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#include <BeamHaloAnalyzer.h>
Definition at line 153 of file BeamHaloAnalyzer.h.
| BeamHaloAnalyzer::BeamHaloAnalyzer | ( | const edm::ParameterSet & | iConfig | ) | [explicit] |
Definition at line 20 of file BeamHaloAnalyzer.cc.
References edm::ParameterSet::exists(), edm::ParameterSet::getParameter(), MuonSegmentMatcher_cff::MuonSegmentMatcher, MuonServiceProxy_cff::MuonServiceProxy, dbtoconf::out, OutputFileName, and AlCaHLTBitMon_QueryRunRegistry::string.
{
OutputFileName = iConfig.getParameter<std::string>("OutputFile");
TextFileName = iConfig.getParameter<std::string>("TextFile");
if(TextFileName.size())
out = new ofstream(TextFileName.c_str() );
if( iConfig.exists("StandardDQM") ) // If StandardDQM == true , coarse binning is used on selected (important) histograms
StandardDQM = iConfig.getParameter<bool>("StandardDQM");
else
StandardDQM = false;
//Get Input Tags
//Digi Level
IT_L1MuGMTReadout = iConfig.getParameter<edm::InputTag>("L1MuGMTReadoutLabel");
//RecHit Level
IT_CSCRecHit = iConfig.getParameter<edm::InputTag>("CSCRecHitLabel");
IT_EBRecHit = iConfig.getParameter<edm::InputTag>("EBRecHitLabel");
IT_EERecHit = iConfig.getParameter<edm::InputTag>("EERecHitLabel");
IT_ESRecHit = iConfig.getParameter<edm::InputTag>("ESRecHitLabel");
IT_HBHERecHit = iConfig.getParameter<edm::InputTag>("HBHERecHitLabel");
IT_HFRecHit = iConfig.getParameter<edm::InputTag>("HFRecHitLabel");
IT_HORecHit = iConfig.getParameter<edm::InputTag>("HORecHitLabel");
//Higher Level Reco
IT_CSCSegment = iConfig.getParameter<edm::InputTag>("CSCSegmentLabel");
IT_CosmicStandAloneMuon = iConfig.getParameter<edm::InputTag>("CosmicStandAloneMuonLabel");
IT_BeamHaloMuon = iConfig.getParameter<edm::InputTag>("BeamHaloMuonLabel");
IT_CollisionMuon = iConfig.getParameter<edm::InputTag>("CollisionMuonLabel");
IT_CollisionStandAloneMuon = iConfig.getParameter<edm::InputTag>("CollisionStandAloneMuonLabel");
IT_met = iConfig.getParameter<edm::InputTag>("metLabel");
IT_CaloTower = iConfig.getParameter<edm::InputTag>("CaloTowerLabel");
IT_SuperCluster = iConfig.getParameter<edm::InputTag>("SuperClusterLabel");
IT_Photon = iConfig.getParameter<edm::InputTag>("PhotonLabel") ;
//Halo Data
IT_CSCHaloData = iConfig.getParameter<edm::InputTag> ("CSCHaloDataLabel");
IT_EcalHaloData = iConfig.getParameter<edm::InputTag>("EcalHaloDataLabel");
IT_HcalHaloData = iConfig.getParameter<edm::InputTag>("HcalHaloDataLabel");
IT_GlobalHaloData = iConfig.getParameter<edm::InputTag>("GlobalHaloDataLabel");
IT_BeamHaloSummary = iConfig.getParameter<edm::InputTag>("BeamHaloSummaryLabel");
FolderName = iConfig.getParameter<std::string>("folderName");
DumpMET = iConfig.getParameter<double>("DumpMET");
//Muon to Segment Matching
edm::ParameterSet serviceParameters = iConfig.getParameter<edm::ParameterSet>("ServiceParameters");
TheService = new MuonServiceProxy(serviceParameters);
edm::ParameterSet matchParameters = iConfig.getParameter<edm::ParameterSet>("MatchParameters");
TheMatcher = new MuonSegmentMatcher(matchParameters, TheService);
}
| BeamHaloAnalyzer::~BeamHaloAnalyzer | ( | ) |
Definition at line 880 of file BeamHaloAnalyzer.cc.
{
}
| void BeamHaloAnalyzer::analyze | ( | const edm::Event & | iEvent, |
| const edm::EventSetup & | iSetup | ||
| ) | [private, virtual] |
Implements edm::EDAnalyzer.
Definition at line 303 of file BeamHaloAnalyzer.cc.
References angle(), reco::HaloData::both, edm::EventBase::bunchCrossing(), CSC(), CSCDetId, reco::CSCHaloData::CSCHaloHLTAccept(), reco::BeamHaloSummary::CSCLooseHaloId(), reco::BeamHaloSummary::CSCTightHaloId(), reco::GlobalHaloData::DeltaMEx(), reco::GlobalHaloData::DeltaMEy(), reco::BeamHaloSummary::EcalLooseHaloId(), reco::BeamHaloSummary::EcalTightHaloId(), CSCDetId::endcap(), PV3DBase< T, PVType, FrameType >::eta(), edm::EventID::event(), HcalObjRepresent::Fill(), reco::MuonTimeExtra::freeInverseBeta(), edm::EventSetup::get(), edm::Event::getByLabel(), reco::GlobalHaloData::GetCorrectedCaloMET(), reco::CSCHaloData::GetCSCTrackImpactPositions(), reco::GlobalHaloData::GetMatchedEcalPhiWedges(), reco::GlobalHaloData::GetMatchedHcalPhiWedges(), reco::HcalHaloData::GetPhiWedges(), reco::EcalHaloData::GetPhiWedges(), reco::CSCHaloData::GetSegmentsInBothEndcaps(), reco::EcalHaloData::GetShowerShapesAngle(), reco::EcalHaloData::GetShowerShapesRoundness(), reco::EcalHaloData::GetSuperClusters(), reco::CSCHaloData::GetTracks(), reco::BeamHaloSummary::GlobalLooseHaloId(), reco::BeamHaloSummary::GlobalTightHaloId(), reco::BeamHaloSummary::HcalLooseHaloId(), reco::BeamHaloSummary::HcalTightHaloId(), i, edm::EventBase::id(), createXMLFile::iphi, edm::HandleBase::isValid(), j, reco::BeamHaloSummary::LooseId(), edm::EventBase::luminosityBlock(), reco::HaloData::minus, DetId::Muon, n, reco::CSCHaloData::NFlatHaloSegments(), reco::CSCHaloData::NOutOfTimeHits(), reco::CSCHaloData::NOutOfTimeTriggers(), reco::CSCHaloData::NTracksSmallBeta(), reco::CSCHaloData::NTracksSmallBetaAndSmalldT(), reco::CSCHaloData::NTracksSmalldT(), reco::CSCHaloData::NumberOfHaloTracks(), reco::CSCHaloData::NumberOfHaloTriggers(), reco::CSCHaloData::NumberOfOutOfTimeTriggers(), dbtoconf::out, PV3DBase< T, PVType, FrameType >::phi(), Phi_To_iPhi(), reco::HaloData::plus, edm::Handle< T >::product(), reco::LeafCandidate::pt(), alignCSCRings::r, edm::Event::run(), edm::RefVector< C, T, F >::size(), reco::MET::sumEt(), GeomDet::surface(), reco::BeamHaloSummary::TightId(), cond::rpcobgas::time, Surface::toGlobal(), PV3DBase< T, PVType, FrameType >::x(), PV3DBase< T, PVType, FrameType >::y(), PV3DBase< T, PVType, FrameType >::z(), and z.
