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 #ifndef SimTracker_SiPhase2Digitizer_Phase2TrackerDigitizerAlgorithm_h
 #define SimTracker_SiPhase2Digitizer_Phase2TrackerDigitizerAlgorithm_h
 
 #include <map>
 #include <memory>
 #include <vector>
 
 #include "DataFormats/GeometrySurface/interface/GloballyPositioned.h"
 #include "FWCore/Framework/interface/FrameworkfwdMostUsed.h"
 #include "SimDataFormats/TrackingHit/interface/PSimHit.h"
 #include "DataFormats/Math/interface/approx_exp.h"
 #include "SimDataFormats/TrackerDigiSimLink/interface/PixelDigiSimLink.h"
 #include "DataFormats/SiPixelDigi/interface/PixelDigi.h"
 #include "DataFormats/Phase2TrackerDigi/interface/Phase2TrackerDigi.h"
 
 #include "SimTracker/Common/interface/DigitizerUtility.h"
 #include "SimTracker/Common/interface/SiPixelChargeReweightingAlgorithm.h"
 #include "SimTracker/SiPhase2Digitizer/plugins/Phase2TrackerDigitizerFwd.h"
 
 // Units and Constants
 #include "DataFormats/Math/interface/CMSUnits.h"
 #include <CLHEP/Units/PhysicalConstants.h>
 #include <CLHEP/Units/SystemOfUnits.h>
 
 // forward declarations
 // For the random numbers
 namespace CLHEP {
   class HepRandomEngine;
   class RandGaussQ;
   class RandFlat;
 }  // namespace CLHEP
 
 class DetId;
 class GaussianTailNoiseGenerator;
 class SiG4UniversalFluctuation;
 class SiPixelGainCalibrationOfflineSimService;
 class SiPixelLorentzAngle;
 class SiPixelQuality;
 class SiPhase2OuterTrackerLorentzAngle;
 class TrackerGeometry;
 class TrackerTopology;
 class SiPixelChargeReweightingAlgorithm;
 
 // REMEMBER CMS conventions:
 // -- Energy: GeV
 // -- momentum: GeV/c
 // -- mass: GeV/c^2
 // -- Distance, position: cm
 // -- Time: ns
 // -- Angles: radian
 // Some constants in convenient units
 constexpr double c_cm_ns = CLHEP::c_light * CLHEP::ns / CLHEP::cm;
 constexpr double c_inv = 1.0 / c_cm_ns;
 
 class Phase2TrackerDigitizerAlgorithm {
 public:
   Phase2TrackerDigitizerAlgorithm(const edm::ParameterSet& conf_common,
                                   const edm::ParameterSet& conf_specific,
                                   edm::ConsumesCollector iC);
   virtual ~Phase2TrackerDigitizerAlgorithm();
 
   // initialization that cannot be done in the constructor
   virtual void init(const edm::EventSetup& es) = 0;
   virtual void initializeEvent(CLHEP::HepRandomEngine& eng);
 
   // run the algorithm to digitize a single det
   virtual void accumulateSimHits(const std::vector<PSimHit>::const_iterator inputBegin,
                                  const std::vector<PSimHit>::const_iterator inputEnd,
                                  const size_t inputBeginGlobalIndex,
                                  const uint32_t tofBin,
                                  const Phase2TrackerGeomDetUnit* pixdet,
                                  const GlobalVector& bfield);
   virtual void digitize(const Phase2TrackerGeomDetUnit* pixdet,
                         std::map<int, digitizerUtility::DigiSimInfo>& digi_map,
                         const TrackerTopology* tTopo);
   virtual bool select_hit(const PSimHit& hit, double tCorr, double& sigScale) const { return true; }
   virtual bool isAboveThreshold(const digitizerUtility::SimHitInfo* hitInfo, float charge, float thr) const {
     return true;
   }
 
