \field Reference Cooling Power Consumption
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units W
+        \autosizable
+   A6,  \field Cooling Capacity Curve Name
+        \required-field
+        \type object-list
+        \object-list QuadvariateFunctions
+   A7,  \field Cooling Compressor Power Curve Name
+        \required-field
+        \type object-list
+        \object-list QuadvariateFunctions
+   N5,  \field Reference Coefficient of Performance
+        \note This optional field is used to autosize Reference Cooling Power Consumption
+        \note COP = Rated Cooling Capacity / Rated Cooling Power Consumption
+        \type real
+        \units W/W
+        \minimum> 0.0
+        \default 8.0
+   N6,  \field Sizing Factor
+        \note Multiplies the autosized capacity and flow rates
+        \type real
+        \minimum> 0.0
+        \default 1.0
+   A8 ; \field Companion Heating Heat Pump Name
+        \type object-list
+        \object-list WWHPHeatingNames
+        \note This optional field is used to coordinate sizing calculations between heating and cooling modes.
+
+HeatPump:WaterToWater:ParameterEstimation:Cooling,
+  \memo OSU parameter estimation model
+  \min-fields 20
+  A1,  \field Name
+       \required-field
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2,\field Source Side Inlet Node Name
+       \required-field
+       \type node
+  A3,\field Source Side Outlet Node Name
+       \required-field
+       \type node
+  A4,\field Load Side Inlet Node Name
+       \required-field
+       \type node
+  A5,\field Load Side Outlet Node Name
+       \required-field
+       \type node
+  N1,\field Nominal COP
+       \units W/W
+     \minimum> 0
+  N2,\field Nominal Capacity
+       \units W
+     \minimum> 0
+  N3,\field Minimum Part Load Ratio
+       \minimum 0.0
+  N4,\field Maximum Part Load Ratio
+       \minimum 0.0
+  N5,\field Optimum Part Load Ratio
+       \minimum 0.0
+  N6,\field Load Side Flow Rate
+       \units m3/s
+       \minimum> 0.0
+       \ip-units gal/min
+  N7,\field Source Side Flow Rate
+       \units m3/s
+       \minimum> 0.0
+       \ip-units gal/min
+  N8,\field Load Side Heat Transfer Coefficient
+     \units W/K
+     \minimum> 0
+  N9,\field Source Side Heat Transfer Coefficient
+     \units W/K
+     \minimum> 0
+  N10,\field Piston Displacement
+      \units m3/s
+     \minimum> 0
+  N11,\field Compressor Clearance Factor
+     \minimum> 0
+  N12,\field Compressor Suction and Discharge Pressure Drop
+      \units Pa
+     \minimum> 0
+  N13,\field Superheating
+      \units C
+     \minimum> 0
+  N14,\field Constant Part of Electromechanical Power Losses
+      \units W
+     \minimum> 0
+  N15,\field Loss Factor
+      \note Used to define electromechanical loss that is proportional
+      \note to the theoretical power %
+     \minimum> 0
+  N16,\field High Pressure Cut Off
+      \units Pa
+      \minimum 0.0
+      \default 500000000
+  N17;\field Low Pressure Cut Off
+      \units Pa
+      \minimum 0.0
+      \default 0.0
+
+HeatPump:WaterToWater:ParameterEstimation:Heating,
+   \memo OSU parameter estimation model
+   \min-fields 20
+  A1,  \field Name
+       \required-field
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2,\field Source Side Inlet Node Name
+       \required-field
+       \type node
+  A3,\field Source Side Outlet Node Name
+       \required-field
+       \type node
+  A4,\field Load Side Inlet Node Name
+       \required-field
+       \type node
+  A5,\field Load Side Outlet Node Name
+       \required-field
+       \type node
+  N1,\field Nominal COP
+       \units W/W
+     \minimum> 0
+  N2,\field Nominal Capacity
+       \units W
+     \minimum> 0
+  N3,\field Minimum Part Load Ratio
+       \minimum 0.0
+  N4,\field Maximum Part Load Ratio
+       \minimum 0.0
+  N5,\field Optimum Part Load Ratio
+       \minimum 0.0
+  N6,\field Load Side Flow Rate
+       \units m3/s
+     \minimum> 0
+     \ip-units gal/min
+  N7,\field Source Side Flow Rate
+       \units m3/s
+     \minimum> 0
+     \ip-units gal/min
+  N8,\field Load Side Heat Transfer Coefficient
+     \units W/K
+     \minimum> 0
+  N9,\field Source Side Heat Transfer Coefficient
+      \units W/K
+     \minimum> 0
+  N10,\field Piston Displacement
+      \units m3/s
+     \minimum> 0
+  N11,\field Compressor Clearance Factor
+     \minimum> 0
+  N12,\field Compressor Suction and Discharge Pressure Drop
+      \units Pa
+     \minimum> 0
+  N13,\field Superheating
+      \units C
+     \minimum> 0
+  N14,\field Constant Part of Electromechanical Power Losses
+      \units W
+     \minimum> 0
+  N15,\field Loss Factor
+      \note Used to define electromechanical loss that is proportional
+      \note to the theoretical power %
+     \minimum> 0
+  N16,\field High Pressure Cut Off
+      \units Pa
+      \minimum 0.0
+      \default 500000000
+  N17;\field Low Pressure Cut Off
+      \units Pa
+      \minimum 0.0
+      \default 0.0
+
+DistrictCooling,
+       \memo Centralized source of chilled water, such as a district cooling system.
+  A1 , \field Name
+       \required-field
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validCondenserEquipmentTypes
+       \reference validCondenserEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Chilled Water Inlet Node Name
+       \required-field
+       \type node
+  A3 , \field Chilled Water Outlet Node Name
+       \required-field
+       \type node
+  N1 , \field Nominal Capacity
+       \autosizable
+       \units W
+       \minimum 0.0
+  A4 ; \field Capacity Fraction Schedule Name
+       \note Schedule values are multiplied by Nominal Capacity for current capacity
+       \type object-list
+       \object-list ScheduleNames
+
+DistrictHeating,
+       \memo Centralized source of hot water, such as a district heating system.
+  A1 , \field Name
+       \required-field
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference-class-name validCondenserEquipmentTypes
+       \reference validCondenserEquipmentNames
+       \reference validBranchEquipmentNames
+  A2 , \field Hot Water Inlet Node Name
+       \required-field
+       \type node
+  A3 , \field Hot Water Outlet Node Name
+       \required-field
+       \type node
+  N1 , \field Nominal Capacity
+       \autosizable
+       \units W
+       \minimum 0.0
+  A4 ; \field Capacity Fraction Schedule Name
+       \note Schedule values are multiplied by Nominal Capacity for current capacity
+       \type object-list
+       \object-list ScheduleNames
+
+PlantComponent:TemperatureSource,
+       \memo Simulates an object of pre-determined (constant or scheduled) source temperature
+       \memo The object introduces fluid into the plant loop at the specified temperature and
+       \memo  at the same flow rate as the fluid enters the component
+       \memo Fluid entering the component vanishes equivalent to the relief air in an air system
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note Component Name
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validCondenserEquipmentTypes
+       \reference validCondenserEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Inlet Node
+       \required-field
+       \type node
+       \note Name of the source inlet node
+  A3 , \field Outlet Node
+       \required-field
+       \type node
+       \note Name of the source outlet node
+  N1 , \field Design Volume Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note The design volumetric flow rate for this source
+       \ip-units gal/min
+  A4 , \field Temperature Specification Type
+       \type choice
+       \key Constant
+       \key Scheduled
+  N2 , \field Source Temperature
+       \type real
+       \units C
+       \note Used if Temperature Specification Type = Constant
+  A5 ; \field Source Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \units C
+       \note Used if Temperature Specification Type = Scheduled
+
+CentralHeatPumpSystem,
+       \min-fields 14
+       \memo This chiller bank can contain multiple chiller heaters and heat pump performance objects.
+       \memo Its function is to encapsulate the extra controls needed to turn individual modules on/off
+       \memo and whether they are to operate in cooling-only, heating-only or simultaneous cooling/heating
+       \memo mode and whether to connect the source water to the evaporator or condenser side.
+  A1,  \field Name
+       \type alpha
+       \required-field
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2,  \field Control Method
+       \type choice
+       \key SmartMixing
+       \default SmartMixing
+  A3,  \field Cooling Loop Inlet Node Name
+       \type alpha
+       \required-field
+  A4,  \field Cooling Loop Outlet Node Name
+       \type alpha
+       \required-field
+  A5,  \field Source Loop Inlet Node Name
+       \type alpha
+       \required-field
+  A6,  \field Source Loop Outlet Node Name
+       \type alpha
+       \required-field
+  A7,  \field Heating Loop Inlet Node Name
+       \type alpha
+       \required-field
+  A8,  \field Heating Loop Outlet Node Name
+       \type alpha
+       \required-field
+  N1,  \field Ancillary Power
+       \type real
+       \units W
+       \minimum 0.0
+       \default 0.0
+       \note Power as demanded from any auxiliary controls
+  A9,  \field Ancillary Operation Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This value from this schedule is multiplied times the Ancillary Power
+  A10, \field Chiller Heater Modules Performance Component Object Type 1
+       \required-field
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A11, \field Chiller Heater Modules Performance Component Name 1
+       \required-field
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A12, \field Chiller Heater Modules Control Schedule Name 1
+       \type object-list
+       \object-list ScheduleNames
+       \required-field
+  N2,  \field Number of Chiller Heater Modules 1
+       \type integer
+       \minimum 1
+       \default 1
+  A13, \field Chiller Heater Modules Performance Component Object Type 2
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A14, \field Chiller Heater Modules Performance Component Name 2
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A15, \field Chiller Heater Modules Control Schedule Name 2
+       \type object-list
+       \object-list ScheduleNames
+  N3,  \field Number of Chiller Heater Modules 2
+       \type integer
+       \minimum 1
+       \default 1
+  A16, \field Chiller Heater Performance Component Object Type 3
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A17, \field Chiller Heater Performance Component Name 3
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A18, \field Chiller Heater Modules Control Schedule Name 3
+       \type object-list
+       \object-list ScheduleNames
+  N4,  \field Number of Chiller Heater Modules 3
+       \type integer
+       \minimum 1
+       \default 1
+  A19, \field Chiller Heater Modules Performance Component Object Type 4
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A20, \field Chiller Heater Modules Performance Component Name 4
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A21, \field Chiller Heater Modules Control Schedule Name 4
+       \type object-list
+       \object-list ScheduleNames
+  N5,  \field Number of Chiller Heater Modules 4
+       \type integer
+       \minimum 1
+       \default 1
+  A22, \field Chiller Heater Modules Performance Component Object Type 5
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A23, \field Chiller Heater Models Performance Component Name 5
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A24, \field Chiller Heater Modules Control Schedule Name 5
+       \type object-list
+       \object-list ScheduleNames
+  N6,  \field Number of Chiller Heater Modules 5
+       \type integer
+       \minimum 1
+       \default 1
+  A25, \field Chiller Heater Modules Performance Component Object Type 6
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A26, \field Chiller Heater Modules Performance Component Name 6
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A27, \field Chiller Heater Modules Control Schedule Name 6
+       \type object-list
+       \object-list ScheduleNames
+  N7,  \field Number of Chiller Heater Modules 6
+       \type integer
+       \minimum 1
+       \default 1
+  A28, \field Chiller Heater Modules Performance Component Object Type 7
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A29, \field Chiller Heater Modules Performance Component Name 7
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A30, \field Chiller Heater Modules Control Schedule Name 7
+       \type object-list
+       \object-list ScheduleNames
+  N8,  \field Number of Chiller Heater Modules 7
+       \type integer
+       \minimum 1
+       \default 1
+  A31, \field Chiller Heater Modules Performance Component Object Type 8
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A32, \field Chiller Heater Modules Performance Component Name 8
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A33, \field Chiller Heater Modules Control Schedule Name 8
+       \type object-list
+       \object-list ScheduleNames
+  N9,  \field Number of Chiller Heater Modules 8
+       \type integer
+       \minimum 1
+       \default 1
+  A34, \field Chiller Heater Modules Performance Component Object Type 9
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A35, \field Chiller Heater Modules Performance Component Name 9
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A36, \field Chiller Heater Modules Control Schedule Name 9
+       \type object-list
+       \object-list ScheduleNames
+  N10, \field Number of Chiller Heater Modules 9
+       \type integer
+       \minimum 1
+       \default 1
+  A37, \field Chiller Heater Modules Performance Component Object Type 10
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A38, \field Chiller Heater Modules Performance Component Name 10
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A39, \field Chiller Heater Modules Control Schedule Name 10
+       \type object-list
+       \object-list ScheduleNames
+  N11, \field Number of Chiller Heater Modules 10
+       \type integer
+       \minimum 1
+       \default 1
+  A40, \field Chiller Heater Modules Performance Component Object Type 11
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A41, \field Chiller Heater Modules Performance Component Name 11
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A42, \field Chiller Heater Module Control Schedule Name 11
+       \type object-list
+       \object-list ScheduleNames
+  N12, \field Number of Chiller Heater Modules 11
+       \type integer
+       \minimum 1
+       \default 1
+  A43, \field Chiller Heater Modules Performance Component Object Type 12
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A44, \field Chiller Heater Modules Performance Component Name 12
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A45, \field Chiller Heater Modules Control Schedule Name 12
+       \type object-list
+       \object-list ScheduleNames
+  N13, \field Number of Chiller Heater Modules 12
+       \type integer
+       \minimum 1
+       \default 1
+  A46, \field Chiller Heater Modules Performance Component Object Type 13
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A47, \field Chiller Heater Modules Performance Component Name 13
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A48, \field Chiller Heater Modules Control Schedule Name 13
+       \type object-list
+       \object-list ScheduleNames
+  N14, \field Number of Chiller Heater Modules 13
+       \type integer
+       \minimum 1
+       \default 1
+  A49, \field Chiller Heater Modules Performance Component Object Type 14
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A50, \field Chiller Heater Modules Performance Component Name 14
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A51, \field Chiller Heater Modules Control Schedule Name 14
+       \type object-list
+       \object-list ScheduleNames
+  N15, \field Number of Chiller Heater Modules 14
+       \type integer
+       \minimum 1
+       \default 1
+  A52, \field Chiller Heater Modules Performance Component Object Type 15
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A53, \field Chiller Heater Modules Performance Component Name 15
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A54, \field Chiller Heater Modules Control Schedule Name 15
+       \type object-list
+       \object-list ScheduleNames
+  N16, \field Number of Chiller Heater Modules 15
+       \type integer
+       \minimum 1
+       \default 1
+  A55, \field Chiller Heater Modules Performance Component Object Type 16
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A56, \field Chiller Heater Modules Performance Component Name 16
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A57, \field Chiller Heater Modules Control Schedule Name 16
+       \type object-list
+       \object-list ScheduleNames
+  N17, \field Number of Chiller Heater Modules 16
+       \type integer
+       \minimum 1
+       \default 1
+  A58, \field Chiller Heater Modules Performance Component Object Type 17
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A59, \field Chiller Heater Modules Performance Component Name 17
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A60, \field Chiller Heater Modules Control Schedule Name 17
+       \type object-list
+       \object-list ScheduleNames
+  N18, \field Number of Chiller Heater Modules 17
+       \type integer
+       \minimum 1
+       \default 1
+  A61, \field Chiller Heater Modules Performance Component Object Type 18
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A62, \field Chiller Heater Modules Performance Component Name 18
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A63, \field Chiller Heater Modules Control Control Schedule Name 18
+       \type object-list
+       \object-list ScheduleNames
+  N19, \field Number of Chiller Heater Modules 18
+       \type integer
+       \minimum 1
+       \default 1
+  A64, \field Chiller Heater Modules Performance Component Object Type 19
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A65, \field Chiller Heater Modules Performance Component Name 19
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A66, \field Chiller Heater Modules Control Schedule Name 19
+       \type object-list
+       \object-list ScheduleNames
+  N20, \field Number of Chiller Heater Modules 19
+       \type integer
+       \minimum 1
+       \default 1
+  A67, \field Chiller Heater Modules Performance Component Object Type 20
+       \type choice
+       \key ChillerHeaterPerformance:Electric:EIR
+  A68, \field Chiller Heater Modules Performance Component Name 20
+       \type object-list
+       \object-list ChillerHeaterEIRNames
+  A69, \field Chiller Heater Modules Control Schedule Name 20
+       \type object-list
+       \object-list ScheduleNames
+  N21; \field Number of Chiller Heater Modules 20
+       \type integer
+       \minimum 1
+       \default 1
+
+ChillerHeaterPerformance:Electric:EIR,
+       \min-fields 29
+       \memo This chiller model is a generic chiller-heater where the cooling mode performance is a
+       \memo function of condenser entering or leaving fluid temperature and the heating mode performance
+       \memo is typically a function of condenser leaving fluid temperature. Performance at off-reference
+       \memo conditions is modeled using three polynomial equations per mode. Six curve objects are required.
+  A1 , \field Name
+       \type alpha
+       \required-field
+       \reference ChillerHeaterEIRNames
+  N1 , \field Reference Cooling Mode Evaporator Capacity
+       \type real
+       \units W
+       \required-field
+       \minimum> 0.0
+       \autosizable
+  N2 , \field Reference Cooling Mode COP
+       \note Efficiency of the chiller compressor (cooling output/compressor energy input).
+       \type real
+       \units W/W
+       \required-field
+       \minimum> 0.0
+  N3 , \field Reference Cooling Mode Leaving Chilled Water Temperature
+       \type real
+       \default 6.67
+       \units C
+  N4 , \field Reference Cooling Mode Entering Condenser Fluid Temperature
+       \type real
+       \default 29.44
+       \units C
+  N5 , \field Reference Cooling Mode Leaving Condenser Water Temperature
+       \type real
+       \default 35.0
+       \units C
+  N6 , \field Reference Heating Mode Cooling Capacity Ratio
+       \note During simultaneous cooling-heating mode, this ratio is relative to the Reference Cooling Mode Cooling Capacity
+       \note (Evaporator capacity at simul clg-htg mode ref condition)/ (Evaporator capacity at cooling mode ref condition)
+       \type real
+       \default 0.75
+  N7 , \field Reference Heating Mode Cooling Power Input Ratio
+       \note During simultaneous cooling-heating mode, this ratio is relative to the Reference Cooling Mode COP
+       \note (Power at simultaneous clg-htg mode reference condition)/ (Power at cooling mode reference condition)
+       \type real
+       \default 1.38
+       \minimum> 0.0
+  N8 , \field Reference Heating Mode Leaving Chilled Water Temperature
+       \note During simultaneous cooling-heating mode
+       \type real
+       \default 6.67
+       \units C
+  N9 , \field Reference Heating Mode Leaving Condenser Water Temperature
+       \note During simultaneous cooling-heating mode
+       \type real
+       \default 49
+       \units C
+  N10, \field Reference Heating Mode Entering Condenser Fluid Temperature
+       \type real
+       \default 29.44
+       \units C
+  N11, \field Heating Mode Entering Chilled Water Temperature Low Limit
+       \note During simultaneous cooling-heating mode
+       \type real
+       \default 12.22
+       \units C
+  A2 , \field Chilled Water Flow Mode Type
+       \note Sets chilled water flow rate to either constant or variable.
+       \type choice
+       \key ConstantFlow
+       \key VariableFlow
+       \default ConstantFlow
+  N12, \field Design Chilled Water Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0
+       \autosizable
+       \ip-units gal/min
+  N13, \field Design Condenser Water Flow Rate
+       \type real
+       \units m3/s
+       \autosizable
+       \minimum> 0.0
+       \autosizable
+       \ip-units gal/min
+  N14, \field Design Hot Water Flow Rate
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \ip-units gal/min
+  N15, \field Compressor Motor Efficiency
+       \type real
+       \note Fraction of compressor electrical energy that must be rejected by the condenser.
+       \note Enter 1.0 or leave this field blank for a hermetic compressor.
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  A3 , \field Condenser Type
+       \type choice
+       \key AirCooled
+       \key WaterCooled
+       \default WaterCooled
+  A4 , \field Cooling Mode Temperature Curve Condenser Water Independent Variable
+       \type choice
+       \key EnteringCondenser
+       \key LeavingCondenser
+       \default EnteringCondenser
+       \note Sets the second independent variable in the three temperature dependent performance
+       \note curves to either the leaving or entering condenser water temperature. Manufacturers
+       \note express the performance of their chillers using either the leaving condenser water
+       \note temperature (to the tower) or the entering condenser water temperature (from the tower).
+       \note Cooling mode is generally a stronger function of Entering Condenser Fluid Temperature
+  A5 , \field Cooling Mode Cooling Capacity Function of Temperature Curve Name
+       \note Cooling capacity as a function of leaving chilled water temperature
+       \note and either entering or leaving condenser fluid temperature
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*CWS + c*CWS**2 + d*TCond + e*TCond**2 + f*CWS*TCond
+       \note    If ClgModeCondWaterCurveInputVariable = EnteringCondenser, TCond = ECT
+       \note    If ClgModeCondWaterCurveInputVariable = LeavingCondenser, TCond = LCT
+       \note CWS = supply (leaving) chilled water temperature(C)
+       \note LCT = leaving condenser fluid temperature(C)
+       \note ECT = entering condenser fluid temperature(C)
+  A6 , \field Cooling Mode Electric Input to Cooling Output Ratio Function of Temperature Curve Name
+       \note Electric Input Ratio (EIR) as a function of supply (leaving) chilled water temperature
+       \note and leaving condenser fluid temperature. EIR = 1/COP.
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*CWS + c*CWS**2 + d*TCond + e*TCond**2 + f*CWS*TCond
+       \note If ClgModeCondWaterCurveInputVariable = EnteringCondenser, TCond = ECT
+       \note If ClgModeCondWaterCurveInputVariable = LeavingCondenser, TCond = LCT
+       \note CWS = supply (leaving) chilled water temperature(C)
+       \note LCT = leaving condenser fluid temperature(C)
+       \note ECT = entering condenser fluid temperature(C)
+  A7 , \field Cooling Mode Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
+       \note Electric Input Ratio (EIR) as a function of Part Load Ratio (PLR)
+       \note EIR = 1/COP
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note  Bicubic = a + b*TCond + c*TCond**2 + d*PLR + e*PLR**2 + f*TCond*PLR +g*0 + h*PLR**3+i*0+j*0
+       \note    If ClgModeCondWaterCurveInputVariable = EnteringCondenser, TCond = ECT
+       \note    If ClgModeCondWaterCurveInputVariable = LeavingCondenser, TCond = LCT
+       \note    Normally, a bicubic curve here should be in terms of LCT rather than ECT
+       \note    Also, a bicubic curve is more applicable for variable-speed compressor motor drives
+       \note or
+       \note  Quadratic = a + b*PLR + c*PLR**2
+       \note PLR = part load ratio (cooling load/steady-state capacity)
+       \note LCT = leaving condenser fluid temperature(C)
+       \note ECT = entering condenser fluid temperature(C)
+  N16, \field Cooling Mode Cooling Capacity Optimum Part Load Ratio
+       \type real
+       \note Optimum part load ratio where the chiller is most efficient.
+       \note Must be greater than or equal to the Minimum Part Load Ratio
+       \note and less than or equal to the Maximum Part Load Ratio.
+       \note The Min/Max PLR are taken from their associated EIR-FPLR curve references.
+       \minimum> 0.0
+       \default 1.0
+  A8 , \field Heating Mode Temperature Curve Condenser Water Independent Variable
+       \type choice
+       \key EnteringCondenser
+       \key LeavingCondenser
+       \default LeavingCondenser
+       \note Sets the second independent variable in the three temperature dependent performance
+       \note curves to either the leaving or entering condenser water temperature. Manufacturers
+       \note express the performance of their chillers using either the leaving condenser water
+       \note temperature (to the tower) or the entering condenser water temperature (from the tower).
+       \note Heating mode (or Simul Clg/Htg Load) should be a function of Leaving Condenser Fluid Temperature
+       \note Only use EnteringCondenser as a last resort in case no performance data exists for LeavingCondenser
+  A9 , \field Heating Mode Cooling Capacity Function of Temperature Curve Name
+       \note Evaporator (cooling) capacity as a function of leaving chilled water temperature
+       \note and leaving condenser fluid temperature when in heating or simultaneous cool/heat mode
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*CWS + c*CWS**2 + d*TCond + e*TCond**2 + f*CWS*TCond
+       \note    If independent variable = EnteringCondenser, TCond = ECT
+       \note    If independent variable = LeavingCondenser, TCond = LCT
+       \note CWS = supply (leaving) chilled water temperature(C)
+       \note LCT = leaving condenser fluid temperature(C)
+       \note ECT = entering condenser fluid temperature(C)
+  A10, \field Heating Mode Electric Input to Cooling Output Ratio Function of Temperature Curve Name
+       \note Electric Input Ratio (EIR) as a function of leaving chilled water temperature when in heating or simultaneous cool/heat mode
+       \note and leaving condenser fluid temperature. EIR = 1/COP.
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+       \note curve = a + b*CWS + c*CWS**2 + d*TCond + e*TCond**2 + f*CWS*TCond
+       \note    If independent variable = EnteringCondenser, TCond = ECT
+       \note    If independent variable = LeavingCondenser, TCond = LCT
+       \note CWS = leaving chilled water temperature(C)
+       \note LCT = leaving condenser fluid temperature(C)
+       \note ECT = entering condenser fluid temperature(C)
+  A11, \field Heating Mode Electric Input to Cooling Output Ratio Function of Part Load Ratio Curve Name
+       \note Electric Input Ratio (EIR) as a function of Part Load Ratio (PLR) when in heating or simultaneous cool/heat mode
+       \note EIR = 1/COP
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \note  Bicubic = a + b*LCT + c*LCT**2 + d*PLR + e*PLR**2 + f*LCT*PLR + g*0 + h*PLR**3 + i*0 + j*0
+       \note    Normally, a bicubic curve here should be in terms of LCT rather than ECT
+       \note    Also, a bicubic curve is more applicable for variable-speed compressor motor drives
+       \note or
+       \note  Quadratic = a + b*PLR + c*PLR**2
+       \note PLR = part load ratio (cooling load/steady-state capacity)
+       \note LCT = leaving condenser fluid temperature(C)
+       \note ECT = entering condenser fluid temperature(C)
+  N17, \field Heating Mode Cooling Capacity Optimum Part Load Ratio
+       \type real
+       \note Optimum part load ratio where the chiller is most efficient when in heating or simultaneous cool/heat mode.
+       \note Must be greater than or equal to the Minimum Part Load Ratio
+       \note and less than or equal to the Maximum Part Load Ratio.
+       \note The Min/Max PLR are taken from their associated EIR-FPLR curve references.
+       \minimum> 0.0
+       \default 1.0
+  N18; \field Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+
+\group Condenser Equipment and Heat Exchangers
+
+!*****************CONDENSING EQUIPMENT*********************
+CoolingTower:SingleSpeed,
+       \min-fields 16
+       \memo This tower model is based on Merkel's theory, which is also the basis
+       \memo for the tower model in ASHRAE's HVAC1 Toolkit. The open wet cooling tower
+       \memo is modeled as a counter flow heat exchanger with a single-speed fan drawing air
+       \memo through the tower (induced-draft configuration).
+       \memo Added fluid bypass as an additional capacity control. 8/2008.
+       \memo For a multi-cell tower, the capacity and air/water flow rate inputs are for the entire tower.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference CoolingTowers
+       \reference CoolingTowersWithUA
+       \note Tower Name
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validCondenserEquipmentTypes
+       \reference validCondenserEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Water Inlet Node Name
+       \required-field
+       \type node
+       \note Name of tower water inlet node
+  A3 , \field Water Outlet Node Name
+       \required-field
+       \type node
+       \note Name of tower water outlet node
+  N1 , \field Design Water Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Leave field blank if tower performance input method is NominalCapacity
+       \ip-units gal/min
+  N2 , \field Design Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+  N3 , \field Design Fan Power
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \ip-units W
+       \note This is the fan motor electric input power
+  N4 , \field Design U-Factor Times Area Value
+       \type real
+       \units W/K
+       \minimum> 0.0
+       \maximum 2100000.0
+       \autosizable
+       \note Leave field blank if tower performance input method is NominalCapacity
+  N5 , \field Free Convection Regime Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \autocalculatable
+  N6 , \field Free Convection Regime Air Flow Rate Sizing Factor
+       \type real
+       \default 0.1
+       \minimum> 0.0
+       \maximum< 1.0
+       \note This field is only used if the previous field is set to autocalculate.
+  N7 , \field Free Convection Regime U-Factor Times Area Value
+       \type real
+       \units W/K
+       \minimum 0.0
+       \maximum 300000.0
+       \default 0.0
+       \autocalculatable
+  N8 , \field Free Convection U-Factor Times Area Value Sizing Factor
+       \type real
+       \default 0.1
+       \minimum> 0.0
+       \maximum< 1.0
+       \note This field is only used if the previous field is set to autocalculate and
+       \note the Performance Input Method is UFactorTimesAreaAndDesignWaterFlowRate
+  A4 , \field Performance Input Method
+       \type choice
+       \key UFactorTimesAreaAndDesignWaterFlowRate
+       \key NominalCapacity
+       \default UFactorTimesAreaAndDesignWaterFlowRate
+       \note User can define tower thermal performance by specifying the tower UA,
+       \note the Design Air Flow Rate and the Design Water Flow Rate,
+       \note or by specifying the tower nominal capacity
+  N9 , \field Heat Rejection Capacity and Nominal Capacity Sizing Ratio
+       \type real
+       \default 1.25
+  N10, \field Nominal Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \note Nominal tower capacity with entering water at 35C (95F), leaving water at
+       \note 29.44C (85F), entering air at 25.56C (78F) wet-bulb temperature and 35C (95F)
+       \note dry-bulb temperature. Design water flow rate assumed to be 5.382E-8 m3/s per watt
+       \note (3 gpm/ton). Nominal tower capacity times (1.25) gives the actual tower
+       \note heat rejection at these operating conditions.
+  N11, \field Free Convection Capacity
+       \type real
+       \units W
+       \minimum 0.0
+       \autocalculatable
+       \note Tower capacity in free convection regime with entering water at 35C (95F),
+       \note leaving water at 29.44C (85F), entering air at 25.56C (78F) wet-bulb temperature
+       \note and 35C (95F) dry-bulb temperature. Design water flow rate assumed to be
+       \note 5.382E-8 m3/s per watt of nominal tower capacity (3 gpm/ton). Tower free
+       \note convection capacity times (1.25) gives the actual tower heat rejection at these
+       \note operating conditions.
+  N12, \field Free Convection Nominal Capacity Sizing Factor
+       \type real
+       \default 0.1
+       \minimum> 0.0
+       \maximum< 1.0
+       \note This field is only used if the previous field is set to autocalculate
+  N13, \field Design Inlet Air Dry-Bulb Temperature
+       \type real
+       \units C
+       \default 35.0
+       \minimum 20.0
+       \note Enter the tower's design inlet air dry-bulb temperature
+  N14, \field Design Inlet Air Wet-Bulb Temperature
+       \type real
+       \units C
+       \default 25.6
+       \minimum 20.0
+       \note Enter the tower's design inlet air wet-bulb temperature
+  N15, \field Design Approach Temperature
+       \type real
+       \units deltaC
+       \autosizable
+       \default autosize
+       \minimum> 0
+       \note Enter the approach temperature corresponding to the design inlet air
+       \note wet-bulb temperature and design range temperature.
+       \note Design approach temp = outlet water temperature minus inlet air wet-bulb temperature
+       \note at design conditions. Autosized to 3.9 deltaC.
+  N16, \field Design Range Temperature
+       \type real
+       \units deltaC
+       \autosizable
+       \default autosize
+       \minimum> 0
+       \note Enter the range temperature corresponding to the design inlet air
+       \note wet-bulb temperature and design approach temperature.
+       \note Design range = inlet water temperature minus outlet water temperature
+       \note at design conditions. Autosized to 5.5 deltaC.
+  N17, \field Basin Heater Capacity
+       \type real
+       \units W/K
+       \minimum 0.0
+       \default 0.0
+       \note This heater maintains the basin water temperature at the basin heater setpoint
+       \note temperature when the outdoor air temperature falls below the setpoint temperature.
+       \note The basin heater only operates when water is not flowing through the tower.
+  N18, \field Basin Heater Setpoint Temperature
+       \type real
+       \units C
+       \minimum 2.0
+       \default 2.0
+       \note Enter the outdoor dry-bulb temperature when the basin heater turns on
+  A5 , \field Basin Heater Operating Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+       \note air dry-bulb temperature is below the basin heater setpoint temperature.
+       \note If a schedule name is not entered, the basin heater is allowed to operate
+       \note throughout the entire simulation.
+  A6 , \field Evaporation Loss Mode
+       \type choice
+       \key LossFactor
+       \key SaturatedExit
+  N19, \field Evaporation Loss Factor
+       \type real
+       \units percent/K
+       \note Rate of water evaporation from the cooling tower and lost to the outdoor air [%/K]
+       \note Evaporation loss is calculated as percentage of the circulating condenser water rate
+       \note Value entered here is percent-per-degree K of temperature drop in the condenser water
+       \note Typical values are from 0.15 to 0.27 [%/K].
+       \default 0.2
+  N20, \field Drift Loss Percent
+       \type real
+       \default 0.008
+       \units percent
+       \note Rate of drift loss as a percentage of circulating condenser water flow rate
+       \note Typical values are between 0.002 and 0.2% The default value is 0.008%
+  A7 , \field Blowdown Calculation Mode
+       \type choice
+       \key ConcentrationRatio
+       \key ScheduledRate
+  N21, \field Blowdown Concentration Ratio
+       \type real
+       \minimum 2.0
+       \default 3.0
+       \note Characterizes the rate of blowdown in the cooling tower.
+       \note Blowdown is water intentionally drained from the tower in order to offset the build up
+       \note of solids in the water that would otherwise occur because of evaporation.
+       \note Ratio of solids in the blowdown water to solids in the make up water.
+       \note Typical values for tower operation are 3 to 5. The default value is 3.
+  A8 , \field Blowdown Makeup Water Usage Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Makeup water usage due to blowdown results from occasionally draining a small amount
+       \note of water in the tower basin to purge scale or other contaminants to reduce their
+       \note concentration in order to maintain an acceptable level of water quality.
+       \note Schedule values should reflect water usage in m3/s.
+  A9 , \field Supply Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  A10, \field Outdoor Air Inlet Node Name
+       \type node
+       \note Enter the name of an outdoor air node
+  A11, \field Capacity Control
+       \type choice
+       \key FanCycling
+       \key FluidBypass
+       \default FanCycling
+  N22, \field Number of Cells
+       \type integer
+       \minimum 1
+       \default 1
+  A12, \field Cell Control
+       \type choice
+       \key MinimalCell
+       \key MaximalCell
+       \default MinimalCell
+  N23, \field Cell Minimum  Water Flow Rate Fraction
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.33
+       \note The allowable minimal fraction of the nominal flow rate per cell
+  N24, \field Cell Maximum Water Flow Rate Fraction
+       \type real
+       \minimum 1
+       \default 2.5
+       \note The allowable maximal fraction of the nominal flow rate per cell
+  N25, \field Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+  A13; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+CoolingTower:TwoSpeed,
+       \min-fields 24
+       \memo This tower model is based on Merkel's theory, which is also the basis
+       \memo for the tower model in ASHRAE's HVAC1 Toolkit. The open wet cooling tower
+       \memo is modeled as a counter flow heat exchanger with a two-speed fan drawing air
+       \memo through the tower (induced-draft configuration).
+       \memo For a multi-cell tower, the capacity and air/water flow rate inputs are for the entire tower.
+  A1,  \field Name
+       \required-field
+       \type alpha
+       \reference CoolingTowers
+       \reference CoolingTowersWithUA
+       \note Tower Name
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validCondenserEquipmentTypes
+       \reference validCondenserEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Water Inlet Node Name
+       \required-field
+       \type node
+       \note Name of tower Water Inlet Node
+  A3 , \field Water Outlet Node Name
+       \required-field
+       \type node
+       \note Name of tower Water Outlet Node
+  N1 , \field Design Water Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Leave field blank if Tower Performance Input Method is NominalCapacity
+       \ip-units gal/min
+  N2 , \field High Fan Speed Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+  N3 , \field High Fan Speed Fan Power
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \ip-units W
+       \note This is the fan motor electric input power at high speed
+  N4 , \field High Fan Speed U-Factor Times Area Value
+       \type real
+       \units W/K
+       \minimum> 0.0
+       \maximum 2100000.0
+       \autosizable
+       \note Leave field blank if Tower Performance Input Method is NominalCapacity
+  N5 , \field Low Fan Speed Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autocalculatable
+       \note Low speed air flow rate must be less than high speed air flow rate
+       \note Low speed air flow rate must be greater than free convection air flow rate
+  N6 , \field Low Fan Speed Air Flow Rate Sizing Factor
+       \type real
+       \default 0.5
+       \minimum> 0.0
+       \maximum< 1.0
+       \note This field is only used if the previous field is set to autocalculate.
+  N7 , \field Low Fan Speed Fan Power
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autocalculatable
+       \ip-units W
+       \note This is the fan motor electric input power at low speed
+  N8 , \field Low Fan Speed Fan Power Sizing Factor
+       \type real
+       \default 0.16
+       \minimum> 0.0
+       \maximum< 1.0
+       \note This field is only used if the previous field is set to autocalculate.
+  N9 , \field Low Fan Speed U-Factor Times Area Value
+       \type real
+       \units W/K
+       \minimum> 0.0
+       \maximum 300000.0
+       \autocalculatable
+       \note Leave field blank if tower Performance Input Method is NominalCapacity
+       \note Low speed tower UA must be less than high speed tower UA
+       \note Low speed tower UA must be greater than free convection tower UA
+  N10, \field Low Fan Speed U-Factor Times Area Sizing Factor
+       \type real
+       \default 0.6
+       \minimum> 0.0
+       \maximum< 1.0
+       \note This field is only used if the previous field is set to autocalculate and
+       \note the Performance Input Method is UFactorTimesAreaAndDesignWaterFlowRate
+  N11, \field Free Convection Regime Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \autocalculatable
+  N12, \field Free Convection Regime Air Flow Rate Sizing Factor
+       \type real
+       \default 0.1
+       \minimum> 0.0
+       \maximum< 1.0
+       \note This field is only used if the previous field is set to autocalculate.
+  N13, \field Free Convection Regime U-Factor Times Area Value
+       \type real
+       \units W/K
+       \minimum 0.0
+       \maximum 300000.0
+       \default 0.0
+       \autocalculatable
+       \note Leave field blank if Tower Performance Input Method is NominalCapacity
+  N14, \field Free Convection U-Factor Times Area Value Sizing Factor
+       \type real
+       \default 0.1
+       \minimum> 0.0
+       \maximum< 1.0
+       \note This field is only used if the previous field is set to autocalculate and
+       \note the Performance Input Method is UFactorTimesAreaAndDesignWaterFlowRate
+  A4 , \field Performance Input Method
+       \type choice
+       \key UFactorTimesAreaAndDesignWaterFlowRate
+       \key NominalCapacity
+       \default UFactorTimesAreaAndDesignWaterFlowRate
+       \note User can define tower thermal performance by specifying the tower UA,
+       \note the Design Air Flow Rate and the Design Water Flow Rate,
+       \note or by specifying the tower nominal capacity
+  N15, \field Heat Rejection Capacity and Nominal Capacity Sizing Ratio
+       \type real
+       \default 1.25
+  N16, \field High Speed Nominal Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \note Nominal tower capacity with entering water at 35C (95F), leaving water at
+       \note 29.44C (85F), entering air at 25.56C (78F) wet-bulb temperature and 35C (95F)
+       \note dry-bulb temperature, with the tower fan operating at high speed. Design water
+       \note flow rate assumed to be 5.382E-8 m3/s per watt(3 gpm/ton). Nominal tower capacity
+       \note times the Heat Rejection Capacity and Nominal Capacity Sizing Ratio (e.g. 1.25)
+       \note gives the actual tower heat rejection at these operating conditions.
+  N17, \field Low Speed Nominal Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \autocalculatable
+       \note Nominal tower capacity with entering water at 35C (95F), leaving water at
+       \note 29.44C (85F), entering air at 25.56C (78F) wet-bulb temperature and 35C (95F)
+       \note dry-bulb temperature, with the tower fan operating at low speed. Design water flow
+       \note rate assumed to be 5.382E-8 m3/s per watt of tower high-speed nominal capacity
+       \note (3 gpm/ton). Nominal tower capacity times the Heat Rejection Capacity and Nominal
+       \note Capacity Sizing Ratio (e.g. 1.25) gives the actual tower heat
+       \note rejection at these operating conditions.
+  N18, \field Low Speed Nominal Capacity Sizing Factor
+       \type real
+       \default 0.5
+       \minimum> 0.0
+       \maximum< 1.0
+       \note This field is only used if the previous field is set to autocalculate
+  N19, \field Free Convection Nominal Capacity
+       \type real
+       \units W
+       \minimum 0.0
+       \autocalculatable
+       \note Tower capacity in free convection regime with entering water at 35C (95F),
+       \note leaving water at 29.44C (85F), entering air at 25.56C (78F) wet-bulb temperature
+       \note and 35C (95F) dry-bulb temperature. Design water flow rate assumed to be
+       \note 5.382E-8 m3/s per watt of tower high-speed nominal capacity (3 gpm/ton). Tower
+       \note free convection capacity times the Heat Rejection Capacity and Nominal Capacity Sizing Ratio
+       \note (e.g. 1.25)  gives the actual tower heat rejection at these operating conditions
+  N20, \field Free Convection Nominal Capacity Sizing Factor
+       \type real
+       \default 0.1
+       \minimum> 0.0
+       \maximum< 1.0
+       \note This field is only used if the previous field is set to autocalculate
+  N21, \field Design Inlet Air Dry-Bulb Temperature
+       \type real
+       \units C
+       \default 35.0
+       \minimum 20.0
+       \note Enter the tower's design inlet air dry-bulb temperature
+  N22, \field Design Inlet Air Wet-Bulb Temperature
+       \type real
+       \units C
+       \default 25.6
+       \minimum 20.0
+       \note Enter the tower's design inlet air wet-bulb temperature
+  N23, \field Design Approach Temperature
+       \type real
+       \units deltaC
+       \autosizable
+       \default autosize
+       \minimum> 0
+       \note Enter the approach temperature corresponding to the design inlet air
+       \note wet-bulb temperature and design range temperature.
+       \note Design approach temp = outlet water temperature minus inlet air wet-bulb temperature
+       \note at design conditions. Autosized to 3.9 deltaC.
+  N24, \field Design Range Temperature
+       \type real
+       \units deltaC
+       \autosizable
+       \default autosize
+       \minimum> 0
+       \note Enter the range temperature corresponding to the design inlet air
+       \note wet-bulb temperature and design approach temperature.
+       \note Design range = inlet water temperature minus outlet water temperature
+       \note at design conditions. Autosized to 5.5 deltaC.
+  N25, \field Basin Heater Capacity
+       \type real
+       \units W/K
+       \minimum 0.0
+       \default 0.0
+       \note This heater maintains the basin water temperature at the basin heater setpoint
+       \note temperature when the outdoor air temperature falls below the setpoint temperature.
+       \note The basin heater only operates when water is not flowing through the tower.
+  N26, \field Basin Heater Setpoint Temperature
+       \type real
+       \units C
+       \minimum 2.0
+       \default 2.0
+       \note Enter the outdoor dry-bulb temperature when the basin heater turns on
+  A5 , \field Basin Heater Operating Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+       \note air dry-bulb temperature is below the basin heater setpoint temperature.
+       \note If a schedule name is not entered, the basin heater is allowed to operate
+       \note throughout the entire simulation.
+  A6 , \field Evaporation Loss Mode
+       \type choice
+       \key LossFactor
+       \key SaturatedExit
+  N27, \field Evaporation Loss Factor
+       \type real
+       \units percent/K
+       \note Rate of water evaporated from the cooling tower and lost to the outdoor air [%/K]
+       \note Evaporation loss is calculated as percentage of the circulating condenser water rate
+       \note Value entered here is percent-per-degree K of temperature drop in the condenser water
+       \note Typical values are from 0.15 to 0.27 [%/K].
+       \default 0.2
+  N28, \field Drift Loss Percent
+       \type real
+       \units percent
+       \default 0.008
+       \note Rate of drift loss as a percentage of circulating condenser water flow rate
+       \note Typical values are between 0.002 and 0.2% The default value is 0.008%
+  A7 , \field Blowdown Calculation Mode
+       \type choice
+       \key ConcentrationRatio
+       \key ScheduledRate
+  N29, \field Blowdown Concentration Ratio
+       \type real
+       \minimum 2.0
+       \default 3.0
+       \note Characterizes the rate of blowdown in the cooling tower.
+       \note Blowdown is water intentionally drained from the tower in order to offset the build up
+       \note of solids in the water that would otherwise occur because of evaporation.
+       \note Ratio of solids in the blowdown water to solids in the make up water.
+       \note Typical values for tower operation are 3 to 5. The default value is 3.
+  A8 , \field Blowdown Makeup Water Usage Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Makeup water usage due to blowdown results from occasionally draining some amount
+       \note of water in the tower basin to purge scale or other contaminants to reduce their
+       \note concentration in order to maintain an acceptable level of water quality.
+       \note Schedule values should reflect water usage in m3/s.
+  A9 , \field Supply Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  A10 , \field Outdoor Air Inlet Node Name
+       \type node
+       \note Enter the name of an outdoor air node
+  N30, \field Number of Cells
+       \type integer
+       \minimum 1
+       \default 1
+  A11, \field Cell Control
+       \type choice
+       \key MinimalCell
+       \key MaximalCell
+       \default MinimalCell
+  N31, \field Cell Minimum  Water Flow Rate Fraction
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.33
+       \note The allowable minimal fraction of the nominal flow rate per cell
+  N32, \field Cell Maximum Water Flow Rate Fraction
+       \type real
+       \minimum 1
+       \default 2.5
+       \note The allowable maximal fraction of the nominal flow rate per cell
+  N33, \field Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+  A12; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+CoolingTower:VariableSpeed:Merkel,
+       \min-fields 24
+       \memo This tower model is based on Merkel's theory, which is also the basis
+       \memo for the tower model in ASHRAE's HVAC1 Toolkit. The open wet cooling tower
+       \memo is modeled as a counter flow heat exchanger with a variable-speed fan drawing air
+       \memo through the tower (induced-draft configuration).
+       \memo For a multi-cell tower, the capacity and air/water flow rate inputs are for the entire tower.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference CoolingTowers
+       \reference CoolingTowersWithUA
+       \note Tower Name
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validCondenserEquipmentTypes
+       \reference validCondenserEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Water Inlet Node Name
+       \required-field
+       \type node
+       \note Name of tower water inlet node
+  A3 , \field Water Outlet Node Name
+       \required-field
+       \type node
+       \note Name of tower water outlet node
+  A4 , \field Performance Input Method
+       \type choice
+       \key UFactorTimesAreaAndDesignWaterFlowRate
+       \key NominalCapacity
+       \default NominalCapacity
+       \note User can define tower thermal performance by specifying the tower UA,
+       \note the Design Air Flow Rate and the Design Water Flow Rate,
+       \note or by specifying the tower nominal capacity
+  N1,  \field Heat Rejection Capacity and Nominal Capacity Sizing Ratio
+       \type real
+       \default 1.25
+  N2,  \field Nominal Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \note Nominal tower capacity with entering water at 35C (95F), leaving water at
+       \note 29.44C (85F), entering air at 25.56C (78F) wet-bulb temperature and 35C (95F)
+       \note dry-bulb temperature, with the tower fan operating at Design Air Flow Rate (full speed). Design water
+       \note flow rate is as set in Design Water Flow Rate per Unit of Nominal Capacity. Nominal tower capacity
+       \note times the Heat Rejection Capacity and Nominal Capacity Sizing Ratio (e.g. 1.25)
+       \note gives the actual tower heat rejection at these operating conditions.
+  N3,  \field Free Convection Nominal Capacity
+       \note required field when performance method is NominalCapacity
+       \type real
+       \units W
+       \minimum 0.0
+       \autocalculatable
+       \note Tower capacity in free convection regime with entering water at 35C (95F),
+       \note leaving water at 29.44C (85F), entering air at 25.56C (78F) wet-bulb temperature
+       \note and 35C (95F) dry-bulb temperature. Design water flow rate is as set
+       \note  in Design Water Flow Rate per Unit of Nominal Capacity. Tower
+       \note free convection capacity times the Heat Rejection Capacity and Nominal Capacity Sizing Ratio
+       \note (e.g. 1.25)  gives the actual tower heat rejection at these operating conditions
+  N4,  \field Free Convection Nominal Capacity Sizing Factor
+       \type real
+       \default 0.1
+       \minimum> 0.0
+       \maximum< 1.0
+       \note This field is only used if the previous field is set to autocalculate
+  N5 , \field Design Water Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \ip-units gal/min
+  N6 , \field Design Water Flow Rate per Unit of Nominal Capacity
+       \note This field is only used if the previous is set to autocalculate and performance input method is NominalCapacity
+       \units m3/s-W
+       \ip-units (gal/min)/(Btu/h)
+       \default 5.382E-8
+       \type real
+  N7 , \field Design Air Flow Rate
+       \note This is the air flow rate at full fan speed
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autocalculatable
+  N8 , \field Design Air Flow Rate Per Unit of Nominal Capacity
+       \note This field is only used if the previous is set to autocalculate
+       \units m3/s-W
+       \default 2.76316E-5
+       \type real
+       \note When field is left blank the default scaling factor is adjusted for elevation to increase volume flow at altitude
+       \note When field has a value the scaling factor is used without adjusting for elevation
+  N9 , \field Minimum Air Flow Rate Ratio
+       \type real
+       \minimum 0.1
+       \maximum 0.5
+       \default 0.2
+       \note Enter the minimum air flow rate ratio. This is typically determined by the variable
+       \note speed drive that controls the fan motor speed. Valid entries are from 0.1 to 0.5.
+  N10, \field Design Fan Power
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autocalculatable
+       \ip-units W
+       \note This is the fan motor electric input power at high speed
+  N11, \field Design Fan Power Per Unit of Nominal Capacity
+       \note This field is only used if the previous is set to autocalculate
+       \note [W/W] Watts of fan power per Watt of tower nominal capacity
+       \units dimensionless
+       \default 0.0105
+       \type real
+  A5 , \field Fan Power Modifier Function of Air Flow Rate Ratio Curve Name
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note cubic curve = a + b*AFR + c*AFR**2 + d*AFR**3
+       \note quartic curve = a + b*AFR + c*AFR**2 + d*AFR**3 + e*AFR**4
+       \note x = AFR = Ratio of current operating air flow rate to Design Air Flow Rate
+  N12, \field Free Convection Regime Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \autocalculatable
+  N13, \field Free Convection Regime Air Flow Rate Sizing Factor
+       \type real
+       \default 0.1
+       \minimum> 0.0
+       \maximum< 1.0
+       \note This field is only used if the previous field is set to autocalculate.
+  N14, \field Design Air Flow Rate U-Factor Times Area Value
+       \note required field when performance method is UFactorTimesAreaAndDesignWaterFlowRate
+       \note when performance method is NominalCapacity the program will solve for this UA
+       \type real
+       \units W/K
+       \autosizable
+  N15, \field Free Convection Regime U-Factor Times Area Value
+       \note required field when performance input method is UFactorTimesAreaAndDesignWaterFlowRate
+       \type real
+       \units W/K
+       \minimum 0.0
+       \maximum 300000.0
+       \default 0.0
+       \autocalculatable
+       \note Leave field blank if performance input method is NominalCapacity
+  N16, \field Free Convection U-Factor Times Area Value Sizing Factor
+       \note required field when performance input method is UFactorTimesAreaAndDesignWaterFlowRate
+       \type real
+       \default 0.1
+       \minimum> 0.0
+       \maximum< 1.0
+       \note This field is only used if the previous field is set to autocalculate and
+       \note the performance input method is UFactorTimesAreaAndDesignWaterFlowRate
+  A6 , \field U-Factor Times Area Modifier Function of Air Flow Ratio Curve Name
+       \required-field
+       \note This curve describes how tower's design UA changes with variable air flow rate
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note cubic curve = a + b*AFR + c*AFR**2 + d*AFR**3
+       \note quartic curve = a + b*AFR + c*AFR**2 + d*AFR**3 + e*AFR**4
+       \note x = AFR = Ratio of current operating air flow rate to Design Air Flow Rate
+  A7 , \field U-Factor Times Area Modifier Function of Wetbulb Temperature Difference Curve Name
+       \required-field
+       \note curve describes how tower UA changes with outdoor air wet-bulb temperature difference from design wet-bulb
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note cubic curve = a + b*DeltaWB + c*DeltaWB**2 + d*DeltaWB**3
+       \note quartic curve = a + b*DeltaWB + c*DeltaWB**2 + d*DeltaWB**3 + e*DeltaWB**4
+       \note x = DeltaWB = (design wet-bulb temperature in C - current wet-bulb temperature in C)
+       \note where design wet-bulb temperature of entering air is 25.56C (78F)
+  A8 , \field U-Factor Times Area Modifier Function of Water Flow Ratio Curve Name
+       \required-field
+       \note curve describes how tower UA changes with the flow rate of condenser water through the tower
+       \type object-list
+       \object-list UnivariateFunctions
+       \note Any curve or table with one independent variable can be used
+       \note cubic curve = a + b*WFR + c*WFR**2 + d*WFR**3
+       \note quartic curve = a + b*WFR + c*WFR**2 + d*WFR**3 + e*WFR**4
+       \note x = WFR = Ratio of current operating water flow rate to Design Water Flow Rate
+  N17, \field Design Inlet Air Dry-Bulb Temperature
+       \type real
+       \units C
+       \default 35.0
+       \minimum 20.0
+       \note Enter the tower's design inlet air dry-bulb temperature
+  N18, \field Design Inlet Air Wet-Bulb Temperature
+       \type real
+       \units C
+       \default 25.6
+       \minimum 20.0
+       \note Enter the tower's design inlet air wet-bulb temperature
+  N19, \field Design Approach Temperature
+       \type real
+       \units deltaC
+       \autosizable
+       \default autosize
+       \minimum> 0
+       \note Enter the approach temperature corresponding to the design inlet air
+       \note wet-bulb temperature and design range temperature.
+       \note Design approach temp = outlet water temperature minus inlet air wet-bulb temperature
+       \note at design conditions. Autosized to 3.9 deltaC.
+  N20, \field Design Range Temperature
+       \type real
+       \units deltaC
+       \autosizable
+       \default autosize
+       \minimum> 0
+       \note Enter the range temperature corresponding to the design inlet air
+       \note wet-bulb temperature and design approach temperature.
+       \note Design range = inlet water temperature minus outlet water temperature
+       \note at design conditions. Autosized to 5.5 deltaC.
+  N21, \field Basin Heater Capacity
+       \type real
+       \units W/K
+       \minimum 0.0
+       \default 0.0
+       \note This heater maintains the basin water temperature at the basin heater setpoint
+       \note temperature when the outdoor air temperature falls below the setpoint temperature.
+       \note The basin heater only operates when water is not flowing through the tower.
+  N22, \field Basin Heater Setpoint Temperature
+       \type real
+       \units C
+       \minimum 2.0
+       \default 2.0
+       \note Enter the outdoor dry-bulb temperature when the basin heater turns on
+  A9 , \field Basin Heater Operating Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+       \note air dry-bulb temperature is below the basin heater setpoint temperature.
+       \note If a schedule name is not entered, the basin heater is allowed to operate
+       \note throughout the entire simulation.
+  A10, \field Evaporation Loss Mode
+       \type choice
+       \key LossFactor
+       \key SaturatedExit
+  N23, \field Evaporation Loss Factor
+       \type real
+       \units percent/K
+       \note Rate of water evaporated from the cooling tower and lost to the outdoor air [%/K]
+       \note Evaporation loss is calculated as percentage of the circulating condenser water rate
+       \note Value entered here is percent-per-degree K of temperature drop in the condenser water
+       \note Typical values are from 0.15 to 0.27 [%/K].
+       \default 0.2
+  N24, \field Drift Loss Percent
+       \type real
+       \units percent
+       \default 0.008
+       \note Rate of drift loss as a percentage of circulating condenser water flow rate
+       \note Typical values are between 0.002 and 0.2% The default value is 0.008%
+  A11 , \field Blowdown Calculation Mode
+       \type choice
+       \key ConcentrationRatio
+       \key ScheduledRate
+  N25, \field Blowdown Concentration Ratio
+       \type real
+       \minimum 2.0
+       \default 3.0
+       \note Characterizes the rate of blowdown in the cooling tower.
+       \note Blowdown is water intentionally drained from the tower in order to offset the build up
+       \note of solids in the water that would otherwise occur because of evaporation.
+       \note Ratio of solids in the blowdown water to solids in the make up water.
+       \note Typical values for tower operation are 3 to 5. The default value is 3.
+  A12, \field Blowdown Makeup Water Usage Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Makeup water usage due to blowdown results from occasionally draining some amount
+       \note of water in the tower basin to purge scale or other contaminants to reduce their
+       \note concentration in order to maintain an acceptable level of water quality.
+       \note Schedule values should reflect water usage in m3/s.
+  A13, \field Supply Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  A14, \field Outdoor Air Inlet Node Name
+       \type node
+       \note Enter the name of an outdoor air node
+  N26, \field Number of Cells
+       \type integer
+       \minimum 1
+       \default 1
+  A15, \field Cell Control
+       \type choice
+       \key MinimalCell
+       \key MaximalCell
+       \default MinimalCell
+  N27, \field Cell Minimum  Water Flow Rate Fraction
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.33
+       \note The allowable minimal fraction of the nominal flow rate per cell
+  N28, \field Cell Maximum Water Flow Rate Fraction
+       \type real
+       \minimum 1
+       \default 2.5
+       \note The allowable maximal fraction of the nominal flow rate per cell
+  N29, \field Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+  A16; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+CoolingTower:VariableSpeed,
+       \min-fields 15
+       \memo This open wet tower model is based on purely empirical algorithms derived from manufacturer's
+       \memo performance data or field measurements. The user can select from two existing
+       \memo algorithms (CoolTools or YorkCalc), or they can enter their own correlation for
+       \memo approach temperature by using a variable speed tower model coefficient object.
+       \memo For a multi-cell tower, the capacity and air/water flow rate inputs are for the entire tower.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference CoolingTowers
+       \note Tower Name
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validCondenserEquipmentTypes
+       \reference validCondenserEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Water Inlet Node Name
+       \required-field
+       \type node
+       \note Name of tower water inlet node
+  A3 , \field Water Outlet Node Name
+       \required-field
+       \type node
+       \note Name of tower water outlet node
+  A4 , \field Model Type
+       \type choice
+       \key CoolToolsCrossFlow
+       \key CoolToolsUserDefined
+       \key YorkCalc
+       \key YorkCalcUserDefined
+       \default YorkCalc
+       \note Determines the coefficients and form of the equation for calculating
+       \note approach temperature
+  A5 , \field Model Coefficient Name
+       \type object-list
+       \object-list VariableSpeedTowerCoefficient
+       \note Name of the tower model coefficient object.
+       \note Used only when tower Model Type is either CoolToolsUserDefined or YorkCalcUserDefined.
+  N1 , \field Design Inlet Air Wet-Bulb Temperature
+       \type real
+       \units C
+       \default 25.6
+       \minimum 20.0
+       \note Enter the tower's design inlet air wet-bulb temperature
+  N2 , \field Design Approach Temperature
+       \type real
+       \units deltaC
+       \default 3.9
+       \minimum> 0
+       \note Enter the approach temperature corresponding to the design inlet air
+       \note wet-bulb temperature and design range temperature.
+       \note Design approach temp = outlet water temperature minus inlet air wet-bulb temperature
+       \note at design conditions.
+  N3 , \field Design Range Temperature
+       \type real
+       \units deltaC
+       \default 5.6
+       \minimum> 0
+       \note Enter the range temperature corresponding to the design inlet air
+       \note wet-bulb temperature and design approach temperature.
+       \note Design range = inlet water temperature minus outlet water temperature
+       \note at design conditions.
+  N4 , \field Design Water Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \ip-units gal/min
+       \note Water flow rate through the tower at design conditions
+  N5 , \field Design Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Design (maximum) air flow rate through the tower
+  N6 , \field Design Fan Power
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \ip-units W
+       \note Enter the fan motor electric input power at design (max) air flow through the tower
+       \note Standard conversion for horsepower is 1 HP = 745.7 W
+  A6 , \field Fan Power Ratio Function of Air Flow Rate Ratio Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note FPR = a + b*AFR + c*AFR**2 + d*AFR**3
+       \note FPR = fraction of the design fan power
+       \note AFR = fraction of the design air flow rate
+       \note If left blank, then fan power is assumed to be proportional to
+       \note (air flow rate ratio)^3
+  N7 , \field Minimum Air Flow Rate Ratio
+       \type real
+       \minimum 0.2
+       \maximum 0.5
+       \default 0.2
+       \note Enter the minimum air flow rate ratio. This is typically determined by the variable
+       \note speed drive that controls the fan motor speed. Valid entries are from 0.2 to 0.5.
+  N8 , \field Fraction of Tower Capacity in Free Convection Regime
+       \type real
+       \minimum 0.0
+       \maximum 0.2
+       \default 0.125
+       \note Enter the fraction of tower capacity in the free convection regime. This is the
+       \note fraction of the tower capacity, at the current inlet air wet-bulb temperature,
+       \note that is available when the tower fan is off. Manufacturers typically estimate the
+       \note free convection capacity at approximately 10-15%. Values are entered as a fraction
+       \note and can range from 0 to 0.2.
+  N9 , \field Basin Heater Capacity
+       \type real
+       \units W/K
+       \minimum 0.0
+       \default 0.0
+       \note This heater maintains the basin water temperature at the basin heater setpoint
+       \note temperature when the outdoor air temperature falls below the setpoint temperature.
+       \note The basin heater only operates when water is not flowing through the tower.
+  N10, \field Basin Heater Setpoint Temperature
+       \type real
+       \units C
+       \minimum 2.0
+       \default 2.0
+       \note Enter the outdoor dry-bulb temperature when the basin heater turns on
+  A7 , \field Basin Heater Operating Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values greater than 0 allow the basin heater to operate whenever the outdoor
+       \note air dry-bulb temperature is below the basin heater setpoint temperature.
+       \note If a schedule name is not entered, the basin heater is allowed to operate
+       \note throughout the entire simulation.
+  A8 , \field Evaporation Loss Mode
+       \type choice
+       \key LossFactor
+       \key SaturatedExit
+  N11, \field Evaporation Loss Factor
+       \type real
+       \units percent/K
+       \note Rate of water evaporated from the cooling tower and lost to the outdoor air [%/K]
+       \note Evaporation loss is calculated as percentage of the circulating condenser water rate
+       \note Value entered here is percent-per-degree K of temperature drop in the condenser water
+       \note Typical values are from 0.15 to 0.27 [percent/K].
+       \default 0.2
+  N12, \field Drift Loss Percent
+       \type real
+       \units percent
+       \note Rate of drift loss as a percentage of circulating condenser water flow rate
+       \note Typical values are between 0.002 and 0.2% The default value is 0.008%
+  A9 , \field Blowdown Calculation Mode
+       \type choice
+       \key ConcentrationRatio
+       \key ScheduledRate
+  N13, \field Blowdown Concentration Ratio
+       \type real
+       \minimum 2.0
+       \default 3.0
+       \note Characterizes the rate of blowdown in the cooling tower.
+       \note Blowdown is water intentionally drained from the tower in order to offset the build up
+       \note of solids in the water that would otherwise occur because of evaporation.
+       \note Ratio of solids in the blowdown water to solids in the make up water.
+       \note Typical values for tower operation are 3 to 5. The default value is 3.
+  A10, \field Blowdown Makeup Water Usage Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Makeup water usage due to blowdown results from occasionally draining a small amount
+       \note of water in the tower basin to purge scale or other contaminants to reduce their
+       \note concentration in order to maintain an acceptable level of water quality.
+       \note Schedule values should reflect water usage in m3/s.
+  A11, \field Supply Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  A12, \field Outdoor Air Inlet Node Name
+       \type node
+       \note Enter the name of an outdoor air node
+  N14, \field Number of Cells
+       \type integer
+       \minimum 1
+       \default 1
+  A13, \field Cell Control
+       \type choice
+       \key MinimalCell
+       \key MaximalCell
+       \default MinimalCell
+  N15, \field Cell Minimum  Water Flow Rate Fraction
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 0.33
+       \note The allowable minimal fraction of the nominal flow rate per cell
+  N16, \field Cell Maximum Water Flow Rate Fraction
+       \type real
+       \minimum 1
+       \default 2.5
+       \note The allowable maximal fraction of the nominal flow rate per cell
+  N17, \field Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+  A14; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+CoolingTowerPerformance:CoolTools,
+       \min-fields 44
+       \memo This object is used to define coefficients for the approach temperature
+       \memo correlation for a variable speed cooling tower when tower Model Type is
+       \memo specified as CoolToolsUserDefined in the object CoolingTower:VariableSpeed.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference VariableSpeedTowerCoefficient
+  N1 , \field Minimum Inlet Air Wet-Bulb Temperature
+       \required-field
+       \type real
+       \units C
+       \note Minimum valid inlet air wet-bulb temperature for this approach
+       \note temperature correlation.
+  N2 , \field Maximum Inlet Air Wet-Bulb Temperature
+       \required-field
+       \type real
+       \units C
+       \note Maximum valid inlet air wet-bulb temperature for this approach
+       \note temperature correlation.
+  N3 , \field Minimum Range Temperature
+       \required-field
+       \type real
+       \units deltaC
+       \note Minimum valid range temperature for this approach temperature
+       \note correlation.
+  N4 , \field Maximum Range Temperature
+       \required-field
+       \type real
+       \units deltaC
+       \note Maximum valid range temperature for this approach temperature
+       \note correlation.
+  N5 , \field Minimum Approach Temperature
+       \required-field
+       \type real
+       \units deltaC
+       \note Minimum valid approach temperature for this correlation.
+  N6 , \field Maximum Approach Temperature
+       \required-field
+       \type real
+       \units deltaC
+       \note Maximum valid approach temperature for this correlation.
+  N7 , \field Minimum Water Flow Rate Ratio
+       \required-field
+       \type real
+       \note Minimum valid water flow rate ratio for this approach
+       \note temperature correlation.
+  N8 , \field Maximum Water Flow Rate Ratio
+       \required-field
+       \type real
+       \note Maximum valid water flow rate ratio for this approach
+       \note temperature correlation.
+  N9 , \field Coefficient 1
+       \required-field
+       \type real
+  N10, \field Coefficient 2
+       \required-field
+       \type real
+  N11, \field Coefficient 3
+       \required-field
+       \type real
+  N12, \field Coefficient 4
+       \required-field
+       \type real
+  N13, \field Coefficient 5
+       \required-field
+       \type real
+  N14, \field Coefficient 6
+       \required-field
+       \type real
+  N15, \field Coefficient 7
+       \required-field
+       \type real
+  N16, \field Coefficient 8
+       \required-field
+       \type real
+  N17, \field Coefficient 9
+       \required-field
+       \type real
+  N18, \field Coefficient 10
+       \required-field
+       \type real
+  N19, \field Coefficient 11
+       \required-field
+       \type real
+  N20, \field Coefficient 12
+       \required-field
+       \type real
+  N21, \field Coefficient 13
+       \required-field
+       \type real
+  N22, \field Coefficient 14
+       \required-field
+       \type real
+  N23, \field Coefficient 15
+       \required-field
+       \type real
+  N24, \field Coefficient 16
+       \required-field
+       \type real
+  N25, \field Coefficient 17
+       \required-field
+       \type real
+  N26, \field Coefficient 18
+       \required-field
+       \type real
+  N27, \field Coefficient 19
+       \required-field
+       \type real
+  N28, \field Coefficient 20
+       \required-field
+       \type real
+  N29, \field Coefficient 21
+       \required-field
+       \type real
+  N30, \field Coefficient 22
+       \required-field
+       \type real
+  N31, \field Coefficient 23
+       \required-field
+       \type real
+  N32, \field Coefficient 24
+       \required-field
+       \type real
+  N33, \field Coefficient 25
+       \required-field
+       \type real
+  N34, \field Coefficient 26
+       \required-field
+       \type real
+  N35, \field Coefficient 27
+       \required-field
+       \type real
+  N36, \field Coefficient 28
+       \required-field
+       \type real
+  N37, \field Coefficient 29
+       \required-field
+       \type real
+  N38, \field Coefficient 30
+       \required-field
+       \type real
+  N39, \field Coefficient 31
+       \required-field
+       \type real
+  N40, \field Coefficient 32
+       \required-field
+       \type real
+  N41, \field Coefficient 33
+       \required-field
+       \type real
+  N42, \field Coefficient 34
+       \required-field
+       \type real
+  N43; \field Coefficient 35
+       \required-field
+       \type real
+
+CoolingTowerPerformance:YorkCalc,
+       \min-fields 37
+       \memo This object is used to define coefficients for the approach temperature
+       \memo correlation for a variable speed cooling tower when tower Model Type is
+       \memo specified as YorkCalcUserDefined in the object CoolingTower:VariableSpeed.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference VariableSpeedTowerCoefficient
+  N1 , \field Minimum Inlet Air Wet-Bulb Temperature
+       \required-field
+       \type real
+       \units C
+       \note Minimum valid inlet air wet-bulb temperature for this approach
+       \note temperature correlation.
+  N2 , \field Maximum Inlet Air Wet-Bulb Temperature
+       \required-field
+       \type real
+       \units C
+       \note Maximum valid inlet air wet-bulb temperature for this approach
+       \note temperature correlation.
+  N3 , \field Minimum Range Temperature
+       \required-field
+       \type real
+       \units deltaC
+       \note Minimum valid range temperature for this approach temperature
+       \note correlation.
+  N4 , \field Maximum Range Temperature
+       \required-field
+       \type real
+       \units deltaC
+       \note Maximum valid range temperature for this approach temperature
+       \note correlation.
+  N5 , \field Minimum Approach Temperature
+       \required-field
+       \type real
+       \units deltaC
+       \note Minimum valid approach temperature for this correlation.
+  N6 , \field Maximum Approach Temperature
+       \required-field
+       \type real
+       \units deltaC
+       \note Maximum valid approach temperature for this correlation.
+  N7 , \field Minimum Water Flow Rate Ratio
+       \required-field
+       \type real
+       \note Minimum valid water flow rate ratio for this approach
+       \note temperature correlation.
+  N8 , \field Maximum Water Flow Rate Ratio
+       \required-field
+       \type real
+       \note Maximum valid water flow rate ratio for this approach
+       \note temperature correlation.
+  N9 , \field Maximum Liquid to Gas Ratio
+       \required-field
+       \type real
+       \note Maximum liquid (water) to gas (air) ratio for this approach
+       \note temperature correlation.
+  N10, \field Coefficient 1
+       \required-field
+       \type real
+  N11, \field Coefficient 2
+       \required-field
+       \type real
+  N12, \field Coefficient 3
+       \required-field
+       \type real
+  N13, \field Coefficient 4
+       \required-field
+       \type real
+  N14, \field Coefficient 5
+       \required-field
+       \type real
+  N15, \field Coefficient 6
+       \required-field
+       \type real
+  N16, \field Coefficient 7
+       \required-field
+       \type real
+  N17, \field Coefficient 8
+       \required-field
+       \type real
+  N18, \field Coefficient 9
+       \required-field
+       \type real
+  N19, \field Coefficient 10
+       \required-field
+       \type real
+  N20, \field Coefficient 11
+       \required-field
+       \type real
+  N21, \field Coefficient 12
+       \required-field
+       \type real
+  N22, \field Coefficient 13
+       \required-field
+       \type real
+  N23, \field Coefficient 14
+       \required-field
+       \type real
+  N24, \field Coefficient 15
+       \required-field
+       \type real
+  N25, \field Coefficient 16
+       \required-field
+       \type real
+  N26, \field Coefficient 17
+       \required-field
+       \type real
+  N27, \field Coefficient 18
+       \required-field
+       \type real
+  N28, \field Coefficient 19
+       \required-field
+       \type real
+  N29, \field Coefficient 20
+       \required-field
+       \type real
+  N30, \field Coefficient 21
+       \required-field
+       \type real
+  N31, \field Coefficient 22
+       \required-field
+       \type real
+  N32, \field Coefficient 23
+       \required-field
+       \type real
+  N33, \field Coefficient 24
+       \required-field
+       \type real
+  N34, \field Coefficient 25
+       \required-field
+       \type real
+  N35, \field Coefficient 26
+       \required-field
+       \type real
+  N36; \field Coefficient 27
+       \required-field
+       \type real
+
+EvaporativeFluidCooler:SingleSpeed,
+       \min-fields 10
+       \memo This model is based on Merkel's theory, which is also the basis
+       \memo for the cooling tower model in EnergyPlus. The Evaporative fluid cooler
+       \memo is modeled as a counter flow heat exchanger.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note Fluid Cooler Name
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validCondenserEquipmentTypes
+       \reference validCondenserEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Water Inlet Node Name
+       \required-field
+       \type node
+       \note Name of Fluid Cooler water inlet node
+  A3 , \field Water Outlet Node Name
+       \required-field
+       \type node
+       \note Name of Fluid Cooler water outlet node
+  N1 , \field Design Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+  N2 , \field Design Air Flow Rate Fan Power
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \ip-units W
+       \note This is the fan motor electric input power
+  N3 , \field Design Spray Water Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \ip-units gal/min
+  A4 , \field Performance Input Method
+       \type choice
+       \key UFactorTimesAreaAndDesignWaterFlowRate
+       \key StandardDesignCapacity
+       \key UserSpecifiedDesignCapacity
+       \note User can define fluid cooler thermal performance by specifying the fluid cooler UA
+       \note and the Design Water Flow Rate, or by specifying the fluid cooler Standard Design
+       \note Capacity or by specifying Design Capacity for Non standard conditions.
+  A5 , \field Outdoor Air Inlet Node Name
+       \type node
+       \note Enter the name of an outdoor air node
+  N4 , \field Heat Rejection Capacity and Nominal Capacity Sizing Ratio
+       \type real
+       \default 1.25
+  N5 , \field Standard Design Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \note Standard design capacity with entering water at 35C (95F), leaving water at
+       \note 29.44C (85F), entering air at 25.56C (78F) wet-bulb temperature and 35C (95F)
+       \note dry-bulb temperature. Design water flow rate assumed to be 5.382E-8 m3/s per watt
+       \note (3 gpm/ton). Standard design capacity times the Heat Rejection Capacity and
+       \note Nominal Capacity Sizing Ratio (e.g. 1.25) gives the actual fluid cooler
+       \note heat rejection at these operating conditions.
+       \note Only used for Performance Input Method = StandardDesignCapacity;
+       \note for other input methods, this field is ignored.
+       \note The standard conditions mentioned above for Standard design capacity are already
+       \note specified in the EnergyPlus. So the input fields such as design entering water
+       \note temp., design entering air wet-bulb and dry-bulb temp. and design water flow rate, if
+       \note provided in the input, will be ignored for the StandardDesignCapacity performance input
+       \note method. Also, the standard conditions are for water as a fluid type so this performance input
+       \note method can only be used with water as a fluid type (as specified in CondenserLoop object).
+  N6 , \field Design Air Flow Rate U-factor Times Area Value
+       \type real
+       \units W/K
+       \minimum> 0.0
+       \maximum 2100000.0
+       \autosizable
+       \note Only used for Performance Input Method = UFactorTimesAreaAndDesignWaterFlowRate;
+       \note for other Performance Input Methods, this field is ignored.
+  N7 , \field Design Water Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \ip-units gal/min
+       \note Input value is ignored if fluid cooler Performance Input Method= StandardDesignCapacity.
+  N8 , \field User Specified Design Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \note Only used for Performance Input Method = UserSpecifiedDesignCapacity;
+       \note for other Performance Input Methods, this field is ignored.
+  N9 , \field Design Entering Water Temperature
+       \type real
+       \units C
+       \minimum> 0.0
+       \ip-units F
+       \note Only used for Performance Input Method = UserSpecifiedDesignCapacity;
+       \note for other Performance Input Methods, this field is ignored.
+       \note Design Entering Water Temperature must be greater than Design Entering Air Temperature.
+  N10, \field Design Entering Air Temperature
+       \type real
+       \units C
+       \minimum> 0.0
+       \ip-units F
+       \note Only used for Performance Input Method = UserSpecifiedDesignCapacity;
+       \note for other Performance Input Methods, this field is ignored.
+       \note Design Entering Air Temperature must be greater than Design Entering Air Wet-bulb
+       \note Temperature.
+  N11, \field Design Entering Air Wet-bulb Temperature
+       \type real
+       \units C
+       \minimum> 0.0
+       \ip-units F
+       \note Only used for Performance Input Method = UserSpecifiedDesignCapacity;
+       \note for other Performance Input Methods, this field is ignored.
+       \note Design Entering Air Wet-bulb Temperature must be less than Design Entering Air
+       \note Temperature.
+  A6 , \field Capacity Control
+       \type choice
+       \key FanCycling
+       \key FluidBypass
+       \default FanCycling
+  N12, \field Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+  A7 , \field Evaporation Loss Mode
+       \type choice
+       \key LossFactor
+       \key SaturatedExit
+       \default SaturatedExit
+  N13, \field Evaporation Loss Factor
+       \type real
+       \units percent/K
+       \note Rate of water evaporation from the Fluid Cooler and lost to the outdoor air [%/K]
+       \note Empirical correlation is used to calculate default loss factor if it not explicitly provided.
+  N14, \field Drift Loss Percent
+       \type real
+       \default 0.008
+       \units percent
+       \note Rate of drift loss as a percentage of circulating spray water flow rate
+       \note Default value for this field is under investigation. For now Cooling tower's drift loss
+       \note percent default value is taken here.
+  A8 , \field Blowdown Calculation Mode
+       \type choice
+       \key ConcentrationRatio
+       \key ScheduledRate
+       \default ConcentrationRatio
+  N15, \field Blowdown Concentration Ratio
+       \type real
+       \minimum 2.0
+       \default 3.0
+       \note Characterizes the rate of blowdown in the Evaporative Fluid Cooler.
+       \note Blowdown is water intentionally drained from the basin in order to offset the build
+       \note up of solids in the water that would otherwise occur because of evaporation.
+       \note Ratio of solids in the blowdown water to solids in the make up water.
+       \note Default value for this field is under investigation. For now Cooling tower's
+       \note Blowdown Concentration Ratio percent default value is taken here.
+  A9 , \field Blowdown Makeup Water Usage Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Makeup water usage due to blowdown results from occasionally draining a small
+       \note amount of water in the Fluid Cooler basin to purge scale or other contaminants to
+       \note reduce their concentration in order to maintain an acceptable level of water quality.
+       \note Schedule values should reflect water usage in m3/s.
+  A10; \field Supply Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+
+EvaporativeFluidCooler:TwoSpeed,
+       \min-fields 23
+       \memo This model is based on Merkel's theory, which is also the basis
+       \memo for the cooling tower model in EnergyPlus. The Evaporative fluid cooler
+       \memo is modeled as a counter flow heat exchanger.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note fluid cooler name
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validCondenserEquipmentTypes
+       \reference validCondenserEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Water Inlet Node Name
+       \required-field
+       \type node
+       \note Name of fluid cooler water inlet node
+  A3 , \field Water Outlet Node Name
+       \required-field
+       \type node
+       \note Name of fluid cooler water outlet node
+  N1 , \field High Fan Speed Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+  N2 , \field High Fan Speed Fan Power
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \ip-units W
+       \note This is the fan motor electric input power at high speed
+  N3 , \field Low Fan Speed Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autocalculatable
+       \note Low speed air flow rate must be less than high speed air flow rate
+  N4 , \field Low Fan Speed Air Flow Rate Sizing Factor
+       \type real
+       \default 0.5
+       \note This field is only used if the previous field is set to autocalculate
+  N5 , \field Low Fan Speed Fan Power
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autocalculatable
+       \ip-units W
+       \note This is the fan motor electric input power at low speed
+  N6 , \field Low Fan Speed Fan Power Sizing Factor
+       \type real
+       \default 0.16
+       \note This field is only used if the previous field is set to autocalculate.
+  N7 , \field Design Spray Water Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \ip-units gal/min
+  A4 , \field Performance Input Method
+       \required-field
+       \type choice
+       \key UFactorTimesAreaAndDesignWaterFlowRate
+       \key StandardDesignCapacity
+       \key UserSpecifiedDesignCapacity
+       \note User can define fluid cooler thermal performance by specifying the fluid cooler UA
+       \note and the Design Water Flow Rate, or by specifying the fluid cooler Standard Design
+       \note Capacity or by specifying Design Capacity for Non standard conditions.
+  A5 , \field Outdoor Air Inlet Node Name
+       \type node
+       \note Enter the name of an outdoor air node
+  N8 , \field Heat Rejection Capacity and Nominal Capacity Sizing Ratio
+       \type real
+       \default 1.25
+  N9 , \field High Speed Standard Design Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \note Standard design capacity with entering water at 35C (95F), leaving water at
+       \note 29.44C (85F), entering air at 25.56C (78F) wet-bulb temperature and 35C (95F)
+       \note dry-bulb temperature. Design water flow rate assumed to be 5.382E-8 m3/s per watt
+       \note (3 gpm/ton). Standard design capacity times the Heat Rejection Capacity and
+       \note Nominal Capacity Sizing Ratio (e.g. 1.25) gives the actual fluid cooler
+       \note heat rejection at these operating conditions.
+       \note Only used for Performance Input Method = StandardDesignCapacity;
+       \note for other input methods, this field is ignored.
+       \note The standard conditions mentioned above for Standard design capacity are already
+       \note specified in the EnergyPlus. So the input fields such as design entering water
+       \note temp., design entering air wet-bulb and dry-bulb temp. and design water flow rate, if
+       \note provided in the input, will be ignored for the StandardDesignCapacity performance input
+       \note method. Also, the standard conditions are for water as a fluid type so this performance input
+       \note method can only be used with water as a fluid type (as specified in CondenserLoop object).
+  N10 , \field Low Speed Standard Design Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \autocalculatable
+       \note Standard design capacity with entering water at 35C (95F), leaving water at
+       \note 29.44C (85F), entering air at 25.56C (78F) wet-bulb temperature and 35C (95F)
+       \note dry-bulb temperature. Design water flow rate assumed to be 5.382E-8 m3/s per watt
+       \note (3 gpm/ton). Standard design capacity times the Heat Rejection Capacity and
+       \note Nominal Capacity Sizing Ratio (e.g. 1.25) gives the actual fluid cooler
+       \note heat rejection at these operating conditions.
+       \note Only used for Performance Input Method = StandardDesignCapacity;
+       \note for other input methods, this field is ignored.
+       \note The standard conditions mentioned above for Standard design capacity are already
+       \note specified in the EnergyPlus. So the input fields such as design entering water
+       \note temp., design entering air wet-bulb and dry-bulb temp. and design water flow rate, if
+       \note provided in the input, will be ignored for the StandardDesignCapacity performance input
+       \note method. Also, the standard conditions are for water as a fluid type so this performance input
+       \note method can only be used with water as a fluid type (as specified in CondenserLoop object).
+  N11, \field Low Speed Standard Capacity Sizing Factor
+       \type real
+       \default 0.5
+       \note This field is only used if the previous field is set to autocalculate
+  N12, \field High Fan Speed U-factor Times Area Value
+       \type real
+       \units W/K
+       \minimum> 0.0
+       \maximum 2100000.0
+       \autosizable
+       \note Only used for Performance Input Method = UFactorTimesAreaAndDesignWaterFlowRate;
+       \note for other Performance Input Methods, this field is ignored.
+  N13, \field Low Fan Speed U-factor Times Area Value
+       \type real
+       \units W/K
+       \minimum> 0.0
+       \maximum 300000.0
+       \autocalculatable
+       \note Only used for Performance Input Method = UFactorTimesAreaAndDesignWaterFlowRate;
+       \note for other input methods, this field is ignored.
+       \note Low speed fluid cooler UA must be less than high speed fluid cooler UA
+  N14, \field Low Fan Speed U-Factor Times Area Sizing Factor
+       \type real
+       \default 0.6
+       \note This field is only used if the previous field is set to autocalculate and
+       \note the Performance Input Method is UFactorTimesAreaAndDesignWaterFlowRate
+  N15, \field Design Water Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \ip-units gal/min
+       \note Input value is ignored if fluid cooler Performance Input Method= StandardDesignCapacity
+  N16, \field High Speed User Specified Design Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \note Only used for Performance Input Method = UserSpecifiedDesignCapacity;
+       \note for other Performance Input Methods, this field is ignored.
+  N17, \field Low Speed User Specified Design Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \autocalculatable
+       \note Only used for Performance Input Method = UserSpecifiedDesignCapacity;
+       \note for other Performance Input Methods, this field is ignored.
+  N18, \field Low Speed User Specified Design Capacity Sizing Factor
+       \type real
+       \default 0.5
+       \note This field is only used if the previous field is set to autocalculate
+  N19, \field Design Entering Water Temperature
+       \type real
+       \units C
+       \minimum> 0.0
+       \ip-units F
+       \note Only used for Performance Input Method = UserSpecifiedDesignCapacity;
+       \note for other Performance Input Methods, this field is ignored.
+       \note Design Entering Water Temperature must be greater than Design Entering Air Temperature.
+  N20, \field Design Entering Air Temperature
+       \type real
+       \units C
+       \minimum> 0.0
+       \ip-units F
+       \note Only used for Performance Input Method = UserSpecifiedDesignCapacity;
+       \note for other Performance Input Methods, this field is ignored.
+       \note Design Entering Air Temperature must be greater than Design Entering Air Wet-bulb
+       \note Temperature.
+  N21, \field Design Entering Air Wet-bulb Temperature
+       \type real
+       \units C
+       \minimum> 0.0
+       \ip-units F
+       \note Only used for Performance Input Method = UserSpecifiedDesignCapacity;
+       \note for other Performance Input Methods, this field is ignored.
+       \note Design Entering Air Wet-bulb Temperature must be less than Design Entering Air
+       \note Temperature.
+  N22, \field High Speed Sizing Factor
+       \note Multiplies the autosized capacity and flow rates
+       \type real
+       \minimum> 0.0
+       \default 1.0
+  A6 , \field Evaporation Loss Mode
+       \type choice
+       \key LossFactor
+       \key SaturatedExit
+       \default SaturatedExit
+  N23, \field Evaporation Loss Factor
+       \type real
+       \units percent/K
+       \note Rate of water evaporation from the Fluid Cooler and lost to the outdoor air [%/K]
+       \note Empirical correlation is used to calculate default loss factor if it not explicitly provided.
+  N24, \field Drift Loss Percent
+       \type real
+       \units percent
+       \default 0.008
+       \note Default value is under investigation. For now cooling tower's default value is taken.
+  A7 , \field Blowdown Calculation Mode
+       \type choice
+       \key ConcentrationRatio
+       \key ScheduledRate
+       \default ConcentrationRatio
+  N25, \field Blowdown Concentration Ratio
+       \type real
+       \minimum 2.0
+       \default 3.0
+       \note Characterizes the rate of blowdown in the Evaporative Fluid Cooler.
+       \note Blowdown is water intentionally drained from the Evaporative Fluid Cooler in order to offset the
+       \note build up of solids in the water that would otherwise occur because of evaporation.
+       \note Ratio of solids in the blowdown water to solids in the make up water.
+       \note Default value is under investigation. For now cooling tower's default value is taken.
+  A8 , \field Blowdown Makeup Water Usage Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Makeup water usage due to blowdown results from occasionally draining some amount
+       \note of water in the Evaporative Fluid Cooler basin to purge scale or other contaminants to reduce
+       \note their concentration in order to maintain an acceptable level of water quality.
+       \note Schedule values should reflect water usage in m3/s.
+  A9 ; \field Supply Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+
+FluidCooler:SingleSpeed,
+       \min-fields 12
+       \memo The fluid cooler is modeled as a cross flow heat exchanger (both streams unmixed) with
+       \memo single-speed fans (induced draft configuration).
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note fluid cooler name
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validCondenserEquipmentTypes
+       \reference validCondenserEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Water Inlet Node Name
+       \required-field
+       \type node
+       \note Name of fluid cooler water inlet node
+  A3 , \field Water Outlet Node Name
+       \required-field
+       \type node
+       \note Name of fluid cooler water outlet node
+  A4 , \field Performance Input Method
+       \type choice
+       \key UFactorTimesAreaAndDesignWaterFlowRate
+       \key NominalCapacity
+       \default NominalCapacity
+       \note User can define fluid cooler thermal performance by specifying the fluid cooler UA
+       \note and the Design Water Flow Rate, or by specifying the fluid cooler nominal capacity
+  N1 , \field Design Air Flow Rate U-factor Times Area Value
+       \type real
+       \units W/K
+       \minimum> 0.0
+       \maximum 2100000.0
+       \autosizable
+       \note Leave field blank if fluid cooler Performance Input Method is NominalCapacity
+  N2 , \field Nominal Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \note Nominal fluid cooler capacity
+  N3 , \field Design Entering Water Temperature
+       \required-field
+       \type real
+       \units C
+       \minimum> 0.0
+       \ip-units F
+       \note Design Entering Water Temperature must be specified for both the performance input methods and
+       \note its value must be greater than Design Entering Air Temperature.
+  N4 , \field Design Entering Air Temperature
+       \required-field
+       \type real
+       \units C
+       \minimum> 0.0
+       \ip-units F
+       \note Design Entering Air Temperature must be specified for both the performance input methods and
+       \note its value must be greater than Design Entering Air Wet-bulb Temperature.
+  N5 , \field Design Entering Air Wetbulb Temperature
+       \required-field
+       \type real
+       \units C
+       \minimum> 0.0
+       \ip-units F
+       \note Design Entering Air Wet-bulb Temperature must be specified for both the performance input methods and
+       \note its value must be less than Design Entering Air Temperature.
+  N6 , \field Design Water Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \ip-units gal/min
+  N7 , \field Design Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+  N8 , \field Design Air Flow Rate Fan Power
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \ip-units W
+       \note This is the fan motor electric input power
+  A5 ; \field Outdoor Air Inlet Node Name
+       \type node
+       \note Enter the name of an outdoor air node
+
+FluidCooler:TwoSpeed,
+       \min-fields 20
+       \memo The fluid cooler is modeled as a cross flow heat exchanger (both streams unmixed) with
+       \memo two-speed fans (induced draft configuration).
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note fluid cooler name
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validCondenserEquipmentTypes
+       \reference validCondenserEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Water Inlet Node Name
+       \required-field
+       \type node
+       \note Name of fluid cooler water inlet node
+  A3 , \field Water Outlet Node Name
+       \required-field
+       \type node
+       \note Name of fluid cooler water outlet node
+  A4 , \field Performance Input Method
+       \type choice
+       \key UFactorTimesAreaAndDesignWaterFlowRate
+       \key NominalCapacity
+       \default NominalCapacity
+       \note User can define fluid cooler thermal performance by specifying the fluid cooler UA
+       \note and the Design Water Flow Rate, or by specifying the fluid cooler nominal capacity
+  N1 , \field High Fan Speed U-factor Times Area Value
+       \type real
+       \units W/K
+       \minimum> 0.0
+       \maximum 2100000.0
+       \autosizable
+       \note Leave field blank if fluid cooler Performance Input Method is NominalCapacity
+  N2 , \field Low Fan Speed U-factor Times Area Value
+       \type real
+       \units W/K
+       \minimum> 0.0
+       \maximum 300000.0
+       \autocalculatable
+       \note Leave field blank if fluid cooler Performance Input Method is NominalCapacity
+       \note Low speed fluid cooler UA must be less than high speed fluid cooler UA
+       \note Low speed fluid cooler UA must be greater than free convection fluid cooler UA
+  N3,  \field Low Fan Speed U-Factor Times Area Sizing Factor
+       \type real
+       \default 0.6
+       \note This field is only used if the previous field is set to autocalculate and
+       \note the Performance Input Method is UFactorTimesAreaAndDesignWaterFlowRate
+  N4, \field High Speed Nominal Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \note Nominal fluid cooler capacity at high fan speed
+  N5, \field Low Speed Nominal Capacity
+       \type real
+       \units W
+       \minimum> 0.0
+       \autocalculatable
+       \note Nominal fluid cooler capacity at low fan speed
+  N6,  \field Low Speed Nominal Capacity Sizing Factor
+       \type real
+       \default 0.5
+       \note This field is only used if the previous field is set to autocalculate and
+       \note the Performance Input Method is NominalCapacity
+  N7 , \field Design Entering Water Temperature
+       \required-field
+       \type real
+       \units C
+       \minimum> 0.0
+       \ip-units F
+       \note Design Entering Water Temperature must be specified for both the performance input methods and
+       \note its value must be greater than Design Entering Air Temperature.
+  N8 , \field Design Entering Air Temperature
+       \required-field
+       \type real
+       \units C
+       \minimum> 0.0
+       \ip-units F
+       \note Design Entering Air Temperature must be specified for both the performance input methods and
+       \note its value must be greater than Design Entering Air Wet-bulb Temperature.
+  N9 , \field Design Entering Air Wet-bulb Temperature
+       \required-field
+       \type real
+       \units C
+       \minimum> 0.0
+       \ip-units F
+       \note Design Entering Air Wet-bulb Temperature must be specified for both the performance input methods and
+       \note its value must be less than Design Entering Air Temperature.
+  N10, \field Design Water Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \ip-units gal/min
+  N11, \field High Fan Speed Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autosizable
+       \note Air Flow Rate at High Fan Speed must be greater than Air Flow Rate at Low Fan Speed
+  N12, \field High Fan Speed Fan Power
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autosizable
+       \ip-units W
+       \note This is the fan motor electric input power at high speed
+  N13, \field Low Fan Speed Air Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \minimum> 0.0
+       \autocalculatable
+       \note Air Flow Rate at Low Fan Speed must be less than Air Flow Rate at High Fan Speed
+  N14, \field Low Fan Speed Air Flow Rate Sizing Factor
+       \type real
+       \default 0.5
+       \note This field is only used if the previous field is set to autocalculate.
+  N15, \field Low Fan Speed Fan Power
+       \required-field
+       \type real
+       \units W
+       \minimum> 0.0
+       \autocalculatable
+       \ip-units W
+       \note This is the fan motor electric input power at low speed
+  N16, \field Low Fan Speed Fan Power Sizing Factor
+       \type real
+       \default 0.16
+       \note This field is only used if the previous field is set to autocalculate.
+  A5 ; \field Outdoor Air Inlet Node Name
+       \type node
+
+GroundHeatExchanger:System,
+        \memo Models vertical ground heat exchangers systems using the response factor approach
+        \memo developed by Eskilson. Response factors are calculated using a finite line source
+        \memo model assuming uniform heat flux at the borehole wall.
+        \extensible:1
+        \min-fields 9
+  A1,   \field Name
+        \required-field
+        \type alpha
+        \reference-class-name validPlantEquipmentTypes
+        \reference validPlantEquipmentNames
+        \reference-class-name validCondenserEquipmentTypes
+        \reference validCondenserEquipmentNames
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+  A2,   \field Inlet Node Name
+        \required-field
+        \type node
+  A3,   \field Outlet Node Name
+        \required-field
+        \type node
+  N1,   \field Design Flow Rate
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m3/s
+        \ip-units gal/min
+  A4,  \field Undisturbed Ground Temperature Model Type
+        \required-field
+        \type choice
+        \key Site:GroundTemperature:Undisturbed:FiniteDifference
+        \key Site:GroundTemperature:Undisturbed:KusudaAchenbach
+        \key Site:GroundTemperature:Undisturbed:Xing
+  A5,  \field Undisturbed Ground Temperature Model Name
+        \required-field
+        \type object-list
+        \object-list UndisturbedGroundTempModels
+  N2,   \field Ground Thermal Conductivity
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units W/m-K
+  N3,   \field Ground Thermal Heat Capacity
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units J/m3-K
+  A6,   \field GHE:Vertical:ResponseFactors Object Name
+        \type object-list
+        \object-list GroundHeatExchangerVerticalResponseFactorNames
+  A7,   \field GHE:Vertical:Array Object Name
+        \type object-list
+        \object-list GroundHeatExchangerVerticalArrayNames
+  A8,   \field GHE:Vertical:Single Object Name 1
+        \begin-extensible
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A9,   \field GHE:Vertical:Single Object Name 2
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A10,  \field GHE:Vertical:Single Object Name 3
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A11,  \field GHE:Vertical:Single Object Name 4
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A12,  \field GHE:Vertical:Single Object Name 5
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A13,  \field GHE:Vertical:Single Object Name 6
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A14,  \field GHE:Vertical:Single Object Name 7
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A15,  \field GHE:Vertical:Single Object Name 8
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A16,  \field GHE:Vertical:Single Object Name 9
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A17,  \field GHE:Vertical:Single Object Name 10
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A18,  \field GHE:Vertical:Single Object Name 11
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A19,  \field GHE:Vertical:Single Object Name 12
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A20,  \field GHE:Vertical:Single Object Name 13
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A21,  \field GHE:Vertical:Single Object Name 14
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A22,  \field GHE:Vertical:Single Object Name 15
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A23,  \field GHE:Vertical:Single Object Name 16
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A24,  \field GHE:Vertical:Single Object Name 17
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A25,  \field GHE:Vertical:Single Object Name 18
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A26,  \field GHE:Vertical:Single Object Name 19
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A27,  \field GHE:Vertical:Single Object Name 20
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A28,  \field GHE:Vertical:Single Object Name 21
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A29,  \field GHE:Vertical:Single Object Name 22
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A30,  \field GHE:Vertical:Single Object Name 23
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A31,  \field GHE:Vertical:Single Object Name 24
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A32,  \field GHE:Vertical:Single Object Name 25
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A33,  \field GHE:Vertical:Single Object Name 26
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A34,  \field GHE:Vertical:Single Object Name 27
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A35,  \field GHE:Vertical:Single Object Name 28
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A36,  \field GHE:Vertical:Single Object Name 29
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A37,  \field GHE:Vertical:Single Object Name 30
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A38,  \field GHE:Vertical:Single Object Name 31
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A39,  \field GHE:Vertical:Single Object Name 32
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A40,  \field GHE:Vertical:Single Object Name 33
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A41,  \field GHE:Vertical:Single Object Name 34
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A42,  \field GHE:Vertical:Single Object Name 35
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A43,  \field GHE:Vertical:Single Object Name 36
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A44,  \field GHE:Vertical:Single Object Name 37
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A45,  \field GHE:Vertical:Single Object Name 38
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A46,  \field GHE:Vertical:Single Object Name 39
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A47,  \field GHE:Vertical:Single Object Name 40
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A48,  \field GHE:Vertical:Single Object Name 41
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A49,  \field GHE:Vertical:Single Object Name 42
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A50,  \field GHE:Vertical:Single Object Name 43
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A51,  \field GHE:Vertical:Single Object Name 44
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A52,  \field GHE:Vertical:Single Object Name 45
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A53,  \field GHE:Vertical:Single Object Name 46
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A54,  \field GHE:Vertical:Single Object Name 47
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A55,  \field GHE:Vertical:Single Object Name 48
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A56,  \field GHE:Vertical:Single Object Name 49
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A57,  \field GHE:Vertical:Single Object Name 50
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A58,  \field GHE:Vertical:Single Object Name 51
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A59,  \field GHE:Vertical:Single Object Name 52
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A60,  \field GHE:Vertical:Single Object Name 53
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A61,  \field GHE:Vertical:Single Object Name 54
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A62,  \field GHE:Vertical:Single Object Name 55
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A63,  \field GHE:Vertical:Single Object Name 56
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A64,  \field GHE:Vertical:Single Object Name 57
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A65,  \field GHE:Vertical:Single Object Name 58
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A66,  \field GHE:Vertical:Single Object Name 59
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A67,  \field GHE:Vertical:Single Object Name 60
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A68,  \field GHE:Vertical:Single Object Name 61
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A69,  \field GHE:Vertical:Single Object Name 62
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A70,  \field GHE:Vertical:Single Object Name 63
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A71,  \field GHE:Vertical:Single Object Name 64
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A72,  \field GHE:Vertical:Single Object Name 65
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A73,  \field GHE:Vertical:Single Object Name 66
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A74,  \field GHE:Vertical:Single Object Name 67
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A75,  \field GHE:Vertical:Single Object Name 68
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A76,  \field GHE:Vertical:Single Object Name 69
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A77,  \field GHE:Vertical:Single Object Name 70
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A78,  \field GHE:Vertical:Single Object Name 71
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A79,  \field GHE:Vertical:Single Object Name 72
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A80,  \field GHE:Vertical:Single Object Name 73
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A81,  \field GHE:Vertical:Single Object Name 74
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A82,  \field GHE:Vertical:Single Object Name 75
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A83,  \field GHE:Vertical:Single Object Name 76
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A84,  \field GHE:Vertical:Single Object Name 77
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A85,  \field GHE:Vertical:Single Object Name 78
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A86,  \field GHE:Vertical:Single Object Name 79
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A87,  \field GHE:Vertical:Single Object Name 80
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A88,  \field GHE:Vertical:Single Object Name 81
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A89,  \field GHE:Vertical:Single Object Name 82
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A90,  \field GHE:Vertical:Single Object Name 83
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A91,  \field GHE:Vertical:Single Object Name 84
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A92,  \field GHE:Vertical:Single Object Name 85
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A93,  \field GHE:Vertical:Single Object Name 86
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A94,  \field GHE:Vertical:Single Object Name 87
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A95,  \field GHE:Vertical:Single Object Name 88
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A96,  \field GHE:Vertical:Single Object Name 89
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A97,  \field GHE:Vertical:Single Object Name 90
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A98,  \field GHE:Vertical:Single Object Name 91
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A99,  \field GHE:Vertical:Single Object Name 92
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A100, \field GHE:Vertical:Single Object Name 93
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A101, \field GHE:Vertical:Single Object Name 94
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A102, \field GHE:Vertical:Single Object Name 95
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A103, \field GHE:Vertical:Single Object Name 96
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A104, \field GHE:Vertical:Single Object Name 97
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A105, \field GHE:Vertical:Single Object Name 98
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A106, \field GHE:Vertical:Single Object Name 99
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+  A107; \field GHE:Vertical:Single Object Name 100
+        \type object-list
+        \object-list GroundHeatExchangerVerticalSingleNames
+
+GroundHeatExchanger:Vertical:Properties,
+        \memo Properties for vertical ground heat exchanger systems
+        \min-fields 11
+  A1,   \field Name
+        \required-field
+        \type alpha
+        \reference GroundHeatExchangerVerticalPropertiesNames
+  N1,   \field Depth of Top of Borehole
+        \required-field
+        \type real
+        \units m
+        \minimum 0.0
+  N2,   \field Borehole Length
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m
+  N3,   \field Borehole Diameter
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m
+        \ip-units in
+  N4,   \field Grout Thermal Conductivity
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units W/m-K
+  N5,   \field Grout Thermal Heat Capacity
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units J/m3-K
+  N6,   \field Pipe Thermal Conductivity
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units W/m-K
+  N7,   \field Pipe Thermal Heat Capacity
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units J/m3-K
+  N8,   \field Pipe Outer Diameter
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m
+        \ip-units in
+  N9,   \field Pipe Thickness
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m
+        \ip-units in
+  N10;  \field U-Tube Distance
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m
+
+GroundHeatExchanger:Vertical:Array,
+  A1,   \field Name
+        \required-field
+        \type alpha
+        \reference GroundHeatExchangerVerticalArrayNames
+  A2,   \field GHE:Vertical:Properties Object Name
+        \required-field
+        \type object-list
+        \object-list GroundHeatExchangerVerticalPropertiesNames
+  N1,   \field Number of Boreholes in X-Direction
+        \required-field
+        \type integer
+        \minimum 1
+  N2,   \field Number of Boreholes in Y-Direction
+        \required-field
+        \type integer
+        \minimum 1
+  N3;   \field Borehole Spacing
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units m
+
+GroundHeatExchanger:Vertical:Single,
+  A1,   \field Name
+        \required-field
+        \type alpha
+        \reference GroundHeatExchangerVerticalSingleNames
+  A2,   \field GHE:Vertical:Properties Object Name
+        \required-field
+        \type object-list
+        \object-list GroundHeatExchangerVerticalPropertiesNames
+  N1,   \field X-Location
+        \required-field
+        \type real
+        \units m
+  N2;   \field Y-Location
+        \required-field
+        \type real
+        \units m
+
+GroundHeatExchanger:ResponseFactors,
+        \memo Response factor definitions from third-party tool, commonly referred to a "g-functions"
+        \extensible:2
+        \min-fields 5
+  A1,   \field Name
+        \required-field
+        \type alpha
+        \reference GroundHeatExchangerVerticalResponseFactorNames
+  A2,   \field GHE:Vertical:Properties Object Name
+        \required-field
+        \type object-list
+        \object-list GroundHeatExchangerVerticalPropertiesNames
+  N1,   \field Number of Boreholes
+        \type integer
+        \required-field
+  N2,   \field G-Function Reference Ratio
+        \type real
+        \minimum> 0.0
+        \units dimensionless
+        \default 0.0005
+  N3,   \field g-Function Ln(T/Ts) Value 1
+        \begin-extensible
+        \required-field
+        \type real
+  N4,   \field g-Function g Value 1
+        \required-field
+        \type real
+  N5,   \field g-Function Ln(T/Ts) Value 2
+        \type real
+  N6,   \field g-Function g Value 2
+        \type real
+  N7,   \field g-Function Ln(T/Ts) Value 3
+        \type real
+  N8,   \field g-Function g Value 3
+        \type real
+  N9,   \field g-Function Ln(T/Ts) Value 4
+        \type real
+  N10,   \field g-Function g Value 4
+        \type real
+  N11,  \field g-Function Ln(T/Ts) Value 5
+        \type real
+  N12,  \field g-Function g Value 5
+        \type real
+  N13,  \field g-Function Ln(T/Ts) Value 6
+        \type real
+  N14,  \field g-Function g Value 6
+        \type real
+  N15,  \field g-Function Ln(T/Ts) Value 7
+        \type real
+  N16,  \field g-Function g Value 7
+        \type real
+  N17,  \field g-Function Ln(T/Ts) Value 8
+        \type real
+  N18,  \field g-Function g Value 8
+        \type real
+  N19,  \field g-Function Ln(T/Ts) Value 9
+        \type real
+  N20,  \field g-Function g Value 9
+        \type real
+  N21,  \field g-Function Ln(T/Ts) Value 10
+        \type real
+  N22,  \field g-Function g Value 10
+        \type real
+  N23,  \field g-Function Ln(T/Ts) Value 11
+        \type real
+  N24,  \field g-Function g Value 11
+        \type real
+  N25,  \field g-Function Ln(T/Ts) Value 12
+        \type real
+  N26,  \field g-Function g Value 12
+        \type real
+  N27,  \field g-Function Ln(T/Ts) Value 13
+        \type real
+  N28,  \field g-Function g Value 13
+        \type real
+  N29,  \field g-Function Ln(T/Ts) Value 14
+        \type real
+  N30,  \field g-Function g Value 14
+        \type real
+  N31,  \field g-Function Ln(T/Ts) Value 15
+        \type real
+  N32,  \field g-Function g Value 15
+        \type real
+  N33,  \field g-Function Ln(T/Ts) Value 16
+        \type real
+  N34,  \field g-Function g Value 16
+        \type real
+  N35,  \field g-Function Ln(T/Ts) Value 17
+        \type real
+  N36,  \field g-Function g Value 17
+        \type real
+  N37,  \field g-Function Ln(T/Ts) Value 18
+        \type real
+  N38,  \field g-Function g Value 18
+        \type real
+  N39,  \field g-Function Ln(T/Ts) Value 19
+        \type real
+  N40,  \field g-Function g Value 19
+        \type real
+  N41,  \field g-Function Ln(T/Ts) Value 20
+        \type real
+  N42,  \field g-Function g Value 20
+        \type real
+  N43,  \field g-Function Ln(T/Ts) Value 21
+        \type real
+  N44,  \field g-Function g Value 21
+        \type real
+  N45,  \field g-Function Ln(T/Ts) Value 22
+        \type real
+  N46,  \field g-Function g Value 22
+        \type real
+  N47,  \field g-Function Ln(T/Ts) Value 23
+        \type real
+  N48,  \field g-Function g Value 23
+        \type real
+  N49,  \field g-Function Ln(T/Ts) Value 24
+        \type real
+  N50,  \field g-Function g Value 24
+        \type real
+  N51,  \field g-Function Ln(T/Ts) Value 25
+        \type real
+  N52,  \field g-Function g Value 25
+        \type real
+  N53,  \field g-Function Ln(T/Ts) Value 26
+        \type real
+  N54,  \field g-Function g Value 26
+        \type real
+  N55,  \field g-Function Ln(T/Ts) Value 27
+        \type real
+  N56,  \field g-Function g Value 27
+        \type real
+  N57,  \field g-Function Ln(T/Ts) Value 28
+        \type real
+  N58,  \field g-Function g Value 28
+        \type real
+  N59,  \field g-Function Ln(T/Ts) Value 29
+        \type real
+  N60,  \field g-Function g Value 29
+        \type real
+  N61,  \field g-Function Ln(T/Ts) Value 30
+        \type real
+  N62,  \field g-Function g Value 30
+        \type real
+  N63,  \field g-Function Ln(T/Ts) Value 31
+        \type real
+  N64,  \field g-Function g Value 31
+        \type real
+  N65,  \field g-Function Ln(T/Ts) Value 32
+        \type real
+  N66,  \field g-Function g Value 32
+        \type real
+  N67,  \field g-Function Ln(T/Ts) Value 33
+        \type real
+  N68,  \field g-Function g Value 33
+        \type real
+  N69,  \field g-Function Ln(T/Ts) Value 34
+        \type real
+  N70,  \field g-Function g Value 34
+        \type real
+  N71,  \field g-Function Ln(T/Ts) Value 35
+        \type real
+  N72,  \field g-Function g Value 35
+        \type real
+  N73,  \field g-Function Ln(T/Ts) Value 36
+        \type real
+  N74,  \field g-Function g Value 36
+        \type real
+  N75,  \field g-Function Ln(T/Ts) Value 37
+        \type real
+  N76,  \field g-Function g Value 37
+        \type real
+  N77,  \field g-Function Ln(T/Ts) Value 38
+        \type real
+  N78,  \field g-Function g Value 38
+        \type real
+  N79,  \field g-Function Ln(T/Ts) Value 39
+        \type real
+  N80,  \field g-Function g Value 39
+        \type real
+  N81,  \field g-Function Ln(T/Ts) Value 40
+        \type real
+  N82,  \field g-Function g Value 40
+        \type real
+  N83,  \field g-Function Ln(T/Ts) Value 41
+        \type real
+  N84,  \field g-Function g Value 41
+        \type real
+  N85,  \field g-Function Ln(T/Ts) Value 42
+        \type real
+  N86,  \field g-Function g Value 42
+        \type real
+  N87,  \field g-Function Ln(T/Ts) Value 43
+        \type real
+  N88,  \field g-Function g Value 43
+        \type real
+  N89,  \field g-Function Ln(T/Ts) Value 44
+        \type real
+  N90,  \field g-Function g Value 44
+        \type real
+  N91,  \field g-Function Ln(T/Ts) Value 45
+        \type real
+  N92,  \field g-Function g Value 45
+        \type real
+  N93,  \field g-Function Ln(T/Ts) Value 46
+        \type real
+  N94,  \field g-Function g Value 46
+        \type real
+  N95,  \field g-Function Ln(T/Ts) Value 47
+        \type real
+  N96,  \field g-Function g Value 47
+        \type real
+  N97,  \field g-Function Ln(T/Ts) Value 48
+        \type real
+  N98,  \field g-Function g Value 48
+        \type real
+  N99,  \field g-Function Ln(T/Ts) Value 49
+        \type real
+  N100, \field g-Function g Value 49
+        \type real
+  N101, \field g-Function Ln(T/Ts) Value 50
+        \type real
+  N102, \field g-Function g Value 50
+        \type real
+  N103, \field g-Function Ln(T/Ts) Value 51
+        \type real
+  N104, \field g-Function g Value 51
+        \type real
+  N105, \field g-Function Ln(T/Ts) Value 52
+        \type real
+  N106, \field g-Function g Value 52
+        \type real
+  N107, \field g-Function Ln(T/Ts) Value 53
+        \type real
+  N108, \field g-Function g Value 53
+        \type real
+  N109, \field g-Function Ln(T/Ts) Value 54
+        \type real
+  N110, \field g-Function g Value 54
+        \type real
+  N111, \field g-Function Ln(T/Ts) Value 55
+        \type real
+  N112, \field g-Function g Value 55
+        \type real
+  N113, \field g-Function Ln(T/Ts) Value 56
+        \type real
+  N114, \field g-Function g Value 56
+        \type real
+  N115, \field g-Function Ln(T/Ts) Value 57
+        \type real
+  N116, \field g-Function g Value 57
+        \type real
+  N117, \field g-Function Ln(T/Ts) Value 58
+        \type real
+  N118, \field g-Function g Value 58
+        \type real
+  N119, \field g-Function Ln(T/Ts) Value 59
+        \type real
+  N120, \field g-Function g Value 59
+        \type real
+  N121, \field g-Function Ln(T/Ts) Value 60
+        \type real
+  N122, \field g-Function g Value 60
+        \type real
+  N123, \field g-Function Ln(T/Ts) Value 61
+        \type real
+  N124, \field g-Function g Value 61
+        \type real
+  N125, \field g-Function Ln(T/Ts) Value 62
+        \type real
+  N126, \field g-Function g Value 62
+        \type real
+  N127, \field g-Function Ln(T/Ts) Value 63
+        \type real
+  N128, \field g-Function g Value 63
+        \type real
+  N129, \field g-Function Ln(T/Ts) Value 64
+        \type real
+  N130, \field g-Function g Value 64
+        \type real
+  N131, \field g-Function Ln(T/Ts) Value 65
+        \type real
+  N132, \field g-Function g Value 65
+        \type real
+  N133, \field g-Function Ln(T/Ts) Value 66
+        \type real
+  N134, \field g-Function g Value 66
+        \type real
+  N135, \field g-Function Ln(T/Ts) Value 67
+        \type real
+  N136, \field g-Function g Value 67
+        \type real
+  N137, \field g-Function Ln(T/Ts) Value 68
+        \type real
+  N138, \field g-Function g Value 68
+        \type real
+  N139, \field g-Function Ln(T/Ts) Value 69
+        \type real
+  N140, \field g-Function g Value 69
+        \type real
+  N141, \field g-Function Ln(T/Ts) Value 70
+        \type real
+  N142, \field g-Function g Value 70
+        \type real
+  N143, \field g-Function Ln(T/Ts) Value 71
+        \type real
+  N144, \field g-Function g Value 71
+        \type real
+  N145, \field g-Function Ln(T/Ts) Value 72
+        \type real
+  N146, \field g-Function g Value 72
+        \type real
+  N147, \field g-Function Ln(T/Ts) Value 73
+        \type real
+  N148, \field g-Function g Value 73
+        \type real
+  N149, \field g-Function Ln(T/Ts) Value 74
+        \type real
+  N150, \field g-Function g Value 74
+        \type real
+  N151, \field g-Function Ln(T/Ts) Value 75
+        \type real
+  N152, \field g-Function g Value 75
+        \type real
+  N153, \field g-Function Ln(T/Ts) Value 76
+        \type real
+  N154, \field g-Function g Value 76
+        \type real
+  N155, \field g-Function Ln(T/Ts) Value 77
+        \type real
+  N156, \field g-Function g Value 77
+        \type real
+  N157, \field g-Function Ln(T/Ts) Value 78
+        \type real
+  N158, \field g-Function g Value 78
+        \type real
+  N159, \field g-Function Ln(T/Ts) Value 79
+        \type real
+  N160, \field g-Function g Value 79
+        \type real
+  N161, \field g-Function Ln(T/Ts) Value 80
+        \type real
+  N162, \field g-Function g Value 80
+        \type real
+  N163, \field g-Function Ln(T/Ts) Value 81
+        \type real
+  N164, \field g-Function g Value 81
+        \type real
+  N165, \field g-Function Ln(T/Ts) Value 82
+        \type real
+  N166, \field g-Function g Value 82
+        \type real
+  N167, \field g-Function Ln(T/Ts) Value 83
+        \type real
+  N168, \field g-Function g Value 83
+        \type real
+  N169, \field g-Function Ln(T/Ts) Value 84
+        \type real
+  N170, \field g-Function g Value 84
+        \type real
+  N171, \field g-Function Ln(T/Ts) Value 85
+        \type real
+  N172, \field g-Function g Value 85
+        \type real
+  N173, \field g-Function Ln(T/Ts) Value 86
+        \type real
+  N174, \field g-Function g Value 86
+        \type real
+  N175, \field g-Function Ln(T/Ts) Value 87
+        \type real
+  N176, \field g-Function g Value 87
+        \type real
+  N177, \field g-Function Ln(T/Ts) Value 88
+        \type real
+  N178, \field g-Function g Value 88
+        \type real
+  N179, \field g-Function Ln(T/Ts) Value 89
+        \type real
+  N180, \field g-Function g Value 89
+        \type real
+  N181, \field g-Function Ln(T/Ts) Value 90
+        \type real
+  N182, \field g-Function g Value 90
+        \type real
+  N183, \field g-Function Ln(T/Ts) Value 91
+        \type real
+  N184, \field g-Function g Value 91
+        \type real
+  N185, \field g-Function Ln(T/Ts) Value 92
+        \type real
+  N186, \field g-Function g Value 92
+        \type real
+  N187, \field g-Function Ln(T/Ts) Value 93
+        \type real
+  N188, \field g-Function g Value 93
+        \type real
+  N189, \field g-Function Ln(T/Ts) Value 94
+        \type real
+  N190, \field g-Function g Value 94
+        \type real
+  N191, \field g-Function Ln(T/Ts) Value 95
+        \type real
+  N192, \field g-Function g Value 95
+        \type real
+  N193, \field g-Function Ln(T/Ts) Value 96
+        \type real
+  N194, \field g-Function g Value 96
+        \type real
+  N195, \field g-Function Ln(T/Ts) Value 97
+        \type real
+  N196, \field g-Function g Value 97
+        \type real
+  N197, \field g-Function Ln(T/Ts) Value 98
+        \type real
+  N198, \field g-Function g Value 98
+        \type real
+  N199, \field g-Function Ln(T/Ts) Value 99
+        \type real
+  N200, \field g-Function g Value 99
+        \type real
+  N201, \field g-Function Ln(T/Ts) Value 100
+        \type real
+  N202; \field g-Function g Value 100
+        \type real
+
+GroundHeatExchanger:Pond,
+        \memo A model of a shallow pond with immersed pipe loops.
+        \memo Typically used in hybrid geothermal systems and included in the condenser loop.
+        \memo This component may also be used as a simple solar collector.
+   A1 , \field Name
+        \required-field
+        \reference-class-name validPlantEquipmentTypes
+        \reference validPlantEquipmentNames
+        \reference-class-name validCondenserEquipmentTypes
+        \reference validCondenserEquipmentNames
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2 , \field Fluid Inlet Node Name
+        \type node
+        \required-field
+   A3 , \field Fluid Outlet Node Name
+        \required-field
+        \type node
+   N1 , \field Pond Depth
+        \required-field
+        \type real
+        \units m
+        \minimum> 0
+   N2 , \field Pond Area
+        \required-field
+        \type real
+        \units m2
+        \minimum> 0
+   N3 , \field Hydronic Tubing Inside Diameter
+        \required-field
+        \type real
+        \units m
+        \minimum> 0
+        \ip-units in
+   N4 , \field Hydronic Tubing Outside Diameter
+        \required-field
+        \type real
+        \units m
+        \minimum> 0
+        \ip-units in
+   N5 , \field Hydronic Tubing Thermal Conductivity
+        \required-field
+        \type real
+        \units W/m-K
+        \minimum> 0
+   N6 , \field Ground Thermal Conductivity
+        \required-field
+        \type real
+        \units W/m2-K
+        \minimum> 0
+   N7 , \field Number of Tubing Circuits
+        \required-field
+        \type integer
+        \minimum 1
+   N8 ; \field Length of Each Tubing Circuit
+        \required-field
+        \type real
+        \units m
+        \minimum 0
+
+GroundHeatExchanger:Surface,
+        \memo A hydronic surface/panel consisting of a multi-layer construction with embedded rows of tubes.
+        \memo Typically used in hybrid geothermal systems and included in the condenser loop.
+        \memo This component may also be used as a simple solar collector.
+        \memo The bottom surface may be defined as ground-coupled or exposed to wind (eg. bridge deck).
+   A1 , \field Name
+        \required-field
+        \reference-class-name validPlantEquipmentTypes
+        \reference validPlantEquipmentNames
+        \reference-class-name validCondenserEquipmentTypes
+        \reference validCondenserEquipmentNames
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2 , \field Construction Name
+        \required-field
+        \type object-list
+        \object-list ConstructionNames
+   A3 , \field Fluid Inlet Node Name
+        \type node
+        \required-field
+   A4 , \field Fluid Outlet Node Name
+        \required-field
+        \type node
+   N1 , \field Hydronic Tubing Inside Diameter
+        \type real
+        \units m
+        \minimum> 0
+        \ip-units in
+   N2 , \field Number of Tubing Circuits
+        \type integer
+        \minimum 1
+   N3 , \field Hydronic Tube Spacing
+        \type real
+        \units m
+        \minimum> 0.0
+   N4 , \field Surface Length
+        \type real
+        \units m
+        \minimum> 0.0
+   N5 , \field Surface Width
+        \type real
+        \units m
+        \minimum> 0.0
+   A5 ; \field Lower Surface Environment
+        \type choice
+        \key Ground
+        \key Exposed
+        \default Ground
+
+GroundHeatExchanger:HorizontalTrench,
+        \memo This models a horizontal heat exchanger placed in a series of trenches
+        \memo The model uses the PipingSystem:Underground underlying algorithms,
+        \memo but provides a more usable input interface.
+        \min-fields 20
+   A1 , \field Name
+        \required-field
+        \reference-class-name validPlantEquipmentTypes
+        \reference validPlantEquipmentNames
+        \reference-class-name validCondenserEquipmentTypes
+        \reference validCondenserEquipmentNames
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2 , \field Inlet Node Name
+        \type node
+        \required-field
+   A3 , \field Outlet Node Name
+        \type node
+        \required-field
+   N1 , \field Design Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \ip-units gal/min
+        \minimum> 0
+   N2 , \field Trench Length in Pipe Axial Direction
+        \note This is the total pipe axial length of the heat exchanger
+        \note If all pipe trenches are parallel, this is the length of a
+        \note single trench. If a single, long run of pipe is used with one
+        \note trench, this is the full length of the pipe run.
+        \type real
+        \units m
+        \minimum> 0
+        \ip-units ft
+        \default 50
+   N3 , \field Number of Trenches
+        \note This is the number of horizontal legs that will be used
+        \note in the entire heat exchanger, one pipe per trench
+        \type integer
+        \minimum 1
+        \default 1
+   N4 , \field Horizontal Spacing Between Pipes
+        \note This represents the average horizontal spacing between any two
+        \note trenches for heat exchangers that have multiple trenches
+        \type real
+        \units m
+        \minimum> 0
+        \default 1.0
+   N5 , \field Pipe Inner Diameter
+        \type real
+        \units m
+        \minimum> 0
+        \ip-units in
+        \default 0.016
+   N6 , \field Pipe Outer Diameter
+        \type real
+        \units m
+        \minimum> 0
+        \ip-units in
+        \default 0.026
+   N7 , \field Burial Depth
+        \note This is the burial depth of the pipes, or the trenches
+        \note containing the pipes
+        \type real
+        \units m
+        \minimum> 0
+        \ip-units ft
+        \default 1.5
+   N8 , \field Soil Thermal Conductivity
+        \type real
+        \units W/m-K
+        \minimum> 0
+        \default 1.08
+   N9 , \field Soil Density
+        \type real
+        \units kg/m3
+        \minimum> 0
+        \default 962
+   N10, \field Soil Specific Heat
+        \type real
+        \units J/kg-K
+        \minimum> 0
+        \default 2576
+   N11, \field Pipe Thermal Conductivity
+        \type real
+        \units W/m-K
+        \minimum> 0
+        \default 0.3895
+   N12, \field Pipe Density
+        \type real
+        \units kg/m3
+        \minimum> 0
+        \default 641
+   N13, \field Pipe Specific Heat
+        \type real
+        \units J/kg-K
+        \minimum> 0
+        \default 2405
+   N14, \field Soil Moisture Content Percent
+        \type real
+        \units percent
+        \minimum 0
+        \maximum 100
+        \default 30
+   N15, \field Soil Moisture Content Percent at Saturation
+        \type real
+        \units percent
+        \minimum 0
+        \maximum 100
+        \default 50
+   A4,  \field Undisturbed Ground Temperature Model Type
+        \required-field
+        \type choice
+        \key Site:GroundTemperature:Undisturbed:FiniteDifference
+        \key Site:GroundTemperature:Undisturbed:KusudaAchenbach
+        \key Site:GroundTemperature:Undisturbed:Xing
+   A5,  \field Undisturbed Ground Temperature Model Name
+        \required-field
+        \type object-list
+        \object-list UndisturbedGroundTempModels
+   N16; \field Evapotranspiration Ground Cover Parameter
+        \type real
+        \minimum 0
+        \maximum 1.5
+        \default 0.4
+        \note This specifies the ground cover effects during evapotranspiration
+        \note  calculations. The value roughly represents the following cases:
+        \note  = 0   : concrete or other solid, non-permeable ground surface material
+        \note  = 0.5 : short grass, much like a manicured lawn
+        \note  = 1   : standard reference state (12 cm grass)
+        \note  = 1.5 : wild growth
+
+GroundHeatExchanger:Slinky,
+        \memo This models a slinky horizontal heat exchanger
+        \memo placed in a series of trenches
+        \memo The model uses the model developed by:
+        \memo Xiong, Z., D.E. Fisher, and J.D. Spitler. 2015.
+        \memo Development and Validation of a Slinky Ground Heat
+        \memo Exchanger Model. Applied Energy 141: 57-69.
+        \min-fields 21
+   A1 , \field Name
+        \required-field
+        \reference-class-name validPlantEquipmentTypes
+        \reference validPlantEquipmentNames
+        \reference-class-name validCondenserEquipmentTypes
+        \reference validCondenserEquipmentNames
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2 , \field Inlet Node Name
+        \type node
+        \required-field
+   A3 , \field Outlet Node Name
+        \type node
+        \required-field
+   N1 , \field Design Flow Rate
+        \type real
+        \units m3/s
+        \ip-units gal/min
+        \minimum> 0
+        \default 0.002
+   N2 , \field Soil Thermal Conductivity
+        \type real
+        \units W/m-K
+        \minimum> 0
+        \default 1.08
+   N3 , \field Soil Density
+        \type real
+        \units kg/m3
+        \minimum> 0
+        \default 962
+   N4,  \field Soil Specific Heat
+        \type real
+        \units J/kg-K
+        \minimum> 0
+        \default 2576
+   N5,  \field Pipe Thermal Conductivity
+        \type real
+        \units W/m-K
+        \minimum> 0
+        \default 0.4
+   N6,  \field Pipe Density
+        \type real
+        \units kg/m3
+        \minimum> 0
+        \default 641
+   N7,  \field Pipe Specific Heat
+        \type real
+        \units J/kg-K
+        \minimum> 0
+        \default 2405
+   N8 , \field Pipe Outer Diameter
+        \type real
+        \units m
+        \minimum> 0
+        \ip-units in
+        \default 0.02667
+   N9 , \field Pipe Thickness
+        \type real
+        \units m
+        \minimum> 0
+        \ip-units in
+        \default 0.002413
+   A4 , \field Heat Exchanger Configuration
+        \note This is the orientation of the heat exchanger
+        \type choice
+        \key Vertical
+        \key Horizontal
+   N10 ,\field Coil Diameter
+        \note This is the diameter of the heat exchanger coil
+        \type real
+        \units m
+        \minimum> 0
+        \ip-units ft
+        \default 1.0
+   N11, \field Coil Pitch
+        \note This is the center-to-center distance between coils
+        \type real
+        \units m
+        \minimum> 0
+        \ip-units ft
+        \default 0.20
+   N12, \field Trench Depth
+        \note This is the distance from the ground surface to the
+        \note trench bottom
+        \type real
+        \units m
+        \minimum> 0
+        \ip-units ft
+        \default 1.8
+   N13, \field Trench Length
+        \note This is the total length of a single trench
+        \note This assumes the heat exchanger runs the full length
+        \note of the trench
+        \type real
+        \units m
+        \minimum> 0
+        \ip-units ft
+        \default 10
+   N14, \field Number of Trenches
+        \note This is the number of parallel trenches that
+        \note has a heat exchanger, one per trench
+        \type integer
+        \minimum 1
+        \default 1
+   N15, \field Horizontal Spacing Between Pipes
+        \note This represents the average horizontal spacing
+        \note between any two
+        \note trenches for heat exchangers that have multiple trenches
+        \type real
+        \units m
+        \minimum> 0
+        \ip-units ft
+        \default 2.0
+   A5,  \field Undisturbed Ground Temperature Model Type
+        \required-field
+        \type choice
+        \key Site:GroundTemperature:Undisturbed:FiniteDifference
+        \key Site:GroundTemperature:Undisturbed:KusudaAchenbach
+        \key Site:GroundTemperature:Undisturbed:Xing
+   A6,  \field Undisturbed Ground Temperature Model Name
+        \required-field
+        \type object-list
+        \object-list UndisturbedGroundTempModels
+   N16; \field Maximum Length of Simulation
+        \type real
+        \units years
+
+HeatExchanger:FluidToFluid,
+        \memo A fluid/fluid heat exchanger designed to couple the supply side of one loop to the demand side of another loop
+        \memo Loops can be either plant or condenser loops but no air side connections are allowed
+        \min-fields 14
+   A1 , \field Name
+        \required-field
+        \reference-class-name validPlantEquipmentTypes
+        \reference validPlantEquipmentNames
+        \reference-class-name validCondenserEquipmentTypes
+        \reference validCondenserEquipmentNames
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2 , \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \note default is that heat exchanger is on
+        \type object-list
+        \object-list ScheduleNames
+   A3 , \field Loop Demand Side Inlet Node Name
+        \type node
+        \required-field
+        \note This connection is to the demand side of a loop and is the inlet to the heat exchanger
+   A4 , \field Loop Demand Side Outlet Node Name
+        \type node
+        \required-field
+        \note This connection is to the demand side of a loop
+   N1 , \field Loop Demand Side Design Flow Rate
+        \type real
+        \required-field
+        \minimum> 0.0
+        \units m3/s
+        \ip-units gal/min
+        \autosizable
+   A5 , \field Loop Supply Side Inlet Node Name
+        \type node
+        \required-field
+   A6 , \field Loop Supply Side Outlet Node Name
+        \type node
+        \required-field
+   N2 , \field Loop Supply Side Design Flow Rate
+        \type real
+        \required-field
+        \minimum> 0.0
+        \units m3/s
+        \ip-units gal/min
+        \autosizable
+   A7 , \field Heat Exchange Model Type
+        \type choice
+        \key CrossFlowBothUnMixed
+        \key CrossFlowBothMixed
+        \key CrossFlowSupplyMixedDemandUnMixed
+        \key CrossFlowSupplyUnMixedDemandMixed
+        \key ParallelFlow
+        \key CounterFlow
+        \key Ideal
+        \default Ideal
+   N3 , \field Heat Exchanger U-Factor Times Area Value
+        \type real
+        \units W/K
+        \minimum> 0.0
+        \autosizable
+        \required-field
+   A8 , \field Control Type
+        \type choice
+        \key UncontrolledOn
+        \key OperationSchemeModulated
+        \key OperationSchemeOnOff
+        \key HeatingSetpointModulated
+        \key HeatingSetpointOnOff
+        \key CoolingSetpointModulated
+        \key CoolingSetpointOnOff
+        \key DualDeadbandSetpointModulated
+        \key DualDeadbandSetpointOnOff
+        \key CoolingDifferentialOnOff
+        \key CoolingSetpointOnOffWithComponentOverride
+        \default UncontrolledOn
+   A9 , \field Heat Exchanger Setpoint Node Name
+        \note Setpoint node is needed with any Control Type that is "*Setpoint*"
+        \type node
+   N4 , \field Minimum Temperature Difference to Activate Heat Exchanger
+        \note Tolerance between control temperatures used to determine if heat exchanger should run.
+        \type real
+        \minimum 0.0
+        \maximum 50
+        \default 0.01
+        \units deltaC
+   A10, \field Heat Transfer Metering End Use Type
+        \note This field controls end use reporting for heat transfer meters
+        \type choice
+        \key FreeCooling
+        \key HeatRecovery
+        \key HeatRejection
+        \key HeatRecoveryForCooling
+        \key HeatRecoveryForHeating
+        \key LoopToLoop
+        \default LoopToLoop
+   A11, \field Component Override Loop Supply Side Inlet Node Name
+        \type node
+        \note This field is only used if Control Type is set to CoolingSetpointOnOffWithComponentOverride
+   A12, \field Component Override Loop Demand Side Inlet Node Name
+        \type node
+        \note This field is only used if Control Type is set to CoolingSetpointOnOffWithComponentOverride
+   A13, \field Component Override Cooling Control Temperature Mode
+        \type choice
+        \key WetBulbTemperature
+        \key DryBulbTemperature
+        \key Loop
+        \default Loop
+        \note This field is only used if Control Type is set to CoolingSetpointOnOffWithComponentOverride
+   N5 , \field Sizing Factor
+        \note Multiplies the autosized flow rates for this device
+        \type real
+        \minimum> 0.0
+        \default 1.0
+   N6 , \field Operation Minimum Temperature Limit
+        \note Lower limit on inlet temperatures, heat exchanger will not operate if either inlet is below this limit
+        \type real
+        \units C
+   N7 ; \field Operation Maximum Temperature Limit
+        \note Upper limit on inlet temperatures, heat exchanger will not operate if either inlet is above this limit
+        \type real
+        \units C
+
+\group Water Heaters and Thermal Storage
+
+WaterHeater:Mixed,
+       \memo Water heater with well-mixed, single-node water tank. May be used to model a tankless
+       \memo water heater (small tank volume), a hot water storage tank (zero heater capacity), or
+       \memo a heat pump water heater (see WaterHeater:HeatPump:PumpedCondenser.)
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference WaterHeaterNames
+       \reference WaterHeaterMixedNames
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validCondenserEquipmentTypes
+       \reference validCondenserEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  N1 , \field Tank Volume
+       \autosizable
+       \type real
+       \units m3
+       \minimum 0.0
+       \default 0.0
+       \ip-units gal
+  A2 , \field Setpoint Temperature Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  N2 , \field Deadband Temperature Difference
+       \type real
+       \units deltaC
+       \minimum 0.0
+       \default 0.0
+  N3 , \field Maximum Temperature Limit
+       \type real
+       \units C
+  A3 , \field Heater Control Type
+       \type choice
+       \key Cycle
+       \key Modulate
+       \default Cycle
+  N4 , \field Heater Maximum Capacity
+       \autosizable
+       \type real
+       \units W
+       \minimum 0.0
+  N5 , \field Heater Minimum Capacity
+       \note Only used when Heater Control Type is set to Modulate
+       \type real
+       \units W
+       \minimum 0.0
+  N6 , \field Heater Ignition Minimum Flow Rate
+       \note Not yet implemented
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \minimum 0.0
+       \default 0.0
+  N7 , \field Heater Ignition Delay
+       \note Not yet implemented
+       \type real
+       \units s
+       \minimum 0.0
+       \default 0.0
+  A4 , \field Heater Fuel Type
+       \required-field
+       \type choice
+       \key Electricity
+       \key NaturalGas
+       \key Propane
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key Coal
+       \key Diesel
+       \key Gasoline
+       \key OtherFuel1
+       \key OtherFuel2
+       \key Steam
+       \key DistrictHeating
+  N8 , \field Heater Thermal Efficiency
+       \required-field
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+  A5 , \field Part Load Factor Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+  N9 , \field Off Cycle Parasitic Fuel Consumption Rate
+       \type real
+       \units W
+       \minimum 0.0
+       \default 0.0
+  A6 , \field Off Cycle Parasitic Fuel Type
+       \type choice
+       \key Electricity
+       \key NaturalGas
+       \key Propane
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key Coal
+       \key Diesel
+       \key Gasoline
+       \key OtherFuel1
+       \key OtherFuel2
+       \key Steam
+       \key DistrictHeating
+  N10, \field Off Cycle Parasitic Heat Fraction to Tank
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N11, \field On Cycle Parasitic Fuel Consumption Rate
+       \type real
+       \units W
+       \minimum 0.0
+       \default 0.0
+  A7 , \field On Cycle Parasitic Fuel Type
+       \type choice
+       \key Electricity
+       \key NaturalGas
+       \key Propane
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key Coal
+       \key Diesel
+       \key Gasoline
+       \key OtherFuel1
+       \key OtherFuel2
+       \key Steam
+       \key DistrictHeating
+  N12, \field On Cycle Parasitic Heat Fraction to Tank
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  A8 , \field Ambient Temperature Indicator
+       \required-field
+       \type choice
+       \key Schedule
+       \key Zone
+       \key Outdoors
+  A9 , \field Ambient Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A10, \field Ambient Temperature Zone Name
+       \type object-list
+       \object-list ZoneNames
+  A11, \field Ambient Temperature Outdoor Air Node Name
+        \type node
+       \note required for Ambient Temperature Indicator=Outdoors
+  N13, \field Off Cycle Loss Coefficient to Ambient Temperature
+       \type real
+       \units W/K
+       \minimum 0.0
+  N14, \field Off Cycle Loss Fraction to Zone
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  N15, \field On Cycle Loss Coefficient to Ambient Temperature
+       \type real
+       \units W/K
+       \minimum 0.0
+  N16, \field On Cycle Loss Fraction to Zone
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  N17, \field Peak Use Flow Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \minimum 0.0
+       \note Only used if Use Side Node connections are blank
+  A12, \field Use Flow Rate Fraction Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Only used if Use Side Node connections are blank
+  A13, \field Cold Water Supply Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Only used if Use Side Node connections are blank
+       \note Defaults to water temperatures calculated by Site:WaterMainsTemperature object
+  A14, \field Use Side Inlet Node Name
+       \type node
+  A15, \field Use Side Outlet Node Name
+       \type node
+  N18, \field Use Side Effectiveness
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  A16, \field Source Side Inlet Node Name
+       \type node
+  A17, \field Source Side Outlet Node Name
+       \type node
+  N19, \field Source Side Effectiveness
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 1.0
+  N20, \field Use Side Design Flow Rate
+       \type real
+       \autosizable
+       \default autosize
+       \units m3/s
+       \ip-units gal/min
+       \minimum 0.0
+  N21, \field Source Side Design Flow Rate
+       \type real
+       \autosizable
+       \default autosize
+       \units m3/s
+       \ip-units gal/min
+       \minimum 0.0
+  N22, \field Indirect Water Heating Recovery Time
+       \type real
+       \default 1.5
+       \note Parameter for autosizing design flow rates for indirectly heated water tanks
+       \note Time required to raise temperature of entire tank from 14.4C to 57.2C
+       \units hr
+       \minimum> 0.0
+  A18, \field Source Side Flow Control Mode
+       \type choice
+       \key StorageTank
+       \key IndirectHeatPrimarySetpoint
+       \key IndirectHeatAlternateSetpoint
+       \default IndirectHeatPrimarySetpoint
+       \note StorageTank mode always requests flow unless tank is at its Maximum Temperature Limit
+       \note IndirectHeatPrimarySetpoint mode requests flow whenever primary setpoint calls for heat
+       \note IndirectHeatAlternateSetpoint mode requests flow whenever alternate indirect setpoint calls for heat
+  A19, \field Indirect Alternate Setpoint Temperature Schedule Name
+       \note This field is only used if the previous is set to IndirectHeatAlternateSetpoint
+       \type object-list
+       \object-list ScheduleNames
+  A20; \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+
+WaterHeater:Stratified,
+       \memo Water heater with stratified, multi-node water tank. May be used to model a tankless
+       \memo water heater (small tank volume), a hot water storage tank (zero heater capacity), or
+       \memo a heat pump water heater (see WaterHeater:HeatPump:*.)
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference WaterHeaterNames
+       \reference WaterHeaterStratifiedNames
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validCondenserEquipmentTypes
+       \reference validCondenserEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+  N1 , \field Tank Volume
+       \autosizable
+       \required-field
+       \type real
+       \units m3
+       \minimum> 0.0
+       \ip-units gal
+  N2 , \field Tank Height
+       \autosizable
+       \required-field
+       \type real
+       \units m
+       \minimum> 0.0
+       \note Height is measured in the axial direction for horizontal cylinders
+  A3 , \field Tank Shape
+       \type choice
+       \key VerticalCylinder
+       \key HorizontalCylinder
+       \key Other
+       \default VerticalCylinder
+  N3 , \field Tank Perimeter
+       \type real
+       \units m
+       \minimum 0.0
+       \note Only used if Tank Shape is Other
+  N4 , \field Maximum Temperature Limit
+       \type real
+       \units C
+  A4 , \field Heater Priority Control
+       \type choice
+       \key MasterSlave
+       \key Simultaneous
+       \default MasterSlave
+  A5 , \field Heater 1 Setpoint Temperature Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  N5 , \field Heater 1 Deadband Temperature Difference
+       \type real
+       \units deltaC
+       \minimum 0.0
+       \default 0.0
+  N6 , \field Heater 1 Capacity
+       \type real
+       \units W
+       \minimum 0.0
+       \autosizable
+  N7 , \field Heater 1 Height
+       \type real
+       \units m
+       \minimum 0.0
+  A6 , \field Heater 2 Setpoint Temperature Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  N8 , \field Heater 2 Deadband Temperature Difference
+       \type real
+       \units deltaC
+       \minimum 0.0
+       \default 0.0
+  N9 , \field Heater 2 Capacity
+       \type real
+       \units W
+       \minimum 0.0
+  N10, \field Heater 2 Height
+       \type real
+       \units m
+       \minimum 0.0
+  A7 , \field Heater Fuel Type
+       \required-field
+       \type choice
+       \key Electricity
+       \key NaturalGas
+       \key Propane
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key Coal
+       \key Diesel
+       \key Gasoline
+       \key OtherFuel1
+       \key OtherFuel2
+       \key Steam
+       \key DistrictHeating
+  N11, \field Heater Thermal Efficiency
+       \required-field
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+  N12, \field Off Cycle Parasitic Fuel Consumption Rate
+       \type real
+       \units W
+       \minimum 0.0
+       \default 0.0
+  A8 , \field Off Cycle Parasitic Fuel Type
+       \type choice
+       \key Electricity
+       \key NaturalGas
+       \key Propane
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key Coal
+       \key Diesel
+       \key Gasoline
+       \key OtherFuel1
+       \key OtherFuel2
+       \key Steam
+       \key DistrictHeating
+  N13, \field Off Cycle Parasitic Heat Fraction to Tank
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N14, \field Off Cycle Parasitic Height
+       \type real
+       \units m
+       \minimum 0.0
+       \default 0.0
+  N15, \field On Cycle Parasitic Fuel Consumption Rate
+       \type real
+       \units W
+       \minimum 0.0
+       \default 0.0
+  A9 , \field On Cycle Parasitic Fuel Type
+       \type choice
+       \key Electricity
+       \key NaturalGas
+       \key Propane
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key Coal
+       \key Diesel
+       \key Gasoline
+       \key OtherFuel1
+       \key OtherFuel2
+       \key Steam
+       \key DistrictHeating
+  N16, \field On Cycle Parasitic Heat Fraction to Tank
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 0.0
+  N17, \field On Cycle Parasitic Height
+       \type real
+       \units m
+       \minimum 0.0
+       \default 0.0
+  A10, \field Ambient Temperature Indicator
+       \required-field
+       \type choice
+       \key Schedule
+       \key Zone
+       \key Outdoors
+  A11, \field Ambient Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A12, \field Ambient Temperature Zone Name
+       \type object-list
+       \object-list ZoneNames
+  A13, \field Ambient Temperature Outdoor Air Node Name
+       \type node
+       \note required for Ambient Temperature Indicator=Outdoors
+  N18, \field Uniform Skin Loss Coefficient per Unit Area to Ambient Temperature
+       \type real
+       \units W/m2-K
+       \minimum 0.0
+  N19, \field Skin Loss Fraction to Zone
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  N20, \field Off Cycle Flue Loss Coefficient to Ambient Temperature
+       \type real
+       \units W/K
+       \minimum 0.0
+  N21, \field Off Cycle Flue Loss Fraction to Zone
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  N22, \field Peak Use Flow Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \minimum 0.0
+       \note Only used if Use Side Node connections are blank
+  A14, \field Use Flow Rate Fraction Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note If blank, defaults to 1.0 at all times
+       \note Only used if use side node connections are blank
+  A15, \field Cold Water Supply Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Only used if use side node connections are blank
+       \note Defaults to water temperatures calculated by Site:WaterMainsTemperature object
+  A16, \field Use Side Inlet Node Name
+       \type node
+  A17, \field Use Side Outlet Node Name
+       \type node
+  N23, \field Use Side Effectiveness
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+       \note The use side effectiveness in the stratified tank model is a simplified analogy of
+       \note a heat exchanger's effectiveness. This effectiveness is equal to the fraction of
+       \note use mass flow rate that directly mixes with the tank fluid. And one minus the
+       \note effectiveness is the fraction that bypasses the tank. The use side mass flow rate
+       \note that bypasses the tank is mixed with the fluid or water leaving the stratified tank.
+  N24, \field Use Side Inlet Height
+       \type real
+       \units m
+       \minimum 0.0
+       \default 0.0
+       \note Defaults to bottom of tank
+  N25, \field Use Side Outlet Height
+       \type real
+       \units m
+       \minimum 0.0
+       \autocalculatable
+       \default Autocalculate
+       \note Defaults to top of tank
+  A18, \field Source Side Inlet Node Name
+       \type node
+  A19, \field Source Side Outlet Node Name
+       \type node
+  N26, \field Source Side Effectiveness
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 1.0
+       \note The source side effectiveness in the stratified tank model is a simplified analogy of
+       \note a heat exchanger's effectiveness. This effectiveness is equal to the fraction of
+       \note source mass flow rate that directly mixes with the tank fluid. And one minus the
+       \note effectiveness is the fraction that bypasses the tank. The source side mass flow rate
+       \note that bypasses the tank is mixed with the fluid or water leaving the stratified tank.
+  N27, \field Source Side Inlet Height
+       \type real
+       \units m
+       \minimum 0.0
+       \autocalculatable
+       \default Autocalculate
+       \note Defaults to top of tank
+  N28, \field Source Side Outlet Height
+       \type real
+       \units m
+       \minimum 0.0
+       \default 0.0
+       \note Defaults to bottom of tank
+  A20, \field Inlet Mode
+       \type choice
+       \key Fixed
+       \key Seeking
+       \default Fixed
+  N29, \field Use Side Design Flow Rate
+       \type real
+       \autosizable
+       \default autosize
+       \units m3/s
+       \ip-units gal/min
+       \minimum 0.0
+  N30, \field Source Side Design Flow Rate
+       \type real
+       \autosizable
+       \default autosize
+       \units m3/s
+       \ip-units gal/min
+       \minimum 0.0
+  N31, \field Indirect Water Heating Recovery Time
+       \type real
+       \default 1.5
+       \note Parameter for autosizing design flow rates for indirectly heated water tanks
+       \note time required to raise temperature of entire tank from 14.4C to 57.2C
+       \units hr
+       \minimum> 0.0
+  N32, \field Number of Nodes
+       \type integer
+       \minimum 1
+       \maximum 12
+       \default 1
+  N33, \field Additional Destratification Conductivity
+       \type real
+       \units W/m-K
+       \minimum 0.0
+       \default 0.0
+  N34, \field Node 1 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N35, \field Node 2 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N36, \field Node 3 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N37, \field Node 4 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N38, \field Node 5 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N39, \field Node 6 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N40, \field Node 7 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N41, \field Node 8 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N42, \field Node 9 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N43, \field Node 10 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N44, \field Node 11 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N45, \field Node 12 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  A21, \field Source Side Flow Control Mode
+       \type choice
+       \key StorageTank
+       \key IndirectHeatPrimarySetpoint
+       \key IndirectHeatAlternateSetpoint
+       \default IndirectHeatPrimarySetpoint
+       \note StorageTank mode always requests flow unless tank is at its Maximum Temperature Limit
+       \note IndirectHeatPrimarySetpoint mode requests flow whenever primary setpoint for heater 1 calls for heat
+       \note IndirectHeatAlternateSetpoint mode requests flow whenever alternate indirect setpoint calls for heat
+  A22; \field Indirect Alternate Setpoint Temperature Schedule Name
+       \note This field is only used if the previous is set to IndirectHeatAlternateSetpoint
+       \type object-list
+       \object-list ScheduleNames
+
+WaterHeater:Sizing,
+       \min-fields 4
+       \memo This input object is used with WaterHeater:Mixed or
+       \memo with WaterHeater:Stratified to autosize tank volume and heater capacity
+       \memo This object is not needed if water heaters are not autosized.
+  A1 , \field WaterHeater Name
+       \required-field
+       \type object-list
+       \object-list WaterHeaterNames
+  A2 , \field Design Mode
+       \type choice
+       \key PeakDraw
+       \key ResidentialHUD-FHAMinimum
+       \key PerPerson
+       \key PerFloorArea
+       \key PerUnit
+       \key PerSolarCollectorArea
+  N1 , \field Time Storage Can Meet Peak Draw
+       \type real
+       \units hr
+       \note Only used for Design Mode = PeakDraw
+       \minimum 0.0
+  N2 , \field Time for Tank Recovery
+       \type real
+       \units hr
+       \note Only used for Design Mode = PeakDraw
+       \minimum 0.0
+  N3 , \field Nominal Tank Volume for Autosizing Plant Connections
+       \type real
+       \units m3
+       \ip-units gal
+       \note Only used if Design Mode = PeakDraw and the water heater also
+       \note has autosized flow rates for connections on the demand side of a plant loop
+  N4 , \field Number of Bedrooms
+       \type integer
+       \note Only used for Design Mode = ResidentialHUD-FHAMinimum
+       \minimum 1
+  N5 , \field Number of Bathrooms
+       \type integer
+       \note Only used for Design Mode = ResidentialHUD-FHAMinimum
+       \minimum 1
+  N6 , \field Storage Capacity per Person
+       \type real
+       \units m3/person
+       \ip-units gal/person
+       \note Only used for Design Mode = PerPerson
+       \minimum 0.0
+  N7 , \field Recovery Capacity per Person
+       \type real
+       \units m3/hr-person
+       \ip-units gal/hr-person
+       \note Only used for Design Mode = PerPerson
+       \minimum 0.0
+  N8 , \field Storage Capacity per Floor Area
+       \type real
+       \units m3/m2
+       \ip-units gal/ft2
+       \note Only used for Design Mode = PerFloorArea
+       \minimum 0.0
+  N9 , \field Recovery Capacity per Floor Area
+       \type real
+       \units m3/hr-m2
+       \ip-units gal/hr-ft2
+       \note Only used for Design Mode = PerFloorArea
+       \minimum 0.0
+  N10 , \field Number of Units
+       \type real
+       \note Only used for Design Mode = PerUnit
+  N11 , \field Storage Capacity per Unit
+       \units m3
+       \ip-units gal
+       \type real
+       \note Only used for Design Mode = PerUnit
+       \minimum 0.0
+  N12 , \field Recovery Capacity PerUnit
+       \units m3/hr
+       \ip-units gal/hr
+       \type real
+       \note Only used for Design Mode = PerUnit
+       \minimum 0.0
+  N13 ,\field Storage Capacity per Collector Area
+       \units m3/m2
+       \ip-units gal/ft2
+       \type real
+       \note Only used for Design Mode = PerSolarCollectorArea
+       \minimum 0.0
+  N14 ; \field Height Aspect Ratio
+       \type real
+       \note only used if for WaterHeater:Stratified
+       \minimum 0.0
+
+WaterHeater:HeatPump:PumpedCondenser,
+       \min-fields 32
+       \memo This object models an air-source heat pump for water heating where the water is pumped out of the tank,
+       \memo through a heating coil and returned to the tank.
+       \memo For wrapped condenser HPWHs, see WaterHeater:HeatPump:WrappedCondenser.
+       \memo WaterHeater:HeatPump:PumpedCondenser is a compound object that references other component objects -
+       \memo Coil:WaterHeating:AirToWaterHeatPump:*, Fan:OnOff, WaterHeater:Mixed or WaterHeater:Stratified
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference ZoneEquipmentNames
+       \note Unique name for this instance of a heat pump water heater.
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values of 0 denote the heat pump compressor is off and the parasitic electric
+       \note energy is also off.
+  A3,  \field Compressor Setpoint Temperature Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note Defines the cut-out temperature where the heat pump compressor turns off.
+       \note The heat pump compressor setpoint temperature should always be greater
+       \note than the water tank's heater (element or burner) setpoint temperature.
+  N1 , \field Dead Band Temperature Difference
+       \type real
+       \units deltaC
+       \minimum> 0.0
+       \maximum 20
+       \default 5.0
+       \note Setpoint temperature minus the dead band temperature difference defines
+       \note the cut-in temperature where the heat pump compressor turns on.
+       \note The water tank's heater (element or burner) setpoint temperature
+       \note should always be less than the heat pump compressor cut-in temperature.
