/************************************************************************** * 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: $ */ //_________________________________________________________________________ // Class to collect two-photon invariant mass distributions for // extractin raw pi0 yield. // //-- Author: Dmitri Peressounko (RRC "KI") //-- Adapted to PartCorr frame by Lamia Benhabib (SUBATECH) //-- and Gustavo Conesa (INFN-Frascati) //_________________________________________________________________________ // --- ROOT system --- #include "TH3.h" #include "TH2D.h" //#include "Riostream.h" #include "TCanvas.h" #include "TPad.h" #include "TROOT.h" #include "TClonesArray.h" #include "TObjString.h" //---- AliRoot system ---- #include "AliAnaPi0.h" #include "AliCaloTrackReader.h" #include "AliCaloPID.h" #include "AliStack.h" #include "AliFiducialCut.h" #include "TParticle.h" #include "AliVEvent.h" #include "AliESDCaloCluster.h" #include "AliESDEvent.h" #include "AliAODEvent.h" #include "AliNeutralMesonSelection.h" #include "AliMixedEvent.h" ClassImp(AliAnaPi0) //________________________________________________________________________________________________________________________________________________ AliAnaPi0::AliAnaPi0() : AliAnaPartCorrBaseClass(), fDoOwnMix(kFALSE),fNCentrBin(0),//fNZvertBin(0),fNrpBin(0), fNmaxMixEv(0), fCalorimeter(""), fNModules(12), fUseAngleCut(kFALSE), fEventsList(0x0), fMultiCutAna(kFALSE), fNPtCuts(0),fNAsymCuts(0), fNCellNCuts(0),fNPIDBits(0), fMakeInvPtPlots(kFALSE), fSameSM(kFALSE), fhReMod(0x0),fhReDiffMod(0x0), fhRe1(0x0), fhMi1(0x0), fhRe2(0x0), fhMi2(0x0), fhRe3(0x0), fhMi3(0x0), fhReInvPt1(0x0), fhMiInvPt1(0x0), fhReInvPt2(0x0), fhMiInvPt2(0x0), fhReInvPt3(0x0), fhMiInvPt3(0x0), fhRePtNCellAsymCuts(0x0), fhRePIDBits(0x0),fhRePtMult(0x0), fhRePtAsym(0x0), fhRePtAsymPi0(0x0),fhRePtAsymEta(0x0), fhEvents(0x0), fhRealOpeningAngle(0x0),fhRealCosOpeningAngle(0x0), fhPrimPt(0x0), fhPrimAccPt(0x0), fhPrimY(0x0), fhPrimAccY(0x0), fhPrimPhi(0x0), fhPrimAccPhi(0x0), fhPrimOpeningAngle(0x0),fhPrimCosOpeningAngle(0x0) { //Default Ctor InitParameters(); } //________________________________________________________________________________________________________________________________________________ AliAnaPi0::~AliAnaPi0() { // Remove event containers if(fDoOwnMix && fEventsList){ for(Int_t ic=0; icDelete() ; delete fEventsList[ic*GetNZvertBin()*GetNRPBin()+iz*GetNRPBin()+irp] ; } } } delete[] fEventsList; fEventsList=0 ; } } //________________________________________________________________________________________________________________________________________________ void AliAnaPi0::InitParameters() { //Init parameters when first called the analysis //Set default parameters SetInputAODName("PWG4Particle"); AddToHistogramsName("AnaPi0_"); fNModules = 12; // set maximum to maximum number of EMCAL modules fNCentrBin = 1; // fNZvertBin = 1; // fNrpBin = 1; fNmaxMixEv = 10; fCalorimeter = "PHOS"; fUseAngleCut = kFALSE; fMultiCutAna = kFALSE; fNPtCuts = 3; fPtCuts[0] = 0.; fPtCuts[1] = 0.3; fPtCuts[2] = 0.5; for(Int_t i = fNPtCuts; i < 10; i++)fPtCuts[i] = 0.; fNAsymCuts = 4; fAsymCuts[0] = 1.; fAsymCuts[1] = 0.8; fAsymCuts[2] = 0.6; fAsymCuts[3] = 0.1; for(Int_t i = fNAsymCuts; i < 10; i++)fAsymCuts[i] = 0.; fNCellNCuts = 3; fCellNCuts[0] = 0; fCellNCuts[1] = 1; fCellNCuts[2] = 2; for(Int_t i = fNCellNCuts; i < 10; i++)fCellNCuts[i] = 0; fNPIDBits = 2; fPIDBits[0] = 0; fPIDBits[1] = 2; // fPIDBits[2] = 4; fPIDBits[3] = 6;// check, no cut, dispersion, neutral, dispersion&&neutral for(Int_t i = fNPIDBits; i < 10; i++)fPIDBits[i] = 0; } //________________________________________________________________________________________________________________________________________________ TObjString * AliAnaPi0::GetAnalysisCuts() { //Save parameters used for analysis TString parList ; //this will be list of parameters used for this analysis. const Int_t buffersize = 255; char onePar[buffersize] ; snprintf(onePar,buffersize,"--- AliAnaPi0 ---\n") ; parList+=onePar ; snprintf(onePar,buffersize,"Number of bins in Centrality: %d \n",fNCentrBin) ; parList+=onePar ; snprintf(onePar,buffersize,"Number of bins in Z vert. pos: %d \n",GetNZvertBin()) ; parList+=onePar ; snprintf(onePar,buffersize,"Number of bins in Reac. Plain: %d \n",GetNRPBin()) ; parList+=onePar ; snprintf(onePar,buffersize,"Depth of event buffer: %d \n",fNmaxMixEv) ; parList+=onePar ; snprintf(onePar,buffersize,"Pair in same Module: %d; Make InvPt plots %d \n",fSameSM, fMakeInvPtPlots) ; parList+=onePar ; snprintf(onePar,buffersize," Asymmetry cuts: n = %d, asymmetry < ",fNAsymCuts) ; for(Int_t i = 0; i < fNAsymCuts; i++) snprintf(onePar,buffersize,"%s %2.2f;",onePar,fAsymCuts[i]); parList+=onePar ; snprintf(onePar,buffersize," PID selection bits: n = %d, PID bit =\n",fNPIDBits) ; for(Int_t i = 0; i < fNPIDBits; i++) snprintf(onePar,buffersize,"%s %d;",onePar,fPIDBits[i]); parList+=onePar ; snprintf(onePar,buffersize,"Cuts: \n") ; parList+=onePar ; snprintf(onePar,buffersize,"Z vertex position: -%f < z < %f \n",GetZvertexCut(),GetZvertexCut()) ; parList+=onePar ; snprintf(onePar,buffersize,"Calorimeter: %s \n",fCalorimeter.Data()) ; parList+=onePar ; snprintf(onePar,buffersize,"Number of modules: %d \n",fNModules) ; parList+=onePar ; if(fMultiCutAna){ snprintf(onePar, buffersize," pT cuts: