#include "AliRawReader.h"
#include "AliVZEROReconstructor.h"
#include "AliVZERORawStream.h"
-#include "AliESD.h"
+#include "AliESDEvent.h"
ClassImp(AliVZEROReconstructor)
AliVZEROReconstructor:: AliVZEROReconstructor(): AliReconstructor(),
fESDVZERO(0x0),
fESD(0x0),
- fRunLoader(0x0),
fCalibData(GetCalibData())
{
// Default constructor
}
//_____________________________________________________________________________
-void AliVZEROReconstructor::Init(AliRunLoader* runLoader)
+void AliVZEROReconstructor::Init(AliRunLoader* /*runLoader*/)
{
// initializer
- fRunLoader = runLoader;
fESDVZERO = new AliESDVZERO;
}
rawReader->Reset();
AliVZERORawStream rawStream(rawReader);
- while (rawStream.Next()) {
- Int_t pmNumber = rawStream.GetCell();
- Int_t adc = rawStream.GetADC();
- Int_t time = rawStream.GetTime();
+ if (rawStream.Next()) {
+ for(Int_t iChannel = 0; iChannel < 64; iChannel++) {
+ Int_t adc = rawStream.GetADC(iChannel);
+ Int_t time = rawStream.GetTime(iChannel);
new ((*digitsArray)[digitsArray->GetEntriesFast()])
- AliVZEROdigit(pmNumber,adc,time);
+ AliVZEROdigit(iChannel,adc,time);
+ }
}
digitsTree->Fill();
//______________________________________________________________________
void AliVZEROReconstructor::FillESD(TTree* digitsTree, TTree* /*clustersTree*/,
- AliESD* esd) const
+ AliESDEvent* esd) const
{
// fills multiplicities to the ESD
for (Int_t d=0; d<nDigits; d++) {
AliVZEROdigit* digit = (AliVZEROdigit*)digitsArray->At(d);
Int_t pmNumber = digit->PMNumber();
- adc[pmNumber] = digit->ADC();
- if (pmNumber<=31) {
- if (pmNumber<=7) multV0C[0]=multV0C[0]+ float(adc[pmNumber])/mip[pmNumber];
- if (pmNumber>=8 && pmNumber<=15) multV0C[1]=multV0C[1]+ float(adc[pmNumber])/mip[pmNumber];
- if (pmNumber>=16 && pmNumber<=23) multV0C[2]=multV0C[2]+ float(adc[pmNumber])/mip[pmNumber];
- if (pmNumber>=24 && pmNumber<=31) multV0C[3]=multV0C[3]+ float(adc[pmNumber])/mip[pmNumber];
- adcV0C = adcV0C + float(adc[pmNumber])/mip[pmNumber];
- if(adc[pmNumber] > 4) nbPMV0C++;
- }
- if (pmNumber>=32) {
- if (pmNumber>=32 && pmNumber<=39) multV0A[0]=multV0A[0]+ float(adc[pmNumber])/mip[pmNumber];
- if (pmNumber>=40 && pmNumber<=47) multV0A[1]=multV0A[1]+ float(adc[pmNumber])/mip[pmNumber];
- if (pmNumber>=48 && pmNumber<=55) multV0A[2]=multV0A[2]+ float(adc[pmNumber])/mip[pmNumber];
- if (pmNumber>=56 && pmNumber<=63) multV0A[3]=multV0A[3]+ float(adc[pmNumber])/mip[pmNumber];
- adcV0A = adcV0A + float(adc[pmNumber])/mip[pmNumber];
- if(adc[pmNumber] > 4) nbPMV0A++;
+ adc[pmNumber] = digit->ADC();
+ // cut of ADC at MIP/2
+ if (adc[pmNumber] > (mip[pmNumber]/2)) {
+ if (pmNumber<=31) {
+ if (pmNumber<=7) multV0C[0]=multV0C[0]+ float(adc[pmNumber])/mip[pmNumber];
+ if (pmNumber>=8 && pmNumber<=15) multV0C[1]=multV0C[1]+ float(adc[pmNumber])/mip[pmNumber];
+ if (pmNumber>=16 && pmNumber<=23) multV0C[2]=multV0C[2]+ float(adc[pmNumber])/mip[pmNumber];
+ if (pmNumber>=24 && pmNumber<=31) multV0C[3]=multV0C[3]+ float(adc[pmNumber])/mip[pmNumber];
+ adcV0C = adcV0C + float(adc[pmNumber])/mip[pmNumber];
+ nbPMV0C++;
+ }
+ if (pmNumber>=32 ) {
+ if (pmNumber>=32 && pmNumber<=39) multV0A[0]=multV0A[0]+ float(adc[pmNumber])/mip[pmNumber];
+ if (pmNumber>=40 && pmNumber<=47) multV0A[1]=multV0A[1]+ float(adc[pmNumber])/mip[pmNumber];
+ if (pmNumber>=48 && pmNumber<=55) multV0A[2]=multV0A[2]+ float(adc[pmNumber])/mip[pmNumber];
+ if (pmNumber>=56 && pmNumber<=63) multV0A[3]=multV0A[3]+ float(adc[pmNumber])/mip[pmNumber];
+ adcV0A = adcV0A + float(adc[pmNumber])/mip[pmNumber];
+ nbPMV0A++;
+ }
}
} // end of loop over digits