本文整理汇总了C++中Boundary::SetVisibility方法的典型用法代码示例。如果您正苦于以下问题：C++ Boundary::SetVisibility方法的具体用法？C++ Boundary::SetVisibility怎么用？C++ Boundary::SetVisibility使用的例子？那么, 这里精选的方法代码示例或许可以为您提供帮助。您也可以进一步了解该方法所在类Boundary的用法示例。
在下文中一共展示了Boundary::SetVisibility方法的3个代码示例，这些例子默认根据受欢迎程度排序。您可以为喜欢或者感觉有用的代码点赞，您的评价将有助于系统推荐出更棒的C++代码示例。
示例1: Build_Geom
//__________________________________________________________________________
Bool_t Build_Geom(const TGeoManager* geoManager)
{
// -------------------------------------
// *** BUILDING GEOMETRY
// -------------------------------------
cout << "--------------------------------" << endl;
cout << "Building Geometry" << endl;
cout << "--------------------------------" << endl;
// Materials - Define the materials used.
// Leave the neutron properties to be defined on a run-by-run basis
TGeoMedium* beryllium = geoManager->GetMedium("Beryllium");
TGeoMedium* blackhole = geoManager->GetMedium("BlackHole");
TGeoMedium* heliumII = geoManager->GetMedium("HeliumII");
// -------------------------------------
// -- Making Top Volume
Box* topShape = new Box("Top",topX,topY,topZ);
BlackHole* top = new BlackHole("Top", topShape, blackhole);
geoManager->SetTopVolume(top);
top->SetVisibility(kFALSE);
// -- Make the boundary volume in which all the others sit
// -- This is what we will be reflecting off all the time
Double_t surfaceRoughness = 0.05;
Box* chamberShape = new Box("Chamber",chamberX,chamberY,chamberZ);
Boundary* chamber = new Boundary("Chamber", chamberShape, beryllium, surfaceRoughness);
chamber->SetLineColor(kOrange-7);
chamber->SetLineWidth(1);
chamber->SetVisibility(kFALSE);
chamber->SetTransparency(80);
// Add to geom
top->AddNode(chamber,1);
// HV Cell
Tube *hvCellShape = new Tube("HVShape", hvCellRMin, hvCellRMax, hvCellHalfZ);
TrackingVolume* hvCell = new TrackingVolume("HVCell", hvCellShape, heliumII);
hvCell->SetLineColor(kYellow-8);
hvCell->SetLineWidth(1);
hvCell->SetVisibility(kTRUE);
hvCell->SetTransparency(20);
TGeoRotation hvCellRot("HVCellRot", hvCellPhi, hvCellTheta, hvCellPsi);
TGeoTranslation hvCellTra("HVCellTra", 0., 0., 0.);
TGeoCombiTrans hvCellCom(hvCellTra,hvCellRot);
TGeoHMatrix hvCellMat = hvCellCom;
hvCellMat.SetName("HVCellMat");
chamber->AddNode(hvCell, 1, new TGeoHMatrix(hvCellMat));
// -------------------------------------
// -- Close Geometry
geoManager->CloseGeometry();
// -------------------------------------
// -- Write out geometry to file
const char *fileName = "$(UCN_GEOM)/ramseycell_geom.root";
cerr << "Simulation Geometry Built... Writing to file: " << fileName << endl;
geoManager->Export(fileName);
// -------------------------------------
// *** BUILDING MAGNETIC FIELDS
// -------------------------------------
cout << "--------------------------------" << endl;
cout << "Initialising Magnetic fields" << endl;
cout << "--------------------------------" << endl;
// BuildUniformField(hvCellMat);
BuildFieldMap(hvCellMat);
cout << "--------------------------------" << endl;
// -------------------------------------
return kTRUE;
}示例2: Build_Geom
//__________________________________________________________________________
Bool_t Build_Geom(const TGeoManager* geoManager)
{
// -------------------------------------
// BUILDING GEOMETRY
// Materials - Define the materials used. Leave the neutron properties to be defined on a run-by-run basis
Materials::BuildMaterials(geoManager);
TGeoMedium* beryllium = geoManager->GetMedium("Beryllium");
TGeoMedium* copper = geoManager->GetMedium("Copper");
TGeoMedium* aluminium = geoManager->GetMedium("Aluminium");
TGeoMedium* blackhole = geoManager->GetMedium("BlackHole");
TGeoMedium* heliumII = geoManager->GetMedium("HeliumII");
// -------------------------------------
// -- Making Top Volume
Box* topShape = new Box("Top",100,100,100);
BlackHole* top = new BlackHole("Top", topShape, blackhole);
geoManager->SetTopVolume(top);
