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#include <CSCTFSectorProcessor.h>
KK.
Definition at line 26 of file CSCTFSectorProcessor.h.
| CSCTFSectorProcessor::CSCTFSectorProcessor | ( | const unsigned & | endcap, |
| const unsigned & | sector, | ||
| const edm::ParameterSet & | pset, | ||
| bool | tmb07, | ||
| const L1MuTriggerScales * | scales, | ||
| const L1MuTriggerPtScale * | ptScale | ||
| ) |
Definition at line 16 of file CSCTFSectorProcessor.cc.
References core_, Reference_intrackfit_cff::endcap, firmSP_Map, FPGAs, edm::ParameterSet::getParameter(), edm::ParameterSet::getUntrackedParameter(), i, getHLTprescales::index, initFail_, initializeFromPSet, isCoreVerbose, j, kill_fiber, LogDebug, m_allowALCTonly, m_allowCLCTonly, m_bxa_depth, m_curvedp, m_endcap, m_etamax, m_etamin, m_etawin, m_firmDD, m_firmFA, m_firmSP, m_firmVM, m_gangedME1a, m_latency, m_maxBX, m_maxdeta112_accp, m_maxdeta113_accp, m_maxdeta12_accp, m_maxdeta13_accp, m_maxdphi112_accp, m_maxdphi113_accp, m_maxdphi12_accp, m_maxdphi13_accp, m_mbaPhiOff, m_mbbPhiOff, m_minBX, m_mindeta112_accp, m_mindeta113_accp, m_mindeta12_accp, m_mindeta13_accp, m_mindetap, m_mindetap_halo, m_mindphip, m_mindphip_halo, m_preTrigger, m_sector, m_straightp, m_widePhi, ptLUT_, QualityEnableME1a, QualityEnableME1b, QualityEnableME1c, QualityEnableME1d, QualityEnableME1e, QualityEnableME1f, QualityEnableME2a, QualityEnableME2b, QualityEnableME2c, QualityEnableME3a, QualityEnableME3b, QualityEnableME3c, QualityEnableME4a, QualityEnableME4b, QualityEnableME4c, readParameters(), rescaleSinglesPhi, run_core, singlesTrackOutput, srLUTs_, TMB07, trigger_on_MB1a, trigger_on_MB1d, trigger_on_ME1a, trigger_on_ME1b, trigger_on_ME2, trigger_on_ME3, and trigger_on_ME4.
{
m_endcap = endcap;
m_sector = sector;
TMB07 = tmb07;
// allows a configurable option to handle unganged ME1a
m_gangedME1a = pset.getUntrackedParameter<bool>("gangedME1a", true);
// Parameter below should always present in ParameterSet:
m_latency = pset.getParameter<unsigned>("CoreLatency");
m_minBX = pset.getParameter<int>("MinBX");
m_maxBX = pset.getParameter<int>("MaxBX");
initializeFromPSet = pset.getParameter<bool>("initializeFromPSet");
if( m_maxBX-m_minBX >= 7 ) edm::LogWarning("CSCTFTrackBuilder::ctor")<<" BX window width >= 7BX. Resetting m_maxBX="<<(m_maxBX=m_minBX+6);
// All following parameters may appear in either ParameterSet of in EventSetup; uninitialize:
m_bxa_depth = -1;
m_allowALCTonly = -1;
m_allowCLCTonly = -1;
m_preTrigger = -1;
for(int index=0; index<7; index++) m_etawin[index] = -1;
for(int index=0; index<8; index++) m_etamin[index] = -1;
for(int index=0; index<8; index++) m_etamax[index] = -1;
m_mindphip=-1;
m_mindetap=-1;
m_mindeta12_accp=-1;
m_maxdeta12_accp=-1;
m_maxdphi12_accp=-1;
m_mindeta13_accp=-1;
m_maxdeta13_accp=-1;
m_maxdphi13_accp=-1;
m_mindeta112_accp=-1;
m_maxdeta112_accp=-1;
m_maxdphi112_accp=-1;
m_mindeta113_accp=-1;
m_maxdeta113_accp=-1;
m_maxdphi113_accp=-1;
m_mindphip_halo=-1;
m_mindetap_halo=-1;
m_widePhi=-1;
m_straightp=-1;
m_curvedp=-1;
m_mbaPhiOff=-1;
m_mbbPhiOff=-1;
kill_fiber = -1;
QualityEnableME1a = -1;
QualityEnableME1b = -1;
QualityEnableME1c = -1;
QualityEnableME1d = -1;
QualityEnableME1e = -1;
QualityEnableME1f = -1;
QualityEnableME2a = -1;
QualityEnableME2b = -1;
QualityEnableME2c = -1;
QualityEnableME3a = -1;
QualityEnableME3b = -1;
QualityEnableME3c = -1;
QualityEnableME4a = -1;
QualityEnableME4b = -1;
QualityEnableME4c = -1;
run_core = -1;
trigger_on_ME1a = -1;
trigger_on_ME1b = -1;
trigger_on_ME2 = -1;
trigger_on_ME3 = -1;
trigger_on_ME4 = -1;
trigger_on_MB1a = -1;
trigger_on_MB1d = -1;
singlesTrackOutput = 999;
rescaleSinglesPhi = -1;
m_firmSP = -1;
m_firmFA = -1;
m_firmDD = -1;
m_firmVM = -1;
initFail_ = false;
isCoreVerbose = pset.getParameter<bool>("isCoreVerbose");
if(initializeFromPSet) readParameters(pset);
// Sector Receiver LUTs initialization
edm::ParameterSet srLUTset = pset.getParameter<edm::ParameterSet>("SRLUT");
for(int i = 1; i <= 4; ++i)
{
if(i == 1)
for(int j = 0; j < 2; j++)
{
srLUTs_[FPGAs[j]] = new CSCSectorReceiverLUT(endcap, sector, j+1, i, srLUTset, TMB07);
}
else
srLUTs_[FPGAs[i]] = new CSCSectorReceiverLUT(endcap, sector, 0, i, srLUTset, TMB07);
}
core_ = new CSCTFSPCoreLogic();
// Pt LUTs initialization
if(initializeFromPSet){
edm::ParameterSet ptLUTset = pset.getParameter<edm::ParameterSet>("PTLUT");
ptLUT_ = new CSCTFPtLUT(ptLUTset, scales, ptScale);
LogDebug("CSCTFSectorProcessor") << "Using stand-alone PT LUT for endcap="<<m_endcap<<", sector="<<m_sector;
} else {
ptLUT_=0;
LogDebug("CSCTFSectorProcessor") << "Looking for PT LUT in EventSetup for endcap="<<m_endcap<<", sector="<<m_sector;
}
// firmware map initialization
// all the information are based on the firmware releases
// documented at http://www.phys.ufl.edu/~uvarov/SP05/SP05.htm
// map is <m_firmSP, core_version>
// it may happen that the same core is used for different firmware
// versions, e.g. change in the wrapper only
// this mapping accounts for runs starting from 132440
// schema is year+month+day
firmSP_Map.insert(std::pair<int,int>(20100210,20100122));
firmSP_Map.insert(std::pair<int,int>(20100617,20100122));
firmSP_Map.insert(std::pair<int,int>(20100629,20100122));
firmSP_Map.insert(std::pair<int,int>(20100728,20100728));
firmSP_Map.insert(std::pair<int,int>(20100901,20100901));
//testing firmwares
firmSP_Map.insert(std::pair<int,int>(20101011,20101011));
firmSP_Map.insert(std::pair<int,int>(20101210,20101210));
firmSP_Map.insert(std::pair<int,int>(20110204,20110118));
firmSP_Map.insert(std::pair<int,int>(20110322,20110118));
// 2012 core with non linear dphi
firmSP_Map.insert(std::pair<int,int>(20120131,20120131));
firmSP_Map.insert(std::pair<int,int>(20120227,20120131));
//2012 core: 4 station track at |eta|>2.1 -> ME2-ME3-ME4
firmSP_Map.insert(std::pair<int,int>(20120313,20120313));
firmSP_Map.insert(std::pair<int,int>(20120319,20120313));
}
| CSCTFSectorProcessor::~CSCTFSectorProcessor | ( | ) |
Definition at line 696 of file CSCTFSectorProcessor.cc.
| CSCTFSectorProcessor::CSCTFSectorProcessor | ( | const CSCTFSectorProcessor & | par | ) | [inline, private] |
Definition at line 61 of file CSCTFSectorProcessor.h.
