#include "AliLog.h" //general
#include <AliRunLoader.h> //Stack()
#include <AliStack.h> //Stack()
+#include "AliCDBManager.h" //ctor
+#include "AliCDBEntry.h" //ctor
#include <TLatex.h> //TestTrans()
#include <TView.h> //TestTrans()
#include <TPolyMarker3D.h> //TestTrans()
#include <TParticle.h> //Stack()
#include <TGeoPhysicalNode.h> //ctor
#include <TGeoBBox.h>
+#include <TF1.h> //ctor
+
ClassImp(AliHMPIDParam)
//++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++
AliHMPIDParam::AliHMPIDParam(Bool_t noGeo=kFALSE):
TNamed("HmpidParam","default version"),
- fX(0), fY(0), fRadNmean(0)
+ fX(0), fY(0), fRefIdx(1.28947),fPhotEMean(6.675),fTemp(25) //just set a refractive index for C6F14 at ephot=6.675 eV @ T=25 C
{
// Here all the intitializition is taken place when AliHMPIDParam::Instance() is invoked for the first time.
// In particular, matrices to be used for LORS<->MARS trasnformations are initialized from TGeo structure.
// Note that TGeoManager should be already initialized from geometry.root file
+ AliCDBManager *pCDB = AliCDBManager::Instance();
+ if(!pCDB) {
+ AliWarning("No Nmean C6F14 from OCDB. Default is taken from ctor.");
+ } else {
+ AliCDBEntry *pNmeanEnt =pCDB->Get("HMPID/Calib/Nmean"); //contains TObjArray of 42 TF1 + 1 EPhotMean
+ if(!pNmeanEnt) {
+ AliWarning("No Nmean C6F14 from OCDB. Default is taken from ctor.");
+ } else {
+ TObjArray *pNmean = (TObjArray*)pNmeanEnt->GetObject();
+ if(pNmean->GetEntries()==43) { //for backward compatibility
+ Double_t tmin,tmax;
+ ((TF1*)pNmean->At(42))->GetRange(tmin,tmax);
+ fPhotEMean = ((TF1*)pNmean->At(42))->Eval(tmin); //photon eMean from OCDB
+ AliInfo(Form("EPhotMean = %f eV successfully loaded from OCDB",fPhotEMean));
+ } else {
+ AliWarning("For backward compatibility EPhotMean is taken from ctor.");
+ }
+ }
+ }
- fRadNmean = MeanIdxRad(); //initialization of the running ref. index of freon
+ fRefIdx = MeanIdxRad(); //initialization of the running ref. index of freon
Float_t dead=2.6;// cm of the dead zones between PCs-> See 2CRC2099P1
static Float_t SizeAllX ( ) {return fgAllX; } //all PCs size x, [cm]
static Float_t SizeAllY ( ) {return fgAllY; } //all PCs size y, [cm]
- static Float_t LorsX (Int_t pc,Int_t padx ) {return (padx +0.5)*SizePadX()+fgkMinPcX[pc]; } //center of the pad x, [cm]
-
+ static Float_t LorsX (Int_t pc,Int_t padx ) {return (padx +0.5)*SizePadX()+fgkMinPcX[pc]; } //center of the pad x, [cm]
static Float_t LorsY (Int_t pc,Int_t pady ) {return (pady +0.5)*SizePadY()+fgkMinPcY[pc]; } //center of the pad y, [cm]
inline static void Lors2Pad(Float_t x,Float_t y,Int_t &pc,Int_t &px,Int_t &py); //(x,y)->(pc,px,py)
static Bool_t IsOverTh (Float_t q ) {return q >= fgSigmas; } //is digit over threshold?
- Double_t GetRefIdx ( )const{return fRadNmean; } //refractive index of freon
Bool_t GetInstType ( )const{return fgInstanceType; } //return if the instance is from geom or ideal
inline static Bool_t IsInDead(Float_t x,Float_t y ); //is the point in dead area?
inline static Int_t InHVSector( Float_t y ); //find HV sector
+ static Int_t Radiator( Float_t y ) {if (InHVSector(y)<0) return -1; return InHVSector(y)/2;}
static Bool_t IsInside (Float_t x,Float_t y,Float_t d=0) {return x>-d&&y>-d&&x<fgkMaxPcX[kMaxPc]+d&&y<fgkMaxPcY[kMaxPc]+d; } //is point inside chamber boundaries?
