PATMuonProducer.cc

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//
//

#include "PhysicsTools/PatAlgos/plugins/PATMuonProducer.h"

#include "FWCore/MessageLogger/interface/MessageLogger.h"
#include "FWCore/ParameterSet/interface/FileInPath.h"
#include "FWCore/Utilities/interface/Exception.h"

#include "DataFormats/MuonReco/interface/Muon.h"
#include "DataFormats/MuonReco/interface/MuonFwd.h"
#include "DataFormats/MuonReco/interface/MuonSimInfo.h"

#include "DataFormats/TrackReco/interface/TrackToTrackMap.h"

#include "DataFormats/ParticleFlowCandidate/interface/IsolatedPFCandidateFwd.h"
#include "DataFormats/ParticleFlowCandidate/interface/IsolatedPFCandidate.h"
#include "DataFormats/PatCandidates/interface/PFIsolation.h"

#include "DataFormats/HepMCCandidate/interface/GenParticleFwd.h"
#include "DataFormats/HepMCCandidate/interface/GenParticle.h"

#include "DataFormats/Common/interface/Association.h"

#include "DataFormats/BeamSpot/interface/BeamSpot.h"
#include "DataFormats/VertexReco/interface/Vertex.h"

#include "FWCore/ParameterSet/interface/ConfigurationDescriptions.h"
#include "FWCore/ParameterSet/interface/ParameterSetDescription.h"
#include "FWCore/ParameterSet/interface/EmptyGroupDescription.h"

#include "TrackingTools/TransientTrack/interface/TransientTrackBuilder.h"
#include "TrackingTools/Records/interface/TransientTrackRecord.h"
#include "TrackingTools/TransientTrack/interface/TransientTrack.h"
#include "TrackingTools/IPTools/interface/IPTools.h"

#include "TMath.h"

#include "FWCore/Utilities/interface/transform.h"

#include "PhysicsTools/PatUtils/interface/MiniIsolation.h"
#include "PhysicsTools/PatAlgos/interface/MuonMvaEstimator.h"
#include "FWCore/ParameterSet/interface/FileInPath.h"
#include "JetMETCorrections/JetCorrector/interface/JetCorrector.h"

#include "PhysicsTools/PatAlgos/interface/SoftMuonMvaEstimator.h"
#include "DataFormats/PatCandidates/interface/TriggerObjectStandAlone.h"
#include "DataFormats/Math/interface/deltaR.h"
#include "DataFormats/Math/interface/deltaPhi.h"

#include "Geometry/Records/interface/GlobalTrackingGeometryRecord.h"
#include "Geometry/CommonDetUnit/interface/GeomDet.h"

#include <vector>
#include <memory>


using namespace pat;
using namespace std;

PATMuonHeavyObjectCache::PATMuonHeavyObjectCache(const edm::ParameterSet& iConfig) {

  if (iConfig.getParameter<bool>("computeMuonMVA")) {
    edm::FileInPath mvaTrainingFile = iConfig.getParameter<edm::FileInPath>("mvaTrainingFile");
    edm::FileInPath mvaLowPtTrainingFile = iConfig.getParameter<edm::FileInPath>("lowPtmvaTrainingFile");
    float mvaDrMax = iConfig.getParameter<double>("mvaDrMax");
    muonMvaEstimator_ = std::make_unique<MuonMvaEstimator>(mvaTrainingFile, mvaDrMax);
    muonLowPtMvaEstimator_ = std::make_unique<MuonMvaEstimator>(mvaLowPtTrainingFile, mvaDrMax);
  }

  if (iConfig.getParameter<bool>("computeSoftMuonMVA")) {
    edm::FileInPath softMvaTrainingFile = iConfig.getParameter<edm::FileInPath>("softMvaTrainingFile");
    softMuonMvaEstimator_ = std::make_unique<SoftMuonMvaEstimator>(softMvaTrainingFile);
  }
}

PATMuonProducer::PATMuonProducer(const edm::ParameterSet & iConfig, PATMuonHeavyObjectCache const*) :
  relMiniIsoPUCorrected_(0),
  useUserData_(iConfig.exists("userData")),
  computeMuonMVA_(false),
  computeSoftMuonMVA_(false),
  recomputeBasicSelectors_(false),
  mvaUseJec_(false),
  isolator_(iConfig.exists("userIsolation") ? iConfig.getParameter<edm::ParameterSet>("userIsolation") : edm::ParameterSet(), consumesCollector(), false)
{
  // input source
  muonToken_ = consumes<edm::View<reco::Muon> >(iConfig.getParameter<edm::InputTag>( "muonSource" ));
  // embedding of tracks
  embedBestTrack_ = iConfig.getParameter<bool>( "embedMuonBestTrack" );
  embedTunePBestTrack_ = iConfig.getParameter<bool>( "embedTunePMuonBestTrack" );
  forceEmbedBestTrack_ = iConfig.getParameter<bool>( "forceBestTrackEmbedding" );
  embedTrack_ = iConfig.getParameter<bool>( "embedTrack" );
  embedCombinedMuon_ = iConfig.getParameter<bool>( "embedCombinedMuon"   );
  embedStandAloneMuon_ = iConfig.getParameter<bool>( "embedStandAloneMuon" );
  // embedding of muon MET correction information
  embedCaloMETMuonCorrs_ = iConfig.getParameter<bool>("embedCaloMETMuonCorrs" );
  embedTcMETMuonCorrs_ = iConfig.getParameter<bool>("embedTcMETMuonCorrs"   );
  caloMETMuonCorrsToken_ = mayConsume<edm::ValueMap<reco::MuonMETCorrectionData> >(iConfig.getParameter<edm::InputTag>("caloMETMuonCorrs" ));
  tcMETMuonCorrsToken_ = mayConsume<edm::ValueMap<reco::MuonMETCorrectionData> >(iConfig.getParameter<edm::InputTag>("tcMETMuonCorrs"   ));
  // pflow specific configurables
  useParticleFlow_ = iConfig.getParameter<bool>( "useParticleFlow" );
  embedPFCandidate_ = iConfig.getParameter<bool>( "embedPFCandidate" );
  pfMuonToken_ = mayConsume<reco::PFCandidateCollection>(iConfig.getParameter<edm::InputTag>( "pfMuonSource" ));
  embedPfEcalEnergy_ = iConfig.getParameter<bool>( "embedPfEcalEnergy" );
  // embedding of tracks from TeV refit
  embedPickyMuon_ = iConfig.getParameter<bool>( "embedPickyMuon" );
  embedTpfmsMuon_ = iConfig.getParameter<bool>( "embedTpfmsMuon" );
  embedDytMuon_ = iConfig.getParameter<bool>( "embedDytMuon" );
  // Monte Carlo matching
  addGenMatch_ = iConfig.getParameter<bool>( "addGenMatch" );
  if (addGenMatch_) {
    embedGenMatch_ = iConfig.getParameter<bool>( "embedGenMatch" );
    if (iConfig.existsAs<edm::InputTag>("genParticleMatch")) {
      genMatchTokens_.push_back(consumes<edm::Association<reco::GenParticleCollection> >(iConfig.getParameter<edm::InputTag>( "genParticleMatch" )));
    }
    else {
      genMatchTokens_ = edm::vector_transform(iConfig.getParameter<std::vector<edm::InputTag> >( "genParticleMatch" ), [this](edm::InputTag const & tag){return consumes<edm::Association<reco::GenParticleCollection> >(tag);});
    }
  }
  // efficiencies
  addEfficiencies_ = iConfig.getParameter<bool>("addEfficiencies");
  if(addEfficiencies_){
    efficiencyLoader_ = pat::helper::EfficiencyLoader(iConfig.getParameter<edm::ParameterSet>("efficiencies"), consumesCollector());
  }
  // resolutions
  addResolutions_ = iConfig.getParameter<bool>("addResolutions");
  if (addResolutions_) {
    resolutionLoader_ = pat::helper::KinResolutionsLoader(iConfig.getParameter<edm::ParameterSet>("resolutions"));
  }
  // puppi
  addPuppiIsolation_ = iConfig.getParameter<bool>("addPuppiIsolation");
  if(addPuppiIsolation_){
    PUPPIIsolation_charged_hadrons_ = consumes<edm::ValueMap<float> >(iConfig.getParameter<edm::InputTag>("puppiIsolationChargedHadrons"));
    PUPPIIsolation_neutral_hadrons_ = consumes<edm::ValueMap<float> >(iConfig.getParameter<edm::InputTag>("puppiIsolationNeutralHadrons"));
    PUPPIIsolation_photons_ = consumes<edm::ValueMap<float> >(iConfig.getParameter<edm::InputTag>("puppiIsolationPhotons"));
    //puppiNoLeptons
    PUPPINoLeptonsIsolation_charged_hadrons_ = consumes<edm::ValueMap<float> >(iConfig.getParameter<edm::InputTag>("puppiNoLeptonsIsolationChargedHadrons"));
    PUPPINoLeptonsIsolation_neutral_hadrons_ = consumes<edm::ValueMap<float> >(iConfig.getParameter<edm::InputTag>("puppiNoLeptonsIsolationNeutralHadrons"));
    PUPPINoLeptonsIsolation_photons_ = consumes<edm::ValueMap<float> >(iConfig.getParameter<edm::InputTag>("puppiNoLeptonsIsolationPhotons"));
  }
  // read isoDeposit labels, for direct embedding
  readIsolationLabels(iConfig, "isoDeposits", isoDepositLabels_, isoDepositTokens_);
  // read isolation value labels, for direct embedding
  readIsolationLabels(iConfig, "isolationValues", isolationValueLabels_, isolationValueTokens_);
  // check to see if the user wants to add user data
  if( useUserData_ ){
    userDataHelper_ = PATUserDataHelper<Muon>(iConfig.getParameter<edm::ParameterSet>("userData"), consumesCollector());
  }
  // embed high level selection variables
  embedHighLevelSelection_ = iConfig.getParameter<bool>("embedHighLevelSelection");
  if ( embedHighLevelSelection_ ) {
    beamLineToken_ = consumes<reco::BeamSpot>(iConfig.getParameter<edm::InputTag>("beamLineSrc"));
    pvToken_ = consumes<std::vector<reco::Vertex> >(iConfig.getParameter<edm::InputTag>("pvSrc"));
  }

