OverlapValidation Class Reference

Inheritance diagram for OverlapValidation:

Public Member Functions
	OverlapValidation (const edm::ParameterSet &)
	~OverlapValidation () override
Public Member Functions inherited from edm::one::EDAnalyzer<>
	EDAnalyzer ()=default
SerialTaskQueue *	globalLuminosityBlocksQueue () final
SerialTaskQueue *	globalRunsQueue () final
bool	wantsGlobalLuminosityBlocks () const final
bool	wantsGlobalRuns () const final
Public Member Functions inherited from edm::one::EDAnalyzerBase
void	callWhenNewProductsRegistered (std::function< void(BranchDescription const &)> const &func)
	EDAnalyzerBase ()
ModuleDescription const &	moduleDescription () const
bool	wantsStreamLuminosityBlocks () const
bool	wantsStreamRuns () const
	~EDAnalyzerBase () override
Public Member Functions inherited from edm::EDConsumerBase
std::vector< ConsumesInfo >	consumesInfo () const
void	convertCurrentProcessAlias (std::string const &processName)
	Convert "@currentProcess" in InputTag process names to the actual current process name. More...
	EDConsumerBase ()
	EDConsumerBase (EDConsumerBase &&)=default
	EDConsumerBase (EDConsumerBase const &)=delete
ESProxyIndex const *	esGetTokenIndices (edm::Transition iTrans) const
ProductResolverIndexAndSkipBit	indexFrom (EDGetToken, BranchType, TypeID const &) const
void	itemsMayGet (BranchType, std::vector< ProductResolverIndexAndSkipBit > &) const
void	itemsToGet (BranchType, std::vector< ProductResolverIndexAndSkipBit > &) const
std::vector< ProductResolverIndexAndSkipBit > const &	itemsToGetFrom (BranchType iType) const
void	labelsForToken (EDGetToken iToken, Labels &oLabels) const
void	modulesWhoseProductsAreConsumed (std::vector< ModuleDescription const * > &modules, ProductRegistry const &preg, std::map< std::string, ModuleDescription const * > const &labelsToDesc, std::string const &processName) const
EDConsumerBase &	operator= (EDConsumerBase &&)=default
EDConsumerBase const &	operator= (EDConsumerBase const &)=delete
bool	registeredToConsume (ProductResolverIndex, bool, BranchType) const
bool	registeredToConsumeMany (TypeID const &, BranchType) const
ProductResolverIndexAndSkipBit	uncheckedIndexFrom (EDGetToken) const
void	updateLookup (BranchType iBranchType, ProductResolverIndexHelper const &, bool iPrefetchMayGet)
void	updateLookup (eventsetup::ESRecordsToProxyIndices const &)
virtual	~EDConsumerBase () noexcept(false)

Private Types
typedef TransientTrackingRecHit::ConstRecHitPointer	ConstRecHitPointer
typedef vector< Trajectory >	TrajectoryCollection

Private Member Functions
void	analyze (const edm::Event &, const edm::EventSetup &) override
virtual void	analyze (const Trajectory &, const Propagator &, TrackerHitAssociator &, const TrackerTopology *const tTopo)
void	endJob () override
int	layerFromId (const DetId &, const TrackerTopology *const tTopo) const

Private Attributes
vector< bool >	acceptLayer
const bool	addExtraBranches_
bool	barrelOnly_
float	chi2_ [2]
const float	chi2ProbCut_
uint	clusterCharge_ [2]
float	clusterSize_ [2]
float	clusterWidthX_ [2]
float	clusterWidthY_ [2]
TrajectoryStateCombiner	combiner_
edm::ParameterSet	config_
bool	doSimHit_
int	edge_ [2]
uint	event_
edm::FileInPath	FileInPath_
unsigned short	hitCounts_ [2]
float	hitErrors_ [2]
float	hitErrorsY_ [2]
float	hitPositions_ [2]
float	hitPositionsY_ [2]
uint	layer_
float	localxdotglobalphi_ [2]
float	localxdotglobalr_ [2]
float	localxdotglobalx_ [2]
float	localxdotglobaly_ [2]
float	localxdotglobalz_ [2]
float	localydotglobalphi_ [2]
float	localydotglobalr_ [2]
float	localydotglobalx_ [2]
float	localydotglobaly_ [2]
float	localydotglobalz_ [2]
const MagneticField *	magField_
const int	minHitsCut_
float	moduleX_ [2]
float	moduleY_ [2]
float	moduleZ_ [2]
float	momentum_
const Point2DBase< float, LocalTag >	onezero = Point2DBase<float, LocalTag>(1, 0)
int	overlapCounts_ [3]
unsigned int	overlapIds_ [2]
float	overlapPath_
float	predictedDeltaXError_
float	predictedDeltaYError_
float	predictedLocalErrors_ [5][2]
float	predictedLocalParameters_ [5][2]
float	predictedPositions_ [3][2]
SiStripDetInfoFileReader *	reader
char	relativeXSign_
char	relativeYSign_
TTree *	rootTree_
uint	run_
float	simHitPositions_ [2]
float	simHitPositionsY_ [2]
int	subdetID
const TrackerGeometry *	trackerGeometry_
edm::InputTag	trajectoryTag_
edm::EDGetTokenT< TrajectoryCollection >	trajectoryToken_
const Point2DBase< float, LocalTag >	zeroone = Point2DBase<float, LocalTag>(0, 1)
const Point2DBase< float, LocalTag >	zerozero = Point2DBase<float, LocalTag>(0, 0)

Additional Inherited Members
Public Types inherited from edm::one::EDAnalyzerBase
typedef EDAnalyzerBase	ModuleType
Public Types inherited from edm::EDConsumerBase
typedef ProductLabels	Labels
Static Public Member Functions inherited from edm::one::EDAnalyzerBase
static const std::string &	baseType ()
static void	fillDescriptions (ConfigurationDescriptions &descriptions)
static void	prevalidate (ConfigurationDescriptions &descriptions)
Protected Member Functions inherited from edm::EDConsumerBase
EDGetToken	consumes (const TypeToGet &id, edm::InputTag const &tag)
template<typename ProductType , BranchType B = InEvent>
EDGetTokenT< ProductType >	consumes (edm::InputTag const &tag)
template<BranchType B>
EDGetToken	consumes (TypeToGet const &id, edm::InputTag const &tag)
ConsumesCollector	consumesCollector ()
	Use a ConsumesCollector to gather consumes information from helper functions. More...
template<typename ProductType , BranchType B = InEvent>
void	consumesMany ()
void	consumesMany (const TypeToGet &id)
template<BranchType B>
void	consumesMany (const TypeToGet &id)
template<typename ESProduct , typename ESRecord , Transition Tr = Transition::Event>
auto	esConsumes ()
template<typename ESProduct , typename ESRecord , Transition Tr = Transition::Event>
auto	esConsumes (ESInputTag const &tag)
EDGetToken	mayConsume (const TypeToGet &id, edm::InputTag const &tag)
template<BranchType B>
EDGetToken	mayConsume (const TypeToGet &id, edm::InputTag const &tag)
template<typename ProductType , BranchType B = InEvent>
EDGetTokenT< ProductType >	mayConsume (edm::InputTag const &tag)

Detailed Description

Definition at line 87 of file OverlapValidation.cc.

Member Typedef Documentation

ConstRecHitPointer

typedef TransientTrackingRecHit::ConstRecHitPointer OverlapValidation::ConstRecHitPointer

private

Definition at line 96 of file OverlapValidation.cc.

