preparation for helium thermal conductivity model,

related to issue thorade#5

HelmholtzMedia/HelmholtzFluids/Butane/package.mo

@@ -101,6 +101,8 @@ extends Interfaces.PartialHelmholtzMedium(
 
   final constant Transport.ThermalConductivityCoefficients
   thermalConductivityCoefficientsButane(
+    thermalConductivityModel=ThermalConductivityModel.TC1,
+    thermalConductivityCriticalEnhancementModel=ThermalConductivityCriticalEnhancementModel.TK3,
     reducingTemperature_0=425.16,
     reducingThermalConductivity_0=1,
     lambda_0_num_coeffs=[

HelmholtzMedia/HelmholtzFluids/Ethanol/package.mo

@@ -95,9 +95,10 @@ extends Interfaces.PartialHelmholtzMedium(
        0.972795913095E-3,  23.0,   7,   4],
      residualGauss=fill(0.0, 0, 9)) "Coefficients of the Helmholtz EoS";
 
-  final constant
-  Transport.ThermalConductivityCoefficients
+  final constant Transport.ThermalConductivityCoefficients
   thermalConductivityCoefficientsEthanol(
+    thermalConductivityModel=ThermalConductivityModel.TC1,
+    thermalConductivityCriticalEnhancementModel=ThermalConductivityCriticalEnhancementModel.TK3,
     reducingTemperature_0=513.9,
     reducingThermalConductivity_0=1,
     lambda_0_num_coeffs=[
@@ -168,14 +169,12 @@ extends Interfaces.PartialHelmholtzMedium(
     -1.,                 0.0,    1,  0,  0])
   "Coefficients for the dynamic viscosity";
 
-  final constant
-  Transport.SurfaceTensionCoefficients
+  final constant Transport.SurfaceTensionCoefficients
   surfaceTensionCoefficientsEthanol(
     coeffs=[
       0.065,    1.26]) "Coefficients for the surface tension";
 
-  final constant
-  Ancillary.AncillaryCoefficients
+  final constant Ancillary.AncillaryCoefficients
   ancillaryCoefficientsEthanol(
     pressureSaturationModel=PressureSaturationModel.PS5,
     pressureSaturation=[

HelmholtzMedia/HelmholtzFluids/Helium/package.mo

@@ -96,6 +96,8 @@ extends Interfaces.PartialHelmholtzMedium(
 
   final constant Transport.ThermalConductivityCoefficients
   thermalConductivityCoefficientsHelium(
+    thermalConductivityModel=ThermalConductivityModel.TC0,
+    thermalConductivityCriticalEnhancementModel=ThermalConductivityCriticalEnhancementModel.TK0,
     reducingTemperature_0=10,
     reducingThermalConductivity_0=1,
     lambda_0_num_coeffs=fill(0.0, 0, 2),

HelmholtzMedia/HelmholtzFluids/Hexamethyldisiloxane/package.mo

@@ -83,9 +83,10 @@ extends Interfaces.PartialHelmholtzMedium(
        0.25902341E-1,   12.0,     4,   3],
      residualGauss=fill(0.0, 0, 9)) "Coefficients of the Helmholtz EoS";
 
-  final constant
-  Transport.ThermalConductivityCoefficients
+  final constant Transport.ThermalConductivityCoefficients
   thermalConductivityCoefficientsMM(
+    thermalConductivityModel=ThermalConductivityModel.TC1,
+    thermalConductivityCriticalEnhancementModel=ThermalConductivityCriticalEnhancementModel.TK3,
     reducingTemperature_0=1,
     reducingThermalConductivity_0=1,
     lambda_0_num_coeffs=fill(0.0, 0, 2),
@@ -98,8 +99,7 @@ extends Interfaces.PartialHelmholtzMedium(
     qd_inverse=0.875350E-9,
     T_ref=637.68) "Coefficients for the thermal conductivity";
 
-  final constant
-  Transport.DynamicViscosityCoefficients
+  final constant Transport.DynamicViscosityCoefficients
   dynamicViscosityCoefficientsMM(
     dynamicViscosityModel=DynamicViscosityModel.VS1,
     collisionIntegralModel=CollisionIntegralModel.CI1,
@@ -116,13 +116,11 @@ extends Interfaces.PartialHelmholtzMedium(
     nu_po=fill(0.0, 0, 5),
     de_po=fill(0.0, 0, 5)) "Coefficients for the dynamic viscosity";
 
