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Object used to process Events and compute statistics. More...
#include <CSCDQM_EventProcessor.h>
Public Member Functions | |
| EventProcessor (Configuration *const p_config) | |
| Constructor. | |
| void | init () |
| Initialize EventProcessor: reading out config information. | |
| unsigned int | maskHWElements (std::vector< std::string > &tokens) |
| Mask HW elements from the efficiency calculations. Can be applied on runtime! | |
| void | standbyEfficiencyHistos (HWStandbyType &standby) |
| apply standby flags/parameters | |
| void | updateEfficiencyHistos () |
| Update Efficiency MOs. | |
| void | updateFractionHistos () |
| Update Fractional MOs. | |
| void | writeShifterHistograms () |
| ~EventProcessor () | |
| Destructor. | |
Private Member Functions | |
| void | calcEMUFractionHisto (const HistoId &result, const HistoId &set, const HistoId &subset) |
| Calculate fractional histogram. | |
| const bool | getCSCFromMap (const unsigned int &crateId, const unsigned int &dmbId, unsigned int &cscType, unsigned int &cscPosition) const |
| Get CSC type and position from crate and dmb identifiers. | |
| const bool | getCSCHisto (const HistoId &histo, const HwId &crateID, const HwId &dmbSlot, MonitorObject *&me) |
| Get CSC (Chamber) Level Monitoring Object. | |
| const bool | getCSCHisto (const HistoId &histo, const HwId &crateID, const HwId &dmbSlot, const HwId &adId, MonitorObject *&me) |
| Get CSC (Chamber) Level Monitoring Object with additional identifier. | |
| const bool | getDDUHisto (const HistoId &histo, const HwId &dduID, MonitorObject *&me) |
| Get DDU Level Monitoring Object. | |
| const bool | getEMUHisto (const HistoId &histo, MonitorObject *&me) |
| Get EMU (Top Level) Monitoring Object. | |
| const bool | getFEDHisto (const HistoId &histo, const HwId &fedID, MonitorObject *&me) |
| Get FED Level Monitoring Object. | |
| const bool | getParHisto (const HistoId &histo, MonitorObject *&me) |
| Get Parameter Monitoring Object. | |
| void | preProcessEvent () |
| Common Local and Global DQM function to be called before processing Event. | |
| void | processCSC (const CSCEventData &data, const int dduID, const CSCDCCExaminer &binChecker) |
| Process Chamber Data and fill MOs. | |
| void | processDDU (const CSCDDUEventData &data, const CSCDCCExaminer &binChecker) |
| Process DDU output and fill MOs. | |
| bool | processExaminer (const CSCDCCExaminer &binChecker, const CSCDCCFormatStatusDigi &digi) |
| Fill monitor elements with CSCDCCFormatStatusDigi information. | |
| bool | processExaminer (const CSCDCCExaminer &binChecker) |
| void | resetEmuEventDisplays () |
| Reset Emu level EventDisplay histograms once per event. | |
| void | setEmuEventDisplayBit (MonitorObject *&mo, const unsigned int x, const unsigned int y, const unsigned int bit) |
| Set a single bit in the 3D Histogram (aka EMU level event display). Checks if mo and x != null. | |
Private Attributes | |
| uint32_t | BXN |
| uint32_t | cntALCTs |
| Total Number of CFEBs per event from DMB DAV. | |
| uint32_t | cntCFEBs |
| Total Number of DMBs per event from DDU Header DAV. | |
| uint32_t | cntDMBs |
| uint32_t | cntTMBs |
| Total Number of ALCTs per event from DMB DAV. | |
| Configuration * | config |
| bool | EmuEventDisplayWasReset |
| bool | fCloseL1As |
| Total Number of TMBs per event from DMB DAV. | |
| std::map< uint32_t, bool > | fNotFirstEvent |
| uint32_t | L1ANumber |
| std::map< uint32_t, uint32_t > | L1ANumbers |
| Summary | summary |
Object used to process Events and compute statistics.
Definition at line 111 of file CSCDQM_EventProcessor.h.
| cscdqm::EventProcessor::EventProcessor | ( | Configuration *const | p_config | ) |
Constructor.
| p_config | Pointer to Global Configuration. |
Definition at line 28 of file CSCDQM_EventProcessor.cc.
References config, and fCloseL1As.
{
config = p_config;
// fFirstEvent = true;
fCloseL1As = true;
}
| cscdqm::EventProcessor::~EventProcessor | ( | ) | [inline] |
| void cscdqm::EventProcessor::calcEMUFractionHisto | ( | const HistoId & | result, |
| const HistoId & | set, | ||
| const HistoId & | subset | ||
| ) | [private] |
Calculate fractional histogram.
| result | Histogram to write results to |
| set | Histogram of the set |
| subset | Histogram of the subset |
Definition at line 90 of file CSCDQM_EventProcessor_updateFracHistos.cc.
References getEMUHisto(), cscdqm::MonitorObject::getTH1Lock(), CommonMethods::lock(), cscdqm::Lock::mutex, and cscdqm::MonitorObject::SetMaximum().
Referenced by updateFractionHistos().
{
MonitorObject *mo = 0, *mo1 = 0, *mo2 = 0;
if (getEMUHisto(result, mo) && getEMUHisto(set, mo2) && getEMUHisto(subset, mo1)) {
LockType lock(mo->mutex);
TH1* th = mo->getTH1Lock();
th->Reset();
th->Divide(mo1->getTH1(), mo2->getTH1());
mo->SetMaximum(1.);
}
}
| const bool cscdqm::EventProcessor::getCSCFromMap | ( | const unsigned int & | crateId, |
| const unsigned int & | dmbId, | ||
| unsigned int & | cscType, | ||
| unsigned int & | cscPosition | ||
| ) | const [private] |
Get CSC type and position from crate and dmb identifiers.
| crateId | CSC crate identifier |
| dmbId | CSC DMB identifier |
| cscType | CSC Type identifier to return |
| cscPosition | CSC Position identifier to return |
Definition at line 137 of file CSCDQM_EventProcessor.cc.
References CSCDetId::chamber(), config, CSCDetId::endcap(), cscdqm::Configuration::fnGetCSCDetId, cscdqm::Utility::getCSCTypeBin(), cscdqm::Utility::getCSCTypeLabel(), query::result, CSCDetId::ring(), and CSCDetId::station().
Referenced by processCSC(), and processExaminer().
{
bool result = false;
CSCDetId cid;
if (config->fnGetCSCDetId(crateId, dmbId, cid)) {
cscPosition = cid.chamber();
int iring = cid.ring();
int istation = cid.station();
int iendcap = cid.endcap();
std::string tlabel = cscdqm::Utility::getCSCTypeLabel(iendcap, istation, iring);
cscType = cscdqm::Utility::getCSCTypeBin(tlabel);
result = true;
}
/*
if (!result) {
LOG_ERROR << "Event #" << config->getNEvents() << ": Invalid CSC=" << CSCHistoDef::getPath(crateId, dmbId);
}
*/
return result;
}
| const bool cscdqm::EventProcessor::getCSCHisto | ( | const HistoId & | histo, |
| const HwId & | crateID, | ||
| const HwId & | dmbSlot, | ||
| const HwId & | adId, | ||
| MonitorObject *& | me | ||
| ) | [private] |
Get CSC (Chamber) Level Monitoring Object with additional identifier.
| histo | MO identification |
| crateID | Chamber Crate identifier |
| dmbSlot | Chamber DMB identifier |
| adId | Additional identifier, i.e. Layer number, CLCT number, etc. |
| me | MO to return |
Definition at line 109 of file CSCDQM_EventProcessor.cc.
References config, cscdqm::Configuration::fnGetCacheCSCHisto, cscdqm::Configuration::fnGetHisto, and NULL.
| const bool cscdqm::EventProcessor::getCSCHisto | ( | const HistoId & | histo, |
| const HwId & | crateID, | ||
| const HwId & | dmbSlot, | ||
| MonitorObject *& | me | ||
| ) | [private] |
Get CSC (Chamber) Level Monitoring Object.
| histo | MO identification |
| crateID | Chamber Crate identifier |
| dmbSlot | Chamber DMB identifier |
| me | MO to return |
Definition at line 92 of file CSCDQM_EventProcessor.cc.
References config, cscdqm::Configuration::fnGetCacheCSCHisto, cscdqm::Configuration::fnGetHisto, and NULL.
Referenced by processCSC(), processExaminer(), and updateFractionHistos().
| const bool cscdqm::EventProcessor::getDDUHisto | ( | const HistoId & | histo, |
| const HwId & | dduID, | ||
| MonitorObject *& | me | ||
| ) | [private] |
Get DDU Level Monitoring Object.
| histo | MO identification |
| dduID | DDU identifier |
| me | MO to return |
Definition at line 77 of file CSCDQM_EventProcessor.cc.
References config, cscdqm::Configuration::fnGetCacheDDUHisto, cscdqm::Configuration::fnGetHisto, and NULL.
Referenced by processDDU().
| const bool cscdqm::EventProcessor::getEMUHisto | ( | const HistoId & | histo, |
| MonitorObject *& | me | ||
| ) | [private] |
Get EMU (Top Level) Monitoring Object.
| histo | MO identification |
| me | MO to return |
Definition at line 49 of file CSCDQM_EventProcessor.cc.
References config, cscdqm::Configuration::fnGetCacheEMUHisto, cscdqm::Configuration::fnGetHisto, and NULL.
Referenced by calcEMUFractionHisto(), processCSC(), processDDU(), processExaminer(), resetEmuEventDisplays(), standbyEfficiencyHistos(), updateEfficiencyHistos(), and writeShifterHistograms().
| const bool cscdqm::EventProcessor::getFEDHisto | ( | const HistoId & | histo, |
| const HwId & | fedID, | ||
| MonitorObject *& | me | ||
| ) | [private] |
Get FED Level Monitoring Object.
| histo | MO identification |
| fedID | FED identifier |
| me | MO to return |
Definition at line 63 of file CSCDQM_EventProcessor.cc.
References config, cscdqm::Configuration::fnGetCacheFEDHisto, cscdqm::Configuration::fnGetHisto, and NULL.
| const bool cscdqm::EventProcessor::getParHisto | ( | const HistoId & | histo, |
| MonitorObject *& | me | ||
| ) | [private] |
Get Parameter Monitoring Object.
| histo | MO identification |
| me | MO to return |
Definition at line 122 of file CSCDQM_EventProcessor.cc.
References config, cscdqm::Configuration::fnGetCacheParHisto, cscdqm::Configuration::fnGetHisto, and NULL.
Referenced by updateEfficiencyHistos().
| void cscdqm::EventProcessor::init | ( | void | ) |
Initialize EventProcessor: reading out config information.
Definition at line 39 of file CSCDQM_EventProcessor.cc.
Referenced by cscdqm::Dispatcher::init().
{
}
| unsigned int cscdqm::EventProcessor::maskHWElements | ( | std::vector< std::string > & | tokens | ) |
Mask HW elements from the efficiency calculations. Can be applied on runtime!
| tokens | String tokens of the HW elements |
Definition at line 167 of file CSCDQM_EventProcessor.cc.
References LOG_INFO, cscdqm::Summary::setMaskedHWElements(), and summary.
Referenced by cscdqm::EventProcessorMutex::maskHWElements().
| void cscdqm::EventProcessor::preProcessEvent | ( | ) | [private] |
Common Local and Global DQM function to be called before processing Event.
Definition at line 27 of file CSCDQM_EventProcessor_processEvent.cc.
References config, EmuEventDisplayWasReset, and cscdqm::Configuration::incNEvents().
{
config->incNEvents();
EmuEventDisplayWasReset = false;
}
| void cscdqm::EventProcessor::processCSC | ( | const CSCEventData & | data, |
| const int | dduID, | ||
| const CSCDCCExaminer & | binChecker | ||
| ) | [private] |
Process Chamber Data and fill MOs.
| data | Chamber data to process |
| dduID | DDU identifier |
DMB Found
Unpacking of DMB Header and trailer
Unpacking of Chamber Identification number
Efficiency of the chamber
Unpacking L1A number from DMB header
DMB L1A: 8bits (256)
DDU L1A: 24bits
Calculate difference between L1A numbers from DDU and DMB
LOG_DEBUG << dmbHeaderL1A << " : DMB L1A - DDU L1A = " << dmb_ddu_l1a_diff;
Unpacking BXN number from DMB header
== DMB BXN: 12bits (4096) call bxn12(), bxn() return 7bits value
== DDU BXN: 12bits (4096)
== Use 6-bit BXN
Calculation difference between BXN numbers from DDU and DMB
dmb_ddu_bxn_diff = (int)(dmbHeaderBXN-(int)(BXN&0x7F)); // For older DMB
LOG_DEBUG << dmbHeaderBXN << " : DMB BXN - DDU BXN = " << dmb_ddu_bxn_diff;
if (getCSCHisto(h::CSC_DMB_BXN_VS_DDU_BXN, crateID, dmbID, mo)) mo->Fill((int)(BXN), (int)dmbHeaderBXN);
Unpacking CFEB information from DMB header
mo->SetEntries(config->getNEvents());
if (getCSCHisto(h::CSC_DMB_CFEB_ACTIVE, crateID, dmbID, mo) mo->Fill((dmbTrailer->header_1a>>5)&0x1F); //KK
if (getCSCHisto(h::CSC_DMB_CFEB_ACTIVE_VS_DAV, crateID, dmbID, mo)) mo->Fill(dmbHeader->cfebAvailable(),(int)((dmbTrailer->header_1a>>5)&0x1F)); //KK
if (getCSCHisto(h::CSC_DMB_CFEB_ACTIVE_VS_DAV, crateID, dmbID, mo)) mo->Fill(dmbHeader->cfebAvailable(),dmbHeader->cfebActive()); //KK
DMB input (7 in total) FIFO stuff goes here
DMB input timeout (total 15 bits) goes here
Get FEBs Data Available Info
Fill Hisogram for FEB DAV Efficiency
Fill Hisogram for Different Combinations of FEB DAV Efficiency
ALCT Found
Set number of ALCT-events to third bin
KK
h[hname]->SetBinContent(3, ((float)ALCTEvent/(float)(config->getNEvents()) * 100.0));
KKend
== ALCT2007 L1A: 12bits (4096)
== ALCT2006 L1A: 4bits (16)
== Use 6-bit L1A
int alct_dmb_l1a_diff = (int)((dmbHeader->l1a()&0xF)-alctHeader->L1Acc());
if (getCSCHisto(h::CSC_DMB_L1A_VS_ALCT_L1A, crateID, dmbID, mo)) mo->Fill(alctHeader->L1Acc(),dmbHeader->l1a());
=== ALCT BXN: 12bits (4096)
=== Use 6-bit BXN
if (getCSCHisto(h::CSC_ALCT_BXN_VS_DMB_BXN, crateID, dmbID, mo)) mo->Fill((int)((alctHeader->BXNCount())), (int)(dmbHeader->bxn()));
LOG_DEBUG << "ALCT Trailer Word Count = " << dec << (int)alctTrailer->wordCount();
TODO: Add support for more than 2 ALCTs
int tbin = wireDigisItr->getBeamCrossingTag();
ALCT not found
ALCT and CLCT coinsidence
if (getCSCHisto(h::CSC_TMB_BXN_VS_ALCT_BXN, crateID, dmbID, mo)) mo->Fill((int)((alctHeader->BXNCount())),(int)(tmbHeader->BXNCount()));
CLCT Found
LOG_WARN << "TMB CRC calc: 0x" << std::hex << data.tmbData().TMBCRCcalc() << " trailer: 0x" << std::hex << data.tmbData().tmbTrailer().crc22();
Set number of CLCT-events to forth bin
Use 6-bit L1A
if (getCSCHisto(h::CSC_DMB_L1A_VS_CLCT_L1A, crateID, dmbID, mo)) mo->Fill(tmbHeader->L1ANumber(),dmbHeader->l1a());
if (getCSCHisto(h::CSC_CLCT_BXN_VS_DMB_BXN, crateID, dmbID, mo)) mo->Fill(tmbHeader->BXNCount(),dmbHeader->bxn());
LOG_DEBUG << "TMB Trailer Word Count = " << dec << (int)tmbTrailer->wordCount();
LOG_DEBUG << "CLCT BX = " << clctsDatas[lct].getBX() << " TMB BX = " << tmbHeader->BXNCount() << " 03 = " << (int)(tmbHeader->BXNCount()&0x3);
LOG_DEBUG << "diff = " << clctsDatas[lct].getBX()-(tmbHeader->BXNCount()&0x3);
int pattern_clct = (int)((clctsDatas[lct].getPattern()>>1)&0x3);
pattern_clct = Number of patterns in CLCT
Last (left) bit is bend. Positive bend = 1, negative bend = 0
pattern_clct = Number of patterns in CLCT
Last (left) bit is bend. Positive bend = 1, negative bend = 0
=VB= Fix to get right hafstrip
if (norm < 1.0) norm=1;
CLCT not found
CFEB found
bool DebugCFEB = false;
--------------B
int NmbCell, SCA_Nmb_FC;
--------------E
--------------B
int TrigTimeData[N_CFEBs*16][N_Samples][N_Layers];
memset(TrigTimeData, 0, sizeof(TrigTimeData));
--------------E
CFEB Found
-------------B
-------------E
LOG_DEBUG << "NEvents = " << config->getNEvents();
LOG_DEBUG << "Chamber ID = "<< cscTag << " Crate ID = "<< crateID << " DMB ID = " << dmbID << "nCFEB =" << nCFEB;
=VB= Optimizations for faster histogram object access
LOG_DEBUG << " nSample = " << nSample;
=VB= Optimizations for faster histogram object access
if (mo_CFEB_DMB_L1A_diff)
LOG_DEBUG << " nSample = " << nSample;
for(int nLayer = 1; nLayer <= N_Layers; ++nLayer)
--------------B
L1_Pipe_Count = (timeSlice[nCFEB][nSample])->get_L1A_number();
LOG_DEBUG << "SCA BLOCK: Chamber=" << chamberID << " CFEB=" << nCFEB + 1
<<" TRIGTIME="<<TrigTime<<" TimeSlice="<<nSample+1<<" Layer="<<nLayer<<" SCA_BLK="<<SCA_BLK;
if(res<=1) TrigTimeData[nCFEB*16+nStrip][nSample][nLayer-1] = TrigTime;
LOG_DEBUG << "*********"<<" TRIGTIME="<<TrigTime<<" BIT COUNT="<<bit_count;
SCA Block Occupancy Histograms
if (getCSCHisto(h::CSC_CFEBXX_SCA_BLOCK_OCCUPANCY, crateID, dmbID, nCFEB + 1, mo)) mo->Fill(SCA_BLK);
Free SCA Cells
if (getCSCHisto(h::CSC_CFEBXX_FREE_SCA_CELLS, crateID, dmbID, nCFEB + 1, mo))
Number of SCA Blocks Locked by LCTs
if (getCSCHisto(h::CSC_CFEBXX_SCA_BLOCKS_LOCKED_BY_LCTS, crateID, dmbID, nCFEB + 1, mo))
Number of SCA Blocks Locked by LCTxL1
if (getCSCHisto(h::CSC_CFEBXX_SCA_BLOCKS_LOCKED_BY_LCTXL1, crateID, dmbID, nCFEB + 1, mo))
--------------E
LOG_DEBUG << "nCFEB " << nCFEB << " nSample " << nSample << " nLayer " << nLayer << " TrigTime " << TrigTime;
LOG_DEBUG << "L1APhase " << L1APhase << " UnpackedTrigTime " << UnpackedTrigTime;
LOG_DEBUG << " nStrip="<< dec << nStrip << " ADC=" << std::hex << ADC;
LOG_DEBUG << " nStrip="<< dec << nStrip << " Pedestal=" << std::hex << Pedestal[nCFEB][nLayer-1][nStrip-1];
if (getCSCHisto(h::CSC_CFEB_OUT_OFF_RANGE_STRIPS_LYXX, crateID, dmbID, nLayer, mo))
if (getCSCHisto(h::CSC_CFEB_ACTIVE_SAMPLES_VS_STRIP_LYXX, crateID, dmbID, nLayer, mo))
if (getCSCHisto(h::CSC_CFEB_ACTIVE_SAMPLES_VS_STRIP_LYXX_PROFILE, crateID, dmbID, nLayer, mo))
if (getCSCHisto(h::CSC_CFEB_ACTIVESTRIPS_LYXX, crateID, dmbID, nLayer, mo))
--------------B
LOG_DEBUG << "Layer="<<nLayer<<" Strip="<<nCFEB*16+nStrip<<" Time="<<nSample << " ADC-PEDEST = "<<ADC - Pedestal[nCFEB][nLayer-1][nStrip-1];
--------------E
continue;
--------------B
if (getCSCHisto(h::CSC_CFEB_PEDESTAL__WITHEMV__SAMPLE_01_LYXX, crateID, dmbID, nLayer, mo))
if (getCSCHisto(h::CSC_CFEB_PEDESTAL__WITHRMS__SAMPLE_01_LYXX, crateID, dmbID, nLayer, mo))
if (getCSCHisto(h::CSC_CFEB_PEDESTALRMS_SAMPLE_01_LYXX, crateID, dmbID, nLayer, mo))
--------------E
--------------B
Refactored for performance (VR)
StripClusterFinder *ClusterFinder = new StripClusterFinder(N_Layers, N_Samples, N_CFEBs, N_Strips);
LOG_DEBUG << "*** CATHODE PART DEBUG: Layer=" << nLayer <<" Number of Clusters=" << Clus.size() << " ***";
Number of Clusters Histograms
LOG_DEBUG << "Strip: " << Clus[u].ClusterPulseMapHeight[k].channel_+1;
Clusters Charge Histograms
Width of Clusters Histograms
Cluster Duration Histograms
delete ClusterFinder;
--------------E
Fill Hisogram for Different Combinations of FEBs Unpacked vs DAV
Definition at line 83 of file CSCDQM_EventProcessor_processCSC.cc.
