/* Copyright(c) 1998-2014, ALICE Experiment at CERN, All rights reserved. *
* See cxx source for full Copyright notice */
-// Analysis task for identified PHOS cluster from pi0 and take korrelation betwen hadron-pi0 angel's.
-/// Authors: Daniil Ponomarenko (Daniil.Ponomarenko@cern.ch)
-// Dmitry Blau
-// 07-Feb-2014
+// Analysis task for identified PHOS cluster from pi0 and extracting pi0-hadron correlation.
+// Authors: Daniil Ponomarenko <Daniil.Ponomarenko@cern.ch>
+// Dmitry Blau <Dmitry.Blau@cern.ch>
+// 09-Jul-2014
class TClonesArray;
class AliStack ;
class AliVCluster ;
class AliAnalysisUtils;
class AliEPFlattener;
+class AliAODInputHandler;
+class AliESDInputHandler;
#include "TArrayD.h"
{
public:
enum Period { kUndefinedPeriod, kLHC10h, kLHC11h, kLHC13 };
- enum EventSelection { kTotal, kInternalTriggerMaskSelection, kHasVertex, kHasAbsVertex, kHasCentrality, kCentUnderUpperBinUpperEdge, kHasPHOSClusters, kHasTPCTracks, kTotalSelected };
+ enum EventSelection { kTotal, kEvent, kEventHandler, kTriggerMaskSelection, kHasVertex, kHasCentrality, kHasPHOSClusters, kHasTPCTracks, kPHOSEvent, kMBEvent, kTotalSelected, kHasAbsVertex };
enum HibridCheckVeriable { kOnlyHibridTracks, kWithOutHibridTracks, kAllTracks };
enum PID { kPidAll, kPidCPV, kPidDisp, kPidBoth};
- enum TriggerSelection { kNoSelection, kCentralInclusive, kCentralExclusive, kSemiCentralInclusive, kSemiCentralExclusive, kMBInclusive, kMBExclusive };
public:
AliPHOSCorrelations();
+ AliPHOSCorrelations(const char *name);
AliPHOSCorrelations(const char *name, Period period );
virtual ~AliPHOSCorrelations();
// virtual void Terminate(Option_t *);
void SetHibridGlobalCheking(Int_t hibridCheck = kAllTracks) {fCheckHibridGlobal = hibridCheck; }
+ void SetAnalysisAlgoritmForReal(TString algoritm = "ME") {algoritm.Contains("ME")?fUseMEAlgoritmForReal = true:fUseMEAlgoritmForReal = false;}
+ void SetAnalysisAlgoritmForMix(TString algoritm = "ME") {algoritm.Contains("ME")?fUseMEAlgoritmForMix = true:fUseMEAlgoritmForMix = false;}
void SetCentralityBinning(const TArrayD& edges, const TArrayI& nMixed);
- void SetInternalTriggerSelection(TriggerSelection selection) { fInternalTriggerSelection = selection; }
void EnableTOFCut(Bool_t enable = kTRUE, Double_t TOFCut = 100.e-9){fTOFCutEnabled=enable; fTOFCut=TOFCut;}
void SetMassWindow(Double_t massMean = 0.135, Double_t massSigma = 0.01) { fMassInvMean = massMean; fMassInvSigma = massSigma; }
void SetSigmaWidth(Double_t sigmaWidth= 0) { fSigmaWidth = sigmaWidth; }
AliPHOSCorrelations& operator=(const AliPHOSCorrelations&); // not implemented
// Histograms and trees.
- void SetHistPtNumTrigger(Int_t ptMult, Double_t ptMin, Double_t ptMax); // Set massive of histograms (1-5).
- void SetHistPtAssoc(Int_t ptMult, Double_t ptMin, Double_t ptMax); // Set massive of histograms (1-5).
+ void SetHistPtNumTrigger(Int_t ptMult, Double_t ptMin, Double_t ptMax); // Set massive of histograms (1-5).