-  final constant
-  Transport.SurfaceTensionCoefficients
+  final constant Transport.SurfaceTensionCoefficients
   surfaceTensionCoefficientsMM(
     coeffs=fill(0.0, 0, 2)) "Coefficients for the surface tension";
 
-  final constant
-  Ancillary.AncillaryCoefficients
+  final constant Ancillary.AncillaryCoefficients
   ancillaryCoefficientsMM(
     pressureSaturationModel=PressureSaturationModel.PS5,
     pressureSaturation=[

HelmholtzMedia/HelmholtzFluids/Isobutane/package.mo

@@ -98,9 +98,10 @@ package Isobutane "Isobutane"
       -0.53001044558079E-02,    0.0,    2.,   2, 2,  -10.,  -200.,  1.13,  1.0])
   "Coefficients of the Helmholtz EoS";
 
-  final constant
-  Transport.ThermalConductivityCoefficients
+  final constant Transport.ThermalConductivityCoefficients
   thermalConductivityCoefficientsIsobutane(
+    thermalConductivityModel=ThermalConductivityModel.TC1,
+    thermalConductivityCriticalEnhancementModel=ThermalConductivityCriticalEnhancementModel.TK3,
     reducingTemperature_0 = 407.85,
     reducingThermalConductivity_0 = 1,
     lambda_0_num_coeffs=[
@@ -126,8 +127,7 @@ package Isobutane "Isobutane"
     qd_inverse=0.657661E-9,
     T_ref=611.73) "Coefficients for the thermal conductivity";
 
-  final constant
-  Transport.DynamicViscosityCoefficients
+  final constant Transport.DynamicViscosityCoefficients
   dynamicViscosityCoefficientsIsobutane(
     dynamicViscosityModel=DynamicViscosityModel.VS1,
     collisionIntegralModel=CollisionIntegralModel.CI1,
@@ -176,15 +176,13 @@ package Isobutane "Isobutane"
      -1.,                0.0,    1.00,  0.00,  0])
   "Coefficients for the dynamic viscosity";
 
-  final constant
-  Transport.SurfaceTensionCoefficients
+  final constant Transport.SurfaceTensionCoefficients
   surfaceTensionCoefficientsIsobutane(
     coeffs=[
        0.05756,     1.290;
       -0.009554,    2.290]) "Coefficients for the surface tension";
 
-  final constant
-  Ancillary.AncillaryCoefficients
+  final constant Ancillary.AncillaryCoefficients
   ancillaryCoefficientsIsobutane(
     pressureSaturationModel=PressureSaturationModel.PS5,
     pressureSaturation=[

HelmholtzMedia/HelmholtzFluids/Isopentane/package.mo

@@ -84,9 +84,10 @@ package Isopentane "Isopentane"
        0.018156,       12.0,     4.0,   3],
    residualGauss=fill(0.0, 0, 9)) "Coefficients of the Helmholtz EoS";
 
-  final constant
-  Transport.ThermalConductivityCoefficients
+  final constant Transport.ThermalConductivityCoefficients
   thermalConductivityCoefficientsIsopentane(
+    thermalConductivityModel=ThermalConductivityModel.TC1,
+    thermalConductivityCriticalEnhancementModel=ThermalConductivityCriticalEnhancementModel.TK3,
     reducingTemperature_0 = 341.06,
     reducingThermalConductivity_0 = 1e-3,
     lambda_0_num_coeffs=[
@@ -108,8 +109,7 @@ package Isopentane "Isopentane"
     qd_inverse=0.9316E-9,
     T_ref=690.525) "Coefficients for the thermal conductivity";
 
-  final constant
-  Transport.DynamicViscosityCoefficients
+  final constant Transport.DynamicViscosityCoefficients
   dynamicViscosityCoefficientsIsopentane(
     dynamicViscosityModel=DynamicViscosityModel.VS2,
     collisionIntegralModel=CollisionIntegralModel.CI0,
@@ -132,14 +132,12 @@ package Isopentane "Isopentane"
       -20914.7951660000;
        3.24]) "Coefficients for the dynamic viscosity";
 