n = %d, pt > ",fNPtCuts) ; for(Int_t i = 0; i < fNPtCuts; i++) snprintf(onePar,buffersize,"%s %2.2f;",onePar,fPtCuts[i]); parList+=onePar ; snprintf(onePar,buffersize, " N cell in cluster cuts: n = %d, nCell > ",fNCellNCuts) ; for(Int_t i = 0; i < fNCellNCuts; i++) snprintf(onePar,buffersize,"%s %d;",onePar,fCellNCuts[i]); parList+=onePar ; } return new TObjString(parList) ; } //________________________________________________________________________________________________________________________________________________ TList * AliAnaPi0::GetCreateOutputObjects() { // Create histograms to be saved in output file and // store them in fOutputContainer //create event containers fEventsList = new TList*[fNCentrBin*GetNZvertBin()*GetNRPBin()] ; for(Int_t ic=0; icSetOwner(kFALSE); } } } TList * outputContainer = new TList() ; outputContainer->SetName(GetName()); fhReMod = new TH2D*[fNModules] ; fhReDiffMod = new TH2D*[fNModules+1] ; fhRe1 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; fhRe2 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; fhRe3 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; fhMi1 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; fhMi2 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; fhMi3 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; if(fMakeInvPtPlots ) { fhReInvPt1 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; fhReInvPt2 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; fhReInvPt3 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; fhMiInvPt1 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; fhMiInvPt2 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; fhMiInvPt3 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; } const Int_t buffersize = 255; char key[buffersize] ; char title[buffersize] ; Int_t nptbins = GetHistoPtBins(); Int_t nphibins = GetHistoPhiBins(); Int_t netabins = GetHistoEtaBins(); Float_t ptmax = GetHistoPtMax(); Float_t phimax = GetHistoPhiMax(); Float_t etamax = GetHistoEtaMax(); Float_t ptmin = GetHistoPtMin(); Float_t phimin = GetHistoPhiMin(); Float_t etamin = GetHistoEtaMin(); Int_t nmassbins = GetHistoMassBins(); Int_t nasymbins = GetHistoAsymmetryBins(); Float_t massmax = GetHistoMassMax(); Float_t asymmax = GetHistoAsymmetryMax(); Float_t massmin = GetHistoMassMin(); Float_t asymmin = GetHistoAsymmetryMin(); Int_t ntrmbins = GetHistoTrackMultiplicityBins(); Int_t ntrmmax = GetHistoTrackMultiplicityMax(); Int_t ntrmmin = GetHistoTrackMultiplicityMin(); for(Int_t ic=0; icSetXTitle("p_{T} (GeV/c)"); fhRe1[index]->SetYTitle("m_{#gamma,#gamma} (GeV/c^{2})"); //printf("name: %s\n ",fhRe1[index]->GetName()); outputContainer->Add(fhRe1[index]) ; //Distance to bad module 2 snprintf(key, buffersize,"hRe_cen%d_pidbit%d_asy%d_dist2",ic,ipid,iasym) ; snprintf(title, buffersize,"Real m_{#gamma#gamma} distr. for centrality=%d, PID bit=%d and asymmetry %1.2f, dist bad 2", ic,fPIDBits[ipid], fAsymCuts[iasym]) ; fhRe2[index] = new TH2D(key,title,nptbins,ptmin,ptmax,nmassbins,massmin,massmax) ; fhRe2[index]->SetXTitle("p_{T} (GeV/c)"); fhRe2[index]->SetYTitle("m_{#gamma,#gamma} (GeV/c^{2})"); outputContainer->Add(fhRe2[index]) ; //Distance to bad module 3 snprintf(key, buffersize,"hRe_cen%d_pidbit%d_asy%d_dist3",ic,ipid,iasym) ; snprintf(title, buffersize,"Real m_{#gamma#gamma} distr. for centrality=%d, PID bit=%d and asymmetry %1.2f, dist bad 3", ic,fPIDBits[ipid], fAsymCuts[iasym]) ; fhRe3[index] = new TH2D(key,title,nptbins,ptmin,ptmax,nmassbins,massmin,massmax) ; fhRe3[index]->SetXTitle("p_{T} (GeV/c)"); fhRe3[index]->SetYTitle("m_{#gamma,#gamma} (GeV/c^{2})"); outputContainer->Add(fhRe3[index]) ; if(fMakeInvPtPlots ) { //Inverse pT //Distance to bad module 1 snprintf(key, buffersize,"hReInvPt_cen%d_pidbit%d_asy%d_dist1",ic,ipid,iasym) ; snprintf(title, buffersize,"Real m_{#gamma#gamma} distr. for centrality=%d, PID bit=%d and asymmetry %1.2f, dist bad 1", ic,fPIDBits[ipid], fAsymCuts[iasym]) ; fhReInvPt1[index] = new TH2D(key,title,nptbins,ptmin,ptmax,nmassbins,massmin,massmax) ; fhReInvPt1[index]->SetXTitle("p_{T} (GeV/c)"); fhReInvPt1[index]->SetYTitle("m_{#gamma,#gamma} (GeV/c^{2})"); outputContainer->Add(fhReInvPt1[index]) ; //Distance to bad module 2 snprintf(key, buffersize,"hReInvPt_cen%d_pidbit%d_asy%d_dist2",ic,ipid,iasym) ; snprintf(title, buffersize,"Real m_{#gamma#gamma} distr. for centrality=%d, PID bit=%d and asymmetry %1.2f, dist bad 2", ic,fPIDBits[ipid], fAsymCuts[iasym]) ; fhReInvPt2[index] = new TH2D(key,title,nptbins,ptmin,ptmax,nmassbins,massmin,massmax) ; fhReInvPt2[index]->SetXTitle("p_{T} (GeV/c)"); fhReInvPt2[index]->SetYTitle("m_{#gamma,#gamma} (GeV/c^{2})"); outputContainer->Add(fhReInvPt2[index]) ; //Distance to bad module 3 snprintf(key, buffersize,"hReInvPt_cen%d_pidbit%d_asy%d_dist3",ic,ipid,iasym) ; snprintf(title, buffersize,"Real m_{#gamma#gamma} distr. for centrality=%d, PID bit=%d and asymmetry %1.2f, dist bad 3", ic,fPIDBits[ipid], fAsymCuts[iasym]) ; fhReInvPt3[index] = new TH2D(key,title,nptbins,ptmin,ptmax,nmassbins,massmin,massmax) ; fhReInvPt3[index]->SetXTitle("p_{T} (GeV/c)"); fhReInvPt3[index]->SetYTitle("m_{#gamma,#gamma} (GeV/c^{2})"); outputContainer->Add(fhReInvPt3[index]) ; } if(fDoOwnMix){ //Distance to bad module 1 snprintf(key, buffersize,"hMi_cen%d_pidbit%d_asy%d_dist1",ic,ipid,iasym) ; snprintf(title, buffersize,"Mixed