version working with generation of all input files

.idea/dictionaries/pilar.xml

@@ -2,6 +2,7 @@
   <dictionary name="Pilar">
     <words>
       <w>alkis</w>
+      <w>ashrae</w>
       <w>incongruences</w>
       <w>nrcan</w>
     </words>

insel/templates/thermal_demand_dynamic_simulation.py

@@ -9,6 +9,7 @@ import pandas as pd
 from insel.insel import Insel
 import helpers.constants as cte
 from imports.weather.helpers.weather import Weather as wt
+from helpers.yearly_from_daily_schedules import YearlyFromDailySchedules as ys
 
 
 class ThermalDemandDynamicSimulation:
@@ -30,7 +31,7 @@ class ThermalDemandDynamicSimulation:
     """
 
     file = ""
-    file += "%Thermal Demand Dynamic Calculation\n"
+    file += "%Thermal Demand Dynamic Simulation\n"
     file += "%by Pilar Monsalvete Alvarez de Uribarri\n"
     file += "%email: pilar.monsalvete@concordia.ca\n"
 
@@ -120,22 +121,20 @@ class ThermalDemandDynamicSimulation:
         else:
           n_records += 2
     inputs = [f"{n_hoy}.1"]
-    parameters = [f"{n_records} %[Nrec]",
+    parameters = [f"{n_records * 13} %[RecLen]",
-                  f"{n_records * 12} %[RecLen]",
                   f"'{weather_path}' %[FileName]",
-                  f"'({n_records}F12.3)' %[FileFormat]"]
+                  f"',' %[Separator]"]
-    file = Insel.add_block(file, i_block, 'READD', inputs, parameters)
+    file = Insel.add_block(file, i_block, 'UBFAST_READD', inputs, parameters)
 
     # internal gains and control blocks
     i_block += 1
     n_ig = i_block
     n_records = number_usage_zones * 6
     inputs = [f"{n_hoy}.1"]
-    parameters = [f"{n_records} %[Nrec]",
+    parameters = [f"{n_records * 13} %[RecLen]",
-                  f"{n_records * 12} %[RecLen]",
                   f"'{ig_path}' %[FileName]",
-                  f"'({n_records}F12.3)' %[FileFormat]"]
+                  f"',' %[Separator]"]
-    file = Insel.add_block(file, i_block, 'READD', inputs, parameters)
+    file = Insel.add_block(file, i_block, 'UBFAST_READD', inputs, parameters)
 
     # results blocks
     i_block += 1
@@ -262,7 +261,7 @@ class ThermalDemandDynamicSimulation:
                 f"{n_ig}." + str(6 + 6 * i_zone),    # set point heating
                 f"{n_ig}." + str(4 + 6 * i_zone),    # ventilation rate
                 f"{n_weather}.1",                    # ventilation temperature
-                f"{n_zone[i_zone] + 4}.1",           # from chs
+                f"{n_zone[i_zone] + 3}.1",           # from chs
                 ]
       cooled = '1'
       if building.cooled:
@@ -394,7 +393,7 @@ class ThermalDemandDynamicSimulation:
 
             i_block += 1
             inputs = [f"{i_block - 1}.1"]
-            parameters = [f"{float(thermal_opening.area) * (1 - float(thermal_opening.frame_ratio))} %[AreaWindow]"]
+            parameters = [f"{thermal_opening.area * (1 - thermal_opening.frame_ratio)} %[AreaWindow]"]
             file = Insel.add_block(file, i_block, 'GAIN', inputs=inputs, parameters=parameters)
 
