static const Int_t knFlatPeriod=2;
AliAnalysisTaskPi0v2(const char *name="pi0v2",Int_t harmonic=2);
- AliAnalysisTaskPi0v2(const AliAnalysisTaskPi0v2&); // not implemented
- AliAnalysisTaskPi0v2& operator=(const AliAnalysisTaskPi0v2&); // not implemented
virtual ~AliAnalysisTaskPi0v2();
virtual void UserCreateOutputObjects();
Int_t GetHarmonic(){return fHarmonic;};
private:
+
+ AliAnalysisTaskPi0v2(const AliAnalysisTaskPi0v2&);// private::prevent use of copy constructor
+ AliAnalysisTaskPi0v2& operator=(const AliAnalysisTaskPi0v2&); // private::prevent use of assignment operator
+
Bool_t InitEvent();
void ProcessGammas(Int_t iCut,EEventPlaneMethod iEP);
AliV0ReaderV1 *fV0Reader; // V0Reader
Int_t fNCuts; // Number of Photon Cuts for v2 analysis
AliConversionSelection **fConversionSelection; //[fNCuts] Selection of Particles for given Cut
- TClonesArray *fConversionGammas; //Reconstructed Photons;
+ TClonesArray *fConversionGammas; //! Reconstructed Photons;
Int_t fNCentralityBins; // Number of Centrality Bins
Double_t fCentralityBins[knCentMax]; // CentralityBins for Analysis
- Float_t fCentrality; //Event Centrality
- Int_t fCentralityBin; // Event Centrality Bin
+ Float_t fCentrality; //! Event Centrality
+ Int_t fCentralityBin; //! Event Centrality Bin
Int_t fNBinsPhi; // Number of Phi wrt RP bins
- AliEventplane *fEP; // Event Plane Pointer
+ AliEventplane *fEP; //! Event Plane Pointer
Bool_t fUseTPCOnlyTracks; // Use TPC Only Tracks for EP
Double_t fEtaMax; // Eta Max for analysis;
Double_t fEtaGap; // Eta Gap
- Double_t fRPTPCEtaA; // TPCEtaA event plane
- Double_t fRPTPCEtaC; // TPCEtaC event plane
- Double_t fRPV0A; // V0A event plane
- Double_t fRPV0C; // V0C event plane
- Double_t fRPTPC; // TPC event plane
- Double_t fRPTPCEtaABF; // TPCEtaA event plane before flattening
- Double_t fRPTPCEtaCBF; // TPCEtaC event plane before flattening
- Double_t fRPV0ABF;// V0A event plane before flattening
- Double_t fRPV0CBF;// V0C event plane before flattening
- Double_t fRPTPCBF;// TPC event plane before flattening
- AliConversionCuts *fConversionCuts; // Cuts used by the V0Reader
- TRandom3 *fRandomizer; // Randomizer for Event Plane Randomisation
- TList *fOutputList; // List for Output (Histograms etc.)
+ Double_t fRPTPCEtaA; //! TPCEtaA event plane
+ Double_t fRPTPCEtaC; //! TPCEtaC event plane
+ Double_t fRPV0A; //! V0A event plane
+ Double_t fRPV0C; //! V0C event plane
+ Double_t fRPTPC; //! TPC event plane
+ Double_t fRPTPCEtaABF; //! TPCEtaA event plane before flattening
+ Double_t fRPTPCEtaCBF; //! TPCEtaC event plane before flattening
+ Double_t fRPV0ABF;//! V0A event plane before flattening
+ Double_t fRPV0CBF;//! V0C event plane before flattening
+ Double_t fRPTPCBF;//! TPC event plane before flattening
+ AliConversionCuts *fConversionCuts; //! Cuts used by the V0Reader
+ TRandom3 *fRandomizer; //! Randomizer for Event Plane Randomisation
+ TList *fOutputList; //! List for Output (Histograms etc.)
