Module: BTAP::Resources::Economics
- Defined in:
- lib/openstudio-standards/btap/economics.rb
Overview
This module contains methods that relate to Materials, Constructions and Construction Sets
Class Method Summary collapse
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.add_cost_per_building(model, name, cost, runner = nil) ⇒ Object
This method will add the cost per building.
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.add_cost_per_total_area(model, name, cost, runner = nil) ⇒ Object
This method will add the cost per total area.
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.object_cost(model, name, cost, unittype) ⇒ Object
This method will add the costs.
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.remove_all_costs(model, runner = nil) ⇒ Object
This method removes all costs from model.
Instance Method Summary collapse
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#ecm_cold_deck_reset_control(model) ⇒ String
This method will set the ecm cold deck reset control.
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#ecm_cooling_cop(model) ⇒ Object
This method will set the ecm cooling COP.
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#ecm_dcv(model) ⇒ String
This method will set the ecm dcv.
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#ecm_dhw(model) ⇒ String
This method will set the ecm domestic hot water.
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#ecm_economizers(model) ⇒ String
This method will set the ecm economizers.
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#ecm_envelope(model, library_file_path, default_construction_set_name, ext_wall_rsi, ext_floor_rsi, ext_roof_rsi, ground_wall_rsi, ground_floor_rsi, ground_roof_rsi, fixed_window_rsi, fixed_wind_solar_trans, fixed_wind_vis_trans, operable_window_rsi, operable_wind_solar_trans, operable_wind_vis_trans, door_construction_rsi, glass_door_rsi, glass_door_solar_trans, glass_door_vis_trans, overhead_door_rsi, skylight_rsi, skylight_solar_trans, skylight_vis_trans, tubular_daylight_dome_rsi, tubular_daylight_dome_solar_trans, tubular_daylight_dome_vis_trans, tubular_daylight_diffuser_rsi, tubular_daylight_diffuser_solar_trans, tubular_daylight_diffuser_vis_trans, ext_wall_cost_m2, ext_floor_cost_m2, ext_roof_cost_m2, ground_wall_cost_m2, ground_floor_cost_m2, ground_roof_cost_m2, fixed_window_cost_m2, operable_window_cost_m2, door_construction_cost_m2, glass_door_cost_m2, overhead_door_cost_m2, skylight_cost_m2, tubular_daylight_dome_cost_m2, tubular_daylight_diffuser_cost_m2, total_building_construction_set_cost, runner = nil) ⇒ Boolean
This method will set the ecm envelope.
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#ecm_erv(model) ⇒ String
This method will set the ecm erv.
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#ecm_exhaust_fans(model) ⇒ String
This method will set the ecm cexhaust fans.
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#ecm_fans(model) ⇒ String
This method will set the ecm fans.
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#ecm_heating_cooling_setpoints(model) ⇒ String
This method will set the ecm heating and cooling setpoints.
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#ecm_hotwater_boilers(model) ⇒ String
This method will set the ecm chotwater boilers.
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#ecm_infiltration(model, infiltration_design_flow_rate, infiltration_flow_per_space, infiltration_flow_per_exterior_area, infiltration_air_changes_per_hour, cost_per_building, cost_per_exterior_area_m2, runner = nil) ⇒ Boolean
This method will set the ecm infiltration.
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#ecm_lighting(model) ⇒ String
This method will set the ecm lighting.
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#ecm_plugs(model) ⇒ String
This method will set the ecm temperature setback.
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#ecm_pumps(model) ⇒ String
This method will set the ecm pumps.
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#ecm_sat_reset(model) ⇒ String
This method will reset the sat ecm.
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#ecm_sizing(model) ⇒ String
This method will set the ecm sizing.
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#ecm_temp_setback(model) ⇒ String
This method will set the ecm temperature setback.
Class Method Details
.add_cost_per_building(model, name, cost, runner = nil) ⇒ Object
This method will add the cost per building.
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# File 'lib/openstudio-standards/btap/economics.rb', line 64 def self.add_cost_per_building(model,name,cost,runner = nil) #cost per building and building area unless cost.nil? or cost == 0.0 cost_obj = BTAP::Resources::Economics::object_cost(model.building.get,name,cost,"CostPerEach") #log change = "Added cost of per building named: #{name} with cost/bldg = #{cost} and handle UI =#{cost_obj.handle()}" runner.nil? ? puts() : runner.registerInfo() end end |
.add_cost_per_total_area(model, name, cost, runner = nil) ⇒ Object
This method will add the cost per total area.
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# File 'lib/openstudio-standards/btap/economics.rb', line 80 def self.add_cost_per_total_area(model,name,cost,runner = nil) #cost per building and building area unless cost.nil? or cost == 0.0 cost_obj = BTAP::Resources::Economics::object_cost(model.building.get,name,cost,"CostPerArea") #log change = "Added cost of per building total area named: #{name} with cost/area = #{cost} and handle UI =#{cost_obj.handle()}" runner.nil? ? puts() : runner.registerInfo() end end |
.object_cost(model, name, cost, unittype) ⇒ Object
This method will add the costs. return cost_object [OpenStudio::model::Model] A model object
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# File 'lib/openstudio-standards/btap/economics.rb', line 47 def self.object_cost(model,name,cost,unittype) unless cost.nil? or cost == 0.0 #add total construction cost if used in place of each construction. cost_object = OpenStudio::Model::LifeCycleCost.new(model) cost_object.setName(name) cost_object.setCost(cost) cost_object.setCostUnits(unittype) end return cost_object end |
.remove_all_costs(model, runner = nil) ⇒ Object
This method removes all costs from model
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# File 'lib/openstudio-standards/btap/economics.rb', line 32 def self.remove_all_costs(model,runner = nil) #Remove all cost items. model.getLifeCycleCosts.sort.each { |cost_item| cost_item.remove } #log change = "Removed all cost objects from model" runner.nil? ? puts() : runner.registerInfo() end |
Instance Method Details
#ecm_cold_deck_reset_control(model) ⇒ String
This method will set the ecm cold deck reset control.
