Lvl1MuCTPIInput.cxx

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/*
  Copyright (C) 2002-2020 CERN for the benefit of the ATLAS collaboration
*/
 
#include <iostream>
#include <iomanip>
 
#include "TrigT1Interfaces/Lvl1MuCTPIInput.h"
 
namespace LVL1MUONIF {
 
  Lvl1MuCTPIInput::Lvl1MuCTPIInput() {
    m_isFilledOutOfTimeCandidates.fill(false);
  }

  Lvl1MuCTPIInput::Lvl1MuCTPIInput( const Lvl1MuCTPIInput& right ) {
    *this = right;
  }
 

 
  Lvl1MuCTPIInput& Lvl1MuCTPIInput::operator=( const Lvl1MuCTPIInput& right ) {
    if ( this != &right ) {
      clearAll();
      for (size_t idSys=0; idSys<NumberOfMuonSystem; idSys++){
    for( size_t ip=0; ip<right.m_data[idSys].size(); ip++){
      int bc=((right.m_data[idSys]).at(ip)).first;
      Lvl1MuVect vSL(((right.m_data[idSys]).at(ip)).second);
      m_data[idSys].emplace_back(bc,std::move(vSL));
    }
    m_isFilledOutOfTimeCandidates[idSys] = right.m_isFilledOutOfTimeCandidates[idSys];
      } 
    }  
    return *this;
  }
 
 

  const Lvl1MuSectorLogicData& Lvl1MuCTPIInput::getSectorLogicData( size_t systemAddress,
                                    size_t subSystemAddress,
                                    size_t sectorAddress,
                                    int    bcid             ) const {
 
    static const Lvl1MuBarrelSectorLogicData dummy;
    for( size_t ip=0; ip<m_data[systemAddress].size(); ip++){
      int bc=((m_data[systemAddress]).at(ip)).first;
      if (bc != bcid) continue;
      const Lvl1MuVect &vecSL( ((m_data[systemAddress]).at(ip)).second);
      return *(vecSL.at(getSystemIndex(systemAddress,subSystemAddress,sectorAddress)));
    }
    return dummy;
  }

  void Lvl1MuCTPIInput::setSectorLogicData( const Lvl1MuSectorLogicData& data,
                        size_t systemAddress,
                        size_t subSystemAddress,
                        size_t sectorAddress,
                        int    bcid             ) {
    size_t ip=0;
    if (isEmpty(systemAddress,bcid)) {
      ip = reserve( systemAddress, bcid );
    } else {
      ip = getBcidIndex( systemAddress, bcid );
    }
 
    const Lvl1MuVect &vecSL((((m_data[systemAddress]).at(ip)).second));
    size_t idx= getSystemIndex(systemAddress,subSystemAddress,sectorAddress);
    if ( systemAddress == Barrel ) {
      *static_cast<Lvl1MuBarrelSectorLogicData*>(vecSL.at(idx).get()) = data;
    } else if ( systemAddress == Endcap ) {
      *static_cast<Lvl1MuEndcapSectorLogicData*>(vecSL.at(idx).get())= data;
    } else if ( systemAddress == Forward ) {
      *static_cast<Lvl1MuForwardSectorLogicData*>(vecSL.at(idx).get())= data;
    }
  }

  void Lvl1MuCTPIInput::setSectorLogicData( const unsigned int & sectorWord,
                        size_t systemAddress,
                        size_t subSystemAddress,
                        size_t sectorAddress,
                        int    bcid              )  {
    // convert to SectorLogicData
    Lvl1MuSectorLogicData * pData;
    if ( systemAddress == Barrel ) {
      pData = new Lvl1MuBarrelSectorLogicData();
    } else if ( systemAddress == Endcap ) {
      pData = new Lvl1MuEndcapSectorLogicData();
    } else if ( systemAddress == Forward ) {
      pData = new Lvl1MuForwardSectorLogicData();
    } else {
      return ;
    }
    pData->convertFromWordFormat( sectorWord );
    setSectorLogicData( *pData, systemAddress, subSystemAddress, sectorAddress, bcid );
    delete pData;
  }

