void PrandtlDelta::calcDelta() { delta_ = min ( static_cast<const volScalarField&>(geometricDelta_()), (kappa_/Cdelta_)*wallDist(mesh_).y() ); }
void Foam::LESModels::PrandtlDelta::calcDelta() { delta_ = min ( static_cast<const volScalarField&>(geometricDelta_()), (kappa_/Cdelta_)*wallDist::New(turbulenceModel_.mesh()).y() ); }
void PrandtlDelta::correct() { geometricDelta_().correct(); if (mesh_.changing()) { calcDelta(); } }
void PrandtlDelta::read(const dictionary& d) { const dictionary& dd(d.subDict(type() + "Coeffs")); geometricDelta_().read(dd); d.readIfPresent<scalar>("kappa", kappa_); dd.readIfPresent<scalar>("Cdelta", Cdelta_); calcDelta(); }
void Foam::LESModels::PrandtlDelta::correct() { geometricDelta_().correct(); if (turbulenceModel_.mesh().changing()) { calcDelta(); } }
void Foam::LESModels::PrandtlDelta::read(const dictionary& dict) { const dictionary& coeffDict(dict.optionalSubDict(type() + "Coeffs")); geometricDelta_().read(coeffDict); dict.readIfPresent<scalar>("kappa", kappa_); coeffDict.readIfPresent<scalar>("Cdelta", Cdelta_); calcDelta(); }
void PrandtlDelta::read(const dictionary& d) { const dictionary& dd(d.subDict(type() + "Coeffs")); geometricDelta_().read(dd); kappa_ = dimensionedScalar(d.lookup("kappa")).value(); Cdelta_ = dimensionedScalar(dd.lookup("Cdelta")).value(); calcDelta(); }