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# File 'lib/openstudio-standards/btap/economics.rb', line 979 def ecm_cold_deck_reset_control( model ) log = "" measure_values = [ "cold_deck_reset_enabled", "cold_deck_reset_max_supply_air_temp", "cold_deck_reset_min_supply_air_temp", ] #Set all the above instance variables to the @csv_data values or, if not set or == 'na', to nil. self.set_instance_variables(measure_values) if @cold_deck_reset_enabled.to_bool == true model.getAirLoopHVACs.sort.each do |iairloop| cooling_present = false set_point_manager = nil iairloop.components.each do |icomponent| if icomponent.to_CoilCoolingDXSingleSpeed.is_initialized or icomponent.to_CoilCoolingDXTwoSpeed.is_initialized or icomponent.to_CoilCoolingWater.is_initialized or icomponent.to_CoilCoolingCooledBeam.is_initialized or icomponent.to_CoilCoolingDXMultiSpeed.is_initialized or icomponent.to_CoilCoolingDXVariableRefrigerantFlow.is_initialized or icomponent.to_CoilCoolingLowTempRadiantConstFlow.is_initialized or icomponent.to_CoilCoolingLowTempRadiantVarFlow.is_initialized cooling_present = true log << "found cooling." end end #check if setpoint manager is present at supply outlet. model.getSetpointManagerSingleZoneReheats.sort.each do |manager| if iairloop.supplyOutletNode == manager.setpointNode.get set_point_manager = manager end end if set_point_manager.nil? and cooling_present == true set_point_manager = OpenStudio::Model::SetpointManagerSingleZoneReheat.new(model) set_point_manager.addToNode(iairloop.supplyOutletNode) end if cooling_present == true and not set_point_manager.nil? set_point_manager.setMaximumSupplyAirTemperature(@cold_deck_reset_max_supply_air_temp) set_point_manager.setMinimumSupplyAirTemperature(@cold_deck_reset_min_supply_air_temp) log << "to_SetpointManagerSingleZoneReheat set to 20.0 and 13.0" end end end return log end |
#ecm_cooling_cop(model) ⇒ Object
This method will set the ecm cooling COP.
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# File 'lib/openstudio-standards/btap/economics.rb', line 509 def ecm_cooling_cop( model ) log = "" measure_values =[ "cop" ] #Set all the above instance variables to the @csv_data values or, if not set or == 'na', to nil. self.set_instance_variables(measure_values) unless model.getCoilCoolingDXSingleSpeeds.empty? log = "coil_cooling_dx_single_speed_name,cop\n" model.getCoilCoolingDXSingleSpeeds.sort.each do |cooling_coil| cooling_coil.setRatedCOP( OpenStudio::OptionalDouble.new( @cop ) ) unless @cop.nil? cop = "NA" cop = cooling_coil.ratedCOP.get unless cooling_coil.ratedCOP.empty? log << cooling_coil.name.get.to_s << ",#{cop}\n" end end unless model.getCoilCoolingDXTwoSpeeds.empty? log << "coil_cooling_dx_two_speed_name,cop\n" model.getCoilCoolingDXTwoSpeeds.sort.each do |cooling_coil| cooling_coil.setRatedHighSpeedCOP( @cop ) unless @cop.nil? cooling_coil.setRatedLowSpeedCOP( @cop ) unless @cop.nil? cop_high = "NA" cop_high = cooling_coil.ratedHighSpeedCOP.get unless cooling_coil.ratedHighSpeedCOP.empty? cop_low = "NA" cop_low = cooling_coil.ratedLowSpeedCOP.get unless cooling_coil.ratedLowSpeedCOP.empty? log << cooling_coil.name.get.to_s << ",#{cop_high},#{cop_low}\n" end end return log end |
#ecm_dcv(model) ⇒ String
This method will set the ecm dcv.
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# File 'lib/openstudio-standards/btap/economics.rb', line 755 def ecm_dcv( model ) log = "" measure_values =[ "dcv_enabled" ] #Set all the above instance variables to the @csv_data values or, if not set or == 'na', to nil. self.set_instance_variables(measure_values) unless @dcv_enabled.nil? log = BTAP::Resources::HVAC::enable_demand_control_ventilation(model,@dcv_enabled.to_bool) end return log end |
#ecm_dhw(model) ⇒ String
This method will set the ecm domestic hot water.
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# File 'lib/openstudio-standards/btap/economics.rb', line 613 def ecm_dhw( model ) log = "shw_setpoint_sched,shw_heater_fuel_type,shw_thermal_eff\n" measure_values =[ "shw_setpoint_sched_name", "shw_heater_fuel_type", "shw_thermal_eff" ] log = "*SHW Measures*\n" #Set all the above instance variables to the @csv_data values or, if not set or == 'na', to nil. self.set_instance_variables(measure_values) #Create Schedule #schedule = BTAP::Resources::Schedules::create_annual_ruleset_schedule_detailed_json(model, @shw_setpoint_sched) unless @shw_setpoint_sched_name.nil? or @shw_setpoint_sched.nil? #iterate through water heaters. model.getWaterHeaterMixeds.sort.each do |item| unless @shw_setpoint_sched_name.nil? or @shw_setpoint_sched.nil? item.setSetpointTemperatureSchedule(schedule) end item.setHeaterFuelType(@shw_heater_fuel_type) unless @shw_heater_fuel_type.nil? item.setHeaterThermalEfficiency(@shw_thermal_eff) unless @shw_thermal_eff.nil? log << item.name.get.to_s << ",#{item.setpointTemperatureSchedule},#{item.heaterFuelType},#{item.getHeaterThermalEfficiency.get}\n" end return log end |
#ecm_economizers(model) ⇒ String
This method will set the ecm economizers.
