#include <BesEmcConstruction.hh>

Inheritance diagram for BesEmcConstruction:

Public Member Functions
	BesEmcConstruction ()

	~BesEmcConstruction ()

void	SetVerboseLevel (G4int val)

void	SetCrystalMaterial (G4String)

void	SetCasingMaterial (G4String)

void	SetCasingThickness (G4ThreeVector)

void	SetBSCRmin (G4double)

void	SetBSCNbPhi (G4int)

void	SetBSCNbTheta (G4int)

void	SetStartIDTheta (G4int)

void	SetBSCCrystalLength (G4double)

void	SetBSCYFront0 (G4double)

void	SetBSCYFront (G4double)

void	SetBSCPosition0 (G4double)

void	SetBSCPosition1 (G4double)

void	SetMagField (G4double)

void	Construct (G4LogicalVolume *)

void	UpdateGeometry ()

void	ThreeVectorTrans (G4ThreeVector fPnt[8], double x[8], double y[8], double z[8])

void	TransformToArb8 (const G4ThreeVector fPnt[8], G4ThreeVector newfPnt[8], G4ThreeVector &center, G4ThreeVector &rotAngle)

Hep3Vector	RotAngleFromNewZ (Hep3Vector newZ)

void	PrintEMCParameters ()

G4int	GetVerboseLevel ()

G4double	GetMagField ()

G4int	GetStartIDTheta ()

G4Material *	GetCrystalMaterial ()

G4Material *	GetCasingMaterial ()

const G4VPhysicalVolume *	GetEMC ()

const G4VPhysicalVolume *	GetBSCPhi ()

const G4VPhysicalVolume *	GetBSCTheta ()

const G4VPhysicalVolume *	GetBSCCrystal ()

const G4VPVParameterisation *	GetCrystalParam ()

void	ConstructSPFrame (G4LogicalVolume , BesEmcGeometry )

void	ConstructEndGeometry (G4LogicalVolume *)

void	GetLogicalVolume ()

void	SetVisAndSD ()

G4int	ComputeEndCopyNb (G4int)

Public Member Functions inherited from BesSubdetector
	BesSubdetector ()

virtual	~BesSubdetector ()

G4LogicalVolume *	FindLogicalVolume (const G4String &vn)

Static Public Member Functions
static BesEmcConstruction *	GetBesEmcConstruction ()

Additional Inherited Members
Protected Attributes inherited from BesSubdetector
SAXProcessor	m_sxp

ProcessingConfigurator	m_config

Detailed Description

Definition at line 52 of file BesEmcConstruction.hh.

Constructor & Destructor Documentation

◆ BesEmcConstruction()

BesEmcConstruction::BesEmcConstruction ( )

Definition at line 71 of file BesEmcConstruction.cc.

  :verboseLevel(0),
   solidEMC(0),logicEMC(0),physiEMC(0),logicBSCWorld(0),
   solidBSCPhi(0),logicBSCPhi(0),physiBSCPhi(0),
   solidBSCTheta(0),logicBSCTheta(0),physiBSCTheta(0),
   solidBSCCrystal(0),logicBSCCrystal(0),physiBSCCrystal(0),
   magField(0),detectorMessenger(0),besEMCSD(0),crystalParam(0),
   logicEnd(0),logicEndPhi(0),logicEndCasing(0),logicEndCrystal(0),
   logicRear(0),logicRearCasing(0),logicOrgGlass(0),logicPD(0),
   logicAlPlate(0),logicPreAmpBox(0),logicAirInPABox(0),
   logicHangingPlate(0),logicOCGirder(0),logicCable(0),logicWaterPipe(0),
   logicSupportBar(0),logicSupportBar1(0),logicEndRing(0),logicGear(0),
   logicTaperRing1(0),logicTaperRing2(0),logicTaperRing3(0)
{
  if(fBesEmcConstruction)
    { G4cout<<"BesEmcConstruction constructed twice."<<G4endl; exit(-1);
    }
  fBesEmcConstruction=this;
  //for debug
  //  G4Exception("BesEmcConstruction::BesEmcConstruction() starting........");
  startID           = 1;
  phiNbCrystals     = 0;
  thetaNbCrystals   = 0;
  besEMCGeometry = new BesEmcGeometry();
  emcEnd = new BesEmcEndGeometry();
}

◆ ~BesEmcConstruction()

BesEmcConstruction::~BesEmcConstruction ( )

Definition at line 98 of file BesEmcConstruction.cc.

{
  if(detectorMessenger) delete detectorMessenger;
  if(crystalParam) delete crystalParam;
  if(besEMCGeometry) delete besEMCGeometry;
  if(emcEnd) delete emcEnd;
  
  BesEmcParameter::Kill();
}

Member Function Documentation

◆ ComputeEndCopyNb()

G4int BesEmcConstruction::ComputeEndCopyNb ( G4int num )

Definition at line 1242 of file BesEmcConstruction.cc.

{
  G4int copyNb;
  switch(num){
    case 30:
      copyNb = 5;
      break;
    case 31:
      copyNb = 6;
      break;
    case 32:
      copyNb = 14;
      break;
    case 33:
      copyNb = 15;
      break;
    case 34:
      copyNb = 16;
      break;
    default:
      copyNb = num;
      break;
  }
  return copyNb;
}

◆ Construct()

void BesEmcConstruction::Construct ( G4LogicalVolume * logicBes )

virtual

Implements BesSubdetector.

Definition at line 108 of file BesEmcConstruction.cc.

{
  gErrorIgnoreLevel = kFatal;
  besEMCGeometry->ComputeEMCParameters();
  detectorMessenger = new BesEmcDetectorMessenger(this,besEMCGeometry);
  emcEnd->ComputeParameters();
 
  G4SDManager* SDman = G4SDManager::GetSDMpointer();
  if (!besEMCSD) {
    besEMCSD = new BesEmcSD("CalorSD",this,besEMCGeometry);
    SDman->AddNewDetector( besEMCSD );
  }
 
  // Construction
  G4cout<<"--------ReadBoostRoot::GetEmc()="<<ReadBoostRoot::GetEmc()<<G4endl;
  if(ReadBoostRoot::GetEmc()==2)
  {
    logicEMC = EmcG4Geo::Instance()->GetTopVolume();
 
    if(logicEMC){
      physiEMC = new G4PVPlacement(0,
          G4ThreeVector(0.0 ,0.0 ,0.0),
          logicEMC, "physicalEMC",logicBes, false, 0, CHECKLV0);
      G4cout<<"logicEmc:  ===  "<<logicEMC<<"  physiEmc "<<physiEMC<<G4endl;
 
      GetLogicalVolume();
      SetVisAndSD();
    }
  }
  else {
    //for debug
    //  G4Exception("BesEmcConstruction::Construct() starting............");
    //
    DefineMaterials();
    phiNbCrystals     = (*besEMCGeometry).BSCNbPhi;
    thetaNbCrystals   = (*besEMCGeometry).BSCNbTheta*2;
 
    G4double da=0.001*deg;  //delta angle to avoid overlap
    
    //
    //BSC
    //
    solidBSC = new G4Tubs("solidBSC",
      (*besEMCGeometry).TaperRingRmin1,
      (*besEMCGeometry).BSCRmax+(*besEMCGeometry).SPBarThickness+(*besEMCGeometry).SPBarThickness1+2.1*mm,   //radius from 942mm to 940 mm
      (*besEMCGeometry).BSCDz+(*besEMCGeometry).TaperRingThickness3+(*besEMCGeometry).EndRingDz,
            0.*deg,
            360.*deg);
 
    solidESC = new G4Cons("solidESC",(*emcEnd).WorldRmin1,(*emcEnd).WorldRmax1,
        (*emcEnd).WorldRmin2,(*emcEnd).WorldRmax2,
        (*emcEnd).WorldDz/2,0.*deg,360.*deg);
 
    solidEMC = new G4UnionSolid("solidEMC0",
        solidBSC,
        solidESC,
        0,
        G4ThreeVector(0,0,(*emcEnd).WorldZPosition));
 
    G4RotationMatrix *rotateESC = new G4RotationMatrix();
    rotateESC->rotateY(180.*deg);
    
    solidEMC = new G4UnionSolid("solidEMC",
        solidEMC,
        solidESC,
        rotateESC,
        G4ThreeVector(0,0,-(*emcEnd).WorldZPosition));
    
    logicEMC = new G4LogicalVolume(solidEMC,
             G4Material::GetMaterial("Air"),
             "logicalEMC");
    
    physiEMC = new G4PVPlacement(0,
        G4ThreeVector(),
        logicEMC,
        "physicalEMC",
        logicBes,
        false,
        0,CHECKLV0);
 
    solidBSCWorld = new G4SubtractionSolid("solidBSCWorld0",
          solidBSC,
          solidESC,
          0,
          G4ThreeVector(0,0,(*emcEnd).WorldZPosition));
 
    solidBSCWorld = new G4SubtractionSolid("solidBSCWorld",
        solidBSCWorld,
        solidESC,
        rotateESC,
        G4ThreeVector(0,0,-(*emcEnd).WorldZPosition));
 
    logicBSCWorld = new G4LogicalVolume(solidBSCWorld,
        G4Material::GetMaterial("Air"),
        "logicalBSCWorld");
 
    G4RotationMatrix *rotBSC = new G4RotationMatrix();
    rotBSC->rotateY(180.*deg);
    physiBSCWorld = new G4PVPlacement(rotBSC,
        G4ThreeVector(),
        logicBSCWorld,
        "physicalBSCWorld",
        logicEMC,
        false,
        0,CHECKLV1);
    
    G4RotationMatrix *rotateMatrix[200];
    G4double oOp,ox,oy,oz; 
    G4double delta = 0*deg;
    G4ThreeVector axis = G4ThreeVector(0,0,0);
    oOp=(*besEMCGeometry).BSCRmin/sin(0.5*(*besEMCGeometry).BSCPhiDphi+90*deg)
      *sin((*besEMCGeometry).BSCAngleRotat);
    G4double ll=(*besEMCGeometry).BSCCryLength;
    G4double rr=(*besEMCGeometry).BSCRmin;
    G4double oj=sqrt(ll*ll+rr*rr-2*ll*rr*cos(180.*deg-(*besEMCGeometry).BSCAngleRotat));
    G4double oij=90.*deg-(*besEMCGeometry).BSCPhiDphi/2.-(*besEMCGeometry).BSCAngleRotat;
    G4double doj=asin(sin(180.*deg-(*besEMCGeometry).BSCAngleRotat)/oj*ll);
    G4double ioj=(*besEMCGeometry).BSCPhiDphi/2.+doj;
    G4double ij=oj/sin(oij)*sin(ioj);
    G4double dOp=rr/sin(90.*deg-(*besEMCGeometry).BSCPhiDphi/2.)
      *sin(90.*deg+(*besEMCGeometry).BSCPhiDphi/2.-(*besEMCGeometry).BSCAngleRotat);
    G4double cOp=rr/sin(90.*deg+(*besEMCGeometry).BSCPhiDphi/2.)
      *sin(90.*deg-(*besEMCGeometry).BSCPhiDphi/2.-(*besEMCGeometry).BSCAngleRotat);
    G4double ch=(dOp+ll)/cos((*besEMCGeometry).BSCPhiDphi)-cOp;
    G4double hi=(dOp+ll)*tan((*besEMCGeometry).BSCPhiDphi)-ij;
    G4double oh=sqrt(ch*ch+rr*rr-2*ch*rr*cos(180*deg-(*besEMCGeometry).BSCAngleRotat));
    G4double hoi=asin(sin(180*deg-oij)/oh*hi);
    G4double dok=asin(sin(180*deg-(*besEMCGeometry).BSCAngleRotat)/oh*ch);
    if(verboseLevel>3)
      G4cout << "oj=" <<oj/cm<<G4endl
        << "oij="<<oij/deg<<G4endl
        << "doj="<<doj/deg<<G4endl
        << "ioj="<<ioj/deg<<G4endl
        << "ij="<<ij/cm<<G4endl
        << "dOp="<<dOp/cm<<G4endl
        << "cOp="<<cOp/cm<<G4endl
        << "ch="<<ch/cm<<G4endl
        << "hi="<<hi/cm<<G4endl
        << "oh="<<oh/cm<<G4endl
        << "hoi="<<hoi/deg<<G4endl
        << "dok="<<dok/deg<<G4endl;
 
