Mainly filling/storing the hit event structure at the end of an event. More...

#include <QweakSimEventAction.hh>

Inherits G4UserEventAction.

Collaboration diagram for QweakSimEventAction:

Public Member Functions
	QweakSimEventAction (QweakSimAnalysis AN, QweakSimUserInformation myUI)
	Constructor. More...

virtual	~QweakSimEventAction ()
	Destructor. More...

void	BeginOfEventAction (const G4Event *evt)

void	EndOfEventAction (const G4Event *evt)

void	ShowTrigger ()

void	SetTrigger (const G4String value, const G4bool status)

void	EnableTrigger (const G4String value)

void	DisableTrigger (const G4String value)

void	SetPrintHits (bool value)

Private Member Functions
void	Initialize ()

G4double	GetDistance (G4ThreeVector, G4ThreeVector)

void	CalculateKinematicVariables ()

G4double	CalculateRate (G4double xsec, G4int PEs)

Private Attributes
bool	printhits

QweakSimEventActionMessenger *	fEventActionMessenger

std::vector< G4bool >	fTrigger

std::vector< G4String >	fTriggerName

std::map< G4String, EQweakSimTriggerMode >	kMapTriggerMode

G4int	TargetDetector_CollID

G4int	GEM_WirePlane_CollID

G4int	HDC_WirePlane_CollID

G4int	VDC_WirePlane_CollID

G4int	VDC_DriftCellFront_CollID

G4int	VDC_DriftCellBack_CollID

G4int	TriggerScintillatorDetector_CollID

G4int	TriggerScintillatorPMT_CollID

G4int	LeadGlassDetector_CollID

G4int	LeadGlassPMT_CollID

G4int	PMTOnlyDetector_CollID

G4int	PMTOnlyDetectorPMT_CollID

G4int	LumiDetector_CollID

G4int	TungstenPlugDetector_CollID

G4int	CerenkovDetector_CollID

G4int	CerenkovRadiator_CollID

G4int	CerenkovDetectorPMT_CollID

QweakSimAnalysis *	analysis

QweakSimUserInformation *	myUserInfo

Static Private Attributes
static const G4bool	print_VDC_WirePlaneHit = false

static const G4bool	print_VDC_DriftCellHit = false

static const G4bool	print_TriggerScintillator_DetectorHit = false

static const G4bool	print_Cerenkov_DetectorHit = false

static const int	PmtMaxSize = 18

Detailed Description

Mainly filling/storing the hit event structure at the end of an event.

Placeholder for a long explaination

Definition at line 54 of file QweakSimEventAction.hh.

Constructor & Destructor Documentation

QweakSimEventAction::QweakSimEventAction	(	QweakSimAnalysis *	AN,
		QweakSimUserInformation *	myUI
	)

Constructor.

Constructor of QweakSimEventAction

Parameters

AN	class containing the Geamt4 hit data structure
myUI	class containing user information like Q2 for this event or QE of some PMTs which is needed for processing/saving hit information

Definition at line 52 of file QweakSimEventAction.cc.

References CerenkovDetector_CollID, CerenkovDetectorPMT_CollID, CerenkovRadiator_CollID, fEventActionMessenger, fTrigger, fTriggerName, GEM_WirePlane_CollID, HDC_WirePlane_CollID, kMapTriggerMode, kNumTriggers, kTrigger3Fold, kTrigger4Fold, kTriggerAll, kTriggerCer, kTriggerHDC, kTriggerLeadGlass, kTriggerLumi, kTriggerPMTOnly, kTriggerScint, kTriggerTungstenPlug, LeadGlassDetector_CollID, LeadGlassPMT_CollID, LumiDetector_CollID, PMTOnlyDetector_CollID, PMTOnlyDetectorPMT_CollID, printhits, TargetDetector_CollID, TriggerScintillatorDetector_CollID, TriggerScintillatorPMT_CollID, TungstenPlugDetector_CollID, VDC_DriftCellBack_CollID, VDC_DriftCellFront_CollID, and VDC_WirePlane_CollID.

 : analysis(AN),myUserInfo(UI)
 {
 //---------------------------------------------------------------------------------------------
 //! Constructor of QweakSimEventAction
     /*!
 
     \param  AN     class containing the Geamt4 hit data structure
     \param  myUI   class containing user information like Q2 for this event or QE of some PMTs
                                          which is needed for processing/saving hit information
 
 
     */
 //---------------------------------------------------------------------------------------------
 
 
     TargetDetector_CollID              = -1;
     GEM_WirePlane_CollID               = -1;
     HDC_WirePlane_CollID               = -1;
     VDC_WirePlane_CollID               = -1;
     VDC_DriftCellFront_CollID          = -1;
     VDC_DriftCellBack_CollID           = -1;
     TriggerScintillatorDetector_CollID = -1;
     TriggerScintillatorPMT_CollID      = -1;
     LeadGlassDetector_CollID           = -1;
     LeadGlassPMT_CollID                = -1;
     PMTOnlyDetector_CollID         = -1;
     PMTOnlyDetectorPMT_CollID        = -1;
     LumiDetector_CollID                = -1;
     TungstenPlugDetector_CollID        = -1;
     CerenkovDetector_CollID            = -1;
     CerenkovRadiator_CollID            = -1;
     CerenkovDetectorPMT_CollID         = -1;
 
     // Event action messenger
     fEventActionMessenger = new QweakSimEventActionMessenger(this);
 
     // Initialize map from string to trigger mode
     fTrigger.resize(kNumTriggers, false);
     fTriggerName.resize(kNumTriggers);
     if (kMapTriggerMode.size() == 0) {
         kMapTriggerMode["all"]   = kTriggerAll;
         fTriggerName[kTriggerAll] = "all";
         kMapTriggerMode["4fold"] = kTrigger4Fold;
         fTriggerName[kTrigger4Fold] = "4fold";
         kMapTriggerMode["3fold"] = kTrigger3Fold;
         fTriggerName[kTrigger3Fold] = "3fold";
         kMapTriggerMode["scint"] = kTriggerScint;
         fTriggerName[kTriggerScint] = "scint";
         kMapTriggerMode["leadglass"] = kTriggerLeadGlass;  // trigger for the lead glass
         fTriggerName[kTriggerLeadGlass] = "leadglass";
         // kMapTriggerMode["gem"]   = kTriggerGEM;
         // fTriggerName[kTriggerGEM] = "gem";
         kMapTriggerMode["cer"]   = kTriggerCer;
         fTriggerName[kTriggerCer] = "cer";
   kMapTriggerMode["hdc"] = kTriggerHDC;
   fTriggerName[kTriggerHDC] = "hdc";
   kMapTriggerMode["pmtonly"] = kTriggerPMTOnly;
   fTriggerName[kTriggerPMTOnly] = "pmtonly";
         kMapTriggerMode["wplug"] = kTriggerTungstenPlug;
   fTriggerName[kTriggerTungstenPlug] = "wplug";
         fTriggerName[kTriggerLumi] = "lumi";
         kMapTriggerMode["lumi"] = kTriggerLumi;  // trigger for the lumi
     }
     if (kMapTriggerMode.size() != kNumTriggers)
         G4cout << "Number of software triggers is not defined correctly!" << G4endl;
 
     // Initialize software trigger to false
     for (size_t iTrigger = 0; iTrigger < fTrigger.size(); iTrigger++)
         fTrigger[iTrigger] = false;
 
     // By default enable only cerenkov trigger
     fTrigger[kTriggerCer] = true;
 
     // By default, enable print out of hit information
     printhits = true;
 }

QweakSimEventAction::~QweakSimEventAction ( )

virtual

Destructor.

Definition at line 131 of file QweakSimEventAction.cc.

References fEventActionMessenger.

 {
     // Delete the event action messenger
     if (fEventActionMessenger) delete fEventActionMessenger;
 }

Member Function Documentation

void QweakSimEventAction::BeginOfEventAction ( const G4Event * evt )

Definition at line 155 of file QweakSimEventAction.cc.

References CerenkovDetector_CollID, CerenkovDetectorPMT_CollID, CerenkovRadiator_CollID, HDC_WirePlane_CollID, LeadGlassDetector_CollID, LumiDetector_CollID, PMTOnlyDetector_CollID, PMTOnlyDetectorPMT_CollID, TargetDetector_CollID, TriggerScintillatorDetector_CollID, TungstenPlugDetector_CollID, VDC_DriftCellBack_CollID, VDC_DriftCellFront_CollID, and VDC_WirePlane_CollID.

 {
     G4SDManager * SDman = G4SDManager::GetSDMpointer();
 
     // check for existing Target Collection ID (if it's -1 it will be assigned)
     if (TargetDetector_CollID==-1) {
         TargetDetector_CollID = SDman->GetCollectionID("TargetSD/TargetCollection");
     }
 
     // check for existing GEM_WirePlane Collection ID (if it's -1 it will be assigned)
 //     if (GEM_WirePlane_CollID==-1) {
 //         GEM_WirePlane_CollID = SDman->GetCollectionID("GEMWirePlaneSD/GEMWirePlaneCollection");
 //     }
 
     // check for existing HDC_WirePlane Collection ID (if it's -1 it will be assigned)
     if (HDC_WirePlane_CollID==-1) {
         HDC_WirePlane_CollID = SDman->GetCollectionID("HDCWirePlaneSD/HDCWirePlaneCollection");
     }
 
     // check for existing VDC_WirePlane Collection ID (if it's -1 it will be assigned)
     if (VDC_WirePlane_CollID==-1) {
         VDC_WirePlane_CollID = SDman->GetCollectionID("VDCWirePlaneSD/VDCWirePlaneCollection");
     }
 
     // check for existing VDC_DriftCellFront Collection ID (if it's -1 it will be assigned)
     if (VDC_DriftCellFront_CollID==-1) {
         VDC_DriftCellFront_CollID = SDman->GetCollectionID("VDCDriftCellFrontSD/DriftCellFrontCollection");
     }
 
     // check for existing VDC_DriftCellBack Collection ID (if it's -1 it will be assigned)
     if (VDC_DriftCellBack_CollID==-1) {
         VDC_DriftCellBack_CollID = SDman->GetCollectionID("VDCDriftCellBackSD/DriftCellBackCollection");
     }
 
     // check for existing TriggerScintillator Collection ID (if it's -1 it will be assigned)
     if (TriggerScintillatorDetector_CollID==-1) {
         TriggerScintillatorDetector_CollID = SDman->GetCollectionID("TriggerScintillatorSD/TriggerScintillatorCollection");
     }
 
     // check for existing LeadGlass Collection ID (if it's -1 it will be assigned)
     if (LeadGlassDetector_CollID==-1) {
         LeadGlassDetector_CollID = SDman->GetCollectionID("LeadGlassSD/LeadGlassCollection");
     }
 
     // check for existing PMTOnly Collection ID (if it's -1 it will be assigned)
     if (PMTOnlyDetector_CollID==-1) {
         PMTOnlyDetector_CollID = SDman->GetCollectionID("PMTOnlySD/PMTOnlyCollection");
     }
 
     // check for existing PMTOnly Collection ID (if it's -1 it will be assigned)
     if (PMTOnlyDetectorPMT_CollID==-1) {
         PMTOnlyDetectorPMT_CollID = SDman->GetCollectionID("PMTOnly_PMTSD/PMTHitCollection");
     }
 
     // check for existing LumiDetector Collection ID (if it's -1 it will be assigned)
     if (LumiDetector_CollID==-1) {
         // Do we want to change this so that both US and DS lumis have the same SD?
         LumiDetector_CollID = SDman->GetCollectionID("USLumiSD/LumiCollection");
     }
 
     // check for existing TungstenPlug Collection ID (if it's -1 it will be assigned)
     if (TungstenPlugDetector_CollID==-1) {
         TungstenPlugDetector_CollID = SDman->GetCollectionID("TungstenPlugSD/TungstenPlugCollection");
     }
 
     // check for existing CerenkovDetector Collection ID (if it's -1 it will be assigned)
     if (CerenkovDetector_CollID==-1) {
         CerenkovDetector_CollID = SDman->GetCollectionID("CerenkovDetectorSD/CerenkovDetectorCollection");
     }
 
     // check for existing CerenkovRadiator Collection ID (if it's -1 it will be assigned)
     if (CerenkovRadiator_CollID==-1) {
         CerenkovRadiator_CollID = SDman->GetCollectionID("CerenkovRadiatorSD/CerenkovRadiatorCollection");
     }
 
     // check for existing CerenkovDetectorPMT Collection ID (if it's -1 it will be assigned)
     if (CerenkovDetectorPMT_CollID==-1) {
         CerenkovDetectorPMT_CollID = SDman->GetCollectionID("CerenkovPMTSD/PMTHitCollection");
     }
 }

void QweakSimEventAction::CalculateKinematicVariables ( )

private

Definition at line 2896 of file QweakSimEventAction.cc.

Referenced by EndOfEventAction().

 {
   // Vertex Kinematic variables
   // These variables are only valid for events generated with the standard
   // generator (not the lookup table).
   G4double mp    = 938.2796*MeV;
   G4double E_in  = myUserInfo->GetPreScatteringKineticEnergy() + 0.511*MeV;
   G4double E_out = myUserInfo->GetOriginVertexTotalEnergy();
   G4double theta = myUserInfo->GetOriginVertexThetaAngle();
 
 
   std::vector<Float_t> TargetLocalVertexTotalEnergy = analysis->fRootEvent->Target.Detector.GetDetectorLocalVertexTotalEnergy();
   std::vector<Float_t> TargetGlobalThetaAngle = analysis->fRootEvent->Target.Detector.GetGlobalThetaAngle();
 
   G4double nu    = E_in - E_out;
   G4double q2    = 4.0*E_in*E_out*sin(theta*degree/2.0)*sin(theta*degree/2.0);
   G4double x     = q2/(2.0*mp*nu);
   G4double w     = sqrt(mp*mp+2.0*mp*nu-q2);
 
   myUserInfo->StoreOriginVertexKinematicNu(nu);
   myUserInfo->StoreOriginVertexKinematicQ2(q2*0.000001);
   myUserInfo->StoreOriginVertexKinematicX(x);
   myUserInfo->StoreOriginVertexKinematicW(w);
 
   //G4cout << "==== Vertex Kinematics ====" << G4endl;
   //G4cout << "E_in:         " << E_in  << G4endl;
   //G4cout << "E_out:        " << E_out << G4endl;
   //G4cout << "Theta:        " << theta << G4endl;
   //G4cout << "Nu:           " << nu << G4endl;
   //G4cout << "Q2:           " << q2 << G4endl;
   //G4cout << "X:            " << x << G4endl;
   //G4cout << "W:            " << w << G4endl;
 
   
   // "Effective" kinematic variables
   //  Calculates the "effective" or "detected" kinematic variables.
   //  E_out and theta are grabbed from the target detector at the 
   //  target's exit window.  Since ReactionType 7 bypasses the target, 
   //  OriginVertex values are used instead.
 
   E_in  = myUserInfo->GetBeamEnergy();
   if (myUserInfo->GetReactionType() == 7 ||
       myUserInfo->GetReactionType() == 100) {
     E_out = myUserInfo->GetOriginVertexTotalEnergy(); 
     theta = myUserInfo->GetOriginVertexThetaAngle(); 
   }
   else {
     if (TargetLocalVertexTotalEnergy.size() > 0)
       E_out = TargetLocalVertexTotalEnergy[0];
     else
       E_out = -1.0 * GeV;
     if (TargetGlobalThetaAngle.size() > 0)
       theta = TargetGlobalThetaAngle[0];
     else {
       G4cerr << "no hits in scattering chamber" << G4endl;
       theta = -180.0 * deg;
     }
   }
 
   nu    = E_in - E_out;
   q2    = 4.0*E_in*E_out*sin(theta*degree/2.0)*sin(theta*degree/2.0);
   x     = q2/(2.0*mp*nu);
   w     = sqrt(mp*mp+2.0*mp*nu-q2);
 
   myUserInfo->StoreEffectiveKinematicNu(nu);
   myUserInfo->StoreEffectiveKinematicQ2(q2*0.000001);
   myUserInfo->StoreEffectiveKinematicX(x);
   myUserInfo->StoreEffectiveKinematicW(w);
 
   //G4cout << "==== Effective Kinematics ====" << G4endl;
   //G4cout << "E_in:         " << E_in  << G4endl;
   //G4cout << "E_out:        " << E_out << G4endl;
   //G4cout << "Theta:        " << theta << G4endl;
   //G4cout << "Nu:           " << nu << G4endl;
   //G4cout << "Q2:           " << q2 << G4endl;
   //G4cout << "X:            " << x << G4endl;
   //G4cout << "W:            " << w << G4endl;
   //G4cout << "@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@@" << G4endl;
 }

Here is the call graph for this function:

Here is the caller graph for this function:

G4double QweakSimEventAction::CalculateRate	(	G4double	xsec,
		G4int	PEs
	)

private

Definition at line 2984 of file QweakSimEventAction.cc.

References QweakSimUserInformation::GetLuminosity(), QweakSimUserInformation::GetNumberOfEventToBeProcessed(), QweakSimUserInformation::GetPhaseSpace(), and myUserInfo.

Referenced by EndOfEventAction().

 {
   G4double rate = 2.0*myUserInfo->GetPhaseSpace()*myUserInfo->GetLuminosity()*xsec*PEs/myUserInfo->GetNumberOfEventToBeProcessed();
   return rate;
 }

Here is the call graph for this function:

Here is the caller graph for this function:

void QweakSimEventAction::DisableTrigger ( const G4String value )

inline

Definition at line 71 of file QweakSimEventAction.hh.

References SetTrigger().

Referenced by QweakSimEventActionMessenger::SetNewValue().

71 { SetTrigger(value, false); };

QweakSimEventAction::SetTrigger

void SetTrigger(const G4String value, const G4bool status)

Definition: QweakSimEventAction.cc:146

Here is the call graph for this function:

Here is the caller graph for this function:

void QweakSimEventAction::EnableTrigger ( const G4String value )

inline

Definition at line 70 of file QweakSimEventAction.hh.

References SetTrigger().

Referenced by QweakSimEventActionMessenger::SetNewValue().

70 { SetTrigger(value, true); };

QweakSimEventAction::SetTrigger

void SetTrigger(const G4String value, const G4bool status)

Definition: QweakSimEventAction.cc:146

Here is the call graph for this function:

Here is the caller graph for this function:

void QweakSimEventAction::EndOfEventAction ( const G4Event * evt )

Definition at line 238 of file QweakSimEventAction.cc.

                                                              {
 
 //-----------------------------------------------------------------------------
 // I'm playing with the QweakSimTrajectory
 // Startup: LXe example
 // Goal: sace track or track points into ROOT file
 //
     G4TrajectoryContainer* trajectoryContainer = evt->GetTrajectoryContainer();
 
     G4int n_trajectories = 0;
 
     if (trajectoryContainer) n_trajectories = trajectoryContainer->entries();
 
     // extract the trajectories and draw them
     if (G4VVisManager::GetConcreteInstance()) {
 
         for (G4int i=0; i<n_trajectories; i++) {
 
             QweakSimTrajectory* trj = (QweakSimTrajectory*) ((*(evt->GetTrajectoryContainer()))[i]);
             trj->DrawTrajectory();
 
         }
     }
 
 //-----------------------------------------------------------------------------
 
     // preset variables for hit collection
     Initialize();
 
     // Get event number
     G4int myEventCounter = myUserInfo->GetPrimaryEventNumber();
 
 
     // Odd events: generated upstream and used to calculate prescattering energy loss
     if (myEventCounter%2 == 1) {
 
       // Initialize Primary information
       analysis->fRootEvent->Primary.Initialize();
 
       // Store random seed
       G4String RandomSeed = evt->GetRandomNumberStatus();
       analysis->fRootEvent->Primary.StoreRandomSeed(TString(RandomSeed));
 
       // That's all for the prescattering energy loss events
       return;
     }
 
 
     // Get hit collection
     G4HCofThisEvent * HCE = evt->GetHCofThisEvent();
 
     // initialize HitsCollection pointers
     QweakSimTarget_DetectorHitsCollection*              TargetDetector_HC              = 0;
     //QweakSimGEM_WirePlane_HitsCollection*               GEM_WirePlane_HC               = 0;
     QweakSimHDC_WirePlane_HitsCollection*               HDC_WirePlane_HC               = 0;
     QweakSimVDC_WirePlane_HitsCollection*               VDC_WirePlane_HC               = 0;
     QweakSimVDC_DriftCellHitsCollection*                VDC_DriftCellFront_HC          = 0;
     QweakSimVDC_DriftCellHitsCollection*                VDC_DriftCellBack_HC           = 0;
     QweakSimTriggerScintillator_DetectorHitsCollection* TriggerScintillatorDetector_HC = 0;
     //QweakSimTriggerScintillator_PMTHitsCollection*      TriggerScintillatorPMT_HC      = 0;
     QweakSimLeadGlass_DetectorHitsCollection*           LeadGlassDetector_HC           = 0;
     //QweakSimLeadGlass_PMTHitsCollection*                LeadGlassPMT_HC                = 0;
     QweakSimPMTOnly_DetectorHitsCollection*             PMTOnlyDetector_HC             = 0;
     QweakSimPMTOnly_PMTHitsCollection*                  PMTOnlyPMT_HC          = 0;
     QweakSimLumi_DetectorHitsCollection*                LumiDetector_HC                = 0;
     QweakSimTungstenPlug_DetectorHitsCollection*        TungstenPlugDetector_HC     = 0;
     QweakSimCerenkovDetectorHitsCollection*             CerenkovDetector_HC            = 0;
     QweakSimCerenkovRadiatorHitsCollection*             CerenkovRadiator_HC            = 0;
     QweakSimCerenkovDetector_PMTHitsCollection*         CerenkovDetectorPMT_HC         = 0;
 
     G4int n_hitTarget = 0;
     //G4int n_GEMhitWirePlane = 0;
     G4int n_HDChitWirePlane = 0;
     G4int n_VDChitWirePlane = 0;
     G4int n_VDChitDCFront = 0;
     G4int n_VDChitDCBack = 0;
     G4int n_hitTriggerScintillator = 0;
     //G4int n_hitTriggerScintillatorPMT = 0;
     G4int n_hitLeadGlass = 0;
     //G4int n_hitLeadGlassPMT = 0;
     G4int n_hitPMTOnly = 0;
     G4int n_hitPMTOnlyPMT = 0;
     G4int n_hitLumi = 0;
     G4int n_hitTungstenPlug = 0;
     G4int n_hitCerenkovDetector = 0;
     G4int n_hitCerenkovRadiator = 0;
     G4int n_hitCerenkovPMT = 0;
 
     if (HCE) {
 
         // get  Target Hit Collector pointer
         if (TargetDetector_CollID > -1) {
             TargetDetector_HC  = (QweakSimTarget_DetectorHitsCollection*)(HCE->GetHC(TargetDetector_CollID));
             n_hitTarget        = TargetDetector_HC -> entries();
         }
 
