| SilPaut |
August 25, 2010 11:55 |
Segmentation fault - new enthalpy equation
Hi every body!
I use OF1.5dev, and I changed the enthalpy equation in this form:
Code:
{
reactingMixture& multiMix = (reactingMixture&) thermo->composition();
PtrList<reactingMixture::reactionThermo> speciesData = multiMix.speciesData();
dictionary eqnOpts = mesh.solutionDict().subDict("EquationOptions");
bool useDiffA = false;
bool useDiffB = false;
bool useViscDissipation = false;
bool useTurbDissipation = false;
if ( eqnOpts.found("energyDiffusionA" ) )
{
useDiffA = Switch(eqnOpts.lookup("energyDiffusionA"));
}
if ( eqnOpts.found("energyDiffusionB" ) )
{
useDiffB = Switch(eqnOpts.lookup("energyDiffusionB"));
}
if (useDiffA)
{
Info << "Calculating energy correction A" << endl;
energySource *= 0.0;
surfaceScalarField alphaF = fvc::interpolate(turbulence->alphaEff() );
surfaceScalarField muF = fvc::interpolate( turbulence->muEff() );
volScalarField hY("hY",h);
surfaceScalarField alphaH("alphaH", alphaF * fvc::interpolate( h) );
for (label i = 0; i < Y.size(); i++) {
Info << "\tCalculating differential flux for species " << Y[i].name() << endl;
reactingMixture::reactionThermo& spData = speciesData[i];
forAll(T, iCell) {
hY[iCell] = spData.H(T[iCell] );
}
forAll(T.boundaryField(), iPatch)
{
const fvPatchScalarField& T_patch = T.boundaryField()[iPatch];
fvPatchScalarField& hY_patch = hY.boundaryField()[iPatch];
forAll(T_patch, iFace) {
hY_patch[iFace] = spData.H(T_patch[iFace] );
}
}
alphaH = fvc::interpolate(hY) * (muF - alphaF);
// should this be multiplied prior to interpolation
energySource += fvc::laplacian( alphaH, Y[i] );
}
}
if (useDiffB)
{
Info << "Calculating energy correction B" << endl;
surfaceScalarField muF = fvc::interpolate( turbulence->muEff() );
surfaceScalarField kappaEff("kappaEff",
fvc::interpolate( turbulence->alphaEff() * thermo->Cp() ) );
/*
surfaceScalarField kappaEff("kappaEff",
fvc::interpolate( turbulence->alphaEff()) *
fvc::interpolate( thermo->Cp() ) );
*/
volScalarField hY("hY",h);
surfaceScalarField muH("muH", muF * fvc::interpolate( h) );
energySource = fvc::laplacian( kappaEff , T)
- fvc::laplacian( turbulence->alphaEff(), h);
for (label i = 0; i < Y.size(); i++) {
Info << "\tCalculating differential flux for species " << Y[i].name() << endl;
reactingMixture::reactionThermo& spData = speciesData[i];
forAll(T, iCell) {
hY[iCell] = spData.H(T[iCell] );
}
forAll(T.boundaryField(), iPatch)
{
const fvPatchScalarField& T_patch = T.boundaryField()[iPatch];
fvPatchScalarField& hY_patch = hY.boundaryField()[iPatch];
forAll(T_patch, iFace) {
hY_patch[iFace] = spData.H(T_patch[iFace] );
}
}
muH = fvc::interpolate(hY) * muF;
// should this be multiplied prior to interpolation
energySource += fvc::laplacian( muH, Y[i] );
}
}
}
solve
(
fvm::ddt(rho, h)
+ mvConvection->fvmDiv(phi, h)
- fvm::laplacian(turbulence->alphaEff(), h)
==
DpDt
+ energySource
);
thermo->correct();
}
It looks work well with reacatingFoam,
Whereas If I use the same equation in alternateReactingFoam I can wmake the solver, but i get "Segmentation fault" ERROR when I run the case.
I am new in OF and I'll be very grateful if somebody can help me to understand what this error mean and how I can make alternateReactingFoam works.
thank you very much!! |
