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fixed bug saving values

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Pilar 2022-03-08 19:19:52 -05:00 committed by guille
parent 03141b74c8
commit cf19f6fce5
69 changed files with 2406 additions and 2873 deletions
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268
catalogs/greenery/ecore_greenery/greenerycatalog.ecore
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@ -1,268 +0,0 @@
<?xml version="1.0" encoding="UTF-8"?>
<ecore:EPackage xmi:version="2.0" xmlns:xmi="http://www.omg.org/XMI" xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
xmlns:ecore="http://www.eclipse.org/emf/2002/Ecore" name="greenerycatalog" nsURI="http://ca.concordia/greenerycatalog"
nsPrefix="greenery">
<eClassifiers xsi:type="ecore:EClass" name="Soil">
<eAnnotations source="http://www.eclipse.org/emf/2002/Ecore">
<details key="constraints" value="nonNegative"/>
</eAnnotations>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="name" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral=""/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="roughness" eType="#//Roughness"
defaultValueLiteral="MediumRough">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="defines the relative roughness of a particular material layer. This parameter only influences the convection coefficients, more specifically the exterior convection coefficient. A nominal value is expected in with the options being &quot;VeryRough&quot;, &quot;Rough&quot;, &quot;MediumRough&quot;, &quot;MediumSmooth&quot;, &quot;Smooth&quot;, and &quot;VerySmooth&quot; in order of roughest to smoothest options."/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="conductivityOfDrySoil"
lowerBound="1" eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="1.0 W/(m*K)">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Thermal conductivity W/(m-K). Range: 0.2 to 1.5"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.2"/>
<details key="max" value="1.5"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="densityOfDrySoil" eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="1100 kg/m³">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Density in kg/m³. "/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.1"/>
<details key="max" value="10000"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="specificHeatOfDrySoil"
eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="1200 J/(kg*K)">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="in units of J/(kg-K). Range(300 to 2000)"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.2"/>
<details key="max" value="2000"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="thermalAbsorptance" eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="0.9">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="the fraction of incident long wavelength (>2.5 microns) radiation that is absorbed by the material. This parameter is used when calculating the long wavelength radiant exchange between various surfaces and affects the surface heat balances (both inside and outside as appropriate). For long wavelength radiant exchange, thermal emissivity and thermal emittance are equal to thermal absorptance. Range: 0 to 1"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.0"/>
<details key="max" value="1.0"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="solarAbsorptance" eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="0.7">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="the fraction of incident solar radiation that is absorbed by the material.&#xA;Solar radiation (0.3 to 2.537 microns) includes the visible spectrum as well as infrared and ultraviolet wavelengths. This parameter is used when calculating the amount of incident solar radiation absorbed by various surfaces and affects the surface heat balances (both inside and outside as appropriate). If solar reflectance (or reflectivity) data is available, then absorptance is equal to 1.0 minus reflectance (for opaque materials).&#xA;Range: 0 to 1"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.0"/>
<details key="max" value="1.0"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="visibleAbsorptance" eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="0.75">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="The visible absorptance field in the Material input syntax represents the fraction of incident visible wavelength radiation that is absorbed by the material.&#xA;Visible wavelength radiation (0.37 to 0.78 microns weighted by photopic response) is slightly different than solar radiation in that the visible band of wavelengths is much more narrow while solar radiation includes the visible spectrum as well as infrared and ultraviolet wavelengths.&#xA;This parameter is used when calculating the amount of incident visible radiation absorbed by various surfaces and affects the surface heat balances (both inside and outside as appropriate) as well as the daylighting calculations. If visible reflectance (or reflectivity) data is available, then absorptance is equal to 1.0 minus reflectance (for opaque materials).&#xA;Range: 0.5 to 1.0"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.5"/>
<details key="max" value="1.0"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="saturationVolumetricMoistureContent"
eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="0.0">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="input of the saturation moisture content of the soil layer. Range: 0.1 to 0.5"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.1"/>
<details key="max" value="0.5"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="residualVolumetricMoistureContent"
eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="0.05">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Input of the residual moisture content of the soil layer. Range: 0.01 to 0.1"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.01"/>
<details key="max" value="0.1"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="initialVolumetricMoistureContent"
eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="0.1">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Range: 0.05 to 0.5"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.05"/>
<details key="max" value="0.5"/>
</eAnnotations>
</eStructuralFeatures>
</eClassifiers>
<eClassifiers xsi:type="ecore:EClass" name="Plant">
<eStructuralFeatures xsi:type="ecore:EAttribute" name="name" lowerBound="1" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="height" lowerBound="1"
eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="0.1 m">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Maximum height of plants. Range: 0.005 to 1 m"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.005"/>
<details key="max" value="1.0"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="leafAreaIndex" lowerBound="1"
eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="2.5">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Leaf area per unit area of soil surface. Range: 0.001 to 5.0 m²/m²"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.001"/>
<details key="max" value="5.0"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="leafReflectivity" lowerBound="1"
eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="0.1">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Represents the fraction of incident solar radiation that is reflected by the individual leaf surfaces (albedo).&#xA;Range: 0.05 to 0.5"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.05"/>
<details key="max" value="0.5"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="leafEmissivity" lowerBound="1"
eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="0.9">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Ratio of thermal radiation emitted from leaf surfaces to that emitted by an ideal black body at the same temperature.&#xA;This parameter is used when calculating the long wavelength radiant exchange at the leaf surfaces.&#xA;Range: 0.8 to 1"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.8"/>
<details key="max" value="1.0"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="minimalStomatalResistance"
lowerBound="1" eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="100.0 s/m">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Resistance of the plants to moisture transport.&#xA;Plants with low values of stomatal resistance will result in higher evapotranspiration rates than plants with high resistance.&#xA;Range: 50 to 300 m/s"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="50.0"/>
<details key="max" value="300.0"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EReference" name="growsOn" lowerBound="1"
upperBound="-1" eType="#//Soil"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="co2Sequestration" eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="kgCO₂eq"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EClass" name="SupportEnvelope">
<eStructuralFeatures xsi:type="ecore:EAttribute" name="roughness" eType="#//Roughness"
defaultValueLiteral="MediumRough"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="solarAbsorptance" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EDouble"
defaultValueLiteral="0.0"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="conductivity" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EDouble"
defaultValueLiteral="0.0"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="visibleAbsorptance" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EDouble"
defaultValueLiteral="0.0"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="specificHeat" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EDouble"
defaultValueLiteral="0.0"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="density" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EDouble"
defaultValueLiteral="0.0"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="thermalAbsorptance" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EDouble"
defaultValueLiteral="0.0"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EClass" name="GreeneryCatalog">
<eStructuralFeatures xsi:type="ecore:EAttribute" name="name" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="description" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="source" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"/>
<eStructuralFeatures xsi:type="ecore:EReference" name="plantCategories" lowerBound="1"
upperBound="-1" eType="#//PlantCategory" containment="true"/>
<eStructuralFeatures xsi:type="ecore:EReference" name="vegetationCategories" lowerBound="1"
upperBound="-1" eType="#//VegetationCategory" containment="true"/>
<eStructuralFeatures xsi:type="ecore:EReference" name="soils" upperBound="-1"
eType="#//Soil" containment="true"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EClass" name="PlantCategory">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Excluding (that is non-overlapping) categories like Trees, Hedeges, Grasses that help users finding a specific biol. plant species."/>
</eAnnotations>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="name" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"/>
<eStructuralFeatures xsi:type="ecore:EReference" name="plants" upperBound="-1"
eType="#//Plant" containment="true"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EClass" name="IrrigationSchedule">
<eStructuralFeatures xsi:type="ecore:EAttribute" name="name" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EClass" name="Vegetation">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Plant life or total plant cover (as of an area)"/>
</eAnnotations>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="name" lowerBound="1" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="thicknessOfSoil" lowerBound="1"
eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="20 cm">
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0"/>
<details key="max" value="1000"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EReference" name="soil" lowerBound="1" eType="#//Soil"/>
<eStructuralFeatures xsi:type="ecore:EReference" name="plants" lowerBound="1"
upperBound="-1" eType="#//PlantPercentage" containment="true"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="management" lowerBound="1"
eType="#//Management" defaultValueLiteral="NA"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="airGap" lowerBound="1"
eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="0.0 cm"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EClass" name="VegetationCategory">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Excluding (that is non-overlapping) categories to help users finding a specific vegetation template."/>
</eAnnotations>
<eStructuralFeatures xsi:type="ecore:EReference" name="vegetationTemplates" upperBound="-1"
eType="#//Vegetation" containment="true"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="name" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EEnum" name="Management">
<eLiterals name="Intensive"/>
<eLiterals name="Extensive" value="1"/>
<eLiterals name="SemiIntensive" value="2"/>
<eLiterals name="NA" value="3"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EClass" name="PlantPercentage">
<eStructuralFeatures xsi:type="ecore:EAttribute" name="percentage" lowerBound="1"
eType="ecore:EDataType platform:/plugin/de.hftstuttgart.cityunits.model/model/Quantities.ecore#//Quantity"
defaultValueLiteral="100">
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0"/>
<details key="max" value="100"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EReference" name="plant" lowerBound="1" eType="#//Plant"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EEnum" name="Roughness">
<eLiterals name="VeryRough"/>
<eLiterals name="Rough" value="1"/>
<eLiterals name="MediumRough" value="2"/>
<eLiterals name="MediumSmooth" value="3"/>
<eLiterals name="Smooth" value="4"/>
<eLiterals name="VerySmooth" value="5"/>
</eClassifiers>
</ecore:EPackage>

318
catalogs/greenery/ecore_greenery/greenerycatalog.py
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@ -1,318 +0,0 @@
"""Definition of meta model 'greenerycatalog'."""
from functools import partial
import pyecore.ecore as Ecore
from pyecore.ecore import *
name = 'greenerycatalog'
nsURI = 'http://ca.concordia/greenerycatalog'
nsPrefix = 'greenery'
eClass = EPackage(name=name, nsURI=nsURI, nsPrefix=nsPrefix)
eClassifiers = {}
getEClassifier = partial(Ecore.getEClassifier, searchspace=eClassifiers)
Management = EEnum('Management', literals=['Intensive', 'Extensive', 'SemiIntensive', 'NA'])
Roughness = EEnum('Roughness', literals=['VeryRough', 'Rough',
'MediumRough', 'MediumSmooth', 'Smooth', 'VerySmooth'])
class Soil(EObject, metaclass=MetaEClass):
name = EAttribute(eType=EString, unique=True, derived=False, changeable=True)
roughness = EAttribute(eType=Roughness, unique=True, derived=False,
changeable=True, default_value=Roughness.MediumRough)
conductivityOfDrySoil = EAttribute(
eType=EString, unique=True, derived=False, changeable=True, default_value='1.0 W/(m*K)')
densityOfDrySoil = EAttribute(eType=EString, unique=True, derived=False,
changeable=True, default_value='1100 kg/m³')
specificHeatOfDrySoil = EAttribute(
eType=EString, unique=True, derived=False, changeable=True, default_value='1200 J/(kg*K)')
thermalAbsorptance = EAttribute(eType=EString, unique=True,
derived=False, changeable=True, default_value='0.9')
solarAbsorptance = EAttribute(eType=EString, unique=True,
derived=False, changeable=True, default_value='0.7')
visibleAbsorptance = EAttribute(eType=EString, unique=True,
derived=False, changeable=True, default_value='0.75')
saturationVolumetricMoistureContent = EAttribute(
eType=EString, unique=True, derived=False, changeable=True, default_value='0.0')
residualVolumetricMoistureContent = EAttribute(
eType=EString, unique=True, derived=False, changeable=True, default_value='0.05')
initialVolumetricMoistureContent = EAttribute(
eType=EString, unique=True, derived=False, changeable=True, default_value='0.1')
def __init__(self, *, name=None, roughness=None, conductivityOfDrySoil=None, densityOfDrySoil=None, specificHeatOfDrySoil=None, thermalAbsorptance=None, solarAbsorptance=None, visibleAbsorptance=None, saturationVolumetricMoistureContent=None, residualVolumetricMoistureContent=None, initialVolumetricMoistureContent=None):
# if kwargs:
# raise AttributeError('unexpected arguments: {}'.format(kwargs))
super().__init__()
if name is not None:
self.name = name
if roughness is not None:
self.roughness = roughness
if conductivityOfDrySoil is not None:
self.conductivityOfDrySoil = conductivityOfDrySoil
if densityOfDrySoil is not None:
self.densityOfDrySoil = densityOfDrySoil
if specificHeatOfDrySoil is not None:
self.specificHeatOfDrySoil = specificHeatOfDrySoil
if thermalAbsorptance is not None:
self.thermalAbsorptance = thermalAbsorptance
if solarAbsorptance is not None:
self.solarAbsorptance = solarAbsorptance
if visibleAbsorptance is not None:
self.visibleAbsorptance = visibleAbsorptance
if saturationVolumetricMoistureContent is not None:
self.saturationVolumetricMoistureContent = saturationVolumetricMoistureContent
if residualVolumetricMoistureContent is not None:
self.residualVolumetricMoistureContent = residualVolumetricMoistureContent
if initialVolumetricMoistureContent is not None:
self.initialVolumetricMoistureContent = initialVolumetricMoistureContent
class Plant(EObject, metaclass=MetaEClass):
name = EAttribute(eType=EString, unique=True, derived=False, changeable=True)
height = EAttribute(eType=EString, unique=True, derived=False,
changeable=True, default_value='0.1 m')
leafAreaIndex = EAttribute(eType=EString, unique=True, derived=False,
changeable=True, default_value='2.5')
leafReflectivity = EAttribute(eType=EString, unique=True,
derived=False, changeable=True, default_value='0.1')
leafEmissivity = EAttribute(eType=EString, unique=True, derived=False,
changeable=True, default_value='0.9')
minimalStomatalResistance = EAttribute(
eType=EString, unique=True, derived=False, changeable=True, default_value='100.0 s/m')
co2Sequestration = EAttribute(eType=EString, unique=True, derived=False,
changeable=True, default_value='kgCO₂eq')
growsOn = EReference(ordered=True, unique=True, containment=False, derived=False, upper=-1)
def __init__(self, *, name=None, height=None, leafAreaIndex=None, leafReflectivity=None, leafEmissivity=None, minimalStomatalResistance=None, growsOn=None, co2Sequestration=None):
# if kwargs:
# raise AttributeError('unexpected arguments: {}'.format(kwargs))
super().__init__()
if name is not None:
self.name = name
if height is not None:
self.height = height
if leafAreaIndex is not None:
self.leafAreaIndex = leafAreaIndex
if leafReflectivity is not None:
self.leafReflectivity = leafReflectivity
if leafEmissivity is not None:
self.leafEmissivity = leafEmissivity
if minimalStomatalResistance is not None:
self.minimalStomatalResistance = minimalStomatalResistance
if co2Sequestration is not None:
self.co2Sequestration = co2Sequestration
if growsOn:
self.growsOn.extend(growsOn)
class SupportEnvelope(EObject, metaclass=MetaEClass):
roughness = EAttribute(eType=Roughness, unique=True, derived=False,
changeable=True, default_value=Roughness.MediumRough)
solarAbsorptance = EAttribute(eType=EDouble, unique=True,
derived=False, changeable=True, default_value=0.0)
conductivity = EAttribute(eType=EDouble, unique=True, derived=False,
changeable=True, default_value=0.0)
visibleAbsorptance = EAttribute(eType=EDouble, unique=True,
derived=False, changeable=True, default_value=0.0)
specificHeat = EAttribute(eType=EDouble, unique=True, derived=False,
changeable=True, default_value=0.0)
density = EAttribute(eType=EDouble, unique=True, derived=False,
changeable=True, default_value=0.0)
thermalAbsorptance = EAttribute(eType=EDouble, unique=True,
derived=False, changeable=True, default_value=0.0)
def __init__(self, *, roughness=None, solarAbsorptance=None, conductivity=None, visibleAbsorptance=None, specificHeat=None, density=None, thermalAbsorptance=None):
# if kwargs:
# raise AttributeError('unexpected arguments: {}'.format(kwargs))
super().__init__()
if roughness is not None:
self.roughness = roughness
if solarAbsorptance is not None:
self.solarAbsorptance = solarAbsorptance
if conductivity is not None:
self.conductivity = conductivity
if visibleAbsorptance is not None:
self.visibleAbsorptance = visibleAbsorptance
if specificHeat is not None:
self.specificHeat = specificHeat
if density is not None:
self.density = density
if thermalAbsorptance is not None:
self.thermalAbsorptance = thermalAbsorptance
class GreeneryCatalog(EObject, metaclass=MetaEClass):
name = EAttribute(eType=EString, unique=True, derived=False, changeable=True)
description = EAttribute(eType=EString, unique=True, derived=False, changeable=True)
source = EAttribute(eType=EString, unique=True, derived=False, changeable=True)
plantCategories = EReference(ordered=True, unique=True,
containment=True, derived=False, upper=-1)
vegetationCategories = EReference(ordered=True, unique=True,
containment=True, derived=False, upper=-1)
soils = EReference(ordered=True, unique=True, containment=True, derived=False, upper=-1)
def __init__(self, *, name=None, description=None, source=None, plantCategories=None, vegetationCategories=None, soils=None):
# if kwargs:
# raise AttributeError('unexpected arguments: {}'.format(kwargs))
super().__init__()
if name is not None:
self.name = name
if description is not None:
self.description = description
if source is not None:
self.source = source
if plantCategories:
self.plantCategories.extend(plantCategories)
if vegetationCategories:
self.vegetationCategories.extend(vegetationCategories)
if soils:
self.soils.extend(soils)
class PlantCategory(EObject, metaclass=MetaEClass):
"""Excluding (that is non-overlapping) categories like Trees, Hedeges, Grasses that help users finding a specific biol. plant species."""
name = EAttribute(eType=EString, unique=True, derived=False, changeable=True)
plants = EReference(ordered=True, unique=True, containment=True, derived=False, upper=-1)
def __init__(self, *, name=None, plants=None):
# if kwargs:
# raise AttributeError('unexpected arguments: {}'.format(kwargs))
super().__init__()
if name is not None:
self.name = name
if plants:
self.plants.extend(plants)
class IrrigationSchedule(EObject, metaclass=MetaEClass):
name = EAttribute(eType=EString, unique=True, derived=False, changeable=True)
def __init__(self, *, name=None):
# if kwargs:
# raise AttributeError('unexpected arguments: {}'.format(kwargs))
super().__init__()
if name is not None:
self.name = name
class Vegetation(EObject, metaclass=MetaEClass):
"""Plant life or total plant cover (as of an area)"""
name = EAttribute(eType=EString, unique=True, derived=False, changeable=True)
thicknessOfSoil = EAttribute(eType=EString, unique=True, derived=False,
changeable=True, default_value='20 cm')
management = EAttribute(eType=Management, unique=True, derived=False,
changeable=True, default_value=Management.NA)
airGap = EAttribute(eType=EString, unique=True, derived=False,
changeable=True, default_value='0.0 cm')
soil = EReference(ordered=True, unique=True, containment=False, derived=False)
plants = EReference(ordered=True, unique=True, containment=True, derived=False, upper=-1)
def __init__(self, *, name=None, thicknessOfSoil=None, soil=None, plants=None, management=None, airGap=None):
# if kwargs:
# raise AttributeError('unexpected arguments: {}'.format(kwargs))
super().__init__()
if name is not None:
self.name = name
if thicknessOfSoil is not None:
self.thicknessOfSoil = thicknessOfSoil
if management is not None:
self.management = management
if airGap is not None:
self.airGap = airGap
if soil is not None:
self.soil = soil
if plants:
self.plants.extend(plants)
class VegetationCategory(EObject, metaclass=MetaEClass):
"""Excluding (that is non-overlapping) categories to help users finding a specific vegetation template."""
name = EAttribute(eType=EString, unique=True, derived=False, changeable=True)
vegetationTemplates = EReference(ordered=True, unique=True,
containment=True, derived=False, upper=-1)
def __init__(self, *, vegetationTemplates=None, name=None):
# if kwargs:
# raise AttributeError('unexpected arguments: {}'.format(kwargs))
super().__init__()
if name is not None:
self.name = name
if vegetationTemplates:
self.vegetationTemplates.extend(vegetationTemplates)
class PlantPercentage(EObject, metaclass=MetaEClass):
percentage = EAttribute(eType=EString, unique=True, derived=False,
changeable=True, default_value='100')
plant = EReference(ordered=True, unique=True, containment=False, derived=False)
def __init__(self, *, percentage=None, plant=None):
# if kwargs:
# raise AttributeError('unexpected arguments: {}'.format(kwargs))
super().__init__()
if percentage is not None:
self.percentage = percentage
if plant is not None:
self.plant = plant

268
catalogs/greenery/ecore_greenery/greenerycatalog_no_quantities.ecore
View File