m_{#gamma#gamma} distr. for centrality=%d, PID bit=%d and asymmetry %1.2f, dist bad 1", ic,fPIDBits[ipid], fAsymCuts[iasym]) ; fhMi1[index] = new TH2D(key,title,nptbins,ptmin,ptmax,nmassbins,massmin,massmax) ; fhMi1[index]->SetXTitle("p_{T} (GeV/c)"); fhMi1[index]->SetYTitle("m_{#gamma,#gamma} (GeV/c^{2})"); outputContainer->Add(fhMi1[index]) ; //Distance to bad module 2 snprintf(key, buffersize,"hMi_cen%d_pidbit%d_asy%d_dist2",ic,ipid,iasym) ; snprintf(title, buffersize,"Mixed m_{#gamma#gamma} distr. for centrality=%d, PID bit=%d and asymmetry %1.2f, dist bad 2", ic,fPIDBits[ipid], fAsymCuts[iasym]) ; fhMi2[index] = new TH2D(key,title,nptbins,ptmin,ptmax,nmassbins,massmin,massmax) ; fhMi2[index]->SetXTitle("p_{T} (GeV/c)"); fhMi2[index]->SetYTitle("m_{#gamma,#gamma} (GeV/c^{2})"); outputContainer->Add(fhMi2[index]) ; //Distance to bad module 3 snprintf(key, buffersize,"hMi_cen%d_pidbit%d_asy%d_dist3",ic,ipid,iasym) ; snprintf(title, buffersize,"Mixed m_{#gamma#gamma} distr. for centrality=%d, PID bit=%d and asymmetry %1.2f, dist bad 3", ic,fPIDBits[ipid], fAsymCuts[iasym]) ; fhMi3[index] = new TH2D(key,title,nptbins,ptmin,ptmax,nmassbins,massmin,massmax) ; fhMi3[index]->SetXTitle("p_{T} (GeV/c)"); fhMi3[index]->SetYTitle("m_{#gamma,#gamma} (GeV/c^{2})"); outputContainer->Add(fhMi3[index]) ; if(fMakeInvPtPlots ) { //Inverse pT //Distance to bad module 1 snprintf(key, buffersize,"hMiInvPt_cen%d_pidbit%d_asy%d_dist1",ic,ipid,iasym) ; snprintf(title, buffersize,"Mixed m_{#gamma#gamma} distr. for centrality=%d, PID bit=%d and asymmetry %1.2f, dist bad 1", ic,fPIDBits[ipid], fAsymCuts[iasym]) ; fhMiInvPt1[index] = new TH2D(key,title,nptbins,ptmin,ptmax,nmassbins,massmin,massmax) ; fhMiInvPt1[index]->SetXTitle("p_{T} (GeV/c)"); fhMiInvPt1[index]->SetYTitle("m_{#gamma,#gamma} (GeV/c^{2})"); outputContainer->Add(fhMiInvPt1[index]) ; //Distance to bad module 2 snprintf(key, buffersize,"hMiInvPt_cen%d_pidbit%d_asy%d_dist2",ic,ipid,iasym) ; snprintf(title, buffersize,"Mixed m_{#gamma#gamma} distr. for centrality=%d, PID bit=%d and asymmetry %1.2f, dist bad 2", ic,fPIDBits[ipid], fAsymCuts[iasym]) ; fhMiInvPt2[index] = new TH2D(key,title,nptbins,ptmin,ptmax,nmassbins,massmin,massmax) ; fhMiInvPt2[index]->SetXTitle("p_{T} (GeV/c)"); fhMiInvPt2[index]->SetYTitle("m_{#gamma,#gamma} (GeV/c^{2})"); outputContainer->Add(fhMiInvPt2[index]) ; //Distance to bad module 3 snprintf(key, buffersize,"hMiInvPt_cen%d_pidbit%d_asy%d_dist3",ic,ipid,iasym) ; snprintf(title, buffersize,"Mixed m_{#gamma#gamma} distr. for centrality=%d, PID bit=%d and asymmetry %1.2f,dist bad 3", ic,fPIDBits[ipid], fAsymCuts[iasym]) ; fhMiInvPt3[index] = new TH2D(key,title,nptbins,ptmin,ptmax,nmassbins,massmin,massmax) ; fhMiInvPt3[index]->SetXTitle("p_{T} (GeV/c)"); fhMiInvPt3[index]->SetYTitle("m_{#gamma,#gamma} (GeV/c^{2})"); outputContainer->Add(fhMiInvPt3[index]) ; } } } } } fhRePtAsym = new TH2D("hRePtAsym","Asymmetry vs pt, for pairs",nptbins,ptmin,ptmax,nasymbins,asymmin,asymmax) ; fhRePtAsym->SetXTitle("p_{T} (GeV/c)"); fhRePtAsym->SetYTitle("Asymmetry"); outputContainer->Add(fhRePtAsym); fhRePtAsymPi0 = new TH2D("hRePtAsymPi0","Asymmetry vs pt, for pairs close to #pi^{0} mass",nptbins,ptmin,ptmax,nasymbins,asymmin,asymmax) ; fhRePtAsymPi0->SetXTitle("p_{T} (GeV/c)"); fhRePtAsymPi0->SetYTitle("Asymmetry"); outputContainer->Add(fhRePtAsymPi0); fhRePtAsymEta = new TH2D("hRePtAsymEta","Asymmetry vs pt, for pairs close to #eta mass",nptbins,ptmin,ptmax,nasymbins,asymmin,asymmax) ; fhRePtAsymEta->SetXTitle("p_{T} (GeV/c)"); fhRePtAsymEta->SetYTitle("Asymmetry"); outputContainer->Add(fhRePtAsymEta); if(fMultiCutAna){ fhRePIDBits = new TH2D*[fNPIDBits]; for(Int_t ipid=0; ipidSetXTitle("p_{T} (GeV/c)"); fhRePIDBits[ipid]->SetYTitle("m_{#gamma,#gamma} (GeV/c^{2})"); outputContainer->Add(fhRePIDBits[ipid]) ; }// pid bit loop fhRePtNCellAsymCuts = new TH2D*[fNPtCuts*fNAsymCuts*fNCellNCuts]; for(Int_t ipt=0; ipt%2.2f, ncell>%d and asym >%1.2f ",fPtCuts[ipt],fCellNCuts[icell], fAsymCuts[iasym]) ; Int_t index = ((ipt*fNCellNCuts)+icell)*fNAsymCuts + iasym; //printf("ipt %d, icell %d, iassym %d, index %d\n",ipt, icell, iasym, index); fhRePtNCellAsymCuts[index] = new TH2D(key,title,nptbins,ptmin,ptmax,nmassbins,massmin,massmax) ; fhRePtNCellAsymCuts[index]->SetXTitle("p_{T} (GeV/c)"); fhRePtNCellAsymCuts[index]->SetYTitle("m_{#gamma,#gamma} (GeV/c^{2})"); outputContainer->Add(fhRePtNCellAsymCuts[index]) ; } } } fhRePtMult = new TH3D*[fNAsymCuts] ; for(Int_t iasym = 0; iasymSetXTitle("p_{T} (GeV/c)"); fhRePtMult[iasym]->SetYTitle("Track multiplicity"); fhRePtMult[iasym]->SetZTitle("m_{#gamma,#gamma} (GeV/c^{2})"); outputContainer->Add(fhRePtMult[iasym]) ; } }// multi cuts analysis fhEvents=new TH3D("hEvents","Number of events",fNCentrBin,0.,1.*fNCentrBin, GetNZvertBin(),0.,1.*GetNZvertBin(),GetNRPBin(),0.,1.