L1TriggerTowerToolRun3.cxx

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/*
  Copyright (C) 2002-2024 CERN for the benefit of the ATLAS collaboration
*/
//  L1TriggerTowerToolRun3.cxx 
#include "L1TriggerTowerToolRun3.h"
#include "GaudiKernel/Incident.h"
#include "GaudiKernel/IIncidentSvc.h"
#include "GaudiKernel/GaudiException.h"
 
#include "CaloIdentifier/CaloIdManager.h"
#include "CaloIdentifier/CaloLVL1_ID.h"
#include "CaloTriggerTool/CaloTriggerTowerService.h"
 
#include "TrigT1CaloCalibConditions/ChanCalibErrorCode.h"
#include "TrigT1CaloCalibConditions/ChanDeadErrorCode.h"
#include "TrigT1CaloCalibToolInterfaces/IL1CaloTTIdTools.h"
#include "TrigT1CaloToolInterfaces/IL1CaloMappingTool.h"
#include "TrigT1CaloToolInterfaces/IL1DynamicPedestalProvider.h"
 
#include "StoreGate/ReadHandle.h"
#include "GaudiKernel/ThreadLocalContext.h"
 
#include <cstdint>
#include <tuple>
#include <boost/range/adaptor/reversed.hpp>
using namespace boost::adaptors;
 
namespace LVL1 
{
 
//================ Static Constants ============================================
 
const int L1TriggerTowerToolRun3::s_saturationValue;
const int L1TriggerTowerToolRun3::s_maxTowers;
 
//================ Constructor =================================================
 
L1TriggerTowerToolRun3::L1TriggerTowerToolRun3(const std::string& t,
                          const std::string& n,
                          const IInterface*  p )
  :
  AthAlgTool(t,n,p),
  m_caloMgr(0),
  m_lvl1Helper(0),
  m_l1CaloTTIdTools("LVL1::L1CaloTTIdTools/L1CaloTTIdTools", this),
  m_ttSvc("CaloTriggerTowerService/CaloTriggerTowerService", this),
  m_mappingTool("", this),
  m_correctFir(false),
  m_dynamicPedestalProvider("", this)
{
  declareInterface<IL1TriggerTowerToolRun3>(this);
 
  declareProperty( "BaselineCorrection", m_correctFir );
  declareProperty( "L1DynamicPedestalProvider", m_dynamicPedestalProvider );
}
 
//================ Destructor =================================================
 
L1TriggerTowerToolRun3::~L1TriggerTowerToolRun3() {}
 
//================ Initialisation =================================================
 
StatusCode L1TriggerTowerToolRun3::initialize()
{
 
  // Reading the Condition Containers Run 3 style  
  ATH_CHECK( m_runParametersContainer.initialize() );
  ATH_CHECK( m_pprConditionsContainerRun2.initialize() );
  ATH_CHECK( m_pprDisabledChannelContainer.initialize() );
  ATH_CHECK( m_ppmFineTimeRefsContainer.initialize() );
 
  ATH_CHECK(m_l1CaloTTIdTools.retrieve());
 
  if(!m_ttSvc.retrieve().isSuccess()) {
    ATH_MSG_WARNING( "Could not retrieve CaloTriggerTowerService Tool" );
  } else {
    ATH_MSG_INFO("Retrieved Tool " << m_ttSvc);
  }
  
  StatusCode scID = detStore()->retrieve(m_caloMgr);
  if (scID.isFailure()) {
    ATH_MSG_WARNING( "Cannot retrieve m_caloMgr" );
  } else {
    m_lvl1Helper = m_caloMgr->getLVL1_ID();
  }
 
  if (!m_mappingTool.empty()) {
    ATH_CHECK( m_mappingTool.retrieve() );
  }
 
  // Incident Service:
  IIncidentSvc* incSvc = 0;
  if (service("IncidentSvc", incSvc).isFailure()) {
    ATH_MSG_WARNING( "Unable to retrieve pointer to IncidentSvc " );
  }
  else {
    incSvc->addListener(this, "BeginRun");
  }
 
  // Pedestal Correction
  if (m_correctFir) {
    ATH_CHECK(m_dynamicPedestalProvider.retrieve());
    ATH_MSG_INFO( "Retrieved L1DynamicPedestalProvider: " << m_dynamicPedestalProvider ); 
  }
 
  ATH_CHECK( m_eventInfoKey.initialize() );
  
  ATH_CHECK( m_L1MenuKey.initialize() );
  
  
 
  
  ATH_MSG_INFO( "Initialization completed" );
  
  return StatusCode::SUCCESS;
}
 
//================ Finalisation =================================================
 
StatusCode L1TriggerTowerToolRun3::finalize()
{
  return StatusCode::SUCCESS;
}
 
//================ Reset mapping table at start of run ============================
 
void L1TriggerTowerToolRun3::handle(const Incident& inc)
{
  if (inc.type()=="BeginRun") {
    ATH_MSG_DEBUG( "Resetting mapping table at start of run" );
   
    m_idTable.clear();
  }
}
 
 
 
void L1TriggerTowerToolRun3::process(const std::vector<int> &digits, double eta, double phi, int layer,
             std::vector<int> &et, std::vector<int> &bcidResults,
             std::vector<int> &bcidDecisions, bool useJepLut /* = true */)
{
  L1CaloCoolChannelId id = channelID(eta, phi, layer);
 
  process(digits, id, et, bcidResults, bcidDecisions, useJepLut);
}
 
 
void L1TriggerTowerToolRun3::process(const std::vector<int> &digits, const L1CaloCoolChannelId& channelId,
                                 std::vector<int> &et, std::vector<int> &bcidResults,
                                 std::vector<int> &bcidDecisions, bool useJepLut /* = true */)
{
  
  ATH_MSG_DEBUG( "::process: ==== Entered Process ====" );
  ATH_MSG_DEBUG( "::process: digits: " << digits);
  ATH_MSG_DEBUG( " channelID: " << MSG::hex << channelId.id() << MSG::dec );
 
 
  et.clear();
  bcidResults.clear();
  bcidDecisions.clear();
 
  ATH_MSG_DEBUG( "::process: ---- FIR filter ----" );
     
  std::vector<int> filter;
  fir(digits, channelId, filter);
  std::vector<int> lutInput;
  dropBits(filter, channelId, lutInput);
 
  ATH_MSG_DEBUG( "::process: ---- BCID algorithms ----" );
 
  bcid(filter, digits, channelId, bcidResults);
 
  ATH_MSG_DEBUG( "::process: ---- BCID decisions ----" );
 
  std::vector<int> decisionRange;
  bcidDecisionRange(lutInput, digits, channelId, decisionRange);
  bcidDecision(bcidResults, decisionRange, bcidDecisions);
 
  ATH_MSG_DEBUG( "::process: ---- LUT ET calculation ----" );
 
  std::vector<int> lutOutput;
  if(useJepLut) jepLut(lutInput, channelId, lutOutput);
  else cpLut(lutInput, channelId, lutOutput);
  
 
  ATH_MSG_DEBUG( "::process: ---- use ET range ----" );
 
  applyEtRange(lutOutput, decisionRange, channelId, et);
 
  ATH_MSG_DEBUG( "::process: ==== Leaving Process ====" );
}
 
namespace {
// helper function to convert vectors of different type
template <typename DST, typename SRC>
std::vector<DST> convertVectorType(const std::vector<SRC>& s) {
   std::vector<DST> d(s.size());
   std::transform(std::begin(s), std::end(s), std::begin(d),
      [](SRC v){return static_cast<DST>(v);});
   return d;
} 
}
 
void L1TriggerTowerToolRun3::simulateChannel(const xAOD::TriggerTower& tt, std::vector<int>& outCpLut, std::vector<int>& outJepLut, std::vector<int>& bcidResults, std::vector<int>& bcidDecisions) const {
 