@ -1,268 +0,0 @@
<?xml version="1.0" encoding="UTF-8"?>
<ecore:EPackage xmi:version="2.0" xmlns:xmi="http://www.omg.org/XMI" xmlns:xsi="http://www.w3.org/2001/XMLSchema-instance"
xmlns:ecore="http://www.eclipse.org/emf/2002/Ecore" name="greenerycatalog" nsURI="http://ca.concordia/greenerycatalog"
nsPrefix="greenery">
<eClassifiers xsi:type="ecore:EClass" name="Soil">
<eAnnotations source="http://www.eclipse.org/emf/2002/Ecore">
<details key="constraints" value="nonNegative"/>
</eAnnotations>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="name" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral=""/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="roughness" eType="#//Roughness"
defaultValueLiteral="MediumRough">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="defines the relative roughness of a particular material layer. This parameter only influences the convection coefficients, more specifically the exterior convection coefficient. A nominal value is expected in with the options being &quot;VeryRough&quot;, &quot;Rough&quot;, &quot;MediumRough&quot;, &quot;MediumSmooth&quot;, &quot;Smooth&quot;, and &quot;VerySmooth&quot; in order of roughest to smoothest options."/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="conductivityOfDrySoil"
lowerBound="1" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="1.0 W/(m*K)">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Thermal conductivity W/(m-K). Range: 0.2 to 1.5"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.2"/>
<details key="max" value="1.5"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="densityOfDrySoil" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="1100 kg/m³">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Density in kg/m³. "/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.1"/>
<details key="max" value="10000"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="specificHeatOfDrySoil"
eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="1200 J/(kg*K)">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="in units of J/(kg-K). Range(300 to 2000)"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.2"/>
<details key="max" value="2000"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="thermalAbsorptance" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="0.9">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="the fraction of incident long wavelength (>2.5 microns) radiation that is absorbed by the material. This parameter is used when calculating the long wavelength radiant exchange between various surfaces and affects the surface heat balances (both inside and outside as appropriate). For long wavelength radiant exchange, thermal emissivity and thermal emittance are equal to thermal absorptance. Range: 0 to 1"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.0"/>
<details key="max" value="1.0"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="solarAbsorptance" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="0.7">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="the fraction of incident solar radiation that is absorbed by the material.&#xA;Solar radiation (0.3 to 2.537 microns) includes the visible spectrum as well as infrared and ultraviolet wavelengths. This parameter is used when calculating the amount of incident solar radiation absorbed by various surfaces and affects the surface heat balances (both inside and outside as appropriate). If solar reflectance (or reflectivity) data is available, then absorptance is equal to 1.0 minus reflectance (for opaque materials).&#xA;Range: 0 to 1"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.0"/>
<details key="max" value="1.0"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="visibleAbsorptance" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="0.75">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="The visible absorptance field in the Material input syntax represents the fraction of incident visible wavelength radiation that is absorbed by the material.&#xA;Visible wavelength radiation (0.37 to 0.78 microns weighted by photopic response) is slightly different than solar radiation in that the visible band of wavelengths is much more narrow while solar radiation includes the visible spectrum as well as infrared and ultraviolet wavelengths.&#xA;This parameter is used when calculating the amount of incident visible radiation absorbed by various surfaces and affects the surface heat balances (both inside and outside as appropriate) as well as the daylighting calculations. If visible reflectance (or reflectivity) data is available, then absorptance is equal to 1.0 minus reflectance (for opaque materials).&#xA;Range: 0.5 to 1.0"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.5"/>
<details key="max" value="1.0"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="saturationVolumetricMoistureContent"
eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="0.0">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="input of the saturation moisture content of the soil layer. Range: 0.1 to 0.5"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.1"/>
<details key="max" value="0.5"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="residualVolumetricMoistureContent"
eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="0.05">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Input of the residual moisture content of the soil layer. Range: 0.01 to 0.1"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.01"/>
<details key="max" value="0.1"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="initialVolumetricMoistureContent"
eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="0.1">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Range: 0.05 to 0.5"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.05"/>
<details key="max" value="0.5"/>
</eAnnotations>
</eStructuralFeatures>
</eClassifiers>
<eClassifiers xsi:type="ecore:EClass" name="Plant">
<eStructuralFeatures xsi:type="ecore:EAttribute" name="name" lowerBound="1" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="height" lowerBound="1"
eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="0.1 m">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Maximum height of plants. Range: 0.005 to 1 m"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.005"/>
<details key="max" value="1.0"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="leafAreaIndex" lowerBound="1"
eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="2.5">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Leaf area per unit area of soil surface. Range: 0.001 to 5.0 m²/m²"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.001"/>
<details key="max" value="5.0"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="leafReflectivity" lowerBound="1"
eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="0.1">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Represents the fraction of incident solar radiation that is reflected by the individual leaf surfaces (albedo).&#xA;Range: 0.05 to 0.5"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.05"/>
<details key="max" value="0.5"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="leafEmissivity" lowerBound="1"
eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="0.9">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Ratio of thermal radiation emitted from leaf surfaces to that emitted by an ideal black body at the same temperature.&#xA;This parameter is used when calculating the long wavelength radiant exchange at the leaf surfaces.&#xA;Range: 0.8 to 1"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0.8"/>
<details key="max" value="1.0"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="minimalStomatalResistance"
lowerBound="1" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="100.0 s/m">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Resistance of the plants to moisture transport.&#xA;Plants with low values of stomatal resistance will result in higher evapotranspiration rates than plants with high resistance.&#xA;Range: 50 to 300 m/s"/>
</eAnnotations>
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="50.0"/>
<details key="max" value="300.0"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EReference" name="growsOn" lowerBound="1"
upperBound="-1" eType="#//Soil"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="co2Sequestration" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="kgCO₂eq"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EClass" name="SupportEnvelope">
<eStructuralFeatures xsi:type="ecore:EAttribute" name="roughness" eType="#//Roughness"
defaultValueLiteral="MediumRough"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="solarAbsorptance" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EDouble"
defaultValueLiteral="0.0"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="conductivity" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EDouble"
defaultValueLiteral="0.0"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="visibleAbsorptance" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EDouble"
defaultValueLiteral="0.0"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="specificHeat" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EDouble"
defaultValueLiteral="0.0"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="density" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EDouble"
defaultValueLiteral="0.0"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="thermalAbsorptance" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EDouble"
defaultValueLiteral="0.0"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EClass" name="GreeneryCatalog">
<eStructuralFeatures xsi:type="ecore:EAttribute" name="name" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="description" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="source" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"/>
<eStructuralFeatures xsi:type="ecore:EReference" name="plantCategories" lowerBound="1"
upperBound="-1" eType="#//PlantCategory" containment="true"/>
<eStructuralFeatures xsi:type="ecore:EReference" name="vegetationCategories" lowerBound="1"
upperBound="-1" eType="#//VegetationCategory" containment="true"/>
<eStructuralFeatures xsi:type="ecore:EReference" name="soils" upperBound="-1"
eType="#//Soil" containment="true"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EClass" name="PlantCategory">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Excluding (that is non-overlapping) categories like Trees, Hedeges, Grasses that help users finding a specific biol. plant species."/>
</eAnnotations>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="name" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"/>
<eStructuralFeatures xsi:type="ecore:EReference" name="plants" upperBound="-1"
eType="#//Plant" containment="true"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EClass" name="IrrigationSchedule">
<eStructuralFeatures xsi:type="ecore:EAttribute" name="name" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EClass" name="Vegetation">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Plant life or total plant cover (as of an area)"/>
</eAnnotations>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="name" lowerBound="1" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="thicknessOfSoil" lowerBound="1"
eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="20 cm">
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0"/>
<details key="max" value="1000"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EReference" name="soil" lowerBound="1" eType="#//Soil"/>
<eStructuralFeatures xsi:type="ecore:EReference" name="plants" lowerBound="1"
upperBound="-1" eType="#//PlantPercentage" containment="true"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="management" lowerBound="1"
eType="#//Management" defaultValueLiteral="NA"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="airGap" lowerBound="1"
eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="0.0 cm"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EClass" name="VegetationCategory">
<eAnnotations source="http://www.eclipse.org/emf/2002/GenModel">
<details key="documentation" value="Excluding (that is non-overlapping) categories to help users finding a specific vegetation template."/>
</eAnnotations>
<eStructuralFeatures xsi:type="ecore:EReference" name="vegetationTemplates" upperBound="-1"
eType="#//Vegetation" containment="true"/>
<eStructuralFeatures xsi:type="ecore:EAttribute" name="name" eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EEnum" name="Management">
<eLiterals name="Intensive"/>
<eLiterals name="Extensive" value="1"/>
<eLiterals name="SemiIntensive" value="2"/>
<eLiterals name="NA" value="3"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EClass" name="PlantPercentage">
<eStructuralFeatures xsi:type="ecore:EAttribute" name="percentage" lowerBound="1"
eType="ecore:EDataType http://www.eclipse.org/emf/2002/Ecore#//EString"
defaultValueLiteral="100">
<eAnnotations source="http://www.hft-stuttgart.de/UomQuantities">
<details key="min" value="0"/>
<details key="max" value="100"/>
</eAnnotations>
</eStructuralFeatures>
<eStructuralFeatures xsi:type="ecore:EReference" name="plant" lowerBound="1" eType="#//Plant"/>
</eClassifiers>
<eClassifiers xsi:type="ecore:EEnum" name="Roughness">
<eLiterals name="VeryRough"/>
<eLiterals name="Rough" value="1"/>
<eLiterals name="MediumRough" value="2"/>
<eLiterals name="MediumSmooth" value="3"/>
<eLiterals name="Smooth" value="4"/>
<eLiterals name="VerySmooth" value="5"/>
</eClassifiers>
</ecore:EPackage>

49
city_model_structure/attributes/polygon.py
View File

@ -16,6 +16,7 @@ from city_model_structure.attributes.plane import Plane
from city_model_structure.attributes.point import Point
import helpers.constants as cte
class Polygon:
"""
Polygon class
@ -78,6 +79,48 @@ class Polygon:
z = vector_0[2] * vector_1[2]
return x+y+z
def contains_point(self, point):
"""
Determines if the given point is contained by the current polygon
:return: boolean
"""
# fixme: This method doesn't seems to work.
n = len(self.vertices)
angle_sum = 0
for i in range(0, n):
vector_0 = self.vertices[i]
vector_1 = self.vertices[(i+1) % n]
# set to origin
vector_0[0] = vector_0[0] - point.coordinates[0]
vector_0[1] = vector_0[1] - point.coordinates[1]
vector_0[2] = vector_0[2] - point.coordinates[2]
vector_1[0] = vector_1[0] - point.coordinates[0]
vector_1[1] = vector_1[1] - point.coordinates[1]
vector_1[2] = vector_1[2] - point.coordinates[2]
module = Polygon._module(vector_0) * Polygon._module(vector_1)
scalar_product = Polygon._scalar_product(vector_0, vector_1)
angle = np.pi/2
if module != 0:
angle = abs(np.arcsin(scalar_product / module))
angle_sum += angle
print(angle_sum)
return abs(angle_sum - math.pi*2) < cte.EPSILON
def contains_polygon(self, polygon):
"""
Determines if the given polygon is contained by the current polygon
:return: boolean
"""
print('contains')
for point in polygon.points:
print(point.coordinates, self.contains_point(point))
if not self.contains_point(point):
return False
print('Belong!')
return True
@property
def points_list(self) -> np.ndarray:
"""
@ -249,7 +292,7 @@ class Polygon:
points_list = self.points_list
normal = self.normal
if np.linalg.norm(normal) == 0:
sys.stderr.write(f'Not able to triangulate polygon [normal length is 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)
@ -297,10 +340,10 @@ class Polygon:
continue
break
if len(total_points_list) <= 3 and len(convex_points) > 0:
sys.stderr.write('Not able to triangulate polygon [convex surface]\n')
sys.stderr.write('Not able to triangulate polygon\n')
return [self]
if j >= 100:
sys.stderr.write('Not able to triangulate polygon [infinite loop]\n')
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)

2
city_model_structure/attributes/polyhedron.py
View File

@ -114,7 +114,7 @@ class Polyhedron:
if self._trimesh is None:
for face in self.faces:
if len(face) != 3:
sys.stderr.write(f'Not able to generate trimesh the face has {len(face)} vertices\n')
sys.stderr.write('Not able to generate trimesh\n')
return None
self._trimesh = Trimesh(vertices=self.vertices, faces=self.faces)
return self._trimesh

112
city_model_structure/building.py
View File

@ -5,17 +5,17 @@ Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@conc
contributors: Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
"""
from typing import List, Union
from typing import List, Union, TypeVar
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
from city_model_structure.building_demand.household import Household
from city_model_structure.attributes.polyhedron import Polyhedron
ThermalZone = TypeVar('ThermalZone')
class Building(CityObject):
"""
@ -35,9 +35,8 @@ class Building(CityObject):
self._roof_type = None
self._storeys = None
self._geometrical_zones = None
self._thermal_zones = []
self._thermal_boundaries = None
self._usage_zones = []
self._thermal_zones = None
self._usage_zones = None
self._type = 'building'
self._heating = dict()
self._cooling = dict()
@ -78,28 +77,6 @@ class Building(CityObject):
"""
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) -> List[Surface]:
"""
@ -117,18 +94,23 @@ class Building(CityObject):
return self._walls
@property
def usage_zones(self) -> List[UsageZone]:
def usage_zones(self) -> Union[None, 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
@usage_zones.setter
def usage_zones(self, value):
"""
Set city object usage zones
:param value: [UsageZone]
"""
self._usage_zones = value
@property
def terrains(self) -> List[Surface]:
def terrains(self) -> Union[None, List[Surface]]:
"""
Get city object terrain surfaces
:return: [Surface]
@ -170,26 +152,21 @@ class Building(CityObject):
self._basement_heated = int(value)
@property
def name(self):
"""
Get building name
:return: str
"""
return self._name
@property
def thermal_zones(self) -> List[ThermalZone]:
def thermal_zones(self) -> Union[None, List[ThermalZone]]:
"""
Get building thermal zones
:return: [ThermalZone]
"""
if len(self._thermal_zones) == 0:
if self.storeys is None:
return []
for storey in self.storeys:
self._thermal_zones.append(storey.thermal_zone)
return self._thermal_zones
@thermal_zones.setter
def thermal_zones(self, value):
"""
Set city object thermal zones
:param value: [ThermalZone]
"""
self._thermal_zones = value
@property
def heated_volume(self):
"""
@ -213,7 +190,7 @@ class Building(CityObject):
:param value: int
"""
if value is not None:
self._year_of_construction = value
self._year_of_construction = int(value)
@property
def function(self) -> Union[None, str]:
@ -341,6 +318,14 @@ class Building(CityObject):
break
return self._roof_type
@roof_type.setter
def roof_type(self, value):
"""
Set roof type for the building flat or pitch
:return: str
"""
self._roof_type = value
@property
def floor_area(self):
"""
@ -354,24 +339,6 @@ class Building(CityObject):
self._floor_area += surface.perimeter_polygon.area
return self._floor_area
@property
def thermal_boundaries(self) -> List[ThermalBoundary]:
"""
Get 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
@property
def households(self) -> List[Household]:
"""
@ -379,3 +346,16 @@ class Building(CityObject):
:return: List[Household]
"""
return self._households
@property
def is_conditioned(self):
"""
Get building heated flag
:return: Boolean
"""
if self.thermal_zones is None:
return False
for thermal_zone in self.thermal_zones:
if thermal_zone.hvac_system is not None:
return True
return False

103
city_model_structure/building_demand/appliances.py Normal file
View File

@ -0,0 +1,103 @@
"""
Appliances module
SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2022 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
"""
from typing import Union
from city_model_structure.attributes.schedule import Schedule
class Appliances:
"""
Appliances class
"""
def __init__(self):
self._lighting_density = None
self._convective_fraction = None
self._radiant_fraction = None
self._latent_fraction = None
self._schedule = None
@property
def lighting_density(self) -> Union[None, float]:
"""
Get lighting density in Watts per m2
:return: None or float
"""
return self._lighting_density
@lighting_density.setter
def lighting_density(self, value):
"""
Set lighting density in Watts per m2
:param value: float
"""
if value is not None:
self._lighting_density = float(value)
@property
def convective_fraction(self) -> Union[None, float]:
"""
Get convective fraction
:return: None or float
"""
return self._convective_fraction
@convective_fraction.setter
def convective_fraction(self, value):
"""
Set convective fraction
:param value: float
"""
if value is not None:
self._convective_fraction = float(value)
@property
def radiant_fraction(self) -> Union[None, float]:
"""
Get radiant fraction
:return: None or float
"""
return self._radiant_fraction
@radiant_fraction.setter
def radiant_fraction(self, value):
"""
Set radiant fraction
:param value: float
"""
if value is not None:
self._radiant_fraction = float(value)
@property
def latent_fraction(self) -> Union[None, float]:
"""
Get latent fraction
:return: None or float
"""
return self._latent_fraction
@latent_fraction.setter
def latent_fraction(self, value):
"""
Set latent fraction
:param value: float
"""
if value is not None:
self._latent_fraction = float(value)
@property
def schedule(self) -> Union[None, Schedule]:
"""
Get schedule
:return: None or Schedule
"""
return self._schedule
@schedule.setter
def schedule(self, value):
"""
Set schedule
:param value: Schedule
"""
self._schedule = value

18
city_model_structure/building_demand/internal_gains.py
View File

@ -5,6 +5,7 @@ Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@conc
"""
from typing import Union
from city_model_structure.attributes.schedule import Schedule
class InternalGains:
@ -18,6 +19,7 @@ class InternalGains:
self._convective_fraction = None
self._radiative_fraction = None
self._latent_fraction = None
self._schedule = None
@property
def type(self) -> Union[None, str]:
@ -103,3 +105,19 @@ class InternalGains:
"""
if value is not None:
self._latent_fraction = float(value)
@property
def schedule(self) -> Union[None, Schedule]:
"""
Get internal gain schedule
:return: Schedule
"""
return self._schedule
@schedule.setter
def schedule(self, value):
"""
Set internal gain schedule
:param value: Schedule
"""
self._schedule = value

103
city_model_structure/building_demand/lighting.py Normal file
View File

@ -0,0 +1,103 @@
"""
Lighting module
SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2022 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
"""
from typing import Union
from city_model_structure.attributes.schedule import Schedule
class Lighting:
"""
Lighting class
"""
def __init__(self):
self._lighting_density = None
self._convective_fraction = None
self._radiant_fraction = None
self._latent_fraction = None
self._schedule = None
@property
def lighting_density(self) -> Union[None, float]:
"""
Get lighting density in Watts per m2
:return: None or float
"""
return self._lighting_density
@lighting_density.setter
def lighting_density(self, value):
"""
Set lighting density in Watts per m2
:param value: float
"""
if value is not None:
self._lighting_density = float(value)
@property
def convective_fraction(self) -> Union[None, float]:
"""
Get convective fraction
:return: None or float
"""
return self._convective_fraction
@convective_fraction.setter
def convective_fraction(self, value):
"""
Set convective fraction
:param value: float
"""
if value is not None:
self._convective_fraction = float(value)
@property
def radiant_fraction(self) -> Union[None, float]:
"""
Get radiant fraction
:return: None or float
"""
return self._radiant_fraction
@radiant_fraction.setter
def radiant_fraction(self, value):
"""
Set radiant fraction
:param value: float
"""
if value is not None:
self._radiant_fraction = float(value)
@property
def latent_fraction(self) -> Union[None, float]:
"""
Get latent fraction
:return: None or float
"""
return self._latent_fraction
@latent_fraction.setter
def latent_fraction(self, value):
"""
Set latent fraction
:param value: float
"""
if value is not None:
self._latent_fraction = float(value)
@property
def schedule(self) -> Union[None, Schedule]:
"""
Get schedule
:return: None or Schedule
"""
return self._schedule
@schedule.setter
def schedule(self, value):
"""
Set schedule
:param value: Schedule
"""
self._schedule = value

164
city_model_structure/building_demand/material.py
View File

@ -6,6 +6,7 @@ Contributor Atiya atiya.atiya@mail.concordia.ca
Contributor Mohammad Reza mohammad.seyedabadi@mail.concordia.ca
"""
import ast
from typing import Union
@ -14,6 +15,7 @@ class Material:
Material class
"""
def __init__(self):
self._type = type
self._id = None
self._name = None
self._conductivity = None
@ -25,7 +27,30 @@ class Material:
self._visible_absorptance = None
self._no_mass = False
self._thermal_resistance = None
self._lca_id = None
self._embodied_carbon = None
self._embodied_carbon_unit = None
self._recycling_ratio = None
self._onsite_recycling_ratio = None
self._company_recycling_ratio = None
self._landfilling_ratio = None
self._cost = None
self._cost_unit = None
@property
def type(self):
"""
Get material type
:return: str
"""
return self._type
@type.setter
def type(self, value):
"""
Set material type
:param value: string
"""
self._type = str(value)
@property
def id(self):
@ -213,10 +238,137 @@ class Material:
self._thermal_resistance = float(value)
@property
def lca_id(self):
return self._lca_id
def embodied_carbon(self) -> Union[None, float]:
"""
Get material embodied carbon
:return: None or float
"""
return self._embodied_carbon
@lca_id.setter
def lca_id(self, value):
self._lca_id = value
@embodied_carbon.setter
def embodied_carbon(self, value):
"""
Set material embodied carbon
:param value: float
"""
if value is not None:
self._embodied_carbon = float(value)
@property
def embodied_carbon_unit(self) -> Union[None, str]:
"""
Get material embodied carbon unit
:return: None or string
"""
return self._embodied_carbon
@embodied_carbon_unit.setter
def embodied_carbon_unit(self, value):
"""
Set material embodied carbon unit
:param value: string
"""
if value is not None:
self._embodied_carbon_unit = str(value)
@property
def recycling_ratio(self) -> Union[None, float]:
"""
Get material recycling ratio
:return: None or float
"""
return self._recycling_ratio
@recycling_ratio.setter
def recycling_ratio(self, value):
"""
Set material recycling ratio
:param value: float
"""
if value is not None:
self._recycling_ratio = float(value)
@property
def onsite_recycling_ratio(self) -> Union[None, float]:
"""
Get material onsite recycling ratio
:return: None or float
"""
return self._onsite_recycling_ratio
@onsite_recycling_ratio.setter
def onsite_recycling_ratio(self, value):
"""
Set material onsite recycling ratio
:param value: float
"""
if value is not None:
self._onsite_recycling_ratio = float(value)
@property
def company_recycling_ratio(self) -> Union[None, float]:
"""
Get material company recycling ratio
:return: None or float
"""
return self._company_recycling_ratio
@company_recycling_ratio.setter
def company_recycling_ratio(self, value):
"""
Set material company recycling ratio
:param value: float
"""
if value is not None:
self._company_recycling_ratio = float(value)
@property
def landfilling_ratio(self) -> Union[None, float]:
"""
Get material landfilling ratio
:return: None or float
"""
return self._landfilling_ratio
@landfilling_ratio.setter
def landfilling_ratio(self, value):
"""
Set material landfilling ratio
:param value: float
"""
if value is not None:
self._landfilling_ratio = float(value)
@property
def cost(self) -> Union[None, float]:
"""
Get material cost
:return: None or float
"""
return self._cost
@cost.setter
def cost(self, value):
"""
Set material cost
:param value: float
"""
if value is not None:
self._cost = float(value)
@property
def cost_unit(self) -> Union[None, str]:
"""
Get material cost unit
:return: None or string
"""
return self._cost_unit
@cost_unit.setter
def cost_unit(self, value):
"""
Set material cost unit
:param value: string
"""
if value is not None:
self._cost_unit = float(value)

121
city_model_structure/building_demand/occupancy.py Normal file
View File

@ -0,0 +1,121 @@
"""
Occupancy module
SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2022 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
"""
from typing import Union, List
from city_model_structure.attributes.schedule import Schedule
from city_model_structure.building_demand.occupant import Occupant
class Occupancy:
"""
Occupancy class
"""
def __init__(self):
self._occupancy_density = None
self._sensible_convective_internal_gain = None
self._sensible_radiant_internal_gain = None
self._latent_internal_gain = None
self._occupancy_schedule = None
self._occupants = None
@property
def occupancy_density(self) -> Union[None, float]:
"""
Get density in m2 per person
:return: None or float
"""
return self._occupancy_density
@occupancy_density.setter
def occupancy_density(self, value):
"""
Set density in m2 per persons
:param value: float
"""
if value is not None:
self._occupancy_density = float(value)
@property
def sensible_convective_internal_gain(self) -> Union[None, float]:
"""
Get sensible convective internal gain in Watts per m2
:return: None or float
"""
return self._sensible_convective_internal_gain
@sensible_convective_internal_gain.setter
def sensible_convective_internal_gain(self, value):
"""
Set sensible convective internal gain in Watts per m2
:param value: float
"""
if value is not None:
self._sensible_convective_internal_gain = float(value)
@property
def sensible_radiant_internal_gain(self) -> Union[None, float]:
"""
Get sensible radiant internal gain in Watts per m2
:return: None or float
"""
return self._sensible_radiant_internal_gain
@sensible_radiant_internal_gain.setter
def sensible_radiant_internal_gain(self, value):
"""
Set sensible radiant internal gain in Watts per m2
:param value: float
"""
if value is not None:
self._sensible_radiant_internal_gain = float(value)
@property
def latent_internal_gain(self) -> Union[None, float]:
"""
Get latent internal gain in Watts per m2
:return: None or float
"""
return self._latent_internal_gain
@latent_internal_gain.setter
def latent_internal_gain(self, value):
"""
Set latent internal gain in Watts per m2
:param value: float
"""
if value is not None:
self._latent_internal_gain = float(value)
@property
def occupancy_schedule(self) -> Union[None, Schedule]:
"""
Get occupancy schedule
:return: None or Schedule
"""
return self._occupancy_schedule
@occupancy_schedule.setter
def occupancy_schedule(self, value):
"""
Set occupancy schedule
:param value: Schedule
"""
self._occupancy_schedule = value
@property
def occupants(self) -> Union[None, List[Occupant]]:
"""
Get list of occupants
:return: None or List of Occupant
"""
return self._occupants
@occupants.setter
def occupants(self, value):
"""
Set list of occupants
:param value: [Occupant]
"""
self._occupants = value

53
city_model_structure/building_demand/occupants.py → city_model_structure/building_demand/occupant.py
View File

@ -1,19 +1,16 @@
"""
Occupants module
Occupant 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:
class Occupant:
"""
Occupants class
Occupant class
"""
def __init__(self):
@ -24,15 +21,11 @@ class Occupants:
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):
@ -82,46 +75,6 @@ class Occupants:
"""
self._occupant_type = float(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 = [float(i) for i in 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 = int(value)
@property
def arrival_time(self):
"""

23
city_model_structure/building_demand/storey.py
View File

@ -12,12 +12,10 @@ 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
def __init__(self, name, storey_surfaces, neighbours, volume, floor_area):
self._name = name
self._storey_surfaces = storey_surfaces
self._thermal_boundaries = None
@ -25,6 +23,7 @@ class Storey:
self._thermal_zone = None
self._neighbours = neighbours
self._volume = volume
self._floor_area = floor_area
@property
def name(self):
@ -59,7 +58,13 @@ class Storey:
if self._thermal_boundaries is None:
self._thermal_boundaries = []
for surface in self.surfaces:
self._thermal_boundaries.append(ThermalBoundary(surface))
if surface.holes_polygons is None:
windows_areas = None
else:
windows_areas = []
for hole in surface.holes_polygons:
windows_areas.append(hole.area)
self._thermal_boundaries.append(ThermalBoundary(surface, surface.solid_polygon.area, windows_areas))
return self._thermal_boundaries
@property
@ -81,7 +86,7 @@ class Storey:
:return: ThermalZone
"""
if self._thermal_zone is None:
self._thermal_zone = ThermalZone(self.thermal_boundaries, self.volume)
self._thermal_zone = ThermalZone(self.thermal_boundaries, self.volume, self.floor_area)
return self._thermal_zone
@property
@ -91,3 +96,11 @@ class Storey:
:return: float
"""
return self._volume
@property
def floor_area(self):
"""
Get storey's floor area in square meters
:return: float
"""
return self._floor_area