{
EventID TheEvent = iEvent.id();
int BXN = iEvent.bunchCrossing() ;
bool Dump = TextFileName.size();
int TheEventNumber = TheEvent.event();
int Lumi = iEvent.luminosityBlock();
int Run = iEvent.run();
//Get CSC Geometry
edm::ESHandle<CSCGeometry> TheCSCGeometry;
iSetup.get<MuonGeometryRecord>().get(TheCSCGeometry);
//Get CaloGeometry
edm::ESHandle<CaloGeometry> TheCaloGeometry;
iSetup.get<CaloGeometryRecord>().get(TheCaloGeometry);
//Get Stand-alone Muons from Cosmic Muon Reconstruction
edm::Handle< reco::MuonCollection > TheCosmics;
iEvent.getByLabel(IT_CosmicStandAloneMuon, TheCosmics);
edm::Handle<reco::MuonTimeExtraMap> TheCSCTimeMap;
iEvent.getByLabel(IT_CosmicStandAloneMuon.label(),"csc",TheCSCTimeMap);
bool CSCTrackPlus = false; bool CSCTrackMinus = false;
int imucount=0;
if( TheCosmics.isValid() )
{
for( reco::MuonCollection::const_iterator iMuon = TheCosmics->begin() ; iMuon != TheCosmics->end() ; iMuon++, imucount++ )
{
reco::TrackRef Track = iMuon->outerTrack();
if(!Track) continue;
if( !CSCTrackPlus || !CSCTrackMinus )
{
if( Track->eta() > 0 || Track->outerPosition().z() > 0 || Track->innerPosition().z() > 0 ) CSCTrackPlus = true ;
else if( Track->eta() < 0 || Track->outerPosition().z() < 0 || Track->innerPosition().z() < 0) CSCTrackMinus = true;
}
float innermost_phi = 0.;
float outermost_phi = 0.;
float innermost_z = 99999.;
float outermost_z = 0.;
float innermost_eta = 0.;
float outermost_eta = 0.;
float innermost_x =0.;
float innermost_y =0.;
float innermost_r =0.;
for(unsigned int j = 0 ; j < Track->extra()->recHits().size(); j++ )
{
edm::Ref<TrackingRecHitCollection> hit( Track->extra()->recHits(), j );
DetId TheDetUnitId(hit->geographicalId());
if( TheDetUnitId.det() != DetId::Muon ) continue;
if( TheDetUnitId.subdetId() != MuonSubdetId::CSC ) continue;
const GeomDetUnit *TheUnit = TheCSCGeometry->idToDetUnit(TheDetUnitId);
LocalPoint TheLocalPosition = hit->localPosition();
const BoundPlane& TheSurface = TheUnit->surface();
const GlobalPoint TheGlobalPosition = TheSurface.toGlobal(TheLocalPosition);
float z = TheGlobalPosition.z();
if( TMath::Abs(z) < innermost_z )
{
innermost_phi = TheGlobalPosition.phi();
innermost_eta = TheGlobalPosition.eta();
innermost_z = TheGlobalPosition.z();
innermost_x = TheGlobalPosition.x();
innermost_y = TheGlobalPosition.y();
innermost_r = TMath::Sqrt( innermost_x*innermost_x + innermost_y*innermost_y );
}
if( TMath::Abs(z) > outermost_z)
{
outermost_phi = TheGlobalPosition.phi() ;
outermost_eta = TheGlobalPosition.eta() ;
outermost_z = TheGlobalPosition.z();
}
}
float dphi = TMath::Abs( outermost_phi - innermost_phi );
float deta = TMath::Abs( outermost_eta - innermost_eta );
hExtra_CSCTrackInnerOuterDPhi -> Fill( dphi );
hExtra_CSCTrackInnerOuterDEta -> Fill( deta );
hExtra_CSCTrackChi2Ndof -> Fill(Track->normalizedChi2() );
hExtra_CSCTrackNHits -> Fill(Track->numberOfValidHits() );
hExtra_InnerMostTrackHitR ->Fill(innermost_r);
hExtra_InnerMostTrackHitPhi ->Fill(innermost_phi);
if( !StandardDQM )
{
hExtra_InnerMostTrackHitXY ->Fill(innermost_x, innermost_y);
hExtra_InnerMostTrackHitiPhi ->Fill(Phi_To_iPhi(innermost_phi));
if(innermost_z > 0 )
hExtra_InnerMostTrackHitRPlusZ ->Fill(innermost_z, innermost_r);
else
hExtra_InnerMostTrackHitRMinusZ ->Fill(innermost_z, innermost_r);
}
std::vector<const CSCSegment*> MatchedSegments = TheMatcher->matchCSC(*Track,iEvent);
// Find the inner and outer segments separately in case they don't agree completely with recHits
// Plan for the possibility segments in both endcaps
float InnerSegmentTime[2] = {0,0};
float OuterSegmentTime[2] = {0,0};
float innermost_seg_z[2] = {1500,1500};
float outermost_seg_z[2] = {0,0};
for (std::vector<const CSCSegment*>::const_iterator segment =MatchedSegments.begin();
segment != MatchedSegments.end(); ++segment)
{
CSCDetId TheCSCDetId((*segment)->cscDetId());
const CSCChamber* TheCSCChamber = TheCSCGeometry->chamber(TheCSCDetId);
LocalPoint TheLocalPosition = (*segment)->localPosition();
const GlobalPoint TheGlobalPosition = TheCSCChamber->toGlobal(TheLocalPosition);
float z = TheGlobalPosition.z();
int TheEndcap = TheCSCDetId.endcap();
if( TMath::Abs(z) < innermost_seg_z[TheEndcap-1] )
{
innermost_seg_z[TheEndcap-1] = TMath::Abs(z);
InnerSegmentTime[TheEndcap-1] = (*segment)->time();
}
if( TMath::Abs(z) > outermost_seg_z[TheEndcap-1] )
{
outermost_seg_z[TheEndcap-1] = TMath::Abs(z);
OuterSegmentTime[TheEndcap-1] = (*segment)->time();
}
}
float dT_Segment = 0; // default safe value, looks like collision muon
if( innermost_seg_z[0] < outermost_seg_z[0]) // two segments in ME+
dT_Segment = OuterSegmentTime[0]-InnerSegmentTime[0];
if( innermost_seg_z[1] < outermost_seg_z[1]) // two segments in ME-
{
// replace the measurement if there weren't segments in ME+ or
// if the track in ME- has timing more consistent with an incoming particle
if (dT_Segment == 0.0 || OuterSegmentTime[1]-InnerSegmentTime[1] < dT_Segment)
dT_Segment = OuterSegmentTime[1]-InnerSegmentTime[1] ;
}
hCSCHaloData_SegmentdT->Fill(dT_Segment);
// Analyze the MuonTimeExtra information
reco::MuonRef muonR(TheCosmics,imucount);
if (TheCSCTimeMap.isValid()){
const reco::MuonTimeExtraMap & timeMapCSC = *TheCSCTimeMap;
reco::MuonTimeExtra timecsc = timeMapCSC[muonR];
float freeInverseBeta = timecsc.freeInverseBeta();
hCSCHaloData_FreeInverseBeta->Fill(freeInverseBeta);
hCSCHaloData_FreeInverseBetaVsSegmentdT->Fill(dT_Segment,freeInverseBeta);
}
}
}
//Get CSC Segments
edm::Handle<CSCSegmentCollection> TheCSCSegments;
iEvent.getByLabel(IT_CSCSegment, TheCSCSegments);
// Group segments according to endcaps
std::vector< CSCSegment> vCSCSegments_Plus;
std::vector< CSCSegment> vCSCSegments_Minus;
bool CSCSegmentPlus = false;
bool CSCSegmentMinus=false;
if( TheCSCSegments.isValid() )
{
for(CSCSegmentCollection::const_iterator iSegment = TheCSCSegments->begin(); iSegment != TheCSCSegments->end(); iSegment++)
{
const std::vector<CSCRecHit2D> vCSCRecHits = iSegment->specificRecHits();
CSCDetId iDetId = (CSCDetId)(*iSegment).cscDetId();
if ( iDetId.endcap() == 1 ) vCSCSegments_Plus.push_back( *iSegment );
else vCSCSegments_Minus.push_back( *iSegment );
}
}
// Are there segments on the plus/minus side?
if( vCSCSegments_Plus.size() ) CSCSegmentPlus = true;
if( vCSCSegments_Minus.size() ) CSCSegmentMinus = true;
//Get CSC RecHits
Handle<CSCRecHit2DCollection> TheCSCRecHits;
iEvent.getByLabel(IT_CSCRecHit, TheCSCRecHits);
bool CSCRecHitPlus = false;
bool CSCRecHitMinus = false;
if( TheCSCRecHits.isValid() )
{
for(CSCRecHit2DCollection::const_iterator iCSCRecHit = TheCSCRecHits->begin(); iCSCRecHit != TheCSCRecHits->end(); iCSCRecHit++ )
{
DetId TheDetUnitId(iCSCRecHit->geographicalId());
const GeomDetUnit *TheUnit = (*TheCSCGeometry).idToDetUnit(TheDetUnitId);
LocalPoint TheLocalPosition = iCSCRecHit->localPosition();
const BoundPlane& TheSurface = TheUnit->surface();
GlobalPoint TheGlobalPosition = TheSurface.toGlobal(TheLocalPosition);
//Are there hits on the plus/minus side?
