/**
 * \file CaloEnergy.h
 * \authors Emiliano Mocchiutti & Giovanna Jerse
 */
#ifndef caloenergy_h
#define caloenergy_h

#include <PamLevel2.h>

#include <TTree.h>
#include <TFriendElement.h>
#include <TChain.h>
#include <TFile.h>
#include <TList.h>
#include <TKey.h>
#include <TSystemFile.h>
#include <TSystemDirectory.h>
#include <TSQLServer.h>
#include <CaloPreSampler.h>

#include <iostream>

using namespace std;

/**
 *
 */
class CaloEnergy : public TObject {

 private:
    //
    PamLevel2 *L2;
    Bool_t debug; ///< debug flag
    //
    // needed to avoid reprocessing the same event over and over to obtain the variables
    //
    UInt_t OBT; ///< CPU OBT
    UInt_t PKT; ///< CPU packet number
    UInt_t atime; ///< event absolute time
    TString sntr; ///< string containing the list of section the user want to process
    UInt_t AOBT; ///< CPU OBT
    UInt_t APKT; ///< CPU packet number
    UInt_t aatime;///< event absolute time
    TString asntr;///< string containing the list of section the user want to process
    //
    Float_t fM; ///< margin in the strip direction
    Float_t fM1; ///< margin along the strip reading direction
    Int_t fPl; ///< number of dE/dx measurements over the maximum that are used to find the energy
    Float_t fConv_rxe; ///< MIP - energy conversion factor for section XE
    Float_t fConv_rxo; ///< MIP - energy conversion factor for section XO
    Float_t fConv_rye; ///< MIP - energy conversion factor for section YE
    Float_t fConv_ryo; ///< MIP - energy conversion factor for section YO
    Bool_t fLong; ///< if true use the integral of the longitudinal profile to measure the energy (NOT IMPLEMENTED YET), default FALSE
    //
    Float_t fEnergyxe; ///< Energy as measured by section XE
    Float_t fEnergyxo; ///< Energy as measured by section XO
    Float_t fEnergyye; ///< Energy as measured by section YE
    Float_t fEnergyyo; ///< Energy as measured by section YO
    Float_t fEnergy; ///< Energy as measured by the average of the used section in "Independent mode" or energy as measured by the used section in "Coherent mode" 
    Float_t fCount; ///< Number of sections inside the acceptance (only the section given by the user are checked)
    Int_t fMax_planexe; ///< plane of maximum energy release (independent mode) or last plane used for energy measurement (coherent mode) for section XE
    Int_t fMax_planexo; ///< plane of maximum energy release (independent mode) or last plane used for energy measurement (coherent mode) for section XO
    Int_t fMax_planeyo; ///< plane of maximum energy release (independent mode) or last plane used for energy measurement (coherent mode) for section YO
    Int_t fMax_planeye; ///< plane of maximum energy release (independent mode) or last plane used for energy measurement (coherent mode) for section YE
    Float_t fMax_plane; ///< average max plane [0,11] (independent mode) or last plane for energy measurement [0,43] (coherent mode)
    //
    Float_t fXOen_maxplane; ///< total energy [MIP] used for energy determination as given by section XO
    Float_t fYOen_maxplane; ///< total energy [MIP] used for energy determination as given by section YO
    Float_t fXEen_maxplane; ///< total energy [MIP] used for energy determination as given by section XE
    Float_t fYEen_maxplane; ///< total energy [MIP] used for energy determination as given by section YE
    //
    Float_t xe1; ///< position of strip  1 section XE
    Float_t xe2; ///< position of strip 32 section XE
    Float_t xe3; ///< position of strip 33 section XE
    Float_t xe4; ///< position of strip 64 section XE
    Float_t xe5; ///< position of strip 65 section XE
    Float_t xe6; ///< position of strip 96 section XE
    //    Float_t z1;
    Float_t yo1; ///< position of strip  1 section YO
    Float_t yo2; ///< position of strip 32 section YO
    Float_t yo3; ///< position of strip 33 section YO
    Float_t yo4; ///< position of strip 64 section YO
    Float_t yo5; ///< position of strip 65 section YO
    Float_t yo6; ///< position of strip 96 section YO
    //    Float_t z2;
    Float_t xo1; ///< position of strip  1 section XO
    Float_t xo2; ///< position of strip 32 section XO
    Float_t xo3; ///< position of strip 33 section XO
