CBNTAA_TBInfo.cxx

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/*
  Copyright (C) 2002-2026 CERN for the benefit of the ATLAS collaboration
*/
 
#include "CBNTAA_TBInfo.h"
 
#include "GaudiKernel/IToolSvc.h"
 
#include "StoreGate/StoreGateSvc.h"
 
#include "CaloGeoHelpers/CaloPhiRange.h"
#include "TBCaloGeometry/TBCaloCoordinate.h"
#include "TBCondRunPar/TBCondRunParTool.h"
#include "CondDBObjects/GenericDbTable.h"
 
#include <cmath>
 
 
CBNTAA_TBInfo::CBNTAA_TBInfo(const std::string& name, ISvcLocator* pSvcLocator) :
CBNT_TBRecBase(name, pSvcLocator) 
{
  declareProperty("DBRead",     m_DBRead=false);
  declareProperty("BeamEnergy", m_beamener);
  declareProperty("BeamType",   m_beamtype);
  declareProperty("ComputeBeamEnergy", m_computeBeamEnergy=false);
  declareProperty("DumpBeamLine",      m_dumpBeamLine=true);
 
}
 
CBNTAA_TBInfo::~CBNTAA_TBInfo()
{
   delete m_quad_file;
   delete m_quad_equip;
   delete m_bend_file;
   delete m_bend_equip;
   delete m_trim_file;
   delete m_trim_equip;
   delete m_coll_file;
   delete m_coll_equip;   
}
 
StatusCode CBNTAA_TBInfo::CBNT_initialize(){
 
  StatusCode sc;
 
  addBranch("EVENT_RunEta", m_runEta_nt,"RunEta/D");
  addBranch("EVENT_RunPartType", m_runParticleType_nt,"RunPartType/l"); 
  addBranch("EVENT_RunEnergy", m_runEnergy_nt,"RunEnergy/l");
  addBranch("EVENT_Energy", m_energy,"Energy/f");
 
  if ( m_computeBeamEnergy ) {
  
     addBranch("EVENT_ErrAbsEnergy", m_errAbsEnergy,"ErrAbsEnergy/f");
     addBranch("EVENT_ErrCollimators", m_errCollimators,"ErrCollimators/f");
     addBranch("EVENT_ErrCurrents", m_errCurrents,"ErrCurrents/f");
     addBranch("EVENT_SyncLoss", m_sycLoss,"SyncLoss/f");
     addBranch("EVENT_ErrSyncLoss", m_errSycLoss,"ErrSyncLoss/f");
 
     if ( m_dumpBeamLine ) {
  
         addBranch("EVENT_Quad_file", m_quad_file); 
         addBranch("EVENT_Quad_equip", m_quad_equip);
     
         addBranch("EVENT_Bend_file", m_bend_file); 
         addBranch("EVENT_Bend_equip", m_bend_equip);
     
         addBranch("EVENT_Trim_file", m_trim_file); 
         addBranch("EVENT_Trim_equip", m_trim_equip);
      
         addBranch("EVENT_Coll_file", m_coll_file); 
         addBranch("EVENT_Coll_equip", m_coll_equip);
     }
 
  }
 
  //VLE flag set to false
  m_is_VLE=0;
  //Bdl value of B8 magnet is also set to 0 - the case for HLE runs..
  m_B8_Bdl=0.0;
  //set a previous vars to -1
  m_prevrunNum = -1;
  m_prevEnergy = -1.0;
  m_preverrAbsEnergy = -1.0;
  m_preverrCollimators = -1.0;
  m_preverrCurrents = -1.0;
  m_prevsycLoss = -1.0;
  m_preverrSycLoss = -1.0;
  m_prevB3 = -1.0;
  m_prevB4 = -1.0;
  m_prevB8 = -1.0;
 
  return StatusCode::SUCCESS;
}
 
 
StatusCode CBNTAA_TBInfo::CBNT_execute(){
 
  const EventContext& ctx = Gaudi::Hive::currentContext();
 
  m_runEnergy_nt=m_beamener;
  m_runParticleType_nt=m_beamtype;
    
  if ( m_DBRead ) {
 
    int run = ctx.eventID().run_number(); 
    uint64_t event = ctx.eventID().event_number();
 
    ATH_MSG_VERBOSE( "run   " << run  );
 
    if((event > 0) && (m_prevrunNum==-1))
      m_prevrunNum=run;//initializing the prev run
 
