dune::TimeBasedDisambig Class Reference

#include <TimeBasedDisambig.h>

Public Member Functions
	TimeBasedDisambig (fhicl::ParameterSet const &pset)
void	reconfigure (fhicl::ParameterSet const &p)
void	RunDisambig (const std::vector< art::Ptr< recob::Hit > > &OrigHits)

Public Attributes
std::vector< std::pair< art::Ptr< recob::Hit >, geo::WireID > >	fDisambigHits
	< Run disambiguation as currently configured More...

Private Attributes
dune::apa::APAGeometryAlg	fAPAGeo
double	fTimeCut
double	fDistanceCut
double	fDistanceCutClu

Detailed Description

Definition at line 74 of file TimeBasedDisambig.h.

Constructor & Destructor Documentation

dune::TimeBasedDisambig::TimeBasedDisambig

(

fhicl::ParameterSet const &

pset

)

Definition at line 48 of file TimeBasedDisambig.cxx.

{
  this->reconfigure(pset); 
}

Member Function Documentation

void dune::TimeBasedDisambig::reconfigure

(

fhicl::ParameterSet const &

p

)

Definition at line 54 of file TimeBasedDisambig.cxx.

{
  
  fTimeCut = p.get<double>("TimeCut");
  fDistanceCut = p.get<double>("DistanceCut");
  fDistanceCutClu = p.get<double>("DistanceCutClu");
}

void dune::TimeBasedDisambig::RunDisambig

(

const std::vector< art::Ptr< recob::Hit > > &

OrigHits

)

Definition at line 65 of file TimeBasedDisambig.cxx.

{
  //fDisambigHits.clear();

  //create geometry and backtracker servicehandle object
  art::ServiceHandle<geo::Geometry> geo;
  //art::ServiceHandle<cheat::BackTracker> bt;
  //define timeoffset and the maximum chargeratio allowed when matching induction plane hits
  //the timeoffset array is going to be replaced with defined values in the detectorproperties package later
  double timeoffset[3]={10.4,5.2,0.0};
  double rmax=2.5;

  //create vectors for induction plane and collection plane hits
  std::vector<art::Ptr<recob::Hit> > hitsUV;
  std::vector<art::Ptr<recob::Hit> > hitsZ;

  //create a vector where the disambiguated hits are going to be stored
  //std::vector<art::Ptr<recob::Hit> > DisambiguatedHits;
  //std::unique_ptr<std::vector<recob::Hit> > DisambiguatedHits(new std::vector<recob::Hit>);
  //std::vector< <recob::Hit> > DisambiguatedHits;
  std::vector< recob::Hit > DisambiguatedHits;

  //double HitsTotal=0;
  //double HitsCorrect=0;

  //loop over detector volumn in each component
  for (unsigned int Cstat=0; Cstat < geo->Ncryostats(); ++Cstat){
    for (unsigned int APA=0; APA < geo->Cryostat(Cstat).NTPC()/2; ++APA){
      hitsUV.clear();
      hitsZ.clear();
      //loop over all induction and collection plane hits and save the hits within each component
      for (size_t i = 0; i<OrigHits.size(); ++i){
        if (OrigHits[i]->WireID().Cryostat==Cstat && (OrigHits[i]->WireID().TPC==APA*2 || OrigHits[i]->WireID().TPC==APA*2+1)){   
          
          //save induction and collection plane hits in two separate vectors
          if (OrigHits[i]->View()!=geo::kZ){
            hitsUV.push_back(OrigHits[i]);
          } else {
            hitsZ.push_back(OrigHits[i]);
          }

        }
      }

      //define variables to save boundary information
      double origin[3]={0.0,0.0,0.0};
      double world[3]={0.0,0.0,0.0};
      //double xbound[2]={-2000,2000};
      //define xbound using peaktime for now but need to be replaced with coverted position in the future
      double xbound[2]={0,2000};
      double ybound[2]= {0.0,0.0};
      double zbound[2]= {0.0,0.0};
      geo->Cryostat(Cstat).TPC(APA*2).LocalToWorld(origin, world);
      ybound[0]=world[1]-geo->Cryostat(Cstat).TPC(APA*2).HalfHeight();
      ybound[1]=world[1]+geo->Cryostat(Cstat).TPC(APA*2).HalfHeight();
      zbound[0]=world[2]-0.5*geo->Cryostat(Cstat).TPC(APA*2).Length();
      zbound[1]=world[2]+0.5*geo->Cryostat(Cstat).TPC(APA*2).Length();

