JARA2i.interf

Interfaces

Information

Interfaces included in JARA library

Figure 1.Classes included in interf.mo.

Package Content

Name Description

controllerI

controllerMI Controller.

emitter1I Information emitter.

gas1I Gas - CV.

gasFlow1I Gas TP.

gasFlow2I Gas TP.

gasFlow2qI Gas TP.

gasV1I Gas CV.

heat1I Thermic interface - CV.

heatFlow1I Thermic interface TP.

heatFlow2I Thermic interface TP.

heatFlowF2I Thermic interface TP.

heteroFlow2I Liquid and Gas - TP.

heteroProcessFlow2I Liquid and Gas - TP.

liqFlow1I Liquid TP.

liqFlow2I Liquid TP.

liqFlow2qI Liquid TP.

liquid1I Liquid CV.

liquid2I Liquid CV.

liquidV2I Liquid CV.

pumpMassSignalI Information flow.

pumpMolSignalI Information flow

pumpVolSignalI Information flow

receiver1I Information receiver.

sourceHeatSignalI Information flow.

sourceMassSignalI Information flow.

sourceMolSignalI Information flow.

sourceVolGasSignalI Information flow.

sourceVolLiqSignalI Information flow.

valveSignalI Information flow.

vesselI Volume constraint.

Name	Description
controllerI
controllerMI	Controller.
emitter1I	Information emitter.
gas1I	Gas - CV.
gasFlow1I	Gas TP.
gasFlow2I	Gas TP.
gasFlow2qI	Gas TP.
gasV1I	Gas CV.
heat1I	Thermic interface - CV.
heatFlow1I	Thermic interface TP.
heatFlow2I	Thermic interface TP.
heatFlowF2I	Thermic interface TP.
heteroFlow2I	Liquid and Gas - TP.
heteroProcessFlow2I	Liquid and Gas - TP.
liqFlow1I	Liquid TP.
liqFlow2I	Liquid TP.
liqFlow2qI	Liquid TP.
liquid1I	Liquid CV.
liquid2I	Liquid CV.
liquidV2I	Liquid CV.
pumpMassSignalI	Information flow.
pumpMolSignalI	Information flow
pumpVolSignalI	Information flow
receiver1I	Information receiver.
sourceHeatSignalI	Information flow.
sourceMassSignalI	Information flow.
sourceMolSignalI	Information flow.
sourceVolGasSignalI	Information flow.
sourceVolLiqSignalI	Information flow.
valveSignalI	Information flow.
vesselI	Volume constraint.

JARA2i.interf.controllerI

Information

Interface type: information flow

Parameters

Type Name Default Description

Real samplePeriod0 0.1 Sample period

Integer dimSP 1 Dimension of the set-point signal

Integer dimy 1 Dimension of the controlled variable signal

Integer dimu 1 Dimension of the manipulated variable signal

Type	Name	Default	Description
Real	samplePeriod0	0.1	Sample period
Integer	dimSP	1	Dimension of the set-point signal
Integer	dimy	1	Dimension of the controlled variable signal
Integer	dimu	1	Dimension of the manipulated variable signal

Connectors

Type Name Description

cutReceiver setPointSignal Set-point signal

cutEmitter uVarSignal Manipulated variable

cutReceiver yVarSignal Controlled variable

Type	Name	Description
cutReceiver	setPointSignal	Set-point signal
cutEmitter	uVarSignal	Manipulated variable
cutReceiver	yVarSignal	Controlled variable

Modelica definition

partial model controllerI 
  parameter Real samplePeriod0 = 0.1 "Sample period";
  Real samplePeriod(start=samplePeriod0) "Sample period of component";
  //  parameter SI.Time startTime=0 "First sample time instant";
  discrete Boolean sampleTrigger(fixed=true, start=true) 
    "True, if sample time instant";
  Boolean firstTrigger "Rising edge signals first sample instant";
  parameter Integer dimSP=1 "Dimension of the set-point signal";
  parameter Integer dimy=1 "Dimension of the controlled variable signal";
  parameter Integer dimu=1 "Dimension of the manipulated variable signal";
  