*GetNRPBin()) ; outputContainer->Add(fhEvents) ; fhRealOpeningAngle = new TH2D ("hRealOpeningAngle","Angle between all #gamma pair vs E_{#pi^{0}}",nptbins,ptmin,ptmax,200,0,0.5); fhRealOpeningAngle->SetYTitle("#theta(rad)"); fhRealOpeningAngle->SetXTitle("E_{ #pi^{0}} (GeV)"); outputContainer->Add(fhRealOpeningAngle) ; fhRealCosOpeningAngle = new TH2D ("hRealCosOpeningAngle","Cosinus of angle between all #gamma pair vs E_{#pi^{0}}",nptbins,ptmin,ptmax,200,-1,1); fhRealCosOpeningAngle->SetYTitle("cos (#theta) "); fhRealCosOpeningAngle->SetXTitle("E_{ #pi^{0}} (GeV)"); outputContainer->Add(fhRealCosOpeningAngle) ; //Histograms filled only if MC data is requested if(IsDataMC()){ fhPrimPt = new TH1D("hPrimPt","Primary pi0 pt",nptbins,ptmin,ptmax) ; fhPrimAccPt = new TH1D("hPrimAccPt","Primary pi0 pt with both photons in acceptance",nptbins,ptmin,ptmax) ; outputContainer->Add(fhPrimPt) ; outputContainer->Add(fhPrimAccPt) ; fhPrimY = new TH1D("hPrimaryRapidity","Rapidity of primary pi0",netabins,etamin,etamax) ; outputContainer->Add(fhPrimY) ; fhPrimAccY = new TH1D("hPrimAccRapidity","Rapidity of primary pi0",netabins,etamin,etamax) ; outputContainer->Add(fhPrimAccY) ; fhPrimPhi = new TH1D("hPrimaryPhi","Azimithal of primary pi0",nphibins,phimin*TMath::RadToDeg(),phimax*TMath::RadToDeg()) ; outputContainer->Add(fhPrimPhi) ; fhPrimAccPhi = new TH1D("hPrimAccPhi","Azimithal of primary pi0 with accepted daughters",nphibins,phimin*TMath::RadToDeg(),phimax*TMath::RadToDeg()) ; outputContainer->Add(fhPrimAccPhi) ; fhPrimOpeningAngle = new TH2D ("hPrimOpeningAngle","Angle between all primary #gamma pair vs E_{#pi^{0}}",nptbins,ptmin,ptmax,100,0,0.5); fhPrimOpeningAngle->SetYTitle("#theta(rad)"); fhPrimOpeningAngle->SetXTitle("E_{ #pi^{0}} (GeV)"); outputContainer->Add(fhPrimOpeningAngle) ; fhPrimCosOpeningAngle = new TH2D ("hPrimCosOpeningAngle","Cosinus of angle between all primary #gamma pair vs E_{#pi^{0}}",nptbins,ptmin,ptmax,100,-1,1); fhPrimCosOpeningAngle->SetYTitle("cos (#theta) "); fhPrimCosOpeningAngle->SetXTitle("E_{ #pi^{0}} (GeV)"); outputContainer->Add(fhPrimCosOpeningAngle) ; } TString * pairname = new TString[fNModules]; if(fCalorimeter=="EMCAL"){ pairname[0]="A side (0-2)"; pairname[1]="C side (1-3)"; pairname[2]="Sector 0 (0-1)"; pairname[3]="Sector 1 (2-3)"; for(Int_t i = 4 ; i < fNModules ; i++) pairname[i]="";} if(fCalorimeter=="PHOS") { pairname[0]="(0-1)"; pairname[1]="(0-2)"; pairname[2]="(1-2)"; for(Int_t i = 3 ; i < fNModules ; i++) pairname[i]="";} for(Int_t imod=0; imodSetXTitle("p_{T} (GeV/c)"); fhReMod[imod]->SetYTitle("m_{#gamma,#gamma} (GeV/c^{2})"); outputContainer->Add(fhReMod[imod]) ; snprintf(key, buffersize,"hReDiffMod_%d",imod) ; snprintf(title, buffersize,"Real m_{#gamma#gamma} distr. for Different Modules: %s",(pairname[imod]).Data()) ; fhReDiffMod[imod] = new TH2D(key,title,nptbins,ptmin,ptmax,nmassbins,massmin,massmax) ; fhReDiffMod[imod]->SetXTitle("p_{T} (GeV/c)"); fhReDiffMod[imod]->SetYTitle("m_{#gamma,#gamma} (GeV/c^{2})"); outputContainer->Add(fhReDiffMod[imod]) ; } delete [] pairname; snprintf(key, buffersize,"hReDiffMod_%d",fNModules) ; snprintf(title, buffersize,"Real m_{#gamma#gamma} distr. for all Modules Combination") ; fhReDiffMod[fNModules] = new TH2D(key,title,nptbins,ptmin,ptmax,nmassbins,massmin,massmax) ; outputContainer->Add(fhReDiffMod[fNModules]) ; // for(Int_t i = 0; i < outputContainer->GetEntries() ; i++){ // // printf("Histogram %d, name: %s\n ",i, outputContainer->At(i)->GetName()); // // } return outputContainer; } //_________________________________________________________________________________________________________________________________________________ void AliAnaPi0::Print(const Option_t * /*opt*/) const { //Print some relevant parameters set for the analysis printf("**** Print %s %s ****\n", GetName(), GetTitle() ) ; AliAnaPartCorrBaseClass::Print(" "); printf("Number of bins in Centrality: %d \n",fNCentrBin) ; printf("Number of bins in Z vert. pos: %d \n",GetNZvertBin()) ; printf("Number of bins in Reac. Plain: %d \n",GetNRPBin()) ; printf("Depth of event buffer: %d \n",fNmaxMixEv) ; printf("Pair in same Module: %d \n",fSameSM) ; printf("Cuts: \n") ; printf("Z vertex position: -%2.3f < z < %2.3f \n",GetZvertexCut(),GetZvertexCut()) ; printf("Number of modules: %d \n",fNModules) ; printf("Select pairs with their angle: %d \n",fUseAngleCut) ; printf("Asymmetry cuts: n = %d, \n",fNAsymCuts) ; printf("\tasymmetry < "); for(Int_t i = 0; i < fNAsymCuts; i++) printf("%2.2f ",fAsymCuts[i]); printf("\n"); printf("PID selection bits: n = %d, \n",fNPIDBits) ; printf("\tPID bit = "); for(Int_t i = 0; i < fNPIDBits; i++) printf("%d ",fPIDBits[i]); printf("\n"); if(fMultiCutAna){ printf("pT cuts: n = %d, \n",fNPtCuts) ; printf("\tpT > "); for(Int_t i = 0; i < fNPtCuts; i++) printf("%2.2f ",fPtCuts[i]); printf("GeV/c\n"); printf("N cell in cluster cuts: n = %d, \n",fNCellNCuts) ; printf("\tnCell > "); for(Int_t i = 0; i < fNCellNCuts; i++) printf("%d ",fCellNCuts[i]); printf("\n"); } printf("------------------------------------------------------\n") ; } //_____________________________________________________________ void AliAnaPi0::FillAcceptanceHistograms(){ //Fill acceptance histograms if MC data is available if(IsDataMC() && GetReader()->ReadStack()){ AliStack * stack = GetMCStack(); if(stack && (IsDataMC() || (GetReader()->GetDataType() == AliCaloTrackReader::kMC)) ){ for(Int_t i=0 ; iGetNprimary(); i++){ TParticle * prim = stack->Particle(i) ; if(prim->GetPdgCode() == 111){ Double_t pi0Pt = prim->Pt() ; //printf("pi0, pt %2.2f\n",pi0Pt); if(prim->Energy() == TMath::Abs(prim->Pz())) continue ; //Protection against floating point exception Double_t pi0Y = 0.5*TMath::Log((prim->Energy()-prim->Pz())/(prim->Energy()+prim->Pz())) ; Double_t phi = TMath::RadToDeg()*prim->Phi() ; if(TMath::Abs(pi0Y) < 0.5){ fhPrimPt->Fill(pi0Pt) ; } fhPrimY ->Fill(pi0Y) ; fhPrimPhi->Fill(phi) ; //Check if both photons hit Calorimeter Int_t iphot1=prim->GetFirstDaughter() ; Int_t iphot2=prim->GetLastDaughter() ; if(iphot1>-1 && iphot1GetNtrack() && iphot2>-1 && iphot2GetNtrack()){ TParticle * phot1 = stack->Particle(iphot1) ; TParticle * phot2 = stack->Particle(iphot2) ; if(phot1 && phot2 && phot1->GetPdgCode()==22 && phot2->GetPdgCode()==22){ //printf("2 photons: photon 1: pt %2.2f, phi %3.2f, eta %1.2f; photon 2: pt %2.2f, phi %3.2f, eta %1.2f\n", // phot1->Pt(), phot1->Phi()*180./3.1415, phot1->Eta(), phot2->Pt(), phot2->Phi()*180./3.1415, phot2->Eta()); TLorentzVector lv1, lv2; phot1->Momentum(lv1); phot2->Momentum(lv2); Bool_t inacceptance = kFALSE; if(fCalorimeter == "PHOS"){ if(GetPHOSGeometry() && GetCaloUtils()->IsPHOSGeoMatrixSet()){ Int_t mod ; Double_t x,z ; if(GetPHOSGeometry()->ImpactOnEmc(phot1,mod,z,x) && GetPHOSGeometry()->ImpactOnEmc(phot2,mod,z,x)) inacceptance = kTRUE; if(GetDebug() > 2) printf("In %s Real acceptance? %d\n",fCalorimeter.Data(),inacceptance); } else{ if(GetFiducialCut()->IsInFiducialCut(lv1,fCalorimeter) && GetFiducialCut()->IsInFiducialCut(lv2,fCalorimeter)) inacceptance = kTRUE ; if(GetDebug() > 2) printf("In %s fiducial cut acceptance? %d\n",fCalorimeter.Data(),inacceptance); } } else if(fCalorimeter == "EMCAL" && GetCaloUtils()->IsEMCALGeoMatrixSet()){ if(GetEMCALGeometry()){ if(GetEMCALGeometry()->Impact(phot1) && GetEMCALGeometry()->Impact(phot2)) inacceptance = kTRUE; if(GetDebug() > 2) printf("In %s Real acceptance? %d\n",fCalorimeter.Data(),inacceptance); } else{ if(GetFiducialCut()->IsInFiducialCut(lv1,fCalorimeter) && GetFiducialCut()->IsInFiducialCut(lv2,fCalorimeter)) inacceptance = kTRUE ; if(GetDebug() > 2) printf("In %s fiducial cut acceptance? %d\n",fCalorimeter.Data(),inacceptance); } } if(inacceptance){ fhPrimAccPt->Fill(pi0Pt) ; fhPrimAccPhi->Fill(phi) ; fhPrimAccY->Fill(pi0Y) ; Double_t angle = lv1.Angle(lv2.Vect()); fhPrimOpeningAngle ->Fill(pi0Pt,angle); fhPrimCosOpeningAngle->Fill(pi0Pt,TMath::Cos(angle)); }//Accepted }// 2 photons }//Check daughters exist }// Primary pi0 }//loop on primaries }//stack exists and data is MC }//read stack else if(GetReader()->ReadAODMCParticles()){ if(GetDebug() >= 0) printf("AliAnaPi0::FillAcceptanceHistograms() - Acceptance calculation with MCParticles not implemented yet\n"); } } //____________________________________________________________________________________________________________________________________________________ void AliAnaPi0::MakeAnalysisFillHistograms() { //Process one event and extract photons from AOD branch // filled with AliAnaPhoton and fill histos with invariant mass //In case of MC data, fill acceptance histograms FillAcceptanceHistograms(); //Apply some cuts on event: vertex position and centrality range Int_t iRun=(GetReader()->GetInputEvent())->GetRunNumber() ; if(IsBadRun(iRun)) return ; Int_t nPhot = GetInputAODBranch()->GetEntriesFast() ; if(GetDebug() > 1) printf("AliAnaPi0::MakeAnalysisFillHistograms() - Photon entries %d\n", nPhot); if(nPhot < 2 ) return ; Int_t module1 = -1; Int_t module2 = -1; Double_t vert[] = {0.0, 0.0, 0.0} ; //vertex Int_t evtIndex1 = 0 ; Int_t currentEvtIndex = -1 ; Int_t curCentrBin = 0 ; Int_t curRPBin = 0 ; Int_t curZvertBin = 0 ; for(Int_t i1=0; i1At(i1)) ; // get the event index in the mixed buffer where the photon comes from // in case of mixing with analysis frame, not own mixing evtIndex1 = GetEventIndex(p1, vert) ; //printf("charge = %d\n", track->Charge()); if ( evtIndex1 == -1 ) return ; if ( evtIndex1 == -2 ) continue ; if(TMath::Abs(vert[2]) > GetZvertexCut()) continue ; //vertex cut if (evtIndex1 != currentEvtIndex) { curCentrBin = GetEventCentrality(); //In case too few centrality bins defined with respect the selected centrality class, put in the last bin the higher centrality classes if(curCentrBin >= fNCentrBin) curCentrBin=fNCentrBin-1; curRPBin = 0 ; curZvertBin = (Int_t)(0.5*GetNZvertBin()*(vert[2]+GetZvertexCut())/GetZvertexCut()) ; fhEvents->Fill(curCentrBin+0.5,curZvertBin+0.5,curRPBin+0.5) ; currentEvtIndex = evtIndex1 ; if(GetDebug() > 1) printf("AliAnaPi0::MakeAnalysisFillHistograms() - Centrality %d, Vertex Bin %d, RP bin %d\n",curCentrBin,curRPBin,curZvertBin); } //printf("AliAnaPi0::MakeAnalysisFillHistograms(): Photon 1 Evt %d Vertex : %f,%f,%f\n",evtIndex1, GetVertex(evtIndex1)[0] ,GetVertex(evtIndex1)[1],GetVertex(evtIndex1)[2]); TLorentzVector photon1(p1->Px(),p1->Py(),p1->Pz(),p1->E()); //Get Module number module1 = GetModuleNumber(p1); for(Int_t i2=i1+1; i2At(i2)) ; Int_t evtIndex2 = GetEventIndex(p2, vert) ; if ( evtIndex2 == -1 ) return ; if ( evtIndex2 == -2 ) continue ; if (GetMixedEvent() && (evtIndex1 == evtIndex2)) continue ; //printf("AliAnaPi0::MakeAnalysisFillHistograms(): Photon 2 Evt %d Vertex : %f,%f,%f\n",evtIndex2, GetVertex(evtIndex2)[0] ,GetVertex(evtIndex2)[1],GetVertex(evtIndex2)[2]); TLorentzVector photon2(p2->Px(),p2->Py(),p2->Pz(),p2->E()); //Get module number module2 = GetModuleNumber(p2); Double_t m = (photon1 + photon2).M() ; Double_t pt = (photon1 + photon2).Pt(); Double_t a = TMath::Abs(p1->E()-p2->E())/(p1->E()+p2->E()) ; if(GetDebug() > 2) printf("AliAnaPi0::MakeAnalysisFillHistograms() - Current Event: pT: photon1 %2.2f, photon2 %2.2f; Pair: pT %2.2f, mass %2.3f, a %f2.3\n", p1->Pt(), p2->Pt(), pt,m,a); //Check if opening angle