{}
| CSCTriggerContainer<csctf::TrackStub> CSCTFSectorProcessor::dtStubs | ( | ) | const [inline] |
| std::vector<csctf::TrackStub> CSCTFSectorProcessor::filteredStubs | ( | ) | const [inline] |
Definition at line 47 of file CSCTFSectorProcessor.h.
References stub_vec_filtered.
Referenced by CSCTFTrackBuilder::buildTracks().
{ return stub_vec_filtered; }
| void CSCTFSectorProcessor::initialize | ( | const edm::EventSetup & | c | ) |
KK.
Definition at line 174 of file CSCTFSectorProcessor.cc.
References HDQMDatabaseProducer::config, core_, firmSP_Map, edm::EventSetup::get(), getHLTprescales::index, initFail_, initializeFromPSet, isCoreVerbose, kill_fiber, LogDebug, m_allowALCTonly, m_allowCLCTonly, m_bxa_depth, m_curvedp, m_endcap, m_etamax, m_etamin, m_etawin, m_firmDD, m_firmFA, m_firmSP, m_firmVM, m_latency, m_maxdeta112_accp, m_maxdeta113_accp, m_maxdeta12_accp, m_maxdeta13_accp, m_maxdphi112_accp, m_maxdphi113_accp, m_maxdphi12_accp, m_maxdphi13_accp, m_mbaPhiOff, m_mbbPhiOff, m_mindeta112_accp, m_mindeta113_accp, m_mindeta12_accp, m_mindeta13_accp, m_mindetap, m_mindetap_halo, m_mindphip, m_mindphip_halo, m_preTrigger, m_sector, m_straightp, m_widePhi, printDisclaimer(), edm::ESHandle< T >::product(), ptLUT_, QualityEnableME1a, QualityEnableME1b, QualityEnableME1c, QualityEnableME1d, QualityEnableME1e, QualityEnableME1f, QualityEnableME2a, QualityEnableME2b, QualityEnableME2c, QualityEnableME3a, QualityEnableME3b, QualityEnableME3c, QualityEnableME4a, QualityEnableME4b, QualityEnableME4c, readParameters(), rescaleSinglesPhi, run_core, singlesTrackOutput, trigger_on_MB1a, trigger_on_MB1d, trigger_on_ME1a, trigger_on_ME1b, trigger_on_ME2, trigger_on_ME3, and trigger_on_ME4.
Referenced by CSCTFTrackBuilder::initialize().
{
initFail_ = false;
if(!initializeFromPSet){
// Only pT lut can be initialized from EventSetup, all front LUTs are initialized locally from their parametrizations
LogDebug("CSCTFSectorProcessor") <<"Initializing endcap: "<<m_endcap<<" sector:"<<m_sector << "SP:" << (m_endcap-1)*6+(m_sector-1);
LogDebug("CSCTFSectorProcessor") << "Initializing pT LUT from EventSetup";
ptLUT_ = new CSCTFPtLUT(c);
// Extract from EventSetup alternative (to the one, used in constructor) ParameterSet
edm::ESHandle<L1MuCSCTFConfiguration> config;
c.get<L1MuCSCTFConfigurationRcd>().get(config);
// And initialize only those parameters, which left uninitialized during construction
readParameters(config.product()->parameters((m_endcap-1)*6+(m_sector-1)));
}
// ---------------------------------------------------------------------------
// This part is added per Vasile's request.
// It will help people understanding the emulator configuration
LogDebug("CSCTFSectorProcessor") << "\n !!! CSCTF EMULATOR CONFIGURATION !!!"
<< "\n\nCORE CONFIGURATION"
<< "\n Coincidence Trigger? " << run_core
<< "\n Singles in ME1a? " << trigger_on_ME1a
<< "\n Singles in ME1b? " << trigger_on_ME1b
<< "\n Singles in ME2? " << trigger_on_ME2
<< "\n Singles in ME3? " << trigger_on_ME3
<< "\n Singles in ME4? " << trigger_on_ME4
<< "\n Singles in MB1a? " << trigger_on_MB1a
<< "\n Singles in MB1d? " << trigger_on_MB1d
<< "\n BX Analyzer depth: assemble coinc. track with stubs in +/-" << m_bxa_depth << " Bxs"
<< "\n Is Wide Phi Extrapolation (DeltaPhi valid up to ~15 degrees, otherwise ~7.67 degrees)? " << m_widePhi
<< "\n PreTrigger=" << m_preTrigger
<< "\n CoreLatency=" << m_latency
<< "\n Is Phi for singles rescaled? " << rescaleSinglesPhi
<< "\n\nVARIOUS CONFIGURATION PARAMETERS"
<< "\n Allow ALCT only? " << m_allowALCTonly
<< "\n Allow CLCT only? " << m_allowCLCTonly
<< "\nQualityEnableME1a (in general accept all LCT qualities, i.e. 0xFFFF is expected)=" << QualityEnableME1a
<< "\nQualityEnableME1b (in general accept all LCT qualities, i.e. 0xFFFF is expected)=" << QualityEnableME1b
<< "\nQualityEnableME1c (in general accept all LCT qualities, i.e. 0xFFFF is expected)=" << QualityEnableME1c
<< "\nQualityEnableME1d (in general accept all LCT qualities, i.e. 0xFFFF is expected)=" << QualityEnableME1d
<< "\nQualityEnableME1e (in general accept all LCT qualities, i.e. 0xFFFF is expected)=" << QualityEnableME1e
<< "\nQualityEnableME1f (in general accept all LCT qualities, i.e. 0xFFFF is expected)=" << QualityEnableME1f
<< "\nQualityEnableME2a (in general accept all LCT qualities, i.e. 0xFFFF is expected)=" << QualityEnableME2a
<< "\nQualityEnableME2b (in general accept all LCT qualities, i.e. 0xFFFF is expected)=" << QualityEnableME2b
<< "\nQualityEnableME2c (in general accept all LCT qualities, i.e. 0xFFFF is expected)=" << QualityEnableME2c
<< "\nQualityEnableME3a (in general accept all LCT qualities, i.e. 0xFFFF is expected)=" << QualityEnableME3a
<< "\nQualityEnableME3b (in general accept all LCT qualities, i.e. 0xFFFF is expected)=" << QualityEnableME3b
<< "\nQualityEnableME3c (in general accept all LCT qualities, i.e. 0xFFFF is expected)=" << QualityEnableME3c
<< "\nQualityEnableME4a (in general accept all LCT qualities, i.e. 0xFFFF is expected)=" << QualityEnableME4a
<< "\nQualityEnableME4b (in general accept all LCT qualities, i.e. 0xFFFF is expected)=" << QualityEnableME4b
<< "\nQualityEnableME4c (in general accept all LCT qualities, i.e. 0xFFFF is expected)=" << QualityEnableME4c
<< "\nkill_fiber=" << kill_fiber
<< "\nSingles Output Link=" << singlesTrackOutput
//the DAT_ETA registers meaning are explained at Table 2 of
//http://www.phys.ufl.edu/~uvarov/SP05/LU-SP_ReferenceGuide_090915_Update.pdf
<< "\n\nDAT_ETA REGISTERS"
<< "\nMinimum eta difference for track cancellation logic=" << m_mindetap
<< "\nMinimum eta difference for halo track cancellation logic=" << m_mindetap_halo
<< "\nMinimum eta for ME1-ME2 collision tracks=" << m_etamin[0]
<< "\nMinimum eta for ME1-ME3 collision tracks=" << m_etamin[1]
<< "\nMinimum eta for ME2-ME3 collision tracks=" << m_etamin[2]
<< "\nMinimum eta for ME2-ME4 collision tracks=" << m_etamin[3]
<< "\nMinimum eta for ME3-ME4 collision tracks=" << m_etamin[4]
<< "\nMinimum eta for ME1-ME2 collision tracks in overlap region=" << m_etamin[5]
<< "\nMinimum eta for ME2-MB1 collision tracks=" << m_etamin[6]
<< "\nMinimum eta for ME1-ME4 collision tracks=" << m_etamin[7]
<< "\nMinimum eta difference for ME1-ME2 (except ME1/1) halo tracks=" << m_mindeta12_accp
<< "\nMinimum eta difference for ME1-ME3 (except ME1/1) halo tracks=" << m_mindeta13_accp
<< "\nMinimum eta difference for ME1/1-ME2 halo tracks=" << m_mindeta112_accp
<< "\nMinimum eta difference for ME1/1-ME3 halo tracks=" << m_mindeta113_accp
<< "\nMaximum eta for ME1-ME2 collision tracks=" << m_etamax[0]
<< "\nMaximum eta for ME1-ME3 collision tracks=" << m_etamax[1]
<< "\nMaximum eta for ME2-ME3 collision tracks=" << m_etamax[2]
<< "\nMaximum eta for ME2-ME4 collision tracks=" << m_etamax[3]
<< "\nMaximum eta for ME3-ME4 collision tracks=" << m_etamax[4]
<< "\nMaximum eta for ME1-ME2 collision tracks in overlap region=" << m_etamax[5]
<< "\nMaximum eta for ME2-MB1 collision tracks=" << m_etamax[6]
<< "\nMaximum eta for ME1-ME4 collision tracks=" << m_etamax[7]
<< "\nMaximum eta difference for ME1-ME2 (except ME1/1) halo tracks=" << m_maxdeta12_accp
