EcalRegressionData.h

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#ifndef EgammaElectronAlgos_EcalRegressionData_h
#define EgammaElectronAlgos_EcalRegressionData_h
 
#include "DataFormats/EcalRecHit/interface/EcalRecHitCollections.h"
#include "DataFormats/VertexReco/interface/VertexFwd.h"
#include "DataFormats/VertexReco/interface/Vertex.h"
#include <vector>
#include <cmath>
 
class CaloGeometry;
class CaloTopology;
 
namespace reco {
  class SuperCluster;
}
 
class EcalRegressionData {
public:
  EcalRegressionData() { clear(); }
 
  //this exists due to concerns that sub-cluster 1 is actually accessed
  //by subClusRawE_[0] and could potentially cause bugs
  //this although slightly wordy, makes it absolutely clear
  enum class SubClusNr { C1 = 0, C2 = 1, C3 = 2 };
 
  //direct accessors
  bool isEB() const { return isEB_; }
  float scRawEnergy() const { return scRawEnergy_; }
  float scCalibEnergy() const { return scCalibEnergy_; }
  float scPreShowerEnergy() const { return scPreShowerEnergy_; }
  float scEta() const { return scEta_; }
  float scPhi() const { return scPhi_; }
  float scEtaWidth() const { return scEtaWidth_; }
  float scPhiWidth() const { return scPhiWidth_; }
  int scNrAdditionalClusters() const { return scNrAdditionalClusters_; }
  float seedClusEnergy() const { return seedClusEnergy_; }
  float eMax() const { return eMax_; }
  float e2nd() const { return e2nd_; }
  float e3x3() const { return e3x3_; }
  float eTop() const { return eTop_; }
  float eBottom() const { return eBottom_; }
  float eLeft() const { return eLeft_; }
  float eRight() const { return eRight_; }
  float sigmaIEtaIEta() const { return sigmaIEtaIEta_; }
  float sigmaIEtaIPhi() const { return sigmaIEtaIPhi_; }
  float sigmaIPhiIPhi() const { return sigmaIPhiIPhi_; }
 
  float seedCrysPhiOrY() const { return seedCrysPhiOrY_; }
  float seedCrysEtaOrX() const { return seedCrysEtaOrX_; }
  float seedCrysIEtaOrIX() const { return seedCrysIEtaOrIX_; }
  float seedCrysIPhiOrIY() const { return seedCrysIPhiOrIY_; }
  float maxSubClusDR() const { return std::sqrt(maxSubClusDR2_); }
  float maxSubClusDRDPhi() const { return maxSubClusDRDPhi_; }
  float maxSubClusDRDEta() const { return maxSubClusDRDEta_; }
  float maxSubClusDRRawEnergy() const { return maxSubClusDRRawEnergy_; }
  const std::vector<float>& subClusRawEnergy() const { return subClusRawEnergy_; }
  const std::vector<float>& subClusDPhi() const { return subClusDPhi_; }
  const std::vector<float>& subClusDEta() const { return subClusDEta_; }
  int nrVtx() const { return nrVtx_; }
 
  //indirect accessors
  float scPreShowerEnergyOverSCRawEnergy() const { return divideBySCRawEnergy_(scPreShowerEnergy()); }
  float scSeedR9() const { return divideBySCRawEnergy_(e3x3()); }
  float seedClusEnergyOverSCRawEnergy() const { return divideBySCRawEnergy_(seedClusEnergy()); }
  float eMaxOverSCRawEnergy() const { return divideBySCRawEnergy_(eMax()); }
  float e2ndOverSCRawEnergy() const { return divideBySCRawEnergy_(e2nd()); }
  float seedLeftRightAsym() const;
  float seedTopBottomAsym() const;
  float maxSubClusDRRawEnergyOverSCRawEnergy() const { return divideBySCRawEnergy_(maxSubClusDRRawEnergy()); }
  float subClusRawEnergyOverSCRawEnergy(size_t clusNr) const { return divideBySCRawEnergy_(subClusRawEnergy(clusNr)); }
  float subClusRawEnergy(size_t clusNr) const;
  float subClusDPhi(size_t clusNr) const;
  float subClusDEta(size_t clusNr) const;
  float subClusRawEnergyOverSCRawEnergy(SubClusNr clusNr) const {
    return subClusRawEnergyOverSCRawEnergy(static_cast<int>(clusNr));
  }
  float subClusRawEnergy(SubClusNr clusNr) const { return subClusRawEnergy(static_cast<int>(clusNr)); }
  float subClusDPhi(SubClusNr clusNr) const { return subClusDPhi(static_cast<int>(clusNr)); }
  float subClusDEta(SubClusNr clusNr) const { return subClusDEta(static_cast<int>(clusNr)); }
 
  //modifiers
  void fill(const reco::SuperCluster& superClus,
            const EcalRecHitCollection* ebRecHits,
            const EcalRecHitCollection* eeRecHits,
            const CaloGeometry* geom,
            const CaloTopology* topology,
            const reco::VertexCollection* vertices) {
    fill(superClus, ebRecHits, eeRecHits, geom, topology, vertices->size());
  }
  void fill(const reco::SuperCluster& superClus,
            const EcalRecHitCollection* ebRecHits,
            const EcalRecHitCollection* eeRecHits,
            const CaloGeometry* geom,
            const CaloTopology* topology,
            int nrVertices);
  void clear();
 
  //converts output to single vector for use in training
  void fillVec(std::vector<float>& inputVec) const;
 
private:
  //0 is obviously not a sensible energy for a supercluster so just return zero if this is the case
  float divideBySCRawEnergy_(float numer) const { return scRawEnergy() != 0 ? numer / scRawEnergy() : 0.; }
  void fillVecEB_(std::vector<float>& inputVec) const;
  void fillVecEE_(std::vector<float>& inputVec) const;
 
private:
  bool isEB_;
 
  //supercluster quantities
  float scRawEnergy_;
  float scCalibEnergy_;
  float scPreShowerEnergy_;
  float scEta_;
  float scPhi_;
  float scEtaWidth_;
  float scPhiWidth_;
  int scNrAdditionalClusters_;  //excludes seed cluster
 
  //seed cluster quantities
  float seedClusEnergy_;
  float eMax_;
  float e2nd_;
  float e3x3_;
  float eTop_;
  float eBottom_;
  float eLeft_;
  float eRight_;
  float sigmaIEtaIEta_;
  float sigmaIEtaIPhi_;
  float sigmaIPhiIPhi_;
 
  //seed crystal quantities
  float seedCrysPhiOrY_;
  float seedCrysEtaOrX_;
  int seedCrysIEtaOrIX_;
  int seedCrysIPhiOrIY_;
 
  //sub cluster (non-seed) quantities
  float maxSubClusDR2_;
  float maxSubClusDRDPhi_;
  float maxSubClusDRDEta_;
  float maxSubClusDRRawEnergy_;
  std::vector<float> subClusRawEnergy_;
  std::vector<float> subClusDPhi_;
  std::vector<float> subClusDEta_;
 
  //event quantities
  int nrVtx_;
};
 
#endif