EPDGCode fMesonPDGCode; // PDG Code of the processed Meson (for MC truth)
Double_t fInvMassRange[2]; // Inv Mass Range
- Double_t fDeltaPsiRP; // Difference between subEventPlane angles
- Int_t fRunNumber; // current run number
- Int_t fRunIndex; // current internal run index
+ Double_t fDeltaPsiRP; //! Difference between subEventPlane angles
+ Int_t fRunNumber; //! current run number
+ Int_t fRunIndex; //! current internal run index
Int_t fNEPMethods; // number of EP methods
Bool_t fFillQA; // Fill QA Histograms
Int_t fHarmonic; // Harmonic to be analyzed (v2,v3,..)
- Double_t fPsiMax; //Range for Psi
- TString fPeriod; //"LHC11h","LHC10h"
- Bool_t fIsAOD; // Is AOD? else ESD
- TH1F* fPhiDist[4]; // array of Phi distributions used to calculate phi weights
- THnSparse *fSparseDist; //! THn for eta-charge phi-weighting
- TH1F *fHruns; // information about runwise statistics of phi-weights
+ Double_t fPsiMax; // Range for Psi
+ TString fPeriod; //! "LHC11h","LHC10h"
+ Bool_t fIsAOD; //! Is AOD? else ESD
+ TH1F* fPhiDist[4]; //! array of Phi distributions used to calculate phi weights
+ THnSparse *fSparseDist; //! THn for eta-charge phi-weighting
+ TH1F *fHruns; //! information about runwise statistics of phi-weights
Bool_t fDoEPFlattening; // Do flattening
Int_t fEPSelectionMask[knEPMethod]; // Which EP methods shall be applied
Double_t fFlatc2[knFlatPeriod][knEP][knCentMax];
Double_t fFlats2[knFlatPeriod][knEP][knCentMax];
Double_t fFlatc4[knFlatPeriod][knEP][knCentMax];
Double_t fFlats4[knFlatPeriod][knEP][knCentMax];
- Int_t fPeriodIndex;
+ Int_t fPeriodIndex; //!
// Histograms
- TH1F *hNEvents;
- TH1F *hEventSelection;
+ TH1F *hNEvents; //!
+ TH1F *hEventSelection; //!
// RP
- TH2F *hRPTPC;
- TH2F *hRPV0A;
- TH2F *hRPV0C;
- TH2F *hRPTPCAC;
- TH2F *hRPV0ATPC;
- TH2F *hRPV0CTPC;
- TH2F *hRPV0AC;
- TH2F *hCos2TPC;
- TH2F *hCos2V0ATPC;
- TH2F *hCos2V0CTPC;
- TH2F *hCos2V0AC;
- TH2F *hRPTPCEtaA;
- TH2F *hRPTPCEtaC;
- TH2F *hRPTPCEtaAC;
- TH2F *hCos2TPCEta;
- TH2F *hCos2V0ATPCEtaA;
- TH2F *hCos2V0ATPCEtaC;
- TH2F *hCos2V0CTPCEtaA;
- TH2F *hCos2V0CTPCEtaC;
- TH2F *hCos2SumWeights;
- TH2F *hEtaTPCEP;
+ TH2F *hRPTPC; //!
+ TH2F *hRPV0A; //!
+ TH2F *hRPV0C; //!
+ TH2F *hRPTPCAC; //!
+ TH2F *hRPV0ATPC; //!
+ TH2F *hRPV0CTPC; //!
+ TH2F *hRPV0AC; //!
+ TH2F *hCos2TPC; //!
+ TH2F *hCos2V0ATPC; //!
+ TH2F *hCos2V0CTPC; //!
+ TH2F *hCos2V0AC; //!
+ TH2F *hRPTPCEtaA; //!
+ TH2F *hRPTPCEtaC; //!
+ TH2F *hRPTPCEtaAC; //!
+ TH2F *hCos2TPCEta; //!
+ TH2F *hCos2V0ATPCEtaA; //!
+ TH2F *hCos2V0ATPCEtaC; //!
+ TH2F *hCos2V0CTPCEtaA; //!
+ TH2F *hCos2V0CTPCEtaC; //!
+ TH2F *hCos2SumWeights; //!
+ TH2F *hEtaTPCEP; //!
