ByteStream converter for the CTP_RDO object. More...

#include <CTPByteStreamCnv.h>

Inheritance diagram for CTPByteStreamCnv:

Collaboration diagram for CTPByteStreamCnv:

Public Member Functions
	CTPByteStreamCnv (ISvcLocator *svcloc)
	Standard constructor.
virtual StatusCode	initialize () override
	Function connecting to all the needed services/tools.
virtual StatusCode	createObj (IOpaqueAddress pAddr, DataObject &pObj) override
	Function creating the CTP_RDO object from a CTP ROB fragment.
virtual StatusCode	createRep (DataObject pObj, IOpaqueAddress &pAddr) override
	Function creating the CTP ROB fragment from a CTP_RDO object.
virtual long	repSvcType () const override
	Function needed by the framework.
void	addTrack (TIDA::Track *t)
const std::vector< TIDA::Track * > &	tracks () const
void	clear ()
void	selectTracks (const TrigInDetTrackCollection *trigtracks)
void	selectTracks (const Rec::TrackParticleContainer *trigtracks)
void	selectTracks (const Analysis::MuonContainer *muontracks)

Static Public Member Functions
static long	storageType ()
	Function needed by the framework.
static const CLID &	classID ()
	Function needed by the framework.

Protected Member Functions
double	phiCorr (double phi)
void	ipCorr (double d0, double z0, double &d0c, double &z0c, double phi0, double eta, double pt)

Protected Attributes
double	m_beamX
double	m_beamY
double	m_beamZ
std::vector< TIDA::Track * >	m_tracks

Private Attributes
ToolHandle< CTPByteStreamTool >	m_tool
	Tool doing the actual conversion.
CTPSrcIdMap	m_srcIdMap
	Object storing the various IDs of the CTP fragment.
ServiceHandle< IROBDataProviderSvc >	m_robDataProvider
	Service used when reading the BS data.
ServiceHandle< IByteStreamEventAccess >	m_ByteStreamEventAccess
	Service used when writing the BS data.

Detailed Description

ByteStream converter for the CTP_RDO object.

   This is a quite standard BS converter for the output sent from the
   Central Trigger Processor to the DAQ. It uses an external tool
   (CTPByteStreamTool) to do the actual work of the conversion, this
   converter is "only" supposed to communicate with the framework.

See also: CTPByteStreamTool

Author: David Berge

Definition at line 35 of file CTPByteStreamCnv.h.

Constructor & Destructor Documentation

◆ CTPByteStreamCnv()

CTPByteStreamCnv::CTPByteStreamCnv ( ISvcLocator * svcloc )

Standard constructor.

The constructor sets up all the ToolHandle and ServiceHandle objects and initialises the base class in the correct way.

Definition at line 24 of file CTPByteStreamCnv.cxx.

  : Converter( storageType(), classID(), svcloc ),
    m_tool( "CTPByteStreamTool" ),
    m_robDataProvider( "ROBDataProviderSvc", "CTPByteStreamCnv" ),
    m_ByteStreamEventAccess( "ByteStreamCnvSvc", "CTPByteStreamCnv" ) {
 
}

Member Function Documentation

◆ addTrack()

void Converter::addTrack ( TIDA::Track * t )

inlineinherited

Definition at line 45 of file Converter.h.

                              {
    m_tracks.push_back(t);
  }

◆ classID()

const CLID & CTPByteStreamCnv::classID ( )

static

Function needed by the framework.

Function telling the framework the Class ID of the object that this converter is for (CTP_RDO).

Definition at line 36 of file CTPByteStreamCnv.cxx.

                                      {
 
  return ClassID_traits< CTP_RDO >::ID();
 
}

◆ clear()

void Converter::clear ( )

inlineinherited

Definition at line 53 of file Converter.h.

53{m_tracks.clear();}

◆ createObj()

StatusCode CTPByteStreamCnv::createObj	(	IOpaqueAddress *	pAddr,
		DataObject *&	pObj )

overridevirtual

Function creating the CTP_RDO object from a CTP ROB fragment.