3
city_model_structure/building_demand/surface.py
View File

@ -71,6 +71,7 @@ class Surface:
if value is not None:
self._id = str(value)
# todo: implement share surfaces
@property
def share_surfaces(self):
"""
@ -191,6 +192,8 @@ class Surface:
Get surface type Ground, Wall or Roof
:return: str
"""
# todo: there are more types: internal wall, internal floor... this method must be redefined
if self._type is None:
grad = np.rad2deg(self.inclination)
if grad >= 170:

130
city_model_structure/building_demand/thermal_boundary.py
View File

@ -5,25 +5,24 @@ Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@conc
Contributors Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
"""
import uuid
from typing import List, TypeVar, Union
from typing import List, Union
from helpers.configuration_helper import ConfigurationHelper as ch
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
def __init__(self, parent_surface, opaque_area, windows_areas):
self._parent_surface = parent_surface
self._opaque_area = opaque_area
self._windows_areas = windows_areas
self._id = None
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
@ -32,16 +31,16 @@ class ThermalBoundary:
self._u_value = None
self._shortwave_reflectance = None
self._construction_name = None
self._hi = 3.5
self._he = 20
self._window_ratio = None
self._hi = ch().convective_heat_transfer_coefficient_interior
self._he = ch().convective_heat_transfer_coefficient_exterior
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
self._window_ratio = None
self._calculated = False
@property
def id(self):
@ -54,13 +53,12 @@ class ThermalBoundary:
return self._id
@property
def surface(self) -> Surface:
def parent_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
return self._parent_surface
@property
def thermal_zones(self) -> List[ThermalZone]:
@ -73,47 +71,35 @@ class ThermalBoundary:
@thermal_zones.setter
def thermal_zones(self, value):
"""
Set the thermal zones delimited by the thermal boundary
Get the thermal zones delimited by the thermal boundary
:param value: [ThermalZone]
"""
self._thermal_zones = value
# todo: do I need these two??
@property
def azimuth(self):
"""
Get the thermal boundary azimuth in radians
:return: float
"""
return self._surface.azimuth
return self.parent_surface.azimuth
@property
def inclination(self):
"""
Set the thermal boundary inclination in radians
Get the thermal boundary inclination in radians
:return: float
"""
return self._surface.inclination
return self.parent_surface.inclination
@property
def area(self):
def opaque_area(self):
"""
Set the thermal boundary area in square meters
Get the 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):
"""
Get the thermal boundary plus windows area in square meters
:return: float
"""
return self.surface.perimeter_polygon.area
return float(self._opaque_area)
@property
def thickness(self):
@ -125,6 +111,7 @@ class ThermalBoundary:
self._thickness = 0.0
if self.layers is not None:
for layer in self.layers:
if not layer.material.no_mass:
self._thickness += layer.thickness
return self._thickness
@ -181,30 +168,34 @@ class ThermalBoundary:
self._outside_visible_absorptance = float(value)
@property
def thermal_openings(self) -> List[ThermalOpening]:
def thermal_openings(self) -> Union[None, List[ThermalOpening]]:
"""
Get thermal boundary thermal openings
:return: [ThermalOpening]
"""
if self._thermal_openings is None:
if float(self.window_ratio) > 0:
if self.window_ratio is not None:
if self.window_ratio == 0:
self._thermal_openings = []
else:
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
if self.window_ratio == 1:
_area = self.opaque_area
else:
_area = self.opaque_area * self.window_ratio / (1-self.window_ratio)
thermal_opening.area = _area
self._thermal_openings = [thermal_opening]
else:
if len(self.windows_areas) > 0:
self._thermal_openings = []
for window_area in self.windows_areas:
thermal_opening = ThermalOpening()
thermal_opening.area = window_area
self._thermal_openings.append(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) -> Union[None, str]:
"""
@ -244,25 +235,48 @@ class ThermalBoundary:
Get thermal boundary surface type
:return: str
"""
return self._surface.type
return self.parent_surface.type
@property
def window_ratio(self) -> Union[None, float]:
"""
Get thermal boundary window ratio
:return: None or float
It returns the window ratio calculated as the total windows' areas in a wall divided by
the total (opaque + transparent) area of that wall if windows are defined in the geometry imported.
If not, it returns the window ratio imported from an external source (e.g. construction library, manually assigned).
If none of those sources are available, it returns None.
:return: float
"""
if self.windows_areas is not None:
if not self._calculated:
_calculated = True
if len(self.windows_areas) == 0:
self._window_ratio = 0
else:
total_window_area = 0
for window_area in self.windows_areas:
total_window_area += window_area
self._window_ratio = total_window_area / (self.opaque_area + total_window_area)
return self._window_ratio
@window_ratio.setter
def window_ratio(self, value):
"""
Set thermal boundary window ratio
:param value: float
:param value: str
"""
if value is not None:
if self._calculated:
raise ValueError('Window ratio cannot be assigned when the windows are defined in the geometry.')
self._window_ratio = float(value)
@property
def windows_areas(self) -> [float]:
"""
Get windows areas
:return: [float]
"""
return self._windows_areas
@property
def u_value(self) -> Union[None, float]:
"""
@ -327,7 +341,7 @@ class ThermalBoundary:
:param value: float
"""
if value is not None:
self._hi = float(value)
self._hi = value
@property
def he(self) -> Union[None, float]:
@ -344,14 +358,7 @@ class ThermalBoundary:
:param value: float
"""
if value is not None:
self._he = float(value)
@property
def surface_geometry(self):
"""
Raises not implemented error
"""
raise NotImplementedError
self._he = value
@property
def virtual_internal_surface(self) -> Surface:
@ -360,10 +367,9 @@ class ThermalBoundary:
:return: Surface
"""
if self._virtual_internal_surface is None:
self._virtual_internal_surface = self.surface.inverse
self._virtual_internal_surface = self.parent_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) -> Union[None, float]:
"""

86
city_model_structure/building_demand/thermal_control.py Normal file
View File

@ -0,0 +1,86 @@
"""
ThermalControl module
SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2022 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
"""
from typing import Union
from city_model_structure.attributes.schedule import Schedule
class ThermalControl:
"""
ThermalControl class
"""
def __init__(self):
self._heating_set_point = None
self._cooling_set_point = None
self._hvac_availability = None
self._heating_set_back = None
@property
def heating_set_point(self) -> Union[None, Schedule]:
"""
Get heating set point defined for a thermal zone in Celsius
:return: None or Schedule
"""
return self._heating_set_point
@heating_set_point.setter
def heating_set_point(self, value):
"""
Set heating set point defined for a thermal zone in Celsius
:param value: Schedule
"""
self._heating_set_point = value
@property
def heating_set_back(self) -> Union[None, float]:
"""
Get heating set back defined for a thermal zone in Celsius
Heating set back is the only parameter which is not a schedule as it is either one value or it is implicit in the
set point schedule
:return: None or float
"""
return self._heating_set_back
@heating_set_back.setter
def heating_set_back(self, value):
"""
Set heating set back defined for a thermal zone in Celsius
:param value: float
"""
if value is not None:
self._heating_set_back = float(value)
@property
def cooling_set_point(self) -> Union[None, Schedule]:
"""
Get cooling set point defined for a thermal zone in Celsius
:return: None or Schedule
"""
return self._cooling_set_point
@cooling_set_point.setter
def cooling_set_point(self, value):
"""
Set cooling set point defined for a thermal zone in Celsius
:param value: Schedule
"""
self._cooling_set_point = value
@property
def hvac_availability(self) -> Union[None, Schedule]:
"""
Get the availability of the conditioning system defined for a thermal zone
:return: None or Schedule
"""
return self._hvac_availability
@hvac_availability.setter
def hvac_availability(self, value):
"""
Set the availability of the conditioning system defined for a thermal zone
:param value: Schedule
"""
self._hvac_availability = value

15
city_model_structure/building_demand/thermal_opening.py
View File

@ -6,6 +6,7 @@ Contributors Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
"""
import uuid
from typing import TypeVar, Union
from helpers.configuration_helper import ConfigurationHelper as ch
Polygon = TypeVar('Polygon')
@ -25,9 +26,8 @@ class ThermalOpening:
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._hi = ch().convective_heat_transfer_coefficient_interior
self._he = ch().convective_heat_transfer_coefficient_exterior
self._inside_emissivity = None
self._alpha_coefficient = None
self._radiative_coefficient = None
@ -240,15 +240,6 @@ class ThermalOpening:
if value is not None:
self._he = float(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) -> Union[None, float]:
"""

110
city_model_structure/building_demand/thermal_zone.py
View File

@ -5,32 +5,33 @@ Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@conc
Contributors Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
"""
import uuid
from typing import List, TypeVar, Union
from typing import List, Union, Tuple, TypeVar
from city_model_structure.building_demand.usage_zone import UsageZone
import ast
from city_model_structure.building_demand.thermal_control import ThermalControl
from city_model_structure.energy_systems.hvac_system import HvacSystem
from city_model_structure.attributes.schedule import Schedule
ThermalBoundary = TypeVar('ThermalBoundary')
Polyhedron = TypeVar('Polyhedron')
class ThermalZone:
"""
ThermalZone class
"""
def __init__(self, thermal_boundaries, volume):
self._floor_area = None
def __init__(self, thermal_boundaries, volume, floor_area):
self._id = None
self._floor_area = floor_area
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._usage_zones = None
self._volume = volume
self._volume_geometry = None
self._id = None
self._ordinate_number = None
self._thermal_control = None
self._hvac_system = None
@property
def id(self):
@ -43,34 +44,11 @@ class ThermalZone:
return self._id
@property
def is_mechanically_ventilated(self) -> Union[None, bool]:
"""
Get thermal zone mechanical ventilation flag
:return: None or Boolean
"""
return self._is_mechanically_ventilated
@is_mechanically_ventilated.setter
def is_mechanically_ventilated(self, value):
"""
Set thermal zone mechanical ventilation flag
:param value: Boolean
"""
if value is not None:
self._is_mechanically_ventilated = ast.literal_eval(value)
@property
def floor_area(self):
def floor_area(self) -> float:
"""
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
@ -133,10 +111,10 @@ class ThermalZone:
self._indirectly_heated_area_ratio = float(value)
@property
def infiltration_rate_system_on(self) -> Union[None, float]:
def infiltration_rate_system_on(self) -> Union[None, Schedule]:
"""
Get thermal zone infiltration rate system on in air changes per hour (ACH)
:return: None or float
:return: None or Schedule
"""
return self._infiltration_rate_system_on
@ -144,16 +122,15 @@ class ThermalZone:
def infiltration_rate_system_on(self, value):
"""
Set thermal zone infiltration rate system on in air changes per hour (ACH)
:param value: float
:param value: Schedule
"""
if value is not None:
self._infiltration_rate_system_on = float(value)
self._infiltration_rate_system_on = value
@property
def infiltration_rate_system_off(self) -> Union[None, float]:
def infiltration_rate_system_off(self) -> Union[None, Schedule]:
"""
Get thermal zone infiltration rate system off in air changes per hour (ACH)
:return: None or float
:return: None or Schedule
"""
return self._infiltration_rate_system_off
@ -161,15 +138,14 @@ class ThermalZone:
def infiltration_rate_system_off(self, value):
"""
Set thermal zone infiltration rate system on in air changes per hour (ACH)
:param value: float
:param value: Schedule
"""
if value is not None:
self._infiltration_rate_system_off = float(value)
self._infiltration_rate_system_off = value
@property
def usage_zones(self) -> List[UsageZone]:
def usage_zones(self) -> Tuple[float, UsageZone]:
"""
Get thermal zone usage zones
Get list of usage zones and the percentage of thermal zone's volume affected by that usage
:return: [UsageZone]
"""
return self._usage_zones
@ -177,8 +153,8 @@ class ThermalZone:
@usage_zones.setter
def usage_zones(self, values):
"""
Set thermal zone usage zones
:param values: [UsageZone]
Set list of usage zones and the percentage of thermal zone's volume affected by that usage
:param values: Tuple[float, UsageZone]
"""
self._usage_zones = values
@ -190,14 +166,6 @@ class ThermalZone:
"""
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) -> Union[None, int]:
"""
@ -214,3 +182,35 @@ class ThermalZone:
"""
if value is not None:
self._ordinate_number = int(value)
@property
def thermal_control(self) -> Union[None, ThermalControl]:
"""
Get thermal control of this thermal zone
:return: None or ThermalControl
"""
return self._thermal_control
@thermal_control.setter
def thermal_control(self, value):
"""
Set thermal control for this thermal zone
:param value: ThermalControl
"""
self._thermal_control = value
@property
def hvac_system(self) -> Union[None, HvacSystem]:
"""
Get HVAC system installed for this thermal zone
:return: None or HvacSystem
"""
return self._hvac_system
@hvac_system.setter
def hvac_system(self, value):
"""
Set HVAC system installed for this thermal zone
:param value: HvacSystem
"""
self._hvac_system = value

290
city_model_structure/building_demand/usage_zone.py
View File

@ -5,13 +5,12 @@ Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.mons
Contributors Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
"""
import uuid
from typing import List, TypeVar, Union
import ast
InternalGains = TypeVar('InternalGains')
Occupants = TypeVar('Occupants')
Polyhedron = TypeVar('Polyhedron')
Schedule = TypeVar('Schedule')
from typing import List, Union
import helpers.constants as cte
from city_model_structure.building_demand.internal_gains import InternalGains
from city_model_structure.building_demand.occupancy import Occupancy
from city_model_structure.building_demand.lighting import Lighting
from city_model_structure.building_demand.appliances import Appliances
class UsageZone:
@ -21,23 +20,15 @@ class UsageZone:
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._not_detailed_source_mean_annual_internal_gains = 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._electrical_app_average_consumption_sqm_year = None
self._mechanical_air_change = None
self._occupants = None
self._schedules = None
self._volume = None
self._volume_geometry = None
self._is_heated = False
self._is_cooled = False
self._occupancy = None
self._lighting = None
self._appliances = None
self._internal_gains = None
@property
def id(self):
@ -50,71 +41,20 @@ class UsageZone:
return self._id
@property
def internal_gains(self) -> List[InternalGains]:
def not_detailed_source_mean_annual_internal_gains(self) -> List[InternalGains]:
"""
Get usage zone internal gains
Get usage zone internal gains with unknown energy source
:return: [InternalGains]
"""
return self._internal_gains
return self._not_detailed_source_mean_annual_internal_gains
@internal_gains.setter
def internal_gains(self, value):
@not_detailed_source_mean_annual_internal_gains.setter
def not_detailed_source_mean_annual_internal_gains(self, value):
"""
Set usage zone internal gains
Set usage zone internal gains with unknown energy source
:param value: [InternalGains]
"""
self._internal_gains = value
@property
def heating_setpoint(self) -> Union[None, float]:
"""
Get usage zone heating set point in Celsius
:return: None or float
"""
return self._heating_setpoint
@heating_setpoint.setter
def heating_setpoint(self, value):
"""
Set usage zone heating set point in Celsius
:param value: float
"""
if value is not None:
self._heating_setpoint = float(value)
@property
def heating_setback(self) -> Union[None, float]:
"""
Get usage zone heating setback in Celsius
:return: None or float
"""
return self._heating_setback
@heating_setback.setter
def heating_setback(self, value):
"""
Set usage zone heating setback in Celsius
:param value: float
"""
if value is not None:
self._heating_setback = float(value)
@property
def cooling_setpoint(self) -> Union[None, float]:
"""
Get usage zone cooling setpoint in Celsius
:return: None or float
"""
return self._cooling_setpoint
@cooling_setpoint.setter
def cooling_setpoint(self, value):
"""
Set usage zone cooling setpoint in Celsius
:param value: float
"""
if value is not None:
self._cooling_setpoint = float(value)
self._not_detailed_source_mean_annual_internal_gains = value
@property
def hours_day(self) -> Union[None, float]:
@ -184,89 +124,6 @@ class UsageZone:
if value is not None:
self._usage = str(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 schedules(self) -> List[Schedule]:
"""
Get usage zone schedules
:return: List[Schedule]
"""
return self._schedules
@schedules.setter
def schedules(self, values):
"""
Set usage zone schedules
:param values: List[Schedule]
"""
self._schedules = values
@property
def occupancy_density(self) -> Union[None, float]:
"""
Get density in persons per m2
:return: None or float
"""
return self._occupancy_density
@occupancy_density.setter
def occupancy_density(self, value):
"""
Set density in persons per m2
:param value: float
"""
if value is not None:
self._occupancy_density = float(value)
@property
def dhw_average_volume_pers_day(self) -> Union[None, float]:
"""
Get average DHW consumption in cubic meters per person per day
:return: None or float
"""
return self._dhw_average_volume_pers_day
@dhw_average_volume_pers_day.setter
def dhw_average_volume_pers_day(self, value):
"""
Set average DHW consumption in cubic meters per person per day
:param value: float
"""
if value is not None:
self._dhw_average_volume_pers_day = float(value)
@property
def dhw_preparation_temperature(self) -> Union[None, float]:
"""
Get preparation temperature of the DHW in Celsius
:return: None or float
"""
return self._dhw_preparation_temperature
@dhw_preparation_temperature.setter
def dhw_preparation_temperature(self, value):
"""
Set preparation temperature of the DHW in Celsius
:param value: float
"""
if value is not None:
self._dhw_preparation_temperature = float(value)
@property
def electrical_app_average_consumption_sqm_year(self) -> Union[None, float]:
"""
@ -285,60 +142,93 @@ class UsageZone:
self._electrical_app_average_consumption_sqm_year = float(value)
@property
def volume_geometry(self) -> Polyhedron:
def occupancy(self) -> Union[None, Occupancy]:
"""
Get the polyhedron defined by the usage zone
:return: Polyhedron
Get occupancy in the usage zone
:return: None or Occupancy
"""
return self._volume_geometry
return self._occupancy
@occupancy.setter
def occupancy(self, value):
"""
Set occupancy in the usage zone
:param value: Occupancy
"""
self._occupancy = value
@property
def volume(self) -> Union[None, float]:
def lighting(self) -> Union[None, Lighting]:
"""
Get the volume in cubic meters
:return: None or float
Get lighting information
:return: None or Lighting
"""
return self._volume
return self._lighting
@volume.setter
def volume(self, value):
@lighting.setter
def lighting(self, value):
"""
Set volume in cubic meters
:param value: float
Set lighting information
:param value: Lighting
"""
if value is not None:
self._volume = float(value)
self._lighting = value
@property
def is_heated(self) -> Union[None, bool]:
def appliances(self) -> Union[None, Appliances]:
"""
Get thermal zone heated flag
:return: None or Boolean
Get appliances information
:return: None or Appliances
"""
return self._is_heated
return self._appliances
@is_heated.setter
def is_heated(self, value):
@appliances.setter
def appliances(self, value):
"""
Set thermal zone heated flag
:param value: Boolean
Set appliances information
:param value: Appliances
"""
if value is not None:
self._is_heated = ast.literal_eval(value)
self._appliances = value
@property
def is_cooled(self) -> Union[None, bool]:
def get_internal_gains(self) -> [InternalGains]:
"""
Get thermal zone cooled flag
:return: None or Boolean
Calculates and returns the list of all internal gains defined
:return: InternalGains
"""
return self._is_cooled
@is_cooled.setter
def is_cooled(self, value):
"""
Set thermal zone cooled flag
:param value: Boolean
"""
if value is not None:
self._is_cooled = ast.literal_eval(value)
if self.occupancy is not None:
if self.occupancy.latent_internal_gain is not None:
_internal_gain = InternalGains()
_internal_gain.type = cte.OCCUPANCY
_total_heat_gain = (self.occupancy.sensible_convective_internal_gain
+ self.occupancy.sensible_radiant_internal_gain
+ self.occupancy.latent_internal_gain)
_internal_gain.average_internal_gain = _total_heat_gain
_internal_gain.latent_fraction = self.occupancy.latent_internal_gain / _total_heat_gain
_internal_gain.radiative_fraction = self.occupancy.sensible_radiant_internal_gain / _total_heat_gain
_internal_gain.convective_fraction = self.occupancy.sensible_convective_internal_gain / _total_heat_gain
_internal_gain.schedule = self.occupancy.occupancy_schedule
self._internal_gains = [_internal_gain]
if self.lighting is not None:
_internal_gain = InternalGains()
_internal_gain.type = cte.LIGHTING
_internal_gain.average_internal_gain = self.lighting.lighting_density
_internal_gain.latent_fraction = self.lighting.latent_fraction
_internal_gain.radiative_fraction = self.lighting.radiant_fraction
_internal_gain.convective_fraction = self.lighting.convective_fraction
_internal_gain.schedule = self.lighting.schedule
if self._internal_gains is not None:
self._internal_gains.append(_internal_gain)
else:
self._internal_gains = [_internal_gain]
if self.appliances is not None:
_internal_gain = InternalGains()
_internal_gain.type = cte.APPLIANCES
_internal_gain.average_internal_gain = self.appliances.lighting_density
_internal_gain.latent_fraction = self.appliances.latent_fraction
_internal_gain.radiative_fraction = self.appliances.radiant_fraction
_internal_gain.convective_fraction = self.appliances.convective_fraction
_internal_gain.schedule = self.appliances.schedule
if self._internal_gains is not None:
self._internal_gains.append(_internal_gain)
else:
self._internal_gains = [_internal_gain]
return self._internal_gains

10
city_model_structure/city_object.py
View File

@ -36,13 +36,21 @@ class CityObject:
self._beam = dict()
self._sensors = []
@property
def name(self):
"""
Get building name
:return: str
"""
return self._name
@property
def lod(self) -> int:
"""
Get city object level of detail 1, 2, 3 or 4
:return: int
"""
lod = math.log(self._lod, 2) + 1
lod = int(math.log(self._lod, 2) + 1)
return lod
@property

32
city_model_structure/energy_systems/hvac_system.py Normal file
View File

@ -0,0 +1,32 @@
"""
HvacSystem module
SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2022 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
"""
from typing import Union
class HvacSystem:
"""
HvacSystem class
"""
def __init__(self):
self._type = None
@property
def type(self) -> Union[None, str]:
"""
Get hvac system type a thermal zone
:return: None or str
"""
return self._type
@type.setter
def type(self, value):
"""
Set heating set point defined for a thermal zone
:param value: str
"""
if value is not None:
self._type = str(value)

45
city_model_structure/iot/concordia_energy_sensor.py Normal file
View File

@ -0,0 +1,45 @@
"""
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:
"""
Get sensor measures [yyyy-mm-dd, hh:mm:ss kW]
:return: DataFrame["Date time", "Energy consumption"]
"""
return self._measures
@measures.deleter
def measures(self):
"""
Delete sensor measures
"""
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')

45
city_model_structure/iot/concordia_gas_flow_sensor.py Normal file
View File

@ -0,0 +1,45 @@
"""
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:
"""
Get 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):
"""
Delete sensor measures
"""
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')

45
city_model_structure/iot/concordia_temperature_sensor.py Normal file
View File

@ -0,0 +1,45 @@
"""
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:
"""
Get sensor measures [yyyy-mm-dd, hh:mm:ss Celsius]
:return: DataFrame["Date time", "Temperature"]
"""
return self._measures
@measures.deleter
def measures(self):
"""
Delete sensor measures
"""
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')