// Gamma
- TH2F *hGammaMultCent;
- TH2F **hGammaPhi;
- TH2F *hMultChargedvsNGamma;
- TH2F *hMultChargedvsVZERO;
- TH2F *hMultChargedvsSPD;
+ TH2F *hGammaMultCent; //!
+ TH2F **hGammaPhi; //!
+ TH2F *hMultChargedvsNGamma; //!
+ TH2F *hMultChargedvsVZERO; //!
+ TH2F *hMultChargedvsSPD; //!
- THnSparseF *hGammadNdPhi;
- THnSparseF *hGammaMultdPhiTRUE;
- THnSparseF *hGammaMultdPhiRECOTRUE;
- THnSparseF *hGammaMultTRUE;
- THnSparseF *hGammaMultRECOTRUE;
- THnSparseF **hGammaMultdPhi;
- THnSparseF **hGammaMult;
+ THnSparseF *hGammadNdPhi; //!
+ THnSparseF *hGammaMultdPhiTRUE; //!
+ THnSparseF *hGammaMultdPhiRECOTRUE; //!
+ THnSparseF *hGammaMultTRUE; //!
+ THnSparseF *hGammaMultRECOTRUE; //!
+ THnSparseF **hGammaMultdPhi; //!
+ THnSparseF **hGammaMult; //!
- THnSparseF **hGamma;
- THnSparseF *hGammaFull;
+ THnSparseF **hGamma; //!
+ THnSparseF *hGammaFull; //!
- THnSparseF *hCharged;
+ THnSparseF *hCharged; //!
// Pi0
- THnSparseF **hPi0;
- THnSparseF **hPi0BG;
+ THnSparseF **hPi0; //!
+ THnSparseF **hPi0BG; //!
//V0 Calibration
static const Int_t nCentrBinV0 = 9; // # cenrality bins
- TProfile *fMultV0; // object containing VZERO calibration information
- Float_t fV0Cpol,fV0Apol; // loaded by OADB
- Float_t fMeanQ[nCentrBinV0][2][2]; // and recentering
- Float_t fWidthQ[nCentrBinV0][2][2]; // ...
+ TProfile *fMultV0; //! object containing VZERO calibration information
+ Float_t fV0Cpol,fV0Apol; //! loaded by OADB
+ Float_t fMeanQ[nCentrBinV0][2][2]; //! and recentering
+ Float_t fWidthQ[nCentrBinV0][2][2]; //! ...
//Event Plane
//THnSparse *hEPVertex;
- THnSparse *hEPQA;
+ THnSparse *hEPQA; //!
- ClassDef(AliAnalysisTaskPi0v2, 5); // example of analysis
+ ClassDef(AliAnalysisTaskPi0v2, 6); // example of analysis
};
#endif
--- /dev/null
+#include <exception>
+
+class AliAnalysisTaskPi0v2;
+class AliV0ReaderV1;
+
+// Settings
+Int_t nBinsPhi=6;
+Int_t epselectionmask[4]={1,1,1,1};// TPC,TPCEtaGap,V0A,V0C
+const Int_t nCentralityBins=5;
+Double_t fCentralityBins[nCentralityBins+1]={0,5,10,20,30,40};
+Double_t fInvMassRange[2]={0.0,0.3};
+//const Int_t fNRadialBins=9;
+//Float_t fRadialBins[fNRadialBins+1]={0,13,20,26,35,40,55,70,90,200};
+
+Bool_t fFillQA=kTRUE;
+
+//Bool_t fWeightMult=kFALSE; // cut number for mult =9
+
+AliV0ReaderV1 *fV0Reader=NULL;
+AliAnalysisManager *mgr=NULL;
+
+const Int_t numberOfCuts=24;
+TString cutarray[numberOfCuts];
+TString mesoncutarray[numberOfCuts];
+
+
+// Standard Cuts
+cutarray[0] = "1080000042092970023220000"; mesoncutarray[0] = "01522045000"; //standard cut Pi0 PbPb 00-100
+
+// TPC PID
+cutarray[1] = "1080001042093970023220000"; mesoncutarray[1] = "01522045000";
+cutarray[2] = "1080001042096970023220000"; mesoncutarray[2] = "01522045000";
