#include <Validation/MtdValidation/plugins/BtlLocalRecoValidation.cc>

Inheritance diagram for BtlLocalRecoValidation:

Public Member Functions
	BtlLocalRecoValidation (const edm::ParameterSet &)

	~BtlLocalRecoValidation () override

Public Member Functions inherited from DQMEDAnalyzer
void	accumulate (edm::Event const &event, edm::EventSetup const &setup) final

void	beginLuminosityBlock (edm::LuminosityBlock const &lumi, edm::EventSetup const &setup) final

void	beginRun (edm::Run const &run, edm::EventSetup const &setup) final

void	beginStream (edm::StreamID id) final

virtual void	dqmBeginRun (edm::Run const &, edm::EventSetup const &)

	DQMEDAnalyzer ()

void	endLuminosityBlock (edm::LuminosityBlock const &lumi, edm::EventSetup const &setup) final

void	endRun (edm::Run const &run, edm::EventSetup const &setup) final

virtual bool	getCanSaveByLumi ()

Public Member Functions inherited from edm::stream::EDProducer< edm::GlobalCache< DQMEDAnalyzerGlobalCache >, edm::EndRunProducer, edm::EndLuminosityBlockProducer, edm::Accumulator >
	EDProducer ()=default

	EDProducer (const EDProducer &)=delete

bool	hasAbilityToProduceInBeginLumis () const final

bool	hasAbilityToProduceInBeginProcessBlocks () const final

bool	hasAbilityToProduceInBeginRuns () const final

bool	hasAbilityToProduceInEndLumis () const final

bool	hasAbilityToProduceInEndProcessBlocks () const final

bool	hasAbilityToProduceInEndRuns () const final

const EDProducer &	operator= (const EDProducer &)=delete

Static Public Member Functions
static void	fillDescriptions (edm::ConfigurationDescriptions &descriptions)

Static Public Member Functions inherited from DQMEDAnalyzer
static void	globalEndJob (DQMEDAnalyzerGlobalCache const *)

static void	globalEndLuminosityBlockProduce (edm::LuminosityBlock &lumi, edm::EventSetup const &setup, LuminosityBlockContext const *context)

static void	globalEndRunProduce (edm::Run &run, edm::EventSetup const &setup, RunContext const *context)

static std::unique_ptr< DQMEDAnalyzerGlobalCache >	initializeGlobalCache (edm::ParameterSet const &)

Private Member Functions
void	analyze (const edm::Event &, const edm::EventSetup &) override

void	bookHistograms (DQMStore::IBooker &, edm::Run const &, edm::EventSetup const &) override

bool	isSameCluster (const FTLCluster &, const FTLCluster &)

Private Attributes
edm::EDGetTokenT< FTLClusterCollection >	btlRecCluToken_

edm::EDGetTokenT< FTLRecHitCollection >	btlRecHitsToken_

edm::EDGetTokenT< CrossingFrame< PSimHit > >	btlSimHitsToken_

edm::EDGetTokenT< FTLUncalibratedRecHitCollection >	btlUncalibRecHitsToken_

const edm::ESGetToken< MTDClusterParameterEstimator, MTDCPERecord >	cpeToken_

const std::string	folder_

const double	hitMinAmplitude_

const double	hitMinEnergy_

MonitorElement *	meCluCentralLocalYRes_

MonitorElement *	meCluCentralLocalYRes_simLC_

MonitorElement *	meCluCentralLocalYRes_simLC_fromIndirectHits_

MonitorElement *	meCluCentralLocalYResZGlobMinus_

MonitorElement *	meCluCentralLocalYResZGlobMinus_simLC_

MonitorElement *	meCluCentralLocalYResZGlobMinus_simLC_fromIndirectHits_

MonitorElement *	meCluCentralLocalYResZGlobPlus_

MonitorElement *	meCluCentralLocalYResZGlobPlus_simLC_

MonitorElement *	meCluCentralLocalYResZGlobPlus_simLC_fromIndirectHits_

MonitorElement *	meCluEnergy_

MonitorElement *	meCluEnergyRes_

MonitorElement *	meCluEnergyRes_simLC_

MonitorElement *	meCluEnergyRes_simLC_fromIndirectHits_

MonitorElement *	meCluEnergyvsEta_

MonitorElement *	meCluEta_

MonitorElement *	meCluForwardLocalYRes_

MonitorElement *	meCluForwardLocalYRes_simLC_

MonitorElement *	meCluForwardLocalYRes_simLC_fromIndirectHits_

MonitorElement *	meCluForwardMinusLocalYRes_

MonitorElement *	meCluForwardMinusLocalYRes_simLC_

MonitorElement *	meCluForwardMinusLocalYRes_simLC_fromIndirectHits_

MonitorElement *	meCluForwardPlusLocalYRes_

MonitorElement *	meCluForwardPlusLocalYRes_simLC_

MonitorElement *	meCluForwardPlusLocalYRes_simLC_fromIndirectHits_

MonitorElement *	meCluHits_

MonitorElement *	meCluHitsvsEta_

MonitorElement *	meCluLocalXPull_

MonitorElement *	meCluLocalXPull_simLC_

MonitorElement *	meCluLocalXPull_simLC_fromIndirectHits_

MonitorElement *	meCluLocalXRes_

MonitorElement *	meCluLocalXRes_simLC_

MonitorElement *	meCluLocalXRes_simLC_fromIndirectHits_

MonitorElement *	meCluLocalYPullZGlobMinus_

MonitorElement *	meCluLocalYPullZGlobMinus_simLC_

MonitorElement *	meCluLocalYPullZGlobMinus_simLC_fromIndirectHits_

MonitorElement *	meCluLocalYPullZGlobPlus_

MonitorElement *	meCluLocalYPullZGlobPlus_simLC_

MonitorElement *	meCluLocalYPullZGlobPlus_simLC_fromIndirectHits_

MonitorElement *	meCluLocalYResZGlobMinus_

MonitorElement *	meCluLocalYResZGlobMinus_simLC_

MonitorElement *	meCluLocalYResZGlobMinus_simLC_fromIndirectHits_

MonitorElement *	meCluLocalYResZGlobPlus_

MonitorElement *	meCluLocalYResZGlobPlus_simLC_

MonitorElement *	meCluLocalYResZGlobPlus_simLC_fromIndirectHits_

MonitorElement *	meCluMultiCrystalLocalYRes_

MonitorElement *	meCluMultiCrystalLocalYRes_simLC_

MonitorElement *	meCluMultiCrystalLocalYRes_simLC_fromIndirectHits_

MonitorElement *	meCluMultiCrystalLocalYResZGlobMinus_

MonitorElement *	meCluMultiCrystalLocalYResZGlobMinus_simLC_

MonitorElement *	meCluMultiCrystalLocalYResZGlobMinus_simLC_fromIndirectHits_

MonitorElement *	meCluMultiCrystalLocalYResZGlobPlus_

MonitorElement *	meCluMultiCrystalLocalYResZGlobPlus_simLC_

MonitorElement *	meCluMultiCrystalLocalYResZGlobPlus_simLC_fromIndirectHits_

MonitorElement *	meCluPhi_

MonitorElement *	meCluPhiRes_

MonitorElement *	meCluPhiRes_simLC_

MonitorElement *	meCluPhiRes_simLC_fromIndirectHits_

MonitorElement *	meCluRhoRes_

MonitorElement *	meCluRhoRes_simLC_

MonitorElement *	meCluRhoRes_simLC_fromIndirectHits_

MonitorElement *	meCluSingCrystalLocalYRes_

MonitorElement *	meCluSingCrystalLocalYRes_simLC_

MonitorElement *	meCluSingCrystalLocalYRes_simLC_fromIndirectHits_

MonitorElement *	meCluSingCrystalLocalYResZGlobMinus_

MonitorElement *	meCluSingCrystalLocalYResZGlobMinus_simLC_

MonitorElement *	meCluSingCrystalLocalYResZGlobMinus_simLC_fromIndirectHits_

MonitorElement *	meCluSingCrystalLocalYResZGlobPlus_

MonitorElement *	meCluSingCrystalLocalYResZGlobPlus_simLC_

MonitorElement *	meCluSingCrystalLocalYResZGlobPlus_simLC_fromIndirectHits_

MonitorElement *	meCluTime_

MonitorElement *	meCluTimeError_

MonitorElement *	meCluTimeRes_

MonitorElement *	meCluTimeRes_simLC_

MonitorElement *	meCluTimeRes_simLC_fromIndirectHits_

MonitorElement *	meCluTPullvsE_

MonitorElement *	meCluTPullvsE_simLC_

MonitorElement *	meCluTPullvsE_simLC_fromIndirectHits_

MonitorElement *	meCluTPullvsEta_

MonitorElement *	meCluTPullvsEta_simLC_

MonitorElement *	meCluTPullvsEta_simLC_fromIndirectHits_

MonitorElement *	meCluTrackIdOffset_

MonitorElement *	meCluTResvsE_

MonitorElement *	meCluTResvsE_simLC_

MonitorElement *	meCluTResvsE_simLC_fromIndirectHits_

MonitorElement *	meCluTResvsEta_

MonitorElement *	meCluTResvsEta_simLC_

MonitorElement *	meCluTResvsEta_simLC_fromIndirectHits_

MonitorElement *	meCluXLocalErr_

MonitorElement *	meCluYLocalErr_

MonitorElement *	meCluYXLocal_

MonitorElement *	meCluYXLocalSim_

MonitorElement *	meCluYXLocalSim_simLC_

MonitorElement *	meCluYXLocalSim_simLC_fromIndirectHits_

MonitorElement *	meCluZPull_

MonitorElement *	meCluZPull_simLC_

MonitorElement *	meCluZPull_simLC_fromIndirectHits_

MonitorElement *	meCluZRes_

MonitorElement *	meCluZRes_simLC_

MonitorElement *	meCluZRes_simLC_fromIndirectHits_

MonitorElement *	meCluZvsPhi_

MonitorElement *	meEnergyRelResVsE_

MonitorElement *	meEnergyRes_

MonitorElement *	meHitEnergy_

MonitorElement *	meHitEta_

MonitorElement *	meHitEvsEta_

MonitorElement *	meHitEvsPhi_

MonitorElement *	meHitEvsZ_

MonitorElement *	meHitLogEnergy_

MonitorElement *	meHitLongPos_

MonitorElement *	meHitPhi_

MonitorElement *	meHitTime_

MonitorElement *	meHitTimeError_

MonitorElement *	meHitTvsE_

MonitorElement *	meHitTvsEta_

MonitorElement *	meHitTvsPhi_

MonitorElement *	meHitTvsZ_

MonitorElement *	meHitXlocal_

MonitorElement *	meHitYlocal_

MonitorElement *	meHitZ_

MonitorElement *	meHitZlocal_

MonitorElement *	meLocalOccupancy_

MonitorElement *	meLongPosPull_

MonitorElement *	meLongPosPullvsE_

MonitorElement *	meLongPosPullvsEta_

MonitorElement *	meNclusters_

MonitorElement *	meNevents_

MonitorElement *	meNhits_

MonitorElement *	meOccupancy_

MonitorElement *	meTimeRes_

MonitorElement *	meTimeResEta_ [nBinsEta_]

MonitorElement *	meTimeResEtavsQ_ [nBinsEta_][nBinsEtaQ_]

MonitorElement *	meTimeResQ_ [nBinsQ_]

MonitorElement *	meTimeResQvsEta_ [nBinsQ_][nBinsQEta_]