    // Phi Cell
    G4double cmo = asin(sin(180*degree-(*besEMCGeometry).BSCAngleRotat)/(*besEMCGeometry).BSCRmax2*dOp);
    G4double cm  = (*besEMCGeometry).BSCRmax2/sin(180*degree-(*besEMCGeometry).BSCAngleRotat)*sin((*besEMCGeometry).BSCAngleRotat-cmo);
    G4ThreeVector Pout(dOp+cm*cos((*besEMCGeometry).BSCAngleRotat),-cm*sin((*besEMCGeometry).BSCAngleRotat),(*besEMCGeometry).BSCDz);
 
    G4double rTaperRingOuter1 = (*besEMCGeometry).TaperRingRmin1+(*besEMCGeometry).TaperRingThickness1;
    G4double rTaperRingOuter2 = (*besEMCGeometry).TaperRingRmin2+(*besEMCGeometry).TaperRingDr;
    G4double zTaperRing1 = (*besEMCGeometry).BSCDz+(*besEMCGeometry).TaperRingThickness3-(*besEMCGeometry).TaperRingDz;
    G4double zTaperRing2 = (*besEMCGeometry).BSCDz+(*besEMCGeometry).TaperRingThickness3;
 
    G4RotationMatrix* rotIntersection = new G4RotationMatrix();
    rotIntersection->rotateZ(-(*besEMCGeometry).BSCAngleRotat-(*besEMCGeometry).BSCPhiDphi/2.-hoi);
    G4ThreeVector P(oOp*cos(-90.*deg+(*besEMCGeometry).BSCAngleRotat+hoi), oOp*sin(-90.*deg+(*besEMCGeometry).BSCAngleRotat+hoi), 0);
    G4AffineTransform Td(rotIntersection, P);
    G4ThreeVector md = Td.Inverse().TransformPoint(G4ThreeVector(0,0,0));
    G4ThreeVector vd = Td.Inverse().TransformPoint(Pout);
 
    G4double zPlane0[4]={-(*besEMCGeometry).BSCDz,-zTaperRing1,zTaperRing1,(*besEMCGeometry).BSCDz};
    G4double rInner0[4]={vd.perp(),cOp,cOp,vd.perp()};
    G4double rOuter0[4]={(*besEMCGeometry).BSCPhiRmax,(*besEMCGeometry).BSCPhiRmax,(*besEMCGeometry).BSCPhiRmax,(*besEMCGeometry).BSCPhiRmax};
 
    G4double zPlane1[4]={-zTaperRing2,-zTaperRing1,zTaperRing1,zTaperRing2};
    G4double rInner1[4]={rTaperRingOuter2,rTaperRingOuter1,rTaperRingOuter1,rTaperRingOuter2};
    G4double rOuter1[4]={(*besEMCGeometry).BSCRmax,(*besEMCGeometry).BSCRmax,(*besEMCGeometry).BSCRmax,(*besEMCGeometry).BSCRmax};
    
    G4VSolid* solidBSCPhi1 = new G4Polycone("solidBSCPhi1",0,360*deg,4,zPlane1,rInner1,rOuter1);
    G4VSolid* solidBSCPhi0 = new G4Polyhedra("solidBSCPhi0",360.*deg-(*besEMCGeometry).BSCPhiDphi,(*besEMCGeometry).BSCPhiDphi,(*besEMCGeometry).BSCNbPhi/2,4,zPlane0,rInner0,rOuter0);
    G4IntersectionSolid* solidBSCPhi = new G4IntersectionSolid("solidBSCPhi", solidBSCPhi0, solidBSCPhi1, 0, md);
    
    logicBSCPhi = new G4LogicalVolume(solidBSCPhi,
        G4Material::GetMaterial("Air"),
        "logicalBSCPhi");
 
    G4int i;
    for(G4int j=0;j<(*besEMCGeometry).BSCNbPhi;j++)  //=============
    {
      if(j<(*besEMCGeometry).BSCNbPhi/2) {  //0~59
        i=(*besEMCGeometry).BSCNbPhi/2-j-1;
      } else {  //60~119
        i=(*besEMCGeometry).BSCNbPhi*3/2-j-1;
      }
      rotateMatrix[i] = new G4RotationMatrix();
      rotateMatrix[i]->rotateZ(-i*(*besEMCGeometry).BSCPhiDphi
          -(*besEMCGeometry).BSCAngleRotat
          -(*besEMCGeometry).BSCPhiDphi/2.
          -hoi);
      rotateMatrix[i]->getAngleAxis(delta, axis);
      //G4cout << "The axis of crystals in the world system is: "
      //   << delta/deg << "(deg)(delta) "
      //<< axis  << "(Z axis)"<< G4endl;
      ox=oOp*cos(-90.*deg+(*besEMCGeometry).BSCAngleRotat+hoi
          +i*(*besEMCGeometry).BSCPhiDphi);
      oy=oOp*sin(-90.*deg+(*besEMCGeometry).BSCAngleRotat+hoi
          +i*(*besEMCGeometry).BSCPhiDphi);
      oz=0*cm;
 
      ostringstream strPhi;
      strPhi << "physicalBSCPhi"  << j;
 
      physiBSCPhi = new G4PVPlacement(rotateMatrix[i],
          G4ThreeVector(ox,oy,oz),
          logicBSCPhi,
          strPhi.str(),
          logicBSCWorld,
          false,
          j,CHECKLV2);
      //G4cout << G4ThreeVector(ox/cm,oy/cm,oz/cm) <<"(cm)" << G4endl
      //   << (-(*besEMCGeometry).BSCAngleRotat+(i-1)*(*besEMCGeometry).BSCPhiDphi)/deg <<"(degree)" << G4endl;
    }
 
    //
    //Crystals
    //
    G4double zHalfLength[50];
    G4double thetaAxis[50];
    G4double phiAxis[50];
    G4double yHalfLength1[50];
    G4double xHalfLength2[50];
    G4double xHalfLength1[50];
    G4double tanAlpha1[50];
    G4double yHalfLength2[50];
    G4double xHalfLength4[50];
    G4double xHalfLength3[50];
    G4double tanAlpha2[50];
    G4double xPosition[50];
    G4double yPosition[50];
    G4double zPosition[50];
    G4double thetaPosition[50];
    for(i=0;i<(*besEMCGeometry).BSCNbTheta;i++)
    {
      zHalfLength[i]  = (*besEMCGeometry).zHalfLength[i];
      thetaAxis[i]    = (*besEMCGeometry).thetaAxis[i];
      phiAxis[i]      = (*besEMCGeometry).phiAxis[i];
      yHalfLength1[i] = (*besEMCGeometry).yHalfLength1[i];
      xHalfLength2[i] = (*besEMCGeometry).xHalfLength2[i];
      xHalfLength1[i] = (*besEMCGeometry).xHalfLength1[i];
      tanAlpha1[i]    = (*besEMCGeometry).tanAlpha1[i];
      yHalfLength2[i] = (*besEMCGeometry).yHalfLength2[i];
      xHalfLength4[i] = (*besEMCGeometry).xHalfLength4[i];
      xHalfLength3[i] = (*besEMCGeometry).xHalfLength3[i];
      tanAlpha2[i]    = (*besEMCGeometry).tanAlpha2[i];
      xPosition[i]    = (*besEMCGeometry).xPosition[i];
      yPosition[i]    = (*besEMCGeometry).yPosition[i];
      zPosition[i]    = (*besEMCGeometry).zPosition[i];
      thetaPosition[i]= (*besEMCGeometry).thetaPosition[i];
      if(verboseLevel>4)    
        G4cout << "The sizes of the "<<i+1<<" crystal are:" << G4endl
          <<"zHalfLength ="<<zHalfLength[i]/cm<< "(cm)," << G4endl
          << "thetaAxis  ="<<thetaAxis[i]/deg << "(deg),"<< G4endl
          << "phiAxis    ="<< phiAxis[i]/deg  << "(deg),"<< G4endl
          << "yHalfLength1="<<yHalfLength1[i]/cm<<"(cm),"<< G4endl
          << "xHalfLength1="<<xHalfLength1[i]/cm<<"(cm),"<< G4endl
          << "xHalfLength2="<<xHalfLength2[i]/cm<<"(cm),"<< G4endl
          << "tanAlpha1   ="<< tanAlpha1[i]              << G4endl
          << "yHalfLength2="<<yHalfLength2[i]/cm<<"(cm),"<< G4endl
          << "xHalfLength3="<<xHalfLength3[i]/cm<<"(cm),"<< G4endl
          << "xHalfLength4="<<xHalfLength4[i]/cm<<"(cm),"<< G4endl
          << "tanAlpha2   =" << tanAlpha2[i]    << "."   << G4endl;
    }
    besEMCGeometry->ModifyForCasing();
 
    solidBSCCrystal = new G4Trap("solidCrystal",
        100*cm, 100*deg, 100*deg,
        100*cm, 100*cm,  100*cm,  100*deg,
        100*cm, 100*cm,  100*cm,  100*deg);
 
    logicBSCCrystal = new G4LogicalVolume(solidBSCCrystal,
        fCrystalMaterial,
        "logicalCrystal");
 
    crystalParam = new BesCrystalParameterisation
      (startID,
       thetaNbCrystals,
       (*besEMCGeometry).BSCNbTheta*2,
       besEMCGeometry,
       verboseLevel);
 
    //---------------------------------------------------------------------------------
    //rear substance
    solidRear = new G4Box("solidRearBox",
        (*besEMCGeometry).rearBoxLength/2,
        (*besEMCGeometry).rearBoxLength/2,
        (*besEMCGeometry).rearBoxDz/2);
 
    logicRear = new G4LogicalVolume(solidRear,
        G4Material::GetMaterial("Air"),
        "logicalRearBox");
 
    //organic glass
    solidOrgGlass = new G4Box("solidOrganicGlass",
        (*besEMCGeometry).orgGlassLengthX/2,
        (*besEMCGeometry).orgGlassLengthY/2,
        (*besEMCGeometry).orgGlassLengthZ/2);
 
    logicOrgGlass = new G4LogicalVolume(solidOrgGlass,
        organicGlass,
        "logicalOrganicGlass");
 
    physiOrgGlass = new G4PVPlacement(0,
        G4ThreeVector(0,0,-((*besEMCGeometry).rearBoxDz-(*besEMCGeometry).orgGlassLengthZ)/2),
        logicOrgGlass,
        "physicalOrganicGlass",
        logicRear,
        false,
        0,CHECKLV4);
 
    //casing
    solidCasingBox = new G4Box("solidCasingBox",
        (*besEMCGeometry).rearBoxLength/2,
        (*besEMCGeometry).rearBoxLength/2,
        (*besEMCGeometry).rearCasingThickness/2);
 
    solidAirHole = new G4Box("solidAirHole",
        (*besEMCGeometry).orgGlassLengthX/2,
        (*besEMCGeometry).orgGlassLengthY/2,
        (*besEMCGeometry).rearBoxDz/2);      //any value more than casing thickness
 
    solidRearCasing = new G4SubtractionSolid("solidRearCasing",
        solidCasingBox,
        solidAirHole,
        0,
        G4ThreeVector());
 
    logicRearCasing = new G4LogicalVolume(solidRearCasing,
        rearCasingMaterial,
        "logicalRearCasing");
 
    physiRearCasing = new G4PVPlacement(0,
        G4ThreeVector(0,0,-((*besEMCGeometry).rearBoxDz-(*besEMCGeometry).rearCasingThickness)/2),
        logicRearCasing,
        "physicalRearCasing",
        logicRear,
        false,
        0,CHECKLV4);
 
