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Merge remote-tracking branch 'origin/geojson' into geojson

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This commit is contained in:
Pilar Monsalvete 2023-04-25 10:00:18 -04:00
commit a3f0478558
35 changed files with 27963 additions and 2146 deletions
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10
hub/catalog_factories/cost/montreal_custom_catalog.py
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@ -20,7 +20,7 @@ from hub.catalog_factories.data_models.cost.cost_helper import CostHelper
class MontrealCustomCatalog(Catalog):
def __init__(self, path):
path = str(path / 'montreal_costs.xml')
path = 'C:/Users/JGAVALDA/PycharmProjects/hub/hub/data/costs/montreal_costs.xml'
with open(path) as xml:
self._archetypes = xmltodict.parse(xml.read(), force_list='archetype')
@ -67,7 +67,6 @@ class MontrealCustomCatalog(Catalog):
item_description = self._item_with_refurbishment_values(shell['B30_roofing'], item_type)
items_list.append(item_description)
general_chapters.append(Chapter('B_shell', items_list))
items_list = []
item_type = 'D301010_photovoltaic_system'
services = entry['D_services']
@ -82,7 +81,6 @@ class MontrealCustomCatalog(Catalog):
item_description = self._item_with_threesome(services['D50_electrical'], item_type)
items_list.append(item_description)
general_chapters.append(Chapter('D_services', items_list))
allowances = entry['Z_allowances_overhead_profit']
design_allowance = float(allowances['Z10_design_allowance']['#text']) / 100
overhead_and_profit = float(allowances['Z20_overhead_profit']['#text']) / 100
@ -127,9 +125,9 @@ class MontrealCustomCatalog(Catalog):
for archetype in archetypes:
function = archetype['@function']
municipality = archetype['@municipality']
country = archetype['@country']
lod = float(archetype['@lod'])
currency = archetype['currency']
country = 'CA'#archetype['@country']
lod = 0 #float(archetype['@lod'])
currency = 'CAD'#archetype['currency']
capital_cost = self._get_capital_costs(archetype['capital_cost'])
operational_cost = self._get_operational_costs(archetype['operational_cost'])
end_of_life_cost = float(archetype['end_of_life_cost']['#text'])

2
hub/catalog_factories/costs_catalog_factory.py
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@ -19,7 +19,7 @@ class CostCatalogFactory:
"""
def __init__(self, file_type, base_path=None):
if base_path is None:
base_path = Path(Path(__file__).parent.parent / 'data/costs')
base_path = 'C:/Users/JGAVALDA/PycharmProjects/hub/hub/data/costs'
self._catalog_type = '_' + file_type.lower()
self._path = base_path

2
hub/catalog_factories/data_models/usages/thermal_control.py
View File

@ -18,6 +18,8 @@ class ThermalControl:
hvac_availability_schedules,
heating_set_point_schedules,
cooling_set_point_schedules):
#todo: eliminate negative value
deltaTsetpoint=0
self._mean_heating_set_point = mean_heating_set_point
self._heating_set_back = heating_set_back
self._mean_cooling_set_point = mean_cooling_set_point

3
hub/catalog_factories/energy_systems/nrcan_catalog.py
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@ -49,7 +49,8 @@ class NrcanCatalog(Catalog):
hvac_schedule_name = space_type['exhaust_schedule']
if 'FAN' in hvac_schedule_name:
hvac_schedule_name = hvac_schedule_name.replace('FAN', 'Fan')
heating_setpoint_schedule_name = space_type['heating_setpoint_schedule']
#todo: get -1 out of the setpoint
heating_setpoint_schedule_name = space_type['heating_setpoint_schedule']-1
cooling_setpoint_schedule_name = space_type['cooling_setpoint_schedule']
occupancy_schedule = self._get_schedules(occupancy_schedule_name)
lighting_schedule = self._get_schedules(lighting_schedule_name)

6
hub/catalog_factories/usage/nrcan_catalog.py
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@ -130,11 +130,11 @@ class NrcanCatalog(Catalog):
# ACH
mechanical_air_change = space_type['ventilation_air_changes']
# cfm/ft2 to m3/m2.s
ventilation_rate = space_type['ventilation_per_area'] / (cte.METERS_TO_FEET * cte.MINUTES_TO_SECONDS)
ventilation_rate = space_type['ventilation_per_area'] * cte.CUBICFEET_TO_CUBIC_METERS_HOUR
if ventilation_rate == 0:
# cfm/person to m3/m2.s
ventilation_rate = space_type['ventilation_per_person'] / (cte.METERS_TO_FEET * cte.MINUTES_TO_SECONDS)\
/ occupancy_density
ventilation_rate = space_type['ventilation_per_person'] * cte.CUBICFEET_TO_CUBIC_METERS_HOUR\
* occupancy_density
lighting_radiative_fraction = space_type['lighting_fraction_radiant']
lighting_convective_fraction = 0

34
hub/city_model_structure/building.py
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@ -44,6 +44,8 @@ class Building(CityObject):
self._lighting_electrical_demand = dict()
self._appliances_electrical_demand = dict()
self._domestic_hot_water_heat_demand = dict()
self._heating_peak_load = dict()
self._cooling_peak_load = dict()
self._eave_height = None
self._grounds = []
self._roofs = []
@ -362,6 +364,38 @@ class Building(CityObject):
"""
self._domestic_hot_water_heat_demand = value
@property
def heating_peak_load(self) -> dict:
"""
Get heating peak load in W
:return: dict{DataFrame(float)}
"""
return self._heating_peak_load
@heating_peak_load.setter
def heating_peak_load(self, value):
"""
Set heating peak load in W
:param value: dict{DataFrame(float)}
"""
self._heating_peak_load = value
@property
def cooling_peak_load(self) -> dict:
"""
Get cooling peak load in W
:return: dict{DataFrame(float)}
"""
return self._cooling_peak_load
@cooling_peak_load.setter
def cooling_peak_load(self, value):
"""
Set peak load in W
:param value: dict{DataFrame(float)}
"""
self._cooling_peak_load = value
@property
def eave_height(self):
"""

7
hub/city_model_structure/building_demand/thermal_zone.py
View File

@ -603,9 +603,11 @@ class ThermalZone:
_mean_peak_flow = 0
_mean_service_temperature = 0
for usage in self.usages:
_mean_peak_density_load += usage.percentage * usage.domestic_hot_water.density
#todo: change hardcoded density DHW
#_mean_peak_density_load += usage.percentage * 1 #usage.domestic_hot_water.density
_mean_peak_flow += usage.percentage * usage.domestic_hot_water.peak_flow
_mean_service_temperature += usage.percentage * usage.domestic_hot_water.service_temperature
# todo: change hardcoded service temperature
_mean_service_temperature += usage.percentage * 45
self._domestic_hot_water.density = _mean_peak_density_load
self._domestic_hot_water.peak_flow = _mean_peak_flow
self._domestic_hot_water.service_temperature = _mean_service_temperature
@ -630,6 +632,7 @@ class ThermalZone:
schedule.values = new_values
_schedules.append(schedule)
self._domestic_hot_water.schedules = _schedules
return self._domestic_hot_water
@property

8
hub/city_model_structure/city_object.py
View File

@ -110,6 +110,14 @@ class CityObject:
"""
return self._surfaces
@surfaces.setter
def surfaces(self, value):
"""
Set city object surfaces
:return: [Surface]
"""
self._surfaces = value
def surface(self, name) -> Union[Surface, None]:
"""
Get the city object surface with a given name

900
hub/data/construction/nrcan_constructions.json
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File diff suppressed because it is too large Load Diff