         // get  GEM_WirePlane Hit Collector pointer
         //GEM_WirePlane_HC       = (QweakSimGEM_WirePlane_HitsCollection*)(HCE->GetHC(GEM_WirePlane_CollID));
         //n_GEMhitWirePlane      = GEM_WirePlane_HC -> entries();
 
         // get  HDC_WirePlane Hit Collector pointer
         if (HDC_WirePlane_CollID > -1) {
             HDC_WirePlane_HC       = (QweakSimHDC_WirePlane_HitsCollection*)(HCE->GetHC(HDC_WirePlane_CollID));
             n_HDChitWirePlane      = HDC_WirePlane_HC  -> entries();
         }
 
         // get  VDC_WirePlane Hit Collector pointer
         if (VDC_WirePlane_CollID > -1) {
             VDC_WirePlane_HC       = (QweakSimVDC_WirePlane_HitsCollection*)(HCE->GetHC(VDC_WirePlane_CollID));
             n_VDChitWirePlane      = VDC_WirePlane_HC -> entries();
         }
 
         // get  VDC_DriftCellFront Hit Collector pointer
         if (VDC_DriftCellFront_CollID > -1) {
             VDC_DriftCellFront_HC  = (QweakSimVDC_DriftCellHitsCollection*)(HCE->GetHC(VDC_DriftCellFront_CollID));
             n_VDChitDCFront        = VDC_DriftCellFront_HC -> entries();
         }
 
         // get  VDC_DriftCellFront Hit Collector pointer
         if (VDC_DriftCellBack_CollID > -1) {
             VDC_DriftCellBack_HC   = (QweakSimVDC_DriftCellHitsCollection*)(HCE->GetHC(VDC_DriftCellBack_CollID));
             n_VDChitDCBack         = VDC_DriftCellBack_HC -> entries();
         }
 
         // get  TriggerScintillator Hit Collector pointer
         if (TriggerScintillatorDetector_CollID > -1) {
             TriggerScintillatorDetector_HC = (QweakSimTriggerScintillator_DetectorHitsCollection*)(HCE->GetHC(TriggerScintillatorDetector_CollID));
             n_hitTriggerScintillator       = TriggerScintillatorDetector_HC -> entries();
         }
 
         // get  TriggerScintillatorPMT Hit Collector pointer
         //if (TriggerScintillatorPMT_CollID > -1) {
         //    TriggerScintillatorPMT_HC   = (QweakSimTriggerScintillator_PMTHitsCollection*)(HCE->GetHC(TriggerScintillatorPMT_CollID));
         //    n_hitTriggerScintillatorPMT = TriggerScintillatorPMT_HC -> entries();
         //}
     
   // get  LeadGlass Hit Collector pointer
         if (LeadGlassDetector_CollID > -1) {
             LeadGlassDetector_HC  = (QweakSimLeadGlass_DetectorHitsCollection*)(HCE->GetHC(LeadGlassDetector_CollID));
             n_hitLeadGlass        = LeadGlassDetector_HC -> entries();
   }
     
         // get  LeadGlassPMT Hit Collector pointer
         //if (LeadGlassPMT_CollID > -1) {
         //    LeadGlassPMT_HC    = (QweakSimLeadGlass_PMTHitsCollection*)(HCE->GetHC(LeadGlassPMT_CollID));
         //    n_hitLeadGlassPMT  = LeadGlassPMT_HC -> entries();
         //}
 
         // get  PMTOnly Hit Collector pointer
         if (PMTOnlyDetector_CollID > -1) {
             PMTOnlyDetector_HC = (QweakSimPMTOnly_DetectorHitsCollection*)(HCE->GetHC(PMTOnlyDetector_CollID));
             n_hitPMTOnly = PMTOnlyDetector_HC->entries();
   }
   
   // get PMTOnly_PMT Hit Collection
   if (PMTOnlyDetectorPMT_CollID > -1) {
             PMTOnlyPMT_HC = (QweakSimPMTOnly_PMTHitsCollection*)(HCE->GetHC(PMTOnlyDetectorPMT_CollID));
             n_hitPMTOnlyPMT = PMTOnlyPMT_HC->entries();
   }
 
         // get  LumiDetector Hit Collector pointer
         if (LumiDetector_CollID > -1) {
             LumiDetector_HC    = (QweakSimLumi_DetectorHitsCollection*)(HCE->GetHC(LumiDetector_CollID));
             n_hitLumi          = LumiDetector_HC -> entries();
         }
   
         // get TungstenPlug Hit Collector pointer
         if (TungstenPlugDetector_CollID > -1) {
             TungstenPlugDetector_HC = (QweakSimTungstenPlug_DetectorHitsCollection*)(HCE->GetHC(TungstenPlugDetector_CollID));
             n_hitTungstenPlug = TungstenPlugDetector_HC->entries();
         }
 
         // get  CerenkovDetector Hit Collector pointer
         if (CerenkovDetector_CollID > -1) {
             CerenkovDetector_HC    = (QweakSimCerenkovDetectorHitsCollection*)(HCE->GetHC(CerenkovDetector_CollID));
             n_hitCerenkovDetector  = CerenkovDetector_HC -> entries();
         }
 
         // get  CerenkovRadiator Hit Collector pointer
         if (CerenkovRadiator_CollID > -1) {
             CerenkovRadiator_HC    = (QweakSimCerenkovRadiatorHitsCollection*)(HCE->GetHC(CerenkovRadiator_CollID));
             n_hitCerenkovRadiator  = CerenkovRadiator_HC -> entries();
         }
 
         // get  CerenkovDetectorPMT Hit Collector pointer
         if (CerenkovDetectorPMT_CollID > -1) {
             CerenkovDetectorPMT_HC = (QweakSimCerenkovDetector_PMTHitsCollection*)(HCE->GetHC(CerenkovDetectorPMT_CollID));
             n_hitCerenkovPMT       = CerenkovDetectorPMT_HC -> entries();
         }
     }
 
     if (printhits) {
       G4cout << "Target " << n_hitTarget
              << ",\tHDC " << n_HDChitWirePlane
              << ",\tVDC_Front " << n_VDChitDCFront
              << ",\tVDC_Back " << n_VDChitDCBack
              << ",\tTS " << n_hitTriggerScintillator
              << ",\tLeadGlass " << n_hitLeadGlass
              << ",\tPMTOnly " << n_hitPMTOnly
              << ",\tPMTOnlyPMT " << n_hitPMTOnlyPMT
              << ",\tLumi " << n_hitLumi
              << ",\tTungstenPlug " << n_hitTungstenPlug
              << ",\tCerenkovRad " << n_hitCerenkovRadiator
              << ",\tCerenkovDet " << n_hitCerenkovDetector
              << ",\tCerenkovPMT " << n_hitCerenkovPMT << G4endl;
     }
 
 
     // Initialize/Clear Event variables in target scattering window
     analysis->fRootEvent->Target.Detector.Initialize();
 
     // Initialize/Clear Event variables, initialize Cerenkov Detector with NoHit Flag
     analysis->fRootEvent->Cerenkov.Detector.Initialize();
     analysis->fRootEvent->Cerenkov.Radiator.Initialize();
     analysis->fRootEvent->Cerenkov.PMT.Initialize();
 
     // Initialize/Clear Event variables in Region 1
     analysis->fRootEvent->Region1.ChamberFront.WirePlane.Initialize();
     analysis->fRootEvent->Region1.ChamberBack.WirePlane.Initialize();
 
     // Initialize/Clear Event variables in Region 2
     analysis->fRootEvent->Region2.ChamberFront.WirePlane1.Initialize();
     analysis->fRootEvent->Region2.ChamberFront.WirePlane2.Initialize();
     analysis->fRootEvent->Region2.ChamberFront.WirePlane3.Initialize();
     analysis->fRootEvent->Region2.ChamberFront.WirePlane4.Initialize();
     analysis->fRootEvent->Region2.ChamberFront.WirePlane5.Initialize();
     analysis->fRootEvent->Region2.ChamberFront.WirePlane6.Initialize();
     //
     analysis->fRootEvent->Region2.ChamberBack.WirePlane1.Initialize();
     analysis->fRootEvent->Region2.ChamberBack.WirePlane2.Initialize();
     analysis->fRootEvent->Region2.ChamberBack.WirePlane3.Initialize();
     analysis->fRootEvent->Region2.ChamberBack.WirePlane4.Initialize();
     analysis->fRootEvent->Region2.ChamberBack.WirePlane5.Initialize();
     analysis->fRootEvent->Region2.ChamberBack.WirePlane6.Initialize();
 
     // Initialize Region 3 wire planes (2: u,v ) with NoHit Flag
     analysis->fRootEvent->Region3.ChamberFront.WirePlaneU.Initialize();
     analysis->fRootEvent->Region3.ChamberFront.WirePlaneV.Initialize();
     //
     analysis->fRootEvent->Region3.ChamberBack.WirePlaneU.Initialize();
     analysis->fRootEvent->Region3.ChamberBack.WirePlaneV.Initialize();
 
     // Initialize DriftCells with NoHit Flag
     analysis->fRootEvent->Region3.ChamberFront.DriftCell.Initialize();
     //
     analysis->fRootEvent->Region3.ChamberBack.DriftCell.Initialize();
 
     // Initialize TriggerScintillator with NoHit Flag
     analysis->fRootEvent->TriggerScintillator.Detector.Initialize();
 
     // Initialize LeadGlass, PMTOnly, and TungstenPlug //--- with NoHit Flag
     analysis->fRootEvent->LeadGlass.Detector.Initialize();
     analysis->fRootEvent->PMTOnly.Detector.Initialize();
     analysis->fRootEvent->PMTOnly.PMT.Initialize();
     analysis->fRootEvent->Lumi.Detector.Initialize();
     analysis->fRootEvent->TungstenPlug.Detector.Initialize();
 
     //#########################################################################################################################
     //#########################################################################################################################
     //
     //                                 ================================================================
     //                                  The Main "Software DAQ Trigger": setting the coincidence level
     //
     //                                  or: what is required for filling the Root ntuple for this event
     //                                 =================================================================
     //
     //##########################################################################################################################
     //##########################################################################################################################
     //
     if ( fTrigger[kTriggerAll] /* Trigger on every event */
             || (fTrigger[kTrigger4Fold] && (n_VDChitWirePlane == 4) && (n_VDChitDCFront > 0) && (n_VDChitDCBack > 0) && (n_hitCerenkovDetector > 0) ) /* 4-fold coincidence */
             || (fTrigger[kTrigger3Fold] && (n_VDChitWirePlane >= 2) && (n_VDChitDCFront > 0) && (n_VDChitDCBack > 0) ) /* 3-fold coincidence */
             || (fTrigger[kTriggerScint] && (n_hitTriggerScintillator > 0) ) /* Qweak trigger on a hit in the trigger scintillator */
       || (fTrigger[kTriggerHDC]   && (n_HDChitWirePlane >= 6))         /* HDC Trigger */
             || (fTrigger[kTriggerLeadGlass] && (n_hitLeadGlass >0))         /* a hit in the LeadGlass */
             || (fTrigger[kTriggerPMTOnly] && (n_hitPMTOnly >0))         /* a hit in the PMTOnly */
             || (fTrigger[kTriggerLumi] && (n_hitLumi > 0))
             || (fTrigger[kTriggerTungstenPlug] && (n_hitTungstenPlug>0) )    // Hit on the TungstenPlug
             || (fTrigger[kTriggerCer]   && (n_hitCerenkovDetector > 0) )            /* Triggering on Main Detector */
        ) {
 
         //========================================
         // Store Primary Information into /Primary
         //========================================
 
         //-------------------------------------------------------------------------------------------
         G4int    PrimaryEventNumber = myUserInfo->GetPrimaryEventNumber();
         G4int    ReactionRegion = myUserInfo->GetReactionRegion();
         G4int    ReactionType = myUserInfo->GetReactionType();
         G4int    PDGcode = myUserInfo->GetPDGcode();
         G4int    TrackID = myUserInfo->GetTrackID();
         G4double GlobalTime = myUserInfo->GetGlobalTime();
         G4double PrimaryQ2 = myUserInfo->GetPrimaryQ2();
         G4double CrossSection = myUserInfo->GetCrossSection();
         G4double CrossSectionWeight = myUserInfo->GetCrossSectionWeight();
         G4double CrossSectionBornTotal     = myUserInfo->GetCrossSectionBornTotal();
         G4double CrossSectionBornInelastic = myUserInfo->GetCrossSectionBornInelastic();
         G4double CrossSectionBornQE        = myUserInfo->GetCrossSectionBornQE();
         G4double CrossSectionRadTotal      = myUserInfo->GetCrossSectionRadTotal();
         G4double CrossSectionRadElastic    = myUserInfo->GetCrossSectionRadElastic();
         G4double CrossSectionRadQE         = myUserInfo->GetCrossSectionRadQE();
         G4double CrossSectionRadDIS        = myUserInfo->GetCrossSectionRadDIS();
         G4double CrossSectionRadTotalIntOnly   = myUserInfo->GetCrossSectionRadTotalIntOnly();
         G4double CrossSectionRadElasticIntOnly = myUserInfo->GetCrossSectionRadElasticIntOnly();
         G4double CrossSectionRadQEIntOnly      = myUserInfo->GetCrossSectionRadQEIntOnly();
         G4double CrossSectionRadDISIntOnly     = myUserInfo->GetCrossSectionRadDISIntOnly();
         G4double CrossSectionRadElasticPeak    = myUserInfo->GetCrossSectionRadElasticPeak();
   G4double Asymmetry = myUserInfo->GetAsymmetry();
         G4double OriginVertexPositionX = myUserInfo->GetOriginVertexPositionX();
         G4double OriginVertexPositionY = myUserInfo->GetOriginVertexPositionY();
         G4double OriginVertexPositionZ = myUserInfo->GetOriginVertexPositionZ();
         G4double OriginVertexThetaAngle = myUserInfo->GetOriginVertexThetaAngle();
         G4double OriginVertexPhiAngle = myUserInfo->GetOriginVertexPhiAngle();
         G4double OriginVertexMomentumDirectionX = myUserInfo->GetOriginVertexMomentumDirectionX();
         G4double OriginVertexMomentumDirectionY = myUserInfo->GetOriginVertexMomentumDirectionY();
         G4double OriginVertexMomentumDirectionZ = myUserInfo->GetOriginVertexMomentumDirectionZ();
   G4double PreScatteringKineticEnergy = myUserInfo->GetPreScatteringKineticEnergy();
         G4double OriginVertexKineticEnergy = myUserInfo->GetOriginVertexKineticEnergy();
         G4double OriginVertexTotalEnergy = myUserInfo->GetOriginVertexTotalEnergy();
 
         G4int NumberOfEventToBeProcessed = myUserInfo->GetNumberOfEventToBeProcessed();
         G4double PhiAngle_Min            = myUserInfo->GetPhiAngle_Min();
         G4double PhiAngle_Max            = myUserInfo->GetPhiAngle_Max();
         G4double ThetaAngle_Min          = myUserInfo->GetThetaAngle_Min();
         G4double ThetaAngle_Max          = myUserInfo->GetThetaAngle_Max();
         G4double EPrime_Min              = myUserInfo->GetEPrime_Min();
         G4double EPrime_Max              = myUserInfo->GetEPrime_Max();
         G4double BeamEnergy              = myUserInfo->GetBeamEnergy();
         G4double Luminosity              = myUserInfo->GetLuminosity();
         G4double PhaseSpace              = myUserInfo->GetPhaseSpace();
         //CalculateKinematicVariables();
         //G4double OriginVertexKinematicNu = myUserInfo->GetOriginVertexKinematicNu();
         //G4double OriginVertexKinematicQ2 = myUserInfo->GetOriginVertexKinematicQ2();
         //G4double OriginVertexKinematicX  = myUserInfo->GetOriginVertexKinematicX();
         //G4double OriginVertexKinematicW  = myUserInfo->GetOriginVertexKinematicW();
         //G4double EffectiveKinematicNu    = myUserInfo->GetEffectiveKinematicNu();
         //G4double EffectiveKinematicQ2    = myUserInfo->GetEffectiveKinematicQ2();
         //G4double EffectiveKinematicX     = myUserInfo->GetEffectiveKinematicX();
         //G4double EffectiveKinematicW     = myUserInfo->GetEffectiveKinematicW();
 
         analysis->fRootEvent->Primary.StoreTrackID((Int_t) TrackID);
         analysis->fRootEvent->Primary.StoreGlobalTime((Float_t) GlobalTime);
         analysis->fRootEvent->Primary.StoreOriginVertexPositionX((Float_t) OriginVertexPositionX);
         analysis->fRootEvent->Primary.StoreOriginVertexPositionY((Float_t) OriginVertexPositionY);
         analysis->fRootEvent->Primary.StoreOriginVertexPositionZ((Float_t) OriginVertexPositionZ);
         analysis->fRootEvent->Primary.StoreOriginVertexMomentumDirectionX((Float_t) OriginVertexMomentumDirectionX);
         analysis->fRootEvent->Primary.StoreOriginVertexMomentumDirectionY((Float_t) OriginVertexMomentumDirectionY);
         analysis->fRootEvent->Primary.StoreOriginVertexMomentumDirectionZ((Float_t) OriginVertexMomentumDirectionZ);
         analysis->fRootEvent->Primary.StoreOriginVertexThetaAngle((Float_t) OriginVertexThetaAngle);
         analysis->fRootEvent->Primary.StoreOriginVertexPhiAngle((Float_t) OriginVertexPhiAngle);
   analysis->fRootEvent->Primary.StorePreScatteringKineticEnergy((Float_t) PreScatteringKineticEnergy);
         analysis->fRootEvent->Primary.StoreOriginVertexKineticEnergy((Float_t) OriginVertexKineticEnergy);
         analysis->fRootEvent->Primary.StoreOriginVertexTotalEnergy((Float_t) OriginVertexTotalEnergy);
         analysis->fRootEvent->Primary.StorePrimaryQ2((Float_t) PrimaryQ2);
         analysis->fRootEvent->Primary.StoreCrossSection((Float_t) CrossSection);
         analysis->fRootEvent->Primary.StoreCrossSectionWeight((Float_t) CrossSectionWeight);
         analysis->fRootEvent->Primary.StoreCrossSectionBornTotal    ((Float_t) CrossSectionBornTotal);
         analysis->fRootEvent->Primary.StoreCrossSectionBornInelastic((Float_t) CrossSectionBornInelastic);
         analysis->fRootEvent->Primary.StoreCrossSectionBornQE       ((Float_t) CrossSectionBornQE);
         analysis->fRootEvent->Primary.StoreCrossSectionRadTotal     ((Float_t) CrossSectionRadTotal);
         analysis->fRootEvent->Primary.StoreCrossSectionRadElastic   ((Float_t) CrossSectionRadElastic);
         analysis->fRootEvent->Primary.StoreCrossSectionRadQE        ((Float_t) CrossSectionRadQE);
         analysis->fRootEvent->Primary.StoreCrossSectionRadDIS       ((Float_t) CrossSectionRadDIS);
         analysis->fRootEvent->Primary.StoreCrossSectionRadTotalIntOnly  ((Float_t) CrossSectionRadTotalIntOnly);
         analysis->fRootEvent->Primary.StoreCrossSectionRadElasticIntOnly((Float_t) CrossSectionRadElasticIntOnly);
         analysis->fRootEvent->Primary.StoreCrossSectionRadQEIntOnly     ((Float_t) CrossSectionRadQEIntOnly);
         analysis->fRootEvent->Primary.StoreCrossSectionRadDISIntOnly    ((Float_t) CrossSectionRadDISIntOnly);
         analysis->fRootEvent->Primary.StoreCrossSectionRadElasticPeak   ((Float_t) CrossSectionRadElasticPeak);
   analysis->fRootEvent->Primary.StoreAsymmetry((Float_t) Asymmetry);
         analysis->fRootEvent->Primary.StorePrimaryEventNumber((Int_t) PrimaryEventNumber);
         analysis->fRootEvent->Primary.StoreReactionRegion((Int_t) ReactionRegion);
         analysis->fRootEvent->Primary.StoreReactionType((Int_t) ReactionType);
         analysis->fRootEvent->Primary.StorePDGcode((Int_t) PDGcode);
         analysis->fRootEvent->Primary.StoreNumberOfEventToBeProcessed((Int_t) NumberOfEventToBeProcessed);
         analysis->fRootEvent->Primary.StorePhiAngle_Min((Float_t) PhiAngle_Min/degree);
         analysis->fRootEvent->Primary.StorePhiAngle_Max((Float_t) PhiAngle_Max/degree);
         analysis->fRootEvent->Primary.StoreThetaAngle_Min((Float_t) ThetaAngle_Min/degree);
         analysis->fRootEvent->Primary.StoreThetaAngle_Max((Float_t) ThetaAngle_Max/degree);
         analysis->fRootEvent->Primary.StoreEPrime_Min((Float_t) EPrime_Min);
         analysis->fRootEvent->Primary.StoreEPrime_Max((Float_t) EPrime_Max);
         analysis->fRootEvent->Primary.StoreBeamEnergy((Float_t) BeamEnergy);
         analysis->fRootEvent->Primary.StoreLuminosity((Float_t) Luminosity);
         analysis->fRootEvent->Primary.StorePhaseSpace((Float_t) PhaseSpace);
         //analysis->fRootEvent->Primary.StoreOriginVertexKinematicNu((Float_t) OriginVertexKinematicNu);
         //analysis->fRootEvent->Primary.StoreOriginVertexKinematicQ2((Float_t) OriginVertexKinematicQ2);
         //analysis->fRootEvent->Primary.StoreOriginVertexKinematicX((Float_t) OriginVertexKinematicX);
         //analysis->fRootEvent->Primary.StoreOriginVertexKinematicW((Float_t) OriginVertexKinematicW);
         //analysis->fRootEvent->Primary.StoreEffectiveKinematicNu((Float_t) EffectiveKinematicNu);
         //analysis->fRootEvent->Primary.StoreEffectiveKinematicQ2((Float_t) EffectiveKinematicQ2);
         //analysis->fRootEvent->Primary.StoreEffectiveKinematicX((Float_t) EffectiveKinematicX);
         //analysis->fRootEvent->Primary.StoreEffectiveKinematicW((Float_t) EffectiveKinematicW);
 
   ////////
   // store energy loss variables into rootfile
   //  all Elosses are in MeV (see QweakSimSteppingAction.cc)
   analysis->fRootEvent->Primary.StoredEIonIn((Float_t) myUserInfo->GetdEIonIn());
   analysis->fRootEvent->Primary.StoredEIonOut((Float_t) myUserInfo->GetdEIonOut());
   analysis->fRootEvent->Primary.StoredEIonTot((Float_t) myUserInfo->GetdEIonTot());
   analysis->fRootEvent->Primary.StoredEBremIn((Float_t) myUserInfo->GetdEBremIn());
   analysis->fRootEvent->Primary.StoredEBremOut((Float_t) myUserInfo->GetdEBremOut());
   analysis->fRootEvent->Primary.StoredEBremTot((Float_t) myUserInfo->GetdEBremTot());
   analysis->fRootEvent->Primary.StoredEMscIn((Float_t) myUserInfo->GetdEMscIn());
   analysis->fRootEvent->Primary.StoredEMscOut((Float_t) myUserInfo->GetdEMscOut());
   analysis->fRootEvent->Primary.StoredEMscTot((Float_t) myUserInfo->GetdEMscTot());
   analysis->fRootEvent->Primary.StoredETotIn((Float_t) myUserInfo->GetdETotIn());
   analysis->fRootEvent->Primary.StoredETotOut((Float_t) myUserInfo->GetdETotOut());
   analysis->fRootEvent->Primary.StoredETot((Float_t) myUserInfo->GetdETot());
   ///////
 
