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SBSSimDecoder.cxx
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SBSSimDecoder.cxx
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//*-- Author : Ole Hansen ([email protected]) 9-Dec-2011
/////////////////////////////////////////////////////////////////////
//
// SBSSimDecoder
//
// Decoder for SoLID simulation data
//
// Interprets event buffer from input as SBSSimEvent objects
// (containing digitized simulation data) and unpacks them into
// crateslot arrays for low-level decoding by detectors.
//
/////////////////////////////////////////////////////////////////////
#include "SBSSimDecoder.h"
#include "SBSSimDataDecoder.h"
#include "THaCrateMap.h"
#include "THaBenchmark.h"
#include "VarDef.h"
#include "THaSlotData.h"
#include "TError.h"
#include "TSystem.h"
#include "TMath.h"
#include "TDatabasePDG.h"
#include "TRandom.h"
#include "THaVarList.h"
#include "THaDetMap.h"
#include "THaDetector.h"
#include "SBSBBShower.h"
#include "SBSBBTotalShower.h"
#include "THaCrateMap.h"
#include "Textvars.h"
//#include "THaAnalysisObject.h"
//#include <SBSSimFadc250Module.h>// we need not to need this
#include "TList.h"
#include "TObject.h"
#include <cstdlib>
#include <iostream>
#include <string>
#include <fstream>
#include <utility>
#include <stdexcept>
using namespace std;
using namespace Podd;
class THaAnalysisObject;
ClassImp(SBSSimDecoder) // Implements SBSSimDecoder
//static const Int_t kPrimaryType = 1, kPrimarySource = 0;
// Projection types must match the definitions in SBS-offline
//enum EProjType { kUPlane = 0, kVPlane =1, kXPlane = 2, kYPlane = 3};
//typedef vector<int>::size_type vsiz_t;
//-----------------------------------------------------------------------------
SBSSimDecoder::SBSSimDecoder()// : fCheckedForEnabledDetectors(false), fTreeIsSet(false)
{
// Constructor
DefineVariables();
fDetectors.clear();
//fTree = 0;
// Load detectors: rely on gHaApps (please tell me it works!!!)
//cout << " Calling SBSSimDecoder! "<< endl;
//cout << " Make sure you have already declared your apparatuses and detectors, and added these to gHaApps" << endl;
//SetDetectors();
// h1_sizeHCal = new TH1D("h1_sizeHCal", "", 500, 0, 5000);
// h1_sizeGEMs = new TH1D("h1_sizeGEMs", "", 500, 0, 5000);
gSystem->Load("libEG.so"); // for TDatabasePDG
// Get MPD encoder for GEMs
// FIXME: a bit of a kludge...
// we shouldn't have to do that to initialize all encoders... shall we?
fDecoderMPD = dynamic_cast<SBSSimSADCEncoder*>
(SBSSimDataDecoder::GetEncoderByName("mpd"));
fIsInit = false;
}
//-----------------------------------------------------------------------------
SBSSimDecoder::~SBSSimDecoder() {
// h1_sizeHCal->Write();
// h1_sizeGEMs->Write();
//DefineVariables( THaAnalysisObject::kDelete );
// h1_sizeHCal->Delete();
// h1_sizeGEMs->Delete();
}
Int_t SBSSimDecoder::Init(){
Int_t status = THaEvData::Init();
fDetectors.clear();
//status += DefineVariables();
SetDetectors();
fIsInit = true;
return status;
}
//-----------------------------------------------------------------------------
Int_t SBSSimDecoder::DefineVariables( THaAnalysisObject::EMode mode )
{
// Define global variables for the MC quantities. Extends the base
// class method.
const char* const here = "SBSSimDecoder::DefineVariables";
if( mode == THaAnalysisObject::kDefine && fIsSetup )
return THaAnalysisObject::kOK;
SimDecoder::DefineVariables( mode );
cout << "Read SBSSimDecoder variables " << endl;
RVarDef vars[] = {
//simc variables
{"simc_sigma", "MC cross section from SIMC gen.", "fSigma_simc"},
{"simc_Weight", "MC cross section weight from SIMC gen.", "fWeight_simc"},
{"simc_Q2", "MC Q2 from SIMC gen.", "fQ2_simc"},
{"simc_xbj", "MC xbj from SIMC gen.", "fXbj_simc"},
{"simc_nu", "MC nu from SIMC gen.", "fNu_simc"},
{"simc_W", "MC W from SIMC gen.", "fW_simc"},
{"simc_epsilon", "MC epsilon from SIMC gen.", "fEpsilon_simc"},
{"simc_Ebeam", "MC Ebeam from SIMC gen.", "fEbeam_simc"},
{"simc_p_e", "MC e momentum from SIMC gen.", "fEp_simc"},
{"simc_theta_e", "MC e polar angle from SIMC gen.", "fEtheta_simc"},
{"simc_phi_e", "MC e azimuthal angle from SIMC gen.", "fEphi_simc"},
{"simc_px_e", "MC e mom. x componant from SIMC gen.", "fEPx_simc"},
{"simc_py_e", "MC e mom. y componant from SIMC gen.", "fEPy_simc"},
{"simc_pz_e", "MC e mom. z componant from SIMC gen.", "fEPz_simc"},
{"simc_fnucl", "MC final-state nucleon type from SIMC gen.", "fFnucl_simc"},
{"simc_p_n", "MC nucleon mom. from SIMC gen.", "fNp_simc"},