81
city_model_structure/iot/sensor.py
View File

@ -1,73 +1,76 @@
"""
Sensor module
SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2022 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
"""
import uuid
from city_model_structure.iot.sensor_measure import SensorMeasure
from city_model_structure.iot.sensor_type import SensorType
from helpers.location import Location
class Sensor:
"""
Sensor abstract class
"""
def __init__(self, sensor_id=None, model=None, sensor_type=None, indoor=False, board=None):
self._id = sensor_id
self._model = model
self._type = sensor_type
self._indoor = indoor
self._board = board
self._measures = []
def __init__(self):
self._name = None
self._type = None
self._units = None
self._location = None
@property
def id(self):
def name(self):
"""
Get the sensor id a random uuid will be assigned if no ID was provided to the constructor
:return: Id
Get sensor name
:return: str
"""
if self._id is None:
self._id = uuid.uuid4()
return self._id
if self._name is None:
raise ValueError('Undefined sensor name')
return self._name
@name.setter
def name(self, value):
"""
Set sensor name
:param value: str
"""
if value is not None:
self._name = str(value)
@property
def type(self) -> SensorType:
def type(self):
"""
Get sensor type
:return: SensorTypeEnum or Error
:return: str
"""
if self._type is None:
raise ValueError('Unknown sensor type')
return self._type
@property
def model(self):
def units(self):
"""
Get sensor model is any
:return: str or None
Get sensor units
:return: str
"""
return self._model
return self._units
@property
def board(self):
def location(self) -> Location:
"""
Get sensor board if any
:return: str or None
Get sensor location
:return: Location
"""
return self._model
return self._location
@location.setter
def location(self, value):
"""
Set sensor location
:param value: Location
"""
self._location = value
@property
def indoor(self):
"""
Get is the sensor it's located indoor or outdoor
:return: boolean
"""
return self._indoor
@property
def measures(self) -> [SensorMeasure]:
def measures(self):
"""
Raises not implemented error
"""
return self._measures
raise NotImplementedError

40
city_model_structure/iot/sensor_measure.py
View File

@ -1,40 +0,0 @@
"""
Sensor measure module
SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2022 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
"""
class SensorMeasure:
def __init__(self, latitude, longitude, utc_timestamp, value):
self._latitude = latitude
self._longitude = longitude
self._utc_timestamp = utc_timestamp
self._value = value
@property
def latitude(self):
"""
Get measure latitude
"""
return self._latitude
@property
def longitude(self):
"""
Get measure longitude
"""
return self._longitude
@property
def utc_timestamp(self):
"""
Get measure timestamp in utc
"""
return self._utc_timestamp
@property
def value(self):
"""
Get sensor measure value
"""
return self._value

20
city_model_structure/iot/sensor_type.py
View File

@ -1,20 +0,0 @@
"""
Sensor type module
SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2022 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
"""
from enum import Enum
class SensorType(Enum):
HUMIDITY = 0
TEMPERATURE = 1
CO2 = 2
NOISE = 3
PRESSURE = 4
DIRECT_RADIATION = 5
DIFFUSE_RADIATION = 6
GLOBAL_RADIATION = 7
AIR_QUALITY = 8
GAS_FLOW = 9
ENERGY = 10

41
city_model_structure/iot/station.py
View File

@ -1,41 +0,0 @@
"""
Station
SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2022 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
"""
import uuid
from city_model_structure.iot.sensor import Sensor
class Station:
def __init__(self, station_id=None, _mobile=False):
self._id = station_id
self._mobile = _mobile
self._sensors = []
@property
def id(self):
"""
Get the station id a random uuid will be assigned if no ID was provided to the constructor
:return: Id
"""
if self._id is None:
self._id = uuid.uuid4()
return self._id
@property
def _mobile(self):
"""
Get if the station is mobile or not
:return: bool
"""
return self._mobile
@property
def sensors(self) -> [Sensor]:
"""
Get the sensors belonging to the station
:return: [Sensor]
"""
return self._sensors

242
city_model_structure/lca_material.py
View File

@ -1,242 +0,0 @@
"""
Material module
SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2020 Project Author Atiya atiya.atiya@mail.concordia.ca
Contributor Mohammad Reza mohammad.seyedabadi@mail.concordia.ca
"""
from typing import Union
class LcaMaterial:
def __init__(self):
self._id = None
self._type = None
self._name = None
self._density = None
self._density_unit = None
self._embodied_carbon = None
self._embodied_carbon_unit = None
self._recycling_ratio = None
self._company_recycling_ratio = None
self._onsite_recycling_ratio = None
self._landfilling_ratio = None
self._cost = None
self._cost_unit = None
@property
def id(self):
"""
Get material id
:return: int
"""
return self._id
@id.setter
def id(self, value):
"""
Set material id
:param value: int
"""
self._id = int(value)
@property
def type(self):
"""
Get material type
:return: str
"""
return self._type
@type.setter
def type(self, value):
"""
Set material type
:param value: string
"""
self._type = str(value)
@property
def name(self):
"""
Get material name
:return: str
"""
return self._name
@name.setter
def name(self, value):
"""
Set material name
:param value: string
"""
self._name = str(value)
@property
def density(self) -> Union[None, float]:
"""
Get material density in kg/m3
:return: None or float
"""
return self._density
@density.setter
def density(self, value):
"""
Set material density
:param value: float
"""
if value is not None:
self._density = float(value)
@property
def density_unit(self) -> Union[None, str]:
"""
Get material density unit
:return: None or string
"""
return self._density_unit
@density_unit.setter
def density_unit(self, value):
"""
Set material density unit
:param value: string
"""
if value is not None:
self._density_unit = str(value)
@property
def embodied_carbon(self) -> Union[None, float]:
"""
Get material embodied carbon
:return: None or float
"""
return self._embodied_carbon
@embodied_carbon.setter
def embodied_carbon(self, value):
"""
Set material embodied carbon
:param value: float
"""
if value is not None:
self._embodied_carbon = float(value)
@property
def embodied_carbon_unit(self) -> Union[None, str]:
"""
Get material embodied carbon unit
:return: None or string
"""
return self._embodied_carbon
@embodied_carbon_unit.setter
def embodied_carbon_unit(self, value):
"""
Set material embodied carbon unit
:param value: string
"""
if value is not None:
self._embodied_carbon_unit = str(value)
@property
def recycling_ratio(self) -> Union[None, float]:
"""
Get material recycling ratio
:return: None or float
"""
return self._recycling_ratio
@recycling_ratio.setter
def recycling_ratio(self, value):
"""
Set material recycling ratio
:param value: float
"""
if value is not None:
self._recycling_ratio = float(value)
@property
def onsite_recycling_ratio(self) -> Union[None, float]:
"""
Get material onsite recycling ratio
:return: None or float
"""
return self._onsite_recycling_ratio
@onsite_recycling_ratio.setter
def onsite_recycling_ratio(self, value):
"""
Set material onsite recycling ratio
:param value: float
"""
if value is not None:
self._onsite_recycling_ratio = float(value)
@property
def company_recycling_ratio(self) -> Union[None, float]:
"""
Get material company recycling ratio
:return: None or float
"""
return self._company_recycling_ratio
@company_recycling_ratio.setter
def company_recycling_ratio(self, value):
"""
Set material company recycling ratio
:param value: float
"""
if value is not None:
self._company_recycling_ratio = float(value)
@property
def landfilling_ratio(self) -> Union[None, float]:
"""
Get material landfilling ratio
:return: None or float
"""
return self._landfilling_ratio
@landfilling_ratio.setter
def landfilling_ratio(self, value):
"""
Set material landfilling ratio
:param value: float
"""
if value is not None:
self._landfilling_ratio = float(value)
@property
def cost(self) -> Union[None, float]:
"""
Get material cost
:return: None or float
"""
return self._cost
@cost.setter
def cost(self, value):
"""
Set material cost
:param value: float
"""
if value is not None:
self._cost = float(value)
@property
def cost_unit(self) -> Union[None, str]:
"""
Get material cost unit
:return: None or string
"""
return self._cost_unit
@cost_unit.setter
def cost_unit(self, value):
"""
Set material cost unit
:param value: string
"""
if value is not None:
self._cost_unit = float(value)

2
config/configuration.ini
View File

@ -11,3 +11,5 @@ comnet_occupancy_sensible_radiant = 0.1
comnet_plugs_latent = 0
comnet_plugs_convective = 0.75
comnet_plugs_radiant = 0.25
convective_heat_transfer_coefficient_interior = 3.5
convective_heat_transfer_coefficient_exterior = 20

32
data/construction/ca_constructions_reduced.xml
View File

@ -105,84 +105,52 @@
#wall below grade
<construction type="basement_wall" id="17" name="wall below grade_post 2010">
<overall_u_value units="W/m2 K">0.512</overall_u_value>
<outside_solar_absorptance units="-">0</outside_solar_absorptance>
<shortwave_reflectance units="-">0</shortwave_reflectance>
</construction>
<construction type="basement_wall" id="18" name="wall below grade_2001-2010">
<overall_u_value units="W/m2 K">0.512</overall_u_value>
<outside_solar_absorptance units="-">0</outside_solar_absorptance>
<shortwave_reflectance units="-">0</shortwave_reflectance>
</construction>
<construction type="basement_wall" id="19" name="wall below grade_1996-2000">
<overall_u_value units="W/m2 K">0.67</overall_u_value>
<outside_solar_absorptance units="-">0</outside_solar_absorptance>
<shortwave_reflectance units="-">0</shortwave_reflectance>
</construction>
<construction type="basement_wall" id="20" name="wall below grade_1984-1995">
<overall_u_value units="W/m2 K">0.848</overall_u_value>
<outside_solar_absorptance units="-">0</outside_solar_absorptance>
<shortwave_reflectance units="-">0</shortwave_reflectance>
</construction>
<construction type="basement_wall" id="21" name="wall below grade_1978-1983">
<overall_u_value units="W/m2 K">1.048</overall_u_value>
<outside_solar_absorptance units="-">0</outside_solar_absorptance>
<shortwave_reflectance units="-">0</shortwave_reflectance>
</construction>
<construction type="basement_wall" id="22" name="wall below grade_1961-1977">
<overall_u_value units="W/m2 K">1.154</overall_u_value>
<outside_solar_absorptance units="-">0</outside_solar_absorptance>
<shortwave_reflectance units="-">0</shortwave_reflectance>
</construction>
<construction type="basement_wall" id="23" name="wall below grade_1946-1960">
<overall_u_value units="W/m2 K">1.243</overall_u_value>
<outside_solar_absorptance units="-">0</outside_solar_absorptance>
<shortwave_reflectance units="-">0</shortwave_reflectance>
</construction>
<construction type="basement_wall" id="24" name="wall below grade_before 1946">
<overall_u_value units="W/m2 K">1.425</overall_u_value>
<outside_solar_absorptance units="-">0</outside_solar_absorptance>
<shortwave_reflectance units="-">0</shortwave_reflectance>
</construction>
#slab on grade
<construction type="floor" id="25" name="slab on grade_post 2010">
<overall_u_value units="W/m2 K">0.512</overall_u_value>
<outside_solar_absorptance units="-">0</outside_solar_absorptance>
<shortwave_reflectance units="-">0</shortwave_reflectance>
</construction>
<construction type="floor" id="26" name="slab on grade_2001-2010">
<overall_u_value units="W/m2 K">0.67</overall_u_value>
<outside_solar_absorptance units="-">0</outside_solar_absorptance>
<shortwave_reflectance units="-">0</shortwave_reflectance>
</construction>
<construction type="floor" id="27" name="slab on grade_1996-2000">
<overall_u_value units="W/m2 K">0.67</overall_u_value>
<outside_solar_absorptance units="-">0</outside_solar_absorptance>
<shortwave_reflectance units="-">0</shortwave_reflectance>
</construction>
<construction type="floor" id="28" name="slab on grade_1984-1995">
<overall_u_value units="W/m2 K">0.848</overall_u_value>
<outside_solar_absorptance units="-">0</outside_solar_absorptance>
<shortwave_reflectance units="-">0</shortwave_reflectance>
</construction>
<construction type="floor" id="29" name="slab on grade_1978-1983">
<overall_u_value units="W/m2 K">0.848</overall_u_value>
<outside_solar_absorptance units="-">0</outside_solar_absorptance>
<shortwave_reflectance units="-">0</shortwave_reflectance>
</construction>
<construction type="floor" id="30" name="slab on grade_1961-1977">
<overall_u_value units="W/m2 K">1.05</overall_u_value>
<outside_solar_absorptance units="-">0</outside_solar_absorptance>
<shortwave_reflectance units="-">0</shortwave_reflectance>
</construction>
<construction type="floor" id="31" name="slab on grade_1946-1960">
<overall_u_value units="W/m2 K">1.154</overall_u_value>
<outside_solar_absorptance units="-">0</outside_solar_absorptance>
<shortwave_reflectance units="-">0</shortwave_reflectance>
</construction>
<construction type="floor" id="32" name="slab on grade_before 1946">
<overall_u_value units="W/m2 K">1.154</overall_u_value>
<outside_solar_absorptance units="-">0</outside_solar_absorptance>
<shortwave_reflectance units="-">0</shortwave_reflectance>
</construction>
</constructions>
</library>

38
data/construction/us_constructions.xml
View File

@ -39,7 +39,7 @@
</window>
</windows>
<materials>
<material id="1" name="MAT-CC05 8 HW CONCRETE" lca_id="7">
<material id="1" name="MAT-CC05 8 HW CONCRETE">
<conductivity units="W/m K">1.311</conductivity>
<density units="kg/m3">2240</density>
<specific_heat units="J/kg K">836.8</specific_heat>
@ -47,14 +47,14 @@
<solar_absorptance units="-">0.7</solar_absorptance>
<visible_absorptance units="-">0.7</visible_absorptance>
</material>
<material id="2" name="CP02 CARPET PAD" lca_id="7">
<material id="2" name="CP02 CARPET PAD">
<no_mass>true</no_mass>
<thermal_resistance units="m2 K/W">0.21648</thermal_resistance>
<thermal_absorptance units="-">0.9</thermal_absorptance>
<solar_absorptance units="-">0.7</solar_absorptance>
<visible_absorptance units="-">0.8</visible_absorptance>
</material>
<material id="3" name="Floor Insulation [4]" lca_id="7">
<material id="3" name="Floor Insulation [4]">
<conductivity units="W/m K">0.045</conductivity>
<density units="kg/m3">265</density>
<specific_heat units="J/kg K">836.8</specific_heat>
@ -62,7 +62,7 @@
<solar_absorptance units="-">0.7</solar_absorptance>
<visible_absorptance units="-">0.7</visible_absorptance>
</material>
<material id="4" name="1IN Stucco" lca_id="7">
<material id="4" name="1IN Stucco">
<conductivity units="W/m K">0.6918</conductivity>
<density units="kg/m3">1858</density>
<specific_heat units="J/kg K">837</specific_heat>
@ -70,7 +70,7 @@
<solar_absorptance units="-">0.92</solar_absorptance>
<visible_absorptance units="-">0.92</visible_absorptance>
</material>
<material id="5" name="8IN Concrete HW" lca_id="7">
<material id="5" name="8IN Concrete HW">
<conductivity units="W/m K">1.7296</conductivity>
<density units="kg/m3">2243</density>
<specific_heat units="J/kg K">837</specific_heat>
@ -78,7 +78,7 @@
<solar_absorptance units="-">0.65</solar_absorptance>
<visible_absorptance units="-">0.65</visible_absorptance>
</material>
<material id="6" name="Wall Insulation [37]" lca_id="7">
<material id="6" name="Wall Insulation [37]">
<conductivity units="W/m K">0.0432</conductivity>
<density units="kg/m3">91</density>
<specific_heat units="J/kg K">837</specific_heat>
@ -86,7 +86,7 @@
<solar_absorptance units="-">0.5</solar_absorptance>
<visible_absorptance units="-">0.5</visible_absorptance>
</material>
<material id="7" name="1/2IN Gypsum" lca_id="7">
<material id="7" name="1/2IN Gypsum">
<conductivity units="W/m K">0.16</conductivity>
<density units="kg/m3">784.9</density>
<specific_heat units="J/kg K">830</specific_heat>
@ -94,7 +94,7 @@
<solar_absorptance units="-">0.92</solar_absorptance>
<visible_absorptance units="-">0.92</visible_absorptance>
</material>
<material id="8" name="Wood Siding" lca_id="7">
<material id="8" name="Wood Siding">
<conductivity units="W/m K">0.11</conductivity>
<density units="kg/m3">544.62</density>
<specific_heat units="J/kg K">1210</specific_heat>
@ -102,7 +102,7 @@
<solar_absorptance units="-">0.78</solar_absorptance>
<visible_absorptance units="-">0.78</visible_absorptance>
</material>
<material id="9" name="Wood Shingles" lca_id="7">
<material id="9" name="Wood Shingles">
<conductivity units="W/m K">0.115</conductivity>
<density units="kg/m3">513</density>
<specific_heat units="J/kg K">1255</specific_heat>
@ -110,7 +110,7 @@
<solar_absorptance units="-">0.78</solar_absorptance>
<visible_absorptance units="-">0.78</visible_absorptance>
</material>
<material id="10" name="1IN Wood Decking" lca_id="7">
<material id="10" name="1IN Wood Decking">
<conductivity units="W/m K">0.1211</conductivity>
<density units="kg/m3">593</density>
<specific_heat units="J/kg K">2510</specific_heat>
@ -118,7 +118,7 @@
<solar_absorptance units="-">0.78</solar_absorptance>
<visible_absorptance units="-">0.78</visible_absorptance>
</material>
<material id="11" name="Roof Insulation [23]" lca_id="7">
<material id="11" name="Roof Insulation [23]">
<conductivity units="W/m K">0.049</conductivity>
<density units="kg/m3">265</density>
<specific_heat units="J/kg K">836.8</specific_heat>
@ -126,14 +126,14 @@
<solar_absorptance units="-">0.7</solar_absorptance>
<visible_absorptance units="-">0.7</visible_absorptance>
</material>
<material id="12" name="MAT-SHEATH" lca_id="7">
<material id="12" name="MAT-SHEATH">
<no_mass>true</no_mass>
<thermal_resistance units="m2 K/W">0.36256</thermal_resistance>
<thermal_absorptance units="-">0.9</thermal_absorptance>
<solar_absorptance units="-">0.7</solar_absorptance>
<visible_absorptance units="-">0.7</visible_absorptance>
</material>
<material id="14" name="Metal Decking" lca_id="7">
<material id="14" name="Metal Decking">
<conductivity units="W/m K">45.006</conductivity>
<density units="kg/m3">7680</density>
<specific_heat units="J/kg K">418.4</specific_heat>
@ -141,7 +141,7 @@
<solar_absorptance units="-">0.7</solar_absorptance>
<visible_absorptance units="-">0.3</visible_absorptance>
</material>
<material id="15" name="Roof Membrane" lca_id="7">
<material id="15" name="Roof Membrane">
<conductivity units="W/m K">0.16</conductivity>
<density units="kg/m3">1121.29</density>
<specific_heat units="J/kg K">1460</specific_heat>
@ -149,28 +149,28 @@
<solar_absorptance units="-">0.7</solar_absorptance>
<visible_absorptance units="-">0.7</visible_absorptance>
</material>
<material id="16" name="CP02 CARPET PAD" lca_id="7">
<material id="16" name="CP02 CARPET PAD">
<no_mass>true</no_mass>
<thermal_resistance units="m2 K/W">0.21648</thermal_resistance>
<thermal_absorptance units="-">0.9</thermal_absorptance>
<solar_absorptance units="-">0.7</solar_absorptance>
<visible_absorptance units="-">0.8</visible_absorptance>
</material>
<material id="18" name="CP02 CARPET PAD" lca_id="7">
<material id="18" name="CP02 CARPET PAD">
<no_mass>true</no_mass>
<thermal_resistance units="m2 K/W">0.21648</thermal_resistance>
<thermal_absorptance units="-">0.9</thermal_absorptance>
<solar_absorptance units="-">0.7</solar_absorptance>
<visible_absorptance units="-">0.8</visible_absorptance>
</material>
<material id="20" name="CP02 CARPET PAD" lca_id="7">
<material id="20" name="CP02 CARPET PAD">
<no_mass>true</no_mass>
<thermal_resistance units="m2 K/W">0.21648</thermal_resistance>
<thermal_absorptance units="-">0.9</thermal_absorptance>
<solar_absorptance units="-">0.7</solar_absorptance>
<visible_absorptance units="-">0.8</visible_absorptance>
</material>
<material id="21" name="Wall Insulation [38]" lca_id="7">
<material id="21" name="Wall Insulation [38]">
<conductivity units="W/m K">0.045</conductivity>
<density units="kg/m3">265</density>
<specific_heat units="J/kg K">836.8</specific_heat>
@ -178,7 +178,7 @@
<solar_absorptance units="-">0.7</solar_absorptance>
<visible_absorptance units="-">0.7</visible_absorptance>
</material>
<material id="22" name="metal siding" lca_id="7">
<material id="22" name="metal siding">
<conductivity units="W/m K">44.96</conductivity>
<density units="kg/m3">7688.86</density>
<specific_heat units="J/kg K">410</specific_heat>

59
data/greenery/ecore_greenery_catalog.xml
View File

@ -1,59 +0,0 @@
<?xml version="1.0" encoding="UTF-8"?>
<greenery:GreeneryCatalog xmi:version="2.0" xmlns:xmi="http://www.omg.org/XMI" xmlns:greenery="http://ca.concordia/greenerycatalog">
<plantCategories name="Flowers">
<plants name="Camellia Sasanqua" height="0.4 m" leafAreaIndex="2.18" leafReflectivity="0.2" leafEmissivity="0.9" minimalStomatalResistance="288 s/m" growsOn="//@soils.0 //@soils.2 //@soils.4 //@soils.3 //@soils.1"/>
<plants name="Rhododendron" height="0.5 m" leafAreaIndex="1.85" minimalStomatalResistance="161 s/m" growsOn="//@soils.0 //@soils.3"/>
<plants name="Ligustrum Japonicum 'Howardii' " height="0.48 m" leafAreaIndex="4.93" minimalStomatalResistance="172 s/m" growsOn="//@soils.0 //@soils.3"/>
<plants name="Viburnum Dilatatum (Thunb)" height="0.7 m" leafAreaIndex="5" minimalStomatalResistance="212 s/m" growsOn="//@soils.0 //@soils.3 //@soils.2 //@soils.4 //@soils.1"/>
<plants name="Lorpetalum Chinense var. Rubrum" height="0.7 m" leafAreaIndex="2" leafReflectivity="0.1" minimalStomatalResistance="228 s/m" growsOn="//@soils.0 //@soils.2 //@soils.3 //@soils.1"/>
<plants name="Buxus sinica" height="0.45 m" leafAreaIndex="4.03" minimalStomatalResistance="165 s/m" growsOn="//@soils.2 //@soils.0 //@soils.3 //@soils.5 //@soils.1"/>
<plants name="Sedum acre" height="0.1 m" leafAreaIndex="3.5" leafReflectivity="0.36" leafEmissivity="0.9" growsOn="//@soils.2 //@soils.0 //@soils.1 //@soils.3"/>
<plants name="Frankenia thymifolia" height="0.15 m" leafAreaIndex="3.6" leafReflectivity="0.32" leafEmissivity="0.83" growsOn="//@soils.2 //@soils.1 //@soils.0 //@soils.3"/>
<plants name="Vinca major" leafAreaIndex="2.7" leafReflectivity="0.25" leafEmissivity="0.78" growsOn="//@soils.2 //@soils.0 //@soils.3 //@soils.1"/>
<plants name="Ivy (hedera helix)" height="0.1 m" leafAreaIndex="5" growsOn="//@soils.4 //@soils.1 //@soils.2 //@soils.0 //@soils.3"/>
</plantCategories>
<plantCategories name="Grass">
<plants name="Lawn" height="0.06 m" leafAreaIndex="1.4" leafReflectivity="0.1" minimalStomatalResistance="50 s/m" growsOn="//@soils.2"/>
</plantCategories>
<plantCategories name="Farming">
<plants name="Strawberry" growsOn="//@soils.2"/>
<plants name="Tomato" leafEmissivity="0.8" growsOn="//@soils.2 //@soils.3"/>
<plants name="Lettuce" growsOn="//@soils.2"/>
</plantCategories>
<vegetationCategories name="Urban Greening">
<vegetationTemplates name="Grass" soil="//@soils.1" management="Extensive">
<plants plant="//@plantCategories.1/@plants.0"/>
</vegetationTemplates>
</vegetationCategories>
<vegetationCategories name="Green Facade">
<vegetationTemplates name="Green Facade" soil="//@soils.2">
<plants percentage="100" plant="//@plantCategories.0/@plants.9"/>
</vegetationTemplates>
</vegetationCategories>
<vegetationCategories name="GreenRoof">
<vegetationTemplates name="Green Roof" thicknessOfSoil="20 cm" soil="//@soils.2">
<plants percentage="10" plant="//@plantCategories.0/@plants.5"/>
<plants percentage="10" plant="//@plantCategories.0/@plants.0"/>
<plants percentage="10" plant="//@plantCategories.0/@plants.8"/>
<plants percentage="10" plant="//@plantCategories.0/@plants.2"/>
<plants percentage="10" plant="//@plantCategories.0/@plants.4"/>
<plants percentage="10" plant="//@plantCategories.0/@plants.6"/>
<plants percentage="10" plant="//@plantCategories.0/@plants.1"/>
<plants percentage="10" plant="//@plantCategories.0/@plants.3"/>
<plants percentage="20" plant="//@plantCategories.0/@plants.7"/>
</vegetationTemplates>
</vegetationCategories>
<vegetationCategories name="Rooftop Farming">
<vegetationTemplates name="Rooftop Farming" thicknessOfSoil="30 cm" soil="//@soils.2">
<plants percentage="19" plant="//@plantCategories.2/@plants.0"/>
<plants percentage="60" plant="//@plantCategories.2/@plants.1"/>
<plants percentage="21" plant="//@plantCategories.2/@plants.2"/>
</vegetationTemplates>
</vegetationCategories>
<soils name="Sand" conductivityOfDrySoil="1.26 W/(m·K)" saturationVolumetricMoistureContent="0.43" residualVolumetricMoistureContent="0.045"/>
<soils name="Loamy sand" conductivityOfDrySoil="0.35 W/(m·K)" saturationVolumetricMoistureContent="0.41" residualVolumetricMoistureContent="0.057"/>
<soils name="Loam" conductivityOfDrySoil="0.67 W/(m·K)" specificHeatOfDrySoil="900 J/(kg·K)" thermalAbsorptance="0.9" saturationVolumetricMoistureContent="0.43" residualVolumetricMoistureContent="0.078"/>
<soils name="Sandy Loam" conductivityOfDrySoil="1.06 W/(m·K)" saturationVolumetricMoistureContent="0.41" residualVolumetricMoistureContent="0.065"/>
<soils name="Clay loam" conductivityOfDrySoil="0.7 W/(m·K)" saturationVolumetricMoistureContent="0.41" residualVolumetricMoistureContent="0.095"/>
<soils name="Silt" conductivityOfDrySoil="0.35 W/(m·K)" saturationVolumetricMoistureContent="0.46" residualVolumetricMoistureContent="0.034"/>
</greenery:GreeneryCatalog>

