#include "AliVHeader.h"
#include "AliAODVertex.h"
+#include <TString.h>
+#include "AliCentrality.h"
+#include "AliEventplane.h"
class TGeoHMatrix;
class TString;
+
class AliAODHeader : public AliVHeader {
public :
Double_t magField,
Double_t muonMagFieldScale,
Double_t cent,
+ Double_t eventplane,
Double_t n1Energy,
Double_t p1Energy,
Double_t n2Energy,
ULong64_t fTriggerMask,
UChar_t fTriggerCluster,
UInt_t fEventType,
- const Char_t *title="");
+ const Char_t *title="",
+ Int_t nMuons=0,
+ Int_t nDimuons=0);
virtual ~AliAODHeader();
AliAODHeader(const AliAODHeader& evt);
AliAODHeader& operator=(const AliAODHeader& evt);
-
- Int_t GetRunNumber() const { return fRunNumber; }
+
+ Int_t GetRunNumber() const { return fRunNumber;}
+ Int_t GetEventNumberESDFile() const { return fEventNumberESDFile;}
UShort_t GetBunchCrossNumber() const { return fBunchCrossNumber; }
UInt_t GetOrbitNumber() const { return fOrbitNumber; }
UInt_t GetPeriodNumber() const { return fPeriodNumber; }
Double_t GetMuonMagFieldScale() const { return fMuonMagFieldScale; }
Double_t GetCentrality() const { return fCentrality; }
+ Double_t GetEventplane() const { return fEventplane; }
Double_t GetZDCN1Energy() const { return fZDCN1Energy; }
Double_t GetZDCP1Energy() const { return fZDCP1Energy; }
Double_t GetZDCN2Energy() const { return fZDCN2Energy; }
Int_t GetRefMultiplicity() const { return fRefMult; }
Int_t GetRefMultiplicityPos() const { return fRefMultPos; }
Int_t GetRefMultiplicityNeg() const { return fRefMultNeg; }
+ Int_t GetNumberOfMuons() const { return fNMuons; }
+ Int_t GetNumberOfDimuons() const { return fNDimuons; }
Double_t GetQTheta(UInt_t i) const;
UInt_t GetNQTheta() const { return (UInt_t)fNQTheta; }
Double_t GetDiamondX() const {return fDiamondXY[0];}
Double_t GetDiamondY() const {return fDiamondXY[1];}
+ Double_t GetDiamondZ() const {return fDiamondZ;}
Double_t GetSigma2DiamondX() const {return fDiamondCovXY[0];}
Double_t GetSigma2DiamondY() const {return fDiamondCovXY[2];}
+ Double_t GetSigma2DiamondZ() const {return fDiamondSig2Z;}
void GetDiamondCovXY(Float_t cov[3]) const {
for(Int_t i=0;i<3;i++) cov[i]=fDiamondCovXY[i]; return;
}
+ UInt_t GetL0TriggerInputs() const {return fL0TriggerInputs;}
+ UInt_t GetL1TriggerInputs() const {return fL1TriggerInputs;}
+ UShort_t GetL2TriggerInputs() const {return fL2TriggerInputs;}
+ AliCentrality* GetCentralityP() const { return fCentralityP; }
+ AliEventplane* GetEventplaneP() const { return fEventplaneP; }
+
void SetRunNumber(Int_t nRun) { fRunNumber = nRun; }
+ void SetEventNumberESDFile(Int_t n) { fEventNumberESDFile=n; }
void SetBunchCrossNumber(UShort_t nBx) { fBunchCrossNumber = nBx; }
void SetOrbitNumber(UInt_t nOr) { fOrbitNumber = nOr; }
void SetPeriodNumber(UInt_t nPer) { fPeriodNumber = nPer; }
void SetEventType(UInt_t evttype) { fEventType = evttype; }
void SetMagneticField(Double_t magFld) { fMagneticField = magFld; }
void SetMuonMagFieldScale(Double_t magFldScl){ fMuonMagFieldScale = magFldScl; }
-
- void SetCentrality(Double_t cent) { fCentrality = cent; }
+ void SetCentrality(AliCentrality* cent);
+ void SetEventplane(AliEventplane* eventplane);
void SetZDCN1Energy(Double_t n1Energy) { fZDCN1Energy = n1Energy; }
void SetZDCP1Energy(Double_t p1Energy) { fZDCP1Energy = p1Energy; }
void SetZDCN2Energy(Double_t n2Energy) { fZDCN2Energy = n2Energy; }
void SetRefMultiplicity(Int_t refMult) { fRefMult = refMult; }
void SetRefMultiplicityPos(Int_t refMultPos) { fRefMultPos = refMultPos; }
void SetRefMultiplicityNeg(Int_t refMultNeg) { fRefMultNeg = refMultNeg; }
+ void SetNumberOfMuons(Int_t nMuons) { fNMuons = nMuons; }
+ void SetNumberOfDimuons(Int_t nDimuons) { fNDimuons = nDimuons; }
void SetQTheta(Double_t *QTheta, UInt_t size = 5);
void RemoveQTheta();
void SetDiamond(Float_t xy[2],Float_t cov[3]) {
- for(Int_t i=0;i<3;i++) {if(i<2) fDiamondXY[i]=xy[i]; fDiamondCovXY[i]=cov[i];}