{"simc_theta_n", "MC nucleon polar angle from SIMC gen.", "fEtheta_simc"},
{"simc_phi_n", "MC nucleon azimuthal angle from SIMC gen.", "fNphi_simc"},
{"simc_px_n", "MC nucleon mom. x componant from SIMC gen.", "fNPx_simc"},
{"simc_py_n", "MC nucleon mom. y componant from SIMC gen.", "fNPy_simc"},
{"simc_pz_n", "MC nucleon mom. z componant from SIMC gen.", "fNPz_simc"},
{"simc_vx", "MC vertex x co-ordinate from SIMC gen.", "fVx_simc"},
{"simc_vy", "MC vertex y co-ordinate from SIMC gen.", "fVy_simc"},
{"simc_vz", "MC vertex z co-ordinate from SIMC gen.", "fVz_simc"},
{"simc_veE", "MC scattered e- energy at vertex from SIMC gen.", "fVeE_simc"},
{"simc_vetheta", "MC scattered e- theta at vertex from SIMC gen.", "fVetheta_simc"},
// ** ^^ **
{"mc_sigma", "MC cross section", "fSigma"},
{"mc_omega", "MC phase spece generation", "fOmega"},
{"mc_epx", "MC electron momentum x", "fEPx"},
{"mc_epy", "MC electron momentum y", "fEPy"},
{"mc_epz", "MC electron momentum z", "fEPz"},
{"mc_npx", "MC nucleon momentum x", "fNPx"},
{"mc_npy", "MC nucleon momentum y", "fNPy"},
{"mc_npz", "MC nucleon momentum z", "fNPz"},
{"mc_vx", "MC vertex x", "fVx"},
{"mc_vy", "MC vertex y", "fVy"},
{"mc_vz", "MC vertex z", "fVz"},
{"mc_ep", "MC Initial momentum of the final state electron in GeV", "fEp"},
{"mc_np", "MC Initial momentum of the final state nucleon in GeV", "fNp"},
{"mc_nucl", "MC Initial (struck) nucleon type: 1 = proton, 0 = neutron", "fNucl"},
{"mc_fnucl", "MC Final-state (detected) nucleon type: 1 = proton, 0 = neutron", "fFnucl"},
{"nbbtracks", "number of BB MC tracks", "fNBBtracks"},
{"bbtrack_nhits", "BB MC track hit mult", "fBBtrack_Nhits"},
{"bbtrack_tid", "BB MC track TID", "fBBtrack_TID"},
{"bbtrack_pid", "BB MC track PID", "fBBtrack_PID"},
{"bbtrack_mid", "BB MC track MID", "fBBtrack_MID"},
{"bbtrack_p", "BB MC track momentum", "fBBtrack_P"},
{"bbtrack_x", "BB MC track transport X position", "fBBtrack_X"},
{"bbtrack_y", "BB MC track transport Y position", "fBBtrack_Y"},
{"bbtrack_dx", "BB MC track transport dX slope", "fBBtrack_dX"},
{"bbtrack_dy", "BB MC track transport dY slope", "fBBtrack_dY"},
{"nbbgemhits", "number of BBGEM MC hits", "fNBBGEMhits"},
{"bbgemhit_plane", "BBGEM MC hit plane", "fBBGEMhit_plane"},
{"bbgemhit_tid", "BBGEM MC hit TID", "fBBGEMhit_TID"},
{"bbgemhit_pid", "BBGEM MC hit PID", "fBBGEMhit_PID"},
{"bbgemhit_mid", "BBGEM MC hit MID", "fBBGEMhit_MID"},
{"bbgemhit_edep", "BBGEM MC hit edep", "fBBGEMhit_edep"},
{"bbgemhit_x", "BBGEM MC hit transport X", "fBBGEMhit_x"},
{"bbgemhit_y", "BBGEM MC hit transport Y", "fBBGEMhit_y"},
{"bbps_esum", "BBPS total energy sum", "fBBPS_esum"},
{"bbsh_esum", "BBSH total energy sum", "fBBSH_esum"},
{"bbgemhit_ptridx", "Primary track index for BBGEM SD", "fBBGEMhit_ptridx"},
{"bbgemhit_sdtridx", "SD track index for BBGEM SD", "fBBGEMhit_sdtridx"},
{"bbgemtrack_ptridx", "Primary track index for BBGEM Track SD", "fBBGEMtrack_ptridx"},
{"bbgemtrack_sdtridx", "SD track index for BBGEM Track SD", "fBBGEMtrack_sdtridx"},
{"bbhodohit_ptridx", "Primary track index for BBHodo SD", "fBBHODOhit_ptridx"},
{"bbhodohit_sdtridx", "SD track index for BBHodo SD", "fBBHODOhit_sdtridx"},
{"bbpshit_ptridx", "Primary track index for BBPSTF1 SD", "fBBPSTF1hit_ptridx"},
{"bbpshit_sdtridx", "SD track index for BBPSTF1 SD", "fBBPSTF1hit_sdtridx"},
{"bbshhit_ptridx", "Primary track index for BBSHTF1 SD", "fBBSHTF1hit_ptridx"},
{"bbshhit_sdtridx", "SD track index for BBSHTF1 SD", "fBBSHTF1hit_sdtridx"},
{"hcalhit_ptridx", "Primary track index for HCalScint SD", "fHCALhit_ptridx"},
{"hcalhit_sdtridx", "SD track index for HCalScint SD", "fHCALhit_sdtridx"},
{"ptrack_ntracks", "Primary track ntracks", "fPTrack_ntacks"},
{"ptrack_tid", "Primary track TID", "fPTrack_TID"},
{"ptrack_pid", "Primary track PID", "fPTrack_PID"},
{"ptrack_posx", "Primary track posx", "fPTrack_posx"},
{"ptrack_posy", "Primary track posy", "fPTrack_posy"},
{"ptrack_posz", "Primary track posz", "fPTrack_posz"},
{"ptrack_momx", "Primary track momx", "fPTrack_momx"},
{"ptrack_momy", "Primary track momy", "fPTrack_momy"},
{"ptrack_momz", "Primary track momz", "fPTrack_momz"},
{"ptrack_polx", "Primary track polx", "fPTrack_polx"},
{"ptrack_poly", "Primary track poly", "fPTrack_poly"},
{"ptrack_polz", "Primary track polz", "fPTrack_polz"},
{"ptrack_etot", "Primary track Etot", "fPTrack_Etot"},
{"ptrack_t", "Primary track T", "fPTrack_T"},
{"sdtrack_ntracks", "SD track ntracks", "fSDTrack_ntacks"},
{"sdtrack_tid", "SD track TID", "fSDTrack_TID"},
