BeamHaloSummaryProducer.cc

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#include "RecoMET/METProducers/interface/BeamHaloSummaryProducer.h"
#include "FWCore/Framework/interface/ConsumesCollector.h"

/*
  [class]:  BeamHaloSummaryProducer
  [authors]: R. Remington, The University of Florida
  [description]: See BeamHaloSummaryProducer.h
  [date]: October 15, 2009
*/

using namespace edm;
using namespace std;
using namespace reco;

BeamHaloSummaryProducer::BeamHaloSummaryProducer(const edm::ParameterSet& iConfig)
{
  IT_CSCHaloData = iConfig.getParameter<edm::InputTag>("CSCHaloDataLabel");
  IT_EcalHaloData = iConfig.getParameter<edm::InputTag>("EcalHaloDataLabel");
  IT_HcalHaloData = iConfig.getParameter<edm::InputTag>("HcalHaloDataLabel");
  IT_GlobalHaloData = iConfig.getParameter<edm::InputTag>("GlobalHaloDataLabel");
  
  L_EcalPhiWedgeEnergy = (float) iConfig.getParameter<double>("l_EcalPhiWedgeEnergy");
  L_EcalPhiWedgeConstituents = iConfig.getParameter<int>("l_EcalPhiWedgeConstituents");
  L_EcalPhiWedgeToF = (float)iConfig.getParameter<double>("l_EcalPhiWedgeToF");
  L_EcalPhiWedgeConfidence = (float)iConfig.getParameter<double>("l_EcalPhiWedgeConfidence");
  L_EcalShowerShapesRoundness = (float)iConfig.getParameter<double>("l_EcalShowerShapesRoundness");
  L_EcalShowerShapesAngle =(float) iConfig.getParameter<double>("l_EcalShowerShapesAngle");  
  L_EcalSuperClusterSize = (int) iConfig.getParameter<int>("l_EcalSuperClusterSize");
  L_EcalSuperClusterEnergy = (float) iConfig.getParameter<double>("l_EcalSuperClusterEnergy");

  T_EcalPhiWedgeEnergy = (float)iConfig.getParameter<double>("t_EcalPhiWedgeEnergy");
  T_EcalPhiWedgeConstituents = iConfig.getParameter<int>("t_EcalPhiWedgeConstituents");
  T_EcalPhiWedgeToF = (float)iConfig.getParameter<double>("t_EcalPhiWedgeToF");
  T_EcalPhiWedgeConfidence = (float)iConfig.getParameter<double>("t_EcalPhiWedgeConfidence");
  T_EcalShowerShapesRoundness = (float)iConfig.getParameter<double>("t_EcalShowerShapesRoundness");
  T_EcalShowerShapesAngle = (float)iConfig.getParameter<double>("t_EcalShowerShapesAngle");
  T_EcalSuperClusterSize = (int) iConfig.getParameter<int>("t_EcalSuperClusterSize");
  T_EcalSuperClusterEnergy = (float) iConfig.getParameter<double>("t_EcalSuperClusterEnergy");

  L_HcalPhiWedgeEnergy = (float)iConfig.getParameter<double>("l_HcalPhiWedgeEnergy");
  L_HcalPhiWedgeConstituents = iConfig.getParameter<int>("l_HcalPhiWedgeConstituents");
  L_HcalPhiWedgeToF = (float)iConfig.getParameter<double>("l_HcalPhiWedgeToF");
  L_HcalPhiWedgeConfidence = (float)iConfig.getParameter<double>("l_HcalPhiWedgeConfidence");
  
  T_HcalPhiWedgeEnergy = (float)iConfig.getParameter<double>("t_HcalPhiWedgeEnergy");
  T_HcalPhiWedgeConstituents = iConfig.getParameter<int>("t_HcalPhiWedgeConstituents");
  T_HcalPhiWedgeToF = (float)iConfig.getParameter<double>("t_HcalPhiWedgeToF");
  T_HcalPhiWedgeConfidence = (float)iConfig.getParameter<double>("t_HcalPhiWedgeConfidence");

  problematicStripMinLength = (int)iConfig.getParameter<int>("problematicStripMinLength");

  cschalodata_token_ = consumes<CSCHaloData>(IT_CSCHaloData);
  ecalhalodata_token_ = consumes<EcalHaloData>(IT_EcalHaloData);
  hcalhalodata_token_ = consumes<HcalHaloData>(IT_HcalHaloData);
  globalhalodata_token_ = consumes<GlobalHaloData>(IT_GlobalHaloData);

  produces<BeamHaloSummary>();
}

void BeamHaloSummaryProducer::produce(Event& iEvent, const EventSetup& iSetup)
{
  // BeamHaloSummary object 
  auto TheBeamHaloSummary = std::make_unique<BeamHaloSummary>();