MonitorElement *	meTimeResVsE_

MonitorElement *	meTPullvsE_

MonitorElement *	meTPullvsEta_

MonitorElement *	meUncEneLVsX_

MonitorElement *	meUncEneRVsX_

MonitorElement *	meUncTimeLVsX_

MonitorElement *	meUncTimeRVsX_

MonitorElement *	meUnmatchedCluEnergy_

MonitorElement *	meUnmatchedRecHit_

const edm::ESGetToken< MTDGeometry, MTDDigiGeometryRecord >	mtdgeoToken_

const edm::ESGetToken< MTDTopology, MTDTopologyRcd >	mtdtopoToken_

edm::EDGetTokenT< MTDTrackingDetSetVector >	mtdTrackingHitToken_

const bool	optionalPlots_

edm::EDGetTokenT< MtdRecoClusterToSimLayerClusterAssociationMap >	r2sAssociationMapToken_

const bool	uncalibRecHitsPlots_

Static Private Attributes
static constexpr float	binsEtaQ_ [nBinsEtaQ_+1] = {0., 30., 60., 90., 120., 150., 360., 600.}

static constexpr float	binsQEta_ [nBinsQEta_+1] = {0., 0.65, 1.15, 1.55}

static constexpr float	binWidthEta_ = 0.05

static constexpr float	binWidthQ_ = 30.

static constexpr int	nBinsEta_ = 31

static constexpr int	nBinsEtaQ_ = 7

static constexpr int	nBinsQ_ = 20

static constexpr int	nBinsQEta_ = 3

Additional Inherited Members
Public Types inherited from DQMEDAnalyzer
typedef dqm::reco::DQMStore	DQMStore

typedef dqm::reco::MonitorElement	MonitorElement

Public Types inherited from edm::stream::EDProducer< edm::GlobalCache< DQMEDAnalyzerGlobalCache >, edm::EndRunProducer, edm::EndLuminosityBlockProducer, edm::Accumulator >
using	CacheTypes = CacheContexts< T... >

using	GlobalCache = typename CacheTypes::GlobalCache

using	HasAbility = AbilityChecker< T... >

using	InputProcessBlockCache = typename CacheTypes::InputProcessBlockCache

using	LuminosityBlockCache = typename CacheTypes::LuminosityBlockCache

using	LuminosityBlockContext = LuminosityBlockContextT< LuminosityBlockCache, RunCache, GlobalCache >

using	LuminosityBlockSummaryCache = typename CacheTypes::LuminosityBlockSummaryCache

using	RunCache = typename CacheTypes::RunCache

using	RunContext = RunContextT< RunCache, GlobalCache >

using	RunSummaryCache = typename CacheTypes::RunSummaryCache

Protected Member Functions inherited from DQMEDAnalyzer
uint64_t	meId () const

Protected Attributes inherited from DQMEDAnalyzer
edm::EDPutTokenT< DQMToken >	lumiToken_

edm::EDPutTokenT< DQMToken >	runToken_

unsigned int	streamId_

Detailed Description

Description: BTL RECO hits and clusters validation

Implementation: [Notes on implementation]

Definition at line 52 of file BtlLocalRecoValidation.cc.

Constructor & Destructor Documentation

◆ BtlLocalRecoValidation()

BtlLocalRecoValidation::BtlLocalRecoValidation ( const edm::ParameterSet & iConfig )

explicit

Definition at line 294 of file BtlLocalRecoValidation.cc.

References btlRecCluToken_, btlRecHitsToken_, btlSimHitsToken_, btlUncalibRecHitsToken_, edm::ParameterSet::getParameter(), mtdTrackingHitToken_, and r2sAssociationMapToken_.

     : folder_(iConfig.getParameter<std::string>("folder")),
       hitMinEnergy_(iConfig.getParameter<double>("HitMinimumEnergy")),
       optionalPlots_(iConfig.getParameter<bool>("optionalPlots")),
       uncalibRecHitsPlots_(iConfig.getParameter<bool>("UncalibRecHitsPlots")),
       hitMinAmplitude_(iConfig.getParameter<double>("HitMinimumAmplitude")),
       mtdgeoToken_(esConsumes<MTDGeometry, MTDDigiGeometryRecord>()),
       mtdtopoToken_(esConsumes<MTDTopology, MTDTopologyRcd>()),
       cpeToken_(esConsumes<MTDClusterParameterEstimator, MTDCPERecord>(edm::ESInputTag("", "MTDCPEBase"))) {
   btlRecHitsToken_ = consumes<FTLRecHitCollection>(iConfig.getParameter<edm::InputTag>("recHitsTag"));
   btlUncalibRecHitsToken_ =
       consumes<FTLUncalibratedRecHitCollection>(iConfig.getParameter<edm::InputTag>("uncalibRecHitsTag"));
   btlSimHitsToken_ = consumes<CrossingFrame<PSimHit>>(iConfig.getParameter<edm::InputTag>("simHitsTag"));
   btlRecCluToken_ = consumes<FTLClusterCollection>(iConfig.getParameter<edm::InputTag>("recCluTag"));
   mtdTrackingHitToken_ = consumes<MTDTrackingDetSetVector>(iConfig.getParameter<edm::InputTag>("trkHitTag"));
   r2sAssociationMapToken_ = consumes<MtdRecoClusterToSimLayerClusterAssociationMap>(
       iConfig.getParameter<edm::InputTag>("r2sAssociationMapTag"));
 }

◆ ~BtlLocalRecoValidation()

BtlLocalRecoValidation::~BtlLocalRecoValidation ( )

override

Definition at line 313 of file BtlLocalRecoValidation.cc.

313 {}

Member Function Documentation

◆ analyze()

void BtlLocalRecoValidation::analyze	(	const edm::Event &	iEvent,
		const edm::EventSetup &	iSetup
	)

overrideprivatevirtual

Reimplemented from DQMEDAnalyzer.

Definition at line 316 of file BtlLocalRecoValidation.cc.

                                                                                         {
   using namespace edm;
   using namespace std;
   using namespace geant_units::operators;
 
   auto geometryHandle = iSetup.getTransientHandle(mtdgeoToken_);
   const MTDGeometry* geom = geometryHandle.product();
 
   auto topologyHandle = iSetup.getTransientHandle(mtdtopoToken_);
   const MTDTopology* topology = topologyHandle.product();
 
   auto const& cpe = iSetup.getData(cpeToken_);
 
   auto btlRecHitsHandle = makeValid(iEvent.getHandle(btlRecHitsToken_));
   auto btlSimHitsHandle = makeValid(iEvent.getHandle(btlSimHitsToken_));
   auto btlRecCluHandle = makeValid(iEvent.getHandle(btlRecCluToken_));
   auto mtdTrkHitHandle = makeValid(iEvent.getHandle(mtdTrackingHitToken_));
   const auto& r2sAssociationMap = iEvent.get(r2sAssociationMapToken_);
   MixCollection<PSimHit> btlSimHits(btlSimHitsHandle.product());
 
 #ifdef EDM_ML_DEBUG
   for (const auto& hits : *mtdTrkHitHandle) {
     if (MTDDetId(hits.id()).mtdSubDetector() == MTDDetId::MTDType::BTL) {
       LogDebug("BtlLocalRecoValidation") << "MTD cluster DetId " << hits.id() << " # cluster " << hits.size();
       for (const auto& hit : hits) {
         LogDebug("BtlLocalRecoValidation")
             << "MTD_TRH: " << hit.localPosition().x() << "," << hit.localPosition().y() << " : "
             << hit.localPositionError().xx() << "," << hit.localPositionError().yy() << " : " << hit.time() << " : "
             << hit.timeError();
       }
     }
   }
 #endif
 
   // --- Loop over the BTL SIM hits
   std::unordered_map<uint32_t, MTDHit> m_btlSimHits;
   for (auto const& simHit : btlSimHits) {
     // --- Use only hits compatible with the in-time bunch-crossing
     if (simHit.tof() < 0 || simHit.tof() > 25.)
       continue;
 
     DetId id = simHit.detUnitId();
 
     auto simHitIt = m_btlSimHits.emplace(id.rawId(), MTDHit()).first;
 
     // --- Accumulate the energy (in MeV) of SIM hits in the same detector cell
     (simHitIt->second).energy += convertUnitsTo(0.001_MeV, simHit.energyLoss());
 
     // --- Get the time of the first SIM hit in the cell
     if ((simHitIt->second).time == 0 || simHit.tof() < (simHitIt->second).time) {
       (simHitIt->second).time = simHit.tof();
 
       auto hit_pos = simHit.localPosition();
       (simHitIt->second).x = hit_pos.x();
       (simHitIt->second).y = hit_pos.y();
       (simHitIt->second).z = hit_pos.z();
     }
 
   }  // simHit loop
 
   // --- Loop over the BTL RECO hits
   unsigned int n_reco_btl = 0;
   unsigned int n_reco_btl_nosimhit = 0;
   for (const auto& recHit : *btlRecHitsHandle) {
     BTLDetId detId = recHit.id();
     DetId geoId = detId.geographicalId(MTDTopologyMode::crysLayoutFromTopoMode(topology->getMTDTopologyMode()));
     const MTDGeomDet* thedet = geom->idToDet(geoId);
     if (thedet == nullptr)
       throw cms::Exception("BtlLocalRecoValidation") << "GeographicalID: " << std::hex << geoId.rawId() << " ("
                                                      << detId.rawId() << ") is invalid!" << std::dec << std::endl;
     const ProxyMTDTopology& topoproxy = static_cast<const ProxyMTDTopology&>(thedet->topology());
     const RectangularMTDTopology& topo = static_cast<const RectangularMTDTopology&>(topoproxy.specificTopology());
 
     Local3DPoint local_point(0., 0., 0.);
     local_point = topo.pixelToModuleLocalPoint(local_point, detId.row(topo.nrows()), detId.column(topo.nrows()));
     const auto& global_point = thedet->toGlobal(local_point);
 
     meHitEnergy_->Fill(recHit.energy());
     meHitLogEnergy_->Fill(log10(recHit.energy()));
     meHitTime_->Fill(recHit.time());
     meHitTimeError_->Fill(recHit.timeError());
     meHitLongPos_->Fill(recHit.position());
 
     meOccupancy_->Fill(global_point.z(), global_point.phi());
 
     if (optionalPlots_) {
       meLocalOccupancy_->Fill(local_point.x() + recHit.position(), local_point.y());
     }
     meHitXlocal_->Fill(local_point.x());
     meHitYlocal_->Fill(local_point.y());
     meHitZlocal_->Fill(local_point.z());
     meHitZ_->Fill(global_point.z());
     meHitPhi_->Fill(global_point.phi());
     meHitEta_->Fill(global_point.eta());
 
     meHitTvsE_->Fill(recHit.energy(), recHit.time());
     meHitEvsPhi_->Fill(global_point.phi(), recHit.energy());
     meHitEvsEta_->Fill(global_point.eta(), recHit.energy());
     meHitEvsZ_->Fill(global_point.z(), recHit.energy());
     meHitTvsPhi_->Fill(global_point.phi(), recHit.time());
     meHitTvsEta_->Fill(global_point.eta(), recHit.time());
     meHitTvsZ_->Fill(global_point.z(), recHit.time());
 
