Function Members (Methods)
public:
private:
| AliFlowAnalysisWithMixedHarmonics(const AliFlowAnalysisWithMixedHarmonics& afawQc) | |
| AliFlowAnalysisWithMixedHarmonics& | operator=(const AliFlowAnalysisWithMixedHarmonics& afawQc) |
Data Members
private:
| TProfile* | f2pCorrelatorCosPsiDiffEtaDiff | <<cos[n(psi1-psi2)] vs eta diff |
| TProfile* | f2pCorrelatorCosPsiDiffEtaSum | <<cos[n(psi1-psi2)] vs eta sum |
| TProfile* | f2pCorrelatorCosPsiDiffPtDiff | <<cos[n(psi1-psi2)] vs pt diff |
| TProfile* | f2pCorrelatorCosPsiDiffPtSum | <<cos[n(psi1-psi2)] vs pt sum |
| TProfile* | f2pCorrelatorCosPsiSumEtaDiff | <<cos[n(psi1+psi2)] vs eta diff |
| TProfile* | f2pCorrelatorCosPsiSumEtaSum | <<cos[n(psi1+psi2)] vs eta sum |
| TProfile* | f2pCorrelatorCosPsiSumPtDiff | <<cos[n(psi1+psi2)] vs pt diff |
| TProfile* | f2pCorrelatorCosPsiSumPtSum | <<cos[n(psi1+psi2)] vs pt sum |
| TProfile* | f2pCorrelatorSinPsiDiffEtaDiff | <<sin[n(psi1-psi2)] vs eta diff |
| TProfile* | f2pCorrelatorSinPsiDiffEtaSum | <<sin[n(psi1-psi2)] vs eta sum |
| TProfile* | f2pCorrelatorSinPsiDiffPtDiff | <<sin[n(psi1-psi2)] vs pt diff |
| TProfile* | f2pCorrelatorSinPsiDiffPtSum | <<sin[n(psi1-psi2)] vs pt sum |
| TProfile* | f2pCorrelatorSinPsiSumEtaDiff | <<sin[n(psi1+psi2)] vs eta diff |
| TProfile* | f2pCorrelatorSinPsiSumEtaSum | <<sin[n(psi1+psi2)] vs eta sum |
| TProfile* | f2pCorrelatorSinPsiSumPtDiff | <<sin[n(psi1+psi2)] vs pt diff |
| TProfile* | f2pCorrelatorSinPsiSumPtSum | <<sin[n(psi1+psi2)] vs pt sum |
| TH1D* | f3pCorrelatorHist | 3-p correlator <<cos[n(phi1+phi2-2phi3)]>> corrected for detector effects |
| TProfile* | f3pCorrelatorPro | 3-p correlator <<cos[n(phi1+phi2-2phi3)]>> (not corrected for detector effects) |
| TH1D* | f3pCorrelatorVsEtaSumDiffHist[2] | differential 3-p correlator <<cos[psi1+psi2-2phi3)]>> vs [(eta1+eta2)/2,|eta1-eta2|] corrected for detector effect |
| TProfile* | f3pCorrelatorVsEtaSumDiffPro[2] | differential 3-p correlator <<cos[psi1+psi2-2phi3)]>> vs [(eta1+eta2)/2,|eta1-eta2|] |
| TH1D* | f3pCorrelatorVsMHist | 3-p correlator <<cos[n(phi1+phi2-2phi3)]>> vs multiplicity corrected for detector effects |
| TProfile* | f3pCorrelatorVsMPro | 3-p correlator <<cos[n(phi1+phi2-2phi3)]>> vs multiplicity |
| TH1D* | f3pCorrelatorVsPtSumDiffHist[2] | differential 3-p correlator <<cos[psi1+psi2-2phi3)]>> vs [(p1+p2)/2,|p1-p2|] corrected for detector effect |
| TProfile* | f3pCorrelatorVsPtSumDiffPro[2] | differential 3-p correlator <<cos[psi1+psi2-2phi3)]>> vs [(p1+p2)/2,|p1-p2|] |
| TProfile* | f3pPOICorrelatorVsM | 3-p correlator <<cos[n(psi1+psi2-2phi3)]>> vs multiplicity |
| TProfile* | f5pCorrelatorPro | 5-p correlator <<cos[n*(2.*phi1+2.*phi2+2.*phi3-3.*phi4-3.*phi5)]>> (not corrected for detector effects) |