         //==========================================================================================
 
         //===========================================
         // Store Number Of Hits of each Detector
         //===========================================
 
         // Store Number of Hits for: UPlane DriftCell of Front Chamber
         analysis->fRootEvent->Region3.ChamberFront.DriftCell.StoreUDriftCellNbOfHits(n_VDChitDCFront);
 
         // Store Number of Hits for: VPlane DriftCell of Front Chamber
         analysis->fRootEvent->Region3.ChamberFront.DriftCell.StoreVDriftCellNbOfHits(n_VDChitDCBack);
 
         // Store Number of Hits for: Cerenkov Detector
         analysis->fRootEvent->Cerenkov.Detector.StoreDetectorNbOfHits(n_hitCerenkovDetector);
     
         // Store Number of Hits for: Cerenkov Radiator
         analysis->fRootEvent->Cerenkov.Radiator.StoreDetectorNbOfHits(n_hitCerenkovRadiator);
 
         // Store Number of Hits for: Cerenkov PMT Detector
         analysis->fRootEvent->Cerenkov.PMT.StoreDetectorNbOfHits(n_hitCerenkovPMT);
 
         // Store Number of Hits for: Target Detector
         analysis->fRootEvent->Target.Detector.StoreDetectorNbOfHits(n_hitTarget);
 
         // Store Number of Hits for: LeadGlass Detector
         analysis->fRootEvent->LeadGlass.Detector.StoreDetectorNbOfHits(n_hitLeadGlass);
         
         // Store Number of Hits for: PMTOnly Detector
         analysis->fRootEvent->PMTOnly.Detector.StoreDetectorNbOfHits(n_hitPMTOnly);
         
         // Store Number of Hits for: PMTOnly PMT Detector
         analysis->fRootEvent->PMTOnly.PMT.StoreDetectorNbOfHits(n_hitPMTOnlyPMT);
 
         // Store Number of Hits for: Lumi Detector
         analysis->fRootEvent->Lumi.Detector.StoreDetectorNbOfHits(n_hitLumi);
 
         // Store Number of Hits for: TungstenPlug Detector
         analysis->fRootEvent->TungstenPlug.Detector.StoreDetectorNbOfHits(n_hitTungstenPlug);
 
         // Store Number of Hits for: Trigger Scintillator
         analysis->fRootEvent->TriggerScintillator.Detector.StoreDetectorNbOfHits(n_hitTriggerScintillator);
 
         //==========================================================================================================
 
 
         //========================================
         // Store VDC Hit Information into /Region3
         //========================================
 
         int VDC_Chamber_Plane_NbOfHits[2][2];
         for (int chamber = 0; chamber < 2; chamber++)
           for (int plane = 0; plane < 2; plane++)
             VDC_Chamber_Plane_NbOfHits[chamber][plane] = 0;
 
         // loop over wire plane hits
         for (int i1=0;i1<n_VDChitWirePlane;i1++) {
 
             // get hit pointer for each hit
             QweakSimVDC_WirePlaneHit* aHit = (*VDC_WirePlane_HC)[i1];
 
             if (print_VDC_WirePlaneHit) aHit->Print();
 
             // get local position of hit
             G4ThreeVector localPosition  = aHit->GetLocalPosition();
             Float_t rLocalPositionX = (Float_t) localPosition.x() / cm;
             Float_t rLocalPositionY = (Float_t) localPosition.y() / cm;
             Float_t rLocalPositionZ = (Float_t) localPosition.z() / cm;
 
             // get world position of hit
             G4ThreeVector globalPosition  = aHit->GetWorldPosition();
             Float_t rGlobalPositionX = (Float_t) globalPosition.x() / cm;
             Float_t rGlobalPositionY = (Float_t) globalPosition.y() / cm;
             Float_t rGlobalPositionZ = (Float_t) globalPosition.z() / cm;
 
             // get local Momentum of hit
             G4ThreeVector localMomentum = aHit->GetLocalMomentum();
             Float_t rLocalMomentumX = (Float_t) localMomentum.x() / MeV;
             Float_t rLocalMomentumY = (Float_t) localMomentum.y() / MeV;
             Float_t rLocalMomentumZ = (Float_t) localMomentum.z() / MeV;
 
             // get world Momentum of hit
             G4ThreeVector globalMomentum  = aHit->GetWorldMomentum();
             Float_t rGlobalMomentumX = (Float_t) globalMomentum.x() / MeV;
             Float_t rGlobalMomentumY = (Float_t) globalMomentum.y() / MeV;
             Float_t rGlobalMomentumZ = (Float_t) globalMomentum.z() / MeV;
             Float_t rGlobalThetaAngle = (Float_t) globalMomentum.theta() / degree;
             Float_t rGlobalPhiAngle   = (Float_t) globalMomentum.phi() / degree - 90.0;
 
             // get total Energy of hit
             Float_t rTotalEnergy     = (Float_t) aHit->GetTotalEnergy() / MeV;
 
             // get kinetic Energy of hit
             Float_t rKineticEnergy     = (Float_t) aHit->GetKineticEnergy() / MeV;
 
 
             G4ThreeVector originVertexPosition  = aHit->GetOriginVertexPosition();
             Float_t rOriginVertexPositionX      = (Float_t) originVertexPosition.x() / cm;
             Float_t rOriginVertexPositionY      = (Float_t) originVertexPosition.y() / cm;
             Float_t rOriginVertexPositionZ      = (Float_t) originVertexPosition.z() / cm;
 
 
             G4ThreeVector originVertexMomentumDirection = aHit->GetOriginVertexMomentumDirection();
             Float_t rOriginVertexMomentumDirectionX = (Float_t) originVertexMomentumDirection.x();
             Float_t rOriginVertexMomentumDirectionY = (Float_t) originVertexMomentumDirection.y();
             Float_t rOriginVertexMomentumDirectionZ = (Float_t) originVertexMomentumDirection.z();
             Float_t rOriginVertexPhiAngle   = (Float_t) originVertexMomentumDirection.phi() / degree;
             Float_t rOriginVertexThetaAngle = (Float_t) originVertexMomentumDirection.theta() / degree;
 
             Float_t rOriginVertexKineticEnergy = (Float_t) aHit->GetOriginVertexKineticEnergy() / MeV;
             Float_t rOriginVertexTotalEnergy   = (Float_t) aHit->GetOriginVertexTotalEnergy() / MeV;
 
             Float_t rGlobalTime = (Float_t) aHit->GetGlobalTime() / ns;
 
             TString rParticleName = TString(aHit->GetParticleName());
             Int_t rParticleType = (Int_t) aHit->GetParticleType();
 
             //-----------------------------------
             int iVDCID = aHit->GetVDCID();
             int iVDC_Chamber = -1; // 0 corresponds to Front, 1 corresponds to Back
             QweakSimUserVDC_SingleVDCEvent* single_vdc_event = 0;
             if (iVDCID == 0 || iVDCID == 2){
                iVDC_Chamber = 0;
                single_vdc_event = &(analysis->fRootEvent->Region3.ChamberFront);
             }
             if (iVDCID == 1 || iVDCID == 3){
                iVDC_Chamber = 1;
                single_vdc_event = &(analysis->fRootEvent->Region3.ChamberBack);
             }
             int iVDCpackage = -1;  // 0 Corresponds to pkg 1, 1 corresponds to pkg 2
             if(iVDCID == 0 || iVDCID == 1)
               iVDCpackage = 1;
             if(iVDCID == 2 || iVDCID == 3)
               iVDCpackage = 2;
             //-----------------------------------
             if (single_vdc_event == 0) {
                 G4cerr << "VDC hit with incorrect chamber ID: " << iVDCID << G4endl;
                 break;
             }
 
             //-----------------------------------
             int iWirePlaneID = aHit->GetWirePlaneID();
             QweakSimUserVDC_WirePlaneEvent* wire_plane_event = 0;
             if (iWirePlaneID == 0)
               wire_plane_event = &(single_vdc_event->WirePlaneU);
             if (iWirePlaneID == 1)
               wire_plane_event = &(single_vdc_event->WirePlaneV);
 
             //-----------------------------------
             if (wire_plane_event == 0) {
                 G4cerr << "VDC hit with incorrect plane ID." << G4endl;
                 break;
             }
 
             //-----------------------------------
             VDC_Chamber_Plane_NbOfHits[iVDC_Chamber][iWirePlaneID]++;
             wire_plane_event->StoreNbOfHits(VDC_Chamber_Plane_NbOfHits[iVDC_Chamber][iWirePlaneID]);
 
             // mark wire plane as been hit
             wire_plane_event->StoreHasBeenHit(5);
 
             wire_plane_event->StorePackageID(iVDCpackage);
 
             wire_plane_event->StoreParticleName(rParticleName);
             wire_plane_event->StoreParticleType(rParticleType);
 
             // store total+kinetic energy of hit
             wire_plane_event->StoreTotalEnergy(rTotalEnergy);
             wire_plane_event->StoreKineticEnergy(rKineticEnergy);
 
             // store origin vertex info
             wire_plane_event->StoreOriginVertexPositionX(rOriginVertexPositionX);
             wire_plane_event->StoreOriginVertexPositionY(rOriginVertexPositionY);
             wire_plane_event->StoreOriginVertexPositionZ(rOriginVertexPositionZ);
 
             wire_plane_event->StoreOriginVertexMomentumDirectionX(rOriginVertexMomentumDirectionX);
             wire_plane_event->StoreOriginVertexMomentumDirectionY(rOriginVertexMomentumDirectionY);
             wire_plane_event->StoreOriginVertexMomentumDirectionZ(rOriginVertexMomentumDirectionZ);
             wire_plane_event->StoreOriginVertexPhiAngle(rOriginVertexPhiAngle);
             wire_plane_event->StoreOriginVertexThetaAngle(rOriginVertexThetaAngle);
 
             wire_plane_event->StoreOriginVertexKineticEnergy(rOriginVertexKineticEnergy);
             wire_plane_event->StoreOriginVertexTotalEnergy(rOriginVertexTotalEnergy);
 
             wire_plane_event->StoreGlobalTimeOfHit(rGlobalTime);
 
             // store wire plane hit position
             wire_plane_event->StoreLocalPositionX(rLocalPositionX);
             wire_plane_event->StoreLocalPositionY(rLocalPositionY);
             wire_plane_event->StoreLocalPositionZ(rLocalPositionZ);
 
             wire_plane_event->StoreGlobalPositionX(rGlobalPositionX);
             wire_plane_event->StoreGlobalPositionY(rGlobalPositionY);
             wire_plane_event->StoreGlobalPositionZ(rGlobalPositionZ);
 
             // store wire plane hit momentum
             wire_plane_event->StoreLocalMomentumX(rLocalMomentumX);
             wire_plane_event->StoreLocalMomentumY(rLocalMomentumY);
             wire_plane_event->StoreLocalMomentumZ(rLocalMomentumZ);
 
             wire_plane_event->StoreGlobalMomentumX(rGlobalMomentumX);
             wire_plane_event->StoreGlobalMomentumY(rGlobalMomentumY);
             wire_plane_event->StoreGlobalMomentumZ(rGlobalMomentumZ);
 
             // store global track angles Phi and Theta
             wire_plane_event->StoreGlobalPhiAngle(rGlobalPhiAngle);
             wire_plane_event->StoreGlobalThetaAngle(rGlobalThetaAngle);
 
         }
 
 //=========================================================================================================
 
         //----------------------------------
         // Hit in Front VDC, Front DriftCells
         //----------------------------------
         if (n_VDChitDCFront) {
 
             // loop over DriftCell hits
             for (G4int i1 = 0; i1 < n_VDChitDCFront; i1++) {
 
                 QweakSimVDC_DriftCellHit* aHit = (*VDC_DriftCellFront_HC)[i1];
                 if (print_VDC_DriftCellHit) aHit->Print();
 
             } // end for (G4int i1 = 0; i1 < n_VDChitDCFront; i1++)
 
 
             // Extract the DriftCell Config from the 1st DC hit
             QweakSimVDC_DriftCellHit* aHit = (*VDC_DriftCellFront_HC)[0];
 
 
             Float_t rDCWidthOnFrame    = (Float_t) aHit->GetDCWidthOnFrame()/mm;
             Float_t rDCFullThickness   = (Float_t) aHit->GetDCFullThickness()/mm;
             Float_t rDCUPlaneWireAngle = (Float_t) aHit->GetDCUPlaneWireAngle()/degree;
             Float_t rDCVPlaneWireAngle = (Float_t) aHit->GetDCVPlaneWireAngle()/degree;
 
             // Store DriftCell Setup Parameter
             analysis->fRootEvent->Region3.Config.StoreDCWidthOnFrame(rDCWidthOnFrame);
             analysis->fRootEvent->Region3.Config.StoreDCFullThickness(rDCFullThickness);
             analysis->fRootEvent->Region3.Config.StoreDCUPlaneWireAngle(rDCUPlaneWireAngle);
             analysis->fRootEvent->Region3.Config.StoreDCVPlaneWireAngle(rDCVPlaneWireAngle);
 
         } // end of   if(n_VDChitDCFront)
 
 
         //----------------------------------
         // Hit in Front VDC, Back DriftCells
         //----------------------------------
         if (n_VDChitDCBack) {
             // loop over hits
             for (G4int i1=0;i1<n_VDChitDCBack;i1++) {
 
                 QweakSimVDC_DriftCellHit* aHit = (*VDC_DriftCellBack_HC)[i1];
                 if (print_VDC_DriftCellHit) aHit->Print();
 
             } // end for(int i1=0;i1<n_hitBack;i1++
 
 
         } // end of if(n_VDChitDCBack)
 
 
 
         //===============================================================================================================
 
         //=========================================================
         // Store Cerenkov Detector hits into /Cerenkov
         //=========================================================
 
         if (n_hitCerenkovDetector > 0) {
 
             // loop over hits
             for (int i1 = 0; i1 < n_hitCerenkovDetector; i1++) {
 
                 QweakSimCerenkov_DetectorHit* aHit = (*CerenkovDetector_HC)[i1];
 
                 G4int octantID = (Int_t) aHit->GetDetectorID() + 1;
 
                 if (print_Cerenkov_DetectorHit) aHit->Print();
 
                 // get local position of hit
                 G4ThreeVector localPosition  = aHit->GetLocalPosition();
                 Float_t rLocalPositionX = (Float_t) localPosition.x() / cm;
                 Float_t rLocalPositionY = (Float_t) localPosition.y() / cm;
                 Float_t rLocalPositionZ = (Float_t) localPosition.z() / cm;
 
                 // get world position of hit
                 G4ThreeVector globalPosition  = aHit->GetWorldPosition();
                 Float_t rGlobalPositionX = (Float_t) globalPosition.x() / cm;
                 Float_t rGlobalPositionY = (Float_t) globalPosition.y() / cm;
                 Float_t rGlobalPositionZ = (Float_t) globalPosition.z() / cm;
 
                 // get local Momentum of hit
                 G4ThreeVector localMomentum  = aHit->GetLocalMomentum();
                 Float_t rLocalMomentumX = (Float_t) localMomentum.x() / MeV;
                 Float_t rLocalMomentumY = (Float_t) localMomentum.y() / MeV;
                 Float_t rLocalMomentumZ = (Float_t) localMomentum.z() / MeV;
                 Float_t rLocalPhiAngle   = (Float_t) localMomentum.phi() / degree - 90.0;
                 Float_t rLocalThetaAngle = (Float_t) localMomentum.theta() / degree;
 
                 // get world Momentum of hit
                 G4ThreeVector globalMomentum  = aHit->GetWorldMomentum();
                 Float_t rGlobalMomentumX = (Float_t) globalMomentum.x() / MeV;
                 Float_t rGlobalMomentumY = (Float_t) globalMomentum.y() / MeV;
                 Float_t rGlobalMomentumZ = (Float_t) globalMomentum.z() / MeV;
                 Float_t rGlobalPhiAngle   = (Float_t) globalMomentum.phi() / degree - 90.0;
                 Float_t rGlobalThetaAngle = (Float_t) globalMomentum.theta() / degree;
 
                 G4ThreeVector localExitPosition = myUserInfo->GetLocalCerenkovExitPosition();
                 Float_t rLocalExitPositionX = (Float_t) localExitPosition.x() / cm;
                 Float_t rLocalExitPositionY = (Float_t) localExitPosition.y() / cm;
                 Float_t rLocalExitPositionZ = (Float_t) localExitPosition.z() / cm;
 
                 G4ThreeVector originVertexPosition  = aHit->GetOriginVertexPosition();
                 Float_t rOriginVertexPositionX = (Float_t) originVertexPosition.x() / cm;
                 Float_t rOriginVertexPositionY = (Float_t) originVertexPosition.y() / cm;
                 Float_t rOriginVertexPositionZ = (Float_t) originVertexPosition.z() / cm;
 
                 G4ThreeVector originVertexMomentumDirection = aHit->GetOriginVertexMomentumDirection();
                 Float_t rOriginVertexMomentumDirectionX = (Float_t) originVertexMomentumDirection.x();
                 Float_t rOriginVertexMomentumDirectionY = (Float_t) originVertexMomentumDirection.y();
                 Float_t rOriginVertexMomentumDirectionZ = (Float_t) originVertexMomentumDirection.z();
                 Float_t rOriginVertexPhiAngle   = (Float_t) originVertexMomentumDirection.phi() / degree;
                 Float_t rOriginVertexThetaAngle = (Float_t) originVertexMomentumDirection.theta() / degree;
 
                 Float_t rOriginVertexKineticEnergy = (Float_t) aHit->GetOriginVertexKineticEnergy() / MeV;
                 Float_t rOriginVertexTotalEnergy   = (Float_t) aHit->GetOriginVertexTotalEnergy() / MeV;
 
                 Float_t rGlobalTime = (Float_t) aHit->GetGlobalTime() / ns;
 
                 TString rParticleName = TString(aHit->GetParticleName());
                 G4int rParticleType = (Int_t) aHit->GetParticleType();
                 G4int rTrackId = (Int_t) aHit->GetTrackID();
                 G4int rParentId = (Int_t) aHit->GetParentID();
                 TString rCreatorName = TString(aHit->GetCreatorProcessName());
 
                 // get total Energy of hit
                 Float_t rTotalEnergy     = (Float_t) aHit->GetTotalEnergy() / MeV;
 
                 // get kinetic Energy of hit
                 Float_t rKineticEnergy     = (Float_t) aHit->GetKineticEnergy() / MeV;
 
                 // get polarization of hit
                 G4ThreeVector rGlobalPolarizationVector = aHit->GetPolarization();
                 Float_t rGlobalPolarizationX = rGlobalPolarizationVector.x();
                 Float_t rGlobalPolarizationY = rGlobalPolarizationVector.y();
                 Float_t rGlobalPolarizationZ = rGlobalPolarizationVector.z();
 
                 Float_t rLongitudinalPolarization = 0.0;
                 G4ThreeVector rTransversePolarizationVector =  G4ThreeVector(0.0,0.0,0.0);
                 if  (globalMomentum.mag() > 0){
                   // longitudinal polarization is along the momentum direction
                   rLongitudinalPolarization = rGlobalPolarizationVector.dot(globalMomentum)/globalMomentum.mag()/rGlobalPolarizationVector.mag();
                   // transverse polarization is all except longitudinal
                   rTransversePolarizationVector = rGlobalPolarizationVector - rLongitudinalPolarization*globalMomentum/globalMomentum.mag();
                 }
                 Float_t rTransversePolarization = rTransversePolarizationVector.mag();
                 Float_t rTransversePolarizationX = rTransversePolarizationVector.x();
                 Float_t rTransversePolarizationY = rTransversePolarizationVector.y();
                 Float_t rTransversePolarizationZ = rTransversePolarizationVector.z();
                 Float_t rTransversePolarizationPhiAngle = rTransversePolarizationVector.phi() / degree;
 
                 //  edgeEvent = myUserInfo->GetEdgeEventDetected();
 
                 //==========================================================
                 analysis->fRootEvent->Cerenkov.Detector.StoreDetectorID(octantID);
                 analysis->fRootEvent->Cerenkov.Detector.StoreDetectorHasBeenHit(5);
                 analysis->fRootEvent->Cerenkov.Detector.StoreParticleName(rParticleName);
                 analysis->fRootEvent->Cerenkov.Detector.StoreParticleType(rParticleType);
                 analysis->fRootEvent->Cerenkov.Detector.StoreParticleID(rTrackId);
                 analysis->fRootEvent->Cerenkov.Detector.StoreParentID(rParentId);
                 analysis->fRootEvent->Cerenkov.Detector.StoreCreatorProcessName(rCreatorName);
                 analysis->fRootEvent->Cerenkov.Detector.StoreGlobalTimeOfHit(rGlobalTime);
                 analysis->fRootEvent->Cerenkov.Detector.StoreOriginVertexPositionX(rOriginVertexPositionX);
                 analysis->fRootEvent->Cerenkov.Detector.StoreOriginVertexPositionY(rOriginVertexPositionY);
                 analysis->fRootEvent->Cerenkov.Detector.StoreOriginVertexPositionZ(rOriginVertexPositionZ);
                 analysis->fRootEvent->Cerenkov.Detector.StoreOriginVertexMomentumDirectionX(rOriginVertexMomentumDirectionX);
                 analysis->fRootEvent->Cerenkov.Detector.StoreOriginVertexMomentumDirectionY(rOriginVertexMomentumDirectionY);
                 analysis->fRootEvent->Cerenkov.Detector.StoreOriginVertexMomentumDirectionZ(rOriginVertexMomentumDirectionZ);
                 analysis->fRootEvent->Cerenkov.Detector.StoreOriginVertexPhiAngle(rOriginVertexPhiAngle);
                 analysis->fRootEvent->Cerenkov.Detector.StoreOriginVertexThetaAngle(rOriginVertexThetaAngle);
 
                 analysis->fRootEvent->Cerenkov.Detector.StoreOriginVertexKineticEnergy(rOriginVertexKineticEnergy);
                 analysis->fRootEvent->Cerenkov.Detector.StoreOriginVertexTotalEnergy(rOriginVertexTotalEnergy);
 
                 analysis->fRootEvent->Cerenkov.Detector.StoreDetectorLocalPositionX(rLocalPositionX);
                 analysis->fRootEvent->Cerenkov.Detector.StoreDetectorLocalPositionY(rLocalPositionY);
                 analysis->fRootEvent->Cerenkov.Detector.StoreDetectorLocalPositionZ(rLocalPositionZ);
                 analysis->fRootEvent->Cerenkov.Detector.StoreDetectorLocalExitPositionX(rLocalExitPositionX);
                 analysis->fRootEvent->Cerenkov.Detector.StoreDetectorLocalExitPositionY(rLocalExitPositionY);
                 analysis->fRootEvent->Cerenkov.Detector.StoreDetectorLocalExitPositionZ(rLocalExitPositionZ);
                 analysis->fRootEvent->Cerenkov.Detector.StoreDetectorGlobalPositionX(rGlobalPositionX);
                 analysis->fRootEvent->Cerenkov.Detector.StoreDetectorGlobalPositionY(rGlobalPositionY);
                 analysis->fRootEvent->Cerenkov.Detector.StoreDetectorGlobalPositionZ(rGlobalPositionZ);
 