  //for mini-isolation calculation
  computeMiniIso_ = iConfig.getParameter<bool>("computeMiniIso");

  computePuppiCombinedIso_ = iConfig.getParameter<bool>("computePuppiCombinedIso");

  effectiveAreaVec_ = iConfig.getParameter<std::vector<double> >("effectiveAreaVec");

  miniIsoParams_ = iConfig.getParameter<std::vector<double> >("miniIsoParams");
  if(computeMiniIso_ && miniIsoParams_.size() != 9){
      throw cms::Exception("ParameterError") << "miniIsoParams must have exactly 9 elements.\n";
  }
  if(computeMiniIso_ || computePuppiCombinedIso_)
      pcToken_ = consumes<pat::PackedCandidateCollection >(iConfig.getParameter<edm::InputTag>("pfCandsForMiniIso"));

  // standard selectors
  recomputeBasicSelectors_ = iConfig.getParameter<bool>("recomputeBasicSelectors");
  computeMuonMVA_ = iConfig.getParameter<bool>("computeMuonMVA");
  if (computeMuonMVA_ and not computeMiniIso_) 
    throw cms::Exception("ConfigurationError") << "MiniIso is needed for Muon MVA calculation.\n";

  if (computeMuonMVA_) {
    // pfCombinedInclusiveSecondaryVertexV2BJetTags
    mvaBTagCollectionTag_  = consumes<reco::JetTagCollection>(iConfig.getParameter<edm::InputTag>("mvaJetTag"));
    mvaL1Corrector_        = consumes<reco::JetCorrector>(iConfig.getParameter<edm::InputTag>("mvaL1Corrector"));
    mvaL1L2L3ResCorrector_ = consumes<reco::JetCorrector>(iConfig.getParameter<edm::InputTag>("mvaL1L2L3ResCorrector"));
    rho_                   = consumes<double>(iConfig.getParameter<edm::InputTag>("rho"));
    mvaUseJec_ = iConfig.getParameter<bool>("mvaUseJec");
  }

  computeSoftMuonMVA_ = iConfig.getParameter<bool>("computeSoftMuonMVA");

  // MC info
  simInfo_        = consumes<edm::ValueMap<reco::MuonSimInfo> >(iConfig.getParameter<edm::InputTag>("muonSimInfo"));

  addTriggerMatching_ = iConfig.getParameter<bool>("addTriggerMatching");
  if ( addTriggerMatching_ ){
    triggerObjects_ = consumes<std::vector<pat::TriggerObjectStandAlone>>(iConfig.getParameter<edm::InputTag>("triggerObjects"));
    triggerResults_ = consumes<edm::TriggerResults>(iConfig.getParameter<edm::InputTag>("triggerResults"));
  }
  hltCollectionFilters_ = iConfig.getParameter<std::vector<std::string>>("hltCollectionFilters");

  // produces vector of muons
  produces<std::vector<Muon> >();
}


PATMuonProducer::~PATMuonProducer()
{
}

std::optional<GlobalPoint> PATMuonProducer::getMuonDirection(const reco::MuonChamberMatch& chamberMatch,
                                                             const edm::ESHandle<GlobalTrackingGeometry>& geometry,
                                                             const DetId& chamberId)
{
  const GeomDet* chamberGeometry = geometry->idToDet( chamberId );
  if (chamberGeometry){
    LocalPoint localPosition(chamberMatch.x, chamberMatch.y, 0);
    return std::optional<GlobalPoint>(std::in_place, chamberGeometry->toGlobal(localPosition));
  }
  return std::optional<GlobalPoint>();

