#include <DTRecHitQuality.h>

Inheritance diagram for DTRecHitQuality:

Public Member Functions
void	analyze (const edm::Event &event, const edm::EventSetup &eventSetup)
	Perform the real analysis.
	DTRecHitQuality (const edm::ParameterSet &pset)
	Constructor.
void	endJob ()
void	endLuminosityBlock (edm::LuminosityBlock const &lumiSeg, edm::EventSetup const &c)
template<typename type >
const type *	findBestRecHit (const DTLayer *layer, DTWireId wireId, const vector< type > &recHits, const float simHitDist)
virtual	~DTRecHitQuality ()
	Destructor.
Private Member Functions
template<typename type >
void	compute (const DTGeometry *dtGeom, std::map< DTWireId, std::vector< PSimHit > > simHitsPerWire, std::map< DTWireId, std::vector< type > > recHitsPerWire, int step)
template<typename type >
const type *	findBestRecHit (const DTLayer *layer, DTWireId wireId, const std::vector< type > &recHits, const float simHitDist)
std::map< DTWireId, std::vector< DTRecHit1D > >	map1DRecHitsPerWire (const DTRecSegment2DCollection *segment2Ds)
std::map< DTWireId, std::vector< DTRecHit1DPair > >	map1DRecHitsPerWire (const DTRecHitCollection *dt1DRecHitPairs)
std::map< DTWireId, std::vector< DTRecHit1D > >	map1DRecHitsPerWire (const DTRecSegment4DCollection *segment4Ds)
float	recHitDistFromWire (const DTRecHit1DPair &hitPair, const DTLayer *layer)
float	recHitDistFromWire (const DTRecHit1D &recHit, const DTLayer *layer)
float	recHitPositionError (const DTRecHit1DPair &recHit)
float	recHitPositionError (const DTRecHit1D &recHit)
float	simHitDistFromFE (const DTLayer *layer, DTWireId wireId, const PSimHit &hit)
float	simHitDistFromWire (const DTLayer *layer, DTWireId wireId, const PSimHit &hit)
float	simHitImpactAngle (const DTLayer *layer, DTWireId wireId, const PSimHit &hit)
Private Attributes
DQMStore *	dbe_
bool	debug
bool	doall
bool	doStep1
bool	doStep2
bool	doStep3
HEff1DHit *	hEff_S1RPhi
HEff1DHit *	hEff_S1RZ
HEff1DHit *	hEff_S1RZ_W0
HEff1DHit *	hEff_S1RZ_W1
HEff1DHit *	hEff_S1RZ_W2
HEff1DHit *	hEff_S2RPhi
HEff1DHit *	hEff_S2RZ
HEff1DHit *	hEff_S2RZ_W0
HEff1DHit *	hEff_S2RZ_W1
HEff1DHit *	hEff_S2RZ_W2
HEff1DHit *	hEff_S3RPhi
HEff1DHit *	hEff_S3RZ
HEff1DHit *	hEff_S3RZ_W0
HEff1DHit *	hEff_S3RZ_W1
HEff1DHit *	hEff_S3RZ_W2
HRes1DHit *	hRes_S1RPhi
HRes1DHit *	hRes_S1RPhi_W0
HRes1DHit *	hRes_S1RPhi_W1
HRes1DHit *	hRes_S1RPhi_W2
HRes1DHit *	hRes_S1RZ
HRes1DHit *	hRes_S1RZ_W0
HRes1DHit *	hRes_S1RZ_W1
HRes1DHit *	hRes_S1RZ_W2
HRes1DHit *	hRes_S2RPhi
HRes1DHit *	hRes_S2RPhi_W0
HRes1DHit *	hRes_S2RPhi_W1
HRes1DHit *	hRes_S2RPhi_W2
HRes1DHit *	hRes_S2RZ
HRes1DHit *	hRes_S2RZ_W0
HRes1DHit *	hRes_S2RZ_W1
HRes1DHit *	hRes_S2RZ_W2
HRes1DHit *	hRes_S3RPhi
HRes1DHit *	hRes_S3RPhi_W0
HRes1DHit *	hRes_S3RPhi_W1
HRes1DHit *	hRes_S3RPhi_W2
HRes1DHit *	hRes_S3RZ
HRes1DHit *	hRes_S3RZ_W0
HRes1DHit *	hRes_S3RZ_W1
HRes1DHit *	hRes_S3RZ_W2
bool	local
edm::InputTag	recHitLabel
std::string	rootFileName
edm::InputTag	segment2DLabel
edm::InputTag	segment4DLabel
edm::InputTag	simHitLabel

Detailed Description

Basic analyzer class which accesses 1D DTRecHits and plot resolution comparing reconstructed and simulated quantities

Date:: 2010/09/17 07:48:11

Revision:: 1.10

Author:: G. Cerminara - INFN Torino

Definition at line 44 of file DTRecHitQuality.h.