                 // store polarization of hit
                 analysis->fRootEvent->Cerenkov.Detector.StorePolarizationX(rGlobalPolarizationX);
                 analysis->fRootEvent->Cerenkov.Detector.StorePolarizationY(rGlobalPolarizationY);
                 analysis->fRootEvent->Cerenkov.Detector.StorePolarizationZ(rGlobalPolarizationZ);
                 analysis->fRootEvent->Cerenkov.Detector.StoreLongitudinalPolarization(rLongitudinalPolarization);
                 analysis->fRootEvent->Cerenkov.Detector.StoreTransversePolarization(rTransversePolarization);
                 analysis->fRootEvent->Cerenkov.Detector.StoreTransversePolarizationX(rTransversePolarizationX);
                 analysis->fRootEvent->Cerenkov.Detector.StoreTransversePolarizationY(rTransversePolarizationY);
                 analysis->fRootEvent->Cerenkov.Detector.StoreTransversePolarizationZ(rTransversePolarizationZ);
                 analysis->fRootEvent->Cerenkov.Detector.StoreTransversePolarizationPhiAngle(rTransversePolarizationPhiAngle);
 
                 // store local momentum and track angles Phi and Theta
                 analysis->fRootEvent->Cerenkov.Detector.StoreLocalMomentumX(rLocalMomentumX);
                 analysis->fRootEvent->Cerenkov.Detector.StoreLocalMomentumY(rLocalMomentumY);
                 analysis->fRootEvent->Cerenkov.Detector.StoreLocalMomentumZ(rLocalMomentumZ);
                 analysis->fRootEvent->Cerenkov.Detector.StoreLocalPhiAngle(rLocalPhiAngle);
                 analysis->fRootEvent->Cerenkov.Detector.StoreLocalThetaAngle(rLocalThetaAngle);
 
                 // store global momentum and track angles Phi and Theta
                 analysis->fRootEvent->Cerenkov.Detector.StoreGlobalMomentumX(rGlobalMomentumX);
                 analysis->fRootEvent->Cerenkov.Detector.StoreGlobalMomentumY(rGlobalMomentumY);
                 analysis->fRootEvent->Cerenkov.Detector.StoreGlobalMomentumZ(rGlobalMomentumZ);
                 analysis->fRootEvent->Cerenkov.Detector.StoreGlobalPhiAngle(rGlobalPhiAngle);
                 analysis->fRootEvent->Cerenkov.Detector.StoreGlobalThetaAngle(rGlobalThetaAngle);
 
                 // store total+kinetic energy of a hit
                 analysis->fRootEvent->Cerenkov.Detector.StoreTotalEnergy(rTotalEnergy);
                 analysis->fRootEvent->Cerenkov.Detector.StoreKineticEnergy(rKineticEnergy);
 
                 //-----------------------------------------------------------------------------
 //
 // Peiqing: comment out the followings for speeding up
 //
 //                 for (int sec = 0; sec < myUserInfo->GetCerenkovSecondaryParticleCount(); sec++) {
 // 
 //                     SecondaryParticleOrigin = myUserInfo->GetCerenkovSecondaryParticleOrigin(sec);
 //                     rSecondaryPartOriginX = (Float_t) SecondaryParticleOrigin.x()/cm;
 //                     rSecondaryPartOriginY = (Float_t) SecondaryParticleOrigin.y()/cm;
 //                     rSecondaryPartOriginZ = (Float_t) SecondaryParticleOrigin.z()/cm;
 // 
 //                     SecondaryParticleMomentum = myUserInfo->GetCerenkovSecondaryParticleMomentum(sec);
 //                     rSecondaryPartMomentumX = (Float_t) SecondaryParticleMomentum.x()/MeV;
 //                     rSecondaryPartMomentumY = (Float_t) SecondaryParticleMomentum.y()/MeV;
 //                     rSecondaryPartMomentumZ = (Float_t) SecondaryParticleMomentum.z()/MeV;
 // 
 //                     rSecondaryPartEnergy = (Float_t) myUserInfo->GetCerenkovSecondaryParticleEnergy(sec)/MeV;
 //                     rSecondaryPartCharge = (Float_t) myUserInfo->GetCerenkovSecondaryParticleCharge(sec);
 // 
 //                     analysis->fRootEvent->Cerenkov.Detector.AddSecondaryParticleEvent(rSecondaryPartOriginX,
 //                             rSecondaryPartOriginY,
 //                             rSecondaryPartOriginZ,
 //                             rSecondaryPartMomentumX,
 //                             rSecondaryPartMomentumY,
 //                             rSecondaryPartMomentumZ,
 //                             rSecondaryPartEnergy,
 //                             rSecondaryPartCharge);
 //                 } // end for (int sec = 0; sec < myUserInfo->GetCerenkovSecondaryParticleCount(); sec++)
                 //-----------------------------------------------------------------------------
 
                 //--------------------------------------------------------------------------------------------
                 // Check if the track passed entirely thru the cerenkov detector without getting stuck
                 // or hitting an edge
                 Int_t edgeEvent;
                 if (GetDistance(localPosition,localExitPosition)/cm < 1.15)
                     edgeEvent = 1;
                 else
                     edgeEvent = 0;
 
                 analysis->fRootEvent->Cerenkov.Detector.StoreEdgeEventFlag(edgeEvent);
 
                 // G4cout << "Edge Event Flag = " << edgeEvent << G4endl;
                 //--------------------------------------------------------------------------------------------
 
 
             } // end for (int i1 = 0; i1 < n_hitCerenkovDetector; i1++)
         } // end if (n_hitCerenkovDetector > 0)
 
 
         //=========================================================
         // Store Cerenkov radiator hits into /CerenkovRadiator
         //=========================================================
 
         if (n_hitCerenkovRadiator > 0) {
 
             // loop over hits
             for (int i1 = 0; i1 < n_hitCerenkovRadiator; i1++) {
 
                 QweakSimCerenkov_RadiatorHit* aHit = (*CerenkovRadiator_HC)[i1];
 
                 G4int octantID = (Int_t) aHit->GetDetectorID() + 1;
 
                 if (print_Cerenkov_DetectorHit) aHit->Print();
 
                 // get local position of hit
                 G4ThreeVector localPosition  = aHit->GetLocalPosition();
                 Float_t rLocalPositionX = (Float_t) localPosition.x() / cm;
                 Float_t rLocalPositionY = (Float_t) localPosition.y() / cm;
                 Float_t rLocalPositionZ = (Float_t) localPosition.z() / cm;
 
                 // get world position of hit
                 G4ThreeVector globalPosition  = aHit->GetWorldPosition();
                 Float_t rGlobalPositionX = (Float_t) globalPosition.x() / cm;
                 Float_t rGlobalPositionY = (Float_t) globalPosition.y() / cm;
                 Float_t rGlobalPositionZ = (Float_t) globalPosition.z() / cm;
 
                 // get local Momentum of hit
                 G4ThreeVector localMomentum  = aHit->GetLocalMomentum();
                 Float_t rLocalMomentumX = (Float_t) localMomentum.x() / MeV;
                 Float_t rLocalMomentumY = (Float_t) localMomentum.y() / MeV;
                 Float_t rLocalMomentumZ = (Float_t) localMomentum.z() / MeV;
                 Float_t rLocalPhiAngle   = (Float_t) localMomentum.phi() / degree - 90.0;
                 Float_t rLocalThetaAngle = (Float_t) localMomentum.theta() / degree;
 
                 // get world Momentum of hit
                 G4ThreeVector globalMomentum  = aHit->GetWorldMomentum();
                 Float_t rGlobalMomentumX = (Float_t) globalMomentum.x() / MeV;
                 Float_t rGlobalMomentumY = (Float_t) globalMomentum.y() / MeV;
                 Float_t rGlobalMomentumZ = (Float_t) globalMomentum.z() / MeV;
                 Float_t rGlobalPhiAngle   = (Float_t) globalMomentum.phi() / degree - 90.0;
                 Float_t rGlobalThetaAngle = (Float_t) globalMomentum.theta() / degree;
 
                 G4ThreeVector localExitPosition = myUserInfo->GetLocalCerenkovExitPosition();
                 Float_t rLocalExitPositionX = (Float_t) localExitPosition.x() / cm;
                 Float_t rLocalExitPositionY = (Float_t) localExitPosition.y() / cm;
                 Float_t rLocalExitPositionZ = (Float_t) localExitPosition.z() / cm;
 
                 G4ThreeVector originVertexPosition  = aHit->GetOriginVertexPosition();
                 Float_t rOriginVertexPositionX = (Float_t) originVertexPosition.x() / cm;
                 Float_t rOriginVertexPositionY = (Float_t) originVertexPosition.y() / cm;
                 Float_t rOriginVertexPositionZ = (Float_t) originVertexPosition.z() / cm;
 
                 G4ThreeVector originVertexMomentumDirection = aHit->GetOriginVertexMomentumDirection();
                 Float_t rOriginVertexMomentumDirectionX = (Float_t) originVertexMomentumDirection.x();
                 Float_t rOriginVertexMomentumDirectionY = (Float_t) originVertexMomentumDirection.y();
                 Float_t rOriginVertexMomentumDirectionZ = (Float_t) originVertexMomentumDirection.z();
                 Float_t rOriginVertexPhiAngle   = (Float_t) originVertexMomentumDirection.phi() / degree;
                 Float_t rOriginVertexThetaAngle = (Float_t) originVertexMomentumDirection.theta() / degree;
 
                 Float_t rOriginVertexKineticEnergy = (Float_t) aHit->GetOriginVertexKineticEnergy() / MeV;
                 Float_t rOriginVertexTotalEnergy   = (Float_t) aHit->GetOriginVertexTotalEnergy() / MeV;
 
                 Float_t rGlobalTime = (Float_t) aHit->GetGlobalTime() / ns;
 
                 TString rParticleName = TString(aHit->GetParticleName());
                 G4int rParticleType = (Int_t) aHit->GetParticleType();
                 G4int rTrackId = (Int_t) aHit->GetTrackID();
                 G4int rParentId = (Int_t) aHit->GetParentID();
                 TString rCreatorName = TString(aHit->GetCreatorProcessName());
 
                 // get total Energy of hit
                 Float_t rTotalEnergy     = (Float_t) aHit->GetTotalEnergy() / MeV;
 
                 // get kinetic Energy of hit
                 Float_t rKineticEnergy     = (Float_t) aHit->GetKineticEnergy() / MeV;
 
                 // get polarization of hit
                 G4ThreeVector rGlobalPolarizationVector = aHit->GetPolarization();
                 Float_t rGlobalPolarizationX = rGlobalPolarizationVector.x();
                 Float_t rGlobalPolarizationY = rGlobalPolarizationVector.y();
                 Float_t rGlobalPolarizationZ = rGlobalPolarizationVector.z();
 
                 Float_t rLongitudinalPolarization = 0.0;
                 G4ThreeVector rTransversePolarizationVector =  G4ThreeVector(0.0,0.0,0.0);
                 if  (globalMomentum.mag() > 0){
                   // longitudinal polarization is along the momentum direction
                   rLongitudinalPolarization = rGlobalPolarizationVector.dot(globalMomentum)/globalMomentum.mag()/rGlobalPolarizationVector.mag();
                   // transverse polarization is all except longitudinal
                   rTransversePolarizationVector = rGlobalPolarizationVector - rLongitudinalPolarization*globalMomentum/globalMomentum.mag();
                 }
                 Float_t rTransversePolarization = rTransversePolarizationVector.mag();
                 Float_t rTransversePolarizationX = rTransversePolarizationVector.x();
                 Float_t rTransversePolarizationY = rTransversePolarizationVector.y();
                 Float_t rTransversePolarizationZ = rTransversePolarizationVector.z();
                 Float_t rTransversePolarizationPhiAngle = rTransversePolarizationVector.phi() / degree;
 
                 //  edgeEvent = myUserInfo->GetEdgeEventDetected();
 
                 //==========================================================
                 analysis->fRootEvent->Cerenkov.Radiator.StoreDetectorID(octantID);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreDetectorHasBeenHit(5);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreParticleName(rParticleName);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreParticleType(rParticleType);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreParticleID(rTrackId);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreParentID(rParentId);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreCreatorProcessName(rCreatorName);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreGlobalTimeOfHit(rGlobalTime);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreOriginVertexPositionX(rOriginVertexPositionX);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreOriginVertexPositionY(rOriginVertexPositionY);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreOriginVertexPositionZ(rOriginVertexPositionZ);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreOriginVertexMomentumDirectionX(rOriginVertexMomentumDirectionX);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreOriginVertexMomentumDirectionY(rOriginVertexMomentumDirectionY);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreOriginVertexMomentumDirectionZ(rOriginVertexMomentumDirectionZ);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreOriginVertexPhiAngle(rOriginVertexPhiAngle);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreOriginVertexThetaAngle(rOriginVertexThetaAngle);
 
                 analysis->fRootEvent->Cerenkov.Radiator.StoreOriginVertexKineticEnergy(rOriginVertexKineticEnergy);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreOriginVertexTotalEnergy(rOriginVertexTotalEnergy);
 
                 analysis->fRootEvent->Cerenkov.Radiator.StoreDetectorLocalPositionX(rLocalPositionX);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreDetectorLocalPositionY(rLocalPositionY);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreDetectorLocalPositionZ(rLocalPositionZ);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreDetectorLocalExitPositionX(rLocalExitPositionX);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreDetectorLocalExitPositionY(rLocalExitPositionY);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreDetectorLocalExitPositionZ(rLocalExitPositionZ);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreDetectorGlobalPositionX(rGlobalPositionX);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreDetectorGlobalPositionY(rGlobalPositionY);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreDetectorGlobalPositionZ(rGlobalPositionZ);
 
                 // store polarization of hit
                 analysis->fRootEvent->Cerenkov.Radiator.StorePolarizationX(rGlobalPolarizationX);
                 analysis->fRootEvent->Cerenkov.Radiator.StorePolarizationY(rGlobalPolarizationY);
                 analysis->fRootEvent->Cerenkov.Radiator.StorePolarizationZ(rGlobalPolarizationZ);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreLongitudinalPolarization(rLongitudinalPolarization);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreTransversePolarization(rTransversePolarization);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreTransversePolarizationX(rTransversePolarizationX);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreTransversePolarizationY(rTransversePolarizationY);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreTransversePolarizationZ(rTransversePolarizationZ);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreTransversePolarizationPhiAngle(rTransversePolarizationPhiAngle);
 
                 // store local momentum and track angles Phi and Theta
                 analysis->fRootEvent->Cerenkov.Radiator.StoreLocalMomentumX(rLocalMomentumX);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreLocalMomentumY(rLocalMomentumY);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreLocalMomentumZ(rLocalMomentumZ);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreLocalPhiAngle(rLocalPhiAngle);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreLocalThetaAngle(rLocalThetaAngle);
 
                 // store global momentum and track angles Phi and Theta
                 analysis->fRootEvent->Cerenkov.Radiator.StoreGlobalMomentumX(rGlobalMomentumX);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreGlobalMomentumY(rGlobalMomentumY);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreGlobalMomentumZ(rGlobalMomentumZ);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreGlobalPhiAngle(rGlobalPhiAngle);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreGlobalThetaAngle(rGlobalThetaAngle);
 
                 // store total+kinetic energy of a hit
                 analysis->fRootEvent->Cerenkov.Radiator.StoreTotalEnergy(rTotalEnergy);
                 analysis->fRootEvent->Cerenkov.Radiator.StoreKineticEnergy(rKineticEnergy);
 
             } // end for (int i1 = 0; i1 < n_hitCerenkovRadiator; i1++)
 
         } // end if (n_hitCerenkovRadiator > 0)
 
 
         //=========================================================
         // Store Number of Photoelectrons of Cerenkov Detector hits
         //=========================================================
 
         if (n_hitCerenkovPMT > 0) {
 
             std::vector<G4int>   PmtHasBeenHit(PmtMaxSize);
 
             std::vector<G4float> PmtTime(PmtMaxSize);
             std::vector<G4float> PmtEnergy(PmtMaxSize);
             std::vector<G4int>   PmtOctant(PmtMaxSize);
 
             std::vector<G4int>   PmtHitsLeft(PmtMaxSize);
             std::vector<G4int>   PmtHitsRight(PmtMaxSize);
             std::vector<G4int>   PmtHitsTotal(PmtMaxSize);
             std::vector<G4float> PmtNPELeft(PmtMaxSize);
             std::vector<G4float> PmtNPERight(PmtMaxSize);
             std::vector<G4float> PmtNPETotal(PmtMaxSize);
 
             std::vector<G4float> PmtRateLeft(PmtMaxSize);
             std::vector<G4float> PmtRateRight(PmtMaxSize);
             std::vector<G4float> PmtRateTotal(PmtMaxSize);
             std::vector<G4float> PmtRateLeftEL(PmtMaxSize);
             std::vector<G4float> PmtRateRightEL(PmtMaxSize);
             std::vector<G4float> PmtRateTotalEL(PmtMaxSize);
             std::vector<G4float> PmtRateLeftDIS(PmtMaxSize);
             std::vector<G4float> PmtRateRightDIS(PmtMaxSize);
             std::vector<G4float> PmtRateTotalDIS(PmtMaxSize);
             std::vector<G4float> PmtRateLeftQE(PmtMaxSize);
             std::vector<G4float> PmtRateRightQE(PmtMaxSize);
             std::vector<G4float> PmtRateTotalQE(PmtMaxSize);
             std::vector<G4float> PmtRateLeftELPeak(PmtMaxSize);
             std::vector<G4float> PmtRateRightELPeak(PmtMaxSize);
             std::vector<G4float> PmtRateTotalELPeak(PmtMaxSize);
 
             std::vector<G4float> PmtYieldLeft(PmtMaxSize);
             std::vector<G4float> PmtYieldRight(PmtMaxSize);
             std::vector<G4float> PmtYieldTotal(PmtMaxSize);
             std::vector<G4float> PmtYieldLeftEL(PmtMaxSize);
             std::vector<G4float> PmtYieldRightEL(PmtMaxSize);
             std::vector<G4float> PmtYieldTotalEL(PmtMaxSize);
             std::vector<G4float> PmtYieldLeftDIS(PmtMaxSize);
             std::vector<G4float> PmtYieldRightDIS(PmtMaxSize);
             std::vector<G4float> PmtYieldTotalDIS(PmtMaxSize);
             std::vector<G4float> PmtYieldLeftQE(PmtMaxSize);
             std::vector<G4float> PmtYieldRightQE(PmtMaxSize);
             std::vector<G4float> PmtYieldTotalQE(PmtMaxSize);
             std::vector<G4float> PmtYieldLeftELPeak(PmtMaxSize);
             std::vector<G4float> PmtYieldRightELPeak(PmtMaxSize);
             std::vector<G4float> PmtYieldTotalELPeak(PmtMaxSize);
 
             // loop over hits
             for (int i1 = 0; i1 < n_hitCerenkovPMT; i1++) {
 
                 QweakSimCerenkov_PMTHit* aHit = (*CerenkovDetectorPMT_HC)[i1];
                 G4int octantID = (Int_t) aHit->GetDetectorID() + 1;
 
                 if (octantID > (Int_t) PmtHitsLeft.size()) {
                   G4cerr << "octantID is larger than size of vectorPmtHitsLeft in QweakSimEventAction!" << G4endl;
                   break;
                 }
 
                 //------------------------------------------------------------------------
                 PmtTime.push_back(aHit->GetHitTime());
                 PmtEnergy.push_back(aHit->GetPhotonEnergy());
                 PmtOctant.push_back(0);
 
                 //------------------------------------------------------------------------
                 if (aHit->GetPMTID() == 0) { // left PMT
                     //if(aHit->IsHitValid())
                     {
                         PmtOctant.back() = -octantID;
                         PmtHitsLeft[octantID]++;
                         PmtNPELeft[octantID] += myUserInfo->GetNumberOfPhotoelectronsS20(aHit->GetPhotonEnergy()*1.0e6);
                         // G4cout<<"pmtNPELeft: "<<pmtNPELeft[octantID]<<G4endl;
                     }
                 }
 
                 if (aHit->GetPMTID() == 1) { // right PMT
                     //if(aHit->IsHitValid())
                     {
                         PmtOctant.back() = +octantID;
                         PmtHitsRight[octantID]++;
                         PmtNPERight[octantID] += myUserInfo->GetNumberOfPhotoelectronsS20(aHit->GetPhotonEnergy()*1.0e6);
                         // G4cout<<"pmtNPERight: "<<pmtNPERight[octantID]<<G4endl;
                     }
                 }
 
                 PmtHasBeenHit[octantID] = 5;
                 PmtHitsTotal[octantID]++;
                 PmtNPETotal[octantID] += myUserInfo->GetNumberOfPhotoelectronsS20(aHit->GetPhotonEnergy()*1.0e6);
                 // G4cout<<"pmtNPETTotal: "<<pmtNPETotal[octantID]<<G4endl;
 
                 //------------------------------------------------------------------------
 
             } // end for (int i1 = 0; i1 < n_hitCerenkovPMT; i1++)
 
             // Loop over all octants
             for (int octantID = 0; octantID < PmtMaxSize; octantID++) {
                 if (PmtHasBeenHit[octantID] != 5) continue; // skip octants without hits
 
                 PmtRateTotal[octantID] = CalculateRate( myUserInfo->GetCrossSection(), (Bool_t)PmtNPETotal[octantID] );
                 PmtRateLeft[octantID] = CalculateRate( myUserInfo->GetCrossSection(), (Bool_t)PmtNPELeft[octantID] );
                 PmtRateRight[octantID] = CalculateRate( myUserInfo->GetCrossSection(), (Bool_t)PmtNPERight[octantID] );
 
                 PmtRateTotalEL[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadElastic(), (Bool_t)PmtNPETotal[octantID] );
                 PmtRateLeftEL[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadElastic(), (Bool_t)PmtNPELeft[octantID] );
                 PmtRateRightEL[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadElastic(), (Bool_t)PmtNPERight[octantID] );
 