TrajectoryCollection

typedef vector<Trajectory> OverlapValidation::TrajectoryCollection

private

Definition at line 93 of file OverlapValidation.cc.

Constructor & Destructor Documentation

OverlapValidation()

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

explicit

Definition at line 182 of file OverlapValidation.cc.

    : config_(iConfig),
      rootTree_(nullptr),
      FileInPath_("CalibTracker/SiStripCommon/data/SiStripDetInfo.dat"),
      addExtraBranches_(false),
      minHitsCut_(6),
      chi2ProbCut_(0.001) {
  edm::ConsumesCollector&& iC = consumesCollector();
  //now do what ever initialization is needed
  trajectoryTag_ = iConfig.getParameter<edm::InputTag>("trajectories");
  trajectoryToken_ = iC.consumes<TrajectoryCollection>(trajectoryTag_);
  doSimHit_ = iConfig.getParameter<bool>("associateStrip");
  reader = new SiStripDetInfoFileReader(FileInPath_.fullPath());
 
  overlapCounts_[0] = 0;  // #trajectories
  overlapCounts_[1] = 0;  // #hits
  overlapCounts_[2] = 0;  // #overlap hits
  acceptLayer.resize(7, false);
  acceptLayer[PixelSubdetector::PixelBarrel] = iConfig.getParameter<bool>("usePXB");
  acceptLayer[PixelSubdetector::PixelEndcap] = iConfig.getParameter<bool>("usePXF");
  acceptLayer[StripSubdetector::TIB] = iConfig.getParameter<bool>("useTIB");
  acceptLayer[StripSubdetector::TOB] = iConfig.getParameter<bool>("useTOB");
  acceptLayer[StripSubdetector::TID] = iConfig.getParameter<bool>("useTID");
  acceptLayer[StripSubdetector::TEC] = iConfig.getParameter<bool>("useTEC");
  barrelOnly_ = iConfig.getParameter<bool>("barrelOnly");
 
  edm::Service<TFileService> fs;
  //
  // root output
  //
  rootTree_ = fs->make<TTree>("Overlaps", "Overlaps");
  if (addExtraBranches_) {
    rootTree_->Branch("hitCounts", hitCounts_, "found/s:lost/s");
    rootTree_->Branch("chi2", chi2_, "chi2/F:ndf/F");
    rootTree_->Branch("path", &overlapPath_, "path/F");
  }
  rootTree_->Branch("layer", &layer_, "layer/i");
  rootTree_->Branch("detids", overlapIds_, "id[2]/i");
  rootTree_->Branch("predPos", predictedPositions_, "gX[2]/F:gY[2]/F:gZ[2]/F");
  rootTree_->Branch("predPar", predictedLocalParameters_, "predQP[2]/F:predDX[2]/F:predDY[2]/F:predX[2]/F:predY[2]/F");
  rootTree_->Branch("predErr", predictedLocalErrors_, "predEQP[2]/F:predEDX[2]/F:predEDY[2]/F:predEX[2]/F:predEY[2]/F");
  rootTree_->Branch("predEDeltaX", &predictedDeltaXError_, "sigDeltaX/F");
  rootTree_->Branch("predEDeltaY", &predictedDeltaYError_, "sigDeltaY/F");
  rootTree_->Branch("relSignX", &relativeXSign_, "relSignX/B");
  rootTree_->Branch("relSignY", &relativeYSign_, "relSignY/B");
  rootTree_->Branch("hitX", hitPositions_, "hitX[2]/F");
  rootTree_->Branch("hitEX", hitErrors_, "hitEX[2]/F");
  rootTree_->Branch("hitY", hitPositionsY_, "hitY[2]/F");
  rootTree_->Branch("hitEY", hitErrorsY_, "hitEY[2]/F");
  if (addExtraBranches_) {
    rootTree_->Branch("simX", simHitPositions_, "simX[2]/F");
    rootTree_->Branch("simY", simHitPositionsY_, "simY[2]/F");
    rootTree_->Branch("clusterSize", clusterSize_, "clusterSize[2]/F");
    rootTree_->Branch("clusterWidthX", clusterWidthX_, "clusterWidthX[2]/F");
    rootTree_->Branch("clusterWidthY", clusterWidthY_, "clusterWidthY[2]/F");
    rootTree_->Branch("clusterCharge", clusterCharge_, "clusterCharge[2]/i");
    rootTree_->Branch("edge", edge_, "edge[2]/I");
  }
  rootTree_->Branch("momentum", &momentum_, "momentum/F");
  rootTree_->Branch("run", &run_, "run/i");
  rootTree_->Branch("event", &event_, "event/i");
  rootTree_->Branch("subdetID", &subdetID, "subdetID/I");
  rootTree_->Branch("moduleX", moduleX_, "moduleX[2]/F");
  rootTree_->Branch("moduleY", moduleY_, "moduleY[2]/F");
  rootTree_->Branch("moduleZ", moduleZ_, "moduleZ[2]/F");
  rootTree_->Branch("localxdotglobalphi", localxdotglobalphi_, "localxdotglobalphi[2]/F");
  rootTree_->Branch("localxdotglobalr", localxdotglobalr_, "localxdotglobalr[2]/F");
  rootTree_->Branch("localxdotglobalz", localxdotglobalz_, "localxdotglobalz[2]/F");
  rootTree_->Branch("localxdotglobalx", localxdotglobalx_, "localxdotglobalx[2]/F");
  rootTree_->Branch("localxdotglobaly", localxdotglobaly_, "localxdotglobaly[2]/F");
  rootTree_->Branch("localydotglobalphi", localydotglobalphi_, "localydotglobalphi[2]/F");
  rootTree_->Branch("localydotglobalr", localydotglobalr_, "localydotglobalr[2]/F");
  rootTree_->Branch("localydotglobalz", localydotglobalz_, "localydotglobalz[2]/F");
  rootTree_->Branch("localydotglobalx", localydotglobalx_, "localydotglobalx[2]/F");
  rootTree_->Branch("localydotglobaly", localydotglobaly_, "localydotglobaly[2]/F");
}

References acceptLayer, addExtraBranches_, barrelOnly_, chi2_, clusterCharge_, clusterSize_, clusterWidthX_, clusterWidthY_, edm::ConsumesCollector::consumes(), edm::EDConsumerBase::consumesCollector(), doSimHit_, edge_, event_, FileInPath_, edm::FileInPath::fullPath(), edm::ParameterSet::getParameter(), hitCounts_, hitErrors_, hitErrorsY_, hitPositions_, hitPositionsY_, layer_, localxdotglobalphi_, localxdotglobalr_, localxdotglobalx_, localxdotglobaly_, localxdotglobalz_, localydotglobalphi_, localydotglobalr_, localydotglobalx_, localydotglobaly_, localydotglobalz_, moduleX_, moduleY_, moduleZ_, momentum_, overlapCounts_, overlapIds_, overlapPath_, PixelSubdetector::PixelBarrel, PixelSubdetector::PixelEndcap, predictedDeltaXError_, predictedDeltaYError_, predictedLocalErrors_, predictedLocalParameters_, predictedPositions_, reader, relativeXSign_, relativeYSign_, rootTree_, run_, simHitPositions_, simHitPositionsY_, subdetID, StripSubdetector::TEC, StripSubdetector::TIB, StripSubdetector::TID, StripSubdetector::TOB, trajectoryTag_, and trajectoryToken_.

~OverlapValidation()

OverlapValidation::~OverlapValidation ( )

override

Definition at line 259 of file OverlapValidation.cc.