Constructor & Destructor Documentation

DTRecHitQuality::DTRecHitQuality ( const edm::ParameterSet & pset )

Constructor.

Definition at line 39 of file DTRecHitQuality.cc.

References dbe_, debug, edm::ParameterSet::getUntrackedParameter(), and cppFunctionSkipper::operator.

                                                        {
  // Get the debug parameter for verbose output
  debug = pset.getUntrackedParameter<bool>("debug");
  // the name of the simhit collection
  simHitLabel = pset.getUntrackedParameter<InputTag>("simHitLabel");
  // the name of the 1D rec hit collection
  recHitLabel = pset.getUntrackedParameter<InputTag>("recHitLabel");
  // the name of the 2D rec hit collection
  segment2DLabel = pset.getUntrackedParameter<InputTag>("segment2DLabel");
  // the name of the 4D rec hit collection
  segment4DLabel = pset.getUntrackedParameter<InputTag>("segment4DLabel");

  // Switches for analysis at various steps
  doStep1 = pset.getUntrackedParameter<bool>("doStep1", false);
  doStep2 = pset.getUntrackedParameter<bool>("doStep2", false);
  doStep3 = pset.getUntrackedParameter<bool>("doStep3", false);
  doall = pset.getUntrackedParameter<bool>("doall", false);
  local = pset.getUntrackedParameter<bool>("local", true);
  // if(doall) doStep1
  // Create the root file
  //theFile = new TFile(rootFileName.c_str(), "RECREATE");
  //theFile->cd();


