---

DTNoiseCalibration Class Reference

#include <CalibMuon/DTCalibration/plugins/DTNoiseCalibration.h>

Inheritance diagram for DTNoiseCalibration:

List of all members.

Public Member Functions
void	analyze (const edm::Event &e, const edm::EventSetup &c)
	Analyze.
void	beginJob (const edm::EventSetup &c)
	BeginJob.
	DTNoiseCalibration (const edm::ParameterSet &ps)
	Constructor.
void	endJob ()
	Endjob.
virtual	~DTNoiseCalibration ()
	Destructor.
Private Member Functions
std::string	getLayerName (const DTLayerId &lId) const
	Get the name of the layer.
std::string	getSuperLayerName (const DTSuperLayerId &dtSLId) const
	Get the name of the superLayer.
Private Attributes
bool	cosmicRun
int	counter
bool	debug
edm::ESHandle< DTGeometry >	dtGeom
bool	fastAnalysis
TH1F *	hTDCTriggerWidth
int	nevents
edm::ParameterSet	parameters
int	sect
std::map< DTLayerId, int >	skippedPlot
TFile *	theFile
std::map< DTLayerId, TH2F * >	theHistoEvtPerWireMap
std::map< DTLayerId, TH1F * >	theHistoOccupancyMap
int	TriggerWidth
	variables to set by configuration file
float	tTrig
	tTrig from the DB
edm::ESHandle< DTTtrig >	tTrigMap
float	tTrigRMS
float	upperLimit
int	wh

---

Detailed Description

Definition at line 33 of file DTNoiseCalibration.h.

---

Constructor & Destructor Documentation

DTNoiseCalibration::DTNoiseCalibration

(

const edm::ParameterSet &

ps

)

Constructor.

Definition at line 44 of file DTNoiseCalibration.cc.

References cosmicRun, GenMuonPlsPt100GeV_cfg::cout, debug, lat::endl(), fastAnalysis, edm::ParameterSet::getUntrackedParameter(), parameters, sect, theFile, TriggerWidth, and wh.

                                                               {

  cout << "[DTNoiseCalibration]: Constructor" <<endl;

  // Get the debug parameter for verbose output
  debug = ps.getUntrackedParameter<bool>("debug");

  // The analysis type
  fastAnalysis = ps.getUntrackedParameter<bool>("fastAnalysis", true);
  // The wheel & sector interested for the time-dependent analysis
  wh = ps.getUntrackedParameter<int>("wheel", 0);
  sect = ps.getUntrackedParameter<int>("sector", 6);

  // The trigger mode
  cosmicRun = ps.getUntrackedParameter<bool>("cosmicRun", false);

  // The trigger width (if noise run)
  TriggerWidth = ps.getUntrackedParameter<int>("TriggerWidth");

  // The root file which will contain the histos
  string rootFileName = ps.getUntrackedParameter<string>("rootFileName");
  theFile = new TFile(rootFileName.c_str(), "RECREATE");
  theFile->cd();

  parameters=ps;

}

DTNoiseCalibration::~DTNoiseCalibration

(

)

[virtual]

Destructor.

Definition at line 395 of file DTNoiseCalibration.cc.

References GenMuonPlsPt100GeV_cfg::cout, lat::endl(), nevents, and theFile.

                                       {

  cout << "DTNoiseCalibration: analyzed " << nevents << " events" <<endl;
  theFile->Close();

}

---

Member Function Documentation

void DTNoiseCalibration::analyze	(	const edm::Event &	e,
		const edm::EventSetup &	c
	)			[virtual]

Analyze.

Implements edm::EDAnalyzer.

Definition at line 93 of file DTNoiseCalibration.cc.

References DTSuperLayerId::chamberId(), DTTopology::channels(), cosmicRun, counter, GenMuonPlsPt100GeV_cfg::cout, debug, dtGeom, lat::endl(), fastAnalysis, DTTopology::firstChannel(), edm::Event::getByLabel(), getLayerName(), edm::ParameterSet::getUntrackedParameter(), hTDCTriggerWidth, DTTopology::lastChannel(), nevents, parameters, edm::second(), sect, DTChamberId::sector(), skippedPlot, sl, DTLayerId::superlayerId(), theFile, theHistoEvtPerWireMap, theHistoOccupancyMap, TriggerWidth, tTrig, tTrigMap, tTrigRMS, upperLimit, wh, and DTChamberId::wheel().