                                      {
  edm::LogWarning w("Overlaps");
  // do anything here that needs to be done at desctruction time
  // (e.g. close files, deallocate resources etc.)
 
  w << "Counters =";
  w << " Number of tracks: " << overlapCounts_[0];
  w << " Number of valid hits: " << overlapCounts_[1];
  w << " Number of overlaps: " << overlapCounts_[2];
}

References overlapCounts_, and w.

Member Function Documentation

analyze() [1/2]

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

overrideprivatevirtual

Implements edm::one::EDAnalyzerBase.

Definition at line 275 of file OverlapValidation.cc.

                                                                                   {
  using namespace edm;
  //
  // mag field & search tracker
  //
  edm::ESHandle<MagneticField> magFieldHandle;
  iSetup.get<IdealMagneticFieldRecord>().get(magFieldHandle);
  magField_ = magFieldHandle.product();
  //
  // propagator
  //
  AnalyticalPropagator propagator(magField_, anyDirection);
  //
  // geometry
 
  //
  edm::ESHandle<TrackerGeometry> geometryHandle;
  iSetup.get<TrackerDigiGeometryRecord>().get(geometryHandle);
  trackerGeometry_ = geometryHandle.product();
  //
  // make associator for SimHits
  //
  TrackerHitAssociator* associator;
  if (doSimHit_) {
    TrackerHitAssociator::Config hitassociatorconfig(config_, consumesCollector());
    associator = new TrackerHitAssociator(iEvent, hitassociatorconfig);
  } else {
    associator = nullptr;
  }
 
  //if(doSimHit_) associator = new TrackerHitAssociator(iEvent, config_); else associator = 0;
 
  //
  // trajectories (from refit)
  //
  //typedef vector<Trajectory> TrajectoryCollection;
  edm::Handle<TrajectoryCollection> trajectoryCollectionHandle;
  iEvent.getByToken(trajectoryToken_, trajectoryCollectionHandle);
  const TrajectoryCollection* const trajectoryCollection = trajectoryCollectionHandle.product();
 
  //
  // loop over trajectories from refit
  edm::ESHandle<TrackerTopology> tTopoHandle;
  iSetup.get<TrackerTopologyRcd>().get(tTopoHandle);
  const TrackerTopology* const tTopo = tTopoHandle.product();
  for (const auto& trajectory : *trajectoryCollection)
    analyze(trajectory, propagator, *associator, tTopo);
 
  run_ = iEvent.id().run();
  event_ = iEvent.id().event();
}

References AnalyticalPropagator_cfi::AnalyticalPropagator, anyDirection, ctfWithMaterialTrackMCMatch_cfi::associator, config_, edm::EDConsumerBase::consumesCollector(), doSimHit_, event_, edm::EventSetup::get(), get, iEvent, magField_, edm::Handle< T >::product(), edm::ESHandle< T >::product(), TrackCandidateProducer_cfi::propagator, run_, trackerGeometry_, and trajectoryToken_.

analyze() [2/2]

void OverlapValidation::analyze ( const Trajectory &  trajectory, const Propagator &  propagator, TrackerHitAssociator &  associator, const TrackerTopology *const  tTopo  )

privatevirtual

Definition at line 327 of file OverlapValidation.cc.

                                                                    {
  typedef std::pair<const TrajectoryMeasurement*, const TrajectoryMeasurement*> Overlap;
  typedef vector<Overlap> OverlapContainer;
  ++overlapCounts_[0];
 
  OverlapContainer overlapHits;
 
  // quality cuts on trajectory
  // min. # hits / matched hits
 
  if (trajectory.foundHits() < minHitsCut_)
    return;
  if (ChiSquaredProbability((double)(trajectory.chiSquared()), (double)(trajectory.ndof(false))) < chi2ProbCut_)
    return;
  //
  // loop over measurements in the trajectory and calculate residuals
  //
 
  vector<TrajectoryMeasurement> measurements(trajectory.measurements());
  for (vector<TrajectoryMeasurement>::const_iterator itm = measurements.begin(); itm != measurements.end(); ++itm) {
    //
    // skip "invalid" (i.e. missing) hits
    //
    ConstRecHitPointer hit = itm->recHit();
    DetId id = hit->geographicalId();
    int layer(layerFromId(id, tTopo));
    int subDet = id.subdetId();
 
    if (!hit->isValid()) {
      edm::LogVerbatim("OverlapValidation") << "Invalid";
      continue;
    }
    if (barrelOnly_ && (subDet == StripSubdetector::TID || subDet == StripSubdetector::TEC))
      return;
 
    //edm::LogVerbatim("OverlapValidation")  << "Check " <<subDet << ", layer = " << layer<<" stereo: "<< ((subDet > 2)?(SiStripDetId(id).stereo()):2);
    //cout << "Check SubID " <<subDet << ", layer = " << layer<<" stereo: "<< ((subDet > 2)?(SiStripDetId(id).stereo()):2) << endl;
 
    //
    // check for overlap: same subdet-id && layer number for
    // two consecutive hits
    //
    ++overlapCounts_[1];
    if ((layer != -1) && (acceptLayer[subDet])) {
      for (vector<TrajectoryMeasurement>::const_iterator itmCompare = itm - 1;
           itmCompare >= measurements.begin() && itmCompare > itm - 4;
           --itmCompare) {
        DetId compareId = itmCompare->recHit()->geographicalId();
 
        if (subDet != compareId.subdetId() || layer != layerFromId(compareId, tTopo))
          break;
        if (!itmCompare->recHit()->isValid())
          continue;
        if ((subDet == PixelSubdetector::PixelBarrel || subDet == PixelSubdetector::PixelEndcap) ||
            (SiStripDetId(id).stereo() == SiStripDetId(compareId).stereo())) {
          overlapHits.push_back(std::make_pair(&(*itmCompare), &(*itm)));
          //edm::LogVerbatim("OverlapValidation") << "adding pair "<< ((subDet > 2)?(SiStripDetId(id).stereo()) : 2)
          //                 << " from layer = " << layer;
          //cout << "adding pair "<< ((subDet > 2)?(SiStripDetId(id).stereo()) : 2) << " from subDet = " << subDet << " and layer = " << layer;
          //cout << " \t"<<run_<< "\t"<<event_<<"\t";
          //cout << min(id.rawId(),compareId.rawId())<<"\t"<<max(id.rawId(),compareId.rawId())<<endl;
          if (SiStripDetId(id).glued() == id.rawId())
            edm::LogInfo("Overlaps") << "BAD GLUED: Have glued layer with id = " << id.rawId()
                                     << " and glued id = " << SiStripDetId(id).glued()
                                     << "  and stereo = " << SiStripDetId(id).stereo() << endl;
          if (SiStripDetId(compareId).glued() == compareId.rawId())
            edm::LogInfo("Overlaps") << "BAD GLUED: Have glued layer with id = " << compareId.rawId()
                                     << " and glued id = " << SiStripDetId(compareId).glued()
                                     << "  and stereo = " << SiStripDetId(compareId).stereo() << endl;
          break;
        }
      }
    }
  }
 