  Real setPoint[dimSP] "Setpoint signals";
  Real uVar[dimu] "Manipulated signals";
  Real yVar[dimy] "Controlled signals";
  
  cutsB.cutReceiver setPointSignal(dim=dimSP, signal=setPoint) 
    "Set-point signal";
  
  cutsB.cutEmitter uVarSignal(dim=dimu, signal=uVar) "Manipulated variable";
  
 cutsB.cutReceiver yVarSignal(dim=dimy, signal=yVar) "Controlled variable";
protected 
  discrete Real nextTime(start=0);
equation 
  
  der(samplePeriod) = 0;
  
  when time > nextTime then
    
    //Hasta el sgte. instante de muestreo no se actualiza el valor de nextTime
    // sampleTrigger = true;
    nextTime = samplePeriod + pre(nextTime);
  end when;
  
  sampleTrigger = time < nextTime;
  
  when sampleTrigger then
    firstTrigger = time <= samplePeriod/2;
    
  end when;
  
  
end controllerI;

JARA2i.interf.controllerMI

Controller.

JARA2i.interf.controllerMI

Information

Interface type: information flow

Parameters

Type Name Default Description

Integer dimSP 1 Number of setpoint signals

Integer dimManip 1 Number of manipulated variables

Integer dimControl 1 Number of control variables

Type	Name	Default	Description
Integer	dimSP	1	Number of setpoint signals
Integer	dimManip	1	Number of manipulated variables
Integer	dimControl	1	Number of control variables

Connectors

Type Name Description

cutReceiver setPointSignal Setpoint signals

cutEmitter manipVarSignal Manipulated signals

cutReceiver contrVarSignal Control signals

Type	Name	Description
cutReceiver	setPointSignal	Setpoint signals
cutEmitter	manipVarSignal	Manipulated signals
cutReceiver	contrVarSignal	Control signals

Modelica definition

model controllerMI "Controller." 
  
   parameter Integer dimSP =      1 "Number of setpoint signals";
   parameter Integer dimManip =   1 "Number of manipulated variables";
   parameter Integer dimControl = 1 "Number of control variables";
  
   Real setPoint[ dimSP] "Setpoint signals";
   Real manipVar[ dimManip] "Manipulated signals";
   Real contrVar[ dimControl] "Controlled signals";
  
   cutsB.cutReceiver setPointSignal(  dim=dimSP, signal=setPoint) 
    "Setpoint signals";
  
   cutsB.cutEmitter manipVarSignal(   dim=dimManip, signal=manipVar) 
    "Manipulated signals";
  
   cutsB.cutReceiver contrVarSignal(  dim=dimControl, signal=contrVar) 
    "Control signals";
  
equation 
  
end controllerMI;

JARA2i.interf.emitter1I

Information emitter.

JARA2i.interf.emitter1I

Information

Interface type: information flow

Parameters

Type Name Default Description

Integer dim 1 Number of components of the signal vector

Type	Name	Default	Description
Integer	dim	1	Number of components of the signal vector

Connectors

Type Name Description

cutEmitter signal Information

Type	Name	Description
cutEmitter	signal	Information

Modelica definition

model emitter1I "Information emitter." 
  
   parameter Integer dim = 1 "Number of components of the signal vector";
  
   cutsB.cutEmitter signal(   dim=dim) "Information";
  
equation 
  
end emitter1I;

JARA2i.interf.gas1I

Gas - CV.

JARA2i.interf.gas1I

Information

Parameters

Type Name Default Description

Integer nComp 1 Number of components

Type	Name	Default	Description
Integer	nComp	1	Number of components

Connectors

Type Name Description

cutGasC inMol Gas flow - Connector Capacitive

cutHeatMC inHeat Heat flow - Connector M-C

Type	Name	Description
cutGasC	inMol	Gas flow - Connector Capacitive
cutHeatMC	inHeat	Heat flow - Connector M-C

Modelica definition

model gas1I "Gas - CV." 
  
   parameter Integer nComp = 1 "Number of components";
  
   cutsB.cutGasC inMol(   nComp=nComp) "Gas flow - Connector Capacitive";
  
   cutsB.cutHeatMC inHeat( nComp=nComp) "Heat flow - Connector M-C";
equation 
  
  
end gas1I;

JARA2i.interf.gasFlow1I

Gas TP.

JARA2i.interf.gasFlow1I

Information

Interface type: transport phenomenon

Parameters

Type Name Default Description

Integer nComp 1 Number of components

Type	Name	Default	Description
Integer	nComp	1	Number of components

Connectors

Type Name Description

cutGasR inMol Gas flow - Connector Resistive

Type	Name	Description
cutGasR	inMol	Gas flow - Connector Resistive

Modelica definition

model gasFlow1I "Gas TP." 
  
   parameter Integer nComp = 1 "Number of components";
  
   cutsB.cutGasR inMol(  nComp=nComp) "Gas flow - Connector Resistive";
  
equation 
  
end gasFlow1I;

JARA2i.interf.gasFlow2I

Gas TP.

