Local to tracking CS transformation invoked for each EMC rec.point

[u/mrichter/AliRoot.git] / PHOS / AliPHOSv0.cxx

/**************************************************************************
 * Copyright(c) 1998-1999, ALICE Experiment at CERN, All rights reserved. *
 *                                                                        *
 * Author: The ALICE Off-line Project.                                    *
 * Contributors are mentioned in the code where appropriate.              *
 *                                                                        *
 * Permission to use, copy, modify and distribute this software and its   *
 * documentation strictly for non-commercial purposes is hereby granted   *
 * without fee, provided that the above copyright notice appears in all   *
 * copies and that both the copyright notice and this permission notice   *
 * appear in the supporting documentation. The authors make no claims     *
 * about the suitability of this software for any purpose. It is          *
 * provided "as is" without express or implied warranty.                  *
 **************************************************************************/
/* $Id$ */

/* History of cvs commits:
 *
 * $Log$
 * Revision 1.88  2007/04/19 15:28:30  kharlov
 * Modify strip unit geometry according to the final drawings (Timur)
 *
 * Revision 1.87  2007/04/01 07:37:10  kharlov
 * TGeo RS to Local RS transf matr added
 *
 * Revision 1.86  2007/03/06 06:55:46  kharlov
 * DP:Misalignment of CPV added
 *
 * Revision 1.85  2007/03/01 11:37:37  kharlov
 * Strip units changed from 8x1 to 8x2 (T.Pocheptsov)
 *
 * Revision 1.84  2006/12/20 16:56:43  kharlov
 * Optional geometry without CPV
 *
 * Revision 1.83  2006/11/14 17:11:15  hristov
 * Removing inheritances from TAttLine, TAttMarker and AliRndm in AliModule. The copy constructor and assignment operators are moved to the private part of the class and not implemented. The corresponding changes are propagated to the detectors
 *
 * Revision 1.82  2006/09/27 19:55:57  kharlov
 * Alignment object with symbolic volume names are introduced
 *
 * Revision 1.81  2006/03/04 20:25:56  kharlov
 * Set geom parameters from CDB
 *
 * Revision 1.80  2005/06/17 07:39:07  hristov
 * Removing GetDebug and SetDebug from AliRun and AliModule. Using AliLog for the messages
 *
 * Revision 1.79  2005/05/28 14:19:05  schutz
 * Compilation warnings fixed by T.P.
 *
 */

//_________________________________________________________________________
// Implementation version v0 of PHOS Manager class 
// An object of this class does not produce hits nor digits
// It is the one to use if you do not want to produce outputs in TREEH or TREED
//                  
//*-- Author: Yves Schutz (SUBATECH) & Dmitri Peressounko (RRC KI & SUBATECH)


// --- ROOT system ---

#include <TBRIK.h>
#include <TFolder.h>
#include <TGeometry.h>
#include <TNode.h>
#include <TROOT.h>
#include <TRandom.h>
#include <TTRD1.h>
#include <TTree.h>
#include <TVirtualMC.h>
#include <TGeoPhysicalNode.h>
#include <TGeoManager.h>
#include <TVector3.h>

// --- Standard library ---

#include <string.h>
#include <stdlib.h>

// --- AliRoot header files ---

#include "AliConst.h"
#include "AliPHOSGeometry.h"
#include "AliPHOSLoader.h"
#include "AliPHOSv0.h"
#include "AliRun.h"
#include "AliLog.h"

ClassImp(AliPHOSv0)

//____________________________________________________________________________
AliPHOSv0::AliPHOSv0(const char *name, const char *title):
  AliPHOS(name,title)
{
  // ctor : title is used to identify the layout
  GetGeometry() ; 
}

//____________________________________________________________________________
void AliPHOSv0::BuildGeometry()
{
  // Build the PHOS geometry for the ROOT display
  //BEGIN_HTML
  /*
    <H2>
     PHOS in ALICE displayed by root
    </H2>
    <UL>
    <LI> All Views
    <P>
    <CENTER>
    <IMG Align=BOTTOM ALT="All Views" SRC="../images/AliPHOSv0AllViews.gif"> 
    </CENTER></P></LI>
    <LI> Front View
    <P>
    <CENTER>
    <IMG Align=BOTTOM ALT="Front View" SRC="../images/AliPHOSv0FrontView.gif"> 
    </CENTER></P></LI>
     <LI> 3D View 1
    <P>
    <CENTER>
    <IMG Align=BOTTOM ALT="3D View 1" SRC="../images/AliPHOSv03DView1.gif"> 
    </CENTER></P></LI>
    <LI> 3D View 2
    <P>
    <CENTER>
    <IMG Align=BOTTOM ALT="3D View 2" SRC="../images/AliPHOSv03DView2.gif"> 
    </CENTER></P></LI>
    </UL>
  */
  //END_HTML  
  
  this->BuildGeometryforEMC() ; 
  this->BuildGeometryforCPV() ;
  
}

//____________________________________________________________________________
void AliPHOSv0:: BuildGeometryforEMC(void)
{
  // Build the PHOS-EMC geometry for the ROOT display
  
  const Int_t kColorPHOS = kRed ;
  const Int_t kColorXTAL = kBlue ;
  
  Double_t const kRADDEG = 180.0 / TMath::Pi() ;
  
  AliPHOSGeometry * geom = GetGeometry() ; 
  AliPHOSEMCAGeometry * emcg = geom->GetEMCAGeometry() ;
  Float_t * boxparams = emcg->GetEMCParams() ;

  new TTRD1("OuterBox", "PHOS box", "void",boxparams[0],boxparams[1],boxparams[2], boxparams[3] );
  
  
  // Crystals Box
  
  Float_t * cribox = emcg->GetInnerThermoHalfSize() ;  
  new TBRIK( "CrystalsBox", "PHOS crystals box", "void", cribox[0], cribox[2], cribox[1] ) ;
  
  // position PHOS into ALICE
  
  Float_t r = geom->GetIPtoOuterCoverDistance() + boxparams[3] ;
  Int_t number = 988 ; 
  TNode * top = gAlice->GetGeometry()->GetNode("alice") ;
  
  char * nodename = new char[20] ;  
  char * rotname  = new char[20] ; 

  new TRotMatrix("cribox", "cribox", 90, 0, 90, 90, 0, 0);  

  for( Int_t i = 1; i <= geom->GetNModules(); i++ ) { 

    Float_t angle = geom->GetPHOSAngle(i) ;
    sprintf(rotname, "%s%d", "rot", number++) ;
    new TRotMatrix(rotname, rotname, 90, angle, 0,  0,  90,  270 + angle);

    top->cd();
    sprintf(nodename,"%s%d", "Module", i) ;    
    Float_t x =  r * TMath::Sin( angle / kRADDEG ) ;
    Float_t y = -r * TMath::Cos( angle / kRADDEG ) ;
    TNode * outerboxnode = new TNode(nodename, nodename, "OuterBox", x, y, 0, rotname ) ;
    outerboxnode->SetLineColor(kColorPHOS) ;
    fNodes->Add(outerboxnode) ;
    outerboxnode->cd() ; 