  //
  // Loop over all overlap pairs.
  //
  hitCounts_[0] = trajectory.foundHits();
  hitCounts_[1] = trajectory.lostHits();
  chi2_[0] = trajectory.chiSquared();
  chi2_[1] = trajectory.ndof(false);
 
  for (const auto& overlapHit : overlapHits) {
    //
    // create reference state @ module 1 (no info from overlap hits)
    //
    ++overlapCounts_[2];
    // backward predicted state at module 1
    TrajectoryStateOnSurface bwdPred1 = overlapHit.first->backwardPredictedState();
    if (!bwdPred1.isValid())
      continue;
    //cout << "momentum from backward predicted state = " << bwdPred1.globalMomentum().mag() << endl;
    // forward predicted state at module 2
    TrajectoryStateOnSurface fwdPred2 = overlapHit.second->forwardPredictedState();
    //cout << "momentum from forward predicted state = " << fwdPred2.globalMomentum().mag() << endl;
    if (!fwdPred2.isValid())
      continue;
    // extrapolate fwdPred2 to module 1
    TrajectoryStateOnSurface fwdPred2At1 = propagator.propagate(fwdPred2, bwdPred1.surface());
    if (!fwdPred2At1.isValid())
      continue;
    // combine fwdPred2At1 with bwdPred1 (ref. state, best estimate without hits 1 and 2)
    TrajectoryStateOnSurface comb1 = combiner_.combine(bwdPred1, fwdPred2At1);
    if (!comb1.isValid())
      continue;
    //
    // propagation of reference parameters to module 2
    //
    std::pair<TrajectoryStateOnSurface, double> tsosWithS = propagator.propagateWithPath(comb1, fwdPred2.surface());
    TrajectoryStateOnSurface comb1At2 = tsosWithS.first;
    if (!comb1At2.isValid())
      continue;
    //distance of propagation from one surface to the next==could cut here
    overlapPath_ = tsosWithS.second;
    if (abs(overlapPath_) > 15)
      continue;  //cut to remove hit pairs > 15 cm apart
    // global position on module 1
    GlobalPoint position = comb1.globalPosition();
    predictedPositions_[0][0] = position.x();
    predictedPositions_[1][0] = position.y();
    predictedPositions_[2][0] = position.z();
    momentum_ = comb1.globalMomentum().mag();
    //cout << "momentum from combination = " << momentum_ << endl;
    //cout << "magnetic field from TSOS = " << comb1.magneticField()->inTesla(position).mag() << endl;
    // local parameters and errors on module 1
    AlgebraicVector5 pars = comb1.localParameters().vector();
    AlgebraicSymMatrix55 errs = comb1.localError().matrix();
    for (int i = 0; i < 5; ++i) {
      predictedLocalParameters_[i][0] = pars[i];
      predictedLocalErrors_[i][0] = sqrt(errs(i, i));
    }
    // global position on module 2
    position = comb1At2.globalPosition();
    predictedPositions_[0][1] = position.x();
    predictedPositions_[1][1] = position.y();
    predictedPositions_[2][1] = position.z();
    // local parameters and errors on module 2
    pars = comb1At2.localParameters().vector();
    errs = comb1At2.localError().matrix();
    for (int i = 0; i < 5; ++i) {
      predictedLocalParameters_[i][1] = pars[i];
      predictedLocalErrors_[i][1] = sqrt(errs(i, i));
    }
 
    //print out local errors in X to check
    //cout << "Predicted local error in X at 1 = " << predictedLocalErrors_[3][0] << "   and predicted local error in X at 2 is = " <<  predictedLocalErrors_[3][1] << endl;
    //cout << "Predicted local error in Y at 1 = " << predictedLocalErrors_[4][0] << "   and predicted local error in Y at 2 is = " <<  predictedLocalErrors_[4][1] << endl;
 
    //
    // jacobians (local-to-global@1,global 1-2,global-to-local@2)
    //
    JacobianLocalToCurvilinear jacLocToCurv(comb1.surface(), comb1.localParameters(), *magField_);
    AnalyticalCurvilinearJacobian jacCurvToCurv(
        comb1.globalParameters(), comb1At2.globalPosition(), comb1At2.globalMomentum(), tsosWithS.second);
    JacobianCurvilinearToLocal jacCurvToLoc(comb1At2.surface(), comb1At2.localParameters(), *magField_);
    // combined jacobian local-1-to-local-2
    AlgebraicMatrix55 jacobian = jacLocToCurv.jacobian() * jacCurvToCurv.jacobian() * jacCurvToLoc.jacobian();
    // covariance on module 1
    AlgebraicSymMatrix55 covComb1 = comb1.localError().matrix();
    // variance and correlations for predicted local_x on modules 1 and 2
    double c00 = covComb1(3, 3);
    double c10(0.);
    double c11(0.);
    for (int i = 1; i < 5; ++i) {
      c10 += jacobian(3, i) * covComb1(i, 3);
      for (int j = 1; j < 5; ++j)
        c11 += jacobian(3, i) * covComb1(i, j) * jacobian(3, j);
    }
    // choose relative sign in order to minimize error on difference
    double diff = c00 - 2 * fabs(c10) + c11;
    diff = diff > 0 ? sqrt(diff) : -sqrt(-diff);
    predictedDeltaXError_ = diff;
    relativeXSign_ = c10 > 0 ? -1 : 1;
    //
    // now find variance and correlations for predicted local_y
    double c00Y = covComb1(4, 4);
    double c10Y(0.);
    double c11Y(0.);
    for (int i = 1; i < 5; ++i) {
      c10Y += jacobian(4, i) * covComb1(i, 4);
      for (int j = 1; j < 5; ++j)
        c11Y += jacobian(4, i) * covComb1(i, j) * jacobian(4, j);
    }
    double diffY = c00Y - 2 * fabs(c10Y) + c11Y;
    diffY = diffY > 0 ? sqrt(diffY) : -sqrt(-diffY);
    predictedDeltaYError_ = diffY;
    relativeYSign_ = c10Y > 0 ? -1 : 1;
 
    // information on modules and hits
    overlapIds_[0] = overlapHit.first->recHit()->geographicalId().rawId();
    overlapIds_[1] = overlapHit.second->recHit()->geographicalId().rawId();
 