- Double_t MeanIdxRad ()const {return 1.29204;} //<--TEMPORAR--> to be removed in future. Mean ref index C6F14
- Double_t MeanIdxWin ()const {return 1.57819;} //<--TEMPORAR--> to be removed in future. Mean ref index quartz
- Float_t DistCut ()const {return 1.0;} //<--TEMPORAR--> to be removed in future. Cut for MIP-TRACK residual
- Float_t QCut ()const {return 100;} //<--TEMPORAR--> to be removed in future. Separation PHOTON-MIP charge
- Float_t MultCut ()const {return 200;} //<--TEMPORAR--> to be removed in future. Multiplicity cut to activate WEIGHT procedure
+ //For optical properties
+ static Double_t EPhotMin() {return 5.5;} //
+ static Double_t EPhotMax() {return 8.5;} //Photon energy range,[eV]
+ static Double_t NIdxRad(Double_t eV,Double_t temp) {return TMath::Sqrt(1+0.554*(1239.84/eV)*(1239.84/eV)/((1239.84/eV)*(1239.84/eV)-5769)-0.0005*(temp-20));}
+ static Double_t NIdxWin(Double_t eV) {return TMath::Sqrt(1+46.411/(10.666*10.666-eV*eV)+228.71/(18.125*18.125-eV*eV));}
+ static Double_t NMgF2Idx(Double_t eV) {return 1.7744 - 2.866e-3*(1239.842609/eV) + 5.5564e-6*(1239.842609/eV)*(1239.842609/eV);} // MgF2 idx of trasparency system
+ static Double_t NIdxGap(Double_t eV) {return 1+0.12489e-6/(2.62e-4 - eV*eV/1239.84/1239.84);}
+ static Double_t LAbsRad(Double_t eV) {return (eV<7.8)*(GausPar(eV,3.20491e16,-0.00917890,0.742402)+GausPar(eV,3035.37,4.81171,0.626309))+(eV>=7.8)*0.0001;}
+ static Double_t LAbsWin(Double_t eV) {return (eV<8.2)*(818.8638-301.0436*eV+36.89642*eV*eV-1.507555*eV*eV*eV)+(eV>=8.2)*0.0001;}//fit from DiMauro data 28.10.03
+ static Double_t LAbsGap(Double_t eV) {return (eV<7.75)*6512.399+(eV>=7.75)*3.90743e-2/(-1.655279e-1+6.307392e-2*eV-8.011441e-3*eV*eV+3.392126e-4*eV*eV*eV);}
+ static Double_t QEffCSI(Double_t eV) {return (eV>6.07267)*0.344811*(1-exp(-1.29730*(eV-6.07267)));}//fit from DiMauro data 28.10.03
+ static Double_t GausPar(Double_t x,Double_t a1,Double_t a2,Double_t a3) {return a1*TMath::Exp(-0.5*((x-a2)/a3)*((x-a2)/a3));}
+ inline static Double_t FindTemp(Double_t tLow,Double_t tUp,Double_t y); //find the temperature of the C6F14 in a given point with coord. y (in x is uniform)
+
+
+ Double_t GetEPhotMean ()const {return fPhotEMean;}
+ Double_t GetRefIdx ()const {return fRefIdx;} //running refractive index
+
+ Double_t MeanIdxRad ()const {return NIdxRad(fPhotEMean,fTemp);}
+ Double_t MeanIdxWin ()const {return NIdxWin(fPhotEMean);}
+ //
+ Float_t DistCut ()const {return 1.0;} //<--TEMPORAR--> to be removed in future. Cut for MIP-TRACK residual
+ Float_t QCut ()const {return 100;} //<--TEMPORAR--> to be removed in future. Separation PHOTON-MIP charge
+ Float_t MultCut ()const {return 200;} //<--TEMPORAR--> to be removed in future. Multiplicity cut to activate WEIGHT procedure