}


void PATMuonProducer::fillL1TriggerInfo(pat::Muon& aMuon,
                    edm::Handle<std::vector<pat::TriggerObjectStandAlone> >& triggerObjects,
                    const edm::TriggerNames & names,
                    const edm::ESHandle<GlobalTrackingGeometry>& geometry)
{
  // L1 trigger object parameters are defined at MB2/ME2. Use the muon
  // chamber matching information to get the local direction of the
  // muon trajectory and convert it to a global direction to match the
  // trigger objects

  std::optional<GlobalPoint> muonPosition;
  // Loop over chambers
  // initialize muonPosition with any available match, just in case 
  // the second station is missing - it's better folling back to 
  // dR matching at IP
  for ( const auto& chamberMatch: aMuon.matches() ) {
    if ( chamberMatch.id.subdetId() == MuonSubdetId::DT) {
      DTChamberId detId(chamberMatch.id.rawId());
      if (abs(detId.station())>3) continue; 
      muonPosition = getMuonDirection(chamberMatch, geometry, detId);
      if (abs(detId.station())==2) break;
    }
    if ( chamberMatch.id.subdetId() == MuonSubdetId::CSC) {
      CSCDetId detId(chamberMatch.id.rawId());
      if (abs(detId.station())>3) continue;
      muonPosition = getMuonDirection(chamberMatch, geometry, detId);
      if (abs(detId.station())==2) break;
    }
  }
  if (not muonPosition) return;
  for (const auto& triggerObject: *triggerObjects){
    if (triggerObject.hasTriggerObjectType(trigger::TriggerL1Mu)){
      if (fabs(triggerObject.eta())<0.001){
    // L1 is defined in X-Y plain
    if (deltaPhi(triggerObject.phi(),muonPosition->phi())>0.1) continue;
      } else {
    // 3D L1
    if (deltaR(triggerObject.p4(),*muonPosition)>0.15) continue;
      }
      pat::TriggerObjectStandAlone obj(triggerObject);
      obj.unpackPathNames(names);
      aMuon.addTriggerObjectMatch(obj);
    }
  }
}

void PATMuonProducer::fillHltTriggerInfo(pat::Muon& muon,
                     edm::Handle<std::vector<pat::TriggerObjectStandAlone> >& triggerObjects,
                     const edm::TriggerNames & names,
                     const std::vector<std::string>& collection_filter_names)
{
  // WARNING: in a case of close-by muons the dR matching may select both muons.
  // It's better to select the best match for a given collection.
  for (const auto& triggerObject: *triggerObjects){
    if (triggerObject.hasTriggerObjectType(trigger::TriggerMuon)){
      bool keepIt = false;
      for (const auto& name: collection_filter_names){
    if (triggerObject.hasCollection(name)){
      keepIt = true;
      break;
    }
      }
      if (not keepIt) continue;
      if ( deltaR(triggerObject.p4(),muon)>0.1 ) continue;
      pat::TriggerObjectStandAlone obj(triggerObject);
      obj.unpackPathNames(names);
      muon.addTriggerObjectMatch(obj);
    }
  }
}


void PATMuonProducer::produce(edm::Event & iEvent, const edm::EventSetup & iSetup)
{
   // get the tracking Geometry
   edm::ESHandle<GlobalTrackingGeometry> geometry;
   iSetup.get<GlobalTrackingGeometryRecord>().get(geometry);
   if ( ! geometry.isValid() )
     throw cms::Exception("FatalError") << "Unable to find GlobalTrackingGeometryRecord in event!\n";

  // switch off embedding (in unschedules mode)
  if (iEvent.isRealData()){
    addGenMatch_   = false;
    embedGenMatch_ = false;
  }

  edm::Handle<edm::View<reco::Muon> > muons;
  iEvent.getByToken(muonToken_, muons);

  
  edm::Handle<pat::PackedCandidateCollection> pc;
  if(computeMiniIso_ || computePuppiCombinedIso_)
      iEvent.getByToken(pcToken_, pc);

  // get the ESHandle for the transient track builder,
  // if needed for high level selection embedding
  edm::ESHandle<TransientTrackBuilder> trackBuilder;

  if(isolator_.enabled()) isolator_.beginEvent(iEvent,iSetup);
  if(efficiencyLoader_.enabled()) efficiencyLoader_.newEvent(iEvent);
  if(resolutionLoader_.enabled()) resolutionLoader_.newEvent(iEvent, iSetup);

  IsoDepositMaps deposits(isoDepositTokens_.size());
  for (size_t j = 0; j<isoDepositTokens_.size(); ++j) {
    iEvent.getByToken(isoDepositTokens_[j], deposits[j]);
  }

  IsolationValueMaps isolationValues(isolationValueTokens_.size());
  for (size_t j = 0; j<isolationValueTokens_.size(); ++j) {
    iEvent.getByToken(isolationValueTokens_[j], isolationValues[j]);
  }

  //value maps for puppi isolation
  edm::Handle<edm::ValueMap<float>> PUPPIIsolation_charged_hadrons;
  edm::Handle<edm::ValueMap<float>> PUPPIIsolation_neutral_hadrons;
  edm::Handle<edm::ValueMap<float>> PUPPIIsolation_photons;
  //value maps for puppiNoLeptons isolation
  edm::Handle<edm::ValueMap<float>> PUPPINoLeptonsIsolation_charged_hadrons;
  edm::Handle<edm::ValueMap<float>> PUPPINoLeptonsIsolation_neutral_hadrons;
  edm::Handle<edm::ValueMap<float>> PUPPINoLeptonsIsolation_photons;
  if(addPuppiIsolation_){
    //puppi
    iEvent.getByToken(PUPPIIsolation_charged_hadrons_, PUPPIIsolation_charged_hadrons);
    iEvent.getByToken(PUPPIIsolation_neutral_hadrons_, PUPPIIsolation_neutral_hadrons);
    iEvent.getByToken(PUPPIIsolation_photons_, PUPPIIsolation_photons);  
    //puppiNoLeptons
    iEvent.getByToken(PUPPINoLeptonsIsolation_charged_hadrons_, PUPPINoLeptonsIsolation_charged_hadrons);
    iEvent.getByToken(PUPPINoLeptonsIsolation_neutral_hadrons_, PUPPINoLeptonsIsolation_neutral_hadrons);
    iEvent.getByToken(PUPPINoLeptonsIsolation_photons_, PUPPINoLeptonsIsolation_photons);  
  }

  // inputs for muon mva
  edm::Handle<reco::JetTagCollection> mvaBTagCollectionTag;
  edm::Handle<reco::JetCorrector> mvaL1Corrector;
  edm::Handle<reco::JetCorrector> mvaL1L2L3ResCorrector;
  if (computeMuonMVA_) {
    iEvent.getByToken(mvaBTagCollectionTag_,mvaBTagCollectionTag);
    iEvent.getByToken(mvaL1Corrector_,mvaL1Corrector);
    iEvent.getByToken(mvaL1L2L3ResCorrector_,mvaL1L2L3ResCorrector);
  }
  
  // prepare the MC genMatchTokens_
  GenAssociations  genMatches(genMatchTokens_.size());
  if (addGenMatch_) {
    for (size_t j = 0, nd = genMatchTokens_.size(); j < nd; ++j) {
      iEvent.getByToken(genMatchTokens_[j], genMatches[j]);
    }
  }

  // prepare the high level selection: needs beamline
  // OR primary vertex, depending on user selection
  reco::Vertex primaryVertex;
  reco::BeamSpot beamSpot;
  bool beamSpotIsValid = false;
  bool primaryVertexIsValid = false;
  if ( embedHighLevelSelection_ ) {
    // get the beamspot
    edm::Handle<reco::BeamSpot> beamSpotHandle;
    iEvent.getByToken(beamLineToken_, beamSpotHandle);

    // get the primary vertex
    edm::Handle< std::vector<reco::Vertex> > pvHandle;
    iEvent.getByToken( pvToken_, pvHandle );

    if( beamSpotHandle.isValid() ){
      beamSpot = *beamSpotHandle;
      beamSpotIsValid = true;
    } else{
      edm::LogError("DataNotAvailable")
    << "No beam spot available from EventSetup, not adding high level selection \n";
    }
    if( pvHandle.isValid() && !pvHandle->empty() ) {
      primaryVertex = pvHandle->at(0);
      primaryVertexIsValid = true;
    } else {
      edm::LogError("DataNotAvailable")
    << "No primary vertex available from EventSetup, not adding high level selection \n";
    }
    // this is needed by the IPTools methods from the tracking group
    iSetup.get<TransientTrackRecord>().get("TransientTrackBuilder", trackBuilder);
  }

