/// Delete very short fractures
void TPZFracSet::DeleteVeryShortFractures(REAL length)
{
int64_t nel = fgmesh.NElements();
double lmin = 2000.;
for (int64_t el=0; el<nel; el++) {
TPZGeoEl *gel = fgmesh.Element(el);
if (!gel) {
continue;
}
int64_t inode0 = gel->NodeIndex(0);
int64_t inode1 = gel->NodeIndex(1);
if (gel->Neighbour(0).Element() == gel || gel->Neighbour(1).Element() == gel)
{
REAL l = Length(gel);
if (l<lmin) {
lmin = l;
}
if(l < length)
{
std::cout << "Deleting Fracture " << gel->Index() << " length " << l << std::endl;
std::cout << "Index " << gel->NodeIndex(0) << " ";
gel->Node(0).Print();
std::cout << "Index " << gel->NodeIndex(1) << " ";
gel->Node(1).Print();
gel->RemoveConnectivities();
delete gel;
fgmesh.ElementVec()[el] = 0;
gel = 0;
}
}
}
std::cout << "shortest fracture length " << lmin << std::endl;
}
/// Merge lines which are parallel
void TPZFracSet::MergeParallelLines()
{
int64_t nel = fgmesh.NElements();
REAL maxcos = 0.;
for (int64_t el = 0; el<nel; el++) {
TPZGeoEl *gel = fgmesh.Element(el);
if(!gel) continue;
TPZManVector<REAL,3> dir1(3);
Direction(gel, dir1);
int nnodes = gel->NCornerNodes();
for(int is = 0; is<nnodes; is++)
{
TPZGeoElSide gelside(gel,is);
TPZGeoElSide neighbour = gelside.Neighbour();
while (neighbour != gelside) {
TPZManVector<REAL,3> dir2(3);
Direction(neighbour.Element(), dir2);
if (neighbour.Side() != is) {
for (int i=0; i<3; i++) {
dir2[i] *= -1.;
}
}
REAL cosangle = 0.;
for (int i=0; i<3; i++) {
cosangle += dir1[i]*dir2[i];
}
if (cosangle> maxcos) {
maxcos = cosangle;
}
if (cosangle > 0.99) {
std::cout << "Fractures " << gel->Index() << " and " << neighbour.Element()->Index() << " are parallel " << cosangle << "\n";
std::cout << "Index " << gel->NodeIndex(0) << " ";
gel->Node(0).Print();
std::cout << "Index " << gel->NodeIndex(1) << " ";
gel->Node(1).Print();
std::cout << "Index " << neighbour.Element()->NodeIndex(0) << " ";
neighbour.Element()->Node(0).Print();
std::cout << "Index " << neighbour.Element()->NodeIndex(1) << " ";
neighbour.Element()->Node(1).Print();
REAL l1 = Length(gel);
REAL l2 = Length(neighbour.Element());
if (l1 < l2) {
gel->RemoveConnectivities();
delete gel;
fgmesh.ElementVec()[el] = 0;
gel = 0;
break;
}
else
{
neighbour.Element()->RemoveConnectivities();
int64_t neighindex = neighbour.Element()->Index();
delete neighbour.Element();
fgmesh.ElementVec()[neighindex] = 0;
neighbour = gelside;
}
}
neighbour = neighbour.Neighbour();
}
if(!gel) break;
}
}
std::cout << "max cosine angle " << maxcos << std::endl;
}
void TPZHierarquicalGrid::CreateGeometricElement(int n, int iel,int eldim, int elmatid, int &elid)
{
int jump = fBase->NNodes();
int dim = fBase->Dimension();
TPZGeoEl *gel = fBase->ElementVec()[iel];
int gelNodes = gel->NNodes();
// Computing current topology
TPZManVector<int64_t,10> CTopology(gelNodes);
for(int inode = 0; inode < CTopology.size(); inode++)
{
CTopology[inode] = gel->Node(inode).Id();
}
bool Is1D = false;
bool Is2D = false;
bool Is3D = false;
for(int il = 1; il < (n+1); il++ )
{
switch (eldim) {
case 0:
{
//Defining boundaries
if (dim==0) {
if (il==1){
TPZVec<int64_t> Topology(gelNodes);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 1) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoPoint > (elid++, Topology, ffrontMatID,*fComputedGeomesh);
}
if (il==n)
{
TPZVec<int64_t> Topology(gelNodes);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 0) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoPoint > (elid++, Topology, fbackMatID,*fComputedGeomesh);
}
}
// if (dim==1) {
// if (il==1){
// TPZVec<int64_t> Topology(gelNodes+1);
// Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 1) * jump].Id();
// Topology[1]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 0) * jump].Id();
// new TPZGeoElRefPattern < pzgeom::TPZGeoLinear > (elid++, Topology, elmatid,*fComputedGeomesh);
// }
// if (il==n)
// {
// TPZVec<int64_t> Topology(gelNodes+1);
// Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 1) * jump].Id();
// Topology[1]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 0) * jump].Id();
// new TPZGeoElRefPattern < pzgeom::TPZGeoLinear > (elid++, Topology, elmatid,*fComputedGeomesh);
//
// }
// }
TPZVec<int64_t> Topology(gelNodes+1);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 1) * jump].Id();
Topology[1]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 0) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoLinear > (elid++, Topology, elmatid,*fComputedGeomesh);
Is1D = true;
}
break;
case 1:
{
if (dim==1) {
if (il==1){
TPZVec<int64_t> Topology(gelNodes+1);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 1) * jump].Id();
Topology[1]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 1) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoLinear > (elid++, Topology, ffrontMatID,*fComputedGeomesh);
}
if (il==n)
{
TPZVec<int64_t> Topology(gelNodes+1);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 0) * jump].Id();
Topology[1]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 0) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoLinear > (elid++, Topology, fbackMatID,*fComputedGeomesh);
}
}
if (fIsQuad) {
// quadrilateras
TPZVec<int64_t> Topology(gelNodes+2);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 1) * jump].Id();
Topology[1]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 1) * jump].Id();
Topology[2]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 0) * jump].Id();
Topology[3]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 0) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoQuad > (elid++, Topology, elmatid,*fComputedGeomesh);
}
else
{
// triangles
TPZVec<int64_t> Topology(gelNodes+1);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 1) * jump].Id();
Topology[1]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 1) * jump].Id();
Topology[2]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 0) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoTriangle > (elid++, Topology, elmatid,*fComputedGeomesh);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 1) * jump].Id();
Topology[1]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 0) * jump].Id();
Topology[2]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 0) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoTriangle > (elid++, Topology, elmatid,*fComputedGeomesh);
}
Is2D = true;
}
break;
case 2:
{
if (dim==2) {
if (il==1){
if (gel->Type() == EQuadrilateral) {
// quadrilateras
TPZVec<int64_t> Topology(gelNodes+2);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 1) * jump].Id();
Topology[1]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 1) * jump].Id();
Topology[2]=fComputedGeomesh->NodeVec()[CTopology[2] + (il - 1) * jump].Id();
Topology[3]=fComputedGeomesh->NodeVec()[CTopology[3] + (il - 1) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoQuad > (elid++, Topology, ffrontMatID,*fComputedGeomesh);
}
else{
// triangles
TPZVec<int64_t> Topology(gelNodes+1);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 1) * jump].Id();
Topology[1]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 1) * jump].Id();
Topology[2]=fComputedGeomesh->NodeVec()[CTopology[2] + (il - 1) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoTriangle > (elid++, Topology, ffrontMatID,*fComputedGeomesh);
}
}
if (il==n)
{
if (gel->Type() == EQuadrilateral) {
// quadrilateras
TPZVec<int64_t> Topology(gelNodes+2);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 0) * jump].Id();
Topology[1]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 0) * jump].Id();
Topology[2]=fComputedGeomesh->NodeVec()[CTopology[2] + (il - 0) * jump].Id();
Topology[3]=fComputedGeomesh->NodeVec()[CTopology[3] + (il - 0) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoQuad > (elid++, Topology, fbackMatID,*fComputedGeomesh);
}
else{
// triangles
TPZVec<int64_t> Topology(gelNodes+1);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 0) * jump].Id();