                 PmtRateTotalDIS[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadDIS(), (Bool_t)PmtNPETotal[octantID] );
                 PmtRateLeftDIS[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadDIS(), (Bool_t)PmtNPELeft[octantID] );
                 PmtRateRightDIS[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadDIS(), (Bool_t)PmtNPERight[octantID] );
 
                 PmtRateTotalQE[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadQE(), (Bool_t)PmtNPETotal[octantID] );
                 PmtRateLeftQE[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadQE(), (Bool_t)PmtNPELeft[octantID] );
                 PmtRateRightQE[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadQE(), (Bool_t)PmtNPERight[octantID] );
 
                 PmtRateTotalELPeak[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadElasticPeak(), (Bool_t)PmtNPETotal[octantID] );
                 PmtRateLeftELPeak[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadElasticPeak(), (Bool_t)PmtNPELeft[octantID] );
                 PmtRateRightELPeak[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadElasticPeak(), (Bool_t)PmtNPERight[octantID] );
 
                 PmtYieldTotal[octantID] = CalculateRate( myUserInfo->GetCrossSection(), PmtNPETotal[octantID] );
                 PmtYieldLeft[octantID] = CalculateRate( myUserInfo->GetCrossSection(), PmtNPELeft[octantID] );
                 PmtYieldRight[octantID] = CalculateRate( myUserInfo->GetCrossSection(), PmtNPERight[octantID] );
 
                 PmtYieldTotalEL[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadElastic(), PmtNPETotal[octantID] );
                 PmtYieldLeftEL[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadElastic(), PmtNPELeft[octantID] );
                 PmtYieldRightEL[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadElastic(), PmtNPERight[octantID] );
 
                 PmtYieldTotalDIS[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadDIS(), PmtNPETotal[octantID] );
                 PmtYieldLeftDIS[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadDIS(), PmtNPELeft[octantID] );
                 PmtYieldRightDIS[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadDIS(), PmtNPERight[octantID] );
 
                 PmtYieldTotalQE[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadQE(), PmtNPETotal[octantID] );
                 PmtYieldLeftQE[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadQE(), PmtNPELeft[octantID] );
                 PmtYieldRightQE[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadQE(), PmtNPERight[octantID] );
 
                 PmtYieldTotalELPeak[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadElasticPeak(), PmtNPETotal[octantID] );
                 PmtYieldLeftELPeak[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadElasticPeak(), PmtNPELeft[octantID] );
                 PmtYieldRightELPeak[octantID] = CalculateRate( myUserInfo->GetCrossSectionRadElasticPeak(), PmtNPERight[octantID] );
 
             } // end for (int octantID = 0; octantID < PmtMaxSize; octantID++)
 
             // has the detector been hit
             analysis->fRootEvent->Cerenkov.PMT.StorePMTHasBeenHit(PmtHasBeenHit);
 
             //---------------------------------------------
             // store number of hits for left and right PMT
             //---------------------------------------------
             analysis->fRootEvent->Cerenkov.PMT.StorePMTTimeOfHits(PmtTime);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTEnergyOfHits(PmtEnergy);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTOctantOfHits(PmtOctant);
 
             //---------------------------------------------
             // store number of hits for left and right PMT
             //---------------------------------------------
             analysis->fRootEvent->Cerenkov.PMT.StorePMTLeftNbOfHits(PmtHitsLeft);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTRightNbOfHits(PmtHitsRight);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTTotalNbOfHits(PmtHitsTotal);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTLeftNbOfPEs(PmtNPELeft);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTRightNbOfPEs(PmtNPERight);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTTotalNbOfPEs(PmtNPETotal);
 
             //---------------------------------------------
             // store rates for left and right PMT
             //---------------------------------------------
             analysis->fRootEvent->Cerenkov.PMT.StorePMTLeftRate(PmtRateLeft);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTRightRate(PmtRateRight);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTTotalRate(PmtRateTotal);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTLeftRateEL(PmtRateLeftEL);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTRightRateEL(PmtRateRightEL);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTTotalRateEL(PmtRateTotalEL);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTLeftRateDIS(PmtRateLeftDIS);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTRightRateDIS(PmtRateRightDIS);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTTotalRateDIS(PmtRateTotalDIS);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTLeftRateQE(PmtRateLeftQE);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTRightRateQE(PmtRateRightQE);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTTotalRateQE(PmtRateTotalQE);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTLeftRateELPeak(PmtRateLeftELPeak);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTRightRateELPeak(PmtRateRightELPeak);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTTotalRateELPeak(PmtRateTotalELPeak);
 
             //---------------------------------------------
             // store yields for left and right PMT
             //---------------------------------------------
             analysis->fRootEvent->Cerenkov.PMT.StorePMTLeftYield(PmtYieldLeft);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTRightYield(PmtYieldRight);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTTotalYield(PmtYieldTotal);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTLeftYieldEL(PmtYieldLeftEL);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTRightYieldEL(PmtYieldRightEL);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTTotalYieldEL(PmtYieldTotalEL);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTLeftYieldDIS(PmtYieldLeftDIS);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTRightYieldDIS(PmtYieldRightDIS);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTTotalYieldDIS(PmtYieldTotalDIS);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTLeftYieldQE(PmtYieldLeftQE);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTRightYieldQE(PmtYieldRightQE);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTTotalYieldQE(PmtYieldTotalQE);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTLeftYieldELPeak(PmtYieldLeftELPeak);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTRightYieldELPeak(PmtYieldRightELPeak);
             analysis->fRootEvent->Cerenkov.PMT.StorePMTTotalYieldELPeak(PmtYieldTotalELPeak);
 
             //==============================================================================
 
         } // end if (n_hitCerenkovPMT > 0)
 
         //==============================
         // Store HDC hits into /Region2
         //==============================
 
         if (n_HDChitWirePlane > 0) {
 
             // loop over wire plane hits
             for (int i1=0;i1<n_HDChitWirePlane;i1++) {
 
                 int HDC_Chamber_Plane_NbOfHits[2][6];
                 for (int chamber = 0; chamber < 2; chamber++)
                   for (int plane = 0; plane < 6; plane++)
                     HDC_Chamber_Plane_NbOfHits[chamber][plane] = 0;
 
                 // get hit pointer for each hit
                 QweakSimHDC_WirePlaneHit* aHit = (*HDC_WirePlane_HC)[i1];
 
                 // get local position of hit
                 G4ThreeVector localPosition  = aHit->GetLocalPosition();
                 Float_t rLocalPositionX = (Float_t) localPosition.x() / cm;
                 Float_t rLocalPositionY = (Float_t) localPosition.y() / cm;
                 Float_t rLocalPositionZ = (Float_t) localPosition.z() / cm;
 
                 // get world position of hit
                 G4ThreeVector globalPosition  = aHit->GetWorldPosition();
                 Float_t rGlobalPositionX = (Float_t) globalPosition.x() / cm;
                 Float_t rGlobalPositionY = (Float_t) globalPosition.y() / cm;
                 Float_t rGlobalPositionZ = (Float_t) globalPosition.z() / cm;
 
                 // get local Momentum of hit
                 G4ThreeVector localMomentum = aHit->GetLocalMomentum();
                 Float_t rLocalMomentumX = (Float_t) localMomentum.x() / MeV;
                 Float_t rLocalMomentumY = (Float_t) localMomentum.y() / MeV;
                 Float_t rLocalMomentumZ = (Float_t) localMomentum.z() / MeV;
 
                 // get world Momentum of hit
                 G4ThreeVector globalMomentum  = aHit->GetWorldMomentum();
                 Float_t rGlobalMomentumX = (Float_t) globalMomentum.x() / MeV;
                 Float_t rGlobalMomentumY = (Float_t) globalMomentum.y() / MeV;
                 Float_t rGlobalMomentumZ = (Float_t) globalMomentum.z() / MeV;
                 Float_t rGlobalThetaAngle = (Float_t) globalMomentum.theta() / degree;
                 Float_t rGlobalPhiAngle   = (Float_t) globalMomentum.phi() / degree - 90.0;
 
                 G4ThreeVector originVertexPosition  = aHit->GetOriginVertexPosition();
                 Float_t rOriginVertexPositionX      = (Float_t) originVertexPosition.x() / cm;
                 Float_t rOriginVertexPositionY      = (Float_t) originVertexPosition.y() / cm;
                 Float_t rOriginVertexPositionZ      = (Float_t) originVertexPosition.z() / cm;
 
 
                 G4ThreeVector originVertexMomentumDirection = aHit->GetOriginVertexMomentumDirection();
                 Float_t rOriginVertexMomentumDirectionX = (Float_t) originVertexMomentumDirection.x();
                 Float_t rOriginVertexMomentumDirectionY = (Float_t) originVertexMomentumDirection.y();
                 Float_t rOriginVertexMomentumDirectionZ = (Float_t) originVertexMomentumDirection.z();
                 Float_t rOriginVertexPhiAngle   = (Float_t) originVertexMomentumDirection.phi() / degree;
                 Float_t rOriginVertexThetaAngle = (Float_t) originVertexMomentumDirection.theta() / degree;
 
                 Float_t rOriginVertexKineticEnergy = (Float_t) aHit->GetOriginVertexKineticEnergy() / MeV;
                 Float_t rOriginVertexTotalEnergy   = (Float_t) aHit->GetOriginVertexTotalEnergy() / MeV;
 
                 Float_t rGlobalTime = (Float_t) aHit->GetGlobalTime() / ns;
                 TString rParticleName = TString(aHit->GetParticleName());
                 Int_t rParticleType = (Int_t) aHit->GetParticleType();
 
                 // get total Energy of hit
                 Float_t rTotalEnergy     = (Float_t) aHit->GetTotalEnergy() / MeV;
 
                 // get kinetic Energy of hit
                 Float_t rKineticEnergy     = (Float_t) aHit->GetKineticEnergy() / MeV;
 
                 //-----------------------------------
                 int iHDCID = aHit->GetHDCID();
                 int iHDC_Chamber = -1; //0 Corresponds to Front, 1 Corresponds to Back
                 QweakSimUserHDC_SingleHDCEvent* single_hdc_event = 0;
                 if (iHDCID == 0 || iHDCID == 2){
                   iHDC_Chamber = 0;
                   single_hdc_event = &(analysis->fRootEvent->Region2.ChamberFront);
                 }
                 if (iHDCID == 1 || iHDCID == 3){
                   iHDC_Chamber = 1;
                   single_hdc_event = &(analysis->fRootEvent->Region2.ChamberBack);
                 }
 
                 //-----------------------------------
                 if (single_hdc_event == 0) {
                     G4cerr << "HDC hit with incorrect chamber ID." << G4endl;
                     break;
                 }
                 int iHDCpackage = -1; // 0 correponds to package 1, 1 corresponds to package 2
                            if(iHDCID == 0 || iHDCID == 1)
                             iHDCpackage = 1;
                            if(iHDCID == 2 || iHDCID == 3)
                             iHDCpackage = 2;
                 //-----------------------------------
                 int iWirePlaneID = aHit->GetWirePlaneID();
                 QweakSimUserHDC_WirePlaneEvent* wire_plane_event = 0;
                 if (iWirePlaneID == 0)
                   wire_plane_event = &(single_hdc_event->WirePlane1);
                 if (iWirePlaneID == 1)
                   wire_plane_event = &(single_hdc_event->WirePlane2);
                 if (iWirePlaneID == 2)
                   wire_plane_event = &(single_hdc_event->WirePlane3);
                 if (iWirePlaneID == 3)
                   wire_plane_event = &(single_hdc_event->WirePlane4);
                 if (iWirePlaneID == 4)
                   wire_plane_event = &(single_hdc_event->WirePlane5);
                 if (iWirePlaneID == 5)
                   wire_plane_event = &(single_hdc_event->WirePlane6);
 
                 //-----------------------------------
                 if (wire_plane_event == 0) {
                     G4cerr << "HDC hit with incorrect plane ID." << G4endl;
                     break;
                 }
 
                 //-----------------------------------
                 // store number of hits
                 HDC_Chamber_Plane_NbOfHits[iHDC_Chamber][iWirePlaneID]++;
                 wire_plane_event->StoreNbOfHits(HDC_Chamber_Plane_NbOfHits[iHDC_Chamber][iWirePlaneID]);
 
                 // mark wire plane as been hit
                 wire_plane_event->StorePlaneHasBeenHit(5);
 
                 // store package hit occurred in
                 wire_plane_event->StorePackageID(iHDCpackage);
 
                 // store origin vertex info
                 wire_plane_event->StoreOriginVertexPositionX(rOriginVertexPositionX);
                 wire_plane_event->StoreOriginVertexPositionY(rOriginVertexPositionY);
                 wire_plane_event->StoreOriginVertexPositionZ(rOriginVertexPositionZ);
                 wire_plane_event->StoreOriginVertexMomentumDirectionX(rOriginVertexMomentumDirectionX);
                 wire_plane_event->StoreOriginVertexMomentumDirectionY(rOriginVertexMomentumDirectionY);
                 wire_plane_event->StoreOriginVertexMomentumDirectionZ(rOriginVertexMomentumDirectionZ);
                 wire_plane_event->StoreOriginVertexPhiAngle( rOriginVertexPhiAngle );
                 wire_plane_event->StoreOriginVertexThetaAngle( rOriginVertexThetaAngle );
 
                 wire_plane_event->StoreOriginVertexKineticEnergy(rOriginVertexKineticEnergy);
                 wire_plane_event->StoreOriginVertexTotalEnergy(rOriginVertexTotalEnergy);
 
                 wire_plane_event->StoreGlobalTimeOfHit(rGlobalTime);
                 wire_plane_event->StoreParticleName(rParticleName);
                 wire_plane_event->StoreParticleType(rParticleType);
 
                 wire_plane_event->StorePlaneLocalPositionX(rLocalPositionX);
                 wire_plane_event->StorePlaneLocalPositionY(rLocalPositionY);
                 wire_plane_event->StorePlaneLocalPositionZ(rLocalPositionZ);
 
                 wire_plane_event->StorePlaneGlobalPositionX(rGlobalPositionX);
                 wire_plane_event->StorePlaneGlobalPositionY(rGlobalPositionY);
                 wire_plane_event->StorePlaneGlobalPositionZ(rGlobalPositionZ);
 
                 // store wire plane hit momentum
                 wire_plane_event->StorePlaneLocalMomentumX(rLocalMomentumX);
                 wire_plane_event->StorePlaneLocalMomentumY(rLocalMomentumY);
                 wire_plane_event->StorePlaneLocalMomentumZ(rLocalMomentumZ);
 
                 wire_plane_event->StorePlaneGlobalMomentumX(rGlobalMomentumX);
                 wire_plane_event->StorePlaneGlobalMomentumY(rGlobalMomentumY);
                 wire_plane_event->StorePlaneGlobalMomentumZ(rGlobalMomentumZ);
 
                 // store global track angles Phi and Theta
                 wire_plane_event->StoreGlobalPhiAngle(rGlobalPhiAngle);
                 wire_plane_event->StoreGlobalThetaAngle(rGlobalThetaAngle);
 
                 // store total+kinetic energy of hit
                 wire_plane_event->StoreTotalEnergy(rTotalEnergy);
                 wire_plane_event->StoreKineticEnergy(rKineticEnergy);
 
                 //-----------------------------------
 
             } // end of  for(int i1=0;i1<n_HDChitWirePlane;i1++){
 
         } // end of if (n_HDChitWirePlane > 0)
 
 
         //===============================================================================================================
 
         //==============================
         // Store GEM hits into /Region1
         //==============================
 
 /* start GEM comments
 
         if (n_GEMhitWirePlane > 0) {
             //========================================
             // Store GEM Hit Information into /Region1
             //========================================
 
             int GEM_ChamberFront_WirePlane_NbOfHits = 0;
             int GEM_ChamberBack_WirePlane_NbOfHits = 0;
 
             // loop over wire plane hits
             // up to now there should be only one GEM per octant
             for (int i1=0;i1<n_GEMhitWirePlane;i1++) {
 
                 // get hit pointer for each hit
                 QweakSimGEM_WirePlaneHit* aHit = (*GEM_WirePlane_HC)[i1];
 
                 // G4cout << G4endl << "###### Printing GEM hit info within QweakSimEventAction::EndOfEventAction() " << G4endl << G4endl;
                 if (print_GEM_WirePlaneHit) aHit->Print();
 
                 // get local position of hit
                 G4ThreeVector localPosition  = aHit->GetLocalPosition();
                 Float_t rLocalPositionX = (Float_t) localPosition.x() / cm;
                 Float_t rLocalPositionY = (Float_t) localPosition.y() / cm;
                 Float_t rLocalPositionZ = (Float_t) localPosition.z() / cm;
 
                 // get world position of hit
                 G4ThreeVector globalPosition  = aHit->GetWorldPosition();
                 Float_t rGlobalPositionX = (Float_t) globalPosition.x() / cm;
                 Float_t rGlobalPositionY = (Float_t) globalPosition.y() / cm;
                 Float_t rGlobalPositionZ = (Float_t) globalPosition.z() / cm;
 
                 // get local Momentum of hit
                 G4ThreeVector localMomentum = aHit->GetLocalMomentum();
                 Float_t rLocalMomentumX = (Float_t) localMomentum.x() / MeV;
                 Float_t rLocalMomentumY = (Float_t) localMomentum.y() / MeV;
                 Float_t rLocalMomentumZ = (Float_t) localMomentum.z() / MeV;
 
                 // get world Momentum of hit
                 G4ThreeVector globalMomentum  = aHit->GetWorldMomentum();
                 Float_t rGlobalMomentumX = (Float_t) globalMomentum.x() / MeV;
                 Float_t rGlobalMomentumY = (Float_t) globalMomentum.y() / MeV;
                 Float_t rGlobalMomentumZ = (Float_t) globalMomentum.z() / MeV;
                 Float_t rGlobalThetaAngle = globalMomentum.theta() / degree;
                 Float_t rGlobalPhiAngle   = globalMomentum.phi() / degree - 90.0;
 
                 G4ThreeVector originVertexPosition  = aHit->GetOriginVertexPosition();
                 Float_t rOriginVertexPositionX      = (Float_t) originVertexPosition.x() / cm;
                 Float_t rOriginVertexPositionY      = (Float_t) originVertexPosition.y() / cm;
                 Float_t rOriginVertexPositionZ      = (Float_t) originVertexPosition.z() / cm;
 
                 G4ThreeVector originVertexMomentumDirection = aHit->GetOriginVertexMomentumDirection();
                 Float_t rOriginVertexMomentumDirectionX = (Float_t) originVertexMomentumDirection.x();
                 Float_t rOriginVertexMomentumDirectionY = (Float_t) originVertexMomentumDirection.y();
                 Float_t rOriginVertexMomentumDirectionZ = (Float_t) originVertexMomentumDirection.z();
                 Float_t rOriginVertexPhiAngle   = (Float_t) originVertexMomentumDirection.phi() / degree;
                 Float_t rOriginVertexThetaAngle = (Float_t) originVertexMomentumDirection.theta() / degree;
 
                 Float_t rOriginVertexKineticEnergy = (Float_t) aHit->GetOriginVertexKineticEnergy() / MeV;
                 Float_t rOriginVertexTotalEnergy = (Float_t) aHit->GetOriginVertexTotalEnergy() / MeV;
 
                 Float_t rGlobalTime = (Float_t) aHit->GetGlobalTime() / ns;
 
                 // get total Energy of hit
                 Float_t rtotalEnergy     = (Float_t) aHit->GetTotalEnergy() / MeV;
 
                 // get kinetic Energy of hit
                 Float_t rkineticEnergy     = (Float_t) aHit->GetKineticEnergy() / MeV;
 
                 //-----------------------------------
 
                 if ((aHit->GetGEMID()==0) && (aHit->GetWirePlaneID()==0)) {
 
                     GEM_ChamberFront_WirePlane_NbOfHits++;
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StoreNbOfHits(GEM_ChamberFront_WirePlane_NbOfHits++);
 
                     // mark wire plane as been hit
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StorePlaneHasBeenHit(5);
 
 
                     // store origin vertex info
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StoreOriginVertexPositionX(rOriginVertexPositionX);
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StoreOriginVertexPositionY(rOriginVertexPositionY);
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StoreOriginVertexPositionZ(rOriginVertexPositionZ);
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StoreOriginVertexMomentumDirectionX(rOriginVertexMomentumDirectionX);
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StoreOriginVertexMomentumDirectionY(rOriginVertexMomentumDirectionY);
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StoreOriginVertexMomentumDirectionZ(rOriginVertexMomentumDirectionZ);
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StoreOriginVertexPhiAngle( rOriginVertexPhiAngle );
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StoreOriginVertexThetaAngle( rOriginVertexThetaAngle );
                     //------------------------------------------------------------------------------------------------------------------------------------------
 
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StoreOriginVertexKineticEnergy(rOriginVertexKineticEnergy);
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StoreOriginVertexTotalEnergy(rOriginVertexTotalEnergy);
 
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StoreGlobalTimeOfHit(rGlobalTime);
 
 
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StorePlaneLocalPositionX(rLocalPositionX);
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StorePlaneLocalPositionY(rLocalPositionY);
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StorePlaneLocalPositionZ(rLocalPositionZ);
 
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StorePlaneGlobalPositionX(rGlobalPositionX);
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StorePlaneGlobalPositionY(rGlobalPositionY);
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StorePlaneGlobalPositionZ(rGlobalPositionZ);
 
                     // store wire plane hit momentum
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StorePlaneLocalMomentumX(rLocalMomentumX);
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StorePlaneLocalMomentumY(rLocalMomentumY);
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StorePlaneLocalMomentumZ(rLocalMomentumZ);
 
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StorePlaneGlobalMomentumX(rGlobalMomentumX);
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StorePlaneGlobalMomentumY(rGlobalMomentumY);
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StorePlaneGlobalMomentumZ(rGlobalMomentumZ);
 
                     // store global track angles Phi and Theta
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StoreGlobalPhiAngle(rGlobalPhiAngle);
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StoreGlobalThetaAngle(rGlobalThetaAngle);
 
                     // store total+kinetic energy of hit
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StoreTotalEnergy(rtotalEnergy);
                     analysis->fRootEvent->Region1.ChamberFront.WirePlane.StoreKineticEnergy(rkineticEnergy);
 
                 } //end of if((aHit->GetGEMID()==0) && (aHit->GetWirePlaneID()==0))
 
 
                 //-----------------------------------
 
                 if ((aHit->GetGEMID()==1) && (aHit->GetWirePlaneID()==0)) {
 
                     GEM_ChamberBack_WirePlane_NbOfHits++;
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StoreNbOfHits(GEM_ChamberBack_WirePlane_NbOfHits++);
 
                     // mark wire plane as been hit
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StorePlaneHasBeenHit(5);
 