  // MC info
  edm::Handle<edm::ValueMap<reco::MuonSimInfo> > simInfo;
  bool simInfoIsAvailalbe = iEvent.getByToken(simInfo_,simInfo);

  // this will be the new object collection
  std::vector<Muon> * patMuons = new std::vector<Muon>();

  edm::Handle< reco::PFCandidateCollection >  pfMuons;
  if( useParticleFlow_ ){
    // get the PFCandidates of type muons
    iEvent.getByToken(pfMuonToken_, pfMuons);

    unsigned index=0;
    for( reco::PFCandidateConstIterator i = pfMuons->begin(); i != pfMuons->end(); ++i, ++index) {
      const reco::PFCandidate& pfmu = *i;
      //const reco::IsolaPFCandidate& pfmu = *i;
      const reco::MuonRef& muonRef = pfmu.muonRef();
      assert( muonRef.isNonnull() );

      MuonBaseRef muonBaseRef(muonRef);
      Muon aMuon(muonBaseRef);

      if ( useUserData_ ) {
    userDataHelper_.add( aMuon, iEvent, iSetup );
      }

      // embed high level selection
      if ( embedHighLevelSelection_ ) {
    // get the tracks
    reco::TrackRef innerTrack = muonBaseRef->innerTrack();
    reco::TrackRef globalTrack= muonBaseRef->globalTrack();
    reco::TrackRef bestTrack  = muonBaseRef->muonBestTrack();
    reco::TrackRef chosenTrack = innerTrack;
    // Make sure the collection it points to is there
    if ( bestTrack.isNonnull() && bestTrack.isAvailable() )
      chosenTrack = bestTrack;

    if ( chosenTrack.isNonnull() && chosenTrack.isAvailable() ) {
      unsigned int nhits = chosenTrack->numberOfValidHits(); // ????
      aMuon.setNumberOfValidHits( nhits );

      reco::TransientTrack tt = trackBuilder->build(chosenTrack);
      embedHighLevel( aMuon,
              chosenTrack,
              tt,
              primaryVertex,
              primaryVertexIsValid,
              beamSpot,
              beamSpotIsValid );

    }

    if ( globalTrack.isNonnull() && globalTrack.isAvailable() && !embedCombinedMuon_) {
      double norm_chi2 = globalTrack->chi2() / globalTrack->ndof();
      aMuon.setNormChi2( norm_chi2 );
    }
      }
      reco::PFCandidateRef pfRef(pfMuons,index);
      //reco::PFCandidatePtr ptrToMother(pfMuons,index);
      reco::CandidateBaseRef pfBaseRef( pfRef );

      aMuon.setPFCandidateRef( pfRef  );
      if( embedPFCandidate_ ) aMuon.embedPFCandidate();
      fillMuon( aMuon, muonBaseRef, pfBaseRef, genMatches, deposits, isolationValues );

      if(computeMiniIso_) 
          setMuonMiniIso(aMuon, pc.product());

      if (addPuppiIsolation_) {
    aMuon.setIsolationPUPPI((*PUPPIIsolation_charged_hadrons)[muonBaseRef],
                (*PUPPIIsolation_neutral_hadrons)[muonBaseRef],
                (*PUPPIIsolation_photons)[muonBaseRef]);
    
    aMuon.setIsolationPUPPINoLeptons((*PUPPINoLeptonsIsolation_charged_hadrons)[muonBaseRef],
                     (*PUPPINoLeptonsIsolation_neutral_hadrons)[muonBaseRef],
                     (*PUPPINoLeptonsIsolation_photons)[muonBaseRef]);
      }
      else {
    aMuon.setIsolationPUPPI(-999., -999.,-999.);
    aMuon.setIsolationPUPPINoLeptons(-999., -999.,-999.);
      }
      
      if (embedPfEcalEnergy_) {
        aMuon.setPfEcalEnergy(pfmu.ecalEnergy());
      }

      patMuons->push_back(aMuon);
    }
  }
  else {
    edm::Handle<edm::View<reco::Muon> > muons;
    iEvent.getByToken(muonToken_, muons);

    // embedding of muon MET corrections
    edm::Handle<edm::ValueMap<reco::MuonMETCorrectionData> > caloMETMuonCorrs;
    //edm::ValueMap<reco::MuonMETCorrectionData> caloMETmuCorValueMap;
    if(embedCaloMETMuonCorrs_){
      iEvent.getByToken(caloMETMuonCorrsToken_, caloMETMuonCorrs);
      //caloMETmuCorValueMap  = *caloMETmuCorValueMap_h;
    }
    edm::Handle<edm::ValueMap<reco::MuonMETCorrectionData> > tcMETMuonCorrs;
    //edm::ValueMap<reco::MuonMETCorrectionData> tcMETmuCorValueMap;
    if(embedTcMETMuonCorrs_) {
      iEvent.getByToken(tcMETMuonCorrsToken_, tcMETMuonCorrs);
      //tcMETmuCorValueMap  = *tcMETmuCorValueMap_h;
    }

    if (embedPfEcalEnergy_) {
        // get the PFCandidates of type muons
        iEvent.getByToken(pfMuonToken_, pfMuons);
    }

    for (edm::View<reco::Muon>::const_iterator itMuon = muons->begin(); itMuon != muons->end(); ++itMuon) {
      // construct the Muon from the ref -> save ref to original object
      unsigned int idx = itMuon - muons->begin();
      MuonBaseRef muonRef = muons->refAt(idx);
      reco::CandidateBaseRef muonBaseRef( muonRef );

      Muon aMuon(muonRef);
      fillMuon( aMuon, muonRef, muonBaseRef, genMatches, deposits, isolationValues);
      if(computeMiniIso_)
          setMuonMiniIso(aMuon, pc.product());
      if (addPuppiIsolation_) {
    aMuon.setIsolationPUPPI((*PUPPIIsolation_charged_hadrons)[muonRef], (*PUPPIIsolation_neutral_hadrons)[muonRef], (*PUPPIIsolation_photons)[muonRef]);
    aMuon.setIsolationPUPPINoLeptons((*PUPPINoLeptonsIsolation_charged_hadrons)[muonRef], (*PUPPINoLeptonsIsolation_neutral_hadrons)[muonRef], (*PUPPINoLeptonsIsolation_photons)[muonRef]);
      }
      else {
    aMuon.setIsolationPUPPI(-999., -999.,-999.);
    aMuon.setIsolationPUPPINoLeptons(-999., -999.,-999.);
      }

      // Isolation
      if (isolator_.enabled()) {
    //reco::CandidatePtr mother =  ptrToMother->sourceCandidatePtr(0);
    isolator_.fill(*muons, idx, isolatorTmpStorage_);
    typedef pat::helper::MultiIsolator::IsolationValuePairs IsolationValuePairs;
    // better to loop backwards, so the vector is resized less times
    for (IsolationValuePairs::const_reverse_iterator it = isolatorTmpStorage_.rbegin(), ed = isolatorTmpStorage_.rend(); it != ed; ++it) {
      aMuon.setIsolation(it->first, it->second);
    }
      }

