/************************************************************************** * Copyright(c) 1998-1999, ALICE Experiment at CERN, All rights reserved. * * * * Author: The ALICE Off-line Project. * * Contributors are mentioned in the code where appropriate. * * * * Permission to use, copy, modify and distribute this software and its * * documentation strictly for non-commercial purposes is hereby granted * * without fee, provided that the above copyright notice appears in all * * copies and that both the copyright notice and this permission notice * * appear in the supporting documentation. The authors make no claims * * about the suitability of this software for any purpose. It is * * provided "as is" without express or implied warranty. * **************************************************************************/ // $Id$ // --- MUON header files --- #include "AliMUONQADataMakerRec.h" #include "AliMUON2DMap.h" #include "AliMUONCluster.h" #include "AliMUONConstants.h" #include "AliMUONDDLTrigger.h" #include "AliMUONDarcHeader.h" #include "AliMUONDigitMaker.h" #include "AliMUONLocalStruct.h" #include "AliMUONLocalTrigger.h" #include "AliMUONRawStreamTracker.h" #include "AliMUONRawStreamTrigger.h" #include "AliMUONRegHeader.h" #include "AliMUONTrackerDataMaker.h" #include "AliMUONTriggerDisplay.h" #include "AliMUONVCluster.h" #include "AliMUONVClusterStore.h" #include "AliMUONVDigit.h" #include "AliMUONVDigitStore.h" #include "AliMUONVTrackerData.h" #include "AliMUONVTriggerStore.h" #include "AliMUONTrack.h" #include "AliMUONTrackParam.h" #include "AliMUONESDInterface.h" #include "AliMUONCalibrationData.h" #include "AliMpBusPatch.h" #include "AliMpCDB.h" #include "AliMpConstants.h" #include "AliMpDDLStore.h" #include "AliMpDEIterator.h" #include "AliMpDEManager.h" #include "AliMpDetElement.h" #include "AliMpLocalBoard.h" #include "AliMpStationType.h" #include "AliMpTriggerCrate.h" #include "AliMpDCSNamer.h" #include "AliRawEventHeaderBase.h" // --- AliRoot header files --- #include "AliCDBManager.h" #include "AliCDBStorage.h" #include "AliESDEvent.h" #include "AliESDMuonTrack.h" #include "AliESDMuonCluster.h" #include "AliLog.h" #include "AliRawReader.h" #include "AliQAChecker.h" #include "AliCodeTimer.h" #include "AliDCSValue.h" #include "AliMUONVDigit.h" // --- ROOT system --- #include #include #include #include #include #include #include #include #include //----------------------------------------------------------------------------- /// \class AliMUONQADataMakerRec /// /// MUON base class for quality assurance data (histo) maker /// /// \author C. Finck, D. Stocco, L. Aphecetche /// \cond CLASSIMP ClassImp(AliMUONQADataMakerRec) /// \endcond namespace { int trim(Int_t n, Double_t* x, Double_t alpha, Double_t& tmean, Double_t& tvar, Double_t& min, Double_t& max) { // // Calculates the trimmed (tmean) mean // of a sample (x) and estimates the variance (tvar) // of that mean. // // First check input parameters // number of observations if ( n < 2 ) { return -1; } if ( alpha < 0 || alpha >= 0.5 ) // proportion of observations // to be trimmed at each end of the sorted sample { return -2; } // Input parameters are good. Let's move on. // Insure we use a sample sorted into ascending order. Int_t* indices = new Int_t[n]; TMath::Sort(n,x,indices,kFALSE); Double_t* sx = new Double_t[n]; for ( Int_t i = 0; i < n; ++i ) { sx[i] = x[indices[i]]; } delete[] indices; // Number of observations trimmed at each end. Int_t k = static_cast(floorf(alpha * n)); double sum = 0.0; for ( Int_t i = k; i < n - k ; ++i ) { sum += sx[i]; } tmean = sum / ( n - 2 * k ); double t2 = 0.0; for ( Int_t i = k; i < n - k; ++i ) { t2 += (sx[i] - tmean) * (sx[i] - tmean); } tvar = ( t2 + k * (sx[k] - tmean) * (sx[k] - tmean) + k * (sx[n - k - 1] - tmean) * (sx[n - k - 1] - tmean) ) / (n * n); // get the min and max for the non-rejected values min = DBL_MAX; max = 0.0; for ( Int_t i = k; i < n-k; ++i ) { min = TMath::Min(min,sx[i]); max = TMath::Max(max,sx[i]); } delete[] sx; return 0; } } //____________________________________________________________________________ AliMUONQADataMakerRec::AliMUONQADataMakerRec() : AliQADataMakerRec(AliQAv1::GetDetName(AliQAv1::kMUON), "MUON Quality Assurance Data Maker"), fDigitStore(0x0), fTriggerStore(0x0), fDigitMaker(0x0), fClusterStore(0x0), fTrackerDataMaker(0x0) { /// ctor AliDebug(AliQAv1::GetQADebugLevel(),""); Ctor(); } //____________________________________________________________________________ void AliMUONQADataMakerRec::Ctor() { /// Init some members fDigitStore = AliMUONVDigitStore::Create("AliMUONDigitStoreV1"); fDigitMaker = new AliMUONDigitMaker(kTRUE); } //____________________________________________________________________________ AliMUONQADataMakerRec::AliMUONQADataMakerRec(const AliMUONQADataMakerRec& qadm) : AliQADataMakerRec(qadm), fDigitStore(0x0), fTriggerStore(0x0), fDigitMaker(0x0), fClusterStore(0x0), fTrackerDataMaker(0x0) { ///copy ctor AliDebug(AliQAv1::GetQADebugLevel(),""); SetName((const char*)qadm.GetName()) ; SetTitle((const char*)qadm.GetTitle()); // Do not copy the digit store and digit maker, but create its own ones Ctor(); } //__________________________________________________________________ AliMUONQADataMakerRec& AliMUONQADataMakerRec::operator = (const AliMUONQADataMakerRec& qadm ) { /// Assignment operator AliDebug(AliQAv1::GetQADebugLevel(),""); // check assignment to self if (this == &qadm) return *this; this->~AliMUONQADataMakerRec(); new(this) AliMUONQADataMakerRec(qadm); return *this; } //__________________________________________________________________ AliMUONQADataMakerRec::~AliMUONQADataMakerRec() { /// dtor AliDebug(AliQAv1::GetQADebugLevel(),""); AliCodeTimerAuto(""); delete fDigitStore; delete fTriggerStore; delete fDigitMaker; delete fClusterStore; delete fTrackerDataMaker; } //____________________________________________________________________________ void AliMUONQADataMakerRec::EndOfDetectorCycle(AliQAv1::TASKINDEX_t task, TObjArray** list) { ///Detector specific actions at end of cycle AliCodeTimerAuto(""); for (Int_t specie = 0 ; specie < AliRecoParam::kNSpecies ; specie++) { if (! IsValidEventSpecie(specie, list) ) continue ; SetEventSpecie(AliRecoParam::ConvertIndex(specie)) ; if ( task == AliQAv1::kRAWS && fTrackerDataMaker ) { if ( !GetRawsData(kTrackerBusPatchOccupancy) ) continue; TIter next(list[specie]); TObject* o; Bool_t alreadyThere(kFALSE); while ( ( o = next() ) && !alreadyThere ) { TString classname(o->ClassName()); if ( classname.Contains("TrackerData") ) alreadyThere = kTRUE; } if (!alreadyThere && fTrackerDataMaker) { AliDebug(AliQAv1::GetQADebugLevel(), "Adding fTrackerData to the list of qa objects"); list[specie]->AddAt(fTrackerDataMaker->Data(),(Int_t)kTrackerData); } if ( fTrackerDataMaker ) { TH1* hbp = GetRawsData(kTrackerBusPatchOccupancy); hbp->Reset(); TIter nextBP(AliMpDDLStore::Instance()->CreateBusPatchIterator()); AliMpBusPatch* bp(0x0); AliMUONVTrackerData* data = fTrackerDataMaker->Data(); Int_t occDim = 2; while ( ( bp = static_cast(nextBP())) ) { Int_t busPatchId = bp->GetId(); Int_t bin = hbp->FindBin(busPatchId); hbp->SetBinContent(bin,data->BusPatch(busPatchId,occDim)*100.0); // occupancy, in percent } BeautifyTrackerBusPatchOccupancy(*hbp); } } // Normalize RecPoints histos if ( task == AliQAv1::kRECPOINTS ) { if (!GetRecPointsData(kTrackerClusterChargePerChMean)) continue; TH1* hTrackerClusterChargePerChMean = GetRecPointsData(kTrackerClusterChargePerChMean); TH1* hTrackerClusterChargePerChSigma = GetRecPointsData(kTrackerClusterChargePerChSigma); TH1* hTrackerClusterMultiplicityPerChMean = GetRecPointsData(kTrackerClusterMultiplicityPerChMean); TH1* hTrackerClusterMultiplicityPerChSigma = GetRecPointsData(kTrackerClusterMultiplicityPerChSigma); TH1* hTrackerClusterChargePerDEMean = GetRecPointsData(kTrackerClusterChargePerDEMean); TH1* hTrackerClusterMultiplicityPerDEMean = GetRecPointsData(kTrackerClusterMultiplicityPerDEMean); // loop over chambers for (Int_t iCh = 0; iCh < AliMUONConstants::NTrackingCh(); iCh++) { TH1* hTrackerClusterChargePerChamber = GetRecPointsData(kTrackerClusterChargePerChamber+iCh); Double_t sigmaCharge = hTrackerClusterChargePerChamber->GetRMS(); hTrackerClusterChargePerChMean->SetBinContent(iCh+1, hTrackerClusterChargePerChamber->GetMean()); hTrackerClusterChargePerChMean->SetBinError(iCh+1, hTrackerClusterChargePerChamber->GetMeanError()); hTrackerClusterChargePerChSigma->SetBinContent(iCh+1, sigmaCharge); hTrackerClusterChargePerChSigma->SetBinError(iCh+1, hTrackerClusterChargePerChamber->GetRMSError()); TH1* hTrackerClusterMultiplicityPerChamber = GetRecPointsData(kTrackerClusterMultiplicityPerChamber+iCh); Double_t sigmaSize = hTrackerClusterMultiplicityPerChamber->GetRMS(); hTrackerClusterMultiplicityPerChMean->SetBinContent(iCh+1, hTrackerClusterMultiplicityPerChamber->GetMean()); hTrackerClusterMultiplicityPerChMean->SetBinError(iCh+1, hTrackerClusterMultiplicityPerChamber->GetMeanError()); hTrackerClusterMultiplicityPerChSigma->SetBinContent(iCh+1, sigmaSize); hTrackerClusterMultiplicityPerChSigma->SetBinError(iCh+1, hTrackerClusterMultiplicityPerChamber->GetRMSError()); // loop over DE into chamber iCh AliMpDEIterator it; it.First(iCh); while ( !it.IsDone()) { Int_t iDE = it.CurrentDEId(); TH1* hTrackerClusterChargePerDE = GetRecPointsData(kTrackerClusterChargePerDE+iDE); hTrackerClusterChargePerDEMean->SetBinContent(iDE+1, hTrackerClusterChargePerDE->GetMean()); Double_t nClusters = hTrackerClusterChargePerDE->GetEntries(); if (nClusters > 1) hTrackerClusterChargePerDEMean->SetBinError(iDE+1, sigmaCharge/TMath::Sqrt(nClusters)); else hTrackerClusterChargePerDEMean->SetBinError(iDE+1, hTrackerClusterChargePerChamber->GetXaxis()->GetXmax()); TH1* hTrackerClusterMultiplicityPerDE = GetRecPointsData(kTrackerClusterMultiplicityPerDE+iDE); hTrackerClusterMultiplicityPerDEMean->SetBinContent(iDE+1, hTrackerClusterMultiplicityPerDE->GetMean()); nClusters = hTrackerClusterMultiplicityPerDE->GetEntries(); if (nClusters > 1) hTrackerClusterMultiplicityPerDEMean->SetBinError(iDE+1, sigmaSize/TMath::Sqrt(nClusters)); else hTrackerClusterMultiplicityPerDEMean->SetBinError(iDE+1, hTrackerClusterMultiplicityPerChamber->GetXaxis()->GetXmax()); it.Next(); } } } // Normalize ESD histos if ( task == AliQAv1::kESDS ) { if (!GetESDsData(kESDnClustersPerTrack)) continue; Double_t nTracks = GetESDsData(kESDnClustersPerTrack)->GetEntries(); if (nTracks <= 0) continue; TH1* hESDnClustersPerCh = GetESDsData(kESDnClustersPerCh); TH1* hESDnClustersPerDE = GetESDsData(kESDnClustersPerDE); TH1* hESDClusterChargePerChMean = GetESDsData(kESDClusterChargePerChMean); TH1* hESDClusterChargePerChSigma = GetESDsData(kESDClusterChargePerChSigma); TH1* hESDClusterSizePerChMean = GetESDsData(kESDClusterSizePerChMean); TH1* hESDClusterSizePerChSigma = GetESDsData(kESDClusterSizePerChSigma); TH1* hESDResidualXPerChMean = GetESDsData(kESDResidualXPerChMean); TH1* hESDResidualXPerChSigma = GetESDsData(kESDResidualXPerChSigma); TH1* hESDResidualYPerChMean = GetESDsData(kESDResidualYPerChMean); TH1* hESDResidualYPerChSigma = GetESDsData(kESDResidualYPerChSigma); TH1* hESDLocalChi2XPerChMean = GetESDsData(kESDLocalChi2XPerChMean); TH1* hESDLocalChi2YPerChMean = GetESDsData(kESDLocalChi2YPerChMean); TH1* hESDLocalChi2PerChMean = GetESDsData(kESDLocalChi2PerChMean); TH1* hESDClusterChargePerDE = GetESDsData(kESDClusterChargePerDE); TH1* hESDClusterSizePerDE = GetESDsData(kESDClusterSizePerDE); TH1* hESDResidualXPerDEMean = GetESDsData(kESDResidualXPerDEMean); TH1* hESDResidualXPerDESigma = GetESDsData(kESDResidualXPerDESigma); TH1* hESDResidualYPerDEMean = GetESDsData(kESDResidualYPerDEMean); TH1* hESDResidualYPerDESigma = GetESDsData(kESDResidualYPerDESigma); TH1* hESDLocalChi2XPerDEMean = GetESDsData(kESDLocalChi2XPerDEMean); TH1* hESDLocalChi2YPerDEMean = GetESDsData(kESDLocalChi2YPerDEMean); TH1* hESDLocalChi2PerDEMean = GetESDsData(kESDLocalChi2PerDEMean); TH1* hESDnTotClustersPerCh = GetESDsData(kESDnTotClustersPerCh); TH1* hESDnTotClustersPerDE = GetESDsData(kESDnTotClustersPerDE); TH1* hESDnTotFullClustersPerDE = GetESDsData(kESDnTotFullClustersPerDE); TH1* hESDSumClusterChargePerDE = GetESDsData(kESDSumClusterChargePerDE); TH1* hESDSumClusterSizePerDE = GetESDsData(kESDSumClusterSizePerDE); TH1* hESDSumResidualXPerDE = GetESDsData(kESDSumResidualXPerDE); TH1* hESDSumResidualYPerDE = GetESDsData(kESDSumResidualYPerDE); TH1* hESDSumResidualX2PerDE = GetESDsData(kESDSumResidualX2PerDE); TH1* hESDSumResidualY2PerDE = GetESDsData(kESDSumResidualY2PerDE); TH1* hESDSumLocalChi2XPerDE = GetESDsData(kESDSumLocalChi2XPerDE); TH1* hESDSumLocalChi2YPerDE = GetESDsData(kESDSumLocalChi2YPerDE); TH1* hESDSumLocalChi2PerDE = GetESDsData(kESDSumLocalChi2PerDE); hESDnClustersPerCh->Reset(); hESDnClustersPerDE->Reset(); hESDnClustersPerCh->Add(hESDnTotClustersPerCh, 1./nTracks); hESDnClustersPerDE->Add(hESDnTotClustersPerDE, 1./nTracks); // loop over chambers for (Int_t iCh = 0; iCh < AliMUONConstants::NTrackingCh(); iCh++) { TH1* hESDClusterChargeInCh = GetESDsData(kESDClusterChargeInCh+iCh); Double_t sigmaCharge = hESDClusterChargeInCh->GetRMS(); hESDClusterChargePerChMean->SetBinContent(iCh+1, hESDClusterChargeInCh->GetMean()); hESDClusterChargePerChMean->SetBinError(iCh+1, hESDClusterChargeInCh->GetMeanError()); hESDClusterChargePerChSigma->SetBinContent(iCh+1, sigmaCharge); hESDClusterChargePerChSigma->SetBinError(iCh+1, hESDClusterChargeInCh->GetRMSError()); TH1* hESDClusterSizeInCh = GetESDsData(kESDClusterSizeInCh+iCh); Double_t sigmaSize = hESDClusterSizeInCh->GetRMS(); hESDClusterSizePerChMean->SetBinContent(iCh+1, hESDClusterSizeInCh->GetMean()); hESDClusterSizePerChMean->SetBinError(iCh+1, hESDClusterSizeInCh->GetMeanError()); hESDClusterSizePerChSigma->SetBinContent(iCh+1, sigmaSize); hESDClusterSizePerChSigma->SetBinError(iCh+1, hESDClusterSizeInCh->GetRMSError()); TH1* hESDResidualXInCh = GetESDsData(kESDResidualXInCh+iCh); Double_t sigmaResidualX = hESDResidualXInCh->GetRMS(); hESDResidualXPerChMean->SetBinContent(iCh+1, hESDResidualXInCh->GetMean()); hESDResidualXPerChMean->SetBinError(iCh+1, hESDResidualXInCh->GetMeanError()); hESDResidualXPerChSigma->SetBinContent(iCh+1, sigmaResidualX); hESDResidualXPerChSigma->SetBinError(iCh+1, hESDResidualXInCh->GetRMSError()); TH1* hESDResidualYInCh = GetESDsData(kESDResidualYInCh+iCh); Double_t sigmaResidualY = hESDResidualYInCh->GetRMS(); hESDResidualYPerChMean->SetBinContent(iCh+1, hESDResidualYInCh->GetMean()); hESDResidualYPerChMean->SetBinError(iCh+1, hESDResidualYInCh->GetMeanError()); hESDResidualYPerChSigma->SetBinContent(iCh+1, sigmaResidualY); hESDResidualYPerChSigma->SetBinError(iCh+1, hESDResidualYInCh->GetRMSError()); TH1* hESDLocalChi2XInCh = GetESDsData(kESDLocalChi2XInCh+iCh); Double_t sigmaLocalChi2X = hESDLocalChi2XInCh->GetRMS(); hESDLocalChi2XPerChMean->SetBinContent(iCh+1, hESDLocalChi2XInCh->GetMean()); hESDLocalChi2XPerChMean->SetBinError(iCh+1, hESDLocalChi2XInCh->GetMeanError()); TH1* hESDLocalChi2YInCh = GetESDsData(kESDLocalChi2YInCh+iCh); Double_t sigmaLocalChi2Y = hESDLocalChi2YInCh->GetRMS(); hESDLocalChi2YPerChMean->SetBinContent(iCh+1, hESDLocalChi2YInCh->GetMean()); hESDLocalChi2YPerChMean->SetBinError(iCh+1, hESDLocalChi2YInCh->GetMeanError()); TH1* hESDLocalChi2InCh = GetESDsData(kESDLocalChi2InCh+iCh); Double_t sigmaLocalChi2 = hESDLocalChi2InCh->GetRMS(); hESDLocalChi2PerChMean->SetBinContent(iCh+1, hESDLocalChi2InCh->GetMean()); hESDLocalChi2PerChMean->SetBinError(iCh+1, hESDLocalChi2InCh->GetMeanError()); // loop over DE into chamber iCh AliMpDEIterator it; it.First(iCh); while ( !it.IsDone()) { Int_t iDE = it.CurrentDEId(); Double_t nClusters = hESDnTotClustersPerDE->GetBinContent(iDE+1); if (nClusters > 1) { hESDClusterChargePerDE->SetBinContent(iDE+1, hESDSumClusterChargePerDE->GetBinContent(iDE+1)/nClusters); hESDClusterChargePerDE->SetBinError(iDE+1, sigmaCharge/TMath::Sqrt(nClusters)); Double_t meanResX = hESDSumResidualXPerDE->GetBinContent(iDE+1)/nClusters; hESDResidualXPerDEMean->SetBinContent(iDE+1, meanResX); hESDResidualXPerDEMean->SetBinError(iDE+1, sigmaResidualX/TMath::Sqrt(nClusters)); hESDResidualXPerDESigma->SetBinContent(iDE+1, TMath::Sqrt(hESDSumResidualX2PerDE->GetBinContent(iDE+1)/nClusters - meanResX*meanResX)); hESDResidualXPerDESigma->SetBinError(iDE+1, sigmaResidualX/TMath::Sqrt(2.