- Double_t RadThick ()const {return 1.5;} //<--TEMPORAR--> to be removed in future. Radiator thickness
- Double_t WinThick ()const {return 0.5;} //<--TEMPORAR--> to be removed in future. Window thickness
- Double_t GapThick ()const {return 8.0;} //<--TEMPORAR--> to be removed in future. Proximity gap thickness
- Double_t WinIdx ()const {return 1.5787;} //<--TEMPORAR--> to be removed in future. Mean refractive index of WIN material (SiO2)
- Double_t GapIdx ()const {return 1.0005;} //<--TEMPORAR--> to be removed in future. Mean refractive index of GAP material (CH4)
+ Double_t RadThick ()const {return 1.5;} //<--TEMPORAR--> to be removed in future. Radiator thickness
+ Double_t WinThick ()const {return 0.5;} //<--TEMPORAR--> to be removed in future. Window thickness
+ Double_t GapThick ()const {return 8.0;} //<--TEMPORAR--> to be removed in future. Proximity gap thickness
+ Double_t WinIdx ()const {return 1.5787;} //<--TEMPORAR--> to be removed in future. Mean refractive index of WIN material (SiO2)
+ Double_t GapIdx ()const {return 1.0005;} //<--TEMPORAR--> to be removed in future. Mean refractive index of GAP material (CH4)
static Int_t Stack(Int_t evt=-1,Int_t tid=-1); //Print stack info for event and tid
static Int_t StackCount(Int_t pid,Int_t evt); //Counts stack particles of given sort in given event
ph=TMath::ATan2(l[1],l[0]);}
TVector3 Norm (Int_t c )const{Double_t n[3]; Norm(c,n); return TVector3(n); }//norm
void Norm (Int_t c,Double_t *n )const{Double_t l[3]={0,0,1};fM[c]->LocalToMasterVect(l,n); }//norm
- void Point (Int_t c,Double_t *p,Int_t plane )const{Lors2Mars(c,0,0,p,plane);} //point of given chamber plane
+ void Point (Int_t c,Double_t *p,Int_t plane )const{Lors2Mars(c,0,0,p,plane);} //point of given chamber plane
- void SetRefIdx (Double_t refRadIdx ) {fRadNmean = refRadIdx;} //set refractive index of freon
+ void SetTemp (Double_t temp ) {fTemp = temp;} //set actual temperature of the C6F14
+ void SetEPhotMean (Double_t ePhotMean ) {fPhotEMean = ePhotMean;} //set mean photon energy
+
+ void SetRefIdx (Double_t refRadIdx ) {fRefIdx = refRadIdx;} //set running refractive index
+
void SetSigmas (Int_t sigmas ) {fgSigmas = sigmas;} //set sigma cut
void SetInstanceType(Bool_t inst ) {fgInstanceType = inst;} //kTRUE if from geomatry kFALSE if from ideal geometry
//For PID
TGeoHMatrix *fM[7]; //pointers to matrices defining HMPID chambers rotations-translations
Float_t fX; //x shift of LORS with respect to rotated MARS
- Float_t fY; //y shift of LORS with respect to rotated MARS
- Double_t fRadNmean; //C6F14 mean index as a running parameter
-
+ Float_t fY; //y shift of LORS with respect to rotated MARS
+ Double_t fRefIdx; //running refractive index of C6F14
+ Double_t fPhotEMean; //mean energy of photon
+ Double_t fTemp; //actual temparature of C6F14
private:
AliHMPIDParam(const AliHMPIDParam& r); //dummy copy constructor
AliHMPIDParam &operator=(const AliHMPIDParam& r); //dummy assignment operator
- ClassDef(AliHMPIDParam,0) //HMPID main parameters class
+ ClassDef(AliHMPIDParam,1) //HMPID main parameters class
};
//++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++
return hvsec;
}
//++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++
+Double_t AliHMPIDParam::FindTemp(Double_t tLow,Double_t tHigh,Double_t y)
+{
+// Model for gradient in temperature
+
+// Double_t gradT = (t2-t1)/SizePcY(); // linear gradient
+// return gradT*y+t1;
+ Double_t halfPadSize = 0.5*SizePadY();
+ Double_t gradT = (TMath::Log(SizePcY()) - TMath::Log(halfPadSize))/(TMath::Log(tHigh)-TMath::Log(tLow));
+ return tLow*TMath::Power(y/halfPadSize,1./gradT);
+}
+//++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++
#endif
Log("HMPID - Pedestal processing successful!!"); return kFALSE; // ok for pedestals
}
} else if ( runType=="STANDALONE" || runType=="PHYSICS"){
- if (!ProcDcs(pMap)){
+ if (!ProcDcs(pMap)){
Log("HMPID - ERROR - DCS processing failed!!"); return kTRUE; // error in DCS processing
} else {
Log("HMPID - DCS processing successful!!"); return kFALSE; // ok for DCS
//++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++
Bool_t AliHMPIDPreprocessor::ProcDcs(TMap* pMap)
{
-// Process: 1. inlet and outlet C6F14 temperature, stores TObjArray of 21 TF1, where TF1 is Nmean=f(t), one per radiator
+// Process: 1 (old). inlet and outlet C6F14 temperature, stores TObjArray of 21 TF1, where TF1 is Nmean=f(t), one per radiator
+// Process: 1. inlet and outlet C6F14 temperature, stores TObjArray of 42 TF1, where TF1 are Tin and Tout per radiator
+// + one function for the mean energy photon (in total 43).
// 2. CH4 pressure and HV stores TObjArray of 7 TF1 where TF1 is thr=f(t), one per chamber
// Arguments: pDcsMap - map of structure "alias name" - TObjArray of AliDCSValue
// Assume that: HV is the same during the run for a given chamber, different chambers might have different HV
Bool_t stDcsStore=kFALSE;
- TF2 idx("RidxC4F14","sqrt(1+0.554*(1239.84/x)^2/((1239.84/x)^2-5769)-0.0005*(y-20))",5.5 ,8.5 ,0 ,50); //N=f(Ephot,T) [eV,grad C] DiMauro mail
-
// Qthr=f(HV,P) [V,mBar] logA0=k*HV+b is taken from p. 64 TDR plot 2.59 for PC32
// A0=f(P) is taken from DiMauro mail
// Qthr is estimated as 3*A0
+
TF2 thr("RthrCH4" ,"3*10^(3.01e-3*x-4.72)+170745848*exp(-y*0.0162012)" ,2000,3000,900,1200);
- TObjArray arTmean(21); arTmean.SetOwner(kTRUE); //21 Tmean=f(time) one per radiator
- TObjArray arPress(7); arPress.SetOwner(kTRUE); //7 Press=f(time) one per chamber
- TObjArray arNmean(21); arNmean.SetOwner(kTRUE); //21 Nmean=f(time) one per radiator
+ TObjArray arNmean(43); arNmean.SetOwner(kTRUE); //42 Tin and Tout one per radiator + 1 for ePhotMean