JARA2i.interf.gasFlow2I

Information

Interface type: transport phenomenon

Parameters

Type Name Default Description

Integer nComp 1 Number of components

Type	Name	Default	Description
Integer	nComp	1	Number of components

Connectors

Type Name Description

cutGasR inMol Gas flow - Connector Resistive

cutGasR outMol Gas flow - Connector Resistive

Type	Name	Description
cutGasR	inMol	Gas flow - Connector Resistive
cutGasR	outMol	Gas flow - Connector Resistive

Modelica definition

model gasFlow2I "Gas TP." 
  
   parameter Integer nComp = 1 "Number of components";
  
   cutsB.cutGasR inMol(  nComp=nComp) "Gas flow - Connector Resistive";
  
   cutsB.cutGasR outMol(  nComp=nComp) "Gas flow - Connector Resistive";
  
equation 
  
end gasFlow2I;

JARA2i.interf.gasFlow2qI

Gas TP.

JARA2i.interf.gasFlow2qI

Information

Interface type: transport phenomenon

Parameters

Type Name Default Description

Integer nComp 1 Number of components

Type	Name	Default	Description
Integer	nComp	1	Number of components

Connectors

Type Name Description

cutGasR inMol Gas flow - Connector Resistive.

cutGasR outMol Gas flow - Connector Resistive.

cutHeatFC inHeat Heat flow - Connector F-C. Connector for the heat convection.

Type	Name	Description
cutGasR	inMol	Gas flow - Connector Resistive.
cutGasR	outMol	Gas flow - Connector Resistive.
cutHeatFC	inHeat	Heat flow - Connector F-C. Connector for the heat convection.

Modelica definition

model gasFlow2qI "Gas TP." 
  
   parameter Integer nComp = 1 "Number of components";
  
   cutsB.cutGasR inMol(   nComp=nComp) "Gas flow - Connector Resistive.";
  
   cutsB.cutGasR outMol(   nComp=nComp) "Gas flow - Connector Resistive.";
  
   cutsB.cutHeatFC inHeat( nComp=nComp) 
    "Heat flow - Connector F-C. Connector for the heat convection.";
  
equation 
  
end gasFlow2qI;

JARA2i.interf.gasV1I

Gas CV.

JARA2i.interf.gasV1I

Information

Interface of the classes modeling a control volume (CV) that contains a homogeneous mixture of an arbitrary number of semiperfect gases.
The gaseous CV can exchange mass and heat with their environment.
A gaseous CV contains one heat-flow control plane (CP) and one mass-flow CP: all the gaseous mixture properties are spatially homogeneous.
One relevant property of a CV is its spatial volume. The gaseous CVs impose the following constraint on the volume of the gas stored inside them: the volume of the gaseous mixture contained into a CV is equal (smaller or equal) to the CV volume.
This class contains the following connector types: cutGasC, cutHeatMC and cutVolContrGas.

Parameters

Type Name Default Description

Integer nComp 1 Number of components

Type	Name	Default	Description
Integer	nComp	1	Number of components

Connectors

Type Name Description

cutGasC inMol Gas flow - Connector Capacitive

cutHeatMC inHeat Heat flow - Connector M-C

cutVolConstrGas constraintV Volume constraint - Gas

Type	Name	Description
cutGasC	inMol	Gas flow - Connector Capacitive
cutHeatMC	inHeat	Heat flow - Connector M-C
cutVolConstrGas	constraintV	Volume constraint - Gas

Modelica definition

model gasV1I "Gas CV." 
  
   parameter Integer nComp = 1 "Number of components";
  
   cutsB.cutGasC inMol(   nComp=nComp) "Gas flow - Connector Capacitive";
  
   cutsB.cutHeatMC inHeat( nComp=nComp) "Heat flow - Connector M-C";
  
   cutsB.cutVolConstrGas constraintV "Volume constraint - Gas";
  
equation 
   // Reationship between the terminal variables
   // constraintV.dummyVol1 = constraintV.dummyVol;
   constraintV.vcE[1] = constraintV.vcE[2];
  
  
end gasV1I;

JARA2i.interf.heat1I

Thermic interface - CV.

