#include <Target.h>

Inheritance diagram for Target:

Collaboration diagram for Target:

[legend]

Public Member Functions
	Target (const char name, const Double_t Ydist, Bool_t Active, const char Title="NuTauTarget")

	Target ()

virtual	~Target ()

void	SetDetectorDesign (Int_t Design)

void	MakeNuTargetPassive (Bool_t a)

void	MergeTopBot (Bool_t SingleEmFilm)

void	ConstructGeometry ()

void	SetTargetWallDimension (Double_t WallXDim, Double_t WallYDim, Double_t WallZDim)

void	SetDetectorDimension (Double_t xdim, Double_t ydim, Double_t zdim)

void	SetEmulsionParam (Double_t EmTh, Double_t EmX, Double_t EmY, Double_t PBTh, Double_t EPlW, Double_t LeadTh, Double_t AllPW)

void	SetBrickParam (Double_t BrX, Double_t BrY, Double_t BrZ, Double_t BrPackX, Double_t BrPackY, Double_t BrPackZ, Int_t number_of_plates_)

void	SetCESParam (Double_t RohG, Double_t LayerCESW, Double_t CESW, Double_t CESPack)

void	SetCellParam (Double_t CellW)

void	SetNumberBricks (Double_t col, Double_t row, Double_t wall)

void	SetTTzdimension (Double_t TTZ)

void	SetNumberTargets (Int_t target)

void	SetMagnetConfiguration (Int_t config)

void	SetMagnetHeight (Double_t Y)

void	SetBaseHeight (Double_t Y)

void	SetColumnHeight (Double_t Y)

void	SetCoilUpHeight (Double_t H1)

void	SetCoilDownHeight (Double_t H2)

void	SetMagneticField (Double_t B)

void	SetCenterZ (Double_t z)

void	SetBaseDimension (Double_t X, Double_t Y, Double_t Z)

void	SetPillarDimension (Double_t X, Double_t Y, Double_t Z)

void	DecodeBrickID (Int_t detID, Int_t &NWall, Int_t &NRow, Int_t &NColumn, Int_t &NPlate, Bool_t &EmCES, Bool_t &EmBrick, Bool_t &EmTop)

void	SetHpTParam (Int_t n, Double_t dd, Double_t DZ)

virtual void	Initialize ()

virtual Bool_t	ProcessHits (FairVolume *v=0)

virtual void	Register ()

virtual TClonesArray *	GetCollection (Int_t iColl) const

virtual void	Reset ()

TargetPoint *	AddHit (Int_t trackID, Int_t detID, TVector3 pos, TVector3 mom, Double_t time, Double_t length, Double_t eLoss, Int_t pdgCode)

virtual void	CopyClones (TClonesArray cl1, TClonesArray cl2, Int_t offset)

virtual void	SetSpecialPhysicsCuts ()

virtual void	EndOfEvent ()

virtual void	FinishPrimary ()

virtual void	FinishRun ()

virtual void	BeginPrimary ()

virtual void	PostTrack ()

virtual void	PreTrack ()

virtual void	BeginEvent ()

	Target (const Target &)

Target &	operator= (const Target &)

Public Attributes
ClassDef(Target, 4) private Int_t	fVolumeID
	track index

TLorentzVector	fPos
	volume id

TLorentzVector	fMom
	position at entrance

Double32_t	fTime
	momentum at entrance

Double32_t	fLength
	time

Double32_t	fELoss
	length

TClonesArray *	fTargetPointCollection
	energy loss

Protected Member Functions
Int_t	InitMedium (const char *name)

Protected Attributes
Bool_t	fPassive

Bool_t	fsingleemulsionfilm

Int_t	fDesign

Double_t	fCenterZ

Double_t	fMagnetY

Double_t	fColumnY

Double_t	fMagnetBaseY

Double_t	fCoilH1

Double_t	fCoilH2

Double_t	fField

Int_t	fNCol

Int_t	fNRow

Int_t	fNWall

Int_t	fNTarget

Int_t	number_of_plates

Double_t	XDimension

Double_t	YDimension

Double_t	ZDimension

Double_t	WallXDim

Double_t	WallYDim

Double_t	WallZDim

Double_t	EmulsionThickness

Double_t	EmulsionX

Double_t	EmulsionY

Double_t	PlasticBaseThickness

Double_t	LeadThickness

Double_t	EmPlateWidth

Double_t	AllPlateWidth

Double_t	BrickPackageX

Double_t	BrickPackageY

Double_t	BrickPackageZ

Double_t	CESPackageZ

Double_t	Ydistance

Double_t	BrickZ

Double_t	BrickY

Double_t	BrickX

Double_t	RohacellGap

Double_t	LayerCESWidth

Double_t	CESWidth

Double_t	CellWidth

Double_t	TTrackerZ

Double_t	fBaseX

Double_t	fBaseY

Double_t	fBaseZ

Double_t	fPillarX

Double_t	fPillarY

Double_t	fPillarZ

Double_t	fHpTDistance

Double_t	fHpTDZ

Int_t	fnHpT

Detailed Description

Definition at line 26 of file Target.h.

Constructor & Destructor Documentation

◆ Target() [1/3]

Target::Target	(	const char *	name,
		const Double_t	Ydist,
		Bool_t	Active,
		const char *	Title = `"NuTauTarget"`
	)

Definition at line 81 of file Target.cxx.

  : FairDetector(name, true, ktauTarget),
    fTrackID(-1),
    fVolumeID(-1),
    fPos(),
    fMom(),
    fTime(-1.),
    fLength(-1.),
    fELoss(-1),
    fTargetPointCollection(new TClonesArray("TargetPoint"))
{
  Ydistance = Ydist;
}

◆ Target() [2/3]

Target::Target ( )

Definition at line 68 of file Target.cxx.

  : FairDetector("Target", "",kTRUE),
    fTrackID(-1),
    fVolumeID(-1),
    fPos(),
    fMom(),
    fTime(-1.),
    fLength(-1.),
    fELoss(-1),
    fTargetPointCollection(new TClonesArray("TargetPoint"))
{
}

◆ ~Target()

Target::~Target ( )

virtual

Definition at line 95 of file Target.cxx.

{
  if (fTargetPointCollection) {
    fTargetPointCollection->Delete();
    delete fTargetPointCollection;
  }
}

◆ Target() [3/3]

Target::Target ( const Target & )

Member Function Documentation

◆ AddHit()

TargetPoint * Target::AddHit	(	Int_t	trackID,
		Int_t	detID,
		TVector3	pos,
		TVector3	mom,
		Double_t	time,
		Double_t	length,
		Double_t	eLoss,
		Int_t	pdgCode
	)

This method is an example of how to add your own point of type muonPoint to the clones array

Definition at line 802 of file Target.cxx.

