int CalcPositionCosts (const INDEX & ind) const
{
int i = HashValue(ind);
int costs = 1;
for (;;)
{
if (hash.Get(i) == ind) return costs;
if (hash.Get(i) == invalid) return costs;
i++;
if (i > hash.Size()) i = 1;
costs++;
}
}
void referencetransform :: ToPlain (const Array<Point3d> & p,
Array<Point3d> & pp) const
{
Vec3d v;
int i;
pp.SetSize (p.Size());
for (i = 1; i <= p.Size(); i++)
{
v = p.Get(i) - rp;
pp.Elem(i).X() = (ex_h * v);
pp.Elem(i).Y() = (ey_h * v);
pp.Elem(i).Z() = (ez_h * v);
}
}
void DBOperationHelper_NonVO(Handle<Object> spec, KeyOperation & op) {
HandleScope scope;
Local<Value> v;
Local<Object> o;
setKeysInOp(spec, op);
v = spec->Get(HELPER_ROW_BUFFER);
if(! v->IsNull()) {
o = v->ToObject();
op.row_buffer = V8BINDER_UNWRAP_BUFFER(o);
}
v = spec->Get(HELPER_ROW_RECORD);
if(! v->IsNull()) {
o = v->ToObject();
const Record * record = unwrapPointer<const Record *>(o);
op.row_record = record;
v = spec->Get(HELPER_BLOBS);
if(v->IsObject()) {
if(op.opcode == 1) {
op.nblobs = op.createBlobReadHandles(record);
} else {
op.nblobs = op.createBlobWriteHandles(v->ToObject(), record);
}
}
}
v = spec->Get(HELPER_LOCK_MODE);
if(! v->IsNull()) {
int intLockMode = v->Int32Value();
op.lmode = static_cast<NdbOperation::LockMode>(intLockMode);
}
v = spec->Get(HELPER_COLUMN_MASK);
if(! v->IsNull()) {
Array *maskArray = Array::Cast(*v);
for(unsigned int m = 0 ; m < maskArray->Length() ; m++) {
Local<Value> colId = maskArray->Get(m);
op.useColumn(colId->Int32Value());
}
}
DEBUG_PRINT("Non-VO %s -- mask: %u lobs: %d", op.getOperationName(),
op.u.maskvalue, op.nblobs);
}
Handle<Value> DBOperationHelper_NonVO(const Arguments &args) {
HandleScope scope;
Operation op;
const Local<Object> spec = args[0]->ToObject();
Local<Value> v;
Local<Object> o;
setKeysInOp(spec, op);
v = spec->Get(HELPER_ROW_BUFFER);
if(! v->IsNull()) {
o = v->ToObject();
op.row_buffer = V8BINDER_UNWRAP_BUFFER(o);
}
v = spec->Get(HELPER_ROW_RECORD);
if(! v->IsNull()) {
o = v->ToObject();
op.row_record = unwrapPointer<const Record *>(o);
}
v = spec->Get(HELPER_LOCK_MODE);
if(! v->IsNull()) {
int intLockMode = v->Int32Value();
op.lmode = static_cast<NdbOperation::LockMode>(intLockMode);
}
v = spec->Get(HELPER_COLUMN_MASK);
if(! v->IsNull()) {
Array *maskArray = Array::Cast(*v);
for(unsigned int m = 0 ; m < maskArray->Length() ; m++) {
Local<Value> colId = maskArray->Get(m);
op.useColumn(colId->Int32Value());
}
}
int opcode = args[1]->Int32Value();
NdbTransaction *tx = unwrapPointer<NdbTransaction *>(args[2]->ToObject());
DEBUG_PRINT("Non-VO opcode: %d mask: %u", opcode, op.u.maskvalue);
return scope.Close(buildNdbOperation(op, opcode, tx));
}
int Ng_GetPrimitiveData (ClientData clientData,
Tcl_Interp * interp,
int argc, tcl_const char *argv[])
{
CSGeometry * geometry = dynamic_cast<CSGeometry*> (ng_geometry.get());
if (!geometry)
{
Tcl_SetResult (interp, err_needscsgeometry, TCL_STATIC);
return TCL_ERROR;
}
tcl_const char * name = argv[1];
tcl_const char * classnamevar = argv[2];
tcl_const char * valuevar = argv[3];
const char * classname;
Array<double> coeffs;
geometry->GetSolid (name)->GetPrimitive()->GetPrimitiveData (classname, coeffs);
ostringstream vst;
for (int i = 1; i <= coeffs.Size(); i++)
vst << coeffs.Get(i) << " ";
cout << "GetPrimitiveData, name = " << name
<< ", classnamevar = " << classnamevar
<< ", classname = " << classname << endl
<< " valuevar = " << valuevar
<< ", values = " << vst.str() << endl;
Tcl_SetVar (interp, classnamevar, (char*)classname, 0);
Tcl_SetVar (interp, valuevar, (char*)vst.str().c_str(), 0);
return TCL_OK;
}
int _tmain(int argc, _TCHAR* argv[])
{
cout << "7 LABOR WORK" << endl;
Array<int> Ar1;
Array<int> Ar2;
Ar1.Set(1);
Ar1.Set(2);
Ar1.Set(3);
Ar2.Set(4);
Ar2.Set(5);
Ar2.Set(6);
cout << endl << "Size Ar1= " << Ar1.getSize() << endl;
cout << "Size Ar2= " << Ar2.getSize() << endl;
cout << "Get Ar1: ";
Ar1.Get();
cout << "Get Ar2: ";
Ar2.Get();
Array<double> Ar3;
Array<double> Ar4;
Ar3.Set(1.1);
Ar3.Set(2.2);
Ar3.Set(3.3);
Ar4.Set(4.4);
Ar4.Set(5.5);
Ar4.Set(6.6);
cout << "Size Ar3= " << Ar3.getSize() << endl;
cout << "Size Ar4= " << Ar4.getSize() << endl;
cout << "Get Ar3: ";
Ar3.Get();
cout << "Get Ar4: ";
Ar4.Get();
Array<Person> Ar5;
Ar5.Set(Person("Ivan", 4));
Ar5.Set(Person("Petr", 5));
cout << "Size Ar5= " << Ar5.getSize() << endl;
cout << "Get Ar5: ";
Ar5.Get();
cout << endl;
cout << "8 LABOR WORK" << endl;
Array<int> oldArr;
int k = 6;
for (int i = 0; i < 5; i++)
{
oldArr.Set(k);
k--;
}
oldArr.Get();
sortik(oldArr);
oldArr.Get();
cout << endl;
Array<double> oldArr1;
double d = 6.6;
for (int i = 0; i < 5; i++)
{
oldArr1.Set(d);
d = d - 1.1;
}
oldArr1.Get();
sortik(oldArr1);
oldArr1.Get();
cout << endl;
Array<Person>oldArr2;
oldArr2.Set(Person("Sidor", 10));
oldArr2.Set(Person("Viktor", 8));
oldArr2.Set(Person("Nikolay", 7));
oldArr2.Get();
sortik(oldArr2);
oldArr2.Get();
return 0;
}
void ADTree3Div :: GetIntersecting (const float * bmin,
const float * bmax,
Array<int> & pis) const
{
static Array<ADTreeNode3Div*> stack(1000);
static Array<int> stackdir(1000);
ADTreeNode3Div * node;
int dir, i, stacks;
stack.SetSize (1000);
stackdir.SetSize(1000);
pis.SetSize(0);
stack.Elem(1) = root;
stackdir.Elem(1) = 0;
stacks = 1;
while (stacks)
{
node = stack.Get(stacks);
dir = stackdir.Get(stacks);
stacks--;
if (node->pi)
{
if (node->data[0] >= bmin[0] && node->data[0] <= bmax[0] &&
node->data[1] >= bmin[1] && node->data[1] <= bmax[1] &&
node->data[2] >= bmin[2] && node->data[2] <= bmax[2])