{"sdtrack_mid", "SD track MID", "fSDTrack_MID"},
{"sdtrack_pid", "SD track PID", "fSDTrack_PID"},
{"sdtrack_posx", "SD track posx", "fSDTrack_posx"},
{"sdtrack_posy", "SD track posy", "fSDTrack_posy"},
{"sdtrack_posz", "SD track posz", "fSDTrack_posz"},
{"sdtrack_momx", "SD track momx", "fSDTrack_momx"},
{"sdtrack_momy", "SD track momy", "fSDTrack_momy"},
{"sdtrack_momz", "SD track momz", "fSDTrack_momz"},
{"sdtrack_polx", "SD track polx", "fSDTrack_polx"},
{"sdtrack_poly", "SD track poly", "fSDTrack_poly"},
{"sdtrack_polz", "SD track polz", "fSDTrack_polz"},
{"sdtrack_etot", "SD track Etot", "fSDTrack_Etot"},
{"sdtrack_t", "SD track T", "fSDTrack_T"},
{"sdtrack_vx", "SD track vx", "fSDTrack_vx"},
{"sdtrack_vy", "SD track vy", "fSDTrack_vy"},
{"sdtrack_vz", "SD track vz", "fSDTrack_vz"},
{"sdtrack_vnx", "SD track vnx", "fSDTrack_vnx"},
{"sdtrack_vny", "SD track vny", "fSDTrack_vny"},
{"sdtrack_vnz", "SD track vnz", "fSDTrack_vnz"},
{"sdtrack_vEkin", "SD track vEkin", "fSDTrack_vEkin"},
{ 0 }
};
return THaAnalysisObject::
DefineVarsFromList( vars, THaAnalysisObject::kRVarDef,
mode, "", this, Podd::MC_PREFIX, here );
}
//-----------------------------------------------------------------------------
void SBSSimDecoder::Clear( Option_t* opt )
{
// Clear track and plane data
SimDecoder::Clear(opt); // clears fMCCherHits, fMCCherClus
//fPMTMap.clear();
}
//-----------------------------------------------------------------------------
#if ANALYZER_VERSION_CODE >= ANALYZER_VERSION(1,6,0)
int SBSSimDecoder::LoadEvent(const UInt_t* evbuffer )
#else
int SBSSimDecoder::LoadEvent(const Int_t* evbuffer )
#endif
{
// Wrapper around DoLoadEvent so we can conveniently stop the benchmark
// counter in case of errors
if( !fIsInit ) Init();
int ret = -1;
if(sizeof(evbuffer)!=0){
ret = DoLoadEvent( evbuffer );
}
if( fDoBench ) fBench->Stop("physics_decode");
return ret;
}
//-----------------------------------------------------------------------------
#if ANALYZER_VERSION_CODE >= ANALYZER_VERSION(1,6,0)
Int_t SBSSimDecoder::DoLoadEvent(const UInt_t* evbuffer )
#else
Int_t SBSSimDecoder::DoLoadEvent(const Int_t* evbuffer )
#endif
{
// Uncommenting the three lines below,
// SBS-offline processes 5000 simulated GMn events with no background within ~60s
// instead of the ~85s it takes without.
// commenting "event type = 1;", those 5000 events take ~3s
/*
event_type = 1;
event_num++;
return HED_OK;
*/
// Fill crateslot structures with Monte Carlo event data in 'evbuffer'
static const char* const here = "SBSSimDecoder::LoadEvent";
#if ANALYZER_VERSION_CODE < ANALYZER_VERSION(1,6,0)
Bool_t fNeedInit = fgNeedInit;
#endif
assert( fMap || fNeedInit );
// Local copy of evbuffer pointer, used in GetMCHitInfo
buffer = evbuffer;
// if(!fTreeIsSet){
// std::cerr << "SBSSimDecoder Tree not initialized correctly - exiting" << std::endl;
// return HED_FATAL;
// }
//fTree->GetEntry(GetEvNum());
// Cast the evbuffer pointer back to exactly the event type that is present
// in the input file (in SBSSimFile). The pointer-to-unsigned integer is
// needed compatibility with the standard decoder.
if(fDebug>2)std::cout << "Processing " << here << std::endl;
const SBSSimEvent* simEvent = reinterpret_cast<const SBSSimEvent*>(buffer);
// add a check here!!!
//simc variables
fSigma_simc = simEvent->Tgmn->simc_sigma;
fWeight_simc = simEvent->Tgmn->simc_Weight;
fQ2_simc = simEvent->Tgmn->simc_Q2;
fXbj_simc = simEvent->Tgmn->simc_xbj;
fNu_simc = simEvent->Tgmn->simc_nu;
fW_simc = simEvent->Tgmn->simc_W;
fEpsilon_simc = simEvent->Tgmn->simc_epsilon;
fEbeam_simc = simEvent->Tgmn->simc_Ebeam;
fEp_simc = simEvent->Tgmn->simc_p_e;
fEtheta_simc = simEvent->Tgmn->simc_theta_e;
fEphi_simc = simEvent->Tgmn->simc_phi_e;
fEPx_simc = simEvent->Tgmn->simc_px_e;
fEPy_simc = simEvent->Tgmn->simc_py_e;
fEPz_simc = simEvent->Tgmn->simc_pz_e;
fFnucl_simc = simEvent->Tgmn->simc_fnucl;
fNp_simc = simEvent->Tgmn->simc_p_n;
fNtheta_simc = simEvent->Tgmn->simc_theta_n;
fNphi_simc = simEvent->Tgmn->simc_phi_n;
fNPx_simc = simEvent->Tgmn->simc_px_n;
fNPy_simc = simEvent->Tgmn->simc_py_n;
fNPz_simc = simEvent->Tgmn->simc_pz_n;
fVx_simc = simEvent->Tgmn->simc_vx;
fVy_simc = simEvent->Tgmn->simc_vy;
fVz_simc = simEvent->Tgmn->simc_vz;
fVeE_simc = simEvent->Tgmn->simc_veE;
fVetheta_simc = simEvent->Tgmn->simc_vetheta;
//g4sbs variables
fSigma = simEvent->Tgmn->ev_sigma;
fOmega = simEvent->Tgmn->ev_solang;
fEPx = simEvent->Tgmn->ev_epx;
fEPy = simEvent->Tgmn->ev_epy;
