} // end loop on layers
- Double_t xyzVtx[]={ fRecoParam->GetXdef(),
- fRecoParam->GetYdef(),
- fRecoParam->GetZdef()};
+ Double_t xyzVtx[]={ fRecoParam->GetXVdef(),
+ fRecoParam->GetYVdef(),
+ fRecoParam->GetZVdef()};
Double_t ersVtx[]={ fRecoParam->GetSigmaXVdef(),
fRecoParam->GetSigmaYVdef(),
fRecoParam->GetSigmaZVdef()};
void SetSearchForExtraClusters(Bool_t opt=kTRUE){ fSearchForExtras=opt; }
Double_t GetSearchForExtraClusters() const { return fSearchForExtras; }
- Double_t GetXdef() const { return fXV; }
- Double_t GetYdef() const { return fYV; }
- Double_t GetZdef() const { return fZV; }
+ Double_t GetXVdef() const { return fXV; }
+ Double_t GetYVdef() const { return fYV; }
+ Double_t GetZVdef() const { return fZV; }
Double_t GetSigmaXVdef() const { return fSigmaXV; }
Double_t GetSigmaYVdef() const { return fSigmaYV; }
Double_t GetSigmaZVdef() const { return fSigmaZV; }
fPass=0;
fConstraint[0]=1; fConstraint[1]=0;
- Double_t xyzVtx[]={AliITSReconstructor::GetRecoParam()->GetXdef(),
- AliITSReconstructor::GetRecoParam()->GetYdef(),
- AliITSReconstructor::GetRecoParam()->GetZdef()};
+ Double_t xyzVtx[]={AliITSReconstructor::GetRecoParam()->GetXVdef(),
+ AliITSReconstructor::GetRecoParam()->GetYVdef(),
+ AliITSReconstructor::GetRecoParam()->GetZVdef()};
Double_t ersVtx[]={AliITSReconstructor::GetRecoParam()->GetSigmaXVdef(),
AliITSReconstructor::GetRecoParam()->GetSigmaYVdef(),
AliITSReconstructor::GetRecoParam()->GetSigmaZVdef()};
fConstraint[0]=1; fConstraint[1]=0;
- Double_t xyz[]={AliITSReconstructor::GetRecoParam()->GetXdef(),
- AliITSReconstructor::GetRecoParam()->GetYdef(),
- AliITSReconstructor::GetRecoParam()->GetZdef()};
+ Double_t xyz[]={AliITSReconstructor::GetRecoParam()->GetXVdef(),
+ AliITSReconstructor::GetRecoParam()->GetYVdef(),
+ AliITSReconstructor::GetRecoParam()->GetZVdef()};
Double_t ers[]={AliITSReconstructor::GetRecoParam()->GetSigmaXVdef(),
AliITSReconstructor::GetRecoParam()->GetSigmaYVdef(),
AliITSReconstructor::GetRecoParam()->GetSigmaZVdef()};
fConstraint[0]=t.fConstraint[0]; fConstraint[1]=t.fConstraint[1];
- Double_t xyz[]={AliITSReconstructor::GetRecoParam()->GetXdef(),
- AliITSReconstructor::GetRecoParam()->GetYdef(),
- AliITSReconstructor::GetRecoParam()->GetZdef()};
+ Double_t xyz[]={AliITSReconstructor::GetRecoParam()->GetXVdef(),
+ AliITSReconstructor::GetRecoParam()->GetYVdef(),
+ AliITSReconstructor::GetRecoParam()->GetZVdef()};
Double_t ers[]={AliITSReconstructor::GetRecoParam()->GetSigmaXVdef(),
AliITSReconstructor::GetRecoParam()->GetSigmaYVdef(),
AliITSReconstructor::GetRecoParam()->GetSigmaZVdef()};
fConstraint[0]=1; fConstraint[1]=0;
- Double_t xyz[]={AliITSReconstructor::GetRecoParam()->GetXdef(),
- AliITSReconstructor::GetRecoParam()->GetYdef(),
- AliITSReconstructor::GetRecoParam()->GetZdef()};
+ Double_t xyz[]={AliITSReconstructor::GetRecoParam()->GetXVdef(),
+ AliITSReconstructor::GetRecoParam()->GetYVdef(),
+ AliITSReconstructor::GetRecoParam()->GetZVdef()};
Double_t ers[]={AliITSReconstructor::GetRecoParam()->GetSigmaXVdef(),
AliITSReconstructor::GetRecoParam()->GetSigmaYVdef(),
AliITSReconstructor::GetRecoParam()->GetSigmaZVdef()};
//getter
int GetEventID() const {return fEventID;}
float GetCentrality() const {return fCentrality;}
- float GetXertex() const {return fVtxX;}
- float GetYertex() const {return fVtxY;}
- float GetZertex() const {return fVtxZ;}
+ float GetXVertex() const {return fVtxX;}
+ float GetYVertex() const {return fVtxY;}
+ float GetZVertex() const {return fVtxZ;}
float GetZertexErr() const {return fVtxZErr;}
float GetXVertexMC() const {return fVtxMCX;}
Int_t GetXbinIndex() const { return fXbinIndex; };
const Double_t* GetXstatisticalWeight() const { return fXstatisticalWeight; };
const Double_t* GetXstatisticalWeightError() const { return fXstatisticalWeightError; };
- const Double_t* GetXaluesForRegularisation() const { return fXvaluesForRegularisation; };
+ const Double_t* GetXvaluesForRegularisation() const { return fXvaluesForRegularisation; };
Int_t GetRegularisation() const { return fRegularisation; };
Double_t GetRegularisationFactor() const { return fRegularisationFactor; };
Double_t GetScaleFactorError() const { return fScaleFactorError; };
if (pT < lastPtForCallOfGetElectronFraction) {
for (Int_t xBin = 0; xBin < mathFit->GetNumXbinsRegularisation(); xBin++) {
- const Double_t xCoord = TMath::Exp(mathFit->GetXaluesForRegularisation()[xBin]);
+ const Double_t xCoord = TMath::Exp(mathFit->GetXvaluesForRegularisation()[xBin]);
const Int_t parIndexWithFraction = 3 + xBin * mathFit->GetNumParametersPerXbin();
if (xCoord >= lowFittingBoundElectronFraction && xCoord <= electronFractionThresholdForFitting
&& par[parIndexWithFraction] > epsilon) { // Skip zero values (usually due to failed fits)
- gFractionElectronsData->SetPoint(xBin, TMath::Exp(mathFit->GetXaluesForRegularisation()[xBin]), par[parIndexWithFraction]);
+ gFractionElectronsData->SetPoint(xBin, TMath::Exp(mathFit->GetXvaluesForRegularisation()[xBin]), par[parIndexWithFraction]);
// Since the errors during the fitting are not reliable, use the following approximation on a statistical basis
// (which indeed turns out to be rather good!)
fHistEventMultiplicity->Fill(2); // analyzed events with PV
- xPrimaryVertex=vtx->GetXv();
- yPrimaryVertex=vtx->GetYv();
- zPrimaryVertex=vtx->GetZv();
+ xPrimaryVertex=vtx->GetX();
+ yPrimaryVertex=vtx->GetY();
+ zPrimaryVertex=vtx->GetZ();
if(TMath::Abs(zPrimaryVertex)>10) return;
fHistEventMultiplicity->Fill(3);