166
hub/data/costs/montreal_costs_oriol.xml Normal file
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@ -0,0 +1,166 @@
<archetypes>
<archetype function="residential" municipality="montreal" currency="CAD">
<capital_cost>
<ASubstructure>
<A10sub_structural cost_unit="currency/m2"> 15.89 </A10sub_structural>
<A20structural cost_unit="currency/m3"> 215.90 </A20structural>
</ASubstructure>
<BShell>
<B10superstructure>
<reposition cost_unit="currency/m2"> 0 </reposition>
<initial_investment cost_unit="currency/m2"> 0 </initial_investment>
<lifetime_equipment lifetime="years"> 50 </lifetime_equipment>
</B10superstructure>
<B20envelope>
<B2010opaquewalls>
<reposition cost_unit="currency/m2"> 304 </reposition>
<initial_investment cost_unit="currency/m2"> 304 </initial_investment>
<lifetime_equipment lifetime="years"> 50 </lifetime_equipment>
</B2010opaquewalls>
<B2020transparent>
<reposition cost_unit="currency/m2"> 857.14 </reposition>
<initial_investment cost_unit="currency/m2"> 857.14 </initial_investment>
<lifetime_equipment lifetime="years"> 20 </lifetime_equipment>
</B2020transparent>
</B20envelope>
<B30roofing>
<B3010opaqueroof>
<reposition cost_unit="currency/m2"> 118 </reposition>
<initial_investment cost_unit="currency/m2"> 118 </initial_investment>
<lifetime_equipment lifetime="years"> 50 </lifetime_equipment>
</B3010opaqueroof>
<B3020transparentroof>
<reposition cost_unit="currency/m2"> 857.14 </reposition>
<initial_investment cost_unit="currency/m2"> 857.14 </initial_investment>
<lifetime_equipment lifetime="years"> 20 </lifetime_equipment>
</B3020transparentroof>
</B30roofing>
</BShell>
<CInteriors>
<C10Interiorconstruction>
<reposition cost_unit="currency/m2"> 0 </reposition>
<initial_investment cost_unit="currency/m2"> 0 </initial_investment>
<lifetime_equipment lifetime="years"> 50 </lifetime_equipment>
</C10Interiorconstruction>
<C20Stairs>
<reposition cost_unit="currency/m2"> 0 </reposition>
<initial_investment cost_unit="currency/m2"> 0 </initial_investment>
<lifetime_equipment lifetime="years"> 50 </lifetime_equipment>
</C20Stairs>
<C30Interiorfinishes>
<C3010Walls>
<reposition cost_unit="currency/m2"> 50 </reposition>
<initial_investment cost_unit="currency/m2"> 50 </initial_investment>
<lifetime_equipment lifetime="years"> 20 </lifetime_equipment>
</C3010Walls>
<C3020Floors>
<reposition cost_unit="currency/m2"> 62 </reposition>
<initial_investment cost_unit="currency/m2"> 62 </initial_investment>
<lifetime_equipment lifetime="years"> 20 </lifetime_equipment>
</C3020Floors>
<C3030Ceilings>
<reposition cost_unit="currency/m2"> 70 </reposition>
<initial_investment cost_unit="currency/m2"> 70 </initial_investment>
<lifetime_equipment lifetime="years"> 20 </lifetime_equipment>
</C3030Ceilings>
</C30Interiorfinishes>
</CInteriors>
<DServices>
<D10Conveying cost_unit="currency/m2"> 0 </D10Conveying>
<D20Plumbing cost_unit="currency/m2"> 100 </D20Plumbing>
<D30HVAC>
<D3010EnergySupply>
<D301010photovoltaic_system>
<initial_investment cost_unit="currency/m2"> 800 </initial_investment>
<reposition cost_unit="currency/m2"> 800 </reposition>
<lifetime_equipment lifetime="years"> 25 </lifetime_equipment>
</D301010photovoltaic_system>
</D3010EnergySupply>
<D3020Heatgeneratingsystems>
<initial_investment cost_unit="currency/kW"> 622.86 </initial_investment>
<reposition cost_unit="currency/kW"> 622.86 </reposition>
<lifetime_equipment lifetime="years"> 25 </lifetime_equipment>
</D3020Heatgeneratingsystems>
<D3030Coolinggenerationsystems>
<initial_investment cost_unit="currency/kW"> 622.86 </initial_investment>
<reposition cost_unit="currency/kW"> 622.86 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</D3030Coolinggenerationsystems>
<D3040Distributionsystems>
<initial_investment cost_unit="currency/kW"> 0 </initial_investment>
<reposition cost_unit="currency/kW"> 0 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</D3040Distributionsystems>
<D3060Controlsandinstrumentation>
<initial_investment cost_unit="currency/kW"> 0 </initial_investment>
<reposition cost_unit="currency/kW"> 0 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</D3060Controlsandinstrumentation>
<D3080OtherHVAC_AHU>
<initial_investment cost_unit="currency/kW"> 47.62 </initial_investment>
<reposition cost_unit="currency/kW"> 47.62 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</D3080OtherHVAC_AHU>
</D30HVAC>
<D50Electrical>
<D5010Electricalservicesanddistribution>
<initial_investment cost_unit="currency/m2"> 171.43 </initial_investment>
<reposition cost_unit="currency/m2"> 171.43 </reposition>
<lifetime_equipment lifetime="years"> 20 </lifetime_equipment>
</D5010Electricalservicesanddistribution>
<D5020Lightingandbranchwiring>
<initial_investment cost_unit="currency/kW"> 139 </initial_investment>
<reposition cost_unit="currency/kW"> 139 </reposition>
<lifetime_equipment lifetime="years"> 20 </lifetime_equipment>
</D5020Lightingandbranchwiring>
</D50Electrical>
</DServices>
<EEquimentsandfurnishing>
<E10Equipments>
<initial_investment cost_unit="currency/m2"> 0 </initial_investment>
<reposition cost_unit="currency/m2"> 0 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</E10Equipments>
<E10Furnishing>
<initial_investment cost_unit="currency/m2"> 0 </initial_investment>
<reposition cost_unit="currency/m2"> 0 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</E10Furnishing>
</EEquimentsandfurnishing>
<engineer cost_unit="%"> 2.5 </engineer>
</capital_cost>
<operational_cost>
<fuel fuel_type="electricity">
<fixed>
<fixed_monthly cost_unit="currency/month"> 0 </fixed_monthly>
<fixed_power cost_unit="currency/kW"> 0 </fixed_power>
</fixed>
<variable cost_unit="currency/kWh"> 5.6 </variable>
</fuel>
<maintenance>
<heating_equipment cost_unit="currency/kW"> 40 </heating_equipment>
<cooling_equipment cost_unit="currency/kW"> 40 </cooling_equipment>
<general_hvac_equipment cost_unit="currency/(m3/h)"> 0.05 </general_hvac_equipment>
<photovoltaic_system cost_unit="currency/m2"> 1 </photovoltaic_system>
<other_systems cost_unit="currency/m2"> 4.6 </other_systems>
</maintenance>
<CO2_cost cost_unit="currency/kgCO2"> 30 </CO2_cost>
</operational_cost>
<end_of_life_cost cost_unit="currency/m2"> 6.3 </end_of_life_cost>
<incomes>
<subsidies>
<construction_subsidy cost_unit="%"> 2 </construction_subsidy>
<hvac_subsidy cost_unit="%"> 1.5 </hvac_subsidy>
<photovoltaic_subsidy cost_unit="%"> 3.6 </photovoltaic_subsidy>
</subsidies>
<energy_exports>
<electricity cost_unit="currency/kWh"> hourlydatatable </electricity>
<heat cost_unit="currency/kWh"> 0 </heat>
</energy_exports>
<tax_reductions>
<reductions_taxes cost_unit="%"> 2 </reductions_taxes>
</tax_reductions>
<CO2_income cost_unit="currency/kgCO2exported"> 0 </CO2_income>
</incomes>
</archetype>
</archetypes>

212
hub/data/costs/montreal_costs_oriol_LOD0.xml Normal file
View File

@ -0,0 +1,212 @@
<archetypes>
<archetype function="residential" municipality="montreal" currency="CAD">
<capital_cost>
<B_Shell>
<B10_superstructure>
<refurbishment_cost_basement cost_unit="currency/m2"> 0 </refurbishment_cost_basement>
</B10_superstructure>
<B20_envelope>
<B2010_opaquewalls>
<refurbishment_cost cost_unit="currency/m2"> 304 </refurbishment_cost>
</B2010_opaquewalls>
<B2020_transparent>
<refurbishment_cost cost_unit="currency/m2"> 857.14 </refurbishment_cost>
</B2020_transparent>
</B20_envelope>
<B30_roofing>
<B3010_opaqueroof>
<refurbishment_cost cost_unit="currency/m2"> 118 </refurbishment_cost>
</B3010_opaqueroof>
</B30_roofing>
</B_Shell>
<D_Services>
<D30_HVAC>
<D3010_EnergySupply>
<D301010_Photovoltaic_system>
<initial_investment cost_unit="currency/m2"> 800 </initial_investment>
<reposition cost_unit="currency/m2"> 800 </reposition>
<lifetime_equipment lifetime="years"> 25 </lifetime_equipment>
</D301010_Photovoltaic_system>
</D3010_EnergySupply>
<D3020_Heat_generating_systems>
<investment_cost cost_unit="currency/kW"> 622.86 </investment_cost>
<reposition cost_unit="currency/kW"> 622.86 </reposition>
<lifetime_equipment lifetime="years"> 25 </lifetime_equipment>
</D3020_Heat_generating_systems>
<D3030_Cooling_generation_systems>
<investment_cost cost_unit="currency/kW"> 622.86 </investment_cost>
<reposition cost_unit="currency/kW"> 622.86 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</D3030_Cooling_generation_systems>
<D3040_Distributionsystems>
<investment_cost cost_unit="currency/kW"> 0 </investment_cost>
<reposition cost_unit="currency/kW"> 0 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</D3040_Distributionsystems>
<D3080_OtherHVAC_AHU>
<investment_cost cost_unit="currency/kW"> 47.62 </investment_cost>
<reposition cost_unit="currency/kW"> 47.62 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</D3080_OtherHVAC_AHU>
</D30_HVAC>
<D50_Electrical>
<D5020Lightingandbranchwiring>
<refurbishmentcost cost_unit="currency/kW"> 139 </refurbishmentcost>
<reposition cost_unit="currency/kW"> 139 </reposition>
<lifetime_equipment lifetime="years"> 20 </lifetime_equipment>
</D5020Lightingandbranchwiring>
</D50_Electrical>
</D_Services>
<Z_Allowances_overhead_profit>
<Z10_Design_allowance cost_unit="%"> 2.5 </Z10_Design_allowance>
<Z10_Overhead_and_profit cost_unit="%"> 14 </Z10_Overhead_and_profit>
</Z_Allowances_overhead_profit>
</capital_cost>
<operational_cost>
<fuel fuel_type="electricity">
<fixed>
<fixed_monthly cost_unit="currency/month"> 12.27 </fixed_monthly>
<fixed_power cost_unit="currency/month*kW"> 0 </fixed_power>
</fixed>
<variable cost_unit="currency/kWh"> 0.075 </variable>
</fuel>
<fuel fuel_type="gas">
<fixed>
<fixed_monthly cost_unit="currency/month"> 17.71 </fixed_monthly>
</fixed>
<variable cost_unit="currency/kWh"> 0.640 </variable>
</fuel>
<fuel fuel_type="diesel">
<variable cost_unit="currency/l"> 1.2 </variable>
</fuel>
<fuel fuel_type="biomass">
<variable cost_unit="currency/kg"> 0.09 </variable>
</fuel>
<maintenance>
<heating_equipment cost_unit="currency/kW"> 40 </heating_equipment>
<cooling_equipment cost_unit="currency/kW"> 40 </cooling_equipment>
<photovoltaic_system cost_unit="currency/m2"> 1 </photovoltaic_system>
</maintenance>
<CO2_cost cost_unit="currency/kgCO2"> 30 </CO2_cost>
</operational_cost>
<end_of_life_cost cost_unit="currency/m2"> 6.3 </end_of_life_cost>
<incomes>
<subsidies>
<construction_subsidy cost_unit="%"> 2 </construction_subsidy>
<hvac_subsidy cost_unit="%"> 1.5 </hvac_subsidy>
<photovoltaic_subsidy cost_unit="%"> 3.6 </photovoltaic_subsidy>
</subsidies>
<energy_exports>
<electricity cost_unit="currency/kWh"> 0 </electricity>
</energy_exports>
<tax_reductions>
<reductions_taxes cost_unit="%"> 2 </reductions_taxes>
</tax_reductions>
</incomes>
</archetype>
<archetype function="non-residential" municipality="montreal" currency="CAD">
<capital_cost>
<B_Shell>
<B10_superstructure>
<refurbishmentcostbasement cost_unit="currency/m2"> 0 </refurbishmentcostbasement>
</B10_superstructure>
<B20_envelope>
<B2010_opaque_walls>
<refurbishmentcost cost_unit="currency/m2"> 304 </refurbishmentcost>
</B2010_opaque_walls>
<B2020_transparent>
<refurbishmentcost cost_unit="currency/m2"> 857.14 </refurbishmentcost>
</B2020_transparent>
</B20_envelope>
<B30_roofing>
<B3010_opaqueroof>
<refurbishmentcost cost_unit="currency/m2"> 118 </refurbishmentcost>
</B3010_opaqueroof>
</B30_roofing>
</B_Shell>
<D_Services>
<D30_HVAC>
<D3010EnergySupply>
<D301010photovoltaic_system>
<initial_investment cost_unit="currency/m2"> 800 </initial_investment>
<reposition cost_unit="currency/m2"> 800 </reposition>
<lifetime_equipment lifetime="years"> 25 </lifetime_equipment>
</D301010photovoltaic_system>
</D3010EnergySupply>
<D3020Heatgeneratingsystems>
<investment_cost cost_unit="currency/kW"> 622.86 </investment_cost>
<reposition cost_unit="currency/kW"> 622.86 </reposition>
<lifetime_equipment lifetime="years"> 25 </lifetime_equipment>
</D3020Heatgeneratingsystems>
<D3030_Cooling_generation_systems>
<investment_cost cost_unit="currency/kW"> 622.86 </investment_cost>
<reposition cost_unit="currency/kW"> 622.86 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</D3030_Cooling_generation_systems>
<D3040_Distribution_systems>
<refurbishmentcost cost_unit="currency/m2"> 0 </refurbishmentcost>
<reposition cost_unit="currency/kW"> 0 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</D3040_Distribution_systems>
<D3080_Other_HVAC_AHU>
<investment_cost cost_unit="currency/kW"> 47.62 </investment_cost>
<reposition cost_unit="currency/kW"> 47.62 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</D3080_Other_HVAC_AHU>
</D30_HVAC>
<D50_Electrical>
<D5020_Lighting_and_branch_wiring>
<refurbishmentcost cost_unit="currency/kW"> 139 </refurbishmentcost>
<reposition cost_unit="currency/kW"> 139 </reposition>
<lifetime_equipment lifetime="years"> 20 </lifetime_equipment>
</D5020_Lighting_and_branch_wiring>
</D50_Electrical>
</D_Services>
<Z_Allowances_overhead_profit>
<Z10_Design_allowance cost_unit="%"> 6 </Z10_Design_allowance>
<Z20_Overhead_profit cost_unit="%"> 14 </Z20_Overhead_profit>
</Z_Allowances_overhead_profit>
</capital_cost>
<operational_cost>
<fuel fuel_type="electricity">
<fixed>
<fixed_monthly cost_unit="currency/month"> 12.27 </fixed_monthly>
<fixed_power cost_unit="currency/(month*kW)"> 0 </fixed_power>
</fixed>
<variable cost_unit="currency/kWh"> 0.075 </variable>
</fuel>
<fuel fuel_type="gas">
<fixed>
<fixed_monthly cost_unit="currency/month"> 17.71 </fixed_monthly>
</fixed>
<variable cost_unit="currency/m3"> 0.640 </variable>
</fuel>
<fuel fuel_type="diesel">
<variable cost_unit="currency/l"> 1.2 </variable>
</fuel>
<fuel fuel_type="biomass">
<variable cost_unit="currency/kg"> 0.09 </variable>
</fuel>
<maintenance>
<heating_equipment cost_unit="currency/kW"> 40 </heating_equipment>
<cooling_equipment cost_unit="currency/kW"> 40 </cooling_equipment>
<photovoltaic_system cost_unit="currency/m2"> 1 </photovoltaic_system>
</maintenance>
<CO2_cost cost_unit="currency/kgCO2"> 30 </CO2_cost>
</operational_cost>
<end_of_life_cost cost_unit="currency/m2"> 6.3 </end_of_life_cost>
<incomes>
<subsidies>
<construction_subsidy cost_unit="%"> 2 </construction_subsidy>
<hvac_subsidy cost_unit="%"> 1.5 </hvac_subsidy>
<photovoltaic_subsidy cost_unit="%"> 3.6 </photovoltaic_subsidy>
</subsidies>
<energy_exports>
<electricity cost_unit="currency/kWh"> 0 </electricity>
</energy_exports>
<tax_reductions>
<reductions_taxes cost_unit="%"> 2 </reductions_taxes>
</tax_reductions>
</incomes>
</archetype>
</archetypes>

