#ifndef ROOT_TObject
# include <TObject.h>
#endif
+#ifndef ROOT_TLinearFitter
+# include <TLinearFitter.h>
+#endif
+#ifndef ROOT_TProfile2D
+# include <TProfile2D.h>
+#endif
+#ifndef ROOT_TH2I
+# include <TH2I.h>
+#endif
-class TTree;
class TProfile2D;
-class TGraphErrors;
-class TGraph;
class TObjArray;
class TH1F;
class TH2I;
+class TH2F;
class TH2;
+class TLinearFitter;
class AliLog;
class AliTRDCalibraMode;
class AliTRDCalibraVector;
+class AliRawReader;
+class AliTRDRawStream;
class AliTRDcluster;
class AliTRDtrack;
class AliTRDmcmTracklet;
+class TTreeSRedirector;
+
+struct eventHeaderStruct;
class AliTRDCalibraFillHisto : public TObject {
Bool_t UpdateHistograms(AliTRDcluster *cl, AliTRDtrack *t);
Bool_t UpdateHistogramcm(AliTRDmcmTracklet *trk);
+ // Process events DAQ
+ Bool_t ProcessEventDAQ(AliTRDRawStream *rawStream);
+ Bool_t ProcessEventDAQ(AliRawReader *rawReader);
+ Bool_t ProcessEventDAQ(eventHeaderStruct *event);
+
+ Bool_t UpdateDAQ(Int_t det, Int_t /*row*/, Int_t /*col*/, Int_t timebin, Int_t signal, Int_t nbtimebins);
+
+
// Is Pad on
Bool_t IsPadOn(Int_t detector, Int_t col, Int_t row) const;
// Functions for plotting the 2D
void Plot2d();
- // Functions for writting the 2D
- Bool_t Write2d();
+ // Functions for write
+ void Write2d(const Char_t *filename = "TRD.calibration.root", Bool_t append = kFALSE);
+
+ // Reset the linearfitter objects
+ void ResetLinearFitter();
+ void ResetCHHisto() { if(fCH2d) fCH2d->Reset(); }
+ void ResetPHHisto() { if(fPH2d) fPH2d->Reset(); }
+ void ResetPRFHisto() { if(fPRF2d) fPRF2d->Reset();}
//For the statistics
Double_t *StatH(TH2 *ch, Int_t i);
+ Double_t *GetMeanMedianRMSNumberCH();
+ Double_t *GetMeanMedianRMSNumberLinearFitter() const;
+
//
// Set of Get the variables
void SetPRF2dOn() { fPRF2dOn = kTRUE; }
void SetHisto2d() { fHisto2d = kTRUE; }
void SetVector2d() { fVector2d = kTRUE; }
+ void SetLinearFitterOn() { fLinearFitterOn = kTRUE; }
+ void SetLinearFitterDebugOn() { fLinearFitterDebugOn = kTRUE; }
+
Bool_t GetMITracking() const { return fMITracking; }
Bool_t GetMcmTracking() const { return fMcmTracking; }
Bool_t GetHisto2d() const { return fHisto2d; }
Bool_t GetVector2d() const { return fVector2d; }
TH2I *GetCH2d() const { return fCH2d; }
- TProfile2D *GetPH2d() const { return fPH2d; }
- TProfile2D *GetPRF2d() const { return fPRF2d; }
-
+ TProfile2D *GetPH2d(Int_t nbtimebin=24, Float_t samplefrequency= 10.0, Bool_t force=kFALSE);
+ TProfile2D *GetPRF2d() const { return fPRF2d; }
+ TObjArray GetLinearFitterArray() const { return fLinearFitterArray; }
+ TLinearFitter *GetLinearFitter(Int_t detector, Bool_t force=kFALSE);
+ TH2F *GetLinearFitterHisto(Int_t detector, Bool_t force=kFALSE);
+
// How to fill the 2D
- void SetRelativeScaleAuto() { fRelativeScaleAuto = kTRUE; }
void SetRelativeScale(Float_t relativeScale);
- void SetThresholdClusterPRF1(Float_t thresholdClusterPRF1) { fThresholdClusterPRF1 = thresholdClusterPRF1; }
void SetThresholdClusterPRF2(Float_t thresholdClusterPRF2) { fThresholdClusterPRF2 = thresholdClusterPRF2; }
- void SetCenterOfflineCluster() { fCenterOfflineCluster = kTRUE; }
- void SetNz(Int_t i, Short_t nz);
+ void SetNz(Int_t i, Short_t nz);
void SetNrphi(Int_t i, Short_t nrphi);