is too large or too small compared to what is expected Double_t angle = photon1.Angle(photon2.Vect()); //if(fUseAngleCut && !GetNeutralMesonSelection()->IsAngleInWindow((photon1+photon2).E(),angle)) continue; //printf("angle %f\n",angle); if(fUseAngleCut && angle < 0.1) continue; //Fill module dependent histograms, put a cut on assymmetry on the first available cut in the array if(a < fAsymCuts[0]){ if(module1==module2 && module1 >=0 && module1Fill(pt,m) ; else fhReDiffMod[fNModules]->Fill(pt,m) ; if(fCalorimeter=="EMCAL"){ if((module1==0 && module2==2) || (module1==2 && module2==0)) fhReDiffMod[0]->Fill(pt,m) ; if((module1==1 && module2==3) || (module1==3 && module2==1)) fhReDiffMod[1]->Fill(pt,m) ; if((module1==0 && module2==1) || (module1==1 && module2==0)) fhReDiffMod[2]->Fill(pt,m) ; if((module1==2 && module2==3) || (module1==3 && module2==2)) fhReDiffMod[3]->Fill(pt,m) ; } else { if((module1==0 && module2==1) || (module1==1 && module2==0)) fhReDiffMod[0]->Fill(pt,m) ; if((module1==0 && module2==2) || (module1==2 && module2==0)) fhReDiffMod[1]->Fill(pt,m) ; if((module1==1 && module2==2) || (module1==2 && module2==1)) fhReDiffMod[2]->Fill(pt,m) ; } } //In case we want only pairs in same (super) module, check their origin. Bool_t ok = kTRUE; if(fSameSM && module1!=module2) ok=kFALSE; if(ok){ //Fill histograms for different bad channel distance, centrality, assymmetry cut and pid bit for(Int_t ipid=0; ipidIsPIDOK(fPIDBits[ipid],AliCaloPID::kPhoton)) && (p2->IsPIDOK(fPIDBits[ipid],AliCaloPID::kPhoton))){ for(Int_t iasym=0; iasym < fNAsymCuts; iasym++){ if(a < fAsymCuts[iasym]){ Int_t index = ((curCentrBin*fNPIDBits)+ipid)*fNAsymCuts + iasym; //printf("cen %d, pid %d, asy %d, Index %d\n",curCentrBin,ipid,iasym,index); fhRe1 [index]->Fill(pt,m); if(fMakeInvPtPlots)fhReInvPt1[index]->Fill(pt,m,1./pt) ; if(p1->DistToBad()>0 && p2->DistToBad()>0){ fhRe2 [index]->Fill(pt,m) ; if(fMakeInvPtPlots)fhReInvPt2[index]->Fill(pt,m,1./pt) ; if(p1->DistToBad()>1 && p2->DistToBad()>1){ fhRe3 [index]->Fill(pt,m) ; if(fMakeInvPtPlots)fhReInvPt3[index]->Fill(pt,m,1./pt) ; }//assymetry cut }// asymmetry cut loop }// bad 3 }// bad2 }// bad 1 }// pid bit loop //Fill histograms with opening angle fhRealOpeningAngle ->Fill(pt,angle); fhRealCosOpeningAngle->Fill(pt,TMath::Cos(angle)); //Fill histograms with pair assymmetry fhRePtAsym->Fill(pt,a); if(m > 0.10 && m < 0.16) fhRePtAsymPi0->Fill(pt,a); if(m > 0.45 && m < 0.65) fhRePtAsymEta->Fill(pt,a); //Multi cuts analysis if(fMultiCutAna){ //Histograms for different PID bits selection for(Int_t ipid=0; ipidIsPIDOK(fPIDBits[ipid],AliCaloPID::kPhoton) && p2->IsPIDOK(fPIDBits[ipid],AliCaloPID::kPhoton)) fhRePIDBits[ipid]->Fill(pt,m) ; //printf("ipt %d, ipid%d, name %s\n",ipt, ipid, fhRePtPIDCuts[ipt*fNPIDBitsBits+ipid]->GetName()); } // pid bit cut loop //Several pt,ncell and asymmetry cuts //Get the number of cells Int_t ncell1 = 0; Int_t ncell2 = 0; AliVEvent * event = GetReader()->GetInputEvent(); if(event){ for(Int_t iclus = 0; iclus < event->GetNumberOfCaloClusters(); iclus++){ AliVCluster *cluster = event->GetCaloCluster(iclus); Bool_t is = kFALSE; if (fCalorimeter == "EMCAL" && GetReader()->IsEMCALCluster(cluster)) is = kTRUE; else if(fCalorimeter == "PHOS" && GetReader()->IsPHOSCluster (cluster)) is = kTRUE; if(is){ if (p1->GetCaloLabel(0) == cluster->GetID()) ncell1 = cluster->GetNCells(); else if (p2->GetCaloLabel(0) == cluster->GetID()) ncell2 = cluster->GetNCells(); } // PHOS or EMCAL cluster as requested in analysis if(ncell2 > 0 && ncell1 > 0) break; // No need to continue the iteration } //printf("e 1: %2.2f, e 2: %2.2f, ncells: n1 %d, n2 %d\n", p1->E(), p2->E(),ncell1,ncell2); } for(Int_t ipt=0; iptPt() > fPtCuts[ipt] && p2->Pt() > fPtCuts[ipt] && a < fAsymCuts[iasym] && ncell1 >= fCellNCuts[icell] && ncell2 >= fCellNCuts[icell]) fhRePtNCellAsymCuts[index]->Fill(pt,m) ; //printf("ipt %d, icell%d, iasym %d, name %s\n",ipt, icell, iasym, fhRePtNCellAsymCuts[((ipt*fNCellNCuts)+icell)*fNAsymCuts + iasym]->GetName()); }// pid bit cut loop }// icell loop }// pt cut loop for(Int_t iasym = 0; iasym < fNAsymCuts; iasym++){ if(a < fAsymCuts[iasym])fhRePtMult[iasym]->Fill(pt,GetTrackMultiplicity(),m) ; } }// multiple cuts analysis }// ok if same sm }// second same event particle }// first cluster if(fDoOwnMix){ //Fill mixed TList * evMixList=fEventsList[curCentrBin*GetNZvertBin()*GetNRPBin()+curZvertBin*GetNRPBin()+curRPBin] ; Int_t nMixed = evMixList->GetSize() ; for(Int_t ii=0; iiAt(ii)); Int_t nPhot2=ev2->GetEntriesFast() ; Double_t m = -999; if(GetDebug() > 1) printf("AliAnaPi0::MakeAnalysisFillHistograms() - Mixed event %d photon entries %d\n", ii, nPhot); for(Int_t i1=0; i1At(i1)) ; TLorentzVector photon1(p1->Px(),p1->Py(),p1->Pz(),p1->E()); module1 = GetModuleNumber(p1); for(Int_t i2=0; i2At(i2)) ; TLorentzVector photon2(p2->Px(),p2->Py(),p2->Pz(),p2->E()); m = (photon1+photon2).M() ; Double_t pt = (photon1 + photon2).Pt(); Double_t a = TMath::Abs(p1->E()-p2->E())/(p1->E()+p2->E()) ; //Check if opening angle is too large or too small compared to what is expected Double_t angle = photon1.Angle(photon2.Vect()); //if(fUseAngleCut && !GetNeutralMesonSelection()->IsAngleInWindow((photon1+photon2).E(),angle)) continue; if(fUseAngleCut && angle < 0.1) continue; if(GetDebug() > 2) printf("AliAnaPi0::MakeAnalysisFillHistograms() - Mixed Event: pT: photon1 %2.2f, photon2 %2.2f; Pair: pT %2.2f, mass %2.3f, a %f2.3\n", p1->Pt(), p2->Pt(), pt,m,a); //In case we want only pairs in same (super) module, check their origin. module2 = GetModuleNumber(p2); Bool_t ok = kTRUE; if(fSameSM && module1!