[u/mrichter/AliRoot.git] / MFT / AliMuonForwardTrackFinder.h

#ifndef AliMuonForwardTrackFinder_H
#define AliMuonForwardTrackFinder_H

// ROOT includes
#include "TObject.h"
#include "TClonesArray.h"
#include "TH2D.h"
#include "TH1D.h"
#include "TFile.h"
#include "TGeoManager.h"
#include "TMatrixD.h"
#include "TParticle.h"
#include "TMath.h"
#include "TGraph.h"
#include "TEllipse.h"
#include "TCanvas.h"
#include "TString.h"
#include "TLatex.h"
#include "TMarker.h"
#include "TNtuple.h"
#include "TRandom.h"
#include "TIterator.h"

// STEER includes
#include "AliLog.h"
#include "AliRun.h"
#include "AliRunLoader.h"
#include "AliLoader.h"
#include "AliHeader.h"
#include "AliMC.h"
#include "AliStack.h"
#include "AliMagF.h"
#include "AliTracker.h"
#include "AliGRPObject.h"
#include "AliRunInfo.h"

// MUON includes
#include "AliMUONConstants.h"
#include "AliMUONTrack.h"
#include "AliMUONRecoCheck.h"
#include "AliMUONTrackParam.h"
#include "AliMUONTrackExtrap.h"
#include "AliMUONVTrackStore.h"
#include "AliMUONVCluster.h"

// MFT includes
#include "AliMuonForwardTrack.h"
#include "AliMFTCluster.h"
#include "AliMFT.h"
#include "AliMFTSegmentation.h"
#include "AliMFTConstants.h"

//====================================================================================================================================================
//
// Class for the creation of the "global muon tracks" built from the clusters in the 
// muon spectrometer and the clusters of the Muon Forward Tracker. QA histograms are also created
//
// Contact author: antonio.uras@cern.ch
//
//====================================================================================================================================================

class AliMuonForwardTrackFinder : public TObject {
  
public:

  enum matchingOption {kRealMatching, kIdealMatching};

  AliMuonForwardTrackFinder();
  
  virtual ~AliMuonForwardTrackFinder();
  
  enum {kAllClusters, kClustersGoodChi2, kClusterOfTrack, kClusterCorrectMC};

  void Init(Int_t nRun, Char_t *readDir, Char_t *outDir, Int_t nEventsToAnalyze = -1);
  Bool_t LoadNextEvent();
  Int_t LoadNextTrack();
  Int_t GetNDF(Int_t nClusters);
  void PDGNameConverter(const Char_t *nameIn, Char_t *nameOut);
  void DrawPlanes();
  void Terminate();
  void WriteHistos();

  void SetRun(Int_t nRun) { fRun = nRun; }
  void SetNEventsToAnalyze(Int_t nEventsToAnalyze) { fNEventsToAnalyze = nEventsToAnalyze; }
  void SetSigmaSpectrometerCut(Double_t sigmaSpectrometerCut) { fSigmaSpectrometerCut = sigmaSpectrometerCut; }
  void SetSigmaClusterCut(Double_t sigmaClusterCut) { fSigmaClusterCut = sigmaClusterCut; }
  void SetChi2GlobalCut(Double_t chi2GlobalCut) { fChi2GlobalCut = chi2GlobalCut; }
  void SetReadDir(Char_t *dirName) { fReadDir = dirName; }
  void SetOutDir(Char_t *dirName) { fOutDir = dirName; }
  void SetDraw(Bool_t drawOption);
  void SetRAbsorberCut(Double_t rAbsorberCut) { fRAbsorberCut = rAbsorberCut; }
  void SetLowPtCut(Double_t lowPtCut) { fLowPtCut = lowPtCut; }
  void SetNFinalCandidatesCut(Int_t nFinalCandidatesCut) { fNFinalCandidatesCut = nFinalCandidatesCut; }
  void SetExtrapOriginTransvError(Double_t extrapOriginTransvError) { fExtrapOriginTransvError = extrapOriginTransvError; }
  void SetGaussianBlurZVert(Double_t gaussianBlurZVert) { fGaussianBlurZVert = gaussianBlurZVert; }