*nClusters)); Double_t meanResY = hESDSumResidualYPerDE->GetBinContent(iDE+1)/nClusters; hESDResidualYPerDEMean->SetBinContent(iDE+1, meanResY); hESDResidualYPerDEMean->SetBinError(iDE+1, sigmaResidualY/TMath::Sqrt(nClusters)); hESDResidualYPerDESigma->SetBinContent(iDE+1, TMath::Sqrt(hESDSumResidualY2PerDE->GetBinContent(iDE+1)/nClusters - meanResY*meanResY)); hESDResidualYPerDESigma->SetBinError(iDE+1, sigmaResidualY/TMath::Sqrt(2.*nClusters)); hESDLocalChi2XPerDEMean->SetBinContent(iDE+1, hESDSumLocalChi2XPerDE->GetBinContent(iDE+1)/nClusters); hESDLocalChi2XPerDEMean->SetBinError(iDE+1, sigmaLocalChi2X/TMath::Sqrt(nClusters)); hESDLocalChi2YPerDEMean->SetBinContent(iDE+1, hESDSumLocalChi2YPerDE->GetBinContent(iDE+1)/nClusters); hESDLocalChi2YPerDEMean->SetBinError(iDE+1, sigmaLocalChi2Y/TMath::Sqrt(nClusters)); hESDLocalChi2PerDEMean->SetBinContent(iDE+1, hESDSumLocalChi2PerDE->GetBinContent(iDE+1)/nClusters); hESDLocalChi2PerDEMean->SetBinError(iDE+1, sigmaLocalChi2/TMath::Sqrt(nClusters)); } else { hESDClusterChargePerDE->SetBinContent(iDE+1, hESDSumClusterChargePerDE->GetBinContent(iDE+1)); hESDClusterChargePerDE->SetBinError(iDE+1, hESDClusterChargeInCh->GetXaxis()->GetXmax()); hESDResidualXPerDEMean->SetBinContent(iDE+1, hESDSumResidualXPerDE->GetBinContent(iDE+1)); hESDResidualXPerDEMean->SetBinError(iDE+1, hESDResidualXInCh->GetXaxis()->GetXmax()); hESDResidualXPerDESigma->SetBinContent(iDE+1, 0.); hESDResidualXPerDESigma->SetBinError(iDE+1, hESDResidualXInCh->GetXaxis()->GetXmax()); hESDResidualYPerDEMean->SetBinContent(iDE+1, hESDSumResidualYPerDE->GetBinContent(iDE+1)); hESDResidualYPerDEMean->SetBinError(iDE+1, hESDResidualYInCh->GetXaxis()->GetXmax()); hESDResidualYPerDESigma->SetBinContent(iDE+1, 0.); hESDResidualYPerDESigma->SetBinError(iDE+1, hESDResidualYInCh->GetXaxis()->GetXmax()); hESDLocalChi2XPerDEMean->SetBinContent(iDE+1, hESDSumLocalChi2XPerDE->GetBinContent(iDE+1)); hESDLocalChi2XPerDEMean->SetBinError(iDE+1, hESDLocalChi2XInCh->GetXaxis()->GetXmax()); hESDLocalChi2YPerDEMean->SetBinContent(iDE+1, hESDSumLocalChi2YPerDE->GetBinContent(iDE+1)); hESDLocalChi2YPerDEMean->SetBinError(iDE+1, hESDLocalChi2YInCh->GetXaxis()->GetXmax()); hESDLocalChi2PerDEMean->SetBinContent(iDE+1, hESDSumLocalChi2PerDE->GetBinContent(iDE+1)); hESDLocalChi2PerDEMean->SetBinError(iDE+1, hESDLocalChi2InCh->GetXaxis()->GetXmax()); } Double_t nFullClusters = hESDnTotFullClustersPerDE->GetBinContent(iDE+1); if (nFullClusters > 1) { hESDClusterSizePerDE->SetBinContent(iDE+1, hESDSumClusterSizePerDE->GetBinContent(iDE+1)/nFullClusters); hESDClusterSizePerDE->SetBinError(iDE+1, sigmaSize/TMath::Sqrt(nFullClusters)); } else { hESDClusterSizePerDE->SetBinContent(iDE+1, hESDSumClusterSizePerDE->GetBinContent(iDE+1)); hESDClusterSizePerDE->SetBinError(iDE+1, hESDClusterSizeInCh->GetXaxis()->GetXmax()); } it.Next(); } } } // Display trigger histos in a more user friendly way DisplayTriggerInfo(task); } // loop on specie // do the QA checking AliQAChecker::Instance()->Run(AliQAv1::kMUON, task, list) ; } //____________________________________________________________________________ void AliMUONQADataMakerRec::InitRaws() { /// create Raws histograms in Raws subdir AliCodeTimerAuto(""); const Bool_t expert = kTRUE ; const Bool_t saveCorr = kTRUE ; const Bool_t image = kTRUE ; TString boardName = "Local board Id"; TString histoName, histoTitle; for(Int_t iCath=0; iCathGetXaxis()->SetTitle(boardName.Data()); h3->GetYaxis()->SetTitle("Strip"); Add2RawsList(h3, kTriggerScalers + AliMpConstants::NofTriggerChambers()*iCath + iChamber, expert, !image, !saveCorr); } } AliMUONTriggerDisplay triggerDisplay; for(Int_t iCath=0; iCathGetXaxis()->SetBinLabel(1, "One-bin histogram: bin is filled at each scaler event."); h10->GetYaxis()->SetTitle("Cumulated scaler time (s)"); Add2RawsList(h10, kTriggerScalersTime, !expert, !image, !saveCorr); Int_t bpmin(999999); Int_t bpmax(0); TIter next(AliMpDDLStore::Instance()->CreateBusPatchIterator()); AliMpBusPatch* bp(0x0); while ( ( bp = static_cast(next())) ) { bpmin = TMath::Min(bpmin,bp->GetId()); bpmax = TMath::Max(bpmax,bp->GetId()); } Double_t xmin = bpmin-0.5; Double_t xmax = bpmax+0.5; Int_t nbins = bpmax-bpmin+1; TH1* hbp = new TH1F("hTrackerBusPatchOccupancy","Occupancy of bus patches",nbins,xmin,xmax); TH1* hbpnpads = new TH1F("hTrackerBusPatchNofPads","Number of pads per bus patch",nbins,xmin,xmax); TH1* hbpnmanus = new TH1F("hTrackerBusPatchNofManus","Number of manus per bus patch",nbins,xmin,xmax); Add2RawsList(hbp,kTrackerBusPatchOccupancy, !expert, image, !saveCorr); Add2RawsList(hbpnpads,kTrackerBusPatchNofPads, expert, !image, !saveCorr); Add2RawsList(hbpnmanus,kTrackerBusPatchNofManus, expert, !image, !saveCorr); const Bool_t histogram(kFALSE); if(!fTrackerDataMaker) fTrackerDataMaker = new AliMUONTrackerDataMaker(GetMUONRecoParam(), AliCDBManager::Instance()->GetRun(), 0x0, "", "NOGAIN", histogram, 0.0,0.0); fTrackerDataMaker->Data()->DisableChannelLevel(); // to save up disk space, we only store starting at the manu level fTrackerDataMaker->SetRunning(kTRUE); } //__________________________________________________________________ void AliMUONQADataMakerRec::InitDigits() { /// Initialized Digits spectra const Bool_t expert = kTRUE ; const Bool_t image = kTRUE ; TH1I* h0 = new TH1I("hDigitsDetElem", "Detection element distribution in Digits;Detection element Id;Counts", 1400, 100, 1500); Add2DigitsList(h0, 0, !expert, image); TH1I* h1 = new TH1I("hDigitsADC", "ADC distribution in Digits;ACD value;Counts", 4096, 0, 4095); Add2DigitsList(h1, 1, !expert, image); } //____________________________________________________________________________ void AliMUONQADataMakerRec::InitRecPoints() { /// create Reconstructed Points histograms in RecPoints subdir AliCodeTimerAuto(""); InitRecPointsTrigger(); InitRecPointsTracker(); } //____________________________________________________________________________ void AliMUONQADataMakerRec::InitRecPointsTracker() { /// create Reconstructed Points histograms in RecPoints subdir for the /// MUON tracker subsystem. const Bool_t expert = kTRUE ; const Bool_t image = kTRUE ; AliCodeTimerAuto(""); TH1I *h1I; TH1F *h1F; TH2F *h2F; // histograms per chamber Int_t nCh = AliMpConstants::NofTrackingChambers(); for ( Int_t i = 0; i < nCh; ++i ) { h1I = new TH1I(Form("hTrackerClusterMultiplicityForChamber%d",i+1), Form("cluster size distribution in chamber %d;size (n_{pads};Counts)",i+1), 100,0,100); Add2RecPointsList(h1I,kTrackerClusterMultiplicityPerChamber+i, expert, !image); h1I = new TH1I(Form("hTrackerClusterChargeForChamber%d",i+1), Form("cluster charge distribution in chamber %d;charge (fC);Counts",i+1), 100,0,1000); Add2RecPointsList(h1I,kTrackerClusterChargePerChamber+i, expert, !image); Float_t rMax = AliMUONConstants::Rmax(i/2); h2F = new TH2F(Form("hTrackerClusterHitMapForChamber%d",i+1), Form("cluster position distribution in chamber %d;X (cm);Y (cm)",i+1), 100, -rMax, rMax, 100, -rMax, rMax); Add2RecPointsList(h2F, kTrackerClusterHitMapPerChamber+i, expert, !image); } // summary histograms per chamber h1I = new TH1I("hTrackerNumberOfClustersPerChamber", "Number of clusters per chamber;chamber