  void Lvl1MuCTPIInput::merge( const Lvl1MuCTPIInput& right ) {
    if ( this == &right ) return;
    
    for (size_t idSys=0; idSys<NumberOfMuonSystem; idSys++){
      for( size_t ip=0; ip<right.m_data[idSys].size(); ip++){
    int bc=((right.m_data[idSys]).at(ip)).first;
    if (isEmpty( idSys, bc)){
      Lvl1MuVect vSL(((right.m_data[idSys]).at(ip)).second);
      m_data[idSys].emplace_back(bc,std::move(vSL));
      m_isFilledOutOfTimeCandidates[idSys] = right.m_isFilledOutOfTimeCandidates[idSys];
    }
      } 
    }  
 
  }

  size_t Lvl1MuCTPIInput::reserve( size_t systemAddress ,
                   int    bcid)          {
    
    Lvl1MuVect vecSL;
    
    if ( systemAddress == Barrel ) {
      vecSL.reserve(NumberOfBarrelSector*NumberOfMuonSubSystem);
      for ( size_t id = 0; id < NumberOfBarrelSector*NumberOfMuonSubSystem; id++ ) {
    vecSL.emplace_back(std::make_shared<Lvl1MuBarrelSectorLogicData>());
      }
 
    } else if ( systemAddress == Endcap ) {
      vecSL.reserve(NumberOfEndcapSector*NumberOfMuonSubSystem);
      for ( size_t id = 0; id < NumberOfEndcapSector*NumberOfMuonSubSystem; id++ ) {
    vecSL.emplace_back(std::make_shared<Lvl1MuEndcapSectorLogicData>());
      }
 
    } else if ( systemAddress == Forward ) {
      vecSL.reserve(NumberOfForwardSector*NumberOfMuonSubSystem);
      for ( size_t id = 0; id < NumberOfForwardSector*NumberOfMuonSubSystem; id++ ) {
    vecSL.emplace_back(std::make_shared<Lvl1MuForwardSectorLogicData>());
      }
    }
 
    size_t ip = m_data[systemAddress].size();
    m_data[systemAddress].emplace_back( bcid, std::move(vecSL) );
 
    if (bcid!=0) m_isFilledOutOfTimeCandidates[systemAddress] = true; 
 
    return ip;
  }

  bool Lvl1MuCTPIInput::isEmpty( size_t systemAddress,
                 int    bcid           ) const {
    for( size_t ip=0; ip<m_data[systemAddress].size(); ip++){
      int bc=((m_data[systemAddress]).at(ip)).first;
      if (bc == bcid) return false;
    }
    return true;
  }

  bool Lvl1MuCTPIInput::isEmptyAll(int bcid) const {
    if ( isEmpty(Barrel,bcid) && isEmpty(Endcap,bcid) && isEmpty(Forward,bcid) ) {
    return true;
      } else {
    return false;
      }
  }

  void Lvl1MuCTPIInput::clear( size_t systemAddress ) {
    std::cout << "TW: SysAd: in " << systemAddress << "  size: " << m_data[systemAddress].size()  << std::endl;
    m_data[systemAddress].clear();
  }

  void Lvl1MuCTPIInput::clearAll() {
    for ( size_t id = 0; id < NumberOfMuonSystem; id++ ) {
      m_data[ id ].clear();
    }
 
 
  }

  // void Lvl1MuCTPIInput::duplicateToOtherBC(int bcidOffset) {
 
  //   std::cout << "I am faking candidates for testing - do you really want that??" << std::endl;
 
  //   std::vector<Lvl1MuVectWithBC> dataCopy[ NumberOfMuonSystem ];
 
  //   for ( size_t id = 0; id < NumberOfMuonSystem; id++ ) {
  //     dataCopy[ id ] = m_data[ id ];
  //   }
 
  //   for (std::vector<Lvl1MuVectWithBC>::iterator itb = dataCopy[Barrel].begin(); itb !=dataCopy[Barrel].end(); ++itb){
  //     (*itb).first =bcidOffset ;
  //   }
  //   std::vector<Lvl1MuVectWithBC>::iterator itb = m_data[Barrel].end();
  //   m_data[Barrel].insert(itb, dataCopy[Barrel].begin(), dataCopy[Barrel].end());
 