+ void SetHistPtAssoc(Int_t ptMult, Double_t ptMin, Double_t ptMax); // Set massive of histograms (1-5).
void SetHistMass(Int_t ptMult, Double_t ptMin, Double_t ptMax); // Set other histograms.
void SetHistEtaPhi(); // Set hists, with track's and cluster's angle distributions.
- void SetHistPHOSClusterMap(); // XZE distribution in PHOS.
- void FillHistogram(const char * key,Double_t x) const ; //Fill 1D histogram witn name key
- void FillHistogram(const char * key,Double_t x, Double_t y) const ; //Fill 2D histogram witn name key
- void FillHistogram(const char * key,Double_t x, Double_t y, Double_t z) const ; //Fill 3D histogram witn name key
+ void SetHistPHOSClusterMap(); // XZE distribution in PHOS.
+ void FillHistogram(const char * key,Double_t x) const ; //Fill 1D histogram witn name key
+ void FillHistogram(const char * key,Double_t x, Double_t y) const ; //Fill 2D histogram witn name key
+ void FillHistogram(const char * key,Double_t x, Double_t y, Double_t z) const ; //Fill 3D histogram witn name key
void FillHistogram(const char * key,Double_t x, Double_t y, Double_t z, Double_t w) const ; //Fill 3D histogram witn name key
- void FillTrackEtaPhi(); // Distribution by track's angles.
void SetESDTrackCuts(); // AliESDtrack cuts ( for esd data )
Double_t MassMeanFunktion(Double_t &pt) const ;
Double_t MassSigmaFunktion(Double_t &pt) const ;
- Double_t GetAssocBin(Double_t pt) const ;
-
- Double_t GetEfficiency(Double_t pt) const ; // Return Pi0 efficiency for current pT.
+ Double_t GetAssocBin(Double_t pt) const ; //Calculates bin of associated particle pt.
+ Double_t GetEfficiency(Double_t pt) const ; // Return Pi0 efficiency for current pT.
Int_t GetModCase(Int_t &mod1, Int_t &mod2) const; // Produce part of module neme for pTetaPhi histogram in mixed events.
Int_t ConvertToInternalRunNumber(Int_t run);
- void TestTrigger();
- Bool_t RejectTriggerMaskSelection();
+ Bool_t RejectTriggerMaskSelection(); // Select event trigger and reject.
void SetVertex();
Bool_t RejectEventVertex();
void SetCentrality(); // Find centrality of event.
Bool_t RejectEventCentrality();
-
Int_t GetCentralityBin(Float_t centralityV0M);
UInt_t GetNumberOfCentralityBins() { return fCentEdges.GetSize()-1; }
- void EvalReactionPlane(); // Find RP of event.
- void EvalV0ReactionPlane(); // Find RP of event.
- Int_t GetRPBin(); // Return RP (rad).
+ void EvalReactionPlane(); // Find RP of event.
+ void EvalV0ReactionPlane(); // Find RP of event.
+ Int_t GetRPBin(); // Return RP (rad).
- Double_t ApplyFlattening(Double_t phi, Double_t c) ; //Apply centrality-dependent flattening.
- Double_t ApplyFlatteningV0A(Double_t phi, Double_t c) ; //Apply centrality-dependent flattening.
- Double_t ApplyFlatteningV0C(Double_t phi, Double_t c) ; //Apply centrality-dependent flattening.
+ Double_t ApplyFlattening(Double_t phi, Double_t c) ; // Apply centrality-dependent flattening.
+ Double_t ApplyFlatteningV0A(Double_t phi, Double_t c) ; // Apply centrality-dependent flattening.
+ Double_t ApplyFlatteningV0C(Double_t phi, Double_t c) ; // Apply centrality-dependent flattening.
void ZeroingVariables();
virtual void SelectPhotonClusters();
void SelectAccosiatedTracks();
- void ConsiderPi0s();
- void ConsiderPi0sME();
+ void FillTrackEtaPhi(); // Distribution by track's angles.