ID;n_{clusters}", nCh,-0.5,nCh-0.5); Add2RecPointsList(h1I,kTrackerNumberOfClustersPerChamber, !expert, image); h1F = new TH1F("hTrackerClusterMultiplicityPerChMean", "cluster mean size per chamber;chamber ID; (n_{pads})", nCh,-0.5,nCh-0.5); h1F->SetOption("P"); h1F->SetMarkerStyle(kFullDotMedium); h1F->SetMarkerColor(kRed); Add2RecPointsList(h1F, kTrackerClusterMultiplicityPerChMean, !expert, image); h1F = new TH1F("hTrackerClusterMultiplicityPerChSigma", "cluster size dispersion per chamber;chamber ID;#sigma_{size} (n_{pads})", nCh,-0.5,nCh-0.5); h1F->SetOption("P"); h1F->SetMarkerStyle(kFullDotMedium); h1F->SetMarkerColor(kRed); Add2RecPointsList(h1F, kTrackerClusterMultiplicityPerChSigma, !expert, image); h1F = new TH1F("hTrackerClusterChargePerChMean", "cluster mean charge per chamber;chamber ID; (fC)", nCh,-0.5,nCh-0.5); h1F->SetOption("P"); h1F->SetMarkerStyle(kFullDotMedium); h1F->SetMarkerColor(kRed); Add2RecPointsList(h1F, kTrackerClusterChargePerChMean, !expert, image); h1F = new TH1F("hTrackerClusterChargePerChSigma", "cluster charge dispersion per chamber;chamber ID;#sigma_{charge} (fC)", nCh,-0.5,nCh-0.5); h1F->SetOption("P"); h1F->SetMarkerStyle(kFullDotMedium); h1F->SetMarkerColor(kRed); Add2RecPointsList(h1F, kTrackerClusterChargePerChSigma, !expert, image); // histograms per DE Int_t ndes(0); AliMpDEIterator it; it.First(); while ( !it.IsDone()) { Int_t detElemId = it.CurrentDEId(); if ( AliMpDEManager::GetStationType(detElemId) != AliMp::kStationTrigger ) { ndes = TMath::Max(ndes,detElemId); h1I = new TH1I(Form("hTrackerClusterMultiplicityForDE%04d",detElemId), Form("cluster size distribution in detection element %d;size (n_{pads})",detElemId), 100,0,100); Add2RecPointsList(h1I,kTrackerClusterMultiplicityPerDE+detElemId, expert, !image); h1I = new TH1I(Form("hTrackerClusterChargeForDE%04d",detElemId), Form("cluster charge distribution in detection element %d;charge (fC)",detElemId), 100,0,1000); Add2RecPointsList(h1I,kTrackerClusterChargePerDE+detElemId, expert, !image); } it.Next(); } // summary histograms per DE h1I = new TH1I("hTrackerNumberOfClustersPerDE", "Number of clusters per detection element;DetElem ID;n_{clusters}", ndes+1,-0.5,ndes+0.5); Add2RecPointsList(h1I, kTrackerNumberOfClustersPerDE, !expert, image); h1F = new TH1F("hTrackerClusterMultiplicityPerDEMean", "cluster mean size per DE;DetElem ID; (n_{pads})", ndes+1,-0.5,ndes+0.5); h1F->SetOption("P"); h1F->SetMarkerStyle(kFullDotMedium); h1F->SetMarkerColor(kRed); Add2RecPointsList(h1F, kTrackerClusterMultiplicityPerDEMean, !expert, image); h1F = new TH1F("hTrackerClusterChargePerDEMean", "cluster mean charge per DE;DetElem ID; (fC)", ndes+1,-0.5,ndes+0.5); h1F->SetOption("P"); h1F->SetMarkerStyle(kFullDotMedium); h1F->SetMarkerColor(kRed); Add2RecPointsList(h1F, kTrackerClusterChargePerDEMean, !expert, image); } //____________________________________________________________________________ void AliMUONQADataMakerRec::InitRecPointsTrigger() { /// create Reconstructed Points histograms in RecPoints subdir for the /// MUON Trigger subsystem. const Bool_t expert = kTRUE ; const Bool_t image = kTRUE ; TString boardName = "Local board Id"; TString histoName, histoTitle; for(Int_t iCath=0; iCathGetXaxis()->SetTitle(boardName.Data()); h0->GetYaxis()->SetTitle("Strip"); Add2RecPointsList(h0, kTriggerDigits + AliMpConstants::NofTriggerChambers()*iCath + iChamber, expert, !image); } } TH1F* h2 = new TH1F("hTriggeredBoards", "Triggered boards", 234, 0.5, 234.5); Add2RecPointsList(h2, kTriggeredBoards, expert, !image); AliMUONTriggerDisplay triggerDisplay; for(Int_t iCath=0; iCathGetXaxis()->SetBinLabel(1, AliRecoParam::GetEventSpecieName(esindex)); h5->GetYaxis()->SetTitle("Number of analyzed events"); Add2RecPointsList(h5, kNAnalyzedEvents, !expert, image); } //____________________________________________________________________________ void AliMUONQADataMakerRec::InitESDs() { ///create ESDs histograms in ESDs subdir const Bool_t expert = kTRUE ; const Bool_t image = kTRUE ; Int_t nCh = AliMUONConstants::NTrackingCh(); Int_t nDE = 1100; // track info TH1F* hESDnTracks = new TH1F("hESDnTracks", "number of tracks;n_{tracks}", 20, 0., 20.); Add2ESDsList(hESDnTracks, kESDnTracks, !expert, image); TH1F* hESDMatchTrig = new TH1F("hESDMatchTrig", "number of tracks matched with trigger;n_{tracks}", 20, 0., 20.); Add2ESDsList(hESDMatchTrig, kESDMatchTrig, !expert, image); TH1F* hESDMomentum = new TH1F("hESDMomentum", "momentum distribution;p (GeV/c)", 300, 0., 300); Add2ESDsList(hESDMomentum, kESDMomentum, !expert, image); TH1F* hESDPt = new TH1F("hESDPt", "transverse momentum distribution;p_{t} (GeV/c)", 200, 0., 50); Add2ESDsList(hESDPt, kESDPt, !expert, image); TH1F* hESDRapidity = new TH1F("hESDRapidity", "rapidity distribution;rapidity", 200, -4.5, -2.); Add2ESDsList(hESDRapidity, kESDRapidity, !expert, image); TH1F* hESDChi2 = new TH1F("hESDChi2", "normalized #chi^{2} distribution;#chi^{2} / ndf", 500, 0., 50.); Add2ESDsList(hESDChi2, kESDChi2, !expert, image); TH1F* hESDProbChi2 = new TH1F("hESDProbChi2", "distribution of probability of #chi^{2};prob(#chi^{2})", 100, 0., 1.); Add2ESDsList(hESDProbChi2, kESDProbChi2, !expert, image); TH1F* hESDThetaX = new TH1F("hESDThetaX", "#theta_{X} distribution;#theta_{X} (degree)", 360, -180., 180); Add2ESDsList(hESDThetaX, kESDThetaX, !expert, image); TH1F* hESDThetaY = new TH1F("hESDThetaY", "#theta_{Y} distribution;#theta_{Y} (degree)", 360, -180., 180); Add2ESDsList(hESDThetaY, kESDThetaY, !expert, image); // cluster info for (Int_t i = 0; i < nCh; i++) { Float_t rMax = AliMUONConstants::Rmax(i/2); TH2F* hESDClusterHitMap = new TH2F(Form("hESDClusterHitMap%d",i+1), Form("cluster position distribution in chamber %d;X (cm);Y (cm)",i+1), 100, -rMax, rMax, 100, -rMax, rMax); Add2ESDsList(hESDClusterHitMap, kESDClusterHitMap+i, expert, !image); } TH1F* hESDnClustersPerTrack = new TH1F("hESDnClustersPerTrack", "number of associated clusters per track;n_{clusters}", 20, 0., 20.); Add2ESDsList(hESDnClustersPerTrack, kESDnClustersPerTrack, !expert, image); TH1F* hESDnClustersPerCh = new TH1F("hESDnClustersPerCh", "averaged number of clusters per chamber per track;chamber ID;", nCh, -0.5, nCh-0.5); hESDnClustersPerCh->SetFillColor(kRed); Add2ESDsList(hESDnClustersPerCh, kESDnClustersPerCh, !expert, image); TH1F* hESDnClustersPerDE = new TH1F("hESDnClustersPerDE", "averaged number of clusters per DE per track;DetElem ID;", nDE+1, -0.5, nDE+0.5); hESDnClustersPerDE->SetFillColor(kRed); Add2ESDsList(hESDnClustersPerDE, kESDnClustersPerDE, !expert, image); for (Int_t i = 0; i < nCh; i++) { TH1F* hESDClusterChargeInCh = new TH1F(Form("hESDClusterChargeInCh%d",i+1), Form("cluster charge distribution in chamber %d;charge (fC)",i+1), 100, 0., 1000.); Add2ESDsList(hESDClusterChargeInCh, kESDClusterChargeInCh+i, expert, !image); } TH1F* hESDClusterChargePerChMean = new TH1F("hESDClusterChargePerChMean", "cluster mean charge per chamber;chamber ID; (fC)", nCh, -0.5, nCh-0.5); hESDClusterChargePerChMean->SetOption("P"); hESDClusterChargePerChMean->SetMarkerStyle(kFullDotMedium); hESDClusterChargePerChMean->SetMarkerColor(kRed); Add2ESDsList(hESDClusterChargePerChMean, kESDClusterChargePerChMean, !expert, image); TH1F* hESDClusterChargePerChSigma = new TH1F("hESDClusterChargePerChSigma", "cluster charge dispersion per chamber;chamber ID;#sigma_{charge} (fC)", nCh, -0.5, nCh-0.5); hESDClusterChargePerChSigma->SetOption("P"); hESDClusterChargePerChSigma->SetMarkerStyle(kFullDotMedium); hESDClusterChargePerChSigma->SetMarkerColor(kRed); Add2ESDsList(hESDClusterChargePerChSigma, kESDClusterChargePerChSigma, !expert, image); TH1F* hESDClusterChargePerDE = new TH1F("hESDClusterChargePerDE", "cluster mean charge per DE;DetElem ID; (fC)", nDE+1, -0.5, nDE+0.5); hESDClusterChargePerDE->SetOption("P"); hESDClusterChargePerDE->SetMarkerStyle(kFullDotMedium); hESDClusterChargePerDE->SetMarkerColor(kRed); Add2ESDsList(hESDClusterChargePerDE, kESDClusterChargePerDE, !expert, image); for (Int_t i = 0; i < nCh; i++) { TH1F* hESDClusterSizeInCh = new TH1F(Form("hESDClusterSizeInCh%d",i+1), Form("cluster size distribution in chamber %d;size (n_{pads})",i+1), 200, 0., 200.); Add2ESDsList(hESDClusterSizeInCh, kESDClusterSizeInCh+i, expert, !image); } TH1F* hESDClusterSizePerChMean = new TH1F("hESDClusterSizePerChMean", "cluster mean size per chamber;chamber ID; (n_{pads})", nCh, -0.5, nCh-0.5); hESDClusterSizePerChMean->SetOption("P"); hESDClusterSizePerChMean->SetMarkerStyle(kFullDotMedium); hESDClusterSizePerChMean->SetMarkerColor(kRed); Add2ESDsList(hESDClusterSizePerChMean, kESDClusterSizePerChMean, !expert, image); TH1F* hESDClusterSizePerChSigma = new TH1F("hESDClusterSizePerChSigma", "cluster size dispersion per chamber;chamber ID;#sigma_{size} (n_{pads})", nCh, -0.5, nCh-0.5); hESDClusterSizePerChSigma->SetOption("P"); hESDClusterSizePerChSigma->SetMarkerStyle(kFullDotMedium); hESDClusterSizePerChSigma->SetMarkerColor(kRed); Add2ESDsList(hESDClusterSizePerChSigma, kESDClusterSizePerChSigma, !expert, image); TH1F* hESDClusterSizePerDE = new TH1F("hESDClusterSizePerDE", "cluster mean size per DE;DetElem ID; (n_{pads})", nDE+1, -0.5, nDE+0.5); hESDClusterSizePerDE->SetOption("P"); hESDClusterSizePerDE->SetMarkerStyle(kFullDotMedium); hESDClusterSizePerDE->SetMarkerColor(kRed); Add2ESDsList(hESDClusterSizePerDE, kESDClusterSizePerDE, !expert, image); // cluster - track info for (Int_t i = 0; i < nCh; i++) { TH1F* hESDResidualXInCh = new TH1F(Form("hESDResidualXInCh%d",i+1), Form("cluster-track residual-X distribution in chamber %d;#Delta_{X} (cm)",i+1), 1000, -5., 5.); Add2ESDsList(hESDResidualXInCh, kESDResidualXInCh+i, expert, !image); TH1F* hESDResidualYInCh = new TH1F(Form("hESDResidualYInCh%d",i+1), Form("cluster-track residual-Y distribution in chamber %d;#Delta_{Y} (cm)",i+1), 1000, -1., 1.); Add2ESDsList(hESDResidualYInCh, kESDResidualYInCh+i, expert, !image); TH1F* hESDLocalChi2XInCh = new TH1F(Form("hESDLocalChi2XInCh%d",i+1), Form("local chi2-X distribution in chamber %d;local #chi^{2}_{X}",i+1), 1000, 0., 25); Add2ESDsList(hESDLocalChi2XInCh, kESDLocalChi2XInCh+i, expert, !image); TH1F* hESDLocalChi2YInCh = new TH1F(Form("hESDLocalChi2YInCh%d",i+1), Form("local chi2-Y distribution in chamber %d;local #chi^{2}_{Y}",i+1), 1000, 0., 25); Add2ESDsList(hESDLocalChi2YInCh, kESDLocalChi2YInCh+i, expert, !image); TH1F* hESDLocalChi2InCh = new TH1F(Form("hESDLocalChi2InCh%d",i+1), Form("local chi2 (~0.5*(#chi^{2}_{X}+#chi^{2}_{Y})) distribution in chamber %d;local #chi^{2}",i+1), 1000, 0., 25); Add2ESDsList(hESDLocalChi2InCh, kESDLocalChi2InCh+i, expert, !image); } TH1F* hESDResidualXPerChMean = new TH1F("hESDResidualXPerChMean", "cluster-track residual-X per Ch: mean;chamber ID;<#Delta_{X}> (cm)", nCh, -0.5, nCh-0.5); hESDResidualXPerChMean->SetOption("P"); hESDResidualXPerChMean->SetMarkerStyle(kFullDotMedium); hESDResidualXPerChMean->SetMarkerColor(kRed); Add2ESDsList(hESDResidualXPerChMean, kESDResidualXPerChMean, !expert, image); TH1F* hESDResidualYPerChMean = new TH1F("hESDResidualYPerChMean", "cluster-track residual-Y per Ch: mean;chamber ID;<#Delta_{Y}> (cm)", nCh, -0.5, nCh-0.5); hESDResidualYPerChMean->SetOption("P"); hESDResidualYPerChMean->SetMarkerStyle(kFullDotMedium); hESDResidualYPerChMean->SetMarkerColor(kRed); Add2ESDsList(hESDResidualYPerChMean, kESDResidualYPerChMean, !expert, image); TH1F* hESDResidualXPerChSigma = new TH1F("hESDResidualXPerChSigma", "cluster-track residual-X per Ch: sigma;chamber ID;#sigma_{X} (cm)", nCh, -0.5, nCh-0.5); hESDResidualXPerChSigma->SetOption("P"); hESDResidualXPerChSigma->SetMarkerStyle(kFullDotMedium); hESDResidualXPerChSigma->SetMarkerColor(kRed); Add2ESDsList(hESDResidualXPerChSigma, kESDResidualXPerChSigma, !expert, image); TH1F* hESDResidualYPerChSigma = new TH1F("hESDResidualYPerChSigma", "cluster-track residual-Y per Ch: sigma;chamber ID;#sigma_{Y} (cm)", nCh, -0.5, nCh-0.5); hESDResidualYPerChSigma->SetOption("P"); hESDResidualYPerChSigma->SetMarkerStyle(kFullDotMedium); hESDResidualYPerChSigma->SetMarkerColor(kRed); Add2ESDsList(hESDResidualYPerChSigma, kESDResidualYPerChSigma, !expert, image); TH1F* hESDLocalChi2XPerChMean = new TH1F("hESDLocalChi2XPerCh", "local chi2-X per Ch: mean;chamber ID;", nCh, -0.5, nCh-0.5); hESDLocalChi2XPerChMean->SetOption("P"); hESDLocalChi2XPerChMean->SetMarkerStyle(kFullDotMedium); hESDLocalChi2XPerChMean->SetMarkerColor(kRed); Add2ESDsList(hESDLocalChi2XPerChMean, kESDLocalChi2XPerChMean, !expert, image); TH1F* hESDLocalChi2YPerChMean = new TH1F("hESDLocalChi2YPerCh", "local chi2-Y per Ch: mean;chamber ID;", nCh, -0.5, nCh-0.5); hESDLocalChi2YPerChMean->SetOption("P"); hESDLocalChi2YPerChMean->SetMarkerStyle(kFullDotMedium); hESDLocalChi2YPerChMean->SetMarkerColor(kRed); Add2ESDsList(hESDLocalChi2YPerChMean, kESDLocalChi2YPerChMean, !expert, image); TH1F* hESDLocalChi2PerChMean = new TH1F("hESDLocalChi2PerCh", "local chi2 (~0.5*(#chi^{2}_{X}+#chi^{2}_{Y})) per Ch: mean;chamber ID;", nCh, -0.5, nCh-0.5); hESDLocalChi2PerChMean->SetOption("P"); hESDLocalChi2PerChMean->SetMarkerStyle(kFullDotMedium); hESDLocalChi2PerChMean->SetMarkerColor(kRed); Add2ESDsList(hESDLocalChi2PerChMean, kESDLocalChi2PerChMean, !expert, image); TH1F* hESDResidualXPerDEMean = new TH1F("hESDResidualXPerDEMean", "cluster-track residual-X per DE: mean;DetElem ID;<#Delta_{X}> (cm)", nDE+1, -0.5, nDE+0.5); hESDResidualXPerDEMean->SetOption("P"); hESDResidualXPerDEMean->SetMarkerStyle(kFullDotMedium); hESDResidualXPerDEMean->SetMarkerColor(kRed); Add2ESDsList(hESDResidualXPerDEMean, kESDResidualXPerDEMean, !expert, image); TH1F* hESDResidualYPerDEMean = new TH1F("hESDResidualYPerDEMean", "cluster-track residual-Y per DE: mean;DetElem ID;<#Delta_{Y}> (cm)", nDE+1, -0.5, nDE+0.5); hESDResidualYPerDEMean->SetOption("P"); hESDResidualYPerDEMean->SetMarkerStyle(kFullDotMedium); hESDResidualYPerDEMean->SetMarkerColor(kRed); Add2ESDsList(hESDResidualYPerDEMean, kESDResidualYPerDEMean, !expert, image); TH1F* hESDResidualXPerDESigma = new TH1F("hESDResidualXPerDESigma", "cluster-track residual-X per DE: sigma;DetElem ID;#sigma_{X} (cm)", nDE+1, -0.5, nDE+0.5); hESDResidualXPerDESigma->SetOption("P"); hESDResidualXPerDESigma->SetMarkerStyle(kFullDotMedium); hESDResidualXPerDESigma->SetMarkerColor(kRed); Add2ESDsList(hESDResidualXPerDESigma, kESDResidualXPerDESigma, !expert, image); TH1F* hESDResidualYPerDESigma = new TH1F("hESDResidualYPerDESigma", "cluster-track residual-Y per DE: sigma;DetElem ID;#sigma_{Y} (cm)", nDE+1, -0.5, nDE+0.5); hESDResidualYPerDESigma->SetOption("P"); hESDResidualYPerDESigma->SetMarkerStyle(kFullDotMedium); hESDResidualYPerDESigma->SetMarkerColor(kRed); Add2ESDsList(hESDResidualYPerDESigma, kESDResidualYPerDESigma, !expert, image); TH1F* hESDLocalChi2XPerDEMean = new TH1F("hESDLocalChi2XPerDE", "local chi2-X per DE: mean;DetElem ID;", nDE+1, -0.5, nDE+0.5); hESDLocalChi2XPerDEMean->SetOption("P"); hESDLocalChi2XPerDEMean->SetMarkerStyle(kFullDotMedium); hESDLocalChi2XPerDEMean->SetMarkerColor(kRed); Add2ESDsList(hESDLocalChi2XPerDEMean, kESDLocalChi2XPerDEMean, !expert, image); TH1F* hESDLocalChi2YPerDEMean = new TH1F("hESDLocalChi2YPerDE", "local chi2-Y per DE: mean;DetElem ID;", nDE+1, -0.5, nDE+0.5); hESDLocalChi2YPerDEMean->SetOption("P"); hESDLocalChi2YPerDEMean->SetMarkerStyle(kFullDotMedium); hESDLocalChi2YPerDEMean->SetMarkerColor(kRed); Add2ESDsList(hESDLocalChi2YPerDEMean, kESDLocalChi2YPerDEMean, !expert, image); TH1F* hESDLocalChi2PerDEMean = new TH1F("hESDLocalChi2PerDE", "local chi2 (~0.5*(#chi^{2}_{X}+#chi^{2}_{Y})) per DE: mean;DetElem ID;", nDE+1, -0.5, nDE+0.5); hESDLocalChi2PerDEMean->SetOption("P"); hESDLocalChi2PerDEMean->SetMarkerStyle(kFullDotMedium); hESDLocalChi2PerDEMean->SetMarkerColor(kRed); Add2ESDsList(hESDLocalChi2PerDEMean, kESDLocalChi2PerDEMean, !expert, image); // intermediate