References a, abs, CSCCFEBDataWord::adcCounts, CSCCFEBDataWord::adcOverflow, CSCDMBTrailer::alct_empty, CSCDMBTrailer::alct_endtimeout, CSCDMBTrailer::alct_full, CSCDMBTrailer::alct_half, CSCDMBTrailer::alct_timeout, cscdqm::ALCT_TRIGGERS, CSCEventData::alctData(), CSCALCTHeader::ALCTDigis(), CSCALCTHeader::alctFirmwareVersion(), CSCEventData::alctHeader(), CSCTMBHeader::ALCTMatchTime(), CSCTMBHeader::ALCTOnly(), CSCEventData::alctTrailer(), b, BXN, CSCTMBHeader::Bxn0Diff(), CSCDMBHeader::bxn12(), CSCTMBHeader::Bxn1Diff(), CSCALCTHeader::BXNCount(), CSCTMBHeader::BXNCount(), CSCDMBTrailer::cfeb_empty, CSCDMBTrailer::cfeb_endtimeout, CSCDMBTrailer::cfeb_full, CSCDMBTrailer::cfeb_half, CSCDMBTrailer::cfeb_starttimeout, cscdqm::CFEB_TRIGGERS, CSCDMBHeader::cfebActive(), CSCDMBHeader::cfebAvailable(), CSCEventData::cfebData(), CSCDMBHeader::cfebMovlp(), cscd2r::chamberID(), CSCCLCTData::check(), CSCCFEBData::check(), cscdqm::CLCT_TRIGGERS, CSCEventData::clctData(), CSCTMBHeader::CLCTDigis(), CSCTMBHeader::CLCTOnly(), CSCCLCTData::comparatorDigis(), config, cscdqm::Configuration::copyChamberCounterValue(), CSCDMBHeader::crateID(), cscdqm::DMB_EVENTS, CSCDMBTrailer::dmb_l1pipe, cscdqm::DMB_TRIGGERS, CSCDMBHeader::dmbCfebSync(), CSCEventData::dmbHeader(), CSCDMBHeader::dmbID(), CSCEventData::dmbTrailer(), cscdqm::StripClusterFinder::DoAction(), CSCDetId::endcap(), benchmark_cfg::errors, CSCDCCExaminer::errorsForChamber(), cscdqm::EVENT_DISPLAY_PLOT, fCloseL1As, cscdqm::MonitorObject::Fill(), first, cscdqm::Configuration::fnGetCSCDetId, CSCCFEBTimeSlice::get_buffer_count(), CSCCFEBTimeSlice::get_l1pipe_empty(), CSCCFEBTimeSlice::get_l1pipe_full(), CSCCFEBTimeSlice::get_lctpipe_count(), CSCCFEBTimeSlice::get_lctpipe_empty(), CSCCFEBTimeSlice::get_lctpipe_full(), CSCCFEBTimeSlice::get_n_free_sca_blocks(), cscdqm::MonitorObject::GetBinContent(), cscdqm::MonitorObject::GetBinError(), cscdqm::Configuration::getChamberCounterValue(), cscdqm::StripClusterFinder::getClusters(), getCSCFromMap(), getCSCHisto(), cscdqm::Summary::getDetector(), getEMUHisto(), cscdqm::MonitorObject::GetEntries(), cscdqm::MonitorObject::GetMaximumBin(), cscdqm::Configuration::getNEvents(), cscdqm::CSCHistoDef::getPath(), cscdqm::MonitorObject::getTH1(), cscdqm::MonitorObject::getTH1Lock(), cscdqm::Detector::GlobalChamberIndex(), i, cscdqm::Configuration::incNUnpackedCSC(), cscdqm::Summary::isChamberStandby(), j, gen::k, CSCDMBHeader::l1a(), CSCCFEBSCAControllerWord::l1a_phase, CSCALCTHeader::L1Acc(), L1ANumber, CSCTMBHeader::L1ANumber(), LOG_ERROR, LOG_INFO, LOG_WARN, n, CSCDMBHeader::nalct(), CSCEventData::nalct(), CSCDMBHeader::nclct(), CSCEventData::nclct(), NULL, listBenchmarks::pattern, DetId::rawId(), CSCDetId::ring(), CSCCFEBSCAControllerWord::sca_blk, CSCCFEBTimeSlice::scaControllerWord(), edm::second(), cscdqm::MonitorObject::SetAxisRange(), cscdqm::MonitorObject::SetBinContent(), cscdqm::MonitorObject::SetBinError(), cscdqm::Configuration::setChamberCounterValue(), setEmuEventDisplayBit(), cscdqm::MonitorObject::SetEntries(), cscdqm::MonitorObject::SetNormFactor(), CSCDetId::station(), summary, cscdqm::timeSample(), cscdqm::timeSlice(), CSCDMBTrailer::tmb_empty, CSCDMBTrailer::tmb_endtimeout, CSCDMBTrailer::tmb_full, CSCDMBTrailer::tmb_half, CSCDMBTrailer::tmb_timeout, CSCEventData::tmbData(), CSCTMBData::tmbHeader(), CSCTMBHeader::TMBMatch(), CSCTMBData::tmbTrailer(), CSCCFEBSCAControllerWord::trig_time, CSCAnodeData::wireDigis(), CSCALCTTrailer::wordCount(), and CSCTMBTrailer::wordCount().
Referenced by processDDU().
{
config->incNUnpackedCSC();
if (&data == 0) {
LOG_ERROR << "Zero pointer. DMB data are not available for unpacking"; //KK is->are
return;
}
int FEBunpacked = 0;
int alct_unpacked = 0;
int tmb_unpacked = 0;
int cfeb_unpacked = 0;
int alct_keywg = -1;
int clct_kewdistrip = -1;
bool L1A_out_of_sync = false;
MonitorObject* mo = NULL;
const CSCDMBHeader* dmbHeader = data.dmbHeader();
const CSCDMBTrailer* dmbTrailer = data.dmbTrailer();
if (!dmbHeader && !dmbTrailer) {
LOG_ERROR << "Can not unpack DMB Header or/and Trailer";
return;
}
unsigned int crateID = 0xFF;
unsigned int dmbID = 0xF;
unsigned int chamberID = 0xFFF;
crateID = dmbHeader->crateID();
dmbID = dmbHeader->dmbID();
chamberID = (((crateID) << 4) + dmbID) & 0xFFF;
const std::string cscTag = CSCHistoDef::getPath(crateID, dmbID);
unsigned long errors = binChecker.errorsForChamber(chamberID);
if ((errors & config->getBINCHECK_MASK()) > 0 ) {
LOG_WARN << "Format Errors " << cscTag << ": 0x" << std::hex << errors << " Skipped CSC Unpacking";
return;
}
unsigned int cscType = 0;
unsigned int cscPosition = 0;
if (!getCSCFromMap(crateID, dmbID, cscType, cscPosition )) return;
CSCDetId cid;
if (!config->fnGetCSCDetId(crateID, dmbID, cid)) {
return;
}
// Check if in standby!
if (summary.isChamberStandby(cid)) {
return;
}
double DMBEvents = 0.0;
DMBEvents = config->getChamberCounterValue(DMB_EVENTS, crateID, dmbID);
// Get Event display plot number and next plot object
uint32_t evDisplNo = config->getChamberCounterValue(EVENT_DISPLAY_PLOT, crateID, dmbID);
evDisplNo += 1;
if (evDisplNo >= 5) {
config->setChamberCounterValue(EVENT_DISPLAY_PLOT, crateID, dmbID, 0);
} else {
config->setChamberCounterValue(EVENT_DISPLAY_PLOT, crateID, dmbID, evDisplNo);
}
MonitorObject* mo_EventDisplay = 0;
if (getCSCHisto(h::CSC_EVENT_DISPLAY_NOXX, crateID, dmbID, evDisplNo, mo_EventDisplay)) {
mo_EventDisplay->getTH1Lock()->Reset("");
}
// Receiving EMU Event displays
MonitorObject *mo_Emu_EventDisplay_Anode = 0, *mo_Emu_EventDisplay_Cathode = 0, *mo_Emu_EventDisplay_XY = 0;
getEMUHisto(h::EMU_EVENT_DISPLAY_ANODE, mo_Emu_EventDisplay_Anode);
getEMUHisto(h::EMU_EVENT_DISPLAY_CATHODE, mo_Emu_EventDisplay_Cathode);
getEMUHisto(h::EMU_EVENT_DISPLAY_XY, mo_Emu_EventDisplay_XY);
// Global chamber index
uint32_t glChamberIndex = 0;
if (mo_EventDisplay) {
mo_EventDisplay->SetBinContent(1, 1, cid.endcap());
mo_EventDisplay->SetBinContent(1, 2, cid.station());
mo_EventDisplay->SetBinContent(1, 3, cid.ring());
mo_EventDisplay->SetBinContent(1, 4, cscPosition);
mo_EventDisplay->SetBinContent(1, 5, crateID);
mo_EventDisplay->SetBinContent(1, 6, dmbID);
mo_EventDisplay->SetBinContent(1, 7, dmbHeader->l1a());
if (mo_Emu_EventDisplay_Anode || mo_Emu_EventDisplay_Cathode || mo_Emu_EventDisplay_XY) {
glChamberIndex = summary.getDetector().GlobalChamberIndex(cid.endcap(), cid.station(), cid.ring(), cscPosition);
}
}
config->copyChamberCounterValue(DMB_EVENTS, DMB_TRIGGERS, crateID, dmbID);
if (cscType && cscPosition && getEMUHisto(h::EMU_CSC_UNPACKED, mo)){
mo->Fill(cscPosition, cscType);
}
float DMBEff = float(DMBEvents) / float(config->getNEvents());
if(DMBEff > 1.0) {
LOG_ERROR << cscTag << " has efficiency " << DMBEff << " which is greater than 1";
}
int dmbHeaderL1A = dmbHeader->l1a()%64;
int dmb_ddu_l1a_diff = (int)(dmbHeaderL1A-(int)(L1ANumber%64));
if (dmb_ddu_l1a_diff != 0) L1A_out_of_sync = true;
if (getCSCHisto(h::CSC_DMB_L1A_DISTRIB, crateID, dmbID, mo)) mo->Fill(dmbHeaderL1A);
if (getCSCHisto(h::CSC_DMB_DDU_L1A_DIFF, crateID, dmbID, mo)) {
if(dmb_ddu_l1a_diff < -32) {
mo->Fill(dmb_ddu_l1a_diff + 64);
} else {
if(dmb_ddu_l1a_diff >= 32) mo->Fill(dmb_ddu_l1a_diff - 64);
else mo->Fill(dmb_ddu_l1a_diff);
}
mo->SetAxisRange(0.1, 1.1 * (1.0 + mo->GetBinContent(mo->GetMaximumBin())), "Y");
}
if (getCSCHisto(h::CSC_DMB_L1A_VS_DDU_L1A, crateID, dmbID, mo)) mo->Fill((int)(L1ANumber & 0xFF), (int)dmbHeaderL1A);
int dmbHeaderBXN = 0;
int dmb_ddu_bxn_diff = 0;
dmbHeaderBXN = dmbHeader->bxn12();
dmb_ddu_bxn_diff = dmbHeaderBXN%64-BXN%64;
if (getCSCHisto(h::CSC_DMB_BXN_DISTRIB, crateID, dmbID, mo)) mo->Fill((int)(dmbHeader->bxn12()));
if (getCSCHisto(h::CSC_DMB_DDU_BXN_DIFF, crateID, dmbID, mo)) {
if(dmb_ddu_bxn_diff < -32) mo->Fill(dmb_ddu_bxn_diff + 64);
else {
if(dmb_ddu_bxn_diff >= 32) mo->Fill(dmb_ddu_bxn_diff - 64);
else mo->Fill(dmb_ddu_bxn_diff);
}
mo->SetAxisRange(0.1, 1.1 * (1.0 + mo->GetBinContent(mo->GetMaximumBin())), "Y");
}
if (getCSCHisto(h::CSC_DMB_BXN_VS_DDU_BXN, crateID, dmbID, mo)) mo->Fill(((int)(BXN)) % 256, ((int)dmbHeaderBXN) % 256);
int cfeb_dav = 0;
int cfeb_dav_num = 0;
int cfeb_movlp = 0;
int dmb_cfeb_sync = 0;
cfeb_dav = (int)dmbHeader->cfebAvailable();
for (int i = 0; i < 5; i++) cfeb_dav_num += (cfeb_dav >> i) & 0x1;
cfeb_movlp = (int)dmbHeader->cfebMovlp();
dmb_cfeb_sync = (int)dmbHeader->dmbCfebSync();
if (getCSCHisto(h::CSC_DMB_CFEB_DAV, crateID, dmbID, mo)) {
for (int i = 0; i < 5; i++) {
int cfeb_present = (cfeb_dav >> i) & 0x1;
if (cfeb_present) {
mo->Fill(i);
}
}
}
if (getCSCHisto(h::CSC_DMB_CFEB_DAV_MULTIPLICITY, crateID, dmbID, mo)) mo->Fill(cfeb_dav_num);
if (getCSCHisto(h::CSC_DMB_CFEB_MOVLP, crateID, dmbID, mo)) mo->Fill(cfeb_movlp);
if (getCSCHisto(h::CSC_DMB_CFEB_SYNC, crateID, dmbID, mo)) mo->Fill(dmb_cfeb_sync);
if (getEMUHisto(h::EMU_DMB_UNPACKED, mo)) {
mo->Fill(crateID, dmbID);
}
if (getCSCHisto(h::CSC_DMB_CFEB_ACTIVE, crateID, dmbID, mo)) mo->Fill(dmbHeader->cfebActive()); //KK
if (getCSCHisto(h::CSC_DMB_L1_PIPE, crateID, dmbID, mo)) mo->Fill(dmbTrailer->dmb_l1pipe);
if (getCSCHisto(h::CSC_DMB_FIFO_STATS, crateID, dmbID, mo)) {
if (dmbTrailer->tmb_empty == 1) mo->Fill(1.0, 0.0); //KK
if (dmbTrailer->tmb_half == 0) mo->Fill(1.0, 1.0);
if (dmbTrailer->tmb_full == 1) mo->Fill(1.0, 2.0); //KK
if (dmbTrailer->alct_empty == 1) mo->Fill(0.0, 0.0);
if (dmbTrailer->alct_half == 0) mo->Fill(0.0, 1.0);
if (dmbTrailer->alct_full == 1) mo->Fill(0.0, 2.0); //KK 0->1
for (int i = 0; i < 5; i++) {
if ((int)((dmbTrailer->cfeb_empty>>i)&0x1) == 1) mo->Fill(i + 2, 0.0);
if ((int)((dmbTrailer->cfeb_half>>i)&0x1) == 0) mo->Fill(i + 2, 1);
if ((int)((dmbTrailer->cfeb_full>>i)&0x1) == 1) {
mo->Fill(i + 2, 2);
}
}
mo->SetEntries((int)DMBEvents);
}
if (getCSCHisto(h::CSC_DMB_FEB_TIMEOUTS, crateID, dmbID, mo)) {
if ((dmbTrailer->tmb_timeout == 0) && (dmbTrailer->alct_timeout == 0) && (dmbTrailer->cfeb_starttimeout == 0) && (dmbTrailer->cfeb_endtimeout == 0)) {
mo->Fill(0.0);
}else{
if (dmbTrailer->alct_timeout) mo->Fill(1);
if (dmbTrailer->tmb_timeout) mo->Fill(2);
if (dmbTrailer->alct_endtimeout) mo->Fill(8); // KK
if (dmbTrailer->tmb_endtimeout) mo->Fill(9); // KK
}
for (int i = 0; i < 5; i++) {
if ((dmbTrailer->cfeb_starttimeout >> i) & 0x1) {
mo->Fill(i + 3);
}
if ((dmbTrailer->cfeb_endtimeout >> i) & 0x1) {
mo->Fill(i + 10); // KK 8->10
}
}
mo->SetEntries((int)DMBEvents);
}
int alct_dav = dmbHeader->nalct();
int tmb_dav = dmbHeader->nclct();
int cfeb_dav2 = 0;
for (int i = 0; i < 5; i++) cfeb_dav2 = cfeb_dav2 + (int)((dmbHeader->cfebAvailable() >> i) & 0x1);
if ((alct_dav > 0) && (getCSCHisto(h::CSC_DMB_FEB_DAV_RATE, crateID, dmbID, mo))) {
mo->Fill(0.0);
float alct_dav_number = mo->GetBinContent(1);
if (getCSCHisto(h::CSC_DMB_FEB_DAV_EFFICIENCY, crateID, dmbID, mo)) {
mo->SetBinContent(1, ((float)alct_dav_number / (float)(DMBEvents) * 100.0));
mo->SetEntries((int)DMBEvents);
}
}
if ((tmb_dav > 0) && (getCSCHisto(h::CSC_DMB_FEB_DAV_RATE, crateID, dmbID, mo))) {
mo->Fill(1.0);
float tmb_dav_number = mo->GetBinContent(2);
if (getCSCHisto(h::CSC_DMB_FEB_DAV_EFFICIENCY, crateID, dmbID, mo)) {
mo->SetBinContent(2, ((float)tmb_dav_number / (float)(DMBEvents) * 100.0));
mo->SetEntries((int)DMBEvents);
}
}
if ((cfeb_dav2 > 0) && (getCSCHisto(h::CSC_DMB_FEB_DAV_RATE, crateID, dmbID, mo))) {
mo->Fill(2.0);
float cfeb_dav2_number = mo->GetBinContent(3);
if (getCSCHisto(h::CSC_DMB_FEB_DAV_EFFICIENCY, crateID, dmbID, mo)) {