  Int_t GetRun() { return fRun; }
  Int_t GetNEvents() { return fNEventsToAnalyze; }
  Double_t GetSigmaSpectrometerCut() { return fSigmaSpectrometerCut; }
  Double_t GetSigmaClusterCut() { return fSigmaClusterCut; }
  Double_t GetChi2GlobalCut() { return fChi2GlobalCut; }
  Double_t GetRAbsorberCut() { return fRAbsorberCut; }
  Double_t GetLowPtCut() { return fLowPtCut; }
  Double_t GetExtrapOriginTransvError() { return fExtrapOriginTransvError; }
  Int_t GetNPlanesMFT() { return fNPlanesMFT; }
  Int_t GetNFinalCandidatesCut() { return fNFinalCandidatesCut; }
  Int_t GetCurrentEvent() { return fEv; }

  Int_t GetNRealTracksAnalyzed() const { return fCountRealTracksAnalyzed; }
  Int_t GetNRealTracksAnalyzedOfEvent() const { return fCountRealTracksAnalyzedOfEvent; }
  Int_t GetNRealTracksWithRefMC() const { return fCountRealTracksWithRefMC; }
  Int_t GetNRealTracksWithRefMC_andTrigger() const { return fCountRealTracksWithRefMC_andTrigger; }
  Int_t GetNRealTracksWithRefMC_andTrigger_andGoodPt() const { return fCountRealTracksWithRefMC_andTrigger_andGoodPt; }
  Int_t GetNRealTracksWithRefMC_andTrigger_andGoodPt_andGoodTheta() const { return fCountRealTracksWithRefMC_andTrigger_andGoodPt_andGoodTheta; }

  void SetNPlanesMFT(Int_t nPlanesMFT) { fNPlanesMFT = nPlanesMFT; }
  void SeparateFrontBackClusters();
  void SetNMaxMissingMFTClusters(Int_t nMaxMissingMFTClusters) { fNMaxMissingMFTClusters = nMaxMissingMFTClusters; }
  void SetMandatoryPlane(Int_t iPlane) { if (0<=iPlane && iPlane<AliMFTConstants::fNMaxPlanes) fIsPlaneMandatory[iPlane] = kTRUE; }

  void FindClusterInPlane(Int_t planeId);
  void AttachGoodClusterInPlane(Int_t planeId);
  void FillPlanesWithTrackHistory();
  Double_t TryOneCluster(const AliMUONTrackParam &trackParam, AliMFTCluster *cluster);
  void BookHistos();
  void SetTitleHistos();
  void BookPlanes();
  void ResetPlanes();
  void PrintParticleHistory();

  Bool_t IsCorrectMatch(AliMFTCluster *cluster);
  void CheckCurrentMuonTrackable();
  Bool_t IsMother(Char_t *nameMother);

  void SetMatchingMode(Int_t matchingMode) { fMatchingMode = matchingMode; }
  void SetMinResearchRadiusAtLastPlane(Double_t minResearchRadius) { fMinResearchRadiusAtLastPlane = minResearchRadius; }

  void FillOutputTree();
  void WriteOutputTree();

  Bool_t InitGRP();
  Bool_t SetRunNumber();

  void SetMaxNTracksToBeAnalyzed(Int_t nTracks) { fMaxNTracksToBeAnalyzed = nTracks; }

private:

  AliMuonForwardTrackFinder(const AliMuonForwardTrackFinder& obj);
  AliMuonForwardTrackFinder& operator=(const AliMuonForwardTrackFinder& other);

protected:

  static const Int_t fNMaxPlanes = AliMFTConstants::fNMaxPlanes;        // max number of MFT planes
  static const Double_t fRadLengthSi;