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# File 'lib/openstudio-standards/btap/economics.rb', line 548 def ecm_economizers( model ) measure_values =[ "economizer_control_type", "economizer_control_action_type", "economizer_maximum_limit_dry_bulb_temperature", "economizer_maximum_limit_enthalpy", "economizer_maximum_limit_dewpoint_temperature", "economizer_minimum_limit_dry_bulb_temperature" ] #Set all the above instance variables to the @csv_data values or, if not set or == 'na', to nil. self.set_instance_variables(measure_values) log = "" unless @economizer_control_type.nil? log << BTAP::Resources::HVAC::enable_economizer( model, @economizer_control_type, @economizer_control_action_type, @economizer_maximum_limit_dry_bulb_temperature, @economizer_maximum_limit_enthalpy, @economizer_maximum_limit_dewpoint_temperature, @economizer_minimum_limit_dry_bulb_temperature ) end return log end |
#ecm_envelope(model, library_file_path, default_construction_set_name, ext_wall_rsi, ext_floor_rsi, ext_roof_rsi, ground_wall_rsi, ground_floor_rsi, ground_roof_rsi, fixed_window_rsi, fixed_wind_solar_trans, fixed_wind_vis_trans, operable_window_rsi, operable_wind_solar_trans, operable_wind_vis_trans, door_construction_rsi, glass_door_rsi, glass_door_solar_trans, glass_door_vis_trans, overhead_door_rsi, skylight_rsi, skylight_solar_trans, skylight_vis_trans, tubular_daylight_dome_rsi, tubular_daylight_dome_solar_trans, tubular_daylight_dome_vis_trans, tubular_daylight_diffuser_rsi, tubular_daylight_diffuser_solar_trans, tubular_daylight_diffuser_vis_trans, ext_wall_cost_m2, ext_floor_cost_m2, ext_roof_cost_m2, ground_wall_cost_m2, ground_floor_cost_m2, ground_roof_cost_m2, fixed_window_cost_m2, operable_window_cost_m2, door_construction_cost_m2, glass_door_cost_m2, overhead_door_cost_m2, skylight_cost_m2, tubular_daylight_dome_cost_m2, tubular_daylight_diffuser_cost_m2, total_building_construction_set_cost, runner = nil) ⇒ Boolean
This method will set the ecm envelope.
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# File 'lib/openstudio-standards/btap/economics.rb', line 138 def ecm_envelope( model, library_file_path, default_construction_set_name, ext_wall_rsi, ext_floor_rsi, ext_roof_rsi, ground_wall_rsi, ground_floor_rsi, ground_roof_rsi, fixed_window_rsi, fixed_wind_solar_trans, fixed_wind_vis_trans, operable_window_rsi, operable_wind_solar_trans, operable_wind_vis_trans, door_construction_rsi, glass_door_rsi, glass_door_solar_trans, glass_door_vis_trans, overhead_door_rsi, skylight_rsi, skylight_solar_trans, skylight_vis_trans, tubular_daylight_dome_rsi, tubular_daylight_dome_solar_trans, tubular_daylight_dome_vis_trans, tubular_daylight_diffuser_rsi, tubular_daylight_diffuser_solar_trans, tubular_daylight_diffuser_vis_trans, ext_wall_cost_m2, ext_floor_cost_m2, ext_roof_cost_m2, ground_wall_cost_m2, ground_floor_cost_m2, ground_roof_cost_m2, fixed_window_cost_m2, operable_window_cost_m2, door_construction_cost_m2, glass_door_cost_m2, overhead_door_cost_m2, skylight_cost_m2, tubular_daylight_dome_cost_m2, tubular_daylight_diffuser_cost_m2, total_building_construction_set_cost, runner = nil) unless default_construction_set_name.nil? or library_file_path.nil? # #Remove all existing constructions from model. BTAP::Resources::Envelope::remove_all_envelope_information( model ) # #Load Contruction osm library. construction_lib = BTAP::FileIO::load_osm("#{library_file_path}") #Get construction set.. I/O expensive so doing it here. vintage_construction_set = construction_lib.getDefaultConstructionSetByName(default_construction_set_name) if vintage_construction_set.empty? #log change = "Could not load contructions #{default_construction_set_name} from #{library_file_path} " runner.nil? ? puts() : runner.registerError() return false else vintage_construction_set = construction_lib.getDefaultConstructionSetByName(default_construction_set_name).get end new_construction_set =vintage_construction_set.clone(model).to_DefaultConstructionSet.get #Set conductances to needed values in construction set if possible. BTAP::Resources::Envelope::ConstructionSets::customize_default_surface_construction_set_rsi!( model, "#{default_construction_set_name}-modified",new_construction_set, ext_wall_rsi, ext_floor_rsi, ext_roof_rsi, ground_wall_rsi, ground_floor_rsi, ground_roof_rsi, fixed_window_rsi, fixed_wind_solar_trans, fixed_wind_vis_trans, operable_window_rsi, operable_wind_solar_trans, operable_wind_vis_trans, door_construction_rsi, glass_door_rsi, glass_door_solar_trans, glass_door_vis_trans, overhead_door_rsi, skylight_rsi, skylight_solar_trans, skylight_vis_trans, tubular_daylight_dome_rsi, tubular_daylight_dome_solar_trans, tubular_daylight_dome_vis_trans, tubular_daylight_diffuser_rsi, tubular_daylight_diffuser_solar_trans, tubular_daylight_diffuser_vis_trans ) #Set as default to model. model.building.get.setDefaultConstructionSet( new_construction_set ) #Set cost information. BTAP::Resources::Envelope::ConstructionSets::customize_default_surface_construction_set_costs(new_construction_set, ext_wall_cost_m2, ext_floor_cost_m2, ext_roof_cost_m2, ground_wall_cost_m2, ground_floor_cost_m2, ground_roof_cost_m2, fixed_window_cost_m2, operable_window_cost_m2, door_construction_cost_m2, glass_door_cost_m2, overhead_door_cost_m2, skylight_cost_m2, tubular_daylight_dome_cost_m2, tubular_daylight_diffuser_cost_m2, total_building_construction_set_cost ) #Give adiabatic surfaces a construction. Does not matter what. This is a bug in Openstudio that leave these surfaces unassigned by the default construction set. all_adiabatic_surfaces = BTAP::Geometry::Surfaces::filter_by_boundary_condition(model.getSurfaces, "Adiabatic") unless all_adiabatic_surfaces.empty? BTAP::Geometry::Surfaces::set_surfaces_construction( all_adiabatic_surfaces, model.building.get.defaultConstructionSet.get.defaultInteriorSurfaceConstructions.get.wallConstruction.get) end #log change = "Changed Contructions : #{BTAP::Resources::Envelope::ConstructionSets::get_construction_set_info( new_construction_set )}" runner.nil? ? puts() : runner.registerInfo() return true else #log change = "Could not load contructions #{default_construction_set_name} from #{library_file_path} " runner.nil? ? puts() : runner.registerError() return false end end |
#ecm_erv(model) ⇒ String
This method will set the ecm erv.