mo->SetBinContent(3, ((float)cfeb_dav2_number / (float)(DMBEvents) * 100.0));
mo->SetEntries((int)DMBEvents);
}
}
float feb_combination_dav = -1.0;
if (getCSCHisto(h::CSC_DMB_FEB_COMBINATIONS_DAV_RATE, crateID, dmbID, mo)) {
if(alct_dav == 0 && tmb_dav == 0 && cfeb_dav2 == 0) feb_combination_dav = 0.0; // Nothing
if(alct_dav > 0 && tmb_dav == 0 && cfeb_dav2 == 0) feb_combination_dav = 1.0; // ALCT Only
if(alct_dav == 0 && tmb_dav > 0 && cfeb_dav2 == 0) feb_combination_dav = 2.0; // TMB Only
if(alct_dav == 0 && tmb_dav == 0 && cfeb_dav2 > 0) feb_combination_dav = 3.0; // CFEB Only
if(alct_dav == 0 && tmb_dav > 0 && cfeb_dav2 > 0) feb_combination_dav = 4.0; // TMB+CFEB
if(alct_dav > 0 && tmb_dav > 0 && cfeb_dav2 == 0) feb_combination_dav = 5.0; // ALCT+TMB
if(alct_dav > 0 && tmb_dav == 0 && cfeb_dav2 > 0) feb_combination_dav = 6.0; // ALCT+CFEB
if(alct_dav > 0 && tmb_dav > 0 && cfeb_dav2 > 0) feb_combination_dav = 7.0; // ALCT+TMB+CFEB
mo->Fill(feb_combination_dav);
float feb_combination_dav_number = mo->GetBinContent((int)(feb_combination_dav + 1.0));
if (getCSCHisto(h::CSC_DMB_FEB_COMBINATIONS_DAV_EFFICIENCY, crateID, dmbID, mo)) {
mo->SetBinContent((int)(feb_combination_dav + 1.0), ((float)feb_combination_dav_number / (float)(DMBEvents) * 100.0));
mo->SetEntries((int)DMBEvents);
}
}
if (data.nalct()) {
const CSCALCTHeader* alctHeader = data.alctHeader();
int fwVersion = alctHeader->alctFirmwareVersion();
const CSCALCTTrailer* alctTrailer = data.alctTrailer();
const CSCAnodeData* alctData = data.alctData();
if (alctHeader && alctTrailer) {
std::vector<CSCALCTDigi> alctsDatasTmp = alctHeader->ALCTDigis();
std::vector<CSCALCTDigi> alctsDatas;
for (uint32_t lct = 0; lct < alctsDatasTmp.size(); lct++) {
if (alctsDatasTmp[lct].isValid()) alctsDatas.push_back(alctsDatasTmp[lct]);
}
FEBunpacked = FEBunpacked + 1;
alct_unpacked = 1;
if (getCSCHisto(h::CSC_CSC_RATE, crateID, dmbID, mo)) {
mo->Fill(2);
uint32_t ALCTEvent = (uint32_t)mo->GetBinContent(3);
config->setChamberCounterValue(ALCT_TRIGGERS, crateID, dmbID, ALCTEvent);
if (getCSCHisto(h::CSC_CSC_EFFICIENCY, crateID, dmbID, mo)){
if(config->getNEvents() > 0) {
mo->SetBinContent(1, ((float)ALCTEvent / (float)(DMBEvents) * 100.0));
mo->SetEntries((int)DMBEvents);
}
}
}
if ((alct_dav >0) && (getCSCHisto(h::CSC_DMB_FEB_UNPACKED_VS_DAV, crateID, dmbID, mo))) {
mo->Fill(0.0, 0.0);
}
if (getCSCHisto(h::CSC_ALCT_L1A, crateID, dmbID, mo)) mo->Fill((int)(alctHeader->L1Acc()));
if (getCSCHisto(h::CSC_ALCT_DMB_L1A_DIFF, crateID, dmbID, mo)) {
int alct_dmb_l1a_diff = (int)(alctHeader->L1Acc() % 64 - dmbHeader->l1a() % 64);
if (alct_dmb_l1a_diff != 0) L1A_out_of_sync = true;
if(alct_dmb_l1a_diff < -32) mo->Fill(alct_dmb_l1a_diff + 64);
else {
if(alct_dmb_l1a_diff >= 32) mo->Fill(alct_dmb_l1a_diff - 64);
else mo->Fill(alct_dmb_l1a_diff);
}
mo->SetAxisRange(0.1, 1.1 * (1.0 + mo->GetBinContent(mo->GetMaximumBin())), "Y");
}
if (getCSCHisto(h::CSC_DMB_L1A_VS_ALCT_L1A, crateID, dmbID, mo)) mo->Fill(alctHeader->L1Acc() % 256, dmbHeader->l1a());
if (getCSCHisto(h::CSC_ALCT_DMB_BXN_DIFF, crateID, dmbID, mo)) {
int alct_dmb_bxn_diff = (int)(alctHeader->BXNCount()-dmbHeader->bxn12());
if (alct_dmb_bxn_diff > 0) alct_dmb_bxn_diff -= 3564;
alct_dmb_bxn_diff %= 64;
mo->Fill(alct_dmb_bxn_diff);
mo->SetAxisRange(0.1, 1.1 * (1.0 + mo->GetBinContent(mo->GetMaximumBin())), "Y");
}
if (getCSCHisto(h::CSC_ALCT_BXN, crateID, dmbID, mo)) mo->Fill(alctHeader->BXNCount());
if (getCSCHisto(h::CSC_ALCT_BXN_VS_DMB_BXN, crateID, dmbID, mo)) mo->Fill((int)((alctHeader->BXNCount()) % 256), (int)(dmbHeader->bxn12()) % 256);
if (getCSCHisto(h::CSC_ALCT_NUMBER_RATE, crateID, dmbID, mo)) {
mo->Fill(alctsDatas.size());
int nALCT = (int)mo->GetBinContent((int)(alctsDatas.size() + 1));
if (getCSCHisto(h::CSC_ALCT_NUMBER_EFFICIENCY, crateID, dmbID, mo))
mo->SetBinContent((int)(alctsDatas.size() + 1), (float)(nALCT) / (float)(DMBEvents) * 100.0);
}
if (getCSCHisto(h::CSC_ALCT_WORD_COUNT, crateID, dmbID, mo)) mo->Fill((int)(alctTrailer->wordCount()));
if (alctsDatas.size() == 2) {
if (getCSCHisto(h::CSC_ALCT1_VS_ALCT0_KEYWG, crateID, dmbID, mo))
mo->Fill(alctsDatas[0].getKeyWG(),alctsDatas[1].getKeyWG());
}
MonitorObject* mo_CSC_ALCT0_BXN_mean = 0;
getEMUHisto(h::EMU_CSC_ALCT0_BXN_MEAN, mo_CSC_ALCT0_BXN_mean);
MonitorObject* mo_CSC_ALCT0_BXN_rms = 0;
getEMUHisto(h::EMU_CSC_ALCT0_BXN_RMS, mo_CSC_ALCT0_BXN_rms);
MonitorObject* mo_CSC_Plus_endcap_ALCT0_dTime = 0;
getEMUHisto(h::EMU_CSC_ALCT0_ENDCAP_PLUS_DTIME, mo_CSC_Plus_endcap_ALCT0_dTime);
MonitorObject* mo_CSC_Minus_endcap_ALCT0_dTime = 0;
getEMUHisto(h::EMU_CSC_ALCT0_ENDCAP_MINUS_DTIME, mo_CSC_Minus_endcap_ALCT0_dTime);
for (uint32_t lct = 0; lct < alctsDatas.size(); lct++) {
if (lct >= 2) continue;
if (getCSCHisto(h::CSC_ALCTXX_KEYWG, crateID, dmbID, lct, mo)) {
mo->Fill(alctsDatas[lct].getKeyWG());
}
if(lct == 0) alct_keywg = alctsDatas[lct].getKeyWG();
int alct_dtime = 0;
if (fwVersion == 2007) {
alct_dtime = alctsDatas[lct].getBX();
} else {
// Older 2006 Format
alct_dtime = (int) (alctsDatas[lct].getBX() - (alctHeader->BXNCount()&0x1F));
}
if (getCSCHisto(h::CSC_ALCTXX_DTIME, crateID, dmbID, lct, mo)) {
if(alct_dtime < -16) {
mo->Fill(alct_dtime + 32);
} else {
if(alct_dtime >= 16) mo->Fill(alct_dtime - 32);
else mo->Fill(alct_dtime);
}
mo->SetAxisRange(0.1, 1.1 * (1.0 + mo->GetBinContent(mo->GetMaximumBin())), "Y");
double dTime_mean = mo->getTH1()->GetMean();
double dTime_rms = mo->getTH1()->GetRMS();
// == For ALCT0 Fill Summary dTime Histograms
if (lct == 0) {
if (cid.endcap() == 1) {
if (mo_CSC_Plus_endcap_ALCT0_dTime) mo_CSC_Plus_endcap_ALCT0_dTime->Fill(alct_dtime);
}
if (cid.endcap() == 2) {
if (mo_CSC_Minus_endcap_ALCT0_dTime) mo_CSC_Minus_endcap_ALCT0_dTime->Fill(alct_dtime);
}
if (cscPosition && cscType && mo_CSC_ALCT0_BXN_mean) {
mo_CSC_ALCT0_BXN_mean->SetBinContent(cscPosition, cscType + 1, dTime_mean);
}
if (cscPosition && cscType && mo_CSC_ALCT0_BXN_rms) {
mo_CSC_ALCT0_BXN_rms->SetBinContent(cscPosition, cscType + 1, dTime_rms);
}
}
}
if (getCSCHisto(h::CSC_ALCTXX_DTIME_VS_KEYWG, crateID, dmbID, lct, mo)) {
if(alct_dtime < -16) {
mo->Fill(alctsDatas[lct].getKeyWG(), alct_dtime + 32);
} else {
if(alct_dtime >= 16) mo->Fill(alctsDatas[lct].getKeyWG(), alct_dtime - 32);
else mo->Fill(alctsDatas[lct].getKeyWG(), alct_dtime);
}
}
if (getCSCHisto(h::CSC_ALCTXX_DTIME_PROFILE, crateID, dmbID, lct, mo)) {
if(alct_dtime < -16) {
mo->Fill(alctsDatas[lct].getKeyWG(), alct_dtime + 32);
} else {
if (alct_dtime >= 16) mo->Fill(alctsDatas[lct].getKeyWG(), alct_dtime - 32);
else mo->Fill(alctsDatas[lct].getKeyWG(), alct_dtime);
}
}
int alct_bxn = alctsDatas[lct].getBX();
if (fwVersion == 2007) {
alct_bxn = (alct_bxn + alctHeader->BXNCount())&0x1F;
}
if (getCSCHisto(h::CSC_ALCTXX_BXN, crateID, dmbID, lct, mo)) mo->Fill(alct_bxn);
if (getCSCHisto(h::CSC_ALCTXX_QUALITY, crateID, dmbID, lct, mo)) mo->Fill(alctsDatas[lct].getKeyWG(), alctsDatas[lct].getQuality());
if (mo_EventDisplay) {
mo_EventDisplay->SetBinContent(2, alctsDatas[lct].getKeyWG(), alct_bxn + 1 );
mo_EventDisplay->SetBinContent(3, alctsDatas[lct].getKeyWG(), alctsDatas[lct].getQuality());
}
if (getCSCHisto(h::CSC_ALCTXX_QUALITY_DISTR, crateID, dmbID, lct, mo)) {
mo->Fill(alctsDatas[lct].getQuality());
if (lct == 0) {
MonitorObject* mo1 = 0;
if (cscType && cscPosition && getEMUHisto(h::EMU_CSC_ALCT0_QUALITY, mo1)) {
mo1->SetBinContent(cscPosition, cscType + 1, mo->getTH1()->GetMean());
}
}
}
if (getCSCHisto(h::CSC_ALCTXX_QUALITY_PROFILE, crateID, dmbID, lct, mo)) mo->Fill(alctsDatas[lct].getKeyWG(), alctsDatas[lct].getQuality());
if (getCSCHisto(h::CSC_ALCTXX_PATTERN, crateID, dmbID, lct, mo)) {
int pattern = (alctsDatas[lct].getAccelerator() << 1) + alctsDatas[lct].getCollisionB();
int keywg = alctsDatas[lct].getKeyWG();
mo->Fill(keywg, pattern );
}
if (getCSCHisto(h::CSC_ALCTXX_PATTERN_DISTR, crateID, dmbID, lct, mo)) {
int pattern = (alctsDatas[lct].getAccelerator()<<1) + alctsDatas[lct].getCollisionB();
mo->Fill(pattern);
}
}
int NumberOfLayersWithHitsInALCT = 0;
int NumberOfWireGroupsWithHitsInALCT = 0;
if (alctData) {
MonitorObject* mo_AFEB_RawHits_TimeBins = 0;
getCSCHisto(h::CSC_CFEB_AFEB_RAWHITS_TIMEBINS, crateID, dmbID, mo_AFEB_RawHits_TimeBins);
MonitorObject* mo_CSC_Plus_endcap_AFEB_RawHits_Time = 0;
getEMUHisto(h::EMU_CSC_AFEB_ENDCAP_PLUS_RAWHITS_TIME, mo_CSC_Plus_endcap_AFEB_RawHits_Time);
MonitorObject* mo_CSC_Minus_endcap_AFEB_RawHits_Time = 0;
getEMUHisto(h::EMU_CSC_AFEB_ENDCAP_MINUS_RAWHITS_TIME, mo_CSC_Minus_endcap_AFEB_RawHits_Time);
MonitorObject* mo_CSC_AFEB_RawHits_Time_mean = 0;
getEMUHisto(h::EMU_CSC_AFEB_RAWHITS_TIME_MEAN, mo_CSC_AFEB_RawHits_Time_mean);
MonitorObject* mo_CSC_AFEB_RawHits_Time_rms = 0;
getEMUHisto(h::EMU_CSC_AFEB_RAWHITS_TIME_RMS, mo_CSC_AFEB_RawHits_Time_rms);
for (int nLayer = 1; nLayer <= 6; nLayer++) {
int wg_previous = -1;
int tbin_previous = -1;
bool CheckLayerALCT = true;
std::vector<CSCWireDigi> wireDigis = alctData->wireDigis(nLayer);
for (std::vector<CSCWireDigi>::iterator wireDigisItr = wireDigis.begin(); wireDigisItr != wireDigis.end(); ++wireDigisItr) {
int wg = wireDigisItr->getWireGroup();
std::vector<int> tbins = wireDigisItr->getTimeBinsOn();
int tbin = wireDigisItr->getTimeBin();
if (mo_EventDisplay) {
mo_EventDisplay->SetBinContent(nLayer + 3, wg - 1, tbin + 1);
setEmuEventDisplayBit(mo_Emu_EventDisplay_Anode, glChamberIndex, wg - 1, nLayer - 1);
setEmuEventDisplayBit(mo_Emu_EventDisplay_XY, glChamberIndex, wg - 1, nLayer - 1);
}
if (CheckLayerALCT) {
NumberOfLayersWithHitsInALCT = NumberOfLayersWithHitsInALCT + 1;
CheckLayerALCT = false;
}
for (uint32_t n = 0; n < tbins.size(); n++) {
tbin = tbins[n];
if(wg != wg_previous || (tbin != tbin_previous + 1 && tbin != tbin_previous - 1) ) {
if (getCSCHisto(h::CSC_ALCTTIME_LYXX, crateID, dmbID, nLayer, mo)) mo->Fill(wg - 1, tbin);
if (getCSCHisto(h::CSC_ALCTTIME_LYXX_PROFILE, crateID, dmbID, nLayer, mo)) mo->Fill(wg - 1, tbin);
if (mo_AFEB_RawHits_TimeBins) mo_AFEB_RawHits_TimeBins->Fill(tbin);
if (cid.endcap() == 1) {
if (mo_CSC_Plus_endcap_AFEB_RawHits_Time) mo_CSC_Plus_endcap_AFEB_RawHits_Time->Fill(tbin);
}
if (cid.endcap() == 2) {
if (mo_CSC_Minus_endcap_AFEB_RawHits_Time) mo_CSC_Minus_endcap_AFEB_RawHits_Time->Fill(tbin);
}
if (getCSCHisto(h::CSC_ALCT_LYXX_RATE, crateID, dmbID, nLayer, mo)) {
mo->Fill(wg - 1);
int number_wg = (int)(mo->GetBinContent(wg));
Double_t Number_of_entries_ALCT = mo->GetEntries();
if (getCSCHisto(h::CSC_ALCT_LYXX_EFFICIENCY, crateID, dmbID, nLayer, mo)) {
mo->SetBinContent(wg, ((float) number_wg));
if((Double_t)(DMBEvents) > 0.0) {
mo->SetNormFactor(100.0*Number_of_entries_ALCT/(Double_t)(DMBEvents));
} else {
mo->SetNormFactor(100.0);
}
mo->SetEntries((int)DMBEvents);
}
}
}
if(wg != wg_previous) {
NumberOfWireGroupsWithHitsInALCT = NumberOfWireGroupsWithHitsInALCT + 1;
}
wg_previous = wg;
tbin_previous = tbin;
}
}
// Fill Summary Anode Raw Hits Timing Plots
if (mo_AFEB_RawHits_TimeBins) {
double rawhits_time_mean = mo_AFEB_RawHits_TimeBins->getTH1()->GetMean();
double rawhits_time_rms = mo_AFEB_RawHits_TimeBins->getTH1()->GetRMS();
if (cscType && cscPosition && mo_CSC_AFEB_RawHits_Time_mean) {
mo_CSC_AFEB_RawHits_Time_mean->SetBinContent(cscPosition, cscType + 1, rawhits_time_mean);
}
if (cscType && cscPosition && mo_CSC_AFEB_RawHits_Time_rms) {
mo_CSC_AFEB_RawHits_Time_rms->SetBinContent(cscPosition, cscType + 1, rawhits_time_rms);
}
}
}
} else {
LOG_ERROR << cscTag << " Can not unpack Anode Data";
