Foam::label Foam::checkMeshQuality
(
const polyMesh& mesh,
const dictionary& dict
)
{
label noFailedChecks = 0;
{
faceSet faces(mesh, "meshQualityFaces", mesh.nFaces()/100+1);
motionSmoother::checkMesh(false, mesh, dict, faces);
label nFaces = returnReduce(faces.size(), sumOp<label>());
if (nFaces > 0)
{
noFailedChecks++;
Info<< " <<Writing " << nFaces
<< " faces in error to set " << faces.name() << endl;
faces.instance() = mesh.pointsInstance();
faces.write();
}
}
return noFailedChecks;
}
//- (optionally destructively) construct from components
Foam::mapDistributePolyMesh::mapDistributePolyMesh
(
const polyMesh& mesh,
const label nOldPoints,
const label nOldFaces,
const label nOldCells,
labelList& oldPatchStarts,
labelList& oldPatchNMeshPoints,
labelListList& subPointMap,
labelListList& subFaceMap,
labelListList& subCellMap,
labelListList& subPatchMap,
labelListList& constructPointMap,
labelListList& constructFaceMap,
labelListList& constructCellMap,
labelListList& constructPatchMap,
const bool reUse // clone or reuse
)
:
mesh_(mesh),
nOldPoints_(nOldPoints),
nOldFaces_(nOldFaces),
nOldCells_(nOldCells),
oldPatchSizes_(oldPatchStarts.size()),
oldPatchStarts_(oldPatchStarts, reUse),
oldPatchNMeshPoints_(oldPatchNMeshPoints, reUse),
pointMap_(mesh.nPoints(), subPointMap, constructPointMap, reUse),
faceMap_(mesh.nFaces(), subFaceMap, constructFaceMap, reUse),
cellMap_(mesh.nCells(), subCellMap, constructCellMap, reUse),
patchMap_(mesh.boundaryMesh().size(), subPatchMap, constructPatchMap, reUse)
{
calcPatchSizes();
}
void Foam::syncTools::swapBoundaryCellPositions
(
const polyMesh& mesh,
const UList<point>& cellData,
List<point>& neighbourCellData
)
{
if (cellData.size() != mesh.nCells())
{
FatalErrorInFunction
<< "Number of cell values " << cellData.size()
<< " is not equal to the number of cells in the mesh "
<< mesh.nCells() << abort(FatalError);
}
const polyBoundaryMesh& patches = mesh.boundaryMesh();
label nBnd = mesh.nFaces()-mesh.nInternalFaces();
neighbourCellData.setSize(nBnd);
forAll(patches, patchI)
{
const polyPatch& pp = patches[patchI];
const labelUList& faceCells = pp.faceCells();
forAll(faceCells, i)
{
label bFaceI = pp.start()+i-mesh.nInternalFaces();
neighbourCellData[bFaceI] = cellData[faceCells[i]];
}
}
// Construct from mesh. No morphing data: the mesh has not changed
// HJ, 27/Nov/2009
Foam::mapPolyMesh::mapPolyMesh(const polyMesh& mesh)
:
mesh_(mesh),
morphing_(false),
nOldPoints_(mesh.nPoints()),
nOldFaces_(mesh.nFaces()),
nOldCells_(mesh.nCells())
{}
void Foam::decompositionMethod::calcCellCells
(
const polyMesh& mesh,
const labelList& agglom,
const label nLocalCoarse,
const bool parallel,
CompactListList<label>& cellCells
)
{
const labelList& faceOwner = mesh.faceOwner();
const labelList& faceNeighbour = mesh.faceNeighbour();
const polyBoundaryMesh& patches = mesh.boundaryMesh();
// Create global cell numbers
// ~~~~~~~~~~~~~~~~~~~~~~~~~~
globalIndex globalAgglom
(
nLocalCoarse,
Pstream::msgType(),
Pstream::worldComm,
parallel
);
// Get agglomerate owner on other side of coupled faces
// ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
labelList globalNeighbour(mesh.nFaces()-mesh.nInternalFaces());
forAll(patches, patchI)
{
const polyPatch& pp = patches[patchI];
if (pp.coupled() && (parallel || !isA<processorPolyPatch>(pp)))
{
label faceI = pp.start();
label bFaceI = pp.start() - mesh.nInternalFaces();
forAll(pp, i)
{
globalNeighbour[bFaceI] = globalAgglom.toGlobal
(
agglom[faceOwner[faceI]]
);
bFaceI++;
faceI++;
}
}
// Adds empty patch if not yet there. Returns patchID.