    //added by Heshy and Jared
    moduleX_[0] = overlapHit.first->recHit()->det()->surface().position().x();
    moduleX_[1] = overlapHit.second->recHit()->det()->surface().position().x();
    moduleY_[0] = overlapHit.first->recHit()->det()->surface().position().y();
    moduleY_[1] = overlapHit.second->recHit()->det()->surface().position().y();
    moduleZ_[0] = overlapHit.first->recHit()->det()->surface().position().z();
    moduleZ_[1] = overlapHit.second->recHit()->det()->surface().position().z();
    subdetID = overlapHit.first->recHit()->geographicalId().subdetId();
    localxdotglobalphi_[0] = overlapHit.first->recHit()->det()->surface().toGlobal(onezero).phi() -
                             overlapHit.first->recHit()->det()->surface().toGlobal(zerozero).phi();
    localxdotglobalphi_[1] = overlapHit.second->recHit()->det()->surface().toGlobal(onezero).phi() -
                             overlapHit.second->recHit()->det()->surface().toGlobal(zerozero).phi();
    //added by Jason
    localxdotglobalr_[0] = overlapHit.first->recHit()->det()->surface().toGlobal(onezero).perp() -
                           overlapHit.first->recHit()->det()->surface().toGlobal(zerozero).perp();
    localxdotglobalr_[1] = overlapHit.second->recHit()->det()->surface().toGlobal(onezero).perp() -
                           overlapHit.second->recHit()->det()->surface().toGlobal(zerozero).perp();
    localxdotglobalz_[0] = overlapHit.first->recHit()->det()->surface().toGlobal(onezero).z() -
                           overlapHit.first->recHit()->det()->surface().toGlobal(zerozero).z();
    localxdotglobalz_[1] = overlapHit.second->recHit()->det()->surface().toGlobal(onezero).z() -
                           overlapHit.second->recHit()->det()->surface().toGlobal(zerozero).z();
    localxdotglobalx_[0] = overlapHit.first->recHit()->det()->surface().toGlobal(onezero).x() -
                           overlapHit.first->recHit()->det()->surface().toGlobal(zerozero).x();
    localxdotglobalx_[1] = overlapHit.second->recHit()->det()->surface().toGlobal(onezero).x() -
                           overlapHit.second->recHit()->det()->surface().toGlobal(zerozero).x();
    localxdotglobaly_[0] = overlapHit.first->recHit()->det()->surface().toGlobal(onezero).y() -
                           overlapHit.first->recHit()->det()->surface().toGlobal(zerozero).y();
    localxdotglobaly_[1] = overlapHit.second->recHit()->det()->surface().toGlobal(onezero).y() -
                           overlapHit.second->recHit()->det()->surface().toGlobal(zerozero).y();
    localydotglobalr_[0] = overlapHit.first->recHit()->det()->surface().toGlobal(zeroone).perp() -
                           overlapHit.first->recHit()->det()->surface().toGlobal(zerozero).perp();
    localydotglobalr_[1] = overlapHit.second->recHit()->det()->surface().toGlobal(zeroone).perp() -
                           overlapHit.second->recHit()->det()->surface().toGlobal(zerozero).perp();
    localydotglobalz_[0] = overlapHit.first->recHit()->det()->surface().toGlobal(zeroone).z() -
                           overlapHit.first->recHit()->det()->surface().toGlobal(zerozero).z();
    localydotglobalz_[1] = overlapHit.second->recHit()->det()->surface().toGlobal(zeroone).z() -
                           overlapHit.second->recHit()->det()->surface().toGlobal(zerozero).z();
    localydotglobalx_[0] = overlapHit.first->recHit()->det()->surface().toGlobal(zeroone).x() -
                           overlapHit.first->recHit()->det()->surface().toGlobal(zerozero).x();
    localydotglobalx_[1] = overlapHit.second->recHit()->det()->surface().toGlobal(zeroone).x() -
                           overlapHit.second->recHit()->det()->surface().toGlobal(zerozero).x();
    localydotglobaly_[0] = overlapHit.first->recHit()->det()->surface().toGlobal(zeroone).y() -
                           overlapHit.first->recHit()->det()->surface().toGlobal(zerozero).y();
    localydotglobaly_[1] = overlapHit.second->recHit()->det()->surface().toGlobal(zeroone).y() -
                           overlapHit.second->recHit()->det()->surface().toGlobal(zerozero).y();
    localydotglobalphi_[0] = overlapHit.first->recHit()->det()->surface().toGlobal(zeroone).phi() -
                             overlapHit.first->recHit()->det()->surface().toGlobal(zerozero).phi();
    localydotglobalphi_[1] = overlapHit.second->recHit()->det()->surface().toGlobal(zeroone).phi() -
                             overlapHit.second->recHit()->det()->surface().toGlobal(zerozero).phi();
 
    if (overlapHit.first->recHit()->geographicalId().subdetId() == StripSubdetector::TIB)
      layer_ = layerFromId(overlapHit.first->recHit()->geographicalId().rawId(), tTopo);
    else if (overlapHit.first->recHit()->geographicalId().subdetId() == StripSubdetector::TOB)
      layer_ = layerFromId(overlapHit.first->recHit()->geographicalId().rawId(), tTopo) + 4;
    else if (overlapHit.first->recHit()->geographicalId().subdetId() == StripSubdetector::TID)
      layer_ = layerFromId(overlapHit.first->recHit()->geographicalId().rawId(), tTopo) + 10;
    else if (overlapHit.first->recHit()->geographicalId().subdetId() == StripSubdetector::TEC)
      layer_ = layerFromId(overlapHit.first->recHit()->geographicalId().rawId(), tTopo) + 13;
    else if (overlapHit.first->recHit()->geographicalId().subdetId() == PixelSubdetector::PixelBarrel)
      layer_ = layerFromId(overlapHit.first->recHit()->geographicalId().rawId(), tTopo) + 20;
    else if (overlapHit.first->recHit()->geographicalId().subdetId() == PixelSubdetector::PixelEndcap)
      layer_ = layerFromId(overlapHit.first->recHit()->geographicalId().rawId(), tTopo) + 30;
    else
      layer_ = 99;
 
    if (overlapIds_[0] == SiStripDetId(overlapHit.first->recHit()->geographicalId()).glued())
      edm::LogWarning("Overlaps") << "BAD GLUED: First Id = " << overlapIds_[0] << " has glued = "
                                  << SiStripDetId(overlapHit.first->recHit()->geographicalId()).glued()
                                  << "  and stereo = "
                                  << SiStripDetId(overlapHit.first->recHit()->geographicalId()).stereo() << endl;
    if (overlapIds_[1] == SiStripDetId(overlapHit.second->recHit()->geographicalId()).glued())
      edm::LogWarning("Overlaps") << "BAD GLUED: Second Id = " << overlapIds_[1] << " has glued = "
                                  << SiStripDetId(overlapHit.second->recHit()->geographicalId()).glued()
                                  << "  and stereo = "
                                  << SiStripDetId(overlapHit.second->recHit()->geographicalId()).stereo() << endl;
 
    const TransientTrackingRecHit::ConstRecHitPointer firstRecHit = overlapHit.first->recHit();
    const TransientTrackingRecHit::ConstRecHitPointer secondRecHit = overlapHit.second->recHit();
    hitPositions_[0] = firstRecHit->localPosition().x();
    hitErrors_[0] = sqrt(firstRecHit->localPositionError().xx());
    hitPositions_[1] = secondRecHit->localPosition().x();
    hitErrors_[1] = sqrt(secondRecHit->localPositionError().xx());
 
    hitPositionsY_[0] = firstRecHit->localPosition().y();
    hitErrorsY_[0] = sqrt(firstRecHit->localPositionError().yy());
    hitPositionsY_[1] = secondRecHit->localPosition().y();
    hitErrorsY_[1] = sqrt(secondRecHit->localPositionError().yy());
 
    //cout << "printing local X hit position and error for the overlap hits. Hit 1 = " << hitPositions_[0] << "+-" << hitErrors_[0] << "  and hit 2 is "  << hitPositions_[1] << "+-" << hitErrors_[1] << endl;
 
    DetId id1 = overlapHit.first->recHit()->geographicalId();
    DetId id2 = overlapHit.second->recHit()->geographicalId();
    int layer1 = layerFromId(id1, tTopo);
    int subDet1 = id1.subdetId();
    int layer2 = layerFromId(id2, tTopo);
    int subDet2 = id2.subdetId();
    if (abs(hitPositions_[0]) > 5)
      edm::LogInfo("Overlaps") << "BAD: Bad hit position: Id = " << id1.rawId()
                               << " stereo = " << SiStripDetId(id1).stereo()
                               << "  glued = " << SiStripDetId(id1).glued() << " from subdet = " << subDet1
                               << " and layer = " << layer1 << endl;
    if (abs(hitPositions_[1]) > 5)
      edm::LogInfo("Overlaps") << "BAD: Bad hit position: Id = " << id2.rawId()
                               << " stereo = " << SiStripDetId(id2).stereo()
                               << "  glued = " << SiStripDetId(id2).glued() << " from subdet = " << subDet2
                               << " and layer = " << layer2 << endl;
 
    // get track momentum
    momentum_ = comb1.globalMomentum().mag();
 