}
if (getCSCHisto(h::CSC_ALCT_NUMBER_OF_LAYERS_WITH_HITS, crateID, dmbID, mo)) {
mo->Fill(NumberOfLayersWithHitsInALCT);
MonitorObject* mo1 = 0;
if (cscType && cscPosition && getEMUHisto(h::EMU_CSC_ALCT_PLANES_WITH_HITS, mo1)) {
mo1->SetBinContent(cscPosition, cscType + 1, mo->getTH1()->GetMean());
}
}
if (getCSCHisto(h::CSC_ALCT_NUMBER_OF_WIREGROUPS_WITH_HITS, crateID, dmbID, mo)) mo->Fill(NumberOfWireGroupsWithHitsInALCT);
} else {
LOG_ERROR << cscTag << " Can not unpack ALCT Header or/and Trailer";
}
} else {
if (getCSCHisto(h::CSC_ALCT_NUMBER_RATE, crateID, dmbID, mo)) {
mo->Fill(0);
int nALCT = (int)mo->GetBinContent(1);
if (getCSCHisto(h::CSC_ALCT_NUMBER_EFFICIENCY, crateID, dmbID, mo))
mo->SetBinContent(1, (float)(nALCT) / (float)(DMBEvents) * 100.0);
}
if ((alct_dav > 0) && (getCSCHisto(h::CSC_DMB_FEB_UNPACKED_VS_DAV, crateID, dmbID, mo))) {
mo->Fill(0.0, 1.0);
}
}
if(data.nclct() && data.nalct()) {
CSCALCTHeader* alctHeader = data.alctHeader();
if (alctHeader) {
std::vector<CSCALCTDigi> alctsDatasTmp = alctHeader->ALCTDigis();
std::vector<CSCALCTDigi> alctsDatas;
for (uint32_t lct = 0; lct < alctsDatasTmp.size(); lct++) {
if (alctsDatasTmp[lct].isValid())
alctsDatas.push_back(alctsDatasTmp[lct]);
}
CSCTMBData* tmbData = data.tmbData();
if (tmbData) {
CSCTMBHeader* tmbHeader = tmbData->tmbHeader();
if (tmbHeader) {
if (getCSCHisto(h::CSC_TMB_BXN_VS_ALCT_BXN, crateID, dmbID, mo))
mo->Fill( ((int)(alctHeader->BXNCount())) % 256, ((int)(tmbHeader->BXNCount())) % 256 );
if (getCSCHisto(h::CSC_TMB_ALCT_BXN_DIFF, crateID, dmbID, mo)) {
int clct_alct_bxn_diff = (int)(alctHeader->BXNCount() - tmbHeader->BXNCount());
if(clct_alct_bxn_diff < -2048) mo->Fill(clct_alct_bxn_diff + 4096);
else {
if(clct_alct_bxn_diff > 2048) mo->Fill(clct_alct_bxn_diff - 4096);
else mo->Fill(clct_alct_bxn_diff);
}
mo->SetAxisRange(0.1, 1.1*(1.0+mo->GetBinContent(mo->GetMaximumBin())), "Y");
}
if (getCSCHisto(h::CSC_TMB_L1A_VS_ALCT_L1A, crateID, dmbID, mo))
mo->Fill((int)(alctHeader->L1Acc()%256),(int)(tmbHeader->L1ANumber()%256));
if (getCSCHisto(h::CSC_TMB_ALCT_L1A_DIFF, crateID, dmbID, mo)) {
int clct_alct_l1a_diff = (int)(tmbHeader->L1ANumber() - alctHeader->L1Acc());
if(clct_alct_l1a_diff < -2048) mo->Fill(clct_alct_l1a_diff + 4096);
else {
if(clct_alct_l1a_diff > 2048) mo->Fill(clct_alct_l1a_diff - 4096);
else mo->Fill(clct_alct_l1a_diff);
}
mo->SetAxisRange(0.1, 1.1*(1.0+mo->GetBinContent(mo->GetMaximumBin())), "Y");
}
} else {
LOG_ERROR << cscTag << " Can not unpack TMB Header";
}
} else {
LOG_ERROR << cscTag << " Can not unpack TMB Data";
}
} else {
LOG_ERROR << cscTag << " Can not unpack ALCT Header";
}
}
if (data.nclct()) {
CSCTMBData* tmbData = data.tmbData();
if (tmbData) {
CSCTMBHeader* tmbHeader = tmbData->tmbHeader();
CSCTMBTrailer* tmbTrailer = tmbData->tmbTrailer();
if (tmbHeader && tmbTrailer) {
CSCCLCTData* clctData = data.clctData();
std::vector<CSCCLCTDigi> clctsDatasTmp = tmbHeader->CLCTDigis(cid.rawId());
std::vector<CSCCLCTDigi> clctsDatas;
for (uint32_t lct = 0; lct < clctsDatasTmp.size(); lct++) {
if (clctsDatasTmp[lct].isValid()) clctsDatas.push_back(clctsDatasTmp[lct]);
}
FEBunpacked = FEBunpacked +1;
tmb_unpacked = 1;
if (getCSCHisto(h::CSC_ALCT_MATCH_TIME, crateID, dmbID, mo)) {
mo->Fill(tmbHeader->ALCTMatchTime());
double alct_match_mean = mo->getTH1()->GetMean();
double alct_match_rms = mo->getTH1()->GetRMS();
MonitorObject* mo1 = 0;
if (cid.endcap() == 1) {
if (cscType && cscPosition && getEMUHisto(h::EMU_CSC_ENDCAP_PLUS_ALCT_CLCT_MATCH_TIME, mo1)) {
mo1->Fill(tmbHeader->ALCTMatchTime());
}
}
if (cid.endcap() == 2) {
if (cscType && cscPosition && getEMUHisto(h::EMU_CSC_ENDCAP_MINUS_ALCT_CLCT_MATCH_TIME, mo1)) {
mo1->Fill(tmbHeader->ALCTMatchTime());
}
}
if (cscType && cscPosition && getEMUHisto(h::EMU_CSC_ALCT_CLCT_MATCH_MEAN, mo1)) {
mo1->SetBinContent(cscPosition, cscType + 1, alct_match_mean);
}
if (cscType && cscPosition && getEMUHisto(h::EMU_CSC_ALCT_CLCT_MATCH_RMS, mo1)) {
mo1->SetBinContent(cscPosition, cscType + 1, alct_match_rms);
}
}
if (getCSCHisto(h::CSC_LCT_MATCH_STATUS, crateID, dmbID, mo)) {
if (tmbHeader->CLCTOnly()) mo->Fill(0.0,0.0);
if (tmbHeader->ALCTOnly()) mo->Fill(0.0,1.0);
if (tmbHeader->TMBMatch()) mo->Fill(0.0,2.0);
}
if (getCSCHisto(h::CSC_LCT0_MATCH_BXN_DIFFERENCE, crateID, dmbID, mo)) mo->Fill(tmbHeader->Bxn0Diff());
if (getCSCHisto(h::CSC_LCT1_MATCH_BXN_DIFFERENCE, crateID, dmbID, mo)) mo->Fill(tmbHeader->Bxn1Diff());
if ((tmb_dav > 0) && (getCSCHisto(h::CSC_DMB_FEB_UNPACKED_VS_DAV, crateID, dmbID, mo))) {
mo->Fill(1.0, 0.0);
}
if (getCSCHisto(h::CSC_CSC_RATE, crateID, dmbID, mo)) {
mo->Fill(3);
uint32_t CLCTEvent = (uint32_t)mo->GetBinContent(4);
config->setChamberCounterValue(CLCT_TRIGGERS, crateID, dmbID, CLCTEvent);
if (getCSCHisto(h::CSC_CSC_EFFICIENCY, crateID, dmbID, mo)) {
if(config->getNEvents() > 0) {
mo->SetBinContent(2,((float)CLCTEvent/(float)(DMBEvents)*100.0));
mo->SetEntries(DMBEvents);
}
}
}
if (getCSCHisto(h::CSC_CLCT_L1A, crateID, dmbID, mo)) mo->Fill(tmbHeader->L1ANumber());
if (getCSCHisto(h::CSC_CLCT_DMB_L1A_DIFF, crateID, dmbID, mo)) {
int clct_dmb_l1a_diff = (int)((tmbHeader->L1ANumber() % 64)-dmbHeader->l1a() % 64);
if (clct_dmb_l1a_diff != 0) L1A_out_of_sync = true;
if(clct_dmb_l1a_diff < -32) mo->Fill(clct_dmb_l1a_diff + 64);
else {
if(clct_dmb_l1a_diff >= 32) mo->Fill(clct_dmb_l1a_diff - 64);
else mo->Fill(clct_dmb_l1a_diff);
}
mo->SetAxisRange(0.1, 1.1*(1.0+mo->GetBinContent(mo->GetMaximumBin())), "Y");
}
if (getCSCHisto(h::CSC_DMB_L1A_VS_CLCT_L1A, crateID, dmbID, mo)) mo->Fill(tmbHeader->L1ANumber()%256,dmbHeader->l1a());
if (getCSCHisto(h::CSC_CLCT_DMB_BXN_DIFF, crateID, dmbID, mo)) {
int clct_dmb_bxn_diff = (int)(tmbHeader->BXNCount()%64-dmbHeader->bxn12()%64);
if(clct_dmb_bxn_diff < -32) mo->Fill(clct_dmb_bxn_diff + 64);
else {
if(clct_dmb_bxn_diff >= 32) mo->Fill(clct_dmb_bxn_diff - 64);
else mo->Fill(clct_dmb_bxn_diff);
}
mo->SetAxisRange(0.1, 1.1*(1.0+mo->GetBinContent(mo->GetMaximumBin())), "Y");
}
if (getCSCHisto(h::CSC_CLCT_BXN, crateID, dmbID, mo)) mo->Fill((int)(tmbHeader->BXNCount()));
if (getCSCHisto(h::CSC_CLCT_BXN_VS_DMB_BXN, crateID, dmbID, mo)) mo->Fill(tmbHeader->BXNCount()%256,dmbHeader->bxn12()%256);
if (getCSCHisto(h::CSC_CLCT_NUMBER_RATE, crateID, dmbID, mo)) {
mo->Fill(clctsDatas.size());
int nCLCT = (int)mo->GetBinContent((int)(clctsDatas.size()+1));
if (getCSCHisto(h::CSC_CLCT_NUMBER, crateID, dmbID, mo)) mo->SetBinContent((int)(clctsDatas.size() + 1), (float)(nCLCT) / (float)(DMBEvents) * 100.0);
}
if (clctsDatas.size() == 1) {
if (getCSCHisto(h::CSC_CLCT0_CLSSIFICATION, crateID, dmbID, mo)) {
if (clctsDatas[0].getStripType()) mo->Fill(0.0);
else mo->Fill(1.0);
}
}
if (clctsDatas.size() == 2) {
if (getCSCHisto(h::CSC_CLCT1_VS_CLCT0_KEY_STRIP, crateID, dmbID, mo))
mo->Fill(clctsDatas[0].getKeyStrip(),clctsDatas[1].getKeyStrip());
if (getCSCHisto(h::CSC_CLCT0_CLCT1_CLSSIFICATION, crateID, dmbID, mo)) {
if ( clctsDatas[0].getStripType() && clctsDatas[1].getStripType()) mo->Fill(0.0);
if ( clctsDatas[0].getStripType() && !clctsDatas[1].getStripType()) mo->Fill(1.0);
if (!clctsDatas[0].getStripType() && clctsDatas[1].getStripType()) mo->Fill(2.0);
if (!clctsDatas[0].getStripType() && !clctsDatas[1].getStripType()) mo->Fill(3.0);
}
}
if (getCSCHisto(h::CSC_TMB_WORD_COUNT, crateID, dmbID, mo)) mo->Fill((int)(tmbTrailer->wordCount()));
MonitorObject* mo_CSC_Plus_endcap_CLCT0_dTime = 0;
getEMUHisto(h::EMU_CSC_ENDCAP_PLUS_CLCT0_DTIME, mo_CSC_Plus_endcap_CLCT0_dTime);
MonitorObject* mo_CSC_Minus_endcap_CLCT0_dTime = 0;
getEMUHisto(h::EMU_CSC_ENDCAP_MINUS_CLCT0_DTIME, mo_CSC_Minus_endcap_CLCT0_dTime);
MonitorObject* mo_CSC_CLCT0_BXN_mean = 0;
getEMUHisto(h::EMU_CSC_CLCT0_BXN_MEAN, mo_CSC_CLCT0_BXN_mean);
MonitorObject* mo_CSC_CLCT0_BXN_rms = 0;
getEMUHisto(h::EMU_CSC_CLCT0_BXN_RMS, mo_CSC_CLCT0_BXN_rms);
for (uint32_t lct = 0; lct < clctsDatas.size(); lct++) {
if (getCSCHisto(h::CSC_CLCTXX_BXN, crateID, dmbID, lct, mo)) mo->Fill(clctsDatas[lct].getFullBX()%64);
int clct_dtime = clctsDatas[lct].getFullBX() - tmbHeader->BXNCount();
if (clct_dtime > 0) {
clct_dtime -= 3564;
}
if (getCSCHisto(h::CSC_CLCTXX_DTIME, crateID, dmbID, lct, mo)) {
int dTime = clct_dtime;
/*
if (clct_dtime < -16) {
dTime = clct_dtime + 32;
} else {
if (clct_dtime > 16) dTime = clct_dtime - 32;
}
*/
mo->Fill(dTime);
mo->SetAxisRange(0.1, 1.1 * (1.0 + mo->GetBinContent(mo->GetMaximumBin())), "Y");
double dTime_mean = mo->getTH1()->GetMean();
double dTime_rms = mo->getTH1()->GetRMS();
// == For CLCT0 Fill Summary dTime Histograms
if (lct == 0) {
if (cid.endcap() == 1) {
if (mo_CSC_Plus_endcap_CLCT0_dTime) mo_CSC_Plus_endcap_CLCT0_dTime->Fill(dTime);
}
if (cid.endcap() == 2) {
if (mo_CSC_Minus_endcap_CLCT0_dTime) mo_CSC_Minus_endcap_CLCT0_dTime->Fill(dTime);
}
if ( cscType && cscPosition && mo_CSC_CLCT0_BXN_mean) {
mo_CSC_CLCT0_BXN_mean->SetBinContent(cscPosition, cscType + 1, dTime_mean);
}
if (cscType && cscPosition && mo_CSC_CLCT0_BXN_rms) {
mo_CSC_CLCT0_BXN_rms->SetBinContent(cscPosition, cscType + 1, dTime_rms);
}
}
}
LOG_DEBUG << "LCT:" << lct << " Type:" << clctsDatas[lct].getStripType() << " Strip:" << clctsDatas[lct].getKeyStrip();
if (clctsDatas[lct].getStripType()) { // HalfStrip Type
if (getCSCHisto(h::CSC_CLCTXX_KEYHALFSTRIP, crateID, dmbID, lct, mo))
mo->Fill(clctsDatas[lct].getKeyStrip());
if (getCSCHisto(h::CSC_CLCTXX_DTIME_VS_HALF_STRIP, crateID, dmbID, lct, mo)) {
mo->Fill((int)(clctsDatas[lct].getKeyStrip()), clct_dtime);
/*
if (clct_dtime < -16) {
mo->Fill((int)(clctsDatas[lct].getKeyStrip()), clct_dtime + 32);
} else {
if (clct_dtime > 16) mo->Fill((int)(clctsDatas[lct].getKeyStrip()), clct_dtime - 32);
else mo->Fill((int)(clctsDatas[lct].getKeyStrip()), clct_dtime);
}
*/
}
if (getCSCHisto(h::CSC_CLCTXX_DTIME_PROFILE, crateID, dmbID, lct, mo)) {
mo->Fill((int)(clctsDatas[lct].getKeyStrip()), clct_dtime);
/*
if (clct_dtime < -16) {
mo->Fill((int)(clctsDatas[lct].getKeyStrip()), clct_dtime + 32);
} else {
if (clct_dtime > 16) mo->Fill((int)(clctsDatas[lct].getKeyStrip()), clct_dtime - 32);
else mo->Fill((int)(clctsDatas[lct].getKeyStrip()), clct_dtime);
}
*/
}
if (getCSCHisto(h::CSC_CLCTXX_HALF_STRIP_PATTERN, crateID, dmbID, lct, mo)) {
int pattern_clct = clctsDatas[lct].getPattern();
double tbin = -1;
switch (pattern_clct) {
case 0: tbin=0.; break;
case 1: tbin=1.; break;
case 2: tbin=2.; break;
case 3: tbin=10.; break;
case 4: tbin=3.; break;
case 5: tbin=9.; break;
case 6: tbin=4.; break;
case 7: tbin=8.; break;
case 8: tbin=5.; break;
case 9: tbin=7.; break;
case 10: tbin=6.; break;
}
if (tbin >= 0) mo->Fill(clctsDatas[lct].getKeyStrip(), tbin);
MonitorObject* mo1 = 0;
if (getCSCHisto(h::CSC_CLCT_HALF_STRIP_PATTERN_DISTR, crateID, dmbID, lct, mo1)) mo1->Fill(tbin);
}
if (getCSCHisto(h::CSC_CLCTXX_HALF_STRIP_QUALITY, crateID, dmbID, lct, mo))
mo->Fill((int)(clctsDatas[lct].getKeyStrip()),(int)(clctsDatas[lct].getQuality()));
if (mo_EventDisplay) {
mo_EventDisplay->SetBinContent(10, clctsDatas[lct].getKeyStrip(), clct_dtime);
mo_EventDisplay->SetBinContent(11, clctsDatas[lct].getKeyStrip(), clctsDatas[lct].getQuality());
}
if (getCSCHisto(h::CSC_CLCTXX_HALF_STRIP_QUALITY_DISTR, crateID, dmbID, lct, mo)) {
mo->Fill((int)(clctsDatas[lct].getQuality()));
if (lct == 0) {
MonitorObject* mo1 = 0;
if (cscType && cscPosition && getEMUHisto(h::EMU_CSC_CLCT0_QUALITY, mo1))
mo1->SetBinContent(cscPosition, cscType + 1, mo->getTH1()->GetMean());
}
}