void SetProcent(Float_t procent) { fProcent = procent; }
void SetDifference(Short_t difference) { fDifference = difference; }
void SetNumberClusters(Short_t numberClusters) { fNumberClusters = numberClusters; }
void SetNumberBinCharge(Short_t numberBinCharge) { fNumberBinCharge = numberBinCharge; }
void SetNumberBinPRF(Short_t numberBinPRF) { fNumberBinPRF = numberBinPRF; }
+ void SetNumberGroupsPRF(Short_t numberGroupsPRF);
Float_t GetRelativeScale() const { return fRelativeScale; }
- Bool_t GetRelativeScaleAuto() const { return fRelativeScaleAuto; }
- Float_t GetThresholdClusterPRF1() const { return fThresholdClusterPRF1; }
Float_t GetThresholdClusterPRF2() const { return fThresholdClusterPRF2; }
Float_t GetProcent() const { return fProcent; }
Short_t GetDifference() const { return fDifference; }
Short_t GetNumberClusters() const { return fNumberClusters; }
Short_t GetNumberBinCharge() const { return fNumberBinCharge; }
Short_t GetNumberBinPRF() const { return fNumberBinPRF; }
-
- // Write
- void SetWrite(Int_t i) { fWrite[i] = kTRUE; }
- void SetWriteName(TString writeName) { fWriteName = writeName; }
-
- Bool_t GetWrite(Int_t i) const { return fWrite[i]; }
- TString GetWriteName() const { return fWriteName; }
-
- // Calibration mode
+ Short_t GetNumberGroupsPRF() const { return fNgroupprf; }
+ Int_t *GetEntriesLinearFitter() const { return fEntriesLinearFitter; }
+ // Calibration mode
AliTRDCalibraMode *GetCalibraMode() const { return fCalibraMode; }
-// Vector method
+ // Debug
+ void SetDebugLevel(Short_t level) { fDebugLevel = level; }
+
+ // Vector method
AliTRDCalibraVector *GetCalibraVector() const { return fCalibraVector; }
private:
Bool_t fPRF2dOn; // Chose to fill the 2D histos or vectors for the pad response function calibration
Bool_t fHisto2d; // Chose to fill the 2D histos
Bool_t fVector2d; // Chose to fill vectors
+ Bool_t fLinearFitterOn; // Method with linear fit for drift velocity
+ Bool_t fLinearFitterDebugOn; // Method with linear fit for drift velocity
// How to fill the 2D
Float_t fRelativeScale; // Scale of the deposited charge
- Int_t fCountRelativeScale; // fCountRelativeScale first data used for the scaling
- Bool_t fRelativeScaleAuto; // Scaling with the first fCountRelativeScale objects
- Float_t fThresholdClusterPRF1; // Threshold on cluster pad signals for PRF peripherique
- Float_t fThresholdClusterPRF2; // Threshold on cluster pad signals for PRF peripherique
- Bool_t fCenterOfflineCluster; // Choose to use the offline determination of the center of the cluster
-
- // Write
- Bool_t fWrite[3]; // Do you want to write the 2D histo or vectors converted in a tree
- TString fWriteName; // Where the 2D or trees are written
-
- // Calibration mode
+ Float_t fThresholdClusterPRF2; // Threshold on cluster pad signals
+ // Calibration mode
AliTRDCalibraMode *fCalibraMode; // Calibration mode
+ //For debugging
+ TTreeSRedirector *fDebugStreamer; //!Debug streamer
+ Short_t fDebugLevel; // Flag for debugging
//
// Internal variables
//
// Fill the 2D histos in the offline tracking
Bool_t fDetectorAliTRDtrack; // Change of track
- Int_t fChamberAliTRDtrack; // Change of chamber
- Int_t fDetectorPreviousTrack; // Change of detector
- Bool_t fGoodTrack; // If goes through a kaputt pad