  //   for (std::vector<Lvl1MuVectWithBC>::iterator ite = dataCopy[Endcap].begin(); ite !=dataCopy[Endcap].end(); ++ite){
  //     (*ite).first =bcidOffset ;
  //   }
  //   std::vector<Lvl1MuVectWithBC>::iterator ite = m_data[Endcap].end();
  //   m_data[Endcap].insert(ite, dataCopy[Endcap].begin(), dataCopy[Endcap].end());
 
  //   for (std::vector<Lvl1MuVectWithBC>::iterator itf = dataCopy[Forward].begin(); itf !=dataCopy[Forward].end(); ++itf){
  //     (*itf).first =bcidOffset ;
  //   }
  //   std::vector<Lvl1MuVectWithBC>::iterator itf = m_data[Forward].end();
  //   m_data[Forward].insert(itf, dataCopy[Forward].begin(), dataCopy[Forward].end());
  // }
 
 
  std::ostream& operator<<( std::ostream& out, const Lvl1MuCTPIInput& right ) {
 
    size_t systemAddress;
    size_t subSystemAddress;
    size_t side, id;
 
    out << "--------- Barrel Sector ---------------------------" << std::endl;
    systemAddress = right.idBarrelSystem();
    for ( side = 0; side < right.NumberOfMuonSubSystem; ++side ) {
      if ( side == 0 ) {
        out << "   ------ A Side (Z>0)  ---------------------------" << std::endl;
        subSystemAddress = right.idSideA();
      } else {
        out << "   ------ C Side (Z<0)  ---------------------------" << std::endl;
        subSystemAddress = right.idSideC();
      }
      for ( id = 0; id < right.numberOfBarrelSector() ;++id ) {
        out << "      --- Sector ID  :  " << id << "   ----------" << std::endl;
    for( size_t ip=0; ip < right.m_data[systemAddress].size(); ip++){
      int bc=((right.m_data[systemAddress]).at(ip)).first;
      out << right.getSectorLogicData( systemAddress, subSystemAddress, id, bc );
      out << " BC: " << bc;
      out << std::endl;
    }
      }
    }
 
    out << "--------- Endcap Sector ---------------------------" << std::endl;
    systemAddress = right.idEndcapSystem();
    for ( side = 0; side < right.NumberOfMuonSubSystem; ++side ) {
      if ( side == 0 ) {
        out << "   ------ A Side (Z>0)  ---------------------------" << std::endl;
        subSystemAddress = right.idSideA();
      } else {
        out << "   ------ C Side (Z<0)  ---------------------------" << std::endl;
        subSystemAddress = right.idSideC();
      }
      for ( id = 0; id < right.numberOfEndcapSector() ;++id ) {
        out << "      --- Sector ID  :  " << id << "   ----------" << std::endl;
    for( size_t ip=0; ip < right.m_data[systemAddress].size(); ip++){
      int bc=((right.m_data[systemAddress]).at(ip)).first;
      out << right.getSectorLogicData( systemAddress, subSystemAddress, id, bc );
      out << " BC: " << bc;
      out << std::endl;
    }
      }
    }
 
    out << "--------- Forward Sector ---------------------------" << std::endl;
    systemAddress = right.idForwardSystem();
    for ( side = 0; side < right.NumberOfMuonSubSystem; ++side ) {
      if ( side == 0 ) {
        out << "   ------ A Side (Z>0)  ---------------------------" << std::endl;
        subSystemAddress = right.idSideA();
      } else {
        out << "   ------ C Side (Z<0)  ---------------------------" << std::endl;
        subSystemAddress = right.idSideC();
      }
      for ( id = 0; id < right.numberOfForwardSector() ;++id ) {
        out << "      --- Sector ID  :  " << id << "   ----------" << std::endl;
    for( size_t ip=0; ip < right.m_data[systemAddress].size(); ip++){
      int bc=((right.m_data[systemAddress]).at(ip)).first;
      out << right.getSectorLogicData( systemAddress, subSystemAddress, id, bc );
      out << " BC: " << bc;
      out << std::endl;
    }
      }
    }
 
    return out;
  }
}