modelIndependentTechnologies

Extends from TransiEnt.SystemGeneration.GridConstructor.Base.PartialTechnologies.

Information

1. Purpose of model

Accommodates all available technologies that are connected to gas, electricity and district heating grid networks.

2. Level of detail, physical effects considered, and physical insight

(no remarks)

3. Limits of validity

(no remarks)

4. Interfaces

(no remarks)

5. Nomenclature

(no remarks)

6. Governing Equations

(no remarks)

7. Remarks for Usage

(no remarks)

8. Validation

(no remarks)

9. References

(no remarks)

10. Version History

Model created during IntegraNet I

Parameters

TypeNameDefaultDescription
BooleanuseGasPort (from PartialTechnologies)trueTrue if gas port shall be used
BooleanonlyElectric (from PartialTechnologies)false
IntegerEl_Consumer (from PartialTechnologies)1
IntegerPV (from PartialTechnologies)0
IntegerCHP (from PartialTechnologies)0
IntegerBoiler (from PartialTechnologies)1
IntegerHeatPump (from PartialTechnologies)1
IntegerDHN (from PartialTechnologies)0
IntegerNSH (from PartialTechnologies)1
IntegerST (from PartialTechnologies)1
IntegerOil (from PartialTechnologies)1
IntegerBiomass (from PartialTechnologies)1
TransiEnt.Basics.Types.FuelTypefuel_ST (from PartialTechnologies)TransiEnt.Basics.Types.FuelType.Gaschoice of fuel
Realcosphi_boundary1
SI.Efficiencyeta_boiler0.9Efficiency of the gas, oil or biomass boiler
SI.PowerP_inst_PV200Combined installed PV power
RealTilt_PV0Inclination of surface of PV modules
RealAzimuth_PV0Gyration of PV surface; Orientation: +90=West, -90=East, 0=South
StringPVModuleCharacteristics"Sanyo_HIT_200_BA3"
Realphi_PV53.63degree of latitude of location
Reallambda_PV10degree of longitude of location
Realtimezone_PV1timezone of location (UTC+) - for Hamburg timezone=1
SI.EnergyE_max_PV0Maximum capacity of the battery
SI.EnergyE_min_PV0Maximum capacity of the battery
SI.PowerP_load_PV2000Charging/discharging power of the battery
Realeta_load_battery_PV0.95Conversion efficiency while loading
SI.FrequencyselfDischargeRate_battery4e-9E.g. 0.5/3600 = 50% discharge per hour, used if no detailed staionary loss model is available
TransiEnt.Producer.Electrical.Photovoltaics.Advanced_PV.Characteristics.Generic_Characteristics_PVModuleModuleCharacteristicsif PVModuleCharacteristics == "Sanyo_HIT_200_BA3" then TransiEnt.Producer.Electrical.Photovoltaics.Advanced_PV.Characteristics.PVModule_Characteristics_Sanyo_HIT_200_BA3() else TransiEnt.Producer.Electrical.Photovoltaics.Advanced_PV.Characteristics.PVModule_Characteristics_Sanyo_HIT_200_BA3()Characteristics of PV Module
Booleansimple_PVfalseIf true, POA irradiation is used as in input instead of DHI and DNI to reduce calculation time
StringRadiation_data"ambient/Radiation_PVModule_TMY-Hamburg_Az=0_Tilt=0.txt"Table for radiation data
Realeta_CHP0.9Total efficiency of CHP as sum of thermal and electrical efficiency
SI.PowerQ_CHP4000Heat output of CHP
SI.PowerP_CHP8000Electric power output of CHP
SI.Efficiencyeta_boiler_CHP1.05Boiler's overall efficiency
SI.TemperatureT_s_max_CHP363.15Maximum storage temperature
SI.TemperatureT_s_min_CHP303.15Minimum storage temperature
SI.VolumeV_s_CHP0.5Volume of the Storage
SI.Heighth_s_CHP1.3Height of heat storage
Modelica.Units.NonSI.Temperature_degCT_s_amb_CHP15Assumed constant temperature in tank installation room
SI.SurfaceCoefficientOfHeatTransferk_s_CHP0.08Coefficient of heat Transfer
BooleanSpaceHeatingtrueDoes the solar heating system provide energy for space heating?
SI.TemperatureT_set_ST348.15Temperature set point for controller
SI.TemperatureT_max_ST273.15 + 95maximum input temperature for collector switch-off
SI.Areaarea_ST5Aperture area
SI.VolumeV_ST2Volume of the storage tank
SI.TemperatureT_return_ST308.15Return temperature of the heating system
Realeta_Boiler_ST0.9efficiency of the boiler for the solar thermal system
SI.Angleslope_ST53.55slope of the tilted surface, assumption
SI.Angleazimuth_ST0surface azimuth angle
SI.Anglelatitude_ST53.55latitude of the local position, north posiive, 53,55 North for Hamburg
SI.Anglelongitude_standard_ST15needed for calculation of coordinated universal time (utc), 15 for central european time, 30 for central european summer time
SI.Anglelongitude_local_ST10longitude of the local position, east positive, 10 East for Hamburg
SI.TemperatureT_set_boiler_ST60 + 273.15Temperature setpoint of the boiler
SI.HeatFlowRateQ_flow_n_HP3.5e3Nominal heat flow of heat pump at nominal conditions according to EN14511
RealCOP_n_HP3.7Heat pump coefficient of performance at nominal conditions according to EN14511
SI.TemperatureT_s_min_HP313.15Minimum storage temperature of heat pump system
SI.TemperatureT_s_max_HP303.15Minimum storage temperature of heat pump system
SI.VolumeV_s_HP0.2Volume of the storage of heat pump system
SI.Heighth_s_HP0.5Height of heat storage in heat pump system
Modelica.Units.NonSI.Temperature_degCT_s_amb_HP15Assumed constant temperature in tank installation room in heat pump system
SI.SurfaceCoefficientOfHeatTransferk_s_HP0.08Coefficient of heat transfer through tank surface in heat pump system
StringT_source_type_HPTemperature of heat source
SI.PowerP_el_backup_HP10e3Nominal electric power of the backup heater
Battery Parameters
TransiEnt.Storage.Electrical.Specifications.LithiumIonparamsRecord of generic storage parameters