                                                                               {

  nevents++;
  if(debug)
    cout<<"nevents: "<<nevents<<endl;
  
  // Get the digis from the event
  edm::Handle<DTDigiCollection> dtdigis;
  e.getByLabel("dtunpacker", dtdigis);

  TH1F *hOccupancyHisto;
  TH2F *hEvtPerWireH;
  string Histo2Name;

  // LOOP OVER ALL THE DIGIS OF THE EVENT
  DTDigiCollection::DigiRangeIterator dtLayerId_It;
  for (dtLayerId_It=dtdigis->begin(); dtLayerId_It!=dtdigis->end(); ++dtLayerId_It){
    for (DTDigiCollection::const_iterator digiIt = ((*dtLayerId_It).second).first;
         digiIt!=((*dtLayerId_It).second).second; ++digiIt){

      //Check the TDC trigger width
      int tdcTime = (*digiIt).countsTDC();
      if(!cosmicRun){   
        if(debug)
          cout<<"tdcTime (ns): "<<(tdcTime*25)/32<<endl;
        if(((tdcTime*25)/32)>TriggerWidth){
          cout<<"***Error*** : your digi has a tdcTime (ns) higher than the TDC trigger width :"<<(tdcTime*25)/32<<endl;
          abort();
        }
      } 

      if((!fastAnalysis &&
         (*dtLayerId_It).first.superlayerId().chamberId().wheel()==wh &&
         (*dtLayerId_It).first.superlayerId().chamberId().sector()==sect) ||
         fastAnalysis)
        hTDCTriggerWidth->Fill(tdcTime);

      // Set the window of interest if the run is triggered by cosmics
      if ( parameters.getUntrackedParameter<bool>("readDB", true) ) {
        tTrigMap->slTtrig( ((*dtLayerId_It).first).superlayerId(), tTrig, tTrigRMS);
        upperLimit = tTrig-500;
      }
      else { 
        tTrig = parameters.getUntrackedParameter<int>("defaultTtrig", 4000);
        upperLimit = tTrig-500;
      }
        
      if((cosmicRun && (*digiIt).countsTDC()<upperLimit) || (!cosmicRun) ){

        if(debug && cosmicRun)
          cout<<"tdcTime (ns): "<<((*digiIt).countsTDC()*25)/32<<" --- TriggerWidth (ns): "<<(upperLimit*25)/32<<endl;

        // Get the number of wires
        const  DTLayerId dtLId = (*dtLayerId_It).first;
        const DTTopology& dtTopo = dtGeom->layer(dtLId)->specificTopology();
        const int nWires = dtTopo.channels();
        const int firstWire = dtTopo.firstChannel();
        const int lastWire = dtTopo.lastChannel();
        
        // book the occupancy histos
        theFile->cd();
        if((!fastAnalysis &&
           dtLId.superlayerId().chamberId().wheel()==wh &&
           dtLId.superlayerId().chamberId().sector()==sect) ||
           fastAnalysis){
          hOccupancyHisto = theHistoOccupancyMap[dtLId];
          if(hOccupancyHisto == 0) {
            string HistoName = "DigiOccupancy_" + getLayerName(dtLId);
            theFile->cd();
            hOccupancyHisto = new TH1F(HistoName.c_str(), HistoName.c_str(), nWires, firstWire, lastWire+1);
            if(debug)
              cout << "  New Occupancy Histo: " << hOccupancyHisto->GetName() << endl;
            theHistoOccupancyMap[dtLId] = hOccupancyHisto;
          }
          hOccupancyHisto->Fill((*digiIt).wire());
        }

        // book the digi event plot every 1000 events if the analysis is not "fast" and if is the correct sector
        if(!fastAnalysis &&
           dtLId.superlayerId().chamberId().wheel()==wh &&
           dtLId.superlayerId().chamberId().sector()==sect) {
          if(theHistoEvtPerWireMap.find(dtLId) == theHistoEvtPerWireMap.end() ||
             (theHistoEvtPerWireMap.find(dtLId) != theHistoEvtPerWireMap.end() &&
              skippedPlot[dtLId] != counter)){ 
            skippedPlot[dtLId] = counter;
            stringstream toAppend; toAppend << counter;
            Histo2Name = "DigiPerWirePerEvent_" + getLayerName(dtLId) + "_" + toAppend.str();
            theFile->cd();
            hEvtPerWireH = new TH2F(Histo2Name.c_str(), Histo2Name.c_str(), 1000,0.5,1000.5,nWires, firstWire, lastWire+1);
            if(hEvtPerWireH){
              if(debug)
                cout << "  New Histo with the number of digi per evt per wire: " << hEvtPerWireH->GetName() << endl;
              theHistoEvtPerWireMap[dtLId]=hEvtPerWireH;
            }
          }
        }
      }
    }
  }
    