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# File 'lib/openstudio-standards/btap/economics.rb', line 826 def ecm_erv( model ) log = "" measure_values =[ "erv_enabled", "erv_autosizeNominalSupplyAirFlowRate", "erv_NominalSupplyAirFlowRate", "erv_HeatExchangerType", "erv_SensibleEffectivenessat100CoolingAirFlow", "erv_SensibleEffectivenessat75CoolingAirFlow", "erv_LatentEffectiveness100Cooling", "erv_LatentEffectiveness75Cooling", "erv_SensibleEffectiveness100Heating", "erv_SensibleEffectiveness75Heating", "erv_LatentEffectiveness100Heating", "erv_LatentEffectiveness75Heating", "erv_SupplyAirOutletTemperatureControl", "erv_setFrostControlType", "erv_ThresholdTemperature", "erv_InitialDefrostTimeFraction", "erv_nominal_electric_power", "erv_economizer_lockout" ] #Set all the above instance variables to the @csv_data values or, if not set or == 'na', to nil. self.set_instance_variables(measure_values) unless @erv_enabled.nil? or @erv_enabled.to_bool == false BTAP::Resources::HVAC::enable_erv( model, @erv_autosizeNominalSupplyAirFlowRate, @erv_NominalSupplyAirFlowRate, @erv_HeatExchangerType, @erv_SensibleEffectivenessat100CoolingAirFlow, @erv_SensibleEffectivenessat75CoolingAirFlow, @erv_LatentEffectiveness100Cooling, @erv_LatentEffectiveness75Cooling, @erv_SensibleEffectiveness100Heating, @erv_SensibleEffectiveness75Heating, @erv_LatentEffectiveness100Heating, @erv_LatentEffectiveness75Heating, @erv_SupplyAirOutletTemperatureControl.to_bool, @erv_setFrostControlType, @erv_ThresholdTemperature, @erv_InitialDefrostTimeFraction, @erv_nominal_electric_power, @erv_economizer_lockout.to_bool ).each { |erv| log << erv.to_s } #Add setpoint manager to all OA object in airloops. model.getHeatExchangerAirToAirSensibleAndLatents.sort.each do |erv| #needed to get the supply outlet node from the erv to place the setpoint manager. node = erv.primaryAirOutletModelObject.get.to_Node.get if erv.primaryAirOutletModelObject.is_initialized new_set_point_manager = OpenStudio::Model::SetpointManagerWarmest.new(model) raise ("Could not add setpoint manager") unless new_set_point_manager.addToNode(node) log << "added warmest control to node #{node}" new_set_point_manager.setMaximumSetpointTemperature(16.0) new_set_point_manager.setMinimumSetpointTemperature(5.0) new_set_point_manager.setStrategy("MaximumTemperature") new_set_point_manager.setControlVariable("Temperature") end log << "ERV have been modified.\n" else log << "ERV not changed." end return log end |
#ecm_exhaust_fans(model) ⇒ String
This method will set the ecm cexhaust fans.
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# File 'lib/openstudio-standards/btap/economics.rb', line 900 def ecm_exhaust_fans( model ) log = "" #Exhaust ECM measure_values =[ "exhaust_fans_occ_control_enabled" ] #Set all the above instance variables to the @csv_data values or, if not set or == 'na', to nil. self.set_instance_variables(measure_values) unless @exhaust_fans_occ_control_enabled.nil? or @exhaust_fans_occ_control_enabled.to_bool == false fans = BTAP::Resources::Schedules::set_exhaust_fans_availability_to_building_default_occ_schedule(model) fans.each { |fan| log << fan.to_s} else log << "No changes to exhaust fans." end return log end |
#ecm_fans(model) ⇒ String
This method will set the ecm fans.
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# File 'lib/openstudio-standards/btap/economics.rb', line 323 def ecm_fans( model ) measure_values = [ "fan_total_eff", "fan_motor_eff", "fan_volume_type" ] #Set all the above instance variables to the @csv_data values or, if not set or == 'na', to nil. self.set_instance_variables(measure_values) log = "" unless model.getFanVariableVolumes.empty? log = "fan_variable_volume_name,fan_total_eff,fan_motor_eff\n" model.getFanVariableVolumes.sort.each do |fan| fan.setFanEfficiency( @fan_total_eff ) unless @fan_total_eff.nil? fan.setMotorEfficiency( @fan_motor_eff ) unless @fan_motor_eff.nil? log << fan.name.get.to_s << ",#{fan.fanEfficiency},#{fan.motorEfficiency}\n" end end unless model.getFanConstantVolumes.empty? log = "fan_constant_volume_name,fan_total_eff,fan_motor_eff\n" model.getFanConstantVolumes.sort.each do |fan| fan.setFanEfficiency( @fan_total_eff ) unless @fan_total_eff.nil? fan.setMotorEfficiency( @fan_motor_eff ) unless @fan_motor_eff.nil? log << fan.name.get.to_s << ",#{fan.fanEfficiency},#{fan.motorEfficiency}\n" end end case @fan_volume_type when "VariableVolume" model.getFanConstantVolumes.sort.each do |fan_const| #check that this is indeed connected to an airloop. log << "Found Const Vol Fan #{fan_const.name.get.to_s}" unless fan_const.loop.empty? fan_variable = OpenStudio::Model::FanVariableVolume.new(model,fan_const.availabilitySchedule) #pass information from old fan as much as possible. fan_variable.setFanEfficiency(fan_const.fanEfficiency) fan_variable.setPressureRise( fan_const.pressureRise() ) fan_variable.autosizeMaximumFlowRate fan_variable.setFanPowerMinimumFlowRateInputMethod("FixedFlowRate") fan_variable.setFanPowerMinimumFlowFraction(0.25) fan_variable.setMotorInAirstreamFraction( fan_const.motorInAirstreamFraction() ) fan_variable.setFanPowerCoefficient1(0.35071223) fan_variable.setFanPowerCoefficient2(0.30850535) fan_variable.setFanPowerCoefficient3(-0.54137364) fan_variable.setFanPowerCoefficient4(0.87198823) #get the airloop. air_loop = fan_const.loop.get #add the FanVariableVolume fan_variable.addToNode(air_loop.supplyOutletNode()) #Remove FanConstantVolume fan_const.remove() log << "Replaced by Variable Vol Fan #{fan_variable.name.get.to_s}" end end when "ConstantVolume" model.getFanVariableVolumes.sort.each do |fan| #check that this is indeed connected to an airloop. log << "Found Const Vol Fan #{fan.name.get.to_s}" unless fan.loop.empty? new_fan = OpenStudio::Model::FanConstantVolume.new(model,fan.availabilitySchedule) #pass information from constant speed fan as much as possible. new_fan.setFanEfficiency(fan.fanEfficiency) new_fan.setPressureRise( fan.pressureRise() ) new_fan.setMotorEfficiency(fan.motorEfficiency) new_fan.setMotorInAirstreamFraction( fan.motorInAirstreamFraction() ) new_fan.autosizeMaximumFlowRate #get the airloop. air_loop = fan.loop.get #add the FanVariableVolume new_fan.addToNode(air_loop.supplyOutletNode()) #Remove FanConstantVolume fan.remove() log << "Replaced by Constant Vol Fan #{new_fan.name.get.to_s}" end end when nil log << "No changes to Fan." else raise("fan_volume_type should be ConstantVolume or VariableVolume") end return log end |
#ecm_heating_cooling_setpoints(model) ⇒ String
This method will set the ecm heating and cooling setpoints.
