void Foam::KinematicCloud<CloudType>::motion(TrackData& td)
{
td.part() = TrackData::tpLinearTrack;
CloudType::move(td, solution_.trackTime());
updateCellOccupancy();
}
void Foam::KinematicCloud<CloudType>::preEvolve()
{
Info<< "\nSolving cloud " << this->name() << endl;
this->dispersion().cacheFields(true);
forces_.cacheFields(true);
updateCellOccupancy();
pAmbient_ = constProps_.dict().template
lookupOrDefault<scalar>("pAmbient", pAmbient_);
}
void Foam::KinematicCloud<CloudType>::preEvolve()
{
// force calculaion of mesh dimensions - needed for parallel runs
// with topology change due to lazy evaluation of valid mesh dimensions
label nGeometricD = mesh_.nGeometricD();
Info<< "\nSolving " << nGeometricD << "-D cloud " << this->name() << endl;
this->dispersion().cacheFields(true);
forces_.cacheFields(true);
updateCellOccupancy();
pAmbient_ = constProps_.dict().template
lookupOrDefault<scalar>("pAmbient", pAmbient_);
functions_.preEvolve();
}
void Foam::KinematicCloud<CloudType>::evolveCloud(TrackData& td)
{
if (solution_.coupled())
{
td.cloud().resetSourceTerms();
}
if (solution_.transient())
{
label preInjectionSize = this->size();
this->surfaceFilm().inject(td);
// Update the cellOccupancy if the size of the cloud has changed
// during the injection.
if (preInjectionSize != this->size())
{
updateCellOccupancy();
preInjectionSize = this->size();
}
injectors_.inject(td);
// Assume that motion will update the cellOccupancy as necessary
// before it is required.
td.cloud().motion(td);
stochasticCollision().update(solution_.trackTime());
}
else
{
// this->surfaceFilm().injectSteadyState(td);
injectors_.injectSteadyState(td, solution_.trackTime());
td.part() = TrackData::tpLinearTrack;
CloudType::move(td, solution_.trackTime());
}
}
void Foam::KinematicCloud<CloudType>::updateMesh()
{
updateCellOccupancy();
injectors_.updateMesh();
cellLengthScale_ = cbrt(mesh_.V());
}