    // get cluster size
    if (!(subDet1 == PixelSubdetector::PixelBarrel || subDet1 == PixelSubdetector::PixelEndcap)) {  //strip
      const TransientTrackingRecHit::ConstRecHitPointer thit1 = overlapHit.first->recHit();
      const SiStripRecHit1D* hit1 = dynamic_cast<const SiStripRecHit1D*>((*thit1).hit());
      if (hit1) {
        //check cluster width
        const SiStripRecHit1D::ClusterRef& cluster1 = hit1->cluster();
        clusterSize_[0] = (cluster1->amplitudes()).size();
        clusterWidthX_[0] = (cluster1->amplitudes()).size();
        clusterWidthY_[0] = -1;
 
        //check if cluster at edge of sensor
        uint16_t firstStrip = cluster1->firstStrip();
        uint16_t lastStrip = firstStrip + (cluster1->amplitudes()).size() - 1;
        unsigned short Nstrips;
        Nstrips = reader->getNumberOfApvsAndStripLength(id1).first * 128;
        bool atEdge = false;
        if (firstStrip == 0 || lastStrip == (Nstrips - 1))
          atEdge = true;
        if (atEdge)
          edge_[0] = 1;
        else
          edge_[0] = -1;
 
        // get cluster total charge
        const std::vector<uint8_t>& stripCharges = cluster1->amplitudes();
        uint16_t charge = 0;
        for (uint i = 0; i < stripCharges.size(); i++) {
          charge += stripCharges.at(i);
        }
        clusterCharge_[0] = charge;
      }
 
      const TransientTrackingRecHit::ConstRecHitPointer thit2 = overlapHit.second->recHit();
      const SiStripRecHit1D* hit2 = dynamic_cast<const SiStripRecHit1D*>((*thit2).hit());
      if (hit2) {
        const SiStripRecHit1D::ClusterRef& cluster2 = hit2->cluster();
        clusterSize_[1] = (cluster2->amplitudes()).size();
        clusterWidthX_[1] = (cluster2->amplitudes()).size();
        clusterWidthY_[1] = -1;
 
        uint16_t firstStrip = cluster2->firstStrip();
        uint16_t lastStrip = firstStrip + (cluster2->amplitudes()).size() - 1;
        unsigned short Nstrips;
        Nstrips = reader->getNumberOfApvsAndStripLength(id2).first * 128;
        bool atEdge = false;
        if (firstStrip == 0 || lastStrip == (Nstrips - 1))
          atEdge = true;
        if (atEdge)
          edge_[1] = 1;
        else
          edge_[1] = -1;
 
        // get cluster total charge
        const std::vector<uint8_t>& stripCharges = cluster2->amplitudes();
        uint16_t charge = 0;
        for (uint i = 0; i < stripCharges.size(); i++) {
          charge += stripCharges.at(i);
        }
        clusterCharge_[1] = charge;
      }
      //cout << "strip cluster size2 = " << clusterWidthX_[0] << "  and size 2 = " << clusterWidthX_[1] << endl;
    }
 
    if (subDet2 == PixelSubdetector::PixelBarrel || subDet2 == PixelSubdetector::PixelEndcap) {  //pixel
 
      const TransientTrackingRecHit::ConstRecHitPointer thit1 = overlapHit.first->recHit();
      const SiPixelRecHit* recHitPix1 = dynamic_cast<const SiPixelRecHit*>((*thit1).hit());
      if (recHitPix1) {
        // check for cluster size and width
        SiPixelRecHit::ClusterRef const& cluster1 = recHitPix1->cluster();
 
        clusterSize_[0] = cluster1->size();
        clusterWidthX_[0] = cluster1->sizeX();
        clusterWidthY_[0] = cluster1->sizeY();
 
        // check for cluster at edge
        const PixelGeomDetUnit* theGeomDet = dynamic_cast<const PixelGeomDetUnit*>((*trackerGeometry_).idToDet(id1));
        const PixelTopology* topol = (&(theGeomDet->specificTopology()));
 
        int minPixelRow = cluster1->minPixelRow();  //x
        int maxPixelRow = cluster1->maxPixelRow();
        int minPixelCol = cluster1->minPixelCol();  //y
        int maxPixelCol = cluster1->maxPixelCol();
 
        bool edgeHitX = (topol->isItEdgePixelInX(minPixelRow)) || (topol->isItEdgePixelInX(maxPixelRow));
        bool edgeHitY = (topol->isItEdgePixelInY(minPixelCol)) || (topol->isItEdgePixelInY(maxPixelCol));
        if (edgeHitX || edgeHitY)
          edge_[0] = 1;
        else
          edge_[0] = -1;
 
        clusterCharge_[0] = (uint)cluster1->charge();
 
      } else {
        edm::LogWarning("Overlaps") << "didn't find pixel cluster" << endl;
        continue;
      }
 
      const TransientTrackingRecHit::ConstRecHitPointer thit2 = overlapHit.second->recHit();
      const SiPixelRecHit* recHitPix2 = dynamic_cast<const SiPixelRecHit*>((*thit2).hit());
      if (recHitPix2) {
        SiPixelRecHit::ClusterRef const& cluster2 = recHitPix2->cluster();
 
        clusterSize_[1] = cluster2->size();
        clusterWidthX_[1] = cluster2->sizeX();
        clusterWidthY_[1] = cluster2->sizeY();
        //cout << "second pixel cluster is " << clusterSize_[1] << " pixels with x width = " << clusterWidthX_[1] << " and y width = " << clusterWidthY_[1] << endl;
 
        const PixelGeomDetUnit* theGeomDet = dynamic_cast<const PixelGeomDetUnit*>((*trackerGeometry_).idToDet(id2));
        const PixelTopology* topol = (&(theGeomDet->specificTopology()));
 
        int minPixelRow = cluster2->minPixelRow();  //x
        int maxPixelRow = cluster2->maxPixelRow();
        int minPixelCol = cluster2->minPixelCol();  //y
        int maxPixelCol = cluster2->maxPixelCol();
 
        bool edgeHitX = (topol->isItEdgePixelInX(minPixelRow)) || (topol->isItEdgePixelInX(maxPixelRow));
        bool edgeHitY = (topol->isItEdgePixelInY(minPixelCol)) || (topol->isItEdgePixelInY(maxPixelCol));
        if (edgeHitX || edgeHitY)
          edge_[1] = 1;
        else
          edge_[1] = -1;
 
        clusterCharge_[1] = (uint)cluster2->charge();
 
      } else {
        edm::LogWarning("Overlaps") << "didn't find pixel cluster" << endl;
        continue;
      }
    }
 
    //also check for edge pixels
 
    //try writing out the SimHit info (for MC only)
    if (doSimHit_) {
      std::vector<PSimHit> psimHits1;
      std::vector<PSimHit> psimHits2;
      //calculate layer
      DetId id = overlapHit.first->recHit()->geographicalId();
      int layer(-1);
      layer = layerFromId(id, tTopo);
      int subDet = id.subdetId();
      edm::LogVerbatim("OverlapValidation") << "Subdet = " << subDet << " ; layer = " << layer;
 