if ( TheGlobalPosition.z() > 0 ) CSCRecHitPlus = true;
else CSCRecHitMinus = true;
}
}
//Get EB RecHits
edm::Handle<EBRecHitCollection> TheEBRecHits;
iEvent.getByLabel(IT_EBRecHit, TheEBRecHits);
int EBHits=0;
if( TheEBRecHits.isValid() )
{
for( EBRecHitCollection::const_iterator iEBRecHit = TheEBRecHits->begin() ; iEBRecHit != TheEBRecHits->end(); iEBRecHit++)
{
if( iEBRecHit->energy() < 0.5 ) continue;
DetId id = DetId( iEBRecHit->id() ) ;
EBDetId EcalId ( id.rawId() );
int ieta = EcalId.ieta() ;
if(!StandardDQM)
hExtra_EcalToF ->Fill(ieta, iEBRecHit->time() );
EBHits++;
}
}
//Get HB/HE RecHits
edm::Handle<HBHERecHitCollection> TheHBHERecHits;
iEvent.getByLabel(IT_HBHERecHit, TheHBHERecHits);
if( TheHBHERecHits.isValid() )
{
for( HBHERecHitCollection::const_iterator iHBHERecHit = TheHBHERecHits->begin(); iHBHERecHit != TheHBHERecHits->end(); iHBHERecHit++)
{
if( iHBHERecHit->energy() < 1.) continue;
HcalDetId id = HcalDetId( iHBHERecHit->id() );
if(!StandardDQM)
hExtra_HcalToF->Fill( id.ieta(), iHBHERecHit->time() ) ;
}
}
//Get MET
edm::Handle< reco::CaloMETCollection > TheCaloMET;
iEvent.getByLabel(IT_met, TheCaloMET);
//Get CSCHaloData
edm::Handle<reco::CSCHaloData> TheCSCDataHandle;
iEvent.getByLabel(IT_CSCHaloData,TheCSCDataHandle);
int TheHaloOrigin = 0;
if (TheCSCDataHandle.isValid())
{
const CSCHaloData CSCData = (*TheCSCDataHandle.product());
if( CSCData.NumberOfOutOfTimeTriggers(HaloData::plus) && !CSCData.NumberOfOutOfTimeTriggers(HaloData::minus) )
TheHaloOrigin = 1;
else if ( CSCData.NumberOfOutOfTimeTriggers(HaloData::minus) && !CSCData.NumberOfOutOfTimeTriggers(HaloData::plus))
TheHaloOrigin = -1 ;
for( std::vector<GlobalPoint>::const_iterator i=CSCData.GetCSCTrackImpactPositions().begin(); i != CSCData.GetCSCTrackImpactPositions().end() ; i++ )
{
float r = TMath::Sqrt( i->x()*i->x() + i->y()*i->y() );
if( !StandardDQM )
{
hCSCHaloData_InnerMostTrackHitXY->Fill( i->x(), i->y() );
hCSCHaloData_InnerMostTrackHitiPhi ->Fill( Phi_To_iPhi( i->phi()));
if( i->z() > 0 )
hCSCHaloData_InnerMostTrackHitRPlusZ ->Fill(i->z(), r) ;
else
hCSCHaloData_InnerMostTrackHitRMinusZ ->Fill(i->z(), r) ;
}
hCSCHaloData_InnerMostTrackHitR ->Fill(r);
hCSCHaloData_InnerMostTrackHitPhi ->Fill( i->phi());
}
hCSCHaloData_L1HaloTriggersMEPlus -> Fill ( CSCData.NumberOfHaloTriggers(HaloData::plus) );
hCSCHaloData_L1HaloTriggersMEMinus -> Fill ( CSCData.NumberOfHaloTriggers(HaloData::minus));
hCSCHaloData_L1HaloTriggers -> Fill ( CSCData.NumberOfHaloTriggers(HaloData::both));
hCSCHaloData_HLHaloTriggers -> Fill ( CSCData.CSCHaloHLTAccept());
hCSCHaloData_TrackMultiplicityMEPlus ->Fill ( CSCData.NumberOfHaloTracks(HaloData::plus) );
hCSCHaloData_TrackMultiplicityMEMinus ->Fill ( CSCData.NumberOfHaloTracks(HaloData::minus) );
hCSCHaloData_TrackMultiplicity->Fill( CSCData.GetTracks().size() );
hCSCHaloData_NOutOfTimeTriggersMEPlus->Fill( CSCData.NOutOfTimeTriggers(HaloData::plus) );
hCSCHaloData_NOutOfTimeTriggersMEMinus->Fill( CSCData.NOutOfTimeTriggers(HaloData::minus) );
hCSCHaloData_NOutOfTimeTriggers->Fill( CSCData.NOutOfTimeTriggers(HaloData::both) );
hCSCHaloData_NOutOfTimeHits->Fill( CSCData.NOutOfTimeHits() );
hCSCHaloData_NOutOfTimeTriggersvsL1HaloExists->Fill( CSCData.NOutOfTimeTriggers(HaloData::both), CSCData.NumberOfHaloTriggers(HaloData::both) >0 );
hCSCHaloData_NTracksSmalldT ->Fill( CSCData.NTracksSmalldT() );
hCSCHaloData_NTracksSmallBeta ->Fill( CSCData.NTracksSmallBeta() );
hCSCHaloData_NTracksSmallBetaAndSmalldT->Fill( CSCData.NTracksSmallBetaAndSmalldT());
hCSCHaloData_NTracksSmalldTvsNHaloTracks->Fill( CSCData.GetTracks().size(), CSCData.NTracksSmalldT() );
// MLR
hCSCHaloData_NFlatHaloSegments->Fill(CSCData.NFlatHaloSegments());
hCSCHaloData_SegmentsInBothEndcaps->Fill(CSCData.GetSegmentsInBothEndcaps());
if (CSCData.GetSegmentsInBothEndcaps())
hCSCHaloData_NFlatSegmentsInBothEndcaps->Fill(CSCData.NFlatHaloSegments());
// End MLR
}
//Get EcalHaloData
edm::Handle<reco::EcalHaloData> TheEcalHaloData;
iEvent.getByLabel(IT_EcalHaloData, TheEcalHaloData );
if( TheEcalHaloData.isValid() )
{
const EcalHaloData EcalData = (*TheEcalHaloData.product());
std::vector<PhiWedge> EcalWedges = EcalData.GetPhiWedges();
for(std::vector<PhiWedge>::const_iterator iWedge = EcalWedges.begin() ; iWedge != EcalWedges.end(); iWedge ++ )
{
if(!StandardDQM )
{
hEcalHaloData_PhiWedgeEnergy->Fill( iWedge->Energy() );
hEcalHaloData_PhiWedgeMinTime ->Fill( iWedge->MinTime() );
hEcalHaloData_PhiWedgeMaxTime ->Fill( iWedge->MaxTime() );
hEcalHaloData_PhiWedgeMinVsMaxTime->Fill(iWedge->MinTime() , iWedge->MaxTime() ) ;
hEcalHaloData_PhiWedgePlusZDirectionConfidence->Fill( iWedge->PlusZDirectionConfidence() );
hEcalHaloData_PhiWedgeiPhi->Fill(iWedge->iPhi() ) ;
}
hEcalHaloData_PhiWedgeZDirectionConfidence ->Fill( iWedge->ZDirectionConfidence() );
hEcalHaloData_PhiWedgeConstituents->Fill( iWedge->NumberOfConstituents() ) ;
}
hEcalHaloData_PhiWedgeMultiplicity->Fill( EcalWedges.size() );
edm::ValueMap<float> vm_Angle = EcalData.GetShowerShapesAngle();
edm::ValueMap<float> vm_Roundness = EcalData.GetShowerShapesRoundness();
//Access selected SuperClusters
for(unsigned int n = 0 ; n < EcalData.GetSuperClusters().size() ; n++ )
{
edm::Ref<SuperClusterCollection> cluster(EcalData.GetSuperClusters(), n );
float angle = vm_Angle[cluster];
float roundness = vm_Roundness[cluster];
hEcalHaloData_SuperClusterShowerShapes->Fill(angle, roundness);
hEcalHaloData_SuperClusterNHits->Fill( cluster->size() );
hEcalHaloData_SuperClusterEnergy->Fill(cluster->energy() );
if(!StandardDQM)
{
hEcalHaloData_SuperClusterPhiVsEta->Fill(cluster->eta() ,cluster->phi() );
}
}
}
//Get HcalHaloData
edm::Handle<reco::HcalHaloData> TheHcalHaloData;
iEvent.getByLabel(IT_HcalHaloData ,TheHcalHaloData );
if( TheHcalHaloData.isValid( ) )
{