  // ----------------------                 
  // get hold of back-end interface 
  dbe_ = 0;
  dbe_ = Service<DQMStore>().operator->();
  /*if ( dbe_ ) {
    if (debug) {
      dbe_->setVerbose(1);
    } else {
      dbe_->setVerbose(0);
    }
    }*/
  dbe_->setVerbose(0);
  /*if ( dbe_ ) {
    if ( debug ) dbe_->showDirStructure();
    }*/
  if(doall && doStep1){
    hRes_S1RPhi= new HRes1DHit("S1RPhi",dbe_,true,local);    // RecHits, 1. step, RPhi
    hRes_S1RPhi_W0= new HRes1DHit("S1RPhi_W0",dbe_,true,local);   // RecHits, 1. step, RZ, wheel 0
    hRes_S1RPhi_W1= new HRes1DHit("S1RPhi_W1",dbe_,true,local);   // RecHits, 1. step, RZ, wheel +-1
    hRes_S1RPhi_W2= new HRes1DHit("S1RPhi_W2",dbe_,true,local);   // RecHits, 1. step, RZ, wheel +-2
    hRes_S1RZ= new HRes1DHit("S1RZ",dbe_,true,local);         // RecHits, 1. step, RZ
    hRes_S1RZ_W0= new HRes1DHit("S1RZ_W0",dbe_,true,local);   // RecHits, 1. step, RZ, wheel 0
    hRes_S1RZ_W1= new HRes1DHit("S1RZ_W1",dbe_,true,local);   // RecHits, 1. step, RZ, wheel +-1
    hRes_S1RZ_W2= new HRes1DHit("S1RZ_W2",dbe_,true,local);   // RecHits, 1. step, RZ, wheel +-2
    hEff_S1RPhi= new HEff1DHit("S1RPhi",dbe_);     // RecHits, 1. step, RPhi
    hEff_S1RZ= new HEff1DHit("S1RZ",dbe_);         // RecHits, 1. step, RZ
    hEff_S1RZ_W0= new HEff1DHit("S1RZ_W0",dbe_);   // RecHits, 1. step, RZ, wheel 0
    hEff_S1RZ_W1= new HEff1DHit("S1RZ_W1",dbe_);   // RecHits, 1. step, RZ, wheel +-1
    hEff_S1RZ_W2= new HEff1DHit("S1RZ_W2",dbe_);   // RecHits, 1. step, RZ, wheel +-2
  }
  if(doall && doStep2){
    hRes_S2RPhi= new HRes1DHit("S2RPhi",dbe_,true,local);     // RecHits, 2. step, RPhi
    hRes_S2RPhi_W0= new HRes1DHit("S2RPhi_W0",dbe_,true,local);   // RecHits, 2. step, RPhi, wheel 0
    hRes_S2RPhi_W1= new HRes1DHit("S2RPhi_W1",dbe_,true,local);   // RecHits, 2. step, RPhi, wheel +-1
    hRes_S2RPhi_W2= new HRes1DHit("S2RPhi_W2",dbe_,true,local);   // RecHits, 2. step, RPhi, wheel +-2
    hRes_S2RZ= new HRes1DHit("S2RZ",dbe_,true,local);       // RecHits, 2. step, RZ
    hRes_S2RZ_W0= new HRes1DHit("S2RZ_W0",dbe_,true,local);   // RecHits, 2. step, RZ, wheel 0
    hRes_S2RZ_W1= new HRes1DHit("S2RZ_W1",dbe_,true,local);   // RecHits, 2. step, RZ, wheel +-1
    hRes_S2RZ_W2= new HRes1DHit("S2RZ_W2",dbe_,true,local);   // RecHits, 2. step, RZ, wheel +-2
    hEff_S2RPhi= new HEff1DHit("S2RPhi",dbe_);     // RecHits, 2. step, RPhi
    hEff_S2RZ_W0= new HEff1DHit("S2RZ_W0",dbe_);   // RecHits, 2. step, RZ, wheel 0
    hEff_S2RZ_W1= new HEff1DHit("S2RZ_W1",dbe_);   // RecHits, 2. step, RZ, wheel +-1
    hEff_S2RZ_W2= new HEff1DHit("S2RZ_W2",dbe_);   // RecHits, 2. step, RZ, wheel +-2
    hEff_S2RZ= new HEff1DHit("S2RZ",dbe_);          // RecHits, 2. step, RZ
  }
  if(doStep3){
    hRes_S3RPhi= new HRes1DHit("S3RPhi",dbe_,doall,local);     // RecHits, 3. step, RPhi
    hRes_S3RPhi_W0= new HRes1DHit("S3RPhi_W0",dbe_,doall,local);   // RecHits, 3. step, RPhi, wheel 0
    hRes_S3RPhi_W1= new HRes1DHit("S3RPhi_W1",dbe_,doall,local);   // RecHits, 3. step, RPhi, wheel +-1
    hRes_S3RPhi_W2= new HRes1DHit("S3RPhi_W2",dbe_,doall,local);   // RecHits, 3. step, RPhi, wheel +-2
    hRes_S3RZ= new HRes1DHit("S3RZ",dbe_,doall,local);      // RecHits, 3. step, RZ
    hRes_S3RZ_W0= new HRes1DHit("S3RZ_W0",dbe_,doall,local);   // RecHits, 3. step, RZ, wheel 0
    hRes_S3RZ_W1= new HRes1DHit("S3RZ_W1",dbe_,doall,local);   // RecHits, 3. step, RZ, wheel +-1
    hRes_S3RZ_W2= new HRes1DHit("S3RZ_W2",dbe_,doall,local);   // RecHits, 3. step, RZ, wheel +-2
    if(doall){
      hEff_S3RPhi= new HEff1DHit("S3RPhi",dbe_);     // RecHits, 3. step, RPhi
      hEff_S3RZ= new HEff1DHit("S3RZ",dbe_);        // RecHits, 3. step, RZ
      hEff_S3RZ_W0= new HEff1DHit("S3RZ_W0",dbe_);   // RecHits, 3. step, RZ, wheel 0
      hEff_S3RZ_W1= new HEff1DHit("S3RZ_W1",dbe_);   // RecHits, 3. step, RZ, wheel +-1
      hEff_S3RZ_W2= new HEff1DHit("S3RZ_W2",dbe_);   // RecHits, 3. step, RZ, wheel +-2
    }
  }
}

DTRecHitQuality::~DTRecHitQuality ( ) [virtual]

Destructor.

Definition at line 129 of file DTRecHitQuality.cc.

{
}

Member Function Documentation

void DTRecHitQuality::analyze	(	const edm::Event &	event,
		const edm::EventSetup &	eventSetup
	)		`[virtual]`

Perform the real analysis.

Implements edm::EDAnalyzer.

Definition at line 211 of file DTRecHitQuality.cc.

References bookConverter::compute(), gather_cfg::cout, debug, edm::EventSetup::get(), edm::HandleBase::isValid(), DTHitQualityUtils::mapSimHitsPerWire(), edm::ESHandle< T >::product(), edm::Handle< T >::product(), and trackerHits::simHits.