      //position-correction function needs to be applied on hits in certain time and longitudinal position ranges
      //thus need to create a struct of vectors where hit informations including their positions returned in the
      //disambiguation algorithm is going to be saved.
      HitPos h;
      std::vector<HitPos> InductionAll;
      InductionAll.clear();


      //loop over all induction plane hits
      for (unsigned int uv0=0; uv0 < hitsUV.size(); ++uv0){
        double PeakTimeMinusUV=hitsUV[uv0]->PeakTimePlusRMS(-1.)+timeoffset[1];
        double PeakTimeUV=hitsUV[uv0]->PeakTime()+timeoffset[1];
        if (hitsUV[uv0]->View()==geo::kU){
          PeakTimeMinusUV+=timeoffset[1];
          PeakTimeUV+=timeoffset[1];
        }

        //define a varible to save charge per num
        double ChargePerNum0=hitsUV[uv0]->Integral()/hitsUV[uv0]->Multiplicity();
        
        //loop over induction plane hits on a different view and among the induction plane hits whose charge per
        //num to that of the hit in loop is within 2.5 find an induction plane hit whose peaktime is closest to
        //that is in loop.
        double MeanPeakTimeUV=99999;
        unsigned int ChannelUV1=0;
        for (unsigned int uv1=0; uv1 < hitsUV.size(); ++uv1){
          double PeakTimeMinusUV1=hitsUV[uv1]->PeakTimePlusRMS(-1.)+timeoffset[1];
          double PeakTimeUV1=hitsUV[uv1]->PeakTime()+timeoffset[1];
          if (hitsUV[uv1]->View()==geo::kU){
            PeakTimeMinusUV1+=timeoffset[1];
            PeakTimeUV1+=timeoffset[1];
          }
          double rChargeUV=hitsUV[uv0]->Integral()/hitsUV[uv1]->Integral();
          double ChargePerNum1=hitsUV[uv1]->Integral()/hitsUV[uv1]->Multiplicity();
          if (hitsUV[uv0]->Multiplicity()>0 && hitsUV[uv1]->Integral()>0) rChargeUV=ChargePerNum0/ChargePerNum1;

          if (hitsUV[uv0]->View()!=hitsUV[uv1]->View() &&
              fabs(PeakTimeMinusUV-PeakTimeMinusUV1)<MeanPeakTimeUV &&
              fabs(PeakTimeUV-PeakTimeUV1)<20 &&
              (rChargeUV<rmax && rChargeUV>(1/rmax)) ){
            MeanPeakTimeUV=fabs(PeakTimeMinusUV-PeakTimeMinusUV1);
            ChannelUV1=hitsUV[uv1]->Channel();
          }
        }
        
        //define variables to save positions returned
        unsigned int ChannelUV0=hitsUV[uv0]->Channel();
        double CandPosition[3]={0.0,0.0,0.0}; //candidate positions going to be returned in intersectionpoint function
        double FinalPosition[3]={0.0,0.0,0.0}; //final position among the candidate positions
        unsigned int FinalWireID=0;//final wireid for the induction plane hit in the loop
        double MinVertBetUVandZ=99999;
        //unsigned int FinalWire=0;

        //read wireid vectors of induction plane hits matched in the above loop
        std::vector<geo::WireID> wireiduv0 = geo->ChannelToWire(ChannelUV0);
        std::vector<geo::WireID> wireiduv1 = geo->ChannelToWire(ChannelUV1);