pis.Append (node->pi);
}
int ndir = dir+1;
if (ndir == 3)
ndir = 0;
int mini = int ( (bmin[dir] - node->minx) / node->dist );
int maxi = int ( (bmax[dir] - node->minx) / node->dist );
// (*testout) << "get int, mini, maxi = " << mini << ", " << maxi << endl;
if (mini < 0) mini = 0;
if (maxi >= ADTN_DIV) maxi = ADTN_DIV-1;
for (i = mini; i <= maxi; i++)
if (node->childs[i])
{
stacks++;
stack.Elem(stacks) = node->childs[i];
stackdir.Elem(stacks) = ndir;
}
/*
if (node->left && bmin[dir] <= node->sep)
{
stacks++;
stack.Elem(stacks) = node->left;
stackdir.Elem(stacks) = ndir;
}
if (node->right && bmax[dir] >= node->sep)
{
stacks++;
stack.Elem(stacks) = node->right;
stackdir.Elem(stacks) = ndir;
}
*/
}
}
int GetLineNP(int nr) const {return lines.Get(nr)->NP();}
STLLine* GetLine(int nr) const {return lines.Get(nr);}
int GetMarker(int i) const
{ return chartmark.Get(i); }
void VisualSceneSpecPoints :: DrawScene ()
{
if (!mesh)
{
VisualScene::DrawScene();
return;
}
if (changeval != specpoints.Size())
BuildScene();
changeval = specpoints.Size();
glClearColor(backcolor, backcolor, backcolor, 1.0);
glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT);
glEnable (GL_COLOR_MATERIAL);
glColor3f (1.0f, 1.0f, 1.0f);
glLineWidth (1.0f);
glPushMatrix();
glMultMatrixd (transformationmat);
// glEnable (GL_COLOR);
// glDisable (GL_COLOR_MATERIAL);
if (vispar.drawedtangents)
{
glColor3d (1, 0, 0);
glBegin (GL_LINES);
for (int i = 1; i <= specpoints.Size(); i++)
{
const Point3d p1 = specpoints.Get(i).p;
const Point3d p2 = specpoints.Get(i).p + len * specpoints.Get(i).v;
glVertex3d (p1.X(), p1.Y(), p1.Z());
glVertex3d (p2.X(), p2.Y(), p2.Z());
}
glEnd();
}
if (vispar.drawededges)
{
glColor3d (1, 0, 0);
glBegin (GL_LINES);
for (int i = 1; i <= mesh->GetNSeg(); i++)
{
const Segment & seg = mesh -> LineSegment (i);
glVertex3dv ( (*mesh)[seg[0]] );
glVertex3dv ( (*mesh)[seg[1]] );
// glVertex3dv ( &(*mesh)[seg[0]].X() );
// glVertex3dv ( &(*mesh)[seg[1]].X() );
}
glEnd();
}
glColor3d (1, 0, 0);
glBegin (GL_LINES);
int edges[12][2] =
{ { 0, 1 },
{ 2, 3 },
{ 4, 5 },
{ 6, 7 },
{ 0, 2 },
{ 1, 3 },
{ 4, 6 },
{ 5, 7 },
{ 0, 4 },
{ 1, 5 },
{ 2, 6 },
{ 3, 7 } };
for (int i = 0; i < boxes.Size(); i++)
{
for (int j = 0; j < 12; j++)
{
glVertex3dv ( boxes[i].GetPointNr(edges[j][0]) );
glVertex3dv ( boxes[i].GetPointNr(edges[j][1]) );
}
/*
glVertex3dv ( boxes[i].PMin() );
glVertex3dv ( boxes[i].PMax() );
*/
}
glEnd();
if (vispar.drawededgenrs)
{
glEnable (GL_COLOR_MATERIAL);
GLfloat textcol[3] = { GLfloat(1 - backcolor),
GLfloat(1 - backcolor),
GLfloat(1 - backcolor) };
glColor3fv (textcol);
glNormal3d (0, 0, 1);
glPushAttrib (GL_LIST_BIT);
// glListBase (fontbase);
char buf[20];
for (int i = 1; i <= mesh->GetNSeg(); i++)
{
const Segment & seg = mesh -> LineSegment (i);
const Point3d p1 = mesh -> Point (seg[0]);
const Point3d p2 = mesh -> Point (seg[1]);
const Point3d p = Center (p1, p2);
glRasterPos3d (p.X(), p.Y(), p.Z());
sprintf (buf, "%d", seg.edgenr);
// glCallLists (GLsizei(strlen (buf)), GL_UNSIGNED_BYTE, buf);
MyOpenGLText (buf);
}
glPopAttrib ();
glDisable (GL_COLOR_MATERIAL);
}
if (vispar.drawedpoints)
{
glColor3d (0, 0, 1);
/*
glPointSize( 3.0 );
float range[2];
glGetFloatv(GL_POINT_SIZE_RANGE, &range[0]);
cout << "max ptsize = " << range[0] << "-" << range[1] << endl;
glBegin( GL_POINTS );
for (int i = 1; i <= mesh -> GetNP(); i++)
{
const Point3d & p = mesh -> Point(i);
if (i % 2)
glVertex3f( p.X(), p.Y(), p.Z());
}
glEnd();
*/
static GLubyte knoedel[] =
{
0xfe, 0xfe, 0xfe, 0xfe, 0xfe, 0xfe, 0xfe,
};
glPixelStorei(GL_UNPACK_ALIGNMENT, 1);
glDisable (GL_COLOR_MATERIAL);
glDisable (GL_LIGHTING);
glDisable (GL_CLIP_PLANE0);
for (int i = 1; i <= mesh -> GetNP(); i++)
{
const Point3d & p = mesh -> Point(i);
glRasterPos3d (p.X(), p.Y(), p.Z());
glBitmap (7, 7, 3, 3, 0, 0, &knoedel[0]);
}
}
if (vispar.drawedpointnrs)
{
glEnable (GL_COLOR_MATERIAL);
GLfloat textcol[3] = { GLfloat(1 - backcolor),
GLfloat(1 - backcolor),
GLfloat(1 - backcolor) };
glColor3fv (textcol);
glNormal3d (0, 0, 1);
glPushAttrib (GL_LIST_BIT);
// glListBase (fontbase);
char buf[20];
for (int i = 1; i <= mesh->GetNP(); i++)
{
const Point3d & p = mesh->Point(i);
glRasterPos3d (p.X(), p.Y(), p.Z());
sprintf (buf, "%d", i);
// glCallLists (GLsizei(strlen (buf)), GL_UNSIGNED_BYTE, buf);
MyOpenGLText (buf);
}
glPopAttrib ();
glDisable (GL_COLOR_MATERIAL);
}
glPopMatrix();
if (vispar.drawcoordinatecross)
DrawCoordinateCross ();
DrawNetgenLogo ();
glFinish();
}
void GetMarkedSeg(int i, Point<3> & ap1, Point<3> & ap2)
{
ap1=markedsegs.Get(i*2-1);
ap2=markedsegs.Get(i*2);
}
int main(int argc, char ** argv)
{
#ifdef PARALLEL
// parallel profiling
#pragma pomp inst init
MPI_Init(&argc, &argv);
MPI_Comm_size(MPI_COMM_WORLD, &netgen::ntasks);
MPI_Comm_rank(MPI_COMM_WORLD, &netgen::id);
MPI_Group MPI_GROUP_WORLD;
int n_ho = netgen::ntasks - 1;
int * process_ranks = new int[netgen::ntasks-1];
for ( int i = 0; i < netgen::ntasks-1; i++ )
process_ranks[i] = i+1;
MPI_Comm_group ( MPI_COMM_WORLD, &MPI_GROUP_WORLD);
MPI_Group_incl ( MPI_GROUP_WORLD, n_ho, process_ranks, & netgen::MPI_HIGHORDER_WORLD);
MPI_Comm_create ( MPI_COMM_WORLD, netgen::MPI_HIGHORDER_WORLD, & netgen::MPI_HIGHORDER_COMM);
#pragma pomp inst begin(main)
#endif
if ( netgen::id == 0 )
{
cout << "NETGEN-" << PACKAGE_VERSION << endl;
cout << "Developed at RWTH Aachen University, Germany" << endl
<< "and Johannes Kepler University Linz, Austria" << endl;