      //       for (size_t j = 0, nd = deposits.size(); j < nd; ++j) {
      //    aMuon.setIsoDeposit(isoDepositLabels_[j].first,
      //                (*deposits[j])[muonRef]);
      //       }

      // add sel to selected
      edm::Ptr<reco::Muon> muonsPtr = muons->ptrAt(idx);
      if ( useUserData_ ) {
    userDataHelper_.add( aMuon, iEvent, iSetup );
      }

      // embed high level selection
      if ( embedHighLevelSelection_ ) {
    // get the tracks
    reco::TrackRef innerTrack = itMuon->innerTrack();
    reco::TrackRef globalTrack= itMuon->globalTrack();
    reco::TrackRef bestTrack  = itMuon->muonBestTrack();
    reco::TrackRef chosenTrack = innerTrack;
    // Make sure the collection it points to is there
    if ( bestTrack.isNonnull() && bestTrack.isAvailable() )
      chosenTrack = bestTrack;
    if ( chosenTrack.isNonnull() && chosenTrack.isAvailable() ) {
      unsigned int nhits = chosenTrack->numberOfValidHits(); // ????
      aMuon.setNumberOfValidHits( nhits );

      reco::TransientTrack tt = trackBuilder->build(chosenTrack);
      embedHighLevel( aMuon,
              chosenTrack,
              tt,
              primaryVertex,
              primaryVertexIsValid,
              beamSpot,
              beamSpotIsValid );

    }

    if ( globalTrack.isNonnull() && globalTrack.isAvailable() ) {
      double norm_chi2 = globalTrack->chi2() / globalTrack->ndof();
      aMuon.setNormChi2( norm_chi2 );
    }
      }

      // embed MET muon corrections
      if( embedCaloMETMuonCorrs_ ) aMuon.embedCaloMETMuonCorrs((*caloMETMuonCorrs)[muonRef]);
      if( embedTcMETMuonCorrs_ ) aMuon.embedTcMETMuonCorrs((*tcMETMuonCorrs  )[muonRef]);

      if (embedPfEcalEnergy_) {
          aMuon.setPfEcalEnergy(-99.0);
          for (const reco::PFCandidate &pfmu : *pfMuons) {
              if (pfmu.muonRef().isNonnull()) {
                  if (pfmu.muonRef().id() != muonRef.id()) throw cms::Exception("Configuration") << "Muon reference within PF candidates does not point to the muon collection." << std::endl;
                  if (pfmu.muonRef().key() == muonRef.key()) {
                      aMuon.setPfEcalEnergy(pfmu.ecalEnergy());
                  }
              } 
          }
      }
      // MC info
      aMuon.initSimInfo();
      if (simInfoIsAvailalbe){
    const auto& msi = (*simInfo)[muonBaseRef];
    aMuon.setSimType(msi.primaryClass);
    aMuon.setExtSimType(msi.extendedClass);
    aMuon.setSimFlavour(msi.flavour);
    aMuon.setSimHeaviestMotherFlavour(msi.heaviestMotherFlavour);
    aMuon.setSimPdgId(msi.pdgId);
    aMuon.setSimMotherPdgId(msi.motherPdgId);
    aMuon.setSimBX(msi.tpBX);
    aMuon.setSimTpEvent(msi.tpEvent);
    aMuon.setSimProdRho(msi.vertex.Rho());
    aMuon.setSimProdZ(msi.vertex.Z());
    aMuon.setSimPt(msi.p4.pt());
    aMuon.setSimEta(msi.p4.eta());
    aMuon.setSimPhi(msi.p4.phi());
    aMuon.setSimMatchQuality(msi.tpAssoQuality);
      }
      patMuons->push_back(aMuon);
    }
  }

  // sort muons in pt
  std::sort(patMuons->begin(), patMuons->end(), pTComparator_);

  // Store standard muon selection decisions and jet related 
  // quantaties.
  // Need a separate loop over muons to have all inputs properly
  // computed and stored in the object.
  edm::Handle<double> rho;
  if (computeMuonMVA_) iEvent.getByToken(rho_,rho);
  const reco::Vertex* pv(nullptr);
  if (primaryVertexIsValid) pv = &primaryVertex;

  edm::Handle<std::vector<pat::TriggerObjectStandAlone> > triggerObjects;
  edm::Handle< edm::TriggerResults > triggerResults;
  bool triggerObjectsAvailable = false;
  bool triggerResultsAvailable = false;
  if (addTriggerMatching_){
    triggerObjectsAvailable = iEvent.getByToken(triggerObjects_, triggerObjects);
    triggerResultsAvailable = iEvent.getByToken(triggerResults_, triggerResults);
  }

  for(auto& muon: *patMuons){
    // trigger info
    if (addTriggerMatching_ and triggerObjectsAvailable and triggerResultsAvailable){
      const edm::TriggerNames & triggerNames(iEvent.triggerNames( *triggerResults ));
      fillL1TriggerInfo(muon,triggerObjects,triggerNames,geometry);
      fillHltTriggerInfo(muon,triggerObjects,triggerNames,hltCollectionFilters_);
    }

    if (recomputeBasicSelectors_){
      muon.setSelectors(0);
      bool isRun2016BCDEF = (272728 <= iEvent.run() && iEvent.run() <= 278808);
      muon.setSelectors(muon::makeSelectorBitset(muon, pv, isRun2016BCDEF));
    }
    float miniIsoValue = -1;
    if (computeMiniIso_){
      // MiniIsolation working points

      miniIsoValue = getRelMiniIsoPUCorrected(muon,*rho, effectiveAreaVec_);

      muon.setSelector(reco::Muon::MiniIsoLoose,     miniIsoValue<0.40);
      muon.setSelector(reco::Muon::MiniIsoMedium,    miniIsoValue<0.20);
      muon.setSelector(reco::Muon::MiniIsoTight,     miniIsoValue<0.10);
      muon.setSelector(reco::Muon::MiniIsoVeryTight, miniIsoValue<0.05);
    }

    double puppiCombinedIsolationPAT = -1;
    if(computePuppiCombinedIso_){

      puppiCombinedIsolationPAT=puppiCombinedIsolation(muon, pc.product());
      muon.setSelector(reco::Muon::PuppiIsoLoose, puppiCombinedIsolationPAT<0.27);
      muon.setSelector(reco::Muon::PuppiIsoMedium, puppiCombinedIsolationPAT<0.22);
      muon.setSelector(reco::Muon::PuppiIsoTight, puppiCombinedIsolationPAT<0.12);
    }

    float jetPtRatio = 0.0;
    float jetPtRel = 0.0;
    float mva = 0.0;
    float mva_lowpt = 0.0;
    if (computeMuonMVA_ && primaryVertexIsValid && computeMiniIso_){
      if (mvaUseJec_){
        mva = globalCache()->muonMvaEstimator()->computeMva(muon,
                                                            primaryVertex,
                                                            *(mvaBTagCollectionTag.product()),
                                                            jetPtRatio,
                                                            jetPtRel,
                                miniIsoValue,
                                                            &*mvaL1Corrector,
                                                            &*mvaL1L2L3ResCorrector
                                );
        mva_lowpt = globalCache()->muonLowPtMvaEstimator()->computeMva(muon,
                                       primaryVertex,
                                       *(mvaBTagCollectionTag.product()),
                                       jetPtRatio,
                                       jetPtRel,
                                       miniIsoValue,
                                       &*mvaL1Corrector,
                                       &*mvaL1L2L3ResCorrector
                                       );
    