<< "\nMaximum eta difference for ME1-ME3 (except ME1/1) halo tracks=" << m_maxdeta13_accp
<< "\nMaximum eta difference for ME1/1-ME2 halo tracks=" << m_maxdeta112_accp
<< "\nMaximum eta difference for ME1/1-ME3 halo tracks=" << m_maxdeta113_accp
<< "\nEta window for ME1-ME2 collision tracks=" << m_etawin[0]
<< "\nEta window for ME1-ME3 collision tracks=" << m_etawin[1]
<< "\nEta window for ME2-ME3 collision tracks=" << m_etawin[2]
<< "\nEta window for ME2-ME4 collision tracks=" << m_etawin[3]
<< "\nEta window for ME3-ME4 collision tracks=" << m_etawin[4]
<< "\nEta window for ME1-ME2 collision tracks in overlap region=" << m_etawin[5]
<< "\nEta window for ME1-ME4 collision tracks=" << m_etawin[6]
<< "\nMaximum phi difference for ME1-ME2 (except ME1/1) halo tracks=" << m_maxdphi12_accp
<< "\nMaximum phi difference for ME1-ME3 (except ME1/1) halo tracks=" << m_maxdphi13_accp
<< "\nMaximum phi difference for ME1/1-ME2 halo tracks=" << m_maxdphi112_accp
<< "\nMaximum phi difference for ME1/1-ME3 halo tracks=" << m_maxdphi113_accp
<< "\nMinimum phi difference for track cancellation logic=" << m_mindphip
<< "\nMinimum phi difference for halo track cancellation logic=" << m_mindphip_halo
<< "\nParameter for the correction of misaligned 1-2-3-4 straight tracks =" << m_straightp
<< "\nParameter for the correction of misaligned 1-2-3-4 curved tracks=" << m_curvedp
<< "\nPhi Offset for MB1A=" << m_mbaPhiOff
<< "\nPhi Offset for MB1D=" << m_mbbPhiOff
<< "\nFirmware SP year+month+day:" << m_firmSP
<< "\nFirmware FA year+month+day:" << m_firmFA
<< "\nFirmware DD year+month+day:" << m_firmDD
<< "\nFirmware VM year+month+day:" << m_firmVM;
printDisclaimer(m_firmSP,m_firmFA);
// set core verbosity: for debugging only purpouses
// in general the output is handled to Alex Madorsky
core_ -> SetVerbose(isCoreVerbose);
// Set the SP firmware
core_ -> SetSPFirmwareVersion (m_firmSP);
// Set the firmware for the CORE
int firmVersCore = firmSP_Map.find(m_firmSP)->second;
core_ -> SetCoreFirmwareVersion (firmVersCore);
edm::LogInfo( "CSCTFSectorProcessor" ) << "\nCore Firmware is set to " << core_ -> GetCoreFirmwareVersion();
// ---------------------------------------------------------------------------
// Check if parameters were not initialized in both: constuctor (from .cf? file) and initialize method (from EventSetup)
if(m_bxa_depth<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"BXAdepth parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_allowALCTonly<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"AllowALCTonly parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_allowCLCTonly<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"AllowCLCTonly parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_preTrigger<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"PreTrigger parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_mindphip<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"mindphip parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_mindetap<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"mindeta parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_straightp<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"straightp parameter left unitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_curvedp<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"curvedp parameter left unitialized for endcap="<<m_endcap<<",sector="<<m_sector;
}
if(m_mbaPhiOff<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"mbaPhiOff parameter left unitialized for endcap="<<m_endcap<<",sector="<<m_sector;
}
if(m_mbbPhiOff<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"mbbPhiOff parameter left unitialized for endcap="<<m_endcap<<",sector="<<m_sector;
}
if(m_mindeta12_accp<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"mindeta_accp12 parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_maxdeta12_accp<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"maxdeta_accp12 parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_maxdphi12_accp<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"maxdphi_accp12 parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_mindeta13_accp<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"mindeta_accp13 parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_maxdeta13_accp<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"maxdeta_accp13 parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_maxdphi13_accp<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"maxdphi_accp13 parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_mindeta112_accp<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"mindeta_accp112 parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_maxdeta112_accp<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"maxdeta_accp112 parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_maxdphi112_accp<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"maxdphi_accp112 parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_mindeta113_accp<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"mindeta_accp113 parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_maxdeta113_accp<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"maxdeta_accp113 parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_maxdphi113_accp<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"maxdphi_accp113 parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_mindphip_halo<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"mindphip_halo parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_mindetap_halo<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"mindetep_halo parameter left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(m_widePhi<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"widePhi parameter left unitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
for(int index=0; index<8; index++)
if(m_etamax[index]<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"Some ("<<(8-index)<<") of EtaMax parameters left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
for(int index=0; index<8; index++)
if(m_etamin[index]<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"Some ("<<(8-index)<<") of EtaMin parameters left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
for(int index=0; index<7; index++)
if(m_etawin[index]<0)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<<"Some ("<<(6-index)<<") of EtaWindows parameters left uninitialized for endcap="<<m_endcap<<", sector="<<m_sector;
}
if(kill_fiber<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"kill_fiber parameter left uninitialized";
}
if(run_core<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"run_core parameter left uninitialized";
}
if(trigger_on_ME1a<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"trigger_on_ME1a parameter left uninitialized";
}
if(trigger_on_ME1b<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"trigger_on_ME1b parameter left uninitialized";
}
if(trigger_on_ME2 <0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"trigger_on_ME2 parameter left uninitialized";