| TString* | fAnalysisLabel | analysis label |
| TProfile* | fAnalysisSettings | profile to hold analysis settings |
| Bool_t | fCalculateVsM | calculate correlators vs multiplicity |
| TProfile* | fCommonConstants | profile to hold common constants |
| AliFlowCommonHist* | fCommonHists | common control histograms (filled only with events with 3 or more tracks for 3-p correlators) |
| Bool_t | fCorrectForDetectorEffects | correct 3-p correlator for detector effects |
| TH1D* | fDetectorBiasHist | bias coming from detector inefficiencies to 3-p correlator <<cos[n(phi1+phi2-2phi3)]>> (in %) |
| TH1D* | fDetectorBiasVsMHist | bias coming from detector inefficiencies to 3-p correlator <<cos[n(phi1+phi2-2phi3)]>> (in %) versus multiplicity |
| Double_t | fEtaBinWidth | bin width for eta histograms |
| Double_t | fEtaMax | maximum eta |
| Double_t | fEtaMin | minimum eta |
| TH1D* | fEtaWeights | histogram holding phi weights |
| Bool_t | fEvaluateDifferential3pCorrelator | evaluate <<cos[psi1+psi2-2phi3)]>>, where psi1 and psi2 are two POIs |
| Int_t | fHarmonic | harmonic n in cos[n*(phi1+phi2-2phi3)] and cos[n*(psi1+psi2-2phi3)] |
| TList* | fHistList | base list to hold all output objects |
| TString* | fHistListName | name of base list |
| TProfile* | fImEtaEBE[2] | imaginary part of p_n vs [(eta1+eta2)/2,|eta1-eta2|] |
| TProfile* | fImNITEBE[2][2][4] | [POI_1,POI_2] [all,overlap] [(p1+p2)/2,|p1-p2|,(eta1+eta2)/2,|eta1-eta2|] |
| TProfile* | fImPEBE[2] | imaginary part of p_n vs [(p1+p2)/2,|p1-p2|] |
| TMatrixD* | fImQnk | fImQ[n][k] = Im[Q_{n,k}] = sum_{i=1}^{M} w_{i}^{k} sin(n*phi_{i}) |
| Double_t | fMinMultiplicity | minimal multiplicity |
| Double_t | fMultipicityBinWidth | width of multiplicity bin |
| Int_t | fNoOfMultipicityBins | number of multiplicity bins |
| TList* | fNonIsotropicTermsList | list holding all non-isotropic terms for diff. profiles |
| TProfile* | fNonIsotropicTermsPro | non-isotropic terms in the decomposition of 3-p correlator <<cos[n(phi1+phi2-2phi3)]>> |
| TProfile* | fNonIsotropicTermsVsEtaSumDiffPro[2][10] | non-isotropic terms for <<cos[n(psi1+psi2-2phi3)]>> vs [(eta1+eta2)/2,|eta1-eta2|] |
| TProfile2D* | fNonIsotropicTermsVsMPro | non-isotropic terms in the decomposition of <cos[n(phi1+phi2-2phi3))]> vs multiplicity |
| TProfile* | fNonIsotropicTermsVsPtSumDiffPro[2][10] | non-isotropic terms for <<cos[n(psi1+psi2-2phi3)]>> vs [(p1+p2)/2,|p1-p2|] |
| Bool_t | fOppositeChargesPOI | two POIs, psi1 and psi2, in correlator <<cos[psi1+psi2-2phi3)]>> will be taken with opposite charges |
| TProfile* | fOverlapEBE[2][2] | cos[n(psi-phi)] vs [(p1+p2)/2,|p1-p2|], where phi stands for 1st/2nd POI which is also RP |
| TProfile* | fOverlapEBE2[2][2] | cos[n(psi-phi)] vs [(eta1+eta2)/2,|eta1-eta2|], where phi stands for 1st/2nd POI which is also RP |
