void GetCoordInventory()
{
std::map<std::wstring, AcGePoint3d> m_3dPoints;
u_int startIndex = 1;
ads_real textHeightResult = 1;
ads_real pointSizeResult = 0.25;
ACHAR stringResult[2];
ACHAR prompt[100];
AcDbObjectId pObj;
selectObject(pObj);
if (pObj)
{
acedInitGet(RSG_NONULL | RSG_NOZERO | RSG_NONEG, NULL);
acedGetReal(_T("\nIntroduceti inaltime text: "), &textHeightResult);
acedGetReal(_T("\nIntroduceti dimensiunea punctului: "), &pointSizeResult);
extractVertexCoords(pObj, m_3dPoints);
if (m_3dPoints.size() > 0)
{
if (insertPoints(m_3dPoints, 32, pointSizeResult, textHeightResult))
{
acedInitGet(RSG_NONULL, _T("Y N"));
acedGetKword(_T("\nInseram tabel de coordonate? [Yes No]:"), stringResult);
if (wcscmp(stringResult, _T("N")))
generateInventarTable(m_3dPoints,textHeightResult);
//swprintf(prompt, _T("\nExportam fisier de coordonate? [Y/N]<stringResult=%s>: "), stringResult);
acedInitGet(RSG_NONULL, _T("Y N"));
acedGetKword(_T("\nExportam fisier de coordonate? [Yes No]: " ), stringResult);
if (wcscmp(stringResult, _T("N")))
{
struct resbuf* result = NULL;
if (acedGetFileNavDialog(_T("Save coordonates file"), NULL, _T("csv;txt"), _T("Save Dialog"), 1, &result) != RTERROR)
{
ExportClass* csvExport = new ExportClass(result->resval.rstring);
csvExport->exportInventarCSV(m_3dPoints, startIndex);
//*****Release memory area*****/
acutRelRb(result);
delete csvExport;
}
}
}
}
}
else
{
acutPrintf(_T("\nError nici un obiect selectat!"));
}
}
void Foam::CV2D::insertPoints(const fileName& pointFileName)
{
IFstream pointsFile(pointFileName);
if (pointsFile.good())
{
insertPoints
(
point2DField(pointsFile),
0.5*meshControls().minCellSize2()
);
}
else
{
FatalErrorInFunction
<< "Could not open pointsFile " << pointFileName
<< exit(FatalError);
}
}
bool convertMeshToPCLPointCloud(const osg::Geometry* geometry, pcl::PointCloud<PointT>& pointcloud) {
insertPoints(geometry, pointcloud);
return !pointcloud.empty();
}
void Mesh::processMesh()
{
_totalNumberOfIntervalsX = 0;
_totalNumberOfIntervalsY = 0;
_totalNumberOfIntervalsZ = 0;
for (auto i = 0; i < _emountOfIntervalsX.size(); i++)
{
_totalNumberOfIntervalsX += _emountOfIntervalsX[i];
}
for (auto i = 0; i < _emountOfIntervalsY.size(); i++)
{
_totalNumberOfIntervalsY += _emountOfIntervalsY[i];
}
for (auto i = 0; i < _emountOfIntervalsZ.size(); i++)
{
_totalNumberOfIntervalsZ += _emountOfIntervalsZ[i];
}
x.resize((_totalNumberOfIntervalsX + 1)*(_totalNumberOfIntervalsY + 1));
y.resize((_totalNumberOfIntervalsX + 1)*(_totalNumberOfIntervalsY + 1));
z.resize(_totalNumberOfIntervalsZ + 1);
for (auto i = 0; i < y.size(); i++)
{
y[i] = -1;
}
std::vector<double> resultX;
std::vector<double> resultY;
std::vector<double> squareCoordinatesX;
std::vector<double> squareCoordinatesY;
squareCoordinatesX.resize(4);
squareCoordinatesY.resize(4);
int sizeOfResult;
int startPosition = 0;
for (auto i = 0; i < _emountOfReferenceNodesY - 1; i++)
{
for (auto j = 0; j < _emountOfReferenceNodesX - 1; j++)
{
sizeOfResult = (_emountOfIntervalsX[j] + 1)*(_emountOfIntervalsY[i] + 1);
resultX.resize(sizeOfResult);
resultY.resize(sizeOfResult);
squareCoordinatesX[0] = _referenceNodesX[j + i * (_emountOfReferenceNodesX)];
squareCoordinatesX[1] = _referenceNodesX[j + 1 + i * (_emountOfReferenceNodesX)];
squareCoordinatesX[2] = _referenceNodesX[j + (i + 1) * (_emountOfReferenceNodesX)];
squareCoordinatesX[3] = _referenceNodesX[j + 1 + (i + 1) * (_emountOfReferenceNodesX)];
squareCoordinatesY[0] = _referenceNodesY[j + i * (_emountOfReferenceNodesX)];
squareCoordinatesY[1] = _referenceNodesY[j + 1 + i * (_emountOfReferenceNodesX)];
squareCoordinatesY[2] = _referenceNodesY[j + (i + 1) * (_emountOfReferenceNodesX)];
squareCoordinatesY[3] = _referenceNodesY[j + 1 + (i + 1) * (_emountOfReferenceNodesX)];
processSquare(squareCoordinatesX, squareCoordinatesY,
_coefficientOfExpansionX[j],
_coefficientOfExpansionY[i],
_emountOfIntervalsX[j],
_emountOfIntervalsY[i],
resultX,
resultY);
insertPoints(j,
i,
_emountOfIntervalsX[j],
_emountOfIntervalsY[i],
resultX,
resultY,
x,
y);
}
// Заполним последнюю ячейку для данного слоя по y.
// Решил не экономить на этом.
/*for (auto j = 0; j < _emountOfIntervalsY[i] + 1; j++)
{
x[startPosition + j*(_totalNumberOfIntervalsX + 1) + _totalNumberOfIntervalsX] =
_referenceNodesX[(i + j)*(_emountOfReferenceNodesX)+_emountOfReferenceNodesX - 1];
y[startPosition + j*(_totalNumberOfIntervalsX + 1) + _totalNumberOfIntervalsX] =
_referenceNodesY[(i + j)*(_emountOfReferenceNodesX)+_emountOfReferenceNodesX - 1];
}*/
startPosition += _emountOfIntervalsY[i] * (_totalNumberOfIntervalsX + 1);
}
std::vector<double> pointsToInsert;
int startPosition1 = 0;
for (auto i = 0; i < _emountOfLayersZ - 1; i++)
{
pointsToInsert = processInterval(_layersZ[i],
_layersZ[i + 1],
_coefficientOfExpansionZ[i],
_emountOfIntervalsZ[i]
);
for (auto j = 0; j < pointsToInsert.size() - 1; j++)
{
z[startPosition1 + j] = pointsToInsert[j];
}
startPosition1 += _emountOfIntervalsZ[i];
}
z[z.size() - 1] = _layersZ[_layersZ.size() - 1];
setMaterials();
setIndexesOfFiniteElementNodes();
getListOfEdges();
getListOfFaces();
}