label addPatch(polyMesh& mesh, const word& patchName)
{
label patchi = mesh.boundaryMesh().findPatchID(patchName);
if (patchi == -1)
{
const polyBoundaryMesh& patches = mesh.boundaryMesh();
List<polyPatch*> newPatches(patches.size() + 1);
patchi = 0;
// Copy all old patches
forAll(patches, i)
{
const polyPatch& pp = patches[i];
newPatches[patchi] =
pp.clone
(
patches,
patchi,
pp.size(),
pp.start()
).ptr();
patchi++;
}
// Add zero-sized patch
newPatches[patchi] =
new polyPatch
(
patchName,
0,
mesh.nFaces(),
patchi,
patches,
polyPatch::typeName
);
mesh.removeBoundary();
mesh.addPatches(newPatches);
Pout<< "Created patch " << patchName << " at " << patchi << endl;
}
else
{
bool Foam::motionSmootherAlgo::checkMesh
(
const bool report,
const polyMesh& mesh,
const dictionary& dict,
labelHashSet& wrongFaces
)
{
return checkMesh
(
report,
mesh,
dict,
identity(mesh.nFaces()),
wrongFaces
);
}
// 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::MeshWave<Type>::MeshWave
(
const polyMesh& mesh,
const labelList& changedFaces,
const List<Type>& changedFacesInfo,
const label maxIter
)
:
allFaceInfo_(mesh.nFaces()),
allCellInfo_(mesh.nCells()),
calc_
(
mesh,
changedFaces,
changedFacesInfo,
allFaceInfo_,
allCellInfo_,
maxIter
)
{}
//- Construct from components
Foam::mapDistributePolyMesh::mapDistributePolyMesh
(
const polyMesh& mesh,
// mesh before changes
const label nOldPoints,
const label nOldFaces,
const label nOldCells,
const labelList& oldPatchStarts,
const labelList& oldPatchNMeshPoints,
// how to subset pieces of mesh to send across
const labelListList& subPointMap,
const labelListList& subFaceMap,
const labelListList& subCellMap,
const labelListList& subPatchMap,
// how to reconstruct received mesh
const labelListList& constructPointMap,
const labelListList& constructFaceMap,
const labelListList& constructCellMap,
const labelListList& constructPatchMap
)
:
mesh_(mesh),
nOldPoints_(nOldPoints),
nOldFaces_(nOldFaces),
nOldCells_(nOldCells),
oldPatchSizes_(oldPatchStarts.size()),
oldPatchStarts_(oldPatchStarts),
oldPatchNMeshPoints_(oldPatchNMeshPoints),
pointMap_(mesh.nPoints(), subPointMap, constructPointMap),
faceMap_(mesh.nFaces(), subFaceMap, constructFaceMap),
cellMap_(mesh.nCells(), subCellMap, constructCellMap),
patchMap_(mesh.boundaryMesh().size(), subPatchMap, constructPatchMap)
{
calcPatchSizes();
}
// Naive feature detection. All boundary edges with angle > featureAngle become
// feature edges. All points on feature edges become feature points. All
// boundary faces become feature faces.
void simpleMarkFeatures
(
const polyMesh& mesh,
const PackedBoolList& isBoundaryEdge,
const scalar featureAngle,
const bool concaveMultiCells,
const bool doNotPreserveFaceZones,
labelList& featureFaces,
labelList& featureEdges,
labelList& singleCellFeaturePoints,
labelList& multiCellFeaturePoints
)
{
scalar minCos = Foam::cos(featureAngle * mathematicalConstant::pi/180.0);
const polyBoundaryMesh& patches = mesh.boundaryMesh();
// Working sets
labelHashSet featureEdgeSet;
labelHashSet singleCellFeaturePointSet;
labelHashSet multiCellFeaturePointSet;
// 1. Mark all edges between patches
// ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
forAll(patches, patchI)
{
const polyPatch& pp = patches[patchI];
const labelList& meshEdges = pp.meshEdges();
// All patch corner edges. These need to be feature points & edges!
for (label edgeI = pp.nInternalEdges(); edgeI < pp.nEdges(); edgeI++)
{
label meshEdgeI = meshEdges[edgeI];
featureEdgeSet.insert(meshEdgeI);
singleCellFeaturePointSet.insert(mesh.edges()[meshEdgeI][0]);
singleCellFeaturePointSet.insert(mesh.edges()[meshEdgeI][1]);
}
}
// 2. Mark all geometric feature edges
// ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
// Make distinction between convex features where the boundary point becomes
// a single cell and concave features where the boundary point becomes
// multiple 'half' cells.
// Addressing for all outside faces
primitivePatch allBoundary
(
SubList<face>
(
mesh.faces(),
mesh.nFaces()-mesh.nInternalFaces(),
mesh.nInternalFaces()
),
mesh.points()
);
// Check for non-manifold points (surface pinched at point)
allBoundary.checkPointManifold(false, &singleCellFeaturePointSet);
// Check for non-manifold edges (surface pinched at edge)
const labelListList& edgeFaces = allBoundary.edgeFaces();
const labelList& meshPoints = allBoundary.meshPoints();
forAll(edgeFaces, edgeI)
{
const labelList& eFaces = edgeFaces[edgeI];
if (eFaces.size() > 2)
{
const edge& e = allBoundary.edges()[edgeI];
//Info<< "Detected non-manifold boundary edge:" << edgeI
// << " coords:"
// << allBoundary.points()[meshPoints[e[0]]]
// << allBoundary.points()[meshPoints[e[1]]] << endl;
singleCellFeaturePointSet.insert(meshPoints[e[0]]);
singleCellFeaturePointSet.insert(meshPoints[e[1]]);
}
}
// Check for features.
