-#ifndef AliAnalysisTaskPtFlucPbPb_cxx\r
-#define AliAnalysisTaskPtFlucPbPb_cxx\r
-\r
-// Analysis of Pt Fluctuations (PbPb)\r
-// Author: Stefan Heckel\r
-// Version of PbPb task: 9.2, 03.07.2012\r
-\r
-\r
-class TList;\r
-class TH1F;\r
-class TH2F;\r
-class TRandom;\r
-\r
-class AliESDEvent;\r
-class AliESDtrack;\r
-class AliESDtrackCuts;\r
-\r
-\r
-#include "AliAnalysisTaskSE.h"\r
-\r
-\r
-class AliAnalysisTaskPtFlucPbPb : public AliAnalysisTaskSE {\r
- public:\r
- AliAnalysisTaskPtFlucPbPb(const char *name = "AliAnalysisTaskPtFlucPbPb");\r
- virtual ~AliAnalysisTaskPtFlucPbPb();\r
-\r
- virtual void UserCreateOutputObjects();\r
- virtual void UserExec(Option_t *option);\r
- virtual void Terminate(Option_t *);\r
-\r
- void SetAliESDtrackCuts(AliESDtrackCuts* esdTrackCuts) {fESDTrackCuts = esdTrackCuts;}\r
- void SetMaxVertexZ(Float_t vZ) {fMaxVertexZ = vZ;}\r
- void SetMaxVertexZDiff1(Float_t vZDiff1) {fMaxVertexZDiff1 = vZDiff1;}\r
- void SetNContributors(Int_t nCont) {fNContributors = nCont;}\r
- void SetUseCentrality(Int_t cent) {fUseCentrality = cent;}\r
- void SetMC(Bool_t bMC) {fMC = bMC;}\r
- void SetMCType(Int_t bMCType) {fMCType = bMCType;}\r
- void SetMCAMPT(Bool_t bMCAMPT) {fMCAMPT = bMCAMPT;}\r
-\r
-\r
- private:\r
- AliESDEvent *fESD; // ESD object\r
- AliMCEvent *fMCev; // MC object\r
- TRandom *fRandom3; // Random generator\r
- TList* fOutputList; // List where all the output files are stored\r
- TH1F* fPtSpec; // Pt spectrum - data or MC truth\r
- TH1F* fPtSpec2; // Pt spectrum 2 - MC ESD\r
- TH1F* fMult; // Multiplicity distribution\r
- TH1F* fMultNbins; // Multiplicity distribution for single mult. bins\r
- TH1F* fMultSum; // Sum of number of tracks of all events for each multiplicity bin\r
- TH1F* fMultSumPt; // Sum of pTs for multiplicity bins\r
- TH1F* fMultNrPairs; // Sum of number of pairs in mult. bins\r
- TH1F* fMult1; // Multiplicity distribution (first bin divided in 4)\r
- TH1F* fMultSum1; // Sum of number of tracks of all events for each multiplicity bin (first bin divided in 4)\r
- TH1F* fMultSumPt1; // Sum of pTs for multiplicity bins (first bin divided in 4)\r
- TH1F* fMultNrPairs1; // Sum of number of pairs in mult. bins (first bin divided in 4)\r
- TH1F* fMult10; // Multiplicity distribution (five bins in 0 < Nacc < 50)\r
- TH1F* fMultSum10; // Sum of number of tracks of all events for each multiplicity bin (five bins in 0 < Nacc < 50)\r
- TH1F* fMultSumPt10; // Sum of pTs for multiplicity bins (five bins in 0 < Nacc < 50)\r
- TH1F* fMultNrPairs10; // Sum of number of pairs in mult. bins (five bins in 0 < Nacc < 50)\r
- TH1F* fMult80; // Multiplicity distribution -- (only for events with centrality < 80%)\r
- TH1F* fMultSum80; // Sum of number of tracks of all events for each multiplicity bin -- ( " < 80%)\r
- TH1F* fMultSumPt80; // Sum of pTs for multiplicity bins-- ( " < 80%)\r
- TH1F* fMultNrPairs80; // Sum of number of pairs in mult. bins -- ( " < 80%)\r
- TH1F* fMult801; // Multiplicity distribution (first bin divided in 4) -- (only for events with centrality < 80%)\r
- TH1F* fMultSum801; // Sum of number of tracks of all events for each multiplicity bin (first bin divided in 4) -- ( " < 80%)\r
- TH1F* fMultSumPt801; // Sum of pTs for multiplicity bins (first bin divided in 4) -- ( " < 80%)\r