    //Al Plate
    solidAlBox = new G4Box("solidAlBox",
        (*besEMCGeometry).rearBoxLength/2,
        (*besEMCGeometry).rearBoxLength/2,
        (*besEMCGeometry).AlPlateDz/2);
 
    solidAlPlate = new G4SubtractionSolid("solidAlPlate",
        solidAlBox,
        solidAirHole,
        0,
        G4ThreeVector());
 
    logicAlPlate = new G4LogicalVolume(solidAlPlate,
        G4Material::GetMaterial("Aluminium"),
        "logicalAlPlate");
 
    physiAlPlate = new G4PVPlacement(0,
        G4ThreeVector(0,0,-((*besEMCGeometry).rearBoxDz/2
            -(*besEMCGeometry).rearCasingThickness
            -(*besEMCGeometry).AlPlateDz/2)),
        logicAlPlate,
        "physicalAlPlate",
        logicRear,
        false,
        0,CHECKLV4);
 
    //photodiode
    solidPD = new G4Box("solidPD",
        (*besEMCGeometry).PDLengthX,     //two PD
        (*besEMCGeometry).PDLengthY/2,
        (*besEMCGeometry).PDLengthZ/2);
 
    logicPD = new G4LogicalVolume(solidPD,
        G4Material::GetMaterial("M_Silicon"),
        "logicalPD");
 
    physiPD = new G4PVPlacement(0,
        G4ThreeVector(0,0,-((*besEMCGeometry).rearBoxDz/2
            -(*besEMCGeometry).orgGlassLengthZ
            -(*besEMCGeometry).PDLengthZ/2)),
        logicPD,
        "physicalPD",
        logicRear,
        false,
        0,CHECKLV4);
 
    //preamplifier box
    solidPreAmpBox = new G4Box("solidPreAmpBox",
        (*besEMCGeometry).rearBoxLength/2,
        (*besEMCGeometry).rearBoxLength/2,
        (*besEMCGeometry).PABoxDz/2);
 
    logicPreAmpBox = new G4LogicalVolume(solidPreAmpBox,
        G4Material::GetMaterial("Aluminium"),
        "logicalPreAmpBox");
 
    physiPreAmpBox = new G4PVPlacement(0,
        G4ThreeVector(0,0,-((*besEMCGeometry).rearBoxDz/2
            -(*besEMCGeometry).rearCasingThickness
            -(*besEMCGeometry).AlPlateDz
            -(*besEMCGeometry).PABoxDz/2)),
        logicPreAmpBox,
        "physicalPreAmpBox",
        logicRear,
        false,
        0,CHECKLV4);
 
    //air in preamplifier box
    solidAirInPABox = new G4Box("solidAirInPABox",
        (*besEMCGeometry).rearBoxLength/2-(*besEMCGeometry).PABoxThickness,
        (*besEMCGeometry).rearBoxLength/2-(*besEMCGeometry).PABoxThickness,
        (*besEMCGeometry).PABoxDz/2-(*besEMCGeometry).PABoxThickness);
 
    logicAirInPABox = new G4LogicalVolume(solidAirInPABox,
        G4Material::GetMaterial("Air"),
        "logicalAirInPABox");
 
    physiAirInPABox = new G4PVPlacement(0,
        G4ThreeVector(),
        logicAirInPABox,
        "physicalAirInPABox",
        logicPreAmpBox,
        false,
        0,CHECKLV5);
 
    //stainless steel for hanging the crystal
    solidHangingPlate = new G4Box("solidHangingPlate",
        (*besEMCGeometry).rearBoxLength/2,
        (*besEMCGeometry).rearBoxLength/2,
        (*besEMCGeometry).HangingPlateDz/2);
 
    logicHangingPlate = new G4LogicalVolume(solidHangingPlate,stainlessSteel,"logicalHangingPlate");
 
    physiHangingPlate = new G4PVPlacement(0,
        G4ThreeVector(0,0,-((*besEMCGeometry).rearBoxDz/2
            -(*besEMCGeometry).rearCasingThickness
            -(*besEMCGeometry).AlPlateDz
            -(*besEMCGeometry).PABoxDz
            -(*besEMCGeometry).HangingPlateDz/2)),
        logicHangingPlate,
        "physicalHangingPlate",
        logicRear,
        false,
        0,CHECKLV4);
 
    //water pipe
    solidWaterPipe = new G4Tubs("solidWaterPipe",
        0,
        (*besEMCGeometry).waterPipeDr,
        (*besEMCGeometry).BSCDz,
        0.*deg,
        360.*deg);
 
    logicWaterPipe = new G4LogicalVolume(solidWaterPipe,waterPipe,"logicalWaterPipe");
 
    physiWaterPipe = new G4PVPlacement(0,
        G4ThreeVector((*besEMCGeometry).cablePosX[0]-2*(*besEMCGeometry).cableDr,
          (*besEMCGeometry).cablePosY[0]-(*besEMCGeometry).cableDr-(*besEMCGeometry).waterPipeDr,
          0),
        logicWaterPipe,
        "physicalWaterPipe",
        logicBSCPhi,
        false,
        0,CHECKLV3);
    //---------------------------------------------------------------------------------
 
 
    //
    //Theta Cell
    //
    G4String nameCrystalAndCasing="CrystalAndCasing";
 
    G4int id=0;     //ID of crystals after distinguishing left and right
    for(i=startID;i<=thetaNbCrystals;i++) //================
    {
      ostringstream strSolidCasing;
      strSolidCasing << "solidBSCCasing"  << i-1;
      ostringstream strVolumeCasing;
      strVolumeCasing << "logicalBSCCasing"  << i-1;
      ostringstream strPhysiCasing;
      strPhysiCasing << "physicalBSCCasing"  << i-1;
 
      if(i>(*besEMCGeometry).BSCNbTheta)
      {
        id=i-(*besEMCGeometry).BSCNbTheta-1;
        solidBSCTheta = new G4Trap(strSolidCasing.str(),
                   zHalfLength[id],
                   thetaAxis[id],
                   -phiAxis[id],
                   yHalfLength1[id],
                   xHalfLength2[id],
                   xHalfLength1[id],
                   -tanAlpha1[id],
                   yHalfLength2[id],
                   xHalfLength4[id],
                   xHalfLength3[id],
                   -tanAlpha2[id]);
 
        //G4cout<<"in EmcConstr1: "<<strSolidCasing.str()<<" x1="<<xHalfLength1[id]<<" y1="<<yHalfLength1[id]<<" theta="<<thetaAxis[id]
        //<<" phi="<<-phiAxis[id]<<" a1="<<-tanAlpha1[id]<<G4endl;
 
        logicBSCTheta = new G4LogicalVolume(solidBSCTheta,
            fCasingMaterial,
            strVolumeCasing.str());
 
        rotateMatrix[(*besEMCGeometry).BSCNbPhi+i-1] = new G4RotationMatrix();
        rotateMatrix[(*besEMCGeometry).BSCNbPhi+i-1]->rotateZ(-90*deg);
        rotateMatrix[(*besEMCGeometry).BSCNbPhi+i-1]
          ->rotateX(-thetaPosition[id]);
 
 
        physiBSCTheta = 
          new G4PVPlacement(rotateMatrix[(*besEMCGeometry).BSCNbPhi+i-1],
              G4ThreeVector(xPosition[id],
                yPosition[id],
                zPosition[id]),
              strPhysiCasing.str(),
              logicBSCTheta,
              physiBSCPhi,
              false,
              i-1,CHECKLV3);
 
        if(logicBSCTheta)
        {
          G4VisAttributes* rightVisAtt= new G4VisAttributes(G4Colour(1.0,0.,0.));
          rightVisAtt->SetVisibility(true);
          logicBSCTheta->SetVisAttributes(rightVisAtt);
          logicBSCTheta->SetVisAttributes(G4VisAttributes::Invisible);
        }
 
        ostringstream strRear;
        strRear << "physicalRearBox_1_"  << i-1;
 
        physiRear = new G4PVPlacement(rotateMatrix[(*besEMCGeometry).BSCNbPhi+i-1],
            G4ThreeVector((*besEMCGeometry).rearBoxPosX[id],
              (*besEMCGeometry).rearBoxPosY[id],
              (*besEMCGeometry).rearBoxPosZ[id]),
            strRear.str(),
            logicRear,
            physiBSCPhi,
            false,
            i-1,CHECKLV3);
 
        ostringstream strGirder;
        strGirder << "solidOpenningCutGirder_1_"  << i-1;
        solidOCGirder = new G4Cons(strGirder.str(),
            (*besEMCGeometry).OCGirderRmin1[id],
            (*besEMCGeometry).BSCPhiRmax,
            (*besEMCGeometry).OCGirderRmin2[id],
            (*besEMCGeometry).BSCPhiRmax,
            (*besEMCGeometry).OCGirderDz[id]/2,
            360.*deg-(*besEMCGeometry).OCGirderAngle/2,
            (*besEMCGeometry).OCGirderAngle/2-da);
 
        ostringstream strVGirder;
        strVGirder << "logicalOpenningCutGirder_1_"  << i-1;
        logicOCGirder = new G4LogicalVolume(solidOCGirder,stainlessSteel,strVGirder.str());
        logicOCGirder->SetVisAttributes(G4VisAttributes::Invisible);
 
        ostringstream strPGirder;
        strPGirder << "physicalOpenningCutGirder_1_"  << i-1;
        physiOCGirder = new G4PVPlacement(0,
            G4ThreeVector(0,0,(*besEMCGeometry).OCGirderPosZ[id]),
            logicOCGirder,
            strPGirder.str(),
            logicBSCPhi,
            false,
            0,CHECKLV3);
 
        if(id<(*besEMCGeometry).BSCNbTheta-1)
        {
          G4double zLength = (*besEMCGeometry).OCGirderPosZ[id+1]
            -(*besEMCGeometry).OCGirderPosZ[id]
            -(*besEMCGeometry).OCGirderDz[id+1]/2-(*besEMCGeometry).OCGirderDz[id]/2;
          G4double zPositionOCGirder = (*besEMCGeometry).OCGirderPosZ[id+1]
            -(*besEMCGeometry).OCGirderDz[id+1]/2-zLength/2;
 
          ostringstream strGirder2;
          strGirder2 << "solidOpenningCutGirder_2_"  << i-1;
          solidOCGirder = new G4Cons(strGirder2.str(),
              (*besEMCGeometry).OCGirderRmin2[id],
              (*besEMCGeometry).BSCPhiRmax,
              (*besEMCGeometry).OCGirderRmin1[id+1],
              (*besEMCGeometry).BSCPhiRmax,
              zLength/2,
              360.*deg-(*besEMCGeometry).OCGirderAngle/2,
              (*besEMCGeometry).OCGirderAngle/2-da);
 
          ostringstream strVGirder2;
          strVGirder2 << "logicalOpenningCutGirder_2_"  << i-1;
          logicOCGirder = new G4LogicalVolume(solidOCGirder,stainlessSteel,strVGirder2.str());
          logicOCGirder->SetVisAttributes(G4VisAttributes::Invisible);
 
          ostringstream strPGirder2;
          strPGirder2 << "physicalOpenningCutGirder_2_"  << i-1;
          physiOCGirder = new G4PVPlacement(0,
              G4ThreeVector(0,0,zPositionOCGirder),
              logicOCGirder,
              strPGirder2.str(),
              logicBSCPhi,
              false,
              0,CHECKLV3);
        } 
 
        ostringstream strBSCCable;
        strBSCCable << "solidBSCCable_1_"  << i-1;
        solidCable = new G4Tubs(strBSCCable.str(),
            0,
            (*besEMCGeometry).cableDr,
            (*besEMCGeometry).cableLength[id]/2,
            0.*deg,
            360.*deg);
 
        ostringstream strVBSCCable;
        strVBSCCable << "logicalBSCCable_1_"  << i-1;
        logicCable = new G4LogicalVolume(solidCable,cable,strVBSCCable.str());
 
        ostringstream strPBSCCable;
        strPBSCCable << "physicalBSCCable_1_"  << i-1;
        physiCable = new G4PVPlacement(0,
            G4ThreeVector((*besEMCGeometry).cablePosX[id],
              (*besEMCGeometry).cablePosY[id],
              (*besEMCGeometry).cablePosZ[id]),
            logicCable,
            strPBSCCable.str(),
            logicBSCPhi,
            false,
            0,CHECKLV3);
        logicCable->SetVisAttributes(G4VisAttributes::Invisible);
      }
      else
      {
        id=(*besEMCGeometry).BSCNbTheta-i;
        solidBSCTheta = new G4Trap(strSolidCasing.str(),
                   zHalfLength[id],
                   thetaAxis[id],
                   phiAxis[id],
                   yHalfLength1[id],
                   xHalfLength1[id],
                   xHalfLength2[id],
                   tanAlpha1[id],
                   yHalfLength2[id],
                   xHalfLength3[id],
                   xHalfLength4[id],
                   tanAlpha2[id]);
 