      }
      else{
    mva = globalCache()->muonMvaEstimator()->computeMva(muon,
                                                            primaryVertex,
                                                            *(mvaBTagCollectionTag.product()),
                                                            jetPtRatio,
                                                            jetPtRel,
                                miniIsoValue);
    mva_lowpt = globalCache()->muonLowPtMvaEstimator()->computeMva(muon,
                                       primaryVertex,
                                       *(mvaBTagCollectionTag.product()),
                                       jetPtRatio,
                                       jetPtRel,
                                       miniIsoValue);
      }

      muon.setMvaValue(mva);
      muon.setLowPtMvaValue(mva_lowpt);
      muon.setJetPtRatio(jetPtRatio);
      muon.setJetPtRel(jetPtRel);

      // multi-isolation
      if (computeMiniIso_){
    muon.setSelector(reco::Muon::MultiIsoMedium, miniIsoValue<0.11 && (muon.jetPtRatio() > 0.74 || muon.jetPtRel() > 6.8) );
      }

      // MVA working points
      // https://twiki.cern.ch/twiki/bin/viewauth/CMS/LeptonMVA
      double dB2D  = fabs(muon.dB(pat::Muon::PV2D));
      double dB3D  = fabs(muon.dB(pat::Muon::PV3D));
      double edB3D = fabs(muon.edB(pat::Muon::PV3D));
      double sip3D = edB3D>0?dB3D/edB3D:0.0; 
      double dz = fabs(muon.muonBestTrack()->dz(primaryVertex.position()));

      // muon preselection
      if (muon.pt()>5 and muon.isLooseMuon() and
      muon.passed(reco::Muon::MiniIsoLoose) and 
      sip3D<8.0 and dB2D<0.05 and dz<0.1){
    muon.setSelector(reco::Muon::MvaLoose,  muon.mvaValue()>-0.60);
    muon.setSelector(reco::Muon::MvaMedium, muon.mvaValue()>-0.20);
    muon.setSelector(reco::Muon::MvaTight,  muon.mvaValue()> 0.15);
    muon.setSelector(reco::Muon::MvaVTight,  muon.mvaValue()> 0.45);
    muon.setSelector(reco::Muon::MvaVVTight,  muon.mvaValue()> 0.9);
      }
      if (muon.pt()>5 and muon.isLooseMuon() and
      sip3D<4 and dB2D < 0.5 and dz < 1){
    muon.setSelector(reco::Muon::LowPtMvaLoose,  muon.lowptMvaValue()>-0.60);
    muon.setSelector(reco::Muon::LowPtMvaMedium, muon.lowptMvaValue()>-0.20);
      }
    }
    
    //SOFT MVA
    if (computeSoftMuonMVA_){
      float mva = globalCache()->softMuonMvaEstimator()->computeMva(muon);
      muon.setSoftMvaValue(mva);
      //preselection in SoftMuonMvaEstimator.cc
      muon.setSelector(reco::Muon::SoftMvaId,  muon.softMvaValue() >   0.58  ); //WP choose for bmm4
      
    }
  }

  // put products in Event
  std::unique_ptr<std::vector<Muon> > ptr(patMuons);
  iEvent.put(std::move(ptr));

  if (isolator_.enabled()) isolator_.endEvent();
}


void PATMuonProducer::fillMuon( Muon& aMuon, const MuonBaseRef& muonRef, const reco::CandidateBaseRef& baseRef, const GenAssociations& genMatches, const IsoDepositMaps& deposits, const IsolationValueMaps& isolationValues ) const
{
  // in the particle flow algorithm,
  // the muon momentum is recomputed.
  // the new value is stored as the momentum of the
  // resulting PFCandidate of type Muon, and choosen
  // as the pat::Muon momentum
  if (useParticleFlow_)
    aMuon.setP4( aMuon.pfCandidateRef()->p4() );
  if (embedTrack_)          aMuon.embedTrack();
  if (embedStandAloneMuon_) aMuon.embedStandAloneMuon();
  if (embedCombinedMuon_)   aMuon.embedCombinedMuon();

  // embed the TeV refit track refs (only available for globalMuons)
  if (aMuon.isGlobalMuon()) {
    if (embedPickyMuon_ && aMuon.isAValidMuonTrack(reco::Muon::Picky))
      aMuon.embedPickyMuon();
    if (embedTpfmsMuon_ && aMuon.isAValidMuonTrack(reco::Muon::TPFMS))
      aMuon.embedTpfmsMuon();
    if (embedDytMuon_ && aMuon.isAValidMuonTrack(reco::Muon::DYT))
      aMuon.embedDytMuon();
  }

  // embed best tracks (at the end, so unless forceEmbedBestTrack_ is true we can save some space not embedding them twice)
  if (embedBestTrack_)      aMuon.embedMuonBestTrack(forceEmbedBestTrack_);
  if (embedTunePBestTrack_)      aMuon.embedTunePMuonBestTrack(forceEmbedBestTrack_);

  // store the match to the generated final state muons
  if (addGenMatch_) {
    for(size_t i = 0, n = genMatches.size(); i < n; ++i) {
      reco::GenParticleRef genMuon = (*genMatches[i])[baseRef];
      aMuon.addGenParticleRef(genMuon);
    }
    if (embedGenMatch_) aMuon.embedGenParticle();
  }
  if (efficiencyLoader_.enabled()) {
    efficiencyLoader_.setEfficiencies( aMuon, muonRef );
  }

  for (size_t j = 0, nd = deposits.size(); j < nd; ++j) {
    if(useParticleFlow_) {
      if (deposits[j]->contains(baseRef.id())) {
    aMuon.setIsoDeposit(isoDepositLabels_[j].first, (*deposits[j])[baseRef]);
      } else if (deposits[j]->contains(muonRef.id())){
    aMuon.setIsoDeposit(isoDepositLabels_[j].first, (*deposits[j])[muonRef]);
      } else {
    reco::CandidatePtr source = aMuon.pfCandidateRef()->sourceCandidatePtr(0);
    aMuon.setIsoDeposit(isoDepositLabels_[j].first, (*deposits[j])[source]);
      }
    }
    else{
      aMuon.setIsoDeposit(isoDepositLabels_[j].first, (*deposits[j])[muonRef]);
    }
  }

  for (size_t j = 0; j<isolationValues.size(); ++j) {
    if(useParticleFlow_) {
      if (isolationValues[j]->contains(baseRef.id())) {
    aMuon.setIsolation(isolationValueLabels_[j].first, (*isolationValues[j])[baseRef]);
      } else if (isolationValues[j]->contains(muonRef.id())) {
    aMuon.setIsolation(isolationValueLabels_[j].first, (*isolationValues[j])[muonRef]);
      } else {
    reco::CandidatePtr source = aMuon.pfCandidateRef()->sourceCandidatePtr(0);
    aMuon.setIsolation(isolationValueLabels_[j].first, (*isolationValues[j])[source]);
      }
    }
    else{
      aMuon.setIsolation(isolationValueLabels_[j].first, (*isolationValues[j])[muonRef]);
    }
  }

  if (resolutionLoader_.enabled()) {
    resolutionLoader_.setResolutions(aMuon);
  }
}

