[u/mrichter/AliRoot.git] / EVE / Alieve / ITSDigitsInfo.cxx

// $Header$

//__________________________________________________________________________
// ITSDigitsInfo
//
//

#include <Reve/TTreeTools.h>

#include "ITSDigitsInfo.h"
//#include <AliITSresponseSDD.h>
#include <AliITSCalibrationSDD.h>
#include <AliITSdigit.h>
#include <AliITSdigitSPD.h>

using namespace Reve;
using namespace Alieve;
using namespace std;

ClassImp(ITSDigitsInfo)

/**************************************************************************/

ITSDigitsInfo::ITSDigitsInfo() :
  TObject(),
  ReferenceCount(),
  fSPDmap(), fSDDmap(), fSSDmap(),
  fTree (0),
  fGeom (0),
  fSegSPD(0), fSegSDD(0), fSegSSD(0)
{}

/**************************************************************************/

ITSDigitsInfo:: ~ITSDigitsInfo() 
{
  map<Int_t, TClonesArray*>::iterator j;
  for(j = fSPDmap.begin(); j != fSPDmap.end(); ++j)
    delete j->second;
  for(j = fSDDmap.begin(); j != fSDDmap.end(); ++j)
    delete j->second;
  for(j = fSSDmap.begin(); j != fSSDmap.end(); ++j)
    delete j->second;

  delete fSegSPD; delete fSegSDD; delete fSegSSD; 
  delete fGeom;
  delete fTree;
}

/**************************************************************************/

void ITSDigitsInfo::SetTree(TTree* tree)
{
  static const Exc_t eH("ITSDigitsInfo::SetTree ");

  if(fGeom == 0) {
    fGeom = new AliITSgeom();
    fGeom->ReadNewFile("$REVESYS/alice-data/ITSgeometry.det");
    if(fGeom == 0)
      throw(eH + "can not load ITS geometry \n");
  }

  fTree = tree;

  SetITSSegmentation();
  
  // create tables for scaling
  // lowest scale factor refers to unscaled ITS module
  fSPDScaleX[0] = 1;
  fSPDScaleZ[0] = 1;
  fSDDScaleX[0] = 1;
  fSDDScaleZ[0] = 1;
  fSSDScale [0] = 1;
  // spd lows resolution is in the level of 8x2 readout chips
  Int_t nx = 8; // fSegSPD->Npx()/8; // 32
  Int_t nz = 6; // fSegSPD->Npz()/2; // 128

  fSPDScaleX[1] = Int_t(nx); 
  fSPDScaleZ[1] = Int_t(nz); 
  fSPDScaleX[2] = Int_t(nx*2); 
  fSPDScaleZ[2] = Int_t(nz*2); 
  fSPDScaleX[3] = Int_t(nx*3); 
  fSPDScaleZ[3] = Int_t(nz*3); 
  fSPDScaleX[4] = Int_t(nx*4); 
  fSPDScaleZ[4] = Int_t(nz*4); 


  fSDDScaleX[1] = 2;
  fSDDScaleZ[1] = 2;
  fSDDScaleX[2] = 8;
  fSDDScaleZ[2] = 8;
  fSDDScaleX[3] = 16;
  fSDDScaleZ[3] = 16;
  fSDDScaleX[4] = 25;
  fSDDScaleZ[4] = 25;

  fSSDScale[1] = 3;
  fSSDScale[2] = 9;
  fSSDScale[3] = 20;
  fSSDScale[4] = 30;

  
  // lowest scale factor refers unscaled ITS module
  fSPDScaleX[0] = 1;
  fSPDScaleZ[0] = 1;
  fSDDScaleX[0] = 1;
  fSDDScaleZ[0] = 1;
  fSSDScale [0] = 1;
}

/**************************************************************************/

void ITSDigitsInfo::SetITSSegmentation()
{
  // SPD
  fSegSPD = new AliITSsegmentationSPD(fGeom);
  //SPD geometry  
  Int_t m;
  Float_t fNzSPD=160;
  Float_t fZ1pitchSPD=0.0425; Float_t fZ2pitchSPD=0.0625;
  Float_t fHlSPD=3.48;

  fSPDZCoord[0]=fZ1pitchSPD -fHlSPD;
  for (m=1; m<fNzSPD; m++) {
    Double_t dz=fZ1pitchSPD;
    if (m==31 || m==32 || m==63  || m==64  || m==95 || m==96 || 
        m==127 || m==128) dz=fZ2pitchSPD; 
    fSPDZCoord[m]=fSPDZCoord[m-1]+dz;
  }
  
  for (m=0; m<fNzSPD; m++) {
    Double_t dz=1.*fZ1pitchSPD;
    if (m==31 || m==32 || m==63  || m==64  || m==95 || m==96 || 
	m==127 || m==128) dz=1.*fZ2pitchSPD; 
    fSPDZCoord[m]-=dz;
  }
  