    Float_t z = -boxparams[3] - geom->GetIPtoOuterCoverDistance() + 
                 cribox[1] +  geom->GetIPtoCrystalSurface() ;
    TNode * crystalsboxnode = new TNode(nodename, nodename, "CrystalsBox", 0, 0, z) ;    
    crystalsboxnode->SetLineColor(kColorXTAL) ; 
    fNodes->Add(crystalsboxnode) ; 
  }

  delete[] rotname ;  
  delete[] nodename ;
}


//____________________________________________________________________________
void AliPHOSv0:: BuildGeometryforCPV(void)
{
  //  Build the PHOS-CPV geometry for the ROOT display
  //  Author: Yuri Kharlov 11 September 2000
  //
  //BEGIN_HTML
  /*
    <H2>
    CPV displayed by root
    </H2>
    <table width=700>

    <tr>
         <td>CPV perspective view</td>
         <td>CPV front view      </td>
    </tr>

    <tr>
         <td> <img height=300 width=290 src="../images/CPVRootPersp.gif"> </td>
         <td> <img height=300 width=290 src="../images/CPVRootFront.gif"> </td>
    </tr>

    </table>

  */
  //END_HTML  

  const Double_t kRADDEG         = 180.0 / TMath::Pi() ;
  const Int_t    kColorCPV       = kGreen ;
  const Int_t    kColorFrame     = kYellow ;
  const Int_t    kColorGassiplex = kRed;
  const Int_t    kColorPCB       = kCyan;

  AliPHOSGeometry * geom = GetGeometry() ; 

  // Box for a full PHOS module

  new TBRIK ("CPVBox", "CPV box", "void",                   geom->GetCPVBoxSize(0)/2,
                                                            geom->GetCPVBoxSize(1)/2,
	                                                    geom->GetCPVBoxSize(2)/2 );
  new TBRIK ("CPVFrameLR", "CPV frame Left-Right", "void",  geom->GetCPVFrameSize(0)/2,
                                                            geom->GetCPVFrameSize(1)/2,
	                                                    geom->GetCPVBoxSize(2)/2 );
  new TBRIK ("CPVFrameUD", "CPV frame Up-Down",    "void",  geom->GetCPVBoxSize(0)/2 - geom->GetCPVFrameSize(0),
                                                            geom->GetCPVFrameSize(1)/2,
	                                                    geom->GetCPVFrameSize(2)/2);
  new TBRIK ("CPVPCB",    "CPV PCB",               "void",  geom->GetCPVActiveSize(0)/2,
                                                            geom->GetCPVTextoliteThickness()/2,
	                                                    geom->GetCPVActiveSize(1)/2);
  new TBRIK ("CPVGassiplex", "CPV Gassiplex PCB",  "void",  geom->GetGassiplexChipSize(0)/2,
                                                            geom->GetGassiplexChipSize(1)/2,
	                                                    geom->GetGassiplexChipSize(2)/2);

  // position CPV into ALICE

  char * nodename = new char[25] ;
  char * rotname  = new char[25] ;
  
  Float_t r = geom->GetIPtoCPVDistance() + geom->GetCPVBoxSize(1) / 2.0 ;
  Int_t number = 988 ; 
  TNode * top = gAlice->GetGeometry()->GetNode("alice") ;

  Int_t lastModule = 0 ;
  lastModule = geom->GetNModules();
  
  for( Int_t i = 1; i <= lastModule; i++ ) { // the number of PHOS modules
    
    // One CPV module
    
    Float_t angle = geom->GetPHOSAngle(i) ;
    sprintf(rotname, "%s%d", "rotg", number+i) ;
    new TRotMatrix(rotname, rotname, 90, angle, 90, 90 + angle, 0, 0);
    top->cd();
    sprintf(nodename, "%s%d", "CPVModule", i) ;    
    Float_t x =  r * TMath::Sin( angle / kRADDEG ) ;
    Float_t y = -r * TMath::Cos( angle / kRADDEG ) ;
    Float_t z;
    TNode * cpvBoxNode = new TNode(nodename , nodename ,"CPVBox", x, y, 0, rotname ) ;
    cpvBoxNode->SetLineColor(kColorCPV) ;
    fNodes->Add(cpvBoxNode) ;
    cpvBoxNode->cd() ;

    // inside each CPV box:

    // Frame around CPV
    Int_t j;
    for (j=0; j<=1; j++) {
      sprintf(nodename, "CPVModule%d Frame%d", i, j+1) ;
      x = TMath::Sign(1,2*j-1) * (geom->GetCPVBoxSize(0) - geom->GetCPVFrameSize(0)) / 2;
      TNode * cpvFrameNode = new TNode(nodename , nodename ,"CPVFrameLR", x, 0, 0) ;
      cpvFrameNode->SetLineColor(kColorFrame) ;
      fNodes->Add(cpvFrameNode) ;

      sprintf(nodename, "CPVModule%d Frame%d", i, j+3) ;
      z = TMath::Sign(1,2*j-1) * (geom->GetCPVBoxSize(2) - geom->GetCPVFrameSize(2)) / 2;
      cpvFrameNode = new TNode(nodename , nodename ,"CPVFrameUD", 0, 0, z) ;
      cpvFrameNode->SetLineColor(kColorFrame) ;
      fNodes->Add(cpvFrameNode) ;
    }

    // 4 printed circuit boards
    for (j=0; j<4; j++) {
      sprintf(nodename, "CPVModule%d PCB%d", i, j+1) ;
      y = geom->GetCPVFrameSize(1) / 2 - geom->GetFTPosition(j) + geom->GetCPVTextoliteThickness()/2;
      TNode * cpvPCBNode = new TNode(nodename , nodename ,"CPVPCB", 0, y, 0) ;
      cpvPCBNode->SetLineColor(kColorPCB) ;
      fNodes->Add(cpvPCBNode) ;
    }