#ifdef OCCGEOMETRY
cout << "Including OpenCascade geometry kernel" << endl;
#endif
#ifdef ACIS
cout << "Including ACIS geometry kernel" << endl;
#endif
#ifdef LINUX
//feenableexcept(FE_DIVBYZERO | FE_INVALID | FE_OVERFLOW);
//feenableexcept(FE_DIVBYZERO | FE_INVALID | FE_OVERFLOW | FE_UNDERFLOW);
//cout << "Handle Floating Point Exceptions: " << fegetexcept() << endl;
#endif
#ifdef DEBUG
cout << "You are running the debug version !" << endl;
#endif
#ifdef USE_SUPERLU
cout << "Including sparse direct solver SuperLU by Lawrence Berkeley National Laboratory" << endl;
#endif
#ifdef PARALLEL
cout << "Including MPI " << endl;
cout << "Using " << netgen::ntasks << " processor"
<< ((netgen::ntasks > 1) ? "s " : " ") << endl;
#endif
}
else
{
;// nodisplay = true;
}
// command line arguments:
for (int i = 1; i < argc; i++)
{
if (argv[i][0] == '-')
parameters.SetCommandLineFlag (argv[i]);
else
parameters.SetFlag ("geofile", argv[i]);
}
if (getenv ("NETGENDIR") && strlen (getenv ("NETGENDIR")))
ngdir = getenv ("NETGENDIR");
else
ngdir = ".";
verbose = parameters.GetDefineFlag ("V");
if (verbose)
cout << "NETGENDIR = " << ngdir << endl;
if ( netgen::id == 0 )
{
if (parameters.StringFlagDefined ("testout"))
netgen::testout = new ofstream (parameters.GetStringFlag ("testout", "test.out"));
#ifdef SOCKETS
Ng_ServerSocketManagerInit(static_cast<int>(parameters.GetNumFlag("serversocket",-1)));
if(parameters.GetNumFlag("serversocket",-1) > 0 && !parameters.GetDefineFlag("display"))
nodisplay = true;
#endif
if(parameters.GetDefineFlag("batchmode"))
nodisplay = true;
if(parameters.GetDefineFlag("shellmode"))
{
nodisplay = true;
shellmode = true;
}
Tcl_FindExecutable(NULL);
// initialize application
Tcl_Interp * myinterp = Tcl_CreateInterp ();
if (Tcl_AppInit (myinterp) == TCL_ERROR)
{
cerr << "Exit Netgen due to initialization problem" << endl;
exit (1);
}
// parse tcl-script
int errcode;
bool internaltcl = false;
if (shellmode)
internaltcl = false;
#ifdef PARALLEL
internaltcl = false;
#endif
if (verbose)
{
cout << "Tcl header version = " << TCL_PATCH_LEVEL << endl;
Tcl_Eval (myinterp, "puts \"Tcl runtime version = [info patchlevel] \";");
}
if (parameters.GetDefineFlag ("internaltcl"))
internaltcl=true;
if (parameters.GetDefineFlag ("externaltcl"))
internaltcl=false;
if (internaltcl)
{
if (verbose)
cout << "using internal Tcl-script" << endl;
// connect to one string
extern const char * ngscript[];
const char ** hcp = ngscript;
int len = 0;
while (*hcp)
len += strlen (*hcp++);
char * tr1 = new char[len+1];
*tr1 = 0;
hcp = ngscript;
char * tt1 = tr1;
while (*hcp)
{
strcat (tt1, *hcp);
tt1 += strlen (*hcp++);
}
errcode = Tcl_Eval (myinterp, tr1);
delete [] tr1;
}
else
{
string startfile = ngdir + "/ng.tcl";
if (verbose)
cout << "Load Tcl-script from " << startfile << endl;
errcode = Tcl_EvalFile (myinterp, (char*)startfile.c_str());
}
if (errcode)
{
cout << "Error in Tcl-Script:" << endl;
// cout << "result = " << myinterp->result << endl;
cout << "result = " << Tcl_GetStringResult (myinterp) << endl;
// cout << "in line " << myinterp->errorLine << endl;
cout << "\nMake sure to set environment variable NETGENDIR to directory containing ng.tcl" << endl;
exit (1);
}
// lookup user file formats and insert into format list:
Array<const char*> userformats;
RegisterUserFormats (userformats);
ostringstream fstr;
for (int i = 1; i <= userformats.Size(); i++)
fstr << ".ngmenu.file.filetype add radio -label \""
<< userformats.Get(i) << "\" -variable exportfiletype\n";
Tcl_Eval (myinterp, (char*)fstr.str().c_str());
Tcl_SetVar (myinterp, "exportfiletype", "Neutral Format", 0);
// For adding an application, parse the file here,
// and call the init-procedure below
// #define DEMOAPP
#ifdef DEMOAPP
Tcl_EvalFile (myinterp, "demoapp/demoapp.tcl");
#endif
#ifdef ADDON
Tcl_EvalFile (myinterp, "addon/addon.tcl");
#endif
#ifdef SOCKETS
Ng_ServerSocketManagerRun();
#endif
// start event-loop
Tk_MainLoop();
Tcl_DeleteInterp (myinterp);
#ifdef PARALLEL
#pragma pomp inst altend(main)
// MPI beenden
MPI_Barrier(MPI_COMM_WORLD);
MPI_Finalize();
#endif
Tcl_Exit(0);
}
#ifdef PARALLEL
else
{
// main for parallel processors
ParallelRun();
#pragma pomp inst end(main)
// MPI beenden
MPI_Barrier(MPI_COMM_WORLD);
MPI_Finalize();
}
#endif
return 0;
}
void WriteJCMFormat (const Mesh & mesh,
const NetgenGeometry & geom,
const string & filename)
{
if (mesh.GetDimension() != 3)
{
cout <<"\n Error: Dimension 3 only supported by this output format!"<<endl;
return;
}
int bc_at_infinity = 0;
int i, j, jj, ct(0), counter;
double dx1, dx2, dx3, dy1, dy2, dy3, dz1, dz2, dz3, vol;
// number of points
int np = mesh.GetNP();
// Identic points
Array<int,1> identmap1, identmap2, identmap3;
mesh.GetIdentifications().GetMap(1, identmap1);
mesh.GetIdentifications().GetMap(2, identmap2);
mesh.GetIdentifications().GetMap(3, identmap3);
// number of volume elements
int ne = mesh.GetNE();
int ntets = 0;
int nprisms = 0;
for (i = 1; i <= ne; i++)
{
Element el = mesh.VolumeElement(i);
if (el.GetNP() == 4)
{
ntets++;
// Check that no two points on a tetrahedron are identified with each other
for (j = 1; j <= 4; j++)
for (jj = 1; jj <=4; jj++)
{
if (identmap1.Elem(el.PNum(j)) == el.PNum(jj))
{
cout << "\n Error: two points on a tetrahedron identified (1) with each other"
<< "\n REFINE MESH !" << endl;
return;
}
if (identmap2.Elem(el.PNum(j)) == el.PNum(jj))
{
cout << "\n Error: two points on a tetrahedron identified (2) with each other"
<< "\n REFINE MESH !" << endl;