- TH1F* fMultNrPairs801; // Sum of number of pairs in mult. bins (first bin divided in 4) -- ( " < 80%)\r
- TH1F* fMult810; // Multiplicity distribution (five bins in 0 < Nacc < 50) -- ( " < 80%)\r
- TH1F* fMultSum810; // Sum of number of tracks of all events for each multiplicity bin (five bins in 0 < Nacc < 50)--( " < 80%)\r
- TH1F* fMultSumPt810; // Sum of pTs for multiplicity bins (five bins in 0 < Nacc < 50) -- ( " < 80%)\r
- TH1F* fMultNrPairs810; // Sum of number of pairs in mult. bins (five bins in 0 < Nacc < 50) -- ( " < 80%)\r
- TH1F* fCent; // Centrality distribution\r
- TH1F* fCentSum; // Sum of number of tracks of all events for each centrality bin\r
- TH1F* fCentSumPt; // Sum of pTs for centrality bins\r
- TH1F* fCentNrPairs; // Sum of number of pairs in cent. bins\r
- TH1F* fEta; // Eta distribution\r
- TH1F* fEtaPhiPlus; // Phi distribution for positive eta\r
- TH1F* fEtaPhiMinus; // Phi distribution for negative eta\r
- TH1F* fVtxZ; // Vertex Z distribution after physics selection before any further cuts\r
- TH1F* fVtxZCut; // Vertex Z dist. after vertex Z cut\r
- TH1F* fVtxZCont; // Vertex Z dist. after vertex cut on nContributors\r
- TH1F* fVtxZCutDiff; // Vertex Z dist. after vertex cut on vtx Z Difference\r
- TH1F* fVtxZTrackCuts; // Vertex Z dist. after all event and track cuts\r
- TH1F* fVtxZDiff1; // Difference 1 between vertex Z distributions\r
- TH1F* fVtxZDiff2; // Difference 2 between vertex Z distributions\r
- TH1F* fVtxZDiff3; // Difference 3 between vertex Z distributions\r
- TH1F* fVtxZDiff1b; // Difference 1 between vertex Z distributions after all cuts\r
- TH1F* fVtxZDiff2b; // Difference 2 between vertex Z distributions after all cuts\r
- TH1F* fVtxZDiff3b; // Difference 3 between vertex Z distributions after all cuts\r
- TH1F* fEventMeanPt; // Event mean pT distribution\r
- TH1F* fEventMeanPtSq; // Event mean pT squared dist.\r
- TH2F* fEventMeanPtMult; // Event mean pT distribution vs. multiplicity (scatter plot)\r
- TH1F* fMultEventMeanPt; // Event mean pT for multiplicity bins\r
- TH1F* fMultEventMeanPtSq; // Event mean pT squared for mult. bins\r
- TH1F* fMultEventMeanPtNbins; // Event mean pT for single mult. bins\r
- TH1F* fMultEventMeanPtSqNbins;// Event mean pT squared for single mult. bins\r
- TH1F* fCentEventMeanPt; // Event mean pT for centrality bins\r
- TH1F* fCentEventMeanPtSq; // Event mean pT squared for cent. bins\r
- TH1F* fEventMeanPtCent05; // Event mean pT distribution in cent bin 0-5%\r
- TH1F* fEventMeanPtCent2030; // Event mean pT distribution in cent bin 20-30%\r
- TH1F* fEventMeanPtCent7080; // Event mean pT distribution in cent bin 70-80%\r
- TH1F* fTwoPartCorrEv; // Two-particle correlator for multiplicity bins\r
- TH1F* fTwoPartCorrEvSq; // Two-part. corr. squared for mult. bins\r
- TH1F* fTwoPartCorrEv1; // Two-particle correlator for multiplicity bins (first bin divided in 4)\r
- TH1F* fTwoPartCorrEvSq1; // Two-part. corr. squared for mult. bins (first bin divided in 4)\r
- TH1F* fTwoPartCorrEv10; // Two-particle correlator for multiplicity bins (five bins in 0 < Nacc < 50)\r
- TH1F* fTwoPartCorrEvSq10; // Two-part. corr. squared for mult. bins (five bins in 0 < Nacc < 50)\r