+cutarray[3] = "1080001042092470023220000"; mesoncutarray[3] = "01522045000";
+cutarray[4] = "1080001042092770023220000"; mesoncutarray[4] = "01522045000";
+cutarray[5] = "1080001042092950023220000"; mesoncutarray[5] = "01522045000";
+
+// TOF PID
+cutarray[6] = "1080001042092970033220000"; mesoncutarray[6] = "01522045000";
+cutarray[7] = "1080001042092970043220000"; mesoncutarray[7] = "01522045000";
+
+// Qt max
+cutarray[8] = "1080001042092970024220000"; mesoncutarray[8] = "01522045000";
+cutarray[9] = "1080001042092970022220000"; mesoncutarray[9] = "01522045000";
+
+// Chi2 Gamma
+cutarray[10] = "1080001042092970023120000"; mesoncutarray[10] = "01522045000";
+cutarray[11] = "1080001042092970023820000"; mesoncutarray[11] = "01522045000";
+ // Psi Pair
+cutarray[12] = "1080001042092970023210000"; mesoncutarray[12] = "01522045000";
+cutarray[13] = "1080001042092970023230000"; mesoncutarray[13] = "01522045000";
+
+// R Cut
+cutarray[14] = "1080001044092970023220000"; mesoncutarray[14] = "01522045000"; //5-70
+cutarray[15] = "1080001045092970023220000"; mesoncutarray[15] = "01522045000"; //10-180
+cutarray[16] = "1080001046092970023220000"; mesoncutarray[16] = "01522045000"; //20
+cutarray[17] = "1080001047092970023220000"; mesoncutarray[17] = "01522045000"; //26
+cutarray[18] = "1080001048092970023220000"; mesoncutarray[18] = "01522045000"; //35
+cutarray[19] = "1080001045092970023220000"; mesoncutarray[19] = "01522045000"; //60
+
+// Single Pt
+cutarray[20] = "1080001042492970023220000"; mesoncutarray[20] = "01522045000";
+cutarray[21] = "1080001042192970023220000"; mesoncutarray[21] = "01522045000";
+
+// Alpha
+cutarray[22] = "1080001042092970023220000"; mesoncutarray[22] = "01022085000";
+cutarray[23] = "1080001042092970023220000"; mesoncutarray[23] = "01022005000";
+
+AliAnalysisTask *AddTask_Pi0v2(Bool_t IsHeavyIon=kTRUE,Bool_t doSys=kTRUE){
+
+ // standard with task
+ printf("========================================================================================\n");
+ printf("Pi0v2Analysis: Initialising AliAnalysisTaskPi0v2\n");
+ printf("========================================================================================\n");
+
+ //get the current analysis manager
+
+ mgr = AliAnalysisManager::GetAnalysisManager();
+ if (!mgr) {
+ Error("AddTask_dlohner_Pi0v2", "No analysis manager found.");
+ return 0;
+ }
+
+ Bool_t isMC=kFALSE;
+ AliMCEventHandler *mcH = dynamic_cast<AliMCEventHandler*>(mgr->GetMCtruthEventHandler());
+ if(mcH){
+ isMC=kTRUE;
+ }
+
+ // For 2011 data
+ /*
+ gROOT->LoadMacro("$ALICE_ROOT/ANALYSIS/macros/AddTaskVZEROEPSelection.C");
+ AddTaskVZEROEPSelection();