  // end of SPD geometry
  
  // SDD
  // response replaced by Calibration (March 2006).
  AliITSresponseSDD*   resp1 = new AliITSresponseSDD();
  AliITSCalibrationSDD* cal1 = new AliITSCalibrationSDD;
  cal1->SetResponse(resp1);
  fSegSDD = new AliITSsegmentationSDD(fGeom, cal1);

  // SSD
  fSegSSD = new AliITSsegmentationSSD(fGeom);
}

void ITSDigitsInfo::GetSPDLocalZ(Int_t j, Float_t& z)
{
  z = fSPDZCoord[j];
}

/**************************************************************************/

TClonesArray* ITSDigitsInfo::GetDigits(Int_t mod, Int_t subdet)
{
  switch(subdet) {
    case 0: {
      TClonesArray* digitsSPD = 0;
      map<Int_t, TClonesArray*>::iterator i = fSPDmap.find(mod);
      if(i == fSPDmap.end()) {
        TBranch* br =  fTree->GetBranch("ITSDigitsSPD");
        br->SetAddress(&digitsSPD);
	br->GetEntry(mod);
	fSPDmap[mod] = digitsSPD;
	return digitsSPD;
      } else {
	return i->second;
      }
      break;
    }
    case 1: {
      TClonesArray* digitsSDD = 0;
      map<Int_t, TClonesArray*>::iterator i = fSDDmap.find(mod);
      if(i == fSDDmap.end()) {
	TBranch* br =  fTree->GetBranch("ITSDigitsSDD");
        br->SetAddress(&digitsSDD);
	br->GetEntry(mod);
	fSDDmap[mod] = digitsSDD;
	return digitsSDD;
      } else {
	return i->second;
      }
      break;
    }
    case 2: {
      TClonesArray* digitsSSD = 0;
      map<Int_t, TClonesArray*>::iterator i = fSSDmap.find(mod);
      if(i == fSSDmap.end()) {
	TBranch* br =  fTree->GetBranch("ITSDigitsSSD");
        br->SetAddress(&digitsSSD);
	br->GetEntry(mod);

	fSSDmap[mod] = digitsSSD;
	return digitsSSD;
      } else {
	return i->second;
      }
      break;
    }
    default:
      return 0;
  } //end switch
  return 0;
}


/**************************************************************************/

void ITSDigitsInfo::Print(Option_t* ) const
{
  printf("*********************************************************\n");
  printf("SPD module dimension (%f,%f) \n",fSegSPD->Dx()*0.0001, fSegSPD->Dz()*0.0001);
  printf("SPD first,last module:: %d,%d \n", fGeom->GetStartSPD(),fGeom->GetLastSPD() );
  printf("SPD num cells per module (x::%d,z::%d)\n",fSegSPD->Npx(), fSegSPD->Npz());
  Int_t iz=0,ix = 0;
  printf("SPD dimesion of (%d,%d) in pixel(%f,%f) \n", ix,iz, fSegSPD->Dpx(ix), fSegSPD->Dpz(iz));
  iz = 32;
  printf("SPD dimesion of pixel (%d,%d) are (%f,%f) \n", ix,iz, fSegSPD->Dpx(ix)*0.001, fSegSPD->Dpz(iz)*0.001);
 
  printf("*********************************************************\n");
  printf("SDD module dimension (%f,%f) \n",fSegSDD->Dx()*0.0001, fSegSDD->Dz()*0.0001);
  printf("SDD first,last module:: %d,%d \n", fGeom->GetStartSDD(),fGeom->GetLastSDD() );
  printf("SDD num cells per module (x::%d,z::%d)\n",fSegSDD->Npx(), fSegSDD->Npz());
  printf("SDD dimesion of pixel are (%f,%f) \n", fSegSDD->Dpx(1)*0.001,fSegSDD->Dpz(1)*0.001);
  printf("*********************************************************\n");
  printf("SSD module dimension (%f,%f) \n",fSegSSD->Dx()*0.0001, fSegSSD->Dz()*0.0001);
  printf("SSD first,last module:: %d,%d \n", fGeom->GetStartSSD(),fGeom->GetLastSSD() );
  printf("SSD strips in module %d \n",fSegSSD->Npx());
  printf("SSD strip sizes are (%f,%f) \n", fSegSSD->Dpx(1),fSegSSD->Dpz(1));
  fSegSSD->SetLayer(5); Float_t ap,an;  fSegSSD->Angles(ap,an);
  printf("SSD layer 5 stereoP %f stereoN %f angle \n",ap,an); 
  fSegSSD->SetLayer(6);  fSegSSD->Angles(ap,an);
  printf("SSD layer 6 stereoP %f stereoN %f angle \n",ap,an); 
}