fEPz = simEvent->Tgmn->ev_epz;
fNPx = simEvent->Tgmn->ev_npx;
fNPy = simEvent->Tgmn->ev_npy;
fNPz = simEvent->Tgmn->ev_npz;
fVx = simEvent->Tgmn->ev_vx;
fVy = simEvent->Tgmn->ev_vy;
fVz = simEvent->Tgmn->ev_vz;
fEp = simEvent->Tgmn->ev_ep;
fNp = simEvent->Tgmn->ev_np;
fNucl = simEvent->Tgmn->ev_nucl;
fFnucl = simEvent->Tgmn->ev_fnucl;
fNBBtracks = simEvent->Tgmn->Earm_BBGEM_Track_ntracks;
fBBtrack_Nhits = *(simEvent->Tgmn->Earm_BBGEM_Track_NumHits);
fBBtrack_TID = *(simEvent->Tgmn->Earm_BBGEM_Track_TID);
fBBtrack_PID = *(simEvent->Tgmn->Earm_BBGEM_Track_PID);
fBBtrack_MID = *(simEvent->Tgmn->Earm_BBGEM_Track_MID);
fBBtrack_P = *(simEvent->Tgmn->Earm_BBGEM_Track_P);
fBBtrack_X = *(simEvent->Tgmn->Earm_BBGEM_Track_X);
fBBtrack_Y = *(simEvent->Tgmn->Earm_BBGEM_Track_Y);
fBBtrack_dX = *(simEvent->Tgmn->Earm_BBGEM_Track_Xp);
fBBtrack_dY = *(simEvent->Tgmn->Earm_BBGEM_Track_Yp);
fNBBGEMhits = simEvent->Tgmn->Earm_BBGEM_hit_nhits;
fBBGEMhit_plane = *(simEvent->Tgmn->Earm_BBGEM_hit_plane);
fBBGEMhit_TID = *(simEvent->Tgmn->Earm_BBGEM_hit_trid);
fBBGEMhit_PID = *(simEvent->Tgmn->Earm_BBGEM_hit_pid);
fBBGEMhit_MID = *(simEvent->Tgmn->Earm_BBGEM_hit_mid);
fBBGEMhit_edep = *(simEvent->Tgmn->Earm_BBGEM_hit_edep);
fBBGEMhit_x = *(simEvent->Tgmn->Earm_BBGEM_hit_tx);
fBBGEMhit_y = *(simEvent->Tgmn->Earm_BBGEM_hit_ty);
fBBPS_esum = simEvent->Tgmn->Earm_BBPSTF1_det_esum;
fBBSH_esum = simEvent->Tgmn->Earm_BBSHTF1_det_esum;
fBBGEMhit_ptridx = *(simEvent->Tgmn->Earm_BBGEM_hit_ptridx);
fBBGEMhit_sdtridx = *(simEvent->Tgmn->Earm_BBGEM_hit_sdtridx);
fBBGEMtrack_ptridx = *(simEvent->Tgmn->Earm_BBGEM_Track_ptridx);
fBBGEMtrack_sdtridx = *(simEvent->Tgmn->Earm_BBGEM_Track_sdtridx);
fBBHODOhit_ptridx = *(simEvent->Tgmn->Earm_BBHodoScint_hit_ptridx);
fBBHODOhit_sdtridx = *(simEvent->Tgmn->Earm_BBHodoScint_hit_sdtridx);
fBBPSTF1hit_ptridx = *(simEvent->Tgmn->Earm_BBPSTF1_hit_ptridx);
fBBPSTF1hit_sdtridx = *(simEvent->Tgmn->Earm_BBPSTF1_hit_sdtridx);
fBBSHTF1hit_ptridx = *(simEvent->Tgmn->Earm_BBSHTF1_hit_ptridx);
fBBSHTF1hit_sdtridx = *(simEvent->Tgmn->Earm_BBSHTF1_hit_sdtridx);
fHCALhit_ptridx = *(simEvent->Tgmn->Harm_HCalScint_hit_ptridx);
fHCALhit_sdtridx = *(simEvent->Tgmn->Harm_HCalScint_hit_sdtridx);
fPTrack_ntracks = simEvent->Tgmn->PTrack_ntracks;
fPTrack_TID = *(simEvent->Tgmn->PTrack_TID);
fPTrack_PID = *(simEvent->Tgmn->PTrack_PID);
fPTrack_posx = *(simEvent->Tgmn->PTrack_posx);
fPTrack_posy = *(simEvent->Tgmn->PTrack_posy);
fPTrack_posz = *(simEvent->Tgmn->PTrack_posz);
fPTrack_momx = *(simEvent->Tgmn->PTrack_momx);
fPTrack_momy = *(simEvent->Tgmn->PTrack_momy);
fPTrack_momz = *(simEvent->Tgmn->PTrack_momz);
fPTrack_polx = *(simEvent->Tgmn->PTrack_polx);
fPTrack_poly = *(simEvent->Tgmn->PTrack_poly);
fPTrack_polz = *(simEvent->Tgmn->PTrack_polz);
fPTrack_Etot = *(simEvent->Tgmn->PTrack_Etot);
fPTrack_T = *(simEvent->Tgmn->PTrack_T);
fSDTrack_ntracks = simEvent->Tgmn->SDTrack_ntracks;
fSDTrack_TID = *(simEvent->Tgmn->SDTrack_TID);
fSDTrack_MID = *(simEvent->Tgmn->SDTrack_MID);
fSDTrack_PID = *(simEvent->Tgmn->SDTrack_PID);
fSDTrack_posx = *(simEvent->Tgmn->SDTrack_posx);
fSDTrack_posy = *(simEvent->Tgmn->SDTrack_posy);
fSDTrack_posz = *(simEvent->Tgmn->SDTrack_posz);
fSDTrack_momx = *(simEvent->Tgmn->SDTrack_momx);
fSDTrack_momy = *(simEvent->Tgmn->SDTrack_momy);
fSDTrack_momz = *(simEvent->Tgmn->SDTrack_momz);
fSDTrack_polx = *(simEvent->Tgmn->SDTrack_polx);
fSDTrack_poly = *(simEvent->Tgmn->SDTrack_poly);
fSDTrack_polz = *(simEvent->Tgmn->SDTrack_polz);
fSDTrack_Etot = *(simEvent->Tgmn->SDTrack_Etot);
fSDTrack_T = *(simEvent->Tgmn->SDTrack_T);
fSDTrack_vx = *(simEvent->Tgmn->SDTrack_vx);
fSDTrack_vy = *(simEvent->Tgmn->SDTrack_vy);
fSDTrack_vz = *(simEvent->Tgmn->SDTrack_vz);
fSDTrack_vnx = *(simEvent->Tgmn->SDTrack_vnx);
fSDTrack_vny = *(simEvent->Tgmn->SDTrack_vny);
fSDTrack_vnz = *(simEvent->Tgmn->SDTrack_vnz);
fSDTrack_vEkin = *(simEvent->Tgmn->SDTrack_vEkin);
Int_t ret = HED_OK;
if (first_decode || fNeedInit) {
//fMap->print();
if( (ret = init_cmap()) != HED_OK )
return ret;
#if ANALYZER_VERSION_CODE < ANALYZER_VERSION(1,6,0)
if( (ret = init_slotdata(fMap)) != HED_OK)
#else
if( (ret = init_slotdata()) != HED_OK)
#endif
return ret;
first_decode = false;
}
if( fDoBench ) fBench->Begin("clearEvent");
Clear();
for(unsigned short i : fSlotClear)
crateslot[i]->clearEvent();
if( fDoBench ) fBench->Stop("clearEvent");
// FIXME: needed?
evscaler = 0;
event_length = 0;
//event_type = 1;//not smart to set event_type to 1 automatically...