  //If we have 80 MHz readout, we need to extract the 40 MHz samples. The central 80 MHz sample is always a 40 MHz sample. We use the cool database (runParameters folder) to understand if we are in 80MHz readout
  
  
  SG::ReadCondHandle<L1CaloRunParametersContainer> runParameters( m_runParametersContainer);
  unsigned int readoutConfigID   = runParameters->runParameters(1)->readoutConfigID(); 
  ATH_MSG_DEBUG("RunParameters:: readoutConfigID " <<  readoutConfigID);
  
  std::vector<uint16_t> digits40;
 
  if(readoutConfigID == 5 or readoutConfigID == 6){
    
    
    ATH_MSG_DEBUG("80 MHz readout detected, emulating 40 MHz samples");
    
    int nSlices = tt.adc().size();
 
    if((nSlices%4)==3){
      for (int i=0 ; i < (nSlices-1)/2 ; i++ ){
    digits40.push_back(tt.adc().at(2*i+1));
      }
    }
    else if((nSlices%4)==1){
      for (int i=0 ; i <= (nSlices-1)/2 ; i++){
    digits40.push_back(tt.adc().at(2*i));
      }
    }
 
 
  }else{
    ATH_MSG_DEBUG("40 MHz readout detected");
    digits40 = tt.adc();
  }
  
  const auto& digits = convertVectorType<int>(digits40);
 
  L1CaloCoolChannelId channelId {tt.coolId()}; 
 
  ATH_MSG_DEBUG( "::simulateChannel: ==== Entered Process ====" );
  ATH_MSG_DEBUG( "::simulateChannel: digits: " << digits );
  ATH_MSG_DEBUG( "::simulateChannel: channelID: " << MSG::hex << channelId.id() << MSG::dec );
  
  
  outCpLut.clear();
  outJepLut.clear();
  bcidResults.clear();
  bcidDecisions.clear();
      
  ATH_MSG_DEBUG( "::simulateChannel: ---- FIR filter ----" );
  std::vector<int> filter;
  fir(digits, channelId, filter);
  
 
  ATH_MSG_DEBUG( "::simulateChannel: ---- pedestalCorrection ----" );
  // the correction is only available for each LUT slice in the read-out (not ADC/Filter slice)
  // therefore we can only apply it to the #LUT central filter slices
  const std::size_t nCorr = tt.correctionEnabled().size();
  const std::size_t filterOffset = filter.size()/2 - nCorr/2;
  for(std::size_t iCorr = 0; iCorr < nCorr; ++iCorr) {
    filter[filterOffset + iCorr] -= tt.correction()[iCorr] * tt.correctionEnabled()[iCorr];
  }
  
  ATH_MSG_DEBUG("::simulateChannel: filter: " << filter);
 
 
  std::vector<int> lutInput;
  dropBits(filter, channelId, lutInput);
 
  ATH_MSG_DEBUG( "::simulateChannel: ---- BCID algorithms ---- ");
 
  bcid(filter, digits, channelId, bcidResults);
 
 
  std::vector<int> decisionRange;
  bcidDecisionRange(lutInput, digits, channelId, decisionRange);
  bcidDecision(bcidResults, decisionRange, bcidDecisions);
  
  ATH_MSG_DEBUG( "::simulateChannel: bcidDecisionRange "  <<  decisionRange);
  ATH_MSG_DEBUG( "::simulateChannel: bcidDecisions "  <<  bcidDecisions);
 
 
 
  ATH_MSG_DEBUG( "::simulateChannel: ---- LUT ET calculation ----" );
 
  std::vector<int> cpLutOutput, jepLutOutput;
  cpLut(lutInput, channelId, cpLutOutput);
  jepLut(lutInput, channelId, jepLutOutput);
 
  ATH_MSG_DEBUG( "::simulateChannel: cpLut "  <<  cpLutOutput);
  ATH_MSG_DEBUG( "::simulateChannel: jepLut "  <<  jepLutOutput);
 
  ATH_MSG_DEBUG( "::simulateChannel: ---- use ET range ----" );
 
  applyEtRange(cpLutOutput, decisionRange, channelId, outCpLut);
  applyEtRange(jepLutOutput, decisionRange, channelId, outJepLut);
  
  ATH_MSG_DEBUG( "::simulateChannel: cpLut applyETRange "  <<  outCpLut);
  ATH_MSG_DEBUG( "::simulateChannel: jepLut applyETRange "  <<  outJepLut);
 
  
  ATH_MSG_DEBUG( "::simulateChannel: ==== Leaving Process ====" );
}
 
void L1TriggerTowerToolRun3::bcid(const std::vector<int> &filter, const std::vector<int> &digits, const L1CaloCoolChannelId& channelId, std::vector<int> &output) const
{
  // Get decision flags for the 2 BCID algorithms
  std::vector<int> peak;
  peakBcid(filter, channelId, peak);
  std::vector<int> sat;
  satBcid(digits, channelId, sat);
 
  output.clear();
  output.reserve(sat.size()); // avoid frequent reallocations
 
  std::vector<int>::iterator itpeak = peak.begin();
  std::vector<int>::iterator itsat = sat.begin();
  for ( ; itpeak!=peak.end() && itsat!=sat.end(); ++itpeak, ++itsat ) {
   output.push_back( (*itpeak<<2) + (*itsat<<1) );
  }
 
  ATH_MSG_DEBUG( "::bcid: bcidResults: " << output);
 
}
 
void L1TriggerTowerToolRun3::bcid(const std::vector<int> &filter, const std::vector<int> &digits,
                                          unsigned int strategy, int satLow, int satHigh, int satLevel, std::vector<int> &output) const 
{
  // Get decision flags for the 2 BCID algorithms
  std::vector<int> peak;
  peakBcid(filter, strategy, peak);
  std::vector<int> sat;
  satBcid(digits, satLow, satHigh, satLevel, sat);
 
  output.clear();
  output.reserve(sat.size()); // avoid frequent reallocations
 
  std::vector<int>::iterator itpeak = peak.begin();
  std::vector<int>::iterator itsat = sat.begin();
  for ( ; itpeak!=peak.end() && itsat!=sat.end(); ++itpeak, ++itsat ) {
   output.push_back( (*itpeak<<2) + (*itsat<<1) );
  }
 
  ATH_MSG_DEBUG( "::bcid: bcidResults: " << output);
}
 
void L1TriggerTowerToolRun3::bcid(const std::vector<int> &filter, const std::vector<int> &lutInput, const std::vector<int> &digits, int energyLow, int energyHigh, int decisionSource, std::vector<unsigned int> &decisionConditions,
                              unsigned int strategy, int satLow, int satHigh, int satLevel, std::vector<int> &result, std::vector<int> &decision) const 
{
  // Get decision flags for the 2 BCID algorithms
  std::vector<int> peak;
  peakBcid(filter, strategy, peak);
  std::vector<int> sat;
  satBcid(digits, satLow, satHigh, satLevel, sat);
 
  result.clear();
  result.reserve(sat.size()); // avoid frequent reallocations
  decision.clear();
 
  std::vector<int>::iterator itpeak = peak.begin();
  std::vector<int>::iterator itsat = sat.begin();
  for ( ; itpeak!=peak.end() && itsat!=sat.end(); ++itpeak, ++itsat ) {
   result.push_back( (*itpeak<<2) + (*itsat<<1) );
  }
 
  ATH_MSG_DEBUG( "::bcid: bcidResults: " << result);
  