- TH1F* fTwoPartCorrEv80; // Two-particle correlator for multiplicity bins -- ( " < 80%)\r
- TH1F* fTwoPartCorrEvSq80; // Two-part. corr. squared for mult. bins -- ( " < 80%)\r
- TH1F* fTwoPartCorrEv801; // Two-particle correlator for multiplicity bins (first bin divided in 4) -- ( " < 80%)\r
- TH1F* fTwoPartCorrEvSq801; // Two-part. corr. squared for mult. bins (first bin divided in 4) -- ( " < 80%)\r
- TH1F* fTwoPartCorrEv810; // Two-particle correlator for multiplicity bins (five bins in 0 < Nacc < 50) -- ( " < 80%)\r
- TH1F* fTwoPartCorrEvSq810; // Two-part. corr. squared for mult. bins (five bins in 0 < Nacc < 50) -- ( " < 80%)\r
- TH1F* fTwoPartCorrEvCent; // Two-particle correlator for centrality bins\r
- TH1F* fTwoPartCorrEvCentSq; // Two-part. corr. squared for cent. bins\r
-\r
- AliESDtrackCuts* fESDTrackCuts; // Esd track cuts\r
- Float_t fMaxVertexZ; // Maximum value for Vertex Z position\r
- Float_t fMaxVertexZDiff1; // Maximum value for Vertex Z difference TPC - global\r
- Int_t fNContributors; // Minimum contributors to the vertex\r
- Int_t fUseCentrality; // Use centrality (0=off, 1=VZERO, 2=SPD(not yet implemented))\r
- Bool_t fMC; // Check for MC\r
- Int_t fMCType; // Set MC type: ESD, MC truth (generator level), mod. MC truth\r
- Bool_t fMCAMPT; // Set MC = AMPT or other\r
-\r
- AliAnalysisTaskPtFlucPbPb(const AliAnalysisTaskPtFlucPbPb&); // not implemented\r
- AliAnalysisTaskPtFlucPbPb& operator=(const AliAnalysisTaskPtFlucPbPb&); // not implemented\r
-\r
- ClassDef(AliAnalysisTaskPtFlucPbPb, 1);\r
-\r
-};\r
-\r
-#endif\r
+#ifndef AliAnalysisTaskPtFlucPbPb_cxx
+#define AliAnalysisTaskPtFlucPbPb_cxx
+
+// Analysis of Pt Fluctuations (PbPb)
+// Author: Stefan Heckel
+// Version of PbPb task: 9.2, 03.07.2012
+
+
+class TList;
+class TH1F;
+class TH2F;
+class TRandom;
+
+class AliESDEvent;
+class AliESDtrack;
+class AliESDtrackCuts;
+
+
+#include "AliAnalysisTaskSE.h"
+
+
+class AliAnalysisTaskPtFlucPbPb : public AliAnalysisTaskSE {
+ public:
+ AliAnalysisTaskPtFlucPbPb(const char *name = "AliAnalysisTaskPtFlucPbPb");
+ virtual ~AliAnalysisTaskPtFlucPbPb();
+
+ virtual void UserCreateOutputObjects();
+ virtual void UserExec(Option_t *option);
+ virtual void Terminate(Option_t *);
+
+ void SetAliESDtrackCuts(AliESDtrackCuts* esdTrackCuts) {fESDTrackCuts = esdTrackCuts;}
+ void SetMaxVertexZ(Float_t vZ) {fMaxVertexZ = vZ;}
+ void SetMaxVertexZDiff1(Float_t vZDiff1) {fMaxVertexZDiff1 = vZDiff1;}
+ void SetNContributors(Int_t nCont) {fNContributors = nCont;}
+ void SetUseCentrality(Int_t cent) {fUseCentrality = cent;}
+ void SetMC(Bool_t bMC) {fMC = bMC;}
+ void SetMCType(Int_t bMCType) {fMCType = bMCType;}
+ void SetMCAMPT(Bool_t bMCAMPT) {fMCAMPT = bMCAMPT;}
+
+
+ private:
+ AliESDEvent *fESD; // ESD object
+ AliMCEvent *fMCev; // MC object
+ TRandom *fRandom3; // Random generator
+ TList* fOutputList; // List where all the output files are stored
+ TH1F* fPtSpec; // Pt spectrum - data or MC truth
+ TH1F* fPtSpec2; // Pt spectrum 2 - MC ESD
+ TH1F* fMult; // Multiplicity distribution
+ TH1F* fMultNbins; // Multiplicity distribution for single mult. bins
+ TH1F* fMultSum; // Sum of number of tracks of all events for each multiplicity bin
+ TH1F* fMultSumPt; // Sum of pTs for multiplicity bins
+ TH1F* fMultNrPairs; // Sum of number of pairs in mult. bins