{
  TClonesArray& clref = *fTargetPointCollection;
  Int_t size = clref.GetEntriesFast();
  //cout << "brick hit called"<< pos.z()<<endl;
  return new(clref[size]) TargetPoint(trackID,detID, pos, mom,
                      time, length, eLoss, pdgCode);
}

◆ BeginEvent()

virtual void Target::BeginEvent ( )

inlinevirtual

Definition at line 119 of file Target.h.

119{;}

◆ BeginPrimary()

virtual void Target::BeginPrimary ( )

inlinevirtual

Definition at line 116 of file Target.h.

116{;}

◆ ConstructGeometry()

void Target::ConstructGeometry ( )

Definition at line 272 of file Target.cxx.

{
  // cout << "Design = " << fDesign << endl;
  TGeoVolume *top=gGeoManager->GetTopVolume();
 
  InitMedium("air");
  TGeoMedium *air =gGeoManager->GetMedium("air");    
 
  InitMedium("iron");
  TGeoMedium *Fe =gGeoManager->GetMedium("iron");
    
  InitMedium("CoilAluminium");
  TGeoMedium *Al  = gGeoManager->GetMedium("CoilAluminium");
    
  InitMedium("CoilCopper");
  TGeoMedium *Cu  = gGeoManager->GetMedium("CoilCopper");
    
  InitMedium("PlasticBase");
  TGeoMedium *PBase =gGeoManager->GetMedium("PlasticBase");     
 
  InitMedium("NuclearEmulsion");
  TGeoMedium *NEmu =gGeoManager->GetMedium("NuclearEmulsion");
  
  TGeoMaterial *NEmuMat = NEmu->GetMaterial(); //I need the materials to build the mixture
  TGeoMaterial *PBaseMat = PBase->GetMaterial();
 
  Double_t rho_film = (NEmuMat->GetDensity() * 2 * EmulsionThickness +  PBaseMat->GetDensity() * PlasticBaseThickness)/(2* EmulsionThickness  + PlasticBaseThickness);
  Double_t frac_emu = NEmuMat->GetDensity() * 2 * EmulsionThickness /(NEmuMat->GetDensity() * 2 * EmulsionThickness + PBaseMat->GetDensity() * PlasticBaseThickness);
 
  if (fsingleemulsionfilm) cout<<"TARGET PRINTOUT: Single volume for emulsion film chosen: average density: "<<rho_film<<" fraction in mass of emulsion "<<frac_emu<<endl;
 
  TGeoMixture * emufilmmixture = new TGeoMixture("EmulsionFilmMixture", 2.00); // two nuclear emulsions separated by the plastic base
 
  emufilmmixture->AddElement(NEmuMat,frac_emu);
  emufilmmixture->AddElement(PBaseMat,1. - frac_emu);
  
  TGeoMedium *Emufilm = new TGeoMedium("EmulsionFilm",100,emufilmmixture);
 
  InitMedium("lead");
  TGeoMedium *lead = gGeoManager->GetMedium("lead");
    
  InitMedium("rohacell");
  TGeoMedium *rohacell = gGeoManager->GetMedium("rohacell");
 
  InitMedium("Concrete");
  TGeoMedium *Conc =gGeoManager->GetMedium("Concrete");
 
  InitMedium("steel");
  TGeoMedium *Steel =gGeoManager->GetMedium("steel");
 
  Int_t NPlates = number_of_plates; //Number of doublets emulsion + Pb
  Int_t NRohacellGap = 2;
 
  //Definition of the target box containing emulsion bricks + (CES if fDesign = 0 o 1) + target trackers (TT) 
  TGeoBBox *TargetBox = new TGeoBBox("TargetBox",XDimension/2, YDimension/2, ZDimension/2);
  TGeoVolume *volTarget = new TGeoVolume("volTarget",TargetBox, air);
      
  // In both fDesign=0 & fDesign=1 the emulsion target is inserted within a magnet
  if(fDesign!=2)
    {
      TGeoVolume *MagnetVol;
 
      //magnetic field in target
      TGeoUniformMagField *magField2 = new TGeoUniformMagField(); 
 
      if(fDesign==1) //TP
    {
      magField2->SetFieldValue(fField,0,0.);
      MagnetVol=gGeoManager->GetVolume("Davide");
    }
      if(fDesign==0) //NEW
    {
      MagnetVol=gGeoManager->GetVolume("Goliath");
      magField2->SetFieldValue(0.,fField,0.);
    }
      if(fDesign==3)
    {
      magField2->SetFieldValue(fField,0,0.);
      MagnetVol=gGeoManager->GetVolume("NudetMagnet");
    }
 
      //Definition of the target box containing emulsion bricks + CES + target trackers (TT) 
      if (fDesign != 3) volTarget->SetField(magField2);
      volTarget->SetVisibility(1);
      volTarget->SetVisDaughters(1);
      if(fDesign==0) //TP
    MagnetVol->AddNode(volTarget,1,new TGeoTranslation(0,-fMagnetY/2+fColumnY+fCoilH2+YDimension/2,0));
      if(fDesign==1) //NEW
    MagnetVol->AddNode(volTarget,1,new TGeoTranslation(0,-fMagnetY/2+fColumnY+YDimension/2,0));
      if(fDesign==3){        
        TGeoVolume *volMagRegion=gGeoManager->GetVolume("volMagRegion");     
        Double_t ZDimMagnetizedRegion = ((TGeoBBox*) volMagRegion->GetShape())->GetDZ() * 2.; //n.d.r. DZ is the semidimension         
        for (int i = 0; i < fNTarget; i++){
         volMagRegion->AddNode(volTarget,i+1,new TGeoTranslation(0,0, -ZDimMagnetizedRegion/2 + ZDimension/2. + i*(ZDimension + 3 * fHpTDZ + 2* fHpTDistance)));
        }
       }
    }
 
    
    
    
    
 
    
  //
  //Volumes definition
  //
   
  TGeoBBox *Cell = new TGeoBBox("cell", BrickX/2, BrickY/2, CellWidth/2);
  TGeoVolume *volCell = new TGeoVolume("Cell",Cell,air);
    