This function creates the CTP_RDO object from the BS data.

It requests the ROB fragment with the ROB Id of the CTP and gives this fragment to the CTPByteStreamTool for conversion.

Definition at line 89 of file CTPByteStreamCnv.cxx.

                                                                                 {
 
  MsgStream log( msgSvc(), "CTPByteStreamCnv" );
  log << MSG::DEBUG << "createObj() called" << endmsg;
 
  ByteStreamAddress *pBS_Addr;
  pBS_Addr = dynamic_cast< ByteStreamAddress* >( pAddr );
  if( ! pBS_Addr ) {
    log << MSG::ERROR << "Can not cast input to ByteStreamAddress" << endmsg ;
    return StatusCode::FAILURE;
  }
 
  log << MSG::DEBUG << "Creating Objects: " << *( pBS_Addr->par() ) << endmsg;
 
  //
  // Get the SourceID:
  //
  const uint32_t robId = m_srcIdMap.getRobID( m_srcIdMap.getRodID() );
 
  log << MSG::DEBUG << "expected ROB sub-detector ID: " << std::hex 
      << robId << std::dec << endmsg;  
 
  std::vector< uint32_t > vID;
  vID.push_back( robId );
 
  //
  // Get the ROB fragment:
  //
  IROBDataProviderSvc::VROBFRAG robFrags;
  m_robDataProvider->getROBData( Gaudi::Hive::currentContext(), vID, robFrags );
 
  //
  // Size check:
  //
  if( robFrags.size() != 1 ) {
    log << MSG::WARNING << "Number of ROB fragments is " << robFrags.size() << endmsg;
    log << MSG::WARNING << "Creating empty CTP_RDO object" << endmsg;
 
    CTP_RDO* result = new CTP_RDO(3,0,0);
    pObj = SG::asStorable( result );
    return StatusCode::SUCCESS;
  }
 
  //
  // Do the actual conversion:
  //
  IROBDataProviderSvc::VROBFRAG::const_iterator it = robFrags.begin();
  CTP_RDO* result = 0;
 
  ATH_CHECK(  m_tool->convert( ROBData( *it ).getROBFragment(), result ) );
  pObj = SG::asStorable( result ) ;
 
  return StatusCode::SUCCESS;
}

◆ createRep()

StatusCode CTPByteStreamCnv::createRep	(	DataObject *	pObj,
		IOpaqueAddress *&	pAddr )

overridevirtual

Function creating the CTP ROB fragment from a CTP_RDO object.

This function receives a CTP_RDO object as input, and adds the ROB fragment of the CTP to the current raw event using the IByteStreamEventAccess interface.

Definition at line 149 of file CTPByteStreamCnv.cxx.

                                                                                 {
 
  MsgStream log( msgSvc(), "CTPByteStreamCnv" );
  log << MSG::DEBUG << "createRep() called" << endmsg;
 
  RawEventWrite* re = m_ByteStreamEventAccess->getRawEvent();
 
  CTP_RDO* result;
  if( ! SG::fromStorable( pObj, result ) ) {
    log << MSG::ERROR << " Cannot cast to CTP_RDO" << endmsg;
    return StatusCode::FAILURE;
  }
 
  ByteStreamAddress* addr = new ByteStreamAddress( classID(), pObj->registry()->name(), "" );
 
  pAddr = addr;
 
  // Convert to ByteStream
  return m_tool->convert( result, re );
}

◆ initialize()

StatusCode CTPByteStreamCnv::initialize ( )

overridevirtual

Function connecting to all the needed services/tools.

Init method gets all necessary services etc.

Definition at line 49 of file CTPByteStreamCnv.cxx.