JARA2i.interf.heat1I

Information

Interface type: control volume

Parameters

Type Name Default Description

Integer nComp 1 Number of components

Type	Name	Default	Description
Integer	nComp	1	Number of components

Connectors

Type Name Description

cutHeatMC inHeat Connector for the heat conduction.

Type	Name	Description
cutHeatMC	inHeat	Connector for the heat conduction.

Modelica definition

model heat1I "Thermic interface - CV." 
  
   parameter Integer nComp = 1 "Number of components";
  
   cutsB.cutHeatMC inHeat(    nComp=nComp) "Connector for the heat conduction.";
  
equation 
  
end heat1I;

JARA2i.interf.heatFlow1I

Thermic interface TP.

JARA2i.interf.heatFlow1I

Information

Interface type: transport phenomenon

Parameters

Type Name Default Description

Integer nComp 1 Number of components

Type	Name	Default	Description
Integer	nComp	1	Number of components

Connectors

Type Name Description

cutHeatMR inHeat Heat flow source

Type	Name	Description
cutHeatMR	inHeat	Heat flow source

Modelica definition

model heatFlow1I "Thermic interface TP." 
  
   parameter Integer nComp = 1 "Number of components";
  
   cutsB.cutHeatMR inHeat(   nComp=nComp) "Heat flow source";
  
equation 
  
end heatFlow1I;

JARA2i.interf.heatFlow2I

Thermic interface TP.

JARA2i.interf.heatFlow2I

Information

Interface type: transport phenomenon

Parameters

Type Name Default Description

Integer nCompI 1 Number of components of inHeat

Integer nCompO 1 Number of components of outHeat

Type	Name	Default	Description
Integer	nCompI	1	Number of components of inHeat
Integer	nCompO	1	Number of components of outHeat

Connectors

Type Name Description

cutHeatMR inHeat Heat flow

cutHeatMR outHeat Heat flow

Type	Name	Description
cutHeatMR	inHeat	Heat flow
cutHeatMR	outHeat	Heat flow

Modelica definition

model heatFlow2I "Thermic interface TP." 
  
   parameter Integer nCompI = 1 "Number of components of inHeat";
   parameter Integer nCompO = 1 "Number of components of outHeat";
  
   cutsB.cutHeatMR inHeat(  nComp=nCompI) "Heat flow";
  
   cutsB.cutHeatMR outHeat(  nComp=nCompO) "Heat flow";
  
equation 
  
end heatFlow2I;

JARA2i.interf.heatFlowF2I

Thermic interface TP.

JARA2i.interf.heatFlowF2I

Information

Interface type: transport phenomenon

Parameters

Type Name Default Description

Integer nCompI 1 Number of components of inHeat

Integer nCompO 1 Number of components of outHeat

Type	Name	Default	Description
Integer	nCompI	1	Number of components of inHeat
Integer	nCompO	1	Number of components of outHeat

Connectors

Type Name Description

cutHeatMR inHeat Heat flow

cutHeatFR outHeat Heat flow

Type	Name	Description
cutHeatMR	inHeat	Heat flow
cutHeatFR	outHeat	Heat flow

Modelica definition

model heatFlowF2I "Thermic interface TP." 
  
   parameter Integer nCompI = 1 "Number of components of inHeat";
   parameter Integer nCompO = 1 "Number of components of outHeat";
  
   cutsB.cutHeatMR inHeat(   nComp=nCompI) "Heat flow";
  
   cutsB.cutHeatFR outHeat(   nComp=nCompO) "Heat flow";
  
equation 
  
end heatFlowF2I;

JARA2i.interf.heteroFlow2I

Liquid and Gas - TP.

JARA2i.interf.heteroFlow2I

Information

Interface type: transport phenomenon

Parameters

Type Name Default Description

Integer nComp 1 Number of components

Type	Name	Default	Description
Integer	nComp	1	Number of components

Connectors

Type Name Description

cutLiquidR inMass Liquid flow - Connector R. Connector for the liquid flow.

cutGasR outMol Gas flow - Connector Resistive.

Type	Name	Description
cutLiquidR	inMass	Liquid flow - Connector R. Connector for the liquid flow.
cutGasR	outMol	Gas flow - Connector Resistive.