event_type = 0;//event_type set to 0 by default
// only set it to 1 if there is some signal in at least one detector...
event_num = simEvent->EvtID;//++;
//int recent_event = event_num; // no longer used
// Event weight
fWeight = simEvent->Tgmn->ev_sigma*simEvent->Tgmn->ev_solang;
//
if( fDoBench ) fBench->Begin("physics_decode");
//Bool_t newclus;
//Int_t crate, slot, chan,lchan;
std::vector<std::map<Decoder::THaSlotData*, std::vector<UInt_t> > > detmaps;
detmaps.resize(fDetectors.size());
for(size_t d = 0; d<fDetectors.size(); d++){
if(fDebug>2)cout << fDetectors[d] << endl;
//SBSDigSim::UHitData_t* HitData_Det = simEvent->HitDataDet.at(fDetectors[d]);
LoadDetector(detmaps[d], fDetectors[d], simEvent);
}
// Now call LoadSlot for the different detectors
for(size_t d = 0; d < fDetectors.size(); d++) {
//int size_det = 0;
if(fDebug>2)
cout << " " << fDetectors[d] << endl;
for( std::map<Decoder::THaSlotData*, std::vector<UInt_t> >::iterator it =
detmaps[d].begin(); it != detmaps[d].end(); ++it) {
if(it->first->GetModule()==0) {
if(fDebug>2) {
std::cout << "No data available for detector "
<< fDetectors[d] << std::endl;
}
} else {
event_type = 1;
//if there is data in at least one detector, event_type set to 1
if(fDebug>2){
std::cout << "load crate/slot: " << it->first->getCrate() << "/" << it->first->getSlot() << " it->second = {";
for(size_t k = 0; k<it->second.size(); k++)std::cout << it->second[k] << " ; ";
std::cout << " } " << std::endl;
}
it->first->GetModule()->LoadSlot(it->first,
it->second.data(),0,it->second.size() );
}
//cout << fDetectors[d].c_str() << " " << it->first->getCrate() << " " << it->first->getSlot() << " " << it->second.size() << endl;
//size_det+=it->second.size();
}
//if(strcmp(fDetectors[d].c_str(), "sbs.hcal")==0)h1_sizeHCal->Fill(size_det);
//if(strcmp(fDetectors[d].c_str(), "bb.gem")==0)h1_sizeGEMs->Fill(size_det);
}
return HED_OK;
}
//Utilities
/*
Int_t SBSSimDecoder::RetrieveDetMapParam(const char* detname,
int& chanperslot, int& slotpercrate,
int& firstcrate, int& firstslot)
{
// chanperslot = ((TDetInfo &)fManager->GetDetInfo("hcal")).ChanPerSlot();
// slotpercrate = ((TDetInfo &)fManager->GetDetInfo("hcal")).SlotPerCrate();
// firstslot = ((TDetInfo &)fManager->GetDetInfo("hcal")).FirstSlot();
// firstcrate = ((TDetInfo &)fManager->GetDetInfo("hcal")).FirstCrate();
TDetInfo detinfo = fManager->GetDetInfo(detname);
chanperslot = detinfo.ChanPerSlot();
slotpercrate = detinfo.SlotPerCrate();
firstslot = detinfo.FirstSlot();
firstcrate = detinfo.FirstCrate();
}
*/
Int_t SBSSimDecoder::LoadDetector( std::map<Decoder::THaSlotData*,
std::vector<UInt_t> > &map,
const std::string& detname,
const SBSSimEvent* simev)
{
if(fDebug>1)std::cout << "SBSSimDecoder::LoadDectector(" << detname << ")" << std::endl;
//int detid = detinfo.DetUniqueId();
Int_t crate, slot;
//unsigned int nwords = 0;
unsigned short chan = 0;//, data_type = 0, chan_mult = 0;
int lchan;
int mod, apvnum;
//SimEncoder::mpd_data tmp_mpd;
//UInt_t* mpd_hdr = new UInt_t[2];
std::vector<UInt_t> strips;
std::vector<UInt_t> samps;
std::vector<UInt_t> times;
bool loadevt = false;
//int cur_apv = -1;
Decoder::THaSlotData *sldat = 0;
//This should be *general* and work for *every* subsystem
// Loop over all raw data in this event
//UInt_t j = 0;
//FIXME: we don't want that, I just set it up this way for the sake of going forward
//Simple fix (might not be ideal): do "if(detname=="xyz")"
//cout << detname.c_str() << endl;
int row, col;
if(strcmp(detname.c_str(), "bb.ps")==0){
//cout << " ouh " << detname.c_str() << " " << simev->Tgmn->Earm_BBPSTF1_hit_nhits << " " << simev->Tgmn->Earm_BBPS_dighit_nchan << endl;
samps.clear();
assert(simev->Tgmn->b_Earm_BBPS_dighit_nchan);
for(int j = 0; j<simev->Tgmn->Earm_BBPS_dighit_nchan; j++){
loadevt = false;
//if(simev->Tgmn->Earm_BBPS_dighit_samp->at(j)==0)cout << "SBSSimDecoder, BBPS " << simev->Tgmn->Earm_BBPS_dighit_chan->at(j);// << endl;
lchan = simev->Tgmn->Earm_BBPS_dighit_chan->at(j);
//if(simev->Tgmn->Earm_BBPS_dighit_samp->at(j)==0)
if(simev->Tgmn->Earm_BBPS_dighit_samp->at(j)>=0){
samps.push_back(simev->Tgmn->Earm_BBPS_dighit_adc->at(j));
}
if(j==simev->Tgmn->Earm_BBPS_dighit_nchan-1){
loadevt = true;
}else if(simev->Tgmn->Earm_BBPS_dighit_chan->at(j+1)!=lchan){
loadevt = true;
}
if(loadevt){
/*
for(int k = 0; k<simev->Tgmn->Earm_BBPSTF1_hit_nhits;k++){
if(simev->Tgmn->Earm_BBPSTF1_hit_cell->at(k)==simev->Tgmn->Earm_BBPS_dighit_chan->at(j)){
cout << "/" << simev->Tgmn->Earm_BBPSTF1_hit_cell->at(k) << " " << simev->Tgmn->Earm_BBPSTF1_hit_row->at(k) << " " << simev->Tgmn->Earm_BBPSTF1_hit_col->at(k) << " " << simev->Tgmn->Earm_BBPSTF1_hit_xcell->at(k) << " " << simev->Tgmn->Earm_BBPSTF1_hit_ycell->at(k);// << endl;
break;
}
}
*/
//That stuff below is confusing... let's stick to the use of the block position in the DB!