TObjArray arQthre(42); arQthre.SetOwner(kTRUE); //42 Qthre=f(time) one per sector
AliDCSValue *pVal; Int_t cnt=0;
Double_t xP,yP;
+ TF1 **pTin = new TF1*[21];
+ TF1 **pTout = new TF1*[21];
+
// evaluate Environment Pressure
TObjArray *pPenv=(TObjArray*)pMap->GetValue("HMP_DET/HMP_ENV/HMP_ENV_PENV.actual.value");
arQthre.AddAt(new TF1(Form("HMP_QthreC%iS%i",iCh,iSec),
Form("3*10^(3.01e-3*HV%i_%i - 4.72)+170745848*exp(-(P%i+Penv)*0.0162012)",iCh,iSec,iCh),fStartTime,fEndTime),6*iCh+iSec);
}
-
// evaluate Temperatures: in and out of the radiators
-
// T in
for(Int_t iRad=0;iRad<3;iRad++){
+
+ pTin[3*iCh+iRad] = new TF1(Form("Tin%i%i" ,iCh,iRad),"[0]+[1]*x",fStartTime,fEndTime);
+ pTout[3*iCh+iRad] = new TF1(Form("Tout%i%i",iCh,iRad),"[0]+[1]*x",fStartTime,fEndTime);
+
TObjArray *pT1=(TObjArray*)pMap->GetValue(Form("HMP_DET/HMP_MP%i/HMP_MP%i_LIQ_LOOP.actual.sensors.Rad%iIn_Temp",iCh,iCh,iRad));
Log(Form(" Temperatures for module %i inside data ---> %3i entries",iCh,pT1->GetEntries()));
if(pT1->GetEntries()) {
TGraph *pGrT1=new TGraph; cnt=0; while((pVal=(AliDCSValue*)nextT1())) pGrT1->SetPoint(cnt++,pVal->GetTimeStamp(),pVal->GetFloat()); //T inlet
if(cnt==1) {
pGrT1->GetPoint(0,xP,yP);
- new TF1(Form("Tin%i%i",iCh,iRad),Form("%f",yP),fStartTime,fEndTime);
+ pTin[3*iCh+iRad]->SetParameter(0,yP);
+ pTin[3*iCh+iRad]->SetParameter(1,0);
} else {
- pGrT1->Fit(new TF1(Form("Tin%i%i",iCh,iRad),"[0]+[1]*x+[2]*sin([3]*x)",fStartTime,fEndTime),"Q");
+ pGrT1->Fit(pTin[3*iCh+iRad],"Q");
}
delete pGrT1;
} else {AliWarning(" No Data Points from HMP_MP0-6_LIQ_LOOP.actual.sensors.Rad0-2In_Temp!");return kFALSE;}
TGraph *pGrT2=new TGraph; cnt=0; while((pVal=(AliDCSValue*)nextT2())) pGrT2->SetPoint(cnt++,pVal->GetTimeStamp(),pVal->GetFloat()); //T outlet
if(cnt==1) {
pGrT2->GetPoint(0,xP,yP);
- new TF1(Form("Tou%i%i",iCh,iRad),Form("%f",yP),fStartTime,fEndTime);
+ pTout[3*iCh+iRad]->SetParameter(0,yP);
+ pTout[3*iCh+iRad]->SetParameter(1,0);
} else {
- pGrT2->Fit(new TF1(Form("Tou%i%i",iCh,iRad),"[0]+[1]*x+[2]*sin([3]*x)",fStartTime,fEndTime),"Q");
+ pGrT2->Fit(pTout[3*iCh+iRad],"Q");
}
delete pGrT2;
} else {AliWarning(" No Data Points from HMP_MP0-6_LIQ_LOOP.actual.sensors.Rad0-2Out_Temp!");return kFALSE;}
// evaluate Mean Refractive Index
- arNmean.AddAt(new TF1(Form("HMP_Nmean%i-%i",iCh,iRad),"1.292",fStartTime,fEndTime),3*iCh+iRad); //Nmean=f(t)
+ arNmean.AddAt(pTin[3*iCh+iRad] ,6*iCh+2*iRad ); //Tin =f(t)
+ arNmean.AddAt(pTout[3*iCh+iRad],6*iCh+2*iRad+1); //Tout=f(t)
}//radiators loop
}//chambers loop
+ Double_t eMean = ProcTrans(pMap);
+ arNmean.AddAt(new TF1("HMP_PhotEmean",Form("%f",eMean),fStartTime,fEndTime),42); //Photon energy mean
+
AliCDBMetaData metaData;
metaData.SetBeamPeriod(0);
metaData.SetResponsible("AliHMPIDPreprocessor");