778
data/life_cycle_assessment/lca_data.xml
View File

@ -1,394 +1,5 @@
<?xml version="1.0" encoding="utf-8"?>
<library name="LCA">
<building_materials>
<material type = "brick" id="1" name= "clay brick">
<density unit= "ton/m3"> 1.8 </density>
<embodied_carbon unit= "kgCO2/ton"> 560 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0.3 </onsite_recycling_ratio>
<company_recycling_ratio> 0.7 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "brick" id="2" name= "light clay brick">
<density unit= "ton/m3"> 1.2 </density>
<embodied_carbon unit= "kgCO2/ton"> 310 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0.3 </onsite_recycling_ratio>
<company_recycling_ratio> 0.7 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "brick" id="3" name= "refractory">
<density unit= "ton/m3"> 2 </density>
<embodied_carbon unit= "kgCO2/ton"> 3080 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0.3 </onsite_recycling_ratio>
<company_recycling_ratio> 0.7 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "brick" id="4" name= "sand-lime brick">
<density unit= "ton/m3"> 1.4 </density>
<embodied_carbon unit= "kgCO2/ton"> 300 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0.3 </onsite_recycling_ratio>
<company_recycling_ratio> 0.7 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="5" name= "light weight expanded clay">
<density unit= "ton/m3"> 1.6 </density>
<embodied_carbon unit= "kgCO2/ton"> 900 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="6" name= "lightweight Expanded perlite">
<density unit= "ton/m3"> 1.6 </density>
<embodied_carbon unit= "kgCO2/ton"> 2340 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="7" name= "lightweight expanded vermiculite">
<density unit= "ton/m3"> 1.6 </density>
<embodied_carbon unit= "kgCO2/ton"> 1570 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="8" name= "lightweight polystyrene">
<density unit= "ton/m3"> 1.4 </density>
<embodied_carbon unit= "kgCO2/ton"> 1840 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="9" name= "lightweight pumice">
<density unit= "ton/m3"> 1.3 </density>
<embodied_carbon unit= "kgCO2/ton"> 410 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="10" name= "concrete 20 MPa">
<density unit= "ton/m3"> 2.3 </density>
<embodied_carbon unit= "kgCO2/ton"> 160 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="11" name= "concrete 25 MPa">
<density unit= "ton/m3"> 2.3 </density>
<embodied_carbon unit= "kgCO2/ton"> 170 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="12" name= "concrete 30-32 MPa">
<density unit= "ton/m3"> 2.3 </density>
<embodied_carbon unit= "kgCO2/ton"> 230 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="13" name= "concrete 35 MPae">
<density unit= "ton/m3"> 2.4 </density>
<embodied_carbon unit= "kgCO2/ton"> 240 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="14" name= "concrete 50 MPa">
<density unit= "ton/m3"> 2.4 </density>
<embodied_carbon unit= "kgCO2/ton"> 280 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="15" name= "concrete block">
<density unit= "ton/m3"> 2.3 </density>
<embodied_carbon unit= "kgCO2/ton"> 170 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="16" name= "concrete roof tile">
<density unit= "ton/m3"> 1.2 </density>
<embodied_carbon unit= "kgCO2/ton"> 440 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "glass" id="17" name= "flat glass, coated">
<density unit= "ton/m3"> 2.58 </density>
<embodied_carbon unit= "kgCO2/ton"> 2660 </embodied_carbon>
<recycling_ratio> 0.95 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.05 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "glass" id="18" name= "glass fibre">
<density unit= "ton/m3"> 2.58 </density>
<embodied_carbon unit= "kgCO2/ton"> 5260 </embodied_carbon>
<recycling_ratio> 0.95 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.05 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "insulation" id="19" name= "cellulose fibre">
<density unit= "ton/m3"> 0.06 </density>
<embodied_carbon unit= "kgCO2/ton"> 1760 </embodied_carbon>
<recycling_ratio> 0.9 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "insulation" id="20" name= "cork slab">
<density unit= "ton/m3"> 0.122 </density>
<embodied_carbon unit= "kgCO2/ton"> 3080 </embodied_carbon>
<recycling_ratio> 0.9 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "insulation" id="21" name= "polystyren foam">
<density unit= "ton/m3"> 0.028 </density>
<embodied_carbon unit= "kgCO2/ton"> 3180 </embodied_carbon>
<recycling_ratio> 0.9 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "insulation" id="22" name= "polystyrene 10% recycled">
<density unit= "ton/m3"> 0.024 </density>
<embodied_carbon unit= "kgCO2/ton"> 5140 </embodied_carbon>
<recycling_ratio> 0.9 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "insulation" id="23" name= "stone wool">
<density unit= "ton/m3"> 0.1 </density>
<embodied_carbon unit= "kgCO2/ton"> 6040 </embodied_carbon>
<recycling_ratio> 0.9 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "insulation" id="24" name= "foam glass">
<density unit= "ton/m3"> 0.3 </density>
<embodied_carbon unit= "kgCO2/ton"> 5380 </embodied_carbon>
<recycling_ratio> 0.9 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "insulation" id="25" name= "glass wool mat">
<density unit= "ton/m3"> 0.032 </density>
<embodied_carbon unit= "kgCO2/ton"> 2150 </embodied_carbon>
<recycling_ratio> 0.9 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "wood" id="26" name= "fiberboard, hard">
<density unit= "ton/m3"> 0.9 </density>
<embodied_carbon unit= "kgCO2/ton"> 3420 </embodied_carbon>
<recycling_ratio> 0.6 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.4 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "wood" id="27" name= "three layerd laminated board">
<density unit= "ton/m3"> 0.7 </density>
<embodied_carbon unit= "kgCO2/ton"> 1430 </embodied_carbon>
<recycling_ratio> 0.6 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.4 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "wood" id="28" name= "fibreboard, soft">
<density unit= "ton/m3"> 0.65 </density>
<embodied_carbon unit= "kgCO2/ton"> 2780 </embodied_carbon>
<recycling_ratio> 0.6 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.4 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "wood" id="29" name= "plywood">
<density unit= "ton/m3"> 0.72 </density>
<embodied_carbon unit= "kgCO2/ton"> 2190 </embodied_carbon>
<recycling_ratio> 0.6 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.4 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="30" name= "acrylic filler">
<density unit= "ton/m3"> 1.43 </density>
<embodied_carbon unit= "kgCO2/ton"> 1070 </embodied_carbon>
<recycling_ratio> 0 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 0 </company_recycling_ratio>
<landfilling_ratio> 1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="31" name= "anhydrite floor">
<density unit= "ton/m3"> 1.43 </density>
<embodied_carbon unit= "kgCO2/ton"> 240 </embodied_carbon>
<recycling_ratio> 0 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 0 </company_recycling_ratio>
<landfilling_ratio> 1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="32" name= "base plaster">
<density unit= "ton/m3"> 1.43 </density>
<embodied_carbon unit= "kgCO2/ton"> 430 </embodied_carbon>
<recycling_ratio> 0 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 0 </company_recycling_ratio>
<landfilling_ratio> 1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="33" name= "cement cast plaster floor">
<density unit= "ton/m3"> 1.43 </density>
<embodied_carbon unit= "kgCO2/ton"> 340 </embodied_carbon>
<recycling_ratio> 0 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 0 </company_recycling_ratio>
<landfilling_ratio> 1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="34" name= "cement tile">
<density unit= "ton/m3"> 1.2 </density>
<embodied_carbon unit= "kgCO2/ton"> 440 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="35" name= "ceramic tile">
<density unit= "ton/m3"> 2.1 </density>
<embodied_carbon unit= "kgCO2/ton"> 1410 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="36" name= "clay plaster">
<density unit= "ton/m3"> 1.43 </density>
<embodied_carbon unit= "kgCO2/ton"> 250 </embodied_carbon>
<recycling_ratio> 0 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 0 </company_recycling_ratio>
<landfilling_ratio> 1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="37" name= "fiber cement corrugated slab">
<density unit= "ton/m3"> 1.44 </density>
<embodied_carbon unit= "kgCO2/ton"> 1480 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="38" name= "fiber cement facing tile">
<density unit= "ton/m3"> 1.44 </density>
<embodied_carbon unit= "kgCO2/ton"> 2220 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "wood" id="39" name= "gypsum fibreboard">
<density unit= "ton/m3"> 1.27 </density>
<embodied_carbon unit= "kgCO2/ton"> 3960 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="40" name= "gypsum plaster board">
<density unit= "ton/m3"> 1.15 </density>
<embodied_carbon unit= "kgCO2/ton"> 760 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "metal" id="41" name= "steel">
<density unit= "ton/m3"> 8 </density>
<embodied_carbon unit= "kgCO2/ton"> 3160 </embodied_carbon>
<recycling_ratio> 0.98</recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.02 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "metal" id="42" name= "aluminium">
<density unit= "ton/m3"> 2.7 </density>
<embodied_carbon unit= "kgCO2/ton"> 5370 </embodied_carbon>
<recycling_ratio> 0.98</recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.02 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "metal" id="43" name= "reinforcing steel">
<density unit= "ton/m3"> 7.85 </density>
<embodied_carbon unit= "kgCO2/ton"> 3910 </embodied_carbon>
<recycling_ratio> 0.98</recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.02 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
</building_materials>
<fuels>
<fuel id="1" name= "Black_coal">
<carbon_emission_factor unit= "kgCO2/ kWh" > 0.32 </carbon_emission_factor>
@ -556,4 +167,393 @@
<carbon_emission_factor unit= "kgCO2/kWh"> 1.00000 </carbon_emission_factor>
</vehicle>
</vehicles>
<building_materials>
<material type = "brick" id="1" name= "clay brick">
<density unit= "ton/m3"> 1.8 </density>
<embodied_carbon unit= "kgCO2/ton"> 560 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0.3 </onsite_recycling_ratio>
<company_recycling_ratio> 0.7 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "brick" id="2" name= "light clay brick">
<density unit= "ton/m3"> 1.2 </density>
<embodied_carbon unit= "kgCO2/ton"> 310 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0.3 </onsite_recycling_ratio>
<company_recycling_ratio> 0.7 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "brick" id="3" name= "refractory">
<density unit= "ton/m3"> 2 </density>
<embodied_carbon unit= "kgCO2/ton"> 3080 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0.3 </onsite_recycling_ratio>
<company_recycling_ratio> 0.7 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "brick" id="4" name= "sand-lime brick">
<density unit= "ton/m3"> 1.4 </density>
<embodied_carbon unit= "kgCO2/ton"> 300 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0.3 </onsite_recycling_ratio>
<company_recycling_ratio> 0.7 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="1" name= "light weight expanded clay">
<density unit= "ton/m3"> 1.6 </density>
<embodied_carbon unit= "kgCO2/ton"> 900 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="2" name= "lightweight Expanded perlite">
<density unit= "ton/m3"> 1.6 </density>
<embodied_carbon unit= "kgCO2/ton"> 2340 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="3" name= "lightweight expanded vermiculite">
<density unit= "ton/m3"> 1.6 </density>
<embodied_carbon unit= "kgCO2/ton"> 1570 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="4" name= "lightweight polystyrene">
<density unit= "ton/m3"> 1.4 </density>
<embodied_carbon unit= "kgCO2/ton"> 1840 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="5" name= "lightweight pumice">
<density unit= "ton/m3"> 1.3 </density>
<embodied_carbon unit= "kgCO2/ton"> 410 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="6" name= "concrete 20 MPa">
<density unit= "ton/m3"> 2.3 </density>
<embodied_carbon unit= "kgCO2/ton"> 160 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="7" name= "concrete 25 MPa">
<density unit= "ton/m3"> 2.3 </density>
<embodied_carbon unit= "kgCO2/ton"> 170 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="8" name= "concrete 30-32 MPa">
<density unit= "ton/m3"> 2.3 </density>
<embodied_carbon unit= "kgCO2/ton"> 230 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="9" name= "concrete 35 MPae">
<density unit= "ton/m3"> 2.4 </density>
<embodied_carbon unit= "kgCO2/ton"> 240 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="10" name= "concrete 50 MPa">
<density unit= "ton/m3"> 2.4 </density>
<embodied_carbon unit= "kgCO2/ton"> 280 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="11" name= "concrete block">
<density unit= "ton/m3"> 2.3 </density>
<embodied_carbon unit= "kgCO2/ton"> 170 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "concrete" id="12" name= "concrete roof tile">
<density unit= "ton/m3"> 1.2 </density>
<embodied_carbon unit= "kgCO2/ton"> 440 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "glass" id="1" name= "flat glass, coated">
<density unit= "ton/m3"> 2.58 </density>
<embodied_carbon unit= "kgCO2/ton"> 2660 </embodied_carbon>
<recycling_ratio> 0.95 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.05 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "glass" id="2" name= "glass fibre">
<density unit= "ton/m3"> 2.58 </density>
<embodied_carbon unit= "kgCO2/ton"> 5260 </embodied_carbon>
<recycling_ratio> 0.95 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.05 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "insulation" id="1" name= "cellulose fibre">
<density unit= "ton/m3"> 0.06 </density>
<embodied_carbon unit= "kgCO2/ton"> 1760 </embodied_carbon>
<recycling_ratio> 0.9 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "insulation" id="2" name= "cork slab">
<density unit= "ton/m3"> 0.122 </density>
<embodied_carbon unit= "kgCO2/ton"> 3080 </embodied_carbon>
<recycling_ratio> 0.9 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "insulation" id="3" name= "polystyren foam">
<density unit= "ton/m3"> 0.028 </density>
<embodied_carbon unit= "kgCO2/ton"> 3180 </embodied_carbon>
<recycling_ratio> 0.9 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "insulation" id="4" name= "polystyrene 10% recycled">
<density unit= "ton/m3"> 0.024 </density>
<embodied_carbon unit= "kgCO2/ton"> 5140 </embodied_carbon>
<recycling_ratio> 0.9 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "insulation" id="5" name= "stone wool">
<density unit= "ton/m3"> 0.1 </density>
<embodied_carbon unit= "kgCO2/ton"> 6040 </embodied_carbon>
<recycling_ratio> 0.9 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "insulation" id="6" name= "foam glass">
<density unit= "ton/m3"> 0.3 </density>
<embodied_carbon unit= "kgCO2/ton"> 5380 </embodied_carbon>
<recycling_ratio> 0.9 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "insulation" id="7" name= "glass wool mat">
<density unit= "ton/m3"> 0.032 </density>
<embodied_carbon unit= "kgCO2/ton"> 2150 </embodied_carbon>
<recycling_ratio> 0.9 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "wood" id="1" name= "fiberboard, hard">
<density unit= "ton/m3"> 0.9 </density>
<embodied_carbon unit= "kgCO2/ton"> 3420 </embodied_carbon>
<recycling_ratio> 0.6 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.4 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "wood" id="2" name= "three layerd laminated board">
<density unit= "ton/m3"> 0.7 </density>
<embodied_carbon unit= "kgCO2/ton"> 1430 </embodied_carbon>
<recycling_ratio> 0.6 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.4 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "wood" id="3" name= "fibreboard, soft">
<density unit= "ton/m3"> 0.65 </density>
<embodied_carbon unit= "kgCO2/ton"> 2780 </embodied_carbon>
<recycling_ratio> 0.6 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.4 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "wood" id="4" name= "plywood">
<density unit= "ton/m3"> 0.72 </density>
<embodied_carbon unit= "kgCO2/ton"> 2190 </embodied_carbon>
<recycling_ratio> 0.6 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.4 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="1" name= "acrylic filler">
<density unit= "ton/m3"> 1.43 </density>
<embodied_carbon unit= "kgCO2/ton"> 1070 </embodied_carbon>
<recycling_ratio> 0 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 0 </company_recycling_ratio>
<landfilling_ratio> 1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="2" name= "anhydrite floor">
<density unit= "ton/m3"> 1.43 </density>
<embodied_carbon unit= "kgCO2/ton"> 240 </embodied_carbon>
<recycling_ratio> 0 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 0 </company_recycling_ratio>
<landfilling_ratio> 1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="3" name= "base plaster">
<density unit= "ton/m3"> 1.43 </density>
<embodied_carbon unit= "kgCO2/ton"> 430 </embodied_carbon>
<recycling_ratio> 0 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 0 </company_recycling_ratio>
<landfilling_ratio> 1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="4" name= "cement cast plaster floor">
<density unit= "ton/m3"> 1.43 </density>
<embodied_carbon unit= "kgCO2/ton"> 340 </embodied_carbon>
<recycling_ratio> 0 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 0 </company_recycling_ratio>
<landfilling_ratio> 1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="5" name= "cement tile">
<density unit= "ton/m3"> 1.2 </density>
<embodied_carbon unit= "kgCO2/ton"> 440 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="6" name= "ceramic tile">
<density unit= "ton/m3"> 2.1 </density>
<embodied_carbon unit= "kgCO2/ton"> 1410 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="7" name= "clay plaster">
<density unit= "ton/m3"> 1.43 </density>
<embodied_carbon unit= "kgCO2/ton"> 250 </embodied_carbon>
<recycling_ratio> 0 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 0 </company_recycling_ratio>
<landfilling_ratio> 1 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="8" name= "fiber cement corrugated slab">
<density unit= "ton/m3"> 1.44 </density>
<embodied_carbon unit= "kgCO2/ton"> 1480 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="9" name= "fiber cement facing tile">
<density unit= "ton/m3"> 1.44 </density>
<embodied_carbon unit= "kgCO2/ton"> 2220 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "wood" id="10" name= "gypsum fibreboard">
<density unit= "ton/m3"> 1.27 </density>
<embodied_carbon unit= "kgCO2/ton"> 3960 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "covering" id="11" name= "gypsum plaster board">
<density unit= "ton/m3"> 1.15 </density>
<embodied_carbon unit= "kgCO2/ton"> 760 </embodied_carbon>
<recycling_ratio> 0.8 </recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.2 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "metal" id="1" name= "steel">
<density unit= "ton/m3"> 8 </density>
<embodied_carbon unit= "kgCO2/ton"> 3160 </embodied_carbon>
<recycling_ratio> 0.98</recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.02 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "metal" id="2" name= "aluminium">
<density unit= "ton/m3"> 2.7 </density>
<embodied_carbon unit= "kgCO2/ton"> 5370 </embodied_carbon>
<recycling_ratio> 0.98</recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.02 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
<material type = "metal" id="3" name= "reinforcing steel">
<density unit= "ton/m3"> 7.85 </density>
<embodied_carbon unit= "kgCO2/ton"> 3910 </embodied_carbon>
<recycling_ratio> 0.98</recycling_ratio>
<onsite_recycling_ratio> 0 </onsite_recycling_ratio>
<company_recycling_ratio> 1 </company_recycling_ratio>
<landfilling_ratio> 0.02 </landfilling_ratio>
<cost unit= "...."> .... </cost>
</material>
</building_materials>
</library>

2
exports/formats/energy_ade.py
View File

@ -329,7 +329,7 @@ class EnergyAde:
},
'energy:area': {
'@uom': 'm2',
'#text': f'{thermal_boundary.area}'
'#text': f'{thermal_boundary.opaque_area}'
},
'energy:surfaceGeometry': {
'gml:MultiSurface': {

16
helpers/configuration_helper.py
View File

@ -105,3 +105,19 @@ class ConfigurationHelper:
:return: 0.1
"""
return self._config.getfloat('buildings', 'comnet_occupancy_sensible_radiant').real
@property
def convective_heat_transfer_coefficient_interior(self) -> float:
"""
Get configured convective heat transfer coefficient for surfaces inside the building
:return: 3.5
"""
return self._config.getfloat('buildings', 'convective_heat_transfer_coefficient_interior').real
@property
def convective_heat_transfer_coefficient_exterior(self) -> float:
"""
Get configured convective heat transfer coefficient for surfaces outside the building
:return: 20
"""
return self._config.getfloat('buildings', 'convective_heat_transfer_coefficient_exterior').real

15
helpers/constants.py
View File

@ -85,11 +85,22 @@ EDUCATION = 'education'
LIGHTING = 'Lights'
OCCUPANCY = 'Occupancy'
RECEPTACLE = 'Receptacle'
APPLIANCES = 'Appliances'
HVAC_AVAILABILITY = 'HVAC Avail'
INFILTRATION = 'Infiltration'
COOLING_SET_POINT = 'ClgSetPt'
HEATING_SET_POINT = 'HtgSetPt'
# todo: are any of these two the receptacle concept??
EQUIPMENT = 'Equipment'
ACTIVITY = 'Activity'
# Geometry
EPSILON = 0.0000001
# HVAC types
ONLY_HEATING = 'Heating'
ONLY_COOLING = 'Colling'
ONLY_VENTILATION = 'Ventilation'
HEATING_AND_VENTILATION = 'Heating and ventilation'
COOLING_AND_VENTILATION = 'Cooling and ventilation'
HEATING_AND_COLLING = 'Heating and cooling'
FULL_HVAC = 'Heating and cooling and ventilation'

6
helpers/monthly_to_hourly_demand.py
View File

@ -5,7 +5,7 @@ Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.mons
"""
import calendar as cal
import pandas as pd
from city_model_structure.building_demand.occupants import Occupants
from city_model_structure.building_demand.occupant import Occupant
import helpers.constants as cte
@ -34,7 +34,7 @@ class MonthlyToHourlyDemand:
# 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'])
occupancy = Occupant().get_complete_year_schedule(usage_zone.schedules['Occupancy'])
heating_schedule = self._conditioning_seasons['heating']
hourly_heating = []
@ -92,7 +92,7 @@ class MonthlyToHourlyDemand:
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'])
occupancy = Occupant().get_complete_year_schedule(usage_zone.schedules['Occupancy'])
cooling_schedule = self._conditioning_seasons['cooling']
hourly_cooling = []