+ gROOT->LoadMacro("$ALICE_ROOT/ANALYSIS/macros/AddTaskEventplane.C");
+ AddTaskEventplane();
+ */
+
+ TString fV0ReaderCut="";
+
+ if(IsHeavyIon){
+ fV0ReaderCut = "1080000002084001001500000";
+ }
+ else{
+ fV0ReaderCut = "0000000002084001001500000";
+ }
+ fV0Reader=new AliV0ReaderV1("PhotonPi0v2");
+ mgr->AddTask(fV0Reader);
+ ConfigV0Reader(fV0Reader,fV0ReaderCut.Data(),IsHeavyIon);
+ mgr->ConnectInput(fV0Reader, 0, mgr->GetCommonInputContainer());
+ fV0Reader->GetConversionCuts()->SetFillCutHistograms("V0ReaderCuts");
+
+ // Setup Task
+
+ //========= Add task to the ANALYSIS manager =====
+
+ AliAnalysisTaskPi0v2 *task = new AliAnalysisTaskPi0v2("dlohnerTask_Pi0v2");
+ if(doSys)SetupPi0v2(task,IsHeavyIon,isMC,"dlohner_Pi0v2",numberOfCuts);
+ else SetupPi0v2(task,IsHeavyIon,isMC,"dlohner_Pi0v2",1);
+ AliAnalysisTaskPi0v2 *task = new AliAnalysisTaskPi0v2("dlohnerTask_Pi0v3",3);
+ if(doSys)SetupPi0v2(task,IsHeavyIon,isMC,"dlohner_Pi0v3",numberOfCuts);
+ else SetupPi0v2(task,IsHeavyIon,isMC,"dlohner_Pi0v3",1);
+
+ return task;
+}
+
+void ConfigV0Reader(AliV0ReaderV1 *fV0Reader,TString analysiscut="",Bool_t IsHeavyIon=kTRUE){
+
+ fV0Reader->SetUseOwnXYZCalculation(kTRUE);
+
+ // Set AnalysisCut Number
+ AliConversionCuts *fCuts=NULL;
+ if(analysiscut!=""){
+ fCuts= new AliConversionCuts(analysiscut.Data(),analysiscut.Data());
+ if(fCuts->InitializeCutsFromCutString(analysiscut.Data())){
+ fV0Reader->SetConversionCuts(fCuts);
+ }
+ }
+ else{
+ // Init standard cuts
+ if(IsHeavyIon){fCuts=AliConversionCuts::GetStandardCuts2010PbPb();}
+ else{fCuts=AliConversionCuts::GetStandardCuts2010pp();}
+ fV0Reader->SetConversionCuts(fCuts);
+ }
+ // Initialize
+ fV0Reader->Init();
+}
+
+
+void SetupPi0v2(AliAnalysisTaskPi0v2 *task,Bool_t IsHeavyIon,Bool_t IsMC=kFALSE,TString outputname,Int_t ncuts=0){
+
+ cout<<"Settings for Task : "<<outputname.Data()<<endl;
+
+ task->SetV0Reader(fV0Reader);
+ task->SetInvMassRange(fInvMassRange);
+ task->SetNBinsPhi(nBinsPhi);
+ task->SetFillQA(fFillQA);
+ //task->SetEPSelectionMask(epselectionmask);
+
+ if(IsHeavyIon){
+ task->SetCentralityBins(fCentralityBins,nCentralityBins);
+ // task->SetWeightMultiplicity(fWeightMult);
+
+ // Set Cuts
+ if(ncuts==0)ncuts=numberOfCuts;
+ if(IsMC)ncuts=1;
+
+ AliConversionSelection **selection=new AliConversionSelection*[ncuts];
+ for(Int_t ii=0;ii<ncuts;ii++){
+ cout<<"AddingCut: "<<cutarray[ii]<<" "<<mesoncutarray[ii]<<endl;
+ selection[ii]=new AliConversionSelection(cutarray[ii],mesoncutarray[ii]);
+ selection[ii]->SetInvMassRange(fInvMassRange);
+ }
+ task->SetCuts(selection,ncuts);
+ task->SetEtaGap(1);
+ }
+ else{
+ // no cuts defined
+ }
+
+ //SetFlattening(task,"LHC10h");
+
+ mgr->AddTask(task);
+