                                                                                {
    if(debug)
      cout << "--- [DTRecHitQuality] Analysing Event: #Run: " << event.id().run()
        << " #Event: " << event.id().event() << endl;
    //theFile->cd();
    // Get the DT Geometry
    ESHandle<DTGeometry> dtGeom;
    eventSetup.get<MuonGeometryRecord>().get(dtGeom);

    // Get the SimHit collection from the event
    Handle<PSimHitContainer> simHits;
    event.getByLabel(simHitLabel, simHits);

    // Map simhits per wire
    map<DTWireId, PSimHitContainer > simHitsPerWire =
      DTHitQualityUtils::mapSimHitsPerWire(*(simHits.product()));



     //=======================================================================================
    // RecHit analysis at Step 1
    if(doStep1 && doall) {
      if(debug)
        cout << "  -- DTRecHit S1: begin analysis:" << endl;
      // Get the rechit collection from the event
      Handle<DTRecHitCollection> dtRecHits;
      event.getByLabel(recHitLabel, dtRecHits);

      if(!dtRecHits.isValid()) {
        if(debug) cout << "[DTRecHitQuality]**Warning: no 1DRechits with label: " << recHitLabel << " in this event, skipping!" << endl;
        return;
      }
     
     // Map rechits per wire
      map<DTWireId,vector<DTRecHit1DPair> > recHitsPerWire = 
        map1DRecHitsPerWire(dtRecHits.product());

      compute(dtGeom.product(), simHitsPerWire, recHitsPerWire, 1);
    }


    //=======================================================================================
    // RecHit analysis at Step 2
    if(doStep2 && doall) {
      if(debug)
        cout << "  -- DTRecHit S2: begin analysis:" << endl;

      // Get the 2D rechits from the event
      Handle<DTRecSegment2DCollection> segment2Ds;
      event.getByLabel(segment2DLabel, segment2Ds);

      if(!segment2Ds.isValid()) {
       if(debug) cout << "[DTRecHitQuality]**Warning: no 2DSegments with label: " << segment2DLabel
                      << " in this event, skipping!" << endl;
       
      }
      else{
        // Map rechits per wire
        map<DTWireId,vector<DTRecHit1D> > recHitsPerWire = 
          map1DRecHitsPerWire(segment2Ds.product());
        
        compute(dtGeom.product(), simHitsPerWire, recHitsPerWire, 2);
      }
    }

    //=======================================================================================
    // RecHit analysis at Step 3
    if(doStep3) {
      if(debug)
        cout << "  -- DTRecHit S3: begin analysis:" << endl;

      // Get the 4D rechits from the event
      Handle<DTRecSegment4DCollection> segment4Ds;
      event.getByLabel(segment4DLabel, segment4Ds);

      if(!segment4Ds.isValid()) {
        if(debug) cout << "[DTRecHitQuality]**Warning: no 4D Segments with label: " << segment4DLabel
                       << " in this event, skipping!" << endl;
        return;
      }

      // Map rechits per wire
      map<DTWireId,vector<DTRecHit1D> > recHitsPerWire = 
        map1DRecHitsPerWire(segment4Ds.product());

      compute(dtGeom.product(), simHitsPerWire, recHitsPerWire, 3);
    }

  }

template<typename type >

void DTRecHitQuality::compute	(	const DTGeometry *	dtGeom,
		std::map< DTWireId, std::vector< PSimHit > >	simHitsPerWire,
		std::map< DTWireId, std::vector< type > >	recHitsPerWire,
		int	step
	)		`[private]`

Definition at line 443 of file DTRecHitQuality.cc.

References abs, gather_cfg::cout, debug, PV3DBase< T, PVType, FrameType >::eta(), HRes1DHit::Fill(), HEff1DHit::Fill(), DTHitQualityUtils::findMuSimHit(), DTGeometry::layer(), PSimHit::localPosition(), PV3DBase< T, PVType, FrameType >::phi(), DTChamberId::station(), DTSuperLayerId::superLayer(), DTSuperLayerId::superlayer(), GeomDet::toGlobal(), and DTChamberId::wheel().