/*
  printf("num cells %d,%d scaled %d,%d \n",fSegSPD->Npz(),fSegSPD->Npx(),Nz,Nx);
  printf("%d digits in ITSModule %d\n",ne, module);
  Float_t zn = i*(3.48*2)/Nz - 3.48 ;
  Float_t xo =  -fSegSPD->Dx()*0.00005 + fSegSPD->Dpx(0)*od->GetCoord2()*0.0001;
  Float_t xn =  -fSegSPD->Dx()*0.00005 + j*0.0001*fSegSPD->Dx()/Nx;
  Float_t dpx = 0.0001*fSegSPD->Dx()/Nx;
  Float_t dpz = 3.48*2/Nz;
  printf("Z::original (%3f) scaled (%3f, %3f) \n", zo, zn-dpz/2, zn+dpz/2);
  printf("X::original (%3f) scaled (%3f, %3f) \n", xo, xn-dpx/2, xn+dpx/2);
  printf("%d,%d maped to %d,%d \n", od->GetCoord1(), od->GetCoord2(), i,j );
*/
Commit	Line	Data
	1	// $Header$
	2
	3	//__________________________________________________________________________
	4	// ITSDigitsInfo
	5	//
	6	//
	7
	8	#include <Reve/TTreeTools.h>
	9
	10	#include "ITSDigitsInfo.h"
	11	//#include <AliITSresponseSDD.h>
	12	#include <AliITSCalibrationSDD.h>
	13	#include <AliITSdigit.h>
	14	#include <AliITSdigitSPD.h>
	15
	16	using namespace Reve;
	17	using namespace Alieve;
	18	using namespace std;
	19
	20	ClassImp(ITSDigitsInfo)
	21
	22	/**************************************************************************/
	23
	24	ITSDigitsInfo::ITSDigitsInfo() :
	25	TObject(),
	26	ReferenceCount(),
	27	fSPDmap(), fSDDmap(), fSSDmap(),
	28	fTree (0),
	29	fGeom (0),
	30	fSegSPD(0), fSegSDD(0), fSegSSD(0)
	31	{}
	32
	33	/**************************************************************************/
	34
	35	ITSDigitsInfo:: ~ITSDigitsInfo()
	36	{
	37	map<Int_t, TClonesArray*>::iterator j;
	38	for(j = fSPDmap.begin(); j != fSPDmap.end(); ++j)
	39	delete j->second;
	40	for(j = fSDDmap.begin(); j != fSDDmap.end(); ++j)
	41	delete j->second;
	42	for(j = fSSDmap.begin(); j != fSSDmap.end(); ++j)
	43	delete j->second;
	44
	45	delete fSegSPD; delete fSegSDD; delete fSegSSD;
	46	delete fGeom;
	47	delete fTree;
	48	}
	49
	50	/**************************************************************************/
	51
	52	void ITSDigitsInfo::SetTree(TTree* tree)
	53	{
	54	static const Exc_t eH("ITSDigitsInfo::SetTree ");
	55
	56	if(fGeom == 0) {
	57	fGeom = new AliITSgeom();
	58	fGeom->ReadNewFile("$REVESYS/alice-data/ITSgeometry.det");
	59	if(fGeom == 0)
	60	throw(eH + "can not load ITS geometry \n");
	61	}
	62
	63	fTree = tree;
	64
	65	SetITSSegmentation();
	66
	67	// create tables for scaling
	68	// lowest scale factor refers to unscaled ITS module
	69	fSPDScaleX[0] = 1;
	70	fSPDScaleZ[0] = 1;
	71	fSDDScaleX[0] = 1;
	72	fSDDScaleZ[0] = 1;
	73	fSSDScale [0] = 1;
	74	// spd lows resolution is in the level of 8x2 readout chips
	75	Int_t nx = 8; // fSegSPD->Npx()/8; // 32
	76	Int_t nz = 6; // fSegSPD->Npz()/2; // 128
	77
	78	fSPDScaleX[1] = Int_t(nx);
	79	fSPDScaleZ[1] = Int_t(nz);
	80	fSPDScaleX[2] = Int_t(nx*2);
	81	fSPDScaleZ[2] = Int_t(nz*2);
	82	fSPDScaleX[3] = Int_t(nx*3);
	83	fSPDScaleZ[3] = Int_t(nz*3);