             inputs_next.append(f"{i_block}.1")
@@ -428,8 +427,8 @@ class ThermalDemandDynamicSimulation:
         i_surface += 1
         inputs = [f"{n_gain_moy}.1"]
         if (thermal_boundary.surface.type == cte.WALL) or (thermal_boundary.surface.type == cte.ROOF):
-          inputs.append(f"{n_zone[i_tz] + 8}.{i_surface}")
+          inputs.append(f"{n_zone[i_tz] + 7}.{i_surface}")
-          inputs.append(f"{n_zone[i_tz] + 6}.{i_surface}")
+          inputs.append(f"{n_zone[i_tz] + 5}.{i_surface}")
           inputs.append(f"{n_ig}.{i_tz * 6 + 2}")
           inputs.append(f"{i_block + 2}.1")
           inputs.append(f"{n_weather}.1")
@@ -447,7 +446,7 @@ class ThermalDemandDynamicSimulation:
           for layer in thermal_boundary.layers:
             material = layer.material
             if material.no_mass:
-              parameters.append(f"1 {1 / float(material.thermal_resistance)} 1 1 % [thick] + [lambda ] +[rho] +[cp]")
+              parameters.append(f"1 {1 / material.thermal_resistance} 1 1 % [thick] + [lambda ] +[rho] +[cp]")
             else:
               parameters.append(f"{layer.thickness} {material.conductivity} {material.density} {material.specific_heat}"
                                 f" % [thick] + [lambda ] +[rho] +[cp]")
@@ -465,8 +464,8 @@ class ThermalDemandDynamicSimulation:
           else:
             i_weather += 2
         elif (thermal_boundary.surface.type == cte.GROUND) or (thermal_boundary.surface.type == cte.GROUND_WALL):
-          inputs.append(f"{n_zone[i_tz] + 8}.{i_surface}")
+          inputs.append(f"{n_zone[i_tz] + 7}.{i_surface}")
-          inputs.append(f"{n_zone[i_tz] + 6}.{i_surface}")
+          inputs.append(f"{n_zone[i_tz] + 5}.{i_surface}")
           inputs.append(f"{n_ig}.{i_tz * 6 + 2}")
           inputs.append(f"{n_weather}.3")
           inputs.append(f"{n_zone[i_tz] + 1}.1")
@@ -475,7 +474,7 @@ class ThermalDemandDynamicSimulation:
           for layer in thermal_boundary.layers:
             material = layer.material
             if material.no_mass:
-              parameters.append(f"1 {1 / float(material.thermal_resistance)} 1 1 % [thick] + [lambda ] +[rho] +[cp]")
+              parameters.append(f"1 {1 / material.thermal_resistance} 1 1 % [thick] + [lambda ] +[rho] +[cp]")
             else:
               parameters.append(f"{layer.thickness} {material.conductivity} {material.density} {material.specific_heat}"
                                 f" % [thick] + [lambda ] +[rho] +[cp]")
@@ -529,9 +528,8 @@ class ThermalDemandDynamicSimulation:
                         f"{thermal_opening.radiative_coefficient} % [RadCoefeW]",
                         f"0 % [Ubi]",
                         f"1 % [Nlay]"]
-          layer_conductivity = float(thermal_opening.thickness) / ((1/float(thermal_opening.overall_u_value)) -
+          layer_conductivity = thermal_opening.thickness / ((1/thermal_opening.overall_u_value) -
-                                                                   (1/float(thermal_opening.hi)) -
+                                                            (1/thermal_opening.hi) - (1/thermal_opening.he))
-                                                                   (1/float(thermal_opening.he)))
           parameters_layer = f"{thermal_opening.thickness} {layer_conductivity} 1000 750 " \
                              f"% [thick] + [lambda ] +[rho] +[cp]"
           parameters.append(parameters_layer)
@@ -541,7 +539,7 @@ class ThermalDemandDynamicSimulation:
           parameters = [f"{thermal_opening.area} %[AreaWindow]"]
           file = Insel.add_block(file, i_block, 'GAIN', inputs=inputs, parameters=parameters)
           i_block += 1
-          inputs = [f"{n_zone[i_tz] + 6}.{i_surface}",
+          inputs = [f"{n_zone[i_tz] + 5}.{i_surface}",
                     f"{n_ig}.{i_tz * 6 + 2}"]
           file = Insel.add_block(file, i_block, 'SUM', inputs=inputs)
         if len(thermal_boundary.thermal_openings) > 0:
@@ -562,6 +560,7 @@ class ThermalDemandDynamicSimulation:
     content.rename(columns={content.columns[0]: 'ambient_temperature'})
     sky_temperature = wt.sky_temperature(building.external_temperature[cte.HOUR].to_numpy().T[0])
     content['sky_temperature'] = np.array(sky_temperature).astype(float)
+    # todo calculate ground temperature
 #        content['ground_temperature'] = building.ground_temperature
     content['ground_temperature'] = zeros
     for i_tb, thermal_boundary in enumerate(building.thermal_boundaries):
@@ -574,11 +573,6 @@ class ThermalDemandDynamicSimulation:
           content[f'darkness_value_{i_tb}'] = zeros
         content[f'wind_velocity_{i_tb}'] = zeros
     content.to_csv(weather_path, header=False, index=False, float_format='%12.3f')
-    text = open(weather_path, 'r')
-    text = ''.join([i for i in text]).replace(',', '')
-    replaced_text = open(weather_path, 'w')
-    replaced_text.writelines(text)
-    replaced_text.close()
 