+  A4 , \field Condenser Water Inlet Node Name
+       \required-field
+       \type node
+       \note Should match the field Source Outlet Node Name in the water heater tank object.
+       \note Should also match the Condenser Water Inlet Node Name in the associated
+       \note DX coil object.
+  A5 , \field Condenser Water Outlet Node Name
+       \required-field
+       \type node
+       \note Should match the field Source Inlet Node Name in water heater tank object.
+       \note Should also match the Condenser Water Outlet Node Name in the associated
+       \note DX Coil object.
+  N2 , \field Condenser Water Flow Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \minimum> 0
+       \autocalculatable
+       \note Actual water flow rate through the heat pump's water coil (condenser).
+       \note If autocalculated, the water flow rate is set equal to 4.487E-8 m3/s/W times
+       \note the rated heating capacity of the heat pump's DX coil.
+  N3 , \field Evaporator Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0
+       \autocalculatable
+       \note Actual air flow rate across the heat pump's air coil (evaporator).
+       \note If autocalculated, the air flow rate is set equal to 5.035E-5 m3/s/W times
+       \note the rated heating capacity of the heat pump's DX coil.
+  A6 , \field Inlet Air Configuration
+       \required-field
+       \type choice
+       \key Schedule
+       \key ZoneAirOnly
+       \key OutdoorAirOnly
+       \key ZoneAndOutdoorAir
+       \note Defines the configuration of the airflow path through the air coil and fan section.
+  A7 , \field Air Inlet Node Name
+       \type node
+       \note Zone air exhaust node name if Inlet Air Configuration is ZoneAirOnly or
+       \note ZoneAndOutdoorAir.
+       \note Simply a unique Node Name if Inlet Air Configuration is Schedule.
+       \note Otherwise, leave field blank.
+  A8 , \field Air Outlet Node Name
+       \type node
+       \note Zone Air Inlet Node Name if Inlet Air Configuration is ZoneAirOnly or
+       \note ZoneAndOutdoorAir.
+       \note Simply a unique Node Name if Inlet Air Configuration is Schedule.
+       \note Otherwise, leave field blank.
+  A9 , \field Outdoor Air Node Name
+       \type node
+       \note Outdoor air node name if inlet air configuration is ZoneAndOutdoorAir
+       \note or OutdoorAirOnly, otherwise leave field blank.
+  A10, \field Exhaust Air Node Name
+       \type node
+       \note Simply a unique Node Name if Inlet Air Configuration is ZoneAndOutdoorAir
+       \note or OutdoorAirOnly, otherwise leave field blank.
+  A11, \field Inlet Air Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Used only if Inlet Air Configuration is Schedule, otherwise leave blank.
+       \note Schedule values should be degrees C.
+  A12, \field Inlet Air Humidity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Used only if Inlet Air Configuration is Schedule, otherwise leave blank.
+       \note Schedule values are entered as a fraction (e.g. 0.5 is equal to 50%RH)
+  A13, \field Inlet Air Zone Name
+       \type object-list
+       \object-list ZoneNames
+       \note Used only if Inlet Air Configuration is ZoneAirOnly or ZoneAndOutdoorAir.
+       \note Otherwise, leave field blank.
+  A14, \field Tank Object Type
+       \type choice
+       \key WaterHeater:Mixed
+       \key WaterHeater:Stratified
+       \default WaterHeater:Mixed
+       \note Specify the type of water heater tank used by this heat pump water heater.
+  A15, \field Tank Name
+       \required-field
+       \type object-list
+       \object-list WaterHeaterNames
+       \note Needs to match the name used in the corresponding Water Heater object.
+  A16, \field Tank Use Side Inlet Node Name
+       \type node
+       \note Used only when the heat pump water heater is connected to a plant loop,
+       \note otherwise leave blank. Needs to match the name used in the corresponding
+       \note Water Heater object when connected to a plant loop.
+  A17, \field Tank Use Side Outlet Node Name
+       \type node
+       \note Used only when the heat pump water heater is connected to a plant loop,
+       \note otherwise leave blank. Needs to match the name used in the corresponding
+       \note Water Heater object when connected to a plant loop.
+  A18, \field DX Coil Object Type
+       \type choice
+       \key Coil:WaterHeating:AirToWaterHeatPump:Pumped
+       \key Coil:WaterHeating:AirToWaterHeatPump:VariableSpeed
+       \key CoilSystem:IntegratedHeatPump:AirSource
+       \default Coil:WaterHeating:AirToWaterHeatPump:Pumped
+       \note Specify the type of DX coil used by this heat pump water heater. The only
+       \note valid choice is Coil:WaterHeating:AirToWaterHeatPump:Pumped and Coil:WaterHeating:AirToWaterHeatPump:VariableSpeed, and CoilSystem:IntegratedHeatPump:AirSource
+  A19, \field DX Coil Name
+       \required-field
+       \type object-list
+       \object-list HeatPumpWaterHeaterDXCoilsPumped
+       \object-list HeatPumpWaterHeaterDXCoilsVariableSpeed
+       \object-list IntegratedHeatPumps
+       \note Must match the name used in the corresponding Coil:WaterHeating:AirToWaterHeatPump:* object, or CoilSystem:IntegratedHeatPump:AirSource
+  N4 , \field Minimum Inlet Air Temperature for Compressor Operation
+       \type real
+       \units C
+       \default 10
+       \note Heat pump compressor will not operate when the inlet air dry-bulb temperature
+       \note is below this value.
+  N5 , \field Maximum Inlet Air Temperature for Compressor Operation
+       \type real
+       \units C
+       \default 48.88888888889
+       \minimum 26
+       \maximum 94
+       \note Heat pump compressor will not operate when the inlet air dry-bulb temperature
+       \note is above this value.
+  A20, \field Compressor Location
+       \required-field
+       \type choice
+       \key Schedule
+       \key Zone
+       \key Outdoors
+       \note If Zone is selected, Inlet Air Configuration must be ZoneAirOnly or
+       \note ZoneAndOutdoorAir. If Schedule is selected, then you must provide a
+       \note Compressor Ambient Temperature Schedule Name below.
+  A21, \field Compressor Ambient Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Used only if Compressor Location is Schedule, otherwise leave field blank.
+  A22, \field Fan Object Type
+       \type choice
+       \key Fan:SystemModel
+       \key Fan:OnOff
+       \default Fan:OnOff
+       \note Specify the type of fan used by this heat pump water heater. The only
+       \note valid choices are Fan:SystemModel or Fan:OnOff.
+  A23, \field Fan Name
+       \required-field
+       \type object-list
+       \object-list FansOnOff
+       \object-list FansSystemModel
+       \note Needs to match the name used in the corresponding Fan:SystemModel or Fan:OnOff object.
+  A24, \field Fan Placement
+       \type choice
+       \key BlowThrough
+       \key DrawThrough
+       \default DrawThrough
+       \note BlowThrough means the fan is located before the air coil (upstream).
+       \note DrawThrough means the fan is located after the air coil (downstream).
+  N6 , \field On Cycle Parasitic Electric Load
+       \type real
+       \units W
+       \minimum 0.0
+       \default 0.0
+       \note Parasitic electric power consumed when the heat pump compressor operates.
+       \note Does not contribute to water heating but can impact the zone air heat balance.
+  N7 , \field Off Cycle Parasitic Electric Load
+       \type real
+       \units W
+       \minimum 0.0
+       \default 0.0
+       \note Parasitic electric power consumed when the heat pump compressor is off.
+       \note Does not contribute to water heating but can impact the zone air heat balance.
+       \note Off-cycle parasitic power is 0 when the availability schedule is 0.
+  A25, \field Parasitic Heat Rejection Location
+       \type choice
+       \key Zone
+       \key Outdoors
+       \default Outdoors
+       \note This field determines if the parasitic electric load impacts the zone air
+       \note heat balance. If Zone is selected, Inlet Air Configuration must be
+       \note ZoneAirOnly or ZoneAndOutdoorAir.
+  A26, \field Inlet Air Mixer Node Name
+       \type node
+       \note Required only if Inlet Air Configuration is ZoneAndOutdoorAir, otherwise
+       \note leave field blank.
+  A27, \field Outlet Air Splitter Node Name
+       \type node
+       \note Required only if Inlet Air Configuration is ZoneAndOutdoorAir, otherwise
+       \note leave field blank.
+  A28, \field Inlet Air Mixer Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Required only if Inlet Air Configuration is ZoneAndOutdoorAir, otherwise
+       \note leave field blank. Schedule values define whether the heat pump draws its
+       \note inlet air from the zone, outdoors or a combination of zone and outdoor air.
+       \note A schedule value of 0 denotes inlet air is drawn only from the zone.
+       \note A schedule value of 1 denotes inlet air is drawn only from outdoors.
+       \note Schedule values between 0 and 1 denote a mixture of zone and outdoor air
+       \note proportional to the schedule value (i.e. 0.4 = 40% outdoor air, 60% zone air).
+  A29, \field Tank Element Control Logic
+       \type choice
+       \key MutuallyExclusive
+       \key Simultaneous
+       \default Simultaneous
+       \note MutuallyExclusive means that once the tank heating element is active the
+       \note heat pump is shut down until setpoint is reached.
+       \note Simultaneous (default) means that both the tank heating element and
+       \note heat pump are used at the same time recover the tank temperature.
+  N8,  \field Control Sensor 1 Height In Stratified Tank
+       \note Used to indicate height of control sensor for Tank Object Type = WaterHeater:Stratified
+       \note If left blank, it will default to the height of Heater1
+       \type real
+       \units m
+       \minimum 0.0
+  N9,  \field Control Sensor 1 Weight
+       \note Weight to give Control Sensor 1 temperature
+       \note The weight of Control Sensor 2 will be 1 - (wt. of control sensor 1)
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  N10; \field Control Sensor 2 Height In Stratified Tank
+       \note Used to indicate height of control sensor for Tank Object Type = WaterHeater:Stratified
+       \note If left blank, it will default to the height of Heater2
+       \type real
+       \units m
+       \minimum 0.0
+
+WaterHeater:HeatPump:WrappedCondenser,
+       \min-fields 31
+       \memo This object models an air-source heat pump for water heating where the heating coil is wrapped around
+       \memo the tank, which is typical of residential HPWHs.
+       \memo For pumped condenser HPWHs, see WaterHeater:HeatPump:PumpedCondenser.
+       \memo WaterHeater:HeatPump:WrappedCondenser is a compound object that references other component objects -
+       \memo Coil:WaterHeating:AirToWaterHeatPump:Pumped, Fan:OnOff, WaterHeater:Mixed
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference ZoneEquipmentNames
+       \note Unique name for this instance of a heat pump water heater.
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+       \note Schedule values of 0 denote the heat pump compressor is off and the parasitic electric
+       \note energy is also off.
+  A3,  \field Compressor Setpoint Temperature Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note Defines the cut-out temperature where the heat pump compressor turns off.
+       \note The heat pump compressor setpoint temperature should always be greater
+       \note than the water tank's heater (element or burner) setpoint temperature.
+  N1 , \field Dead Band Temperature Difference
+       \type real
+       \units deltaC
+       \minimum> 0.0
+       \maximum 20
+       \default 5.0
+       \note Setpoint temperature minus the dead band temperature difference defines
+       \note the cut-in temperature where the heat pump compressor turns on.
+       \note The water tank's heater (element or burner) setpoint temperature
+       \note should always be less than the heat pump compressor cut-in temperature.
+  N2,  \field Condenser Bottom Location
+       \type real
+       \units m
+       \minimum 0
+       \default 0
+       \note Distance from the bottom of the tank to the bottom of the wrapped condenser.
+  N3,  \field Condenser Top Location
+       \required-field
+       \type real
+       \units m
+       \minimum 0
+       \note Distance from the bottom of the tank to the top of the wrapped condenser.
+  N4 , \field Evaporator Air Flow Rate
+       \type real
+       \units m3/s
+       \minimum> 0
+       \autocalculatable
+       \note Actual air flow rate across the heat pump's air coil (evaporator).
+       \note If autocalculated, the air flow rate is set equal to 5.035E-5 m3/s/W times
+       \note the rated heating capacity of the heat pump's DX coil.
+  A4 , \field Inlet Air Configuration
+       \required-field
+       \type choice
+       \key Schedule
+       \key ZoneAirOnly
+       \key OutdoorAirOnly
+       \key ZoneAndOutdoorAir
+       \note Defines the configuration of the airflow path through the air coil and fan section.
+  A5 , \field Air Inlet Node Name
+       \type node
+       \note Zone air exhaust node name if Inlet Air Configuration is ZoneAirOnly or
+       \note ZoneAndOutdoorAir.
+       \note Simply a unique Node Name if Inlet Air Configuration is Schedule.
+       \note Otherwise, leave field blank.
+  A6 , \field Air Outlet Node Name
+       \type node
+       \note Zone Air Inlet Node Name if Inlet Air Configuration is ZoneAirOnly or
+       \note ZoneAndOutdoorAir.
+       \note Simply a unique Node Name if Inlet Air Configuration is Schedule.
+       \note Otherwise, leave field blank.
+  A7 , \field Outdoor Air Node Name
+       \type node
+       \note Outdoor air node name if inlet air configuration is ZoneAndOutdoorAir
+       \note or OutdoorAirOnly, otherwise leave field blank.
+  A8 , \field Exhaust Air Node Name
+       \type node
+       \note Simply a unique Node Name if Inlet Air Configuration is ZoneAndOutdoorAir
+       \note or OutdoorAirOnly, otherwise leave field blank.
+  A9 , \field Inlet Air Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Used only if Inlet Air Configuration is Schedule, otherwise leave blank.
+       \note Schedule values should be degrees C.
+  A10, \field Inlet Air Humidity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Used only if Inlet Air Configuration is Schedule, otherwise leave blank.
+       \note Schedule values are entered as a fraction (e.g. 0.5 is equal to 50%RH)
+  A11, \field Inlet Air Zone Name
+       \type object-list
+       \object-list ZoneNames
+       \note Used only if Inlet Air Configuration is ZoneAirOnly or ZoneAndOutdoorAir.
+       \note Otherwise, leave field blank.
+  A12, \field Tank Object Type
+       \type choice
+       \key WaterHeater:Stratified
+       \default WaterHeater:Stratified
+       \note Specify the type of water heater tank used by this heat pump water heater.
+  A13, \field Tank Name
+       \required-field
+       \type object-list
+       \object-list WaterHeaterStratifiedNames
+       \note Needs to match the name used in the corresponding Water Heater object.
+       \note Must be a WaterHeater:Stratified tank.
+  A14, \field Tank Use Side Inlet Node Name
+       \type node
+       \note Used only when the heat pump water heater is connected to a plant loop,
+       \note otherwise leave blank. Needs to match the name used in the corresponding
+       \note Water Heater object when connected to a plant loop.
+  A15, \field Tank Use Side Outlet Node Name
+       \type node
+       \note Used only when the heat pump water heater is connected to a plant loop,
+       \note otherwise leave blank. Needs to match the name used in the corresponding
+       \note Water Heater object when connected to a plant loop.
+  A16, \field DX Coil Object Type
+       \type choice
+       \key Coil:WaterHeating:AirToWaterHeatPump:Wrapped
+       \default Coil:WaterHeating:AirToWaterHeatPump:Wrapped
+       \note Specify the type of DX coil used by this heat pump water heater. The only
+       \note valid choice is Coil:WaterHeating:AirToWaterHeatPump:Wrapped
+  A17, \field DX Coil Name
+       \required-field
+       \type object-list
+       \object-list HeatPumpWaterHeaterDXCoilsWrapped
+       \note Must match the name used in the corresponding Coil:WaterHeating:AirToWaterHeatPump:Wrapped object.
+  N5 , \field Minimum Inlet Air Temperature for Compressor Operation
+       \type real
+       \units C
+       \default 10
+       \note Heat pump compressor will not operate when the inlet air dry-bulb temperature
+       \note is below this value.
+  N6 , \field Maximum Inlet Air Temperature for Compressor Operation
+       \type real
+       \units C
+       \default 48.88888888889
+       \minimum 26
+       \maximum 94
+       \note Heat pump compressor will not operate when the inlet air dry-bulb temperature
+       \note is above this value.
+  A18, \field Compressor Location
+       \required-field
+       \type choice
+       \key Schedule
+       \key Zone
+       \key Outdoors
+       \note If Zone is selected, Inlet Air Configuration must be ZoneAirOnly or
+       \note ZoneAndOutdoorAir. If Schedule is selected, then you must provide a
+       \note Compressor Ambient Temperature Schedule Name below.
+  A19, \field Compressor Ambient Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Used only if Compressor Location is Schedule, otherwise leave field blank.
+  A20, \field Fan Object Type
+       \type choice
+       \key Fan:OnOff
+       \key Fan:SystemModel
+       \default Fan:OnOff
+       \note Specify the type of fan used by this heat pump water heater. The only
+       \note valid choices are Fan:SystemModel or Fan:OnOff.
+  A21, \field Fan Name
+       \required-field
+       \type object-list
+       \object-list FansOnOff
+       \object-list FansSystemModel
+       \note Needs to match the name used in the corresponding Fan:SystemModel or Fan:OnOff object.
+  A22, \field Fan Placement
+       \type choice
+       \key BlowThrough
+       \key DrawThrough
+       \default DrawThrough
+       \note BlowThrough means the fan is located before the air coil (upstream).
+       \note DrawThrough means the fan is located after the air coil (downstream).
+  N7 , \field On Cycle Parasitic Electric Load
+       \type real
+       \units W
+       \minimum 0.0
+       \default 0.0
+       \note Parasitic electric power consumed when the heat pump compressor operates.
+       \note Does not contribute to water heating but can impact the zone air heat balance.
+  N8 , \field Off Cycle Parasitic Electric Load
+       \type real
+       \units W
+       \minimum 0.0
+       \default 0.0
+       \note Parasitic electric power consumed when the heat pump compressor is off.
+       \note Does not contribute to water heating but can impact the zone air heat balance.
+       \note Off-cycle parasitic power is 0 when the availability schedule is 0.
+  A23, \field Parasitic Heat Rejection Location
+       \type choice
+       \key Zone
+       \key Outdoors
+       \default Outdoors
+       \note This field determines if the parasitic electric load impacts the zone air
+       \note heat balance. If Zone is selected, Inlet Air Configuration must be
+       \note ZoneAirOnly or ZoneAndOutdoorAir.
+  A24, \field Inlet Air Mixer Node Name
+       \type node
+       \note Required only if Inlet Air Configuration is ZoneAndOutdoorAir, otherwise
+       \note leave field blank.
+  A25, \field Outlet Air Splitter Node Name
+       \type node
+       \note Required only if Inlet Air Configuration is ZoneAndOutdoorAir, otherwise
+       \note leave field blank.
+  A26, \field Inlet Air Mixer Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Required only if Inlet Air Configuration is ZoneAndOutdoorAir, otherwise
+       \note leave field blank. Schedule values define whether the heat pump draws its
+       \note inlet air from the zone, outdoors or a combination of zone and outdoor air.
+       \note A schedule value of 0 denotes inlet air is drawn only from the zone.
+       \note A schedule value of 1 denotes inlet air is drawn only from outdoors.
+       \note Schedule values between 0 and 1 denote a mixture of zone and outdoor air
+       \note proportional to the schedule value.
+  A27, \field Tank Element Control Logic
+       \type choice
+       \key MutuallyExclusive
+       \key Simultaneous
+       \default Simultaneous
+       \note MutuallyExclusive means that once the tank heating element is active the
+       \note heat pump is shut down until setpoint is reached.
+       \note Simultaneous (default) means that both the tank heating element and
+       \note heat pump are used at the same time recover the tank temperature.
+  N9,  \field Control Sensor 1 Height In Stratified Tank
+       \note Used to indicate height of control sensor if Tank Object Type is WaterHeater:Stratified
+       \note If left blank, it will default to the height of Heater1
+       \type real
+       \units m
+       \minimum 0.0
+  N10, \field Control Sensor 1 Weight
+       \note Weight to give Control Sensor 1 temperature
+       \units dimensionless
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  N11; \field Control Sensor 2 Height In Stratified Tank
+       \note Used to indicate height of control sensor if Tank Object Type is WaterHeater:Stratified
+       \note If left blank, it will default to the height of Heater2
+       \note The weight of this control sensor will be 1 - (wt. of control sensor 1)
+       \type real
+       \units m
+       \minimum 0.0
+
+ThermalStorage:Ice:Simple,
+      \min-fields 5
+      \memo This ice storage model is a simplified model
+      \memo It requires a setpoint placed on the Chilled Water Side Outlet Node
+      \memo It should be placed in the chilled water supply side outlet branch
+      \memo followed by a pipe.
+      \memo Use the PlantEquipmentOperation:ComponentSetpoint plant operation scheme.
+  A1, \field Name
+      \type alpha
+      \required-field
+      \reference IceThermalStorageEquipment
+      \reference-class-name validBranchEquipmentTypes
+      \reference validBranchEquipmentNames
+  A2, \field Ice Storage Type
+      \note IceOnCoilInternal = Ice-on-Coil, internal melt
+      \note IceOnCoilExternal = Ice-on-Coil, external melt
+      \type choice
+      \required-field
+      \key IceOnCoilInternal
+      \key IceOnCoilExternal
+  N1, \field Capacity
+      \required-field
+      \type real
+      \units GJ
+      \ip-units ton-hrs
+  A3, \field Inlet Node Name
+      \type node
+      \required-field
+  A4; \field Outlet Node Name
+      \type node
+      \required-field
+
+ThermalStorage:Ice:Detailed,
+    \min-fields 14
+       \memo This input syntax is intended to describe a thermal storage system that
+       \memo includes smaller containers filled with water that are placed in a larger
+       \memo tank or series of tanks.
+       \memo The model uses polynomial equations to describe the system performance.
+  A1 , \field Name
+       \required-field
+       \reference IceThermalStorageEquipment
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Capacity
+       \note This includes only the latent storage capacity
+       \units GJ
+       \required-field
+  A3 , \field Inlet Node Name
+       \required-field
+       \type node
+  A4 , \field Outlet Node Name
+       \required-field
+       \type node
+  A5 , \field Discharging Curve Variable Specifications
+       \required-field
+       \type choice
+       \key FractionChargedLMTD
+       \key FractionDischargedLMTD
+       \key LMTDMassFlow
+       \key LMTDFractionCharged
+  A6 , \field Discharging Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+  A7 , \field Charging Curve Variable Specifications
+       \required-field
+       \type choice
+       \key FractionChargedLMTD
+       \key FractionDischargedLMTD
+       \key LMTDMassFlow
+       \key LMTDFractionCharged
+  A8 , \field Charging Curve Name
+       \required-field
+       \type object-list
+       \object-list BivariateFunctions
+  N2 , \field Timestep of the Curve Data
+       \units hr
+  N3 , \field Parasitic Electric Load During Discharging
+       \units dimensionless
+  N4 , \field Parasitic Electric Load During Charging
+       \units dimensionless
+  N5 , \field Tank Loss Coefficient
+       \note This is the fraction the total storage capacity that is lost or melts
+       \note each hour
+       \units dimensionless
+  N6 , \field Freezing Temperature of Storage Medium
+       \note This temperature is typically 0C for water.
+       \note Simply changing this temperature without adjusting the performance
+       \note parameters input above is inappropriate and not advised.
+       \units C
+       \default 0.0
+  A9 ; \field Thaw Process Indicator
+       \note This field determines whether the system uses internal or external melt
+       \note during discharging. This will then have an impact on charging performance.
+       \type choice
+       \key InsideMelt
+       \key OutsideMelt
+       \default OutsideMelt
+
+ThermalStorage:ChilledWater:Mixed,
+       \memo Chilled water storage with a well-mixed, single-node tank. The chilled water is
+       \memo "used" by drawing from the "Use Side" of the water tank. The tank is indirectly
+       \memo charged by circulating cold water through the "Source Side" of the water tank.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validCondenserEquipmentTypes
+       \reference validCondenserEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  N1 , \field Tank Volume
+       \type real
+       \units m3
+       \minimum> 0.0
+       \default 0.1
+       \ip-units gal
+  A2 , \field Setpoint Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  N2 , \field Deadband Temperature Difference
+       \type real
+       \units deltaC
+       \minimum> 0.0
+       \default 0.5
+  N3 , \field Minimum Temperature Limit
+       \type real
+       \units C
+  N4 , \field Nominal Cooling Capacity
+       \type real
+       \units W
+  A3 , \field Ambient Temperature Indicator
+       \required-field
+       \type choice
+       \key Schedule
+       \key Zone
+       \key Outdoors
+  A4 , \field Ambient Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A5 , \field Ambient Temperature Zone Name
+       \type object-list
+       \object-list ZoneNames
+  A6 , \field Ambient Temperature Outdoor Air Node Name
+       \type node
+       \note required when field Ambient Temperature Indicator=Outdoors
+  N5 , \field Heat Gain Coefficient from Ambient Temperature
+       \type real
+       \units W/K
+       \minimum 0.0
+  A7 , \field Use Side Inlet Node Name
+       \type node
+  A8 , \field Use Side Outlet Node Name
+       \type node
+  N6 , \field Use Side Heat Transfer Effectiveness
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+  A9 , \field Use Side Availability Schedule Name
+       \note Availability schedule name for use side. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N7 , \field Use Side Design Flow Rate
+       \type real
+       \autosizable
+       \default autosize
+       \units m3/s
+       \ip-units gal/min
+       \minimum 0.0
+  A10, \field Source Side Inlet Node Name
+       \type node
+  A11, \field Source Side Outlet Node Name
+       \type node
+  N8, \field Source Side Heat Transfer Effectiveness
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 1.0
+  A12, \field Source Side Availability Schedule Name
+       \note Availability schedule name for source side. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N9 , \field Source Side Design Flow Rate
+       \type real
+       \autosizable
+       \default autosize
+       \units m3/s
+       \ip-units gal/min
+       \minimum 0.0
+  N10; \field Tank Recovery Time
+       \type real
+       \default 4.0
+       \note Parameter for autosizing design flow rates for indirectly cooled water tanks
+       \note time required to lower temperature of entire tank from 14.4C to 9.0C
+       \units hr
+       \minimum> 0.0
+
+ThermalStorage:ChilledWater:Stratified,
+       \memo Chilled water storage with a stratified, multi-node tank. The chilled water is
+       \memo "used" by drawing from the "Use Side" of the water tank. The tank is indirectly
+       \memo charged by circulating cold water through the "Source Side" of the water tank.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference-class-name validPlantEquipmentTypes
+       \reference validPlantEquipmentNames
+       \reference-class-name validCondenserEquipmentTypes
+       \reference validCondenserEquipmentNames
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  N1 , \field Tank Volume
+       \required-field
+       \type real
+       \units m3
+       \minimum> 0.0
+       \ip-units gal
+  N2 , \field Tank Height
+       \required-field
+       \type real
+       \units m
+       \minimum> 0.0
+       \note Height is measured in the axial direction for horizontal cylinders
+  A2 , \field Tank Shape
+       \type choice
+       \key VerticalCylinder
+       \key HorizontalCylinder
+       \key Other
+       \default VerticalCylinder
+  N3 , \field Tank Perimeter
+       \type real
+       \units m
+       \minimum 0.0
+       \note Only used if Tank Shape is Other
+  A3 , \field Setpoint Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  N4 , \field Deadband Temperature Difference
+       \type real
+       \units deltaC
+       \minimum 0.0
+       \default 0.0
+  N5,  \field Temperature Sensor Height
+       \units m
+       \minimum 0.0
+  N6 , \field Minimum Temperature Limit
+       \type real
+       \units C
+  N7 , \field Nominal Cooling Capacity
+       \type real
+       \units W
+  A4 , \field Ambient Temperature Indicator
+       \required-field
+       \type choice
+       \key Schedule
+       \key Zone
+       \key Outdoors
+  A5 , \field Ambient Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A6 , \field Ambient Temperature Zone Name
+       \type object-list
+       \object-list ZoneNames
+  A7 , \field Ambient Temperature Outdoor Air Node Name
+       \type node
+       \note required for Ambient Temperature Indicator=Outdoors
+  N8, \field Uniform Skin Loss Coefficient per Unit Area to Ambient Temperature
+       \type real
+       \units W/m2-K
+       \minimum 0.0
+  A8 , \field Use Side Inlet Node Name
+       \type node
+  A9, \field Use Side Outlet Node Name
+       \type node
+  N9 , \field Use Side Heat Transfer Effectiveness
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+       \default 1.0
+       \note The use side effectiveness in the stratified tank model is a simplified analogy of
+       \note a heat exchanger's effectiveness. This effectiveness is equal to the fraction of
+       \note use mass flow rate that directly mixes with the tank fluid. And one minus the
+       \note effectiveness is the fraction that bypasses the tank. The use side mass flow rate
+       \note that bypasses the tank is mixed with the fluid or water leaving the stratified tank.
+  A10, \field Use Side Availability Schedule Name
+       \note Availability schedule name for use side. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N10 , \field Use Side Inlet Height
+       \type real
+       \units m
+       \minimum 0.0
+       \autocalculatable
+       \default autocalculate
+       \note Defaults to top of tank
+  N11, \field Use Side Outlet Height
+       \type real
+       \units m
+       \minimum 0.0
+       \default 0.0
+       \note Defaults to bottom of tank
+  N12, \field Use Side Design Flow Rate
+       \type real
+       \autosizable
+       \default autosize
+       \units m3/s
+       \ip-units gal/min
+       \minimum 0.0
+  A11, \field Source Side Inlet Node Name
+       \type node
+  A12, \field Source Side Outlet Node Name
+       \type node
+  N13, \field Source Side Heat Transfer Effectiveness
+       \type real
+       \minimum> 0.0
+       \maximum 1.0
+       \default 1.0
+       \note The source side effectiveness in the stratified tank model is a simplified analogy of
+       \note a heat exchanger's effectiveness. This effectiveness is equal to the fraction of
+       \note source mass flow rate that directly mixes with the tank fluid. And one minus the
+       \note effectiveness is the fraction that bypasses the tank. The source side mass flow rate
+       \note that bypasses the tank is mixed with the fluid or water leaving the stratified tank.
+  A13, \field Source Side Availability Schedule Name
+       \note Availability schedule name for use side. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N14, \field Source Side Inlet Height
+       \type real
+       \units m
+       \minimum 0.0
+       \default 0.0
+       \note Defaults to bottom of tank
+  N15, \field Source Side Outlet Height
+       \type real
+       \units m
+       \minimum 0.0
+       \autocalculatable
+       \default autocalculate
+       \note Defaults to top of tank
+  N16, \field Source Side Design Flow Rate
+       \type real
+       \autosizable
+       \default autosize
+       \units m3/s
+       \ip-units gal/min
+       \minimum 0.0
+  N17, \field Tank Recovery Time
+       \type real
+       \default 4.0
+       \note Parameter for autosizing design flow rates for indirectly cooled water tanks
+       \note time required to lower temperature of entire tank from 14.4C to 9.0C
+       \units hr
+       \minimum> 0.0
+  A14, \field Inlet Mode
+       \type choice
+       \key Fixed
+       \key Seeking
+       \default Fixed
+  N18, \field Number of Nodes
+       \type integer
+       \minimum 1
+       \maximum 10
+       \default 1
+  N19, \field Additional Destratification Conductivity
+       \type real
+       \units W/m-K
+       \minimum 0.0
+       \default 0.0
+  N20, \field Node 1 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N21, \field Node 2 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N22, \field Node 3 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N23, \field Node 4 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N24, \field Node 5 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N25, \field Node 6 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N26, \field Node 7 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N27, \field Node 8 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N28, \field Node 9 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+  N29; \field Node 10 Additional Loss Coefficient
+       \type real
+       \units W/K
+       \default 0.0
+
+\group Plant-Condenser Loops
+!*****************PLANT AND CONDENSER LOOP SPECIFICATION*********************
+!Plant and condenser loops are specified as follows:
+
+PlantLoop,
+       \memo Defines a central plant loop.
+       \min-fields 18
+  A1 , \field Name
+        \required-field
+       \reference PlantLoops
+  A2 , \field Fluid Type
+        \type choice
+        \key Water
+        \key Steam
+        \key UserDefinedFluidType
+        \default Water
+  A3 , \field User Defined Fluid Type
+       \type object-list
+       \object-list FluidAndGlycolNames
+       \note This field is only required when Fluid Type is UserDefinedFluidType
+  A4 , \field Plant Equipment Operation Scheme Name
+        \required-field
+        \type object-list
+        \object-list PlantOperationSchemes
+  A5 , \field Loop Temperature Setpoint Node Name
+        \required-field
+       \type node
+  N1 , \field Maximum Loop Temperature
+        \required-field
+        \units C
+  N2 , \field Minimum Loop Temperature
+        \required-field
+        \units C
+  N3 , \field Maximum Loop Flow Rate
+        \required-field
+        \type real
+        \units m3/s
+        \autosizable
+        \minimum 0
+        \ip-units gal/min
+  N4 , \field Minimum Loop Flow Rate
+        \type real
+        \units m3/s
+        \default 0.0
+        \ip-units gal/min
+  N5 , \field Plant Loop Volume
+        \type real
+        \units m3
+        \autocalculatable
+        \minimum 0.0
+        \default Autocalculate
+        \ip-units gal
+  A6,  \field Plant Side Inlet Node Name
+        \required-field
+        \type node
+  A7,  \field Plant Side Outlet Node Name
+        \required-field
+        \type node
+  A8,  \field Plant Side Branch List Name
+        \required-field
+        \type object-list
+        \object-list BranchLists
+  A9,  \field Plant Side Connector List Name
+        \type object-list
+        \object-list ConnectorLists
+  A10, \field Demand Side Inlet Node Name
+        \required-field
+        \type node
+  A11, \field Demand Side Outlet Node Name
+        \required-field
+        \type node
+  A12, \field Demand Side Branch List Name
+        \required-field
+        \type object-list
+        \object-list BranchLists
+  A13, \field Demand Side Connector List Name
+        \type object-list
+        \object-list ConnectorLists
+  A14, \field Load Distribution Scheme
+        \type choice
+        \key Optimal
+        \key SequentialLoad
+        \key UniformLoad
+        \key UniformPLR
+        \key SequentialUniformPLR
+        \default SequentialLoad
+  A15, \field Availability Manager List Name
+        \type object-list
+        \object-list SystemAvailabilityManagerLists
+  A16, \field Plant Loop Demand Calculation Scheme
+        \type choice
+        \key SingleSetpoint
+        \key DualSetpointDeadband
+        \default SingleSetpoint
+  A17,  \field Common Pipe Simulation
+        \note Specifies a primary-secondary loop configuration. The plant side is the
+        \note primary loop, and the demand side is the secondary loop.
+        \note A secondary supply pump is required on the demand side.
+        \note None = Primary-only, no secondary simulation
+        \note CommonPipe = Primary-secondary with no temperature control at primary-secondary interface
+        \note TwoWayCommonPipe = Primary-secondary with control of secondary supply temperature or
+        \note primary return temperature (requires a setpoint be placed on the
+        \note plant side or demand side inlet node).
+        \type choice
+        \key CommonPipe
+        \key TwoWayCommonPipe
+        \key None
+        \default None
+  A18,  \field Pressure Simulation Type
+        \type choice
+        \key PumpPowerCorrection
+        \key LoopFlowCorrection
+        \key None
+        \default None
+   N6;  \field Loop Circulation Time
+        \note This field is only used to autocalulate the Plant Loop Volume.
+        \note Loop Volume = Loop Circulation Time * Maximum Loop Flow Rate
+        \type real
+        \units minutes
+        \minimum 0.0
+        \default 2.0
+
+CondenserLoop,
+       \memo Defines a central plant condenser loop. CondenserLoop and PlantLoop are nearly
+       \memo identical except some components and operation schemes are applicable to only one
+       \memo loop type or the other.
+       \min-fields 18
+  A1 , \field Name
+        \required-field
+        \reference PlantLoops
+  A2 , \field Fluid Type
+        \type choice
+        \key Water
+        \key UserDefinedFluidType
+        \default Water
+  A3 , \field User Defined Fluid Type
+       \type object-list
+       \object-list FluidAndGlycolNames
+       \note This field is only required when Fluid Type is UserDefinedFluidType
+  A4 , \field Condenser Equipment Operation Scheme Name
+        \required-field
+        \type object-list
+        \object-list CondenserOperationSchemes
+  A5 , \field Condenser Loop Temperature Setpoint Node Name
+        \required-field
+        \type node
+  N1 , \field Maximum Loop Temperature
+        \required-field
+        \units C
+  N2 , \field Minimum Loop Temperature
+        \required-field
+        \units C
+  N3 , \field Maximum Loop Flow Rate
+        \type real
+        \required-field
+        \units m3/s
+        \autosizable
+        \minimum> 0.0
+        \ip-units gal/min
+  N4 , \field Minimum Loop Flow Rate
+        \type real
+        \units m3/s
+        \default 0.0
+        \ip-units gal/min
+  N5,  \field Condenser Loop Volume
+        \type real
+        \units m3
+        \autocalculatable
+        \default Autocalculate
+        \minimum 0.0
+        \ip-units gal
+  A6,  \field Condenser Side Inlet Node Name
+        \required-field
+        \type node
+  A7,  \field Condenser Side Outlet Node Name
+        \required-field
+        \type node
+  A8,  \field Condenser Side Branch List Name
+        \required-field
+        \type object-list
+        \object-list BranchLists
+  A9,  \field Condenser Side Connector List Name
+        \required-field
+        \type object-list
+        \object-list ConnectorLists
+  A10, \field Demand Side Inlet Node Name
+        \required-field
+        \type node
+  A11, \field Demand Side Outlet Node Name
+        \required-field
+        \type node
+  A12, \field Condenser Demand Side Branch List Name
+        \required-field
+        \type object-list
+        \object-list BranchLists
+  A13, \field Condenser Demand Side Connector List Name
+        \required-field
+        \type object-list
+        \object-list ConnectorLists
+  A14, \field Load Distribution Scheme
+        \type choice
+        \key Optimal
+        \key SequentialLoad
+        \key UniformLoad
+        \key UniformPLR
+        \key SequentialUniformPLR
+        \default SequentialLoad
+  A15, \field Pressure Simulation Type
+        \type choice
+        \key PumpPowerCorrection
+        \key LoopFlowCorrection
+        \key None
+        \default None
+   N6;  \field Loop Circulation Time
+        \note This field is only used to autocalulate the Condenser Loop Volume.
+        \note Loop Volume = Loop Circulation Time * Maximum Loop Flow Rate
+        \type real
+        \units minutes
+        \minimum 0.0
+        \default 2.0
+
+\group Plant-Condenser Control
+
+PlantEquipmentList,
+    \memo List plant equipment in order of operating priority, 1st in list will be used 1st, etc
+    \memo Use only plant equipment in this list.
+    \memo If no equipment object types and equipment names are specified, then the corresponding
+    \memo PlantEquipmentOperation:* object will assume all available plant equipment for the loop
+    \memo should be OFF (not operate) within the specified lower/upper limit.
+    \min-fields 1
+    \extensible:2
+  A1 , \field Name
+        \required-field
+        \reference PlantAndCondenserEquipmentLists
+  A2 , \field Equipment 1 Object Type
+       \begin-extensible
+       \type object-list
+       \object-list validPlantEquipmentTypes
+  A3 , \field Equipment 1 Name
+       \type object-list
+       \object-list validPlantEquipmentNames
+  A4 , \field Equipment 2 Object Type
+       \type object-list
+       \object-list validPlantEquipmentTypes
+  A5 , \field Equipment 2 Name
+       \type object-list
+       \object-list validPlantEquipmentNames
+  A6 , \field Equipment 3 Object Type
+       \type object-list
+       \object-list validPlantEquipmentTypes
+  A7 , \field Equipment 3 Name
+       \type object-list
+       \object-list validPlantEquipmentNames
+  A8 , \field Equipment 4 Object Type
+       \type object-list
+       \object-list validPlantEquipmentTypes
+  A9 , \field Equipment 4 Name
+       \type object-list
+       \object-list validPlantEquipmentNames
+  A10, \field Equipment 5 Object Type
+       \type object-list
+       \object-list validPlantEquipmentTypes
+  A11, \field Equipment 5 Name
+       \type object-list
+       \object-list validPlantEquipmentNames
+  A12, \field Equipment 6 Object Type
+       \type object-list
+       \object-list validPlantEquipmentTypes
+  A13, \field Equipment 6 Name
+       \type object-list
+       \object-list validPlantEquipmentNames
+  A14, \field Equipment 7 Object Type
+       \type object-list
+       \object-list validPlantEquipmentTypes
+  A15, \field Equipment 7 Name
+       \type object-list
+       \object-list validPlantEquipmentNames
+  A16, \field Equipment 8 Object Type
+       \type object-list
+       \object-list validPlantEquipmentTypes
+  A17, \field Equipment 8 Name
+       \type object-list
+       \object-list validPlantEquipmentNames
+  A18, \field Equipment 9 Object Type
+       \type object-list
+       \object-list validPlantEquipmentTypes
+  A19, \field Equipment 9 Name
+       \type object-list
+       \object-list validPlantEquipmentNames
+  A20, \field Equipment 10 Object Type
+       \type object-list
+       \object-list validPlantEquipmentTypes
+  A21; \field Equipment 10 Name
+       \type object-list
+       \object-list validPlantEquipmentNames
+
+
+
+CondenserEquipmentList,
+    \memo List condenser equipment in order of operating priority, 1st in list will be used 1st, etc
+    \memo Use only condenser equipment in this list.
+    \memo If no equipment object types and equipment names are specified, then the corresponding
+    \memo PlantEquipmentOperation:* object will assume all available condenser equipment for the loop
+    \memo should be OFF (not operate) within the specified lower/upper limit.
+    \min-fields 1
+    \extensible:2
+  A1 , \field Name
+        \required-field
+        \reference PlantAndCondenserEquipmentLists
+        \reference CondenserEquipmentLists
+  A2 , \field Equipment 1 Object Type
+       \begin-extensible
+       \type object-list
+       \object-list validCondenserEquipmentTypes
+  A3 , \field Equipment 1 Name
+       \type object-list
+       \object-list validCondenserEquipmentNames
+  A4 , \field Equipment 2 Object Type
+       \type object-list
+       \object-list validCondenserEquipmentTypes
+  A5 , \field Equipment 2 Name
+       \type object-list
+       \object-list validCondenserEquipmentNames
+  A6 , \field Equipment 3 Object Type
+       \type object-list
+       \object-list validCondenserEquipmentTypes
+  A7 , \field Equipment 3 Name
+       \type object-list
+       \object-list validCondenserEquipmentNames
+  A8 , \field Equipment 4 Object Type
+       \type object-list
+       \object-list validCondenserEquipmentTypes
+  A9 , \field Equipment 4 Name
+       \type object-list
+       \object-list validCondenserEquipmentNames
+  A10, \field Equipment 5 Object Type
+       \type object-list
+       \object-list validCondenserEquipmentTypes
+  A11, \field Equipment 5 Name
+       \type object-list
+       \object-list validCondenserEquipmentNames
+  A12, \field Equipment 6 Object Type
+       \type object-list
+       \object-list validCondenserEquipmentTypes
+  A13, \field Equipment 6 Name
+       \type object-list
+       \object-list validCondenserEquipmentNames
+  A14, \field Equipment 7 Object Type
+       \type object-list
+       \object-list validCondenserEquipmentTypes
+  A15, \field Equipment 7 Name
+       \type object-list
+       \object-list validCondenserEquipmentNames
+  A16, \field Equipment 8 Object Type
+       \type object-list
+       \object-list validCondenserEquipmentTypes
+  A17, \field Equipment 8 Name
+       \type object-list
+       \object-list validCondenserEquipmentNames
+  A18, \field Equipment 9 Object Type
+       \type object-list
+       \object-list validCondenserEquipmentTypes
+  A19, \field Equipment 9 Name
+       \type object-list
+       \object-list validCondenserEquipmentNames
+  A20, \field Equipment 10 Object Type
+       \type object-list
+       \object-list validCondenserEquipmentTypes
+  A21; \field Equipment 10 Name
+       \type object-list
+       \object-list validCondenserEquipmentNames
+
+!Plant Control Schemes:
+
+PlantEquipmentOperation:Uncontrolled,
+       \memo Plant equipment operation scheme for uncontrolled operation. Specifies a group of
+       \memo equipment that runs if the loop is active, unless turned off by the loop flow resolver
+       \memo to maintain continuity in the fluid loop.
+    \min-fields 2
+   A1 ,\field Name
+       \required-field
+       \type alpha
+       \reference ControlSchemeList
+   A2 ;\field Equipment List Name
+       \required-field
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+
+PlantEquipmentOperation:CoolingLoad,
+       \memo Plant equipment operation scheme for cooling load range operation. Specifies one or
+       \memo more groups of equipment which are available to operate for successive cooling load
+       \memo ranges.
+    \min-fields 4
+   A1 ,\field Name
+        \required-field
+        \reference ControlSchemeList
+   N1 ,\field Load Range 1 Lower Limit
+        \required-field
+       \type real
+       \units W
+       \minimum 0.0
+   N2 ,\field Load Range 1 Upper Limit
+        \required-field
+       \type real
+       \units W
+       \minimum 0.0
+   A2 ,\field Range 1 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N3 ,\field Load Range 2 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N4 ,\field Load Range 2 Upper Limit
+       \type real
+       \units W
+   A3 ,\field Range 2 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N5 ,\field Load Range 3 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N6 ,\field Load Range 3 Upper Limit
+       \type real
+       \units W
+       \minimum 0.0
+   A4 ,\field Range 3 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N7 ,\field Load Range 4 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N8 ,\field Load Range 4 Upper Limit
+       \type real
+       \units W
+       \minimum 0.0
+   A5 ,\field Range 4 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N9 ,\field Load Range 5 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N10,\field Load Range 5 Upper Limit
+       \type real
+       \units W
+       \minimum 0.0
+   A6 ,\field Range 5 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N11,\field Load Range 6 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N12,\field Load Range 6 Upper Limit
+       \type real
+       \units W
+       \minimum 0.0
+   A7 ,\field Range 6 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N13,\field Load Range 7 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N14,\field Load Range 7 Upper Limit
+       \type real
+       \units W
+       \minimum 0.0
+   A8 ,\field Range 7 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N15,\field Load Range 8 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N16,\field Load Range 8 Upper Limit
+       \type real
+       \units W
+       \minimum 0.0
+   A9 ,\field Range 8 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N17,\field Load Range 9 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N18,\field Load Range 9 Upper Limit
+       \type real
+       \units W
+       \minimum 0.0
+   A10,\field Range 9 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N19,\field Load Range 10 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N20,\field Load Range 10 Upper Limit
+       \type real
+       \units W
+       \minimum 0.0
+   A11;\field Range 10 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+
+PlantEquipmentOperation:HeatingLoad,
+       \memo Plant equipment operation scheme for heating load range operation. Specifies one or
+       \memo more groups of equipment which are available to operate for successive heating load
+       \memo ranges.
+    \min-fields 4
+   A1 ,\field Name
+        \required-field
+        \reference ControlSchemeList
+   N1 ,\field Load Range 1 Lower Limit
+        \required-field
+       \type real
+       \units W
+       \minimum 0.0
+   N2 ,\field Load Range 1 Upper Limit
+        \required-field
+       \type real
+       \units W
+       \minimum 0.0
+   A2 ,\field Range 1 Equipment List Name
+        \required-field
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N3 ,\field Load Range 2 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N4 ,\field Load Range 2 Upper Limit
+       \type real
+       \units W
+       \minimum 0.0
+   A3 ,\field Range 2 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N5 ,\field Load Range 3 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N6 ,\field Load Range 3 Upper Limit
+       \type real
+       \units W
+       \minimum 0.0
+   A4 ,\field Range 3 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N7 ,\field Load Range 4 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N8 ,\field Load Range 4 Upper Limit
+       \type real
+       \units W
+       \minimum 0.0
+   A5 ,\field Range 4 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N9 ,\field Load Range 5 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N10,\field Load Range 5 Upper Limit
+       \type real
+       \units W
+       \minimum 0.0
+   A6 ,\field Range 5 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N11,\field Load Range 6 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N12,\field Load Range 6 Upper Limit
+       \type real
+       \units W
+       \minimum 0.0
+   A7 ,\field Range 6 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N13,\field Load Range 7 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N14,\field Load Range 7 Upper Limit
+       \type real
+       \units W
+       \minimum 0.0
+   A8 ,\field Range 7 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N15,\field Load Range 8 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N16,\field Load Range 8 Upper Limit
+       \type real
+       \units W
+       \minimum 0.0
+   A9 ,\field Range 8 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N17,\field Load Range 9 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N18,\field Load Range 9 Upper Limit
+       \type real
+       \units W
+       \minimum 0.0
+   A10,\field Range 9 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N19,\field Load Range 10 Lower Limit
+       \type real
+       \units W
+       \minimum 0.0
+   N20,\field Load Range 10 Upper Limit
+       \type real
+       \units W
+       \minimum 0.0
+   A11;\field Range 10 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+
+PlantEquipmentOperation:OutdoorDryBulb,
+       \memo Plant equipment operation scheme for outdoor dry-bulb temperature range operation.
+       \memo Specifies one or more groups of equipment which are available to operate for
+       \memo successive outdoor dry-bulb temperature ranges.
+    \min-fields 4
+   A1 ,\field Name
+        \required-field
+        \reference ControlSchemeList
+   N1 ,\field Dry-Bulb Temperature Range 1 Lower Limit
+        \required-field
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N2 ,\field Dry-Bulb Temperature Range 1 Upper Limit
+        \required-field
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A2 ,\field Range 1 Equipment List Name
+        \required-field
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N3 ,\field Dry-Bulb Temperature Range 2 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N4 ,\field Dry-Bulb Temperature Range 2 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A3 ,\field Range 2 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N5 ,\field Dry-Bulb Temperature Range 3 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N6 ,\field Dry-Bulb Temperature Range 3 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A4 ,\field Range 3 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N7 ,\field Dry-Bulb Temperature Range 4 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N8 ,\field Dry-Bulb Temperature Range 4 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A5 ,\field Range 4 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N9 ,\field Dry-Bulb Temperature Range 5 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N10,\field Dry-Bulb Temperature Range 5 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A6 ,\field Range 5 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N11,\field Dry-Bulb Temperature Range 6 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N12,\field Dry-Bulb Temperature Range 6 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A7 ,\field Range 6 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N13,\field Dry-Bulb Temperature Range 7 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N14,\field Dry-Bulb Temperature Range 7 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A8 ,\field Range 7 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N15,\field Dry-Bulb Temperature Range 8 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N16,\field Dry-Bulb Temperature Range 8 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A9 ,\field Range 8 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N17,\field Dry-Bulb Temperature Range 9 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N18,\field Dry-Bulb Temperature Range 9 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A10,\field Range 9 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N19,\field Dry-Bulb Temperature Range 10 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N20,\field Dry-Bulb Temperature Range 10 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A11;\field Range 10 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+
+PlantEquipmentOperation:OutdoorWetBulb,
+       \memo Plant equipment operation scheme for outdoor wet-bulb temperature range operation.
+       \memo Specifies one or more groups of equipment which are available to operate for
+       \memo successive outdoor wet-bulb temperature ranges.
+    \min-fields 4
+   A1 ,\field Name
+        \required-field
+        \reference ControlSchemeList
+   N1 ,\field Wet-Bulb Temperature Range 1 Lower Limit
+        \required-field
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N2 ,\field Wet-Bulb Temperature Range 1 Upper Limit
+        \required-field
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A2 ,\field Range 1 Equipment List Name
+        \required-field
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N3 ,\field Wet-Bulb Temperature Range 2 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N4 ,\field Wet-Bulb Temperature Range 2 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A3 ,\field Range 2 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N5 ,\field Wet-Bulb Temperature Range 3 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N6 ,\field Wet-Bulb Temperature Range 3 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A4 ,\field Range 3 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N7 ,\field Wet-Bulb Temperature Range 4 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N8 ,\field Wet-Bulb Temperature Range 4 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A5 ,\field Range 4 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N9 ,\field Wet-Bulb Temperature Range 5 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N10,\field Wet-Bulb Temperature Range 5 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A6 ,\field Range 5 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N11,\field Wet-Bulb Temperature Range 6 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N12,\field Wet-Bulb Temperature Range 6 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A7 ,\field Range 6 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N13,\field Wet-Bulb Temperature Range 7 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N14,\field Wet-Bulb Temperature Range 7 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A8 ,\field Range 7 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N15,\field Wet-Bulb Temperature Range 8 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N16,\field Wet-Bulb Temperature Range 8 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A9 ,\field Range 8 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N17,\field Wet-Bulb Temperature Range 9 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N18,\field Wet-Bulb Temperature Range 9 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A10,\field Range 9 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N19,\field Wet-Bulb Temperature Range 10 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N20,\field Wet-Bulb Temperature Range 10 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A11;\field Range 10 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+
+PlantEquipmentOperation:OutdoorRelativeHumidity,
+       \memo Plant equipment operation scheme for outdoor relative humidity range operation.
+       \memo Specifies one or more groups of equipment which are available to operate for
+       \memo successive outdoor relative humidity ranges.
+    \min-fields 4
+   A1 ,\field Name
+        \required-field
+        \reference ControlSchemeList
+   N1 ,\field Relative Humidity Range 1 Lower Limit
+        \required-field
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   N2 ,\field Relative Humidity Range 1 Upper Limit
+        \required-field
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   A2 ,\field Range 1 Equipment List Name
+        \required-field
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N3 ,\field Relative Humidity Range 2 Lower Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   N4 ,\field Relative Humidity Range 2 Upper Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   A3 ,\field Range 2 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N5 ,\field Relative Humidity Range 3 Lower Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   N6 ,\field Relative Humidity Range 3 Upper Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   A4 ,\field Range 3 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N7 ,\field Relative Humidity Range 4 Lower Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   N8 ,\field Relative Humidity Range 4 Upper Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   A5 ,\field Range 4 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N9 ,\field Relative Humidity Range 5 Lower Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   N10,\field Relative Humidity Range 5 Upper Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   A6 ,\field Range 5 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N11,\field Relative Humidity Range 6 Lower Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   N12,\field Relative Humidity Range 6 Upper Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   A7 ,\field Range 6 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N13,\field Relative Humidity Range 7 Lower Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   N14,\field Relative Humidity Range 7 Upper Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   A8 ,\field Range 7 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N15,\field Relative Humidity Range 8 Lower Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   N16,\field Relative Humidity Range 8 Upper Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   A9 ,\field Range 8 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N17,\field Relative Humidity Range 9 Lower Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   N18,\field Relative Humidity Range 9 Upper Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   A10,\field Range 9 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N19,\field Relative Humidity Range 10 Lower Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   N20,\field Relative Humidity Range 10 Upper Limit
+       \type real
+       \units percent
+       \minimum 0.0
+       \maximum 100.0
+   A11;\field Range 10 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+
+PlantEquipmentOperation:OutdoorDewpoint,
+       \memo Plant equipment operation scheme for outdoor dewpoint temperature range operation.
+       \memo Specifies one or more groups of equipment which are available to operate for
+       \memo successive outdoor dewpoint temperature ranges.
+    \min-fields 4
+   A1 ,\field Name
+        \required-field
+        \reference ControlSchemeList
+   N1 ,\field Dewpoint Temperature Range 1 Lower Limit
+        \required-field
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N2 ,\field Dewpoint Temperature Range 1 Upper Limit
+        \required-field
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A2 ,\field Range 1 Equipment List Name
+        \required-field
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N3 ,\field Dewpoint Temperature Range 2 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N4 ,\field Dewpoint Temperature Range 2 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A3 ,\field Range 2 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N5 ,\field Dewpoint Temperature Range 3 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N6 ,\field Dewpoint Temperature Range 3 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A4 ,\field Range 3 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N7 ,\field Dewpoint Temperature Range 4 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N8 ,\field Dewpoint Temperature Range 4 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A5 ,\field Range 4 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N9 ,\field Dewpoint Temperature Range 5 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N10,\field Dewpoint Temperature Range 5 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A6 ,\field Range 5 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N11,\field Dewpoint Temperature Range 6 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N12,\field Dewpoint Temperature Range 6 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A7 ,\field Range 6 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N13,\field Dewpoint Temperature Range 7 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N14,\field Dewpoint Temperature Range 7 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A8 ,\field Range 7 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N15,\field Dewpoint Temperature Range 8 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N16,\field Dewpoint Temperature Range 8 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A9 ,\field Range 8 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N17,\field Dewpoint Temperature Range 9 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N18,\field Dewpoint Temperature Range 9 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A10,\field Range 9 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+   N19,\field Dewpoint Temperature Range 10 Lower Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   N20,\field Dewpoint Temperature Range 10 Upper Limit
+       \type real
+       \units C
+       \minimum -70
+       \maximum 70
+   A11;\field Range 10 Equipment List Name
+        \type object-list
+        \object-list PlantAndCondenserEquipmentLists
+
+PlantEquipmentOperation:ComponentSetpoint,
+       \memo Plant equipment operation scheme for component setpoint operation. Specifies one or
+       \memo pieces of equipment which are controlled to meet the temperature setpoint at the
+       \memo component outlet node.
+    \min-fields 7
+   A1, \field Name
+       \required-field
+       \reference ControlSchemeList
+   A2, \field Equipment 1 Object Type
+       \required-field
+       \type alpha
+   A3, \field Equipment 1 Name
+       \required-field
+       \type alpha
+   A4, \field Demand Calculation 1 Node Name
+       \required-field
+       \type node
+   A5, \field Setpoint 1 Node Name
+       \required-field
+       \type node
+   N1, \field Component 1 Flow Rate
+       \required-field
+       \type real
+       \units m3/s
+       \autosizable
+   A6, \field Operation 1 Type
+       \required-field
+       \type choice
+       \key Heating
+       \key Cooling
+       \key Dual
+   A7, \field Equipment 2 Object Type
+       \type alpha
+   A8, \field Equipment 2 Name
+       \type alpha
+   A9, \field Demand Calculation 2 Node Name
+       \type node
+   A10, \field Setpoint 2 Node Name
+        \type node
+   N2, \field Component 2 Flow Rate
+       \type real
+       \units m3/s
+       \autosizable
+   A11,\field Operation 2 Type
+       \type choice
+       \key Heating
+       \key Cooling
+       \key Dual
+   A12, \field Equipment 3 Object Type
+       \type alpha
+   A13, \field Equipment 3 Name
+       \type alpha
+   A14, \field Demand Calculation 3 Node Name
+        \type node
+   A15, \field Setpoint 3 Node Name
+        \type node
+   N3, \field Component 3 Flow Rate
+       \type real
+       \units m3/s
+       \autosizable
+   A16, \field Operation 3 Type
+       \type choice
+       \key Heating
+       \key Cooling
+       \key Dual
+   A17, \field Equipment 4 Object Type
+       \type alpha
+   A18, \field Equipment 4 Name
+       \type alpha
+   A19,\field Demand Calculation 4 Node Name
+       \type node
+   A20,\field Setpoint 4 Node Name
+       \type node
+   N4, \field Component 4 Flow Rate
+       \type real
+       \units m3/s
+       \autosizable
+   A21, \field Operation 4 Type
+       \type choice
+       \key Heating
+       \key Cooling
+       \key Dual
+   A22, \field Equipment 5 Object Type
+       \type alpha
+   A23, \field Equipment 5 Name
+       \type alpha
+   A24,\field Demand Calculation 5 Node Name
+       \type node
+   A25,\field Setpoint 5 Node Name
+       \type node
+   N5, \field Component 5 Flow Rate
+       \type real
+       \units m3/s
+       \autosizable
+   A26, \field Operation 5 Type
+       \type choice
+       \key Heating
+       \key Cooling
+       \key Dual
+   A27, \field Equipment 6 Object Type
+       \type alpha
+   A28, \field Equipment 6 Name
+       \type alpha
+   A29,\field Demand Calculation 6 Node Name
+       \type node
+   A30,\field Setpoint 6 Node Name
+       \type node
+   N6, \field Component 6 Flow Rate
+       \type real
+       \units m3/s
+       \autosizable
+   A31, \field Operation 6 Type
+       \type choice
+       \key Heating
+       \key Cooling
+       \key Dual
+   A32, \field Equipment 7 Object Type
+       \type alpha
+   A33, \field Equipment 7 Name
+       \type alpha
+   A34,\field Demand Calculation 7 Node Name
+       \type node
+   A35,\field Setpoint 7 Node Name
+       \type node
+   N7, \field Component 7 Flow Rate
+       \type real
+       \units m3/s
+       \autosizable
+   A36, \field Operation 7 Type
+       \type choice
+       \key Heating
+       \key Cooling
+       \key Dual
+   A37, \field Equipment 8 Object Type
+       \type alpha
+   A38, \field Equipment 8 Name
+       \type alpha
+   A39,\field Demand Calculation 8 Node Name
+       \type node
+   A40,\field Setpoint 8 Node Name
+       \type node
+   N8, \field Component 8 Flow Rate
+       \type real
+       \units m3/s
+       \autosizable
+   A41, \field Operation 8 Type
+       \type choice
+       \key Heating
+       \key Cooling
+       \key Dual
+   A42, \field Equipment 9 Object Type
+       \type alpha
+   A43, \field Equipment 9 Name
+       \type alpha
+   A44,\field Demand Calculation 9 Node Name
+       \type node
+   A45,\field Setpoint 9 Node Name
+       \type node
+   N9, \field Component 9 Flow Rate
+       \type real
+       \units m3/s
+       \autosizable
+   A46, \field Operation 9 Type
+       \type choice
+       \key Heating
+       \key Cooling
+       \key Dual
+   A47, \field Equipment 10 Object Type
+       \type alpha
+   A48, \field Equipment 10 Name
+       \type alpha
+   A49,\field Demand Calculation 10 Node Name
+       \type node
+   A50,\field Setpoint 10 Node Name
+       \type node
+   N10, \field Component 10 Flow Rate
+       \type real
+       \units m3/s
+       \autosizable
+   A51; \field Operation 10 Type
+       \type choice
+       \key Heating
+       \key Cooling
+       \key Dual
+
+PlantEquipmentOperation:ThermalEnergyStorage,
+       \memo Plant equipment operation scheme for simpler input to control thermal (ice)
+       \memo energy storage systems. It replaces a host of setpoint managers with simple,
+       \memo single input values. For more complex controls, use the ComponentSetpoint
+       \memo scheme.
+       \min-fields 7
+   A1, \field Name
+       \required-field
+       \reference ControlSchemeList
+   A2, \field On-Peak Schedule
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+   A3, \field Charging Availability Schedule
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+   N1, \field Non-Charging Chilled Water Temperature
+       \note Single temperature for chiller outlet when not in cooling season
+       \note or during on-peak cooling (discharge)
+       \required-field
+       \type real
+       \units C
+   N2, \field Charging Chilled Water Temperature
+       \note Single temperature for chiller outlet when off-peak during cooling
+       \note season (charging)
+       \required-field
+       \type real
+       \units C
+   A4, \field Component 1 Object Type
+       \note This field is the type of object and should either be a chiller or some
+       \note ice storage equipment.
+       \required-field
+       \type choice
+       \key ThermalStorage:Ice:Simple
+       \key ThermalStorage:Ice:Detailed
+       \key Chiller:Electric:EIR
+       \key Chiller:Electric:ReformulatedEIR
+       \key Chiller:Electric
+       \key Chiller:Absorption:Indirect
+       \key Chiller:Absorption
+       \key Chiller:ConstantCOP
+       \key Chiller:EngineDriven
+       \key Chiller:CombustionTurbine
+   A5, \field Component 1 Name
+       \note This field is the name of either the chiller or ice storage equipment
+       \note on the loop.
+       \required-field
+       \type object-list
+       \object-list IceThermalStorageEquipment
+       \object-list Chillers
+   A6, \field Component 1 Demand Calculation Node Name
+       \note This field is the name of the inlet node for the component defined in
+       \note the two previous input fields.
+       \required-field
+       \type node
+   A7, \field Component 1 Setpoint Node Name
+       \note This field is the name of the outlet node for the component listed above.
+       \required-field
+       \type node
+   N3, \field Component 1 Flow Rate
+       \note This field is the flow rate for the component listed above.
+       \required-field
+       \type real
+       \units m3/s
+       \autosizable
+   A8, \field Component 1 Operation Type
+       \note This field is the operation type for the component listed above. For this
+       \note plant equipment operation scheme, "Cooling" should be selected for chiller
+       \note equipment while ice storage equipment should be defined as "Dual".
+       \required-field
+       \type choice
+       \key Heating
+       \key Cooling
+       \key Dual
+   A9, \field Component 2 Object Type
+       \type choice
+       \key ThermalStorage:Ice:Simple
+       \key ThermalStorage:Ice:Detailed
+       \key Chiller:Electric:EIR
+       \key Chiller:Electric:ReformulatedEIR
+       \key Chiller:Electric
+       \key Chiller:Absorption:Indirect
+       \key Chiller:Absorption
+       \key Chiller:ConstantCOP
+       \key Chiller:EngineDriven
+       \key Chiller:CombustionTurbine
+   A10, \field Component 2 Name
+        \type object-list
+        \object-list IceThermalStorageEquipment
+        \object-list Chillers
+   A11, \field Component 2 Demand Calculation Node Name
+        \type node
+   A12, \field Component 2 Setpoint Node Name
+        \type node
+   N4,  \field Component 2 Flow Rate
+        \type real
+        \units m3/s
+        \autosizable
+   A13, \field Component 2 Operation Type
+        \type choice
+        \key Heating
+        \key Cooling
+        \key Dual
+   A14, \field Component 3 Object Type
+        \type choice
+        \key ThermalStorage:Ice:Simple
+        \key ThermalStorage:Ice:Detailed
+        \key Chiller:Electric:EIR
+        \key Chiller:Electric:ReformulatedEIR
+        \key Chiller:Electric
+        \key Chiller:Absorption:Indirect
+        \key Chiller:Absorption
+        \key Chiller:ConstantCOP
+        \key Chiller:EngineDriven
+        \key Chiller:CombustionTurbine
+   A15, \field Component 3 Name
+        \type object-list
+        \object-list IceThermalStorageEquipment
+        \object-list Chillers
+   A16, \field Component 3 Demand Calculation Node Name
+        \type node
+   A17, \field Component 3 Setpoint Node Name
+        \type node
+   N5,  \field Component 3 Flow Rate
+        \type real
+        \units m3/s
+        \autosizable
+   A18, \field Component 3 Operation Type
+        \type choice
+        \key Heating
+        \key Cooling
+        \key Dual
+   A19, \field Component 4 Object Type
+        \type choice
+        \key ThermalStorage:Ice:Simple
+        \key ThermalStorage:Ice:Detailed
+        \key Chiller:Electric:EIR
+        \key Chiller:Electric:ReformulatedEIR
+        \key Chiller:Electric
+        \key Chiller:Absorption:Indirect
+        \key Chiller:Absorption
+        \key Chiller:ConstantCOP
+        \key Chiller:EngineDriven
+        \key Chiller:CombustionTurbine
+   A20, \field Component 4 Name
+        \type object-list
+        \object-list IceThermalStorageEquipment
+        \object-list Chillers
+   A21, \field Component 4 Demand Calculation Node Name
+        \type node
+   A22, \field Component 4 Setpoint Node Name
+        \type node
+   N6,  \field Component 4 Flow Rate
+        \type real
+        \units m3/s
+        \autosizable
+   A23, \field Component 4 Operation Type
+        \type choice
+        \key Heating
+        \key Cooling
+        \key Dual
+   A24, \field Component 5 Object Type
+        \type choice
+        \key ThermalStorage:Ice:Simple
+        \key ThermalStorage:Ice:Detailed
+        \key Chiller:Electric:EIR
+        \key Chiller:Electric:ReformulatedEIR
+        \key Chiller:Electric
+        \key Chiller:Absorption:Indirect
+        \key Chiller:Absorption
+        \key Chiller:ConstantCOP
+        \key Chiller:EngineDriven
+        \key Chiller:CombustionTurbine
+   A25, \field Component 5 Name
+        \type object-list
+        \object-list IceThermalStorageEquipment
+        \object-list Chillers
+   A26, \field Component 5 Demand Calculation Node Name
+        \type node
+   A27, \field Component 5 Setpoint Node Name
+        \type node
+   N7,  \field Component 5 Flow Rate
+        \type real
+        \units m3/s
+        \autosizable
+   A28, \field Component 5 Operation Type
+        \type choice
+        \key Heating
+        \key Cooling
+        \key Dual
+   A29, \field Component 6 Object Type
+        \type choice
+        \key ThermalStorage:Ice:Simple
+        \key ThermalStorage:Ice:Detailed
+        \key Chiller:Electric:EIR
+        \key Chiller:Electric:ReformulatedEIR
+        \key Chiller:Electric
+        \key Chiller:Absorption:Indirect
+        \key Chiller:Absorption
+        \key Chiller:ConstantCOP
+        \key Chiller:EngineDriven
+        \key Chiller:CombustionTurbine
+   A30, \field Component 6 Name
+        \type object-list
+        \object-list IceThermalStorageEquipment
+        \object-list Chillers
+   A31, \field Component 6 Demand Calculation Node Name
+        \type node
+   A32, \field Component 6 Setpoint Node Name
+        \type node
+   N8,  \field Component 6 Flow Rate
+        \type real
+        \units m3/s
+        \autosizable
+   A33, \field Component 6 Operation Type
+        \type choice
+        \key Heating
+        \key Cooling
+        \key Dual
+   A34, \field Component 7 Object Type
+        \type choice
+        \key ThermalStorage:Ice:Simple
+        \key ThermalStorage:Ice:Detailed
+        \key Chiller:Electric:EIR
+        \key Chiller:Electric:ReformulatedEIR
+        \key Chiller:Electric
+        \key Chiller:Absorption:Indirect
+        \key Chiller:Absorption
+        \key Chiller:ConstantCOP
+        \key Chiller:EngineDriven
+        \key Chiller:CombustionTurbine
+   A35, \field Component 7 Name
+        \type object-list
+        \object-list IceThermalStorageEquipment
+        \object-list Chillers
+   A36, \field Component 7 Demand Calculation Node Name
+        \type node
+   A37, \field Component 7 Setpoint Node Name
+        \type node
+   N9,  \field Component 7 Flow Rate
+        \type real
+        \units m3/s
+        \autosizable
+   A38, \field Component 7 Operation Type
+        \type choice
+        \key Heating
+        \key Cooling
+        \key Dual
+   A39, \field Component 8 Object Type
+        \type choice
+        \key ThermalStorage:Ice:Simple
+        \key ThermalStorage:Ice:Detailed
+        \key Chiller:Electric:EIR
+        \key Chiller:Electric:ReformulatedEIR
+        \key Chiller:Electric
+        \key Chiller:Absorption:Indirect
+        \key Chiller:Absorption
+        \key Chiller:ConstantCOP
+        \key Chiller:EngineDriven
+        \key Chiller:CombustionTurbine
+   A40, \field Component 8 Name
+        \type object-list
+        \object-list IceThermalStorageEquipment
+        \object-list Chillers
+   A41, \field Component 8 Demand Calculation Node Name
+        \type node
+   A42, \field Component 8 Setpoint Node Name
+        \type node
+   N10, \field Component 8 Flow Rate
+        \type real
+        \units m3/s
+        \autosizable
+   A43, \field Component 8 Operation Type
+        \type choice
+        \key Heating
+        \key Cooling
+        \key Dual
+   A44, \field Component 9 Object Type
+        \type choice
+        \key ThermalStorage:Ice:Simple
+        \key ThermalStorage:Ice:Detailed
+        \key Chiller:Electric:EIR
+        \key Chiller:Electric:ReformulatedEIR
+        \key Chiller:Electric
+        \key Chiller:Absorption:Indirect
+        \key Chiller:Absorption
+        \key Chiller:ConstantCOP
+        \key Chiller:EngineDriven
+        \key Chiller:CombustionTurbine
+   A45, \field Component 9 Name
+        \type object-list
+        \object-list IceThermalStorageEquipment
+        \object-list Chillers
+   A46, \field Component 9 Demand Calculation Node Name
+        \type node
+   A47, \field Component 9 Setpoint Node Name
+        \type node
+   N11, \field Component 9 Flow Rate
+        \type real
+        \units m3/s
+        \autosizable
+   A48, \field Component 9 Operation Type
+        \type choice
+        \key Heating
+        \key Cooling
+        \key Dual
+   A49, \field Component 10 Object Type
+        \type choice
+        \key ThermalStorage:Ice:Simple
+        \key ThermalStorage:Ice:Detailed
+        \key Chiller:Electric:EIR
+        \key Chiller:Electric:ReformulatedEIR
+        \key Chiller:Electric
+        \key Chiller:Absorption:Indirect
+        \key Chiller:Absorption
+        \key Chiller:ConstantCOP
+        \key Chiller:EngineDriven
+        \key Chiller:CombustionTurbine
+   A50, \field Component 10 Name
+        \type object-list
+        \object-list IceThermalStorageEquipment
+        \object-list Chillers
+   A51, \field Component 10 Demand Calculation Node Name
+        \type node
+   A52, \field Component 10 Setpoint Node Name
+        \type node
+   N12, \field Component 10 Flow Rate
+        \type real
+        \units m3/s
+        \autosizable
+   A53; \field Component 10 Operation Type
+        \type choice
+        \key Heating
+        \key Cooling
+        \key Dual
+
+PlantEquipmentOperation:OutdoorDryBulbDifference,
+       \memo Plant equipment operation scheme for outdoor dry-bulb temperature difference
+       \memo operation. Specifies one or more groups of equipment which are available to operate
+       \memo for successive ranges based the difference between a reference node temperature and
+       \memo the outdoor dry-bulb temperature.
+    \min-fields 5
+   A1 ,\field Name
+        \required-field
+        \reference ControlSchemeList
+   A2 ,\field Reference Temperature Node Name
+       \required-field
+       \type node
+   N1,\field Dry-Bulb Temperature Difference Range 1 Lower Limit
+       \required-field
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N2,\field Dry-Bulb Temperature Difference Range 1 Upper Limit
+       \required-field
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A3 ,\field Range 1 Equipment List Name
+       \required-field
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N3,\field Dry-Bulb Temperature Difference Range 2 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N4,\field Dry-Bulb Temperature Difference Range 2 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A4 ,\field Range 2 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N5,\field Dry-Bulb Temperature Difference Range 3 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N6,\field Dry-Bulb Temperature Difference Range 3 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A5 ,\field Range 3 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N7,\field Dry-Bulb Temperature Difference Range 4 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N8,\field Dry-Bulb Temperature Difference Range 4 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A6,\field Range 4 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N9,\field Dry-Bulb Temperature Difference Range 5 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N10,\field Dry-Bulb Temperature Difference Range 5 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A7,\field Range 5 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N11,\field Dry-Bulb Temperature Difference Range 6 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N12,\field Dry-Bulb Temperature Difference Range 6 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A8,\field Range 6 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N13,\field Dry-Bulb Temperature Difference Range 7 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N14,\field Dry-Bulb Temperature Difference Range 7 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A9,\field Range 7 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N15,\field Dry-Bulb Temperature Difference Range 8 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N16,\field Dry-Bulb Temperature Difference Range 8 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A10,\field Range 8 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N17,\field Dry-Bulb Temperature Difference Range 9 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N18,\field Dry-Bulb Temperature Difference Range 9 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A11,\field Range 9 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N19,\field Dry-Bulb Temperature Difference Range 10 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N20,\field Dry-Bulb Temperature Difference Range 10 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A12;\field Range 10 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+
+PlantEquipmentOperation:OutdoorWetBulbDifference,
+       \memo Plant equipment operation scheme for outdoor wet-bulb temperature difference
+       \memo operation. Specifies one or more groups of equipment which are available to operate
+       \memo for successive ranges based the difference between a reference node temperature and
+       \memo the outdoor wet-bulb temperature.
+    \min-fields 5
+   A1 ,\field Name
+        \required-field
+        \reference ControlSchemeList
+   A2 ,\field Reference Temperature Node Name
+       \required-field
+       \type node
+   N1,\field Wet-Bulb Temperature Difference Range 1 Lower Limit
+       \required-field
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N2,\field Wet-Bulb Temperature Difference Range 1 Upper Limit
+       \required-field
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A3 ,\field Range 1 Equipment List Name
+       \required-field
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N3,\field Wet-Bulb Temperature Difference Range 2 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N4,\field Wet-Bulb Temperature Difference Range 2 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A4 ,\field Range 2 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N5,\field Wet-Bulb Temperature Difference Range 3 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N6,\field Wet-Bulb Temperature Difference Range 3 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A5 ,\field Range 3 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N7,\field Wet-Bulb Temperature Difference Range 4 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N8,\field Wet-Bulb Temperature Difference Range 4 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A6, \field Range 4 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N9,\field Wet-Bulb Temperature Difference Range 5 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N10,\field Wet-Bulb Temperature Difference Range 5 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A7, \field Range 5 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N11,\field Wet-Bulb Temperature Difference Range 6 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N12,\field Wet-Bulb Temperature Difference Range 6 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A8, \field Range 6 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N13,\field Wet-Bulb Temperature Difference Range 7 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N14,\field Wet-Bulb Temperature Difference Range 7 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A9, \field Range 7 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N15,\field Wet-Bulb Temperature Difference Range 8 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N16,\field Wet-Bulb Temperature Difference Range 8 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A10,\field Range 8 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N17,\field Wet-Bulb Temperature Difference Range 9 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N18,\field Wet-Bulb Temperature Difference Range 9 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A11,\field Range 9 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N19,\field Wet-Bulb Temperature Difference Range 10 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N20,\field Wet-Bulb Temperature Difference Range 10 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A12;\field Range 10 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+
+PlantEquipmentOperation:OutdoorDewpointDifference,
+       \memo Plant equipment operation scheme for outdoor dewpoint temperature difference
+       \memo operation. Specifies one or more groups of equipment which are available to operate
+       \memo for successive ranges based the difference between a reference node temperature and
+       \memo the outdoor dewpoint temperature.
+    \min-fields 5
+   A1 ,\field Name
+        \required-field
+        \reference ControlSchemeList
+   A2 ,\field Reference Temperature Node Name
+       \required-field
+       \type node
+   N1,\field Dewpoint Temperature Difference Range 1 Lower Limit
+       \required-field
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N2,\field Dewpoint Temperature Difference Range 1 Upper Limit
+       \required-field
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A3 ,\field Range 1 Equipment List Name
+       \required-field
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N3,\field Dewpoint Temperature Difference Range 2 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N4,\field Dewpoint Temperature Difference Range 2 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A4 ,\field Range 2 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N5,\field Dewpoint Temperature Difference Range 3 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N6,\field Dewpoint Temperature Difference Range 3 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A5 ,\field Range 3 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N7,\field Dewpoint Temperature Difference Range 4 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N8,\field Dewpoint Temperature Difference Range 4 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A6, \field Range 4 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N9,\field Dewpoint Temperature Difference Range 5 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N10,\field Dewpoint Temperature Difference Range 5 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A7, \field Range 5 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N11,\field Dewpoint Temperature Difference Range 6 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N12,\field Dewpoint Temperature Difference Range 6 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A8, \field Range 6 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N13,\field Dewpoint Temperature Difference Range 7 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N14,\field Dewpoint Temperature Difference Range 7 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A9, \field Range 7 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N15,\field Dewpoint Temperature Difference Range 8 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N16,\field Dewpoint Temperature Difference Range 8 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A10,\field Range 8 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N17,\field Dewpoint Temperature Difference Range 9 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N18,\field Dewpoint Temperature Difference Range 9 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A11,\field Range 9 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+   N19,\field Dewpoint Temperature Difference Range 10 Lower Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   N20,\field Dewpoint Temperature Difference Range 10 Upper Limit
+       \type real
+       \units deltaC
+       \minimum -50.0
+       \maximum 100.0
+   A12;\field Range 10 Equipment List Name
+       \type object-list
+       \object-list PlantAndCondenserEquipmentLists
+
+PlantEquipmentOperationSchemes,
+       \memo Operation schemes are listed in "priority" order. Note that each scheme
+       \memo must address the entire load and/or condition ranges for the simulation.
+       \memo The actual one selected for use will be the first that is "Scheduled"
+       \memo on. That is, if control scheme 1 is not "on" and control scheme 2
+       \memo is -- then control scheme 2 is selected.
+       \memo Only plant equipment should be listed on a Control Scheme for this item.
+       \min-fields 4
+  A1 , \field Name
+        \required-field
+       \reference PlantOperationSchemes
+  A2 , \field Control Scheme 1 Object Type
+        \required-field
+       \type choice
+       \key PlantEquipmentOperation:CoolingLoad
+       \key PlantEquipmentOperation:HeatingLoad
+       \key PlantEquipmentOperation:Uncontrolled
+       \key PlantEquipmentOperation:ComponentSetpoint
+       \key PlantEquipmentOperation:ThermalEnergyStorage
+       \key PlantEquipmentOperation:UserDefined
+       \key PlantEquipmentOperation:OutdoorDryBulb
+       \key PlantEquipmentOperation:OutdoorWetBulb
+       \key PlantEquipmentOperation:OutdoorRelativeHumidity
+       \key PlantEquipmentOperation:OutdoorDewpoint
+       \key PlantEquipmentOperation:OutdoorDryBulbDifference
+       \key PlantEquipmentOperation:OutdoorWetBulbDifference
+       \key PlantEquipmentOperation:OutdoorDewpointDifference
+  A3 , \field Control Scheme 1 Name
+       \required-field
+       \type object-list
+       \object-list ControlSchemeList
+  A4 , \field Control Scheme 1 Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A5 , \field Control Scheme 2 Object Type
+       \type choice
+       \key PlantEquipmentOperation:CoolingLoad
+       \key PlantEquipmentOperation:HeatingLoad
+       \key PlantEquipmentOperation:Uncontrolled
+       \key PlantEquipmentOperation:ComponentSetpoint
+       \key PlantEquipmentOperation:ThermalEnergyStorage
+       \key PlantEquipmentOperation:UserDefined
+       \key PlantEquipmentOperation:OutdoorDryBulb
+       \key PlantEquipmentOperation:OutdoorWetBulb
+       \key PlantEquipmentOperation:OutdoorRelativeHumidity
+       \key PlantEquipmentOperation:OutdoorDewpoint
+       \key PlantEquipmentOperation:OutdoorDryBulbDifference
+       \key PlantEquipmentOperation:OutdoorWetBulbDifference
+       \key PlantEquipmentOperation:OutdoorDewpointDifference
+  A6 , \field Control Scheme 2 Name
+       \type object-list
+       \object-list ControlSchemeList
+  A7 , \field Control Scheme 2 Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A8 , \field Control Scheme 3 Object Type
+       \type choice
+       \key PlantEquipmentOperation:CoolingLoad
+       \key PlantEquipmentOperation:HeatingLoad
+       \key PlantEquipmentOperation:Uncontrolled
+       \key PlantEquipmentOperation:ComponentSetpoint
+       \key PlantEquipmentOperation:ThermalEnergyStorage
+       \key PlantEquipmentOperation:UserDefined
+       \key PlantEquipmentOperation:OutdoorDryBulb
+       \key PlantEquipmentOperation:OutdoorWetBulb
+       \key PlantEquipmentOperation:OutdoorRelativeHumidity
+       \key PlantEquipmentOperation:OutdoorDewpoint
+       \key PlantEquipmentOperation:OutdoorDryBulbDifference
+       \key PlantEquipmentOperation:OutdoorWetBulbDifference
+       \key PlantEquipmentOperation:OutdoorDewpointDifference
+  A9 , \field Control Scheme 3 Name
+       \type object-list
+       \object-list ControlSchemeList
+  A10, \field Control Scheme 3 Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A11, \field Control Scheme 4 Object Type
+       \type choice
+       \key PlantEquipmentOperation:CoolingLoad
+       \key PlantEquipmentOperation:HeatingLoad
+       \key PlantEquipmentOperation:Uncontrolled
+       \key PlantEquipmentOperation:ComponentSetpoint
+       \key PlantEquipmentOperation:ThermalEnergyStorage
+       \key PlantEquipmentOperation:UserDefined
+       \key PlantEquipmentOperation:OutdoorDryBulb
+       \key PlantEquipmentOperation:OutdoorWetBulb
+       \key PlantEquipmentOperation:OutdoorRelativeHumidity
+       \key PlantEquipmentOperation:OutdoorDewpoint
+       \key PlantEquipmentOperation:OutdoorDryBulbDifference
+       \key PlantEquipmentOperation:OutdoorWetBulbDifference
+       \key PlantEquipmentOperation:OutdoorDewpointDifference
+  A12, \field Control Scheme 4 Name
+       \type object-list
+       \object-list ControlSchemeList
+  A13, \field Control Scheme 4 Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A14, \field Control Scheme 5 Object Type
+       \type choice
+       \key PlantEquipmentOperation:CoolingLoad
+       \key PlantEquipmentOperation:HeatingLoad
+       \key PlantEquipmentOperation:Uncontrolled
+       \key PlantEquipmentOperation:ComponentSetpoint
+       \key PlantEquipmentOperation:ThermalEnergyStorage
+       \key PlantEquipmentOperation:UserDefined
+       \key PlantEquipmentOperation:OutdoorDryBulb
+       \key PlantEquipmentOperation:OutdoorWetBulb
+       \key PlantEquipmentOperation:OutdoorRelativeHumidity
+       \key PlantEquipmentOperation:OutdoorDewpoint
+       \key PlantEquipmentOperation:OutdoorDryBulbDifference
+       \key PlantEquipmentOperation:OutdoorWetBulbDifference
+       \key PlantEquipmentOperation:OutdoorDewpointDifference
+  A15, \field Control Scheme 5 Name
+       \type object-list
+       \object-list ControlSchemeList
+  A16, \field Control Scheme 5 Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A17, \field Control Scheme 6 Object Type
+       \type choice
+       \key PlantEquipmentOperation:CoolingLoad
+       \key PlantEquipmentOperation:HeatingLoad
+       \key PlantEquipmentOperation:Uncontrolled
+       \key PlantEquipmentOperation:ComponentSetpoint
+       \key PlantEquipmentOperation:ThermalEnergyStorage
+       \key PlantEquipmentOperation:UserDefined
+       \key PlantEquipmentOperation:OutdoorDryBulb
+       \key PlantEquipmentOperation:OutdoorWetBulb
+       \key PlantEquipmentOperation:OutdoorRelativeHumidity
+       \key PlantEquipmentOperation:OutdoorDewpoint
+       \key PlantEquipmentOperation:OutdoorDryBulbDifference
+       \key PlantEquipmentOperation:OutdoorWetBulbDifference
+       \key PlantEquipmentOperation:OutdoorDewpointDifference
+  A18, \field Control Scheme 6 Name
+       \type object-list
+       \object-list ControlSchemeList
+  A19, \field Control Scheme 6 Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A20, \field Control Scheme 7 Object Type
+       \type choice
+       \key PlantEquipmentOperation:CoolingLoad
+       \key PlantEquipmentOperation:HeatingLoad
+       \key PlantEquipmentOperation:Uncontrolled
+       \key PlantEquipmentOperation:ComponentSetpoint
+       \key PlantEquipmentOperation:ThermalEnergyStorage
+       \key PlantEquipmentOperation:UserDefined
+       \key PlantEquipmentOperation:OutdoorDryBulb
+       \key PlantEquipmentOperation:OutdoorWetBulb
+       \key PlantEquipmentOperation:OutdoorRelativeHumidity
+       \key PlantEquipmentOperation:OutdoorDewpoint
+       \key PlantEquipmentOperation:OutdoorDryBulbDifference
+       \key PlantEquipmentOperation:OutdoorWetBulbDifference
+       \key PlantEquipmentOperation:OutdoorDewpointDifference
+  A21, \field Control Scheme 7 Name
+       \type object-list
+       \object-list ControlSchemeList
+  A22, \field Control Scheme 7 Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A23, \field Control Scheme 8 Object Type
+       \type choice
+       \key PlantEquipmentOperation:CoolingLoad
+       \key PlantEquipmentOperation:HeatingLoad
+       \key PlantEquipmentOperation:Uncontrolled
+       \key PlantEquipmentOperation:ComponentSetpoint
+       \key PlantEquipmentOperation:ThermalEnergyStorage
+       \key PlantEquipmentOperation:UserDefined
+       \key PlantEquipmentOperation:OutdoorDryBulb
+       \key PlantEquipmentOperation:OutdoorWetBulb
+       \key PlantEquipmentOperation:OutdoorRelativeHumidity
+       \key PlantEquipmentOperation:OutdoorDewpoint
+       \key PlantEquipmentOperation:OutdoorDryBulbDifference
+       \key PlantEquipmentOperation:OutdoorWetBulbDifference
+       \key PlantEquipmentOperation:OutdoorDewpointDifference
+  A24, \field Control Scheme 8 Name
+       \type object-list
+       \object-list ControlSchemeList
+  A25; \field Control Scheme 8 Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+
+CondenserEquipmentOperationSchemes,
+       \memo Operation schemes are listed in "priority" order. Note that each scheme
+       \memo must address the entire load and/or condition ranges for the simulation.
+       \memo The actual one selected for use will be the first that is "Scheduled"
+       \memo on. That is, if control scheme 1 is not "on" and control scheme 2
+       \memo is -- then control scheme 2 is selected.
+       \memo Only condenser equipment should be listed on a Control Scheme for this item.
+       \min-fields 4
+  A1 , \field Name
+       \required-field
+       \reference CondenserOperationSchemes
+  A2 , \field Control Scheme 1 Object Type
+       \required-field
+       \type choice
+       \key PlantEquipmentOperation:Uncontrolled
+       \key PlantEquipmentOperation:CoolingLoad
+       \key PlantEquipmentOperation:HeatingLoad
+       \key PlantEquipmentOperation:OutdoorDryBulb
+       \key PlantEquipmentOperation:OutdoorWetBulb
+       \key PlantEquipmentOperation:OutdoorRelativeHumidity
+       \key PlantEquipmentOperation:OutdoorDewpoint
+       \key PlantEquipmentOperation:OutdoorDryBulbDifference
+       \key PlantEquipmentOperation:OutdoorWetBulbDifference
+       \key PlantEquipmentOperation:OutdoorDewpointDifference
+       \key PlantEquipmentOperation:UserDefined
+  A3 , \field Control Scheme 1 Name
+       \required-field
+       \type object-list
+       \object-list ControlSchemeList
+  A4 , \field Control Scheme 1 Schedule Name
+        \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A5 , \field Control Scheme 2 Object Type
+       \type choice
+       \key PlantEquipmentOperation:Uncontrolled
+       \key PlantEquipmentOperation:CoolingLoad
+       \key PlantEquipmentOperation:HeatingLoad
+       \key PlantEquipmentOperation:OutdoorDryBulb
+       \key PlantEquipmentOperation:OutdoorWetBulb
+       \key PlantEquipmentOperation:OutdoorRelativeHumidity
+       \key PlantEquipmentOperation:OutdoorDewpoint
+       \key PlantEquipmentOperation:OutdoorDryBulbDifference
+       \key PlantEquipmentOperation:OutdoorWetBulbDifference
+       \key PlantEquipmentOperation:OutdoorDewpointDifference
+       \key PlantEquipmentOperation:UserDefined
+  A6 , \field Control Scheme 2 Name
+       \type object-list
+       \object-list ControlSchemeList
+  A7 , \field Control Scheme 2 Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A8 , \field Control Scheme 3 Object Type
+       \type choice
+       \key PlantEquipmentOperation:Uncontrolled
+       \key PlantEquipmentOperation:CoolingLoad
+       \key PlantEquipmentOperation:HeatingLoad
+       \key PlantEquipmentOperation:OutdoorDryBulb
+       \key PlantEquipmentOperation:OutdoorWetBulb
+       \key PlantEquipmentOperation:OutdoorRelativeHumidity
+       \key PlantEquipmentOperation:OutdoorDewpoint
+       \key PlantEquipmentOperation:OutdoorDryBulbDifference
+       \key PlantEquipmentOperation:OutdoorWetBulbDifference
+       \key PlantEquipmentOperation:OutdoorDewpointDifference
+       \key PlantEquipmentOperation:UserDefined
+  A9 , \field Control Scheme 3 Name
+       \type object-list
+       \object-list ControlSchemeList
+  A10, \field Control Scheme 3 Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A11, \field Control Scheme 4 Object Type
+       \type choice
+       \key PlantEquipmentOperation:Uncontrolled
+       \key PlantEquipmentOperation:CoolingLoad
+       \key PlantEquipmentOperation:HeatingLoad
+       \key PlantEquipmentOperation:OutdoorDryBulb
+       \key PlantEquipmentOperation:OutdoorWetBulb
+       \key PlantEquipmentOperation:OutdoorRelativeHumidity
+       \key PlantEquipmentOperation:OutdoorDewpoint
+       \key PlantEquipmentOperation:OutdoorDryBulbDifference
+       \key PlantEquipmentOperation:OutdoorWetBulbDifference
+       \key PlantEquipmentOperation:OutdoorDewpointDifference
+       \key PlantEquipmentOperation:UserDefined
+  A12, \field Control Scheme 4 Name
+        \type object-list
+        \object-list ControlSchemeList
+  A13, \field Control Scheme 4 Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A14, \field Control Scheme 5 Object Type
+       \type choice
+       \key PlantEquipmentOperation:Uncontrolled
+       \key PlantEquipmentOperation:CoolingLoad
+       \key PlantEquipmentOperation:HeatingLoad
+       \key PlantEquipmentOperation:OutdoorDryBulb
+       \key PlantEquipmentOperation:OutdoorWetBulb
+       \key PlantEquipmentOperation:OutdoorRelativeHumidity
+       \key PlantEquipmentOperation:OutdoorDewpoint
+       \key PlantEquipmentOperation:OutdoorDryBulbDifference
+       \key PlantEquipmentOperation:OutdoorWetBulbDifference
+       \key PlantEquipmentOperation:OutdoorDewpointDifference
+       \key PlantEquipmentOperation:UserDefined
+  A15, \field Control Scheme 5 Name
+        \type object-list
+        \object-list ControlSchemeList
+  A16, \field Control Scheme 5 Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A17, \field Control Scheme 6 Object Type
+       \type choice
+       \key PlantEquipmentOperation:Uncontrolled
+       \key PlantEquipmentOperation:CoolingLoad
+       \key PlantEquipmentOperation:HeatingLoad
+       \key PlantEquipmentOperation:OutdoorDryBulb
+       \key PlantEquipmentOperation:OutdoorWetBulb
+       \key PlantEquipmentOperation:OutdoorRelativeHumidity
+       \key PlantEquipmentOperation:OutdoorDewpoint
+       \key PlantEquipmentOperation:OutdoorDryBulbDifference
+       \key PlantEquipmentOperation:OutdoorWetBulbDifference
+       \key PlantEquipmentOperation:OutdoorDewpointDifference
+       \key PlantEquipmentOperation:UserDefined
+  A18, \field Control Scheme 6 Name
+        \type object-list
+        \object-list ControlSchemeList
+  A19, \field Control Scheme 6 Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A20, \field Control Scheme 7 Object Type
+       \type choice
+       \key PlantEquipmentOperation:Uncontrolled
+       \key PlantEquipmentOperation:CoolingLoad
+       \key PlantEquipmentOperation:HeatingLoad
+       \key PlantEquipmentOperation:OutdoorDryBulb
+       \key PlantEquipmentOperation:OutdoorWetBulb
+       \key PlantEquipmentOperation:OutdoorRelativeHumidity
+       \key PlantEquipmentOperation:OutdoorDewpoint
+       \key PlantEquipmentOperation:OutdoorDryBulbDifference
+       \key PlantEquipmentOperation:OutdoorWetBulbDifference
+       \key PlantEquipmentOperation:OutdoorDewpointDifference
+       \key PlantEquipmentOperation:UserDefined
+  A21, \field Control Scheme 7 Name
+       \type object-list
+       \object-list ControlSchemeList
+  A22, \field Control Scheme 7 Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A23, \field Control Scheme 8 Object Type
+       \type choice
+       \key PlantEquipmentOperation:Uncontrolled
+       \key PlantEquipmentOperation:CoolingLoad
+       \key PlantEquipmentOperation:HeatingLoad
+       \key PlantEquipmentOperation:OutdoorDryBulb
+       \key PlantEquipmentOperation:OutdoorWetBulb
+       \key PlantEquipmentOperation:OutdoorRelativeHumidity
+       \key PlantEquipmentOperation:OutdoorDewpoint
+       \key PlantEquipmentOperation:OutdoorDryBulbDifference
+       \key PlantEquipmentOperation:OutdoorWetBulbDifference
+       \key PlantEquipmentOperation:OutdoorDewpointDifference
+       \key PlantEquipmentOperation:UserDefined
+  A24, \field Control Scheme 8 Name
+       \type object-list
+       \object-list ControlSchemeList
+  A25; \field Control Scheme 8 Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+
+\group Energy Management System (EMS)
+
+EnergyManagementSystem:Sensor,
+       \memo Declares EMS variable as a sensor
+       \memo a list of output variables and meters that can be reported are available after a run on
+       \memo the report (.rdd) or meter dictionary file (.mdd) if the Output:VariableDictionary
+       \memo has been requested.
+       \min-fields 3
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note This name becomes a variable for use in Erl programs
+       \note no spaces allowed in name
+  A2 , \field Output:Variable or Output:Meter Index Key Name
+       \type alpha
+  A3 ; \field Output:Variable or Output:Meter Name
+       \required-field
+       \type external-list
+       \external-list autoRDDvariableMeter
+
+EnergyManagementSystem:Actuator,
+       \memo Hardware portion of EMS used to set up actuators in the model
+       \min-fields 4
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note This name becomes a variable for use in Erl programs
+       \note no spaces or other special characters (-,+,/,\) allowed in name
+  A2 , \field Actuated Component Unique Name
+       \required-field
+       \type alpha
+  A3 , \field Actuated Component Type
+       \required-field
+       \type alpha
+  A4 ; \field Actuated Component Control Type
+       \required-field
+       \type alpha
+
+EnergyManagementSystem:ProgramCallingManager,
+       \extensible:1 - repeat last field, remembering to remove ; from "inner" fields.
+       \memo Input EMS program. a program needs a name
+       \memo a description of when it should be called
+       \memo and then lines of program code for EMS Runtime language
+       \min-fields 3
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ProgramNames
+       \note no spaces allowed in name
+  A2 , \field EnergyPlus Model Calling Point
+       \type choice
+       \key BeginNewEnvironment
+       \key BeginZoneTimestepBeforeSetCurrentWeather
+       \key AfterNewEnvironmentWarmUpIsComplete
+       \key BeginZoneTimestepBeforeInitHeatBalance
+       \key BeginZoneTimestepAfterInitHeatBalance
+       \key BeginTimestepBeforePredictor
+       \key AfterPredictorBeforeHVACManagers
+       \key AfterPredictorAfterHVACManagers
+       \key InsideHVACSystemIterationLoop
+       \key EndOfZoneTimestepBeforeZoneReporting
+       \key EndOfZoneTimestepAfterZoneReporting
+       \key EndOfSystemTimestepBeforeHVACReporting
+       \key EndOfSystemTimestepAfterHVACReporting
+       \key EndOfZoneSizing
+       \key EndOfSystemSizing
+       \key AfterComponentInputReadIn
+       \key UserDefinedComponentModel
+       \key UnitarySystemSizing
+  A3 , \field Program Name 1
+       \begin-extensible
+       \required-field
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A4 , \field Program Name 2
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A5 , \field Program Name 3
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A6 , \field Program Name 4
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A7 , \field Program Name 5
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A8 , \field Program Name 6
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A9 , \field Program Name 7
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A10, \field Program Name 8
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A11, \field Program Name 9
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A12, \field Program Name 10
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A13, \field Program Name 11
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A14, \field Program Name 12
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A15, \field Program Name 13
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A16, \field Program Name 14
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A17, \field Program Name 15
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A18, \field Program Name 16
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A19, \field Program Name 17
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A20, \field Program Name 18
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A21, \field Program Name 19
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A22, \field Program Name 20
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A23, \field Program Name 21
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A24, \field Program Name 22
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A25, \field Program Name 23
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A26, \field Program Name 24
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+  A27; \field Program Name 25
+       \type object-list
+       \note no spaces allowed in name
+       \object-list ErlProgramNames
+
+EnergyManagementSystem:Program,
+       \extensible:1 - repeat last field, remembering to remove ; from "inner" fields.
+       \memo This input defines an Erl program
+       \memo Each field after the name is a line of EMS Runtime Language
+       \min-fields 2
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ErlProgramNames
+       \note no spaces allowed in name
+  A2 , \field Program Line 1
+       \begin-extensible
+       \type alpha
+  A3 , \field Program Line 2
+       \type alpha
+  A4, A5, A6, A7, A8, A9, A10, A11, A12, A13, A14, A15, A16, A17, A18, A19, \note fields as indicated
+  A20, A21, A22, A23, A24, A25, A26, A27, A28, A29, A30, A31, A32, A33, A34, \note fields as indicated
+  A35, A36, A37, A38, A39, A40, A41, A42, A43, A44, A45, A46, A47, A48, A49, \note fields as indicated
+  A50, A51, A52, A53, A54, A55, A56, A57, A58, A59, A60, A61, A62, A63, A64, \note fields as indicated
+  A65, A66, A67, A68, A69, A70, A71, A72, A73, A74, A75, A76, A77, A78, A79, \note fields as indicated
+  A80, A81, A82, A83, A84, A85, A86, A87, A88, A89, A90, A91, A92, A93, A94, \note fields as indicated
+  A95, A96, A97, A98, A99, A100, A101, A102, A103, A104, A105, A106, A107, A108,   \note fields as indicated
+  A109, A110, A111, A112, A113, A114, A115, A116, A117, A118,A119,A120,A121,A122, \note fields as indicated
+  A123, A124, A125, A126, A127, A128, A129, A130, A131, A132, \note fields as indicated
+  A133, A134, A135, A136, A137, A138, A139, A140, A141, A142, \note fields as indicated
+  A143, A144, A145, A146, A147, A148, A149, A150, A151, A152, \note fields as indicated
+  A153, A154, A155, A156, A157, A158, A159, A160, A161, A162, \note fields as indicated
+  A163, A164, A165, A166, A167, A168, A169, A170, A171, A172, \note fields as indicated
+  A173, A174, A175, A176, A177, A178, A179, A180, A181, A182, \note fields as indicated
+  A183, A184, A185, A186, A187, A188, A189, A190, A191, A192, \note fields as indicated
+  A193, A194, A195, A196, A197, A198, A199, A200, A201, A202, \note fields as indicated
+  A203, A204, A205, A206, A207, A208, A209, A210, A211, A212, \note fields as indicated
+  A213, A214, A215, A216, A217, A218, A219, A220, A221, A222, \note fields as indicated
+  A223, A224, A225, A226, A227, A228, A229, A230, A231, A232, \note fields as indicated
+  A233, A234, A235, A236, A237, A238, A239, A240, A241, A242, \note fields as indicated
+  A243, A244, A245, A246, A247, A248, A249, A250, A251, A252, \note fields as indicated
+  A253, A254, A255, A256, A257, A258, A259, A260, A261, A262, \note fields as indicated
+  A263, A264, A265, A266, A267, A268, A269, A270, A271, A272, \note fields as indicated
+  A273, A274, A275, A276, A277, A278, A279, A280, A281, A282, \note fields as indicated
+  A283, A284, A285, A286, A287, A288, A289, A290, A291, A292, \note fields as indicated
+  A293, A294, A295, A296, A297, A298, A299, A300, A301, A302, \note fields as indicated
+  A303, A304, A305, A306, A307, A308, A309, A310, A311, A312, \note fields as indicated
+  A313, A314, A315, A316, A317, A318, A319, A320, A321, A322, \note fields as indicated
+  A323, A324, A325, A326, A327, A328, A329, A330, A331, A332, \note fields as indicated
+  A333, A334, A335, A336, A337, A338, A339, A340, A341, A342, \note fields as indicated
+  A343, A344, A345, A346, A347, A348, A349, A350, A351, A352, \note fields as indicated
+  A353, A354, A355, A356, A357, A358, A359, A360, A361, A362, \note fields as indicated
+  A363, A364, A365, A366, A367, A368, A369, A370, A371, A372, \note fields as indicated
+  A373, A374, A375, A376, A377, A378, A379, A380, A381, A382, \note fields as indicated
+  A383, A384, A385, A386, A387, A388, A389, A390, A391, A392, \note fields as indicated
+  A393, A394, A395, A396, A397, A398, A399, A400, A401, A402, \note fields as indicated
+  A403, A404, A405, A406, A407, A408, A409, A410, A411, A412, \note fields as indicated
+  A413, A414, A415, A416, A417, A418, A419, A420, A421, A422, \note fields as indicated
+  A423, A424, A425, A426, A427, A428, A429, A430, A431, A432, \note fields as indicated
+  A433, A434, A435, A436, A437, A438, A439, A440, A441, A442, \note fields as indicated
+  A443, A444, A445, A446, A447, A448, A449, A450, A451, A452, \note fields as indicated
+  A453, A454, A455, A456, A457, A458, A459, A460, A461, A462, \note fields as indicated
+  A463, A464, A465, A466, A467, A468, A469, A470, A471, A472, \note fields as indicated
+  A473, A474, A475, A476, A477, A478, A479, A480, A481, A482, \note fields as indicated
+  A483, A484, A485, A486, A487, A488, A489, A490, A491, A492, \note fields as indicated
+  A493, A494, A495, A496, A497, A498, A499, A500, A501, A502; \note fields as indicated
+
+EnergyManagementSystem:Subroutine,
+       \extensible:1 - repeat last field, remembering to remove ; from "inner" fields.
+       \memo This input defines an Erl program subroutine
+       \memo Each field after the name is a line of EMS Runtime Language
+       \min-fields 2
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ErlProgramNames
+       \note no spaces allowed in name
+  A2 , \field Program Line 1
+       \begin-extensible
+       \type alpha
+  A3 , \field Program Line 2
+       \note repeats
+       \type alpha
+  A4, A5, A6, A7, A8, A9, A10, A11, A12, A13, A14, A15, A16, A17, A18, A19,  \note fields as indicated
+  A20, A21, A22, A23, A24, A25, A26, A27, A28, A29, A30, A31, A32, A33, A34, \note fields as indicated
+  A35, A36, A37, A38, A39, A40, A41, A42, A43, A44, A45, A46, A47, A48, A49, \note fields as indicated
+  A50, A51, A52, A53, A54, A55, A56, A57, A58, A59, A60, A61, A62, A63, A64, \note fields as indicated
+  A65, A66, A67, A68, A69, A70, A71, A72, A73, A74, A75, A76, A77, A78, A79, \note fields as indicated
+  A80, A81, A82, A83, A84, A85, A86, A87, A88, A89, A90, A91, A92, A93, A94, \note fields as indicated
+  A95, A96, A97, A98, A99, A100, A101, A102, A103, A104, A105, A106, A107,  \note fields as indicated
+  A108, A109, A110, A111, A112, A113, A114, A115, A116, A117, A118, A119, A120;  \note fields as indicated
+
+EnergyManagementSystem:GlobalVariable,
+       \extensible:1 - repeat last field, remembering to remove ; from "inner" fields.
+       \memo Declares Erl variable as having global scope
+       \memo No spaces allowed in names used for Erl variables
+       \min-fields 1
+  A1 , \field Erl Variable 1 Name
+       \begin-extensible
+       \required-field
+       \type alpha
+       \note no spaces allowed in name
+  A2 , \field Erl Variable 2 Name
+       \type alpha
+  A3 , \field Erl Variable 3 Name
+       \note repeats
+       \type alpha
+  A4, A5, A6, A7, A8, A9, A10, A11, A12, A13, A14, A15, A16, A17, A18, A19,  \note fields as indicated
+  A20, A21, A22, A23, A24, A25, A26, A27, A28, A29, A30, A31, A32, A33, A34, \note fields as indicated
+  A35, A36, A37, A38, A39, A40, A41, A42, A43, A44, A45, A46, A47, A48, A49, \note fields as indicated
+  A50, A51, A52, A53, A54, A55, A56, A57, A58, A59, A60, A61, A62, A63, A64, \note fields as indicated
+  A65, A66, A67, A68, A69, A70, A71, A72, A73, A74, A75, A76, A77, A78, A79, \note fields as indicated
+  A80, A81, A82, A83, A84, A85, A86, A87, A88, A89, A90, A91, A92, A93, A94, \note fields as indicated
+  A95, A96, A97, A98, A99, A100, A101, A102, A103, A104, A105, A106, A107, A108,   \note fields as indicated
+  A109, A110, A111, A112, A113, A114, A115, A116, A117, A118,A119,A120,A121,A122, \note fields as indicated
+  A123, A124, A125, A126, A127, A128, A129, A130, A131, A132, \note fields as indicated
+  A133, A134, A135, A136, A137, A138, A139, A140, A141, A142, \note fields as indicated
+  A143, A144, A145, A146, A147, A148, A149, A150, A151, A152, \note fields as indicated
+  A153, A154, A155, A156, A157, A158, A159, A160, A161, A162, \note fields as indicated
+  A163, A164, A165, A166, A167, A168, A169, A170, A171, A172, \note fields as indicated
+  A173, A174, A175, A176, A177, A178, A179, A180, A181, A182, \note fields as indicated
+  A183, A184, A185, A186, A187, A188, A189, A190, A191, A192, \note fields as indicated
+  A193, A194, A195, A196, A197, A198, A199, A200, A201, A202, \note fields as indicated
+  A203, A204, A205, A206, A207, A208, A209, A210, A211, A212, \note fields as indicated
+  A213, A214, A215, A216, A217, A218, A219, A220, A221, A222, \note fields as indicated
+  A223, A224, A225, A226, A227, A228, A229, A230, A231, A232, \note fields as indicated
+  A233, A234, A235, A236, A237, A238, A239, A240, A241, A242, \note fields as indicated
+  A243, A244, A245, A246, A247, A248, A249, A250, A251, A252, \note fields as indicated
+  A253, A254, A255, A256, A257, A258, A259, A260, A261, A262, \note fields as indicated
+  A263, A264, A265, A266, A267, A268, A269, A270, A271, A272, \note fields as indicated
+  A273, A274, A275, A276, A277, A278, A279, A280, A281, A282, \note fields as indicated
+  A283, A284, A285, A286, A287, A288, A289, A290, A291, A292, \note fields as indicated
+  A293, A294, A295, A296, A297, A298, A299, A300, A301, A302, \note fields as indicated
+  A303, A304, A305, A306, A307, A308, A309, A310, A311, A312, \note fields as indicated
+  A313, A314, A315, A316, A317, A318, A319, A320, A321, A322, \note fields as indicated
+  A323, A324, A325, A326, A327, A328, A329, A330, A331, A332, \note fields as indicated
+  A333, A334, A335, A336, A337, A338, A339, A340, A341, A342, \note fields as indicated
+  A343, A344, A345, A346, A347, A348, A349, A350, A351, A352, \note fields as indicated
+  A353, A354, A355, A356, A357, A358, A359, A360, A361, A362, \note fields as indicated
+  A363, A364, A365, A366, A367, A368, A369, A370, A371, A372, \note fields as indicated
+  A373, A374, A375, A376, A377, A378, A379, A380, A381, A382, \note fields as indicated
+  A383, A384, A385, A386, A387, A388, A389, A390, A391, A392, \note fields as indicated
+  A393, A394, A395, A396, A397, A398, A399, A400, A401, A402, \note fields as indicated
+  A403, A404, A405, A406, A407, A408, A409, A410, A411, A412, \note fields as indicated
+  A413, A414, A415, A416, A417, A418, A419, A420, A421, A422, \note fields as indicated
+  A423, A424, A425, A426, A427, A428, A429, A430, A431, A432, \note fields as indicated
+  A433, A434, A435, A436, A437, A438, A439, A440, A441, A442, \note fields as indicated
+  A443, A444, A445, A446, A447, A448, A449, A450, A451, A452, \note fields as indicated
+  A453, A454, A455, A456, A457, A458, A459, A460, A461, A462, \note fields as indicated
+  A463, A464, A465, A466, A467, A468, A469, A470, A471, A472, \note fields as indicated
+  A473, A474, A475, A476, A477, A478, A479, A480, A481, A482, \note fields as indicated
+  A483, A484, A485, A486, A487, A488, A489, A490, A491, A492, \note fields as indicated
+  A493, A494, A495, A496, A497, A498, A499, A500, A501, A502; \note fields as indicated
+
+EnergyManagementSystem:OutputVariable,
+       \memo This object sets up an EnergyPlus output variable from an Erl variable
+       \min-fields 4
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \retaincase
+  A2 , \field EMS Variable Name
+       \required-field
+       \type alpha
+       \note must be an acceptable EMS variable
+  A3 , \field Type of Data in Variable
+       \required-field
+       \type choice
+       \key Averaged
+       \key Summed
+  A4 , \field Update Frequency
+       \required-field
+       \type choice
+       \key ZoneTimestep
+       \key SystemTimestep
+  A5 , \field EMS Program or Subroutine Name
+       \type alpha
+       \note optional for global scope variables, required for local scope variables
+  A6 ; \field Units
+       \note optional but will result in dimensionless units for blank
+       \note EnergyPlus units are standard SI units
+       \type alpha
+
+EnergyManagementSystem:MeteredOutputVariable,
+       \memo This object sets up an EnergyPlus output variable from an Erl variable
+       \min-fields 7
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \retaincase
+  A2 , \field EMS Variable Name
+       \required-field
+       \type alpha
+       \note must be an acceptable EMS variable, no spaces
+  A3 , \field Update Frequency
+       \required-field
+       \type choice
+       \key ZoneTimestep
+       \key SystemTimestep
+  A4 , \field EMS Program or Subroutine Name
+       \type alpha
+       \note optional for global scope variables, required for local scope variables
+  A5 , \field Resource Type
+       \required-field
+       \note choose the type of fuel, water, electricity, pollution or heat rate that should be metered.
+       \type choice
+       \key Electricity
+       \key NaturalGas
+       \key Gasoline
+       \key Diesel
+       \key Coal
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key Propane
+       \key OtherFuel1
+       \key OtherFuel2
+       \key WaterUse
+       \key OnSiteWaterProduced
+       \key MainsWaterSupply
+       \key RainWaterCollected
+       \key WellWaterDrawn
+       \key CondensateWaterCollected
+       \key EnergyTransfer
+       \key Steam
+       \key DistrictCooling
+       \key DistrictHeating
+       \key ElectricityProducedOnSite
+       \key SolarWaterHeating
+       \key SolarAirHeating
+  A6 , \field Group Type
+       \note choose a general classification, building (internal services), HVAC (air systems), or plant (hydronic systems), or system
+       \type choice
+       \required-field
+       \key Building
+       \key HVAC
+       \key Plant
+       \key System
+  A7 , \field End-Use Category
+       \note choose how the metered output should be classified for end-use category
+       \required-field
+       \type choice
+       \key Heating
+       \key Cooling
+       \key InteriorLights
+       \key ExteriorLights
+       \key InteriorEquipment
+       \key ExteriorEquipment
+       \key Fans
+       \key Pumps
+       \key HeatRejection
+       \key Humidifier
+       \key HeatRecovery
+       \key WaterSystems
+       \key Refrigeration
+       \key OnSiteGeneration
+       \key HeatingCoils
+       \key CoolingCoils
+       \key Chillers
+       \key Boilers
+       \key Baseboard
+       \key HeatRecoveryForCooling
+       \key HeatRecoveryForHeating
+  A8 , \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \note enter a user-defined subcategory for this metered output
+       \type alpha
+       \retaincase
+  A9 ; \field Units
+       \note optional but will result in dimensionless units for blank
+       \note EnergyPlus units are standard SI units
+       \type alpha
+
+EnergyManagementSystem:TrendVariable,
+       \memo This object sets up an EMS trend variable from an Erl variable
+       \memo A trend variable logs values across timesteps
+       \min-fields 3
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note no spaces allowed in name
+  A2 , \field EMS Variable Name
+       \required-field
+       \type alpha
+       \note must be a global scope EMS variable
+  N1 ; \field Number of Timesteps to be Logged
+       \required-field
+       \type integer
+       \minimum 1
+
+EnergyManagementSystem:InternalVariable,
+       \memo Declares EMS variable as an internal data variable
+       \min-fields 3
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note This name becomes a variable for use in Erl programs
+       \note no spaces allowed in name
+  A2 , \field Internal Data Index Key Name
+       \type alpha
+  A3 ; \field Internal Data Type
+       \required-field
+       \type alpha
+
+EnergyManagementSystem:CurveOrTableIndexVariable,
+       \memo Declares EMS variable that identifies a curve or table
+       \min-fields 2
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note This name becomes a variable for use in Erl programs
+       \note no spaces allowed in name
+  A2 ; \field Curve or Table Object Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \object-list BivariateFunctions
+       \object-list TrivariateFunctions
+       \object-list QuadvariateFunctions
+       \object-list QuintvariateFunctions
+       \object-list MultivariateFunctions
+       \required-field
+
+EnergyManagementSystem:ConstructionIndexVariable,
+       \memo Declares EMS variable that identifies a construction
+       \min-fields 2
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note This name becomes a variable for use in Erl programs
+       \note no spaces allowed in name
+  A2 ; \field Construction Object Name
+       \type object-list
+       \object-list ConstructionNames
+       \required-field
+
+\group External Interface
+
+ExternalInterface,
+        \memo This object activates the external interface of EnergyPlus. If the object
+        \memo ExternalInterface is present, then all ExtnernalInterface:* objects will receive
+        \memo their values from the BCVTB interface or from FMUs at each zone time step.
+        \memo If this object is not present, then the values of these objects will be fixed at the
+        \memo value declared in the "initial value" field of the corresponding object, and a
+        \memo warning will be written to the EnergyPlus error file.
+   A1;  \field Name of External Interface
+        \note Name of External Interface
+        \required-field
+        \type choice
+        \key PtolemyServer
+        \key FunctionalMockupUnitImport
+        \key FunctionalMockupUnitExport
+        \note Currently, the only valid entries are PtolemyServer, FunctionalMockupUnitImport, and FunctionalMockupUnitExport.
+
+ExternalInterface:Schedule,
+       \min-fields 3
+       \memo A ExternalInterface:Schedule contains only one value,
+       \memo which is used during the warm-up period and the system sizing.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ScheduleNames
+  A2 , \field Schedule Type Limits Name
+       \type object-list
+       \object-list ScheduleTypeLimitsNames
+  N1 ; \field Initial Value
+       \type real
+       \required-field
+       \note Used during warm-up and system sizing.
+
+ExternalInterface:Variable,
+       \memo This input object is similar to EnergyManagementSystem:GlobalVariable. However, at
+       \memo the beginning of each zone time step, its value is set to the value received from the
+       \memo external interface. During the warm-up period and the system sizing, its value
+       \memo is set to the value specified by the field "initial value." This object can be used
+       \memo to move data into Erl subroutines.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note This name becomes a variable for use in Erl programs
+       \note no spaces allowed in name
+  N1 ; \field Initial Value
+       \type real
+       \required-field
+       \note Used during warm-up and system sizing.
+
+ExternalInterface:Actuator,
+       \memo Hardware portion of EMS used to set up actuators in the model
+       \min-fields 4
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note This name becomes a variable for use in Erl programs
+       \note no spaces allowed in name
+  A2 , \field Actuated Component Unique Name
+       \required-field
+       \type alpha
+  A3 , \field Actuated Component Type
+       \required-field
+       \type alpha
+  A4 , \field Actuated Component Control Type
+       \required-field
+       \type alpha
+  N1 ; \field Optional Initial Value
+       \type real
+       \note If specified, it is used during warm-up and system sizing.
+       \note If not specified, then the actuator only overwrites the
+       \note actuated component after the warm-up and system sizing.
+
+ExternalInterface:FunctionalMockupUnitImport,
+       \memo This object declares an FMU
+       \min-fields 3
+  A1 , \field FMU File Name
+       \required-field
+       \type alpha
+       \retaincase
+       \reference FMUFileName
+  N1 , \field FMU Timeout
+       \note in milli-seconds
+       \type real
+       \units ms
+       \default 0.0
+  N2 ; \field FMU LoggingOn
+       \type integer
+       \default 0
+
+ExternalInterface:FunctionalMockupUnitImport:From:Variable,
+       \memo This object declares an FMU input variable
+       \min-fields 5
+  A1 , \field Output:Variable Index Key Name
+       \required-field
+       \type alpha
+  A2 , \field Output:Variable Name
+       \required-field
+       \type external-list
+       \external-list autoRDDvariable
+  A3 , \field FMU File Name
+       \required-field
+       \retaincase
+       \type object-list
+       \object-list FMUFileName
+  A4 , \field FMU Instance Name
+       \required-field
+       \type alpha
+       \retaincase
+  A5 ; \field FMU Variable Name
+       \required-field
+       \type alpha
+       \retaincase
+
+ExternalInterface:FunctionalMockupUnitImport:To:Schedule,
+       \memo This objects contains only one value, which is used during the first
+       \memo call of EnergyPlus
+       \min-fields 6
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference ScheduleNames
+  A2 , \field Schedule Type Limits Names
+       \type object-list
+       \object-list ScheduleTypeLimitsNames
+  A3 , \field FMU File Name
+       \required-field
+       \retaincase
+       \type object-list
+       \object-list FMUFileName
+  A4 , \field FMU Instance Name
+       \required-field
+       \type alpha
+       \retaincase
+  A5 , \field FMU Variable Name
+       \required-field
+       \type alpha
+       \retaincase
+  N1 ; \field Initial Value
+       \type real
+       \required-field
+       \note Used during the first call of EnergyPlus.
+
+ExternalInterface:FunctionalMockupUnitImport:To:Actuator,
+       \memo Hardware portion of EMS used to set up actuators in the model
+       \memo that are dynamically updated from the FMU.
+       \min-fields 8
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note This name becomes a read-only variable for use in Erl programs
+       \note no spaces allowed in name
+  A2 , \field Actuated Component Unique Name
+       \required-field
+       \type alpha
+  A3 , \field Actuated Component Type
+       \required-field
+       \type alpha
+  A4 , \field Actuated Component Control Type
+       \required-field
+       \type alpha
+  A5 , \field FMU File Name
+       \required-field
+       \retaincase
+       \type object-list
+       \object-list FMUFileName
+  A6 , \field FMU Instance Name
+       \required-field
+       \type alpha
+       \retaincase
+  A7 , \field FMU Variable Name
+       \required-field
+       \type alpha
+       \retaincase
+  N1 ; \field Initial Value
+       \type real
+       \required-field
+       \note Used during the first call of EnergyPlus.
+
+ExternalInterface:FunctionalMockupUnitImport:To:Variable,
+       \memo Declares Erl variable as having global scope
+       \memo No spaces allowed in names used for Erl variables
+       \min-fields 5
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note This name becomes a variable for use in Erl programs
+       \note no spaces allowed in name
+  A2 , \field FMU File Name
+       \required-field
+       \retaincase
+       \type object-list
+       \object-list FMUFileName
+  A3 , \field FMU Instance Name
+       \required-field
+       \type alpha
+       \retaincase
+  A4 , \field FMU Variable Name
+       \required-field
+       \type alpha
+       \retaincase
+  N1 ; \field Initial Value
+       \type real
+       \required-field
+       \note Used during the first call of EnergyPlus.
+
+ExternalInterface:FunctionalMockupUnitExport:From:Variable,
+       \memo This object declares an FMU input variable
+       \min-fields 3
+  A1 , \field Output:Variable Index Key Name
+       \required-field
+       \type alpha
+  A2 , \field Output:Variable Name
+       \required-field
+       \type external-list
+       \external-list autoRDDvariable
+  A3 ; \field FMU Variable Name
+       \required-field
+       \type alpha
+       \retaincase
+
+ExternalInterface:FunctionalMockupUnitExport:To:Schedule,
+       \memo This objects contains only one value, which is used during the first
+       \memo call of EnergyPlus
+       \min-fields 4
+  A1 , \field Schedule Name
+       \required-field
+       \type alpha
+       \reference ScheduleNames
+  A2 , \field Schedule Type Limits Names
+       \type object-list
+       \object-list ScheduleTypeLimitsNames
+  A3 , \field FMU Variable Name
+       \required-field
+       \type alpha
+       \retaincase
+  N1 ; \field Initial Value
+       \type real
+       \required-field
+       \note Used during the first call of EnergyPlus.
+
+ExternalInterface:FunctionalMockupUnitExport:To:Actuator,
+       \memo Hardware portion of EMS used to set up actuators in the model
+       \memo that are dynamically updated from the FMU.
+       \min-fields 6
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note This name becomes a read-only variable for use in Erl programs
+       \note no spaces allowed in name
+  A2 , \field Actuated Component Unique Name
+       \required-field
+       \type alpha
+  A3 , \field Actuated Component Type
+       \required-field
+       \type alpha
+  A4 , \field Actuated Component Control Type
+       \required-field
+       \type alpha
+  A5 , \field FMU Variable Name
+       \required-field
+       \type alpha
+       \retaincase
+  N1 ; \field Initial Value
+       \type real
+       \required-field
+       \note Used during the first call of EnergyPlus.
+
+ExternalInterface:FunctionalMockupUnitExport:To:Variable,
+       \memo Declares Erl variable as having global scope
+       \memo No spaces allowed in names used for Erl variables
+       \min-fields 3
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \note This name becomes a variable for use in Erl programs
+       \note no spaces allowed in name
+  A2 , \field FMU Variable Name
+       \required-field
+       \type alpha
+       \retaincase
+  N1 ; \field Initial Value
+       \type real
+       \required-field
+       \note Used during the first call of EnergyPlus.
+
+\group User Defined HVAC and Plant Component Models
+
+ZoneHVAC:ForcedAir:UserDefined,
+        \memo Defines a generic zone air unit for custom modeling
+        \memo using Energy Management System or External Interface
+        \min-fields 8
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+        \reference ZoneEquipmentNames
+        \note This is the name of the zone unit
+   A2 , \field Overall Model Simulation Program Calling Manager Name
+        \type object-list
+        \object-list ProgramNames
+   A3 , \field Model Setup and Sizing Program Calling Manager Name
+        \type object-list
+        \object-list ProgramNames
+   A4 , \field Primary Air Inlet Node Name
+        \required-field
+        \type node
+        \note Air inlet node for the unit must be a zone air exhaust Node.
+   A5 , \field Primary Air Outlet Node Name
+        \required-field
+        \type node
+        \note Air outlet node for the unit must be a zone air inlet node.
+   A6,  \field Secondary Air Inlet Node Name
+        \type node
+        \note Inlet air used for heat rejection or air source
+   A7,  \field Secondary Air Outlet Node Name
+        \type node
+        \note Outlet air used for heat rejection or air source
+   N1 , \field Number of Plant Loop Connections
+        \type integer
+        \minimum 0
+        \maximum 3
+        \required-field
+   A8 , \field Plant Connection 1 Inlet Node Name
+        \type node
+   A9, \field Plant Connection 1 Outlet Node Name
+        \type node
+   A10, \field Plant Connection 2 Inlet Node Name
+        \type node
+   A11, \field Plant Connection 2 Outlet Node Name
+        \type node
+   A12, \field Plant Connection 3 Inlet Node Name
+        \type node
+   A13, \field Plant Connection 3 Outlet Node Name
+        \type node
+   A14, \field Supply Inlet Water Storage Tank Name
+        \type object-list
+        \object-list WaterStorageTankNames
+        \note Water use storage tank for alternate source of water consumed by device
+   A15, \field Collection Outlet Water Storage Tank Name
+        \type object-list
+        \object-list WaterStorageTankNames
+        \note Water use storage tank for collection of condensate by device
+   A16; \field Ambient Zone Name
+        \type object-list
+        \object-list ZoneNames
+        \note Used for modeling device losses to surrounding zone
+
+AirTerminal:SingleDuct:UserDefined,
+        \memo Defines a generic single duct air terminal unit for custom modeling
+        \memo using Energy Management System or External Interface
+        \min-fields 8
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference AirTerminalUnitNames
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+        \note This is the name of the air terminal
+   A2 , \field Overall Model Simulation Program Calling Manager Name
+        \type object-list
+        \object-list ProgramNames
+   A3 , \field Model Setup and Sizing Program Calling Manager Name
+        \type object-list
+        \object-list ProgramNames
+   A4 , \field Primary Air Inlet Node Name
+        \required-field
+        \type node
+        \note Air inlet node for the unit must be a zone splitter outlet.
+   A5 , \field Primary Air Outlet Node Name
+        \required-field
+        \type node
+        \note Air outlet node for the unit must be a zone air inlet node.
+   A6,  \field Secondary Air Inlet Node Name
+        \type node
+        \note Inlet air used for heat rejection or air source
+   A7,  \field Secondary Air Outlet Node Name
+        \type node
+        \note Outlet air used for heat rejection or air source
+   N1,  \field Number of Plant Loop Connections
+        \type integer
+        \minimum 0
+        \maximum 2
+        \required-field
+   A8 , \field Plant Connection 1 Inlet Node Name
+        \type node
+        \required-field
+   A9 , \field Plant Connection 1 Outlet Node Name
+        \type node
+        \required-field
+   A10, \field Plant Connection 2 Inlet Node Name
+        \type node
+   A11, \field Plant Connection 2 Outlet Node Name
+        \type node
+   A12, \field Supply Inlet Water Storage Tank Name
+        \type object-list
+        \object-list WaterStorageTankNames
+        \note Water use storage tank for alternate source of water consumed by device
+   A13, \field Collection Outlet Water Storage Tank Name
+        \type object-list
+        \object-list WaterStorageTankNames
+        \note Water use storage tank for collection of condensate by device
+   A14; \field Ambient Zone Name
+        \type object-list
+        \object-list ZoneNames
+        \note Used for modeling device losses to surrounding zone
+
+Coil:UserDefined,
+        \memo Defines a generic air system component for custom modeling
+        \memo using Energy Management System or External Interface
+        \min-fields 9
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference UserDefinedCoil
+        \note This is the name of the coil
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+        \reference-class-name validOASysEquipmentTypes
+        \reference validOASysEquipmentNames
+   A2 , \field Overall Model Simulation Program Calling Manager Name
+        \type object-list
+        \object-list ProgramNames
+   A3 , \field Model Setup and Sizing Program Calling Manager Name
+        \type object-list
+        \object-list ProgramNames
+        \required-field
+   N1 , \field Number of Air Connections
+        \type integer
+        \minimum 1
+        \maximum 2
+        \required-field
+   A4 , \field Air Connection 1 Inlet Node Name
+        \type node
+        \note Inlet air for primary air stream
+        \required-field
+   A5 , \field Air Connection 1 Outlet Node Name
+        \type node
+        \note Outlet air for primary air stream
+        \required-field
+   A6 , \field Air Connection 2 Inlet Node Name
+        \type node
+        \note Inlet air for secondary air stream
+   A7 , \field Air Connection 2 Outlet Node Name
+        \type node
+        \note Outlet air for secondary air stream
+   A8 , \field Plant Connection is Used
+        \type choice
+        \key Yes
+        \key No
+   A9 , \field Plant Connection Inlet Node Name
+        \type node
+   A10 ,\field Plant Connection Outlet Node Name
+        \type node
+   A11, \field Supply Inlet Water Storage Tank Name
+        \type object-list
+        \object-list WaterStorageTankNames
+        \note Water use storage tank for alternate source of water consumed by device
+   A12, \field Collection Outlet Water Storage Tank Name
+        \type object-list
+        \object-list WaterStorageTankNames
+        \note Water use storage tank for collection of condensate by device
+   A13; \field Ambient Zone Name
+        \type object-list
+        \object-list ZoneNames
+        \note Used for modeling device losses to surrounding zone
+
+PlantComponent:UserDefined,
+        \memo Defines a generic plant component for custom modeling
+        \memo using Energy Management System or External Interface
+        \min-fields 9
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \note This is the name of the plant component
+        \reference-class-name validPlantEquipmentTypes
+        \reference validPlantEquipmentNames
+        \reference-class-name validCondenserEquipmentTypes
+        \reference validCondenserEquipmentNames
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+   A2 , \field Main Model Program Calling Manager Name
+        \type object-list
+        \object-list ProgramNames
+   N1 , \field Number of Plant Loop Connections
+        \type integer
+        \minimum 1
+        \maximum 4
+        \required-field
+   A3 , \field Plant Connection 1 Inlet Node Name
+        \type node
+        \required-field
+   A4 , \field Plant Connection 1 Outlet Node Name
+        \type node
+        \required-field
+   A5 , \field Plant Connection 1 Loading Mode
+        \type choice
+        \key DemandsLoad
+        \key MeetsLoadWithPassiveCapacity
+        \key MeetsLoadWithNominalCapacity
+        \key MeetsLoadWithNominalCapacityLowOutLimit
+        \key MeetsLoadWithNominalCapacityHiOutLimit
+        \required-field
+   A6 , \field Plant Connection 1 Loop Flow Request Mode
+        \type choice
+        \key NeedsFlowIfLoopOn
+        \key NeedsFlowAndTurnsLoopOn
+        \key ReceivesWhateverFlowAvailable
+        \required-field
+   A7 , \field Plant Connection 1 Initialization Program Calling Manager Name
+        \type object-list
+        \object-list ProgramNames
+   A8  ,\field Plant Connection 1 Simulation Program Calling Manager Name
+        \type object-list
+        \object-list ProgramNames
+   A9 , \field Plant Connection 2 Inlet Node Name
+        \type node
+   A10, \field Plant Connection 2 Outlet Node Name
+        \type node
+   A11, \field Plant Connection 2 Loading Mode
+        \type choice
+        \key DemandsLoad
+        \key MeetLoadWithPassiveCapacity
+        \key MeetLoadWithNominalCapacity
+        \key MeetLoadWithNominalCapacityLowOutLimit
+        \key MeetLoadWithNominalCapacityHiOutLimit
+   A12, \field Plant Connection 2 Loop Flow Request Mode
+        \type choice
+        \key NeedsFlowIfLoopOn
+        \key NeedsFlowAndTurnsLoopOn
+        \key ReceivesWhateverFlowAvailable
+   A13, \field Plant Connection 2 Initialization Program Calling Manager Name
+        \type object-list
+        \object-list ProgramNames
+   A14, \field Plant Connection 2 Simulation Program Calling Manager Name
+        \type object-list
+        \object-list ProgramNames
+   A15, \field Plant Connection 3 Inlet Node Name
+        \type node
+   A16, \field Plant Connection 3 Outlet Node Name
+        \type node
+   A17, \field Plant Connection 3 Loading Mode
+        \type choice
+        \key DemandsLoad
+        \key MeetLoadWithPassiveCapacity
+        \key MeetLoadWithNominalCapacity
+        \key MeetLoadWithNominalCapacityLowOutLimit
+        \key MeetLoadWithNominalCapacityHiOutLimit
+   A18, \field Plant Connection 3 Loop Flow Request Mode
+        \type choice
+        \key NeedsFlowIfLoopOn
+        \key NeedsFlowAndTurnsLoopOn
+        \key ReceivesWhateverFlowAvailable
+   A19, \field Plant Connection 3 Initialization Program Calling Manager Name
+        \type object-list
+        \object-list ProgramNames
+   A20, \field Plant Connection 3 Simulation Program Calling Manager Name
+        \type object-list
+        \object-list ProgramNames
+   A21, \field Plant Connection 4 Inlet Node Name
+        \type node
+   A22, \field Plant Connection 4 Outlet Node Name
+        \type node
+   A23, \field Plant Connection 4 Loading Mode
+        \type choice
+        \key DemandsLoad
+        \key MeetLoadWithPassiveCapacity
+        \key MeetLoadWithNominalCapacity
+        \key MeetLoadWithNominalCapacityLowOutLimit
+        \key MeetLoadWithNominalCapacityHiOutLimit
+   A24, \field Plant Connection 4 Loop Flow Request Mode
+        \type choice
+        \key NeedsFlowIfLoopOn
+        \key NeedsFlowAndTurnsLoopOn
+        \key ReceivesWhateverFlowAvailable
+   A25, \field Plant Connection 4 Initialization Program Calling Manager Name
+        \type object-list
+        \object-list ProgramNames
+   A26, \field Plant Connection 4 Simulation Program Calling Manager Name
+        \type object-list
+        \object-list ProgramNames
+   A27, \field Air Connection Inlet Node Name
+        \type node
+        \note Inlet air used for heat rejection or air source
+   A28, \field Air Connection Outlet Node Name
+        \type node
+        \note Outlet air used for heat rejection or air source
+   A29, \field Supply Inlet Water Storage Tank Name
+        \type object-list
+        \object-list WaterStorageTankNames
+        \note Water use storage tank for alternate source of water consumed by device
+   A30, \field Collection Outlet Water Storage Tank Name
+        \type object-list
+        \object-list WaterStorageTankNames
+        \note Water use storage tank for collection of condensate by device
+   A31; \field Ambient Zone Name
+        \type object-list
+        \object-list ZoneNames
+        \note Used for modeling device losses to surrounding zone
+
+PlantEquipmentOperation:UserDefined,
+        \memo Defines a generic plant operation scheme for custom supervisory control
+        \memo using Energy Management System or External Interface to dispatch loads
+        \min-fields 5
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \note This is the name of the plant operation scheme
+   A2 , \field Main Model Program Calling Manager Name
+        \type object-list
+        \object-list ProgramNames
+        \required-field
+   A3 , \field Initialization Program Calling Manager Name
+        \type object-list
+        \object-list ProgramNames
+   A4 , \field Equipment 1 Object Type
+        \type alpha
+   A5 , \field Equipment 1 Name
+        \type alpha
+   A6 , \field Equipment 2 Object Type
+        \type alpha
+   A7 , \field Equipment 2 Name
+        \type alpha
+   A8 , \field Equipment 3 Object Type
+        \type alpha
+   A9 , \field Equipment 3 Name
+        \type alpha
+   A10, \field Equipment 4 Object Type
+        \type alpha
+   A11, \field Equipment 4 Name
+        \type alpha
+   A12, \field Equipment 5 Object Type
+        \type alpha
+   A13, \field Equipment 5 Name
+        \type alpha
+   A14, \field Equipment 6 Object Type
+        \type alpha
+   A15, \field Equipment 6 Name
+        \type alpha
+   A16, \field Equipment 7 Object Type
+        \type alpha
+   A17, \field Equipment 7 Name
+        \type alpha
+   A18, \field Equipment 8 Object Type
+        \type alpha
+   A19, \field Equipment 8 Name
+        \type alpha
+   A20, \field Equipment 9 Object Type
+        \type alpha
+   A21, \field Equipment 9 Name
+        \type alpha
+   A22, \field Equipment 10 Object Type
+        \type alpha
+   A23; \field Equipment 10 Name
+        \type alpha
+
+\group System Availability Managers
+
+AvailabilityManager:Scheduled,
+       \min-fields 2
+       \memo Determines the availability of a loop or system: whether it is on or off.
+       \memo Schedule overrides fan/pump schedule.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SystemAvailabilityManagers
+  A2 ; \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+
+AvailabilityManager:ScheduledOn,
+       \min-fields 2
+       \memo Determines the availability of a loop or system: only controls the turn on action.
+       \memo Schedule overrides fan/pump schedule.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SystemAvailabilityManagers
+  A2 ; \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+
+AvailabilityManager:ScheduledOff,
+       \min-fields 2
+       \memo Determines the availability of a loop or system: only controls the turn off action.
+       \memo Schedule overrides fan/pump schedule.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SystemAvailabilityManagers
+  A2 ; \field Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+
+AvailabilityManager:OptimumStart,
+       \memo Determines the optimal start of HVAC systems before occupancy.
+  A1 , \field Name
+       \required-field
+       \reference SystemAvailabilityManagers
+  A2 , \field Applicability Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Fan Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A4 , \field Control Type
+       \type choice
+       \key StayOff
+      \key ControlZone
+       \key MaximumofZoneList
+       \default ControlZone
+  A5 , \field Control Zone Name
+       \type object-list
+       \object-list ZoneNames
+  A6 , \field Zone List Name
+       \type object-list
+       \object-list ZoneListNames
+  N1 , \field Maximum Value for Optimum Start Time
+       \default 6
+       \units hr
+       \note this is the maximum number of hours that a system can start before occupancy
+  A7 , \field Control Algorithm
+       \type choice
+       \key ConstantTemperatureGradient
+       \key AdaptiveTemperatureGradient
+       \key AdaptiveASHRAE
+       \key ConstantStartTime
+       \default AdaptiveASHRAE
+  N2,  \field Constant Temperature Gradient during Cooling
+       \units deltaC/hr
+       \type real
+  N3,  \field Constant Temperature Gradient during Heating
+       \units deltaC/hr
+       \type real
+  N4,  \field Initial Temperature Gradient during Cooling
+       \units deltaC/hr
+       \type real
+  N5,  \field Initial Temperature Gradient during Heating
+       \units deltaC/hr
+       \type real
+  N6,  \field Constant Start Time
+       \units hr
+       \type real
+       \note this is the number of hours before occupancy for a system
+  N7;  \field Number of Previous Days
+       \type integer
+       \units days
+       \minimum 2
+       \default 2
+       \maximum 5
+       \note this is the number of days that their actual temperature
+       \note gradients will be used in the AdaptiveTemperatureGradient method
+
+AvailabilityManager:NightCycle,
+       \min-fields 6
+       \memo Determines the availability of a loop or system: whether it is on or off.
+       \memo Depending on zone temperatures, overrides Schedules and forces system Fans on.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SystemAvailabilityManagers
+  A2 , \field Applicability Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Fan Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A4 , \field Control Type
+       \type choice
+       \key StayOff
+       \key CycleOnAny
+       \key CycleOnControlZone
+       \key CycleOnAnyZoneFansOnly
+       \key CycleOnAnyCoolingOrHeatingZone
+       \key CycleOnAnyCoolingZone
+       \key CycleOnAnyHeatingZone
+       \key CycleOnAnyHeatingZoneFansOnly
+       \default StayOff
+       \note When AvailabilityManager:NightCycle is used in the zone component availability
+       \note manager assignment list, the key choices for Control Type would only be
+       \note StayOff and CycleOnControlZone
+  N1 , \field Thermostat Tolerance
+       \default 1.0
+       \units deltaC
+  A5 , \field Cycling Run Time Control Type
+       \type choice
+       \key FixedRunTime
+       \key Thermostat
+       \key ThermostatWithMinimumRunTime
+       \default FixedRunTime
+  N2 , \field Cycling Run Time
+       \default 3600.
+       \units s
+  A6 , \field Control Zone or Zone List Name
+       \type object-list
+       \object-list ZoneAndZoneListNames
+       \note When AvailabilityManager:NightCycle is used in the zone component availability
+       \note manager assignment list, the Control Zone Name should be the name of the zone in which the
+       \note zone component is.
+  A7 , \field Cooling Control Zone or Zone List Name
+       \type object-list
+       \object-list ZoneAndZoneListNames
+  A8 , \field Heating Control Zone or Zone List Name
+       \type object-list
+       \object-list ZoneAndZoneListNames
+  A9 ; \field Heating Zone Fans Only Zone or Zone List Name
+       \type object-list
+       \object-list ZoneAndZoneListNames
+
+AvailabilityManager:DifferentialThermostat,
+       \memo Overrides fan/pump schedules depending on temperature difference between two nodes.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SystemAvailabilityManagers
+  A2 , \field Hot Node Name
+       \required-field
+       \type node
+  A3 , \field Cold Node Name
+       \required-field
+       \type node
+  N1 , \field Temperature Difference On Limit
+       \required-field
+       \type real
+       \units deltaC
+  N2 ; \field Temperature Difference Off Limit
+       \type real
+       \units deltaC
+       \note Defaults to Temperature Difference On Limit.
+
+AvailabilityManager:HighTemperatureTurnOff,
+       \memo Overrides fan/pump schedules depending on temperature at sensor node.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SystemAvailabilityManagers
+  A2 , \field Sensor Node Name
+       \required-field
+       \type node
+  N1 ; \field Temperature
+       \required-field
+       \type real
+       \units C
+
+AvailabilityManager:HighTemperatureTurnOn,
+       \memo Overrides fan/pump schedules depending on temperature at sensor node.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SystemAvailabilityManagers
+  A2 , \field Sensor Node Name
+       \required-field
+       \type node
+  N1 ; \field Temperature
+       \required-field
+       \type real
+       \units C
+
+AvailabilityManager:LowTemperatureTurnOff,
+       \memo Overrides fan/pump schedules depending on temperature at sensor node.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SystemAvailabilityManagers
+  A2 , \field Sensor Node Name
+       \required-field
+       \type node
+  N1 , \field Temperature
+       \required-field
+       \type real
+       \units C
+  A3 ; \field Applicability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note If blank, defaults to always active
+
+AvailabilityManager:LowTemperatureTurnOn,
+       \memo Overrides fan/pump schedules depending on temperature at sensor node.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SystemAvailabilityManagers
+  A2 , \field Sensor Node Name
+       \required-field
+       \type node
+  N1 ; \field Temperature
+       \required-field
+       \type real
+       \units C
+
+AvailabilityManager:NightVentilation,
+       \min-fields 7
+       \memo depending on zone and outdoor conditions overrides fan schedule to do
+       \memo precooling with outdoor air
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SystemAvailabilityManagers
+  A2 , \field Applicability Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Fan Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A4 , \field Ventilation Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note One zone temperature must be above this scheduled temperature
+       \note for night ventilation to be enabled
+  N1 , \field Ventilation Temperature Difference
+       \units deltaC
+       \default 2.0
+       \note The outdoor air temperature minus the control zone temperature
+       \note must be greater than the ventilation delta T
+  N2 , \field Ventilation Temperature Low Limit
+       \units C
+       \default 15.
+       \note Night ventilation is disabled if any conditioned zone served by
+       \note the system falls below this temperature
+  N3 , \field Night Venting Flow Fraction
+       \minimum 0.0
+       \default 1.
+       \note the fraction (could be > 1) of the design system Flow Rate at which
+       \note night ventilation will be done
+  A5 ; \field Control Zone Name
+       \type object-list
+       \object-list ZoneNames
+       \required-field
+       \note When AvailabilityManager:NightVentilation is used in the zone component availability
+       \note manager assignment list, the Control Zone Name should be the name of the zone in which the
+       \note zone component is.
+
+AvailabilityManager:HybridVentilation,
+       \min-fields 13
+       \memo Depending on zone and outdoor conditions overrides window/door opening controls
+       \memo to maximize natural ventilation and turn off an HVAC system when ventilation control
+       \memo conditions are met.
+       \memo This object (zone ventilation object name) has not been instrumented to work with
+       \memo global Zone or Zone List names option for Ventilation:DesignFlowRate. In order to
+       \memo use, you must enter the single <Ventilation:DesignFlowRate> name in that
+       \memo field. If it is a part of a global ventilation assignment the name will be
+       \memo <Zone Name> <global Ventilation:DesignFlowRate> name.
+       \memo Currently, hybrid ventilation manager is restricted to one per zone. It can either be applied
+       \memo through the air loop or directly to the zone. If hybrid ventilation manager is applied to an
+       \memo air loop and one of the zones served by that air loop also has hybrid ventilation manager,
+       \memo then zone hybrid ventilation manager is disabled.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference SystemAvailabilityManagers
+  A2 , \field HVAC Air Loop Name
+       \note Enter the name of an AirLoopHVAC or HVACTemplate:System:* object.
+       \type object-list
+       \object-list AirPrimaryLoops
+       \object-list HVACTemplateSystems
+       \note If this field is left blank, hybrid ventilation managers will be
+       \note simulated for zone equipment control
+  A3 , \field Control Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+       \note the zone name should be a zone where a thermostat or humidistat is located
+       \note served by an air primary loop.
+  A4 , \field Ventilation Control Mode Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+       \note The Ventilation control mode contains appropriate integer control types.
+       \note 0 - uncontrolled (Natural ventilation and HVAC system are controlled by themselves)
+       \note 1 = Temperature control
+       \note 2 = Enthalpy control
+       \note 3 = Dewpoint control
+       \note 4 = Outdoor ventilation air control
+       \note 5 = Operative temperature control with 80% adaptive comfort acceptability limits
+       \note 6 = Operative temperature control with 90% adaptive comfort acceptability limits
+       \note 7 = Carbon dioxide control
+  A5 , \field Use Weather File Rain Indicators
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+       \note If Yes, ventilation is shutoff when there is rain
+       \note If No, there is no rain control
+  N1 , \field Maximum Wind Speed
+       \type real
+       \units m/s
+       \minimum 0.0
+       \maximum 40.0
+       \default 40.0
+       \note this is the wind speed above which ventilation is shutoff
+  N2 , \field Minimum Outdoor Temperature
+       \note this is the outdoor temperature below which ventilation is shutoff
+       \units C
+       \type real
+       \minimum -100
+       \maximum 100
+       \default -100
+  N3 , \field Maximum Outdoor Temperature
+       \note this is the outdoor temperature above which ventilation is shutoff
+       \units C
+       \type real
+       \minimum -100
+       \maximum 100
+       \default 100
+  N4 , \field Minimum Outdoor Enthalpy
+       \note this is the outdoor Enthalpy below which ventilation is shutoff
+       \units J/kg
+       \type real
+       \minimum> 0.0
+       \maximum< 300000.0
+  N5 , \field Maximum Outdoor Enthalpy
+       \note this is the outdoor Enthalpy above which ventilation is shutoff
+       \units J/kg
+       \type real
+       \minimum> 0
+       \maximum< 300000.0
+  N6 , \field Minimum Outdoor Dewpoint
+       \note this is the outdoor temperature below which ventilation is shutoff
+       \units C
+       \type real
+       \minimum -100
+       \maximum 100
+       \default -100
+       \note Applicable only if Ventilation Control Mode = 3
+  N7 , \field Maximum Outdoor Dewpoint
+       \note this is the outdoor dewpoint above which ventilation is shutoff
+       \units C
+       \type real
+       \minimum -100
+       \maximum 100
+       \default 100
+       \note Applicable only if Ventilation Control Mode = 3
+  A6 , \field Minimum Outdoor Ventilation Air Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Used only if Ventilation Control Mode = 4
+  A7 , \field Opening Factor Function of Wind Speed Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note linear curve = a + b*WS
+       \note quadratic curve = a + b*WS + c*WS**2
+       \note WS = wind speed (m/s)
+  A8 , \field AirflowNetwork Control Type Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note The schedule is used to incorporate operation of AirflowNetwork large opening
+       \note objects and HVAC system operation.
+  A9 , \field Simple Airflow Control Type Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note The schedule is used to incorporate operation of simple airflow objects and HVAC
+       \note system operation.
+       \note The simple airflow objects are Ventilation and Mixing only
+  A10, \field ZoneVentilation Object Name
+       \note This field has not been instrumented to work with
+       \note global Zone or Zone List names option for Ventilation:DesignFlowRate. In order to
+       \note use, you must enter the single <Ventilation:DesignFlowRate> name in this field.
+       \note If it is a part of a global ventilation assignment the name will be
+       \note <Zone Name> <global Ventilation:DesignFlowRate> name.
+       \type object-list
+       \object-list VentilationNames
+       \note The other ZoneVentilation:* and ZoneMixing objects controlled in the same AirLoopHVAC
+       \note will work in the same way as this ventilation object.
+  N8 , \field Minimum HVAC Operation Time
+       \note Minimum operation time when HVAC system is forced on.
+       \type real
+       \units minutes
+       \minimum 0.0
+       \default 0.0
+  N9 ; \field Minimum Ventilation Time
+       \note Minimum ventilation time when natural ventilation is forced on.
+       \type real
+       \units minutes
+       \minimum 0.0
+       \default 0.0
+
+AvailabilityManagerAssignmentList,
+       \memo Defines the applicable managers used for an AirLoopHVAC or PlantLoop. The priority of
+       \memo availability managers is based on a set of rules and are specific to the type of loop.
+       \memo The output from each availability manager is an availability status flag:
+       \memo NoAction, ForceOff, CycleOn, or CycleOnZoneFansOnly (used only for air loops).
+       \min-fields 3
+       \extensible:2 - repeat last two fields, remembering to remove ; from "inner" fields.
