{
public:
enum Trigger { kAcceptAll = 1, kMB1 = 2, kMB2, kMB3, kSPDGFO, kSPDGFOBits, kV0A, kV0C, kV0OR, kV0AND,
- kV0ABG, kV0CBG, kZDC, kZDCA, kZDCC, kFMDA, kFMDC, kFPANY, kNSD1, kMB1Prime,
- kSPDGFOL0, kSPDGFOL1, kZDCTDCA, kZDCTDCC, kZDCTime, kCTPV0A, kCTPV0C, kTPCLaserWarmUp,
- kStartOfFlags = 0x0100, kOfflineFlag = 0x8000, kOneParticle = 0x10000, kOneTrack = 0x20000}; // MB1, MB2, MB3 definition from ALICE-INT-2005-025
+ kV0ABG, kV0CBG, kZDC, kZDCA, kZDCC, kZNA, kZNC, kZNABG, kZNCBG, kFMDA, kFMDC, kFPANY, kNSD1, kMB1Prime,
+ kSPDGFOL0, kSPDGFOL1, kZDCTDCA, kZDCTDCC, kZDCTime, kCTPV0A, kCTPV0C, kTPCLaserWarmUp, kSPDClsVsTrkBG,
+ kCentral,kSemiCentral, kT0, kT0BG, kT0Pileup, kEMCAL,kTPCHVdip,
+ kTRDHCO, kTRDHJT, kTRDHSE, kTRDHQU, kTRDHEE,
+ kIncompleteEvent,
+ kStartOfFlags = 0x0100, kOfflineFlag = 0x8000, kOneParticle = 0x10000, kOneTrack = 0x20000}; // MB1, MB2, MB3 definition from ALICE-INT-2005-025
enum AliceSide { kASide = 1, kCSide, kCentralBarrel };
enum V0Decision { kV0Invalid = -1, kV0Empty = 0, kV0BB, kV0BG, kV0Fake };
+ enum T0Decision { kT0Invalid = -1, kT0Empty = 0, kT0BB, kT0DecBG, kT0DecPileup };
AliTriggerAnalysis();
virtual ~AliTriggerAnalysis();
- void EnableHistograms();
+ void EnableHistograms(Bool_t isLowFlux = kFALSE);
void SetAnalyzeMC(Bool_t flag = kTRUE) { fMC = flag; }
Bool_t IsTriggerFired(const AliESDEvent* aEsd, Trigger trigger);
// some "raw" trigger functions
Int_t SPDFiredChips(const AliESDEvent* aEsd, Int_t origin, Bool_t fillHists = kFALSE, Int_t layer = 0);
Bool_t SPDGFOTrigger(const AliESDEvent* aEsd, Int_t origin);
+ Bool_t IsSPDClusterVsTrackletBG(const AliESDEvent* esd, Bool_t fillHists = kFALSE);
V0Decision V0Trigger(const AliESDEvent* aEsd, AliceSide side, Bool_t online, Bool_t fillHists = kFALSE);
+ T0Decision T0Trigger(const AliESDEvent* aEsd, Bool_t online, Bool_t fillHists = kFALSE);
Bool_t ZDCTrigger (const AliESDEvent* aEsd, AliceSide side) const;
Bool_t ZDCTDCTrigger(const AliESDEvent* aEsd, AliceSide side, Bool_t useZN=kTRUE, Bool_t useZP=kFALSE, Bool_t fillHists=kFALSE) const;
Bool_t ZDCTimeTrigger(const AliESDEvent *aEsd, Bool_t fillHists=kFALSE) const;
+ Bool_t ZDCTimeBGTrigger(const AliESDEvent *aEsd, AliceSide side) const;
Bool_t FMDTrigger(const AliESDEvent* aEsd, AliceSide side);
Int_t SSDClusters(const AliESDEvent* aEsd);
+ Bool_t EMCALCellsTrigger(const AliESDEvent *aEsd);
static const char* GetTriggerName(Trigger trigger);
Bool_t IsLaserWarmUpTPCEvent(const AliESDEvent* esd);
+ Bool_t IsHVdipTPCEvent(const AliESDEvent* esd);
+ Bool_t TRDTrigger(const AliESDEvent* esd, Trigger trigger);
+
+ Bool_t IsIncompleteEvent(const AliESDEvent* esd);
void FillHistograms(const AliESDEvent* aEsd);
void FillTriggerClasses(const AliESDEvent* aEsd);
void SetSPDGFOThreshhold(Int_t t) { fSPDGFOThreshold = t; }
void SetSPDGFOEfficiency(TH1F* hist) { fSPDGFOEfficiency = hist; }
+ void SetSPDClustersVsTrackletsParameters(Float_t a, Float_t b) { fASPDCvsTCut = a; fBSPDCvsTCut =b;}
void SetV0TimeOffset(Float_t offset) { fV0TimeOffset = offset; }
void SetV0AdcThr(Float_t thr) { fV0AdcThr = thr; }
void SetV0HwPars(Float_t thr, Float_t winLow, Float_t winHigh) { fV0HwAdcThr = thr; fV0HwWinLow = winLow; fV0HwWinHigh = winHigh; }
void SetDoFMD(Bool_t flag = kTRUE) {fDoFMD = flag;}
void SetZDCCutParams(Float_t refSum, Float_t refDelta, Float_t sigmaSum, Float_t sigmaDelta) { fZDCCutRefSum = refSum; fZDCCutRefDelta = refDelta; fZDCCutSigmaSum = sigmaSum; fZDCCutSigmaDelta = sigmaDelta; }
void SetCorrZDCCutParams(Float_t refSum, Float_t refDelta, Float_t sigmaSum, Float_t sigmaDelta) { fZDCCutRefSumCorr = refSum; fZDCCutRefDeltaCorr = refDelta; fZDCCutSigmaSumCorr = sigmaSum; fZDCCutSigmaDeltaCorr = sigmaDelta; }