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# File 'lib/openstudio-standards/btap/economics.rb', line 772 def ecm_heating_cooling_setpoints(model) log = "" measure_values =[ "library_file", "heating_schedule_name", "cooling_schedule_name" ] #Set all the above instance variables to the @csv_data values or, if not set or == 'na', to nil. self.set_instance_variables(measure_values) library_file = @library_file heating_schedule_name = @heating_schedule_name cooling_schedule_name = @cooling_schedule_name unless @heating_schedule_name.nil? and @cooling_schedule_name.nil? #Load Contruction osm library. lib = BTAP::FileIO::load_osm("#{@script_root_folder_path}/#{library_file}") unless heating_schedule_name.nil? #Get heating schedule from library and clone it. heating_schedule = lib.getScheduleRulesetByName(heating_schedule_name) if heating_schedule.empty? raise("#{heating_schedule_name} does not exist in #{library_file} library ") else heating_schedule = lib.getScheduleRulesetByName(heating_schedule_name).get.clone(model).to_ScheduleRuleset.get end end unless cooling_schedule_name.nil? #Get cooling schedule from library and clone it. cooling_schedule = lib.getScheduleRulesetByName(cooling_schedule_name) if cooling_schedule.empty? raise("#{cooling_schedule_name} does not exist in #{library_file} library ") else cooling_schedule = lib.getScheduleRulesetByName(cooling_schedule_name).get.clone(model).to_ScheduleRuleset.get end end model.getThermostatSetpointDualSetpoints.sort.each do |dual_setpoint| unless heating_schedule_name.nil? raise ("Could not set heating Schedule") unless dual_setpoint.setHeatingSetpointTemperatureSchedule(heating_schedule) end unless cooling_schedule_name.nil? raise ("Could not set cooling Schedule") unless dual_setpoint.setCoolingSetpointTemperatureSchedule(cooling_schedule) end end end return log end |
#ecm_hotwater_boilers(model) ⇒ String
This method will set the ecm chotwater boilers.
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# File 'lib/openstudio-standards/btap/economics.rb', line 643 def ecm_hotwater_boilers( model ) measure_values = [ "hw_boiler_design_water_outlet_temperature", "hw_boiler_fuel_type", "hw_boiler_thermal_eff", "hw_boiler_curve", "hw_boiler_flow_mode",# "hw_boiler_eff_curve_temp_eval_var",# "hw_boiler_reset_highsupplytemp" , "hw_boiler_reset_outsidehighsupplytemp" , "hw_boiler_reset_lowsupplytemp" , "hw_boiler_reset_outsidelowsupplytemp" , ] #Set all the above instance variables to the @csv_data values or, if not set or == 'na', to nil. self.set_instance_variables(measure_values) table = "name,boiler_design_water_outlet_temperature,boiler_fuel_type,boiler_thermal_eff\n" model.getPlantLoops.sort.each do |iplantloop| iplantloop.components.each do |icomponent| if icomponent.to_BoilerHotWater.is_initialized boiler = icomponent.to_BoilerHotWater.get #set design outlet temp boiler.setDesignWaterOutletTemperature(@hw_boiler_design_water_outlet_temperature) unless @hw_boiler_design_water_outlet_temperature.nil? #set fuel type boiler.setFuelType(@hw_boiler_fuel_type) unless @hw_boiler_fuel_type.nil? #set thermal eff boiler.setNominalThermalEfficiency(@hw_boiler_thermal_eff) unless @hw_boiler_thermal_eff.nil? #set boiler flow mode unless @hw_boiler_flow_mode.nil? ["ConstantFlow","LeavingSetpointModulated","NotModulated"].include?(@hw_boiler_flow_mode) ? boiler.setBoilerFlowMode(@hw_boiler_flow_mode) : raise("Boiler flow mode #{@hw_boiler_flow_mode} invalid.") end #set setDesignWaterOutletTemperature boiler.setDesignWaterOutletTemperature(@hotwaterboiler_reset_highsupplytemp) unless @hotwaterboiler_reset_highsupplytemp.nil? #set EfficiencyCurveTemperatureEvaluationVariable unless @hw_boiler_eff_curve_temp_eval_var.nil? ["LeavingBoiler","EnteringBoiler"].include?(@hw_boiler_eff_curve_temp_eval_var) ? boiler.setEfficiencyCurveTemperatureEvaluationVariable(@hw_boiler_eff_curve_temp_eval_var) : raise("EfficiencyCurveTemperatureEvaluationVariable #{@hw_boiler_eff_curve_temp_eval_var} invalid.") end #Set boiler curve curve = boiler.normalizedBoilerEfficiencyCurve if not @hw_boiler_curve.nil? and curve.is_initialized and curve.get.to_CurveBiquadratic.is_initialized case @hw_boiler_curve.downcase when "atmospheric" biqcurve = curve.get.to_CurveBiquadratic.get biqcurve.setCoefficient1Constant(1.057059) biqcurve.setCoefficient1Constant(1.057059) biqcurve.setCoefficient2x(-0.0774177) biqcurve.setCoefficient3xPOW2(0.07875142) biqcurve.setCoefficient4y(0.0003943856) biqcurve.setCoefficient5yPOW2(-0.000004074629) biqcurve.setCoefficient6xTIMESY(-0.002202606) biqcurve.setMinimumValueofx(0.3) biqcurve.setMaximumValueofx(1.0) biqcurve.setMinimumValueofy(40.0) biqcurve.setMaximumValueofy(90.0) biqcurve.setMinimumCurveOutput(0.0) biqcurve.setMaximumCurveOutput(1.1) biqcurve.setInputUnitTypeforX("Dimensionless") biqcurve.setInputUnitTypeforY("Temperature") biqcurve.setOutputUnitType("Dimensionless") when "condensing" biqcurve = curve.get.to_CurveBiquadratic.get biqcurve.setCoefficient1Constant(0.4873) biqcurve.setCoefficient2x(1.1322) biqcurve.setCoefficient3xPOW2(-0.6425) biqcurve.setCoefficient4y(0.0) biqcurve.setCoefficient5yPOW2(0.0) biqcurve.setCoefficient6xTIMESY(0.0) biqcurve.setMinimumValueofx(0.1) biqcurve.setMaximumValueofx(1.0) biqcurve.setMinimumValueofy(0.0) biqcurve.setMaximumValueofy(0.0) biqcurve.setMinimumCurveOutput(0.0) biqcurve.setMaximumCurveOutput(1.0) biqcurve.setInputUnitTypeforX("Dimensionless") biqcurve.setInputUnitTypeforY("Temperature") biqcurve.setOutputUnitType("Dimensionless") else