const HcalHaloData HcalData = (*TheHcalHaloData.product());
std::vector<PhiWedge> HcalWedges = HcalData.GetPhiWedges();
hHcalHaloData_PhiWedgeMultiplicity ->Fill( HcalWedges.size() );
for(std::vector<PhiWedge>::const_iterator iWedge = HcalWedges.begin() ; iWedge != HcalWedges.end(); iWedge ++ )
{
if( !StandardDQM )
{
hHcalHaloData_PhiWedgeEnergy ->Fill( iWedge->Energy() );
hHcalHaloData_PhiWedgeMinTime ->Fill( iWedge->MinTime() );
hHcalHaloData_PhiWedgeMaxTime ->Fill( iWedge->MaxTime() );
hHcalHaloData_PhiWedgePlusZDirectionConfidence ->Fill( iWedge->PlusZDirectionConfidence() );
hHcalHaloData_PhiWedgeMinVsMaxTime ->Fill( iWedge->MinTime() , iWedge->MaxTime() );
hHcalHaloData_PhiWedgeiPhi ->Fill( iWedge->iPhi() );
}
hHcalHaloData_PhiWedgeConstituents ->Fill( iWedge->NumberOfConstituents() );
hHcalHaloData_PhiWedgeZDirectionConfidence ->Fill( iWedge->ZDirectionConfidence() );
}
}
if(!StandardDQM)
{
//Get GlobalHaloData
edm::Handle<reco::GlobalHaloData> TheGlobalHaloData;
iEvent.getByLabel(IT_GlobalHaloData, TheGlobalHaloData );
if( TheGlobalHaloData.isValid() )
{
const GlobalHaloData GlobalData =(*TheGlobalHaloData.product());
if( TheCaloMET.isValid() )
{
// Get Raw Uncorrected CaloMET
const CaloMETCollection *calometcol = TheCaloMET.product();
const CaloMET *RawMET = &(calometcol->front());
// Get BeamHalo Corrected CaloMET
const CaloMET CorrectedMET = GlobalData.GetCorrectedCaloMET(*RawMET);
hGlobalHaloData_MExCorrection ->Fill( GlobalData.DeltaMEx() );
hGlobalHaloData_MEyCorrection ->Fill( GlobalData.DeltaMEy() );
hGlobalHaloData_HaloCorrectedMET->Fill(CorrectedMET.pt() );
hGlobalHaloData_RawMETMinusHaloCorrectedMET ->Fill( RawMET->pt() - CorrectedMET.pt() );
if( RawMET->sumEt() )
hGlobalHaloData_RawMETOverSumEt ->Fill( RawMET->pt() / RawMET->sumEt() );
}
// Get Matched Hcal Phi Wedges
std::vector<PhiWedge> HcalWedges = GlobalData.GetMatchedHcalPhiWedges();
hGlobalHaloData_MatchedHcalPhiWedgeMultiplicity ->Fill(HcalWedges.size());
// Loop over Matched Hcal Phi Wedges
for( std::vector<PhiWedge>::const_iterator iWedge = HcalWedges.begin() ; iWedge != HcalWedges.end() ; iWedge ++ )
{
hGlobalHaloData_MatchedHcalPhiWedgeEnergy ->Fill( iWedge->Energy() );
hGlobalHaloData_MatchedHcalPhiWedgeConstituents ->Fill( iWedge->NumberOfConstituents());
hGlobalHaloData_MatchedHcalPhiWedgeiPhi ->Fill( iWedge->iPhi() );
hGlobalHaloData_MatchedHcalPhiWedgeMinTime ->Fill( iWedge->MinTime() );
hGlobalHaloData_MatchedHcalPhiWedgeMaxTime ->Fill( iWedge->MaxTime() );
hGlobalHaloData_MatchedHcalPhiWedgeZDirectionConfidence ->Fill( iWedge->ZDirectionConfidence() ) ;
if( TheHBHERecHits.isValid() )
{
for( HBHERecHitCollection::const_iterator iHBHERecHit = TheHBHERecHits->begin(); iHBHERecHit != TheHBHERecHits->end(); iHBHERecHit++)
{
HcalDetId id = HcalDetId( iHBHERecHit->id() ) ;
int iphi = id.iphi() ;
if( iphi != iWedge->iPhi() ) continue;
if( iHBHERecHit->energy() < 1.0) continue; // Otherwise there are thousands of hits per event (even with negative energies)
float time = iHBHERecHit->time();
int ieta = id.ieta();
hExtra_HcalToF_HaloId ->Fill( ieta, time );
}
}
}
// Get Matched Hcal Phi Wedges
std::vector<PhiWedge> EcalWedges = GlobalData.GetMatchedEcalPhiWedges();
hGlobalHaloData_MatchedEcalPhiWedgeMultiplicity ->Fill(EcalWedges.size());
for( std::vector<PhiWedge>::const_iterator iWedge = EcalWedges.begin() ; iWedge != EcalWedges.end() ; iWedge ++ )
{
hGlobalHaloData_MatchedEcalPhiWedgeEnergy ->Fill(iWedge->Energy());
hGlobalHaloData_MatchedEcalPhiWedgeConstituents ->Fill(iWedge->NumberOfConstituents());
hGlobalHaloData_MatchedEcalPhiWedgeiPhi ->Fill(iWedge->iPhi());
hGlobalHaloData_MatchedEcalPhiWedgeMinTime ->Fill(iWedge->MinTime());
hGlobalHaloData_MatchedEcalPhiWedgeMaxTime ->Fill(iWedge->MaxTime());
hGlobalHaloData_MatchedEcalPhiWedgeZDirectionConfidence ->Fill( iWedge->ZDirectionConfidence() ) ;
if( TheEBRecHits.isValid() )
{
for( EBRecHitCollection::const_iterator iEBRecHit = TheEBRecHits->begin() ; iEBRecHit != TheEBRecHits->end(); iEBRecHit++ )
{
if( iEBRecHit->energy() < 0.5 ) continue;
DetId id = DetId( iEBRecHit->id() ) ;
EBDetId EcalId ( id.rawId() );
int iPhi = EcalId.iphi() ;
iPhi = (iPhi-1)/5 + 1;
if( iPhi != iWedge->iPhi() ) continue;
hExtra_EcalToF_HaloId ->Fill(EcalId.ieta(), iEBRecHit->time() );
}
}
}
}
}
// Get BeamHaloSummary
edm::Handle<BeamHaloSummary> TheBeamHaloSummary ;
iEvent.getByLabel(IT_BeamHaloSummary, TheBeamHaloSummary) ;
if( TheBeamHaloSummary.isValid() )
{
const BeamHaloSummary TheSummary = (*TheBeamHaloSummary.product() );
if( TheSummary.CSCLooseHaloId() )
{
hBeamHaloSummary_Id ->Fill(1);
if(!StandardDQM) hBeamHaloSummary_BXN -> Fill( 1, BXN );
if(Dump)*out << std::setw(15) << "CSCLoose" << std::setw(15) << Run << std::setw(15) << Lumi << std::setw(15) << TheEventNumber << std::endl;
}
if( TheSummary.CSCTightHaloId() )
{
hBeamHaloSummary_Id ->Fill(2);
if(!StandardDQM)hBeamHaloSummary_BXN -> Fill( 2, BXN );
}
if( TheSummary.EcalLooseHaloId() )
{
hBeamHaloSummary_Id ->Fill(3);
if(!StandardDQM) hBeamHaloSummary_BXN -> Fill( 3, BXN );
if(Dump) *out << std::setw(15) << "EcalLoose" << std::setw(15) << Run << std::setw(15) << Lumi << std::setw(15) << TheEventNumber << std::endl;
}
if( TheSummary.EcalTightHaloId() )
{
hBeamHaloSummary_Id ->Fill(4);
if(!StandardDQM)hBeamHaloSummary_BXN -> Fill( 4, BXN );
}
if( TheSummary.HcalLooseHaloId() )
{
hBeamHaloSummary_Id ->Fill(5);
if(!StandardDQM) hBeamHaloSummary_BXN -> Fill( 5, BXN );
if(Dump) *out << std::setw(15) << "HcalLoose" << std::setw(15) << Run << std::setw(15) << Lumi << std::setw(15) << TheEventNumber << std::endl;
}
if( TheSummary.HcalTightHaloId() )
{
hBeamHaloSummary_Id ->Fill(6);
if(!StandardDQM)hBeamHaloSummary_BXN -> Fill( 6, BXN );
}
if( TheSummary.GlobalLooseHaloId())
{
hBeamHaloSummary_Id ->Fill(7);