   def generate_ig_file(self):
     """
@@ -587,25 +581,66 @@ class ThermalDemandDynamicSimulation:
     building = self._building
     ig_path = self._ig_path
     content = pd.DataFrame()
-    zeros = np.zeros(8760)
     for i_uz, usage_zone in enumerate(building.usage_zones):
-      convective_part = 0
+      convective_part = np.zeros(8760)
-      radiative_part = 0
+      radiative_part = np.zeros(8760)
+      occupancy = []
+      lighting = []
+      appliances = []
+      infiltration = []
+      hvac_availability = []
+      cooling_set_point = []
+      heating_set_point = []
+      for schedule in usage_zone.schedules:
+        if schedule.type == cte.OCCUPANCY:
+          occupancy.append(schedule)
+        elif schedule.type == cte.LIGHTING:
+          lighting.append(schedule)
+        elif schedule.type == cte.RECEPTACLE:
+          appliances.append(schedule)
+        elif schedule.type == cte.INFILTRATION:
+          infiltration.append(schedule)
+        elif schedule.type == cte.HVAC_AVAILABILITY:
+          hvac_availability.append(schedule)
+        elif schedule.type == cte.COOLING_SET_POINT:
+          cooling_set_point.append(schedule)
+        elif schedule.type == cte.HEATING_SET_POINT:
+          heating_set_point.append(schedule)
+
+      occupancy_yearly_schedule = ys(occupancy, 2015).yearly_schedule
+      lighting_yearly_schedule = ys(lighting, 2015).yearly_schedule
+      appliances_yearly_schedule = ys(appliances, 2015).yearly_schedule
+      infiltration_yearly_schedule = ys(infiltration, 2015).yearly_schedule
+      hvac_availability_yearly_schedule = ys(hvac_availability, 2015).yearly_schedule
+      cooling_set_point_yearly_schedule = ys(cooling_set_point, 2015).yearly_schedule
+      heating_set_point_yearly_schedule = ys(heating_set_point, 2015).yearly_schedule
+
+      mechanical_air_change = np.zeros(8760)
+      for hour, value in enumerate(hvac_availability_yearly_schedule.values):
+        mechanical_air_change[hour] += usage_zone.mechanical_air_change * value
+
       for internal_gain in usage_zone.internal_gains:
-        convective_part += internal_gain.average_internal_gain * internal_gain.convective_fraction
+        if internal_gain.type == cte.OCCUPANCY:
-        radiative_part += internal_gain.average_internal_gain * internal_gain.radiative_fraction
+          for hour, value in enumerate(occupancy_yearly_schedule.values):
-      content[f'convective_part_{i_uz}'] = zeros
+            convective_part[hour] += internal_gain.average_internal_gain * internal_gain.convective_fraction * value
-      content[f'radiative_part_{i_uz}'] = zeros
+            radiative_part[hour] += internal_gain.average_internal_gain * internal_gain.radiative_fraction * value
-      content[f'infiltration_rate_{i_uz}'] = zeros
+        elif internal_gain.type == cte.LIGHTING:
-      content[f'ventilation_rate_{i_uz}'] = zeros
+          for hour, value in enumerate(lighting_yearly_schedule.values):
-      content[f'set_point_cooling_{i_uz}'] = zeros
+            convective_part[hour] += internal_gain.average_internal_gain * internal_gain.convective_fraction * value
-      content[f'set_point_heating_{i_uz}'] = zeros
+            radiative_part[hour] += internal_gain.average_internal_gain * internal_gain.radiative_fraction * value
+        elif internal_gain.type == cte.RECEPTACLE:
+          for hour, value in enumerate(appliances_yearly_schedule.values):
+            convective_part[hour] += internal_gain.average_internal_gain * internal_gain.convective_fraction * value
+            radiative_part[hour] += internal_gain.average_internal_gain * internal_gain.radiative_fraction * value
+
+      content[f'convective_part_{i_uz}'] = convective_part
+      content[f'radiative_part_{i_uz}'] = radiative_part
+      content[f'infiltration_rate_{i_uz}'] = np.zeros(8760)
+      content[f'ventilation_rate_{i_uz}'] = mechanical_air_change
+#      content[f'ventilation_rate_{i_uz}'] = np.zeros(8760)
+      content[f'set_point_cooling_{i_uz}'] = cooling_set_point_yearly_schedule.values
+      content[f'set_point_heating_{i_uz}'] = heating_set_point_yearly_schedule.values
     content.to_csv(ig_path, header=False, index=False, float_format='%12.3f')
-    text = open(ig_path, 'r')
-    text = ''.join([i for i in text]).replace(',', '')
-    replaced_text = open(ig_path, 'w')
-    replaced_text.writelines(text)
-    replaced_text.close()
 