    // Gassiplex chips
    Float_t xStep = geom->GetCPVActiveSize(0) / (geom->GetNumberOfCPVChipsPhi() + 1);
    Float_t zStep = geom->GetCPVActiveSize(1) / (geom->GetNumberOfCPVChipsZ()   + 1);
    y = geom->GetCPVFrameSize(1)/2           - geom->GetFTPosition(0) +
        geom->GetCPVTextoliteThickness() / 2 + geom->GetGassiplexChipSize(1) / 2 + 0.1;
    for (Int_t ix=0; ix<geom->GetNumberOfCPVChipsPhi(); ix++) {
      x = xStep * (ix+1) - geom->GetCPVActiveSize(0)/2;
      for (Int_t iz=0; iz<geom->GetNumberOfCPVChipsZ(); iz++) {
	z = zStep * (iz+1) - geom->GetCPVActiveSize(1)/2;
	sprintf(nodename, "CPVModule%d Chip(%dx%d)", i, ix+1,iz+1) ;
	TNode * cpvGassiplexNode = new TNode(nodename , nodename ,"CPVGassiplex", x, y, z) ;
	cpvGassiplexNode->SetLineColor(kColorGassiplex) ;
	fNodes->Add(cpvGassiplexNode) ;
      }
    }

  } // PHOS modules
 
  delete[] rotname ;  
  delete[] nodename ; 
}

//____________________________________________________________________________
void AliPHOSv0::CreateGeometry()
{
  // Create the PHOS geometry for Geant

  AliPHOSv0 *phostmp = dynamic_cast<AliPHOSv0*>(gAlice->GetModule("PHOS")) ;

  if ( phostmp == NULL ) {
    
    fprintf(stderr, "PHOS detector not found!\n") ;
    return;
    
  }

  AliPHOSGeometry * geom = GetGeometry() ; 

  // Get pointer to the array containing media indeces
  Int_t *idtmed = fIdtmed->GetArray() - 699 ;

  // Create a PHOS module.
  
  gMC->Gsvolu("PHOS", "TRD1", idtmed[798], geom->GetPHOSParams(), 4) ;        
  
  this->CreateGeometryforEMC() ; 

  if (strstr(fTitle.Data(),"noCPV") == 0) 
    this->CreateGeometryforCPV() ;
  
  this->CreateGeometryforSupport() ; 
  
  // --- Position  PHOS mdules in ALICE setup ---
  
  Int_t idrotm[99] ;
  Int_t iXYZ,iAngle;
  for (Int_t iModule = 0; iModule < geom->GetNModules(); iModule++ ) {
    
    Float_t angle[3][2];
    for (iXYZ=0; iXYZ<3; iXYZ++)
      for (iAngle=0; iAngle<2; iAngle++)
	angle[iXYZ][iAngle] = geom->GetModuleAngle(iModule,iXYZ, iAngle);
    AliMatrix(idrotm[iModule],
	      angle[0][0],angle[0][1],
	      angle[1][0],angle[1][1],
	      angle[2][0],angle[2][1]) ;
    
    Float_t pos[3];
    for (iXYZ=0; iXYZ<3; iXYZ++)
      pos[iXYZ] = geom->GetModuleCenter(iModule,iXYZ);
    gMC->Gspos("PHOS", iModule+1, "ALIC", pos[0], pos[1], pos[2],
	       idrotm[iModule], "ONLY") ;
  }

}

//____________________________________________________________________________
void AliPHOSv0::CreateGeometryforEMC()
{
  // Create the PHOS-EMC geometry for GEANT
  // Author: Dmitri Peressounko August 2001
  // The used coordinate system: 
  //   1. in Module: X along longer side, Y out of beam, Z along shorter side (along beam)
  //   2. In Strip the same: X along longer side, Y out of beam, Z along shorter side (along beam)


    //BEGIN_HTML
  /*
    <H2>
    Geant3 geometry tree of PHOS-EMC in ALICE
    </H2>
    <P><CENTER>
    <IMG Align=BOTTOM ALT="EMC geant tree" SRC="../images/EMCinAlice.gif"> 
    </CENTER><P>
  */
  //END_HTML  
  
  // Get pointer to the array containing media indexes
  Int_t *idtmed = fIdtmed->GetArray() - 699 ;

  AliPHOSGeometry * geom = GetGeometry() ; 
  AliPHOSEMCAGeometry * emcg = geom->GetEMCAGeometry() ;

  // ======= Define the strip ===============

  gMC->Gsvolu("PSTR", "BOX ", idtmed[716], emcg->GetStripHalfSize(), 3) ;  //Made of stell
   
      // --- define steel volume (cell of the strip unit)
      gMC->Gsvolu("PCEL", "BOX ", idtmed[716], emcg->GetSteelCellHalfSize(), 3);

      // --- define wrapped crystal and put it into steel cell

      gMC->Gsvolu("PWRA", "BOX ", idtmed[702], emcg->GetWrappedHalfSize(), 3);
      Float_t * pin = emcg->GetAPDHalfSize() ; 
      Float_t * preamp = emcg->GetPreampHalfSize() ;
      Float_t y = (emcg->GetAirGapLed()-2*pin[1]-2*preamp[1])/2;
      gMC->Gspos("PWRA", 1, "PCEL", 0.0, y, 0.0, 0, "ONLY") ;
    
      // --- Define crystal and put it into wrapped crystall ---
      gMC->Gsvolu("PXTL", "BOX ", idtmed[699], emcg->GetCrystalHalfSize(), 3) ;
      gMC->Gspos("PXTL", 1, "PWRA", 0.0, 0.0, 0.0, 0, "ONLY") ;
      
      // --- define APD/PIN preamp and put it into AirCell
 
      gMC->Gsvolu("PPIN", "BOX ", idtmed[705], emcg->GetAPDHalfSize(), 3) ;
      Float_t * crystal = emcg->GetCrystalHalfSize() ;
      y = crystal[1] + emcg->GetAirGapLed() /2 - preamp[1]; 
      gMC->Gspos("PPIN", 1, "PCEL", 0.0, y, 0.0, 0, "ONLY") ;

      gMC->Gsvolu("PREA", "BOX ", idtmed[711], emcg->GetPreampHalfSize(), 3) ;   // Here I assumed preamp
                                                                                 // as a printed Circuit
      y = crystal[1] + emcg->GetAirGapLed() /2 + pin[1]  ;                  // May it should be changed
      gMC->Gspos("PREA", 1, "PCEL", 0.0, y, 0.0, 0, "ONLY") ;                    // to ceramics?
   