+  A1 , \field Name
+       \type alpha
+       \required-field
+       \reference SystemAvailabilityManagerLists
+  A2 , \field Availability Manager 1 Object Type
+       \begin-extensible
+       \required-field
+       \type choice
+       \key AvailabilityManager:Scheduled
+       \key AvailabilityManager:ScheduledOn
+       \key AvailabilityManager:ScheduledOff
+       \key AvailabilityManager:NightCycle
+       \key AvailabilityManager:DifferentialThermostat
+       \key AvailabilityManager:HighTemperatureTurnOff
+       \key AvailabilityManager:HighTemperatureTurnOn
+       \key AvailabilityManager:LowTemperatureTurnOff
+       \key AvailabilityManager:LowTemperatureTurnOn
+       \key AvailabilityManager:NightVentilation
+       \key AvailabilityManager:OptimumStart
+  A3 , \field Availability Manager 1 Name
+       \required-field
+       \type object-list
+       \object-list SystemAvailabilityManagers
+  A4 , \field Availability Manager 2 Object Type
+       \type choice
+       \key AvailabilityManager:Scheduled
+       \key AvailabilityManager:ScheduledOn
+       \key AvailabilityManager:ScheduledOff
+       \key AvailabilityManager:NightCycle
+       \key AvailabilityManager:DifferentialThermostat
+       \key AvailabilityManager:HighTemperatureTurnOff
+       \key AvailabilityManager:HighTemperatureTurnOn
+       \key AvailabilityManager:LowTemperatureTurnOff
+       \key AvailabilityManager:LowTemperatureTurnOn
+       \key AvailabilityManager:NightVentilation
+       \key AvailabilityManager:OptimumStart
+  A5 , \field Availability Manager 2 Name
+       \type object-list
+       \object-list SystemAvailabilityManagers
+  A6 , \field Availability Manager 3 Object Type
+       \type choice
+       \key AvailabilityManager:Scheduled
+       \key AvailabilityManager:ScheduledOn
+       \key AvailabilityManager:ScheduledOff
+       \key AvailabilityManager:NightCycle
+       \key AvailabilityManager:DifferentialThermostat
+       \key AvailabilityManager:HighTemperatureTurnOff
+       \key AvailabilityManager:HighTemperatureTurnOn
+       \key AvailabilityManager:LowTemperatureTurnOff
+       \key AvailabilityManager:LowTemperatureTurnOn
+       \key AvailabilityManager:NightVentilation
+       \key AvailabilityManager:OptimumStart
+  A7 , \field Availability Manager 3 Name
+       \type object-list
+       \object-list SystemAvailabilityManagers
+  A8 , \field Availability Manager 4 Object Type
+       \type choice
+       \key AvailabilityManager:Scheduled
+       \key AvailabilityManager:ScheduledOn
+       \key AvailabilityManager:ScheduledOff
+       \key AvailabilityManager:NightCycle
+       \key AvailabilityManager:DifferentialThermostat
+       \key AvailabilityManager:HighTemperatureTurnOff
+       \key AvailabilityManager:HighTemperatureTurnOn
+       \key AvailabilityManager:LowTemperatureTurnOff
+       \key AvailabilityManager:LowTemperatureTurnOn
+       \key AvailabilityManager:NightVentilation
+       \key AvailabilityManager:OptimumStart
+  A9 , \field Availability Manager 4 Name
+       \type object-list
+       \object-list SystemAvailabilityManagers
+  A10, \field Availability Manager 5 Object Type
+       \type choice
+       \key AvailabilityManager:Scheduled
+       \key AvailabilityManager:ScheduledOn
+       \key AvailabilityManager:ScheduledOff
+       \key AvailabilityManager:NightCycle
+       \key AvailabilityManager:DifferentialThermostat
+       \key AvailabilityManager:HighTemperatureTurnOff
+       \key AvailabilityManager:HighTemperatureTurnOn
+       \key AvailabilityManager:LowTemperatureTurnOff
+       \key AvailabilityManager:LowTemperatureTurnOn
+       \key AvailabilityManager:NightVentilation
+       \key AvailabilityManager:OptimumStart
+  A11, \field Availability Manager 5 Name
+       \type object-list
+       \object-list SystemAvailabilityManagers
+  A12, \field Availability Manager 6 Object Type
+       \type choice
+       \key AvailabilityManager:Scheduled
+       \key AvailabilityManager:ScheduledOn
+       \key AvailabilityManager:ScheduledOff
+       \key AvailabilityManager:NightCycle
+       \key AvailabilityManager:DifferentialThermostat
+       \key AvailabilityManager:HighTemperatureTurnOff
+       \key AvailabilityManager:HighTemperatureTurnOn
+       \key AvailabilityManager:LowTemperatureTurnOff
+       \key AvailabilityManager:LowTemperatureTurnOn
+       \key AvailabilityManager:NightVentilation
+       \key AvailabilityManager:OptimumStart
+  A13; \field Availability Manager 6 Name
+       \type object-list
+       \object-list SystemAvailabilityManagers
+
+\group Setpoint Managers
+! We have a two level hierarchy: Setpoint Managers and Controllers. Set
+! Point Managers are simulated at a high level - they resemble the function
+! of an Energy Management System. A Setpoint Manager can sense any node
+! variables and use them to determine the setpoint of any other node variables.
+
+SetpointManager:Scheduled,
+     \memo The simplest Setpoint Manager simply uses a schedule to determine one
+     \memo or more setpoints. Values of the nodes are not used as input.
+  A1 , \field Name
+       \required-field
+  A2 , \field Control Variable
+       \type choice
+       \key Temperature
+       \key MaximumTemperature
+       \key MinimumTemperature
+       \key HumidityRatio
+       \key MaximumHumidityRatio
+       \key MinimumHumidityRatio
+       \key MassFlowRate
+       \key MaximumMassFlowRate
+       \key MinimumMassFlowRate
+       \required-field
+  A3 , \field Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \required-field
+  A4 ; \field Setpoint Node or NodeList Name
+       \note Node(s) at which control variable will be set
+       \required-field
+       \type node
+
+SetpointManager:Scheduled:DualSetpoint,
+     \memo This setpoint manager places a high and low schedule value
+     \memo on one or more nodes.
+  A1 , \field Name
+       \required-field
+  A2 , \field Control Variable
+       \type choice
+       \key Temperature
+       \default Temperature
+  A3 , \field High Setpoint Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \required-field
+  A4 , \field Low Setpoint Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \required-field
+  A5 ; \field Setpoint Node or NodeList Name
+       \note Node(s) at which temperature will be set
+       \required-field
+       \type node
+
+SetpointManager:OutdoorAirReset,
+     \memo This Setpoint Manager is used to place a setpoint temperature on system node
+     \memo according to the outdoor air temperature using a reset rule. The outdoor air
+     \memo temperature is obtained from the weather information during the simulation.
+  A1 , \field Name
+       \required-field
+  A2 , \field Control Variable
+       \type choice
+       \key Temperature
+       \key MaximumTemperature
+       \key MinimumTemperature
+       \default Temperature
+  N1 , \field Setpoint at Outdoor Low Temperature
+       \units C
+       \required-field
+  N2 , \field Outdoor Low Temperature
+       \units C
+       \required-field
+  N3 , \field Setpoint at Outdoor High Temperature
+       \units C
+       \required-field
+  N4 , \field Outdoor High Temperature
+       \units C
+       \required-field
+  A3 , \field Setpoint Node or NodeList Name
+       \note Node(s) at which temperature will be set
+       \required-field
+       \type node
+  A4 , \field Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Optional input.
+       \note Schedule allows scheduling of the outdoor air reset rule - a schedule value
+       \note of 1 means use the first rule; a value of 2 means use the second rule.
+  N5 , \field Setpoint at Outdoor Low Temperature 2
+       \note 2nd outdoor air temperature reset rule
+       \units C
+  N6 , \field Outdoor Low Temperature 2
+       \note 2nd outdoor air temperature reset rule
+       \units C
+  N7 , \field Setpoint at Outdoor High Temperature 2
+       \note 2nd outdoor air temperature reset rule
+       \units C
+  N8 ; \field Outdoor High Temperature 2
+       \note 2nd outdoor air temperature reset rule
+       \units C
+
+SetpointManager:SingleZone:Reheat,
+       \memo This setpoint manager detects the control zone load, zone inlet node flow rate, and
+       \memo zone node temperature and calculates a setpoint temperature for the supply air that
+       \memo will satisfy the zone load (heating or cooling) for the control zone. This setpoint
+       \memo manager is not limited to reheat applications.
+  A1 , \field Name
+       \required-field
+  A2 , \field Control Variable
+       \type choice
+       \key Temperature
+       \default Temperature
+  N1 , \field Minimum Supply Air Temperature
+       \units C
+       \default -99
+  N2 , \field Maximum Supply Air Temperature
+       \units C
+       \default 99
+  A3 , \field Control Zone Name
+       \type object-list
+       \object-list ZoneNames
+       \required-field
+  A4 , \field Zone Node Name
+       \required-field
+       \type node
+  A5 , \field Zone Inlet Node Name
+       \required-field
+       \type node
+  A6 ; \field Setpoint Node or NodeList Name
+       \note Node(s) at which the temperature will be set
+       \required-field
+       \type node
+
+SetpointManager:SingleZone:Heating,
+       \memo This setpoint manager detects the control zone load to meet the current heating
+       \memo setpoint, zone inlet node flow rate, and zone node temperature, and calculates a
+       \memo setpoint temperature for the supply air that will satisfy the zone heating load for
+       \memo the control zone.
+       \min-fields 8
+  A1 , \field Name
+       \required-field
+  A2 , \field Control Variable
+       \type choice
+       \key Temperature
+       \default Temperature
+  N1 , \field Minimum Supply Air Temperature
+       \units C
+       \default -99
+  N2 , \field Maximum Supply Air Temperature
+       \units C
+       \default 99
+  A3 , \field Control Zone Name
+       \type object-list
+       \object-list ZoneNames
+       \required-field
+  A4 , \field Zone Node Name
+       \required-field
+       \type node
+  A5 , \field Zone Inlet Node Name
+       \required-field
+       \type node
+  A6 ; \field Setpoint Node or NodeList Name
+       \note Node(s) at which the temperature will be set
+       \required-field
+       \type node
+
+SetpointManager:SingleZone:Cooling,
+       \memo This setpoint manager detects the control zone load to meet the current cooling
+       \memo setpoint, zone inlet node flow rate, and zone node temperature, and calculates a
+       \memo setpoint temperature for the supply air that will satisfy the zone cooling load for
+       \memo the control zone.
+       \min-fields 8
+  A1 , \field Name
+       \required-field
+  A2 , \field Control Variable
+       \type choice
+       \key Temperature
+       \default Temperature
+  N1 , \field Minimum Supply Air Temperature
+       \units C
+       \default -99
+  N2 , \field Maximum Supply Air Temperature
+       \units C
+       \default 99
+  A3 , \field Control Zone Name
+       \type object-list
+       \object-list ZoneNames
+       \required-field
+  A4 , \field Zone Node Name
+       \required-field
+       \type node
+  A5 , \field Zone Inlet Node Name
+       \required-field
+       \type node
+  A6 ; \field Setpoint Node or NodeList Name
+       \note Node(s) at which the temperature will be set
+       \required-field
+       \type node
+
+SetpointManager:SingleZone:Humidity:Minimum,
+     \memo The Single Zone Minimum Humidity Setpoint Manager allows the
+     \memo control of a single zone minimum humidity level.
+     \memo This setpoint manager can be used in conjunction with
+     \memo object ZoneControl:Humidistat to detect humidity levels.
+  A1 , \field Name
+       \required-field
+  A2 , \field Setpoint Node or NodeList Name
+       \required-field
+       \type node
+       \note Node(s) at which humidity ratio setpoint will be set
+  A3 ; \field Control Zone Air Node Name
+       \required-field
+       \type node
+       \note Name of the zone air node for the humidity control zone
+
+SetpointManager:SingleZone:Humidity:Maximum,
+     \memo The Single Zone Maximum Humidity Setpoint Manager allows the
+     \memo control of a single zone maximum humidity level.
+     \memo This setpoint manager can be used in conjunction with
+     \memo object ZoneControl:Humidistat to detect humidity levels.
+  A1 , \field Name
+       \required-field
+  A2 , \field Setpoint Node or NodeList Name
+       \required-field
+       \type node
+       \note Node(s) at which humidity ratio setpoint will be set
+  A3 ; \field Control Zone Air Node Name
+       \required-field
+       \type node
+       \note Name of the zone air node for the humidity control zone
+
+SetpointManager:MixedAir,
+     \memo The Mixed Air Setpoint Manager is meant to be used in conjunction
+     \memo with a Controller:OutdoorAir object. This setpoint manager is used
+     \memo to establish a temperature setpoint at the mixed air node.
+  A1 , \field Name
+       \required-field
+  A2 , \field Control Variable
+       \type choice
+       \key Temperature
+       \default Temperature
+  A3 , \field Reference Setpoint Node Name
+       \required-field
+       \type node
+  A4 , \field Fan Inlet Node Name
+       \required-field
+       \type node
+  A5 , \field Fan Outlet Node Name
+       \required-field
+       \type node
+  A6 , \field Setpoint Node or NodeList Name
+       \required-field
+       \type node
+       \note Node(s) at which the temperature will be set
+  A7 , \field Cooling Coil Inlet Node Name
+       \type node
+       \note Optional field used to limit economizer operation to prevent freezing of DX cooling coil.
+  A8 , \field Cooling coil Outlet Node Name
+       \type node
+       \note Optional field used to limit economizer operation to prevent freezing of DX cooling coil.
+  N1 ; \field Minimum Temperature at Cooling Coil Outlet Node
+       \type real
+       \units C
+       \minimum> 0.0
+       \default 7.2
+       \note Optional field used to limit economizer operation to prevent freezing of DX cooling coil.
+
+SetpointManager:OutdoorAirPretreat,
+       \min-fields 11
+       \memo This setpoint manager determines the required
+       \memo conditions at the outdoor air stream node which will
+       \memo produce the reference setpoint condition at the
+       \memo mixed air node when mixed with the return air stream
+  A1 , \field Name
+       \required-field
+  A2 , \field Control Variable
+       \type choice
+       \key Temperature
+       \key HumidityRatio
+       \key MaximumHumidityRatio
+       \key MinimumHumidityRatio
+  N1 , \field Minimum Setpoint Temperature
+       \units C
+       \default -99
+       \note Applicable only if Control variable is Temperature
+  N2 , \field Maximum Setpoint Temperature
+       \units C
+       \default 99
+       \note Applicable only if Control variable is Temperature
+  N3 , \field Minimum Setpoint Humidity Ratio
+       \units kgWater/kgDryAir
+       \maximum 1.0
+       \default 0.00001
+       \note Applicable only if Control variable is
+       \note MaximumHumidityRatio, MinimumHumidityRatio, or HumidityRatio - then minimum is 0.00001
+  N4 , \field Maximum Setpoint Humidity Ratio
+       \units kgWater/kgDryAir
+       \maximum 1.0
+       \default 1.0
+       \note Applicable only if Control variable is
+       \note MaximumHumidityRatio, MinimumHumidityRatio, or HumidityRatio - then minimum is 0.00001
+  A3 , \field Reference Setpoint Node Name
+       \type node
+       \note The current setpoint at this node is the
+       \note desired condition for the Mixed Air Node
+       \note This node must have a valid setpoint
+       \note which has been set by another setpoint manager
+  A4 , \field Mixed Air Stream Node Name
+       \type node
+       \note Name of Mixed Air Node
+       \required-field
+  A5 , \field Outdoor Air Stream Node Name
+       \type node
+       \note Name of Outdoor Air Stream Node
+       \required-field
+  A6 , \field Return Air Stream Node Name
+       \type node
+       \note Name of Return Air Stream Node
+       \required-field
+  A7 ; \field Setpoint Node or NodeList Name
+       \type node
+       \required-field
+       \note Node(s) at which the temperature or humidity
+       \note ratio will be set
+
+SetpointManager:Warmest,
+     \memo This SetpointManager resets the cooling supply air temperature
+     \memo of a central forced air HVAC system according to the
+     \memo cooling demand of the warmest zone.
+  A1 , \field Name
+       \required-field
+  A2 , \field Control Variable
+       \type choice
+       \key Temperature
+       \default Temperature
+  A3 , \field HVAC Air Loop Name
+       \note Enter the name of an AirLoopHVAC object
+       \required-field
+       \type object-list
+       \object-list AirPrimaryLoops
+  N1 , \field Minimum Setpoint Temperature
+       \units C
+       \type real
+       \minimum> 0.0
+       \default 12.
+  N2 , \field Maximum Setpoint Temperature
+       \units C
+       \type real
+       \minimum> 0.0
+       \default 18.
+  A4 , \field Strategy
+       \type choice
+       \key MaximumTemperature
+       \default MaximumTemperature
+  A5 ; \field Setpoint Node or NodeList Name
+       \required-field
+       \type node
+       \note Node(s) at which the temperature will be set
+
+SetpointManager:Coldest,
+     \memo This SetpointManager is used in dual duct systems to reset
+     \memo the setpoint temperature of the air in the heating supply duct.
+     \memo Usually it is used in conjunction with a SetpointManager:Warmest
+     \memo resetting the temperature of the air in the cooling supply duct.
+  A1 , \field Name
+       \required-field
+  A2 , \field Control Variable
+       \type choice
+       \key Temperature
+       \default Temperature
+  A3 , \field HVAC Air Loop Name
+       \note Enter the name of an AirLoopHVAC object.
+       \required-field
+       \type object-list
+       \object-list AirPrimaryLoops
+  N1 , \field Minimum Setpoint Temperature
+       \units C
+       \type real
+       \minimum> 0.0
+       \default 20.
+  N2 , \field Maximum Setpoint Temperature
+       \units C
+       \type real
+       \minimum> 0.0
+       \default 50.
+  A4 , \field Strategy
+       \type choice
+       \key MinimumTemperature
+       \default MinimumTemperature
+  A5 ; \field Setpoint Node or NodeList Name
+       \required-field
+       \type node
+       \note Node(s) at which the temperature will be set
+
+SetpointManager:ReturnAirBypassFlow,
+       \min-fields 4
+       \memo This setpoint manager determines the required
+       \memo mass flow rate through a return air bypass duct
+       \memo to meet the specified temperature setpoint
+  A1 , \field Name
+       \required-field
+  A2 , \field Control Variable
+       \type choice
+       \key Flow
+       \default Flow
+  A3 , \field HVAC Air Loop Name
+       \note Enter the name of an AirLoopHVAC object.
+       \required-field
+       \type object-list
+       \object-list AirPrimaryLoops
+  A4 ; \field Temperature Setpoint Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+
+SetpointManager:WarmestTemperatureFlow,
+       \min-fields 8
+       \memo This setpoint manager sets both the supply air temperature
+       \memo and the supply air flow rate.
+  A1 , \field Name
+       \required-field
+  A2 , \field Control Variable
+       \type choice
+       \key Temperature
+  A3 , \field HVAC Air Loop Name
+       \note Enter the name of an AirLoopHVAC object.
+       \required-field
+       \type object-list
+       \object-list AirPrimaryLoops
+  N1 , \field Minimum Setpoint Temperature
+       \units C
+       \type real
+       \minimum> 0.0
+       \default 12.
+  N2 , \field Maximum Setpoint Temperature
+       \units C
+       \type real
+       \minimum> 0.0
+       \default 18.
+  A4 , \field Strategy
+       \note For TemperatureFirst the manager tries to find the highest setpoint temperature
+       \note that will satisfy all the zone cooling loads at minimum supply air flow rate.
+       \note If this setpoint temperature is less than the minimum, the setpoint temperature is set
+       \note to the minimum, and the supply air flow rate is increased to meet the loads.
+       \note For FlowFirst the manager tries to find the lowest supply air flow rate
+       \note that will satisfy all the zone cooling loads at the maximum setpoint temperature.
+       \note If this flow is greater than the maximum, the flow is set to the maximum and the
+       \note setpoint temperature is reduced to satisfy the cooling loads.
+       \type choice
+       \key TemperatureFirst
+       \key FlowFirst
+       \default TemperatureFirst
+  A5 , \field Setpoint Node or NodeList Name
+       \required-field
+       \type node
+       \note Node(s) at which the temperature will be set
+  N3 ; \field Minimum Turndown Ratio
+       \note Fraction of the maximum supply air flow rate.
+       \note Used to define the minimum supply flow for the TemperatureFirst strategy.
+       \units dimensionless
+       \type real
+       \minimum> 0.0
+       \default 0.2
+
+SetpointManager:MultiZone:Heating:Average,
+       \min-fields 5
+       \memo This setpoint manager sets the average supply air temperature based on the heating load
+       \memo requirements of all controlled zones in an air loop served by a central air-conditioner.
+  A1 , \field Name
+       \required-field
+  A2 , \field HVAC Air Loop Name
+       \note Enter the name of an AirLoopHVAC object
+       \required-field
+       \type object-list
+       \object-list AirPrimaryLoops
+  N1 , \field Minimum Setpoint Temperature
+       \units C
+       \type real
+       \minimum> 0.0
+       \default 20.
+  N2 , \field Maximum Setpoint Temperature
+       \units C
+       \type real
+       \minimum> 0.0
+       \default 50.
+  A3 ; \field Setpoint Node or NodeList Name
+       \required-field
+       \type node
+       \note Node(s) at which the temperature will be set
+
+SetpointManager:MultiZone:Cooling:Average,
+       \min-fields 5
+       \memo This setpoint manager sets the average supply air temperature based on the cooling load
+       \memo requirements of all controlled zones in an air loop served by a central air-conditioner.
+  A1 , \field Name
+       \required-field
+  A2 , \field HVAC Air Loop Name
+       \note Enter the name of an AirLoopHVAC object
+       \required-field
+       \type object-list
+       \object-list AirPrimaryLoops
+  N1 , \field Minimum Setpoint Temperature
+       \units C
+       \type real
+       \minimum> 0.0
+       \default 12.
+  N2 , \field Maximum Setpoint Temperature
+       \units C
+       \type real
+       \minimum> 0.0
+       \default 18.
+  A3 ; \field Setpoint Node or NodeList Name
+       \required-field
+       \type node
+       \note Node(s) at which the temperature will be set
+
+SetpointManager:MultiZone:MinimumHumidity:Average,
+       \min-fields 5
+       \memo This setpoint manager sets the average supply air minimum humidity ratio based on moisture
+       \memo load requirements of all controlled zones in an air loop served by a central air-conditioner.
+  A1 , \field Name
+       \required-field
+  A2 , \field HVAC Air Loop Name
+       \note Enter the name of an AirLoopHVAC object
+       \required-field
+       \type object-list
+       \object-list AirPrimaryLoops
+  N1 , \field Minimum Setpoint Humidity Ratio
+       \units kgWater/kgDryAir
+       \type real
+       \minimum> 0.0
+       \default 0.005
+  N2 , \field Maximum Setpoint Humidity Ratio
+       \units kgWater/kgDryAir
+       \type real
+       \minimum> 0.0
+       \default 0.012
+  A3 ; \field Setpoint Node or NodeList Name
+       \required-field
+       \type node
+       \note Node(s) at which the humidity ratio will be set
+
+SetpointManager:MultiZone:MaximumHumidity:Average,
+       \min-fields 5
+       \memo This setpoint manager sets the average supply air maximum humidity ratio based on moisture
+       \memo load requirements of all controlled zones in an air loop served by a central air-conditioner.
+  A1 , \field Name
+       \required-field
+  A2 , \field HVAC Air Loop Name
+       \note Enter the name of an AirLoopHVAC object
+       \required-field
+       \type object-list
+       \object-list AirPrimaryLoops
+  N1 , \field Minimum Setpoint Humidity Ratio
+       \units kgWater/kgDryAir
+       \type real
+       \minimum> 0.0
+       \default 0.008
+  N2 , \field Maximum Setpoint Humidity Ratio
+       \units kgWater/kgDryAir
+       \type real
+       \minimum> 0.0
+       \default 0.015
+  A3 ; \field Setpoint Node or NodeList Name
+       \required-field
+       \type node
+       \note Node(s) at which the humidity ratio will be set
+
+SetpointManager:MultiZone:Humidity:Minimum,
+       \min-fields 5
+       \memo This setpoint manager sets the minimum supply air humidity ratio based on humidification
+       \memo requirements of a controlled zone with critical humidity ratio setpoint (i.e., a zone with
+       \memo the highest humidity ratio setpoint) in an air loop served by a central air-conditioner.
+  A1 , \field Name
+       \required-field
+  A2 , \field HVAC Air Loop Name
+       \note Enter the name of an AirLoopHVAC object
+       \required-field
+       \type object-list
+       \object-list AirPrimaryLoops
+  N1 , \field Minimum Setpoint Humidity Ratio
+       \units kgWater/kgDryAir
+       \type real
+       \minimum> 0.0
+       \default 0.005
+  N2 , \field Maximum Setpoint Humidity Ratio
+       \units kgWater/kgDryAir
+       \type real
+       \minimum> 0.0
+       \default 0.012
+  A3 ; \field Setpoint Node or NodeList Name
+       \required-field
+       \type node
+       \note Node(s) at which the humidity ratio will be set
+
+SetpointManager:MultiZone:Humidity:Maximum,
+       \min-fields 5
+       \memo This setpoint manager sets the maximum supply air humidity ratio based on dehumidification
+       \memo requirements of a controlled zone with critical humidity ratio setpoint (i.e., a zone with
+       \memo the lowest humidity ratio setpoint) in an air loop served by a central air-conditioner.
+  A1 , \field Name
+       \required-field
+  A2 , \field HVAC Air Loop Name
+       \note Enter the name of an AirLoopHVAC object
+       \required-field
+       \type object-list
+       \object-list AirPrimaryLoops
+  N1 , \field Minimum Setpoint Humidity Ratio
+       \units kgWater/kgDryAir
+       \type real
+       \minimum> 0.0
+       \default 0.008
+  N2 , \field Maximum Setpoint Humidity Ratio
+       \units kgWater/kgDryAir
+       \type real
+       \minimum> 0.0
+       \default 0.015
+  A3 ; \field Setpoint Node or NodeList Name
+       \required-field
+       \type node
+       \note Node(s) at which the humidity ratio will be set
+
+SetpointManager:FollowOutdoorAirTemperature,
+     \memo This setpoint manager is used to place a temperature setpoint on a system node
+     \memo that is derived from the current outdoor air environmental conditions.
+     \memo The outdoor air conditions are obtained from the weather information during the simulation.
+  A1 , \field Name
+       \required-field
+  A2 , \field Control Variable
+       \type choice
+       \key Temperature
+       \key MinimumTemperature
+       \key MaximumTemperature
+       \default Temperature
+  A3 , \field Reference Temperature Type
+       \type choice
+       \key OutdoorAirWetBulb
+       \key OutdoorAirDryBulb
+       \default OutdoorAirWetBulb
+  N1 , \field Offset Temperature Difference
+       \units deltaC
+       \type real
+  N2 , \field Maximum Setpoint Temperature
+       \units C
+       \type real
+  N3 , \field Minimum Setpoint Temperature
+       \units C
+       \type real
+  A4 ; \field Setpoint Node or NodeList Name
+       \note Node(s) at which control variable will be set
+       \required-field
+       \type node
+
+SetpointManager:FollowSystemNodeTemperature,
+     \memo This setpoint manager is used to place a temperature setpoint on a
+     \memo system node that is derived from the current temperatures at a separate
+     \memo system node. The current value of the temperature at a reference node
+     \memo is obtained and used to generate setpoint on a second system node.
+     \memo If the reference node is also designated to be an outdoor air (intake) node,
+     \memo then this setpoint manager can be used to follow outdoor air conditions
+     \memo that are adjusted for altitude.
+  A1 , \field Name
+       \required-field
+  A2 , \field Control Variable
+       \type choice
+       \key Temperature
+       \key MinimumTemperature
+       \key MaximumTemperature
+       \default Temperature
+  A3,  \field Reference Node Name
+       \type node
+  A4 , \field Reference Temperature Type
+       \type choice
+       \key NodeWetBulb
+       \key NodeDryBulb
+       \default NodeDryBulb
+  N1 , \field Offset Temperature Difference
+       \units deltaC
+       \type real
+  N2 , \field Maximum Limit Setpoint Temperature
+       \units C
+       \type real
+  N3 , \field Minimum Limit Setpoint Temperature
+       \units C
+       \type real
+  A5 ; \field Setpoint Node or NodeList Name
+       \note Node(s) at which control variable will be set
+       \required-field
+       \type node
+
+SetpointManager:FollowGroundTemperature,
+     \memo This setpoint manager is used to place a temperature setpoint on a
+     \memo system node that is derived from a current ground temperature.
+     \memo The ground temperatures are specified in different
+     \memo Site:GroundTemperature:* objects and used during the simulation.
+     \memo This setpoint manager is primarily intended for condenser or plant loops
+     \memo using some type of ground heat exchanger.
+  A1 , \field Name
+       \required-field
+  A2 , \field Control Variable
+       \type choice
+       \key Temperature
+       \key MinimumTemperature
+       \key MaximumTemperature
+       \default Temperature
+  A3 , \field Reference Ground Temperature Object Type
+       \type choice
+       \key Site:GroundTemperature:BuildingSurface
+       \key Site:GroundTemperature:Shallow
+       \key Site:GroundTemperature:Deep
+       \key Site:GroundTemperature:FCfactorMethod
+  N1 , \field Offset Temperature Difference
+       \units deltaC
+       \type real
+  N2 , \field Maximum Setpoint Temperature
+       \units C
+       \type real
+  N3 , \field Minimum Setpoint Temperature
+       \units C
+       \type real
+  A4 ; \field Setpoint Node or NodeList Name
+       \note Node(s) at which control variable will be set
+       \required-field
+       \type node
+
+SetpointManager:CondenserEnteringReset,
+       \min-fields 10
+       \memo This setpoint manager uses one curve to determine the optimum condenser entering water temperature
+       \memo for a given timestep and two other curves to place boundary conditions on the setpoint value.
+  A1 , \field Name
+       \type alpha
+       \required-field
+  A2 , \field Control Variable
+       \type choice
+       \key Temperature
+       \default Temperature
+  A3 , \field Default Condenser Entering Water Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \required-field
+       \note This scheduled setpoint value is only used in a given timestep if the
+       \note "Optimized" Condenser Entering Temperature does not fall within the prescribed
+       \note boundary conditions.
+  A4 , \field Minimum Design Wetbulb Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list QuadvariateFunctions
+  A5 , \field Minimum Outside Air Wetbulb Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list QuadvariateFunctions
+  A6 , \field Optimized Cond Entering Water Temperature Curve Name
+       \required-field
+       \type object-list
+       \object-list QuadvariateFunctions
+  N1 , \field Minimum Lift
+       \type real
+       \units deltaC
+       \default 11.1
+  N2 , \field Maximum Condenser Entering Water Temperature
+       \type real
+       \units C
+       \default 32
+  N3 , \field Cooling Tower Design Inlet Air Wet-Bulb Temperature
+       \type real
+       \units C
+       \default 25.56
+  A7 ; \field Setpoint Node or NodeList Name
+       \note Node(s) at which control variable will be set
+       \required-field
+       \type node
+
+SetpointManager:CondenserEnteringReset:Ideal,
+       \min-fields 5
+       \memo This setpoint manager determine the ideal optimum condenser entering water temperature
+       \memo setpoint for a given timestep.
+  A1 , \field Name
+       \type alpha
+       \required-field
+  A2 , \field Control Variable
+       \type choice
+       \key Temperature
+       \default Temperature
+  N1 , \field Minimum Lift
+       \type real
+       \units deltaC
+       \default 11.1
+  N2 , \field Maximum Condenser Entering Water Temperature
+       \type real
+       \units C
+       \default 32
+  A3 ; \field Setpoint Node or NodeList Name
+       \note Node(s) at which control variable will be set
+       \required-field
+       \type node
+
+SetpointManager:SingleZone:OneStageCooling,
+       \memo This object can be used with CoilSystem:Cooling:DX to model on/off cycling control
+       \memo of single stage air systems. Setpoints are modulated to run coil full on or full off
+       \memo depending on zone conditions. Intended for use with ZoneControl:Thermostat:StagedDualSetpoint
+       \min-fields 5
+  A1 , \field Name
+       \required-field
+  N1 , \field Cooling Stage On Supply Air Setpoint Temperature
+       \note This is the setpoint value applied when cooling device is to cycle ON
+       \units C
+       \default -99
+  N2 , \field Cooling Stage Off Supply Air Setpoint Temperature
+       \note This is the setpoint value applied when cooling device is to cycle OFF
+       \units C
+       \default 99
+  A2 , \field Control Zone Name
+       \type object-list
+       \object-list ZoneNames
+       \required-field
+  A3 ; \field Setpoint Node or NodeList Name
+       \note Node(s) at which the temperature will be set
+       \required-field
+       \type node
+
+SetpointManager:SingleZone:OneStageHeating,
+       \memo This object can be used with CoilSystem:Heating:DX, Coil:Heating:Fuel,
+       \memo Coil:Heating:Electric to model on/off cycling control of single stage air systems.
+       \memo Setpoints are modulated to run coil full on or full off depending on zone conditions.
+       \memo Intended for use with ZoneControl:Thermostat:StagedDualSetpoint.
+       \min-fields 5
+  A1 , \field Name
+       \required-field
+  N1 , \field Heating Stage On Supply Air Setpoint Temperature
+       \note This is the setpoint value applied when heating device is to cycle ON
+       \units C
+       \default 99
+  N2 , \field Heating Stage Off Supply Air Setpoint Temperature
+       \note This is the setpoint value applied when heating device is to cycle OFF
+       \units C
+       \default -99
+  A2 , \field Control Zone Name
+       \type object-list
+       \object-list ZoneNames
+       \required-field
+  A3 ; \field Setpoint Node or NodeList Name
+       \note Node(s) at which the temperature will be set
+       \required-field
+       \type node
+
+SetpointManager:ReturnTemperature:ChilledWater,
+     \memo This setpoint manager is used to place a temperature setpoint on a plant supply
+     \memo  outlet node based on a target return water setpoint. The setpoint manager attempts
+     \memo  to achieve the desired return water temperature by adjusting the supply temperature
+     \memo  setpoint based on the plant conditions at each system time step.
+     \min-fields 7
+  A1,  \field Name
+       \required-field
+  A2,  \field Plant Loop Supply Outlet Node
+       \note This is the name of the supply outlet node for the plant being controlled by this
+       \note setpoint manager. Typically this is where the setpoint will be actuated for
+       \note supply equipment to control to, but not necessarily. This setpoint manager will
+       \note mine that information from the internal plant data structures.
+       \type node
+       \required-field
+  A3,  \field Plant Loop Supply Inlet Node
+       \note This is the name of the supply inlet node for the plant being controlled with this
+       \note setpoint manager. The temperature on this node is controlled by actuating the
+       \note supply setpoint.
+       \type node
+       \required-field
+  N1,  \field Minimum Supply Temperature Setpoint
+       \note This is the minimum chilled water supply temperature setpoint. This is also used as the default
+       \note setpoint during no-load or negative-load conditions and during initialization.
+       \type real
+       \units C
+       \default 5
+  N2,  \field Maximum Supply Temperature Setpoint
+       \note This is the maximum reset temperature for the chilled water supply.
+       \type real
+       \units C
+       \default 10
+  A4,  \field Return Temperature Setpoint Input Type
+       \note This defines whether the chilled water return temperature target is constant,
+       \note scheduled, or specified on the supply inlet node by a separate setpoint manager.
+       \type choice
+       \key Constant
+       \key Scheduled
+       \key ReturnTemperatureSetpoint
+       \required-field
+  N3,  \field Return Temperature Setpoint Constant Value
+       \note This is the desired return temperature target, which is met by adjusting the
+       \note supply temperature setpoint. This constant value is only used if
+       \note the Design Chilled Water Return Temperature Input Type is Constant
+       \type real
+       \units C
+       \default 13
+  A5;  \field Return Temperature Setpoint Schedule Name
+       \note This is the desired return temperature target, which is met by adjusting the
+       \note supply temperature setpoint. This is a schedule name to allow the return temperature
+       \note target value to be scheduled. This field is only used if
+       \note the Design Chilled Water Return Temperature Input Type is Scheduled
+       \type object-list
+       \object-list ScheduleNames
+
+SetpointManager:ReturnTemperature:HotWater,
+     \memo This setpoint manager is used to place a temperature setpoint on a plant supply
+     \memo  outlet node based on a target return water setpoint. The setpoint manager attempts
+     \memo  to achieve the desired return water temperature by adjusting the supply temperature
+     \memo  setpoint based on the plant conditions at each system time step.
+     \min-fields 7
+  A1,  \field Name
+       \required-field
+  A2,  \field Plant Loop Supply Outlet Node
+       \note This is the name of the supply outlet node for the plant being controlled by this
+       \note setpoint manager. Typically this is where the setpoint will be actuated for
+       \note supply equipment to control to, but not necessarily. This setpoint manager will
+       \note mine that information from the internal plant data structures.
+       \type node
+       \required-field
+  A3,  \field Plant Loop Supply Inlet Node
+       \note This is the name of the supply inlet node for the plant being controlled with this
+       \note setpoint manager. The temperature on this node is controlled by actuating the
+       \note supply setpoint.
+       \type node
+       \required-field
+  N1,  \field Minimum Supply Temperature Setpoint
+       \note This is the minimum reset temperature for the hot water supply.
+       \type real
+       \units C
+       \default 77
+  N2,  \field Maximum Supply Temperature Setpoint
+       \note This is the maximum hot water supply temperature setpoint. This is also used as the default
+       \note setpoint during no-load or negative-load conditions and during initialization.
+       \type real
+       \units C
+       \default 82
+  A4,  \field Return Temperature Setpoint Input Type
+       \note This defines whether the hot water return temperature target is constant,
+       \note scheduled, or specified on the supply inlet node by a separate setpoint manager.
+       \type choice
+       \key Constant
+       \key Scheduled
+       \key ReturnTemperatureSetpoint
+       \required-field
+  N3,  \field Return Temperature Setpoint Constant Value
+       \note This is the desired return temperature target, which is met by adjusting the
+       \note supply temperature setpoint. This constant value is only used if
+       \note the Design Hot Water Return Temperature Input Type is Constant
+       \type real
+       \units C
+       \default 71
+  A5;  \field Return Temperature Setpoint Schedule Name
+       \note This is the desired return temperature target, which is met by adjusting the
+       \note supply temperature setpoint. This is a schedule name to allow the return temperature
+       \note target value to be scheduled. This field is only used if
+       \note the Design Hot Water Return Temperature Input Type is Scheduled
+       \type object-list
+       \object-list ScheduleNames
+
+\group Refrigeration
+
+Refrigeration:Case,
+        \memo The Refrigeration Case object works in conjunction with a compressor rack, a
+        \memo refrigeration system, or a secondary loop to simulate the performance of a
+        \memo refrigerated case system. The object calculates the energy use for lights, fans and
+        \memo anti-sweat heaters and accounts for the sensible and latent heat exchange with the
+        \memo surrounding environment (termed "case credits") which impacts the temperature
+        \memo and humidity in the zone where the case is located.
+        \min-fields 28
+  A1,  \field Name
+        \required-field
+        \type alpha
+        \reference RefrigerationCaseAndWalkInAndListNames
+        \reference RefrigerationCaseAndWalkInNames
+  A2 ,  \field Availability Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+  A3 ,  \field Zone Name
+        \note This must be a controlled zone and appear in a ZoneHVAC:EquipmentConnections object.
+        \required-field
+        \type object-list
+        \object-list ZoneNames
+  N1 ,  \field Rated Ambient Temperature
+        \type real
+        \units C
+        \default 23.9
+        \minimum> 0.0
+  N2 ,  \field Rated Ambient Relative Humidity
+        \type real
+        \units percent
+        \default 55.0
+        \minimum> 0.0
+        \maximum< 100.0
+  N3 ,  \field Rated Total Cooling Capacity per Unit Length
+        \type real
+        \units W/m
+        \default 1900
+        \minimum> 0.0
+  N4 ,  \field Rated Latent Heat Ratio
+        \type real
+        \default 0.3
+        \minimum 0.0
+        \maximum 1.0
+  N5 ,  \field Rated Runtime Fraction
+        \type real
+        \default 0.85
+        \minimum> 0.0
+        \maximum 1.0
+  N6 ,  \field Case Length
+        \type real
+        \units m
+        \default 3.0
+        \minimum> 0.0
+  N7,   \field Case Operating Temperature
+        \type real
+        \units C
+        \default 1.1
+        \maximum< 20.0
+  A4 ,  \field Latent Case Credit Curve Type
+        \type choice
+        \key CaseTemperatureMethod
+        \key RelativeHumidityMethod
+        \key DewpointMethod
+        \default CaseTemperatureMethod
+  A5 ,  \field Latent Case Credit Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+  N8 ,  \field Standard Case Fan Power per Unit Length
+        \type real
+        \units W/m
+        \default 75.0
+        \minimum 0.0
+  N9 ,  \field Operating Case Fan Power per Unit Length
+        \type real
+        \units W/m
+        \default 75.0
+        \minimum 0.0
+  N10,  \field Standard Case Lighting Power per Unit Length
+        \type real
+        \units W/m
+        \default 90.0
+  N11,  \field Installed Case Lighting Power per Unit Length
+        \type real
+        \units W/m
+        \note default set equal to Standard Case Lighting Power per Unit Length
+  A6 ,  \field Case Lighting Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  N12,  \field Fraction of Lighting Energy to Case
+        \type real
+        \default 1.0
+        \minimum 0.0
+        \maximum 1.0
+  N13,  \field Case Anti-Sweat Heater Power per Unit Length
+        \type real
+        \units W/m
+        \minimum 0
+        \default 0
+  N14,  \field Minimum Anti-Sweat Heater Power per Unit Length
+        \type real
+        \units W/m
+        \minimum 0
+        \default 0
+        \note This field is only applicable to the Linear, Dewpoint Method, and
+        \note Heat Balance Method anti-sweat heater control types
+  A7 ,  \field Anti-Sweat Heater Control Type
+        \type choice
+        \key None
+        \key Constant
+        \key Linear
+        \key DewpointMethod
+        \key HeatBalanceMethod
+        \default None
+  N15,  \field Humidity at Zero Anti-Sweat Heater Energy
+        \type real
+        \units percent
+        \default -10.0
+        \note This field is only applicable to Linear AS heater control type
+        \note Zone relative humidity (%) where anti-sweat heater energy is zero
+  N16,  \field Case Height
+        \type real
+        \units m
+        \minimum 0
+        \default 1.5
+        \note This field only applicable to Heat Balance Method AS heater control type
+        \note Height must be greater than zero if Heat Balance Method AS heater control is selected
+  N17,  \field Fraction of Anti-Sweat Heater Energy to Case
+        \type real
+        \default 1.0
+        \minimum 0.0
+        \maximum 1.0
+  N18,  \field Case Defrost Power per Unit Length
+        \type real
+        \units W/m
+        \note Used to evaluate load on case as well as power or heat consumption
+        \default 0.0
+        \minimum 0.0
+  A8,   \field Case Defrost Type
+        \type choice
+        \key None
+        \key OffCycle
+        \key HotGas
+        \key Electric
+        \key HotFluid
+        \key HotGasWithTemperatureTermination
+        \key ElectricWithTemperatureTermination
+        \key HotFluidWithTemperatureTermination
+        \default OffCycle
+  A9,   \field Case Defrost Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note A case defrost schedule name is required unless case defrost type = None
+  A10,  \field Case Defrost Drip-Down Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note If left blank, the defrost schedule will be used
+        \note The start time for each defrost period in this drip-down schedule should coincide with
+        \note the start time for each defrost period in the case defrost schedule (previous input
+        \note field). The length of each defrost drip-down period must be greater than or equal to the
+        \note corresponding defrost period specified in the case defrost schedule. This extra time
+        \note allows the melted frost to drip from the coil before refrigeration is restarted.
+  A11,  \field Defrost Energy Correction Curve Type
+        \type choice
+        \key None
+        \key CaseTemperatureMethod
+        \key RelativeHumidityMethod
+        \key DewpointMethod
+        \default None
+        \note Case Temperature, Relative Humidity, and Dewpoint Method are applicable to case defrost
+        \note types with temperature termination only.
+  A12,  \field Defrost Energy Correction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note Defrost Energy Correction Curve Name is applicable to case defrost types
+        \note with temperature termination only.
+  N19,  \field Under Case HVAC Return Air Fraction
+        \type real
+        \minimum 0.0
+        \maximum 1.0
+        \default 0.0
+  A13,  \field Refrigerated Case Restocking Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Schedule values should be in units of Watts per unit case length (W/m)
+        \note Leave this field blank if no restocking is to be modeled
+  A14,  \field Case Credit Fraction Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Schedule values should be from 0 to 1
+        \note Leave this field blank if no case credit fraction is to be applied
+  N20,  \field Design Evaporator Temperature or Brine Inlet Temperature
+        \note Required for detailed refrigeration system, not for compressor rack
+        \note For a DX system, enter the saturated temperature for refrigerant pressure leaving case
+        \note For a brine-cooled cooled (secondary system) case, enter the brine inlet temperature
+        \type real
+        \units C
+        \minimum -70.0
+        \maximum 40.0
+        \note Default is 5 C less than case operating temperature
+  N21,  \field Average Refrigerant Charge Inventory
+        \units kg/m
+        \type real
+        \default 0.0
+  A15; \field Under Case HVAC Return Air Node Name
+       \note Name of the return air node for this case.
+       \note If left blank, defaults to the first return air node for this zone.
+       \type node
+
+Refrigeration:CompressorRack,
+        \memo Works in conjunction with the refrigeration case and walk-in objects to simulate the
+        \memo performance of a refrigerated case system. This object models the electric
+        \memo consumption of the rack compressors and the condenser fans. Heat can be rejected
+        \memo either outdoors or to a zone. Compressor rack waste heat can also be reclaimed for
+        \memo use by an optional air- or water-heating coil (Coil:Heating:Desuperheater and
+        \memo Coil:WaterHeating:Desuperheater).
+        \min-fields 25
+  A1 ,  \field Name
+        \required-field
+        \type alpha
+        \reference DesuperHeatingCoilSources
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+  A2 ,  \field Heat Rejection Location
+        \type choice
+        \key Outdoors
+        \key Zone
+        \default Outdoors
+  N1 ,  \field Design Compressor Rack COP
+        \type real
+        \units W/W
+        \minimum> 0.0
+        \default 2.0
+        \note It is important that this COP correspond to the lowest saturated suction
+        \note      temperature needed to serve all refrigeration loads
+  A3 ,  \field Compressor Rack COP Function of Temperature Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note It is important that this COP curve correspond to the lowest saturated suction
+        \note      temperature needed to serve all refrigeration loads
+  N2 ,  \field Design Condenser Fan Power
+        \note Design power for condenser fan(s).
+        \type real
+        \units W
+        \minimum 0.0
+        \default 250.0
+  A4 ,  \field Condenser Fan Power Function of Temperature Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+  A5 ,  \field Condenser Type
+        \type choice
+        \key AirCooled
+        \key EvaporativelyCooled
+        \key WaterCooled
+        \default AirCooled
+        \note Applicable only when Heat Rejection Location is Outdoors.
+  A6 ,  \field Water-Cooled Condenser Inlet Node Name
+        \type node
+  A7 ,  \field Water-Cooled Condenser Outlet Node Name
+        \type node
+  A8 ,  \field Water-Cooled Loop Flow Type
+        \type choice
+        \key VariableFlow
+        \key ConstantFlow
+        \default VariableFlow
+        \note Applicable only when Condenser Type is WaterCooled.
+  A9 ,  \field Water-Cooled Condenser Outlet Temperature Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Applicable only when loop Flow type is VariableFlow.
+  N3,   \field Water-Cooled Condenser Design Flow Rate
+        \type real
+        \units m3/s
+        \ip-units gal/min
+        \minimum> 0.0
+        \note Applicable only when loop flow type is ConstantFlow.
+  N4,   \field Water-Cooled Condenser Maximum Flow Rate
+        \type real
+        \units m3/s
+        \ip-units gal/min
+        \minimum> 0.0
+  N5,   \field Water-Cooled Condenser Maximum Water Outlet Temperature
+        \type real
+        \units C
+        \minimum 10.0
+        \maximum 60.0
+        \default 55.0
+  N6,   \field Water-Cooled Condenser Minimum Water Inlet Temperature
+        \type real
+        \units C
+        \minimum 10.0
+        \maximum 30.0
+        \default 10.0
+  A10 , \field Evaporative Condenser Availability Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note This field is only used for Condenser Type = EvaporativelyCooled.
+        \note Schedule values greater than 0 indicate that evaporative cooling of the
+        \note condenser is available. This schedule allows the user to define seasonal
+        \note shutdown/draining of the water cooling system in cold climate applications.
+        \note For periods with schedule values of 0, the condenser operates as AirCooled.
+  N7 ,  \field Evaporative Condenser Effectiveness
+        \type real
+        \units dimensionless
+        \minimum 0.0
+        \maximum 1.0
+        \default 0.9
+        \note Applicable only for Condenser Type = EvaporativlyCooled.
+  N8 ,  \field Evaporative Condenser Air Flow Rate
+        \type real
+        \units m3/s
+        \minimum> 0.0
+        \autocalculatable
+        \default Autocalculate
+        \note Applicable only for Condenser Type = EvaporativelyCooled.
+        \note Used to calculate evaporative condenser water use.
+  N9 ,  \field Basin Heater Capacity
+        \type real
+        \units W/K
+        \minimum 0.0
+        \default 200.0
+        \note This field is only used for Condenser Type = EvaporativelyCooled and for periods
+        \note when the evaporatively cooled condenser is available (field Evaporative Condenser Availability
+        \note Schedule Name). For this situation, the heater heats the basin water when the
+        \note outdoor air dry-bulb temperature falls below the setpoint temperature, but
+        \note only when the condenser fans are off (i.e., no refrigerated case load).
+  N10 ,  \field Basin Heater Setpoint Temperature
+        \type real
+        \units C
+        \minimum 2.0
+        \default 2.0
+        \note Enter the outdoor dry-bulb temperature at which the basin heater turns on.
+  N11 ,  \field Design Evaporative Condenser Water Pump Power
+        \type real
+        \units W
+        \minimum 0.0
+        \default 1000.0
+        \autocalculatable
+        \note Design recirc water pump power for Condenser Type = EvaporativelyCooled.
+        \note Applicable only for Condenser Type = EvaporativelyCooled.
+  A11 , \field Evaporative Water Supply Tank Name
+        \type object-list
+        \object-list WaterStorageTankNames
+        \note If blank, water supply is from Mains.
+        \note Applicable only for Condenser Type = EvaporativelyCooled.
+  A12 , \field Condenser Air Inlet Node Name
+        \type node
+        \note Applicable only when Heat Rejection Location is Outdoors and Condenser Type is
+        \note not WaterCooled; otherwise, leave field blank. If field is left blank with
+        \note Heat Rejection Location = Outdoors, then the model assumes that the Inlet Air
+        \note conditions are the outdoor air conditions for the current timestep
+        \note (e.g., no adjustment for height above ground).
+  A13 , \field End-Use Subcategory
+        \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+        \type alpha
+        \retaincase
+        \default General
+  A14 , \field Refrigeration Case Name or WalkIn Name or CaseAndWalkInList Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:Walkin or
+        \note Refrigeration:CaseAndWalkinList object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInAndListNames
+  A15  ; \field Heat Rejection Zone Name
+        \note This must be a controlled zone and appear in a ZoneHVAC:EquipmentConnections object.
+        \note Required only if walk-in[s] are connected to this rack
+        \note AND the heat rejection location is "Zone"
+        \type object-list
+        \object-list ZoneNames
+
+Refrigeration:CaseAndWalkInList,
+        \memo Provides a list of all the refrigerated cases, walk in coolers, or air chillers
+        \memo cooled by a single refrigeration system. Note that the names of all cases,
+        \memo walk-ins ,air chillers, and CaseAndWalkInLists must be unique. That is, you cannot
+        \memo give a list the same name as one of list items. This list may contain a combination
+        \memo of case and walk-in names OR a list of air chiller names. Air chillers
+        \memo may not be included in any list that also includes cases or walk-ins.
+        \extensible:1  repeat last field, remembering to remove ; from "inner" fields.
+  A1 ,  \field Name
+        \required-field
+        \type alpha
+        \reference RefrigerationCaseAndWalkInAndListNames
+  A2 ,  \field Case or WalkIn 1 Name
+        \begin-extensible
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A3 ,  \field Case or WalkIn 2 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A4 ,  \field Case or WalkIn 3 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A5 ,  \field Case or WalkIn 4 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A6 ,  \field Case or WalkIn 5 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A7 ,  \field Case or WalkIn 6 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A8 ,  \field Case or WalkIn 7 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A9 ,  \field Case or WalkIn 8 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A10 , \field Case or WalkIn 9 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A11 , \field Case or WalkIn 10 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A12 , \field Case or WalkIn 11 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A13 , \field Case or WalkIn 12 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A14 , \field Case or WalkIn 13 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A15 , \field Case or WalkIn 14 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A16 , \field Case or WalkIn 15 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A17 , \field Case or WalkIn 16 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A18 , \field Case or WalkIn 17 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A19 , \field Case or WalkIn 18 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A20 , \field Case or WalkIn 19 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A21 , \field Case or WalkIn 20 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A22 , \field Case or WalkIn 21 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A23 , \field Case or WalkIn 22 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A24 , \field Case or WalkIn 23 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A25 , \field Case or WalkIn 24 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A26 , \field Case or WalkIn 25 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A27 , \field Case or WalkIn 26 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A28 , \field Case or WalkIn 27 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A29 , \field Case or WalkIn 28 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A30 , \field Case or WalkIn 29 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A31 , \field Case or WalkIn 30 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A32 , \field Case or WalkIn 31 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A33 , \field Case or WalkIn 32 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A34 , \field Case or WalkIn 33 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A35 , \field Case or WalkIn 34 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A36 , \field Case or WalkIn 35 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A37 , \field Case or WalkIn 36 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A38 , \field Case or WalkIn 37 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A39 , \field Case or WalkIn 38 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A40 , \field Case or WalkIn 39 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+  A41 ; \field Case or WalkIn 40 Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInNames
+
+Refrigeration:Condenser:AirCooled,
+        \memo Air cooled condenser for a refrigeration system (Refrigeration:System).
+        \min-fields 5
+  A1 ,  \field Name
+        \required-field
+        \type alpha
+        \reference RefrigerationAllTypesCondenserNames
+        \reference DesuperHeatingCoilSources
+  A2 ,  \field Rated Effective Total Heat Rejection Rate Curve Name
+        \note Rating as per ARI 460
+        \note Be sure the rating corresponds to the correct refrigerant
+        \type object-list
+        \object-list UnivariateFunctions
+        \note HeatRejection(W)=C1 +C2(Condensing Temp - Entering Air Temp, deg C)
+        \note Will be adjusted for elevation automatically
+  N1 ,  \field Rated Subcooling Temperature Difference
+        \type real
+        \units deltaC
+        \default 0.0
+        \minimum 0.0
+        \note must correspond to rating given for total heat rejection effect
+  A3 ,  \field Condenser Fan Speed Control Type
+        \type choice
+        \key Fixed
+        \key FixedLinear
+        \key VariableSpeed
+        \key TwoSpeed
+        \default Fixed
+  N2 ,  \field Rated Fan Power
+        \note Power for condenser fan(s) corresponding to rated total heat rejection effect.
+        \type real
+        \units W
+        \minimum 0.0
+        \default 250.0
+  N3 ,  \field Minimum Fan Air Flow Ratio
+        \note Minimum air flow fraction through condenser fan
+        \type real
+        \units dimensionless
+        \minimum 0.0
+        \default 0.2
+  A4 ,  \field Air Inlet Node Name or Zone Name
+        \type node
+        \note If field is left blank,
+        \note then the model assumes that the inlet air
+        \note conditions are the outdoor air conditions for the current timestep
+        \note (e.g., no adjustment for height above ground).
+        \note If the condenser rejects heat to a conditioned zone, enter the zone name here.
+  A5 ,  \field End-Use Subcategory
+        \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+        \type alpha
+        \retaincase
+        \default General
+  N4 ,  \field Condenser Refrigerant Operating Charge Inventory
+        \type real
+        \units kg
+        \default 0.0
+        \note optional input
+  N5 ,  \field Condensate Receiver Refrigerant Inventory
+        \type real
+        \units kg
+        \default 0.0
+        \note optional input
+  N6 ;  \field Condensate Piping Refrigerant Inventory
+        \type real
+        \units kg
+        \default 0.0
+        \note optional input
+
+Refrigeration:Condenser:EvaporativeCooled,
+        \memo Evaporative-cooled condenser for a refrigeration system (Refrigeration:System).
+        \min-fields 10
+  A1 ,  \field Name
+        \required-field
+        \type alpha
+        \reference RefrigerationAllTypesCondenserNames
+        \reference DesuperHeatingCoilSources
+  N1 ,  \field Rated Effective Total Heat Rejection Rate
+        \note Rating as per ARI 490
+        \required-field
+        \minimum 0.0
+        \note Be sure the rating corresponds to the correct refrigerant
+        \type real
+        \units W
+  N2 ,  \field Rated Subcooling Temperature Difference
+        \type real
+        \units deltaC
+        \default 0.0
+        \minimum 0.0
+        \note must correspond to rating given for total heat rejection effect
+  A2 ,  \field Fan Speed Control Type
+        \type choice
+        \key Fixed
+        \key FixedLinear
+        \key VariableSpeed
+        \key TwoSpeed
+        \default Fixed
+  N3 ,  \field Rated Fan Power
+        \note Power for condenser fan(s) corresponding to rated total heat rejection effect.
+        \type real
+        \units W
+        \minimum 0.0
+        \required-field
+  N4 ,  \field Minimum Fan Air Flow Ratio
+        \note Minimum air flow fraction through condenser fan
+        \type real
+        \units dimensionless
+        \minimum 0.0
+        \default 0.2
+  N5 ,  \field Approach Temperature Constant Term
+        \type real
+        \units C
+        \minimum 0.0
+        \maximum 20.0
+        \default 6.63
+        \note A1 in delta T = A1 + A2(hrcf) + A3/(hrcf) + A4(Twb)
+  N6 ,  \field Approach Temperature Coefficient 2
+        \type real
+        \units C
+        \minimum 0.0
+        \maximum 20.0
+        \default 0.468
+        \note A2 in delta T = A1 + A2(hrcf) +A3/(hrcf) +A4(Twb)
+  N7 ,  \field Approach Temperature Coefficient 3
+        \type real
+        \units C
+        \minimum 0.0
+        \maximum 30.0
+        \default 17.93
+        \note A3 in delta T = A1 + A2(hrcf) +A3/(hrcf) +A4(Twb)
+  N8 ,  \field Approach Temperature Coefficient 4
+        \type real
+        \units dimensionless
+        \minimum -20.0
+        \maximum 20.0
+        \default -0.322
+        \note A4 in deltaT=A1 + A2(hrcf) +A3/(hrcf) +A4(Twb)
+  N9 ,  \field Minimum Capacity Factor
+        \type real
+        \units dimensionless
+        \default 0.50
+        \note taken from manufacturer's Heat Rejection Capacity Factor Table
+  N10,  \field Maximum Capacity Factor
+        \type real
+        \units dimensionless
+        \default 5.0
+        \note taken from manufacturer's Heat Rejection Capacity Factor Table
+  A3 ,  \field Air Inlet Node Name
+        \type node
+        \note If field is left blank,
+        \note then the model assumes that the inlet air
+        \note conditions are the outdoor air conditions for the current timestep
+        \note (e.g., no adjustment for height above ground).
+  N11 , \field Rated Air Flow Rate
+        \type real
+        \units m3/s
+        \autocalculatable
+        \default autocalculate
+        \note Used to calculate evaporative condenser water use and fan energy use.
+  N12 , \field Basin Heater Capacity
+        \type real
+        \units W/K
+        \minimum 0.0
+        \default 200.0
+        \note This field is only used for periods
+        \note when the evap condenser is available (field Evaporative Condenser Availability
+        \note Schedule). For this situation, the heater heats the basin water when the
+        \note outdoor air dry-bulb temperature falls below the set point temperature, but
+        \note only when the condenser fans are off (i.e., no refrigerated case load).
+  N13 , \field Basin Heater Setpoint Temperature
+        \type real
+        \units C
+        \minimum 2.0
+        \default 2.0
+        \note Enter the outdoor dry-bulb temperature at which the basin heater turns on.
+  N14 , \field Rated Water Pump Power
+        \type real
+        \units W
+        \default 1000.0
+        \autocalculatable
+        \note Design recirculating water pump power.
+  A4 ,  \field Evaporative Water Supply Tank Name
+        \type object-list
+        \object-list WaterStorageTankNames
+        \note If blank, water supply is from Mains.
+  A5 ,  \field Evaporative Condenser Availability Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Schedule values greater than 0 indicate that evaporative cooling of the
+        \note condenser is available. This schedule allows the user to define seasonal
+        \note shutdown/draining of the water cooling system in cold climate applications.
+        \note For periods with schedule values of 0, the condenser operates as Air Cooled.
+  A6,   \field End-Use Subcategory
+        \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+        \type alpha
+        \retaincase
+        \default General
+  N15 , \field Condenser Refrigerant Operating Charge Inventory
+        \type real
+        \units kg
+        \default 0.0
+        \note optional input
+  N16 , \field Condensate Receiver Refrigerant Inventory
+        \type real
+        \units kg
+        \default 0.0
+        \note optional input
+  N17 ; \field Condensate Piping Refrigerant Inventory
+        \type real
+        \units kg
+        \default 0.0
+        \note optional input
+
+Refrigeration:Condenser:WaterCooled,
+        \memo Water cooled condenser for a refrigeration system (Refrigeration:System).
+  A1 ,  \field Name
+        \required-field
+        \type alpha
+        \reference RefrigerationAllTypesCondenserNames
+        \reference DesuperHeatingCoilSources
+        \reference-class-name validBranchEquipmentTypes
+        \reference validBranchEquipmentNames
+  N1 ,  \field Rated Effective Total Heat Rejection Rate
+        \note Rating as per ARI 450
+        \note Be sure the rating corresponds to the correct refrigerant
+        \type real
+        \units W
+        \minimum> 0.0
+        \note not used in calculations, only for identification and output
+  N2 ,  \field Rated Condensing Temperature
+        \required-field
+        \type real
+        \minimum> 0.0
+        \units C
+        \note must correspond to rating given for total heat rejection effect
+  N3 ,  \field Rated Subcooling Temperature Difference
+        \default 0.0
+        \minimum 0.0
+        \type real
+        \units deltaC
+        \note must correspond to rating given for total heat rejection effect
+  N4,   \field Rated Water Inlet Temperature
+        \required-field
+        \minimum> 0.0
+        \type real
+        \units C
+        \note must correspond to rating given for total heat rejection effect
+  A2 ,  \field Water Inlet Node Name
+        \type node
+  A3 ,  \field Water Outlet Node Name
+        \type node
+  A4 ,  \field Water-Cooled Loop Flow Type
+        \type choice
+        \key VariableFlow
+        \key ConstantFlow
+        \default VariableFlow
+  A5 ,  \field Water Outlet Temperature Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Applicable only when loop flow type is Variable Flow.
+  N5 ,  \field Water Design Flow Rate
+        \type real
+        \units m3/s
+        \ip-units gal/min
+        \note note required units must be converted from L/s as specified in ARI 450-2007
+        \minimum> 0.0
+        \note Applicable only when loop flow type is Constant Flow.
+  N6 ,  \field Water Maximum Flow Rate
+        \type real
+        \units m3/s
+        \ip-units gal/min
+        \minimum> 0.0
+  N7 ,  \field Water Maximum Water Outlet Temperature
+        \type real
+        \units C
+        \minimum 10.0
+        \maximum 60.0
+        \default 55.0
+  N8 ,  \field Water Minimum Water Inlet Temperature
+        \type real
+        \units C
+        \minimum 10.0
+        \maximum 30.0
+        \default 10.0
+        \note related to the minimum allowed refrigeration system condensing temperature
+  A6 ,  \field End-Use Subcategory
+        \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+        \type alpha
+        \retaincase
+        \default General
+  N9 ,  \field Condenser Refrigerant Operating Charge Inventory
+        \type real
+        \units kg
+        \note optional input
+  N10 , \field Condensate Receiver Refrigerant Inventory
+        \type real
+        \units kg
+        \note optional input
+  N11 ; \field Condensate Piping Refrigerant Inventory
+        \type real
+        \units kg
+        \note optional input
+
+Refrigeration:Condenser:Cascade,
+        \memo Cascade condenser for a refrigeration system (Refrigeration:System). The cascade
+        \memo condenser is unlike the other condenser options because it rejects heat to another,
+        \memo higher-temperature, refrigeration system. That is, the cascade condenser acts as a
+        \memo heat rejection object for one system, but acts as a refrigeration load for another
+        \memo system.
+  A1 ,  \field Name
+        \required-field
+        \type alpha
+        \reference RefrigerationAllTypesCondenserNames
+        \reference RefrigerationCascadeCondenserAndSecondarySystemNames
+        \reference RefrigerationSecondarySystemAndCascadeCondenserAndTransferLoadListNames
+  N1 ,  \field Rated Condensing Temperature
+        \note This is the condensing temperature for the lower temperature secondary loop
+        \required-field
+        \type real
+        \units C
+  N2 ,  \field Rated Approach Temperature Difference
+        \note This is the difference between the condensing and evaporating temperatures
+        \default 3.0
+        \type real
+        \minimum> 0.0
+        \units deltaC
+  N3 ,  \field Rated Effective Total Heat Rejection Rate
+        \required-field
+        \note used for identification and rough system size error checking
+        \type real
+        \minimum> 0.0
+        \units W
+  A2 ,  \field Condensing Temperature Control Type
+        \type choice
+        \key Fixed
+        \key Float
+        \default Fixed
+        \note Fixed keeps condensing temperature constant
+        \note Float sets the condensing temperature according to
+        \note      the other loads on the higher temperature system
+  N4 ,  \field Condenser Refrigerant Operating Charge Inventory
+        \type real
+        \units kg
+        \note optional input
+  N5 , \field Condensate Receiver Refrigerant Inventory
+        \type real
+        \units kg
+        \note optional input
+  N6 ; \field Condensate Piping Refrigerant Inventory
+        \type real
+        \units kg
+        \note optional input
+
+Refrigeration:GasCooler:AirCooled,
+        \memo The transcritical refrigeration system requires a single gas cooler to reject the
+        \memo system heat.
+        \min-fields 4
+  A1 ,  \field Name
+        \required-field
+        \type alpha
+        \reference RefrigerationAllTypesGasCoolerNames
+  A2 ,  \field Rated Total Heat Rejection Rate Curve Name
+        \required-field
+        \type object-list
+        \object-list UnivariateFunctions
+        \note Be sure the rating corresponds to the correct refrigerant (R744)
+        \note HeatRejection(W)=C1 +C2(Gas Cooler Outlet Temp - Entering Air Temp, deg C)
+        \note Will be adjusted for elevation automatically
+  A3 ,  \field Gas Cooler Fan Speed Control Type
+        \type choice
+        \key Fixed
+        \key FixedLinear
+        \key VariableSpeed
+        \key TwoSpeed
+        \default Fixed
+  N1 ,  \field Rated Fan Power
+        \note Power for gas cooler fan(s) corresponding to rated total heat rejection effect.
+        \type real
+        \units W
+        \minimum 0.0
+        \default 5000.0
+  N2 ,  \field Minimum Fan Air Flow Ratio
+        \note Minimum air flow fraction through gas cooler fan
+        \type real
+        \units dimensionless
+        \minimum 0.0
+        \default 0.2
+  N3 ,  \field Transition Temperature
+        \note Temperature at which system transitions between subcritical and transcritical operation.
+        \type real
+        \units C
+        \default 27.0
+  N4 ,  \field Transcritical Approach Temperature
+        \note Temperature difference between the CO2 exiting the gas cooler and the air entering the
+        \note gas cooler during transcritical operation.
+        \type real
+        \units deltaC
+        \default 3.0
+  N5 ,  \field Subcritical Temperature Difference
+        \note Temperature difference between the saturated condensing temperature and the air
+        \note temperature during subcritical operation.
+        \type real
+        \units deltaC
+        \default 10.0
+  N6 ,  \field Minimum Condensing Temperature
+        \note Minimum saturated condensing temperature during subcritical operation.
+        \type real
+        \units C
+        \default 10.0
+  A4 ,  \field Air Inlet Node Name
+        \type node
+        \note If field is left blank,
+        \note then the model assumes that the inlet air
+        \note conditions are the outdoor air conditions for the current timestep
+        \note (e.g., no adjustment for height above ground).
+  A5 ,  \field End-Use Subcategory
+        \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+        \type alpha
+        \retaincase
+        \default General
+  N7 ,  \field Gas Cooler Refrigerant Operating Charge Inventory
+        \type real
+        \units kg
+        \default 0.0
+        \note optional input
+  N8 ,  \field Gas Cooler Receiver Refrigerant Inventory
+        \type real
+        \units kg
+        \default 0.0
+        \note optional input
+  N9 ;  \field Gas Cooler Outlet Piping Refrigerant Inventory
+        \type real
+        \units kg
+        \default 0.0
+        \note optional input
+
+Refrigeration:TransferLoadList,
+        \memo A refrigeration system may provide cooling to other, secondary, systems through
+        \memo either a secondary loop or a cascade condenser. If multiple transfer loads are served
+        \memo by a single primary system, use this list to group them together for reference by the
+        \memo primary system (see the field "Refrigeration Transfer Load or TransferLoad List Name"
+        \memo in the Refrigeration:System object).
+        \extensible:1  repeat last field, remembering to remove ; from "inner" fields.
+  A1 ,  \field Name
+        \required-field
+        \type alpha
+        \reference RefrigerationSecondarySystemAndCascadeCondenserAndTransferLoadListNames
+  A2 ,  \field Cascade Condenser Name or Secondary System 1 Name
+        \begin-extensible
+        \required-field
+        \note Enter the name of a Refrigeration:Condenser:Cascade object OR
+        \note   the name of a Refrigeration:SecondarySystem object.
+        \type object-list
+        \object-list RefrigerationCascadeCondenserAndSecondarySystemNames
+  A3 ,  \field Cascade Condenser Name or Secondary System 2 Name
+        \note Enter the name of a Refrigeration:Condenser:Cascade object OR
+        \note   the name of a Refrigeration:SecondarySystem object.
+        \type object-list
+        \object-list RefrigerationCascadeCondenserAndSecondarySystemNames
+  A4 ,  \field Cascade Condenser Name or Secondary System 3 Name
+        \note Enter the name of a Refrigeration:Condenser:Cascade object OR
+        \note   the name of a Refrigeration:SecondarySystem object.
+        \type object-list
+        \object-list RefrigerationCascadeCondenserAndSecondarySystemNames
+  A5 ,  \field Cascade Condenser Name or Secondary System 4 Name
+        \note Enter the name of a Refrigeration:Condenser:Cascade object OR
+        \note   the name of a Refrigeration:SecondarySystem object.
+        \type object-list
+        \object-list RefrigerationCascadeCondenserAndSecondarySystemNames
+  A6 ,  \field Cascade Condenser Name or Secondary System 5 Name
+        \note Enter the name of a Refrigeration:Condenser:Cascade object OR
+        \note   the name of a Refrigeration:SecondarySystem object.
+        \type object-list
+        \object-list RefrigerationCascadeCondenserAndSecondarySystemNames
+  A7 ,  \field Cascade Condenser Name or Secondary System 6 Name
+        \note Enter the name of a Refrigeration:Condenser:Cascade object OR
+        \note   the name of a Refrigeration:SecondarySystem object.
+        \type object-list
+        \object-list RefrigerationCascadeCondenserAndSecondarySystemNames
+  A8 ,  \field Cascade Condenser Name or Secondary System 7 Name
+        \note Enter the name of a Refrigeration:Condenser:Cascade object OR
+        \note   the name of a Refrigeration:SecondarySystem object.
+        \type object-list
+        \object-list RefrigerationCascadeCondenserAndSecondarySystemNames
+  A9 ,  \field Cascade Condenser Name or Secondary System 8 Name
+        \note Enter the name of a Refrigeration:Condenser:Cascade object OR
+        \note   the name of a Refrigeration:SecondarySystem object.
+        \type object-list
+        \object-list RefrigerationCascadeCondenserAndSecondarySystemNames
+  A10;  \field Cascade Condenser Name or Secondary System 9 Name
+        \note Enter the name of a Refrigeration:Condenser:Cascade object OR
+        \note   the name of a Refrigeration:SecondarySystem object.
+        \type object-list
+        \object-list RefrigerationCascadeCondenserAndSecondarySystemNames
+
+Refrigeration:Subcooler,
+        \memo Two types of subcoolers are modeled by the detailed refrigeration system. The
+        \memo liquid suction heat exchanger uses cool suction gas to subcool the hot condensate
+        \memo after it leaves the condenser and before it reaches the thermal expansion valve.
+        \memo A mechanical subcooler is used to transfer cooling capacity from one refrigeration
+        \memo system to another.
+        \min-fields 5
+   A1 , \field Name
+        \type alpha
+        \required-field
+        \reference RefrigerationSubcoolerNames
+   A2 , \field Subcooler Type
+        \type choice
+        \key Mechanical
+        \key LiquidSuction
+        \default LiquidSuction
+        \note plan to add ambient subcoolers at future time
+   N1 , \field Liquid Suction Design Subcooling Temperature Difference
+        \type real
+        \units deltaC
+        \note Applicable only and required for liquid suction heat exchangers
+        \note design liquid suction subcooling
+   N2 , \field Design Liquid Inlet Temperature
+        \type real
+        \units C
+        \note design inlet temperature on liquid side
+        \note Applicable only and required for liquid suction heat exchangers (LSHX)
+   N3 , \field Design Vapor Inlet Temperature
+        \type real
+        \units C
+        \note design inlet temperature on vapor side
+        \note Applicable only and required for liquid suction heat exchangers (LSHX)
+        \note Design vapor inlet temperature must be less than or equal to
+        \note      the Liquid inlet design temp
+   A3 , \field Capacity-Providing System
+        \type object-list
+        \object-list RefrigerationSystemNames
+        \note Name of the Detailed Refrigeration System providing cooling capacity
+        \note Applicable only and required for mechanical subcoolers
+   N4 ; \field Outlet Control Temperature
+        \type real
+        \units C
+        \note Control Temperature Out for subcooled liquid
+        \note Applicable only and required for mechanical subcoolers
+
+Refrigeration:Compressor,
+        \memo Refrigeration system compressor. Data is available for many compressors
+        \memo in the RefrigerationCompressor.idf dataset
+        \min-fields 6
+   A1 , \field Name
+        \required-field
+        \type alpha
+        \reference RefrigerationCompressorAndListNames
+        \reference RefrigerationCompressorNames
+   A2 , \field Refrigeration Compressor Power Curve Name
+        \required-field
+        \type object-list
+        \object-list BivariateFunctions
+        \note the input order for the Curve:Bicubic does not
+        \note match the ARI 540-2004 Eq. 1 coefficient order
+        \note N1 is ARI_C1, N2 is ARI_C2, N3 is ARI_C4, N4 is ARI_C3,
+        \note N5 is ARI_C6, N6 is ARI_C5, N7 is ARI_C7, N8 is ARI_C10,
+        \note N9 is ARI_C8, N10 is ARI_C9,
+        \note N11 is Minimum Suction dewpoint temperature,
+        \note N12 is Maximum Suction dewpoint temperature,
+        \note N13 is Minimum Discharge dewpoint temperature,
+        \note N14 is Maximum Discharge dewpoint temperature
+   A3 , \field Refrigeration Compressor Capacity Curve Name
+        \required-field
+        \type object-list
+        \object-list BivariateFunctions
+        \note the input order for the Curve:Bicubic does not
+        \note match the ARI 540-2004 Eq. 1 coefficient order
+        \note N1 is ARI_C1, N2 is ARI_C2, N3 is ARI_C4, N4 is ARI_C3,
+        \note N5 is ARI_C6, N6 is ARI_C5, N7 is ARI_C7, N8 is ARI_C10,
+        \note N9 is ARI_C8, N10 is ARI_C9,
+        \note N11 is Minimum Suction dewpoint temperature,
+        \note N12 is Maximum Suction dewpoint temperature,
+        \note N13 is Minimum Discharge dewpoint temperature,
+        \note N14 is Maximum Discharge dewpoint temperature
+   N1 , \field Rated Superheat
+        \units deltaC
+        \type real
+        \note Use this input field OR the next, not both
+        \note This is used if the compressor rating is based upon
+        \note degrees of superheat
+   N2 , \field Rated Return Gas Temperature
+        \units C
+        \type real
+        \note Use this input field OR the previous, not both
+        \note This is used if the compressor rating is based upon
+        \note rated return gas temperature (Rated Suction Temperature)
+   N3 , \field Rated Liquid Temperature
+        \units C
+        \type real
+        \note Use this input field OR the next, not both
+        \note This is used if the compressor rating is based upon
+        \note rated liquid temperature at the expansion valve
+   N4 , \field Rated Subcooling
+        \units deltaC
+        \type real
+        \note Use this input field OR the previous, not both
+        \note This is used if the compressor rating is based upon
+        \note degrees of subcooling
+   A4 , \field End-Use Subcategory
+        \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+        \type alpha
+        \retaincase
+        \default General
+   A5 , \field Mode of Operation
+        \retaincase
+        \type choice
+        \key Subcritical
+        \key Transcritical
+        \default Subcritical
+   A6 , \field Transcritical Compressor Power Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+   A7 ; \field Transcritical Compressor Capacity Curve Name
+        \type object-list
+        \object-list BivariateFunctions
+
+Refrigeration:CompressorList,
+        \memo List of all the compressors included within a single refrigeration system
+        \memo (Refrigeration:System). Each list must contain at least one compressor.
+        \memo The order in which the individual compressors are listed here will be the
+        \memo order in which the compressors are dispatched to meet the system load.
+        \min-fields 2
+        \extensible:1  repeat last field, remembering to remove ; from "inner" fields.
+        \memo IMPORTANT: List compressor names in the order in which the compressors will be loaded
+        \memo Data is available for many compressors in the RefrigerationCompressor.idf dataset
+  A1 ,  \field Name
+        \required-field
+        \type alpha
+        \reference RefrigerationCompressorAndListNames
+  A2 ,  \field Refrigeration Compressor 1 Name
+        \begin-extensible
+        \note Enter the name of a Refrigeration:Compressor object.
+        \required-field
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A3 ,  \field Refrigeration Compressor 2 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A4 ,  \field Refrigeration Compressor 3 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A5 ,  \field Refrigeration Compressor 4 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A6 ,  \field Refrigeration Compressor 5 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A7 ,  \field Refrigeration Compressor 6 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A8 ,  \field Refrigeration Compressor 7 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A9 ,  \field Refrigeration Compressor 8 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A10,  \field Refrigeration Compressor 9 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A11,  \field Refrigeration Compressor 10 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A12,  \field Refrigeration Compressor 11 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A13,  \field Refrigeration Compressor 12  Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A14,  \field Refrigeration Compressor 13 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A15,  \field Refrigeration Compressor 14 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A16,  \field Refrigeration Compressor 15 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A17,  \field Refrigeration Compressor 16 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A18,  \field Refrigeration Compressor 17 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A19,  \field Refrigeration Compressor 18 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A20,  \field Refrigeration Compressor 19 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A21,  \field Refrigeration Compressor 20 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A22,  \field Refrigeration Compressor 21 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A23,  \field Refrigeration Compressor 22 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A24,  \field Refrigeration Compressor 23 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A25,  \field Refrigeration Compressor 24 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A26,  \field Refrigeration Compressor 25 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A27,  \field Refrigeration Compressor 26 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A28,  \field Refrigeration Compressor 27 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A29,  \field Refrigeration Compressor 28 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A30,  \field Refrigeration Compressor 29 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A31,  \field Refrigeration Compressor 30 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A32,  \field Refrigeration Compressor 31 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A33,  \field Refrigeration Compressor 32 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A34,  \field Refrigeration Compressor 33 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A35,  \field Refrigeration Compressor 34 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A36,  \field Refrigeration Compressor 35 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A37,  \field Refrigeration Compressor 36 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A38,  \field Refrigeration Compressor 37 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A39,  \field Refrigeration Compressor 38 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A40,  \field Refrigeration Compressor 39 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+  A41;  \field Refrigeration Compressor 40 Name
+        \note Enter the name of a Refrigeration:Compressor object.
+        \type object-list
+        \object-list RefrigerationCompressorNames
+
+Refrigeration:System,
+        \memo Simulates the performance of a supermarket refrigeration system when used along with
+        \memo other objects to define the refrigeration load(s), the compressor(s), and the
+        \memo condenser.
+        \min-fields 7
+  A1 ,  \field Name
+        \required-field
+        \type alpha
+        \reference RefrigerationSystemNames
+  A2 , \field Refrigerated Case or Walkin or CaseAndWalkInList Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \note If there is more than one refrigerated case or walk-in served by this system,
+        \note  enter the name of a Refrigeration:CaseAndWalkInList object.
+        \note Only cases and walkins served directly by the system should be included in this list.
+        \note Any cases served indirectly via a secondary chiller should NOT be included in this list
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInAndListNames
+  A3  , \field Refrigeration Transfer Load or TransferLoad List Name
+        \note Enter the name of a Refrigeration:SecondarySystem object OR
+        \note   a Refrigeration:Condenser:Cascade object OR,
+        \note   a Refrigeration:TransferLoadList object.
+        \note A transfer load is identified as one which moves the load from one system to another.
+        \note   So if you have more than one such load (including cascade condensers and secondary
+        \note   loops) served by the same system, use a TransferLoadList object.
+        \type object-list
+        \object-list RefrigerationSecondarySystemAndCascadeCondenserAndTransferLoadListNames
+  A4 ,  \field Refrigeration Condenser Name
+        \required-field
+        \type object-list
+        \object-list RefrigerationAllTypesCondenserNames
+  A5,  \field Compressor or CompressorList Name
+        \required-field
+        \type object-list
+        \object-list RefrigerationCompressorAndListNames
+  N1 ,  \field Minimum Condensing Temperature
+        \type real
+        \units C
+        \required-field
+        \note related to the proper operation of the thermal expansion
+        \note valves and compressors
+  A6 ,  \field Refrigeration System Working Fluid Type
+        \note Fluid property data for the refrigerant must be entered.
+        \note The fluid property data, including the objects:
+        \note FluidProperties:Name, FluidProperties:Temperatures,
+        \note FluidProperties:Saturated and FluidProperties:Superheated
+        \note can be copied from the FluidPropertiesRefData.idf dataset
+        \required-field
+        \type object-list
+        \object-list FluidNames
+  A7 ,  \field Suction Temperature Control Type
+        \type choice
+        \key FloatSuctionTemperature
+        \key ConstantSuctionTemperature
+        \default ConstantSuctionTemperature
+  A8 ,  \field Mechanical Subcooler Name
+        \type object-list
+        \object-list RefrigerationSubcoolerNames
+        \note Optional Field
+        \note Recipient of refrigeration capacity, that is receives cool liquid
+        \note    from another refrigeration system to help meet aggregate case loads
+  A9 ,  \field Liquid Suction Heat Exchanger Subcooler Name
+        \type object-list
+        \object-list RefrigerationSubcoolerNames
+        \note Optional Field
+        \note Liquid Suction Heat Exchanger Name, or leave blank
+  N2 ,  \field Sum UA Suction Piping
+        \type real
+        \default 0.0
+        \units W/K
+        \note Use only if you want to include suction piping heat gain in refrigeration load
+  A10,  \field Suction Piping Zone Name
+        \note This will be used to determine the temperature used for distribution piping heat gain
+        \note  and the pipe heat gains  as cooling credit for the zone.
+        \note  Required only if Sum UA Distribution Piping >0.0
+        \type object-list
+        \object-list ZoneNames
+  A11,  \field End-Use Subcategory
+        \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+        \type alpha
+        \retaincase
+        \default General
+  N3 ,  \field Number of Compressor Stages
+        \type choice
+        \key 1
+        \key 2
+        \default 1
+  A12,  \field Intercooler Type
+        \type choice
+        \key None
+        \key Flash Intercooler
+        \key Shell-and-Coil Intercooler
+        \default None
+  N4 ,  \field Shell-and-Coil Intercooler Effectiveness
+        \type real
+        \default 0.8
+  A13;  \field High-Stage Compressor or CompressorList Name
+        \type object-list
+        \object-list RefrigerationCompressorAndListNames
+
+Refrigeration:TranscriticalSystem,
+        \memo Detailed transcritical carbon dioxide (CO2) booster refrigeration systems used in
+        \memo supermarkets. The object allows for modeling either a single stage system with
+        \memo medium-temperature loads or a two stage system with both medium- and low-temperature
+        \memo loads.
+  A1 ,  \field Name
+        \required-field
+        \type alpha
+        \reference RefrigerationSystemNames
+  A2 ,  \field System Type
+        \required-field
+        \type choice
+        \key SingleStage
+        \key TwoStage
+  A3 ,  \field Medium Temperature Refrigerated Case or Walkin or CaseAndWalkInList Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \note If there is more than one refrigerated case or walk-in served by this system,
+        \note enter the name of a Refrigeration:CaseAndWalkInList object.
+        \note Only medium temperature cases and walk-ins served directly by the system should
+        \note be included in this list.
+        \required-field
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInAndListNames
+  A4 ,  \field Low Temperature Refrigerated Case or Walkin or CaseAndWalkInList Name
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \note If there is more than one refrigerated case or walk-in served by this system,
+        \note enter the name of a Refrigeration:CaseAndWalkInList object.
+        \note Only low temperature cases and walkins served directly by the system should be
+        \note included in this list.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInAndListNames
+  A5 ,  \field Refrigeration Gas Cooler Name
+        \required-field
+        \type object-list
+        \object-list RefrigerationAllTypesGasCoolerNames
+  A6 ,  \field High Pressure Compressor or CompressorList Name
+        \required-field
+        \type object-list
+        \object-list RefrigerationCompressorAndListNames
+  A7 ,  \field Low Pressure Compressor or CompressorList Name
+        \type object-list
+        \object-list RefrigerationCompressorAndListNames
+  N1 ,  \field Receiver Pressure
+        \type real
+        \default 4000000
+        \units Pa
+  N2 ,  \field Subcooler Effectiveness
+        \type real
+        \default 0.4
+  A8 ,  \field Refrigeration System Working Fluid Type
+        \note Fluid property data for the refrigerant must be entered.
+        \note The fluid property data, including the objects:
+        \note FluidProperties:Name, FluidProperties:Temperatures,
+        \note FluidProperties:Saturated and FluidProperties:Superheated
+        \note can be copied from the FluidPropertiesRefData.idf dataset
+        \required-field
+        \type object-list
+        \object-list FluidNames
+  N3 ,  \field Sum UA Suction Piping for Medium Temperature Loads
+        \type real
+        \default 0.0
+        \units W/K
+        \note Use only if you want to include suction piping heat gain in refrigeration load
+  A9 ,  \field Medium Temperature Suction Piping Zone Name
+        \note This will be used to determine the temperature used for distribution piping heat
+        \note gain and the pipe heat gains as cooling credit for the zone.
+        \note Required only if Sum UA Distribution Piping for Medium Temperature Loads > 0.0
+        \type object-list
+        \object-list ZoneNames
+  N4 ,  \field Sum UA Suction Piping for Low Temperature Loads
+        \type real
+        \default 0.0
+        \units W/K
+        \note Use only if you want to include suction piping heat gain in refrigeration load
+  A10,  \field Low Temperature Suction Piping Zone Name
+        \note This will be used to determine the temperature used for distribution piping heat
+        \note gain and the pipe heat gains as cooling credit for the zone.
+        \note Required only if Sum UA Distribution Piping for Low Temperature Loads > 0.0
+        \type object-list
+        \object-list ZoneNames
+  A11;  \field End-Use Subcategory
+        \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+        \type alpha
+        \retaincase
+        \default General
+
+Refrigeration:SecondarySystem,
+        \memo Works in conjunction with refrigerated cases and walkins to simulate the performance
+        \memo of a secondary loop supermarket refrigeration system. Heat from the refrigeration
+        \memo loads served by the secondary loop is absorbed by a primary refrigeration system
+        \memo (Refrigeration:System). The SecondarySystem object simulates a heat exchanger that
+        \memo is an evaporator, or refrigeration load, on the primary refrigeration system.
+        \min-fields 14
+  A1 ,  \field Name
+        \required-field
+        \type alpha
+        \reference RefrigerationCascadeCondenserAndSecondarySystemNames
+        \reference RefrigerationSecondarySystemAndCascadeCondenserAndTransferLoadListNames
+  A2 ,  \field Refrigerated Case or Walkin or CaseAndWalkInList Name
+        \required-field
+        \note Enter the name of a Refrigeration:Case or Refrigeration:WalkIn object.
+        \note If there is more than one refrigerated case or walk-in served by this secondary system,
+        \note  enter the name of a Refrigeration:CaseAndWalkInList object.
+        \type object-list
+        \object-list RefrigerationCaseAndWalkInAndListNames
+  A3 ,  \field Circulating Fluid Type
+        \type choice
+        \key FluidAlwaysLiquid
+        \key FluidPhaseChange
+        \required-field
+        \note If "FluidAlwaysLiquid" is selected, the fluid properties
+        \note    must be input using the objects: FluidProperties:Name,
+        \note    FluidProperties:GlycolConcentration, and, if user defined fluid type,
+        \note    FluidProperties:Temperatures and FluidProperties:Concentration.
+        \note    Many sets of fluid properties can be found in GlycolPropertiesRefData.idf.
+        \note If "FluidPhaseChange" is selected, the refrigerant properties
+        \note    must be input using the objects: (if user defined fluid type): FluidProperties:Name,
+        \note    FluidProperties:Temperatures, FluidProperties:Saturated, and
+        \note    FluidProperties:Superheated.
+        \note    Many sets of refrigerant data can be found in FluidPropertiesRefData.idf.
+  A4 ,  \field Circulating Fluid Name
+        \note This must correspond to a name in the FluidProperties:Name object.
+        \required-field
+        \type object-list
+        \object-list FluidAndGlycolNames
+  N1 ,  \field Evaporator Capacity
+        \type real
+        \minimum 0.0
+        \units W
+        \note For "FluidAlwaysLiquid", at least one of the two, Evaporator Capacity OR
+        \note    Evaporator Flow Rate for Secondary Fluid, is required.
+        \note For "FluidPhaseChange", the default capacity is the sum of the rated capacities of the
+        \note    Cases and Walk-ins served by the secondary loop.
+  N2 ,  \field Evaporator Flow Rate for Secondary Fluid
+        \type real
+        \minimum 0.0
+        \units m3/s
+        \ip-units gal/min
+        \note For "FluidAlwaysLiquid", at least one of the two, Evaporator Capacity OR
+        \note    Evaporator Flow Rate for Secondary Fluid, is required.
+        \note For "FluidPhaseChange" loops, this input is not used. (see PhaseChange Circulating
+        \note Rate)
+  N3 ,  \field Evaporator Evaporating Temperature
+        \type real
+        \required-field
+        \units C
+        \note  This is the evaporating temperature in the heat exchanger
+        \note      used to chill or condense the secondary loop circulating fluid.
+        \note      It is NOT the temperature in any cases or walk-ins served by the
+        \note      secondary loop.
+  N4 ,  \field Evaporator Approach Temperature Difference
+        \type real
+        \required-field
+        \units deltaC
+        \note  For "FluidAlwaysLiquid", this is the rated difference between the temperature of the
+        \note      circulating fluid leaving the heat exchanger
+        \note      and the heat exchanger's rated evaporating temperature.
+        \note  For "FluidPhaseChange", this is the difference between the temperature of the
+        \note      evaporating and condensing temperatures in the heat exchanger.
+  N5 ,  \field Evaporator Range Temperature Difference
+        \type real
+        \units deltaC
+        \note  For "FluidAlwaysLiquid", this is the rated difference between the temperature of the
+        \note      circulating fluid entering the heat exchanger and the temperature of the
+        \note      circulating fluid leaving the heat exchanger, and is Required.
+        \note  For "FluidPhaseChange", this input is not used.
+  N6 ,  \field Number of Pumps in Loop
+        \type integer
+        \default 1
+  N7 ,  \field Total Pump Flow Rate
+        \type real
+        \minimum 0.0
+        \units m3/s
+        \ip-units gal/min
+        \note For "FluidAlwaysLiquid",if not input, Evaporator Flow Rate for Secondary Fluid
+        \note       will be used.
+        \note For "FluidPhaseChange", if not input, this will be calculated using the
+        \note       PhaseChange Circulating Rate.
+  N8 ,  \field Total Pump Power
+        \type real
+        \minimum 0.0
+        \units W
+        \note Either the Total Pump Power or the Total Pump Head is required.
+  N9 ,  \field Total Pump Head
+        \type real
+        \minimum 0.0
+        \units Pa
+        \note Either the Total Pump Power or the Total Pump Head is required.
+  N10,  \field PhaseChange Circulating Rate
+        \type real
+        \minimum 1.0
+        \units dimensionless
+        \default 2.5
+        \note This is the total mass flow at the pump divided by the gaseous mass flow
+        \note      leaving the refrigeration load.
+  A5 ,  \field Pump Drive Type
+        \type choice
+        \key Constant
+        \key Variable
+        \default Constant
+  A6 ,  \field Variable Speed Pump Cubic Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note Variable Speed Pump Curve Name is applicable to variable speed pumps
+        \note only.
+  N11 , \field Pump Motor Heat to Fluid
+        \type real
+        \units dimensionless
+        \minimum 0.5
+        \maximum 1.0
+        \default 0.85
+        \note This is the portion of the pump motor heat added to secondary circulating fluid
+        \note    and is equal to the motor efficiency for non-hermetic motor.
+        \note Enter 1.0 for a semi-hermetic motor.
+  N12,  \field Sum UA Distribution Piping
+        \type real
+        \default 0.0
+        \units W/K
+        \note Use only if you want to include distribution piping heat gain in refrigeration load.
+  A7 ,  \field Distribution Piping Zone Name
+        \note This will be used to determine the temperature used for distribution piping heat gain.
+        \note  The pipe heat gains are also counted as cooling credit for the zone.
+        \note  Required only if Sum UA Distribution Piping >0.0
+        \type object-list
+        \object-list ZoneNames
+  N13,  \field Sum UA Receiver/Separator Shell
+        \type real
+        \default 0.0
+        \units W/K
+        \note Use only if you want to include Receiver/Separator Shell heat gain in refrigeration load.
+  A8 ,  \field Receiver/Separator Zone Name
+        \note This will be used to determine the temperature used for Receiver/Separator Shell heat gain.
+        \note  The shell heat gains are also counted as cooling credit for the zone.
+        \note  Required only if Sum UA Receiver/Separator Shell >0.0
+        \type object-list
+        \object-list ZoneNames
+  N14,  \field Evaporator Refrigerant Inventory
+        \units kg
+        \type real
+        \default 0.0
+        \note This value refers to the refrigerant circulating within the primary system providing
+        \note    cooling to the chiller for the secondary loop, not to the fluid circulating
+        \note    within the secondary loop itself.
+  A9;   \field End-Use Subcategory
+        \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+        \type alpha
+        \retaincase
+        \default General
+
+Refrigeration:WalkIn,
+        \memo Works in conjunction with a compressor rack, a refrigeration system, or a
+        \memo refrigeration secondary system to simulate the performance of a walk-in cooler.
+        \memo The walk-in cooler model uses information at rated conditions along with input
+        \memo descriptions for heat transfer surfaces facing multiple zones to determine
+        \memo performance.
+        \extensible:12 -- duplicate last 12 fields, remembering to remove ; from "inner" fields.
+        \min-fields 28
+  A1 ,  \field Name
+        \required-field
+        \type alpha
+        \reference RefrigerationCaseAndWalkInNames
+        \reference RefrigerationCaseAndWalkInAndListNames
+  A2 ,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+  N1 ,  \field Rated Coil Cooling Capacity
+        \type real
+        \units W
+        \required-field
+  N2 ,  \field Operating Temperature
+        \type real
+        \units C
+        \required-field
+        \maximum< 20.0
+  N3 ,  \field Rated Cooling Source Temperature
+        \note If DXEvaporator, use evaporating temperature (saturated suction temperature)
+        \note If BrineCoil, use Brine entering temperature
+        \required-field
+        \type real
+        \units C
+        \minimum -70.0
+        \maximum 40.
+        \note used to set minimum suction pressure for DX systems and
+        \note    minimum brine temp for secondary systems
+  N4 ,  \field Rated Total Heating Power
+        \type real
+        \units W
+        \required-field
+        \note Include total for all anti-sweat, door, drip-pan, and floor heater power
+        \note Do not include defrost heater power
+  A3 ,  \field Heating Power Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Values will be used to multiply the total heating power
+        \note Values in the schedule should be between 0.0 and 1.0
+        \note For example, this could be used if display door antisweat heaters
+        \note are turned off at night
+        \note Defaults to always on if schedule name left blank.
+  N5 ,  \field Rated Cooling Coil Fan Power
+        \type real
+        \units W
+        \default 375.0
+        \minimum 0.
+  N6 ,  \field Rated Circulation Fan Power
+        \type real
+        \units W
+        \default 0.0
+        \minimum 0.0
+  N7 ,  \field Rated Total Lighting Power
+        \type real
+        \units W
+        \required-field
+        \note Enter the total (display + task) installed lighting power.
+  A4 ,  \field Lighting Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note The schedule should contain values between 0 and 1
+        \note Defaults to always on if schedule name left blank.
+  A5 ,  \field Defrost Type
+        \type choice
+        \key HotFluid
+        \key Electric
+        \key None
+        \key OffCycle
+        \default Electric
+        \note HotFluid includes either hot gas defrost for a DX system or
+        \note   Hot Brine defrost if this walk in is cooled by brine from a secondary chiller
+  A6 ,  \field Defrost Control Type
+        \type choice
+        \key TimeSchedule
+        \key TemperatureTermination
+        \default TimeSchedule
+  A7 ,  \field Defrost Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \required-field
+        \note The schedule values should be 0 (off) or 1 (on)
+  A8 ,  \field Defrost Drip-Down Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note The schedule values should be 0 (off) or 1 (on)
+        \note The start time for each defrost period in this drip-down schedule should coincide with
+        \note the start time for each defrost period in the defrost schedule (previous input
+        \note field). The length of each defrost drip-down period must be greater than or equal to the
+        \note corresponding defrost period specified in the defrost schedule. This extra time
+        \note allows the melted frost to drip from the coil before refrigeration is restarted.
+  N8 ,  \field Defrost Power
+        \type real
+        \units W
+        \minimum 0.0
+        \note needed for all defrost types except none and offcycle
+  N9 ,  \field Temperature Termination Defrost Fraction to Ice
+        \type real
+        \units dimensionless
+        \minimum> 0.0
+        \maximum 1.0
+        \note This is the portion of the defrost energy that is available to melt frost
+        \note     Needed only for defrost control type TemperatureTermination
+        \note     defaults to 0.7 for electric defrost and to 0.3 for hot fluid defrost
+  A9 ,  \field Restocking Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Schedule values should be in units of Watts
+        \note Leave this field blank if no restocking is to be modeled
+  N10,  \field Average Refrigerant Charge Inventory
+        \units kg
+        \type real
+        \default 0.0
+        \note This value is only used if the Cooling Source Type is DXEvaporator
+  N11 , \field Insulated Floor Surface Area
+        \type real
+        \required-field
+        \units m2
+        \minimum> 0.0
+        \note floor area of walk-in cooler
+  N12 , \field Insulated Floor U-Value
+        \type real
+        \units W/m2-K
+        \default 0.3154
+        \minimum> 0.0
+        \note The default value corresponds to R18 [ft2-F-hr/Btu]
+        \note To convert other IP R-values to U, divide 5.678 by the R-value
+        \note Some examples:
+        \note R15 is U 0.3785 W/m2-K
+        \note R5 is U 1.136 W/m2-K
+  A10 , \field Zone 1 Name
+        \note This must be a controlled zone and appear in a ZoneHVAC:EquipmentConnections object.
+        \begin-extensible
+        \required-field
+        \type object-list
+        \object-list ZoneNames
+        \note The walk-in cooler can face multiple zones. The heat exchange with each zone
+        \note    must be input separately
+  N13 , \field Total Insulated Surface Area Facing Zone 1
+        \type real
+        \required-field
+        \units m2
+        \minimum> 0.0
+        \note Area should include walls and ceilings, but not doors
+  N14 , \field Insulated Surface U-Value Facing Zone 1
+        \type real
+        \units W/m2-K
+        \default 0.3154
+        \minimum> 0.0
+        \note The default value corresponds to R18 [ft2-F-hr/Btu]
+        \note To convert other IP R-values to U, divide 5.678 by the R-value
+        \note Some examples:
+        \note R15 is U 0.3785 W/m2-K
+        \note R5 is U 1.136 W/m2-K
+  N15 , \field Area of Glass Reach In Doors Facing Zone 1
+        \type real
+        \units m2
+        \default 0.0
+  N16 , \field Height of Glass Reach In Doors Facing Zone 1
+        \type real
+        \units m
+        \default 1.5
+  N17 , \field Glass Reach In Door U Value Facing Zone 1
+        \type real
+        \units W/m2-K
+        \default 1.136
+        \minimum> 0.0
+        \note The default value corresponds to R5 [ft2-F-hr/Btu]
+        \note To convert other IP R-values to U, divide 5.678 by the R-value
+  A11 , \field Glass Reach In Door Opening Schedule Name Facing Zone 1
+        \type object-list
+        \object-list ScheduleNames
+        \note Schedule values should all be between 0.0 and 1.0.
+        \note For example, if the door is open 30% of the time during working hours,
+        \note  then the schedule would hold the value 0.3 during working hours
+        \note  and 0 during other hours
+        \note  If no schedule name is entered, default is 5% open time during all hours
+  N18 , \field Area of Stocking Doors Facing Zone 1
+        \type real
+        \units m2
+        \default 0.0
+  N19 , \field Height of Stocking Doors Facing Zone 1
+        \type real
+        \units m
+        \default 3.0
+  N20 , \field Stocking Door U Value Facing Zone 1
+        \type real
+        \units W/m2-K
+        \default 0.3785
+        \minimum> 0.0
+        \note The default value corresponds to R15 [ft2-F-hr/Btu]
+        \note To convert other IP R-values to U, divide 5.678 by the R-value
+        \note Some examples:
+        \note R5 is U 1.136 W/m2-K
+        \note R18 is U 0.3154 W/m2-K
+  A12 , \field Stocking Door Opening Schedule Name Facing Zone 1
+        \type object-list
+        \object-list ScheduleNames
+        \note Schedule values should all be between 0.0 and 1.0.
+        \note For example, if the door is open 30% of the time during working hours,
+        \note  then the schedule would hold the value 0.3 during working hours
+        \note  and 0 during other hours
+        \note  If no schedule name is entered, default is 5% open time during all hours
+  A13 , \field Stocking Door Opening Protection Type Facing Zone 1
+        \type choice
+        \key None
+        \key AirCurtain
+        \key StripCurtain
+        \note Use StripCurtain for hanging strips or airlock vestibules
+        \default AirCurtain
+  A14 , \field Zone 2 Name
+        \note required if more than one zone
+        \note This must be a controlled zone and appear in a ZoneHVAC:EquipmentConnections object.
+        \type object-list
+        \object-list ZoneNames
+  N21 , \field Total Insulated Surface Area Facing Zone 2
+        \type real
+        \units m2
+        \minimum> 0.0
+        \note Area should include walls and ceilings, but not doors
+        \note required if more than one zone
+  N22 , \field Insulated Surface U-Value Facing Zone 2
+        \type real
+        \units W/m2-K
+        \default 0.3154
+        \minimum> 0.0
+        \note The default value corresponds to R18 [ft2-F-hr/Btu]
+        \note To convert other IP R-values to U, divide 5.678 by the R-value
+        \note Some examples:
+        \note R15 is U 0.3785 W/m2-K
+        \note R5 is U 1.136 W/m2-K
+  N23 , \field Area of Glass Reach In Doors Facing Zone 2
+        \type real
+        \units m2
+        \default 0.0
+  N24 , \field Height of Glass Reach In Doors Facing Zone 2
+        \type real
+        \units m
+        \default 1.5
+  N25 , \field Glass Reach In Door U Value Facing Zone 2
+        \type real
+        \units W/m2-K
+        \default 1.136
+        \minimum> 0.0
+        \note The default value corresponds to R5 [ft2-F-hr/Btu]
+        \note To convert other IP R-values to U, divide 5.678 by the R-value
+  A15 , \field Glass Reach In Door Opening Schedule Name Facing Zone 2
+        \type object-list
+        \object-list ScheduleNames
+        \note Schedule values should all be between 0.0 and 1.0.
+        \note For example, if the door is open 30% of the time during working hours,
+        \note  then the schedule would hold the value 0.3 during working hours
+        \note  and 0 during other hours
+        \note  If no schedule name is entered, default is 5% open time during all hours
+  N26 , \field Area of Stocking Doors Facing Zone 2
+        \type real
+        \units m2
+        \default 0.0
+  N27 , \field Height of Stocking Doors Facing Zone 2
+        \type real
+        \units m
+        \default 3.0
+  N28 , \field Stocking Door U Value Facing Zone 2
+        \type real
+        \units W/m2-K
+        \default 0.3785
+        \minimum> 0.0
+        \note The default value corresponds to R15 [ft2-F-hr/Btu]
+        \note To convert other IP R-values to U, divide 5.678 by the R-value
+        \note Some examples:
+        \note R5 is U 1.136 W/m2-K
+        \note R18 is U 0.3154 W/m2-K
+  A16 , \field Stocking Door Opening Schedule Name Facing Zone 2
+        \type object-list
+        \object-list ScheduleNames
+        \note Schedule values should all be between 0.0 and 1.0.
+        \note For example, if the door is open 30% of the time during working hours,
+        \note  then the schedule would hold the value 0.3 during working hours
+        \note  and 0 during other hours
+        \note  If no schedule name is entered, default is 5% open time during all hours
+  A17 , \field Stocking Door Opening Protection Type Facing Zone 2
+        \type choice
+        \key None
+        \key AirCurtain
+        \key StripCurtain
+        \note Use StripCurtain for hanging strips or airlock vestibules
+        \default AirCurtain
+        \note last extensible set begins here
+        \note dup remaining 12 lines as many times as there are zones exchanging heat with walk-in
+        \note  Move the ending semicolon and increment the field numbers.
+  A18 , \field Zone 3 Name
+        \note This must be a controlled zone and appear in a ZoneHVAC:EquipmentConnections object.
+        \note required if more than two zones
+        \type object-list
+        \object-list ZoneNames
+  N29 , \field Total Insulated Surface Area Facing Zone 3
+        \type real
+        \note required if more than two zones
+        \units m2
+        \minimum> 0.0
+        \note Area should include walls and ceilings, but not doors
+  N30 , \field Insulated Surface U-Value Facing Zone 3
+        \type real
+        \units W/m2-K
+        \default 0.3154
+        \minimum> 0.0
+        \note The default value corresponds to R18 [ft2-F-hr/Btu]
+        \note To convert other IP R-values to U, divide 5.678 by the R-value
+        \note Some examples:
+        \note R15 is U 0.3785 W/m2-K
+        \note R5 is U 1.136 W/m2-K
+  N31 , \field Area of Glass Reach In Doors Facing Zone 3
+        \type real
+        \units m2
+        \default 0.0
+  N32 , \field Height of Glass Reach In Doors Facing Zone 3
+        \type real
+        \units m
+        \default 1.5
+  N33 , \field Glass Reach In Door U Value Facing Zone 3
+        \type real
+        \units W/m2-K
+        \default 1.136
+        \minimum> 0.0
+        \note The default value corresponds to R5 [ft2-F-hr/Btu]
+        \note To convert other IP R-values to U, divide 5.678 by the R-value
+  A19,  \field Glass Reach In Door Opening Schedule Name Facing Zone 3
+        \type object-list
+        \object-list ScheduleNames
+        \note Schedule values should all be between 0.0 and 1.0.
+        \note For example, if the door is open 30% of the time during working hours,
+        \note  then the schedule would hold the value 0.3 during working hours
+        \note  and 0 during other hours
+        \note  If no schedule name is entered, default is 5% open time during all hours
+  N34 , \field Area of Stocking Doors Facing Zone 3
+        \type real
+        \units m2
+        \default 0.0
+  N35 , \field Height of Stocking Doors Facing Zone 3
+        \type real
+        \units m
+        \default 3.0
+  N36 , \field Stocking Door U Value Facing Zone 3
+        \type real
+        \units W/m2-K
+        \default 0.3785
+        \minimum> 0.0
+        \note The default value corresponds to R15 [ft2-F-hr/Btu]
+        \note To convert other IP R-values to U, divide 5.678 by the R-value
+        \note Some examples:
+        \note R5 is U 1.136 W/m2-K
+        \note R18 is U 0.3154 W/m2-K
+  A20 , \field Stocking Door Opening Schedule Name Facing Zone 3
+        \type object-list
+        \object-list ScheduleNames
+        \note Schedule values should all be between 0.0 and 1.0.
+        \note For example, if the door is open 30% of the time during working hours,
+        \note  then the schedule would hold the value 0.3 during working hours
+        \note  and 0 during other hours
+        \note  If no schedule name is entered, default is 5% open time during all hours
+  A21 ; \field Stocking Door Opening Protection Type Facing Zone 3
+        \type choice
+        \key None
+        \key AirCurtain
+        \key StripCurtain
+        \note Use StripCurtain for hanging strips or airlock vestibules
+        \default AirCurtain
+
+Refrigeration:AirChiller,
+        \memo Works in conjunction with a refrigeration chiller set, compressor rack, a
+        \memo refrigeration system, or a refrigeration secondary system to simulate the performance
+        \memo of an air chiller, similar to one found in a refrigerated warehouse. Energy use for
+        \memo fans and heaters is modeled based on inputs for nominal power, schedules, and control
+        \memo type. The air chiller model accounts for the sensible and latent heat exchange
+        \memo with the surrounding environment.
+        \min-fields 23
+  A1 ,  \field Name
+        \required-field
+        \type alpha
+        \reference RefrigerationCaseAndWalkInNames
+        \reference RefrigerationCaseAndWalkInAndListNames
+        \reference RefrigerationAirChillerNames
+  A2 ,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+  A3 ,  \field Capacity Rating Type
+        \required-field
+        \type choice
+        \note In each case, select the rating option that corresponds to the expected service conditions.
+        \note For example, U.S. manufacturers quote a separate Unit Load Factor for wet or frosted coils.
+        \note If the evaporating temperature is less than 0C, input the frosted coil value.
+        \note Within the European convention, select SC1, 2, 3, 4, or 5 depending upon the expected evaporating temperature.
+        \key UnitLoadFactorSensibleOnly
+        \key CapacityTotalSpecificConditions
+        \key EuropeanSC1Standard
+        \key EuropeanSC1NominalWet
+        \key EuropeanSC2Standard
+        \key EuropeanSC2NominalWet
+        \key EuropeanSC3Standard
+        \key FixedLinear
+        \key EuropeanSC3NominalWet
+        \key EuropeanSC4Standard
+        \key EuropeanSC4NominalWet
+        \key EuropeanSC5Standard
+        \key EuropeanSC5NominalWet
+  N1 ,  \field Rated Unit Load Factor
+        \type real
+        \units W/K
+        \note The sensible cooling capacity in watts (W/C) at rated conditions.
+        \note  The value entered for this field must be greater than zero, with no default value.
+        \note This value is only used if the Capacity Rating Type is UnitLoadFactorSensibleOnly.
+        \note The value given must be based upon the difference between the chiller inlet and
+        \note outlet air temperatures, not on the difference between the zone mean temperature
+        \note and the outlet air temperature
+  N2 ,  \field Rated Capacity
+        \type real
+        \units W
+        \note This value is only used if the Capacity Rating Type is NOT UnitLoadFactorSensibleOnly.
+        \note For CapacityTotalSpecificConditions, this capacity includes both sensible and latent
+        \note at the conditions given in the next two fields.
+        \note Note that the European Standard ratings are sensible only and
+        \note the European Nominal ratings include latent capacity as well.
+        \note The value given here must correspond to the capacity rating type given previously
+  N3 ,  \field Rated Relative Humidity
+        \type real
+        \units percent
+        \maximum 100
+        \default 85
+        \note This field is ONLY used if the Capacity Rating Type is CapacityTotalSpecificConditions and
+        \note represents the relative humidity at rated conditions. The default is 85.
+  N4 ,  \field Rated Cooling Source Temperature
+        \note If DXEvaporator, use evaporating temperature (saturated suction temperature)
+        \note If BrineCoil, use Brine entering temperature
+        \required-field
+        \type real
+        \units C
+        \minimum -70.0
+        \maximum 40.
+        \note used to set minimum suction pressure for DX systems and
+        \note    minimum brine temp for secondary systems
+  N5 ,  \field Rated Temperature Difference DT1
+        \required-field
+        \type real
+        \units deltaC
+        \minimum 0.0
+        \maximum 20.
+        \note The rated difference between the air entering the refrigeration chiller and the
+        \note cooling source temperature in degC.
+  N6 ,  \field Maximum Temperature Difference Between Inlet Air and Evaporating Temperature
+        \type real
+        \units deltaC
+        \minimum 0.0
+        \maximum 25.
+        \note The maximum difference between the air entering the refrigeration chiller and the
+        \note cooling source temperature in degC used to limit capacity during pull-down.
+        \note defaults to 1.3 times the Rated Temperature Difference DT1
+  N7 ,  \field Coil Material Correction Factor
+        \type real
+        \units dimensionless
+        \default 1.0
+        \note This is the manufacturer's correction factor for coil material corresponding to rating
+  N8 ,  \field Refrigerant Correction Factor
+        \type real
+        \units dimensionless
+        \default 1.0
+        \note This is the manufacturer's correction factor for refrigerant corresponding to rating
+  A4 ,  \field Capacity Correction Curve Type
+        \note In each case, select the correction curve type that corresponds to the rating type.
+        \type choice
+        \key LinearSHR60
+        \key QuadraticSHR
+        \key European
+        \key TabularRHxDT1xTRoom
+        \note default LinearSHR60 unless Capacity Rating Type = CapacityTotalSpecificConditions
+  A5 ,  \field Capacity Correction Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \object-list TrivariateFunctions
+        \note Should be blank for LinearSHR60 correction curve type
+  N9 ,  \field SHR60 Correction Factor
+        \type real
+        \units dimensionless
+        \default 1.48
+        \maximum 1.67
+        \note only used when the capacity correction curve type is LinearSHR60
+  N10,  \field Rated Total Heating Power
+        \type real
+        \units W
+        \required-field
+        \note Include total for all heater power
+        \note Do not include defrost heater power
+  A6 ,  \field Heating Power Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note Values will be used to multiply the total heating power
+        \note Values in the schedule should be between 0.0 and 1.0
+        \note Defaults to always on if schedule name left blank.
+  A7 ,  \field Fan Speed Control Type
+        \type choice
+        \key Fixed
+        \key FixedLinear
+        \key VariableSpeed
+        \key TwoSpeed
+        \default Fixed
+  N11,  \field Rated Fan Power
+        \type real
+        \units W
+        \default 375.0
+        \minimum 0.
+  N12,  \field Rated Air Flow
+        \required-field
+        \type real
+        \units m3/s
+  N13,  \field Minimum Fan Air Flow Ratio
+        \note Minimum air flow fraction through fan
+        \type real
+        \units dimensionless
+        \minimum 0.0
+        \default 0.2
+  A8 ,  \field Defrost Type
+        \type choice
+        \key HotFluid
+        \key Electric
+        \key None
+        \key OffCycle
+        \default Electric
+        \note HotFluid includes either hot gas defrost for a DX system or
+        \note   Hot Brine defrost if this walk in is cooled by brine from a secondary chiller
+  A9 ,  \field Defrost Control Type
+        \type choice
+        \key TimeSchedule
+        \key TemperatureTermination
+        \default TimeSchedule
+  A10,  \field Defrost Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \required-field
+        \note The schedule values should be 0 (off) or 1 (on)
+  A11,  \field Defrost Drip-Down Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note The schedule values should be 0 (off) or 1 (on)
+        \note The start time for each defrost period in this drip-down schedule should coincide with
+        \note the start time for each defrost period in the defrost schedule (previous input
+        \note field). The length of each defrost drip-down period must be greater than or equal to the
+        \note corresponding defrost period specified in the defrost schedule. This extra time
+        \note allows the melted frost to drip from the coil before refrigeration is restarted.
+  N14,  \field Defrost Power
+        \type real
+        \units W
+        \minimum 0.0
+        \note needed for all defrost types except none and offcycle
+  N15,  \field Temperature Termination Defrost Fraction to Ice
+        \type real
+        \units dimensionless
+        \minimum> 0.0
+        \maximum 1.0
+        \note This is the portion of the defrost energy that is available to melt frost
+        \note     Needed only for defrost control type TemperatureTermination
+        \note     defaults to 0.7 for electric defrost and to 0.3 for hot fluid defrost
+  A12,  \field Vertical Location
+        \type choice
+        \key Ceiling
+        \key Middle
+        \key Floor
+        \default Middle
+  N16;  \field Average Refrigerant Charge Inventory
+        \units kg
+        \type real
+        \default 0.0
+        \note This value is only used if the Cooling Source Type is DXEvaporator
+
+ZoneHVAC:RefrigerationChillerSet,
+        \memo Works in conjunction with one or multiple air chillers, compressor racks,
+        \memo refrigeration systems, or refrigeration secondary system objects to simulate the
+        \memo performance of a group of air chillers cooling a single zone. The chiller set
+        \memo model passes information about the zone conditions to determine the performance of
+        \memo individual chiller coils within the set, thus providing the sensible and latent heat
+        \memo exchange with the zone environment.
+        \extensible:1 -- duplicate last field, remembering to remove ; from "inner" fields.
+        \min-fields 6
+  A1 ,  \field Name
+        \required-field
+        \type alpha
+        \reference ZoneEquipmentNames
+  A2 ,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+  A3  , \field Zone Name
+        \note This must be a controlled zone and appear in a ZoneHVAC:EquipmentConnections object.
+        \type object-list
+        \object-list ZoneNames
+  A4 ,  \field Air Inlet Node Name
+        \type node
+        \note Not used - reserved for future use
+        \note Name of the zone exhaust node (see Node) from which the refrigeration chiller
+        \note draws its indoor air.
+        \note This should be one of the zone exhaust nodes for the zone cooled by the chiller set.
+  A5 ,  \field Air Outlet Node Name
+        \type node
+        \note Not used - reserved for future use
+        \note The name of the node where the chiller coil sends its outlet air,
+        \note which must be one of the inlet air nodes for the zone which is being cooled.
+  A6 ,  \field Air Chiller 1 Name
+        \begin-extensible
+        \type object-list
+        \note This is the first chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A7 ,  \field Air Chiller 2 Name
+        \type object-list
+        \note This is the second chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A8 ,  \field Air Chiller 3 Name
+        \type object-list
+        \note This is the third chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A9 ,  \field Air Chiller 4 Name
+        \type object-list
+        \note This is the fourth chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A10,  \field Air Chiller 5 Name
+        \type object-list
+        \note This is the fifth chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A11,  \field Air Chiller 6 Name
+        \type object-list
+        \note This is the sixth chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A12,  \field Air Chiller 7 Name
+        \type object-list
+        \note This is the seventh chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A13,  \field Air Chiller 8 Name
+        \type object-list
+        \note This is the eighth chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A14,  \field Air Chiller 9 Name
+        \type object-list
+        \note This is the ninth chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A15,  \field Air Chiller 10 Name
+        \type object-list
+        \note This is the tenth chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A16,  \field Air Chiller 11 Name
+        \type object-list
+        \note This is the eleventh chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A17,  \field Air Chiller 12 Name
+        \type object-list
+        \note This is the twelfth chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A18,  \field Air Chiller 13 Name
+        \type object-list
+        \note This is the thirteenth chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A19,  \field Air Chiller 14 Name
+        \type object-list
+        \note This is the fourteenth chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A20,  \field Air Chiller 15 Name
+        \type object-list
+        \note This is the fifteenth chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A21,  \field Air Chiller 16 Name
+        \type object-list
+        \note This is the sixteenth chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A22,  \field Air Chiller 17 Name
+        \type object-list
+        \note This is the seventeenth chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A23,  \field Air Chiller 18 Name
+        \type object-list
+        \note This is the eighteenth chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A24,  \field Air Chiller 19 Name
+        \type object-list
+        \note This is the nineteenth chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+  A25,  \field Air Chiller 20 Name
+        \type object-list
+        \note This is the twentieth chiller turned on to meet the zone load
+        \object-list RefrigerationAirChillerNames
+     A26,A27,A28,A29,A30,A31,A32,A33,A34,A35,A36,A37,A38,A39,A40,A41,A42,A43,A44,A45, \note fields as indicated
+     A46,A47,A48,A49,A50,A51,A52,A53,A54,A55,A56,A57,A58,A59,A60,A61,A62,A63,A64,A65, \note fields as indicated
+     A66,A67,A68,A69,A70,A71,A72,A73,A74,A75,A76,A77,A78,A79,A80,A81,A82,A83,A84,A85, \note fields as indicated
+     A86,A87,A88,A89,A90,A91,A92,A93,A94,A95,A96,A97,A98,A99,A100;                    \note fields as indicated
+
+\group Demand Limiting Controls
+
+DemandManagerAssignmentList,
+       \extensible:2 Duplicate the last two fields DemandManager Object Type and DemandManager Name
+       \memo a list of meters that can be reported are available after a run on
+       \memo the meter dictionary file (.mdd) if the Output:VariableDictionary has been requested.
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Meter Name
+       \required-field
+       \type external-list
+       \external-list autoRDDmeter
+  A3 , \field Demand Limit Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  N1 , \field Demand Limit Safety Fraction
+       \required-field
+       \type real
+       \minimum 0.0
+  A4 , \field Billing Period Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field should reference the same schedule as the month schedule name field of the
+       \note UtilityCost:Tariff object, if used.
+       \note If blank, defaults to regular divisions between months.
+  A5 , \field Peak Period Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note This field should reference the same schedule as the period schedule name field of the
+       \note UtilityCost:Tariff object, if used.
+       \note If blank, defaults to always on peak.
+  N2 , \field Demand Window Length
+       \required-field
+       \type integer
+       \minimum> 0
+       \units minutes
+  A6 , \field Demand Manager Priority
+       \required-field
+       \type choice
+       \key Sequential
+       \key All
+  A7 , \field DemandManager 1 Object Type
+       \begin-extensible
+       \type choice
+       \key DemandManager:ExteriorLights
+       \key DemandManager:Lights
+       \key DemandManager:ElectricEquipment
+       \key DemandManager:Thermostats
+       \key DemandManager:Ventilation
+  A8 , \field DemandManager 1 Name
+       \type object-list
+       \object-list DemandManagerNames
+  A9 , \field DemandManager 2 Object Type
+       \type choice
+       \key DemandManager:ExteriorLights
+       \key DemandManager:Lights
+       \key DemandManager:ElectricEquipment
+       \key DemandManager:Thermostats
+       \key DemandManager:Ventilation
+  A10, \field DemandManager 2 Name
+       \type object-list
+       \object-list DemandManagerNames
+  A11, \field DemandManager 3 Object Type
+       \type choice
+       \key DemandManager:ExteriorLights
+       \key DemandManager:Lights
+       \key DemandManager:ElectricEquipment
+       \key DemandManager:Thermostats
+       \key DemandManager:Ventilation
+  A12, \field DemandManager 3 Name
+       \type object-list
+       \object-list DemandManagerNames
+  A13, \field DemandManager 4 Object Type
+       \type choice
+       \key DemandManager:ExteriorLights
+       \key DemandManager:Lights
+       \key DemandManager:ElectricEquipment
+       \key DemandManager:Thermostats
+       \key DemandManager:Ventilation
+  A14, \field DemandManager 4 Name
+       \type object-list
+       \object-list DemandManagerNames
+  A15, \field DemandManager 5 Object Type
+       \type choice
+       \key DemandManager:ExteriorLights
+       \key DemandManager:Lights
+       \key DemandManager:ElectricEquipment
+       \key DemandManager:Thermostats
+       \key DemandManager:Ventilation
+  A16, \field DemandManager 5 Name
+       \type object-list
+       \object-list DemandManagerNames
+  A17, \field DemandManager 6 Object Type
+       \type choice
+       \key DemandManager:ExteriorLights
+       \key DemandManager:Lights
+       \key DemandManager:ElectricEquipment
+       \key DemandManager:Thermostats
+       \key DemandManager:Ventilation
+  A18, \field DemandManager 6 Name
+       \type object-list
+       \object-list DemandManagerNames
+  A19, \field DemandManager 7 Object Type
+       \type choice
+       \key DemandManager:ExteriorLights
+       \key DemandManager:Lights
+       \key DemandManager:ElectricEquipment
+       \key DemandManager:Thermostats
+       \key DemandManager:Ventilation
+  A20, \field DemandManager 7 Name
+       \type object-list
+       \object-list DemandManagerNames
+  A21, \field DemandManager 8 Object Type
+       \type choice
+       \key DemandManager:ExteriorLights
+       \key DemandManager:Lights
+       \key DemandManager:ElectricEquipment
+       \key DemandManager:Thermostats
+       \key DemandManager:Ventilation
+  A22, \field DemandManager 8 Name
+       \type object-list
+       \object-list DemandManagerNames
+  A23, \field DemandManager 9 Object Type
+       \type choice
+       \key DemandManager:ExteriorLights
+       \key DemandManager:Lights
+       \key DemandManager:ElectricEquipment
+       \key DemandManager:Thermostats
+       \key DemandManager:Ventilation
+  A24, \field DemandManager 9 Name
+       \type object-list
+       \object-list DemandManagerNames
+  A25, \field DemandManager 10 Object Type
+       \type choice
+       \key DemandManager:ExteriorLights
+       \key DemandManager:Lights
+       \key DemandManager:ElectricEquipment
+       \key DemandManager:Thermostats
+       \key DemandManager:Ventilation
+  A26; \field DemandManager 10 Name
+       \type object-list
+       \object-list DemandManagerNames
+
+DemandManager:ExteriorLights,
+       \memo used for demand limiting Exterior:Lights objects.
+       \extensible:1 Duplicate the last field Exterior:Lights Name
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference DemandManagerNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Limit Control
+       \required-field
+       \type choice
+       \key Off
+       \key Fixed
+  N1 , \field Minimum Limit Duration
+       \type integer
+       \minimum> 0
+       \units minutes
+       \note If blank, duration defaults to the timestep
+  N2 , \field Maximum Limit Fraction
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N3 , \field Limit Step Change
+       \note Not yet implemented
+       \type real
+  A4 , \field Selection Control
+       \required-field
+       \type choice
+       \key All
+       \key RotateMany
+       \key RotateOne
+  N4 , \field Rotation Duration
+       \type integer
+       \minimum 0
+       \units minutes
+       \note If blank, duration defaults to the timestep
+  A5 , \field Exterior Lights 1 Name
+       \begin-extensible
+       \note Enter the name of an Exterior:Lights object.
+       \required-field
+       \type object-list
+       \object-list ExteriorLightsNames
+  A6 , \field Exterior Lights 2 Name
+       \note Enter the name of an Exterior:Lights object.
+       \type object-list
+       \object-list ExteriorLightsNames
+  A7 , \field Exterior Lights 3 Name
+       \note Enter the name of an Exterior:Lights object.
+       \type object-list
+       \object-list ExteriorLightsNames
+  A8 , \field Exterior Lights 4 Name
+       \note Enter the name of an Exterior:Lights object.
+       \type object-list
+       \object-list ExteriorLightsNames
+  A9 , \field Exterior Lights 5 Name
+       \note Enter the name of an Exterior:Lights object.
+       \type object-list
+       \object-list ExteriorLightsNames
+  A10, \field Exterior Lights 6 Name
+       \note Enter the name of an Exterior:Lights object.
+       \type object-list
+       \object-list ExteriorLightsNames
+  A11, \field Exterior Lights 7 Name
+       \note Enter the name of an Exterior:Lights object.
+       \type object-list
+       \object-list ExteriorLightsNames
+  A12, \field Exterior Lights 8 Name
+       \note Enter the name of an Exterior:Lights object.
+       \type object-list
+       \object-list ExteriorLightsNames
+  A13, \field Exterior Lights 9 Name
+       \note Enter the name of an Exterior:Lights object.
+       \type object-list
+       \object-list ExteriorLightsNames
+  A14; \field Exterior Lights 10 Name
+       \note Enter the name of an Exterior:Lights object.
+       \type object-list
+       \object-list ExteriorLightsNames
+
+DemandManager:Lights,
+       \memo used for demand limiting Lights objects.
+       \extensible:1 Duplicate the last field Lights Name
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference DemandManagerNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Limit Control
+       \required-field
+       \type choice
+       \key Off
+       \key Fixed
+  N1 , \field Minimum Limit Duration
+       \type integer
+       \minimum> 0
+       \units minutes
+       \note If blank, duration defaults to the timestep
+  N2 , \field Maximum Limit Fraction
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N3 , \field Limit Step Change
+       \note Not yet implemented
+       \type real
+  A4 , \field Selection Control
+       \required-field
+       \type choice
+       \key All
+       \key RotateMany
+       \key RotateOne
+  N4 , \field Rotation Duration
+       \type integer
+       \minimum 0
+       \units minutes
+       \note If blank, duration defaults to the timestep
+  A5 , \field Lights 1 Name
+       \note Enter the name of an Lights object.
+       \note if ZoneList option is used on the Lights object,
+       \note a single lights object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Lights Object Name>.
+       \begin-extensible
+       \required-field
+       \type object-list
+       \object-list LightsNames
+  A6 , \field Lights 2 Name
+       \note Enter the name of an Lights object.
+       \note if ZoneList option is used on the Lights object,
+       \note a single lights object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Lights Object Name>.
+       \type object-list
+       \object-list LightsNames
+  A7 , \field Lights 3 Name
+       \note Enter the name of an Lights object.
+       \note if ZoneList option is used on the Lights object,
+       \note a single lights object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Lights Object Name>.
+       \type object-list
+       \object-list LightsNames
+  A8 , \field Lights 4 Name
+       \note Enter the name of an Lights object.
+       \note if ZoneList option is used on the Lights object,
+       \note a single lights object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Lights Object Name>.
+       \type object-list
+       \object-list LightsNames
+  A9 , \field Lights 5 Name
+       \note Enter the name of an Lights object.
+       \note if ZoneList option is used on the Lights object,
+       \note a single lights object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Lights Object Name>.
+       \type object-list
+       \object-list LightsNames
+  A10, \field Lights 6 Name
+       \note Enter the name of an Lights object.
+       \note if ZoneList option is used on the Lights object,
+       \note a single lights object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Lights Object Name>.
+       \type object-list
+       \object-list LightsNames
+  A11, \field Lights 7 Name
+       \note Enter the name of an Lights object.
+       \note if ZoneList option is used on the Lights object,
+       \note a single lights object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Lights Object Name>.
+       \type object-list
+       \object-list LightsNames
+  A12, \field Lights 8 Name
+       \note Enter the name of an Lights object.
+       \note if ZoneList option is used on the Lights object,
+       \note a single lights object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Lights Object Name>.
+       \type object-list
+       \object-list LightsNames
+  A13, \field Lights 9 Name
+       \note Enter the name of an Lights object.
+       \note if ZoneList option is used on the Lights object,
+       \note a single lights object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Lights Object Name>.
+       \type object-list
+       \object-list LightsNames
+  A14; \field Lights 10 Name
+       \note Enter the name of an Lights object.
+       \note if ZoneList option is used on the Lights object,
+       \note a single lights object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Lights Object Name>.
+       \type object-list
+       \object-list LightsNames
+
+DemandManager:ElectricEquipment,
+       \memo used for demand limiting ElectricEquipment objects.
+       \extensible:1 Duplicate the last field ElectricEquipment Name
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference DemandManagerNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Limit Control
+       \required-field
+       \type choice
+       \key Off
+       \key Fixed
+  N1 , \field Minimum Limit Duration
+       \type integer
+       \minimum> 0
+       \units minutes
+       \note If blank, duration defaults to the timestep
+  N2 , \field Maximum Limit Fraction
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N3 , \field Limit Step Change
+       \note Not yet implemented
+       \type real
+  A4 , \field Selection Control
+       \required-field
+       \type choice
+       \key All
+       \key RotateMany
+       \key RotateOne
+  N4 , \field Rotation Duration
+       \type integer
+       \minimum 0
+       \units minutes
+       \note If blank, duration defaults to the timestep
+  A5 , \field Electric Equipment 1 Name
+       \begin-extensible
+       \note Enter the name of an ElectricEquipment object.
+       \note if ZoneList option is used on the ElectricEquipment object,
+       \note a single equipment object from that assignment
+       \note can be selected by entering <Zone Name><space><Global ElectricEquipment Object Name>.
+       \required-field
+       \type object-list
+       \object-list ElectricEquipmentNames
+  A6 , \field Electric Equipment 2 Name
+       \note Enter the name of an ElectricEquipment object.
+       \note if ZoneList option is used on the ElectricEquipment object,
+       \note a single equipment object from that assignment
+       \note can be selected by entering <Zone Name><space><Global ElectricEquipment Object Name>.
+       \type object-list
+       \object-list ElectricEquipmentNames
+  A7 , \field Electric Equipment 3 Name
+       \note Enter the name of an ElectricEquipment object.
+       \note if ZoneList option is used on the ElectricEquipment object,
+       \note a single equipment object from that assignment
+       \note can be selected by entering <Zone Name><space><Global ElectricEquipment Object Name>.
+       \type object-list
+       \object-list ElectricEquipmentNames
+  A8 , \field Electric Equipment 4 Name
+       \note Enter the name of an ElectricEquipment object.
+       \note if ZoneList option is used on the ElectricEquipment object,
+       \note a single equipment object from that assignment
+       \note can be selected by entering <Zone Name><space><Global ElectricEquipment Object Name>.
+       \type object-list
+       \object-list ElectricEquipmentNames
+  A9 , \field Electric Equipment 5 Name
+       \note Enter the name of an ElectricEquipment object.
+       \note if ZoneList option is used on the ElectricEquipment object,
+       \note a single equipment object from that assignment
+       \note can be selected by entering <Zone Name><space><Global ElectricEquipment Object Name>.
+       \type object-list
+       \object-list ElectricEquipmentNames
+  A10, \field Electric Equipment 6 Name
+       \note Enter the name of an ElectricEquipment object.
+       \note if ZoneList option is used on the ElectricEquipment object,
+       \note a single equipment object from that assignment
+       \note can be selected by entering <Zone Name><space><Global ElectricEquipment Object Name>.
+       \type object-list
+       \object-list ElectricEquipmentNames
+  A11, \field Electric Equipment 7 Name
+       \note Enter the name of an ElectricEquipment object.
+       \note if ZoneList option is used on the ElectricEquipment object,
+       \note a single equipment object from that assignment
+       \note can be selected by entering <Zone Name><space><Global ElectricEquipment Object Name>.
+       \type object-list
+       \object-list ElectricEquipmentNames
+  A12, \field Electric Equipment 8 Name
+       \note Enter the name of an ElectricEquipment object.
+       \note if ZoneList option is used on the ElectricEquipment object,
+       \note a single equipment object from that assignment
+       \note can be selected by entering <Zone Name><space><Global ElectricEquipment Object Name>.
+       \type object-list
+       \object-list ElectricEquipmentNames
+  A13, \field Electric Equipment 9 Name
+       \note Enter the name of an ElectricEquipment object.
+       \note if ZoneList option is used on the ElectricEquipment object,
+       \note a single equipment object from that assignment
+       \note can be selected by entering <Zone Name><space><Global ElectricEquipment Object Name>.
+       \type object-list
+       \object-list ElectricEquipmentNames
+  A14; \field Electric Equipment 10 Name
+       \note Enter the name of an ElectricEquipment object.
+       \note if ZoneList option is used on the ElectricEquipment object,
+       \note a single equipment object from that assignment
+       \note can be selected by entering <Zone Name><space><Global ElectricEquipment Object Name>.
+       \type object-list
+       \object-list ElectricEquipmentNames
+
+DemandManager:Thermostats,
+       \memo used for demand limiting ZoneControl:Thermostat objects.
+       \extensible:1 Duplicate the last field ZoneControl:Thermostat Name
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference DemandManagerNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Reset Control
+       \required-field
+       \type choice
+       \key Off
+       \key Fixed
+  N1 , \field Minimum Reset Duration
+       \type integer
+       \minimum> 0
+       \units minutes
+       \note If blank, duration defaults to the timestep
+  N2 , \field Maximum Heating Setpoint Reset
+       \required-field
+       \type real
+       \units C
+  N3 , \field Maximum Cooling Setpoint Reset
+       \required-field
+       \type real
+       \units C
+  N4 , \field Reset Step Change
+       \note Not yet implemented
+       \type real
+  A4 , \field Selection Control
+       \required-field
+       \type choice
+       \key All
+       \key RotateMany
+       \key RotateOne
+  N5 , \field Rotation Duration
+       \type integer
+       \minimum 0
+       \units minutes
+       \note If blank, duration defaults to the timestep
+  A5 , \field Thermostat 1 Name
+       \begin-extensible
+       \note Enter the name of a ZoneControl:Thermostat object.
+       \note if ZoneList option is used on the ZoneControl:Thermostat object,
+       \note a single thermostat object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Thermostat Object Name>.
+       \required-field
+       \type object-list
+       \object-list ZoneControlThermostaticNames
+  A6 , \field Thermostat 2 Name
+       \note Enter the name of a ZoneControl:Thermostat object.
+       \note if ZoneList option is used on the ZoneControl:Thermostat object,
+       \note a single thermostat object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Thermostat Object Name>.
+       \type object-list
+       \object-list ZoneControlThermostaticNames
+  A7 , \field Thermostat 3 Name
+       \note Enter the name of a ZoneControl:Thermostat object.
+       \note if ZoneList option is used on the ZoneControl:Thermostat object,
+       \note a single thermostat object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Thermostat Object Name>.
+       \type object-list
+       \object-list ZoneControlThermostaticNames
+  A8 , \field Thermostat 4 Name
+       \note Enter the name of a ZoneControl:Thermostat object.
+       \note if ZoneList option is used on the ZoneControl:Thermostat object,
+       \note a single thermostat object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Thermostat Object Name>.
+       \type object-list
+       \object-list ZoneControlThermostaticNames
+  A9 , \field Thermostat 5 Name
+       \note Enter the name of a ZoneControl:Thermostat object.
+       \note if ZoneList option is used on the ZoneControl:Thermostat object,
+       \note a single thermostat object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Thermostat Object Name>.
+       \type object-list
+       \object-list ZoneControlThermostaticNames
+  A10, \field Thermostat 6 Name
+       \note Enter the name of a ZoneControl:Thermostat object.
+       \note if ZoneList option is used on the ZoneControl:Thermostat object,
+       \note a single thermostat object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Thermostat Object Name>.
+       \type object-list
+       \object-list ZoneControlThermostaticNames
+  A11, \field Thermostat 7 Name
+       \note Enter the name of a ZoneControl:Thermostat object.
+       \note if ZoneList option is used on the ZoneControl:Thermostat object,
+       \note a single thermostat object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Thermostat Object Name>.
+       \type object-list
+       \object-list ZoneControlThermostaticNames
+  A12, \field Thermostat 8 Name
+       \note Enter the name of a ZoneControl:Thermostat object.
+       \note if ZoneList option is used on the ZoneControl:Thermostat object,
+       \note a single thermostat object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Thermostat Object Name>.
+       \type object-list
+       \object-list ZoneControlThermostaticNames
+  A13, \field Thermostat 9 Name
+       \note Enter the name of a ZoneControl:Thermostat object.
+       \note if ZoneList option is used on the ZoneControl:Thermostat object,
+       \note a single thermostat object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Thermostat Object Name>.
+       \type object-list
+       \object-list ZoneControlThermostaticNames
+  A14; \field Thermostat 10 Name
+       \note Enter the name of a ZoneControl:Thermostat object.
+       \note if ZoneList option is used on the ZoneControl:Thermostat object,
+       \note a single thermostat object from that assignment
+       \note can be selected by entering <Zone Name><space><Global Thermostat Object Name>.
+       \type object-list
+       \object-list ZoneControlThermostaticNames
+
+DemandManager:Ventilation,
+       \memo used for demand limiting Controller:OutdoorAir objects.
+       \extensible:1 Duplicate the last field Controller:OutdoorAir Name
+       \min-fields 10
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference DemandManagerNames
+  A2 , \field Availability Schedule Name
+       \note Availability schedule name for this demand manager. Schedule value > 0 means the demand manager is available.
+       \note If this field is blank, the DR is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3 , \field Limit Control
+       \required-field
+       \type choice
+       \key Off
+       \key FixedRate
+       \key ReductionRatio
+  N1 , \field Minimum Limit Duration
+       \type integer
+       \minimum> 0
+       \units minutes
+       \note If blank, duration defaults to the timestep
+  N2 , \field Fixed Rate
+       \note Used in case when Limit strategy is set to FixedRate
+       \type real
+       \minimum 0.0
+       \units m3/s
+  N3 , \field Reduction Ratio
+       \note Used in case when Limit Control is set to ReductionRatio
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+  N4 , \field Limit Step Change
+       \note Not yet implemented
+       \type real
+  A4 , \field Selection Control
+       \type choice
+       \key All
+       \key RotateMany
+       \key RotateOne
+       \default All
+  N5 , \field Rotation Duration
+       \type integer
+       \minimum 0
+       \units minutes
+       \note If blank, duration defaults to the timestep
+  A5 , \field Controller Outdoor Air 1 Name
+       \note Enter the name of a Controller:OutdoorAir object.
+       \begin-extensible
+       \required-field
+       \type object-list
+       \object-list OAControllerNames
+  A6 , \field Controller Outdoor Air 2 Name
+       \type object-list
+       \object-list OAControllerNames
+  A7 , \field Controller Outdoor Air 3 Name
+       \type object-list
+       \object-list OAControllerNames
+  A8 , \field Controller Outdoor Air 4 Name
+       \type object-list
+       \object-list OAControllerNames
+  A9  ,\field Controller Outdoor Air 5 Name
+       \type object-list
+       \object-list OAControllerNames
+  A10 ,\field Controller Outdoor Air 6 Name
+       \type object-list
+       \object-list OAControllerNames
+  A11 ,\field Controller Outdoor Air 7 Name
+       \type object-list
+       \object-list OAControllerNames
+  A12 ,\field Controller Outdoor Air 8 Name
+       \type object-list
+       \object-list OAControllerNames
+  A13 ,\field Controller Outdoor Air 9 Name
+       \type object-list
+       \object-list OAControllerNames
+  A14 ;\field Controller Outdoor Air 10 Name
+       \type object-list
+       \object-list OAControllerNames
+
+\group Electric Load Center-Generator Specifications
+
+Generator:InternalCombustionEngine,
+       \memo This generator model is the empirical model from the Building Loads
+       \memo and System Thermodynamics (BLAST) program. Engine performance
+       \memo curves are generated by fitting catalog data to second order
+       \memo polynomial equations. Three sets of coefficients are required.
+       \min-fields 20
+  A1, \field Name
+      \required-field
+      \reference GeneratorNames
+      \reference-class-name validBranchEquipmentTypes
+      \reference validBranchEquipmentNames
+  N1, \field Rated Power Output
+       \units W
+  A2, \field Electric Circuit Node Name
+  N2, \field Minimum Part Load Ratio
+      \minimum 0.0
+      \maximum 1.0
+  N3, \field Maximum Part Load Ratio
+      \minimum> 0.0
+      \maximum 1.0
+  N4, \field Optimum Part Load Ratio
+  A3, \field Shaft Power Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note curve = a + b*PLR + c*PLR**2
+       \note PLR = Ratio of Generator Load to Rated Power Output
+  A4, \field Jacket Heat Recovery Curve Name
+       \type object-list
+      \object-list UnivariateFunctions
+       \note curve = a + b*PLR + c*PLR**2
+       \note PLR = Ratio of Generator Load to Rated Power Output
+  A5, \field Lube Heat Recovery Curve Name
+       \type object-list
+      \object-list UnivariateFunctions
+       \note curve = a + b*PLR + c*PLR**2
+       \note PLR = Ratio of Generator Load to Rated Power Output
+  A6, \field Total Exhaust Energy Curve Name
+       \type object-list
+      \object-list UnivariateFunctions
+       \note curve = a + b*PLR + c*PLR**2
+       \note PLR = Ratio of Generator Load to Rated Power Output
+  A7, \field Exhaust Temperature Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note curve = a + b*PLR + c*PLR**2
+       \note PLR = Ratio of Generator Load to Rated Power Output
+  N5, \field Coefficient 1 of U-Factor Times Area Curve
+       \note curve = C1 * Generator Rated Power Output**C2
+  N6, \field Coefficient 2 of U-Factor Times Area Curve
+       \note curve = C1 * Generator Rated Power Output**C2
+       \note typical value .9
+       \maximum 2
+  N7, \field Maximum Exhaust Flow per Unit of Power Output
+       \units (kg/s)/W
+  N8, \field Design Minimum Exhaust Temperature
+       \units C
+  N9, \field Fuel Higher Heating Value
+       \units kJ/kg
+  N10, \field Design Heat Recovery Water Flow Rate
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \note if non-zero, then inlet, outlet nodes must be entered.
+       \ip-units gal/min
+  A8, \field Heat Recovery Inlet Node Name
+      \type node
+  A9, \field Heat Recovery Outlet Node Name
+      \type node
+  A10,\field Fuel Type
+       \type choice
+       \key NaturalGas
+       \key Propane
+       \key Diesel
+       \key Gasoline
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key OtherFuel1
+       \key OtherFuel2
+       \default Diesel
+  N11; \field Heat Recovery Maximum Temperature
+       \units C
+       \maximum 100.0
+       \minimum 0.0
+       \default 80.0
+
+Generator:CombustionTurbine,
+       \memo This generator model is the empirical model from the Building Loads
+       \memo and System Thermodynamics (BLAST) program. Generator performance
+       \memo curves are generated by fitting catalog data to second order
+       \memo polynomial equations. Three sets of coefficients are required.
+       \min-fields 22
+  A1, \field Name
+      \required-field
+      \reference GeneratorNames
+      \reference-class-name validBranchEquipmentTypes
+      \reference validBranchEquipmentNames
+  N1, \field Rated Power Output
+      \units W
+  A2, \field Electric Circuit Node Name
+  N2, \field Minimum Part Load Ratio
+      \minimum 0.0
+      \maximum 1.0
+  N3, \field Maximum Part Load Ratio
+      \minimum> 0.0
+      \maximum 1.0
+  N4, \field Optimum Part Load Ratio
+  A3, \field Part Load Based Fuel Input Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note curve = a + b*PLR + c*PLR**2
+       \note PLR = Ratio of Generator Load to Rated Power Output
+       \note this curve is multiplied to the Temperature Based Fuel Input Curve
+       \note to determine Fuel Energy In
+  A4, \field Temperature Based Fuel Input Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note curve = a + b*AT + c*AT**2
+       \note AT = Ambient Delta T
+       \note this curve is multiplied to the Part Load Based Fuel Input Curve
+       \note to determine Fuel Energy In
+  A5, \field Exhaust Flow Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note curve = a + b*AT + c*AT**2
+       \note AT = Ambient Delta T
+  A6, \field Part Load Based Exhaust Temperature Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note curve = a + b*PLR + c*PLR**2
+       \note PLR = Ratio of Generator Load to Rated Power Output
+       \note this curve is multiplied to the Temperature Based Exhaust Temperature Curve
+       \note to determine Exhaust Temperature
+  A7, \field Temperature Based Exhaust Temperature Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note curve = a + b*AT + c*AT**2
+       \note AT = Ambient Delta T
+       \note this curve is multiplied to the Part Load Based Exhaust Temperature Curve
+       \note to determine Exhaust Temperature
+  A8, \field Heat Recovery Lube Energy Curve Name
+       \type object-list
+       \object-list UnivariateFunctions
+       \note curve = a + b*PLR + c*PLR**2
+       \note PLR = Ratio of Generator Load to Rated Power Output
+  N5, \field Coefficient 1 of U-Factor Times Area Curve
+      \note curve = C1 * Rated Power Output**C2
+  N6, \field Coefficient 2 of U-Factor Times Area Curve
+      \note curve = C1 * Rated Power Output**C2
+       \note typical value .9
+       \maximum 2
+  N7, \field Maximum Exhaust Flow per Unit of Power Output
+      \units (kg/s)/W
+  N8, \field Design Minimum Exhaust Temperature
+       \units C
+  N9, \field Design Air Inlet Temperature
+       \units C
+  N10, \field Fuel Higher Heating Value
+       \units kJ/kg
+  N11, \field Design Heat Recovery Water Flow Rate
+       \units m3/s
+       \minimum 0.0
+       \default 0.0
+       \note if non-zero, then inlet, outlet nodes must be entered.
+       \ip-units gal/min
+  A9 , \field Heat Recovery Inlet Node Name
+       \type node
+  A10, \field Heat Recovery Outlet Node Name
+       \type node
+  A11, \field Fuel Type
+       \type choice
+       \key NaturalGas
+       \key Propane
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key Diesel
+       \key Gasoline
+       \key Coal
+       \key OtherFuel1
+       \key OtherFuel2
+       \default NaturalGas
+  N12, \field Heat Recovery Maximum Temperature
+       \units C
+       \maximum 100.0
+       \minimum 0.0
+       \default 80.0
+  A12; \field Outdoor Air Inlet Node Name
+       \type node
+       \note Enter the name of an outdoor air node
+
+Generator:MicroTurbine,
+      \memo MicroTurbine generators are small combustion turbines (e.g., 25kW to 500kW). The model
+      \memo calculates electrical power output, fuel use, standby and ancillary power.
+      \memo Energy recovery from exhaust air can be used to heat water.
+      \min-fields 11
+  A1, \field Name
+      \required-field
+      \type alpha
+      \reference GeneratorNames
+      \reference MicroTurbineGeneratorNames
+      \reference-class-name validPlantEquipmentTypes
+      \reference validPlantEquipmentNames
+      \reference-class-name validCondenserEquipmentTypes
+      \reference validCondenserEquipmentNames
+      \reference-class-name validBranchEquipmentTypes
+      \reference validBranchEquipmentNames
+  N1, \field Reference Electrical Power Output
+      \required-field
+      \type real
+      \units W
+      \minimum> 0.0
+  N2, \field Minimum Full Load Electrical Power Output
+      \type real
+      \units W
+      \minimum 0.0
+      \default 0.0
+  N3, \field Maximum Full Load Electrical Power Output
+      \type real
+      \units W
+      \minimum> 0.0
+      \note If left blank, Maximum Full Load Electrical Power Output will be set
+      \note equal to the Reference Electrical Power Output.
+  N4, \field Reference Electrical Efficiency Using Lower Heating Value
+      \required-field
+      \type real
+      \minimum> 0.0
+      \maximum 1.0
+      \note Electric power output divided by fuel energy input (LHV basis)
+      \note at reference conditions.
+  N5, \field Reference Combustion Air Inlet Temperature
+      \type real
+      \units C
+      \default 15.0
+  N6, \field Reference Combustion Air Inlet Humidity Ratio
+      \type real
+      \units kgWater/kgDryAir
+      \minimum> 0.0
+      \default 0.00638
+  N7, \field Reference Elevation
+      \type real
+      \units m
+      \minimum -300.0
+      \default 0.0
+  A2, \field Electrical Power Function of Temperature and Elevation Curve Name
+      \required-field
+      \type object-list
+      \object-list BivariateFunctions
+      \note curve = a + b*T + c*T**2 + d*Elev + e*Elev**2 + f*T*Elev
+      \note T = combustion air inlet temperature (C)
+      \note Elev = elevation (m)
+  A3, \field Electrical Efficiency Function of Temperature Curve Name
+      \required-field
+      \type object-list
+      \object-list UnivariateFunctions
+      \note Quadratic curve = a + b*T + c*T**2
+      \note Cubic curve = a + b*T + c*T**2 + d*T**3
+      \note T = combustion air inlet temperature (C)
+  A4, \field Electrical Efficiency Function of Part Load Ratio Curve Name
+      \required-field
+      \type object-list
+      \object-list UnivariateFunctions
+      \note Quadratic curve = a + b*PLR + c*PLR**2
+      \note Cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+      \note PLR = ratio of Generator Load to steady state Electrical Power Output at
+      \note current operating conditions
+  A5, \field Fuel Type
+      \type choice
+      \key NaturalGas
+      \key Propane
+      \key FuelOilNo1
+      \key FuelOilNo2
+      \key Diesel
+      \key Gasoline
+      \key Coal
+      \key OtherFuel1
+      \key OtherFuel2
+      \default NaturalGas
+  N8, \field Fuel Higher Heating Value
+      \type real
+      \units kJ/kg
+      \default 50000
+      \minimum> 0.0
+  N9, \field Fuel Lower Heating Value
+      \type real
+      \units kJ/kg
+      \default 45450
+      \minimum> 0.0
+ N10, \field Standby Power
+      \type real
+      \units W
+      \default 0.0
+      \minimum 0.0
+      \note Electric power consumed when the generator is available but not being called
+      \note by the Electric Load Center.
+ N11, \field Ancillary Power
+      \type real
+      \units W
+      \default 0.0
+      \minimum 0.0
+      \note Electric power consumed by ancillary equipment (e.g., external fuel pressurization pump).
+      \note Set to zero if Reference Electrical Power Output is the 'net' value (ancillary power
+      \note already deducted). Input value is positive, but indicates negative electric generation.
+  A6, \field Ancillary Power Function of Fuel Input Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+      \note Quadratic curve = a + b*mdot + c*mdot**2
+      \note mdot = fuel mass flow rate (kg/s)
+      \note If left blank, model assumes ancillary power defined in previous field is constant
+      \note whenever the generator is operating.
+  A7, \field Heat Recovery Water Inlet Node Name
+      \type node
+  A8, \field Heat Recovery Water Outlet Node Name
+      \type node
+ N12, \field Reference Thermal Efficiency Using Lower Heat Value
+      \type real
+      \minimum 0.0
+      \maximum 1.0
+      \default 0.0
+      \note Reference thermal efficiency (heat recovery to water) based on the
+      \note Lower Heating Value (LHV) of the fuel.
+ N13, \field Reference Inlet Water Temperature
+      \type real
+      \units C
+  A9, \field Heat Recovery Water Flow Operating Mode
+      \type choice
+      \key PlantControl
+      \key InternalControl
+      \default PlantControl
+      \note PlantControl means the heat recovery water flow rate is determined by the plant,
+      \note but the user needs to supply a heat recovery water flow rate.
+      \note InternalControl means the heat recovery water flow rate is controlled by this generator.