                     // store origin vertex info
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StoreOriginVertexPositionX(rOriginVertexPositionX);
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StoreOriginVertexPositionY(rOriginVertexPositionY);
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StoreOriginVertexPositionZ(rOriginVertexPositionZ);
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StoreOriginVertexMomentumDirectionX(rOriginVertexMomentumDirectionX);
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StoreOriginVertexMomentumDirectionY(rOriginVertexMomentumDirectionY);
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StoreOriginVertexMomentumDirectionZ(rOriginVertexMomentumDirectionZ);
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StoreOriginVertexPhiAngle( rOriginVertexPhiAngle );
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StoreOriginVertexThetaAngle( rOriginVertexThetaAngle );
 
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StoreOriginVertexKineticEnergy(rOriginVertexKineticEnergy);
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StoreOriginVertexTotalEnergy(rOriginVertexTotalEnergy);
 
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StoreGlobalTimeOfHit(rGlobalTime);
 
 
 
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StorePlaneLocalPositionX(rLocalPositionX);
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StorePlaneLocalPositionY(rLocalPositionY);
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StorePlaneLocalPositionZ(rLocalPositionZ);
 
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StorePlaneGlobalPositionX(rGlobalPositionX);
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StorePlaneGlobalPositionY(rGlobalPositionY);
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StorePlaneGlobalPositionZ(rGlobalPositionZ);
 
                     // store wire plane hit momentum
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StorePlaneLocalMomentumX(rLocalMomentumX);
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StorePlaneLocalMomentumY(rLocalMomentumY);
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StorePlaneLocalMomentumZ(rLocalMomentumZ);
 
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StorePlaneGlobalMomentumX(rGlobalMomentumX);
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StorePlaneGlobalMomentumY(rGlobalMomentumY);
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StorePlaneGlobalMomentumZ(rGlobalMomentumZ);
 
                     // store global track angles Phi and Theta
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StoreGlobalPhiAngle(rGlobalPhiAngle);
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StoreGlobalThetaAngle(rGlobalThetaAngle);
 
                     // store total+kinetic energy of hit
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StoreTotalEnergy(rtotalEnergy);
                     analysis->fRootEvent->Region1.ChamberBack.WirePlane.StoreKineticEnergy(rkineticEnergy);
 
                 } // end of if((aHit->GetGEMID()==1) && (aHit->GetWirePlaneID()==0)) {
 
                 //-----------------------------------
 
 
             } // end of  for(int i1=0;i1<n_GEMhitWirePlane;i1++){
 
         } // end of if ( (n_GEMhitWirePlane == 1)
 
 */  // end of GEM comments
 
 
         //===========================================================
         // Store Target hits into /Target
         //===========================================================
 
         if (n_hitTarget >0) {
             // initialize deposited energy
             Float_t rTotalDepositedEnergy = 0.0;
 
             //--- loop over hits
             for (int i1=0;i1<n_hitTarget;i1++) {
 
                 QweakSimTarget_DetectorHit* aHit = (*TargetDetector_HC)[i1];
 
                 //--- track ID
                 Float_t rTrackID = (Float_t) aHit->GetTrackID();
 
                 //--- particle name & type
                 TString rParticleName = TString(aHit->GetParticleName());
                 Int_t rParticleType = (Int_t) aHit->GetParticleType();
 
                 //--- get global time of hit
                 Float_t rGlobalTime = (Float_t) aHit->GetGlobalTime() / ns;
 
                 //--- get world position of hit
                 G4ThreeVector globalPosition  = aHit->GetWorldPosition();
                 Float_t rGlobalPositionX = (Float_t) globalPosition.x() / cm;
                 Float_t rGlobalPositionY = (Float_t) globalPosition.y() / cm;
                 Float_t rGlobalPositionZ = (Float_t) globalPosition.z() / cm;
 
                 //--- get local position of hit
                 G4ThreeVector localPosition  = aHit->GetLocalPosition();
                 Float_t rLocalPositionX = (Float_t) localPosition.x() / cm;
                 Float_t rLocalPositionY = (Float_t) localPosition.y() / cm;
                 Float_t rLocalPositionZ = (Float_t) localPosition.z() / cm;
 
                 //--- get origin vertex position
                 G4ThreeVector originVertexPosition  = aHit->GetOriginVertexPosition();
                 Float_t rOriginVertexPositionX = (Float_t) originVertexPosition.x() / cm;
                 Float_t rOriginVertexPositionY = (Float_t) originVertexPosition.y() / cm;
                 Float_t rOriginVertexPositionZ = (Float_t) originVertexPosition.z() / cm;
 
                 //--- get world momentum of hit
                 G4ThreeVector globalMomentum  = aHit->GetWorldMomentum();
                 //Float_t rGlobalMomentumX = (Float_t) globalMomentum.x() / MeV;
                 //Float_t rGlobalMomentumY = (Float_t) globalMomentum.y() / MeV;
                 //Float_t rGlobalMomentumZ = (Float_t) globalMomentum.z() / MeV;
 
                 //--- get global theta & phi angle
                 Float_t rGlobalThetaAngle = (Float_t) globalMomentum.theta() / degree;
                 Float_t rGlobalPhiAngle   = (Float_t) globalMomentum.phi() / degree - 90.0;
 
                 //--- get local momentum of hit
                 //G4ThreeVector localMomentum = aHit->GetLocalMomentum();
                 //Float_t rLocalMomentumX = (Float_t) localMomentum.x() / MeV;
                 //Float_t rLocalMomentumY = (Float_t) localMomentum.y() / MeV;
                 //Float_t rLocalMomentumZ = (Float_t) localMomentum.z() / MeV;
 
                 //--- get local vertex momentum direction of hit
                 G4ThreeVector localVertexMomentumDirection = aHit->GetMomentumDirection();
                 Float_t rLocalVertexMomentumDirectionX = (Float_t) localVertexMomentumDirection.x();
                 Float_t rLocalVertexMomentumDirectionY = (Float_t) localVertexMomentumDirection.y();
                 Float_t rLocalVertexMomentumDirectionZ = (Float_t) localVertexMomentumDirection.z();
 
                 //--- get origin vertex momentum direction of hit
                 G4ThreeVector originVertexMomentumDirection = aHit->GetOriginVertexMomentumDirection();
                 Float_t rOriginVertexMomentumDirectionX = (Float_t) originVertexMomentumDirection.x();
                 Float_t rOriginVertexMomentumDirectionY = (Float_t) originVertexMomentumDirection.y();
                 Float_t rOriginVertexMomentumDirectionZ = (Float_t) originVertexMomentumDirection.z();
 
                 //--- get origin vertex theta & phi angle
                 Float_t rOriginVertexThetaAngle = (Float_t) originVertexMomentumDirection.theta() / degree;
                 Float_t rOriginVertexPhiAngle   = (Float_t) originVertexMomentumDirection.phi() / degree;
 
                 //--- get origin vertex kinetic energy & total energy
                 Float_t rOriginVertexKineticEnergy = (Float_t ) aHit->GetOriginVertexKineticEnergy() / MeV;
                 Float_t rOriginVertexTotalEnergy   = (Float_t ) aHit->GetOriginVertexTotalEnergy() / MeV;
 
                 //--- get total energy & total energy of hit
                 Float_t rKineticEnergy = (Float_t) aHit->GetKineticEnergy() / MeV;
                 Float_t rTotalEnergy = (Float_t) aHit->GetTotalEnergy() / MeV;
 
                 //--- get Target deposited energy
                 Float_t rDepositedEnergy = (Float_t) aHit->GetHitDepositedEnergy() / MeV;
                 rTotalDepositedEnergy += rDepositedEnergy;
 
                 // beam energy (before energy loss in target), explicitly in MeV
                 G4double beamEnergy = myUserInfo->GetBeamEnergy() / MeV;
 
                 // incoming and outgoing momentum (taking into account rastering)
                 G4ThreeVector p_in = myUserInfo->GetNormMomentum();
                 G4ThreeVector p_out = globalMomentum;
                 // scattering angle between incoming and outgoing momentum direction
                 G4double scatteringAngle = acos(p_out.dot(p_in)/p_in.mag()/p_out.mag());
 
                 //--- determine elastic cross section
                 G4double rElasticCrossSection = 0;
                 G4double rElasticMomentumTransfer = 0;
                 G4double rElasticScatteredEnergy = 0;
                 myUserInfo->GetEPEvent()->Elastic_Cross_Section_Proton(
                     /* input  */ beamEnergy,
                                  scatteringAngle,
                     /* output */ rElasticCrossSection,
                                  rElasticMomentumTransfer,
                                  rElasticScatteredEnergy);
 
                 //--- store Primary Event Number
                 analysis->fRootEvent->Target.Detector.StorePrimaryEventNumber((Int_t) PrimaryEventNumber);
 
                 //--- store track ID
                 analysis->fRootEvent->Target.Detector.StoreTrackID(rTrackID);
 
                 //--- store particle name & type
                 analysis->fRootEvent->Target.Detector.StoreParticleName(rParticleName);
                 analysis->fRootEvent->Target.Detector.StoreParticleType(rParticleType);
 
                 //--- store global time of hit
                 analysis->fRootEvent->Target.Detector.StoreGlobalTimeOfHit(rGlobalTime);
 
                 //--- mark target detector as been hit
                 analysis->fRootEvent->Target.Detector.StoreDetectorHasBeenHit(5);
 
                 //--- store global position
                 analysis->fRootEvent->Target.Detector.StoreDetectorGlobalPositionX(rGlobalPositionX);
                 analysis->fRootEvent->Target.Detector.StoreDetectorGlobalPositionY(rGlobalPositionY);
                 analysis->fRootEvent->Target.Detector.StoreDetectorGlobalPositionZ(rGlobalPositionZ);
 
                 //--- store local position
                 analysis->fRootEvent->Target.Detector.StoreDetectorLocalPositionX(rLocalPositionX);
                 analysis->fRootEvent->Target.Detector.StoreDetectorLocalPositionY(rLocalPositionY);
                 analysis->fRootEvent->Target.Detector.StoreDetectorLocalPositionZ(rLocalPositionZ);
 
                 //--- store origin vertex position
                 analysis->fRootEvent->Target.Detector.StoreOriginVertexPositionX(rOriginVertexPositionX);
                 analysis->fRootEvent->Target.Detector.StoreOriginVertexPositionY(rOriginVertexPositionY);
                 analysis->fRootEvent->Target.Detector.StoreOriginVertexPositionZ(rOriginVertexPositionZ);
 
                 //--- store local vertex momentum direction
                 analysis->fRootEvent->Target.Detector.StoreLocalVertexMomentumDirectionX(rLocalVertexMomentumDirectionX);
                 analysis->fRootEvent->Target.Detector.StoreLocalVertexMomentumDirectionY(rLocalVertexMomentumDirectionY);
                 analysis->fRootEvent->Target.Detector.StoreLocalVertexMomentumDirectionZ(rLocalVertexMomentumDirectionZ);
 
                 //--- store origin vertex momentum direction
                 analysis->fRootEvent->Target.Detector.StoreOriginVertexMomentumDirectionX(rOriginVertexMomentumDirectionX);
                 analysis->fRootEvent->Target.Detector.StoreOriginVertexMomentumDirectionY(rOriginVertexMomentumDirectionY);
                 analysis->fRootEvent->Target.Detector.StoreOriginVertexMomentumDirectionZ(rOriginVertexMomentumDirectionZ);
 
                 //--- store origin theta & phi angle
                 analysis->fRootEvent->Target.Detector.StoreOriginVertexThetaAngle(rOriginVertexThetaAngle);
                 analysis->fRootEvent->Target.Detector.StoreOriginVertexPhiAngle(rOriginVertexPhiAngle);
 
                 //--- store origin kinetic energy & total energy
                 analysis->fRootEvent->Target.Detector.StoreOriginVertexKineticEnergy(rOriginVertexKineticEnergy);
                 analysis->fRootEvent->Target.Detector.StoreOriginVertexTotalEnergy(rOriginVertexTotalEnergy);
 
                 //--- store local vertex kinetic & total energy
                 analysis->fRootEvent->Target.Detector.StoreDetectorLocalVertexKineticEnergy(rKineticEnergy);
                 analysis->fRootEvent->Target.Detector.StoreDetectorLocalVertexTotalEnergy(rTotalEnergy);
 
                 //--- store global track theta & phi angle
                 analysis->fRootEvent->Target.Detector.StoreGlobalThetaAngle(rGlobalThetaAngle);
                 analysis->fRootEvent->Target.Detector.StoreGlobalPhiAngle(rGlobalPhiAngle);
 
                 //--- store target deposited energy
                 analysis->fRootEvent->Target.Detector.StoreDepositedEnergy(rDepositedEnergy);
 
                 //--- store elastic cross section
                 analysis->fRootEvent->Target.Detector.StoreElasticCrossSection(rElasticCrossSection);
                 analysis->fRootEvent->Target.Detector.StoreElasticScatteredEnergy(rElasticScatteredEnergy);
                 analysis->fRootEvent->Target.Detector.StoreElasticMomentumTransfer(rElasticMomentumTransfer);
 
             } // end  for(int i1=0;i1<n_hitTarget;i1++)
 
             // Put the total energy into the thing.
             analysis->fRootEvent->Target.Detector.StoreTotalEnergyDeposit(rTotalDepositedEnergy);
 
         } // end    if (n_hitTarget >0)
 
         //===========================================================
 
         //  Moved these to after the target, so I can grab target energy variables
         CalculateKinematicVariables();
         G4double OriginVertexKinematicNu = myUserInfo->GetOriginVertexKinematicNu();
         G4double OriginVertexKinematicQ2 = myUserInfo->GetOriginVertexKinematicQ2();
         G4double OriginVertexKinematicX  = myUserInfo->GetOriginVertexKinematicX();
         G4double OriginVertexKinematicW  = myUserInfo->GetOriginVertexKinematicW();
         G4double EffectiveKinematicNu    = myUserInfo->GetEffectiveKinematicNu();
         G4double EffectiveKinematicQ2    = myUserInfo->GetEffectiveKinematicQ2();
         G4double EffectiveKinematicX     = myUserInfo->GetEffectiveKinematicX();
         G4double EffectiveKinematicW     = myUserInfo->GetEffectiveKinematicW();
 
 
         analysis->fRootEvent->Primary.StoreOriginVertexKinematicNu((Float_t) OriginVertexKinematicNu);
         analysis->fRootEvent->Primary.StoreOriginVertexKinematicQ2((Float_t) OriginVertexKinematicQ2);
         analysis->fRootEvent->Primary.StoreOriginVertexKinematicX((Float_t) OriginVertexKinematicX);
         analysis->fRootEvent->Primary.StoreOriginVertexKinematicW((Float_t) OriginVertexKinematicW);
         analysis->fRootEvent->Primary.StoreEffectiveKinematicNu((Float_t) EffectiveKinematicNu);
         analysis->fRootEvent->Primary.StoreEffectiveKinematicQ2((Float_t) EffectiveKinematicQ2);
         analysis->fRootEvent->Primary.StoreEffectiveKinematicX((Float_t) EffectiveKinematicX);
         analysis->fRootEvent->Primary.StoreEffectiveKinematicW((Float_t) EffectiveKinematicW);
 
 
 
         //===========================================================
         // Store Trigger Scintillator hits into /TriggerScintillator
         //===========================================================
 
         if (n_hitTriggerScintillator >0) {
             // initialize deposited energy
             Float_t rTotalDepositedEnergy = 0.0;
 
             // loop over hits
             for (int i1=0;i1<n_hitTriggerScintillator;i1++) {
 
                 QweakSimTriggerScintillator_DetectorHit* aHit = (*TriggerScintillatorDetector_HC)[i1];
 
                 if (print_TriggerScintillator_DetectorHit) aHit->Print();
 
                 // get local position of hit
                 G4ThreeVector localPosition  = aHit->GetLocalPosition();
                 Float_t rLocalPositionX = (Float_t) localPosition.x() / cm;
                 Float_t rLocalPositionY = (Float_t) localPosition.y() / cm;
                 Float_t rLocalPositionZ = (Float_t) localPosition.z() / cm;
 
                 // get world position of hit
                 G4ThreeVector globalPosition  = aHit->GetWorldPosition();
                 Float_t rGlobalPositionX = (Float_t) globalPosition.x() / cm;
                 Float_t rGlobalPositionY = (Float_t) globalPosition.y() / cm;
                 Float_t rGlobalPositionZ = (Float_t) globalPosition.z() / cm;
 
                 // get local Momentum of hit
                 //G4ThreeVector localMomentum = aHit->GetLocalMomentum();
                 //Float_t rLocalMomentumX = (Float_t) localMomentum.x() / MeV;
                 //Float_t rLocalMomentumY = (Float_t) localMomentum.y() / MeV;
                 //Float_t rLocalMomentumZ = (Float_t) localMomentum.z() / MeV;
 
                 // get world Momentum of hit
                 G4ThreeVector globalMomentum  = aHit->GetWorldMomentum();
                 //Float_t rGlobalMomentumX = (Float_t) globalMomentum.x() / MeV;
                 //Float_t rGlobalMomentumY = (Float_t) globalMomentum.y() / MeV;
                 //Float_t rGlobalMomentumZ = (Float_t) globalMomentum.z() / MeV;
 
                 // get global theta & phi angle
                 Float_t rGlobalThetaAngle = (Float_t) globalMomentum.theta() / degree;
                 Float_t rGlobalPhiAngle   = (Float_t) globalMomentum.phi() / degree - 90.0;
 
                 G4ThreeVector originVertexPosition  = aHit->GetOriginVertexPosition();
                 Float_t rOriginVertexPositionX      = (Float_t) originVertexPosition.x() / cm;
                 Float_t rOriginVertexPositionY      = (Float_t) originVertexPosition.y() / cm;
                 Float_t rOriginVertexPositionZ      = (Float_t) originVertexPosition.z() / cm;
 
                 G4ThreeVector originVertexMomentumDirection = aHit->GetOriginVertexMomentumDirection();
                 Float_t rOriginVertexMomentumDirectionX = (Float_t) originVertexMomentumDirection.x();
                 Float_t rOriginVertexMomentumDirectionY = (Float_t) originVertexMomentumDirection.y();
                 Float_t rOriginVertexMomentumDirectionZ = (Float_t) originVertexMomentumDirection.z();
                 Float_t rOriginVertexPhiAngle   = (Float_t) originVertexMomentumDirection.phi() / degree;
                 Float_t rOriginVertexThetaAngle = (Float_t) originVertexMomentumDirection.theta() / degree;
 
                 Float_t rOriginVertexKineticEnergy =  (Float_t) aHit->GetOriginVertexKineticEnergy() / MeV;
                 Float_t rOriginVertexTotalEnergy = (Float_t) aHit->GetOriginVertexTotalEnergy() / MeV;
 
                 Float_t rGlobalTime = (Float_t) aHit->GetGlobalTime() / ns;
                 TString rParticleName = TString(aHit->GetParticleName());
                 Int_t rParticleType = (Int_t) aHit->GetParticleType();
                 
                 //--- get TriggerScintillator deposited energy
                 Float_t rDepositedEnergy = (Float_t) aHit->GetHitDepositedEnergy() / MeV;
                 rTotalDepositedEnergy += rDepositedEnergy;
 
                 // mark TriggerScintillator detector as been hit
                 analysis->fRootEvent->TriggerScintillator.Detector.StoreDetectorHasBeenHit(5);
 
                 // store global time of hit
                 analysis->fRootEvent->TriggerScintillator.Detector.StoreGlobalTimeOfHit(rGlobalTime);
 
                 //--- store particle name & type                
                 analysis->fRootEvent->TriggerScintillator.Detector.StoreParticleName(rParticleName);
                 analysis->fRootEvent->TriggerScintillator.Detector.StoreParticleType(rParticleType);
 
                 // Store origin vertex info for first hit
                 if(i1==0) {
                   analysis->fRootEvent->TriggerScintillator.Detector.StoreOriginVertexPositionX(rOriginVertexPositionX);
                   analysis->fRootEvent->TriggerScintillator.Detector.StoreOriginVertexPositionY(rOriginVertexPositionY);
                   analysis->fRootEvent->TriggerScintillator.Detector.StoreOriginVertexPositionZ(rOriginVertexPositionZ);
                   analysis->fRootEvent->TriggerScintillator.Detector.StoreOriginVertexMomentumDirectionX(rOriginVertexMomentumDirectionX);
                   analysis->fRootEvent->TriggerScintillator.Detector.StoreOriginVertexMomentumDirectionY(rOriginVertexMomentumDirectionY);
                   analysis->fRootEvent->TriggerScintillator.Detector.StoreOriginVertexMomentumDirectionZ(rOriginVertexMomentumDirectionZ);
                   analysis->fRootEvent->TriggerScintillator.Detector.StoreOriginVertexPhiAngle( rOriginVertexPhiAngle );
                   analysis->fRootEvent->TriggerScintillator.Detector.StoreOriginVertexThetaAngle( rOriginVertexThetaAngle );
                   analysis->fRootEvent->TriggerScintillator.Detector.StoreOriginVertexKineticEnergy(rOriginVertexKineticEnergy);
                   analysis->fRootEvent->TriggerScintillator.Detector.StoreOriginVertexTotalEnergy(rOriginVertexTotalEnergy);
                 }
 
                 analysis->fRootEvent->TriggerScintillator.Detector.StoreDetectorLocalPositionX(rLocalPositionX);
                 analysis->fRootEvent->TriggerScintillator.Detector.StoreDetectorLocalPositionY(rLocalPositionY);
                 analysis->fRootEvent->TriggerScintillator.Detector.StoreDetectorLocalPositionZ(rLocalPositionZ);
 
                 analysis->fRootEvent->TriggerScintillator.Detector.StoreDetectorGlobalPositionX(rGlobalPositionX);
                 analysis->fRootEvent->TriggerScintillator.Detector.StoreDetectorGlobalPositionY(rGlobalPositionY);
                 analysis->fRootEvent->TriggerScintillator.Detector.StoreDetectorGlobalPositionZ(rGlobalPositionZ);
 
                 analysis->fRootEvent->TriggerScintillator.Detector.StoreDetectorLocalVertexTotalEnergy((Float_t ) aHit->GetTotalEnergy()/MeV);
 
                 // store global track angles Phi and Theta
                 analysis->fRootEvent->TriggerScintillator.Detector.StoreGlobalPhiAngle(rGlobalPhiAngle);
                 analysis->fRootEvent->TriggerScintillator.Detector.StoreGlobalThetaAngle(rGlobalThetaAngle);
                 
                 // Store Energy deposited per hit
                 analysis->fRootEvent->TriggerScintillator.Detector.StoreDepositedEnergy(rDepositedEnergy);
 
             } // end  for(int i1=0;i1<n_hitTriggerScintillator;i1++)
             
             // Store total deposited energy
             analysis->fRootEvent->TriggerScintillator.Detector.StoreTotalEnergyDeposit(rTotalDepositedEnergy);
 
         } // end    if (n_hitTriggerScintillator >0)
 
     
         //===========================================================
         // Store LeadGlass hits into /LeadGlass
         //===========================================================
     
         if (n_hitLeadGlass >0) {
       
             //--- loop over hits
             for (int i1=0;i1<n_hitLeadGlass;i1++) {
         
                 QweakSimLeadGlass_DetectorHit* aHit = (*LeadGlassDetector_HC)[i1];
 
