modelSimCenter
SimCenter for global parameters, ambient conditions and collecting statistics
Extends from ClaRa.SimCenter, TransiEnt.Basics.Icons.Grids (General icon for all three grids).
Information
1. Purpose of model
Global parameters for all models depending TransiEnt core library and Clara library.
2. Level of detail, physical effects considered, and physical insight
(Purely technical component without physical modeling.)
3. Limits of validity
(Purely technical component without physical modeling.)
4. Interfaces
(no remarks)
5. Nomenclature
(no elements)
6. Governing Equations
(no equations)
7. Remarks for Usage
(no remarks)
8. Validation
(no validation or testing necessary)
9. References
(no remarks)
10. Version History
Model created by Lisa Andresen (andresen@tuhh.de) on Mon Aug 18 2014
Parameters
| Type | Name | Default | Description |
|---|---|---|---|
| TILMedia.VLEFluid.Types.TILMedia_SplineWater | fluid1 (from SimCenter) | ||
| TILMedia.VLEFluid.Types.TILMedia_SplineWater | fluid2 (from SimCenter) | ||
| TILMedia.VLEFluid.Types.TILMedia_SplineWater | fluid3 (from SimCenter) | ||
| TILMedia.Gas.Types.MoistAirMixture | airModel (from SimCenter) | ||
| TILMedia.Gas.Types.FlueGasTILMedia | flueGasModel (from SimCenter) | ||
| ClaRa.Basics.Media.FuelTypes.Fuel_refvalues_v1 | fuelModel1 (from SimCenter) | ||
| ClaRa.Basics.Media.FuelTypes.Fuel_refvalues_v1 | fuelModel2 (from SimCenter) | ||
| ClaRa.Basics.Media.Slag.Slag_v1 | slagModel (from SimCenter) | ||
| Boolean | showExpertSummary (from SimCenter) | false | |Summary and Visualisation||True, if expert summary should be applied |
| Boolean | largeFonts (from SimCenter) | false | |Summary and Visualisation||True if visualisers shall be displayed as large as posible |
| Boolean | isExpertmode | true | False, show only basic parameters and variables |
| Real | k_H2_fraction | 0.10 | Fuel fraction of hydrogen mixed with natural gas in gas turbine (Q_flow_H2/Q_flow_methane) |
| Boolean | isLeapYear | false | true if the observed year is a leap year |
| Modelica.Units.SI.Time | lengthOfAYear | if isLeapYear then 31622400 else 31536000 | Length of one year |
| SI.Temperature | T_ground | 282.48 | |Ambience|Ambience parameters|Ground temperature |
| Integer | iDetailedGrid | 1 | Index of detailed grid (convention) |
| Integer | iSurroundingGrid | 2 | Index of detailed grid (convention) |
| TILMedia.VLEFluidTypes.TILMedia_SplineWater | refrigerantFluid1 | ||
| Real[:,:] | DNmat | dhn_pipe_manufacturer.DNmat | |
| TransiEnt.Basics.Media.Gases.VLE_VDIWA_NG7_H2_SRK_var | gasModel1 | ||
| TransiEnt.Basics.Media.Gases.Gas_VDIWA_NG7_H2_var | gasModel2 | ||
| TransiEnt.Basics.Media.Gases.VLE_VDIWA_H2_SRK | gasModel3 | ||
| TransiEnt.Basics.Media.Gases.VLE_VDIWA_SG4_var | gasModel4 | ||
| TransiEnt.Basics.Media.Gases.Gas_ExhaustGas | exhaustGasModel | ||
| Modelica.Units.SI.Pressure | p_eff_1 | 25e2 | |Gas Grid|Nominal Values|Effective gauge pressure at distribution level |
| SI.Pressure | p_eff_2 | 16e5 | |Gas Grid|Nominal Values|Effective gauge pressure at distribution level |
| SI.Pressure | p_eff_3 | 25e5 | |Gas Grid|Nominal Values|Effective gauge pressure at distribution level |
| SI.VolumeFraction | phi_H2max | 0.1 | |Gas Grid|Parameters|Maximum admissible volume fraction of H2 in NGH2 at STP |
| Real | f_gasDemand | 2.7097280217 | |Gas Grid|Parameters|Scaling factor gas demand |
| Ambience › Start Values | |||
| ClaRa.Basics.Units.AbsolutePressure | p_amb_start (from SimCenter) | Initial ambient pressure (automatically calculated) | |
| ClaRa.Basics.Units.Temperature | T_amb_start (from SimCenter) | Initial ambient temperature (automatically calculated) | |
| Summary and Visualisation | |||
| Boolean | contributeToCycleSummary (from SimCenter) | false | True if components shall contribute to automatic efficiency calculation |
| Numerics › ClaRa-basedModels: VLE Components | |||
| Boolean | steamCycleAllowFlowReversal (from SimCenter) | true | Allow flow reversal in steam cycle |
| Numerics › Delay Function | |||
| Boolean | useClaRaDelay (from SimCenter) | true | True for using ClaRa delay implementation / false for built in Modelica delay |