 
 
  std::vector<int> decisionRange;
  if (!(decisionSource&0x1)) etRange(digits, energyLow, energyHigh, decisionRange);
  else                     etRange(lutInput, energyLow, energyHigh, decisionRange);
  bcidDecision(result, decisionRange, decisionConditions, decision);
  ATH_MSG_DEBUG( "::bcid: bcidDecisions: " << decision);
 
}
 
namespace { // helper function
  template<class T>
  const std::vector<short int>* getFirCoefficients(unsigned int coolId,  SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2) {
    auto settings = pprConditionsRun2->pprConditions(coolId);
    if(!settings) return nullptr;
    return &(settings->firCoefficients());
  }
} // anonymous namespace
 
void L1TriggerTowerToolRun3::fir(const std::vector<int> &digits, const L1CaloCoolChannelId& channelId, std::vector<int> &output) const
{   
  
  SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2( m_pprConditionsContainerRun2);
 
  std::vector<int> firCoeffs;
  if(!m_pprConditionsContainerRun2.empty()) {
    const std::vector<short int>* hwCoeffs;
    hwCoeffs =   getFirCoefficients<L1CaloPprConditionsContainerRun2>(channelId.id(),  pprConditionsRun2);
    if(hwCoeffs) {
      firCoeffs.reserve(hwCoeffs->size()); // avoid frequent reallocations
      for (auto &i : reverse(*hwCoeffs)) {
    firCoeffs.push_back(i); 
      }
    } else ATH_MSG_WARNING( "::fir: No L1CaloPprConditions found" );
  } else ATH_MSG_WARNING( "::fir: No Conditions Container retrieved" );
 
  ATH_MSG_DEBUG( "::fir: FIR coefficients: " << firCoeffs);
    
 
  fir(digits, firCoeffs, output);
}
 
void L1TriggerTowerToolRun3::fir(const std::vector<int> &digits, const std::vector<int> &firCoeffs, std::vector<int> &output) const
{
  output.clear();
  output.reserve(digits.size()); // avoid frequent reallocations
  int firstFIR = -1;
  int lastFIR = 0;
  for (unsigned int i = 0; i < firCoeffs.size(); ++i) {
    if (firstFIR < 0 && firCoeffs[i] != 0) firstFIR = i;
    if (firCoeffs[i] != 0) lastFIR = i;
  }
  if (firstFIR < 0) firstFIR = lastFIR + 1;
  
  for (int i = 0; i < (int)digits.size(); i++) {
    int sum = 0;
    if (i >= 2-firstFIR && i < (int)digits.size()+2-lastFIR) {
      for (int j = firstFIR; j <= lastFIR; ++j) {
        sum += digits[i+j-2]*firCoeffs[j];
      }
    }
    if (sum < 0) sum = 0;
    output.push_back(sum);
  }
  
  ATH_MSG_DEBUG( "::fir: output: " << output);
 
}
 
namespace {
  template<typename T>
  unsigned int getStrategy( SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2) {
    return pprConditionsRun2->peakFinderCond();
  }
}
 
void L1TriggerTowerToolRun3::peakBcid(const std::vector<int> &fir, const L1CaloCoolChannelId& /*channelId*/, std::vector<int> &output) const 
{
  unsigned int strategy = 0;
  SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2( m_pprConditionsContainerRun2);
  
 
  if(!m_pprConditionsContainerRun2.empty()) {
    strategy = getStrategy<L1CaloPprConditionsContainerRun2>( pprConditionsRun2);
  } else ATH_MSG_WARNING( "::peakBcid: No Conditions Container retrieved" );
 
  ATH_MSG_DEBUG( "::peakBcid: peak-finder strategy: " << strategy );
  
  peakBcid(fir, strategy, output);
}
 
void L1TriggerTowerToolRun3::peakBcid(const std::vector<int> &fir, unsigned int strategy, std::vector<int> &output) const
{
  output.clear();
  output.reserve(fir.size()); // avoid frequent reallocations
 
  for (unsigned int i = 0; i < fir.size(); i++) {
    int result = 0;
    if (i > 0 && i < fir.size()-1) {
      if (strategy&0x1) {
        if ( (fir[i-1]<fir[i]) && (fir[i+1]<fir[i]) ) result = 1;
      } else {
        if ( (fir[i-1]<fir[i]) && (fir[i+1]<=fir[i]) ) result = 1;
      }
    }
    output.push_back(result);
  }
  
  ATH_MSG_DEBUG( "::peakBcid: output: " << output);
 
  
}
 
namespace { // helper function
  template<class T>
  std::tuple<bool, int, int, int> getSaturation(unsigned int coolId,  SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2) {
    auto settings = pprConditionsRun2->pprConditions(coolId);
    if(!settings) return std::make_tuple(false, 0, 0, 0);
    return std::make_tuple(true, settings->satBcidLevel(), settings->satBcidThreshLow(), 
                           settings->satBcidThreshHigh());
  }
} // anonymous namespace
 
void L1TriggerTowerToolRun3::satBcid(const std::vector<int> &digits, const L1CaloCoolChannelId& channelId, std::vector<int> &output) const 
{  
  int satLevel = 0;
  int satLow   = 0;
  int satHigh  = 0;
  SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2( m_pprConditionsContainerRun2);
  
  if (!m_pprConditionsContainerRun2.empty()) {
    bool available = false;
    std::tie(available, satLevel, satLow, satHigh) = getSaturation<L1CaloPprConditionsContainerRun2>(channelId.id(),  pprConditionsRun2);
    if(!available) ATH_MSG_WARNING( "::satBcid: No L1CaloPprConditions found" );
  } else ATH_MSG_WARNING( "::satBcid: No Conditions Container retrieved" );
 
  ATH_MSG_DEBUG( "::satBcid: satLevel: " << satLevel
      << " satLow: "  << satLow
      << " satHigh: " << satHigh );
 
  satBcid(digits, satLow, satHigh, satLevel, output);
}
 
void L1TriggerTowerToolRun3::satBcid(const std::vector<int> &digits, int satLow, int satHigh, int satLevel, std::vector<int> &output) const
{
  output.clear();
  output.reserve(digits.size()); // avoid frequent reallocations
  
  bool enabled = true;
  int flag[2] = {0,0};
 
  for (unsigned int i = 0; i<digits.size(); i++) {
    // Algorithm can set flag for following sample. So here we
    // propagate such flags into the current sample.
    flag[0] = flag[1];
    flag[1] = 0;
    
    if (digits[i]>=satLevel) {   // do we have saturation?
      if (enabled && i>1) {        // is algorithm active?
        bool low  = (digits[i-2]>satLow);
        bool high = (digits[i-1]>satHigh);
        if (high) {                             // flag current or next sample?
          if (low) {
            flag[0] = 1;
          }
          else {
            flag[1] = 1;
          }
        }
        else {
          flag[1] = 1;
        }
      }
      enabled = false;             // after first saturation, disable algorithm
    }
    else {
      enabled = true;              // unsaturated sample reenables algorithm
    }
    output.push_back(flag[0]);
  }
  
  ATH_MSG_DEBUG( "::satBcid: output: " << output);
 
}
 
namespace {
  template<typename T>
  unsigned int getDecisionSource( SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2) {
    return pprConditionsRun2->decisionSource();
  }
}
 
void L1TriggerTowerToolRun3::bcidDecisionRange(const std::vector<int>& lutInput, const std::vector<int>& digits, const L1CaloCoolChannelId& channelId, std::vector<int> &output) const 
{
  int decisionSource = 0;
  SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2( m_pprConditionsContainerRun2);
  
  if (!m_pprConditionsContainerRun2.empty()) {
    decisionSource = getDecisionSource<L1CaloPprConditionsContainerRun2>(pprConditionsRun2);
    