Modelica definition

model heteroFlow2I "Liquid and Gas - TP." 
  
   parameter Integer nComp = 1 "Number of components";
  
   cutsB.cutLiquidR inMass(  nComp=nComp) "Liquid flow - Connector R.
 Connector for the liquid flow.";
  
   cutsB.cutGasR outMol(     nComp=nComp) "Gas flow - Connector Resistive.";
  
equation 
  
end heteroFlow2I;

JARA2i.interf.heteroProcessFlow2I

Liquid and Gas - TP.

JARA2i.interf.heteroProcessFlow2I

Information

Interface type: transport phenomenon

Parameters

Type Name Default Description

Integer nCompL 1 Number of liquid components

Integer nCompG 1 Number of gas components

Type	Name	Default	Description
Integer	nCompL	1	Number of liquid components
Integer	nCompG	1	Number of gas components

Connectors

Type Name Description

cutLiquidR inMass Connector for the liquid flow

cutGasR outMol Connector for the gas flow

Type	Name	Description
cutLiquidR	inMass	Connector for the liquid flow
cutGasR	outMol	Connector for the gas flow

Modelica definition

model heteroProcessFlow2I "Liquid and Gas - TP." 
  
   parameter Integer nCompL = 1 "Number of liquid components";
   parameter Integer nCompG = 1 "Number of gas components";
  
   cutsB.cutLiquidR inMass(    nComp=nCompL) "Connector for the liquid flow";
  
   cutsB.cutGasR outMol(       nComp=nCompG) "Connector for the gas flow";
  
equation 
  
end heteroProcessFlow2I;

JARA2i.interf.liqFlow1I

Liquid TP.

JARA2i.interf.liqFlow1I

Information

Interface type: transport phenomenon

Parameters

Type Name Default Description

Integer nComp 1 Number of components

Type	Name	Default	Description
Integer	nComp	1	Number of components

Connectors

Type Name Description

cutLiquidR inMass Connector for the liquid flow

Type	Name	Description
cutLiquidR	inMass	Connector for the liquid flow

Modelica definition

model liqFlow1I "Liquid TP." 
  
   parameter Integer nComp = 1 "Number of components";
  
   cutsB.cutLiquidR inMass(  nComp=nComp) "Connector for the liquid flow";
  
equation 
  
end liqFlow1I;

JARA2i.interf.liqFlow2I

Liquid TP.

JARA2i.interf.liqFlow2I

Information

Interface type: transport phenomenon

Parameters

Type Name Default Description

Integer nComp 1

Type	Name	Default	Description
Integer	nComp	1

Connectors

Type Name Description

cutLiquidR inMass

cutLiquidR outMass

Type	Name	Description
cutLiquidR	inMass
cutLiquidR	outMass

Modelica definition

model liqFlow2I "Liquid TP." 
  
   parameter Integer nComp = 1;
  
   cutsB.cutLiquidR inMass(   nComp=nComp);
  
   cutsB.cutLiquidR outMass(   nComp=nComp);
  
equation 
  
end liqFlow2I;

JARA2i.interf.liqFlow2qI

Liquid TP.

JARA2i.interf.liqFlow2qI

Information

Interface type: transport phenomenon

Parameters

Type Name Default Description

Integer nComp 1 Number of components

Type	Name	Default	Description
Integer	nComp	1	Number of components

Connectors

Type Name Description

cutLiquidR inMass Liquid flow connector - R

cutLiquidR outMass Liquid flow connector - R

cutHeatFC inHeat Heat flow connector -C

Type	Name	Description
cutLiquidR	inMass	Liquid flow connector - R
cutLiquidR	outMass	Liquid flow connector - R
cutHeatFC	inHeat	Heat flow connector -C

Modelica definition

model liqFlow2qI "Liquid TP." 
  
   parameter Integer nComp = 1 "Number of components";
  
   cutsB.cutLiquidR inMass(   nComp=nComp) "Liquid flow connector - R";
  
   cutsB.cutLiquidR outMass(   nComp=nComp) "Liquid flow connector - R";
  
   cutsB.cutHeatFC inHeat(    nComp=nComp) "Heat flow connector -C";
  
equation 
  
end liqFlow2qI;

JARA2i.interf.liquid1I

Liquid CV.

JARA2i.interf.liquid1I

Information

Interface type: control volume
This class contains the following connector types: cutLiquidC.