=module2) ok=kFALSE; if(ok){ for(Int_t ipid=0; ipidIsPIDOK(ipid,AliCaloPID::kPhoton)) && (p2->IsPIDOK(ipid,AliCaloPID::kPhoton))){ for(Int_t iasym=0; iasym < fNAsymCuts; iasym++){ if(a < fAsymCuts[iasym]){ Int_t index = ((curCentrBin*fNPIDBits)+ipid)*fNAsymCuts + iasym; fhMi1 [index]->Fill(pt,m) ; if(fMakeInvPtPlots)fhMiInvPt1[index]->Fill(pt,m,1./pt) ; if(p1->DistToBad()>0 && p2->DistToBad()>0){ fhMi2 [index]->Fill(pt,m) ; if(fMakeInvPtPlots)fhMiInvPt2[index]->Fill(pt,m,1./pt) ; if(p1->DistToBad()>1 && p2->DistToBad()>1){ fhMi3 [index]->Fill(pt,m) ; if(fMakeInvPtPlots)fhMiInvPt3[index]->Fill(pt,m,1./pt) ; } } }//Asymmetry cut }// Asymmetry loop }//PID cut }//loop for histograms }//ok }// second cluster loop }//first cluster loop }//loop on mixed events TClonesArray *currentEvent = new TClonesArray(*GetInputAODBranch()); //Add current event to buffer and Remove redundant events if(currentEvent->GetEntriesFast()>0){ evMixList->AddFirst(currentEvent) ; currentEvent=0 ; //Now list of particles belongs to buffer and it will be deleted with buffer if(evMixList->GetSize()>=fNmaxMixEv) { TClonesArray * tmp = (TClonesArray*) (evMixList->Last()) ; evMixList->RemoveLast() ; delete tmp ; } } else{ //empty event delete currentEvent ; currentEvent=0 ; } }// DoOwnMix } //________________________________________________________________________ void AliAnaPi0::ReadHistograms(TList* outputList) { // Needed when Terminate is executed in distributed environment // Refill analysis histograms of this class with corresponding histograms in output list. // Histograms of this analsys are kept in the same list as other analysis, recover the position of // the first one and then add the next. Int_t index = outputList->IndexOf(outputList->FindObject(GetAddedHistogramsStringToName()+"hRe_cen0_pid0_dist1")); if(!fhRe1) fhRe1 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; if(!fhRe2) fhRe2 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; if(!fhRe3) fhRe3 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; if(!fhMi1) fhMi1 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; if(!fhMi2) fhMi2 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; if(!fhMi3) fhMi3 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; if(fMakeInvPtPlots){ if(!fhReInvPt1) fhReInvPt1 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; if(!fhReInvPt2) fhReInvPt2 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; if(!fhReInvPt3) fhReInvPt3 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; if(!fhMiInvPt1) fhMiInvPt1 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; if(!fhMiInvPt2) fhMiInvPt2 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; if(!fhMiInvPt3) fhMiInvPt3 = new TH2D*[fNCentrBin*fNPIDBits*fNAsymCuts] ; } if(!fhReMod) fhReMod = new TH2D*[fNModules] ; if(!fhReDiffMod)fhReDiffMod = new TH2D*[fNModules+1] ; for(Int_t ic=0; icAt(index++); fhRe2[ihisto] = (TH2D*) outputList->At(index++); fhRe3[ihisto] = (TH2D*) outputList->At(index++); if(fMakeInvPtPlots){ fhReInvPt1[ihisto] = (TH2D*) outputList->At(index++); fhReInvPt2[ihisto] = (TH2D*) outputList->At(index++); fhReInvPt3[ihisto] = (TH2D*) outputList->At(index++); } if(fDoOwnMix){ fhMi1[ihisto] = (TH2D*) outputList->At(index++); fhMi2[ihisto] = (TH2D*) outputList->At(index++); fhMi3[ihisto] = (TH2D*) outputList->At(index++); if(fMakeInvPtPlots){ fhMiInvPt1[ihisto] = (TH2D*) outputList->At(index++); fhMiInvPt2[ihisto] = (TH2D*) outputList->At(index++); fhMiInvPt3[ihisto] = (TH2D*) outputList->At(index++); } }//Own mix }//asymmetry loop }// pid loop }// centrality loop fhRePtAsym = (TH2D*)outputList->At(index++); fhRePtAsymPi0 = (TH2D*)outputList->At(index++); fhRePtAsymEta = (TH2D*)outputList->At(index++); if(fMultiCutAna){ if(!fhRePtNCellAsymCuts) fhRePtNCellAsymCuts = new TH2D*[fNPtCuts*fNAsymCuts*fNCellNCuts]; if(!fhRePIDBits) fhRePIDBits = new TH2D*[fNPIDBits]; for(Int_t ipid=0; ipidAt(index++); }// ipid loop for(Int_t ipt=0; iptAt(index++); }// iasym }// icell loop }// ipt loop if(!fhRePtMult) fhRePtMult = new TH3D*[fNAsymCuts] ; for(Int_t iasym = 0; iasym < fNAsymCuts; iasym++) fhRePtMult[iasym] = (TH3D*) outputList->At(index++); }// multi cut analysis fhEvents = (TH3D *) outputList->At(index++); fhRealOpeningAngle = (TH2D*) outputList->At(index++); fhRealCosOpeningAngle = (TH2D*) outputList->At(index++); //Histograms filled only if MC data is requested if(IsDataMC() || (GetReader()->GetDataType() == AliCaloTrackReader::kMC) ){ fhPrimPt = (TH1D*) outputList->At(index++); fhPrimAccPt = (TH1D*) outputList->At(index++); fhPrimY = (TH1D*) outputList->At(index++); fhPrimAccY = (TH1D*) outputList->At(index++); fhPrimPhi = (TH1D*) outputList->At(index++); fhPrimAccPhi = (TH1D*) outputList->At(index++); } for(Int_t imod=0; imod < fNModules; imod++) fhReMod[imod] = (TH2D*) outputList->At(index++); } //____________________________________________________________________________________________________________________________________________________ void AliAnaPi0::Terminate(TList* outputList) { //Do some calculations and plots from the final histograms. printf(" *** %s Terminate:\n", GetName()) ; //Recover