        //loop over the induction plane hit wireids, find candidate intersection positions using intersectionpoint
        //function and find a position whose longitudinal position is closest to the average position returned above
        //and save the positions and wireid in variables defined above
        for (unsigned int wireid0=0; wireid0 < wireiduv0.size(); ++wireid0){
          double VertPos=0; //vertical position of collection plane wire
          double MinPeakTime=99999; //variable to store peaktime information temporarily
          //loop over collection plane hits and among the collection plane hits whose charge per num to that 
          //of the hit in loop is within 2.5 find a collection plane hit that has closest time to the induction plane
          //hit in the loop.
          for (unsigned int z=0; z < hitsZ.size(); ++z){
            double PeakTimeMinusZ=hitsZ[z]->PeakTimePlusRMS(-1.);
            double PeakTimeZ=hitsZ[z]->PeakTime();
            double ChargePerNumZ=hitsZ[z]->Integral()/hitsZ[z]->Multiplicity();
            double rChargeZ=hitsUV[uv0]->Integral()/hitsZ[z]->Integral();
            if (hitsUV[uv0]->Multiplicity()>0 && hitsZ[z]->Integral()>0) rChargeZ=ChargePerNum0/ChargePerNumZ;
            double vert[3]={0.0,0.0,0.0};
            std::vector<geo::WireID> wires = geo->ChannelToWire(hitsZ[z]->Channel());
            geo->Cryostat(wires[0].Cryostat).TPC(wires[0].TPC).Plane(2).Wire(wires[0].Wire).GetCenter(vert);
            if (fabs(PeakTimeMinusUV-PeakTimeMinusZ)<MinPeakTime && fabs(PeakTimeUV-PeakTimeZ)<20 &&
                (rChargeZ<rmax && rChargeZ>(1/rmax)) &&
                wireiduv0[wireid0].TPC==wires[0].TPC){
              MinPeakTime=fabs(PeakTimeMinusUV-PeakTimeMinusZ);
              VertPos=vert[2];
            } 
          }

          //loop over collection plane hits and among the collection plane hits whose charge per num to that
          //of the hit in the loop is within 2.5 find collection plane hits whose time difference to the induction
          //plane hit is within 10 and take the average position of the collection plane hits.
          double VertPosMean=0; //average position of all collection plane hits whose peaktime are in the window
          double RMS=0; //rms of the collection plane hit positions 
          unsigned int CollectionHits=0; //total no of collection plane hits in the time window
          for (unsigned int z=0; z < hitsZ.size(); ++z){
            double PeakTimeMinusZ=hitsZ[z]->PeakTimePlusRMS(-1.);
            //double PeakTimeZ=hitsZ[z]->PeakTime();
            double ChargePerNumZ=hitsZ[z]->Integral()/hitsZ[z]->Multiplicity();
            double rChargeZ=hitsUV[uv0]->Integral()/hitsZ[z]->Integral();
            if (hitsUV[uv0]->Multiplicity()>0 && hitsZ[z]->Integral()>0) rChargeZ=ChargePerNum0/ChargePerNumZ;
            double vert[3]={0.0,0.0,0.0};
            std::vector<geo::WireID> wires = geo->ChannelToWire(hitsZ[z]->Channel());
            geo->Cryostat(wires[0].Cryostat).TPC(wires[0].TPC).Plane(2).Wire(wires[0].Wire).GetCenter(vert);
            if (fabs(fabs(PeakTimeMinusUV-PeakTimeMinusZ)-MinPeakTime)<10 &&
                //fabs(PeakTimeUV-PeakTimeZ)<20 &&
                (rChargeZ<rmax && rChargeZ>(1/rmax)) &&
                wireiduv0[wireid0].TPC==wires[0].TPC ){
              CollectionHits++;
              VertPosMean+=vert[2];
              RMS+=(VertPos-vert[2])*(VertPos-vert[2]);
            } 
          }
          VertPosMean=VertPosMean/double(CollectionHits); //average position
          RMS=RMS/double(CollectionHits); //rms of the collection plane hits
          