        //      G4cout<<"in EmcConstr2: "<<strSolidCasing.str()<<" x1="<<xHalfLength1[id]<<" y1="<<yHalfLength1[id]<<" theta="<<thetaAxis[id]
        //        <<" phi="<<phiAxis[id]<<" a1="<<tanAlpha1[id]<<G4endl;
 
        logicBSCTheta = new G4LogicalVolume(solidBSCTheta,
            fCasingMaterial,
            strVolumeCasing.str());
 
        rotateMatrix[(*besEMCGeometry).BSCNbPhi+i-1] = new G4RotationMatrix();
        rotateMatrix[(*besEMCGeometry).BSCNbPhi+i-1]->rotateZ(-90*deg);
        rotateMatrix[(*besEMCGeometry).BSCNbPhi+i-1]
          ->rotateX(-180*deg+thetaPosition[id]);
        physiBSCTheta = 
          new G4PVPlacement(rotateMatrix[(*besEMCGeometry).BSCNbPhi+i-1],
              G4ThreeVector(xPosition[id],
                yPosition[id],
                -zPosition[id]),
              strPhysiCasing.str(),
              logicBSCTheta,
              physiBSCPhi,
              false,
              i-1,CHECKLV3);
        if(logicBSCTheta)
        {
          G4VisAttributes* rightVisAtt= new G4VisAttributes(G4Colour(1.0,0.,0.));
          rightVisAtt->SetVisibility(true);
          logicBSCTheta->SetVisAttributes(rightVisAtt);
          logicBSCTheta->SetVisAttributes(G4VisAttributes::Invisible);
        }
 
        ostringstream strRear;
        strRear << "physicalRearBox_2_"  << i-1;
 
        physiRear = new G4PVPlacement(rotateMatrix[(*besEMCGeometry).BSCNbPhi+i-1],
            G4ThreeVector((*besEMCGeometry).rearBoxPosX[id],
              (*besEMCGeometry).rearBoxPosY[id],
              -(*besEMCGeometry).rearBoxPosZ[id]),
            strRear.str(),
            logicRear,
            physiBSCPhi,
            false,
            i-1,CHECKLV3);
 
        ostringstream strGirder;
        strGirder << "solidOpenningCutGirder_3_"  << i-1;
        solidOCGirder = new G4Cons(strGirder.str(),
            (*besEMCGeometry).OCGirderRmin2[id],
            (*besEMCGeometry).BSCPhiRmax,
            (*besEMCGeometry).OCGirderRmin1[id],
            (*besEMCGeometry).BSCPhiRmax,
            (*besEMCGeometry).OCGirderDz[id]/2,
            360.*deg-(*besEMCGeometry).OCGirderAngle/2,
            (*besEMCGeometry).OCGirderAngle/2-da);
 
        ostringstream strVGirder;
        strVGirder << "logicalOpenningCutGirder_3_"  << i-1;
        logicOCGirder = new G4LogicalVolume(solidOCGirder,stainlessSteel,strVGirder.str());
        logicOCGirder->SetVisAttributes(G4VisAttributes::Invisible);
 
        ostringstream strPGirder;
        strPGirder << "physicalOpenningCutGirder_3_"  << i-1;
        physiOCGirder = new G4PVPlacement(0,
            G4ThreeVector(0,0,-(*besEMCGeometry).OCGirderPosZ[id]),
            logicOCGirder,
            strPGirder.str(),
            logicBSCPhi,
            false,
            0,CHECKLV3);
 
        if(id<(*besEMCGeometry).BSCNbTheta-1)
        {
          G4double zLength = (*besEMCGeometry).OCGirderPosZ[id+1]-(*besEMCGeometry).OCGirderPosZ[id]
            -(*besEMCGeometry).OCGirderDz[id+1]/2-(*besEMCGeometry).OCGirderDz[id]/2;
          G4double zPositionOCGirder = (*besEMCGeometry).OCGirderPosZ[id+1]-(*besEMCGeometry).OCGirderDz[id+1]/2-zLength/2;
 
          ostringstream strGirder2;
          strGirder2 << "solidOpenningCutGirder_4_"  << i-1;
          solidOCGirder = new G4Cons(strGirder2.str(),
              (*besEMCGeometry).OCGirderRmin1[id+1],
              (*besEMCGeometry).BSCPhiRmax,
              (*besEMCGeometry).OCGirderRmin2[id],
              (*besEMCGeometry).BSCPhiRmax,
              zLength/2,
              360.*deg-(*besEMCGeometry).OCGirderAngle/2,
              (*besEMCGeometry).OCGirderAngle/2-da);
 
          ostringstream strVGirder2;
          strVGirder2 << "logicalOpenningCutGirder_4_"  << i-1;
          logicOCGirder 
            = new G4LogicalVolume(solidOCGirder,stainlessSteel,strVGirder2.str());
          logicOCGirder->SetVisAttributes(G4VisAttributes::Invisible);
 
          ostringstream strPGirder2;
          strPGirder2 << "physicalOpenningCutGirder_4_"  << i-1;
          physiOCGirder = new G4PVPlacement(0,
              G4ThreeVector(0,0,-zPositionOCGirder),
              logicOCGirder,
              strPGirder2.str(),
              logicBSCPhi,
              false,
              0,CHECKLV3);
        }
 
        ostringstream strBSCCable;
        strBSCCable << "solidBSCCable_2_"  << i-1;
        solidCable = new G4Tubs(strBSCCable.str(),
            0,
            (*besEMCGeometry).cableDr,
            (*besEMCGeometry).cableLength[id]/2,
            0.*deg,
            360.*deg);
 
        ostringstream strVBSCCable;
        strVBSCCable << "logicalBSCCable_2_"  << i-1;
        logicCable = new G4LogicalVolume(solidCable,cable,strVBSCCable.str());
 
        ostringstream strPBSCCable;
        strPBSCCable << "physicalBSCCable_2_"  << i-1;
        physiCable = new G4PVPlacement(0,
            G4ThreeVector((*besEMCGeometry).cablePosX[id],
              (*besEMCGeometry).cablePosY[id],
              -(*besEMCGeometry).cablePosZ[id]),
            logicCable,
            strPBSCCable.str(),
            logicBSCPhi,
            false,
            0,CHECKLV3);
        logicCable->SetVisAttributes(G4VisAttributes::Invisible);
 
      }
 
      ostringstream strCrystal;
      strCrystal << "physicalCrystal"  << i-1;
      physiBSCCrystal = new G4PVParameterised(
          strCrystal.str(),
          logicBSCCrystal,
          physiBSCTheta,
          kZAxis,
          1,//for this method,it must be 1.
          crystalParam);
      (*besEMCGeometry).physiBSCCrystal[i]=physiBSCCrystal;
      //G4cout << (*besEMCGeometry).physiBSCCrystal[i] << G4endl;
      physiBSCCrystal->SetCopyNo(i);
      if(CHECKLV4) physiBSCCrystal->CheckOverlaps();
 
      if(verboseLevel>4)
        G4cout << "BesEmcConstruction*****************************"<< G4endl
          << "point of crystal =" <<physiBSCCrystal << G4endl
          //           << "point of mother  =" <<physiBSCCrystal->GetMotherPhysical() << G4endl
          << "point of excepted=" <<physiBSCTheta << G4endl;
      //G4Exception("BesEMCConstruction::Construct() starting............");
    }
    //
    //always return the physical World
    //
    if(verboseLevel>0)PrintEMCParameters();
    //  return physiBSC;
 
    ConstructSPFrame(logicBSCWorld,besEMCGeometry);
    ConstructEndGeometry(logicEMC);
  }
  
  //Set vis attributes and sensitive detector 
  SetVisAndSD();
 
  //list geo tree
  if(logicEMC&&physiEMC&&verboseLevel>4){
    G4cout<<"logicEmc "<<logicEMC<<"  physiEmc "<<physiEMC<<G4endl;
    G4cout<<"list geo tree"<<G4endl;
 
    int NdaughterofEMC = logicEMC->GetNoDaughters();
 
    for(int i = 0; i < NdaughterofEMC; i++)
    {
      G4LogicalVolume *daughterofEmc = logicEMC->GetDaughter(i)->GetLogicalVolume();
      G4cout<<i<<"/"<<NdaughterofEMC<<" name: "<<daughterofEmc->GetName()<<" "<<daughterofEmc<<" shape: "<<daughterofEmc->GetSolid()->GetName()<<G4endl;
      int NdaughterofEmc_2 = daughterofEmc->GetNoDaughters();
      for(int j = 0; j < NdaughterofEmc_2; j++)
      {
        G4LogicalVolume *daughterofEmc_2 = daughterofEmc->GetDaughter(j)->GetLogicalVolume();
        G4cout<<"     --> "<<j<<"/"<<NdaughterofEmc_2<<" name: "<<daughterofEmc_2->GetName()<<" "<<daughterofEmc_2<<" shape: "<<daughterofEmc_2->GetSolid()->GetName()<<G4endl;
        int NdaughterofEmc_3 = daughterofEmc_2->GetNoDaughters();
        for(int k = 0; k < NdaughterofEmc_3; k++)
        {
          G4LogicalVolume *daughterofEmc_3 = daughterofEmc_2->GetDaughter(k)->GetLogicalVolume();
          G4cout<<"          --> "<<k<<"/"<<NdaughterofEmc_3<<" name: "<<daughterofEmc_3->GetName()<<" "<<daughterofEmc_3<<" shape: "<<daughterofEmc_3->GetSolid()->GetName()<<G4endl;
          int NdaughterofEmc_4 = daughterofEmc_3->GetNoDaughters();
          for(int m = 0; m < NdaughterofEmc_4; m++)
          {
            G4LogicalVolume *daughterofEmc_4 = daughterofEmc_3->GetDaughter(m)->GetLogicalVolume();
            G4cout<<"               --> "<<m<<"/"<<NdaughterofEmc_4<<" name: "<<daughterofEmc_4->GetName()<<" "<<daughterofEmc_4<<" shape: "<<daughterofEmc_4->GetSolid()->GetName()<<G4endl; 
            if(daughterofEmc_3->GetSolid()->GetName().contains("solidBSCCasing"))
            {
              G4Trap *Crystal = (G4Trap *)daughterofEmc_3->GetSolid();
              double hz = Crystal->GetZHalfLength();
              double hx1 = Crystal->GetXHalfLength1();
              double hx2 = Crystal->GetXHalfLength2();
              double hx3 = Crystal->GetXHalfLength3();
              double hx4 = Crystal->GetXHalfLength4();
              double hy1 = Crystal->GetYHalfLength1();
              double hy2 = Crystal->GetYHalfLength2();
              double tanalpha1 = Crystal->GetTanAlpha1();
              double tanalpha2 = Crystal->GetTanAlpha2();
              G4cout<<"                   --> "<<hx1<<" "<<hx2<<" "<<hx3<<" "<<hx4<<" "<<hy1<<" "<<hy2<<" "<<hz<<" "<<tanalpha1<<" "<<tanalpha2<<G4endl;
 
            }//if(SolidCrystal)
          }//4
        }//3
      }//2
    }//1
  }
 
}

Referenced by BesDetectorConstruction::Construct().