Parameters

Type Name Default Description

Integer nComp 1 Number of components of the liquid mixture

Type	Name	Default	Description
Integer	nComp	1	Number of components of the liquid mixture

Connectors

Type Name Description

cutLiquidC inMass Connector for the liquid flow

Type	Name	Description
cutLiquidC	inMass	Connector for the liquid flow

Modelica definition

model liquid1I "Liquid CV." 
  
   parameter Integer nComp = 1 "Number of components of the liquid mixture";
  
   cutsB.cutLiquidC inMass(   nComp=nComp) "Connector for the liquid flow";
  
equation 
  
end liquid1I;

JARA2i.interf.liquid2I

Liquid CV.

JARA2i.interf.liquid2I

Information

Parameters

Type Name Default Description

Integer nComp 1 Number of components of the liquid mixture

Type	Name	Default	Description
Integer	nComp	1	Number of components of the liquid mixture

Connectors

Type Name Description

cutLiquidC inMassTop Connector for the liquid flow

cutLiquidC inMassBot Connector for the liquid flow

cutHeatMC inHeat Connector for the heat flow

Type	Name	Description
cutLiquidC	inMassTop	Connector for the liquid flow
cutLiquidC	inMassBot	Connector for the liquid flow
cutHeatMC	inHeat	Connector for the heat flow

Modelica definition

model liquid2I "Liquid CV." 
  
   parameter Integer nComp = 1 "Number of components of the liquid mixture";
  
   cutsB.cutLiquidC inMassTop(    nComp=nComp) "Connector for the liquid flow";
  
   cutsB.cutLiquidC inMassBot(    nComp=nComp) "Connector for the liquid flow";
  
   cutsB.cutHeatMC inHeat(     nComp=nComp) "Connector for the heat flow";
  
equation 
  
end liquid2I;

JARA2i.interf.liquidV2I

Liquid CV.

JARA2i.interf.liquidV2I

Information

Interface type: control volume

Liquid CV: the CV contains an ideal, homogeneous liquid mixture composed of an arbitrary number of components.
A liquid CV has two mass-flow CPs and one heat-flow CP: (i) as the liquid properties related with the heat-flow are spatially homogeneous, all the heat-flow CPs are equivalent; (ii) the liquid pressure depends on the position: the simplest and most general CP selection is placing one CP at the CV bottom (point of highest pressure) and the other at the CV top (point of lowest pressure).
One relevant property of a CV is its spatial volume. The liquid CVs impose the following constraint on the volume of the liquid stored inside them: the volume of the liquid mixture contained into a CV is equal (smaller or equal) to the CV volume.
This class contains the following connector types: cutLiquidC, cutHeatMC and cutVolContrLiq.

Parameters

Type Name Default Description

Integer nComp 1 Number of components

Type	Name	Default	Description
Integer	nComp	1	Number of components

Connectors

Type Name Description

cutLiquidC inMassTop Connector for the liquid flow

cutLiquidC inMassBot Connector for the liquid flow

cutHeatMC inHeat Connector for the heat flow

cutVolConstrLiq constraintV Connector for the volume constraint - Liquid

Type	Name	Description
cutLiquidC	inMassTop	Connector for the liquid flow
cutLiquidC	inMassBot	Connector for the liquid flow
cutHeatMC	inHeat	Connector for the heat flow
cutVolConstrLiq	constraintV	Connector for the volume constraint - Liquid

Modelica definition

model liquidV2I "Liquid CV." 
  
   parameter Integer nComp = 1 "Number of components";
  
   cutsB.cutLiquidC inMassTop(    nComp=nComp) "Connector for the liquid flow";
  
   cutsB.cutLiquidC inMassBot(    nComp=nComp) "Connector for the liquid flow";
  
   cutsB.cutHeatMC inHeat(     nComp=nComp) "Connector for the heat flow";
  
   cutsB.cutVolConstrLiq constraintV 
    "Connector for the volume constraint - Liquid";
  
equation 
  
end liquidV2I;

JARA2i.interf.pumpMassSignalI

Information flow.

JARA2i.interf.pumpMassSignalI

Information

Interface type: information flow

Connectors

Type Name Description

cutEmitter setPointSignal Set-point signal

Type	Name	Description
cutEmitter	setPointSignal	Set-point signal

Modelica definition

model pumpMassSignalI "Information flow." 
  