  //Brick
  TGeoBBox *Brick = new TGeoBBox("brick", BrickX/2, BrickY/2, BrickZ/2);
  TGeoVolume *volBrick = new TGeoVolume("Brick",Brick,air);
  volBrick->SetLineColor(kCyan);
  volBrick->SetTransparency(1);   
    
  TGeoBBox *Lead = new TGeoBBox("Pb", EmulsionX/2, EmulsionY/2, LeadThickness/2);
  TGeoVolume *volLead = new TGeoVolume("Lead",Lead,lead);
  volLead->SetTransparency(1);
  volLead->SetLineColor(kGray);
  //volLead->SetField(magField2);
    
  for(Int_t n=0; n<NPlates; n++)
    {
      volBrick->AddNode(volLead, n, new TGeoTranslation(0,0,-BrickZ/2+BrickPackageZ/2+ EmPlateWidth + LeadThickness/2 + n*AllPlateWidth)); //LEAD
    }
  if (fsingleemulsionfilm){  //simplified configuration, unique sensitive layer for the whole emulsion plate
   TGeoBBox *EmulsionFilm = new TGeoBBox("EmulsionFilm", EmulsionX/2, EmulsionY/2, EmPlateWidth/2);
   TGeoVolume *volEmulsionFilm = new TGeoVolume("Emulsion",EmulsionFilm,Emufilm); //TOP
   volEmulsionFilm->SetLineColor(kBlue);
 
   if(fPassive==0)
    {
      AddSensitiveVolume(volEmulsionFilm);
    }
    
   for(Int_t n=0; n<NPlates+1; n++)
    {
      volBrick->AddNode(volEmulsionFilm, n, new TGeoTranslation(0,0,-BrickZ/2+BrickPackageZ/2+ EmPlateWidth/2 + n*AllPlateWidth));
    }
   }
  else { //more accurate configuration, two emulsion films divided by a plastic base
   TGeoBBox *EmulsionFilm = new TGeoBBox("EmulsionFilm", EmulsionX/2, EmulsionY/2, EmulsionThickness/2);
   TGeoVolume *volEmulsionFilm = new TGeoVolume("Emulsion",EmulsionFilm,NEmu); //TOP
   TGeoVolume *volEmulsionFilm2 = new TGeoVolume("Emulsion2",EmulsionFilm,NEmu); //BOTTOM
   volEmulsionFilm->SetLineColor(kBlue);
   volEmulsionFilm2->SetLineColor(kBlue);
 
   if(fPassive==0)
     {
       AddSensitiveVolume(volEmulsionFilm);
       AddSensitiveVolume(volEmulsionFilm2);
     }
   TGeoBBox *PlBase = new TGeoBBox("PlBase", EmulsionX/2, EmulsionY/2, PlasticBaseThickness/2);
   TGeoVolume *volPlBase = new TGeoVolume("PlasticBase",PlBase,PBase);
   volPlBase->SetLineColor(kYellow-4);
   for(Int_t n=0; n<NPlates+1; n++)
    {
      volBrick->AddNode(volEmulsionFilm2, n, new TGeoTranslation(0,0,-BrickZ/2+BrickPackageZ/2+ EmulsionThickness/2 + n*AllPlateWidth)); //BOTTOM
      volBrick->AddNode(volEmulsionFilm, n, new TGeoTranslation(0,0,-BrickZ/2+BrickPackageZ/2+3*EmulsionThickness/2+PlasticBaseThickness+n*AllPlateWidth)); //TOP
      volBrick->AddNode(volPlBase, n, new TGeoTranslation(0,0,-BrickZ/2+BrickPackageZ/2+EmulsionThickness+PlasticBaseThickness/2+n*AllPlateWidth)); //PLASTIC BASE
    }    
 }
    
  volBrick->SetVisibility(kTRUE);
 
  //The CES is required only in the option with magnet surrounding the emulsion target
  if(fDesign!=2)
    {    
      //CES
   
      TGeoBBox *CES = new TGeoBBox("ces", EmulsionX/2, EmulsionY/2, CESWidth/2);
      TGeoVolume *volCES = new TGeoVolume("CES", CES, air);
      volCES->SetTransparency(5);
      volCES->SetLineColor(kYellow-10);
      volCES->SetVisibility(kTRUE);
    
      TGeoBBox *RohGap = new TGeoBBox("RohGap", EmulsionX/2, EmulsionY/2, RohacellGap/2);
      TGeoVolume *volRohGap = new TGeoVolume("RohacellGap",RohGap,air); //using AIR for CES, not rohacell
      volRohGap->SetTransparency(1);
      volRohGap->SetLineColor(kYellow);
    
      for(Int_t n=0; n<NRohacellGap; n++)
    {
      volCES->AddNode(volRohGap, n, new TGeoTranslation(0,0,-CESWidth/2 +CESPackageZ/2+  EmPlateWidth + RohacellGap/2 + n*LayerCESWidth)); //ROHACELL
    }
      if(fsingleemulsionfilm){ //simplified configuration, unique sensitive layer for the whole emulsion plate
       TGeoBBox *EmulsionFilmCES = new TGeoBBox("EmulsionFilmCES", EmulsionX/2, EmulsionY/2, EmPlateWidth/2);
       TGeoVolume *volEmulsionFilmCES = new TGeoVolume("EmulsionCES",EmulsionFilmCES,Emufilm); //TOP
       volEmulsionFilmCES->SetLineColor(kBlue);
       if(fPassive==0)
    {
      AddSensitiveVolume(volEmulsionFilmCES);
    }
    
       for(Int_t n=0; n<NRohacellGap+1;n++)
    {
      volCES->AddNode(volEmulsionFilmCES,n, new TGeoTranslation(0,0,-CESWidth/2+CESPackageZ/2+EmPlateWidth/2+n*LayerCESWidth)); 
    }
 
      }
      else{ //more accurate configuration, two emulsion films divided by a plastic base
    