+ TH1F* fMult1; // Multiplicity distribution (first bin divided in 4)
+ TH1F* fMultSum1; // Sum of number of tracks of all events for each multiplicity bin (first bin divided in 4)
+ TH1F* fMultSumPt1; // Sum of pTs for multiplicity bins (first bin divided in 4)
+ TH1F* fMultNrPairs1; // Sum of number of pairs in mult. bins (first bin divided in 4)
+ TH1F* fMult10; // Multiplicity distribution (five bins in 0 < Nacc < 50)
+ TH1F* fMultSum10; // Sum of number of tracks of all events for each multiplicity bin (five bins in 0 < Nacc < 50)
+ TH1F* fMultSumPt10; // Sum of pTs for multiplicity bins (five bins in 0 < Nacc < 50)
+ TH1F* fMultNrPairs10; // Sum of number of pairs in mult. bins (five bins in 0 < Nacc < 50)
+ TH1F* fMult80; // Multiplicity distribution -- (only for events with centrality < 80%)
+ TH1F* fMultSum80; // Sum of number of tracks of all events for each multiplicity bin -- ( " < 80%)
+ TH1F* fMultSumPt80; // Sum of pTs for multiplicity bins-- ( " < 80%)
+ TH1F* fMultNrPairs80; // Sum of number of pairs in mult. bins -- ( " < 80%)
+ TH1F* fMult801; // Multiplicity distribution (first bin divided in 4) -- (only for events with centrality < 80%)
+ TH1F* fMultSum801; // Sum of number of tracks of all events for each multiplicity bin (first bin divided in 4) -- ( " < 80%)
+ TH1F* fMultSumPt801; // Sum of pTs for multiplicity bins (first bin divided in 4) -- ( " < 80%)
+ TH1F* fMultNrPairs801; // Sum of number of pairs in mult. bins (first bin divided in 4) -- ( " < 80%)
+ TH1F* fMult810; // Multiplicity distribution (five bins in 0 < Nacc < 50) -- ( " < 80%)
+ TH1F* fMultSum810; // Sum of number of tracks of all events for each multiplicity bin (five bins in 0 < Nacc < 50)--( " < 80%)
+ TH1F* fMultSumPt810; // Sum of pTs for multiplicity bins (five bins in 0 < Nacc < 50) -- ( " < 80%)
+ TH1F* fMultNrPairs810; // Sum of number of pairs in mult. bins (five bins in 0 < Nacc < 50) -- ( " < 80%)
+ TH1F* fCent; // Centrality distribution
+ TH1F* fCentSum; // Sum of number of tracks of all events for each centrality bin
+ TH1F* fCentSumPt; // Sum of pTs for centrality bins
+ TH1F* fCentNrPairs; // Sum of number of pairs in cent. bins
+ TH1F* fEta; // Eta distribution
+ TH1F* fEtaPhiPlus; // Phi distribution for positive eta
+ TH1F* fEtaPhiMinus; // Phi distribution for negative eta
+ TH1F* fVtxZ; // Vertex Z distribution after physics selection before any further cuts
+ TH1F* fVtxZCut; // Vertex Z dist. after vertex Z cut
+ TH1F* fVtxZCont; // Vertex Z dist. after vertex cut on nContributors
+ TH1F* fVtxZCutDiff; // Vertex Z dist. after vertex cut on vtx Z Difference
+ TH1F* fVtxZTrackCuts; // Vertex Z dist. after all event and track cuts
+ TH1F* fVtxZDiff1; // Difference 1 between vertex Z distributions
+ TH1F* fVtxZDiff2; // Difference 2 between vertex Z distributions
+ TH1F* fVtxZDiff3; // Difference 3 between vertex Z distributions
+ TH1F* fVtxZDiff1b; // Difference 1 between vertex Z distributions after all cuts
+ TH1F* fVtxZDiff2b; // Difference 2 between vertex Z distributions after all cuts
+ TH1F* fVtxZDiff3b; // Difference 3 between vertex Z distributions after all cuts
+ TH1F* fEventMeanPt; // Event mean pT distribution
+ TH1F* fEventMeanPtSq; // Event mean pT squared dist.