15
imports/construction/ca_physics_parameters.py
View File

@ -33,7 +33,14 @@ class CaPhysicsParameters(NrelPhysicsInterface):
f'and building year of construction: {building.year_of_construction}\n')
continue
# if building has no thermal zones defined from geometry, one thermal zone per storey is assigned
if building.thermal_zones is None:
self._create_storeys(building, archetype)
thermal_zones = []
for storey in building.storeys:
thermal_zones.append(storey.thermal_zone)
building.thermal_zones = thermal_zones
self._assign_values(building, archetype)
def _search_archetype(self, function, year_of_construction):
@ -60,11 +67,15 @@ class CaPhysicsParameters(NrelPhysicsInterface):
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
try:
thermal_boundary.window_ratio = thermal_boundary_archetype.window_ratio
except ValueError:
# This is the normal operation way when the windows are defined in the geometry
continue
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
if thermal_boundary_archetype.thermal_opening_archetype is not None:
thermal_opening_archetype = thermal_boundary_archetype.thermal_opening_archetype
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

10
imports/construction/data_classes/nrel_building_achetype.py → imports/construction/data_classes/building_achetype.py
View File

@ -1,15 +1,15 @@
"""
NrelBuildingArchetype stores construction information by building archetypes
BuildingArchetype 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
from imports.construction.data_classes.thermal_boundary_archetype import ThermalBoundaryArchetype
class NrelBuildingArchetype:
class BuildingArchetype:
"""
NrelBuildingArchetype class
BuildingArchetype 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,
@ -89,7 +89,7 @@ class NrelBuildingArchetype:
return self._infiltration_rate_system_on
@property
def thermal_boundary_archetypes(self) -> List[NrelThermalBoundaryArchetype]:
def thermal_boundary_archetypes(self) -> List[ThermalBoundaryArchetype]:
"""
Get thermal boundary archetypes associated to the building archetype
:return: list of boundary archetypes

38
imports/construction/data_classes/nrel_layer_archetype.py → imports/construction/data_classes/layer_archetype.py
View File

@ -1,17 +1,16 @@
"""
NrelLayerArchetype stores layer and materials information, complementing the NrelBuildingArchetype class
LayerArchetype stores layer and materials information, complementing the BuildingArchetype class
SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
"""
class NrelLayerArchetype:
class LayerArchetype:
"""
NrelLayerArchetype class
LayerArchetype 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,
lca_id=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
@ -22,12 +21,11 @@ class NrelLayerArchetype:
self._no_mass = no_mass
self._name = name
self._thermal_resistance = thermal_resistance
self._lca_id = lca_id
@property
def thickness(self):
"""
Get nrel layer archetype thickness in meters
Get thickness in meters
:return: float
"""
return self._thickness
@ -35,7 +33,7 @@ class NrelLayerArchetype:
@property
def conductivity(self):
"""
Get nrel layer archetype conductivity in W/mK
Get conductivity in W/mK
:return: float
"""
return self._conductivity
@ -43,7 +41,7 @@ class NrelLayerArchetype:
@property
def specific_heat(self):
"""
Get nrel layer archetype conductivity in J/kgK
Get specific heat in J/kgK
:return: float
"""
return self._specific_heat
@ -51,7 +49,7 @@ class NrelLayerArchetype:
@property
def density(self):
"""
Get nrel layer archetype density in kg/m3
Get density in kg/m3
:return: float
"""
return self._density
@ -59,7 +57,7 @@ class NrelLayerArchetype:
@property
def solar_absorptance(self):
"""
Get nrel layer archetype solar absorptance
Get solar absorptance
:return: float
"""
return self._solar_absorptance
@ -67,7 +65,7 @@ class NrelLayerArchetype:
@property
def thermal_absorptance(self):
"""
Get nrel layer archetype thermal absorptance
Get thermal absorptance
:return: float
"""
return self._thermal_absorptance
@ -75,7 +73,7 @@ class NrelLayerArchetype:
@property
def visible_absorptance(self):
"""
Get nrel layer archetype visible absorptance
Get visible absorptance
:return: float
"""
return self._visible_absorptance
@ -83,7 +81,7 @@ class NrelLayerArchetype:
@property
def no_mass(self) -> bool:
"""
Get nrel layer archetype no mass flag
Get no mass flag
:return: Boolean
"""
return self._no_mass
@ -91,7 +89,7 @@ class NrelLayerArchetype:
@property
def name(self):
"""
Get nrel layer archetype name
Get name
:return: str
"""
return self._name
@ -99,15 +97,7 @@ class NrelLayerArchetype:
@property
def thermal_resistance(self):
"""
Get nrel layer archetype thermal resistance in m2K/W
Get thermal resistance in m2K/W
:return: float
"""
return self._thermal_resistance
@property
def lca_id(self):
"""
Get nrel lca_id equivalent for the material
:return: int
"""
return self._lca_id

99
imports/construction/data_classes/nrel_thermal_boundary_archetype.py
View File

@ -1,99 +0,0 @@
"""
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):
"""
Get nrel thermal boundary archetype type
:return: str
"""
return self._boundary_type
@property
def outside_solar_absorptance(self):
"""
Get nrel thermal boundary archetype outside solar absorptance
:return: float
"""
return self._outside_solar_absorptance
@property
def outside_thermal_absorptance(self):
"""
Get nrel thermal boundary archetype outside thermal absorptance
:return: float
"""
return self._outside_thermal_absorptance
@property
def outside_visible_absorptance(self):
"""
Get nrel thermal boundary archetype outside visible absorptance
:return: float
"""
return self._outside_visible_absorptance
@property
def window_ratio(self):
"""
Get nrel thermal boundary archetype window ratio
:return: float
"""
return self._window_ratio
@property
def construction_name(self):
"""
Get nrel thermal boundary archetype construction name
:return: str
"""
return self._construction_name
@property
def layers(self) -> List[NrelLayerArchetype]:
"""
Get nrel thermal boundary archetype layers
:return: [NrelLayerArchetype]
"""
return self._layers
@property
def thermal_opening(self) -> NrelThermalOpeningArchetype:
"""
Get nrel thermal boundary archetype
:return: NrelThermalOpeningArchetype
"""
return self._thermal_opening
@property
def overall_u_value(self):
"""
Get nrel thermal boundary archetype overall U-value in W/m2K
:return: float
"""
return self._overall_u_value

136
imports/construction/data_classes/thermal_boundary_archetype.py Normal file
View File

@ -0,0 +1,136 @@
"""
ThermalBoundaryArchetype stores thermal boundaries information, complementing the BuildingArchetype class
SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2022 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
"""
from typing import List
from imports.construction.data_classes.layer_archetype import LayerArchetype
from imports.construction.data_classes.thermal_opening_archetype import ThermalOpeningArchetype
class ThermalBoundaryArchetype:
"""
ThermalBoundaryArchetype 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, shortwave_reflectance=None, inside_emissivity=None, alpha_coefficient=None,
radiative_coefficient=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_archetype = thermal_opening
self._shortwave_reflectance = shortwave_reflectance
self._inside_emissivity = inside_emissivity
self._alpha_coefficient = alpha_coefficient
self._radiative_coefficient = radiative_coefficient
@property
def boundary_type(self):
"""
Get type
:return: str
"""
return self._boundary_type
@property
def outside_solar_absorptance(self):
"""
Get outside solar absorptance
:return: float
"""
return self._outside_solar_absorptance
@property
def outside_thermal_absorptance(self):
"""
Get outside thermal absorptance
:return: float
"""
return self._outside_thermal_absorptance
@property
def outside_visible_absorptance(self):
"""
Get outside visible absorptance
:return: float
"""
return self._outside_visible_absorptance
@property
def window_ratio(self):
"""
Get window ratio
:return: float
"""
return self._window_ratio
@property
def construction_name(self):
"""
Get construction name
:return: str
"""
return self._construction_name
@property
def layers(self) -> List[LayerArchetype]:
"""
Get layers
:return: [NrelLayerArchetype]
"""
return self._layers
@property
def thermal_opening_archetype(self) -> ThermalOpeningArchetype:
"""
Get thermal opening archetype
:return: ThermalOpeningArchetype
"""
return self._thermal_opening_archetype
@property
def overall_u_value(self):
"""
Get overall U-value in W/m2K
:return: float
"""
return self._overall_u_value
@property
def shortwave_reflectance(self):
"""
Get shortwave reflectance
:return: float
"""
return self._shortwave_reflectance
@property
def inside_emissivity(self):
"""
Get emissivity inside
:return: float
"""
return self._inside_emissivity
@property
def alpha_coefficient(self):
"""
Get alpha coefficient
:return: float
"""
return self._alpha_coefficient
@property
def radiative_coefficient(self):
"""
Get radiative coefficient
:return: float
"""
return self._radiative_coefficient

70
imports/construction/data_classes/nrel_thermal_opening_archetype.py → imports/construction/data_classes/thermal_opening_archetype.py
View File

@ -1,30 +1,34 @@
"""
NrelThermalOpeningArchetype stores thermal openings information, complementing the NrelBuildingArchetype class
ThermalOpeningArchetype stores thermal openings information, complementing the BuildingArchetype class
SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
"""
class NrelThermalOpeningArchetype:
class ThermalOpeningArchetype:
"""
NrelThermalOpeningArchetype class
ThermalOpeningArchetype 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):
front_side_solar_transmittance_at_normal_incidence=None, overall_u_value=None,
openable_ratio=None, inside_emissivity=None, alpha_coefficient=None, radiative_coefficient=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
self._openable_ratio = openable_ratio
self._inside_emissivity = inside_emissivity
self._alpha_coefficient = alpha_coefficient
self._radiative_coefficient = radiative_coefficient
@property
def conductivity(self):
"""
Get nrel thermal opening archetype conductivity in W/mK
Get conductivity in W/mK
:return: float
"""
return self._conductivity
@ -32,7 +36,7 @@ class NrelThermalOpeningArchetype:
@property
def frame_ratio(self):
"""
Get nrel thermal opening archetype frame ratio
Get frame ratio
:return: float
"""
return self._frame_ratio
@ -40,7 +44,7 @@ class NrelThermalOpeningArchetype:
@property
def g_value(self):
"""
Get nrel thermal opening archetype g-value
Get g-value, also called shgc
:return: float
"""
return self._g_value
@ -48,7 +52,7 @@ class NrelThermalOpeningArchetype:
@property
def thickness(self):
"""
Get nrel thermal opening archetype thickness in meters
Get thickness in meters
:return: float
"""
return self._thickness
@ -56,7 +60,7 @@ class NrelThermalOpeningArchetype:
@property
def back_side_solar_transmittance_at_normal_incidence(self):
"""
Get nrel thermal opening archetype back side solar transmittance at normal incidence
Get back side solar transmittance at normal incidence
:return: float
"""
return self._back_side_solar_transmittance_at_normal_incidence
@ -64,23 +68,47 @@ class NrelThermalOpeningArchetype:
@property
def front_side_solar_transmittance_at_normal_incidence(self):
"""
Get nrel thermal opening archetype front side solar transmittance at normal incidence
Get front side solar transmittance at normal incidence
:return: float
"""
return self._front_side_solar_transmittance_at_normal_incidence
@property
def shgc(self):
"""
Get nrel thermal opening archetype shcg
:return: float
"""
return self._shgc
@property
def overall_u_value(self):
"""
Get nrel thermal opening archetype overall U-value in W/m2K
:param value: float
Get overall U-value in W/m2K
:return: float
"""
return self._overall_u_value
@property
def openable_ratio(self):
"""
Get openable ratio
:return: float
"""
return self._openable_ratio
@property
def inside_emissivity(self):
"""
Get emissivity inside
:return: float
"""
return self._inside_emissivity
@property
def alpha_coefficient(self):
"""
Get alpha coefficient
:return: float
"""
return self._alpha_coefficient
@property
def radiative_coefficient(self):
"""
Get radiative coefficient
:return: float
"""
return self._radiative_coefficient

15
imports/construction/helpers/storeys_generation.py
View File

@ -1,7 +1,7 @@
"""
Storeys generation helper
SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
Copyright © 2022 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
"""
import sys
import math
@ -22,6 +22,9 @@ class StoreysGeneration:
self._building = building
self._divide_in_storeys = divide_in_storeys
self._storeys = None
self._floor_area = 0
for ground in building.grounds:
self._floor_area += ground.perimeter_polygon.area
@property
def storeys(self) -> [Storey]:
@ -34,7 +37,7 @@ class StoreysGeneration:
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)]
return [Storey('storey_0', self._building.surfaces, [None, None], self._building.volume, self._floor_area)]
if number_of_storeys == 0:
raise Exception('Number of storeys cannot be 0')
@ -79,13 +82,13 @@ class StoreysGeneration:
surfaces_child.append(ceiling)
volume = ceiling.area_above_ground * height
total_volume += volume
storeys.append(Storey(name, surfaces_child, neighbours, volume))
storeys.append(Storey(name, surfaces_child, neighbours, volume, self._floor_area))
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))
storeys.append(Storey(name, surfaces_child_last_storey, neighbours, volume, self._floor_area))
return storeys
@staticmethod
@ -144,12 +147,12 @@ class StoreysGeneration:
"""
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:
if thermal_boundary.type != cte.INTERIOR_WALL or thermal_boundary.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)
grad = np.rad2deg(thermal_boundary.inclination)
if grad >= 170:
thermal_zones = [storey.thermal_zone, storey.neighbours[0]]
else:

17
imports/construction/nrel_physics_interface.py
View File

@ -6,10 +6,10 @@ Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.mons
"""
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
from imports.construction.data_classes.building_achetype import BuildingArchetype as nba
from imports.construction.data_classes.thermal_boundary_archetype import ThermalBoundaryArchetype as ntba
from imports.construction.data_classes.thermal_opening_archetype import ThermalOpeningArchetype as ntoa
from imports.construction.data_classes.layer_archetype import LayerArchetype as nla
class NrelPhysicsInterface:
@ -71,7 +71,6 @@ class NrelPhysicsInterface:
for current_layer in c_lib['layers']['layer']:
material_lib = self._search_construction_type('material', current_layer['material'])
name = material_lib['@name']
lca_id = material_lib['@lca_id']
solar_absorptance = material_lib['solar_absorptance']['#text']
thermal_absorptance = material_lib['thermal_absorptance']['#text']
visible_absorptance = material_lib['visible_absorptance']['#text']
@ -82,7 +81,7 @@ class NrelPhysicsInterface:
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, lca_id=lca_id)
thermal_resistance=thermal_resistance)
else:
thickness = current_layer['thickness']['#text']
units = current_layer['thickness']['@units']
@ -101,7 +100,7 @@ class NrelPhysicsInterface:
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, lca_id=lca_id)
conductivity=conductivity, specific_heat=specific_heat, density=density)
layers.append(layer)
thermal_opening = None
@ -150,10 +149,14 @@ class NrelPhysicsInterface:
units = c_lib['overall_u_value']['@units']
if units != 'W/m2 K':
raise Exception(f'overall U-value units = {units}, expected W/m2 K')
if 'outside_solar_absorptance' in c_lib:
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, overall_u_value=overall_u_value)
else:
thermal_boundary_archetype = ntba(construction_type, window_ratio, construction_name, layers,
thermal_opening)

18
imports/construction/us_physics_parameters.py
View File

@ -41,7 +41,14 @@ class UsPhysicsParameters(NrelPhysicsInterface):
f'and building year of construction: {building.year_of_construction}\n')
continue
# if building has no thermal zones defined from geometry, one thermal zone per storey is assigned
if building.thermal_zones is None:
self._create_storeys(building, archetype)
thermal_zones = []
for storey in building.storeys:
thermal_zones.append(storey.thermal_zone)
building.thermal_zones = thermal_zones
self._assign_values(building, archetype)
def _search_archetype(self, building_type, standard, climate_zone):
@ -63,12 +70,15 @@ class UsPhysicsParameters(NrelPhysicsInterface):
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
try:
thermal_boundary.window_ratio = thermal_boundary_archetype.window_ratio
except ValueError:
# This is the normal operation way when the windows are defined in the geometry
continue
thermal_boundary.layers = []
for layer_archetype in thermal_boundary_archetype.layers:
layer = Layer()
@ -83,13 +93,11 @@ class UsPhysicsParameters(NrelPhysicsInterface):
material.thermal_absorptance = layer_archetype.thermal_absorptance
material.visible_absorptance = layer_archetype.visible_absorptance
material.thermal_resistance = layer_archetype.thermal_resistance
if layer_archetype.lca_id is not None:
material.lca_id = layer_archetype.lca_id
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
if thermal_boundary_archetype.thermal_opening_archetype is not None:
thermal_opening_archetype = thermal_boundary_archetype.thermal_opening_archetype
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

2
imports/customized_imports/sanam_customized_usage_parameters.py
View File

@ -7,7 +7,7 @@ Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.mons
import sys
import xmltodict
from imports.geometry.helpers.geometry_helper import GeometryHelper as gh
from imports.usage.data_classes.hft_usage_zone_archetype import HftUsageZoneArchetype as huza
from imports.usage.data_classes.usage_zone_archetype import UsageZoneArchetype as huza
import helpers.constants as cte

2
imports/geometry/citygml.py
View File

@ -83,7 +83,7 @@ class CityGml:
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, [])
return Building(name, lod, surfaces, year_of_construction, function, self._lower_corner, terrains=None)
def _create_parts_consisting_building(self, city_object):
name = city_object['@id']

2
imports/geometry/obj.py
View File

@ -76,6 +76,6 @@ class Obj:
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)
building = Building(name, lod, surfaces, year_of_construction, function, self._lower_corner, terrains=None)
self._city.add_city_object(building)
return self._city

27
imports/geometry/rhino.py
View File

@ -3,16 +3,18 @@ Rhino module parses rhino files and import the geometry into the city model stru
SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2020 Project Author Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
"""
import numpy as np
from numpy import inf
from rhino3dm import *
from rhino3dm._rhino3dm import MeshType
#from rhino3dm import *
#from rhino3dm._rhino3dm import MeshType
from city_model_structure.attributes.point import Point
import numpy as np
from helpers.configuration_helper import ConfigurationHelper
from city_model_structure.attributes.polygon import Polygon
from city_model_structure.building import Building
from city_model_structure.building_demand.surface import Surface as LibsSurface
from city_model_structure.city import City
from helpers.configuration_helper import ConfigurationHelper
from city_model_structure.building_demand.surface import Surface as LibsSurface
from helpers.constants import EPSILON
from imports.geometry.helpers.geometry_helper import GeometryHelper
@ -25,7 +27,19 @@ class Rhino:
self._max_x = self._max_y = self._max_z = min_float
@staticmethod
def _solid_points(coordinates):
def _in_perimeter(wall, corner):
res = wall.contains_point(Point(corner))
print(f'belong: {res} wall:({wall.coordinates}) corner: ({corner})')
return res
@staticmethod
def _add_hole(solid_polygon, hole):
first = solid_polygon.points[0]
points = first + hole.points + solid_polygon.points
return Polygon(points)
@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
@ -82,6 +96,7 @@ class Rhino:
windows.append(Polygon(surface.perimeter_polygon.inverse))
else:
buildings.append(rhino_object)
print(f'windows: {len(windows)}')
# todo: this method will be pretty inefficient
for hole in windows:
corner = hole.coordinates[0]

8
imports/life_cycle_assessment/lca_machine.py
View File

@ -8,7 +8,6 @@ import xmltodict
from pathlib import Path
from city_model_structure.machine import Machine
class LcaMachine:
def __init__(self, city, base_path):
self._city = city
@ -17,15 +16,12 @@ class LcaMachine:
def enrich(self):
self._city.machines = []
# print(self._base_path)
path = Path(self._base_path / 'lca_data.xml').resolve()
with open(path) as xml:
self._lca = xmltodict.parse(xml.read())
for machine in self._lca["library"]["machines"]['machine']:
self._city.machines.append(Machine(machine['@id'], machine['@name'], machine['work_efficiency']['#text'],
machine['work_efficiency']['@unit'],
machine['energy_consumption_rate']['#text'],
machine['energy_consumption_rate']['@unit'],
machine['carbon_emission_factor']['#text'],
machine['work_efficiency']['@unit'], machine['energy_consumption_rate']['#text'],
machine['energy_consumption_rate']['@unit'], machine['carbon_emission_factor']['#text'],
machine['carbon_emission_factor']['@unit']))

35
imports/life_cycle_assessment/lca_material.py
View File

@ -7,8 +7,6 @@ Contributor Mohammad Reza mohammad.seyedabadi@mail.concordia.ca
import xmltodict
from pathlib import Path
from city_model_structure.building_demand.material import Material
from city_model_structure.lca_material import LcaMaterial as LcaMat
class LcaMaterial:
def __init__(self, city, base_path):
@ -17,25 +15,26 @@ class LcaMaterial:
self._lca = None
def enrich(self):
self._city.lca_materials = []
self._city.materials = []
path = Path(self._base_path / 'lca_data.xml').resolve()
with open(path) as xml:
self._lca = xmltodict.parse(xml.read())
for material in self._lca["library"]["building_materials"]['material']:
_lca_material = LcaMat()
_lca_material.type = material['@type']
_lca_material.id = material['@id']
_lca_material.name = material['@name']
_lca_material.density = material['density']['#text']
_lca_material.density_unit = material['density']['@unit']
_lca_material.embodied_carbon = material['embodied_carbon']['#text']
_lca_material.embodied_carbon_unit = material['embodied_carbon']['@unit']
_lca_material.recycling_ratio = material['recycling_ratio']
_lca_material.onsite_recycling_ratio = material['onsite_recycling_ratio']
_lca_material.company_recycling_ratio = material['company_recycling_ratio']
_lca_material.landfilling_ratio = material['landfilling_ratio']
_lca_material.cost = 10 # todo: change this into material['cost']['#text']
_lca_material._cost_unit = material['cost']['@unit']
self._city.lca_materials.append(_lca_material)
_material = Material()
_material.type = material['@type']
_material.id = material['@id']
_material.name = material['@name']
_material.density=material['density']['#text']
_material.density_unit=material['density']['@unit']
_material.embodied_carbon=material['embodied_carbon']['#text']
_material.embodied_carbon_unit=material['embodied_carbon']['@unit']
_material.recycling_ratio=material['recycling_ratio']
_material.onsite_recycling_ratio=material['onsite_recycling_ratio']
_material.company_recycling_ratio=material['company_recycling_ratio']
_material.landfilling_ratio=material['landfilling_ratio']
_material.cost=material['cost']['#text']
_material._cost_unit=material['cost']['@unit']
self._city.materials.append(_material)

1
imports/sensors/concordia_energy_consumption.py
View File

@ -5,6 +5,7 @@ Copyright © 2021 Project Author Guille Gutierrez guillermo.gutierrezmorote@conc
"""
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):

4
imports/sensors/concordia_gas_flow.py
View File

@ -5,7 +5,7 @@ Copyright © 2021 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.mons
"""
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):
@ -24,7 +24,6 @@ class ConcordiaGasFlow(ConcordiaFileReport):
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)):
@ -35,4 +34,3 @@ class ConcordiaGasFlow(ConcordiaFileReport):
if not sensor_exist:
sensor.add_period(building_energy_consumption)
obj.sensors.append(sensor)
"""

3
imports/sensors/concordia_temperature.py
View File

@ -5,6 +5,7 @@ Copyright © 2021 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.mons
"""
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):
@ -22,7 +23,6 @@ class ConcordiaTemperature(ConcordiaFileReport):
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)):
@ -33,4 +33,3 @@ class ConcordiaTemperature(ConcordiaFileReport):
if not sensor_exist:
sensor.add_period(building_energy_consumption)
obj.sensors.append(sensor)
"""

4
imports/usage/ca_usage_parameters.py
View File

@ -58,14 +58,14 @@ class CaUsageParameters(HftUsageInterface):
# 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:
for archetype_internal_gain in archetype.not_detailed_source_mean_annual_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.not_detailed_source_mean_annual_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