+      \note If 'InternalControl' is selected, then the user needs to supply a reference heat
+      \note recovery water flow rate and optionally the name of a heat recovery flow rate modifier curve.
+ N14, \field Reference Heat Recovery Water Flow Rate
+      \type real
+      \units m3/s
+      \ip-units gal/min
+      \minimum> 0.0
+ A10, \field Heat Recovery Water Flow Rate Function of Temperature and Power Curve Name
+      \type object-list
+      \object-list BivariateFunctions
+      \note curve = a + b*T + c*T**2 + d*Pnet + e*Pnet + f*T*Pnet
+      \note T = heat recovery inlet water temperature
+      \note Pnet = net power output = electric power output - ancillary power
+      \note If left blank, model assumes the heat recovery water flow rate is constant whenever the
+      \note generator is operating, at the Reference HR Water Flow Rate defined in the previous field.
+ A11, \field Thermal Efficiency Function of Temperature and Elevation Curve Name
+      \type object-list
+      \object-list BivariateFunctions
+      \note Bicubic curve = a + b*T + c*T**2 + d*Elev + e*Elev**2 + f*T*Elev + g*T**3 + h*Elev**3 + i*T**2*Elev + j*T*Elev**2
+      \note Biquadratic curve = a + b*T + c*T**2 + d*Elev + e*Elev**2 + f*T*Elev
+      \note T = combustion air inlet temperature (C)
+      \note Elev = elevation (m)
+      \note If field is left blank, model assumes this modifier equals 1 for entire simulation.
+ A12, \field Heat Recovery Rate Function of Part Load Ratio Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+      \note Quadratic curve = a + b*PLR + c*PLR**2
+      \note Cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+      \note PLR = ratio of Generator Load to steady state Electrical Power Output at
+      \note current operating conditions
+      \note If field is left blank, model assumes this modifier equals 1 for entire simulation.
+ A13, \field Heat Recovery Rate Function of Inlet Water Temperature Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+      \note Quadratic curve = a + b*T + c*T**2
+      \note T = inlet water temperature (C)
+      \note If field is left blank, model assumes this modifier equals 1 for entire simulation.
+ A14, \field Heat Recovery Rate Function of Water Flow Rate Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+      \note Quadratic curve = a + b*Flow + c*Flow**2
+      \note Flow = flow rate of water through the heat exchanger (m3/s)
+      \note If field is left blank, model assumes this modifier equals 1 for entire simulation.
+ N15, \field Minimum Heat Recovery Water Flow Rate
+      \type real
+      \units m3/s
+      \ip-units gal/min
+      \minimum 0.0
+      \default 0.0
+ N16, \field Maximum Heat Recovery Water Flow Rate
+      \type real
+      \units m3/s
+      \ip-units gal/min
+      \minimum 0.0
+      \default 0.0
+ N17, \field Maximum Heat Recovery Water Temperature
+      \type real
+      \units C
+ A15, \field Combustion Air Inlet Node Name
+      \type node
+      \note Must be an outdoor air node.
+ A16, \field Combustion Air Outlet Node Name
+      \type node
+ N18, \field Reference Exhaust Air Mass Flow Rate
+      \type real
+      \units kg/s
+      \minimum> 0.0
+ A17, \field Exhaust Air Flow Rate Function of Temperature Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+      \note Quadratic curve = a + b*T + c*T**2
+      \note Cubic curve = a + b*T + c*T**2 + d*T**3
+      \note T = combustion air inlet temperature (C)
+      \note If field is left blank, model assumes this modifier equals 1 for entire simulation.
+ A18, \field Exhaust Air Flow Rate Function of Part Load Ratio Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+      \note Quadratic curve = a + b*PLR + c*PLR**2
+      \note Cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+      \note PLR = ratio of Generator Load to steady state Electrical Power Output at
+      \note current operating conditions.
+      \note If field is left blank, model assumes this modifier equals 1 for entire simulation.
+ N19, \field Nominal Exhaust Air Outlet Temperature
+      \type real
+      \note Exhaust air outlet temperature at reference conditions.
+ A19, \field Exhaust Air Temperature Function of Temperature Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+      \note Quadratic curve = a + b*T + c*T**2
+      \note Cubic curve = a + b*T + c*T**2 + d*T**3
+      \note T = combustion air inlet temperature (C)
+      \note If field is left blank, model assumes this modifier equals 1 for entire simulation.
+ A20; \field Exhaust Air Temperature Function of Part Load Ratio Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+      \note Quadratic curve = a + b*PLR + c*PLR**2
+      \note Cubic curve = a + b*PLR + c*PLR**2 + d*PLR**3
+      \note PLR = ratio of Generator Load to steady state Electrical Power Output at
+      \note current operating conditions.
+      \note If field is left blank, model assumes this modifier equals 1 for entire simulation.
+
+Generator:Photovoltaic,
+        \memo Describes an array of photovoltaic (PV) modules. A series of different PV arrays
+        \memo can be connected to a single electric load center (and inverter) by listing them all
+        \memo in an ElectricLoadCenter:Generator object. PV performance is taken from the
+        \memo referenced PhotovoltaicPerformance:* object. Array tilt, azimuth, and gross area
+        \memo are taken from the referenced building surface or shading surface. The array
+        \memo surface participates normally in all shading calculations.
+   A1 , \field Name
+        \required-field
+        \reference GeneratorNames
+        \reference PVGeneratorNames
+   A2 , \field Surface Name
+        \required-field
+        \type object-list
+        \object-list AllShadingAndHTSurfNames
+   A3 , \field Photovoltaic Performance Object Type
+        \type choice
+        \key PhotovoltaicPerformance:Simple
+        \key PhotovoltaicPerformance:EquivalentOne-Diode
+        \key PhotovoltaicPerformance:Sandia
+   A4 , \field Module Performance Name
+        \note PV array modeling details
+        \type object-list
+        \object-list PVModules
+   A5 , \field Heat Transfer Integration Mode
+        \type choice
+        \key Decoupled
+        \key DecoupledUllebergDynamic
+        \key IntegratedSurfaceOutsideFace
+        \key IntegratedTranspiredCollector
+        \key IntegratedExteriorVentedCavity
+        \key PhotovoltaicThermalSolarCollector
+        \default Decoupled
+   N1 , \field Number of Series Strings in Parallel
+        \note number of series-wired strings of PV modules that are in parallel
+        \default 1
+        \units dimensionless
+        \minimum 1
+   N2 ; \field Number of Modules in Series
+        \note Number of PV modules wired in series for each string.
+        \default 1
+        \units dimensionless
+        \minimum 1
+
+PhotovoltaicPerformance:Simple,
+        \memo Describes a simple model of photovoltaics that may be useful for early phase
+        \memo design analysis. In this model the user has direct access to the efficiency with
+        \memo which surfaces convert incident solar radiation to electricity and need not specify
+        \memo arrays of specific modules.
+   A1 , \field Name
+        \reference PVModules
+   N1 , \field Fraction of Surface Area with Active Solar Cells
+        \required-field
+        \type real
+        \units dimensionless
+        \minimum 0.0
+        \maximum 1.0
+   A2 , \field Conversion Efficiency Input Mode
+        \type choice
+        \key Fixed
+        \key Scheduled
+   N2 , \field Value for Cell Efficiency if Fixed
+        \note Efficiency = (power generated [W])/(incident solar[W])
+        \type real
+        \minimum 0.0
+        \maximum 1.0
+   A3 ; \field Efficiency Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+
+PhotovoltaicPerformance:EquivalentOne-Diode,
+        \memo Describes the performance characteristics of Photovoltaic (PV) modules to be modeled
+        \memo using an equivalent one-diode circuit. This model is also known as
+        \memo the 4- or 5-parameter TRNSYS model for photovoltaics.
+   A1 , \field Name
+        \reference PVModules
+   A2 , \field Cell type
+        \type choice
+        \key CrystallineSilicon
+        \key AmorphousSilicon
+   N1 , \field Number of Cells in Series
+         \default 36
+         \type integer
+         \units dimensionless
+         \minimum 0
+   N2 , \field Active Area
+         \note The total power output of the array is determined by the
+         \note number of modules (see above). The Active Area is only
+         \note used to calculate the PV Array Efficiency output variable.
+         \default 0.89
+         \type real
+         \units m2
+         \minimum 0.1
+   N3 , \field Transmittance Absorptance Product
+         \default 0.95
+         \type real
+         \units dimensionless
+         \minimum 0.0
+         \maximum 1.0
+   N4 , \field Semiconductor Bandgap
+         \default 1.12
+         \type real
+         \units eV
+         \minimum 0.0
+   N5 , \field Shunt Resistance
+         \default 1000000.0
+         \type real
+         \units ohms
+         \minimum 0.0
+   N6 , \field Short Circuit Current
+         \default 6.5
+         \type real
+         \units A
+         \minimum 0.0
+   N7, \field Open Circuit Voltage
+         \default 21.6
+         \type real
+         \units V
+         \minimum 0.0
+   N8, \field Reference Temperature
+         \default 25
+         \type real
+         \units C
+         \minimum 0.0
+   N9, \field Reference Insolation
+         \default 1000
+         \type real
+         \units W/m2
+         \minimum 0.0
+   N10, \field Module Current at Maximum Power
+         \note Single module current at the maximum power point
+         \note and reference conditions. Module Current, Module Voltage,
+         \note Number of Modules in Parallel and Number of Modules in Series
+         \note determine the maximum power output of the array.
+         \default 5.9
+         \type real
+         \units A
+         \minimum 0.0
+   N11, \field Module Voltage at Maximum Power
+         \note Single module voltage at the maximum power point
+         \note and reference conditions. Module Current, Module Voltage,
+         \note Number of Modules in Parallel and Number of Modules in Series
+         \note determine the maximum power output of the array.
+         \default 17
+         \type real
+         \units V
+         \minimum 0.0
+   N12, \field Temperature Coefficient of Short Circuit Current
+         \default 0.02
+         \type real
+         \units A/K
+   N13, \field Temperature Coefficient of Open Circuit Voltage
+         \default -0.079
+         \type real
+         \units V/K
+   N14, \field Nominal Operating Cell Temperature Test Ambient Temperature
+         \default 20
+         \type real
+         \units C
+         \minimum 0.0
+   N15, \field Nominal Operating Cell Temperature Test Cell Temperature
+         \default 40
+         \type real
+         \units C
+         \minimum 0.0
+   N16, \field Nominal Operating Cell Temperature Test Insolation
+         \default 800
+         \type real
+         \units W/m2
+         \minimum 0.0
+   N17, \field Module Heat Loss Coefficient
+         \default 30
+         \type real
+         \units W/m2-K
+         \minimum 0.0
+   N18; \field Total Heat Capacity
+         \default 50000
+         \type real
+         \units J/m2-K
+         \minimum 0.0
+
+PhotovoltaicPerformance:Sandia,
+        \memo Describes performance input data needed for specific makes and models of production
+        \memo PV panels using the empirical coefficients assembled by Sandia National Laboratory.
+   A1 , \field Name
+        \reference PVModules
+   N1 , \field Active Area
+        \note (m2, single module)
+        \default 1.0
+        \type real
+        \units m2
+        \minimum 0.0
+   N2 , \field Number of Cells in Series
+        \default 1
+        \type integer
+        \units dimensionless
+        \minimum 1
+   N3 , \field Number of Cells in Parallel
+        \default 1
+        \type integer
+        \units dimensionless
+        \minimum 1
+   N4 , \field Short Circuit Current
+        \note (Amps)
+        \type real
+        \units A
+   N5 , \field Open Circuit Voltage
+        \note (Volts)
+        \type real
+        \units V
+   N6 , \field Current at Maximum Power Point
+        \note (Amps)
+        \type real
+        \units A
+   N7 , \field Voltage at Maximum Power Point
+        \note (Volts)
+        \type real
+        \units V
+   N8 , \field Sandia Database Parameter aIsc
+        \note (1/degC)
+        \type real
+        \units 1/K
+   N9 , \field Sandia Database Parameter aImp
+        \note (1/degC)
+        \type real
+        \units 1/K
+   N10 , \field Sandia Database Parameter c0
+         \type real
+         \units dimensionless
+   N11 , \field Sandia Database Parameter c1
+         \type real
+         \units dimensionless
+   N12 , \field Sandia Database Parameter BVoc0
+         \note (Volts/degC)
+         \type real
+         \units V/K
+   N13 , \field Sandia Database Parameter mBVoc
+         \note (Volts/degC)
+         \type real
+         \units V/K
+   N14 , \field Sandia Database Parameter BVmp0
+         \note (Volts/degC)
+         \type real
+         \units V/K
+   N15 , \field Sandia Database Parameter mBVmp
+         \note (Volts/degC)
+         \type real
+         \units V/K
+   N16 , \field Diode Factor
+         \type real
+         \units dimensionless
+   N17 , \field Sandia Database Parameter c2
+         \type real
+         \units dimensionless
+   N18 , \field Sandia Database Parameter c3
+         \type real
+         \units dimensionless
+   N19 , \field Sandia Database Parameter a0
+         \type real
+         \units dimensionless
+   N20 , \field Sandia Database Parameter a1
+         \type real
+         \units dimensionless
+   N21 , \field Sandia Database Parameter a2
+         \type real
+         \units dimensionless
+   N22 , \field Sandia Database Parameter a3
+         \type real
+         \units dimensionless
+   N23 , \field Sandia Database Parameter a4
+         \type real
+         \units dimensionless
+   N24 , \field Sandia Database Parameter b0
+         \type real
+         \units dimensionless
+   N25 , \field Sandia Database Parameter b1
+         \type real
+         \units dimensionless
+   N26 , \field Sandia Database Parameter b2
+         \type real
+         \units dimensionless
+   N27 , \field Sandia Database Parameter b3
+         \type real
+         \units dimensionless
+   N28 , \field Sandia Database Parameter b4
+         \type real
+         \units dimensionless
+   N29 , \field Sandia Database Parameter b5
+         \type real
+         \units dimensionless
+   N30 , \field Sandia Database Parameter Delta(Tc)
+         \note (deg C)
+         \type real
+         \units deltaC
+   N31 , \field Sandia Database Parameter fd
+         \type real
+         \units dimensionless
+   N32 , \field Sandia Database Parameter a
+         \type real
+         \units dimensionless
+   N33 , \field Sandia Database Parameter b
+         \type real
+         \units dimensionless
+   N34 , \field Sandia Database Parameter c4
+         \type real
+         \units dimensionless
+   N35 , \field Sandia Database Parameter c5
+         \type real
+         \units dimensionless
+   N36 , \field Sandia Database Parameter Ix0
+         \note (Amps)
+         \type real
+   N37 , \field Sandia Database Parameter Ixx0
+         \note (Amps)
+         \type real
+   N38 , \field Sandia Database Parameter c6
+         \type real
+         \units dimensionless
+   N39 ; \field Sandia Database Parameter c7
+         \note (non-dimensional)
+         \type real
+         \units dimensionless
+
+Generator:PVWatts,
+      \min-fields 9
+      \memo Describes a simple set of inputs for an array of photovoltaic (PV) modules as described
+      \memo in the PVWatts software. A series of different PVWatts arrays can be connected to a
+      \memo single electric load center (preferably through an
+      \memo ElectricLoadCenter:Inverter:PVWatts). Array tilt and azimuth can be either specified
+      \memo on this object or taken from a referenced building surface or shading surface. If
+      \memo a surface is specified, the array participates normally in all shading calculations.
+  A1, \field Name
+      \type alpha
+      \required-field
+      \reference GeneratorNames
+  A2, \field PVWatts Version
+      \type choice
+      \key 5
+  N1, \field DC System Capacity
+      \note Nameplate rated DC system capacity in watts
+      \type real
+      \required-field
+      \units W
+      \minimum> 0
+  A3, \field Module Type
+      \type choice
+      \required-field
+      \key Standard
+      \key Premium
+      \key ThinFilm
+  A4, \field Array Type
+      \type choice
+      \required-field
+      \key FixedOpenRack
+      \key FixedRoofMounted
+      \key OneAxis
+      \key OneAxisBacktracking
+      \key TwoAxis
+  N2, \field System Losses
+      \type real
+      \default 0.14
+      \minimum 0
+      \maximum 1
+  A5, \field Array Geometry Type
+      \note TiltAzimuth - The tilt and azimuth angles are specified in the next two fields.
+      \note An unshaded array is assumed.
+      \note Surface - The array geometry (tilt and azimuth) as well as shading is determined from
+      \note surface referenced.
+      \type choice
+      \default TiltAzimuth
+      \key TiltAzimuth
+      \key Surface
+  N3, \field Tilt Angle
+      \note The tilt angle is the angle from horizontal of the photovoltaic modules in the array.
+      \type real
+      \units deg
+      \default 20
+      \minimum 0
+      \maximum 90
+  N4, \field Azimuth Angle
+      \note For a fixed array, the azimuth angle is the angle clockwise from true north describing
+      \note the direction that the array faces. For an array with one-axis tracking, the azimuth
+      \note angle is the angle clockwise from true north of the axis of rotation.
+      \type real
+      \units deg
+      \default 180
+      \minimum 0
+      \maximum< 360
+  A6, \field Surface Name
+      \type object-list
+      \object-list AllShadingAndHTSurfNames
+  N5; \field Ground Coverage Ratio
+      \note Applies only to arrays with one-axis tracking and is the ratio of module surface area
+      \note to area of the ground or roof occupied by the array.
+      \type real
+      \default 0.4
+      \minimum 0
+      \maximum 1
+
+ElectricLoadCenter:Inverter:PVWatts,
+      \min-fields 1
+      \memo Electric power inverter to convert from direct current (DC) to alternating current
+      \memo (AC) in an electric load center that contains Generator:PVWatts objects.
+      \memo It implements the PVWatts inverter performance curves.
+  A1, \field Name
+      \reference InverterList
+  N1, \field DC to AC Size Ratio
+      \type real
+      \minimum> 0
+      \default 1.10
+  N2; \field Inverter Efficiency
+      \type real
+      \minimum> 0
+      \maximum 1
+      \default 0.96
+
+Generator:FuelCell,
+       \memo This generator model is the FC model from IEA Annex 42
+  A1, \field Name
+      \required-field
+      \reference GeneratorNames
+  A2, \field Power Module Name
+      \note Enter the name of a Generator:FuelCell:PowerModule object.
+      \required-field
+      \type object-list
+      \object-list FCPMNames
+  A3, \field Air Supply Name
+      \note Enter the name of a Generator:FuelCell:AirSupply object.
+      \required-field
+      \type object-list
+      \object-list FCAirSupNames
+  A4, \field Fuel Supply Name
+      \note Enter the name of a Generator:FuelSupply object.
+      \required-field
+      \type object-list
+      \object-list GenFuelSupNames
+  A5, \field Water Supply Name
+      \note Enter the name of a Generator:FuelCell:WaterSupply object.
+      \required-field
+      \type object-list
+      \object-list FCWaterSupNames
+  A6, \field Auxiliary Heater Name
+      \note Enter the name of a Generator:FuelCell:AuxiliaryHeater object.
+      \required-field
+      \type object-list
+      \object-list FCAuxHeatNames
+  A7, \field Heat Exchanger Name
+      \note Enter the name of a Generator:FuelCell:ExhaustGasToWaterHeatExchanger object.
+      \required-field
+      \type object-list
+      \object-list FCExhaustHXNames
+  A8, \field Electrical Storage Name
+      \note Enter the name of a Generator:FuelCell:ElectricalStorage object.
+      \required-field
+      \type object-list
+      \object-list FCStorageNames
+  A9, \field Inverter Name
+      \note Enter the name of a Generator:FuelCell:Inverter object.
+      \required-field
+      \type object-list
+      \object-list FCInverterNames
+  A10; \field Stack Cooler Name
+      \note Enter the name of a Generator:FuelCell:StackCooler object.
+      \note optional, used for PEMFC
+      \type object-list
+      \object-list FCStackCoolerNames
+
+Generator:FuelCell:PowerModule,
+      \memo Describe the core power module subsystem of a fuel cell power generator. This includes
+      \memo the fuel cell stack, fuel reformer, and whatever ancillary devices are included inside.
+      \memo If the model has multiple FC generators that are of the exact same type, then only one
+      \memo of these objects is needed and all the Generator:FuelCell objects can reference it.
+  A1, \field Name
+      \required-field
+      \reference FCPMNames
+  A2, \field Efficiency Curve Mode
+      \type choice
+      \key Annex42
+      \key Normalized
+  A3, \field Efficiency Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+      \required-field
+  N1, \field Nominal Efficiency
+      \note This field is not used.
+  N2, \field Nominal Electrical Power
+      \note This field is not used
+      \units W
+  N3, \field Number of Stops at Start of Simulation
+      \note this is Nstops in SOFC model specification
+  N4, \field Cycling Performance Degradation Coefficient
+      \note this is D in SOFC model specification
+  N5, \field Number of Run Hours at Beginning of Simulation
+      \units hr
+  N6, \field Accumulated Run Time Degradation Coefficient
+      \note this is L in SOFC model specification
+  N7, \field Run Time Degradation Initiation Time Threshold
+      \units hr
+  N8, \field Power Up Transient Limit
+      \units W/s
+      \note Maximum rate of change in electrical output [power increasing]
+  N9, \field Power Down Transient Limit
+      \units W/s
+      \note Maximum rate of change in electrical output [power decreasing]
+      \note Enter positive value for rate of change
+  N10,\field Start Up Time
+      \units s
+      \note Time from start up to normal operation
+  N11,\field Start Up Fuel
+      \units kmol
+  N12,\field Start Up Electricity Consumption
+      \units J
+  N13,\field Start Up Electricity Produced
+      \units J
+  N14,\field Shut Down Time
+      \units s
+  N15,\field Shut Down Fuel
+      \units kmol
+  N16,\field Shut Down Electricity Consumption
+      \units J
+  N17,\field Ancillary Electricity Constant Term
+  N18,\field Ancillary Electricity Linear Term
+  A4, \field Skin Loss Calculation Mode
+      \type choice
+      \key ConstantRate
+      \key UAForProcessGasTemperature
+      \key QuadraticFunctionOfFuelRate
+  A5, \field Zone Name
+      \type object-list
+      \object-list ZoneNames
+  N19,\field Skin Loss Radiative Fraction
+      \minimum 0.0
+      \maximum 1.0
+  N20,\field Constant Skin Loss Rate
+      \units W
+  N21,\field Skin Loss U-Factor Times Area Term
+      \units W/K
+  A6, \field Skin Loss Quadratic Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+      \note curve is function of fuel use rate
+  N22,\field Dilution Air Flow Rate
+      \units kmol/s
+  N23,\field Stack Heat loss to Dilution Air
+      \units W
+  A7, \field Dilution Inlet Air Node Name
+      \type node
+  A8 ,\field Dilution Outlet Air Node Name
+      \type node
+  N24, \field Minimum Operating Point
+       \units W
+  N25; \field Maximum Operating Point
+       \units W
+
+Generator:FuelCell:AirSupply,
+      \memo Used to define details of the air supply subsystem for a fuel cell power generator.
+      \extensible:2 - repeat last two fields, remembering to remove ; from "inner" fields.
+  A1, \field Name
+      \required-field
+      \reference FCAirSupNames
+  A2, \field Air Inlet Node Name
+      \type node
+  A3, \field Blower Power Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+  N1, \field Blower Heat Loss Factor
+      \minimum 0.0
+      \maximum 1.0
+  A4, \field Air Supply Rate Calculation Mode
+      \required-field
+      \type choice
+      \key AirRatiobyStoics
+      \key QuadraticFunctionofElectricPower
+      \key QuadraticFunctionofFuelRate
+  N2, \field Stoichiometric Ratio
+      \note This is the excess air "stoics"
+      \note the value entered is incremented by 1 in the model.
+  A5, \field Air Rate Function of Electric Power Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+  N3, \field Air Rate Air Temperature Coefficient
+  A6, \field Air Rate Function of Fuel Rate Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+  A7, \field Air Intake Heat Recovery Mode
+      \required-field
+      \type choice
+      \key NoRecovery
+      \key RecoverBurnerInverterStorage
+      \key RecoverAuxiliaryBurner
+      \key RecoverInverterandStorage
+      \key RecoverInverter
+      \key RecoverElectricalStorage
+  A8, \field Air Supply Constituent Mode
+      \required-field
+      \type choice
+      \key AmbientAir
+      \key UserDefinedConstituents
+  N4, \field Number of UserDefined Constituents
+      \maximum 5
+  A9, \field Constituent 1 Name
+      \begin-extensible
+      \type choice
+      \key CarbonDioxide
+      \key Nitrogen
+      \key Oxygen
+      \key Water
+      \key Argon
+  N5, \field Molar Fraction 1
+      \minimum 0.0
+      \maximum 1.0
+  A10,\field Constituent 2 Name
+      \type choice
+      \key CarbonDioxide
+      \key Nitrogen
+      \key Oxygen
+      \key Water
+      \key Argon
+  N6, \field Molar Fraction 2
+      \minimum 0.0
+      \maximum 1.0
+  A11,\field Constituent 3 Name
+      \type choice
+      \key CarbonDioxide
+      \key Nitrogen
+      \key Oxygen
+      \key Water
+      \key Argon
+  N7, \field Molar Fraction 3
+      \minimum 0.0
+      \maximum 1.0
+  A12,\field Constituent 4 Name
+      \type choice
+      \key CarbonDioxide
+      \key Nitrogen
+      \key Oxygen
+      \key Water
+      \key Argon
+  N8, \field Molar Fraction 4
+      \minimum 0.0
+      \maximum 1.0
+  A13,\field Constituent 5 Name
+      \type choice
+      \key CarbonDioxide
+      \key Nitrogen
+      \key Oxygen
+      \key Water
+      \key Argon
+  N9; \field Molar Fraction 5
+      \minimum 0.0
+      \maximum 1.0
+
+Generator:FuelCell:WaterSupply,
+      \memo Used to provide details of the water supply subsystem for a fuel cell power generator.
+      \memo This water is used for steam reforming of the fuel and is not the same
+      \memo as the water used for thermal heat recovery.
+  A1, \field Name
+      \required-field
+      \reference FCWaterSupNames
+  A2, \field Reformer Water Flow Rate Function of Fuel Rate Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+  A3, \field Reformer Water Pump Power Function of Fuel Rate Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+  N1, \field Pump Heat Loss Factor
+  A4, \field Water Temperature Modeling Mode
+      \type choice
+      \key TemperatureFromAirNode
+      \key TemperatureFromWaterNode
+      \key TemperatureFromSchedule
+      \key MainsWaterTemperature
+  A5, \field Water Temperature Reference Node Name
+      \type node
+  A6; \field Water Temperature Schedule Name
+      \type object-list
+      \object-list ScheduleNames
+
+Generator:FuelCell:AuxiliaryHeater,
+      \memo Intended for modeling an auxiliary heater for a fuel cell power generator, however this
+      \memo portion of the model is not yet available. The program still requires one of these
+      \memo objects be included even though the data are not yet used (so that internal data
+      \memo structures can be allocated).
+  A1, \field Name
+      \required-field
+      \reference FCAuxHeatNames
+  N1, \field Excess Air Ratio
+  N2, \field Ancillary Power Constant Term
+  N3, \field Ancillary Power Linear Term
+  N4, \field Skin Loss U-Factor Times Area Value
+      \units W/K
+  A2, \field Skin Loss Destination
+      \type choice
+      \key SurroundingZone
+      \key AirInletForFuelCell
+  A3, \field Zone Name to Receive Skin Losses
+      \type object-list
+      \object-list ZoneNames
+  A4, \field Heating Capacity Units
+      \type choice
+      \key Watts
+      \key kmol/s
+  N5, \field Maximum Heating Capacity in Watts
+      \units W
+  N6, \field Minimum Heating Capacity in Watts
+      \units W
+  N7, \field Maximum Heating Capacity in Kmol per Second
+      \units kmol/s
+  N8; \field Minimum Heating Capacity in Kmol per Second
+      \units kmol/s
+
+Generator:FuelCell:ExhaustGasToWaterHeatExchanger,
+      \memo Describes the exhaust gas heat exchanger subsystem of a fuel cell power generator
+      \memo used to recovery thermal energy
+  A1, \field Name
+      \required-field
+      \reference FCExhaustHXNames
+      \reference-class-name validPlantEquipmentTypes
+      \reference validPlantEquipmentNames
+      \reference-class-name validBranchEquipmentTypes
+      \reference validBranchEquipmentNames
+  A2, \field Heat Recovery Water Inlet Node Name
+      \type node
+  A3, \field Heat Recovery Water Outlet Node Name
+      \type node
+  N1, \field Heat Recovery Water Maximum Flow Rate
+      \units m3/s
+      \ip-units gal/min
+  A4, \field Exhaust Outlet Air Node Name
+      \type node
+  A5, \field Heat Exchanger Calculation Method
+      \type choice
+      \key FixedEffectiveness
+      \key EmpiricalUAeff
+      \key FundementalUAeff
+      \key Condensing
+  N2, \field Method 1 Heat Exchanger Effectiveness
+  N3, \field Method 2 Parameter hxs0
+  N4, \field Method 2 Parameter hxs1
+  N5, \field Method 2 Parameter hxs2
+  N6, \field Method 2 Parameter hxs3
+  N7, \field Method 2 Parameter hxs4
+  N8, \field Method 3 h0Gas Coefficient
+  N9, \field Method 3 NdotGasRef Coefficient
+  N10, \field Method 3 n Coefficient
+  N11, \field Method 3 Gas Area
+       \units m2
+  N12, \field Method 3 h0 Water Coefficient
+  N13, \field Method 3 N dot Water ref Coefficient
+  N14, \field Method 3 m Coefficient
+  N15, \field Method 3 Water Area
+       \units m2
+  N16, \field Method 3 F Adjustment Factor
+  N17, \field Method 4 hxl1 Coefficient
+  N18, \field Method 4 hxl2 Coefficient
+  N19; \field Method 4 Condensation Threshold
+       \units C
+
+Generator:FuelCell:ElectricalStorage,
+      \memo Used to describe the electrical storage subsystem for a fuel cell power generator.
+      \memo The electrical storage model is a very simple "constrained bucket" model.
+      \memo Note that this electrical storage is embedded within the FC device.
+  A1, \field Name
+      \required-field
+      \reference FCStorageNames
+  A2, \field Choice of Model
+      \type choice
+      \key SimpleEfficiencyWithConstraints
+  N1, \field Nominal Charging Energetic Efficiency
+      \maximum 1.0
+      \minimum 0.0
+  N2, \field Nominal Discharging Energetic Efficiency
+      \maximum 1.0
+      \minimum 0.0
+  N3, \field Simple Maximum Capacity
+      \units J
+  N4, \field Simple Maximum Power Draw
+      \units W
+  N5, \field Simple Maximum Power Store
+      \units W
+  N6; \field Initial Charge State
+      \units J
+
+Generator:FuelCell:Inverter,
+      \memo Used to describe the power condition unit subsystem of a fuel cell power generator.
+      \memo This object models an inverter system contained within a fuel cell system that
+      \memo converts from direct current (DC) to alternating current (AC).
+  A1, \field Name
+      \required-field
+      \reference FCInverterNames
+  A2, \field Inverter Efficiency Calculation Mode
+      \type choice
+      \key Quadratic
+      \key Constant
+  N1, \field Inverter Efficiency
+      \minimum 0.0
+      \maximum 1.0
+  A3; \field Efficiency Function of DC Power Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+
+Generator:FuelCell:StackCooler,
+      \memo This object is optional and is used to define details needed to model the stack cooler
+      \memo on PEMFC.
+  A1, \field Name
+      \required-field
+      \type alpha
+      \reference FCStackCoolerNames
+      \reference-class-name validBranchEquipmentTypes
+      \reference validBranchEquipmentNames
+  A2, \field Heat Recovery Water Inlet Node Name
+      \type node
+  A3, \field Heat Recovery Water Outlet Node Name
+      \type node
+  N1,  \field Nominal Stack Temperature
+       \units C
+  N2,  \field Actual Stack Temperature
+       \units C
+  N3,  \field Coefficient r0
+  N4,  \field Coefficient r1
+  N5,  \field Coefficient r2
+  N6,  \field Coefficient r3
+  N7,  \field Stack Coolant Flow Rate
+       \units kg/s
+  N8,  \field Stack Cooler U-Factor Times Area Value
+       \units W/K
+  N9,  \field Fs-cogen Adjustment Factor
+  N10, \field Stack Cogeneration Exchanger Area
+       \units m2
+  N11, \field Stack Cogeneration Exchanger Nominal Flow Rate
+       \units kg/s
+  N12, \field Stack Cogeneration Exchanger Nominal Heat Transfer Coefficient
+       \units W/m2-K
+  N13, \field Stack Cogeneration Exchanger Nominal Heat Transfer Coefficient Exponent
+  N14, \field Stack Cooler Pump Power
+       \units W
+  N15, \field Stack Cooler Pump Heat Loss Fraction
+       \minimum 0.0
+       \maximum 1.0
+  N16, \field Stack Air Cooler Fan Coefficient f0
+  N17, \field Stack Air Cooler Fan Coefficient f1
+  N18; \field Stack Air Cooler Fan Coefficient f2
+
+Generator:MicroCHP,
+      \memo Small-scale combined heat and power (micro CHP) electric generator using the model
+      \memo developed by IEA/ECBCS Annex 42 see www.cogen-sim.net. The model was developed
+      \memo for both internal combustion and Stirling cycle
+      \memo engines, but might be used for other types of residential CHP devices.
+  A1, \field Name
+      \reference GeneratorNames
+      \reference-class-name validPlantEquipmentTypes
+      \reference validPlantEquipmentNames
+      \reference-class-name validBranchEquipmentTypes
+      \reference validBranchEquipmentNames
+  A2, \field Performance Parameters Name
+      \note Enter the name of a Generator:MicroCHP:NonNormalizedParameters object.
+      \type object-list
+      \object-list MicroCHPParametersNames
+  A3, \field Zone Name
+      \type object-list
+      \object-list ZoneNames
+  A4, \field Cooling Water Inlet Node Name
+      \type node
+  A5, \field Cooling Water Outlet Node Name
+      \type node
+  A6, \field Air Inlet Node Name
+      \type node
+  A7, \field Air Outlet Node Name
+      \type node
+  A8, \field Generator Fuel Supply Name
+      \type object-list
+      \object-list GenFuelSupNames
+      \note Enter the name of a Generator:FuelSupply object.
+  A9; \field Availability Schedule Name
+      \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+      \note If this field is blank, the system is always available.
+      \type object-list
+      \object-list ScheduleNames
+
+Generator:MicroCHP:NonNormalizedParameters,
+      \memo This object is referenced by a Generator:MicroCHP object and provides the
+      \memo non-normalized parameters for the MicroCHP generator model.
+  A1, \field Name
+      \reference MicroCHPParametersNames
+  N1, \field Maximum Electric Power
+      \units W
+  N2, \field Minimum Electric Power
+      \units W
+  N3, \field Minimum Cooling Water Flow Rate
+      \units kg/s
+  N4, \field Maximum Cooling Water Temperature
+      \units C
+  A2, \field Electrical Efficiency Curve Name
+      \note TriQuadratic
+      \type object-list
+      \object-list TrivariateFunctions
+  A3, \field Thermal Efficiency Curve Name
+      \note TriQuadratic
+      \type object-list
+      \object-list TrivariateFunctions
+  A4, \field Cooling Water Flow Rate Mode
+      \type choice
+      \key PlantControl
+      \key InternalControl
+  A5, \field Cooling Water Flow Rate Curve Name
+      \type object-list
+      \object-list BivariateFunctions
+  A6, \field Air Flow Rate Curve Name
+      \type object-list
+       \object-list UnivariateFunctions
+  N5,  \field Maximum Net Electrical Power Rate of Change
+       \units W/s
+  N6,  \field Maximum Fuel Flow Rate of Change
+       \units kg/s2
+  N7,  \field Heat Exchanger U-Factor Times Area Value
+       \units W/K
+  N8,  \field Skin Loss U-Factor Times Area Value
+       \units W/K
+  N9,  \field Skin Loss Radiative Fraction
+       \type real
+  N10,  \field Aggregated Thermal Mass of Energy Conversion Portion of Generator
+       \units W/K
+       \minimum> 0.0
+  N11,  \field Aggregated Thermal Mass of Heat Recovery Portion of Generator
+       \units W/K
+       \minimum> 0.0
+  N12, \field Standby Power
+       \units W
+  A7, \field Warm Up Mode
+       \type choice
+       \key NominalEngineTemperature
+       \key TimeDelay
+       \note Stirling engines use Nominal Engine Temperature
+       \note Internal combustion engines use Time Delay
+  N13, \field Warm Up Fuel Flow Rate Coefficient
+  N14, \field Nominal Engine Operating Temperature
+       \units C
+  N15, \field Warm Up Power Coefficient
+  N16, \field Warm Up Fuel Flow Rate Limit Ratio
+  N17, \field Warm Up Delay Time
+       \units s
+  N18, \field Cool Down Power
+       \units W
+  N19, \field Cool Down Delay Time
+       \units s
+  A8; \field Restart Mode
+       \type choice
+       \key MandatoryCoolDown
+       \key OptionalCoolDown
+
+Generator:FuelSupply,
+      \memo Used only with Generator:FuelCell and Generator:MicroCHP
+  A1, \field Name
+      \required-field
+      \reference GenFuelSupNames
+  A2, \field Fuel Temperature Modeling Mode
+      \type choice
+      \key TemperatureFromAirNode
+      \key Scheduled
+  A3, \field Fuel Temperature Reference Node Name
+      \type node
+  A4, \field Fuel Temperature Schedule Name
+      \type object-list
+      \object-list ScheduleNames
+  A5, \field Compressor Power Multiplier Function of Fuel Rate Curve Name
+      \type object-list
+      \object-list UnivariateFunctions
+  N1, \field Compressor Heat Loss Factor
+      \minimum 0.0
+      \maximum 1.0
+  A6, \field Fuel Type
+      \type choice
+      \key GaseousConstituents
+      \key LiquidGeneric
+  N2, \field Liquid Generic Fuel Lower Heating Value
+      \units kJ/kg
+  N3, \field Liquid Generic Fuel Higher Heating Value
+      \units kJ/kg
+  N4, \field Liquid Generic Fuel Molecular Weight
+      \units g/mol
+  N5, \field Liquid Generic Fuel CO2 Emission Factor
+  N6, \field Number of Constituents in Gaseous Constituent Fuel Supply
+      \minimum 0.0
+      \maximum 12.0
+  ! sets of input data on each constituent
+  A7, \field Constituent 1 Name
+      \type choice
+      \key CarbonDioxide
+      \key Nitrogen
+      \key Oxygen
+      \key Water
+      \key Argon
+      \key Hydrogen
+      \key Methane
+      \key Ethane
+      \key Propane
+      \key Butane
+      \key Pentane
+      \key Hexane
+      \key Methanol
+      \key Ethanol
+  N7, \field Constituent 1 Molar Fraction
+      \minimum 0.0
+      \maximum 1.0
+  A8, \field Constituent 2 Name
+      \type choice
+      \key CarbonDioxide
+      \key Nitrogen
+      \key Oxygen
+      \key Water
+      \key Argon
+      \key Hydrogen
+      \key Methane
+      \key Ethane
+      \key Propane
+      \key Butane
+      \key Pentane
+      \key Hexane
+      \key Methanol
+      \key Ethanol
+  N8, \field Constituent 2 Molar Fraction
+      \minimum 0.0
+      \maximum 1.0
+  A9, \field Constituent 3 Name
+      \type choice
+      \key CarbonDioxide
+      \key Nitrogen
+      \key Oxygen
+      \key Water
+      \key Argon
+      \key Hydrogen
+      \key Methane
+      \key Ethane
+      \key Propane
+      \key Butane
+      \key Pentane
+      \key Hexane
+      \key Methanol
+      \key Ethanol
+  N9, \field Constituent 3 Molar Fraction
+      \minimum 0.0
+      \maximum 1.0
+  A10, \field Constituent 4 Name
+      \type choice
+      \key CarbonDioxide
+      \key Nitrogen
+      \key Oxygen
+      \key Water
+      \key Argon
+      \key Hydrogen
+      \key Methane
+      \key Ethane
+      \key Propane
+      \key Butane
+      \key Pentane
+      \key Hexane
+      \key Methanol
+      \key Ethanol
+  N10, \field Constituent 4 Molar Fraction
+      \minimum 0.0
+      \maximum 1.0
+  A11, \field Constituent 5 Name
+      \type choice
+      \key CarbonDioxide
+      \key Nitrogen
+      \key Oxygen
+      \key Water
+      \key Argon
+      \key Hydrogen
+      \key Methane
+      \key Ethane
+      \key Propane
+      \key Butane
+      \key Pentane
+      \key Hexane
+      \key Methanol
+      \key Ethanol
+  N11, \field Constituent 5 Molar Fraction
+      \minimum 0.0
+      \maximum 1.0
+  A12, \field Constituent 6 Name
+      \type choice
+      \key CarbonDioxide
+      \key Nitrogen
+      \key Oxygen
+      \key Water
+      \key Argon
+      \key Hydrogen
+      \key Methane
+      \key Ethane
+      \key Propane
+      \key Butane
+      \key Pentane
+      \key Hexane
+      \key Methanol
+      \key Ethanol
+  N12, \field Constituent 6 Molar Fraction
+        \minimum 0.0
+      \maximum 1.0
+  A13, \field Constituent 7 Name
+      \type choice
+      \key Hydrogen
+      \key Methane
+      \key Ethane
+      \key Propane
+      \key Butane
+      \key Pentane
+      \key Hexane
+      \key Methanol
+      \key Ethanol
+  N13, \field Constituent 7 Molar Fraction
+      \minimum 0.0
+      \maximum 1.0
+  A14, \field Constituent 8 Name
+      \type choice
+      \key CarbonDioxide
+      \key Nitrogen
+      \key Oxygen
+      \key Water
+      \key Argon
+      \key Hydrogen
+      \key Methane
+      \key Ethane
+      \key Propane
+      \key Butane
+      \key Pentane
+      \key Hexane
+      \key Methanol
+      \key Ethanol
+  N14, \field Constituent 8 Molar Fraction
+      \minimum 0.0
+      \maximum 1.0
+  A15, \field Constituent 9 Name
+      \type choice
+      \key CarbonDioxide
+      \key Nitrogen
+      \key Oxygen
+      \key Water
+      \key Argon
+      \key Hydrogen
+      \key Methane
+      \key Ethane
+      \key Propane
+      \key Butane
+      \key Pentane
+      \key Hexane
+      \key Methanol
+      \key Ethanol
+  N15, \field Constituent 9 Molar Fraction
+      \minimum 0.0
+      \maximum 1.0
+  A16, \field Constituent 10 Name
+      \type choice
+      \key CarbonDioxide
+      \key Nitrogen
+      \key Oxygen
+      \key Water
+      \key Argon
+      \key Hydrogen
+      \key Methane
+      \key Ethane
+      \key Propane
+      \key Butane
+      \key Pentane
+      \key Hexane
+      \key Methanol
+      \key Ethanol
+  N16, \field Constituent 10 Molar Fraction
+      \minimum 0.0
+      \maximum 1.0
+  A17, \field Constituent 11 Name
+      \type choice
+      \key CarbonDioxide
+      \key Nitrogen
+      \key Oxygen
+      \key Water
+      \key Argon
+      \key Hydrogen
+      \key Methane
+      \key Ethane
+      \key Propane
+      \key Butane
+      \key Pentane
+      \key Hexane
+      \key Methanol
+      \key Ethanol
+  N17, \field Constituent 11 Molar Fraction
+      \minimum 0.0
+      \maximum 1.0
+  A18, \field Constituent 12 Name
+      \type choice
+      \key CarbonDioxide
+      \key Nitrogen
+      \key Oxygen
+      \key Water
+      \key Argon
+      \key Hydrogen
+      \key Methane
+      \key Ethane
+      \key Propane
+      \key Butane
+      \key Pentane
+      \key Hexane
+      \key Methanol
+      \key Ethanol
+  N18; \field Constituent 12 Molar Fraction
+      \minimum 0.0
+      \maximum 1.0
+
+Generator:WindTurbine,
+      \memo Wind turbine generator.
+      \min-fields 26
+  A1, \field Name
+      \required-field
+      \reference GeneratorNames
+  A2, \field Availability Schedule Name
+      \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+      \note If this field is blank, the system is always available.
+      \type object-list
+      \object-list ScheduleNames
+  A3, \field Rotor Type
+      \note allowed values are: Horizontal Axis Wind Turbine or Vertical Axis Wind Turbine
+      \type choice
+      \key HorizontalAxisWindTurbine
+      \key VerticalAxisWindTurbine
+      \default HorizontalAxisWindTurbine
+  A4, \field Power Control
+      \note Constant power output is obtained in the last three control types
+      \note when the wind speed exceeds the rated wind speed.
+      \note allowed values are: Fixed Speed Fixed Pitch, Fixed Speed Variable Pitch,
+      \note Variable Speed Fixed Pitch or Variable Speed Variable Pitch
+      \type choice
+      \key FixedSpeedFixedPitch
+      \key FixedSpeedVariablePitch
+      \key VariableSpeedFixedPitch
+      \key VariableSpeedVariablePitch
+      \default VariableSpeedVariablePitch
+  N1, \field Rated Rotor Speed
+      \required-field
+      \type real
+      \minimum> 0.0
+      \units rev/min
+  N2, \field Rotor Diameter
+      \note This field is the diameter of the perpendicular circle of the Vertical Axis Wind Turbine system
+      \note from the upright pole on the ground.
+      \required-field
+      \type real
+      \minimum> 0.0
+      \units m
+  N3, \field Overall Height
+      \note This field is the height of the hub for the Horizontal Axis Wind Turbines and
+      \note of the pole for the Vertical Axis Wind Turbines.
+      \required-field
+      \type real
+      \minimum> 0.0
+      \units m
+  N4, \field Number of Blades
+      \minimum 2
+      \default 3
+  N5, \field Rated Power
+      \required-field
+      \note This field is the nominal power at the rated wind speed.
+      \note Users should input maximum power in case of Fixed Speed Fixed Pitch control type.
+      \type real
+      \minimum> 0.0
+      \units W
+  N6, \field Rated Wind Speed
+      \required-field
+      \type real
+      \minimum> 0.0
+      \units m/s
+  N7, \field Cut In Wind Speed
+      \required-field
+      \type real
+      \minimum> 0.0
+      \units m/s
+  N8, \field Cut Out Wind Speed
+      \required-field
+      \type real
+      \minimum> 0.0
+      \units m/s
+  N9, \field Fraction system Efficiency
+      \type real
+      \minimum> 0.0
+      \maximum 1.0
+      \default 0.835
+  N10,\field Maximum Tip Speed Ratio
+      \type real
+      \minimum> 0.0
+      \maximum 12.0
+      \default 5.0
+  N11,\field Maximum Power Coefficient
+      \note This field should be input if the rotor type is Horizontal Axis Wind Turbine
+      \type real
+      \minimum> 0.0
+      \maximum 0.59
+      \default 0.25
+  N12,\field Annual Local Average Wind Speed
+      \type real
+      \units m/s
+      \minimum> 0.0
+  N13,\field Height for Local Average Wind Speed
+      \type real
+      \units m
+      \minimum> 0.0
+      \default 50.0
+  N14,\field Blade Chord Area
+      \type real
+      \units m2
+  N15,\field Blade Drag Coefficient
+      \note This field is only for Vertical Axis Wind Turbine..
+      \note The user must input this field if the rotor type is Vertical Axis Wind Turbine.
+      \type real
+      \default 0.9
+  N16,\field Blade Lift Coefficient
+      \note This field is only for Vertical Axis Wind Turbine..
+      \note The user must input this field if the rotor type is Vertical Axis Wind Turbine.
+      \type real
+      \default 0.05
+  N17,\field Power Coefficient C1
+      \note This field is only available for Horizontal Axis Wind Turbine.
+      \note The user should input all six parameters
+      \note so that the analytic approximation is assumed.
+      \note The simple approximation will be assumed,
+      \note if any field C1 through C6 is not input.
+      \note Leave this field blank, if the manufacturer's data is unavailable
+      \note so that the simple approximation will be assumed.
+      \minimum> 0.0
+      \type real
+      \default 0.5176
+  N18,\field Power Coefficient C2
+      \minimum> 0.0
+      \type real
+      \default 116.0
+  N19,\field Power Coefficient C3
+      \minimum> 0.0
+      \type real
+      \default 0.4
+  N20,\field Power Coefficient C4
+      \minimum 0.0
+      \type real
+      \default 0.0
+  N21,\field Power Coefficient C5
+      \minimum> 0.0
+      \type real
+      \default 5.0
+  N22;\field Power Coefficient C6
+      \minimum> 0.0
+      \type real
+      \default 21.0
+
+ElectricLoadCenter:Generators,
+       \memo List of electric power generators to include in the simulation including the name and
+       \memo type of each generators along with availability schedule, rated power output,
+       \memo and thermal-to-electrical power ratio.
+       \extensible:5 - repeat set of five fields, remembering to remove ; from "inner" fields.
+       \min-fields 6
+  A1 , \field Name
+       \required-field
+       \reference GeneratorLists
+  A2 , \field Generator 1 Name
+       \begin-extensible
+       \required-field
+       \type object-list
+       \object-list GeneratorNames
+  A3 , \field Generator 1 Object Type
+       \required-field
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N1 , \field Generator 1 Rated Electric Power Output
+       \type real
+       \units W
+  A4 , \field Generator 1 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N2 , \field Generator 1 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A5 , \field Generator 2 Name
+       \type object-list
+       \object-list GeneratorNames
+  A6 , \field Generator 2 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N3 , \field Generator 2 Rated Electric Power Output
+       \type real
+       \units W
+  A7,  \field Generator 2 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N4,  \field Generator 2 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A8,  \field Generator 3 Name
+       \type object-list
+       \object-list GeneratorNames
+  A9,  \field Generator 3 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N5,  \field Generator 3 Rated Electric Power Output
+       \type real
+       \units W
+  A10, \field Generator 3 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N6,  \field Generator 3 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A11, \field Generator 4 Name
+       \type object-list
+       \object-list GeneratorNames
+  A12, \field Generator 4 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N7,  \field Generator 4 Rated Electric Power Output
+       \type real
+       \units W
+  A13, \field Generator 4 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N8,  \field Generator 4 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A14, \field Generator 5 Name
+       \type object-list
+       \object-list GeneratorNames
+  A15, \field Generator 5 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+   N9, \field Generator 5 Rated Electric Power Output
+       \type real
+       \units W
+  A16, \field Generator 5 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N10, \field Generator 5 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A17, \field Generator 6 Name
+       \type object-list
+       \object-list GeneratorNames
+  A18, \field Generator 6 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N11, \field Generator 6 Rated Electric Power Output
+       \type real
+       \units W
+  A19, \field Generator 6 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N12,  \field Generator 6 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A20, \field Generator 7 Name
+       \type object-list
+       \object-list GeneratorNames
+  A21, \field Generator 7 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N13, \field Generator 7 Rated Electric Power Output
+       \type real
+       \units W
+  A22, \field Generator 7 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N14, \field Generator 7 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A23, \field Generator 8 Name
+       \type object-list
+       \object-list GeneratorNames
+  A24, \field Generator 8 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N15, \field Generator 8 Rated Electric Power Output
+       \type real
+       \units W
+  A25, \field Generator 8 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N16, \field Generator 8 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A26, \field Generator 9 Name
+       \type object-list
+       \object-list GeneratorNames
+  A27, \field Generator 9 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N17, \field Generator 9 Rated Electric Power Output
+       \type real
+       \units W
+  A28, \field Generator 9 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N18, \field Generator 9 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A29, \field Generator 10 Name
+       \type object-list
+       \object-list GeneratorNames
+  A30, \field Generator 10 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N19, \field Generator 10 Rated Electric Power Output
+       \type real
+       \units W
+  A31, \field Generator 10 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N20, \field Generator 10 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A32, \field Generator 11 Name
+       \type object-list
+       \object-list GeneratorNames
+  A33, \field Generator 11 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N21, \field Generator 11 Rated Electric Power Output
+       \type real
+       \units W
+  A34, \field Generator 11 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N22, \field Generator 11 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A35, \field Generator 12 Name
+       \type object-list
+       \object-list GeneratorNames
+  A36, \field Generator 12 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N23, \field Generator 12 Rated Electric Power Output
+       \type real
+       \units W
+  A37, \field Generator 12 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N24, \field Generator 12 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A38, \field Generator 13 Name
+       \type object-list
+       \object-list GeneratorNames
+  A39, \field Generator 13 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N25, \field Generator 13 Rated Electric Power Output
+       \type real
+       \units W
+  A40, \field Generator 13 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N26, \field Generator 13 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A41, \field Generator 14 Name
+       \type object-list
+       \object-list GeneratorNames
+  A42, \field Generator 14 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N27, \field Generator 14 Rated Electric Power Output
+       \type real
+       \units W
+  A43, \field Generator 14 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N28, \field Generator 14 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A44, \field Generator 15 Name
+       \type object-list
+       \object-list GeneratorNames
+  A45, \field Generator 15 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N29, \field Generator 15 Rated Electric Power Output
+       \type real
+       \units W
+  A46, \field Generator 15 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N30, \field Generator 15 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A47, \field Generator 16 Name
+       \type object-list
+       \object-list GeneratorNames
+  A48, \field Generator 16 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N31, \field Generator 16 Rated Electric Power Output
+       \type real
+       \units W
+  A49, \field Generator 16 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N32, \field Generator 16 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A50, \field Generator 17 Name
+       \type object-list
+       \object-list GeneratorNames
+  A51, \field Generator 17 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N33, \field Generator 17 Rated Electric Power Output
+       \type real
+       \units W
+  A52, \field Generator 17 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N34, \field Generator 17 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A53, \field Generator 18 Name
+       \type object-list
+       \object-list GeneratorNames
+  A54, \field Generator 18 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N35, \field Generator 18 Rated Electric Power Output
+       \type real
+       \units W
+  A55, \field Generator 18 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N36, \field Generator 18 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A56, \field Generator 19 Name
+       \type object-list
+       \object-list GeneratorNames
+  A57, \field Generator 19 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N37, \field Generator 19 Rated Electric Power Output
+       \type real
+       \units W
+  A58, \field Generator 19 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N38, \field Generator 19 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A59, \field Generator 20 Name
+       \type object-list
+       \object-list GeneratorNames
+  A60, \field Generator 20 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N39, \field Generator 20 Rated Electric Power Output
+       \type real
+       \units W
+  A61, \field Generator 20 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N40, \field Generator 20 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A62, \field Generator 21 Name
+       \type object-list
+       \object-list GeneratorNames
+  A63, \field Generator 21 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N41, \field Generator 21 Rated Electric Power Output
+       \type real
+       \units W
+  A64, \field Generator 21 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N42, \field Generator 21 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A65, \field Generator 22 Name
+       \type object-list
+       \object-list GeneratorNames
+  A66, \field Generator 22 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N43, \field Generator 22 Rated Electric Power Output
+       \type real
+       \units W
+  A67, \field Generator 22 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N44, \field Generator 22 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A68, \field Generator 23 Name
+       \type object-list
+       \object-list GeneratorNames
+  A69, \field Generator 23 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N45, \field Generator 23 Rated Electric Power Output
+       \type real
+       \units W
+  A70, \field Generator 23 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N46, \field Generator 23 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A71, \field Generator 24 Name
+       \type object-list
+       \object-list GeneratorNames
+  A72, \field Generator 24 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N47, \field Generator 24 Rated Electric Power Output
+       \type real
+       \units W
+  A73, \field Generator 24 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N48, \field Generator 24 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A74, \field Generator 25 Name
+       \type object-list
+       \object-list GeneratorNames
+  A75, \field Generator 25 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N49, \field Generator 25 Rated Electric Power Output
+       \type real
+       \units W
+  A76, \field Generator 25 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N50, \field Generator 25 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A77, \field Generator 26 Name
+       \type object-list
+       \object-list GeneratorNames
+  A78, \field Generator 26 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N51, \field Generator 26 Rated Electric Power Output
+       \type real
+       \units W
+  A79, \field Generator 26 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N52, \field Generator 26 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A80, \field Generator 27 Name
+       \type object-list
+       \object-list GeneratorNames
+  A81, \field Generator 27 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N53, \field Generator 27 Rated Electric Power Output
+       \type real
+       \units W
+  A82, \field Generator 27 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N54, \field Generator 27 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A83, \field Generator 28 Name
+       \type object-list
+       \object-list GeneratorNames
+  A84, \field Generator 28 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N55, \field Generator 28 Rated Electric Power Output
+       \type real
+       \units W
+  A85, \field Generator 28 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N56, \field Generator 28 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A86, \field Generator 29 Name
+       \type object-list
+       \object-list GeneratorNames
+  A87, \field Generator 29 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N57, \field Generator 29 Rated Electric Power Output
+       \type real
+       \units W
+  A88, \field Generator 29 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N58, \field Generator 29 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+  A89, \field Generator 30 Name
+       \type object-list
+       \object-list GeneratorNames
+  A90, \field Generator 30 Object Type
+       \type choice
+       \key Generator:InternalCombustionEngine
+       \key Generator:CombustionTurbine
+       \key Generator:Photovoltaic
+       \key Generator:PVWatts
+       \key Generator:FuelCell
+       \key Generator:MicroCHP
+       \key Generator:MicroTurbine
+       \key Generator:WindTurbine
+  N59, \field Generator 30 Rated Electric Power Output
+       \type real
+       \units W
+  A91, \field Generator 30 Availability Schedule Name
+       \note Availability schedule name for this generator. Schedule value > 0 means the generator is available.
+       \note If this field is blank, the generator is always available.
+       \type object-list
+       \object-list ScheduleNames
+  N60; \field Generator 30 Rated Thermal to Electrical Power Ratio
+       \note Required field when generator is used by an ElectricLoadCenter:Distribution object with Generator Operation Scheme set to FollowThermal or FollowThermalLimitElectrical
+       \type real
+
+ElectricLoadCenter:Inverter:Simple,
+        \memo Electric power inverter to convert from direct current (DC) to alternating current
+        \memo (AC) in an electric load center that contains photovoltaic modules. This input
+        \memo object is for the simplest inverter model and uses a fixed efficiency.
+   A1 , \field Name
+        \reference InverterList
+   A2 , \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3 , \field Zone Name
+        \note enter name of zone to receive inverter losses as heat
+        \note if blank then inverter is assumed to be outdoors
+        \type object-list
+        \object-list ZoneNames
+   N1 , \field Radiative Fraction
+        \minimum 0
+        \maximum 1.0
+   N2 ; \field Inverter Efficiency
+        \minimum 0
+        \maximum 1.0
+
+ElectricLoadCenter:Inverter:FunctionOfPower,
+        \memo Electric power inverter to convert from direct current (DC) to alternating current
+        \memo (AC) in an electric load center that contains photovoltaic modules. This input
+        \memo object is for an inverter model where efficiency is a function of normalized
+        \memo power.
+   A1 , \field Name
+        \reference InverterList
+   A2 , \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3 , \field Zone Name
+        \note Enter name of zone to receive inverter losses as heat
+        \note if blank then inverter is assumed to be outdoors
+        \type object-list
+        \object-list ZoneNames
+   N1 , \field Radiative Fraction
+   A4 , \field Efficiency Function of Power Curve Name
+        \note curve describes efficiency as a function of power
+        \note curve is normalized relative to rated power in next field
+        \type object-list
+        \object-list UnivariateFunctions
+   N2,  \field Rated Maximum Continuous Input Power
+        \units W
+   N3 , \field Minimum Efficiency
+        \minimum 0
+        \maximum 1.0
+   N4 , \field Maximum Efficiency
+        \minimum 0
+        \maximum 1.0
+   N5 , \field Minimum Power Output
+        \units W
+   N6 , \field Maximum Power Output
+        \units W
+   N7 ; \field Ancillary Power Consumed In Standby
+        \units W
+
+ElectricLoadCenter:Inverter:LookUpTable,
+        \memo   California Energy Commission tests and publishes data on inverters
+        \memo   This inverter model interpolates using CEC test data
+        \memo   Input data are at http://www.gosolarcalifornia.org/equipment/inverter_tests/summaries
+   A1 , \field Name
+        \reference InverterList
+   A2 , \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3 , \field Zone Name
+        \note Enter name of zone to receive inverter losses as heat
+        \note if blank then inverter is assumed to be outdoors
+        \type object-list
+        \object-list ZoneNames
+   N1 , \field Radiative Fraction
+        \minimum 0
+        \maximum 1.0
+   N2 , \field Rated Maximum Continuous Output Power
+        \units W
+   N3 , \field Night Tare Loss Power
+        \units W
+   N4 , \field Nominal Voltage Input
+        \units V
+   N5 , \field Efficiency at 10% Power and Nominal Voltage
+        \minimum 0
+        \maximum 1.0
+   N6 , \field Efficiency at 20% Power and Nominal Voltage
+        \minimum 0
+        \maximum 1.0
+   N7 , \field Efficiency at 30% Power and Nominal Voltage
+        \minimum 0
+        \maximum 1.0
+   N8 , \field Efficiency at 50% Power and Nominal Voltage
+        \minimum 0
+        \maximum 1.0
+   N9 , \field Efficiency at 75% Power and Nominal Voltage
+        \minimum 0
+        \maximum 1.0
+   N10; \field Efficiency at 100% Power and Nominal Voltage
+        \minimum 0
+        \maximum 1.0
+
+ElectricLoadCenter:Storage:Simple,
+       \memo Used to model storage of electricity in an electric load center. This is a simple
+       \memo model that does not attempt to represent any of the characteristics of a real
+       \memo storage device such as a battery. The type of power, AC or DC, depends on
+       \memo the configuration chosen as the Electrical Buss Type in the
+       \memo ElectricLoadCenter:Distribution object.
+  A1,  \field Name
+       \reference ElecStorageList
+  A2,  \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3,  \field Zone Name
+       \note Enter name of zone to receive storage losses as heat
+       \note if blank then storage is assumed to be outdoors
+       \type object-list
+       \object-list ZoneNames
+  N1 , \field Radiative Fraction for Zone Heat Gains
+       \maximum 1.0
+       \minimum 0.0
+  N2,  \field Nominal Energetic Efficiency for Charging
+       \maximum 1.0
+       \minimum 0.0
+  N3,  \field Nominal Discharging Energetic Efficiency
+       \maximum 1.0
+       \minimum 0.0
+  N4,  \field Maximum Storage Capacity
+       \units J
+  N5,  \field Maximum Power for Discharging
+        \units W
+  N6,  \field Maximum Power for Charging
+        \units W
+  N7;  \field Initial State of Charge
+        \units J
+
+ElectricLoadCenter:Storage:Battery,
+        \memo Uses the kinetic battery model (KiBaM) to simulate rechargeable battery banks in an
+        \memo electrical load center. The battery bank is a collection of one or more individual
+        \memo battery modules. Given the surplus or deficit power from the electrical system and
+        \memo the state of charge from the previous time step, this object can model the voltage,
+        \memo current, and energy losses with charging and discharging during each time step.
+        \memo The cumulative battery damage can be also modeled and reported at the end of
+        \memo each simulation run.
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference ElecStorageList
+   A2,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3,  \field Zone Name
+        \type object-list
+        \object-list ZoneNames
+        \note Enter name of zone to receive electrical storage losses as heat
+        \note if blank then electrical storage losses are dissipated to outdoors
+   N1,  \field Radiative Fraction
+        \type real
+        \minimum 0
+        \maximum 1.0
+        \default 0
+   N2,  \field Number of Battery Modules in Parallel
+        \type integer
+        \minimum 1
+        \default 1
+        \note A module usually consists of several cells.
+        \note The total number of modules in the battery bank
+        \note is equal to number of modules in parallel times
+        \note number of modules in series.
+   N3,  \field Number of Battery Modules in Series
+        \type integer
+        \minimum 1
+        \default 1
+        \note A module usually consists of several cells.
+        \note The total number of modules in the battery bank
+        \note is equal to number of modules in parallel times
+        \note number of modules in series.
+   N4,  \field Maximum Module Capacity
+        \type real
+        \minimum 0
+        \units Ah
+        \note The capacity is for each module.
+        \note A model parameter from manufacturer's data or test data.
+   N5,  \field Initial Fractional State of Charge
+        \type real
+        \minimum 0
+        \maximum 1.0
+        \default 1.0
+        \note The state of charge is evaluated based on the
+        \note maximum capacity defined in the next field.
+   N6,  \field Fraction of Available Charge Capacity
+        \type real
+        \minimum 0
+        \maximum 1.0
+        \note A model parameter usually derived from test data by curve fitting.
+   N7,  \field Change Rate from Bound Charge to Available Charge
+        \minimum 0
+        \units 1/hr
+        \note A model parameter usually derived from test data by curve fitting.
+   N8,  \field Fully Charged Module Open Circuit Voltage
+        \type real
+        \units V
+        \minimum 0
+        \note The voltage is for each battery module.
+   N9, \field Fully Discharged Module Open Circuit Voltage
+        \type real
+        \units V
+        \minimum 0
+        \note The voltage is for each battery module.
+   A4, \field Voltage Change Curve Name for Charging
+        \type object-list
+        \object-list UnivariateFunctions
+        \note Determines how the open circuit voltage change with state of charge relative to the fully discharged state.
+   A5, \field Voltage Change Curve Name for Discharging
+        \type object-list
+        \object-list UnivariateFunctions
+        \note Determines how the open circuit voltage change with state of charge relative to the fully charged state.
+   N10, \field Module Internal Electrical Resistance
+        \type real
+        \units ohms
+        \minimum 0
+        \note A model parameter from manufacture or derived from test data.
+        \note Internal resistance is assumed to be constant.
+        \note The internal resistance is for each battery module.
+   N11, \field Maximum Module Discharging Current
+        \type real
+        \units A
+        \minimum 0
+        \note The constraint on discharging current is for each battery module.
+   N12, \field Module Cut-off Voltage
+        \type real
+        \units V
+        \minimum 0
+        \note The voltage constraint is for each battery module.
+   N13, \field Module Charge Rate Limit
+        \type real
+        \note units 1/hr
+        \minimum 0
+        \default 1.0
+        \note Charge rate limit is the division between charging current the remaining capacity.
+        \note The constraint on charging current is for each module.
+   A6,  \field Battery Life Calculation
+        \type choice
+        \key Yes
+        \key No
+        \default No
+   N14, \field Number of Cycle Bins
+        \type integer
+        \minimum 5
+        \default 10
+        \note Only required when battery life calculation is activated
+   A7; \field Battery Life Curve Name
+        \type object-list
+        \object-list UnivariateFunctions
+        \note Determines the number of cycles to failure in relation to cycle range.
+        \note Only required when battery life calculation is activated.
+
+ElectricLoadCenter:Storage:LiIonNMCBattery,
+        \memo Uses Lithium Ion NMC model to simulate rechargeable battery banks in an
+        \memo electrical load center. The battery bank is a collection of one or more individual
+        \memo battery modules. Given the surplus or deficit power from the electrical system and
+        \memo the state of charge from the previous time step, this object can model the voltage,
+        \memo current, and energy losses with charging and discharging during each time step.
+        \memo The cumulative battery damage can be also modeled and reported at the end of
+        \memo each simulation run.
+        \min-fields 11
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference ElecStorageList
+   A2,  \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the system is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3,  \field Zone Name
+        \type object-list
+        \object-list ZoneNames
+        \note Enter name of zone to receive electrical storage losses as heat
+        \note if blank then electrical storage losses are dissipated to outdoors
+   N1,  \field Radiative Fraction
+        \type real
+        \minimum 0
+        \maximum 1.0
+        \default 0
+   A4,  \field Lifetime Model
+        \type choice
+        \key None
+        \key KandlerSmith
+        \default KandlerSmith
+   N2,  \field Number of Cells in Series
+        \type integer
+        \minimum 1
+        \required-field
+        \note Battery voltage is calculated by multiplying this field
+        \note by the nominal cell voltage (N13, default 3.342V)
+   N3,  \field Number of Strings in Parallel
+        \type integer
+        \minimum 1
+        \required-field
+        \note Capacity (Ah) is determined by multiplying this field
+        \note by the cell capacity (N14, default 3.2 Ah)
+   N4,  \field Initial Fractional State of Charge
+        \type real
+        \minimum 0
+        \maximum 1.0
+        \default 0.5
+        \note The state of charge is evaluated based on the
+        \note maximum capacity defined in the next field.
+   N5,  \field DC to DC Charging Efficiency
+        \type real
+        \minimum> 0
+        \maximum 1
+        \default 0.95
+   N6,  \field Battery Mass
+        \type real
+        \minimum> 0
+        \units kg
+        \required-field
+   N7,  \field Battery Surface Area
+        \type real
+        \minimum> 0
+        \units m2
+        \required-field
+   N8,  \field Battery Specific Heat Capacity
+        \type real
+        \minimum> 0
+        \units J/kg-K
+        \default 1500
+   N9,  \field Heat Transfer Coefficient Between Battery and Ambient
+        \type real
+        \minimum> 0
+        \units W/m2-K
+        \default 7.5
+   N10, \field Fully Charged Cell Voltage
+        \type real
+        \minimum> 0
+        \units V
+        \default 4.2
+        \note Most users should not need to change this value.
+   N11, \field Cell Voltage at End of Exponential Zone
+        \type real
+        \minimum> 0
+        \units V
+        \default 3.53
+        \note Most users should not need to change this value.
+   N12, \field Cell Voltage at End of Nominal Zone
+        \type real
+        \minimum> 0
+        \units V
+        \default 3.342
+        \note Most users should not need to change this value.
+   N13, \field Default Nominal Cell Voltage
+        \type real
+        \minimum> 0
+        \units V
+        \default 3.342
+        \note Most users should not need to change this value.
+   N14, \field Fully Charged Cell Capacity
+        \type real
+        \minimum> 0
+        \units Ah
+        \default 3.2
+        \note Most users should not need to change this value.
+   N15, \field Fraction of Cell Capacity Removed at the End of Exponential Zone
+        \type real
+        \minimum> 0.0
+        \maximum< 1.0
+        \default 0.8075
+        \note Most users should not need to change this value.
+   N16, \field Fraction of Cell Capacity Removed at the End of Nominal Zone
+        \type real
+        \minimum> 0.0
+        \maximum< 1.0
+        \default 0.976875
+        \note Most users should not need to change this value.
+   N17, \field Charge Rate at Which Voltage vs Capacity Curve Was Generated
+        \type real
+        \minimum> 0
+        \default 1
+        \note Most users should not need to change this value.
+   N18; \field Battery Cell Internal Electrical Resistance
+        \type real
+        \minimum 0
+        \units ohms
+        \default 0.09
+        \note for a single cell
+        \note Most users should not need to change this value.
+
+ElectricLoadCenter:Transformer,
+       \memo a list of meters that can be reported are available after a run on
+       \memo the meter dictionary file (.mdd) if the Output:VariableDictionary has been requested.
+       \extensible:1
+  A1,  \field Name
+       \required-field
+       \reference TransformerNames
+  A2,  \field Availability Schedule Name
+       \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+       \note If this field is blank, the system is always available.
+       \type object-list
+       \object-list ScheduleNames
+  A3,  \field Transformer Usage
+       \type choice
+       \key PowerInFromGrid
+       \key PowerOutToGrid
+       \key LoadCenterPowerConditioning
+       \default PowerInFromGrid
+       \note A transformer can be used to transfer electric energy from utility grid to
+       \note building (PowerInFromGrid)or from building on-site generation to
+       \note the grid (PowerOutToGrid) or within a load center to match generation
+       \note to the facility service main panel (LoadCenterPowerConditioning)
+  A4,  \field Zone Name
+       \type object-list
+       \object-list ZoneNames
+       \note Enter name of zone to receive transformer losses as heat
+       \note if blank then transformer losses are dissipated to outdoors
+  N1,  \field Radiative Fraction
+       \type real
+       \minimum 0
+       \maximum 1.0
+       \default 0
+  N2,  \field Rated Capacity
+       \type real
+       \minimum 0
+       \units VA
+       \note the unit is VA, instead of kVA as usually shown on transformer nameplates.
+  N3,  \field Phase
+       \type choice
+       \key 1
+       \key 3
+       \default 3
+       \note Must be single or three phase transformer.
+       \note NOT used in the current model.
+  A5,  \field Conductor Material
+       \type choice
+       \key Copper
+       \key Aluminum
+       \default Aluminum
+       \note Winding material used by the transformer.
+  N4,  \field Full Load Temperature Rise
+       \type real
+       \units C
+       \minimum 50
+       \maximum 180
+       \default 150
+  N5,  \field Fraction of Eddy Current Losses
+       \type real
+       \minimum 0
+       \maximum 1.0
+       \default 0.1
+  A6,  \field Performance Input Method
+       \type choice
+       \key RatedLosses
+       \key NominalEfficiency
+       \default RatedLosses
+       \note User can define transformer performance by specifying
+       \note load and no load losses at rated conditions or
+       \note nameplate efficiency and maximum efficiency
+  N6,  \field Rated No Load Loss
+       \type real
+       \units W
+       \minimum> 0
+       \note Only required when RatedLosses is the performance input method
+  N7,  \field Rated Load Loss
+       \type real
+       \units W
+       \minimum 0
+       \note Only required when RatedLosses is the performance input method
+  N8,  \field Nameplate Efficiency
+       \type real
+       \minimum> 0
+       \maximum 1.0
+       \default 0.98
+       \note Only required when NominalEfficiency is the performance input method
+  N9,  \field Per Unit Load for Nameplate Efficiency
+       \type real
+       \minimum> 0
+       \maximum 1.0
+       \default 0.35
+       \note Percentage of the rated capacity at which the nameplate efficiency is defined
+       \note Only required when NominalEfficiency is the performance input method
+  N10, \field Reference Temperature for Nameplate Efficiency
+       \type real
+       \units C
+       \minimum 20
+       \maximum 150
+       \default 75
+       \note Conductor operating temperature at which the nameplate efficiency is defined
+       \note Only required when NominalEfficiency is the performance input method
+  N11, \field Per Unit Load for Maximum Efficiency
+       \type real
+       \minimum> 0
+       \maximum 1.0
+       \note Percentage of the rate capacity at which the maximum efficiency is obtained
+       \note Only required when NominalEfficiency is the performance input method
+  A7,  \field Consider Transformer Loss for Utility Cost
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+       \note Only required when the transformer is used for power in from the utility grid
+  A8,  \field Meter 1 Name
+       \begin-extensible
+       \type external-list
+       \external-list autoRDDmeter
+       \note Must be an electric meter (with electricity as the resource type)
+       \note Only required when transformer is used for power in from the utility grid
+  A9,  \field Meter 2 Name
+       \type external-list
+       \external-list autoRDDmeter
+       \note Must be an electric meter (with electricity as the resource type)
+       \note Only required when transformer is used for power in from the utility grid
+  A10, \field Meter 3 Name
+       \type external-list
+       \external-list autoRDDmeter
+       \note Must be an electric meter (with electricity as the resource type)
+       \note Only required when transformer is used for power in from the utility grid
+  A11, \field Meter 4 Name
+       \type external-list
+       \external-list autoRDDmeter
+       \note Must be an electric meter (with electricity as the resource type)
+       \note Only required when transformer is used for power in from the utility grid
+  A12, \field Meter 5 Name
+       \type external-list
+       \external-list autoRDDmeter
+       \note Must be an electric meter (with electricity as the resource type)
+       \note Only required when transformer is used for power in from the utility grid
+  A13, \field Meter 6 Name
+       \type external-list
+       \external-list autoRDDmeter
+       \note Must be an electric meter (with electricity as the resource type)
+       \note Only required when transformer is used for power in from the utility grid
+  A14, \field Meter 7 Name
+       \type external-list
+       \external-list autoRDDmeter
+       \note Must be an electric meter (with electricity as the resource type)
+       \note Only required when transformer is used for power in from the utility grid
+  A15, \field Meter 8 Name
+       \type external-list
+       \external-list autoRDDmeter
+       \note Must be an electric meter (with electricity as the resource type)
+       \note Only required when transformer is used for power in from the utility grid
+  A16, \field Meter 9 Name
+       \type external-list
+       \external-list autoRDDmeter
+       \note Must be an electric meter (with electricity as the resource type)
+       \note Only required when transformer is used for power in from the utility grid
+  A17; \field Meter 10 Name
+       \type external-list
+       \external-list autoRDDmeter
+       \note Must be an electric meter (with electricity as the resource type)
+       \note Only required when transformer is used for power in from the utility grid
+
+
+ElectricLoadCenter:Distribution,
+       \memo Describes a subpanel
+       \memo a list of meters that can be reported are available after a run on
+       \memo the meter dictionary file (.mdd) if the Output:VariableDictionary has been requested.
+  A1 , \field Name
+       \required-field
+  A2 , \field Generator List Name
+       \note Name of an ElectricLoadCenter:Generators object
+       \type object-list
+       \object-list GeneratorLists
+  A3,  \field Generator Operation Scheme Type
+       \note Determines how generators are to be controlled
+       \note Required if Generator List is entered.
+       \type choice
+       \key Baseload
+       \key DemandLimit
+       \key TrackElectrical
+       \key TrackSchedule
+       \key TrackMeter
+       \key FollowThermal
+       \key FollowThermalLimitElectrical
+  N1,  \field Generator Demand Limit Scheme Purchased Electric Demand Limit
+       \type real
+       \units W
+  A4,  \field Generator Track Schedule Name Scheme Schedule Name
+       \note required when Generator Operation Scheme Type=TrackSchedule
+       \note schedule values in Watts
+       \type object-list
+       \object-list ScheduleNames
+  A5,  \field Generator Track Meter Scheme Meter Name
+       \note required when Generator Operation Scheme Type=TrackMeter
+       \type external-list
+       \external-list autoRDDmeter
+  A6,  \field Electrical Buss Type
+       \type choice
+       \key AlternatingCurrent
+       \key AlternatingCurrentWithStorage
+       \key DirectCurrentWithInverter
+       \key DirectCurrentWithInverterDCStorage
+       \key DirectCurrentWithInverterACStorage
+       \default AlternatingCurrent
+  A7,  \field Inverter Name
+       \note required when Electrical Buss Type=DirectCurrentWithInverter, DirectCurrentWithInverterDCStorage,
+       \note or DirectCurrentWithInverterACStorage
+       \type object-list
+       \object-list InverterList
+  A8,  \field Electrical Storage Object Name
+       \note required when Electrical Buss Type=AlternatingCurrentWithStorage, DirectCurrentWithInverterDCStorage,
+       \note or DirectCurrentWithInverterACStorage
+       \type object-list
+       \object-list ElecStorageList
+  A9,  \field Transformer Object Name
+       \note required when power needs to be output from on-site generation or storage to the grid via transformer
+       \type object-list
+       \object-list TransformerNames
+  A10, \field Storage Operation Scheme
+       \note Select method to govern how storage charge and discharge is controlled
+       \type choice
+       \key TrackFacilityElectricDemandStoreExcessOnSite
+       \note TrackFacilityElectricDemandStoreExcessOnSite indicates that storage control will follow the facility power demand
+       \note while accounting for any on-site generation. Only excess on site generation  gets stored (legacy behavior).
+       \default TrackFacilityElectricDemandStoreExcessOnSite
+       \key TrackMeterDemandStoreExcessOnSite
+       \note TrackMeterDemandStoreExcessOnSite indicates that storage discharge control will follow an electric meter named in the field called Storage Control Track Meter Name. This scheme is similiar
+       \note to TrackFacilityElectricDemandStoreExcessOnSite except that instead of the main facility electric meter, the control is based off of a user-selected meter.
+       \key TrackChargeDischargeSchedules
+       \note TrackChargeDischargeSchedules indicates that control will follow the charging and discharging power and schedules defined in the fields called Maximum Storage Charge Grid Supply Power,
+       \note Storage Charge Grid Supply Power Fraction Schedule Name, Design Storage Discharge Grid Export Power, and Storage Discharge Grid Export Fraction Schedule Name.
+       \key FacilityDemandLeveling
+       \note FacilityDemandLeveling indicates that storage control will attempt to control the facility's power demand drawn from the utility service to a prescribed level.
+       \note The target utility demand is entered in the fields called Storage Control Utility Demand Limit and Storage Control Utility Demand Limit Fraction Schedule Name
+       \note This scheme first accounts for any on-site generation and during times of high use will discharge storage to reduce facility grid demand to meet the target level
+       \note and during times of low use will charge storage from the grid to increase facility grid demand to meet the target level.
+  A11, \field Storage Control Track Meter Name
+       \note required when Storage Operation Scheme is set to TrackMeterDemandStoreExcessOnSite.
+       \type external-list
+       \external-list autoRDDmeter
+  A12, \field Storage Converter Object Name
+       \note Name of an ElectricLoadCenter:Storage:Converter used to convert AC to DC when charging DC storage from grid supply.
+       \note A converter is expected when using Storage Operation Schemes FacilityDemandLeveling or TrackChargeDischargeSchedules
+       \note A single bidirectional device will reference both an inverter object (DC to AC) and a converter object (AC to DC).
+       \type object-list
+       \object-list ConverterList
+  N2 , \field Maximum Storage State of Charge Fraction
+       \note Fraction of storage capacity used as upper limit for controlling charging, for all storage operation schemes.
+       \type real
+       \default 1.0
+  N3,  \field Minimum Storage State of Charge Fraction
+       \note Fraction of storage capacity used as lower limit for controlling discharging, for all storage operation schemes.
+       \type real
+       \default 0.0
+  N4 , \field Design Storage Control Charge Power
+       \note Maximum rate that electric power can be charged into storage.
+       \note Storage charging adjusted downward for conversion losses.
+       \note Rate is modified by fractional values in the schedule named in the next field.
+       \note Required field when using Storage Operation Schemes FacilityDemandLeveling or TrackChargeDischargeSchedules.
+       \type real
+       \units W
+  A13, \field Storage Charge Power Fraction Schedule Name
+       \note Controls timing and magnitude of charging storage.
+       \note Required field if Storage Operation Scheme is set to TrackChargeDischargeSchedules.
+       \note Schedule values should be fractions from 0.0 to 1.0, inclusive.
+       \type object-list
+       \object-list ScheduleNames
+  N5 , \field Design Storage Control Discharge Power
+       \note Maximum rate that electric power can be discharged from storage.
+       \note Rate is modified by fractional values in the schedule named in the next field.
+       \note Required field when using Storage Operation Schemes FacilityDemandLeveling or TrackChargeDischargeSchedules.
+       \type real
+       \units W
+  A14, \field Storage Discharge Power Fraction Schedule Name
+       \note Controls timing and magnitude of discharging storage
+       \note Required field if Storage Operation Scheme is set to TrackChargeDischargeSchedules.
+       \note Schedule values should be fractions from 0.0 to 1.0, inclusive.
+       \type object-list
+       \object-list ScheduleNames
+  N6,  \field Storage Control Utility Demand Target
+       \note Target utility service demand power for discharge control. Storage draws are adjusted upwards for conversion losses.
+       \note Required field for FacilityDemandLeveling storage operation scheme
+       \type real
+       \units W
+  A15; \field Storage Control Utility Demand Target Fraction Schedule Name
+       \note Modifies the target utility service demand power over time.
+       \note Schedule values should be fractions from -1.0 to 1.0, inclusive.
+       \note if omitted a schedule value of 1.0 is used. Negative values indicate export to grid
+       \note Schedule is used if Storage Operation Scheme is set to FacilityDemandLeveling.
+       \type object-list
+       \object-list ScheduleNames
+
+
+ElectricLoadCenter:Storage:Converter,
+        \memo This model is for converting AC to DC for grid-supplied charging of DC storage
+        \min-fields 4
+   A1 , \field Name
+        \reference ConverterList
+   A2 , \field Availability Schedule Name
+        \note Availability schedule name for this system. Schedule value > 0 means the system is available.
+        \note If this field is blank, the converter is always available.
+        \type object-list
+        \object-list ScheduleNames
+   A3 , \field Power Conversion Efficiency Method
+        \type choice
+        \key SimpleFixed
+        \default SimpleFixed
+        \note SimpleFixed indicates power conversion losses are based on Simple Fixed Efficiency
+        \key FunctionOfPower
+        \note FunctionOfPower indicates power conversion losses are a function of normalized power using a curve or table.
+   N1 , \field Simple Fixed Efficiency
+        \note Constant efficiency for conversion of AC to DC at all power levels.
+        \note Field is only used when Power Conversion Efficiency Method is set to SimpleFixed.
+        \type real
+        \minimum> 0.0
+        \maximum 1.0
+        \default 0.95
+   N2,  \field Design Maximum Continuous Input Power
+        \note Required field when Power Conversion Efficiency Method is set to FunctionOfPower.
+        \type real
+        \units W
+   A4 , \field Efficiency Function of Power Curve Name
+        \note Curve or table with a single independent variable that describes efficiency as a function of normalized power.
+        \note The "x" input for curve or table is the ratio of current input power divided by design power in the previous field
+        \note Required field when Power Conversion Efficiency Method is set to FunctionOfPower.
+        \type object-list
+        \object-list UnivariateFunctions
+   N3 , \field Ancillary Power Consumed In Standby
+        \note Optional standby power consumed when converter is available but no power is being conditioned.
+        \type real
+        \units W
+   A5 , \field Zone Name
+        \note enter name of zone to receive converter losses as heat
+        \note if blank then converter is assumed to be outdoors
+        \type object-list
+        \object-list ZoneNames
+   N4 ; \field Radiative Fraction
+        \note fraction of zone heat gains treated as thermal radiation
+        \minimum 0.0
+        \maximum 1.0
+
+\group Water Systems
+
+WaterUse:Equipment,
+       \memo A generalized object for simulating all water end uses. Hot and cold water uses are
+       \memo included, as well as controlled mixing of hot and cold water at the tap. The
+       \memo WaterUse:Equipment object can be used stand-alone, or coupled into a plant loop using
+       \memo the WaterUse:Connections object (see below). The WaterUse:Connections object allows
+       \memo water uses to be linked to WaterUse:Storage objects to store and draw reclaimed water.
+       \memo The object can also simulate drainwater heat recovery.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference WaterUseEquipmentNames
+  A2 , \field End-Use Subcategory
+       \note Any text may be used here to categorize the end-uses in the ABUPS End Uses by Subcategory table.
+       \type alpha
+       \retaincase
+       \default General
+  N1 , \field Peak Flow Rate
+       \required-field
+       \units m3/s
+       \ip-units gal/min
+       \type real
+       \minimum 0.0
+  A3 , \field Flow Rate Fraction Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Defaults to 1.0 at all times
+  A4 , \field Target Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Defaults to hot water supply temperature
+  A5 , \field Hot Water Supply Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Defaults to cold water supply temperature
+  A6 , \field Cold Water Supply Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Defaults to water temperatures calculated by Site:WaterMainsTemperature object
+  A7 , \field Zone Name
+       \type object-list
+       \object-list ZoneNames
+  A8 , \field Sensible Fraction Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Defaults to 0.0 at all times
+  A9 ; \field Latent Fraction Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Defaults to 0.0 at all times
+
+WaterUse:Connections,
+       \memo A subsystem that groups together multiple WaterUse:Equipment components.
+       \memo As its name suggests, the object provides connections that are shared by these
+       \memo components, including: 1. Inlet node and outlet node connections to a plant loop
+       \memo 2. Connections to WaterUse:Storage objects to store and draw reclaimed water
+       \memo 3. Internal connections to simulate drainwater heat recovery.
+       \extensible:1 - repeat last field
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference-class-name validBranchEquipmentTypes
+       \reference validBranchEquipmentNames
+  A2 , \field Inlet Node Name
+       \type node
+  A3 , \field Outlet Node Name
+       \type node
+  A4 , \field Supply Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+       \note If blank, or tank is empty, defaults to fresh water from the mains
+  A5 , \field Reclamation Water Storage Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  A6 , \field Hot Water Supply Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Defaults to cold water supply temperature
+  A7 , \field Cold Water Supply Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Defaults to water temperatures calculated by Site:WaterMainsTemperature object
+  A8 , \field Drain Water Heat Exchanger Type
+       \type choice
+       \key None
+       \key Ideal
+       \key CounterFlow
+       \key CrossFlow
+       \default None
+  A9 , \field Drain Water Heat Exchanger Destination
+       \type choice
+       \key Plant
+       \key Equipment
+       \key PlantAndEquipment
+       \default Plant
+  N1 , \field Drain Water Heat Exchanger U-Factor Times Area
+       \type real
+       \units W/K
+       \minimum 0.0
+  A10, \field Water Use Equipment 1 Name
+       \begin-extensible
+       \note Enter the name of a WaterUse:Equipment object.
+       \required-field
+       \type object-list
+       \object-list WaterUseEquipmentNames
+  A11, \field Water Use Equipment 2 Name
+       \note Enter the name of a WaterUse:Equipment object.
+       \type object-list
+       \object-list WaterUseEquipmentNames
+  A12, \field Water Use Equipment 3 Name
+       \note Enter the name of a WaterUse:Equipment object.
+       \type object-list
+       \object-list WaterUseEquipmentNames
+  A13, \field Water Use Equipment 4 Name
+       \note Enter the name of a WaterUse:Equipment object.
+       \type object-list
+       \object-list WaterUseEquipmentNames
+  A14, \field Water Use Equipment 5 Name
+       \note Enter the name of a WaterUse:Equipment object.
+       \type object-list
+       \object-list WaterUseEquipmentNames
+  A15, \field Water Use Equipment 6 Name
+       \type object-list
+       \object-list WaterUseEquipmentNames
+  A16, \field Water Use Equipment 7 Name
+       \type object-list
+       \object-list WaterUseEquipmentNames
+  A17, \field Water Use Equipment 8 Name
+       \type object-list
+       \object-list WaterUseEquipmentNames
+  A18, \field Water Use Equipment 9 Name
+       \type object-list
+       \object-list WaterUseEquipmentNames
+  A19; \field Water Use Equipment 10 Name
+       \type object-list
+       \object-list WaterUseEquipmentNames
+
+WaterUse:Storage,
+       \memo A water storage tank. If the building model is to include any on-site
+       \memo water collection, wells, or storing and reuse of graywater, then a WaterUse:Storage
+       \memo object is needed. Each WaterUse:Storage can serve as a central node and make
+       \memo connections to numerous sources of supply or numerous components with demand. If a
+       \memo maximum capacity is not specified, the tank is assumed to have unlimited capacity.
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference WaterStorageTankNames
+  A2 , \field Water Quality Subcategory
+       \type alpha
+  N1 , \field Maximum Capacity
+       \type real
+       \units m3
+       \ip-units gal
+       \note Defaults to unlimited capacity.
+  N2 , \field Initial Volume
+       \type real
+       \units m3
+       \ip-units gal
+  N3 , \field Design In Flow Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \note Defaults to unlimited flow.
+  N4 , \field Design Out Flow Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \note Defaults to unlimited flow.
+  A3 , \field Overflow Destination
+       \type object-list
+       \object-list WaterStorageTankNames
+       \note If blank, overflow is discarded
+  A4 , \field Type of Supply Controlled by Float Valve
+       \type choice
+       \key None
+       \key Mains
+       \key GroundwaterWell
+       \key OtherTank
+  N5 , \field Float Valve On Capacity
+       \type real
+       \units m3
+       \ip-units gal
+       \note Lower range of target storage level e.g. float valve kicks on
+  N6 , \field Float Valve Off Capacity
+       \type real
+       \units m3
+       \ip-units gal
+       \note Upper range of target storage level e.g. float valve kicks off
+  N7 , \field Backup Mains Capacity
+       \type real
+       \units m3
+       \ip-units gal
+       \note Lower range of secondary target storage level
+       \note used to keep tanks at a minimum level using
+       \note mains water if well can't keep up
+  A5,  \field Other Tank Name
+       \type object-list
+       \object-list WaterStorageTankNames
+  A6 , \field Water Thermal Mode
+       \type choice
+       \key ScheduledTemperature
+       \key ThermalModel
+  A7 , \field Water Temperature Schedule Name
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+  A8 , \field Ambient Temperature Indicator
+       \type choice
+       \key Schedule
+       \key Zone
+       \key Outdoors
+  A9 , \field Ambient Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  A10, \field Zone Name
+       \type object-list
+       \object-list ZoneNames
+  N8 , \field Tank Surface Area
+       \type real
+       \units m2
+  N9 , \field Tank U Value
+       \type real
+       \units W/m2-K
+  A11; \field Tank Outside Surface Material Name
+       \type object-list
+       \object-list MaterialName
+
+WaterUse:Well,
+       \memo Simulates on-site water supply from a well. Well water is pumped out of the ground
+       \memo into a WaterUse:Storage. The operation of the ground water well is controlled by the
+       \memo associated WaterUse:Storage which is assumed to be operated as a vented cistern with
+       \memo no pressure tank.
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Storage Tank Name
+       \required-field
+       \type object-list
+       \object-list WaterStorageTankNames
+  N1 , \field Pump Depth
+       \type real
+       \units m
+  N2 , \field Pump Rated Flow Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+  N3 , \field Pump Rated Head
+       \type real
+       \units Pa
+  N4 , \field Pump Rated Power Consumption
+       \type real
+       \units W
+  N5 , \field Pump Efficiency
+       \type real
+  N6 , \field Well Recovery Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+  N7 , \field Nominal Well Storage Volume
+       \type real
+       \units m3
+       \ip-units gal
+  A3 , \field Water Table Depth Mode
+       \type choice
+       \key Constant
+       \key Scheduled
+  N8 , \field Water Table Depth
+       \type real
+       \units m
+  A4 ; \field Water Table Depth Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+
+WaterUse:RainCollector,
+       \memo Used for harvesting rainwater falling on building surfaces. The rainwater is sent to a
+       \memo WaterUse:Storage object. In order to use this object it is necessary to also include
+       \memo a Site:Precipitation object to describe the rates of rainfall.
+       \extensible:1 - repeat last field
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Storage Tank Name
+       \required-field
+       \type object-list
+       \object-list WaterStorageTankNames
+  A3,  \field Loss Factor Mode
+       \type choice
+       \key Constant
+       \key Scheduled
+  N1 , \field Collection Loss Factor
+       \type real
+       \note this is the portion of rain
+       \note that is lost in the process of collecting it
+       \note the rain collected is one minus this factor
+  A4 , \field Collection Loss Factor Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+  N2 , \field Maximum Collection Rate
+       \type real
+       \units m3/s
+       \ip-units gal/min
+       \note Defaults to unlimited flow.
+  A5 , \field Collection Surface 1 Name
+       \begin-extensible
+       \required-field
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A6 , \field Collection Surface 2 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A7 , \field Collection Surface 3 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A8 , \field Collection Surface 4 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A9 , \field Collection Surface 5 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A10, \field Collection Surface 6 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A11, \field Collection Surface 7 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A12, \field Collection Surface 8 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A13, \field Collection Surface 9 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+  A14; \field Collection Surface 10 Name
+       \type object-list
+       \object-list AllShadingAndHTSurfNames
+
+\group Operational Faults
+!*****************Faults****************************
+! This group of objects are used to model operational faults of HVAC systems.
+!
+FaultModel:TemperatureSensorOffset:OutdoorAir,
+   \memo This object describes outdoor air temperature sensor offset
+   \min-fields 6
+   A1, \field Name
+       \note Enter the name of the fault
+       \required-field
+       \type alpha
+   A2, \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A3, \field Severity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A4, \field Controller Object Type
+       \required-field
+       \type choice
+       \key Controller:OutdoorAir
+   A5, \field Controller Object Name
+       \required-field
+       \type object-list
+       \object-list OAControllerNames
+   N1; \field Temperature Sensor Offset
+       \type real
+       \minimum> -10
+       \maximum< 10
+       \default 0.0
+       \units deltaC
+
+FaultModel:HumiditySensorOffset:OutdoorAir,
+   \memo This object describes outdoor air humidity sensor offset
+   \min-fields 6
+   A1, \field Name
+       \note Enter the name of the fault
+       \required-field
+       \type alpha
+   A2, \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A3, \field Severity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A4, \field Controller Object Type
+       \required-field
+       \type choice
+       \key Controller:OutdoorAir
+   A5, \field Controller Object Name
+       \required-field
+       \type object-list
+       \object-list OAControllerNames
+   N1; \field Humidity Sensor Offset
+       \type real
+       \minimum> -0.02
+       \maximum< 0.02
+       \default 0.0
+       \units kgWater/kgDryAir
+
+FaultModel:EnthalpySensorOffset:OutdoorAir,
+   \memo This object describes outdoor air enthalpy sensor offset
+   \min-fields 6
+   A1, \field Name
+       \note Enter the name of the fault
+       \required-field
+       \type alpha
+   A2, \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A3, \field Severity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A4, \field Controller Object Type
+       \required-field
+       \type choice
+       \key Controller:OutdoorAir
+   A5, \field Controller Object Name
+       \required-field
+       \type object-list
+       \object-list OAControllerNames
+   N1; \field Enthalpy Sensor Offset
+       \type real
+       \minimum> -20000
+       \maximum< 20000
+       \default 0.0
+       \units J/kg
+
+FaultModel:TemperatureSensorOffset:ReturnAir,
+   \memo This object describes return air temperature sensor offset
+   \min-fields 6
+   A1, \field Name
+       \note Enter the name of the fault
+       \required-field
+       \type alpha
+   A2, \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A3, \field Severity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A4, \field Controller Object Type
+       \required-field
+       \type choice
+       \key Controller:OutdoorAir
+   A5, \field Controller Object Name
+       \required-field
+       \type object-list
+       \object-list OAControllerNames
+   N1; \field Temperature Sensor Offset
+       \type real
+       \minimum> -10
+       \maximum< 10
+       \default 0.0
+       \units deltaC
+
+FaultModel:EnthalpySensorOffset:ReturnAir,
+   \memo This object describes return air enthalpy sensor offset
+   \min-fields 6
+   A1, \field Name
+       \note Enter the name of the fault
+       \required-field
+       \type alpha
+   A2, \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A3, \field Severity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A4, \field Controller Object Type
+       \required-field
+       \type choice
+       \key Controller:OutdoorAir
+   A5, \field Controller Object Name
+       \required-field
+       \type object-list
+       \object-list OAControllerNames
+   N1; \field Enthalpy Sensor Offset
+       \type real
+       \minimum> -20000
+       \maximum< 20000
+       \default 0.0
+       \units J/kg
+
+FaultModel:TemperatureSensorOffset:ChillerSupplyWater,
+   \memo This object describes fault of chiller supply water temperature sensor offset
+   \min-fields 6
+   A1, \field Name
+       \note Enter the name of the fault
+       \required-field
+       \type alpha
+   A2, \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A3, \field Severity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A4, \field Chiller Object Type
+       \note Enter the type of a chiller object
+       \required-field
+       \type choice
+       \key Chiller:Electric
+       \key Chiller:Electric:EIR
+       \key Chiller:Electric:ReformulatedEIR
+       \key Chiller:ConstantCOP
+       \key Chiller:EngineDriven
+       \key Chiller:CombustionTurbine
+       \key Chiller:Absorption
+       \key Chiller:Absorption:Indirect
+   A5, \field Chiller Object Name
+       \note Enter the name of a chiller object
+       \required-field
+       \type object-list
+       \object-list Chillers
+   N1; \field Reference Sensor Offset
+       \type real
+       \minimum> -10
+       \maximum< 10
+       \default 0.0
+       \units deltaC
+
+FaultModel:TemperatureSensorOffset:CoilSupplyAir,
+   \memo This object describes fault of coil supply air temperature sensor offset
+   \min-fields 6
+   A1, \field Name
+       \note Enter the name of the fault
+       \required-field
+       \type alpha
+   A2, \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A3, \field Severity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A4, \field Coil Object Type
+       \note Enter the type of the coil affected
+       \required-field
+       \type choice
+       \key AirLoopHVAC:UnitarySystem
+       \key Coil:Heating:Electric
+       \key Coil:Heating:Gas
+       \key Coil:Heating:Desuperheater
+       \key Coil:Heating:Steam
+       \key Coil:Heating:Water
+       \key Coil:Cooling:Water
+       \key Coil:Cooling:Water:Detailedgeometry
+       \key CoilSystem:Cooling:DX
+       \key CoilSystem:Heating:DX
+   A5, \field Coil Object Name
+       \note Enter the name of the coil affected
+       \required-field
+       \type object-list
+       \object-list CoolingCoilName
+       \object-list CoolingCoilSystemName
+       \object-list DOAToZonalUnit
+       \object-list HeatingCoilName
+       \object-list HeatingCoilSystemName
+       \object-list HeatingCoilsElectricMultiStage
+       \object-list HeatingCoilsGasMultiStage
+       \object-list HeatingCoilsDesuperheater
+   A6, \field Water Coil Controller Name
+       \note Enter the name of controller for the water coil affected
+       \note Required for water coils
+       \type object-list
+       \object-list WaterCoilControllers
+   N1; \field Reference Sensor Offset
+       \type real
+       \minimum> -10
+       \maximum< 10
+       \default 0.0
+       \units deltaC
+
+FaultModel:TemperatureSensorOffset:CondenserSupplyWater,
+   \memo This object describes fault of condenser supply water temperature sensor offset
+   \min-fields 6
+   A1, \field Name
+       \note Enter the name of the fault
+       \required-field
+       \type alpha
+   A2, \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A3, \field Severity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A4, \field Cooling Tower Object Type
+       \note Enter the type of the cooling tower affected
+       \required-field
+       \type choice
+       \key CoolingTower:SingleSpeed
+       \key CoolingTower:TwoSpeed
+       \key CoolingTower:VariableSpeed
+       \key CoolingTower:VariableSpeed:MERKEL
+   A5, \field Cooling Tower Object Name
+       \note Enter the name of the cooling tower affected
+       \required-field
+       \type object-list
+       \object-list CoolingTowers
+   N1; \field Reference Sensor Offset
+       \type real
+       \minimum> -10
+       \maximum< 10
+       \default 0.0
+       \units deltaC
+
+FaultModel:ThermostatOffset,
+   \memo This object describes fault of thermostat offset
+   \min-fields 5
+   A1, \field Name
+       \note Enter the name of the fault
+       \required-field
+       \type alpha
+       \reference ThermostatOffsetFaults
+   A2, \field Thermostat Name
+       \note Enter the name of a ZoneControl:Thermostat object.
+       \required-field
+       \type object-list
+       \object-list ZoneControlThermostaticNames
+   A3, \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A4, \field Severity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   N1; \field Reference Thermostat Offset
+       \type real
+       \minimum> -10
+       \maximum< 10
+       \default 2
+       \units deltaC
+
+FaultModel:HumidistatOffset,
+   \memo This object describes fault of humidistat offset
+   \min-fields 6
+   A1, \field Name
+       \note Enter the name of the fault
+       \required-field
+       \type alpha
+   A2, \field Humidistat Name
+       \note Enter the name of a ZoneControl:Humidistat object.
+       \required-field
+       \type object-list
+       \object-list ZoneControlHumidistatNames
+   A3, \field Humidistat Offset Type
+       \note Two types are available:
+       \note Type ThermostatOffsetIndependent
+       \note Type ThermostatOffsetDependent
+       \type choice
+       \key ThermostatOffsetIndependent
+       \key ThermostatOffsetDependent
+       \default ThermostatOffsetIndependent
+   A4, \field Availability Schedule Name
+       \note This field is applicable for Type ThermostatOffsetIndependent
+       \type object-list
+       \object-list ScheduleNames
+   A5, \field Severity Schedule Name
+       \note This field is applicable for Type ThermostatOffsetIndependent
+       \type object-list
+       \object-list ScheduleNames
+   N1, \field Reference Humidistat Offset
+       \note Required field for Type ThermostatOffsetIndependent
+       \type real
+       \minimum> -20
+       \maximum< 20
+       \default 5
+       \units percent
+   A6; \field Related Thermostat Offset Fault Name
+       \note Enter the name of a FaultModel:ThermostatOffset object
+       \note Required field for Type ThermostatOffsetDependent
+       \type object-list
+       \object-list ThermostatOffsetFaults
+
+FaultModel:Fouling:AirFilter,
+   \memo This object describes fault of dirty air filters
+   \min-fields 6
+   A1, \field Name
+       \note Enter the name of the fault
+       \required-field
+       \type alpha
+   A2, \field Fan Object Type
+       \note Choose the type of the fan
+       \required-field
+       \type choice
+       \key Fan:OnOff
+       \key Fan:ConstantVolume
+       \key Fan:VariableVolume
+       \note Support for Fan:SystemModel is pending
+   A3, \field Fan Name
+       \note Enter the name of a fan object
+       \required-field
+       \type object-list
+       \object-list FansCVandOnOffandVAV
+       \object-list FansSystemModel
+   A4, \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A5, \field Pressure Fraction Schedule Name
+       \note Enter the name of a schedule
+       \note describing the variations of the fan pressure rise
+       \note in terms of multipliers to the fan design pressure rise
+       \required-field
+       \type object-list
+       \object-list ScheduleNames
+   A6; \field Fan Curve Name
+       \note The curve describes the relationship between
+       \note the fan pressure rise and air flow rate
+       \required-field
+       \type object-list
+       \object-list UnivariateFunctions
+
+FaultModel:Fouling:Boiler,
+   \memo This object describes the fouling fault of boilers with water-based heat exchangers
+   \min-fields 6
+   A1, \field Name
+       \note Enter the name of the fault
+       \required-field
+       \type alpha
+   A2, \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A3, \field Severity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A4, \field Boiler Object Type
+       \note Enter the type of a boiler object
+       \note The fault applies to the hot-water boilers
+       \required-field
+       \type choice
+       \key Boiler:HotWater
+   A5, \field Boiler Object Name
+       \note Enter the name of a Boiler object
+       \required-field
+       \type object-list
+       \object-list Boilers
+   N1; \field Fouling Factor
+       \note The factor indicates the decrease of the nominal capacity of the boiler
+       \note It is the ratio between the nominal capacity at fouling case and that at fault free case
+       \type real
+       \minimum> 0
+       \maximum 1
+       \default 1
+       \units dimensionless
+
+FaultModel:Fouling:EvaporativeCooler,
+   \memo This object describes the fouling fault of the wetted coil evaporative cooler
+   \min-fields 6
+   A1, \field Name
+       \note Enter the name of the fault
+       \required-field
+       \type alpha
+   A2, \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A3, \field Severity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A4, \field Evaporative Cooler Object Type
+       \note Enter the type of a Evaporative Cooler object
+       \note The fault applies to the wetted coil evaporative cooler
+       \note The fault does not apply to direct evaporative coolers or the dry coil indirect evaporative coolers
+       \required-field
+       \type choice
+       \key EvaporativeCooler:Indirect:WetCoil
+   A5, \field Evaporative Cooler Object Name
+       \note Enter the name of aN Evaporative Cooler object
+       \required-field
+       \type object-list
+       \object-list Chillers
+   N1; \field Fouling Factor
+       \note The factor indicates the decrease of the indirect stage efficiency
+       \note It is the ratio between the indirect stage efficiency at fouling case and that at fault free case
+       \type real
+       \minimum> 0
+       \maximum 1
+       \default 1
+       \units dimensionless
+
+FaultModel:Fouling:Chiller,
+   \memo This object describes the fouling fault of chillers with water-cooled condensers
+   \min-fields 6
+   A1, \field Name
+       \note Enter the name of the fault
+       \required-field
+       \type alpha
+   A2, \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A3, \field Severity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A4, \field Chiller Object Type
+       \note Enter the type of a chiller object
+       \note The fault applies to the chillers with water-cooled condensers
+       \required-field
+       \type choice
+       \key Chiller:Electric
+       \key Chiller:Electric:EIR
+       \key Chiller:Electric:ReformulatedEIR
+       \key Chiller:ConstantCOP
+       \key Chiller:EngineDriven
+       \key Chiller:CombustionTurbine
+   A5, \field Chiller Object Name
+       \note Enter the name of a chiller object
+       \required-field
+       \type object-list
+       \object-list Chillers
+   N1; \field Fouling Factor
+       \note The factor indicates the decrease of the nominal capacity of the chiller
+       \note It is the ratio between the nominal capacity at fouling case and that at fault free case
+       \type real
+       \minimum> 0
+       \maximum 1
+       \default 1
+       \units dimensionless
+
+FaultModel:Fouling:CoolingTower,
+   \memo This object describes the fault of fouling cooling towers
+   \min-fields 6
+   A1, \field Name
+       \note Enter the name of the fault
+       \required-field
+       \type alpha
+   A2, \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A3, \field Severity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A4, \field Cooling Tower Object Type
+       \note Enter the type of the cooling tower affected
+       \required-field
+       \type choice
+       \key CoolingTower:SingleSpeed
+       \key CoolingTower:TwoSpeed
+       \key CoolingTower:VariableSpeed:MERKEL
+   A5, \field Cooling Tower Object Name
+       \note Enter the name of the cooling tower affected
+       \required-field
+       \type object-list
+       \object-list CoolingTowersWithUA
+   N1; \field Reference UA Reduction Factor
+       \note Factor describing the tower UA reduction due to fouling
+       \note It is the ratio between the UA value at fouling case and that at fault free case
+       \note It is applicable to both the Design UA and Free Convection UA of the tower
+       \units dimensionless
+       \type real
+       \minimum> 0.0
+
+FaultModel:Fouling:Coil,
+   \memo This object describes fouling water heating or cooling coils
+   \min-fields 6
+   A1, \field Name
+       \required-field
+       \type alpha
+   A2, \field Coil Name
+       \required-field
+       \type object-list
+       \object-list SimpleCoils
+   A3, \field Availability Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A4, \field Severity Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+   A5, \field Fouling Input Method
+       \type choice
+       \key FouledUARated
+       \key FoulingFactor
+       \default FouledUARated
+   N1, \field UAFouled
+       \note Fouling coil UA value under rating conditions
+       \note For Fouling Input Method: FouledUARated
+       \units W/K
+       \type real
+       \minimum> 0.0
+   N2, \field Water Side Fouling Factor
+       \note For Fouling Input Method: FoulingFactor
+       \units m2-K/W
+       \type real
+       \minimum 0.0
+       \default 0.0
+   N3, \field Air Side Fouling Factor
+       \note For Fouling Input Method: FoulingFactor
+       \units m2-K/W
+       \type real
+       \minimum 0.0
+       \default 0.0
+   N4, \field Outside Coil Surface Area
+       \note For Fouling Input Method: FoulingFactor
+       \units m2
+       \type real
+       \minimum> 0.0
+   N5; \field Inside to Outside Coil Surface Area Ratio
+       \note For Fouling Input Method: FoulingFactor
+       \units dimensionless
+       \type real
+       \minimum> 0.0
+       \default 0.07
+
+\group General Data Entry
+
+Matrix:TwoDimension,
+       \extensible:1
+       \memo matrix data in row-major order
+       \memo list each row keeping the columns in order
+       \memo number of values must equal N1 x N2
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference DataMatrices
+  N1 , \field Number of Rows
+       \required-field
+       \type integer
+  N2 , \field Number of Columns
+       \required-field
+       \type integer
+  N3 , \field Value 1
+       \begin-extensible
+       \type real
+  N4 , \field Value 2
+       \type real
+  N5 , \field Value 3
+       \type real
+  N6 , \field Value 4
+       \type real
+  N7,N8,N9,N10,N11,N12,N13,N14,N15,N16,N17,N18,N19,N20,  \note fields as indicated
+  N21,N22,N23,N24,N25,N26,N27,N28,N29,N30,N31,N32,N33,N34,N35,N36,N37,N38,N39,N40,  \note fields as indicated
+  N41,N42,N43,N44,N45,N46,N47,N48,N49,N50,N51,N52,N53,N54,N55,N56,N57,N58,N59,N60,  \note fields as indicated
+  N61,N62,N63,N64,N65,N66,N67,N68,N69,N70,N71,N72,N73,N74,N75,N76,N77,N78,N79,N80,  \note fields as indicated
+  N81,N82,N83,N84,N85,N86,N87,N88,N89,N90,N91,N92,N93,N94,N95,N96,N97,N98,N99,N100,  \note fields as indicated
+  N101,N102,N103,N104,N105,N106,N107,N108,N109,N110,N111,N112,N113,N114,N115,N116,N117,N118,N119,N120,  \note fields as indicated
+  N121,N122,N123,N124,N125,N126,N127,N128,N129,N130,N131,N132,N133,N134,N135,N136,N137,N138,N139,N140,  \note fields as indicated
+  N141,N142,N143,N144,N145,N146,N147,N148,N149,N150,N151,N152,N153,N154,N155,N156,N157,N158,N159,N160,  \note fields as indicated
+  N161,N162,N163,N164,N165,N166,N167,N168,N169,N170,N171,N172,N173,N174,N175,N176,N177,N178,N179,N180,  \note fields as indicated
+  N181,N182,N183,N184,N185,N186,N187,N188,N189,N190,N191,N192,N193,N194,N195,N196,N197,N198,N199,N200,  \note fields as indicated
+  N201,N202,N203,N204,N205,N206,N207,N208,N209,N210,N211,N212,N213,N214,N215,N216,N217,N218,N219,N220,  \note fields as indicated
+  N221,N222,N223,N224,N225,N226,N227,N228,N229,N230,N231,N232,N233,N234,N235,N236,N237,N238,N239,N240,  \note fields as indicated
+  N241,N242,N243,N244,N245,N246,N247,N248,N249,N250,N251,N252,N253,N254,N255,N256,N257,N258,N259,N260,  \note fields as indicated
+  N261,N262,N263,N264,N265,N266,N267,N268,N269,N270,N271,N272,N273,N274,N275,N276,N277,N278,N279,N280,  \note fields as indicated
+  N281,N282,N283,N284,N285,N286,N287,N288,N289,N290,N291,N292,N293,N294,N295,N296,N297,N298,N299,N300,  \note fields as indicated
+  N301,N302,N303,N304,N305,N306,N307,N308,N309,N310,N311,N312,N313,N314,N315,N316,N317,N318,N319,N320,  \note fields as indicated
+  N321,N322,N323,N324,N325,N326,N327,N328,N329,N330,N331,N332,N333,N334,N335,N336,N337,N338,N339,N340,  \note fields as indicated
+  N341,N342,N343,N344,N345,N346,N347,N348,N349,N350,N351,N352,N353,N354,N355,N356,N357,N358,N359,N360,  \note fields as indicated
+  N361,N362,N363,N364,N365,N366,N367,N368,N369,N370,N371,N372,N373,N374,N375,N376,N377,N378,N379,N380,  \note fields as indicated
+  N381,N382,N383,N384,N385,N386,N387,N388,N389,N390,N391,N392,N393,N394,N395,N396,N397,N398,N399,N400,  \note fields as indicated
+  N401,N402,N403,N404,N405,N406,N407,N408,N409,N410,N411,N412,N413,N414,N415,N416,N417,N418,N419,N420,  \note fields as indicated
+  N421,N422,N423,N424,N425,N426,N427,N428,N429,N430,N431,N432,N433,N434,N435,N436,N437,N438,N439,N440,  \note fields as indicated
+  N441,N442,N443,N444,N445,N446,N447,N448,N449,N450,N451,N452,N453,N454,N455,N456,N457,N458,N459,N460,  \note fields as indicated
+  N461,N462,N463,N464,N465,N466,N467,N468,N469,N470,N471,N472,N473,N474,N475,N476,N477,N478,N479,N480,  \note fields as indicated
+  N481,N482,N483,N484,N485,N486,N487,N488,N489,N490,N491,N492,N493,N494,N495,N496,N497,N498,N499,N500,  \note fields as indicated
+  N501,N502,N503,N504,N505,N506,N507,N508,N509,N510,N511,N512,N513,N514,N515,N516,N517,N518,N519,N520,  \note fields as indicated
+  N521,N522,N523,N524,N525,N526,N527,N528,N529,N530,N531,N532,N533,N534,N535,N536,N537,N538,N539,N540,  \note fields as indicated
+  N541,N542,N543,N544,N545,N546,N547,N548,N549,N550,N551,N552,N553,N554,N555,N556,N557,N558,N559,N560,  \note fields as indicated
+  N561,N562,N563,N564,N565,N566,N567,N568,N569,N570,N571,N572,N573,N574,N575,N576,N577,N578,N579,N580,  \note fields as indicated
+  N581,N582,N583,N584,N585,N586,N587,N588,N589,N590,N591,N592,N593,N594,N595,N596,N597,N598,N599,N600,  \note fields as indicated
+  N601,N602,N603,N604,N605,N606,N607,N608,N609,N610,N611,N612,N613,N614,N615,N616,N617,N618,N619,N620,  \note fields as indicated
+  N621,N622,N623,N624,N625,N626,N627,N628,N629,N630,N631,N632,N633,N634,N635,N636,N637,N638,N639,N640,  \note fields as indicated
+  N641,N642,N643,N644,N645,N646,N647,N648,N649,N650,N651,N652,N653,N654,N655,N656,N657,N658,N659,N660,  \note fields as indicated
+  N661,N662,N663,N664,N665,N666,N667,N668,N669,N670,N671,N672,N673,N674,N675,N676,N677,N678,N679,N680,  \note fields as indicated
+  N681,N682,N683,N684,N685,N686,N687,N688,N689,N690,N691,N692,N693,N694,N695,N696,N697,N698,N699,N700,  \note fields as indicated
+  N701,N702,N703,N704,N705,N706,N707,N708,N709,N710,N711,N712,N713,N714,N715,N716,N717,N718,N719,N720,  \note fields as indicated
+  N721,N722,N723,N724,N725,N726,N727,N728,N729,N730,N731,N732,N733,N734,N735,N736,N737,N738,N739,N740,  \note fields as indicated
+  N741,N742,N743,N744,N745,N746,N747,N748,N749,N750,N751,N752,N753,N754,N755,N756,N757,N758,N759,N760,  \note fields as indicated
+  N761,N762,N763,N764,N765,N766,N767,N768,N769,N770,N771,N772,N773,N774,N775,N776,N777,N778,N779,N780,  \note fields as indicated
+  N781,N782,N783,N784,N785,N786,N787,N788,N789,N790,N791,N792,N793,N794,N795,N796,N797,N798,N799,N800,  \note fields as indicated
+  N801,N802,N803,N804,N805,N806,N807,N808,N809,N810,N811,N812,N813,N814,N815,N816,N817,N818,N819,N820,  \note fields as indicated
+  N821,N822,N823,N824,N825,N826,N827,N828,N829,N830,N831,N832,N833,N834,N835,N836,N837,N838,N839,N840,  \note fields as indicated
+  N841,N842,N843,N844,N845,N846,N847,N848,N849,N850,N851,N852,N853,N854,N855,N856,N857,N858,N859,N860,  \note fields as indicated
+  N861,N862,N863,N864,N865,N866,N867,N868,N869,N870,N871,N872,N873,N874,N875,N876,N877,N878,N879,N880,  \note fields as indicated
+  N881,N882,N883,N884,N885,N886,N887,N888,N889,N890,N891,N892,N893,N894,N895,N896,N897,N898,N899,N900,  \note fields as indicated
+  N901,N902,N903,N904,N905,N906,N907,N908,N909,N910,N911,N912,N913,N914,N915,N916,N917,N918,N919,N920,  \note fields as indicated
+  N921,N922,N923,N924,N925,N926,N927,N928,N929,N930,N931,N932,N933,N934,N935,N936,N937,N938,N939,N940,  \note fields as indicated
+  N941,N942,N943,N944,N945,N946,N947,N948,N949,N950,N951,N952,N953,N954,N955,N956,N957,N958,N959,N960,  \note fields as indicated
+  N961,N962,N963,N964,N965,N966,N967,N968,N969,N970,N971,N972,N973,N974,N975,N976,N977,N978,N979,N980,  \note fields as indicated
+  N981,N982,N983,N984,N985,N986,N987,N988,N989,N990,N991,N992,N993,N994,N995,N996,N997,N998,N999,N1000,  \note fields as indicated
+  N1001,N1002,N1003,N1004,N1005,N1006,N1007,N1008,N1009,N1010,N1011,N1012,N1013,N1014,N1015,N1016,N1017,N1018,N1019,N1020,  \note fields as indicated
+  N1021,N1022,N1023,N1024,N1025,N1026,N1027,N1028,N1029,N1030,N1031,N1032,N1033,N1034,N1035,N1036,N1037,N1038,N1039,N1040,  \note fields as indicated
+  N1041,N1042,N1043,N1044,N1045,N1046,N1047,N1048,N1049,N1050,N1051,N1052,N1053,N1054,N1055,N1056,N1057,N1058,N1059,N1060,  \note fields as indicated
+  N1061,N1062,N1063,N1064,N1065,N1066,N1067,N1068,N1069,N1070,N1071,N1072,N1073,N1074,N1075,N1076,N1077,N1078,N1079,N1080,  \note fields as indicated
+  N1081,N1082,N1083,N1084,N1085,N1086,N1087,N1088,N1089,N1090,N1091,N1092,N1093,N1094,N1095,N1096,N1097,N1098,N1099,N1100,  \note fields as indicated
+  N1101,N1102,N1103,N1104,N1105,N1106,N1107,N1108,N1109,N1110,N1111,N1112,N1113,N1114,N1115,N1116,N1117,N1118,N1119,N1120,  \note fields as indicated
+  N1121,N1122,N1123,N1124,N1125,N1126,N1127,N1128,N1129,N1130,N1131,N1132,N1133,N1134,N1135,N1136,N1137,N1138,N1139,N1140,  \note fields as indicated
+  N1141,N1142,N1143,N1144,N1145,N1146,N1147,N1148,N1149,N1150,N1151,N1152,N1153,N1154,N1155,N1156,N1157,N1158,N1159,N1160,  \note fields as indicated
+  N1161,N1162,N1163,N1164,N1165,N1166,N1167,N1168,N1169,N1170,N1171,N1172,N1173,N1174,N1175,N1176,N1177,N1178,N1179,N1180,  \note fields as indicated
+  N1181,N1182,N1183,N1184,N1185,N1186,N1187,N1188,N1189,N1190,N1191,N1192,N1193,N1194,N1195,N1196,N1197,N1198,N1199,N1200,  \note fields as indicated
+  N1201,N1202,N1203,N1204,N1205,N1206,N1207,N1208,N1209,N1210,N1211,N1212,N1213,N1214,N1215,N1216,N1217,N1218,N1219,N1220,  \note fields as indicated
+  N1221,N1222,N1223,N1224,N1225,N1226,N1227,N1228,N1229,N1230,N1231,N1232,N1233,N1234,N1235,N1236,N1237,N1238,N1239,N1240,  \note fields as indicated
+  N1241,N1242,N1243,N1244,N1245,N1246,N1247,N1248,N1249,N1250,N1251,N1252,N1253,N1254,N1255,N1256,N1257,N1258,N1259,N1260,  \note fields as indicated
+  N1261,N1262,N1263,N1264,N1265,N1266,N1267,N1268,N1269,N1270,N1271,N1272,N1273,N1274,N1275,N1276,N1277,N1278,N1279,N1280,  \note fields as indicated
+  N1281,N1282,N1283,N1284,N1285,N1286,N1287,N1288,N1289,N1290,N1291,N1292,N1293,N1294,N1295,N1296,N1297,N1298,N1299,N1300,  \note fields as indicated
+  N1301,N1302,N1303,N1304,N1305,N1306,N1307,N1308,N1309,N1310,N1311,N1312,N1313,N1314,N1315,N1316,N1317,N1318,N1319,N1320,  \note fields as indicated
+  N1321,N1322,N1323,N1324,N1325,N1326,N1327,N1328,N1329,N1330,N1331,N1332,N1333,N1334,N1335,N1336,N1337,N1338,N1339,N1340,  \note fields as indicated
+  N1341,N1342,N1343,N1344,N1345,N1346,N1347,N1348,N1349,N1350,N1351,N1352,N1353,N1354,N1355,N1356,N1357,N1358,N1359,N1360,  \note fields as indicated
+  N1361,N1362,N1363,N1364,N1365,N1366,N1367,N1368,N1369,N1370,N1371,N1372,N1373,N1374,N1375,N1376,N1377,N1378,N1379,N1380,  \note fields as indicated
+  N1381,N1382,N1383,N1384,N1385,N1386,N1387,N1388,N1389,N1390,N1391,N1392,N1393,N1394,N1395,N1396,N1397,N1398,N1399,N1400,  \note fields as indicated
+  N1401,N1402,N1403,N1404,N1405,N1406,N1407,N1408,N1409,N1410,N1411,N1412,N1413,N1414,N1415,N1416,N1417,N1418,N1419,N1420,  \note fields as indicated
+  N1421,N1422,N1423,N1424,N1425,N1426,N1427,N1428,N1429,N1430,N1431,N1432,N1433,N1434,N1435,N1436,N1437,N1438,N1439,N1440,  \note fields as indicated
+  N1441,N1442,N1443,N1444,N1445,N1446,N1447,N1448,N1449,N1450,N1451,N1452,N1453,N1454,N1455,N1456,N1457,N1458,N1459,N1460,  \note fields as indicated
+  N1461,N1462,N1463,N1464,N1465,N1466,N1467,N1468,N1469,N1470,N1471,N1472,N1473,N1474,N1475,N1476,N1477,N1478,N1479,N1480,  \note fields as indicated
+  N1481,N1482,N1483,N1484,N1485,N1486,N1487,N1488,N1489,N1490,N1491,N1492,N1493,N1494,N1495,N1496,N1497,N1498,N1499,N1500,  \note fields as indicated
+  N1501,N1502,N1503,N1504,N1505,N1506,N1507,N1508,N1509,N1510,N1511,N1512,N1513,N1514,N1515,N1516,N1517,N1518,N1519,N1520,  \note fields as indicated
+  N1521,N1522,N1523,N1524,N1525,N1526,N1527,N1528,N1529,N1530,N1531,N1532,N1533,N1534,N1535,N1536,N1537,N1538,N1539,N1540,  \note fields as indicated
+  N1541,N1542,N1543,N1544,N1545,N1546,N1547,N1548,N1549,N1550,N1551,N1552,N1553,N1554,N1555,N1556,N1557,N1558,N1559,N1560,  \note fields as indicated
+  N1561,N1562,N1563,N1564,N1565,N1566,N1567,N1568,N1569,N1570,N1571,N1572,N1573,N1574,N1575,N1576,N1577,N1578,N1579,N1580,  \note fields as indicated
+  N1581,N1582,N1583,N1584,N1585,N1586,N1587,N1588,N1589,N1590,N1591,N1592,N1593,N1594,N1595,N1596,N1597,N1598,N1599,N1600,  \note fields as indicated
+  N1601,N1602,N1603,N1604,N1605,N1606,N1607,N1608,N1609,N1610,N1611,N1612,N1613,N1614,N1615,N1616,N1617,N1618,N1619,N1620,  \note fields as indicated
+  N1621,N1622,N1623,N1624,N1625,N1626,N1627,N1628,N1629,N1630,N1631,N1632,N1633,N1634,N1635,N1636,N1637,N1638,N1639,N1640,  \note fields as indicated
+  N1641,N1642,N1643,N1644,N1645,N1646,N1647,N1648,N1649,N1650,N1651,N1652,N1653,N1654,N1655,N1656,N1657,N1658,N1659,N1660,  \note fields as indicated
+  N1661,N1662,N1663,N1664,N1665,N1666,N1667,N1668,N1669,N1670,N1671,N1672,N1673,N1674,N1675,N1676,N1677,N1678,N1679,N1680,  \note fields as indicated
+  N1681,N1682,N1683,N1684,N1685,N1686,N1687,N1688,N1689,N1690,N1691,N1692,N1693,N1694,N1695,N1696,N1697,N1698,N1699,N1700,  \note fields as indicated
+  N1701,N1702,N1703,N1704,N1705,N1706,N1707,N1708,N1709,N1710,N1711,N1712,N1713,N1714,N1715,N1716,N1717,N1718,N1719,N1720,  \note fields as indicated
+  N1721,N1722,N1723,N1724,N1725,N1726,N1727,N1728,N1729,N1730,N1731,N1732,N1733,N1734,N1735,N1736,N1737,N1738,N1739,N1740,  \note fields as indicated
+  N1741,N1742,N1743,N1744,N1745,N1746,N1747,N1748,N1749,N1750,N1751,N1752,N1753,N1754,N1755,N1756,N1757,N1758,N1759,N1760,  \note fields as indicated
+  N1761,N1762,N1763,N1764,N1765,N1766,N1767,N1768,N1769,N1770,N1771,N1772,N1773,N1774,N1775,N1776,N1777,N1778,N1779,N1780,  \note fields as indicated
+  N1781,N1782,N1783,N1784,N1785,N1786,N1787,N1788,N1789,N1790,N1791,N1792,N1793,N1794,N1795,N1796,N1797,N1798,N1799,N1800,  \note fields as indicated
+  N1801,N1802,N1803,N1804,N1805,N1806,N1807,N1808,N1809,N1810,N1811,N1812,N1813,N1814,N1815,N1816,N1817,N1818,N1819,N1820,  \note fields as indicated
+  N1821,N1822,N1823,N1824,N1825,N1826,N1827,N1828,N1829,N1830,N1831,N1832,N1833,N1834,N1835,N1836,N1837,N1838,N1839,N1840,  \note fields as indicated
+  N1841,N1842,N1843,N1844,N1845,N1846,N1847,N1848,N1849,N1850,N1851,N1852,N1853,N1854,N1855,N1856,N1857,N1858,N1859,N1860,  \note fields as indicated
+  N1861,N1862,N1863,N1864,N1865,N1866,N1867,N1868,N1869,N1870,N1871,N1872,N1873,N1874,N1875,N1876,N1877,N1878,N1879,N1880,  \note fields as indicated
+  N1881,N1882,N1883,N1884,N1885,N1886,N1887,N1888,N1889,N1890,N1891,N1892,N1893,N1894,N1895,N1896,N1897,N1898,N1899,N1900,  \note fields as indicated
+  N1901,N1902,N1903,N1904,N1905,N1906,N1907,N1908,N1909,N1910,N1911,N1912,N1913,N1914,N1915,N1916,N1917,N1918,N1919,N1920,  \note fields as indicated
+  N1921,N1922,N1923,N1924,N1925,N1926,N1927,N1928,N1929,N1930,N1931,N1932,N1933,N1934,N1935,N1936,N1937,N1938,N1939,N1940,  \note fields as indicated
+  N1941,N1942,N1943,N1944,N1945,N1946,N1947,N1948,N1949,N1950,N1951,N1952,N1953,N1954,N1955,N1956,N1957,N1958,N1959,N1960,  \note fields as indicated
+  N1961,N1962,N1963,N1964,N1965,N1966,N1967,N1968,N1969,N1970,N1971,N1972,N1973,N1974,N1975,N1976,N1977,N1978,N1979,N1980,  \note fields as indicated
+  N1981,N1982,N1983,N1984,N1985,N1986,N1987,N1988,N1989,N1990,N1991,N1992,N1993,N1994,N1995,N1996,N1997,N1998,N1999,N2000,  \note fields as indicated
+  N2001,N2002,N2003,N2004,N2005,N2006,N2007,N2008,N2009,N2010,N2011,N2012,N2013,N2014,N2015,N2016,N2017,N2018,N2019,N2020,  \note fields as indicated
+  N2021,N2022,N2023,N2024,N2025,N2026,N2027,N2028,N2029,N2030,N2031,N2032,N2033,N2034,N2035,N2036,N2037,N2038,N2039,N2040,  \note fields as indicated
+  N2041,N2042,N2043,N2044,N2045,N2046,N2047,N2048,N2049,N2050,N2051,N2052,N2053,N2054,N2055,N2056,N2057,N2058,N2059,N2060,  \note fields as indicated
+  N2061,N2062,N2063,N2064,N2065,N2066,N2067,N2068,N2069,N2070,N2071,N2072,N2073,N2074,N2075,N2076,N2077,N2078,N2079,N2080,  \note fields as indicated
+  N2081,N2082,N2083,N2084,N2085,N2086,N2087,N2088,N2089,N2090,N2091,N2092,N2093,N2094,N2095,N2096,N2097,N2098,N2099,N2100,  \note fields as indicated
+  N2101,N2102,N2103,N2104,N2105,N2106,N2107,N2108,N2109,N2110,N2111,N2112,N2113,N2114,N2115,N2116,N2117,N2118,N2119,N2120,  \note fields as indicated
+  N2121,N2122,N2123,N2124,N2125,N2126,N2127,N2128,N2129,N2130,N2131,N2132,N2133,N2134,N2135,N2136,N2137,N2138,N2139,N2140,  \note fields as indicated
+  N2141,N2142,N2143,N2144,N2145,N2146,N2147,N2148,N2149,N2150,N2151,N2152,N2153,N2154,N2155,N2156,N2157,N2158,N2159,N2160,  \note fields as indicated
+  N2161,N2162,N2163,N2164,N2165,N2166,N2167,N2168,N2169,N2170,N2171,N2172,N2173,N2174,N2175,N2176,N2177,N2178,N2179,N2180,  \note fields as indicated
+  N2181,N2182,N2183,N2184,N2185,N2186,N2187,N2188,N2189,N2190,N2191,N2192,N2193,N2194,N2195,N2196,N2197,N2198,N2199,N2200,  \note fields as indicated
+  N2201,N2202,N2203,N2204,N2205,N2206,N2207,N2208,N2209,N2210,N2211,N2212,N2213,N2214,N2215,N2216,N2217,N2218,N2219,N2220,  \note fields as indicated
+  N2221,N2222,N2223,N2224,N2225,N2226,N2227,N2228,N2229,N2230,N2231,N2232,N2233,N2234,N2235,N2236,N2237,N2238,N2239,N2240,  \note fields as indicated
+  N2241,N2242,N2243,N2244,N2245,N2246,N2247,N2248,N2249,N2250,N2251,N2252,N2253,N2254,N2255,N2256,N2257,N2258,N2259,N2260,  \note fields as indicated
+  N2261,N2262,N2263,N2264,N2265,N2266,N2267,N2268,N2269,N2270,N2271,N2272,N2273,N2274,N2275,N2276,N2277,N2278,N2279,N2280,  \note fields as indicated
+  N2281,N2282,N2283,N2284,N2285,N2286,N2287,N2288,N2289,N2290,N2291,N2292,N2293,N2294,N2295,N2296,N2297,N2298,N2299,N2300,  \note fields as indicated
+  N2301,N2302,N2303,N2304,N2305,N2306,N2307,N2308,N2309,N2310,N2311,N2312,N2313,N2314,N2315,N2316,N2317,N2318,N2319,N2320,  \note fields as indicated
+  N2321,N2322,N2323,N2324,N2325,N2326,N2327,N2328,N2329,N2330,N2331,N2332,N2333,N2334,N2335,N2336,N2337,N2338,N2339,N2340,  \note fields as indicated
+  N2341,N2342,N2343,N2344,N2345,N2346,N2347,N2348,N2349,N2350,N2351,N2352,N2353,N2354,N2355,N2356,N2357,N2358,N2359,N2360,  \note fields as indicated
+  N2361,N2362,N2363,N2364,N2365,N2366,N2367,N2368,N2369,N2370,N2371,N2372,N2373,N2374,N2375,N2376,N2377,N2378,N2379,N2380,  \note fields as indicated
+  N2381,N2382,N2383,N2384,N2385,N2386,N2387,N2388,N2389,N2390,N2391,N2392,N2393,N2394,N2395,N2396,N2397,N2398,N2399,N2400,  \note fields as indicated
+  N2401,N2402,N2403,N2404,N2405,N2406,N2407,N2408,N2409,N2410,N2411,N2412,N2413,N2414,N2415,N2416,N2417,N2418,N2419,N2420,  \note fields as indicated
+  N2421,N2422,N2423,N2424,N2425,N2426,N2427,N2428,N2429,N2430,N2431,N2432,N2433,N2434,N2435,N2436,N2437,N2438,N2439,N2440,  \note fields as indicated
+  N2441,N2442,N2443,N2444,N2445,N2446,N2447,N2448,N2449,N2450,N2451,N2452,N2453,N2454,N2455,N2456,N2457,N2458,N2459,N2460,  \note fields as indicated
+  N2461,N2462,N2463,N2464,N2465,N2466,N2467,N2468,N2469,N2470,N2471,N2472,N2473,N2474,N2475,N2476,N2477,N2478,N2479,N2480,  \note fields as indicated
+  N2481,N2482,N2483,N2484,N2485,N2486,N2487,N2488,N2489,N2490,N2491,N2492,N2493,N2494,N2495,N2496,N2497,N2498,N2499,N2500,  \note fields as indicated
+  N2501,N2502,N2503,N2504,N2505,N2506,N2507,N2508,N2509,N2510,N2511,N2512,N2513,N2514,N2515,N2516,N2517,N2518,N2519,N2520,  \note fields as indicated
+  N2521,N2522,N2523,N2524,N2525,N2526,N2527,N2528,N2529,N2530,N2531,N2532,N2533,N2534,N2535,N2536,N2537,N2538,N2539,N2540,  \note fields as indicated
+  N2541,N2542,N2543,N2544,N2545,N2546,N2547,N2548,N2549,N2550,N2551,N2552,N2553,N2554,N2555,N2556,N2557,N2558,N2559,N2560,  \note fields as indicated
+  N2561,N2562,N2563,N2564,N2565,N2566,N2567,N2568,N2569,N2570,N2571,N2572,N2573,N2574,N2575,N2576,N2577,N2578,N2579,N2580,  \note fields as indicated
+  N2581,N2582,N2583,N2584,N2585,N2586,N2587,N2588,N2589,N2590,N2591,N2592,N2593,N2594,N2595,N2596,N2597,N2598,N2599,N2600,  \note fields as indicated
+  N2601,N2602,N2603,N2604,N2605,N2606,N2607,N2608,N2609,N2610,N2611,N2612,N2613,N2614,N2615,N2616,N2617,N2618,N2619,N2620,  \note fields as indicated
+  N2621,N2622,N2623,N2624,N2625,N2626,N2627,N2628,N2629,N2630,N2631,N2632,N2633,N2634,N2635,N2636,N2637,N2638,N2639,N2640,  \note fields as indicated
+  N2641,N2642,N2643,N2644,N2645,N2646,N2647,N2648,N2649,N2650,N2651,N2652,N2653,N2654,N2655,N2656,N2657,N2658,N2659,N2660,  \note fields as indicated
+  N2661,N2662,N2663,N2664,N2665,N2666,N2667,N2668,N2669,N2670,N2671,N2672,N2673,N2674,N2675,N2676,N2677,N2678,N2679,N2680,  \note fields as indicated
+  N2681,N2682,N2683,N2684,N2685,N2686,N2687,N2688,N2689,N2690,N2691,N2692,N2693,N2694,N2695,N2696,N2697,N2698,N2699,N2700,  \note fields as indicated
+  N2701,N2702,N2703,N2704,N2705,N2706,N2707,N2708,N2709,N2710,N2711,N2712,N2713,N2714,N2715,N2716,N2717,N2718,N2719,N2720,  \note fields as indicated
+  N2721,N2722,N2723,N2724,N2725,N2726,N2727,N2728,N2729,N2730,N2731,N2732,N2733,N2734,N2735,N2736,N2737,N2738,N2739,N2740,  \note fields as indicated
+  N2741,N2742,N2743,N2744,N2745,N2746,N2747,N2748,N2749,N2750,N2751,N2752,N2753,N2754,N2755,N2756,N2757,N2758,N2759,N2760,  \note fields as indicated
+  N2761,N2762,N2763,N2764,N2765,N2766,N2767,N2768,N2769,N2770,N2771,N2772,N2773,N2774,N2775,N2776,N2777,N2778,N2779,N2780,  \note fields as indicated
+  N2781,N2782,N2783,N2784,N2785,N2786,N2787,N2788,N2789,N2790,N2791,N2792,N2793,N2794,N2795,N2796,N2797,N2798,N2799,N2800,  \note fields as indicated
+  N2801,N2802,N2803,N2804,N2805,N2806,N2807,N2808,N2809,N2810,N2811,N2812,N2813,N2814,N2815,N2816,N2817,N2818,N2819,N2820,  \note fields as indicated
+  N2821,N2822,N2823,N2824,N2825,N2826,N2827,N2828,N2829,N2830,N2831,N2832,N2833,N2834,N2835,N2836,N2837,N2838,N2839,N2840,  \note fields as indicated
+  N2841,N2842,N2843,N2844,N2845,N2846,N2847,N2848,N2849,N2850,N2851,N2852,N2853,N2854,N2855,N2856,N2857,N2858,N2859,N2860,  \note fields as indicated
+  N2861,N2862,N2863,N2864,N2865,N2866,N2867,N2868,N2869,N2870,N2871,N2872,N2873,N2874,N2875,N2876,N2877,N2878,N2879,N2880,  \note fields as indicated
+  N2881,N2882,N2883,N2884,N2885,N2886,N2887,N2888,N2889,N2890,N2891,N2892,N2893,N2894,N2895,N2896,N2897,N2898,N2899,N2900,  \note fields as indicated
+  N2901,N2902,N2903,N2904,N2905,N2906,N2907,N2908,N2909,N2910,N2911,N2912,N2913,N2914,N2915,N2916,N2917,N2918,N2919,N2920,  \note fields as indicated
+  N2921,N2922,N2923,N2924,N2925,N2926,N2927,N2928,N2929,N2930,N2931,N2932,N2933,N2934,N2935,N2936,N2937,N2938,N2939,N2940,  \note fields as indicated
+  N2941,N2942,N2943,N2944,N2945,N2946,N2947,N2948,N2949,N2950,N2951,N2952,N2953,N2954,N2955,N2956,N2957,N2958,N2959,N2960,  \note fields as indicated
+  N2961,N2962,N2963,N2964,N2965,N2966,N2967,N2968,N2969,N2970,N2971,N2972,N2973,N2974,N2975,N2976,N2977,N2978,N2979,N2980,  \note fields as indicated
+  N2981,N2982,N2983,N2984,N2985,N2986,N2987,N2988,N2989,N2990,N2991,N2992,N2993,N2994,N2995,N2996,N2997,N2998,N2999,N3000,  \note fields as indicated
+  N3001,N3002,N3003,N3004,N3005,N3006,N3007,N3008,N3009,N3010,N3011,N3012,N3013,N3014,N3015,N3016,N3017,N3018,N3019,N3020,  \note fields as indicated
+  N3021,N3022,N3023,N3024,N3025,N3026,N3027,N3028,N3029,N3030,N3031,N3032,N3033,N3034,N3035,N3036,N3037,N3038,N3039,N3040,  \note fields as indicated
+  N3041,N3042,N3043,N3044,N3045,N3046,N3047,N3048,N3049,N3050,N3051,N3052,N3053,N3054,N3055,N3056,N3057,N3058,N3059,N3060,  \note fields as indicated
+  N3061,N3062,N3063,N3064,N3065,N3066,N3067,N3068,N3069,N3070,N3071,N3072,N3073,N3074,N3075,N3076,N3077,N3078,N3079,N3080,  \note fields as indicated
+  N3081,N3082,N3083,N3084,N3085,N3086,N3087,N3088,N3089,N3090,N3091,N3092,N3093,N3094,N3095,N3096,N3097,N3098,N3099,N3100,  \note fields as indicated