| Real | MaxSimTime (from SimCenter) | 1e4 | Maximum time for simulation, must be set for Modelica delay blocks with variable delay time |
| Numerics › Misc | |||
| Boolean | useHomotopy (from SimCenter) | true | True, if homotopy method is used during initialisation |
| Ambience › Ambience parameters | |||
| Modelica.Units.SI.Pressure | p_amb_const | 1.013e5 | Ambient pressure |
| Modelica.Units.SI.Temperature | T_amb_const | 282.48 | Ambient temperature |
| Boolean | variable_T_ground | false | Use variable temperature profile |
| Ambience › Location parameters | |||
| Real | lambda | 10 | degree of longitude of location |
| Real | phi | 53.63 | degree of latitude of location |
| Real | timezone | 1 | timezone of location (UTC+) (for Hamburg timezone=1) |
| Media and Materials › Constant heating values | |||
| SI.SpecificEnthalpy | HeatingValue_natGas | 40e6 | Heating value of natural gas |
| SI.SpecificEnthalpy | HeatingValue_LightOil | 43e6 | Heating value of heating oil |
| Modelica.Units.SI.SpecificEnthalpy | HeatingValue_Wood | 17.03e6 | Heating value of wood pellets |
| Electric Grid › General | |||
| Boolean | integrateElPower | false | true if electric powers shall be integrated |
| Electric Grid › Nominal values (Top Level) | |||
| Modelica.Units.SI.Frequency | f_n | 50 | |
| Modelica.Units.SI.Frequency | delta_f_max | 0.2 | |
| Modelica.Units.SI.Frequency | delta_f_deadband | 0.01 | |
| Modelica.Units.SI.Time | t_SB_act | 5*60 | Activation time for secondary balancing |
| Modelica.Units.SI.Voltage | v_n | 110e3 | |
| Modelica.Units.SI.Power | P_n_low | 150e9 | Nominal power of total grid at low-load |
| Modelica.Units.SI.Power | P_n_high | 300e9 | Nominal power of total grid at high-load |
| Modelica.Units.SI.Time | T_grid | 12 | Mechanical time constant of rotating masses in the grid |
| Electric Grid › Optional | |||
| Integer | n_consumers | 10 | Number of globaly parameterized consumers |
| Modelica.Units.SI.ActivePower[n_consumers] | P_consumer | zeros(n_consumers) | Globaly defined consumer data |
| Modelica.Units.SI.Power | P_n_ref_1 | generationPark.P_total | Reference power of subgrid 1, i.e. detailed grid (for inertia constant calculation) |
| Modelica.Units.SI.Power | P_n_ref_2 | P_n_high | Reference power of subgrid 2, i.e. surrounding grid (for inertia constant calculation) |
| Modelica.Units.SI.Power | P_peak_1 | 2.2e9 | Peak load of subgrid 1, i.e. detailed grid (used for stochastic grid error models) |
| Modelica.Units.SI.Power | P_peak_2 | P_n_high | Peak load of subgrid 2, i.e. surrounding grid (used for stochastic grid error models) |
| Boolean | use_reference_polar_wheel | false | If true, polar wheel angle is used as voltage angle refernce. Set true when using more than one frequency. |
| Boolean | idealSuperstructLocalGrid | false | Enable to centralize ideal voltage control in each superstructure |
| Real | cosphi | 1 | Reactive power factor |
| District Heating Grid › General | |||
| Boolean | integrateHeatFlow | false | true if heat flows shall be integrated |
| District Heating Grid › Nominal Values | |||
| Integer | no_cells_per_pipe | 3 | Number of discretisation cells per pipe |
| SI.Power | Q_flow_n | 100e9 | Nominal transmitted power |
| SI.Pressure[2] | p_nom | {6e5, 8e5} | Nominal pressure levels |
| SI.MassFlowRate | m_flow_nom | 30 | Nominal mass flow in grid |
| District Heating Grid › Simulation | |||
| Integer | activate_consumer_pipes | 0 | Activate / Deactivate house pipes for faster simulation. 1 = house pipes activated | Only used in GridConstructors |
| Boolean | activate_volumes | false | Activate / Deactivate volumes to better represent delayed temperatrue changes due to heat capacity effects |
| Boolean | calc_initial_dstrb | true | Activates the calculation of a initial temperature distribution inside the pipes |
| District Heating Grid › Initialisation | |||
| SI.Temperature | T_supply | 90 + 273.15 | Temperature of the fluid at start in supply |
| SI.Temperature | T_return | 70 + 273.15 | Temperature of the fluid at start in return |
| District Heating Grid › Operation | |||
| Real | dT | 20 | Target temperature difference |
| SI.MassFlowRate | m_flow_min | 0.0001 | Minimum mass flow rate in substations |