  } else ATH_MSG_WARNING( "::bcidDecisionRange: No Conditions Container retrieved" );
 
  if (!(decisionSource&0x1)) etRange(digits, channelId, output);
  else                     etRange(lutInput, channelId, output);
  
  ATH_MSG_DEBUG( "::bcidDecisionRange: decisionSource: " << decisionSource);
  ATH_MSG_DEBUG( " output: " << output);
 
 
}
 
namespace { // helper function
  template<class T>
  std::tuple<unsigned int, unsigned int, unsigned int> getBcidDecision( SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2) {
    return std::make_tuple(pprConditionsRun2->bcidDecision1(), pprConditionsRun2->bcidDecision2(), pprConditionsRun2->bcidDecision3());
  }
} // anonymous namespace
void L1TriggerTowerToolRun3::bcidDecision(const std::vector<int> &bcidResults, const std::vector<int> &range , std::vector<int> &output) const 
{
  unsigned int decision1 = 0;
  unsigned int decision2 = 0;
  unsigned int decision3 = 0;
  SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2( m_pprConditionsContainerRun2);
  
  if(!m_pprConditionsContainerRun2.empty()) {
    std::tie(decision1, decision2, decision3) = getBcidDecision<L1CaloPprConditionsContainerRun2>(pprConditionsRun2);
  } else ATH_MSG_WARNING( "::bcidDecision: No Conditions Container retrieved" );
 
  // Reverse the order! (see elog 97082 9/06/10)
  std::vector<unsigned int> mask = { decision3, decision2, decision1 };
  
  ATH_MSG_DEBUG( "::bcidDecision: masks: " << MSG::hex
         << decision3 << " " << decision2 << " " << decision1 << MSG::dec );
 
  bcidDecision(bcidResults, range, mask, output);
}
 
void L1TriggerTowerToolRun3::bcidDecision(const std::vector<int> &bcidResults, const std::vector<int> &range, const std::vector<unsigned int> &mask, std::vector<int> &output) const 
{
  output.clear();
  output.reserve(bcidResults.size()); // avoid frequent reallocations
 
  std::vector<int>::const_iterator itBcid  = bcidResults.begin();
  std::vector<int>::const_iterator itRange = range.begin();
  int nRange = mask.size();
 
  for ( ; itBcid != bcidResults.end() && itRange != range.end(); ++itBcid, ++itRange) {
   if ((*itRange) < nRange && (mask[*itRange]&(0x1<<*itBcid))) output.push_back(1);
   else                                                        output.push_back(0);
  }
 
  ATH_MSG_DEBUG( "::bcidDecision: output: " << output);
 
 
}
 
// TODO implement scale
void L1TriggerTowerToolRun3::cpLut(const std::vector<int> &fir, const L1CaloCoolChannelId& channelId, std::vector<int> &output) const
{   
  int startBit = 0;
  int strategy = 0;
  int offset   = 0;
  double offsetReal = 0;
  int slope    = 0;
  int cut      = 0;
  unsigned short scale_menu = 0;
  double pedMean = 0;
  int ped      = 0;
  int hwCoeffSum = 0;
  const std::vector<short int>* hwCoeffs;
 
 
  SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2( m_pprConditionsContainerRun2);
  const EventContext& ctx = Gaudi::Hive::currentContext();
 
  if(!m_pprConditionsContainerRun2.empty()) {
    auto settings = pprConditionsRun2->pprConditions(channelId.id());
    if (settings) {
      startBit = settings->firStartBit();
      strategy = settings->lutCpStrategy();
      slope    = settings->lutCpSlope();
      cut      = settings->lutCpNoiseCut();
      ped      = settings->pedValue();
      pedMean  = settings->pedMean();
 
      hwCoeffs =  getFirCoefficients<L1CaloPprConditionsContainerRun2>(channelId.id(), pprConditionsRun2);
    
      auto l1Menu = getL1Menu(ctx);
      scale_menu = l1Menu->thrExtraInfo().EM().emScale(); // Retrieve scale param from menu
    
      
      for( auto &coeffs :  *hwCoeffs) { 
    hwCoeffSum += coeffs;
      }
      if (strategy == 0){
        offsetReal = pedMean * hwCoeffSum / pow(2.,startBit);
      }
      else{
    offsetReal = pedMean * static_cast<double>(hwCoeffSum) * static_cast<double>(slope) / pow(2.,static_cast<double>(startBit)) - static_cast<double>(slope)/2.;
      }
      offset = static_cast<unsigned short>( offsetReal < 0. ? 0 : offsetReal + 0.5 );
 
      ATH_MSG_DEBUG( "::cpLut: Offset: offset/strategy/pedMean/firCoeffSum/startBit/slope: "
               << offset << " " << strategy << " " << " " << pedMean << " " << hwCoeffSum << " " << startBit << " " << slope );
      
    } else ATH_MSG_WARNING( "::cpLut: No L1CaloPprConditions found" );
  } else ATH_MSG_WARNING( "::cpLut: No Conditions Container retrieved" );
 
  ATH_MSG_DEBUG( "::cpLut: LUT strategy/offset/slope/cut/ped: "
          << strategy << " " << offset << " " << slope << " " << cut << " " << ped << " " );
 
  unsigned int noiseCut = 0;
  bool disabled = disabledChannel(channelId, noiseCut);
  if (noiseCut > 0) cut = noiseCut;
  if(strategy == 2) {
    // take the global scale into account - translate strategy to 1 for Run-1 compatible treatment
    lut(fir, scale_menu*slope, scale_menu*offset, scale_menu*cut, 1, disabled, output);
  } else if(strategy == 1 || strategy == 0){
    lut(fir, slope, offset, cut, strategy, disabled, output);
  } else if (strategy == 4) {
    // Run-3 FCAL LUT filling scheme (strategy 4) which is identical to
    // Run-2 strategy 2, but contains an additional fixed factor of 2.
    lut(fir, scale_menu*slope, scale_menu*offset, scale_menu*cut, 4, disabled, output);
 
  }
  
  else {
        ATH_MSG_WARNING(" ::cpLut: Unknown stragegy: " << strategy);
    output.push_back(0); //avoid crashing with Unknown stragegy
  }
}
 
void L1TriggerTowerToolRun3::jepLut(const std::vector<int> &fir, const L1CaloCoolChannelId& channelId, std::vector<int> &output) const 
{   
  int startBit = 0;
  int strategy   = 0;
  int offset     = 0;
  double offsetReal = 0;
  int slope      = 0;
  int cut        = 0;
  unsigned short scale_db   = 0;
  unsigned short scale_menu = 0;
  int ped        = 0;
  double pedMean = 0;
  int hwCoeffSum = 0;
  const std::vector<short int>* hwCoeffs;
  short par1     = 0;
  short par2     = 0;
  short par3     = 0;
  short par4     = 0;
 
  if(!isRun2()) {
    // assert instead ?!
    ATH_MSG_WARNING("::jepLut: Run-1 data - behaviour undefined!");
  }
  