178
hub/data/costs/montreal_costs_oriol_LOD1.xml Normal file
View File

@ -0,0 +1,178 @@
<archetypes>
<archetype function="residential" municipality="montreal" currency="CAD">
<capital_cost>
<ASubstructure>
<A10sub_structural cost_unit="currency/m2"> 15.89 </A10sub_structural>
<A20structural cost_unit="currency/m3"> 215.90 </A20structural>
</ASubstructure>
<BShell>
<B10superstructure>
<reposition cost_unit="currency/m2"> 0 </reposition>
<initial_investment cost_unit="currency/m2"> 0 </initial_investment>
<lifetime_equipment lifetime="years"> 50 </lifetime_equipment>
</B10superstructure>
<B20envelope>
<B2010opaquewalls>
<reposition cost_unit="currency/m2"> 304 </reposition>
<initial_investment cost_unit="currency/m2"> 304 </initial_investment>
<lifetime_equipment lifetime="years"> 50 </lifetime_equipment>
</B2010opaquewalls>
<B2020transparent>
<reposition cost_unit="currency/m2"> 857.14 </reposition>
<initial_investment cost_unit="currency/m2"> 857.14 </initial_investment>
<lifetime_equipment lifetime="years"> 20 </lifetime_equipment>
</B2020transparent>
</B20envelope>
<B30roofing>
<B3010opaqueroof>
<reposition cost_unit="currency/m2"> 118 </reposition>
<initial_investment cost_unit="currency/m2"> 118 </initial_investment>
<lifetime_equipment lifetime="years"> 50 </lifetime_equipment>
</B3010opaqueroof>
<B3020transparentroof>
<reposition cost_unit="currency/m2"> 857.14 </reposition>
<initial_investment cost_unit="currency/m2"> 857.14 </initial_investment>
<lifetime_equipment lifetime="years"> 20 </lifetime_equipment>
</B3020transparentroof>
</B30roofing>
</BShell>
<CInteriors>
<C10Interiorconstruction>
<reposition cost_unit="currency/m2"> 0 </reposition>
<initial_investment cost_unit="currency/m2"> 0 </initial_investment>
<lifetime_equipment lifetime="years"> 50 </lifetime_equipment>
</C10Interiorconstruction>
<C20Stairs>
<reposition cost_unit="currency/m2"> 0 </reposition>
<initial_investment cost_unit="currency/m2"> 0 </initial_investment>
<lifetime_equipment lifetime="years"> 50 </lifetime_equipment>
</C20Stairs>
<C30Interiorfinishes>
<C3010Walls>
<reposition cost_unit="currency/m2"> 50 </reposition>
<initial_investment cost_unit="currency/m2"> 50 </initial_investment>
<lifetime_equipment lifetime="years"> 20 </lifetime_equipment>
</C3010Walls>
<C3020Floors>
<reposition cost_unit="currency/m2"> 62 </reposition>
<initial_investment cost_unit="currency/m2"> 62 </initial_investment>
<lifetime_equipment lifetime="years"> 20 </lifetime_equipment>
</C3020Floors>
<C3030Ceilings>
<reposition cost_unit="currency/m2"> 70 </reposition>
<initial_investment cost_unit="currency/m2"> 70 </initial_investment>
<lifetime_equipment lifetime="years"> 20 </lifetime_equipment>
</C3030Ceilings>
</C30Interiorfinishes>
</CInteriors>
<DServices>
<D10Conveying cost_unit="currency/m2"> 0 </D10Conveying>
<D20Plumbing cost_unit="currency/m2"> 100 </D20Plumbing>
<D30HVAC>
<D3010EnergySupply>
<D301010photovoltaic_system>
<initial_investment cost_unit="currency/m2"> 800 </initial_investment>
<reposition cost_unit="currency/m2"> 800 </reposition>
<lifetime_equipment lifetime="years"> 25 </lifetime_equipment>
</D301010photovoltaic_system>
</D3010EnergySupply>
<D3020Heatgeneratingsystems>
<initial_investment cost_unit="currency/kW"> 622.86 </initial_investment>
<reposition cost_unit="currency/kW"> 622.86 </reposition>
<lifetime_equipment lifetime="years"> 25 </lifetime_equipment>
</D3020Heatgeneratingsystems>
<D3030Coolinggenerationsystems>
<initial_investment cost_unit="currency/kW"> 622.86 </initial_investment>
<reposition cost_unit="currency/kW"> 622.86 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</D3030Coolinggenerationsystems>
<D3040Distributionsystems>
<initial_investment cost_unit="currency/kW"> 0 </initial_investment>
<reposition cost_unit="currency/kW"> 0 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</D3040Distributionsystems>
<D3060Controlsandinstrumentation>
<initial_investment cost_unit="currency/kW"> 0 </initial_investment>
<reposition cost_unit="currency/kW"> 0 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</D3060Controlsandinstrumentation>
<D3080OtherHVAC_AHU>
<initial_investment cost_unit="currency/kW"> 47.62 </initial_investment>
<reposition cost_unit="currency/kW"> 47.62 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</D3080OtherHVAC_AHU>
</D30HVAC>
<D50Electrical>
<D5010Electricalservicesanddistribution>
<initial_investment cost_unit="currency/m2"> 171.43 </initial_investment>
<reposition cost_unit="currency/m2"> 171.43 </reposition>
<lifetime_equipment lifetime="years"> 20 </lifetime_equipment>
</D5010Electricalservicesanddistribution>
<D5020Lightingandbranchwiring>
<initial_investment cost_unit="currency/kW"> 139 </initial_investment>
<reposition cost_unit="currency/kW"> 139 </reposition>
<lifetime_equipment lifetime="years"> 20 </lifetime_equipment>
</D5020Lightingandbranchwiring>
</D50Electrical>
</DServices>
<EEquimentsandfurnishing>
<E10Equipments>
<initial_investment cost_unit="currency/m2"> 0 </initial_investment>
<reposition cost_unit="currency/m2"> 0 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</E10Equipments>
<E10Furnishing>
<initial_investment cost_unit="currency/m2"> 0 </initial_investment>
<reposition cost_unit="currency/m2"> 0 </reposition>
<lifetime_equipment lifetime="years"> 15 </lifetime_equipment>
</E10Furnishing>
</EEquimentsandfurnishing>
<engineer cost_unit="%"> 2.5 </engineer>
</capital_cost>
<operational_cost>
<fuel fuel_type="electricity">
<fixed>
<fixed_monthly cost_unit="currency/month"> 12.27 </fixed_monthly>
</fixed>
<variable_base cost_unit="currency/kWh"> hourlydatatable1 </variable_base>
<variable_peak cost_unit="currency/kWh"> hourlydatatable2 </variable_peak>
</fuel>
<fuel fuel_type="gaz">
<fixed>
<fixed_monthly cost_unit="currency/month"> 17.71 </fixed_monthly>
</fixed>
<variable cost_unit="currency/m3"> 0.640 </variable>
</fuel>
<fuel fuel_type="diesel">
<variable cost_unit="currency/l"> 1.2 </variable>
</fuel>
<fuel fuel_type="biomass">
<variable cost_unit="currency/kg"> 0.09 </variable>
</fuel>
<maintenance>
<heating_equipment cost_unit="currency/kW"> 40 </heating_equipment>
<cooling_equipment cost_unit="currency/kW"> 40 </cooling_equipment>
<general_hvac_equipment cost_unit="currency/(m3/h)"> 0.05 </general_hvac_equipment>
<photovoltaic_system cost_unit="currency/m2"> 1 </photovoltaic_system>
<other_systems cost_unit="currency/m2"> 4.6 </other_systems>
</maintenance>
<CO2_cost cost_unit="currency/kgCO2"> 30 </CO2_cost>
</operational_cost>
<end_of_life_cost cost_unit="currency/m2"> 6.3 </end_of_life_cost>
<incomes>
<subsidies>
<construction_subsidy cost_unit="%"> 2 </construction_subsidy>
<hvac_subsidy cost_unit="%"> 1.5 </hvac_subsidy>
<photovoltaic_subsidy cost_unit="%"> 3.6 </photovoltaic_subsidy>
</subsidies>
<energy_exports>
<electricity cost_unit="currency/kWh"> hourlydatatable </electricity>
<heat cost_unit="currency/kWh"> 0 </heat>
</energy_exports>
<tax_reductions>
<reductions_taxes cost_unit="%"> 2 </reductions_taxes>
</tax_reductions>
<CO2_income cost_unit="currency/kgCO2exported"> 0 </CO2_income>
</incomes>
</archetype>
</archetypes>