| Double_t | fPhiBinWidth | bin width for phi histograms |
| Double_t | fPhiMax | maximum phi |
| Double_t | fPhiMin | minimum phi |
| TH1F* | fPhiWeights | histogram holding phi weights |
| Bool_t | fPrintOnTheScreen | print or not the final results on the screen |
| TList* | fProfileList | list holding all all-event profiles |
| Double_t | fPtBinWidth | bin width for pt histograms |
| Double_t | fPtMax | maximum pt |
| Double_t | fPtMin | minimum pt |
| TH1D* | fPtWeights | histogram holding phi weights |
| TProfile* | fReEtaEBE[2] | real part of p_n vs [(eta1+eta2)/2,|eta1-eta2|] |
| TProfile* | fReNITEBE[2][2][4] | [POI_1,POI_2] [all,overlap] [(p1+p2)/2,|p1-p2|,(eta1+eta2)/2,|eta1-eta2|] |
| TProfile* | fRePEBE[2] | real part of p_n vs [(p1+p2)/2,|p1-p2|] |
| TMatrixD* | fReQnk | fReQ[n][k] = Re[Q_{n,k}] = sum_{i=1}^{M} w_{i}^{k} cos(n*phi_{i}) |
| TList* | fResultsList | list holding objects with final results |
| Bool_t | fShowBinLabelsVsM | in histograms holding results vs multiplicity show bin labels in the format M_lowEdge \leq M < M_upperEdge |
| TMatrixD* | fSpk | fS[p][k] = S_{p,k} = (sum_{i=1}^{M} w_{i}^{k})^{p+1} // note p+1 in the power to use 0th index in p in non-trivial way |
| Bool_t | fUseEtaWeights | use eta weights |
| TProfile* | fUseParticleWeights | profile with three bins to hold values of fUsePhiWeights, fUsePtWeights and fUseEtaWeights |
| Bool_t | fUsePhiWeights | use phi weights |
| Bool_t | fUsePtWeights | use pt weights |
| TList* | fWeightsList | list to hold all histograms with particle weights: fUseParticleWeights, fPhiWeights, fPtWeights and fEtaWeights |
| Int_t | fnBinsEta | number of eta bins |
| Int_t | fnBinsPhi | number of phi bins |
| Int_t | fnBinsPt | number of pt bins |
Class Charts
| Inheritance Chart: | |||||
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Function documentation
void GetOutputHistograms(TList* outputListHistos)
Get pointers to all objects saved in the output file.
void StoreHarmonic()
Store harmonic n used in cos[n*(phi1+phi2-2phi3)] and cos[n*(psi1+psi2-2phi3)].
void BookAndFillWeightsHistograms()
Book and fill (by accessing file "weights.root") histograms which hold phi, pt and eta weights.
void CorrectForDetectorEffects()
a.) Correct integrated 3-p correlator cos[n(phi1+phi2-2phi3)] for detector effects; b.) Correct differential 3-p correlator cos[n(psi1+psi2-2phi3)] for detector effects.
void CorrectForDetectorEffectsVsM()
Correct measured 3-p correlator cos[n(phi1+phi2-2phi3)] vs M for detector effects.
void Calculate3pCorrelator()
Calculate 3-p azimuthal correlator cos[n(phi1+phi2-2phi3)] in terms of Q_{n,k} and S_{p,k}.
void Calculate5pCorrelator()
Calculate 5-p azimuthal correlator cos[n(2phi1+2phi2+2phi3-3phi4-3phi5)] in terms of Q_{n,k} and S_{p,k}.