 
  SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2( m_pprConditionsContainerRun2);
  const EventContext& ctx = Gaudi::Hive::currentContext();
 
  if(! m_pprConditionsContainerRun2.empty()) {
    const auto settings = pprConditionsRun2->pprConditions(channelId.id());
    if (settings) {
      startBit =  settings->firStartBit();
      strategy   = settings->lutJepStrategy();
      slope      = settings->lutJepSlope();
      cut        = settings->lutJepNoiseCut();
      ped        = settings->pedValue();
      pedMean    = settings->pedMean();
      scale_db   = settings->lutJepScale();
 
      auto l1Menu = getL1Menu(ctx);
      scale_menu = l1Menu->thrExtraInfo().JET().jetScale(); // Retrieve scale param from menu
      
      if (strategy == 3) {
    par1  = settings->lutJepPar1();
    par2  = settings->lutJepPar2();
    par3  = settings->lutJepPar3();
    par4  = settings->lutJepPar4();
      }
      
      hwCoeffs = getFirCoefficients<L1CaloPprConditionsContainerRun2>(channelId.id(), pprConditionsRun2);
      
      for( auto &coeffs :  *hwCoeffs) { 
     hwCoeffSum += coeffs;
      }
      if (strategy == 0){
        offsetReal = pedMean * hwCoeffSum / pow(2.,startBit);
      }
      else{
        offsetReal = pedMean * static_cast<double>(hwCoeffSum) * static_cast<double>(slope) / pow(2.,static_cast<double>(startBit)) - static_cast<double>(slope)/2.;
      }
      offset = static_cast<unsigned short>( offsetReal < 0. ? 0 : offsetReal + 0.5 );
 
      ATH_MSG_VERBOSE( "::jepLut: Offset: offset/strategy/pedMean/firCoeffSum/startBit/slope: "
               << offset << " " << strategy << " " << " " << pedMean << " " << hwCoeffSum << " " << startBit << " " << slope );
 
    } else ATH_MSG_WARNING( "::jepLut: No L1CaloPprConditions found" );
  } else ATH_MSG_WARNING( "::jepLut: No Conditions Container retrieved" );
 
  ATH_MSG_VERBOSE( "::jepLut: LUT strategy/offset/slope/cut/ped: "
          << strategy << " " << offset << " " << slope << " " << cut << " " << ped << " " );
 
  unsigned int noiseCut = 0;
  bool disabled = disabledChannel(channelId, noiseCut);
  if (noiseCut > 0) cut = noiseCut;
  
  if(strategy == 3) {
    nonLinearLut(fir, slope, offset, cut, scale_db, par1, par2, par3, par4, disabled, output);
  } 
  else if(strategy == 2) {
    // take the global scale into account - translate strategy to 1 for Run-1 compatible treatment
    lut(fir, scale_menu*slope, scale_menu*offset, scale_menu*cut, 1, disabled, output);
    
  }else if(strategy == 1 || strategy == 0) {
    lut(fir, slope, offset, cut, strategy, disabled, output);
  } 
  else if (strategy == 4) {
    // Run-3 FCAL LUT filling scheme (strategy 4) which is identical to
    // Run-2 strategy 2, but contains an additional fixed factor of 2.
    lut(fir, scale_menu*slope, scale_menu*offset, scale_menu*cut, 4, disabled, output);
    
  }
  
  else { 
    ATH_MSG_WARNING(" ::jepLut: Unknown stragegy: " << strategy);
    output.push_back(0);//avoid crashing with Unknown stragegy
  }
 
 
}
 
void L1TriggerTowerToolRun3::lut(const std::vector<int> &fir, int slope, int offset, int cut, int strategy, bool disabled, std::vector<int> &output) const
{
  output.clear();
  output.reserve(fir.size()); // avoid frequent reallocations
  
  const int reScale = 2;
  for( auto it :  fir) { 
    int out = 0;
    if (!disabled) {
      if (strategy == 0 && it >= offset+cut) { // Original scheme
        out = ((it-offset)*slope + 2048)>>12;
      }
      else if (strategy == 1 && it*slope >= offset+cut) { // New scheme
        out = (it*slope - offset + 2048)>>12;
      }
      // Note: for strategy 2, the code is called with strategy=1
      else if (strategy == 4 && it*slope >= offset+ cut/reScale) { // FCAL
        out = (it*slope*reScale - offset*reScale + 2048)>>12;
      } 
      if (out < 0)                 out = 0;
      if (out > s_saturationValue) out = s_saturationValue;
    }
    output.push_back(out);
  }
 
  ATH_MSG_DEBUG( "::lut: output: " << output);
 
}
 
void L1TriggerTowerToolRun3::nonLinearLut(const std::vector<int> &fir, int slope, int offset, int cut, int scale, short par1, short par2, short par3, short par4, bool disabled, std::vector<int> &output) const
{
  output.clear();
  output.reserve(fir.size()); // avoid frequent reallocations
 
  
  for( auto it :  fir) { 
    int out = 0;
    if (!disabled) {
      // turn shorts into double
      double nll_slope = 0.001 * scale;
      double nll_offset = 0.001 * par1;
      double nll_ampl = 0.001 * par2;
      double nll_expo = 0.;
      if(par3) {
        nll_expo = -1. / (4096 * 0.001*par3);
      } else {
        nll_ampl = 0.;
      }
      double nll_noise = 0.001 * par4;
      
      // noise cut
      if (it * slope < offset + nll_noise * cut) {
        output.push_back(0);
        continue;
      }
      // actual calculation
      out = int((((int)(2048 + nll_slope * (it * slope - offset)))>>12) + nll_offset + nll_ampl * std::exp(nll_expo * (it * slope - offset)));
 
      if(out > s_saturationValue) out = s_saturationValue;
      if(out < 0)                 out = 0;
    }
    output.push_back(out);
  }
  ATH_MSG_DEBUG( "::nonLinearLut: output: " << output);
 
}
void L1TriggerTowerToolRun3::applyEtRange(const std::vector<int>& lut, const std::vector<int>& range, const L1CaloCoolChannelId& channelId, std::vector<int> &output) const 
{
  bool disabled = disabledChannel(channelId);
  std::vector<int>::const_iterator itlut   = lut.begin();
  std::vector<int>::const_iterator itrange = range.begin();
  while ( itlut != lut.end() && itrange != range.end() ) {
    if (!disabled && satOverride((*itrange))) output.push_back(s_saturationValue);
    else                                                 output.push_back(*itlut);
    ++itlut;
    ++itrange;
  }
  
  ATH_MSG_DEBUG( "::applyEtRange: output: " << output);
 
}
 
namespace { // helper function
  template<class T>
  std::tuple<bool, int, int> getBcidEnergyRange(unsigned int coolId, SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2) {
    auto settings = pprConditionsRun2->pprConditions(coolId);
    if(!settings) return std::make_tuple(false, 0, 0);
    return std::make_tuple(true, settings->bcidEnergyRangeLow(), settings->bcidEnergyRangeHigh());
  }
} 
 
// anonymous namespace
 
void L1TriggerTowerToolRun3::etRange(const std::vector<int> &et, const L1CaloCoolChannelId& channelId, std::vector<int> &output) const 
{
  int energyLow  = 0;
  int energyHigh = 0;
  SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2( m_pprConditionsContainerRun2);
  
  if (!m_pprConditionsContainerRun2.empty()) {
    bool available = false;
    std::tie(available, energyLow, energyHigh) = getBcidEnergyRange<L1CaloPprConditionsContainerRun2>(channelId.id(), pprConditionsRun2);
    if(!available) ATH_MSG_WARNING("::etRange: No L1CaloPprConditions found");
  } else ATH_MSG_WARNING("::etRange: No Conditions Container retrieved");
 
  ATH_MSG_VERBOSE( "::etRange: energyLow: " << energyLow
                          << " energyHigh: "          << energyHigh);
 
  etRange(et, energyLow, energyHigh, output);
}
 
void L1TriggerTowerToolRun3::etRange(const std::vector<int> &et, int energyLow, int energyHigh, std::vector<int> &output) const 
{
  output.clear();
  output.reserve(et.size()); // avoid frequent reallocations
  for( auto it :  et) { 
    if (it <= energyLow)       output.push_back(0);
    else if (it <= energyHigh) output.push_back(1);
    else                          output.push_back(2);
  }
  
