if(TMath::Abs(fCol-c) > 5) continue;
if(TMath::Abs(fRow-r) > 2) continue;
}
- Int_t stk(AliTRDgeometry::GetStack(fDet));
dy = cli->GetResolution();
AliDebug(4, Form("det[%d] tb[%2d] q[%4.0f Log[%6.4f]] dy[%7.2f][um] ypull[%5.2f]", det, t, q, TMath::Log(q), 1.e4*dy, dy/TMath::Sqrt(covcl[0])));
h3->Fill(TMath::Log(q), dy, dy/TMath::Sqrt(covcl[0]));
}
// resolution as a function of cluster charge
- // only for dydx = 0, ExB=0, stack=2
- if(stk==2 &&
- TMath::Abs(dydx) < kAroundZero &&
+ // only for dydx = 0, ExB=0
+ if(TMath::Abs(dydx) < kAroundZero &&
TMath::Abs(fExB) < kAroundZero){
h3 = (TH3S*)arr1->At(2);
h3->Fill(TMath::Log(q), dy, dy/TMath::Sqrt(covcl[0]));
}
// resolution as a function of y displacement from pad center and time bin
// only for dydx = 0, ExB=0, stack=2
- if(stk==2 &&
- TMath::Abs(dydx) < kAroundZero &&
+ if(TMath::Abs(dydx) < kAroundZero &&
TMath::Abs(fExB) < kAroundZero){
h3 = (TH3S*)arr1->At(0);
h3->Fill(t, cli->GetYDisplacement(), dy);
// fill histo for general systematic/resolution
((TH3S*)arr2->At(it-1))->Fill(tilt*dzdx, dydx, dy);
- ((TH3S*)arr3->At(it-1))->Fill(10.*cli->GetAnisochronity(), tilt*dzdx-fExB, dy);
+ ((TH3S*)arr3->At(it-1))->Fill(10.*cli->GetAnisochronity(), dydx-tilt*dzdx-fExB, dy);
}
}