raise("#{@hotwaterboiler_curve} is not a valid boiler curve name (condensing_boiler_curve,atmospheric_boiler_curve") end end #boiler reset setpoint manager unless @hotwaterboiler_reset_lowsupplytemp.nil? and @hotwaterboiler_reset_outsidelowsupplytemp.nil? and @hotwaterboiler_reset_highsupplytemp.nil? and @hotwaterboiler_reset_outsidehighsupplytemp.nil? #check if setpoint manager is present at supply outlet #Find any setpoint manager if it exists and outlet node and remove it. iplantloop.supplyOutletNode.setpointManagers.each {|sm| sm.disconnect} #Add new setpoint manager oar_stpt_manager = OpenStudio::Model::SetpointManagerOutdoorAirReset.new(model) oar_stpt_manager.addToNode(iplantloop.supplyOutletNode) oar_stpt_manager.setSetpointatOutdoorHighTemperature(@hw_boiler_reset_lowsupplytemp) unless @hw_boiler_reset_lowsupplytemp.nil? oar_stpt_manager.setOutdoorHighTemperature(@hotwaterboiler_reset_outsidelowsupplytemp) unless @hw_boiler_reset_outsidelowsupplytemp.nil? oar_stpt_manager.setSetpointatOutdoorLowTemperature(@hw_boiler_reset_highsupplytemp) unless @hw_boiler_reset_highsupplytemp.nil? oar_stpt_manager.setOutdoorLowTemperature(@hw_boiler_reset_outsidehighsupplytemp) unless @hw_boiler_reset_outsidehighsupplytemp.nil? end table << boiler.name.get.to_s << "," boiler.designWaterOutletTemperature.empty? ? dowt = "NA" : dowt = boiler.designWaterOutletTemperature.get table << "#{dowt},#{boiler.fuelType},#{boiler.nominalThermalEfficiency}\n" end end end #end boilers loop return table end |
#ecm_infiltration(model, infiltration_design_flow_rate, infiltration_flow_per_space, infiltration_flow_per_exterior_area, infiltration_air_changes_per_hour, cost_per_building, cost_per_exterior_area_m2, runner = nil) ⇒ Boolean
This method will set the ecm infiltration.
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# File 'lib/openstudio-standards/btap/economics.rb', line 268 def ecm_infiltration( model, infiltration_design_flow_rate, infiltration_flow_per_space, infiltration_flow_per_exterior_area, infiltration_air_changes_per_hour, cost_per_building, cost_per_exterior_area_m2, runner = nil ) default_surface_construction_set = model.building.get.defaultConstructionSet.get log = BTAP::Resources::SpaceLoads::ScaleLoads::set_inflitration_magnitude( model, infiltration_design_flow_rate, infiltration_flow_per_space, infiltration_flow_per_exterior_area, infiltration_air_changes_per_hour ) #log change = log runner.nil? ? puts() : runner.registerinfo() #set costs based on all external surface type constructions. constructions_and_cost = [ ["infiltration_ext_wall_cost_m3",cost_per_exterior_area_m2, default_surface_construction_set.defaultExteriorSurfaceConstructions.get.wallConstruction.get], ["infiltration_ext_floor_cost_m3", cost_per_exterior_area_m2, default_surface_construction_set.defaultExteriorSurfaceConstructions.get.floorConstruction.get], ["infiltration_ext_roof_cost_m3",cost_per_exterior_area_m2, default_surface_construction_set.defaultExteriorSurfaceConstructions.get.roofCeilingConstruction.get], ["infiltration_fixed_window_cost_m3",cost_per_exterior_area_m2, default_surface_construction_set.defaultExteriorSubSurfaceConstructions.get.fixedWindowConstruction.get], ["infiltration_operable_window_cost_m3",cost_per_exterior_area_m2, default_surface_construction_set.defaultExteriorSubSurfaceConstructions.get.operableWindowConstruction.get], ["infiltration_door_construction_cost_m3",cost_per_exterior_area_m2, default_surface_construction_set.defaultExteriorSubSurfaceConstructions.get.doorConstruction.get], ["infiltration_glass_door_cost_m3",cost_per_exterior_area_m2, default_surface_construction_set.defaultExteriorSubSurfaceConstructions.get.glassDoorConstruction.get], ["infiltration_overhead_door_cost_m3",cost_per_exterior_area_m2, default_surface_construction_set.defaultExteriorSubSurfaceConstructions.get.overheadDoorConstruction.get], ["infiltration_skylight_cost_m3",cost_per_exterior_area_m2, default_surface_construction_set.defaultExteriorSubSurfaceConstructions.get.skylightConstruction.get], ["infiltration_tubular_daylight_dome_cost_m3",cost_per_exterior_area_m2, default_surface_construction_set.defaultExteriorSubSurfaceConstructions.get.tubularDaylightDomeConstruction.get], ["infiltration_tubular_daylight_diffuser_cost_m3" ,cost_per_exterior_area_m2 , default_surface_construction_set.defaultExteriorSubSurfaceConstructions.get.tubularDaylightDiffuserConstruction.get] ] #Assign cost to each construction. constructions_and_cost.each do |item| unless item[1].nil? item[2].removeLifeCycleCosts() raise("Could not remove LCC info from construction #{item[2]}") unless item[2].lifeCycleCosts.size == 0 construction_cost_object = OpenStudio::Model::LifeCycleCost.new(item[2]) construction_cost_object.setName(item[0]) construction_cost_object.setCost(item[1]) construction_cost_object.setCostUnits("CostPerArea") end end #create building total construction cost if needed. building = default_surface_construction_set.model.building.get BTAP::Resources::Economics::object_cost(building, "Infiltration Cost per building.", cost_per_building, "CostPerEach") return true end |
#ecm_lighting(model) ⇒ String
This method will set the ecm lighting.