  ATH_MSG_DEBUG( "::etRange: output: " << output);
  
 
}
 
namespace { // helper function
  template<class T>
  std::tuple<bool, int> getFirStartBit(unsigned int coolId, SG::ReadCondHandle<L1CaloPprConditionsContainerRun2> pprConditionsRun2) {
    auto settings = pprConditionsRun2->pprConditions(coolId);
    if(!settings) return std::make_tuple(false, 0);
    return std::make_tuple(true, settings->firStartBit());
  }
} // anonymous namespace
 
void L1TriggerTowerToolRun3::dropBits(const std::vector<int> &fir, const L1CaloCoolChannelId& channelId, std::vector<int> &output) const 
{
  unsigned int start = 0;
  SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2( m_pprConditionsContainerRun2);
  
  if(!m_pprConditionsContainerRun2.empty()) {
    bool available = false;
    std::tie(available, start) = getFirStartBit<L1CaloPprConditionsContainerRun2>(channelId.id(), pprConditionsRun2);
    if(!available)ATH_MSG_WARNING( "::dropBits: No L1CaloPprConditions found" );
  } else ATH_MSG_WARNING( "::dropBits: No Conditions Container retrieved" );
 
  ATH_MSG_DEBUG( "::dropBits: firStartBit: " << start );
  
  dropBits(fir, start, output);
}
 
void L1TriggerTowerToolRun3::dropBits(const std::vector<int> &fir, unsigned int start, std::vector<int> &output) const
{
  output.clear();
  output.reserve(fir.size()); // avoid frequent reallocations
 
  unsigned int mask = (0x3ff<<start);
 
  int max = 1<<(10+start);
 
  for( auto it :  fir) { 
    if (it>=max) output.push_back(0x3ff);
    else output.push_back((it&mask)>>start);
  }
 
  ATH_MSG_DEBUG( "::dropBits: output: " << output);
}
 
void L1TriggerTowerToolRun3::firParams(const L1CaloCoolChannelId& channelId, std::vector<int> &firCoeffs) const 
{   
  firCoeffs.clear();
  SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2( m_pprConditionsContainerRun2);
  if(!m_pprConditionsContainerRun2.empty()) {
    const std::vector<short int>* hwCoeffs = nullptr;
    hwCoeffs = getFirCoefficients<L1CaloPprConditionsContainerRun2>(channelId.id(), pprConditionsRun2 );
    
    if(hwCoeffs) {
      firCoeffs.reserve(hwCoeffs->size()); // avoid frequent reallocations
      for (int i = hwCoeffs->size()-1; i >= 0; --i) firCoeffs.push_back((*hwCoeffs)[i]);
 
    } else ATH_MSG_WARNING( "::firParams: No L1CaloPprConditions found" );
  } else ATH_MSG_WARNING( "::firParams: No Conditions Container retrieved" );
 
 
  ATH_MSG_DEBUG( "::fir: FIR coefficients: " << firCoeffs);
  
}
 
void L1TriggerTowerToolRun3::bcidParams(const L1CaloCoolChannelId& channelId, int &energyLow, int &energyHigh, int &decisionSource, std::vector<unsigned int> &decisionConditions,
                                    unsigned int &peakFinderStrategy, int &satLow, int &satHigh, int &satLevel) const
{
  energyLow          = 0;
  energyHigh         = 0;
  decisionSource     = 0;
  decisionConditions.clear();
  peakFinderStrategy = 0;
  satLevel           = 0;
  satLow             = 0;
  satHigh            = 0;
  
  SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2( m_pprConditionsContainerRun2);
 
  if(!m_pprConditionsContainerRun2.empty()) {
    using std::get;
    std::tuple<unsigned int, unsigned int, unsigned int> bcidDecision;
    std::tuple<bool, int, int> bcidEnergyRange;
    std::tuple<bool, int, int, int> saturation;
    
    using Cont = L1CaloPprConditionsContainerRun2;
    bcidDecision = getBcidDecision<Cont>(pprConditionsRun2);
    peakFinderStrategy = getStrategy<Cont>(pprConditionsRun2);
    decisionSource = getDecisionSource<Cont>(pprConditionsRun2);
    bcidEnergyRange = getBcidEnergyRange<Cont>(channelId.id(), pprConditionsRun2);
    saturation = getSaturation<Cont>(channelId.id(), pprConditionsRun2);
    
    
    decisionConditions = { get<2>(bcidDecision), 
                           get<1>(bcidDecision),
                           get<0>(bcidDecision) }; // reverse order
    if(get<0>(bcidEnergyRange)) {
      std::tie(std::ignore, energyLow, energyHigh) = bcidEnergyRange;
    } else ATH_MSG_WARNING( "::bcidParams: No BcidEnergyRange found" );
 
    if(get<0>(saturation)) {
      std::tie(std::ignore, satLevel, satLow, satHigh) = saturation;
    } else ATH_MSG_WARNING( "::bcidParams: No Saturation found" );
  } else ATH_MSG_WARNING( "::bcid:Params No Conditions Container retrieved" );
 
  ATH_MSG_DEBUG( "::bcidParams: satLevel: " << satLevel
                   << " satLow: "  << satLow << " satHigh: " << satHigh << endmsg
                   << " energyLow: " << energyLow << " energyHigh: " << energyHigh << endmsg
                   << " decisionSource: " << decisionSource << " peakFinderStrategy: "
                   << peakFinderStrategy );
 
}
 
void L1TriggerTowerToolRun3::cpLutParams(const L1CaloCoolChannelId& channelId, int& startBit, int& slope, int& offset, int& cut, int& pedValue, float& pedMean, int& strategy, bool& disabled)
{
  startBit = 0;
  strategy = 0;
  offset   = 0;
  double offsetReal = 0;
  slope    = 0;
  cut      = 0;
  pedValue = 0;
  pedMean  = 0.;
  disabled = true;
  int hwCoeffSum = 0;
  const std::vector<short int>* hwCoeffs;
  
  if(!isRun2()) {
    // assert instead ?!
    ATH_MSG_WARNING("::cpLutParams: Run-1 data - behaviour undefined!");
  }
 
  SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2( m_pprConditionsContainerRun2);
  
  if(!m_pprConditionsContainerRun2.empty()) {
    const auto settings = pprConditionsRun2->pprConditions(channelId.id());
    if(settings) {
      startBit = settings->firStartBit();
      strategy = settings->lutCpStrategy();
      slope    = settings->lutCpSlope();
      cut      =  settings->lutCpNoiseCut();
      pedValue =  settings->pedValue();
      pedMean  =  settings->pedMean();
      
      hwCoeffs = getFirCoefficients<L1CaloPprConditionsContainerRun2>(channelId.id(), pprConditionsRun2);
      
      for( auto &coeffs :  *hwCoeffs) { 
    hwCoeffSum += coeffs;
      }
      if (strategy == 0){
    offsetReal = pedMean * hwCoeffSum / pow(2.,startBit);
      }
      else{
    offsetReal = pedMean * hwCoeffSum * slope / pow(2.,startBit) - slope/2.;
      }
      offset = static_cast<unsigned short>( offsetReal < 0. ? 0 : offsetReal + 0.5 );
      
      ATH_MSG_VERBOSE( "::jepLutParams: Offset: offset/strategy/pedMean/firCoeffSum/startBit/slope: "
             << offset << " " << strategy << " " << " " << pedMean << " " << hwCoeffSum << " " << startBit << " " << slope );
 