  Int_t fRun; 
  Int_t fNEventsToAnalyze;           // events to analyze
  Double_t fSigmaClusterCut;         // to select the clusters in the MFT planes which are compatible with the extrapolated muon track
  Double_t fChi2GlobalCut;           // cut on the final chi2 of the global muon track
  Double_t fSigmaSpectrometerCut;    // for the selection of the tracks in the muon spectrometer
  Double_t fExtrapOriginTransvError; // uncertainty on the x and y position of the muon's origin
  Double_t fGaussianBlurZVert;       // smearing of the z position of the vertex, to simulate real case when the simulation was performed at fixed zVert=0.
  Int_t fNFinalCandidatesCut;        // cut on the number of the final candidates for the muon track
  TString fReadDir;
  TString fOutDir;
  Bool_t fDrawOption;

  Double_t fDistanceFromGoodClusterAndTrackAtLastPlane;
  Double_t fDistanceFromBestClusterAndTrackAtLastPlane;

  TClonesArray *fMFTClusterArray[fNMaxPlanes];         //! array of clusters for the planes of the MFT
  TClonesArray *fMFTClusterArrayFront[fNMaxPlanes];    //! array of front clusters for the planes of the MFT
  TClonesArray *fMFTClusterArrayBack[fNMaxPlanes];     //! array of back clusters for the planes of the MFT

  Double_t fRAbsorberCut;  // in cm, corresponds to the radial position of a 3 degrees track at the end of the absorber (-503 cm)
  Double_t fLowPtCut;      // in GeV/c, the lower limit for the pt of a track in the muon spectrometer
  Int_t fNPlanesMFT;              // number of planes of the Vertex Telescope (Muon Internal Tracker) -> This should be taken from the new version of  AliVZERO2
  Int_t fNPlanesMFTAnalyzed;
  Int_t fNMaxMissingMFTClusters;  // max. number of MFT clusters which can be missed in the global fit procedure
  Bool_t fIsPlaneMandatory[fNMaxPlanes];      // specifies which MFT planes cannot be missed in the global fit procedure

  Int_t fEv;               // current event being analyzed
  Int_t fLabelMC;          // MC label of the muon track reconstructed in the spectrometer

  Bool_t fIsClusterCompatible[10];       // here the clusters in the Muon Spectrometer are concerned

  Double_t fZPlane[fNMaxPlanes];        // z-position of the MFT planes (center of the support)
  Double_t fRPlaneMax[fNMaxPlanes];     // max radius of the MFT planes (the support)
  Double_t fRPlaneMin[fNMaxPlanes];     // min radius of the MFT planes (the support)

  TH1D *fHistPtSpectrometer, *fHistPtMuonTrackWithGoodMatch, *fHistPtMuonTrackWithBadMatch;     //
  TH1D *fHistRadiusEndOfAbsorber, *fHistNTracksAfterExtrapolation[fNMaxPlanes];		        //
  TH1D *fHistNGoodClustersForFinalTracks, *fHistResearchRadius[fNMaxPlanes];			//
  TH1D *fHistDistanceGoodClusterFromTrackMinusDistanceBestClusterFromTrackAtLastPlane;		//
  TH1D *fHistDistanceGoodClusterFromTrackAtLastPlane;						//
  TH1D *fHistChi2Cluster_GoodCluster[fNMaxPlanes], *fHistChi2Cluster_BadCluster[fNMaxPlanes];   //
  TH1D *fHistGlobalChi2AtPlaneFor_GOOD_CandidatesOfTrackableMuons[fNMaxPlanes];		        //
  TH1D *fHistGlobalChi2AtPlaneFor_BAD_CandidatesOfTrackableMuons[fNMaxPlanes];                  //

  TNtuple *fNtuFinalCandidates;
  TNtuple *fNtuFinalBestCandidates;

  TGraph *fGrMFTPlane[4][20];             //!
  TEllipse *fCircleExt[fNMaxPlanes], *fCircleInt[fNMaxPlanes];  //!
  TCanvas *fCanvas;                       //!