                                        {
  // Loop over cells with a muon SimHit
  for(map<DTWireId, vector<PSimHit> >::const_iterator wireAndSHits = simHitsPerWire.begin();
      wireAndSHits != simHitsPerWire.end();
      wireAndSHits++) {
    DTWireId wireId = (*wireAndSHits).first;
    vector<PSimHit> simHitsInCell = (*wireAndSHits).second;

    // Get the layer
    const DTLayer* layer = dtGeom->layer(wireId);

    // Look for a mu hit in the cell
    const PSimHit* muSimHit = DTHitQualityUtils::findMuSimHit(simHitsInCell);
    if (muSimHit==0) {
      if (debug) 
        cout << "   No mu SimHit in channel: " << wireId << ", skipping! " << endl;
      continue; // Skip this cell
    }

    // Find the distance of the simhit from the wire
    float simHitWireDist = simHitDistFromWire(layer, wireId, *muSimHit);
    // Skip simhits out of the cell
    if(simHitWireDist>2.1) {
      if(debug) 
        cout << "  [DTRecHitQuality]###Warning: The mu SimHit in out of the cell, skipping!" << endl;
      continue; // Skip this cell
    }
    GlobalPoint simHitGlobalPos = layer->toGlobal(muSimHit->localPosition());

    // find SH impact angle
    float simHitTheta = simHitImpactAngle(layer, wireId, *muSimHit);

    // find SH distance from FE
    float simHitFEDist = simHitDistFromFE(layer, wireId, *muSimHit);

    bool recHitReconstructed = false;

    // Look for RecHits in the same cell
    if(recHitsPerWire.find(wireId) == recHitsPerWire.end()) {
      // No RecHit found in this cell
      if(debug)
        cout << "   No RecHit found at Step: " << step << " in cell: " << wireId << endl;
    } else {
      recHitReconstructed = true;
      // vector<type> recHits = (*wireAndRecHits).second;
      vector<type> recHits = recHitsPerWire[wireId];
      if(debug)
        cout << "   " << recHits.size() << " RecHits, Step " << step << " in channel: " << wireId << endl;

      // Find the best RecHit
      const type* theBestRecHit = findBestRecHit(layer, wireId, recHits, simHitWireDist);


      float recHitWireDist =  recHitDistFromWire(*theBestRecHit, layer);
      if(debug)
        cout << "    SimHit distance from wire: " << simHitWireDist << endl
          << "    SimHit distance from FE: " << simHitFEDist << endl
          << "    SimHit distance angle " << simHitTheta << endl
          << "    RecHit distance from wire: " << recHitWireDist << endl;
      float recHitErr = recHitPositionError(*theBestRecHit);
      HRes1DHit *hRes = 0;
      HRes1DHit *hResTot = 0;

      // Fill residuals and pulls
      // Select the histo to be filled
      if(step == 1) {
        // Step 1
        if(wireId.superLayer() != 2) {
          hResTot = hRes_S1RPhi;
          if(wireId.wheel() == 0)
            hRes = hRes_S1RPhi_W0;
          if(abs(wireId.wheel()) == 1)
            hRes = hRes_S1RPhi_W1;
          if(abs(wireId.wheel()) == 2)
            hRes = hRes_S1RPhi_W2;
        } else {
          hResTot = hRes_S1RZ;
          if(wireId.wheel() == 0)
            hRes = hRes_S1RZ_W0;
          if(abs(wireId.wheel()) == 1)
            hRes = hRes_S1RZ_W1;
          if(abs(wireId.wheel()) == 2)
            hRes = hRes_S1RZ_W2;
        }

      } else if(step == 2) {
        // Step 2
        if(wireId.superlayer() != 2) {
          hRes = hRes_S2RPhi;
          if(wireId.wheel() == 0)
            hRes = hRes_S2RPhi_W0;
          if(abs(wireId.wheel()) == 1)
            hRes = hRes_S2RPhi_W1;
          if(abs(wireId.wheel()) == 2)
            hRes = hRes_S2RPhi_W2;
        } else {
          hResTot = hRes_S2RZ;
          if(wireId.wheel() == 0)
            hRes = hRes_S2RZ_W0;
          if(abs(wireId.wheel()) == 1)
            hRes = hRes_S2RZ_W1;
          if(abs(wireId.wheel()) == 2)
            hRes = hRes_S2RZ_W2;
        }

      } else if(step == 3) {
        // Step 3
        if(wireId.superlayer() != 2) {
          hResTot = hRes_S3RPhi;
          if(wireId.wheel() == 0)
            hRes = hRes_S3RPhi_W0;
          if(abs(wireId.wheel()) == 1)
            hRes = hRes_S3RPhi_W1;
          if(abs(wireId.wheel()) == 2)
            hRes = hRes_S3RPhi_W2;
        } else {
          hResTot = hRes_S3RZ;
          if(wireId.wheel() == 0)
            hRes = hRes_S3RZ_W0;
          if(abs(wireId.wheel()) == 1)
            hRes = hRes_S3RZ_W1;
          if(abs(wireId.wheel()) == 2)
            hRes = hRes_S3RZ_W2;
        }