      psimHits1 = associator.associateHit(*(firstRecHit->hit()));
      edm::LogVerbatim("OverlapValidation") << "single hit ";
      edm::LogVerbatim("OverlapValidation") << "length of psimHits1: " << psimHits1.size();
      if (!psimHits1.empty()) {
        float closest_dist = 99999.9;
        std::vector<PSimHit>::const_iterator closest_simhit = psimHits1.begin();
        for (std::vector<PSimHit>::const_iterator m = psimHits1.begin(); m < psimHits1.end(); m++) {
          //find closest simHit to the recHit
          float simX = (*m).localPosition().x();
          float dist = fabs(simX - (overlapHit.first->recHit()->localPosition().x()));
          edm::LogVerbatim("OverlapValidation")
              << "simHit1 simX = " << simX << "   hitX = " << overlapHit.first->recHit()->localPosition().x()
              << "   distX = " << dist << "   layer = " << layer;
          if (dist < closest_dist) {
            //cout << "found newest closest dist for simhit1" << endl;
            closest_dist = dist;
            closest_simhit = m;
          }
        }
        //if glued layer, convert sim hit position to matchedhit surface
        //layer index from 1-4 for TIB, 1-6 for TOB
        // Are the sim hits on the glued layers or are they split???
        if (subDet > 2 && !SiStripDetId(id).glued()) {
          const GluedGeomDet* gluedDet =
              (const GluedGeomDet*)(*trackerGeometry_).idToDet((*firstRecHit).hit()->geographicalId());
          const StripGeomDetUnit* stripDet = (StripGeomDetUnit*)gluedDet->monoDet();
          GlobalPoint gp = stripDet->surface().toGlobal((*closest_simhit).localPosition());
          LocalPoint lp = gluedDet->surface().toLocal(gp);
          LocalVector localdirection = (*closest_simhit).localDirection();
          GlobalVector globaldirection = stripDet->surface().toGlobal(localdirection);
          LocalVector direction = gluedDet->surface().toLocal(globaldirection);
          float scale = -lp.z() / direction.z();
          LocalPoint projectedPos = lp + scale * direction;
          simHitPositions_[0] = projectedPos.x();
          edm::LogVerbatim("OverlapValidation") << "simhit position from matched layer = " << simHitPositions_[0];
          simHitPositionsY_[0] = projectedPos.y();
        } else {
          simHitPositions_[0] = (*closest_simhit).localPosition().x();
          simHitPositionsY_[0] = (*closest_simhit).localPosition().y();
          edm::LogVerbatim("OverlapValidation") << "simhit position from non-matched layer = " << simHitPositions_[0];
        }
        edm::LogVerbatim("OverlapValidation") << "hit position = " << hitPositions_[0];
      } else {
        simHitPositions_[0] = -99.;
        simHitPositionsY_[0] = -99.;
        //cout << " filling simHitX: " << -99 << endl;
      }
 
      psimHits2 = associator.associateHit(*(secondRecHit->hit()));
      if (!psimHits2.empty()) {
        float closest_dist = 99999.9;
        std::vector<PSimHit>::const_iterator closest_simhit = psimHits2.begin();
        for (std::vector<PSimHit>::const_iterator m = psimHits2.begin(); m < psimHits2.end(); m++) {
          float simX = (*m).localPosition().x();
          float dist = fabs(simX - (overlapHit.second->recHit()->localPosition().x()));
          if (dist < closest_dist) {
            closest_dist = dist;
            closest_simhit = m;
          }
        }
        //if glued layer, convert sim hit position to matchedhit surface
        // if no sim hits on matched layers then this section can be removed
        if (subDet > 2 && !SiStripDetId(id).glued()) {
          const GluedGeomDet* gluedDet =
              (const GluedGeomDet*)(*trackerGeometry_).idToDet((*secondRecHit).hit()->geographicalId());
          const StripGeomDetUnit* stripDet = (StripGeomDetUnit*)gluedDet->monoDet();
          GlobalPoint gp = stripDet->surface().toGlobal((*closest_simhit).localPosition());
          LocalPoint lp = gluedDet->surface().toLocal(gp);
          LocalVector localdirection = (*closest_simhit).localDirection();
          GlobalVector globaldirection = stripDet->surface().toGlobal(localdirection);
          LocalVector direction = gluedDet->surface().toLocal(globaldirection);
          float scale = -lp.z() / direction.z();
          LocalPoint projectedPos = lp + scale * direction;
          simHitPositions_[1] = projectedPos.x();
          simHitPositionsY_[1] = projectedPos.y();
        } else {
          simHitPositions_[1] = (*closest_simhit).localPosition().x();
          simHitPositionsY_[1] = (*closest_simhit).localPosition().y();
        }
      } else {
        simHitPositions_[1] = -99.;
        simHitPositionsY_[1] = -99.;
      }
    }
    rootTree_->Fill();
  }
}

References funct::abs(), acceptLayer, ctfWithMaterialTrackMCMatch_cfi::associator, barrelOnly_, ALCARECOTkAlJpsiMuMu_cff::charge, chi2_, chi2ProbCut_, Trajectory::chiSquared(), ChiSquaredProbability(), SiStripRecHit1D::cluster(), SiPixelRecHit::cluster(), clusterCharge_, clusterSize_, clusterWidthX_, clusterWidthY_, TrajectoryStateCombiner::combine(), combiner_, change_name::diff, doSimHit_, edge_, Trajectory::foundHits(), SiStripDetInfoFileReader::getNumberOfApvsAndStripLength(), TrajectoryStateOnSurface::globalMomentum(), TrajectoryStateOnSurface::globalParameters(), TrajectoryStateOnSurface::globalPosition(), SiStripDetId::glued(), runTauDisplay::gp, hitCounts_, hitErrors_, hitErrorsY_, hitPositions_, hitPositionsY_, mps_fire::i, globals_cff::id1, globals_cff::id2, TrajectoryStateOnSurface::isValid(), dqmiolumiharvest::j, JacobianCurvilinearToLocal::jacobian(), layer_, layerFromId(), TrajectoryStateOnSurface::localError(), TrajectoryStateOnSurface::localParameters(), localxdotglobalphi_, localxdotglobalr_, localxdotglobalx_, localxdotglobaly_, localxdotglobalz_, localydotglobalphi_, localydotglobalr_, localydotglobalx_, localydotglobaly_, localydotglobalz_, Trajectory::lostHits(), visualization-live-secondInstance_cfg::m, PV3DBase< T, PVType, FrameType >::mag(), magField_, LocalTrajectoryError::matrix(), Trajectory::measurements(), minHitsCut_, moduleX_, moduleY_, moduleZ_, momentum_, GluedGeomDet::monoDet(), Trajectory::ndof(), onezero, HLT_2018_cff::Overlap, overlapCounts_, overlapIds_, overlapPath_, PixelSubdetector::PixelBarrel, PixelSubdetector::PixelEndcap, position, predictedDeltaXError_, predictedDeltaYError_, predictedLocalErrors_, predictedLocalParameters_, predictedPositions_, TrackCandidateProducer_cfi::propagator, DetId::rawId(), reader, relativeXSign_, relativeYSign_, rootTree_, Scenarios_cff::scale, simHitPositions_, simHitPositionsY_, findQualityFiles::size, PixelGeomDetUnit::specificTopology(), mathSSE::sqrt(), SiStripDetId::stereo(), DetId::subdetId(), subdetID, GeomDet::surface(), TrajectoryStateOnSurface::surface(), StripSubdetector::TEC, StripSubdetector::TIB, StripSubdetector::TID, StripSubdetector::TOB, Surface::toGlobal(), GloballyPositioned< T >::toLocal(), parallelization::uint, LocalTrajectoryParameters::vector(), PV3DBase< T, PVType, FrameType >::x(), PV3DBase< T, PVType, FrameType >::y(), PV3DBase< T, PVType, FrameType >::z(), zeroone, and zerozero.

endJob()

void OverlapValidation::endJob ( void  )

overrideprivatevirtual

Reimplemented from edm::one::EDAnalyzerBase.

Definition at line 874 of file OverlapValidation.cc.

                               {
  if (rootTree_) {
    rootTree_->GetDirectory()->cd();
    rootTree_->Write();
    delete rootTree_;
  }
}

References rootTree_.