    Float_t xo4; ///< position of strip 64 section XO
    Float_t xo5; ///< position of strip 65 section XO
    Float_t xo6; ///< position of strip 96 section XO
    //    Float_t z3;
    Float_t ye1; ///< position of strip  1 section YE
    Float_t ye2; ///< position of strip 32 section YE
    Float_t ye3; ///< position of strip 33 section YE
    Float_t ye4; ///< position of strip 64 section YE
    Float_t ye5; ///< position of strip 65 section YE
    Float_t ye6; ///< position of strip 96 section YE
    //    Float_t z4;
    Float_t trk_z[22][2]; ///< Z position of calorimeter planes
    Float_t en; ///< energy [mip] for decodeestrip
    Int_t view; ///< view for decodeestrip
    Int_t plane; ///< plane for decodeestrip
    Int_t strip; ///< strip for decodeestrip
    Int_t fRad; ///< Radius [strip] of the cylinder used to integrate the energy along the track, if negative radius is inf (the whole plane is used). Default: -1
    Int_t fNumSec; ///< Number of sections given by the user
    Float_t energyxe; ///< 11 planes detected energy [MIP] for section XE
    Float_t energyyo; ///< 11 planes detected energy [MIP] for section YO
    Float_t energyxo; ///< 11 planes detected energy [MIP] for section XO
    Float_t energyye; ///< 11 planes detected energy [MIP] for section YE
    Float_t en_xep[11]; ///< detected energy [MIP] for each plane of section XE
    Float_t en_yop[11]; ///< detected energy [MIP] for each plane of section YO
    Float_t en_xop[11]; ///< detected energy [MIP] for each plane of section XO
    Float_t en_yep[11]; ///< detected energy [MIP] for each plane of section YE
    Float_t enstrip[2][22][96]; ///< detected energy [MIP] for each strip of calorimeter
    //
    Bool_t fXosel; ///< true if event is contained in section XO
    Bool_t fXesel; ///< true if event is contained in section XE
    Bool_t fYosel; ///< true if event is contained in section YO   
    Bool_t fYesel; ///< true if event is contained in section YE
    Bool_t fSel; ///< true if event is contained in at least one of the given section (independet mode) or in all the given section (coherent mode)
    Bool_t fPartsel; ///< true if the event is contained only up to the last plane used for energy determination (can be used in conjunction with fXXmin)
    Int_t fXeout; ///< last plane [0,11] for which the trajectory is contained in section XE
    Int_t fYeout; ///< last plane [0,11] for which the trajectory is contained in section YE
    Int_t fXoout; ///< last plane [0,11] for which the trajectory is contained in section XO
    Int_t fYoout; ///< last plane [0,11] for which the trajectory is contained in section YO
    Int_t fXomin; ///< last plane [0,11] for which the trajectory MUST be contained in section XO. Default 1000 means all the planes, if less than 10 events can be only partially contained in a section (NB: THIS INTRODUCE AN ENERGY DEPENDENT SELECTION CONTAINMENT EFFICIENCY)
    Int_t fXemin; ///< last plane [0,11] for which the trajectory MUST be contained in section XE. Default 1000 means all the planes, if less than 10 events can be only partially contained in a section (NB: THIS INTRODUCE AN ENERGY DEPENDENT SELECTION CONTAINMENT EFFICIENCY)
    Int_t fYomin; ///< last plane [0,11] for which the trajectory MUST be contained in section YO. Default 1000 means all the planes, if less than 10 events can be only partially contained in a section (NB: THIS INTRODUCE AN ENERGY DEPENDENT SELECTION CONTAINMENT EFFICIENCY)
    Int_t fYemin; ///< last plane [0,11] for which the trajectory MUST be contained in section YE. Default 1000 means all the planes, if less than 10 events can be only partially contained in a section (NB: THIS INTRODUCE AN ENERGY DEPENDENT SELECTION CONTAINMENT EFFICIENCY)
    //
    Bool_t fSimu; ///< true if we are using simulated data, default false
    Bool_t indep; ///< flag to switch between INDEPENDENT or COHERENT mode, default false - COHERENT mode selected
    //
    CaloPreSampler *cp; ///< pointer to calopresampler object (object constructed only when invoking method UseCaloPreSampler() , default: use level2 data).
    //
    void DefineGeometry(); ///< called by constructors to fill geometrical variables (like xe1 etc).
    void Set(); ///< called by contructors to define default variables