  //Fill the plot of the number of digi per event per wire
  std::map<int,int > DigiPerWirePerEvent;
  // LOOP OVER ALL THE CHAMBERS
  vector<DTChamber*>::const_iterator ch_it = dtGeom->chambers().begin();
  vector<DTChamber*>::const_iterator ch_end = dtGeom->chambers().end();
  for (; ch_it != ch_end; ++ch_it) {
    DTChamberId ch = (*ch_it)->id();
    vector<const DTSuperLayer*>::const_iterator sl_it = (*ch_it)->superLayers().begin(); 
    vector<const DTSuperLayer*>::const_iterator sl_end = (*ch_it)->superLayers().end();
    // Loop over the SLs
    for(; sl_it != sl_end; ++sl_it) {
      DTSuperLayerId sl = (*sl_it)->id();
      vector<const DTLayer*>::const_iterator l_it = (*sl_it)->layers().begin(); 
      vector<const DTLayer*>::const_iterator l_end = (*sl_it)->layers().end();
      // Loop over the Ls
      for(; l_it != l_end; ++l_it) {
        DTLayerId layerId = (*l_it)->id();
        
        // Get the number of wires
        const DTTopology& dtTopo = dtGeom->layer(layerId)->specificTopology();
        const int firstWire = dtTopo.firstChannel();
        const int lastWire = dtTopo.lastChannel();
          
        if (theHistoEvtPerWireMap.find(layerId) != theHistoEvtPerWireMap.end() &&
            skippedPlot[layerId] == counter) {
          
          for (int wire=firstWire; wire<=lastWire; wire++) {
            DigiPerWirePerEvent[wire]= 0;
          }     
          // loop over all the digis of the event
          DTDigiCollection::Range layerDigi= dtdigis->get(layerId);
          for (DTDigiCollection::const_iterator digi = layerDigi.first;
               digi!=layerDigi.second;
               ++digi){
            if((cosmicRun && (*digi).countsTDC()<upperLimit) || (!cosmicRun))
              DigiPerWirePerEvent[(*digi).wire()]+=1;
          }
          // fill the digi event histo
          for (int wire=firstWire; wire<=lastWire; wire++) {
            theFile->cd();
            int histoEvents = nevents - (counter*1000);
            theHistoEvtPerWireMap[layerId]->Fill(histoEvents,wire,DigiPerWirePerEvent[wire]);
          }
        }
      } //Loop Ls
    } //Loop SLs
  } //Loop chambers
  
  
  if(nevents % 1000 == 0) {
    counter++;
    // save the digis event plot on file
    for(map<DTLayerId,  TH2F* >::const_iterator lHisto = theHistoEvtPerWireMap.begin();
        lHisto != theHistoEvtPerWireMap.end();
        lHisto++) {
      theFile->cd();
      if((*lHisto).second)
        (*lHisto).second->Write();
    }
    theHistoEvtPerWireMap.clear();
  }
  
}

void DTNoiseCalibration::beginJob

(

const edm::EventSetup &

c

)

[virtual]

BeginJob.

Reimplemented from edm::EDAnalyzer.

Definition at line 73 of file DTNoiseCalibration.cc.

References counter, GenMuonPlsPt100GeV_cfg::cout, dtGeom, lat::endl(), edm::EventSetup::get(), edm::ParameterSet::getUntrackedParameter(), hTDCTriggerWidth, nevents, parameters, TriggerWidth, and tTrigMap.

                                                             {

  cout <<"[DTNoiseCalibration]: BeginJob"<<endl; 
  nevents = 0;
  counter = 0;

  // Get the DT Geometry
  context.get<MuonGeometryRecord>().get(dtGeom);

  // tTrig 
  if (parameters.getUntrackedParameter<bool>("readDB", true)) 
    context.get<DTTtrigRcd>().get(tTrigMap);

  // TDC time distribution
  int numBin = (TriggerWidth*(32/25))/50;
  hTDCTriggerWidth = new TH1F("TDC_Time_Distribution", "TDC_Time_Distribution", numBin, 0, TriggerWidth*(32/25));

}

void DTNoiseCalibration::endJob

(

void

)

[virtual]

Endjob.