                                        {
 
  //
  // Initialise the base class:
  //
  ATH_CHECK(  Converter::initialize() );
 
  MsgStream log( msgSvc(), "CTPByteStreamCnv" );
  log << MSG::DEBUG << "CTPByteStreamCnv in initialize() " << endmsg;
 
  //
  // Get ByteStreamCnvSvc:
  //
  ATH_CHECK(  m_ByteStreamEventAccess.retrieve() );
  log << MSG::DEBUG << "Connected to ByteStreamEventAccess interface" << endmsg;
 
  //
  // Get CTPByteStreamTool:
  //
  ATH_CHECK( m_tool.retrieve() );
  log << MSG::DEBUG << "Connected to CTPByteStreamTool" << endmsg;
 
  //
  // Get ROBDataProvider:
  //
  if( m_robDataProvider.retrieve().isFailure() ) {
    log << MSG::WARNING << "Can't get ROBDataProviderSvc" << endmsg;
    // return is disabled for Write BS which does not requre ROBDataProviderSvc
  } else {
    log << MSG::DEBUG << "Connected to ROBDataProviderSvc" << endmsg;
  }
 
  return StatusCode::SUCCESS;
}

◆ ipCorr()

void Converter::ipCorr	(	double	d0,
		double	z0,
		double &	d0c,
		double &	z0c,
		double	phi0,
		double	eta,
		double	pt )

inlineprotectedinherited

Definition at line 257 of file Converter.h.

                                                                                                  {
    
    double sn  = sin(phi0);
    double cs  = cos(phi0);
    double sd0 = (d0 != 0 ? d0/fabs(d0) : 1);
    double spt = (pt != 0 ? pt/fabs(pt) : 1);
    
    if (fabs(pt) >= 1*CLHEP::TeV) {
 
      d0c = d0 + m_beamX*sn - m_beamY*cs;
 
    } else {
      
      double rc = fabs(pt)*15.0/(9.0*1.042);
      
      double xc = (fabs(d0)-spt*sd0*rc)*cos(phi0+M_PI/2*sd0) - m_beamX;
      double yc = (fabs(d0)-spt*sd0*rc)*sin(phi0+M_PI/2*sd0) - m_beamY;
      
      double newphi;
      double xd01,yd01,xd02,yd02;
      
      if (xc == 0) {
    xd01 = 0; yd01 = rc+yc;
    xd02 = 0; yd02 = -rc+yc; 
      } else {
    xd01 = xc+yc/xc*yc+sqrt(pow((xc+yc/xc*yc),2)-xc*xc-yc*yc+rc*rc); yd01 = yc/xc*xd01;
    xd02 = xc+yc/xc*yc-sqrt(pow((xc+yc/xc*yc),2)-xc*xc-yc*yc+rc*rc); yd02 = yc/xc*xd02;
      }
      
      double r1 = sqrt(xd01*xd01+yd01*yd01);
      double r2 = sqrt(xd02*xd02+yd02*yd02);
      
      double phiV;
      
      if (r1 < r2)
    phiV = atan2(yd01,xd01); 
      else
    phiV = atan2(yd02,xd02); 
      
      double phi1 = phiCorr(phiV+M_PI/2);
      double phi2 = phiCorr(phiV-M_PI/2);
      
      if (fabs(phiCorr(phi1-phi0))<=fabs(phiCorr(phi2-phi0)))
    newphi = phi1;
      else
    newphi = phi2;
      
      d0c = fabs(sqrt(xc*xc+yc*yc)-rc)*sin(phiV-newphi);
      
      double theta=2*atan2(exp(-eta),1);
      double theta_save=theta;
      theta = theta - (1+spt)/2*M_PI;
      if (theta>0) theta = theta_save;
      
      double deltaz0= -spt*rc/tan(theta)*phiCorr(phiCorr(newphi)-phiCorr(phi0));
      z0c = z0 + deltaz0;
      
    }
  }

◆ phiCorr()

double Converter::phiCorr ( double phi )

inlineprotectedinherited

Definition at line 248 of file Converter.h.