if (getCSCHisto(h::CSC_CLCTXX_HALF_STRIP_QUALITY_PROFILE, crateID, dmbID, lct, mo))
mo->Fill((int)(clctsDatas[lct].getKeyStrip()), (int)(clctsDatas[lct].getQuality()));
} else { // DiStrip Type
LOG_INFO << "Entering block!";
if (getCSCHisto(h::CSC_CLCTXX_KEYDISTRIP, crateID, dmbID, lct, mo)) mo->Fill(clctsDatas[lct].getKeyStrip());
else LOG_ERROR << "Not found h::CSC_CLCTXX_KEYDISTRIP = " << h::CSC_CLCTXX_KEYDISTRIP;
if(lct == 0) clct_kewdistrip = clctsDatas[lct].getKeyStrip();
if (getCSCHisto(h::CSC_CLCTXX_DTIME_VS_DISTRIP, crateID, dmbID, lct, mo)) {
mo->Fill((int)(clctsDatas[lct].getKeyStrip()), clct_dtime);
/*
if(clct_dtime < -16) mo->Fill((int)(clctsDatas[lct].getKeyStrip()), clct_dtime + 32);
else {
if(clct_dtime > 16) mo->Fill((int)(clctsDatas[lct].getKeyStrip()), clct_dtime - 32);
else mo->Fill((int)(clctsDatas[lct].getKeyStrip()), clct_dtime);
}
*/
}
if (getCSCHisto(h::CSC_CLCTXX_DISTRIP_PATTERN, crateID, dmbID, lct, mo)) {
int pattern_clct = (int)((clctsDatas[lct].getPattern() >> 1) & 0x3);
if(pattern_clct == 1) mo->Fill(clctsDatas[lct].getKeyStrip(), 7.0);
if(pattern_clct == 3) mo->Fill(clctsDatas[lct].getKeyStrip(), 6.0);
if(pattern_clct == 5) mo->Fill(clctsDatas[lct].getKeyStrip(), 5.0);
if(pattern_clct == 7) mo->Fill(clctsDatas[lct].getKeyStrip(), 4.0);
if(pattern_clct == 6) mo->Fill(clctsDatas[lct].getKeyStrip(), 3.0);
if(pattern_clct == 4) mo->Fill(clctsDatas[lct].getKeyStrip(), 2.0);
if(pattern_clct == 2) mo->Fill(clctsDatas[lct].getKeyStrip(), 1.0);
if(pattern_clct == 0) mo->Fill(clctsDatas[lct].getKeyStrip(), 0.0);
}
if (getCSCHisto(h::CSC_CLCTXX_DISTRIP_QUALITY, crateID, dmbID, lct, mo))
mo->Fill((int)(clctsDatas[lct].getKeyStrip()),(int)(clctsDatas[lct].getQuality()));
if (getCSCHisto(h::CSC_CLCTXX_DISTRIP_QUALITY_PROFILE, crateID, dmbID, lct, mo))
mo->Fill((int)(clctsDatas[lct].getKeyStrip()), (int)(clctsDatas[lct].getQuality()));
}
}
int N_CFEBs = 5;
int NumberOfLayersWithHitsInCLCT = 0;
int NumberOfHalfStripsWithHitsInCLCT = 0;
if (clctData && clctData->check()) {
MonitorObject* mo_CFEB_Comparators_TimeSamples = 0;
getCSCHisto(h::CSC_CFEB_COMPARATORS_TIMESAMPLES, crateID, dmbID, mo_CFEB_Comparators_TimeSamples);
MonitorObject* mo_CSC_Plus_endcap_CFEB_Comparators_Time = 0;
getEMUHisto(h::EMU_CSC_ENDCAP_PLUS_CFEB_COMPARATORS_TIME, mo_CSC_Plus_endcap_CFEB_Comparators_Time);
MonitorObject* mo_CSC_Minus_endcap_CFEB_Comparators_Time = 0;
getEMUHisto(h::EMU_CSC_ENDCAP_MINUS_CFEB_COMPARATORS_TIME, mo_CSC_Minus_endcap_CFEB_Comparators_Time);
MonitorObject* mo_CSC_CFEB_Comparators_Time_mean = 0;
getEMUHisto(h::EMU_CSC_CFEB_COMPARATORS_TIME_MEAN, mo_CSC_CFEB_Comparators_Time_mean);
MonitorObject* mo_CSC_CFEB_Comparators_Time_rms = 0;
getEMUHisto(h::EMU_CSC_CFEB_COMPARATORS_TIME_RMS, mo_CSC_CFEB_Comparators_Time_rms);
for(int nCFEB = 0; nCFEB < N_CFEBs; ++nCFEB) {
for (int nLayer = 1; nLayer <= 6; nLayer++) {
int hstrip_previous = -1;
int tbin_clct_previous = -1;
bool CheckLayerCLCT = true;
std::vector<CSCComparatorDigi> compOutData = clctData->comparatorDigis(nLayer, nCFEB);
for (std::vector<CSCComparatorDigi>::iterator compOutDataItr = compOutData.begin(); compOutDataItr != compOutData.end(); ++compOutDataItr) {
int hstrip = 2 * (compOutDataItr->getStrip() - 1) + compOutDataItr->getComparator();
std::vector<int> tbins_clct = compOutDataItr->getTimeBinsOn();
int tbin_clct = (int)compOutDataItr->getTimeBin();
if (mo_EventDisplay) {
mo_EventDisplay->SetBinContent(nLayer + 11, hstrip, tbin_clct + 1);
setEmuEventDisplayBit(mo_Emu_EventDisplay_Anode, glChamberIndex, 160 + hstrip, nLayer - 1);
setEmuEventDisplayBit(mo_Emu_EventDisplay_XY, glChamberIndex, 160 + hstrip, nLayer - 1);
}
if(CheckLayerCLCT) {
NumberOfLayersWithHitsInCLCT = NumberOfLayersWithHitsInCLCT + 1;
CheckLayerCLCT = false;
}
for (uint32_t n=0; n < tbins_clct.size(); n++) {
tbin_clct = tbins_clct[n];
if(hstrip != hstrip_previous || (tbin_clct != tbin_clct_previous + 1 && tbin_clct != tbin_clct_previous - 1) ) {
if (getCSCHisto(h::CSC_CLCTTIME_LYXX, crateID, dmbID, nLayer, mo)) mo->Fill(hstrip, tbin_clct);
if (mo_CFEB_Comparators_TimeSamples) mo_CFEB_Comparators_TimeSamples->Fill(tbin_clct);
if (cid.endcap() == 1) {
if (mo_CSC_Plus_endcap_CFEB_Comparators_Time) mo_CSC_Plus_endcap_CFEB_Comparators_Time->Fill(tbin_clct);
}
if (cid.endcap() == 2) {
if (mo_CSC_Minus_endcap_CFEB_Comparators_Time) mo_CSC_Minus_endcap_CFEB_Comparators_Time->Fill(tbin_clct);
}
if (getCSCHisto(h::CSC_CLCTTIME_LYXX_PROFILE, crateID, dmbID, nLayer, mo)) mo->Fill(hstrip, tbin_clct);
if (getCSCHisto(h::CSC_CLCT_LYXX_RATE, crateID, dmbID, nLayer, mo)) {
mo->Fill(hstrip);
double number_hstrip = mo->GetBinContent(hstrip+1);
double Number_of_entries_CLCT = mo->GetEntries();
if (getCSCHisto(h::CSC_CLCT_LYXX_EFFICIENCY, crateID, dmbID, nLayer, mo)) {
mo->SetBinContent(hstrip + 1, number_hstrip);
if(DMBEvents > 0) {
double norm = (100.0 * Number_of_entries_CLCT) / ((double)(DMBEvents));
mo->SetNormFactor(norm);
} else {
mo->SetNormFactor(100.0);
}
mo->SetEntries(DMBEvents);
}
}
}
if(hstrip != hstrip_previous) {
NumberOfHalfStripsWithHitsInCLCT = NumberOfHalfStripsWithHitsInCLCT + 1;
}
hstrip_previous = hstrip;
tbin_clct_previous = tbin_clct;
}
}
}
}
if (mo_CFEB_Comparators_TimeSamples) {
double comps_time_mean = mo_CFEB_Comparators_TimeSamples->getTH1()->GetMean();
double comps_time_rms = mo_CFEB_Comparators_TimeSamples->getTH1()->GetRMS();
if ( cscType && cscPosition && mo_CSC_CFEB_Comparators_Time_mean) {
mo_CSC_CFEB_Comparators_Time_mean->SetBinContent(cscPosition, cscType + 1, comps_time_mean);
}
if ( cscType && cscPosition && mo_CSC_CFEB_Comparators_Time_rms) {
mo_CSC_CFEB_Comparators_Time_rms->SetBinContent(cscPosition, cscType + 1, comps_time_rms);
}
}
} else {
LOG_ERROR << cscTag << " Can not unpack CLCT Data";
}
if (getCSCHisto(h::CSC_CLCT_NUMBER_OF_LAYERS_WITH_HITS, crateID, dmbID, mo)) {
mo->Fill(NumberOfLayersWithHitsInCLCT);
MonitorObject* mo1 = 0;
if (cscType && cscPosition && getEMUHisto(h::EMU_CSC_CLCT_PLANES_WITH_HITS, mo1)) {
mo1->SetBinContent(cscPosition, cscType + 1, mo->getTH1()->GetMean());
}
}
if (getCSCHisto(h::CSC_CLCT_NUMBER_OF_HALFSTRIPS_WITH_HITS, crateID, dmbID, mo))
mo->Fill(NumberOfHalfStripsWithHitsInCLCT);
} else {
LOG_ERROR << cscTag << " Can not unpack TMB Header or/and Trailer";
}
} else {
LOG_ERROR << cscTag << " Can not unpack TMB Data";
}
} else {
if (getCSCHisto(h::CSC_CLCT_NUMBER_RATE, crateID, dmbID, mo)) {
mo->Fill(0);
int nCLCT = (int)mo->GetBinContent(1);
if (getCSCHisto(h::CSC_CLCT_NUMBER, crateID, dmbID, mo)) mo->SetBinContent(1, (float)(nCLCT) / (float)(DMBEvents) * 100.0);
}
if ((tmb_dav > 0) && (getCSCHisto(h::CSC_DMB_FEB_UNPACKED_VS_DAV, crateID, dmbID, mo))) {
mo->Fill(1.0, 1.0);
}
}
int NumberOfUnpackedCFEBs = 0;
const int N_CFEBs = 5, N_Samples = 16, N_Layers = 6, N_Strips = 16;
int ADC = 0, OutOffRange, Threshold = 30;
// CSCCFEBData * cfebData[5];
// CSCCFEBTimeSlice * timeSlice[5][16];
// CSCCFEBDataWord * timeSample[5][16][6][16];
int Pedestal[5][6][16];
std::pair<int,int> CellPeak[5][6][16];
memset(CellPeak, 0, sizeof(CellPeak));
// float PedestalError[5][6][16];
// CSCCFEBSCAControllerWord scaControllerWord[5][16][6];
bool CheckCFEB = true;
float Clus_Sum_Charge;
int TrigTime, L1APhase, UnpackedTrigTime, LCTPhase, SCA_BLK, NmbTimeSamples;
int FreeCells, LCT_Pipe_Empty, LCT_Pipe_Full, LCT_Pipe_Count, L1_Pipe_Empty, L1_Pipe_Full, Buffer_Count;
bool CheckThresholdStripInTheLayer[6][80];
for(int i=0; i<6; i++) {
for(int j = 0; j < 80; j++) CheckThresholdStripInTheLayer[i][j] = true;
}
bool CheckOutOffRangeStripInTheLayer[6][80];
for(int i=0; i<6; i++) {
for(int j=0; j<80; j++) CheckOutOffRangeStripInTheLayer[i][j] = true;
}
float cscdata[N_CFEBs * 16][N_Samples][N_Layers];
int SCABlockData[N_CFEBs * 16][N_Samples][N_Layers];
memset(cscdata, 0, sizeof(cscdata));
memset(SCABlockData, 0, sizeof(SCABlockData));
char hbuf[255];
memset(hbuf, 0, sizeof(hbuf));
MonitorObject* mo_CFEB_SCA_CellPeak_Time = 0;
getCSCHisto(h::CSC_CFEB_SCA_CELLPEAK_TIME, crateID, dmbID, mo_CFEB_SCA_CellPeak_Time);
MonitorObject* mo_CSC_Plus_endcap_CFEB_SCA_CellPeak_Time = 0;
getEMUHisto(h::EMU_CSC_PLUS_ENDCAP_CFEB_SCA_CELLPEAK_TIME, mo_CSC_Plus_endcap_CFEB_SCA_CellPeak_Time);
MonitorObject* mo_CSC_Minus_endcap_CFEB_SCA_CellPeak_Time = 0;
getEMUHisto(h::EMU_CSC_MINUS_ENDCAP_CFEB_SCA_CELLPEAK_TIME, mo_CSC_Minus_endcap_CFEB_SCA_CellPeak_Time);
MonitorObject* mo_CSC_CFEB_SCA_CellPeak_Time_mean = 0;
getEMUHisto(h::EMU_CSC_CFEB_SCA_CELLPEAK_TIME_MEAN, mo_CSC_CFEB_SCA_CellPeak_Time_mean);
MonitorObject* mo_CSC_CFEB_SCA_CellPeak_Time_rms = 0;
getEMUHisto(h::EMU_CSC_CFEB_SCA_CELLPEAK_TIME_RMS, mo_CSC_CFEB_SCA_CellPeak_Time_rms);
for(int nCFEB = 0; nCFEB < N_CFEBs; ++nCFEB) {
// cfebData[nCFEB] = data.cfebData(nCFEB);
if (data.cfebData(nCFEB) !=0) {
if (!data.cfebData(nCFEB)->check()) continue;
FEBunpacked = FEBunpacked +1; // Increment number of unpacked FED
NumberOfUnpackedCFEBs = NumberOfUnpackedCFEBs + 1; // Increment number of unpaked CFEB
cfeb_unpacked = 1;
if(CheckCFEB == true){
if (getCSCHisto(h::CSC_CSC_RATE, crateID, dmbID, mo)) {
mo->Fill(4);
uint32_t CFEBEvent = (uint32_t)mo->GetBinContent(5);
config->setChamberCounterValue(CFEB_TRIGGERS, crateID, dmbID, CFEBEvent);
if (getCSCHisto(h::CSC_CSC_EFFICIENCY, crateID, dmbID, mo)) {
if(config->getNEvents() > 0) {
mo->SetBinContent(3, ((float)CFEBEvent/(float)(DMBEvents)*100.0));
mo->SetEntries((int)DMBEvents);
}
}
}
if ((cfeb_dav2 > 0) && (getCSCHisto(h::CSC_DMB_FEB_UNPACKED_VS_DAV, crateID, dmbID, mo))) {
mo->Fill(2.0, 0.0);
}
CheckCFEB = false;
}
NmbTimeSamples= (data.cfebData(nCFEB))->nTimeSamples();
MonitorObject* mo_CFEB_SCA_Block_Occupancy = 0;
getCSCHisto(h::CSC_CFEBXX_SCA_BLOCK_OCCUPANCY, crateID, dmbID, nCFEB + 1, mo_CFEB_SCA_Block_Occupancy);
MonitorObject* mo_CFEB_Free_SCA_Cells = 0;
getCSCHisto(h::CSC_CFEBXX_FREE_SCA_CELLS, crateID, dmbID, nCFEB + 1, mo_CFEB_Free_SCA_Cells);
MonitorObject* mo_CFEB_SCA_Blocks_Locked_by_LCTs = 0;
getCSCHisto(h::CSC_CFEBXX_SCA_BLOCKS_LOCKED_BY_LCTS, crateID, dmbID, nCFEB + 1, mo_CFEB_SCA_Blocks_Locked_by_LCTs);
MonitorObject* mo_CFEB_SCA_Blocks_Locked_by_LCTxL1 = 0;
getCSCHisto(h::CSC_CFEBXX_SCA_BLOCKS_LOCKED_BY_LCTXL1, crateID, dmbID, nCFEB + 1, mo_CFEB_SCA_Blocks_Locked_by_LCTxL1);
MonitorObject* mo_CFEB_DMB_L1A_diff = 0;
getCSCHisto(h::CSC_CFEBXX_DMB_L1A_DIFF, crateID, dmbID, nCFEB + 1, mo_CFEB_DMB_L1A_diff);
for(int nLayer = 1; nLayer <= N_Layers; ++nLayer) {
MonitorObject * mo_CFEB_Out_Off_Range_Strips = 0;
getCSCHisto(h::CSC_CFEB_OUT_OFF_RANGE_STRIPS_LYXX, crateID, dmbID, nLayer, mo_CFEB_Out_Off_Range_Strips);
MonitorObject * mo_CFEB_Active_Samples_vs_Strip = 0;
getCSCHisto(h::CSC_CFEB_ACTIVE_SAMPLES_VS_STRIP_LYXX, crateID, dmbID, nLayer, mo_CFEB_Active_Samples_vs_Strip);
MonitorObject * mo_CFEB_Active_Samples_vs_Strip_Profile = 0;
getCSCHisto(h::CSC_CFEB_ACTIVE_SAMPLES_VS_STRIP_LYXX_PROFILE, crateID, dmbID, nLayer, mo_CFEB_Active_Samples_vs_Strip_Profile);
MonitorObject * mo_CFEB_ActiveStrips = 0;
getCSCHisto(h::CSC_CFEB_ACTIVESTRIPS_LYXX, crateID, dmbID, nLayer, mo_CFEB_ActiveStrips);
MonitorObject * mo_CFEB_SCA_Cell_Peak = 0;
getCSCHisto(h::CSC_CFEB_SCA_CELL_PEAK_LY_XX, crateID, dmbID, nLayer, mo_CFEB_SCA_Cell_Peak);
MonitorObject * mo_CFEB_Pedestal_withEMV_Sample = 0;
getCSCHisto(h::CSC_CFEB_PEDESTAL_WITHEMV_SAMPLE_01_LYXX, crateID, dmbID, nLayer, mo_CFEB_Pedestal_withEMV_Sample);
MonitorObject * mo_CFEB_Pedestal_withRMS_Sample = 0;
getCSCHisto(h::CSC_CFEB_PEDESTAL_WITHRMS_SAMPLE_01_LYXX, crateID, dmbID, nLayer, mo_CFEB_Pedestal_withRMS_Sample);