row = lchan%26;
col = (lchan-row)/26;
lchan = row*2+col;
//row = 25-row;
//lchan = col*26+row;
//cout << " => " << row << ", " << col << " new lchan = " << lchan << endl;
//ADC
ChanToROC(detname, lchan, crate, slot, chan);
if( crate >= 0 || slot >= 0 ) {
sldat = crateslot[idx(crate,slot)].get();
}
std::vector<UInt_t> *myev = &(map[sldat]);
// cout << detname.c_str() << " det channel " << lchan << ", crate " << crate
// << ", slot " << slot << " chan " << chan << " size " << samps.size() << endl;
if(!samps.empty()){
myev->push_back(SBSSimDataDecoder::EncodeHeader(5, chan, samps.size()));
for(unsigned int samp : samps){
myev->push_back(samp);
//cout << " " << samps[k];
}
}
//cout << endl;
samps.clear();
}
/*
//cout << j << " " << simev->Tgmn->Earm_BBPS_dighit_chan->at(j) << " " << simev->Tgmn->Earm_BBPS_dighit_adc->at(j) << endl;
lchan = simev->Tgmn->Earm_BBPS_dighit_chan->at(j);
ChanToROC(detname, lchan, crate, slot, chan);
if( crate >= 0 || slot >= 0 ) {
sldat = crateslot[idx(crate,slot)].get();
}
std::vector<UInt_t> *myev = &(map[sldat]);
myev->push_back(SBSSimDataDecoder::EncodeHeader(6, chan, 1));
myev->push_back(simev->Tgmn->Earm_BBPS_dighit_adc->at(j));
if(fDebug>2){
std::cout << " j = " << j << " my ev = {";
for(size_t k = 0; k<myev->size(); k++)std::cout << myev->at(k) << " ; ";
std::cout << " } " << std::endl;
}
*/
}
}
if(strcmp(detname.c_str(), "bb.sh")==0){
//cout << " ouh " << detname.c_str() << " " << simev->Tgmn->Earm_BBSHTF1_hit_nhits << " " << simev->Tgmn->Earm_BBSH_dighit_nchan << endl;
samps.clear();
assert(simev->Tgmn->b_Earm_BBSH_dighit_nchan);
for(int j = 0; j<simev->Tgmn->Earm_BBSH_dighit_nchan; j++){
loadevt = false;
//if(simev->Tgmn->Earm_BBSH_dighit_samp->at(j)==0)cout << "SBSSimDecoder, BBSH " << simev->Tgmn->Earm_BBSH_dighit_chan->at(j);// << endl;
lchan = simev->Tgmn->Earm_BBSH_dighit_chan->at(j);
if(simev->Tgmn->Earm_BBSH_dighit_samp->at(j)>=0){
samps.push_back(simev->Tgmn->Earm_BBSH_dighit_adc->at(j));
}
if(j==simev->Tgmn->Earm_BBSH_dighit_nchan-1){
loadevt = true;
}else if(simev->Tgmn->Earm_BBSH_dighit_chan->at(j+1)!=lchan){
loadevt = true;
}
if(loadevt){
/*
for(int k = 0; k<simev->Tgmn->Earm_BBSHTF1_hit_nhits;k++){
if(simev->Tgmn->Earm_BBSHTF1_hit_cell->at(k)==simev->Tgmn->Earm_BBSH_dighit_chan->at(j)){
cout << " " << simev->Tgmn->Earm_BBSHTF1_hit_cell->at(k) << " " << simev->Tgmn->Earm_BBSHTF1_hit_row->at(k) << " " << simev->Tgmn->Earm_BBSHTF1_hit_col->at(k) << " " << simev->Tgmn->Earm_BBSHTF1_hit_xcell->at(k) << " " << simev->Tgmn->Earm_BBSHTF1_hit_ycell->at(k);// << endl;
break;
}
}
*/
row = lchan%27;
col = (lchan-row)/27;
// row = 26-row;
// col = 6-col;
lchan = row*7+col;
//cout << " => " << row << ", " << col << " new lchan = " << lchan << endl;
//ADC
ChanToROC(detname, lchan, crate, slot, chan);
if( crate >= 0 || slot >= 0 ) {
sldat = crateslot[idx(crate,slot)].get();
}
std::vector<UInt_t> *myev = &(map[sldat]);
// cout << detname.c_str() << " det channel " << lchan << ", crate " << crate
// << ", slot " << slot << " chan " << chan << " size " << samps.size() << endl;
if(!samps.empty()){
myev->push_back(SBSSimDataDecoder::EncodeHeader(5, chan, samps.size()));
for(unsigned int samp : samps){
myev->push_back(samp);
//cout << " " << samps[k];
}
}
//cout << endl;
samps.clear();
}
/*
//cout << j << " " << simev->Tgmn->Earm_BBSH_dighit_chan->at(j) << " " << simev->Tgmn->Earm_BBSH_dighit_adc->at(j) << endl;
lchan = simev->Tgmn->Earm_BBSH_dighit_chan->at(j);
ChanToROC(detname, lchan, crate, slot, chan);
if( crate >= 0 || slot >= 0 ) {
sldat = crateslot[idx(crate,slot)].get();
}
std::vector<UInt_t> *myev = &(map[sldat]);
myev->push_back(SBSSimDataDecoder::EncodeHeader(6, chan, 1));
myev->push_back(simev->Tgmn->Earm_BBSH_dighit_adc->at(j));
if(fDebug>2){
std::cout << " j = " << j << " my ev = {";
for(size_t k = 0; k<myev->size(); k++)std::cout << myev->at(k) << " ; ";
std::cout << " } " << std::endl;
}
*/
}
}
if(strcmp(detname.c_str(), "bb.hodo")==0){
//cout << " ouh " << detname.c_str() << " " << simev->Tgmn->Earm_BBHodoScint_hit_nhits << " " << simev->Tgmn->Earm_BBHodo_dighit_nchan << endl;
// cout << simev->Tgmn->Earm_BBHodo_dighit_chan->size() << " "
// << simev->Tgmn->Earm_BBHodo_dighit_adc->size() << " "
// << simev->Tgmn->Earm_BBHodo_dighit_tdc_l->size() << " "
// << simev->Tgmn->Earm_BBHodo_dighit_tdc_t->size() << endl;
/*
ChanToROC(detname, 180, crate, slot, chan);
cout << crate << " " << slot << " " << chan << endl;
if( crate >= 0 || slot >= 0 ) {
sldat = crateslot[idx(crate,slot)].get();
}
std::vector<UInt_t> *myev = &(map[sldat]);
myev->push_back(SBSSimDataDecoder::EncodeHeader(1, chan, 2));
myev->push_back(0);
*/
int ntdc = 0;
assert(simev->Tgmn->b_Earm_BBHodo_dighit_nchan);
for(int j = 0; j<simev->Tgmn->Earm_BBHodo_dighit_nchan; j++){
ntdc = 0;
lchan = simev->Tgmn->Earm_BBHodo_dighit_chan->at(j);
col = lchan%2;
row = (lchan-col)/2;
lchan = col*90+row;