	84	fSPDScaleX[4] = Int_t(nx*4);
	85	fSPDScaleZ[4] = Int_t(nz*4);
	86
	87
	88	fSDDScaleX[1] = 2;
	89	fSDDScaleZ[1] = 2;
	90	fSDDScaleX[2] = 8;
	91	fSDDScaleZ[2] = 8;
	92	fSDDScaleX[3] = 16;
	93	fSDDScaleZ[3] = 16;
	94	fSDDScaleX[4] = 25;
	95	fSDDScaleZ[4] = 25;
	96
	97	fSSDScale[1] = 3;
	98	fSSDScale[2] = 9;
	99	fSSDScale[3] = 20;
	100	fSSDScale[4] = 30;
	101
	102
	103	// lowest scale factor refers unscaled ITS module
	104	fSPDScaleX[0] = 1;
	105	fSPDScaleZ[0] = 1;
	106	fSDDScaleX[0] = 1;
	107	fSDDScaleZ[0] = 1;
	108	fSSDScale [0] = 1;
	109	}
	110
	111	/**************************************************************************/
	112
	113	void ITSDigitsInfo::SetITSSegmentation()
	114	{
	115	// SPD
	116	fSegSPD = new AliITSsegmentationSPD(fGeom);
	117	//SPD geometry
	118	Int_t m;
	119	Float_t fNzSPD=160;
	120	Float_t fZ1pitchSPD=0.0425; Float_t fZ2pitchSPD=0.0625;
	121	Float_t fHlSPD=3.48;
	122
	123	fSPDZCoord[0]=fZ1pitchSPD -fHlSPD;
	124	for (m=1; m<fNzSPD; m++) {
	125	Double_t dz=fZ1pitchSPD;
	126	if (m==31 \|\| m==32 \|\| m==63 \|\| m==64 \|\| m==95 \|\| m==96 \|\|
	127	m==127 \|\| m==128) dz=fZ2pitchSPD;
	128	fSPDZCoord[m]=fSPDZCoord[m-1]+dz;
	129	}
	130
	131	for (m=0; m<fNzSPD; m++) {
	132	Double_t dz=1.*fZ1pitchSPD;
	133	if (m==31 \|\| m==32 \|\| m==63 \|\| m==64 \|\| m==95 \|\| m==96 \|\|
	134	m==127 \|\| m==128) dz=1.*fZ2pitchSPD;
	135	fSPDZCoord[m]-=dz;
	136	}
	137
	138	// end of SPD geometry
	139
	140	// SDD
	141	// response replaced by Calibration (March 2006).
	142	AliITSresponseSDD* resp1 = new AliITSresponseSDD();
	143	AliITSCalibrationSDD* cal1 = new AliITSCalibrationSDD;
	144	cal1->SetResponse(resp1);
	145	fSegSDD = new AliITSsegmentationSDD(fGeom, cal1);
	146
	147	// SSD
	148	fSegSSD = new AliITSsegmentationSSD(fGeom);
	149	}
	150
	151	void ITSDigitsInfo::GetSPDLocalZ(Int_t j, Float_t& z)
	152	{
	153	z = fSPDZCoord[j];
	154	}
	155
	156	/**************************************************************************/
	157
	158	TClonesArray* ITSDigitsInfo::GetDigits(Int_t mod, Int_t subdet)
	159	{
	160	switch(subdet) {
	161	case 0: {
	162	TClonesArray* digitsSPD = 0;
	163	map<Int_t, TClonesArray*>::iterator i = fSPDmap.find(mod);
	164	if(i == fSPDmap.end()) {
	165	TBranch* br = fTree->GetBranch("ITSDigitsSPD");
	166	br->SetAddress(&digitsSPD);
	167	br->GetEntry(mod);
	168	fSPDmap[mod] = digitsSPD;
	169	return digitsSPD;
	170	} else {
	171	return i->second;
	172	}
	173	break;
	174	}
	175	case 1: {
	176	TClonesArray* digitsSDD = 0;
	177	map<Int_t, TClonesArray*>::iterator i = fSDDmap.find(mod);
	178	if(i == fSDDmap.end()) {
	179	TBranch* br = fTree->GetBranch("ITSDigitsSDD");
	180	br->SetAddress(&digitsSDD);
	181	br->GetEntry(mod);
	182	fSDDmap[mod] = digitsSDD;
	183	return digitsSDD;
	184	} else {
	185	return i->second;
	186	}
	187	break;
	188	}
	189	case 2: {
	190	TClonesArray* digitsSSD = 0;
	191	map<Int_t, TClonesArray*>::iterator i = fSSDmap.find(mod);
