Int_t | fCount | count number of events |
Double_t | fEtaMaxA | maximum eta of subevent A |
Double_t | fEtaMaxB | maximum eta of subevent B |
Double_t | fEtaMinA | minimum eta of subevent A |
Double_t | fEtaMinB | minimum eta of subevent B |
Double_t | fMass | mass in pt distribution (hardwired is Boltzmann pt distribution) |
Int_t | fMaxMult | uniformly sampled multiplicity is < iMaxMult |
Double_t | fMaxV2 | if v2 is sampled uniformly for each event, this is upper boundary on its value |
Int_t | fMinMult | uniformly sampled multiplicity is >= iMinMult |
Double_t | fMinV2 | if v2 is sampled uniformly for each event, this is lower boundary on its value |
Int_t | fNTimes | number of times to use the same particle in the analysis (simulating nonflow) |
TF1* | fPhiDistribution | azimuthal distribution (phi is sampled from hardwired Fourier-like distribution) |
Double_t | fPhiMax1 | first sector with non-uniform acceptance ends at azimuth fPhiMax1 |
Double_t | fPhiMax2 | second sector with non-uniform acceptance ends at azimuth fPhiMax2 |
Double_t | fPhiMin1 | first sector with non-uniform acceptance starts at azimuth fPhiMin1 |
Double_t | fPhiMin2 | second sector with non-uniform acceptance starts at azimuth fPhiMin2 |
Double_t | fPi | pi |
Double_t | fProbability1 | particles emitted in fPhiMin1 < phi < fPhiMax1 are taken with probability fProbability1 |
Double_t | fProbability2 | particles emitted in fPhiMin2 < phi < fPhiMax2 are taken with probability fProbability2 |
Bool_t | fPtDependentV2 | v2 is pt-dependent |
Double_t | fPtMax | non-uniform efficiency vs pT ends at pT = fPtMax |
Double_t | fPtMin | non-uniform efficiency vs pT starts at pT = fPtMin |
Double_t | fPtProbability | particles emitted in fPtMin <= pT < fPtMax are taken with probability fPtProbability |
TF1* | fPtSpectra | transverse momentum distribution (pt is sampled from hardwired Boltzmann distribution) |
Double_t | fTemperature | "temperature" in pt distribution (hardwired is Boltzmann pt distribution) |
Bool_t | fUniformAcceptance | detector has uniform azimuthal acceptance or not |
Bool_t | fUniformEfficiency | detector has uniform efficiency vs pT, or perhaps not... |
Bool_t | fUniformFluctuationsV2 | v2 is sampled uniformly for each event and for all particles from [fMinV2,fMaxV2] |
Double_t | fV1 | harmonic v1 |
Double_t | fV2 | harmonic v2 |
Double_t | fV2vsPtCutOff | if v2 is pt-dependent: for v2 < fV2vsPtCutOff v2 is growing linearly, otherwise v2 = fV2vsPtMax |
Double_t | fV2vsPtMax | if v2 is pt-dependent: v2 = fV2vsPtMax for v2 >= fV2vsPtCutOff |
Double_t | fV3 | harmonic v3 |
Double_t | fV4 | harmonic v4 |
Double_t | fV5 | harmonic v5 |
Double_t | fV6 | harmonic v6 |