// Determines face blocking
void Foam::channelIndex::walkOppositeFaces
(
const polyMesh& mesh,
const labelList& startFaces,
boolList& blockedFace
)
{
const cellList& cells = mesh.cells();
const faceList& faces = mesh.faces();
label nBnd = mesh.nFaces() - mesh.nInternalFaces();
DynamicList<label> frontFaces(startFaces);
forAll(frontFaces, i)
{
label facei = frontFaces[i];
blockedFace[facei] = true;
}
Foam::tmp<Foam::scalarField>
Foam::movingBodyTopoFvMesh::calcMotionMask() const
{
Info<< "Updating vertex markup" << endl;
tmp<scalarField> tvertexMarkup(new scalarField(allPoints().size(), 0));
scalarField& vertexMarkup = tvertexMarkup();
cellZoneID movingCellsID(movingCellsName_, cellZones());
// In order to do a correct update on a mask on processor boundaries,
// Detection of moving cells should use patchNeighbourField for
// processor (not coupled!) boundaries. This is done by expanding
// a moving cell set into a field and making sure that processor patch
// points move in sync. Not done at the moment, probably best to do
// using parallel update of pointFields. HJ, 19/Feb/2011
// If moving cells are found, perform mark-up
if (movingCellsID.active())
{
// Get cell-point addressing
const labelListList& cp = cellPoints();
// Get labels of all moving cells
const labelList& movingCells = cellZones()[movingCellsID.index()];
forAll (movingCells, cellI)
{
const labelList& curCp = cp[movingCells[cellI]];
forAll (curCp, pointI)
{
vertexMarkup[curCp[pointI]] = 1;
}
}
}
faceZoneID frontFacesID(frontFacesName_, faceZones());
if (frontFacesID.active())
{
const faceZone& frontFaces = faceZones()[frontFacesID.index()];
const labelList& mp = frontFaces().meshPoints();
forAll (mp, mpI)
{
vertexMarkup[mp[mpI]] = 1;
}
}
faceZoneID backFacesID(backFacesName_, faceZones());
if (backFacesID.active())
{
const faceZone& backFaces = faceZones()[backFacesID.index()];
const labelList& mp = backFaces().meshPoints();
forAll (mp, mpI)
{
vertexMarkup[mp[mpI]] = 1;
}
}
return tvertexMarkup;
}