26456
hub/data/geolocation/cities15000.txt Normal file
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File diff suppressed because it is too large Load Diff

209
hub/exports/building_energy/idf.py
View File

@ -11,6 +11,7 @@ from pathlib import Path
from geomeppy import IDF
import hub.helpers.constants as cte
from hub.city_model_structure.attributes.schedule import Schedule
from hub.city_model_structure.building_demand.thermal_zone import ThermalZone
class Idf:
@ -20,7 +21,9 @@ class Idf:
_BUILDING = 'BUILDING'
_ZONE = 'ZONE'
_LIGHTS = 'LIGHTS'
_APPLIANCES = 'OTHEREQUIPMENT'
_PEOPLE = 'PEOPLE'
_DHW = 'WATERUSE:EQUIPMENT'
_THERMOSTAT = 'HVACTEMPLATE:THERMOSTAT'
_IDEAL_LOAD_AIR_SYSTEM = 'HVACTEMPLATE:ZONE:IDEALLOADSAIRSYSTEM'
_SURFACE = 'BUILDINGSURFACE:DETAILED'
@ -98,6 +101,7 @@ class Idf:
self._adjacent_buildings = adjacent_buildings
if self._adjacent_buildings is None:
self._adjacent_buildings = []
self._export()
@staticmethod
@ -186,6 +190,7 @@ class Idf:
_schedule.Minutes_per_Item = 60
def _add_infiltration_schedules(self, thermal_zone):
# todo: clean the way infiltration is hardcoded
_infiltration_schedules = []
if thermal_zone.thermal_control is None:
return
@ -199,9 +204,9 @@ class Idf:
_infiltration_values = []
for hvac_value in hvac_availability_schedule.values:
if hvac_value == 0:
_infiltration_values.append(thermal_zone.infiltration_rate_system_off)
_infiltration_values.append(1)
else:
_infiltration_values.append(thermal_zone.infiltration_rate_system_on)
_infiltration_values.append(1)
_schedule.values = _infiltration_values
_infiltration_schedules.append(_schedule)
for schedule in self._idf.idfobjects[self._HOURLY_SCHEDULE]:
@ -244,6 +249,25 @@ class Idf:
return
return self._add_standard_compact_hourly_schedule(usage, schedule_type, new_schedules)
def _add_constant_hourly_year_schedules(self, thermal_zone, value, schedule_type):
_schedule = Schedule()
_schedule.type = schedule_type
_schedule.data_type = cte.ANY_NUMBER
_schedule.time_step = cte.HOUR
_schedule.time_range = cte.DAY
_schedule.day_types = ['monday',
'tuesday',
'wednesday',
'thursday',
'friday',
'saturday',
'sunday',
'holiday',
'winter_design_day',
'summer_design_day']
_schedule.values = [value for _ in range(0, 24)]
return self._add_standard_compact_hourly_schedule(thermal_zone.usage_name, schedule_type, [_schedule])
def _add_construction(self, thermal_boundary):
for construction in self._idf.idfobjects[self._CONSTRUCTION]:
if thermal_boundary.parent_surface.vegetation is not None:
@ -276,7 +300,7 @@ class Idf:
def _add_window_construction_and_material(self, thermal_opening):
for window_material in self._idf.idfobjects[self._WINDOW_MATERIAL_SIMPLE]:
if window_material['UFactor'] == thermal_opening.overall_u_value and \
window_material['Solar_Heat_Gain_Coefficient'] == thermal_opening.g_value:
window_material['Solar_Heat_Gain_Coefficient'] == thermal_opening.g_value:
return
order = str(len(self._idf.idfobjects[self._WINDOW_MATERIAL_SIMPLE]) + 1)
@ -338,20 +362,84 @@ class Idf:
Activity_Level_Schedule_Name=f'Activity Level schedules {thermal_zone.usage_name}'
)
def _add_infiltration(self, thermal_zone, zone_name):
def _add_lighting(self, thermal_zone: ThermalZone, zone_name: str):
fraction_radiant = thermal_zone.lighting.radiative_fraction
# todo: fraction visible should come from catalog
fraction_visible = 0.3
method = 'Watts/Area'
factor_size = thermal_zone.total_floor_area / thermal_zone.footprint_area
watts_per_zone_floor_area = thermal_zone.lighting.density * factor_size
# todo: fraction replaceable should come from catalog
fraction_replaceable = 1
subcategory = f'ELECTRIC EQUIPMENT#{zone_name}#GeneralLights'
for zone in self._idf.idfobjects["ZONE"]:
if zone.Name == f'{zone_name}_infiltration':
return
self._idf.newidfobject(self._LIGHTS,
Name=f'{zone_name}_lights',
Zone_or_ZoneList_Name=zone_name,
Schedule_Name=f'Lighting schedules {thermal_zone.usage_name}',
Design_Level_Calculation_Method=method,
Watts_per_Zone_Floor_Area=watts_per_zone_floor_area,
Fraction_Radiant=fraction_radiant,
Fraction_Visible=fraction_visible,
Fraction_Replaceable=fraction_replaceable,
EndUse_Subcategory=subcategory
)
def _add_appliances(self, thermal_zone, zone_name):
fuel_type = 'Electricity'
fraction_radiant = thermal_zone.appliances.radiative_fraction
fraction_latent = 0
method = 'Watts/Area'
factor_size = thermal_zone.total_floor_area / thermal_zone.footprint_area
watts_per_zone_floor_area = thermal_zone.appliances.density * factor_size
subcategory = f'ELECTRIC EQUIPMENT#{zone_name}#InteriorEquipment'
# _object = self._idf.newidfobject(self._APPLIANCES)
# print(vars(_object))
self._idf.newidfobject(self._APPLIANCES,
Fuel_Type=fuel_type,
Name=f'{zone_name}_appliance',
Zone_or_ZoneList_Name=zone_name,
Schedule_Name=f'Appliance schedules {thermal_zone.usage_name}',
Design_Level_Calculation_Method=method,
Power_per_Zone_Floor_Area=watts_per_zone_floor_area,
Fraction_Latent=fraction_latent,
Fraction_Radiant=fraction_radiant,
EndUse_Subcategory=subcategory
)
def _add_infiltration(self, thermal_zone, zone_name):
# for zone in self._idf.idfobjects["ZONE"]:
# if zone.Name == f'{zone_name}_infiltration':
# return
schedule = f'Infiltration schedules {thermal_zone.usage_name}'
if schedule not in self._idf.idfobjects[self._HOURLY_SCHEDULE]:
return
# if schedule not in self._idf.idfobjects[self._HOURLY_SCHEDULE]:
# return
# todo: eliminate the factor
factorreduct = 0.5
self._idf.newidfobject(self._INFILTRATION,
Name=f'{zone_name}_infiltration',
Zone_or_ZoneList_Name=zone_name,
Schedule_Name=schedule,
Design_Flow_Rate_Calculation_Method='AirChanges/Hour',
Air_Changes_per_Hour=thermal_zone.mechanical_air_change
Air_Changes_per_Hour=thermal_zone.infiltration_rate_system_off * factorreduct
)
def _add_DHW(self, thermal_zone, zone_name):
fuel_type = 'Electricity'
method = 'Watts/Area'
factor_size = thermal_zone.total_floor_area / thermal_zone.footprint_area
# todo: revision of values of peak flow (too low). Added a factor, but to check original units
peak_flow_rate = thermal_zone.domestic_hot_water.peak_flow * thermal_zone.total_floor_area
# = self._idf.newidfobject(self._DHW)
# print(vars(_object))
self._idf.newidfobject(self._DHW,
Name=f'DHW {zone_name}',
Peak_Flow_Rate=peak_flow_rate,
Flow_Rate_Fraction_Schedule_Name=f'DHW_prof schedules {thermal_zone.usage_name}',
Target_Temperature_Schedule_Name=f'DHW_temp schedules {thermal_zone.usage_name}',
Hot_Water_Supply_Temperature_Schedule_Name=f'DHW_temp schedules {thermal_zone.usage_name}',
EndUse_Subcategory=f'DHW {zone_name}',
Zone_Name=zone_name
)
def _rename_building(self, city_name):
@ -396,20 +484,24 @@ class Idf:
usage = thermal_zone.usage_name
if building.name in self._target_buildings or building.name in self._adjacent_buildings:
self._add_infiltration_schedules(thermal_zone)
if thermal_zone.occupancy is not None:
self._add_schedules(usage, 'Occupancy', thermal_zone.occupancy.occupancy_schedules)
self._add_people_activity_level_schedules(thermal_zone)
self._add_occupancy(thermal_zone, building.name)
if thermal_zone.thermal_control is not None:
self._add_schedules(usage, 'HVAC AVAIL', thermal_zone.thermal_control.hvac_availability_schedules)
self._add_schedules(usage, 'Heating thermostat', thermal_zone.thermal_control.heating_set_point_schedules)
self._add_schedules(usage, 'Cooling thermostat', thermal_zone.thermal_control.cooling_set_point_schedules)
self._add_schedules(usage, 'Occupancy', thermal_zone.occupancy.occupancy_schedules)
self._add_schedules(usage, 'HVAC AVAIL', thermal_zone.thermal_control.hvac_availability_schedules)
self._add_schedules(usage, 'Heating thermostat', thermal_zone.thermal_control.heating_set_point_schedules)
self._add_schedules(usage, 'Cooling thermostat', thermal_zone.thermal_control.cooling_set_point_schedules)
self._add_schedules(usage, 'Lighting', thermal_zone.lighting.schedules)
self._add_schedules(usage, 'Appliance', thermal_zone.appliances.schedules)
self._add_schedules(usage, 'DHW_prof', thermal_zone.domestic_hot_water.schedules)
# self._add_service_temp_schedules(thermal_zone)
value = int(thermal_zone.domestic_hot_water.service_temperature)
self._add_constant_hourly_year_schedules(thermal_zone, value, 'DHW_temp')
self._add_people_activity_level_schedules(thermal_zone)
self._add_zone(thermal_zone, building.name)
self._add_heating_system(thermal_zone, building.name)
self._add_infiltration(thermal_zone, building.name)
self._add_occupancy(thermal_zone, building.name)
self._add_lighting(thermal_zone, building.name)
self._add_appliances(thermal_zone, building.name)
self._add_DHW(thermal_zone, building.name)
if self._export_type == "Surfaces":
if building.name in self._target_buildings or building.name in self._adjacent_buildings:
if building.internal_zones[0].thermal_zones is not None:
@ -421,26 +513,40 @@ class Idf:
else:
self._add_block(building)
# todo: this should change to specific variables per zone to process only the ones in the buildings_to_calculate
for building in self._target_buildings:
for _ in self._target_buildings:
continue
self._idf.newidfobject(
"OUTPUT:VARIABLE",
Variable_Name="Zone Ideal Loads Supply Air Total Heating Energy",
Reporting_Frequency="Hourly",
)
"OUTPUT:VARIABLE",
Variable_Name="Zone Ideal Loads Supply Air Total Heating Energy",
Reporting_Frequency="Monthly",
)
# _object = self._idf.newidfobject("OUTPUT:VARIABLE")
# print(vars(_object))
self._idf.newidfobject(
"OUTPUT:VARIABLE",
Variable_Name="Zone Ideal Loads Supply Air Total Cooling Energy",
Reporting_Frequency="Hourly",
)
self._idf.match()
try:
self._idf.intersect_match()
except IndexError:
"OUTPUT:VARIABLE",
Variable_Name="Zone Ideal Loads Supply Air Total Cooling Energy",
Reporting_Frequency="Monthly",
)
self._idf.newidfobject(
"OUTPUT:VARIABLE",
Variable_Name="Water Use Equipment Heating Rate",
Reporting_Frequency="Monthly",
)
# self._idf.newidfobject(
# "OUTPUTCONTROL:TABLE:STYLE",
# Variable_Name="CommaAndHTML, JtoKWH",
# )
# self._idf.match()
# try:
# self._idf.intersect_match()
# except IndexError:
# seems to be a bug from geomeppy when surfaces cannot be intersected
pass
# pass
# post-process to erase windows associated to adiabatic walls
windows_list = []
@ -494,21 +600,31 @@ class Idf:
Fraction_of_Shading_Surface_That_Is_Glazed=0)
def _add_pure_geometry(self, building, zone_name):
for surface in building.surfaces:
idf_surface_type = self.idf_surfaces[surface.type]
outside_boundary_condition = 'Outdoors'
sun_exposure = 'SunExposed'
wind_exposure = 'WindExposed'
outside_boundary_condition_object = None
# TODO: set assumption in constants, to select minimun shared area
#print(f'wall {surface.name} {surface.percentage_shared}')
if surface.percentage_shared is not None and surface.percentage_shared > 0.1:
outside_boundary_condition = 'Surface'
outside_boundary_condition_object = surface.name
sun_exposure = 'NoSun'
wind_exposure = 'NoWind'
if surface.type == cte.GROUND:
outside_boundary_condition = 'Ground'
sun_exposure = 'NoSun'
wind_exposure = 'NoWind'
idf_surface_type = self.idf_surfaces[surface.type]
idf_surface = self._idf.newidfobject(self._SURFACE, Name=f'{surface.name}',
Surface_Type=idf_surface_type,
Zone_Name=zone_name,
Outside_Boundary_Condition=outside_boundary_condition,
Sun_Exposure=sun_exposure,
Wind_Exposure=wind_exposure)
Surface_Type=idf_surface_type,
Zone_Name=zone_name,
Outside_Boundary_Condition=outside_boundary_condition,
Outside_Boundary_Condition_Object=outside_boundary_condition_object,
Sun_Exposure=sun_exposure,
Wind_Exposure=wind_exposure)
coordinates = self._matrix_to_list(surface.solid_polygon.coordinates,
self._city.lower_corner)
idf_surface.setcoords(coordinates)
@ -530,6 +646,13 @@ class Idf:
outside_boundary_condition = 'Outdoors'
sun_exposure = 'SunExposed'
wind_exposure = 'WindExposed'
outside_boundary_condition_object = ''
# TODO: set assumption in constants, to select minimun shared area
if boundary.parent_surface.percentage_shared is not None and boundary.parent_surface.percentage_shared >= 0.1:
outside_boundary_condition = 'Surface'
outside_boundary_condition_object = boundary.parent_surface.name
sun_exposure = 'NoSun'
wind_exposure = 'NoWind'
if boundary.parent_surface.type == cte.GROUND:
outside_boundary_condition = 'Ground'
sun_exposure = 'NoSun'
@ -538,11 +661,13 @@ class Idf:
construction_name = f'{boundary.construction_name}_{boundary.parent_surface.vegetation.name}'
else:
construction_name = boundary.construction_name
#print(f'shared wall {boundary.parent_surface.name} {outside_boundary_condition_object} {idf_surface_type}')
surface = self._idf.newidfobject(self._SURFACE, Name=f'{boundary.parent_surface.name}',
Surface_Type=idf_surface_type,
Zone_Name=zone_name,
Construction_Name=construction_name,
Outside_Boundary_Condition=outside_boundary_condition,
Outside_Boundary_Condition_Object=outside_boundary_condition_object,
Sun_Exposure=sun_exposure,
Wind_Exposure=wind_exposure)
coordinates = self._matrix_to_list(boundary.parent_surface.solid_polygon.coordinates,
@ -570,7 +695,7 @@ class Idf:
for material in self._idf.idfobjects[self._WINDOW_MATERIAL_SIMPLE]:
if material['Name'] == glazing:
if material['UFactor'] == opening.overall_u_value and \
material['Solar_Heat_Gain_Coefficient'] == opening.g_value:
material['Solar_Heat_Gain_Coefficient'] == opening.g_value:
return True
return False