    } else ATH_MSG_WARNING( "::cpLutParams: No L1CaloPprConditions found" );
  } else ATH_MSG_WARNING( "::cpLutParams: No Conditions Container retrieved" );
 
  ATH_MSG_VERBOSE( "::cpLutParams: LUT startBit/strategy/offset/slope/cut/pedValue/pedMean: "
          << startBit << " " << strategy << " " << offset << " " << slope << " " << cut << " " << pedValue << " " << pedMean );
  unsigned int noiseCut = 0;
  disabled = disabledChannel(channelId, noiseCut);
  if (noiseCut > 0) cut = noiseCut;
}
 
void L1TriggerTowerToolRun3::jepLutParams(const L1CaloCoolChannelId& channelId, int& startBit, int& slope, int& offset, int& cut, int& pedValue, float& pedMean, int& strategy, bool& disabled)
{
  startBit = 0;
  strategy = 0;
  offset   = 0;
  double offsetReal = 0;
  slope    = 0;
  cut      = 0;
  pedValue = 0;
  pedMean  = 0.;
  disabled = true;
  int hwCoeffSum = 0;
  const std::vector<short int>* hwCoeffs;
  
  if(!isRun2()) {
    // assert instead ?!
    ATH_MSG_WARNING("::jepLutParams: Run-1 data - behaviour undefined!");
  }
  
  SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2( m_pprConditionsContainerRun2);
  if(!m_pprConditionsContainerRun2.empty()) {
    const auto settings = pprConditionsRun2->pprConditions(channelId.id());
    if(settings) {
      startBit = settings->firStartBit();
      strategy = settings->lutJepStrategy();
      slope    = settings->lutJepSlope();
      cut      = settings->lutJepNoiseCut();
      pedValue = settings->pedValue();
      pedMean  = settings->pedMean();
 
      hwCoeffs = getFirCoefficients<L1CaloPprConditionsContainerRun2>(channelId.id(),pprConditionsRun2);
    
      for( auto &coeffs :  *hwCoeffs) { 
    hwCoeffSum += coeffs;
      }
      if (strategy == 0){
    offsetReal = pedMean * hwCoeffSum / pow(2.,startBit);
      }
      else{
    offsetReal = pedMean * hwCoeffSum * slope / pow(2.,startBit) - slope/2.;
      }
      offset = static_cast<unsigned short>( offsetReal < 0. ? 0 : offsetReal + 0.5 );
      
      ATH_MSG_VERBOSE( "::jepLutParams: Offset: offset/strategy/pedMean/firCoeffSum/startBit/slope: "
               << offset << " " << strategy << " " << " " << pedMean << " " << hwCoeffSum << " " << startBit << " " << slope );
      
    } else ATH_MSG_WARNING( "::jepLutParams: No L1CaloPprConditions found" );
  } else ATH_MSG_WARNING( "::jepLutParams: No Conditions Container retrieved" );
 
  ATH_MSG_VERBOSE( "::jepLutParams: LUT startBit/strategy/offset/slope/cut/pedValue/pedMean: "
          << startBit << " " << strategy << " " << offset << " " << slope << " " << cut << " " << pedValue << " " << pedMean );
  unsigned int noiseCut = 0;
  disabled = disabledChannel(channelId, noiseCut);
  if (noiseCut > 0) cut = noiseCut;
}
 
Identifier L1TriggerTowerToolRun3::identifier(double eta, double phi, int layer)
{
   Identifier id(0);
   if (m_l1CaloTTIdTools && m_lvl1Helper) {
     int pos_neg_z = m_l1CaloTTIdTools->pos_neg_z(eta);
     int region    = m_l1CaloTTIdTools->regionIndex(eta);
     int ieta      = m_l1CaloTTIdTools->etaIndex(eta);
     int iphi      = m_l1CaloTTIdTools->phiIndex(eta, phi);
   
     id = m_lvl1Helper->tower_id(pos_neg_z, layer, region, ieta, iphi);
   }
   return id;
} 
 
HWIdentifier L1TriggerTowerToolRun3::hwIdentifier(const Identifier& id)
{
   HWIdentifier hwId(0);
   if (m_ttSvc) {
     try   { hwId = m_ttSvc->createTTChannelID(id, false); }
     catch (const CaloID_Exception&) { hwId = HWIdentifier(0); }
   }
   return hwId;
}
 
HWIdentifier L1TriggerTowerToolRun3::hwIdentifier(double eta, double phi, int layer)
{
   Identifier id = identifier(eta, phi, layer);
   return hwIdentifier(id);
}
 
L1CaloCoolChannelId L1TriggerTowerToolRun3::channelID(double eta, double phi, int layer)
{
  // Use direct lookup table if possible
  const double absEta = std::abs(eta);
  int index = 0;
  if (absEta < 2.5) {
    const int etaBin = 10.*absEta;
    const int phiBin = phi*(32/M_PI);
    index = (etaBin<<6) + phiBin;
  } else if (absEta < 3.2) {
    const int etaBin = 5.*(absEta - 2.5);
    const int phiBin = phi*(16./M_PI);
    index = 1600 + (etaBin<<5) + phiBin;
  } else {
    const int etaBin = (absEta - 3.2)*(1./0.425);
    const int phiBin = phi*(8./M_PI);
    index = 1728 + (etaBin<<4) + phiBin;
  }
  if (eta < 0.)  index += 1792;
  if (layer > 0) index += 3584;
  if (index >= s_maxTowers) return L1CaloCoolChannelId(0);
  if (m_idTable.empty()) {
    m_idTable.reserve(s_maxTowers);
    m_idTable.assign(s_maxTowers, 0);
  }
  if (m_idTable[index] == 0) {
    Identifier id = identifier(eta, phi, layer);
    L1CaloCoolChannelId coolID = channelID(id);
    m_idTable[index] = coolID.id();
  }
  return L1CaloCoolChannelId(m_idTable[index]);
}
 
L1CaloCoolChannelId L1TriggerTowerToolRun3::channelID(const Identifier& id)
{
  L1CaloCoolChannelId coolId(0);
  if (m_ttSvc) {
    try {
      HWIdentifier hwId = hwIdentifier(id);
      coolId = m_ttSvc->createL1CoolChannelId(hwId);
    }
    catch (const CaloID_Exception&) { coolId = L1CaloCoolChannelId(0); }
  }
  return coolId;
}
 
namespace { // helper function
  template<class T>
  std::tuple<bool, bool, bool> getSatOverride(SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2) {
    return std::make_tuple(pprConditionsRun2->satOverride1(), pprConditionsRun2->satOverride2(), pprConditionsRun2->satOverride3());
  }
} // anonymous namespace
 
bool L1TriggerTowerToolRun3::satOverride(int range) const 
{
 
  SG::ReadCondHandle<L1CaloPprConditionsContainerRun2>  pprConditionsRun2( m_pprConditionsContainerRun2);
  
  bool override = false;
  if(!m_pprConditionsContainerRun2.empty()) {
    std::tuple<bool, bool, bool> satOverride;
    satOverride = getSatOverride<L1CaloPprConditionsContainerRun2>(pprConditionsRun2);
    // NB Reverse order as for bcidDecision1/2/3
    if (range == 0) override = std::get<2>(satOverride);
    else if (range == 1) override = std::get<1>(satOverride);
    else if (range == 2) override = std::get<0>(satOverride);
  } else ATH_MSG_WARNING( "::satOverride: No Conditions Container retrieved" );
 