  // CSC Specific Halo Data
  Handle<CSCHaloData> TheCSCHaloData;
  //  iEvent.getByLabel(IT_CSCHaloData, TheCSCHaloData);
  iEvent.getByToken(cschalodata_token_, TheCSCHaloData);

  const CSCHaloData CSCData = (*TheCSCHaloData.product() );

  //CSCLoose Id for 2011 
  if( CSCData.NumberOfHaloTriggers() ||
      CSCData.NumberOfHaloTracks()   ||
      (CSCData.NOutOfTimeHits() > 10 && CSCData.NFlatHaloSegments() > 2 ) ||
      CSCData.GetSegmentsInBothEndcaps() ||
      CSCData.NTracksSmalldT() )
    TheBeamHaloSummary->GetCSCHaloReport()[0] = 1;

  //CSCTight Id for 2011
  if( (CSCData.NumberOfHaloTriggers() && CSCData.NumberOfHaloTracks()) ||
      (CSCData.NOutOfTimeHits() > 10 && CSCData.NumberOfHaloTriggers() ) ||
      (CSCData.NOutOfTimeHits() > 10 && CSCData.NumberOfHaloTracks() ) ||
      CSCData.GetSegmentsInBothEndcaps() ||
      (CSCData.NTracksSmalldT() && CSCData.NumberOfHaloTracks() ) ||
      (CSCData.NFlatHaloSegments() > 3 && (CSCData.NumberOfHaloTriggers() || CSCData.NumberOfHaloTracks()) ))
    TheBeamHaloSummary->GetCSCHaloReport()[1] = 1;

  //CSCLoose Id from 2010
  if( CSCData.NumberOfHaloTriggers() || CSCData.NumberOfHaloTracks() || CSCData.NumberOfOutOfTimeTriggers() )
    TheBeamHaloSummary->GetCSCHaloReport()[2] = 1;

  //CSCTight Id from 2010
  if( (CSCData.NumberOfHaloTriggers() && CSCData.NumberOfHaloTracks()) ||
      (CSCData.NumberOfHaloTriggers() && CSCData.NumberOfOutOfTimeTriggers()) ||
      (CSCData.NumberOfHaloTracks() && CSCData.NumberOfOutOfTimeTriggers() ) )
    TheBeamHaloSummary->GetCSCHaloReport()[3] = 1;

  //CSCTight Id for 2015
  if( (CSCData.NumberOfHaloTriggers_TrkMuUnVeto() && CSCData.NumberOfHaloTracks()) ||
      (CSCData.NOutOfTimeHits() > 10 && CSCData.NumberOfHaloTriggers_TrkMuUnVeto() ) ||
      (CSCData.NOutOfTimeHits() > 10 && CSCData.NumberOfHaloTracks() ) ||
      CSCData.GetSegmentsInBothEndcaps_Loose_TrkMuUnVeto() ||
      (CSCData.NTracksSmalldT() && CSCData.NumberOfHaloTracks() ) ||
      (CSCData.NFlatHaloSegments() > 3 && (CSCData.NumberOfHaloTriggers_TrkMuUnVeto() || CSCData.NumberOfHaloTracks()) ))
    TheBeamHaloSummary->GetCSCHaloReport()[4] = 1;

  //Update
  if(  (CSCData.NumberOfHaloTriggers_TrkMuUnVeto() && CSCData.NFlatHaloSegments_TrkMuUnVeto() ) ||
       CSCData.GetSegmentsInBothEndcaps_Loose_dTcut_TrkMuUnVeto() ||
       CSCData.GetSegmentIsCaloMatched()
       )
    TheBeamHaloSummary->GetCSCHaloReport()[5] = 1;
  


  //Ecal Specific Halo Data
  Handle<EcalHaloData> TheEcalHaloData;
  //  iEvent.getByLabel(IT_EcalHaloData, TheEcalHaloData);
  iEvent.getByToken(ecalhalodata_token_, TheEcalHaloData);

  const EcalHaloData EcalData = (*TheEcalHaloData.product() );
  
  bool EcalLooseId = false, EcalTightId = false;
  /*  COMMENTED OUT, NEEDS TO BE TUNED 
      const std::vector<PhiWedge> EcalWedges = EcalData.GetPhiWedges();
      for( std::vector<PhiWedge>::const_iterator iWedge = EcalWedges.begin() ; iWedge != EcalWedges.end() ; iWedge++ )
    {
      bool EcaliPhi = false;
      