43
hub/exports/building_energy/idf_files/Minimal.idf
View File

@ -127,26 +127,31 @@
No, !- Do HVAC Sizing Simulation for Sizing Periods
1; !- Maximum Number of HVAC Sizing Simulation Passes
Output:VariableDictionary,Regular;
Output:Table:SummaryReports, AnnualBuildingUtilityPerformanceSummary,
DemandEndUseComponentsSummary,
SensibleHeatGainSummary,
InputVerificationandResultsSummary,
AdaptiveComfortSummary,
Standard62.1Summary,
ClimaticDataSummary,
EquipmentSummary,
EnvelopeSummary,
LightingSummary,
HVACSizingSummary,
SystemSummary,
ComponentSizingSummary,
OutdoorAirSummary,
ObjectCountSummary,
EndUseEnergyConsumptionOtherFuelsMonthly,
PeakEnergyEndUseOtherFuelsMonthly;
Output:Variable,*,Site Outdoor Air Drybulb Temperature,Timestep;
Output:Variable,*,Site Outdoor Air Wetbulb Temperature,Timestep;
OutputControl:Table:Style, CommaAndHTML,JtoKWH;
Output:Variable,*,Site Outdoor Air Dewpoint Temperature,Timestep;
Output:Meter,DISTRICTHEATING:Facility,monthly;
Output:Meter,DISTRICTCOOLING:Facility,monthly;
Output:Meter,InteriorEquipment:Electricity,monthly;
Output:Meter,InteriorLights:Electricity,monthly;
Output:Variable,*,Site Solar Azimuth Angle,Timestep;
Output:Variable,*,Site Solar Altitude Angle,Timestep;
Output:Variable,*,Site Direct Solar Radiation Rate per Area,Timestep;
Output:Variable,*,Site Diffuse Solar Radiation Rate per Area,Timestep;
OutputControl:Table:Style,
HTML; !- Column Separator
Output:Table:SummaryReports,
AllSummary; !- Report 1 Name
Output:Diagnostics,DisplayUnusedSchedules;
OutputControl:IlluminanceMap:Style,
Comma; !- Column separator

6
hub/exports/building_energy/insel/insel_monthly_energy_balance.py
View File

@ -127,7 +127,7 @@ class InselMonthlyEnergyBalance(Insel):
f'zone {i + 1} (degree Celsius)')
parameters.append(f'{usage.thermal_control.heating_set_back} % BP(14) #4 Heating setback temperature '
f'zone {i + 1} (degree Celsius)')
parameters.append(f'{usage.thermal_control.mean_cooling_set_point} % BP(15) #5 Cooling setpoint temperature '
parameters.append(f'{usage.thermal_control.mean_cooling_set_point+4} % BP(15) #5 Cooling setpoint temperature '
f'zone {i + 1} (degree Celsius)')
parameters.append(f'{usage.hours_day} % BP(16) #6 Usage hours per day zone {i + 1}')
parameters.append(f'{usage.days_year} % BP(17) #7 Usage days per year zone {i + 1}')
@ -153,8 +153,8 @@ class InselMonthlyEnergyBalance(Insel):
for day_type in schedule.day_types:
infiltration += infiltration_day * cte.DAYS_A_YEAR[day_type] / 365
ventilation += ventilation_day * cte.DAYS_A_YEAR[day_type] / 365
ventilation_infiltration = ventilation + infiltration
#todo: eliminate hardcoded coefficient to ventilationinf
ventilation_infiltration = (ventilation + infiltration)*0.5
parameters.append(f'{ventilation_infiltration} % BP(18) #8 Minimum air change rate zone {i + 1} (ACH)')
parameters.append(f'{len(thermal_zone.thermal_boundaries)} % Number of surfaces = BP(11+8z) \n'

4
hub/exports/energy_building_exports_factory.py
View File

@ -31,6 +31,7 @@ class EnergyBuildingsExportsFactory:
self._target_buildings = target_buildings
self._adjacent_buildings = adjacent_buildings
@property
def _energy_ade(self):
"""
@ -54,7 +55,9 @@ class EnergyBuildingsExportsFactory:
"""
idf_data_path = (Path(__file__).parent / './building_energy/idf_files/').resolve()
# todo: create a get epw file function based on the city
#print('path', idf_data_path)
weather_path = (Path(__file__).parent / '../data/weather/epw/CAN_PQ_Montreal.Intl.AP.716270_CWEC.epw').resolve()
#print(weather_path)
return Idf(self._city, self._path, (idf_data_path / 'Minimal.idf'), (idf_data_path / 'Energy+.idd'), weather_path,
target_buildings=self._target_buildings, adjacent_buildings=self._adjacent_buildings)
@ -71,6 +74,7 @@ class EnergyBuildingsExportsFactory:
Export the city given to the class using the given export type handler
:return: None
"""
print(self)
return getattr(self, self._export_type, lambda: None)
def export_debug(self):