       TGeoBBox *EmulsionFilmCES = new TGeoBBox("EmulsionFilmCES", EmulsionX/2, EmulsionY/2, EmulsionThickness/2);
       TGeoVolume *volEmulsionFilmCES = new TGeoVolume("EmulsionCES",EmulsionFilmCES,NEmu); //TOP
       TGeoVolume *volEmulsionFilm2CES = new TGeoVolume("Emulsion2CES",EmulsionFilmCES,NEmu); //BOTTOM
       volEmulsionFilmCES->SetLineColor(kBlue);
       volEmulsionFilm2CES->SetLineColor(kBlue);
       if(fPassive==0)
    {
      AddSensitiveVolume(volEmulsionFilmCES);
      AddSensitiveVolume(volEmulsionFilm2CES);
    }
       //CES PLASTIC BASE
       TGeoBBox *PlBaseCES = new TGeoBBox("PlBaseCES", EmulsionX/2, EmulsionY/2, PlasticBaseThickness/2);
       TGeoVolume *volPlBaseCES = new TGeoVolume("PlasticBaseCES",PlBaseCES,PBase);
       volPlBaseCES->SetLineColor(kYellow);
       for(Int_t n=0; n<NRohacellGap+1;n++)
    {
      volCES->AddNode(volEmulsionFilm2CES,n, new TGeoTranslation(0,0,-CESWidth/2+CESPackageZ/2+EmulsionThickness/2+n*LayerCESWidth)); //BOTTOM
      volCES->AddNode(volEmulsionFilmCES, n, new TGeoTranslation(0,0,-CESWidth/2+CESPackageZ/2+3*EmulsionThickness/2+PlasticBaseThickness+n*LayerCESWidth)); //TOP
      volCES->AddNode(volPlBaseCES, n, new TGeoTranslation(0,0,-CESWidth/2+CESPackageZ/2+EmulsionThickness+PlasticBaseThickness/2+n*LayerCESWidth)); //PLASTIC BASE
      //    if(n == 2)
      // cout << "-CESWidth/2+3*EmulsionThickness/2+PlasticBaseThickness+n*LayerCESWidth = " << -CESWidth/2+3*EmulsionThickness/2+PlasticBaseThickness+n*LayerCESWidth << endl;
       }
 
      }
    
      volCell->AddNode(volBrick,1,new TGeoTranslation(0,0,-CellWidth/2 + BrickZ/2));
      volCell->AddNode(volCES,1,new TGeoTranslation(0,0,-CellWidth/2 + BrickZ + CESWidth/2));
 
      TGeoBBox *Row = new TGeoBBox("row",XDimension/2, BrickY/2, CellWidth/2);
      TGeoVolume *volRow = new TGeoVolume("Row",Row,air);
      volRow->SetLineColor(20);
    
      Double_t d_cl_x = -WallXDim/2;
      for(int j= 0; j < fNCol; j++)
    {
      volRow->AddNode(volCell,j,new TGeoTranslation(d_cl_x+BrickX/2, 0, 0));
      d_cl_x += BrickX;
    }
 
      TGeoBBox *Wall = new TGeoBBox("wall",XDimension/2, YDimension/2, CellWidth/2);
      TGeoVolume *volWall = new TGeoVolume("Wall",Wall,air);
    
      Double_t d_cl_y = -WallYDim/2;
      for(int k= 0; k< fNRow; k++)
    {
      volWall->AddNode(volRow,k,new TGeoTranslation(0, d_cl_y + BrickY/2, 0));
        
      // 2mm is the distance for the structure that holds the brick
      d_cl_y += BrickY + Ydistance;
    }
    
      //Columns
       
      Double_t d_cl_z = - ZDimension/2 + TTrackerZ;
      Double_t d_tt = -ZDimension/2 + TTrackerZ/2;
 
      for(int l = 0; l < fNWall; l++)
    {
      volTarget->AddNode(volWall,l,new TGeoTranslation(0, 0, d_cl_z +CellWidth/2));
        
      //6 cm is the distance between 2 columns of consecutive Target for TT placement
      d_cl_z += CellWidth + TTrackerZ;
    }
    }
 
 
  //in fDesign==2 the emulsion target is not surrounded by a magnet => no magnetic field inside
  //In the no Magnetic field option, no CES is needed => only brick walls + TT
  if(fDesign==2)
    {
      EmulsionMagnet emuMag;
 
      TGeoVolume *tTauNuDet = gGeoManager->GetVolume("tTauNuDet");  
      cout<< "Tau Nu Detector fMagnetConfig: "<< fDesign<<endl;
    
      tTauNuDet->AddNode(volTarget,1,new TGeoTranslation(0,0,fCenterZ));
    
      TGeoBBox *Row = new TGeoBBox("row",XDimension/2, BrickY/2, CellWidth/2);
      TGeoVolume *volRow = new TGeoVolume("Row",Row,air);
      volRow->SetLineColor(20);
    
      Double_t d_cl_x = -WallXDim/2;
      for(int j= 0; j < fNCol; j++)
    {
      volRow->AddNode(volBrick,j,new TGeoTranslation(d_cl_x+BrickX/2, 0, 0));
      d_cl_x += BrickX;
    }
      TGeoBBox *Wall = new TGeoBBox("wall",XDimension/2, YDimension/2, BrickZ/2);
      TGeoVolume *volWall = new TGeoVolume("Wall",Wall,air);
    
      Double_t d_cl_y = -WallYDim/2;
      for(int k= 0; k< fNRow; k++)
    {
      volWall->AddNode(volRow,k,new TGeoTranslation(0, d_cl_y + BrickY/2, 0));
        
      // 2mm is the distance for the structure that holds the brick
      d_cl_y += BrickY + Ydistance;
    }
       //Columns
       
      Double_t d_cl_z = - ZDimension/2 + TTrackerZ;
      Double_t d_tt = -ZDimension/2 + TTrackerZ/2;
 
      for(int l = 0; l < fNWall; l++)
    {
      volTarget->AddNode(volWall,l,new TGeoTranslation(0, 0, d_cl_z +BrickZ/2));
        
      //6 cm is the distance between 2 columns of consecutive Target for TT placement
      d_cl_z += BrickZ + TTrackerZ;
    }
      
      TGeoBBox *Base = new TGeoBBox("Base", fBaseX/2, fBaseY/2, fBaseZ/2);
      TGeoVolume *volBase = new TGeoVolume("volBase",Base,Conc);
      volBase->SetLineColor(kYellow-3);
      tTauNuDet->AddNode(volBase,1, new TGeoTranslation(0,-WallYDim/2 - fBaseY/2,fCenterZ));
 
      if(fDesign==2)
    {
      TGeoBBox *PillarBox = new TGeoBBox(fPillarX/2,fPillarY/2, fPillarZ/2);
      TGeoVolume *PillarVol = new TGeoVolume("PillarVol",PillarBox,Steel);
      PillarVol->SetLineColor(kGreen+3);
      tTauNuDet->AddNode(PillarVol,1, new TGeoTranslation(-XDimension/2+fPillarX/2,-YDimension/2-fBaseY-fPillarY/2, fCenterZ-ZDimension/2+fPillarZ/2));
      tTauNuDet->AddNode(PillarVol,2, new TGeoTranslation(XDimension/2-fPillarX/2,-YDimension/2-fBaseY-fPillarY/2, fCenterZ-ZDimension/2+fPillarZ/2));
      tTauNuDet->AddNode(PillarVol,3, new TGeoTranslation(-XDimension/2+fPillarX/2,-YDimension/2-fBaseY-fPillarY/2, fCenterZ+ZDimension/2-fPillarZ/2));
      tTauNuDet->AddNode(PillarVol,4, new TGeoTranslation(XDimension/2-fPillarX/2,-YDimension/2-fBaseY-fPillarY/2, fCenterZ+ZDimension/2-fPillarZ/2));
    }
    }
}