}
if(trigger_on_ME3 <0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"trigger_on_ME3 parameter left uninitialized";
}
if(trigger_on_ME4 <0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"trigger_on_ME4 parameter left uninitialized";
}
if(trigger_on_MB1a<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"trigger_on_MB1a parameter left uninitialized";
}
if(trigger_on_MB1d<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"trigger_on_MB1d parameter left uninitialized";
}
if( trigger_on_ME1a>0 || trigger_on_ME1b>0 ||trigger_on_ME2>0 ||
trigger_on_ME3>0 || trigger_on_ME4>0 ||trigger_on_MB1a>0 ||trigger_on_MB1d>0 )
{
if(singlesTrackOutput==999)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"singlesTrackOutput parameter left uninitialized";
}
if(rescaleSinglesPhi<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"rescaleSinglesPhi parameter left uninitialized";
}
}
if(QualityEnableME1a<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"QualityEnableME1a parameter left uninitialized";
}
if(QualityEnableME1b<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"QualityEnableME1b parameter left uninitialized";
}
if(QualityEnableME1c<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"QualityEnableME1c parameter left uninitialized";
}
if(QualityEnableME1d<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"QualityEnableME1d parameter left uninitialized";
}
if(QualityEnableME1e<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"QualityEnableME1e parameter left uninitialized";
}
if(QualityEnableME1f<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"QualityEnableME1f parameter left uninitialized";
}
if(QualityEnableME2a<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"QualityEnableME2a parameter left uninitialized";
}
if(QualityEnableME2b<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"QualityEnableME2b parameter left uninitialized";
}
if(QualityEnableME2c<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"QualityEnableME2c parameter left uninitialized";
}
if(QualityEnableME3a<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"QualityEnableME3a parameter left uninitialized";
}
if(QualityEnableME3b<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"QualityEnableME3b parameter left uninitialized";
}
if(QualityEnableME3c<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"QualityEnableME3c parameter left uninitialized";
}
if(QualityEnableME4a<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"QualityEnableME4a parameter left uninitialized";
}
if(QualityEnableME4b<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"QualityEnableME4b parameter left uninitialized";
}
if(QualityEnableME4c<0)
{
initFail_ = true;
edm::LogError("CSCTFTrackBuilder")<<"QualityEnableME4c parameter left uninitialized";
}
if (m_firmSP<1)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<< " firmwareSP parameter left uninitialized!!!\n";
}
if (m_firmFA<1)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<< " firmwareFA parameter left uninitialized!!!\n";
}
if (m_firmDD<1)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<< " firmwareDD parameter left uninitialized!!!\n";
}
if (m_firmVM<1)
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor")<< " firmwareVM parameter left uninitialized!!!\n";
}
if ( (m_firmFA != m_firmDD) ||
(m_firmFA != m_firmVM) ||
(m_firmDD != m_firmVM) )
{
initFail_ = true;
edm::LogError("CSCTFSectorProcessor::initialize")<< " firmwareFA (=" << m_firmFA << "), "
<< " firmwareDD (=" << m_firmDD << "), "
<< " firmwareVM (=" << m_firmVM << ") are NOT identical: it shoultd NOT happen!\n";
}
}
| int CSCTFSectorProcessor::maxBX | ( | ) | const [inline] |
| int CSCTFSectorProcessor::minBX | ( | ) | const [inline] |
| CSCTFSectorProcessor& CSCTFSectorProcessor::operator= | ( | const CSCTFSectorProcessor & | rhs | ) | [inline, private] |
Definition at line 60 of file CSCTFSectorProcessor.h.
{ return *this; };
| void CSCTFSectorProcessor::printDisclaimer | ( | int | firmSP, |
| int | firmFA | ||
| ) |
Definition at line 1031 of file CSCTFSectorProcessor.cc.
Referenced by initialize().
{
edm::LogInfo( "CSCTFSectorProcessor" ) << "\n\n"
<< "******************************* \n"
<< "*** DISCLAIMER *** \n"
<< "******************************* \n"
<< "\n Firmware SP version (year+month+day)=" << firmSP
<< "\n Firmware FA/VM/DD version (year+month+day)=" << firmFA;
if (firmSP==20100210)
edm::LogInfo( "CSCTFSectorProcessor" ) << " -> KNOWN BUGS IN THE FIRMWARE:\n"
<< "\t * Wrong phi assignment for singles\n"
<< "\t * Wrapper passes to the core only even quality DT stubs\n"
<< "\n -> BUGS ARE GOING TO BE EMULATED BY THE SOFTWARE\n\n";
else
edm::LogInfo( "CSCTFSectorProcessor" ) << "\t * Correct phi assignment for singles\n";
if (firmSP==20100629){
edm::LogInfo( "CSCTFSectorProcessor" ) << "\t * Correct MB quality masking in the wrapper\n"
<< "\t * Core is 20100122\n";
}
if (firmSP==20100728)
edm::LogInfo( "CSCTFSectorProcessor" ) << "\t * Inverted MB clocks\n";
if (firmSP==20100901)
edm::LogInfo( "CSCTFSectorProcessor" ) << "\t * Inverted charge bit\n";
if (firmSP==20101011)
edm::LogInfo( "CSCTFSectorProcessor" ) << "\t **** WARNING THIS FIRMWARE IS UNDER TEST ****\n"
<< "\t * Added CSC-DT assembling tracks ME1-MB2/1 \n";
if (firmSP==20101210)
edm::LogInfo( "CSCTFSectorProcessor" ) << "\t **** WARNING THIS FIRMWARE IS UNDER TEST ****\n"
<< "\t * New Ghost Busting Algorithm Removing Tracks\n"
<< "\t Sharing at Least One LCT\n";
if (firmSP==20110118)
edm::LogInfo( "CSCTFSectorProcessor" ) << "\t **** WARNING THIS FIRMWARE IS UNDER TEST ****\n"
<< "\t * New Ghost Busting Algorithm Removing Tracks\n"
<< "\t Sharing at Least One LCT\n"
<< "\t * Passing CLCT and PhiBend for PT LUTs\n";
if (firmSP==20120131)
edm::LogInfo( "CSCTFSectorProcessor" ) << "\t **** WARNING THIS FIRMWARE IS UNDER TEST ****\n"
<< "\t * non-linear dphi12 dphi23, use deta for PTLUTs \n";
}
| void CSCTFSectorProcessor::readParameters | ( | const edm::ParameterSet & | pset | ) |
Definition at line 625 of file CSCTFSectorProcessor.cc.
References edm::ParameterSet::getParameter(), getHLTprescales::index, kill_fiber, m_allowALCTonly, m_allowCLCTonly, m_bxa_depth, m_curvedp, m_etamax, m_etamin, m_etawin, m_firmDD, m_firmFA, m_firmSP, m_firmVM, m_maxdeta112_accp, m_maxdeta113_accp, m_maxdeta12_accp, m_maxdeta13_accp, m_maxdphi112_accp, m_maxdphi113_accp, m_maxdphi12_accp, m_maxdphi13_accp, m_mbaPhiOff, m_mbbPhiOff, m_mindeta112_accp, m_mindeta113_accp, m_mindeta12_accp, m_mindeta13_accp, m_mindetap, m_mindetap_halo, m_mindphip, m_mindphip_halo, m_preTrigger, m_straightp, m_widePhi, QualityEnableME1a, QualityEnableME1b, QualityEnableME1c, QualityEnableME1d, QualityEnableME1e, QualityEnableME1f, QualityEnableME2a, QualityEnableME2b, QualityEnableME2c, QualityEnableME3a, QualityEnableME3b, QualityEnableME3c, QualityEnableME4a, QualityEnableME4b, QualityEnableME4c, rescaleSinglesPhi, run_core, singlesTrackOutput, trigger_on_MB1a, trigger_on_MB1d, trigger_on_ME1a, trigger_on_ME1b, trigger_on_ME2, trigger_on_ME3, and trigger_on_ME4.
Referenced by CSCTFSectorProcessor(), and initialize().