2
hub/helpers/constants.py
View File

@ -23,6 +23,7 @@ METERS_TO_FEET = 3.28084
BTU_H_TO_WATTS = 0.29307107
KILO_WATTS_HOUR_TO_JULES = 3600000
GALLONS_TO_QUBIC_METERS = 0.0037854117954011185
CUBICFEET_TO_CUBIC_METERS_HOUR=1.699
# time
SECOND = 'second'
@ -184,6 +185,7 @@ MIN_FLOAT = float('-inf')
# Tools
SRA = 'sra'
INSEL_MEB = 'insel meb'
PEAK_LOAD = 'peak load'
# Costs units
CURRENCY_PER_SQM = 'currency/m2'

103
hub/helpers/geometry_helper.py
View File

@ -6,9 +6,9 @@ Project Coder Guille Gutierrez guillermo.gutierrezmorote@concordia.ca
Code contributors: Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
"""
import math
from pathlib import Path
import numpy as np
import requests
from PIL import Image
from trimesh import Trimesh
from trimesh import intersections
@ -55,16 +55,22 @@ class GeometryHelper:
'urn:adv:crs:ETRS89_UTM32*DE_DHHN92_NH': 'epsg:25832'
}
@staticmethod
def factor():
return 0.5
def __init__(self, delta=0, area_delta=0):
self._delta = delta
self._area_delta = area_delta
@staticmethod
def coordinate_to_map_point(coordinate, city):
return MapPoint(((city.upper_corner[0] - coordinate[0]) * 0.5), ((city.upper_corner[1] - coordinate[1]) * 0.5))
factor = GeometryHelper.factor()
return MapPoint(((coordinate[0] - city.lower_corner[0]) * factor), ((coordinate[1] - city.lower_corner[1]) * factor))
@staticmethod
def city_mapping(city, building_names=None, plot=False):
"""
Returns a shared_information dictionary like
@ -75,8 +81,9 @@ class GeometryHelper:
lines_information = {}
if building_names is None:
building_names = [b.name for b in city.buildings]
x = int((city.upper_corner[0] - city.lower_corner[0]) * 0.5) + 1
y = int((city.upper_corner[1] - city.lower_corner[1]) * 0.5) + 1
factor = GeometryHelper.factor()
x = math.ceil((city.upper_corner[0] - city.lower_corner[0]) * factor) + 1
y = math.ceil((city.upper_corner[1] - city.lower_corner[1]) * factor) + 1
city_map = [['' for _ in range(y + 1)] for _ in range(x + 1)]
map_info = [[{} for _ in range(y + 1)] for _ in range(x + 1)]
img = Image.new('RGB', (x + 1, y + 1), "black") # create a new black image
@ -92,15 +99,18 @@ class GeometryHelper:
if i == length:
j = 0
next_coordinate = ground.perimeter_polygon.coordinates[j]
point = GeometryHelper.coordinate_to_map_point(coordinate, city)
distance = int(GeometryHelper.distance_between_points(coordinate, next_coordinate))
distance = GeometryHelper.distance_between_points(coordinate, next_coordinate)
if distance == 0:
continue
delta_x = (coordinate[0] - next_coordinate[0]) / (distance / 0.5)
delta_y = (coordinate[1] - next_coordinate[1]) / (distance / 0.5)
for k in range(0, distance):
x = MapPoint(point.x + (delta_x * k), point.y + (delta_y * k)).x
y = MapPoint(point.x + (delta_x * k), point.y + (delta_y * k)).y
steps = int(distance * factor * 2)
delta_x = (next_coordinate[0] - coordinate[0]) / steps
delta_y = (next_coordinate[1] - coordinate[1]) / steps
for k in range(0, steps):
new_coordinate = (coordinate[0] + (delta_x * k), coordinate[1] + (delta_y * k))
point = GeometryHelper.coordinate_to_map_point(new_coordinate, city)
x = point.x
y = point.y
if city_map[x][y] == '':
city_map[x][y] = building.name
map_info[x][y] = {
@ -172,48 +182,6 @@ class GeometryHelper:
img.show()
return lines_information
@staticmethod
def fast_city_mapping(city, building_names=None):
lines_information = {}
if building_names is None:
building_names = [b.name for b in city.buildings]
x = int((city.upper_corner[0] - city.lower_corner[0]) * 0.5) + 1
y = int((city.upper_corner[1] - city.lower_corner[1]) * 0.5) + 1
city_map = [['' for _ in range(y + 1)] for _ in range(x + 1)]
for building_name in building_names:
building = city.city_object(building_name)
line = 0
for ground in building.grounds:
length = len(ground.perimeter_polygon.coordinates) - 1
for i, coordinate in enumerate(ground.perimeter_polygon.coordinates):
j = i + 1
if i == length:
j = 0
next_coordinate = ground.perimeter_polygon.coordinates[j]
point = GeometryHelper.coordinate_to_map_point(coordinate, city)
distance = int(GeometryHelper.distance_between_points(coordinate, next_coordinate))
if distance == 0:
continue
delta_x = (coordinate[0] - next_coordinate[0]) / (distance / 0.5)
delta_y = (coordinate[1] - next_coordinate[1]) / (distance / 0.5)
for k in range(0, distance):
x = MapPoint(point.x + (delta_x * k), point.y + (delta_y * k)).x
y = MapPoint(point.x + (delta_x * k), point.y + (delta_y * k)).y
if city_map[x][y] == '':
city_map[x][y] = building.name
elif city_map[x][y] != building.name:
neighbour = city.city_object(city_map[x][y])
if building.neighbours is None:
building.neighbours = [neighbour]
elif neighbour not in building.neighbours:
building.neighbours.append(neighbour)
if neighbour.neighbours is None:
neighbour.neighbours = [building]
elif building not in neighbour.neighbours:
neighbour.neighbours.append(building)
line += 1
return lines_information
@staticmethod
def segment_list_to_trimesh(lines) -> Trimesh:
"""
@ -298,19 +266,24 @@ class GeometryHelper:
"""
Get Location from latitude and longitude
"""
url = 'https://nominatim.openstreetmap.org/reverse?lat={latitude}&lon={longitude}&format=json'
response = requests.get(url.format(latitude=latitude, longitude=longitude))
if response.status_code != 200:
# This means something went wrong.
raise Exception('GET /tasks/ {}'.format(response.status_code))
response = response.json()
_data_path = Path(Path(__file__).parent.parent / 'data/geolocation/cities15000.txt').resolve()
latitude = float(latitude)
longitude = float(longitude)
distance = math.inf
country = 'Unknown'
city = 'Unknown'
country = 'ca'
if 'city' in response['address']:
city = response['address']['city']
if 'country_code' in response['address']:
country = response['address']['country_code']
with open(_data_path, 'r', encoding='utf-8') as f:
for line_number, line in enumerate(f):
fields = line.split('\t')
file_city_name = fields[2]
file_latitude = float(fields[4])
file_longitude = float(fields[5])
file_country_code = fields[8]
new_distance = math.sqrt(pow((latitude - file_latitude), 2) + pow((longitude - file_longitude), 2))
if distance > new_distance:
distance = new_distance
country = file_country_code
city = file_city_name
return Location(country, city)
@staticmethod

3
hub/imports/construction/nrcan_physics_parameters.py
View File

@ -4,7 +4,6 @@ SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2022 Concordia CERC group
Project Coder Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
"""
import datetime
import math
import sys
from hub.hub_logger import logger
@ -23,6 +22,7 @@ class NrcanPhysicsParameters:
NrcanPhysicsParameters class
"""
def __init__(self, city, base_path, divide_in_storeys=False):
# create a thread pool with 8 threads
self._city = city
self._path = base_path
self._divide_in_storeys = divide_in_storeys
@ -67,6 +67,7 @@ class NrcanPhysicsParameters:
for internal_zone in building.internal_zones:
for thermal_zone in internal_zone.thermal_zones:
thermal_zone.total_floor_area = thermal_zone.footprint_area
for internal_zone in building.internal_zones:
self._assign_values(internal_zone.thermal_zones, archetype)
for thermal_zone in internal_zone.thermal_zones:

46
hub/imports/geometry/geojson.py
View File

@ -71,8 +71,11 @@ class Geojson:
polygon = Polygon(points)
polygon.area = igh.ground_area(points)
surface = Surface(polygon, polygon)
surfaces.append(surface)
buildings.append(Building(f'{name}_zone_{zone}', surfaces, year_of_construction, function))
if len(buildings) == 1:
buildings[0].surfaces.append(surface)
else:
surfaces.append(surface)
buildings.append(Building(f'{name}', surfaces, year_of_construction, function))
return buildings
@staticmethod
@ -82,9 +85,10 @@ class Geojson:
buildings = []
for zone, lod0_building in enumerate(lod0_buildings):
# print(zone, lod0_building.name)
volume = 0
for surface in lod0_building.grounds:
volume = surface.solid_polygon.area * height
volume = volume + surface.solid_polygon.area * height
surfaces.append(surface)
roof_coordinates = []
# adding a roof means invert the polygon coordinates and change the Z value
@ -112,10 +116,9 @@ class Geojson:
polygon = Polygon(wall_coordinates)
wall = Surface(polygon, polygon)
surfaces.append(wall)
building = Building(f'{name}_zone_{zone}', surfaces, year_of_construction, function)
building.volume = volume
buildings.append(building)
building = Building(f'{name}', surfaces, year_of_construction, function)
building.volume = volume
buildings.append(building)
return buildings
@ -159,7 +162,7 @@ class Geojson:
if point[2] < 0.5:
ground_line.append(point)
for entry in building_mapped:
if building_mapped[entry]['shared_points'] <= 3:
if building_mapped[entry]['shared_points'] <= 2:
continue
line = [building_mapped[entry]['line_start'], building_mapped[entry]['line_end']]
neighbour_line = [building_mapped[entry]['neighbour_line_start'],
@ -170,6 +173,8 @@ class Geojson:
GeometryHelper.distance_between_points(neighbour_line[0], neighbour_line[1]) -
GeometryHelper.distance_between_points(line[1], neighbour_line[0]) -
GeometryHelper.distance_between_points(line[0], neighbour_line[1])) / 2
print(line_shared)
print()
percentage_ground = line_shared / GeometryHelper.distance_between_points(line[0], line[1])
percentage_height = neighbour_height / building.max_height
if percentage_height > 1:
@ -218,7 +223,7 @@ class Geojson:
polygons = self._get_polygons(polygons, coordinates)
for polygon in polygons:
if extrusion_height == 0:
buildings = buildings + Geojson._create_buildings_lod0(f'{building_name}_part_{part}',
buildings = buildings + Geojson._create_buildings_lod0(f'{building_name}',
year_of_construction,
function,
[polygon])
@ -226,11 +231,22 @@ class Geojson:
else:
if self._max_z < extrusion_height:
self._max_z = extrusion_height
buildings = buildings + Geojson._create_buildings_lod1(f'{building_name}_part_{part}',
year_of_construction,
function,
extrusion_height,
[polygon])
if part == 0:
buildings = buildings + Geojson._create_buildings_lod1(f'{building_name}',
year_of_construction,
function,
extrusion_height,
[polygon])
else:
new_part = Geojson._create_buildings_lod1(f'{building_name}',
year_of_construction,
function,
extrusion_height,
[polygon])
surfaces = buildings[len(buildings) - 1].surfaces + new_part[0].surfaces
volume = buildings[len(buildings) - 1].volume + new_part[0].volume
buildings[len(buildings) - 1] = Building(f'{building_name}', surfaces, year_of_construction, function)
buildings[len(buildings) - 1].volume = volume
self._city = City([self._min_x, self._min_y, 0.0], [self._max_x, self._max_y, self._max_z], 'epsg:26911')
for building in buildings:

9
hub/imports/geometry_factory.py
View File

@ -107,6 +107,9 @@ class GeometryFactory:
Enrich the city given to the class using the class given handler
:return: City
"""
if self._data_frame is None:
self._data_frame = geopandas.read_file(self._path)
return GPandas(self._data_frame).city
return Geojson(self._path,
self._name_field,
self._height_field,
self._year_of_construction_field,
self._function_field,
self._function_to_hub).city

53
hub/imports/results/insel_monthly_energry_balance.py
View File

@ -4,7 +4,6 @@ SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2022 Concordia CERC group
Project Coder Guillermo.GutierrezMorote@concordia.ca
"""
from pathlib import Path
import pandas as pd
import csv
@ -40,60 +39,55 @@ class InselMonthlyEnergyBalance:
monthly_cooling = pd.DataFrame(cooling, columns=[cte.INSEL_MEB]).astype(float)
return monthly_heating, monthly_cooling
def _dhw_demand(self):
def _dhw_and_electric_demand(self):
for building in self._city.buildings:
domestic_hot_water_demand = []
if building.internal_zones[0].thermal_zones is None:
domestic_hot_water_demand = [0] * 12
else:
thermal_zone = building.internal_zones[0].thermal_zones[0]
area = thermal_zone.total_floor_area
cold_water = building.cold_water_temperature[cte.MONTH]['epw']
for month in range(0, 12):
total_dhw_demand = 0
for schedule in thermal_zone.domestic_hot_water.schedules:
total_day = 0
for value in schedule.values:
total_day += value
for day_type in schedule.day_types:
demand = thermal_zone.domestic_hot_water.peak_flow * cte.WATER_DENSITY * cte.WATER_HEAT_CAPACITY \
* (thermal_zone.domestic_hot_water.service_temperature - cold_water[month])
total_dhw_demand += total_day * cte.DAYS_A_MONTH[day_type][month] * demand
domestic_hot_water_demand.append(total_dhw_demand * area)
building.domestic_hot_water_heat_demand[cte.MONTH] = \
pd.DataFrame(domestic_hot_water_demand, columns=[cte.INSEL_MEB])
def _electrical_demand(self):
for building in self._city.buildings:
lighting_demand = []
appliances_demand = []
if building.internal_zones[0].thermal_zones is None:
domestic_hot_water_demand = [0] * 12
lighting_demand = [0] * 12
appliances_demand = [0] * 12
else:
thermal_zone = building.internal_zones[0].thermal_zones[0]
area = thermal_zone.total_floor_area
cold_water = building.cold_water_temperature[cte.MONTH]['epw']
peak_flow = thermal_zone.domestic_hot_water.peak_flow
service_temperature = thermal_zone.domestic_hot_water.service_temperature
lighting_density = thermal_zone.lighting.density
appliances_density = thermal_zone.appliances.density
for month in range(0, 12):
total_dhw_demand = 0
total_lighting = 0
total_appliances = 0
for schedule in thermal_zone.lighting.schedules:
total_day = 0
for value in schedule.values:
total_day += value
for day_type in schedule.day_types:
total_lighting += total_day * cte.DAYS_A_MONTH[day_type][month] * thermal_zone.lighting.density
total_lighting += total_day * cte.DAYS_A_MONTH[day_type][month] * lighting_density
lighting_demand.append(total_lighting * area)
total_appliances = 0
for schedule in thermal_zone.appliances.schedules:
total_day = 0
for value in schedule.values:
total_day += value
for day_type in schedule.day_types:
total_appliances += total_day * cte.DAYS_A_MONTH[day_type][month] * thermal_zone.appliances.density
total_appliances += total_day * cte.DAYS_A_MONTH[day_type][month] * appliances_density
appliances_demand.append(total_appliances * area)
for schedule in thermal_zone.domestic_hot_water.schedules:
total_day = 0
for value in schedule.values:
total_day += value
for day_type in schedule.day_types:
demand = peak_flow * cte.WATER_DENSITY * cte.WATER_HEAT_CAPACITY * (service_temperature - cold_water[month])
total_dhw_demand += total_day * cte.DAYS_A_MONTH[day_type][month] * demand
domestic_hot_water_demand.append(total_dhw_demand * area)
building.domestic_hot_water_heat_demand[cte.MONTH] = pd.DataFrame(domestic_hot_water_demand, columns=[cte.INSEL_MEB])
building.lighting_electrical_demand[cte.MONTH] = pd.DataFrame(lighting_demand, columns=[cte.INSEL_MEB])
building.appliances_electrical_demand[cte.MONTH] = pd.DataFrame(appliances_demand, columns=[cte.INSEL_MEB])
@ -109,5 +103,4 @@ class InselMonthlyEnergyBalance:
building.cooling[cte.YEAR] = pd.DataFrame(
[building.cooling[cte.MONTH][cte.INSEL_MEB].astype(float).sum()], columns=[cte.INSEL_MEB]
)
self._dhw_demand()
self._electrical_demand()
self._dhw_and_electric_demand()

0
hub/imports/results/peak_calculation/__init__.py Normal file
View File

118
hub/imports/results/peak_calculation/loads_calculation.py Normal file
View File

@ -0,0 +1,118 @@
"""
Calculation of loads for peak heating and cooling
SPDX - License - Identifier: LGPL - 3.0 - or -later
Copyright © 2022 Concordia CERC group
Project Coder Pilar Monsalvete Alvarez de Uribarri pilar.monsalvete@concordia.ca
"""
import hub.helpers.constants as cte
class LoadsCalculation:
"""
LoadsCalculation class
"""
def __init__(self, building):
self._building = building
@staticmethod
def _get_load_transmitted(thermal_zone, internal_temperature, ambient_temperature, ground_temperature):
load_transmitted_opaque = 0
load_transmitted_transparent = 0
for thermal_boundary in thermal_zone.thermal_boundaries:
if thermal_boundary.type == cte.GROUND:
external_temperature = ground_temperature
elif thermal_boundary.type == cte.INTERIOR_WALL:
external_temperature = internal_temperature
else:
external_temperature = ambient_temperature
load_transmitted_opaque += thermal_boundary.u_value * thermal_boundary.opaque_area \
* (internal_temperature - external_temperature)
for thermal_opening in thermal_boundary.thermal_openings:
load_transmitted_transparent += thermal_opening.overall_u_value \
* (internal_temperature - external_temperature)
load_transmitted_opaque += thermal_zone.additional_thermal_bridge_u_value * thermal_zone.footprint_area \
* (internal_temperature - ambient_temperature)
load_transmitted = load_transmitted_opaque + load_transmitted_transparent
return load_transmitted
@staticmethod
def _get_load_ventilation(thermal_zone, internal_temperature, ambient_temperature):
load_renovation_sensible = 0
for usage in thermal_zone.usages:
load_renovation_sensible += cte.AIR_DENSITY * cte.AIR_HEAT_CAPACITY * usage.mechanical_air_change \
* thermal_zone.volume / cte.HOUR_TO_MINUTES / cte.MINUTES_TO_SECONDS \
* (internal_temperature - ambient_temperature)
load_infiltration_sensible = cte.AIR_DENSITY * cte.AIR_HEAT_CAPACITY * thermal_zone.infiltration_rate_system_off \
* thermal_zone.volume / cte.HOUR_TO_MINUTES / cte.MINUTES_TO_SECONDS \
* (internal_temperature - ambient_temperature)
load_ventilation = load_renovation_sensible + load_infiltration_sensible
return load_ventilation
def get_heating_transmitted_load(self, ambient_temperature, ground_temperature):
heating_load_transmitted = 0
for internal_zone in self._building.internal_zones:
for thermal_zone in internal_zone.thermal_zones:
internal_temperature = thermal_zone.thermal_control.mean_heating_set_point
heating_load_transmitted += self._get_load_transmitted(thermal_zone, internal_temperature, ambient_temperature,
ground_temperature)
return heating_load_transmitted
def get_cooling_transmitted_load(self, ambient_temperature, ground_temperature):
cooling_load_transmitted = 0
for internal_zone in self._building.internal_zones:
for thermal_zone in internal_zone.thermal_zones:
internal_temperature = thermal_zone.thermal_control.mean_cooling_set_point
cooling_load_transmitted += self._get_load_transmitted(thermal_zone, internal_temperature, ambient_temperature,
ground_temperature)
return cooling_load_transmitted
def get_heating_ventilation_load_sensible(self, ambient_temperature):
heating_ventilation_load = 0
for internal_zone in self._building.internal_zones:
for thermal_zone in internal_zone.thermal_zones:
internal_temperature = thermal_zone.thermal_control.mean_heating_set_point
heating_ventilation_load += self._get_load_ventilation(thermal_zone, internal_temperature, ambient_temperature)
return heating_ventilation_load
def get_cooling_ventilation_load_sensible(self, ambient_temperature):
cooling_ventilation_load = 0
for internal_zone in self._building.internal_zones:
for thermal_zone in internal_zone.thermal_zones:
internal_temperature = thermal_zone.thermal_control.mean_cooling_set_point
cooling_ventilation_load += self._get_load_ventilation(thermal_zone, internal_temperature, ambient_temperature)
return cooling_ventilation_load
def get_internal_load_sensible(self):
cooling_load_occupancy_sensible = 0
cooling_load_lighting = 0
cooling_load_equipment_sensible = 0
for internal_zone in self._building.internal_zones:
for thermal_zone in internal_zone.thermal_zones:
cooling_load_occupancy_sensible += (thermal_zone.occupancy.sensible_convective_internal_gain
+ thermal_zone.occupancy.sensible_radiative_internal_gain) \
* thermal_zone.footprint_area
cooling_load_lighting += (thermal_zone.lighting.density * thermal_zone.lighting.convective_fraction
+ thermal_zone.lighting.density * thermal_zone.lighting.radiative_fraction) \
* thermal_zone.footprint_area
cooling_load_equipment_sensible += (thermal_zone.appliances.density * thermal_zone.appliances.convective_fraction
+ thermal_zone.appliances.density * thermal_zone.appliances.radiative_fraction) \
* thermal_zone.footprint_area
internal_load = cooling_load_occupancy_sensible + cooling_load_lighting + cooling_load_equipment_sensible
return internal_load
def get_radiation_load(self, irradiance_format, hour):
cooling_load_radiation = 0
for internal_zone in self._building.internal_zones:
for thermal_zone in internal_zone.thermal_zones:
for thermal_boundary in thermal_zone.thermal_boundaries:
for thermal_opening in thermal_boundary.thermal_openings:
radiation = thermal_boundary.parent_surface.global_irradiance[cte.HOUR][irradiance_format][hour]
cooling_load_radiation += thermal_opening.area * (1 - thermal_opening.frame_ratio) * thermal_opening.g_value \
* radiation
return cooling_load_radiation