+  N3101,N3102,N3103,N3104,N3105,N3106,N3107,N3108,N3109,N3110,N3111,N3112,N3113,N3114,N3115,N3116,N3117,N3118,N3119,N3120,  \note fields as indicated
+  N3121,N3122,N3123,N3124,N3125,N3126,N3127,N3128,N3129,N3130,N3131,N3132,N3133,N3134,N3135,N3136,N3137,N3138,N3139,N3140,  \note fields as indicated
+  N3141,N3142,N3143,N3144,N3145,N3146,N3147,N3148,N3149,N3150,N3151,N3152,N3153,N3154,N3155,N3156,N3157,N3158,N3159,N3160,  \note fields as indicated
+  N3161,N3162,N3163,N3164,N3165,N3166,N3167,N3168,N3169,N3170,N3171,N3172,N3173,N3174,N3175,N3176,N3177,N3178,N3179,N3180,  \note fields as indicated
+  N3181,N3182,N3183,N3184,N3185,N3186,N3187,N3188,N3189,N3190,N3191,N3192,N3193,N3194,N3195,N3196,N3197,N3198,N3199,N3200,  \note fields as indicated
+  N3201,N3202,N3203,N3204,N3205,N3206,N3207,N3208,N3209,N3210,N3211,N3212,N3213,N3214,N3215,N3216,N3217,N3218,N3219,N3220,  \note fields as indicated
+  N3221,N3222,N3223,N3224,N3225,N3226,N3227,N3228,N3229,N3230,N3231,N3232,N3233,N3234,N3235,N3236,N3237,N3238,N3239,N3240,  \note fields as indicated
+  N3241,N3242,N3243,N3244,N3245,N3246,N3247,N3248,N3249,N3250,N3251,N3252,N3253,N3254,N3255,N3256,N3257,N3258,N3259,N3260,  \note fields as indicated
+  N3261,N3262,N3263,N3264,N3265,N3266,N3267,N3268,N3269,N3270,N3271,N3272,N3273,N3274,N3275,N3276,N3277,N3278,N3279,N3280,  \note fields as indicated
+  N3281,N3282,N3283,N3284,N3285,N3286,N3287,N3288,N3289,N3290,N3291,N3292,N3293,N3294,N3295,N3296,N3297,N3298,N3299,N3300,  \note fields as indicated
+  N3301,N3302,N3303,N3304,N3305,N3306,N3307,N3308,N3309,N3310,N3311,N3312,N3313,N3314,N3315,N3316,N3317,N3318,N3319,N3320,  \note fields as indicated
+  N3321,N3322,N3323,N3324,N3325,N3326,N3327,N3328,N3329,N3330,N3331,N3332,N3333,N3334,N3335,N3336,N3337,N3338,N3339,N3340,  \note fields as indicated
+  N3341,N3342,N3343,N3344,N3345,N3346,N3347,N3348,N3349,N3350,N3351,N3352,N3353,N3354,N3355,N3356,N3357,N3358,N3359,N3360,  \note fields as indicated
+  N3361,N3362,N3363,N3364,N3365,N3366,N3367,N3368,N3369,N3370,N3371,N3372,N3373,N3374,N3375,N3376,N3377,N3378,N3379,N3380,  \note fields as indicated
+  N3381,N3382,N3383,N3384,N3385,N3386,N3387,N3388,N3389,N3390,N3391,N3392,N3393,N3394,N3395,N3396,N3397,N3398,N3399,N3400,  \note fields as indicated
+  N3401,N3402,N3403,N3404,N3405,N3406,N3407,N3408,N3409,N3410,N3411,N3412,N3413,N3414,N3415,N3416,N3417,N3418,N3419,N3420,  \note fields as indicated
+  N3421,N3422,N3423,N3424,N3425,N3426,N3427,N3428,N3429,N3430,N3431,N3432,N3433,N3434,N3435,N3436,N3437,N3438,N3439,N3440,  \note fields as indicated
+  N3441,N3442,N3443,N3444,N3445,N3446,N3447,N3448,N3449,N3450,N3451,N3452,N3453,N3454,N3455,N3456,N3457,N3458,N3459,N3460,  \note fields as indicated
+  N3461,N3462,N3463,N3464,N3465,N3466,N3467,N3468,N3469,N3470,N3471,N3472,N3473,N3474,N3475,N3476,N3477,N3478,N3479,N3480,  \note fields as indicated
+  N3481,N3482,N3483,N3484,N3485,N3486,N3487,N3488,N3489,N3490,N3491,N3492,N3493,N3494,N3495,N3496,N3497,N3498,N3499,N3500,  \note fields as indicated
+  N3501,N3502,N3503,N3504,N3505,N3506,N3507,N3508,N3509,N3510,N3511,N3512,N3513,N3514,N3515,N3516,N3517,N3518,N3519,N3520,  \note fields as indicated
+  N3521,N3522,N3523,N3524,N3525,N3526,N3527,N3528,N3529,N3530,N3531,N3532,N3533,N3534,N3535,N3536,N3537,N3538,N3539,N3540,  \note fields as indicated
+  N3541,N3542,N3543,N3544,N3545,N3546,N3547,N3548,N3549,N3550,N3551,N3552,N3553,N3554,N3555,N3556,N3557,N3558,N3559,N3560,  \note fields as indicated
+  N3561,N3562,N3563,N3564,N3565,N3566,N3567,N3568,N3569,N3570,N3571,N3572,N3573,N3574,N3575,N3576,N3577,N3578,N3579,N3580,  \note fields as indicated
+  N3581,N3582,N3583,N3584,N3585,N3586,N3587,N3588,N3589,N3590,N3591,N3592,N3593,N3594,N3595,N3596,N3597,N3598,N3599,N3600,  \note fields as indicated
+  N3601,N3602,N3603,N3604,N3605,N3606,N3607,N3608,N3609,N3610,N3611,N3612,N3613,N3614,N3615,N3616,N3617,N3618,N3619,N3620,  \note fields as indicated
+  N3621,N3622,N3623,N3624,N3625,N3626,N3627,N3628,N3629,N3630,N3631,N3632,N3633,N3634,N3635,N3636,N3637,N3638,N3639,N3640,  \note fields as indicated
+  N3641,N3642,N3643,N3644,N3645,N3646,N3647,N3648,N3649,N3650,N3651,N3652,N3653,N3654,N3655,N3656,N3657,N3658,N3659,N3660,  \note fields as indicated
+  N3661,N3662,N3663,N3664,N3665,N3666,N3667,N3668,N3669,N3670,N3671,N3672,N3673,N3674,N3675,N3676,N3677,N3678,N3679,N3680,  \note fields as indicated
+  N3681,N3682,N3683,N3684,N3685,N3686,N3687,N3688,N3689,N3690,N3691,N3692,N3693,N3694,N3695,N3696,N3697,N3698,N3699,N3700,  \note fields as indicated
+  N3701,N3702,N3703,N3704,N3705,N3706,N3707,N3708,N3709,N3710,N3711,N3712,N3713,N3714,N3715,N3716,N3717,N3718,N3719,N3720,  \note fields as indicated
+  N3721,N3722,N3723,N3724,N3725,N3726,N3727,N3728,N3729,N3730,N3731,N3732,N3733,N3734,N3735,N3736,N3737,N3738,N3739,N3740,  \note fields as indicated
+  N3741,N3742,N3743,N3744,N3745,N3746,N3747,N3748,N3749,N3750,N3751,N3752,N3753,N3754,N3755,N3756,N3757,N3758,N3759,N3760,  \note fields as indicated
+  N3761,N3762,N3763,N3764,N3765,N3766,N3767,N3768,N3769,N3770,N3771,N3772,N3773,N3774,N3775,N3776,N3777,N3778,N3779,N3780,  \note fields as indicated
+  N3781,N3782,N3783,N3784,N3785,N3786,N3787,N3788,N3789,N3790,N3791,N3792,N3793,N3794,N3795,N3796,N3797,N3798,N3799,N3800,  \note fields as indicated
+  N3801,N3802,N3803,N3804,N3805,N3806,N3807,N3808,N3809,N3810,N3811,N3812,N3813,N3814,N3815,N3816,N3817,N3818,N3819,N3820,  \note fields as indicated
+  N3821,N3822,N3823,N3824,N3825,N3826,N3827,N3828,N3829,N3830,N3831,N3832,N3833,N3834,N3835,N3836,N3837,N3838,N3839,N3840,  \note fields as indicated
+  N3841,N3842,N3843,N3844,N3845,N3846,N3847,N3848,N3849,N3850,N3851,N3852,N3853,N3854,N3855,N3856,N3857,N3858,N3859,N3860,  \note fields as indicated
+  N3861,N3862,N3863,N3864,N3865,N3866,N3867,N3868,N3869,N3870,N3871,N3872,N3873,N3874,N3875,N3876,N3877,N3878,N3879,N3880,  \note fields as indicated
+  N3881,N3882,N3883,N3884,N3885,N3886,N3887,N3888,N3889,N3890,N3891,N3892,N3893,N3894,N3895,N3896,N3897,N3898,N3899,N3900,  \note fields as indicated
+  N3901,N3902,N3903,N3904,N3905,N3906,N3907,N3908,N3909,N3910,N3911,N3912,N3913,N3914,N3915,N3916,N3917,N3918,N3919,N3920,  \note fields as indicated
+  N3921,N3922,N3923,N3924,N3925,N3926,N3927,N3928,N3929,N3930,N3931,N3932,N3933,N3934,N3935,N3936,N3937,N3938,N3939,N3940,  \note fields as indicated
+  N3941,N3942,N3943,N3944,N3945,N3946,N3947,N3948,N3949,N3950,N3951,N3952,N3953,N3954,N3955,N3956,N3957,N3958,N3959,N3960,  \note fields as indicated
+  N3961,N3962,N3963,N3964,N3965,N3966,N3967,N3968,N3969,N3970,N3971,N3972,N3973,N3974,N3975,N3976,N3977,N3978,N3979,N3980,  \note fields as indicated
+  N3981,N3982,N3983,N3984,N3985,N3986,N3987,N3988,N3989,N3990,N3991,N3992,N3993,N3994,N3995,N3996,N3997,N3998,N3999,N4000,  \note fields as indicated
+  N4001,N4002,N4003,N4004,N4005,N4006,N4007,N4008,N4009,N4010,N4011,N4012,N4013,N4014,N4015,N4016,N4017,N4018,N4019,N4020,  \note fields as indicated
+  N4021,N4022,N4023,N4024,N4025,N4026,N4027,N4028,N4029,N4030,N4031,N4032,N4033,N4034,N4035,N4036,N4037,N4038,N4039,N4040,  \note fields as indicated
+  N4041,N4042,N4043,N4044,N4045,N4046,N4047,N4048,N4049,N4050,N4051,N4052,N4053,N4054,N4055,N4056,N4057,N4058,N4059,N4060,  \note fields as indicated
+  N4061,N4062,N4063,N4064,N4065,N4066,N4067,N4068,N4069,N4070,N4071,N4072,N4073,N4074,N4075,N4076,N4077,N4078,N4079,N4080,  \note fields as indicated
+  N4081,N4082,N4083,N4084,N4085,N4086,N4087,N4088,N4089,N4090,N4091,N4092,N4093,N4094,N4095,N4096,N4097,N4098,N4099,N4100,  \note fields as indicated
+  N4101,N4102,N4103,N4104,N4105,N4106,N4107,N4108,N4109,N4110,N4111,N4112,N4113,N4114,N4115,N4116,N4117,N4118,N4119,N4120,  \note fields as indicated
+  N4121,N4122,N4123,N4124,N4125,N4126,N4127,N4128,N4129,N4130,N4131,N4132,N4133,N4134,N4135,N4136,N4137,N4138,N4139,N4140,  \note fields as indicated
+  N4141,N4142,N4143,N4144,N4145,N4146,N4147,N4148,N4149,N4150,N4151,N4152,N4153,N4154,N4155,N4156,N4157,N4158,N4159,N4160,  \note fields as indicated
+  N4161,N4162,N4163,N4164,N4165,N4166,N4167,N4168,N4169,N4170,N4171,N4172,N4173,N4174,N4175,N4176,N4177,N4178,N4179,N4180,  \note fields as indicated
+  N4181,N4182,N4183,N4184,N4185,N4186,N4187,N4188,N4189,N4190,N4191,N4192,N4193,N4194,N4195,N4196,N4197,N4198,N4199,N4200,  \note fields as indicated
+  N4201,N4202,N4203,N4204,N4205,N4206,N4207,N4208,N4209,N4210,N4211,N4212,N4213,N4214,N4215,N4216,N4217,N4218,N4219,N4220,  \note fields as indicated
+  N4221,N4222,N4223,N4224,N4225,N4226,N4227,N4228,N4229,N4230,N4231,N4232,N4233,N4234,N4235,N4236,N4237,N4238,N4239,N4240,  \note fields as indicated
+  N4241,N4242,N4243,N4244,N4245,N4246,N4247,N4248,N4249,N4250,N4251,N4252,N4253,N4254,N4255,N4256,N4257,N4258,N4259,N4260,  \note fields as indicated
+  N4261,N4262,N4263,N4264,N4265,N4266,N4267,N4268,N4269,N4270,N4271,N4272,N4273,N4274,N4275,N4276,N4277,N4278,N4279,N4280,  \note fields as indicated
+  N4281,N4282,N4283,N4284,N4285,N4286,N4287,N4288,N4289,N4290,N4291,N4292,N4293,N4294,N4295,N4296,N4297,N4298,N4299,N4300,  \note fields as indicated
+  N4301,N4302,N4303,N4304,N4305,N4306,N4307,N4308,N4309,N4310,N4311,N4312,N4313,N4314,N4315,N4316,N4317,N4318,N4319,N4320,  \note fields as indicated
+  N4321,N4322,N4323,N4324,N4325,N4326,N4327,N4328,N4329,N4330,N4331,N4332,N4333,N4334,N4335,N4336,N4337,N4338,N4339,N4340,  \note fields as indicated
+  N4341,N4342,N4343,N4344,N4345,N4346,N4347,N4348,N4349,N4350,N4351,N4352,N4353,N4354,N4355,N4356,N4357,N4358,N4359,N4360,  \note fields as indicated
+  N4361,N4362,N4363,N4364,N4365,N4366,N4367,N4368,N4369,N4370,N4371,N4372,N4373,N4374,N4375,N4376,N4377,N4378,N4379,N4380,  \note fields as indicated
+  N4381,N4382,N4383,N4384,N4385,N4386,N4387,N4388,N4389,N4390,N4391,N4392,N4393,N4394,N4395,N4396,N4397,N4398,N4399,N4400,  \note fields as indicated
+  N4401,N4402,N4403,N4404,N4405,N4406,N4407,N4408,N4409,N4410,N4411,N4412,N4413,N4414,N4415,N4416,N4417,N4418,N4419,N4420,  \note fields as indicated
+  N4421,N4422,N4423,N4424,N4425,N4426,N4427,N4428,N4429,N4430,N4431,N4432,N4433,N4434,N4435,N4436,N4437,N4438,N4439,N4440,  \note fields as indicated
+  N4441,N4442,N4443,N4444,N4445,N4446,N4447,N4448,N4449,N4450,N4451,N4452,N4453,N4454,N4455,N4456,N4457,N4458,N4459,N4460,  \note fields as indicated
+  N4461,N4462,N4463,N4464,N4465,N4466,N4467,N4468,N4469,N4470,N4471,N4472,N4473,N4474,N4475,N4476,N4477,N4478,N4479,N4480,  \note fields as indicated
+  N4481,N4482,N4483,N4484,N4485,N4486,N4487,N4488,N4489,N4490,N4491,N4492,N4493,N4494,N4495,N4496,N4497,N4498,N4499,N4500,  \note fields as indicated
+  N4501,N4502,N4503,N4504,N4505,N4506,N4507,N4508,N4509,N4510,N4511,N4512,N4513,N4514,N4515,N4516,N4517,N4518,N4519,N4520,  \note fields as indicated
+  N4521,N4522,N4523,N4524,N4525,N4526,N4527,N4528,N4529,N4530,N4531,N4532,N4533,N4534,N4535,N4536,N4537,N4538,N4539,N4540,  \note fields as indicated
+  N4541,N4542,N4543,N4544,N4545,N4546,N4547,N4548,N4549,N4550,N4551,N4552,N4553,N4554,N4555,N4556,N4557,N4558,N4559,N4560,  \note fields as indicated
+  N4561,N4562,N4563,N4564,N4565,N4566,N4567,N4568,N4569,N4570,N4571,N4572,N4573,N4574,N4575,N4576,N4577,N4578,N4579,N4580,  \note fields as indicated
+  N4581,N4582,N4583,N4584,N4585,N4586,N4587,N4588,N4589,N4590,N4591,N4592,N4593,N4594,N4595,N4596,N4597,N4598,N4599,N4600,  \note fields as indicated
+  N4601,N4602,N4603,N4604,N4605,N4606,N4607,N4608,N4609,N4610,N4611,N4612,N4613,N4614,N4615,N4616,N4617,N4618,N4619,N4620,  \note fields as indicated
+  N4621,N4622,N4623,N4624,N4625,N4626,N4627,N4628,N4629,N4630,N4631,N4632,N4633,N4634,N4635,N4636,N4637,N4638,N4639,N4640,  \note fields as indicated
+  N4641,N4642,N4643,N4644,N4645,N4646,N4647,N4648,N4649,N4650,N4651,N4652,N4653,N4654,N4655,N4656,N4657,N4658,N4659,N4660,  \note fields as indicated
+  N4661,N4662,N4663,N4664,N4665,N4666,N4667,N4668,N4669,N4670,N4671,N4672,N4673,N4674,N4675,N4676,N4677,N4678,N4679,N4680,  \note fields as indicated
+  N4681,N4682,N4683,N4684,N4685,N4686,N4687,N4688,N4689,N4690,N4691,N4692,N4693,N4694,N4695,N4696,N4697,N4698,N4699,N4700,  \note fields as indicated
+  N4701,N4702,N4703,N4704,N4705,N4706,N4707,N4708,N4709,N4710,N4711,N4712,N4713,N4714,N4715,N4716,N4717,N4718,N4719,N4720,  \note fields as indicated
+  N4721,N4722,N4723,N4724,N4725,N4726,N4727,N4728,N4729,N4730,N4731,N4732,N4733,N4734,N4735,N4736,N4737,N4738,N4739,N4740,  \note fields as indicated
+  N4741,N4742,N4743,N4744,N4745,N4746,N4747,N4748,N4749,N4750,N4751,N4752,N4753,N4754,N4755,N4756,N4757,N4758,N4759,N4760,  \note fields as indicated
+  N4761,N4762,N4763,N4764,N4765,N4766,N4767,N4768,N4769,N4770,N4771,N4772,N4773,N4774,N4775,N4776,N4777,N4778,N4779,N4780,  \note fields as indicated
+  N4781,N4782,N4783,N4784,N4785,N4786,N4787,N4788,N4789,N4790,N4791,N4792,N4793,N4794,N4795,N4796,N4797,N4798,N4799,N4800,  \note fields as indicated
+  N4801,N4802,N4803,N4804,N4805,N4806,N4807,N4808,N4809,N4810,N4811,N4812,N4813,N4814,N4815,N4816,N4817,N4818,N4819,N4820,  \note fields as indicated
+  N4821,N4822,N4823,N4824,N4825,N4826,N4827,N4828,N4829,N4830,N4831,N4832,N4833,N4834,N4835,N4836,N4837,N4838,N4839,N4840,  \note fields as indicated
+  N4841,N4842,N4843,N4844,N4845,N4846,N4847,N4848,N4849,N4850,N4851,N4852,N4853,N4854,N4855,N4856,N4857,N4858,N4859,N4860,  \note fields as indicated
+  N4861,N4862,N4863,N4864,N4865,N4866,N4867,N4868,N4869,N4870,N4871,N4872,N4873,N4874,N4875,N4876,N4877,N4878,N4879,N4880,  \note fields as indicated
+  N4881,N4882,N4883,N4884,N4885,N4886,N4887,N4888,N4889,N4890,N4891,N4892,N4893,N4894,N4895,N4896,N4897,N4898,N4899,N4900,  \note fields as indicated
+  N4901,N4902,N4903,N4904,N4905,N4906,N4907,N4908,N4909,N4910,N4911,N4912,N4913,N4914,N4915,N4916,N4917,N4918,N4919,N4920,  \note fields as indicated
+  N4921,N4922,N4923,N4924,N4925,N4926,N4927,N4928,N4929,N4930,N4931,N4932,N4933,N4934,N4935,N4936,N4937,N4938,N4939,N4940,  \note fields as indicated
+  N4941,N4942,N4943,N4944,N4945,N4946,N4947,N4948,N4949,N4950,N4951,N4952,N4953,N4954,N4955,N4956,N4957,N4958,N4959,N4960,  \note fields as indicated
+  N4961,N4962,N4963,N4964,N4965,N4966,N4967,N4968,N4969,N4970,N4971,N4972,N4973,N4974,N4975,N4976,N4977,N4978,N4979,N4980,  \note fields as indicated
+  N4981,N4982,N4983,N4984,N4985,N4986,N4987,N4988,N4989,N4990,N4991,N4992,N4993,N4994,N4995,N4996,N4997,N4998,N4999,N5000,  \note fields as indicated
+  N5001,N5002,N5003,N5004,N5005,N5006,N5007,N5008,N5009,N5010,N5011,N5012,N5013,N5014,N5015,N5016,N5017,N5018,N5019,N5020,  \note fields as indicated
+  N5021,N5022,N5023,N5024,N5025,N5026,N5027,N5028,N5029,N5030,N5031,N5032,N5033,N5034,N5035,N5036,N5037,N5038,N5039,N5040,  \note fields as indicated
+  N5041,N5042,N5043,N5044,N5045,N5046,N5047,N5048,N5049,N5050,N5051,N5052,N5053,N5054,N5055,N5056,N5057,N5058,N5059,N5060,  \note fields as indicated
+  N5061,N5062,N5063,N5064,N5065,N5066,N5067,N5068,N5069,N5070,N5071,N5072,N5073,N5074,N5075,N5076,N5077,N5078,N5079,N5080,  \note fields as indicated
+  N5081,N5082,N5083,N5084,N5085,N5086,N5087,N5088,N5089,N5090,N5091,N5092,N5093,N5094,N5095,N5096,N5097,N5098,N5099,N5100,  \note fields as indicated
+  N5101,N5102,N5103,N5104,N5105,N5106,N5107,N5108,N5109,N5110,N5111,N5112,N5113,N5114,N5115,N5116,N5117,N5118,N5119,N5120,  \note fields as indicated
+  N5121,N5122,N5123,N5124,N5125,N5126,N5127,N5128,N5129,N5130,N5131,N5132,N5133,N5134,N5135,N5136,N5137,N5138,N5139,N5140,  \note fields as indicated
+  N5141,N5142,N5143,N5144,N5145,N5146,N5147,N5148,N5149,N5150,N5151,N5152,N5153,N5154,N5155,N5156,N5157,N5158,N5159,N5160,  \note fields as indicated
+  N5161,N5162,N5163,N5164,N5165,N5166,N5167,N5168,N5169,N5170,N5171,N5172,N5173,N5174,N5175,N5176,N5177,N5178,N5179,N5180,  \note fields as indicated
+  N5181,N5182,N5183,N5184,N5185,N5186,N5187,N5188,N5189,N5190,N5191,N5192,N5193,N5194,N5195,N5196,N5197,N5198,N5199,N5200,  \note fields as indicated
+  N5201,N5202,N5203,N5204,N5205,N5206,N5207,N5208,N5209,N5210,N5211,N5212,N5213,N5214,N5215,N5216,N5217,N5218,N5219,N5220,  \note fields as indicated
+  N5221,N5222,N5223,N5224,N5225,N5226,N5227,N5228,N5229,N5230,N5231,N5232,N5233,N5234,N5235,N5236,N5237,N5238,N5239,N5240,  \note fields as indicated
+  N5241,N5242,N5243,N5244,N5245,N5246,N5247,N5248,N5249,N5250,N5251,N5252,N5253,N5254,N5255,N5256,N5257,N5258,N5259,N5260,  \note fields as indicated
+  N5261,N5262,N5263,N5264,N5265,N5266,N5267,N5268,N5269,N5270,N5271,N5272,N5273,N5274,N5275,N5276,N5277,N5278,N5279,N5280,  \note fields as indicated
+  N5281,N5282,N5283,N5284,N5285,N5286,N5287,N5288,N5289,N5290,N5291,N5292,N5293,N5294,N5295,N5296,N5297,N5298,N5299,N5300,  \note fields as indicated
+  N5301,N5302,N5303,N5304,N5305,N5306,N5307,N5308,N5309,N5310,N5311,N5312,N5313,N5314,N5315,N5316,N5317,N5318,N5319,N5320,  \note fields as indicated
+  N5321,N5322,N5323,N5324,N5325,N5326,N5327,N5328,N5329,N5330,N5331,N5332,N5333,N5334,N5335,N5336,N5337,N5338,N5339,N5340,  \note fields as indicated
+  N5341,N5342,N5343,N5344,N5345,N5346,N5347,N5348,N5349,N5350,N5351,N5352,N5353,N5354,N5355,N5356,N5357,N5358,N5359,N5360,  \note fields as indicated
+  N5361,N5362,N5363,N5364,N5365,N5366,N5367,N5368,N5369,N5370,N5371,N5372,N5373,N5374,N5375,N5376,N5377,N5378,N5379,N5380,  \note fields as indicated
+  N5381,N5382,N5383,N5384,N5385,N5386,N5387,N5388,N5389,N5390,N5391,N5392,N5393,N5394,N5395,N5396,N5397,N5398,N5399,N5400,  \note fields as indicated
+  N5401,N5402,N5403,N5404,N5405,N5406,N5407,N5408,N5409,N5410,N5411,N5412,N5413,N5414,N5415,N5416,N5417,N5418,N5419,N5420,  \note fields as indicated
+  N5421,N5422,N5423,N5424,N5425,N5426,N5427,N5428,N5429,N5430,N5431,N5432,N5433,N5434,N5435,N5436,N5437,N5438,N5439,N5440,  \note fields as indicated
+  N5441,N5442,N5443,N5444,N5445,N5446,N5447,N5448,N5449,N5450,N5451,N5452,N5453,N5454,N5455,N5456,N5457,N5458,N5459,N5460,  \note fields as indicated
+  N5461,N5462,N5463,N5464,N5465,N5466,N5467,N5468,N5469,N5470,N5471,N5472,N5473,N5474,N5475,N5476,N5477,N5478,N5479,N5480,  \note fields as indicated
+  N5481,N5482,N5483,N5484,N5485,N5486,N5487,N5488,N5489,N5490,N5491,N5492,N5493,N5494,N5495,N5496,N5497,N5498,N5499,N5500,  \note fields as indicated
+  N5501,N5502,N5503,N5504,N5505,N5506,N5507,N5508,N5509,N5510,N5511,N5512,N5513,N5514,N5515,N5516,N5517,N5518,N5519,N5520,  \note fields as indicated
+  N5521,N5522,N5523,N5524,N5525,N5526,N5527,N5528,N5529,N5530,N5531,N5532,N5533,N5534,N5535,N5536,N5537,N5538,N5539,N5540,  \note fields as indicated
+  N5541,N5542,N5543,N5544,N5545,N5546,N5547,N5548,N5549,N5550,N5551,N5552,N5553,N5554,N5555,N5556,N5557,N5558,N5559,N5560,  \note fields as indicated
+  N5561,N5562,N5563,N5564,N5565,N5566,N5567,N5568,N5569,N5570,N5571,N5572,N5573,N5574,N5575,N5576,N5577,N5578,N5579,N5580,  \note fields as indicated
+  N5581,N5582,N5583,N5584,N5585,N5586,N5587,N5588,N5589,N5590,N5591,N5592,N5593,N5594,N5595,N5596,N5597,N5598,N5599,N5600,  \note fields as indicated
+  N5601,N5602,N5603,N5604,N5605,N5606,N5607,N5608,N5609,N5610,N5611,N5612,N5613,N5614,N5615,N5616,N5617,N5618,N5619,N5620,  \note fields as indicated
+  N5621,N5622,N5623,N5624,N5625,N5626,N5627,N5628,N5629,N5630,N5631,N5632,N5633,N5634,N5635,N5636,N5637,N5638,N5639,N5640,  \note fields as indicated
+  N5641,N5642,N5643,N5644,N5645,N5646,N5647,N5648,N5649,N5650,N5651,N5652,N5653,N5654,N5655,N5656,N5657,N5658,N5659,N5660,  \note fields as indicated
+  N5661,N5662,N5663,N5664,N5665,N5666,N5667,N5668,N5669,N5670,N5671,N5672,N5673,N5674,N5675,N5676,N5677,N5678,N5679,N5680,  \note fields as indicated
+  N5681,N5682,N5683,N5684,N5685,N5686,N5687,N5688,N5689,N5690,N5691,N5692,N5693,N5694,N5695,N5696,N5697,N5698,N5699,N5700,  \note fields as indicated
+  N5701,N5702,N5703,N5704,N5705,N5706,N5707,N5708,N5709,N5710,N5711,N5712,N5713,N5714,N5715,N5716,N5717,N5718,N5719,N5720,  \note fields as indicated
+  N5721,N5722,N5723,N5724,N5725,N5726,N5727,N5728,N5729,N5730,N5731,N5732,N5733,N5734,N5735,N5736,N5737,N5738,N5739,N5740,  \note fields as indicated
+  N5741,N5742,N5743,N5744,N5745,N5746,N5747,N5748,N5749,N5750,N5751,N5752,N5753,N5754,N5755,N5756,N5757,N5758,N5759,N5760,  \note fields as indicated
+  N5761,N5762,N5763,N5764,N5765,N5766,N5767,N5768,N5769,N5770,N5771,N5772,N5773,N5774,N5775,N5776,N5777,N5778,N5779,N5780,  \note fields as indicated
+  N5781,N5782,N5783,N5784,N5785,N5786,N5787,N5788,N5789,N5790,N5791,N5792,N5793,N5794,N5795,N5796,N5797,N5798,N5799,N5800,  \note fields as indicated
+  N5801,N5802,N5803,N5804,N5805,N5806,N5807,N5808,N5809,N5810,N5811,N5812,N5813,N5814,N5815,N5816,N5817,N5818,N5819,N5820,  \note fields as indicated
+  N5821,N5822,N5823,N5824,N5825,N5826,N5827,N5828,N5829,N5830,N5831,N5832,N5833,N5834,N5835,N5836,N5837,N5838,N5839,N5840,  \note fields as indicated
+  N5841,N5842,N5843,N5844,N5845,N5846,N5847,N5848,N5849,N5850,N5851,N5852,N5853,N5854,N5855,N5856,N5857,N5858,N5859,N5860,  \note fields as indicated
+  N5861,N5862,N5863,N5864,N5865,N5866,N5867,N5868,N5869,N5870,N5871,N5872,N5873,N5874,N5875,N5876,N5877,N5878,N5879,N5880,  \note fields as indicated
+  N5881,N5882,N5883,N5884,N5885,N5886,N5887,N5888,N5889,N5890,N5891,N5892,N5893,N5894,N5895,N5896,N5897,N5898,N5899,N5900,  \note fields as indicated
+  N5901,N5902,N5903,N5904,N5905,N5906,N5907,N5908,N5909,N5910,N5911,N5912,N5913,N5914,N5915,N5916,N5917,N5918,N5919,N5920,  \note fields as indicated
+  N5921,N5922,N5923,N5924,N5925,N5926,N5927,N5928,N5929,N5930,N5931,N5932,N5933,N5934,N5935,N5936,N5937,N5938,N5939,N5940,  \note fields as indicated
+  N5941,N5942,N5943,N5944,N5945,N5946,N5947,N5948,N5949,N5950,N5951,N5952,N5953,N5954,N5955,N5956,N5957,N5958,N5959,N5960,  \note fields as indicated
+  N5961,N5962,N5963,N5964,N5965,N5966,N5967,N5968,N5969,N5970,N5971,N5972,N5973,N5974,N5975,N5976,N5977,N5978,N5979,N5980,  \note fields as indicated
+  N5981,N5982,N5983,N5984,N5985,N5986,N5987,N5988,N5989,N5990,N5991,N5992,N5993,N5994,N5995,N5996,N5997,N5998,N5999,N6000,  \note fields as indicated
+  N6001,N6002,N6003,N6004,N6005,N6006,N6007,N6008,N6009,N6010,N6011,N6012,N6013,N6014,N6015,N6016,N6017,N6018,N6019,N6020,  \note fields as indicated
+  N6021,N6022,N6023,N6024,N6025,N6026,N6027,N6028,N6029,N6030,N6031,N6032,N6033,N6034,N6035,N6036,N6037,N6038,N6039,N6040,  \note fields as indicated
+  N6041,N6042,N6043,N6044,N6045,N6046,N6047,N6048,N6049,N6050,N6051,N6052,N6053,N6054,N6055,N6056,N6057,N6058,N6059,N6060,  \note fields as indicated
+  N6061,N6062,N6063,N6064,N6065,N6066,N6067,N6068,N6069,N6070,N6071,N6072,N6073,N6074,N6075,N6076,N6077,N6078,N6079,N6080,  \note fields as indicated
+  N6081,N6082,N6083,N6084,N6085,N6086,N6087,N6088,N6089,N6090,N6091,N6092,N6093,N6094,N6095,N6096,N6097,N6098,N6099,N6100,  \note fields as indicated
+  N6101,N6102,N6103,N6104,N6105,N6106,N6107,N6108,N6109,N6110,N6111,N6112,N6113,N6114,N6115,N6116,N6117,N6118,N6119,N6120,  \note fields as indicated
+  N6121,N6122,N6123,N6124,N6125,N6126,N6127,N6128,N6129,N6130,N6131,N6132,N6133,N6134,N6135,N6136,N6137,N6138,N6139,N6140,  \note fields as indicated
+  N6141,N6142,N6143,N6144,N6145,N6146,N6147,N6148,N6149,N6150,N6151,N6152,N6153,N6154,N6155,N6156,N6157,N6158,N6159,N6160,  \note fields as indicated
+  N6161,N6162,N6163,N6164,N6165,N6166,N6167,N6168,N6169,N6170,N6171,N6172,N6173,N6174,N6175,N6176,N6177,N6178,N6179,N6180,  \note fields as indicated
+  N6181,N6182,N6183,N6184,N6185,N6186,N6187,N6188,N6189,N6190,N6191,N6192,N6193,N6194,N6195,N6196,N6197,N6198,N6199,N6200,  \note fields as indicated
+  N6201,N6202,N6203,N6204,N6205,N6206,N6207,N6208,N6209,N6210,N6211,N6212,N6213,N6214,N6215,N6216,N6217,N6218,N6219,N6220,  \note fields as indicated
+  N6221,N6222,N6223,N6224,N6225,N6226,N6227,N6228,N6229,N6230,N6231,N6232,N6233,N6234,N6235,N6236,N6237,N6238,N6239,N6240,  \note fields as indicated
+  N6241,N6242,N6243,N6244,N6245,N6246,N6247,N6248,N6249,N6250,N6251,N6252,N6253,N6254,N6255,N6256,N6257,N6258,N6259,N6260,  \note fields as indicated
+  N6261,N6262,N6263,N6264,N6265,N6266,N6267,N6268,N6269,N6270,N6271,N6272,N6273,N6274,N6275,N6276,N6277,N6278,N6279,N6280,  \note fields as indicated
+  N6281,N6282,N6283,N6284,N6285,N6286,N6287,N6288,N6289,N6290,N6291,N6292,N6293,N6294,N6295,N6296,N6297,N6298,N6299,N6300,  \note fields as indicated
+  N6301,N6302,N6303,N6304,N6305,N6306,N6307,N6308,N6309,N6310,N6311,N6312,N6313,N6314,N6315,N6316,N6317,N6318,N6319,N6320,  \note fields as indicated
+  N6321,N6322,N6323,N6324,N6325,N6326,N6327,N6328,N6329,N6330,N6331,N6332,N6333,N6334,N6335,N6336,N6337,N6338,N6339,N6340,  \note fields as indicated
+  N6341,N6342,N6343,N6344,N6345,N6346,N6347,N6348,N6349,N6350,N6351,N6352,N6353,N6354,N6355,N6356,N6357,N6358,N6359,N6360,  \note fields as indicated
+  N6361,N6362,N6363,N6364,N6365,N6366,N6367,N6368,N6369,N6370,N6371,N6372,N6373,N6374,N6375,N6376,N6377,N6378,N6379,N6380,  \note fields as indicated
+  N6381,N6382,N6383,N6384,N6385,N6386,N6387,N6388,N6389,N6390,N6391,N6392,N6393,N6394,N6395,N6396,N6397,N6398,N6399,N6400,  \note fields as indicated
+  N6401,N6402,N6403,N6404,N6405,N6406,N6407,N6408,N6409,N6410,N6411,N6412,N6413,N6414,N6415,N6416,N6417,N6418,N6419,N6420,  \note fields as indicated
+  N6421,N6422,N6423,N6424,N6425,N6426,N6427,N6428,N6429,N6430,N6431,N6432,N6433,N6434,N6435,N6436,N6437,N6438,N6439,N6440,  \note fields as indicated
+  N6441,N6442,N6443,N6444,N6445,N6446,N6447,N6448,N6449,N6450,N6451,N6452,N6453,N6454,N6455,N6456,N6457,N6458,N6459,N6460,  \note fields as indicated
+  N6461,N6462,N6463,N6464,N6465,N6466,N6467,N6468,N6469,N6470,N6471,N6472,N6473,N6474,N6475,N6476,N6477,N6478,N6479,N6480,  \note fields as indicated
+  N6481,N6482,N6483,N6484,N6485,N6486,N6487,N6488,N6489,N6490,N6491,N6492,N6493,N6494,N6495,N6496,N6497,N6498,N6499,N6500,  \note fields as indicated
+  N6501,N6502,N6503,N6504,N6505,N6506,N6507,N6508,N6509,N6510,N6511,N6512,N6513,N6514,N6515,N6516,N6517,N6518,N6519,N6520,  \note fields as indicated
+  N6521,N6522,N6523,N6524,N6525,N6526,N6527,N6528,N6529,N6530,N6531,N6532,N6533,N6534,N6535,N6536,N6537,N6538,N6539,N6540,  \note fields as indicated
+  N6541,N6542,N6543,N6544,N6545,N6546,N6547,N6548,N6549,N6550,N6551,N6552,N6553,N6554,N6555,N6556,N6557,N6558,N6559,N6560,  \note fields as indicated
+  N6561,N6562,N6563,N6564,N6565,N6566,N6567,N6568,N6569,N6570,N6571,N6572,N6573,N6574,N6575,N6576,N6577,N6578,N6579,N6580,  \note fields as indicated
+  N6581,N6582,N6583,N6584,N6585,N6586,N6587,N6588,N6589,N6590,N6591,N6592,N6593,N6594,N6595,N6596,N6597,N6598,N6599,N6600,  \note fields as indicated
+  N6601,N6602,N6603,N6604,N6605,N6606,N6607,N6608,N6609,N6610,N6611,N6612,N6613,N6614,N6615,N6616,N6617,N6618,N6619,N6620,  \note fields as indicated
+  N6621,N6622,N6623,N6624,N6625,N6626,N6627,N6628,N6629,N6630,N6631,N6632,N6633,N6634,N6635,N6636,N6637,N6638,N6639,N6640,  \note fields as indicated
+  N6641,N6642,N6643,N6644,N6645,N6646,N6647,N6648,N6649,N6650,N6651,N6652,N6653,N6654,N6655,N6656,N6657,N6658,N6659,N6660,  \note fields as indicated
+  N6661,N6662,N6663,N6664,N6665,N6666,N6667,N6668,N6669,N6670,N6671,N6672,N6673,N6674,N6675,N6676,N6677,N6678,N6679,N6680,  \note fields as indicated
+  N6681,N6682,N6683,N6684,N6685,N6686,N6687,N6688,N6689,N6690,N6691,N6692,N6693,N6694,N6695,N6696,N6697,N6698,N6699,N6700,  \note fields as indicated
+  N6701,N6702,N6703,N6704,N6705,N6706,N6707,N6708,N6709,N6710,N6711,N6712,N6713,N6714,N6715,N6716,N6717,N6718,N6719,N6720,  \note fields as indicated
+  N6721,N6722,N6723,N6724,N6725,N6726,N6727,N6728,N6729,N6730,N6731,N6732,N6733,N6734,N6735,N6736,N6737,N6738,N6739,N6740,  \note fields as indicated
+  N6741,N6742,N6743,N6744,N6745,N6746,N6747,N6748,N6749,N6750,N6751,N6752,N6753,N6754,N6755,N6756,N6757,N6758,N6759,N6760,  \note fields as indicated
+  N6761,N6762,N6763,N6764,N6765,N6766,N6767,N6768,N6769,N6770,N6771,N6772,N6773,N6774,N6775,N6776,N6777,N6778,N6779,N6780,  \note fields as indicated
+  N6781,N6782,N6783,N6784,N6785,N6786,N6787,N6788,N6789,N6790,N6791,N6792,N6793,N6794,N6795,N6796,N6797,N6798,N6799,N6800,  \note fields as indicated
+  N6801,N6802,N6803,N6804,N6805,N6806,N6807,N6808,N6809,N6810,N6811,N6812,N6813,N6814,N6815,N6816,N6817,N6818,N6819,N6820,  \note fields as indicated
+  N6821,N6822,N6823,N6824,N6825,N6826,N6827,N6828,N6829,N6830,N6831,N6832,N6833,N6834,N6835,N6836,N6837,N6838,N6839,N6840,  \note fields as indicated
+  N6841,N6842,N6843,N6844,N6845,N6846,N6847,N6848,N6849,N6850,N6851,N6852,N6853,N6854,N6855,N6856,N6857,N6858,N6859,N6860,  \note fields as indicated
+  N6861,N6862,N6863,N6864,N6865,N6866,N6867,N6868,N6869,N6870,N6871,N6872,N6873,N6874,N6875,N6876,N6877,N6878,N6879,N6880,  \note fields as indicated
+  N6881,N6882,N6883,N6884,N6885,N6886,N6887,N6888,N6889,N6890,N6891,N6892,N6893,N6894,N6895,N6896,N6897,N6898,N6899,N6900,  \note fields as indicated
+  N6901,N6902,N6903,N6904,N6905,N6906,N6907,N6908,N6909,N6910,N6911,N6912,N6913,N6914,N6915,N6916,N6917,N6918,N6919,N6920,  \note fields as indicated
+  N6921,N6922,N6923,N6924,N6925,N6926,N6927,N6928,N6929,N6930,N6931,N6932,N6933,N6934,N6935,N6936,N6937,N6938,N6939,N6940,  \note fields as indicated
+  N6941,N6942,N6943,N6944,N6945,N6946,N6947,N6948,N6949,N6950,N6951,N6952,N6953,N6954,N6955,N6956,N6957,N6958,N6959,N6960,  \note fields as indicated
+  N6961,N6962,N6963,N6964,N6965,N6966,N6967,N6968,N6969,N6970,N6971,N6972,N6973,N6974,N6975,N6976,N6977,N6978,N6979,N6980,  \note fields as indicated
+  N6981,N6982,N6983,N6984,N6985,N6986,N6987,N6988,N6989,N6990,N6991,N6992,N6993,N6994,N6995,N6996,N6997,N6998,N6999,N7000,  \note fields as indicated
+  N7001,N7002,N7003,N7004,N7005,N7006,N7007,N7008,N7009,N7010,N7011,N7012,N7013,N7014,N7015,N7016,N7017,N7018,N7019,N7020,  \note fields as indicated
+  N7021,N7022,N7023,N7024,N7025,N7026,N7027,N7028,N7029,N7030,N7031,N7032,N7033,N7034,N7035,N7036,N7037,N7038,N7039,N7040,  \note fields as indicated
+  N7041,N7042,N7043,N7044,N7045,N7046,N7047,N7048,N7049,N7050,N7051,N7052,N7053,N7054,N7055,N7056,N7057,N7058,N7059,N7060,  \note fields as indicated
+  N7061,N7062,N7063,N7064,N7065,N7066,N7067,N7068,N7069,N7070,N7071,N7072,N7073,N7074,N7075,N7076,N7077,N7078,N7079,N7080,  \note fields as indicated
+  N7081,N7082,N7083,N7084,N7085,N7086,N7087,N7088,N7089,N7090,N7091,N7092,N7093,N7094,N7095,N7096,N7097,N7098,N7099,N7100,  \note fields as indicated
+  N7101,N7102,N7103,N7104,N7105,N7106,N7107,N7108,N7109,N7110,N7111,N7112,N7113,N7114,N7115,N7116,N7117,N7118,N7119,N7120,  \note fields as indicated
+  N7121,N7122,N7123,N7124,N7125,N7126,N7127,N7128,N7129,N7130,N7131,N7132,N7133,N7134,N7135,N7136,N7137,N7138,N7139,N7140,  \note fields as indicated
+  N7141,N7142,N7143,N7144,N7145,N7146,N7147,N7148,N7149,N7150,N7151,N7152,N7153,N7154,N7155,N7156,N7157,N7158,N7159,N7160,  \note fields as indicated
+  N7161,N7162,N7163,N7164,N7165,N7166,N7167,N7168,N7169,N7170,N7171,N7172,N7173,N7174,N7175,N7176,N7177,N7178,N7179,N7180,  \note fields as indicated
+  N7181,N7182,N7183,N7184,N7185,N7186,N7187,N7188,N7189,N7190,N7191,N7192,N7193,N7194,N7195,N7196,N7197,N7198,N7199,N7200,  \note fields as indicated
+  N7201,N7202,N7203,N7204,N7205,N7206,N7207,N7208,N7209,N7210,N7211,N7212,N7213,N7214,N7215,N7216,N7217,N7218,N7219,N7220,  \note fields as indicated
+  N7221,N7222,N7223,N7224,N7225,N7226,N7227,N7228,N7229,N7230,N7231,N7232,N7233,N7234,N7235,N7236,N7237,N7238,N7239,N7240,  \note fields as indicated
+  N7241,N7242,N7243,N7244,N7245,N7246,N7247,N7248,N7249,N7250,N7251,N7252,N7253,N7254,N7255,N7256,N7257,N7258,N7259,N7260,  \note fields as indicated
+  N7261,N7262,N7263,N7264,N7265,N7266,N7267,N7268,N7269,N7270,N7271,N7272,N7273,N7274,N7275,N7276,N7277,N7278,N7279,N7280,  \note fields as indicated
+  N7281,N7282,N7283,N7284,N7285,N7286,N7287,N7288,N7289,N7290,N7291,N7292,N7293,N7294,N7295,N7296,N7297,N7298,N7299,N7300,  \note fields as indicated
+  N7301,N7302,N7303,N7304,N7305,N7306,N7307,N7308,N7309,N7310,N7311,N7312,N7313,N7314,N7315,N7316,N7317,N7318,N7319,N7320,  \note fields as indicated
+  N7321,N7322,N7323,N7324,N7325,N7326,N7327,N7328,N7329,N7330,N7331,N7332,N7333,N7334,N7335,N7336,N7337,N7338,N7339,N7340,  \note fields as indicated
+  N7341,N7342,N7343,N7344,N7345,N7346,N7347,N7348,N7349,N7350,N7351,N7352,N7353,N7354,N7355,N7356,N7357,N7358,N7359,N7360,  \note fields as indicated
+  N7361,N7362,N7363,N7364,N7365,N7366,N7367,N7368,N7369,N7370,N7371,N7372,N7373,N7374,N7375,N7376,N7377,N7378,N7379,N7380,  \note fields as indicated
+  N7381,N7382,N7383,N7384,N7385,N7386,N7387,N7388,N7389,N7390,N7391,N7392,N7393,N7394,N7395,N7396,N7397,N7398,N7399,N7400,  \note fields as indicated
+  N7401,N7402,N7403,N7404,N7405,N7406,N7407,N7408,N7409,N7410,N7411,N7412,N7413,N7414,N7415,N7416,N7417,N7418,N7419,N7420,  \note fields as indicated
+  N7421,N7422,N7423,N7424,N7425,N7426,N7427,N7428,N7429,N7430,N7431,N7432,N7433,N7434,N7435,N7436,N7437,N7438,N7439,N7440,  \note fields as indicated
+  N7441,N7442,N7443,N7444,N7445,N7446,N7447,N7448,N7449,N7450,N7451,N7452,N7453,N7454,N7455,N7456,N7457,N7458,N7459,N7460,  \note fields as indicated
+  N7461,N7462,N7463,N7464,N7465,N7466,N7467,N7468,N7469,N7470,N7471,N7472,N7473,N7474,N7475,N7476,N7477,N7478,N7479,N7480,  \note fields as indicated
+  N7481,N7482,N7483,N7484,N7485,N7486,N7487,N7488,N7489,N7490,N7491,N7492,N7493,N7494,N7495,N7496,N7497,N7498,N7499,N7500,  \note fields as indicated
+  N7501,N7502,N7503,N7504,N7505,N7506,N7507,N7508,N7509,N7510,N7511,N7512,N7513,N7514,N7515,N7516,N7517,N7518,N7519,N7520,  \note fields as indicated
+  N7521,N7522,N7523,N7524,N7525,N7526,N7527,N7528,N7529,N7530,N7531,N7532,N7533,N7534,N7535,N7536,N7537,N7538,N7539,N7540,  \note fields as indicated
+  N7541,N7542,N7543,N7544,N7545,N7546,N7547,N7548,N7549,N7550,N7551,N7552,N7553,N7554,N7555,N7556,N7557,N7558,N7559,N7560,  \note fields as indicated
+  N7561,N7562,N7563,N7564,N7565,N7566,N7567,N7568,N7569,N7570,N7571,N7572,N7573,N7574,N7575,N7576,N7577,N7578,N7579,N7580,  \note fields as indicated
+  N7581,N7582,N7583,N7584,N7585,N7586,N7587,N7588,N7589,N7590,N7591,N7592,N7593,N7594,N7595,N7596,N7597,N7598,N7599,N7600,  \note fields as indicated
+  N7601,N7602,N7603,N7604,N7605,N7606,N7607,N7608,N7609,N7610,N7611,N7612,N7613,N7614,N7615,N7616,N7617,N7618,N7619,N7620,  \note fields as indicated
+  N7621,N7622,N7623,N7624,N7625,N7626,N7627,N7628,N7629,N7630,N7631,N7632,N7633,N7634,N7635,N7636,N7637,N7638,N7639,N7640,  \note fields as indicated
+  N7641,N7642,N7643,N7644,N7645,N7646,N7647,N7648,N7649,N7650,N7651,N7652,N7653,N7654,N7655,N7656,N7657,N7658,N7659,N7660,  \note fields as indicated
+  N7661,N7662,N7663,N7664,N7665,N7666,N7667,N7668,N7669,N7670,N7671,N7672,N7673,N7674,N7675,N7676,N7677,N7678,N7679,N7680,  \note fields as indicated
+  N7681,N7682,N7683,N7684,N7685,N7686,N7687,N7688,N7689,N7690,N7691,N7692,N7693,N7694,N7695,N7696,N7697,N7698,N7699,N7700,  \note fields as indicated
+  N7701,N7702,N7703,N7704,N7705,N7706,N7707,N7708,N7709,N7710,N7711,N7712,N7713,N7714,N7715,N7716,N7717,N7718,N7719,N7720,  \note fields as indicated
+  N7721,N7722,N7723,N7724,N7725,N7726,N7727,N7728,N7729,N7730,N7731,N7732,N7733,N7734,N7735,N7736,N7737,N7738,N7739,N7740,  \note fields as indicated
+  N7741,N7742,N7743,N7744,N7745,N7746,N7747,N7748,N7749,N7750,N7751,N7752,N7753,N7754,N7755,N7756,N7757,N7758,N7759,N7760,  \note fields as indicated
+  N7761,N7762,N7763,N7764,N7765,N7766,N7767,N7768,N7769,N7770,N7771,N7772,N7773,N7774,N7775,N7776,N7777,N7778,N7779,N7780,  \note fields as indicated
+  N7781,N7782,N7783,N7784,N7785,N7786,N7787,N7788,N7789,N7790,N7791,N7792,N7793,N7794,N7795,N7796,N7797,N7798,N7799,N7800,  \note fields as indicated
+  N7801,N7802,N7803,N7804,N7805,N7806,N7807,N7808,N7809,N7810,N7811,N7812,N7813,N7814,N7815,N7816,N7817,N7818,N7819,N7820,  \note fields as indicated
+  N7821,N7822,N7823,N7824,N7825,N7826,N7827,N7828,N7829,N7830,N7831,N7832,N7833,N7834,N7835,N7836,N7837,N7838,N7839,N7840,  \note fields as indicated
+  N7841,N7842,N7843,N7844,N7845,N7846,N7847,N7848,N7849,N7850,N7851,N7852,N7853,N7854,N7855,N7856,N7857,N7858,N7859,N7860,  \note fields as indicated
+  N7861,N7862,N7863,N7864,N7865,N7866,N7867,N7868,N7869,N7870,N7871,N7872,N7873,N7874,N7875,N7876,N7877,N7878,N7879,N7880,  \note fields as indicated
+  N7881,N7882,N7883,N7884,N7885,N7886,N7887,N7888,N7889,N7890,N7891,N7892,N7893,N7894,N7895,N7896,N7897,N7898,N7899,N7900,  \note fields as indicated
+  N7901,N7902,N7903,N7904,N7905,N7906,N7907,N7908,N7909,N7910,N7911,N7912,N7913,N7914,N7915,N7916,N7917,N7918,N7919,N7920,  \note fields as indicated
+  N7921,N7922,N7923,N7924,N7925,N7926,N7927,N7928,N7929,N7930,N7931,N7932,N7933,N7934,N7935,N7936,N7937,N7938,N7939,N7940,  \note fields as indicated
+  N7941,N7942,N7943,N7944,N7945,N7946,N7947,N7948,N7949,N7950,N7951,N7952,N7953,N7954,N7955,N7956,N7957,N7958,N7959,N7960,  \note fields as indicated
+  N7961,N7962,N7963,N7964,N7965,N7966,N7967,N7968,N7969,N7970,N7971,N7972,N7973,N7974,N7975,N7976,N7977,N7978,N7979,N7980,  \note fields as indicated
+  N7981,N7982,N7983,N7984,N7985,N7986,N7987,N7988,N7989,N7990,N7991,N7992,N7993,N7994,N7995,N7996,N7997,N7998,N7999,N8000,  \note fields as indicated
+  N8001,N8002,N8003,N8004,N8005,N8006,N8007,N8008,N8009,N8010,N8011,N8012,N8013,N8014,N8015,N8016,N8017,N8018,N8019,N8020,  \note fields as indicated
+  N8021,N8022,N8023,N8024,N8025,N8026,N8027,N8028,N8029,N8030,N8031,N8032,N8033,N8034,N8035,N8036,N8037,N8038,N8039,N8040,  \note fields as indicated
+  N8041,N8042,N8043,N8044,N8045,N8046,N8047,N8048,N8049,N8050,N8051,N8052,N8053,N8054,N8055,N8056,N8057,N8058,N8059,N8060,  \note fields as indicated
+  N8061,N8062,N8063,N8064,N8065,N8066,N8067,N8068,N8069,N8070,N8071,N8072,N8073,N8074,N8075,N8076,N8077,N8078,N8079,N8080,  \note fields as indicated
+  N8081,N8082,N8083,N8084,N8085,N8086,N8087,N8088,N8089,N8090,N8091,N8092,N8093,N8094,N8095,N8096,N8097,N8098,N8099,N8100,  \note fields as indicated
+  N8101,N8102,N8103,N8104,N8105,N8106,N8107,N8108,N8109,N8110,N8111,N8112,N8113,N8114,N8115,N8116,N8117,N8118,N8119,N8120,  \note fields as indicated
+  N8121,N8122,N8123,N8124,N8125,N8126,N8127,N8128,N8129,N8130,N8131,N8132,N8133,N8134,N8135,N8136,N8137,N8138,N8139,N8140,  \note fields as indicated
+  N8141,N8142,N8143,N8144,N8145,N8146,N8147,N8148,N8149,N8150,N8151,N8152,N8153,N8154,N8155,N8156,N8157,N8158,N8159,N8160,  \note fields as indicated
+  N8161,N8162,N8163,N8164,N8165,N8166,N8167,N8168,N8169,N8170,N8171,N8172,N8173,N8174,N8175,N8176,N8177,N8178,N8179,N8180,  \note fields as indicated
+  N8181,N8182,N8183,N8184,N8185,N8186,N8187,N8188,N8189,N8190,N8191,N8192,N8193,N8194,N8195,N8196,N8197,N8198,N8199,N8200,  \note fields as indicated
+  N8201,N8202,N8203,N8204,N8205,N8206,N8207,N8208,N8209,N8210,N8211,N8212,N8213,N8214,N8215,N8216,N8217,N8218,N8219,N8220,  \note fields as indicated
+  N8221,N8222,N8223,N8224,N8225,N8226,N8227,N8228,N8229,N8230,N8231,N8232,N8233,N8234,N8235,N8236,N8237,N8238,N8239,N8240,  \note fields as indicated
+  N8241,N8242,N8243,N8244,N8245,N8246,N8247,N8248,N8249,N8250,N8251,N8252,N8253,N8254,N8255,N8256,N8257,N8258,N8259,N8260,  \note fields as indicated
+  N8261,N8262,N8263,N8264,N8265,N8266,N8267,N8268,N8269,N8270,N8271,N8272,N8273,N8274,N8275,N8276,N8277,N8278,N8279,N8280,  \note fields as indicated
+  N8281,N8282,N8283,N8284,N8285,N8286,N8287,N8288,N8289,N8290,N8291,N8292,N8293,N8294,N8295,N8296,N8297,N8298,N8299,N8300,  \note fields as indicated
+  N8301,N8302,N8303,N8304,N8305,N8306,N8307,N8308,N8309,N8310,N8311,N8312,N8313,N8314,N8315,N8316,N8317,N8318,N8319,N8320,  \note fields as indicated
+  N8321,N8322,N8323,N8324,N8325,N8326,N8327,N8328,N8329,N8330,N8331,N8332,N8333,N8334,N8335,N8336,N8337,N8338,N8339,N8340,  \note fields as indicated
+  N8341,N8342,N8343,N8344,N8345,N8346,N8347,N8348,N8349,N8350,N8351,N8352,N8353,N8354,N8355,N8356,N8357,N8358,N8359,N8360,  \note fields as indicated
+  N8361,N8362,N8363,N8364,N8365,N8366,N8367,N8368,N8369,N8370,N8371,N8372,N8373,N8374,N8375,N8376,N8377,N8378,N8379,N8380,  \note fields as indicated
+  N8381,N8382,N8383,N8384,N8385,N8386,N8387,N8388,N8389,N8390,N8391,N8392,N8393,N8394,N8395,N8396,N8397,N8398,N8399,N8400,  \note fields as indicated
+  N8401,N8402,N8403,N8404,N8405,N8406,N8407,N8408,N8409,N8410,N8411,N8412,N8413,N8414,N8415,N8416,N8417,N8418,N8419,N8420,  \note fields as indicated
+  N8421,N8422,N8423,N8424,N8425,N8426,N8427,N8428,N8429,N8430,N8431,N8432,N8433,N8434,N8435,N8436,N8437,N8438,N8439,N8440,  \note fields as indicated
+  N8441,N8442,N8443,N8444,N8445,N8446,N8447,N8448,N8449,N8450,N8451,N8452,N8453,N8454,N8455,N8456,N8457,N8458,N8459,N8460,  \note fields as indicated
+  N8461,N8462,N8463,N8464,N8465,N8466,N8467,N8468,N8469,N8470,N8471,N8472,N8473,N8474,N8475,N8476,N8477,N8478,N8479,N8480,  \note fields as indicated
+  N8481,N8482,N8483,N8484,N8485,N8486,N8487,N8488,N8489,N8490,N8491,N8492,N8493,N8494,N8495,N8496,N8497,N8498,N8499,N8500,  \note fields as indicated
+  N8501,N8502,N8503,N8504,N8505,N8506,N8507,N8508,N8509,N8510,N8511,N8512,N8513,N8514,N8515,N8516,N8517,N8518,N8519,N8520,  \note fields as indicated
+  N8521,N8522,N8523,N8524,N8525,N8526,N8527,N8528,N8529,N8530,N8531,N8532,N8533,N8534,N8535,N8536,N8537,N8538,N8539,N8540,  \note fields as indicated
+  N8541,N8542,N8543,N8544,N8545,N8546,N8547,N8548,N8549,N8550,N8551,N8552,N8553,N8554,N8555,N8556,N8557,N8558,N8559,N8560,  \note fields as indicated
+  N8561,N8562,N8563,N8564,N8565,N8566,N8567,N8568,N8569,N8570,N8571,N8572,N8573,N8574,N8575,N8576,N8577,N8578,N8579,N8580,  \note fields as indicated
+  N8581,N8582,N8583,N8584,N8585,N8586,N8587,N8588,N8589,N8590,N8591,N8592,N8593,N8594,N8595,N8596,N8597,N8598,N8599,N8600,  \note fields as indicated
+  N8601,N8602,N8603,N8604,N8605,N8606,N8607,N8608,N8609,N8610,N8611,N8612,N8613,N8614,N8615,N8616,N8617,N8618,N8619,N8620,  \note fields as indicated
+  N8621,N8622,N8623,N8624,N8625,N8626,N8627,N8628,N8629,N8630,N8631,N8632,N8633,N8634,N8635,N8636,N8637,N8638,N8639,N8640,  \note fields as indicated
+  N8641,N8642,N8643,N8644,N8645,N8646,N8647,N8648,N8649,N8650,N8651,N8652,N8653,N8654,N8655,N8656,N8657,N8658,N8659,N8660,  \note fields as indicated
+  N8661,N8662,N8663,N8664,N8665,N8666,N8667,N8668,N8669,N8670,N8671,N8672,N8673,N8674,N8675,N8676,N8677,N8678,N8679,N8680,  \note fields as indicated
+  N8681,N8682,N8683,N8684,N8685,N8686,N8687,N8688,N8689,N8690,N8691,N8692,N8693,N8694,N8695,N8696,N8697,N8698,N8699,N8700,  \note fields as indicated
+  N8701,N8702,N8703,N8704,N8705,N8706,N8707,N8708,N8709,N8710,N8711,N8712,N8713,N8714,N8715,N8716,N8717,N8718,N8719,N8720,  \note fields as indicated
+  N8721,N8722,N8723,N8724,N8725,N8726,N8727,N8728,N8729,N8730,N8731,N8732,N8733,N8734,N8735,N8736,N8737,N8738,N8739,N8740,  \note fields as indicated
+  N8741,N8742,N8743,N8744,N8745,N8746,N8747,N8748,N8749,N8750,N8751,N8752,N8753,N8754,N8755,N8756,N8757,N8758,N8759,N8760,  \note fields as indicated
+  N8761,N8762,N8763,N8764,N8765,N8766,N8767,N8768,N8769,N8770,N8771,N8772,N8773,N8774,N8775,N8776,N8777,N8778,N8779,N8780,  \note fields as indicated
+  N8781,N8782,N8783,N8784,N8785,N8786,N8787,N8788,N8789,N8790,N8791,N8792,N8793,N8794,N8795,N8796,N8797,N8798,N8799,N8800,  \note fields as indicated
+  N8801,N8802,N8803,N8804,N8805,N8806,N8807,N8808,N8809,N8810,N8811,N8812,N8813,N8814,N8815,N8816,N8817,N8818,N8819,N8820,  \note fields as indicated
+  N8821,N8822,N8823,N8824,N8825,N8826,N8827,N8828,N8829,N8830,N8831,N8832,N8833,N8834,N8835,N8836,N8837,N8838,N8839,N8840,  \note fields as indicated
+  N8841,N8842,N8843,N8844,N8845,N8846,N8847,N8848,N8849,N8850,N8851,N8852,N8853,N8854,N8855,N8856,N8857,N8858,N8859,N8860,  \note fields as indicated
+  N8861,N8862,N8863,N8864,N8865,N8866,N8867,N8868,N8869,N8870,N8871,N8872,N8873,N8874,N8875,N8876,N8877,N8878,N8879,N8880,  \note fields as indicated
+  N8881,N8882,N8883,N8884,N8885,N8886,N8887,N8888,N8889,N8890,N8891,N8892,N8893,N8894,N8895,N8896,N8897,N8898,N8899,N8900,  \note fields as indicated
+  N8901,N8902,N8903,N8904,N8905,N8906,N8907,N8908,N8909,N8910,N8911,N8912,N8913,N8914,N8915,N8916,N8917,N8918,N8919,N8920,  \note fields as indicated
+  N8921,N8922,N8923,N8924,N8925,N8926,N8927,N8928,N8929,N8930,N8931,N8932,N8933,N8934,N8935,N8936,N8937,N8938,N8939,N8940,  \note fields as indicated
+  N8941,N8942,N8943,N8944,N8945,N8946,N8947,N8948,N8949,N8950,N8951,N8952,N8953,N8954,N8955,N8956,N8957,N8958,N8959,N8960,  \note fields as indicated
+  N8961,N8962,N8963,N8964,N8965,N8966,N8967,N8968,N8969,N8970,N8971,N8972,N8973,N8974,N8975,N8976,N8977,N8978,N8979,N8980,  \note fields as indicated
+  N8981,N8982,N8983,N8984,N8985,N8986,N8987,N8988,N8989,N8990,N8991,N8992,N8993,N8994,N8995,N8996,N8997,N8998,N8999,N9000,  \note fields as indicated
+  N9001,N9002,N9003,N9004,N9005,N9006,N9007,N9008,N9009,N9010,N9011,N9012,N9013,N9014,N9015,N9016,N9017,N9018,N9019,N9020,  \note fields as indicated
+  N9021,N9022,N9023,N9024,N9025,N9026,N9027,N9028,N9029,N9030,N9031,N9032,N9033,N9034,N9035,N9036,N9037,N9038,N9039,N9040,  \note fields as indicated
+  N9041,N9042,N9043,N9044,N9045,N9046,N9047,N9048,N9049,N9050,N9051,N9052,N9053,N9054,N9055,N9056,N9057,N9058,N9059,N9060,  \note fields as indicated
+  N9061,N9062,N9063,N9064,N9065,N9066,N9067,N9068,N9069,N9070,N9071,N9072,N9073,N9074,N9075,N9076,N9077,N9078,N9079,N9080,  \note fields as indicated
+  N9081,N9082,N9083,N9084,N9085,N9086,N9087,N9088,N9089,N9090,N9091,N9092,N9093,N9094,N9095,N9096,N9097,N9098,N9099,N9100,  \note fields as indicated
+  N9101,N9102,N9103,N9104,N9105,N9106,N9107,N9108,N9109,N9110,N9111,N9112,N9113,N9114,N9115,N9116,N9117,N9118,N9119,N9120,  \note fields as indicated
+  N9121,N9122,N9123,N9124,N9125,N9126,N9127,N9128,N9129,N9130,N9131,N9132,N9133,N9134,N9135,N9136,N9137,N9138,N9139,N9140,  \note fields as indicated
+  N9141,N9142,N9143,N9144,N9145,N9146,N9147,N9148,N9149,N9150,N9151,N9152,N9153,N9154,N9155,N9156,N9157,N9158,N9159,N9160,  \note fields as indicated
+  N9161,N9162,N9163,N9164,N9165,N9166,N9167,N9168,N9169,N9170,N9171,N9172,N9173,N9174,N9175,N9176,N9177,N9178,N9179,N9180,  \note fields as indicated
+  N9181,N9182,N9183,N9184,N9185,N9186,N9187,N9188,N9189,N9190,N9191,N9192,N9193,N9194,N9195,N9196,N9197,N9198,N9199,N9200,  \note fields as indicated
+  N9201,N9202,N9203,N9204,N9205,N9206,N9207,N9208,N9209,N9210,N9211,N9212,N9213,N9214,N9215,N9216,N9217,N9218,N9219,N9220,  \note fields as indicated
+  N9221,N9222,N9223,N9224,N9225,N9226,N9227,N9228,N9229,N9230,N9231,N9232,N9233,N9234,N9235,N9236,N9237,N9238,N9239,N9240,  \note fields as indicated
+  N9241,N9242,N9243,N9244,N9245,N9246,N9247,N9248,N9249,N9250,N9251,N9252,N9253,N9254,N9255,N9256,N9257,N9258,N9259,N9260,  \note fields as indicated
+  N9261,N9262,N9263,N9264,N9265,N9266,N9267,N9268,N9269,N9270,N9271,N9272,N9273,N9274,N9275,N9276,N9277,N9278,N9279,N9280,  \note fields as indicated
+  N9281,N9282,N9283,N9284,N9285,N9286,N9287,N9288,N9289,N9290,N9291,N9292,N9293,N9294,N9295,N9296,N9297,N9298,N9299,N9300,  \note fields as indicated
+  N9301,N9302,N9303,N9304,N9305,N9306,N9307,N9308,N9309,N9310,N9311,N9312,N9313,N9314,N9315,N9316,N9317,N9318,N9319,N9320,  \note fields as indicated
+  N9321,N9322,N9323,N9324,N9325,N9326,N9327,N9328,N9329,N9330,N9331,N9332,N9333,N9334,N9335,N9336,N9337,N9338,N9339,N9340,  \note fields as indicated
+  N9341,N9342,N9343,N9344,N9345,N9346,N9347,N9348,N9349,N9350,N9351,N9352,N9353,N9354,N9355,N9356,N9357,N9358,N9359,N9360,  \note fields as indicated
+  N9361,N9362,N9363,N9364,N9365,N9366,N9367,N9368,N9369,N9370,N9371,N9372,N9373,N9374,N9375,N9376,N9377,N9378,N9379,N9380,  \note fields as indicated
+  N9381,N9382,N9383,N9384,N9385,N9386,N9387,N9388,N9389,N9390,N9391,N9392,N9393,N9394,N9395,N9396,N9397,N9398,N9399,N9400,  \note fields as indicated
+  N9401,N9402,N9403,N9404,N9405,N9406,N9407,N9408,N9409,N9410,N9411,N9412,N9413,N9414,N9415,N9416,N9417,N9418,N9419,N9420,  \note fields as indicated
+  N9421,N9422,N9423,N9424,N9425,N9426,N9427,N9428,N9429,N9430,N9431,N9432,N9433,N9434,N9435,N9436,N9437,N9438,N9439,N9440,  \note fields as indicated
+  N9441,N9442,N9443,N9444,N9445,N9446,N9447,N9448,N9449,N9450,N9451,N9452,N9453,N9454,N9455,N9456,N9457,N9458,N9459,N9460,  \note fields as indicated
+  N9461,N9462,N9463,N9464,N9465,N9466,N9467,N9468,N9469,N9470,N9471,N9472,N9473,N9474,N9475,N9476,N9477,N9478,N9479,N9480,  \note fields as indicated
+  N9481,N9482,N9483,N9484,N9485,N9486,N9487,N9488,N9489,N9490,N9491,N9492,N9493,N9494,N9495,N9496,N9497,N9498,N9499,N9500,  \note fields as indicated
+  N9501,N9502,N9503,N9504,N9505,N9506,N9507,N9508,N9509,N9510,N9511,N9512,N9513,N9514,N9515,N9516,N9517,N9518,N9519,N9520,  \note fields as indicated
+  N9521,N9522,N9523,N9524,N9525,N9526,N9527,N9528,N9529,N9530,N9531,N9532,N9533,N9534,N9535,N9536,N9537,N9538,N9539,N9540,  \note fields as indicated
+  N9541,N9542,N9543,N9544,N9545,N9546,N9547,N9548,N9549,N9550,N9551,N9552,N9553,N9554,N9555,N9556,N9557,N9558,N9559,N9560,  \note fields as indicated
+  N9561,N9562,N9563,N9564,N9565,N9566,N9567,N9568,N9569,N9570,N9571,N9572,N9573,N9574,N9575,N9576,N9577,N9578,N9579,N9580,  \note fields as indicated
+  N9581,N9582,N9583,N9584,N9585,N9586,N9587,N9588,N9589,N9590,N9591,N9592,N9593,N9594,N9595,N9596,N9597,N9598,N9599,N9600,  \note fields as indicated
+  N9601,N9602,N9603,N9604,N9605,N9606,N9607,N9608,N9609,N9610,N9611,N9612,N9613,N9614,N9615,N9616,N9617,N9618,N9619,N9620,  \note fields as indicated
+  N9621,N9622,N9623,N9624,N9625,N9626,N9627,N9628,N9629,N9630,N9631,N9632,N9633,N9634,N9635,N9636,N9637,N9638,N9639,N9640,  \note fields as indicated
+  N9641,N9642,N9643,N9644,N9645,N9646,N9647,N9648,N9649,N9650,N9651,N9652,N9653,N9654,N9655,N9656,N9657,N9658,N9659,N9660,  \note fields as indicated
+  N9661,N9662,N9663,N9664,N9665,N9666,N9667,N9668,N9669,N9670,N9671,N9672,N9673,N9674,N9675,N9676,N9677,N9678,N9679,N9680,  \note fields as indicated
+  N9681,N9682,N9683,N9684,N9685,N9686,N9687,N9688,N9689,N9690,N9691,N9692,N9693,N9694,N9695,N9696,N9697,N9698,N9699,N9700,  \note fields as indicated
+  N9701,N9702,N9703,N9704,N9705,N9706,N9707,N9708,N9709,N9710,N9711,N9712,N9713,N9714,N9715,N9716,N9717,N9718,N9719,N9720,  \note fields as indicated
+  N9721,N9722,N9723,N9724,N9725,N9726,N9727,N9728,N9729,N9730,N9731,N9732,N9733,N9734,N9735,N9736,N9737,N9738,N9739,N9740,  \note fields as indicated
+  N9741,N9742,N9743,N9744,N9745,N9746,N9747,N9748,N9749,N9750,N9751,N9752,N9753,N9754,N9755,N9756,N9757,N9758,N9759,N9760,  \note fields as indicated
+  N9761,N9762,N9763,N9764,N9765,N9766,N9767,N9768,N9769,N9770,N9771,N9772,N9773,N9774,N9775,N9776,N9777,N9778,N9779,N9780,  \note fields as indicated
+  N9781,N9782,N9783,N9784,N9785,N9786,N9787,N9788,N9789,N9790,N9791,N9792,N9793,N9794,N9795,N9796,N9797,N9798,N9799,N9800,  \note fields as indicated
+  N9801,N9802,N9803,N9804,N9805,N9806,N9807,N9808,N9809,N9810,N9811,N9812,N9813,N9814,N9815,N9816,N9817,N9818,N9819,N9820,  \note fields as indicated
+  N9821,N9822,N9823,N9824,N9825,N9826,N9827,N9828,N9829,N9830,N9831,N9832,N9833,N9834,N9835,N9836,N9837,N9838,N9839,N9840,  \note fields as indicated
+  N9841,N9842,N9843,N9844,N9845,N9846,N9847,N9848,N9849,N9850,N9851,N9852,N9853,N9854,N9855,N9856,N9857,N9858,N9859,N9860,  \note fields as indicated
+  N9861,N9862,N9863,N9864,N9865,N9866,N9867,N9868,N9869,N9870,N9871,N9872,N9873,N9874,N9875,N9876,N9877,N9878,N9879,N9880,  \note fields as indicated
+  N9881,N9882,N9883,N9884,N9885,N9886,N9887,N9888,N9889,N9890,N9891,N9892,N9893,N9894,N9895,N9896,N9897,N9898,N9899,N9900,  \note fields as indicated
+  N9901,N9902,N9903,N9904,N9905,N9906,N9907,N9908,N9909,N9910,N9911,N9912,N9913,N9914,N9915,N9916,N9917,N9918,N9919,N9920,  \note fields as indicated
+  N9921,N9922,N9923,N9924,N9925,N9926,N9927,N9928,N9929,N9930,N9931,N9932,N9933,N9934,N9935,N9936,N9937,N9938,N9939,N9940,  \note fields as indicated
+  N9941,N9942,N9943,N9944,N9945,N9946,N9947,N9948,N9949,N9950,N9951,N9952,N9953,N9954,N9955,N9956,N9957,N9958,N9959,N9960,  \note fields as indicated
+  N9961,N9962,N9963,N9964,N9965,N9966,N9967,N9968,N9969,N9970,N9971,N9972,N9973,N9974,N9975,N9976,N9977,N9978,N9979,N9980,  \note fields as indicated
+  N9981,N9982,N9983,N9984,N9985,N9986,N9987,N9988,N9989,N9990,N9991,N9992,N9993,N9994,N9995,N9996,N9997,N9998,N9999,N10000,  \note fields as indicated
+  N10001,N10002,N10003,N10004,N10005,N10006,N10007,N10008,N10009,N10010,N10011,N10012,N10013,N10014,N10015,N10016,N10017,N10018,N10019,N10020,  \note fields as indicated
+  N10021,N10022,N10023,N10024,N10025,N10026,N10027,N10028,N10029,N10030,N10031,N10032,N10033,N10034,N10035,N10036,N10037,N10038,N10039,N10040,  \note fields as indicated
+  N10041,N10042,N10043,N10044,N10045,N10046,N10047,N10048,N10049,N10050,N10051,N10052,N10053,N10054,N10055,N10056,N10057,N10058,N10059,N10060,  \note fields as indicated
+  N10061,N10062,N10063,N10064,N10065,N10066,N10067,N10068,N10069,N10070,N10071,N10072,N10073,N10074,N10075,N10076,N10077,N10078,N10079,N10080,  \note fields as indicated
+  N10081,N10082,N10083,N10084,N10085,N10086,N10087,N10088,N10089,N10090,N10091,N10092,N10093,N10094,N10095,N10096,N10097,N10098,N10099,N10100,  \note fields as indicated
+  N10101,N10102,N10103,N10104,N10105,N10106,N10107,N10108,N10109,N10110,N10111,N10112,N10113,N10114,N10115,N10116,N10117,N10118,N10119,N10120,  \note fields as indicated
+  N10121,N10122,N10123,N10124,N10125,N10126,N10127,N10128,N10129,N10130,N10131,N10132,N10133,N10134,N10135,N10136,N10137,N10138,N10139,N10140,  \note fields as indicated
+  N10141,N10142,N10143,N10144,N10145,N10146,N10147,N10148,N10149,N10150,N10151,N10152,N10153,N10154,N10155,N10156,N10157,N10158,N10159,N10160,  \note fields as indicated
+  N10161,N10162,N10163,N10164,N10165,N10166,N10167,N10168,N10169,N10170,N10171,N10172,N10173,N10174,N10175,N10176,N10177,N10178,N10179,N10180,  \note fields as indicated
+  N10181,N10182,N10183,N10184,N10185,N10186,N10187,N10188,N10189,N10190,N10191,N10192,N10193,N10194,N10195,N10196,N10197,N10198,N10199,N10200,  \note fields as indicated
+  N10201,N10202,N10203,N10204,N10205,N10206,N10207,N10208,N10209,N10210,N10211,N10212,N10213,N10214,N10215,N10216,N10217,N10218,N10219,N10220,  \note fields as indicated
+  N10221,N10222,N10223,N10224,N10225,N10226,N10227,N10228,N10229,N10230,N10231,N10232,N10233,N10234,N10235,N10236,N10237,N10238,N10239,N10240,  \note fields as indicated
+  N10241,N10242,N10243,N10244,N10245,N10246,N10247,N10248,N10249,N10250,N10251,N10252,N10253,N10254,N10255,N10256,N10257,N10258,N10259,N10260,  \note fields as indicated
+  N10261,N10262,N10263,N10264,N10265,N10266,N10267,N10268,N10269,N10270,N10271,N10272,N10273,N10274,N10275,N10276,N10277,N10278,N10279,N10280,  \note fields as indicated
+  N10281,N10282,N10283,N10284,N10285,N10286,N10287,N10288,N10289,N10290,N10291,N10292,N10293,N10294,N10295,N10296,N10297,N10298,N10299,N10300,  \note fields as indicated
+  N10301,N10302,N10303,N10304,N10305,N10306,N10307,N10308,N10309,N10310,N10311,N10312,N10313,N10314,N10315,N10316,N10317,N10318,N10319,N10320,  \note fields as indicated
+  N10321,N10322,N10323,N10324,N10325,N10326,N10327,N10328,N10329,N10330,N10331,N10332,N10333,N10334,N10335,N10336,N10337,N10338,N10339,N10340,  \note fields as indicated
+  N10341,N10342,N10343,N10344,N10345,N10346,N10347,N10348,N10349,N10350,N10351,N10352,N10353,N10354,N10355,N10356,N10357,N10358,N10359,N10360,  \note fields as indicated
+  N10361,N10362,N10363,N10364,N10365,N10366,N10367,N10368,N10369,N10370,N10371,N10372,N10373,N10374,N10375,N10376,N10377,N10378,N10379,N10380,  \note fields as indicated
+  N10381,N10382,N10383,N10384,N10385,N10386,N10387,N10388,N10389,N10390,N10391,N10392,N10393,N10394,N10395,N10396,N10397,N10398,N10399,N10400,  \note fields as indicated
+  N10401,N10402,N10403,N10404,N10405,N10406,N10407,N10408,N10409,N10410,N10411,N10412,N10413,N10414,N10415,N10416,N10417,N10418,N10419,N10420,  \note fields as indicated
+  N10421,N10422,N10423,N10424,N10425,N10426,N10427,N10428,N10429,N10430,N10431,N10432,N10433,N10434,N10435,N10436,N10437,N10438,N10439,N10440,  \note fields as indicated
+  N10441,N10442,N10443,N10444,N10445,N10446,N10447,N10448,N10449,N10450,N10451,N10452,N10453,N10454,N10455,N10456,N10457,N10458,N10459,N10460,  \note fields as indicated
+  N10461,N10462,N10463,N10464,N10465,N10466,N10467,N10468,N10469,N10470,N10471,N10472,N10473,N10474,N10475,N10476,N10477,N10478,N10479,N10480,  \note fields as indicated
+  N10481,N10482,N10483,N10484,N10485,N10486,N10487,N10488,N10489,N10490,N10491,N10492,N10493,N10494,N10495,N10496,N10497,N10498,N10499,N10500,  \note fields as indicated
+  N10501,N10502,N10503,N10504,N10505,N10506,N10507,N10508,N10509,N10510,N10511,N10512,N10513,N10514,N10515,N10516,N10517,N10518,N10519,N10520,  \note fields as indicated
+  N10521,N10522,N10523,N10524,N10525,N10526,N10527,N10528,N10529,N10530,N10531,N10532,N10533,N10534,N10535,N10536,N10537,N10538,N10539,N10540,  \note fields as indicated
+  N10541,N10542,N10543,N10544,N10545,N10546,N10547,N10548,N10549,N10550,N10551,N10552,N10553,N10554,N10555,N10556,N10557,N10558,N10559,N10560,  \note fields as indicated
+  N10561,N10562,N10563,N10564,N10565,N10566,N10567,N10568,N10569,N10570,N10571,N10572,N10573,N10574,N10575,N10576,N10577,N10578,N10579,N10580,  \note fields as indicated
+  N10581,N10582,N10583,N10584,N10585,N10586,N10587,N10588,N10589,N10590,N10591,N10592,N10593,N10594,N10595,N10596,N10597,N10598,N10599,N10600,  \note fields as indicated
+  N10601,N10602,N10603,N10604,N10605,N10606,N10607,N10608,N10609,N10610,N10611,N10612,N10613,N10614,N10615,N10616,N10617,N10618,N10619,N10620,  \note fields as indicated
+  N10621,N10622,N10623,N10624,N10625,N10626,N10627,N10628,N10629,N10630,N10631,N10632,N10633,N10634,N10635,N10636,N10637,N10638,N10639,N10640,  \note fields as indicated
+  N10641,N10642,N10643,N10644,N10645,N10646,N10647,N10648,N10649,N10650,N10651,N10652,N10653,N10654,N10655,N10656,N10657,N10658,N10659,N10660,  \note fields as indicated
+  N10661,N10662,N10663,N10664,N10665,N10666,N10667,N10668,N10669,N10670,N10671,N10672,N10673,N10674,N10675,N10676,N10677,N10678,N10679,N10680,  \note fields as indicated
+  N10681,N10682,N10683,N10684,N10685,N10686,N10687,N10688,N10689,N10690,N10691,N10692,N10693,N10694,N10695,N10696,N10697,N10698,N10699,N10700,  \note fields as indicated
+  N10701,N10702,N10703,N10704,N10705,N10706,N10707,N10708,N10709,N10710,N10711,N10712,N10713,N10714,N10715,N10716,N10717,N10718,N10719,N10720,  \note fields as indicated
+  N10721,N10722,N10723,N10724,N10725,N10726,N10727,N10728,N10729,N10730,N10731,N10732,N10733,N10734,N10735,N10736,N10737,N10738,N10739,N10740,  \note fields as indicated
+  N10741,N10742,N10743,N10744,N10745,N10746,N10747,N10748,N10749,N10750,N10751,N10752,N10753,N10754,N10755,N10756,N10757,N10758,N10759,N10760,  \note fields as indicated
+  N10761,N10762,N10763,N10764,N10765,N10766,N10767,N10768,N10769,N10770,N10771,N10772,N10773,N10774,N10775,N10776,N10777,N10778,N10779,N10780,  \note fields as indicated
+  N10781,N10782,N10783,N10784,N10785,N10786,N10787,N10788,N10789,N10790,N10791,N10792,N10793,N10794,N10795,N10796,N10797,N10798,N10799,N10800,  \note fields as indicated
+  N10801,N10802,N10803,N10804,N10805,N10806,N10807,N10808,N10809,N10810,N10811,N10812,N10813,N10814,N10815,N10816,N10817,N10818,N10819,N10820,  \note fields as indicated
+  N10821,N10822,N10823,N10824,N10825,N10826,N10827,N10828,N10829,N10830,N10831,N10832,N10833,N10834,N10835,N10836,N10837,N10838,N10839,N10840,  \note fields as indicated
+  N10841,N10842,N10843,N10844,N10845,N10846,N10847,N10848,N10849,N10850,N10851,N10852,N10853,N10854,N10855,N10856,N10857,N10858,N10859,N10860,  \note fields as indicated
+  N10861,N10862,N10863,N10864,N10865,N10866,N10867,N10868,N10869,N10870,N10871,N10872,N10873,N10874,N10875,N10876,N10877,N10878,N10879,N10880,  \note fields as indicated
+  N10881,N10882,N10883,N10884,N10885,N10886,N10887,N10888,N10889,N10890,N10891,N10892,N10893,N10894,N10895,N10896,N10897,N10898,N10899,N10900,  \note fields as indicated
+  N10901,N10902,N10903,N10904,N10905,N10906,N10907,N10908,N10909,N10910,N10911,N10912,N10913,N10914,N10915,N10916,N10917,N10918,N10919,N10920,  \note fields as indicated
+  N10921,N10922,N10923,N10924,N10925,N10926,N10927,N10928,N10929,N10930,N10931,N10932,N10933,N10934,N10935,N10936,N10937,N10938,N10939,N10940,  \note fields as indicated
+  N10941,N10942,N10943,N10944,N10945,N10946,N10947,N10948,N10949,N10950,N10951,N10952,N10953,N10954,N10955,N10956,N10957,N10958,N10959,N10960,  \note fields as indicated
+  N10961,N10962,N10963,N10964,N10965,N10966,N10967,N10968,N10969,N10970,N10971,N10972,N10973,N10974,N10975,N10976,N10977,N10978,N10979,N10980,  \note fields as indicated
+  N10981,N10982,N10983,N10984,N10985,N10986,N10987,N10988,N10989,N10990,N10991,N10992,N10993,N10994,N10995,N10996,N10997,N10998,N10999,N11000,  \note fields as indicated
+  N11001,N11002,N11003,N11004,N11005,N11006,N11007,N11008,N11009,N11010,N11011,N11012,N11013,N11014,N11015,N11016,N11017,N11018,N11019,N11020,  \note fields as indicated
+  N11021,N11022,N11023,N11024,N11025,N11026,N11027,N11028,N11029,N11030,N11031,N11032,N11033,N11034,N11035,N11036,N11037,N11038,N11039,N11040,  \note fields as indicated
+  N11041,N11042,N11043,N11044,N11045,N11046,N11047,N11048,N11049,N11050,N11051,N11052,N11053,N11054,N11055,N11056,N11057,N11058,N11059,N11060,  \note fields as indicated
+  N11061,N11062,N11063,N11064,N11065,N11066,N11067,N11068,N11069,N11070,N11071,N11072,N11073,N11074,N11075,N11076,N11077,N11078,N11079,N11080,  \note fields as indicated
+  N11081,N11082,N11083,N11084,N11085,N11086,N11087,N11088,N11089,N11090,N11091,N11092,N11093,N11094,N11095,N11096,N11097,N11098,N11099,N11100,  \note fields as indicated
+  N11101,N11102,N11103,N11104,N11105,N11106,N11107,N11108,N11109,N11110,N11111,N11112,N11113,N11114,N11115,N11116,N11117,N11118,N11119,N11120,  \note fields as indicated
+  N11121,N11122,N11123,N11124,N11125,N11126,N11127,N11128,N11129,N11130,N11131,N11132,N11133,N11134,N11135,N11136,N11137,N11138,N11139,N11140,  \note fields as indicated
+  N11141,N11142,N11143,N11144,N11145,N11146,N11147,N11148,N11149,N11150,N11151,N11152,N11153,N11154,N11155,N11156,N11157,N11158,N11159,N11160,  \note fields as indicated
+  N11161,N11162,N11163,N11164,N11165,N11166,N11167,N11168,N11169,N11170,N11171,N11172,N11173,N11174,N11175,N11176,N11177,N11178,N11179,N11180,  \note fields as indicated
+  N11181,N11182,N11183,N11184,N11185,N11186,N11187,N11188,N11189,N11190,N11191,N11192,N11193,N11194,N11195,N11196,N11197,N11198,N11199,N11200,  \note fields as indicated
+  N11201,N11202,N11203,N11204,N11205,N11206,N11207,N11208,N11209,N11210,N11211,N11212,N11213,N11214,N11215,N11216,N11217,N11218,N11219,N11220,  \note fields as indicated
+  N11221,N11222,N11223,N11224,N11225,N11226,N11227,N11228,N11229,N11230,N11231,N11232,N11233,N11234,N11235,N11236,N11237,N11238,N11239,N11240,  \note fields as indicated
+  N11241,N11242,N11243,N11244,N11245,N11246,N11247,N11248,N11249,N11250,N11251,N11252,N11253,N11254,N11255,N11256,N11257,N11258,N11259,N11260,  \note fields as indicated
+  N11261,N11262,N11263,N11264,N11265,N11266,N11267,N11268,N11269,N11270,N11271,N11272,N11273,N11274,N11275,N11276,N11277,N11278,N11279,N11280,  \note fields as indicated
+  N11281,N11282,N11283,N11284,N11285,N11286,N11287,N11288,N11289,N11290,N11291,N11292,N11293,N11294,N11295,N11296,N11297,N11298,N11299,N11300,  \note fields as indicated
+  N11301,N11302,N11303,N11304,N11305,N11306,N11307,N11308,N11309,N11310,N11311,N11312,N11313,N11314,N11315,N11316,N11317,N11318,N11319,N11320,  \note fields as indicated
+  N11321,N11322,N11323,N11324,N11325,N11326,N11327,N11328,N11329,N11330,N11331,N11332,N11333,N11334,N11335,N11336,N11337,N11338,N11339,N11340,  \note fields as indicated
+  N11341,N11342,N11343,N11344,N11345,N11346,N11347,N11348,N11349,N11350,N11351,N11352,N11353,N11354,N11355,N11356,N11357,N11358,N11359,N11360,  \note fields as indicated
+  N11361,N11362,N11363,N11364,N11365,N11366,N11367,N11368,N11369,N11370,N11371,N11372,N11373,N11374,N11375,N11376,N11377,N11378,N11379,N11380,  \note fields as indicated
+  N11381,N11382,N11383,N11384,N11385,N11386,N11387,N11388,N11389,N11390,N11391,N11392,N11393,N11394,N11395,N11396,N11397,N11398,N11399,N11400,  \note fields as indicated
+  N11401,N11402,N11403,N11404,N11405,N11406,N11407,N11408,N11409,N11410,N11411,N11412,N11413,N11414,N11415,N11416,N11417,N11418,N11419,N11420,  \note fields as indicated
+  N11421,N11422,N11423,N11424,N11425,N11426,N11427,N11428,N11429,N11430,N11431,N11432,N11433,N11434,N11435,N11436,N11437,N11438,N11439,N11440,  \note fields as indicated
+  N11441,N11442,N11443,N11444,N11445,N11446,N11447,N11448,N11449,N11450,N11451,N11452,N11453,N11454,N11455,N11456,N11457,N11458,N11459,N11460,  \note fields as indicated
+  N11461,N11462,N11463,N11464,N11465,N11466,N11467,N11468,N11469,N11470,N11471,N11472,N11473,N11474,N11475,N11476,N11477,N11478,N11479,N11480,  \note fields as indicated
+  N11481,N11482,N11483,N11484,N11485,N11486,N11487,N11488,N11489,N11490,N11491,N11492,N11493,N11494,N11495,N11496,N11497,N11498,N11499,N11500,  \note fields as indicated
+  N11501,N11502,N11503,N11504,N11505,N11506,N11507,N11508,N11509,N11510,N11511,N11512,N11513,N11514,N11515,N11516,N11517,N11518,N11519,N11520,  \note fields as indicated
+  N11521,N11522,N11523,N11524,N11525,N11526,N11527,N11528,N11529,N11530,N11531,N11532,N11533,N11534,N11535,N11536,N11537,N11538,N11539,N11540,  \note fields as indicated
+  N11541,N11542,N11543,N11544,N11545,N11546,N11547,N11548,N11549,N11550,N11551,N11552,N11553,N11554,N11555,N11556,N11557,N11558,N11559,N11560,  \note fields as indicated
+  N11561,N11562,N11563,N11564,N11565,N11566,N11567,N11568,N11569,N11570,N11571,N11572,N11573,N11574,N11575,N11576,N11577,N11578,N11579,N11580,  \note fields as indicated
+  N11581,N11582,N11583,N11584,N11585,N11586,N11587,N11588,N11589,N11590,N11591,N11592,N11593,N11594,N11595,N11596,N11597,N11598,N11599,N11600,  \note fields as indicated
+  N11601,N11602,N11603,N11604,N11605,N11606,N11607,N11608,N11609,N11610,N11611,N11612,N11613,N11614,N11615,N11616,N11617,N11618,N11619,N11620,  \note fields as indicated
+  N11621,N11622,N11623,N11624,N11625,N11626,N11627,N11628,N11629,N11630,N11631,N11632,N11633,N11634,N11635,N11636,N11637,N11638,N11639,N11640,  \note fields as indicated
+  N11641,N11642,N11643,N11644,N11645,N11646,N11647,N11648,N11649,N11650,N11651,N11652,N11653,N11654,N11655,N11656,N11657,N11658,N11659,N11660,  \note fields as indicated
+  N11661,N11662,N11663,N11664,N11665,N11666,N11667,N11668,N11669,N11670,N11671,N11672,N11673,N11674,N11675,N11676,N11677,N11678,N11679,N11680,  \note fields as indicated
+  N11681,N11682,N11683,N11684,N11685,N11686,N11687,N11688,N11689,N11690,N11691,N11692,N11693,N11694,N11695,N11696,N11697,N11698,N11699,N11700,  \note fields as indicated
+  N11701,N11702,N11703,N11704,N11705,N11706,N11707,N11708,N11709,N11710,N11711,N11712,N11713,N11714,N11715,N11716,N11717,N11718,N11719,N11720,  \note fields as indicated
+  N11721,N11722,N11723,N11724,N11725,N11726,N11727,N11728,N11729,N11730,N11731,N11732,N11733,N11734,N11735,N11736,N11737,N11738,N11739,N11740,  \note fields as indicated
+  N11741,N11742,N11743,N11744,N11745,N11746,N11747,N11748,N11749,N11750,N11751,N11752,N11753,N11754,N11755,N11756,N11757,N11758,N11759,N11760,  \note fields as indicated
+  N11761,N11762,N11763,N11764,N11765,N11766,N11767,N11768,N11769,N11770,N11771,N11772,N11773,N11774,N11775,N11776,N11777,N11778,N11779,N11780,  \note fields as indicated
+  N11781,N11782,N11783,N11784,N11785,N11786,N11787,N11788,N11789,N11790,N11791,N11792,N11793,N11794,N11795,N11796,N11797,N11798,N11799,N11800,  \note fields as indicated
+  N11801,N11802,N11803,N11804,N11805,N11806,N11807,N11808,N11809,N11810,N11811,N11812,N11813,N11814,N11815,N11816,N11817,N11818,N11819,N11820,  \note fields as indicated
+  N11821,N11822,N11823,N11824,N11825,N11826,N11827,N11828,N11829,N11830,N11831,N11832,N11833,N11834,N11835,N11836,N11837,N11838,N11839,N11840,  \note fields as indicated
+  N11841,N11842,N11843,N11844,N11845,N11846,N11847,N11848,N11849,N11850,N11851,N11852,N11853,N11854,N11855,N11856,N11857,N11858,N11859,N11860,  \note fields as indicated
+  N11861,N11862,N11863,N11864,N11865,N11866,N11867,N11868,N11869,N11870,N11871,N11872,N11873,N11874,N11875,N11876,N11877,N11878,N11879,N11880,  \note fields as indicated
+  N11881,N11882,N11883,N11884,N11885,N11886,N11887,N11888,N11889,N11890,N11891,N11892,N11893,N11894,N11895,N11896,N11897,N11898,N11899,N11900,  \note fields as indicated
+  N11901,N11902,N11903,N11904,N11905,N11906,N11907,N11908,N11909,N11910,N11911,N11912,N11913,N11914,N11915,N11916,N11917,N11918,N11919,N11920,  \note fields as indicated
+  N11921,N11922,N11923,N11924,N11925,N11926,N11927,N11928,N11929,N11930,N11931,N11932,N11933,N11934,N11935,N11936,N11937,N11938,N11939,N11940,  \note fields as indicated
+  N11941,N11942,N11943,N11944,N11945,N11946,N11947,N11948,N11949,N11950,N11951,N11952,N11953,N11954,N11955,N11956,N11957,N11958,N11959,N11960,  \note fields as indicated
+  N11961,N11962,N11963,N11964,N11965,N11966,N11967,N11968,N11969,N11970,N11971,N11972,N11973,N11974,N11975,N11976,N11977,N11978,N11979,N11980,  \note fields as indicated
+  N11981,N11982,N11983,N11984,N11985,N11986,N11987,N11988,N11989,N11990,N11991,N11992,N11993,N11994,N11995,N11996,N11997,N11998,N11999,N12000,  \note fields as indicated
+  N12001,N12002,N12003,N12004,N12005,N12006,N12007,N12008,N12009,N12010,N12011,N12012,N12013,N12014,N12015,N12016,N12017,N12018,N12019,N12020,  \note fields as indicated
+  N12021,N12022,N12023,N12024,N12025,N12026,N12027,N12028,N12029,N12030,N12031,N12032,N12033,N12034,N12035,N12036,N12037,N12038,N12039,N12040,  \note fields as indicated
+  N12041,N12042,N12043,N12044,N12045,N12046,N12047,N12048,N12049,N12050,N12051,N12052,N12053,N12054,N12055,N12056,N12057,N12058,N12059,N12060,  \note fields as indicated
+  N12061,N12062,N12063,N12064,N12065,N12066,N12067,N12068,N12069,N12070,N12071,N12072,N12073,N12074,N12075,N12076,N12077,N12078,N12079,N12080,  \note fields as indicated
+  N12081,N12082,N12083,N12084,N12085,N12086,N12087,N12088,N12089,N12090,N12091,N12092,N12093,N12094,N12095,N12096,N12097,N12098,N12099,N12100,  \note fields as indicated
+  N12101,N12102,N12103,N12104,N12105,N12106,N12107,N12108,N12109,N12110,N12111,N12112,N12113,N12114,N12115,N12116,N12117,N12118,N12119,N12120,  \note fields as indicated
+  N12121,N12122,N12123,N12124,N12125,N12126,N12127,N12128,N12129,N12130,N12131,N12132,N12133,N12134,N12135,N12136,N12137,N12138,N12139,N12140,  \note fields as indicated
+  N12141,N12142,N12143,N12144,N12145,N12146,N12147,N12148,N12149,N12150,N12151,N12152,N12153,N12154,N12155,N12156,N12157,N12158,N12159,N12160,  \note fields as indicated
+  N12161,N12162,N12163,N12164,N12165,N12166,N12167,N12168,N12169,N12170,N12171,N12172,N12173,N12174,N12175,N12176,N12177,N12178,N12179,N12180,  \note fields as indicated
+  N12181,N12182,N12183,N12184,N12185,N12186,N12187,N12188,N12189,N12190,N12191,N12192,N12193,N12194,N12195,N12196,N12197,N12198,N12199,N12200,  \note fields as indicated
+  N12201,N12202,N12203,N12204,N12205,N12206,N12207,N12208,N12209,N12210,N12211,N12212,N12213,N12214,N12215,N12216,N12217,N12218,N12219,N12220,  \note fields as indicated
+  N12221,N12222,N12223,N12224,N12225,N12226,N12227,N12228,N12229,N12230,N12231,N12232,N12233,N12234,N12235,N12236,N12237,N12238,N12239,N12240,  \note fields as indicated
+  N12241,N12242,N12243,N12244,N12245,N12246,N12247,N12248,N12249,N12250,N12251,N12252,N12253,N12254,N12255,N12256,N12257,N12258,N12259,N12260,  \note fields as indicated
+  N12261,N12262,N12263,N12264,N12265,N12266,N12267,N12268,N12269,N12270,N12271,N12272,N12273,N12274,N12275,N12276,N12277,N12278,N12279,N12280,  \note fields as indicated
+  N12281,N12282,N12283,N12284,N12285,N12286,N12287,N12288,N12289,N12290,N12291,N12292,N12293,N12294,N12295,N12296,N12297,N12298,N12299,N12300,  \note fields as indicated
+  N12301,N12302,N12303,N12304,N12305,N12306,N12307,N12308,N12309,N12310,N12311,N12312,N12313,N12314,N12315,N12316,N12317,N12318,N12319,N12320,  \note fields as indicated
+  N12321,N12322,N12323,N12324,N12325,N12326,N12327,N12328,N12329,N12330,N12331,N12332,N12333,N12334,N12335,N12336,N12337,N12338,N12339,N12340,  \note fields as indicated
+  N12341,N12342,N12343,N12344,N12345,N12346,N12347,N12348,N12349,N12350,N12351,N12352,N12353,N12354,N12355,N12356,N12357,N12358,N12359,N12360,  \note fields as indicated
+  N12361,N12362,N12363,N12364,N12365,N12366,N12367,N12368,N12369,N12370,N12371,N12372,N12373,N12374,N12375,N12376,N12377,N12378,N12379,N12380,  \note fields as indicated
+  N12381,N12382,N12383,N12384,N12385,N12386,N12387,N12388,N12389,N12390,N12391,N12392,N12393,N12394,N12395,N12396,N12397,N12398,N12399,N12400,  \note fields as indicated
+  N12401,N12402,N12403,N12404,N12405,N12406,N12407,N12408,N12409,N12410,N12411,N12412,N12413,N12414,N12415,N12416,N12417,N12418,N12419,N12420,  \note fields as indicated
+  N12421,N12422,N12423,N12424,N12425,N12426,N12427,N12428,N12429,N12430,N12431,N12432,N12433,N12434,N12435,N12436,N12437,N12438,N12439,N12440,  \note fields as indicated
+  N12441,N12442,N12443,N12444,N12445,N12446,N12447,N12448,N12449,N12450,N12451,N12452,N12453,N12454,N12455,N12456,N12457,N12458,N12459,N12460,  \note fields as indicated
+  N12461,N12462,N12463,N12464,N12465,N12466,N12467,N12468,N12469,N12470,N12471,N12472,N12473,N12474,N12475,N12476,N12477,N12478,N12479,N12480,  \note fields as indicated
+  N12481,N12482,N12483,N12484,N12485,N12486,N12487,N12488,N12489,N12490,N12491,N12492,N12493,N12494,N12495,N12496,N12497,N12498,N12499,N12500,  \note fields as indicated
+  N12501,N12502,N12503,N12504,N12505,N12506,N12507,N12508,N12509,N12510,N12511,N12512,N12513,N12514,N12515,N12516,N12517,N12518,N12519,N12520,  \note fields as indicated
+  N12521,N12522,N12523,N12524,N12525,N12526,N12527,N12528,N12529,N12530,N12531,N12532,N12533,N12534,N12535,N12536,N12537,N12538,N12539,N12540,  \note fields as indicated
+  N12541,N12542,N12543,N12544,N12545,N12546,N12547,N12548,N12549,N12550,N12551,N12552,N12553,N12554,N12555,N12556,N12557,N12558,N12559,N12560,  \note fields as indicated
+  N12561,N12562,N12563,N12564,N12565,N12566,N12567,N12568,N12569,N12570,N12571,N12572,N12573,N12574,N12575,N12576,N12577,N12578,N12579,N12580,  \note fields as indicated
+  N12581,N12582,N12583,N12584,N12585,N12586,N12587,N12588,N12589,N12590,N12591,N12592,N12593,N12594,N12595,N12596,N12597,N12598,N12599,N12600,  \note fields as indicated
+  N12601,N12602,N12603,N12604,N12605,N12606,N12607,N12608,N12609,N12610,N12611,N12612,N12613,N12614,N12615,N12616,N12617,N12618,N12619,N12620,  \note fields as indicated
+  N12621,N12622,N12623,N12624,N12625,N12626,N12627,N12628,N12629,N12630,N12631,N12632,N12633,N12634,N12635,N12636,N12637,N12638,N12639,N12640,  \note fields as indicated
+  N12641,N12642,N12643,N12644,N12645,N12646,N12647,N12648,N12649,N12650,N12651,N12652,N12653,N12654,N12655,N12656,N12657,N12658,N12659,N12660,  \note fields as indicated
+  N12661,N12662,N12663,N12664,N12665,N12666,N12667,N12668,N12669,N12670,N12671,N12672,N12673,N12674,N12675,N12676,N12677,N12678,N12679,N12680,  \note fields as indicated
+  N12681,N12682,N12683,N12684,N12685,N12686,N12687,N12688,N12689,N12690,N12691,N12692,N12693,N12694,N12695,N12696,N12697,N12698,N12699,N12700,  \note fields as indicated
+  N12701,N12702,N12703,N12704,N12705,N12706,N12707,N12708,N12709,N12710,N12711,N12712,N12713,N12714,N12715,N12716,N12717,N12718,N12719,N12720,  \note fields as indicated
+  N12721,N12722,N12723,N12724,N12725,N12726,N12727,N12728,N12729,N12730,N12731,N12732,N12733,N12734,N12735,N12736,N12737,N12738,N12739,N12740,  \note fields as indicated
+  N12741,N12742,N12743,N12744,N12745,N12746,N12747,N12748,N12749,N12750,N12751,N12752,N12753,N12754,N12755,N12756,N12757,N12758,N12759,N12760,  \note fields as indicated
+  N12761,N12762,N12763,N12764,N12765,N12766,N12767,N12768,N12769,N12770,N12771,N12772,N12773,N12774,N12775,N12776,N12777,N12778,N12779,N12780,  \note fields as indicated
+  N12781,N12782,N12783,N12784,N12785,N12786,N12787,N12788,N12789,N12790,N12791,N12792,N12793,N12794,N12795,N12796,N12797,N12798,N12799,N12800,  \note fields as indicated
+  N12801,N12802,N12803,N12804,N12805,N12806,N12807,N12808,N12809,N12810,N12811,N12812,N12813,N12814,N12815,N12816,N12817,N12818,N12819,N12820,  \note fields as indicated
+  N12821,N12822,N12823,N12824,N12825,N12826,N12827,N12828,N12829,N12830,N12831,N12832,N12833,N12834,N12835,N12836,N12837,N12838,N12839,N12840,  \note fields as indicated
+  N12841,N12842,N12843,N12844,N12845,N12846,N12847,N12848,N12849,N12850,N12851,N12852,N12853,N12854,N12855,N12856,N12857,N12858,N12859,N12860,  \note fields as indicated
+  N12861,N12862,N12863,N12864,N12865,N12866,N12867,N12868,N12869,N12870,N12871,N12872,N12873,N12874,N12875,N12876,N12877,N12878,N12879,N12880,  \note fields as indicated
+  N12881,N12882,N12883,N12884,N12885,N12886,N12887,N12888,N12889,N12890,N12891,N12892,N12893,N12894,N12895,N12896,N12897,N12898,N12899,N12900,  \note fields as indicated
+  N12901,N12902,N12903,N12904,N12905,N12906,N12907,N12908,N12909,N12910,N12911,N12912,N12913,N12914,N12915,N12916,N12917,N12918,N12919,N12920,  \note fields as indicated
+  N12921,N12922,N12923,N12924,N12925,N12926,N12927,N12928,N12929,N12930,N12931,N12932,N12933,N12934,N12935,N12936,N12937,N12938,N12939,N12940,  \note fields as indicated
+  N12941,N12942,N12943,N12944,N12945,N12946,N12947,N12948,N12949,N12950,N12951,N12952,N12953,N12954,N12955,N12956,N12957,N12958,N12959,N12960,  \note fields as indicated
+  N12961,N12962,N12963,N12964,N12965,N12966,N12967,N12968,N12969,N12970,N12971,N12972,N12973,N12974,N12975,N12976,N12977,N12978,N12979,N12980,  \note fields as indicated
+  N12981,N12982,N12983,N12984,N12985,N12986,N12987,N12988,N12989,N12990,N12991,N12992,N12993,N12994,N12995,N12996,N12997,N12998,N12999,N13000,  \note fields as indicated
+  N13001,N13002,N13003,N13004,N13005,N13006,N13007,N13008,N13009,N13010,N13011,N13012,N13013,N13014,N13015,N13016,N13017,N13018,N13019,N13020,  \note fields as indicated
+  N13021,N13022,N13023,N13024,N13025,N13026,N13027,N13028,N13029,N13030,N13031,N13032,N13033,N13034,N13035,N13036,N13037,N13038,N13039,N13040,  \note fields as indicated
+  N13041,N13042,N13043,N13044,N13045,N13046,N13047,N13048,N13049,N13050,N13051,N13052,N13053,N13054,N13055,N13056,N13057,N13058,N13059,N13060,  \note fields as indicated
+  N13061,N13062,N13063,N13064,N13065,N13066,N13067,N13068,N13069,N13070,N13071,N13072,N13073,N13074,N13075,N13076,N13077,N13078,N13079,N13080,  \note fields as indicated
+  N13081,N13082,N13083,N13084,N13085,N13086,N13087,N13088,N13089,N13090,N13091,N13092,N13093,N13094,N13095,N13096,N13097,N13098,N13099,N13100,  \note fields as indicated
+  N13101,N13102,N13103,N13104,N13105,N13106,N13107,N13108,N13109,N13110,N13111,N13112,N13113,N13114,N13115,N13116,N13117,N13118,N13119,N13120,  \note fields as indicated
+  N13121,N13122,N13123,N13124,N13125,N13126,N13127,N13128,N13129,N13130,N13131,N13132,N13133,N13134,N13135,N13136,N13137,N13138,N13139,N13140,  \note fields as indicated
+  N13141,N13142,N13143,N13144,N13145,N13146,N13147,N13148,N13149,N13150,N13151,N13152,N13153,N13154,N13155,N13156,N13157,N13158,N13159,N13160,  \note fields as indicated
+  N13161,N13162,N13163,N13164,N13165,N13166,N13167,N13168,N13169,N13170,N13171,N13172,N13173,N13174,N13175,N13176,N13177,N13178,N13179,N13180,  \note fields as indicated
+  N13181,N13182,N13183,N13184,N13185,N13186,N13187,N13188,N13189,N13190,N13191,N13192,N13193,N13194,N13195,N13196,N13197,N13198,N13199,N13200,  \note fields as indicated
+  N13201,N13202,N13203,N13204,N13205,N13206,N13207,N13208,N13209,N13210,N13211,N13212,N13213,N13214,N13215,N13216,N13217,N13218,N13219,N13220,  \note fields as indicated
+  N13221,N13222,N13223,N13224,N13225,N13226,N13227,N13228,N13229,N13230,N13231,N13232,N13233,N13234,N13235,N13236,N13237,N13238,N13239,N13240,  \note fields as indicated
+  N13241,N13242,N13243,N13244,N13245,N13246,N13247,N13248,N13249,N13250,N13251,N13252,N13253,N13254,N13255,N13256,N13257,N13258,N13259,N13260,  \note fields as indicated
+  N13261,N13262,N13263,N13264,N13265,N13266,N13267,N13268,N13269,N13270,N13271,N13272,N13273,N13274,N13275,N13276,N13277,N13278,N13279,N13280,  \note fields as indicated
+  N13281,N13282,N13283,N13284,N13285,N13286,N13287,N13288,N13289,N13290,N13291,N13292,N13293,N13294,N13295,N13296,N13297,N13298,N13299,N13300,  \note fields as indicated
+  N13301,N13302,N13303,N13304,N13305,N13306,N13307,N13308,N13309,N13310,N13311,N13312,N13313,N13314,N13315,N13316,N13317,N13318,N13319,N13320,  \note fields as indicated
+  N13321,N13322,N13323,N13324,N13325,N13326,N13327,N13328,N13329,N13330,N13331,N13332,N13333,N13334,N13335,N13336,N13337,N13338,N13339,N13340,  \note fields as indicated
+  N13341,N13342,N13343,N13344,N13345,N13346,N13347,N13348,N13349,N13350,N13351,N13352,N13353,N13354,N13355,N13356,N13357,N13358,N13359,N13360,  \note fields as indicated
+  N13361,N13362,N13363,N13364,N13365,N13366,N13367,N13368,N13369,N13370,N13371,N13372,N13373,N13374,N13375,N13376,N13377,N13378,N13379,N13380,  \note fields as indicated
+  N13381,N13382,N13383,N13384,N13385,N13386,N13387,N13388,N13389,N13390,N13391,N13392,N13393,N13394,N13395,N13396,N13397,N13398,N13399,N13400,  \note fields as indicated
+  N13401,N13402,N13403,N13404,N13405,N13406,N13407,N13408,N13409,N13410,N13411,N13412,N13413,N13414,N13415,N13416,N13417,N13418,N13419,N13420,  \note fields as indicated
+  N13421,N13422,N13423,N13424,N13425,N13426,N13427,N13428,N13429,N13430,N13431,N13432,N13433,N13434,N13435,N13436,N13437,N13438,N13439,N13440,  \note fields as indicated
+  N13441,N13442,N13443,N13444,N13445,N13446,N13447,N13448,N13449,N13450,N13451,N13452,N13453,N13454,N13455,N13456,N13457,N13458,N13459,N13460,  \note fields as indicated
+  N13461,N13462,N13463,N13464,N13465,N13466,N13467,N13468,N13469,N13470,N13471,N13472,N13473,N13474,N13475,N13476,N13477,N13478,N13479,N13480,  \note fields as indicated
+  N13481,N13482,N13483,N13484,N13485,N13486,N13487,N13488,N13489,N13490,N13491,N13492,N13493,N13494,N13495,N13496,N13497,N13498,N13499,N13500,  \note fields as indicated
+  N13501,N13502,N13503,N13504,N13505,N13506,N13507,N13508,N13509,N13510,N13511,N13512,N13513,N13514,N13515,N13516,N13517,N13518,N13519,N13520,  \note fields as indicated
+  N13521,N13522,N13523,N13524,N13525,N13526,N13527,N13528,N13529,N13530,N13531,N13532,N13533,N13534,N13535,N13536,N13537,N13538,N13539,N13540,  \note fields as indicated
+  N13541,N13542,N13543,N13544,N13545,N13546,N13547,N13548,N13549,N13550,N13551,N13552,N13553,N13554,N13555,N13556,N13557,N13558,N13559,N13560,  \note fields as indicated
+  N13561,N13562,N13563,N13564,N13565,N13566,N13567,N13568,N13569,N13570,N13571,N13572,N13573,N13574,N13575,N13576,N13577,N13578,N13579,N13580,  \note fields as indicated
+  N13581,N13582,N13583,N13584,N13585,N13586,N13587,N13588,N13589,N13590,N13591,N13592,N13593,N13594,N13595,N13596,N13597,N13598,N13599,N13600,  \note fields as indicated
+  N13601,N13602,N13603,N13604,N13605,N13606,N13607,N13608,N13609,N13610,N13611,N13612,N13613,N13614,N13615,N13616,N13617,N13618,N13619,N13620,  \note fields as indicated
+  N13621,N13622,N13623,N13624,N13625,N13626,N13627,N13628,N13629,N13630,N13631,N13632,N13633,N13634,N13635,N13636,N13637,N13638,N13639,N13640,  \note fields as indicated
+  N13641,N13642,N13643,N13644,N13645,N13646,N13647,N13648,N13649,N13650,N13651,N13652,N13653,N13654,N13655,N13656,N13657,N13658,N13659,N13660,  \note fields as indicated
+  N13661,N13662,N13663,N13664,N13665,N13666,N13667,N13668,N13669,N13670,N13671,N13672,N13673,N13674,N13675,N13676,N13677,N13678,N13679,N13680,  \note fields as indicated
+  N13681,N13682,N13683,N13684,N13685,N13686,N13687,N13688,N13689,N13690,N13691,N13692,N13693,N13694,N13695,N13696,N13697,N13698,N13699,N13700,  \note fields as indicated
+  N13701,N13702,N13703,N13704,N13705,N13706,N13707,N13708,N13709,N13710,N13711,N13712,N13713,N13714,N13715,N13716,N13717,N13718,N13719,N13720,  \note fields as indicated
+  N13721,N13722,N13723,N13724,N13725,N13726,N13727,N13728,N13729,N13730,N13731,N13732,N13733,N13734,N13735,N13736,N13737,N13738,N13739,N13740,  \note fields as indicated
+  N13741,N13742,N13743,N13744,N13745,N13746,N13747,N13748,N13749,N13750,N13751,N13752,N13753,N13754,N13755,N13756,N13757,N13758,N13759,N13760,  \note fields as indicated
+  N13761,N13762,N13763,N13764,N13765,N13766,N13767,N13768,N13769,N13770,N13771,N13772,N13773,N13774,N13775,N13776,N13777,N13778,N13779,N13780,  \note fields as indicated
+  N13781,N13782,N13783,N13784,N13785,N13786,N13787,N13788,N13789,N13790,N13791,N13792,N13793,N13794,N13795,N13796,N13797,N13798,N13799,N13800,  \note fields as indicated
+  N13801,N13802,N13803,N13804,N13805,N13806,N13807,N13808,N13809,N13810,N13811,N13812,N13813,N13814,N13815,N13816,N13817,N13818,N13819,N13820,  \note fields as indicated
+  N13821,N13822,N13823,N13824,N13825,N13826,N13827,N13828,N13829,N13830,N13831,N13832,N13833,N13834,N13835,N13836,N13837,N13838,N13839,N13840,  \note fields as indicated
+  N13841,N13842,N13843,N13844,N13845,N13846,N13847,N13848,N13849,N13850,N13851,N13852,N13853,N13854,N13855,N13856,N13857,N13858,N13859,N13860,  \note fields as indicated
+  N13861,N13862,N13863,N13864,N13865,N13866,N13867,N13868,N13869,N13870,N13871,N13872,N13873,N13874,N13875,N13876,N13877,N13878,N13879,N13880,  \note fields as indicated
+  N13881,N13882,N13883,N13884,N13885,N13886,N13887,N13888,N13889,N13890,N13891,N13892,N13893,N13894,N13895,N13896,N13897,N13898,N13899,N13900,  \note fields as indicated
+  N13901,N13902,N13903,N13904,N13905,N13906,N13907,N13908,N13909,N13910,N13911,N13912,N13913,N13914,N13915,N13916,N13917,N13918,N13919,N13920,  \note fields as indicated
+  N13921,N13922,N13923,N13924,N13925,N13926,N13927,N13928,N13929,N13930,N13931,N13932,N13933,N13934,N13935,N13936,N13937,N13938,N13939,N13940,  \note fields as indicated
+  N13941,N13942,N13943,N13944,N13945,N13946,N13947,N13948,N13949,N13950,N13951,N13952,N13953,N13954,N13955,N13956,N13957,N13958,N13959,N13960,  \note fields as indicated
+  N13961,N13962,N13963,N13964,N13965,N13966,N13967,N13968,N13969,N13970,N13971,N13972,N13973,N13974,N13975,N13976,N13977,N13978,N13979,N13980,  \note fields as indicated
+  N13981,N13982,N13983,N13984,N13985,N13986,N13987,N13988,N13989,N13990,N13991,N13992,N13993,N13994,N13995,N13996,N13997,N13998,N13999,N14000,  \note fields as indicated
+  N14001,N14002,N14003,N14004,N14005,N14006,N14007,N14008,N14009,N14010,N14011,N14012,N14013,N14014,N14015,N14016,N14017,N14018,N14019,N14020,  \note fields as indicated
+  N14021,N14022,N14023,N14024,N14025,N14026,N14027,N14028,N14029,N14030,N14031,N14032,N14033,N14034,N14035,N14036,N14037,N14038,N14039,N14040,  \note fields as indicated
+  N14041,N14042,N14043,N14044,N14045,N14046,N14047,N14048,N14049,N14050,N14051,N14052,N14053,N14054,N14055,N14056,N14057,N14058,N14059,N14060,  \note fields as indicated
+  N14061,N14062,N14063,N14064,N14065,N14066,N14067,N14068,N14069,N14070,N14071,N14072,N14073,N14074,N14075,N14076,N14077,N14078,N14079,N14080,  \note fields as indicated
+  N14081,N14082,N14083,N14084,N14085,N14086,N14087,N14088,N14089,N14090,N14091,N14092,N14093,N14094,N14095,N14096,N14097,N14098,N14099,N14100,  \note fields as indicated
+  N14101,N14102,N14103,N14104,N14105,N14106,N14107,N14108,N14109,N14110,N14111,N14112,N14113,N14114,N14115,N14116,N14117,N14118,N14119,N14120,  \note fields as indicated
+  N14121,N14122,N14123,N14124,N14125,N14126,N14127,N14128,N14129,N14130,N14131,N14132,N14133,N14134,N14135,N14136,N14137,N14138,N14139,N14140,  \note fields as indicated
+  N14141,N14142,N14143,N14144,N14145,N14146,N14147,N14148,N14149,N14150,N14151,N14152,N14153,N14154,N14155,N14156,N14157,N14158,N14159,N14160,  \note fields as indicated
+  N14161,N14162,N14163,N14164,N14165,N14166,N14167,N14168,N14169,N14170,N14171,N14172,N14173,N14174,N14175,N14176,N14177,N14178,N14179,N14180,  \note fields as indicated
+  N14181,N14182,N14183,N14184,N14185,N14186,N14187,N14188,N14189,N14190,N14191,N14192,N14193,N14194,N14195,N14196,N14197,N14198,N14199,N14200,  \note fields as indicated
+  N14201,N14202,N14203,N14204,N14205,N14206,N14207,N14208,N14209,N14210,N14211,N14212,N14213,N14214,N14215,N14216,N14217,N14218,N14219,N14220,  \note fields as indicated
+  N14221,N14222,N14223,N14224,N14225,N14226,N14227,N14228,N14229,N14230,N14231,N14232,N14233,N14234,N14235,N14236,N14237,N14238,N14239,N14240,  \note fields as indicated
+  N14241,N14242,N14243,N14244,N14245,N14246,N14247,N14248,N14249,N14250,N14251,N14252,N14253,N14254,N14255,N14256,N14257,N14258,N14259,N14260,  \note fields as indicated
+  N14261,N14262,N14263,N14264,N14265,N14266,N14267,N14268,N14269,N14270,N14271,N14272,N14273,N14274,N14275,N14276,N14277,N14278,N14279,N14280,  \note fields as indicated
+  N14281,N14282,N14283,N14284,N14285,N14286,N14287,N14288,N14289,N14290,N14291,N14292,N14293,N14294,N14295,N14296,N14297,N14298,N14299,N14300,  \note fields as indicated
+  N14301,N14302,N14303,N14304,N14305,N14306,N14307,N14308,N14309,N14310,N14311,N14312,N14313,N14314,N14315,N14316,N14317,N14318,N14319,N14320,  \note fields as indicated
+  N14321,N14322,N14323,N14324,N14325,N14326,N14327,N14328,N14329,N14330,N14331,N14332,N14333,N14334,N14335,N14336,N14337,N14338,N14339,N14340,  \note fields as indicated
+  N14341,N14342,N14343,N14344,N14345,N14346,N14347,N14348,N14349,N14350,N14351,N14352,N14353,N14354,N14355,N14356,N14357,N14358,N14359,N14360,  \note fields as indicated
+  N14361,N14362,N14363,N14364,N14365,N14366,N14367,N14368,N14369,N14370,N14371,N14372,N14373,N14374,N14375,N14376,N14377,N14378,N14379,N14380,  \note fields as indicated
+  N14381,N14382,N14383,N14384,N14385,N14386,N14387,N14388,N14389,N14390,N14391,N14392,N14393,N14394,N14395,N14396,N14397,N14398,N14399,N14400,  \note fields as indicated
+  N14401,N14402,N14403,N14404,N14405,N14406,N14407,N14408,N14409,N14410,N14411,N14412,N14413,N14414,N14415,N14416,N14417,N14418,N14419,N14420,  \note fields as indicated
+  N14421,N14422,N14423,N14424,N14425,N14426,N14427,N14428,N14429,N14430,N14431,N14432,N14433,N14434,N14435,N14436,N14437,N14438,N14439,N14440,  \note fields as indicated
+  N14441,N14442,N14443,N14444,N14445,N14446,N14447,N14448,N14449,N14450,N14451,N14452,N14453,N14454,N14455,N14456,N14457,N14458,N14459,N14460,  \note fields as indicated
+  N14461,N14462,N14463,N14464,N14465,N14466,N14467,N14468,N14469,N14470,N14471,N14472,N14473,N14474,N14475,N14476,N14477,N14478,N14479,N14480,  \note fields as indicated
+  N14481,N14482,N14483,N14484,N14485,N14486,N14487,N14488,N14489,N14490,N14491,N14492,N14493,N14494,N14495,N14496,N14497,N14498,N14499,N14500,  \note fields as indicated
+  N14501,N14502,N14503,N14504,N14505,N14506,N14507,N14508,N14509,N14510,N14511,N14512,N14513,N14514,N14515,N14516,N14517,N14518,N14519,N14520,  \note fields as indicated
+  N14521,N14522,N14523,N14524,N14525,N14526,N14527,N14528,N14529,N14530,N14531,N14532,N14533,N14534,N14535,N14536,N14537,N14538,N14539,N14540,  \note fields as indicated
+  N14541,N14542,N14543,N14544,N14545,N14546,N14547,N14548,N14549,N14550,N14551,N14552,N14553,N14554,N14555,N14556,N14557,N14558,N14559,N14560,  \note fields as indicated
+  N14561,N14562,N14563,N14564,N14565,N14566,N14567,N14568,N14569,N14570,N14571,N14572,N14573,N14574,N14575,N14576,N14577,N14578,N14579,N14580,  \note fields as indicated
+  N14581,N14582,N14583,N14584,N14585,N14586,N14587,N14588,N14589,N14590,N14591,N14592,N14593,N14594,N14595,N14596,N14597,N14598,N14599,N14600,  \note fields as indicated
+  N14601,N14602,N14603,N14604,N14605,N14606,N14607,N14608,N14609,N14610,N14611,N14612,N14613,N14614,N14615,N14616,N14617,N14618,N14619,N14620,  \note fields as indicated
+  N14621,N14622,N14623,N14624,N14625,N14626,N14627,N14628,N14629,N14630,N14631,N14632,N14633,N14634,N14635,N14636,N14637,N14638,N14639,N14640,  \note fields as indicated
+  N14641,N14642,N14643,N14644,N14645,N14646,N14647,N14648,N14649,N14650,N14651,N14652,N14653,N14654,N14655,N14656,N14657,N14658,N14659,N14660,  \note fields as indicated
+  N14661,N14662,N14663,N14664,N14665,N14666,N14667,N14668,N14669,N14670,N14671,N14672,N14673,N14674,N14675,N14676,N14677,N14678,N14679,N14680,  \note fields as indicated
+  N14681,N14682,N14683,N14684,N14685,N14686,N14687,N14688,N14689,N14690,N14691,N14692,N14693,N14694,N14695,N14696,N14697,N14698,N14699,N14700,  \note fields as indicated
+  N14701,N14702,N14703,N14704,N14705,N14706,N14707,N14708,N14709,N14710,N14711,N14712,N14713,N14714,N14715,N14716,N14717,N14718,N14719,N14720,  \note fields as indicated
+  N14721,N14722,N14723,N14724,N14725,N14726,N14727,N14728,N14729,N14730,N14731,N14732,N14733,N14734,N14735,N14736,N14737,N14738,N14739,N14740,  \note fields as indicated
+  N14741,N14742,N14743,N14744,N14745,N14746,N14747,N14748,N14749,N14750,N14751,N14752,N14753,N14754,N14755,N14756,N14757,N14758,N14759,N14760,  \note fields as indicated
+  N14761,N14762,N14763,N14764,N14765,N14766,N14767,N14768,N14769,N14770,N14771,N14772,N14773,N14774,N14775,N14776,N14777,N14778,N14779,N14780,  \note fields as indicated
+  N14781,N14782,N14783,N14784,N14785,N14786,N14787,N14788,N14789,N14790,N14791,N14792,N14793,N14794,N14795,N14796,N14797,N14798,N14799,N14800,  \note fields as indicated
+  N14801,N14802,N14803,N14804,N14805,N14806,N14807,N14808,N14809,N14810,N14811,N14812,N14813,N14814,N14815,N14816,N14817,N14818,N14819,N14820,  \note fields as indicated
+  N14821,N14822,N14823,N14824,N14825,N14826,N14827,N14828,N14829,N14830,N14831,N14832,N14833,N14834,N14835,N14836,N14837,N14838,N14839,N14840,  \note fields as indicated
+  N14841,N14842,N14843,N14844,N14845,N14846,N14847,N14848,N14849,N14850,N14851,N14852,N14853,N14854,N14855,N14856,N14857,N14858,N14859,N14860,  \note fields as indicated
+  N14861,N14862,N14863,N14864,N14865,N14866,N14867,N14868,N14869,N14870,N14871,N14872,N14873,N14874,N14875,N14876,N14877,N14878,N14879,N14880,  \note fields as indicated
+  N14881,N14882,N14883,N14884,N14885,N14886,N14887,N14888,N14889,N14890,N14891,N14892,N14893,N14894,N14895,N14896,N14897,N14898,N14899,N14900,  \note fields as indicated
+  N14901,N14902,N14903,N14904,N14905,N14906,N14907,N14908,N14909,N14910,N14911,N14912,N14913,N14914,N14915,N14916,N14917,N14918,N14919,N14920,  \note fields as indicated
+  N14921,N14922,N14923,N14924,N14925,N14926,N14927,N14928,N14929,N14930,N14931,N14932,N14933,N14934,N14935,N14936,N14937,N14938,N14939,N14940,  \note fields as indicated
+  N14941,N14942,N14943,N14944,N14945,N14946,N14947,N14948,N14949,N14950,N14951,N14952,N14953,N14954,N14955,N14956,N14957,N14958,N14959,N14960,  \note fields as indicated
+  N14961,N14962,N14963,N14964,N14965,N14966,N14967,N14968,N14969,N14970,N14971,N14972,N14973,N14974,N14975,N14976,N14977,N14978,N14979,N14980,  \note fields as indicated
+  N14981,N14982,N14983,N14984,N14985,N14986,N14987,N14988,N14989,N14990,N14991,N14992,N14993,N14994,N14995,N14996,N14997,N14998,N14999,N15000,  \note fields as indicated
+  N15001,N15002,N15003,N15004,N15005,N15006,N15007,N15008,N15009,N15010,N15011,N15012,N15013,N15014,N15015,N15016,N15017,N15018,N15019,N15020,  \note fields as indicated
+  N15021,N15022,N15023,N15024,N15025,N15026,N15027,N15028,N15029,N15030,N15031,N15032,N15033,N15034,N15035,N15036,N15037,N15038,N15039,N15040,  \note fields as indicated
+  N15041,N15042,N15043,N15044,N15045,N15046,N15047,N15048,N15049,N15050,N15051,N15052,N15053,N15054,N15055,N15056,N15057,N15058,N15059,N15060,  \note fields as indicated
+  N15061,N15062,N15063,N15064,N15065,N15066,N15067,N15068,N15069,N15070,N15071,N15072,N15073,N15074,N15075,N15076,N15077,N15078,N15079,N15080,  \note fields as indicated
+  N15081,N15082,N15083,N15084,N15085,N15086,N15087,N15088,N15089,N15090,N15091,N15092,N15093,N15094,N15095,N15096,N15097,N15098,N15099,N15100,  \note fields as indicated
+  N15101,N15102,N15103,N15104,N15105,N15106,N15107,N15108,N15109,N15110,N15111,N15112,N15113,N15114,N15115,N15116,N15117,N15118,N15119,N15120,  \note fields as indicated
+  N15121,N15122,N15123,N15124,N15125,N15126,N15127,N15128,N15129,N15130,N15131,N15132,N15133,N15134,N15135,N15136,N15137,N15138,N15139,N15140,  \note fields as indicated
+  N15141,N15142,N15143,N15144,N15145,N15146,N15147,N15148,N15149,N15150,N15151,N15152,N15153,N15154,N15155,N15156,N15157,N15158,N15159,N15160,  \note fields as indicated
+  N15161,N15162,N15163,N15164,N15165,N15166,N15167,N15168,N15169,N15170,N15171,N15172,N15173,N15174,N15175,N15176,N15177,N15178,N15179,N15180,  \note fields as indicated
+  N15181,N15182,N15183,N15184,N15185,N15186,N15187,N15188,N15189,N15190,N15191,N15192,N15193,N15194,N15195,N15196,N15197,N15198,N15199,N15200,  \note fields as indicated
+  N15201,N15202,N15203,N15204,N15205,N15206,N15207,N15208,N15209,N15210,N15211,N15212,N15213,N15214,N15215,N15216,N15217,N15218,N15219,N15220,  \note fields as indicated
+  N15221,N15222,N15223,N15224,N15225,N15226,N15227,N15228,N15229,N15230,N15231,N15232,N15233,N15234,N15235,N15236,N15237,N15238,N15239,N15240,  \note fields as indicated
+  N15241,N15242,N15243,N15244,N15245,N15246,N15247,N15248,N15249,N15250,N15251,N15252,N15253,N15254,N15255,N15256,N15257,N15258,N15259,N15260,  \note fields as indicated
+  N15261,N15262,N15263,N15264,N15265,N15266,N15267,N15268,N15269,N15270,N15271,N15272,N15273,N15274,N15275,N15276,N15277,N15278,N15279,N15280,  \note fields as indicated
+  N15281,N15282,N15283,N15284,N15285,N15286,N15287,N15288,N15289,N15290,N15291,N15292,N15293,N15294,N15295,N15296,N15297,N15298,N15299,N15300,  \note fields as indicated
+  N15301,N15302,N15303,N15304,N15305,N15306,N15307,N15308,N15309,N15310,N15311,N15312,N15313,N15314,N15315,N15316,N15317,N15318,N15319,N15320,  \note fields as indicated
+  N15321,N15322,N15323,N15324,N15325,N15326,N15327,N15328,N15329,N15330,N15331,N15332,N15333,N15334,N15335,N15336,N15337,N15338,N15339,N15340,  \note fields as indicated
+  N15341,N15342,N15343,N15344,N15345,N15346,N15347,N15348,N15349,N15350,N15351,N15352,N15353,N15354,N15355,N15356,N15357,N15358,N15359,N15360,  \note fields as indicated
+  N15361,N15362,N15363,N15364,N15365,N15366,N15367,N15368,N15369,N15370,N15371,N15372,N15373,N15374,N15375,N15376,N15377,N15378,N15379,N15380,  \note fields as indicated
+  N15381,N15382,N15383,N15384,N15385,N15386,N15387,N15388,N15389,N15390,N15391,N15392,N15393,N15394,N15395,N15396,N15397,N15398,N15399,N15400,  \note fields as indicated
+  N15401,N15402,N15403,N15404,N15405,N15406,N15407,N15408,N15409,N15410,N15411,N15412,N15413,N15414,N15415,N15416,N15417,N15418,N15419,N15420,  \note fields as indicated
+  N15421,N15422,N15423,N15424,N15425,N15426,N15427,N15428,N15429,N15430,N15431,N15432,N15433,N15434,N15435,N15436,N15437,N15438,N15439,N15440,  \note fields as indicated
+  N15441,N15442,N15443,N15444,N15445,N15446,N15447,N15448,N15449,N15450,N15451,N15452,N15453,N15454,N15455,N15456,N15457,N15458,N15459,N15460,  \note fields as indicated
+  N15461,N15462,N15463,N15464,N15465,N15466,N15467,N15468,N15469,N15470,N15471,N15472,N15473,N15474,N15475,N15476,N15477,N15478,N15479,N15480,  \note fields as indicated
+  N15481,N15482,N15483,N15484,N15485,N15486,N15487,N15488,N15489,N15490,N15491,N15492,N15493,N15494,N15495,N15496,N15497,N15498,N15499,N15500,  \note fields as indicated
+  N15501,N15502,N15503,N15504,N15505,N15506,N15507,N15508,N15509,N15510,N15511,N15512,N15513,N15514,N15515,N15516,N15517,N15518,N15519,N15520,  \note fields as indicated
+  N15521,N15522,N15523,N15524,N15525,N15526,N15527,N15528,N15529,N15530,N15531,N15532,N15533,N15534,N15535,N15536,N15537,N15538,N15539,N15540,  \note fields as indicated
+  N15541,N15542,N15543,N15544,N15545,N15546,N15547,N15548,N15549,N15550,N15551,N15552,N15553,N15554,N15555,N15556,N15557,N15558,N15559,N15560,  \note fields as indicated
+  N15561,N15562,N15563,N15564,N15565,N15566,N15567,N15568,N15569,N15570,N15571,N15572,N15573,N15574,N15575,N15576,N15577,N15578,N15579,N15580,  \note fields as indicated
+  N15581,N15582,N15583,N15584,N15585,N15586,N15587,N15588,N15589,N15590,N15591,N15592,N15593,N15594,N15595,N15596,N15597,N15598,N15599,N15600,  \note fields as indicated
+  N15601,N15602,N15603,N15604,N15605,N15606,N15607,N15608,N15609,N15610,N15611,N15612,N15613,N15614,N15615,N15616,N15617,N15618,N15619,N15620,  \note fields as indicated
+  N15621,N15622,N15623,N15624,N15625,N15626,N15627,N15628,N15629,N15630,N15631,N15632,N15633,N15634,N15635,N15636,N15637,N15638,N15639,N15640,  \note fields as indicated
+  N15641,N15642,N15643,N15644,N15645,N15646,N15647,N15648,N15649,N15650,N15651,N15652,N15653,N15654,N15655,N15656,N15657,N15658,N15659,N15660,  \note fields as indicated
+  N15661,N15662,N15663,N15664,N15665,N15666,N15667,N15668,N15669,N15670,N15671,N15672,N15673,N15674,N15675,N15676,N15677,N15678,N15679,N15680,  \note fields as indicated
+  N15681,N15682,N15683,N15684,N15685,N15686,N15687,N15688,N15689,N15690,N15691,N15692,N15693,N15694,N15695,N15696,N15697,N15698,N15699,N15700,  \note fields as indicated
+  N15701,N15702,N15703,N15704,N15705,N15706,N15707,N15708,N15709,N15710,N15711,N15712,N15713,N15714,N15715,N15716,N15717,N15718,N15719,N15720,  \note fields as indicated
+  N15721,N15722,N15723,N15724,N15725,N15726,N15727,N15728,N15729,N15730,N15731,N15732,N15733,N15734,N15735,N15736,N15737,N15738,N15739,N15740,  \note fields as indicated
+  N15741,N15742,N15743,N15744,N15745,N15746,N15747,N15748,N15749,N15750,N15751,N15752,N15753,N15754,N15755,N15756,N15757,N15758,N15759,N15760,  \note fields as indicated
+  N15761,N15762,N15763,N15764,N15765,N15766,N15767,N15768,N15769,N15770,N15771,N15772,N15773,N15774,N15775,N15776,N15777,N15778,N15779,N15780,  \note fields as indicated
+  N15781,N15782,N15783,N15784,N15785,N15786,N15787,N15788,N15789,N15790,N15791,N15792,N15793,N15794,N15795,N15796,N15797,N15798,N15799,N15800,  \note fields as indicated
+  N15801,N15802,N15803,N15804,N15805,N15806,N15807,N15808,N15809,N15810,N15811,N15812,N15813,N15814,N15815,N15816,N15817,N15818,N15819,N15820,  \note fields as indicated
+  N15821,N15822,N15823,N15824,N15825,N15826,N15827,N15828,N15829,N15830,N15831,N15832,N15833,N15834,N15835,N15836,N15837,N15838,N15839,N15840,  \note fields as indicated
+  N15841,N15842,N15843,N15844,N15845,N15846,N15847,N15848,N15849,N15850,N15851,N15852,N15853,N15854,N15855,N15856,N15857,N15858,N15859,N15860,  \note fields as indicated
+  N15861,N15862,N15863,N15864,N15865,N15866,N15867,N15868,N15869,N15870,N15871,N15872,N15873,N15874,N15875,N15876,N15877,N15878,N15879,N15880,  \note fields as indicated
+  N15881,N15882,N15883,N15884,N15885,N15886,N15887,N15888,N15889,N15890,N15891,N15892,N15893,N15894,N15895,N15896,N15897,N15898,N15899,N15900,  \note fields as indicated
+  N15901,N15902,N15903,N15904,N15905,N15906,N15907,N15908,N15909,N15910,N15911,N15912,N15913,N15914,N15915,N15916,N15917,N15918,N15919,N15920,  \note fields as indicated
+  N15921,N15922,N15923,N15924,N15925,N15926,N15927,N15928,N15929,N15930,N15931,N15932,N15933,N15934,N15935,N15936,N15937,N15938,N15939,N15940,  \note fields as indicated
+  N15941,N15942,N15943,N15944,N15945,N15946,N15947,N15948,N15949,N15950,N15951,N15952,N15953,N15954,N15955,N15956,N15957,N15958,N15959,N15960,  \note fields as indicated
+  N15961,N15962,N15963,N15964,N15965,N15966,N15967,N15968,N15969,N15970,N15971,N15972,N15973,N15974,N15975,N15976,N15977,N15978,N15979,N15980,  \note fields as indicated
+  N15981,N15982,N15983,N15984,N15985,N15986,N15987,N15988,N15989,N15990,N15991,N15992,N15993,N15994,N15995,N15996,N15997,N15998,N15999,N16000,  \note fields as indicated
+  N16001,N16002,N16003,N16004,N16005,N16006,N16007,N16008,N16009,N16010,N16011,N16012,N16013,N16014,N16015,N16016,N16017,N16018,N16019,N16020,  \note fields as indicated
+  N16021,N16022,N16023,N16024,N16025,N16026,N16027,N16028,N16029,N16030,N16031,N16032,N16033,N16034,N16035,N16036,N16037,N16038,N16039,N16040,  \note fields as indicated
+  N16041,N16042,N16043,N16044,N16045,N16046,N16047,N16048,N16049,N16050,N16051,N16052,N16053,N16054,N16055,N16056,N16057,N16058,N16059,N16060,  \note fields as indicated
+  N16061,N16062,N16063,N16064,N16065,N16066,N16067,N16068,N16069,N16070,N16071,N16072,N16073,N16074,N16075,N16076,N16077,N16078,N16079,N16080,  \note fields as indicated
+  N16081,N16082,N16083,N16084,N16085,N16086,N16087,N16088,N16089,N16090,N16091,N16092,N16093,N16094,N16095,N16096,N16097,N16098,N16099,N16100,  \note fields as indicated
+  N16101,N16102,N16103,N16104,N16105,N16106,N16107,N16108,N16109,N16110,N16111,N16112,N16113,N16114,N16115,N16116,N16117,N16118,N16119,N16120,  \note fields as indicated
+  N16121,N16122,N16123,N16124,N16125,N16126,N16127,N16128,N16129,N16130,N16131,N16132,N16133,N16134,N16135,N16136,N16137,N16138,N16139,N16140,  \note fields as indicated
+  N16141,N16142,N16143,N16144,N16145,N16146,N16147,N16148,N16149,N16150,N16151,N16152,N16153,N16154,N16155,N16156,N16157,N16158,N16159,N16160,  \note fields as indicated
+  N16161,N16162,N16163,N16164,N16165,N16166,N16167,N16168,N16169,N16170,N16171,N16172,N16173,N16174,N16175,N16176,N16177,N16178,N16179,N16180,  \note fields as indicated
+  N16181,N16182,N16183,N16184,N16185,N16186,N16187,N16188,N16189,N16190,N16191,N16192,N16193,N16194,N16195,N16196,N16197,N16198,N16199,N16200,  \note fields as indicated
+  N16201,N16202,N16203,N16204,N16205,N16206,N16207,N16208,N16209,N16210,N16211,N16212,N16213,N16214,N16215,N16216,N16217,N16218,N16219,N16220,  \note fields as indicated
+  N16221,N16222,N16223,N16224,N16225,N16226,N16227,N16228,N16229,N16230,N16231,N16232,N16233,N16234,N16235,N16236,N16237,N16238,N16239,N16240,  \note fields as indicated
+  N16241,N16242,N16243,N16244,N16245,N16246,N16247,N16248,N16249,N16250,N16251,N16252,N16253,N16254,N16255,N16256,N16257,N16258,N16259,N16260,  \note fields as indicated
+  N16261,N16262,N16263,N16264,N16265,N16266,N16267,N16268,N16269,N16270,N16271,N16272,N16273,N16274,N16275,N16276,N16277,N16278,N16279,N16280,  \note fields as indicated
+  N16281,N16282,N16283,N16284,N16285,N16286,N16287,N16288,N16289,N16290,N16291,N16292,N16293,N16294,N16295,N16296,N16297,N16298,N16299,N16300,  \note fields as indicated
+  N16301,N16302,N16303,N16304,N16305,N16306,N16307,N16308,N16309,N16310,N16311,N16312,N16313,N16314,N16315,N16316,N16317,N16318,N16319,N16320,  \note fields as indicated
+  N16321,N16322,N16323,N16324,N16325,N16326,N16327,N16328,N16329,N16330,N16331,N16332,N16333,N16334,N16335,N16336,N16337,N16338,N16339,N16340,  \note fields as indicated
+  N16341,N16342,N16343,N16344,N16345,N16346,N16347,N16348,N16349,N16350,N16351,N16352,N16353,N16354,N16355,N16356,N16357,N16358,N16359,N16360,  \note fields as indicated
+  N16361,N16362,N16363,N16364,N16365,N16366,N16367,N16368,N16369,N16370,N16371,N16372,N16373,N16374,N16375,N16376,N16377,N16378,N16379,N16380,  \note fields as indicated
+  N16381,N16382,N16383,N16384,N16385,N16386,N16387,N16388,N16389,N16390,N16391,N16392,N16393,N16394,N16395,N16396,N16397,N16398,N16399,N16400,  \note fields as indicated
+  N16401,N16402,N16403,N16404,N16405,N16406,N16407,N16408,N16409,N16410,N16411,N16412,N16413,N16414,N16415,N16416,N16417,N16418,N16419,N16420,  \note fields as indicated
+  N16421,N16422,N16423,N16424,N16425,N16426,N16427,N16428,N16429,N16430,N16431,N16432,N16433,N16434,N16435,N16436,N16437,N16438,N16439,N16440,  \note fields as indicated
+  N16441,N16442,N16443,N16444,N16445,N16446,N16447,N16448,N16449,N16450,N16451,N16452,N16453,N16454,N16455,N16456,N16457,N16458,N16459,N16460,  \note fields as indicated
+  N16461,N16462,N16463,N16464,N16465,N16466,N16467,N16468,N16469,N16470,N16471,N16472,N16473,N16474,N16475,N16476,N16477,N16478,N16479,N16480,  \note fields as indicated
+  N16481,N16482,N16483,N16484,N16485,N16486,N16487,N16488,N16489,N16490,N16491,N16492,N16493,N16494,N16495,N16496,N16497,N16498,N16499,N16500,  \note fields as indicated
+  N16501,N16502,N16503,N16504,N16505,N16506,N16507,N16508,N16509,N16510,N16511,N16512,N16513,N16514,N16515,N16516,N16517,N16518,N16519,N16520,  \note fields as indicated
+  N16521,N16522,N16523,N16524,N16525,N16526,N16527,N16528,N16529,N16530,N16531,N16532,N16533,N16534,N16535,N16536,N16537,N16538,N16539,N16540,  \note fields as indicated
+  N16541,N16542,N16543,N16544,N16545,N16546,N16547,N16548,N16549,N16550,N16551,N16552,N16553,N16554,N16555,N16556,N16557,N16558,N16559,N16560,  \note fields as indicated
+  N16561,N16562,N16563,N16564,N16565,N16566,N16567,N16568,N16569,N16570,N16571,N16572,N16573,N16574,N16575,N16576,N16577,N16578,N16579,N16580,  \note fields as indicated
+  N16581,N16582,N16583,N16584,N16585,N16586,N16587,N16588,N16589,N16590,N16591,N16592,N16593,N16594,N16595,N16596,N16597,N16598,N16599,N16600,  \note fields as indicated
+  N16601,N16602,N16603,N16604,N16605,N16606,N16607,N16608,N16609,N16610,N16611,N16612,N16613,N16614,N16615,N16616,N16617,N16618,N16619,N16620,  \note fields as indicated
+  N16621,N16622,N16623,N16624,N16625,N16626,N16627,N16628,N16629,N16630,N16631,N16632,N16633,N16634,N16635,N16636,N16637,N16638,N16639,N16640,  \note fields as indicated
+  N16641,N16642,N16643,N16644,N16645,N16646,N16647,N16648,N16649,N16650,N16651,N16652,N16653,N16654,N16655,N16656,N16657,N16658,N16659,N16660,  \note fields as indicated
+  N16661,N16662,N16663,N16664,N16665,N16666,N16667,N16668,N16669,N16670,N16671,N16672,N16673,N16674,N16675,N16676,N16677,N16678,N16679,N16680,  \note fields as indicated
+  N16681,N16682,N16683,N16684,N16685,N16686,N16687,N16688,N16689,N16690,N16691,N16692,N16693,N16694,N16695,N16696,N16697,N16698,N16699,N16700,  \note fields as indicated
+  N16701,N16702,N16703,N16704,N16705,N16706,N16707,N16708,N16709,N16710,N16711,N16712,N16713,N16714,N16715,N16716,N16717,N16718,N16719,N16720,  \note fields as indicated
+  N16721,N16722,N16723,N16724,N16725,N16726,N16727,N16728,N16729,N16730,N16731,N16732,N16733,N16734,N16735,N16736,N16737,N16738,N16739,N16740,  \note fields as indicated
+  N16741,N16742,N16743,N16744,N16745,N16746,N16747,N16748,N16749,N16750,N16751,N16752,N16753,N16754,N16755,N16756,N16757,N16758,N16759,N16760,  \note fields as indicated
+  N16761,N16762,N16763,N16764,N16765,N16766,N16767,N16768,N16769,N16770,N16771,N16772,N16773,N16774,N16775,N16776,N16777,N16778,N16779,N16780,  \note fields as indicated
+  N16781,N16782,N16783,N16784,N16785,N16786,N16787,N16788,N16789,N16790,N16791,N16792,N16793,N16794,N16795,N16796,N16797,N16798,N16799,N16800,  \note fields as indicated
+  N16801,N16802,N16803,N16804,N16805,N16806,N16807,N16808,N16809,N16810,N16811,N16812,N16813,N16814,N16815,N16816,N16817,N16818,N16819,N16820,  \note fields as indicated
+  N16821,N16822,N16823,N16824,N16825,N16826,N16827,N16828,N16829,N16830,N16831,N16832,N16833,N16834,N16835,N16836,N16837,N16838,N16839,N16840,  \note fields as indicated
+  N16841,N16842,N16843,N16844,N16845,N16846,N16847,N16848,N16849,N16850,N16851,N16852,N16853,N16854,N16855,N16856,N16857,N16858,N16859,N16860,  \note fields as indicated
+  N16861,N16862,N16863,N16864,N16865,N16866,N16867,N16868,N16869,N16870,N16871,N16872,N16873,N16874,N16875,N16876,N16877,N16878,N16879,N16880,  \note fields as indicated
+  N16881,N16882,N16883,N16884,N16885,N16886,N16887,N16888,N16889,N16890,N16891,N16892,N16893,N16894,N16895,N16896,N16897,N16898,N16899,N16900,  \note fields as indicated
+  N16901,N16902,N16903,N16904,N16905,N16906,N16907,N16908,N16909,N16910,N16911,N16912,N16913,N16914,N16915,N16916,N16917,N16918,N16919,N16920,  \note fields as indicated
+  N16921,N16922,N16923,N16924,N16925,N16926,N16927,N16928,N16929,N16930,N16931,N16932,N16933,N16934,N16935,N16936,N16937,N16938,N16939,N16940,  \note fields as indicated
+  N16941,N16942,N16943,N16944,N16945,N16946,N16947,N16948,N16949,N16950,N16951,N16952,N16953,N16954,N16955,N16956,N16957,N16958,N16959,N16960,  \note fields as indicated
+  N16961,N16962,N16963,N16964,N16965,N16966,N16967,N16968,N16969,N16970,N16971,N16972,N16973,N16974,N16975,N16976,N16977,N16978,N16979,N16980,  \note fields as indicated
+  N16981,N16982,N16983,N16984,N16985,N16986,N16987,N16988,N16989,N16990,N16991,N16992,N16993,N16994,N16995,N16996,N16997,N16998,N16999,N17000,  \note fields as indicated
+  N17001,N17002,N17003,N17004,N17005,N17006,N17007,N17008,N17009,N17010,N17011,N17012,N17013,N17014,N17015,N17016,N17017,N17018,N17019,N17020,  \note fields as indicated
+  N17021,N17022,N17023,N17024,N17025,N17026,N17027,N17028,N17029,N17030,N17031,N17032,N17033,N17034,N17035,N17036,N17037,N17038,N17039,N17040,  \note fields as indicated
+  N17041,N17042,N17043,N17044,N17045,N17046,N17047,N17048,N17049,N17050,N17051,N17052,N17053,N17054,N17055,N17056,N17057,N17058,N17059,N17060,  \note fields as indicated
+  N17061,N17062,N17063,N17064,N17065,N17066,N17067,N17068,N17069,N17070,N17071,N17072,N17073,N17074,N17075,N17076,N17077,N17078,N17079,N17080,  \note fields as indicated
+  N17081,N17082,N17083,N17084,N17085,N17086,N17087,N17088,N17089,N17090,N17091,N17092,N17093,N17094,N17095,N17096,N17097,N17098,N17099,N17100,  \note fields as indicated
+  N17101,N17102,N17103,N17104,N17105,N17106,N17107,N17108,N17109,N17110,N17111,N17112,N17113,N17114,N17115,N17116,N17117,N17118,N17119,N17120,  \note fields as indicated
+  N17121,N17122,N17123,N17124,N17125,N17126,N17127,N17128,N17129,N17130,N17131,N17132,N17133,N17134,N17135,N17136,N17137,N17138,N17139,N17140,  \note fields as indicated
+  N17141,N17142,N17143,N17144,N17145,N17146,N17147,N17148,N17149,N17150,N17151,N17152,N17153,N17154,N17155,N17156,N17157,N17158,N17159,N17160,  \note fields as indicated
+  N17161,N17162,N17163,N17164,N17165,N17166,N17167,N17168,N17169,N17170,N17171,N17172,N17173,N17174,N17175,N17176,N17177,N17178,N17179,N17180,  \note fields as indicated
+  N17181,N17182,N17183,N17184,N17185,N17186,N17187,N17188,N17189,N17190,N17191,N17192,N17193,N17194,N17195,N17196,N17197,N17198,N17199,N17200,  \note fields as indicated
+  N17201,N17202,N17203,N17204,N17205,N17206,N17207,N17208,N17209,N17210,N17211,N17212,N17213,N17214,N17215,N17216,N17217,N17218,N17219,N17220,  \note fields as indicated
+  N17221,N17222,N17223,N17224,N17225,N17226,N17227,N17228,N17229,N17230,N17231,N17232,N17233,N17234,N17235,N17236,N17237,N17238,N17239,N17240,  \note fields as indicated
+  N17241,N17242,N17243,N17244,N17245,N17246,N17247,N17248,N17249,N17250,N17251,N17252,N17253,N17254,N17255,N17256,N17257,N17258,N17259,N17260,  \note fields as indicated
+  N17261,N17262,N17263,N17264,N17265,N17266,N17267,N17268,N17269,N17270,N17271,N17272,N17273,N17274,N17275,N17276,N17277,N17278,N17279,N17280,  \note fields as indicated
+  N17281,N17282,N17283,N17284,N17285,N17286,N17287,N17288,N17289,N17290,N17291,N17292,N17293,N17294,N17295,N17296,N17297,N17298,N17299,N17300,  \note fields as indicated
+  N17301,N17302,N17303,N17304,N17305,N17306,N17307,N17308,N17309,N17310,N17311,N17312,N17313,N17314,N17315,N17316,N17317,N17318,N17319,N17320,  \note fields as indicated
+  N17321,N17322,N17323,N17324,N17325,N17326,N17327,N17328,N17329,N17330,N17331,N17332,N17333,N17334,N17335,N17336,N17337,N17338,N17339,N17340,  \note fields as indicated
+  N17341,N17342,N17343,N17344,N17345,N17346,N17347,N17348,N17349,N17350,N17351,N17352,N17353,N17354,N17355,N17356,N17357,N17358,N17359,N17360,  \note fields as indicated
+  N17361,N17362,N17363,N17364,N17365,N17366,N17367,N17368,N17369,N17370,N17371,N17372,N17373,N17374,N17375,N17376,N17377,N17378,N17379,N17380,  \note fields as indicated
+  N17381,N17382,N17383,N17384,N17385,N17386,N17387,N17388,N17389,N17390,N17391,N17392,N17393,N17394,N17395,N17396,N17397,N17398,N17399,N17400,  \note fields as indicated
+  N17401,N17402,N17403,N17404,N17405,N17406,N17407,N17408,N17409,N17410,N17411,N17412,N17413,N17414,N17415,N17416,N17417,N17418,N17419,N17420,  \note fields as indicated
+  N17421,N17422,N17423,N17424,N17425,N17426,N17427,N17428,N17429,N17430,N17431,N17432,N17433,N17434,N17435,N17436,N17437,N17438,N17439,N17440,  \note fields as indicated
+  N17441,N17442,N17443,N17444,N17445,N17446,N17447,N17448,N17449,N17450,N17451,N17452,N17453,N17454,N17455,N17456,N17457,N17458,N17459,N17460,  \note fields as indicated
+  N17461,N17462,N17463,N17464,N17465,N17466,N17467,N17468,N17469,N17470,N17471,N17472,N17473,N17474,N17475,N17476,N17477,N17478,N17479,N17480,  \note fields as indicated
+  N17481,N17482,N17483,N17484,N17485,N17486,N17487,N17488,N17489,N17490,N17491,N17492,N17493,N17494,N17495,N17496,N17497,N17498,N17499,N17500,  \note fields as indicated
+  N17501,N17502,N17503,N17504,N17505,N17506,N17507,N17508,N17509,N17510,N17511,N17512,N17513,N17514,N17515,N17516,N17517,N17518,N17519,N17520,  \note fields as indicated
+  N17521,N17522,N17523,N17524,N17525,N17526,N17527,N17528,N17529,N17530,N17531,N17532,N17533,N17534,N17535,N17536,N17537,N17538,N17539,N17540,  \note fields as indicated
+  N17541,N17542,N17543,N17544,N17545,N17546,N17547,N17548,N17549,N17550,N17551,N17552,N17553,N17554,N17555,N17556,N17557,N17558,N17559,N17560,  \note fields as indicated
+  N17561,N17562,N17563,N17564,N17565,N17566,N17567,N17568,N17569,N17570,N17571,N17572,N17573,N17574,N17575,N17576,N17577,N17578,N17579,N17580,  \note fields as indicated
+  N17581,N17582,N17583,N17584,N17585,N17586,N17587,N17588,N17589,N17590,N17591,N17592,N17593,N17594,N17595,N17596,N17597,N17598,N17599,N17600,  \note fields as indicated
+  N17601,N17602,N17603,N17604,N17605,N17606,N17607,N17608,N17609,N17610,N17611,N17612,N17613,N17614,N17615,N17616,N17617,N17618,N17619,N17620,  \note fields as indicated
+  N17621,N17622,N17623,N17624,N17625,N17626,N17627,N17628,N17629,N17630,N17631,N17632,N17633,N17634,N17635,N17636,N17637,N17638,N17639,N17640,  \note fields as indicated
+  N17641,N17642,N17643,N17644,N17645,N17646,N17647,N17648,N17649,N17650,N17651,N17652,N17653,N17654,N17655,N17656,N17657,N17658,N17659,N17660,  \note fields as indicated
+  N17661,N17662,N17663,N17664,N17665,N17666,N17667,N17668,N17669,N17670,N17671,N17672,N17673,N17674,N17675,N17676,N17677,N17678,N17679,N17680,  \note fields as indicated
+  N17681,N17682,N17683,N17684,N17685,N17686,N17687,N17688,N17689,N17690,N17691,N17692,N17693,N17694,N17695,N17696,N17697,N17698,N17699,N17700,  \note fields as indicated
+  N17701,N17702,N17703,N17704,N17705,N17706,N17707,N17708,N17709,N17710,N17711,N17712,N17713,N17714,N17715,N17716,N17717,N17718,N17719,N17720,  \note fields as indicated
+  N17721,N17722,N17723,N17724,N17725,N17726,N17727,N17728,N17729,N17730,N17731,N17732,N17733,N17734,N17735,N17736,N17737,N17738,N17739,N17740,  \note fields as indicated
+  N17741,N17742,N17743,N17744,N17745,N17746,N17747,N17748,N17749,N17750,N17751,N17752,N17753,N17754,N17755,N17756,N17757,N17758,N17759,N17760,  \note fields as indicated
+  N17761,N17762,N17763,N17764,N17765,N17766,N17767,N17768,N17769,N17770,N17771,N17772,N17773,N17774,N17775,N17776,N17777,N17778,N17779,N17780,  \note fields as indicated
+  N17781,N17782,N17783,N17784,N17785,N17786,N17787,N17788,N17789,N17790,N17791,N17792,N17793,N17794,N17795,N17796,N17797,N17798,N17799,N17800,  \note fields as indicated
+  N17801,N17802,N17803,N17804,N17805,N17806,N17807,N17808,N17809,N17810,N17811,N17812,N17813,N17814,N17815,N17816,N17817,N17818,N17819,N17820,  \note fields as indicated
+  N17821,N17822,N17823,N17824,N17825,N17826,N17827,N17828,N17829,N17830,N17831,N17832,N17833,N17834,N17835,N17836,N17837,N17838,N17839,N17840,  \note fields as indicated
+  N17841,N17842,N17843,N17844,N17845,N17846,N17847,N17848,N17849,N17850,N17851,N17852,N17853,N17854,N17855,N17856,N17857,N17858,N17859,N17860,  \note fields as indicated
+  N17861,N17862,N17863,N17864,N17865,N17866,N17867,N17868,N17869,N17870,N17871,N17872,N17873,N17874,N17875,N17876,N17877,N17878,N17879,N17880,  \note fields as indicated
+  N17881,N17882,N17883,N17884,N17885,N17886,N17887,N17888,N17889,N17890,N17891,N17892,N17893,N17894,N17895,N17896,N17897,N17898,N17899,N17900,  \note fields as indicated
+  N17901,N17902,N17903,N17904,N17905,N17906,N17907,N17908,N17909,N17910,N17911,N17912,N17913,N17914,N17915,N17916,N17917,N17918,N17919,N17920,  \note fields as indicated
+  N17921,N17922,N17923,N17924,N17925,N17926,N17927,N17928,N17929,N17930,N17931,N17932,N17933,N17934,N17935,N17936,N17937,N17938,N17939,N17940,  \note fields as indicated
+  N17941,N17942,N17943,N17944,N17945,N17946,N17947,N17948,N17949,N17950,N17951,N17952,N17953,N17954,N17955,N17956,N17957,N17958,N17959,N17960,  \note fields as indicated
+  N17961,N17962,N17963,N17964,N17965,N17966,N17967,N17968,N17969,N17970,N17971,N17972,N17973,N17974,N17975,N17976,N17977,N17978,N17979,N17980,  \note fields as indicated
+  N17981,N17982,N17983,N17984,N17985,N17986,N17987,N17988,N17989,N17990,N17991,N17992,N17993,N17994,N17995,N17996,N17997,N17998,N17999,N18000,  \note fields as indicated
+  N18001,N18002,N18003,N18004,N18005,N18006,N18007,N18008,N18009,N18010,N18011,N18012,N18013,N18014,N18015,N18016,N18017,N18018,N18019,N18020,  \note fields as indicated
+  N18021,N18022,N18023,N18024,N18025,N18026,N18027,N18028,N18029,N18030,N18031,N18032,N18033,N18034,N18035,N18036,N18037,N18038,N18039,N18040,  \note fields as indicated
+  N18041,N18042,N18043,N18044,N18045,N18046,N18047,N18048,N18049,N18050,N18051,N18052,N18053,N18054,N18055,N18056,N18057,N18058,N18059,N18060,  \note fields as indicated
+  N18061,N18062,N18063,N18064,N18065,N18066,N18067,N18068,N18069,N18070,N18071,N18072,N18073,N18074,N18075,N18076,N18077,N18078,N18079,N18080,  \note fields as indicated
+  N18081,N18082,N18083,N18084,N18085,N18086,N18087,N18088,N18089,N18090,N18091,N18092,N18093,N18094,N18095,N18096,N18097,N18098,N18099,N18100,  \note fields as indicated
+  N18101,N18102,N18103,N18104,N18105,N18106,N18107,N18108,N18109,N18110,N18111,N18112,N18113,N18114,N18115,N18116,N18117,N18118,N18119,N18120,  \note fields as indicated
+  N18121,N18122,N18123,N18124,N18125,N18126,N18127,N18128,N18129,N18130,N18131,N18132,N18133,N18134,N18135,N18136,N18137,N18138,N18139,N18140,  \note fields as indicated
+  N18141,N18142,N18143,N18144,N18145,N18146,N18147,N18148,N18149,N18150,N18151,N18152,N18153,N18154,N18155,N18156,N18157,N18158,N18159,N18160,  \note fields as indicated
+  N18161,N18162,N18163,N18164,N18165,N18166,N18167,N18168,N18169,N18170,N18171,N18172,N18173,N18174,N18175,N18176,N18177,N18178,N18179,N18180,  \note fields as indicated
+  N18181,N18182,N18183,N18184,N18185,N18186,N18187,N18188,N18189,N18190,N18191,N18192,N18193,N18194,N18195,N18196,N18197,N18198,N18199,N18200,  \note fields as indicated
+  N18201,N18202,N18203,N18204,N18205,N18206,N18207,N18208,N18209,N18210,N18211,N18212,N18213,N18214,N18215,N18216,N18217,N18218,N18219,N18220,  \note fields as indicated
+  N18221,N18222,N18223,N18224,N18225,N18226,N18227,N18228,N18229,N18230,N18231,N18232,N18233,N18234,N18235,N18236,N18237,N18238,N18239,N18240,  \note fields as indicated
+  N18241,N18242,N18243,N18244,N18245,N18246,N18247,N18248,N18249,N18250,N18251,N18252,N18253,N18254,N18255,N18256,N18257,N18258,N18259,N18260,  \note fields as indicated
+  N18261,N18262,N18263,N18264,N18265,N18266,N18267,N18268,N18269,N18270,N18271,N18272,N18273,N18274,N18275,N18276,N18277,N18278,N18279,N18280,  \note fields as indicated
+  N18281,N18282,N18283,N18284,N18285,N18286,N18287,N18288,N18289,N18290,N18291,N18292,N18293,N18294,N18295,N18296,N18297,N18298,N18299,N18300,  \note fields as indicated
+  N18301,N18302,N18303,N18304,N18305,N18306,N18307,N18308,N18309,N18310,N18311,N18312,N18313,N18314,N18315,N18316,N18317,N18318,N18319,N18320,  \note fields as indicated
+  N18321,N18322,N18323,N18324,N18325,N18326,N18327,N18328,N18329,N18330,N18331,N18332,N18333,N18334,N18335,N18336,N18337,N18338,N18339,N18340,  \note fields as indicated
+  N18341,N18342,N18343,N18344,N18345,N18346,N18347,N18348,N18349,N18350,N18351,N18352,N18353,N18354,N18355,N18356,N18357,N18358,N18359,N18360,  \note fields as indicated
+  N18361,N18362,N18363,N18364,N18365,N18366,N18367,N18368,N18369,N18370,N18371,N18372,N18373,N18374,N18375,N18376,N18377,N18378,N18379,N18380,  \note fields as indicated
+  N18381,N18382,N18383,N18384,N18385,N18386,N18387,N18388,N18389,N18390,N18391,N18392,N18393,N18394,N18395,N18396,N18397,N18398,N18399,N18400,  \note fields as indicated
+  N18401,N18402,N18403,N18404,N18405,N18406,N18407,N18408,N18409,N18410,N18411,N18412,N18413,N18414,N18415,N18416,N18417,N18418,N18419,N18420,  \note fields as indicated
+  N18421,N18422,N18423,N18424,N18425,N18426,N18427,N18428,N18429,N18430,N18431,N18432,N18433,N18434,N18435,N18436,N18437,N18438,N18439,N18440,  \note fields as indicated
+  N18441,N18442,N18443,N18444,N18445,N18446,N18447,N18448,N18449,N18450,N18451,N18452,N18453,N18454,N18455,N18456,N18457,N18458,N18459,N18460,  \note fields as indicated
+  N18461,N18462,N18463,N18464,N18465,N18466,N18467,N18468,N18469,N18470,N18471,N18472,N18473,N18474,N18475,N18476,N18477,N18478,N18479,N18480,  \note fields as indicated
+  N18481,N18482,N18483,N18484,N18485,N18486,N18487,N18488,N18489,N18490,N18491,N18492,N18493,N18494,N18495,N18496,N18497,N18498,N18499,N18500,  \note fields as indicated
+  N18501,N18502,N18503,N18504,N18505,N18506,N18507,N18508,N18509,N18510,N18511,N18512,N18513,N18514,N18515,N18516,N18517,N18518,N18519,N18520,  \note fields as indicated
+  N18521,N18522,N18523,N18524,N18525,N18526,N18527,N18528,N18529,N18530,N18531,N18532,N18533,N18534,N18535,N18536,N18537,N18538,N18539,N18540,  \note fields as indicated
+  N18541,N18542,N18543,N18544,N18545,N18546,N18547,N18548,N18549,N18550,N18551,N18552,N18553,N18554,N18555,N18556,N18557,N18558,N18559,N18560,  \note fields as indicated
+  N18561,N18562,N18563,N18564,N18565,N18566,N18567,N18568,N18569,N18570,N18571,N18572,N18573,N18574,N18575,N18576,N18577,N18578,N18579,N18580,  \note fields as indicated
+  N18581,N18582,N18583,N18584,N18585,N18586,N18587,N18588,N18589,N18590,N18591,N18592,N18593,N18594,N18595,N18596,N18597,N18598,N18599,N18600,  \note fields as indicated
+  N18601,N18602,N18603,N18604,N18605,N18606,N18607,N18608,N18609,N18610,N18611,N18612,N18613,N18614,N18615,N18616,N18617,N18618,N18619,N18620,  \note fields as indicated
+  N18621,N18622,N18623,N18624,N18625,N18626,N18627,N18628,N18629,N18630,N18631,N18632,N18633,N18634,N18635,N18636,N18637,N18638,N18639,N18640,  \note fields as indicated
+  N18641,N18642,N18643,N18644,N18645,N18646,N18647,N18648,N18649,N18650,N18651,N18652,N18653,N18654,N18655,N18656,N18657,N18658,N18659,N18660,  \note fields as indicated
+  N18661,N18662,N18663,N18664,N18665,N18666,N18667,N18668,N18669,N18670,N18671,N18672,N18673,N18674,N18675,N18676,N18677,N18678,N18679,N18680,  \note fields as indicated
+  N18681,N18682,N18683,N18684,N18685,N18686,N18687,N18688,N18689,N18690,N18691,N18692,N18693,N18694,N18695,N18696,N18697,N18698,N18699,N18700,  \note fields as indicated
+  N18701,N18702,N18703,N18704,N18705,N18706,N18707,N18708,N18709,N18710,N18711,N18712,N18713,N18714,N18715,N18716,N18717,N18718,N18719,N18720,  \note fields as indicated
+  N18721,N18722,N18723,N18724,N18725,N18726,N18727,N18728,N18729,N18730,N18731,N18732,N18733,N18734,N18735,N18736,N18737,N18738,N18739,N18740,  \note fields as indicated
+  N18741,N18742,N18743,N18744,N18745,N18746,N18747,N18748,N18749,N18750,N18751,N18752,N18753,N18754,N18755,N18756,N18757,N18758,N18759,N18760,  \note fields as indicated
+  N18761,N18762,N18763,N18764,N18765,N18766,N18767,N18768,N18769,N18770,N18771,N18772,N18773,N18774,N18775,N18776,N18777,N18778,N18779,N18780,  \note fields as indicated
+  N18781,N18782,N18783,N18784,N18785,N18786,N18787,N18788,N18789,N18790,N18791,N18792,N18793,N18794,N18795,N18796,N18797,N18798,N18799,N18800,  \note fields as indicated
+  N18801,N18802,N18803,N18804,N18805,N18806,N18807,N18808,N18809,N18810,N18811,N18812,N18813,N18814,N18815,N18816,N18817,N18818,N18819,N18820,  \note fields as indicated
+  N18821,N18822,N18823,N18824,N18825,N18826,N18827,N18828,N18829,N18830,N18831,N18832,N18833,N18834,N18835,N18836,N18837,N18838,N18839,N18840,  \note fields as indicated
+  N18841,N18842,N18843,N18844,N18845,N18846,N18847,N18848,N18849,N18850,N18851,N18852,N18853,N18854,N18855,N18856,N18857,N18858,N18859,N18860,  \note fields as indicated
+  N18861,N18862,N18863,N18864,N18865,N18866,N18867,N18868,N18869,N18870,N18871,N18872,N18873,N18874,N18875,N18876,N18877,N18878,N18879,N18880,  \note fields as indicated
+  N18881,N18882,N18883,N18884,N18885,N18886,N18887,N18888,N18889,N18890,N18891,N18892,N18893,N18894,N18895,N18896,N18897,N18898,N18899,N18900,  \note fields as indicated
+  N18901,N18902,N18903,N18904,N18905,N18906,N18907,N18908,N18909,N18910,N18911,N18912,N18913,N18914,N18915,N18916,N18917,N18918,N18919,N18920,  \note fields as indicated
+  N18921,N18922,N18923,N18924,N18925,N18926,N18927,N18928,N18929,N18930,N18931,N18932,N18933,N18934,N18935,N18936,N18937,N18938,N18939,N18940,  \note fields as indicated
+  N18941,N18942,N18943,N18944,N18945,N18946,N18947,N18948,N18949,N18950,N18951,N18952,N18953,N18954,N18955,N18956,N18957,N18958,N18959,N18960,  \note fields as indicated
+  N18961,N18962,N18963,N18964,N18965,N18966,N18967,N18968,N18969,N18970,N18971,N18972,N18973,N18974,N18975,N18976,N18977,N18978,N18979,N18980,  \note fields as indicated
+  N18981,N18982,N18983,N18984,N18985,N18986,N18987,N18988,N18989,N18990,N18991,N18992,N18993,N18994,N18995,N18996,N18997,N18998,N18999,N19000,  \note fields as indicated
+  N19001,N19002,N19003,N19004,N19005,N19006,N19007,N19008,N19009,N19010,N19011,N19012,N19013,N19014,N19015,N19016,N19017,N19018,N19019,N19020,  \note fields as indicated
+  N19021,N19022,N19023,N19024,N19025,N19026,N19027,N19028,N19029,N19030,N19031,N19032,N19033,N19034,N19035,N19036,N19037,N19038,N19039,N19040,  \note fields as indicated
+  N19041,N19042,N19043,N19044,N19045,N19046,N19047,N19048,N19049,N19050,N19051,N19052,N19053,N19054,N19055,N19056,N19057,N19058,N19059,N19060,  \note fields as indicated
+  N19061,N19062,N19063,N19064,N19065,N19066,N19067,N19068,N19069,N19070,N19071,N19072,N19073,N19074,N19075,N19076,N19077,N19078,N19079,N19080,  \note fields as indicated
+  N19081,N19082,N19083,N19084,N19085,N19086,N19087,N19088,N19089,N19090,N19091,N19092,N19093,N19094,N19095,N19096,N19097,N19098,N19099,N19100,  \note fields as indicated
+  N19101,N19102,N19103,N19104,N19105,N19106,N19107,N19108,N19109,N19110,N19111,N19112,N19113,N19114,N19115,N19116,N19117,N19118,N19119,N19120,  \note fields as indicated
+  N19121,N19122,N19123,N19124,N19125,N19126,N19127,N19128,N19129,N19130,N19131,N19132,N19133,N19134,N19135,N19136,N19137,N19138,N19139,N19140,  \note fields as indicated
+  N19141,N19142,N19143,N19144,N19145,N19146,N19147,N19148,N19149,N19150,N19151,N19152,N19153,N19154,N19155,N19156,N19157,N19158,N19159,N19160,  \note fields as indicated
+  N19161,N19162,N19163,N19164,N19165,N19166,N19167,N19168,N19169,N19170,N19171,N19172,N19173,N19174,N19175,N19176,N19177,N19178,N19179,N19180,  \note fields as indicated
+  N19181,N19182,N19183,N19184,N19185,N19186,N19187,N19188,N19189,N19190,N19191,N19192,N19193,N19194,N19195,N19196,N19197,N19198,N19199,N19200,  \note fields as indicated
+  N19201,N19202,N19203,N19204,N19205,N19206,N19207,N19208,N19209,N19210,N19211,N19212,N19213,N19214,N19215,N19216,N19217,N19218,N19219,N19220,  \note fields as indicated
+  N19221,N19222,N19223,N19224,N19225,N19226,N19227,N19228,N19229,N19230,N19231,N19232,N19233,N19234,N19235,N19236,N19237,N19238,N19239,N19240,  \note fields as indicated
+  N19241,N19242,N19243,N19244,N19245,N19246,N19247,N19248,N19249,N19250,N19251,N19252,N19253,N19254,N19255,N19256,N19257,N19258,N19259,N19260,  \note fields as indicated
+  N19261,N19262,N19263,N19264,N19265,N19266,N19267,N19268,N19269,N19270,N19271,N19272,N19273,N19274,N19275,N19276,N19277,N19278,N19279,N19280,  \note fields as indicated
+  N19281,N19282,N19283,N19284,N19285,N19286,N19287,N19288,N19289,N19290,N19291,N19292,N19293,N19294,N19295,N19296,N19297,N19298,N19299,N19300,  \note fields as indicated
+  N19301,N19302,N19303,N19304,N19305,N19306,N19307,N19308,N19309,N19310,N19311,N19312,N19313,N19314,N19315,N19316,N19317,N19318,N19319,N19320,  \note fields as indicated
+  N19321,N19322,N19323,N19324,N19325,N19326,N19327,N19328,N19329,N19330,N19331,N19332,N19333,N19334,N19335,N19336,N19337,N19338,N19339,N19340,  \note fields as indicated
+  N19341,N19342,N19343,N19344,N19345,N19346,N19347,N19348,N19349,N19350,N19351,N19352,N19353,N19354,N19355,N19356,N19357,N19358,N19359,N19360,  \note fields as indicated
+  N19361,N19362,N19363,N19364,N19365,N19366,N19367,N19368,N19369,N19370,N19371,N19372,N19373,N19374,N19375,N19376,N19377,N19378,N19379,N19380,  \note fields as indicated
+  N19381,N19382,N19383,N19384,N19385,N19386,N19387,N19388,N19389,N19390,N19391,N19392,N19393,N19394,N19395,N19396,N19397,N19398,N19399,N19400,  \note fields as indicated
+  N19401,N19402,N19403,N19404,N19405,N19406,N19407,N19408,N19409,N19410,N19411,N19412,N19413,N19414,N19415,N19416,N19417,N19418,N19419,N19420,  \note fields as indicated
+  N19421,N19422,N19423,N19424,N19425,N19426,N19427,N19428,N19429,N19430,N19431,N19432,N19433,N19434,N19435,N19436,N19437,N19438,N19439,N19440,  \note fields as indicated
+  N19441,N19442,N19443,N19444,N19445,N19446,N19447,N19448,N19449,N19450,N19451,N19452,N19453,N19454,N19455,N19456,N19457,N19458,N19459,N19460,  \note fields as indicated
+  N19461,N19462,N19463,N19464,N19465,N19466,N19467,N19468,N19469,N19470,N19471,N19472,N19473,N19474,N19475,N19476,N19477,N19478,N19479,N19480,  \note fields as indicated
+  N19481,N19482,N19483,N19484,N19485,N19486,N19487,N19488,N19489,N19490,N19491,N19492,N19493,N19494,N19495,N19496,N19497,N19498,N19499,N19500,  \note fields as indicated
+  N19501,N19502,N19503,N19504,N19505,N19506,N19507,N19508,N19509,N19510,N19511,N19512,N19513,N19514,N19515,N19516,N19517,N19518,N19519,N19520,  \note fields as indicated
+  N19521,N19522,N19523,N19524,N19525,N19526,N19527,N19528,N19529,N19530,N19531,N19532,N19533,N19534,N19535,N19536,N19537,N19538,N19539,N19540,  \note fields as indicated
+  N19541,N19542,N19543,N19544,N19545,N19546,N19547,N19548,N19549,N19550,N19551,N19552,N19553,N19554,N19555,N19556,N19557,N19558,N19559,N19560,  \note fields as indicated
+  N19561,N19562,N19563,N19564,N19565,N19566,N19567,N19568,N19569,N19570,N19571,N19572,N19573,N19574,N19575,N19576,N19577,N19578,N19579,N19580,  \note fields as indicated
+  N19581,N19582,N19583,N19584,N19585,N19586,N19587,N19588,N19589,N19590,N19591,N19592,N19593,N19594,N19595,N19596,N19597,N19598,N19599,N19600,  \note fields as indicated
+  N19601,N19602,N19603,N19604,N19605,N19606,N19607,N19608,N19609,N19610,N19611,N19612,N19613,N19614,N19615,N19616,N19617,N19618,N19619,N19620,  \note fields as indicated
+  N19621,N19622,N19623,N19624,N19625,N19626,N19627,N19628,N19629,N19630,N19631,N19632,N19633,N19634,N19635,N19636,N19637,N19638,N19639,N19640,  \note fields as indicated
+  N19641,N19642,N19643,N19644,N19645,N19646,N19647,N19648,N19649,N19650,N19651,N19652,N19653,N19654,N19655,N19656,N19657,N19658,N19659,N19660,  \note fields as indicated
+  N19661,N19662,N19663,N19664,N19665,N19666,N19667,N19668,N19669,N19670,N19671,N19672,N19673,N19674,N19675,N19676,N19677,N19678,N19679,N19680,  \note fields as indicated
+  N19681,N19682,N19683,N19684,N19685,N19686,N19687,N19688,N19689,N19690,N19691,N19692,N19693,N19694,N19695,N19696,N19697,N19698,N19699,N19700,  \note fields as indicated
+  N19701,N19702,N19703,N19704,N19705,N19706,N19707,N19708,N19709,N19710,N19711,N19712,N19713,N19714,N19715,N19716,N19717,N19718,N19719,N19720,  \note fields as indicated
+  N19721,N19722,N19723,N19724,N19725,N19726,N19727,N19728,N19729,N19730,N19731,N19732,N19733,N19734,N19735,N19736,N19737,N19738,N19739,N19740,  \note fields as indicated
+  N19741,N19742,N19743,N19744,N19745,N19746,N19747,N19748,N19749,N19750,N19751,N19752,N19753,N19754,N19755,N19756,N19757,N19758,N19759,N19760,  \note fields as indicated
+  N19761,N19762,N19763,N19764,N19765,N19766,N19767,N19768,N19769,N19770,N19771,N19772,N19773,N19774,N19775,N19776,N19777,N19778,N19779,N19780,  \note fields as indicated
+  N19781,N19782,N19783,N19784,N19785,N19786,N19787,N19788,N19789,N19790,N19791,N19792,N19793,N19794,N19795,N19796,N19797,N19798,N19799,N19800,  \note fields as indicated
+  N19801,N19802,N19803,N19804,N19805,N19806,N19807,N19808,N19809,N19810,N19811,N19812,N19813,N19814,N19815,N19816,N19817,N19818,N19819,N19820,  \note fields as indicated
+  N19821,N19822,N19823,N19824,N19825,N19826,N19827,N19828,N19829,N19830,N19831,N19832,N19833,N19834,N19835,N19836,N19837,N19838,N19839,N19840,  \note fields as indicated
+  N19841,N19842,N19843,N19844,N19845,N19846,N19847,N19848,N19849,N19850,N19851,N19852,N19853,N19854,N19855,N19856,N19857,N19858,N19859,N19860,  \note fields as indicated
+  N19861,N19862,N19863,N19864,N19865,N19866,N19867,N19868,N19869,N19870,N19871,N19872,N19873,N19874,N19875,N19876,N19877,N19878,N19879,N19880,  \note fields as indicated
+  N19881,N19882,N19883,N19884,N19885,N19886,N19887,N19888,N19889,N19890,N19891,N19892,N19893,N19894,N19895,N19896,N19897,N19898,N19899,N19900,  \note fields as indicated
+  N19901,N19902,N19903,N19904,N19905,N19906,N19907,N19908,N19909,N19910,N19911,N19912,N19913,N19914,N19915,N19916,N19917,N19918,N19919,N19920,  \note fields as indicated
+  N19921,N19922,N19923,N19924,N19925,N19926,N19927,N19928,N19929,N19930,N19931,N19932,N19933,N19934,N19935,N19936,N19937,N19938,N19939,N19940,  \note fields as indicated
+  N19941,N19942,N19943,N19944,N19945,N19946,N19947,N19948,N19949,N19950,N19951,N19952,N19953,N19954,N19955,N19956,N19957,N19958,N19959,N19960,  \note fields as indicated
+  N19961,N19962,N19963,N19964,N19965,N19966,N19967,N19968,N19969,N19970,N19971,N19972,N19973,N19974,N19975,N19976,N19977,N19978,N19979,N19980,  \note fields as indicated
+  N19981,N19982,N19983,N19984,N19985,N19986,N19987,N19988,N19989,N19990,N19991,N19992,N19993,N19994,N19995,N19996,N19997,N19998,N19999,N20000,  \note fields as indicated
+  N20001,N20002,N20003,N20004,N20005,N20006,N20007,N20008,N20009,N20010,N20011,N20012,N20013,N20014,N20015,N20016,N20017,N20018,N20019,N20020,  \note fields as indicated
+  N20021,N20022,N20023,N20024,N20025,N20026,N20027,N20028,N20029,N20030,N20031,N20032,N20033,N20034,N20035,N20036,N20037,N20038,N20039,N20040,  \note fields as indicated
+  N20041,N20042,N20043,N20044,N20045,N20046,N20047,N20048,N20049,N20050,N20051,N20052,N20053,N20054,N20055,N20056,N20057,N20058,N20059,N20060,  \note fields as indicated
+  N20061,N20062,N20063,N20064,N20065,N20066,N20067,N20068,N20069,N20070,N20071,N20072,N20073,N20074,N20075,N20076,N20077,N20078,N20079,N20080,  \note fields as indicated
+  N20081,N20082,N20083,N20084,N20085,N20086,N20087,N20088,N20089,N20090,N20091,N20092,N20093,N20094,N20095,N20096,N20097,N20098,N20099,N20100,  \note fields as indicated
+  N20101,N20102,N20103,N20104,N20105,N20106,N20107,N20108,N20109,N20110,N20111,N20112,N20113,N20114,N20115,N20116,N20117,N20118,N20119,N20120,  \note fields as indicated
+  N20121,N20122,N20123,N20124,N20125,N20126,N20127,N20128,N20129,N20130,N20131,N20132,N20133,N20134,N20135,N20136,N20137,N20138,N20139,N20140,  \note fields as indicated
+  N20141,N20142,N20143,N20144,N20145,N20146,N20147,N20148,N20149,N20150,N20151,N20152,N20153,N20154,N20155,N20156,N20157,N20158,N20159,N20160,  \note fields as indicated
+  N20161,N20162,N20163,N20164,N20165,N20166,N20167,N20168,N20169,N20170,N20171,N20172,N20173,N20174,N20175,N20176,N20177,N20178,N20179,N20180,  \note fields as indicated
+  N20181,N20182,N20183,N20184,N20185,N20186,N20187,N20188,N20189,N20190,N20191,N20192,N20193,N20194,N20195,N20196,N20197,N20198,N20199,N20200,  \note fields as indicated
+  N20201,N20202,N20203,N20204,N20205,N20206,N20207,N20208,N20209,N20210,N20211,N20212,N20213,N20214,N20215,N20216,N20217,N20218,N20219,N20220,  \note fields as indicated
+  N20221,N20222,N20223,N20224,N20225,N20226,N20227,N20228,N20229,N20230,N20231,N20232,N20233,N20234,N20235,N20236,N20237,N20238,N20239,N20240,  \note fields as indicated
+  N20241,N20242,N20243,N20244,N20245,N20246,N20247,N20248,N20249,N20250,N20251,N20252,N20253,N20254,N20255,N20256,N20257,N20258,N20259,N20260,  \note fields as indicated
+  N20261,N20262,N20263,N20264,N20265,N20266,N20267,N20268,N20269,N20270,N20271,N20272,N20273,N20274,N20275,N20276,N20277,N20278,N20279,N20280,  \note fields as indicated
+  N20281,N20282,N20283,N20284,N20285,N20286,N20287,N20288,N20289,N20290,N20291,N20292,N20293,N20294,N20295,N20296,N20297,N20298,N20299,N20300,  \note fields as indicated
+  N20301,N20302,N20303,N20304,N20305,N20306,N20307,N20308,N20309,N20310,N20311,N20312,N20313,N20314,N20315,N20316,N20317,N20318,N20319,N20320,  \note fields as indicated
+  N20321,N20322,N20323,N20324,N20325,N20326,N20327,N20328,N20329,N20330,N20331,N20332,N20333,N20334,N20335,N20336,N20337,N20338,N20339,N20340,  \note fields as indicated
+  N20341,N20342,N20343,N20344,N20345,N20346,N20347,N20348,N20349,N20350,N20351,N20352,N20353,N20354,N20355,N20356,N20357,N20358,N20359,N20360,  \note fields as indicated
+  N20361,N20362,N20363,N20364,N20365,N20366,N20367,N20368,N20369,N20370,N20371,N20372,N20373,N20374,N20375,N20376,N20377,N20378,N20379,N20380,  \note fields as indicated
+  N20381,N20382,N20383,N20384,N20385,N20386,N20387,N20388,N20389,N20390,N20391,N20392,N20393,N20394,N20395,N20396,N20397,N20398,N20399,N20400,  \note fields as indicated
+  N20401,N20402,N20403,N20404,N20405,N20406,N20407,N20408,N20409,N20410,N20411,N20412,N20413,N20414,N20415,N20416,N20417,N20418,N20419,N20420,  \note fields as indicated
+  N20421,N20422,N20423,N20424,N20425,N20426,N20427,N20428,N20429,N20430,N20431,N20432,N20433,N20434,N20435,N20436,N20437,N20438,N20439,N20440,  \note fields as indicated
+  N20441,N20442,N20443,N20444,N20445,N20446,N20447,N20448,N20449,N20450,N20451,N20452,N20453,N20454,N20455,N20456,N20457,N20458,N20459,N20460,  \note fields as indicated
+  N20461,N20462,N20463,N20464,N20465,N20466,N20467,N20468,N20469,N20470,N20471,N20472,N20473,N20474,N20475,N20476,N20477,N20478,N20479,N20480,  \note fields as indicated
+  N20481,N20482,N20483,N20484,N20485,N20486,N20487,N20488,N20489,N20490,N20491,N20492,N20493,N20494,N20495,N20496,N20497,N20498,N20499,N20500,  \note fields as indicated
+  N20501,N20502,N20503,N20504,N20505,N20506,N20507,N20508,N20509,N20510,N20511,N20512,N20513,N20514,N20515,N20516,N20517,N20518,N20519,N20520,  \note fields as indicated
+  N20521,N20522,N20523,N20524,N20525,N20526,N20527,N20528,N20529,N20530,N20531,N20532,N20533,N20534,N20535,N20536,N20537,N20538,N20539,N20540,  \note fields as indicated
+  N20541,N20542,N20543,N20544,N20545,N20546,N20547,N20548,N20549,N20550,N20551,N20552,N20553,N20554,N20555,N20556,N20557,N20558,N20559,N20560,  \note fields as indicated
+  N20561,N20562,N20563,N20564,N20565,N20566,N20567,N20568,N20569,N20570,N20571,N20572,N20573,N20574,N20575,N20576,N20577,N20578,N20579,N20580,  \note fields as indicated
+  N20581,N20582,N20583,N20584,N20585,N20586,N20587,N20588,N20589,N20590,N20591,N20592,N20593,N20594,N20595,N20596,N20597,N20598,N20599,N20600,  \note fields as indicated
+  N20601,N20602,N20603,N20604,N20605,N20606,N20607,N20608,N20609,N20610,N20611,N20612,N20613,N20614,N20615,N20616,N20617,N20618,N20619,N20620,  \note fields as indicated
+  N20621,N20622,N20623,N20624,N20625,N20626,N20627,N20628,N20629,N20630,N20631,N20632,N20633,N20634,N20635,N20636,N20637,N20638,N20639,N20640,  \note fields as indicated
+  N20641,N20642,N20643,N20644,N20645,N20646,N20647,N20648,N20649,N20650,N20651,N20652,N20653,N20654,N20655,N20656,N20657,N20658,N20659,N20660,  \note fields as indicated
+  N20661,N20662,N20663,N20664,N20665,N20666,N20667,N20668,N20669,N20670,N20671,N20672,N20673,N20674,N20675,N20676,N20677,N20678,N20679,N20680,  \note fields as indicated
+  N20681,N20682,N20683,N20684,N20685,N20686,N20687,N20688,N20689,N20690,N20691,N20692,N20693,N20694,N20695,N20696,N20697,N20698,N20699,N20700,  \note fields as indicated
+  N20701,N20702,N20703,N20704,N20705,N20706,N20707,N20708,N20709,N20710,N20711,N20712,N20713,N20714,N20715,N20716,N20717,N20718,N20719,N20720,  \note fields as indicated
+  N20721,N20722,N20723,N20724,N20725,N20726,N20727,N20728,N20729,N20730,N20731,N20732,N20733,N20734,N20735,N20736,N20737,N20738,N20739,N20740,  \note fields as indicated
+  N20741,N20742,N20743,N20744,N20745,N20746,N20747,N20748,N20749,N20750,N20751,N20752,N20753,N20754,N20755,N20756,N20757,N20758,N20759,N20760,  \note fields as indicated
+  N20761,N20762,N20763,N20764,N20765,N20766,N20767,N20768,N20769,N20770,N20771,N20772,N20773,N20774,N20775,N20776,N20777,N20778,N20779,N20780,  \note fields as indicated
+  N20781,N20782,N20783,N20784,N20785,N20786,N20787,N20788,N20789,N20790,N20791,N20792,N20793,N20794,N20795,N20796,N20797,N20798,N20799,N20800,  \note fields as indicated
+  N20801,N20802,N20803,N20804,N20805,N20806,N20807,N20808,N20809,N20810,N20811,N20812,N20813,N20814,N20815,N20816,N20817,N20818,N20819,N20820,  \note fields as indicated
+  N20821,N20822,N20823,N20824,N20825,N20826,N20827,N20828,N20829,N20830,N20831,N20832,N20833,N20834,N20835,N20836,N20837,N20838,N20839,N20840,  \note fields as indicated
+  N20841,N20842,N20843,N20844,N20845,N20846,N20847,N20848,N20849,N20850,N20851,N20852,N20853,N20854,N20855,N20856,N20857,N20858,N20859,N20860,  \note fields as indicated
+  N20861,N20862,N20863,N20864,N20865,N20866,N20867,N20868,N20869,N20870,N20871,N20872,N20873,N20874,N20875,N20876,N20877,N20878,N20879,N20880,  \note fields as indicated
+  N20881,N20882,N20883,N20884,N20885,N20886,N20887,N20888,N20889,N20890,N20891,N20892,N20893,N20894,N20895,N20896,N20897,N20898,N20899,N20900,  \note fields as indicated
+  N20901,N20902,N20903,N20904,N20905,N20906,N20907,N20908,N20909,N20910,N20911,N20912,N20913,N20914,N20915,N20916,N20917,N20918,N20919,N20920,  \note fields as indicated
+  N20921,N20922,N20923,N20924,N20925,N20926,N20927,N20928,N20929,N20930,N20931,N20932,N20933,N20934,N20935,N20936,N20937,N20938,N20939,N20940,  \note fields as indicated
+  N20941,N20942,N20943,N20944,N20945,N20946,N20947,N20948,N20949,N20950,N20951,N20952,N20953,N20954,N20955,N20956,N20957,N20958,N20959,N20960,  \note fields as indicated
+  N20961,N20962,N20963,N20964,N20965,N20966,N20967,N20968,N20969,N20970,N20971,N20972,N20973,N20974,N20975,N20976,N20977,N20978,N20979,N20980,  \note fields as indicated
+  N20981,N20982,N20983,N20984,N20985,N20986,N20987,N20988,N20989,N20990,N20991,N20992,N20993,N20994,N20995,N20996,N20997,N20998,N20999,N21000,  \note fields as indicated
+  N21001,N21002,N21003,N21004,N21005,N21006,N21007,N21008,N21009,N21010,N21011,N21012,N21013,N21014,N21015,N21016,N21017,N21018,N21019,N21020,  \note fields as indicated
+  N21021,N21022,N21023,N21024,N21025,N21026,N21027,N21028,N21029,N21030,N21031,N21032,N21033,N21034,N21035,N21036,N21037,N21038,N21039,N21040;  \note fields as indicated
+
+\group Hybrid Model
+
+HybridModel:Zone,
+       \memo Zones with measured air temperature data and a range of dates.