                 //--- track ID
                 Float_t rTrackID = (Float_t) aHit->GetTrackID();
         
                 //--- particle name & type
                 TString rParticleName = TString(aHit->GetParticleName());
                 Int_t rParticleType = (Int_t) aHit->GetParticleType();
         
                 //--- get global time of hit
                 Float_t rGlobalTime = (Float_t) aHit->GetGlobalTime() / ns;
         
                 //--- GetHasBeenHit();
                 //GetEdgeEventFlag();
                 //n_hitLeadGlass <---> GetNbOfHits();
         
                 //--- get world position of hit
                 G4ThreeVector globalPosition  = aHit->GetWorldPosition();
                 Float_t rGlobalPositionX = (Float_t) globalPosition.x() / cm;
                 Float_t rGlobalPositionY = (Float_t) globalPosition.y() / cm;
                 Float_t rGlobalPositionZ = (Float_t) globalPosition.z() / cm;
         
                 //--- get local position of hit
                 G4ThreeVector localPosition  = aHit->GetLocalPosition();
                 Float_t rLocalPositionX = (Float_t) localPosition.x() / cm;
                 Float_t rLocalPositionY = (Float_t) localPosition.y() / cm;
                 Float_t rLocalPositionZ = (Float_t) localPosition.z() / cm;
         
                 //--- get local exit position of hit
                 //G4ThreeVector localExitPosition = aHit->GetLocalExitPosition();
                 //Float_t rLocalExitPositionX = (Float_t) localExitPosition.x() / cm;
                 //Float_t rLocalExitPositionY = (Float_t) localExitPosition.y() / cm;
                 //Float_t rLocalExitPositionZ = (Float_t) localExitPosition.z() / cm;
         
                 //--- get origin vertex position
                 G4ThreeVector originVertexPosition  = aHit->GetOriginVertexPosition();
                 Float_t rOriginVertexPositionX = (Float_t) originVertexPosition.x() / cm;
                 Float_t rOriginVertexPositionY = (Float_t) originVertexPosition.y() / cm;
                 Float_t rOriginVertexPositionZ = (Float_t) originVertexPosition.z() / cm;
         
                 //--- get world momentum of hit
                 G4ThreeVector globalMomentum  = aHit->GetWorldMomentum();
                 //Float_t rGlobalMomentumX = (Float_t) globalMomentum.x() / MeV;
                 //Float_t rGlobalMomentumY = (Float_t) globalMomentum.y() / MeV;
                 //Float_t rGlobalMomentumZ = (Float_t) globalMomentum.z() / MeV;
         
                 //--- get global theta & phi angle
                 Float_t rGlobalThetaAngle = (Float_t) globalMomentum.theta() / degree;
                 Float_t rGlobalPhiAngle   = (Float_t) globalMomentum.phi() / degree - 90.0;
 
                 //--- get local momentum of hit  
                 //G4ThreeVector localMomentum = aHit->GetLocalMomentum();
                 //Float_t rLocalMomentumX = (Float_t) localMomentum.x() / MeV;
                 //Float_t rLocalMomentumY = (Float_t) localMomentum.y() / MeV;
                 //Float_t rLocalMomentumZ = (Float_t) localMomentum.z() / MeV;
         
                 //--- get local vertex momentum direction of hit
                 G4ThreeVector localVertexMomentumDirection = aHit->GetMomentumDirection();
                 Float_t rLocalVertexMomentumDirectionX = (Float_t) localVertexMomentumDirection.x();
                 Float_t rLocalVertexMomentumDirectionY = (Float_t) localVertexMomentumDirection.y();
                 Float_t rLocalVertexMomentumDirectionZ = (Float_t) localVertexMomentumDirection.z();
         
                 //--- get origin vertex momentum direction of hit
                 G4ThreeVector originVertexMomentumDirection = aHit->GetOriginVertexMomentumDirection();
                 Float_t rOriginVertexMomentumDirectionX = (Float_t) originVertexMomentumDirection.x();
                 Float_t rOriginVertexMomentumDirectionY = (Float_t) originVertexMomentumDirection.y();
                 Float_t rOriginVertexMomentumDirectionZ = (Float_t) originVertexMomentumDirection.z();
         
                 //--- get origin vertex theta & phi angle
                 Float_t rOriginVertexThetaAngle = (Float_t) originVertexMomentumDirection.theta() / degree;
                 Float_t rOriginVertexPhiAngle   = (Float_t) originVertexMomentumDirection.phi() / degree;
         
                 //--- get origin vertex kinetic energy & total energy
                 Float_t rOriginVertexKineticEnergy = (Float_t ) aHit->GetOriginVertexKineticEnergy() / MeV;
                 Float_t rOriginVertexTotalEnergy   = (Float_t ) aHit->GetOriginVertexTotalEnergy() / MeV;
         
                 //--- get total energy & total energy of hit
                 Float_t rKineticEnergy = (Float_t) aHit->GetKineticEnergy() / MeV;
                 Float_t rTotalEnergy = (Float_t) aHit->GetTotalEnergy() / MeV;
 
                 //--- get LeadGlass deposited energy
                 Float_t rDepositedEnergy = (Float_t) aHit->GetHitDepositedEnergy() / MeV;
                 //--------------------------------------------------------------------------------------------
 
                 //--- store Primary Event Number
                 analysis->fRootEvent->LeadGlass.Detector.StorePrimaryEventNumber((Int_t) PrimaryEventNumber);
         
                 //--- store track ID
                 analysis->fRootEvent->LeadGlass.Detector.StoreTrackID(rTrackID);
         
                 //--- store particle name & type
                 analysis->fRootEvent->LeadGlass.Detector.StoreParticleName(rParticleName);
                 analysis->fRootEvent->LeadGlass.Detector.StoreParticleType(rParticleType);
         
                 //--- store global time of hit
                 analysis->fRootEvent->LeadGlass.Detector.StoreGlobalTimeOfHit(rGlobalTime);
         
                 //--- mark LeadGlass detector as been hit
                 analysis->fRootEvent->LeadGlass.Detector.StoreDetectorHasBeenHit(5);
                 //--- edge event flag
                 //--- Store Nb of hits  --- Done in previous code
                 //analysis->fRootEvent->LeadGlass.Detector.StoreDetectorNbOfHits(n_hitLeadGlass);
         
                 //--- store global position
                 analysis->fRootEvent->LeadGlass.Detector.StoreDetectorGlobalPositionX(rGlobalPositionX);
                 analysis->fRootEvent->LeadGlass.Detector.StoreDetectorGlobalPositionY(rGlobalPositionY);
                 analysis->fRootEvent->LeadGlass.Detector.StoreDetectorGlobalPositionZ(rGlobalPositionZ);
         
                 //--- store local position
                 analysis->fRootEvent->LeadGlass.Detector.StoreDetectorLocalPositionX(rLocalPositionX);
                 analysis->fRootEvent->LeadGlass.Detector.StoreDetectorLocalPositionY(rLocalPositionY);
                 analysis->fRootEvent->LeadGlass.Detector.StoreDetectorLocalPositionZ(rLocalPositionZ);
         
                 //analysis->fRootEvent->LeadGlass.Detector.StoreDetectorLocalExitPositionX(rLocalExitPositionX);
                 //analysis->fRootEvent->LeadGlass.Detector.StoreDetectorLocalExitPositionY(rLocalExitPositionY);
                 //analysis->fRootEvent->LeadGlass.Detector.StoreDetectorLocalExitPositionZ(rLocalExitPositionZ);
         
                 //--- store origin vertex position
                 analysis->fRootEvent->LeadGlass.Detector.StoreOriginVertexPositionX(rOriginVertexPositionX);
                 analysis->fRootEvent->LeadGlass.Detector.StoreOriginVertexPositionY(rOriginVertexPositionY);
                 analysis->fRootEvent->LeadGlass.Detector.StoreOriginVertexPositionZ(rOriginVertexPositionZ);
         
                 //--- store local vertex momentum direction
                 analysis->fRootEvent->LeadGlass.Detector.StoreLocalVertexMomentumDirectionX(rLocalVertexMomentumDirectionX);
                 analysis->fRootEvent->LeadGlass.Detector.StoreLocalVertexMomentumDirectionY(rLocalVertexMomentumDirectionY);
                 analysis->fRootEvent->LeadGlass.Detector.StoreLocalVertexMomentumDirectionZ(rLocalVertexMomentumDirectionZ);
         
                 //--- store origin vertex momentum direction
                 analysis->fRootEvent->LeadGlass.Detector.StoreOriginVertexMomentumDirectionX(rOriginVertexMomentumDirectionX);
                 analysis->fRootEvent->LeadGlass.Detector.StoreOriginVertexMomentumDirectionY(rOriginVertexMomentumDirectionY);
                 analysis->fRootEvent->LeadGlass.Detector.StoreOriginVertexMomentumDirectionZ(rOriginVertexMomentumDirectionZ);
         
                 //--- store origin theta & phi angle
                 analysis->fRootEvent->LeadGlass.Detector.StoreOriginVertexThetaAngle(rOriginVertexThetaAngle);
                 analysis->fRootEvent->LeadGlass.Detector.StoreOriginVertexPhiAngle(rOriginVertexPhiAngle);
         
                 //--- store origin kinetic energy & total energy
                 analysis->fRootEvent->LeadGlass.Detector.StoreOriginVertexKineticEnergy(rOriginVertexKineticEnergy);
                 analysis->fRootEvent->LeadGlass.Detector.StoreOriginVertexTotalEnergy(rOriginVertexTotalEnergy);
         
                 //--- store local vertex kinetic & total energy
                 analysis->fRootEvent->LeadGlass.Detector.StoreDetectorLocalVertexKineticEnergy(rKineticEnergy);
                 analysis->fRootEvent->LeadGlass.Detector.StoreDetectorLocalVertexTotalEnergy(rTotalEnergy);
         
                 //--- store global track theta & phi angle
                 analysis->fRootEvent->LeadGlass.Detector.StoreGlobalThetaAngle(rGlobalThetaAngle);
                 analysis->fRootEvent->LeadGlass.Detector.StoreGlobalPhiAngle(rGlobalPhiAngle);
         
                 //--- sotre LeadGlass deposited energy
                 analysis->fRootEvent->LeadGlass.Detector.StoreDepositedEnergy(rDepositedEnergy);
     // -- TotalDepositedEnergy is evaluated in UserLeadGlass class
 
     //--------------------------------------------------------------------------------------------
         
             } // end  for(int i1=0;i1<n_hitLeadGlass;i1++)     
         } // end    if (n_hitLeadGlass >0)
   
   
   //===========================================================
         // Store PMTOnly hits into /PMTOnly
         //===========================================================
     
         if (n_hitPMTOnly >0) {
             // initialize deposited energy
             Float_t rTotalDepositedEnergy = 0.0;
 
             //--- loop over hits
             for (int i1=0;i1<n_hitPMTOnly;i1++) {
         
                 QweakSimPMTOnly_DetectorHit* aHit = (*PMTOnlyDetector_HC)[i1];
         
                 //--- track ID
                 Float_t rTrackID = (Float_t) aHit->GetTrackID();
         
                 //--- particle name & type
                 TString rParticleName = TString(aHit->GetParticleName());
                 Int_t rParticleType = (Int_t) aHit->GetParticleType();
         
                 //--- get global time of hit
                 Float_t rGlobalTime = (Float_t) aHit->GetGlobalTime() / ns;
         
                 //--- get world position of hit
                 G4ThreeVector globalPosition  = aHit->GetWorldPosition();
                 Float_t rGlobalPositionX = (Float_t) globalPosition.x() / cm;
                 Float_t rGlobalPositionY = (Float_t) globalPosition.y() / cm;
                 Float_t rGlobalPositionZ = (Float_t) globalPosition.z() / cm;
         
                 //--- get local position of hit
                 G4ThreeVector localPosition  = aHit->GetLocalPosition();
                 Float_t rLocalPositionX = (Float_t) localPosition.x() / cm;
                 Float_t rLocalPositionY = (Float_t) localPosition.y() / cm;
                 Float_t rLocalPositionZ = (Float_t) localPosition.z() / cm;
         
                 //--- get origin vertex position
                 G4ThreeVector originVertexPosition  = aHit->GetOriginVertexPosition();
                 Float_t rOriginVertexPositionX = (Float_t) originVertexPosition.x() / cm;
                 Float_t rOriginVertexPositionY = (Float_t) originVertexPosition.y() / cm;
                 Float_t rOriginVertexPositionZ = (Float_t) originVertexPosition.z() / cm;
         
                 //--- get world momentum of hit
                 G4ThreeVector globalMomentum  = aHit->GetWorldMomentum();
                 //Float_t rGlobalMomentumX = (Float_t) globalMomentum.x() / MeV;
                 //Float_t rGlobalMomentumY = (Float_t) globalMomentum.y() / MeV;
                 //Float_t rGlobalMomentumZ = (Float_t) globalMomentum.z() / MeV;
 
                 //--- get global theta & phi angle
                 Float_t rGlobalThetaAngle = (Float_t) globalMomentum.theta() / degree;
                 Float_t rGlobalPhiAngle   = (Float_t) globalMomentum.phi() / degree - 90.0;
         
                 //--- get local momentum of hit  
                 //G4ThreeVector localMomentum = aHit->GetLocalMomentum();
                 //Float_t rLocalMomentumX = (Float_t) localMomentum.x() / MeV;
                 //Float_t rLocalMomentumY = (Float_t) localMomentum.y() / MeV;
                 //Float_t rLocalMomentumZ = (Float_t) localMomentum.z() / MeV;
         
                 //--- get local vertex momentum direction of hit
                 G4ThreeVector localVertexMomentumDirection = aHit->GetMomentumDirection();
                 Float_t rLocalVertexMomentumDirectionX = (Float_t) localVertexMomentumDirection.x();
                 Float_t rLocalVertexMomentumDirectionY = (Float_t) localVertexMomentumDirection.y();
                 Float_t rLocalVertexMomentumDirectionZ = (Float_t) localVertexMomentumDirection.z();
         
                 //--- get origin vertex momentum direction of hit
                 G4ThreeVector originVertexMomentumDirection = aHit->GetOriginVertexMomentumDirection();
                 Float_t rOriginVertexMomentumDirectionX = (Float_t) originVertexMomentumDirection.x();
                 Float_t rOriginVertexMomentumDirectionY = (Float_t) originVertexMomentumDirection.y();
                 Float_t rOriginVertexMomentumDirectionZ = (Float_t) originVertexMomentumDirection.z();
         
                 //--- get origin vertex theta & phi angle
                 Float_t rOriginVertexThetaAngle = (Float_t) originVertexMomentumDirection.theta() / degree;
                 Float_t rOriginVertexPhiAngle   = (Float_t) originVertexMomentumDirection.phi() / degree;
         
                 //--- get origin vertex kinetic energy & total energy
                 Float_t rOriginVertexKineticEnergy = (Float_t ) aHit->GetOriginVertexKineticEnergy() / MeV;
                 Float_t rOriginVertexTotalEnergy   = (Float_t ) aHit->GetOriginVertexTotalEnergy() / MeV;
         
                 //--- get total energy & total energy of hit
                 Float_t rKineticEnergy = (Float_t) aHit->GetKineticEnergy() / MeV;
                 Float_t rTotalEnergy = (Float_t) aHit->GetTotalEnergy() / MeV;
         
                 //--- get PMTOnly deposited energy
                 Float_t rDepositedEnergy = (Float_t) aHit->GetHitDepositedEnergy() / MeV;
                 rTotalDepositedEnergy += rDepositedEnergy;
 
                 //--- store Primary Event Number
                 analysis->fRootEvent->PMTOnly.Detector.StorePrimaryEventNumber((Int_t) PrimaryEventNumber);
         
                 //--- store track ID
                 analysis->fRootEvent->PMTOnly.Detector.StoreTrackID(rTrackID);
         
                 //--- store particle name & type
                 analysis->fRootEvent->PMTOnly.Detector.StoreParticleName(rParticleName);
                 analysis->fRootEvent->PMTOnly.Detector.StoreParticleType(rParticleType);
         
                 //--- store global time of hit
                 analysis->fRootEvent->PMTOnly.Detector.StoreGlobalTimeOfHit(rGlobalTime);
         
                 //--- mark PMTOnly detector as been hit
                 analysis->fRootEvent->PMTOnly.Detector.StoreDetectorHasBeenHit(5);
         
                 //--- store global position
                 analysis->fRootEvent->PMTOnly.Detector.StoreDetectorGlobalPositionX(rGlobalPositionX);
                 analysis->fRootEvent->PMTOnly.Detector.StoreDetectorGlobalPositionY(rGlobalPositionY);
                 analysis->fRootEvent->PMTOnly.Detector.StoreDetectorGlobalPositionZ(rGlobalPositionZ);
         
                 //--- store local position
                 analysis->fRootEvent->PMTOnly.Detector.StoreDetectorLocalPositionX(rLocalPositionX);
                 analysis->fRootEvent->PMTOnly.Detector.StoreDetectorLocalPositionY(rLocalPositionY);
                 analysis->fRootEvent->PMTOnly.Detector.StoreDetectorLocalPositionZ(rLocalPositionZ);
         
                 //--- store origin vertex position
                 analysis->fRootEvent->PMTOnly.Detector.StoreOriginVertexPositionX(rOriginVertexPositionX);
                 analysis->fRootEvent->PMTOnly.Detector.StoreOriginVertexPositionY(rOriginVertexPositionY);
                 analysis->fRootEvent->PMTOnly.Detector.StoreOriginVertexPositionZ(rOriginVertexPositionZ);
         
                 //--- store local vertex momentum direction
                 analysis->fRootEvent->PMTOnly.Detector.StoreLocalVertexMomentumDirectionX(rLocalVertexMomentumDirectionX);
                 analysis->fRootEvent->PMTOnly.Detector.StoreLocalVertexMomentumDirectionY(rLocalVertexMomentumDirectionY);
                 analysis->fRootEvent->PMTOnly.Detector.StoreLocalVertexMomentumDirectionZ(rLocalVertexMomentumDirectionZ);
         
                 //--- store origin vertex momentum direction
                 analysis->fRootEvent->PMTOnly.Detector.StoreOriginVertexMomentumDirectionX(rOriginVertexMomentumDirectionX);
                 analysis->fRootEvent->PMTOnly.Detector.StoreOriginVertexMomentumDirectionY(rOriginVertexMomentumDirectionY);
                 analysis->fRootEvent->PMTOnly.Detector.StoreOriginVertexMomentumDirectionZ(rOriginVertexMomentumDirectionZ);
         
                 //--- store origin theta & phi angle
                 analysis->fRootEvent->PMTOnly.Detector.StoreOriginVertexThetaAngle(rOriginVertexThetaAngle);
                 analysis->fRootEvent->PMTOnly.Detector.StoreOriginVertexPhiAngle(rOriginVertexPhiAngle);
         
                 //--- store origin kinetic energy & total energy
                 analysis->fRootEvent->PMTOnly.Detector.StoreOriginVertexKineticEnergy(rOriginVertexKineticEnergy);
                 analysis->fRootEvent->PMTOnly.Detector.StoreOriginVertexTotalEnergy(rOriginVertexTotalEnergy);
         
                 //--- store local vertex kinetic & total energy
                 analysis->fRootEvent->PMTOnly.Detector.StoreDetectorLocalVertexKineticEnergy(rKineticEnergy);
                 analysis->fRootEvent->PMTOnly.Detector.StoreDetectorLocalVertexTotalEnergy(rTotalEnergy);
         
                 //--- store global track theta & phi angle
                 analysis->fRootEvent->PMTOnly.Detector.StoreGlobalThetaAngle(rGlobalThetaAngle);
                 analysis->fRootEvent->PMTOnly.Detector.StoreGlobalPhiAngle(rGlobalPhiAngle);
         
                 //--- store PMTOnly deposited energy
                 analysis->fRootEvent->PMTOnly.Detector.StoreDepositedEnergy(rDepositedEnergy);
         
             } // end  for(int i1=0;i1<n_hitPMTOnly;i1++)     
             
             // Put the total energy into the thing. 
             analysis->fRootEvent->PMTOnly.Detector.StoreTotalEnergyDeposit(rTotalDepositedEnergy);
             
         } // end    if (n_hitPMTOnly >0)
 
         if (n_hitPMTOnlyPMT >0) { //--- loop over hits  
             
             G4int PMTOnlyPMTHasBeenHit = 0;
             G4int PMTOnlyPMTHits = 0;
             G4float PMTOnlyNPE = 0;
 
             for (int i1=0;i1<n_hitPMTOnlyPMT;i1++) {
                 
                 QweakSimPMTOnly_PMTHit* aHit = (*PMTOnlyPMT_HC)[i1]; // This line causes a seg fault it seems.
                 