return;
}
if (identmap3.Elem(el.PNum(j)) == el.PNum(jj))
{
cout << "\n Error: two points on a tetrahedron identified (3) with each other"
<< "\n REFINE MESH !" << endl;
return;
}
}
}
else if (el.GetNP() == 6)
nprisms++;
}
if ( ne != (ntets+nprisms))
{
cout<< "\n Error in determining number of volume elements!\n"
<< "\n Prisms and tetrahedra only implemented in the JCMwave format!\n"<<endl;
return;
}
if (nprisms > 0)
cout << " Please note: Boundaries at infinity have to carry the bc-attribute '-bc="
<< bc_at_infinity <<"'."<<endl;
// number of surface elements
int nse = mesh.GetNSE();
// number of boundary triangles
int nbtri = 0;
// number of boundary quadrilaterals
int nbquad = 0;
// array with 1 if point on any tetra, 0 else
// this is needed in order to arrange the prism points in the right order
Array<int,1> pointsOnTetras;
pointsOnTetras.SetSize (mesh.GetNP());
pointsOnTetras = 0;
for (i = 1; i <= ne; i++)
{
Element el = mesh.VolumeElement(i);
if (el.GetNP() == 4)
{
for (j = 1; j <= 4; j++)
pointsOnTetras.Set(int (el.PNum(j)),1);
}
}
// number of boundary triangles and boundary quadrilaterals
for (i = 1; i <= nse; i++)
{
Element2d el = mesh.SurfaceElement(i);
if (el.GetNP() == 3 &&
( mesh.GetFaceDescriptor (el.GetIndex()).DomainIn()==0 ||
mesh.GetFaceDescriptor (el.GetIndex()).DomainOut()==0 ) )
nbtri++;
else if (el.GetNP() == 4 &&
( mesh.GetFaceDescriptor (el.GetIndex()).DomainIn()==0 ||
mesh.GetFaceDescriptor (el.GetIndex()).DomainOut()==0 ) )
nbquad++;
}
ofstream outfile (filename.c_str());
outfile.precision(6);
outfile.setf (ios::fixed, ios::floatfield);
outfile.setf (ios::showpoint);
outfile << "/* <BLOBHead>\n";
outfile << "__BLOBTYPE__=Grid\n";
outfile << "__OWNER__=JCMwave\n";
outfile << "<I>SpaceDim=3\n";
outfile << "<I>ManifoldDim=3\n";
outfile << "<I>NRefinementSteps=0\n";
outfile << "<I>NPoints="<<np<<"\n";
outfile << "<I>NTetrahedra="<<ntets<<"\n";
outfile << "<I>NPrisms="<<nprisms<<"\n";
outfile << "<I>NBoundaryTriangles="<<nbtri<<"\n";
outfile << "<I>NBoundaryQuadrilaterals="<<nbquad<<"\n";
outfile << "*/\n";
outfile << "\n";
outfile << "# output from Netgen\n\n";
int nDomains=mesh.GetNDomains();
for (i=1; i<=nDomains; i++)
{
if (mesh.GetMaterial(i))
outfile << "#" << mesh.GetMaterial(i)
<< ": Material ID = "
<< i << "\n";
}
outfile << "# Points\n";
cout << " Please note: The unit of length in the .geo file is assumed to be 'microns'."<<endl;
for (i = 1; i <= np; i++)
{
const Point<3> & p = mesh.Point(i);
outfile << i << "\n";
outfile << p(0) << "e-6\n";
outfile << p(1) << "e-6\n";
outfile << p(2) << "e-6\n\n";
}
outfile << "\n";
outfile << "# Tetrahedra\n";
counter = 0;
for (i = 1; i <= ne; i++)
{
Element el = mesh.VolumeElement(i);
if (el.GetNP() == 4)
{
counter++;
dx1 = mesh.Point(el.PNum(2))(0) - mesh.Point(el.PNum(1))(0);
dx2 = mesh.Point(el.PNum(3))(0) - mesh.Point(el.PNum(1))(0);
dx3 = mesh.Point(el.PNum(4))(0) - mesh.Point(el.PNum(1))(0);
dy1 = mesh.Point(el.PNum(2))(1) - mesh.Point(el.PNum(1))(1);
dy2 = mesh.Point(el.PNum(3))(1) - mesh.Point(el.PNum(1))(1);
dy3 = mesh.Point(el.PNum(4))(1) - mesh.Point(el.PNum(1))(1);
dz1 = mesh.Point(el.PNum(2))(2) - mesh.Point(el.PNum(1))(2);
dz2 = mesh.Point(el.PNum(3))(2) - mesh.Point(el.PNum(1))(2);
dz3 = mesh.Point(el.PNum(4))(2) - mesh.Point(el.PNum(1))(2);
vol = (dy1*dz2-dz1*dy2)*dx3 + (dz1*dx2-dx1*dz2)*dy3 + (dx1*dy2-dy1*dx2)*dz3;
if ( vol > 0 )
for (j = 1; j <= 4; j++)
outfile << el.PNum(j)<<"\n";
else
{
for (j = 2; j >= 1; j--)
outfile << el.PNum(j)<<"\n";
for (j = 3; j <= 4; j++)
outfile << el.PNum(j)<<"\n";
}
outfile << el.GetIndex() << "\n\n";
}
}
if ( counter != ntets)
{
cout<< "\n Error in determining number of tetras!\n"<<endl;
return;
}
outfile << "\n";
outfile << "# Prisms\n";
counter = 0;
for (i = 1; i <= ne; i++)
{
Element el = mesh.VolumeElement(i);
if (el.GetNP() == 6)
{
counter++;
dx1 = mesh.Point(el.PNum(2))(0) - mesh.Point(el.PNum(1))(0);
dx2 = mesh.Point(el.PNum(3))(0) - mesh.Point(el.PNum(1))(0);
dx3 = mesh.Point(el.PNum(4))(0) - mesh.Point(el.PNum(1))(0);
dy1 = mesh.Point(el.PNum(2))(1) - mesh.Point(el.PNum(1))(1);
dy2 = mesh.Point(el.PNum(3))(1) - mesh.Point(el.PNum(1))(1);
dy3 = mesh.Point(el.PNum(4))(1) - mesh.Point(el.PNum(1))(1);
dz1 = mesh.Point(el.PNum(2))(2) - mesh.Point(el.PNum(1))(2);
dz2 = mesh.Point(el.PNum(3))(2) - mesh.Point(el.PNum(1))(2);
dz3 = mesh.Point(el.PNum(4))(2) - mesh.Point(el.PNum(1))(2);
vol = (dy1*dz2-dz1*dy2)*dx3 + (dz1*dx2-dx1*dz2)*dy3 + (dx1*dy2-dy1*dx2)*dz3;
if (pointsOnTetras.Get(el.PNum(1)) &&
pointsOnTetras.Get(el.PNum(2)) &&
pointsOnTetras.Get(el.PNum(3)))
{
if (vol > 0)
for (j = 1; j <= 6; j++)
outfile << el.PNum(j)<<"\n";
else
{
for (j = 3; j >= 1; j--)
outfile << el.PNum(j)<<"\n";
for (j = 6; j >= 4; j--)
outfile << el.PNum(j)<<"\n";
}
}
else if ( pointsOnTetras.Get(el.PNum(4)) &&
pointsOnTetras.Get(el.PNum(5)) &&
pointsOnTetras.Get(el.PNum(6)) )
{
if ( vol < 0 )
{
for (j = 4; j <= 6; j++)
outfile << el.PNum(j)<<"\n";
for (j = 1; j <= 3; j++)
outfile << el.PNum(j)<<"\n";
}
else
{
for (j = 6; j >= 4; j--)
outfile << el.PNum(j)<<"\n";
for (j = 3; j >= 1; j--)
outfile << el.PNum(j)<<"\n";
}
}
else
{
cout << "\n Error in determining prism point numbering!\n"<<endl;
return;
}
outfile << el.GetIndex() << "\n\n";
}
}
if ( counter != nprisms)
{
cout<< "\n Error in determining number of prisms!\n"<<endl;
return;
}
int npid1 = 0;
int npid2 = 0;
int npid3 = 0;
for (i=1; i<=np; i++)
{
if (identmap1.Elem(i))
npid1++;
if (identmap2.Elem(i))
