MdcConverter Class Reference

#include <MdcConverter.h>

Public Member Functions
void	init (const SniperJSON &config)
void	setRunId (int runId)
StatusCode	convert (const BufferHolder &src, MdcDigiCol *des)
StatusCode	convert (MdcDigiCol *src, WriteRawEvent *&des)

Static Public Member Functions
static MdcConverter *	instance (int runMode=2)
static void	destroy ()

Detailed Description

Definition at line 11 of file MdcConverter.h.

Member Function Documentation

convert() [1/2]

StatusCode MdcConverter::convert	(	const BufferHolder &	src,
		MdcDigiCol *	des )

Definition at line 41 of file MdcConverter.cxx.

{
   //int digiId = 0;
   uint32_t TEId, REId, TEData, TEOverflow, TETorQ;
 
   typedef pair<uint32_t, uint32_t> PairII;
   vector<uint32_t>  vHits;
   vector<PairII>    vmTDC;
 
   uint32_t* curTag;
   ////////////////////////////////////
 
   uint32_t nbuf = src.nBuf();
 
   for (uint32_t i = 0; i < nbuf; ++i)
   {
      uint32_t* buf = src(i);
      uint32_t* bufend= buf + src.bufSize(i);
      for ( ; buf < bufend; ++buf /*, ++digiId*/)
      {
     uint32_t digi = *buf;
     if (((digi>>18) & 0x3FFF) == 0) {
        //digiId--;
        continue;
     }
 
     m_builder.unPack(digi, REId, TEData, TEOverflow, TETorQ);
 
     TEId = m_builder.getTEID( REId );
     if ( TEId == 0xFFFFFFFF ) continue;
 
     curTag = m_mdcTag[REId];
 
     if ( curTag[0] == 0 ) {  //1st signal from detector-unit-REId
        curTag[1] = 0x7FFFFFFF;
        curTag[2] = 0x7FFFFFFF;
        curTag[3] = 0;
 
            //uint32_t oTEId = TEId;
 
            for ( std::vector<IdFixRule>::iterator it = m_idFixRules.begin(); it != m_idFixRules.end(); ++it ) {
                IdFixRule& rule = (*it);
                if ( m_runId >= rule.run_from && m_runId <= rule.run_to ) {
                    if ((TEId&rule.mask) == rule.value1) {
                        TEId = (TEId&rule.reverse_mask) | rule.value2;
                        curTag[3] |= 0x10;
                    }
                    else if ((TEId&rule.mask) == rule.value2) {
                        TEId = (TEId&rule.reverse_mask) | rule.value1;
                        curTag[3] |= 0x10;
                    }
                }
            }
 
            //if ( curTag[3] != 0 ) {
            //    std::cout << "  From TEId 0x" << std::hex << oTEId << std::dec 
            //              << "  : " << MdcID::layer(Identifier(oTEId)) << "  " << MdcID::wire(Identifier(oTEId))
            //              << std::endl;
            //    std::cout << "  To   TEId 0x" << std::hex << TEId << std::dec 
            //              << "  : " << MdcID::layer(Identifier(TEId)) << "  " << MdcID::wire(Identifier(TEId))
            //              << std::endl;
            //}
 
        curTag[0] = (TEId << 2);
 
        vHits.push_back( REId );
     }
 
     if ( TETorQ == 0 ) {  //T
        if ( (curTag[0]&1) == 0 ) {  //1st-found-T
           curTag[0] |= 1;
           curTag[1] = TEData;
           curTag[3] |= TEOverflow;  //0 or 1
        }
        else {  //multi-T
           curTag[3] |= 0xC;  //12, set the multi-T and 1st-T bits
           if ( TEData >= curTag[1] ) {
          if ( TEOverflow ) TEData |= (1<<31);  //LastBit
          vmTDC.push_back( make_pair(REId, TEData) );
           }
           else {
          if ( curTag[3] & 1 ) curTag[1] |= (1<<31);
          vmTDC.push_back( make_pair(REId, curTag[1]) );
          curTag[1] = TEData;
          curTag[3] &= (0xFFFFFFFF-1);
          curTag[3] |= TEOverflow;
           }
        }
     }
     else {  //Q
        curTag[0] |= 2;
        curTag[2] = TEData;
        if ( TEOverflow ) curTag[3] |= 2;
     }
      }
   }
 