    // This tool handles the conversion between local and ctb coordinates
    ATH_CHECK( m_coord.retrieve() );
    m_runEta_nt = m_coord->beam_local_eta();
    
    ATH_CHECK( m_runpar.retrieve() );
    
    if ( m_computeBeamEnergy ) {
 
    //below the calculation of all energies and their errors...
    calculateAll(run,event);
 
    ATH_MSG_DEBUG( "m_energy  " << m_energy  );
    ATH_MSG_DEBUG( "m_errAbsEnergy  " << m_errAbsEnergy  );
    ATH_MSG_DEBUG( "m_errCollimators  " << m_errCollimators  );
    ATH_MSG_DEBUG( "m_errCurrents  " << m_errCurrents  );
    ATH_MSG_DEBUG( "m_sycLoss  " << m_sycLoss  );
    ATH_MSG_DEBUG( "m_errSycLoss  " << m_errSycLoss  );
 
    }
 
  }//end of if (m_DBRead)
  
  return StatusCode::SUCCESS;
}
 
 
 
 
float CBNTAA_TBInfo::GetEnergy(float currB3, float currB4)
{ 
  float  Bdltot = GetBdl3(currB3) + GetBdl4(currB4);
  
  float energy = (0.3/41.)*Bdltot * 1000;
  
  return energy;
}
 
 
 
float CBNTAA_TBInfo::GetBdl3(float current)
{
  float Bend3_low[2] = {0.0079347, 0.021813};
  float Bend3_high[4] = {0.437329, 0.0212849, 0.00000355516, -0.0000000147542};
 
  float Bdl3 = 0;
  
  current = fabs(current);
 
  if (current <= 824.12) Bdl3 = Bend3_low[0] + Bend3_low[1]*current;
  else Bdl3 = Bend3_high[0] + Bend3_high[1]*current + Bend3_high[2]*(current-824.12)*(current-824.12) + Bend3_high[3]*(current-824.12)*(current-824.12)*(current-824.12);
  
  return Bdl3;
}
 
 
float CBNTAA_TBInfo::GetBdl4(float current)
{
  float Bend4_low[2] = {0.00786406, 0.021814};
  float Bend4_high[4] = {0.434258, 0.0212899, 0.00000356113, -0.0000000147379};
 
  float Bdl4 = 0;
 
  current = fabs(current);
 
  if (current <= 824.12) Bdl4 = Bend4_low[0] + Bend4_low[1]*current;
  else  Bdl4 = Bend4_high[0] + Bend4_high[1]*current + Bend4_high[2]*(current-824.12)*(current-824.12) + Bend4_high[3]*(current-824.12)*(current-824.12)*(current-824.12);
  
  return Bdl4;
}
 
 
float CBNTAA_TBInfo::GetErrColl(float coll3_down, float coll3_up, float coll9_down, float coll9_up)
{ 
  float coll3_opening = (fabs(coll3_down) + fabs(coll3_up))/2.0;
  float coll9_opening = (fabs(coll9_down) + fabs(coll9_up))/2.0;
 
  float errcoll = sqrt(coll3_opening*coll3_opening + coll9_opening*coll9_opening)*(1./27);
 
  return errcoll;
}
 
float CBNTAA_TBInfo::GetErrAbsE(float energy)
{ 
  float fac = 25./energy;
  float err_abs = sqrt(fac*fac + 0.5*0.5);
 
  return err_abs;
}
 
 
float CBNTAA_TBInfo::GetErrCurr(float currB3, float currB4)
{
  float Bdl3 = GetBdl3(currB3);
  float Bdl4 = GetBdl4(currB4);
 
  float Bdl_tot = Bdl3 + Bdl4;
 
  float errBdl3 = (GetBdl3(currB3 + 0.1) - GetBdl3(currB3 - 0.1))/2;
  float errBdl4 = (GetBdl4(currB4 + 0.1) - GetBdl4(currB4 - 0.1))/2;
  const float fac3 = errBdl3/Bdl3;
  const float fac4 = errBdl4/Bdl4;
  float errBdl = sqrt(fac3*fac3 + fac4*fac4)*Bdl_tot;
 
  float resField = sqrt(0.0010*0.0010 + 0.0010*0.0010);
 
  errBdl = sqrt(errBdl*errBdl + resField*resField + Bdl_tot*0.0003 * Bdl_tot*0.0003)/Bdl_tot*100;
 
  return errBdl;
}
 
 
 