     // Resolution histograms
     LogDebug("BtlLocalRecoValidation") << "RecoHit DetId= " << detId.rawId()
                                        << " sim hits in id= " << m_btlSimHits.count(detId.rawId());
     if (m_btlSimHits.count(detId.rawId()) == 1 && m_btlSimHits[detId.rawId()].energy > hitMinEnergy_) {
       float longpos_res = recHit.position() - convertMmToCm(m_btlSimHits[detId.rawId()].x);
       float time_res = recHit.time() - m_btlSimHits[detId.rawId()].time;
       float energy_res = recHit.energy() - m_btlSimHits[detId.rawId()].energy;
 
       Local3DPoint local_point_sim(convertMmToCm(m_btlSimHits[detId.rawId()].x),
                                    convertMmToCm(m_btlSimHits[detId.rawId()].y),
                                    convertMmToCm(m_btlSimHits[detId.rawId()].z));
       local_point_sim =
           topo.pixelToModuleLocalPoint(local_point_sim, detId.row(topo.nrows()), detId.column(topo.nrows()));
       const auto& global_point_sim = thedet->toGlobal(local_point_sim);
 
       meTimeRes_->Fill(time_res);
       meTimeResVsE_->Fill(recHit.energy(), time_res);
       meEnergyRes_->Fill(energy_res);
       meEnergyRelResVsE_->Fill(recHit.energy(), energy_res / recHit.energy());
 
       meLongPosPull_->Fill(longpos_res / recHit.positionError());
       meLongPosPullvsEta_->Fill(std::abs(global_point_sim.eta()), longpos_res / recHit.positionError());
       meLongPosPullvsE_->Fill(m_btlSimHits[detId.rawId()].energy, longpos_res / recHit.positionError());
 
       meTPullvsEta_->Fill(std::abs(global_point_sim.eta()), time_res / recHit.timeError());
       meTPullvsE_->Fill(m_btlSimHits[detId.rawId()].energy, time_res / recHit.timeError());
     } else if (m_btlSimHits.count(detId.rawId()) == 0) {
       n_reco_btl_nosimhit++;
       LogDebug("BtlLocalRecoValidation") << "BTL rec hit with no corresponding sim hit in crystal, DetId= "
                                          << detId.rawId() << " geoId= " << geoId.rawId() << " ene= " << recHit.energy()
                                          << " time= " << recHit.time();
     }
 
     n_reco_btl++;
 
   }  // recHit loop
 
   if (n_reco_btl > 0) {
     meNhits_->Fill(std::log10(n_reco_btl));
   }
   if (n_reco_btl_nosimhit == 0) {
     meUnmatchedRecHit_->Fill(-1.5);
   } else {
     meUnmatchedRecHit_->Fill(std::log10(n_reco_btl_nosimhit));
   }
 
   // --- Loop over the BTL RECO clusters ---
   unsigned int n_clus_btl(0);
   for (const auto& DetSetClu : *btlRecCluHandle) {
     for (const auto& cluster : DetSetClu) {
       if (cluster.energy() < hitMinEnergy_)
         continue;
       BTLDetId cluId = cluster.id();
       DetId detIdObject(cluId);
       const auto& genericDet = geom->idToDetUnit(detIdObject);
       if (genericDet == nullptr) {
         throw cms::Exception("BtlLocalRecoValidation")
             << "GeographicalID: " << std::hex << cluId << " is invalid!" << std::dec << std::endl;
       }
       n_clus_btl++;
 
       const ProxyMTDTopology& topoproxy = static_cast<const ProxyMTDTopology&>(genericDet->topology());
       const RectangularMTDTopology& topo = static_cast<const RectangularMTDTopology&>(topoproxy.specificTopology());
 
       MTDClusterParameterEstimator::ReturnType tuple = cpe.getParameters(cluster, *genericDet);
 
       // --- Cluster position in the module reference frame
       LocalPoint local_point(std::get<0>(tuple));
       const auto& global_point = genericDet->toGlobal(local_point);
 
       meCluEnergy_->Fill(cluster.energy());
       meCluTime_->Fill(cluster.time());
       meCluTimeError_->Fill(cluster.timeError());
       meCluPhi_->Fill(global_point.phi());
       meCluEta_->Fill(global_point.eta());
       meCluZvsPhi_->Fill(global_point.z(), global_point.phi());
       meCluHits_->Fill(cluster.size());
 
       // --- Get the SIM hits associated to the cluster and calculate
       //     the cluster SIM energy, time and position
 
       double cluEneSIM = 0.;
       double cluTimeSIM = 0.;
       double cluLocXSIM = 0.;
       double cluLocYSIM = 0.;
       double cluLocZSIM = 0.;
 
       for (int ihit = 0; ihit < cluster.size(); ++ihit) {
         int hit_row = cluster.minHitRow() + cluster.hitOffset()[ihit * 2];
         int hit_col = cluster.minHitCol() + cluster.hitOffset()[ihit * 2 + 1];
 
         // Match the RECO hit to the corresponding SIM hit
         for (const auto& recHit : *btlRecHitsHandle) {
           BTLDetId hitId(recHit.id().rawId());
 
           if (m_btlSimHits.count(hitId.rawId()) == 0)
             continue;
 
           // Check the hit position
           if (hitId.mtdSide() != cluId.mtdSide() || hitId.mtdRR() != cluId.mtdRR() || recHit.row() != hit_row ||
               recHit.column() != hit_col)
             continue;
 
           // Check the hit energy and time
           if (recHit.energy() != cluster.hitENERGY()[ihit] || recHit.time() != cluster.hitTIME()[ihit])
             continue;
 
           // SIM hit's position in the module reference frame
           Local3DPoint local_point_sim(convertMmToCm(m_btlSimHits[recHit.id().rawId()].x),
                                        convertMmToCm(m_btlSimHits[recHit.id().rawId()].y),
                                        convertMmToCm(m_btlSimHits[recHit.id().rawId()].z));
           local_point_sim =
               topo.pixelToModuleLocalPoint(local_point_sim, hitId.row(topo.nrows()), hitId.column(topo.nrows()));
 
           // Calculate the SIM cluster's position in the module reference frame
           cluLocXSIM += local_point_sim.x() * m_btlSimHits[recHit.id().rawId()].energy;
           cluLocYSIM += local_point_sim.y() * m_btlSimHits[recHit.id().rawId()].energy;
           cluLocZSIM += local_point_sim.z() * m_btlSimHits[recHit.id().rawId()].energy;
 
           // Calculate the SIM cluster energy and time
           cluEneSIM += m_btlSimHits[recHit.id().rawId()].energy;
           cluTimeSIM += m_btlSimHits[recHit.id().rawId()].time * m_btlSimHits[recHit.id().rawId()].energy;
 
           break;
 
         }  // recHit loop
 
       }  // ihit loop
 
       // Find the MTDTrackingRecHit corresponding to the cluster
       const MTDTrackingRecHit* comp(nullptr);
       bool matchClu = false;
       const auto& trkHits = (*mtdTrkHitHandle)[detIdObject];
       for (const auto& trkHit : trkHits) {
         if (isSameCluster(trkHit.mtdCluster(), cluster)) {
           comp = trkHit.clone();
           matchClu = true;
           break;
         }
       }
       if (!matchClu) {
         edm::LogWarning("BtlLocalRecoValidation")
             << "No valid TrackingRecHit corresponding to cluster, detId = " << detIdObject.rawId();
       }
 
       // --- Fill the cluster resolution histograms
       if (cluTimeSIM > 0. && cluEneSIM > 0.) {
         cluTimeSIM /= cluEneSIM;
 
         Local3DPoint cluLocalPosSIM(cluLocXSIM / cluEneSIM, cluLocYSIM / cluEneSIM, cluLocZSIM / cluEneSIM);
         const auto& cluGlobalPosSIM = genericDet->toGlobal(cluLocalPosSIM);
 
         float time_res = cluster.time() - cluTimeSIM;
         float energy_res = cluster.energy() - cluEneSIM;
         meCluTimeRes_->Fill(time_res);
         meCluEnergyRes_->Fill(energy_res);
 
         float rho_res = global_point.perp() - cluGlobalPosSIM.perp();
         float phi_res = global_point.phi() - cluGlobalPosSIM.phi();
 
         meCluRhoRes_->Fill(rho_res);
         meCluPhiRes_->Fill(phi_res);
 
         float xlocal_res = local_point.x() - cluLocalPosSIM.x();
         float ylocal_res = local_point.y() - cluLocalPosSIM.y();
 
         float z_res = global_point.z() - cluGlobalPosSIM.z();
 
         meCluZRes_->Fill(z_res);
 
         if (matchClu && comp != nullptr) {
           meCluLocalXRes_->Fill(xlocal_res);
 
           if (global_point.z() > 0) {
             meCluLocalYResZGlobPlus_->Fill(ylocal_res);
             meCluLocalYPullZGlobPlus_->Fill(ylocal_res / std::sqrt(comp->localPositionError().yy()));
           } else {
             meCluLocalYResZGlobMinus_->Fill(ylocal_res);
             meCluLocalYPullZGlobMinus_->Fill(ylocal_res / std::sqrt(comp->localPositionError().yy()));
           }
           if (optionalPlots_) {
             if (cluster.size() == 1) {  // single-crystal clusters
               meCluSingCrystalLocalYRes_->Fill(ylocal_res);
               if (global_point.z() > 0) {
                 meCluSingCrystalLocalYResZGlobPlus_->Fill(ylocal_res);
               } else {
                 meCluSingCrystalLocalYResZGlobMinus_->Fill(ylocal_res);
               }
             }  // end of single-crystal clusters
             else {
               if (cluster.size() > 1) {  // multi-crystal clusters
                 meCluMultiCrystalLocalYRes_->Fill(ylocal_res);
                 if (global_point.z() > 0) {
                   meCluMultiCrystalLocalYResZGlobPlus_->Fill(ylocal_res);
                 } else {
                   meCluMultiCrystalLocalYResZGlobMinus_->Fill(ylocal_res);
                 }
               }
             }  // end of multi-crystal clusters
 
             if (abs(global_point.eta()) < 0.3) {
               meCluCentralLocalYRes_->Fill(ylocal_res);
               if (global_point.z() > 0) {
                 meCluCentralLocalYResZGlobPlus_->Fill(ylocal_res);
               } else {
                 meCluCentralLocalYResZGlobMinus_->Fill(ylocal_res);
               }
 
             } else {
               if (abs(global_point.eta()) > 1) {
                 meCluForwardLocalYRes_->Fill(ylocal_res);
                 if (global_point.z() > 0) {
                   meCluForwardPlusLocalYRes_->Fill(ylocal_res);
                 } else {
                   meCluForwardMinusLocalYRes_->Fill(ylocal_res);
                 }
               }
             }
 
             meCluYXLocal_->Fill(local_point.x(), local_point.y());
             meCluYXLocalSim_->Fill(cluLocalPosSIM.x(), cluLocalPosSIM.y());
 
           }  //end of optional plots
 
           meCluLocalXPull_->Fill(xlocal_res / std::sqrt(comp->localPositionError().xx()));
           meCluZPull_->Fill(z_res / std::sqrt(comp->globalPositionError().czz()));
           meCluXLocalErr_->Fill(std::sqrt(comp->localPositionError().xx()));
           meCluYLocalErr_->Fill(std::sqrt(comp->localPositionError().yy()));
         }
 
         meCluEnergyvsEta_->Fill(std::abs(cluGlobalPosSIM.eta()), cluster.energy());
         meCluHitsvsEta_->Fill(std::abs(cluGlobalPosSIM.eta()), cluster.size());
 
         meCluTResvsEta_->Fill(std::abs(cluGlobalPosSIM.eta()), time_res);
         meCluTResvsE_->Fill(cluEneSIM, time_res);
 
         meCluTPullvsEta_->Fill(std::abs(cluGlobalPosSIM.eta()), time_res / cluster.timeError());
         meCluTPullvsE_->Fill(cluEneSIM, time_res / cluster.timeError());
 