      // --- Fill strip with wrapped cristals in steel cells

      Float_t* splate = emcg->GetSupportPlateHalfSize();  
      y = -splate[1] ;
      Float_t* acel = emcg->GetSteelCellHalfSize() ;

      for(Int_t lev = 2, icel = 1; icel <= emcg->GetNCellsXInStrip()*emcg->GetNCellsZInStrip(); icel += 2, lev += 2){
         Float_t x = (2*(lev / 2) - 1 - emcg->GetNCellsXInStrip())* acel[0] ;
         Float_t z = acel[2];
         gMC->Gspos("PCEL", icel, "PSTR", x, y, +z, 0, "ONLY") ;
         gMC->Gspos("PCEL", icel + 1, "PSTR", x, y, -z, 0, "ONLY") ;
      }

      // --- define the support plate, hole in it and position it in strip ----
      gMC->Gsvolu("PSUP", "BOX ", idtmed[701], emcg->GetSupportPlateHalfSize(), 3) ;

      gMC->Gsvolu("PSHO", "BOX ", idtmed[798], emcg->GetSupportPlateInHalfSize(), 3) ;
      Float_t z = emcg->GetSupportPlateThickness()/2 ;
      gMC->Gspos("PSHO", 1, "PSUP", 0.0, 0.0, z, 0, "ONLY") ;

      y = acel[1] ;
      gMC->Gspos("PSUP", 1, "PSTR", 0.0, y, 0.0, 0, "ONLY") ;


    // ========== Fill module with strips and put them into inner thermoinsulation=============
      gMC->Gsvolu("PTII", "BOX ", idtmed[706], emcg->GetInnerThermoHalfSize(), 3) ;     

      Float_t * inthermo = emcg->GetInnerThermoHalfSize() ;
      Float_t * strip = emcg->GetStripHalfSize() ;
      y = inthermo[1] - strip[1] ;
      Int_t irow;
      Int_t nr = 1 ;
      Int_t icol ;

      for(irow = 0; irow < emcg->GetNStripX(); irow ++){
	Float_t x = (2*irow + 1 - emcg->GetNStripX())* strip[0] ;
	for(icol = 0; icol < emcg->GetNStripZ(); icol ++){
	  z = (2*icol + 1 - emcg->GetNStripZ()) * strip[2] ;
	  gMC->Gspos("PSTR", nr, "PTII", x, y, z, 0, "ONLY") ;
	  nr++ ;
	}
      }
	  

   // ------- define the air gap between thermoinsulation and cooler
      gMC->Gsvolu("PAGA", "BOX ", idtmed[798], emcg->GetAirGapHalfSize(), 3) ;   
      Float_t * agap = emcg->GetAirGapHalfSize() ;
      y = agap[1] - inthermo[1]  ;
      
      gMC->Gspos("PTII", 1, "PAGA", 0.0, y, 0.0, 0, "ONLY") ;



   // ------- define the Al passive cooler 
      gMC->Gsvolu("PCOR", "BOX ", idtmed[701], emcg->GetCoolerHalfSize(), 3) ;   
      Float_t * cooler = emcg->GetCoolerHalfSize() ;
      y = cooler[1] - agap[1]  ;
      
      gMC->Gspos("PAGA", 1, "PCOR", 0.0, y, 0.0, 0, "ONLY") ;

   // ------- define the outer thermoinsulating cover
      gMC->Gsvolu("PTIO", "TRD1", idtmed[706], emcg->GetOuterThermoParams(), 4) ;        
      Float_t * outparams = emcg->GetOuterThermoParams() ; 

      Int_t idrotm[99] ;
      AliMatrix(idrotm[1], 90.0, 0.0, 0.0, 0.0, 90.0, 270.0) ;
      // Frame in outer thermoinsulation and so on: z out of beam, y along beam, x across beam
 
      z = outparams[3] - cooler[1] ;
      gMC->Gspos("PCOR", 1, "PTIO", 0., 0.0, z, idrotm[1], "ONLY") ;
       
  // -------- Define the outer Aluminium cover -----
      gMC->Gsvolu("PCOL", "TRD1", idtmed[701], emcg->GetAlCoverParams(), 4) ;        
      Float_t * covparams = emcg->GetAlCoverParams() ; 
      z = covparams[3] - outparams[3] ;
      gMC->Gspos("PTIO", 1, "PCOL", 0., 0.0, z, 0, "ONLY") ;

 // --------- Define front fiberglass cover -----------
      gMC->Gsvolu("PFGC", "BOX ", idtmed[717], emcg->GetFiberGlassHalfSize(), 3) ;  
      z = - outparams[3] ;
      gMC->Gspos("PFGC", 1, "PCOL", 0., 0.0, z, 0, "ONLY") ;

 //=============This is all with cold section==============


      //------ Warm Section --------------
      gMC->Gsvolu("PWAR", "BOX ", idtmed[701], emcg->GetWarmAlCoverHalfSize(), 3) ; 
      Float_t * warmcov = emcg->GetWarmAlCoverHalfSize() ;

      // --- Define the outer thermoinsulation ---
      gMC->Gsvolu("PWTI", "BOX ", idtmed[706], emcg->GetWarmThermoHalfSize(), 3) ; 
      Float_t * warmthermo = emcg->GetWarmThermoHalfSize() ;
      z = -warmcov[2] + warmthermo[2] ;

      gMC->Gspos("PWTI", 1, "PWAR", 0., 0.0, z, 0, "ONLY") ;     

      // --- Define cables area and put in it T-supports ---- 
      gMC->Gsvolu("PCA1", "BOX ", idtmed[718], emcg->GetTCables1HalfSize(), 3) ; 
      Float_t * cbox = emcg->GetTCables1HalfSize() ;

      gMC->Gsvolu("PBE1", "BOX ", idtmed[701], emcg->GetTSupport1HalfSize(), 3) ;
      Float_t * beams = emcg->GetTSupport1HalfSize() ;
      Int_t isup ;
      for(isup = 0; isup < emcg->GetNTSuppots(); isup++){
	Float_t x = -cbox[0] + beams[0] + (2*beams[0]+emcg->GetTSupportDist())*isup ;
	gMC->Gspos("PBE1", isup, "PCA1", x, 0.0, 0.0, 0, "ONLY") ;
      }

      z = -warmthermo[2] + cbox[2] ;
      gMC->Gspos("PCA1", 1, "PWTI", 0.0, 0.0, z, 0, "ONLY") ;     

      gMC->Gsvolu("PCA2", "BOX ", idtmed[718], emcg->GetTCables2HalfSize(), 3) ; 
      Float_t * cbox2 = emcg->GetTCables2HalfSize() ;

      gMC->Gsvolu("PBE2", "BOX ", idtmed[701], emcg->GetTSupport2HalfSize(), 3) ;
      for(isup = 0; isup < emcg->GetNTSuppots(); isup++){
	Float_t x = -cbox[0] + beams[0] + (2*beams[0]+emcg->GetTSupportDist())*isup ;
	gMC->Gspos("PBE2", isup, "PCA2", x, 0.0, 0.0, 0, "ONLY") ;
      }

      z = -warmthermo[2] + 2*cbox[2] + cbox2[2];
      gMC->Gspos("PCA2", 1, "PWTI", 0.0, 0.0, z, 0, "ONLY") ;     