| SI.Velocity | v_nom | 1 | Design Velocity of the pipes used. |
| District Heating Grid › Pipe Data | |||
| SI.ThermalConductivity | lambda_ground | 1.2 | Heat-Transfer Coefficient of the ground surrounding the pipes |
| SI.Length | K | 0.000045 | average height of surface asperities |
| SI.SpecificHeatCapacity | pipe_wall_capacity | 450 | HeatCapacity of the pipe wall material |
| SI.Density | pipe_wall_d | 7850 | Density of the pipe wall material |
| Gas Grid › Parameters | |||
| Boolean | useConstCompInGasComp | false | true if equations for constant gas composition should be used in gas components |
| Integer | initOptionGasPipes | 0 | Type of initialization |
| Integer | massBalanceGasPipes | 1 | Mass balance and species balance fomulation |
| Integer[:] | variableCompositionEntriesGasPipes | {0} | Entries of medium vector in gas pipes which are supposed to be completely variable |
| SI.Height | roughnessGasPipes | 0.1e-3 | Absolute roughness of gas pipes |
| Expert Settings › Numerical Properties | |||
| Real | Td | 1e-3 | Time constant of derivative calculation |
| Boolean | useThresh | false | Use threshold in gradient limiters |
| Real | thres | 1e-7 | If abs(u-y)< thres, y becomes a simple pass through of u. Increasing thres can improve simulation speed. However to large values can make the simulation unstable. A good starting point is the choice thres = tolerance/1000. |
| Modelica.Units.SI.MassFlowRate | m_flow_small | 1e-2 | Default small mass flow rate for regularization of laminar and zero flow |
| Modelica.Units.SI.Pressure | p_small | 1e3 | Default small pressure e.g. used for error handling in compressors |
| Modelica.Units.SI.Velocity | v_wind_small | 0.1 | Default small wind velocity for startup of wind turbines (neglectable wind power) |
| Expert Settings › table data interpretation | |||
| Modelica.Blocks.Types.Smoothness | tableInterpolationSmoothness | Modelica.Blocks.Types.Smoothness.LinearSegments | Smoothness of table interpolation |
| Expert Settings › Singularities | |||
| Modelica.Units.SI.Power | P_el_small | 1 | Small power flow considered as zero |
| Modelica.Units.SI.Energy | E_small | 3600 | Small energy quantity, considered as zero |
| Modelica.Units.SI.HeatFlowRate | Q_flow_small | 1 | Small power flow considered as zero |
| Costs › General | |||
| Boolean | calculateCost | false | true if cost shall be calculated |
| Costs › Annuity Inputs | |||
| Real | InterestRate | 0.07 | Interest Rate in percent |
| Real | priceChangeRateInv | 0 | Price change rate of the invest cost |
| Real | priceChangeRateDemand | 0 | Price change rate of the demand-related cost |
| Real | priceChangeRateOM | 0 | Price change rate of the operation-related cost |
| Real | priceChangeRateOther | 0 | Price change rate of other cost |
| Real | priceChangeRateRevenue | 0 | Price change rate of the revenue |
| Real | Duration | 20 | in Years, observation period for cost calculation |
| Costs › CO2 certificates | |||
| Real | C_CO2 | 6e-3 | EUR/kg |
| Costs › Investment costs in EUR/W | |||
| TransiEnt.Basics.Units.MonetaryUnitPerPower | Cinv_HardCoal | 1.500 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | Cinv_BrownCoal | 1.600 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | Cinv_GasCCGT | 0.650 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | Cinv_GT | 0.500 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | Cinv_Wind_On | 1.170 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | Cinv_Wind_Off | 3.000 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | Cinv_PV | 1.300 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | Cinv_GasBoiler | 0.24 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | Cinv_GarbageBoiler | 0.24 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | Cinv_Nuclear | 5.15 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | Cinv_Biomass | 2.5 | |
| Costs › Fix O&M costs in EUR/W | |||