                            {
    
    if (phi < -TMath::Pi()) phi += 2*TMath::Pi();
    if (phi >  TMath::Pi()) phi -= 2*TMath::Pi();
    
    return phi;
  }

◆ repSvcType()

virtual long CTPByteStreamCnv::repSvcType ( ) const

inlineoverridevirtual

Function needed by the framework.

Definition at line 49 of file CTPByteStreamCnv.h.

49{ return i_repSvcType(); }

◆ selectTracks() [1/3]

void Converter::selectTracks ( const Analysis::MuonContainer * muontracks )

inlineinherited

Definition at line 177 of file Converter.h.

                                                               {
    
    static int hpmap[20] = { 0, 1, 2,  7, 8, 9,  3, 4, 5, 6, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19 };
    
    Analysis::MuonContainer::const_iterator muonitr = muontracks->begin();
    Analysis::MuonContainer::const_iterator muonend = muontracks->end();
    
    while(muonitr!=muonend) { 
      
      bool hasInDet = (*muonitr)->hasInDetTrackParticle();
      const Rec::TrackParticle *trackitr=NULL; 
      if(hasInDet) trackitr=(*muonitr)->inDetTrackParticle();
      muonitr++;
      if(!hasInDet) continue;
      
      const Trk::MeasuredPerigee* measPer = trackitr->measuredPerigee();
      
      CLHEP::HepVector perigeeParams = measPer->parameters();    
      double pT    = measPer->pT(); 
      double eta   = measPer->eta();
      double phi   = perigeeParams[Trk::phi0];
      double z0    = perigeeParams[Trk::z0];
      double d0    = perigeeParams[Trk::d0];
      //double theta = perigeeParams[Trk::theta];
      
      double deta = 1;
      double dphi = 1;
      double dz0  = 1;
      double dd0  = 1;
      double dpT  = 1;    
      
      // Check number of hits
      // NB: a spacepoint is two offline "hits", so a pixel spacepoint is really 
      // 2 "hits" and an offline SCT "hit" is really a 1D cluster, so two intersetcting
      // stereo clusters making a spacepoint are two "hits"
      const Trk::TrackSummary *summary = trackitr->trackSummary();
      int nBlayerHits = 2*summary->get(Trk::numberOfBLayerHits); 
      int nPixelHits  = 2*summary->get(Trk::numberOfPixelHits);  
      int nSctHits    = summary->get(Trk::numberOfSCTHits); 
      int nStrawHits  = summary->get(Trk::numberOfTRTHits);
      int nTrHits     = summary->get(Trk::numberOfTRTHighThresholdHits);
      
      int nSiHits     = nPixelHits + nSctHits;
      
      const Trk::FitQuality *quality   = trackitr->fitQuality();
      double chi2 = quality->chiSquared();
      double dof  = quality->quality->numberDoF();
 
      unsigned bitmap = 0;
      
      for ( int ih=0 ; ih<20 ; ih++ ) {
    if ( summary->isHit(Trk::DetectorType(ih)) ) bitmap |= ( 1<<hpmap[ih] );    
      }
      
      // Shift d0 and z0 according to beam position
      ipCorr(d0, z0, d0, z0, phi, eta, pT);
      
      // Create and save Track  
      TIDA::Track* t = new TIDA::Track(eta, phi, z0, d0, pT, chi2, dof,
                                 deta, dphi, dz0, dd0, dpT,
                                 nBlayerHits, nPixelHits, nSctHits, nSiHits,
                                 nStrawHits, nTrHits, bitmap, 0,
                                 -1) ;
      
      addTrack(t);
    }
    
  }

◆ selectTracks() [2/3]

void Converter::selectTracks ( const Rec::TrackParticleContainer * trigtracks )

inlineinherited

Definition at line 111 of file Converter.h.