      //Loose Id
      if(iWedge-> Energy() > L_EcalPhiWedgeEnergy && iWedge->NumberOfConstituents() > L_EcalPhiWedgeConstituents && std::abs(iWedge->ZDirectionConfidence()) > L_EcalPhiWedgeConfidence)
    {
      EcalLooseId = true;
      EcaliPhi = true;
    }

      //Tight Id
      if( iWedge-> Energy() > T_EcalPhiWedgeEnergy  && iWedge->NumberOfConstituents() > T_EcalPhiWedgeConstituents && iWedge->ZDirectionConfidence() > L_EcalPhiWedgeConfidence )
        {
          EcalTightId = true;
          EcaliPhi = true;
        }

      for( unsigned int i = 0 ; i < TheBeamHaloSummary->GetEcaliPhiSuspects().size() ; i++ )
        {
          if( iWedge->iPhi() == TheBeamHaloSummary->GetEcaliPhiSuspects()[i] )
            {
              EcaliPhi = false;  // already stored this iPhi 
          continue;
            }
        }

      if( EcaliPhi ) 
    TheBeamHaloSummary->GetEcaliPhiSuspects().push_back( iWedge->iPhi() ) ;
    }
  */

  edm::ValueMap<float> vm_Angle = EcalData.GetShowerShapesAngle();
  edm::ValueMap<float> vm_Roundness = EcalData.GetShowerShapesRoundness();
  
  //Access selected SuperClusters
  for(unsigned int n = 0 ; n < EcalData.GetSuperClusters().size() ; n++ )
    {
      edm::Ref<SuperClusterCollection> cluster(EcalData.GetSuperClusters()[n] );
      
      float angle = vm_Angle[cluster];
      float roundness = vm_Roundness[cluster];
      
      //Loose Selection
      if(  (angle > 0. && angle < L_EcalShowerShapesAngle ) && ( roundness > 0. && roundness < L_EcalShowerShapesRoundness ) )
        {
          if( cluster->energy() > L_EcalSuperClusterEnergy && cluster->size() > (unsigned int) L_EcalSuperClusterSize )
            EcalLooseId = true;
        }

      //Tight Selection 
      if(  (angle > 0. && angle < T_EcalShowerShapesAngle ) && ( roundness > 0. && roundness < T_EcalShowerShapesRoundness ) )
        {
          if( cluster->energy() > T_EcalSuperClusterEnergy && cluster->size() > (unsigned int)T_EcalSuperClusterSize )
            EcalTightId = true;
        }
    }
  
  if( EcalLooseId ) 
    TheBeamHaloSummary->GetEcalHaloReport()[0] = 1;
  if( EcalTightId ) 
    TheBeamHaloSummary->GetEcalHaloReport()[1] = 1;

  // Hcal Specific Halo Data
  Handle<HcalHaloData> TheHcalHaloData;
  //  iEvent.getByLabel(IT_HcalHaloData, TheHcalHaloData);
  iEvent.getByToken(hcalhalodata_token_, TheHcalHaloData);

  const HcalHaloData HcalData = (*TheHcalHaloData.product() );
  const std::vector<PhiWedge> HcalWedges = HcalData.GetPhiWedges();
  bool HcalLooseId = false, HcalTightId = false;
  for( std::vector<PhiWedge>::const_iterator iWedge = HcalWedges.begin() ; iWedge != HcalWedges.end() ; iWedge++ )
    {
      bool HcaliPhi = false;
      //Loose Id
      if( iWedge-> Energy() > L_HcalPhiWedgeEnergy  && iWedge->NumberOfConstituents() > L_HcalPhiWedgeConstituents && std::abs(iWedge->ZDirectionConfidence()) > L_HcalPhiWedgeConfidence)
        {
          HcalLooseId = true;
          HcaliPhi = true;
        }