Referenced by o2olib.O2ORunMgr::executeJob().

layerFromId()

int OverlapValidation::layerFromId ( const DetId &  id, const TrackerTopology *const  tTopo  ) const

private

Definition at line 866 of file OverlapValidation.cc.

                                                                                            {
  TrackerAlignableId aliid;
  std::pair<int, int> subdetandlayer = aliid.typeAndLayerFromDetId(id, tTopo);
  int layer = subdetandlayer.second;
 
  return layer;
}

References TrackerAlignableId::typeAndLayerFromDetId().

Referenced by analyze().

Member Data Documentation

acceptLayer

vector<bool> OverlapValidation::acceptLayer

private

Definition at line 144 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

addExtraBranches_

const bool OverlapValidation::addExtraBranches_

private

Definition at line 116 of file OverlapValidation.cc.

Referenced by OverlapValidation().

barrelOnly_

bool OverlapValidation::barrelOnly_

private

Definition at line 147 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

chi2_

float OverlapValidation::chi2_[2]

private

Definition at line 123 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

chi2ProbCut_

const float OverlapValidation::chi2ProbCut_

private

Definition at line 118 of file OverlapValidation.cc.

Referenced by analyze().

clusterCharge_

uint OverlapValidation::clusterCharge_[2]

private

Definition at line 141 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

clusterSize_

float OverlapValidation::clusterSize_[2]

private

Definition at line 140 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

clusterWidthX_

float OverlapValidation::clusterWidthX_[2]

private

Definition at line 138 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

clusterWidthY_

float OverlapValidation::clusterWidthY_[2]

private

Definition at line 139 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

combiner_

TrajectoryStateCombiner OverlapValidation::combiner_

private

Definition at line 111 of file OverlapValidation.cc.

Referenced by analyze().

config_

edm::ParameterSet OverlapValidation::config_

private

Definition at line 104 of file OverlapValidation.cc.

Referenced by analyze().

doSimHit_

bool OverlapValidation::doSimHit_

private

Definition at line 107 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

edge_

int OverlapValidation::edge_[2]

private

Definition at line 142 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

event_

uint OverlapValidation::event_

private

Definition at line 146 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

FileInPath_

edm::FileInPath OverlapValidation::FileInPath_

private

Definition at line 115 of file OverlapValidation.cc.

Referenced by OverlapValidation().

hitCounts_

unsigned short OverlapValidation::hitCounts_[2]

private

Definition at line 122 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

hitErrors_

float OverlapValidation::hitErrors_[2]

private

Definition at line 133 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

hitErrorsY_

float OverlapValidation::hitErrorsY_[2]

private

Definition at line 135 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

hitPositions_

float OverlapValidation::hitPositions_[2]

private

Definition at line 132 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

hitPositionsY_

float OverlapValidation::hitPositionsY_[2]

private

Definition at line 134 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

layer_

uint OverlapValidation::layer_

private

Definition at line 121 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

localxdotglobalphi_

float OverlapValidation::localxdotglobalphi_[2]

private

Definition at line 158 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

localxdotglobalr_

float OverlapValidation::localxdotglobalr_[2]

private

Definition at line 159 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

localxdotglobalx_

float OverlapValidation::localxdotglobalx_[2]

private

Definition at line 161 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

localxdotglobaly_

float OverlapValidation::localxdotglobaly_[2]

private

Definition at line 162 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

localxdotglobalz_

float OverlapValidation::localxdotglobalz_[2]

private

Definition at line 160 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

localydotglobalphi_

float OverlapValidation::localydotglobalphi_[2]

private

Definition at line 163 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

localydotglobalr_

float OverlapValidation::localydotglobalr_[2]

private

Definition at line 164 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

localydotglobalx_

float OverlapValidation::localydotglobalx_[2]

private

Definition at line 166 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

localydotglobaly_

float OverlapValidation::localydotglobaly_[2]

private

Definition at line 167 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

localydotglobalz_

float OverlapValidation::localydotglobalz_[2]

private

Definition at line 165 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

magField_

const MagneticField* OverlapValidation::magField_

private

Definition at line 109 of file OverlapValidation.cc.

Referenced by analyze().

minHitsCut_

const int OverlapValidation::minHitsCut_

private

Definition at line 117 of file OverlapValidation.cc.

Referenced by analyze().

moduleX_

float OverlapValidation::moduleX_[2]

private

Definition at line 150 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

moduleY_

float OverlapValidation::moduleY_[2]

private

Definition at line 151 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

moduleZ_

float OverlapValidation::moduleZ_[2]

private

Definition at line 152 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

momentum_

float OverlapValidation::momentum_

private

Definition at line 145 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

onezero

const Point2DBase<float, LocalTag> OverlapValidation::onezero = Point2DBase<float, LocalTag>(1, 0)

private

Definition at line 155 of file OverlapValidation.cc.

Referenced by analyze().

overlapCounts_

int OverlapValidation::overlapCounts_[3]

private

Definition at line 112 of file OverlapValidation.cc.

Referenced by analyze(), OverlapValidation(), and ~OverlapValidation().

overlapIds_

unsigned int OverlapValidation::overlapIds_[2]

private

Definition at line 124 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

overlapPath_

float OverlapValidation::overlapPath_

private

Definition at line 120 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

predictedDeltaXError_

float OverlapValidation::predictedDeltaXError_

private

Definition at line 128 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

predictedDeltaYError_

float OverlapValidation::predictedDeltaYError_

private

Definition at line 129 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

predictedLocalErrors_

float OverlapValidation::predictedLocalErrors_[5][2]

private

Definition at line 127 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

predictedLocalParameters_

float OverlapValidation::predictedLocalParameters_[5][2]

private

Definition at line 126 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

predictedPositions_

float OverlapValidation::predictedPositions_[3][2]

private

Definition at line 125 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

reader

SiStripDetInfoFileReader* OverlapValidation::reader

private

Definition at line 106 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

relativeXSign_

char OverlapValidation::relativeXSign_

private

Definition at line 130 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

relativeYSign_

char OverlapValidation::relativeYSign_

private

Definition at line 131 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

rootTree_

TTree* OverlapValidation::rootTree_

private

Definition at line 114 of file OverlapValidation.cc.

Referenced by analyze(), endJob(), and OverlapValidation().

run_

uint OverlapValidation::run_

private

Definition at line 146 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

simHitPositions_

float OverlapValidation::simHitPositions_[2]

private

Definition at line 136 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

simHitPositionsY_

float OverlapValidation::simHitPositionsY_[2]

private

Definition at line 137 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

subdetID

int OverlapValidation::subdetID

private

Definition at line 153 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

trackerGeometry_

const TrackerGeometry* OverlapValidation::trackerGeometry_

private

Definition at line 108 of file OverlapValidation.cc.

Referenced by analyze().

trajectoryTag_

edm::InputTag OverlapValidation::trajectoryTag_

private

Definition at line 105 of file OverlapValidation.cc.

Referenced by OverlapValidation().

trajectoryToken_

edm::EDGetTokenT<TrajectoryCollection> OverlapValidation::trajectoryToken_

private

Definition at line 95 of file OverlapValidation.cc.

Referenced by analyze(), and OverlapValidation().

zeroone

const Point2DBase<float, LocalTag> OverlapValidation::zeroone = Point2DBase<float, LocalTag>(0, 1)

private

Definition at line 156 of file OverlapValidation.cc.

Referenced by analyze().

zerozero

const Point2DBase<float, LocalTag> OverlapValidation::zerozero = Point2DBase<float, LocalTag>(0, 0)

private

Definition at line 154 of file OverlapValidation.cc.

Referenced by analyze().