if(!StandardDQM)hBeamHaloSummary_BXN -> Fill( 7, BXN );
if(Dump) *out << std::setw(15) << "GlobalLoose" << std::setw(15) << Run << std::setw(15) << Lumi << std::setw(15) << TheEventNumber << std::endl;
}
if( TheSummary.GlobalTightHaloId() )
{
hBeamHaloSummary_Id ->Fill(8);
if(!StandardDQM)hBeamHaloSummary_BXN -> Fill( 8, BXN );
}
if( TheSummary.LooseId() )
{
hBeamHaloSummary_Id ->Fill(9);
if(!StandardDQM)hBeamHaloSummary_BXN -> Fill( 9, BXN );
}
if( TheSummary.TightId() )
{
hBeamHaloSummary_Id ->Fill(10);
if(!StandardDQM)hBeamHaloSummary_BXN -> Fill( 10, BXN );
}
if( !TheSummary.EcalLooseHaloId() && !TheSummary.HcalLooseHaloId() && !TheSummary.CSCLooseHaloId() && !TheSummary.GlobalLooseHaloId() )
{
hBeamHaloSummary_Id ->Fill(11);
if(!StandardDQM)hBeamHaloSummary_BXN -> Fill( 11, BXN );
}
}
if( TheCaloMET.isValid() )
{
const CaloMETCollection *calometcol = TheCaloMET.product();
const CaloMET *calomet = &(calometcol->front());
if( calomet->pt() > DumpMET )
if(Dump) *out << std::setw(15) << "HighMET" << std::setw(15) << Run << std::setw(15) << Lumi << std::setw(15) << TheEventNumber << std::endl;
//Fill CSC Activity Plot
if( calomet->pt() > 15.0 )
{
if( TheHaloOrigin > 0 )
{
if( CSCTrackPlus && CSCTrackMinus )
hExtra_CSCActivityWithMET->Fill(1,1);
else if( CSCTrackPlus && CSCSegmentMinus)
hExtra_CSCActivityWithMET->Fill(1,2);
else if( CSCTrackPlus && CSCRecHitMinus )
hExtra_CSCActivityWithMET->Fill(1,3);
else if( CSCTrackPlus )
hExtra_CSCActivityWithMET->Fill(1,4);
else if( CSCSegmentPlus && CSCTrackMinus )
hExtra_CSCActivityWithMET->Fill(2,1);
else if( CSCSegmentPlus && CSCSegmentMinus )
hExtra_CSCActivityWithMET-> Fill(2,2);
else if( CSCSegmentPlus && CSCRecHitMinus )
hExtra_CSCActivityWithMET-> Fill(2,3);
else if( CSCSegmentPlus )
hExtra_CSCActivityWithMET->Fill(2,4 );
else if( CSCRecHitPlus && CSCTrackMinus )
hExtra_CSCActivityWithMET->Fill(3,1);
else if( CSCRecHitPlus && CSCSegmentMinus )
hExtra_CSCActivityWithMET->Fill(3,2);
else if( CSCRecHitPlus && CSCRecHitMinus )
hExtra_CSCActivityWithMET->Fill(3,3);
else if( CSCRecHitPlus )
hExtra_CSCActivityWithMET->Fill(3,4);
else
hExtra_CSCActivityWithMET->Fill(4,4);
}
else if( TheHaloOrigin < 0 )
{
if( CSCTrackMinus && CSCTrackPlus )
hExtra_CSCActivityWithMET->Fill(1,1);
else if( CSCTrackMinus && CSCSegmentPlus)
hExtra_CSCActivityWithMET->Fill(1,2);
else if( CSCTrackMinus && CSCRecHitPlus )
hExtra_CSCActivityWithMET->Fill(1,3);
else if( CSCTrackMinus )
hExtra_CSCActivityWithMET->Fill(1,4);
else if( CSCSegmentMinus && CSCTrackPlus)
hExtra_CSCActivityWithMET->Fill(2,1);
else if( CSCSegmentMinus && CSCSegmentPlus )
hExtra_CSCActivityWithMET->Fill(2,2 );
else if( CSCSegmentMinus && CSCRecHitPlus )
hExtra_CSCActivityWithMET->Fill(2,3);
else if( CSCSegmentMinus )
hExtra_CSCActivityWithMET->Fill(2,4);
else if( CSCRecHitMinus && CSCTrackPlus )
hExtra_CSCActivityWithMET->Fill(3,1 );
else if( CSCRecHitMinus && CSCSegmentPlus )
hExtra_CSCActivityWithMET->Fill(3,2 );
else if( CSCRecHitMinus && CSCRecHitPlus )
hExtra_CSCActivityWithMET->Fill(3,3);
else if( CSCRecHitMinus )
hExtra_CSCActivityWithMET->Fill(3,4);
else hExtra_CSCActivityWithMET->Fill(4,4);
}
}
}
}
| void BeamHaloAnalyzer::beginJob | ( | void | ) | [private, virtual] |
| void BeamHaloAnalyzer::beginRun | ( | const edm::Run & | , |
| const edm::EventSetup & | iSetup | ||
| ) | [private, virtual] |
Reimplemented from edm::EDAnalyzer.
Definition at line 79 of file BeamHaloAnalyzer.cc.
References cppFunctionSkipper::operator.
{
dqm = edm::Service<DQMStore>().operator->();
if( dqm ) {
// EcalHaloData
dqm->setCurrentFolder(FolderName+"/EcalHaloData");
if(StandardDQM)
{
hEcalHaloData_PhiWedgeMultiplicity = dqm->book1D("EcalHaloData_PhiWedgeMultiplicity","",20, -0.5, 19.5);
hEcalHaloData_PhiWedgeConstituents = dqm->book1D("EcalHaloData_PhiWedgeConstituents","",20,-0.5, 19.5);
// hEcalHaloData_PhiWedgeiPhi = dqm->book1D("EcalHaloData_PhiWedgeiPhi","", 360, 0.5, 360.5) ;
hEcalHaloData_PhiWedgeZDirectionConfidence = dqm->book1D("EcalHaloData_ZDirectionConfidence","", 120, -1.2, 1.2);
hEcalHaloData_SuperClusterShowerShapes = dqm->book2D("EcalHaloData_SuperClusterShowerShapes","", 30, 0, 3.2, 25,0.0, 2.0);
hEcalHaloData_SuperClusterEnergy = dqm->book1D("EcalHaloData_SuperClusterEnergy","",50,-0.5,99.5);
hEcalHaloData_SuperClusterNHits = dqm->book1D("EcalHaloData_SuperClusterNHits", "", 20, -0.5, 19.5);
}
else
{
hEcalHaloData_PhiWedgeMultiplicity = dqm->book1D("EcalHaloData_PhiWedgeMultiplicity","",20, -0.5, 19.5);
hEcalHaloData_PhiWedgeEnergy = dqm->book1D("EcalHaloData_PhiWedgeEnergy","", 50,-0.5,199.5);
hEcalHaloData_PhiWedgeConstituents = dqm->book1D("EcalHaloData_PhiWedgeConstituents","",20,-0.5, 19.5);
hEcalHaloData_PhiWedgeMinTime = dqm->book1D("EcalHaloData_PhiWedgeMinTime","", 100, -225.0, 225.0);
hEcalHaloData_PhiWedgeMaxTime = dqm->book1D("EcalHaloData_PhiWedgeMaxTime","", 100, -225.0, 225.0);
hEcalHaloData_PhiWedgeiPhi = dqm->book1D("EcalHaloData_PhiWedgeiPhi","", 360, 0.5, 360.5) ;
hEcalHaloData_PhiWedgePlusZDirectionConfidence = dqm->book1D("EcalHaloData_PlusZDirectionConfidence","", 50, 0., 1.0);
hEcalHaloData_PhiWedgeZDirectionConfidence = dqm->book1D("EcalHaloData_ZDirectionConfidence","", 120, -1.2, 1.2);
hEcalHaloData_PhiWedgeMinVsMaxTime = dqm->book2D("EcalHaloData_PhiWedgeMinVsMaxTime","", 50,-100.0, 100.0, 50, -100.0, 100.0);
hEcalHaloData_SuperClusterShowerShapes = dqm->book2D("EcalHaloData_SuperClusterShowerShapes","", 30, 0, 3.2, 25,0.0, 2.0);
hEcalHaloData_SuperClusterEnergy = dqm->book1D("EcalHaloData_SuperClusterEnergy","",100,-0.5,99.5);
hEcalHaloData_SuperClusterNHits = dqm->book1D("EcalHaloData_SuperClusterNHits", "", 20, -0.5, 19.5);
hEcalHaloData_SuperClusterPhiVsEta = dqm->book2D("EcalHaloData_SuperClusterPhiVsEta","",60, -3.0, 3.0, 60, -3.2, 3.2);
}
// HcalHaloData