      //Tight Id
      if( iWedge-> Energy() > T_HcalPhiWedgeEnergy  && iWedge->NumberOfConstituents() > T_HcalPhiWedgeConstituents && std::abs(iWedge->ZDirectionConfidence()) > T_HcalPhiWedgeConfidence)
        {
          HcalTightId = true;
          HcaliPhi = true;
    }
      
      for( unsigned int i = 0 ; i < TheBeamHaloSummary->GetHcaliPhiSuspects().size() ; i++ )
    {
          if( iWedge->iPhi() == TheBeamHaloSummary->GetHcaliPhiSuspects()[i] )
            {
              HcaliPhi = false;  // already stored this iPhi 
          continue;
            }
    }
      if( HcaliPhi ) 
    TheBeamHaloSummary->GetHcaliPhiSuspects().push_back( iWedge->iPhi() ) ;
    }
  
  if( HcalLooseId ) 
    TheBeamHaloSummary->GetHcalHaloReport()[0] = 1;
  if( HcalTightId ) 
    TheBeamHaloSummary->GetHcalHaloReport()[1] = 1;


  for( unsigned int i = 0 ; i < HcalData.getProblematicStrips().size() ; i++ ) {
    auto const& problematicStrip = HcalData.getProblematicStrips()[i];
    if(problematicStrip.cellTowerIds.size() < (unsigned int)problematicStripMinLength) continue;

    TheBeamHaloSummary->getProblematicStrips().push_back(problematicStrip);
  }


  // Global Halo Data
  Handle<GlobalHaloData> TheGlobalHaloData;
  //  iEvent.getByLabel(IT_GlobalHaloData, TheGlobalHaloData);
  iEvent.getByToken(globalhalodata_token_, TheGlobalHaloData);

  bool GlobalLooseId = false;
  bool GlobalTightId = false;
  const GlobalHaloData GlobalData = (*TheGlobalHaloData.product() );
  const std::vector<PhiWedge> MatchedHcalWedges = GlobalData.GetMatchedHcalPhiWedges();
  const std::vector<PhiWedge> MatchedEcalWedges = GlobalData.GetMatchedEcalPhiWedges();

  //Loose Id
  if( MatchedEcalWedges.size() || MatchedHcalWedges.size() ) 
    GlobalLooseId = true;

  //Tight Id
  for( std::vector<PhiWedge>::const_iterator iWedge = MatchedEcalWedges.begin() ; iWedge != MatchedEcalWedges.end(); iWedge ++ )
    {
      if( iWedge->NumberOfConstituents() > T_EcalPhiWedgeConstituents )
        GlobalTightId = true;
      if( std::abs(iWedge->ZDirectionConfidence()) > T_EcalPhiWedgeConfidence )
    GlobalTightId = true;
    }

  for( std::vector<PhiWedge>::const_iterator iWedge = MatchedHcalWedges.begin() ; iWedge != MatchedHcalWedges.end(); iWedge ++ )
    {
      if( iWedge->NumberOfConstituents() > T_HcalPhiWedgeConstituents )
        GlobalTightId = true;
      if( std::abs(iWedge->ZDirectionConfidence()) > T_HcalPhiWedgeConfidence )
    GlobalTightId = true;
    }

  if( GlobalLooseId ) 
    TheBeamHaloSummary->GetGlobalHaloReport()[0] = 1;
  if( GlobalTightId )
    TheBeamHaloSummary->GetGlobalHaloReport()[1] = 1;
  
  //GlobalTight Id for 2016
  if((GlobalData.GetSegmentIsEBCaloMatched() || GlobalData.GetHaloPatternFoundEB() ) ||
     (GlobalData.GetSegmentIsEECaloMatched() || GlobalData.GetHaloPatternFoundEE() ) ||
     (GlobalData.GetSegmentIsHBCaloMatched() || GlobalData.GetHaloPatternFoundHB() ) ||
     (GlobalData.GetSegmentIsHECaloMatched() || GlobalData.GetHaloPatternFoundHE() ) 
     )
    TheBeamHaloSummary->GetGlobalHaloReport()[2] = 1;

  //Global SuperTight Id for 2016 
  if((GlobalData.GetSegmentIsEBCaloMatched() && GlobalData.GetHaloPatternFoundEB() ) ||
     (GlobalData.GetSegmentIsEECaloMatched() && GlobalData.GetHaloPatternFoundEE() ) ||
     (GlobalData.GetSegmentIsHBCaloMatched() && GlobalData.GetHaloPatternFoundHB() ) ||
     (GlobalData.GetSegmentIsHECaloMatched() && GlobalData.GetHaloPatternFoundHE() ) 
     ) 
    TheBeamHaloSummary->GetGlobalHaloReport()[3] = 1;
 


  iEvent.put(std::move(TheBeamHaloSummary));
  return;
}

BeamHaloSummaryProducer::~BeamHaloSummaryProducer(){}