-  final constant
-  Transport.SurfaceTensionCoefficients
+  final constant Transport.SurfaceTensionCoefficients
   surfaceTensionCoefficientsIsopentane(
     coeffs=[
        0.05106,     1.21]) "Coefficients for the surface tension";
 
-  final constant
-  Ancillary.AncillaryCoefficients
+  final constant Ancillary.AncillaryCoefficients
   ancillaryCoefficientsIsopentane(
     pressureSaturationModel=PressureSaturationModel.PS5,
     pressureSaturation=[

HelmholtzMedia/HelmholtzFluids/Pentane/package.mo

@@ -85,9 +85,10 @@ package Pentane "Pentane"
       0.016877016,       12.0,     4.0,   3],
    residualGauss=fill(0.0, 0, 9)) "Coefficients of the Helmholtz EoS";
 
-  final constant
-  Transport.ThermalConductivityCoefficients
+  final constant Transport.ThermalConductivityCoefficients
   thermalConductivityCoefficientsPentane(
+    thermalConductivityModel=ThermalConductivityModel.TC1,
+    thermalConductivityCriticalEnhancementModel=ThermalConductivityCriticalEnhancementModel.TK3,
     reducingTemperature_0 = 341.1,
     reducingThermalConductivity_0 = 1e-3,
     lambda_0_num_coeffs=[
@@ -109,8 +110,7 @@ package Pentane "Pentane"
     qd_inverse=0.9345E-9,
     T_ref=704.55) "Coefficients for the thermal conductivity";
 
-  final constant
-  Transport.DynamicViscosityCoefficients
+  final constant Transport.DynamicViscosityCoefficients
   dynamicViscosityCoefficientsPentane(
     dynamicViscosityModel=DynamicViscosityModel.VS2,
     collisionIntegralModel=CollisionIntegralModel.CI0,
@@ -133,16 +133,14 @@ package Pentane "Pentane"
        21435.7720323;
        3.215]) "Coefficients for the dynamic viscosity";
 
-  final constant
-  Transport.SurfaceTensionCoefficients
+  final constant Transport.SurfaceTensionCoefficients
   surfaceTensionCoefficientsPentane(
     coeffs=[
      0.0562267,   1.25;
     -0.0037496,   2.25;
     -0.0029861,   3.25]) "Coefficients for the surface tension";
 
-  final constant
-  Ancillary.AncillaryCoefficients
+  final constant Ancillary.AncillaryCoefficients
   ancillaryCoefficientsPentane(
     pressureSaturationModel=PressureSaturationModel.PS5,
     pressureSaturation=[

HelmholtzMedia/HelmholtzFluids/Propane/package.mo

@@ -91,9 +91,10 @@ extends Interfaces.PartialHelmholtzMedium(
       -0.17486824E-01,  6.75,  1.,  2., 2.,  -14.6,     -547.8, 1.093,  0.948])
   "Coefficients of the Helmholtz EoS";
 
-  final constant
-  Transport.ThermalConductivityCoefficients
+  final constant Transport.ThermalConductivityCoefficients
   thermalConductivityCoefficientsPropane(
+    thermalConductivityModel=ThermalConductivityModel.TC1,
+    thermalConductivityCriticalEnhancementModel=ThermalConductivityCriticalEnhancementModel.TK3,
     reducingTemperature_0=369.85,
     reducingThermalConductivity_0=1,
     lambda_0_num_coeffs=[
@@ -119,8 +120,7 @@ extends Interfaces.PartialHelmholtzMedium(
     qd_inverse=0.875350E-9,
     T_ref=637.68) "Coefficients for the thermal conductivity";
 
-  final constant
-  Transport.DynamicViscosityCoefficients
+  final constant Transport.DynamicViscosityCoefficients
   dynamicViscosityCoefficientsPropane(
     dynamicViscosityModel=DynamicViscosityModel.VS1,
     collisionIntegralModel=CollisionIntegralModel.CI1,
@@ -169,15 +169,13 @@ extends Interfaces.PartialHelmholtzMedium(
     -1.,                 0.0,    1,  0,  0])
   "Coefficients for the dynamic viscosity";
 
-  final constant
-  Transport.SurfaceTensionCoefficients
+  final constant Transport.SurfaceTensionCoefficients
   surfaceTensionCoefficientsPropane(
     coeffs=[
        0.05666,     1.265;
       -0.005291,    2.265]) "Coefficients for the surface tension";
 