dqm->setCurrentFolder(FolderName+"/HcalHaloData");
if( StandardDQM )
{
hHcalHaloData_PhiWedgeMultiplicity = dqm->book1D("HcalHaloData_PhiWedgeMultiplicity","", 20, -0.5, 19.5);
hHcalHaloData_PhiWedgeConstituents = dqm->book1D("HcalHaloData_PhiWedgeConstituents","", 20,-0.5, 19.5);
//hHcalHaloData_PhiWedgeiPhi = dqm->book1D("HcalHaloData_PhiWedgeiPhi","", 72, 0.5,72.5);
hHcalHaloData_PhiWedgeZDirectionConfidence = dqm->book1D("HcalHaloData_ZDirectionConfidence","", 120, -1.2, 1.2);
}
else
{
hHcalHaloData_PhiWedgeMultiplicity = dqm->book1D("HcalHaloData_PhiWedgeMultiplicity","", 20, -0.5, 19.5);
hHcalHaloData_PhiWedgeEnergy = dqm->book1D("HcalHaloData_PhiWedgeEnergy", "", 50,-0.5,199.5);
hHcalHaloData_PhiWedgeConstituents = dqm->book1D("HcalHaloData_PhiWedgeConstituents","", 20,-0.5, 19.5);
hHcalHaloData_PhiWedgeiPhi = dqm->book1D("HcalHaloData_PhiWedgeiPhi","", 72, 0.5,72.5);
hHcalHaloData_PhiWedgeMinTime = dqm->book1D("HcalHaloData_PhiWedgeMinTime", "", 50, -100.0, 100.0);
hHcalHaloData_PhiWedgeMaxTime = dqm->book1D("HcalHaloData_PhiWedgeMaxTime", "", 50, -100.0, 100.0);
hHcalHaloData_PhiWedgePlusZDirectionConfidence = dqm->book1D("HcalHaloData_PlusZDirectionConfidence","", 50, 0., 1.0);
hHcalHaloData_PhiWedgeZDirectionConfidence = dqm->book1D("HcalHaloData_ZDirectionConfidence","", 120, -1.2, 1.2);
hHcalHaloData_PhiWedgeMinVsMaxTime = dqm->book2D("HcalHaloData_PhiWedgeMinVsMaxTime","" , 50,-100.0, 100.0, 50, -100.0, 100.0);
}
// CSCHaloData
dqm->setCurrentFolder(FolderName+"/CSCHaloData");
if( StandardDQM )
{
hCSCHaloData_TrackMultiplicity = dqm->book1D("CSCHaloData_TrackMultiplicity", "", 15, -0.5, 14.5);
hCSCHaloData_TrackMultiplicityMEPlus = dqm->book1D("CSCHaloData_TrackMultiplicityMEPlus", "", 15, -0.5, 14.5);
hCSCHaloData_TrackMultiplicityMEMinus = dqm->book1D("CSCHaloData_TrackMultiplicityMEMinus", "", 15, -0.5, 14.5);
hCSCHaloData_InnerMostTrackHitR = dqm->book1D("CSCHaloData_InnerMostTrackHitR", "", 70, 99.5, 799.5);
hCSCHaloData_InnerMostTrackHitPhi = dqm->book1D("CSCHaloData_InnerMostTrackHitPhi","", 60, -3.2, 3.2);
hCSCHaloData_L1HaloTriggersMEPlus = dqm->book1D("CSCHaloData_L1HaloTriggersMEPlus", "", 10, -0.5, 9.5);
hCSCHaloData_L1HaloTriggersMEMinus = dqm->book1D("CSCHaloData_L1HaloTriggersMEMinus", "" , 10, -0.5, 9.5);
hCSCHaloData_L1HaloTriggers = dqm->book1D("CSCHaloData_L1HaloTriggers", "", 10, -0.5, 9.5);
hCSCHaloData_HLHaloTriggers = dqm->book1D("CSCHaloData_HLHaloTriggers", "", 2, -0.5, 1.5);
hCSCHaloData_NOutOfTimeTriggersvsL1HaloExists = dqm->book2D("CSCHaloData_NOutOfTimeTriggersvsL1HaloExists", "", 20, -0.5, 19.5, 2, -0.5, 1.5);
hCSCHaloData_NOutOfTimeTriggersMEPlus = dqm->book1D("CSCHaloData_NOutOfTimeTriggersMEPlus", "", 20, -0.5, 19.5);
hCSCHaloData_NOutOfTimeTriggersMEMinus = dqm->book1D("CSCHaloData_NOutOfTimeTriggersMEMinus", "", 20, -0.5, 19.5);
hCSCHaloData_NOutOfTimeTriggers = dqm->book1D("CSCHaloData_NOutOfTimeTriggers", "", 20, -0.5, 19.5);
hCSCHaloData_NOutOfTimeHits = dqm->book1D("CSCHaloData_NOutOfTimeHits", "", 60, -0.5, 59.5);
hCSCHaloData_NTracksSmalldT = dqm->book1D("CSCHaloData_NTracksSmalldT", "", 15, -0.5, 14.5);
hCSCHaloData_NTracksSmallBeta = dqm->book1D("CSCHaloData_NTracksSmallBeta", "", 15, -0.5, 14.5);
hCSCHaloData_NTracksSmallBetaAndSmalldT = dqm->book1D("CSCHaloData_NTracksSmallBetaAndSmalldT", "", 15, -0.5, 14.5);
hCSCHaloData_NTracksSmalldTvsNHaloTracks = dqm->book2D("CSCHaloData_NTracksSmalldTvsNHaloTracks","",15, -0.5, 14.5,15, -0.5, 14.5);
hCSCHaloData_SegmentdT = dqm->book1D("CSCHaloData_SegmentdT","",100,-100,100);
hCSCHaloData_FreeInverseBeta = dqm->book1D("CSCHaloData_FreeInverseBeta","",80,-4,4);
hCSCHaloData_FreeInverseBetaVsSegmentdT = dqm->book2D("CSCHaloData_FreeInverseBetaVsSegmentdT","",100,-100,100,80,-4,4);
// MLR
hCSCHaloData_NFlatHaloSegments = dqm->book1D("CSCHaloData_NFlatHaloSegments","",20,0,20);
hCSCHaloData_SegmentsInBothEndcaps = dqm->book1D("CSCHaloData_SegmentsInBothEndcaps","",2,0,2);
hCSCHaloData_NFlatSegmentsInBothEndcaps = dqm->book1D("CSCHaloData_NFlatSegmentsInBothEndcaps","",20,0,20);
// End MLR
}
else
{
hCSCHaloData_TrackMultiplicity = dqm->book1D("CSCHaloData_TrackMultiplicity", "", 15, -0.5, 14.5);
hCSCHaloData_TrackMultiplicityMEPlus = dqm->book1D("CSCHaloData_TrackMultiplicityMEPlus", "", 15, -0.5, 14.5);
hCSCHaloData_TrackMultiplicityMEMinus = dqm->book1D("CSCHaloData_TrackMultiplicityMEMinus", "", 15, -0.5, 14.5);
hCSCHaloData_InnerMostTrackHitXY = dqm->book2D("CSCHaloData_InnerMostTrackHitXY","", 100,-700,700,100, -700,700);
hCSCHaloData_InnerMostTrackHitR = dqm->book1D("CSCHaloData_InnerMostTrackHitR", "", 400, -0.5, 799.5);
hCSCHaloData_InnerMostTrackHitRPlusZ = dqm->book2D("CSCHaloData_InnerMostTrackHitRPlusZ","", 400 , 400, 1200, 400, -0.5, 799.5 );
hCSCHaloData_InnerMostTrackHitRMinusZ = dqm->book2D("CSCHaloData_InnerMostTrackHitRMinusZ","", 400 , -1200, -400, 400, -0.5, 799.5 );
hCSCHaloData_InnerMostTrackHitiPhi = dqm->book1D("CSCHaloData_InnerMostTrackHitiPhi","", 72, 0.5, 72.5);
hCSCHaloData_InnerMostTrackHitPhi = dqm->book1D("CSCHaloData_InnerMostTrackHitPhi","", 60, -3.2, 3.2);
hCSCHaloData_L1HaloTriggersMEPlus = dqm->book1D("CSCHaloData_L1HaloTriggersMEPlus", "", 10, -0.5, 9.5);
hCSCHaloData_L1HaloTriggersMEMinus = dqm->book1D("CSCHaloData_L1HaloTriggersMEMinus", "" , 10, -0.5, 9.5);
hCSCHaloData_L1HaloTriggers = dqm->book1D("CSCHaloData_L1HaloTriggers", "", 10, -0.5, 9.5);
hCSCHaloData_HLHaloTriggers = dqm->book1D("CSCHaloData_HLHaloTriggers", "", 2, -0.5, 1.5);
hCSCHaloData_NOutOfTimeTriggersvsL1HaloExists = dqm->book2D("CSCHaloData_NOutOfTimeTriggersvsL1HaloExists", "", 20, -0.5, 19.5, 2, -0.5, 1.5);
hCSCHaloData_NOutOfTimeTriggers = dqm->book1D("CSCHaloData_NOutOfTimeTriggers", "", 20, -0.5, 19.5);
hCSCHaloData_NOutOfTimeHits = dqm->book1D("CSCHaloData_NOutOfTimeHits", "", 60, -0.5, 59.5);