{
m_bxa_depth = pset.getParameter<unsigned>("BXAdepth");
m_allowALCTonly = ( pset.getParameter<bool>("AllowALCTonly") ? 1 : 0 );
m_allowCLCTonly = ( pset.getParameter<bool>("AllowCLCTonly") ? 1 : 0 );
m_preTrigger = pset.getParameter<unsigned>("PreTrigger");
std::vector<unsigned>::const_iterator iter;
int index=0;
std::vector<unsigned> etawins = pset.getParameter<std::vector<unsigned> >("EtaWindows");
for(iter=etawins.begin(),index=0; iter!=etawins.end()&&index<7; iter++,index++) m_etawin[index] = *iter;
std::vector<unsigned> etamins = pset.getParameter<std::vector<unsigned> >("EtaMin");
for(iter=etamins.begin(),index=0; iter!=etamins.end()&&index<8; iter++,index++) m_etamin[index] = *iter;
std::vector<unsigned> etamaxs = pset.getParameter<std::vector<unsigned> >("EtaMax");
for(iter=etamaxs.begin(),index=0; iter!=etamaxs.end()&&index<8; iter++,index++) m_etamax[index] = *iter;
m_mindphip = pset.getParameter<unsigned>("mindphip");
m_mindetap = pset.getParameter<unsigned>("mindetap");
m_straightp = pset.getParameter<unsigned>("straightp");
m_curvedp = pset.getParameter<unsigned>("curvedp");
m_mbaPhiOff = pset.getParameter<unsigned>("mbaPhiOff");
m_mbbPhiOff = pset.getParameter<unsigned>("mbbPhiOff");
m_widePhi = pset.getParameter<unsigned>("widePhi");
m_mindeta12_accp = pset.getParameter<unsigned>("mindeta12_accp");
m_maxdeta12_accp = pset.getParameter<unsigned>("maxdeta12_accp");
m_maxdphi12_accp = pset.getParameter<unsigned>("maxdphi12_accp");
m_mindeta13_accp = pset.getParameter<unsigned>("mindeta13_accp");
m_maxdeta13_accp = pset.getParameter<unsigned>("maxdeta13_accp");
m_maxdphi13_accp = pset.getParameter<unsigned>("maxdphi13_accp");
m_mindeta112_accp = pset.getParameter<unsigned>("mindeta112_accp");
m_maxdeta112_accp = pset.getParameter<unsigned>("maxdeta112_accp");
m_maxdphi112_accp = pset.getParameter<unsigned>("maxdphi112_accp");
m_mindeta113_accp = pset.getParameter<unsigned>("mindeta113_accp");
m_maxdeta113_accp = pset.getParameter<unsigned>("maxdeta113_accp");
m_maxdphi113_accp = pset.getParameter<unsigned>("maxdphi113_accp");
m_mindphip_halo = pset.getParameter<unsigned>("mindphip_halo");
m_mindetap_halo = pset.getParameter<unsigned>("mindetap_halo");
kill_fiber = pset.getParameter<unsigned>("kill_fiber");
run_core = pset.getParameter<bool>("run_core");
trigger_on_ME1a = pset.getParameter<bool>("trigger_on_ME1a");
trigger_on_ME1b = pset.getParameter<bool>("trigger_on_ME1b");
trigger_on_ME2 = pset.getParameter<bool>("trigger_on_ME2");
trigger_on_ME3 = pset.getParameter<bool>("trigger_on_ME3");
trigger_on_ME4 = pset.getParameter<bool>("trigger_on_ME4");
trigger_on_MB1a = pset.getParameter<bool>("trigger_on_MB1a");
trigger_on_MB1d = pset.getParameter<bool>("trigger_on_MB1d");
singlesTrackOutput = pset.getParameter<unsigned int>("singlesTrackOutput");
rescaleSinglesPhi = pset.getParameter<bool>("rescaleSinglesPhi");
QualityEnableME1a = pset.getParameter<unsigned int>("QualityEnableME1a");
QualityEnableME1b = pset.getParameter<unsigned int>("QualityEnableME1b");
QualityEnableME1c = pset.getParameter<unsigned int>("QualityEnableME1c");
QualityEnableME1d = pset.getParameter<unsigned int>("QualityEnableME1d");
QualityEnableME1e = pset.getParameter<unsigned int>("QualityEnableME1e");
QualityEnableME1f = pset.getParameter<unsigned int>("QualityEnableME1f");
QualityEnableME2a = pset.getParameter<unsigned int>("QualityEnableME2a");
QualityEnableME2b = pset.getParameter<unsigned int>("QualityEnableME2b");
QualityEnableME2c = pset.getParameter<unsigned int>("QualityEnableME2c");
QualityEnableME3a = pset.getParameter<unsigned int>("QualityEnableME3a");
QualityEnableME3b = pset.getParameter<unsigned int>("QualityEnableME3b");
QualityEnableME3c = pset.getParameter<unsigned int>("QualityEnableME3c");
QualityEnableME4a = pset.getParameter<unsigned int>("QualityEnableME4a");
QualityEnableME4b = pset.getParameter<unsigned int>("QualityEnableME4b");
QualityEnableME4c = pset.getParameter<unsigned int>("QualityEnableME4c");
m_firmSP = pset.getParameter<unsigned int>("firmwareSP");
m_firmFA = pset.getParameter<unsigned int>("firmwareFA");
m_firmDD = pset.getParameter<unsigned int>("firmwareDD");
m_firmVM = pset.getParameter<unsigned int>("firmwareVM");
}
| int CSCTFSectorProcessor::run | ( | const CSCTriggerContainer< csctf::TrackStub > & | stubs | ) |
STEP ZERO Remove stubs, which were masked out by kill_fiber or QualityEnable parameters
STEP ONE We take stubs from the MPC and assign their eta and phi coordinates using the SR Lookup tables. This is independent of what BX we are on so we can process one large vector of stubs. After this we append the stubs gained from the DT system.
STEP TWO We take the stubs filled by the SR LUTs and load them for processing into the SP core logic. After loading we run and then retrieve any tracks generated.
STEP THREE Now that we have the found tracks from the core, we must assign their Pt.
Definition at line 713 of file CSCTFSectorProcessor.cc.
References CSCTriggerContainer< T >::clear(), core_, CSCDetId, dt_stubs, alignCSCRings::e, FPGAs, CSCTriggerContainer< T >::get(), errorMatrix2Lands_multiChannel::id, initFail_, kill_fiber, l1_tracks, CSCTFSPCoreLogic::loadData(), LogDebug, m_allowALCTonly, m_allowCLCTonly, m_bxa_depth, m_curvedp, m_endcap, m_etamax, m_etamin, m_etawin, m_firmSP, m_gangedME1a, m_latency, m_maxBX, m_maxdeta112_accp, m_maxdeta113_accp, m_maxdeta12_accp, m_maxdeta13_accp, m_maxdphi112_accp, m_maxdphi113_accp, m_maxdphi12_accp, m_maxdphi13_accp, m_mbaPhiOff, m_mbbPhiOff, m_minBX, m_mindeta112_accp, m_mindeta113_accp, m_mindeta12_accp, m_mindeta13_accp, m_mindetap, m_mindetap_halo, m_mindphip, m_mindphip_halo, m_preTrigger, m_sector, m_straightp, m_widePhi, text2workspace::MB, CSCTFPtLUT::Pt(), ptLUT_, csc::L1Track::ptLUTAddress(), CSCTriggerContainer< T >::push_back(), CSCTriggerContainer< T >::push_many(), QualityEnableME1a, QualityEnableME1b, QualityEnableME1c, QualityEnableME1d, QualityEnableME1e, QualityEnableME1f, QualityEnableME2a, QualityEnableME2b, QualityEnableME2c, QualityEnableME3a, QualityEnableME3b, QualityEnableME3c, QualityEnableME4a, QualityEnableME4b, QualityEnableME4c, rescaleSinglesPhi, CSCTFSPCoreLogic::run(), run_core, L1MuRegionalCand::setBx(), L1MuRegionalCand::setChargeValidPacked(), L1MuRegionalCand::setEtaPacked(), csc::L1Track::setLocalPhi(), csc::L1Track::setOutputLink(), csc::L1Track::setPtLUTAddress(), csc::L1Track::setRank(), csc::L1Track::setStationIds(), edm::shift, singlesTrackOutput, srLUTs_, relativeConstraints::station, stub_vec_filtered, CSCTFSPCoreLogic::tracks(), tracks(), trigger_on_MB1a, trigger_on_MB1d, trigger_on_ME1a, trigger_on_ME1b, trigger_on_ME2, trigger_on_ME3, trigger_on_ME4, and CSCTriggerNumbering::triggerSubSectorFromLabels().