       }  // if ( cluTimeSIM > 0. &&  cluEneSIM > 0. )
       else {
         meUnmatchedCluEnergy_->Fill(std::log10(cluster.energy()));
       }
 
       // --- Fill the cluster resolution histograms using MtdSimLayerClusters as mtd truth
       edm::Ref<edmNew::DetSetVector<FTLCluster>, FTLCluster> clusterRef = edmNew::makeRefTo(btlRecCluHandle, &cluster);
       auto itp = r2sAssociationMap.equal_range(clusterRef);
       if (itp.first != itp.second) {
         std::vector<MtdSimLayerClusterRef> simClustersRefs =
             (*itp.first).second;  // the range of itp.first, itp.second should be always 1
         for (unsigned int i = 0; i < simClustersRefs.size(); i++) {
           auto simClusterRef = simClustersRefs[i];
 
           float simClusEnergy = convertUnitsTo(0.001_MeV, (*simClusterRef).simLCEnergy());  // GeV --> MeV
           float simClusTime = (*simClusterRef).simLCTime();
           LocalPoint simClusLocalPos = (*simClusterRef).simLCPos();
           const auto& simClusGlobalPos = genericDet->toGlobal(simClusLocalPos);
           unsigned int idOffset = (*simClusterRef).trackIdOffset();
 
           float time_res = cluster.time() - simClusTime;
           float energy_res = cluster.energy() - simClusEnergy;
           float rho_res = global_point.perp() - simClusGlobalPos.perp();
           float phi_res = global_point.phi() - simClusGlobalPos.phi();
           float z_res = global_point.z() - simClusGlobalPos.z();
           float xlocal_res = local_point.x() - simClusLocalPos.x();
           float ylocal_res = local_point.y() - simClusLocalPos.y();
 
           meCluTrackIdOffset_->Fill(float(idOffset));
 
           // -- Fill for direct hits
           if (idOffset == 0) {
             meCluTimeRes_simLC_->Fill(time_res);
             meCluEnergyRes_simLC_->Fill(energy_res);
             meCluRhoRes_simLC_->Fill(rho_res);
             meCluPhiRes_simLC_->Fill(phi_res);
             meCluZRes_simLC_->Fill(z_res);
 
             if (matchClu && comp != nullptr) {
               meCluLocalXRes_simLC_->Fill(xlocal_res);
 
               if (global_point.z() > 0) {
                 meCluLocalYResZGlobPlus_simLC_->Fill(ylocal_res);
                 meCluLocalYPullZGlobPlus_simLC_->Fill(ylocal_res / std::sqrt(comp->localPositionError().yy()));
               } else {
                 meCluLocalYResZGlobMinus_simLC_->Fill(ylocal_res);
                 meCluLocalYPullZGlobMinus_simLC_->Fill(ylocal_res / std::sqrt(comp->localPositionError().yy()));
               }
               if (optionalPlots_) {
                 if (cluster.size() == 1) {  // single-crystal clusters
                   meCluSingCrystalLocalYRes_simLC_->Fill(ylocal_res);
                   if (global_point.z() > 0) {
                     meCluSingCrystalLocalYResZGlobPlus_simLC_->Fill(ylocal_res);
                   } else {
                     meCluSingCrystalLocalYResZGlobMinus_simLC_->Fill(ylocal_res);
                   }
                 }  // end of single-crystal clusters
                 else {
                   if (cluster.size() > 1) {  // multi-crystal clusters
                     meCluMultiCrystalLocalYRes_simLC_->Fill(ylocal_res);
                     if (global_point.z() > 0) {
                       meCluMultiCrystalLocalYResZGlobPlus_simLC_->Fill(ylocal_res);
                     } else {
                       meCluMultiCrystalLocalYResZGlobMinus_simLC_->Fill(ylocal_res);
                     }
                   }
                 }  // end of multi-crystal clusters
 
                 if (abs(global_point.eta()) < 0.3) {
                   meCluCentralLocalYRes_simLC_->Fill(ylocal_res);
                   if (global_point.z() > 0) {
                     meCluCentralLocalYResZGlobPlus_simLC_->Fill(ylocal_res);
                   } else {
                     meCluCentralLocalYResZGlobMinus_simLC_->Fill(ylocal_res);
                   }
                 } else {
                   if (abs(global_point.eta()) > 1) {
                     meCluForwardLocalYRes_simLC_->Fill(ylocal_res);
                     if (global_point.z() > 0) {
                       meCluForwardPlusLocalYRes_simLC_->Fill(ylocal_res);
                     } else {
                       meCluForwardMinusLocalYRes_simLC_->Fill(ylocal_res);
                     }
                   }
                 }
               }  //end of optional plots
 
               meCluLocalXPull_simLC_->Fill(xlocal_res / std::sqrt(comp->localPositionError().xx()));
               meCluZPull_simLC_->Fill(z_res / std::sqrt(comp->globalPositionError().czz()));
             }
 
             meCluTResvsEta_simLC_->Fill(std::abs(simClusGlobalPos.eta()), time_res);
             meCluTResvsE_simLC_->Fill(simClusEnergy, time_res);
 
             meCluTPullvsEta_simLC_->Fill(std::abs(simClusGlobalPos.eta()), time_res / cluster.timeError());
             meCluTPullvsE_simLC_->Fill(simClusEnergy, time_res / cluster.timeError());
 
           }  // if idOffset == 0
           else {
             meCluTimeRes_simLC_fromIndirectHits_->Fill(time_res);
             meCluEnergyRes_simLC_fromIndirectHits_->Fill(energy_res);
             meCluRhoRes_simLC_fromIndirectHits_->Fill(rho_res);
             meCluPhiRes_simLC_fromIndirectHits_->Fill(phi_res);
             meCluZRes_simLC_fromIndirectHits_->Fill(z_res);
 
             if (matchClu && comp != nullptr) {
               meCluLocalXRes_simLC_fromIndirectHits_->Fill(xlocal_res);
 
               if (global_point.z() > 0) {
                 meCluLocalYResZGlobPlus_simLC_fromIndirectHits_->Fill(ylocal_res);
                 meCluLocalYPullZGlobPlus_simLC_fromIndirectHits_->Fill(ylocal_res /
                                                                        std::sqrt(comp->localPositionError().yy()));
               } else {
                 meCluLocalYResZGlobMinus_simLC_fromIndirectHits_->Fill(ylocal_res);
                 meCluLocalYPullZGlobMinus_simLC_fromIndirectHits_->Fill(ylocal_res /
                                                                         std::sqrt(comp->localPositionError().yy()));
               }
               if (optionalPlots_) {
                 if (cluster.size() == 1) {  // single-crystal clusters
                   meCluSingCrystalLocalYRes_simLC_fromIndirectHits_->Fill(ylocal_res);
                   if (global_point.z() > 0) {
                     meCluSingCrystalLocalYResZGlobPlus_simLC_fromIndirectHits_->Fill(ylocal_res);
                   } else {
                     meCluSingCrystalLocalYResZGlobMinus_simLC_fromIndirectHits_->Fill(ylocal_res);
                   }
                 }  // end of single-crystal clusters
                 else {
                   if (cluster.size() > 1) {  // multi-crystal clusters
                     meCluMultiCrystalLocalYRes_simLC_fromIndirectHits_->Fill(ylocal_res);
                     if (global_point.z() > 0) {
                       meCluMultiCrystalLocalYResZGlobPlus_simLC_fromIndirectHits_->Fill(ylocal_res);
                     } else {
                       meCluMultiCrystalLocalYResZGlobMinus_simLC_fromIndirectHits_->Fill(ylocal_res);
                     }
                   }
                 }  // end of multi-crystal clusters
 
                 if (abs(global_point.eta()) < 0.3) {
                   meCluCentralLocalYRes_simLC_fromIndirectHits_->Fill(ylocal_res);
                   if (global_point.z() > 0) {
                     meCluCentralLocalYResZGlobPlus_simLC_fromIndirectHits_->Fill(ylocal_res);
                   } else {
                     meCluCentralLocalYResZGlobMinus_simLC_fromIndirectHits_->Fill(ylocal_res);
                   }
                 } else {
                   if (abs(global_point.eta()) > 1) {
                     meCluForwardLocalYRes_simLC_fromIndirectHits_->Fill(ylocal_res);
                     if (global_point.z() > 0) {
                       meCluForwardPlusLocalYRes_simLC_fromIndirectHits_->Fill(ylocal_res);
                     } else {
                       meCluForwardMinusLocalYRes_simLC_fromIndirectHits_->Fill(ylocal_res);
                     }
                   }
                 }
               }  //end of optional plots
 
               meCluLocalXPull_simLC_fromIndirectHits_->Fill(xlocal_res / std::sqrt(comp->localPositionError().xx()));
               meCluZPull_simLC_fromIndirectHits_->Fill(z_res / std::sqrt(comp->globalPositionError().czz()));
             }
 
             meCluTResvsEta_simLC_fromIndirectHits_->Fill(std::abs(simClusGlobalPos.eta()), time_res);
             meCluTResvsE_simLC_fromIndirectHits_->Fill(simClusEnergy, time_res);
 
             meCluTPullvsEta_simLC_fromIndirectHits_->Fill(std::abs(simClusGlobalPos.eta()),
                                                           time_res / cluster.timeError());
             meCluTPullvsE_simLC_fromIndirectHits_->Fill(simClusEnergy, time_res / cluster.timeError());
           }
 
         }  // simLayerClusterRefs loop
       }
 
     }  // cluster loop
 
   }  // DetSetClu loop
 
   if (n_clus_btl > 0)
     meNclusters_->Fill(log10(n_clus_btl));
 
   // --- This is to count the number of processed events, needed in the harvesting step
   meNevents_->Fill(0.5);
 
   // --- Loop over the BTL Uncalibrated RECO hits
   auto btlUncalibRecHitsHandle = makeValid(iEvent.getHandle(btlUncalibRecHitsToken_));
 
   for (const auto& uRecHit : *btlUncalibRecHitsHandle) {
     BTLDetId detId = uRecHit.id();
 
     // --- Skip UncalibratedRecHits not matched to SimHits
     if (m_btlSimHits.count(detId.rawId()) != 1)
       continue;
 
     // --- Combine the information from the left and right BTL cell sides
 
     float nHits = 0.;
     float hit_amplitude = 0.;
     float hit_time = 0.;
 
     // left side:
     if (uRecHit.amplitude().first > 0.) {
       hit_amplitude += uRecHit.amplitude().first;
       hit_time += uRecHit.time().first;
       nHits += 1.;
     }
     // right side:
     if (uRecHit.amplitude().second > 0.) {
       hit_amplitude += uRecHit.amplitude().second;
       hit_time += uRecHit.time().second;
       nHits += 1.;
     }
 
     hit_amplitude /= nHits;
     hit_time /= nHits;
 