-  final constant
-  Ancillary.AncillaryCoefficients
+  final constant Ancillary.AncillaryCoefficients
   ancillaryCoefficientsPropane(
     pressureSaturationModel=PressureSaturationModel.PS5,
     pressureSaturation=[

HelmholtzMedia/HelmholtzFluids/R134a/package.mo

@@ -91,9 +91,10 @@ package R134a "R134a with IIR reference state"
      -0.1285458000E-03,  50.00,  10.00,   4],
    residualGauss=fill(0.0, 0, 9)) "Coefficients of the Helmholtz EoS";
 
-  final constant
-  Transport.ThermalConductivityCoefficients
+  final constant Transport.ThermalConductivityCoefficients
   thermalConductivityCoefficientsR134a(
+    thermalConductivityModel=ThermalConductivityModel.TC1,
+    thermalConductivityCriticalEnhancementModel=ThermalConductivityCriticalEnhancementModel.TK3,
     reducingTemperature_0=1.0,
     reducingThermalConductivity_0=1.0,
     lambda_0_num_coeffs=[
@@ -112,8 +113,7 @@ package R134a "R134a with IIR reference state"
     qd_inverse=5.285356E-10,
     T_ref=561.411) "Coefficients for the thermal conductivity";
 
-  final constant
-  Transport.DynamicViscosityCoefficients
+  final constant Transport.DynamicViscosityCoefficients
   dynamicViscosityCoefficientsR134a(
     dynamicViscosityModel=DynamicViscosityModel.VS1_alternative,
     collisionIntegralModel=CollisionIntegralModel.CI1,
@@ -157,14 +157,12 @@ package R134a "R134a with IIR reference state"
     -1.00,                   0.00,  1.00,  0.00,  0])
   "Coefficients for the dynamic viscosity";
 
-  final constant
-  Transport.SurfaceTensionCoefficients
+  final constant Transport.SurfaceTensionCoefficients
   surfaceTensionCoefficientsR134a(
     coeffs=[
       0.06016,    1.26]) "Coefficients for the surface tension";
 
-  final constant
-  Ancillary.AncillaryCoefficients
+  final constant Ancillary.AncillaryCoefficients
   ancillaryCoefficientsR134a(
     pressureSaturationModel=PressureSaturationModel.PS5,
     pressureSaturation=[

HelmholtzMedia/Interfaces/Choices/DynamicViscosityModel.mo

@@ -4,4 +4,4 @@ type DynamicViscosityModel = enumeration(
     VS1 "VS1 model",
     VS1_alternative "VS1 with alternative first term",
     VS2 "VS2 model",
-    VS4 "VS4 model (Quinones-Cisneros and Deiters)");
+    VS4 "VS4 model");

HelmholtzMedia/Interfaces/Choices/ThermalConductivityCriticalEnhancementModel.mo

@@ -0,0 +1,7 @@
+within HelmholtzMedia.Interfaces.Choices;
+type ThermalConductivityCriticalEnhancementModel = enumeration(
+    TK0 "TK0 model (hardcoded/none)",
+    TK2 "TK2 model",
+    TK3 "TK3 model",
+    TK4 "TK4 model",
+    TK6 "TK6 model");

HelmholtzMedia/Interfaces/Choices/package.order

@@ -1,6 +1,7 @@
 ReferenceState
-DynamicViscosityModel
 ThermalConductivityModel
+ThermalConductivityCriticalEnhancementModel
+DynamicViscosityModel
 CollisionIntegralModel
 PressureSaturationModel
 DensityLiquidModel

HelmholtzMedia/Interfaces/PartialHelmholtzMedium/Transport/DynamicViscosityCoefficients.mo