+ for(Int_t i=0;i<3;i++) {fDiamondCovXY[i] = cov[i];}
+ for(Int_t i=0;i<2;i++) {fDiamondXY[i] = xy[i] ;}
}
-
+ void SetDiamondZ(Float_t z, Float_t sig2z){
+ fDiamondZ=z; fDiamondSig2Z=sig2z;
+ }
+ void SetL0TriggerInputs(UInt_t n) {fL0TriggerInputs=n;}
+ void SetL1TriggerInputs(UInt_t n) {fL1TriggerInputs=n;}
+ void SetL2TriggerInputs(UShort_t n) {fL2TriggerInputs=n;}
+ void SetESDFileName(TString name) {fESDFileName = name;}
void Print(Option_t* option = "") const;
void SetPHOSMatrix(TGeoHMatrix*matrix, Int_t i) {
return ((i >= 0) && (i < kNEMCALMatrix)) ? fEMCALMatrix[i] : NULL;
}
+ UInt_t GetOfflineTrigger() { return fOfflineTrigger; }
+ void SetOfflineTrigger(UInt_t trigger) { fOfflineTrigger = trigger; }
+ UInt_t GetNumberOfITSClusters(Int_t ilay) const {return fITSClusters[ilay];}
+ void SetITSClusters(Int_t ilay, UInt_t nclus);
+ Int_t GetTPConlyRefMultiplicity() const {return fTPConlyRefMult;}
+ void SetTPConlyRefMultiplicity(Int_t mult) {fTPConlyRefMult = mult;}
+
+ TString GetESDFileName() const {return fESDFileName;}
+ void Clear(Option_t* = "");
enum {kNPHOSMatrix = 5};
enum {kNEMCALMatrix = 12};
Double32_t fMagneticField; // Solenoid Magnetic Field in kG
Double32_t fMuonMagFieldScale; // magnetic field scale of muon arm magnet
Double32_t fCentrality; // Centrality
+ Double32_t fEventplane; // Event plane angle
Double32_t fZDCN1Energy; // reconstructed energy in the neutron1 ZDC
Double32_t fZDCP1Energy; // reconstructed energy in the proton1 ZDC
Double32_t fZDCN2Energy; // reconstructed energy in the neutron2 ZDC
Int_t fRefMult; // reference multiplicity
Int_t fRefMultPos; // reference multiplicity of positive particles
Int_t fRefMultNeg; // reference multiplicity of negative particles
+ Int_t fNMuons; // number of muons in the forward spectrometer
+ Int_t fNDimuons; // number of dimuons in the forward spectrometer
UInt_t fEventType; // Type of Event
UInt_t fOrbitNumber; // Orbit Number
UInt_t fPeriodNumber; // Period Number
UChar_t fTriggerCluster; // Trigger cluster (mask)
Double32_t fDiamondXY[2]; // Interaction diamond (x,y) in RUN
Double32_t fDiamondCovXY[3]; // Interaction diamond covariance (x,y) in RUN
+ Double32_t fDiamondZ; // Interaction diamond (z) in RUN
+ Double32_t fDiamondSig2Z; // Interaction diamond sigma^2 (z) in RUN
TGeoHMatrix* fPHOSMatrix[kNPHOSMatrix]; //PHOS module position and orientation matrices
TGeoHMatrix* fEMCALMatrix[kNEMCALMatrix]; //EMCAL supermodule position and orientation matrices
-
- ClassDef(AliAODHeader,9);
+ UInt_t fOfflineTrigger; // fired offline triggers for this event
+ TString fESDFileName; // ESD file name to which this event belongs
+ Int_t fEventNumberESDFile; // Event number in ESD file
+ UInt_t fL0TriggerInputs; // L0 Trigger Inputs (mask)
+ UInt_t fL1TriggerInputs; // L1 Trigger Inputs (mask)
+ UShort_t fL2TriggerInputs; // L2 Trigger Inputs (mask)
+ UInt_t fITSClusters[6]; // Number of ITS cluster per layer
+ Int_t fTPConlyRefMult; // Reference multiplicty for standard TPC only tracks
+ AliCentrality* fCentralityP; // Pointer to full centrality information
+ AliEventplane* fEventplaneP; // Pointer to full event plane information
+ ClassDef(AliAODHeader, 16);
};
+inline
+void AliAODHeader::SetCentrality(AliCentrality* cent) {
+ if(cent){
+ if(fCentralityP)*fCentralityP = *cent;
+ else fCentralityP = new AliCentrality(*cent);
+ fCentrality = cent->GetCentralityPercentile("V0M");
+ }
+ else{
+ fCentrality = -999;
+ }
+}
+inline
+void AliAODHeader::SetEventplane(AliEventplane* eventplane) {
+ if(eventplane){
+ if(fEventplaneP)*fEventplaneP = *eventplane;
+ else fEventplaneP = new AliEventplane(*eventplane);
+ fEventplane = eventplane->GetEventplane("Q");
+ }
+ else{
+ fEventplane = -999;
+ }
+}
+
+inline
+void AliAODHeader::SetITSClusters(Int_t ilay, UInt_t nclus)
+{
+ if (ilay >= 0 && ilay < 6) fITSClusters[ilay] = nclus;
+}
+
#endif
git://git.uio.no / u / mrichter / AliRoot.git / blobdiff