npid2++;
if (identmap3.Elem(i))
npid3++;
}
outfile << "\n";
outfile << "# Boundary triangles\n";
outfile << "# Number of identified points in 1-direction: " << npid1 << "\n";
outfile << "# Number of identified points in 2-direction: " << npid2 << "\n";
outfile << "# Number of identified points in 3-direction: " << npid3 << "\n";
for (i = 1; i <= nse; i++)
{
Element2d el = mesh.SurfaceElement(i);
if (el.GetNP() == 3
&& (mesh.GetFaceDescriptor (el.GetIndex()).DomainIn()==0
|| mesh.GetFaceDescriptor (el.GetIndex()).DomainOut()==0))
{
outfile <<"# T\n";
for (j = 1; j <= 3; j++)
outfile << el.PNum(j)<<"\n";
if (mesh.GetFaceDescriptor (el.GetIndex()).BCProperty()==bc_at_infinity)
outfile << 1000 << "\n";
else
outfile << mesh.GetFaceDescriptor (el.GetIndex()).BCProperty() << "\n";
if (mesh.GetFaceDescriptor (el.GetIndex()).BCProperty() == bc_at_infinity)
outfile << "-2\n\n";
else if (identmap1.Elem(el.PNum(1))
&&identmap1.Elem(el.PNum(2))
&&identmap1.Elem(el.PNum(3)))
{
outfile << "-1\n";
for (j = 1; j <= 3; j++)
outfile << identmap1.Elem(el.PNum(j))<<"\n";
outfile << "\n";
}
else if (identmap2.Elem(el.PNum(1))
&&identmap2.Elem(el.PNum(2))
&&identmap2.Elem(el.PNum(3)))
{
outfile << "-1\n";
for (j = 1; j <= 3; j++)
outfile << identmap2.Elem(el.PNum(j))<<"\n";
outfile << "\n";
}
else if (identmap3.Elem(el.PNum(1))
&&identmap3.Elem(el.PNum(2))
&&identmap3.Elem(el.PNum(3)))
{
outfile << "-1\n";
for (j = 1; j <= 3; j++)
outfile << identmap3.Elem(el.PNum(j))<<"\n";
outfile << "\n";
}
else
outfile << "1\n\n";
}
}
outfile << "\n";
outfile << "# Boundary quadrilaterals\n";
for (i = 1; i <= nse; i++)
{
Element2d el = mesh.SurfaceElement(i);
if (el.GetNP() == 4
&& (mesh.GetFaceDescriptor (el.GetIndex()).DomainIn()==0
|| mesh.GetFaceDescriptor (el.GetIndex()).DomainOut()==0))
{
if (pointsOnTetras.Get(el.PNum(1)) &&
pointsOnTetras.Get(el.PNum(2)))
ct = 0;
else if (pointsOnTetras.Get(el.PNum(2)) &&
pointsOnTetras.Get(el.PNum(3)))
ct = 1;
else if (pointsOnTetras.Get(el.PNum(3)) &&
pointsOnTetras.Get(el.PNum(4)))
ct = 2;
else if (pointsOnTetras.Get(el.PNum(4)) &&
pointsOnTetras.Get(el.PNum(1)))
ct = 3;
else
cout << "\nWarning: Quadrilateral with inconsistent points found!"<<endl;
for (j = 1; j <= 4; j++)
{
jj = j + ct;
if ( jj >= 5 )
jj = jj - 4;
outfile << el.PNum(jj)<<"\n";
}
outfile << mesh.GetFaceDescriptor (el.GetIndex()).BCProperty() << "\n";
if (mesh.GetFaceDescriptor (el.GetIndex()).BCProperty() == bc_at_infinity)
{
outfile << "-2\n\n";
cout << "\nWarning: Quadrilateral at infinity found (this should not occur)!"<<endl;
}
else if ( identmap1.Elem(el.PNum(1)) &&
identmap1.Elem(el.PNum(2)) &&
identmap1.Elem(el.PNum(3)) &&
identmap1.Elem(el.PNum(4)) )
{
outfile << "-1\n";
for (j = 1; j <= 4; j++)
{
jj = j + ct;
if ( jj >= 5 )
jj = jj - 4;
outfile << identmap1.Elem(el.PNum(jj))<<"\n";
}
outfile << "\n";
}
else if ( identmap2.Elem(el.PNum(1)) &&
identmap2.Elem(el.PNum(2)) &&
identmap2.Elem(el.PNum(3)) &&
identmap2.Elem(el.PNum(4)) )
{
outfile << "-1\n";
for (j = 1; j <= 4; j++)
{
jj = j + ct;
if ( jj >= 5 )
jj = jj - 4;
outfile << identmap2.Elem(el.PNum(jj))<<"\n";
}
outfile << "\n";
}
else if ( identmap3.Elem(el.PNum(1)) &&
identmap3.Elem(el.PNum(2)) &&
identmap3.Elem(el.PNum(3)) &&
identmap3.Elem(el.PNum(4)) )
{
outfile << "-1\n";
for (j = 1; j <= 4; j++)
{
jj = j + ct;
if ( jj >= 5 )
jj = jj - 4;
outfile << identmap3.Elem(el.PNum(jj))<<"\n";
}
outfile << "\n";
}
else
outfile << "1\n\n";
}
}
cout << " JCMwave grid file written." << endl;
}
void WriteDiffPackFormat (const Mesh & mesh,
const CSGeometry & geom,
const string & filename)
{
// double scale = globflags.GetNumFlag ("scale", 1);
double scale = 1;
ofstream outfile(filename.c_str());
if (mesh.GetDimension() == 3)
{
// Output compatible to Diffpack grid format
// Bartosz Sawicki <*****@*****.**>
int np = mesh.GetNP();
int ne = mesh.GetNE();
int nse = mesh.GetNSE();
Array <int> BIname;
Array <int> BCsinpoint;
int i, j, k, l;
outfile.precision(6);
outfile.setf (ios::fixed, ios::floatfield);
outfile.setf (ios::showpoint);
const Element & eldummy = mesh.VolumeElement((int)1);
outfile << "\n\n"
"Finite element mesh (GridFE):\n\n"
" Number of space dim. = 3\n"
" Number of elements = " << ne << "\n"
" Number of nodes = " << np << "\n\n"
" All elements are of the same type : dpTRUE\n"
" Max number of nodes in an element: "<< eldummy.GetNP() << "\n"
" Only one subdomain : dpFALSE\n"
" Lattice data ? 0\n\n\n\n";
for (i = 1; i <= nse; i++)
{
int BI=mesh.GetFaceDescriptor(mesh.SurfaceElement(i).GetIndex()).BCProperty();
int nbi=BIname.Size();
int found=0;
for (j = 1; j <= nbi; j++)
if(BI == BIname.Get(j)) found = 1;
if( ! found ) BIname.Append(BI);
}
outfile << " " << BIname.Size() << " Boundary indicators: ";
for (i =1 ; i <= BIname.Size(); i++)
outfile << BIname.Get(i) << " ";
outfile << "\n\n\n";
outfile << " Nodal coordinates and nodal boundary indicators,\n"
" the columns contain:\n"
" - node number\n"
" - coordinates\n"
" - no of boundary indicators that are set (ON)\n"
" - the boundary indicators that are set (ON) if any.\n"
"#\n";
for (i = 1; i <= np; i++)
{
const Point3d & p = mesh.Point(i);
outfile.width(4);
outfile << i << " (";
outfile.width(10);
outfile << p.X()/scale << ", ";
outfile.width(9);
outfile << p.Y()/scale << ", ";
outfile.width(9);
outfile << p.Z()/scale << ") ";
if(mesh[PointIndex(i)].Type() != INNERPOINT)
{
BCsinpoint.DeleteAll();
for (j = 1; j <= nse; j++)
{
for (k = 1; k <= mesh.SurfaceElement(j).GetNP(); k++)