   def generate_fij_files(self):
     """

main.py

@@ -13,10 +13,10 @@ from city_model_structure.city import City
 name_gml = 'one_building_in_kelowna.gml'
 function_format = 'hft'
 construction_format = 'nrel'
-usage_format = 'hft'
+usage_format = 'comnet'
 schedules_format = 'comnet'
-climate_reference_city = 'Summerland'
+climate_reference_city = 'Montreal'
-weather_file_name = 'CAN_BC_Summerland.717680_CWEC.epw'
+weather_file_name = 'CAN_PQ_Montreal.Intl.AP.716270_CWEC.epw'
 
 example_path = Path(__file__).parent
 full_path_gml = (example_path / 'tests' / 'tests_data' / name_gml).resolve()
@@ -24,14 +24,15 @@ outputs_path = (example_path / 'tests' / 'tests_outputs').resolve()
 tmp_path = (example_path / 'tests' / 'tmp').resolve()
 weather_path = (Path(__file__).parent.parent / 'libs' / 'data' / 'weather').resolve()
 keep_sra_file = True
-keep_insel_file = False
+keep_insel_file = True
-keep_weather_file = False
+keep_weather_file = True
-keep_ig_file = False
+keep_ig_file = True
+
 pickle_geometry = True
-pickle_weather = False
+pickle_weather = True
-pickle_construction = False
+pickle_construction = True
-pickle_usage = False
+pickle_usage = True
-pickle_schedules = False
+pickle_schedules = True
 pickle_file = 'tests/tests_data/one_building_in_kelowna.pickle'
 
 # Load geometry
@@ -55,34 +56,36 @@ if not pickle_weather:
   WeatherFactory(weather_format, city, base_path=weather_path, file_name=weather_file_name).enrich()
 
   # calculate radiation on external surfaces
-  max_buildings_handled_by_sra = 200
   path = (example_path / 'tests').resolve()
-  total_number_of_buildings = len(city.buildings)
+  radius = 80
-  if total_number_of_buildings > max_buildings_handled_by_sra:
+  building = city.city_object('BLD109438')
-    radius = 80
+#  building = city.city_object('1066157')
-    for building in city.buildings:
+  new_city = city.region(building.centroid, radius)
-      new_city = city.region(building.centroid, radius)
+  sra = SimplifiedRadiosityAlgorithm(new_city, path, weather_file_name)
-      sra = SimplifiedRadiosityAlgorithm(new_city, path, weather_file_name)
+  sra.call_sra(weather_format, keep_files=keep_sra_file, selected_buildings=[building])
-      sra.call_sra(weather_format, keep_files=keep_sra_file, selected_buildings=[building])
+  sra.set_irradiance_surfaces(city, mode=1, building_name=building.name)
-      sra.set_irradiance_surfaces(city, mode=1, building_name=building.name)
-  else:
-    sra = SimplifiedRadiosityAlgorithm(city, path, weather_file_name)
-    sra.call_sra(weather_format, keep_files=keep_sra_file)
-    sra.set_irradiance_surfaces(city, mode=1)
 
+  # to save only the targeted building
+  radius = 10
+  city = city.region(building.centroid, radius)
   city.save(pickle_file)
 else:
   city = City.load(pickle_file)
 
-# Enrich city with construction, usage and schedules
+# Enrich target building in the city with construction, usage and schedules
 if not pickle_construction or not pickle_usage or not pickle_schedules:
+
   for building in city.buildings:
+    building.function = 'large office'
+    building.year_of_construction = 2010
+
     if function_format == 'hft':
       building.function = GeometryHelper.hft_to_function[building.function]
     elif function_format == 'pluto':
       building.function = GeometryHelper.pluto_to_function[building.function]
   city = EnrichCity(city).enriched_city(construction_format, usage_format, schedules_format,
                                         pickle_construction, pickle_usage, pickle_schedules)
+
   city.save(pickle_file)
 else:
   city = City.load(pickle_file)
@@ -138,8 +141,9 @@ for building in city.buildings:
     template.generate_fij_files()
     print(insel_file_name)
     insel = Insel(example_path, insel_file_name, content, mode=2, keep_files=keep_insel_file).results
+    break
 
-  except:
+  except ValueError:
     print(sys.exc_info()[1])
     print('Building ' + building.name + ' could not be processed')
     continue