      }
      // Fill
      hRes->Fill(simHitWireDist, simHitTheta, simHitFEDist, recHitWireDist, simHitGlobalPos.eta(),
                 simHitGlobalPos.phi(),recHitErr,wireId.station());
      if(hResTot != 0)
        hResTot->Fill(simHitWireDist, simHitTheta, simHitFEDist, recHitWireDist, simHitGlobalPos.eta(),
                      simHitGlobalPos.phi(),recHitErr,wireId.station());
    }

    // Fill Efficiencies
    if(doall){
      HEff1DHit *hEff = 0;
      HEff1DHit *hEffTot = 0;
      if(step == 1) {
        // Step 1
        if(wireId.superlayer() != 2) {
          hEff = hEff_S1RPhi;
        } else {
          hEffTot = hEff_S1RZ;
          if(wireId.wheel() == 0)
            hEff = hEff_S1RZ_W0;
          if(abs(wireId.wheel()) == 1)
            hEff = hEff_S1RZ_W1;
          if(abs(wireId.wheel()) == 2)
            hEff = hEff_S1RZ_W2;
        }
        
      } else if(step == 2) {
        // Step 2
        if(wireId.superlayer() != 2) {
          hEff = hEff_S2RPhi;
        } else {
          hEffTot = hEff_S2RZ;
          if(wireId.wheel() == 0)
            hEff = hEff_S2RZ_W0;
          if(abs(wireId.wheel()) == 1)
            hEff = hEff_S2RZ_W1;
          if(abs(wireId.wheel()) == 2)
            hEff = hEff_S2RZ_W2;
        }
        
      } else if(step == 3) {
        // Step 3
        if(wireId.superlayer() != 2) {
          hEff = hEff_S3RPhi;
        } else {
          hEffTot = hEff_S3RZ;
          if(wireId.wheel() == 0)
            hEff = hEff_S3RZ_W0;
          if(abs(wireId.wheel()) == 1)
            hEff = hEff_S3RZ_W1;
          if(abs(wireId.wheel()) == 2)
            hEff = hEff_S3RZ_W2;
        }
        
      }
      // Fill
      hEff->Fill(simHitWireDist, simHitGlobalPos.eta(), simHitGlobalPos.phi(), recHitReconstructed);
      if(hEffTot != 0)
        hEffTot->Fill(simHitWireDist, simHitGlobalPos.eta(), simHitGlobalPos.phi(), recHitReconstructed);
    }
  }
}

void DTRecHitQuality::endJob ( void ) [virtual]

Reimplemented from edm::EDAnalyzer.

Definition at line 138 of file DTRecHitQuality.cc.

                             {
  // Write the histos to file
  if(doall){
    if(doStep1){
      hEff_S1RPhi->ComputeEfficiency();
      hEff_S1RZ->ComputeEfficiency();
      hEff_S1RZ_W0->ComputeEfficiency();
      hEff_S1RZ_W1->ComputeEfficiency();
      hEff_S1RZ_W2->ComputeEfficiency();
    }
    if(doStep2){
      hEff_S2RPhi->ComputeEfficiency();
      hEff_S2RZ->ComputeEfficiency();
      hEff_S2RZ_W0->ComputeEfficiency();
      hEff_S2RZ_W1->ComputeEfficiency();
      hEff_S2RZ_W2->ComputeEfficiency();
    }
    if(doStep3){
      hEff_S3RPhi->ComputeEfficiency();
      hEff_S3RZ->ComputeEfficiency();
      hEff_S3RZ_W0->ComputeEfficiency();
      hEff_S3RZ_W1->ComputeEfficiency();
      hEff_S3RZ_W2->ComputeEfficiency();
    }
  }
  //if ( rootFileName.size() != 0 && dbe_ ) dbe_->save(rootFileName); 