                                                                   { 
    
    Rec::TrackParticleContainer::const_iterator  trackitr = trigtracks->begin();
    Rec::TrackParticleContainer::const_iterator  trackend = trigtracks->end();
    
    static int hpmap[20] = { 0, 1, 2,  7, 8, 9,  3, 4, 5, 6, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19 };
 
    while ( trackitr!=trackend ) { 
        
      const Trk::MeasuredPerigee* measPer = (*trackitr)->measuredPerigee();
 
      CLHEP::HepVector perigeeParams = measPer->parameters();    
      double pT    = measPer->pT(); 
      double eta   = measPer->eta();
      double phi   = perigeeParams[Trk::phi0];
      double z0    = perigeeParams[Trk::z0];
      double d0    = perigeeParams[Trk::d0];
      //double theta = perigeeParams[Trk::theta];
    
      double deta = 1;
      double dphi = 1;
      double dz0  = 1;
      double dd0  = 1;
      double dpT  = 1;    
 
      // Check number of hits
      // NB: a spacepoint is two offline "hits", so a pixel spacepoint is really 
      // 2 "hits" and an offline SCT "hit" is really a 1D cluster, so two intersetcting
      // stereo clusters making a spacepoint are two "hits"
      const Trk::TrackSummary *summary = (*trackitr)->trackSummary();
      int nBlayerHits = 2*summary->get(Trk::numberOfBLayerHits); 
      int nPixelHits  = 2*summary->get(Trk::numberOfPixelHits);  
      int nSctHits    = summary->get(Trk::numberOfSCTHits); 
      int nStrawHits  = summary->get(Trk::numberOfTRTHits);
      int nTrHits     = summary->get(Trk::numberOfTRTHighThresholdHits);
      int nSiHits     = nPixelHits + nSctHits;
      bool expectBL   = false; // Not stored for Rec::TrackParticle
 
      const Trk::FitQuality *quality   = (*trackitr)->fitQuality();
      double chi2 = quality->chiSquared();
      double dof  = quality->numberDoF();
 
      unsigned bitmap = 0;
      
      for ( int ih=0 ; ih<20 ; ih++ ) {
    if ( summary->isHit(Trk::DetectorType(ih)) ) bitmap |= ( 1<<hpmap[ih] );    
      }
 
      // Shift d0 and z0 according to beam position
      ipCorr(d0, z0, d0, z0, phi, eta, pT);
 
      // Create and save Track  
      TIDA::Track* t = new TIDA::Track(eta, phi, z0, d0, pT, chi2, dof, 
                                 deta, dphi, dz0, dd0, dpT,
                                 nBlayerHits, nPixelHits, nSctHits, nSiHits,
                                 nStrawHits, nTrHits, bitmap, 0,
                                 -1,
                                 expectBL) ;
  
      addTrack(t);
      trackitr++;
    }
    
  }

◆ selectTracks() [3/3]

void Converter::selectTracks ( const TrigInDetTrackCollection * trigtracks )

inlineinherited

Definition at line 56 of file Converter.h.

                                                                {
    
    TrigInDetTrackCollection::const_iterator  trackitr = trigtracks->begin();
    TrigInDetTrackCollection::const_iterator  trackend = trigtracks->end();
 
    while ( trackitr!=trackend ) { 
 
    double eta    = (*trackitr)->param()->eta();
    double phi    = (*trackitr)->param()->phi0();
    double z0     = (*trackitr)->param()->z0(); 
    double pT     = (*trackitr)->param()->pT(); 
    double d0     = (*trackitr)->param()->a0();
    //double theta  = 2*atan2(exp(-(*trackitr)->param()->eta()),1);
 
    double deta    = (*trackitr)->param()->eeta();
    double dphi    = (*trackitr)->param()->ephi0();
    double dz0     = (*trackitr)->param()->ez0(); 
    double dpT     = (*trackitr)->param()->epT(); 
    double dd0     = (*trackitr)->param()->ea0();
 
    int   algoid  = (*trackitr)->algorithmId();           
 