void CalculateNonIsotropicTerms()
Calculate non-isotropic terms which appear in the decomposition of 3-p correlator <cos[n(phi1+phi2-2phi3)]>.
void CalculateDifferential3pCorrelator(Double_t& gIntegratedValue)
Calculate differential 3-p azimuthal correlator cos[n(psi1+psi2-2phi3)] in terms of Q_{2n}, p_{n}, q1_{n} and q2_{n}.
void GetCorrelatorAndError(TProfile* g3pCorrelatorVsPt, Double_t& g3pCorrelatorValue, Double_t& g3pCorrelatorError)
Retrieves the 3p correlator <<cos[n(psi1+psi2-2phi3)]>> and its error
void SetEvaluateDifferential3pCorrelator(Bool_t ed3pc)
{this->fEvaluateDifferential3pCorrelator = ed3pc;}Bool_t GetEvaluateDifferential3pCorrelator() const
{return this->fEvaluateDifferential3pCorrelator;}void SetNonIsotropicTermsVsMPro(TProfile2D *const nitVsMPro)
{this->fNonIsotropicTermsVsMPro = nitVsMPro;}void Set2pCorrelatorCosPsiDiffPtDiff(TProfile *const g2pCorrelatorCosPsiDiffPtDiff)
2p correlators - pt diff
{this->f2pCorrelatorCosPsiDiffPtDiff = g2pCorrelatorCosPsiDiffPtDiff;}void Set2pCorrelatorCosPsiSumPtDiff(TProfile *const g2pCorrelatorCosPsiSumPtDiff)
{this->f2pCorrelatorCosPsiSumPtDiff = g2pCorrelatorCosPsiSumPtDiff;}void Set2pCorrelatorSinPsiDiffPtDiff(TProfile *const g2pCorrelatorSinPsiDiffPtDiff)
{this->f2pCorrelatorSinPsiDiffPtDiff = g2pCorrelatorSinPsiDiffPtDiff;}void Set2pCorrelatorSinPsiSumPtDiff(TProfile *const g2pCorrelatorSinPsiSumPtDiff)
{this->f2pCorrelatorSinPsiSumPtDiff = g2pCorrelatorSinPsiSumPtDiff;}void Set2pCorrelatorCosPsiDiffPtSum(TProfile *const g2pCorrelatorCosPsiDiffPtSum)
2p correlators - pt sum
{this->f2pCorrelatorCosPsiDiffPtSum = g2pCorrelatorCosPsiDiffPtSum;}void Set2pCorrelatorCosPsiSumPtSum(TProfile *const g2pCorrelatorCosPsiSumPtSum)
{this->f2pCorrelatorCosPsiSumPtSum = g2pCorrelatorCosPsiSumPtSum;}void Set2pCorrelatorSinPsiDiffPtSum(TProfile *const g2pCorrelatorSinPsiDiffPtSum)
{this->f2pCorrelatorSinPsiDiffPtSum = g2pCorrelatorSinPsiDiffPtSum;}void Set2pCorrelatorSinPsiSumPtSum(TProfile *const g2pCorrelatorSinPsiSumPtSum)
{this->f2pCorrelatorSinPsiSumPtSum = g2pCorrelatorSinPsiSumPtSum;}void Set2pCorrelatorCosPsiDiffEtaDiff(TProfile *const g2pCorrelatorCosPsiDiffEtaDiff)
2p correlators - eta diff
{this->f2pCorrelatorCosPsiDiffEtaDiff = g2pCorrelatorCosPsiDiffEtaDiff;}void Set2pCorrelatorCosPsiSumEtaDiff(TProfile *const g2pCorrelatorCosPsiSumEtaDiff)
{this->f2pCorrelatorCosPsiSumEtaDiff = g2pCorrelatorCosPsiSumEtaDiff;}void Set2pCorrelatorSinPsiDiffEtaDiff(TProfile *const g2pCorrelatorSinPsiDiffEtaDiff)