  // Write histos to file
  /*hRes_S1RPhi->Write();
  hRes_S2RPhi->Write();
  hRes_S3RPhi->Write();

  hRes_S1RZ->Write();
  hRes_S2RZ->Write();
  hRes_S3RZ->Write();

  hRes_S1RZ_W0->Write();
  hRes_S2RZ_W0->Write();
  hRes_S3RZ_W0->Write();

  hRes_S1RZ_W1->Write();
  hRes_S2RZ_W1->Write();
  hRes_S3RZ_W1->Write();

  hRes_S1RZ_W2->Write();
  hRes_S2RZ_W2->Write();
  hRes_S3RZ_W2->Write();


  hEff_S1RPhi->Write();
  hEff_S2RPhi->Write();
  hEff_S3RPhi->Write();

  hEff_S1RZ->Write();
  hEff_S2RZ->Write();
  hEff_S3RZ->Write();

  hEff_S1RZ_W0->Write();
  hEff_S2RZ_W0->Write();
  hEff_S3RZ_W0->Write();

  hEff_S1RZ_W1->Write();
  hEff_S2RZ_W1->Write();
  hEff_S3RZ_W1->Write();

  hEff_S1RZ_W2->Write();
  hEff_S2RZ_W2->Write();
  hEff_S3RZ_W2->Write();*/

  //theFile->Close();
}

void DTRecHitQuality::endLuminosityBlock	(	edm::LuminosityBlock const &	lumiSeg,
		edm::EventSetup const &	c
	)		`[virtual]`

Reimplemented from edm::EDAnalyzer.

Definition at line 133 of file DTRecHitQuality.cc.

                           {

}

template<typename type >

const type* DTRecHitQuality::findBestRecHit	(	const DTLayer *	layer,
		DTWireId	wireId,
		const vector< type > &	recHits,
		const float	simHitDist
	)

Definition at line 404 of file DTRecHitQuality.cc.

                                                        {
  float res = 99999;
  const type* theBestRecHit = 0;
  // Loop over RecHits within the cell
  for(typename vector<type>::const_iterator recHit = recHits.begin();
      recHit != recHits.end();
      recHit++) {
    float distTmp = recHitDistFromWire(*recHit, layer);
    if(fabs(distTmp-simHitDist) < res) {
      res = fabs(distTmp-simHitDist);
      theBestRecHit = &(*recHit);
    }
  } // End of loop over RecHits within the cell

  return theBestRecHit;
}

template<typename type >

const type* DTRecHitQuality::findBestRecHit	(	const DTLayer *	layer,
		DTWireId	wireId,
		const std::vector< type > &	recHits,
		const float	simHitDist
	)		`[private]`

map< DTWireId, vector< DTRecHit1DPair > > DTRecHitQuality::map1DRecHitsPerWire ( const DTRecHitCollection * dt1DRecHitPairs ) [private]

Definition at line 305 of file DTRecHitQuality.cc.

References runTheMatrix::ret.

                                                                              {
  map<DTWireId, vector<DTRecHit1DPair> > ret;

  for(DTRecHitCollection::const_iterator rechit = dt1DRecHitPairs->begin();
      rechit != dt1DRecHitPairs->end(); rechit++) {
    ret[(*rechit).wireId()].push_back(*rechit);
  }

  return ret;
}

map< DTWireId, vector< DTRecHit1D > > DTRecHitQuality::map1DRecHitsPerWire ( const DTRecSegment2DCollection * segment2Ds ) [private]

Definition at line 319 of file DTRecHitQuality.cc.

References runTheMatrix::ret.

                                                                               {
  map<DTWireId, vector<DTRecHit1D> > ret;

  // Loop over all 2D segments
  for(DTRecSegment2DCollection::const_iterator segment = segment2Ds->begin();
      segment != segment2Ds->end();
      segment++) {
    vector<DTRecHit1D> component1DHits= (*segment).specificRecHits();
    // Loop over all component 1D hits
    for(vector<DTRecHit1D>::const_iterator hit = component1DHits.begin();
        hit != component1DHits.end();
        hit++) {
      ret[(*hit).wireId()].push_back(*hit);
    }
  }
  return ret;
}

map< DTWireId, std::vector< DTRecHit1D > > DTRecHitQuality::map1DRecHitsPerWire ( const DTRecSegment4DCollection * segment4Ds ) [private]

Definition at line 341 of file DTRecHitQuality.cc.

References runTheMatrix::ret, and DTRecHit1D::wireId().

                                                                               {
  map<DTWireId, vector<DTRecHit1D> > ret;
  // Loop over all 4D segments
  for(DTRecSegment4DCollection::const_iterator segment = segment4Ds->begin();
      segment != segment4Ds->end();
      segment++) {
    // Get component 2D segments
    vector<const TrackingRecHit*> segment2Ds = (*segment).recHits();
    // Loop over 2D segments:
    for(vector<const TrackingRecHit*>::const_iterator segment2D = segment2Ds.begin();
        segment2D != segment2Ds.end();
        segment2D++) {
      // Get 1D component rechits
      vector<const TrackingRecHit*> hits = (*segment2D)->recHits();
      // Loop over them
      for(vector<const TrackingRecHit*>::const_iterator hit = hits.begin();
          hit != hits.end(); hit++) {
        const DTRecHit1D* hit1D = dynamic_cast<const DTRecHit1D*>(*hit);
        ret[hit1D->wireId()].push_back(*hit1D);
      }
    }
  }

  return ret;
}

float DTRecHitQuality::recHitDistFromWire	(	const DTRecHit1DPair &	hitPair,
		const DTLayer *	layer
	)		`[private]`

Definition at line 427 of file DTRecHitQuality.cc.