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# File 'lib/openstudio-standards/btap/economics.rb', line 921 def ecm_lighting( model ) log = "" #Lighting ECM measure_values =[ "lighting_scaling_factor", "lighting_fraction_radiant", "lighting_fraction_visible", "lighting_return_air_fraction" ] #Set all the above instance variables to the @csv_data values or, if not set or == 'na', to nil. self.set_instance_variables(measure_values) BTAP::Resources::SpaceLoads::ScaleLoads::scale_lighting_loads( model, @lighting_scaling_factor ) unless @lighting_scaling_factor.nil? #Set lighting variables model.getLightsDefinitions.sort.each do |lightsdef| lightsdef.setFractionRadiant(@lighting_fraction_radiant.to_f) lightsdef.setFractionVisible(@lighting_fraction_visible.to_f) lightsdef.setReturnAirFraction(@lighting_return_air_fraction.to_f) end return log end |
#ecm_plugs(model) ⇒ String
This method will set the ecm temperature setback.
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# File 'lib/openstudio-standards/btap/economics.rb', line 948 def ecm_plugs( model ) log = "" #Plug loads ECM measure_values = [ "elec_equipment_scaling_factor", "elec_equipment_fraction_radiant", "elec_equipment_fraction_latent", "elec_equipment_fraction_lost" ] #Set all the above instance variables to the @csv_data values or, if not set or == 'na', to nil. self.set_instance_variables(measure_values) BTAP::Resources::SpaceLoads::ScaleLoads::scale_electrical_loads( model, @elec_equipment_scaling_factor) unless @elec_equipment_scaling_factor.nil? #Set plug loads variables model.getElectricEquipmentDefinitions.sort.each do |elec_equip_def| elec_equip_def.setFractionRadiant(@elec_equipment_fraction_radiant.to_f) elec_equip_def.setFractionLatent(@elec_equipment_fraction_latent.to_f) elec_equip_def.setFractionLost(@elec_equipment_fraction_lost.to_f) end CSV.open("#{@script_root_folder_path}/sample_scale_plug_loads_ecm.csv", 'w') { |csv| csv << measure_values.unshift("measure_id") } return log end |
#ecm_pumps(model) ⇒ String
This method will set the ecm pumps.
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# File 'lib/openstudio-standards/btap/economics.rb', line 415 def ecm_pumps( model ) measure_values = [ "pump_motor_eff", "pump_control_type", "pump_speed_type" ] #Set all the above instance variables to the @csv_data values or, if not set or == 'na', to nil. self.set_instance_variables(measure_values) log = "" unless model.getPumpVariableSpeeds.empty? log = "pump_variable_speed_name,@pump_motor_eff\n" model.getPumpVariableSpeeds.sort.each do |pump| pump.setMotorEfficiency( @pump_motor_eff.to_f ) unless @pump_motor_eff.nil? pump.setPumpControlType( @pump_control_type ) unless @pump_control_type.nil? log << pump.name.get.to_s << ",#{pump.motorEfficiency}\n" end end unless model.getPumpConstantSpeeds.empty? log << "pump_variable_speed_name,@pump_motor_eff\n" model.getPumpConstantSpeeds.sort.each do |pump| pump.setMotorEfficiency( @pump_motor_eff.to_f ) unless @pump_motor_eff.nil? pump.setPumpControlType( @pump_control_type ) unless @pump_control_type.nil? log << pump.name.get.to_s << ",#{pump.motorEfficiency}\n" end end #set pump speed type based on existing pump. case @pump_speed_type when "VariableSpeed" model.getPumpConstantSpeeds.sort.each do |pump_const| log << "Found Const Vol Fan #{pump_const.name.get.to_s}" #check that this is indeed connected to an plant loop. unless pump_const.plantLoop.empty? pump_variable = OpenStudio::Model::PumpVariableSpeed.new(model) #pass information from constant speed fan as much as possible. pump_variable.setRatedFlowRate(pump_const.getRatedFlowRate.get) pump_variable.setRatedPumpHead(pump_const.ratedPumpHead()) pump_variable.setRatedPowerConsumption(pump_const.ratedPowerConsumption.to_f) pump_variable.setMotorEfficiency(pump_const.motorEfficiency().to_f) pump_variable.setPumpControlType( pump_const.pumpControlType ) pump_variable.setFractionofMotorInefficienciestoFluidStream(pump_const.fractionofMotorInefficienciestoFluidStream().to_f) pump_variable.autosizeRatedFlowRate if pump_const.isRatedFlowRateAutosized pump_variable.autosizeRatedPowerConsumption if pump_const.isRatedPowerConsumptionAutosized #get the hot water loop. hw_loop = pump_const.plantLoop.get #Remove PumpConstantSpeed pump_const.remove() #add pump_variable.addToNode(hw_loop.supplyInletNode) log << "Replaced by Variable Vol Pump #{pump_variable.name.get.to_s}" end end #end loop PumpConstantSpeeds when "ConstantSpeed" model.getPumpVariableSpeeds.sort.each do |pump| log << "Found Variable Speed Pump #{pump.name.get.to_s}" #check that this is indeed connected to an plant loop. unless pump.plantLoop.empty? new_pump = OpenStudio::Model::PumpVariableSpeed.new(model) #pass information from constant speed fan as much as possible. new_pump.setRatedFlowRate(pump.getRatedFlowRate.get) new_pump.setRatedPumpHead(pump.ratedPumpHead()) new_pump.setRatedPowerConsumption(pump.ratedPowerConsumption.to_f) new_pump.setMotorEfficiency(pump.motorEfficiency().to_f) new_pump.setFractionofMotorInefficienciestoFluidStream(pump.fractionofMotorInefficienciestoFluidStream().to_f) new_pump.setPumpControlType( pump.pumpControlType ) new_pump.autosizeRatedFlowRate if pump.isRatedFlowRateAutosized new_pump.autosizeRatedPowerConsumption if pump.isRatedPowerConsumptionAutosized #get the hot water loop. hw_loop = pump.plantLoop.get #Remove PumpVariableSpeed pump.remove() #add the pump to loop. new_pump.addToNode(hw_loop.supplyInletNode) log << "Replaced by constant speed Pump #{new_pump.name.get.to_s}" end end #end loop Pump variable Speeds when nil log << "No changes" else raise( "pump_speed_type field is not ConstantSpeed or VariableSpeed" ) end #Create sample csv file. CSV.open("#{@script_root_folder_path}/sample_pump_eff_ecm.csv", 'w') { |csv| csv << measure_values.unshift("measure_id") } return log end |
#ecm_sat_reset(model) ⇒ String
This method will reset the sat ecm.