void PATMuonProducer::setMuonMiniIso(Muon& aMuon, const PackedCandidateCollection *pc)
{
  pat::PFIsolation miniiso = pat::getMiniPFIsolation(pc, aMuon.p4(),
                                                     miniIsoParams_[0], miniIsoParams_[1], miniIsoParams_[2],
                                                     miniIsoParams_[3], miniIsoParams_[4], miniIsoParams_[5],
                                                     miniIsoParams_[6], miniIsoParams_[7], miniIsoParams_[8]);
  aMuon.setMiniPFIsolation(miniiso);
}

double PATMuonProducer::getRelMiniIsoPUCorrected(const pat::Muon& muon, double rho, const std::vector<double> &area)
{
  double mindr(miniIsoParams_[0]);
  double maxdr(miniIsoParams_[1]);
  double kt_scale(miniIsoParams_[2]);
  double drcut = pat::miniIsoDr(muon.p4(),mindr,maxdr,kt_scale);
  return pat::muonRelMiniIsoPUCorrected(muon.miniPFIsolation(), muon.p4(), drcut, rho, area);
}


double PATMuonProducer::puppiCombinedIsolation(const pat::Muon& muon, const pat::PackedCandidateCollection *pc)
{
  double dR_threshold = 0.4;
  double dR2_threshold = dR_threshold * dR_threshold;
  double mix_fraction = 0.5;
  enum particleType{
      CH = 0,
      NH = 1,
      PH = 2,
      OTHER = 100000
    };
  double val_PuppiWithLep = 0.0;
  double val_PuppiWithoutLep = 0.0;  

  for(const auto & cand : *pc){//pat::pat::PackedCandidate loop start

     const particleType pType =
        isChargedHadron( cand.pdgId() ) ? CH :
        isNeutralHadron( cand.pdgId() ) ? NH :
        isPhoton( cand.pdgId() ) ? PH : OTHER;
     if( pType == OTHER ){
        if( cand.pdgId() != 1 && cand.pdgId() != 2
        && abs( cand.pdgId() ) != 11
        && abs( cand.pdgId() ) != 13){
        LogTrace("PATMuonProducer") <<"candidate with PDGID = " << cand.pdgId() << " is not CH/NH/PH/e/mu or 1/2 (and this is removed from isolation calculation)" << std::endl;
       }
       continue;
     }
     double d_eta = std::abs( cand.eta() - muon.eta() );
     if( d_eta > dR_threshold ) continue;

     double d_phi = std::abs(reco::deltaPhi(cand.phi(),muon.phi()));
     if( d_phi > dR_threshold ) continue ;

     double dR2=reco::deltaR2(cand, muon);
     if( dR2  > dR2_threshold ) continue;
     if( pType == CH && dR2 < 0.0001*0.0001 ) continue;
     if( pType == NH && dR2 < 0.01  *0.01   ) continue;
     if( pType == PH && dR2 < 0.01  *0.01   ) continue;
     val_PuppiWithLep += cand.pt() * cand.puppiWeight();
     val_PuppiWithoutLep += cand.pt() * cand.puppiWeightNoLep();

  }//pat::pat::PackedCandidate loop end

  double reliso_Puppi_withLep    = val_PuppiWithLep/muon.pt();
  double reliso_Puppi_withoutlep = val_PuppiWithoutLep/muon.pt();
  double reliso_Puppi_combined = mix_fraction * reliso_Puppi_withLep + ( 1.0 - mix_fraction) * reliso_Puppi_withoutlep;
  return reliso_Puppi_combined;
}

bool PATMuonProducer::isNeutralHadron( long pdgid ){
 return std::abs(pdgid) == 130;
}

bool PATMuonProducer::isChargedHadron( long pdgid ){
 return std::abs(pdgid) == 211;
}

bool PATMuonProducer::isPhoton( long pdgid ){
 return pdgid==22;
}

// ParameterSet description for module
void PATMuonProducer::fillDescriptions(edm::ConfigurationDescriptions & descriptions)
{
  edm::ParameterSetDescription iDesc;
  iDesc.setComment("PAT muon producer module");

  // input source
  iDesc.add<edm::InputTag>("muonSource", edm::InputTag("no default"))->setComment("input collection");

  // embedding
  iDesc.add<bool>("embedMuonBestTrack",      true)->setComment("embed muon best track (global pflow)");
  iDesc.add<bool>("embedTunePMuonBestTrack", true)->setComment("embed muon best track (muon only)");
  iDesc.add<bool>("forceBestTrackEmbedding", true)->setComment("force embedding separately the best tracks even if they're already embedded e.g. as tracker or global tracks");
  iDesc.add<bool>("embedTrack", true)->setComment("embed external track");
  iDesc.add<bool>("embedStandAloneMuon", true)->setComment("embed external stand-alone muon");
  iDesc.add<bool>("embedCombinedMuon", false)->setComment("embed external combined muon");
  iDesc.add<bool>("embedPickyMuon", false)->setComment("embed external picky track");
  iDesc.add<bool>("embedTpfmsMuon", false)->setComment("embed external tpfms track");
  iDesc.add<bool>("embedDytMuon", false)->setComment("embed external dyt track ");

  // embedding of MET muon corrections
  iDesc.add<bool>("embedCaloMETMuonCorrs", true)->setComment("whether to add MET muon correction for caloMET or not");
  iDesc.add<edm::InputTag>("caloMETMuonCorrs", edm::InputTag("muonMETValueMapProducer"  , "muCorrData"))->setComment("source of MET muon corrections for caloMET");
  iDesc.add<bool>("embedTcMETMuonCorrs", true)->setComment("whether to add MET muon correction for tcMET or not");
  iDesc.add<edm::InputTag>("tcMETMuonCorrs", edm::InputTag("muonTCMETValueMapProducer"  , "muCorrData"))->setComment("source of MET muon corrections for tcMET");

  // pf specific parameters
  iDesc.add<edm::InputTag>("pfMuonSource", edm::InputTag("pfMuons"))->setComment("particle flow input collection");
  iDesc.add<bool>("useParticleFlow", false)->setComment("whether to use particle flow or not");
  iDesc.add<bool>("embedPFCandidate", false)->setComment("embed external particle flow object");
  iDesc.add<bool>("embedPfEcalEnergy", true)->setComment("add ecal energy as reconstructed by PF");

  // MC matching configurables
  iDesc.add<bool>("addGenMatch", true)->setComment("add MC matching");
  iDesc.add<bool>("embedGenMatch", false)->setComment("embed MC matched MC information");
  std::vector<edm::InputTag> emptySourceVector;
  iDesc.addNode( edm::ParameterDescription<edm::InputTag>("genParticleMatch", edm::InputTag(), true) xor
                 edm::ParameterDescription<std::vector<edm::InputTag> >("genParticleMatch", emptySourceVector, true)
         )->setComment("input with MC match information");

  // mini-iso
  iDesc.add<bool>("computeMiniIso", false)->setComment("whether or not to compute and store electron mini-isolation");
  iDesc.add<bool>("computePuppiCombinedIso",false)->setComment("whether or not to compute and store puppi combined isolation");

  iDesc.add<edm::InputTag>("pfCandsForMiniIso", edm::InputTag("packedPFCandidates"))->setComment("collection to use to compute mini-iso");
  iDesc.add<std::vector<double> >("miniIsoParams", std::vector<double>())->setComment("mini-iso parameters to use for muons");

  iDesc.add<bool>("addTriggerMatching", false)->setComment("add L1 and HLT matching to offline muon");

  pat::helper::KinResolutionsLoader::fillDescription(iDesc);