histograms TH1F* hESDnTotClustersPerCh = new TH1F("hESDnTotClustersPerCh", "total number of associated clusters per chamber;chamber ID;#Sigma(n_{clusters})", nCh, -0.5, nCh-0.5); Add2ESDsList(hESDnTotClustersPerCh, kESDnTotClustersPerCh, expert, !image); TH1F* hESDnTotClustersPerDE = new TH1F("hESDnTotClustersPerDE", "total number of associated clusters per DE;DetElem ID;#Sigma(n_{clusters})", nDE+1, -0.5, nDE+0.5); Add2ESDsList(hESDnTotClustersPerDE, kESDnTotClustersPerDE, expert, !image); TH1F* hESDnTotFullClustersPerDE = new TH1F("hESDnTotFullClustersPerDE", "total number of associated clusters containing pad info per DE;DetElem ID;#Sigma(n_{full clusters})", nDE+1, -0.5, nDE+0.5); Add2ESDsList(hESDnTotFullClustersPerDE, kESDnTotFullClustersPerDE, expert, !image); TH1F* hESDSumClusterChargePerDE = new TH1F("hESDSumClusterChargePerDE", "sum of cluster charge per DE;DetElem ID;#Sigma(charge) (fC)", nDE+1, -0.5, nDE+0.5); Add2ESDsList(hESDSumClusterChargePerDE, kESDSumClusterChargePerDE, expert, !image); TH1F* hESDSumClusterSizePerDE = new TH1F("hESDSumClusterSizePerDE", "sum of cluster size per DE;DetElem ID;#Sigma(size) (n_{pads})", nDE+1, -0.5, nDE+0.5); Add2ESDsList(hESDSumClusterSizePerDE, kESDSumClusterSizePerDE, expert, !image); TH1F* hESDSumResidualXPerDE = new TH1F("hESDSumResidualXPerDE", "sum of cluster-track residual-X per DE;DetElem ID;#Sigma(#Delta_{X}) (cm)", nDE+1, -0.5, nDE+0.5); Add2ESDsList(hESDSumResidualXPerDE, kESDSumResidualXPerDE, expert, !image); TH1F* hESDSumResidualYPerDE = new TH1F("hESDSumResidualYPerDE", "sum of cluster-track residual-Y per DE;DetElem ID;#Sigma(#Delta_{Y}) (cm)", nDE+1, -0.5, nDE+0.5); Add2ESDsList(hESDSumResidualYPerDE, kESDSumResidualYPerDE, expert, !image); TH1F* hESDSumResidualX2PerDE = new TH1F("hESDSumResidualX2PerDE", "sum of cluster-track residual-X**2 per DE;DetElem ID;#Sigma(#Delta_{X}^{2}) (cm^{2})", nDE+1, -0.5, nDE+0.5); Add2ESDsList(hESDSumResidualX2PerDE, kESDSumResidualX2PerDE, expert, !image); TH1F* hESDSumResidualY2PerDE = new TH1F("hESDSumResidualY2PerDE", "sum of cluster-track residual-Y**2 per DE;DetElem ID;#Sigma(#Delta_{Y}^{2}) (cm^{2})", nDE+1, -0.5, nDE+0.5); Add2ESDsList(hESDSumResidualY2PerDE, kESDSumResidualY2PerDE, expert, !image); TH1F* hESDSumLocalChi2XPerDE = new TH1F("hESDSumLocalChi2XPerDE", "sum of local chi2-X per DE;DetElem ID;#Sigma(local #chi^{2}_{X})", nDE+1, -0.5, nDE+0.5); Add2ESDsList(hESDSumLocalChi2XPerDE, kESDSumLocalChi2XPerDE, expert, !image); TH1F* hESDSumLocalChi2YPerDE = new TH1F("hESDSumLocalChi2YPerDE", "sum of local chi2-Y per DE;DetElem ID;#Sigma(local #chi^{2}_{Y})", nDE+1, -0.5, nDE+0.5); Add2ESDsList(hESDSumLocalChi2YPerDE, kESDSumLocalChi2YPerDE, expert, !image); TH1F* hESDSumLocalChi2PerDE = new TH1F("hESDSumLocalChi2PerDE", "sum of local chi2 (~0.5*(#chi^{2}_{X}+#chi^{2}_{Y})) per DE;DetElem ID;#Sigma(local #chi^{2})", nDE+1, -0.5, nDE+0.5); Add2ESDsList(hESDSumLocalChi2PerDE, kESDSumLocalChi2PerDE, expert, !image); } //____________________________________________________________________________ void AliMUONQADataMakerRec::MakeRaws(AliRawReader* rawReader) { /// make QA for rawdata // Check id histograms already created for this Event Specie AliDebug(AliQAv1::GetQADebugLevel(), Form("RAW event type %s", AliRawEventHeaderBase::GetTypeName(rawReader->GetType()))); if ( rawReader->GetType() == AliRawEventHeaderBase::kPhysicsEvent ) { rawReader->Reset(); MakeRawsTracker(rawReader); } if ( rawReader->GetType() == AliRawEventHeaderBase::kPhysicsEvent || rawReader->GetType() == AliRawEventHeaderBase::kCalibrationEvent ) { rawReader->Reset(); MakeRawsTrigger(rawReader); } } //____________________________________________________________________________ void AliMUONQADataMakerRec::MakeRawsTracker(AliRawReader* rawReader) { /// make QA for rawdata tracker /// forces init GetRawsData(kTrackerBusPatchOccupancy); ((AliMUONTrackerDataMaker*)fTrackerDataMaker)->SetRawReader(rawReader); fTrackerDataMaker->ProcessEvent(); } //____________________________________________________________________________ void AliMUONQADataMakerRec::MakeRawsTrigger(AliRawReader* rawReader) { /// make QA for rawdata trigger // Get trigger scalers Int_t loCircuit=0; AliMpCDB::LoadDDLStore(); AliMUONRawStreamTrigger rawStreamTrig(rawReader); while (rawStreamTrig.NextDDL()) { // If not a scaler event, do nothing Bool_t scalerEvent = rawReader->GetDataHeader()->GetL1TriggerMessage() & 0x1; if ( !scalerEvent ) continue; AliDebug(AliQAv1::GetQADebugLevel(),"Filling trigger scalers"); AliMUONDDLTrigger* ddlTrigger = rawStreamTrig.GetDDLTrigger(); AliMUONDarcHeader* darcHeader = ddlTrigger->GetDarcHeader(); if (darcHeader->GetGlobalFlag()){ UInt_t nOfClocks = darcHeader->GetGlobalClock(); Double_t nOfSeconds = ((Double_t) nOfClocks) / 40e6; // 1 clock each 25 ns ((TH1F*)GetRawsData(kTriggerScalersTime))->Fill(1., nOfSeconds); } Int_t nReg = darcHeader->GetRegHeaderEntries(); for(Int_t iReg = 0; iReg < nReg ;iReg++) { //reg loop // crate info AliMpTriggerCrate* crate = AliMpDDLStore::Instance()-> GetTriggerCrate(rawStreamTrig.GetDDL(), iReg); AliMUONRegHeader* regHeader = darcHeader->GetRegHeaderEntry(iReg); // loop over local structures Int_t nLocal = regHeader->GetLocalEntries(); for(Int_t iLocal = 0; iLocal < nLocal; iLocal++) { AliMUONLocalStruct* localStruct = regHeader->GetLocalEntry(iLocal); // if card exist if (!localStruct) continue; loCircuit = crate->GetLocalBoardId(localStruct->GetId()); if ( !loCircuit ) continue; // empty slot AliMpLocalBoard* localBoard = AliMpDDLStore::Instance()->GetLocalBoard(loCircuit, false); // skip copy cards if( !localBoard->IsNotified()) continue; Int_t cathode = localStruct->GetComptXY()%2; // loop over strips for (Int_t ibitxy = 0; ibitxy < 16; ++ibitxy) { if(localStruct->GetXY1(ibitxy) > 0) ((TH2F*)GetRawsData(kTriggerScalers + AliMpConstants::NofTriggerChambers()*cathode + 0)) ->Fill(loCircuit, ibitxy, 2*localStruct->GetXY1(ibitxy)); if(localStruct->GetXY2(ibitxy) > 0) ((TH2F*)GetRawsData(kTriggerScalers + AliMpConstants::NofTriggerChambers()*cathode + 1)) ->Fill(loCircuit, ibitxy, 2*localStruct->GetXY2(ibitxy)); if(localStruct->GetXY3(ibitxy) > 0) ((TH2F*)GetRawsData(kTriggerScalers + AliMpConstants::NofTriggerChambers()*cathode + 2)) ->Fill(loCircuit, ibitxy, 2*localStruct->GetXY3(ibitxy)); if(localStruct->GetXY4(ibitxy) > 0) ((TH2F*)GetRawsData(kTriggerScalers + AliMpConstants::NofTriggerChambers()*cathode + 3)) ->Fill(loCircuit, ibitxy, 2*localStruct->GetXY4(ibitxy)); } // loop on strips } // iLocal } // iReg } // NextDDL } //__________________________________________________________________ void AliMUONQADataMakerRec::MakeDigits(TTree* digitsTree) { /// makes data from Digits // Do nothing in case of calibration event if ( GetRecoParam()->GetEventSpecie() == AliRecoParam::kCalib ) return; if (!fDigitStore) fDigitStore = AliMUONVDigitStore::Create(*digitsTree); fDigitStore->Connect(*digitsTree, false); digitsTree->GetEvent(0); TIter next(fDigitStore->CreateIterator()); AliMUONVDigit* dig = 0x0; while ( ( dig = static_cast(next()) ) ) { GetDigitsData(0)->Fill(dig->DetElemId()); GetDigitsData(1)->Fill(dig->ADC()); } } //____________________________________________________________________________ void AliMUONQADataMakerRec::MakeRecPoints(TTree* clustersTree) { /// Fill histograms from treeR // Do nothing in case of calibration event if ( GetRecoParam()->GetEventSpecie() == AliRecoParam::kCalib ) return; GetRecPointsData(kNAnalyzedEvents)->Fill(1.); MakeRecPointsTracker(clustersTree); MakeRecPointsTrigger(clustersTree); } //____________________________________________________________________________ void AliMUONQADataMakerRec::MakeRecPointsTracker(TTree* clustersTree) { /// Fill histograms related to tracker clusters // First things first : do we