{
if(mesh.SurfaceElement(j).PNum(k)==i)
{
int BC=mesh.GetFaceDescriptor(mesh.SurfaceElement(j).GetIndex()).BCProperty();
int nbcsp=BCsinpoint.Size();
int found = 0;
for (l = 1; l <= nbcsp; l++)
if(BC == BCsinpoint.Get(l)) found = 1;
if( ! found ) BCsinpoint.Append(BC);
}
}
}
int nbcsp = BCsinpoint.Size();
outfile << "[" << nbcsp << "] ";
for (j = 1; j <= nbcsp; j++)
outfile << BCsinpoint.Get(j) << " ";
outfile << "\n";
}
else outfile << "[0]\n";
}
outfile << "\n"
" Element types and connectivity\n"
" the columns contain:\n"
" - element number\n"
" - element type\n"
" - subdomain number\n"
" - the global node numbers of the nodes in the element.\n"
"#\n";
for (i = 1; i <= ne; i++)
{
const Element & el = mesh.VolumeElement(i);
outfile.width(5);
if(el.GetNP()==4)
outfile << i << " ElmT4n3D ";
else
outfile << i << " ElmT10n3D ";
outfile.width(4);
outfile << el.GetIndex() << " ";
if(el.GetNP()==10)
{
outfile.width(8);
outfile << el.PNum(1);
outfile.width(8);
outfile << el.PNum(3);
outfile.width(8);
outfile << el.PNum(2);
outfile.width(8);
outfile << el.PNum(4);
outfile.width(8);
outfile << el.PNum(6);
outfile.width(8);
outfile << el.PNum(8);
outfile.width(8);
outfile << el.PNum(5);
outfile.width(8);
outfile << el.PNum(7);
outfile.width(8);
outfile << el.PNum(10);
outfile.width(8);
outfile << el.PNum(9);
}
else
{
outfile.width(8);
outfile << el.PNum(1);
outfile.width(8);
outfile << el.PNum(3);
outfile.width(8);
outfile << el.PNum(2);
outfile.width(8);
outfile << el.PNum(4);
}
outfile << "\n";
}
} /* Diffpack */
else
{
// Output compatible to Diffpack grid format 2D
int np = mesh.GetNP();
//int ne = mesh.GetNE();
int nse = mesh.GetNSE();
Array <int> BIname;
Array <int> BCsinpoint;
int i, j, k, l;
outfile.precision(6);
outfile.setf (ios::fixed, ios::floatfield);
outfile.setf (ios::showpoint);
outfile << "\n\n"
"Finite element mesh (GridFE):\n\n"
" Number of space dim. = 2\n"
" Number of elements = " << nse << "\n"
" Number of nodes = " << np << "\n\n"
" All elements are of the same type : dpTRUE\n"
" Max number of nodes in an element: 3\n"
" Only one subdomain : dpFALSE\n"
" Lattice data ? 0\n\n\n\n";
for (i = 1; i <= nse; i++)
{
int BI=mesh.GetFaceDescriptor(mesh.SurfaceElement(i).GetIndex()).BCProperty();
int nbi=BIname.Size();
int found=0;
for (j = 1; j <= nbi; j++)
if(BI == BIname.Get(j)) found = 1;
if( ! found ) BIname.Append(BI);
}
outfile << " " << BIname.Size() << " Boundary indicators: ";
for (i =1 ; i <= BIname.Size(); i++)
outfile << BIname.Get(i) << " ";
outfile << "\n\n\n";
outfile << " Nodal coordinates and nodal boundary indicators,\n"
" the columns contain:\n"
" - node number\n"
" - coordinates\n"
" - no of boundary indicators that are set (ON)\n"
" - the boundary indicators that are set (ON) if any.\n"
"#\n";
for (i = 1; i <= np; i++)
{
const Point3d & p = mesh.Point(i);
outfile.width(4);
outfile << i << " (";
outfile.width(10);
outfile << p.X()/scale << ", ";
outfile.width(9);
outfile << p.Y()/scale << ", ";
if(mesh[PointIndex(i)].Type() != INNERPOINT)
{
BCsinpoint.DeleteAll();
for (j = 1; j <= nse; j++)
{
for (k = 1; k <= 2; k++)
{
if(mesh.SurfaceElement(j).PNum(k)==i)
{
int BC=mesh.GetFaceDescriptor(mesh.SurfaceElement(j).GetIndex()).BCProperty();
int nbcsp=BCsinpoint.Size();
int found = 0;
for (l = 1; l <= nbcsp; l++)
if(BC == BCsinpoint.Get(l)) found = 1;
if( ! found ) BCsinpoint.Append(BC);
}
}
}
int nbcsp = BCsinpoint.Size();
outfile << "[" << nbcsp << "] ";
for (j = 1; j <= nbcsp; j++)
outfile << BCsinpoint.Get(j) << " ";
outfile << "\n";
}
else outfile << "[0]\n";
}
outfile << "\n"
" Element types and connectivity\n"
" the columns contain:\n"
" - element number\n"
" - element type\n"
" - subdomain number\n"
" - the global node numbers of the nodes in the element.\n"
"#\n";
for (i = 1; i <= nse; i++)
{
const Element2d & el = mesh.SurfaceElement(i);
outfile.width(5);
outfile << i << " ElmT3n2D ";
outfile.width(4);
outfile << el.GetIndex() << " ";
outfile.width(8);
outfile << el.PNum(1);
outfile.width(8);
outfile << el.PNum(3);
outfile.width(8);
outfile << el.PNum(2);
outfile << "\n";
}
}
}
void Meshing2 :: BlockFillLocalH (Mesh & mesh, const MeshingParameters & mp)
{
double filldist = mp.filldist;
cout << "blockfill local h" << endl;
cout << "rel filldist = " << filldist << endl;
PrintMessage (3, "blockfill local h");
Array<Point<3> > npoints;
// adfront -> CreateTrees();
Box<3> bbox ( Box<3>::EMPTY_BOX );
double maxh = 0;
for (int i = 0; i < adfront->GetNFL(); i++)
{
const FrontLine & line = adfront->GetLine (i);
const Point<3> & p1 = adfront->GetPoint(line.L().I1());
const Point<3> & p2 = adfront->GetPoint(line.L().I2());
double hi = Dist (p1, p2);
if (hi > maxh) maxh = hi;
bbox.Add (p1);
bbox.Add (p2);
}
cout << "bbox = " << bbox << endl;
// Point<3> mpc = bbox.Center();
bbox.Increase (bbox.Diam()/2);
Box<3> meshbox = bbox;
LocalH loch2 (bbox, 1);
if (mp.maxh < maxh) maxh = mp.maxh;
bool changed;
do
{
mesh.LocalHFunction().ClearFlags();
for (int i = 0; i < adfront->GetNFL(); i++)
{
const FrontLine & line = adfront->GetLine(i);
Box<3> bbox (adfront->GetPoint (line.L().I1()));
bbox.Add (adfront->GetPoint (line.L().I2()));
double filld = filldist * bbox.Diam();
bbox.Increase (filld);
mesh.LocalHFunction().CutBoundary (bbox);
}
mesh.LocalHFunction().FindInnerBoxes (adfront, NULL);
npoints.SetSize(0);
mesh.LocalHFunction().GetInnerPoints (npoints);
changed = false;
for (int i = 0; i < npoints.Size(); i++)
{
if (mesh.LocalHFunction().GetH(npoints[i]) > 1.5 * maxh)