+
+ void SelectTriggerPi0ME(); //Select most energetic Pi0 in event.
+
+ void ConsiderPi0s(); // Consider all Pi0 with all tracks in same event.
+ void ConsiderTracksMix(); // Consider all Pi0 in this event with tracks from MIXing pull.
+
+ void ConsiderPi0sME(); // Consider the most energetic Pi0 in this event with all tracks of this event.
+ void ConsiderTracksMixME(); // Consider the most energetic Pi0 in this event with all tracks from MIXing pull.
+
void ConsiderPi0sMix(); // MIX for catch Mass
- void ConsiderTracksMix(); // MIX for catch Yeild
- void ConsiderTracksMixME();
- void TestPi0ME(Int_t ipid, TLorentzVector p12, Int_t modCase);
- Int_t CheckTriggerEta(Double_t eta);
+ void TestPi0ME(Int_t ipid, TLorentzVector p12, Int_t modCase); // Compare Pi0 particles and save most energetic.
+ Int_t CheckTriggerEta(Double_t eta); // Return 1 if eta>=0, else 2.
TList* GetCaloPhotonsPHOSList(UInt_t vtxBin, UInt_t centBin, UInt_t rpBin);
TList* GetTracksTPCList(UInt_t vtxBin, UInt_t centBin, UInt_t rpBin);
- void UpdatePhotonLists();
- void UpdateTrackLists();
+ void UpdatePhotonLists(); // Fill photons in MIXing pull.
+ void UpdateTrackLists(); // Fill Tracks in MIXing pull.
void SetGeometry();
// Set / Get parametrs
void SetManualV0EPCalc(Bool_t manCalc = true) {fManualV0EPCalc = manCalc;}
+ void SetMEExists(const Int_t pid) {fMEExists[pid] = true;}
+ Bool_t GetMEExists(const Int_t pid) const {return fMEExists[pid];}
+
+ void SetMEPhi(const Int_t pid, const Double_t phi) {fMEPhi[pid] = phi;}
+ Double_t GetMEPhi(const Int_t pid) const {return fMEPhi[pid];}
+
+ void SetMEEta(const Int_t pid, const Double_t eta) {fMEEta[pid] = eta;}
+ Double_t GetMEEta(const Int_t pid) const {return fMEEta[pid];}
+
+ void SetMEPt(const Int_t pid, const Double_t pT) {fMEPt[pid] = pT;}
+ Double_t GetMEPt(const Int_t pid) const {return fMEPt[pid];}
+
+ void SetMEModCase(const Int_t pid, const Int_t modcase) {fMEModCase[pid] = modcase;}
+ Int_t GetMEModCase(const Int_t pid) const {return fMEModCase[pid];}
+
+
AliAnalysisUtils* GetAnalysisUtils();
private:
// Geometry
AliPHOSGeometry* fPHOSGeo;
- // Make output histograms / conteiners.
+ // Make output histograms/conteiners.
TList * fOutputContainer; //final histogram / tree container
// cluster cut variables:
- Double_t fMinClusterEnergy;
- Double_t fMinBCDistance; //distance to nearest bad channel
- Int_t fMinNCells;
- Double_t fMinM02;
- Bool_t fTOFCutEnabled;
- Double_t fTOFCut;
+ Double_t fMinClusterEnergy; // Min energy PHOS's cluster.
+ Double_t fMinBCDistance; // Min distance to nearest bad channel
+ Int_t fMinNCells; // Min count of Cells in cluster.
+ Double_t fMinM02; // Min size of M02 in claster.
+ Bool_t fTOFCutEnabled; // Use time of flight or not?
+ Double_t fTOFCut; // Max time of flight.
// Binning, [vtx, centrality, reaction-plane]
Int_t fNVtxZBins;
TArrayD fCentEdges; // Centrality Bin Lower edges.
TArrayI fCentNMixed; // Number of mixed events for each centrality bin.
- UInt_t fNEMRPBins; // Binning of Reaction plane.
+ UInt_t fNEMRPBins; // Binning of Reaction plane.