+ void SetZNCorrCutParams(Float_t znaTimeCorrMin, Float_t znaTimeCorrMax, Float_t zncTimeCorrMin, Float_t zncTimeCorrMax)
+ { fZDCCutZNATimeCorrMin = znaTimeCorrMin; fZDCCutZNATimeCorrMax = znaTimeCorrMax;
+ fZDCCutZNCTimeCorrMin = zncTimeCorrMin; fZDCCutZNCTimeCorrMax = zncTimeCorrMax; }
+
+ void SetTRDTriggerParameters(Float_t ptHSE, UChar_t pidHSE, Float_t ptHQU, UChar_t pidHQU, Float_t ptHEE, UChar_t pidHEE, UChar_t minSectorHEE, UChar_t maxSectorHEE, Float_t ptHJT, UChar_t nHJT) {
+ fTRDptHSE = ptHSE; fTRDpidHSE = pidHSE;
+ fTRDptHQU = ptHQU; fTRDpidHQU = pidHQU;
+ fTRDptHEE = ptHEE; fTRDpidHEE = pidHEE;
+ fTRDminSectorHEE = minSectorHEE; fTRDmaxSectorHEE = maxSectorHEE;
+ fTRDptHJT = ptHJT; fTRDnHJT = nHJT;
+ }
Int_t GetSPDGFOThreshhold() const { return fSPDGFOThreshold; }
Float_t GetV0TimeOffset() const { return fV0TimeOffset; }
Float_t fZDCCutSigmaSumCorr; // Corrected ZDC time cut configuration
Float_t fZDCCutSigmaDeltaCorr; // Corrected ZDC time cut configuration
+ Float_t fZDCCutZNATimeCorrMin; // Corrected ZNA time cut configuration
+ Float_t fZDCCutZNATimeCorrMax; // Corrected ZNA time cut configuration
+ Float_t fZDCCutZNCTimeCorrMin; // Corrected ZNA time cut configuration
+ Float_t fZDCCutZNCTimeCorrMax; // Corrected ZNA time cut configuration
+
+ Float_t fASPDCvsTCut; // constant for the linear cut in SPD clusters vs tracklets
+ Float_t fBSPDCvsTCut; // slope for the linear cut in SPD clusters vs tracklets
+
+ // Variables for the TRD triggers
+ Float_t fTRDptHSE; // pt threshold for HSE trigger
+ UChar_t fTRDpidHSE; // PID threshold for HSE trigger
+ Float_t fTRDptHQU; // pt threshold for HQU trigger
+ UChar_t fTRDpidHQU; // PID threshold for HQU trigger
+ Float_t fTRDptHEE; // pt threshold for HEE trigger
+ UChar_t fTRDpidHEE; // PID threshold for HEE trigger
+ UChar_t fTRDminSectorHEE; // min sector for HEE trigger
+ UChar_t fTRDmaxSectorHEE; // max sector for HEE trigger
+ Float_t fTRDptHJT; // pt threshold for HJT trigger
+ UChar_t fTRDnHJT; // no of track threshold for HJT trigger
+
Bool_t fDoFMD; // If false, skips the FMD (physics selection runs much faster)
Float_t fFMDLowCut; //
Float_t fFMDHitCut; //
TH2F* fHistBitsSPD; // offline trigger bits (calculated from clusters) vs hardware trigger bits
TH1F* fHistFiredBitsSPD; // fired hardware bits
+ TH2F* fHistSPDClsVsTrk; // histogram of clusters vs tracklet BG cut
TH1F* fHistV0A; // histograms that histogram the criterion the cut is applied on: bb triggers
TH1F* fHistV0C; // histograms that histogram the criterion the cut is applied on: bb triggers
TH1F* fHistZDC; //histograms that histogram the criterion the cut is applied on: fired bits (6 bins)
TH1F* fHistFMDC; // histograms that histogram the criterion the cut is applied on: number of hit combination above threshold
TH1F* fHistFMDSingle; // histograms that histogram the criterion the cut is applied on: single mult value (more than one entry per event)
TH1F* fHistFMDSum; // histograms that histogram the criterion the cut is applied on: summed mult value (more than one entry per event)
-
+ TH1F* fHistT0; // histograms that histogram the criterion the cut is applied on: bb triggers
TMap* fTriggerClasses; // counts the active trigger classes (uses the full string)
Bool_t fMC; // flag if MC is analyzed
Bool_t fTPCOnly; // flag to set whether TPC only tracks have to be used for the offline trigger
- ClassDef(AliTriggerAnalysis, 16)
+ ClassDef(AliTriggerAnalysis, 22)
private:
AliTriggerAnalysis(const AliTriggerAnalysis&);
git://git.uio.no / u / mrichter / AliRoot.git / blobdiff