Reimplemented from edm::EDAnalyzer.

Definition at line 258 of file DTNoiseCalibration.cc.

References cosmicRun, GenMuonPlsPt100GeV_cfg::cout, debug, dtGeom, lat::endl(), DTTopology::firstChannel(), edm::ParameterSet::getUntrackedParameter(), hTDCTriggerWidth, DTTopology::lastChannel(), nevents, parameters, ecalRecalibSequence_cff::record, DTStatusFlag::setCellNoise(), theFile, theHistoOccupancyMap, TriggerWidth, tTrig, tTrigMap, and tTrigRMS.

                               {

  cout << "[DTNoiseCalibration] endjob called!" <<endl;

  // save the TDC digi plot
  theFile->cd();
  hTDCTriggerWidth->Write();

  // save on file the occupancy histo and write the list of noisy cells
  double TriggerWidth_s=0;
  DTStatusFlag *statusMap = new DTStatusFlag();
  for(map<DTLayerId, TH1F*>::const_iterator lHisto = theHistoOccupancyMap.begin();
      lHisto != theHistoOccupancyMap.end();
      lHisto++) {
    if(cosmicRun){
      if ( parameters.getUntrackedParameter<bool>("readDB", true) ) 
        tTrigMap->slTtrig( ((*lHisto).first).superlayerId(), tTrig, tTrigRMS); 
      else tTrig = parameters.getUntrackedParameter<int>("defaultTtrig", 4000);
      double TriggerWidth_ns = ((tTrig-500)*25)/32;
      TriggerWidth_s = TriggerWidth_ns/1e9;
    }
    if(!cosmicRun)
      TriggerWidth_s = double(TriggerWidth/1e9);
    if(debug)
      cout<<"TriggerWidth (s): "<<TriggerWidth_s<<"  TotEvents: "<<nevents<<endl;
    double normalization = 1/double(nevents*TriggerWidth_s);
    if((*lHisto).second){
      (*lHisto).second->Scale(normalization);
      theFile->cd();
      (*lHisto).second->Write();
      const DTTopology& dtTopo = dtGeom->layer((*lHisto).first)->specificTopology();
      const int firstWire = dtTopo.firstChannel();
      const int lastWire = dtTopo.lastChannel();
      for(int bin=firstWire; bin<=lastWire; bin++){
        //from definition of "noisy cell"
        if((*lHisto).second->GetBinContent(bin)>500){
          DTWireId wireID((*lHisto).first, bin);
          statusMap->setCellNoise(wireID,1);
        }
      }
    }
  }
  cout << "Writing Noise Map object to DB!" << endl;
  string record = "DTStatusFlagRcd";
  DTCalibDBUtils::writeToDB<DTStatusFlag>(record, statusMap);

 
  /*
  //save the digi event plot per SuperLayer 
  bool histo=false;
  map<DTSuperLayerId, vector<int> > maxPerSuperLayer;
  int numPlot = (nevents/1000);
  int num=0;
  // loop over the numPlot 
  for(int i=0; i<numPlot; i++){  
    vector<DTChamber*>::const_iterator ch_it = dtGeom->chambers().begin();
    vector<DTChamber*>::const_iterator ch_end = dtGeom->chambers().end();
    // Loop over the chambers
    for (; ch_it != ch_end; ++ch_it) {
      DTChamberId ch = (*ch_it)->id();
      vector<const DTSuperLayer*>::const_iterator sl_it = (*ch_it)->superLayers().begin(); 
      vector<const DTSuperLayer*>::const_iterator sl_end = (*ch_it)->superLayers().end();
      // Loop over the SLs
      for(; sl_it != sl_end; ++sl_it) {
        DTSuperLayerId sl = (*sl_it)->id();
        vector<const DTLayer*>::const_iterator l_it = (*sl_it)->layers().begin(); 
        vector<const DTLayer*>::const_iterator l_end = (*sl_it)->layers().end();
        double dummy = pow(10.,10.);
        maxPerSuperLayer[sl].push_back(0);
        // Loop over the Ls
        for(; l_it != l_end; ++l_it) {
          DTLayerId layerId = (*l_it)->id();

          if (theHistoEvtPerWireMap.find(layerId) != theHistoEvtPerWireMap.end() &&
              theHistoEvtPerWireMap[layerId].size() > i){
            if (theHistoEvtPerWireMap[layerId][i]->GetMaximum(dummy)>maxPerSuperLayer[sl][i])
              maxPerSuperLayer[sl][i] = theHistoEvtPerWireMap[layerId][i]->GetMaximum(dummy);
          }
        }
      } // loop over SLs
    } // loop over chambers
  } // loop over numPlot