  TLatex  *fTxtMuonHistory, *fTxtTrackGoodClusters, *fTxtTrackChi2[fNMaxPlanes];      //!
  TLatex  *fTxtTrackFinalChi2, *fTxtTrackMomentum, *fTxtFinalCandidates, *fTxtDummy;  //!
  TLatex  *fTxtAllClust, *fTxtClustGoodChi2, *fTxtClustMC, *fTxtClustOfTrack; 	      //!
  TMarker *fMrkAllClust, *fMrkClustGoodChi2, *fMrkClustMC, *fMrkClustOfTrack;         //!
 
  Int_t fCountRealTracksAnalyzed;
  Int_t fMaxNTracksToBeAnalyzed;
  Int_t fCountRealTracksWithRefMC; 
  Int_t fCountRealTracksWithRefMC_andTrigger;
  Int_t fCountRealTracksWithRefMC_andTrigger_andGoodPt;
  Int_t fCountRealTracksWithRefMC_andTrigger_andGoodPt_andGoodTheta;
  Int_t fCountRealTracksAnalyzedOfEvent;
  Int_t fCountRealTracksAnalyzedWithFinalCandidates;

  Int_t fNClustersGlobalTrack[fNMaxPlanes], fNDFGlobalTrack[fNMaxPlanes];
  
  TFile *fFileCluster;   //!
  TFile *fFileESD;       //!
  TFile *fFile_gAlice;   //!

  AliRunLoader *fRunLoader;           //!
  AliLoader *fMFTLoader;              //!
  AliMUONRecoCheck *fMuonRecoCheck;   //!

  TTree *fMFTClusterTree;  //!

  AliMUONTrack *fMuonTrackReco;                 //! muon track being analyzed
  AliMuonForwardTrack *fCurrentTrack;           //! muon extrapolated track being tested
  AliMuonForwardTrack *fFinalBestCandidate;     //! best final candidate (if any)
  Bool_t fIsCurrentMuonTrackable;
  Bool_t fIsGoodClusterInPlane[fNMaxPlanes];

  TClonesArray *fCandidateTracks;   //! array of track we are going to build (starting from fMuonTrackReco)

  AliMUONVTrackStore *fTrackStore;      //! list of reconstructed MUON tracks 
  AliMUONVTrackStore *fTrackRefStore;   //! list of reconstructible MUON tracks
  
  TIterator *fNextTrack;   //! Iterator for reading the MUON tracks
  
  AliStack *fStack;  //!

  AliMFT *fMFT;                        //!
  AliMFTSegmentation *fSegmentation;   //!

  TFile *fOutputTreeFile, *fOutputQAFile;   //
  TTree *fOutputEventTree;                  //!

  TClonesArray *fMuonForwardTracks;       //! array of AliMuonForwardTrack

  Int_t fMatchingMode;
  Double_t fMinResearchRadiusAtLastPlane;

  AliGRPObject *fGRPData;              //! Data from the GRP/GRP/Data CDB folder
  AliRunInfo *fRunInfo;                //!

  ClassDef(AliMuonForwardTrackFinder, 1); 

};

//======================================================================================================
 