MonitorObject * mo_CFEB_PedestalRMS_Sample = 0;
getCSCHisto(h::CSC_CFEB_PEDESTALRMS_SAMPLE_01_LYXX, crateID, dmbID, nLayer, mo_CFEB_PedestalRMS_Sample);
for(int nSample = 0; nSample < NmbTimeSamples; ++nSample) {
// timeSlice[nCFEB][nSample] = (CSCCFEBTimeSlice * )((cfebData[nCFEB])->timeSlice(nSample));
if (timeSlice(data, nCFEB, nSample) == 0) {
LOG_WARN << "CFEB" << nCFEB << " nSample: " << nSample << " - B-Word";
continue;
}
if (mo_CFEB_DMB_L1A_diff && !fCloseL1As ) {
int cfeb_dmb_l1a_diff = (int)((timeSlice(data, nCFEB, nSample)->get_L1A_number())-dmbHeader->l1a()%64);
if (cfeb_dmb_l1a_diff != 0) {
L1A_out_of_sync = true;
}
if(cfeb_dmb_l1a_diff < -32) mo->Fill(cfeb_dmb_l1a_diff + 64);
else {
if(cfeb_dmb_l1a_diff >= 32) mo->Fill(cfeb_dmb_l1a_diff - 64);
else mo_CFEB_DMB_L1A_diff->Fill(cfeb_dmb_l1a_diff);
}
mo_CFEB_DMB_L1A_diff->SetAxisRange(0.1, 1.1*(1.0+mo_CFEB_DMB_L1A_diff->GetBinContent(mo_CFEB_DMB_L1A_diff->GetMaximumBin())), "Y");
}
// scaControllerWord[nCFEB][nSample][nLayer-1] = timeSlice(cfebData, nCFEB, nSample)->scaControllerWord(nLayer);
TrigTime = (int)(timeSlice(data, nCFEB, nSample)->scaControllerWord(nLayer).trig_time);
FreeCells = timeSlice(data, nCFEB, nSample)->get_n_free_sca_blocks();
LCT_Pipe_Empty = timeSlice(data, nCFEB, nSample)->get_lctpipe_empty();
LCT_Pipe_Full = timeSlice(data, nCFEB, nSample)->get_lctpipe_full();
LCT_Pipe_Count = timeSlice(data, nCFEB, nSample)->get_lctpipe_count();
L1_Pipe_Empty = timeSlice(data, nCFEB, nSample)->get_l1pipe_empty();
L1_Pipe_Full = timeSlice(data, nCFEB, nSample)->get_l1pipe_full();
Buffer_Count = timeSlice(data, nCFEB, nSample)->get_buffer_count();
SCA_BLK = (int)(timeSlice(data, nCFEB, nSample)->scaControllerWord(nLayer).sca_blk);
for(int nStrip = 0; nStrip < N_Strips; ++nStrip) {
SCABlockData[nCFEB*16+nStrip][nSample][nLayer-1] = SCA_BLK;
}
if (mo_CFEB_SCA_Block_Occupancy) mo_CFEB_SCA_Block_Occupancy->Fill(SCA_BLK);
if (mo_CFEB_Free_SCA_Cells) {
if (timeSlice(data, nCFEB, nSample)->scaControllerWord(nLayer).sca_full == 1) mo_CFEB_Free_SCA_Cells->Fill(-1);
mo_CFEB_Free_SCA_Cells->Fill(FreeCells);
}
if (mo_CFEB_SCA_Blocks_Locked_by_LCTs) {
if (LCT_Pipe_Empty == 1) mo_CFEB_SCA_Blocks_Locked_by_LCTs->Fill(-0.5);
if (LCT_Pipe_Full == 1) mo_CFEB_SCA_Blocks_Locked_by_LCTs->Fill(16.5);
mo_CFEB_SCA_Blocks_Locked_by_LCTs->Fill(LCT_Pipe_Count);
}
if (mo_CFEB_SCA_Blocks_Locked_by_LCTxL1) {
if (L1_Pipe_Empty == 1) mo_CFEB_SCA_Blocks_Locked_by_LCTxL1->Fill(-0.5);
if (L1_Pipe_Full == 1) mo_CFEB_SCA_Blocks_Locked_by_LCTxL1->Fill(31.5);
mo_CFEB_SCA_Blocks_Locked_by_LCTxL1->Fill(Buffer_Count);
}
if(nSample == 0 && nLayer == 1) {
TrigTime = (int)(timeSlice(data, nCFEB, nSample)->scaControllerWord(nLayer).trig_time);
int k = 1;
while (((TrigTime >> (k-1)) & 0x1) != 1 && k <= 8) {
k = k + 1;
}
L1APhase = (int)((timeSlice(data, nCFEB, nSample)->scaControllerWord(nLayer).l1a_phase) & 0x1);
UnpackedTrigTime = ((k << 1) & 0xE) + L1APhase;
if (getCSCHisto(h::CSC_CFEBXX_L1A_SYNC_TIME, crateID, dmbID, nCFEB + 1, mo))
mo->Fill((int)UnpackedTrigTime);
LCTPhase = (int)((timeSlice(data, nCFEB, nSample)->scaControllerWord(nLayer).lct_phase)&0x1);
if (getCSCHisto(h::CSC_CFEBXX_LCT_PHASE_VS_L1A_PHASE, crateID, dmbID, nCFEB + 1, mo))
mo->Fill(LCTPhase, L1APhase);
if (getCSCHisto(h::CSC_CFEBXX_L1A_SYNC_TIME_VS_DMB, crateID, dmbID, nCFEB + 1, mo))
mo->Fill((int)(dmbHeader->dmbCfebSync()), (int)UnpackedTrigTime);
if (getCSCHisto(h::CSC_CFEBXX_L1A_SYNC_TIME_DMB_DIFF, crateID, dmbID, nCFEB + 1, mo)) {
int cfeb_dmb_L1A_sync_time = (int)(dmbHeader->dmbCfebSync()) - (int)UnpackedTrigTime;
if(cfeb_dmb_L1A_sync_time < -8) mo->Fill(cfeb_dmb_L1A_sync_time+16);
else {
if(cfeb_dmb_L1A_sync_time >= 8) mo->Fill(cfeb_dmb_L1A_sync_time-16);
else mo->Fill(cfeb_dmb_L1A_sync_time);
}
mo->SetAxisRange(0.1, 1.1*(1.0+mo->GetBinContent(mo->GetMaximumBin())), "Y");
}
}
for(int nStrip = 1; nStrip <= N_Strips; ++nStrip) {
// timeSample[nCFEB][nSample][nLayer - 1][nStrip - 1]=(data.cfebData(nCFEB)->timeSlice(nSample))->timeSample(nLayer,nStrip);
ADC = (int) ((timeSample(data, nCFEB, nSample, nLayer, nStrip)->adcCounts) & 0xFFF);
OutOffRange = (int) ((timeSample(data, nCFEB, nSample, nLayer, nStrip)->adcOverflow) & 0x1);
if(nSample == 0) { // nSample == 0
CellPeak[nCFEB][nLayer-1][nStrip-1] = std::make_pair(nSample,ADC);
Pedestal[nCFEB][nLayer-1][nStrip-1] = ADC;
}
if(OutOffRange == 1 && CheckOutOffRangeStripInTheLayer[nLayer - 1][nCFEB * 16 + nStrip - 1] == true) {
if ( mo_CFEB_Out_Off_Range_Strips)
mo_CFEB_Out_Off_Range_Strips->Fill((int)(nCFEB * 16 + nStrip - 1));
CheckOutOffRangeStripInTheLayer[nLayer - 1][nCFEB * 16 + nStrip - 1] = false;
}
if(ADC - Pedestal[nCFEB][nLayer - 1][nStrip - 1] > Threshold && OutOffRange != 1) {
if (mo_CFEB_Active_Samples_vs_Strip)
mo_CFEB_Active_Samples_vs_Strip->Fill((int)(nCFEB * 16 + nStrip - 1), nSample);
if (mo_CFEB_Active_Samples_vs_Strip_Profile)
mo_CFEB_Active_Samples_vs_Strip_Profile->Fill((int)(nCFEB * 16 + nStrip - 1), nSample);
if(CheckThresholdStripInTheLayer[nLayer - 1][nCFEB * 16 + nStrip - 1] == true) {
if (mo_CFEB_ActiveStrips)
mo_CFEB_ActiveStrips->Fill((int)(nCFEB * 16 + nStrip));
CheckThresholdStripInTheLayer[nLayer - 1][nCFEB * 16 + nStrip - 1] = false;
}
if(ADC - Pedestal[nCFEB][nLayer - 1][nStrip - 1] > Threshold) {
cscdata[nCFEB * 16 + nStrip - 1][nSample][nLayer - 1] = ADC - Pedestal[nCFEB][nLayer - 1][nStrip - 1];
}
if(ADC > CellPeak[nCFEB][nLayer - 1][nStrip - 1].second) {
CellPeak[nCFEB][nLayer - 1][nStrip - 1].first = nSample;
CellPeak[nCFEB][nLayer - 1][nStrip - 1].second = ADC;
}
}
if(nSample == 1) {
int channel_threshold = 40;
if (std::abs(ADC - Pedestal[nCFEB][nLayer - 1][nStrip - 1]) < channel_threshold) {
if (mo_CFEB_Pedestal_withEMV_Sample)
mo_CFEB_Pedestal_withEMV_Sample->Fill((int)(nCFEB * 16 + nStrip - 1), Pedestal[nCFEB][nLayer - 1][nStrip - 1]);
if (mo_CFEB_Pedestal_withRMS_Sample) {
mo_CFEB_Pedestal_withRMS_Sample->Fill((int)(nCFEB * 16 + nStrip - 1), Pedestal[nCFEB][nLayer - 1][nStrip - 1]);
// PedestalError[nCFEB][nLayer - 1][nStrip - 1] = mo_CFEB_Pedestal_withRMS_Sample->GetBinError(nCFEB * 16 + nStrip);
if (mo_CFEB_PedestalRMS_Sample) {
mo_CFEB_PedestalRMS_Sample->SetBinContent(nCFEB * 16 + nStrip - 1, mo_CFEB_Pedestal_withRMS_Sample->GetBinError(nCFEB * 16 + nStrip));
mo_CFEB_PedestalRMS_Sample->SetBinError(nCFEB * 16 + nStrip - 1, 0.00000000001);
}
}
}
Pedestal[nCFEB][nLayer-1][nStrip-1] += ADC;
Pedestal[nCFEB][nLayer-1][nStrip-1] /= 2;
}
}
}
for(int nStrip = 1; nStrip <= N_Strips; ++nStrip) {
if (mo_CFEB_SCA_Cell_Peak && CellPeak[nCFEB][nLayer - 1][nStrip - 1].first) {
mo_CFEB_SCA_Cell_Peak->Fill((int)(nCFEB * 16 + nStrip - 1), CellPeak[nCFEB][nLayer - 1][nStrip - 1].first);
if (mo_CFEB_SCA_CellPeak_Time) {
mo_CFEB_SCA_CellPeak_Time->Fill(CellPeak[nCFEB][nLayer - 1][nStrip - 1].first);
}
if (mo_EventDisplay) {
int peak_sample = CellPeak[nCFEB][nLayer-1][nStrip-1].first;
int peak_adc = CellPeak[nCFEB][nLayer-1][nStrip-1].second;
int pedestal = Pedestal[nCFEB][nLayer-1][nStrip-1];
int peak_sca_charge = peak_adc - pedestal;
if (peak_adc - pedestal > Threshold) {
if (peak_sample >=1) {
peak_sca_charge += ((timeSample(data, nCFEB, peak_sample-1, nLayer, nStrip)->adcCounts)&0xFFF)-pedestal;
}
if (peak_sample < NmbTimeSamples-1) {
peak_sca_charge += ((timeSample(data, nCFEB, peak_sample+1, nLayer, nStrip)->adcCounts)&0xFFF)-pedestal;
}
mo_EventDisplay->SetBinContent(nLayer + 17, nCFEB * 16 + nStrip - 1, peak_sca_charge);
setEmuEventDisplayBit(mo_Emu_EventDisplay_Cathode, glChamberIndex, nCFEB * 16 + nStrip - 1, nLayer - 1);
}
}
if (cid.endcap() == 1) {
if (mo_CSC_Plus_endcap_CFEB_SCA_CellPeak_Time)
mo_CSC_Plus_endcap_CFEB_SCA_CellPeak_Time->Fill(CellPeak[nCFEB][nLayer - 1][nStrip - 1].first);
}
if (cid.endcap() == 2) {
if (mo_CSC_Minus_endcap_CFEB_SCA_CellPeak_Time)
mo_CSC_Minus_endcap_CFEB_SCA_CellPeak_Time->Fill(CellPeak[nCFEB][nLayer - 1][nStrip - 1].first);
}
}
}
}
}
}
// Fill Summary CFEB Raw Hits Timing Plots
if (mo_CFEB_SCA_CellPeak_Time) {
double cellpeak_time_mean = mo_CFEB_SCA_CellPeak_Time->getTH1()->GetMean();
double cellpeak_time_rms = mo_CFEB_SCA_CellPeak_Time->getTH1()->GetRMS();
if (cscType && cscPosition && mo_CSC_CFEB_SCA_CellPeak_Time_mean) {
mo_CSC_CFEB_SCA_CellPeak_Time_mean->SetBinContent(cscPosition, cscType + 1, cellpeak_time_mean);
}
if (cscType && cscPosition && mo_CSC_CFEB_SCA_CellPeak_Time_rms) {
mo_CSC_CFEB_SCA_CellPeak_Time_rms->SetBinContent(cscPosition, cscType + 1 ,cellpeak_time_rms);
}
}
const int a = N_CFEBs * N_Strips;
const int b = a * N_Samples;
float Cathodes[b * N_Layers];
for(int i = 0; i < N_Layers; ++i) {
const int b1 = i * b;
for(int j = 0; j < a; ++j) {
const int b2 = b1 + j;
for(int k = 0; k < N_Samples; ++k) {
Cathodes[b2 + a * k] = cscdata[j][k][i];
}
}
}
std::vector<StripCluster> Clus;
Clus.clear();
StripClusterFinder ClusterFinder(N_Layers, N_Samples, N_CFEBs, N_Strips);
for(int nLayer = 1; nLayer <= N_Layers; ++nLayer) {
ClusterFinder.DoAction(nLayer - 1, Cathodes);
Clus = ClusterFinder.getClusters();
if (getCSCHisto(h::CSC_CFEB_NUMBER_OF_CLUSTERS_LY_XX, crateID, dmbID, nLayer, mo)) {
// Allways true because Clus.size() = unsigned
// if (Clus.size() >= 0)
mo->Fill(Clus.size());
}
for(uint32_t u = 0; u < Clus.size(); u++){
Clus_Sum_Charge = 0.0;
for(uint32_t k = 0;k < Clus[u].ClusterPulseMapHeight.size(); k++) {
for(int n = Clus[u].LFTBNDTime; n < Clus[u].IRTBNDTime; n++) {
Clus_Sum_Charge = Clus_Sum_Charge + Clus[u].ClusterPulseMapHeight[k].height_[n];
}
}
if (getCSCHisto(h::CSC_CFEB_CLUSTERS_CHARGE_LY_XX, crateID, dmbID, nLayer, mo)) {
mo->Fill(Clus_Sum_Charge);
}
if (getCSCHisto(h::CSC_CFEB_WIDTH_OF_CLUSTERS_LY_XX, crateID, dmbID, nLayer, mo)) {
mo->Fill(Clus[u].IRTBNDStrip - Clus[u].LFTBNDStrip + 1);
}
if (getCSCHisto(h::CSC_CFEB_CLUSTER_DURATION_LY_XX, crateID, dmbID, nLayer, mo)) {
mo->Fill(Clus[u].IRTBNDTime - Clus[u].LFTBNDTime + 1);
}
}
Clus.clear();
}
if (getCSCHisto(h::CSC_DMB_FEB_COMBINATIONS_UNPACKED_VS_DAV, crateID, dmbID, mo)) {
float feb_combination_unpacked = -1.0;
if(alct_unpacked == 0 && tmb_unpacked == 0 && cfeb_unpacked == 0) feb_combination_unpacked = 0.0;
if(alct_unpacked > 0 && tmb_unpacked == 0 && cfeb_unpacked == 0) feb_combination_unpacked = 1.0;
if(alct_unpacked == 0 && tmb_unpacked > 0 && cfeb_unpacked == 0) feb_combination_unpacked = 2.0;
if(alct_unpacked == 0 && tmb_unpacked == 0 && cfeb_unpacked > 0) feb_combination_unpacked = 3.0;
if(alct_unpacked > 0 && tmb_unpacked > 0 && cfeb_unpacked == 0) feb_combination_unpacked = 4.0;
if(alct_unpacked > 0 && tmb_unpacked == 0 && cfeb_unpacked > 0) feb_combination_unpacked = 5.0;
if(alct_unpacked == 0 && tmb_unpacked > 0 && cfeb_unpacked > 0) feb_combination_unpacked = 6.0;
if(alct_unpacked > 0 && tmb_unpacked > 0 && cfeb_unpacked > 0) feb_combination_unpacked = 7.0;
mo->Fill(feb_combination_dav, feb_combination_unpacked);
}
if((clct_kewdistrip > -1 && alct_keywg > -1) && (getCSCHisto(h::CSC_CLCT0_KEYDISTRIP_VS_ALCT0_KEYWIREGROUP, crateID, dmbID, mo))) {
mo->Fill(alct_keywg, clct_kewdistrip);
}
if (L1A_out_of_sync && cscType && cscPosition && getEMUHisto(h::EMU_CSC_L1A_OUT_OF_SYNC, mo)){
mo->Fill(cscPosition, cscType);
}
if (L1A_out_of_sync && getEMUHisto(h::EMU_DMB_L1A_OUT_OF_SYNC, mo)){
mo->Fill(crateID, dmbID);
}
}
| void cscdqm::EventProcessor::processDDU | ( | const CSCDDUEventData & | dduData, |
| const CSCDCCExaminer & | binChecker | ||
| ) | [private] |
Process DDU output and fill MOs.