  // loop over the numPlot 
  for(int i=0; i<numPlot; i++){
    vector<DTChamber*>::const_iterator chamber_it = dtGeom->chambers().begin();
    vector<DTChamber*>::const_iterator chamber_end = dtGeom->chambers().end();
    // Loop over the chambers
    for (; chamber_it != chamber_end; ++chamber_it) {
      DTChamberId ch = (*chamber_it)->id();
      vector<const DTSuperLayer*>::const_iterator sl_it = (*chamber_it)->superLayers().begin(); 
      vector<const DTSuperLayer*>::const_iterator sl_end = (*chamber_it)->superLayers().end();
      // Loop over the SLs
      for(; sl_it != sl_end; ++sl_it) {
        DTSuperLayerId sl = (*sl_it)->id();
        vector<const DTLayer*>::const_iterator l_it = (*sl_it)->layers().begin(); 
        vector<const DTLayer*>::const_iterator l_end = (*sl_it)->layers().end();

        stringstream num; num << i;
        string canvasName = "c" + getSuperLayerName(sl) + "_" + num.str();
        TCanvas c1(canvasName.c_str(),canvasName.c_str(),600,780);
        TLegend *leg=new TLegend(0.5,0.6,0.7,0.8);
        for(; l_it != l_end; ++l_it) {
          DTLayerId layerId = (*l_it)->id();

          if (theHistoEvtPerWireMap.find(layerId) != theHistoEvtPerWireMap.end() &&
            theHistoEvtPerWireMap[layerId].size() > i){

            string TitleName = "DigiPerWirePerEvent_" + getSuperLayerName(sl) + "_" + num.str();
            theHistoEvtPerWireMap[layerId][i]->SetTitle(TitleName.c_str());
            stringstream layer; layer << layerId.layer();       
            string legendHisto = "layer " + layer.str();
            leg->AddEntry(theHistoEvtPerWireMap[layerId][i],legendHisto.c_str(),"L");
            theHistoEvtPerWireMap[layerId][i]->SetMaximum(maxPerSuperLayer[sl][i]);
            if(histo==false)
              theHistoEvtPerWireMap[layerId][i]->Draw("lego");
            else
              theHistoEvtPerWireMap[layerId][i]->Draw("same , lego");
            theHistoEvtPerWireMap[layerId][i]->SetLineColor(layerId.layer());
            histo=true;
          }
        } // loop over Ls
        if(histo){
          leg->Draw("same");
          theFile->cd();
          c1.Write();
        }
        histo=false;
      } // loop over SLs
    } // loop over chambers 
  } // loop over numPlot
  */

}

string DTNoiseCalibration::getLayerName

(

const DTLayerId &

lId

)

const [private]

Get the name of the layer.

Definition at line 404 of file DTNoiseCalibration.cc.

References DTSuperLayerId::chamberId(), DTLayerId::layer(), DTChamberId::sector(), DTChamberId::station(), DTSuperLayerId::superlayer(), DTLayerId::superlayerId(), muonGeometry::wheel, and DTChamberId::wheel().

Referenced by analyze().

                                                                  {

  const  DTSuperLayerId dtSLId = lId.superlayerId();
  const  DTChamberId dtChId = dtSLId.chamberId(); 
  stringstream Layer; Layer << lId.layer();
  stringstream superLayer; superLayer << dtSLId.superlayer();
  stringstream wheel; wheel << dtChId.wheel();  
  stringstream station; station << dtChId.station();    
  stringstream sector; sector << dtChId.sector();
  
  string LayerName = 
    "W" + wheel.str()
    + "_St" + station.str() 
    + "_Sec" + sector.str() 
    + "_SL" + superLayer.str()
    + "_L" + Layer.str();
  
  return LayerName;

}

string DTNoiseCalibration::getSuperLayerName

(

const DTSuperLayerId &

dtSLId

)

const [private]

Get the name of the superLayer.