hCSCHaloData_NTracksSmalldT = dqm->book1D("CSCHaloData_NTracksSmalldT", "", 15, -0.5, 14.5);
hCSCHaloData_NTracksSmallBeta = dqm->book1D("CSCHaloData_NTracksSmallBeta", "", 15, -0.5, 14.5);
hCSCHaloData_NTracksSmallBetaAndSmalldT = dqm->book1D("CSCHaloData_NTracksSmallBetaAndSmalldT", "", 15, -0.5, 14.5);
hCSCHaloData_NTracksSmalldTvsNHaloTracks = dqm->book2D("CSCHaloData_NTracksSmalldTvsNHaloTracks","",15, -0.5, 14.5,15, -0.5, 14.5);
hCSCHaloData_SegmentdT = dqm->book1D("CSCHaloData_SegmentdT","",100,-100,100);
hCSCHaloData_FreeInverseBeta = dqm->book1D("CSCHaloData_FreeInverseBeta","",80,-4,4);
hCSCHaloData_FreeInverseBetaVsSegmentdT = dqm->book2D("CSCHaloData_FreeInverseBetaVsSegmentdT","",100,-100,100,80,-4,4);
// MLR
hCSCHaloData_NFlatHaloSegments = dqm->book1D("CSCHaloData_NFlatHaloSegments","",20,0,20);
hCSCHaloData_SegmentsInBothEndcaps = dqm->book1D("CSCHaloData_SegmentsInBothEndcaps","",2,0,2);
hCSCHaloData_NFlatSegmentsInBothEndcaps = dqm->book1D("CSCHaloData_NFlatSegmentsInBothEndcaps","",20,0,20);
// End MLR
}
// GlobalHaloData
dqm->setCurrentFolder(FolderName+"/GlobalHaloData");
if(!StandardDQM)
{
hGlobalHaloData_MExCorrection = dqm->book1D("GlobalHaloData_MExCorrection", "" , 200, -200., 200.);
hGlobalHaloData_MEyCorrection = dqm->book1D("GlobalHaloData_MEyCorrection", "" , 200, -200., 200.);
hGlobalHaloData_SumEtCorrection = dqm->book1D("GlobalHaloData_SumEtCorrection", "" , 200, -0.5, 399.5);
hGlobalHaloData_HaloCorrectedMET = dqm->book1D("GlobalHaloData_HaloCorrectedMET", "" , 500, -0.5, 1999.5);
hGlobalHaloData_RawMETMinusHaloCorrectedMET = dqm->book1D("GlobalHaloData_RawMETMinusHaloCorrectedMET","" , 250, -500., 500.);
hGlobalHaloData_RawMETOverSumEt = dqm->book1D("GlobalHaloData_RawMETOverSumEt","" , 100, 0.0, 1.0);
hGlobalHaloData_MatchedHcalPhiWedgeMultiplicity = dqm->book1D("GlobalHaloData_MatchedHcalPhiWedgeMultiplicity","", 15, -0.5, 14.5);
hGlobalHaloData_MatchedHcalPhiWedgeEnergy = dqm->book1D("GlobalHaloData_MatchedHcalPhiWedgeEnergy", "", 50,-0.5,199.5);
hGlobalHaloData_MatchedHcalPhiWedgeConstituents = dqm->book1D("GlobalHaloData_MatchedHcalPhiWedgeConstituents","", 20,-0.5, 19.5);
hGlobalHaloData_MatchedHcalPhiWedgeiPhi = dqm->book1D("GlobalHaloData_MatchedHcalPhiWedgeiPhi","", 1, 0.5,72.5);
hGlobalHaloData_MatchedHcalPhiWedgeMinTime = dqm->book1D("GlobalHaloData_MatchedHcalPhiWedgeMinTime", "", 50, -100.0, 100.0);
hGlobalHaloData_MatchedHcalPhiWedgeMaxTime = dqm->book1D("GlobalHaloData_MatchedHcalPhiWedgeMaxTime", "", 50, -100.0, 100.0);
hGlobalHaloData_MatchedHcalPhiWedgeZDirectionConfidence = dqm->book1D("GlobalHaloData_MatchedHcalPhiWedgeZDirectionConfidence","", 120, -1.2, 1.2);
hGlobalHaloData_MatchedEcalPhiWedgeMultiplicity = dqm->book1D("GlobalHaloData_MatchedEcalPhiWedgeMultiplicity","", 15, -0.5, 14.5);
hGlobalHaloData_MatchedEcalPhiWedgeEnergy = dqm->book1D("GlobalHaloData_MatchedEcalPhiWedgeEnergy", "", 50,-0.5,199.5);
hGlobalHaloData_MatchedEcalPhiWedgeConstituents = dqm->book1D("GlobalHaloData_MatchedEcalPhiWedgeConstituents","", 20,-0.5, 19.5);
hGlobalHaloData_MatchedEcalPhiWedgeiPhi = dqm->book1D("GlobalHaloData_MatchedEcalPhiWedgeiPhi","", 360, 0.5,360.5);
hGlobalHaloData_MatchedEcalPhiWedgeMinTime = dqm->book1D("GlobalHaloData_MatchedEcalPhiWedgeMinTime", "", 50, -100.0, 100.0);
hGlobalHaloData_MatchedEcalPhiWedgeMaxTime = dqm->book1D("GlobalHaloData_MatchedEcalPhiWedgeMaxTime", "", 50, -100.0, 100.0);
hGlobalHaloData_MatchedEcalPhiWedgeZDirectionConfidence = dqm->book1D("GlobalHaloData_MatchedEcalPhiWedgeZDirectionConfidence","", 120, 1.2, 1.2);
}
// BeamHaloSummary
dqm->setCurrentFolder(FolderName+"/BeamHaloSummary");
hBeamHaloSummary_Id = dqm->book1D("BeamHaloSumamry_Id", "", 11, 0.5,11.5);
hBeamHaloSummary_Id ->setBinLabel(1,"CSC Loose");
hBeamHaloSummary_Id ->setBinLabel(2,"CSC Tight");
hBeamHaloSummary_Id ->setBinLabel(3,"Ecal Loose");
hBeamHaloSummary_Id ->setBinLabel(4,"Ecal Tight");
hBeamHaloSummary_Id ->setBinLabel(5,"Hcal Loose");
hBeamHaloSummary_Id ->setBinLabel(6,"Hcal Tight");
hBeamHaloSummary_Id ->setBinLabel(7,"Global Loose");
hBeamHaloSummary_Id ->setBinLabel(8,"Global Tight");
hBeamHaloSummary_Id ->setBinLabel(9,"Event Loose");
hBeamHaloSummary_Id ->setBinLabel(10,"Event Tight");
hBeamHaloSummary_Id ->setBinLabel(11,"Nothing");
if(!StandardDQM)
{
hBeamHaloSummary_BXN = dqm->book2D("BeamHaloSummary_BXN", "",11, 0.5, 11.5, 4000, -0.5,3999.5);
hBeamHaloSummary_BXN ->setBinLabel(1,"CSC Loose");
hBeamHaloSummary_BXN ->setBinLabel(2,"CSC Tight");
hBeamHaloSummary_BXN ->setBinLabel(3,"Ecal Loose");
hBeamHaloSummary_BXN ->setBinLabel(4,"Ecal Tight");
hBeamHaloSummary_BXN ->setBinLabel(5,"Hcal Loose");
hBeamHaloSummary_BXN ->setBinLabel(6,"Hcal Tight");
hBeamHaloSummary_BXN ->setBinLabel(7,"Global Loose");
hBeamHaloSummary_BXN ->setBinLabel(8,"Global Tight");
hBeamHaloSummary_BXN ->setBinLabel(9,"Event Loose");
hBeamHaloSummary_BXN ->setBinLabel(10,"Event Tight");
hBeamHaloSummary_BXN ->setBinLabel(11,"Nothing");
}
// Extra
dqm->setCurrentFolder(FolderName+"/ExtraHaloData");
if(StandardDQM)
{
hExtra_CSCTrackInnerOuterDPhi = dqm->book1D("Extra_CSCTrackInnerOuterDPhi","", 30, 0, 3.2);
hExtra_CSCTrackInnerOuterDEta = dqm->book1D("Extra_CSCTrackInnerOuterDEta","", 100, 0, 3.0 );
hExtra_CSCTrackChi2Ndof = dqm->book1D("Extra_CSCTrackChi2Ndof","", 25, 0, 10);
hExtra_CSCTrackNHits = dqm->book1D("Extra_CSCTrackNHits","", 75,0, 75);
hExtra_CSCActivityWithMET= dqm->book2D("Extra_CSCActivityWithMET", "", 4, 0.5, 4.5, 4, 0.5, 4.5);
hExtra_CSCActivityWithMET->setBinLabel(1,"Track",1);
hExtra_CSCActivityWithMET->setBinLabel(1,"Track",2);
hExtra_CSCActivityWithMET->setBinLabel(2, "Segments",1);
hExtra_CSCActivityWithMET->setBinLabel(2, "Segments",2);
hExtra_CSCActivityWithMET->setBinLabel(3, "RecHits", 1);