top->SetVisibility(kFALSE);
// -- Make the boundary volume in which all the others sit
// -- This is what we will be reflecting off all the time
Double_t surfaceRoughness = 0.1;
Box* chamberShape = new Box("Chamber",10,10,10);
Boundary* chamber = new Boundary("Chamber", chamberShape, beryllium, surfaceRoughness);
chamber->SetLineColor(kOrange-7);
chamber->SetLineWidth(1);
chamber->SetVisibility(kFALSE);
chamber->SetTransparency(80);
// Add to geom
top->AddNode(chamber,1);
// -------------------------------------
// -- Vertical Tube
// -- Make a SourceTube Segment
Tube *tubeShape = new Tube("Tube", 0.0, 0.235, 0.06);
TrackingVolume* tube = new TrackingVolume("Tube", tubeShape, heliumII);
tube->SetLineColor(kAzure-4);
tube->SetLineWidth(1);
tube->SetVisibility(kTRUE);
tube->SetTransparency(20);
// -- Define matrix
TGeoRotation rot("Rot",0,0,0); // phi, theta, psi
TGeoTranslation tra("Tra",0.,0.,0.); // x, y, z
TGeoCombiTrans com(tra,rot);
TGeoHMatrix mat = com;
Char_t matrixName[20];
sprintf(matrixName, "TubeMatrix");
mat.SetName(matrixName);
chamber->AddNode(tube, 1, new TGeoHMatrix(mat));
// -------------------------------------
// -- Close Geometry
geoManager->CloseGeometry();
// -------------------------------------
// -- Write out geometry to file
const char *fileName = "$(UCN_GEOM)/vertical_tube.root";
cerr << "Simulation Geometry Built... Writing to file: " << fileName << endl;
geoManager->Export(fileName);
return kTRUE;
}示例3: Build_Geom
//__________________________________________________________________________
Bool_t Build_Geom(const TGeoManager* geoManager)
{
// -------------------------------------
// BUILDING GEOMETRY
// Materials - Define the materials used. Leave the neutron properties to be defined on a run-by-run basis
Materials::BuildMaterials(geoManager);
TGeoMedium* beryllium = geoManager->GetMedium("Beryllium");
TGeoMedium* blackhole = geoManager->GetMedium("BlackHole");
TGeoMedium* heliumII = geoManager->GetMedium("HeliumII");
TGeoMedium* lithium6 = geoManager->GetMedium("Lithium6");
// -------------------------------------
// -- Making Top Volume
Box* topShape = new Box("Top",100,100,100);
BlackHole* top = new BlackHole("Top", topShape, blackhole);
geoManager->SetTopVolume(top);
top->SetVisibility(kFALSE);
// -- Make the boundary volume in which all the others sit
// -- This is what we will be reflecting off all the time
Double_t surfaceRoughness = 0.1;
Box* chamberShape = new Box("Chamber",10,10,10);
Boundary* chamber = new Boundary("Chamber", chamberShape, beryllium, surfaceRoughness);
chamber->SetLineColor(kOrange-7);
chamber->SetLineWidth(1);
chamber->SetVisibility(kFALSE);
chamber->SetTransparency(80);
// Add to geom
top->AddNode(chamber,1);
// -------------------------------------
// -- DETECTOR VALVE
// DetectorValveVol
Box *detectorValveVolShape = new Box("DetectorValveVol", detectorValveVolHalfX, detectorValveVolHalfY, detectorValveVolHalfZ);
TrackingVolume* detectorValveVol = new TrackingVolume("DetectorValveVol", detectorValveVolShape, heliumII);
detectorValveVol->SetLineColor(kRed+3);
detectorValveVol->SetLineWidth(1);
detectorValveVol->SetVisibility(kTRUE);
detectorValveVol->SetTransparency(0);
// -- Define the Valve volume back
TGeoRotation detectorValveVolRot("DetectorValveVolXPosRot",detectorValveVolPhi,detectorValveVolTheta,detectorValveVolPsi); // phi, theta, psi
TGeoTranslation detectorValveVolTra("DetectorValveVolXPosTra", detectorValveVolXPos, detectorValveVolYPos, detectorValveVolZPos);
TGeoCombiTrans detectorValveVolCom(detectorValveVolTra,detectorValveVolRot);
TGeoHMatrix detectorValveVolMat = detectorValveVolCom;
chamber->AddNode(detectorValveVol, 1, new TGeoHMatrix(detectorValveVolMat));
Double_t detectorValveVolCapacity = detectorValveVolShape->Capacity();
// -------------------------------------
// -- GUIDE SECTION
// Guide section has *probably* 4 segments.