| TransiEnt.Basics.Units.MonetaryUnitPerPower | CfixOM_HardCoal | 0.0225 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | CfixOM_BrownCoal | 0.0256 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | CfixOM_GasCCGT | 0.0046 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | CfixOM_GT | 0.0025 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | CfixOM_Wind_On | 0 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | CfixOM_Wind_Off | 0 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | CfixOM_PV | 0.035 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | CfixOM_GasBoiler | 0.0046 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | CfixOM_GarbageBoiler | 0.0046 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | CfixOM_Nuclear | 0 | |
| TransiEnt.Basics.Units.MonetaryUnitPerPower | CfixOM_Biomass | 0.0046 | |
| Costs › Variable costs in EUR/J_el | |||
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cvar_HardCoal | 1.3/3.6e9 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cvar_BrownCoal | 1.65/3.6e9 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cvar_GasCCGT | 3.5/3.6e9 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cvar_GT | 5/3.6e9 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cvar_Wind_On | 18/3.6e9 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cvar_Wind_Off | 35/3.6e9 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cvar_PV | 0 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cvar_Nuclear | 19.92/3.6e9 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cvar_Biomass | 19.92/3.6e9 | |
| Costs › Fuel costs in EUR/J_fuel | |||
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cfue_HardCoal | 10.19/3.6e9 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cfue_BrownCoal | 5.4/3.6e9 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cfue_GasCCGT | 25/3.6e9 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cfue_GT | 25/3.6e9 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cfue_Wind_On | 0 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cfue_Wind_Off | 0 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cfue_PV | 0 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cfue_GasBoiler | 25/3.6e9 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cfue_GarbageBoiler | 0 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cfue_Nuclear | 11.3/3.6e9 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cfue_Biomass | 3.8/3.6e9 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cfue_Oil | 45*1/159*1/36e6 | |
| Costs › Plant life for annuitiy | |||
| TransiEnt.Basics.Units.Time_year | lifeTime_HardCoal | 30 | |
| TransiEnt.Basics.Units.Time_year | lifeTime_BrownCoal | 30 | |
| TransiEnt.Basics.Units.Time_year | lifeTime_GasCCGT | 20 | |
| TransiEnt.Basics.Units.Time_year | lifeTime_GT | 20 | |
| TransiEnt.Basics.Units.Time_year | lifeTime_Wind_On | 20 | |
| TransiEnt.Basics.Units.Time_year | lifeTime_Wind_Off | 20 | |
| TransiEnt.Basics.Units.Time_year | lifeTime_PV | 20 | |
| TransiEnt.Basics.Units.Time_year | lifeTime_GasBoiler | 20 | |
| TransiEnt.Basics.Units.Time_year | lifeTime_GarbageBoiler | 30 | |
| TransiEnt.Basics.Units.Time_year | lifeTime_Nuclear | 30 | |
| TransiEnt.Basics.Units.Time_year | lifeTime_Biomass | 20 | |
| TransiEnt.Basics.Units.Time_year | lifeTime_Cavern | 100 | |
| TransiEnt.Basics.Units.Time_year | lifeTime_Electrolyzer | 20 | |
| Costs › Variable costs in EUR/J_th | |||
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cvar_GasBoiler | 0 | |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cvar_GarbageBoiler | 0 | |
| Costs › Specific pipeline costs in EUR/m | |||
| Real | Cinv_DHN_pipe | 3000 | |
| Real | Cinv_H2_pipe | 300 | |
| Emissions › General Settings | |||
| Boolean | integrateCDE | false | true if CDE should be integrated |
| Emissions › Fuel specific CO2 emissions in kg/J (Source: FfE 2010) | |||
| TransiEnt.Basics.Units.MassOfCDEperEnergy | FuelSpecEmis_BrownCoal | 403/3.6e9 | |
| TransiEnt.Basics.Units.MassOfCDEperEnergy | FuelSpecEmis_HardCoal | 337/3.6e9 | |
| TransiEnt.Basics.Units.MassOfCDEperEnergy | FuelSpecEmis_NaturalGas | 202/3.6e9 | |
| TransiEnt.Basics.Units.MassOfCDEperEnergy | FuelSpecEmis_LightFuelOil | 266/3.6e9 | |
| TransiEnt.Basics.Units.MassOfCDEperEnergy | FuelSpecEmis_HeavyFuelOil | 281/3.6e9 | |
| TransiEnt.Basics.Units.MassOfCDEperEnergy | FuelSpecEmis_Nuclear | 0/3.6e9 | |