     // --- Fill the histograms
 
     if (hit_amplitude < hitMinAmplitude_)
       continue;
 
     meUncEneRVsX_->Fill(uRecHit.position(), uRecHit.amplitude().first - hit_amplitude);
     meUncEneLVsX_->Fill(uRecHit.position(), uRecHit.amplitude().second - hit_amplitude);
 
     meUncTimeRVsX_->Fill(uRecHit.position(), uRecHit.time().first - hit_time);
     meUncTimeLVsX_->Fill(uRecHit.position(), uRecHit.time().second - hit_time);
 
     if (uncalibRecHitsPlots_) {
       DetId geoId = detId.geographicalId(MTDTopologyMode::crysLayoutFromTopoMode(topology->getMTDTopologyMode()));
       const MTDGeomDet* thedet = geom->idToDet(geoId);
       if (thedet == nullptr)
         throw cms::Exception("BtlLocalRecoValidation") << "GeographicalID: " << std::hex << geoId.rawId() << " ("
                                                        << detId.rawId() << ") is invalid!" << std::dec << std::endl;
       const ProxyMTDTopology& topoproxy = static_cast<const ProxyMTDTopology&>(thedet->topology());
       const RectangularMTDTopology& topo = static_cast<const RectangularMTDTopology&>(topoproxy.specificTopology());
 
       Local3DPoint local_point(0., 0., 0.);
       local_point = topo.pixelToModuleLocalPoint(local_point, detId.row(topo.nrows()), detId.column(topo.nrows()));
       const auto& global_point = thedet->toGlobal(local_point);
 
       float time_res = hit_time - m_btlSimHits[detId.rawId()].time;
 
       // amplitude histograms
 
       int qBin = (int)(hit_amplitude / binWidthQ_);
       if (qBin > nBinsQ_ - 1)
         qBin = nBinsQ_ - 1;
 
       meTimeResQ_[qBin]->Fill(time_res);
 
       int etaBin = 0;
       for (int ibin = 1; ibin < nBinsQEta_; ++ibin)
         if (fabs(global_point.eta()) >= binsQEta_[ibin] && fabs(global_point.eta()) < binsQEta_[ibin + 1])
           etaBin = ibin;
 
       meTimeResQvsEta_[qBin][etaBin]->Fill(time_res);
 
       // eta histograms
 
       etaBin = (int)(fabs(global_point.eta()) / binWidthEta_);
       if (etaBin > nBinsEta_ - 1)
         etaBin = nBinsEta_ - 1;
 
       meTimeResEta_[etaBin]->Fill(time_res);
 
       qBin = 0;
       for (int ibin = 1; ibin < nBinsEtaQ_; ++ibin)
         if (hit_amplitude >= binsEtaQ_[ibin] && hit_amplitude < binsEtaQ_[ibin + 1])
           qBin = ibin;
 
       meTimeResEtavsQ_[etaBin][qBin]->Fill(time_res);
     }
   }  // uRecHit loop}
 }

◆ bookHistograms()

void BtlLocalRecoValidation::bookHistograms	(	DQMStore::IBooker &	ibook,
		edm::Run const &	run,
		edm::EventSetup const &	iSetup
	)

overrideprivatevirtual

Implements DQMEDAnalyzer.

Definition at line 931 of file BtlLocalRecoValidation.cc.

                                                                          {
   ibook.setCurrentFolder(folder_);
 
   // --- histograms booking
 
   meNevents_ = ibook.book1D("BtlNevents", "Number of events", 1, 0., 1.);
 
   meNhits_ = ibook.book1D("BtlNhits", "Number of BTL RECO hits;log_{10}(N_{RECO})", 100, 0., 5.25);
 
   meHitEnergy_ = ibook.book1D("BtlHitEnergy", "BTL RECO hits energy;E_{RECO} [MeV]", 100, 0., 20.);
   meHitLogEnergy_ = ibook.book1D("BtlHitLogEnergy", "BTL RECO hits energy;log_{10}(E_{RECO} [MeV])", 16, -0.1, 1.5);
   meHitTime_ = ibook.book1D("BtlHitTime", "BTL RECO hits ToA;ToA_{RECO} [ns]", 100, 0., 25.);
   meHitTimeError_ = ibook.book1D("BtlHitTimeError", "BTL RECO hits ToA error;#sigma^{ToA}_{RECO} [ns]", 50, 0., 0.1);
   meOccupancy_ = ibook.book2D(
       "BtlOccupancy", "BTL RECO hits occupancy;Z_{RECO} [cm]; #phi_{RECO} [rad]", 65, -260., 260., 126, -3.2, 3.2);
   if (optionalPlots_) {
     meLocalOccupancy_ = ibook.book2D(
         "BtlLocalOccupancy", "BTL RECO hits local occupancy;X_{RECO} [cm]; Y_{RECO} [cm]", 100, 10., 10., 60, -3., 3.);
   }
   meHitXlocal_ = ibook.book1D("BtlHitXlocal", "BTL RECO local X;X_{RECO}^{LOC} [cm]", 100, -10., 10.);
   meHitYlocal_ = ibook.book1D("BtlHitYlocal", "BTL RECO local Y;Y_{RECO}^{LOC} [cm]", 60, -3, 3);
   meHitZlocal_ = ibook.book1D("BtlHitZlocal", "BTL RECO local z;z_{RECO}^{LOC} [cm]", 8, -0.4, 0.4);
   meHitZ_ = ibook.book1D("BtlHitZ", "BTL RECO hits Z;Z_{RECO} [cm]", 100, -260., 260.);
   meHitPhi_ = ibook.book1D("BtlHitPhi", "BTL RECO hits #phi;#phi_{RECO} [rad]", 126, -3.2, 3.2);
   meHitEta_ = ibook.book1D("BtlHitEta", "BTL RECO hits #eta;#eta_{RECO}", 100, -1.55, 1.55);
   meHitTvsE_ =
       ibook.bookProfile("BtlHitTvsE", "BTL RECO ToA vs energy;E_{RECO} [MeV];ToA_{RECO} [ns]", 50, 0., 20., 0., 100.);
   meHitEvsPhi_ = ibook.bookProfile(
       "BtlHitEvsPhi", "BTL RECO energy vs #phi;#phi_{RECO} [rad];E_{RECO} [MeV]", 50, -3.2, 3.2, 0., 100.);
   meHitEvsEta_ = ibook.bookProfile(
       "BtlHitEvsEta", "BTL RECO energy vs #eta;#eta_{RECO};E_{RECO} [MeV]", 50, -1.55, 1.55, 0., 100.);
   meHitEvsZ_ =
       ibook.bookProfile("BtlHitEvsZ", "BTL RECO energy vs Z;Z_{RECO} [cm];E_{RECO} [MeV]", 50, -260., 260., 0., 100.);
   meHitTvsPhi_ = ibook.bookProfile(
       "BtlHitTvsPhi", "BTL RECO ToA vs #phi;#phi_{RECO} [rad];ToA_{RECO} [ns]", 50, -3.2, 3.2, 0., 100.);
   meHitTvsEta_ =
       ibook.bookProfile("BtlHitTvsEta", "BTL RECO ToA vs #eta;#eta_{RECO};ToA_{RECO} [ns]", 50, -1.6, 1.6, 0., 100.);
   meHitTvsZ_ =
       ibook.bookProfile("BtlHitTvsZ", "BTL RECO ToA vs Z;Z_{RECO} [cm];ToA_{RECO} [ns]", 50, -260., 260., 0., 100.);
   meHitLongPos_ = ibook.book1D("BtlLongPos", "BTL RECO hits longitudinal position;long. pos._{RECO}", 50, -5, 5);
   meTimeRes_ = ibook.book1D("BtlTimeRes", "BTL time resolution;T_{RECO}-T_{SIM}", 100, -0.5, 0.5);
   meTimeResVsE_ = ibook.bookProfile(
       "BtlTimeResvsE", "BTL time resolution vs hit energy;E_{RECO} [MeV];T_{RECO}-T_{SIM}", 50, 0., 20., -0.5, 0.5, "S");
   meEnergyRes_ = ibook.book1D("BtlEnergyRes", "BTL energy resolution;E_{RECO}-E_{SIM}", 100, -0.5, 0.5);
   meEnergyRelResVsE_ = ibook.bookProfile("BtlEnergyRelResvsE",
                                          "BTL relative energy resolution vs hit energy;E_{RECO} [MeV];E_{RECO}-E_{SIM}",
                                          50,
                                          0.,
                                          20.,
                                          -0.15,
                                          0.15,
                                          "S");
   meLongPosPull_ = ibook.book1D("BtlLongPosPull",
                                 "BTL longitudinal position pull;X^{loc}_{RECO}-X^{loc}_{SIM}/#sigma_{xloc_{RECO}}",
                                 100,
                                 -5.,
                                 5.);
   meLongPosPullvsE_ = ibook.bookProfile(
       "BtlLongposPullvsE",
       "BTL longitudinal position pull vs E;E_{SIM} [MeV];X^{loc}_{RECO}-X^{loc}_{SIM}/#sigma_{xloc_{RECO}}",
       20,
       0.,
       20.,
       -5.,
       5.,
       "S");
   meLongPosPullvsEta_ = ibook.bookProfile(
       "BtlLongposPullvsEta",
       "BTL longitudinal position pull vs #eta;|#eta_{RECO}|;X^{loc}_{RECO}-X^{loc}_{SIM}/#sigma_{xloc_{RECO}}",
       32,
       0,
       1.55,
       -5.,
       5.,
       "S");
   meTPullvsE_ = ibook.bookProfile(
       "BtlTPullvsE", "BTL time pull vs E;E_{SIM} [MeV];(T_{RECO}-T_{SIM})/#sigma_{T_{RECO}}", 20, 0., 20., -5., 5., "S");
   meTPullvsEta_ = ibook.bookProfile("BtlTPullvsEta",
                                     "BTL time pull vs #eta;|#eta_{RECO}|;(T_{RECO}-T_{SIM})/#sigma_{T_{RECO}}",
                                     30,
                                     0,
                                     1.55,
                                     -5.,
                                     5.,
                                     "S");
 
   meUnmatchedRecHit_ = ibook.book1D(
       "UnmatchedRecHit", "log10(#BTL crystals with rechits but no simhit);log10(#BTL rechits)", 80, -2., 6.);
 
   meNclusters_ = ibook.book1D("BtlNclusters", "Number of BTL RECO clusters;log_{10}(N_{RECO})", 100, 0., 5.25);
   meCluTime_ = ibook.book1D("BtlCluTime", "BTL cluster time ToA;ToA [ns]", 250, 0, 25);
   meCluTimeError_ = ibook.book1D("BtlCluTimeError", "BTL cluster time error;#sigma_{t} [ns]", 100, 0, 0.1);
   meCluEnergy_ = ibook.book1D("BtlCluEnergy", "BTL cluster energy;E_{RECO} [MeV]", 100, 0, 20);
   meCluPhi_ = ibook.book1D("BtlCluPhi", "BTL cluster #phi;#phi_{RECO} [rad]", 144, -3.2, 3.2);
   meCluEta_ = ibook.book1D("BtlCluEta", "BTL cluster #eta;#eta_{RECO}", 100, -1.55, 1.55);
   meCluHits_ = ibook.book1D("BtlCluHitNumber", "BTL hits per cluster; Cluster size", 10, 0, 10);
   meCluZvsPhi_ = ibook.book2D(
       "BtlOccupancy", "BTL cluster Z vs #phi;Z_{RECO} [cm]; #phi_{RECO} [rad]", 144, -260., 260., 50, -3.2, 3.2);
   meCluEnergyvsEta_ = ibook.bookProfile(
       "BtlCluEnergyVsEta", "BTL cluster energy vs #eta; |#eta_{RECO}|; E_{RECO} [cm]", 30, 0., 1.55, 0., 20., "S");
   meCluHitsvsEta_ = ibook.bookProfile(
       "BtlCluHitsVsEta", "BTL hits per cluster vs #eta; |#eta_{RECO}|;Cluster size", 30, 0., 1.55, 0., 10., "S");
 