  // IsoDeposit configurables
  edm::ParameterSetDescription isoDepositsPSet;
  isoDepositsPSet.addOptional<edm::InputTag>("tracker");
  isoDepositsPSet.addOptional<edm::InputTag>("ecal");
  isoDepositsPSet.addOptional<edm::InputTag>("hcal");
  isoDepositsPSet.addOptional<edm::InputTag>("particle");
  isoDepositsPSet.addOptional<edm::InputTag>("pfChargedHadrons");
  isoDepositsPSet.addOptional<edm::InputTag>("pfChargedAll");
  isoDepositsPSet.addOptional<edm::InputTag>("pfPUChargedHadrons");
  isoDepositsPSet.addOptional<edm::InputTag>("pfNeutralHadrons");
  isoDepositsPSet.addOptional<edm::InputTag>("pfPhotons");
  isoDepositsPSet.addOptional<std::vector<edm::InputTag> >("user");
  iDesc.addOptional("isoDeposits", isoDepositsPSet);

  // isolation values configurables
  edm::ParameterSetDescription isolationValuesPSet;
  isolationValuesPSet.addOptional<edm::InputTag>("tracker");
  isolationValuesPSet.addOptional<edm::InputTag>("ecal");
  isolationValuesPSet.addOptional<edm::InputTag>("hcal");
  isolationValuesPSet.addOptional<edm::InputTag>("particle");
  isolationValuesPSet.addOptional<edm::InputTag>("pfChargedHadrons");
  isolationValuesPSet.addOptional<edm::InputTag>("pfChargedAll");
  isolationValuesPSet.addOptional<edm::InputTag>("pfPUChargedHadrons");
  isolationValuesPSet.addOptional<edm::InputTag>("pfNeutralHadrons");
  isolationValuesPSet.addOptional<edm::InputTag>("pfPhotons");
  iDesc.addOptional("isolationValues", isolationValuesPSet);

  iDesc.ifValue(edm::ParameterDescription<bool>("addPuppiIsolation", false, true),
        true >> (edm::ParameterDescription<edm::InputTag>("puppiIsolationChargedHadrons", edm::InputTag("muonPUPPIIsolation","h+-DR030-ThresholdVeto000-ConeVeto000"), true) and
             edm::ParameterDescription<edm::InputTag>("puppiIsolationNeutralHadrons", edm::InputTag("muonPUPPIIsolation","h0-DR030-ThresholdVeto000-ConeVeto001"), true) and 
             edm::ParameterDescription<edm::InputTag>("puppiIsolationPhotons", edm::InputTag("muonPUPPIIsolation","gamma-DR030-ThresholdVeto000-ConeVeto001"), true) and
             edm::ParameterDescription<edm::InputTag>("puppiNoLeptonsIsolationChargedHadrons", edm::InputTag("muonPUPPINoLeptonsIsolation","h+-DR030-ThresholdVeto000-ConeVeto000"), true) and 
             edm::ParameterDescription<edm::InputTag>("puppiNoLeptonsIsolationNeutralHadrons", edm::InputTag("muonPUPPINoLeptonsIsolation","h0-DR030-ThresholdVeto000-ConeVeto001"), true) and 
             edm::ParameterDescription<edm::InputTag>("puppiNoLeptonsIsolationPhotons", edm::InputTag("muonPUPPINoLeptonsIsolation","gamma-DR030-ThresholdVeto000-ConeVeto001"), true))  or
        false >> edm::EmptyGroupDescription());
  
  // Efficiency configurables
  edm::ParameterSetDescription efficienciesPSet;
  efficienciesPSet.setAllowAnything(); // TODO: the pat helper needs to implement a description.
  iDesc.add("efficiencies", efficienciesPSet);
  iDesc.add<bool>("addEfficiencies", false);

  // Check to see if the user wants to add user data
  edm::ParameterSetDescription userDataPSet;
  PATUserDataHelper<Muon>::fillDescription(userDataPSet);
  iDesc.addOptional("userData", userDataPSet);

  edm::ParameterSetDescription isolationPSet;
  isolationPSet.setAllowAnything(); // TODO: the pat helper needs to implement a description.
  iDesc.add("userIsolation", isolationPSet);

  iDesc.add<bool>("embedHighLevelSelection", true)->setComment("embed high level selection");
  edm::ParameterSetDescription highLevelPSet;
  highLevelPSet.setAllowAnything();
  iDesc.addNode( edm::ParameterDescription<edm::InputTag>("beamLineSrc", edm::InputTag(), true)
                 )->setComment("input with high level selection");
  iDesc.addNode( edm::ParameterDescription<edm::InputTag>("pvSrc", edm::InputTag(), true)
                 )->setComment("input with high level selection");

  //descriptions.add("PATMuonProducer", iDesc);
}



// embed various impact parameters with errors
// embed high level selection
void PATMuonProducer::embedHighLevel( pat::Muon & aMuon,
                      reco::TrackRef track,
                      reco::TransientTrack & tt,
                      reco::Vertex & primaryVertex,
                      bool primaryVertexIsValid,
                      reco::BeamSpot & beamspot,
                      bool beamspotIsValid
                      )
{
  // Correct to PV

  // PV2D
  std::pair<bool,Measurement1D> result =
    IPTools::signedTransverseImpactParameter(tt,
                         GlobalVector(track->px(),
                              track->py(),
                              track->pz()),
                         primaryVertex);
  double d0_corr = result.second.value();
  double d0_err = primaryVertexIsValid ? result.second.error() : -1.0;
  aMuon.setDB( d0_corr, d0_err, pat::Muon::PV2D);


  // PV3D
  result =
    IPTools::signedImpactParameter3D(tt,
                     GlobalVector(track->px(),
                          track->py(),
                          track->pz()),
                     primaryVertex);
  d0_corr = result.second.value();
  d0_err = primaryVertexIsValid ? result.second.error() : -1.0;
  aMuon.setDB( d0_corr, d0_err, pat::Muon::PV3D);


  // Correct to beam spot
  // make a fake vertex out of beam spot
  reco::Vertex vBeamspot(beamspot.position(), beamspot.rotatedCovariance3D());

  // BS2D
  result =
    IPTools::signedTransverseImpactParameter(tt,
                         GlobalVector(track->px(),
                              track->py(),
                              track->pz()),
                         vBeamspot);
  d0_corr = result.second.value();
  d0_err = beamspotIsValid ? result.second.error() : -1.0;
  aMuon.setDB( d0_corr, d0_err, pat::Muon::BS2D);

    // BS3D
  result =
    IPTools::signedImpactParameter3D(tt,
                     GlobalVector(track->px(),
                          track->py(),
                            track->pz()),
                     vBeamspot);
  d0_corr = result.second.value();
  d0_err = beamspotIsValid ? result.second.error() : -1.0;
  aMuon.setDB( d0_corr, d0_err, pat::Muon::BS3D);


    // PVDZ
  aMuon.setDB( track->dz(primaryVertex.position()), std::hypot(track->dzError(), primaryVertex.zError()), pat::Muon::PVDZ );
}

#include "FWCore/Framework/interface/MakerMacros.h"

DEFINE_FWK_MODULE(PATMuonProducer);