   Real totalMassFSP(      unit="M.t-1") "Setpoint of the total mass flow";
  
   cutsB.cutEmitter setPointSignal(   dim=1, signal={totalMassFSP}) 
    "Set-point signal";
  
equation 
  
end pumpMassSignalI;

JARA2i.interf.pumpMolSignalI

Information flow

Information

Interface type: information flow

Connectors

Type Name Description

cutEmitter setPointSignal Setpoint of the total molar flow

Type	Name	Description
cutEmitter	setPointSignal	Setpoint of the total molar flow

Modelica definition

model pumpMolSignalI "Information flow" 
  
   Real totalMolFSP(      unit="mol.t-1") "Setpoint of the total molar flow";
  
   cutsB.cutEmitter setPointSignal(   dim=1, signal={totalMolFSP}) 
    "Setpoint of the total molar flow";
  
equation 
  
end pumpMolSignalI;

JARA2i.interf.pumpVolSignalI

Information flow

Information

Interface type: information flow

Connectors

Type Name Description

cutEmitter setPointSignal Setpoint of the total volumetric flow

Type	Name	Description
cutEmitter	setPointSignal	Setpoint of the total volumetric flow

Modelica definition

model pumpVolSignalI "Information flow" 
  
   Real totalVolFSP(      unit="L3.t-1") 
    "Setpoint of the total volumetric flow";
  
   cutsB.cutEmitter setPointSignal(   dim=1, signal={totalVolFSP}) 
    "Setpoint of the total volumetric flow";
  
equation 
  
end pumpVolSignalI;

JARA2i.interf.receiver1I

Information receiver.

JARA2i.interf.receiver1I

Information

Interface type: information flow

Parameters

Type Name Default Description

Integer dim 1 Dimension of the signal vector

Type	Name	Default	Description
Integer	dim	1	Dimension of the signal vector

Connectors

Type Name Description

cutReceiver signal Information connector

Type	Name	Description
cutReceiver	signal	Information connector

Modelica definition

model receiver1I "Information receiver." 
  
   parameter Integer dim = 1 "Dimension of the signal vector";
  
   cutsB.cutReceiver signal(  dim=dim) "Information connector";
  
equation 
  
end receiver1I;

JARA2i.interf.sourceHeatSignalI

Information flow.

JARA2i.interf.sourceHeatSignalI

Information

Interface type: information flow

Connectors

Type Name Description

cutEmitter setPointSignal Setpoint of the heat flow

Type	Name	Description
cutEmitter	setPointSignal	Setpoint of the heat flow

Modelica definition

model sourceHeatSignalI "Information flow." 
  
   Real heatFSP(      unit="M.L2.t-3") "Setpoint of the heat flow";
  
   cutsB.cutEmitter setPointSignal(   dim=1, signal={heatFSP}) 
    "Setpoint of the heat flow";
  
equation 
  
end sourceHeatSignalI;

JARA2i.interf.sourceMassSignalI

Information flow.

JARA2i.interf.sourceMassSignalI

Information

Interface type: information flow

Parameters

Type Name Default Description

Integer nComp 1 Number of components

Type	Name	Default	Description
Integer	nComp	1	Number of components

Connectors

Type Name Description

cutEmitter setPointSignal Setpoint of the temperature

Type	Name	Description
cutEmitter	setPointSignal	Setpoint of the temperature

Modelica definition

model sourceMassSignalI "Information flow." 
  
   parameter Integer nComp = 1 "Number of components";
  
   Real totalMassFSP(            unit="M.t-1") 
    "Setpoint of the total mass-flow";
   Real massFractSP[ nComp](     unit=" ") 
    "Setpoint of each-component mass fraction";
   Real tempFSP(                 unit="T") "Setpoint of the temperature";
  
   cutsB.cutEmitter setPointSignal( dim=nComp+2) "Setpoint of the temperature";
  
equation 
  setPointSignal.signal[1]           = totalMassFSP;
  setPointSignal.signal[2:(nComp+1)] = massFractSP[:];
  setPointSignal.signal[nComp+2]     = tempFSP;
  
  
end sourceMassSignalI;

JARA2i.interf.sourceMolSignalI

Information flow.