          
          //loop over the wireid of the induction plane hit whose time is closest to the hit in the first loop
          //and find intersection and find a wire whose returned position is closest to the position of the collection
          //plane hit found in the loop above.
          for (unsigned int wireid1=0; wireid1 < wireiduv1.size(); ++wireid1){
            if (abs(int(wireid0)-int(wireid1))<3 && wireiduv0[wireid0].TPC==wireiduv1[wireid1].TPC){
              geo->IntersectionPoint(wireiduv0[wireid0].Wire, wireiduv1[wireid1].Wire,
                                     wireiduv0[wireid0].Plane, wireiduv1[wireid1].Plane,
                                     wireiduv0[wireid0].Cryostat, wireiduv0[wireid0].TPC,
                                     CandPosition[1], CandPosition[2]);
              //double VertBetUVandZ=fabs(VertPosMean-CandPosition[2]);
              double VertBetUVandZ=fabs(VertPos-CandPosition[2]);
              if (CandPosition[1]>=ybound[0] && CandPosition[1]<=ybound[1] && CandPosition[2]>=zbound[0] && CandPosition[2]<=zbound[1]){
                if (VertBetUVandZ<MinVertBetUVandZ){
                  MinVertBetUVandZ=VertBetUVandZ;
                  FinalWireID=wireid0;
                  //FinalWire=wireiduv0[wireid0].Wire;
                  FinalPosition[1]=CandPosition[1];
                  FinalPosition[2]=CandPosition[2];
                }
              }
            }
          }
        }

        //read simulated position of the induction plane hit using backtracker
        // trj: skip this as it is part of the analysis and not the reco alg
        //std::vector<double> SimPosition;
        //unsigned int SimTPC, SimCstat, SimWire, SimWireID;
        //SimPosition=bt->HitToXYZ(hitsUV[uv0]);
        //if (SimPosition[2]!=99999){
        // double xyzpos[3];
        //xyzpos[0]=SimPosition[0];
        //xyzpos[1]=SimPosition[1];
        //xyzpos[2]=SimPosition[2];
        // geo->PositionToTPC(xyzpos, SimTPC, SimCstat);
        //SimWire=int(0.5+geo->WireCoordinate(xyzpos[1], xyzpos[2], hitsUV[uv0]->WireID().Plane, SimTPC, SimCstat));
        // for (unsigned int wireid0=0; wireid0 < wireiduv0.size(); ++wireid0){
        //   if (abs(int(wireiduv0[wireid0].Wire)-int(SimWire))<2) SimWireID=wireid0;
        // }
        //}

        //save timeoffset corrected peaktime
        double PeakTime=hitsUV[uv0]->PeakTime();
        if (hitsUV[uv0]->View()==geo::kU) PeakTime+=timeoffset[0];
        if (hitsUV[uv0]->View()==geo::kV) PeakTime+=timeoffset[1];

        //save hit information in a struct of a vector including positions returned in the disambiguation module
        //and simulated hit information
        h.Channel=hitsUV[uv0]->Channel();
        h.StartTick=0;
        h.EndTick=0;
        h.PeakTime=hitsUV[uv0]->PeakTime();
        h.SigmaPeakTime=hitsUV[uv0]->SigmaPeakTime();
        h.RMS=hitsUV[uv0]->RMS();
        h.PeakAmplitude=hitsUV[uv0]->PeakAmplitude();
        h.SigmaPeakAmplitude=hitsUV[uv0]->SigmaPeakAmplitude();
        h.SummedADC=hitsUV[uv0]->SummedADC();
        h.Integral=hitsUV[uv0]->Integral();
        h.SigmaIntegral=hitsUV[uv0]->SigmaIntegral();
        h.Multiplicity=hitsUV[uv0]->Multiplicity();
        h.LocalIndex=hitsUV[uv0]->LocalIndex();
        h.GoodnessOfFit=hitsUV[uv0]->GoodnessOfFit();
        h.DegreesOfFreedom=hitsUV[uv0]->DegreesOfFreedom();
        h.View=hitsUV[uv0]->View();
        h.SignalType=hitsUV[uv0]->SignalType();
        h.WireID=wireiduv0[FinalWireID];
        h.FinalYPos=FinalPosition[1];
        h.FinalZPos=FinalPosition[2];
        h.TPC=hitsUV[uv0]->WireID().TPC;
        h.DisambigWireID=FinalWireID;
        //h.SimYPos=SimPosition[1];
        //h.SimZPos=SimPosition[2];
        //h.SimWireID=SimWireID;
        InductionAll.push_back(h);
        