TArrayD fAssocBins; // Assoc Pt Bin Lower edges.
// Control variables
+ Bool_t fUseMEAlgoritmForReal; // Use common or ME algoritm for analysis real events.
+ Bool_t fUseMEAlgoritmForMix; // Use common or ME algoritm for analysis mixed events.
Int_t fCheckHibridGlobal; // For checking/dischecking/passingcheck: t->IsHybridGlobalConstrainedGlobal();
+
+ // Event selection
Bool_t fPHOSEvent; // PHOS event trigger.
+ Bool_t fMBEvent; // MB event trigger.
// Behavior / cuts
Period fPeriod;
- TriggerSelection fInternalTriggerSelection;
- Float_t fMaxAbsVertexZ; // in cm.
- Bool_t fManualV0EPCalc;
+ Float_t fMaxAbsVertexZ; // Maximum distence Z component of vertix in cm.
+ Bool_t fManualV0EPCalc; //
Double_t fCentCutoffDown; // Ignore Centrality less %. (def = 0%)
Double_t fCentCutoffUp; // Ignore Centrality over %. (def = 90%)
- Double_t fMassInvMean ; //
- Double_t fMassInvSigma ; //
- Double_t fSigmaWidth; // 0 = wide
+ Double_t fMassInvMean ; // Mass Pi0.
+ Double_t fMassInvSigma ; // Mass width Pi0.
+ Double_t fSigmaWidth; // *N sigma. if 0 will use fMassInvMean+/-fMassInvSigma. Else will calculate using function.
// Funktion of window mass parametrs: [mass, pt]
Double_t fMassMeanP0;
AliVEvent* fEvent; //! Current event
AliESDEvent* fEventESD; //! Current event, if ESD.
AliAODEvent* fEventAOD; //! Current event, if AOD.
+ AliInputEventHandler *fEventHandler; //! Event trigger bit.
AliESDtrackCuts *fESDtrackCuts; // Track cut
Int_t fRunNumber; //! run number
- Int_t fInternalRunNumber ; //!Current internal run number
+ Int_t fInternalRunNumber ; //! Current internal run number
- TProfile* fMultV0; // object containing VZERO calibration information
- Float_t fV0Cpol,fV0Apol; // loaded by OADB
+ TProfile* fMultV0; // Object containing VZERO calibration information
+ Float_t fV0Cpol,fV0Apol; // oaded by OADB
Float_t fMeanQ[9][2][2]; // and recentering
Float_t fWidthQ[9][2][2]; //
- TString fEPcalibFileName;
+ TString fEPcalibFileName; //
- Double_t fVertex[3]; //!
- TVector3 fVertexVector; //!
- Int_t fVtxBin; //!
+ Double_t fVertex[3]; //! Event vertex.
+ TVector3 fVertexVector; //! The same.
+ Int_t fVtxBin; //! Vertex bin.
TString fCentralityEstimator; //! Centrality estimator ("V0M", "ZNA")
Float_t fCentrality ; //! Centrality of the current event
Float_t fRP ; //! Reaction plane calculated with full TPC
Int_t fEMRPBin; //! Event Mixing Reaction Plane Bin
- Double_t fMEPhi[4], fMEEta[4], fMEPt[4];
- Bool_t fMEExists[4];
- Int_t fMEModCase[4];
+ // ME Pi0 selection veriables. 1...4 = all...both pid.
+ Bool_t fMEExists[4]; // Does trigger Pi0 exists?
+ Double_t fMEPhi[4]; // Phi ME pi0.
+ Double_t fMEEta[4]; // Eta ME Pi0.
+ Double_t fMEPt[4]; // pT ME Pi0.
+ Int_t fMEModCase[4]; // Pair of modules where photons are observed.
TClonesArray * fCaloPhotonsPHOS ; //! PHOS photons in current event
TClonesArray * fTracksTPC ; //! TPC Tracks in current event
git://git.uio.no / u / mrichter / AliRoot.git / blobdiff