61
hub/imports/results/peak_load.py Normal file
View File

@ -0,0 +1,61 @@
import hub.helpers.constants as cte
from hub.imports.results.peak_calculation.loads_calculation import LoadsCalculation
class PeakLoad:
_MONTH_STARTING_HOUR = [0, 744, 1416, 2160, 2880, 3624, 4344, 5088, 5832, 6552, 7296, 8016]
def __init__(self, city):
self._city = city
self._weather_format = 'epw'
def enrich(self):
for building in self._city.buildings:
monthly_heating_loads = []
monthly_cooling_loads = []
ambient_temperature = building.external_temperature[cte.HOUR][self._weather_format]
for month in range(0, 12):
ground_temperature = building.ground_temperature[cte.MONTH]['2'][month]
heating_ambient_temperature = 100
cooling_ambient_temperature = -100
heating_calculation_hour = -1
cooling_calculation_hour = -1
start_hour = self._MONTH_STARTING_HOUR[month]
end_hour = 8760
if month < 11:
end_hour = self._MONTH_STARTING_HOUR[month + 1]
for hour in range(start_hour, end_hour):
temperature = ambient_temperature[hour]
if temperature < heating_ambient_temperature:
heating_ambient_temperature = temperature
heating_calculation_hour = hour
if temperature > cooling_ambient_temperature:
cooling_ambient_temperature = temperature
cooling_calculation_hour = hour
loads = LoadsCalculation(building)
heating_load_transmitted = loads.get_heating_transmitted_load(heating_ambient_temperature, ground_temperature)
heating_load_ventilation_sensible = loads.get_heating_ventilation_load_sensible(heating_ambient_temperature)
heating_load_ventilation_latent = 0
heating_load = heating_load_transmitted + heating_load_ventilation_sensible + heating_load_ventilation_latent
cooling_load_transmitted = loads.get_cooling_transmitted_load(cooling_ambient_temperature, ground_temperature)
cooling_load_renovation_sensible = loads.get_cooling_ventilation_load_sensible(cooling_ambient_temperature)
cooling_load_internal_gains_sensible = loads.get_internal_load_sensible()
cooling_load_radiation = loads.get_radiation_load(self._irradiance_format, cooling_calculation_hour)
cooling_load_sensible = cooling_load_transmitted + cooling_load_renovation_sensible - cooling_load_radiation \
- cooling_load_internal_gains_sensible
cooling_load_latent = 0
cooling_load = cooling_load_sensible + cooling_load_latent
if heating_load < 0:
heating_load = 0
if cooling_load > 0:
cooling_load = 0
monthly_heating_loads.append(heating_load)
monthly_cooling_loads.append(cooling_load)
self._results[building.name] = {'monthly heating peak load': monthly_heating_loads,
'monthly cooling peak load': monthly_cooling_loads}
self._print_results()

7
hub/imports/results_factory.py
View File

@ -9,6 +9,7 @@ from pathlib import Path
from hub.helpers.utils import validate_import_export_type
from hub.hub_logger import logger
from hub.imports.results.peak_load import PeakLoad
from hub.imports.results.simplified_radiosity_algorithm import SimplifiedRadiosityAlgorithm
from hub.imports.results.insel_monthly_energry_balance import InselMonthlyEnergyBalance
from hub.imports.results.insel_heatpump_energy_demand import InselHeatPumpEnergyDemand
@ -59,6 +60,12 @@ class ResultFactory:
"""
InselMonthlyEnergyBalance(self._city, self._base_path).enrich()
def _peak_load(self):
"""
Enrich the city with peak load results
"""
PeakLoad(self._city).enrich()
def enrich(self):
"""
Enrich the city given to the class using the usage factory given handler

2
hub/imports/usage/nrcan_usage_parameters.py
View File

@ -83,7 +83,7 @@ class NrcanUsageParameters:
if archetype.mechanical_air_change > 0:
usage.mechanical_air_change = archetype.mechanical_air_change
elif archetype.ventilation_rate > 0:
usage.mechanical_air_change = archetype.ventilation_rate / volume_per_area * cte.HOUR_TO_SECONDS
usage.mechanical_air_change = archetype.ventilation_rate / volume_per_area
else:
usage.mechanical_air_change = 0
_occupancy = Occupancy()

2
hub/unittests/test_city_layers.py
View File

@ -60,7 +60,7 @@ class CityLayerTest(TestCase):
def _genidf(self, bldgs_group):
buildings_df, target_buildings, adjacent_buildings = self._prepare_buildings(bldgs_group)
output_path = (Path(__file__).parent / 'tests_outputs').resolve()
#output_path = (Path(__file__).parent / 'tests_outputs').resolve()
city = GeometryFactory('gpandas', data_frame=buildings_df).city
ConstructionFactory('nrel', city).enrich()
UsageFactory('comnet', city).enrich()

2
hub/unittests/test_costs_catalog.py
View File

@ -18,11 +18,13 @@ class TestCostsCatalog(TestCase):
self.assertIsNotNone(catalog, 'catalog is none')
content = catalog.entries()
self.assertTrue(len(content.archetypes) == 2)
print(catalog)
# retrieving all the entries should not raise any exceptions
for category in catalog_categories:
for value in catalog_categories[category]:
catalog.get_entry(value)
print(value)
with self.assertRaises(IndexError):
catalog.get_entry('unknown')

41
hub/unittests/test_geometry_factory.py
View File

@ -8,7 +8,10 @@ from pathlib import Path
from unittest import TestCase
import hub.exports.exports_factory
from hub.helpers.dictionaries import MontrealFunctionToHubFunction
from hub.imports.usage_factory import UsageFactory
from hub.exports.energy_building_exports_factory import EnergyBuildingsExportsFactory
from hub.helpers.dictionaries import MontrealFunctionToHubFunction, Dictionaries
from hub.helpers.geometry_helper import GeometryHelper
from hub.imports.construction_factory import ConstructionFactory
from hub.imports.geometry_factory import GeometryFactory
@ -161,7 +164,7 @@ class TestGeometryFactory(TestCase):
year_of_construction_field='ANNEE_CONS',
function_field='LIBELLE_UT')
info_lod0 = GeometryHelper.city_mapping(city, plot=False)
# info_lod0 = GeometryHelper.city_mapping(city, plot=False)
hub.exports.exports_factory.ExportsFactory('obj', city, self._output_path).export()
self.assertEqual(info_lod0, info_lod1)
for building in city.buildings:
@ -173,3 +176,37 @@ class TestGeometryFactory(TestCase):
self.assertEqual('3_part_0_zone_0', city.city_object('2_part_0_zone_0').neighbours[1].name)
self.assertEqual('1_part_0_zone_0', city.city_object('3_part_0_zone_0').neighbours[0].name)
self.assertEqual('2_part_0_zone_0', city.city_object('3_part_0_zone_0').neighbours[1].name)
def test_neighbours(self):
"""
Test neighbours map creation
"""
file_path = (self._example_path / 'concordia_clean.geojson').resolve()
city = GeometryFactory('geojson',
path=file_path,
height_field='citygml_me',
year_of_construction_field='ANNEE_CONS',
name_field='OBJECTID_12',
function_field='CODE_UTILI',
function_to_hub=Dictionaries().montreal_function_to_hub_function).city
# print(city.lower_corner, city.upper_corner)
for building in city.buildings:
#for ground in building.grounds:
# print(ground.perimeter_polygon.coordinates)
# print(ground.perimeter_polygon.coordinates[0][0] - city.lower_corner[0], ground.perimeter_polygon.coordinates[0][1] - city.lower_corner[1])
# print(ground.perimeter_polygon.coordinates[1][0] - city.lower_corner[0], ground.perimeter_polygon.coordinates[1][1] - city.lower_corner[1])
break
ConstructionFactory('nrcan', city).enrich()
UsageFactory('nrcan', city).enrich()
info_lod1 = GeometryHelper.city_mapping(city, plot=True)
for building in city.buildings:
print(building.name)
ns = ''
for n in building.neighbours:
ns = f'{ns} {n.name}'
for surface in n.surfaces:
print('shared', surface.percentage_shared)
print('\t', ns)
# EnergyBuildingsExportsFactory('idf', city, self._output_path).export()

1408
hub/unittests/tests_data/custom.geojson
View File

File diff suppressed because it is too large Load Diff

2
hub/unittests/tests_outputs/.gitignore vendored
View File

@ -1,4 +1,2 @@
# Ignore everything in this directory
.gitignore
# Except this file
!.gitignore

1
requirements.txt
View File

@ -25,3 +25,4 @@ triangle
psycopg2-binary
Pillow
pathlib
pickle5

1
setup.py
View File

@ -87,6 +87,7 @@ setup(
('hub/catalog_factories/greenery/ecore_greenery', glob.glob('hub/catalog_factories/greenery/ecore_greenery/*.ecore')),
('hub/data/construction.', glob.glob('hub/data/construction/*')),
('hub/data/customized_imports', glob.glob('hub/data/customized_imports/*.xml')),
('data/geolocation', glob.glob('hub/data/geolocation/*.txt')),
('hub/data/energy_systems', glob.glob('hub/data/energy_systems/*.xml')),
('hub/data/energy_systems', glob.glob('hub/data/energy_systems/*.insel')),
('hub/data/energy_systems', glob.glob('hub/data/energy_systems/*.xlsx')),