{this->f2pCorrelatorSinPsiDiffEtaDiff = g2pCorrelatorSinPsiDiffEtaDiff;}void Set2pCorrelatorSinPsiSumEtaDiff(TProfile *const g2pCorrelatorSinPsiSumEtaDiff)
{this->f2pCorrelatorSinPsiSumEtaDiff = g2pCorrelatorSinPsiSumEtaDiff;}void Set2pCorrelatorCosPsiDiffEtaSum(TProfile *const g2pCorrelatorCosPsiDiffEtaSum)
2p correlators - eta sum
{this->f2pCorrelatorCosPsiDiffEtaSum = g2pCorrelatorCosPsiDiffEtaSum;}void Set2pCorrelatorCosPsiSumEtaSum(TProfile *const g2pCorrelatorCosPsiSumEtaSum)
{this->f2pCorrelatorCosPsiSumEtaSum = g2pCorrelatorCosPsiSumEtaSum;}void Set2pCorrelatorSinPsiDiffEtaSum(TProfile *const g2pCorrelatorSinPsiDiffEtaSum)
{this->f2pCorrelatorSinPsiDiffEtaSum = g2pCorrelatorSinPsiDiffEtaSum;}void Set2pCorrelatorSinPsiSumEtaSum(TProfile *const g2pCorrelatorSinPsiSumEtaSum)
{this->f2pCorrelatorSinPsiSumEtaSum = g2pCorrelatorSinPsiSumEtaSum;}void Set3pCorrelatorVsPtSumDiffPro(TProfile *const s3pcvpsd, Int_t sd)
{this->f3pCorrelatorVsPtSumDiffPro[sd] = s3pcvpsd;}TProfile* Get3pCorrelatorVsPtSumDiffPro(Int_t sd) const
{return this->f3pCorrelatorVsPtSumDiffPro[sd];}void Set3pCorrelatorVsEtaSumDiffPro(TProfile *const s3pcvpsd, Int_t sd)
{this->f3pCorrelatorVsEtaSumDiffPro[sd] = s3pcvpsd;}TProfile* Get3pCorrelatorVsEtaSumDiffPro(Int_t sd) const
{return this->f3pCorrelatorVsEtaSumDiffPro[sd];}void SetNonIsotropicTermsVsPtSumDiffPro(TProfile *const nt, Int_t sd, Int_t t)
{this->fNonIsotropicTermsVsPtSumDiffPro[sd][t] = nt;}TProfile* GetNonIsotropicTermsVsPtSumDiffPro(Int_t sd, Int_t t) const
{return this->fNonIsotropicTermsVsPtSumDiffPro[sd][t];}void SetNonIsotropicTermsVsEtaSumDiffPro(TProfile *const nt, Int_t sd, Int_t t)
{this->fNonIsotropicTermsVsEtaSumDiffPro[sd][t] = nt;}TProfile* GetNonIsotropicTermsVsEtaSumDiffPro(Int_t sd, Int_t t) const
void Set2pCorrelatorHist(TH1D* const s2pHist) {this->f2pCorrelatorHist = s2pHist;}; TH1D* Get2pCorrelatorHist() const {return this->f2pCorrelatorHist;};
{return this->fNonIsotropicTermsVsEtaSumDiffPro[sd][t];}void Set3pCorrelatorVsPtSumDiffHist(TH1D *const hist, Int_t sd)
{this->f3pCorrelatorVsPtSumDiffHist[sd] = hist;}TH1D* Get3pCorrelatorVsPtSumDiffHist(Int_t sd) const
{return this->f3pCorrelatorVsPtSumDiffHist[sd];}void Set3pCorrelatorVsEtaSumDiffHist(TH1D *const hist, Int_t sd)
{this->f3pCorrelatorVsEtaSumDiffHist[sd] = hist;}TH1D* Get3pCorrelatorVsEtaSumDiffHist(Int_t sd) const
{return this->f3pCorrelatorVsEtaSumDiffHist[sd];}