◆ CopyClones()

virtual void Target::CopyClones	(	TClonesArray *	cl1,
		TClonesArray *	cl2,
		Int_t	offset
	)

inlinevirtual

The following methods can be implemented if you need to make any optional action in your detector during the transport.

Definition at line 110 of file Target.h.

111 {;}

◆ DecodeBrickID()

void Target::DecodeBrickID	(	Int_t	detID,
		Int_t &	NWall,
		Int_t &	NRow,
		Int_t &	NColumn,
		Int_t &	NPlate,
		Bool_t &	EmCES,
		Bool_t &	EmBrick,
		Bool_t &	EmTop
	)

Definition at line 734 of file Target.cxx.

{
  Bool_t BrickorCES = 0, TopBot = 0;
  
  NWall = detID/1E7;
  NRow = (detID - NWall*1E7)/1E6;
  NColumn = (detID - NWall*1E7 -NRow*1E6)/1E4;
  Double_t b = (detID - NWall*1E7 -NRow*1E6 - NColumn*1E4)/1.E3;
  if(b < 1)
    {
      BrickorCES = 0;
      NPlate = (detID - NWall*1E7 -NRow*1E6 - NColumn*1E4 - BrickorCES*1E3)/1E1;
//      NPlate = detID - NWall*1E7 -NRow*1E6 - NColumn*1E4 - BrickorCES*1E3;
    }
  if(b >= 1)
    {
      BrickorCES = 1;
      NPlate = (detID - NWall*1E7 -NRow*1E6 - NColumn*1E4 - BrickorCES*1E3)/1E1;
//      NPlate = detID - NWall*1E7 -NRow*1E6 - NColumn*1E4 - BrickorCES*1E3;
    }
  EmTop = (detID - NWall*1E7 -NRow*1E6 - NColumn*1E4- BrickorCES*1E3- NPlate*1E1)/1E0;
  if(BrickorCES == 0)
    {
      EmCES = 1; EmBrick =0;
    }
  if(BrickorCES == 1)
    {
      EmBrick = 1; EmCES =0;
    }
  
  // cout << "NPlate = " << NPlate << ";  NColumn = " << NColumn << ";  NRow = " << NRow << "; NWall = " << NWall << endl;
  // cout << "BrickorCES = " << BrickorCES <<endl;
  // cout << "EmCES = " << EmCES << ";    EmBrick = " << EmBick << endl;
  // cout << endl;
}

◆ EndOfEvent()

void Target::EndOfEvent ( )

virtual

Definition at line 771 of file Target.cxx.

{
  fTargetPointCollection->Clear();
}

◆ FinishPrimary()

virtual void Target::FinishPrimary ( )

inlinevirtual

Definition at line 114 of file Target.h.

114{;}

◆ FinishRun()

virtual void Target::FinishRun ( )

inlinevirtual

Definition at line 115 of file Target.h.

115{;}

◆ GetCollection()

TClonesArray * Target::GetCollection ( Int_t iColl ) const

virtual

Gets the produced collections

Definition at line 790 of file Target.cxx.

{
  if (iColl == 0) { return fTargetPointCollection; }
  else { return NULL; }
}

◆ Initialize()

void Target::Initialize ( )

virtual

Initialization of the detector is done here

Definition at line 103 of file Target.cxx.

{
  FairDetector::Initialize();
}

◆ InitMedium()

Int_t Target::InitMedium ( const char * name )

protected

Definition at line 109 of file Target.cxx.

{
  static FairGeoLoader *geoLoad=FairGeoLoader::Instance();
  static FairGeoInterface *geoFace=geoLoad->getGeoInterface();
  static FairGeoMedia *media=geoFace->getMedia();
  static FairGeoBuilder *geoBuild=geoLoad->getGeoBuilder();
    
  FairGeoMedium *ShipMedium=media->getMedium(name);
    
  if (!ShipMedium)
    {
      Fatal("InitMedium","Material %s not defined in media file.", name);
      return -1111;
    }
  TGeoMedium* medium=gGeoManager->GetMedium(name);
  if (medium!=NULL)
    return ShipMedium->getMediumIndex();
  return geoBuild->createMedium(ShipMedium);
}

◆ MakeNuTargetPassive()

void Target::MakeNuTargetPassive ( Bool_t a )

Definition at line 136 of file Target.cxx.

{
  fPassive=a;
}

◆ MergeTopBot()

void Target::MergeTopBot ( Bool_t SingleEmFilm )

Definition at line 141 of file Target.cxx.

{
  fsingleemulsionfilm=SingleEmFilm;
}

◆ operator=()

Target & Target::operator= ( const Target & )

◆ PostTrack()

virtual void Target::PostTrack ( )

inlinevirtual

Definition at line 117 of file Target.h.

117{;}

◆ PreTrack()

virtual void Target::PreTrack ( )

inlinevirtual

Definition at line 118 of file Target.h.

118{;}

◆ ProcessHits()

Bool_t Target::ProcessHits ( FairVolume * v = 0 )

virtual

this method is called for each step during simulation (see FairMCApplication::Stepping())

This method is called from the MC stepping

Definition at line 605 of file Target.cxx.