87
imports/usage/comnet_usage_parameters.py
View File

@ -12,9 +12,10 @@ from helpers.configuration_helper import ConfigurationHelper as ch
from imports.geometry.helpers.geometry_helper import GeometryHelper
from imports.usage.helpers.usage_helper import UsageHelper
from city_model_structure.building_demand.usage_zone import UsageZone
from city_model_structure.building_demand.lighting import Lighting
from city_model_structure.building_demand.occupancy import Occupancy
from city_model_structure.building_demand.appliances import Appliances
from city_model_structure.building_demand.internal_gains import InternalGains
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 ComnetUsageParameters:
@ -68,45 +69,44 @@ class ComnetUsageParameters:
'process': process_data}
@staticmethod
def _parse_zone_usage_type(usage, data):
if data['occupancy'][usage][0] <= 0:
occupancy_density = 0
else:
occupancy_density = 1 / data['occupancy'][usage][0]
mechanical_air_change = data['ventilation rate'][usage][0]
internal_gains = []
# lighting
latent_fraction = ch().comnet_lighting_latent
convective_fraction = ch().comnet_lighting_convective
radiative_fraction = ch().comnet_lighting_radiant
average_internal_gain = data['lighting'][usage][4]
internal_gains.append(higa(internal_gains_type=cte.LIGHTING, average_internal_gain=average_internal_gain,
convective_fraction=convective_fraction, radiative_fraction=radiative_fraction,
latent_fraction=latent_fraction))
# occupancy
latent_fraction = data['occupancy'][usage][2] / (data['occupancy'][usage][1] + data['occupancy'][usage][2])
sensible_fraction = float(1 - latent_fraction)
convective_fraction = sensible_fraction * ch().comnet_occupancy_sensible_convective
radiative_fraction = sensible_fraction * ch().comnet_occupancy_sensible_radiant
average_internal_gain = (data['occupancy'][usage][1] + data['occupancy'][usage][2]) \
* occupancy_density * cte.BTU_H_TO_WATTS
internal_gains.append(higa(internal_gains_type=cte.OCCUPANCY, average_internal_gain=average_internal_gain,
convective_fraction=convective_fraction, radiative_fraction=radiative_fraction,
latent_fraction=latent_fraction))
# plug loads
if data['plug loads'][usage][0] != 'n.a.':
latent_fraction = ch().comnet_plugs_latent
convective_fraction = ch().comnet_plugs_convective
radiative_fraction = ch().comnet_plugs_radiant
average_internal_gain = data['plug loads'][usage][0]
internal_gains.append(higa(internal_gains_type=cte.RECEPTACLE, average_internal_gain=average_internal_gain,
convective_fraction=convective_fraction, radiative_fraction=radiative_fraction,
latent_fraction=latent_fraction))
def _parse_zone_usage_type(usage, height, data):
_usage_zone = UsageZone()
_usage_zone.usage = usage
usage_zone_archetype = huza(usage=usage, internal_gains=internal_gains,
occupancy_density=occupancy_density,
mechanical_air_change=mechanical_air_change)
return usage_zone_archetype
# lighting
_lighting = Lighting()
_lighting.latent_fraction = ch().comnet_lighting_latent
_lighting.convective_fraction = ch().comnet_lighting_convective
_lighting.radiative_fraction = ch().comnet_lighting_radiant
_lighting.average_internal_gain = data['lighting'][usage][4]
# plug loads
_appliances = None
if data['plug loads'][usage][0] != 'n.a.':
_appliances = Appliances()
_appliances.latent_fraction = ch().comnet_plugs_latent
_appliances.convective_fraction = ch().comnet_plugs_convective
_appliances.radiative_fraction = ch().comnet_plugs_radiant
_appliances.average_internal_gain = data['plug loads'][usage][0]
# occupancy
_occupancy = Occupancy()
_occupancy.occupancy_density = data['occupancy'][usage][0] * cte.METERS_TO_FEET**2
_occupancy.sensible_convective_internal_gain = data['occupancy'][usage][1] \
* ch().comnet_occupancy_sensible_convective
_occupancy.sensible_radiant_internal_gain = data['occupancy'][usage][1] * ch().comnet_occupancy_sensible_radiant
_occupancy.latent_internal_gain = data['occupancy'][usage][2]
if _occupancy.occupancy_density <= 0:
_usage_zone.mechanical_air_change = 0
else:
_usage_zone.mechanical_air_change = data['ventilation rate'][usage][0] / _occupancy.occupancy_density \
* cte.HOUR_TO_MINUTES / cte.METERS_TO_FEET**3 / height
_usage_zone.occupancy = _occupancy
_usage_zone.lighting = _lighting
_usage_zone.appliances = _appliances
return _usage_zone
def enrich_buildings(self):
"""
@ -151,12 +151,11 @@ class ComnetUsageParameters:
for archetype_internal_gain in archetype.internal_gains:
internal_gain = InternalGains()
internal_gain.type = archetype_internal_gain.type
internal_gain.average_internal_gain = archetype_internal_gain.average_internal_gain * cte.METERS_TO_FEET**2
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.occupancy_density = archetype.occupancy_density * cte.METERS_TO_FEET**2
usage_zone.mechanical_air_change = archetype.mechanical_air_change * usage_zone.occupancy_density \
* cte.HOUR_TO_MINUTES / cte.METERS_TO_FEET**3 / height
usage_zone.occupancy_density = archetype.occupancy_density
usage_zone.mechanical_air_change = archetype.mechanical_air_change

144
imports/usage/data_classes/hft_usage_zone_archetype.py
View File

@ -1,144 +0,0 @@
"""
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

98
imports/usage/data_classes/usage_zone_archetype.py Normal file
View File

@ -0,0 +1,98 @@
"""
UsageZoneArchetype stores usage information by usage type
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 UsageZoneArchetype:
"""
UsageZoneArchetype class
"""
def __init__(self, usage=None, not_detailed_source_mean_annual_internal_gains=None, hours_day=None, days_year=None,
electrical_app_average_consumption_sqm_year=None, mechanical_air_change=None, occupancy=None,
lighting=None, appliances=None):
self._usage = usage
self._not_detailed_source_mean_annual_internal_gains = not_detailed_source_mean_annual_internal_gains
self._hours_day = hours_day
self._days_year = days_year
self._electrical_app_average_consumption_sqm_year = electrical_app_average_consumption_sqm_year
self._mechanical_air_change = mechanical_air_change
self._occupancy = occupancy
self._lighting = lighting
self._appliances = appliances
@property
def not_detailed_source_mean_annual_internal_gains(self) -> List[HftInternalGainsArchetype]:
"""
Get usage zone internal gains from not detailed heating source in W/m2
:return: [InternalGains]
"""
return self._not_detailed_source_mean_annual_internal_gains
@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 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
@property
def occupancy(self):
"""
Get occupancy data
:return: Occupancy
"""
return self._occupancy
@property
def lighting(self):
"""
Get lighting data
:return: Lighting
"""
return self._lighting
@property
def appliances(self):
"""
Get appliances data
:return: Appliances
"""
return self._appliances

4
imports/usage/hft_usage_interface.py
View File

@ -5,7 +5,7 @@ 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.usage_zone_archetype import UsageZoneArchetype as huza
from imports.usage.data_classes.hft_internal_gains_archetype import HftInternalGainsArchetype as higa
@ -96,7 +96,7 @@ class HftUsageInterface:
# 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]
internal_gains = usage_zone.not_detailed_source_mean_annual_internal_gains[0]
latent_fraction = internal_gains.latent_fraction
convective_fraction = internal_gains.convective_fraction
average_internal_gain = internal_gains.average_internal_gain

4
imports/usage/hft_usage_parameters.py
View File

@ -58,14 +58,14 @@ class HftUsageParameters(HftUsageInterface):
# 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:
for archetype_internal_gain in archetype.not_detailed_source_mean_annual_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.not_detailed_source_mean_annual_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

2
requirements.txt
View File

@ -13,7 +13,7 @@ openpyxl~=3.0.7
networkx~=2.5.1
parseidf~=1.0.0
ply~=3.11
rhino3dm~=7.11.1
rhino3dm~=7.7.0
scipy==1.7.1
PyYAML==6.0
yaml~=0.2.5

231
unittests/test_construction_factory.py
View File

@ -1,15 +1,16 @@
"""
TestConstructionFactory test and validate the city model structure construction parameters
SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
Copyright © 2022 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
"""
from pathlib import Path
from unittest import TestCase
import helpers.constants as cte
from imports.geometry_factory import GeometryFactory
from imports.construction_factory import ConstructionFactory
from imports.geometry.helpers.geometry_helper import GeometryHelper
from imports.life_cycle_assessment_factory import LifeCycleAssessment
class TestConstructionFactory(TestCase):
"""
@ -23,46 +24,138 @@ class TestConstructionFactory(TestCase):
self._city = None
self._example_path = (Path(__file__).parent / 'tests_data').resolve()
def _get_citygml(self, file=None):
if file is None:
file = 'pluto_building.gml'
def _get_citygml(self, file):
file_path = (self._example_path / file).resolve()
self._city = GeometryFactory('citygml', file_path).city
LifeCycleAssessment('material', self._city).enrich()
self.assertIsNotNone(self._city, 'city is none')
return self._city
def test_city_with_construction_extended_library(self):
"""
Enrich the city with the physic information and verify it
:return: None
"""
city = self._get_citygml()
def _check_buildings(self, city):
for building in city.buildings:
building.function = GeometryHelper.pluto_to_function[building.function]
self.assertIsNotNone(building.surfaces, 'Building has no surfaces')
self.assertIsNotNone(building.name, 'building name is none')
self.assertIsNotNone(building.lod, 'building lod is none')
self.assertIsNotNone(building.type, 'building type is none')
self.assertIsNotNone(building.volume, 'building volume is none')
self.assertIsNotNone(building.detailed_polyhedron, 'building detailed polyhedron is none')
self.assertIsNotNone(building.simplified_polyhedron, 'building simplified polyhedron is none')
self.assertIsNotNone(building.surfaces, 'building surfaces is none')
self.assertIsNotNone(building.centroid, 'building centroid is none')
self.assertIsNotNone(building.max_height, 'building max_height is none')
self.assertEqual(len(building.external_temperature), 0, 'building external temperature is calculated')
self.assertEqual(len(building.global_horizontal), 0, 'building global horizontal is calculated')
self.assertEqual(len(building.diffuse), 0, 'building diffuse is calculated')
self.assertEqual(len(building.beam), 0, 'building beam is calculated')
self.assertIsNotNone(building.lower_corner, 'building lower corner is none')
self.assertEqual(len(building.sensors), 0, 'building sensors are assigned')
self.assertIsNotNone(building.geometrical_zones, 'no geometrical zones created')
self.assertIsNotNone(building.grounds, 'building grounds is none')
self.assertIsNotNone(building.walls, 'building walls is none')
self.assertIsNotNone(building.roofs, 'building roofs is none')
self.assertIsNone(building.usage_zones, 'usage zones are defined')
self.assertTrue(len(building.thermal_zones) > 0, 'thermal zones are not defined')
self.assertIsNone(building.basement_heated, 'building basement_heated is not none')
self.assertIsNone(building.attic_heated, 'building attic_heated is not none')
self.assertIsNone(building.terrains, 'building terrains is not none')
self.assertIsNotNone(building.year_of_construction, 'building year_of_construction is none')
self.assertIsNotNone(building.function, 'building function is none')
self.assertIsNotNone(building.average_storey_height, 'building average_storey_height is none')
self.assertIsNotNone(building.storeys_above_ground, 'building storeys_above_ground is none')
self.assertEqual(len(building.heating), 0, 'building heating is not none')
self.assertEqual(len(building.cooling), 0, 'building cooling is not none')
self.assertIsNotNone(building.eave_height, 'building eave height is none')
self.assertIsNotNone(building.storeys, 'building storeys are not defined')
self.assertIsNotNone(building.roof_type, 'building roof type is none')
self.assertIsNotNone(building.floor_area, 'building floor_area is none')
self.assertIsNone(building.households, 'building households is not none')
self.assertFalse(building.is_conditioned, 'building is conditioned')
# case 1: NREL
ConstructionFactory('nrel', city).enrich()
for building in city.buildings:
self.assertIsNotNone(building.average_storey_height, 'average_storey_height is none')
self.assertIsNotNone(building.storeys_above_ground, 'storeys_above_ground is none')
self.assertIsNot(len(building.thermal_zones), 0, 'no building thermal_zones defined')
def _check_thermal_zones(self, building):
for thermal_zone in building.thermal_zones:
self.assertIsNotNone(thermal_zone.effective_thermal_capacity, 'effective_thermal_capacity is none')
self.assertIsNotNone(thermal_zone.additional_thermal_bridge_u_value,
'additional_thermal_bridge_u_value is none')
self.assertIsNotNone(thermal_zone.indirectly_heated_area_ratio, 'indirectly_heated_area_ratio is none')
self.assertIsNotNone(thermal_zone.infiltration_rate_system_on, 'infiltration_rate_system_on is none')
self.assertIsNotNone(thermal_zone.infiltration_rate_system_off, 'infiltration_rate_system_off is none')
self.assertIsNotNone(thermal_zone.thermal_boundaries, 'thermal_boundaries is none')
self.assertIsNotNone(thermal_zone.id, 'thermal_zone id is none')
self.assertIsNotNone(thermal_zone.floor_area, 'thermal_zone floor area is none')
self.assertTrue(len(thermal_zone.thermal_boundaries) > 0, 'thermal_zone thermal_boundaries not defined')
self.assertIsNotNone(thermal_zone.additional_thermal_bridge_u_value, 'additional_thermal_bridge_u_value is none')
self.assertIsNotNone(thermal_zone.effective_thermal_capacity, 'thermal_zone effective_thermal_capacity is none')
self.assertIsNotNone(thermal_zone.indirectly_heated_area_ratio,
'thermal_zone indirectly_heated_area_ratio is none')
self.assertIsNotNone(thermal_zone.infiltration_rate_system_off,
'thermal_zone infiltration_rate_system_off is none')
self.assertIsNotNone(thermal_zone.infiltration_rate_system_on, 'thermal_zone infiltration_rate_system_on is none')
self.assertIsNone(thermal_zone.usage_zones, 'thermal_zone usage_zones is not none')
self.assertIsNotNone(thermal_zone.volume, 'thermal_zone volume is none')
self.assertIsNone(thermal_zone.ordinate_number, 'thermal_zone ordinate number is not none')
self.assertIsNone(thermal_zone.thermal_control, 'thermal_zone thermal_control is not none')
self.assertIsNone(thermal_zone.hvac_system, 'thermal_zone hvac_system is not none')
def _check_thermal_boundaries(self, thermal_zone):
for thermal_boundary in thermal_zone.thermal_boundaries:
if thermal_boundary.surface.type != 'Ground':
self.assertIsNotNone(thermal_boundary.id, 'thermal_boundary id is none')
self.assertIsNotNone(thermal_boundary.parent_surface, 'thermal_boundary surface is none')
self.assertIsNotNone(thermal_boundary.thermal_zones, 'thermal_boundary delimits is none')
self.assertIsNotNone(thermal_boundary.opaque_area, 'thermal_boundary area is none')
self.assertIsNotNone(thermal_boundary.azimuth, 'thermal_boundary azimuth is none')
self.assertIsNotNone(thermal_boundary.inclination, 'thermal_boundary inclination is none')
self.assertIsNotNone(thermal_boundary.thickness, 'thermal_boundary thickness is none')
self.assertIsNotNone(thermal_boundary.type, 'thermal_boundary type is none')
if thermal_boundary.type is not cte.GROUND:
self.assertIsNotNone(thermal_boundary.outside_solar_absorptance, 'outside_solar_absorptance is none')
self.assertIsNotNone(thermal_boundary.shortwave_reflectance, 'shortwave_reflectance is none')
else:
self.assertIsNone(thermal_boundary.outside_solar_absorptance, 'outside_solar_absorptance is not none')
self.assertIsNone(thermal_boundary.shortwave_reflectance, 'shortwave_reflectance is not none')
self.assertIsNotNone(thermal_boundary.thermal_openings, 'thermal_openings is none')
self.assertIsNotNone(thermal_boundary.construction_name, 'construction_name is none')
self.assertIsNotNone(thermal_boundary.window_ratio, 'window_ratio is none')
for layer in thermal_boundary.layers:
self.assertTrue(city.lca_material(layer.material.lca_id) is not None)
self.assertIsNone(thermal_boundary.windows_areas, 'windows_areas is not none')
self.assertIsNotNone(thermal_boundary.u_value, 'u_value is none')
self.assertIsNotNone(thermal_boundary.hi, 'hi is none')
self.assertIsNotNone(thermal_boundary.he, 'he is none')
self.assertIsNotNone(thermal_boundary.virtual_internal_surface, 'virtual_internal_surface is none')
self.assertIsNone(thermal_boundary.inside_emissivity, 'inside_emissivity is not none')
self.assertIsNone(thermal_boundary.alpha_coefficient, 'alpha_coefficient is not none')
self.assertIsNone(thermal_boundary.radiative_coefficient, 'radiative_coefficient is not none')
def _check_thermal_openings(self, thermal_boundary):
for thermal_opening in thermal_boundary.thermal_openings:
self.assertIsNotNone(thermal_opening.id, 'thermal opening id is not none')
self.assertIsNotNone(thermal_opening.area, 'thermal opening area is not none')
self.assertRaises(Exception, lambda: thermal_opening.openable_ratio,
'thermal_opening openable_ratio is not raising an exception')
self.assertIsNotNone(thermal_opening.frame_ratio, 'thermal opening frame_ratio is not none')
self.assertIsNotNone(thermal_opening.g_value, 'thermal opening g_value is not none')
self.assertIsNotNone(thermal_opening.overall_u_value, 'thermal opening overall_u_value is not none')
self.assertIsNotNone(thermal_opening.hi, 'thermal opening hi is not none')
self.assertIsNotNone(thermal_opening.he, 'thermal opening he is not none')
self.assertIsNone(thermal_opening.inside_emissivity, 'thermal opening inside_emissivity is not none')
self.assertIsNone(thermal_opening.alpha_coefficient, 'thermal opening alpha_coefficient is not none')
self.assertIsNone(thermal_opening.radiative_coefficient, 'thermal opening radiative_coefficient is not none')
def test_citygml_function(self):
"""
Test city objects' functions in the city
"""
# case 1: hft
file = 'one_building_in_kelowna.gml'
function_format = 'hft'
city = self._get_citygml(file)
for building in city.buildings:
building.function = self._internal_function(function_format, building.function)
self.assertEqual(building.function, 'residential', 'format hft')
# case 2: Pluto
file = 'pluto_building.gml'
function_format = 'pluto'
city = self._get_citygml(file)
for building in city.buildings:
building.function = self._internal_function(function_format, building.function)
self.assertEqual(building.function, 'secondary school', 'format pluto')
# case 3: Alkis
file = 'one_building_in_kelowna_alkis.gml'
function_format = 'alkis'
city = self._get_citygml(file)
for building in city.buildings:
self.assertRaises(Exception, lambda: self._internal_function(function_format, building.function))
def test_city_with_construction_reduced_library(self):
"""
@ -72,21 +165,69 @@ class TestConstructionFactory(TestCase):
city = self._get_citygml(file)
for building in city.buildings:
building.function = GeometryHelper.hft_to_function[building.function]
# case 2: NRCAN
ConstructionFactory('nrcan', city).enrich()
self._check_buildings(city)
for building in city.buildings:
self.assertIsNotNone(building.average_storey_height, 'average_storey_height is none')
self.assertIsNotNone(building.storeys_above_ground, 'storeys_above_ground is none')
self.assertIsNot(len(building.thermal_zones), 0, 'no building thermal_zones defined')
self._check_thermal_zones(building)
for thermal_zone in building.thermal_zones:
self.assertIsNotNone(thermal_zone.effective_thermal_capacity, 'effective_thermal_capacity is none')
self.assertIsNotNone(thermal_zone.additional_thermal_bridge_u_value,
'additional_thermal_bridge_u_value is none')
self.assertIsNotNone(thermal_zone.indirectly_heated_area_ratio, 'indirectly_heated_area_ratio is none')
self.assertIsNotNone(thermal_zone.infiltration_rate_system_on, 'infiltration_rate_system_on is none')
self.assertIsNotNone(thermal_zone.infiltration_rate_system_off, 'infiltration_rate_system_off is none')
self.assertIsNotNone(thermal_zone.thermal_boundaries, 'thermal_boundaries is none')
self.assertIsNot(len(thermal_zone.thermal_boundaries), 0, 'no boundaries of thermal_zone defined')
self._check_thermal_boundaries(thermal_zone)
for thermal_boundary in thermal_zone.thermal_boundaries:
self.assertIsNotNone(thermal_boundary.outside_solar_absorptance, 'outside_solar_absorptance is none')
self.assertIsNotNone(thermal_boundary.window_ratio, 'window_ratio is none')
self.assertIsNone(thermal_boundary.outside_thermal_absorptance, 'outside_thermal_absorptance is not none')
self.assertIsNone(thermal_boundary.outside_visible_absorptance, 'outside_visible_absorptance is not none')
self.assertIsNone(thermal_boundary.layers, 'layers is not none')
self._check_thermal_openings(thermal_boundary)
for thermal_opening in thermal_boundary.thermal_openings:
self.assertIsNone(thermal_opening.conductivity, 'thermal_opening conductivity is not none')
self.assertIsNone(thermal_opening.thickness, 'thermal opening thickness is not none')
self.assertIsNone(thermal_opening.front_side_solar_transmittance_at_normal_incidence,
'thermal opening front_side_solar_transmittance_at_normal_incidence is not none')
self.assertIsNone(thermal_opening.back_side_solar_transmittance_at_normal_incidence,
'thermal opening back_side_solar_transmittance_at_normal_incidence is not none')
def test_city_with_construction_extended_library(self):
"""
Enrich the city with the construction information and verify it
"""
file = 'pluto_building.gml'
city = self._get_citygml(file)
for building in city.buildings:
building.function = GeometryHelper.pluto_to_function[building.function]
ConstructionFactory('nrel', city).enrich()
self._check_buildings(city)
for building in city.buildings:
self._check_thermal_zones(building)
for thermal_zone in building.thermal_zones:
self._check_thermal_boundaries(thermal_zone)
for thermal_boundary in thermal_zone.thermal_boundaries:
if thermal_boundary.type is not cte.GROUND:
self.assertIsNotNone(thermal_boundary.outside_thermal_absorptance, 'outside_thermal_absorptance is none')
self.assertIsNotNone(thermal_boundary.outside_visible_absorptance, 'outside_visible_absorptance is none')
else:
self.assertIsNone(thermal_boundary.outside_thermal_absorptance, 'outside_thermal_absorptance is not none')
self.assertIsNone(thermal_boundary.outside_visible_absorptance, 'outside_visible_absorptance is not none')
self.assertIsNotNone(thermal_boundary.layers, 'layers is none')
self._check_thermal_openings(thermal_boundary)
for thermal_opening in thermal_boundary.thermal_openings:
self.assertIsNotNone(thermal_opening.conductivity, 'thermal_opening conductivity is none')
self.assertIsNotNone(thermal_opening.thickness, 'thermal opening thickness is none')
self.assertIsNotNone(thermal_opening.front_side_solar_transmittance_at_normal_incidence,
'thermal opening front_side_solar_transmittance_at_normal_incidence is none')
self.assertIsNotNone(thermal_opening.back_side_solar_transmittance_at_normal_incidence,
'thermal opening back_side_solar_transmittance_at_normal_incidence is none')
@staticmethod
def _internal_function(function_format, original_function):
if function_format == 'hft':
new_function = GeometryHelper.hft_to_function[original_function]
elif function_format == 'pluto':
new_function = GeometryHelper.pluto_to_function[original_function]
elif function_format == 'alkis':
# todo: not implemented yet!!
raise NotImplementedError
else:
raise Exception('Function key not recognized. Implemented only "hft" and "pluto"')
return new_function