Referenced by CSCTFTrackBuilder::buildTracks().
{
if(initFail_)
return -1;
if( !ptLUT_ )
{
edm::LogError("CSCTFSectorProcessor::run()") << "No CSCTF PTLUTs: Initialize CSC TF LUTs first (missed call to CSCTFTrackProducer::beginJob?\n";
return -1;
}
l1_tracks.clear();
dt_stubs.clear();
stub_vec_filtered.clear();
std::vector<csctf::TrackStub> stub_vec = stubs.get();
for(std::vector<csctf::TrackStub>::const_iterator itr=stub_vec.begin(); itr!=stub_vec.end(); itr++)
switch( itr->station() ){
case 5: stub_vec_filtered.push_back(*itr); break; // DT stubs get filtered by the core controll register
case 4:
switch( itr->getMPCLink() ){
case 3: if( (kill_fiber&0x4000)==0 && QualityEnableME4c&(1<<itr->getQuality()) ) stub_vec_filtered.push_back(*itr); break;
case 2: if( (kill_fiber&0x2000)==0 && QualityEnableME4b&(1<<itr->getQuality()) ) stub_vec_filtered.push_back(*itr); break;
case 1: if( (kill_fiber&0x1000)==0 && QualityEnableME4a&(1<<itr->getQuality()) ) stub_vec_filtered.push_back(*itr); break;
default: edm::LogWarning("CSCTFSectorProcessor::run()") << "No MPC sorting for LCT: link="<<itr->getMPCLink()<<"\n";
}
break;
case 3:
switch( itr->getMPCLink() ){
case 3: if( (kill_fiber&0x0800)==0 && QualityEnableME3c&(1<<itr->getQuality()) ) stub_vec_filtered.push_back(*itr); break;
case 2: if( (kill_fiber&0x0400)==0 && QualityEnableME3b&(1<<itr->getQuality()) ) stub_vec_filtered.push_back(*itr); break;
case 1: if( (kill_fiber&0x0200)==0 && QualityEnableME3a&(1<<itr->getQuality()) ) stub_vec_filtered.push_back(*itr); break;
default: edm::LogWarning("CSCTFSectorProcessor::run()") << "No MPC sorting for LCT: link="<<itr->getMPCLink()<<"\n";
}
break;
case 2:
switch( itr->getMPCLink() ){
case 3: if( (kill_fiber&0x0100)==0 && QualityEnableME2c&(1<<itr->getQuality()) ) stub_vec_filtered.push_back(*itr); break;
case 2: if( (kill_fiber&0x0080)==0 && QualityEnableME2b&(1<<itr->getQuality()) ) stub_vec_filtered.push_back(*itr); break;
case 1: if( (kill_fiber&0x0040)==0 && QualityEnableME2a&(1<<itr->getQuality()) ) stub_vec_filtered.push_back(*itr); break;
default: edm::LogWarning("CSCTFSectorProcessor::run()") << "No MPC sorting for LCT: link="<<itr->getMPCLink()<<"\n";
}
break;
case 1:
switch( itr->getMPCLink() + (3*(CSCTriggerNumbering::triggerSubSectorFromLabels(CSCDetId(itr->getDetId().rawId())) - 1)) ){
case 6: if( (kill_fiber&0x0020)==0 && QualityEnableME1f&(1<<itr->getQuality()) ) stub_vec_filtered.push_back(*itr); break;
case 5: if( (kill_fiber&0x0010)==0 && QualityEnableME1e&(1<<itr->getQuality()) ) stub_vec_filtered.push_back(*itr); break;
case 4: if( (kill_fiber&0x0008)==0 && QualityEnableME1d&(1<<itr->getQuality()) ) stub_vec_filtered.push_back(*itr); break;
case 3: if( (kill_fiber&0x0004)==0 && QualityEnableME1c&(1<<itr->getQuality()) ) stub_vec_filtered.push_back(*itr); break;
case 2: if( (kill_fiber&0x0002)==0 && QualityEnableME1b&(1<<itr->getQuality()) ) stub_vec_filtered.push_back(*itr); break;
case 1: if( (kill_fiber&0x0001)==0 && QualityEnableME1a&(1<<itr->getQuality()) ) stub_vec_filtered.push_back(*itr); break;
default: edm::LogWarning("CSCTFSectorProcessor::run()") << "No MPC sorting for LCT: link="<<itr->getMPCLink()<<"\n";
}
break;
default: edm::LogWarning("CSCTFSectorProcessor::run()") << "Invalid station # encountered: "<<itr->station()<<"\n";
}
for(std::vector<csctf::TrackStub>::iterator itr=stub_vec_filtered.begin(); itr!=stub_vec_filtered.end(); itr++)
{
if(itr->station() != 5)
{
CSCDetId id(itr->getDetId().rawId());
unsigned fpga = (id.station() == 1) ? CSCTriggerNumbering::triggerSubSectorFromLabels(id) - 1 : id.station();
lclphidat lclPhi;
try {
lclPhi = srLUTs_[FPGAs[fpga]]->localPhi(itr->getStrip(), itr->getPattern(), itr->getQuality(), itr->getBend());
} catch( cms::Exception &e ) {
bzero(&lclPhi,sizeof(lclPhi));
edm::LogWarning("CSCTFSectorProcessor:run()") << "Exception from LocalPhi LUT in " << FPGAs[fpga]
<< "(strip="<<itr->getStrip()<<",pattern="<<itr->getPattern()<<",quality="<<itr->getQuality()<<",bend="<<itr->getBend()<<")" <<std::endl;
}
gblphidat gblPhi;
try {
unsigned csc_id = itr->cscid();
if (!m_gangedME1a) csc_id = itr->cscidSeparateME1a();
gblPhi = srLUTs_[FPGAs[fpga]]->globalPhiME(lclPhi.phi_local, itr->getKeyWG(), csc_id);
} catch( cms::Exception &e ) {
bzero(&gblPhi,sizeof(gblPhi));
edm::LogWarning("CSCTFSectorProcessor:run()") << "Exception from GlobalPhi LUT in " << FPGAs[fpga]
<< "(phi_local="<<lclPhi.phi_local<<",KeyWG="<<itr->getKeyWG()<<",csc="<<itr->cscid()<<")"<<std::endl;
}
gbletadat gblEta;
try {
gblEta = srLUTs_[FPGAs[fpga]]->globalEtaME(lclPhi.phi_bend_local, lclPhi.phi_local, itr->getKeyWG(), itr->cscid());
} catch( cms::Exception &e ) {
bzero(&gblEta,sizeof(gblEta));
edm::LogWarning("CSCTFSectorProcessor:run()") << "Exception from GlobalEta LUT in " << FPGAs[fpga]
<< "(phi_bend_local="<<lclPhi.phi_bend_local<<",phi_local="<<lclPhi.phi_local<<",KeyWG="<<itr->getKeyWG()<<",csc="<<itr->cscid()<<")"<<std::endl;
}
gblphidat gblPhiDT;
try {
gblPhiDT = srLUTs_[FPGAs[fpga]]->globalPhiMB(lclPhi.phi_local, itr->getKeyWG(), itr->cscid());
} catch( cms::Exception &e ) {
bzero(&gblPhiDT,sizeof(gblPhiDT));
edm::LogWarning("CSCTFSectorProcessor:run()") << "Exception from GlobalPhi DT LUT in " << FPGAs[fpga]
<< "(phi_local="<<lclPhi.phi_local<<",KeyWG="<<itr->getKeyWG()<<",csc="<<itr->cscid()<<")"<<std::endl;
}
itr->setEtaPacked(gblEta.global_eta);
if(itr->station() == 1 ) {
//&& itr->cscId() > 6) { //only ring 3
itr->setPhiPacked(gblPhiDT.global_phi);// convert the DT to convert
dt_stubs.push_back(*itr); // send stubs to DT
}
//reconvert the ME1 LCT to the CSCTF units.