{
  //Set parameters at entrance of volume. Reset ELoss.
  if ( gMC->IsTrackEntering() ) {
    fELoss  = 0.;
    fTime   = gMC->TrackTime() * 1.0e09;
    fLength = gMC->TrackLength();
    gMC->TrackPosition(fPos);
    gMC->TrackMomentum(fMom);
  }
  // Sum energy loss for all steps in the active volume
  fELoss += gMC->Edep();
    
  // Create muonPoint at exit of active volume
  if ( gMC->IsTrackExiting()    ||
       gMC->IsTrackStop()       ||
       gMC->IsTrackDisappeared()   ) {
    fTrackID  = gMC->GetStack()->GetCurrentTrackNumber();
    //Int_t fTrackID  = gMC->GetStack()->GetCurrentTrackNumber();
    gMC->CurrentVolID(fVolumeID);
    Int_t detID = fVolumeID;
    //gGeoManager->PrintOverlaps();
    
    //cout<< "detID = " << detID << endl;
    Int_t MaxLevel = gGeoManager->GetLevel();
    const Int_t MaxL = MaxLevel;
    //cout << "MaxLevel = " << MaxL << endl;
    //cout << gMC->CurrentVolPath()<< endl;
    
 
    Int_t motherV[MaxL];
//   Bool_t EmTop = 0, EmBot = 0, EmCESTop = 0, EmCESBot = 0;
    Bool_t EmBrick = 0, EmCES = 0, EmTop;
    Int_t NPlate =0;
    const char *name;
    
    name = gMC->CurrentVolName();
    //cout << name << endl;
 
    if(strcmp(name, "Emulsion") == 0)
      {
    EmBrick=1;
    NPlate = detID;
        EmTop=1;
      }
    if(strcmp(name, "Emulsion2") == 0)
      {
    EmBrick=1;
    NPlate = detID;
        EmTop=0;
      }
    if(strcmp(name, "EmulsionCES") == 0)
      {
    EmCES=1;
    NPlate = detID;
        EmTop=1;
      }
    if(strcmp(name, "Emulsion2CES") == 0)
      {
    EmCES=1;
    NPlate = detID;
        EmTop=0;
      }
    
    Int_t  NWall = 0, NColumn =0, NRow =0;
 
    for(Int_t i = 0; i < MaxL;i++)
      {
    motherV[i] = gGeoManager->GetMother(i)->GetNumber();
    const char *mumname = gMC->CurrentVolOffName(i);
    if(motherV[0]==1 && motherV[0]!=detID)
      {
        if(strcmp(mumname, "Brick") == 0 ||strcmp(mumname, "CES") == 0) NColumn = motherV[i];
        if(strcmp(mumname, "Cell") == 0) NRow = motherV[i];
        if(strcmp(mumname, "Row") == 0) NWall = motherV[i];
            if((strcmp(mumname, "Wall") == 0)&& (motherV[i]==2)) NWall += fNWall;
      }
    else
      {
        
        if(strcmp(mumname, "Cell") == 0) NColumn = motherV[i];
        if(strcmp(mumname, "Row") == 0) NRow = motherV[i];
        if(strcmp(mumname, "Wall") == 0) NWall = motherV[i];
             if((strcmp(mumname, "volTarget") == 0) && (motherV[i]==2)) NWall += fNWall;
      }
    //cout << i << "   " << motherV[i] << "    name = " << mumname << endl;
      }
    
    Bool_t BrickorCES = 0;   //Brick = 1 / CES = 0;
    if(EmBrick==1)
      BrickorCES = 1;
 
    Double_t zEnd = 0, zStart =0;
    
 
    detID = (NWall+1) *1E7 + (NRow+1) * 1E6 + (NColumn+1)*1E4 + BrickorCES *1E3 + (NPlate+1)*1E1 + EmTop*1 ;
 
 
    fVolumeID = detID;
    
    if (fELoss == 0. ) { return kFALSE; }
    TParticle* p=gMC->GetStack()->GetCurrentTrack();
    //Int_t MotherID =gMC->GetStack()->GetCurrentParentTrackNumber();
    Int_t fMotherID =p->GetFirstMother();
    Int_t pdgCode = p->GetPdgCode();
 
    //  cout << "ID = "<< fTrackID << "   pdg = " << pdgCode << ";   M = " << fMotherID << "    Npl = " << NPlate<<";  NCol = " << NColumn << ";  NRow = " << NRow << "; NWall = " << NWall<< "  P = " << fMom.Px() << ", "<< fMom.Py() << ", " << fMom.Pz() << endl;
    
    TLorentzVector Pos; 
    gMC->TrackPosition(Pos); 
    Double_t xmean = (fPos.X()+Pos.X())/2. ;      
    Double_t ymean = (fPos.Y()+Pos.Y())/2. ;      
    Double_t zmean = (fPos.Z()+Pos.Z())/2. ;     
        
   
    AddHit(fTrackID,fVolumeID, TVector3(xmean, ymean,  zmean),
       TVector3(fMom.Px(), fMom.Py(), fMom.Pz()), fTime, fLength,
       fELoss, pdgCode);
    
    // Increment number of muon det points in TParticle
    ShipStack* stack = (ShipStack*) gMC->GetStack();
    stack->AddPoint(ktauTarget);
  }
    
  return kTRUE;
}

◆ Register()

void Target::Register ( )

virtual

Registers the produced collections in FAIRRootManager.

This will create a branch in the output tree called TargetPoint, setting the last parameter to kFALSE means: this collection will not be written to the file, it will exist only during the simulation.

Definition at line 777 of file Target.cxx.

{
    
  FairRootManager::Instance()->Register("TargetPoint", "Target",
                    fTargetPointCollection, kTRUE);
}

◆ Reset()

void Target::Reset ( )

virtual

has to be called after each event to reset the containers

Definition at line 796 of file Target.cxx.

{
  fTargetPointCollection->Clear();
}

◆ SetBaseDimension()

void Target::SetBaseDimension	(	Double_t	X,
		Double_t	Y,
		Double_t	Z
	)

Definition at line 250 of file Target.cxx.

{
  fBaseX=x; 
  fBaseY=y;
  fBaseZ=z;
}

◆ SetBaseHeight()

void Target::SetBaseHeight ( Double_t Y )

Definition at line 225 of file Target.cxx.

{
  fMagnetBaseY=Y;
}

◆ SetBrickParam()

void Target::SetBrickParam	(	Double_t	BrX,
		Double_t	BrY,
		Double_t	BrZ,
		Double_t	BrPackX,
		Double_t	BrPackY,
		Double_t	BrPackZ,
		Int_t	number_of_plates_
	)

Definition at line 186 of file Target.cxx.

{
  BrickPackageX = BrPackX;
  BrickPackageY = BrPackY;
  BrickPackageZ = BrPackZ;
  BrickX = BrX;
  BrickY = BrY;
  BrickZ = BrZ;
  number_of_plates = number_of_plates_;
}

◆ SetCellParam()

void Target::SetCellParam ( Double_t CellW )

Definition at line 205 of file Target.cxx.