245
unittests/test_geometry_factory.py
View File

@ -6,8 +6,6 @@ Copyright © 2020 Project Author Pilar Monsalvete Alvarez de Uribarri pilar.mons
from pathlib import Path
from unittest import TestCase
from imports.geometry_factory import GeometryFactory
from imports.geometry.helpers.geometry_helper import GeometryHelper
from city_model_structure.building_demand.thermal_opening import ThermalOpening
class TestGeometryFactory(TestCase):
@ -36,20 +34,65 @@ class TestGeometryFactory(TestCase):
self.assertIsNotNone(self._city, 'city is none')
return self._city
@staticmethod
def _internal_function(function_format, original_function):
new_function = original_function
if function_format == 'hft':
new_function = GeometryHelper.hft_to_function[original_function]
elif function_format == 'pluto':
new_function = GeometryHelper.pluto_to_function[original_function]
elif function_format == 'alkis':
# todo: not implemented yet!!
raise NotImplementedError
return new_function
def _check_buildings(self, city):
for building in city.buildings:
self.assertIsNotNone(building.name, 'building name is none')
self.assertIsNotNone(building.lod, 'building lod is none')
self.assertIsNotNone(building.type, 'building type is none')
self.assertIsNotNone(building.volume, 'building volume is none')
self.assertIsNotNone(building.detailed_polyhedron, 'building detailed polyhedron is none')
self.assertIsNotNone(building.simplified_polyhedron, 'building simplified polyhedron is none')
self.assertIsNotNone(building.surfaces, 'building surfaces is none')
self.assertIsNotNone(building.centroid, 'building centroid is none')
self.assertIsNotNone(building.max_height, 'building max_height is none')
self.assertEqual(len(building.external_temperature), 0, 'building external temperature is calculated')
self.assertEqual(len(building.global_horizontal), 0, 'building global horizontal is calculated')
self.assertEqual(len(building.diffuse), 0, 'building diffuse is calculated')
self.assertEqual(len(building.beam), 0, 'building beam is calculated')
self.assertIsNotNone(building.lower_corner, 'building lower corner is none')
self.assertEqual(len(building.sensors), 0, 'building sensors are assigned')
self.assertIsNotNone(building.geometrical_zones, 'no geometrical zones created')
self.assertIsNotNone(building.grounds, 'building grounds is none')
self.assertIsNotNone(building.walls, 'building walls is none')
self.assertIsNotNone(building.roofs, 'building roofs is none')
self.assertIsNone(building.usage_zones, 'usage zones are defined')
self.assertIsNone(building.thermal_zones, 'thermal zones are defined')
self.assertIsNone(building.basement_heated, 'building basement_heated is not none')
self.assertIsNone(building.attic_heated, 'building attic_heated is not none')
self.assertIsNone(building.terrains, 'building terrains is not none')
self.assertIsNotNone(building.year_of_construction, 'building year_of_construction is none')
self.assertIsNotNone(building.function, 'building function is none')
self.assertIsNone(building.average_storey_height, 'building average_storey_height is not none')
self.assertIsNone(building.storeys_above_ground, 'building storeys_above_ground is not none')
self.assertEqual(len(building.heating), 0, 'building heating is not none')
self.assertEqual(len(building.cooling), 0, 'building cooling is not none')
self.assertIsNotNone(building.eave_height, 'building eave height is none')
self.assertIsNone(building.storeys, 'building storeys are defined')
self.assertIsNotNone(building.roof_type, 'building roof type is none')
self.assertIsNotNone(building.floor_area, 'building floor_area is none')
self.assertIsNone(building.households, 'building households is not none')
self.assertFalse(building.is_conditioned, 'building is_conditioned is conditioned')
def _check_surfaces(self, building):
for surface in building.surfaces:
self.assertIsNotNone(surface.name, 'surface name is none')
self.assertIsNotNone(surface.id, 'surface id is none')
self.assertIsNone(surface.swr, 'surface swr is not none')
self.assertIsNotNone(surface.lower_corner, 'surface envelope_lower_corner is none')
self.assertIsNotNone(surface.upper_corner, 'surface envelope_upper_corner is none')
self.assertIsNotNone(surface.area_below_ground, 'surface area_below_ground is none')
self.assertIsNotNone(surface.area_above_ground, 'surface area_above_ground is none')
self.assertIsNotNone(surface.azimuth, 'surface azimuth is none')
self.assertIsNotNone(surface.type, 'surface type is none')
self.assertIsNotNone(surface.inclination, 'surface inclination is none')
self.assertEqual(len(surface.global_irradiance), 0, 'global irradiance is calculated')
self.assertIsNotNone(surface.perimeter_polygon, 'surface perimeter_polygon is none')
self.assertIsNone(surface.holes_polygons, 'surface hole_polygons is not none')
self.assertIsNotNone(surface.solid_polygon, 'surface solid_polygon is none')
self.assertIsNone(surface.pv_system_installed, 'surface PV system installed is not none')
# citygml_classes
def test_citygml_buildings(self):
def test_import_citygml(self):
"""
Test city objects in the city
:return: None
@ -57,175 +100,9 @@ class TestGeometryFactory(TestCase):
file = 'one_building_in_kelowna.gml'
city = self._get_citygml(file)
self.assertTrue(len(city.buildings) == 1)
self._check_buildings(city)
for building in city.buildings:
self.assertIsNotNone(building.name, 'building name is none')
self.assertIsNotNone(building.lod, 'building lod is none')
self.assertIsNotNone(building.centroid, 'building centroid is none')
self.assertIsNotNone(building.year_of_construction, 'building year_of_construction is none')
self.assertIsNotNone(building.function, 'building function is none')
self.assertIsNotNone(building.volume, 'building volume is none')
self.assertIsNotNone(building.surfaces, 'building surfaces is none')
self.assertIsNotNone(building.surfaces[0].name, 'surface not found')
self.assertIsNone(building.basement_heated, 'building basement_heated is not none')
self.assertIsNone(building.attic_heated, 'building attic_heated is not none')
self.assertIsNotNone(building.terrains, 'building terrains is none')
self.assertIsNone(building.average_storey_height, 'building average_storey_height is not none')
self.assertIsNotNone(building.type, 'building type is none')
self.assertIsNotNone(building.max_height, 'building max_height is none')
self.assertIsNotNone(building.floor_area, 'building floor_area is none')
def test_citygml_surfaces(self):
"""
Test surfaces in city objects
:return: None
"""
file = 'one_building_in_kelowna.gml'
city = self._get_citygml(file)
for building in city.buildings:
for surface in building.surfaces:
self.assertIsNotNone(surface.name, 'surface name is none')
self.assertIsNotNone(surface.type, 'surface type is none')
self.assertIsNotNone(surface.azimuth, 'surface azimuth is none')
self.assertIsNotNone(surface.inclination, 'surface inclination is none')
self.assertIsNotNone(surface.area_below_ground, 'surface area_below_ground is none')
self.assertIsNotNone(surface.area_above_ground, 'surface area_above_ground is none')
self.assertIsNotNone(surface.global_irradiance, 'monthly irradiance is none')
self.assertIsNone(surface.swr, 'surface swr is not none')
self.assertIsNotNone(surface.lower_corner, 'surface envelope_lower_corner is none')
self.assertIsNotNone(surface.upper_corner, 'surface envelope_upper_corner is none')
self.assertIsNotNone(surface.area_above_ground, 'surface area_above_ground is none')
self.assertIsNotNone(surface.perimeter_polygon, 'surface perimeter_polygon is none')
self.assertIsNone(surface.holes_polygons, 'surface hole_polygons is not none')
self.assertIsNotNone(surface.solid_polygon, 'surface solid_polygon is none')
def test_citygml_thermal_zone(self):
"""
Test thermal zones in city objects
:return: None
"""
file = 'one_building_in_kelowna.gml'
city = self._get_citygml(file)
for building in city.buildings:
self.assertIsNot(len(building.thermal_zones), 0, 'no building thermal_zones defined')
for thermal_zone in building.thermal_zones:
self.assertIsNotNone(thermal_zone.thermal_boundaries, 'thermal_zone thermal_boundaries is none')
self.assertIsNotNone(thermal_zone.floor_area, 'thermal_zone floor_area is none')
self.assertIsNone(thermal_zone.additional_thermal_bridge_u_value,
'thermal_zone additional_thermal_bridge_u_value is not none')
self.assertIsNone(thermal_zone.effective_thermal_capacity,
'thermal_zone effective_thermal_capacity is not none')
self.assertIsNone(thermal_zone.indirectly_heated_area_ratio,
'thermal_zone indirectly_heated_area_ratio is not none')
self.assertIsNone(thermal_zone.infiltration_rate_system_off,
'thermal_zone infiltration_rate_system_off is not none')
self.assertIsNone(thermal_zone.infiltration_rate_system_on,
'thermal_zone infiltration_rate_system_on is not none')
self.assertIsNone(thermal_zone.usage_zones,
'thermal_zone usage_zones are not none')
def test_citygml_thermal_boundary(self):
"""
Test thermal boundaries in thermal zones
:return: None
"""
file = 'one_building_in_kelowna.gml'
city = self._get_citygml(file)
for building in city.buildings:
self.assertIsNot(len(building.thermal_zones), 0, 'no building thermal_zones defined')
for thermal_zone in building.thermal_zones:
self.assertIsNot(len(thermal_zone.thermal_boundaries), 0, 'no building thermal_boundaries defined')
for thermal_boundary in thermal_zone.thermal_boundaries:
print(thermal_boundary.surface.type)
print(thermal_boundary.surface.area_above_ground)
self.assertIsNotNone(thermal_boundary.surface, 'thermal_boundary surface is none')
self.assertIsNotNone(thermal_boundary.type, 'thermal_boundary type is none')
self.assertIsNotNone(thermal_boundary.area, 'thermal_boundary area is none')
self.assertIsNotNone(thermal_boundary.azimuth, 'thermal_boundary azimuth is none')
self.assertIsNotNone(thermal_boundary.thermal_zones, 'thermal_boundary delimits is none')
self.assertIsNotNone(thermal_boundary.inclination, 'thermal_boundary inclination is none')
def test_citygml_thermal_opening(self):
"""
Test thermal openings in thermal zones
:return: None
"""
file = 'one_building_in_kelowna.gml'
city = self._get_citygml(file)
for building in city.buildings:
self.assertIsNot(len(building.thermal_zones), 0, 'no building thermal_zones defined')
for thermal_zone in building.thermal_zones:
self.assertIsNot(len(thermal_zone.thermal_boundaries), 0, 'no building thermal_boundaries defined')
for thermal_boundary in thermal_zone.thermal_boundaries:
thermal_opening: ThermalOpening
for thermal_opening in thermal_boundary.thermal_openings:
self.assertIsNone(thermal_opening.frame_ratio, 'thermal_opening frame_ratio was initialized')
self.assertIsNone(thermal_opening.g_value, 'thermal_opening g_value was initialized')
self.assertIsNone(thermal_opening.conductivity, 'thermal_opening conductivity_w_mk was initialized')
self.assertIsNone(thermal_opening.back_side_solar_transmittance_at_normal_incidence,
'thermal_opening back_side_solar_transmittance_at_normal_incidence was initialized')
self.assertRaises(Exception, lambda: thermal_opening.openable_ratio,
'thermal_opening openable_ratio is not raising an exception')
self.assertIsNone(thermal_opening.front_side_solar_transmittance_at_normal_incidence,
'thermal_opening front_side_solar_transmittance_at_normal_incidence was initialized')
self.assertIsNone(thermal_opening.thickness, 'thermal_opening thickness_m was initialized')
self.assertRaises(Exception, lambda: thermal_opening.overall_u_value,
'thermal_opening u_value was initialized')
self.assertIsNone(thermal_opening.overall_u_value, 'thermal_opening overall_u_value was initialized')
self.assertIsNone(thermal_opening.hi, 'thermal_opening hi was initialized')
self.assertIsNone(thermal_opening.he, 'thermal_opening he was initialized')
def test_citygml_function(self):
"""
Test city objects' functions in the city
:return: None
"""
# case 1: hft
file = 'one_building_in_kelowna.gml'
function_format = 'hft'
city = self._get_citygml(file)
for building in city.buildings:
building.function = self._internal_function(function_format, building.function)
self.assertEqual(building.function, 'residential', 'format hft')
# case 2: Pluto
file = 'pluto_building.gml'
function_format = 'pluto'
city = self._get_citygml(file)
for building in city.buildings:
building.function = self._internal_function(function_format, building.function)
self.assertEqual(building.function, 'secondary school', 'format pluto')
# case 3: Alkis
file = 'one_building_in_kelowna_alkis.gml'
function_format = 'alkis'
city = self._get_citygml(file)
for building in city.buildings:
self.assertRaises(Exception, lambda: self._internal_function(function_format, building.function))
def test_citygml_storeys(self):
"""
Test division by storeys of buildings
:return: None
"""
file = 'one_building_in_kelowna.gml'
city = self._get_citygml(file)
for building in city.buildings:
print('building')
for surface in building.surfaces:
print(surface.name)
print(surface.type)
print(surface.perimeter_polygon.area)
building.average_storey_height = 1.5
building.storeys_above_ground = 2
storeys = building.storeys
for storey in storeys:
print(storey.name)
print(storey.neighbours)
for surface in storey.surfaces:
print(surface.name)
print(surface.type)
print(surface.perimeter_polygon.area)
self._check_surfaces(building)
# obj
def test_import_obj(self):
@ -235,8 +112,10 @@ class TestGeometryFactory(TestCase):
file = 'kelowna.obj'
city = self._get_obj(file)
self.assertIsNotNone(city, 'city is none')
self.assertTrue(len(city.buildings) == 1)
self._check_buildings(city)
for building in city.buildings:
self.assertIsNotNone(building, 'building is none')
self._check_surfaces(building)
# osm
def test_subway(self):

6
unittests/test_life_cycle_assessment_factory.py
View File

@ -47,10 +47,8 @@ class TestLifeCycleAssessment(TestCase):
city_file = "../unittests/tests_data/C40_Final.gml"
city = GeometryFactory('citygml', city_file).city
LifeCycleAssessment('material', city).enrich()
self.assertTrue(len(city.lca_materials) > 0)
for lca_material in city.lca_materials:
lca_mat = city.lca_material(lca_material.id)
self.assertTrue(lca_mat is not None)
for material in city.materials:
self.assertTrue(len(city.materials) > 0)

1
unittests/test_schedules_factory.py
View File

@ -67,3 +67,4 @@ class TestSchedulesFactory(TestCase):
for usage_zone in building.usage_zones:
for schedule in usage_zone.schedules:
print(schedule)
print(usage_zone.schedules[schedule])

4
unittests/test_sensors_factory.py
View File

@ -50,8 +50,8 @@ class TestSensorsFactory(TestCase):
Load concordia sensors and verify it
"""
SensorsFactory('cec', self._city, self._end_point).enrich()
# SensorsFactory('cgf', self._city, self._end_point).enrich()
# SensorsFactory('ct', self._city, self._end_point).enrich()
SensorsFactory('cgf', self._city, self._end_point).enrich()
SensorsFactory('ct', self._city, self._end_point).enrich()
for city_object in self._city.city_objects:
print(city_object.name, len(city_object.sensors))
for sensor in city_object.sensors:

146
unittests/test_usage_factory.py
View File

@ -7,8 +7,8 @@ from pathlib import Path
from unittest import TestCase
from imports.geometry_factory import GeometryFactory
from imports.construction_factory import ConstructionFactory
from imports.usage_factory import UsageFactory
from imports.schedules_factory import SchedulesFactory
from imports.construction_factory import ConstructionFactory
from imports.geometry.helpers.geometry_helper import GeometryHelper
from imports.construction_factory import ConstructionFactory
@ -23,40 +23,76 @@ class TestUsageFactory(TestCase):
Configure test environment
:return:
"""
self._city = None
self._example_path = (Path(__file__).parent / 'tests_data').resolve()
def _get_citygml(self, file):
file_path = (self._example_path / file).resolve()
_city = GeometryFactory('citygml', file_path).city
self.assertIsNotNone(_city, 'city is none')
return _city
self._city = GeometryFactory('citygml', file_path).city
self.assertIsNotNone(self._city, 'city is none')
return self._city
def test_comnet(self):
file = 'pluto_building.gml'
city = self._get_citygml(file)
def _check_buildings(self, city):
for building in city.buildings:
building.function = GeometryHelper.pluto_to_function[building.function]
self.assertIsNotNone(building.name, 'building name is none')
self.assertIsNotNone(building.lod, 'building lod is none')
self.assertIsNotNone(building.type, 'building type is none')
self.assertIsNotNone(building.volume, 'building volume is none')
self.assertIsNotNone(building.detailed_polyhedron, 'building detailed polyhedron is none')
self.assertIsNotNone(building.simplified_polyhedron, 'building simplified polyhedron is none')
self.assertIsNotNone(building.surfaces, 'building surfaces is none')
self.assertIsNotNone(building.centroid, 'building centroid is none')
self.assertIsNotNone(building.max_height, 'building max_height is none')
self.assertEqual(len(building.external_temperature), 0, 'building external temperature is calculated')
self.assertEqual(len(building.global_horizontal), 0, 'building global horizontal is calculated')
self.assertEqual(len(building.diffuse), 0, 'building diffuse is calculated')
self.assertEqual(len(building.beam), 0, 'building beam is calculated')
self.assertIsNotNone(building.lower_corner, 'building lower corner is none')
self.assertEqual(len(building.sensors), 0, 'building sensors are assigned')
self.assertIsNotNone(building.geometrical_zones, 'no geometrical zones created')
self.assertIsNotNone(building.grounds, 'building grounds is none')
self.assertIsNotNone(building.walls, 'building walls is none')
self.assertIsNotNone(building.roofs, 'building roofs is none')
self.assertTrue(len(building.usage_zones) > 0, 'usage zones are not defined')
self.assertTrue(len(building.thermal_zones) > 0, 'thermal zones are not defined')
self.assertIsNotNone(building.basement_heated, 'building basement_heated is none')
self.assertIsNotNone(building.attic_heated, 'building attic_heated is none')
self.assertIsNone(building.terrains, 'building terrains is not none')
self.assertIsNotNone(building.year_of_construction, 'building year_of_construction is none')
self.assertIsNotNone(building.function, 'building function is none')
self.assertIsNotNone(building.average_storey_height, 'building average_storey_height is none')
self.assertIsNotNone(building.storeys_above_ground, 'building storeys_above_ground is none')
self.assertEqual(len(building.heating), 0, 'building heating is not none')
self.assertEqual(len(building.cooling), 0, 'building cooling is not none')
self.assertIsNotNone(building.eave_height, 'building eave height is none')
self.assertIsNotNone(building.storeys, 'building storeys are not defined')
self.assertIsNotNone(building.roof_type, 'building roof type is none')
self.assertIsNotNone(building.floor_area, 'building floor_area is none')
self.assertIsNone(building.households, 'building households is not none')
self.assertTrue(building.is_conditioned, 'building is not conditioned')
ConstructionFactory('nrel', city).enrich()
UsageFactory('comnet', city).enrich()
def _check_thermal_zones(self, building):
for thermal_zone in building.thermal_zones:
self.assertIsNotNone(thermal_zone.id, 'thermal_zone id is none')
self.assertIsNotNone(thermal_zone.floor_area, 'thermal_zone floor area is none')
self.assertTrue(len(thermal_zone.thermal_boundaries) > 0, 'thermal_zone thermal_boundaries not defined')
self.assertIsNotNone(thermal_zone.additional_thermal_bridge_u_value, 'additional_thermal_bridge_u_value is none')
self.assertIsNotNone(thermal_zone.effective_thermal_capacity, 'thermal_zone effective_thermal_capacity is none')
self.assertIsNotNone(thermal_zone.indirectly_heated_area_ratio,
'thermal_zone indirectly_heated_area_ratio is none')
self.assertIsNotNone(thermal_zone.infiltration_rate_system_off,
'thermal_zone infiltration_rate_system_off is none')
self.assertIsNotNone(thermal_zone.infiltration_rate_system_on, 'thermal_zone infiltration_rate_system_on is none')
self.assertIsNotNone(thermal_zone.usage_zones, 'thermal_zone usage_zones is none')
self.assertIsNotNone(thermal_zone.volume, 'thermal_zone volume is none')
self.assertIsNone(thermal_zone.ordinate_number, 'thermal_zone ordinate number is not none')
self.assertIsNotNone(thermal_zone.thermal_control, 'thermal_zone thermal_control is not none')
self.assertIsNotNone(thermal_zone.hvac_system, 'thermal_zone hvac_system is not none')
def test_city_with_usage(self):
"""
Enrich the city with the usage information and verify it
:return: None
"""
# case 1: HFT
file = 'pluto_building.gml'
city = self._get_citygml(file)
for building in city.buildings:
building.function = GeometryHelper.pluto_to_function[building.function]
ConstructionFactory('nrel', city).enrich()
UsageFactory('hft', city).enrich()
for building in city.buildings:
self.assertIsNot(len(building.usage_zones), 0, 'no building usage_zones defined')
def _check_usage_zones(self, building):
for usage_zone in building.usage_zones:
self.assertIsNotNone(usage_zone.usage, 'usage is none')
self.assertIsNotNone(usage_zone.internal_gains, 'usage is none')
self.assertIsNotNone(usage_zone.not_detailed_source_mean_annual_internal_gains, 'usage is none')
self.assertIsNotNone(usage_zone.cooling_setpoint, 'usage is none')
self.assertIsNotNone(usage_zone.heating_setback, 'usage is none')
self.assertIsNotNone(usage_zone.heating_setpoint, 'usage is none')
@ -69,8 +105,64 @@ class TestUsageFactory(TestCase):
self.assertIsNotNone(usage_zone.is_heated, 'thermal_zone heated is none')
self.assertIsNotNone(usage_zone.is_cooled, 'thermal_zone cooled is none')
def _check_hvac(self, thermal_zone):
self.assertIsNotNone(None, 'hvac')
# case 2: CA
def _check_control(self, thermal_zone):
self.assertIsNotNone(None, 'control')
def test_import_comnet(self):
"""
Enrich the city with the usage information from comnet and verify it
"""
file = 'pluto_building.gml'
city = self._get_citygml(file)
for building in city.buildings:
building.function = GeometryHelper.pluto_to_function[building.function]
ConstructionFactory('nrel', city).enrich()
UsageFactory('comnet', city).enrich()
SchedulesFactory('comnet', city).enrich()
self._check_buildings(city)
for building in city.buildings:
self._check_thermal_zones(building)
for thermal_zone in building.thermal_zones:
self._check_hvac(thermal_zone)
self._check_control(thermal_zone)
self.assertIsNotNone(building.usage_zones, 'building usage zones is none')
self._check_usage_zones(building)
def test_import_hft(self):
"""
Enrich the city with the usage information from hft and verify it
"""
file = 'pluto_building.gml'
city = self._get_citygml(file)
for building in city.buildings:
building.function = GeometryHelper.pluto_to_function[building.function]
ConstructionFactory('nrel', city).enrich()
UsageFactory('hft', city).enrich()
for building in city.buildings:
self.assertIsNot(len(building.usage_zones), 0, 'no building usage_zones defined')
for usage_zone in building.usage_zones:
self.assertIsNotNone(usage_zone.usage, 'usage is none')
self.assertIsNotNone(usage_zone.not_detailed_source_mean_annual_internal_gains, 'usage is none')
self.assertIsNotNone(usage_zone.cooling_setpoint, 'usage is none')
self.assertIsNotNone(usage_zone.heating_setback, 'usage is none')
self.assertIsNotNone(usage_zone.heating_setpoint, 'usage is none')
self.assertIsNotNone(usage_zone.occupancy_density, 'usage is none')
self.assertIsNotNone(usage_zone.hours_day, 'usage is none')
self.assertIsNotNone(usage_zone.days_year, 'usage is none')
self.assertIsNotNone(usage_zone.dhw_average_volume_pers_day, 'usage is none')
self.assertIsNotNone(usage_zone.dhw_preparation_temperature, 'usage is none')
self.assertIsNotNone(usage_zone.electrical_app_average_consumption_sqm_year, 'usage is none')
self.assertIsNotNone(usage_zone.is_heated, 'thermal_zone heated is none')
self.assertIsNotNone(usage_zone.is_cooled, 'thermal_zone cooled is none')
def test_import_ca(self):
"""
Enrich the city with the usage information from hft and verify it
"""
file = 'one_building_in_kelowna.gml'
city = self._get_citygml(file)
ConstructionFactory('nrel', city).enrich()
@ -79,7 +171,7 @@ class TestUsageFactory(TestCase):
self.assertIsNot(len(building.usage_zones), 0, 'no building usage_zones defined')
for usage_zone in building.usage_zones:
self.assertIsNotNone(usage_zone.usage, 'usage is none')
self.assertIsNotNone(usage_zone.internal_gains, 'usage is none')
self.assertIsNotNone(usage_zone.not_detailed_source_mean_annual_internal_gains, 'usage is none')
self.assertIsNotNone(usage_zone.cooling_setpoint, 'usage is none')
self.assertIsNotNone(usage_zone.heating_setback, 'usage is none')
self.assertIsNotNone(usage_zone.heating_setpoint, 'usage is none')