◆ ConstructEndGeometry()

void BesEmcConstruction::ConstructEndGeometry ( G4LogicalVolume * logEMC )

Definition at line 964 of file BesEmcConstruction.cc.

{ // logicEMC is not necessary, since it is a member of this class
  if(logEMC!=logicEMC) G4cout << "BesEmcConstruction::ConstructEndGeometry parameter transmit error!" << G4endl;
  //has gotten in DefineMaterials()  
  //G4Material* fCrystalMaterial = G4Material::GetMaterial("Cesiumiodide");
  G4VisAttributes* crystalVisAtt= new G4VisAttributes(G4Colour(0.5,0,1.0));
  crystalVisAtt->SetVisibility(false);
  G4VisAttributes* endPhiVisAtt= new G4VisAttributes(G4Colour(0,1.0,0));
  endPhiVisAtt->SetVisibility(false);
  const G4double zoomConst = 0.995;
  const G4double da=0.001*deg;
 
  //world volume of endcap
  //east end
  solidEnd = new G4Cons("solidEndWorld",(*emcEnd).WorldRmin1,(*emcEnd).WorldRmax1,
      (*emcEnd).WorldRmin2,(*emcEnd).WorldRmax2,
      (*emcEnd).WorldDz/2,0.*deg,360.*deg);
  logicEnd = new G4LogicalVolume(solidEnd, G4Material::GetMaterial("Aluminium"), "logicalEndWorld", 0, 0, 0);
  physiEnd = new G4PVPlacement(0,               // no rotation
      G4ThreeVector(0,0,(*emcEnd).WorldZPosition),
      logicEnd,               // its logical volume
      "physicalEndWorld0",             // its name
      logicEMC,               // its mother  volume
      false,                  // no boolean operations
      0,CHECKLV1);                     // no field specific to volume
  if(logicEnd)
    logicEnd->SetVisAttributes(G4VisAttributes::Invisible);
 
 
  //west end
  G4RotationMatrix *rotateEnd = new G4RotationMatrix();
  rotateEnd->rotateY(180.*deg);
  physiEnd = new G4PVPlacement(rotateEnd,
      G4ThreeVector(0,0,-(*emcEnd).WorldZPosition),
      logicEnd,
      "physicalEndWorld2",
      logicEMC,
      false,
      2,CHECKLV1);
 
  ////////////////////////////////////////////////////////////////////////
  // emc endcap sectors (east)                                            //
  //////////////////////////////////////////////////////////////////////////
  //                                    20mm gap                          // 
  //                                      ||                              //
  //                                \   7 || 6   /                        //
  //                           -   8 \    ||    / 5   -                   //
  //                             -    \   ||   /    -                     //
  //                        _  9   -   \  ||  /   -   4  _                //
  //                          - _    -  \ || /  -    _ -                  //
  //                              - _  - \||/ -  _ -                      //
  //                         10        - -||- -         3                 //
  //                      ----------------||----------------              //
  //                         11        - -||- -         2                 //
  //                              _ -  - /||\ -  - _                      //
  //                          _ -    -  / || \  -    - _                  //
  //                        -  12  -   /  ||  \   -   1  -                //
  //                             -    /   ||   \    -                     //
  //                           -  13 /    ||    \  0  -                   //
  //                                /  14 || 15  \                        //
  //                                      ||                              //
  ////////////////////////////////////////////////////////////////////////
 
  // 1/16 of endcap world,which has some symmetry
  // sector 0-6,8-14
  solidEndPhi = new G4Cons("solidEndPhi0",
      (*emcEnd).SectorRmin1,(*emcEnd).SectorRmax1,(*emcEnd).SectorRmin2,(*emcEnd).SectorRmax2,
      (*emcEnd).SectorDz/2,0.*deg,22.5*deg-da);
  logicEndPhi = new G4LogicalVolume(solidEndPhi, G4Material::GetMaterial("Air"), "logicalEndPhi0", 0, 0, 0);
  for(G4int i=0;i<14;i++)
  {
    if((i!=6)&&(i!=7))
    {
      G4RotationMatrix *rotatePhi = new G4RotationMatrix();
      rotatePhi->rotateZ(-i*22.5*deg+67.5*deg);
      ostringstream strEndPhi;
      strEndPhi << "physicalEndPhi"  << i;
      physiEndPhi = new G4PVPlacement(rotatePhi,//0,logicEndPhi,strEndPhi.str(),logicEnd,false,i);
          G4ThreeVector(0,0,(*emcEnd).SectorZPosition),logicEndPhi,strEndPhi.str(),logicEnd,false,i,CHECKLV2);
    }
  }
  if(logicEndPhi)
    logicEndPhi->SetVisAttributes(endPhiVisAtt);
 
  for(G4int i=0;i<35;i++)
  {
    ostringstream strEndCasing;
    strEndCasing << "solidEndCasing_0_"  << i;
 
    //-************tranform to new coodinate!    liangyt 2007.5.7  *******
    G4ThreeVector newfPnt[8];
    G4ThreeVector center(0.0, 0.0, 0.0);
    G4ThreeVector rotAngle(0.0, 0.0, 0.0);
 
    TransformToArb8( (*emcEnd).fPnt[i], newfPnt, center, rotAngle );
 
    emcEnd->Zoom(newfPnt,zoomConst);    //change emcEnd.fPnt[i] to newfPnt
 
    G4RotationMatrix *rotatePhiIrregBox = new G4RotationMatrix();
    rotatePhiIrregBox->rotateX(rotAngle.x());
    rotatePhiIrregBox->rotateY(rotAngle.y());
    rotatePhiIrregBox->rotateZ(rotAngle.z());
    //-*******************************************************************
 
    solidEndCasing = new G4IrregBox(strEndCasing.str(),(*emcEnd).zoomPoint);   //liangyt
 
    ostringstream strVEndCasing;
    strVEndCasing << "logicalEndCasing_0_"  << i;
    logicEndCasing = new G4LogicalVolume(solidEndCasing,fCasingMaterial,strVEndCasing.str());
 
    ostringstream strPEndCasing;
    strPEndCasing << "physicalEndCasing_0_"  << i;
    physiEndCasing = new G4PVPlacement(rotatePhiIrregBox,center,
        logicEndCasing,strPEndCasing.str(),logicEndPhi,false,i,CHECKIrreg);  //change with rot and pos now!
 
    ostringstream strEndCrystal;
    strEndCrystal << "solidEndCrystal_0_"  << i;
 
    emcEnd->ModifyForCasing((*emcEnd).zoomPoint,i);
    solidEndCrystal = new G4IrregBox(strEndCrystal.str(),(*emcEnd).cryPoint);
 
    ostringstream strVEndCrystal;
    strVEndCrystal << "logicalEndCrystal_0_"  << i;
    logicEndCrystal = new G4LogicalVolume(solidEndCrystal,fCrystalMaterial,strVEndCrystal.str());
 
    ostringstream strPEndCrystal;
    strPEndCrystal << "physicalEndCrystal_0_"  << i;
    physiEndCrystal = new G4PVPlacement(0,G4ThreeVector(),logicEndCrystal,strPEndCrystal.str(),logicEndCasing,false,i,CHECKIrreg);
 
    logicEndCasing->SetVisAttributes(G4VisAttributes::Invisible);
    logicEndCrystal->SetVisAttributes(crystalVisAtt);
    logicEndCrystal->SetSensitiveDetector(besEMCSD);
  }
 
  // the top area which has 20 mm gap
  // sector 6,14
  G4double rmin2 = (*emcEnd).WorldRmin1+((*emcEnd).WorldRmin2-(*emcEnd).WorldRmin1)*(*emcEnd).SectorDz/(*emcEnd).WorldDz;
  G4double rmax2 = (*emcEnd).WorldRmax1+((*emcEnd).WorldRmax2-(*emcEnd).WorldRmax1)*(*emcEnd).SectorDz/(*emcEnd).WorldDz;
  solidEndPhi = new G4Cons("solidEndPhi1",
               (*emcEnd).WorldRmin1, (*emcEnd).WorldRmax1, rmin2, rmax2,
                           (*emcEnd).SectorDz/2,67.5*deg,22.5*deg-da);
  logicEndPhi = new G4LogicalVolume(solidEndPhi, G4Material::GetMaterial("Air"), "logicalEndPhi1", 0, 0, 0);
  for(G4int i=0;i<2;i++)
  {
    G4RotationMatrix *rotatePhi = new G4RotationMatrix();
    rotatePhi->rotateZ(-i*180.*deg);
    ostringstream strEndPhi;
    strEndPhi << "physicalEndPhi"  << i*8+6;
    physiEndPhi = new G4PVPlacement(rotatePhi,G4ThreeVector(0,0,(*emcEnd).SectorZPosition),
        logicEndPhi,strEndPhi.str(),logicEnd,false,i*8+6,CHECKLV2);
  }
  if(logicEndPhi)
    logicEndPhi->SetVisAttributes(endPhiVisAtt);
 
  for(G4int i=0;i<35;i++)
  {
    ostringstream strEndCasing;
    strEndCasing << "solidEndCasing_1_"  << i;
 
    //-************tranform to new coodinate!    liangyt 2007.5.7  *******
    G4ThreeVector newfPnt[8];
    G4ThreeVector center(0.0, 0.0, 0.0);
    G4ThreeVector rotAngle(0.0, 0.0, 0.0);
 
    TransformToArb8( (*emcEnd).fPnt1[i], newfPnt, center, rotAngle );
 
    emcEnd->Zoom(newfPnt,zoomConst);    //change emcEnd.fPnt[i] to newfPnt
 
    G4RotationMatrix *rotatePhiIrregBox = new G4RotationMatrix();
    rotatePhiIrregBox->rotateX(rotAngle.x());
    rotatePhiIrregBox->rotateY(rotAngle.y());
    rotatePhiIrregBox->rotateZ(rotAngle.z());
    //-*******************************************************************
 
    solidEndCasing = new G4IrregBox(strEndCasing.str(),(*emcEnd).zoomPoint);
 
    ostringstream strVEndCasing;
    strVEndCasing << "logicalEndCasing_1_"  << i;
    logicEndCasing = new G4LogicalVolume(solidEndCasing,fCasingMaterial,strVEndCasing.str());
 
    ostringstream strPEndCasing;
    strPEndCasing << "physicalEndCasing_1_"  << i;
    physiEndCasing = new G4PVPlacement(rotatePhiIrregBox,center,
        logicEndCasing,strPEndCasing.str(),logicEndPhi,false,i,CHECKIrreg);  //change with rot and pos now!
 
    ostringstream strEndCrystal;
    strEndCrystal << "solidEndCrystal_1_"  << i;
 
    emcEnd->ModifyForCasing((*emcEnd).zoomPoint,i);
    solidEndCrystal = new G4IrregBox(strEndCrystal.str(),(*emcEnd).cryPoint);
 
    ostringstream strVEndCrystal;
    strVEndCrystal << "logicalEndCrystal_1_"  << i;
    logicEndCrystal = new G4LogicalVolume(solidEndCrystal,fCrystalMaterial,strVEndCrystal.str());
 
    ostringstream strPEndCrystal;
    strPEndCrystal << "physicalEndCrystal_1_"  << i;
    physiEndCrystal = new G4PVPlacement(0,G4ThreeVector(),logicEndCrystal,strPEndCrystal.str(),logicEndCasing,false,i,CHECKIrreg);
 
    logicEndCasing->SetVisAttributes(G4VisAttributes::Invisible);
    logicEndCrystal->SetVisAttributes(crystalVisAtt);
    logicEndCrystal->SetSensitiveDetector(besEMCSD);
  }
 
  (*emcEnd).ReflectX();
 