   MdcDigi* mdcDigi;
   if ( m_runMode == 1 ) {  //OnlineMode, discard the hits that only have T or Q
      for ( vector<PairII>::iterator it = vmTDC.begin(); it != vmTDC.end(); ++it ) {
     curTag   = m_mdcTag[it->first];
     if ( (curTag[0]&3) == 3 ) {
        uint32_t  data  = it->second;
        if(data>>31) continue;
        mdcDigi = new MdcDigi(Identifier(curTag[0]>>2), (data&0x7FFFFFFF), curTag[2]);
        mdcDigi->setOverflow( (curTag[3] & 0x16) | (data>>31) );
        des->push_back(mdcDigi);
     }
      }
 
      for ( vector<uint32_t>::iterator it = vHits.begin(); it != vHits.end(); ++it) {
     curTag   = m_mdcTag[*it];
     if ( (curTag[0]&3) == 3 ) {
        if( ((curTag[3]&3)>0) || (((curTag[3]&12)!=12) && ((curTag[3]&12)!=0)) ) {
           curTag[0] = 0;
           continue; 
        }
        mdcDigi = new MdcDigi(Identifier(curTag[0]>>2), curTag[1], curTag[2]);
        mdcDigi->setOverflow(curTag[3]);
        des->push_back(mdcDigi);
     }
     curTag[0] = 0;
      }
   }
   else {  //Not OnlineMode, keep all the hits found
      for ( vector<PairII>::iterator it = vmTDC.begin(); it != vmTDC.end(); ++it ) {
     curTag   = m_mdcTag[it->first];
     uint32_t  data     = it->second;
     mdcDigi = new MdcDigi(Identifier(curTag[0]>>2), (data&0x7FFFFFFF), curTag[2]);
     mdcDigi->setOverflow( (curTag[3] & 0x16) | (data>>31) );
     des->push_back(mdcDigi);
      }
 
      for ( vector<uint32_t>::iterator it = vHits.begin(); it != vHits.end(); ++it) {
     curTag   = m_mdcTag[*it];
     mdcDigi = new MdcDigi(Identifier(curTag[0]>>2), curTag[1], curTag[2]);
     mdcDigi->setOverflow(curTag[3]);
     des->push_back(mdcDigi);
     curTag[0] = 0;
      }
   }
 
   ////////////////////////////////////
   return StatusCode::SUCCESS;
}

Referenced by RawDataMdcDigiCnv::createObj(), RawDataMdcDigiCnv::createRep(), MixerAlg::decodeMdc(), and RawEventReader::execute().

convert() [2/2]

StatusCode MdcConverter::convert	(	MdcDigiCol *	src,
		WriteRawEvent *&	des )

Definition at line 187 of file MdcConverter.cxx.

{
   return m_builder.pack(src, des);
}

destroy()

void MdcConverter::destroy ( )

static

Definition at line 16 of file MdcConverter.cxx.

{
   if ( s_instance != 0 ) {
      delete s_instance;
      s_instance = 0;
   }
}

Referenced by RawDataMdcDigiCnv::~RawDataMdcDigiCnv(), and RawEventReader::~RawEventReader().

init()

void MdcConverter::init

(

const SniperJSON &

config

)

Definition at line 24 of file MdcConverter.cxx.

{
   for ( SniperJSON::vec_iterator it = config.vec_begin(); it != config.vec_end(); ++it )
   {
       IdFixRule rule;
       rule.run_from   = (*it)["RunFrom"].get<int>();
       rule.run_to     = (*it)["RunTo"].get<int>();
       rule.mask       = (*it)["Mask"].get<uint32_t>();
       rule.reverse_mask = ~rule.mask;
       rule.value1     = (*it)["Value1"].get<uint32_t>();
       rule.value2     = (*it)["Value2"].get<uint32_t>();
       m_idFixRules.push_back(rule);
   }
 
   memset((void*)m_mdcTag, 0, 16384*4*4);
}

Referenced by MixerAlg::initialize(), RawDataMdcDigiCnv::initialize(), and RawEventReader::initialize().

instance()

MdcConverter * MdcConverter::instance ( int runMode = 2 )

static

Definition at line 7 of file MdcConverter.cxx.

{
   if ( s_instance == 0 ) {
      s_instance = new MdcConverter(runMode);
   }
 
   return s_instance;
}

Referenced by RawDataMdcDigiCnv::initialize(), MixerAlg::MixerAlg(), and RawEventReader::RawEventReader().

setRunId()

void MdcConverter::setRunId ( int runId )

inline

Definition at line 21 of file MdcConverter.h.

{ m_runId = runId; }

Referenced by RawDataMdcDigiCnv::createObj(), and MixerAlg::execute().

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The documentation for this class was generated from the following files:

• MdcConverter.h
• MdcConverter.cxx