References DTEnums::Left, DTRecHit1DPair::localPosition(), DTEnums::Right, and PV3DBase< T, PVType, FrameType >::x().

                                                                                       {
  // Compute the rechit distance from wire
  return fabs(hitPair.localPosition(DTEnums::Left).x() -
              hitPair.localPosition(DTEnums::Right).x())/2.;
}

float DTRecHitQuality::recHitDistFromWire	(	const DTRecHit1D &	recHit,
		const DTLayer *	layer
	)		`[private]`

Definition at line 437 of file DTRecHitQuality.cc.

References DTRecHit1D::localPosition(), DTLayer::specificTopology(), DTWireId::wire(), DTRecHit1D::wireId(), DTTopology::wirePosition(), and PV3DBase< T, PVType, FrameType >::x().

                                                                                  {
  return fabs(recHit.localPosition().x() - layer->specificTopology().wirePosition(recHit.wireId().wire()));
}

float DTRecHitQuality::recHitPositionError ( const DTRecHit1DPair & recHit ) [private]

Definition at line 636 of file DTRecHitQuality.cc.

References DTEnums::Left, DTRecHit1DPair::localPositionError(), mathSSE::sqrt(), and LocalError::xx().

                                                                       {
  return sqrt(recHit.localPositionError(DTEnums::Left).xx());
}

float DTRecHitQuality::recHitPositionError ( const DTRecHit1D & recHit ) [private]

Definition at line 641 of file DTRecHitQuality.cc.

References DTRecHit1D::localPositionError(), mathSSE::sqrt(), and LocalError::xx().

                                                                   {
  return sqrt(recHit.localPositionError().xx());
}

float DTRecHitQuality::simHitDistFromFE	(	const DTLayer *	layer,
		DTWireId	wireId,
		const PSimHit &	hit
	)		`[private]`

Definition at line 391 of file DTRecHitQuality.cc.

References DTTopology::cellLenght(), PSimHit::entryPoint(), PSimHit::exitPoint(), DTLayer::specificTopology(), and PV3DBase< T, PVType, FrameType >::y().

                                                            {
  LocalPoint entryP = hit.entryPoint();
  LocalPoint exitP = hit.exitPoint();
  float wireLenght=layer->specificTopology().cellLenght();
  return (entryP.y()+exitP.y())/2.+wireLenght;
}

float DTRecHitQuality::simHitDistFromWire	(	const DTLayer *	layer,
		DTWireId	wireId,
		const PSimHit &	hit
	)		`[private]`

Definition at line 368 of file DTRecHitQuality.cc.

References PSimHit::entryPoint(), PSimHit::exitPoint(), DTLayer::specificTopology(), DTWireId::wire(), DTTopology::wirePosition(), PV3DBase< T, PVType, FrameType >::x(), and PV3DBase< T, PVType, FrameType >::z().

                                                              {
  float xwire = layer->specificTopology().wirePosition(wireId.wire());
  LocalPoint entryP = hit.entryPoint();
  LocalPoint exitP = hit.exitPoint();
  float xEntry = entryP.x()-xwire;
  float xExit  = exitP.x()-xwire;

  return fabs(xEntry - (entryP.z()*(xExit-xEntry))/(exitP.z()-entryP.z()));//FIXME: check...
}

float DTRecHitQuality::simHitImpactAngle	(	const DTLayer *	layer,
		DTWireId	wireId,
		const PSimHit &	hit
	)		`[private]`

Definition at line 381 of file DTRecHitQuality.cc.

References PSimHit::entryPoint(), PSimHit::exitPoint(), theta(), PV3DBase< T, PVType, FrameType >::x(), and PV3DBase< T, PVType, FrameType >::z().

                                                             {
  LocalPoint entryP = hit.entryPoint();
  LocalPoint exitP = hit.exitPoint();
  float theta=(exitP.x()-entryP.x())/(exitP.z()-entryP.z());
  return atan(theta);
}