  // --- Define frame ---
      gMC->Gsvolu("PFRX", "BOX ", idtmed[716], emcg->GetFrameXHalfSize(), 3) ; 
      Float_t * posit = emcg->GetFrameXPosition() ;
      gMC->Gspos("PFRX", 1, "PWTI", posit[0],  posit[1], posit[2], 0, "ONLY") ;
      gMC->Gspos("PFRX", 2, "PWTI", posit[0], -posit[1], posit[2], 0, "ONLY") ;

      gMC->Gsvolu("PFRZ", "BOX ", idtmed[716], emcg->GetFrameZHalfSize(), 3) ; 
      posit = emcg->GetFrameZPosition() ;
      gMC->Gspos("PFRZ", 1, "PWTI", posit[0], posit[1],  posit[2], 0, "ONLY") ;
      gMC->Gspos("PFRZ", 2, "PWTI", -posit[0], posit[1], posit[2], 0, "ONLY") ;

 // --- Define Fiber Glass support ---
      gMC->Gsvolu("PFG1", "BOX ", idtmed[717], emcg->GetFGupXHalfSize(), 3) ; 
      posit = emcg->GetFGupXPosition() ;
      gMC->Gspos("PFG1", 1, "PWTI", posit[0],  posit[1], posit[2], 0, "ONLY") ;
      gMC->Gspos("PFG1", 2, "PWTI", posit[0], -posit[1], posit[2], 0, "ONLY") ;

      gMC->Gsvolu("PFG2", "BOX ", idtmed[717], emcg->GetFGupZHalfSize(), 3) ; 
      posit = emcg->GetFGupZPosition() ;
      gMC->Gspos("PFG2", 1, "PWTI",  posit[0], posit[1], posit[2], 0, "ONLY") ;
      gMC->Gspos("PFG2", 2, "PWTI", -posit[0], posit[1], posit[2], 0, "ONLY") ;

      gMC->Gsvolu("PFG3", "BOX ", idtmed[717], emcg->GetFGlowXHalfSize(), 3) ; 
      posit = emcg->GetFGlowXPosition() ;
      gMC->Gspos("PFG3", 1, "PWTI", posit[0],  posit[1], posit[2], 0, "ONLY") ;
      gMC->Gspos("PFG3", 2, "PWTI", posit[0], -posit[1], posit[2], 0, "ONLY") ;

      gMC->Gsvolu("PFG4", "BOX ", idtmed[717], emcg->GetFGlowZHalfSize(), 3) ; 
      posit = emcg->GetFGlowZPosition() ;
      gMC->Gspos("PFG4", 1, "PWTI",  posit[0], posit[1], posit[2], 0, "ONLY") ;
      gMC->Gspos("PFG4", 2, "PWTI", -posit[0], posit[1], posit[2], 0, "ONLY") ;

      // --- Define Air Gap for FEE electronics ----- 

      gMC->Gsvolu("PAFE", "BOX ", idtmed[798], emcg->GetFEEAirHalfSize(), 3) ; 
      posit = emcg->GetFEEAirPosition() ;
      gMC->Gspos("PAFE", 1, "PWTI",  posit[0], posit[1], posit[2], 0, "ONLY") ;

      // Define the EMC module volume and combine Cool and Warm sections

      gMC->Gsvolu("PEMC", "TRD1", idtmed[798], emcg->GetEMCParams(), 4) ;        

      z =  - warmcov[2] ;
      gMC->Gspos("PCOL", 1, "PEMC",  0., 0., z, 0, "ONLY") ;
      z = covparams[3] ;
      gMC->Gspos("PWAR", 1, "PEMC",  0., 0., z, 0, "ONLY") ;


      // Put created EMC geometry into PHOS volume
      
      z = geom->GetCPVBoxSize(1) / 2. ;
      gMC->Gspos("PEMC", 1, "PHOS", 0., 0., z, 0, "ONLY") ; 
            
}

//____________________________________________________________________________
void AliPHOSv0::CreateGeometryforCPV()
{
  // Create the PHOS-CPV geometry for GEANT
  // Author: Yuri Kharlov 11 September 2000
  //BEGIN_HTML
  /*
    <H2>
    Geant3 geometry of PHOS-CPV in ALICE
    </H2>
    <table width=700>

    <tr>
         <td>CPV perspective view</td>
         <td>CPV front view      </td>
    </tr>

    <tr>
         <td> <img height=300 width=290 src="../images/CPVallPersp.gif"> </td>
         <td> <img height=300 width=290 src="../images/CPVallFront.gif"> </td>
    </tr>

    <tr>
         <td>One CPV module, perspective view                            </td>
         <td>One CPV module, front view (extended in vertical direction) </td>
    </tr>

    <tr>
         <td><img height=300 width=290 src="../images/CPVmodulePers.gif"></td>
         <td><img height=300 width=290 src="../images/CPVmoduleSide.gif"></td>
    </tr>

    </table>

    <H2>
    Geant3 geometry tree of PHOS-CPV in ALICE
    </H2>
    <center>
    <img height=300 width=290 src="../images/CPVtree.gif">
    </center>
  */
  //END_HTML  

  Float_t par[3], x,y,z;

  // Get pointer to the array containing media indexes
  Int_t *idtmed = fIdtmed->GetArray() - 699 ;

  AliPHOSGeometry * geom = GetGeometry() ; 

  // The box containing all CPV for one PHOS module filled with air 
  par[0] = geom->GetCPVBoxSize(0) / 2.0 ;  
  par[1] = geom->GetCPVBoxSize(1) / 2.0 ; 
  par[2] = geom->GetCPVBoxSize(2) / 2.0 ;
  gMC->Gsvolu("PCPV", "BOX ", idtmed[798], par, 3) ;

  Float_t * emcParams = geom->GetEMCAGeometry()->GetEMCParams() ;
  z = - emcParams[3] ;
  Int_t rotm ;
  AliMatrix(rotm, 90.,0., 0., 0., 90., 90.) ;

  gMC->Gspos("PCPV", 1, "PHOS", 0.0, 0.0, z, rotm, "ONLY") ; 
  
  // Gassiplex board
  
  par[0] = geom->GetGassiplexChipSize(0)/2.;
  par[1] = geom->GetGassiplexChipSize(1)/2.;
  par[2] = geom->GetGassiplexChipSize(2)/2.;
  gMC->Gsvolu("PCPC","BOX ",idtmed[707],par,3);
  
  // Cu+Ni foil covers Gassiplex board

  par[1] = geom->GetCPVCuNiFoilThickness()/2;
  gMC->Gsvolu("PCPD","BOX ",idtmed[710],par,3);
  y      = -(geom->GetGassiplexChipSize(1)/2 - par[1]);
  gMC->Gspos("PCPD",1,"PCPC",0,y,0,0,"ONLY");