JARA2i.interf.sourceMolSignalI

Information

Interface type: information flow

Parameters

Type Name Default Description

Integer nComp 1

Type	Name	Default	Description
Integer	nComp	1

Connectors

Type Name Description

cutEmitter setPointSignal Set-point of the total molar flow, mol fraction and temperature

Modelica definition

model sourceMolSignalI "Information flow." 
  
   parameter Integer nComp = 1;
  
   Real totalMolFSP(          unit="mol.t-1") "Setpoint of the total mol-flow";
   Real molFractSP[ nComp](   unit=" ") 
    "Setpoint of each-component mol fraction";
   Real tempFSP(              unit="T") "Setpoint of the temperature";
  
   cutsB.cutEmitter setPointSignal( dim=nComp+2) 
    "Set-point of the total molar flow, mol fraction and temperature";
  
equation 
  setPointSignal.signal[1]           = totalMolFSP;
  setPointSignal.signal[2:(nComp+1)] = molFractSP[:];
  setPointSignal.signal[nComp+2]     = tempFSP;
  
  
end sourceMolSignalI;

JARA2i.interf.sourceVolGasSignalI

Information flow.

JARA2i.interf.sourceVolGasSignalI

Information

Interface type: information flow

Parameters

Type Name Default Description

Integer nComp 1

Connectors

Type Name Description

cutEmitter setPointSignal Setpoint of the total volumetric flow, component mol fraction, temperature and pressure

Modelica definition

model sourceVolGasSignalI "Information flow." 
  
   parameter Integer nComp = 1;
  
   Real totalVolFSP(          unit="L3.t-1") 
    "Setpoint of the total volumetric flow";
   Real molFractSP[ nComp](   unit=" ") 
    "Setpoint of each-component mol fraction";
   Real tempFSP(              unit="T") "Setpoint of the temperature";
   Real pressFSP(             unit="M.L-1.t-2") "Setpoint of the pressure";
  
   cutsB.cutEmitter setPointSignal( dim=nComp+3) 
    "Setpoint of the total volumetric flow, component mol fraction, temperature and pressure";
  
equation 
  setPointSignal.signal[1]           = totalVolFSP;
  setPointSignal.signal[2:(nComp+1)] = molFractSP[:];
  setPointSignal.signal[nComp+2]     = tempFSP;
  setPointSignal.signal[nComp+3]     = pressFSP;
  
  
end sourceVolGasSignalI;

JARA2i.interf.sourceVolLiqSignalI

Information flow.

JARA2i.interf.sourceVolLiqSignalI

Information

Interface type: information flow

Parameters

Type Name Default Description

Integer nComp 1 Number of components

Connectors

Type Name Description

cutEmitter setPointSignal Set-point of the total volumetric flow, component volume fraction and temperature

Modelica definition

model sourceVolLiqSignalI "Information flow." 
  
   parameter Integer nComp = 1 "Number of components";
  
   Real totalVolFSP(              unit="L3.t-1") 
    "Setpoint of the total volumetric flow";
   Real volFractSP[ nComp](       unit=" ") 
    "Setpoint of each-component volume fraction";
   Real tempFSP(                  unit="T") "Setpoint of the temperature";
  
   cutsB.cutEmitter setPointSignal(  dim=nComp+2) 
    "Set-point of the total volumetric flow, component volume fraction and temperature";
  
equation 
  setPointSignal.signal[1]           = totalVolFSP;
  setPointSignal.signal[2:(nComp+1)] = volFractSP[:];
  setPointSignal.signal[nComp+2]     = tempFSP;
  
  
end sourceVolLiqSignalI;

JARA2i.interf.valveSignalI

Information flow.

JARA2i.interf.valveSignalI

Information

Interface type: information flow

Connectors

Type Name Description

cutEmitter setPointSignal Setpoint signal: {valveOpeningSP}

Modelica definition

model valveSignalI "Information flow." 
  
   Real valveOpeningSP(   unit=" ") "Setpoint of the valve opening";
  
   cutsB.cutEmitter setPointSignal(  dim=1, signal={valveOpeningSP}) 
    "Setpoint signal: {valveOpeningSP}";
  
equation 
  
end valveSignalI;

JARA2i.interf.vesselI

Volume constraint.

JARA2i.interf.vesselI

Information

Interface type: volume constraint.
This class is extended by the classes vesselLiqB and vesselGasB.

Connectors

Type Name Description

cutVolConstrVessel constraintV Volume constraint - Vessel.

Modelica definition

model vesselI "Volume constraint." 
  
   cutsB.cutVolConstrVessel constraintV "Volume constraint - Vessel.";
  
equation 
   // Relationship between the terminal variables
   // constraintV.dummyVolF = -constraintV.dummyVol;
   constraintV.vcE[2] = - constraintV.vcF;
  
  
end vesselI;

HTML-documentation generated by Dymola Tue Jul 24 19:08:19 2007.