| dduData | DDU object to process |
LOG4CPLUS_WARN(logger_,eTag << "Skipped because of DDU Trailer check failed.");
Only 8bits are significant; format of DDU id is Dxx
DDU word counter
LOG4CPLUS_DEBUG(logger_,dduTag << " Trailer Word (64 bits) Count = " << std::dec << trl_word_count);
if (fCloseL1As) LOG4CPLUS_DEBUG(logger_,eTag << " Close L1As bit is set");
DDU Header bunch crossing number (BXN)
LOG4CPLUS_WARN(logger_,dduTag << " DDU Header BXN Number = " << std::dec << BXN);
L1A number from DDU Header
LOG4CPLUS_DEBUG(logger_,dduTag << " Header L1A Number = " << std::dec << L1ANumber);
Handle 24-bit L1A roll-over maximum value case
== Occupancy and number of DMB (CSC) with Data available (DAV) in header of particular DDU
== Number of active DMB (CSC) in header of particular DDU
LOG4CPLUS_DEBUG(logger_,dduTag << " Header DMB DAV = 0x" << std::hex << dmb_dav_header);
LOG4CPLUS_DEBUG(logger_,dduTag << " Header Number of Active DMB = " << std::dec << dmb_active_header);
Check binary Error status at DDU Trailer
LOG4CPLUS_DEBUG(logger_,dduTag << " Trailer Error Status = 0x" << std::hex << trl_errorstat);
Unpack all found CSC
First event per DDU
Definition at line 27 of file CSCDQM_EventProcessor_processDDU.cc.
References BXN, CSCDDUHeader::bxnum(), CSCDDUTrailer::check(), config, CSCDDUEventData::cscData(), CSCDDUHeader::dmb_dav(), CSCDDUTrailer::dmb_full(), CSCDDUTrailer::dmb_warn(), CSCDDUTrailer::errorstat(), fCloseL1As, cscdqm::MonitorObject::Fill(), fNotFirstEvent, cscdqm::MonitorObject::GetBinContent(), getDDUHisto(), getEMUHisto(), cscdqm::Configuration::getNEvents(), cscdqm::DDUHistoDef::getPath(), CSCDDUEventData::header(), i, L1ANumber, L1ANumbers, CSCDDUHeader::live_cscs(), CSCDDUHeader::lvl1num(), CSCDDUHeader::ncsc(), processCSC(), CSCDDUTrailer::reserved(), cscdqm::MonitorObject::SetBinContent(), cscdqm::MonitorObject::SetEntries(), CSCDDUEventData::sizeInWords(), CSCDDUHeader::source_id(), CSCDDUEventData::trailer(), and CSCDDUTrailer::wordcount().
{
CSCDDUHeader dduHeader = dduData.header();
CSCDDUTrailer dduTrailer = dduData.trailer();
if (!dduTrailer.check()) {
return;
}
int dduID = dduHeader.source_id() & 0xFF;
MonitorObject* mo = 0;
if (getEMUHisto(h::EMU_ALL_DDUS_IN_READOUT, mo)) {
mo->Fill(dduID);
}
std::string dduTag = DDUHistoDef::getPath(dduID);
uint32_t dduEvtSize = dduData.sizeInWords()*2;
// if (dduEvtSize > 48)
{
int trl_word_count = 0;
trl_word_count = dduTrailer.wordcount();
if (getDDUHisto(h::DDU_BUFFER_SIZE, dduID, mo)) mo->Fill(dduEvtSize);
if (getDDUHisto(h::DDU_WORD_COUNT, dduID, mo)) mo->Fill(trl_word_count );
if (trl_word_count > 0) {
if (getEMUHisto(h::EMU_ALL_DDUS_EVENT_SIZE, mo)) {
mo->Fill(dduID, log10((double)trl_word_count));
}
}
if (getEMUHisto(h::EMU_ALL_DDUS_AVERAGE_EVENT_SIZE, mo)) {
mo->Fill(dduID, trl_word_count);
}
}
fCloseL1As = dduTrailer.reserved() & 0x1; // Get status if Close L1As bit
BXN = dduHeader.bxnum();
if (getEMUHisto(h::EMU_DDU_BXN, mo)) mo->Fill(BXN);
if (getDDUHisto(h::DDU_BXN, dduID, mo)) mo->Fill(BXN);
int L1ANumber_previous_event = L1ANumbers[dduID];
L1ANumbers[dduID] = (int)(dduHeader.lvl1num());
L1ANumber = L1ANumbers[dduID];
int L1A_inc = L1ANumber - L1ANumber_previous_event;
if ( L1A_inc < 0 ) L1A_inc = 0xFFFFFF + L1A_inc;
// if (!fFirstEvent) {
if (fNotFirstEvent[dduID]) {
if (getDDUHisto(h::DDU_L1A_INCREMENT, dduID, mo)) mo->Fill(L1A_inc);
if (getEMUHisto(h::EMU_ALL_DDUS_L1A_INCREMENT, mo)) {
if (L1A_inc > 100000){ L1A_inc = 19;}
else if (L1A_inc > 30000) { L1A_inc = 18;}
else if (L1A_inc > 10000) { L1A_inc = 17;}
else if (L1A_inc > 3000) { L1A_inc = 16;}
else if (L1A_inc > 1000) { L1A_inc = 15;}
else if (L1A_inc > 300) { L1A_inc = 14;}
else if (L1A_inc > 100) { L1A_inc = 13;}
else if (L1A_inc > 30) { L1A_inc = 12;}
else if (L1A_inc > 10) { L1A_inc = 11;}
mo->Fill(dduID, L1A_inc);
}
}
int dmb_dav_header = 0;
int dmb_dav_header_cnt = 0;
int ddu_connected_inputs= 0;
int ddu_connected_inputs_cnt = 0;
int csc_error_state = 0;
int csc_warning_state = 0;
int dmb_active_header = 0;
dmb_dav_header = dduHeader.dmb_dav();
dmb_active_header = (int)(dduHeader.ncsc() & 0xF);
csc_error_state = dduTrailer.dmb_full() & 0x7FFF; // Only 15 inputs for DDU
csc_warning_state = dduTrailer.dmb_warn() & 0x7FFF; // Only 15 inputs for DDU
ddu_connected_inputs = dduHeader.live_cscs();
double freq = 0;
for (int i = 0; i < 15; ++i) {
if ((dmb_dav_header >> i) & 0x1) {
dmb_dav_header_cnt++;
if (getDDUHisto(h::DDU_DMB_DAV_HEADER_OCCUPANCY_RATE, dduID, mo)) {
mo->Fill(i + 1);
freq = (100.0 * mo->GetBinContent(i + 1)) / config->getNEvents();
if (getDDUHisto(h::DDU_DMB_DAV_HEADER_OCCUPANCY, dduID, mo))
mo->SetBinContent(i+1,freq);
}
if (getEMUHisto(h::EMU_ALL_DDUS_INPUTS_WITH_DATA, mo)) {
mo->Fill(dduID, i);
}
}
if( (ddu_connected_inputs >> i) & 0x1 ){
ddu_connected_inputs_cnt++;
if (getDDUHisto(h::DDU_DMB_CONNECTED_INPUTS_RATE, dduID, mo)) {
mo->Fill(i + 1);
freq = (100.0 * mo->GetBinContent(i + 1)) / config->getNEvents();
if (getDDUHisto(h::DDU_DMB_CONNECTED_INPUTS, dduID, mo))
mo->SetBinContent(i + 1, freq);
}
if (getEMUHisto(h::EMU_ALL_DDUS_LIVE_INPUTS, mo)) {
mo->Fill(dduID, i);
}
}
if( (csc_error_state >> i) & 0x1 ){
if (getDDUHisto(h::DDU_CSC_ERRORS_RATE, dduID, mo)) {
mo->Fill(i + 1);
freq = (100.0 * mo->GetBinContent(i + 1)) / config->getNEvents();
if (getDDUHisto(h::DDU_CSC_ERRORS, dduID, mo))
mo->SetBinContent(i + 1, freq);
}
if (getEMUHisto(h::EMU_ALL_DDUS_INPUTS_ERRORS, mo)) {
mo->Fill(dduID, i + 2);
}
}
if((csc_warning_state >> i) & 0x1 ){
if (getDDUHisto(h::DDU_CSC_WARNINGS_RATE, dduID, mo)) {
mo->Fill(i + 1);
freq = (100.0 * mo->GetBinContent(i + 1)) / config->getNEvents();
if (getDDUHisto(h::DDU_CSC_WARNINGS, dduID, mo)) mo->SetBinContent(i + 1, freq);
}
if (getEMUHisto(h::EMU_ALL_DDUS_INPUTS_WARNINGS, mo)) {
mo->Fill(dduID, i + 2);
}
}
}
if (getEMUHisto(h::EMU_ALL_DDUS_AVERAGE_LIVE_INPUTS, mo)) {
mo->Fill(dduID, ddu_connected_inputs_cnt);
}
// if (dduEvtSize > 48)
{
if (getEMUHisto(h::EMU_ALL_DDUS_AVERAGE_INPUTS_WITH_DATA, mo)) {
mo->Fill(dduID, dmb_dav_header_cnt);
}
}
if (getEMUHisto(h::EMU_ALL_DDUS_INPUTS_ERRORS, mo)) {
if (csc_error_state > 0) {
mo->Fill(dduID, 1); // Any Input
} else {
mo->Fill(dduID, 0); // No errors
}
}
if (getEMUHisto(h::EMU_ALL_DDUS_INPUTS_WARNINGS, mo)) {
if (csc_warning_state > 0) {
mo->Fill(dduID, 1); // Any Input
} else {
mo->Fill(dduID, 0); // No errors
}
}
if (getDDUHisto(h::DDU_DMB_DAV_HEADER_OCCUPANCY, dduID, mo)) mo->SetEntries(config->getNEvents());
if (getDDUHisto(h::DDU_DMB_CONNECTED_INPUTS, dduID, mo)) mo->SetEntries(config->getNEvents());
if (getDDUHisto(h::DDU_CSC_ERRORS, dduID, mo)) mo->SetEntries(config->getNEvents());
if (getDDUHisto(h::DDU_CSC_WARNINGS, dduID, mo)) mo->SetEntries(config->getNEvents());
if (getDDUHisto(h::DDU_DMB_ACTIVE_HEADER_COUNT, dduID, mo)) mo->Fill(dmb_active_header);
if (getDDUHisto(h::DDU_DMB_DAV_HEADER_COUNT_VS_DMB_ACTIVE_HEADER_COUNT, dduID, mo))
mo->Fill(dmb_active_header, dmb_dav_header_cnt);
uint32_t trl_errorstat = dduTrailer.errorstat();
if (dmb_dav_header_cnt == 0) trl_errorstat &= ~0x20000000; // Ignore No Good DMB CRC bit of no DMB is present
for (int i = 0; i < 32; i++) {
if ((trl_errorstat >> i) & 0x1) {
if (getDDUHisto(h::DDU_TRAILER_ERRORSTAT_RATE, dduID, mo)) {
mo->Fill(i);
double freq = (100.0 * mo->GetBinContent(i + 1)) / config->getNEvents();
if (getDDUHisto(h::DDU_TRAILER_ERRORSTAT_FREQUENCY, dduID, mo))
mo->SetBinContent(i+1, freq);
}
if (getDDUHisto(h::DDU_TRAILER_ERRORSTAT_TABLE, dduID, mo))
mo->Fill(0.,i);
}
}
if (getEMUHisto(h::EMU_ALL_DDUS_TRAILER_ERRORS, mo)) {
if (trl_errorstat) {
mo->Fill(dduID, 1); // Any Error
for (int i = 0; i < 32; i++) {
if ((trl_errorstat >> i) & 0x1) {
mo->Fill(dduID, i + 2);
}
}
} else {
mo->Fill(dduID, 0); // No Errors
}
}
if (getDDUHisto(h::DDU_TRAILER_ERRORSTAT_TABLE, dduID, mo)) mo->SetEntries(config->getNEvents());
if (getDDUHisto(h::DDU_TRAILER_ERRORSTAT_FREQUENCY, dduID, mo)) mo->SetEntries(config->getNEvents());
uint32_t nCSCs = 0;
if (config->getPROCESS_CSC()) {
std::vector<CSCEventData> chamberDatas;
chamberDatas.clear();
chamberDatas = dduData.cscData();
nCSCs = chamberDatas.size();
for(uint32_t i = 0; i < nCSCs; i++) {
processCSC(chamberDatas[i], dduID, binChecker);
}
}
if (getDDUHisto(h::DDU_DMB_UNPACKED_VS_DAV, dduID, mo)) mo->Fill(dmb_active_header, nCSCs);
// fFirstEvent = false;
fNotFirstEvent[dduID] = true;
}
| bool cscdqm::EventProcessor::processExaminer | ( | const CSCDCCExaminer & | binChecker, |
| const CSCDCCFormatStatusDigi & | digi | ||
| ) | [private] |
Fill monitor elements with CSCDCCFormatStatusDigi information.
Check and fill CSC Payload information
Update counters
Get FEBs Data Available Info
Increment total number of CFEBs, ALCTs, TMBs
Fill Histogram for FEB DAV Efficiency
Fill Histogram for Different Combinations of FEB DAV Efficiency
Check and fill CSC Data Flow Problems
Check and fill CSC Format Errors
Definition at line 27 of file CSCDQM_EventProcessor_processExaminer.cc.
References cscdqm::BAD_EVENTS, cscd2r::chamberID(), cntALCTs, cntCFEBs, cntDMBs, cntTMBs, config, cscdqm::Configuration::copyChamberCounterValue(), cscdqm::DMB_EVENTS, cscdqm::DMB_TRIGGERS, cscdqm::MonitorObject::Fill(), cscdqm::Configuration::fnGetCSCDetId, cscdqm::MonitorObject::GetBinContent(), cscdqm::Configuration::getChamberCounterValue(), CSCDCCFormatStatusDigi::getCSCErrors(), getCSCFromMap(), getCSCHisto(), CSCDCCFormatStatusDigi::getCSCPayload(), CSCDCCFormatStatusDigi::getCSCStatus(), CSCDCCFormatStatusDigi::getDDUErrors(), CSCDCCFormatStatusDigi::getDDUSummaryErrors(), getEMUHisto(), CSCDCCFormatStatusDigi::getListOfDDUs(), i, cscdqm::Configuration::incChamberCounter(), cscdqm::Configuration::incNEventsBad(), CSCDCCFormatStatusDigi::nextCSCWithError(), CSCDCCFormatStatusDigi::nextCSCWithPayload(), CSCDCCFormatStatusDigi::nextCSCWithStatus(), CSCDCCExaminer::nSTATUSES, cscdqm::MonitorObject::SetBinContent(), cscdqm::MonitorObject::SetEntries(), and cscdqm::MonitorObject::SetMaximum().