      }//end of induction plane hit loop


      //the disambiguation algorithm above returns a vector whose returned intersection position of two
      //induction plane hits and returns a wireid of a wire whose position is closest to the returned
      //position.  the function below is to correct the position of hits whose side is correct disambiguated
      //but the position is off.  in the function, the detector volumne is going to be divided in xz position
      //space and yposition of induction plane hits in the position space is going to be saved in a histogram,
      //find a bin whose bincontents is highest, calculate the mean position as fitting the histogram around
      //the bin, find a bin whose distance to the mean position found is about 100 and correct the position
      //and wireid of hits in the bin.
      int BinPerPos=4;
      unsigned int CellsPerTPC=BinPerPos*BinPerPos;//cells in xz position space
      double TotalXbin=(xbound[1]-xbound[0])/double(BinPerPos);
      double TotalZbin=(zbound[1]-zbound[0])/double(BinPerPos);
      //define histograms to save y position returned in the disambiguation algorithm above for all cells in
      //xz position space
      std::vector<TH1F *> YPosXZ(CellsPerTPC,0);
      for (unsigned int cell=0; cell<YPosXZ.size(); cell++){
        YPosXZ[cell]=new TH1F(Form("cell%d",cell),Form("cell%d",cell), 40, ybound[0], ybound[1]);
      }

      //loop over all induction plane hits and save the returned yposition in a histogram
      for (unsigned int uv0=0; uv0 < InductionAll.size(); ++uv0){
        int XbinForHit=int( (InductionAll[uv0].PeakTime-xbound[0])/TotalXbin );
        int ZbinForHit=int( (InductionAll[uv0].FinalZPos-zbound[0])/TotalZbin );
        if (InductionAll[uv0].PeakTime>xbound[1]) XbinForHit=BinPerPos-1;
        if (InductionAll[uv0].FinalZPos<zbound[0]){
          ZbinForHit=0;
        } else if (InductionAll[uv0].FinalZPos>zbound[1]){
          ZbinForHit=BinPerPos-1;
        }
        int BinForHit=XbinForHit*BinPerPos+ZbinForHit;
        
        YPosXZ[BinForHit]->Fill(InductionAll[uv0].FinalYPos);
      }//end of induction plane hit loop

      //define variables to save minimum and maximum range of the bin whose content is highest,
      //a variable to indicate whether the position-correction function should be applied or not
      //and variables to save minimum and maximum range of the bin whose mean position to the
      //position of the highestcontent bin is 100cm away.
      std::vector<double> FirstPeakXmin(CellsPerTPC,0);
      std::vector<double> FirstPeakXmax(CellsPerTPC,0);
      std::vector<double> ShouldCorrect(CellsPerTPC,0);
      std::vector<double> SecondPeakXmin(CellsPerTPC,0);
      std::vector<double> SecondPeakXmax(CellsPerTPC,0);

      //loop over all histograms
      for (unsigned int cell=0; cell<CellsPerTPC; cell++){
        //define variables to save highest bincontent and the bin index
        double HitsInFirstPeak=0;
        int FirstPeakBin=0;
        for (unsigned int bin=0; bin<40; ++bin){
          if (HitsInFirstPeak<YPosXZ[cell]->GetBinContent(bin+1)){
            HitsInFirstPeak=YPosXZ[cell]->GetBinContent(bin+1);
            FirstPeakBin=bin;
          }
        }
        
        //define the minimum and maximum range around the highest content bin
        double PeakBinXmin=double(FirstPeakBin)*((ybound[1]-ybound[0])/40.0)+ybound[0]-10;
        double PeakBinXmax=double(FirstPeakBin)*((ybound[1]-ybound[0])/40.0)+ybound[0]+10;

        //define a guassian histogram to fit the yposition histogram in the range calculated above
        TF1 *YPosFitFirstPeak = new TF1("YPosFitFirstPeak","gaus", PeakBinXmin, PeakBinXmax);
        YPosFitFirstPeak->SetParameter(0, 100);
        YPosFitFirstPeak->SetParameter(1, PeakBinXmin+10);
        YPosFitFirstPeak->SetParameter(2, 0.1);
        //YPosFitFirstPeak->SetLineColor(4);
        YPosXZ[cell]->Fit("YPosFitFirstPeak", "Q", "", PeakBinXmin-10, PeakBinXmax+10);
        //save interal, mean and rms in variables
        double FirstPeakBinAll=YPosFitFirstPeak->GetParameter(0);
        double FirstPeakBinMean=YPosFitFirstPeak->GetParameter(1);
        double FirstPeakBinRMS=YPosFitFirstPeak->GetParameter(2);
        