{
  CellWidth = CellW;
}

◆ SetCenterZ()

void Target::SetCenterZ ( Double_t z )

Definition at line 245 of file Target.cxx.

{
  fCenterZ = z;
}

◆ SetCESParam()

void Target::SetCESParam	(	Double_t	RohG,
		Double_t	LayerCESW,
		Double_t	CESW,
		Double_t	CESPack
	)

Definition at line 197 of file Target.cxx.

{
  CESPackageZ = CESPack;
  LayerCESWidth = LayerCESW;
  RohacellGap = RohG;
  CESWidth = CESW;
}

◆ SetCoilDownHeight()

void Target::SetCoilDownHeight ( Double_t H2 )

Definition at line 235 of file Target.cxx.

{
  fCoilH2=H2;
}

◆ SetCoilUpHeight()

void Target::SetCoilUpHeight ( Double_t H1 )

Definition at line 230 of file Target.cxx.

{
  fCoilH1=H1;
}

◆ SetColumnHeight()

void Target::SetColumnHeight ( Double_t Y )

Definition at line 220 of file Target.cxx.

{
  fColumnY=Y;
}

◆ SetDetectorDesign()

void Target::SetDetectorDesign ( Int_t Design )

Create the detector geometry

Definition at line 130 of file Target.cxx.

{
  fDesign = Design;
  Info("SetDetectorDesign"," to %i", fDesign);
}

◆ SetDetectorDimension()

void Target::SetDetectorDimension	(	Double_t	xdim,
		Double_t	ydim,
		Double_t	zdim
	)

Definition at line 167 of file Target.cxx.

{
  XDimension = xdim;
  YDimension = ydim;
  ZDimension = zdim;
}

◆ SetEmulsionParam()

void Target::SetEmulsionParam	(	Double_t	EmTh,
		Double_t	EmX,
		Double_t	EmY,
		Double_t	PBTh,
		Double_t	EPlW,
		Double_t	LeadTh,
		Double_t	AllPW
	)

Definition at line 174 of file Target.cxx.

{
  EmulsionThickness = EmTh;
  EmulsionX = EmX;
  EmulsionY = EmY;
  PlasticBaseThickness = PBTh;
  EmPlateWidth = EPlW;
  LeadThickness = LeadTh;
  AllPlateWidth = AllPW;
}

◆ SetHpTParam()

void Target::SetHpTParam	(	Int_t	n,
		Double_t	dd,
		Double_t	DZ
	)

Definition at line 265 of file Target.cxx.

{
 fnHpT = n;
 fHpTDistance = dd;
 fHpTDZ = DZ;
}

◆ SetMagnetConfiguration()

void Target::SetMagnetConfiguration ( Int_t config )

◆ SetMagnetHeight()

void Target::SetMagnetHeight ( Double_t Y )

Definition at line 215 of file Target.cxx.

{
  fMagnetY=Y;
}

◆ SetMagneticField()

void Target::SetMagneticField ( Double_t B )

Definition at line 240 of file Target.cxx.

{
  fField = B;
}

◆ SetNumberBricks()

void Target::SetNumberBricks	(	Double_t	col,
		Double_t	row,
		Double_t	wall
	)

Definition at line 148 of file Target.cxx.

{
  fNCol = col;
  fNRow = row;
  fNWall = wall; 
}

◆ SetNumberTargets()

void Target::SetNumberTargets ( Int_t target )

Definition at line 155 of file Target.cxx.

{
  fNTarget = target;
}

◆ SetPillarDimension()

void Target::SetPillarDimension	(	Double_t	X,
		Double_t	Y,
		Double_t	Z
	)

Definition at line 258 of file Target.cxx.

{
  fPillarX=x; 
  fPillarY=y;
  fPillarZ=z;
}

◆ SetSpecialPhysicsCuts()

virtual void Target::SetSpecialPhysicsCuts ( )

inlinevirtual

Definition at line 112 of file Target.h.

112{;}

◆ SetTargetWallDimension()

void Target::SetTargetWallDimension	(	Double_t	WallXDim,
		Double_t	WallYDim,
		Double_t	WallZDim
	)

Definition at line 160 of file Target.cxx.

{
  WallXDim = WallXDim_;
  WallYDim = WallYDim_;
  WallZDim = WallZDim_;
}

◆ SetTTzdimension()

void Target::SetTTzdimension ( Double_t TTZ )

Definition at line 210 of file Target.cxx.

{
  TTrackerZ = TTZ;
}

Member Data Documentation

◆ AllPlateWidth

Double_t Target::AllPlateWidth

protected

Definition at line 186 of file Target.h.

◆ BrickPackageX

Double_t Target::BrickPackageX

protected

Definition at line 189 of file Target.h.

◆ BrickPackageY

Double_t Target::BrickPackageY

protected

Definition at line 190 of file Target.h.

◆ BrickPackageZ

Double_t Target::BrickPackageZ

protected

Definition at line 191 of file Target.h.

◆ BrickX

Double_t Target::BrickX

protected

Definition at line 198 of file Target.h.

◆ BrickY

Double_t Target::BrickY

protected

Definition at line 197 of file Target.h.

◆ BrickZ

Double_t Target::BrickZ

protected

Definition at line 196 of file Target.h.

◆ CellWidth

Double_t Target::CellWidth

protected

Definition at line 204 of file Target.h.

◆ CESPackageZ

Double_t Target::CESPackageZ

protected

Definition at line 192 of file Target.h.

◆ CESWidth

Double_t Target::CESWidth

protected

Definition at line 202 of file Target.h.

◆ EmPlateWidth

Double_t Target::EmPlateWidth

protected

Definition at line 185 of file Target.h.

◆ EmulsionThickness

Double_t Target::EmulsionThickness

protected

Definition at line 179 of file Target.h.

◆ EmulsionX

Double_t Target::EmulsionX

protected

Definition at line 180 of file Target.h.

◆ EmulsionY

Double_t Target::EmulsionY

protected

Definition at line 181 of file Target.h.

◆ fBaseX

Double_t Target::fBaseX

protected

Definition at line 210 of file Target.h.

◆ fBaseY

Double_t Target::fBaseY

protected

Definition at line 211 of file Target.h.

◆ fBaseZ

Double_t Target::fBaseZ

protected

Definition at line 212 of file Target.h.

◆ fCenterZ

Double_t Target::fCenterZ

protected

Definition at line 153 of file Target.h.