   // For premixing
   void loadAccumulator(uint32_t detId, const std::map<int, float>& accumulator);
 
 protected:
   // Accessing Inner Tracker Lorentz angle from DB:
   const SiPixelLorentzAngle* siPixelLorentzAngle_;
 
   // Accessing Outer Tracker Lorentz angle from DB:
   const SiPhase2OuterTrackerLorentzAngle* siPhase2OTLorentzAngle_;
 
   // Accessing Dead pixel modules from DB:
   const SiPixelQuality* siPixelBadModule_;
 
   // Accessing Map and Geom:
   const TrackerGeometry* geom_;
   struct SubdetEfficiencies {
     SubdetEfficiencies(const edm::ParameterSet& conf);
     std::vector<double> barrel_efficiencies;
     std::vector<double> endcap_efficiencies;
   };
 
   // Internal type aliases
   using signal_map_type = std::map<int, digitizerUtility::Ph2Amplitude, std::less<int> >;
   using signalMaps = std::map<uint32_t, signal_map_type>;
   using Frame = GloballyPositioned<double>;
   using Parameters = std::vector<edm::ParameterSet>;
 
   // Contains the accumulated hit info.
   signalMaps _signal;
 
   const bool makeDigiSimLinks_;
 
   const bool use_ineff_from_db_;
   const bool use_module_killing_;   // remove or not the dead pixel modules
   const bool use_deadmodule_DB_;    // if we want to get dead pixel modules from the DataBase.
   const bool use_LorentzAngle_DB_;  // if we want to get Lorentz angle from the DataBase.
 
   const Parameters deadModules_;
 
   // Variables
   // external parameters
   // go from Geant energy GeV to number of electrons
   const float GeVperElectron_;  // 3.7E-09
 
   //-- drift
   const bool alpha2Order_;  // Switch on/off of E.B effect
   const bool addXtalk_;
   const float interstripCoupling_;
   const float Sigma0_;      //=0.0007  // Charge diffusion in microns for 300 micron Si
   const float SigmaCoeff_;  // delta in the diffusion across the strip pitch
 
   //-- induce_signal
   const float clusterWidth_;  // Gaussian charge cutoff width in sigma units
 
   //-- make_digis
   const int thePhase2ReadoutMode_;   //  Flag to decide readout mode (digital/Analog dual slope etc.)
   const float theElectronPerADC_;    // Gain, number of electrons per adc count.
   const int theAdcFullScale_;        // Saturation count, 255=8bit.
   const float theNoiseInElectrons_;  // Noise (RMS) in units of electrons.
   const float theReadoutNoise_;      // Noise of the readount chain in elec,
 
   // inludes DCOL-Amp,TBM-Amp, Alt, AOH,OptRec.
   const float theThresholdInE_Endcap_;  // threshold in electrons Endcap.
   const float theThresholdInE_Barrel_;  // threshold in electrons Barrel.
 
   const double theThresholdSmearing_Endcap_;
   const double theThresholdSmearing_Barrel_;
 
   const double theHIPThresholdInE_Endcap_;
   const double theHIPThresholdInE_Barrel_;
 
   const float theTofLowerCut_;                  // Cut on the particle TOF
   const float theTofUpperCut_;                  // Cut on the particle TOF
   const float tanLorentzAnglePerTesla_Endcap_;  //FPix Lorentz angle tangent per Tesla
   const float tanLorentzAnglePerTesla_Barrel_;  //BPix Lorentz angle tangent per Tesla
 
   // -- add_noise
   const bool addNoise_;
   const bool addNoisyPixels_;
   const bool fluctuateCharge_;
 
   //-- pixel efficiency
   const bool addPixelInefficiency_;  // bool to read in inefficiencies
 
   const bool addThresholdSmearing_;
 
   // pseudoRadDamage
   const double pseudoRadDamage_;        // Decrease the amount off freed charge that reaches the collector
   const double pseudoRadDamageRadius_;  // Only apply pseudoRadDamage to pixels with radius<=pseudoRadDamageRadius
 