have clusters in the TreeR ? // In "normal" production mode, it should be perfectly normal // *not* to have them. // But if for some reason we de-activated the combined tracking, // then we have clusters in TreeR, so let's take that opportunity // to QA them... if (!fClusterStore) { AliCodeTimerAuto("ClusterStore creation"); fClusterStore = AliMUONVClusterStore::Create(*clustersTree); if (!fClusterStore) { return; } } AliCodeTimerAuto(""); fClusterStore->Connect(*clustersTree,kFALSE); clustersTree->GetEvent(0); TIter next(fClusterStore->CreateIterator()); AliMUONVCluster* cluster; while ( ( cluster = static_cast(next()) ) ) { Int_t detElemId = cluster->GetDetElemId(); Int_t chamberId = AliMpDEManager::GetChamberId(detElemId); GetRecPointsData(kTrackerNumberOfClustersPerDE)->Fill(detElemId); GetRecPointsData(kTrackerClusterChargePerDE+detElemId)->Fill(cluster->GetCharge()); GetRecPointsData(kTrackerClusterMultiplicityPerDE+detElemId)->Fill(cluster->GetNDigits()); GetRecPointsData(kTrackerNumberOfClustersPerChamber)->Fill(chamberId); GetRecPointsData(kTrackerClusterChargePerChamber+chamberId)->Fill(cluster->GetCharge()); GetRecPointsData(kTrackerClusterMultiplicityPerChamber+chamberId)->Fill(cluster->GetNDigits()); GetRecPointsData(kTrackerClusterHitMapPerChamber+chamberId)->Fill(cluster->GetX(),cluster->GetY()); } fClusterStore->Clear(); } //____________________________________________________________________________ void AliMUONQADataMakerRec::MakeRecPointsTrigger(TTree* clustersTree) { /// makes data from trigger response // Fired pads info fDigitStore->Clear(); if (!fTriggerStore) fTriggerStore = AliMUONVTriggerStore::Create(*clustersTree); fTriggerStore->Clear(); fTriggerStore->Connect(*clustersTree, false); clustersTree->GetEvent(0); AliMUONLocalTrigger* locTrg; TIter nextLoc(fTriggerStore->CreateLocalIterator()); while ( ( locTrg = static_cast(nextLoc()) ) ) { if (locTrg->IsNull()) continue; TArrayS xyPattern[2]; locTrg->GetXPattern(xyPattern[0]); locTrg->GetYPattern(xyPattern[1]); Int_t nBoard = locTrg->LoCircuit(); Bool_t xTrig=locTrg->IsTrigX(); Bool_t yTrig=locTrg->IsTrigY(); if (xTrig && yTrig) ((TH1F*)GetRecPointsData(kTriggeredBoards))->Fill(nBoard); fDigitMaker->TriggerDigits(nBoard, xyPattern, *fDigitStore); } TIter nextDigit(fDigitStore->CreateIterator()); AliMUONVDigit* mDigit; while ( ( mDigit = static_cast(nextDigit()) ) ) { Int_t detElemId = mDigit->DetElemId(); Int_t ch = detElemId/100; Int_t localBoard = mDigit->ManuId(); Int_t channel = mDigit->ManuChannel(); Int_t cathode = mDigit->Cathode(); Int_t iChamber = ch - 11; ((TH2F*)GetRecPointsData(kTriggerDigits + AliMpConstants::NofTriggerChambers()*cathode + iChamber)) ->Fill(localBoard, channel); } } //____________________________________________________________________________ void AliMUONQADataMakerRec::MakeESDs(AliESDEvent* esd) { /// make QA data from ESDs // Do nothing in case of calibration event if ( GetRecoParam()->GetEventSpecie() == AliRecoParam::kCalib ) return; // load ESD event in the interface AliMUONESDInterface esdInterface; if (GetMUONRecoParam()) AliMUONESDInterface::ResetTracker(GetMUONRecoParam()); else AliError("Unable to get recoParam: use default ones for residual calculation"); esdInterface.LoadEvent(*esd); GetESDsData(kESDnTracks)->Fill(esdInterface.GetNTracks()); Int_t nTrackMatchTrig = 0; // loop over tracks Int_t nTracks = (Int_t) esd->GetNumberOfMuonTracks(); for (Int_t iTrack = 0; iTrack < nTracks; ++iTrack) { // get the ESD track and skip "ghosts" AliESDMuonTrack* esdTrack = esd->GetMuonTrack(iTrack); if (!esdTrack->ContainTrackerData()) continue; // get corresponding MUON track AliMUONTrack* track = esdInterface.FindTrack(esdTrack->GetUniqueID()); if (esdTrack->ContainTriggerData()) nTrackMatchTrig++; GetESDsData(kESDMomentum)->Fill(esdTrack->P()); GetESDsData(kESDPt)->Fill(esdTrack->Pt()); GetESDsData(kESDRapidity)->Fill(esdTrack->Y()); GetESDsData(kESDChi2)->Fill(track->GetNormalizedChi2()); GetESDsData(kESDProbChi2)->Fill(TMath::Prob(track->GetGlobalChi2(),track->GetNDF())); GetESDsData(kESDThetaX)->Fill(esdTrack->GetThetaXUncorrected() / TMath::Pi() * 180.); GetESDsData(kESDThetaY)->Fill(esdTrack->GetThetaYUncorrected() / TMath::Pi() * 180.); GetESDsData(kESDnClustersPerTrack)->Fill(track->GetNClusters()); // loop over clusters AliMUONTrackParam* trackParam = static_cast(track->GetTrackParamAtCluster()->First()); while (trackParam) { AliMUONVCluster* cluster = trackParam->GetClusterPtr(); Int_t chId = cluster->GetChamberId(); Int_t deID = cluster->GetDetElemId(); Double_t residualX = cluster->GetX() - trackParam->GetNonBendingCoor(); Double_t residualY = cluster->GetY() - trackParam->GetBendingCoor(); Double_t sigmaResidualX2 = cluster->GetErrX2() - trackParam->GetCovariances()(0,0); Double_t sigmaResidualY2 = cluster->GetErrY2() - trackParam->GetCovariances()(2,2); Double_t localChi2X = (sigmaResidualX2 > 0.) ? residualX*residualX/sigmaResidualX2 : 0.; Double_t localChi2Y = (sigmaResidualY2 > 0.) ? residualY*residualY/sigmaResidualY2 : 0.; Double_t localChi2 = 0.5 * trackParam->GetLocalChi2(); GetESDsData(kESDClusterHitMap+chId)->Fill(cluster->GetX(), cluster->GetY()); GetESDsData(kESDnTotClustersPerCh)->Fill(chId); GetESDsData(kESDnTotClustersPerDE)->Fill(deID); GetESDsData(kESDClusterChargeInCh+chId)->Fill(cluster->GetCharge()); GetESDsData(kESDSumClusterChargePerDE)->Fill(deID, cluster->GetCharge()); if (cluster->GetNDigits() > 0) { // discard clusters with pad not stored in ESD GetESDsData(kESDnTotFullClustersPerDE)->Fill(deID); GetESDsData(kESDClusterSizeInCh+chId)->Fill(cluster->GetNDigits()); GetESDsData(kESDSumClusterSizePerDE)->Fill(deID, cluster->GetNDigits()); } GetESDsData(kESDResidualXInCh+chId)->Fill(residualX); GetESDsData(kESDResidualYInCh+chId)->Fill(residualY); GetESDsData(kESDSumResidualXPerDE)->Fill(deID, residualX); GetESDsData(kESDSumResidualYPerDE)->Fill(deID, residualY); GetESDsData(kESDSumResidualX2PerDE)->Fill(deID, residualX*residualX); GetESDsData(kESDSumResidualY2PerDE)->Fill(deID, residualY*residualY); GetESDsData(kESDLocalChi2XInCh+chId)->Fill(localChi2X); GetESDsData(kESDLocalChi2YInCh+chId)->Fill(localChi2Y); GetESDsData(kESDLocalChi2InCh+chId)->Fill(localChi2); GetESDsData(kESDSumLocalChi2XPerDE)->Fill(deID, localChi2X); GetESDsData(kESDSumLocalChi2YPerDE)->Fill(deID, localChi2Y); GetESDsData(kESDSumLocalChi2PerDE)->Fill(deID, localChi2); trackParam = static_cast(track->GetTrackParamAtCluster()->After(trackParam)); } } GetESDsData(kESDMatchTrig)->Fill(nTrackMatchTrig); } //____________________________________________________________________________ void AliMUONQADataMakerRec::StartOfDetectorCycle() { /// Detector specific actions at start of cycle } //____________________________________________________________________________ void AliMUONQADataMakerRec::DisplayTriggerInfo(AliQAv1::TASKINDEX_t task) { // /// Display trigger information in a user-friendly way: /// from local board and strip numbers to their position on chambers // if(task!=AliQAv1::kRECPOINTS && task!