//the same iterator is used to fill two containers,
//the CSCTF one (stub_vec_filtered) and LCTs sent to DTTF (dt_stubs)
itr->setPhiPacked(gblPhi.global_phi);
LogDebug("CSCTFSectorProcessor:run()") << "LCT found, processed by FPGA: " << FPGAs[fpga] << std::endl
<< " LCT now has (eta, phi) of: (" << itr->etaValue() << "," << itr->phiValue() <<")\n";
}
}
CSCTriggerContainer<csctf::TrackStub> processedStubs(stub_vec_filtered);
std::vector<csc::L1Track> tftks;
if(run_core){
core_->loadData(processedStubs, m_endcap, m_sector, m_minBX, m_maxBX);
if( core_->run(m_endcap, m_sector, m_latency,
m_etamin[0], m_etamin[1], m_etamin[2], m_etamin[3],
m_etamin[4], m_etamin[5], m_etamin[6], m_etamin[7],
m_etamax[0], m_etamax[1], m_etamax[2], m_etamax[3],
m_etamax[4], m_etamax[5], m_etamax[6], m_etamax[7],
m_etawin[0], m_etawin[1], m_etawin[2],
m_etawin[3], m_etawin[4], m_etawin[5], m_etawin[6],
m_mindphip, m_mindetap,
m_mindeta12_accp, m_maxdeta12_accp, m_maxdphi12_accp,
m_mindeta13_accp, m_maxdeta13_accp, m_maxdphi13_accp,
m_mindeta112_accp, m_maxdeta112_accp, m_maxdphi112_accp,
m_mindeta113_accp, m_maxdeta113_accp, m_maxdphi113_accp,
m_mindphip_halo, m_mindetap_halo,
m_straightp, m_curvedp,
m_mbaPhiOff, m_mbbPhiOff,
m_bxa_depth, m_allowALCTonly, m_allowCLCTonly, m_preTrigger, m_widePhi,
m_minBX, m_maxBX) )
{
l1_tracks = core_->tracks();
}
tftks = l1_tracks.get();
std::vector<csc::L1Track>::iterator titr = tftks.begin();
for(; titr != tftks.end(); titr++)
{
ptadd thePtAddress(titr->ptLUTAddress());
ptdat thePtData = ptLUT_->Pt(thePtAddress);
if(thePtAddress.track_fr)
{
titr->setRank(thePtData.front_rank);
titr->setChargeValidPacked(thePtData.charge_valid_front);
}
else
{
titr->setRank(thePtData.rear_rank);
titr->setChargeValidPacked(thePtData.charge_valid_rear);
}
if( ((titr->ptLUTAddress()>>16)&0xf)==15 )
{
int unmodBx = titr->bx();
titr->setBx(unmodBx+2);
}
}
} //end of if(run_core)
l1_tracks = tftks;
// Add-on for singles:
CSCTriggerContainer<csctf::TrackStub> myStubContainer[7]; //[BX]
// Loop over CSC LCTs if triggering on them:
if( trigger_on_ME1a || trigger_on_ME1b || trigger_on_ME2 || trigger_on_ME3 || trigger_on_ME4 || trigger_on_MB1a || trigger_on_MB1d )
for(std::vector<csctf::TrackStub>::iterator itr=stub_vec_filtered.begin(); itr!=stub_vec_filtered.end(); itr++){
int station = itr->station()-1;
if(station != 4){
int subSector = CSCTriggerNumbering::triggerSubSectorFromLabels(CSCDetId(itr->getDetId().rawId()));
int mpc = ( subSector ? subSector-1 : station+1 );
if( (mpc==0&&trigger_on_ME1a) || (mpc==1&&trigger_on_ME1b) ||
(mpc==2&&trigger_on_ME2) || (mpc==3&&trigger_on_ME3) ||
(mpc==4&&trigger_on_ME4) ||
(mpc==5&& ( (trigger_on_MB1a&&subSector%2==1) || (trigger_on_MB1d&&subSector%2==0) ) ) ){
int bx = itr->getBX() - m_minBX;
if( bx<0 || bx>=7 ) edm::LogWarning("CSCTFTrackBuilder::buildTracks()") << " LCT BX is out of ["<<m_minBX<<","<<m_maxBX<<") range: "<<itr->getBX();
else
if( itr->isValid() ) myStubContainer[bx].push_back(*itr);
}
}
}
// Core's input was loaded in a relative time window BX=[0-7)
// To relate it to time window of tracks (centred at BX=0) we introduce a shift:
int shift = (m_maxBX + m_minBX)/2 - m_minBX;
// Now we put tracks from singles in a certain bx
// if there were no tracks from the core in this endcap/sector/bx
CSCTriggerContainer<csc::L1Track> tracksFromSingles;
for(int bx=0; bx<7; bx++)
if( myStubContainer[bx].get().size() ){ // VP in this bx
bool coreTrackExists = false;
// tracks are not ordered to be accessible by bx => loop them all
std::vector<csc::L1Track> tracks = l1_tracks.get();
for(std::vector<csc::L1Track>::iterator trk=tracks.begin(); trk<tracks.end(); trk++)
if( (trk->BX() == bx-shift && trk->outputLink() == singlesTrackOutput)
|| (((trk->ptLUTAddress()>>16)&0xf)==15 && trk->BX()-2 == bx-shift) ){
coreTrackExists = true;
break;
}
if( coreTrackExists == false ){
csc::L1TrackId trackId(m_endcap,m_sector);
csc::L1Track track(trackId);
track.setBx(bx-shift);
track.setOutputLink(singlesTrackOutput);
//CSCCorrelatedLCTDigiCollection singles;
std::vector<csctf::TrackStub> stubs = myStubContainer[bx].get();
// Select best quality stub, and assign its eta/phi coordinates to the track
int qualityME=0, qualityMB=0, ME=100, MB=100, linkME=7;
std::vector<csctf::TrackStub>::const_iterator bestStub=stubs.end();
for(std::vector<csctf::TrackStub>::const_iterator st_iter=stubs.begin(); st_iter!=stubs.end(); st_iter++){
int station = st_iter->station()-1;
int subSector = CSCTriggerNumbering::triggerSubSectorFromLabels(CSCDetId(st_iter->getDetId().rawId()));
int mpc = ( subSector ? subSector-1 : station+1 );
// Sort MB stubs first (priority: quality OR MB1a > MB1b for the same quality)
if( mpc==5 && (st_iter->getQuality()>qualityMB || (st_iter->getQuality()==qualityMB&&subSector<MB)) ){
qualityMB = st_iter->getQuality();
MB = subSector;
if(ME>4) bestStub = st_iter; // do not select this stub if ME already had any candidate
}
// Sort ME stubs (priority: quality OR ME1a > ME1b > ME2 > ME3 > ME4 for the same quality)
if( mpc<5 && (st_iter->getQuality()> qualityME
|| (st_iter->getQuality()==qualityME && mpc< ME)
|| (st_iter->getQuality()==qualityME && mpc==ME && st_iter->getMPCLink()<linkME))) {
qualityME = st_iter->getQuality();
ME = mpc;
linkME = st_iter->getMPCLink();
bestStub = st_iter;
}
}
unsigned rescaled_phi = 999;
if (m_firmSP <= 20100210) {
// buggy implementation of the phi for singles in the wrapper...