forAll(edgeFaces, edgeI)
{
const labelList& eFaces = edgeFaces[edgeI];
if (eFaces.size() == 2)
{
label f0 = eFaces[0];
label f1 = eFaces[1];
// check angle
const vector& n0 = allBoundary.faceNormals()[f0];
const vector& n1 = allBoundary.faceNormals()[f1];
if ((n0 & n1) < minCos)
{
const edge& e = allBoundary.edges()[edgeI];
label v0 = meshPoints[e[0]];
label v1 = meshPoints[e[1]];
label meshEdgeI = meshTools::findEdge(mesh, v0, v1);
featureEdgeSet.insert(meshEdgeI);
// Check if convex or concave by looking at angle
// between face centres and normal
vector c1c0
(
allBoundary[f1].centre(allBoundary.points())
- allBoundary[f0].centre(allBoundary.points())
);
if (concaveMultiCells && (c1c0 & n0) > SMALL)
{
// Found concave edge. Make into multiCell features
Info<< "Detected concave feature edge:" << edgeI
<< " cos:" << (c1c0 & n0)
<< " coords:"
<< allBoundary.points()[v0]
<< allBoundary.points()[v1]
<< endl;
singleCellFeaturePointSet.erase(v0);
multiCellFeaturePointSet.insert(v0);
singleCellFeaturePointSet.erase(v1);
multiCellFeaturePointSet.insert(v1);
}
else
{
// Convex. singleCell feature.
if (!multiCellFeaturePointSet.found(v0))
{
singleCellFeaturePointSet.insert(v0);
}
if (!multiCellFeaturePointSet.found(v1))
{
singleCellFeaturePointSet.insert(v1);
}
}
}
}
}
// 3. Mark all feature faces
// ~~~~~~~~~~~~~~~~~~~~~~~~~
// Face centres that need inclusion in the dual mesh
labelHashSet featureFaceSet(mesh.nFaces()-mesh.nInternalFaces());
// A. boundary faces.
for (label faceI = mesh.nInternalFaces(); faceI < mesh.nFaces(); faceI++)
{
featureFaceSet.insert(faceI);
}
// B. face zones.
const faceZoneMesh& faceZones = mesh.faceZones();
if (doNotPreserveFaceZones)
{
if (faceZones.size() > 0)
{
WarningIn("simpleMarkFeatures(..)")
<< "Detected " << faceZones.size()
<< " faceZones. These will not be preserved."
<< endl;
}
}
else
{
if (faceZones.size() > 0)
{
Info<< "Detected " << faceZones.size()
<< " faceZones. Preserving these by marking their"
<< " points, edges and faces as features." << endl;
}
forAll(faceZones, zoneI)
{
const faceZone& fz = faceZones[zoneI];
Info<< "Inserting all faces in faceZone " << fz.name()
<< " as features." << endl;
forAll(fz, i)
{
label faceI = fz[i];
const face& f = mesh.faces()[faceI];
const labelList& fEdges = mesh.faceEdges()[faceI];
featureFaceSet.insert(faceI);
forAll(f, fp)
{
// Mark point as multi cell point (since both sides of
// face should have different cells)
singleCellFeaturePointSet.erase(f[fp]);
multiCellFeaturePointSet.insert(f[fp]);
// Make sure there are points on the edges.
featureEdgeSet.insert(fEdges[fp]);
}
}
}
void Foam::decompositionConstraints::singleProcessorFaceSetsConstraint::add
(
const polyMesh& mesh,
boolList& blockedFace,
PtrList<labelList>& specifiedProcessorFaces,
labelList& specifiedProcessor,
List<labelPair>& explicitConnections
) const
{
blockedFace.setSize(mesh.nFaces(), true);
// Mark faces already in set
labelList faceToSet(mesh.nFaces(), -1);
forAll(specifiedProcessorFaces, setI)
{
const labelList& faceLabels = specifiedProcessorFaces[setI];
forAll(faceLabels, i)
{
faceToSet[faceLabels[i]] = setI;
}
}
forAll(setNameAndProcs_, setI)
{
//Info<< "Keeping all cells connected to faceSet "
// << setNameAndProcs_[setI].first()
// << " on processor " << setNameAndProcs_[setI].second() << endl;
const label destProcI = setNameAndProcs_[setI].second();
// Read faceSet
const faceSet fz(mesh, setNameAndProcs_[setI].first());
// Check that it does not overlap with existing specifiedProcessorFaces
labelList nMatch(specifiedProcessorFaces.size(), 0);
forAllConstIter(faceSet, fz, iter)
{
label setI = faceToSet[iter.key()];
if (setI != -1)
{
nMatch[setI]++;
}
}
// Only store if all faces are not yet in specifiedProcessorFaces
// (on all processors)
bool store = true;
forAll(nMatch, setI)
{
if (nMatch[setI] == fz.size())
{
// full match
store = false;
break;
}
else if (nMatch[setI] > 0)
{
// partial match
store = false;
break;
}
}
reduce(store, andOp<bool>());
if (store)
{
specifiedProcessorFaces.append(new labelList(fz.sortedToc()));
specifiedProcessor.append(destProcI);
}
}
