FCSys.Conditions.ByConnector.BoundaryBus.Pair

Conditions for a pair of BoundaryBus connectors

Information

Extends from Modelica.Icons.Package (Icon for standard packages).

Package Content

Name	Description
Temperature	Impose a temperature difference across and a current between a pair of BoundaryBus connectors
Pressure	Impose a pressure difference across and a heat flow rate between a pair of BoundaryBus connectors
Phases	Conditions for a BoundaryBus connector

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FCSys.Conditions.ByConnector.BoundaryBus.Pair.Temperature

Impose a temperature difference across and a current between a pair of BoundaryBus connectors

Information

Extends from FCSys.Icons.Conditions.SingleShort (Short icon for a single-connector boundary condition).

Parameters

Type	Name	Default	Description
Phases (click to edit)
Gas	gas		Gas
Graphite	graphite		Graphite
Ionomer	ionomer		Ionomer
Liquid	liquid		Liquid

Connectors

Type	Name	Description
BoundaryBus	negative	Negative-side multi-species connector for material, momentum, and energy
BoundaryBus	positive	Positive-side multi-species connector for material, momentum, and energy
RealInputBus	u	Bus of inputs to specify conditions
RealOutputBus	y	Output bus of measurements

Modelica definition

model Temperature 
  "Impose a temperature difference across and a current between a pair of BoundaryBus connectors"

  extends FCSys.Icons.Conditions.SingleShort;

  Phases.Gas gas "Gas";

  Phases.Graphite graphite "Graphite";

  Phases.Ionomer ionomer "Ionomer";

  Phases.Liquid liquid "Liquid";

  Connectors.BoundaryBus negative 
    "Negative-side multi-species connector for material, momentum, and energy";
  Connectors.BoundaryBus positive 
    "Positive-side multi-species connector for material, momentum, and energy";
  Connectors.RealInputBus u "Bus of inputs to specify conditions";

  Connectors.RealOutputBus y "Output bus of measurements";

equation 
  // Gas
  connect(gas.negative, negative.gas);
  connect(gas.positive, positive.gas);
  connect(u.gas, gas.u);
  connect(gas.y, y.gas);

  // Graphite
  connect(graphite.negative, negative.graphite);
  connect(graphite.positive, positive.graphite);
  connect(u.graphite, graphite.u);
  connect(graphite.y, y.graphite);

  // Ionomer
  connect(ionomer.negative, negative.ionomer);
  connect(ionomer.positive, positive.ionomer);
  connect(u.ionomer, ionomer.u);
  connect(ionomer.y, y.ionomer);

  // Liquid
  connect(liquid.negative, negative.liquid);
  connect(liquid.positive, positive.liquid);
  connect(u.liquid, liquid.u);
  connect(liquid.y, y.liquid);
end Temperature;

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FCSys.Conditions.ByConnector.BoundaryBus.Pair.Pressure

Impose a pressure difference across and a heat flow rate between a pair of BoundaryBus connectors

Information

Extends from Temperature (Impose a temperature difference across and a current between a pair of BoundaryBus connectors).

Connectors

Type	Name	Description
BoundaryBus	negative	Negative-side multi-species connector for material, momentum, and energy
BoundaryBus	positive	Positive-side multi-species connector for material, momentum, and energy
RealInputBus	u	Bus of inputs to specify conditions
RealOutputBus	y	Output bus of measurements

Modelica definition

model Pressure 
  "Impose a pressure difference across and a heat flow rate between a pair of BoundaryBus connectors"
  extends Temperature(
    gas(
      H2(
        redeclare replaceable function materialSpec = Boundary.Pair.Material.pressure,

        redeclare replaceable function afterSpec = Boundary.Pair.Translational.force,

        redeclare replaceable function beforeSpec = Boundary.Pair.Translational.force,

        redeclare replaceable function thermalSpec = Boundary.Pair.Thermal.heatRate,

        redeclare replaceable function materialMeas = Boundary.Pair.Material.current,

        redeclare replaceable function afterMeas = Boundary.Pair.Translational.velocity,

        redeclare replaceable function beforeMeas = Boundary.Pair.Translational.velocity,

        redeclare replaceable function thermalMeas = Boundary.Pair.Thermal.temperature),

      H2O(
        redeclare replaceable function materialSpec = Boundary.Pair.Material.pressure,

        redeclare replaceable function afterSpec = Boundary.Pair.Translational.force,

        redeclare replaceable function beforeSpec = Boundary.Pair.Translational.force,

        redeclare replaceable function thermalSpec = Boundary.Pair.Thermal.heatRate,

        redeclare replaceable function materialMeas = Boundary.Pair.Material.current,

        redeclare replaceable function afterMeas = Boundary.Pair.Translational.velocity,

        redeclare replaceable function beforeMeas = Boundary.Pair.Translational.velocity,