  // Position of the chip inside CPV

  Float_t xStep = geom->GetCPVActiveSize(0) / (geom->GetNumberOfCPVChipsPhi() + 1);
  Float_t zStep = geom->GetCPVActiveSize(1) / (geom->GetNumberOfCPVChipsZ()   + 1);
  Int_t   copy  = 0;
  y = geom->GetCPVFrameSize(1)/2           - geom->GetFTPosition(0) +
    geom->GetCPVTextoliteThickness() / 2 + geom->GetGassiplexChipSize(1) / 2 + 0.1;
  for (Int_t ix=0; ix<geom->GetNumberOfCPVChipsPhi(); ix++) {
    x = xStep * (ix+1) - geom->GetCPVActiveSize(0)/2;
    for (Int_t iz=0; iz<geom->GetNumberOfCPVChipsZ(); iz++) {
      copy++;
      z = zStep * (iz+1) - geom->GetCPVActiveSize(1)/2;
      gMC->Gspos("PCPC",copy,"PCPV",x,y,z,0,"ONLY");
    }
  }

  // Foiled textolite (1 mm of textolite + 50 mkm of Cu + 6 mkm of Ni)
  
  par[0] = geom->GetCPVActiveSize(0)        / 2;
  par[1] = geom->GetCPVTextoliteThickness() / 2;
  par[2] = geom->GetCPVActiveSize(1)        / 2;
  gMC->Gsvolu("PCPF","BOX ",idtmed[707],par,3);

  // Argon gas volume

  par[1] = (geom->GetFTPosition(2) - geom->GetFTPosition(1) - geom->GetCPVTextoliteThickness()) / 2;
  gMC->Gsvolu("PCPG","BOX ",idtmed[715],par,3);

  for (Int_t i=0; i<4; i++) {
    y = geom->GetCPVFrameSize(1) / 2 - geom->GetFTPosition(i) + geom->GetCPVTextoliteThickness()/2;
    gMC->Gspos("PCPF",i+1,"PCPV",0,y,0,0,"ONLY");
    if(i==1){
      y-= (geom->GetFTPosition(2) - geom->GetFTPosition(1)) / 2;
      gMC->Gspos("PCPG",1,"PCPV ",0,y,0,0,"ONLY");
    }
  }

  // Dummy sensitive plane in the middle of argone gas volume

  par[1]=0.001;
  gMC->Gsvolu("PCPQ","BOX ",idtmed[715],par,3);
  gMC->Gspos ("PCPQ",1,"PCPG",0,0,0,0,"ONLY");

  // Cu+Ni foil covers textolite

  par[1] = geom->GetCPVCuNiFoilThickness() / 2;
  gMC->Gsvolu("PCP1","BOX ",idtmed[710],par,3);
  y = geom->GetCPVTextoliteThickness()/2 - par[1];
  gMC->Gspos ("PCP1",1,"PCPF",0,y,0,0,"ONLY");

  // Aluminum frame around CPV

  par[0] = geom->GetCPVFrameSize(0)/2;
  par[1] = geom->GetCPVFrameSize(1)/2;
  par[2] = geom->GetCPVBoxSize(2)  /2;
  gMC->Gsvolu("PCF1","BOX ",idtmed[701],par,3);

  par[0] = geom->GetCPVBoxSize(0)/2 - geom->GetCPVFrameSize(0);
  par[1] = geom->GetCPVFrameSize(1)/2;
  par[2] = geom->GetCPVFrameSize(2)/2;
  gMC->Gsvolu("PCF2","BOX ",idtmed[701],par,3);

  for (Int_t j=0; j<=1; j++) {
    x = TMath::Sign(1,2*j-1) * (geom->GetCPVBoxSize(0) - geom->GetCPVFrameSize(0)) / 2;
    gMC->Gspos("PCF1",j+1,"PCPV", x,0,0,0,"ONLY");
    z = TMath::Sign(1,2*j-1) * (geom->GetCPVBoxSize(2) - geom->GetCPVFrameSize(2)) / 2;
    gMC->Gspos("PCF2",j+1,"PCPV",0, 0,z,0,"ONLY");
  }

}


//____________________________________________________________________________
void AliPHOSv0::CreateGeometryforSupport()
{
  // Create the PHOS' support geometry for GEANT
    //BEGIN_HTML
  /*
    <H2>
    Geant3 geometry of the PHOS's support
    </H2>
    <P><CENTER>
    <IMG Align=BOTTOM ALT="EMC geant tree" SRC="../images/PHOS_support.gif"> 
    </CENTER><P>
  */
  //END_HTML  
  
  Float_t par[5], x0,y0,z0 ; 
  Int_t   i,j,copy;

  // Get pointer to the array containing media indexes
  Int_t *idtmed = fIdtmed->GetArray() - 699 ;

  AliPHOSGeometry * geom = GetGeometry() ; 

  // --- Dummy box containing two rails on which PHOS support moves
  // --- Put these rails to the bottom of the L3 magnet

  par[0] =  geom->GetRailRoadSize(0) / 2.0 ;
  par[1] =  geom->GetRailRoadSize(1) / 2.0 ;
  par[2] =  geom->GetRailRoadSize(2) / 2.0 ;
  gMC->Gsvolu("PRRD", "BOX ", idtmed[798], par, 3) ;

  y0     = -(geom->GetRailsDistanceFromIP() - geom->GetRailRoadSize(1) / 2.0) ;
  gMC->Gspos("PRRD", 1, "ALIC", 0.0, y0, 0.0, 0, "ONLY") ; 

  // --- Dummy box containing one rail

  par[0] =  geom->GetRailOuterSize(0) / 2.0 ;
  par[1] =  geom->GetRailOuterSize(1) / 2.0 ;
  par[2] =  geom->GetRailOuterSize(2) / 2.0 ;
  gMC->Gsvolu("PRAI", "BOX ", idtmed[798], par, 3) ;

  for (i=0; i<2; i++) {
    x0     = (2*i-1) * geom->GetDistanceBetwRails()  / 2.0 ;
    gMC->Gspos("PRAI", i, "PRRD", x0, 0.0, 0.0, 0, "ONLY") ; 
  }

  // --- Upper and bottom steel parts of the rail

  par[0] =  geom->GetRailPart1(0) / 2.0 ;
  par[1] =  geom->GetRailPart1(1) / 2.0 ;
  par[2] =  geom->GetRailPart1(2) / 2.0 ;
  gMC->Gsvolu("PRP1", "BOX ", idtmed[716], par, 3) ;

  y0     = - (geom->GetRailOuterSize(1) - geom->GetRailPart1(1))  / 2.0 ;
  gMC->Gspos("PRP1", 1, "PRAI", 0.0, y0, 0.0, 0, "ONLY") ;
  y0     =   (geom->GetRailOuterSize(1) - geom->GetRailPart1(1))  / 2.0 - geom->GetRailPart3(1);
  gMC->Gspos("PRP1", 2, "PRAI", 0.0, y0, 0.0, 0, "ONLY") ;