histograms from output histograms list, needed for distributed analysis. ReadHistograms(outputList); if (!fhRe1) { printf("AliAnaPi0::Terminate() - Error: Remote output histograms not imported in AliAnaPi0 object"); return; } printf("AliAnaPi0::Terminate() Mgg Real : %5.3f , RMS : %5.3f \n", fhRe1[0]->GetMean(), fhRe1[0]->GetRMS() ) ; const Int_t buffersize = 255; char nameIM[buffersize]; snprintf(nameIM, buffersize,"AliAnaPi0_%s_cPt",fCalorimeter.Data()); TCanvas * cIM = new TCanvas(nameIM, "", 400, 10, 600, 700) ; cIM->Divide(2, 2); cIM->cd(1) ; //gPad->SetLogy(); TH1D * hIMAllPt = (TH1D*) fhRe1[0]->ProjectionY(Form("IMPtAll_%s",fCalorimeter.Data())); hIMAllPt->SetLineColor(2); hIMAllPt->SetTitle("No cut on p_{T, #gamma#gamma} "); hIMAllPt->Draw(); cIM->cd(2) ; TH1D * hIMPt5 = (TH1D*) fhRe1[0]->ProjectionY(Form("IMPt0-5_%s",fCalorimeter.Data()),0, fhRe1[0]->GetXaxis()->FindBin(5.)); // hRe1Pt5->GetXaxis()->SetRangeUser(0,5); // TH1D * hIMPt5 = (TH1D*) hRe1Pt5->Project3D(Form("IMPt5_%s_pz",fCalorimeter.Data())); hIMPt5->SetLineColor(2); hIMPt5->SetTitle("0 < p_{T, #gamma#gamma} < 5 GeV/c"); hIMPt5->Draw(); cIM->cd(3) ; TH1D * hIMPt10 = (TH1D*) fhRe1[0]->ProjectionY(Form("IMPt5-10_%s",fCalorimeter.Data()), fhRe1[0]->GetXaxis()->FindBin(5.),fhRe1[0]->GetXaxis()->FindBin(10.)); // hRe1Pt10->GetXaxis()->SetRangeUser(5,10); // TH1D * hIMPt10 = (TH1D*) hRe1Pt10->Project3D(Form("IMPt10_%s_pz",fCalorimeter.Data())); hIMPt10->SetLineColor(2); hIMPt10->SetTitle("5 < p_{T, #gamma#gamma} < 10 GeV/c"); hIMPt10->Draw(); cIM->cd(4) ; TH1D * hIMPt20 = (TH1D*) fhRe1[0]->ProjectionY(Form("IMPt10-20_%s",fCalorimeter.Data()), fhRe1[0]->GetXaxis()->FindBin(10.),fhRe1[0]->GetXaxis()->FindBin(20.)); // TH3F * hRe1Pt20 = (TH3F*)fhRe1[0]->Clone(Form("IMPt20_%s",fCalorimeter.Data())); // hRe1Pt20->GetXaxis()->SetRangeUser(10,20); // TH1D * hIMPt20 = (TH1D*) hRe1Pt20->Project3D(Form("IMPt20_%s_pz",fCalorimeter.Data())); hIMPt20->SetLineColor(2); hIMPt20->SetTitle("10 < p_{T, #gamma#gamma} < 20 GeV/c"); hIMPt20->Draw(); char nameIMF[buffersize]; snprintf(nameIMF,buffersize,"AliAnaPi0_%s_Mgg.eps",fCalorimeter.Data()); cIM->Print(nameIMF); char namePt[buffersize]; snprintf(namePt,buffersize,"AliAnaPi0_%s_cPt",fCalorimeter.Data()); TCanvas * cPt = new TCanvas(namePt, "", 400, 10, 600, 700) ; cPt->Divide(2, 2); cPt->cd(1) ; //gPad->SetLogy(); TH1D * hPt = (TH1D*) fhRe1[0]->ProjectionX(Form("Pt0_%s",fCalorimeter.Data()),-1,-1); hPt->SetLineColor(2); hPt->SetTitle("No cut on M_{#gamma#gamma} "); hPt->Draw(); cPt->cd(2) ; TH1D * hPtIM1 = (TH1D*)fhRe1[0]->ProjectionX(Form("Pt1_%s",fCalorimeter.Data()), fhRe1[0]->GetZaxis()->FindBin(0.05),fhRe1[0]->GetZaxis()->FindBin(0.21)); // TH3F * hRe1IM1 = (TH3F*)fhRe1[0]->Clone(Form("Pt1_%s",fCalorimeter.Data())); // hRe1IM1->GetZaxis()->SetRangeUser(0.05,0.21); // TH1D * hPtIM1 = (TH1D*) hRe1IM1->Project3D("x"); hPtIM1->SetLineColor(2); hPtIM1->SetTitle("0.05 < M_{#gamma#gamma} < 0.21 GeV/c^{2}"); hPtIM1->Draw(); cPt->cd(3) ; TH1D * hPtIM2 = (TH1D*)fhRe1[0]->ProjectionX(Form("Pt2_%s",fCalorimeter.Data()), fhRe1[0]->GetZaxis()->FindBin(0.09),fhRe1[0]->GetZaxis()->FindBin(0.17)); // TH3F * hRe1IM2 = (TH3F*)fhRe1[0]->Clone(Form("Pt2_%s",fCalorimeter.Data())); // hRe1IM2->GetZaxis()->SetRangeUser(0.09,0.17); // TH1D * hPtIM2 = (TH1D*) hRe1IM2->Project3D("x"); hPtIM2->SetLineColor(2); hPtIM2->SetTitle("0.09 < M_{#gamma#gamma} < 0.17 GeV/c^{2}"); hPtIM2->Draw(); cPt->cd(4) ; TH1D * hPtIM3 = (TH1D*)fhRe1[0]->ProjectionX(Form("Pt3_%s",fCalorimeter.Data()), fhRe1[0]->GetZaxis()->FindBin(0.11),fhRe1[0]->GetZaxis()->FindBin(0.15)); // TH3F * hRe1IM3 = (TH3F*)fhRe1[0]->Clone(Form("Pt3_%s",fCalorimeter.Data())); // hRe1IM3->GetZaxis()->SetRangeUser(0.11,0.15); // TH1D * hPtIM3 = (TH1D*) hRe1IM1->Project3D("x"); hPtIM3->SetLineColor(2); hPtIM3->SetTitle("0.11 < M_{#gamma#gamma} < 0.15 GeV/c^{2}"); hPtIM3->Draw(); char namePtF[buffersize]; snprintf(namePtF,buffersize,"AliAnaPi0_%s_Pt.eps",fCalorimeter.Data()); cPt->Print(namePtF); char line[buffersize] ; snprintf(line,buffersize,".!tar -zcf %s_%s.tar.gz *.eps", GetName(),fCalorimeter.Data()) ; gROOT->ProcessLine(line); snprintf(line, buffersize,".!rm -fR AliAnaPi0_%s*.eps",fCalorimeter.Data()); gROOT->ProcessLine(line); printf(" AliAnaPi0::Terminate() - !! All the eps files are in %s_%s.tar.gz !!!\n", GetName(), fCalorimeter.Data()); } //____________________________________________________________________________________________________________________________________________________ Int_t AliAnaPi0::GetEventIndex(AliAODPWG4Particle * part, Double_t * vert) { // retieves the event index and checks the vertex // in the mixed buffer returns -2 if vertex NOK // for normal events returns 0 if vertex OK and -1 if vertex NOK Int_t evtIndex = -1 ; if(GetReader()->GetDataType()!=AliCaloTrackReader::kMC){ if (GetMixedEvent()){ evtIndex = GetMixedEvent()->EventIndexForCaloCluster(part->GetCaloLabel(0)) ; GetVertex(vert,evtIndex); if(TMath::Abs(vert[2])> GetZvertexCut()) evtIndex = -2 ; //Event can not be used (vertex, centrality,... cuts not fulfilled) } else {// Single event GetVertex(vert); if(TMath::Abs(vert[2])> GetZvertexCut()) evtIndex = -1 ; //Event can not be used (vertex, centrality,... cuts not fulfilled) else evtIndex = 0 ; } }//No MC reader else { evtIndex = 0; vert[0] = 0. ; vert[1] = 0. ; vert[2] = 0. ; } return evtIndex ; }