                 PMTOnlyPMTHasBeenHit = 5;
                 PMTOnlyPMTHits++;
                 PMTOnlyNPE += myUserInfo->GetNumberOfPhotoelectronsS20(aHit->GetPhotonEnergy()*1.0e6);
 
             } // end  for(n_hitPMTOnlyPMT)
                         
             // Write the PMT results to the ROOTfile
             analysis->fRootEvent->PMTOnly.PMT.StorePMTHasBeenHit(PMTOnlyPMTHasBeenHit);
             analysis->fRootEvent->PMTOnly.PMT.StorePMTTotalNbOfHits(PMTOnlyPMTHits);
             analysis->fRootEvent->PMTOnly.PMT.StorePMTTotalNbOfPEs(PMTOnlyNPE);
           
         } // end  if (n_hitPMTOnlyPMT >0)
 
         //===========================================================
         // Store Lumi hits into /Lumi
         //===========================================================
     
         if (n_hitLumi > 0) {
       
             //--- loop over hits
             for (int i1=0;i1<n_hitLumi;i1++) {
         
                 QweakSimLumi_DetectorHit* aHit = (*LumiDetector_HC)[i1];
 
                 //--- track ID
                 Float_t rTrackID = (Float_t) aHit->GetTrackID();
         
                 //--- particle name & type
                 TString rParticleName = TString(aHit->GetParticleName());
                 Int_t rParticleType = (Int_t) aHit->GetParticleType();
         
                 //--- get global time of hit
                 Float_t rGlobalTime = (Float_t) aHit->GetGlobalTime() / ns;
         
                 //--- GetHasBeenHit();
                 //GetEdgeEventFlag();
                 //n_hitLumi <---> GetNbOfHits();
         
                 //--- get world position of hit
                 G4ThreeVector globalPosition  = aHit->GetWorldPosition();
                 Float_t rGlobalPositionX = (Float_t) globalPosition.x() / cm;
                 Float_t rGlobalPositionY = (Float_t) globalPosition.y() / cm;
                 Float_t rGlobalPositionZ = (Float_t) globalPosition.z() / cm;
         
                 //--- get local position of hit
                 G4ThreeVector localPosition  = aHit->GetLocalPosition();
                 Float_t rLocalPositionX = (Float_t) localPosition.x() / cm;
                 Float_t rLocalPositionY = (Float_t) localPosition.y() / cm;
                 Float_t rLocalPositionZ = (Float_t) localPosition.z() / cm;
         
                 //--- get local exit position of hit
                 //G4ThreeVector localExitPosition = aHit->GetLocalExitPosition();
                 //Float_t rLocalExitPositionX = (Float_t) localExitPosition.x() / cm;
                 //Float_t rLocalExitPositionY = (Float_t) localExitPosition.y() / cm;
                 //Float_t rLocalExitPositionZ = (Float_t) localExitPosition.z() / cm;
         
                 //--- get origin vertex position
                 G4ThreeVector originVertexPosition  = aHit->GetOriginVertexPosition();
                 Float_t rOriginVertexPositionX = (Float_t) originVertexPosition.x() / cm;
                 Float_t rOriginVertexPositionY = (Float_t) originVertexPosition.y() / cm;
                 Float_t rOriginVertexPositionZ = (Float_t) originVertexPosition.z() / cm;
         
                 //--- get world momentum of hit
                 G4ThreeVector globalMomentum  = aHit->GetWorldMomentum();
                 //Float_t rGlobalMomentumX = (Float_t) globalMomentum.x() / MeV;
                 //Float_t rGlobalMomentumY = (Float_t) globalMomentum.y() / MeV;
                 //Float_t rGlobalMomentumZ = (Float_t) globalMomentum.z() / MeV;
 
                 //--- get global theta & phi angle
                 Float_t rGlobalThetaAngle = (Float_t) globalMomentum.theta() / degree;
                 Float_t rGlobalPhiAngle   = (Float_t) globalMomentum.phi() / degree - 90.0;
         
                 //--- get local momentum of hit  
                 //G4ThreeVector localMomentum = aHit->GetLocalMomentum();
                 //Float_t rLocalMomentumX = (Float_t) localMomentum.x() / MeV;
                 //Float_t rLocalMomentumY = (Float_t) localMomentum.y() / MeV;
                 //Float_t rLocalMomentumZ = (Float_t) localMomentum.z() / MeV;
         
                 //--- get local vertex momentum direction of hit
                 G4ThreeVector localVertexMomentumDirection = aHit->GetMomentumDirection();
                 Float_t rLocalVertexMomentumDirectionX = (Float_t) localVertexMomentumDirection.x();
                 Float_t rLocalVertexMomentumDirectionY = (Float_t) localVertexMomentumDirection.y();
                 Float_t rLocalVertexMomentumDirectionZ = (Float_t) localVertexMomentumDirection.z();
         
                 //--- get origin vertex momentum direction of hit
                 G4ThreeVector originVertexMomentumDirection = aHit->GetOriginVertexMomentumDirection();
                 Float_t rOriginVertexMomentumDirectionX = (Float_t) originVertexMomentumDirection.x();
                 Float_t rOriginVertexMomentumDirectionY = (Float_t) originVertexMomentumDirection.y();
                 Float_t rOriginVertexMomentumDirectionZ = (Float_t) originVertexMomentumDirection.z();
         
                 //--- get origin vertex theta & phi angle
                 Float_t rOriginVertexThetaAngle = (Float_t) originVertexMomentumDirection.theta() / degree;
                 Float_t rOriginVertexPhiAngle   = (Float_t) originVertexMomentumDirection.phi() / degree;
         
                 //--- get origin vertex kinetic energy & total energy
                 Float_t rOriginVertexKineticEnergy = (Float_t ) aHit->GetOriginVertexKineticEnergy() / MeV;
                 Float_t rOriginVertexTotalEnergy   = (Float_t ) aHit->GetOriginVertexTotalEnergy() / MeV;
         
                 //--- get total energy & total energy of hit
                 Float_t rKineticEnergy = (Float_t) aHit->GetKineticEnergy() / MeV;
                 Float_t rTotalEnergy = (Float_t) aHit->GetTotalEnergy() / MeV;
         
                 //--- get Lumi deposited energy
                 Float_t rDepositedEnergy = (Float_t) aHit->GetHitDepositedEnergy() / MeV;
                 //--------------------------------------------------------------------------------------------
 
                 //--- store Primary Event Number
                 analysis->fRootEvent->Lumi.Detector.StorePrimaryEventNumber((Int_t) PrimaryEventNumber);
         
                 //--- store track ID
                 analysis->fRootEvent->Lumi.Detector.StoreTrackID(rTrackID);
         
                 //--- store particle name & type
                 analysis->fRootEvent->Lumi.Detector.StoreParticleName(rParticleName);
                 analysis->fRootEvent->Lumi.Detector.StoreParticleType(rParticleType);
         
                 //--- store global time of hit
                 analysis->fRootEvent->Lumi.Detector.StoreGlobalTimeOfHit(rGlobalTime);
         
                 //--- mark Lumi detector as been hit
                 analysis->fRootEvent->Lumi.Detector.StoreDetectorHasBeenHit(5);
                 //--- edge event flag
                 //--- Store Nb of hits  --- Done in previous code
                 //analysis->fRootEvent->Lumi.Detector.StoreDetectorNbOfHits(n_hitLumi);
         
                 //--- store global position
                 analysis->fRootEvent->Lumi.Detector.StoreDetectorGlobalPositionX(rGlobalPositionX);
                 analysis->fRootEvent->Lumi.Detector.StoreDetectorGlobalPositionY(rGlobalPositionY);
                 analysis->fRootEvent->Lumi.Detector.StoreDetectorGlobalPositionZ(rGlobalPositionZ);
         
                 //--- store local position
                 analysis->fRootEvent->Lumi.Detector.StoreDetectorLocalPositionX(rLocalPositionX);
                 analysis->fRootEvent->Lumi.Detector.StoreDetectorLocalPositionY(rLocalPositionY);
                 analysis->fRootEvent->Lumi.Detector.StoreDetectorLocalPositionZ(rLocalPositionZ);
         
                 //analysis->fRootEvent->Lumi.Detector.StoreDetectorLocalExitPositionX(rLocalExitPositionX);
                 //analysis->fRootEvent->Lumi.Detector.StoreDetectorLocalExitPositionY(rLocalExitPositionY);
                 //analysis->fRootEvent->Lumi.Detector.StoreDetectorLocalExitPositionZ(rLocalExitPositionZ);
         
                 //--- store origin vertex position
                 analysis->fRootEvent->Lumi.Detector.StoreOriginVertexPositionX(rOriginVertexPositionX);
                 analysis->fRootEvent->Lumi.Detector.StoreOriginVertexPositionY(rOriginVertexPositionY);
                 analysis->fRootEvent->Lumi.Detector.StoreOriginVertexPositionZ(rOriginVertexPositionZ);
         
                 //--- store local vertex momentum direction
                 analysis->fRootEvent->Lumi.Detector.StoreLocalVertexMomentumDirectionX(rLocalVertexMomentumDirectionX);
                 analysis->fRootEvent->Lumi.Detector.StoreLocalVertexMomentumDirectionY(rLocalVertexMomentumDirectionY);
                 analysis->fRootEvent->Lumi.Detector.StoreLocalVertexMomentumDirectionZ(rLocalVertexMomentumDirectionZ);
         
                 //--- store origin vertex momentum direction
                 analysis->fRootEvent->Lumi.Detector.StoreOriginVertexMomentumDirectionX(rOriginVertexMomentumDirectionX);
                 analysis->fRootEvent->Lumi.Detector.StoreOriginVertexMomentumDirectionY(rOriginVertexMomentumDirectionY);
                 analysis->fRootEvent->Lumi.Detector.StoreOriginVertexMomentumDirectionZ(rOriginVertexMomentumDirectionZ);
         
                 //--- store origin theta & phi angle
                 analysis->fRootEvent->Lumi.Detector.StoreOriginVertexThetaAngle(rOriginVertexThetaAngle);
                 analysis->fRootEvent->Lumi.Detector.StoreOriginVertexPhiAngle(rOriginVertexPhiAngle);
         
                 //--- store origin kinetic energy & total energy
                 analysis->fRootEvent->Lumi.Detector.StoreOriginVertexKineticEnergy(rOriginVertexKineticEnergy);
                 analysis->fRootEvent->Lumi.Detector.StoreOriginVertexTotalEnergy(rOriginVertexTotalEnergy);
         
                 //--- store local vertex kinetic & total energy
                 analysis->fRootEvent->Lumi.Detector.StoreDetectorLocalVertexKineticEnergy(rKineticEnergy);
                 analysis->fRootEvent->Lumi.Detector.StoreDetectorLocalVertexTotalEnergy(rTotalEnergy);
 
                 //--- store global track theta & phi angle
                 analysis->fRootEvent->Lumi.Detector.StoreGlobalThetaAngle(rGlobalThetaAngle);
                 analysis->fRootEvent->Lumi.Detector.StoreGlobalPhiAngle(rGlobalPhiAngle);
         
                 //--- store Lumi deposited energy
                 analysis->fRootEvent->Lumi.Detector.StoreDepositedEnergy(rDepositedEnergy);
     // -- TotalDepositedEnergy is evaluated in UserLumi class
             analysis->fRootEvent->Lumi.Detector.StoreRate(CalculateRate( myUserInfo->GetCrossSection(), 1));
             //G4cout <<CalculateRate( myUserInfo->GetCrossSection(), 1)<<G4endl;
 
     //--------------------------------------------------------------------------------------------
         
             } // end  for(int i1=0;i1<n_hitLumi;i1++)    
         } // end    if (n_hitLumi >0)
   //===========================================================
         // Store TungstenPlug hits into /TungstenPlug
         //===========================================================
     
         if (n_hitTungstenPlug >0) {
             // initialize deposited energy
             Float_t rTotalDepositedEnergy = 0.0;
 
             //--- loop over hits
             for (int i1=0;i1<n_hitTungstenPlug;i1++) {
         
                 QweakSimTungstenPlug_DetectorHit* aHit = (*TungstenPlugDetector_HC)[i1];
         
                 //--- track ID
                 Float_t rTrackID = (Float_t) aHit->GetTrackID();
         
                 //--- particle name & type
                 TString rParticleName = TString(aHit->GetParticleName());
                 Int_t rParticleType = (Int_t) aHit->GetParticleType();
         
                 //--- get global time of hit
                 Float_t rGlobalTime = (Float_t) aHit->GetGlobalTime() / ns;
         
                 //--- get world position of hit
                 G4ThreeVector globalPosition  = aHit->GetWorldPosition();
                 Float_t rGlobalPositionX = (Float_t) globalPosition.x() / cm;
                 Float_t rGlobalPositionY = (Float_t) globalPosition.y() / cm;
                 Float_t rGlobalPositionZ = (Float_t) globalPosition.z() / cm;
         
                 //--- get local position of hit
                 G4ThreeVector localPosition  = aHit->GetLocalPosition();
                 Float_t rLocalPositionX = (Float_t) localPosition.x() / cm;
                 Float_t rLocalPositionY = (Float_t) localPosition.y() / cm;
                 Float_t rLocalPositionZ = (Float_t) localPosition.z() / cm;
         
                 //--- get origin vertex position
                 G4ThreeVector originVertexPosition  = aHit->GetOriginVertexPosition();
                 Float_t rOriginVertexPositionX = (Float_t) originVertexPosition.x() / cm;
                 Float_t rOriginVertexPositionY = (Float_t) originVertexPosition.y() / cm;
                 Float_t rOriginVertexPositionZ = (Float_t) originVertexPosition.z() / cm;
         
                 //--- get world momentum of hit
                 G4ThreeVector globalMomentum  = aHit->GetWorldMomentum();
                 //Float_t rGlobalMomentumX = (Float_t) globalMomentum.x() / MeV;
                 //Float_t rGlobalMomentumY = (Float_t) globalMomentum.y() / MeV;
                 //Float_t rGlobalMomentumZ = (Float_t) globalMomentum.z() / MeV;
 
                 //--- get global theta & phi angle
                 Float_t rGlobalThetaAngle = (Float_t) globalMomentum.theta() / degree;
                 Float_t rGlobalPhiAngle   = (Float_t) globalMomentum.phi() / degree - 90.0;
         
                 //--- get local momentum of hit  
                 //G4ThreeVector localMomentum = aHit->GetLocalMomentum();
                 //Float_t rLocalMomentumX = (Float_t) localMomentum.x() / MeV;
                 //Float_t rLocalMomentumY = (Float_t) localMomentum.y() / MeV;
                 //Float_t rLocalMomentumZ = (Float_t) localMomentum.z() / MeV;
         
                 //--- get local vertex momentum direction of hit
                 G4ThreeVector localVertexMomentumDirection = aHit->GetMomentumDirection();
                 Float_t rLocalVertexMomentumDirectionX = (Float_t) localVertexMomentumDirection.x();
                 Float_t rLocalVertexMomentumDirectionY = (Float_t) localVertexMomentumDirection.y();
                 Float_t rLocalVertexMomentumDirectionZ = (Float_t) localVertexMomentumDirection.z();
         
                 //--- get origin vertex momentum direction of hit
                 G4ThreeVector originVertexMomentumDirection = aHit->GetOriginVertexMomentumDirection();
                 Float_t rOriginVertexMomentumDirectionX = (Float_t) originVertexMomentumDirection.x();
                 Float_t rOriginVertexMomentumDirectionY = (Float_t) originVertexMomentumDirection.y();
                 Float_t rOriginVertexMomentumDirectionZ = (Float_t) originVertexMomentumDirection.z();
         
                 //--- get origin vertex theta & phi angle
                 Float_t rOriginVertexThetaAngle = (Float_t) originVertexMomentumDirection.theta() / degree;
                 Float_t rOriginVertexPhiAngle   = (Float_t) originVertexMomentumDirection.phi() / degree;
         
                 //--- get origin vertex kinetic energy & total energy
                 Float_t rOriginVertexKineticEnergy = (Float_t ) aHit->GetOriginVertexKineticEnergy() / MeV;
                 Float_t rOriginVertexTotalEnergy   = (Float_t ) aHit->GetOriginVertexTotalEnergy() / MeV;
         
                 //--- get total energy & total energy of hit
                 Float_t rKineticEnergy = (Float_t) aHit->GetKineticEnergy() / MeV;
                 Float_t rTotalEnergy = (Float_t) aHit->GetTotalEnergy() / MeV;
         
                 //--- get TungstenPlug deposited energy
                 Float_t rDepositedEnergy = (Float_t) aHit->GetHitDepositedEnergy() / MeV;
                 rTotalDepositedEnergy += rDepositedEnergy;
 
                 //--- store Primary Event Number
                 analysis->fRootEvent->TungstenPlug.Detector.StorePrimaryEventNumber((Int_t) PrimaryEventNumber);
         
                 //--- store track ID
                 analysis->fRootEvent->TungstenPlug.Detector.StoreTrackID(rTrackID);
         
                 //--- store particle name & type
                 analysis->fRootEvent->TungstenPlug.Detector.StoreParticleName(rParticleName);
                 analysis->fRootEvent->TungstenPlug.Detector.StoreParticleType(rParticleType);
         
                 //--- store global time of hit
                 analysis->fRootEvent->TungstenPlug.Detector.StoreGlobalTimeOfHit(rGlobalTime);
         
                 //--- mark TungstenPlug detector as been hit
                 analysis->fRootEvent->TungstenPlug.Detector.StoreDetectorHasBeenHit(5);
         
                 //--- store global position
                 analysis->fRootEvent->TungstenPlug.Detector.StoreDetectorGlobalPositionX(rGlobalPositionX);
                 analysis->fRootEvent->TungstenPlug.Detector.StoreDetectorGlobalPositionY(rGlobalPositionY);
                 analysis->fRootEvent->TungstenPlug.Detector.StoreDetectorGlobalPositionZ(rGlobalPositionZ);
         
                 //--- store local position
                 analysis->fRootEvent->TungstenPlug.Detector.StoreDetectorLocalPositionX(rLocalPositionX);
                 analysis->fRootEvent->TungstenPlug.Detector.StoreDetectorLocalPositionY(rLocalPositionY);
                 analysis->fRootEvent->TungstenPlug.Detector.StoreDetectorLocalPositionZ(rLocalPositionZ);
         
                 //--- store origin vertex position
                 analysis->fRootEvent->TungstenPlug.Detector.StoreOriginVertexPositionX(rOriginVertexPositionX);
                 analysis->fRootEvent->TungstenPlug.Detector.StoreOriginVertexPositionY(rOriginVertexPositionY);
                 analysis->fRootEvent->TungstenPlug.Detector.StoreOriginVertexPositionZ(rOriginVertexPositionZ);
         
                 //--- store local vertex momentum direction
                 analysis->fRootEvent->TungstenPlug.Detector.StoreLocalVertexMomentumDirectionX(rLocalVertexMomentumDirectionX);
                 analysis->fRootEvent->TungstenPlug.Detector.StoreLocalVertexMomentumDirectionY(rLocalVertexMomentumDirectionY);
                 analysis->fRootEvent->TungstenPlug.Detector.StoreLocalVertexMomentumDirectionZ(rLocalVertexMomentumDirectionZ);
         
                 //--- store origin vertex momentum direction
                 analysis->fRootEvent->TungstenPlug.Detector.StoreOriginVertexMomentumDirectionX(rOriginVertexMomentumDirectionX);
                 analysis->fRootEvent->TungstenPlug.Detector.StoreOriginVertexMomentumDirectionY(rOriginVertexMomentumDirectionY);
                 analysis->fRootEvent->TungstenPlug.Detector.StoreOriginVertexMomentumDirectionZ(rOriginVertexMomentumDirectionZ);
         
                 //--- store origin theta & phi angle
                 analysis->fRootEvent->TungstenPlug.Detector.StoreOriginVertexThetaAngle(rOriginVertexThetaAngle);
                 analysis->fRootEvent->TungstenPlug.Detector.StoreOriginVertexPhiAngle(rOriginVertexPhiAngle);
         
                 //--- store origin kinetic energy & total energy
                 analysis->fRootEvent->TungstenPlug.Detector.StoreOriginVertexKineticEnergy(rOriginVertexKineticEnergy);
                 analysis->fRootEvent->TungstenPlug.Detector.StoreOriginVertexTotalEnergy(rOriginVertexTotalEnergy);
         
                 //--- store local vertex kinetic & total energy
                 analysis->fRootEvent->TungstenPlug.Detector.StoreDetectorLocalVertexKineticEnergy(rKineticEnergy);
                 analysis->fRootEvent->TungstenPlug.Detector.StoreDetectorLocalVertexTotalEnergy(rTotalEnergy);
         
                 //--- store global track theta & phi angle
                 analysis->fRootEvent->TungstenPlug.Detector.StoreGlobalThetaAngle(rGlobalThetaAngle);
                 analysis->fRootEvent->TungstenPlug.Detector.StoreGlobalPhiAngle(rGlobalPhiAngle);
         
                 //--- store TungstenPlug deposited energy
                 analysis->fRootEvent->TungstenPlug.Detector.StoreDepositedEnergy(rDepositedEnergy);
         
             } // end  for(int i1=0;i1<n_hitTungstenPlug;i1++)    
             
             // Put the total energy into the thing. 
             analysis->fRootEvent->TungstenPlug.Detector.StoreTotalEnergyDeposit(rTotalDepositedEnergy);
             
         } // end    if (n_hitTungstenPlug >0)
 
 //  G4cout << "$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$$" << G4endl;
 
         // Finally fill our event ntuple
         analysis->FillRootNtuple();
 
         //jpan@nuclear.uwinnipeg.ca
         //clear vector contents
         analysis->fRootEvent->Region3.Clear();
         analysis->fRootEvent->Region2.Clear();
         analysis->fRootEvent->Region1.Clear();
   
     } //end of if( (n_hitWirePlane == 2)&&(n_hitFront >0)&&(n_hitBack >0)&&(n_hitCerenkovDetector >0) )
 
     myUserInfo->ResetCerenkovSecondaryParticleInfo();
 
     // print the Eloss for diagnostics
     if(ELOSS_DEBUG)    myUserInfo->PrintELoss();
     // clear the Eloss variables for even PrimaryEventNumber events only, 
     // after they have been stored in the rootfile
     //
     // odd PrimaryEventNumber events are used to generate physics 
     // up to the scattering vertex Z
     //
     // NOTE:: in QweakSimPrimaryGenerator.cc, the PrimaryEventNumber is increased 
     //   at the end of GeneratePrimaries. GeneratePrimaries is called before EnfOfEventAction.
     //   Therefore, even though, even events are used to generate physics events up to the 
     //   scattering vertex Z in GeneratePrimaries, the permutation is flipped inside this
     //   routine.
     myUserInfo->ClearELoss();
 
 
 
     //=======================================================================
     // Save the Ntuple periodically so we have some data in case of a crash
 
     G4int eventNumber = evt->GetEventID();
 
     if (eventNumber%1000 == 1)
         analysis->AutoSaveRootNtuple();
 
 //=======================================================================
 
 } // end of  QweakSimEventAction::EndOfEventAction()

G4double QweakSimEventAction::GetDistance	(	G4ThreeVector	p1,
		G4ThreeVector	p2
	)

private

Definition at line 2883 of file QweakSimEventAction.cc.

Referenced by EndOfEventAction().

                                                                            {
     return sqrt((p1.x()-p2.x())*(p1.x()-p2.x())+
                 (p1.y()-p2.y())*(p1.y()-p2.y())+
                 (p1.z()-p2.z())*(p1.z()-p2.z()));
 }

Here is the caller graph for this function:

void QweakSimEventAction::Initialize ( )

private

Definition at line 2878 of file QweakSimEventAction.cc.

Referenced by EndOfEventAction().

2879 {

2880 }

Here is the caller graph for this function:

void QweakSimEventAction::SetPrintHits ( bool value )

inline

Definition at line 72 of file QweakSimEventAction.hh.

References printhits.

Referenced by QweakSimEventActionMessenger::SetNewValue().

72 {printhits = value;};

QweakSimEventAction::printhits

bool printhits

Definition: QweakSimEventAction.hh:81

Here is the caller graph for this function:

void QweakSimEventAction::SetTrigger	(	const G4String	value,
		const G4bool	status
	)

Definition at line 146 of file QweakSimEventAction.cc.

References fTrigger, and kMapTriggerMode.

Referenced by DisableTrigger(), and EnableTrigger().

 {
     // No error checking here...
     //std::transform(value.begin(), value.end(), value.begin(), std::tolower);
     fTrigger[kMapTriggerMode[value]] = status;
     G4cout << (status? "Enabled":"Disabled") << " software trigger " << value << "." << G4endl;
 }

Here is the caller graph for this function:

void QweakSimEventAction::ShowTrigger ( )

Definition at line 138 of file QweakSimEventAction.cc.

References fTrigger, and fTriggerName.

Referenced by QweakSimEventActionMessenger::SetNewValue().

 {
     for (size_t iTrigger = 0; iTrigger < fTrigger.size(); iTrigger++)
         G4cout << (fTrigger[iTrigger]? "Enabled":"Disabled")
         << " software trigger " << fTriggerName[iTrigger] << "." << G4endl;
 }