hExtra_CSCActivityWithMET->setBinLabel(3, "RecHits", 2);
hExtra_CSCActivityWithMET->setBinLabel(4, "Nothing", 1);
hExtra_CSCActivityWithMET->setBinLabel(4, "Nothing", 2);
hExtra_InnerMostTrackHitR = dqm->book1D("Extra_InnerMostTrackHitR", "", 70, 99.5, 799.5);
hExtra_InnerMostTrackHitPhi = dqm->book1D("Extra_InnerMostTrackHitPhi","", 60, -3.2, 3.2);
}
else
{
hExtra_CSCActivityWithMET= dqm->book2D("Extra_CSCActivityWithMET", "", 4, 0.5, 4.5, 4, 0.5, 4.5);
hExtra_CSCActivityWithMET->setBinLabel(1,"Track",1);
hExtra_CSCActivityWithMET->setBinLabel(1,"Track",2);
hExtra_CSCActivityWithMET->setBinLabel(2, "Segments",1);
hExtra_CSCActivityWithMET->setBinLabel(2, "Segments",2);
hExtra_CSCActivityWithMET->setBinLabel(3, "RecHits", 1);
hExtra_CSCActivityWithMET->setBinLabel(3, "RecHits", 2);
hExtra_CSCActivityWithMET->setBinLabel(4, "Nothing", 1);
hExtra_CSCActivityWithMET->setBinLabel(4, "Nothing", 2);
hExtra_HcalToF = dqm->book2D("Extra_HcalToF","" , 83,-41.5,41.5 , 1000, -125., 125.);
hExtra_HcalToF_HaloId = dqm->book2D("Extra_HcalToF_HaloId","", 83,-41.5,41.5 , 1000, -125., 125.);
hExtra_EcalToF = dqm->book2D("Extra_EcalToF","", 171,-85.5,85.5 , 2000, -225., 225.);
hExtra_EcalToF_HaloId = dqm->book2D("Extra_EcalToF_HaloId","", 171,-85.5,85.5 , 2000, -225., 225.);
hExtra_CSCTrackInnerOuterDPhi = dqm->book1D("Extra_CSCTrackInnerOuterDPhi","", 30, 0, 3.2);
hExtra_CSCTrackInnerOuterDEta = dqm->book1D("Extra_CSCTrackInnerOuterDEta","", 30, 0, 3.2);
hExtra_CSCTrackChi2Ndof = dqm->book1D("Extra_CSCTrackChi2Ndof","", 100, 0, 10);
hExtra_CSCTrackNHits = dqm->book1D("Extra_CSCTrackNHits","", 75,0, 75);
hExtra_InnerMostTrackHitXY = dqm->book2D("Extra_InnerMostTrackHitXY","", 100,-700,700,100, -700,700);
hExtra_InnerMostTrackHitR = dqm->book1D("Extra_InnerMostTrackHitR", "", 400, -0.5, 799.5);
hExtra_InnerMostTrackHitRPlusZ = dqm->book2D("Extra_InnerMostTrackHitRPlusZ","", 400 , 400, 1200, 400, -0.5, 799.5 );
hExtra_InnerMostTrackHitRMinusZ = dqm->book2D("Extra_InnerMostTrackHitRMinusZ","", 400 , -1200, -400, 400, -0.5, 799.5 );
hExtra_InnerMostTrackHitiPhi = dqm->book1D("Extra_InnerMostTrackHitiPhi","", 72, 0.5, 72.5);
hExtra_InnerMostTrackHitPhi = dqm->book1D("Extra_InnerMostTrackHitPhi","", 60, -3.2, 3.2);
hExtra_BXN = dqm->book1D("Extra_BXN", "BXN Occupancy", 4000, 0.5, 4000.5);
}
}
}
| void BeamHaloAnalyzer::endJob | ( | void | ) | [private, virtual] |
| virtual void BeamHaloAnalyzer::endRun | ( | const edm::Run & | , |
| const edm::EventSetup & | |||
| ) | [inline, private, virtual] |
Reimplemented from edm::EDAnalyzer.
Definition at line 164 of file BeamHaloAnalyzer.h.
References dqm, OutputFileName, and DQMStore::save().
{ if (OutputFileName!="") dqm->save(OutputFileName);}
DQMStore* BeamHaloAnalyzer::dqm [private] |
Definition at line 211 of file BeamHaloAnalyzer.h.
Referenced by endRun().
double BeamHaloAnalyzer::DumpMET [private] |
Definition at line 202 of file BeamHaloAnalyzer.h.
std::string BeamHaloAnalyzer::FolderName [private] |
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MonitorElement* BeamHaloAnalyzer::hExtra_BXN [private] |
Definition at line 312 of file BeamHaloAnalyzer.h.
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MonitorElement* BeamHaloAnalyzer::hExtra_EcalToF [private] |
Definition at line 301 of file BeamHaloAnalyzer.h.
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MonitorElement* BeamHaloAnalyzer::hExtra_HcalToF [private] |
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edm::InputTag BeamHaloAnalyzer::IT_CaloTower [private] |
Definition at line 185 of file BeamHaloAnalyzer.h.
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edm::InputTag BeamHaloAnalyzer::IT_CosmicMuon [private] |
Definition at line 178 of file BeamHaloAnalyzer.h.
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edm::InputTag BeamHaloAnalyzer::IT_CSCRecHit [private] |
Definition at line 169 of file BeamHaloAnalyzer.h.
edm::InputTag BeamHaloAnalyzer::IT_CSCSegment [private] |
Definition at line 179 of file BeamHaloAnalyzer.h.
edm::InputTag BeamHaloAnalyzer::IT_EBRecHit [private] |
Definition at line 170 of file BeamHaloAnalyzer.h.
Definition at line 191 of file BeamHaloAnalyzer.h.
edm::InputTag BeamHaloAnalyzer::IT_EERecHit [private] |
Definition at line 171 of file BeamHaloAnalyzer.h.
edm::InputTag BeamHaloAnalyzer::IT_ESRecHit [private] |
Definition at line 172 of file BeamHaloAnalyzer.h.
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edm::InputTag BeamHaloAnalyzer::IT_HBHERecHit [private] |
Definition at line 173 of file BeamHaloAnalyzer.h.
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edm::InputTag BeamHaloAnalyzer::IT_HFRecHit [private] |
Definition at line 175 of file BeamHaloAnalyzer.h.
edm::InputTag BeamHaloAnalyzer::IT_HORecHit [private] |
Definition at line 174 of file BeamHaloAnalyzer.h.
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edm::InputTag BeamHaloAnalyzer::IT_met [private] |
Definition at line 184 of file BeamHaloAnalyzer.h.
edm::InputTag BeamHaloAnalyzer::IT_Photon [private] |
Definition at line 187 of file BeamHaloAnalyzer.h.
Definition at line 186 of file BeamHaloAnalyzer.h.
ofstream* BeamHaloAnalyzer::out [private] |
Definition at line 201 of file BeamHaloAnalyzer.h.
std::string BeamHaloAnalyzer::OutputFileName [private] |
Definition at line 197 of file BeamHaloAnalyzer.h.
Referenced by endRun().
bool BeamHaloAnalyzer::StandardDQM [private] |
Definition at line 208 of file BeamHaloAnalyzer.h.
std::string BeamHaloAnalyzer::TextFileName [private] |
Definition at line 198 of file BeamHaloAnalyzer.h.
MuonSegmentMatcher* BeamHaloAnalyzer::TheMatcher [private] |
Definition at line 206 of file BeamHaloAnalyzer.h.
MuonServiceProxy* BeamHaloAnalyzer::TheService [private] |
Definition at line 205 of file BeamHaloAnalyzer.h.
1.7.3