{
mesh.LocalHFunction().SetH (npoints[i], maxh);
changed = true;
}
}
}
while (changed);
if (debugparam.slowchecks)
(*testout) << "Blockfill with points: " << endl;
*testout << "loch = " << mesh.LocalHFunction() << endl;
*testout << "npoints = " << endl << npoints << endl;
for (int i = 1; i <= npoints.Size(); i++)
{
if (meshbox.IsIn (npoints.Get(i)))
{
PointIndex gpnum = mesh.AddPoint (npoints.Get(i));
adfront->AddPoint (npoints.Get(i), gpnum);
if (debugparam.slowchecks)
{
(*testout) << npoints.Get(i) << endl;
Point<2> p2d (npoints.Get(i)(0), npoints.Get(i)(1));
if (!adfront->Inside(p2d))
{
cout << "add outside point" << endl;
(*testout) << "outside" << endl;
}
}
}
}
// find outer points
loch2.ClearFlags();
for (int i = 0; i < adfront->GetNFL(); i++)
{
const FrontLine & line = adfront->GetLine(i);
Box<3> bbox (adfront->GetPoint (line.L().I1()));
bbox.Add (adfront->GetPoint (line.L().I2()));
loch2.SetH (bbox.Center(), bbox.Diam());
}
for (int i = 0; i < adfront->GetNFL(); i++)
{
const FrontLine & line = adfront->GetLine(i);
Box<3> bbox (adfront->GetPoint (line.L().I1()));
bbox.Add (adfront->GetPoint (line.L().I2()));
bbox.Increase (filldist * bbox.Diam());
loch2.CutBoundary (bbox);
}
loch2.FindInnerBoxes (adfront, NULL);
npoints.SetSize(0);
loch2.GetOuterPoints (npoints);
for (int i = 1; i <= npoints.Size(); i++)
{
if (meshbox.IsIn (npoints.Get(i)))
{
PointIndex gpnum = mesh.AddPoint (npoints.Get(i));
adfront->AddPoint (npoints.Get(i), gpnum);
}
}
}
const MiniElement2d & GetFace (int i) const
{ return faces.Get(i).Face(); }
STLEdge GetEdge(int nr) {return edges.Get(nr);}
twoint GetExternalEdge(int i) const {return externaledges.Get(i);}
// extern double teterrpow;
MESHING3_RESULT MeshVolume (MeshingParameters & mp, Mesh& mesh3d)
{
int oldne;
int meshed;
Array<INDEX_2> connectednodes;
if (&mesh3d.LocalHFunction() == NULL) mesh3d.CalcLocalH(mp.grading);
mesh3d.Compress();
// mesh3d.PrintMemInfo (cout);
if (mp.checkoverlappingboundary)
if (mesh3d.CheckOverlappingBoundary())
throw NgException ("Stop meshing since boundary mesh is overlapping");
int nonconsist = 0;
for (int k = 1; k <= mesh3d.GetNDomains(); k++)
{
PrintMessage (3, "Check subdomain ", k, " / ", mesh3d.GetNDomains());
mesh3d.FindOpenElements(k);
/*
bool res = mesh3d.CheckOverlappingBoundary();
if (res)
{
PrintError ("Surface is overlapping !!");
nonconsist = 1;
}
*/
bool res = (mesh3d.CheckConsistentBoundary() != 0);
if (res)
{
PrintError ("Surface mesh not consistent");
nonconsist = 1;
}
}
if (nonconsist)
{
PrintError ("Stop meshing since surface mesh not consistent");
throw NgException ("Stop meshing since surface mesh not consistent");
}
double globmaxh = mp.maxh;
for (int k = 1; k <= mesh3d.GetNDomains(); k++)
{
if (multithread.terminate)
break;
PrintMessage (2, "");
PrintMessage (1, "Meshing subdomain ", k, " of ", mesh3d.GetNDomains());
(*testout) << "Meshing subdomain " << k << endl;
mp.maxh = min2 (globmaxh, mesh3d.MaxHDomain(k));
mesh3d.CalcSurfacesOfNode();
mesh3d.FindOpenElements(k);
if (!mesh3d.GetNOpenElements())
continue;
Box<3> domain_bbox( Box<3>::EMPTY_BOX );
for (SurfaceElementIndex sei = 0; sei < mesh3d.GetNSE(); sei++)
{
const Element2d & el = mesh3d[sei];
if (el.IsDeleted() ) continue;
if (mesh3d.GetFaceDescriptor(el.GetIndex()).DomainIn() == k ||
mesh3d.GetFaceDescriptor(el.GetIndex()).DomainOut() == k)
for (int j = 0; j < el.GetNP(); j++)
domain_bbox.Add (mesh3d[el[j]]);
}
domain_bbox.Increase (0.01 * domain_bbox.Diam());
for (int qstep = 1; qstep <= 3; qstep++)
{
// cout << "openquads = " << mesh3d.HasOpenQuads() << endl;
if (mesh3d.HasOpenQuads())
{
string rulefile = ngdir;
const char ** rulep = NULL;
switch (qstep)
{
case 1:
rulefile += "/rules/prisms2.rls";
rulep = prismrules2;
break;
case 2: // connect pyramid to triangle
rulefile += "/rules/pyramids2.rls";
rulep = pyramidrules2;
break;
case 3: // connect to vis-a-vis point
rulefile += "/rules/pyramids.rls";
rulep = pyramidrules;
break;
}
// Meshing3 meshing(rulefile);
Meshing3 meshing(rulep);
MeshingParameters mpquad = mp;
mpquad.giveuptol = 15;
mpquad.baseelnp = 4;
mpquad.starshapeclass = 1000;
mpquad.check_impossible = qstep == 1; // for prisms only (air domain in trafo)
for (PointIndex pi = mesh3d.Points().Begin(); pi < mesh3d.Points().End(); pi++)
meshing.AddPoint (mesh3d[pi], pi);
mesh3d.GetIdentifications().GetPairs (0, connectednodes);
for (int i = 1; i <= connectednodes.Size(); i++)
meshing.AddConnectedPair (connectednodes.Get(i));
for (int i = 1; i <= mesh3d.GetNOpenElements(); i++)
{
Element2d hel = mesh3d.OpenElement(i);
meshing.AddBoundaryElement (hel);
}
oldne = mesh3d.GetNE();
meshing.GenerateMesh (mesh3d, mpquad);
for (int i = oldne + 1; i <= mesh3d.GetNE(); i++)
mesh3d.VolumeElement(i).SetIndex (k);
(*testout)
<< "mesh has " << mesh3d.GetNE() << " prism/pyramid elements" << endl;
mesh3d.FindOpenElements(k);
}
}
if (mesh3d.HasOpenQuads())
{
PrintSysError ("mesh has still open quads");
throw NgException ("Stop meshing since too many attempts");
// return MESHING3_GIVEUP;
}
if (mp.delaunay && mesh3d.GetNOpenElements())
{
Meshing3 meshing((const char**)NULL);
mesh3d.FindOpenElements(k);
/*
for (PointIndex pi = mesh3d.Points().Begin(); pi < mesh3d.Points().End(); pi++)
meshing.AddPoint (mesh3d[pi], pi);
*/
for (PointIndex pi : mesh3d.Points().Range())
meshing.AddPoint (mesh3d[pi], pi);
for (int i = 1; i <= mesh3d.GetNOpenElements(); i++)
meshing.AddBoundaryElement (mesh3d.OpenElement(i));
oldne = mesh3d.GetNE();