Box *guideSegShape = new Box("GuideSeg", guideSegHalfX, guideSegHalfY, guideSegHalfZ);
TrackingVolume* guideSeg = new TrackingVolume("GuideSeg", guideSegShape, heliumII);
guideSeg->SetLineColor(kCyan-8);
guideSeg->SetLineWidth(1);
guideSeg->SetVisibility(kTRUE);
guideSeg->SetTransparency(20);
Double_t guideSegXPos = guideXPos;
Double_t guideCapacity = 0.0;
for (Int_t segNum = 1; segNum <= 3; segNum++) {
// Define Guide Seg matrix
TGeoRotation segmentRot("SegmentRot",guidePhi,guideTheta,0); // phi, theta, psi
TGeoTranslation segmentTra("SegmentTra",guideSegXPos, guideYPos, guideZPos);
TGeoCombiTrans segmentCom(segmentTra,segmentRot);
TGeoHMatrix segmentMat = segmentCom;
Char_t sourceMatrixName[20];
sprintf(sourceMatrixName, "GuideSegMatrix%d", segNum);
segmentMat.SetName(sourceMatrixName);
chamber->AddNode(guideSeg, segNum, new TGeoHMatrix(segmentMat));
// Shift next segment along by length of segment
guideSegXPos = guideSegXPos - 2.0*guideSegHalfZ;
// Calculate guide's volume
guideCapacity += guideSegShape->Capacity();
}
// -------------------------------------
// -- Close Geometry
geoManager->CloseGeometry();
// -------------------------------------
// -- Write out geometry to file
const char *fileName = "$(UCN_GEOM)/guide_section_geom.root";
cout << "Simulation Geometry Built... Writing to file: " << fileName << endl;
geoManager->Export(fileName);
double* origin = detectorValveVolMat->GetTranslation();
double start_boundary[3] = {detectorValveVolShape->GetDX(),detectorValveVolShape->GetDY(),detectorValveVolShape->GetDZ()};
cout << "Valve Vol Origin: " << origin[0] << "\t" << origin[1] << "\t" << origin[2] << endl;
cout << "Valve Vol Boundary +/-: " << start_boundary[0] << "\t" << start_boundary[1] << "\t" << start_boundary[2] << endl;
TGeoHMatrix* end_matrix = dynamic_cast<TGeoHMatrix*>(geoManager->GetListOfMatrices()->FindObject("GuideSegMatrix3"));
double* end_origin = end_matrix->GetTranslation();
double end_boundary[3] = {guideSegShape->GetDX(),guideSegShape->GetDY(),guideSegShape->GetDZ()};
cout << "Pre-Volume Origin: " << end_origin[0] << "\t" << end_origin[1] << "\t" << end_origin[2] << endl;
cout << "Pre-Volume Boundary +/-: " << end_boundary[0] << "\t" << end_boundary[1] << "\t" << end_boundary[2] << endl;
BuildFieldMap(detectorValveVolMat);
//.........这里部分代码省略.........