        redeclare replaceable function thermalMeas = Boundary.Pair.Thermal.temperature),

      N2(
        redeclare replaceable function materialSpec = Boundary.Pair.Material.pressure,

        redeclare replaceable function afterSpec = Boundary.Pair.Translational.force,

        redeclare replaceable function beforeSpec = Boundary.Pair.Translational.force,

        redeclare replaceable function thermalSpec = Boundary.Pair.Thermal.heatRate,

        redeclare replaceable function materialMeas = Boundary.Pair.Material.current,

        redeclare replaceable function afterMeas = Boundary.Pair.Translational.velocity,

        redeclare replaceable function beforeMeas = Boundary.Pair.Translational.velocity,

        redeclare replaceable function thermalMeas = Boundary.Pair.Thermal.temperature),

      O2(
        redeclare replaceable function materialSpec = Boundary.Pair.Material.pressure,

        redeclare replaceable function afterSpec = Boundary.Pair.Translational.force,

        redeclare replaceable function beforeSpec = Boundary.Pair.Translational.force,

        redeclare replaceable function thermalSpec = Boundary.Pair.Thermal.heatRate,

        redeclare replaceable function materialMeas = Boundary.Pair.Material.current,

        redeclare replaceable function afterMeas = Boundary.Pair.Translational.velocity,

        redeclare replaceable function beforeMeas = Boundary.Pair.Translational.velocity,

        redeclare replaceable function thermalMeas = Boundary.Pair.Thermal.temperature)),

    graphite(redeclare replaceable Conditions.ByConnector.ThermalDiffusive.Pair.HeatRate
        'C+', 'e-'(
        redeclare replaceable function materialSpec = Boundary.Pair.Material.pressure,

        redeclare replaceable function afterSpec = Boundary.Pair.Translational.force,

        redeclare replaceable function beforeSpec = Boundary.Pair.Translational.force,

        redeclare replaceable function thermalSpec = Boundary.Pair.Thermal.heatRate,

        redeclare replaceable function materialMeas = Boundary.Pair.Material.current,

        redeclare replaceable function afterMeas = Boundary.Pair.Translational.velocity,

        redeclare replaceable function beforeMeas = Boundary.Pair.Translational.velocity,

        redeclare replaceable function thermalMeas = Boundary.Pair.Thermal.temperature)),

    ionomer(
      redeclare replaceable Conditions.ByConnector.ThermalDiffusive.Pair.HeatRate
        'SO3-',
      'H+'(
        redeclare replaceable function materialSpec = Boundary.Pair.Material.pressure,

        redeclare replaceable function afterSpec = Boundary.Pair.Translational.force,

        redeclare replaceable function beforeSpec = Boundary.Pair.Translational.force,

        redeclare replaceable function thermalSpec = Boundary.Pair.Thermal.heatRate,

        redeclare replaceable function materialMeas = Boundary.Pair.Material.current,

        redeclare replaceable function afterMeas = Boundary.Pair.Translational.velocity,

        redeclare replaceable function beforeMeas = Boundary.Pair.Translational.velocity,

        redeclare replaceable function thermalMeas = Boundary.Pair.Thermal.temperature),

      H2O(
        redeclare replaceable function materialSpec = Boundary.Pair.Material.pressure,

        redeclare replaceable function afterSpec = Boundary.Pair.Translational.force,

        redeclare replaceable function beforeSpec = Boundary.Pair.Translational.force,

        redeclare replaceable function thermalSpec = Boundary.Pair.Thermal.heatRate,

        redeclare replaceable function materialMeas = Boundary.Pair.Material.current,

        redeclare replaceable function afterMeas = Boundary.Pair.Translational.velocity,

        redeclare replaceable function beforeMeas = Boundary.Pair.Translational.velocity,

        redeclare replaceable function thermalMeas = Boundary.Pair.Thermal.temperature)),

    liquid(H2O(
        redeclare replaceable function materialSpec = Boundary.Pair.Material.pressure,

        redeclare replaceable function afterSpec = Boundary.Pair.Translational.force,

        redeclare replaceable function beforeSpec = Boundary.Pair.Translational.force,

        redeclare replaceable function thermalSpec = Boundary.Pair.Thermal.heatRate,

        redeclare replaceable function materialMeas = Boundary.Pair.Material.current,

        redeclare replaceable function afterMeas = Boundary.Pair.Translational.velocity,

        redeclare replaceable function beforeMeas = Boundary.Pair.Translational.velocity,

        redeclare replaceable function thermalMeas = Boundary.Pair.Thermal.temperature)));

  // Note:  In Dymola 2014, the paths must be explicitly given to prevent
  // the error "Cannot show the parameter dialog for redeclared class […]".

end Pressure;