Definition at line 426 of file DTNoiseCalibration.cc.

References DTSuperLayerId::chamberId(), DTChamberId::sector(), DTChamberId::station(), DTSuperLayerId::superlayer(), muonGeometry::wheel, and DTChamberId::wheel().

                                                                               {

  const  DTChamberId dtChId = dtSLId.chamberId(); 
  stringstream superLayer; superLayer << dtSLId.superlayer();
  stringstream wheel; wheel << dtChId.wheel();  
  stringstream station; station << dtChId.station();    
  stringstream sector; sector << dtChId.sector();
  
  string SuperLayerName = 
    "W" + wheel.str()
    + "_St" + station.str() 
    + "_Sec" + sector.str() 
    + "_SL" + superLayer.str();
  
  return SuperLayerName;

}

---

Member Data Documentation

bool DTNoiseCalibration::cosmicRun [private]

Definition at line 64 of file DTNoiseCalibration.h.

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

int DTNoiseCalibration::counter [private]

Definition at line 59 of file DTNoiseCalibration.h.

Referenced by analyze(), and beginJob().

bool DTNoiseCalibration::debug [private]

Definition at line 57 of file DTNoiseCalibration.h.

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

edm::ESHandle<DTGeometry> DTNoiseCalibration::dtGeom [private]

Definition at line 79 of file DTNoiseCalibration.h.

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

bool DTNoiseCalibration::fastAnalysis [private]

Definition at line 65 of file DTNoiseCalibration.h.

Referenced by analyze(), and DTNoiseCalibration().

TH1F* DTNoiseCalibration::hTDCTriggerWidth [private]

Definition at line 76 of file DTNoiseCalibration.h.

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

int DTNoiseCalibration::nevents [private]

Definition at line 58 of file DTNoiseCalibration.h.

Referenced by analyze(), beginJob(), endJob(), and ~DTNoiseCalibration().

edm::ParameterSet DTNoiseCalibration::parameters [private]

Definition at line 73 of file DTNoiseCalibration.h.

Referenced by analyze(), beginJob(), DTNoiseCalibration(), and endJob().

int DTNoiseCalibration::sect [private]

Definition at line 67 of file DTNoiseCalibration.h.

Referenced by analyze(), and DTNoiseCalibration().

std::map<DTLayerId, int> DTNoiseCalibration::skippedPlot [private]

Definition at line 94 of file DTNoiseCalibration.h.

Referenced by analyze().

TFile* DTNoiseCalibration::theFile [private]

Definition at line 85 of file DTNoiseCalibration.h.

Referenced by analyze(), DTNoiseCalibration(), endJob(), and ~DTNoiseCalibration().

std::map<DTLayerId, TH2F*> DTNoiseCalibration::theHistoEvtPerWireMap [private]

Definition at line 88 of file DTNoiseCalibration.h.

Referenced by analyze().

std::map<DTLayerId, TH1F*> DTNoiseCalibration::theHistoOccupancyMap [private]

Definition at line 91 of file DTNoiseCalibration.h.

Referenced by analyze(), and endJob().

int DTNoiseCalibration::TriggerWidth [private]

variables to set by configuration file

Definition at line 62 of file DTNoiseCalibration.h.

Referenced by analyze(), beginJob(), DTNoiseCalibration(), and endJob().

float DTNoiseCalibration::tTrig [private]

tTrig from the DB

Definition at line 70 of file DTNoiseCalibration.h.

Referenced by analyze(), and endJob().

edm::ESHandle<DTTtrig> DTNoiseCalibration::tTrigMap [private]

Definition at line 82 of file DTNoiseCalibration.h.

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

float DTNoiseCalibration::tTrigRMS [private]

Definition at line 71 of file DTNoiseCalibration.h.

Referenced by analyze(), and endJob().

float DTNoiseCalibration::upperLimit [private]

Definition at line 63 of file DTNoiseCalibration.h.

Referenced by analyze().

int DTNoiseCalibration::wh [private]

Definition at line 66 of file DTNoiseCalibration.h.

Referenced by analyze(), and DTNoiseCalibration().

---

The documentation for this class was generated from the following files:

• CalibMuon/DTCalibration/plugins/DTNoiseCalibration.h
• CalibMuon/DTCalibration/plugins/DTNoiseCalibration.cc

---