#endif
Commit	Line	Data
820b4d9e	1	#ifndef AliMuonForwardTrackFinder_H
	2	#define AliMuonForwardTrackFinder_H
	3
	4	// ROOT includes
	5	#include "TObject.h"
	6	#include "TClonesArray.h"
	7	#include "TH2D.h"
	8	#include "TH1D.h"
	9	#include "TFile.h"
	10	#include "TGeoManager.h"
	11	#include "TMatrixD.h"
	12	#include "TParticle.h"
	13	#include "TMath.h"
	14	#include "TGraph.h"
	15	#include "TEllipse.h"
	16	#include "TCanvas.h"
	17	#include "TString.h"
	18	#include "TLatex.h"
	19	#include "TMarker.h"
	20	#include "TNtuple.h"
	21	#include "TRandom.h"
	22	#include "TIterator.h"
	23
	24	// STEER includes
	25	#include "AliLog.h"
	26	#include "AliRun.h"
	27	#include "AliRunLoader.h"
	28	#include "AliLoader.h"
	29	#include "AliHeader.h"
	30	#include "AliMC.h"
	31	#include "AliStack.h"
	32	#include "AliMagF.h"
	33	#include "AliTracker.h"
	34	#include "AliGRPObject.h"
	35	#include "AliRunInfo.h"
	36
	37	// MUON includes
	38	#include "AliMUONConstants.h"
	39	#include "AliMUONTrack.h"
	40	#include "AliMUONRecoCheck.h"
	41	#include "AliMUONTrackParam.h"
	42	#include "AliMUONTrackExtrap.h"
	43	#include "AliMUONVTrackStore.h"
	44	#include "AliMUONVCluster.h"
	45
	46	// MFT includes
	47	#include "AliMuonForwardTrack.h"
	48	#include "AliMFTCluster.h"
	49	#include "AliMFT.h"
	50	#include "AliMFTSegmentation.h"
d4643a10	51	#include "AliMFTConstants.h"
820b4d9e	52
	53	//====================================================================================================================================================
	54	//
	55	// Class for the creation of the "global muon tracks" built from the clusters in the
	56	// muon spectrometer and the clusters of the Muon Forward Tracker. QA histograms are also created
	57	//
	58	// Contact author: antonio.uras@cern.ch
	59	//
	60	//====================================================================================================================================================
	61
	62	class AliMuonForwardTrackFinder : public TObject {
	63
	64	public:
	65
	66	enum matchingOption {kRealMatching, kIdealMatching};
	67
	68	AliMuonForwardTrackFinder();
	69
d4643a10	70	virtual ~AliMuonForwardTrackFinder();
820b4d9e	71
	72	enum {kAllClusters, kClustersGoodChi2, kClusterOfTrack, kClusterCorrectMC};
	73
	74	void Init(Int_t nRun, Char_t readDir, Char_t outDir, Int_t nEventsToAnalyze = -1);
	75	Bool_t LoadNextEvent();
	76	Int_t LoadNextTrack();
	77	Int_t GetNDF(Int_t nClusters);
	78	void PDGNameConverter(const Char_t nameIn, Char_t nameOut);
	79	void DrawPlanes();
	80	void Terminate();
	81	void WriteHistos();
	82
	83	void SetRun(Int_t nRun) { fRun = nRun; }
	84	void SetNEventsToAnalyze(Int_t nEventsToAnalyze) { fNEventsToAnalyze = nEventsToAnalyze; }
	85	void SetSigmaSpectrometerCut(Double_t sigmaSpectrometerCut) { fSigmaSpectrometerCut = sigmaSpectrometerCut; }
	86	void SetSigmaClusterCut(Double_t sigmaClusterCut) { fSigmaClusterCut = sigmaClusterCut; }
	87	void SetChi2GlobalCut(Double_t chi2GlobalCut) { fChi2GlobalCut = chi2GlobalCut; }
	88	void SetReadDir(Char_t *dirName) { fReadDir = dirName; }
	89	void SetOutDir(Char_t *dirName) { fOutDir = dirName; }
	90	void SetDraw(Bool_t drawOption);