if(!stDcsStore) {
Log("HMPID - failure to store DCS data results in OCDB");
}
+
+// arNmean.Delete();
+// arQthre.Delete();
+
+// for(Int_t i=0;i<21;i++) delete pTin[i]; delete []pTin;
+// for(Int_t i=0;i<21;i++) delete pTout[i]; delete []pTout;
+
return stDcsStore;
}//Process()
//++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++
}//ProcPed()
//++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++
-Double_t ProcTrans()
+Double_t AliHMPIDPreprocessor::ProcTrans(TMap* pMap)
{
-// Process transparency monitoring data and calculates Emean
- Double_t eMean=6.67786; //mean energy of photon defined by transperancy window
+ // Process transparency monitoring data and calculates Emean
+
+
+ Double_t sEnergProb=0, sProb=0;
+
+ Double_t tRefCR5 = 19. ; // mean temperature of CR5 where the system is in place
+
+ Double_t eMean = 0;
+
+ AliDCSValue *pVal;
+
+ for(Int_t i=0; i<30; i++){
+
+ // evaluate wavelenght
+ TObjArray *pWaveLenght = (TObjArray*)pMap->GetValue(Form("HMP_DET/HMP_INFR/HMP_INFR_TRANPLANT/HMP_INFR_TRANPLANT_MEASURE.measure[%i].waveLenght",i));
+ TIter NextWl(pWaveLenght); pVal=(AliDCSValue*)NextWl();
+ Double_t lambda = pVal->GetFloat();
+
+ Double_t photEn = 1239.842609/lambda; // 1239.842609 from nm to eV
+
+ if(photEn<AliHMPIDParam::EPhotMin() || photEn>AliHMPIDParam::EPhotMax()) continue;
+
+ // evaluate phototube current for argon reference
+ TObjArray *pArgonRef = (TObjArray*)pMap->GetValue(Form("HMP_DET/HMP_INFR/HMP_INFR_TRANPLANT/HMP_INFR_TRANPLANT_MEASURE.measure[%i].argonReference",i));
+ TIter NextArRef(pArgonRef); pVal=(AliDCSValue*)NextArRef();
+ Double_t aRefArgon = pVal->GetFloat();
+
+ // evaluate phototube current for argon cell
+ TObjArray *pArgonCell = (TObjArray*)pMap->GetValue(Form("HMP_DET/HMP_INFR/HMP_INFR_TRANPLANT/HMP_INFR_TRANPLANT_MEASURE.measure[%i].argonCell",i));
+ TIter NextArCell(pArgonCell); pVal=(AliDCSValue*)NextArCell();
+ Double_t aCellArgon = pVal->GetFloat();
+
+ //evaluate phototube current for freon reference
+ TObjArray *pFreonRef = (TObjArray*)pMap->GetValue(Form("HMP_DET/HMP_INFR/HMP_INFR_TRANPLANT/HMP_INFR_TRANPLANT_MEASURE.measure[%i].c6f14Reference",i));
+ TIter NextFrRef(pFreonRef); pVal=(AliDCSValue*)NextFrRef();
+ Double_t aRefFreon = pVal->GetFloat();
+
+ //evaluate phototube current for freon cell
+ TObjArray *pFreonCell = (TObjArray*)pMap->GetValue(Form("HMP_DET/HMP_INFR/HMP_INFR_TRANPLANT/HMP_INFR_TRANPLANT_MEASURE.measure[%i].c6f14Cell",i));
+ TIter NextFrCell(pFreonCell); pVal=(AliDCSValue*)NextFrCell();
+ Double_t aCellFreon = pVal->GetFloat();
+
+ //evaluate correction factor to calculate trasparency (Ref. NIMA 486 (2002) 590-609)
+
+ Double_t aN1 = AliHMPIDParam::NIdxRad(photEn,tRefCR5);
+ Double_t aN2 = AliHMPIDParam::NMgF2Idx(photEn);