  // --- The middle vertical steel parts of the rail

  par[0] =  geom->GetRailPart2(0) / 2.0 ;
  par[1] =  geom->GetRailPart2(1) / 2.0 ;
  par[2] =  geom->GetRailPart2(2) / 2.0 ;
  gMC->Gsvolu("PRP2", "BOX ", idtmed[716], par, 3) ;

  y0     =   - geom->GetRailPart3(1) / 2.0 ;
  gMC->Gspos("PRP2", 1, "PRAI", 0.0, y0, 0.0, 0, "ONLY") ; 

  // --- The most upper steel parts of the rail

  par[0] =  geom->GetRailPart3(0) / 2.0 ;
  par[1] =  geom->GetRailPart3(1) / 2.0 ;
  par[2] =  geom->GetRailPart3(2) / 2.0 ;
  gMC->Gsvolu("PRP3", "BOX ", idtmed[716], par, 3) ;

  y0     =   (geom->GetRailOuterSize(1) - geom->GetRailPart3(1))  / 2.0 ;
  gMC->Gspos("PRP3", 1, "PRAI", 0.0, y0, 0.0, 0, "ONLY") ; 

  // --- The wall of the cradle
  // --- The wall is empty: steel thin walls and air inside

  par[1] =  TMath::Sqrt(TMath::Power((geom->GetIPtoCPVDistance() + geom->GetOuterBoxSize(3)),2) +
			TMath::Power((geom->GetOuterBoxSize(1)/2),2))+10. ;
  par[0] =  par[1] - geom->GetCradleWall(1) ;
  par[2] =  geom->GetCradleWall(2) / 2.0 ;
  par[3] =  geom->GetCradleWall(3) ;
  par[4] =  geom->GetCradleWall(4) ;
  gMC->Gsvolu("PCRA", "TUBS", idtmed[716], par, 5) ;

  par[0] +=  geom->GetCradleWallThickness() ;
  par[1] -=  geom->GetCradleWallThickness() ;
  par[2] -=  geom->GetCradleWallThickness() ;
  gMC->Gsvolu("PCRE", "TUBS", idtmed[798], par, 5) ;
  gMC->Gspos ("PCRE", 1, "PCRA", 0.0, 0.0, 0.0, 0, "ONLY") ; 

  for (i=0; i<2; i++) {
    z0 = (2*i-1) * (geom->GetOuterBoxSize(2) + geom->GetCradleWall(2) )/ 2.0  ;
        gMC->Gspos("PCRA", i, "ALIC", 0.0, 0.0, z0, 0, "ONLY") ; 
  }

  // --- The "wheels" of the cradle
  
  par[0] = geom->GetCradleWheel(0) / 2;
  par[1] = geom->GetCradleWheel(1) / 2;
  par[2] = geom->GetCradleWheel(2) / 2;
  gMC->Gsvolu("PWHE", "BOX ", idtmed[716], par, 3) ;

  y0 = -(geom->GetRailsDistanceFromIP() - geom->GetRailRoadSize(1) -
	 geom->GetCradleWheel(1)/2) ;
  for (i=0; i<2; i++) {
    z0 = (2*i-1) * ((geom->GetOuterBoxSize(2) + geom->GetCradleWheel(2))/ 2.0 +
                    geom->GetCradleWall(2));
    for (j=0; j<2; j++) {
      copy = 2*i + j;
      x0 = (2*j-1) * geom->GetDistanceBetwRails()  / 2.0 ;
      gMC->Gspos("PWHE", copy, "ALIC", x0, y0, z0, 0, "ONLY") ; 
    }
  }

}

//_____________________________________________________________________________
void AliPHOSv0::AddAlignableVolumes() const
{
  //
  // Create entries for alignable volumes associating the symbolic volume
  // name with the corresponding volume path. Needs to be syncronized with
  // eventual changes in the geometry
  // Alignable volumes are:
  // 1) PHOS modules as a whole
  // 2) Cradle
  // 3) Cradle wheels
  // 4) Strip units (group of 2x8 crystals)

  TString volpath, symname;

  // Alignable modules
  // Volume path /ALIC_1/PHOS_<i> => symbolic name /PHOS/Module<i>, <i>=1,2,3,4,5

  TString physModulePath="/ALIC_1/PHOS_";
  TString symbModuleName="PHOS/Module";
  Int_t nModules = GetGeometry()->GetNModules();

  for(Int_t iModule=1; iModule<=nModules; iModule++){
    volpath = physModulePath;
    volpath += iModule;
    symname = symbModuleName;
    symname += iModule;
    gGeoManager->SetAlignableEntry(symname.Data(),volpath.Data());
  }

  //Aligning of CPV should be done for volume PCPV_1
  symbModuleName="PHOS/Module";
  Double_t rotMatrix[9] ;
  for(Int_t iModule=1; iModule<=nModules; iModule++){
    volpath = physModulePath;
    volpath += iModule;
    volpath += "/PCPV_1";
    // Check the volume path
    if (!gGeoManager->CheckPath(volpath.Data())) {
      AliError(Form("Volume path %s not valid!",volpath.Data()));
      continue;
    }

    symname = symbModuleName;
    symname += iModule;
    symname += "/CPV";
    gGeoManager->SetAlignableEntry(symname.Data(),volpath.Data());
          
    // Creates the TGeo Local to Tracking transformation matrix ...
    TGeoPNEntry *alignableEntry = gGeoManager->GetAlignableEntry(symname.Data()) ;
    const char *path = alignableEntry->GetTitle();
    if (!gGeoManager->cd(path))
       AliFatal(Form("Volume path %s not valid!",path));
    TGeoHMatrix *matLtoT = new TGeoHMatrix;
    matLtoT->SetDx(0.) ;
    matLtoT->SetDy(0.) ;
    matLtoT->SetDz(0.) ;
    rotMatrix[0]= 1;  rotMatrix[1]= 0;  rotMatrix[2]= 0; // 
    rotMatrix[3]= 0;  rotMatrix[4]= 0;  rotMatrix[5]= 1; //
    rotMatrix[6]= 0;  rotMatrix[7]= 1;  rotMatrix[8]= 0;
    TGeoRotation rot;
    rot.SetMatrix(rotMatrix);
    matLtoT->MultiplyLeft(&rot);
    TGeoHMatrix *matTtoL = new TGeoHMatrix(matLtoT->Inverse());
    delete matLtoT;
    alignableEntry->SetMatrix(matTtoL);
  }
 

  // Alignable cradle walls
  // Volume path /ALIC_1/PCRA_<i> => symbolic name /PHOS/Cradle<i>, <i>=0,1