float CBNTAA_TBInfo::SyncLoss(float energy, float currB3, float currB4)
{
  float Lmag = 5.127;
 
  float Bdl_B3 = GetBdl3(currB3);
  float Bdl_B4 = GetBdl4(currB4);
 
  float B2dl_B3 = (Bdl_B3 * Bdl_B3)*(1./(Lmag*9));
  float B2dl_B4 = (Bdl_B4 * Bdl_B4)*(1./(Lmag*9));
  float B2dl_tot = B2dl_B3 + B2dl_B4;
  
  float B5suB34 = 0.19;
  float B6suB34 = 0.22;
  float B56lB34 = 0.25;
 
  float B2dl_B5 = (B2dl_B3 + B2dl_B4)*B5suB34*B5suB34*B56lB34;
  float B2dl_B6 = (B2dl_B3 + B2dl_B4)*B6suB34*B6suB34*B56lB34;
 
  float loss = 0.00000127*energy*energy*(3*B2dl_tot/2 + B2dl_B5 + B2dl_B6);
  return loss;
}
 
 
 
float CBNTAA_TBInfo::SyncLossErr(float loss)
{
  float errloss = loss * 0.02;
  return errloss;
}
 
 
 
StatusCode CBNTAA_TBInfo::CBNT_finalize() {
 
  return StatusCode::SUCCESS;
}
 
// Clear vectors
 
StatusCode CBNTAA_TBInfo::CBNT_clear()
{
   if(m_quad_file) m_quad_file->clear();
   if(m_quad_equip) m_quad_equip->clear();
   if(m_bend_file) m_bend_file->clear();
   if(m_bend_equip) m_bend_equip->clear();
   if(m_trim_file) m_trim_file->clear();
   if(m_trim_equip) m_trim_equip->clear();
   if(m_coll_file) m_coll_file->clear();
   if(m_coll_equip) m_coll_equip->clear();   
 
 
   return StatusCode::SUCCESS;
}
//new method which will clculate all energies and their errors using info provided by m_runpar variable
void CBNTAA_TBInfo::calculateAll(int runNumber,int eventNumber) {
 
  int run = runNumber; 
  int event = eventNumber;
 
  ATH_MSG_VERBOSE( "run   " << run  );
 
  //check if the run is a VLE run then set the flag
  if (((run < 2101225) && (run >= 2101022)) || ((run < 2102165) && (run >= 2102003)))
    m_is_VLE=1;
 
  //starting from event=2 we dont have to recalculate the variables unless the run number changes
  if (event > 1)
    {      
      if (run == m_prevrunNum)
    {      
      m_energy = m_prevEnergy;
      m_errAbsEnergy = m_preverrAbsEnergy;
      m_errCollimators = m_preverrCollimators;
      m_errCurrents = m_preverrCurrents;
      m_sycLoss = m_prevsycLoss;
      m_errSycLoss = m_preverrSycLoss;
 
      return;
    }
      else
    m_prevrunNum=run;
    }
 
  m_runEnergy_nt= m_runpar->beam_energy();
  m_runParticleType_nt = m_runpar->beam_type();
  
  float bend_equip[9];
  float coll_equip[24];
  
  int nc_quad = 22;
  int nc_bend = 9;
  int nc_trim = 10;
  int nc_coll = 24;
 
  std::string folder;
  if (m_dumpBeamLine == true)
    {
//      const GenericDbTable* dcstbl_quad_file[22] = {0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0};
//      const GenericDbTable* dcstbl_quad_equip[22] = {0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0};
//      const GenericDbTable* dcstbl_bend_file[9] = {0,0,0,0,0,0,0,0,0};
//      const GenericDbTable* dcstbl_bend_equip[9] = {0,0,0,0,0,0,0,0,0};
//      const GenericDbTable* dcstbl_trim_file[10] = {0,0,0,0,0,0,0,0,0,0}; 
//      const GenericDbTable* dcstbl_trim_equip[10] = {0,0,0,0,0,0,0,0,0,0}; 
//      const GenericDbTable* dcstbl_coll_file[24] = {0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0}; 
//      const GenericDbTable* dcstbl_coll_equip[24] = {0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0}; 
      