+ Double_t aN3 = 1; // Argon Idx
+
+ Double_t aR1 = ((aN1 - aN2)*(aN1 - aN2))/((aN1 + aN2)*(aN1 + aN2));
+ Double_t aR2 = ((aN2 - aN3)*(aN2 - aN3))/((aN2 + aN3)*(aN2 + aN3));
+ Double_t aT1 = (1 - aR1);
+ Double_t aT2 = (1 - aR2);
+ Double_t aCorrFactor = (aT1*aT1)/(aT2*aT2);
+
+ // evaluate 15 mm of thickness C6F14 Trans
+ Double_t aTransRad;
+
+ if(aRefFreon*aRefArgon>0) {
+ aTransRad = TMath::Power((aCellFreon/aRefFreon)/(aCellArgon/aRefArgon)*aCorrFactor,1.5);
+ } else {
+ return DefaultEMean();
+ }
+
+ // evaluate 0.5 mm of thickness SiO2 Trans
+ Double_t aTransSiO2 = TMath::Exp(-0.5/AliHMPIDParam::LAbsWin(photEn));
+
+ // evaluate 80 cm of thickness Gap (low density CH4) transparency
+ Double_t aTransGap = TMath::Exp(-80./AliHMPIDParam::LAbsGap(photEn));
+
+ // evaluate CsI quantum efficiency
+ Double_t aCsIQE = AliHMPIDParam::QEffCSI(photEn);
+
+ // evaluate total convolution of all material optical properties
+ Double_t aTotConvolution = aTransRad*aTransSiO2*aTransGap*aCsIQE;
+
+ sEnergProb+=aTotConvolution*photEn;
+
+ sProb+=aTotConvolution;
+}
+
+ if(sProb>0) {
+ eMean = sEnergProb/sProb;
+ } else {
+ return DefaultEMean();
+ }
+
+ Log(Form(" Mean energy photon calculated ---> %f eV ",eMean));
+
+ if(eMean<AliHMPIDParam::EPhotMin() || eMean>AliHMPIDParam::EPhotMax()) return DefaultEMean();
+
return eMean;
+
}
//++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++
+Double_t AliHMPIDPreprocessor::DefaultEMean()
+{
+ Double_t eMean = 6.675; //just set a refractive index for C6F14 at ephot=6.675 eV @ T=25 C
+ AliWarning(Form("Mean energy for photons out of range [%f,%f] in Preprocessor. Default value Eph=%f eV taken.",AliHMPIDParam::EPhotMin(),
+ AliHMPIDParam::EPhotMax(),
+ eMean));
+ return eMean;
+}
}
virtual ~AliHMPIDPreprocessor( ) {}
protected:
- virtual void Initialize(Int_t run, UInt_t startTime, UInt_t endTime); //
- virtual UInt_t Process (TMap* pDcsMap ); //process everthing
- Bool_t ProcDcs (TMap* pDcsMap ); //process DCS data points
- Bool_t ProcPed ( ); //process pedestal files
+ virtual void Initialize(Int_t run, UInt_t startTime, UInt_t endTime); //
+ virtual UInt_t Process (TMap* pDcsMap ); //process everthing
+ Bool_t ProcDcs (TMap* pDcsMap ); //process DCS data points
+ Bool_t ProcPed ( ); //process pedestal files
+ Double_t ProcTrans (TMap *pDcsMap );
+ Double_t DefaultEMean(); //set a default value in ePhotMean
ClassDef(AliHMPIDPreprocessor, 0);
};
}
}
- AliCDBEntry *pQthreEnt =AliCDBManager::Instance()->Get("HMPID/Calib/Qthre"); //contains TObjArray of 7 TF1
- if(!pQthreEnt) AliFatal("No Qthre available");
- TObjArray *pQthre = (TObjArray*)pQthreEnt->GetObject();
- for(Int_t iCh=AliHMPIDParam::kMinCh;iCh<=AliHMPIDParam::kMaxCh;iCh++) {
- if(pQthre->GetEntriesFast()==AliHMPIDParam::kMaxCh+1) { // for backward compatibility...