+ TH2F* fEventMeanPtMult; // Event mean pT distribution vs. multiplicity (scatter plot)
+ TH1F* fMultEventMeanPt; // Event mean pT for multiplicity bins
+ TH1F* fMultEventMeanPtSq; // Event mean pT squared for mult. bins
+ TH1F* fMultEventMeanPtNbins; // Event mean pT for single mult. bins
+ TH1F* fMultEventMeanPtSqNbins;// Event mean pT squared for single mult. bins
+ TH1F* fCentEventMeanPt; // Event mean pT for centrality bins
+ TH1F* fCentEventMeanPtSq; // Event mean pT squared for cent. bins
+ TH1F* fEventMeanPtCent05; // Event mean pT distribution in cent bin 0-5%
+ TH1F* fEventMeanPtCent2030; // Event mean pT distribution in cent bin 20-30%
+ TH1F* fEventMeanPtCent7080; // Event mean pT distribution in cent bin 70-80%
+ TH1F* fTwoPartCorrEv; // Two-particle correlator for multiplicity bins
+ TH1F* fTwoPartCorrEvSq; // Two-part. corr. squared for mult. bins
+ TH1F* fTwoPartCorrEv1; // Two-particle correlator for multiplicity bins (first bin divided in 4)
+ TH1F* fTwoPartCorrEvSq1; // Two-part. corr. squared for mult. bins (first bin divided in 4)
+ TH1F* fTwoPartCorrEv10; // Two-particle correlator for multiplicity bins (five bins in 0 < Nacc < 50)
+ TH1F* fTwoPartCorrEvSq10; // Two-part. corr. squared for mult. bins (five bins in 0 < Nacc < 50)
+ TH1F* fTwoPartCorrEv80; // Two-particle correlator for multiplicity bins -- ( " < 80%)
+ TH1F* fTwoPartCorrEvSq80; // Two-part. corr. squared for mult. bins -- ( " < 80%)
+ TH1F* fTwoPartCorrEv801; // Two-particle correlator for multiplicity bins (first bin divided in 4) -- ( " < 80%)
+ TH1F* fTwoPartCorrEvSq801; // Two-part. corr. squared for mult. bins (first bin divided in 4) -- ( " < 80%)
+ TH1F* fTwoPartCorrEv810; // Two-particle correlator for multiplicity bins (five bins in 0 < Nacc < 50) -- ( " < 80%)
+ TH1F* fTwoPartCorrEvSq810; // Two-part. corr. squared for mult. bins (five bins in 0 < Nacc < 50) -- ( " < 80%)
+ TH1F* fTwoPartCorrEvCent; // Two-particle correlator for centrality bins
+ TH1F* fTwoPartCorrEvCentSq; // Two-part. corr. squared for cent. bins
+
+ AliESDtrackCuts* fESDTrackCuts; // Esd track cuts
+ Float_t fMaxVertexZ; // Maximum value for Vertex Z position
+ Float_t fMaxVertexZDiff1; // Maximum value for Vertex Z difference TPC - global
+ Int_t fNContributors; // Minimum contributors to the vertex
+ Int_t fUseCentrality; // Use centrality (0=off, 1=VZERO, 2=SPD(not yet implemented))
+ Bool_t fMC; // Check for MC
+ Int_t fMCType; // Set MC type: ESD, MC truth (generator level), mod. MC truth
+ Bool_t fMCAMPT; // Set MC = AMPT or other
+
+ AliAnalysisTaskPtFlucPbPb(const AliAnalysisTaskPtFlucPbPb&); // not implemented
+ AliAnalysisTaskPtFlucPbPb& operator=(const AliAnalysisTaskPtFlucPbPb&); // not implemented
+
+ ClassDef(AliAnalysisTaskPtFlucPbPb, 1);
+
+};
+
+#endif
git://git.uio.no / u / mrichter / AliRoot.git / blobdiff