    int nBlayerHits = ((*trackitr)->HitPattern() & 0x1);
    int nPixelHits  = 2*(*trackitr)->NPixelSpacePoints();  // NB: for comparison with offline 
    int nSctHits    = 2*(*trackitr)->NSCT_SpacePoints();   //     a spacepoint is 2 "hits"
    int nStrawHits  = (*trackitr)->NStrawHits();
    int nTrHits     = (*trackitr)->NTRHits();
               
    int nSiHits     = nPixelHits + nSctHits;
    bool expectBL   = false;                               //not available with TrigInDetTrack
 
    unsigned hitPattern = (*trackitr)->HitPattern();
    unsigned multiPattern = 0;
 
    double chi2    = (*trackitr)->chi2();
    double dof     = 0;
 
    // Shift d0 and z0 according to beam position
    ipCorr(d0, z0, d0, z0, phi, eta, pT);
    
    // Create and save Track  
    TIDA::Track* t = new TIDA::Track(eta,  phi,  z0,  d0,  pT, chi2, dof, 
                                   deta, dphi, dz0, dd0, dpT, 
                                   nBlayerHits, nPixelHits, nSctHits, nSiHits, 
                                   nStrawHits, nTrHits, hitPattern, multiPattern, 
                                   algoid,
                                   expectBL ) ; 
 
    addTrack(t);
    trackitr++; 
    }
  }

◆ storageType()

long CTPByteStreamCnv::storageType ( )

static

Function needed by the framework.

Definition at line 42 of file CTPByteStreamCnv.cxx.

                                   {
  return ByteStreamAddress::storageType();
}

◆ tracks()

const std::vector< TIDA::Track * > & Converter::tracks ( ) const

inlineinherited

Definition at line 50 of file Converter.h.

50{return m_tracks;}

Member Data Documentation

◆ m_beamX

double Converter::m_beamX

protectedinherited

Definition at line 320 of file Converter.h.

◆ m_beamY

double Converter::m_beamY

protectedinherited

Definition at line 320 of file Converter.h.

◆ m_beamZ

double Converter::m_beamZ

protectedinherited

Definition at line 320 of file Converter.h.

◆ m_ByteStreamEventAccess

ServiceHandle< IByteStreamEventAccess > CTPByteStreamCnv::m_ByteStreamEventAccess

private

Service used when writing the BS data.

Definition at line 65 of file CTPByteStreamCnv.h.

◆ m_robDataProvider

ServiceHandle< IROBDataProviderSvc > CTPByteStreamCnv::m_robDataProvider

private

Service used when reading the BS data.

Definition at line 63 of file CTPByteStreamCnv.h.

◆ m_srcIdMap

CTPSrcIdMap CTPByteStreamCnv::m_srcIdMap

private

Object storing the various IDs of the CTP fragment.

Definition at line 60 of file CTPByteStreamCnv.h.

◆ m_tool

ToolHandle< CTPByteStreamTool > CTPByteStreamCnv::m_tool

private

Tool doing the actual conversion.

Definition at line 57 of file CTPByteStreamCnv.h.

◆ m_tracks

std::vector<TIDA::Track*> Converter::m_tracks

protectedinherited

Definition at line 321 of file Converter.h.

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

Public Member Functions

Static Public Member Functions

Protected Member Functions

Protected Attributes

Private Attributes

Detailed Description

Constructor & Destructor Documentation

◆ CTPByteStreamCnv()

Member Function Documentation

◆ addTrack()

◆ classID()

◆ clear()

◆ createObj()

◆ createRep()

◆ initialize()

◆ ipCorr()

◆ phiCorr()

◆ repSvcType()

◆ selectTracks() [1/3]

◆ selectTracks() [2/3]

◆ selectTracks() [3/3]

◆ storageType()

◆ tracks()

Member Data Documentation

◆ m_beamX

◆ m_beamY

◆ m_beamZ

◆ m_ByteStreamEventAccess

◆ m_robDataProvider

◆ m_srcIdMap

◆ m_tool

◆ m_tracks