=AliQAv1::kRAWS) return; // check we get histograms, otherwise return right now if ( task == AliQAv1::kRECPOINTS ) { if ( !GetRecPointsData(kTriggerDigits) ) return; } if ( task == AliQAv1::kRAWS ) { if ( !GetRawsData(kTriggerScalers) ) return; } AliMUONTriggerDisplay triggerDisplay; TH2F* histoStrips=0x0; TH2F* histoDisplayStrips=0x0; AliMUONTriggerDisplay::EDisplayOption displayOption = AliMUONTriggerDisplay::kDefaultDisplay; if(task == AliQAv1::kRAWS) displayOption = AliMUONTriggerDisplay::kNormalizeToArea; for (Int_t iCath = 0; iCath < AliMpConstants::NofCathodes(); iCath++) { for (Int_t iChamber = 0; iChamber < AliMpConstants::NofTriggerChambers(); iChamber++) { if(task==AliQAv1::kRECPOINTS){ histoStrips = (TH2F*)GetRecPointsData(kTriggerDigits + AliMpConstants::NofTriggerChambers()*iCath + iChamber); } else if(task==AliQAv1::kRAWS){ histoStrips = (TH2F*)GetRawsData(kTriggerScalers + AliMpConstants::NofTriggerChambers()*iCath + iChamber); } if(histoStrips->GetEntries()==0) continue; // No events found => No need to display if(task==AliQAv1::kRECPOINTS){ histoDisplayStrips = (TH2F*)GetRecPointsData(kTriggerDigitsDisplay + AliMpConstants::NofTriggerChambers()*iCath + iChamber); } else if(task==AliQAv1::kRAWS){ histoDisplayStrips = (TH2F*)GetRawsData(kTriggerScalersDisplay + AliMpConstants::NofTriggerChambers()*iCath + iChamber); } triggerDisplay.FillDisplayHistogram(histoStrips, histoDisplayStrips, AliMUONTriggerDisplay::kDisplayStrips, iCath, iChamber, displayOption); Float_t scaleValue = 0.; if(task==AliQAv1::kRAWS) { scaleValue = ((TH1F*)GetRawsData(kTriggerScalersTime))->GetBinContent(1); } else if ( task == AliQAv1::kRECPOINTS ) { scaleValue = GetRecPointsData(kNAnalyzedEvents)->GetBinContent(1); } if(scaleValue>0.) histoDisplayStrips->Scale(1./scaleValue); } // iChamber } // iCath if(task==AliQAv1::kRECPOINTS){ TH1F* histoBoards = (TH1F*)GetRecPointsData(kTriggeredBoards); TH2F* histoDisplayBoards = (TH2F*)GetRecPointsData(kTriggerBoardsDisplay); triggerDisplay.FillDisplayHistogram(histoBoards, histoDisplayBoards, AliMUONTriggerDisplay::kDisplayBoards, 0, 0); Float_t scaleValue = GetRecPointsData(kNAnalyzedEvents)->GetBinContent(1); if(scaleValue>0.) histoDisplayBoards->Scale(1./scaleValue); } } //_____________________________________________________________________________ Bool_t AliMUONQADataMakerRec::FillTriggerDCSHistos() { /// Get HV and currents values for one trigger chamber AliCodeTimerAuto(""); AliMUONCalibrationData calibrationData(AliCDBManager::Instance()->GetRun()); TMap* triggerDcsMap = calibrationData.TriggerDCS(); if ( !triggerDcsMap ) { AliError("Cannot fill DCS histos, as triggerDcsMap is NULL"); return kFALSE; } AliMpDEIterator deIt; deIt.First(); AliMpDCSNamer triggerDcsNamer("TRIGGER"); TH2* currHisto = 0x0; Int_t histoIndex = 0; TString histoName, histoTitle; Bool_t error = kFALSE; Bool_t expert = kTRUE; Bool_t saveCorr = kTRUE; Bool_t image = kTRUE; while ( !deIt.IsDone() ) { Int_t detElemId = deIt.CurrentDEId(); if ( AliMpDEManager::GetStationType(detElemId) == AliMp::kStationTrigger) { Int_t iChamber = AliMpDEManager::GetChamberId(detElemId); Int_t slat = detElemId%100; for(Int_t iMeas=0; iMeas(triggerDcsMap->FindObject(currAlias.Data())); if (!triggerDcsPair) { AliError(Form("Did not find expected alias (%s) for DE %d", currAlias.Data(),detElemId)); error = kTRUE; } else { TObjArray* values = static_cast(triggerDcsPair->Value()); if (!values) { AliError(Form("Could not get values for alias %s",currAlias.Data())); error = kTRUE; } else { TIter next(values); AliDCSValue* val = 0x0; Int_t ich = iChamber - AliMpConstants::NofTrackingChambers(); switch(iMeas){ case AliMpDCSNamer::kDCSI: histoIndex = kTriggerRPCi + ich; histoName = Form("hRPCIChamber%i", 11+ich); histoTitle = Form("Chamber %i: RPC Currents (#muA)", 11+ich); break; case AliMpDCSNamer::kDCSHV: histoIndex = kTriggerRPChv + ich; histoName = Form("hRPCHVChamber%i", 11+ich); histoTitle = Form("Chamber %i: RPC HV (V)", 11+ich); break; } currHisto = (TH2F*) GetRawsData(histoIndex); if(!currHisto){ Int_t npoints = values->GetEntries(); TArrayF axisSlat(18+1), axisTime(npoints+1); for(Int_t islat=0; islat<=18; islat++){ axisSlat[islat] = -0.5 + (Float_t)islat; } for(Int_t ientry=0; ientry(values->At(ientry)); axisTime[ientry] = val->GetTimeStamp(); } axisTime[npoints] = val->GetTimeStamp() + 100; currHisto = new TH2F(histoName.Data(), histoTitle.Data(), npoints, axisTime.GetArray(), 18, axisSlat.GetArray()); currHisto->GetXaxis()->SetTitle("Time"); currHisto->GetXaxis()->SetTimeDisplay(1); //currHisto->GetXaxis()->SetTimeFormat("%d%b%y %H:%M:%S"); currHisto->GetYaxis()->SetTitle("RPC"); Add2RawsList(currHisto, histoIndex, !expert, image, !saveCorr); } while ( ( val = static_cast(next()) ) ) { Float_t hvi = val->GetFloat(); AliDebug(AliQAv1::GetQADebugLevel(), Form("Value %f", hvi)); currHisto->Fill(1.0001 * val->GetTimeStamp(), slat, hvi); } // loop on values } // if (!values) } // if (!triggerDcsPair) } // loop on measured types (HV and currents) } // if (stationType == kStationTrigger) deIt.Next(); } return error; } //____________________________________________________________________________ AliMUONVTrackerData* AliMUONQADataMakerRec::GetTrackerData() const { /// Return tracker data return fTrackerDataMaker->Data(); } //____________________________________________________________________________ void AliMUONQADataMakerRec::BeautifyTrackerBusPatchOccupancy(TH1& hbp) { /// Put labels, limits and so on on the TrackerBusPatchOccupancy histogram hbp.SetXTitle("Absolute Bus Patch Id"); hbp.SetYTitle("Occupancy (percent)"); hbp.SetStats(kFALSE); Double_t xmin = hbp.GetXaxis()->GetXmin(); Double_t xmax = hbp.GetXaxis()->GetXmax(); Double_t occMax(0.1); // 0.1% y-limit for the plot Double_t occError(1.0); // 1.0% y-limit to count the "errors" TLine* line = new TLine(xmin,occError,xmax,occError); line->SetLineColor(2); line->SetLineWidth(3); hbp.GetListOfFunctions()->Add(line); TH1* hnpads = GetRawsData(kTrackerBusPatchNofPads); hnpads->SetStats(kFALSE); TH1* hnmanus = GetRawsData(kTrackerBusPatchNofManus); hnmanus->SetStats(kFALSE); TIter next(AliMpDDLStore::Instance()->CreateBusPatchIterator()); AliMpBusPatch* bp(0x0); while ( ( bp = static_cast(next())) ) { Int_t n(0); for ( Int_t imanu = 0; imanu < bp->GetNofManus(); ++imanu ) { Int_t manuId = bp->GetManuId(imanu); AliMpDetElement* de = AliMpDDLStore::Instance()->GetDetElement(bp->GetDEId()); n += de->NofChannelsInManu(manuId); } hnpads->Fill(bp->GetId(),n*1.0); hnmanus->Fill(bp->GetId(),bp->GetNofManus()*1.0); } next.Reset(); Int_t nMissingPads(0); Int_t nPads(0); Int_t nBusPatches(0); Int_t nMissingBusPatches(0); while ( ( bp = static_cast(next())) ) { Int_t bin = hbp.FindBin(bp->GetId()); Int_t n = hnpads->GetBinContent(bin); ++nBusPatches; nPads += n; if ( hbp.GetBinContent(bin) <= 0 ) { nMissingPads += n; ++nMissingBusPatches; } } next.Reset(); Double_t* x = new Double_t[nBusPatches]; Int_t n(0); Int_t nBusPatchesAboveLimit(0); while ( ( bp = static_cast(next())) ) { Int_t bin = hbp.FindBin(bp->GetId()); if ( hbp.GetBinContent(bin) > 0 ) { x[n] = hbp.GetBinContent(bin); ++n; } if ( hbp.GetBinContent(bin) > occError ) { ++nBusPatchesAboveLimit; } } Double_t alpha(0.1); // trim 10% of data Double_t tmean,tvar; Double_t ymin,ymax; // computed the truncated mean of the occupancy values, in order to get a // reasonable y-range for the histogram (without giant peaks to the roof // for misbehaving buspatches). Int_t ok = trim(nBusPatches,x,alpha,tmean,tvar,ymin,ymax); if ( ok < 0 ) { ymax = occMax; } else { ymax = TMath::Max(ymax,occMax); } hbp.SetMaximum(ymax*1.4); TPaveText* text = new TPaveText(0.55,0.85,0.99,0.99,"NDC"); if (ok < 0 ) { text->AddText("Could not compute truncated mean. Not enough events ?"); text->SetFillColor(2); } else if (!nPads || !nBusPatches) { text->AddText("Could not get the total number of pads. ERROR !!!"); text->SetFillColor(2); } else { Float_t missingPadFraction = nMissingPads*100.0/nPads; Float_t missingBusPatchFraction = nMissingBusPatches*100.0/nBusPatches; Float_t aboveLimitFraction = nBusPatchesAboveLimit*100.0/nBusPatches; text->AddText(Form("%5.2f %% of missing buspatches (%d out of %d)",missingBusPatchFraction,nMissingBusPatches,nBusPatches)); text->AddText(Form("%5.2f %% of missing pads (%d out of %d)",missingPadFraction,nMissingPads,nPads)); text->AddText(Form("%5.2f %% bus patches above the %5.2f %% limit",aboveLimitFraction,occError)); text->AddText(Form("Truncated mean at %2d %% is %7.2f %%",(Int_t)(alpha*100),tmean)); if ( missingPadFraction > 10.0 || aboveLimitFraction > 5.0 ) { text->SetFillColor(2); } else { text->SetFillColor(3); } } hbp.GetListOfFunctions()->Add(text); }