ChanToROC(detname, lchan, crate, slot, chan);
//cout << detname << " " << simev->Tgmn->Earm_BBHodo_dighit_chan->at(j) << " " << lchan << " " << crate << " " << slot << " " << chan << endl;
//cout << j << " " << simev->Tgmn->Earm_BBHodo_dighit_chan->at(j) << " " << simev->Tgmn->Earm_BBHodo_dighit_adc->at(j) << " " << simev->Tgmn->Earm_BBHodo_dighit_tdc_l->at(j) << " " << simev->Tgmn->Earm_BBHodo_dighit_tdc_t->at(j) << endl;
if( crate >= 0 || slot >= 0 ) {
sldat = crateslot[idx(crate,slot)].get();
}
if(simev->Tgmn->Earm_BBHodo_dighit_tdc_l->at(j)>-1000000)ntdc++;
if(simev->Tgmn->Earm_BBHodo_dighit_tdc_t->at(j)>-1000000)ntdc++;
if(ntdc){
std::vector<UInt_t> *myev = &(map[sldat]);
myev->push_back(SBSSimDataDecoder::EncodeHeader(1, chan, ntdc));
if(simev->Tgmn->Earm_BBHodo_dighit_tdc_l->at(j)>-1000000)myev->push_back(simev->Tgmn->Earm_BBHodo_dighit_tdc_l->at(j));
if(simev->Tgmn->Earm_BBHodo_dighit_tdc_t->at(j)>-1000000){
uint tdc = simev->Tgmn->Earm_BBHodo_dighit_tdc_t->at(j)|(1<<31);
//cout << tdc << endl;
myev->push_back( tdc );
}
/*
ChanToROC(detname, lchan, crate, slot, chan);//+91 ??? that might be the trick
if( crate >= 0 || slot >= 0 ) {
sldat = crateslot[idx(crate,slot)].get();
}
myev = &(map[sldat]);
myev->push_back(SBSSimDataDecoder::EncodeHeader(8, chan, 1));
myev->push_back(simev->Tgmn->Earm_BBHodo_dighit_adc->at(j));
*/
if(fDebug>2){
std::cout << " j = " << j << " my ev = {";
for(size_t k = 0; k<myev->size(); k++)std::cout << myev->at(k) << " ; ";
std::cout << " } " << std::endl;
}
}
}
}
if(strcmp(detname.c_str(), "bb.grinch_tdc")==0){
int ntdc = 0;
//if(simev->Tgmn->b_Earm_GRINCH_dighit_nchan==0)
//cout << "*** Warning: your GRINCH variables are probably missing in the tree you are analyzing. " << endl << " consider using another file or removing the grinch for your analysis " << endl;
//cout << " ouh " << detname.c_str() << " " << simev->Tgmn->Earm_GRINCH_hit_nhits << " " << simev->Tgmn->b_Earm_GRINCH_dighit_nchan << " " << simev->Tgmn->Earm_GRINCH_dighit_nchan << endl;
assert(simev->Tgmn->b_Earm_GRINCH_dighit_nchan);
for(int j = 0; j<simev->Tgmn->Earm_GRINCH_dighit_nchan; j++){
ntdc = 0;
//cout << j << " " << simev->Tgmn->Earm_GRINCH_dighit_chan->at(j) << " " << simev->Tgmn->Earm_GRINCH_dighit_adc->at(j) << " " << simev->Tgmn->Earm_GRINCH_dighit_tdc_l->at(j) << " " << simev->Tgmn->Earm_GRINCH_dighit_tdc_t->at(j) << endl;
lchan = simev->Tgmn->Earm_GRINCH_dighit_chan->at(j);
ChanToROC(detname, lchan, crate, slot, chan);
if( crate >= 0 || slot >= 0 ) {
sldat = crateslot[idx(crate,slot)].get();
}
if(simev->Tgmn->Earm_GRINCH_dighit_tdc_l->at(j)>-1000000)ntdc++;
if(simev->Tgmn->Earm_GRINCH_dighit_tdc_t->at(j)>-1000000)ntdc++;
if(ntdc){
std::vector<UInt_t> *myev = &(map[sldat]);
myev->push_back(SBSSimDataDecoder::EncodeHeader(1, chan, ntdc));
if(simev->Tgmn->Earm_GRINCH_dighit_tdc_l->at(j)>-1000000)myev->push_back(simev->Tgmn->Earm_GRINCH_dighit_tdc_l->at(j));
if(simev->Tgmn->Earm_GRINCH_dighit_tdc_t->at(j)>-1000000){
uint tdc = simev->Tgmn->Earm_GRINCH_dighit_tdc_t->at(j)|(1<<31);
//cout << tdc << endl;
myev->push_back( tdc );
}
/*
ChanToROC(detname, lchan, crate, slot, chan);//+288 ??? that might be the trick
if( crate >= 0 || slot >= 0 ) {
sldat = crateslot[idx(crate,slot)].get();
}
myev = &(map[sldat]);
myev->push_back(SBSSimDataDecoder::EncodeHeader(8, chan, 1));
myev->push_back(simev->Tgmn->Earm_GRINCH_dighit_adc->at(j));
*/
if(fDebug>2){
std::cout << " j = " << j << " my ev = {";
for(size_t k = 0; k<myev->size(); k++)std::cout << myev->at(k) << " ; ";
std::cout << " } " << std::endl;
}
}
}
}
if(strcmp(detname.c_str(), "bb.gem")==0){
//cout << fPx << " " << fPy << " " << fPz << " " << fVz << endl;
samps.clear();
strips.clear();
//cout << " ouh " << detname.c_str() << " " << simev->Tgmn->Earm_BBGEM_dighit_nstrips << endl;
assert(simev->Tgmn->b_Earm_BBGEM_dighit_nstrips);
for(int j = 0; j<simev->Tgmn->Earm_BBGEM_dighit_nstrips; j++){
loadevt = false;
mod = simev->Tgmn->Earm_BBGEM_dighit_module->at(j);
lchan = simev->Tgmn->Earm_BBGEM_dighit_strip->at(j);
apvnum = APVnum(detname, mod, lchan, crate, slot, chan);
if(simev->Tgmn->Earm_BBGEM_dighit_samp->at(j)>=0){
strips.push_back(chan);
samps.push_back(simev->Tgmn->Earm_BBGEM_dighit_adc->at(j));
}
if(fDebug>3)
cout << " mod " << mod << " lchan " << lchan << " crate " << crate << " slot " << slot << " apvnum " << apvnum << " chan " << chan << " samp " << simev->Tgmn->Earm_BBGEM_dighit_samp->at(j) << " adc " << simev->Tgmn->Earm_BBGEM_dighit_adc->at(j) << endl;
//if(mod>=26 && simev->Tgmn->Earm_BBGEM_dighit_samp->at(j)==5)cout << mod << " " << lchan << " " << apvnum << endl;
if(j==simev->Tgmn->Earm_BBGEM_dighit_nstrips-1){
loadevt = true;
}else if(mod!=simev->Tgmn->Earm_BBGEM_dighit_module->at(j+1) ||
//fabs(lchan-simev->Tgmn->Earm_BBGEM_dighit_strip->at(j+1))>=128
floor(simev->Tgmn->Earm_BBGEM_dighit_strip->at(j+1)/128)!=floor(lchan/128)
){
loadevt = true;
}
if(loadevt){