| TransiEnt.Basics.Units.MassOfCDEperEnergy | FuelSpecEmis_Biomass | 0/3.6e9 | |
| TransiEnt.Basics.Units.MassOfCDEperEnergy | FuelSpecEmis_Garbage | 162/3.6e9 | |
| TransiEnt.Basics.Units.MassOfCDEperEnergy | FuelSpecEmis_Diesel | 266/3.6e9 | |
| TransiEnt.Basics.Units.MassOfCDEperEnergy | FuelSpecEmis_WindOnshore | 0/3.6e9 | |
| TransiEnt.Basics.Units.MassOfCDEperEnergy | FuelSpecEmis_WindOffshore | 0/3.6e9 | |
| TransiEnt.Basics.Units.MassOfCDEperEnergy | FuelSpecEmis_Photovoltaic | 0/3.6e9 | |
| TransiEnt.Basics.Units.MassOfCDEperEnergy | FuelSpecEmis_Hydro | 0/3.6e9 | |
| PricesAndSubsidies › KWKG | |||
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | CHPelectricityLarger20_new | 28/3.6e9 | CHP subisidy for new plants over 2 MWe, in EUR/J |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | CHPelectricityLarger20_old | 18/3.6e9 | CHP subisidy for old plants over 2 MWe, in EUR/J |
| PricesAndSubsidies › EEG | |||
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | FIT_Wind_On | 91.6/3.6e9 | Average wind onshore feed in tariff in EUR/J |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | FIT_Wind_Off | 152.6/3.6e9 | Average wind onshore feed in tariff in EUR/J |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | FIT_PV | 365.3/3.6e9 | Average photovoltaic feed in tariff in EUR/J |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | FIT_Biomass | 200.1/3.6e9 | Average biomass feed in tariff in EUR/J |
| PricesAndSubsidies › Sale prices | |||
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | sellPriceElEnergy | 210/3.6e9 | EUR/J_el |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | sellPriceDHNHeat | 81/3.6e9 | EUR/J_th |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | PhelixBaseYearFuture | 29/3.6e9 | EUR/J_el |
| PricesAndSubsidies › Demand-related costs | |||
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cspec_demAndRev_free | 0 | Free energy |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cspec_demAndRev_el_70_150_GWh | 103.3/3.6e9 | Second half of 2014 for electricity usage of 70-150 GWh/a from Eurostat http://ec.europa.eu/eurostat/web/energy/data/database |
| TransiEnt.Basics.Units.MonetaryUnitPerEnergy | Cspec_demAndRev_gas_diesel | 0.8365/(0.840*43e6) | (=83.37 EUR/MWh) 0.8365 EUR/l_diesel in 2016 (Statistisches Bundesamt https://www.destatis.de/DE/Publikationen/Thematisch/Preise/Energiepreise/EnergiepreisentwicklungPDF_5619001.pdf?__blob=publicationFile), calorific value 43 MJ/kg, density 0.840 kg/l (Forschungsstelle fuer Energiewirtschaft e.V., 2010. Basisdaten zur Bereitstellung elektrischer Energie) |
| Real | Cspec_demAndRev_other_free | 0 | Free other resource |
| Real | Cspec_demAndRev_other_water | 0.00185 | EUR/m3 water, 1000kg/m3, including taxes, without waste water cost, https://www.hamburgwasser.de/privatkunden/service/gebuehren-abgaben-preise/ |
Connectors
| Type | Name | Default | Description |
|---|---|---|---|
| ClaRa.Basics.Interfaces.CycleSumPort | cycleSumPort (from SimCenter) | Reference to the volume and mass of the VLE fluid in components | |
| TransiEnt.Basics.Interfaces.General.TemperatureCelsiusOut | T_amb_var | ambientConditions.temperature.value | Temperature in degC (from component ambientConditions) |
| TransiEnt.Basics.Interfaces.Ambient.VelocityOut | v_wind | ambientConditions.wind.value | Wind speed (from component ambientConditions) |
| TransiEnt.Basics.Interfaces.Ambient.IrradianceOut | i_global | ambientConditions.globalSolarRadiation.value | Global solar radiation (from component ambientConditions) |
| TransiEnt.Basics.Interfaces.Ambient.IrradianceOut | i_direct | ambientConditions.directSolarRadiation.value | Direct solar radiation (from component ambientConditions) |
| TransiEnt.Basics.Interfaces.Ambient.IrradianceOut | i_diffuse | ambientConditions.diffuseSolarRadiation.value | Diffuse solar radiation (from component ambientConditions) |
| Modelica.Blocks.Interfaces.RealOutput | T_ground_var | if variable_T_ground then Variable_Ground_Temperature.value else T_ground | Diffuse solar radiation (from component ambientConditions) |
Components
Contents
| Name | Description |
|---|---|
 Ground_Temperature | |
 DHN_Pipe_Manufacturer |