  TString physCradlePath="/ALIC_1/PCRA_";
  TString symbCradleName="PHOS/Cradle";
  Int_t nCradles = 2;

  for(Int_t iCradle=0; iCradle<nCradles; iCradle++){
    volpath = physCradlePath;
    volpath += iCradle;
    symname = symbCradleName;
    symname += iCradle;
    gGeoManager->SetAlignableEntry(symname.Data(),volpath.Data());
  }

  // Alignable wheels
  // Volume path /ALIC_1/PWHE_<i> => symbolic name /PHOS/Wheel<i>, i=0,1,2,3

  TString physWheelPath="/ALIC_1/PWHE_";
  TString symbWheelName="PHOS/Wheel";
  Int_t nWheels = 4;

  for(Int_t iWheel=0; iWheel<nWheels; iWheel++){
    volpath = physWheelPath;
    volpath += iWheel;
    symname = symbWheelName;
    symname += iWheel;
    gGeoManager->SetAlignableEntry(symname.Data(),volpath.Data());
  }

  //Physical strip path is a combination of: physModulePath + module number + 
  //physStripPath + strip number == ALIC_1/PHOS_N/..../PSTR_M
  const Int_t nStripsX = GetGeometry()->GetEMCAGeometry()->GetNStripX();
  const Int_t nStripsZ = GetGeometry()->GetEMCAGeometry()->GetNStripZ();
  TString partialPhysStripName(100);
  TString fullPhysStripName(100);
  TString partialSymbStripName(100);
  TString fullSymbStripName(100);

  for(Int_t module = 1; module <= nModules; ++module){
    partialPhysStripName  = physModulePath;
    partialPhysStripName += module;
    partialPhysStripName += "/PEMC_1/PCOL_1/PTIO_1/PCOR_1/PAGA_1/PTII_1/PSTR_";

    partialSymbStripName  = symbModuleName;
    partialSymbStripName += module;
    partialSymbStripName += "/Strip_";

    for(Int_t i = 0, ind1D = 1; i < nStripsX; ++i){//ind1D starts from 1 (PSTR_1...PSTR_224...)
      for(Int_t j = 0; j < nStripsZ; ++j, ++ind1D){
         fullPhysStripName = partialPhysStripName;
         fullPhysStripName += ind1D;
         
         fullSymbStripName  = partialSymbStripName;
         fullSymbStripName += i;//ind1D;
         fullSymbStripName += '_';
         fullSymbStripName += j;

         gGeoManager->SetAlignableEntry(fullSymbStripName.Data(), fullPhysStripName.Data());

         // Creates the TGeo Local to Tracking transformation matrix ...
         TGeoPNEntry *alignableEntry = gGeoManager->GetAlignableEntry(fullSymbStripName.Data()) ;
         const char *path = alignableEntry->GetTitle();
         if (!gGeoManager->cd(path))
           AliFatal(Form("Volume path %s not valid!",path));
         TGeoHMatrix matLtoT = *gGeoManager->GetCurrentMatrix() ;
         Double_t refl[3]={-1.,-1.,-1.} ;
         matLtoT.SetScale(refl) ;
         TGeoHMatrix *matTtoL = new TGeoHMatrix(matLtoT.Inverse());
 
         char phosPath[50] ;
         sprintf(phosPath,"/ALIC_1/PHOS_%d",module) ;
         if (!gGeoManager->cd(phosPath)){
            AliFatal("Geo manager can not find path \n");
         }
         TGeoHMatrix *mPHOS = gGeoManager->GetCurrentMatrix();
         if (mPHOS) 
           matTtoL->Multiply(mPHOS);
         else{
           AliFatal("Geo matrixes are not loaded \n") ;
         }
         //Switch y<->z
         Double_t rot[9]={1.,0.,0.,  0.,1.,0., 0.,0.,1.} ;
         matTtoL->SetRotation(rot) ;
         alignableEntry->SetMatrix(matTtoL);

/*
  //Check poisition of corner cell of the strip
  AliPHOSGeometry * geom = AliPHOSGeometry::GetInstance() ;
  Int_t relid[4] ; 
  relid[0] = module ;
  relid[1] = 0 ;
  Int_t iStrip=ind1D ;
  Int_t icell=1 ;
  Int_t raw = geom->GetEMCAGeometry()->GetNCellsXInStrip()*((iStrip-1)/geom->GetEMCAGeometry()->GetNStripZ()) +
                1 + (icell-1)/geom->GetEMCAGeometry()->GetNCellsZInStrip() ;
  Int_t col = geom->GetEMCAGeometry()->GetNCellsZInStrip()*(1+(iStrip-1)%geom->GetEMCAGeometry()->GetNStripZ()) - 
                (icell-1)%geom->GetEMCAGeometry()->GetNCellsZInStrip() ;
  if(col==0) col=geom->GetNZ() ;
  relid[2] = raw ;
  relid[3] = col ;
  Float_t xG,zG ; 
  geom->RelPosInModule(relid, xG, zG) ;
printf("============\n") ;
printf("Geometry: x=%f, z=%f \n",xG,zG) ;
  Int_t absid ; 
  geom->RelToAbsNumbering(relid,absid) ;
  Double_t pos[3]= {-2.2*3.5,0.0,1.1}; //Position incide the strip (Y coordinalte is not important)
  Double_t posC[3]={0.0,0.0,0.}; //Global position
 
  matTtoL->MasterToLocal(pos,posC);
printf("Matrix:   x=%f, z=%f, y=%f \n",posC[0],posC[2],posC[1]) ;
*/
      }
    }
  }
}

//____________________________________________________________________________
Float_t AliPHOSv0::ZMin(void) const
{
  // Overall dimension of the PHOS (min)

  AliPHOSGeometry * geom = GetGeometry() ; 

  return -geom->GetOuterBoxSize(2)/2.;
}

//____________________________________________________________________________
Float_t AliPHOSv0::ZMax(void) const
{
  // Overall dimension of the PHOS (max)

  AliPHOSGeometry * geom = GetGeometry() ; 

  return  geom->GetOuterBoxSize(2)/2.;
}

//____________________________________________________________________________
void AliPHOSv0::Init(void)
{
  // Just prints an information message
  
  Int_t i;

  if(AliLog::GetGlobalDebugLevel()>0) {
    TString st ; 
    for(i=0;i<35;i++) 
      st += "*";
    Info("Init", "%s", st.Data()) ;  
    // Here the PHOS initialisation code (if any!)
    
    AliPHOSGeometry * geom = GetGeometry() ; 

    if (geom!=0)  
      Info("Init", "AliPHOS%s: PHOS geometry intialized for %s", Version().Data(), geom->GetName()) ;
    else
      Info("Init", "AliPHOS%s: PHOS geometry initialization failed !", Version().Data()) ;       

    Info("Init", "%s", st.Data()) ;  
  }
}