+ AliAnalysisDataContainer *cinput = mgr->GetCommonInputContainer();
+
+ AliAnalysisDataContainer *coutput0 =
+ mgr->CreateContainer("dlohner_tree",TTree::Class(),AliAnalysisManager::kExchangeContainer,"dlohner_default");
+
+ AliAnalysisDataContainer *coutput1 =
+ mgr->CreateContainer(outputname.Data(), TList::Class(),
+ AliAnalysisManager::kOutputContainer,Form("%s.root",outputname.Data()));
+ //connect containers
+ mgr->ConnectInput (task, 0, cinput );
+ // mgr->ConnectOutput (task, 0, coutput0);
+ mgr->ConnectOutput (task, 1, coutput1);
+}
+
+void SetFlattening(AliAnalysisTaskPi0v2 *task,TString period){
+
+ const Int_t nCent=5;
+
+ Int_t harmonic=task->GetHarmonic();
+
+ Int_t periodindex=task->GetPeriodIndex(period);
+
+ if(periodindex==0){
+ // TPC EP
+ if(harmonic==2){
+ Double_t cc2[nCent]={0.00904396,0.00472483,0.00306154,0.00218462,0.00167447};
+ Double_t cs2[nCent]={0.00885519,0.00516223,0.00411065,0.00380145,0.00324424};
+ Double_t cc4[nCent]={-0.00110933,-0.00110521,-0.00124342,0.00104131,0.000651779};
+ Double_t cs4[nCent]={0.00163869,-0.00053565,0.000878745,-0.000563657,-0.000604021};
+ task->SetFlatteningCoeff(AliAnalysisTaskPi0v2::kEPTPC,periodindex,nCent,&cc2[0],&cs2[0],&cc4[0],&cs4[0]);
+ }
+
+ if(harmonic==3){
+ Double_t cc2[5]={0.0116542,0.0103631,0.00897965,0.00707409,0.00605151};
+ Double_t cs2[5]={-0.0171191,-0.013024,-0.0114752,-0.0086613,-0.00706863};
+ Double_t cc4[5]={-0.000602948,0.00144836,-0.000193641,0.000108773,-0.000518333};
+ Double_t cs4[5]={-0.00164769,0.00134327,-0.00106369,7.96546e-06,-0.000261517};
+ task->SetFlatteningCoeff(AliAnalysisTaskPi0v2::kEPTPC,0,nCent,&cc2[0],&cs2[0],&cc4[0],&cs4[0]);
+ }
+
+ //TPC ETA A
+ if(harmonic==2){
+ Double_t cc2[5]={0.00529447,0.00278029,0.00315325,0.00173634,0.000763168};
+ Double_t cs2[5]={0.00314285,0.00170173,0.00263333,0.0018509,0.00223784};
+ Double_t cc4[5]={-0.000737254,-0.00037845,-0.000492715,0.000775897,0.000768656};
+ Double_t cs4[5]={0.000347583,3.79872e-05,0.000387037,-0.000186129,0.000432698};
+
+ task->SetFlatteningCoeff(AliAnalysisTaskPi0v2::kEPTPCEtaA,periodindex,nCent,&cc2[0],&cs2[0],&cc4[0],&cs4[0]);
+ }
+ if(harmonic==3){
+ Double_t cc2[5]={0.000386277,0.000119225,0.00111969,0.000534801,0.000642703};
+ Double_t cs2[5]={-0.00581604,-0.00607255,-0.00443819,-0.00268834,-0.00299961};
+ Double_t cc4[5]={0.00051635,0.00036326,-0.000221272,4.66775e-05,-3.05784e-06};
+ Double_t cs4[5]={1.43285e-05,0.000514099,0.000619339,0.00106466,0.000344196};
+ task->SetFlatteningCoeff(AliAnalysisTaskPi0v2::kEPTPCEtaA,periodindex,nCent,&cc2[0],&cs2[0],&cc4[0],&cs4[0]);
+ }
+
+ //TPC ETA C
+
+ if(harmonic==2){
+ Double_t cc2[5]={-0.00562282,-0.00456735,-0.00306068,-0.0027173,-0.00172432};