   meCluTimeRes_ = ibook.book1D("BtlCluTimeRes", "BTL cluster time resolution;T_{RECO}-T_{SIM} [ns]", 100, -0.5, 0.5);
   meCluEnergyRes_ =
       ibook.book1D("BtlCluEnergyRes", "BTL cluster energy resolution;E_{RECO}-E_{SIM} [MeV]", 100, -0.5, 0.5);
   meCluTResvsE_ = ibook.bookProfile("BtlCluTResvsE",
                                     "BTL cluster time resolution vs E;E_{SIM} [MeV];(T_{RECO}-T_{SIM}) [ns]",
                                     20,
                                     0.,
                                     20.,
                                     -0.5,
                                     0.5,
                                     "S");
   meCluTResvsEta_ = ibook.bookProfile("BtlCluTResvsEta",
                                       "BTL cluster time resolution vs #eta;|#eta_{RECO}|;(T_{RECO}-T_{SIM}) [ns]",
                                       30,
                                       0,
                                       1.55,
                                       -0.5,
                                       0.5,
                                       "S");
   meCluTPullvsE_ = ibook.bookProfile("BtlCluTPullvsE",
                                      "BTL cluster time pull vs E;E_{SIM} [MeV];(T_{RECO}-T_{SIM})/#sigma_{T_{RECO}}",
                                      20,
                                      0.,
                                      20.,
                                      -5.,
                                      5.,
                                      "S");
   meCluTPullvsEta_ =
       ibook.bookProfile("BtlCluTPullvsEta",
                         "BTL cluster time pull vs #eta;|#eta_{RECO}|;(T_{RECO}-T_{SIM})/#sigma_{T_{RECO}}",
                         30,
                         0,
                         1.55,
                         -5.,
                         5.,
                         "S");
   meCluRhoRes_ =
       ibook.book1D("BtlCluRhoRes", "BTL cluster #rho resolution;#rho_{RECO}-#rho_{SIM} [cm]", 100, -0.5, 0.5);
   meCluPhiRes_ =
       ibook.book1D("BtlCluPhiRes", "BTL cluster #phi resolution;#phi_{RECO}-#phi_{SIM} [rad]", 100, -0.03, 0.03);
   meCluZRes_ = ibook.book1D("BtlCluZRes", "BTL cluster Z resolution;Z_{RECO}-Z_{SIM} [cm]", 100, -0.2, 0.2);
   meCluLocalXRes_ =
       ibook.book1D("BtlCluLocalXRes", "BTL cluster local X resolution;X_{RECO}-X_{SIM} [cm]", 100, -3.1, 3.1);
   meCluLocalYResZGlobPlus_ = ibook.book1D(
       "BtlCluLocalYResZGlobPlus", "BTL cluster local Y resolution (glob Z > 0);Y_{RECO}-Y_{SIM} [cm]", 100, -0.2, 0.2);
   meCluLocalYResZGlobMinus_ = ibook.book1D(
       "BtlCluLocalYResZGlobMinus", "BTL cluster local Y resolution (glob Z < 0);Y_{RECO}-Y_{SIM} [cm]", 100, -0.2, 0.2);
   if (optionalPlots_) {
     meCluSingCrystalLocalYRes_ =
         ibook.book1D("BtlCluSingCrystalLocalYRes",
                      "BTL cluster local Y resolution (single Crystal clusters);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluSingCrystalLocalYResZGlobPlus_ =
         ibook.book1D("BtlCluSingCrystalLocalYResZGlobPlus",
                      "BTL cluster local Y resolution (single Crystal clusters, Z glob > 0);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluSingCrystalLocalYResZGlobMinus_ =
         ibook.book1D("BtlCluSingCrystalLocalYResZGlobMinus",
                      "BTL cluster local Y resolution (single Crystal clusters, Z glob < 0);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluMultiCrystalLocalYRes_ =
         ibook.book1D("BtlCluMultiCrystalLocalYRes",
                      "BTL cluster local Y resolution (Multi-Crystal clusters);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluMultiCrystalLocalYResZGlobPlus_ =
         ibook.book1D("BtlCluMultiCrystalLocalYResZGlobPlus",
                      "BTL cluster local Y resolution (Multi-Crystal clusters, Z glob > 0);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluMultiCrystalLocalYResZGlobMinus_ =
         ibook.book1D("BtlCluMultiCrystalLocalYResZGlobMinus",
                      "BTL cluster local Y resolution (Multi-Crystal clusters, Z glob < 0);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluCentralLocalYRes_ = ibook.book1D("BtlCluCentralLocalYRes",
                                           "BTL cluster local Y resolution (central region);Y_{RECO}-Y_{SIM} [cm]",
                                           100,
                                           -0.2,
                                           0.2);
     meCluCentralLocalYResZGlobPlus_ =
         ibook.book1D("BtlCluCentralLocalYResZGlobPlus",
                      "BTL cluster local Y resolution (central region, Z glob > 0);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluCentralLocalYResZGlobMinus_ =
         ibook.book1D("BtlCluCentralLocalYResZGlobMinus",
                      "BTL cluster local Y resolution (central region, Z glob < 0);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluForwardLocalYRes_ = ibook.book1D("BtlCluForwardLocalYRes",
                                           "BTL cluster local Y resolution (forward region);Y_{RECO}-Y_{SIM} [cm]",
                                           100,
                                           -0.2,
                                           0.2);
     meCluForwardPlusLocalYRes_ =
         ibook.book1D("BtlCluForwardPlusLocalYRes",
                      "BTL cluster local Y resolution (forward region, Z glob > 0);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluForwardMinusLocalYRes_ =
         ibook.book1D("BtlCluForwardMinusLocalYRes",
                      "BTL cluster local Y resolution (forward region, Z glob < 0);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
   }
   meCluLocalYPullZGlobPlus_ = ibook.book1D(
       "BtlCluLocalYPullZGlobPlus", "BTL cluster local Y pull (glob Z > 0);Y_{RECO}-Y_{SIM}/sigmaY_[RECO]", 100, -5., 5.);
   meCluLocalYPullZGlobMinus_ = ibook.book1D("BtlCluLocalYPullZGlobMinus",
                                             "BTL cluster local Y pull (glob Z < 0);Y_{RECO}-Y_{SIM}/sigmaY_[RECO]",
                                             100,
                                             -5.,
                                             5.);
 
   meCluLocalXPull_ =
       ibook.book1D("BtlCluLocalXPull", "BTL cluster local X pull;X_{RECO}-X_{SIM}/sigmaX_[RECO]", 100, -5., 5.);
 
   meCluZPull_ = ibook.book1D("BtlCluZPull", "BTL cluster Z pull;Z_{RECO}-Z_{SIM}/sigmaZ_[RECO]", 100, -5., 5.);
   meCluXLocalErr_ = ibook.book1D("BtlCluXLocalErr", "BTL cluster X local error;sigmaX_{RECO,loc} [cm]", 20, 0., 2.);
   meCluYLocalErr_ = ibook.book1D("BtlCluYLocalErr", "BTL cluster Y local error;sigmaY_{RECO,loc} [cm]", 20, 0., 0.4);
   if (optionalPlots_) {
     meCluYXLocal_ = ibook.book2D("BtlCluYXLocal",
                                  "BTL cluster local Y vs X;X^{local}_{RECO} [cm];Y^{local}_{RECO} [cm]",
                                  200,
                                  -9.5,
                                  9.5,
                                  200,
                                  -2.8,
                                  2.8);
     meCluYXLocalSim_ = ibook.book2D("BtlCluYXLocalSim",
                                     "BTL cluster local Y vs X;X^{local}_{SIM} [cm];Y^{local}_{SIM} [cm]",
                                     200,
                                     -9.5,
                                     9.5,
                                     200,
                                     -2.8,
                                     2.8);
   }
 