+       \memo If the range of temperature measurement dates includes a leap day, the weather data should include a leap day.
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Zone Name
+       \required-field
+       \type object-list
+       \object-list ZoneNames
+  A3 , \field Calculate Zone Internal Thermal Mass
+       \note Use measured zone air temperature to calculate zone internal thermal mass.
+       \note If set to Yes, the measured zone air temperature should be provided to calculate the thermal mass.
+       \note If set to No, the inverse calculation of thermal mass will not be activated.
+       \type choice
+       \key No
+       \key Yes
+       \default No
+  A4 , \field Calculate Zone Air Infiltration Rate
+       \note Use measured temperature data (temperature, humidity ratio, or CO2 concentration) to calculate zone air infiltration air flow rate.
+       \note Only one of field Calculate Zone Internal Thermal Mass, Calculate Zone Air Infiltration Rate, and Calculate Zone People Count can be set to YES at a time.
+       \note By default, this field is set to NO. When set to NO, the inverse calculation of the zone air infiltration rate will not be activated.
+       \note If this field is set to YES, one of the following fields (combinations) should be provided:
+       \note 1. Measurements were conducted when HVAC is free-floating:
+       \note 1.1 Zone Measured Air Temperature Schedule Name
+       \note 1.2 Zone Measured Air Humidity Ratio Schedule Name
+       \note 1.3 Zone Measured Air CO2 Concentration Schedule Name
+       \note 2. Measurements were conducted when HVAC is on:
+       \note 2.1 Zone Measured Air Temperature Schedule Name, Zone Input Supply Air Temperature Schedule Name, and Zone Input Supply Air Mass Flow Rate Schedule Name
+       \note 2.2 Zone Measured Air Humidity Ratio Schedule Name, Zone Input Supply Air Temperature Schedule Name, Zone Input Supply Air Mass Flow Rate Schedule Name, and Zone Input Supply Air Humidity Ratio Schedule Name
+       \note 2.3 Zone Measured Air CO2 Concentration Schedule Name, Zone Input Supply Air Mass Flow Rate Schedule Name, and Zone Input Supply Air CO2 Concentration Schedule Name
+       \type choice
+       \key No
+       \key Yes
+       \default No
+  A5 , \field Calculate Zone People Count
+       \note Use measured humidity ratio data (temperature, humidity ratio, or CO2 concentration) to calculate zone people count.
+       \note Only one of field Calculate Zone Internal Thermal Mass, Calculate Zone Air Infiltration Rate, and Calculate Zone People Count can be set to YES at a time.
+       \note By default, this field is set to NO. When set to NO, the inverse calculation of the zone people count will not be activated.
+       \note If this field is set to YES, one of the following fields (combinations) should be provided:
+       \note 1. Measurements were conducted when HVAC is free-floating:
+       \note 1.1 Zone Measured Air Temperature Schedule Name
+       \note 1.2 Zone Measured Air Humidity Ratio Schedule Name
+       \note 1.3 Zone Measured Air CO2 Concentration Schedule Name
+       \note 2. Measurements were conducted when HVAC is on:
+       \note 2.1 Zone Measured Air Temperature Schedule Name, Zone Input Supply Air Temperature Schedule Name, and Zone Input Supply Air Mass Flow Rate Schedule Name
+       \note 2.2 Zone Measured Air Humidity Ratio Schedule Name, Zone Input Supply Air Temperature Schedule Name, Zone Input Supply Air Mass Flow Rate Schedule Name, and Zone Input Supply Air Humidity Ratio Schedule Name
+       \note 2.3 Zone Measured Air CO2 Concentration Schedule Name, Zone Input Supply Air Mass Flow Rate Schedule Name, and Zone Input Supply Air CO2 Concentration Schedule Name
+       \note Field Zone Input People Activity Schedule Name, Zone Input People Sensible Heat Fraction Schedule Name, Zone Input People Radiant Heat Fraction Schedule Name, Zone Input People CO2 Generation Rate Schedule Name are optional.
+       \note If provided, the default people activity level (130W), sensible heat generation rate (78W), latent heat generation (52W) rate, and CO2 generation rate (0.0000000382 [m3/(s*W)]) will be overwritten correspondingly.
+       \type choice
+       \key No
+       \key Yes
+       \default No
+  A6 , \field Zone Measured Air Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note from Schedule:File
+  A7 , \field Zone Measured Air Humidity Ratio Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note from Schedule:File
+  A8 , \field Zone Measured Air CO2 Concentration Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note from Schedule:File
+  A9 , \field Zone Input People Activity Schedule Name
+       \note When this field is provided and valid, the default people activity level (used to calculate people count) will be overwritten.
+       \type object-list
+       \object-list ScheduleNames
+       \note from Schedule:File
+  A10 , \field Zone Input People Sensible Heat Fraction Schedule Name
+       \note When this field is provided and valid, the default sensible heat fraction from people (used to calculate people count) will be overwritten.
+       \type object-list
+       \object-list ScheduleNames
+       \note from Schedule:File
+  A11 , \field Zone Input People Radiant Heat Fraction Schedule Name
+       \note When this field is provided and valid, the default radiant heat portion of the sensible heat from people (used to calculate people count) will be overwritten.
+       \type object-list
+       \object-list ScheduleNames
+       \note from Schedule:File
+  A12 , \field Zone Input People CO2 Generation Rate Schedule Name
+       \note When this field is provided and valid, the default people CO2 generation rate (used to calculate people count) will be overwritten.
+       \type object-list
+       \object-list ScheduleNames
+       \note from Schedule:File
+  A13 , \field Zone Input Supply Air Temperature Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note from Schedule:File
+  A14 , \field Zone Input Supply Air Mass Flow Rate Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note from Schedule:File
+  A15 , \field Zone Input Supply Air Humidity Ratio Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note from Schedule:File
+  A16 , \field Zone Input Supply Air CO2 Concentration Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note from Schedule:File
+  N1 , \field Begin Month
+       \required-field
+       \minimum 1
+       \maximum 12
+       \type integer
+  N2 , \field Begin Day of Month
+       \required-field
+       \minimum 1
+       \maximum 31
+       \type integer
+  N3 , \field End Month
+       \required-field
+       \minimum 1
+       \maximum 12
+       \type integer
+  N4 ; \field End Day of Month
+       \required-field
+       \minimum 1
+       \maximum 31
+       \type integer
+
+\group Performance Curves
+
+Curve:Linear,
+       \memo Linear curve with one independent variable.
+       \memo Input for the linear curve consists of a curve name, the two coefficients, and the
+       \memo maximum and minimum valid independent variable values. Optional inputs for
+       \memo curve minimum and maximum may be used to limit the output of the performance curve.
+       \memo curve = C1 + C2*x
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference UnivariateFunctions
+  N1 , \field Coefficient1 Constant
+       \required-field
+       \type real
+  N2 , \field Coefficient2 x
+       \required-field
+       \type real
+  N3 , \field Minimum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N4 , \field Maximum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N5 , \field Minimum Curve Output
+       \type real
+       \note Specify the minimum value calculated by this curve object
+       \unitsBasedOnField A3
+  N6 , \field Maximum Curve Output
+       \type real
+       \note Specify the maximum value calculated by this curve object
+       \unitsBasedOnField A3
+  A2,  \field Input Unit Type for X
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key Pressure
+       \key MassFlow
+       \key Power
+       \key Distance
+       \default Dimensionless
+  A3;  \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \key Capacity
+       \key Power
+       \key Temperature
+       \default Dimensionless
+
+Curve:QuadLinear,
+       \memo Linear curve with four independent variables.
+       \memo Input for the linear curve consists of a curve name, the two coefficients, and the
+       \memo maximum and minimum valid independent variable values. Optional inputs for curve
+       \memo minimum and maximum may be used to limit the output of the performance curve.
+       \memo curve = C1 + C2*w + C3*x + C4*y + C5*z
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference QuadvariateFunctions
+  N1 , \field Coefficient1 Constant
+       \required-field
+       \type real
+  N2 , \field Coefficient2 w
+       \required-field
+       \type real
+  N3 , \field Coefficient3 x
+       \required-field
+       \type real
+  N4 , \field Coefficient4 y
+       \required-field
+       \type real
+  N5 , \field Coefficient5 z
+       \required-field
+       \type real
+  N7 , \field Minimum Value of w
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N8 , \field Maximum Value of w
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N9 , \field Minimum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A3
+  N10 ,\field Maximum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A3
+  N11 , \field Minimum Value of y
+       \required-field
+       \type real
+       \unitsBasedOnField A4
+  N12, \field Maximum Value of y
+       \required-field
+       \type real
+       \unitsBasedOnField A4
+  N13, \field Minimum Value of z
+       \required-field
+       \type real
+       \unitsBasedOnField A5
+  N14, \field Maximum Value of z
+       \required-field
+       \type real
+       \unitsBasedOnField A5
+  N15, \field Minimum Curve Output
+       \type real
+       \note Specify the minimum value calculated by this curve object
+       \unitsBasedOnField A4
+  N16, \field Maximum Curve Output
+       \type real
+       \note Specify the maximum value calculated by this curve object
+       \unitsBasedOnField A4
+  A2 , \field Input Unit Type for w
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \key VolumetricFlowPerPower
+       \default Dimensionless
+  A3 , \field Input Unit Type for x
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \key VolumetricFlowPerPower
+       \default Dimensionless
+  A4 , \field Input Unit Type for y
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \key VolumetricFlowPerPower
+       \default Dimensionless
+  A5;  \field Input Unit Type for z
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \key VolumetricFlowPerPower
+       \default Dimensionless
+
+Curve:QuintLinear,
+       \memo Linear curve with five independent variables.
+       \memo Input for the linear curve consists of a curve name, the two coefficients, and the
+       \memo maximum and minimum valid independent variable values. Optional inputs for curve
+       \memo minimum and maximum may be used to limit the output of the performance curve.
+       \memo curve = C1 + C2*v + C3*w + C4*x + C5*y + C6*z
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference QuintvariateFunctions
+  N1 , \field Coefficient1 Constant
+       \required-field
+       \type real
+  N2 , \field Coefficient2 v
+       \required-field
+       \type real
+  N3 , \field Coefficient3 w
+       \required-field
+       \type real
+  N4 , \field Coefficient4 x
+       \required-field
+       \type real
+  N5 , \field Coefficient5 y
+       \required-field
+       \type real
+  N6 , \field Coefficient6 z
+       \required-field
+       \type real
+  N7 , \field Minimum Value of v
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N8 , \field Maximum Value of v
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N9 , \field Minimum Value of w
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N10 , \field Maximum Value of w
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N11 , \field Minimum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A3
+  N12 ,\field Maximum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A3
+  N13 , \field Minimum Value of y
+       \required-field
+       \type real
+       \unitsBasedOnField A4
+  N14, \field Maximum Value of y
+       \required-field
+       \type real
+       \unitsBasedOnField A4
+  N15, \field Minimum Value of z
+       \required-field
+       \type real
+       \unitsBasedOnField A5
+  N16, \field Maximum Value of z
+       \required-field
+       \type real
+       \unitsBasedOnField A5
+  N17, \field Minimum Curve Output
+       \type real
+       \note Specify the minimum value calculated by this curve object
+       \unitsBasedOnField A4
+  N18, \field Maximum Curve Output
+       \type real
+       \note Specify the maximum value calculated by this curve object
+       \unitsBasedOnField A4
+  A2 , \field Input Unit Type for v
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \key VolumetricFlowPerPower
+       \default Dimensionless
+  A3 , \field Input Unit Type for w
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \key VolumetricFlowPerPower
+       \default Dimensionless
+  A4 , \field Input Unit Type for x
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \key VolumetricFlowPerPower
+       \default Dimensionless
+  A5 , \field Input Unit Type for y
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \key VolumetricFlowPerPower
+       \default Dimensionless
+  A6;  \field Input Unit Type for z
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \key VolumetricFlowPerPower
+       \default Dimensionless
+
+Curve:Quadratic,
+       \memo Quadratic curve with one independent variable.
+       \memo Input for a quadratic curve consists of the curve name, the three coefficients, and
+       \memo the maximum and minimum valid independent variable values. Optional inputs for curve
+       \memo minimum and maximum may be used to limit the output of the performance curve.
+       \memo curve = C1 + C2*x + C3*x**2
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference UnivariateFunctions
+  N1 , \field Coefficient1 Constant
+       \required-field
+       \type real
+  N2 , \field Coefficient2 x
+       \required-field
+       \type real
+  N3 , \field Coefficient3 x**2
+       \required-field
+       \type real
+  N4 , \field Minimum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N5 , \field Maximum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N6 , \field Minimum Curve Output
+       \type real
+       \note Specify the minimum value calculated by this curve object
+       \unitsBasedOnField A3
+  N7 , \field Maximum Curve Output
+       \type real
+       \note Specify the maximum value calculated by this curve object
+       \unitsBasedOnField A3
+  A2,  \field Input Unit Type for X
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \default Dimensionless
+  A3;  \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \key Capacity
+       \key Power
+       \key Temperature
+       \default Dimensionless
+
+Curve:Cubic,
+       \memo Cubic curve with one independent variable.
+       \memo Input for a cubic curve consists of the curve name, the 4 coefficients, and the
+       \memo maximum and minimum valid independent variable values. Optional inputs for curve
+       \memo minimum and maximum may be used to limit the output of the performance curve.
+       \memo curve = C1 + C2*x + C3*x**2 + C4*x**3
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference UnivariateFunctions
+  N1 , \field Coefficient1 Constant
+       \required-field
+       \type real
+  N2 , \field Coefficient2 x
+       \required-field
+       \type real
+  N3 , \field Coefficient3 x**2
+       \required-field
+       \type real
+  N4 , \field Coefficient4 x**3
+       \required-field
+       \type real
+  N5 , \field Minimum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N6 , \field Maximum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N7 , \field Minimum Curve Output
+       \type real
+       \note Specify the minimum value calculated by this curve object
+       \unitsBasedOnField A3
+  N8 , \field Maximum Curve Output
+       \type real
+       \note Specify the maximum value calculated by this curve object
+       \unitsBasedOnField A3
+  A2,  \field Input Unit Type for X
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \default Dimensionless
+  A3;  \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \key Capacity
+       \key Power
+       \key Temperature
+       \default Dimensionless
+
+Curve:Quartic,
+       \memo Quartic (fourth order polynomial) curve with one independent variable.
+       \memo Input for a Quartic curve consists of the curve name, the
+       \memo five coefficients, and the maximum and minimum valid independent variable values.
+       \memo Optional inputs for curve minimum and maximum may be used to limit the
+       \memo output of the performance curve.
+       \memo curve = C1 + C2*x + C3*x**2 + C4*x**3 + C5*x**4
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference UnivariateFunctions
+  N1 , \field Coefficient1 Constant
+       \required-field
+       \type real
+  N2 , \field Coefficient2 x
+       \required-field
+       \type real
+  N3 , \field Coefficient3 x**2
+       \required-field
+       \type real
+  N4 , \field Coefficient4 x**3
+       \required-field
+       \type real
+  N5 , \field Coefficient5 x**4
+       \required-field
+       \type real
+  N6 , \field Minimum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N7 , \field Maximum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N8 , \field Minimum Curve Output
+       \type real
+       \unitsBasedOnField A3
+       \note Specify the minimum value calculated by this curve object
+  N9 , \field Maximum Curve Output
+       \type real
+       \unitsBasedOnField A3
+       \note Specify the maximum value calculated by this curve object
+  A2 , \field Input Unit Type for X
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \default Dimensionless
+  A3 ; \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \key Capacity
+       \key Power
+       \key Temperature
+       \default Dimensionless
+
+Curve:Exponent,
+       \memo Exponent curve with one independent variable.
+       \memo Input for a exponent curve consists of the curve name, the 3 coefficients, and the
+       \memo maximum and minimum valid independent variable values. Optional inputs for curve
+       \memo minimum and maximum may be used to limit the output of the performance curve.
+       \memo curve = C1 + C2*x**C3
+       \memo The independent variable x is raised to the C3 power, multiplied by C2, and C1 is added to the result.
+    \min-fields 6
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference UnivariateFunctions
+  N1 , \field Coefficient1 Constant
+       \required-field
+       \type real
+  N2 , \field Coefficient2 Constant
+       \required-field
+       \type real
+  N3 , \field Coefficient3 Constant
+       \required-field
+       \type real
+  N4 , \field Minimum Value of x
+       \required-field
+       \type real
+       \note Specify the minimum value of the independent variable x allowed
+       \unitsBasedOnField A2
+  N5 , \field Maximum Value of x
+       \required-field
+       \type real
+       \note Specify the maximum value of the independent variable x allowed
+       \unitsBasedOnField A2
+  N6 , \field Minimum Curve Output
+       \type real
+       \note Specify the minimum value calculated by this curve object
+       \unitsBasedOnField A3
+  N7 , \field Maximum Curve Output
+       \type real
+       \note Specify the maximum value calculated by this curve object
+       \unitsBasedOnField A3
+  A2,  \field Input Unit Type for X
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \default Dimensionless
+  A3;  \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \key Capacity
+       \key Power
+       \key Temperature
+       \default Dimensionless
+
+Curve:Bicubic,
+       \memo Cubic curve with two independent variables. Input consists of the
+       \memo curve name, the ten coefficients, and the minimum and maximum values for each of
+       \memo the independent variables. Optional inputs for curve minimum and maximum may
+       \memo be used to limit the output of the performance curve.
+       \memo curve = C1 + C2*x + C3*x**2 + C4*y + C5*y**2 + C6*x*y + C7*x**3 + C8*y**3 + C9*x**2*y
+       \memo + C10*x*y**2
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference BivariateFunctions
+  N1 , \field Coefficient1 Constant
+       \required-field
+       \type real
+  N2 , \field Coefficient2 x
+       \required-field
+       \type real
+  N3 , \field Coefficient3 x**2
+       \required-field
+       \type real
+  N4 , \field Coefficient4 y
+       \required-field
+       \type real
+  N5 , \field Coefficient5 y**2
+       \required-field
+       \type real
+  N6 , \field Coefficient6 x*y
+       \required-field
+       \type real
+  N7 , \field Coefficient7 x**3
+       \required-field
+       \type real
+  N8 , \field Coefficient8 y**3
+       \required-field
+       \type real
+  N9 , \field Coefficient9 x**2*y
+       \required-field
+       \type real
+  N10, \field Coefficient10 x*y**2
+       \required-field
+       \type real
+  N11, \field Minimum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N12, \field Maximum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N13, \field Minimum Value of y
+       \required-field
+       \type real
+       \unitsBasedOnField A3
+  N14, \field Maximum Value of y
+       \required-field
+       \type real
+       \unitsBasedOnField A3
+  N15, \field Minimum Curve Output
+       \type real
+       \note Specify the minimum value calculated by this curve object
+       \unitsBasedOnField A4
+  N16, \field Maximum Curve Output
+       \type real
+       \note Specify the maximum value calculated by this curve object
+       \unitsBasedOnField A4
+  A2,  \field Input Unit Type for X
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \default Dimensionless
+  A3,  \field Input Unit Type for Y
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \default Dimensionless
+  A4;  \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \key Capacity
+       \key Power
+       \key Temperature
+       \default Dimensionless
+
+Curve:Biquadratic,
+       \memo Quadratic curve with two independent variables. Input consists of the curve name, the
+       \memo six coefficients, and min and max values for each of the independent variables.
+       \memo Optional inputs for curve minimum and maximum may be used to limit the
+       \memo output of the performance curve.
+       \memo curve = C1 + C2*x + C3*x**2 + C4*y + C5*y**2 + C6*x*y
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference BivariateFunctions
+  N1 , \field Coefficient1 Constant
+       \required-field
+       \type real
+  N2 , \field Coefficient2 x
+       \required-field
+       \type real
+  N3 , \field Coefficient3 x**2
+       \required-field
+       \type real
+  N4 , \field Coefficient4 y
+       \required-field
+       \type real
+  N5 , \field Coefficient5 y**2
+       \required-field
+       \type real
+  N6 , \field Coefficient6 x*y
+       \required-field
+       \type real
+  N7 , \field Minimum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N8 , \field Maximum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N9 , \field Minimum Value of y
+       \required-field
+       \type real
+       \unitsBasedOnField A3
+  N10, \field Maximum Value of y
+       \required-field
+       \type real
+       \unitsBasedOnField A3
+  N11, \field Minimum Curve Output
+       \type real
+       \note Specify the minimum value calculated by this curve object
+       \unitsBasedOnField A4
+  N12, \field Maximum Curve Output
+       \type real
+       \note Specify the maximum value calculated by this curve object
+       \unitsBasedOnField A4
+  A2,  \field Input Unit Type for X
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \default Dimensionless
+  A3,  \field Input Unit Type for Y
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \default Dimensionless
+  A4;  \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \key Capacity
+       \key Power
+       \key Temperature
+       \default Dimensionless
+
+Curve:QuadraticLinear,
+       \memo Quadratic-linear curve with two independent variables. Input consists of the curve
+       \memo name, the six coefficients, and min and max values for each of the independent
+       \memo variables. Optional inputs for curve minimum and maximum may be used to limit the
+       \memo output of the performance curve.
+       \memo curve = (C1 + C2*x + C3*x**2) + (C4 + C5*x + C6*x**2)*y
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference BivariateFunctions
+  N1 , \field Coefficient1 Constant
+       \required-field
+       \type real
+  N2 , \field Coefficient2 x
+       \required-field
+       \type real
+  N3 , \field Coefficient3 x**2
+       \required-field
+       \type real
+  N4 , \field Coefficient4 y
+       \required-field
+       \type real
+  N5 , \field Coefficient5 x*y
+       \required-field
+       \type real
+  N6 , \field Coefficient6 x**2*y
+       \required-field
+       \type real
+  N7 , \field Minimum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N8 , \field Maximum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N9 , \field Minimum Value of y
+       \required-field
+       \type real
+       \unitsBasedOnField A3
+  N10, \field Maximum Value of y
+       \required-field
+       \type real
+       \unitsBasedOnField A3
+  N11, \field Minimum Curve Output
+       \type real
+       \note Specify the minimum value calculated by this curve object
+       \unitsBasedOnField A4
+  N12, \field Maximum Curve Output
+       \type real
+       \note Specify the maximum value calculated by this curve object
+       \unitsBasedOnField A4
+  A2,  \field Input Unit Type for X
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \default Dimensionless
+  A3,  \field Input Unit Type for Y
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \default Dimensionless
+  A4;  \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \key Capacity
+       \key Power
+       \key Temperature
+       \default Dimensionless
+
+Curve:CubicLinear,
+       \memo Cubic-linear curve with two independent variables. Input consists of the curve
+       \memo name, the six coefficients, and min and max values for each of the independent
+       \memo variables. Optional inputs for curve minimum and maximum may be used to limit the
+       \memo output of the performance curve.
+       \memo curve = (C1 + C2*x + C3*x**2 + C4*x**3) + (C5 + C6*x)*y
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference BivariateFunctions
+  N1 , \field Coefficient1 Constant
+       \required-field
+       \type real
+  N2 , \field Coefficient2 x
+       \required-field
+       \type real
+  N3 , \field Coefficient3 x**2
+       \required-field
+       \type real
+  N4 , \field Coefficient4 x**3
+       \required-field
+       \type real
+  N5 , \field Coefficient5 y
+       \required-field
+       \type real
+  N6 , \field Coefficient6 x*y
+       \required-field
+       \type real
+  N7 , \field Minimum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N8 , \field Maximum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N9 , \field Minimum Value of y
+       \required-field
+       \type real
+       \unitsBasedOnField A3
+  N10, \field Maximum Value of y
+       \required-field
+       \type real
+       \unitsBasedOnField A3
+  N11, \field Minimum Curve Output
+       \type real
+       \note Specify the minimum value calculated by this curve object
+       \unitsBasedOnField A4
+  N12, \field Maximum Curve Output
+       \type real
+       \note Specify the maximum value calculated by this curve object
+       \unitsBasedOnField A4
+  A2,  \field Input Unit Type for X
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \default Dimensionless
+  A3,  \field Input Unit Type for Y
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \default Dimensionless
+  A4;  \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \default Dimensionless
+
+Curve:Triquadratic,
+       \memo Quadratic curve with three independent variables. Input consists of the curve name,
+       \memo the twenty seven coefficients, and min and max values for each of the independent
+       \memo variables. Optional inputs for curve minimum and maximum may be used to
+       \memo limit the output of the performance curve.
+       \memo curve = a0 + a1*x**2 + a2*x + a3*y**2 + a4*y
+       \memo         + a5*z**2 + a6*z + a7*x**2*y**2 + a8*x*y
+       \memo         + a9*x*y**2 + a10*x**2*y + a11*x**2*z**2
+       \memo         + a12*x*z + a13*x*z**2 + a14*x**2*z + a15*y**2*z**2
+       \memo         + a16*y*z + a17*y*z**2 + a18*y**2*z + a19*x**2*y**2*z**2
+       \memo         + a20*x**2*y**2*z + a21*x**2*y*z**2 + a22*x*y**2*z**2
+       \memo         + a23*x**2*y*z + a24*x*y**2*z + a25*x*y*z**2 +a26*x*y*z
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference TrivariateFunctions
+  N1 , \field Coefficient1 Constant
+       \type real
+  N2 , \field Coefficient2 x**2
+       \type real
+  N3 , \field Coefficient3 x
+       \type real
+  N4 , \field Coefficient4 y**2
+       \type real
+  N5 , \field Coefficient5 y
+       \type real
+  N6 , \field Coefficient6 z**2
+       \type real
+  N7 , \field Coefficient7 z
+       \type real
+  N8 , \field Coefficient8 x**2*y**2
+       \type real
+  N9 , \field Coefficient9 x*y
+       \type real
+  N10, \field Coefficient10 x*y**2
+       \type real
+  N11, \field Coefficient11 x**2*y
+       \type real
+  N12, \field Coefficient12 x**2*z**2
+       \type real
+  N13, \field Coefficient13 x*z
+       \type real
+  N14, \field Coefficient14 x*z**2
+       \type real
+  N15, \field Coefficient15 x**2*z
+       \type real
+  N16, \field Coefficient16 y**2*z**2
+       \type real
+  N17, \field Coefficient17 y*z
+       \type real
+  N18, \field Coefficient18 y*z**2
+       \type real
+  N19, \field Coefficient19 y**2*z
+       \type real
+  N20, \field Coefficient20 x**2*y**2*z**2
+       \type real
+  N21, \field Coefficient21 x**2*y**2*z
+       \type real
+  N22, \field Coefficient22 x**2*y*z**2
+       \type real
+  N23, \field Coefficient23 x*y**2*z**2
+       \type real
+  N24, \field Coefficient24 x**2*y*z
+       \type real
+  N25, \field Coefficient25 x*y**2*z
+       \type real
+  N26, \field Coefficient26 x*y*z**2
+       \type real
+  N27, \field Coefficient27 x*y*z
+       \type real
+  N28, \field Minimum Value of x
+       \type real
+       \unitsBasedOnField A2
+  N29, \field Maximum Value of x
+       \type real
+       \unitsBasedOnField A2
+  N30, \field Minimum Value of y
+       \type real
+       \unitsBasedOnField A3
+  N31, \field Maximum Value of y
+       \type real
+       \unitsBasedOnField A3
+  N32, \field Minimum Value of z
+       \type real
+       \unitsBasedOnField A4
+  N33, \field Maximum Value of z
+       \type real
+       \unitsBasedOnField A4
+  N34, \field Minimum Curve Output
+       \type real
+       \note Specify the minimum value calculated by this curve object
+       \unitsBasedOnField A5
+  N35, \field Maximum Curve Output
+       \type real
+       \note Specify the maximum value calculated by this curve object
+       \unitsBasedOnField A5
+  A2,  \field Input Unit Type for X
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \default Dimensionless
+  A3,  \field Input Unit Type for Y
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \default Dimensionless
+  A4,  \field Input Unit Type for Z
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \default Dimensionless
+  A5;  \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \key Capacity
+       \key Power
+       \key Temperature
+       \default Dimensionless
+
+Curve:Functional:PressureDrop,
+       \min-fields 5
+       \memo Sets up curve information for minor loss and/or friction
+       \memo calculations in plant pressure simulations
+       \memo Expression: DeltaP = {K + f*(L/D)} * (rho * V^2) / 2
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference UnivariateFunctions
+  N1 , \field Diameter
+       \required-field
+       \units m
+       \type real
+       \note "D" in above expression, used to also calculate local velocity
+       \minimum> 0
+  N2 , \field Minor Loss Coefficient
+       \units dimensionless
+       \type real
+       \note "K" in above expression
+       \minimum> 0
+  N3 , \field Length
+       \units m
+       \type real
+       \note "L" in above expression
+       \minimum> 0
+  N4 , \field Roughness
+       \units m
+       \type real
+       \note This will be used to calculate "f" from Moody-chart approximations
+       \minimum> 0
+  N5 ; \field Fixed Friction Factor
+       \note Optional way to set a constant value for "f", instead of using
+       \note  internal Moody-chart approximations
+       \minimum> 0
+
+Curve:FanPressureRise,
+       \memo Special curve type with two independent variables.
+       \memo Input for the fan total pressure rise curve consists of the curve name, the four
+       \memo coefficients, and the maximum and minimum valid independent variable values. Optional
+       \memo inputs for the curve minimum and maximum may be used to limit the output of the
+       \memo performance curve.
+       \memo curve = C1*Qfan**2+C2*Qfan+C3*Qfan*(Psm-Po)**0.5+C4*(Psm-Po)
+       \memo Po assumed to be zero
+       \memo See InputOut Reference for curve details
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference BivariateFunctions
+  N1 , \field Coefficient1 C1
+       \required-field
+       \type real
+  N2 , \field Coefficient2 C2
+       \required-field
+       \type real
+  N3 , \field Coefficient3 C3
+       \required-field
+       \type real
+  N4 , \field Coefficient4 C4
+       \required-field
+       \type real
+  N5 , \field Minimum Value of Qfan
+       \required-field
+       \type real
+       \units m3/s
+  N6 , \field Maximum Value of Qfan
+       \required-field
+       \type real
+       \units m3/s
+  N7 , \field Minimum Value of Psm
+       \required-field
+       \type real
+       \units Pa
+       \ip-units Pa
+  N8 , \field Maximum Value of Psm
+       \required-field
+       \type real
+       \units Pa
+       \ip-units Pa
+  N9 , \field Minimum Curve Output
+       \type real
+       \units Pa
+       \ip-units Pa
+       \note Specify the minimum value calculated by this curve object
+  N10 ; \field Maximum Curve Output
+        \type real
+        \units Pa
+        \ip-units Pa
+        \note Specify the maximum value calculated by this curve object
+
+Curve:ExponentialSkewNormal,
+       \memo Exponential-modified skew normal curve with one independent variable.
+       \memo Input consists of the curve name, the four coefficients, and the maximum
+       \memo and minimum valid independent variable values. Optional inputs for the curve minimum
+       \memo and maximum may be used to limit the output of the performance curve.
+       \memo curve = see Input Output Reference
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference UnivariateFunctions
+       \note See InputOut Reference for curve description
+  N1 , \field Coefficient1 C1
+       \required-field
+       \type real
+  N2 , \field Coefficient2 C2
+       \required-field
+       \type real
+  N3 , \field Coefficient3 C3
+       \required-field
+       \type real
+  N4 , \field Coefficient4 C4
+       \required-field
+       \type real
+  N5 , \field Minimum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N6 , \field Maximum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N7 , \field Minimum Curve Output
+       \type real
+       \unitsBasedOnField A3
+       \note Specify the minimum value calculated by this curve object
+  N8 , \field Maximum Curve Output
+       \type real
+       \unitsBasedOnField A3
+       \note Specify the maximum value calculated by this curve object
+  A2,  \field Input Unit Type for x
+       \type choice
+       \key Dimensionless
+       \default Dimensionless
+  A3;  \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \default Dimensionless
+
+Curve:Sigmoid,
+       \memo Sigmoid curve with one independent variable.
+       \memo Input consists of the curve name, the five coefficients, and the maximum and minimum
+       \memo valid independent variable values. Optional inputs for the curve minimum and maximum
+       \memo may be used to limit the output of the performance curve.
+       \memo curve = C1+C2/[1+exp((C3-x)/C4)]**C5
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference UnivariateFunctions
+       \note See InputOut Reference for curve description
+  N1 , \field Coefficient1 C1
+       \required-field
+       \type real
+  N2 , \field Coefficient2 C2
+       \required-field
+       \type real
+  N3 , \field Coefficient3 C3
+       \required-field
+       \type real
+  N4 , \field Coefficient4 C4
+       \required-field
+       \type real
+  N5 , \field Coefficient5 C5
+       \required-field
+       \type real
+  N6 , \field Minimum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N7 , \field Maximum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N8 , \field Minimum Curve Output
+       \type real
+       \unitsBasedOnField A3
+       \note Specify the minimum value calculated by this curve object
+  N9 , \field Maximum Curve Output
+       \type real
+       \unitsBasedOnField A3
+       \note Specify the maximum value calculated by this curve object
+  A2,  \field Input Unit Type for x
+       \type choice
+       \key Dimensionless
+       \default Dimensionless
+  A3;  \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \default Dimensionless
+
+Curve:RectangularHyperbola1,
+       \memo Rectangular hyperbola type 1 curve with one independent variable.
+       \memo Input consists of the curve name, the three coefficients, and the maximum and
+       \memo minimum valid independent variable values. Optional inputs for the curve minimum and
+       \memo maximum may be used to limit the output of the performance curve.
+       \memo curve = ((C1*x)/(C2+x))+C3
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference UnivariateFunctions
+  N1 , \field Coefficient1 C1
+       \required-field
+       \type real
+  N2 , \field Coefficient2 C2
+       \required-field
+       \type real
+  N3 , \field Coefficient3 C3
+       \required-field
+       \type real
+  N4 , \field Minimum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N5 , \field Maximum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N6 , \field Minimum Curve Output
+       \type real
+       \unitsBasedOnField A3
+       \note Specify the minimum value calculated by this curve object
+  N7 , \field Maximum Curve Output
+       \type real
+       \unitsBasedOnField A3
+       \note Specify the maximum value calculated by this curve object
+  A2,  \field Input Unit Type for x
+       \type choice
+       \key Dimensionless
+       \default Dimensionless
+  A3;  \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \default Dimensionless
+
+Curve:RectangularHyperbola2,
+       \memo Rectangular hyperbola type 2 curve with one independent variable.
+       \memo Input consists of the curve name, the three coefficients, and the maximum and
+       \memo minimum valid independent variable values. Optional inputs for the curve minimum and
+       \memo maximum may be used to limit the output of the performance curve.
+       \memo curve = ((C1*x)/(C2+x))+(C3*x)
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference UnivariateFunctions
+  N1 , \field Coefficient1 C1
+       \required-field
+       \type real
+  N2 , \field Coefficient2 C2
+       \required-field
+       \type real
+  N3 , \field Coefficient3 C3
+       \required-field
+       \type real
+  N4 , \field Minimum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N5 , \field Maximum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N6 , \field Minimum Curve Output
+       \type real
+       \unitsBasedOnField A3
+       \note Specify the minimum value calculated by this curve object
+  N7 , \field Maximum Curve Output
+       \type real
+       \unitsBasedOnField A3
+       \note Specify the maximum value calculated by this curve object
+  A2,  \field Input Unit Type for x
+       \type choice
+       \key Dimensionless
+       \default Dimensionless
+  A3;  \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \default Dimensionless
+
+Curve:ExponentialDecay,
+       \memo Exponential decay curve with one independent variable.
+       \memo Input consists of the curve name, the three coefficients, and the maximum and minimum
+       \memo valid independent variable values. Optional inputs for the curve minimum and
+       \memo maximum may be used to limit the output of the performance curve.
+       \memo curve = C1+C2*exp(C3*x)
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference UnivariateFunctions
+  N1 , \field Coefficient1 C1
+       \required-field
+       \type real
+  N2 , \field Coefficient2 C2
+       \required-field
+       \type real
+  N3 , \field Coefficient3 C3
+       \required-field
+       \type real
+  N4 , \field Minimum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N5 , \field Maximum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N6 , \field Minimum Curve Output
+       \type real
+       \unitsBasedOnField A3
+       \note Specify the minimum value calculated by this curve object
+  N7 , \field Maximum Curve Output
+       \type real
+       \unitsBasedOnField A3
+       \note Specify the maximum value calculated by this curve object
+  A2,  \field Input Unit Type for x
+       \type choice
+       \key Dimensionless
+       \default Dimensionless
+  A3;  \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \default Dimensionless
+
+Curve:DoubleExponentialDecay,
+       \memo Double exponential decay curve with one independent variable.
+       \memo Input consists of the curve name, the five coefficients, and the maximum and minimum
+       \memo valid independent variable values. Optional inputs for the curve minimum and
+       \memo maximum may be used to limit the output of the performance curve.
+       \memo curve = C1+C2*exp(C3*x)+C4*exp(C5*x)
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference UnivariateFunctions
+  N1 , \field Coefficient1 C1
+       \required-field
+       \type real
+  N2 , \field Coefficient2 C2
+       \required-field
+       \type real
+  N3 , \field Coefficient3 C3
+       \required-field
+       \type real
+  N4 , \field Coefficient4 C4
+       \required-field
+       \type real
+  N5 , \field Coefficient5 C5
+       \required-field
+       \type real
+  N6 , \field Minimum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N7 , \field Maximum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N8 , \field Minimum Curve Output
+       \type real
+       \unitsBasedOnField A3
+       \note Specify the minimum value calculated by this curve object
+  N9 , \field Maximum Curve Output
+       \type real
+       \unitsBasedOnField A3
+       \note Specify the maximum value calculated by this curve object
+  A2,  \field Input Unit Type for x
+       \type choice
+       \key Dimensionless
+       \default Dimensionless
+  A3;  \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \default Dimensionless
+
+Curve:ChillerPartLoadWithLift,
+       \memo This chiller part-load performance curve has three independent variables.
+       \memo Input consists of the curve name, the twelve coefficients, and the maximum
+       \memo and minimum valid independent variable values. Optional inputs for the curve minimum
+       \memo and maximum may be used to limit the output of the performance curve.
+       \memo curve = C1 + C2*x + C3*x**2 + C4*y + C5*y**2 + C6*x*y + C7*x**3
+       \memo + C8*y**3 + C9*x**2*y + C10*x*y**2 + C11*x**2*y**2 + C12*z*y**3
+       \memo x = dT* = normalized fractional Lift = dT / dTref
+       \memo y = PLR = part load ratio (cooling load/steady state capacity)
+       \memo z = Tdev* = normalized Tdev = Tdev / dTref
+       \memo Where:
+       \memo dT = Lift = Leaving Condenser Water Temperature - Leaving Chilled Water Temperature
+       \memo dTref = dT at the reference condition
+       \memo Tdev = Leaving Chilled Water Temperature - Reference Chilled Water Temperature
+  A1 , \field Name
+       \required-field
+       \type alpha
+       \reference TrivariateFunctions
+  N1 , \field Coefficient1 C1
+       \required-field
+       \type real
+  N2 , \field Coefficient2 C2
+       \required-field
+       \type real
+  N3 , \field Coefficient3 C3
+       \required-field
+       \type real
+  N4 , \field Coefficient4 C4
+       \required-field
+       \type real
+  N5 , \field Coefficient5 C5
+       \required-field
+       \type real
+  N6 , \field Coefficient6 C6
+       \required-field
+       \type real
+  N7 , \field Coefficient7 C7
+       \required-field
+       \type real
+  N8 , \field Coefficient8 C8
+       \required-field
+       \type real
+  N9 , \field Coefficient9 C9
+       \required-field
+       \type real
+  N10, \field Coefficient10 C10
+       \required-field
+       \type real
+  N11, \field Coefficient11 C11
+       \required-field
+       \type real
+  N12, \field Coefficient12 C12
+       \required-field
+       \type real
+  N13, \field Minimum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N14, \field Maximum Value of x
+       \required-field
+       \type real
+       \unitsBasedOnField A2
+  N15, \field Minimum Value of y
+       \required-field
+       \type real
+       \unitsBasedOnField A3
+  N16, \field Maximum Value of y
+       \required-field
+       \type real
+       \unitsBasedOnField A3
+  N17, \field Minimum Value of z
+       \required-field
+       \type real
+       \unitsBasedOnField A4
+  N18, \field Maximum Value of z
+       \required-field
+       \type real
+       \unitsBasedOnField A4
+  N19, \field Minimum Curve Output
+       \type real
+       \unitsBasedOnField A5
+       \note Specify the minimum value calculated by this curve object
+  N20, \field Maximum Curve Output
+       \type real
+       \unitsBasedOnField A5
+       \note Specify the maximum value calculated by this curve object
+  A2 , \field Input Unit Type for x
+       \type choice
+       \key Dimensionless
+       \default Dimensionless
+  A3 , \field Input Unit Type for y
+       \type choice
+       \key Dimensionless
+       \default Dimensionless
+  A4 , \field Input Unit Type for z
+       \type choice
+       \key Dimensionless
+       \default Dimensionless
+  A5;  \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \default Dimensionless
+
+\group Performance Tables
+
+Table:IndependentVariable,
+       \memo An independent variable representing a single dimension of a Table:Lookup
+       \memo object.
+       \extensible:1
+  A1,  \field Name
+       \required-field
+       \reference IndependentVariableName
+       \type alpha
+  A2,  \field Interpolation Method
+       \type choice
+       \key Linear
+       \key Cubic
+       \default Linear
+  A3,  \field Extrapolation Method
+       \type choice
+       \key Constant
+       \key Linear
+       \default Constant
+  N1,  \field Minimum Value
+       \type real
+       \unitsBasedOnField A4
+  N2,  \field Maximum Value
+       \type real
+       \unitsBasedOnField A4
+  N3,  \field Normalization Reference Value
+       \type real
+       \unitsBasedOnField A4
+  A4,  \field Unit Type
+       \type choice
+       \key Dimensionless
+       \key Temperature
+       \key VolumetricFlow
+       \key MassFlow
+       \key Power
+       \key Distance
+       \key Angle
+       \default Dimensionless
+  A5,  \field External File Name
+       \type alpha
+       \retaincase
+  N4,  \field External File Column Number
+       \type integer
+       \minimum 1
+  N5,  \field External File Starting Row Number
+       \type integer
+       \minimum 1
+  N6,  \field Value 1
+       \type real
+       \begin-extensible
+  N7,  \field Value 2
+       \type real
+  N8,N9,N10,N11,N12,N13,N14,N15,N16,N17,N18,N19,N20;
+
+Table:IndependentVariableList,
+       \memo A sorted list of independent variables used by one or more Table:Lookup
+       \memo objects.
+       \extensible:1
+  A1,  \field Name
+       \required-field
+       \reference IndependentVariableListName
+       \type alpha
+  A2,  \field Independent Variable 1 Name
+       \required-field
+       \type object-list
+       \object-list IndependentVariableName
+       \begin-extensible
+  A3,  \field Independent Variable 2 Name
+       \type object-list
+       \object-list IndependentVariableName
+  A4,A5,A6,A7;
+
+Table:Lookup,
+       \memo Lookup tables are used in place of curves and can represent any number
+       \memo of independent variables (defined as Table:IndependentVariable objects
+       \memo in a Table:IndependentVariableList). Output values are interpolated
+       \memo within the bounds defined by each independent variable and extrapolated
+       \memo beyond the bounds according to the interpolation/extrapolation methods
+       \memo defined by each independent variable.
+       \extensible:1
+  A1,  \field Name
+       \required-field
+       \reference UnivariateFunctions
+       \reference BivariateFunctions
+       \reference TrivariateFunctions
+       \reference QuadvariateFunctions
+       \reference QuintvariateFunctions
+       \reference MultivariateFunctions
+       \type alpha
+  A2,  \field Independent Variable List Name
+       \required-field
+       \type object-list
+       \object-list IndependentVariableListName
+  A3,  \field Normalization Method
+       \type choice
+       \key None
+       \key DivisorOnly
+       \key AutomaticWithDivisor
+       \default None
+  N1,  \field Normalization Divisor
+       \type real
+       \default 1.0
+  N2,  \field Minimum Output
+       \type real
+       \unitsBasedOnField A4
+  N3,  \field Maximum Output
+       \type real
+       \unitsBasedOnField A4
+  A4,  \field Output Unit Type
+       \type choice
+       \key Dimensionless
+       \key Capacity
+       \key Power
+       \default Dimensionless
+  A5,  \field External File Name
+       \type alpha
+       \retaincase
+  N4,  \field External File Column Number
+       \type integer
+       \minimum 1
+  N5,  \field External File Starting Row Number
+       \type integer
+       \minimum 1
+  N6,  \field Output Value 1
+       \type real
+       \unitsBasedOnField A4
+       \begin-extensible
+  N7,  \field Output Value 2
+       \type real
+       \unitsBasedOnField A4
+  N8,N9,N10,N11,N12,N13,N14,N15,N16,N17,N18,N19,N20,  \note fields as indicated
+  N21,N22,N23,N24,N25,N26,N27,N28,N29,N30,N31,N32,N33,N34,N35,N36,N37,N38,N39,N40,  \note fields as indicated
+  N41,N42,N43,N44,N45,N46,N47,N48,N49,N50,N51,N52,N53,N54,N55,N56,N57,N58,N59,N60,  \note fields as indicated
+  N61,N62,N63,N64,N65,N66,N67,N68,N69,N70,N71,N72,N73,N74,N75,N76,N77,N78,N79,N80,  \note fields as indicated
+  N81,N82,N83,N84,N85,N86,N87,N88,N89,N90,N91,N92,N93,N94,N95,N96,N97,N98,N99,N100,  \note fields as indicated
+  N101,N102,N103,N104,N105,N106,N107,N108,N109,N110,N111,N112,N113,N114,N115,N116,N117,N118,N119,N120,  \note fields as indicated
+  N121,N122,N123,N124,N125,N126,N127,N128,N129,N130,N131,N132,N133,N134,N135,N136,N137,N138,N139,N140,  \note fields as indicated
+  N141,N142,N143,N144,N145,N146,N147,N148,N149,N150,N151,N152,N153,N154,N155,N156,N157,N158,N159,N160,  \note fields as indicated
+  N161,N162,N163,N164,N165,N166,N167,N168,N169,N170,N171,N172,N173,N174,N175,N176,N177,N178,N179,N180,  \note fields as indicated
+  N181,N182,N183,N184,N185,N186,N187,N188,N189,N190,N191,N192,N193,N194,N195,N196,N197,N198,N199,N200,  \note fields as indicated
+  N201,N202,N203,N204,N205,N206,N207,N208,N209,N210,N211,N212,N213,N214,N215,N216,N217,N218,N219,N220,  \note fields as indicated
+  N221,N222,N223,N224,N225,N226,N227,N228,N229,N230,N231,N232,N233,N234,N235,N236,N237,N238,N239,N240,  \note fields as indicated
+  N241,N242,N243,N244,N245,N246,N247,N248,N249,N250,N251,N252,N253,N254,N255,N256,N257,N258,N259,N260,  \note fields as indicated
+  N261,N262,N263,N264,N265,N266,N267,N268,N269,N270,N271,N272,N273,N274,N275,N276,N277,N278,N279,N280,  \note fields as indicated
+  N281,N282,N283,N284,N285,N286,N287,N288,N289,N290,N291,N292,N293,N294,N295,N296,N297,N298,N299,N300,  \note fields as indicated
+  N301,N302,N303,N304,N305,N306,N307,N308,N309,N310,N311,N312,N313,N314,N315,N316,N317,N318,N319,N320,  \note fields as indicated
+  N321,N322,N323,N324,N325,N326,N327,N328,N329,N330,N331,N332,N333,N334,N335,N336,N337,N338,N339,N340,  \note fields as indicated
+  N341,N342,N343,N344,N345,N346,N347,N348,N349,N350,N351,N352,N353,N354,N355,N356,N357,N358,N359,N360,  \note fields as indicated
+  N361,N362,N363,N364,N365,N366,N367,N368,N369,N370,N371,N372,N373,N374,N375,N376,N377,N378,N379,N380,  \note fields as indicated
+  N381,N382,N383,N384,N385,N386,N387,N388,N389,N390,N391,N392,N393,N394,N395,N396,N397,N398,N399,N400,  \note fields as indicated
+  N401,N402,N403,N404,N405,N406,N407,N408,N409,N410,N411,N412,N413,N414,N415,N416,N417,N418,N419,N420,  \note fields as indicated
+  N421,N422,N423,N424,N425,N426,N427,N428,N429,N430,N431,N432,N433,N434,N435,N436,N437,N438,N439,N440,  \note fields as indicated
+  N441,N442,N443,N444,N445,N446,N447,N448,N449,N450,N451,N452,N453,N454,N455,N456,N457,N458,N459,N460,  \note fields as indicated
+  N461,N462,N463,N464,N465,N466,N467,N468,N469,N470,N471,N472,N473,N474,N475,N476,N477,N478,N479,N480,  \note fields as indicated
+  N481,N482,N483,N484,N485,N486,N487,N488,N489,N490,N491,N492,N493,N494,N495,N496,N497,N498,N499,N500,  \note fields as indicated
+  N501,N502,N503,N504,N505,N506,N507,N508,N509,N510,N511,N512,N513,N514,N515,N516,N517,N518,N519,N520,  \note fields as indicated
+  N521,N522,N523,N524,N525,N526,N527,N528,N529,N530,N531,N532,N533,N534,N535,N536,N537,N538,N539,N540,  \note fields as indicated
+  N541,N542,N543,N544,N545,N546,N547,N548,N549,N550,N551,N552,N553,N554,N555,N556,N557,N558,N559,N560,  \note fields as indicated
+  N561,N562,N563,N564,N565,N566,N567,N568,N569,N570,N571,N572,N573,N574,N575,N576,N577,N578,N579,N580,  \note fields as indicated
+  N581,N582,N583,N584,N585,N586,N587,N588,N589,N590,N591,N592,N593,N594,N595,N596,N597,N598,N599,N600,  \note fields as indicated
+  N601,N602,N603,N604,N605,N606,N607,N608,N609,N610,N611,N612,N613,N614,N615,N616,N617,N618,N619,N620,  \note fields as indicated
+  N621,N622,N623,N624,N625,N626,N627,N628,N629,N630,N631,N632,N633,N634,N635,N636,N637,N638,N639,N640,  \note fields as indicated
+  N641,N642,N643,N644,N645,N646,N647,N648,N649,N650,N651,N652,N653,N654,N655,N656,N657,N658,N659,N660,  \note fields as indicated
+  N661,N662,N663,N664,N665,N666,N667,N668,N669,N670,N671,N672,N673,N674,N675,N676,N677,N678,N679,N680,  \note fields as indicated
+  N681,N682,N683,N684,N685,N686,N687,N688,N689,N690,N691,N692,N693,N694,N695,N696,N697,N698,N699,N700,  \note fields as indicated
+  N701,N702,N703,N704,N705,N706,N707,N708,N709,N710,N711,N712,N713,N714,N715,N716,N717,N718,N719,N720,  \note fields as indicated
+  N721,N722,N723,N724,N725,N726,N727,N728,N729,N730,N731,N732,N733,N734,N735,N736,N737,N738,N739,N740,  \note fields as indicated
+  N741,N742,N743,N744,N745,N746,N747,N748,N749,N750,N751,N752,N753,N754,N755,N756,N757,N758,N759,N760,  \note fields as indicated
+  N761,N762,N763,N764,N765,N766,N767,N768,N769,N770,N771,N772,N773,N774,N775,N776,N777,N778,N779,N780,  \note fields as indicated
+  N781,N782,N783,N784,N785,N786,N787,N788,N789,N790,N791,N792,N793,N794,N795,N796,N797,N798,N799,N800,  \note fields as indicated
+  N801,N802,N803,N804,N805,N806,N807,N808,N809,N810,N811,N812,N813,N814,N815,N816,N817,N818,N819,N820,  \note fields as indicated
+  N821,N822,N823,N824,N825,N826,N827,N828,N829,N830,N831,N832,N833,N834,N835,N836,N837,N838,N839,N840,  \note fields as indicated
+  N841,N842,N843,N844,N845,N846,N847,N848,N849,N850,N851,N852,N853,N854,N855,N856,N857,N858,N859,N860,  \note fields as indicated
+  N861,N862,N863,N864,N865,N866,N867,N868,N869,N870,N871,N872,N873,N874,N875,N876,N877,N878,N879,N880,  \note fields as indicated
+  N881,N882,N883,N884,N885,N886,N887,N888,N889,N890,N891,N892,N893,N894,N895,N896,N897,N898,N899,N900,  \note fields as indicated
+  N901,N902,N903,N904,N905,N906,N907,N908,N909,N910,N911,N912,N913,N914,N915,N916,N917,N918,N919,N920,  \note fields as indicated
+  N921,N922,N923,N924,N925,N926,N927,N928,N929,N930,N931,N932,N933,N934,N935,N936,N937,N938,N939,N940,  \note fields as indicated
+  N941,N942,N943,N944,N945,N946,N947,N948,N949,N950,N951,N952,N953,N954,N955,N956,N957,N958,N959,N960,  \note fields as indicated
+  N961,N962,N963,N964,N965,N966,N967,N968,N969,N970,N971,N972,N973,N974,N975,N976,N977,N978,N979,N980,  \note fields as indicated
+  N981,N982,N983,N984,N985,N986,N987,N988,N989,N990,N991,N992,N993,N994,N995,N996,N997,N998,N999,N1000,  \note fields as indicated
+  N1001,N1002,N1003,N1004,N1005,N1006,N1007,N1008,N1009,N1010,N1011,N1012,N1013,N1014,N1015,N1016,N1017,N1018,N1019,N1020,  \note fields as indicated
+  N1021,N1022,N1023,N1024,N1025,N1026,N1027,N1028,N1029,N1030,N1031,N1032,N1033,N1034,N1035,N1036,N1037,N1038,N1039,N1040,  \note fields as indicated
+  N1041,N1042,N1043,N1044,N1045,N1046,N1047,N1048,N1049,N1050,N1051,N1052,N1053,N1054,N1055,N1056,N1057,N1058,N1059,N1060,  \note fields as indicated
+  N1061,N1062,N1063,N1064,N1065,N1066,N1067,N1068,N1069,N1070,N1071,N1072,N1073,N1074,N1075,N1076,N1077,N1078,N1079,N1080,  \note fields as indicated
+  N1081,N1082,N1083,N1084,N1085,N1086,N1087,N1088,N1089,N1090,N1091,N1092,N1093,N1094,N1095,N1096,N1097,N1098,N1099,N1100,  \note fields as indicated
+  N1101,N1102,N1103,N1104,N1105,N1106,N1107,N1108,N1109,N1110,N1111,N1112,N1113,N1114,N1115,N1116,N1117,N1118,N1119,N1120,  \note fields as indicated
+  N1121,N1122,N1123,N1124,N1125,N1126,N1127,N1128,N1129,N1130,N1131,N1132,N1133,N1134,N1135,N1136,N1137,N1138,N1139,N1140,  \note fields as indicated
+  N1141,N1142,N1143,N1144,N1145,N1146,N1147,N1148,N1149,N1150,N1151,N1152,N1153,N1154,N1155,N1156,N1157,N1158,N1159,N1160,  \note fields as indicated
+  N1161,N1162,N1163,N1164,N1165,N1166,N1167,N1168,N1169,N1170,N1171,N1172,N1173,N1174,N1175,N1176,N1177,N1178,N1179,N1180,  \note fields as indicated
+  N1181,N1182,N1183,N1184,N1185,N1186,N1187,N1188,N1189,N1190,N1191,N1192,N1193,N1194,N1195,N1196,N1197,N1198,N1199,N1200,  \note fields as indicated
+  N1201,N1202,N1203,N1204,N1205,N1206,N1207,N1208,N1209,N1210,N1211,N1212,N1213,N1214,N1215,N1216,N1217,N1218,N1219,N1220,  \note fields as indicated
+  N1221,N1222,N1223,N1224,N1225,N1226,N1227,N1228,N1229,N1230,N1231,N1232,N1233,N1234,N1235,N1236,N1237,N1238,N1239,N1240,  \note fields as indicated
+  N1241,N1242,N1243,N1244,N1245,N1246,N1247,N1248,N1249,N1250,N1251,N1252,N1253,N1254,N1255,N1256,N1257,N1258,N1259,N1260,  \note fields as indicated
+  N1261,N1262,N1263,N1264,N1265,N1266,N1267,N1268,N1269,N1270,N1271,N1272,N1273,N1274,N1275,N1276,N1277,N1278,N1279,N1280,  \note fields as indicated
+  N1281,N1282,N1283,N1284,N1285,N1286,N1287,N1288,N1289,N1290,N1291,N1292,N1293,N1294,N1295,N1296,N1297,N1298,N1299,N1300,  \note fields as indicated
+  N1301,N1302,N1303,N1304,N1305,N1306,N1307,N1308,N1309,N1310,N1311,N1312,N1313,N1314,N1315,N1316,N1317,N1318,N1319,N1320,  \note fields as indicated
+  N1321,N1322,N1323,N1324,N1325,N1326,N1327,N1328,N1329,N1330,N1331,N1332,N1333,N1334,N1335,N1336,N1337,N1338,N1339,N1340,  \note fields as indicated
+  N1341,N1342,N1343,N1344,N1345,N1346,N1347,N1348,N1349,N1350,N1351,N1352,N1353,N1354,N1355,N1356,N1357,N1358,N1359,N1360,  \note fields as indicated
+  N1361,N1362,N1363,N1364,N1365,N1366,N1367,N1368,N1369,N1370,N1371,N1372,N1373,N1374,N1375,N1376,N1377,N1378,N1379,N1380,  \note fields as indicated
+  N1381,N1382,N1383,N1384,N1385,N1386,N1387,N1388,N1389,N1390,N1391,N1392,N1393,N1394,N1395,N1396,N1397,N1398,N1399,N1400,  \note fields as indicated
+  N1401,N1402,N1403,N1404,N1405,N1406,N1407,N1408,N1409,N1410,N1411,N1412,N1413,N1414,N1415,N1416,N1417,N1418,N1419,N1420,  \note fields as indicated
+  N1421,N1422,N1423,N1424,N1425,N1426,N1427,N1428,N1429,N1430,N1431,N1432,N1433,N1434,N1435,N1436,N1437,N1438,N1439,N1440,  \note fields as indicated
+  N1441,N1442,N1443,N1444,N1445,N1446,N1447,N1448,N1449,N1450,N1451,N1452,N1453,N1454,N1455,N1456,N1457,N1458,N1459,N1460,  \note fields as indicated
+  N1461,N1462,N1463,N1464,N1465,N1466,N1467,N1468,N1469,N1470,N1471,N1472,N1473,N1474,N1475,N1476,N1477,N1478,N1479,N1480,  \note fields as indicated
+  N1481,N1482,N1483,N1484,N1485,N1486,N1487,N1488,N1489,N1490,N1491,N1492,N1493,N1494,N1495,N1496,N1497,N1498,N1499,N1500,  \note fields as indicated
+  N1501,N1502,N1503,N1504,N1505,N1506,N1507,N1508,N1509,N1510,N1511,N1512,N1513,N1514,N1515,N1516,N1517,N1518,N1519,N1520;  \note fields as indicated
+
+\group Fluid Properties
+
+
+
+FluidProperties:Name,
+       \memo potential fluid name/type in the input file
+       \memo repeat this object for each fluid
+  A1,  \field Fluid Name
+       \type alpha
+       \required-field
+       \reference FluidNames
+       \reference FluidAndGlycolNames
+  A2;  \field Fluid Type
+       \required-field
+       \type choice
+       \key Refrigerant
+       \key Glycol
+
+FluidProperties:GlycolConcentration,
+       \memo glycol and what concentration it is
+  A1,  \field Name
+       \required-field
+       \reference FluidAndGlycolNames
+  A2,  \field Glycol Type
+       \required-field
+       \type choice
+       \key EthyleneGlycol
+       \key PropyleneGlycol
+       \key UserDefinedGlycolType
+       \note or UserDefined Fluid (must show up as a glycol in FluidProperties:Name object)
+  A3,  \field User Defined Glycol Name
+       \type object-list
+       \object-list FluidAndGlycolNames
+  N1;  \field Glycol Concentration
+       \type real
+       \minimum 0.0
+       \maximum 1.0
+
+FluidProperties:Temperatures,
+      \memo property values for fluid properties
+      \memo list of up to 250 temperatures, note that number of property values must match the number of properties
+      \memo in other words, there must be a one-to-one correspondence between the property values in this list and
+      \memo the actual properties list in other syntax
+      \memo degrees C (for all temperature inputs)
+      \format FluidProperty
+  A1, \field Name
+      \type alpha
+      \reference FluidPropertyTemperatures
+  N1, \field Temperature 1
+      \type real
+      \units C
+  N2, \field Temperature 2
+      \type real
+      \units C
+  N3, \field Temperature 3
+      \type real
+      \units C
+  N4, \field Temperature 4
+      \type real
+      \units C
+  N5, \field Temperature 5
+      \type real
+      \units C
+  N6, \field Temperature 6
+      \type real
+      \units C
+  N7, \field Temperature 7
+      \type real
+      \units C
+  N8, \field Temperature 8
+      \type real
+      \units C
+  N9, \field Temperature 9
+      \type real
+      \units C
+  N10, \field Temperature 10
+       \type real
+       \units C
+  N11, \field Temperature 11
+       \type real
+       \units C
+  N12, \field Temperature 12
+       \type real
+       \units C
+  N13, \field Temperature 13
+       \type real
+       \units C
+  N14, \field Temperature 14
+       \type real
+       \units C
+  N15, \field Temperature 15
+       \type real
+       \units C
+  N16, \field Temperature 16
+       \type real
+       \units C
+  N17, \field Temperature 17
+       \type real
+       \units C
+  N18, \field Temperature 18
+       \type real
+       \units C
+  N19, \field Temperature 19
+       \type real
+       \units C
+  N20, \field Temperature 20
+       \type real
+       \units C
+  N21, \field Temperature 21
+       \type real
+       \units C
+  N22, \field Temperature 22
+       \type real
+       \units C
+  N23, \field Temperature 23
+       \type real
+       \units C
+  N24, \field Temperature 24
+       \type real
+       \units C
+  N25, \field Temperature 25
+       \type real
+       \units C
+  N26, \field Temperature 26
+       \type real
+       \units C
+  N27, \field Temperature 27
+       \type real
+       \units C
+  N28, \field Temperature 28
+       \type real
+       \units C
+  N29, \field Temperature 29
+       \type real
+       \units C
+  N30, \field Temperature 30
+       \type real
+       \units C
+  N31, \field Temperature 31
+       \type real
+       \units C
+  N32, \field Temperature 32
+       \type real
+       \units C
+  N33, \field Temperature 33
+       \type real
+       \units C
+  N34, \field Temperature 34
+       \type real
+       \units C
+  N35, \field Temperature 35
+       \type real
+       \units C
+  N36, \field Temperature 36
+       \type real
+       \units C
+  N37, \field Temperature 37
+       \type real
+       \units C
+  N38, \field Temperature 38
+       \type real
+       \units C
+  N39, \field Temperature 39
+       \type real
+       \units C
+  N40, \field Temperature 40
+       \type real
+       \units C
+  N41, \field Temperature 41
+       \type real
+       \units C
+  N42, \field Temperature 42
+       \type real
+       \units C
+  N43, \field Temperature 43
+       \type real
+       \units C
+  N44, \field Temperature 44
+       \type real
+       \units C
+  N45, \field Temperature 45
+       \type real
+       \units C
+  N46, \field Temperature 46
+       \type real
+       \units C
+  N47, \field Temperature 47
+       \type real
+       \units C
+  N48, \field Temperature 48
+       \type real
+       \units C
+  N49, \field Temperature 49
+       \type real
+       \units C
+  N50, \field Temperature 50
+       \type real
+       \units C
+  N51, \field Temperature 51
+       \type real
+       \units C
+  N52, \field Temperature 52
+       \type real
+       \units C
+  N53, \field Temperature 53
+       \type real
+       \units C
+  N54, \field Temperature 54
+       \type real
+       \units C
+  N55, \field Temperature 55
+       \type real
+       \units C
+  N56, \field Temperature 56
+       \type real
+       \units C
+  N57, \field Temperature 57
+       \type real
+       \units C
+  N58, \field Temperature 58
+       \type real
+       \units C
+  N59, \field Temperature 59
+       \type real
+       \units C
+  N60, \field Temperature 60
+       \type real
+       \units C
+  N61, \field Temperature 61
+       \type real
+       \units C
+  N62, \field Temperature 62
+       \type real
+       \units C
+  N63, \field Temperature 63
+       \type real
+       \units C
+  N64, \field Temperature 64
+       \type real
+       \units C
+  N65, \field Temperature 65
+       \type real
+       \units C
+  N66, \field Temperature 66
+       \type real
+       \units C
+  N67, \field Temperature 67
+       \type real
+       \units C
+  N68, \field Temperature 68
+       \type real
+       \units C
+  N69, \field Temperature 69
+       \type real
+       \units C
+  N70, \field Temperature 70
+       \type real
+       \units C
+  N71, \field Temperature 71
+       \type real
+       \units C
+  N72, \field Temperature 72
+       \type real
+       \units C
+  N73, \field Temperature 73
+       \type real
+       \units C
+  N74, \field Temperature 74
+       \type real
+       \units C
+  N75, \field Temperature 75
+       \type real
+       \units C
+  N76, \field Temperature 76
+       \type real
+       \units C
+  N77, \field Temperature 77
+       \type real
+       \units C
+  N78, \field Temperature 78
+       \type real
+       \units C
+  N79, \field Temperature 79
+       \type real
+       \units C
+  N80, \field Temperature 80
+       \type real
+       \units C
+  N81, \field Temperature 81
+       \type real
+       \units C
+  N82, \field Temperature 82
+       \type real
+       \units C
+  N83, \field Temperature 83
+       \type real
+       \units C
+  N84, \field Temperature 84
+       \type real
+       \units C
+  N85, \field Temperature 85
+       \type real
+       \units C
+  N86, \field Temperature 86
+       \type real
+       \units C
+  N87, \field Temperature 87
+       \type real
+       \units C
+  N88, \field Temperature 88
+       \type real
+       \units C
+  N89, \field Temperature 89
+       \type real
+       \units C
+  N90, \field Temperature 90
+       \type real
+       \units C
+  N91, \field Temperature 91
+       \type real
+       \units C
+  N92, \field Temperature 92
+       \type real
+       \units C
+  N93, \field Temperature 93
+       \type real
+       \units C
+  N94, \field Temperature 94
+       \type real
+       \units C
+  N95, \field Temperature 95
+       \type real
+       \units C
+  N96, \field Temperature 96
+       \type real
+       \units C
+  N97, \field Temperature 97
+       \type real
+       \units C
+  N98, \field Temperature 98
+       \type real
+       \units C
+  N99, \field Temperature 99
+       \type real
+       \units C
+  N100, \field Temperature 100
+        \type real
+        \units C
+  N101, \field Temperature 101
+        \type real
+        \units C
+  N102, \field Temperature 102
+        \type real
+        \units C
+  N103, \field Temperature 103
+        \type real
+        \units C
+  N104, \field Temperature 104
+        \type real
+        \units C
+  N105, \field Temperature 105
+        \type real
+        \units C
+  N106, \field Temperature 106
+        \type real
+        \units C
+  N107, \field Temperature 107
+        \type real
+        \units C
+  N108, \field Temperature 108
+        \type real
+        \units C
+  N109, \field Temperature 109
+        \type real
+        \units C
+  N110, \field Temperature 110
+        \type real
+        \units C
+  N111, \field Temperature 111
+        \type real
+        \units C
+  N112, \field Temperature 112
+        \type real
+        \units C
+  N113, \field Temperature 113
+        \type real
+        \units C
+  N114, \field Temperature 114
+        \type real
+        \units C
+  N115, \field Temperature 115
+        \type real
+        \units C
+  N116, \field Temperature 116
+        \type real
+        \units C
+  N117, \field Temperature 117
+        \type real
+        \units C
+  N118, \field Temperature 118
+        \type real
+        \units C
+  N119, \field Temperature 119
+        \type real
+        \units C
+  N120, \field Temperature 120
+        \type real
+        \units C
+  N121, \field Temperature 121
+        \type real
+        \units C
+  N122, \field Temperature 122
+        \type real
+        \units C
+  N123, \field Temperature 123
+        \type real
+        \units C
+  N124, \field Temperature 124
+        \type real
+        \units C
+  N125, \field Temperature 125
+        \type real
+        \units C
+  N126, \field Temperature 126
+        \type real
+        \units C
+  N127, \field Temperature 127
+        \type real
+        \units C
+  N128, \field Temperature 128
+        \type real
+        \units C
+  N129, \field Temperature 129
+        \type real
+        \units C
+  N130, \field Temperature 130
+        \type real
+        \units C
+  N131, \field Temperature 131
+        \type real
+        \units C
+  N132, \field Temperature 132
+        \type real
+        \units C
+  N133, \field Temperature 133
+        \type real
+        \units C
+  N134, \field Temperature 134
+        \type real
+        \units C
+  N135, \field Temperature 135
+        \type real
+        \units C
+  N136, \field Temperature 136
+        \type real
+        \units C
+  N137, \field Temperature 137
+        \type real
+        \units C
+  N138, \field Temperature 138
+        \type real
+        \units C
+  N139, \field Temperature 139
+        \type real
+        \units C
+  N140, \field Temperature 140
+        \type real
+        \units C
+  N141, \field Temperature 141
+        \type real
+        \units C
+  N142, \field Temperature 142
+        \type real
+        \units C
+  N143, \field Temperature 143
+        \type real
+        \units C
+  N144, \field Temperature 144
+        \type real
+        \units C
+  N145, \field Temperature 145
+        \type real
+        \units C
+  N146, \field Temperature 146
+        \type real
+        \units C
+  N147, \field Temperature 147
+        \type real
+        \units C
+  N148, \field Temperature 148
+        \type real
+        \units C
+  N149, \field Temperature 149
+        \type real
+        \units C
+  N150, \field Temperature 150
+        \type real
+        \units C
+  N151, \field Temperature 151
+        \type real
+        \units C
+  N152, \field Temperature 152
+        \type real
+        \units C
+  N153, \field Temperature 153
+        \type real
+        \units C
+  N154, \field Temperature 154
+        \type real
+        \units C
+  N155, \field Temperature 155
+        \type real
+        \units C
+  N156, \field Temperature 156
+        \type real
+        \units C
+  N157, \field Temperature 157
+        \type real
+        \units C
+  N158, \field Temperature 158
+        \type real
+        \units C
+  N159, \field Temperature 159
+        \type real
+        \units C
+  N160, \field Temperature 160
+        \type real
+        \units C
+  N161, \field Temperature 161
+        \type real
+        \units C
+  N162, \field Temperature 162
+        \type real
+        \units C
+  N163, \field Temperature 163
+        \type real
+        \units C
+  N164, \field Temperature 164
+        \type real
+        \units C
+  N165, \field Temperature 165
+        \type real
+        \units C
+  N166, \field Temperature 166
+        \type real
+        \units C
+  N167, \field Temperature 167
+        \type real
+        \units C
+  N168, \field Temperature 168
+        \type real
+        \units C
+  N169, \field Temperature 169
+        \type real
+        \units C
+  N170, \field Temperature 170
+        \type real
+        \units C
+  N171, \field Temperature 171
+        \type real
+        \units C
+  N172, \field Temperature 172
+        \type real
+        \units C
+  N173, \field Temperature 173
+        \type real
+        \units C
+  N174, \field Temperature 174
+        \type real
+        \units C
+  N175, \field Temperature 175
+        \type real
+        \units C
+  N176, \field Temperature 176
+        \type real
+        \units C
+  N177, \field Temperature 177
+        \type real
+        \units C
+  N178, \field Temperature 178
+        \type real
+        \units C
+  N179, \field Temperature 179
+        \type real
+        \units C
+  N180, \field Temperature 180
+        \type real
+        \units C
+  N181, \field Temperature 181
+        \type real
+        \units C
+  N182, \field Temperature 182
+        \type real
+        \units C
+  N183, \field Temperature 183
+        \type real
+        \units C
+  N184, \field Temperature 184
+        \type real
+        \units C
+  N185, \field Temperature 185
+        \type real
+        \units C
+  N186, \field Temperature 186
+        \type real
+        \units C
+  N187, \field Temperature 187
+        \type real
+        \units C
+  N188, \field Temperature 188
+        \type real
+        \units C
+  N189, \field Temperature 189
+        \type real
+        \units C
+  N190, \field Temperature 190
+        \type real
+        \units C
+  N191, \field Temperature 191
+        \type real
+        \units C
+  N192, \field Temperature 192
+        \type real
+        \units C
+  N193, \field Temperature 193
+        \type real
+        \units C
+  N194, \field Temperature 194
+        \type real
+        \units C
+  N195, \field Temperature 195
+        \type real
+        \units C
+  N196, \field Temperature 196
+        \type real
+        \units C
+  N197, \field Temperature 197
+        \type real
+        \units C
+  N198, \field Temperature 198
+        \type real
+        \units C
+  N199, \field Temperature 199
+        \type real
+        \units C
+  N200, \field Temperature 200
+        \type real
+        \units C
+  N201, \field Temperature 201
+        \type real
+        \units C
+  N202, \field Temperature 202
+        \type real
+        \units C
+  N203, \field Temperature 203
+        \type real
+        \units C
+  N204, \field Temperature 204
+        \type real
+        \units C
+  N205, \field Temperature 205
+        \type real
+        \units C
+  N206, \field Temperature 206
+        \type real
+        \units C
+  N207, \field Temperature 207
+        \type real
+        \units C
+  N208, \field Temperature 208
+        \type real
+        \units C
+  N209, \field Temperature 209
+        \type real
+        \units C
+  N210, \field Temperature 210
+        \type real
+        \units C
+  N211, \field Temperature 211
+        \type real
+        \units C
+  N212, \field Temperature 212
+        \type real
+        \units C
+  N213, \field Temperature 213
+        \type real
+        \units C
+  N214, \field Temperature 214
+        \type real
+        \units C
+  N215, \field Temperature 215
+        \type real
+        \units C
+  N216, \field Temperature 216
+        \type real
+        \units C
+  N217, \field Temperature 217
+        \type real
+        \units C
+  N218, \field Temperature 218
+        \type real
+        \units C
+  N219, \field Temperature 219
+        \type real
+        \units C
+  N220, \field Temperature 220
+        \type real
+        \units C
+  N221, \field Temperature 221
+        \type real
+        \units C
+  N222, \field Temperature 222
+        \type real
+        \units C
+  N223, \field Temperature 223
+        \type real
+        \units C
+  N224, \field Temperature 224
+        \type real
+        \units C
+  N225, \field Temperature 225
+        \type real
+        \units C
+  N226, \field Temperature 226
+        \type real
+        \units C
+  N227, \field Temperature 227
+        \type real
+        \units C
+  N228, \field Temperature 228
+        \type real
+        \units C
+  N229, \field Temperature 229
+        \type real
+        \units C
+  N230, \field Temperature 230
+        \type real
+        \units C
+  N231, \field Temperature 231
+        \type real
+        \units C
+  N232, \field Temperature 232
+        \type real
+        \units C
+  N233, \field Temperature 233
+        \type real
+        \units C
+  N234, \field Temperature 234
+        \type real
+        \units C
+  N235, \field Temperature 235
+        \type real
+        \units C
+  N236, \field Temperature 236
+        \type real
+        \units C
+  N237, \field Temperature 237
+        \type real
+        \units C
+  N238, \field Temperature 238
+        \type real
+        \units C
+  N239, \field Temperature 239
+        \type real
+        \units C
+  N240, \field Temperature 240
+        \type real
+        \units C
+  N241, \field Temperature 241
+        \type real
+        \units C
+  N242, \field Temperature 242
+        \type real
+        \units C
+  N243, \field Temperature 243
+        \type real
+        \units C
+  N244, \field Temperature 244
+        \type real
+        \units C
+  N245, \field Temperature 245
+        \type real
+        \units C
+  N246, \field Temperature 246
+        \type real
+        \units C
+  N247, \field Temperature 247
+        \type real
+        \units C
+  N248, \field Temperature 248
+        \type real
+        \units C
+  N249, \field Temperature 249
+        \type real
+        \units C
+  N250; \field Temperature 250
+        \type real
+        \units C
+
+FluidProperties:Saturated,
+      \memo fluid properties for the saturated region
+      \format FluidProperty
+  A1, \field Fluid Name
+      \type object-list
+      \object-list FluidNames
+  A2, \field Fluid Property Type
+      \note Enthalpy Units are J/kg
+      \note Density Units are kg/m3
+      \note SpecificHeat Units are J/kg-K
+      \note Pressure Units are Pa
+      \type choice
+      \key Enthalpy
+      \key Density
+      \key SpecificHeat
+      \key Pressure
+  A3, \field Fluid Phase
+      \note Fluid=saturated fluid
+      \note FluidGas=saturated vapor
+      \type choice
+      \key Fluid
+      \key FluidGas
+  A4, \field Temperature Values Name
+      \note Enter the name of a FluidProperties:Temperatures object.
+      \type object-list
+      \object-list FluidPropertyTemperatures
+  N1, \field Property Value 1
+      \type real
+      \unitsBasedOnField A2
+  N2, \field Property Value 2
+      \type real
+      \unitsBasedOnField A2
+  N3, \field Property Value 3
+      \type real
+      \unitsBasedOnField A2
+  N4, \field Property Value 4
+      \type real
+      \unitsBasedOnField A2
+  N5, \field Property Value 5
+      \type real
+      \unitsBasedOnField A2
+  N6, \field Property Value 6
+      \type real
+      \unitsBasedOnField A2
+  N7, \field Property Value 7
+      \type real
+      \unitsBasedOnField A2
+  N8, \field Property Value 8
+      \type real
+      \unitsBasedOnField A2
+  N9, \field Property Value 9
+      \type real
+      \unitsBasedOnField A2
+  N10, \field Property Value 10
+       \type real
+       \unitsBasedOnField A2
+  N11, \field Property Value 11
+       \type real
+       \unitsBasedOnField A2
+  N12, \field Property Value 12
+       \type real
+       \unitsBasedOnField A2
+  N13, \field Property Value 13
+       \type real
+       \unitsBasedOnField A2
+  N14, \field Property Value 14
+       \type real
+       \unitsBasedOnField A2
+  N15, \field Property Value 15
+       \type real
+       \unitsBasedOnField A2
+  N16, \field Property Value 16
+       \type real
+       \unitsBasedOnField A2
+  N17, \field Property Value 17
+       \type real
+       \unitsBasedOnField A2
+  N18, \field Property Value 18
+       \type real
+       \unitsBasedOnField A2
+  N19, \field Property Value 19
+       \type real
+       \unitsBasedOnField A2
+  N20, \field Property Value 20
+       \type real
+       \unitsBasedOnField A2
+  N21, \field Property Value 21
+       \type real
+       \unitsBasedOnField A2
+  N22, \field Property Value 22
+       \type real
+       \unitsBasedOnField A2
+  N23, \field Property Value 23
+       \type real
+       \unitsBasedOnField A2
+  N24, \field Property Value 24
+       \type real
+       \unitsBasedOnField A2
+  N25, \field Property Value 25
+       \type real
+       \unitsBasedOnField A2
+  N26, \field Property Value 26
+       \type real
+       \unitsBasedOnField A2
+  N27, \field Property Value 27
+       \type real
+       \unitsBasedOnField A2
+  N28, \field Property Value 28
+       \type real
+       \unitsBasedOnField A2
+  N29, \field Property Value 29
+       \type real
+       \unitsBasedOnField A2
+  N30, \field Property Value 30
+       \type real
+       \unitsBasedOnField A2
+  N31, \field Property Value 31
+       \type real
+       \unitsBasedOnField A2
+  N32, \field Property Value 32
+       \type real
+       \unitsBasedOnField A2
+  N33, \field Property Value 33
+       \type real
+       \unitsBasedOnField A2
+  N34, \field Property Value 34
+       \type real
+       \unitsBasedOnField A2
+  N35, \field Property Value 35
+       \type real
+       \unitsBasedOnField A2
+  N36, \field Property Value 36
+       \type real
+       \unitsBasedOnField A2
+  N37, \field Property Value 37
+       \type real
+       \unitsBasedOnField A2
+  N38, \field Property Value 38
+       \type real
+       \unitsBasedOnField A2
+  N39, \field Property Value 39
+       \type real
+       \unitsBasedOnField A2
+  N40, \field Property Value 40
+       \type real
+       \unitsBasedOnField A2
+  N41, \field Property Value 41
+       \type real
+       \unitsBasedOnField A2
+  N42, \field Property Value 42
+       \type real
+       \unitsBasedOnField A2
+  N43, \field Property Value 43
+       \type real
+       \unitsBasedOnField A2
+  N44, \field Property Value 44
+       \type real
+       \unitsBasedOnField A2
+  N45, \field Property Value 45
+       \type real
+       \unitsBasedOnField A2
+  N46, \field Property Value 46
+       \type real
+       \unitsBasedOnField A2
+  N47, \field Property Value 47
+       \type real
+       \unitsBasedOnField A2
+  N48, \field Property Value 48
+       \type real
+       \unitsBasedOnField A2
+  N49, \field Property Value 49
+       \type real
+       \unitsBasedOnField A2
+  N50, \field Property Value 50
+       \type real
+       \unitsBasedOnField A2
+  N51, \field Property Value 51
+       \type real
+       \unitsBasedOnField A2
+  N52, \field Property Value 52
+       \type real
+       \unitsBasedOnField A2
+  N53, \field Property Value 53
+       \type real
+       \unitsBasedOnField A2
+  N54, \field Property Value 54
+       \type real
+       \unitsBasedOnField A2
+  N55, \field Property Value 55
+       \type real
+       \unitsBasedOnField A2
+  N56, \field Property Value 56
+       \type real
+       \unitsBasedOnField A2
+  N57, \field Property Value 57
+       \type real
+       \unitsBasedOnField A2
+  N58, \field Property Value 58
+       \type real
+       \unitsBasedOnField A2
+  N59, \field Property Value 59
+       \type real
+       \unitsBasedOnField A2
+  N60, \field Property Value 60
+       \type real
+       \unitsBasedOnField A2
+  N61, \field Property Value 61
+       \type real
+       \unitsBasedOnField A2
+  N62, \field Property Value 62
+       \type real
+       \unitsBasedOnField A2
+  N63, \field Property Value 63
+       \type real
+       \unitsBasedOnField A2
+  N64, \field Property Value 64
+       \type real
+       \unitsBasedOnField A2
+  N65, \field Property Value 65
+       \type real
+       \unitsBasedOnField A2
+  N66, \field Property Value 66
+       \type real
+       \unitsBasedOnField A2
+  N67, \field Property Value 67
+       \type real
+       \unitsBasedOnField A2
+  N68, \field Property Value 68
+       \type real
+       \unitsBasedOnField A2
+  N69, \field Property Value 69
+       \type real
+       \unitsBasedOnField A2
+  N70, \field Property Value 70
+       \type real
+       \unitsBasedOnField A2
+  N71, \field Property Value 71
+       \type real
+       \unitsBasedOnField A2
+  N72, \field Property Value 72
+       \type real
+       \unitsBasedOnField A2
+  N73, \field Property Value 73
+       \type real
+       \unitsBasedOnField A2
+  N74, \field Property Value 74
+       \type real
+       \unitsBasedOnField A2
+  N75, \field Property Value 75
+       \type real
+       \unitsBasedOnField A2
+  N76, \field Property Value 76
+       \type real
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+        \type real
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+  N229, \field Property Value 229
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+  N230, \field Property Value 230
+        \type real
+        \unitsBasedOnField A2
+  N231, \field Property Value 231
+        \type real
+        \unitsBasedOnField A2
+  N232, \field Property Value 232
+        \type real
+        \unitsBasedOnField A2
+  N233, \field Property Value 233
+        \type real
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+  N234, \field Property Value 234
+        \type real
+        \unitsBasedOnField A2
+  N235, \field Property Value 235
+        \type real
+        \unitsBasedOnField A2
+  N236, \field Property Value 236
+        \type real
+        \unitsBasedOnField A2
+  N237, \field Property Value 237
+        \type real
+        \unitsBasedOnField A2
+  N238, \field Property Value 238
+        \type real
+        \unitsBasedOnField A2
+  N239, \field Property Value 239
+        \type real
+        \unitsBasedOnField A2
+  N240, \field Property Value 240
+        \type real
+        \unitsBasedOnField A2
+  N241, \field Property Value 241
+        \type real
+        \unitsBasedOnField A2
+  N242, \field Property Value 242
+        \type real
+        \unitsBasedOnField A2
+  N243, \field Property Value 243
+        \type real
+        \unitsBasedOnField A2
+  N244, \field Property Value 244
+        \type real
+        \unitsBasedOnField A2
+  N245, \field Property Value 245
+        \type real
+        \unitsBasedOnField A2
+  N246, \field Property Value 246
+        \type real
+        \unitsBasedOnField A2
+  N247, \field Property Value 247
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+        \unitsBasedOnField A2
+  N248, \field Property Value 248
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+  N249, \field Property Value 249
+        \type real
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+  N250; \field Property Value 250
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+
+FluidProperties:Superheated,
+      \memo fluid properties for the superheated region
+      \format FluidProperty
+  A1, \field Fluid Name
+      \type object-list
+      \object-list FluidNames
+  A2, \field Fluid Property Type
+      \note Enthalpy Units are J/kg
+      \note Density Units are kg/m3
+      \type choice
+      \key Enthalpy
+      \key Density
+  A3, \field Temperature Values Name
+      \note Enter the name of a FluidProperties:Temperatures object.
+      \type object-list
+      \object-list FluidPropertyTemperatures
+  N1, \field Pressure
+      \note pressure for this list of properties
+      \type real
+      \units Pa
+      \minimum> 0.0
+  N2, \field Property Value 1
+      \type real
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+  N3, \field Property Value 2
+      \type real
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+  N4, \field Property Value 3
+      \type real
+      \unitsBasedOnField A2
+  N5, \field Property Value 4
+      \type real
+      \unitsBasedOnField A2
+  N6, \field Property Value 5
+      \type real
+      \unitsBasedOnField A2
+  N7, \field Property Value 6
+      \type real
+      \unitsBasedOnField A2
+  N8, \field Property Value 7
+      \type real
+      \unitsBasedOnField A2
+  N9, \field Property Value 8
+      \type real
+      \unitsBasedOnField A2
+  N10, \field Property Value 9
+       \type real
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+  N11, \field Property Value 10
+       \type real
+       \unitsBasedOnField A2
+  N12, \field Property Value 11
+       \type real
+       \unitsBasedOnField A2
+  N13, \field Property Value 12
+       \type real
+       \unitsBasedOnField A2
+  N14, \field Property Value 13
+       \type real
+       \unitsBasedOnField A2
+  N15, \field Property Value 14
+       \type real
+       \unitsBasedOnField A2
+  N16, \field Property Value 15
+       \type real
+       \unitsBasedOnField A2
+  N17, \field Property Value 16
+       \type real
+       \unitsBasedOnField A2
+  N18, \field Property Value 17
+       \type real
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+  N19, \field Property Value 18
+       \type real
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+  N20, \field Property Value 19
+       \type real
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+  N21, \field Property Value 20
+       \type real
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+  N22, \field Property Value 21
+       \type real
+       \unitsBasedOnField A2
+  N23, \field Property Value 22
+       \type real
+       \unitsBasedOnField A2
+  N24, \field Property Value 23
+       \type real
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+  N25, \field Property Value 24
+       \type real
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+  N26, \field Property Value 25
+       \type real
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+  N27, \field Property Value 26
+       \type real
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+  N28, \field Property Value 27
+       \type real
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+  N29, \field Property Value 28
+       \type real
+       \unitsBasedOnField A2
+  N30, \field Property Value 29
+       \type real
+       \unitsBasedOnField A2
+  N31, \field Property Value 30
+       \type real
+       \unitsBasedOnField A2
+  N32, \field Property Value 31
+       \type real
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+       \type real
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+  N34, \field Property Value 33
+       \type real
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+  N35, \field Property Value 34
+       \type real
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+  N36, \field Property Value 35
+       \type real
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+  N37, \field Property Value 36
+       \type real
+       \unitsBasedOnField A2
+  N38, \field Property Value 37
+       \type real
+       \unitsBasedOnField A2
+  N39, \field Property Value 38
+       \type real
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+  N40, \field Property Value 39
+       \type real
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+  N41, \field Property Value 40
+       \type real
+       \unitsBasedOnField A2
+  N42, \field Property Value 41
+       \type real
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+  N43, \field Property Value 42
+       \type real
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+  N44, \field Property Value 43
+       \type real
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+  N45, \field Property Value 44
+       \type real
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+  N46, \field Property Value 45
+       \type real
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+  N47, \field Property Value 46
+       \type real
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+  N48, \field Property Value 47
+       \type real
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+  N49, \field Property Value 48
+       \type real
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+  N50, \field Property Value 49
+       \type real
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+  N51, \field Property Value 50
+       \type real
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+  N52, \field Property Value 51
+       \type real
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+  N53, \field Property Value 52
+       \type real
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+       \type real
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+  N55, \field Property Value 54
+       \type real
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+  N56, \field Property Value 55
+       \type real
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+  N57, \field Property Value 56
+       \type real
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+  N58, \field Property Value 57
+       \type real
+       \unitsBasedOnField A2
+  N59, \field Property Value 58
+       \type real
+       \unitsBasedOnField A2
+  N60, \field Property Value 59
+       \type real
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+  N61, \field Property Value 60
+       \type real
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+  N62, \field Property Value 61
+       \type real
+       \unitsBasedOnField A2
+  N63, \field Property Value 62
+       \type real
+       \unitsBasedOnField A2
+  N64, \field Property Value 63
+       \type real
+       \unitsBasedOnField A2
+  N65, \field Property Value 64
+       \type real
+       \unitsBasedOnField A2
+  N66, \field Property Value 65
+       \type real
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+       \type real
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+  N68, \field Property Value 67
+       \type real
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+       \type real
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+  N70, \field Property Value 69
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+       \type real
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+  N72, \field Property Value 71
+       \type real
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+  N73, \field Property Value 72
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+       \type real
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+       \type real
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+  N83, \field Property Value 82
+       \type real
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+  N84, \field Property Value 83
+       \type real
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+  N85, \field Property Value 84
+       \type real
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+       \type real
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+  N87, \field Property Value 86
+       \type real
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+  N88, \field Property Value 87
+       \type real
+       \unitsBasedOnField A2
+  N89, \field Property Value 88
+       \type real
+       \unitsBasedOnField A2
+  N90, \field Property Value 89
+       \type real
+       \unitsBasedOnField A2
+  N91, \field Property Value 90
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+        \type real
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+        \type real
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+        \type real
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+        \type real
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+        \type real
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+  N244, \field Property Value 243
+        \type real
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+  N245, \field Property Value 244
+        \type real
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+        \type real
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+  N247, \field Property Value 246
+        \type real
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+  N248, \field Property Value 247
+        \type real
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+
+FluidProperties:Concentration,
+      \memo fluid properties for water/other fluid mixtures
+      \format FluidProperty
+  A1, \field Fluid Name
+      \type object-list
+      \object-list FluidNames
+      \note should not be any of the defaults (Water, EthyleneGlycol, or PropyleneGlycol)
+  A2, \field Fluid Property Type
+      \note Density Units are kg/m3
+      \note SpecificHeat Units are J/kg-K
+      \note Conductivity Units are W/m-K
+      \note Viscosity Units are N-s/m2
+      \type choice
+      \key Density
+      \key SpecificHeat
+      \key Conductivity
+      \key Viscosity
+  A3, \field Temperature Values Name
+      \note Enter the name of a FluidProperties:Temperatures object.
+      \type object-list
+      \object-list FluidPropertyTemperatures
+  N1, \field Concentration
+      \note Glycol concentration for this list of properties entered as a fraction
+      \type real
+      \units dimensionless
+      \minimum 0.0
+      \maximum 1.0
+  N2, \field Property Value 1
+      \type real
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+  N3, \field Property Value 2
+      \type real
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+  N4, \field Property Value 3
+      \type real
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+  N5, \field Property Value 4
+      \type real
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+  N6, \field Property Value 5
+      \type real
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+  N7, \field Property Value 6
+      \type real
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+  N8, \field Property Value 7
+      \type real
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+  N9, \field Property Value 8
+      \type real
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+  N10, \field Property Value 9
+       \type real
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+  N11, \field Property Value 10
+       \type real
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+  N12, \field Property Value 11
+       \type real
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+  N13, \field Property Value 12
+       \type real
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+  N14, \field Property Value 13
+       \type real
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+  N15, \field Property Value 14
+       \type real
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+  N16, \field Property Value 15
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+  N17, \field Property Value 16
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+       \type real
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+       \type real
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+       \type real
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+       \type real
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+       \type real
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+       \type real
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+       \type real
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+       \type real
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+       \type real
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+       \type real
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+       \type real
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+  N87, \field Property Value 86
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+        \type real
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+        \type real
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+        \type real
+        \unitsBasedOnField A2
+  N103, \field Property Value 102
+        \type real
+        \unitsBasedOnField A2
+  N104, \field Property Value 103
+        \type real
+        \unitsBasedOnField A2
+  N105, \field Property Value 104
+        \type real
+        \unitsBasedOnField A2
+  N106, \field Property Value 105
+        \type real
+        \unitsBasedOnField A2
+  N107, \field Property Value 106
+        \type real
+        \unitsBasedOnField A2
+  N108, \field Property Value 107
+        \type real
+        \unitsBasedOnField A2
+  N109, \field Property Value 108
+        \type real
+        \unitsBasedOnField A2
+  N110, \field Property Value 109
+        \type real
+        \unitsBasedOnField A2
+  N111, \field Property Value 110
+        \type real
+        \unitsBasedOnField A2
+  N112, \field Property Value 111
+        \type real
+        \unitsBasedOnField A2
+  N113, \field Property Value 112
+        \type real
+        \unitsBasedOnField A2
+  N114, \field Property Value 113
+        \type real
+        \unitsBasedOnField A2
+  N115, \field Property Value 114
+        \type real
+        \unitsBasedOnField A2
+  N116, \field Property Value 115
+        \type real
+        \unitsBasedOnField A2
+  N117, \field Property Value 116
+        \type real
+        \unitsBasedOnField A2
+  N118, \field Property Value 117
+        \type real
+        \unitsBasedOnField A2
+  N119, \field Property Value 118
+        \type real
+        \unitsBasedOnField A2
+  N120, \field Property Value 119
+        \type real
+        \unitsBasedOnField A2
+  N121, \field Property Value 120
+        \type real
+        \unitsBasedOnField A2
+  N122, \field Property Value 121
+        \type real
+        \unitsBasedOnField A2
+  N123, \field Property Value 122
+        \type real
+        \unitsBasedOnField A2
+  N124, \field Property Value 123
+        \type real
+        \unitsBasedOnField A2
+  N125, \field Property Value 124
+        \type real
+        \unitsBasedOnField A2
+  N126, \field Property Value 125
+        \type real
+        \unitsBasedOnField A2
+  N127, \field Property Value 126
+        \type real
+        \unitsBasedOnField A2
+  N128, \field Property Value 127
+        \type real
+        \unitsBasedOnField A2
+  N129, \field Property Value 128
+        \type real
+        \unitsBasedOnField A2
+  N130, \field Property Value 129
+        \type real
+        \unitsBasedOnField A2
+  N131, \field Property Value 130
+        \type real
+        \unitsBasedOnField A2
+  N132, \field Property Value 131
+        \type real
+        \unitsBasedOnField A2
+  N133, \field Property Value 132
+        \type real
+        \unitsBasedOnField A2
+  N134, \field Property Value 133
+        \type real
+        \unitsBasedOnField A2
+  N135, \field Property Value 134
+        \type real
+        \unitsBasedOnField A2
+  N136, \field Property Value 135
+        \type real
+        \unitsBasedOnField A2
+  N137, \field Property Value 136
+        \type real
+        \unitsBasedOnField A2
+  N138, \field Property Value 137
+        \type real
+        \unitsBasedOnField A2
+  N139, \field Property Value 138
+        \type real
+        \unitsBasedOnField A2
+  N140, \field Property Value 139
+        \type real
+        \unitsBasedOnField A2
+  N141, \field Property Value 140
+        \type real
+        \unitsBasedOnField A2
+  N142, \field Property Value 141
+        \type real
+        \unitsBasedOnField A2
+  N143, \field Property Value 142
+        \type real
+        \unitsBasedOnField A2
+  N144, \field Property Value 143
+        \type real
+        \unitsBasedOnField A2
+  N145, \field Property Value 144
+        \type real
+        \unitsBasedOnField A2
+  N146, \field Property Value 145
+        \type real
+        \unitsBasedOnField A2
+  N147, \field Property Value 146
+        \type real
+        \unitsBasedOnField A2
+  N148, \field Property Value 147
+        \type real
+        \unitsBasedOnField A2
+  N149, \field Property Value 148
+        \type real
+        \unitsBasedOnField A2
+  N150, \field Property Value 149
+        \type real
+        \unitsBasedOnField A2
+  N151, \field Property Value 150
+        \type real
+        \unitsBasedOnField A2
+  N152, \field Property Value 151
+        \type real
+        \unitsBasedOnField A2
+  N153, \field Property Value 152
+        \type real
+        \unitsBasedOnField A2
+  N154, \field Property Value 153
+        \type real
+        \unitsBasedOnField A2
+  N155, \field Property Value 154
+        \type real
+        \unitsBasedOnField A2
+  N156, \field Property Value 155
+        \type real
+        \unitsBasedOnField A2
+  N157, \field Property Value 156
+        \type real
+        \unitsBasedOnField A2
+  N158, \field Property Value 157
+        \type real
+        \unitsBasedOnField A2
+  N159, \field Property Value 158
+        \type real
+        \unitsBasedOnField A2
+  N160, \field Property Value 159
+        \type real
+        \unitsBasedOnField A2
+  N161, \field Property Value 160
+        \type real
+        \unitsBasedOnField A2
+  N162, \field Property Value 161
+        \type real
+        \unitsBasedOnField A2
+  N163, \field Property Value 162
+        \type real
+        \unitsBasedOnField A2
+  N164, \field Property Value 163
+        \type real
+        \unitsBasedOnField A2
+  N165, \field Property Value 164
+        \type real
+        \unitsBasedOnField A2
+  N166, \field Property Value 165
+        \type real
+        \unitsBasedOnField A2
+  N167, \field Property Value 166
+        \type real
+        \unitsBasedOnField A2
+  N168, \field Property Value 167
+        \type real
+        \unitsBasedOnField A2
+  N169, \field Property Value 168
+        \type real
+        \unitsBasedOnField A2
+  N170, \field Property Value 169
+        \type real
+        \unitsBasedOnField A2
+  N171, \field Property Value 170
+        \type real
+        \unitsBasedOnField A2
+  N172, \field Property Value 171
+        \type real
+        \unitsBasedOnField A2
+  N173, \field Property Value 172
+        \type real
+        \unitsBasedOnField A2
+  N174, \field Property Value 173
+        \type real
+        \unitsBasedOnField A2
+  N175, \field Property Value 174
+        \type real
+        \unitsBasedOnField A2
+  N176, \field Property Value 175
+        \type real
+        \unitsBasedOnField A2
+  N177, \field Property Value 176
+        \type real
+        \unitsBasedOnField A2
+  N178, \field Property Value 177
+        \type real
+        \unitsBasedOnField A2
+  N179, \field Property Value 178
+        \type real
+        \unitsBasedOnField A2
+  N180, \field Property Value 179
+        \type real
+        \unitsBasedOnField A2
+  N181, \field Property Value 180
+        \type real
+        \unitsBasedOnField A2
+  N182, \field Property Value 181
+        \type real
+        \unitsBasedOnField A2
+  N183, \field Property Value 182
+        \type real
+        \unitsBasedOnField A2
+  N184, \field Property Value 183
+        \type real
+        \unitsBasedOnField A2
+  N185, \field Property Value 184
+        \type real
+        \unitsBasedOnField A2
+  N186, \field Property Value 185
+        \type real
+        \unitsBasedOnField A2
+  N187, \field Property Value 186
+        \type real
+        \unitsBasedOnField A2
+  N188, \field Property Value 187
+        \type real
+        \unitsBasedOnField A2
+  N189, \field Property Value 188
+        \type real
+        \unitsBasedOnField A2
+  N190, \field Property Value 189
+        \type real
+        \unitsBasedOnField A2
+  N191, \field Property Value 190
+        \type real
+        \unitsBasedOnField A2
+  N192, \field Property Value 191
+        \type real
+        \unitsBasedOnField A2
+  N193, \field Property Value 192
+        \type real
+        \unitsBasedOnField A2
+  N194, \field Property Value 193
+        \type real
+        \unitsBasedOnField A2
+  N195, \field Property Value 194
+        \type real
+        \unitsBasedOnField A2
+  N196, \field Property Value 195
+        \type real
+        \unitsBasedOnField A2
+  N197, \field Property Value 196
+        \type real
+        \unitsBasedOnField A2
+  N198, \field Property Value 197
+        \type real
+        \unitsBasedOnField A2
+  N199, \field Property Value 198
+        \type real
+        \unitsBasedOnField A2
+  N200, \field Property Value 199
+        \type real
+        \unitsBasedOnField A2
+  N201, \field Property Value 200
+        \type real
+        \unitsBasedOnField A2
+  N202, \field Property Value 201
+        \type real
+        \unitsBasedOnField A2
+  N203, \field Property Value 202
+        \type real
+        \unitsBasedOnField A2
+  N204, \field Property Value 203
+        \type real
+        \unitsBasedOnField A2
+  N205, \field Property Value 204
+        \type real
+        \unitsBasedOnField A2
+  N206, \field Property Value 205
+        \type real
+        \unitsBasedOnField A2
+  N207, \field Property Value 206
+        \type real
+        \unitsBasedOnField A2
+  N208, \field Property Value 207
+        \type real
+        \unitsBasedOnField A2
+  N209, \field Property Value 208
+        \type real
+        \unitsBasedOnField A2
+  N210, \field Property Value 209
+        \type real
+        \unitsBasedOnField A2
+  N211, \field Property Value 210
+        \type real
+        \unitsBasedOnField A2
+  N212, \field Property Value 211
+        \type real
+        \unitsBasedOnField A2
+  N213, \field Property Value 212
+        \type real
+        \unitsBasedOnField A2
+  N214, \field Property Value 213
+        \type real
+        \unitsBasedOnField A2
+  N215, \field Property Value 214
+        \type real
+        \unitsBasedOnField A2
+  N216, \field Property Value 215
+        \type real
+        \unitsBasedOnField A2
+  N217, \field Property Value 216
+        \type real
+        \unitsBasedOnField A2
+  N218, \field Property Value 217
+        \type real
+        \unitsBasedOnField A2
+  N219, \field Property Value 218
+        \type real
+        \unitsBasedOnField A2
+  N220, \field Property Value 219
+        \type real
+        \unitsBasedOnField A2
+  N221, \field Property Value 220
+        \type real
+        \unitsBasedOnField A2
+  N222, \field Property Value 221
+        \type real
+        \unitsBasedOnField A2
+  N223, \field Property Value 222
+        \type real
+        \unitsBasedOnField A2
+  N224, \field Property Value 223
+        \type real
+        \unitsBasedOnField A2
+  N225, \field Property Value 224
+        \type real
+        \unitsBasedOnField A2
+  N226, \field Property Value 225
+        \type real
+        \unitsBasedOnField A2
+  N227, \field Property Value 226
+        \type real
+        \unitsBasedOnField A2
+  N228, \field Property Value 227
+        \type real
+        \unitsBasedOnField A2
+  N229, \field Property Value 228
+        \type real
+        \unitsBasedOnField A2
+  N230, \field Property Value 229
+        \type real
+        \unitsBasedOnField A2
+  N231, \field Property Value 230
+        \type real
+        \unitsBasedOnField A2
+  N232, \field Property Value 231
+        \type real
+        \unitsBasedOnField A2
+  N233, \field Property Value 232
+        \type real
+        \unitsBasedOnField A2
+  N234, \field Property Value 233
+        \type real
+        \unitsBasedOnField A2
+  N235, \field Property Value 234
+        \type real
+        \unitsBasedOnField A2
+  N236, \field Property Value 235
+        \type real
+        \unitsBasedOnField A2
+  N237, \field Property Value 236
+        \type real
+        \unitsBasedOnField A2
+  N238, \field Property Value 237
+        \type real
+        \unitsBasedOnField A2
+  N239, \field Property Value 238
+        \type real
+        \unitsBasedOnField A2
+  N240, \field Property Value 239
+        \type real
+        \unitsBasedOnField A2
+  N241, \field Property Value 240
+        \type real
+        \unitsBasedOnField A2
+  N242, \field Property Value 241
+        \type real
+        \unitsBasedOnField A2
+  N243, \field Property Value 242
+        \type real
+        \unitsBasedOnField A2
+  N244, \field Property Value 243
+        \type real
+        \unitsBasedOnField A2
+  N245, \field Property Value 244
+        \type real
+        \unitsBasedOnField A2
+  N246, \field Property Value 245
+        \type real
+        \unitsBasedOnField A2
+  N247, \field Property Value 246
+        \type real
+        \unitsBasedOnField A2
+  N248, \field Property Value 247
+        \type real
+        \unitsBasedOnField A2
+  N249, \field Property Value 248
+        \type real
+        \unitsBasedOnField A2
+  N250, \field Property Value 249
+        \type real
+        \unitsBasedOnField A2
+  N251; \field Property Value 250
+        \type real
+        \unitsBasedOnField A2
+
+\group Economics
+
+CurrencyType,
+       \memo If CurrencyType is not specified, it will default to USD and produce $ in the reports.
+       \unique-object
+  A1;   \field Monetary Unit
+        \required-field
+        \note The commonly used three letter currency code for the units of money for the country or region.
+        \note Based on ISO 4217 currency codes. Common currency codes are USD for $ and EUR for Euros.
+        \type choice
+        \key USD
+        \key AFN
+        \key ALL
+        \key ANG
+        \key ARS
+        \key AUD
+        \key AWG
+        \key AZN
+        \key BAM
+        \key BBD
+        \key BGN
+        \key BMD
+        \key BND
+        \key BOB
+        \key BRL
+        \key BSD
+        \key BWP
+        \key BYR
+        \key BZD
+        \key CAD
+        \key CHF
+        \key CLP
+        \key CNY
+        \key COP
+        \key CRC
+        \key CUP
+        \key CZK
+        \key DKK
+        \key DOP
+        \key EEK
+        \key EGP
+        \key EUR
+        \key FJD
+        \key GBP
+        \key GHC
+        \key GIP
+        \key GTQ
+        \key GYD
+        \key HKD
+        \key HNL
+        \key HRK
+        \key HUF
+        \key IDR
+        \key ILS
+        \key IMP
+        \key INR
+        \key IRR
+        \key ISK
+        \key JEP
+        \key JMD
+        \key JPY
+        \key KGS
+        \key KHR
+        \key KPW
+        \key KRW
+        \key KYD
+        \key KZT
+        \key LAK
+        \key LBP
+        \key LKR
+        \key LRD
+        \key LTL
+        \key LVL
+        \key MKD
+        \key MNT
+        \key MUR
+        \key MXN
+        \key MYR
+        \key MZN
+        \key NAD
+        \key NGN
+        \key NIO
+        \key NOK
+        \key NPR
+        \key NZD
+        \key OMR
+        \key PAB
+        \key PEN
+        \key PHP
+        \key PKR
+        \key PLN
+        \key PYG
+        \key QAR
+        \key RON
+        \key RSD
+        \key RUB
+        \key SAR
+        \key SBD
+        \key SCR
+        \key SEK
+        \key SGD
+        \key SHP
+        \key SOS
+        \key SRD
+        \key SVC
+        \key SYP
+        \key THB
+        \key TRL
+        \key TRY
+        \key TTD
+        \key TVD
+        \key TWD
+        \key UAH
+        \key UYU
+        \key UZS
+        \key VEF
+        \key VND
+        \key XCD
+        \key YER
+        \key ZAR
+        \key ZWD
+
+ComponentCost:Adjustments,
+       \memo Used to perform various modifications to the construction costs to arrive at an
+       \memo estimate for total project costs. This object allows extending the line item model
+       \memo so that the overall costs of the project will reflect various profit and fees.
+   N1 ,\field Miscellaneous Cost per Conditioned Area
+       \type real
+       \note based on conditioned floor area
+       \note for cost not accounted for in current line item cost model
+       \units $/m2
+   N2 ,\field Design and Engineering Fees
+       \type real
+       \units dimensionless
+   N3 ,\field Contractor Fee
+       \type real
+       \units dimensionless
+   N4 ,\field Contingency
+       \type real
+       \units dimensionless
+   N5 ,\field Permits, Bonding and Insurance
+       \type real
+       \units dimensionless
+   N6 ,\field Commissioning Fee
+       \type real
+       \units dimensionless
+   N7 ;\field Regional Adjustment Factor
+       \type real
+       \units dimensionless
+       \note for use with average data in line item and Misc cost models
+
+ComponentCost:Reference,
+       \memo Used to allow comparing the current cost estimate to the results of a previous
+       \memo estimate for a reference building. This object parallels the ComponentCost:Adjustments
+       \memo object but adds a field for entering the cost line item model result for the reference
+       \memo building. The factors entered in this object are applied to the reference building
+       \memo while the factors listed in the ComponentCost:Adjustments object are applied to the
+       \memo current building model cost estimate.
+   N1 ,\field Reference Building Line Item Costs
+       \type real
+       \units $
+       \note should be comparable to the components in current line item cost model
+   N2 ,\field Reference Building Miscellaneous Cost per Conditioned Area
+       \type real
+       \units $/m2
+       \note based on conditioned floor area
+       \note for cost not accounted for in reference line item costs
+   N3 ,\field Reference Building Design and Engineering Fees
+       \type real
+       \units dimensionless
+   N4 ,\field Reference Building Contractor Fee
+       \type real
+       \units dimensionless
+   N5 ,\field Reference Building Contingency
+       \type real
+   N6 ,\field Reference Building Permits, Bonding and Insurance
+       \type real
+       \units dimensionless
+   N7 ,\field Reference Building Commissioning Fee
+       \type real
+       \units dimensionless
+   N8 ;\field Reference Building Regional Adjustment Factor
+       \type real
+       \units dimensionless
+       \note for use with average data in line item and Misc cost models
+
+ComponentCost:LineItem,
+       \memo Each instance of this object creates a cost line item and will contribute to the total
+       \memo for a cost estimate.
+   A1 ,\field Name
+       \type alpha
+   A2 ,\field Type
+       \type alpha
+   A3 ,\field Line Item Type
+       \required-field
+       \type choice
+       \key General
+       \key Construction
+       \key Coil:DX
+       \key Coil:Cooling:DX:SingleSpeed
+       \key Coil:Heating:Fuel
+       \key Chiller:Electric
+       \key Daylighting:Controls
+       \key Shading:Zone:Detailed
+       \key Lights
+       \key Generator:Photovoltaic
+       \note  extend choice-keys as Cases are added to code
+   A4 ,\field Item Name
+       \required-field
+       \note wildcard "*" is acceptable for some components
+   A5 ,\field Object End-Use Key
+       \type alpha
+       \note not yet used
+   N1 ,\field Cost per Each
+       \type real
+       \units $
+   N2 ,\field Cost per Area
+       \type real
+       \units $/m2
+   N3 ,\field Cost per Unit of Output Capacity
+       \type real
+       \units $/kW
+   N4 ,\field Cost per Unit of Output Capacity per COP
+       \type real
+       \units $/kW
+       \note The value is per change in COP.
+   N5 ,\field Cost per Volume
+       \type real
+       \units $/m3
+   N6 ,\field Cost per Volume Rate
+       \type real
+       \units $/(m3/s)
+   N7 ,\field Cost per Energy per Temperature Difference
+       \type real
+       \units $/(W/K)
+       \note as in for use with UA sizing of Coils
+   N8 ;\field Quantity
+       \type real
+       \units dimensionless
+       \note optional for use with Cost per Each and "General" object Type
+
+UtilityCost:Tariff,
+        \memo Defines the name of a utility cost tariff, the type of tariff, and other details
+        \memo about the overall tariff. Each other object that is part of the tariff model
+        \memo references the tariff name. See UtilityCost:Charge:Simple, UtilityCost:Charge:Block,
+        \memo UtilityCost:Ratchet, UtilityCost:Qualify, UtilityCost:Variable and
+        \memo UtilityCost:Computation objects.
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \reference UtilityCostTariffs
+        \note The name of the tariff. Tariffs are sometimes called rates. The name is used in identifying
+        \note the output results and in associating all of the charges and other objects that make up a tariff.
+   A2,  \field Output Meter Name
+        \note The name of any standard meter or custom meter or but usually set to either Electricity:Facility or Gas:Facility
+        \required-field
+        \type external-list
+        \external-list autoRDDmeter
+   A3,  \field Conversion Factor Choice
+        \type choice
+        \key UserDefined
+        \key kWh
+        \key Therm
+        \key MMBtu
+        \key MJ
+        \key kBtu
+        \key MCF
+        \key CCF
+        \key m3
+        \key gal
+        \key kgal
+        \note A choice that allows several different predefined conversion factors to be used; otherwise user
+        \note defined conversion factors are used as defined in the next two fields. If left blank m3 is used for water meters
+        \note and kWh are used for all other meters.
+   N1,  \field Energy Conversion Factor
+        \type real
+        \note Is a multiplier used to convert energy into the units specified by the utility in their tariff. If
+        \note left blank it defaults to 1 (no conversion). This field should will be used only if Conversion Factor
+        \note Choice is set to UserDefined. Within EnergyPlus energy always has units of J (joules). For
+        \note conversion from J to kWh use the value of 0.0000002778. This is also used for all objects that
+        \note reference the UtilityCost:Tariff.
+   N2,  \field Demand Conversion Factor
+        \type real
+        \note Is a multiplier used to convert demand into the units specified by the utility in their tariff. If
+        \note left blank it defaults to 1 (no conversion). This field should will be used only if Conversion
+        \note Factor Choice is set to UserDefined. Within EnergyPlus demand always has units of J/s (joules/sec)
+        \note which equivalent to W (watts). For conversion from W to kW use the value of 0.001. This is also used
+        \note for all objects that reference the UtilityCost:Tariff.
+   A4,  \field Time of Use Period Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note The name of the schedule that defines the time-of-use periods that occur each day. The values for the
+        \note different variables are: 1 for Peak. 2 for Shoulder. 3 for OffPeak. 4 for MidPeak.
+        \note The following variables are created automatically if these different periods are used in the
+        \note schedule and include: TotalEnergy, TotalDemand, PeakEnergy, PeakDemand, ShoulderEnergy, ShoulderDemand,
+        \note OffPeakEnergy, OffPeakDemand, MidPeakEnergy, MidPeakDemand
+        \note Some special variables are created that include: PeakExceedsOffPeak, OffPeakExceedsPeak,
+        \note PeakExceedsMidPeak, MidPeakExceedsPeak, PeakExceedsShoulder, ShoulderExceedsPeak,
+        \note Others include: PeakAndShoulderEnergy, PeakAndShoulderDemand, PeakAndMidPeakEnergy,
+        \note PeakAndMidPeakDemand, ShoulderAndOffPeakEnergy, ShoulderAndOffPeakDemand, PeakAndOffPeakEnergy,
+        \note PeakAndOffPeakDemand, RealTimePriceCosts, AboveCustomerBaseCosts, BelowCustomerBaseCosts,
+        \note AboveCustomerBaseEnergy, BelowCustomerBaseEnergy
+   A5,  \field Season Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note The name of a schedule that defines the seasons. The schedule values are: 1 for Winter. 2 for Spring.
+        \note 3 for Summer. 4 for Autumn.
+        \note Variables are automatically created if a season schedule is used. These variables are set to 1 within
+        \note the season and 0 for the months that are not in the season. The variables are: IsWinter, IsNotWinter,
+        \note IsSpring, IsNotSpring, IsSummer, IsNotSummer, IsAutumn, IsNotAutumn.
+   A6,  \field Month Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+        \note The name of the schedule that defines the billing periods of the year. Normally this entry is allowed
+        \note to default and a schedule will be internally used that has the breaks between billing periods occurring
+        \note at the same time as the breaks between months i.e. at midnight prior to the first day of the month.
+        \note If other billing periods are used such as two month cycles or a single bill for an entire season such
+        \note as some natural gas companies do in the summer then the month schedule may be used to redefine it.
+        \note Make sure that the month schedule and season schedule are consistent otherwise an error will be issued.
+   A7,  \field Demand Window Length
+        \type choice
+        \key QuarterHour
+        \key HalfHour
+        \key FullHour
+        \key Day
+        \key Week
+        \note The determination of demand can vary by utility. Some utilities use the peak instantaneous demand
+        \note measured but most use a fifteen minute average demand or a one hour average demand. Some gas utilities
+        \note measure demand as the use during the peak day or peak week.
+   A8,  \field Monthly Charge or Variable Name
+        \note The fixed monthly service charge that many utilities have. The entry may be numeric and gets added to
+        \note the ServiceCharges variable or if a variable name is entered here its values for each month are used.
+   A9,  \field Minimum Monthly Charge or Variable Name
+        \note The minimum total charge for the tariff or if a variable name is entered here its
+        \note values for each month are used.
+   A10, \field Real Time Pricing Charge Schedule Name
+        \note Used with real time pricing rates. The name of a schedule that contains the cost of
+        \note energy for that particular time period of the year. Real time rates can be modeled using a charge
+        \note schedule with the actual real time prices entered in the schedule.
+        \type object-list
+        \object-list ScheduleNames
+   A11, \field Customer Baseline Load Schedule Name
+        \note Used with real time pricing rates. The name of a schedule that contains the baseline
+        \note energy use for the customer. Many real time rates apply the charges as a credit or debit only to the
+        \note difference between the baseline use and the actual use.
+        \type object-list
+        \object-list ScheduleNames
+   A12, \field Group Name
+        \note The group name of the tariff such as distribution transmission supplier etc. If more than one tariff
+        \note with the same group name is present and qualifies only the lowest cost tariff is used. Usually the group
+        \note name field is left blank which results in all tariffs using the same meter variable being compared and
+        \note the lowest cost one being selected.