- TF1 *pfQthre = (TF1*)pQthre->At(iCh);
- Double_t tMin,tMax;
- pfQthre->GetRange(tMin,tMax);
- Double_t qthre=pfQthre->Eval(tMin);
- AliDebug(1,Form("Qthre successfully loaded for chamber %i -> %f ",iCh,qthre));
- } else {
- for(Int_t isec=0;isec<=5;isec++) {
- TF1 *pfQthre = (TF1*)pQthre->At(6*iCh+isec);
- Double_t tMin,tMax;
- pfQthre->GetRange(tMin,tMax);
- Double_t qthre=pfQthre->Eval(tMin);
- AliDebug(1,Form("Qthre successfully loaded for chamber %i sector %i -> %f ",iCh,isec,qthre));
- }
- }
- }
-
-
AliCDBEntry *pDaqSigEnt =AliCDBManager::Instance()->Get("HMPID/Calib/DaqSig"); //contains TObjArray of TObjArray 14 TMatrixF sigmas values for pads
if(!pDaqSigEnt) AliFatal("No pedestals from DAQ!");
fDaqSig = (TObjArray*)pDaqSigEnt->GetObject();
// Interface pure virtual in AliTracker. Invoked from AliReconstruction::RunTracking() after invocation of AliTracker::LoadClusters() once per event
// Agruments: pEsd - pointer to ESD
// Returns: error code
- AliCDBEntry *pNmeanEnt =AliCDBManager::Instance()->Get("HMPID/Calib/Nmean"); //contains TObjArray of 21 TF1
+ AliCDBEntry *pNmeanEnt =AliCDBManager::Instance()->Get("HMPID/Calib/Nmean"); //contains TObjArray of 42 TF1 + 1 EPhotMean
AliCDBEntry *pQthreEnt =AliCDBManager::Instance()->Get("HMPID/Calib/Qthre"); //contains TObjArray of 42 (7ch * 6sec) TF1
if(!pNmeanEnt) AliFatal("No Nmean C6F14 ");
if(!pQthreEnt) AliFatal("No Qthre");
continue;
}
pTrk->SetHMPIDtrk(xRa,yRa,theta,phi); //store initial infos
- Double_t nmean=((TF1*)pNmean->At(3*cham))->Eval(pEsd->GetTimeStamp()); //C6F14 Nmean for this chamber
+ Double_t nmean;
+ if(pNmean->GetEntries()==21) { //for backward compatibility
+ nmean=((TF1*)pNmean->At(3*cham))->Eval(pEsd->GetTimeStamp()); //C6F14 Nmean for this chamber
+ } else {
+ Int_t iRad = AliHMPIDParam::Radiator(yRa); //evaluate the radiator involved
+ Double_t tLow = ((TF1*)pNmean->At(6*cham+2*iRad ))->Eval(pEsd->GetTimeStamp()); //C6F14 low temp for this chamber
+ Double_t tHigh = ((TF1*)pNmean->At(6*cham+2*iRad+1))->Eval(pEsd->GetTimeStamp()); //C6F14 high temp for this chamber
+ Double_t tExp = AliHMPIDParam::FindTemp(tLow,tHigh,yRa); //estimated temp for that chamber at that y
+ nmean = AliHMPIDParam::NIdxRad(AliHMPIDParam::Instance()->GetEPhotMean(),tExp); //mean ref idx @ a given temp
+ }
Double_t qthre = 0;
if(pQthre->GetEntriesFast()==AliHMPIDParam::kMaxCh+1) // just for backward compatibility
qthre=((TF1*)pQthre->At(cham))->Eval(pEsd->GetTimeStamp()); //
else { // in the past just 1 qthre
Int_t hvsec = AliHMPIDParam::InHVSector(yPc); // per chamber
if (hvsec>=0)
- qthre=((TF1*)pQthre->At(6*cham+hvsec))->Eval(pEsd->GetTimeStamp()); //
+ qthre=((TF1*)pQthre->At(6*cham+hvsec))->Eval(pEsd->GetTimeStamp()); //
} //
recon.SetImpPC(xPc,yPc); //store track impact to PC
recon.CkovAngle(pTrk,(TClonesArray *)pClus->At(cham),nmean,qthre); //search for Cerenkov angle of this track
git://git.uio.no / u / mrichter / AliRoot.git / commitdiff