   // with MtdSimLayerCluster as truth
 
   meCluTrackIdOffset_ =
       ibook.book1D("BtlCluTrackIdOffset", "BTL cluster category (trackId offset); trackId offset", 4, 0.0, 4.0);
   meCluTimeRes_simLC_ = ibook.book1D("BtlCluTimeRes_simLC",
                                      "BTL cluster time resolution (wrt MtdSimLayerClusters);T_{RECO}-T_{SIM} [ns]",
                                      100,
                                      -0.5,
                                      0.5);
   meCluEnergyRes_simLC_ = ibook.book1D("BtlCluEnergyRes_simLC",
                                        "BTL cluster energy resolution (wrt MtdSimLayerClusters);E_{RECO}-E_{SIM} [MeV]",
                                        100,
                                        -0.5,
                                        0.5);
   meCluTResvsE_simLC_ = ibook.bookProfile(
       "BtlCluTResvsE_simLC",
       "BTL cluster time resolution (wrt MtdSimLayerClusters) vs E;E_{SIM} [MeV];(T_{RECO}-T_{SIM}) [ns]",
       20,
       0.,
       20.,
       -0.5,
       0.5,
       "S");
   meCluTResvsEta_simLC_ = ibook.bookProfile(
       "BtlCluTResvsEta_simLC",
       "BTL cluster time resolution (wrt MtdSimLayerClusters) vs #eta;|#eta_{RECO}|;(T_{RECO}-T_{SIM}) [ns]",
       30,
       0,
       1.55,
       -0.5,
       0.5,
       "S");
   meCluTPullvsE_simLC_ = ibook.bookProfile(
       "BtlCluTPullvsE_simLC",
       "BTL cluster time pull (wrt MtdSimLayerClusters) vs E;E_{SIM} [MeV];(T_{RECO}-T_{SIM})/#sigma_{T_{RECO}}",
       20,
       0.,
       20.,
       -5.,
       5.,
       "S");
   meCluTPullvsEta_simLC_ = ibook.bookProfile(
       "BtlCluTPullvsEta_simLC",
       "BTL cluster time pull (wrt MtdSimLayerClusters) vs #eta;|#eta_{RECO}|;(T_{RECO}-T_{SIM})/#sigma_{T_{RECO}}",
       30,
       0,
       1.55,
       -5.,
       5.,
       "S");
   meCluRhoRes_simLC_ = ibook.book1D("BtlCluRhoRes_simLC",
                                     "BTL cluster #rho resolution (wrt MtdSimLayerClusters);#rho_{RECO}-#rho_{SIM} [cm]",
                                     100,
                                     -0.5,
                                     0.5);
   meCluPhiRes_simLC_ =
       ibook.book1D("BtlCluPhiRes_simLC",
                    "BTL cluster #phi resolution (wrt MtdSimLayerClusters);#phi_{RECO}-#phi_{SIM} [rad]",
                    100,
                    -0.03,
                    0.03);
   meCluZRes_simLC_ = ibook.book1D(
       "BtlCluZRes_simLC", "BTL cluster Z resolution (wrt MtdSimLayerClusters);Z_{RECO}-Z_{SIM} [cm]", 100, -0.2, 0.2);
   meCluLocalXRes_simLC_ = ibook.book1D("BtlCluLocalXRes_simLC",
                                        "BTL cluster local X resolution (wrt MtdSimLayerClusters);X_{RECO}-X_{SIM} [cm]",
                                        100,
                                        -3.1,
                                        3.1);
   meCluLocalYResZGlobPlus_simLC_ =
       ibook.book1D("BtlCluLocalYResZGlobPlus_simLC",
                    "BTL cluster local Y resolution (wrt MtdSimLayerClusters, glob Z > 0);Y_{RECO}-Y_{SIM} [cm]",
                    100,
                    -0.2,
                    0.2);
   meCluLocalYResZGlobMinus_simLC_ =
       ibook.book1D("BtlCluLocalYResZGlobMinus_simLC",
                    "BTL cluster local Y resolution (wrt MtdSimLayerClusters, glob Z < 0);Y_{RECO}-Y_{SIM} [cm]",
                    100,
                    -0.2,
                    0.2);
   if (optionalPlots_) {
     meCluSingCrystalLocalYRes_simLC_ = ibook.book1D(
         "BtlCluSingCrystalLocalYRes_simLC",
         "BTL cluster local Y resolution (wrt MtdSimLayerClusters, single Crystal clusters);Y_{RECO}-Y_{SIM} [cm]",
         100,
         -0.2,
         0.2);
     meCluSingCrystalLocalYResZGlobPlus_simLC_ =
         ibook.book1D("BtlCluSingCrystalLocalYResZGlobPlus_simLC",
                      "BTL cluster local Y resolution (wrt MtdSimLayerClusters, single Crystal clusters, Z glob > "
                      "0);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluSingCrystalLocalYResZGlobMinus_simLC_ =
         ibook.book1D("BtlCluSingCrystalLocalYResZGlobMinus_simLC",
                      "BTL cluster local Y resolution (wrt MtdSimLayerClusters, single Crystal clusters, Z glob < "
                      "0);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluMultiCrystalLocalYRes_simLC_ = ibook.book1D(
         "BtlCluMultiCrystalLocalYRes_simLC",
         "BTL cluster local Y resolution (wrt MtdSimLayerClusters, Multi-Crystal clusters);Y_{RECO}-Y_{SIM} [cm]",
         100,
         -0.2,
         0.2);
     meCluMultiCrystalLocalYResZGlobPlus_simLC_ =
         ibook.book1D("BtlCluMultiCrystalLocalYResZGlobPlus_simLC",
                      "BTL cluster local Y resolution (wrt MtdSimLayerClusters, Multi-Crystal clusters, Z glob > "
                      "0);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluMultiCrystalLocalYResZGlobMinus_simLC_ =
         ibook.book1D("BtlCluMultiCrystalLocalYResZGlobMinus_simLC",
                      "BTL cluster local Y resolution (wrt MtdSimLayerClusters, Multi-Crystal clusters, Z glob < "
                      "0);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluCentralLocalYRes_simLC_ =
         ibook.book1D("BtlCluCentralLocalYRes_simLC",
                      "BTL cluster local Y resolution (wrt MtdSimLayerClusters, central region);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluCentralLocalYResZGlobPlus_simLC_ = ibook.book1D(
         "BtlCluCentralLocalYResZGlobPlus_simLC",
         "BTL cluster local Y resolution (wrt MtdSimLayerClusters, central region, Z glob > 0);Y_{RECO}-Y_{SIM} [cm]",
         100,
         -0.2,
         0.2);
     meCluCentralLocalYResZGlobMinus_simLC_ = ibook.book1D(
         "BtlCluCentralLocalYResZGlobMinus_simLC",
         "BTL cluster local Y resolution (wrt MtdSimLayerClusters, central region, Z glob < 0);Y_{RECO}-Y_{SIM} [cm]",
         100,
         -0.2,
         0.2);
     meCluForwardLocalYRes_simLC_ =
         ibook.book1D("BtlCluForwardLocalYRes_simLC",
                      "BTL cluster local Y resolution (wrt MtdSimLayerClusters, forward region);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluForwardPlusLocalYRes_simLC_ = ibook.book1D(
         "BtlCluForwardPlusLocalYRes_simLC",
         "BTL cluster local Y resolution (wrt MtdSimLayerClusters, forward region, Z glob > 0);Y_{RECO}-Y_{SIM} [cm]",
         100,
         -0.2,
         0.2);
     meCluForwardMinusLocalYRes_simLC_ = ibook.book1D(
         "BtlCluForwardMinusLocalYRes_simLC",
         "BTL cluster local Y resolution (wrt MtdSimLayerClusters, forward region, Z glob < 0);Y_{RECO}-Y_{SIM} [cm]",
         100,
         -0.2,
         0.2);
   }
   meCluLocalYPullZGlobPlus_simLC_ = ibook.book1D("BtlCluLocalYPullZGlobPlus_simLC",
                                                  "BTL cluster local Y pull (glob Z > 0);Y_{RECO}-Y_{SIM}/sigmaY_[RECO]",
                                                  100,
                                                  -5.,
                                                  5.);
   meCluLocalYPullZGlobMinus_simLC_ =
       ibook.book1D("BtlCluLocalYPullZGlobMinus_simLC",
                    "BTL cluster local Y pull (wrt MtdSimLayerClusters, glob Z < 0);Y_{RECO}-Y_{SIM}/sigmaY_[RECO]",
                    100,
                    -5.,
                    5.);
 
   meCluLocalXPull_simLC_ =
       ibook.book1D("BtlCluLocalXPull_simLC",
                    "BTL cluster local X pull (wrt MtdSimLayerClusters);X_{RECO}-X_{SIM}/sigmaX_[RECO]",
                    100,
                    -5.,
                    5.);
 
   meCluZPull_simLC_ = ibook.book1D(
       "BtlCluZPull_simLC", "BTL cluster Z pull (wrt MtdSimLayerClusters);Z_{RECO}-Z_{SIM}/sigmaZ_[RECO]", 100, -5., 5.);
   if (optionalPlots_) {
     meCluYXLocalSim_simLC_ =
         ibook.book2D("BtlCluYXLocalSim_simLC",
                      "BTL cluster local Y vs X (MtdSimLayerClusters);X^{local}_{SIM} [cm];Y^{local}_{SIM} [cm]",
                      200,
                      -9.5,
                      9.5,
                      200,
                      -2.8,
                      2.8);
   }
 
 
   meCluTimeRes_simLC_fromIndirectHits_ =
       ibook.book1D("BtlCluTimeRes_simLC_fromIndirectHits",
                    "BTL cluster time resolution (wrt MtdSimLayerClusters, non-direct hits);T_{RECO}-T_{SIM} [ns]",
                    100,
                    -0.5,
                    0.5);
   meCluEnergyRes_simLC_fromIndirectHits_ =
       ibook.book1D("BtlCluEnergyRes_simLC_fromIndirectHits",
                    "BTL cluster energy resolution (wrt MtdSimLayerClusters, non-direct hits);E_{RECO}-E_{SIM} [MeV]",
                    100,
                    -0.5,
                    0.5);
   meCluTResvsE_simLC_fromIndirectHits_ =
       ibook.bookProfile("BtlCluTResvsE_simLC_fromIndirectHits",
                         "BTL cluster time resolution (wrt MtdSimLayerClusters, non-direct hits) vs E;E_{SIM} "
                         "[MeV];(T_{RECO}-T_{SIM}) [ns]",
                         20,
                         0.,
                         20.,
                         -0.5,
                         0.5,
                         "S");
   meCluTResvsEta_simLC_fromIndirectHits_ =
       ibook.bookProfile("BtlCluTResvsEta_simLC_fromIndirectHits",
                         "BTL cluster time resolution (wrt MtdSimLayerClusters, non-direct hits) vs "
                         "#eta;|#eta_{RECO}|;(T_{RECO}-T_{SIM}) [ns]",
                         30,
                         0,
                         1.55,
                         -0.5,
                         0.5,
                         "S");
   meCluTPullvsE_simLC_fromIndirectHits_ =
       ibook.bookProfile("BtlCluTPullvsE_simLC_fromIndirectHits",
                         "BTL cluster time pull (wrt MtdSimLayerClusters, non-direct hits) vs E;E_{SIM} "
                         "[MeV];(T_{RECO}-T_{SIM})/#sigma_{T_{RECO}}",
                         20,
                         0.,
                         20.,
                         -5.,
                         5.,
                         "S");
   meCluTPullvsEta_simLC_fromIndirectHits_ =
       ibook.bookProfile("BtlCluTPullvsEta_simLC_fromIndirectHits",
                         "BTL cluster time pull (wrt MtdSimLayerClusters, non-direct hits) vs "
                         "#eta;|#eta_{RECO}|;(T_{RECO}-T_{SIM})/#sigma_{T_{RECO}}",
                         30,
                         0,
                         1.55,
                         -5.,
                         5.,
                         "S");
   meCluRhoRes_simLC_fromIndirectHits_ =
       ibook.book1D("BtlCluRhoRes_simLC_fromIndirectHits",
                    "BTL cluster #rho resolution (wrt MtdSimLayerClusters, non-direct hits);#rho_{RECO}-#rho_{SIM} [cm]",
                    100,
                    -0.5,
                    0.5);
   meCluPhiRes_simLC_fromIndirectHits_ = ibook.book1D(
       "BtlCluPhiRes_simLC_fromIndirectHits",
       "BTL cluster #phi resolution (wrt MtdSimLayerClusters, non-direct hits);#phi_{RECO}-#phi_{SIM} [rad]",
       100,
       -0.03,
       0.03);
   meCluZRes_simLC_fromIndirectHits_ =
       ibook.book1D("BtlCluZRes_simLC_fromIndirectHits",
                    "BTL cluster Z resolution (wrt MtdSimLayerClusters, non-direct hits);Z_{RECO}-Z_{SIM} [cm]",
                    100,
                    -0.2,
                    0.2);
   meCluLocalXRes_simLC_fromIndirectHits_ =
       ibook.book1D("BtlCluLocalXRes_simLC_fromIndirectHits",
                    "BTL cluster local X resolution (wrt MtdSimLayerClusters, non-direct hits);X_{RECO}-X_{SIM} [cm]",
                    100,
                    -3.1,
                    3.1);
   meCluLocalYResZGlobPlus_simLC_fromIndirectHits_ = ibook.book1D(
       "BtlCluLocalYResZGlobPlus_simLC_fromIndirectHits",
       "BTL cluster local Y resolution (wrt MtdSimLayerClusters, non-direct hits, glob Z > 0);Y_{RECO}-Y_{SIM} [cm]",
       100,
       -0.2,
       0.2);
   meCluLocalYResZGlobMinus_simLC_fromIndirectHits_ = ibook.book1D(
       "BtlCluLocalYResZGlobMinus_simLC_fromIndirectHits",
       "BTL cluster local Y resolution (wrt MtdSimLayerClusters, non-direct hits, glob Z < 0);Y_{RECO}-Y_{SIM} [cm]",
       100,
       -0.2,
       0.2);
   if (optionalPlots_) {
     meCluSingCrystalLocalYRes_simLC_fromIndirectHits_ =
         ibook.book1D("BtlCluSingCrystalLocalYRes_simLC_fromIndirectHits",
                      "BTL cluster local Y resolution (wrt MtdSimLayerClusters, non-direct hits, single Crystal "
                      "clusters);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluSingCrystalLocalYResZGlobPlus_simLC_fromIndirectHits_ = ibook.book1D(
         "BtlCluSingCrystalLocalYResZGlobPlus_simLC_fromIndirectHits",
         "BTL cluster local Y resolution (wrt MtdSimLayerClusters, non-direct hits, single Crystal clusters, Z glob > "
         "0);Y_{RECO}-Y_{SIM} [cm]",
         100,
         -0.2,
         0.2);
     meCluSingCrystalLocalYResZGlobMinus_simLC_fromIndirectHits_ = ibook.book1D(
         "BtlCluSingCrystalLocalYResZGlobMinus_simLC_fromIndirectHits",
         "BTL cluster local Y resolution (wrt MtdSimLayerClusters, non-direct hits, single Crystal clusters, Z glob < "
         "0);Y_{RECO}-Y_{SIM} [cm]",
         100,
         -0.2,
         0.2);
     meCluMultiCrystalLocalYRes_simLC_fromIndirectHits_ =
         ibook.book1D("BtlCluMultiCrystalLocalYRes_simLC_fromIndirectHits",
                      "BTL cluster local Y resolution (wrt MtdSimLayerClusters, non-direct hits, Multi-Crystal "
                      "clusters);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluMultiCrystalLocalYResZGlobPlus_simLC_fromIndirectHits_ = ibook.book1D(
         "BtlCluMultiCrystalLocalYResZGlobPlus_simLC_fromIndirectHits",
         "BTL cluster local Y resolution (wrt MtdSimLayerClusters, non-direct hits, Multi-Crystal clusters, Z glob > "
         "0);Y_{RECO}-Y_{SIM} [cm]",
         100,
         -0.2,
         0.2);
     meCluMultiCrystalLocalYResZGlobMinus_simLC_fromIndirectHits_ = ibook.book1D(
         "BtlCluMultiCrystalLocalYResZGlobMinus_simLC_fromIndirectHits",
         "BTL cluster local Y resolution (wrt MtdSimLayerClusters, non-direct hits, Multi-Crystal clusters, Z glob < "
         "0);Y_{RECO}-Y_{SIM} [cm]",
         100,
         -0.2,
         0.2);
     meCluCentralLocalYRes_simLC_fromIndirectHits_ =
         ibook.book1D("BtlCluCentralLocalYRes_simLC_fromIndirectHits",
                      "BTL cluster local Y resolution (wrt MtdSimLayerClusters, non-direct hits, central "
                      "region);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluCentralLocalYResZGlobPlus_simLC_fromIndirectHits_ =
         ibook.book1D("BtlCluCentralLocalYResZGlobPlus_simLC_fromIndirectHits",
                      "BTL cluster local Y resolution (wrt MtdSimLayerClusters, non-direct hits, central region, Z glob "
                      "> 0);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluCentralLocalYResZGlobMinus_simLC_fromIndirectHits_ =
         ibook.book1D("BtlCluCentralLocalYResZGlobMinus_simLC_fromIndirectHits",
                      "BTL cluster local Y resolution (wrt MtdSimLayerClusters, non-direct hits, central region, Z glob "
                      "< 0);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluForwardLocalYRes_simLC_fromIndirectHits_ =
         ibook.book1D("BtlCluForwardLocalYRes_simLC_fromIndirectHits",
                      "BTL cluster local Y resolution (wrt MtdSimLayerClusters, non-direct hits, forward "
                      "region);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluForwardPlusLocalYRes_simLC_fromIndirectHits_ =
         ibook.book1D("BtlCluForwardPlusLocalYRes_simLC_fromIndirectHits",
                      "BTL cluster local Y resolution (wrt MtdSimLayerClusters, non-direct hits, forward region, Z glob "
                      "> 0);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
     meCluForwardMinusLocalYRes_simLC_fromIndirectHits_ =
         ibook.book1D("BtlCluForwardMinusLocalYRes_simLC_fromIndirectHits",
                      "BTL cluster local Y resolution (wrt MtdSimLayerClusters, non-direct hits, forward region, Z glob "
                      "< 0);Y_{RECO}-Y_{SIM} [cm]",
                      100,
                      -0.2,
                      0.2);
   }
   meCluLocalYPullZGlobPlus_simLC_fromIndirectHits_ =
       ibook.book1D("BtlCluLocalYPullZGlobPlus_simLC_fromIndirectHits",
                    "BTL cluster local Y pull (glob Z > 0);Y_{RECO}-Y_{SIM}/sigmaY_[RECO]",
                    100,
                    -5.,
                    5.);
   meCluLocalYPullZGlobMinus_simLC_fromIndirectHits_ = ibook.book1D(
       "BtlCluLocalYPullZGlobMinus_simLC_fromIndirectHits",
       "BTL cluster local Y pull (wrt MtdSimLayerClusters, non-direct hits, glob Z < 0);Y_{RECO}-Y_{SIM}/sigmaY_[RECO]",
       100,
       -5.,
       5.);
 