        FirstPeakXmin[cell]=FirstPeakBinMean-fabs(FirstPeakBinRMS)*2;
        FirstPeakXmax[cell]=FirstPeakBinMean+fabs(FirstPeakBinRMS)*2;
        
        //define the position range where most incorrectly disambiguated hits are residing.
        //depending on whether the mean position returned in above guassian fit is above or below
        //the midpoint of the detector volume in ydirection, the position range could be 100cm below
        //or above the mean position returned.
        if (FirstPeakBinMean>(ybound[0]+ybound[1])*0.5){
          SecondPeakXmin[cell]=FirstPeakXmin[cell]-100;
          SecondPeakXmax[cell]=FirstPeakXmax[cell]-100;
        } else if (FirstPeakBinMean<(ybound[0]+ybound[1])*0.5){
          SecondPeakXmin[cell]=FirstPeakXmin[cell]+100;
          SecondPeakXmax[cell]=FirstPeakXmax[cell]+100;
        }
        
        //define a guassian histogram to fit the yposition histogram in the range where most incorrectly
        //disambiguated hits are residing
        TF1 *YPosFitSecondPeak = new TF1("YPosFitSecondPeak","gaus", SecondPeakXmin[cell], SecondPeakXmax[cell]);
        YPosFitSecondPeak->SetParameter(0, 100);
        YPosFitSecondPeak->SetParameter(1, SecondPeakXmin[cell]+10);
        YPosFitSecondPeak->SetParameter(2, 0.1);
        //YPosFitSecondPeak->SetLineColor(4);
        YPosXZ[cell]->Fit("YPosFitSecondPeak", "Q", "", SecondPeakXmin[cell]-20, SecondPeakXmax[cell]+20);
        //define variables to save integral, mean and rms of the guassian fit result.
        double SecondPeakBinAll=YPosFitSecondPeak->GetParameter(0);
        double SecondPeakBinMean=YPosFitSecondPeak->GetParameter(1);
        double SecondPeakBinRMS=YPosFitSecondPeak->GetParameter(2);
        
        SecondPeakXmin[cell]=SecondPeakBinMean-fabs(SecondPeakBinRMS)*4;
        SecondPeakXmax[cell]=SecondPeakBinMean+fabs(SecondPeakBinRMS)*4;
        
        //we assumed that the position-correction function works when more than half of the induction plane
        //hits in the xz position cell is correctly disambiguated, meaning that most hits in the bin range whose
        //bincontents is highest is correctly disambiguated.  in this case, the hits in the highest bincontent
        //ranges are in the firstpeak range and the incorrectly disambiguated hits in the secondpeak range.  we
        //only correct the position of the hits in the secondpeak range if the hits in the firstpeak is more than 5. 
        ShouldCorrect[cell]=0;
        if (FirstPeakBinAll>SecondPeakBinAll &&
            HitsInFirstPeak>5 && 
            SecondPeakBinAll>0 && SecondPeakBinAll!=100 &&
            SecondPeakXmin[cell]>ybound[0] && SecondPeakXmax[cell]<ybound[1]){
          ShouldCorrect[cell]=1;
        }
        
        //delete histograms used
        YPosFitFirstPeak->Delete();
        YPosFitSecondPeak->Delete();
        YPosXZ[cell]->Delete();
                
      }//end of histogram loop


      //now we know the hits whose position and wireid to be corrected so loop over the induction plane hits
      //again, find the index of the hit in the xz position space and correct the position and wireid if the position
      //returned in the disambiguation algorithm above is in the range where most incorrectly disambiguated hits could be residing.
      for (unsigned int uv0=0; uv0 < InductionAll.size(); ++uv0){
        int XbinForHit=int( (InductionAll[uv0].PeakTime-xbound[0])/TotalXbin );
        int ZbinForHit=int( (InductionAll[uv0].FinalZPos-zbound[0])/TotalZbin );
        if (InductionAll[uv0].PeakTime>xbound[1]) XbinForHit=BinPerPos-1;
        if (InductionAll[uv0].FinalZPos<zbound[0]){
          ZbinForHit=0;
        } else if (InductionAll[uv0].FinalZPos>zbound[1]){
          ZbinForHit=BinPerPos-1;
        }
        int BinForHit=XbinForHit*BinPerPos+ZbinForHit;//bin index for the hit