+ Double_t cs2[5]={0.0101804,0.00430782,0.00394715,0.00350156,0.00302749};
+ Double_t cc4[5]={0.00150831,-0.00159271,-0.000964157,0.000525894,9.93172e-05};
+ Double_t cs4[5]={0.00119279,-4.74629e-05,0.000118845,0.000278554,3.20868e-05};
+ task->SetFlatteningCoeff(AliAnalysisTaskPi0v2::kEPTPCEtaC,periodindex,nCent,&cc2[0],&cs2[0],&cc4[0],&cs4[0]);
+ }
+ if(harmonic==3){
+ Double_t cc2[5]={0.0116475,0.0102385,0.00801121,0.00552336,0.00423273};
+ Double_t cs2[5]={-0.0112722,-0.00796059,-0.00683678,-0.00531097,-0.00430716};
+ Double_t cc4[5]={-0.000609051,1.36573e-08,-0.000464961,-0.000387943,-2.28363e-05};
+ Double_t cs4[5]={0.00125449,0.00168484,-0.000390491,-0.000219447,8.11997e-07};
+ task->SetFlatteningCoeff(AliAnalysisTaskPi0v2::kEPTPCEtaC,periodindex,nCent,&cc2[0],&cs2[0],&cc4[0],&cs4[0]);
+ }
+
+ //V0A
+
+ if(harmonic==2){
+ Double_t cc2[5]={0.046427,0.0105401,-0.000152992,-0.00578274,-0.0108038};
+ Double_t cs2[5]={0.00551503,0.0158159,0.00965148,0.00135414,-0.00548846};
+ Double_t cc4[5]={0.00362833,0.00170777,0.000152998,0.00223823,0.00215164};
+ Double_t cs4[5]={0.00349056,0.00142802,0.00123298,0.00207995,0.00145625};
+
+ task->SetFlatteningCoeff(AliAnalysisTaskPi0v2::kEPV0A,periodindex,nCent,&cc2[0],&cs2[0],&cc4[0],&cs4[0]);
+ }
+ if(harmonic==3){
+ Double_t cc2[5]={-0.0057427,-0.00482728,-0.00565919,-0.000717094,-0.00933233};
+ Double_t cs2[5]={0.0306554,-0.0144675,-0.0159243,-0.0120465,-0.00814124};
+ Double_t cc4[5]={-0.002868,0.00159533,0.00754171,0.00683898,0.00689441};
+ Double_t cs4[5]={0.00083196,0.00198133,4.68307e-05,-0.00018187,-0.0014258};
+
+ task->SetFlatteningCoeff(AliAnalysisTaskPi0v2::kEPV0A,periodindex,nCent,&cc2[0],&cs2[0],&cc4[0],&cs4[0]);
+ }
+
+ // V0 C
+ if(harmonic==2){
+ Double_t cc2[5]={-0.00473277,-0.000371313,0.000857122,-1.54263e-05,-0.000686139};
+ Double_t cs2[5]={0.00408304,-0.00208615,-0.00149018,-0.000853616,-2.78855e-05};
+ Double_t cc4[5]={-0.00451741,-0.00399036,-0.00318784,-0.00186472,-0.00106299};
+ Double_t cs4[5]={0.00188045,-0.00713956,-0.00484254,-0.00448149,-0.00482164};
+ task->SetFlatteningCoeff(AliAnalysisTaskPi0v2::kEPV0C,periodindex,nCent,&cc2[0],&cs2[0],&cc4[0],&cs4[0]);
+ }
+ if(harmonic==3){
+ Double_t cc2[5]={-0.00259141,-0.00115826,-0.000738658,-4.96667e-05,-0.000346694};
+ Double_t cs2[5]={-0.0111001,0.00258109,0.00110959,-0.000147296,-0.000199817};
+ Double_t cc4[5]={0.000968742,0.00157903,0.000206157,0.000444206,-0.00046573};
+ Double_t cs4[5]={-0.00307319,-0.0047952,-0.00412117,-0.00320344,-0.00386629};
+
+ task->SetFlatteningCoeff(AliAnalysisTaskPi0v2::kEPV0C,periodindex,nCent,&cc2[0],&cs2[0],&cc4[0],&cs4[0]);
+ }
+ }
+
+}
+
+
git://git.uio.no / u / mrichter / AliRoot.git / commitdiff