Topology[1]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 0) * jump].Id();
Topology[2]=fComputedGeomesh->NodeVec()[CTopology[2] + (il - 0) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoTriangle > (elid++, Topology, fbackMatID,*fComputedGeomesh);
}
}
}
if (!fIsTetrahedron) {
if (fIsPrism) {
// Prisms
TPZVec<int64_t> Topology(2*gelNodes);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 1) * jump].Id();
Topology[1]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 1) * jump].Id();
Topology[2]=fComputedGeomesh->NodeVec()[CTopology[2] + (il - 1) * jump].Id();
Topology[3]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 0) * jump].Id();
Topology[4]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 0) * jump].Id();
Topology[5]=fComputedGeomesh->NodeVec()[CTopology[2] + (il - 0) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoPrism > (elid++, Topology, elmatid,*fComputedGeomesh);
}
else
{
// Cubes
TPZVec<int64_t> Topology(gelNodes+4);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 1) * jump].Id();
Topology[1]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 1) * jump].Id();
Topology[2]=fComputedGeomesh->NodeVec()[CTopology[2] + (il - 1) * jump].Id();
Topology[3]=fComputedGeomesh->NodeVec()[CTopology[3] + (il - 1) * jump].Id();
Topology[4]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 0) * jump].Id();
Topology[5]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 0) * jump].Id();
Topology[6]=fComputedGeomesh->NodeVec()[CTopology[2] + (il - 0) * jump].Id();
Topology[7]=fComputedGeomesh->NodeVec()[CTopology[3] + (il - 0) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoCube > (elid++, Topology, elmatid,*fComputedGeomesh);
}
}
else
{
if (fIsPrism) {
// Prisms
TPZVec<int64_t> Topology(2*gelNodes);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 1) * jump].Id();
Topology[1]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 1) * jump].Id();
Topology[2]=fComputedGeomesh->NodeVec()[CTopology[2] + (il - 1) * jump].Id();
Topology[3]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 0) * jump].Id();
Topology[4]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 0) * jump].Id();
Topology[5]=fComputedGeomesh->NodeVec()[CTopology[2] + (il - 0) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoPrism > (elid++, Topology, elmatid,*fComputedGeomesh);
}
else{
// Tetrahedron
TPZVec<int64_t> Topology(gelNodes+1);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 1) * jump].Id();
Topology[1]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 1) * jump].Id();
Topology[2]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 0) * jump].Id();
Topology[3]=fComputedGeomesh->NodeVec()[CTopology[2] + (il - 1) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoTetrahedra > (elid++, Topology, elmatid,*fComputedGeomesh);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 1) * jump].Id();
Topology[1]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 0) * jump].Id();
Topology[2]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 0) * jump].Id();
Topology[3]=fComputedGeomesh->NodeVec()[CTopology[2] + (il - 1) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoTetrahedra > (elid++, Topology, elmatid,*fComputedGeomesh);
Topology[0]=fComputedGeomesh->NodeVec()[CTopology[0] + (il - 0) * jump].Id();
Topology[1]=fComputedGeomesh->NodeVec()[CTopology[1] + (il - 0) * jump].Id();
Topology[2]=fComputedGeomesh->NodeVec()[CTopology[2] + (il - 0) * jump].Id();
Topology[3]=fComputedGeomesh->NodeVec()[CTopology[2] + (il - 1) * jump].Id();
new TPZGeoElRefPattern < pzgeom::TPZGeoTetrahedra > (elid++, Topology, elmatid,*fComputedGeomesh);
}
}
Is3D = true;
}
break;
default:
{
std::cout << "Connection not implemented " << std::endl;
DebugStop();
}
break;
}
}
if (Is1D) {
fComputedGeomesh->SetDimension(1);
}
if (Is2D) {
fComputedGeomesh->SetDimension(2);
}
if (Is3D) {
fComputedGeomesh->SetDimension(3);
}
}