        //shift the position and wireidreturned in the disambiguation algorithm
        std::vector<geo::WireID> wireiduv0 = geo->ChannelToWire(InductionAll[uv0].Channel);     
        if (ShouldCorrect[BinForHit]!=0){
          if (InductionAll[uv0].FinalYPos>SecondPeakXmin[BinForHit] &&
              InductionAll[uv0].FinalYPos<SecondPeakXmax[BinForHit]){
            InductionAll[uv0].FinalYPos+=InductionAll[uv0].FinalYPos+
            (FirstPeakXmin[BinForHit]+FirstPeakXmax[BinForHit])*0.5-(SecondPeakXmin[BinForHit]+SecondPeakXmax[BinForHit])*0.5;

            if (InductionAll[uv0].DisambigWireID>1){
              InductionAll[uv0].DisambigWireID=InductionAll[uv0].DisambigWireID-2;
            } else if (InductionAll[uv0].DisambigWireID<2 && InductionAll[uv0].DisambigWireID+2<wireiduv0.size()){
              InductionAll[uv0].DisambigWireID=InductionAll[uv0].DisambigWireID+2;
            }
          }
        }

        //save the hit information in a hit object
        recob::Hit hit(InductionAll[uv0].Channel,
                       InductionAll[uv0].StartTick,
                       InductionAll[uv0].EndTick,
                       InductionAll[uv0].PeakTime,
                       InductionAll[uv0].SigmaPeakTime,
                       InductionAll[uv0].RMS,
                       InductionAll[uv0].PeakAmplitude,
                       InductionAll[uv0].SigmaPeakAmplitude,
                       InductionAll[uv0].SummedADC,
                       InductionAll[uv0].Integral,
                       InductionAll[uv0].SigmaIntegral,
                       InductionAll[uv0].Multiplicity,
                       InductionAll[uv0].LocalIndex,
                       InductionAll[uv0].GoodnessOfFit,
                       InductionAll[uv0].DegreesOfFreedom,
                       InductionAll[uv0].View,
                       InductionAll[uv0].SignalType,
                       wireiduv0[InductionAll[uv0].DisambigWireID]);
        
        DisambiguatedHits.push_back(hit);

        //if (InductionAll[uv0].SimYPos!=99999){
        //HitsTotal+=InductionAll[uv0].Integral;
        //if (InductionAll[uv0].DisambigWireID==InductionAll[uv0].SimWireID) HitsCorrect+=InductionAll[uv0].Integral;
        //}
        
      }//end of induction plane hit loop

    }
  }

  //cout << "testing dune disambig" << "efficiency:" << double(HitsCorrect)*100.0/double(HitsTotal) << endl;

  
}

Member Data Documentation

dune::apa::APAGeometryAlg dune::TimeBasedDisambig::fAPAGeo

private

Definition at line 97 of file TimeBasedDisambig.h.

std::vector< std::pair<art::Ptr<recob::Hit>, geo::WireID> > dune::TimeBasedDisambig::fDisambigHits

< Run disambiguation as currently configured

The final list of hits to pass back to be made

Definition at line 87 of file TimeBasedDisambig.h.

double dune::TimeBasedDisambig::fDistanceCut

private

Definition at line 99 of file TimeBasedDisambig.h.

double dune::TimeBasedDisambig::fDistanceCutClu

private

Definition at line 100 of file TimeBasedDisambig.h.

double dune::TimeBasedDisambig::fTimeCut

private

Definition at line 98 of file TimeBasedDisambig.h.

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

• dunereco/dunereco/HitFinderDUNE/TimeBasedDisambig.h
• dunereco/dunereco/HitFinderDUNE/TimeBasedDisambig.cxx