+   A13; \field Buy Or Sell
+        \type  choice
+        \key   BuyFromUtility
+        \key   SellToUtility
+        \key   NetMetering
+        \default BuyFromUtility
+        \note Sets whether the tariff is used for buying selling or both to the utility. This
+        \note should be allowed to default to buyFromUtility unless a power generation system is included in the
+        \note building that may generate more power than the building needs during the year
+
+UtilityCost:Qualify,
+        \memo The qualify object allows only tariffs to be selected based on limits which may apply
+        \memo such as maximum or minimum demand requirements. If the results of the simulation fall
+        \memo outside of the range of qualifications, that tariff is still calculated but the
+        \memo "Qualified" entry will say "No" and the UtilityCost:Qualify that caused its exclusion
+        \memo is shown. Multiple UtilityCost:Qualify objects can appear for the same tariff and
+        \memo they can be based on any variable.
+   A1,  \field Utility Cost Qualify Name
+        \required-field
+        \note Displayed in the report if the tariff does not qualify
+   A2,  \field Tariff Name
+        \required-field
+        \type object-list
+        \object-list UtilityCostTariffs
+        \note The name of the UtilityCost:Tariff that is associated with this UtilityCost:Qualify.
+   A3,  \field Variable Name
+        \required-field
+        \note The name of the variable used. For energy and demand the automatically created variables totalEnergy
+        \note and totalDemand should be used respectively.
+   A4,  \field Qualify Type
+        \type choice
+        \key Minimum
+        \key Maximum
+        \default Maximum
+   A5,  \field Threshold Value or Variable Name
+        \required-field
+        \note The minimum or maximum value for the qualify. If the variable has values that are less than this value
+        \note when the qualify type is minimum then the tariff may be disqualified. If the variable has values that
+        \note are greater than this value when the qualify type is maximum then the tariff may be disqualified.
+   A6,  \field Season
+        \type choice
+        \key Annual
+        \key Summer
+        \key Winter
+        \key Spring
+        \key Fall
+        \note If the UtilityCost:Qualify only applies to a season enter the season name. If this field is left blank
+        \note it defaults to Annual.
+   A7,  \field Threshold Test
+        \type choice
+        \key Count
+        \key Consecutive
+        \default Consecutive
+        \note Uses the number in Number of Months in one of two different ways depending on the Threshold  Test. If
+        \note the Threshold Test is set to Count then the qualification is based on the count of the total number
+        \note of months per year. If the Threshold Test is set to consecutive then the qualification is based on
+        \note a consecutive number of months.
+   N1;  \field Number of Months
+        \minimum 1
+        \maximum 12
+        \note A number from 1 to 12. If no value entered 12 is assumed when the qualify type is minimum and 1 when
+        \note the qualify type is maximum. This is the number of months that the threshold test applies to determine
+        \note if the rate qualifies or not. If the season is less than 12 months (if it is not annual) then the
+        \note value is automatically reduced to the number of months of the season.
+
+UtilityCost:Charge:Simple,
+        \memo UtilityCost:Charge:Simple is one of the most often used objects for tariff
+        \memo calculation. It is used to compute energy and demand charges that are very simple.
+        \memo It may also be used for taxes, surcharges and any other charges that occur on a
+        \memo utility bill. Multiple UtilityCost:Charge:Simple objects may be defined for a single
+        \memo tariff and they will be added together.
+   A1,  \field Utility Cost Charge Simple Name
+        \required-field
+        \note Charge Variable Name
+        \note This is the name associated with the UtilityCost:Charge:Simple object and will appear in the report.
+        \note In addition the results of the UtilityCost:Charge:Simple calculation are stored in a variable with the
+        \note same name. That way the results may be used for further calculation. Spaces are not significant in
+        \note Charge variable names. They are removed during the utility bill calculation process.
+   A2,  \field Tariff Name
+        \required-field
+        \type object-list
+        \object-list UtilityCostTariffs
+        \note The name of the UtilityCost:Tariff that is associated with this UtilityCost:Charge:Simple.
+   A3,  \field Source Variable
+        \required-field
+        \note The name of the source used by the UtilityCost:Charge:Simple. This is usually the name of the variable
+        \note holding the energy or demand but may also be the name of any variable including the subtotal or basis
+        \note if other charges are based on those. Typical values include totalEnergy totalDemand EnergyCharges DemandCharges
+        \note ServiceCharges Basis Adjustments Surcharges Subtotal Taxes and Total. If it is a time-of-use rate then
+        \note peakEnergy peakDemand shoulderEnergy shoulderDemand offPeakEnergy offPeakDemand midPeakEnergy and midPeakDemand.
+        \note In addition see the Tariff Report to see other native variables that may be available. Also you can
+        \note create additional user defined variables to model complex tariffs.
+   A4,  \field Season
+        \type choice
+        \key Annual
+        \key Summer
+        \key Winter
+        \key Spring
+        \key Fall
+        \note If this is set to annual the calculations are performed for the UtilityCost:Charge:Simple for the entire
+        \note year (all months) otherwise it is calculated only for those months in the season defined.
+   A5,  \field Category Variable Name
+        \required-field
+        \type choice
+        \key EnergyCharges
+        \key DemandCharges
+        \key ServiceCharges
+        \key Basis
+        \key Adjustment
+        \key Surcharge
+        \key Subtotal
+        \key Taxes
+        \key Total
+        \key NotIncluded
+        \note This field shows where the charge should be added. The reason to enter this field appropriately is so
+        \note that the charge gets reported in a reasonable category. The charge automatically gets added to the
+        \note variable that is the category.
+   A6;  \field Cost per Unit Value or Variable Name
+        \required-field
+        \note This field contains either a single number or the name of a variable. The number is multiplied with
+        \note all of the energy or demand or other source that is specified in the source field. If a variable is
+        \note used then the monthly values of the variable are multiplied against the variable specified in the
+        \note source field. This field makes it easy to include a simple charge without specifying block sizes.
+        \note This is a good way to include a tax or cost adjustment.
+
+UtilityCost:Charge:Block,
+        \memo Used to compute energy and demand charges (or any other charges) that are structured
+        \memo in blocks of charges. Multiple UtilityCost:Charge:Block objects may be defined for a
+        \memo single tariff and they will be added together.
+   A1,  \field Utility Cost Charge Block Name
+        \required-field
+        \note Charge Variable Name
+        \note This is the name associated with the UtilityCost:Charge:Block object and will appear in the report.
+        \note In addition the results of the UtilityCost:Charge:Block are stored in a variable with the same name.
+        \note That way the results may be used for further calculation.
+   A2,  \field Tariff Name
+        \required-field
+        \type object-list
+        \object-list UtilityCostTariffs
+        \note The name of the UtilityCost:Tariff that is associated with this UtilityCost:Charge:Block.
+   A3,  \field Source Variable
+        \required-field
+        \note The name of the source used by the UtilityCost:Charge:Block. This is usually the name of the variable
+        \note holding the energy or demand but may also be the name of any variable including the subtotal or basis if
+        \note other charges are based on those. Typical values include totalEnergy totalDemand EnergyCharges DemandCharges
+        \note ServiceCharges Basis Adjustments Surcharges Subtotal Taxes and Total. If it is a time-of-use rate then
+        \note peakEnergy peakDemand shoulderEnergy shoulderDemand offPeakEnergy offPeakDemand midPeakEnergy and midPeakDemand.
+        \note In addition see the Tariff Report to see other native variables that may be available. Also you can
+        \note create additional user defined variables to model complex tariffs.
+   A4,  \field Season
+        \type choice
+        \key Annual
+        \key Summer
+        \key Winter
+        \key Spring
+        \key Fall
+        \default Annual
+        \note If this is set to annual the calculations are performed for the UtilityCost:Charge:Block for the entire
+        \note year (all months) otherwise it is calculated only for those months in the season defined.
+   A5,  \field Category Variable Name
+        \required-field
+        \type choice
+        \key EnergyCharges
+        \key DemandCharges
+        \key ServiceCharges
+        \key Basis
+        \key Adjustment
+        \key Surcharge
+        \key Subtotal
+        \key Taxes
+        \key Total
+        \key NotIncluded
+        \note This field shows where the charge should be added. The reason to enter this field appropriately is so
+        \note that the charge gets reported in a reasonable category. The charge automatically gets added to the
+        \note variable that is the category.
+   A6,  \field Remaining Into Variable
+        \note If the blocks do not use all of the energy or demand from the source some energy and demand remains
+        \note then the remaining amount should be assigned to a variable. If no variable is assigned and some amount
+        \note of energy or demand is not used in the block structure a warning will be issued.
+   A7,  \field Block Size Multiplier Value or Variable Name
+        \note The sizes of the blocks are usually used directly but if a value or a variable is entered here the block
+        \note sizes entered in the rest of the charge are first multiplied by the entered value prior to being used.
+        \note This is common for rates that are kWh/kW rates and in that case the variable that holds the monthly
+        \note total electric demand would be entered. If no value is entered a default value of one is assumed so
+        \note that the block sizes remain exactly as entered. This field is unusual for the EnergyPlus syntax because
+        \note it can be either a number or a name of a variable.
+   A8,  \field Block Size 1 Value or Variable Name
+        \note The size of the block of the charges is entered here. For most rates that use multiple blocks this will
+        \note be the value for the block size. Using remaining may be used when the remaining amount should be included
+        \note in that block. This field is unusual because it can be either a number or a name of a variable.
+   A9,  \field Block 1 Cost per Unit Value or Variable Name
+        \note The cost of the block. This field is unusual for the EnergyPlus syntax because it can be either a number
+        \note or a name of a variable.
+   A10, \field Block Size 2 Value or Variable Name
+        \note The size of the block of the charges is entered here. For most rates that use multiple blocks this will
+        \note be the value for the block size. Using remaining may be used when the remaining amount should be included
+        \note in that block. This field is unusual because it can be either a number or a name of a variable.
+   A11, \field Block 2 Cost per Unit Value or Variable Name
+        \note The cost of the block. This field is unusual for the EnergyPlus syntax because it can be either a number
+        \note or a name of a variable.
+   A12, \field Block Size 3 Value or Variable Name
+        \note The size of the block of the charges is entered here. For most rates that use multiple blocks this will
+        \note be the value for the block size. Using remaining may be used when the remaining amount should be included
+        \note in that block. This field is unusual because it can be either a number or a name of a variable.
+   A13, \field Block 3 Cost per Unit Value or Variable Name
+        \note The cost of the block. This field is unusual for the EnergyPlus syntax because it can be either a number
+        \note or a name of a variable.
+   A14, \field Block Size 4 Value or Variable Name
+        \note The size of the block of the charges is entered here. For most rates that use multiple blocks this will
+        \note be the value for the block size. Using remaining may be used when the remaining amount should be included
+        \note in that block. This field is unusual because it can be either a number or a name of a variable.
+   A15, \field Block 4 Cost per Unit Value or Variable Name
+        \note The cost of the block. This field is unusual for the EnergyPlus syntax because it can be either a number
+        \note or a name of a variable.
+   A16, \field Block Size 5 Value or Variable Name
+        \note The size of the block of the charges is entered here. For most rates that use multiple blocks this will
+        \note be the value for the block size. Using remaining may be used when the remaining amount should be included
+        \note in that block. This field is unusual because it can be either a number or a name of a variable.
+   A17, \field Block 5 Cost per Unit Value or Variable Name
+        \note The cost of the block. This field is unusual for the EnergyPlus syntax because it can be either a number
+        \note or a name of a variable.
+   A18, \field Block Size 6 Value or Variable Name
+        \note The size of the block of the charges is entered here. For most rates that use multiple blocks this will
+        \note be the value for the block size. Using remaining may be used when the remaining amount should be included
+        \note in that block. This field is unusual because it can be either a number or a name of a variable.
+   A19, \field Block 6 Cost per Unit Value or Variable Name
+        \note The cost of the block. This field is unusual for the EnergyPlus syntax because it can be either a number
+        \note or a name of a variable.
+   A20, \field Block Size 7 Value or Variable Name
+        \note The size of the block of the charges is entered here. For most rates that use multiple blocks this will
+        \note be the value for the block size. Using remaining may be used when the remaining amount should be included
+        \note in that block. This field is unusual because it can be either a number or a name of a variable.
+   A21, \field Block 7 Cost per Unit Value or Variable Name
+        \note The cost of the block. This field is unusual for the EnergyPlus syntax because it can be either a number
+        \note or a name of a variable.
+   A22, \field Block Size 8 Value or Variable Name
+        \note The size of the block of the charges is entered here. For most rates that use multiple blocks this will
+        \note be the value for the block size. Using remaining may be used when the remaining amount should be included
+        \note in that block. This field is unusual because it can be either a number or a name of a variable.
+   A23, \field Block 8 Cost per Unit Value or Variable Name
+        \note The cost of the block. This field is unusual for the EnergyPlus syntax because it can be either a number
+        \note or a name of a variable.
+   A24, \field Block Size 9 Value or Variable Name
+        \note The size of the block of the charges is entered here. For most rates that use multiple blocks this will
+        \note be the value for the block size. Using remaining may be used when the remaining amount should be included
+        \note in that block. This field is unusual because it can be either a number or a name of a variable.
+   A25, \field Block 9 Cost per Unit Value or Variable Name
+        \note The cost of the block. This field is unusual for the EnergyPlus syntax because it can be either a number
+        \note or a name of a variable.
+   A26, \field Block Size 10 Value or Variable Name
+        \note The size of the block of the charges is entered here. For most rates that use multiple blocks this will
+        \note be the value for the block size. Using remaining may be used when the remaining amount should be included
+        \note in that block. This field is unusual because it can be either a number or a name of a variable.
+   A27, \field Block 10 Cost per Unit Value or Variable Name
+        \note The cost of the block. This field is unusual for the EnergyPlus syntax because it can be either a number
+        \note or a name of a variable.
+   A28, \field Block Size 11 Value or Variable Name
+        \note The size of the block of the charges is entered here. For most rates that use multiple blocks this will
+        \note be the value for the block size. Using remaining may be used when the remaining amount should be included
+        \note in that block. This field is unusual because it can be either a number or a name of a variable.
+   A29, \field Block 11 Cost per Unit Value or Variable Name
+        \note The cost of the block. This field is unusual for the EnergyPlus syntax because it can be either a number
+        \note or a name of a variable.
+   A30, \field Block Size 12 Value or Variable Name
+        \note The size of the block of the charges is entered here. For most rates that use multiple blocks this will
+        \note be the value for the block size. Using remaining may be used when the remaining amount should be included
+        \note in that block. This field is unusual because it can be either a number or a name of a variable.
+   A31, \field Block 12 Cost per Unit Value or Variable Name
+        \note The cost of the block. This field is unusual for the EnergyPlus syntax because it can be either a number
+        \note or a name of a variable.
+   A32, \field Block Size 13 Value or Variable Name
+        \note The size of the block of the charges is entered here. For most rates that use multiple blocks this will
+        \note be the value for the block size. Using remaining may be used when the remaining amount should be included
+        \note in that block. This field is unusual because it can be either a number or a name of a variable.
+   A33, \field Block 13 Cost per Unit Value or Variable Name
+        \note The cost of the block. This field is unusual for the EnergyPlus syntax because it can be either a number
+        \note or a name of a variable.
+   A34, \field Block Size 14 Value or Variable Name
+        \note The size of the block of the charges is entered here. For most rates that use multiple blocks this will
+        \note be the value for the block size. Using remaining may be used when the remaining amount should be included
+        \note in that block. This field is unusual because it can be either a number or a name of a variable.
+   A35, \field Block 14 Cost per Unit Value or Variable Name
+        \note The cost of the block. This field is unusual for the EnergyPlus syntax because it can be either a number
+        \note or a name of a variable.
+   A36, \field Block Size 15 Value or Variable Name
+        \note The size of the block of the charges is entered here. For most rates that use multiple blocks this will
+        \note be the value for the block size. Using remaining may be used when the remaining amount should be included
+        \note in that block. This field is unusual because it can be either a number or a name of a variable.
+   A37; \field Block 15 Cost per Unit Value or Variable Name
+        \note The cost of the block. This field is unusual for the EnergyPlus syntax because it can be either a number
+        \note or a name of a variable.
+
+UtilityCost:Ratchet,
+        \memo Allows the modeling of tariffs that include some type of seasonal ratcheting.
+        \memo Ratchets are most common when used with electric demand charges. A ratchet is when a
+        \memo utility requires that the demand charge for a month with a low demand may be
+        \memo increased to be more consistent with a month that set a higher demand charge.
+   A1,  \field Name
+        \required-field
+        \note Ratchet Variable Name
+        \note The name of the ratchet and the name of the result of this single ratchet.
+   A2,  \field Tariff Name
+        \required-field
+        \type object-list
+        \object-list UtilityCostTariffs
+        \note The name of the UtilityCost:Tariff that is associated with this UtilityCost:Ratchet.
+   A3,  \field Baseline Source Variable
+        \required-field
+        \note When the ratcheted value exceeds the baseline value for a month the ratcheted value is used but when the
+        \note baseline value is greater then the ratcheted value the baseline value is used. Usually the electric
+        \note demand charge is used. The baseline source variable can be the results of another ratchet object. This
+        \note allows utility tariffs that have multiple ratchets to be modeled.
+   A4,  \field Adjustment Source Variable
+        \required-field
+        \note The variable that the ratchet is calculated from. It is often but not always the same as the baseline
+        \note source variable. The ratcheting calculations using offset and multiplier are using the values from the
+        \note adjustment source variable. If left blank the adjustment source variable is the same as the baseline
+        \note source variable.
+   A5,  \field Season From
+        \type choice
+        \key Annual
+        \key Summer
+        \key Winter
+        \key Spring
+        \key Fall
+        \key Monthly
+        \note The name of the season that is being examined. The maximum value for all of the months in the named
+        \note season is what is used with the multiplier and offset. This is most commonly Summer or Annual. When
+        \note Monthly is used the adjustment source variable is used directly for all months.
+   A6,  \field Season To
+        \type choice
+        \key Annual
+        \key Summer
+        \key Winter
+        \key Spring
+        \key Fall
+        \note The name of the season when the ratchet would be calculated. This is most commonly Winter. The ratchet
+        \note only is applied to the months in the named season. The resulting variable for months not in the Season To
+        \note selection will contain the values as appear in the baseline source variable.
+   A7,  \field Multiplier Value or Variable Name
+        \note Often the ratchet has a clause such as "the current month demand or 90% of the summer month demand". For
+        \note this case a value of 0.9 would be entered here as the multiplier. This value may be left blank if no
+        \note multiplier is needed and a value of one will be used as a default.
+   A8;  \field Offset Value or Variable Name
+        \note A less common strategy is to say that the ratchet must be all demand greater than a value in this case
+        \note an offset that is added to the demand may be entered here. If entered it is common for the offset value
+        \note to be negative representing that the demand be reduced. If no value is entered it is assumed to be
+        \note zero and not affect the ratchet.
+
+UtilityCost:Variable,
+        \memo Allows for the direct entry of monthly values into a utility tariff variable.
+        \min-fields 3
+  A1,   \field Name
+        \required-field
+  A2,   \field Tariff Name
+        \required-field
+        \type object-list
+        \object-list UtilityCostTariffs
+        \note The name of the UtilityCost:Tariff that is associated with this UtilityCost:Variable.
+  A3,   \field Variable Type
+        \type choice
+        \key Energy
+        \key Demand
+        \key Dimensionless
+        \key Currency
+        \default Dimensionless
+  N1,   \field January Value
+  N2,   \field February Value
+  N3,   \field March Value
+  N4,   \field April Value
+  N5,   \field May Value
+  N6,   \field June Value
+  N7,   \field July Value
+  N8,   \field August Value
+  N9,   \field September Value
+  N10,  \field October Value
+  N11,  \field November Value
+  N12;  \field December Value
+
+UtilityCost:Computation,
+        \memo The object lists a series of computations that are used to perform the utility bill
+        \memo calculation. The object is only used for complex tariffs that cannot be modeled any
+        \memo other way. For most utility tariffs, UtilityCost:Computation is unnecessary and
+        \memo should be avoided. If UtilityCost:Computation is used, it must contain references
+        \memo to all objects involved in the rate in the order that they should be computed.
+  A1,   \field Name
+        \required-field
+  A2,   \field Tariff Name
+        \required-field
+        \type object-list
+        \object-list UtilityCostTariffs
+        \note The name of the UtilityCost:Tariff that is associated with this UtilityCost:Variable.
+  A3,   \field Compute Step 1
+        \note Contain a simple language that describes the steps used in the computation process similar to a
+        \note programming language.
+  A4,   \field Compute Step 2
+  A5,   \field Compute Step 3
+  A6,   \field Compute Step 4
+  A7,   \field Compute Step 5
+  A8,   \field Compute Step 6
+  A9,   \field Compute Step 7
+  A10,  \field Compute Step 8
+  A11,  \field Compute Step 9
+  A12,  \field Compute Step 10
+  A13,  \field Compute Step 11
+  A14,  \field Compute Step 12
+  A15,  \field Compute Step 13
+  A16,  \field Compute Step 14
+  A17,  \field Compute Step 15
+  A18,  \field Compute Step 16
+  A19,  \field Compute Step 17
+  A20,  \field Compute Step 18
+  A21,  \field Compute Step 19
+  A22,  \field Compute Step 20
+  A23,  \field Compute Step 21
+  A24,  \field Compute Step 22
+  A25,  \field Compute Step 23
+  A26,  \field Compute Step 24
+  A27,  \field Compute Step 25
+  A28,  \field Compute Step 26
+  A29,  \field Compute Step 27
+  A30,  \field Compute Step 28
+  A31,  \field Compute Step 29
+  A32;  \field Compute Step 30
+
+LifeCycleCost:Parameters,
+        \memo Provides inputs related to the overall life-cycle analysis. It establishes many of
+        \memo the assumptions used in computing the present value. It is important that when
+        \memo comparing the results of multiple simulations that the fields in the
+        \memo LifeCycleCost:Parameters objects are the same for all the simulations. When this
+        \memo object is present the tabular report file will contain the Life-Cycle Cost Report.
+   \unique-object
+   \min-fields 11
+   A1,  \field Name
+        \required-field
+        \type alpha
+   A2,  \field Discounting Convention
+        \type choice
+        \key EndOfYear
+        \key MidYear
+        \key BeginningOfYear
+        \default EndOfYear
+        \note The field specifies if the discounting of future costs should be computed as occurring at the end
+        \note of each year or the middle of each year or the beginning of each year. The most common discounting
+        \note convention uses the end of each year.
+   A3,  \field Inflation Approach
+        \type choice
+        \key ConstantDollar
+        \key CurrentDollar
+        \default ConstantDollar
+        \note This field is used to determine if the analysis should use constant dollars or current dollars
+        \note which is related to how inflation is treated. If ConstantDollar is selected then the Real Discount
+        \note Rate input is used and it excludes the rate of inflation. If CurrentDollar is selected then the
+        \note Nominal Discount Rate input is used and it includes the rate of inflation.
+   N1,  \field Real Discount Rate
+        \type real
+        \note Enter the real discount rate as a decimal. For a 3% rate enter the value 0.03. This input is
+        \note used when the Inflation Approach is ConstantDollar. The real discount rate reflects the interest
+        \note rates needed to make current and future expenditures have comparable equivalent values when
+        \note general inflation is ignored. When Inflation Approach is set to CurrentDollar this input is ignored.
+   N2,  \field Nominal Discount Rate
+        \type real
+        \note Enter the nominal discount rate as a decimal. For a 5% rate enter the value 0.05. This input
+        \note is used when the Inflation Approach is CurrentDollar. The real discount rate reflects the interest
+        \note rates needed to make current and future expenditures have comparable equivalent values when general
+        \note inflation is included. When Inflation Approach is set to ConstantDollar this input is ignored.
+   N3,  \field Inflation
+        \type real
+        \note Enter the rate of inflation for general goods and services as a decimal. For a 2% rate enter
+        \note the value 0.02.
+   A4,  \field Base Date Month
+        \type choice
+        \key January
+        \key February
+        \key March
+        \key April
+        \key May
+        \key June
+        \key July
+        \key August
+        \key September
+        \key October
+        \key November
+        \key December
+        \default January
+        \note Enter the month that is the beginning of study period also known as the beginning of the base period.
+   N4,  \field Base Date Year
+        \type integer
+        \minimum 1900
+        \maximum 2100
+        \note Enter the four digit year that is the beginning of study period such as 2010. The study period is
+        \note also known as the base period.
+   A5,  \field Service Date Month
+        \type choice
+        \key January
+        \key February
+        \key March
+        \key April
+        \key May
+        \key June
+        \key July
+        \key August
+        \key September
+        \key October
+        \key November
+        \key December
+        \default January
+        \note Enter the month that is the beginning of building occupancy. Energy costs computed by EnergyPlus
+        \note are assumed to occur during the year following the service date. The service date must be the
+        \note same or later than the Base Date. This field could also be referred to as part of beneficial
+        \note occupancy date.
+   N5,  \field Service Date Year
+        \type integer
+        \minimum 1900
+        \maximum 2100
+        \note Enter the four digit year that is the beginning of occupancy such as 2010.
+   N6,  \field Length of Study Period in Years
+        \type integer
+        \minimum 1
+        \maximum 100
+        \note Enter the number of years of the study period. It is the number of years that the study continues
+        \note based on the start at the base date. The default value is 25 years. Only integers may be used
+        \note indicating whole years.
+   N7,  \field Tax rate
+        \type real
+        \minimum 0.0
+        \note Enter the overall marginal tax rate for the project costs. This does not include energy or water
+        \note taxes. The tax rate entered should be based on the marginal tax rate for the entity and not the
+        \note average tax rate. Enter the tax rate results in present value calculations after taxes. Most
+        \note analyses do not factor in the impact of taxes and assume that all options under consideration
+        \note have roughly the same tax impact. Due to this many times the tax rate can be left to default
+        \note to zero and the present value results before taxes are used to make decisions. The value
+        \note should be entered as a decimal value. For 15% enter 0.15. For an analysis that does not include
+        \note tax impacts enter 0.0.
+   A6;  \field Depreciation Method
+        \type choice
+        \key ModifiedAcceleratedCostRecoverySystem-3year
+        \key ModifiedAcceleratedCostRecoverySystem-5year
+        \key ModifiedAcceleratedCostRecoverySystem-7year
+        \key ModifiedAcceleratedCostRecoverySystem-10year
+        \key ModifiedAcceleratedCostRecoverySystem-15year
+        \key ModifiedAcceleratedCostRecoverySystem-20year
+        \key StraightLine-27year
+        \key StraightLine-31year
+        \key StraightLine-39year
+        \key StraightLine-40year
+        \key None
+        \default None
+        \note For an analysis that includes income tax impacts this entry describes how capital costs are
+        \note depreciated. Only one depreciation method may be used for an analysis and is applied to all
+        \note capital expenditures.
+
+LifeCycleCost:RecurringCosts,
+        \memo Recurring costs are costs that repeat over time on a regular schedule during the
+        \memo study period. If costs associated with equipment do repeat but not on a regular
+        \memo schedule, use LifeCycleCost:NonrecurringCost objects instead.
+        \min-fields 7
+   A1,  \field Name
+        \required-field
+        \type alpha
+   A2,  \field Category
+        \type choice
+        \key Maintenance
+        \key Repair
+        \key Operation
+        \key Replacement
+        \key MinorOverhaul
+        \key MajorOverhaul
+        \key OtherOperational
+        \default Maintenance
+   N1,  \field Cost
+        \type real
+        \note Enter the cost in dollars (or the appropriate monetary unit) for the recurring costs. Enter
+        \note the cost for each time it occurs. For example if the annual maintenance cost is 500 dollars
+        \note enter 500 here.
+   A3,  \field Start of Costs
+        \type choice
+        \key ServicePeriod
+        \key BasePeriod
+        \default ServicePeriod
+        \note Enter when the costs start. The First Year of Cost is based on the number of years past the
+        \note Start of Costs. For most maintenance costs the Start of Costs should be Service Period.
+   N2,  \field Years from Start
+        \type integer
+        \minimum 0
+        \maximum 100
+        \note This field and the Months From Start field together represent the time from either the start
+        \note of the Service Period on the service month and year or start of the Base Period on the base
+        \note month and year (depending on the Start of Costs field) that the costs start to occur. Only
+        \note integers should be entered representing whole years.
+   N3,  \field Months from Start
+        \type integer
+        \minimum 0
+        \maximum 1200
+        \note This field and the Years From Start field together represent the time from either the start
+        \note of the Service Period on the service month and year or start of the Base Period on the base
+        \note month and year (depending on the Start of Costs field) that the costs start to occur. Only
+        \note integers should be entered representing whole months. The Years From Start (times 12) and
+        \note Months From Start are added together.
+   N4,  \field Repeat Period Years
+        \type integer
+        \minimum 0
+        \maximum 100
+        \default 1
+        \note This field and the Repeat Period Months field indicate how much time elapses between
+        \note re-occurrences of the cost. For costs that occur every year such the Repeat Period Years
+        \note should be 1 and Repeat Period Months should be 0. Only integers should be entered
+        \note representing whole years.
+   N5,  \field Repeat Period Months
+        \type integer
+        \minimum 0
+        \maximum 1200
+        \default 0
+        \note This field and the Repeat Period Years field indicate how much time elapses between
+        \note re-occurrences of the cost. Only integers should be entered representing whole years.
+        \note The Repeat Period Years (times 12) and Repeat Period Months are added together.
+   N6;  \field Annual escalation rate
+        \type real
+        \minimum -0.3
+        \maximum 0.3
+        \note Enter the annual escalation rate as a decimal. For a 1% rate enter the value 0.01.
+        \note This input is used when the Inflation Approach is CurrentDollar. When Inflation
+        \note Approach is set to ConstantDollar this input is ignored.
+
+LifeCycleCost:NonrecurringCost,
+        \memo A non-recurring cost happens only once during the study period. For costs that occur
+        \memo more than once during the study period on a regular schedule, use the
+        \memo LifeCycleCost:RecurringCost object.
+   A1,  \field Name
+        \required-field
+        \type alpha
+   A2,  \field Category
+        \type choice
+        \key Construction
+        \key Salvage
+        \key OtherCapital
+        \default Construction
+   N1,  \field Cost
+        \type real
+        \note Enter the non-recurring cost value. For construction and other capital costs the value
+        \note entered is typically a positive value. For salvage costs the value entered is typically a
+        \note negative value which represents the money paid to the investor for the equipment at the
+        \note end of the study period.
+   A3,  \field Start of Costs
+        \type choice
+        \key ServicePeriod
+        \key BasePeriod
+        \default ServicePeriod
+        \note Enter when the costs start. The First Year of Cost is based on the number of years past the
+        \note Start of Costs. For most non-recurring costs the Start of Costs should be Base Period which
+        \note begins at the base month and year.
+   N2,  \field Years from Start
+        \type integer
+        \minimum 0
+        \maximum 100
+        \note This field and the Months From Start field together represent the time from either the start
+        \note of the Service Period on the service month and year or start of the Base Period on the base
+        \note month and year (depending on the Start of Cost field) that the costs start to occur. Only
+        \note integers should be entered representing whole years.
+   N3;  \field Months from Start
+        \type integer
+        \minimum 0
+        \maximum 1200
+        \note This field and the Years From Start field together represent the time from either the start
+        \note of the Service Period on the service month and year or start of the Base Period on the base
+        \note month and year (depending on the Start of Cost field) that the costs start to occur. Only
+        \note integers should be entered representing whole months. The Years From Start (times 12) and
+        \note Months From Start are added together.
+
+LifeCycleCost:UsePriceEscalation,
+        \memo Life cycle cost escalation factors. The values for this object may be found in the
+        \memo annual supplement to NIST Handbook 135 in Tables Ca-1 to Ca-5 and are included in an
+        \memo EnergyPlus dataset file.
+        \extensible:1
+   A1,  \field LCC Price Escalation Name
+        \required-field
+        \type alpha
+        \note The identifier used for the object. The name usually identifies the location (such as the
+        \note state or region or country or census area) that the escalations apply to. In addition the
+        \note name should identify the building class such as residential or commercial or industrial
+        \note and the use type such as electricity or natural gas or water.
+   A2,  \field Resource
+        \required-field
+        \type choice
+        \key Electricity
+        \key ElectricityPurchased
+        \key ElectricityProduced
+        \key ElectricitySurplusSold
+        \key ElectricityNet
+        \key NaturalGas
+        \key Steam
+        \key Gasoline
+        \key Diesel
+        \key Coal
+        \key FuelOilNo1
+        \key FuelOilNo2
+        \key Propane
+        \key OtherFuel1
+        \key OtherFuel2
+        \key Water
+   N1,  \field Escalation Start Year
+        \type integer
+        \minimum 1900
+        \maximum 2100
+        \note This field and the Escalation Start Month define the time that corresponds to Year 1 Escalation
+        \note such as 2010 when the escalation rates are applied. This field and the Escalation Start Month
+        \note define the time that escalation begins.
+   A3,  \field Escalation Start Month
+        \type choice
+        \key January
+        \key February
+        \key March
+        \key April
+        \key May
+        \key June
+        \key July
+        \key August
+        \key September
+        \key October
+        \key November
+        \key December
+        \default January
+        \note This field and the Escalation Start Year define the time that corresponds to Year 1 Escalation
+        \note such as 2010 when the escalation rates are applied. This field and the Escalation Start Year
+        \note define the time that escalation begins.
+   N2,  \field Year 1 Escalation
+        \type real
+        \begin-extensible
+        \note The escalation in price of the energy or water use for the first year expressed as a decimal.
+   N3,  \field Year 2 Escalation
+        \type real
+        \note The escalation in price of the energy or water use for the year expressed as a decimal.
+   N4,  \field Year 3 Escalation
+        \type real
+        \note The escalation in price of the energy or water use for the year expressed as a decimal.
+   N5,  \field Year 4 Escalation
+        \type real
+        \note The escalation in price of the energy or water use for the year expressed as a decimal.
+   N6,  \field Year 5 Escalation
+        \type real
+        \note The escalation in price of the energy or water use for the year expressed as a decimal.
+   N7,  \field Year 6 Escalation
+        \type real
+        \note The escalation in price of the energy or water use for the year expressed as a decimal.
+   N8,  \field Year 7 Escalation
+        \type real
+        \note The escalation in price of the energy or water use for the year expressed as a decimal.
+   N9,  \field Year 8 Escalation
+        \type real
+        \note The escalation in price of the energy or water use for the year expressed as a decimal.
+   N10, \field Year 9 Escalation
+        \type real
+        \note The escalation in price of the energy or water use for the year expressed as a decimal.
+   N11,N12,N13,N14,N15,N16,N17,N18,N19,N20,N21,N22,N23,N24,N25,N26,N27,N28,N29,N30, \note Year (n-1) Escalation
+   N31,N32,N33,N34,N35,N36,N37,N38,N39,N40,N41,N42,N43,N44,N45,N46,N47,N48,N49,N50, \note Year (n-1) Escalation
+   N51,N52,N53,N54,N55,N56,N57,N58,N59,N60,N61,N62,N63,N64,N65,N66,N67,N68,N69,N70, \note Year (n-1) Escalation
+   N71,N72,N73,N74,N75,N76,N77,N78,N79,N80,N81,N82,N83,N84,N85,N86,N87,N88,N89,N90, \note Year (n-1) Escalation
+   N91,N92,N93,N94,N95,N96,N97,N98,N99,N100,N101; \note Year (n-1) Escalation
+
+LifeCycleCost:UseAdjustment,
+        \memo Used by advanced users to adjust the energy or water use costs for future years. This
+        \memo should not be used for compensating for inflation but should only be used to increase
+        \memo the costs of energy or water based on assumed changes to the actual usage, such as
+        \memo anticipated changes in the future function of the building. The adjustments begin at
+        \memo the start of the service period.
+        \extensible:1
+   A1,  \field Name
+        \required-field
+        \type alpha
+   A2,  \field Resource
+        \required-field
+        \type choice
+        \key Electricity
+        \key ElectricityPurchased
+        \key ElectricityProduced
+        \key ElectricitySurplusSold
+        \key ElectricityNet
+        \key NaturalGas
+        \key Steam
+        \key Gasoline
+        \key Diesel
+        \key Coal
+        \key FuelOilNo1
+        \key FuelOilNo2
+        \key Propane
+        \key OtherFuel1
+        \key OtherFuel2
+        \key Water
+   N1,  \field Year 1 Multiplier
+        \type real
+        \begin-extensible
+        \note The multiplier to be applied to the end-use cost for the first year in the service period.
+        \note The total utility costs for the selected end-use is multiplied by this value. For no change
+        \note enter 1.0.
+   N2,  \field Year 2 Multiplier
+        \type real
+        \note The multiplier to be applied to the end-use cost for each following year. The total utility
+        \note costs for the selected end-use is multiplied by this value. For no change enter 1.0.
+   N3,  \field Year 3 Multiplier
+        \type real
+        \note The multiplier to be applied to the end-use cost for each following year. The total utility
+        \note costs for the selected end-use is multiplied by this value. For no change enter 1.0.
+   N4,  \field Year 4 Multiplier
+        \type real
+        \note The multiplier to be applied to the end-use cost for each following year. The total utility
+        \note costs for the selected end-use is multiplied by this value. For no change enter 1.0.
+   N5,  \field Year 5 Multiplier
+        \type real
+        \note The multiplier to be applied to the end-use cost for each following year. The total utility
+        \note costs for the selected end-use is multiplied by this value. For no change enter 1.0.
+   N6,  \field Year 6 Multiplier
+        \type real
+        \note The multiplier to be applied to the end-use cost for each following year. The total utility
+        \note costs for the selected end-use is multiplied by this value. For no change enter 1.0.
+   N7,  \field Year 7 Multiplier
+        \type real
+        \note The multiplier to be applied to the end-use cost for each following year. The total utility
+        \note costs for the selected end-use is multiplied by this value. For no change enter 1.0.
+   N8,  \field Year 8 Multiplier
+        \type real
+        \note The multiplier to be applied to the end-use cost for each following year. The total utility
+        \note costs for the selected end-use is multiplied by this value. For no change enter 1.0.
+   N9,  \field Year 9 Multiplier
+        \type real
+        \note The multiplier to be applied to the end-use cost for each following year. The total utility
+        \note costs for the selected end-use is multiplied by this value. For no change enter 1.0.
+   N10, \field Year 10 Multiplier
+        \type real
+        \note The multiplier to be applied to the end-use cost for each following year. The total utility
+        \note costs for the selected end-use is multiplied by this value. For no change enter 1.0.
+   N11,N12,N13,N14,N15,N16,N17,N18,N19,N20,N21,N22,N23,N24,N25,N26,N27,N28,N29,N30, \note Year (n) Multiplier
+   N31,N32,N33,N34,N35,N36,N37,N38,N39,N40,N41,N42,N43,N44,N45,N46,N47,N48,N49,N50, \note Year (n) Multiplier
+   N51,N52,N53,N54,N55,N56,N57,N58,N59,N60,N61,N62,N63,N64,N65,N66,N67,N68,N69,N70, \note Year (n) Multiplier
+   N71,N72,N73,N74,N75,N76,N77,N78,N79,N80,N81,N82,N83,N84,N85,N86,N87,N88,N89,N90, \note Year (n) Multiplier
+   N91,N92,N93,N94,N95,N96,N97,N98,N99,N100; \note Year (n) Multiplier
+
+\group Parametrics
+
+Parametric:SetValueForRun,
+       \memo Parametric objects allow a set of multiple simulations to be defined in a single idf
+       \memo file. The parametric preprocessor scans the idf for Parametric:* objects then creates
+       \memo and runs multiple idf files, one for each defined simulation.
+       \memo The core parametric object is Parametric:SetValueForRun which defines the name
+       \memo of a parameter and sets the parameter to different values depending on which
+       \memo run is being simulated.
+       \min-fields 2
+       \extensible:1
+  A1,  \field Name
+       \note Parameter Name
+       \note Must begin with the dollar sign character. The second character must be a letter.
+       \note Remaining characters may only be letters or numbers. No spaces allowed.
+       \required-field
+       \type  alpha
+  A2,  \field Value for Run 1
+       \begin-extensible
+       \type  alpha
+  A3,  \field Value for Run 2
+       \type  alpha
+  A4,  \field Value for Run 3
+       \type  alpha
+  A5,  \field Value for Run 4
+       \type  alpha
+  A6,  \field Value for Run 5
+       \type  alpha
+  A7,  \field Value for Run 6
+       \type  alpha
+  A8,  \field Value for Run 7
+       \type  alpha
+  A9,  \field Value for Run 8
+       \type  alpha
+  A10, \field Value for Run 9
+       \type  alpha
+  A11, \field Value for Run 10
+       \type  alpha
+  A12, \field Value for Run 11
+       \type  alpha
+  A13, \field Value for Run 12
+       \type  alpha
+  A14, \field Value for Run 13
+       \type  alpha
+  A15, \field Value for Run 14
+       \type  alpha
+  A16, \field Value for Run 15
+       \type  alpha
+  A17, \field Value for Run 16
+       \type  alpha
+  A18, \field Value for Run 17
+       \type  alpha
+  A19, \field Value for Run 18
+       \type  alpha
+  A20, \field Value for Run 19
+       \type  alpha
+  A21, \field Value for Run 20
+       \type  alpha
+  A22, \field Value for Run 21
+       \type  alpha
+  A23, \field Value for Run 22
+       \type  alpha
+  A24, \field Value for Run 23
+       \type  alpha
+  A25, \field Value for Run 24
+       \type  alpha
+  A26, \field Value for Run 25
+       \type  alpha
+  A27, \field Value for Run 26
+       \type  alpha
+  A28, \field Value for Run 27
+       \type  alpha
+  A29, \field Value for Run 28
+       \type  alpha
+  A30, \field Value for Run 29
+       \type  alpha
+  A31, \field Value for Run 30
+       \type  alpha
+  A32, \field Value for Run 31
+       \type  alpha
+  A33, \field Value for Run 32
+       \type  alpha
+  A34, \field Value for Run 33
+       \type  alpha
+  A35, \field Value for Run 34
+       \type  alpha
+  A36, \field Value for Run 35
+       \type  alpha
+  A37, \field Value for Run 36
+       \type  alpha
+  A38, \field Value for Run 37
+       \type  alpha
+  A39, \field Value for Run 38
+       \type  alpha
+  A40, \field Value for Run 39
+       \type  alpha
+  A41, \field Value for Run 40
+       \type  alpha
+  A42, \field Value for Run 41
+       \type  alpha
+  A43, \field Value for Run 42
+       \type  alpha
+  A44, \field Value for Run 43
+       \type  alpha
+  A45, \field Value for Run 44
+       \type  alpha
+  A46, \field Value for Run 45
+       \type  alpha
+  A47, \field Value for Run 46
+       \type  alpha
+  A48, \field Value for Run 47
+       \type  alpha
+  A49, \field Value for Run 48
+       \type  alpha
+  A50, \field Value for Run 49
+       \type  alpha
+  A51, \field Value for Run 50
+       \type  alpha
+  A52, \field Value for Run 51
+       \type  alpha
+  A53, \field Value for Run 52
+       \type  alpha
+  A54, \field Value for Run 53
+       \type  alpha
+  A55, \field Value for Run 54
+       \type  alpha
+  A56, \field Value for Run 55
+       \type  alpha
+  A57, \field Value for Run 56
+       \type  alpha
+  A58, \field Value for Run 57
+       \type  alpha
+  A59, \field Value for Run 58
+       \type  alpha
+  A60, \field Value for Run 59
+       \type  alpha
+  A61, \field Value for Run 60
+       \type  alpha
+  A62, \field Value for Run 61
+       \type  alpha
+  A63, \field Value for Run 62
+       \type  alpha
+  A64, \field Value for Run 63
+       \type  alpha
+  A65, \field Value for Run 64
+       \type  alpha
+  A66, \field Value for Run 65
+       \type  alpha
+  A67, \field Value for Run 66
+       \type  alpha
+  A68, \field Value for Run 67
+       \type  alpha
+  A69, \field Value for Run 68
+       \type  alpha
+  A70, \field Value for Run 69
+       \type  alpha
+  A71, \field Value for Run 70
+       \type  alpha
+  A72, \field Value for Run 71
+       \type  alpha
+  A73, \field Value for Run 72
+       \type  alpha
+  A74, \field Value for Run 73
+       \type  alpha
+  A75, \field Value for Run 74
+       \type  alpha
+  A76, \field Value for Run 75
+       \type  alpha
+  A77, \field Value for Run 76
+       \type  alpha
+  A78, \field Value for Run 77
+       \type  alpha
+  A79, \field Value for Run 78
+       \type  alpha
+  A80, \field Value for Run 79
+       \type  alpha
+  A81, \field Value for Run 80
+       \type  alpha
+  A82, \field Value for Run 81
+       \type  alpha
+  A83, \field Value for Run 82
+       \type  alpha
+  A84, \field Value for Run 83
+       \type  alpha
+  A85, \field Value for Run 84
+       \type  alpha
+  A86, \field Value for Run 85
+       \type  alpha
+  A87, \field Value for Run 86
+       \type  alpha
+  A88, \field Value for Run 87
+       \type  alpha
+  A89, \field Value for Run 88
+       \type  alpha
+  A90, \field Value for Run 89
+       \type  alpha
+  A91, \field Value for Run 90
+       \type  alpha
+  A92, \field Value for Run 91
+       \type  alpha
+  A93, \field Value for Run 92
+       \type  alpha
+  A94, \field Value for Run 93
+       \type  alpha
+  A95, \field Value for Run 94
+       \type  alpha
+  A96, \field Value for Run 95
+       \type  alpha
+  A97, \field Value for Run 96
+       \type  alpha
+  A98, \field Value for Run 97
+       \type  alpha
+  A99, \field Value for Run 98
+       \type  alpha
+  A100, \field Value for Run 99
+        \type  alpha
+  A101; \field Value for Run 100
+        \type  alpha
+
+Parametric:Logic,
+       \memo This object allows some types of objects to be included for some parametric cases and
+       \memo not for others. For example, you might want an overhang on a window in some
+       \memo parametric runs and not others. A single Parametric:Logic object is allowed per file.
+       \memo Consult the Input Output Reference for available commands and syntax.
+       \unique-object
+       \min-fields 2
+       \extensible:1
+  A1,  \field Name
+       \required-field
+       \type  alpha
+  A2,  \field Parametric Logic Line 1
+       \begin-extensible
+       \type  alpha
+  A3,  \field Parametric Logic Line 2
+       \type  alpha
+  A4,  \field Parametric Logic Line 3
+       \type  alpha
+  A5,  \field Parametric Logic Line 4
+       \type  alpha
+  A6,  \field Parametric Logic Line 5
+       \type  alpha
+  A7,  \field Parametric Logic Line 6
+       \type  alpha
+  A8,  \field Parametric Logic Line 7
+       \type  alpha
+  A9,  \field Parametric Logic Line 8
+       \type  alpha
+  A10, \field Parametric Logic Line 9
+       \type  alpha
+  A11, \field Parametric Logic Line 10
+       \type  alpha
+  A12, \field Parametric Logic Line 11
+       \type  alpha
+  A13, \field Parametric Logic Line 12
+       \type  alpha
+  A14, \field Parametric Logic Line 13
+       \type  alpha
+  A15, \field Parametric Logic Line 14
+       \type  alpha
+  A16, \field Parametric Logic Line 15
+       \type  alpha
+  A17, \field Parametric Logic Line 16
+       \type  alpha
+  A18, \field Parametric Logic Line 17
+       \type  alpha
+  A19, \field Parametric Logic Line 18
+       \type  alpha
+  A20, \field Parametric Logic Line 19
+       \type  alpha
+  A21, \field Parametric Logic Line 20
+       \type  alpha
+  A22, \field Parametric Logic Line 21
+       \type  alpha
+  A23, \field Parametric Logic Line 22
+       \type  alpha
+  A24, \field Parametric Logic Line 23
+       \type  alpha
+  A25, \field Parametric Logic Line 24
+       \type  alpha
+  A26, \field Parametric Logic Line 25
+       \type  alpha
+  A27, \field Parametric Logic Line 26
+       \type  alpha
+  A28, \field Parametric Logic Line 27
+       \type  alpha
+  A29, \field Parametric Logic Line 28
+       \type  alpha
+  A30, \field Parametric Logic Line 29
+       \type  alpha
+  A31, \field Parametric Logic Line 30
+       \type  alpha
+  A32, \field Parametric Logic Line 31
+       \type  alpha
+  A33, \field Parametric Logic Line 32
+       \type  alpha
+  A34, \field Parametric Logic Line 33
+       \type  alpha
+  A35, \field Parametric Logic Line 34
+       \type  alpha
+  A36, \field Parametric Logic Line 35
+       \type  alpha
+  A37, \field Parametric Logic Line 36
+       \type  alpha
+  A38, \field Parametric Logic Line 37
+       \type  alpha
+  A39, \field Parametric Logic Line 38
+       \type  alpha
+  A40, \field Parametric Logic Line 39
+       \type  alpha
+  A41, \field Parametric Logic Line 40
+       \type  alpha
+  A42, \field Parametric Logic Line 41
+       \type  alpha
+  A43, \field Parametric Logic Line 42
+       \type  alpha
+  A44, \field Parametric Logic Line 43
+       \type  alpha
+  A45, \field Parametric Logic Line 44
+       \type  alpha
+  A46, \field Parametric Logic Line 45
+       \type  alpha
+  A47, \field Parametric Logic Line 46
+       \type  alpha
+  A48, \field Parametric Logic Line 47
+       \type  alpha
+  A49, \field Parametric Logic Line 48
+       \type  alpha
+  A50, \field Parametric Logic Line 49
+       \type  alpha
+  A51, \field Parametric Logic Line 50
+       \type  alpha
+  A52, \field Parametric Logic Line 51
+       \type  alpha
+  A53, \field Parametric Logic Line 52
+       \type  alpha
+  A54, \field Parametric Logic Line 53
+       \type  alpha
+  A55, \field Parametric Logic Line 54
+       \type  alpha
+  A56, \field Parametric Logic Line 55
+       \type  alpha
+  A57, \field Parametric Logic Line 56
+       \type  alpha
+  A58, \field Parametric Logic Line 57
+       \type  alpha
+  A59, \field Parametric Logic Line 58
+       \type  alpha
+  A60, \field Parametric Logic Line 59
+       \type  alpha
+  A61, \field Parametric Logic Line 60
+       \type  alpha
+  A62, \field Parametric Logic Line 61
+       \type  alpha
+  A63, \field Parametric Logic Line 62
+       \type  alpha
+  A64, \field Parametric Logic Line 63
+       \type  alpha
+  A65, \field Parametric Logic Line 64
+       \type  alpha
+  A66, \field Parametric Logic Line 65
+       \type  alpha
+  A67, \field Parametric Logic Line 66
+       \type  alpha
+  A68, \field Parametric Logic Line 67
+       \type  alpha
+  A69, \field Parametric Logic Line 68
+       \type  alpha
+  A70, \field Parametric Logic Line 69
+       \type  alpha
+  A71, \field Parametric Logic Line 70
+       \type  alpha
+  A72, \field Parametric Logic Line 71
+       \type  alpha
+  A73, \field Parametric Logic Line 72
+       \type  alpha
+  A74, \field Parametric Logic Line 73
+       \type  alpha
+  A75, \field Parametric Logic Line 74
+       \type  alpha
+  A76, \field Parametric Logic Line 75
+       \type  alpha
+  A77, \field Parametric Logic Line 76
+       \type  alpha
+  A78, \field Parametric Logic Line 77
+       \type  alpha
+  A79, \field Parametric Logic Line 78
+       \type  alpha
+  A80, \field Parametric Logic Line 79
+       \type  alpha
+  A81, \field Parametric Logic Line 80
+       \type  alpha
+  A82, \field Parametric Logic Line 81
+       \type  alpha
+  A83, \field Parametric Logic Line 82
+       \type  alpha
+  A84, \field Parametric Logic Line 83
+       \type  alpha
+  A85, \field Parametric Logic Line 84
+       \type  alpha
+  A86, \field Parametric Logic Line 85
+       \type  alpha
+  A87, \field Parametric Logic Line 86
+       \type  alpha
+  A88, \field Parametric Logic Line 87
+       \type  alpha
+  A89, \field Parametric Logic Line 88
+       \type  alpha
+  A90, \field Parametric Logic Line 89
+       \type  alpha
+  A91, \field Parametric Logic Line 90
+       \type  alpha
+  A92, \field Parametric Logic Line 91
+       \type  alpha
+  A93, \field Parametric Logic Line 92
+       \type  alpha
+  A94, \field Parametric Logic Line 93
+       \type  alpha
+  A95, \field Parametric Logic Line 94
+       \type  alpha
+  A96, \field Parametric Logic Line 95
+       \type  alpha
+  A97, \field Parametric Logic Line 96
+       \type  alpha
+  A98, \field Parametric Logic Line 97
+       \type  alpha
+  A99, \field Parametric Logic Line 98
+       \type  alpha
+  A100, \field Parametric Logic Line 99
+        \type  alpha
+  A101; \field Parametric Logic Line 100
+        \type  alpha
+
+Parametric:RunControl,
+       \memo Controls which parametric runs are simulated. This object is optional. If it is not
+       \memo included, then all parametric runs are performed.
+       \unique-object
+       \min-fields 2
+       \extensible:1
+  A1,  \field Name
+       \type  alpha
+  A2,  \field Perform Run 1
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+       \begin-extensible
+  A3,  \field Perform Run 2
+       \type choice
+       \key Yes
+       \key No
+  A4,  \field Perform Run 3
+       \type choice
+       \key Yes
+       \key No
+  A5,  \field Perform Run 4
+       \type choice
+       \key Yes
+       \key No
+  A6,  \field Perform Run 5
+       \type choice
+       \key Yes
+       \key No
+  A7,  \field Perform Run 6
+       \type choice
+       \key Yes
+       \key No
+  A8,  \field Perform Run 7
+       \type choice
+       \key Yes
+       \key No
+  A9,  \field Perform Run 8
+       \type choice
+       \key Yes
+       \key No
+  A10, \field Perform Run 9
+       \type choice
+       \key Yes
+       \key No
+  A11, \field Perform Run 10
+       \type choice
+       \key Yes
+       \key No
+  A12, \field Perform Run 11
+       \type choice
+       \key Yes
+       \key No
+  A13, \field Perform Run 12
+       \type choice
+       \key Yes
+       \key No
+  A14, \field Perform Run 13
+       \type choice
+       \key Yes
+       \key No
+  A15, \field Perform Run 14
+       \type choice
+       \key Yes
+       \key No
+  A16, \field Perform Run 15
+       \type choice
+       \key Yes
+       \key No
+  A17, \field Perform Run 16
+       \type choice
+       \key Yes
+       \key No
+  A18, \field Perform Run 17
+       \type choice
+       \key Yes
+       \key No
+  A19, \field Perform Run 18
+       \type choice
+       \key Yes
+       \key No
+  A20, \field Perform Run 19
+       \type choice
+       \key Yes
+       \key No
+  A21, \field Perform Run 20
+       \type choice
+       \key Yes
+       \key No
+  A22, \field Perform Run 21
+       \type choice
+       \key Yes
+       \key No
+  A23, \field Perform Run 22
+       \type choice
+       \key Yes
+       \key No
+  A24, \field Perform Run 23
+       \type choice
+       \key Yes
+       \key No
+  A25, \field Perform Run 24
+       \type choice
+       \key Yes
+       \key No
+  A26, \field Perform Run 25
+       \type choice
+       \key Yes
+       \key No
+  A27, \field Perform Run 26
+       \type choice
+       \key Yes
+       \key No
+  A28, \field Perform Run 27
+       \type choice
+       \key Yes
+       \key No
+  A29, \field Perform Run 28
+       \type choice
+       \key Yes
+       \key No
+  A30, \field Perform Run 29
+       \type choice
+       \key Yes
+       \key No
+  A31, \field Perform Run 30
+       \type choice
+       \key Yes
+       \key No
+  A32, \field Perform Run 31
+       \type choice
+       \key Yes
+       \key No
+  A33, \field Perform Run 32
+       \type choice
+       \key Yes
+       \key No
+  A34, \field Perform Run 33
+       \type choice
+       \key Yes
+       \key No
+  A35, \field Perform Run 34
+       \type choice
+       \key Yes
+       \key No
+  A36, \field Perform Run 35
+       \type choice
+       \key Yes
+       \key No
+  A37, \field Perform Run 36
+       \type choice
+       \key Yes
+       \key No
+  A38, \field Perform Run 37
+       \type choice
+       \key Yes
+       \key No
+  A39, \field Perform Run 38
+       \type choice
+       \key Yes
+       \key No
+  A40, \field Perform Run 39
+       \type choice
+       \key Yes
+       \key No
+  A41, \field Perform Run 40
+       \type choice
+       \key Yes
+       \key No
+  A42, \field Perform Run 41
+       \type choice
+       \key Yes
+       \key No
+  A43, \field Perform Run 42
+       \type choice
+       \key Yes
+       \key No
+  A44, \field Perform Run 43
+       \type choice
+       \key Yes
+       \key No
+  A45, \field Perform Run 44
+       \type choice
+       \key Yes
+       \key No
+  A46, \field Perform Run 45
+       \type choice
+       \key Yes
+       \key No
+  A47, \field Perform Run 46
+       \type choice
+       \key Yes
+       \key No
+  A48, \field Perform Run 47
+       \type choice
+       \key Yes
+       \key No
+  A49, \field Perform Run 48
+       \type choice
+       \key Yes
+       \key No
+  A50, \field Perform Run 49
+       \type choice
+       \key Yes
+       \key No
+  A51, \field Perform Run 50
+       \type choice
+       \key Yes
+       \key No
+  A52, \field Perform Run 51
+       \type choice
+       \key Yes
+       \key No
+  A53, \field Perform Run 52
+       \type choice
+       \key Yes
+       \key No
+  A54, \field Perform Run 53
+       \type choice
+       \key Yes
+       \key No
+  A55, \field Perform Run 54
+       \type choice
+       \key Yes
+       \key No
+  A56, \field Perform Run 55
+       \type choice
+       \key Yes
+       \key No
+  A57, \field Perform Run 56
+       \type choice
+       \key Yes
+       \key No
+  A58, \field Perform Run 57
+       \type choice
+       \key Yes
+       \key No
+  A59, \field Perform Run 58
+       \type choice
+       \key Yes
+       \key No
+  A60, \field Perform Run 59
+       \type choice
+       \key Yes
+       \key No
+  A61, \field Perform Run 60
+       \type choice
+       \key Yes
+       \key No
+  A62, \field Perform Run 61
+       \type choice
+       \key Yes
+       \key No
+  A63, \field Perform Run 62
+       \type choice
+       \key Yes
+       \key No
+  A64, \field Perform Run 63
+       \type choice
+       \key Yes
+       \key No
+  A65, \field Perform Run 64
+       \type choice
+       \key Yes
+       \key No
+  A66, \field Perform Run 65
+       \type choice
+       \key Yes
+       \key No
+  A67, \field Perform Run 66
+       \type choice
+       \key Yes
+       \key No
+  A68, \field Perform Run 67
+       \type choice
+       \key Yes
+       \key No
+  A69, \field Perform Run 68
+       \type choice
+       \key Yes
+       \key No
+  A70, \field Perform Run 69
+       \type choice
+       \key Yes
+       \key No
+  A71, \field Perform Run 70
+       \type choice
+       \key Yes
+       \key No
+  A72, \field Perform Run 71
+       \type choice
+       \key Yes
+       \key No
+  A73, \field Perform Run 72
+       \type choice
+       \key Yes
+       \key No
+  A74, \field Perform Run 73
+       \type choice
+       \key Yes
+       \key No
+  A75, \field Perform Run 74
+       \type choice
+       \key Yes
+       \key No
+  A76, \field Perform Run 75
+       \type choice
+       \key Yes
+       \key No
+  A77, \field Perform Run 76
+       \type choice
+       \key Yes
+       \key No
+  A78, \field Perform Run 77
+       \type choice
+       \key Yes
+       \key No
+  A79, \field Perform Run 78
+       \type choice
+       \key Yes
+       \key No
+  A80, \field Perform Run 79
+       \type choice
+       \key Yes
+       \key No
+  A81, \field Perform Run 80
+       \type choice
+       \key Yes
+       \key No
+  A82, \field Perform Run 81
+       \type choice
+       \key Yes
+       \key No
+  A83, \field Perform Run 82
+       \type choice
+       \key Yes
+       \key No
+  A84, \field Perform Run 83
+       \type choice
+       \key Yes
+       \key No
+  A85, \field Perform Run 84
+       \type choice
+       \key Yes
+       \key No
+  A86, \field Perform Run 85
+       \type choice
+       \key Yes
+       \key No
+  A87, \field Perform Run 86
+       \type choice
+       \key Yes
+       \key No
+  A88, \field Perform Run 87
+       \type choice
+       \key Yes
+       \key No
+  A89, \field Perform Run 88
+       \type choice
+       \key Yes
+       \key No
+  A90, \field Perform Run 89
+       \type choice
+       \key Yes
+       \key No
+  A91, \field Perform Run 90
+       \type choice
+       \key Yes
+       \key No
+  A92, \field Perform Run 91
+       \type choice
+       \key Yes
+       \key No
+  A93, \field Perform Run 92
+       \type choice
+       \key Yes
+       \key No
+  A94, \field Perform Run 93
+       \type choice
+       \key Yes
+       \key No
+  A95, \field Perform Run 94
+       \type choice
+       \key Yes
+       \key No
+  A96, \field Perform Run 95
+       \type choice
+       \key Yes
+       \key No
+  A97, \field Perform Run 96
+       \type choice
+       \key Yes
+       \key No
+  A98, \field Perform Run 97
+       \type choice
+       \key Yes
+       \key No
+  A99, \field Perform Run 98
+       \type choice
+       \key Yes
+       \key No
+  A100, \field Perform Run 99
+        \type choice
+        \key Yes
+        \key No
+  A101; \field Perform Run 100
+        \type choice
+        \key Yes
+        \key No
+
+Parametric:FileNameSuffix,
+       \memo Defines the suffixes to be appended to the idf and output file names for each
+       \memo parametric run. If this object is omitted, the suffix will default to the run number.
+       \unique-object
+       \min-fields 2
+       \extensible:1
+  A1,  \field Name
+       \type  alpha
+  A2,  \field Suffix for File Name in Run 1
+       \type  alpha
+       \begin-extensible
+  A3,  \field Suffix for File Name in Run 2
+       \type  alpha
+  A4,  \field Suffix for File Name in Run 3
+       \type  alpha
+  A5,  \field Suffix for File Name in Run 4
+       \type  alpha
+  A6,  \field Suffix for File Name in Run 5
+       \type  alpha
+  A7,  \field Suffix for File Name in Run 6
+       \type  alpha
+  A8,  \field Suffix for File Name in Run 7
+       \type  alpha
+  A9,  \field Suffix for File Name in Run 8
+       \type  alpha
+  A10, \field Suffix for File Name in Run 9
+       \type  alpha
+  A11, \field Suffix for File Name in Run 10
+       \type  alpha
+  A12, \field Suffix for File Name in Run 11
+       \type  alpha
+  A13, \field Suffix for File Name in Run 12
+       \type  alpha
+  A14, \field Suffix for File Name in Run 13
+       \type  alpha
+  A15, \field Suffix for File Name in Run 14
+       \type  alpha
+  A16, \field Suffix for File Name in Run 15
+       \type  alpha
+  A17, \field Suffix for File Name in Run 16
+       \type  alpha
+  A18, \field Suffix for File Name in Run 17
+       \type  alpha
+  A19, \field Suffix for File Name in Run 18
+       \type  alpha
+  A20, \field Suffix for File Name in Run 19
+       \type  alpha
+  A21, \field Suffix for File Name in Run 20
+       \type  alpha
+  A22, \field Suffix for File Name in Run 21
+       \type  alpha
+  A23, \field Suffix for File Name in Run 22
+       \type  alpha
+  A24, \field Suffix for File Name in Run 23
+       \type  alpha
+  A25, \field Suffix for File Name in Run 24
+       \type  alpha
+  A26, \field Suffix for File Name in Run 25
+       \type  alpha
+  A27, \field Suffix for File Name in Run 26
+       \type  alpha
+  A28, \field Suffix for File Name in Run 27
+       \type  alpha
+  A29, \field Suffix for File Name in Run 28
+       \type  alpha
+  A30, \field Suffix for File Name in Run 29
+       \type  alpha
+  A31, \field Suffix for File Name in Run 30
+       \type  alpha
+  A32, \field Suffix for File Name in Run 31
+       \type  alpha
+  A33, \field Suffix for File Name in Run 32
+       \type  alpha
+  A34, \field Suffix for File Name in Run 33
+       \type  alpha
+  A35, \field Suffix for File Name in Run 34
+       \type  alpha
+  A36, \field Suffix for File Name in Run 35
+       \type  alpha
+  A37, \field Suffix for File Name in Run 36
+       \type  alpha
+  A38, \field Suffix for File Name in Run 37
+       \type  alpha
+  A39, \field Suffix for File Name in Run 38
+       \type  alpha
+  A40, \field Suffix for File Name in Run 39
+       \type  alpha
+  A41, \field Suffix for File Name in Run 40
+       \type  alpha
+  A42, \field Suffix for File Name in Run 41
+       \type  alpha
+  A43, \field Suffix for File Name in Run 42
+       \type  alpha
+  A44, \field Suffix for File Name in Run 43
+       \type  alpha
+  A45, \field Suffix for File Name in Run 44
+       \type  alpha
+  A46, \field Suffix for File Name in Run 45
+       \type  alpha
+  A47, \field Suffix for File Name in Run 46
+       \type  alpha
+  A48, \field Suffix for File Name in Run 47
+       \type  alpha
+  A49, \field Suffix for File Name in Run 48
+       \type  alpha
+  A50, \field Suffix for File Name in Run 49
+       \type  alpha
+  A51, \field Suffix for File Name in Run 50
+       \type  alpha
+  A52, \field Suffix for File Name in Run 51
+       \type  alpha
+  A53, \field Suffix for File Name in Run 52
+       \type  alpha
+  A54, \field Suffix for File Name in Run 53
+       \type  alpha
+  A55, \field Suffix for File Name in Run 54
+       \type  alpha
+  A56, \field Suffix for File Name in Run 55
+       \type  alpha
+  A57, \field Suffix for File Name in Run 56
+       \type  alpha
+  A58, \field Suffix for File Name in Run 57
+       \type  alpha
+  A59, \field Suffix for File Name in Run 58
+       \type  alpha
+  A60, \field Suffix for File Name in Run 59
+       \type  alpha
+  A61, \field Suffix for File Name in Run 60
+       \type  alpha
+  A62, \field Suffix for File Name in Run 61
+       \type  alpha
+  A63, \field Suffix for File Name in Run 62
+       \type  alpha
+  A64, \field Suffix for File Name in Run 63
+       \type  alpha
+  A65, \field Suffix for File Name in Run 64
+       \type  alpha
+  A66, \field Suffix for File Name in Run 65
+       \type  alpha
+  A67, \field Suffix for File Name in Run 66
+       \type  alpha
+  A68, \field Suffix for File Name in Run 67
+       \type  alpha
+  A69, \field Suffix for File Name in Run 68
+       \type  alpha
+  A70, \field Suffix for File Name in Run 69
+       \type  alpha
+  A71, \field Suffix for File Name in Run 70
+       \type  alpha
+  A72, \field Suffix for File Name in Run 71
+       \type  alpha
+  A73, \field Suffix for File Name in Run 72
+       \type  alpha
+  A74, \field Suffix for File Name in Run 73
+       \type  alpha
+  A75, \field Suffix for File Name in Run 74
+       \type  alpha
+  A76, \field Suffix for File Name in Run 75
+       \type  alpha
+  A77, \field Suffix for File Name in Run 76
+       \type  alpha
+  A78, \field Suffix for File Name in Run 77
+       \type  alpha
+  A79, \field Suffix for File Name in Run 78
+       \type  alpha
+  A80, \field Suffix for File Name in Run 79
+       \type  alpha
+  A81, \field Suffix for File Name in Run 80
+       \type  alpha
+  A82, \field Suffix for File Name in Run 81
+       \type  alpha
+  A83, \field Suffix for File Name in Run 82
+       \type  alpha
+  A84, \field Suffix for File Name in Run 83
+       \type  alpha
+  A85, \field Suffix for File Name in Run 84
+       \type  alpha
+  A86, \field Suffix for File Name in Run 85
+       \type  alpha
+  A87, \field Suffix for File Name in Run 86
+       \type  alpha
+  A88, \field Suffix for File Name in Run 87
+       \type  alpha
+  A89, \field Suffix for File Name in Run 88
+       \type  alpha
+  A90, \field Suffix for File Name in Run 89
+       \type  alpha
+  A91, \field Suffix for File Name in Run 90
+       \type  alpha
+  A92, \field Suffix for File Name in Run 91
+       \type  alpha
+  A93, \field Suffix for File Name in Run 92
+       \type  alpha
+  A94, \field Suffix for File Name in Run 93
+       \type  alpha
+  A95, \field Suffix for File Name in Run 94
+       \type  alpha
+  A96, \field Suffix for File Name in Run 95
+       \type  alpha
+  A97, \field Suffix for File Name in Run 96
+       \type  alpha
+  A98, \field Suffix for File Name in Run 97
+       \type  alpha
+  A99, \field Suffix for File Name in Run 98
+       \type  alpha
+  A100, \field Suffix for File Name in Run 99
+        \type  alpha
+  A101; \field Suffix for File Name in Run 100
+        \type  alpha
+
+\group Output Reporting
+
+Output:VariableDictionary,
+       \memo Produces a list summarizing the output variables and meters that are available for
+       \memo reporting for the model being simulated (rdd output file). The list varies depending
+       \memo on the types of objects present in the idf file. For example, variables related to
+       \memo lights will only appear if a Lights object is present. The IDF option generates
+       \memo complete Output:Variable objects to simplify adding the desired output to the idf file.
+       \min-fields 1
+  \format singleLine
+   A1, \field Key Field
+   \type choice
+   \key IDF
+   \key regular
+   \default regular
+   A2;  \field Sort Option
+   \type choice
+   \key Name
+   \key Unsorted
+
+Output:Surfaces:List,
+       \memo Produces a report summarizing the details of surfaces in the eio output file.
+  \format singleLine
+   A1, \field Report Type
+   \required-field
+   \type choice
+   \key Details
+   \key Vertices
+   \key DetailsWithVertices
+   \key ViewFactorInfo
+   \key Lines
+   \key CostInfo
+   \key DecayCurvesFromComponentLoadsSummary
+   A2; \field Report Specifications
+   \note (IDF, only for Output:Surfaces:List, Lines report --
+   \note will print transformed coordinates in IDF style)
+   \type choice
+   \key IDF
+
+Output:Surfaces:Drawing,
+   \memo Produces reports/files that are capable of rendering graphically or
+   \memo being imported into other programs. Rendering does not alter the
+   \memo actual inputs/surfaces.
+   \format singleLine
+   A1,  \field Report Type
+   \required-field
+   \type choice
+   \key DXF
+   \key DXF:WireFrame
+   \key VRML
+   A2,  \field Report Specifications 1
+   \type choice
+   \key Triangulate3DFace
+   \key ThickPolyline
+   \key RegularPolyline
+   \default Triangulate3DFace
+   \note Triangulate3DFace (default), ThickPolyline, RegularPolyline apply to DXF
+   \note This field is ignored for DXF:WireFrame and VRML
+   A3 ; \field Report Specifications 2
+   \note Use ColorScheme Name for DXF reports
+   \type object-list
+   \object-list ColorSchemes
+
+Output:Schedules,
+        \memo Produces a condensed reporting that illustrates the full range of schedule values in
+        \memo the eio output file. In the style of input: DaySchedule,  WeekSchedule, and
+        \memo Annual Schedule.
+  \format singleLine
+   A1;  \field Key Field
+   \required-field
+   \type choice
+   \key Hourly
+   \key Timestep
+
+Output:Constructions,
+        \memo Adds a report to the eio output file which shows details for each construction,
+        \memo including overall properties, a list of material layers, and calculated results
+        \memo related to conduction transfer functions.
+  \format singleLine
+   A1,  \field Details Type 1
+   \type choice
+   \key Constructions
+   \key Materials
+   A2;  \field Details Type 2
+   \type choice
+   \key Constructions
+   \key Materials
+
+Output:EnergyManagementSystem,
+   \memo This object is used to control the output produced by the Energy Management System
+   \unique-object
+   A1, \field Actuator Availability Dictionary Reporting
+       \type choice
+       \key None
+       \key NotByUniqueKeyNames
+       \key Verbose
+       \default None
+   A2, \field Internal Variable Availability Dictionary Reporting
+       \type choice
+       \key None
+       \key NotByUniqueKeyNames
+       \key Verbose
+       \default None
+   A3; \field EMS Runtime Language Debug Output Level
+       \type choice
+       \key None
+       \key ErrorsOnly
+       \key Verbose
+       \default None
+
+OutputControl:SurfaceColorScheme,
+   \memo This object is used to set colors for reporting on various building elements particularly for the
+   \memo DXF reports. We know the user can enter 0 to 255 and the color map is available in DXF output.
+   \memo Therefore, we are limiting the colors in that range. You can
+   \memo extend by editing the IDD but you do so on your own. Colors not changed in any scheme will
+   \memo remain as the default scheme uses.
+  A1,  \field Name
+       \required-field
+       \note choose a name or use one of the DataSets
+       \reference ColorSchemes
+  A2,  \field Drawing Element 1 Type
+       \type choice
+       \key Text
+       \key Walls
+       \key Windows
+       \key GlassDoors
+       \key Doors
+       \key Roofs
+       \key Floors
+       \key DetachedBuildingShades
+       \key DetachedFixedShades
+       \key AttachedBuildingShades
+       \key Photovoltaics
+       \key TubularDaylightDomes
+       \key TubularDaylightDiffusers
+       \key DaylightReferencePoint1
+       \key DaylightReferencePoint2
+  N1,  \field Color for Drawing Element 1
+       \note use color number for output assignment (e.g. DXF)
+       \type integer
+       \minimum 0
+       \maximum 255
+  A3,  \field Drawing Element 2 Type
+       \type choice
+       \key Text
+       \key Walls
+       \key Windows
+       \key GlassDoors
+       \key Doors
+       \key Roofs
+       \key Floors
+       \key DetachedBuildingShades
+       \key DetachedFixedShades
+       \key AttachedBuildingShades
+       \key Photovoltaics
+       \key TubularDaylightDomes
+       \key TubularDaylightDiffusers
+       \key DaylightReferencePoint1
+       \key DaylightReferencePoint2
+  N2,  \field Color for Drawing Element 2
+       \note use color number for output assignment (e.g. DXF)
+       \type integer
+       \minimum 0
+       \maximum 255
+  A4,  \field Drawing Element 3 Type
+       \type choice
+       \key Text
+       \key Walls
+       \key Windows
+       \key GlassDoors
+       \key Doors
+       \key Roofs
+       \key Floors
+       \key DetachedBuildingShades
+       \key DetachedFixedShades
+       \key AttachedBuildingShades
+       \key Photovoltaics
+       \key TubularDaylightDomes
+       \key TubularDaylightDiffusers
+       \key DaylightReferencePoint1
+       \key DaylightReferencePoint2
+  N3,  \field Color for Drawing Element 3
+       \note use color number for output assignment (e.g. DXF)
+       \type integer
+       \minimum 0
+       \maximum 255
+  A5,  \field Drawing Element 4 Type
+       \type choice
+       \key Text
+       \key Walls
+       \key Windows
+       \key GlassDoors
+       \key Doors
+       \key Roofs
+       \key Floors
+       \key DetachedBuildingShades
+       \key DetachedFixedShades
+       \key AttachedBuildingShades
+       \key Photovoltaics
+       \key TubularDaylightDomes
+       \key TubularDaylightDiffusers
+       \key DaylightReferencePoint1
+       \key DaylightReferencePoint2
+  N4,  \field Color for Drawing Element 4
+       \note use color number for output assignment (e.g. DXF)
+       \type integer
+       \minimum 0
+       \maximum 255
+  A6,  \field Drawing Element 5 Type
+       \type choice
+       \key Text
+       \key Walls
+       \key Windows
+       \key GlassDoors
+       \key Doors
+       \key Roofs
+       \key Floors
+       \key DetachedBuildingShades
+       \key DetachedFixedShades
+       \key AttachedBuildingShades
+       \key Photovoltaics
+       \key TubularDaylightDomes
+       \key TubularDaylightDiffusers
+       \key DaylightReferencePoint1
+       \key DaylightReferencePoint2
+  N5,  \field Color for Drawing Element 5
+       \note use color number for output assignment (e.g. DXF)
+       \type integer
+       \minimum 0
+       \maximum 255
+  A7,  \field Drawing Element 6 Type
+       \type choice
+       \key Text
+       \key Walls
+       \key Windows
+       \key GlassDoors
+       \key Doors
+       \key Roofs
+       \key Floors
+       \key DetachedBuildingShades
+       \key DetachedFixedShades
+       \key AttachedBuildingShades
+       \key Photovoltaics
+       \key TubularDaylightDomes
+       \key TubularDaylightDiffusers
+       \key DaylightReferencePoint1
+       \key DaylightReferencePoint2
+  N6,  \field Color for Drawing Element 6
+       \note use color number for output assignment (e.g. DXF)
+       \type integer
+       \minimum 0
+       \maximum 255
+  A8,  \field Drawing Element 7 Type
+       \type choice
+       \key Text
+       \key Walls
+       \key Windows
+       \key GlassDoors
+       \key Doors
+       \key Roofs
+       \key Floors
+       \key DetachedBuildingShades
+       \key DetachedFixedShades
+       \key AttachedBuildingShades
+       \key Photovoltaics
+       \key TubularDaylightDomes
+       \key TubularDaylightDiffusers
+       \key DaylightReferencePoint1
+       \key DaylightReferencePoint2
+  N7,  \field Color for Drawing Element 7
+       \note use color number for output assignment (e.g. DXF)
+       \type integer
+       \minimum 0
+       \maximum 255
+  A9,  \field Drawing Element 8 Type
+       \type choice
+       \key Text
+       \key Walls
+       \key Windows
+       \key GlassDoors
+       \key Doors
+       \key Roofs
+       \key Floors
+       \key DetachedBuildingShades
+       \key DetachedFixedShades
+       \key AttachedBuildingShades
+       \key Photovoltaics
+       \key TubularDaylightDomes
+       \key TubularDaylightDiffusers
+       \key DaylightReferencePoint1
+       \key DaylightReferencePoint2
+  N8,  \field Color for Drawing Element 8
+       \note use color number for output assignment (e.g. DXF)
+       \type integer
+       \minimum 0
+       \maximum 255
+  A10, \field Drawing Element 9 Type
+       \type choice
+       \key Text
+       \key Walls
+       \key Windows
+       \key GlassDoors
+       \key Doors
+       \key Roofs
+       \key Floors
+       \key DetachedBuildingShades
+       \key DetachedFixedShades
+       \key AttachedBuildingShades
+       \key Photovoltaics
+       \key TubularDaylightDomes
+       \key TubularDaylightDiffusers
+       \key DaylightReferencePoint1
+       \key DaylightReferencePoint2
+  N9,  \field Color for Drawing Element 9
+       \note use color number for output assignment (e.g. DXF)
+       \type integer
+       \minimum 0
+       \maximum 255
+  A11, \field Drawing Element 10 Type
+       \type choice
+       \key Text
+       \key Walls
+       \key Windows
+       \key GlassDoors
+       \key Doors
+       \key Roofs
+       \key Floors
+       \key DetachedBuildingShades
+       \key DetachedFixedShades
+       \key AttachedBuildingShades
+       \key Photovoltaics
+       \key TubularDaylightDomes
+       \key TubularDaylightDiffusers
+       \key DaylightReferencePoint1
+       \key DaylightReferencePoint2
+  N10, \field Color for Drawing Element 10
+       \note use color number for output assignment (e.g. DXF)
+       \type integer
+       \minimum 0
+       \maximum 255
+  A12, \field Drawing Element 11 Type
+       \type choice
+       \key Text
+       \key Walls
+       \key Windows
+       \key GlassDoors
+       \key Doors
+       \key Roofs
+       \key Floors
+       \key DetachedBuildingShades
+       \key DetachedFixedShades
+       \key AttachedBuildingShades
+       \key Photovoltaics
+       \key TubularDaylightDomes
+       \key TubularDaylightDiffusers
+       \key DaylightReferencePoint1
+       \key DaylightReferencePoint2
+  N11, \field Color for Drawing Element 11
+       \note use color number for output assignment (e.g. DXF)
+       \type integer
+       \minimum 0
+       \maximum 255
+  A13, \field Drawing Element 12 Type
+       \type choice
+       \key Text
+       \key Walls
+       \key Windows
+       \key GlassDoors
+       \key Doors
+       \key Roofs
+       \key Floors
+       \key DetachedBuildingShades
+       \key DetachedFixedShades
+       \key AttachedBuildingShades
+       \key Photovoltaics
+       \key TubularDaylightDomes
+       \key TubularDaylightDiffusers
+       \key DaylightReferencePoint1
+       \key DaylightReferencePoint2
+  N12, \field Color for Drawing Element 12
+       \note use color number for output assignment (e.g. DXF)
+       \type integer
+       \minimum 0
+       \maximum 255
+  A14, \field Drawing Element 13 Type
+       \type choice
+       \key Text
+       \key Walls
+       \key Windows
+       \key GlassDoors
+       \key Doors
+       \key Roofs
+       \key Floors
+       \key DetachedBuildingShades
+       \key DetachedFixedShades
+       \key AttachedBuildingShades
+       \key Photovoltaics
+       \key TubularDaylightDomes
+       \key TubularDaylightDiffusers
+       \key DaylightReferencePoint1
+       \key DaylightReferencePoint2
+  N13, \field Color for Drawing Element 13
+       \note use color number for output assignment (e.g. DXF)
+       \type integer
+       \minimum 0
+       \maximum 255
+  A15, \field Drawing Element 14 Type
+       \type choice
+       \key Text
+       \key Walls
+       \key Windows
+       \key GlassDoors
+       \key Doors
+       \key Roofs
+       \key Floors
+       \key DetachedBuildingShades
+       \key DetachedFixedShades
+       \key AttachedBuildingShades
+       \key Photovoltaics
+       \key TubularDaylightDomes
+       \key TubularDaylightDiffusers
+       \key DaylightReferencePoint1
+       \key DaylightReferencePoint2
+  N14, \field Color for Drawing Element 14
+       \note use color number for output assignment (e.g. DXF)
+       \type integer
+       \minimum 0
+       \maximum 255
+  A16, \field Drawing Element 15 Type
+       \type choice
+       \key Text
+       \key Walls
+       \key Windows
+       \key GlassDoors
+       \key Doors
+       \key Roofs
+       \key Floors
+       \key DetachedBuildingShades
+       \key DetachedFixedShades
+       \key AttachedBuildingShades
+       \key Photovoltaics
+       \key TubularDaylightDomes
+       \key TubularDaylightDiffusers
+       \key DaylightReferencePoint1
+       \key DaylightReferencePoint2
+  N15; \field Color for Drawing Element 15
+       \note use color number for output assignment (e.g. DXF)
+       \type integer
+       \minimum 0
+       \maximum 255
+
+Output:Table:SummaryReports,
+       \extensible:1
+       \memo This object allows the user to call report types that are predefined and will appear with the
+       \memo other tabular reports. These predefined reports are sensitive to the OutputControl:Table:Style object
+       \memo and appear in the same files as the tabular reports. The entries for this object is a list
+       \memo of the predefined reports that should appear in the tabular report output file.
+       \unique-object
+   A1, \field Report 1 Name
+       \begin-extensible
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A2, \field Report 2 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A3, \field Report 3 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A4, \field Report 4 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A5, \field Report 5 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A6, \field Report 6 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A7, \field Report 7 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A8, \field Report 8 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A9, \field Report 9 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A10,\field Report 10 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A11,\field Report 11 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A12, \field Report 12 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A13, \field Report 13 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A14, \field Report 14 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A15, \field Report 15 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A16, \field Report 16 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A17, \field Report 17 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A18, \field Report 18 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A19, \field Report 19 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A20, \field Report 20 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A21, \field Report 21 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A22, \field Report 22 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A23, \field Report 23 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A24, \field Report 24 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+   A25; \field Report 25 Name
+       \type choice
+       \key AllSummary
+       \key AllSummaryAndSizingPeriod
+       \key AllMonthly
+       \key AllSummaryAndMonthly
+       \key AllSummaryMonthlyAndSizingPeriod
+       \key AnnualBuildingUtilityPerformanceSummary
+       \key InputVerificationandResultsSummary
+       \key DemandEndUseComponentsSummary
+       \key SourceEnergyEndUseComponentsSummary
+       \key ClimaticDataSummary
+       \key EquipmentSummary
+       \key EnvelopeSummary
+       \key SurfaceShadowingSummary
+       \key ShadingSummary
+       \key LightingSummary
+       \key HVACSizingSummary
+       \key SystemSummary
+       \key ComponentSizingSummary
+       \key CoilSizingDetails
+       \key OutdoorAirSummary
+       \key OutdoorAirDetails
+       \key ObjectCountSummary
+       \key ComponentCostEconomicsSummary
+       \key AdaptiveComfortSummary
+       \key SensibleHeatGainSummary
+       \key ZoneComponentLoadSummary
+       \key AirLoopComponentLoadSummary
+       \key FacilityComponentLoadSummary
+       \key Standard62.1Summary
+       \key EnergyMeters
+       \key InitializationSummary
+       \key LEEDSummary
+       \key LifeCycleCostReport
+       \key TariffReport
+       \key EconomicResultSummary
+       \key ZoneCoolingSummaryMonthly
+       \key ZoneHeatingSummaryMonthly
+       \key ZoneElectricSummaryMonthly
+       \key SpaceGainsMonthly
+       \key PeakSpaceGainsMonthly
+       \key SpaceGainComponentsAtCoolingPeakMonthly
+       \key EnergyConsumptionElectricityNaturalGasMonthly
+       \key EnergyConsumptionElectricityGeneratedPropaneMonthly
+       \key EnergyConsumptionDieselFuelOilMonthly
+       \key EnergyConsumptionDistrictHeatingCoolingMonthly
+       \key EnergyConsumptionCoalGasolineMonthly
+       \key EnergyConsumptionOtherFuelsMonthly
+       \key EndUseEnergyConsumptionElectricityMonthly
+       \key EndUseEnergyConsumptionNaturalGasMonthly
+       \key EndUseEnergyConsumptionDieselMonthly
+       \key EndUseEnergyConsumptionFuelOilMonthly
+       \key EndUseEnergyConsumptionCoalMonthly
+       \key EndUseEnergyConsumptionPropaneMonthly
+       \key EndUseEnergyConsumptionGasolineMonthly
+       \key EndUseEnergyConsumptionOtherFuelsMonthly
+       \key PeakEnergyEndUseElectricityPart1Monthly
+       \key PeakEnergyEndUseElectricityPart2Monthly
+       \key ElectricComponentsOfPeakDemandMonthly
+       \key PeakEnergyEndUseNaturalGasMonthly
+       \key PeakEnergyEndUseDieselMonthly
+       \key PeakEnergyEndUseFuelOilMonthly
+       \key PeakEnergyEndUseCoalMonthly
+       \key PeakEnergyEndUsePropaneMonthly
+       \key PeakEnergyEndUseGasolineMonthly
+       \key PeakEnergyEndUseOtherFuelsMonthly
+       \key SetpointsNotMetWithTemperaturesMonthly
+       \key ComfortReportSimple55Monthly
+       \key UnglazedTranspiredSolarCollectorSummaryMonthly
+       \key OccupantComfortDataSummaryMonthly
+       \key ChillerReportMonthly
+       \key TowerReportMonthly
+       \key BoilerReportMonthly
+       \key DXReportMonthly
+       \key WindowReportMonthly
+       \key WindowEnergyReportMonthly
+       \key WindowZoneSummaryMonthly
+       \key WindowEnergyZoneSummaryMonthly
+       \key AverageOutdoorConditionsMonthly
+       \key OutdoorConditionsMaximumDryBulbMonthly
+       \key OutdoorConditionsMinimumDryBulbMonthly
+       \key OutdoorConditionsMaximumWetBulbMonthly
+       \key OutdoorConditionsMaximumDewPointMonthly
+       \key OutdoorGroundConditionsMonthly
+       \key WindowACReportMonthly
+       \key WaterHeaterReportMonthly
+       \key GeneratorReportMonthly
+       \key DaylightingReportMonthly
+       \key CoilReportMonthly
+       \key PlantLoopDemandReportMonthly
+       \key FanReportMonthly
+       \key PumpReportMonthly
+       \key CondLoopDemandReportMonthly
+       \key ZoneTemperatureOscillationReportMonthly
+       \key AirLoopSystemEnergyAndWaterUseMonthly
+       \key AirLoopSystemComponentLoadsMonthly
+       \key AirLoopSystemComponentEnergyUseMonthly
+       \key MechanicalVentilationLoadsMonthly
+       \key HeatEmissionsSummary
+       \key HeatEmissionsReportMonthly
+       \key ThermalResilienceSummary
+       \key CO2ResilienceSummary
+       \key VisualResilienceSummary
+
+Output:Table:TimeBins,
+       \memo Produces a bin report in the table output file which shows the amount of time in hours
+       \memo that occurs in different bins for a single specific output variable or meter.
+       \memo Two different types of binning are reported: by month and by hour of the day.
+       \min-fields 5
+   A1, \field Key Value
+       \default *
+       \note use '*' (without quotes) to apply this variable to all keys
+   A2, \field Variable Name
+       \required-field
+       \type external-list
+       \external-list autoRDDvariableMeter
+   N1, \field Interval Start
+       \type real
+       \note The lowest value for the intervals being binned into.
+       \unitsBasedOnField A4
+   N2, \field Interval Size
+       \type real
+       \note The size of the bins starting with Interval start.
+       \unitsBasedOnField A4
+   N3, \field Interval Count
+       \type integer
+       \minimum 1
+       \maximum 20
+       \note The number of bins used. The number of hours below the start of the
+       \note Lowest bin and above the value of the last bin are also shown.
+   A3, \field Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Optional schedule name. Binning is performed for non-zero hours.
+       \note Binning always performed if left blank.
+   A4; \field Variable Type
+       \type choice
+       \key Energy
+       \key Temperature
+       \key VolumetricFlow
+       \key Power
+       \note Optional input on the type of units for the variable used by other fields in the object.
+
+Output:Table:Monthly,
+       \memo Provides a generic method of setting up tables of monthly results. The report
+       \memo has multiple columns that are each defined using a repeated group of fields for any
+       \memo number of columns. A single Output:Table:Monthly object often produces multiple
+       \memo tables in the output. A table is produced for every instance of a particular output
+       \memo variable. For example, a table defined with zone variables will be produced once for
+       \memo every zone.
+       \extensible:2
+   A1, \field Name
+       \required-field
+       \type alpha
+   N1, \field Digits After Decimal
+       \type integer
+       \default 2
+       \minimum 0
+       \maximum 10
+! The next two fields are repeated for each column
+   A2, \field Variable or Meter 1 Name
+       \begin-extensible
+       \type external-list
+       \external-list autoRDDvariableMeter
+       \note The name of an output variable or  meter that is available in the RDD file.
+   A3, \field Aggregation Type for Variable or Meter 1
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note The method of aggregation for the selected variable or meter.
+       \note SumOrAverage adds up the values for every timestep in the month if the variable
+       \note   is a sum variable. If the variable is an average variable it reports the average value.
+       \note   This is probably the most common Aggregation Type option to choose.
+       \note Maximum and Minimum find the maximum and minimum value for the month and report it
+       \note   along with the time that it first occurred. When Maximum or Minimum are selected a
+       \note   column is automatically shown in the output report for the time that it occurred.
+       \note   When Maximum or Minimum are used with an average variable the value is divided
+       \note   by the length of the timestep.
+       \note ValueWhenMaxMin looks at the previous variable in the report that sets a maximum or minimum
+       \note   and displays the value of the current variable at that same timestep.
+       \note   Order of the variables in the report is important when using ValueWhenMaxMin.
+       \note   This can be used when an outdoor temperature should be reported for the time of the
+       \note   maximum cooling load.
+       \note HoursNonZero adds up the elapsed time during the month that this variable is non-zero
+       \note   and would be appropriate to determine the number of hour that a fan operates.
+       \note HoursZero - The HoursZero option adds up the elapsed time during the month that this
+       \note   variable has a zero value and would be appropriate to determine the number of hour
+       \note   that a fan does not operate.
+       \note HoursPositive - The HoursPositive option adds up the elapsed time during the month that
+       \note   this variable has a positive value. Hours with a zero value are not included.
+       \note HoursNonPositive - The HoursNonPositive option adds up the elapsed time during the month
+       \note   that this variable has non-positive value. Hours with a negative value and hours with a
+       \note   zero value are all included.
+       \note HoursNegative - The HoursNegative option adds up the elapsed time during the month that
+       \note   this variable has a negative value. Hours with a zero value are not included.
+       \note HoursNonNegative - The HoursNonNegative option adds up the elapsed time during the month
+       \note   that this variable has non-negative value. Hours with a positive value and
+       \note   hours with a zero value are all included.
+       \note SumOrAverageDuringHoursShown - Provides the sum or average of the named variable when
+       \note   during the hours that the previous variable displayed with any of the Aggregation Types
+       \note   starting with "Hours". For "sum" type variables adds up the values for each timestep
+       \note   and reports the sum of the value monthly during the hours reported on the previous
+       \note   variable. For "average" type variables, the value shown will be the average for the month
+       \note   during the hours reported on the previous variable. Order of the variables in
+       \note   the report is important when using this Aggregation Type.
+       \note MaximumDuringHoursShown - Reports the maximum value and the time that the maximum value
+       \note   occurred but only during the hours reported with the previous "hours-" Aggregation Type.
+       \note   When the Maximum option is used with an average variable the value is divided
+       \note   by the length of the timestep. Order of the variables in the report is important
+       \note   when using this Aggregation Type.
+       \note MinimumDuringHoursShown - Reports the minimum value and the time that the minimum value
+       \note   occurred but only during the hours reported with the previous "hours-" Aggregation Type.
+       \note   When the Minimum option is used with an average variable the value is divided
+       \note   by the length of the timestep. Order of the variables in the report is important
+       \note   when using this Aggregation Type.
+   A4, \field Variable or Meter 2 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A5, \field Aggregation Type for Variable or Meter 2
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A6, \field Variable or Meter 3 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A7, \field Aggregation Type for Variable or Meter 3
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A8, \field Variable or Meter 4 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A9, \field Aggregation Type for Variable or Meter 4
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A10,\field Variable or Meter 5 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A11,\field Aggregation Type for Variable or Meter 5
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A12,\field Variable or Meter 6 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A13,\field Aggregation Type for Variable or Meter 6
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A14,\field Variable or Meter 7 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A15,\field Aggregation Type for Variable or Meter 7
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A16,\field Variable or Meter 8 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A17,\field Aggregation Type for Variable or Meter 8
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A18,\field Variable or Meter 9 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A19,\field Aggregation Type for Variable or Meter 9
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A20,\field Variable or Meter 10 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A21,\field Aggregation Type for Variable or Meter 10
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A22,\field Variable or Meter 11 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A23,\field Aggregation Type for Variable or Meter 11
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A24,\field Variable or Meter 12 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A25,\field Aggregation Type for Variable or Meter 12
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A26,\field Variable or Meter 13 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A27,\field Aggregation Type for Variable or Meter 13
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A28,\field Variable or Meter 14 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A29,\field Aggregation Type for Variable or Meter 14
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A30,\field Variable or Meter 15 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A31,\field Aggregation Type for Variable or Meter 15
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A32,\field Variable or Meter 16 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A33,\field Aggregation Type for Variable or Meter 16
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A34,\field Variable or Meter 17 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A35,\field Aggregation Type for Variable or Meter 17
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A36,\field Variable or Meter 18 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A37,\field Aggregation Type for Variable or Meter 18
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A38,\field Variable or Meter 19 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A39,\field Aggregation Type for Variable or Meter 19
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A40,\field Variable or Meter 20 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A41,\field Aggregation Type for Variable or Meter 20
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A42,\field Variable or Meter 21 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A43,\field Aggregation Type for Variable or Meter 21
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A44,\field Variable or Meter 22 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A45,\field Aggregation Type for Variable or Meter 22
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A46,\field Variable or Meter 23 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A47,\field Aggregation Type for Variable or Meter 23
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A48,\field Variable or Meter 24 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A49,\field Aggregation Type for Variable or Meter 24
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+   A50,\field Variable or Meter 25 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A51;\field Aggregation Type for Variable or Meter 25
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note See instructions under AggregationType01
+
+Output:Table:Annual,
+       \memo Provides a generic method of setting up tables of annual results with one row per object.
+       \memo The report has multiple columns that are each defined using a repeated group of fields
+       \memo for any number of columns. A single Output:Table:Annual produces a single table in the
+       \memo output.
+       \extensible:3
+   A1, \field Name
+       \required-field
+       \type alpha
+   A2, \field Filter
+       \type alpha
+       \note An optional text string that is compared to the names of the objects referenced by the
+       \note variables and if they match are included in the table. A footnote will appear that indicates
+       \note that the objects shown may not be all the objects that of that type that occur in the file.
+   A3, \field Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+       \note Optional schedule name. If left blank, aggregation is performed for all hours simulated. If
+       \note a schedule is specified, aggregation is performed for non-zero hours in the schedule.
+! The next two fields are repeated for each column
+   A4, \field Variable or Meter or EMS Variable or Field 1 Name
+       \begin-extensible
+       \type external-list
+       \external-list autoRDDvariableMeter
+       \note contain the name of a variable (see Output:Variable and eplusout.rdd), meter (see Output:Meter
+       \note and eplusout.mdd), or EMS Internal Variable Name or IDF Object Field name. This value is shown
+       \note using the aggregation method specified.
+   A5, \field Aggregation Type for Variable or Meter 1
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key HourInTenBinsMinToMax
+       \key HourInTenBinsZeroToMax
+       \key HourInTenBinsMinToZero
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+       \note The method of aggregation for the selected variable or meter.
+       \note SumOrAverage adds up the values for every timestep in the month if the variable
+       \note   is a sum variable. If the variable is an average variable it reports the average value.
+       \note   This is probably the most common Aggregation Type option to choose.
+       \note Maximum and Minimum find the maximum and minimum value for the month and report it
+       \note   along with the time that it first occurred. When Maximum or Minimum are selected a
+       \note   column is automatically shown in the output report for the time that it occurred.
+       \note   When Maximum or Minimum are used with an average variable the value is divided
+       \note   by the length of the timestep.
+       \note ValueWhenMaxMin looks at the previous variable in the report that sets a maximum or minimum
+       \note   and displays the value of the current variable at that same timestep.
+       \note   Order of the variables in the report is important when using ValueWhenMaxMin.
+       \note   This can be used when an outdoor temperature should be reported for the time of the
+       \note   maximum cooling load.
+       \note HoursNonZero adds up the elapsed time during the month that this variable is non-zero
+       \note   and would be appropriate to determine the number of hour that a fan operates.
+       \note HoursZero - The HoursZero option adds up the elapsed time during the month that this
+       \note   variable has a zero value and would be appropriate to determine the number of hour
+       \note   that a fan does not operate.
+       \note HoursPositive - The HoursPositive option adds up the elapsed time during the month that
+       \note   this variable has a positive value. Hours with a zero value are not included.
+       \note HoursNonPositive - The HoursNonPositive option adds up the elapsed time during the month
+       \note   that this variable has non-positive value. Hours with a negative value and hours with a
+       \note   zero value are all included.
+       \note HoursNegative - The HoursNegative option adds up the elapsed time during the month that
+       \note   this variable has a negative value. Hours with a zero value are not included.
+       \note HoursNonNegative - The HoursNonNegative option adds up the elapsed time during the month
+       \note   that this variable has non-negative value. Hours with a positive value and
+       \note   hours with a zero value are all included.
+       \note HourInTenBinsMinToMax - Creates 10 columns for the specified variable and shows the number
+       \note   of hours in each of 10 bins based on the minimum and maximum value. The bin sizes will
+       \note   be rounded up to the next most signficant digit value.
+       \note HourInTenBinsZeroToMax - Creates 11 columns for the specified variable and shows the number
+       \note   of hours in each of 10 bins from zero to the maximum value and a bin for hours below zero.
+       \note   The bin sizes will be rounded up to the next most significant digit value.
+       \note HourInTenBinsMinToZero - Creates 11 columns for the specified variable and shows the number
+       \note   of hours in each of 10 bins from zero to the minimum value and a bin for hours above zero.
+       \note   The bin sizes will be rounded up to the next most significant digit value.
+       \note SumOrAverageDuringHoursShown - Provides the sum or average of the named variable when
+       \note   during the hours that the previous variable displayed with any of the Aggregation Types
+       \note   starting with "Hours". For "sum" type variables adds up the values for each timestep
+       \note   and reports the sum of the value monthly during the hours reported on the previous
+       \note   variable. For "average" type variables, the value shown will be the average for the month
+       \note   during the hours reported on the previous variable. Order of the variables in
+       \note   the report is important when using this Aggregation Type.
+       \note MaximumDuringHoursShown - Reports the maximum value and the time that the maximum value
+       \note   occurred but only during the hours reported with the previous "hours-" Aggregation Type.
+       \note   When the Maximum option is used with an average variable the value is divided
+       \note   by the length of the timestep. Order of the variables in the report is important
+       \note   when using this Aggregation Type.
+       \note MinimumDuringHoursShown - Reports the minimum value and the time that the minimum value
+       \note   occurred but only during the hours reported with the previous "hours-" Aggregation Type.
+       \note   When the Minimum option is used with an average variable the value is divided
+       \note   by the length of the timestep. Order of the variables in the report is important
+       \note   when using this Aggregation Type.
+   N1, \field Digits After Decimal 1
+       \type integer
+       \default 2
+       \minimum 0
+       \maximum 10
+   A6, \field Variable or Meter or EMS Variable or Field 2 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A7, \field Aggregation Type for Variable or Meter 2
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key HourInTenBinsMinToMax
+       \key HourInTenBinsZeroToMax
+       \key HourInTenBinsMinToZero
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+   N2, \field Digits After Decimal 2
+       \type integer
+       \default 2
+       \minimum 0
+       \maximum 10
+   A8, \field Variable or Meter or EMS Variable or Field 3 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A9, \field Aggregation Type for Variable or Meter 3
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key HourInTenBinsMinToMax
+       \key HourInTenBinsZeroToMax
+       \key HourInTenBinsMinToZero
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+   N3, \field Digits After Decimal 3
+       \type integer
+       \default 2
+       \minimum 0
+       \maximum 10
+   A10,\field Variable or Meter or EMS Variable or Field 4 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A11,\field Aggregation Type for Variable or Meter 4
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key HourInTenBinsMinToMax
+       \key HourInTenBinsZeroToMax
+       \key HourInTenBinsMinToZero
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+   N4, \field Digits After Decimal 4
+       \type integer
+       \default 2
+       \minimum 0
+       \maximum 10
+   A12,\field Variable or Meter or EMS Variable or Field 5 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A13,\field Aggregation Type for Variable or Meter 5
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key HourInTenBinsMinToMax
+       \key HourInTenBinsZeroToMax
+       \key HourInTenBinsMinToZero
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+   N5, \field Digits After Decimal 5
+       \type integer
+       \default 2
+       \minimum 0
+       \maximum 10
+   A14,\field Variable or Meter or EMS Variable or Field 6 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A15,\field Aggregation Type for Variable or Meter 6
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key HourInTenBinsMinToMax
+       \key HourInTenBinsZeroToMax
+       \key HourInTenBinsMinToZero
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+   N6, \field Digits After Decimal 6
+       \type integer
+       \default 2
+       \minimum 0
+       \maximum 10
+   A16,\field Variable or Meter or EMS Variable or Field 7 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A17,\field Aggregation Type for Variable or Meter 7
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key HourInTenBinsMinToMax
+       \key HourInTenBinsZeroToMax
+       \key HourInTenBinsMinToZero
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+   N7, \field Digits After Decimal 7
+       \type integer
+       \default 2
+       \minimum 0
+       \maximum 10
+   A18,\field Variable or Meter or EMS Variable or Field 8 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A19,\field Aggregation Type for Variable or Meter 8
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key HourInTenBinsMinToMax
+       \key HourInTenBinsZeroToMax
+       \key HourInTenBinsMinToZero
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+   N8, \field Digits After Decimal 8
+       \type integer
+       \default 2
+       \minimum 0
+       \maximum 10
+   A20,\field Variable or Meter or EMS Variable or Field 9 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A21,\field Aggregation Type for Variable or Meter 9
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key HourInTenBinsMinToMax
+       \key HourInTenBinsZeroToMax
+       \key HourInTenBinsMinToZero
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+   N9, \field Digits After Decimal 9
+       \type integer
+       \default 2
+       \minimum 0
+       \maximum 10
+   A22,\field Variable or Meter or EMS Variable or Field 10 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A23,\field Aggregation Type for Variable or Meter 10
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key HourInTenBinsMinToMax
+       \key HourInTenBinsZeroToMax
+       \key HourInTenBinsMinToZero
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+   N10,\field Digits After Decimal 10
+       \type integer
+       \default 2
+       \minimum 0
+       \maximum 10
+   A24,\field Variable or Meter or EMS Variable or Field 11 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A25,\field Aggregation Type for Variable or Meter 11
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key HourInTenBinsMinToMax
+       \key HourInTenBinsZeroToMax
+       \key HourInTenBinsMinToZero
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+   N11,\field Digits After Decimal 11
+       \type integer
+       \default 2
+       \minimum 0
+       \maximum 10
+   A26,\field Variable or Meter or EMS Variable or Field 12 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A27,\field Aggregation Type for Variable or Meter 12
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key HourInTenBinsMinToMax
+       \key HourInTenBinsZeroToMax
+       \key HourInTenBinsMinToZero
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+   N12,\field Digits After Decimal 12
+       \type integer
+       \default 2
+       \minimum 0
+       \maximum 10
+   A28,\field Variable or Meter or EMS Variable or Field 13 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A29,\field Aggregation Type for Variable or Meter 13
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key HourInTenBinsMinToMax
+       \key HourInTenBinsZeroToMax
+       \key HourInTenBinsMinToZero
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+   N13,\field Digits After Decimal 13
+       \type integer
+       \default 2
+       \minimum 0
+       \maximum 10
+   A30,\field Variable or Meter or EMS Variable or Field 14 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A31,\field Aggregation Type for Variable or Meter 14
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key HourInTenBinsMinToMax
+       \key HourInTenBinsZeroToMax
+       \key HourInTenBinsMinToZero
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+   N14,\field Digits After Decimal 14
+       \type integer
+       \default 2
+       \minimum 0
+       \maximum 10
+   A32,\field Variable or Meter or EMS Variable or Field 15 Name
+       \type external-list
+       \external-list autoRDDvariableMeter
+   A33,\field Aggregation Type for Variable or Meter 15
+       \type choice
+       \key SumOrAverage
+       \key Maximum
+       \key Minimum
+       \key ValueWhenMaximumOrMinimum
+       \key HoursNonZero
+       \key HoursZero
+       \key HoursPositive
+       \key HoursNonPositive
+       \key HoursNegative
+       \key HoursNonNegative
+       \key HourInTenBinsMinToMax
+       \key HourInTenBinsZeroToMax
+       \key HourInTenBinsMinToZero
+       \key SumOrAverageDuringHoursShown
+       \key MaximumDuringHoursShown
+       \key MinimumDuringHoursShown
+   N15;\field Digits After Decimal 15
+       \type integer
+       \default 2
+       \minimum 0
+       \maximum 10
+
+
+
+OutputControl:Table:Style,
+       \memo default style for the OutputControl:Table:Style is comma -- this works well for
+       \memo importing into spreadsheet programs such as Excel(tm) but not so well for word
+       \memo processing programs -- there tab may be a better choice. fixed puts spaces between
+       \memo the "columns". HTML produces tables in HTML. XML produces an XML file.
+       \memo note - if no OutputControl:Table:Style is included, the defaults are comma and None.
+       \unique-object
+   A1, \field Column Separator
+       \type choice
+       \key Comma
+       \key Tab
+       \key Fixed
+       \key HTML
+       \key XML
+       \key CommaAndHTML
+       \key CommaAndXML
+       \key TabAndHTML
+       \key XMLandHTML
+       \key All
+       \default Comma
+   A2; \field Unit Conversion
+       \type choice
+       \key None
+       \key JtoKWH
+       \key JtoMJ
+       \key JtoGJ
+       \key InchPound
+       \default None
+
+OutputControl:ReportingTolerances,
+       \memo Calculations of the time that setpoints are not met use a tolerance of 0.2C.
+       \memo This object allows changing the tolerance used to determine when setpoints are being met.
+       \unique-object
+   N1, \field Tolerance for Time Heating Setpoint Not Met
+       \note If the zone temperature is below the heating setpoint by more than
+       \note this value, the following output variables will increment as appropriate
+       \note Zone Heating Setpoint Not Met Time
+       \note Zone Heating Setpoint Not Met While Occupied Time
+       \note This also impacts table report "Annual Building Utility Performance Summary"
+       \note subtable "Comfort and Setpoint Not Met Summary"
+       \units deltaC
+       \default .2
+       \minimum 0
+       \maximum 10
+   N2; \field Tolerance for Time Cooling Setpoint Not Met
+       \note If the zone temperature is above the cooling setpoint by more than
+       \note this value, the following output variables will increment as appropriate
+       \note Zone Cooling Setpoint Not Met Time
+       \note Zone Cooling Setpoint Not Met While Occupied Time
+       \note This also impacts table report "Annual Building Utility Performance Summary"
+       \note subtable "Comfort and Setpoint Not Met Summary"
+       \units deltaC
+       \default .2
+       \minimum 0
+       \maximum 10
+
+Output:Variable,
+       \memo each Output:Variable command picks variables to be put onto the standard output file (.eso)
+       \memo some variables may not be reported for every simulation.
+       \memo a list of variables that can be reported are available after a run on
+       \memo the report dictionary file (.rdd) if the Output:VariableDictionary has been requested.
+       \format singleLine
+  A1 , \field Key Value
+       \retaincase
+       \default *
+       \note use '*' (without quotes) to apply this variable to all keys
+  A2 , \field Variable Name
+       \required-field
+       \type external-list
+       \external-list autoRDDvariable
+  A3 , \field Reporting Frequency
+       \type choice
+       \key Detailed
+       \note Detailed lists every instance (i.e. HVAC variable timesteps)
+       \key Timestep
+       \note Timestep refers to the zone Timestep/Number of Timesteps in hour value
+       \note RunPeriod and Environment are the same
+       \key Hourly
+       \key Daily
+       \key Monthly
+       \key RunPeriod
+       \key Environment
+       \key Annual
+       \default Hourly
+  A4 ; \field Schedule Name
+       \type object-list
+       \object-list ScheduleNames
+
+Output:Meter,
+       \memo Each Output:Meter command picks meters to be put onto the standard output file (.eso)
+       \memo and meter file (.mtr). Not all meters are reported in every simulation. A list of meters
+       \memo that can be reported are available after a run on the meter dictionary file (.mdd) if
+       \memo the Output:VariableDictionary has been requested.
+       \format singleLine
+  A1 , \field Key Name
+       \required-field
+       \type external-list
+       \external-list autoRDDmeter
+       \note Form is EnergyUseType:..., e.g. Electricity:* for all Electricity meters
+       \note or EndUse:..., e.g. GeneralLights:* for all General Lights
+       \note Output:Meter puts results on both the eplusout.mtr and eplusout.eso files
+  A2 ; \field Reporting Frequency
+       \type choice
+       \key Detailed
+       \key Timestep
+       \note Timestep refers to the zone Timestep/Number of Timesteps in hour value
+       \note RunPeriod and Environment are the same
+       \key Hourly
+       \key Daily
+       \key Detailed
+       \key Monthly
+       \key RunPeriod
+       \key Environment
+       \key Annual
+       \default Hourly
+
+Output:Meter:MeterFileOnly,
+       \memo Each Output:Meter:MeterFileOnly command picks meters to be put only onto meter file (.mtr).
+       \memo Not all meters are reported in every simulation. A list of meters that can be reported
+       \memo a list of meters that can be reported are available after a run on
+       \memo the meter dictionary file (.mdd) if the Output:VariableDictionary has been requested.
+       \format singleLine
+  A1,  \field Key Name
+       \required-field
+       \type external-list
+       \external-list autoRDDmeter
+       \note Form is EnergyUseType:..., e.g. Electricity:* for all Electricity meters
+       \note or EndUse:..., e.g. GeneralLights:* for all General Lights
+       \note Output:Meter:MeterFileOnly puts results on the eplusout.mtr file only
+  A2 ; \field Reporting Frequency
+       \type choice
+       \key Detailed
+       \key Timestep
+       \note Timestep refers to the zone Timestep/Number of Timesteps in hour value
+       \note RunPeriod and Environment are the same
+       \key Hourly
+       \key Daily
+       \key Monthly
+       \key RunPeriod
+       \key Environment
+       \key Annual
+       \default Hourly
+
+Output:Meter:Cumulative,
+       \memo Each Output:Meter:Cumulative command picks meters to be reported cumulatively onto the
+       \memo standard output file (.eso) and meter file (.mtr). Not all meters are reported in every
+       \memo simulation.
+       \memo a list of meters that can be reported are available after a run on
+       \memo the meter dictionary file (.mdd) if the Output:VariableDictionary has been requested.
+       \format singleLine
+  A1,  \field Key Name
+       \required-field
+       \type external-list
+       \external-list autoRDDmeter
+       \note Form is EnergyUseType:..., e.g. Electricity:* for all Electricity meters
+       \note or EndUse:..., e.g. GeneralLights:* for all General Lights
+       \note Output:Meter:Cumulative puts results on both the eplusout.mtr and eplusout.eso files
+  A2 ; \field Reporting Frequency
+       \type choice
+       \key Detailed
+       \key Timestep
+       \note Timestep refers to the zone Timestep/Number of Timesteps in hour value
+       \note RunPeriod and Environment are the same
+       \key Hourly
+       \key Daily
+       \key Monthly
+       \key RunPeriod
+       \key Environment
+       \key Annual
+       \default Hourly
+
+Output:Meter:Cumulative:MeterFileOnly,
+       \memo Each Output:Meter:Cumulative:MeterFileOnly command picks meters to be reported cumulatively
+       \memo onto the standard output file (.eso) and meter file (.mtr). Not all meters are reported in
+       \memo every simulation.
+       \memo a list of meters that can be reported are available after a run on
+       \memo the meter dictionary file (.mdd) if the Output:VariableDictionary has been requested.
+       \format singleLine
+  A1,  \field Key Name
+       \required-field
+       \type external-list
+       \external-list autoRDDmeter
+       \note Form is EnergyUseType:..., e.g. Electricity:* for all Electricity meters
+       \note or EndUse:..., e.g. GeneralLights:* for all General Lights
+       \note Output:Meter:Cumulative:MeterFileOnly puts results on the eplusout.mtr file only
+  A2 ; \field Reporting Frequency
+       \type choice
+       \key Detailed
+       \key Timestep
+       \note Timestep refers to the zone Timestep/Number of Timesteps in hour value
+       \note RunPeriod and Environment are the same
+       \key Hourly
+       \key Daily
+       \key Monthly
+       \key RunPeriod
+       \key Environment
+       \key Annual
+       \default Hourly
+
+Meter:Custom,
+   \extensible:2 - repeat last two fields, remembering to remove ; from "inner" fields.
+   \memo Used to allow users to combine specific variables and/or meters into
+   \memo "custom" meter configurations. To access these meters by name, one must
+   \memo first run a simulation to generate the RDD/MDD files and names.
+   \memo A Meter:Custom cannot reference another Meter:Custom.
+   A1,  \field Name
+        \required-field
+   A2,  \field Resource Type
+        \type choice
+        \key Electricity
+        \key NaturalGas
+        \key Propane
+        \key FuelOilNo1
+        \key FuelOilNo2
+        \key Diesel
+        \key Gasoline
+        \key Coal
+        \key OtherFuel1
+        \key OtherFuel2
+        \key Steam
+        \key DistrictHeating
+        \key DistrictCooling
+        \key Water
+        \key Generic
+   A3,  \field Key Name 1
+        \begin-extensible
+   A4,  \field Output Variable or Meter Name 1
+   A5,  \field Key Name 2
+   A6,  \field Output Variable or Meter Name 2
+   A7,  \field Key Name 3
+   A8,  \field Output Variable or Meter Name 3
+   A9,  \field Key Name 4
+   A10, \field Output Variable or Meter Name 4
+   A11, \field Key Name 5
+   A12, \field Output Variable or Meter Name 5
+   A13, \field Key Name 6
+   A14, \field Output Variable or Meter Name 6
+   A15, \field Key Name 7
+   A16, \field Output Variable or Meter Name 7
+   A17, \field Key Name 8
+   A18, \field Output Variable or Meter Name 8
+   A19, \field Key Name 9
+   A20, \field Output Variable or Meter Name 9
+   A21, \field Key Name 10
+   A22, \field Output Variable or Meter Name 10
+   A23, \field Key Name 11
+   A24, \field Output Variable or Meter Name 11
+   A25, \field Key Name 12
+   A26, \field Output Variable or Meter Name 12
+   A27, \field Key Name 13
+   A28, \field Output Variable or Meter Name 13
+   A29, \field Key Name 14
+   A30, \field Output Variable or Meter Name 14
+   A31, \field Key Name 15
+   A32, \field Output Variable or Meter Name 15
+   A33, \field Key Name 16
+   A34, \field Output Variable or Meter Name 16
+   A35, \field Key Name 17
+   A36, \field Output Variable or Meter Name 17
+   A37, \field Key Name 18
+   A38, \field Output Variable or Meter Name 18
+   A39, \field Key Name 19
+   A40, \field Output Variable or Meter Name 19
+   A41, \field Key Name 20
+   A42, \field Output Variable or Meter Name 20
+   A43, \field Key Name 21
+   A44, \field Output Variable or Meter Name 21
+   A45, \field Key Name 22
+   A46, \field Output Variable or Meter Name 22
+   A47, \field Key Name 23
+   A48, \field Output Variable or Meter Name 23
+   A49, \field Key Name 24
+   A50, \field Output Variable or Meter Name 24
+   A51, \field Key Name 25
+   A52, \field Output Variable or Meter Name 25
+   A53, \field Key Name 26
+   A54, \field Output Variable or Meter Name 26
+   A55, \field Key Name 27
+   A56, \field Output Variable or Meter Name 27
+   A57, \field Key Name 28
+   A58, \field Output Variable or Meter Name 28
+   A59, \field Key Name 29
+   A60, \field Output Variable or Meter Name 29
+   A61, \field Key Name 30
+   A62, \field Output Variable or Meter Name 30
+   A63, \field Key Name 31
+   A64, \field Output Variable or Meter Name 31
+   A65, \field Key Name 32
+   A66, \field Output Variable or Meter Name 32
+   A67, \field Key Name 33
+   A68, \field Output Variable or Meter Name 33
+   A69, \field Key Name 34
+   A70, \field Output Variable or Meter Name 34
+   A71, \field Key Name 35
+   A72, \field Output Variable or Meter Name 35
+   A73, \field Key Name 36
+   A74, \field Output Variable or Meter Name 36
+   A75, \field Key Name 37
+   A76, \field Output Variable or Meter Name 37
+   A77, \field Key Name 38
+   A78, \field Output Variable or Meter Name 38
+   A79, \field Key Name 39
+   A80, \field Output Variable or Meter Name 39
+   A81, \field Key Name 40
+   A82, \field Output Variable or Meter Name 40
+   A83, \field Key Name 41
+   A84, \field Output Variable or Meter Name 41
+   A85, \field Key Name 42
+   A86, \field Output Variable or Meter Name 42
+   A87, \field Key Name 43
+   A88, \field Output Variable or Meter Name 43
+   A89, \field Key Name 44
+   A90, \field Output Variable or Meter Name 44
+   A91, \field Key Name 45
+   A92, \field Output Variable or Meter Name 45
+   A93, \field Key Name 46
+   A94, \field Output Variable or Meter Name 46
+   A95, \field Key Name 47
+   A96, \field Output Variable or Meter Name 47
+   A97, \field Key Name 48
+   A98, \field Output Variable or Meter Name 48
+   A99, \field Key Name 49
+  A100, \field Output Variable or Meter Name 49
+  A101, \field Key Name 50
+  A102; \field Output Variable or Meter Name 50
+
+Meter:CustomDecrement,
+   \extensible:2 - repeat last two fields, remembering to remove ; from "inner" fields.
+   \memo Used to allow users to combine specific variables and/or meters into
+   \memo "custom" meter configurations. To access these meters by name, one must
+   \memo first run a simulation to generate the RDD/MDD files and names.
+   A1,  \field Name
+        \required-field
+   A2,  \field Resource Type
+        \type choice
+        \key Electricity
+        \key NaturalGas
+        \key Propane
+        \key FuelOilNo1
+        \key FuelOilNo2
+        \key Diesel
+        \key Gasoline
+        \key Coal
+        \key OtherFuel1
+        \key OtherFuel2
+        \key Steam
+        \key DistrictHeating
+        \key DistrictCooling
+        \key Water
+        \key Generic
+   A3,  \field Source Meter Name
+        \required-field
+   A4,  \field Key Name 1
+        \begin-extensible
+   A5,  \field Output Variable or Meter Name 1
+   A6,  \field Key Name 2
+   A7,  \field Output Variable or Meter Name 2
+   A8,  \field Key Name 3
+   A9,  \field Output Variable or Meter Name 3
+   A10, \field Key Name 4
+   A11, \field Output Variable or Meter Name 4
+   A12, \field Key Name 5
+   A13, \field Output Variable or Meter Name 5
+   A14, \field Key Name 6
+   A15, \field Output Variable or Meter Name 6
+   A16, \field Key Name 7
+   A17, \field Output Variable or Meter Name 7
+   A18, \field Key Name 8
+   A19, \field Output Variable or Meter Name 8
+   A20, \field Key Name 9
+   A21, \field Output Variable or Meter Name 9
+   A22, \field Key Name 10
+   A23, \field Output Variable or Meter Name 10
+   A24, \field Key Name 11
+   A25, \field Output Variable or Meter Name 11
+   A26, \field Key Name 12
+   A27, \field Output Variable or Meter Name 12
+   A28, \field Key Name 13
+   A29, \field Output Variable or Meter Name 13
+   A30, \field Key Name 14
+   A31, \field Output Variable or Meter Name 14
+   A32, \field Key Name 15
+   A33, \field Output Variable or Meter Name 15
+   A34, \field Key Name 16
+   A35, \field Output Variable or Meter Name 16
+   A36, \field Key Name 17
+   A37, \field Output Variable or Meter Name 17
+   A38, \field Key Name 18
+   A39, \field Output Variable or Meter Name 18
+   A40, \field Key Name 19
+   A41, \field Output Variable or Meter Name 19
+   A42, \field Key Name 20
+   A43, \field Output Variable or Meter Name 20
+   A44, \field Key Name 21
+   A45, \field Output Variable or Meter Name 21
+   A46, \field Key Name 22
+   A47; \field Output Variable or Meter Name 22
+
+
+OutputControl:Files,
+       \memo Conditionally turn on/off output from EnergyPlus.
+       \unique-object
+  A1 , \field Output CSV
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  A2 , \field Output MTR
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A3 , \field Output ESO
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A4 , \field Output EIO
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A5 , \field Output Tabular
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A6 , \field Output SQLite
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A7 , \field Output JSON
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A8 , \field Output AUDIT
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A9 , \field Output Zone Sizing
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A10, \field Output System Sizing
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A11, \field Output DXF
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A12, \field Output BND
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A13, \field Output RDD
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A14, \field Output MDD
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A15, \field Output MTD
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A16, \field Output END
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A17, \field Output SHD
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A18, \field Output DFS
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A19, \field Output GLHE
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A20, \field Output DelightIn
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A21, \field Output DelightELdmp
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A22, \field Output DelightDFdmp
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A23, \field Output EDD
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A24, \field Output DBG
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A25, \field Output PerfLog
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A26, \field Output SLN
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A27, \field Output SCI
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A28, \field Output WRL
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A29, \field Output Screen
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A30, \field Output ExtShd
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A31; \field Output Tarcog
+       \note Not Implemented Yet
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+
+Output:JSON,
+       \memo Output from EnergyPlus can be written to JSON format files.
+       \unique-object
+  A1 , \field Option Type
+       \required-field
+       \type choice
+       \key TimeSeries
+       \key TimeSeriesAndTabular
+  A2 , \field Output JSON
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+  A3 , \field Output CBOR
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  A4 ; \field Output MessagePack
+       \type choice
+       \key Yes
+       \key No
+       \default No
+
+
+Output:SQLite,
+       \memo Output from EnergyPlus can be written to an SQLite format file.
+       \unique-object
+  A1 , \field Option Type
+       \type choice
+       \key Simple
+       \key SimpleAndTabular
+  A2 ; \field Unit Conversion for Tabular Data
+       \type choice
+       \note Unit conversion option used when writing SQLite Tabular Data
+       \note This option applies to TabularData and TabularDatawithString in the SQLite file
+       \key UseOutputControlTableStyle
+       \key None
+       \key JtoKWH
+       \key JtoMJ
+       \key JtoGJ
+       \key InchPound
+       \default UseOutputControlTableStyle
+
+Output:EnvironmentalImpactFactors,
+   \memo This is used to Automatically report the facility meters and turn on the Environmental Impact Report calculations
+   \memo for all of the Environmental Factors.
+  A1 ; \field Reporting Frequency
+       \type choice
+       \note Timestep refers to the zone Timestep/Number of Timesteps in hour value
+       \note RunPeriod and Environment are the same. Detailed is not a valid choice.
+       \key Timestep
+       \key Hourly
+       \key Daily
+       \key Monthly
+       \key RunPeriod
+       \key Environment
+       \key Annual
+
+EnvironmentalImpactFactors,
+   \memo Used to help convert district and ideal energy use to a fuel type and provide total carbon equivalent with coefficients
+   \memo Also used in Source=>Site conversions.
+  N1, \field District Heating Efficiency
+      \note District heating efficiency used when converted to natural gas
+      \minimum> 0.0
+      \default 0.3
+  N2, \field District Cooling COP
+      \note District cooling COP used when converted to electricity
+      \units W/W
+      \minimum> 0.0
+      \default 3.0
+  N3, \field Steam Conversion Efficiency
+      \note Steam conversion efficiency used to convert steam usage to natural gas
+      \minimum> 0.0
+      \default 0.25
+  N4, \field Total Carbon Equivalent Emission Factor From N2O
+      \units kg/kg
+      \default 80.7272
+  N5, \field Total Carbon Equivalent Emission Factor From CH4
+      \units kg/kg
+      \default 6.2727
+  N6; \field Total Carbon Equivalent Emission Factor From CO2
+      \units kg/kg
+      \default 0.2727
+
+FuelFactors,
+     \memo Provides Fuel Factors for Emissions as well as Source=>Site conversions.
+     \memo OtherFuel1, OtherFuel2 provide options for users who want to create and use
+     \memo fuels that may not be mainstream (biomass, wood, pellets).
+  A1,   \field Existing Fuel Resource Name
+        \type choice
+        \key Electricity
+        \key NaturalGas
+        \key FuelOilNo1
+        \key FuelOilNo2
+        \key Coal
+        \key Gasoline
+        \key Propane
+        \key Diesel
+        \key OtherFuel1
+        \key OtherFuel2
+  A2,   \field Units of Measure
+  N1,   \field Energy per Unit Factor
+  N2,   \field Source Energy Factor
+        \units J/J
+  A3,   \field Source Energy Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  N3,   \field CO2 Emission Factor
+        \units g/MJ
+  A4,   \field CO2 Emission Factor Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  N4,   \field CO Emission Factor
+        \units g/MJ
+  A5,   \field CO Emission Factor Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  N5,   \field CH4 Emission Factor
+        \units g/MJ
+  A6,   \field CH4 Emission Factor Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  N6,   \field NOx Emission Factor
+        \units g/MJ
+  A7,   \field NOx Emission Factor Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  N7,   \field N2O Emission Factor
+        \units g/MJ
+  A8,   \field N2O Emission Factor Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  N8,   \field SO2 Emission Factor
+        \units g/MJ
+  A9,   \field SO2 Emission Factor Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  N9,   \field PM Emission Factor
+        \units g/MJ
+  A10,  \field PM Emission Factor Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  N10,  \field PM10 Emission Factor
+        \units g/MJ
+  A11,  \field PM10 Emission Factor Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  N11,  \field PM2.5 Emission Factor
+        \units g/MJ
+  A12,  \field PM2.5 Emission Factor Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  N12,  \field NH3 Emission Factor
+        \units g/MJ
+  A13,  \field NH3 Emission Factor Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  N13,  \field NMVOC Emission Factor
+        \units g/MJ
+  A14,  \field NMVOC Emission Factor Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  N14,  \field Hg Emission Factor
+        \units g/MJ
+  A15,  \field Hg Emission Factor Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  N15,  \field Pb Emission Factor
+        \units g/MJ
+  A16,  \field Pb Emission Factor Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  N16,  \field Water Emission Factor
+        \units L/MJ
+  A17,  \field Water Emission Factor Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  N17,  \field Nuclear High Level Emission Factor
+        \units g/MJ
+  A18,  \field Nuclear High Level Emission Factor Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+  N18,  \field Nuclear Low Level Emission Factor
+        \units m3/MJ
+  A19;  \field Nuclear Low Level Emission Factor Schedule Name
+        \type object-list
+        \object-list ScheduleNames
+
+Output:Diagnostics,
+    \memo Special keys to produce certain warning messages or effect certain simulation characteristics.
+    \extensible:1
+    \unique-object
+  A1 , \field Key 1
+       \begin-extensible
+       \type choice
+       \key DisplayAllWarnings
+       \key DisplayExtraWarnings
+       \key DisplayUnusedSchedules
+       \key DisplayUnusedObjects
+       \key DisplayAdvancedReportVariables
+       \key DisplayZoneAirHeatBalanceOffBalance
+       \key DoNotMirrorDetachedShading
+       \key DoNotMirrorAttachedShading
+       \key DisplayWeatherMissingDataWarnings
+       \key ReportDuringWarmup
+       \key ReportDetailedWarmupConvergence
+       \key ReportDuringHVACSizingSimulation
+  A2 , \field Key 2
+       \type choice
+       \key DisplayAllWarnings
+       \key DisplayExtraWarnings
+       \key DisplayUnusedSchedules
+       \key DisplayUnusedObjects
+       \key DisplayAdvancedReportVariables
+       \key DisplayZoneAirHeatBalanceOffBalance
+       \key DoNotMirrorDetachedShading
+       \key DoNotMirrorAttachedShading
+       \key DisplayWeatherMissingDataWarnings
+       \key ReportDuringWarmup
+       \key ReportDetailedWarmupConvergence
+       \key ReportDuringHVACSizingSimulation
+  A3 , \field Key 3
+       \type choice
+       \key DisplayAllWarnings
+       \key DisplayExtraWarnings
+       \key DisplayUnusedSchedules
+       \key DisplayUnusedObjects
+       \key DisplayAdvancedReportVariables
+       \key DisplayZoneAirHeatBalanceOffBalance
+       \key DoNotMirrorDetachedShading
+       \key DoNotMirrorAttachedShading
+       \key DisplayWeatherMissingDataWarnings
+       \key ReportDuringWarmup
+       \key ReportDetailedWarmupConvergence
+       \key ReportDuringHVACSizingSimulation
+  A4 , \field Key 4
+       \type choice
+       \key DisplayAllWarnings
+       \key DisplayExtraWarnings
+       \key DisplayUnusedSchedules
+       \key DisplayUnusedObjects
+       \key DisplayAdvancedReportVariables
+       \key DisplayZoneAirHeatBalanceOffBalance
+       \key DoNotMirrorDetachedShading
+       \key DoNotMirrorAttachedShading
+       \key DisplayWeatherMissingDataWarnings
+       \key ReportDuringWarmup
+       \key ReportDetailedWarmupConvergence
+       \key ReportDuringHVACSizingSimulation
+  A5 ; \field Key 5
+       \type choice
+       \key DisplayAllWarnings
+       \key DisplayExtraWarnings
+       \key DisplayUnusedSchedules
+       \key DisplayUnusedObjects
+       \key DisplayAdvancedReportVariables
+       \key DisplayZoneAirHeatBalanceOffBalance
+       \key DoNotMirrorDetachedShading
+       \key DoNotMirrorAttachedShading
+       \key DisplayWeatherMissingDataWarnings
+       \key ReportDuringWarmup
+       \key ReportDetailedWarmupConvergence
+       \key ReportDuringHVACSizingSimulation
+
+Output:DebuggingData,
+       \memo switch eplusout.dbg file on or off
+       \unique-object
+  A1,  \field Report Debugging Data
+       \type choice
+       \key Yes
+       \key No
+       \default No
+  A2;  \field Report During Warmup
+       \type choice
+       \key Yes
+       \key No
+       \default No
+
+Output:PreprocessorMessage,
+   \memo This object does not come from a user input. This is generated by a pre-processor
+   \memo so that various conditions can be gracefully passed on by the InputProcessor.
+   A1,  \field Preprocessor Name
+        \retaincase
+   A2,  \field Error Severity
+        \note Depending on type, InputProcessor may terminate the program.
+        \type choice
+        \key Information
+        \key Warning
+        \key Severe
+        \key Fatal
+        \retaincase
+   A3,  \field Message Line 1
+        \retaincase
+   A4,  \field Message Line 2
+        \retaincase
+   A5,  \field Message Line 3
+        \retaincase
+   A6,  \field Message Line 4
+        \retaincase
+   A7,  \field Message Line 5
+        \retaincase
+   A8,  \field Message Line 6
+        \retaincase
+   A9,  \field Message Line 7
+        \retaincase
+   A10, \field Message Line 8
+        \retaincase
+   A11, \field Message Line 9
+        \retaincase
+   A12; \field Message Line 10
+        \retaincase
+
+\group Python Plugin System
+
+PythonPlugin:SearchPaths,
+       \memo Add directories to the search path for Python plugin modules
+       \memo The directory containing the EnergyPlus executable file is
+       \memo automatically added so that the Python interpreter can find the
+       \memo packaged up pyenergyplus Python package.
+       \memo By default, the current working directory and input file directory
+       \memo are also added to the search path. However, this object allows
+       \memo modifying this behavior. With this object, searching these directories
+       \memo can be disabled, and users can add supplemental search paths
+       \memo that point to libraries of plugin scripts.
+       \unique-object
+       \min-fields 1
+       \extensible:1
+   A1, \field Name
+       \type alpha
+       \required-field
+   A2, \field Add Current Working Directory to Search Path
+       \note Adding the current working directory allows Python to find
+       \note plugin scripts in the current directory.
+       \required-field
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+   A3, \field Add Input File Directory to Search Path
+       \note Enabling this will allow Python to find plugin scripts in the
+       \note same directory as the running input file, even if that is not
+       \note the current working directory.
+       \required-field
+       \type choice
+       \key Yes
+       \key No
+       \default Yes
+   A4, \field Search Path 1
+       \type alpha
+       \begin-extensible
+       \retaincase
+   A5, \field Search Path 2
+       \type alpha
+       \retaincase
+   A6, \field Search Path 3
+       \type alpha
+       \retaincase
+   A7, \field Search Path 4
+       \type alpha
+       \retaincase
+   A8, \field Search Path 5
+       \type alpha
+       \retaincase
+   A9, \field Search Path 6
+       \type alpha
+       \retaincase
+   A10,\field Search Path 7
+       \type alpha
+       \retaincase
+   A11,\field Search Path 8
+       \type alpha
+       \retaincase
+   A12,\field Search Path 9
+       \type alpha
+       \retaincase
+   A13;\field Search Path 10
+       \type alpha
+       \retaincase
+
+PythonPlugin:Instance,
+       \memo A single plugin to be executed during the simulation, which can contain multiple calling points
+       \memo for the same class instance by overriding multiple calling point methods.
+       \min-fields 4
+   A1, \field Name
+       \required-field
+       \type alpha
+       \note This is the name used to represent this plugin in traditional EMS fields
+   A2, \field Run During Warmup Days
+       \required-field
+       \note If this field is enabled, the plugin will be executed during warmup days, otherwise it
+       \note will only be executed once warmup is completed and the actual run period begins
+       \type choice
+       \key Yes
+       \key No
+       \default No
+   A3, \field Python Module Name
+       \required-field
+       \type alpha
+       \note This is the name of the Python file, without a file extension. For "plugin_b.py", use just "plugin_b".
+       \note The Python plugin file must be on the plugin system search path to be found during a simulation
+       \note Additional directories can be added to the search path using the PythonPlugin:SearchPaths object
+   A4; \field Plugin Class Name
+       \required-field
+       \type alpha
+       \note This is the name of the class to be executed as a plugin during a simulation
+       \note The class must inherit the EnergyPlusPlugin base class
+
+PythonPlugin:Variables,
+        \memo This object defines name identifiers for custom Python Plugin variable data that should be shared
+        \memo among all running Python Plugins.
+        \unique-object
+        \min-fields 2
+        \extensible:1
+   A1,  \field Name
+        \required-field
+        \type alpha
+        \note This object name is purely for reporting and diagnostics
+   A2,  \field Variable Name 1
+        \type alpha
+        \begin-extensible
+        \note This variable is used to identify and create a shared variable in EnergyPlus.
+        \note This variable can then be used by all running Python Plugin instances.
+   A3,  \field Variable Name 2
+        \type alpha
+   A4,  \field Variable Name 3
+        \type alpha
+   A5,  \field Variable Name 4
+        \type alpha
+   A6,  \field Variable Name 5
+        \type alpha
+   A7,  \field Variable Name 6
+        \type alpha
+   A8,  \field Variable Name 7
+        \type alpha
+   A9,  \field Variable Name 8
+        \type alpha
+   A10, \field Variable Name 9
+        \type alpha
+   A11; \field Variable Name 10
+        \type alpha
+
+PythonPlugin:TrendVariable,
+       \memo This object sets up a Python plugin trend variable from an Python plugin variable
+       \memo A trend variable logs values across timesteps
+       \min-fields 3
+  A1 , \field Name
+       \required-field
+       \type alpha
+  A2 , \field Name of a Python Plugin Variable
+       \required-field
+       \type alpha
+  N1 ; \field Number of Timesteps to be Logged
+       \required-field
+       \type integer
+       \minimum 1
+
+PythonPlugin:OutputVariable,
+       \memo This object sets up an EnergyPlus output variable from a Python Plugin variable
+       \min-fields 4
+   A1, \field Name
+       \required-field
+       \type alpha
+   A2, \field Python Plugin Variable Name
+       \required-field
+       \type alpha
+       \note Must be listed in the PythonPlugin:Variables object
+   A3, \field Type of Data in Variable
+       \required-field
+       \type choice
+       \key Averaged
+       \key Summed
+       \key Metered
+       \note If Metered is selected, the variable is automatically set to a "Summed" type, and the
+       \note Resource Type, Group Type, and End-Use Subcategory fields on this object are required
+   A4, \field Update Frequency
+       \required-field
+       \type choice
+       \key ZoneTimestep
+       \key SystemTimestep
+   A5, \field Units
+       \note optional but will result in dimensionless units for blank
+       \note EnergyPlus units are standard SI units
+       \type alpha
+   A6, \field Resource Type
+       \note This field is optional for regular output variables with "Type of Data in Variable" set to
+       \note either Averaged or Summed. For Metered variables, this field is required.
+       \note Choose the type of fuel, water, electricity, pollution or heat rate that should be metered.
+       \type choice
+       \key Electricity
+       \key NaturalGas
+       \key Gasoline
+       \key Diesel
+       \key Coal
+       \key FuelOilNo1
+       \key FuelOilNo2
+       \key Propane
+       \key OtherFuel1
+       \key OtherFuel2
+       \key WaterUse
+       \key OnSiteWaterProduced
+       \key MainsWaterSupply
+       \key RainWaterCollected
+       \key WellWaterDrawn
+       \key CondensateWaterCollected
+       \key EnergyTransfer
+       \key Steam
+       \key DistrictCooling
+       \key DistrictHeating
+       \key ElectricityProducedOnSite
+       \key SolarWaterHeating
+       \key SolarAirHeating
+   A7, \field Group Type
+       \note This field is optional for regular output variables with "Type of Data in Variable" set to
+       \note either Averaged or Summed. For Metered variables, this field is required.
+       \note Choose a general classification, building (internal services), HVAC (air systems), or plant (hydronic systems), or system
+       \type choice
+       \key Building
+       \key HVAC
+       \key Plant
+       \key System
+   A8, \field End-Use Category
+       \note This field is optional for regular output variables with "Type of Data in Variable" set to
+       \note either Averaged or Summed. For Metered variables, this field is required.
+       \note Choose how the metered output should be classified for end-use category
+       \type choice
+       \key Heating
+       \key Cooling
+       \key InteriorLights
+       \key ExteriorLights
+       \key InteriorEquipment
+       \key ExteriorEquipment
+       \key Fans
+       \key Pumps
+       \key HeatRejection
+       \key Humidifier
+       \key HeatRecovery
+       \key WaterSystems
+       \key Refrigeration
+       \key OnSiteGeneration
+       \key HeatingCoils
+       \key CoolingCoils
+       \key Chillers
+       \key Boilers
+       \key Baseboard
+       \key HeatRecoveryForCooling
+       \key HeatRecoveryForHeating
+   A9; \field End-Use Subcategory
+       \note This field is always optional. For regular output variables with "Type of Data in Variable" set to
+       \note either Averaged or Summed, this field is completely ignored. For Metered variables, this field is
+       \note optional, but allows custom categorization of the end-uses in the ABUPS End Uses by Subcategory table.
+       \note Enter a user-defined subcategory for this metered output
+       \type alpha
+       \retaincase
diff --git a/exports/exports/formats/idf_files/Minimal.idf b/exports/exports/formats/idf_files/Minimal.idf
new file mode 100644
index 00000000..c56db8eb
--- /dev/null
+++ b/exports/exports/formats/idf_files/Minimal.idf
@@ -0,0 +1,151 @@
+! Minimal.idf
+! Basic file description: This is a minimal configuration necessary to run.
+! Highlights: Illustrates minimal items necessary to perform run.
+! BUILDING, SURFACEGEOMETRY, LOCATION and DESIGNDAY (or RUNPERIOD) are the absolute minimal required input objects.
+! TIME STEP IN HOUR is included so as to not get warning error.
+! Including two design days, Run Control object and RunPeriod to facilitate use.
+! Although not incredibly useful, this could be used as a weather/solar calculator.
+! Simulation Location/Run: Denver is included.  Any could be used.
+! Building: None.
+!
+! Internal gains description: None.
+!
+! HVAC: None.
+!
+
+  Version,9.5;
+
+  Timestep,4;
+
+  Building,
+    None,                    !- Name
+    0.0000000E+00,           !- North Axis {deg}
+    Suburbs,                 !- Terrain
+    0.04,                    !- Loads Convergence Tolerance Value {W}
+    0.40,                    !- Temperature Convergence Tolerance Value {deltaC}
+    FullInteriorAndExterior, !- Solar Distribution
+    25,                      !- Maximum Number of Warmup Days
+    6;                       !- Minimum Number of Warmup Days
+
+  GlobalGeometryRules,
+    UpperLeftCorner,         !- Starting Vertex Position
+    CounterClockWise,        !- Vertex Entry Direction
+    World;                   !- Coordinate System
+
+  Site:Location,
+    DENVER_STAPLETON_CO_USA_WMO_724690,  !- Name
+    39.77,                   !- Latitude {deg}
+    -104.87,                 !- Longitude {deg}
+    -7.00,                   !- Time Zone {hr}
+    1611.00;                 !- Elevation {m}
+
+ ! DENVER_STAPLETON_CO_USA Annual Heating Design Conditions Wind Speed=2.3m/s Wind Dir=180
+ ! Coldest Month=December
+ ! DENVER_STAPLETON_CO_USA Annual Heating 99.6%, MaxDB=-20°C
+
+  SizingPeriod:DesignDay,
+    DENVER_STAPLETON Ann Htg 99.6% Condns DB,  !- Name
+    12,                      !- Month
+    21,                      !- Day of Month
+    WinterDesignDay,         !- Day Type
+    -20,                     !- Maximum Dry-Bulb Temperature {C}
+    0.0,                     !- Daily Dry-Bulb Temperature Range {deltaC}
+    ,                        !- Dry-Bulb Temperature Range Modifier Type
+    ,                        !- Dry-Bulb Temperature Range Modifier Day Schedule Name
+    Wetbulb,                 !- Humidity Condition Type
+    -20,                     !- Wetbulb or DewPoint at Maximum Dry-Bulb {C}
+    ,                        !- Humidity Condition Day Schedule Name
+    ,                        !- Humidity Ratio at Maximum Dry-Bulb {kgWater/kgDryAir}
+    ,                        !- Enthalpy at Maximum Dry-Bulb {J/kg}
+    ,                        !- Daily Wet-Bulb Temperature Range {deltaC}
+    83411.,                  !- Barometric Pressure {Pa}
+    2.3,                     !- Wind Speed {m/s}
+    180,                     !- Wind Direction {deg}
+    No,                      !- Rain Indicator
+    No,                      !- Snow Indicator
+    No,                      !- Daylight Saving Time Indicator
+    ASHRAEClearSky,          !- Solar Model Indicator
+    ,                        !- Beam Solar Day Schedule Name
+    ,                        !- Diffuse Solar Day Schedule Name
+    ,                        !- ASHRAE Clear Sky Optical Depth for Beam Irradiance (taub) {dimensionless}
+    ,                        !- ASHRAE Clear Sky Optical Depth for Diffuse Irradiance (taud) {dimensionless}
+    0.00;                    !- Sky Clearness
+
+ ! DENVER_STAPLETON Annual Cooling Design Conditions Wind Speed=4m/s Wind Dir=120
+ ! Hottest Month=July
+ ! DENVER_STAPLETON_CO_USA Annual Cooling (DB=>MWB) .4%, MaxDB=34.1°C MWB=15.8°C
+
+  SizingPeriod:DesignDay,
+    DENVER_STAPLETON Ann Clg .4% Condns DB=>MWB,  !- Name
+    7,                       !- Month
+    21,                      !- Day of Month
+    SummerDesignDay,         !- Day Type
+    34.1,                    !- Maximum Dry-Bulb Temperature {C}
+    15.2,                    !- Daily Dry-Bulb Temperature Range {deltaC}
+    ,                        !- Dry-Bulb Temperature Range Modifier Type
+    ,                        !- Dry-Bulb Temperature Range Modifier Day Schedule Name
+    Wetbulb,                 !- Humidity Condition Type
+    15.8,                    !- Wetbulb or DewPoint at Maximum Dry-Bulb {C}
+    ,                        !- Humidity Condition Day Schedule Name
+    ,                        !- Humidity Ratio at Maximum Dry-Bulb {kgWater/kgDryAir}
+    ,                        !- Enthalpy at Maximum Dry-Bulb {J/kg}
+    ,                        !- Daily Wet-Bulb Temperature Range {deltaC}
+    83411.,                  !- Barometric Pressure {Pa}
+    4,                       !- Wind Speed {m/s}
+    120,                     !- Wind Direction {deg}
+    No,                      !- Rain Indicator
+    No,                      !- Snow Indicator
+    No,                      !- Daylight Saving Time Indicator
+    ASHRAEClearSky,          !- Solar Model Indicator
+    ,                        !- Beam Solar Day Schedule Name
+    ,                        !- Diffuse Solar Day Schedule Name
+    ,                        !- ASHRAE Clear Sky Optical Depth for Beam Irradiance (taub) {dimensionless}
+    ,                        !- ASHRAE Clear Sky Optical Depth for Diffuse Irradiance (taud) {dimensionless}
+    1.00;                    !- Sky Clearness
+
+  RunPeriod,
+    Run Period 1,            !- Name
+    1,                       !- Begin Month
+    1,                       !- Begin Day of Month
+    ,                        !- Begin Year
+    12,                      !- End Month
+    31,                      !- End Day of Month
+    ,                        !- End Year
+    Tuesday,                 !- Day of Week for Start Day
+    Yes,                     !- Use Weather File Holidays and Special Days
+    Yes,                     !- Use Weather File Daylight Saving Period
+    No,                      !- Apply Weekend Holiday Rule
+    Yes,                     !- Use Weather File Rain Indicators
+    Yes;                     !- Use Weather File Snow Indicators
+
+  SimulationControl,
+    No,                      !- Do Zone Sizing Calculation
+    No,                      !- Do System Sizing Calculation
+    No,                      !- Do Plant Sizing Calculation
+    Yes,                     !- Run Simulation for Sizing Periods
+    No,                      !- Run Simulation for Weather File Run Periods
+    No,                      !- Do HVAC Sizing Simulation for Sizing Periods
+    1;                       !- Maximum Number of HVAC Sizing Simulation Passes
+
+  Output:VariableDictionary,Regular;
+
+  Output:Variable,*,Site Outdoor Air Drybulb Temperature,Timestep;
+
+  Output:Variable,*,Site Outdoor Air Wetbulb Temperature,Timestep;
+
+  Output:Variable,*,Site Outdoor Air Dewpoint Temperature,Timestep;
+
+  Output:Variable,*,Site Solar Azimuth Angle,Timestep;
+
+  Output:Variable,*,Site Solar Altitude Angle,Timestep;
+
+  Output:Variable,*,Site Direct Solar Radiation Rate per Area,Timestep;
+
+  Output:Variable,*,Site Diffuse Solar Radiation Rate per Area,Timestep;
+
+  OutputControl:Table:Style,
+    HTML;                    !- Column Separator
+
+  Output:Table:SummaryReports,
+    AllSummary;              !- Report 1 Name
+
diff --git a/exports/exports/formats/obj.py b/exports/exports/formats/obj.py
new file mode 100644
index 00000000..00e84e1f
--- /dev/null
+++ b/exports/exports/formats/obj.py
@@ -0,0 +1,32 @@
+"""
+export a city into Obj format
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+
+from pathlib import Path
+import trimesh.exchange.obj
+from exports.formats.triangular import Triangular
+from imports.geometry_factory import GeometryFactory
+
+
+class Obj(Triangular):
+  """
+  Export to obj format
+  """
+  def __init__(self, city, path):
+    super().__init__(city, path, 'obj')
+
+  def to_ground_points(self):
+    """
+    Move closer to the origin
+    """
+    file_name_in = self._city.name + '.' + self._triangular_format
+    file_name_out = self._city.name + '_ground.' + self._triangular_format
+    file_path_in = (Path(self._path).resolve() / file_name_in).resolve()
+    file_path_out = (Path(self._path).resolve() / file_name_out).resolve()
+    scene = GeometryFactory('obj', file_path_in).scene
+    scene.rezero()
+    obj_file = trimesh.exchange.obj.export_obj(scene)
+    with open(file_path_out, 'w') as file:
+      file.write(obj_file)
diff --git a/exports/exports/formats/simplified_radiosity_algorithm.py b/exports/exports/formats/simplified_radiosity_algorithm.py
new file mode 100644
index 00000000..11205f41
--- /dev/null
+++ b/exports/exports/formats/simplified_radiosity_algorithm.py
@@ -0,0 +1,88 @@
+"""
+Simplified Radiosity Algorithm
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guillermo.GutierrezMorote@concordia.ca
+"""
+import xmltodict
+
+
+class SimplifiedRadiosityAlgorithm:
+  """
+  Export to SRA format
+  """
+  def __init__(self, city, file_name, begin_month=1, begin_day=1, end_month=12, end_day=31):
+    self._file_name = file_name
+    self._begin_month = begin_month
+    self._begin_day = begin_day
+    self._end_month = end_month
+    self._end_day = end_day
+    self._city = city
+    self._export()
+
+  def _correct_point(self, point):
+    # correct the x, y, z values into the reference frame set by city lower_corner
+    x = point[0] - self._city.lower_corner[0]
+    y = point[1] - self._city.lower_corner[1]
+    z = point[2] - self._city.lower_corner[2]
+    return [x, y, z]
+
+  def _export(self, target_buildings_names=None):
+    buildings = []
+    for building_index, building in enumerate(self._city.buildings):
+      if target_buildings_names is None:
+        simulate = 'true'
+      else:
+        simulate = 'false'
+        for name in target_buildings_names:
+          if building.name == name:
+            simulate = 'true'
+      building_dict = {
+        '@Name': f'{building.name}',
+        '@id': f'{building_index}',
+        '@key': f'{building.name}',
+        '@Simulate': f'{simulate}'
+      }
+      walls, roofs, floors = [], [], []
+      for surface in building.surfaces:
+        surface_dict = {
+          '@id': f'{surface.id}',
+          '@ShortWaveReflectance': f'{surface.swr}'
+        }
+        for point_index, point in enumerate(surface.perimeter_polygon.coordinates):
+          point = self._correct_point(point)
+          surface_dict[f'V{point_index}'] = {
+            '@x': f'{point[0]}',
+            '@y': f'{point[1]}',
+            '@z': f'{point[2]}'
+          }
+        if surface.type == 'Wall':
+          walls.append(surface_dict)
+        elif surface.type == 'Roof':
+          roofs.append(surface_dict)
+        else:
+          floors.append(surface_dict)
+      building_dict['Wall'] = walls
+      building_dict['Roof'] = roofs
+      building_dict['Floor'] = floors
+      buildings.append(building_dict)
+    sra = {
+      'CitySim': {
+        '@name': f'{self._file_name.name}',
+        'Simulation': {
+          '@beginMonth': f'{self._begin_month}',
+          '@beginDay': f'{self._begin_day}',
+          '@endMonth': f'{self._end_month}',
+          '@endDay': f'{self._end_day}',
+        },
+        'Climate': {
+          '@location': f'{self._city.climate_file}',
+          '@city': f'{self._city.climate_reference_city}'
+        },
+        'District': {
+          'FarFieldObstructions': None,
+          'Building': buildings
+        }
+      }
+    }
+    with open(self._file_name, "w") as file:
+      file.write(xmltodict.unparse(sra, pretty=True, short_empty_elements=True))
diff --git a/exports/exports/formats/stl.py b/exports/exports/formats/stl.py
new file mode 100644
index 00000000..ac1d2aed
--- /dev/null
+++ b/exports/exports/formats/stl.py
@@ -0,0 +1,15 @@
+"""
+export a city into Stl format
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+
+from exports.formats.triangular import Triangular
+
+
+class Stl(Triangular):
+  """
+  Export to STL
+  """
+  def __init__(self, city, path):
+    super().__init__(city, path, 'stl', write_mode='wb')
diff --git a/exports/exports/formats/triangular.py b/exports/exports/formats/triangular.py
new file mode 100644
index 00000000..60292a76
--- /dev/null
+++ b/exports/exports/formats/triangular.py
@@ -0,0 +1,31 @@
+"""
+export a city from trimesh into Triangular format (obj or stl)
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+from pathlib import Path
+from trimesh import Trimesh
+
+
+class Triangular:
+  """
+  Superclass to export to triangular format (STL or OBJ)
+  """
+  def __init__(self, city, path, triangular_format, write_mode='w'):
+    self._city = city
+    self._path = path
+    self._triangular_format = triangular_format
+    self._write_mode = write_mode
+    self._export()
+
+  def _export(self):
+    if self._city.name is None:
+      self._city.name = 'unknown_city'
+    file_name = self._city.name + '.' + self._triangular_format
+    file_path = (Path(self._path).resolve() / file_name).resolve()
+    trimesh = Trimesh()
+    for building in self._city.buildings:
+      trimesh = trimesh.union(building.simplified_polyhedron.trimesh)
+
+    with open(file_path, self._write_mode) as file:
+      file.write(trimesh.export(file_type=self._triangular_format))
diff --git a/helpers/helpers/configuration_helper.py b/helpers/helpers/configuration_helper.py
new file mode 100644
index 00000000..20ee7819
--- /dev/null
+++ b/helpers/helpers/configuration_helper.py
@@ -0,0 +1,41 @@
+"""
+Configuration helper
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+import configparser
+from pathlib import Path
+
+
+class ConfigurationHelper:
+  """
+  Configuration class
+  """
+  def __init__(self):
+    config_file = Path(Path(__file__).parent.parent / 'config/configuration.ini').resolve()
+    self._config = configparser.ConfigParser()
+    self._config.read(config_file)
+
+  @property
+  def max_location_distance_for_shared_walls(self):
+    """
+    Configured maximal distance between attributes to consider that they may share walls in meters
+    :return: float
+    """
+    return self._config.getfloat('buildings', 'max_location_distance_for_shared_walls')
+
+  @property
+  def min_coordinate(self) -> float:
+    """
+    Configured minimal coordinate value
+    :return: float
+    """
+    return self._config.getfloat('buildings', 'min_coordinate')
+
+  @property
+  def max_coordinate(self) -> float:
+    """
+    Configured maximal coordinate value
+    :return: float
+    """
+    return self._config.getfloat('buildings', 'max_coordinate')
diff --git a/helpers/helpers/constants.py b/helpers/helpers/constants.py
new file mode 100644
index 00000000..af70f0ce
--- /dev/null
+++ b/helpers/helpers/constants.py
@@ -0,0 +1,57 @@
+"""
+Constant module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+
+# universal constants
+KELVIN = 273.15
+
+# time
+MINUTE = 'minute'
+HOUR = 'hour'
+DAY = 'day'
+WEEK = 'week'
+MONTH = 'month'
+YEAR = 'year'
+
+# todo: modify code to use global constants instead of hard-coded values
+# surface types
+WALL = 'Wall'
+GROUND_WALL = 'Ground wall'
+GROUND = 'Ground'
+ATTIC_FLOOR = 'Attic floor'
+ROOF = 'Roof'
+INTERIOR_SLAB = 'Interior slab'
+INTERIOR_WALL = 'Interior wall'
+VIRTUAL_INTERNAL = 'Virtual internal'
+WINDOW = 'Window'
+DOOR = 'Door'
+SKYLIGHT = 'Skylight'
+
+# todo: homogenize function and usage!!