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# File 'lib/openstudio-standards/btap/economics.rb', line 1035 def ecm_sat_reset( model ) log = "" measure_values = [ "sat_reset_enabled", "sat_reset_outdoor_high_temperature", "sat_reset_outdoor_low_temperature", "sat_reset_setpoint_at_outdoor_high_temperature", "sat_reset_setpoint_at_outdoor_low_temperature" ] #Set all the above instance variables to the @csv_data values or, if not set or == 'na', to nil. self.set_instance_variables(measure_values) if @sat_reset_enabled.to_bool == true model.getAirLoopHVACs.sort.each do |iairloop| #check if setpoint manager is present at supply outlet model.getSetpointManagerSingleZoneReheats.sort.each do |manager| if iairloop.supplyOutletNode == manager.setpointNode.get manager.disconnect end end new_set_point_manager = OpenStudio::Model::SetpointManagerOutdoorAirReset.new(model) new_set_point_manager.addToNode(iairloop.supplyOutletNode) new_set_point_manager.setOutdoorHighTemperature(@sat_reset_outdoor_high_temperature) new_set_point_manager.setOutdoorLowTemperature(@sat_reset_outdoor_low_temperature) new_set_point_manager.setSetpointatOutdoorHighTemperature(@sat_reset_setpoint_at_outdoor_high_temperature) new_set_point_manager.setSetpointatOutdoorLowTemperature(@sat_reset_setpoint_at_outdoor_low_temperature) new_set_point_manager.setControlVariable("Temperature") log << "Replaced SingleZoneReheat with OA reset control." end end return log end |
#ecm_sizing(model) ⇒ String
This method will set the ecm sizing.
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# File 'lib/openstudio-standards/btap/economics.rb', line 579 def ecm_sizing( model) measure_values =[ "heating_sizing_factor", "cooling_sizing_factor", "zone_heating_sizing_factor", "zone_cooling_sizing_factor" ] table = "*Sizing Factor Measure*" #Set all the above instance variables to the @csv_data values or, if not set or == 'na', to nil. self.set_instance_variables(measure_values) table = "handle,heating_sizing_factor,cooling_sizing_factor\n" #Sizing Parameters model.getSizingParameters.setHeatingSizingFactor(@heating_sizing_factor) unless @heating_sizing_factor.nil? model.getSizingParameters.setCoolingSizingFactor(@cooling_sizing_factor) unless @cooling_sizing_factor.nil? #SizingZone table << "handle,zone_heating_sizing_factor,zone_cooling_sizing_factor\n" model.getSizingZones.sort.each do |item| item.setZoneHeatingSizingFactor(@zone_heating_sizing_factor) unless @zone_heating_sizing_factor.nil? item.setZoneCoolingSizingFactor(@zone_cooling_sizing_factor) unless @zone_cooling_sizing_factor.nil? table << "#{item.handle},#{item.zoneHeatingSizingFactor.get},#{item.zoneCoolingSizingFactor.get}\n" end #Create sample csv file. CSV.open("#{@script_root_folder_path}/sample_sizing_param_ecm.csv", 'w') { |csv| csv << measure_values.unshift("measure_id") } return table end |
#ecm_temp_setback(model) ⇒ String
This method will set the ecm temperature setback.
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# File 'lib/openstudio-standards/btap/economics.rb', line 1075 def ecm_temp_setback( model ) log = "" measure_values = [ "occ_stbck_enabled", "occ_stbck_tolerance", "occ_stbck_heat_setback", "occ_stbck_heat_setpoint", "occ_stbck_cool_setback", "occ_stbck_cool_setpoint" ] #Set all the above instance variables to the @csv_data values or, if not set or == 'na', to nil. self.set_instance_variables(measure_values) # get occupancy schedule if possible. unless @occ_stbck_enabled.nil? or @occ_stbck_enabled == false if model.building.get.defaultScheduleSet.is_initialized and model.building.get.defaultScheduleSet.get.numberofPeopleSchedule.is_initialized and model.building.get.defaultScheduleSet.get.numberofPeopleSchedule.get.to_ScheduleRuleset.is_initialized occupancy_schedule = model.building.get.defaultScheduleSet.get.numberofPeopleSchedule.get heating_schedule,cooling_schedule = BTAP::Resources::Schedules::create_setback_schedule_based_on_another_schedule( model, occupancy_schedule, @occ_stbck_tolerance.to_f, @occ_stbck_heat_setpoint.to_f, @occ_stbck_heat_setback.to_f, @occ_stbck_cool_setpoint.to_f, @occ_stbck_cool_setback.to_f) model.getThermostatSetpointDualSetpoints.sort.each do |dual_setpoint| raise ("Could not set setback heating Schedule") unless dual_setpoint.setHeatingSetpointTemperatureSchedule(heating_schedule) raise ("Could not set setback cooling Schedule") unless dual_setpoint.setCoolingSetpointTemperatureSchedule(cooling_schedule) log << "modified....#{dual_setpoint}" end end else log << "no change to setbacks." end return log end |