meshing.Delaunay (mesh3d, k, mp);
for (int i = oldne + 1; i <= mesh3d.GetNE(); i++)
mesh3d.VolumeElement(i).SetIndex (k);
PrintMessage (3, mesh3d.GetNP(), " points, ",
mesh3d.GetNE(), " elements");
}
int cntsteps = 0;
if (mesh3d.GetNOpenElements())
do
{
if (multithread.terminate)
break;
mesh3d.FindOpenElements(k);
PrintMessage (5, mesh3d.GetNOpenElements(), " open faces");
cntsteps++;
if (cntsteps > mp.maxoutersteps)
throw NgException ("Stop meshing since too many attempts");
string rulefile = ngdir + "/tetra.rls";
PrintMessage (1, "start tetmeshing");
// Meshing3 meshing(rulefile);
Meshing3 meshing(tetrules);
Array<int, PointIndex::BASE> glob2loc(mesh3d.GetNP());
glob2loc = -1;
for (PointIndex pi = mesh3d.Points().Begin(); pi < mesh3d.Points().End(); pi++)
if (domain_bbox.IsIn (mesh3d[pi]))
glob2loc[pi] =
meshing.AddPoint (mesh3d[pi], pi);
for (int i = 1; i <= mesh3d.GetNOpenElements(); i++)
{
Element2d hel = mesh3d.OpenElement(i);
for (int j = 0; j < hel.GetNP(); j++)
hel[j] = glob2loc[hel[j]];
meshing.AddBoundaryElement (hel);
// meshing.AddBoundaryElement (mesh3d.OpenElement(i));
}
oldne = mesh3d.GetNE();
mp.giveuptol = 15 + 10 * cntsteps;
mp.sloppy = 5;
meshing.GenerateMesh (mesh3d, mp);
for (ElementIndex ei = oldne; ei < mesh3d.GetNE(); ei++)
mesh3d[ei].SetIndex (k);
mesh3d.CalcSurfacesOfNode();
mesh3d.FindOpenElements(k);
// teterrpow = 2;
if (mesh3d.GetNOpenElements() != 0)
{
meshed = 0;
PrintMessage (5, mesh3d.GetNOpenElements(), " open faces found");
MeshOptimize3d optmesh(mp);
const char * optstr = "mcmstmcmstmcmstmcm";
for (size_t j = 1; j <= strlen(optstr); j++)
{
mesh3d.CalcSurfacesOfNode();
mesh3d.FreeOpenElementsEnvironment(2);
mesh3d.CalcSurfacesOfNode();
switch (optstr[j-1])
{
case 'c': optmesh.CombineImprove(mesh3d, OPT_REST); break;
case 'd': optmesh.SplitImprove(mesh3d, OPT_REST); break;
case 's': optmesh.SwapImprove(mesh3d, OPT_REST); break;
case 't': optmesh.SwapImprove2(mesh3d, OPT_REST); break;
case 'm': mesh3d.ImproveMesh(mp, OPT_REST); break;
}
}
mesh3d.FindOpenElements(k);
PrintMessage (3, "Call remove problem");
RemoveProblem (mesh3d, k);
mesh3d.FindOpenElements(k);
}
else
{
meshed = 1;
PrintMessage (1, "Success !");
}
}
while (!meshed);
PrintMessage (1, mesh3d.GetNP(), " points, ",
mesh3d.GetNE(), " elements");
}
mp.maxh = globmaxh;
MeshQuality3d (mesh3d);
return MESHING3_OK;
}
const Vec3d & GetNormal(int nr) const {return normals.Get(nr);}
const T & Get (const INDEX & ahash) const
{
int pos = Position (ahash);
return cont.Get(pos);
}
int GetSpiralPoint(int pn) const {return spiralpoints.Get(pn);};
void GetData (int pos, INDEX & ahash, T & acont) const
{
ahash = hash.Get(pos);
acont = cont.Get(pos);
}
STLChart& GetChart(int nr) {return *(atlas.Get(nr));};
void GetData (int pos, T & acont) const
{
acont = cont.Get(pos);
}
int GetLineP(int lnr, int pnr) const {return lines.Get(lnr)->PNum(pnr);}
int UsedPos (int pos) const { return ! (hash.Get(pos).I1() == invalid); }
void WriteFile (int typ,
const Mesh & mesh,
const CSGeometry & geom,
const char * filename,
const char * geomfile,
double h)
{
int inverttets = mparam.inverttets;
int invertsurf = mparam.inverttrigs;
if (typ == WRITE_EDGEELEMENT)
{
// write edge element file
// Peter Harscher, ETHZ
cout << "Write Edge-Element Format" << endl;
ofstream outfile (filename);
int i, j;
int ned;
// hash table representing edges;
INDEX_2_HASHTABLE<int> edgeht(mesh.GetNP());
// list of edges
Array<INDEX_2> edgelist;
// edge (point) on boundary ?
BitArray bedge, bpoint(mesh.GetNP());
static int eledges[6][2] = { { 1, 2 } , { 1, 3 } , { 1, 4 },
{ 2, 3 } , { 2, 4 } , { 3, 4 } };
// fill hashtable (point1, point2) ----> edgenr
for (i = 1; i <= mesh.GetNE(); i++)
{
const Element & el = mesh.VolumeElement (i);
INDEX_2 edge;
for (j = 1; j <= 6; j++)
{
edge.I1() = el.PNum (eledges[j-1][0]);
edge.I2() = el.PNum (eledges[j-1][1]);
edge.Sort();
if (!edgeht.Used (edge))
{
edgelist.Append (edge);
edgeht.Set (edge, edgelist.Size());
}
}
}
// set bedges, bpoints
bedge.SetSize (edgelist.Size());
bedge.Clear();
bpoint.Clear();
for (i = 1; i <= mesh.GetNSE(); i++)
{
const Element2d & sel = mesh.SurfaceElement(i);
for (j = 1; j <= 3; j++)
{
bpoint.Set (sel.PNum(j));
INDEX_2 edge;
edge.I1() = sel.PNum(j);
edge.I2() = sel.PNum(j%3+1);
edge.Sort();
bedge.Set (edgeht.Get (edge));
}
}
outfile << mesh.GetNE() << endl;
// write element ---> point
for (i = 1; i <= mesh.GetNE(); i++)
{
const Element & el = mesh.VolumeElement(i);
outfile.width(8);
outfile << i;
for (j = 1; j <= 4; j++)
{
outfile.width(8);
outfile << el.PNum(j);
}
outfile << endl;
}
// write element ---> edge
for (i = 1; i <= mesh.GetNE(); i++)
{
const Element & el = mesh.VolumeElement (i);
INDEX_2 edge;
for (j = 1; j <= 6; j++)
{
edge.I1() = el.PNum (eledges[j-1][0]);
edge.I2() = el.PNum (eledges[j-1][1]);
edge.Sort();
outfile.width(8);
outfile << edgeht.Get (edge);
}
outfile << endl;
}
// write points
outfile << mesh.GetNP() << endl;
outfile.precision (6);
for (i = 1; i <= mesh.GetNP(); i++)
{
const Point3d & p = mesh.Point(i);
for (j = 1; j <= 3; j++)
{
outfile.width(8);
outfile << p.X(j);
}
outfile << " "
<< (bpoint.Test(i) ? "1" : 0) << endl;
}
// write edges
outfile << edgelist.Size() << endl;
for (i = 1; i <= edgelist.Size(); i++)
{
outfile.width(8);
outfile << edgelist.Get(i).I1();
outfile.width(8);
outfile << edgelist.Get(i).I2();
outfile << " "
<< (bedge.Test(i) ? "1" : "0") << endl;
}
}
}
const T & GetData (int pos) { return cont.Get(pos); }