  // sector 7,15
  for(G4int i=0;i<35;i++)
    for (G4int j=0;j<8;j++)
      (*emcEnd).fPnt1[i][j].rotateZ(-90.*deg);
 
  solidEndPhi = new G4Cons("solidEndPhi2",
               (*emcEnd).WorldRmin1, (*emcEnd).WorldRmax1, rmin2, rmax2,
                           (*emcEnd).SectorDz/2,0*deg,22.5*deg-da);
  logicEndPhi = new G4LogicalVolume(solidEndPhi, G4Material::GetMaterial("Air"), "logicalEndPhi2", 0, 0, 0);
  for(G4int i=0;i<2;i++)
  {
    G4RotationMatrix *rotatePhi = new G4RotationMatrix();
    rotatePhi->rotateZ(-i*180.*deg-90.*deg);
    ostringstream strEndPhi;
    strEndPhi << "physicalEndPhi"  << i*8+7;
    physiEndPhi = new G4PVPlacement(rotatePhi,G4ThreeVector(0,0,(*emcEnd).SectorZPosition),
        logicEndPhi,strEndPhi.str(),logicEnd,false,i*8+7,CHECKLV2);
  }
  if(logicEndPhi)
    logicEndPhi->SetVisAttributes(endPhiVisAtt);
 
  for(G4int i=0;i<35;i++)
  {
    ostringstream strEndCasing;
    strEndCasing << "solidEndCasing_2_"  << i;
 
    //-************tranform to new coodinate!    liangyt 2007.5.7  *******
    G4ThreeVector newfPnt[8];
    G4ThreeVector center(0.0, 0.0, 0.0);
    G4ThreeVector rotAngle(0.0, 0.0, 0.0);
 
    TransformToArb8( (*emcEnd).fPnt1[i], newfPnt, center, rotAngle );
 
    emcEnd->Zoom(newfPnt,zoomConst);    //change emcEnd.fPnt[i] to newfPnt
 
    G4RotationMatrix *rotatePhiIrregBox = new G4RotationMatrix();
    rotatePhiIrregBox->rotateX(rotAngle.x());
    rotatePhiIrregBox->rotateY(rotAngle.y());
    rotatePhiIrregBox->rotateZ(rotAngle.z());
    //-*******************************************************************
 
    solidEndCasing = new G4IrregBox(strEndCasing.str(),(*emcEnd).zoomPoint);
 
    ostringstream strVEndCasing;
    strVEndCasing << "logicalEndCasing_2_"  << i;
    logicEndCasing = new G4LogicalVolume(solidEndCasing,fCasingMaterial,strVEndCasing.str());
 
    ostringstream strPEndCasing;
    strPEndCasing << "physicalEndCasing_2_"  << i;
    physiEndCasing = new G4PVPlacement(rotatePhiIrregBox,center,
        logicEndCasing,strPEndCasing.str(),logicEndPhi,false,i,CHECKIrreg);  //change with rot and pos now!
 
    ostringstream strEndCrystal;
    strEndCrystal << "solidEndCrystal_2_"  << i;
 
    emcEnd->ModifyForCasing((*emcEnd).zoomPoint,i);
    solidEndCrystal = new G4IrregBox(strEndCrystal.str(),(*emcEnd).cryPoint);
 
    ostringstream strVEndCrystal;
    strVEndCrystal << "logicalEndCrystal_2_"  << i;
    logicEndCrystal = new G4LogicalVolume(solidEndCrystal,fCrystalMaterial,strVEndCrystal.str());
 
    ostringstream strPEndCrystal;
    strPEndCrystal << "physicalEndCrystal_2_"  << i;
    physiEndCrystal = new G4PVPlacement(0, G4ThreeVector(),logicEndCrystal,strPEndCrystal.str(),logicEndCasing,false,i,CHECKIrreg);
 
    logicEndCasing->SetVisAttributes(G4VisAttributes::Invisible);
    logicEndCrystal->SetVisAttributes(crystalVisAtt);
    logicEndCrystal->SetSensitiveDetector(besEMCSD);
  }
}

Referenced by Construct().

◆ ConstructSPFrame()

void BesEmcConstruction::ConstructSPFrame	(	G4LogicalVolume *	logMother,
		BesEmcGeometry *	emcGeometry )

Definition at line 1268 of file BesEmcConstruction.cc.

{
  G4double rmax=(*besEMCGeometry).BSCRmax+2.*mm;  //radius from 942mm to 940mm
  solidSupportBar = new G4Tubs("solidSupportBar0",
      rmax+(*besEMCGeometry).SPBarThickness1,
      rmax+(*besEMCGeometry).SPBarThickness+(*besEMCGeometry).SPBarThickness1,
      (*besEMCGeometry).BSCDz
      +(*besEMCGeometry).TaperRingThickness3+(*besEMCGeometry).EndRingDz,
      0.*deg,
      360.*deg);
 
  logicSupportBar = new G4LogicalVolume(solidSupportBar,stainlessSteel,"logicalSupportBar0");
 
  physiSupportBar = new G4PVPlacement(0,G4ThreeVector(),logicSupportBar,"physicalSupportBar0",logMother,false,0,CHECKLV2);
 
  solidSupportBar1 = new G4Tubs("solidSupportBar1",
      rmax,
      rmax+(*besEMCGeometry).SPBarThickness1,
      (*besEMCGeometry).BSCDz+(*besEMCGeometry).TaperRingThickness3,
      (*besEMCGeometry).BSCPhiDphi-(*besEMCGeometry).SPBarDphi/2,
      (*besEMCGeometry).SPBarDphi);
 
  logicSupportBar1 = new G4LogicalVolume(solidSupportBar1,stainlessSteel,"logicalSupportBar1");
 
  for(G4int i=0;i<(*besEMCGeometry).BSCNbPhi/2;i++)
  {
    G4RotationMatrix *rotateSPBar = new G4RotationMatrix();
    rotateSPBar->rotateZ((*besEMCGeometry).BSCPhiDphi-i*2*(*besEMCGeometry).BSCPhiDphi);
    ostringstream strSupportBar1;
    strSupportBar1 << "physicalSupportBar1_"  << i;
    physiSupportBar1 = new G4PVPlacement(rotateSPBar,G4ThreeVector(),
        logicSupportBar1,strSupportBar1.str(),logMother,false,0,CHECKLV2);
  }
 
  //end ring
  solidEndRing = new G4Tubs("solidEndRing",
      (*besEMCGeometry).EndRingRmin,
      (*besEMCGeometry).EndRingRmin+(*besEMCGeometry).EndRingDr/2,
      (*besEMCGeometry).EndRingDz/2,
      0.*deg,
      360.*deg);
 
  solidGear = new G4Tubs("solidGear",
      (*besEMCGeometry).EndRingRmin+(*besEMCGeometry).EndRingDr/2,
      (*besEMCGeometry).EndRingRmin+(*besEMCGeometry).EndRingDr,
      (*besEMCGeometry).EndRingDz/2,
      0.*deg,
      (*besEMCGeometry).BSCPhiDphi);
 
  //taper ring
  solidTaperRing1 = new G4Tubs("solidTaperRing1",
      (*besEMCGeometry).TaperRingRmin1,
      (*besEMCGeometry).TaperRingRmin1+(*besEMCGeometry).TaperRingThickness1,
      (*besEMCGeometry).TaperRingInnerLength/2,
      0.*deg,
      360.*deg);
 
  solidTaperRing2 = new G4Cons("solidTaperRing2",
      (*besEMCGeometry).TaperRingRmin1,
      (*besEMCGeometry).TaperRingRmin1+(*besEMCGeometry).TaperRingThickness1,
      (*besEMCGeometry).TaperRingRmin2,
      (*besEMCGeometry).TaperRingRmin2+(*besEMCGeometry).TaperRingDr,
      (*besEMCGeometry).TaperRingDz/2,
      0.*deg,
      360.*deg);
 
  solidTaperRing3 = new G4Cons("solidTaperRing3",
      (*besEMCGeometry).BSCRmax2,
      (*besEMCGeometry).BSCRmax2+(*besEMCGeometry).TaperRingOuterLength1,
      (*besEMCGeometry).TaperRingRmin2+(*besEMCGeometry).TaperRingDr,
      (*besEMCGeometry).TaperRingRmin2+(*besEMCGeometry).TaperRingDr+(*besEMCGeometry).TaperRingOuterLength,
      (*besEMCGeometry).TaperRingThickness3/2,
      0.*deg,
      360.*deg);
 
  logicEndRing = new G4LogicalVolume(solidEndRing,stainlessSteel,"logicalEndRing");
  logicGear = new G4LogicalVolume(solidGear,stainlessSteel,"logicalGear");
  logicTaperRing1 = new G4LogicalVolume(solidTaperRing1,stainlessSteel,"logicalTaperRing1");
  logicTaperRing2 = new G4LogicalVolume(solidTaperRing2,stainlessSteel,"logicalTaperRing2");
  logicTaperRing3 = new G4LogicalVolume(solidTaperRing3,stainlessSteel,"logicalTaperRing3");
 
  for(G4int i=0;i<2;i++)
  {
    G4RotationMatrix *rotateSPRing = new G4RotationMatrix();
    G4double zEndRing,z1,z2,z3;
    if(i==0)
    {
      zEndRing = (*besEMCGeometry).BSCDz+(*besEMCGeometry).TaperRingThickness3+(*besEMCGeometry).EndRingDz/2;
      z1 = (*besEMCGeometry).BSCDz+(*besEMCGeometry).TaperRingThickness3
        -(*besEMCGeometry).TaperRingDz-(*besEMCGeometry).TaperRingInnerLength/2;
      z2 = (*besEMCGeometry).BSCDz+(*besEMCGeometry).TaperRingThickness3-(*besEMCGeometry).TaperRingDz/2;
      z3 = (*besEMCGeometry).BSCDz+(*besEMCGeometry).TaperRingThickness3/2;
    }
    else
    {
      rotateSPRing->rotateY(180.*deg);
      zEndRing = -((*besEMCGeometry).BSCDz+(*besEMCGeometry).TaperRingThickness3+(*besEMCGeometry).EndRingDz/2);
      z1 = -((*besEMCGeometry).BSCDz+(*besEMCGeometry).TaperRingThickness3
          -(*besEMCGeometry).TaperRingDz-(*besEMCGeometry).TaperRingInnerLength/2);
      z2 = -((*besEMCGeometry).BSCDz+(*besEMCGeometry).TaperRingThickness3-(*besEMCGeometry).TaperRingDz/2);
      z3 = -((*besEMCGeometry).BSCDz+(*besEMCGeometry).TaperRingThickness3/2);
    }
 
    ostringstream strEndRing;
    strEndRing << "physicalEndRing_"  << i;
    physiEndRing = new G4PVPlacement(rotateSPRing,G4ThreeVector(0,0,zEndRing),
        logicEndRing,strEndRing.str(),logMother,false,0,CHECKLV2);
 
    for(G4int j=0;j<(*besEMCGeometry).BSCNbPhi/2;j++)
    {
      G4RotationMatrix *rotateGear = new G4RotationMatrix();
      rotateGear->rotateZ((*besEMCGeometry).BSCPhiDphi/2-j*2*(*besEMCGeometry).BSCPhiDphi);
 
      ostringstream strGear;
      strGear << "physicalGear_"  << i << "_" <<j;
      physiGear = new G4PVPlacement(rotateGear,G4ThreeVector(0,0,zEndRing),
          logicGear,strGear.str(),logMother,false,0,CHECKLV2);
    }
 
    ostringstream strTaperRing1;
    strTaperRing1 << "physicalTaperRing1_"  << i;
    physiTaperRing1 = new G4PVPlacement(rotateSPRing,G4ThreeVector(0,0,z1),
        logicTaperRing1,strTaperRing1.str(),logMother,false,0,CHECKLV2);
 
    ostringstream strTaperRing2;
    strTaperRing2 << "physicalTaperRing2_"  << i;
    physiTaperRing2 = new G4PVPlacement(rotateSPRing,G4ThreeVector(0,0,z2),
        logicTaperRing2,strTaperRing2.str(),logMother,false,0,CHECKLV2);
 
    ostringstream strTaperRing3;
    strTaperRing3 << "physicalTaperRing3_"  << i;
    physiTaperRing3 = new G4PVPlacement(rotateSPRing,G4ThreeVector(0,0,z3),
        logicTaperRing3,strTaperRing3.str(),logMother,false,0,CHECKLV2);
  }
}

Referenced by Construct().