//      int ncol_quad_file[22], nrow_quad_file[22];
//      int ncol_bend_file[9], nrow_bend_file[9];
//      int ncol_trim_file[10], nrow_trim_file[10];
//      int ncol_coll_file[24], nrow_coll_file[24];
//      int ncol_quad_equip[22], nrow_quad_equip[22]; 
//      int ncol_bend_equip[9], nrow_bend_equip[9];
//      int ncol_trim_equip[10], nrow_trim_equip[10];
//      int ncol_coll_equip[24], nrow_coll_equip[24];
      
//      std::vector<std::string> names_quad_file[22], rows_quad_file[22];
//      std::vector<std::string> names_bend_file[9], rows_bend_file[9];
//      std::vector<std::string> names_trim_file[10], rows_trim_file[10];
//      std::vector<std::string> names_coll_file[24], rows_coll_file[24];
//      std::vector<std::string> names_quad_equip[22], rows_quad_equip[22];
//      std::vector<std::string> names_bend_equip[9], rows_bend_equip[9];
//      std::vector<std::string> names_trim_equip[10], rows_trim_equip[10];
//      std::vector<std::string> names_coll_equip[24], rows_coll_equip[24];
      
      float quad_file[22];
      float bend_file[9];
      float trim_file[10];
      float coll_file[24];
      float quad_equip[22];
      float trim_equip[10];
      
      m_quad_file->reserve(nc_quad);
      m_quad_equip->reserve(nc_quad);
      for (int i=0; i<nc_quad; i++)
    {
      quad_file[i] = -1;
      quad_equip[i] = -1;
          unsigned int val1;
          unsigned int val2;
 
#if 0     
      if (run < 1000454)
        {
          folder = "/TILE/DCS/SYSTEM1/BEAM";
        }
      else
#endif
        {
          folder = "/TILE/DCS/SYSTEM1/BEAM";
        }
          val1 = i+6;
          val2 = i+48;
      
      if (StatusCode::SUCCESS!=m_runpar->getVal(folder,val1,quad_file[i])) {
            ATH_MSG_ERROR( "Cannot find val" << val1  );
          }
      if (StatusCode::SUCCESS!=m_runpar->getVal(folder,val2,quad_equip[i])){
        ATH_MSG_ERROR( "Cannot find val" << val2  );
          }
      
      (*m_quad_file)[i] = quad_file[i];
      (*m_quad_equip)[i] = quad_equip[i];
    }
    
 
      m_bend_file->reserve(nc_bend);
      m_bend_equip->reserve(nc_bend);
      for (int i=0; i<nc_bend; i++)
    {
      bend_file[i] = -1;
      bend_equip[i] = -1;
          unsigned int val1;
          unsigned int val2;
      
      if (run < 1000454)
        {
          folder = "/TILE/DCS/SYSTEM1/BEAM";
        }
      else
        {
          folder = "/TILE/DCS/TILE_LV_62/BEAM";
        }
          val1 = i+28;
          val2 = i+70;
      
      if (StatusCode::SUCCESS!=m_runpar->getVal(folder,val1,bend_file[i])) {
        ATH_MSG_ERROR( "Cannot find val" << val1  );
          }
      if (StatusCode::SUCCESS!=m_runpar->getVal(folder,val2,bend_equip[i])) {
        ATH_MSG_ERROR( "Cannot find val" << val2  );
          }
      
      (*m_bend_file)[i] = bend_file[i];
      (*m_bend_equip)[i] = bend_equip[i];
 
      //added on 12.03.2006 by H.Hakobyan for caching purposes
      if (!m_is_VLE)
        {
          //if the currents B3 and B4 are the same as in previous event then quit..
          if((m_prevB3 == bend_equip[2]) && (m_prevB4 == bend_equip[3]))
        return;
        }
      else
        {         
          //if the current B8 is the same as in previous event then quit..
          if(m_prevB8 == bend_equip[7])
        return; 
        }
        
    }
      
      m_trim_file->reserve(nc_trim);
      m_trim_equip->reserve(nc_trim);
      for (int i=0; i<nc_trim; i++)
    {
      trim_file[i] = -1;
      trim_equip[i] = -1;
          unsigned int val1;
          unsigned int val2;
      
      if (run < 1000454)
        {
          folder = "/TILE/DCS/SYSTEM1/BEAM";
        }
      else
        {
          folder = "/TILE/DCS/TILE_LV_62/BEAM";
        }
          val1 = i+37;
          val2 = i+79;
      
      if (StatusCode::SUCCESS!=m_runpar->getVal(folder,val1,trim_file[i])) {
        ATH_MSG_ERROR( "Cannot find val" << val1  );
          }
      if (StatusCode::SUCCESS!=m_runpar->getVal(folder,val2,trim_equip[i])) {
        ATH_MSG_ERROR( "Cannot find val" << val2  );
          }
      