Connectors

TypeNameDefaultDescription
TransiEnt.Basics.Interfaces.Electrical.ApparentPowerPortepp (from PartialTechnologies)
TransiEnt.Basics.Interfaces.Electrical.ElectricPowerInel_Demand (from PartialTechnologies)
TransiEnt.Basics.Interfaces.Thermal.HeatFlowRateInq_Demand (from PartialTechnologies)
TransiEnt.Basics.Interfaces.Thermal.HeatFlowRateInq_Demand_water (from PartialTechnologies)
TransiEnt.Basics.Interfaces.Thermal.FluidPortInwaterPortIn (from PartialTechnologies)
TransiEnt.Basics.Interfaces.Thermal.FluidPortOutwaterPortOut (from PartialTechnologies)
TransiEnt.Basics.Interfaces.Gas.RealGasPortIngasIn_grid (from PartialTechnologies)

Components

TypeNameDefaultDescription
TransiEnt.SimCentersimCenter (from PartialTechnologies)
TransiEnt.ModelStatisticsmodelStatistics (from PartialTechnologies)
SI.TemperatureT_source_HPTemperature of heat source
SI.TemperatureT_source_groundsimCenter.T_ground + 273.15Temperature of ground as heat source
SI.TemperatureT_source_ambientsimCenter.ambientConditions.temperature.value + 273.15Temperature of ambient air as heat source
SI.TemperatureT_source_constant283.15Constant heat source temperature
SI.TemperatureT_source_other283.15Other heat source temperature
Components.Boundaries.Electrical.ApparentPower.ApparentPowerElectric_Consumer
Modelica.Blocks.Math.Sumsum
TransiEnt.Consumer.Heat.DomesticHotWaterdomestic_hot_water
TransiEnt.Producer.Electrical.Photovoltaics.Advanced_PV.DNIDHI_Input.PVModulepVModule
Modelica.Blocks.Sources.RealExpressionambientTemperature
Modelica.Blocks.Sources.RealExpressiondirectSolarRadiation
Modelica.Blocks.Sources.RealExpressiondiffuseSolarRadiation
Modelica.Blocks.Sources.RealExpressionwind
Modelica.Blocks.Sources.RealExpressionPVPower
TransiEnt.Producer.Electrical.Photovoltaics.Advanced_PV.SinglePhasePVInverterPVInverter
TransiEnt.Storage.Electrical.LithiumIonBatterybattery
Modelica.Blocks.Math.Addadd
Modelica.Blocks.Math.Addadd_dhw
TransiEnt.Basics.Tables.Ambient.POAIrradiaton_Az0_Tilt0_Hamburg_3600s_2012_TMYradiationData
TransiEnt.Producer.Heat.Power2Heat.Heatpump.HeatPumpSystemHeatPumpSystem
TransiEnt.Producer.Combined.SmallScaleCHP.SmallScaleCHP_simple.SmallScaleCHPsystemCHPSystem
TransiEnt.Producer.Heat.SolarThermal.SystemModels.SolarThermalSystem_5LayerStoragesolarThermalSystem
TransiEnt.Producer.Heat.Heat2Heat.Substation_indirect_noStorage_L1substation_indirect_noStorage
TransiEnt.Producer.Heat.Gas2Heat.SimpleGasBoiler.SimpleBoilerboiler
TransiEnt.Producer.Heat.Power2Heat.Converter_Heat2Powerconverter_Heat2Power
Components.Statistics.Collectors.LocalCollectors.CollectHeatingPowercollectHeatingPower
Components.Statistics.Collectors.LocalCollectors.CollectElectricPowercollectElectricPower