@@ -1,30 +1,25 @@
 within HelmholtzMedia.Interfaces.PartialHelmholtzMedium.Transport;
 record DynamicViscosityCoefficients
-  import HelmholtzMedia;
-
   constant DynamicViscosityModel dynamicViscosityModel;
   constant CollisionIntegralModel collisionIntegralModel;
-
   // collision integral S_mathfrak
-  constant Temperature epsilon_kappa "Lennard-Jones energy parameter";
+  constant Temperature epsilon_kappa(min=0) "Lennard-Jones energy parameter";
   constant Real sigma "Lennard-Jones size parameter";
   constant Real[:,2] a = fill(0.0, 0, 2) "coefficients for collision integral";
-
   // zero density dependence, via Chapman-Enskog-Theory
   constant Real[:,2] CET = fill(0.0, 0, 2);
-  constant Temperature reducingTemperature_0=1 "reducing temperature";
+  constant Temperature reducingTemperature_0(min=1)=1 "reducing temperature";
   constant Real reducingViscosity_0=1 "reducing viscosity";
-
   // initial density dependence, via Rainwater-Friend-Theory
-  constant Temperature reducingTemperature_1=1 "reducing temperature";
+  constant Temperature reducingTemperature_1(min=1)=1 "reducing temperature";
   constant Real reducingViscosity_1=1 "reducing viscosity";
   constant Real[:,2] b = fill(0.0, 0, 2)
     "coefficients for second viscosity virial coefficent B";
-
   // residual / high density viscosity contribution
   constant Real[:,1] c =  fill(0.0, 0, 1)
     "coefficients for residual viscosity contribution in VS2 model";
-  constant Temperature reducingTemperature_residual=1 "reducing temperature";
+  constant Temperature reducingTemperature_residual(min=1)=1
+    "reducing temperature";
   constant MolarVolume reducingMolarVolume_residual=1 "reducing molar volume";
   constant Real reducingViscosity_residual=1 "reducing viscosity";
   constant Real[:,2] g = fill(0.0, 0, 2) "close-packed density delta_0";

HelmholtzMedia/Interfaces/PartialHelmholtzMedium/Transport/ThermalConductivityCoefficients.mo

@@ -1,5 +1,7 @@
 within HelmholtzMedia.Interfaces.PartialHelmholtzMedium.Transport;
 record ThermalConductivityCoefficients
+  constant ThermalConductivityModel thermalConductivityModel;
+  constant ThermalConductivityCriticalEnhancementModel thermalConductivityCriticalEnhancementModel;
   // dilute gas / zero density terms
   constant Temperature reducingTemperature_0=1 "reducing temperature";
   constant Real reducingThermalConductivity_0=1 "usually unity";
@@ -9,7 +11,8 @@ record ThermalConductivityCoefficients
     "coeffs for dilute contribution denominator";
 
   // residual / background terms
-  constant Temperature reducingTemperature_residual=1 "reducing temperature";
+  constant Temperature reducingTemperature_residual(min=1)=1
+    "reducing temperature";
   constant MolarVolume reducingMolarVolume_residual "reducing molar volume";
   constant Real reducingThermalConductivity_residual=1 "usually unity";
   constant Real[:,4] lambda_r_coeffs = fill(0.0, 0, 4)
@@ -25,5 +28,5 @@ record ThermalConductivityCoefficients
   constant Real xi_0 "amplitude";
   constant Real Gamma_0 "amplitude";
   constant Real qd_inverse "modified effective cutoff parameter";
-  constant Temperature T_ref "reference temperature";
+  constant Temperature T_ref(min=1,max=3e3) "reference temperature";
 end ThermalConductivityCoefficients;

HelmholtzMedia/Interfaces/PartialHelmholtzMedium/Transport/thermalConductivity.mo

@@ -3,12 +3,19 @@ function thermalConductivity "Return thermal conductivity"
   input ThermodynamicState state;
   output ThermalConductivity lambda;
 
+protected
+  ThermalConductivityModel thermalConductivityModel=thermalConductivityCoefficients.thermalConductivityModel;
+
 algorithm
   assert(state.phase <> 2, "thermalConductivity warning: property not defined in two-phase region", level=AssertionLevel.warning);
 
-  lambda := ( Transport.thermalConductivity_dilute(state)
-            + Transport.thermalConductivity_residual(state)
-            + Transport.thermalConductivity_critical(state));
+    if (thermalConductivityModel == ThermalConductivityModel.TC0) then
+    // hardcoded models return full thermal conductivity in one equation
+    lambda := thermalConductivity_residual(state);
+  else
+    // composite models
+    lambda := thermalConductivity_dilute(state) + thermalConductivity_residual(state) + thermalConductivity_critical(state);
+  end if;
 
   annotation (Documentation(info="<html>
   <p>