	91	void SetRAbsorberCut(Double_t rAbsorberCut) { fRAbsorberCut = rAbsorberCut; }
	92	void SetLowPtCut(Double_t lowPtCut) { fLowPtCut = lowPtCut; }
	93	void SetNFinalCandidatesCut(Int_t nFinalCandidatesCut) { fNFinalCandidatesCut = nFinalCandidatesCut; }
	94	void SetExtrapOriginTransvError(Double_t extrapOriginTransvError) { fExtrapOriginTransvError = extrapOriginTransvError; }
	95	void SetGaussianBlurZVert(Double_t gaussianBlurZVert) { fGaussianBlurZVert = gaussianBlurZVert; }
	96
	97	Int_t GetRun() { return fRun; }
	98	Int_t GetNEvents() { return fNEventsToAnalyze; }
	99	Double_t GetSigmaSpectrometerCut() { return fSigmaSpectrometerCut; }
	100	Double_t GetSigmaClusterCut() { return fSigmaClusterCut; }
	101	Double_t GetChi2GlobalCut() { return fChi2GlobalCut; }
	102	Double_t GetRAbsorberCut() { return fRAbsorberCut; }
	103	Double_t GetLowPtCut() { return fLowPtCut; }
	104	Double_t GetExtrapOriginTransvError() { return fExtrapOriginTransvError; }
	105	Int_t GetNPlanesMFT() { return fNPlanesMFT; }
	106	Int_t GetNFinalCandidatesCut() { return fNFinalCandidatesCut; }
	107	Int_t GetCurrentEvent() { return fEv; }
	108
	109	Int_t GetNRealTracksAnalyzed() const { return fCountRealTracksAnalyzed; }
	110	Int_t GetNRealTracksAnalyzedOfEvent() const { return fCountRealTracksAnalyzedOfEvent; }
	111	Int_t GetNRealTracksWithRefMC() const { return fCountRealTracksWithRefMC; }
	112	Int_t GetNRealTracksWithRefMC_andTrigger() const { return fCountRealTracksWithRefMC_andTrigger; }
	113	Int_t GetNRealTracksWithRefMC_andTrigger_andGoodPt() const { return fCountRealTracksWithRefMC_andTrigger_andGoodPt; }
	114	Int_t GetNRealTracksWithRefMC_andTrigger_andGoodPt_andGoodTheta() const { return fCountRealTracksWithRefMC_andTrigger_andGoodPt_andGoodTheta; }
	115
	116	void SetNPlanesMFT(Int_t nPlanesMFT) { fNPlanesMFT = nPlanesMFT; }
	117	void SeparateFrontBackClusters();
	118	void SetNMaxMissingMFTClusters(Int_t nMaxMissingMFTClusters) { fNMaxMissingMFTClusters = nMaxMissingMFTClusters; }
d4643a10	119	void SetMandatoryPlane(Int_t iPlane) { if (0<=iPlane && iPlane<AliMFTConstants::fNMaxPlanes) fIsPlaneMandatory[iPlane] = kTRUE; }
820b4d9e	120
	121	void FindClusterInPlane(Int_t planeId);
	122	void AttachGoodClusterInPlane(Int_t planeId);
d4643a10	123	void FillPlanesWithTrackHistory();
820b4d9e	124	Double_t TryOneCluster(const AliMUONTrackParam &trackParam, AliMFTCluster *cluster);
	125	void BookHistos();
	126	void SetTitleHistos();
	127	void BookPlanes();
	128	void ResetPlanes();
	129	void PrintParticleHistory();
	130
	131	Bool_t IsCorrectMatch(AliMFTCluster *cluster);
	132	void CheckCurrentMuonTrackable();
d4643a10	133	Bool_t IsMother(Char_t *nameMother);
820b4d9e	134
	135	void SetMatchingMode(Int_t matchingMode) { fMatchingMode = matchingMode; }
	136	void SetMinResearchRadiusAtLastPlane(Double_t minResearchRadius) { fMinResearchRadiusAtLastPlane = minResearchRadius; }
	137
	138	void FillOutputTree();
	139	void WriteOutputTree();
	140
	141	Bool_t InitGRP();
	142	Bool_t SetRunNumber();
	143
d4643a10	144	void SetMaxNTracksToBeAnalyzed(Int_t nTracks) { fMaxNTracksToBeAnalyzed = nTracks; }
d4643a10	145
820b4d9e	146	private:
	147
	148	AliMuonForwardTrackFinder(const AliMuonForwardTrackFinder& obj);
	149	AliMuonForwardTrackFinder& operator=(const AliMuonForwardTrackFinder& other);
	150
	151	protected:
	152
d4643a10	153	static const Int_t fNMaxPlanes = AliMFTConstants::fNMaxPlanes; // max number of MFT planes
	154	static const Double_t fRadLengthSi;
	155
820b4d9e	156	Int_t fRun;
	157	Int_t fNEventsToAnalyze; // events to analyze
	158	Double_t fSigmaClusterCut; // to select the clusters in the MFT planes which are compatible with the extrapolated muon track
	159	Double_t fChi2GlobalCut; // cut on the final chi2 of the global muon track
	160	Double_t fSigmaSpectrometerCut; // for the selection of the tracks in the muon spectrometer
	161	Double_t fExtrapOriginTransvError; // uncertainty on the x and y position of the muon's origin
	162	Double_t fGaussianBlurZVert; // smearing of the z position of the vertex, to simulate real case when the simulation was performed at fixed zVert=0.
	163	Int_t fNFinalCandidatesCut; // cut on the number of the final candidates for the muon track
	164	TString fReadDir;
	165	TString fOutDir;
	166	Bool_t fDrawOption;
	167
	168	Double_t fDistanceFromGoodClusterAndTrackAtLastPlane;
	169	Double_t fDistanceFromBestClusterAndTrackAtLastPlane;
	170
d4643a10	171	TClonesArray *fMFTClusterArray[fNMaxPlanes]; //! array of clusters for the planes of the MFT
	172	TClonesArray *fMFTClusterArrayFront[fNMaxPlanes]; //! array of front clusters for the planes of the MFT
	173	TClonesArray *fMFTClusterArrayBack[fNMaxPlanes]; //! array of back clusters for the planes of the MFT
820b4d9e	174
	175	Double_t fRAbsorberCut; // in cm, corresponds to the radial position of a 3 degrees track at the end of the absorber (-503 cm)
	176	Double_t fLowPtCut; // in GeV/c, the lower limit for the pt of a track in the muon spectrometer
	177	Int_t fNPlanesMFT; // number of planes of the Vertex Telescope (Muon Internal Tracker) -> This should be taken from the new version of AliVZERO2
	178	Int_t fNPlanesMFTAnalyzed;
	179	Int_t fNMaxMissingMFTClusters; // max. number of MFT clusters which can be missed in the global fit procedure
d4643a10	180	Bool_t fIsPlaneMandatory[fNMaxPlanes]; // specifies which MFT planes cannot be missed in the global fit procedure
820b4d9e	181
	182	Int_t fEv; // current event being analyzed
	183	Int_t fLabelMC; // MC label of the muon track reconstructed in the spectrometer
	184
	185	Bool_t fIsClusterCompatible[10]; // here the clusters in the Muon Spectrometer are concerned
	186
d4643a10	187	Double_t fZPlane[fNMaxPlanes]; // z-position of the MFT planes (center of the support)
	188	Double_t fRPlaneMax[fNMaxPlanes]; // max radius of the MFT planes (the support)
	189	Double_t fRPlaneMin[fNMaxPlanes]; // min radius of the MFT planes (the support)
	190
	191	TH1D fHistPtSpectrometer, fHistPtMuonTrackWithGoodMatch, *fHistPtMuonTrackWithBadMatch; //
	192	TH1D fHistRadiusEndOfAbsorber, fHistNTracksAfterExtrapolation[fNMaxPlanes]; //
	193	TH1D fHistNGoodClustersForFinalTracks, fHistResearchRadius[fNMaxPlanes]; //
	194	TH1D *fHistDistanceGoodClusterFromTrackMinusDistanceBestClusterFromTrackAtLastPlane; //