- Float_t *fAmpTotal; // Energy deposited in the calibration group by the track
- Short_t *fPHPlace; // Calibration group of PH
- Float_t *fPHValue; // PH
- Short_t fNumberClusters; // Minimum number of clusters in the tracklets
+ Int_t fDetectorPreviousTrack; // Change of detector
+ Short_t fNumberClusters; // Minimum number of clusters in the tracklets
Float_t fProcent; // Limit to take the info of the most important calibration group if the track goes through 2 groups (CH)
Short_t fDifference; // Limit to take the info of the most important calibration group if the track goes through 2 groups (CH)
Int_t fNumberTrack; // How many tracks could be used (Debug for the moment)
Float_t fSf; // Sampling frequence
Short_t fNumberBinCharge; // Number of bins for the gain factor
Short_t fNumberBinPRF; // Number of bin for the PRF
+ Short_t fNgroupprf; // Number of groups in tnp bins for PRF /2.0
+
+ // Variables per tracklet
+ TObjArray *fListClusters; // List of clusters
+ Double_t *fPar0; // List of track parameter fP[0]
+ Double_t *fPar1; // List of track parameter fP[1]
+ Double_t *fPar2; // List of track parameter fP[2]
+ Double_t *fPar3; // List of track parameter fP[3]
+ Double_t *fPar4; // List of track paarmeter fP[4]
+ Float_t *fAmpTotal; // Energy deposited in the calibration group by the track
+ Short_t *fPHPlace; // Calibration group of PH
+ Float_t *fPHValue; // PH
+ Bool_t fGoodTracklet; // Good tracklet
+ // Variables per track
+ Bool_t fGoodTrack; // no return
+
+ //Statistics
+ Int_t *fEntriesCH; // Number of entries CH
+ Int_t *fEntriesLinearFitter; // Number of entries LinearFitter
+
//
// Vector method
// Histograms to store the info from the digits, from the tracklets or from the tracks
TProfile2D *fPH2d; // 2D average pulse height
TProfile2D *fPRF2d; // 2D PRF
- TH2I *fCH2d; // 2D deposited charge
+ TH2I *fCH2d; // 2D deposited charge
+ TObjArray fLinearFitterArray; // TObjArray of Linear Fitters for the detectors
+ TObjArray fLinearFitterHistoArray; // TObjArray of histo2D for debugging Linear Fitters
//
// A lot of internal functions......
//
-
- // Init AliTRDCalibraFillHisto
- void Init();
-
// Create the 2D histo to be filled Online
void CreateCH2d(Int_t nn);
void CreatePH2d(Int_t nn);
// Fill the 2D
void FillTheInfoOfTheTrackPH();
void FillTheInfoOfTheTrackCH();
+ void FillCH2d(Int_t x, Float_t y);
+ void FillCHSm(Int_t supermodule, Float_t y);
+ Bool_t FindP1TrackPH();
void ResetfVariables();
Bool_t LocalisationDetectorXbins(Int_t detector);
-
+ Int_t *CalculateRowCol(AliTRDcluster *cl) const;
+ void CheckGoodTracklet(Int_t detector, Int_t *rowcol);
+ Int_t CalculateCalibrationGroup(Int_t i, Int_t *rowcol) const;
+ Int_t CalculateTotalNumberOfBins(Int_t i);
+ void StoreInfoCHPH(AliTRDcluster *cl, AliTRDtrack *t, Int_t *group);
+ Bool_t HandlePRF();
+
// Clear
void ClearHistos();
// Instance of this class and so on
- static AliTRDCalibraFillHisto *fgInstance; // Instance
- static Bool_t fgTerminated; // If terminated
+ static AliTRDCalibraFillHisto *fgInstance; // Instance
+ static Bool_t fgTerminated; // If terminated
+
- ClassDef(AliTRDCalibraFillHisto,1) // TRD Calibration class
+ ClassDef(AliTRDCalibraFillHisto,2) // TRD Calibration class
};
git://git.uio.no / u / mrichter / AliRoot.git / blobdiff