◆ GetBesEmcConstruction()

BesEmcConstruction * BesEmcConstruction::GetBesEmcConstruction ( )

static

Definition at line 68 of file BesEmcConstruction.cc.

69{ return fBesEmcConstruction;}

Referenced by BesCrystalParameterisation::ComputeIDAndSide(), and BesCrystalParameterisation::ComputeMaterial().

◆ GetBSCCrystal()

const G4VPhysicalVolume * BesEmcConstruction::GetBSCCrystal ( )

inline

Definition at line 113 of file BesEmcConstruction.hh.

113{return physiBSCCrystal;};

◆ GetBSCPhi()

const G4VPhysicalVolume * BesEmcConstruction::GetBSCPhi ( )

inline

Definition at line 111 of file BesEmcConstruction.hh.

111{return physiBSCPhi;};

◆ GetBSCTheta()

const G4VPhysicalVolume * BesEmcConstruction::GetBSCTheta ( )

inline

Definition at line 112 of file BesEmcConstruction.hh.

112{return physiBSCTheta;};

◆ GetCasingMaterial()

G4Material * BesEmcConstruction::GetCasingMaterial ( )

inline

Definition at line 107 of file BesEmcConstruction.hh.

107{return fCasingMaterial;};

Referenced by BesCrystalParameterisation::ComputeMaterial(), and BesEmcDetectorMessenger::GetCurrentValue().

◆ GetCrystalMaterial()

G4Material * BesEmcConstruction::GetCrystalMaterial ( )

inline

Definition at line 106 of file BesEmcConstruction.hh.

106{return fCrystalMaterial;};

Referenced by BesCrystalParameterisation::ComputeMaterial(), and BesEmcDetectorMessenger::GetCurrentValue().

◆ GetCrystalParam()

const G4VPVParameterisation * BesEmcConstruction::GetCrystalParam ( )

inline

Definition at line 114 of file BesEmcConstruction.hh.

114{return crystalParam;};

◆ GetEMC()

const G4VPhysicalVolume * BesEmcConstruction::GetEMC ( )

inline

Definition at line 110 of file BesEmcConstruction.hh.

110{return physiEMC; }

◆ GetLogicalVolume()

void BesEmcConstruction::GetLogicalVolume ( )

Definition at line 1478 of file BesEmcConstruction.cc.

{
  //-------------------------------------------------------------
  //Barrel
  logicBSCWorld = FindLogicalVolume("logicalBSCWorld"); 
  logicBSCCrystal = FindLogicalVolume("logicalCrystal");
  logicBSCPhi = FindLogicalVolume("logicalBSCPhi");
  logicRear = FindLogicalVolume("logicalRearBox");
  logicOrgGlass = FindLogicalVolume("logicalOrganicGlass");
  logicRearCasing = FindLogicalVolume("logicalRearCasing");
  logicAlPlate = FindLogicalVolume("logicalAlPlate");
  logicPD = FindLogicalVolume("logicalPD");
  logicPreAmpBox = FindLogicalVolume("logicalPreAmpBox");
  logicAirInPABox = FindLogicalVolume("logicalAirInPABox");
  logicHangingPlate = FindLogicalVolume("logicalHangingPlate");
  logicWaterPipe = FindLogicalVolume("logicalWaterPipe");
 
  for(int i = 0; i < 44; i++){
    std::ostringstream osnameBSCCasing;
    osnameBSCCasing << "logicalBSCCasing"<<i;
    logicBSCTheta = FindLogicalVolume( osnameBSCCasing.str() );
    if(logicBSCTheta)
    {
      G4VisAttributes* rightVisAtt= new G4VisAttributes(G4Colour(1.0, 0.0,0.0));
      rightVisAtt->SetVisibility(false);
      logicBSCTheta->SetVisAttributes(rightVisAtt);
    }
 
    std::ostringstream osnameBSCCable1;
    osnameBSCCable1 << "logicalBSCCable_1_"<<i;
    logicCable = FindLogicalVolume( osnameBSCCable1.str() );
    if(logicCable)
      logicCable->SetVisAttributes(G4VisAttributes::Invisible);
 
    std::ostringstream osnameBSCCable2;
    osnameBSCCable2 << "logicalBSCCable_2_"<<i;
    logicCable = FindLogicalVolume( osnameBSCCable2.str() );
    if(logicCable)
      logicCable->SetVisAttributes(G4VisAttributes::Invisible);
 
    std::ostringstream osnameOCGirder1;
    osnameOCGirder1 <<"logicalOpenningCutGirder_1_"<<i;
    logicOCGirder = FindLogicalVolume( osnameOCGirder1.str() );
    if(logicOCGirder)
      logicOCGirder->SetVisAttributes(G4VisAttributes::Invisible);
 
    std::ostringstream osnameOCGirder2;
    osnameOCGirder2 <<"logicalOpenningCutGirder_2_"<<i;
    logicOCGirder = FindLogicalVolume( osnameOCGirder2.str() );
    if(logicOCGirder)
      logicOCGirder->SetVisAttributes(G4VisAttributes::Invisible);
 
    std::ostringstream osnameOCGirder3;
    osnameOCGirder3 <<"logicalOpenningCutGirder_3_"<<i;
    logicOCGirder = FindLogicalVolume( osnameOCGirder3.str() );
    if(logicOCGirder)
      logicOCGirder->SetVisAttributes(G4VisAttributes::Invisible);
 
    std::ostringstream osnameOCGirder4;
    osnameOCGirder4 <<"logicalOpenningCutGirder_4_"<<i;
    logicOCGirder = FindLogicalVolume( osnameOCGirder4.str() );
    if(logicOCGirder)
      logicOCGirder->SetVisAttributes(G4VisAttributes::Invisible);
  }
 
  //-------------------------------------------------------------
  //Support system
  logicSupportBar = FindLogicalVolume("logicalSupportBar0");
  logicSupportBar1 = FindLogicalVolume("logicalSupportBar1");
  logicEndRing = FindLogicalVolume("logicalEndRing");
  logicGear = FindLogicalVolume("logicalGear");
  logicTaperRing1 = FindLogicalVolume("logicalTaperRing1");
  logicTaperRing2 = FindLogicalVolume("logicalTaperRing2");
  logicTaperRing3 = FindLogicalVolume("logicalTaperRing3");
 
  //-------------------------------------------------------------
  //Endcap
  logicEnd = FindLogicalVolume("logicalEndWorld");
 
  for(G4int sector=0;sector<3;sector++) {
    std::ostringstream osnameEndPhi;
    osnameEndPhi<<"logicalEndPhi"<<sector;
    logicEndPhi = FindLogicalVolume(osnameEndPhi.str());
    if(logicEndPhi) {
      logicEndPhi->SetVisAttributes(G4VisAttributes::Invisible);
    } else {
      G4cout<<"Can't find logicEndPhi!"<<G4endl;
    }
 
    for(G4int cryNb=0;cryNb<35;cryNb++) {
 
      std::ostringstream osnameEndCrystal;
      osnameEndCrystal<<"logicalEndCrystal_"<<sector<<"_"<<cryNb;
      logicEndCrystal = FindLogicalVolume( osnameEndCrystal.str() );
      if(logicEndCrystal) {
        logicEndCrystal->SetSensitiveDetector(besEMCSD);
        G4VisAttributes* crystalVisAtt
          = new G4VisAttributes(G4Colour(0.5,0,1.0));
        crystalVisAtt->SetVisibility(false);
        logicEndCrystal->SetVisAttributes(crystalVisAtt);
      } else {
        G4cout<<"Can't find: "<<osnameEndCrystal.str()<<G4endl;
      }
 
      std::ostringstream osnameEndCasing;
      osnameEndCasing<<"logicalEndCasing_"<<sector<<"_"<<cryNb;
      logicEndCasing = FindLogicalVolume( osnameEndCasing.str() );
      if(logicEndCasing) {
        logicEndCasing->SetVisAttributes(G4VisAttributes::Invisible);
      } else {
        G4cout<<"Can't find: "<<osnameEndCasing.str()<<G4endl;
      }
    }
  }
}

Referenced by Construct().

◆ GetMagField()

G4double BesEmcConstruction::GetMagField ( )

inline

Definition at line 102 of file BesEmcConstruction.hh.

102{return fmagField;};

Referenced by BesEmcDetectorMessenger::BesEmcDetectorMessenger().

◆ GetStartIDTheta()

G4int BesEmcConstruction::GetStartIDTheta ( )

inline

Definition at line 104 of file BesEmcConstruction.hh.

104{return startID;};

◆ GetVerboseLevel()

G4int BesEmcConstruction::GetVerboseLevel ( )

inline

Definition at line 101 of file BesEmcConstruction.hh.

101{return verboseLevel;};

Referenced by BesCrystalParameterisation::ComputeIDAndSide(), and BesEmcDetectorMessenger::GetCurrentValue().

◆ PrintEMCParameters()

void BesEmcConstruction::PrintEMCParameters ( )

Definition at line 1725 of file BesEmcConstruction.cc.

{
  G4cout << "-------------------------------------------------------"<< G4endl
    << "---> There are "
    << phiNbCrystals << "(max=" << (*besEMCGeometry).BSCNbPhi
    << ") crystals along phi direction and "
    << thetaNbCrystals << "(max=" << (*besEMCGeometry).BSCNbTheta
    << ") crystals along theta direction."<< G4endl
    << "The crystals have sizes of "
    << (*besEMCGeometry).BSCCryLength/cm << "cm(L) and "
    << (*besEMCGeometry).BSCYFront/cm << "cm(Y) with " 
    << fCrystalMaterial->GetName() <<"."<< G4endl
    << "The casing is layer of "
    << (*besEMCGeometry).fTyvekThickness/mm << "mm tyvek,"
    << (*besEMCGeometry).fAlThickness/mm << "mm aluminum and"
    << (*besEMCGeometry).fMylarThickness/mm << "mm mylar."<< G4endl
    << "-------------------------------------------------------"<< G4endl;
  G4cout << G4Material::GetMaterial("PolyethyleneTerephthlate") << G4endl
    << G4Material::GetMaterial("Casing") << G4endl
    << G4Material::GetMaterial("Polyethylene") << G4endl
    << "-------------------------------------------------------"<< G4endl;
}

Referenced by Construct(), SetCasingMaterial(), and SetCrystalMaterial().

◆ RotAngleFromNewZ()

Hep3Vector BesEmcConstruction::RotAngleFromNewZ ( Hep3Vector newZ )

Definition at line 1920 of file BesEmcConstruction.cc.

{
  newZ.setMag(1.0);
  Hep3Vector x0(1, 0, 0), y0(0, 1, 0), z0(0, 0, 1);
  double dx, dy, dz = 0.0; 
 
  Hep3Vector a(0.0, newZ.y(), newZ.z());
  // three rotated angles, rotate dx angles(rad) by X axis,
  // then rotate dy by new Y axis, then dz by new Z axis;
  // all rotate in left hand system;
 
  // a, project of final newZ on original YZ plane, 0 <= theta < pi;
  if(a.mag() != 0.0) a.setMag(1.0);
  else cout << "newZ on X axis, a=(0,0,0)" << endl;
  dx = acos(a.dot(z0));
  if(a.dot(z0) == -1.0) dx = 0.0;
 
  // b, rotate dx angle of z0 around original X axis(x0), 
  Hep3Vector b(0, sin(dx), cos(dx));
  dy = acos(b.dot(newZ));
  if(newZ.x() > 0.0) dy = -dy;
 
  Hep3Vector v(dx, dy, dz);
  return v;
}

Referenced by TransformToArb8().

◆ SetBSCCrystalLength()

void BesEmcConstruction::SetBSCCrystalLength ( G4double val )

Definition at line 1813 of file BesEmcConstruction.cc.

{
  (*besEMCGeometry).BSCCryLength = val;
}

Referenced by BesEmcDetectorMessenger::SetNewValue().