	192	if(i == fSSDmap.end()) {
	193	TBranch* br = fTree->GetBranch("ITSDigitsSSD");
	194	br->SetAddress(&digitsSSD);
	195	br->GetEntry(mod);
	196
	197	fSSDmap[mod] = digitsSSD;
	198	return digitsSSD;
	199	} else {
	200	return i->second;
	201	}
	202	break;
	203	}
	204	default:
	205	return 0;
	206	} //end switch
	207	return 0;
	208	}
	209
	210
	211	/**************************************************************************/
	212
	213	void ITSDigitsInfo::Print(Option_t* ) const
	214	{
	215	printf("*********************************************************\n");
	216	printf("SPD module dimension (%f,%f) \n",fSegSPD->Dx()0.0001, fSegSPD->Dz()0.0001);
	217	printf("SPD first,last module:: %d,%d \n", fGeom->GetStartSPD(),fGeom->GetLastSPD() );
	218	printf("SPD num cells per module (x::%d,z::%d)\n",fSegSPD->Npx(), fSegSPD->Npz());
	219	Int_t iz=0,ix = 0;
	220	printf("SPD dimesion of (%d,%d) in pixel(%f,%f) \n", ix,iz, fSegSPD->Dpx(ix), fSegSPD->Dpz(iz));
	221	iz = 32;
	222	printf("SPD dimesion of pixel (%d,%d) are (%f,%f) \n", ix,iz, fSegSPD->Dpx(ix)0.001, fSegSPD->Dpz(iz)0.001);
	223
	224	printf("*********************************************************\n");
	225	printf("SDD module dimension (%f,%f) \n",fSegSDD->Dx()0.0001, fSegSDD->Dz()0.0001);
	226	printf("SDD first,last module:: %d,%d \n", fGeom->GetStartSDD(),fGeom->GetLastSDD() );
	227	printf("SDD num cells per module (x::%d,z::%d)\n",fSegSDD->Npx(), fSegSDD->Npz());
	228	printf("SDD dimesion of pixel are (%f,%f) \n", fSegSDD->Dpx(1)0.001,fSegSDD->Dpz(1)0.001);
	229	printf("*********************************************************\n");
	230	printf("SSD module dimension (%f,%f) \n",fSegSSD->Dx()0.0001, fSegSSD->Dz()0.0001);
	231	printf("SSD first,last module:: %d,%d \n", fGeom->GetStartSSD(),fGeom->GetLastSSD() );
	232	printf("SSD strips in module %d \n",fSegSSD->Npx());
	233	printf("SSD strip sizes are (%f,%f) \n", fSegSSD->Dpx(1),fSegSSD->Dpz(1));
	234	fSegSSD->SetLayer(5); Float_t ap,an; fSegSSD->Angles(ap,an);
	235	printf("SSD layer 5 stereoP %f stereoN %f angle \n",ap,an);
	236	fSegSSD->SetLayer(6); fSegSSD->Angles(ap,an);
	237	printf("SSD layer 6 stereoP %f stereoN %f angle \n",ap,an);
	238	}
	239
	240
	241	/*
	242	printf("num cells %d,%d scaled %d,%d \n",fSegSPD->Npz(),fSegSPD->Npx(),Nz,Nx);
	243	printf("%d digits in ITSModule %d\n",ne, module);
	244	Float_t zn = i(3.482)/Nz - 3.48 ;
	245	Float_t xo = -fSegSPD->Dx()0.00005 + fSegSPD->Dpx(0)od->GetCoord2()*0.0001;
	246	Float_t xn = -fSegSPD->Dx()0.00005 + j0.0001*fSegSPD->Dx()/Nx;
	247	Float_t dpx = 0.0001*fSegSPD->Dx()/Nx;
	248	Float_t dpz = 3.48*2/Nz;
	249	printf("Z::original (%3f) scaled (%3f, %3f) \n", zo, zn-dpz/2, zn+dpz/2);
	250	printf("X::original (%3f) scaled (%3f, %3f) \n", xo, xn-dpx/2, xn+dpx/2);
	251	printf("%d,%d maped to %d,%d \n", od->GetCoord1(), od->GetCoord2(), i,j );
	252	*/