      (*m_trim_file)[i] = trim_file[i];
      (*m_trim_equip)[i] = trim_equip[i];
    }
      
      
      m_coll_file->reserve(nc_coll);
      m_coll_equip->reserve(nc_coll);
      for (int i=0; i<nc_coll; i++)
    {
      coll_file[i] = -1;
      coll_equip[i] = -1;
          unsigned int val1;
          unsigned int val2;
      
      
      if (run < 1000454)
        {
          folder = "/TILE/DCS/SYSTEM1/BEAM";
        }
      else
        {
          folder = "/TILE/DCS/TILE_LV_62/BEAM";
        }
          val1 = i+90;
          val2 = i+115;
      
      if (StatusCode::SUCCESS!=m_runpar->getVal(folder,val1,coll_file[i])) {
        ATH_MSG_ERROR( "Cannot find val" << val1  );
          }
      if (StatusCode::SUCCESS!=m_runpar->getVal(folder,val2,coll_equip[i])) {
        ATH_MSG_ERROR( "Cannot find val" << val2  );
          }
      
      (*m_coll_file)[i] = coll_file[i];
      (*m_coll_equip)[i] = coll_equip[i];
    }
      
      
      for (int i=0; i<nc_quad; i++)
    {
      ATH_MSG_DEBUG( "Q" << i+1 << " from file   " << (*m_quad_file)[i]  );
    }
      for (int i=0; i<nc_bend; i++)
    {
      ATH_MSG_DEBUG( "B" << i+1 << " from file   " << (*m_bend_file)[i]  );
    }
      for (int i=0; i<nc_trim; i++)
    {
      ATH_MSG_DEBUG( "Trim" << i+1 << " from file   " << (*m_trim_file)[i]  );
    }
      for (int i=0; i<nc_coll; i++)
    {
      int j = i/2;
      if (i == 2*j)
        {
          ATH_MSG_DEBUG( "Coll" << j+1 << " from file   (up or right position)     " << (*m_coll_file)[i]  );
          ATH_MSG_DEBUG( "Coll" << j+1 << " from file   (down or left position)    " << (*m_coll_file)[i+1]  );
        }
    }
      
      
      for (int i=0; i<nc_quad; i++)
    {
      ATH_MSG_DEBUG( "Q" << i+1 << " from equipement   " << (*m_quad_equip)[i]  );
    }
      for (int i=0; i<nc_bend; i++)
    {
      ATH_MSG_DEBUG( "B" << i+1 << " from equipement   " << (*m_bend_equip)[i]  );
    }
      for (int i=0; i<nc_trim; i++)
    {
      ATH_MSG_DEBUG( "Trim" << i+1 << " from equipement   " << (*m_trim_equip)[i]  );
    }
      for (int i=0; i<nc_coll; i++)
    {
      int j = i/2;
      if (i == 2*j)
        {
          ATH_MSG_DEBUG( "Coll" << j+1 << " from equipement  (up or right position)   " << (*m_coll_equip)[i]  );
          ATH_MSG_DEBUG( "Coll" << j+1 << " from file   (down or left position)       " << (*m_coll_equip)[i+1]  );
        }
    }//for
    }//end of if (m_dumpBeamLine = true)
  else // if(m_dumpBeamLine == false)
    {
//      const GenericDbTable* dcstbl_bend_equip[9] = {0,0,0,0,0,0,0,0,0};
//      const GenericDbTable* dcstbl_coll_equip[24] = {0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0,0}; 
//      int ncol_bend_equip[9], nrow_bend_equip[9];
//      int ncol_coll_equip[9], nrow_coll_equip[9];
//      std::vector<std::string> names_bend_equip[9], rows_bend_equip[9];
//      std::vector<std::string> names_coll_equip[9], rows_coll_equip[9];
      
      for (int i=0; i<nc_bend; i++)
    {
      bend_equip[i] = -1;
      unsigned int val2;
 
      if (run < 1000454)
        {
          folder = "/TILE/DCS/SYSTEM1/BEAM";
        }
      else
        {
          folder = "/TILE/DCS/TILE_LV_62/BEAM";
        }
          val2 = i+70;
      if (StatusCode::SUCCESS!=m_runpar->getVal(folder,val2,bend_equip[i])) {
        ATH_MSG_ERROR( "Cannot find val" << val2  );
          }
    }
      