   meCluLocalXPull_simLC_fromIndirectHits_ =
       ibook.book1D("BtlCluLocalXPull_simLC_fromIndirectHits",
                    "BTL cluster local X pull (wrt MtdSimLayerClusters, non-direct hits);X_{RECO}-X_{SIM}/sigmaX_[RECO]",
                    100,
                    -5.,
                    5.);
 
   meCluZPull_simLC_fromIndirectHits_ =
       ibook.book1D("BtlCluZPull_simLC_fromIndirectHits",
                    "BTL cluster Z pull (wrt MtdSimLayerClusters, non-direct hits);Z_{RECO}-Z_{SIM}/sigmaZ_[RECO]",
                    100,
                    -5.,
                    5.);
   if (optionalPlots_) {
     meCluYXLocalSim_simLC_fromIndirectHits_ =
         ibook.book2D("BtlCluYXLocalSim_simLC_fromIndirectHits",
                      "BTL cluster local Y vs X (MtdSimLayerClusters);X^{local}_{SIM} [cm];Y^{local}_{SIM} [cm]",
                      200,
                      -9.5,
                      9.5,
                      200,
                      -2.8,
                      2.8);
   }
 
 
   meUnmatchedCluEnergy_ =
       ibook.book1D("BtlUnmatchedCluEnergy", "BTL unmatched cluster log10(energy);log10(E_{RECO} [MeV])", 5, -3, 2);
 
   // --- UncalibratedRecHits histograms
 
   meUncEneLVsX_ = ibook.bookProfile("BTLUncEneLVsX",
                                     "BTL uncalibrated hit amplitude left - average vs X;X [cm];Delta(Q_{left}) [pC]",
                                     20,
                                     -5.,
                                     5.,
                                     -640.,
                                     640.,
                                     "S");
   meUncEneRVsX_ = ibook.bookProfile("BTLUncEneRVsX",
                                     "BTL uncalibrated hit amplitude right - average vs X;X [cm];Delta(Q_{right}) [pC]",
                                     20,
                                     -5.,
                                     5.,
                                     -640.,
                                     640.,
                                     "S");
 
   meUncTimeLVsX_ = ibook.bookProfile("BTLUncTimeLVsX",
                                      "BTL uncalibrated hit time left - average vs X;X [cm];Delta(T_{left}) [MeV]",
                                      20,
                                      -5.,
                                      5.,
                                      -25.,
                                      25.,
                                      "S");
   meUncTimeRVsX_ = ibook.bookProfile("BTLUncTimeRVsX",
                                      "BTL uncalibrated hit time right - average vs X;X [cm];Delta(T_{right}) [MeV]",
                                      20,
                                      -5.,
                                      5.,
                                      -25.,
                                      25.,
                                      "S");
 
   if (uncalibRecHitsPlots_) {
     for (unsigned int ihistoQ = 0; ihistoQ < nBinsQ_; ++ihistoQ) {
       std::string hname = Form("TimeResQ_%d", ihistoQ);
       std::string htitle = Form("BTL time resolution (Q bin = %d);T_{RECO} - T_{SIM} [ns]", ihistoQ);
       meTimeResQ_[ihistoQ] = ibook.book1D(hname, htitle, 200, -0.3, 0.7);
 
       for (unsigned int ihistoEta = 0; ihistoEta < nBinsQEta_; ++ihistoEta) {
         hname = Form("TimeResQvsEta_%d_%d", ihistoQ, ihistoEta);
         htitle = Form("BTL time resolution (Q bin = %d, |#eta| bin = %d);T_{RECO} - T_{SIM} [ns]", ihistoQ, ihistoEta);
         meTimeResQvsEta_[ihistoQ][ihistoEta] = ibook.book1D(hname, htitle, 200, -0.3, 0.7);
 
       }  // ihistoEta loop
 
     }  // ihistoQ loop
 
     for (unsigned int ihistoEta = 0; ihistoEta < nBinsEta_; ++ihistoEta) {
       std::string hname = Form("TimeResEta_%d", ihistoEta);
       std::string htitle = Form("BTL time resolution (|#eta| bin = %d);T_{RECO} - T_{SIM} [ns]", ihistoEta);
       meTimeResEta_[ihistoEta] = ibook.book1D(hname, htitle, 200, -0.3, 0.7);
 
       for (unsigned int ihistoQ = 0; ihistoQ < nBinsEtaQ_; ++ihistoQ) {
         hname = Form("TimeResEtavsQ_%d_%d", ihistoEta, ihistoQ);
         htitle = Form("BTL time resolution (|#eta| bin = %d, Q bin = %d);T_{RECO} - T_{SIM} [ns]", ihistoEta, ihistoQ);
         meTimeResEtavsQ_[ihistoEta][ihistoQ] = ibook.book1D(hname, htitle, 200, -0.3, 0.7);
 
       }  // ihistoQ loop
 
     }  // ihistoEta loop
   }
 }

◆ fillDescriptions()

void BtlLocalRecoValidation::fillDescriptions ( edm::ConfigurationDescriptions & descriptions )

static

Definition at line 1666 of file BtlLocalRecoValidation.cc.

References edm::ConfigurationDescriptions::add(), submitPVResolutionJobs::desc, ProducerED_cfi::InputTag, and AlCaHLTBitMon_QueryRunRegistry::string.

                                                                                         {
   edm::ParameterSetDescription desc;
 
   desc.add<std::string>("folder", "MTD/BTL/LocalReco");
   desc.add<edm::InputTag>("recHitsTag", edm::InputTag("mtdRecHits", "FTLBarrel"));
   desc.add<edm::InputTag>("uncalibRecHitsTag", edm::InputTag("mtdUncalibratedRecHits", "FTLBarrel"));
   desc.add<edm::InputTag>("simHitsTag", edm::InputTag("mix", "g4SimHitsFastTimerHitsBarrel"));
   desc.add<edm::InputTag>("recCluTag", edm::InputTag("mtdClusters", "FTLBarrel"));
   desc.add<edm::InputTag>("trkHitTag", edm::InputTag("mtdTrackingRecHits"));
   desc.add<edm::InputTag>("r2sAssociationMapTag", edm::InputTag("mtdRecoClusterToSimLayerClusterAssociation"));
   desc.add<double>("HitMinimumEnergy", 1.);  // [MeV]
   desc.add<bool>("optionalPlots", false);
   desc.add<bool>("UncalibRecHitsPlots", false);
   desc.add<double>("HitMinimumAmplitude", 30.);  // [pC]
 
   descriptions.add("btlLocalRecoValid", desc);
 }

◆ isSameCluster()

bool BtlLocalRecoValidation::isSameCluster	(	const FTLCluster &	clu1,
		const FTLCluster &	clu2
	)

private

Definition at line 288 of file BtlLocalRecoValidation.cc.

References FTLCluster::id(), FTLCluster::size(), FTLCluster::time(), FTLCluster::x(), and FTLCluster::y().

Referenced by analyze().

                                                                                          {
   return clu1.id() == clu2.id() && clu1.size() == clu2.size() && clu1.x() == clu2.x() && clu1.y() == clu2.y() &&
          clu1.time() == clu2.time();
 }