	195	TH1D *fHistDistanceGoodClusterFromTrackAtLastPlane; //
	196	TH1D fHistChi2Cluster_GoodCluster[fNMaxPlanes], fHistChi2Cluster_BadCluster[fNMaxPlanes]; //
	197	TH1D *fHistGlobalChi2AtPlaneFor_GOOD_CandidatesOfTrackableMuons[fNMaxPlanes]; //
	198	TH1D *fHistGlobalChi2AtPlaneFor_BAD_CandidatesOfTrackableMuons[fNMaxPlanes]; //
	199
	200	TNtuple *fNtuFinalCandidates;
	201	TNtuple *fNtuFinalBestCandidates;
	202
	203	TGraph *fGrMFTPlane[4][20]; //!
	204	TEllipse fCircleExt[fNMaxPlanes], fCircleInt[fNMaxPlanes]; //!
	205	TCanvas *fCanvas; //!
	206
	207	TLatex fTxtMuonHistory, fTxtTrackGoodClusters, *fTxtTrackChi2[fNMaxPlanes]; //!
	208	TLatex fTxtTrackFinalChi2, fTxtTrackMomentum, fTxtFinalCandidates, fTxtDummy; //!
	209	TLatex fTxtAllClust, fTxtClustGoodChi2, fTxtClustMC, fTxtClustOfTrack; //!
	210	TMarker fMrkAllClust, fMrkClustGoodChi2, fMrkClustMC, fMrkClustOfTrack; //!
	211
	212	Int_t fCountRealTracksAnalyzed;
	213	Int_t fMaxNTracksToBeAnalyzed;
820b4d9e	214	Int_t fCountRealTracksWithRefMC;
	215	Int_t fCountRealTracksWithRefMC_andTrigger;
	216	Int_t fCountRealTracksWithRefMC_andTrigger_andGoodPt;
	217	Int_t fCountRealTracksWithRefMC_andTrigger_andGoodPt_andGoodTheta;
	218	Int_t fCountRealTracksAnalyzedOfEvent;
	219	Int_t fCountRealTracksAnalyzedWithFinalCandidates;
	220
d4643a10	221	Int_t fNClustersGlobalTrack[fNMaxPlanes], fNDFGlobalTrack[fNMaxPlanes];
820b4d9e	222
d4643a10	223	TFile *fFileCluster; //!
	224	TFile *fFileESD; //!
	225	TFile *fFile_gAlice; //!
820b4d9e	226
d4643a10	227	AliRunLoader *fRunLoader; //!
	228	AliLoader *fMFTLoader; //!
	229	AliMUONRecoCheck *fMuonRecoCheck; //!
820b4d9e	230
d4643a10	231	TTree *fMFTClusterTree; //!
820b4d9e	232
d4643a10	233	AliMUONTrack *fMuonTrackReco; //! muon track being analyzed
	234	AliMuonForwardTrack *fCurrentTrack; //! muon extrapolated track being tested
	235	AliMuonForwardTrack *fFinalBestCandidate; //! best final candidate (if any)
820b4d9e	236	Bool_t fIsCurrentMuonTrackable;
d4643a10	237	Bool_t fIsGoodClusterInPlane[fNMaxPlanes];
820b4d9e	238
d4643a10	239	TClonesArray *fCandidateTracks; //! array of track we are going to build (starting from fMuonTrackReco)
820b4d9e	240
d4643a10	241	AliMUONVTrackStore *fTrackStore; //! list of reconstructed MUON tracks
d4643a10	242	AliMUONVTrackStore *fTrackRefStore; //! list of reconstructible MUON tracks
820b4d9e	243
	244	TIterator *fNextTrack; //! Iterator for reading the MUON tracks
	245
d4643a10	246	AliStack *fStack; //!
820b4d9e	247
d4643a10	248	AliMFT *fMFT; //!
d4643a10	249	AliMFTSegmentation *fSegmentation; //!
820b4d9e	250
d4643a10	251	TFile fOutputTreeFile, fOutputQAFile; //
d4643a10	252	TTree *fOutputEventTree; //!
820b4d9e	253
d4643a10	254	TClonesArray *fMuonForwardTracks; //! array of AliMuonForwardTrack
820b4d9e	255
	256	Int_t fMatchingMode;
	257	Double_t fMinResearchRadiusAtLastPlane;
	258
d4643a10	259	AliGRPObject *fGRPData; //! Data from the GRP/GRP/Data CDB folder
d4643a10	260	AliRunInfo *fRunInfo; //!
820b4d9e	261
	262	ClassDef(AliMuonForwardTrackFinder, 1);
	263
	264	};
	265
	266	//======================================================================================================
	267
	268	#endif
	269
	270