      
      for (int i=0; i<nc_coll; i++)
    {
      coll_equip[i] = -1;
      unsigned int val2;
      
      if (run < 1000454)
        {
          folder = "/TILE/DCS/SYSTEM1/BEAM";
        }
      else
        {
          folder = "/TILE/DCS/TILE_LV_62/BEAM";
        }
          val2 = i+115;
      if (StatusCode::SUCCESS!=m_runpar->getVal(folder,val2,coll_equip[i])) {
        ATH_MSG_ERROR( "Cannot find val" << val2  );
          }
    }
      
    }//end of if(m_dumpBeamLine = false)
  
  //check if the run is a VLE run then set the flag
  //if (((run < 2101225) && (run >= 2101022)) || ((run < 2102165) && (run >= 2102003)))
  //  m_is_VLE=1;
  
  // --- modifying the code introducing two cases - for VLE and HLE, with different beam energy calculations ---
  if(m_is_VLE)//run is a VLE run
    {   
      
      //ATH_MSG_INFO( "THIS is a VLE run..."  );
      //ATH_MSG_INFO( "B8 current=" << bend_equip[7]  );
      
      //a polynomial function giving the values of Bdl for any given B8 current value...MIGRAD method for 4th order polynome ...:)
      //    m_B8_Bdl = 0.00525593*bend_equip[7] + 0.00000410442*bend_equip[7]*bend_equip[7] - 
      //      0.00000000906592*bend_equip[7]*bend_equip[7]*bend_equip[7]+ 
      //      0.00000000000345019*bend_equip[7]*bend_equip[7]*bend_equip[7]*bend_equip[7];
      
      //a polynomial function giving the values of Bdl for any given B8 current value...MINOS method ...for 5th order polynome:)
      m_B8_Bdl = 0.00530982*bend_equip[7] + 0.00000328502*bend_equip[7]*bend_equip[7] - 
    0.00000000532397*bend_equip[7]*bend_equip[7]*bend_equip[7]- 
    0.00000000000276483*bend_equip[7]*bend_equip[7]*bend_equip[7]*bend_equip[7]+
    0.000000000000003368*bend_equip[7]*bend_equip[7]*bend_equip[7]*bend_equip[7]*bend_equip[7];
      
      //beam energy calculation basedon a famous formula..
      m_energy = 2.49826 * m_B8_Bdl;
      m_errAbsEnergy = GetErrAbsE(m_energy);
      
      ATH_MSG_DEBUG( "B8dl=" << m_B8_Bdl  );
      ATH_MSG_DEBUG( "m_energy=" << m_energy  );
      
      //C12 opening calculations... C12 is the onlycollimator which is responsible for VLE runs
      float coll12_opening = (fabs(coll_equip[11]) + fabs(coll_equip[23]))/2.0;
      m_errCollimators = sqrt(coll12_opening*coll12_opening)*(1./27);
      
      //calculation of errors of magnet currents..
      m_errCurrents = GetErrCurr(bend_equip[6], bend_equip[7]);
      m_sycLoss = SyncLoss(m_energy, bend_equip[6], bend_equip[7]);
      m_errSycLoss = SyncLossErr(m_sycLoss);
 
      //for caching purposes
      m_prevB8 = bend_equip[7];
    }
  else//run is a HLE run
    {
      m_energy = GetEnergy(bend_equip[2], bend_equip[3]);
      m_errAbsEnergy = GetErrAbsE(m_energy);
      m_errCollimators = GetErrColl(coll_equip[4], coll_equip[5], coll_equip[16], coll_equip[17]);
      m_errCurrents = GetErrCurr(bend_equip[2], bend_equip[3]);
      m_sycLoss = SyncLoss(m_energy, bend_equip[2], bend_equip[3]);
      m_errSycLoss = SyncLossErr(m_sycLoss);
 
      //for caching purposes
      m_prevB3 = bend_equip[2];
      m_prevB4 = bend_equip[3];
    }
 
  //assigning the previous vars for caching..
  m_prevEnergy = m_energy;
  m_preverrAbsEnergy = m_errAbsEnergy;
  m_preverrCollimators = m_errCollimators;
  m_preverrCurrents = m_errCurrents;
  m_prevsycLoss = m_sycLoss;
  m_preverrSycLoss = m_errSycLoss;
 
 
}