◆ SetBSCNbPhi()

void BesEmcConstruction::SetBSCNbPhi ( G4int val )

Definition at line 1793 of file BesEmcConstruction.cc.

{
  (*besEMCGeometry).BSCNbPhi = val;
}

Referenced by BesEmcDetectorMessenger::SetNewValue().

◆ SetBSCNbTheta()

void BesEmcConstruction::SetBSCNbTheta ( G4int val )

Definition at line 1800 of file BesEmcConstruction.cc.

{
  (*besEMCGeometry).BSCNbTheta = val;
}

Referenced by BesEmcDetectorMessenger::SetNewValue().

◆ SetBSCPosition0()

void BesEmcConstruction::SetBSCPosition0 ( G4double val )

Definition at line 1834 of file BesEmcConstruction.cc.

{
  (*besEMCGeometry).BSCPosition0 = val;
}

◆ SetBSCPosition1()

void BesEmcConstruction::SetBSCPosition1 ( G4double val )

Definition at line 1841 of file BesEmcConstruction.cc.

{
  (*besEMCGeometry).BSCPosition1 = val;
}

◆ SetBSCRmin()

void BesEmcConstruction::SetBSCRmin ( G4double val )

Definition at line 1786 of file BesEmcConstruction.cc.

{
  (*besEMCGeometry).BSCRmin = val;
}

Referenced by BesEmcDetectorMessenger::SetNewValue().

◆ SetBSCYFront()

void BesEmcConstruction::SetBSCYFront ( G4double val )

Definition at line 1827 of file BesEmcConstruction.cc.

{
  (*besEMCGeometry).BSCYFront = val;
}

◆ SetBSCYFront0()

void BesEmcConstruction::SetBSCYFront0 ( G4double val )

Definition at line 1820 of file BesEmcConstruction.cc.

{
  (*besEMCGeometry).BSCYFront0 = val;
}

◆ SetCasingMaterial()

void BesEmcConstruction::SetCasingMaterial ( G4String materialChoice )

Definition at line 1763 of file BesEmcConstruction.cc.

{
  // search the material by its name 
  G4Material* pttoMaterial = G4Material::GetMaterial(materialChoice);  
  if (pttoMaterial)
  {fCasingMaterial = pttoMaterial;
    logicBSCTheta->SetMaterial(pttoMaterial);
    PrintEMCParameters();
  }             
}

Referenced by BesEmcDetectorMessenger::SetNewValue().

◆ SetCasingThickness()

void BesEmcConstruction::SetCasingThickness ( G4ThreeVector val )

Definition at line 1776 of file BesEmcConstruction.cc.

{
  // change Gap thickness and recompute the calorimeter parameters
  (*besEMCGeometry).fTyvekThickness = val('X');
  (*besEMCGeometry).fAlThickness    = val('Y');
  (*besEMCGeometry).fMylarThickness = val('Z');
}  

Referenced by BesEmcDetectorMessenger::SetNewValue().

◆ SetCrystalMaterial()

void BesEmcConstruction::SetCrystalMaterial ( G4String materialChoice )

Definition at line 1750 of file BesEmcConstruction.cc.

{
  // search the material by its name   
  G4Material* pttoMaterial = G4Material::GetMaterial(materialChoice);     
  if (pttoMaterial)
  {fCrystalMaterial = pttoMaterial;
    logicBSCCrystal->SetMaterial(pttoMaterial); 
    PrintEMCParameters();
  }             
}

Referenced by BesEmcDetectorMessenger::SetNewValue().

◆ SetMagField()

void BesEmcConstruction::SetMagField ( G4double fieldValue )

Definition at line 1849 of file BesEmcConstruction.cc.

{
  //apply a global uniform magnetic field along Z axis
  G4FieldManager* fieldMgr 
    = G4TransportationManager::GetTransportationManager()->GetFieldManager();
 
  if(magField) delete magField;     //delete the existing magn field
 
  if(fieldValue!=0.)            // create a new one if non nul
  { magField = new G4UniformMagField(G4ThreeVector(0.,0.,fieldValue));        
    fieldMgr->SetDetectorField(magField);
    fieldMgr->CreateChordFinder(magField);
    fmagField=fieldValue;
  } else {
    magField = 0;
    fieldMgr->SetDetectorField(magField);
    fmagField=0.;
  }
}

Referenced by BesEmcDetectorMessenger::SetNewValue().

◆ SetStartIDTheta()

void BesEmcConstruction::SetStartIDTheta ( G4int val )

Definition at line 1805 of file BesEmcConstruction.cc.

{
  startID = val;
}

Referenced by BesEmcDetectorMessenger::SetNewValue().

◆ SetVerboseLevel()

void BesEmcConstruction::SetVerboseLevel ( G4int val )

inline

Definition at line 69 of file BesEmcConstruction.hh.

69{ verboseLevel=val;}

Referenced by BesEmcDetectorMessenger::SetNewValue().

◆ SetVisAndSD()

void BesEmcConstruction::SetVisAndSD ( )

Definition at line 1405 of file BesEmcConstruction.cc.

{
  //-------------------------------------------------------------
  //Barrel
  G4VisAttributes* bscVisAtt= new G4VisAttributes(G4Colour(0.5,0.5,0.5));
  bscVisAtt->SetVisibility(false);
  logicEMC->SetVisAttributes(bscVisAtt);
  if(logicBSCWorld)
    logicBSCWorld->SetVisAttributes(G4VisAttributes::Invisible);
 
  if (logicBSCCrystal) {
    //G4cout<<"find BSCCrystal "<<G4endl;
    G4VisAttributes* crystalVisAtt= new G4VisAttributes(G4Colour(0,0,1.0));
    crystalVisAtt->SetVisibility(true);
    logicBSCCrystal->SetVisAttributes(crystalVisAtt);
    logicBSCCrystal->SetSensitiveDetector(besEMCSD);
  }
 
  if(logicBSCPhi) {
    G4VisAttributes* rightVisAtt= new G4VisAttributes(G4Colour(1.0,0.,1.0));
    rightVisAtt->SetVisibility(false);
    logicBSCPhi->SetVisAttributes(rightVisAtt);
  }
 
  if(logicRear)
    logicRear->SetVisAttributes(G4VisAttributes::Invisible);
  if(logicOrgGlass)
    logicOrgGlass->SetVisAttributes(G4VisAttributes::Invisible);
  if(logicRearCasing)
    logicRearCasing->SetVisAttributes(G4VisAttributes::Invisible);
  if(logicAlPlate) 
    logicAlPlate->SetVisAttributes(G4VisAttributes::Invisible);
  if(logicPD) {
    logicPD->SetVisAttributes(G4VisAttributes::Invisible);
    logicPD->SetSensitiveDetector(besEMCSD);
  }
  if(logicPreAmpBox)
    logicPreAmpBox->SetVisAttributes(G4VisAttributes::Invisible);
  if(logicAirInPABox)
    logicAirInPABox->SetVisAttributes(G4VisAttributes::Invisible);
  if(logicHangingPlate)
    logicHangingPlate->SetVisAttributes(G4VisAttributes::Invisible);
  if(logicWaterPipe)
    logicWaterPipe->SetVisAttributes(G4VisAttributes::Invisible);
 
  //-------------------------------------------------------------
  //Support system
  G4VisAttributes* ringVisAtt= new G4VisAttributes(G4Colour(0.5,0.25,0.));
  ringVisAtt->SetVisibility(false);
  if(logicSupportBar)
    logicSupportBar->SetVisAttributes(ringVisAtt);
  if(logicSupportBar1)
    logicSupportBar1->SetVisAttributes(ringVisAtt);
  if(logicEndRing)
    logicEndRing->SetVisAttributes(ringVisAtt);
  if(logicGear)
    logicGear->SetVisAttributes(ringVisAtt);
  if(logicTaperRing1)
    logicTaperRing1->SetVisAttributes(ringVisAtt);
  if(logicTaperRing2)
    logicTaperRing2->SetVisAttributes(ringVisAtt);
  if(logicTaperRing3)
    logicTaperRing3->SetVisAttributes(ringVisAtt);
 
  //-------------------------------------------------------------
  //Endcap
  G4VisAttributes* endPhiVisAtt= new G4VisAttributes(G4Colour(0,1.0,0));
  endPhiVisAtt->SetVisibility(false);
  if(logicEnd)
    logicEnd->SetVisAttributes(endPhiVisAtt);
}

Referenced by Construct().

◆ ThreeVectorTrans()

void BesEmcConstruction::ThreeVectorTrans	(	G4ThreeVector	fPnt[8],
		double	x[8],
		double	y[8],
		double	z[8] )

Definition at line 1909 of file BesEmcConstruction.cc.

{
  for (int i = 0; i < 8; i++) {
    x[i] = fPnt[i].x();
    y[i] = fPnt[i].y();
    z[i] = fPnt[i].z();
  }
}

◆ TransformToArb8()

void BesEmcConstruction::TransformToArb8	(	const G4ThreeVector	fPnt[8],
		G4ThreeVector	newfPnt[8],
		G4ThreeVector &	center,
		G4ThreeVector &	rotAngle )

Definition at line 1879 of file BesEmcConstruction.cc.

{
  HepPoint3D point[8];
  center = G4ThreeVector(0.0, 0.0, 0.0);
  for (int i = 0; i < 8; i++) {
    point[i] = HepPoint3D( fPnt[i].x(), fPnt[i].y(), fPnt[i].z() );
    center += point[i];
  }
  center /= 8.0;
 
  HepPlane3D bottomPlane( point[4], point[5], point[6] );
  HepPoint3D centerProject = bottomPlane.point( center );
  Hep3Vector newZ = center - centerProject;
 
  rotAngle = RotAngleFromNewZ( newZ );
  G4RotationMatrix *g4Rot = new G4RotationMatrix();
  g4Rot->rotateX( rotAngle.x() );
  g4Rot->rotateY( rotAngle.y() );
 
  G4AffineTransform *transform = new G4AffineTransform( g4Rot, center );
  transform->Invert();
  for (int i = 0; i < 8; i++) {
    newfPnt[i] = transform->TransformPoint(fPnt[i]);
  }
  delete g4Rot;
  delete transform;
}

Referenced by ConstructEndGeometry().

◆ UpdateGeometry()

void BesEmcConstruction::UpdateGeometry ( )

Definition at line 1871 of file BesEmcConstruction.cc.

{
  ;//G4RunManager::GetRunManager()->DefineWorldVolume(BesDetectorConstruction::Construct());
}

Referenced by BesEmcDetectorMessenger::SetNewValue().

The documentation for this class was generated from the following files:

Public Member Functions

Static Public Member Functions

Additional Inherited Members

Detailed Description

Constructor & Destructor Documentation

◆ BesEmcConstruction()

◆ ~BesEmcConstruction()

Member Function Documentation

◆ ComputeEndCopyNb()

◆ Construct()

◆ ConstructEndGeometry()

◆ ConstructSPFrame()

◆ GetBesEmcConstruction()

◆ GetBSCCrystal()

◆ GetBSCPhi()

◆ GetBSCTheta()

◆ GetCasingMaterial()

◆ GetCrystalMaterial()

◆ GetCrystalParam()

◆ GetEMC()

◆ GetLogicalVolume()

◆ GetMagField()

◆ GetStartIDTheta()

◆ GetVerboseLevel()

◆ PrintEMCParameters()

◆ RotAngleFromNewZ()

◆ SetBSCCrystalLength()

◆ SetBSCNbPhi()

◆ SetBSCNbTheta()

◆ SetBSCPosition0()

◆ SetBSCPosition1()

◆ SetBSCRmin()

◆ SetBSCYFront()

◆ SetBSCYFront0()

◆ SetCasingMaterial()

◆ SetCasingThickness()

◆ SetCrystalMaterial()

◆ SetMagField()

◆ SetStartIDTheta()

◆ SetVerboseLevel()

◆ SetVisAndSD()

◆ ThreeVectorTrans()

◆ TransformToArb8()

◆ UpdateGeometry()