◆ fCoilH1

Double_t Target::fCoilH1

protected

Definition at line 159 of file Target.h.

◆ fCoilH2

Double_t Target::fCoilH2

protected

Definition at line 160 of file Target.h.

◆ fColumnY

Double_t Target::fColumnY

protected

Definition at line 157 of file Target.h.

◆ fDesign

Int_t Target::fDesign

protected

Definition at line 150 of file Target.h.

◆ fELoss

Double32_t Target::fELoss

length

Definition at line 138 of file Target.h.

◆ fField

Double_t Target::fField

protected

Definition at line 163 of file Target.h.

◆ fHpTDistance

Double_t Target::fHpTDistance

protected

Definition at line 218 of file Target.h.

◆ fHpTDZ

Double_t Target::fHpTDZ

protected

Definition at line 219 of file Target.h.

◆ fLength

Double32_t Target::fLength

time

Definition at line 137 of file Target.h.

◆ fMagnetBaseY

Double_t Target::fMagnetBaseY

protected

Definition at line 158 of file Target.h.

◆ fMagnetY

Double_t Target::fMagnetY

protected

Definition at line 156 of file Target.h.

◆ fMom

TLorentzVector Target::fMom

position at entrance

Definition at line 135 of file Target.h.

◆ fNCol

Int_t Target::fNCol

protected

Definition at line 165 of file Target.h.

◆ fnHpT

Int_t Target::fnHpT

protected

Definition at line 220 of file Target.h.

◆ fNRow

Int_t Target::fNRow

protected

Definition at line 166 of file Target.h.

◆ fNTarget

Int_t Target::fNTarget

protected

Definition at line 168 of file Target.h.

◆ fNWall

Int_t Target::fNWall

protected

Definition at line 167 of file Target.h.

◆ fPassive

Bool_t Target::fPassive

protected

Definition at line 148 of file Target.h.

◆ fPillarX

Double_t Target::fPillarX

protected

Definition at line 213 of file Target.h.

◆ fPillarY

Double_t Target::fPillarY

protected

Definition at line 214 of file Target.h.

◆ fPillarZ

Double_t Target::fPillarZ

protected

Definition at line 215 of file Target.h.

◆ fPos

TLorentzVector Target::fPos

volume id

Definition at line 134 of file Target.h.

◆ fsingleemulsionfilm

Bool_t Target::fsingleemulsionfilm

protected

Definition at line 149 of file Target.h.

◆ fTargetPointCollection

TClonesArray* Target::fTargetPointCollection

energy loss

container for data points

Definition at line 141 of file Target.h.

◆ fTime

Double32_t Target::fTime

momentum at entrance

Definition at line 136 of file Target.h.

◆ fVolumeID

ClassDef (Target,4) private Int_t Target::fVolumeID

track index

Track information to be stored until the track leaves the active volume.

Definition at line 133 of file Target.h.

◆ LayerCESWidth

Double_t Target::LayerCESWidth

protected

Definition at line 201 of file Target.h.

◆ LeadThickness

Double_t Target::LeadThickness

protected

Definition at line 184 of file Target.h.

◆ number_of_plates

Int_t Target::number_of_plates

protected

Definition at line 169 of file Target.h.

◆ PlasticBaseThickness

Double_t Target::PlasticBaseThickness

protected

Definition at line 183 of file Target.h.

◆ RohacellGap

Double_t Target::RohacellGap

protected

Definition at line 200 of file Target.h.

◆ TTrackerZ

Double_t Target::TTrackerZ

protected

Definition at line 207 of file Target.h.

◆ WallXDim

Double_t Target::WallXDim

protected

Definition at line 175 of file Target.h.

◆ WallYDim

Double_t Target::WallYDim

protected

Definition at line 176 of file Target.h.

◆ WallZDim

Double_t Target::WallZDim

protected

Definition at line 177 of file Target.h.

◆ XDimension

Double_t Target::XDimension

protected

Definition at line 171 of file Target.h.

◆ YDimension

Double_t Target::YDimension

protected

Definition at line 172 of file Target.h.

◆ Ydistance

Double_t Target::Ydistance

protected

Definition at line 194 of file Target.h.

◆ ZDimension

Double_t Target::ZDimension

protected

Definition at line 173 of file Target.h.

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

nutaudet/Target.h
nutaudet/Target.cxx

Public Member Functions

Public Attributes

Protected Member Functions

Protected Attributes

Detailed Description

Constructor & Destructor Documentation

◆ Target() [1/3]

◆ Target() [2/3]

◆ ~Target()

◆ Target() [3/3]

Member Function Documentation

◆ AddHit()

◆ BeginEvent()

◆ BeginPrimary()

◆ ConstructGeometry()

◆ CopyClones()

◆ DecodeBrickID()

◆ EndOfEvent()

◆ FinishPrimary()

◆ FinishRun()

◆ GetCollection()

◆ Initialize()

◆ InitMedium()

◆ MakeNuTargetPassive()

◆ MergeTopBot()

◆ operator=()

◆ PostTrack()

◆ PreTrack()

◆ ProcessHits()

◆ Register()

◆ Reset()

◆ SetBaseDimension()

◆ SetBaseHeight()

◆ SetBrickParam()

◆ SetCellParam()

◆ SetCenterZ()

◆ SetCESParam()

◆ SetCoilDownHeight()

◆ SetCoilUpHeight()

◆ SetColumnHeight()

◆ SetDetectorDesign()

◆ SetDetectorDimension()

◆ SetEmulsionParam()

◆ SetHpTParam()

◆ SetMagnetConfiguration()

◆ SetMagnetHeight()

◆ SetMagneticField()

◆ SetNumberBricks()

◆ SetNumberTargets()

◆ SetPillarDimension()

◆ SetSpecialPhysicsCuts()

◆ SetTargetWallDimension()

◆ SetTTzdimension()

Member Data Documentation

◆ AllPlateWidth

◆ BrickPackageX

◆ BrickPackageY

◆ BrickPackageZ

◆ BrickX

◆ BrickY

◆ BrickZ

◆ CellWidth

◆ CESPackageZ

◆ CESWidth

◆ EmPlateWidth

◆ EmulsionThickness

◆ EmulsionX

◆ EmulsionY

◆ fBaseX

◆ fBaseY

◆ fBaseZ

◆ fCenterZ

◆ fCoilH1

◆ fCoilH2

◆ fColumnY

◆ fDesign

◆ fELoss

◆ fField

◆ fHpTDistance

◆ fHpTDZ