// at the end data/emulator have to agree: e.g. wrong in the same way
// BUG: getting the lowest 7 bits instead the 7 most significant ones.
rescaled_phi = unsigned(24*(bestStub->phiPacked()&0x7f)/128.);
}
else {
// correct implementation :-)
rescaled_phi = unsigned(24*(bestStub->phiPacked()>>5)/128.);
}
unsigned unscaled_phi = bestStub->phiPacked()>>7 ;
track.setLocalPhi(rescaleSinglesPhi?rescaled_phi:unscaled_phi);
track.setEtaPacked((bestStub->etaPacked()>>2)&0x1f);
switch( bestStub->station() ){
case 1: track.setStationIds(bestStub->getMPCLink(),0,0,0,0); break;
case 2: track.setStationIds(0,bestStub->getMPCLink(),0,0,0); break;
case 3: track.setStationIds(0,0,bestStub->getMPCLink(),0,0); break;
case 4: track.setStationIds(0,0,0,bestStub->getMPCLink(),0); break;
case 5: track.setStationIds(0,0,0,0,bestStub->getMPCLink()); break;
default: edm::LogError("CSCTFSectorProcessor::run()") << "Illegal LCT link="<<bestStub->station()<<"\n"; break;
}
// singles.insertDigi(CSCDetId(st_iter->getDetId().rawId()),*st_iter);
//tracksFromSingles.push_back(L1CSCTrack(track,singles));
track.setPtLUTAddress( (1<<16) | ((bestStub->etaPacked()<<9)&0xf000) );
ptadd thePtAddress( track.ptLUTAddress() );
ptdat thePtData = ptLUT_->Pt(thePtAddress);
if( thePtAddress.track_fr ){
track.setRank(thePtData.front_rank);
track.setChargeValidPacked(thePtData.charge_valid_front);
} else {
track.setRank(thePtData.rear_rank);
track.setChargeValidPacked(thePtData.charge_valid_rear);
}
tracksFromSingles.push_back(track);
}
}
std::vector<csc::L1Track> single_tracks = tracksFromSingles.get();
if( single_tracks.size() ) l1_tracks.push_many(single_tracks);
// End of add-on for singles
return (l1_tracks.get().size() > 0);
}
| CSCTriggerContainer<csc::L1Track> CSCTFSectorProcessor::tracks | ( | void | ) | const [inline] |
Definition at line 46 of file CSCTFSectorProcessor.h.
References l1_tracks.
Referenced by CSCTFTrackBuilder::buildTracks(), and run().
{ return l1_tracks; }
CSCTFSPCoreLogic* CSCTFSectorProcessor::core_ [private] |
Definition at line 105 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), run(), and ~CSCTFSectorProcessor().
Definition at line 99 of file CSCTFSectorProcessor.h.
std::map<int, int> CSCTFSectorProcessor::firmSP_Map [private] |
Definition at line 109 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), and initialize().
const std::string CSCTFSectorProcessor::FPGAs = {"F1","F2","F3","F4","F5"} [static, private] |
Definition at line 102 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), run(), and ~CSCTFSectorProcessor().
bool CSCTFSectorProcessor::initFail_ [private] |
Definition at line 111 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), and run().
bool CSCTFSectorProcessor::initializeFromPSet [private] |
Definition at line 65 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), and initialize().
bool CSCTFSectorProcessor::isCoreVerbose [private] |
Definition at line 110 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), and initialize().
int CSCTFSectorProcessor::kill_fiber [private] |
Definition at line 88 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
Definition at line 98 of file CSCTFSectorProcessor.h.
int CSCTFSectorProcessor::m_allowALCTonly [private] |
Definition at line 70 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_allowCLCTonly [private] |
Definition at line 70 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_bxa_depth [private] |
Definition at line 70 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_curvedp [private] |
Definition at line 79 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
unsigned CSCTFSectorProcessor::m_endcap [private] |
Definition at line 66 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), and run().
int CSCTFSectorProcessor::m_etamax[8] [private] |
Definition at line 72 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_etamin[8] [private] |
Definition at line 72 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_etawin[7] [private] |
Definition at line 72 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_firmDD [private] |
Definition at line 96 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), and readParameters().
int CSCTFSectorProcessor::m_firmFA [private] |
Definition at line 96 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), and readParameters().
int CSCTFSectorProcessor::m_firmSP [private] |
Definition at line 96 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_firmVM [private] |
Definition at line 96 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), and readParameters().
bool CSCTFSectorProcessor::m_gangedME1a [private] |
Definition at line 63 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), and run().
unsigned CSCTFSectorProcessor::m_latency [private] |
Definition at line 67 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), and run().
int CSCTFSectorProcessor::m_maxBX [private] |
Definition at line 71 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), maxBX(), and run().
int CSCTFSectorProcessor::m_maxdeta112_accp [private] |
Definition at line 76 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_maxdeta113_accp [private] |
Definition at line 77 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_maxdeta12_accp [private] |
Definition at line 74 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_maxdeta13_accp [private] |
Definition at line 75 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_maxdphi112_accp [private] |
Definition at line 76 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_maxdphi113_accp [private] |
Definition at line 77 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_maxdphi12_accp [private] |
Definition at line 74 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_maxdphi13_accp [private] |
Definition at line 75 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_mbaPhiOff [private] |
Definition at line 80 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_mbbPhiOff [private] |
Definition at line 80 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_minBX [private] |
Definition at line 71 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), minBX(), and run().
int CSCTFSectorProcessor::m_mindeta112_accp [private] |
Definition at line 76 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_mindeta113_accp [private] |
Definition at line 77 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_mindeta12_accp [private] |
Definition at line 74 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_mindeta13_accp [private] |
Definition at line 75 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_mindetap [private] |
Definition at line 73 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_mindetap_halo [private] |
Definition at line 78 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_mindphip [private] |
Definition at line 73 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_mindphip_halo [private] |
Definition at line 78 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_preTrigger [private] |
Definition at line 70 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
unsigned CSCTFSectorProcessor::m_sector [private] |
Definition at line 66 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), and run().
int CSCTFSectorProcessor::m_straightp [private] |
Definition at line 79 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::m_widePhi [private] |
Definition at line 81 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
CSCTFPtLUT* CSCTFSectorProcessor::ptLUT_ [private] |
Definition at line 106 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), run(), and ~CSCTFSectorProcessor().
int CSCTFSectorProcessor::QualityEnableME1a [private] |
Definition at line 84 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::QualityEnableME1b [private] |
Definition at line 84 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::QualityEnableME1c [private] |
Definition at line 84 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::QualityEnableME1d [private] |
Definition at line 84 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::QualityEnableME1e [private] |
Definition at line 84 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::QualityEnableME1f [private] |
Definition at line 84 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::QualityEnableME2a [private] |
Definition at line 85 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::QualityEnableME2b [private] |
Definition at line 85 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::QualityEnableME2c [private] |
Definition at line 85 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::QualityEnableME3a [private] |
Definition at line 86 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::QualityEnableME3b [private] |
Definition at line 86 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::QualityEnableME3c [private] |
Definition at line 86 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::QualityEnableME4a [private] |
Definition at line 87 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::QualityEnableME4b [private] |
Definition at line 87 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::QualityEnableME4c [private] |
Definition at line 87 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::rescaleSinglesPhi [private] |
Definition at line 94 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::run_core [private] |
Definition at line 89 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
unsigned int CSCTFSectorProcessor::singlesTrackOutput [private] |
Definition at line 93 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::singlesTrackPt [private] |
Definition at line 92 of file CSCTFSectorProcessor.h.
std::map<std::string, CSCSectorReceiverLUT*> CSCTFSectorProcessor::srLUTs_ [private] |
Definition at line 104 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), run(), and ~CSCTFSectorProcessor().
std::vector<csctf::TrackStub> CSCTFSectorProcessor::stub_vec_filtered [private] |
Definition at line 100 of file CSCTFSectorProcessor.h.
Referenced by filteredStubs(), and run().
unsigned CSCTFSectorProcessor::TMB07 [private] |
Definition at line 66 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor().
int CSCTFSectorProcessor::trigger_on_MB1a [private] |
Definition at line 91 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::trigger_on_MB1d [private] |
Definition at line 91 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::trigger_on_ME1a [private] |
Definition at line 90 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::trigger_on_ME1b [private] |
Definition at line 90 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::trigger_on_ME2 [private] |
Definition at line 90 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::trigger_on_ME3 [private] |
Definition at line 90 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
int CSCTFSectorProcessor::trigger_on_ME4 [private] |
Definition at line 90 of file CSCTFSectorProcessor.h.
Referenced by CSCTFSectorProcessor(), initialize(), readParameters(), and run().
1.7.3