if( crate >= 0 || slot >= 0 ) {
sldat = crateslot[idx(crate,slot)].get();
}
std::vector<UInt_t> *myev = &(map[sldat]);
if(!samps.empty()){
//myev->push_back(SBSSimDataDecoder::EncodeHeader(5, apvnum, samps.size()));
//I think I'm onto something here, but I also need to transmit strip num
myev->push_back(SBSSimDataDecoder::EncodeHeader(9, apvnum, samps.size()));
for(int k = 0; k<(int)samps.size(); k++){
// cout << " " << samps[k];
myev->push_back(strips[k]*8192+samps[k]);//strips[k]<< 13 | samps[k]);
}
//for(int l = 0; l<myev->size();l++)cout << myev->at(l) << " ";
//cout << endl;
}
//cout << endl;
samps.clear();
strips.clear();
}
}
}
if(strcmp(detname.c_str(), "sbs.hcal")==0){
//cout << " ouh " << detname.c_str() << " " << simev->Tgmn->Harm_HCalScint_hit_nhits << " " << simev->Tgmn->Harm_HCal_dighit_nchan << endl;
samps.clear();
times.clear();
assert(simev->Tgmn->b_Harm_HCal_dighit_nchan);
for(int j = 0; j<simev->Tgmn->Harm_HCal_dighit_nchan; j++){
loadevt = false;
lchan = simev->Tgmn->Harm_HCal_dighit_chan->at(j);
if(simev->Tgmn->Harm_HCal_dighit_samp->at(j)>=0){
samps.push_back(simev->Tgmn->Harm_HCal_dighit_adc->at(j));
}else{
times.push_back(simev->Tgmn->Harm_HCal_dighit_tdc->at(j));
}
if(j==simev->Tgmn->Harm_HCal_dighit_nchan-1){
loadevt = true;
}else if(simev->Tgmn->Harm_HCal_dighit_chan->at(j+1)!=lchan){
loadevt = true;
}
// In simulation row 0 col 0 block starts at top left corner weheras in real data row 0 col 0 starts at top
// right corner, while looking at HCAL from front. Lets try the following to eleminate the mismatch:
col = lchan%12;
row = (lchan-col)/12; // row in simulation is already same as real data
col = 12 - 1 - col; // this will fix the mismatch in column numbering
lchan = row*12 + col;
// --
if(loadevt){
//ADC
ChanToROC(detname, lchan, crate, slot, chan);
if( crate >= 0 || slot >= 0 ) {
sldat = crateslot[idx(crate,slot)].get();
}
std::vector<UInt_t> *myev = &(map[sldat]);
// cout << detname.c_str() << " det channel " << lchan << ", crate " << crate
// << ", slot " << slot << " chan " << chan << " size " << samps.size() << endl;
if(!samps.empty()){
myev->push_back(SBSSimDataDecoder::EncodeHeader(5, chan, samps.size()));
for(unsigned int samp : samps){
myev->push_back(samp);
//cout << " " << samps[k];
}
}
//cout << endl;
//TDC
ChanToROC(detname, lchan+288, crate, slot, chan);
if( crate >= 0 || slot >= 0 ) {
sldat = crateslot[idx(crate,slot)].get();
}
myev = &(map[sldat]);
if(!times.empty()){
myev->push_back(SBSSimDataDecoder::EncodeHeader(4, chan, times.size()));
for(unsigned int time : times){
myev->push_back(time);
}
}
samps.clear();
times.clear();
}
/*
ChanToROC(detname, lchan, crate, slot, chan);
//cout << lchan << " " << crate << " " << slot << " " << chan << endl;
if( crate >= 0 || slot >= 0 ) {
sldat = crateslot[idx(crate,slot)].get();
}
std::vector<UInt_t> *myev = &(map[sldat]);
//cout << SBSSimDataDecoder::EncodeHeader(5, chan, 20) << endl;
//cout << SBSSimDataDecoder::EncodeHeader(5, chan, 1) << endl;
myev->push_back(SBSSimDataDecoder::EncodeHeader(5, chan, 20));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_0->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_1->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_2->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_3->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_4->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_5->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_6->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_7->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_8->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_9->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_10->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_11->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_12->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_13->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_14->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_15->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_16->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_17->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_18->at(j));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_adc_19->at(j));
ChanToROC(detname, lchan+288, crate, slot, chan);//+288 ??? that might be the trick
//cout << lchan+288 << " " << crate << " " << slot << " " << chan << endl;
if( crate >= 0 || slot >= 0 ) {
sldat = crateslot[idx(crate,slot)].get();
}
myev = &(map[sldat]);
myev->push_back(SBSSimDataDecoder::EncodeHeader(4, chan, 1));
myev->push_back(simev->Tgmn->Harm_HCal_dighit_tdc->at(j));
*/
}
}
//add here the GEN-RP scintillators
if(strcmp(detname.c_str(), "sbs.active_ana")==0){
//cout << " ouh " << detname.c_str() << " " << simev->Tgenrp->Earm_BBSHTF1_hit_nhits << " " << simev->Tgenrp->Earm_BBSH_dighit_nchan << endl;
samps.clear();
assert(simev->Tgenrp->b_Harm_ActAn_dighit_nchan);