   // charge reweighting
   const bool useChargeReweighting_;
   // access 2D templates from DB. Only gets initialized if useChargeReweighting_ is set to true
   const std::unique_ptr<SiPixelChargeReweightingAlgorithm> theSiPixelChargeReweightingAlgorithm_;
 
   // The PDTable
   // HepPDTable *particleTable;
   // ParticleDataTable *particleTable;
 
   //-- charge fluctuation
   const double tMax_;  // The delta production cut, should be as in OSCAR = 30keV
 
   // Bad Pixels to be killed
   Parameters badPixels_;
 
   // The eloss fluctuation class from G4. Is the right place?
   const std::unique_ptr<SiG4UniversalFluctuation> fluctuate_;  // make a pointer
   const std::unique_ptr<GaussianTailNoiseGenerator> theNoiser_;
 
   //-- additional member functions
   // Private methods
   virtual std::vector<digitizerUtility::EnergyDepositUnit> primary_ionization(const PSimHit& hit) const;
   virtual std::vector<digitizerUtility::SignalPoint> drift(
       const PSimHit& hit,
       const Phase2TrackerGeomDetUnit* pixdet,
       const GlobalVector& bfield,
       const std::vector<digitizerUtility::EnergyDepositUnit>& ionization_points) const;
   virtual void induce_signal(std::vector<PSimHit>::const_iterator inputBegin,
                              const PSimHit& hit,
                              const size_t hitIndex,
                              const size_t firstHitIndex,
                              const uint32_t tofBin,
                              const Phase2TrackerGeomDetUnit* pixdet,
                              const std::vector<digitizerUtility::SignalPoint>& collection_points);
   virtual std::vector<float> fluctuateEloss(
       int particleId, float momentum, float eloss, float length, int NumberOfSegments) const;
   virtual void add_noise(const Phase2TrackerGeomDetUnit* pixdet);
   virtual void add_cross_talk(const Phase2TrackerGeomDetUnit* pixdet);
   virtual void add_noisy_cells(const Phase2TrackerGeomDetUnit* pixdet, float thePixelThreshold);
   virtual void pixel_inefficiency(const SubdetEfficiencies& eff,
                                   const Phase2TrackerGeomDetUnit* pixdet,
                                   const TrackerTopology* tTopo);
 
   virtual void pixel_inefficiency_db(uint32_t detID);
 
   // access to the gain calibration payloads in the db. Only gets initialized if check_dead_pixels_ is set to true.
   const std::unique_ptr<SiPixelGainCalibrationOfflineSimService> theSiPixelGainCalibrationService_;
 
   LocalVector driftDirection(const Phase2TrackerGeomDetUnit* pixdet,
                              const GlobalVector& bfield,
                              const DetId& detId) const;
 
   // remove dead modules using the list in the configuration file PixelDigi_cfi.py
   virtual void module_killing_conf(uint32_t detID);
   // remove dead modules uisng the list in the DB
   virtual void module_killing_DB(const Phase2TrackerGeomDetUnit* pixdet) = 0;
 
   const SubdetEfficiencies subdetEfficiencies_;
   float calcQ(float x);
 
   // For random numbers
   std::unique_ptr<CLHEP::RandGaussQ> gaussDistribution_;
 
   // Threshold gaussian smearing:
   std::unique_ptr<CLHEP::RandGaussQ> smearedThreshold_Endcap_;
   std::unique_ptr<CLHEP::RandGaussQ> smearedThreshold_Barrel_;
 
   //for engine passed into the constructor from Digitizer
   CLHEP::HepRandomEngine* rengine_;
 
   // convert signal in electrons to ADC counts
   int convertSignalToAdc(uint32_t detID, float signal_in_elec, float threshold);
 
   bool pixelFlag_;
 };
 #endif

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