 public:
    //
    CaloEnergy(); ///< default constructor (does nothing)
    CaloEnergy(PamLevel2 *L2); ///< constructor
    CaloEnergy(PamLevel2 *L2, Bool_t simulation); ///< constructor
    ~CaloEnergy(){ Delete(); }; ///< default destructor
    //
    void SetDebug(Bool_t d){ debug=d; }; ///< set the debug flag (verbose print-out on STDOUT), default is false
    //
    void Clear(); ///< clear varibles
    void Clear(Option_t *option){Clear();}; ///< compatibility with TObject
    void Delete(); ///< delete object
    void Delete(Option_t *option){Delete();}; ///< compatibility with TObject
    //
    void Process(); ///< Process the event
    void Process(TString section);  ///< Process the event for section "section"
    void Print(); ///< Print variables on STDOUT
    void Print(Option_t *option){Print();}; ///< compatibility with TObject
    //
    Bool_t IsInsideAcceptance(TString section); ///< returns true if event is inside acceptance of the given sections (all if coherent mode, at least one in independent mode)
    Bool_t IsInsideReducedAcceptance(){return fPartsel;}; ///< returns true if the event is inside acceptance only up to the last used plane (see fXomin etc)
    //
    Bool_t IsInsideXE(){return(IsInsideAcceptance("XE"));};
    Bool_t InsideXEcheck(){return fXesel;};
    Bool_t IsInsideXO(){return(IsInsideAcceptance("XO"));};
    Bool_t InsideXOcheck(){return fXosel;};
    Bool_t IsInsideYE(){return(IsInsideAcceptance("YE"));};
    Bool_t InsideYEcheck(){return fYesel;};
    Bool_t IsInsideYO(){return(IsInsideAcceptance("YO"));};
    Bool_t InsideYOcheck(){return fYosel;};
    //
    Float_t GetEnergy(){ Process(); return fEnergy;}; ///< returns the energy [GV] determined for this event
    Float_t GetEnergy(TString section){ Process(section); return fEnergy;}; ///< returns the energy [GV] determined for this event
    Float_t GetCount(){ return fCount;}; ///< returns the number of section inside acceptance for this event (equal to the number of given section in coherent mode)
    //
    Float_t GetMaxplane(){ return fMax_plane;}; ///< returns the average max plane [0,11] (independent mode) or last plane for energy measurement [0,43] (coherent mode)    
    //
    Float_t GetMaxEnergy(){ return((fXEen_maxplane+fYOen_maxplane+fYEen_maxplane+fXOen_maxplane));}; ///< returns the total energy [MIP] before conversion
    Float_t GetMaxEnergy(TString section); ///< returns the total energy [MIP] before conversion for section "section"
    Int_t GetMaxplane(TString section); ///< returns the plane of maximum (independent mode) or the last used plane (coherent mode) for section "section"
    //
    void UseLongitudinalFitEnergy(){ fPl = 0; fLong = true;}; ///< use or not the longitudinal fit to determine the energy (NOT IMPLEMENTED YET)
    void UseMeasuredEnergyUpToMax(){ fLong = false;}; ///< use the measured energy to determine the maximum (default)
    //
    void SetMargin(Float_t margin){fM = margin + 0.096; fM1 = margin - 0.122 - 0.096; if ( fM1 < 0. ) fM1 = 0.;}; ///< set the margin from the border of the silicon sensor (not from the first strip), set the same margin for both the directions
    void SetMarginStripDirection(Float_t margin){fM = margin + 0.096;}; ///< set the margin from the border of the silicon sensor (not from the first strip) in the strip direction
    void SetMarginStripReading(Float_t margin){fM1 = margin -0.122 - 0.096;};  ///< set the margin from the border of the silicon sensor (not from the first strip) in the strip reading direction
    void SetRadius(Int_t strip){fRad = strip;}; ///< set the radius of the cylinder
    void SetMaxPlaneOffset(Int_t noplanes){fPl = noplanes;}; ///< set the number of dE/dx measurements to be used after the maximum
    //
    void SetMinimumContainment(Int_t plane); ///< set the last plane [0,11] for which the trajectory MUST be contained in all the sections. Default 1000 means all the planes, if less than 10 events can be only partially contained in a section (NB: THIS INTRODUCE AN ENERGY DEPENDENT SELECTION CONTAINMENT EFFICIENCY)
    void SetMinimumContainment(TString section, Int_t plane); ///< set the last plane [0,11] for which the trajectory MUST be contained in section "section". Default 1000 means all the planes, if less than 10 events can be only partially contained in a section (NB: THIS INTRODUCE AN ENERGY DEPENDENT SELECTION CONTAINMENT EFFICIENCY)
    Int_t GetMinimumContainment(TString section); ///< get the last plane [0,11] for which the trajectory MUST be contained in section "section".
    //
    void SetConversionFactor(Float_t conv_r); ///< Set the MIP-GV conversion factor for all the four sections.
    void SetConversionFactor(TString section, Float_t conv_r); ///< Set the MIP-GV conversion factor for section "section".
    Float_t GetConversionFactor(TString section); ///< Get the MIP-GV conversion factor for section "section".
    //
    void IndependentMode(){ indep = true; }; ///< Set the independent mode
    void CoherentMode(){ indep = false; }; ///< Set the coherent mode
    //
    void UseCaloPreSampler(); ///< use pre-sampler routine to refit the track (level2 default fitting could be wrong, in this case we force "shower fitting" in the DV library).
    CaloPreSampler* GetCaloPreSampler(){return cp;}; ///< Get pre-sampler object.
    //
    ClassDef(CaloEnergy,1);
};

#endif