+# function
+RESIDENTIAL = 'residential'
+SFH = 'single family house'
+MFH = 'multifamily house'
+HOTEL = 'hotel'
+HOSPITAL = 'hospital'
+OUTPATIENT = 'outpatient'
+COMMERCIAL = 'commercial'
+STRIP_MALL = 'strip mall'
+WAREHOUSE = 'warehouse'
+PRIMARY_SCHOOL = 'primary school'
+SECONDARY_SCHOOL = 'secondary school'
+OFFICE = 'office'
+LARGE_OFFICE = 'large office'
+OFFICE_WORKSHOP = 'office/workshop'
+
+# usage
+INDUSTRY = 'industry'
+OFFICE_ADMINISTRATION = 'office and administration'
+HEALTH_CARE = 'health care'
+RETAIL = 'retail'
+HALL = 'hall'
+RESTAURANT = 'restaurant'
+EDUCATION = 'education'
diff --git a/helpers/helpers/enrich_city.py b/helpers/helpers/enrich_city.py
new file mode 100644
index 00000000..11d651e1
--- /dev/null
+++ b/helpers/helpers/enrich_city.py
@@ -0,0 +1,99 @@
+"""
+Enrich city
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+from imports.construction_factory import ConstructionFactory
+from imports.usage_factory import UsageFactory
+from imports.schedules_factory import SchedulesFactory
+
+
+class EnrichCity:
+  """
+  Enrich city
+  """
+
+  def __init__(self, city):
+    self._city = city
+    self._enriched_city = None
+    self._errors = []
+
+  @property
+  def errors(self) -> [str]:
+    """
+    Error list
+    """
+    return self._errors
+
+  def enriched_city(self, construction_format=None, usage_format=None, schedules_format=None):
+    """
+    Enrich the city with the given formats
+    :return: City
+    """
+    if self._enriched_city is None:
+      self._errors = []
+      print('original:', len(self._city.buildings))
+      if construction_format is not None:
+        self._enriched_city = self._construction(construction_format)
+        if len(self._errors) != 0:
+          return self._enriched_city
+      if usage_format is not None:
+        self._enriched_city = self._usage(usage_format)
+        if len(self._errors) != 0:
+          return self._enriched_city
+      if schedules_format is not None:
+        self._enriched_city = self._schedules(schedules_format)
+        if len(self._errors) != 0:
+          return self._enriched_city
+      self._enriched_city = self._city
+    return self._enriched_city
+
+  def _construction(self, construction_format):
+
+    # todo: in construction factory, when adding the values to the thermal zones,
+    #  these are created using the just read storeys_above_ground -> review where to assign this value!!
+    ConstructionFactory(construction_format, self._city).enrich()
+    for building in self._city.buildings:
+      # infiltration_rate_system_off is a mandatory parameter.
+      # If it is not returned, extract the building from the calculation list
+      if building.thermal_zones[0].infiltration_rate_system_off is None:
+        self._city.remove_city_object(building)
+      if self._city.buildings is None:
+        self._errors.append('no archetype found per construction')
+        self._enriched_city = self._city
+        return self._enriched_city
+    print('enriched with construction:', len(self._city.buildings))
+    return self._city
+
+  def _usage(self, usage_format):
+    UsageFactory(usage_format, self._city).enrich()
+    for building in self._city.buildings:
+      # At least one thermal zone must be created.
+      # If it is not created, extract the building from the calculation list
+      if len(building.usage_zones) <= 0:
+        self._city.remove_city_object(building)
+      if self._city.buildings is None:
+        self._errors.append('no archetype found per usage')
+        self._enriched_city = self._city
+        return self._enriched_city
+    print('enriched with usage:', len(self._city.buildings))
+    return self._city
+
+  def _schedules(self, schedules_format):
+    SchedulesFactory(schedules_format, self._city).enrich()
+    for building in self._city.buildings:
+      counter_schedules = 0
+      for usage_zone in building.usage_zones:
+        # At least one schedule must be created at each thermal zone.
+        # If it is not created, extract the building from the calculation list
+        if len(usage_zone.schedules) > 0:
+          counter_schedules += 1
+      if counter_schedules < len(building.usage_zones):
+        self._city.remove_city_object(building)
+    if self._city.buildings is None:
+      self._errors.append('no archetype found per usage')
+      self._enriched_city = self._city
+      return self._enriched_city
+    print('enriched with occupancy:', len(self._city.buildings))
+    return self._city
diff --git a/helpers/helpers/geometry_helper.py b/helpers/helpers/geometry_helper.py
new file mode 100644
index 00000000..37d95253
--- /dev/null
+++ b/helpers/helpers/geometry_helper.py
@@ -0,0 +1,196 @@
+"""
+Geometry helper
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+Contributors Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import math
+import numpy as np
+import requests
+from trimesh import Trimesh
+from trimesh import intersections
+from city_model_structure.attributes.polygon import Polygon
+from city_model_structure.attributes.polyhedron import Polyhedron
+from helpers.location import Location
+from helpers.configuration_helper import ConfigurationHelper
+
+
+class GeometryHelper:
+  """
+  Geometry helper class
+  """
+
+  def __init__(self, delta=0, area_delta=0):
+    self._delta = delta
+    self._area_delta = area_delta
+
+  @staticmethod
+  def adjacent_locations(location1, location2):
+    """
+    Determine when two attributes may be adjacent or not based in the dis
+    :param location1:
+    :param location2:
+    :return: Boolean
+    """
+    max_distance = ConfigurationHelper().max_location_distance_for_shared_walls
+    return GeometryHelper.distance_between_points(location1, location2) < max_distance
+
+  def almost_same_area(self, a1, a2):
+    """
+    Compare two areas and decides if they are almost equal (absolute error under delta)
+    :param a1
+    :param a2
+    :return: Boolean
+    """
+    if a1 == 0 or a2 == 0:
+      return False
+    delta = math.fabs(a1 - a2)
+    return delta <= self._area_delta
+
+  def is_almost_same_surface(self, s1, s2):
+    """
+    Compare two surfaces and decides if they are almost equal (quadratic error under delta)
+    :param s1: Surface
+    :param s2: Surface
+    :return: Boolean
+    """
+
+    # delta is grads an need to be converted into radians
+    delta = np.rad2deg(self._delta)
+    difference = (s1.inclination - s2.inclination) % math.pi
+    if abs(difference) > delta:
+      return False
+    # s1 and s2 are at least almost parallel surfaces
+    # calculate distance point to plane using all the vertex
+    # select surface1 value for the point (X,Y,Z) where two of the values are 0
+    minimum_distance = self._delta + 1
+    parametric = s2.polygon.get_parametric()
+    n2 = s2.normal
+    for point in s1.points:
+      distance = abs(
+        (point[0] * parametric[0]) + (point[1] * parametric[1]) + (point[2] * parametric[2]) + parametric[3])
+      normal_module = math.sqrt(pow(n2[0], 2) + pow(n2[1], 2) + pow(n2[2], 2))
+
+      if normal_module == 0:
+        continue
+      distance = distance / normal_module
+      if distance < minimum_distance:
+        minimum_distance = distance
+      if minimum_distance <= self._delta:
+        break
+
+    if minimum_distance > self._delta or s1.intersect(s2) is None:
+      return False
+    return True
+
+  @staticmethod
+  def segment_list_to_trimesh(lines) -> Trimesh:
+    """
+    Transform a list of segments into a Trimesh
+    """
+    line_points = [lines[0][0], lines[0][1]]
+    lines.remove(lines[0])
+    while len(lines) > 1:
+      i = 0
+      for line in lines:
+        i += 1
+        if GeometryHelper.distance_between_points(line[0], line_points[len(line_points) - 1]) < 1e-8:
+          line_points.append(line[1])
+          lines.pop(i - 1)
+          break
+        if GeometryHelper.distance_between_points(line[1], line_points[len(line_points) - 1]) < 1e-8:
+          line_points.append(line[0])
+          lines.pop(i - 1)
+          break
+    polyhedron = Polyhedron(Polygon(line_points).triangulate())
+    trimesh = Trimesh(polyhedron.vertices, polyhedron.faces)
+    return trimesh
+
+  @staticmethod
+  def _merge_meshes(mesh1, mesh2):
+    v_1 = mesh1.vertices
+    f_1 = mesh1.faces
+    v_2 = mesh2.vertices
+    f_2 = mesh2.faces
+    length = len(v_1)
+    v_merge = np.concatenate((v_1, v_2))
+    f_merge = np.asarray(f_1)
+
+    for item in f_2:
+      point1 = item.item(0) + length
+      point2 = item.item(1) + length
+      point3 = item.item(2) + length
+      surface = np.asarray([point1, point2, point3])
+      f_merge = np.concatenate((f_merge, [surface]))
+
+    mesh_merge = Trimesh(vertices=v_merge, faces=f_merge)
+    mesh_merge.fix_normals()
+
+    return mesh_merge
+
+  @staticmethod
+  def divide_mesh_by_plane(trimesh, normal_plane, point_plane):
+    """
+    Divide a mesh by a plane
+    :param trimesh: Trimesh
+    :param normal_plane: [x, y, z]
+    :param point_plane: [x, y, z]
+    :return: [Trimesh]
+    """
+    # The first mesh returns the positive side of the plane and the second the negative side.
+    # If the plane does not divide the mesh (i.e. it does not touch it or it is coplanar with one or more faces),
+    # then it returns only the original mesh.
+    # todo: review split method in https://github.com/mikedh/trimesh/issues/235,
+    #  once triangulate_polygon in Polygon class is solved
+
+    normal_plane_opp = [None] * len(normal_plane)
+    for i in range(0, len(normal_plane)):
+      normal_plane_opp[i] = - normal_plane[i]
+
+    section_1 = intersections.slice_mesh_plane(trimesh, normal_plane, point_plane)
+    if section_1 is None:
+      return [trimesh]
+    lines = list(intersections.mesh_plane(trimesh, normal_plane, point_plane))
+    cap = GeometryHelper.segment_list_to_trimesh(lines)
+    trimesh_1 = GeometryHelper._merge_meshes(section_1, cap)
+
+    section_2 = intersections.slice_mesh_plane(trimesh, normal_plane_opp, point_plane)
+    if section_2 is None:
+      return [trimesh_1]
+    trimesh_2 = GeometryHelper._merge_meshes(section_2, cap)
+
+    return [trimesh_1, trimesh_2]
+
+  @staticmethod
+  def get_location(latitude, longitude) -> Location:
+    """
+    Get Location from latitude and longitude
+    """
+    url = 'https://nominatim.openstreetmap.org/reverse?lat={latitude}&lon={longitude}&format=json'
+    response = requests.get(url.format(latitude=latitude, longitude=longitude))
+    if response.status_code != 200:
+      # This means something went wrong.
+      raise Exception('GET /tasks/ {}'.format(response.status_code))
+
+    response = response.json()
+    city = 'Unknown'
+    country = 'ca'
+    if 'city' in response['address']:
+      city = response['address']['city']
+    if 'country_code' in response['address']:
+      country = response['address']['country_code']
+    return Location(country, city)
+
+  @staticmethod
+  def distance_between_points(vertex1, vertex2):
+    """
+    distance between points in an n-D Euclidean space
+    :param vertex1: point or vertex
+    :param vertex2: point or vertex
+    :return: float
+    """
+    power = 0
+    for dimension in range(0, len(vertex1)):
+      power += math.pow(vertex2[dimension]-vertex1[dimension], 2)
+    distance = math.sqrt(power)
+    return distance
diff --git a/helpers/helpers/location.py b/helpers/helpers/location.py
new file mode 100644
index 00000000..f25d24e4
--- /dev/null
+++ b/helpers/helpers/location.py
@@ -0,0 +1,29 @@
+"""
+Location module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+Contributors Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+
+class Location:
+  """
+  Location
+  """
+  def __init__(self, country, city):
+    self._country = country
+    self._city = city
+
+  @property
+  def city(self):
+    """
+    City name
+    """
+    return self._city
+
+  @property
+  def country(self):
+    """
+    Country code
+    """
+    return self._country
diff --git a/helpers/helpers/monthly_to_hourly_demand.py b/helpers/helpers/monthly_to_hourly_demand.py
new file mode 100644
index 00000000..4251507f
--- /dev/null
+++ b/helpers/helpers/monthly_to_hourly_demand.py
@@ -0,0 +1,137 @@
+"""
+monthly_to_hourly_demand module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import calendar as cal
+import pandas as pd
+from city_model_structure.building_demand.occupants import Occupants
+import helpers.constants as cte
+
+
+class MonthlyToHourlyDemand:
+  """
+  MonthlyToHourlyDemand class
+  """
+  def __init__(self, building, conditioning_seasons):
+    self._hourly_heating = pd.DataFrame()
+    self._hourly_cooling = pd.DataFrame()
+    self._building = building
+    self._conditioning_seasons = conditioning_seasons
+
+  def hourly_heating(self, key):
+    """
+    hourly distribution of the monthly heating of a building
+    :param key: string
+    :return: [hourly_heating]
+    """
+    # todo: this method and the insel model have to be reviewed for more than one thermal zone
+    external_temp = self._building.external_temperature[cte.HOUR]
+    # todo: review index depending on how the schedules are defined, either 8760 or 24 hours
+    for usage_zone in self._building.usage_zones:
+      temp_set = float(usage_zone.heating_setpoint)-3
+      temp_back = float(usage_zone.heating_setback)-3
+      # todo: if these are data frames, then they should be called as (Occupancy should be in low case):
+      # usage_zone.schedules.Occupancy
+      # self._conditioning_seasons.heating
+      occupancy = Occupants().get_complete_year_schedule(usage_zone.schedules['Occupancy'])
+      heating_schedule = self._conditioning_seasons['heating']
+
+      hourly_heating = []
+      i = 0
+      j = 0
+      temp_grad_day = []
+      for month in range(1, 13):
+        temp_grad_month = 0
+        month_range = cal.monthrange(2015, month)[1]
+        for _ in range(1, month_range+1):
+          external_temp_med = 0
+          for hour in range(0, 24):
+            external_temp_med += external_temp[key][i]/24
+          for hour in range(0, 24):
+            if external_temp_med < temp_set and heating_schedule[month-1] == 1:
+              if occupancy[hour] > 0:
+                hdd = temp_set - external_temp[key][i]
+                if hdd < 0:
+                  hdd = 0
+                temp_grad_day.append(hdd)
+              else:
+                hdd = temp_back - external_temp[key][i]
+                if hdd < 0:
+                  hdd = 0
+                temp_grad_day.append(hdd)
+            else:
+              temp_grad_day.append(0)
+
+            temp_grad_month += temp_grad_day[i]
+            i += 1
+
+        for _ in range(1, month_range + 1):
+          for hour in range(0, 24):
+            monthly_demand = self._building.heating[cte.MONTH][month-1]
+            if monthly_demand == 'NaN':
+              monthly_demand = 0
+            if temp_grad_month == 0:
+              hourly_demand = 0
+            else:
+              hourly_demand = float(monthly_demand)*float(temp_grad_day[j])/float(temp_grad_month)
+            hourly_heating.append(hourly_demand)
+            j += 1
+      self._hourly_heating = pd.DataFrame(data=hourly_heating, columns=['monthly to hourly'])
+    return self._hourly_heating
+
+  def hourly_cooling(self, key):
+    """
+    hourly distribution of the monthly cooling of a building
+    :param key: string
+    :return: [hourly_cooling]
+    """
+    # todo: this method and the insel model have to be reviewed for more than one thermal zone
+    external_temp = self._building.external_temperature[cte.HOUR]
+    # todo: review index depending on how the schedules are defined, either 8760 or 24 hours
+    for usage_zone in self._building.usage_zones:
+      temp_set = float(usage_zone.cooling_setpoint)
+      temp_back = 100
+      occupancy = Occupants().get_complete_year_schedule(usage_zone.schedules['Occupancy'])
+      cooling_schedule = self._conditioning_seasons['cooling']
+
+      hourly_cooling = []
+      i = 0
+      j = 0
+      temp_grad_day = []
+      for month in range(1, 13):
+        temp_grad_month = 0
+        month_range = cal.monthrange(2015, month)[1]
+        for _ in range(1, month_range[1] + 1):
+          for hour in range(0, 24):
+            if external_temp[key][i] > temp_set and cooling_schedule[month - 1] == 1:
+              if occupancy[hour] > 0:
+                cdd = external_temp[key][i] - temp_set
+                if cdd < 0:
+                  cdd = 0
+                temp_grad_day.append(cdd)
+              else:
+                cdd = external_temp[key][i] - temp_back
+                if cdd < 0:
+                  cdd = 0
+                temp_grad_day.append(cdd)
+            else:
+              temp_grad_day.append(0)
+
+            temp_grad_month += temp_grad_day[i]
+            i += 1
+
+        for _ in range(1, month_range[1] + 1):
+          for hour in range(0, 24):
+            #            monthly_demand = self._building.heating[cte.MONTH]['INSEL'][month-1]
+            monthly_demand = self._building.cooling[cte.MONTH][month - 1]
+            if monthly_demand == 'NaN':
+              monthly_demand = 0
+            if temp_grad_month == 0:
+              hourly_demand = 0
+            else:
+              hourly_demand = float(monthly_demand) * float(temp_grad_day[j]) / float(temp_grad_month)
+            hourly_cooling.append(hourly_demand)
+            j += 1
+      self._hourly_cooling = pd.DataFrame(data=hourly_cooling, columns=['monthly to hourly'])
+    return self._hourly_cooling
diff --git a/imports/construction/helpers/storeys_generation.py b/imports/construction/helpers/storeys_generation.py
new file mode 100644
index 00000000..00ea2576
--- /dev/null
+++ b/imports/construction/helpers/storeys_generation.py
@@ -0,0 +1,157 @@
+"""
+Storeys generation helper
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import sys
+import math
+import numpy as np
+
+from helpers import constants as cte
+from city_model_structure.attributes.polygon import Polygon
+from city_model_structure.attributes.point import Point
+from city_model_structure.building_demand.storey import Storey
+from city_model_structure.building_demand.surface import Surface
+
+
+class StoreysGeneration:
+  """
+  StoreysGeneration
+  """
+  def __init__(self, building, divide_in_storeys=False):
+    self._building = building
+    self._divide_in_storeys = divide_in_storeys
+    self._storeys = None
+
+  @property
+  def storeys(self) -> [Storey]:
+    """
+    subsections of building trimesh by storey in case of no interiors defined
+    :return: [Storey]
+    """
+    number_of_storeys, height = self._calculate_number_storeys_and_height(self._building.average_storey_height,
+                                                                          self._building.eave_height,
+                                                                          self._building.storeys_above_ground)
+    number_of_storeys = 1
+    if not self._divide_in_storeys or number_of_storeys == 1:
+      return [Storey('storey_0', self._building.surfaces, [None, None], self._building.volume)]
+
+    if number_of_storeys == 0:
+      raise Exception('Number of storeys cannot be 0')
+
+    storeys = []
+    surfaces_child_last_storey = []
+    rest_surfaces = []
+
+    total_volume = 0
+    for i in range(0, number_of_storeys - 1):
+      name = 'storey_' + str(i)
+      surfaces_child = []
+      if i == 0:
+        neighbours = [None, 'storey_1']
+        for surface in self._building.surfaces:
+          if surface.type == cte.GROUND:
+            surfaces_child.append(surface)
+          else:
+            rest_surfaces.append(surface)
+      else:
+        neighbours = ['storey_' + str(i - 1), 'storey_' + str(i + 1)]
+      height_division = self._building.lower_corner[2] + height * (i + 1)
+      intersections = []
+      for surface in rest_surfaces:
+        if surface.type == cte.ROOF:
+          if height_division >= surface.upper_corner[2] > height_division - height:
+            surfaces_child.append(surface)
+          else:
+            surfaces_child_last_storey.append(surface)
+        else:
+          surface_child, rest_surface, intersection = surface.divide(height_division)
+          surfaces_child.append(surface_child)
+          intersections.extend(intersection)
+          if i == number_of_storeys - 2:
+            surfaces_child_last_storey.append(rest_surface)
+      points = []
+      for intersection in intersections:
+        points.append(intersection[1])
+      coordinates = self._intersections_to_coordinates(intersections)
+      polygon = Polygon(coordinates)
+      ceiling = Surface(polygon, polygon, surface_type=cte.INTERIOR_SLAB)
+      surfaces_child.append(ceiling)
+      volume = ceiling.area_above_ground * height
+      total_volume += volume
+      storeys.append(Storey(name, surfaces_child, neighbours, volume))
+    name = 'storey_' + str(number_of_storeys - 1)
+    neighbours = ['storey_' + str(number_of_storeys - 2), None]
+    volume = self._building.volume - total_volume
+    if volume < 0:
+      raise Exception('Error in storeys creation, volume of last storey cannot be lower that 0')
+    storeys.append(Storey(name, surfaces_child_last_storey, neighbours, volume))
+    return storeys
+
+  @staticmethod
+  def _calculate_number_storeys_and_height(average_storey_height, eave_height, storeys_above_ground):
+    if average_storey_height is None:
+      if storeys_above_ground is None or storeys_above_ground <= 0:
+        sys.stderr.write('Warning: not enough information to divide building into storeys, '
+                         'either number of storeys or average storey height must be provided.\n')
+        return 0, 0
+      number_of_storeys = int(storeys_above_ground)
+      height = eave_height / number_of_storeys
+    else:
+      height = float(average_storey_height)
+      if storeys_above_ground is not None:
+        number_of_storeys = int(storeys_above_ground)
+      else:
+        number_of_storeys = math.floor(float(eave_height) / height) + 1
+        last_storey_height = float(eave_height) - height*(number_of_storeys-1)
+        if last_storey_height < 0.3*height:
+          number_of_storeys -= 1
+    return number_of_storeys, height
+
+  @staticmethod
+  def _intersections_to_coordinates(edges_list):
+    # todo: this method is not robust, the while loop needs to be improved
+    points = [Point(edges_list[0][0]), Point(edges_list[0][1])]
+    found_edges = []
+    j = 0
+    while j < len(points)-1:
+      for i in range(1, len(edges_list)):
+        if i not in found_edges:
+          point_2 = points[len(points) - 1]
+          point_1 = Point(edges_list[i][0])
+          found = False
+          if point_1.distance_to_point(point_2) <= 1e-10:
+            points.append(Point(edges_list[i][1]))
+            found_edges.append(i)
+            found = True
+          if not found:
+            point_1 = Point(edges_list[i][1])
+            if point_1.distance_to_point(point_2) <= 1e-10:
+              points.append(Point(edges_list[i][0]))
+              found_edges.append(i)
+      j += 1
+
+    points.remove(points[len(points)-1])
+    array_points = []
+    for point in points:
+      array_points.append(point.coordinates)
+    return np.array(array_points)
+
+  def assign_thermal_zones_delimited_by_thermal_boundaries(self):
+    """
+    During storeys creation, the thermal boundaries and zones are also created.
+    It is afterwards needed to define which zones are delimited by each thermal boundary
+    """
+    for storey in self._building.storeys:
+      for thermal_boundary in storey.thermal_boundaries:
+        if thermal_boundary.surface.type != cte.INTERIOR_WALL or thermal_boundary.surface.type != cte.INTERIOR_SLAB:
+          # external thermal boundary -> only one thermal zone
+          thermal_zones = [storey.thermal_zone]
+        else:
+          # internal thermal boundary -> two thermal zones
+          grad = np.rad2deg(thermal_boundary.surface.inclination)
+          if grad >= 170:
+            thermal_zones = [storey.thermal_zone, storey.neighbours[0]]
+          else:
+            thermal_zones = [storey.neighbours[1], storey.thermal_zone]
+        thermal_boundary.thermal_zones = thermal_zones
diff --git a/imports/imports/construction/ca_physics_parameters.py b/imports/imports/construction/ca_physics_parameters.py
new file mode 100644
index 00000000..684b0e1e
--- /dev/null
+++ b/imports/imports/construction/ca_physics_parameters.py
@@ -0,0 +1,79 @@
+"""
+CaPhysicsParameters import the construction and material information for Canada
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import sys
+from imports.construction.helpers.construction_helper import ConstructionHelper
+from imports.construction.nrel_physics_interface import NrelPhysicsInterface
+from imports.construction.helpers.storeys_generation import StoreysGeneration
+
+
+class CaPhysicsParameters(NrelPhysicsInterface):
+  """
+  CaPhysicsParameters class
+  """
+  def __init__(self, city, base_path):
+    super().__init__(base_path, 'ca_constructions_reduced.xml', 'ca_archetypes_reduced.xml')
+    self._city = city
+
+  def enrich_buildings(self):
+    """
+    Returns the city with the construction parameters assigned to the buildings
+    :return:
+    """
+    city = self._city
+    # it is assumed that all buildings have the same archetypes' keys
+    for building in city.buildings:
+      archetype = self._search_archetype(ConstructionHelper.nrcan_from_function(building.function),
+                                         building.year_of_construction)
+      if archetype is None:
+        sys.stderr.write(f'Building {building.name} has unknown archetype for building function: '
+                         f'{ConstructionHelper.nrcan_from_function(building.function)} '
+                         f'and building year of construction: {building.year_of_construction}\n')
+        continue
+
+      self._create_storeys(building, archetype)
+      self._assign_values(building, archetype)
+
+  def _search_archetype(self, function, year_of_construction):
+    for building_archetype in self._building_archetypes:
+      a_ft = str(building_archetype.archetype_keys['@function'])
+      a_pc = str(building_archetype.archetype_keys['@periodOfConstruction'])
+      a_yc1 = int(a_pc.split(sep='-')[0])
+      a_yc2 = int(a_pc.split(sep='-')[1])
+      if a_ft == str(function):
+        if a_yc1 <= int(year_of_construction) <= a_yc2:
+          return building_archetype
+    return None
+
+  def _assign_values(self, building, archetype):
+    for thermal_zone in building.thermal_zones:
+      thermal_zone.additional_thermal_bridge_u_value = archetype.additional_thermal_bridge_u_value
+      thermal_zone.effective_thermal_capacity = archetype.effective_thermal_capacity
+      thermal_zone.indirectly_heated_area_ratio = archetype.indirectly_heated_area_ratio
+      thermal_zone.infiltration_rate_system_on = archetype.infiltration_rate_system_on
+      thermal_zone.infiltration_rate_system_off = archetype.infiltration_rate_system_off
+      for thermal_boundary in thermal_zone.thermal_boundaries:
+        construction_type = ConstructionHelper.nrcan_construction_types[thermal_boundary.type]
+        thermal_boundary_archetype = self._search_construction_in_archetype(archetype, construction_type)
+        thermal_boundary.u_value = thermal_boundary_archetype.overall_u_value
+        thermal_boundary.outside_solar_absorptance = thermal_boundary_archetype.outside_solar_absorptance
+        thermal_boundary.construction_name = thermal_boundary_archetype.construction_name
+        thermal_boundary.window_ratio = thermal_boundary_archetype.window_ratio
+        if thermal_boundary.thermal_openings is not None:
+          for thermal_opening in thermal_boundary.thermal_openings:
+            if thermal_boundary_archetype.thermal_opening is not None:
+              thermal_opening_archetype = thermal_boundary_archetype.thermal_opening
+              thermal_opening.frame_ratio = thermal_opening_archetype.frame_ratio
+              thermal_opening.g_value = thermal_opening_archetype.g_value
+              thermal_opening.overall_u_value = thermal_opening_archetype.overall_u_value
+
+  @staticmethod
+  def _create_storeys(building, archetype):
+    building.average_storey_height = archetype.average_storey_height
+    building.storeys_above_ground = archetype.storeys_above_ground
+    storeys_generation = StoreysGeneration(building)
+    storeys = storeys_generation.storeys
+    building.storeys = storeys
+    storeys_generation.assign_thermal_zones_delimited_by_thermal_boundaries()
diff --git a/imports/imports/construction/data_classes/nrel_building_achetype.py b/imports/imports/construction/data_classes/nrel_building_achetype.py
new file mode 100644
index 00000000..3956fb98
--- /dev/null
+++ b/imports/imports/construction/data_classes/nrel_building_achetype.py
@@ -0,0 +1,97 @@
+"""
+NrelBuildingArchetype stores construction information by building archetypes
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+from typing import List
+from imports.construction.data_classes.nrel_thermal_boundary_archetype import NrelThermalBoundaryArchetype
+
+
+class NrelBuildingArchetype:
+  """
+  NrelBuildingArchetype class
+  """
+  def __init__(self, archetype_keys, average_storey_height, storeys_above_ground, effective_thermal_capacity,
+               additional_thermal_bridge_u_value, indirectly_heated_area_ratio, infiltration_rate_system_off,
+               infiltration_rate_system_on, thermal_boundary_archetypes):
+    self._archetype_keys = archetype_keys
+    self._average_storey_height = average_storey_height
+    self._storeys_above_ground = storeys_above_ground
+    self._effective_thermal_capacity = effective_thermal_capacity
+    self._additional_thermal_bridge_u_value = additional_thermal_bridge_u_value
+    self._indirectly_heated_area_ratio = indirectly_heated_area_ratio
+    self._infiltration_rate_system_off = infiltration_rate_system_off
+    self._infiltration_rate_system_on = infiltration_rate_system_on
+    self._thermal_boundary_archetypes = thermal_boundary_archetypes
+
+  @property
+  def archetype_keys(self) -> {}:
+    """
+    Get keys that define the archetype
+    :return: dictionary
+    """
+    return self._archetype_keys
+
+  @property
+  def average_storey_height(self):
+    """
+    Get archetype's building storey height in meters
+    :return: float
+    """
+    return self._average_storey_height
+
+  @property
+  def storeys_above_ground(self):
+    """
+    Get archetype's building storey height in meters
+    :return: float
+    """
+    return self._storeys_above_ground
+
+  @property
+  def effective_thermal_capacity(self):
+    """
+    Get archetype's effective thermal capacity in J/m2K
+    :return: float
+    """
+    return self._effective_thermal_capacity
+
+  @property
+  def additional_thermal_bridge_u_value(self):
+    """
+    Get archetype's additional U value due to thermal bridges in W/m2K
+    :return: float
+    """
+    return self._additional_thermal_bridge_u_value
+
+  @property
+  def indirectly_heated_area_ratio(self):
+    """
+    Get archetype's indirectly heated area ratio
+    :return: float
+    """
+    return self._indirectly_heated_area_ratio
+
+  @property
+  def infiltration_rate_system_off(self):
+    """
+    Get archetype's infiltration rate when conditioning systems OFF in air changes per hour (ACH)
+    :return: float
+    """
+    return self._infiltration_rate_system_off
+
+  @property
+  def infiltration_rate_system_on(self):
+    """
+    Get archetype's infiltration rate when conditioning systems ON in air changes per hour (ACH)
+    :return: float
+    """
+    return self._infiltration_rate_system_on
+
+  @property
+  def thermal_boundary_archetypes(self) -> List[NrelThermalBoundaryArchetype]:
+    """
+    Get thermal boundary archetypes associated to the building archetype
+    :return: list of boundary archetypes
+    """
+    return self._thermal_boundary_archetypes
diff --git a/imports/imports/construction/data_classes/nrel_layer_archetype.py b/imports/imports/construction/data_classes/nrel_layer_archetype.py
new file mode 100644
index 00000000..99bfa4e6
--- /dev/null
+++ b/imports/imports/construction/data_classes/nrel_layer_archetype.py
@@ -0,0 +1,63 @@
+"""
+NrelLayerArchetype stores layer and materials information, complementing the NrelBuildingArchetype class
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+
+class NrelLayerArchetype:
+  """
+  NrelLayerArchetype class
+  """
+  def __init__(self, name, solar_absorptance, thermal_absorptance, visible_absorptance, thickness=None,
+               conductivity=None, specific_heat=None, density=None,  no_mass=False, thermal_resistance=None):
+    self._thickness = thickness
+    self._conductivity = conductivity
+    self._specific_heat = specific_heat
+    self._density = density
+    self._solar_absorptance = solar_absorptance
+    self._thermal_absorptance = thermal_absorptance
+    self._visible_absorptance = visible_absorptance
+    self._no_mass = no_mass
+    self._name = name
+    self._thermal_resistance = thermal_resistance
+
+  @property
+  def thickness(self):
+    return self._thickness
+
+  @property
+  def conductivity(self):
+    return self._conductivity
+
+  @property
+  def specific_heat(self):
+    return self._specific_heat
+
+  @property
+  def density(self):
+    return self._density
+
+  @property
+  def solar_absorptance(self):
+    return self._solar_absorptance
+
+  @property
+  def thermal_absorptance(self):
+    return self._thermal_absorptance
+
+  @property
+  def visible_absorptance(self):
+    return self._visible_absorptance
+
+  @property
+  def no_mass(self) -> bool:
+    return self._no_mass
+
+  @property
+  def name(self):
+    return self._name
+
+  @property
+  def thermal_resistance(self):
+    return self._thermal_resistance
diff --git a/imports/imports/construction/data_classes/nrel_thermal_boundary_archetype.py b/imports/imports/construction/data_classes/nrel_thermal_boundary_archetype.py
new file mode 100644
index 00000000..ce8f5afe
--- /dev/null
+++ b/imports/imports/construction/data_classes/nrel_thermal_boundary_archetype.py
@@ -0,0 +1,95 @@
+"""
+NrelThermalBoundaryArchetype stores thermal boundaries information, complementing the NrelBuildingArchetype class
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+from typing import List
+
+from imports.construction.data_classes.nrel_layer_archetype import NrelLayerArchetype
+from imports.construction.data_classes.nrel_thermal_opening_archetype import NrelThermalOpeningArchetype
+
+
+class NrelThermalBoundaryArchetype:
+  """
+  NrelThermalBoundaryArchetype class
+  """
+  def __init__(self, boundary_type, window_ratio, construction_name, layers, thermal_opening,
+               outside_solar_absorptance=None, outside_thermal_absorptance=None, outside_visible_absorptance=None,
+               overall_u_value=None):
+    self._boundary_type = boundary_type
+    self._outside_solar_absorptance = outside_solar_absorptance
+    self._outside_thermal_absorptance = outside_thermal_absorptance
+    self._outside_visible_absorptance = outside_visible_absorptance
+    self._window_ratio = window_ratio
+    self._construction_name = construction_name
+    self._overall_u_value = overall_u_value
+    self._layers = layers
+    self._thermal_opening = thermal_opening
+
+  @property
+  def boundary_type(self):
+    """
+
+    :return:
+    """
+    return self._boundary_type
+
+  @property
+  def outside_solar_absorptance(self):
+    """
+
+    :return:
+    """
+    return self._outside_solar_absorptance
+
+  @property
+  def outside_thermal_absorptance(self):
+    """
+
+    :return:
+    """
+    return self._outside_thermal_absorptance
+
+  @property
+  def outside_visible_absorptance(self):
+    """
+
+    :return:
+    """
+    return self._outside_visible_absorptance
+
+  @property
+  def window_ratio(self):
+    """
+
+    :return:
+    """
+    return self._window_ratio
+
+  @property
+  def construction_name(self):
+    """
+
+    :return:
+    """
+    return self._construction_name
+
+  @property
+  def layers(self) -> List[NrelLayerArchetype]:
+    """
+
+    :return:
+    """
+    return self._layers
+
+  @property
+  def thermal_opening(self) -> NrelThermalOpeningArchetype:
+    """
+
+    :return:
+    """
+    return self._thermal_opening
+
+  @property
+  def overall_u_value(self):
+    return self._overall_u_value
diff --git a/imports/imports/construction/data_classes/nrel_thermal_opening_archetype.py b/imports/imports/construction/data_classes/nrel_thermal_opening_archetype.py
new file mode 100644
index 00000000..f93ffffe
--- /dev/null
+++ b/imports/imports/construction/data_classes/nrel_thermal_opening_archetype.py
@@ -0,0 +1,54 @@
+"""
+NrelThermalOpeningArchetype stores thermal openings information, complementing the NrelBuildingArchetype class
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+
+class NrelThermalOpeningArchetype:
+  """
+  NrelThermalOpeningArchetype class
+  """
+  def __init__(self, conductivity=None, frame_ratio=None, g_value=None, thickness=None,
+               back_side_solar_transmittance_at_normal_incidence=None,
+               front_side_solar_transmittance_at_normal_incidence=None, shgc=None, overall_u_value=None):
+    self._conductivity = conductivity
+    self._frame_ratio = frame_ratio
+    self._g_value = g_value
+    self._thickness = thickness
+    self._back_side_solar_transmittance_at_normal_incidence = back_side_solar_transmittance_at_normal_incidence
+    self._front_side_solar_transmittance_at_normal_incidence = front_side_solar_transmittance_at_normal_incidence
+    self._shgc = shgc
+    self._overall_u_value = overall_u_value
+
+  @property
+  def conductivity(self):
+    return self._conductivity
+
+  @property
+  def frame_ratio(self):
+    return self._frame_ratio
+
+  @property
+  def g_value(self):
+    return self._g_value
+
+  @property
+  def thickness(self):
+    return self._thickness
+
+  @property
+  def back_side_solar_transmittance_at_normal_incidence(self):
+    return self._back_side_solar_transmittance_at_normal_incidence
+
+  @property
+  def front_side_solar_transmittance_at_normal_incidence(self):
+    return self._front_side_solar_transmittance_at_normal_incidence
+
+  @property
+  def shgc(self):
+    return self._shgc
+
+  @property
+  def overall_u_value(self):
+    return self._overall_u_value
diff --git a/imports/imports/construction/helpers/construction_helper.py b/imports/imports/construction/helpers/construction_helper.py
new file mode 100644
index 00000000..0cf05326
--- /dev/null
+++ b/imports/imports/construction/helpers/construction_helper.py
@@ -0,0 +1,152 @@
+"""
+Construction helper
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import sys
+from helpers import constants as cte
+
+
+class ConstructionHelper:
+  """
+  Construction helper
+  """
+  # NREL
+  function_to_nrel = {
+    cte.RESIDENTIAL: 'residential',
+    cte.SFH: 'single family house',
+    cte.MFH: 'multifamily house',
+    cte.HOTEL: 'hotel',
+    cte.HOSPITAL: 'hospital',
+    cte.OUTPATIENT: 'outpatient',
+    cte.COMMERCIAL: 'commercial',
+    cte.STRIP_MALL: 'strip mall',
+    cte.WAREHOUSE: 'warehouse',
+    cte.PRIMARY_SCHOOL: 'primary school',
+    cte.SECONDARY_SCHOOL: 'secondary school',
+    cte.OFFICE: 'office',
+    cte.LARGE_OFFICE: 'large office'
+  }
+  nrel_function_default_value = 'residential'
+  nrel_standards = {
+    'ASHRAE Std189': 1,
+    'ASHRAE 90.1_2004': 2
+  }
+  reference_city_to_nrel_climate_zone = {
+    'Miami': 'ASHRAE_2004:1A',
+    'Houston': 'ASHRAE_2004:2A',
+    'Phoenix': 'ASHRAE_2004:2B',
+    'Atlanta': 'ASHRAE_2004:3A',
+    'Los Angeles': 'ASHRAE_2004:3B',
+    'Las Vegas': 'ASHRAE_2004:3B',
+    'San Francisco': 'ASHRAE_2004:3C',
+    'Baltimore': 'ASHRAE_2004:4A',
+    'Albuquerque': 'ASHRAE_2004:4B',
+    'Seattle': 'ASHRAE_2004:4C',
+    'Chicago': 'ASHRAE_2004:5A',
+    'Boulder': 'ASHRAE_2004:5B',
+    'Minneapolis': 'ASHRAE_2004:6A',
+    'Helena': 'ASHRAE_2004:6B',
+    'Duluth': 'ASHRAE_2004:7A',
+    'Fairbanks': 'ASHRAE_2004:8A'
+  }
+  nrel_window_types = [cte.WINDOW, cte.DOOR, cte.SKYLIGHT]
+  nrel_construction_types = {
+    cte.WALL: 'exterior wall',
+    cte.INTERIOR_WALL: 'interior wall',
+    cte.GROUND_WALL: 'ground wall',
+    cte.GROUND: 'exterior slab',
+    cte.ATTIC_FLOOR: 'attic floor',
+    cte.INTERIOR_SLAB: 'interior slab',
+    cte.ROOF: 'roof'
+  }
+
+  # NRCAN
+  function_to_nrcan = {
+    cte.RESIDENTIAL: 'residential',
+    cte.SFH: 'single family house',
+    cte.MFH: 'multifamily house',
+    cte.HOTEL: 'hotel',
+    cte.HOSPITAL: 'hospital',
+    cte.OUTPATIENT: 'outpatient',
+    cte.COMMERCIAL: 'commercial',
+    cte.STRIP_MALL: 'strip mall',
+    cte.WAREHOUSE: 'warehouse',
+    cte.PRIMARY_SCHOOL: 'primary school',
+    cte.SECONDARY_SCHOOL: 'secondary school',
+    cte.OFFICE: 'office',
+    cte.LARGE_OFFICE: 'large office',
+    cte.OFFICE_WORKSHOP: 'residential'
+  }
+  nrcan_function_default_value = 'residential'
+  nrcan_window_types = [cte.WINDOW]
+  nrcan_construction_types = {
+    cte.WALL: 'wall',
+    cte.GROUND_WALL: 'basement_wall',
+    cte.GROUND: 'floor',
+    cte.ATTIC_FLOOR: 'attic floor',
+    cte.INTERIOR_SLAB: 'floor',
+    cte.ROOF: 'roof'
+  }
+
+  @staticmethod
+  def nrel_from_function(function):
+    """
+    Get NREL function from the given internal function key
+    :param function: str
+    :return: str
+    """
+    try:
+      return ConstructionHelper.function_to_nrel[function]
+    except KeyError:
+      sys.stderr.write('Error: keyword not found. Returned default NREL function "residential"\n')
+      return ConstructionHelper.nrel_function_default_value
+
+  @staticmethod
+  def yoc_to_nrel_standard(year_of_construction):
+    """
+    Year of construction to NREL standard
+    :param year_of_construction: int
+    :return: str
+    """
+    if int(year_of_construction) < 2009:
+      standard = 'ASHRAE 90.1_2004'
+    else:
+      standard = 'ASHRAE 189.1_2009'
+    return standard
+
+  @staticmethod
+  def city_to_reference_city(city):
+    """
+    City name to reference city
+    :param city: str
+    :return: str
+    """
+    # ToDo: Dummy function that needs to be implemented
+    reference_city = 'Baltimore'
+    if city is not None:
+      reference_city = 'Baltimore'
+    return reference_city
+
+  @staticmethod
+  def city_to_nrel_climate_zone(city):
+    """
+    City name to NREL climate zone
+    :param city: str
+    :return: str
+    """
+    reference_city = ConstructionHelper.city_to_reference_city(city)
+    return ConstructionHelper.reference_city_to_nrel_climate_zone[reference_city]
+
+  @staticmethod
+  def nrcan_from_function(function):
+    """
+    Get NREL function from the given internal function key
+    :param function: str
+    :return: str
+    """
+    try:
+      return ConstructionHelper.function_to_nrcan[function]
+    except KeyError:
+      sys.stderr.write('Error: keyword not found. Returned default NRCAN function "residential"\n')
+      return ConstructionHelper.nrcan_function_default_value
diff --git a/imports/imports/construction/helpers/storeys_generation.py b/imports/imports/construction/helpers/storeys_generation.py
new file mode 100644
index 00000000..00ea2576
--- /dev/null
+++ b/imports/imports/construction/helpers/storeys_generation.py
@@ -0,0 +1,157 @@
+"""
+Storeys generation helper
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import sys
+import math
+import numpy as np
+
+from helpers import constants as cte
+from city_model_structure.attributes.polygon import Polygon
+from city_model_structure.attributes.point import Point
+from city_model_structure.building_demand.storey import Storey
+from city_model_structure.building_demand.surface import Surface
+
+
+class StoreysGeneration:
+  """
+  StoreysGeneration
+  """
+  def __init__(self, building, divide_in_storeys=False):
+    self._building = building
+    self._divide_in_storeys = divide_in_storeys
+    self._storeys = None
+
+  @property
+  def storeys(self) -> [Storey]:
+    """
+    subsections of building trimesh by storey in case of no interiors defined
+    :return: [Storey]
+    """
+    number_of_storeys, height = self._calculate_number_storeys_and_height(self._building.average_storey_height,
+                                                                          self._building.eave_height,
+                                                                          self._building.storeys_above_ground)
+    number_of_storeys = 1
+    if not self._divide_in_storeys or number_of_storeys == 1:
+      return [Storey('storey_0', self._building.surfaces, [None, None], self._building.volume)]
+
+    if number_of_storeys == 0:
+      raise Exception('Number of storeys cannot be 0')
+
+    storeys = []
+    surfaces_child_last_storey = []
+    rest_surfaces = []
+
+    total_volume = 0
+    for i in range(0, number_of_storeys - 1):
+      name = 'storey_' + str(i)
+      surfaces_child = []
+      if i == 0:
+        neighbours = [None, 'storey_1']
+        for surface in self._building.surfaces:
+          if surface.type == cte.GROUND:
+            surfaces_child.append(surface)
+          else:
+            rest_surfaces.append(surface)
+      else:
+        neighbours = ['storey_' + str(i - 1), 'storey_' + str(i + 1)]
+      height_division = self._building.lower_corner[2] + height * (i + 1)
+      intersections = []
+      for surface in rest_surfaces:
+        if surface.type == cte.ROOF:
+          if height_division >= surface.upper_corner[2] > height_division - height:
+            surfaces_child.append(surface)
+          else:
+            surfaces_child_last_storey.append(surface)
+        else:
+          surface_child, rest_surface, intersection = surface.divide(height_division)
+          surfaces_child.append(surface_child)
+          intersections.extend(intersection)
+          if i == number_of_storeys - 2:
+            surfaces_child_last_storey.append(rest_surface)
+      points = []
+      for intersection in intersections:
+        points.append(intersection[1])
+      coordinates = self._intersections_to_coordinates(intersections)
+      polygon = Polygon(coordinates)
+      ceiling = Surface(polygon, polygon, surface_type=cte.INTERIOR_SLAB)
+      surfaces_child.append(ceiling)
+      volume = ceiling.area_above_ground * height
+      total_volume += volume
+      storeys.append(Storey(name, surfaces_child, neighbours, volume))
+    name = 'storey_' + str(number_of_storeys - 1)
+    neighbours = ['storey_' + str(number_of_storeys - 2), None]
+    volume = self._building.volume - total_volume
+    if volume < 0:
+      raise Exception('Error in storeys creation, volume of last storey cannot be lower that 0')
+    storeys.append(Storey(name, surfaces_child_last_storey, neighbours, volume))
+    return storeys
+
+  @staticmethod
+  def _calculate_number_storeys_and_height(average_storey_height, eave_height, storeys_above_ground):
+    if average_storey_height is None:
+      if storeys_above_ground is None or storeys_above_ground <= 0:
+        sys.stderr.write('Warning: not enough information to divide building into storeys, '
+                         'either number of storeys or average storey height must be provided.\n')
+        return 0, 0
+      number_of_storeys = int(storeys_above_ground)
+      height = eave_height / number_of_storeys
+    else:
+      height = float(average_storey_height)
+      if storeys_above_ground is not None:
+        number_of_storeys = int(storeys_above_ground)
+      else:
+        number_of_storeys = math.floor(float(eave_height) / height) + 1
+        last_storey_height = float(eave_height) - height*(number_of_storeys-1)
+        if last_storey_height < 0.3*height:
+          number_of_storeys -= 1
+    return number_of_storeys, height
+
+  @staticmethod
+  def _intersections_to_coordinates(edges_list):
+    # todo: this method is not robust, the while loop needs to be improved
+    points = [Point(edges_list[0][0]), Point(edges_list[0][1])]
+    found_edges = []
+    j = 0
+    while j < len(points)-1:
+      for i in range(1, len(edges_list)):
+        if i not in found_edges:
+          point_2 = points[len(points) - 1]
+          point_1 = Point(edges_list[i][0])
+          found = False
+          if point_1.distance_to_point(point_2) <= 1e-10:
+            points.append(Point(edges_list[i][1]))
+            found_edges.append(i)
+            found = True
+          if not found:
+            point_1 = Point(edges_list[i][1])
+            if point_1.distance_to_point(point_2) <= 1e-10:
+              points.append(Point(edges_list[i][0]))
+              found_edges.append(i)
+      j += 1
+
+    points.remove(points[len(points)-1])
+    array_points = []
+    for point in points:
+      array_points.append(point.coordinates)
+    return np.array(array_points)
+
+  def assign_thermal_zones_delimited_by_thermal_boundaries(self):
+    """
+    During storeys creation, the thermal boundaries and zones are also created.
+    It is afterwards needed to define which zones are delimited by each thermal boundary
+    """
+    for storey in self._building.storeys:
+      for thermal_boundary in storey.thermal_boundaries:
+        if thermal_boundary.surface.type != cte.INTERIOR_WALL or thermal_boundary.surface.type != cte.INTERIOR_SLAB:
+          # external thermal boundary -> only one thermal zone
+          thermal_zones = [storey.thermal_zone]
+        else:
+          # internal thermal boundary -> two thermal zones
+          grad = np.rad2deg(thermal_boundary.surface.inclination)
+          if grad >= 170:
+            thermal_zones = [storey.thermal_zone, storey.neighbours[0]]
+          else:
+            thermal_zones = [storey.neighbours[1], storey.thermal_zone]
+        thermal_boundary.thermal_zones = thermal_zones
diff --git a/imports/imports/construction/nrel_physics_interface.py b/imports/imports/construction/nrel_physics_interface.py
new file mode 100644
index 00000000..91a76b99
--- /dev/null
+++ b/imports/imports/construction/nrel_physics_interface.py
@@ -0,0 +1,184 @@
+"""
+Nrel-based interface, it reads format defined within the CERC team based on NREL structure
+and enriches the city with archetypes and materials
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import xmltodict
+
+from imports.construction.data_classes.nrel_building_achetype import NrelBuildingArchetype as nba
+from imports.construction.data_classes.nrel_thermal_boundary_archetype import NrelThermalBoundaryArchetype as ntba
+from imports.construction.data_classes.nrel_thermal_opening_archetype import NrelThermalOpeningArchetype as ntoa
+from imports.construction.data_classes.nrel_layer_archetype import NrelLayerArchetype as nla
+
+
+class NrelPhysicsInterface:
+  """
+  NrelPhysicsInterface abstract class
+  """
+
+  def __init__(self, base_path, constructions_file='us_constructions.xml',
+               archetypes_file='us_archetypes.xml'):
+    self._building_archetypes = []
+    # load construction Library, CERC-NREL format
+    path = str(base_path / constructions_file)
+    with open(path) as xml:
+      self._library = xmltodict.parse(xml.read(), force_list='layer')
+
+    # load archetypes Library, CERC-NREL format
+    path = str(base_path / archetypes_file)
+    with open(path) as xml:
+      self._archetypes = xmltodict.parse(xml.read(), force_list='layer')
+
+    for archetype in self._archetypes['archetypes']['archetype']:
+      archetype_keys = {}
+      for key, value in archetype.items():
+        if key[0] == '@':
+          archetype_keys[key] = value
+      average_storey_height = archetype['average_storey_height']['#text']
+      units = archetype['average_storey_height']['@units']
+      if units != 'm':
+        raise Exception(f'average storey height units = {units}, expected meters')
+      storeys_above_ground = archetype['number_of_storeys']['#text']
+      effective_thermal_capacity = float(archetype['thermal_capacity']['#text']) * 1000
+      units = archetype['thermal_capacity']['@units']
+      if units != 'kJ/K m2':
+        raise Exception(f'thermal capacity units = {units}, expected kJ/K m2')
+      additional_thermal_bridge_u_value = archetype['extra_loses_due_to_thermal_bridges']['#text']
+      units = archetype['extra_loses_due_to_thermal_bridges']['@units']
+      if units != 'W/K m2':
+        raise Exception(f'extra loses due to thermal bridges units = {units}, expected W/K m2')
+      indirectly_heated_area_ratio = archetype['indirect_heated_ratio']['#text']
+      # todo: check how infiltration rate is used in the model
+      infiltration_rate_system_off = archetype['infiltration_rate_for_ventilation_system_off']['#text']
+      units = archetype['infiltration_rate_for_ventilation_system_off']['@units']
+      if units != 'ACH':
+        raise Exception(f'infiltration rate for ventilation when system off units = {units}, expected ACH')
+      infiltration_rate_system_on = archetype['infiltration_rate_for_ventilation_system_on']['#text']
+      units = archetype['infiltration_rate_for_ventilation_system_on']['@units']
+      if units != 'ACH':
+        raise Exception(f'infiltration rate for ventilation when system on units = {units}, expected ACH')
+
+      thermal_boundary_archetypes = []
+      for construction in archetype['constructions']['construction']:
+        construction_type = construction['@type']
+        construction_id = construction['@id']
+
+        c_lib = self._search_construction_type('construction', construction_id)
+        construction_name = c_lib['@name']
+        layers = []
+        if 'layers' in c_lib:
+          for current_layer in c_lib['layers']['layer']:
+            material_lib = self._search_construction_type('material', current_layer['material'])
+            name = material_lib['@name']
+            solar_absorptance = material_lib['solar_absorptance']['#text']
+            thermal_absorptance = material_lib['thermal_absorptance']['#text']
+            visible_absorptance = material_lib['visible_absorptance']['#text']
+            no_mass = 'no_mass' in material_lib
+            if no_mass:
+              thermal_resistance = material_lib['thermal_resistance']['#text']
+              units = material_lib['thermal_resistance']['@units']
+              if units != 'm2 K/W':
+                raise Exception(f'thermal resistance units = {units}, expected m2 K/W')
+              layer = nla(name, solar_absorptance, thermal_absorptance, visible_absorptance, no_mass=no_mass,
+                          thermal_resistance=thermal_resistance)
+            else:
+              thickness = current_layer['thickness']['#text']
+              units = current_layer['thickness']['@units']
+              if units != 'm':
+                raise Exception(f'thickness units = {units}, expected m')
+              conductivity = material_lib['conductivity']['#text']
+              units = material_lib['conductivity']['@units']
+              if units != 'W/m K':
+                raise Exception(f'conductivity units = {units}, expected W/m K')
+              specific_heat = material_lib['specific_heat']['#text']
+              units = material_lib['specific_heat']['@units']
+              if units != 'J/kg K':
+                raise Exception(f'specific_heat units = {units}, expected J/kg K')
+              density = material_lib['density']['#text']
+              units = material_lib['density']['@units']
+              if units != 'kg/m3':
+                raise Exception(f'density units = {units}, expected kg/m3')
+              layer = nla(name, solar_absorptance, thermal_absorptance, visible_absorptance, thickness=thickness,
+                          conductivity=conductivity, specific_heat=specific_heat, density=density)
+            layers.append(layer)
+
+        thermal_opening = None
+        window_ratio = 0
+        if 'window' in construction and construction['window'] is not None:
+          window_ratio = construction['window_ratio']['#text']
+          w_lib = self._search_construction_type('window', construction['window'])
+          frame_ratio = w_lib['frame_ratio']['#text']
+          if 'conductivity' in w_lib:
+            conductivity = w_lib['conductivity']['#text']
+            units = w_lib['conductivity']['@units']
+            if units != 'W/m K':
+              raise Exception(f'conductivity units = {units}, expected W/m K')
+            thickness = w_lib['thickness']['#text']
+            units = w_lib['thickness']['@units']
+            if units != 'm':
+              raise Exception(f'thickness units = {units}, expected m')
+            g_value = w_lib['solar_transmittance_at_normal_incidence']['#text']
+            back_side_solar_transmittance_at_normal_incidence = \
+              w_lib['back_side_solar_transmittance_at_normal_incidence']['#text']
+            front_side_solar_transmittance_at_normal_incidence = \
+              w_lib['front_side_solar_transmittance_at_normal_incidence']['#text']
+            thermal_opening = ntoa(conductivity=conductivity, frame_ratio=frame_ratio, g_value=g_value,
+                                   thickness=thickness, back_side_solar_transmittance_at_normal_incidence=
+                                   back_side_solar_transmittance_at_normal_incidence,
+                                   front_side_solar_transmittance_at_normal_incidence=
+                                   front_side_solar_transmittance_at_normal_incidence)
+          else:
+            overall_u_value = w_lib['overall_u_value']['#text']
+            units = w_lib['overall_u_value']['@units']
+            if units != 'W/m2 K':
+              raise Exception(f'overall U-value units = {units}, expected W/m2 K')
+            g_value = w_lib['g_value']
+            thermal_opening = ntoa(frame_ratio=frame_ratio, g_value=g_value, overall_u_value=overall_u_value)
+
+        if 'outside_thermal_absorptance' in c_lib:
+          outside_solar_absorptance = c_lib['outside_solar_absorptance']['#text']
+          outside_thermal_absorptance = c_lib['outside_thermal_absorptance']['#text']
+          outside_visible_absorptance = c_lib['outside_visible_absorptance']['#text']
+          thermal_boundary_archetype = ntba(construction_type, window_ratio, construction_name, layers, thermal_opening,
+                                            outside_solar_absorptance, outside_thermal_absorptance,
+                                            outside_visible_absorptance)
+        else:
+          if 'overall_u_value' in c_lib:
+            overall_u_value = c_lib['overall_u_value']['#text']
+            units = c_lib['overall_u_value']['@units']
+            if units != 'W/m2 K':
+              raise Exception(f'overall U-value units = {units}, expected W/m2 K')
+            outside_solar_absorptance = c_lib['outside_solar_absorptance']['#text']
+            thermal_boundary_archetype = ntba(construction_type, window_ratio, construction_name, layers,
+                                              thermal_opening, outside_solar_absorptance=outside_solar_absorptance,
+                                              overall_u_value=overall_u_value)
+          else:
+            thermal_boundary_archetype = ntba(construction_type, window_ratio, construction_name, layers,
+                                              thermal_opening)
+
+        thermal_boundary_archetypes.append(thermal_boundary_archetype)
+        building_archetype = nba(archetype_keys, average_storey_height, storeys_above_ground,
+                                 effective_thermal_capacity, additional_thermal_bridge_u_value,
+                                 indirectly_heated_area_ratio, infiltration_rate_system_off,
+                                 infiltration_rate_system_on, thermal_boundary_archetypes)
+        self._building_archetypes.append(building_archetype)
+
+  def _search_construction_type(self, construction_type, construction_id):
+    for c_lib in self._library['library'][construction_type + 's'][construction_type]:
+      if construction_id == c_lib['@id']:
+        return c_lib
+    raise Exception('Archetype definition contains elements that does not exist in the library')
+
+  @staticmethod
+  def _search_construction_in_archetype(building_archetype, construction_type):
+    for thermal_boundary in building_archetype.thermal_boundary_archetypes:
+      if thermal_boundary.boundary_type == construction_type:
+        return thermal_boundary
+    raise Exception('Construction type not found')
+
+  def enrich_buildings(self):
+    """
+    Raise not implemented error
+    """
+    raise NotImplementedError
diff --git a/imports/imports/construction/us_physics_parameters.py b/imports/imports/construction/us_physics_parameters.py
new file mode 100644
index 00000000..7d0de632
--- /dev/null
+++ b/imports/imports/construction/us_physics_parameters.py
@@ -0,0 +1,107 @@
+"""
+UsPhysicsParameters import the construction and material information for US
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+Contributors Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import sys
+
+from imports.construction.nrel_physics_interface import NrelPhysicsInterface
+from imports.construction.helpers.construction_helper import ConstructionHelper
+from city_model_structure.building_demand.layer import Layer
+from city_model_structure.building_demand.material import Material
+from imports.construction.helpers.storeys_generation import StoreysGeneration
+
+
+class UsPhysicsParameters(NrelPhysicsInterface):
+  """
+  UsPhysicsParameters class
+  """
+  def __init__(self, city, base_path):
+    self._city = city
+    self._climate_zone = ConstructionHelper.city_to_nrel_climate_zone(city.name)
+    super().__init__(base_path, 'us_constructions.xml', 'us_archetypes.xml')
+
+  def enrich_buildings(self):
+    """
+    Returns the city with the construction parameters assigned to the buildings
+    :return:
+    """
+    city = self._city
+    # it is assumed that all buildings have the same archetypes' keys
+    for building in city.buildings:
+      building_type = ConstructionHelper.nrel_from_function(building.function)
+      if building_type is None:
+        return
+      archetype = self._search_archetype(building_type,
+                                         ConstructionHelper.yoc_to_nrel_standard(building.year_of_construction),
+                                         self._climate_zone)
+      if archetype is None:
+        sys.stderr.write(f'Building {building.name} has unknown archetype for building function: {building.function} '
+                         f'and building year of construction: {building.year_of_construction}\n')
+        continue
+
+      self._create_storeys(building, archetype)
+      self._assign_values(building, archetype)
+
+  def _search_archetype(self, building_type, standard, climate_zone):
+    for building_archetype in self._building_archetypes:
+      a_yc = str(building_archetype.archetype_keys['@reference_standard'])
+      a_bt = str(building_archetype.archetype_keys['@building_type'])
+      a_cz = str(building_archetype.archetype_keys['@climate_zone'])
+      if (a_yc == str(standard)) and (a_bt == str(building_type)) and (a_cz == str(climate_zone)):
+        return building_archetype
+    return None
+
+  def _assign_values(self, building, archetype):
+    for thermal_zone in building.thermal_zones:
+      thermal_zone.additional_thermal_bridge_u_value = archetype.additional_thermal_bridge_u_value
+      thermal_zone.effective_thermal_capacity = archetype.effective_thermal_capacity
+      thermal_zone.indirectly_heated_area_ratio = archetype.indirectly_heated_area_ratio
+      thermal_zone.infiltration_rate_system_on = archetype.infiltration_rate_system_on
+      thermal_zone.infiltration_rate_system_off = archetype.infiltration_rate_system_off
+      for thermal_boundary in thermal_zone.thermal_boundaries:
+        construction_type = ConstructionHelper.nrel_construction_types[thermal_boundary.type]
+        thermal_boundary_archetype = self._search_construction_in_archetype(archetype, construction_type)
+        if thermal_boundary_archetype.outside_solar_absorptance is not None:
+          thermal_boundary.outside_solar_absorptance = thermal_boundary_archetype.outside_solar_absorptance
+        thermal_boundary.outside_thermal_absorptance = thermal_boundary_archetype.outside_thermal_absorptance
+        thermal_boundary.outside_visible_absorptance = thermal_boundary_archetype.outside_visible_absorptance
+        thermal_boundary.construction_name = thermal_boundary_archetype.construction_name
+        thermal_boundary.window_ratio = thermal_boundary_archetype.window_ratio
+        thermal_boundary.layers = []
+        for layer_archetype in thermal_boundary_archetype.layers:
+          layer = Layer()
+          layer.thickness = layer_archetype.thickness
+          material = Material()
+          material.name = layer_archetype.name
+          material.no_mass = layer_archetype.no_mass
+          material.density = layer_archetype.density
+          material.conductivity = layer_archetype.conductivity
+          material.specific_heat = layer_archetype.specific_heat
+          material.solar_absorptance = layer_archetype.solar_absorptance
+          material.thermal_absorptance = layer_archetype.thermal_absorptance
+          material.visible_absorptance = layer_archetype.visible_absorptance
+          material.thermal_resistance = layer_archetype.thermal_resistance
+          layer.material = material
+          thermal_boundary.layers.append(layer)
+        for thermal_opening in thermal_boundary.thermal_openings:
+          if thermal_boundary_archetype.thermal_opening is not None:
+            thermal_opening_archetype = thermal_boundary_archetype.thermal_opening
+            thermal_opening.frame_ratio = thermal_opening_archetype.frame_ratio
+            thermal_opening.g_value = thermal_opening_archetype.g_value
+            thermal_opening.conductivity = thermal_opening_archetype.conductivity
+            thermal_opening.thickness = thermal_opening_archetype.thickness
+            thermal_opening.back_side_solar_transmittance_at_normal_incidence = \
+                thermal_opening_archetype.back_side_solar_transmittance_at_normal_incidence
+            thermal_opening.front_side_solar_transmittance_at_normal_incidence = \
+                thermal_opening_archetype.front_side_solar_transmittance_at_normal_incidence
+
+  @staticmethod
+  def _create_storeys(building, archetype):
+    building.average_storey_height = archetype.average_storey_height
+    building.storeys_above_ground = archetype.storeys_above_ground
+    storeys_generation = StoreysGeneration(building)
+    storeys = storeys_generation.storeys
+    building.storeys = storeys
+    storeys_generation.assign_thermal_zones_delimited_by_thermal_boundaries()
diff --git a/imports/imports/construction_factory.py b/imports/imports/construction_factory.py
new file mode 100644
index 00000000..0ecc2e0d
--- /dev/null
+++ b/imports/imports/construction_factory.py
@@ -0,0 +1,38 @@
+"""
+ConstructionFactory (before PhysicsFactory) retrieve the specific construction module for the given region
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+from pathlib import Path
+from imports.construction.us_physics_parameters import UsPhysicsParameters
+from imports.construction.ca_physics_parameters import CaPhysicsParameters
+
+
+class ConstructionFactory:
+  """
+  PhysicsFactor class
+  """
+  def __init__(self, handler, city, base_path=Path(Path(__file__).parent.parent / 'data/construction')):
+    self._handler = '_' + handler.lower().replace(' ', '_')
+    self._city = city
+    self._base_path = base_path
+
+  def _nrel(self):
+    UsPhysicsParameters(self._city, self._base_path).enrich_buildings()
+
+  def _nrcan(self):
+    CaPhysicsParameters(self._city, self._base_path).enrich_buildings()
+
+  def enrich(self):
+    """
+    Enrich the city with the construction information
+    :return: None
+    """
+    getattr(self, self._handler, lambda: None)()
+
+  def _enrich_debug(self):
+    """
+    Enrich the city with the construction information
+    :return: None
+    """
+    self._nrel()
diff --git a/imports/imports/geometry/citygml.py b/imports/imports/geometry/citygml.py
new file mode 100644
index 00000000..2f4c0d7a
--- /dev/null
+++ b/imports/imports/geometry/citygml.py
@@ -0,0 +1,112 @@
+"""
+CityGml module parses citygml_classes files and import the geometry into the city model structure
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+import numpy as np
+import xmltodict
+from city_model_structure.city import City
+from city_model_structure.building import Building
+from city_model_structure.parts_consisting_building import PartsConsistingBuilding
+from helpers.geometry_helper import GeometryHelper
+from imports.geometry.citygml_classes.citygml_lod2 import CityGmlLod2
+from imports.geometry.citygml_classes.citygml_lod1 import CityGmlLod1
+
+
+class CityGml:
+  """
+  CityGml class
+  """
+  def __init__(self, path):
+    self._city = None
+    self._lod1_tags = ['lod1Solid', 'lod1MultiSurface']
+    self._lod2_tags = ['lod2Solid', 'lod2MultiSurface', 'lod2MultiCurve']
+    with open(path) as gml:
+      # Clean the namespaces is an important task to prevent wrong ns:field due poor citygml_classes implementations
+      fl = ('cityObjectMember', 'curveMember', 'boundedBy', 'surfaceMember', 'consistsOfBuildingPart')
+      self._gml = xmltodict.parse(gml.read(), process_namespaces=True, xml_attribs=True, namespaces={
+        'http://www.opengis.net/gml': None,
+        'http://www.opengis.net/citygml/1.0': None,
+        'http://www.opengis.net/citygml/building/1.0': None,
+        'http://schemas.opengis.net/citygml/building/1.0/building.xsd': None,
+        'http://www.opengis.net/citygml/appearance/1.0': None,
+        'http://schemas.opengis.net/citygml/appearance/1.0/appearance.xsd': None,
+        'http://www.opengis.net/citygml/relief/1.0': None,
+        'http://schemas.opengis.net/citygml/relief/1.0/relief.xsd': None,
+        'http://www.opengis.net/citygml/generics/1.0': None,
+        'http://www.w3.org/2001/XMLSchema-instance': None,
+        'urn:oasis:names:tc:ciq:xsdschema:xAL:2.0': None,
+        'http://www.w3.org/1999/xlink': None,
+        'http://www.opengis.net/citygml/relief/2.0': None,
+        'http://www.opengis.net/citygml/building/2.0': None,
+        'http://www.opengis.net/citygml/building/2.0 http://schemas.opengis.net/citygml/building/2.0/building.xsd '
+        'http://www.opengis.net/citygml/relief/2.0 http://schemas.opengis.net/citygml/relief/2.0/relief.xsd" '
+        'xmlns="http://www.opengis.net/citygml/2.0': None,
+        'http://www.opengis.net/citygml/2.0': None
+      }, force_list=fl)
+
+      self._city_objects = None
+      self._geometry = GeometryHelper()
+
+      for bound in self._gml['CityModel']['boundedBy']:
+        envelope = bound['Envelope']
+        if '#text' in envelope['lowerCorner']:
+          self._lower_corner = np.fromstring(envelope['lowerCorner']['#text'], dtype=float, sep=' ')
+          self._upper_corner = np.fromstring(envelope['upperCorner']['#text'], dtype=float, sep=' ')
+        else:
+          self._lower_corner = np.fromstring(envelope['lowerCorner'], dtype=float, sep=' ')
+          self._upper_corner = np.fromstring(envelope['upperCorner'], dtype=float, sep=' ')
+        if '@srsName' in envelope:
+          self._srs_name = envelope['@srsName']
+
+  @property
+  def content(self):
+    """
+    CityGml raw content
+    :return: str
+    """
+    return self._gml
+
+  def _create_building(self, city_object):
+    name = city_object['@id']
+    function = None
+    year_of_construction = None
+    if 'yearOfConstruction' in city_object:
+      year_of_construction = city_object['yearOfConstruction']
+    if 'function' in city_object:
+      function = city_object['function']
+    if any(key in city_object for key in self._lod1_tags):
+      lod = 1
+      surfaces = CityGmlLod1(city_object).surfaces
+    elif any(key in city_object for key in self._lod2_tags):
+      lod = 2
+      surfaces = CityGmlLod2(city_object).surfaces
+    else:
+      raise NotImplementedError("Not supported level of detail")
+    return Building(name, lod, surfaces, year_of_construction, function, self._lower_corner, [])
+
+  def _create_parts_consisting_building(self, city_object):
+    name = city_object['@id']
+    building_parts = []
+    for part in city_object['consistsOfBuildingPart']:
+      building = self._create_building(part['BuildingPart'])
+      self._city.add_city_object(building)
+      building_parts.append(building)
+    return PartsConsistingBuilding(name, building_parts)
+
+  @property
+  def city(self) -> City:
+    """
+    City model structure enriched with the geometry information
+    :return: City
+    """
+
+    if self._city is None:
+      self._city = City(self._lower_corner, self._upper_corner, self._srs_name)
+      for o in self._gml['CityModel']['cityObjectMember']:
+        city_object = o['Building']
+        if 'consistsOfBuildingPart' in city_object:
+          self._city.add_city_objects_cluster(self._create_parts_consisting_building(city_object))
+        else:
+          self._city.add_city_object(self._create_building(city_object))
+    return self._city
diff --git a/imports/imports/geometry/citygml_classes/citygml_base.py b/imports/imports/geometry/citygml_classes/citygml_base.py
new file mode 100644
index 00000000..db473e6c
--- /dev/null
+++ b/imports/imports/geometry/citygml_classes/citygml_base.py
@@ -0,0 +1,48 @@
+"""
+CityGmlBase module abstract class to template the different level of details
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2021 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+
+from abc import ABC
+import numpy as np
+from imports.geometry.helpers.geometry_helper import GeometryHelper
+
+
+class CityGmlBase(ABC):
+  """
+  CityGmlBase class inherited by the specific level of detail classes.
+  """
+  def __init__(self):
+    self._surfaces = []
+
+  @property
+  def surfaces(self):
+    """
+    parsed surfaces
+    """
+    return self._surfaces
+
+  @staticmethod
+  def _remove_last_point(points):
+    array = points.split(' ')
+    res = " "
+    return res.join(array[0:len(array) - 3])
+
+  @staticmethod
+  def _solid_points(coordinates) -> np.ndarray:
+    solid_points = np.fromstring(coordinates, dtype=float, sep=' ')
+    solid_points = GeometryHelper.to_points_matrix(solid_points)
+    return solid_points
+
+  @classmethod
+  def _solid(cls, o):
+    raise NotImplementedError
+
+  @classmethod
+  def _multi_surface(cls, o):
+    raise NotImplementedError
+
+  @classmethod
+  def _multi_curve(cls, o):
+    raise NotImplementedError
diff --git a/imports/imports/geometry/citygml_classes/citygml_lod1.py b/imports/imports/geometry/citygml_classes/citygml_lod1.py
new file mode 100644
index 00000000..dc7bc765
--- /dev/null
+++ b/imports/imports/geometry/citygml_classes/citygml_lod1.py
@@ -0,0 +1,55 @@
+"""
+CityGmlLod1 module parses citygml_classes files with level of detail 1 and import the geometry into the city model
+structure
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2021 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+
+from imports.geometry.citygml_classes.citygml_base import CityGmlBase
+from city_model_structure.building_demand.surface import Surface
+from city_model_structure.attributes.polygon import Polygon
+
+
+class CityGmlLod1(CityGmlBase):
+  """
+  CityGmlLod1 class to parse level of detail 1 city gml files
+  """
+
+  @classmethod
+  def _multi_curve(cls, o):
+    pass
+
+  def __init__(self, o):
+    super().__init__()
+    self._o = o
+    self._surfaces = self._identify(self._o)
+
+  @classmethod
+  def _identify(cls, o):
+    if 'lod1Solid' in o:
+      return cls._solid(o)
+    if 'lod1MultiSurface' in o:
+      return cls._multi_surface(o)
+    raise NotImplementedError(o)
+
+  @classmethod
+  def _solid(cls, o):
+    try:
+      solid_points = [
+        CityGmlBase._solid_points(CityGmlBase._remove_last_point(s['Polygon']['exterior']['LinearRing']['posList']
+                                                                 ['#text']))
+        for s in o['lod1Solid']['Solid']['exterior']['CompositeSurface']['surfaceMember']]
+    except TypeError:
+      solid_points = [
+        CityGmlBase._solid_points(CityGmlBase._remove_last_point(s['Polygon']['exterior']['LinearRing']['posList']))
+        for s in o['lod1Solid']['Solid']['exterior']['CompositeSurface']['surfaceMember']]
+
+    return [Surface(Polygon(sp), Polygon(sp)) for sp in solid_points]
+
+  @classmethod
+  def _multi_surface(cls, o):
+    print("lod1_multi")
+    solid_points = [CityGmlBase._solid_points(CityGmlBase._remove_last_point(s['Polygon']['exterior']['LinearRing']
+                                                                             ['posList']))
+                    for s in o['Building']['lod1MultiSurface']['MultiSurface']['surfaceMember']]
+    return [Surface(Polygon(sp), Polygon(sp)) for sp in solid_points]
diff --git a/imports/imports/geometry/citygml_classes/citygml_lod2.py b/imports/imports/geometry/citygml_classes/citygml_lod2.py
new file mode 100644
index 00000000..11f5a7ca
--- /dev/null
+++ b/imports/imports/geometry/citygml_classes/citygml_lod2.py
@@ -0,0 +1,69 @@
+"""
+CityGmlLod1 module parses citygml_classes files with level of detail 1 and import the geometry into the city model
+structure
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2021 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+
+from imports.geometry.citygml_classes.citygml_base import CityGmlBase
+from imports.geometry.helpers.geometry_helper import GeometryHelper
+from city_model_structure.building_demand.surface import Surface
+from city_model_structure.attributes.polygon import Polygon
+
+
+class CityGmlLod2(CityGmlBase):
+  """
+  CityGmlLod1 class to parse level of detail 1 city gml files
+  """
+  def __init__(self, o):
+    super().__init__()
+    self._o = o
+    self._surfaces = self._identify(self._o)
+
+  @classmethod
+  def _identify(cls, o):
+    if 'lod2Solid' in o:
+      return cls._solid(o)
+    if 'lod2MultiSurface' in o:
+      return cls._multi_surface(o)
+    if 'lod2MultiCurve' in o:
+      return cls._multi_curve(o)
+    raise NotImplementedError(o)
+
+  @staticmethod
+  def _surface_encoding(surfaces):
+    if 'lod2MultiSurface' in surfaces:
+      return 'lod2MultiSurface', 'MultiSurface'
+    raise NotImplementedError('unknown surface type')
+
+  @classmethod
+  def _solid(cls, o):
+    surfaces = []
+    for b in o["boundedBy"]:
+      try:
+        surface_type = next(iter(b))
+      except TypeError:
+        continue
+      try:
+        surface_encoding, surface_subtype = cls._surface_encoding(b[surface_type])
+      except NotImplementedError:
+
+        continue
+      for member in b[surface_type][surface_encoding][surface_subtype]['surfaceMember']:
+        if '@srsDimension' in member['Polygon']['exterior']['LinearRing']['posList']:
+          gml_points = member['Polygon']['exterior']['LinearRing']['posList']["#text"]
+        else:
+          gml_points = member['Polygon']['exterior']['LinearRing']['posList']
+        sp = cls._solid_points(cls._remove_last_point(gml_points))
+        p = Polygon(sp)
+        surface = Surface(p, p, surface_type=GeometryHelper.gml_surface_to_libs(surface_type))
+        surfaces.append(surface)
+    return surfaces
+
+  @classmethod
+  def _multi_curve(cls, o):
+    raise NotImplementedError('multi curve')
+
+  @classmethod
+  def _multi_surface(cls, o):
+    return cls._solid(o)
diff --git a/imports/imports/geometry/helpers/geometry_helper.py b/imports/imports/geometry/helpers/geometry_helper.py
new file mode 100644
index 00000000..9c432e15
--- /dev/null
+++ b/imports/imports/geometry/helpers/geometry_helper.py
@@ -0,0 +1,322 @@
+"""
+Geometry helper
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+import helpers.constants as cte
+
+
+class GeometryHelper:
+  """
+  Geometry helper
+  """
+  # function
+  pluto_to_function = {
+    'A0': 'single family house',
+    'A1': 'single family house',
+    'A2': 'single family house',
+    'A3': 'single family house',
+    'A4': 'single family house',
+    'A5': 'single family house',
+    'A6': 'single family house',
+    'A7': 'single family house',
+    'A8': 'single family house',
+    'A9': 'single family house',
+    'B1': 'multifamily house',
+    'B2': 'multifamily house',
+    'B3': 'multifamily house',
+    'B9': 'multifamily house',
+    'C0': 'residential',
+    'C1': 'residential',
+    'C2': 'residential',
+    'C3': 'residential',
+    'C4': 'residential',
+    'C5': 'residential',
+    'C6': 'residential',
+    'C7': 'residential',
+    'C8': 'residential',
+    'C9': 'residential',
+    'D0': 'residential',
+    'D1': 'residential',
+    'D2': 'residential',
+    'D3': 'residential',
+    'D4': 'residential',
+    'D5': 'residential',
+    'D6': 'residential',
+    'D7': 'residential',
+    'D8': 'residential',
+    'D9': 'residential',
+    'E1': 'warehouse',
+    'E3': 'warehouse',
+    'E4': 'warehouse',
+    'E5': 'warehouse',
+    'E7': 'warehouse',
+    'E9': 'warehouse',
+    'F1': 'warehouse',
+    'F2': 'warehouse',
+    'F4': 'warehouse',
+    'F5': 'warehouse',
+    'F8': 'warehouse',
+    'F9': 'warehouse',
+    'G0': 'office',
+    'G1': 'office',
+    'G2': 'office',
+    'G3': 'office',
+    'G4': 'office',
+    'G5': 'office',
+    'G6': 'office',
+    'G7': 'office',
+    'G8': 'office',
+    'G9': 'office',
+    'H1': 'hotel',
+    'H2': 'hotel',
+    'H3': 'hotel',
+    'H4': 'hotel',
+    'H5': 'hotel',
+    'H6': 'hotel',
+    'H7': 'hotel',
+    'H8': 'hotel',
+    'H9': 'hotel',
+    'HB': 'hotel',
+    'HH': 'hotel',
+    'HR': 'hotel',
+    'HS': 'hotel',
+    'I1': 'hospital',
+    'I2': 'outpatient',
+    'I3': 'outpatient',
+    'I4': 'residential',
+    'I5': 'outpatient',
+    'I6': 'outpatient',
+    'I7': 'outpatient',
+    'I9': 'outpatient',
+    'J1': 'large office',
+    'J2': 'large office',
+    'J3': 'large office',
+    'J4': 'large office',
+    'J5': 'large office',
+    'J6': 'large office',
+    'J7': 'large office',
+    'J8': 'large office',
+    'J9': 'large office',
+    'K1': 'strip mall',
+    'K2': 'strip mall',
+    'K3': 'strip mall',
+    'K4': 'residential',
+    'K5': 'restaurant',
+    'K6': 'commercial',
+    'K7': 'commercial',
+    'K8': 'commercial',
+    'K9': 'commercial',
+    'L1': 'residential',
+    'L2': 'residential',
+    'L3': 'residential',
+    'L8': 'residential',
+    'L9': 'residential',
+    'M1': 'large office',
+    'M2': 'large office',
+    'M3': 'large office',
+    'M4': 'large office',
+    'M9': 'large office',
+    'N1': 'residential',
+    'N2': 'residential',
+    'N3': 'residential',
+    'N4': 'residential',
+    'N9': 'residential',
+    'O1': 'office',
+    'O2': 'office',
+    'O3': 'office',
+    'O4': 'office',
+    'O5': 'office',
+    'O6': 'office',
+    'O7': 'office',
+    'O8': 'office',
+    'O9': 'office',
+    'P1': 'large office',
+    'P2': 'hotel',
+    'P3': 'office',
+    'P4': 'office',
+    'P5': 'office',
+    'P6': 'office',
+    'P7': 'large office',
+    'P8': 'large office',
+    'P9': 'office',
+    'Q0': 'office',
+    'Q1': 'office',
+    'Q2': 'office',
+    'Q3': 'office',
+    'Q4': 'office',
+    'Q5': 'office',
+    'Q6': 'office',
+    'Q7': 'office',
+    'Q8': 'office',
+    'Q9': 'office',
+    'R0': 'residential',
+    'R1': 'residential',
+    'R2': 'residential',
+    'R3': 'residential',
+    'R4': 'residential',
+    'R5': 'residential',
+    'R6': 'residential',
+    'R7': 'residential',
+    'R8': 'residential',
+    'R9': 'residential',
+    'RA': 'residential',
+    'RB': 'residential',
+    'RC': 'residential',
+    'RD': 'residential',
+    'RG': 'residential',
+    'RH': 'residential',
+    'RI': 'residential',
+    'RK': 'residential',
+    'RM': 'residential',
+    'RR': 'residential',
+    'RS': 'residential',
+    'RW': 'residential',
+    'RX': 'residential',
+    'RZ': 'residential',
+    'S0': 'residential',
+    'S1': 'residential',
+    'S2': 'residential',
+    'S3': 'residential',
+    'S4': 'residential',
+    'S5': 'residential',
+    'S9': 'residential',
+    'T1': 'na',
+    'T2': 'na',
+    'T9': 'na',
+    'U0': 'warehouse',
+    'U1': 'warehouse',
+    'U2': 'warehouse',
+    'U3': 'warehouse',
+    'U4': 'warehouse',
+    'U5': 'warehouse',
+    'U6': 'warehouse',
+    'U7': 'warehouse',
+    'U8': 'warehouse',
+    'U9': 'warehouse',
+    'V0': 'na',
+    'V1': 'na',
+    'V2': 'na',
+    'V3': 'na',
+    'V4': 'na',
+    'V5': 'na',
+    'V6': 'na',
+    'V7': 'na',
+    'V8': 'na',
+    'V9': 'na',
+    'W1': 'primary school',
+    'W2': 'primary school',
+    'W3': 'secondary school',
+    'W4': 'secondary school',
+    'W5': 'secondary school',
+    'W6': 'secondary school',
+    'W7': 'secondary school',
+    'W8': 'primary school',
+    'W9': 'secondary school',
+    'Y1': 'large office',
+    'Y2': 'large office',
+    'Y3': 'large office',
+    'Y4': 'large office',
+    'Y5': 'large office',
+    'Y6': 'large office',
+    'Y7': 'large office',
+    'Y8': 'large office',
+    'Y9': 'large office',
+    'Z0': 'na',
+    'Z1': 'large office',
+    'Z2': 'na',
+    'Z3': 'na',
+    'Z4': 'na',
+    'Z5': 'na',
+    'Z6': 'na',
+    'Z7': 'na',
+    'Z8': 'na',
+    'Z9': 'na'
+  }
+  hft_to_function = {
+    'residential': cte.RESIDENTIAL,
+    'single family house': cte.SFH,
+    'multifamily house': cte.MFH,
+    'hotel': cte.HOTEL,
+    'hospital': cte.HOSPITAL,
+    'outpatient': cte.OUTPATIENT,
+    'commercial': cte.COMMERCIAL,
+    'strip mall': cte.STRIP_MALL,
+    'warehouse': cte.WAREHOUSE,
+    'primary school': cte.PRIMARY_SCHOOL,
+    'secondary school': cte.SECONDARY_SCHOOL,
+    'office': cte.OFFICE,
+    'large office': cte.LARGE_OFFICE
+  }
+
+  # usage
+  function_to_usage = {
+    'full service restaurant': 'restaurant',
+    'highrise apartment': cte.RESIDENTIAL,
+    'hospital': 'health care',
+    'large hotel': 'hotel',
+    'large office': 'office and administration',
+    'medium office': 'office and administration',
+    'midrise apartment': cte.RESIDENTIAL,
+    'outpatient healthcare': 'health care',
+    'primary school': 'education',
+    'quick service restaurant': 'restaurant',
+    'secondary school': 'education',
+    'small hotel': 'hotel',
+    'small office': 'office and administration',
+    'stand alone retail': 'retail',
+    'strip mall': 'hall',
+    'supermarket': 'retail',
+    'warehouse': 'industry',
+    'residential': cte.RESIDENTIAL
+  }
+
+  @staticmethod
+  def function_from_hft(building_hft_function):
+    """
+    Get internal function from the given HfT function
+    :param building_hft_function: str
+    :return: str
+    """
+    return GeometryHelper.hft_to_function[building_hft_function]
+
+  @staticmethod
+  def function_from_pluto(building_pluto_function):
+    """
+    Get internal function from the given pluto function
+    :param building_pluto_function: str
+    :return: str
+    """
+    return GeometryHelper.pluto_to_function[building_pluto_function]
+
+  @staticmethod
+  def usage_from_function(building_function):
+    """
+    Get the internal usage for the given internal building function
+    :param building_function: str
+    :return: str
+    """
+    return GeometryHelper.function_to_usage[building_function]
+
+  @staticmethod
+  def to_points_matrix(points):
+    """
+    Transform a point vector into a point matrix
+    :param points: [x, y, z, x, y, z ...]
+    :return: [[x,y,z],[x,y,z]...]
+    """
+    rows = points.size // 3
+    points = points.reshape(rows, 3)
+    return points
+
+  @staticmethod
+  def gml_surface_to_libs(surface):
+    """
+    Transform citygml surface names into libs names
+    """
+    if surface == 'WallSurface':
+      return 'Wall'
+    if surface == 'GroundSurface':
+      return 'Ground'
+    return 'Roof'
diff --git a/imports/imports/geometry/obj.py b/imports/imports/geometry/obj.py
new file mode 100644
index 00000000..3c7a724f
--- /dev/null
+++ b/imports/imports/geometry/obj.py
@@ -0,0 +1,81 @@
+"""
+Obj module parses obj files and import the geometry into the city model structure
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import trimesh.exchange.load
+from trimesh import Scene
+import trimesh.geometry
+from city_model_structure.city import City
+from city_model_structure.building import Building
+from city_model_structure.building_demand.surface import Surface
+from city_model_structure.attributes.polygon import Polygon
+
+
+class Obj:
+  """
+  Obj class
+  """
+  def __init__(self, path):
+    self._city = None
+    with open(path, 'r') as file:
+      self._scene = trimesh.exchange.load.load(file, file_type='obj', force='scene')
+    self._corners = self._scene.bounds_corners
+    _bound_corner_min = []
+    _bound_corner_max = []
+    for corner in self._corners:
+      if _bound_corner_min is None:
+        _bound_corner_min = corner
+      elif _bound_corner_max is None:
+        _bound_corner_max = corner
+      else:
+        _bound_corner_min[0] = min(_bound_corner_min[0], corner[0])
+        _bound_corner_min[1] = min(_bound_corner_min[1], corner[1])
+        _bound_corner_min[2] = min(_bound_corner_min[2], corner[2])
+        _bound_corner_max[0] = max(_bound_corner_max[0], corner[0])
+        _bound_corner_max[1] = max(_bound_corner_max[1], corner[1])
+        _bound_corner_max[2] = max(_bound_corner_max[2], corner[2])
+    self._lower_corner = _bound_corner_min
+    self._upper_corner = _bound_corner_max
+
+  @property
+  def scene(self) -> Scene:
+    """
+    Obj scene
+    """
+    return self._scene
+
+  @property
+  def city(self) -> City:
+    """
+    Create a city out of an obj file
+    """
+    if self._city is None:
+      # todo: refactor this method to clearly choose the obj type
+      # todo: where do we get this information from?
+      srs_name = 'EPSG:26911'
+
+      self._city = City(self._lower_corner, self._upper_corner, srs_name)
+      scene = self.scene.geometry
+      keys = scene.keys()
+      for key in keys:
+        name = key
+        # todo: where do we get this information from?
+        lod = 1
+        year_of_construction = 0
+        function = ''
+
+        obj = scene[key]
+        surfaces = []
+        for face in obj.faces:
+          # todo: review for obj with windows
+          points = []
+          for vertex_index in face:
+            points.append(obj.vertices[vertex_index])
+          solid_polygon = Polygon(points)
+          perimeter_polygon = solid_polygon
+          surface = Surface(solid_polygon, perimeter_polygon)
+          surfaces.append(surface)
+        building = Building(name, lod, surfaces, year_of_construction, function, self._lower_corner)
+        self._city.add_city_object(building)
+    return self._city
diff --git a/imports/imports/geometry/osm_subway.py b/imports/imports/geometry/osm_subway.py
new file mode 100644
index 00000000..82349182
--- /dev/null
+++ b/imports/imports/geometry/osm_subway.py
@@ -0,0 +1,54 @@
+"""
+OsmSubway module parses osm files and import the metro location into the city model structure
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+
+import sys
+import xmltodict
+from pyproj import Transformer
+from city_model_structure.city import City
+from city_model_structure.subway_entrance import SubwayEntrance
+
+
+class OsmSubway:
+  """
+  Open street map subway
+  """
+  def __init__(self, path):
+    self._city = None
+    self._subway_entrances = []
+    with open(path) as osm:
+      self._osm = xmltodict.parse(osm.read(), force_list='tag')
+      for node in self._osm['osm']['node']:
+        if 'tag' not in node:
+          continue
+        for tag in node['tag']:
+          if '@v' not in tag:
+            continue
+          if tag['@v'] == 'subway_entrance':
+            subway_entrance = SubwayEntrance(node['@id'], node['@lat'], node['@lon'])
+            self._subway_entrances.append(subway_entrance)
+
+  @property
+  def city(self) -> City:
+    """
+    City subway entrances
+    """
+    transformer = Transformer.from_crs("EPSG:4326", "EPSG:3857")
+    lower_corner = [sys.float_info.max, sys.float_info.max, 0]
+    upper_corner = [sys.float_info.min, sys.float_info.min, 0]
+    x = 0
+    y = 1
+    for subway_entrance in self._subway_entrances:
+      coordinate = transformer.transform(subway_entrance.longitude, subway_entrance.latitude)
+      if coordinate[x] >= upper_corner[x]:
+        upper_corner[x] = coordinate[x]
+      if coordinate[y] >= upper_corner[y]:
+        upper_corner[y] = coordinate[y]
+      if coordinate[x] < lower_corner[x]:
+        lower_corner[x] = coordinate[x]
+      if coordinate[y] < lower_corner[y]:
+        lower_corner[y] = coordinate[y]
+
+    return City(lower_corner, upper_corner, 'unknown')
diff --git a/imports/imports/geometry_factory.py b/imports/imports/geometry_factory.py
new file mode 100644
index 00000000..3c18392a
--- /dev/null
+++ b/imports/imports/geometry_factory.py
@@ -0,0 +1,39 @@
+"""
+GeometryFactory retrieve the specific geometric module to load the given format
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+
+from city_model_structure.city import City
+from imports.geometry.citygml import CityGml
+from imports.geometry.obj import Obj
+from imports.geometry.osm_subway import OsmSubway
+
+
+class GeometryFactory:
+  """
+  GeometryFactory class
+  """
+  def __init__(self, file_type, path):
+    self._file_type = '_' + file_type.lower()
+    self._path = path
+
+  @property
+  def _citygml(self):
+    return CityGml(self._path).city
+
+  @property
+  def _obj(self):
+    return Obj(self._path).city
+
+  @property
+  def _osm_subway(self):
+    return OsmSubway(self._path).city
+
+  @property
+  def city(self) -> City:
+    """
+    Load  the city model structure from a geometry source
+    :return: City
+    """
+    return getattr(self, self._file_type, lambda: None)
diff --git a/imports/imports/schedules/comnet_schedules_parameters.py b/imports/imports/schedules/comnet_schedules_parameters.py
new file mode 100644
index 00000000..61964e02
--- /dev/null
+++ b/imports/imports/schedules/comnet_schedules_parameters.py
@@ -0,0 +1,42 @@
+"""
+Schedules retrieve the specific usage schedules module for the given standard
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+contributors Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import pandas as pd
+from imports.schedules.helpers.schedules_helper import SchedulesHelper
+
+
+class ComnetSchedules:
+  """
+  Commet based schedules
+  """
+  def __init__(self, city, base_path):
+    self._city = city
+    self._comnet_schedules_path = base_path / 'comnet_archetypes.xlsx'
+    xls = pd.ExcelFile(self._comnet_schedules_path)
+    for building in city.buildings:
+      schedules = dict()
+      for usage_zone in building.usage_zones:
+        usage_schedules = pd.read_excel(xls,
+                                        sheet_name=SchedulesHelper.comnet_from_usage(usage_zone.usage),
+                                        skiprows=[0, 1, 2, 3], nrows=39, usecols="A:AA")
+      # todo: should we save the data type? How?
+        number_of_schedule_types = 13
+        schedules_per_schedule_type = 3
+        day_types = dict({'week_day': 0, 'saturday': 1, 'sunday': 2})
+        for schedule_types in range(0, number_of_schedule_types):
+          data = pd.DataFrame()
+          columns_names = []
+          name = ''
+          for schedule_day in range(0, schedules_per_schedule_type):
+            row_cells = usage_schedules.iloc[schedules_per_schedule_type*schedule_types + schedule_day]
+            if schedule_day == day_types['week_day']:
+              name = row_cells[0]
+            columns_names.append(row_cells[2])
+            data1 = row_cells[schedules_per_schedule_type:]
+            data = pd.concat([data, data1],  axis=1)
+          data.columns = columns_names
+          schedules[name] = data
+        usage_zone.schedules = schedules
diff --git a/imports/imports/schedules/doe_idf.py b/imports/imports/schedules/doe_idf.py
new file mode 100644
index 00000000..13ba9a36
--- /dev/null
+++ b/imports/imports/schedules/doe_idf.py
@@ -0,0 +1,114 @@
+"""
+MyClass module
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project
+"""
+import pandas as pd
+import parseidf
+
+
+class DoeIdf:
+  """
+  This is a import factory to add Idf schedules into the data model
+  """
+  idf_schedule_to_commet_schedule = {'BLDG_LIGHT_SCH': 'Lights',
+                                     'BLDG_OCC_SCH_wo_SB': 'Occupancy',
+                                     'BLDG_EQUIP_SCH': 'Equipment',
+                                     'ACTIVITY_SCH': 'Activity',
+                                     'INFIL_QUARTER_ON_SCH': 'Infiltration'}
+
+  _SCHEDULE_COMPACT_TYPE = 'SCHEDULE:COMPACT'
+  _SCHEDULE_TYPE_NAME = 1
+
+  def __init__(self, city, base_path):
+    self._hours = []
+    panda_hours = pd.timedelta_range(0, periods=24, freq='H')
+    for _, hour in enumerate(panda_hours):
+      self._hours.append(str(hour).replace('0 days ', '').replace(':00:00', ':00'))
+    self._city = city
+    self._idf_schedules_path = base_path / 'ASHRAE901_OfficeSmall_STD2019_Buffalo.idf'
+    with open(self._idf_schedules_path, 'r') as file:
+      idf = parseidf.parse(file.read())
+    self._load_schedule(idf, 'small_office')
+    self._load_schedule(idf, 'residential')
+
+  def _load_schedule(self, idf, building_usage):
+    schedules_day = {}
+    for compact_schedule in idf[self._SCHEDULE_COMPACT_TYPE]:
+      if compact_schedule[self._SCHEDULE_TYPE_NAME] in self.idf_schedule_to_commet_schedule:
+        schedule_type = self.idf_schedule_to_commet_schedule[compact_schedule[self._SCHEDULE_TYPE_NAME]]
+      else:
+        continue
+      days_index = []
+      days_schedules = []
+      for position, elements in enumerate(compact_schedule):
+        element_title = elements.title().replace('For: ', '')
+        if elements.title() != element_title:
+          days_index.append(position)
+        # store a cleaned version of the compact schedule
+        days_schedules.append(element_title)
+      days_index.append(len(days_schedules))
+      # create panda
+      data = {'WD': [], 'Sat': [], 'Sun': []}
+      rows = []
+      for j in range(1, 13):
+        rows.append(f'{j}am')
+      for j in range(1, 13):
+        rows.append(f'{j}pm')
+      for i, day_index in enumerate(days_index):
+        if day_index == len(days_schedules):
+          break
+        schedules_day[f'{days_schedules[day_index]}'] = []
+        hour_index = 0
+        for hours_values in range(day_index + 1, days_index[i + 1] - 1, 2):
+          # Create 24h sequence
+          for index, hour in enumerate(self._hours[hour_index:]):
+            hour_formatted = days_schedules[hours_values].replace("Until: ", "")
+            if len(hour_formatted) == 4:
+              hour_formatted = f'0{hour_formatted}'
+            if hour == hour_formatted:
+              hour_index += index
+              break
+            entry = days_schedules[hours_values + 1]
+            schedules_day[f'{days_schedules[day_index]}'].append(entry)
+
+        if 'Weekdays' in days_schedules[day_index]:
+          data['WD'] = []
+          for entry in schedules_day[f'{days_schedules[day_index]}']:
+            data['WD'].append(entry)
+
+        elif 'Alldays' in days_schedules[day_index]:
+          data['WD'] = []
+          data['Sat'] = []
+          data['Sun'] = []
+          for entry in schedules_day[f'{days_schedules[day_index]}']:
+            data['WD'].append(entry)
+            data['Sat'].append(entry)
+            data['Sun'].append(entry)
+
+        elif 'Weekends' in days_schedules[day_index]:
+          # Weekends schedule present so let's re set the values
+          data['Sat'] = []
+          data['Sun'] = []
+          for entry in schedules_day[f'{days_schedules[day_index]}']:
+            data['Sat'].append(entry)
+            data['Sun'].append(entry)
+
+        elif 'Saturday' in days_schedules[day_index]:
+          data['Sat'] = []
+          for entry in schedules_day[f'{days_schedules[day_index]}']:
+            data['Sat'].append(entry)
+
+        elif 'Sunday' in days_schedules[day_index]:
+          data['Sun'] = []
+          for entry in schedules_day[f'{days_schedules[day_index]}']:
+            data['Sun'].append(entry)
+        else:
+          continue
+      df = pd.DataFrame(data, index=rows)
+      for building in self._city.buildings:
+        for usage_zone in building.usage_zones:
+          if usage_zone.usage == building_usage:
+            if usage_zone.schedules is None:
+              usage_zone.schedules = {}
+            usage_zone.schedules[schedule_type] = df
diff --git a/imports/imports/schedules/helpers/schedules_helper.py b/imports/imports/schedules/helpers/schedules_helper.py
new file mode 100644
index 00000000..75233cd9
--- /dev/null
+++ b/imports/imports/schedules/helpers/schedules_helper.py
@@ -0,0 +1,39 @@
+"""
+Schedules helper
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+contributors Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import sys
+import helpers.constants as cte
+
+
+class SchedulesHelper:
+  """
+  Schedules helper
+  """
+  usage_to_comnet = {
+    cte.RESIDENTIAL: 'C-12 Residential',
+    cte.INDUSTRY: 'C-10 Warehouse',
+    cte.OFFICE_ADMINISTRATION: 'C-5 Office',
+    cte.HOTEL: 'C-3 Hotel',
+    cte.HEALTH_CARE: 'C-2 Health',
+    cte.RETAIL: 'C-8 Retail',
+    cte.HALL: 'C-8 Retail',
+    cte.RESTAURANT: 'C-7 Restaurant',
+    cte.EDUCATION: 'C-9 School'
+  }
+  comnet_default_value = 'C-12 Residential'
+
+  @staticmethod
+  def comnet_from_usage(usage):
+    """
+    Get Comnet usage from the given internal usage key
+    :param usage: str
+    :return: str
+    """
+    try:
+      return SchedulesHelper.usage_to_comnet[usage]
+    except KeyError:
+      sys.stderr.write('Error: keyword not found. Returned default Comnet schedules "residential"\n')
+      return SchedulesHelper.comnet_default_value
diff --git a/imports/imports/schedules_factory.py b/imports/imports/schedules_factory.py
new file mode 100644
index 00000000..ea1634ac
--- /dev/null
+++ b/imports/imports/schedules_factory.py
@@ -0,0 +1,37 @@
+"""
+SchedulesFactory retrieve the specific schedules module for the given standard
+This factory can only be called after calling the usage factory so the usage zones are created.
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+
+from pathlib import Path
+from imports.schedules.comnet_schedules_parameters import ComnetSchedules
+from imports.schedules.doe_idf import DoeIdf
+
+
+class SchedulesFactory:
+  """
+  SchedulesFactor class
+  """
+  def __init__(self, handler, city, base_path=Path(Path(__file__).parent.parent / 'data/schedules')):
+    self._handler = '_' + handler.lower().replace(' ', '_')
+    self._city = city
+    self._base_path = base_path
+    for building in city.buildings:
+      if len(building.usage_zones) == 0:
+        raise Exception('It seems that the schedule factory is being called before the usage factory. '
+                        'Please ensure that the usage factory is called first.')
+
+  def _comnet(self):
+    ComnetSchedules(self._city, self._base_path)
+
+  def _doe_idf(self):
+    DoeIdf(self._city, self._base_path)
+
+  def enrich(self):
+    """
+    Enrich the city with the schedules information
+    :return: None
+    """
+    getattr(self, self._handler, lambda: None)()
diff --git a/imports/imports/sensors/concordia_energy_consumption.py b/imports/imports/sensors/concordia_energy_consumption.py
new file mode 100644
index 00000000..0b006045
--- /dev/null
+++ b/imports/imports/sensors/concordia_energy_consumption.py
@@ -0,0 +1,35 @@
+"""
+Concordia energy consumption
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2021 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+import pandas as pd
+from imports.sensors.concordia_file_report import ConcordiaFileReport
+from city_model_structure.iot.concordia_energy_sensor import ConcordiaEnergySensor
+
+
+class ConcordiaEnergyConsumption(ConcordiaFileReport):
+  """
+  Concordia energy consumption sensor class
+  """
+  def __init__(self, city, end_point, base_path):
+    super().__init__(city, end_point, base_path, 'concordia_energy_db.json')
+    for city_object in city.city_objects:
+      self._assign_sensor_to_object(city_object)
+
+  def _assign_sensor_to_object(self, obj):
+    for i in range(len(self._city_object)):
+      if self._city_object[i] == obj.name and self._sensors[i] in self._sensor_point:
+        building_measures = [self._measures["Date time"], self._measures[self._sensor_point[self._sensors[i]]]]
+        building_headers = ["Date time", "Energy consumption"]
+        building_energy_consumption = pd.concat(building_measures, keys=building_headers, axis=1)
+        sensor = ConcordiaEnergySensor(self._sensors[i])
+        sensor_exist = False
+        for j in range(len(obj.sensors)):
+          if obj.sensors[j].name is sensor.name:
+            obj.sensors[j].add_period(building_energy_consumption)
+            sensor_exist = True
+            break
+        if not sensor_exist:
+          sensor.add_period(building_energy_consumption)
+          obj.sensors.append(sensor)
diff --git a/imports/imports/sensors/concordia_file_report.py b/imports/imports/sensors/concordia_file_report.py
new file mode 100644
index 00000000..6f360f86
--- /dev/null
+++ b/imports/imports/sensors/concordia_file_report.py
@@ -0,0 +1,79 @@
+"""
+Concordia file report
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2021 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+
+import io
+import json
+from pathlib import Path
+import pandas as pd
+
+
+class ConcordiaFileReport:
+  """
+  Concordia file report for sensors base class
+  """
+  def __init__(self, city, end_point, base_path, db_file):
+    self._city_object = []
+    self._city_objects_cluster = []
+    self._sensors = []
+    self._sensor_point = {}
+    self._city = city
+    self._end_point = end_point
+    self._sensor_database = base_path
+    metadata = True
+    content = False
+    with open(Path(base_path / db_file).resolve()) as concordia_db:
+      self._sensor_database = json.load(concordia_db)
+
+    for city_object in self._sensor_database['sensors']:
+      city_object_name = city_object['city_object']
+      for sensor in city_object['sensors']:
+        self._city_object.append(city_object_name)
+        self._sensors.append(sensor)
+
+    buffer = ""
+    with open(end_point.resolve()) as data:
+      for line in data:
+        line = ConcordiaFileReport._clean_line(line)
+        if metadata:
+          fields = line.split(',')
+          if len(fields) > 2:
+            point = fields[0].replace(":", "")
+            key = fields[1]
+            if fields[1] in self._sensors:
+              self._sensor_point[key] = point
+        if "End of Report" in line:
+          content = False
+        if content:
+          line = ConcordiaFileReport._merge_date_time(line)
+          buffer = buffer + line + '\n'
+        if line == '':
+          metadata = False
+          content = True
+    measures = pd.read_csv(io.StringIO(buffer), sep=',')
+    measures["Date time"] = pd.to_datetime(measures["Date time"])
+    self._measures = ConcordiaFileReport._force_format(measures)
+
+  @staticmethod
+  def _clean_line(line):
+    return line.replace('"', '').replace('\n', '')
+
+  @staticmethod
+  def _merge_date_time(line):
+    fields = line.split(',')
+    date = fields[0]
+    time = fields[1]
+    if '<>' in date:
+      return line.replace(f'{date},{time}', 'Date time')
+    date_fields = date.split('/')
+    format_date_time = f'"{int(date_fields[2])}-{int(date_fields[0]):02d}-{int(date_fields[1]):02d} {time}"'
+    return line.replace(f'{date},{time}', format_date_time)
+
+  @staticmethod
+  def _force_format(df):
+    for head in df.head():
+      if 'Date time' not in head:
+        df = df.astype({head: 'float64'})
+    return df
diff --git a/imports/imports/sensors/concordia_gas_flow.py b/imports/imports/sensors/concordia_gas_flow.py
new file mode 100644
index 00000000..e9176fc7
--- /dev/null
+++ b/imports/imports/sensors/concordia_gas_flow.py
@@ -0,0 +1,36 @@
+"""
+Concordia gas flow
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2021 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import pandas as pd
+from imports.sensors.concordia_file_report import ConcordiaFileReport
+from city_model_structure.iot.concordia_gas_flow_sensor import ConcordiaGasFlowSensor
+
+
+class ConcordiaGasFlow(ConcordiaFileReport):
+  """
+  Concordia gas flow sensor class
+  """
+
+  def __init__(self, city, end_point, base_path):
+    super().__init__(city, end_point, base_path, 'concordia_gas_flow_db.json')
+    for city_object in city.city_objects:
+      self._assign_sensor_to_object(city_object)
+
+  def _assign_sensor_to_object(self, obj):
+    for i in range(len(self._city_object)):
+      if self._city_object[i] == obj.name and self._sensors[i] in self._sensor_point:
+        building_measures = [self._measures["Date time"], self._measures[self._sensor_point[self._sensors[i]]]]
+        building_headers = ["Date time", "Gas Flow Cumulative Monthly"]
+        building_energy_consumption = pd.concat(building_measures, keys=building_headers, axis=1)
+        sensor = ConcordiaGasFlowSensor(self._sensors[i])
+        sensor_exist = False
+        for j in range(len(obj.sensors)):
+          if obj.sensors[j].name is sensor.name:
+            obj.sensors[j].add_period(building_energy_consumption)
+            sensor_exist = True
+            break
+        if not sensor_exist:
+          sensor.add_period(building_energy_consumption)
+          obj.sensors.append(sensor)
diff --git a/imports/imports/sensors/concordia_temperature.py b/imports/imports/sensors/concordia_temperature.py
new file mode 100644
index 00000000..f4b937a8
--- /dev/null
+++ b/imports/imports/sensors/concordia_temperature.py
@@ -0,0 +1,35 @@
+"""
+Concordia temperature
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2021 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import pandas as pd
+from imports.sensors.concordia_file_report import ConcordiaFileReport
+from city_model_structure.iot.concordia_temperature_sensor import ConcordiaTemperatureSensor
+
+
+class ConcordiaTemperature(ConcordiaFileReport):
+  """
+  Concordia temperature sensor class
+  """
+  def __init__(self, city, end_point, base_path):
+    super().__init__(city, end_point, base_path, 'concordia_temperature_db.json')
+    for city_object in city.city_objects:
+      self._assign_sensor_to_object(city_object)
+
+  def _assign_sensor_to_object(self, obj):
+    for i in range(len(self._city_object)):
+      if self._city_object[i] == obj.name and self._sensors[i] in self._sensor_point:
+        building_measures = [self._measures["Date time"], self._measures[self._sensor_point[self._sensors[i]]]]
+        building_headers = ["Date time", "Temperature"]
+        building_energy_consumption = pd.concat(building_measures, keys=building_headers, axis=1)
+        sensor = ConcordiaTemperatureSensor(self._sensors[i])
+        sensor_exist = False
+        for j in range(len(obj.sensors)):
+          if obj.sensors[j].name is sensor.name:
+            obj.sensors[j].add_period(building_energy_consumption)
+            sensor_exist = True
+            break
+        if not sensor_exist:
+          sensor.add_period(building_energy_consumption)
+          obj.sensors.append(sensor)
diff --git a/imports/imports/sensors_factory.py b/imports/imports/sensors_factory.py
new file mode 100644
index 00000000..962b073b
--- /dev/null
+++ b/imports/imports/sensors_factory.py
@@ -0,0 +1,37 @@
+"""
+SensorsFactory retrieve sensors information
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2021 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+Contributors Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+from pathlib import Path
+from imports.sensors.concordia_energy_consumption import ConcordiaEnergyConsumption
+from imports.sensors.concordia_gas_flow import ConcordiaGasFlow
+from imports.sensors.concordia_temperature import ConcordiaTemperature
+
+
+class SensorsFactory:
+  """
+  UsageFactory class
+  """
+  def __init__(self, handler, city, end_point, base_path=Path(Path(__file__).parent.parent / 'data/sensors')):
+    self._handler = '_' + handler.lower().replace(' ', '_')
+    self._city = city
+    self._end_point = end_point
+    self._base_path = base_path
+
+  def _cec(self):
+    ConcordiaEnergyConsumption(self._city, self._end_point, self._base_path)
+
+  def _cgf(self):
+    ConcordiaGasFlow(self._city, self._end_point, self._base_path)
+
+  def _ct(self):
+    ConcordiaTemperature(self._city, self._end_point, self._base_path)
+
+  def enrich(self):
+    """
+    Enrich the city with the usage information
+    :return: None
+    """
+    getattr(self, self._handler, lambda: None)()
diff --git a/imports/imports/usage/ca_usage_parameters.py b/imports/imports/usage/ca_usage_parameters.py
new file mode 100644
index 00000000..1bbe5d58
--- /dev/null
+++ b/imports/imports/usage/ca_usage_parameters.py
@@ -0,0 +1,78 @@
+"""
+CaUsageParameters model the usage properties
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import sys
+
+from imports.geometry.helpers.geometry_helper import GeometryHelper as gh
+from imports.usage.hft_usage_interface import HftUsageInterface
+from city_model_structure.building_demand.usage_zone import UsageZone
+from city_model_structure.building_demand.internal_gains import InternalGains
+
+
+class CaUsageParameters(HftUsageInterface):
+  """
+  CaUsageParameters class
+  """
+  def __init__(self, city, base_path):
+    super().__init__(base_path, 'ca_archetypes_reduced.xml')
+    self._city = city
+    # todo: this is a wrong location for self._min_air_change -> re-think where to place this info
+    #  and where it comes from
+    self._min_air_change = 0
+
+  def enrich_buildings(self):
+    """
+    Returns the city with the usage parameters assigned to the buildings
+    :return:
+    """
+    city = self._city
+    for building in city.buildings:
+      archetype = self._search_archetype(building.function)
+      if archetype is None:
+        sys.stderr.write(f'Building {building.name} has unknown archetype for building function:'
+                         f' {building.function}, that assigns building usage as '
+                         f'{gh.usage_from_function(building.function)}\n')
+        continue
+      # todo: what to do with mix-usage usage from gml?
+      mix_usage = False
+      if not mix_usage:
+        # just one usage_zone
+        for thermal_zone in building.thermal_zones:
+          usage_zone = UsageZone()
+          usage_zone.volume = thermal_zone.volume
+          self._assign_values(usage_zone, archetype)
+          thermal_zone.usage_zones = [usage_zone]
+
+  def _search_archetype(self, building_usage):
+    for building_archetype in self._usage_archetypes:
+      if building_archetype.usage == building_usage:
+        return building_archetype
+    return None
+
+  @staticmethod
+  def _assign_values(usage_zone, archetype):
+    usage_zone.usage = archetype.usage
+    # Due to the fact that python is not a typed language, the wrong object type is assigned to
+    # usage_zone.internal_gains when writing usage_zone.internal_gains = archetype.internal_gains.
+    # Therefore, this walk around has been done.
+    internal_gains = []
+    for archetype_internal_gain in archetype.internal_gains:
+      internal_gain = InternalGains()
+      internal_gain.average_internal_gain = archetype_internal_gain.average_internal_gain
+      internal_gain.convective_fraction = archetype_internal_gain.convective_fraction
+      internal_gain.radiative_fraction = archetype_internal_gain.radiative_fraction
+      internal_gain.latent_fraction = archetype_internal_gain.latent_fraction
+      internal_gains.append(internal_gain)
+    usage_zone.internal_gains = internal_gains
+    usage_zone.heating_setpoint = archetype.heating_setpoint
+    usage_zone.heating_setback = archetype.heating_setback
+    usage_zone.cooling_setpoint = archetype.cooling_setpoint
+    usage_zone.occupancy_density = archetype.occupancy_density
+    usage_zone.hours_day = archetype.hours_day
+    usage_zone.days_year = archetype.days_year
+    usage_zone.dhw_average_volume_pers_day = archetype.dhw_average_volume_pers_day
+    usage_zone.dhw_preparation_temperature = archetype.dhw_preparation_temperature
+    usage_zone.electrical_app_average_consumption_sqm_year = archetype.electrical_app_average_consumption_sqm_year
+    usage_zone.mechanical_air_change = archetype.mechanical_air_change
diff --git a/imports/imports/usage/data_classes/hft_internal_gains_archetype.py b/imports/imports/usage/data_classes/hft_internal_gains_archetype.py
new file mode 100644
index 00000000..c9de13b0
--- /dev/null
+++ b/imports/imports/usage/data_classes/hft_internal_gains_archetype.py
@@ -0,0 +1,49 @@
+"""
+HftInternalGainsArchetype stores internal gains information, complementing the HftUsageZoneArchetype class
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+
+class HftInternalGainsArchetype:
+  """
+  HftInternalGainsArchetype class
+  """
+  def __init__(self, average_internal_gain=None, convective_fraction=None, radiative_fraction=None,
+               latent_fraction=None):
+    self._average_internal_gain = average_internal_gain
+    self._convective_fraction = convective_fraction
+    self._radiative_fraction = radiative_fraction
+    self._latent_fraction = latent_fraction
+
+  @property
+  def average_internal_gain(self):
+    """
+    Get internal gains average internal gain in W/m2
+    :return: float
+    """
+    return self._average_internal_gain
+
+  @property
+  def convective_fraction(self):
+    """
+    Get internal gains convective fraction
+    :return: float
+    """
+    return self._convective_fraction
+
+  @property
+  def radiative_fraction(self):
+    """
+    Get internal gains radiative fraction
+    :return: float
+    """
+    return self._radiative_fraction
+
+  @property
+  def latent_fraction(self):
+    """
+    Get internal gains latent fraction
+    :return: float
+    """
+    return self._latent_fraction
diff --git a/imports/imports/usage/data_classes/hft_usage_zone_archetype.py b/imports/imports/usage/data_classes/hft_usage_zone_archetype.py
new file mode 100644
index 00000000..b945e9c9
--- /dev/null
+++ b/imports/imports/usage/data_classes/hft_usage_zone_archetype.py
@@ -0,0 +1,144 @@
+"""
+HftUsageZoneArchetype stores usage information by building archetypes
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+from typing import List
+from imports.usage.data_classes.hft_internal_gains_archetype import HftInternalGainsArchetype
+
+
+class HftUsageZoneArchetype:
+  """
+  HftUsageZoneArchetype class
+  """
+  def __init__(self, usage=None, internal_gains=None, heating_set_point=None, heating_set_back=None,
+               cooling_set_point=None, occupancy_density=None, hours_day=None, days_year=None,
+               dhw_average_volume_pers_day=None, dhw_preparation_temperature=None,
+               electrical_app_average_consumption_sqm_year=None, mechanical_air_change=None,
+               occupancy=None, schedules=None):
+    self._usage = usage
+    self._internal_gains = internal_gains
+    self._heating_setpoint = heating_set_point
+    self._heating_setback = heating_set_back
+    self._cooling_setpoint = cooling_set_point
+    self._occupancy_density = occupancy_density
+    self._hours_day = hours_day
+    self._days_year = days_year
+    self._dhw_average_volume_pers_day = dhw_average_volume_pers_day
+    self._dhw_preparation_temperature = dhw_preparation_temperature
+    self._electrical_app_average_consumption_sqm_year = electrical_app_average_consumption_sqm_year
+    self._mechanical_air_change = mechanical_air_change
+    self._occupancy = occupancy
+    self._schedules = schedules
+
+  @property
+  def internal_gains(self) -> List[HftInternalGainsArchetype]:
+    """
+    Get usage zone internal gains
+    :return: [InternalGains]
+    """
+    return self._internal_gains
+
+  @property
+  def heating_setpoint(self):
+    """
+    Get usage zone heating set point in celsius grads
+    :return: float
+    """
+    return self._heating_setpoint
+
+  @property
+  def heating_setback(self):
+    """
+    Get usage zone heating setback in celsius grads
+    :return: float
+    """
+    return self._heating_setback
+
+  @property
+  def cooling_setpoint(self):
+    """
+    Get usage zone cooling setpoint in celsius grads
+    :return: float
+    """
+    return self._cooling_setpoint
+
+  @property
+  def hours_day(self):
+    """
+    Get usage zone usage hours per day
+    :return: float
+    """
+    return self._hours_day
+
+  @property
+  def days_year(self):
+    """
+    Get usage zone usage days per year
+    :return: float
+    """
+    return self._days_year
+
+  @property
+  def mechanical_air_change(self):
+    """
+    Set usage zone mechanical air change in air change per hour (ACH)
+    :return: float
+    """
+    return self._mechanical_air_change
+
+  @property
+  def usage(self):
+    """
+    Get usage zone usage
+    :return: str
+    """
+    return self._usage
+
+  @property
+  def occupancy(self):
+    """
+    Get schedules data
+    :return: [Occupancy]
+    """
+    return self._occupancy
+
+  @property
+  def schedules(self):
+    """
+    Get schedules
+    :return: [Schedule_Values]
+    """
+    return self._schedules
+
+  @property
+  def occupancy_density(self):
+    """
+    Get schedules density in persons per m2
+    :return: float
+    """
+    return self._occupancy_density
+
+  @property
+  def dhw_average_volume_pers_day(self):
+    """
+    Get average DHW consumption in m3 per person per day
+    :return: float
+    """
+    return self._dhw_average_volume_pers_day
+
+  @property
+  def dhw_preparation_temperature(self):
+    """
+    Get preparation temperature of the DHW in degree Celsius
+    :return: float
+    """
+    return self._dhw_preparation_temperature
+
+  @property
+  def electrical_app_average_consumption_sqm_year(self):
+    """
+    Get average consumption of electrical appliances in Joules per m2 and year (J/m2yr)
+    :return: float
+    """
+    return self._electrical_app_average_consumption_sqm_year
diff --git a/imports/imports/usage/helpers/usage_helper.py b/imports/imports/usage/helpers/usage_helper.py
new file mode 100644
index 00000000..ffd87e23
--- /dev/null
+++ b/imports/imports/usage/helpers/usage_helper.py
@@ -0,0 +1,38 @@
+"""
+Usage helper
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import sys
+import helpers.constants as cte
+
+
+class UsageHelper:
+  """
+  Usage helpre class
+  """
+  usage_to_hft = {
+    cte.RESIDENTIAL: 'residential',
+    cte.INDUSTRY: 'industry',
+    cte.OFFICE_ADMINISTRATION: 'office and administration',
+    cte.HOTEL: 'hotel',
+    cte.HEALTH_CARE: 'health care',
+    cte.RETAIL: 'retail',
+    cte.HALL: 'hall',
+    cte.RESTAURANT: 'restaurant',
+    cte.EDUCATION: 'education'
+  }
+  hft_default_value = 'residential'
+
+  @staticmethod
+  def hft_from_usage(usage):
+    """
+    Get HfT usage from the given internal usage key
+    :param usage: str
+    :return: str
+    """
+    try:
+      return UsageHelper.usage_to_hft[usage]
+    except KeyError:
+      sys.stderr.write('Error: keyword not found. Returned default HfT usage "residential"\n')
+      return UsageHelper.hft_default_value
diff --git a/imports/imports/usage/hft_usage_interface.py b/imports/imports/usage/hft_usage_interface.py
new file mode 100644
index 00000000..b6223295
--- /dev/null
+++ b/imports/imports/usage/hft_usage_interface.py
@@ -0,0 +1,141 @@
+"""
+Hft-based interface, it reads format defined within the CERC team based on that one used in SimStadt and developed by
+the IAF team at hft-Stuttgart and enriches the city with usage parameters
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import xmltodict
+from imports.usage.data_classes.hft_usage_zone_archetype import HftUsageZoneArchetype as huza
+from imports.usage.data_classes.hft_internal_gains_archetype import HftInternalGainsArchetype as higa
+
+
+class HftUsageInterface:
+  """
+  HftUsageInterface abstract class
+  """
+
+  def __init__(self, base_path, usage_file='ca_library_reduced.xml'):
+    path = str(base_path / usage_file)
+    self._usage_archetypes = []
+    with open(path) as xml:
+      self._archetypes = xmltodict.parse(xml.read(), force_list=('zoneUsageVariant', 'zoneUsageType'))
+    for zone_usage_type in self._archetypes['buildingUsageLibrary']['zoneUsageType']:
+      usage = zone_usage_type['id']
+      usage_archetype = self._parse_zone_usage_type(usage, zone_usage_type)
+      self._usage_archetypes.append(usage_archetype)
+      if 'zoneUsageVariant' in zone_usage_type:
+        for usage_zone_variant in zone_usage_type['zoneUsageVariant']:
+          usage = usage_zone_variant['id']
+          usage_archetype_variant = self._parse_zone_usage_variant(usage, usage_archetype, usage_zone_variant)
+          self._usage_archetypes.append(usage_archetype_variant)
+
+  @staticmethod
+  def _parse_zone_usage_type(usage, zone_usage_type):
+    occupancy_density = zone_usage_type['occupancy']['occupancyDensity']
+    hours_day = zone_usage_type['occupancy']['usageHoursPerDay']
+    days_year = zone_usage_type['occupancy']['usageDaysPerYear']
+    cooling_setpoint = zone_usage_type['endUses']['space_cooling']['coolingSetPointTemperature']
+    heating_setpoint = zone_usage_type['endUses']['space_heating']['heatingSetPointTemperature']
+    heating_setback = zone_usage_type['endUses']['space_heating']['heatingSetBackTemperature']
+    mechanical_air_change = None
+    if 'ventilation' in zone_usage_type['endUses'] and zone_usage_type['endUses']['ventilation'] is not None:
+      mechanical_air_change = zone_usage_type['endUses']['ventilation']['mechanicalAirChangeRate']
+    dhw_average_volume_pers_day = None
+    dhw_preparation_temperature = None
+    if 'domestic_hot_water' in zone_usage_type['endUses']:
+      # liters to cubic meters
+      dhw_average_volume_pers_day = float(
+        zone_usage_type['endUses']['domestic_hot_water']['averageVolumePerPersAndDay']) / 1000
+      dhw_preparation_temperature = zone_usage_type['endUses']['domestic_hot_water']['preparationTemperature']
+    electrical_app_average_consumption_sqm_year = None
+    if 'all_electrical_appliances' in zone_usage_type['endUses']:
+      if 'averageConsumptionPerSqmAndYear' in zone_usage_type['endUses']['all_electrical_appliances']:
+        # kWh to J
+        electrical_app_average_consumption_sqm_year = \
+          float(zone_usage_type['endUses']['all_electrical_appliances']['averageConsumptionPerSqmAndYear']) / 3.6
+
+    # todo: for internal_gain in usage_zone_variant['schedules']['internGains']:????????????????
+    #  There are no more internal gains? How is it saved when more than one???
+    internal_gains = []
+    if 'internGains' in zone_usage_type['occupancy']:
+      latent_fraction = zone_usage_type['occupancy']['internGains']['latentFraction']
+      convective_fraction = zone_usage_type['occupancy']['internGains']['convectiveFraction']
+      average_internal_gain = zone_usage_type['occupancy']['internGains']['averageInternGainPerSqm']
+      radiative_fraction = zone_usage_type['occupancy']['internGains']['radiantFraction']
+    else:
+      latent_fraction = 0
+      convective_fraction = 0
+      average_internal_gain = 0
+      radiative_fraction = 0
+
+    internal_gains.append(higa(average_internal_gain, convective_fraction, radiative_fraction, latent_fraction))
+    usage_zone_archetype = huza(usage=usage, internal_gains=internal_gains, heating_set_point=heating_setpoint,
+                                heating_set_back=heating_setback, cooling_set_point=cooling_setpoint,
+                                occupancy_density=occupancy_density, hours_day=hours_day, days_year=days_year,
+                                dhw_average_volume_pers_day=dhw_average_volume_pers_day,
+                                dhw_preparation_temperature=dhw_preparation_temperature,
+                                electrical_app_average_consumption_sqm_year=electrical_app_average_consumption_sqm_year,
+                                mechanical_air_change=mechanical_air_change)
+    return usage_zone_archetype
+
+  @staticmethod
+  def _parse_zone_usage_variant(usage, usage_zone, usage_zone_variant):
+    # for the variants all is optional because it mimics the inheritance concept from OOP
+    occupancy_density = usage_zone.occupancy_density
+    hours_day = usage_zone.hours_day
+    days_year = usage_zone.days_year
+    cooling_setpoint = usage_zone.cooling_setpoint
+    heating_setpoint = usage_zone.heating_setpoint
+    heating_setback = usage_zone.heating_setback
+    mechanical_air_change = usage_zone.mechanical_air_change
+    dhw_average_volume_pers_day = usage_zone.dhw_average_volume_pers_day
+    dhw_preparation_temperature = usage_zone.dhw_preparation_temperature
+    electrical_app_average_consumption_sqm_year = usage_zone.electrical_app_average_consumption_sqm_year
+
+    # todo: for internal_gain in usage_zone_variant['schedules']['internGains']:????????????????
+    #  There are no more internal gains? How is it saved when more than one???
+    #    for internal_gain in usage_zone.internal_gains:
+    internal_gains = usage_zone.internal_gains[0]
+    latent_fraction = internal_gains.latent_fraction
+    convective_fraction = internal_gains.convective_fraction
+    average_internal_gain = internal_gains.average_internal_gain
+    radiative_fraction = internal_gains.radiative_fraction
+
+    if 'space_cooling' in usage_zone_variant['endUses'] and usage_zone_variant['endUses']['space_cooling'] is not None:
+      if 'coolingSetPointTemperature' in usage_zone_variant['endUses']['space_cooling']:
+        cooling_setpoint = usage_zone_variant['endUses']['space_cooling']['coolingSetPointTemperature']
+    if 'space_heating' in usage_zone_variant['endUses'] and usage_zone_variant['endUses']['space_heating'] is not None:
+      if 'heatingSetPointTemperature' in usage_zone_variant['endUses']['space_heating']:
+        heating_setpoint = usage_zone_variant['endUses']['space_heating']['heatingSetPointTemperature']
+      if 'heatingSetBackTemperature' in usage_zone_variant['endUses']['space_heating']:
+        heating_setback = usage_zone_variant['endUses']['space_heating']['heatingSetBackTemperature']
+    if 'ventilation' in usage_zone_variant['endUses'] and usage_zone_variant['endUses']['ventilation'] is not None:
+      if 'mechanicalAirChangeRate' in usage_zone_variant['endUses']['ventilation']:
+        mechanical_air_change = usage_zone_variant['endUses']['ventilation']['mechanicalAirChangeRate']
+    # todo: for internal_gain in usage_zone_variant['schedules']['internGains']:????????????????
+    #  There are no more internal gains? How is it saved when more than one???
+    if 'schedules' in usage_zone_variant:
+      if 'usageHoursPerDay' in usage_zone_variant['schedules']:
+        hours_day = usage_zone_variant['schedules']['usageHoursPerDay']
+      if 'usageDaysPerYear' in usage_zone_variant['schedules']:
+        days_year = usage_zone_variant['schedules']['usageDaysPerYear']
+      if 'internalGains' in usage_zone_variant['schedules'] and usage_zone_variant['schedules'][
+        'internGains'] is not None:
+        internal_gains = []
+        if 'latentFraction' in usage_zone_variant['schedules']['internGains']:
+          latent_fraction = usage_zone_variant['schedules']['internGains']['latentFraction']
+        if 'convectiveFraction' in usage_zone_variant['schedules']['internGains']:
+          convective_fraction = usage_zone_variant['schedules']['internGains']['convectiveFraction']
+        if 'averageInternGainPerSqm' in usage_zone_variant['schedules']['internGains']:
+          average_internal_gain = usage_zone_variant['schedules']['internGains']['averageInternGainPerSqm']
+        if 'radiantFraction' in usage_zone_variant['schedules']['internGains']:
+          radiative_fraction = usage_zone_variant['schedules']['internGains']['radiantFraction']
+        internal_gains.append(higa(average_internal_gain, convective_fraction, radiative_fraction, latent_fraction))
+    usage_zone_archetype = huza(usage=usage, internal_gains=internal_gains, heating_set_point=heating_setpoint,
+                                heating_set_back=heating_setback, cooling_set_point=cooling_setpoint,
+                                occupancy_density=occupancy_density, hours_day=hours_day, days_year=days_year,
+                                dhw_average_volume_pers_day=dhw_average_volume_pers_day,
+                                dhw_preparation_temperature=dhw_preparation_temperature,
+                                electrical_app_average_consumption_sqm_year=electrical_app_average_consumption_sqm_year,
+                                mechanical_air_change=mechanical_air_change)
+    return usage_zone_archetype
diff --git a/imports/imports/usage/hft_usage_parameters.py b/imports/imports/usage/hft_usage_parameters.py
new file mode 100644
index 00000000..fc254aa2
--- /dev/null
+++ b/imports/imports/usage/hft_usage_parameters.py
@@ -0,0 +1,78 @@
+"""
+HftUsageParameters model the usage properties
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import sys
+
+from imports.geometry.helpers.geometry_helper import GeometryHelper as gh
+from imports.usage.hft_usage_interface import HftUsageInterface
+from city_model_structure.building_demand.usage_zone import UsageZone
+from city_model_structure.building_demand.internal_gains import InternalGains
+
+
+class HftUsageParameters(HftUsageInterface):
+  """
+  HftUsageParameters class
+  """
+  def __init__(self, city, base_path):
+    super().__init__(base_path, 'de_library.xml')
+    self._city = city
+    # todo: this is a wrong location for self._min_air_change -> re-think where to place this info
+    #  and where it comes from
+    self._min_air_change = 0
+
+  def enrich_buildings(self):
+    """
+    Returns the city with the usage parameters assigned to the buildings
+    :return:
+    """
+    city = self._city
+    for building in city.buildings:
+      archetype = self._search_archetype(gh.usage_from_function(building.function))
+      if archetype is None:
+        sys.stderr.write(f'Building {building.name} has unknown archetype for building function:'
+                         f' {building.function}, that assigns building usage as '
+                         f'{gh.usage_from_function(building.function)}\n')
+        continue
+      # todo: what to do with mix-usage usage from gml?
+      mix_usage = False
+      if not mix_usage:
+        # just one usage_zone
+        for thermal_zone in building.thermal_zones:
+          usage_zone = UsageZone()
+          self._assign_values(usage_zone, archetype)
+          usage_zone.volume = thermal_zone.volume
+          thermal_zone.usage_zones = [usage_zone]
+
+  def _search_archetype(self, building_usage):
+    for building_archetype in self._usage_archetypes:
+      if building_archetype.usage == building_usage:
+        return building_archetype
+    return None
+
+  @staticmethod
+  def _assign_values(usage_zone, archetype):
+    usage_zone.usage = archetype.usage
+    # Due to the fact that python is not a typed language, the wrong object type is assigned to
+    # usage_zone.internal_gains when writing usage_zone.internal_gains = archetype.internal_gains.
+    # Therefore, this walk around has been done.
+    internal_gains = []
+    for archetype_internal_gain in archetype.internal_gains:
+      internal_gain = InternalGains()
+      internal_gain.average_internal_gain = archetype_internal_gain.average_internal_gain
+      internal_gain.convective_fraction = archetype_internal_gain.convective_fraction
+      internal_gain.radiative_fraction = archetype_internal_gain.radiative_fraction
+      internal_gain.latent_fraction = archetype_internal_gain.latent_fraction
+      internal_gains.append(internal_gain)
+    usage_zone.internal_gains = internal_gains
+    usage_zone.heating_setpoint = archetype.heating_setpoint
+    usage_zone.heating_setback = archetype.heating_setback
+    usage_zone.cooling_setpoint = archetype.cooling_setpoint
+    usage_zone.occupancy_density = archetype.occupancy_density
+    usage_zone.hours_day = archetype.hours_day
+    usage_zone.days_year = archetype.days_year
+    usage_zone.dhw_average_volume_pers_day = archetype.dhw_average_volume_pers_day
+    usage_zone.dhw_preparation_temperature = archetype.dhw_preparation_temperature
+    usage_zone.electrical_app_average_consumption_sqm_year = archetype.electrical_app_average_consumption_sqm_year
+    usage_zone.mechanical_air_change = archetype.mechanical_air_change
diff --git a/imports/imports/usage_factory.py b/imports/imports/usage_factory.py
new file mode 100644
index 00000000..d748dc0d
--- /dev/null
+++ b/imports/imports/usage_factory.py
@@ -0,0 +1,38 @@
+"""
+UsageFactory retrieve the specific usage module for the given region
+This factory can only be called after calling the construction factory so the thermal zones are created.
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
+"""
+from pathlib import Path
+from imports.usage.hft_usage_parameters import HftUsageParameters
+from imports.usage.ca_usage_parameters import CaUsageParameters
+
+# todo: handle missing lambda and rise error.
+
+
+class UsageFactory:
+  """
+  UsageFactory class
+  """
+  def __init__(self, handler, city, base_path=Path(Path(__file__).parent.parent / 'data/usage')):
+    self._handler = '_' + handler.lower().replace(' ', '_')
+    self._city = city
+    self._base_path = base_path
+    for building in city.buildings:
+      if len(building.thermal_zones) == 0:
+        raise Exception('It seems that the usage factory is being called before the construction factory. '
+                        'Please ensure that the construction factory is called first.')
+
+  def _hft(self):
+    return HftUsageParameters(self._city, self._base_path).enrich_buildings()
+
+  def _ca(self):
+    return CaUsageParameters(self._city, self._base_path).enrich_buildings()
+
+  def enrich(self):
+    """
+    Enrich the city with the usage information
+    :return: None
+    """
+    getattr(self, self._handler, lambda: None)()
diff --git a/imports/imports/weather/dat_weather_parameters.py b/imports/imports/weather/dat_weather_parameters.py
new file mode 100644
index 00000000..3554090a
--- /dev/null
+++ b/imports/imports/weather/dat_weather_parameters.py
@@ -0,0 +1,56 @@
+"""
+DatWeatherParameters class to extract weather parameters from a defined region in .dat format
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+import sys
+from pathlib import Path
+import pandas as pd
+import helpers.constants as cte
+
+
+class DatWeatherParameters:
+  """
+  DatWeatherParameters class
+  """
+
+  def __init__(self, city, path):
+    self._weather_values = None
+    self._city = city
+    self._city_name = city.climate_reference_city
+    file_name = 'inseldb_' + self._city_name + '.dat'
+    self._path = Path(path / file_name)
+
+    if self._weather_values is None:
+      try:
+        self._weather_values = pd.read_csv(self._path, sep=r'\s+', header=None,
+                                           names=['hour', 'global_horiz', 'temperature', 'diffuse', 'beam', 'empty'])
+      except SystemExit:
+        sys.stderr.write(f'Error: weather file {self._path} not found\n')
+        sys.exit()
+
+    for building in self._city.buildings:
+      new_value = pd.DataFrame(self._weather_values[['temperature']].to_numpy(), columns=['inseldb'])
+      if cte.HOUR not in building.external_temperature:
+        building.external_temperature[cte.HOUR] = new_value
+      else:
+        pd.concat([building.external_temperature[cte.HOUR], new_value], axis=1)
+
+      new_value = pd.DataFrame(self._weather_values[['global_horiz']].to_numpy(), columns=['inseldb'])
+      if cte.HOUR not in building.global_horizontal:
+        building.global_horizontal[cte.HOUR] = new_value
+      else:
+        pd.concat([building.global_horizontal[cte.HOUR], new_value], axis=1)
+
+      new_value = pd.DataFrame(self._weather_values[['diffuse']].to_numpy(), columns=['inseldb'])
+      if cte.HOUR not in building.diffuse:
+        building.diffuse[cte.HOUR] = new_value
+      else:
+        pd.concat([building.diffuse[cte.HOUR], new_value], axis=1)
+
+      new_value = pd.DataFrame(self._weather_values[['beam']].to_numpy(), columns=['inseldb'])
+      if cte.HOUR not in building.beam:
+        building.beam[cte.HOUR] = new_value
+      else:
+        pd.concat([building.beam[cte.HOUR], new_value], axis=1)
diff --git a/imports/imports/weather/epw_weather_parameters.py b/imports/imports/weather/epw_weather_parameters.py
new file mode 100644
index 00000000..89d7dab0
--- /dev/null
+++ b/imports/imports/weather/epw_weather_parameters.py
@@ -0,0 +1,111 @@
+"""
+EpwWeatherParameters class to extract weather parameters from a defined region in .epw format (EnergyPlus Weather)
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+import sys
+from pathlib import Path
+import pandas as pd
+import helpers.constants as cte
+
+
+class EpwWeatherParameters:
+  """
+  EpwWeatherParameters class
+  """
+  def __init__(self, city, path, file_name):
+    self._weather_values = None
+    self._city = city
+    self._path = Path(path / file_name)
+
+    try:
+      file = open(self._path, 'r')
+      line = file.readline().split(',')
+      city.climate_reference_city = line[1]
+      city.latitude = line[6]
+      city.longitude = line[7]
+      city.time_zone = line[8]
+      for i in range(0, 2):
+        line = file.readline().split(',')
+      line = file.readline().split(',')
+      number_records = int(line[1])
+      depth_measurement_ground_temperature = []
+      ground_temperature = []
+      for i in range(0, number_records):
+        depth_measurement_ground_temperature.append(line[i*16+2])
+        temperatures = []
+        for j in range(0, 12):
+          temperatures.append(line[i*16+j+6])
+        ground_temperature.append(temperatures)
+      file.close()
+    except SystemExit:
+      sys.stderr.write(f'Error: weather file {self._path} not found. Please download it from '
+                       f'https://energyplus.net/weather and place it in folder data\\weather\\epw\n')
+      sys.exit()
+
+    try:
+      self._weather_values = pd.read_csv(self._path, header=0, skiprows=7,
+                                         names=['year', 'month', 'day', 'hour', 'minute',
+                                                'data_source_and_uncertainty_flags',
+                                                'dry_bulb_temperature_c', 'dew_point_temperature_c',
+                                                'relative_humidity_perc',
+                                                'atmospheric_station_pressure_pa',
+                                                'extraterrestrial_horizontal_radiation_wh_m2',
+                                                'extraterrestrial_direct_normal_radiation_wh_m2',
+                                                'horizontal_infrared_radiation_intensity_wh_m2',
+                                                'global_horizontal_radiation_wh_m2', 'direct_normal_radiation_wh_m2',
+                                                'diffuse_horizontal_radiation_wh_m2',
+                                                'global_horizontal_illuminance_lux',
+                                                'direct_normal_illuminance_lux', 'diffuse_horizontal_illuminance_lux',
+                                                'zenith_luminance_cd_m2',
+                                                'wind_direction_deg', 'wind_speed_m_s', 'total_sky_cover',
+                                                'opaque_sky_cover', 'visibility_km',
+                                                'ceiling_heigh_m_s', 'present_weather_observation',
+                                                'present_weather_codes',
+                                                'precipitable_water_mm', 'aerosol_optical_depth_10_3_ths',
+                                                'snow_depth_cm',
+                                                'days_since_last_snowfall', 'albedo', 'liquid_precipitation_depth_mm',
+                                                'liquid_precipitation_quality_hr'])
+    except SystemExit:
+      sys.stderr.write(f'Error: wrong formatting of weather file {self._path}\n')
+      sys.exit()
+
+    for building in self._city.buildings:
+      if cte.HOUR in building.external_temperature:
+        del building.external_temperature[cte.HOUR]
+      new_value = pd.DataFrame(self._weather_values[['dry_bulb_temperature_c']].to_numpy(), columns=['epw'])
+      number_invalid_records = new_value[new_value.epw == 99.9].count().epw
+      if number_invalid_records > 0:
+        sys.stderr.write(f'Warning: {self._path} invalid records (value of 99.9) in dry bulb temperature\n')
+      if cte.HOUR not in building.external_temperature:
+        building.external_temperature[cte.HOUR] = new_value
+      else:
+        pd.concat([building.external_temperature[cte.HOUR], new_value], axis=1)
+
+      new_value = pd.DataFrame(self._weather_values[['global_horizontal_radiation_wh_m2']].to_numpy(), columns=['epw'])
+      number_invalid_records = new_value[new_value.epw == 9999].count().epw
+      if number_invalid_records > 0:
+        sys.stderr.write(f'Warning: {self._path} invalid records (value of 9999) in global horizontal radiation\n')
+      if cte.HOUR not in building.global_horizontal:
+        building.global_horizontal[cte.HOUR] = new_value
+      else:
+        pd.concat([building.global_horizontal[cte.HOUR], new_value], axis=1)
+
+      new_value = pd.DataFrame(self._weather_values[['diffuse_horizontal_radiation_wh_m2']].to_numpy(), columns=['epw'])
+      number_invalid_records = new_value[new_value.epw == 9999].count().epw
+      if number_invalid_records > 0:
+        sys.stderr.write(f'Warning: {self._path} invalid records (value of 9999) in diffuse horizontal radiation\n')
+      if cte.HOUR not in building.diffuse:
+        building.diffuse[cte.HOUR] = new_value
+      else:
+        pd.concat([building.diffuse[cte.HOUR], new_value], axis=1)
+
+      new_value = pd.DataFrame(self._weather_values[['direct_normal_radiation_wh_m2']].to_numpy(), columns=['epw'])
+      number_invalid_records = new_value[new_value.epw == 9999].count().epw
+      if number_invalid_records > 0:
+        sys.stderr.write(f'Warning: {self._path} invalid records (value of 9999) in direct horizontal radiation\n')
+      if cte.HOUR not in building.beam:
+        building.beam[cte.HOUR] = new_value
+      else:
+        pd.concat([building.beam[cte.HOUR], new_value], axis=1)
diff --git a/imports/imports/weather/helpers/weather.py b/imports/imports/weather/helpers/weather.py
new file mode 100644
index 00000000..312c42ba
--- /dev/null
+++ b/imports/imports/weather/helpers/weather.py
@@ -0,0 +1,29 @@
+"""
+weather helper
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+import math
+import helpers.constants as cte
+
+
+class Weather:
+  """
+  Weather class
+  """
+
+  @staticmethod
+  def sky_temperature(ambient_temperature):
+    """
+    sky temperature from ambient temperature in degree Celsius
+    :return: float
+    """
+    # Swinbank - Source sky model approximation(1963) based on cloudiness statistics(32 %) in United States
+    # ambient temperatures( in °C)
+    # sky temperatures( in °C)
+    values = []
+    for temperature in ambient_temperature:
+      value = 0.037536 * math.pow((temperature + cte.KELVIN), 1.5) \
+              + 0.32 * (temperature + cte.KELVIN) - cte.KELVIN
+      values.append(value)
+    return values
diff --git a/imports/imports/weather/xls_weather_parameters.py b/imports/imports/weather/xls_weather_parameters.py
new file mode 100644
index 00000000..93e92385
--- /dev/null
+++ b/imports/imports/weather/xls_weather_parameters.py
@@ -0,0 +1,47 @@
+"""
+XlsWeatherParameters class to extract weather parameters from a defined region in .xls format
+defined and used by the norm iso 52016-1:2017
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+
+import sys
+from pathlib import Path
+import pandas as pd
+import helpers.constants as cte
+
+
+class XlsWeatherParameters:
+  """
+  XlsWeatherParameters class
+  """
+  def __init__(self, city, path, name):
+    self._weather_values = None
+    self._city = city
+    self._file_name = name
+    file_name = self._file_name + '.xls'
+    self._path = Path(path / file_name)
+
+    if self._weather_values is None:
+      try:
+        self._weather_values = pd.read_excel(self._path, skiprows=4, nrows=9504,
+                                             names=['hours_calc', 'month', 'week', 'day_of_week', 'hours_of_day',
+                                                    'temperature', 'I_sol_vertical_N', 'I_sol_vertical_E',
+                                                    'I_sol_vertical_S', 'I_sol_vertical_W', 'I_sol_45_N', 'I_sol_45_S',
+                                                    'void', 'global_horiz', 'wind_velocity', 'humidity'])
+      except SystemExit:
+        sys.stderr.write(f'Error reading weather file {self._path}\n')
+        sys.exit()
+
+    for building in self._city.buildings:
+      new_value = pd.DataFrame(self._weather_values[['temperature']].to_numpy(), columns=['iso52016'])
+      if cte.HOUR not in building.external_temperature:
+        building.external_temperature[cte.HOUR] = new_value
+      else:
+        pd.concat([building.external_temperature[cte.HOUR], new_value], axis=1)
+
+      new_value = pd.DataFrame(self._weather_values[['global_horiz']].to_numpy(), columns=['iso52016'])
+      if cte.HOUR not in building.global_horizontal:
+        building.global_horizontal[cte.HOUR] = new_value
+      else:
+        pd.concat([building.global_horizontal[cte.HOUR], new_value], axis=1)
diff --git a/imports/imports/weather_factory.py b/imports/imports/weather_factory.py
new file mode 100644
index 00000000..466e0ea2
--- /dev/null
+++ b/imports/imports/weather_factory.py
@@ -0,0 +1,38 @@
+"""
+WeatherFactory retrieve the specific weather module for the given source format
+SPDX - License - Identifier: LGPL - 3.0 - or -later
+Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
+"""
+from pathlib import Path
+from imports.weather.xls_weather_parameters import XlsWeatherParameters
+from imports.weather.epw_weather_parameters import EpwWeatherParameters
+
+
+class WeatherFactory:
+  """
+  WeatherFactory class
+  """
+
+  def __init__(self, handler, city, base_path=Path(Path(__file__).parent.parent / 'data/weather'), file_name=None):
+    self._handler = '_' + handler.lower().replace(' ', '_')
+    self._city = city
+    self._base_path = base_path
+    self._file_name = file_name
+
+  def _epw(self):
+    # EnergyPlus Weather
+    # to download files: https://energyplus.net/weather
+    # description of the format: https://energyplus.net/sites/default/files/pdfs_v8.3.0/AuxiliaryPrograms.pdf
+    _path = Path(self._base_path / 'epw').resolve()
+    return EpwWeatherParameters(self._city, _path, self._file_name)
+
+  def _xls(self):
+    name = 'ISO_52016_1_BESTEST_ClimData_2016.08.24'
+    return XlsWeatherParameters(self._city, self._base_path, name)
+
+  def enrich(self):
+    """
+    Enrich the city with the usage information
+    :return: None
+    """
+    getattr(self, self._handler, lambda: None)()