  ATH_MSG_VERBOSE( "::satOverride: range " << range
          << " has saturation override flag " << override );
  
  return override;
}
 
bool L1TriggerTowerToolRun3::disabledChannel(const L1CaloCoolChannelId& channelId) const
{
  unsigned int noiseCut = 0;
  return disabledChannel(channelId, noiseCut);
}
 
bool L1TriggerTowerToolRun3::disabledChannel(const L1CaloCoolChannelId& channelId, unsigned int& noiseCut) const 
{
 
  SG::ReadCondHandle<L1CaloPprDisabledChannelContainerRun2>  pprDisabledChannel(m_pprDisabledChannelContainer);
  bool isDisabled = false;
  noiseCut = 0;
  if(!m_pprDisabledChannelContainer.empty()) {
    
    const auto disabledChan =  pprDisabledChannel->pprDisabledChannel(channelId.id());
       
    if (disabledChan) {
      if (!disabledChan->disabledBits()) {
        ChanCalibErrorCode calibError(disabledChan->calibErrorCode());
    if (calibError.chanValid()) {
          ChanDeadErrorCode deadError(disabledChan->deadErrorCode());
          if (deadError.chanValid()) noiseCut = disabledChan->noiseCut();
      //else isDisabled = true;
        } //else isDisabled = true;
      } else isDisabled = true;
      
      ATH_MSG_DEBUG( MSG::hex
              << "::disabledChannel: calibErrorCode: " << (disabledChan->calibErrorCode()).errorCode()
              << "  deadErrorCode: " << (disabledChan->deadErrorCode()).errorCode()
              << "  noiseCut: "      << disabledChan->noiseCut()
              << "  disabledBits: "  << disabledChan->disabledBits()
              << MSG::dec );
      
    } else {
      ATH_MSG_DEBUG( "::disabledChannel: No L1CaloPprDisabledChannel found" );
    }
  } else {
    ATH_MSG_WARNING( "::disabledChannel: No DisabledChannel Container retrieved" );
  }
  if (isDisabled) ATH_MSG_DEBUG( "::disabledChannel: Channel is disabled" );
 
  return isDisabled;
}
 
 
double L1TriggerTowerToolRun3::FCalTTeta(double nominalEta, double /*phi*/, int layer)
{
  double eta = nominalEta;
  float abseta = std::abs(eta);
  if (abseta<3.2) return eta; // If called for non-FCAL TT return input value
  if (layer == 0) {
    int sign = ((eta > 0) ? 1 : -1);
    if (abseta < 3.6)      eta = 3.15 * sign;
    else if (abseta < 4.0) eta = 3.33 * sign;
    else if (abseta < 4.5) eta = 3.72 * sign;
    else                   eta = 4.41 * sign;
  }
  else if (eta > 0) {
    if (abseta < 3.6)      eta = 3.36;
    else if (abseta < 4.0) eta = 3.45;
    else if (abseta < 4.5) eta = 4.17;
    else                   eta = 4.19;    
  }
  else {
    if (abseta < 3.6)      eta = -3.45;
    else if (abseta < 4.0) eta = -3.36;
    else if (abseta < 4.5) eta = -4.19;
    else                   eta = -4.17;    
  }
  return eta;
} 
 
double L1TriggerTowerToolRun3::FCalTTeta(const L1CaloCoolChannelId& channelId)
{
  if ( !m_mappingTool.isValid() ) {
    throw GaudiException("No mapping tool configured",
                         "L1TriggerTowerToolRun3::FCalTTeta", StatusCode::FAILURE);
  }
 
  unsigned int crate   = channelId.crate();
  unsigned int module  = channelId.module();
  unsigned int mcm     = channelId.subModule();
  unsigned int pin     = channelId.channel();
  int channel = pin*16 + mcm;
 
  double eta;
  double phi;
  int layer;
  if(!m_mappingTool->mapping(crate, module, channel, eta, phi, layer)) {
    ATH_MSG_WARNING("::FCalTTeta: could not map 0x" << std::hex << channelId.id() << std::dec);
  }
 
  return FCalTTeta(eta, phi, layer);
}
 
 
 
std::pair<double, double> L1TriggerTowerToolRun3::refValues(const L1CaloCoolChannelId& channelId)
{
  //method returning the fine time reference and calibration value
  //the fineTimeReference folder has to be loaded first using the method L1TriggerTowerToolRun3::loadFTRefs
  double reference = 0;
  double calib = 0;
  SG::ReadCondHandle<L1CaloPpmFineTimeRefsContainer> ppmFineTimeRefs( m_ppmFineTimeRefsContainer);
  
  if (!m_ppmFineTimeRefsContainer.empty()) {
    const L1CaloPpmFineTimeRefs* ftref = ppmFineTimeRefs->ppmFineTimeRefs(channelId.id());
    if (ftref) {
      FineTimeErrorCode errorCode(ftref->errorCode());
//        if (errorCode.chanValid()) { //this should be changed at some point, at the moment the error code is ignored
      reference = ftref->refValue();
      calib = ftref->calibValue();
//        }
      
      ATH_MSG_VERBOSE( MSG::hex
              << "::refValues: errorCode: " << (ftref->errorCode()).errorCode()
             << MSG::dec << "  reference: " << ftref->refValue() << "  calib: "  << ftref->calibValue() );
  
    } else {
      ATH_MSG_VERBOSE( "::refValue: No FineTimeRefsTowers found" );
    }
  } else {
    ATH_MSG_VERBOSE( "::refValue: No FineTimeRefs Container retrieved" );
  }
  
  return std::make_pair(reference, calib);
}
 
void L1TriggerTowerToolRun3::pedestalCorrection(std::vector<int>& firInOut, int firPed, int iElement, int layer, int bcid, float mu, std::vector<int_least16_t>& correctionOut) {
  unsigned nFIR = firInOut.size();
  correctionOut.assign(nFIR, 0u);
 
  if(!m_correctFir) return;
 
  // apply the pedestal correction
  for(unsigned i = 0; i != nFIR; ++i) {
    correctionOut[i] = (m_dynamicPedestalProvider->dynamicPedestal(iElement, layer, firPed, bcid + i - nFIR/2, mu) - firPed);
    firInOut[i] -= correctionOut[i];
 
    if(firInOut[i] < 0) firInOut[i] = 0;
  }
 
  ATH_MSG_DEBUG( "::pedestalCorrection(BCID=" << bcid << ", mu = " << mu << "): " << correctionOut);
 
} 
 
bool L1TriggerTowerToolRun3::isRun2() const
{
  const EventContext& ctx = Gaudi::Hive::currentContext();
  if (ctx.eventID().run_number() >= 253377) return true;
 
  SG::ReadHandle<xAOD::EventInfo> eventInfo (m_eventInfoKey, ctx);
  if (eventInfo->eventType (xAOD::EventInfo::IS_SIMULATION)) return true;
  return false;
}
 
 
 
const TrigConf::L1Menu* L1TriggerTowerToolRun3::getL1Menu(const EventContext& ctx) const {
  const TrigConf::L1Menu* menu = nullptr;
 
  StatusCode sc =   m_configSvc.retrieve();
  if (sc.isFailure()) {
    ATH_MSG_WARNING( "Cannot retrieve trigger configuration service" );
  } 
  
  if (detStore()->contains<TrigConf::L1Menu>(m_L1MenuKey.key())) {
    SG::ReadHandle<TrigConf::L1Menu>  l1MenuHandle = SG::makeHandle( m_L1MenuKey, ctx );
    if( l1MenuHandle.isValid() ){
      menu=l1MenuHandle.cptr();
    }
  } else {
    menu = &(m_configSvc->l1Menu(ctx)); 
  }
 
  return menu;
}
 
 
 
} // end of namespace