{
bool eventAccepted = true;
MonitorObject* mo = 0;
uint32_t binErrorStatus = digi.getDDUSummaryErrors();
if (getEMUHisto(h::EMU_ALL_DDUS_FORMAT_ERRORS, mo)) {
const std::set<DDUIdType> DDUs = digi.getListOfDDUs();
for (std::set<DDUIdType>::const_iterator ddu_itr = DDUs.begin(); ddu_itr != DDUs.end(); ++ddu_itr) {
ExaminerStatusType errs = digi.getDDUErrors(*ddu_itr);
int dduID = (*ddu_itr)&0xFF;
if (errs != 0) {
for(int i = 0; i < 29; i++) {
if ((errs >> i) & 0x1 ) {
mo->Fill(dduID, i + 1);
}
}
} else {
mo->Fill(dduID, 0);
}
}
}
// =VB= We want to use DCC level check mask as in CSCDCCUnpacker and not DDU mask
// Otherwise whole DCC event could be skipped because of a single chamber error
unsigned long dccBinCheckMask = 0x06080016;
// if ((binErrorStatus & config->getDDU_BINCHECK_MASK()) > 0) {
if ((binErrorStatus & dccBinCheckMask) > 0) {
eventAccepted = false;
}
if (binErrorStatus != 0) {
config->incNEventsBad();
}
{
uint32_t i = 0;
CSCIdType chamberID = 0;
while (digi.nextCSCWithPayload(i, chamberID)) {
int crateID = (chamberID >> 4) & 0xFF;
int dmbSlot = chamberID & 0xF;
if (crateID == 255) { continue; }
// Check if in standby!
{
CSCDetId cid;
if (!config->fnGetCSCDetId(crateID, dmbSlot, cid)) {
continue;
}
}
config->incChamberCounter(DMB_EVENTS, crateID, dmbSlot);
long DMBEvents = config->getChamberCounterValue(DMB_EVENTS, crateID, dmbSlot);
config->copyChamberCounterValue(DMB_EVENTS, DMB_TRIGGERS, crateID, dmbSlot);
cntDMBs++;
if (getEMUHisto(h::EMU_DMB_REPORTING, mo)) {
mo->Fill(crateID, dmbSlot);
}
unsigned int cscType = 0;
unsigned int cscPosition = 0;
if (!getCSCFromMap(crateID, dmbSlot, cscType, cscPosition)) continue;
if (cscType && cscPosition && getEMUHisto(h::EMU_CSC_REPORTING, mo)) {
mo->Fill(cscPosition, cscType);
}
long payload = digi.getCSCPayload(chamberID);
int cfeb_dav = (payload >> 7) & 0x1F;
int cfeb_active = payload & 0x1F;
int alct_dav = (payload >> 5) & 0x1;
int tmb_dav = (payload >> 6) & 0x1;
int cfeb_dav_num = 0;
if (alct_dav == 0) {
if (cscType && cscPosition && getEMUHisto(h::EMU_CSC_WO_ALCT, mo)) {
mo->Fill(cscPosition, cscType);
}
if (getEMUHisto(h::EMU_DMB_WO_ALCT, mo)) {
mo->Fill(crateID, dmbSlot);
}
}
if (tmb_dav == 0) {
if (cscType && cscPosition && getEMUHisto(h::EMU_CSC_WO_CLCT, mo)) {
mo->Fill(cscPosition, cscType);
}
if (getEMUHisto(h::EMU_DMB_WO_CLCT, mo)) {
mo->Fill(crateID, dmbSlot);
}
}
if (cfeb_dav == 0) {
if (cscType && cscPosition && getEMUHisto(h::EMU_CSC_WO_CFEB, mo)) {
mo->Fill(cscPosition, cscType);
}
if (getEMUHisto(h::EMU_DMB_WO_CFEB, mo)) {
mo->Fill(crateID, dmbSlot);
}
}
for (int i=0; i<5;i++) {
if ((cfeb_dav>>i) & 0x1) cntCFEBs++;
}
if (alct_dav > 0) {
cntALCTs++;
}
if (tmb_dav > 0) {
cntTMBs++;
}
MonitorObject *mof = 0, *mo1 = 0, *mo2 = 0;
if (getCSCHisto(h::CSC_ACTUAL_DMB_CFEB_DAV_RATE, crateID, dmbSlot, mo)
&& getCSCHisto(h::CSC_ACTUAL_DMB_CFEB_DAV_FREQUENCY, crateID, dmbSlot, mof)) {
if (getCSCHisto(h::CSC_DMB_CFEB_DAV_UNPACKING_INEFFICIENCY, crateID, dmbSlot, mo1)
&& getCSCHisto(h::CSC_DMB_CFEB_DAV, crateID, dmbSlot, mo2)) {
for (int i=1; i<=5; i++) {
double actual_dav_num = mo->GetBinContent(i);
double unpacked_dav_num = mo2->GetBinContent(i);
if (actual_dav_num){
mo1->SetBinContent(i,1, 100.*(1-unpacked_dav_num/actual_dav_num));
}
mo1->SetEntries((int)DMBEvents);
}
}
for (int i=0; i<5;i++) {
int cfeb_present = (cfeb_dav>>i) & 0x1;
cfeb_dav_num += cfeb_present;
if (cfeb_present) {
mo->Fill(i);
}
float cfeb_entries = mo->GetBinContent(i+1);
mof->SetBinContent(i+1, ((float)cfeb_entries/(float)(DMBEvents)*100.0));
}
mof->SetEntries((int)DMBEvents);
}
if (getCSCHisto(h::CSC_ACTUAL_DMB_CFEB_DAV_MULTIPLICITY_RATE, crateID, dmbSlot, mo)
&& getCSCHisto(h::CSC_ACTUAL_DMB_CFEB_DAV_MULTIPLICITY_FREQUENCY, crateID, dmbSlot, mof)) {
for (unsigned short i = 1; i < 7; i++) {
float cfeb_entries = mo->GetBinContent(i);
mof->SetBinContent(i, ((float)cfeb_entries / (float)(DMBEvents) * 100.0));
}
mof->SetEntries((int)DMBEvents);
if (getCSCHisto(h::CSC_DMB_CFEB_DAV_MULTIPLICITY_UNPACKING_INEFFICIENCY, crateID, dmbSlot, mo1)
&& getCSCHisto(h::CSC_DMB_CFEB_DAV_MULTIPLICITY, crateID, dmbSlot, mo2)) {
for (unsigned short i = 1; i < 7; i++) {
float actual_dav_num = mo->GetBinContent(i);
float unpacked_dav_num = mo2->GetBinContent(i);
if (actual_dav_num){
mo1->SetBinContent(i, 1, 100. * (1-unpacked_dav_num/actual_dav_num));
}
mo1->SetEntries((int)DMBEvents);
}
}
mo->Fill(cfeb_dav_num);
}
if (getCSCHisto(h::CSC_DMB_CFEB_ACTIVE_VS_DAV, crateID, dmbSlot, mo)) mo->Fill(cfeb_dav, cfeb_active);
if (getCSCHisto(h::CSC_ACTUAL_DMB_FEB_DAV_RATE, crateID, dmbSlot, mo)) {
if (getCSCHisto(h::CSC_ACTUAL_DMB_FEB_DAV_FREQUENCY, crateID, dmbSlot, mo1)) {
for (int i = 1; i < 4; i++) {
float dav_num = mo->GetBinContent(i);
mo1->SetBinContent(i, ((float)dav_num / (float)(DMBEvents) * 100.0));
}
mo1->SetEntries((int)DMBEvents);
if (getCSCHisto(h::CSC_DMB_FEB_DAV_UNPACKING_INEFFICIENCY, crateID, dmbSlot, mof)
&& getCSCHisto(h::CSC_DMB_FEB_DAV_RATE, crateID, dmbSlot, mo2)) {
for (int i = 1; i < 4; i++) {
float actual_dav_num = mo->GetBinContent(i);
float unpacked_dav_num = mo2->GetBinContent(i);
if (actual_dav_num){
mof->SetBinContent(i,1, 100. * (1 - unpacked_dav_num / actual_dav_num));
}
mof->SetEntries((int)DMBEvents);
mof->SetMaximum(100.0);
}
}
}
if (alct_dav > 0) {
mo->Fill(0.0);
}
if (tmb_dav > 0) {
mo->Fill(1.0);
}
if (cfeb_dav > 0) {
mo->Fill(2.0);
}
}
float feb_combination_dav = -1.0;
if (getCSCHisto(h::CSC_ACTUAL_DMB_FEB_COMBINATIONS_DAV_RATE, crateID, dmbSlot, mo)) {
if(alct_dav == 0 && tmb_dav == 0 && cfeb_dav == 0) feb_combination_dav = 0.0; // Nothing
if(alct_dav > 0 && tmb_dav == 0 && cfeb_dav == 0) feb_combination_dav = 1.0; // ALCT Only
if(alct_dav == 0 && tmb_dav > 0 && cfeb_dav == 0) feb_combination_dav = 2.0; // TMB Only
if(alct_dav == 0 && tmb_dav == 0 && cfeb_dav > 0) feb_combination_dav = 3.0; // CFEB Only
if(alct_dav == 0 && tmb_dav > 0 && cfeb_dav > 0) feb_combination_dav = 4.0; // TMB+CFEB
if(alct_dav > 0 && tmb_dav > 0 && cfeb_dav == 0) feb_combination_dav = 5.0; // ALCT+TMB
if(alct_dav > 0 && tmb_dav == 0 && cfeb_dav > 0) feb_combination_dav = 6.0; // ALCT+CFEB
if(alct_dav > 0 && tmb_dav > 0 && cfeb_dav > 0) feb_combination_dav = 7.0; // ALCT+TMB+CFEB
// mo->Fill(feb_combination_dav);
if (getCSCHisto(h::CSC_ACTUAL_DMB_FEB_COMBINATIONS_DAV_FREQUENCY, crateID, dmbSlot, mo1)) {
for (int i = 1; i < 9; i++) {
float feb_combination_dav_number = mo->GetBinContent(i);
mo1->SetBinContent(i, ((float)feb_combination_dav_number / (float)(DMBEvents) * 100.0));
}
mo1->SetEntries(DMBEvents);
if (getCSCHisto(h::CSC_DMB_FEB_COMBINATIONS_DAV_UNPACKING_INEFFICIENCY, crateID, dmbSlot, mof)
&& getCSCHisto(h::CSC_DMB_FEB_COMBINATIONS_DAV_RATE, crateID, dmbSlot, mo2)) {
for (int i = 1; i < 9; i++) {
float actual_dav_num = mo->GetBinContent(i);
float unpacked_dav_num = mo2->GetBinContent(i);
if (actual_dav_num){
mof->SetBinContent(i, 1, 100. * (1 - unpacked_dav_num / actual_dav_num));
}
mof->SetEntries((int)DMBEvents);
mof->SetMaximum(100.0);
}
}
}
mo->Fill(feb_combination_dav);
}
}
}
{
uint32_t i = 0;
CSCIdType chamberID = 0;
while (digi.nextCSCWithStatus(i, chamberID)) {
unsigned int crateID = (chamberID >> 4) & 0xFF;
unsigned int dmbSlot = chamberID & 0xF;
ExaminerStatusType chStatus = digi.getCSCStatus(chamberID);
if (crateID == 255) { continue; }
// Check if in standby!
{
CSCDetId cid;
if (!config->fnGetCSCDetId(crateID, dmbSlot, cid)) {
continue;
}
}
unsigned int cscType = 0;
unsigned int cscPosition = 0;
if (!getCSCFromMap(crateID, dmbSlot, cscType, cscPosition)) continue;
if (getCSCHisto(h::CSC_BINCHECK_DATAFLOW_PROBLEMS_TABLE, crateID, dmbSlot, mo)) {
for (int bit = 0; bit < binChecker.nSTATUSES; bit++) {
if (chStatus & (1<<bit) ) {
mo->Fill(0., bit);
}
}
mo->SetEntries(config->getChamberCounterValue(DMB_EVENTS, crateID, dmbSlot));
}
int anyInputFull = chStatus & 0x3F;
if (anyInputFull) {
if (cscType && cscPosition && getEMUHisto(h::EMU_CSC_DMB_INPUT_FIFO_FULL, mo)) {
mo->Fill(cscPosition, cscType);
}
if (getEMUHisto(h::EMU_DMB_INPUT_FIFO_FULL, mo)) {
mo->Fill(crateID, dmbSlot);
}
}
int anyInputTO = (chStatus >> 7) & 0x3FFF;
if (anyInputTO) {
if (cscType && cscPosition && getEMUHisto(h::EMU_CSC_DMB_INPUT_TIMEOUT, mo)) {
mo->Fill(cscPosition, cscType);
}
if (getEMUHisto(h::EMU_DMB_INPUT_TIMEOUT, mo)) {
mo->Fill(crateID, dmbSlot);
}
}
if (digi.getCSCStatus(chamberID) & (1 << 22)) {
if (getEMUHisto(h::EMU_DMB_FORMAT_WARNINGS, mo)) {
mo->Fill(crateID, dmbSlot);
}
if (cscType && cscPosition && getEMUHisto(h::EMU_CSC_FORMAT_WARNINGS, mo)) {
mo->Fill(cscPosition, cscType);
}
}
}
}
{
uint32_t i = 0;
CSCIdType chamberID = 0;
while (digi.nextCSCWithError(i, chamberID)) {
const unsigned int crateID = (chamberID >> 4) & 0xFF;
const unsigned int dmbSlot = chamberID & 0xF;
const ExaminerStatusType chErr = digi.getCSCErrors(chamberID);
if ((crateID ==255) || (chErr & 0x80)) { continue; } // = Skip chamber detection if DMB header is missing (Error code 6)
if (crateID > 60 || dmbSlot > 10) { continue; }
// Check if in standby!
{
CSCDetId cid;
if (!config->fnGetCSCDetId(crateID, dmbSlot, cid)) {
continue;
}
}
if ((chErr & config->getBINCHECK_MASK()) != 0) {
config->incChamberCounter(BAD_EVENTS, crateID , dmbSlot);
}
bool isCSCError = false;
bool fillBC = getCSCHisto(h::CSC_BINCHECK_ERRORSTAT_TABLE, crateID, dmbSlot, mo);
for (int bit = 5; bit < 24; bit++) {
if (chErr & (1 << bit) ) {
isCSCError = true;
if (fillBC) {
mo->Fill(0., bit - 5);
} else {
break;
}
}
if (fillBC) {
mo->SetEntries(config->getChamberCounterValue(DMB_EVENTS, crateID , dmbSlot));
}
}
if (isCSCError) {
if (getEMUHisto(h::EMU_DMB_FORMAT_ERRORS, mo)) {
mo->Fill(crateID, dmbSlot);
}
if (eventAccepted && getEMUHisto(h::EMU_DMB_UNPACKED_WITH_ERRORS, mo)) {
mo->Fill(crateID, dmbSlot);
}
unsigned int cscType = 0;
unsigned int cscPosition = 0;
if (!getCSCFromMap(crateID, dmbSlot, cscType, cscPosition)) continue;
if ( cscType && cscPosition && getEMUHisto(h::EMU_CSC_FORMAT_ERRORS, mo)) {
mo->Fill(cscPosition, cscType);
}
if (eventAccepted && cscType && cscPosition && getEMUHisto(h::EMU_CSC_UNPACKED_WITH_ERRORS, mo)) {
mo->Fill(cscPosition, cscType);
}
}
}
}
return eventAccepted;
}
| bool cscdqm::EventProcessor::processExaminer | ( | const CSCDCCExaminer & | binChecker | ) | [private] |
| void cscdqm::EventProcessor::resetEmuEventDisplays | ( | ) | [private] |
Reset Emu level EventDisplay histograms once per event.
Definition at line 56 of file CSCDQM_EventProcessor_processCSC.cc.
References EmuEventDisplayWasReset, getEMUHisto(), and cscdqm::MonitorObject::getTH1Lock().
Referenced by setEmuEventDisplayBit().
{
if (!EmuEventDisplayWasReset) {
// Reseting EMU level Event displays
MonitorObject* mo = 0;
if (getEMUHisto(h::EMU_EVENT_DISPLAY_ANODE, mo)) {
mo->getTH1Lock()->Reset("");
}
if (getEMUHisto(h::EMU_EVENT_DISPLAY_CATHODE, mo)) {
mo->getTH1Lock()->Reset("");
}
if (getEMUHisto(h::EMU_EVENT_DISPLAY_XY, mo)) {
mo->getTH1Lock()->Reset("");
}
EmuEventDisplayWasReset = true;
}
}
| void cscdqm::EventProcessor::setEmuEventDisplayBit | ( | MonitorObject *& | mo, |
| const unsigned int | x, | ||
| const unsigned int | y, | ||
| const unsigned int | bit | ||
| ) | [private] |
Set a single bit in the 3D Histogram (aka EMU level event display). Checks if mo and x != null.
| eventNumber | number of event |
| mo | Histogram |
| x | X bin number |
| y | Y bin number |
| bit | bit number to set |
Definition at line 43 of file CSCDQM_EventProcessor_processCSC.cc.
References cscdqm::MonitorObject::GetBinContent(), resetEmuEventDisplays(), and cscdqm::MonitorObject::SetBinContent().
Referenced by processCSC().
| void cscdqm::EventProcessor::standbyEfficiencyHistos | ( | HWStandbyType & | standby | ) |
apply standby flags/parameters
| standby | standby flags |
Definition at line 366 of file CSCDQM_EventProcessor_updateEffHistos.cc.
References cscdqm::AddressMask::cfeb, cscdqm::AddressMask::chamber, getEMUHisto(), cscdqm::MonitorObject::getTH1Lock(), cscdqm::AddressMask::hv, cscdqm::AddressMask::layer, CommonMethods::lock(), cscdqm::Address::mask, cscdqm::HWStandbyType::MeM, cscdqm::HWStandbyType::MeP, cscdqm::Lock::mutex, cscdqm::AddressMask::ring, cscdqm::Summary::SetValue(), cscdqm::Address::side, cscdqm::AddressMask::side, cscdqm::STANDBY, cscdqm::AddressMask::station, summary, tmp, cscdqm::WAS_ON, and cscdqm::Summary::WriteChamberState().
Referenced by cscdqm::EventProcessorMutex::processStandby().
{
Address adr;
adr.mask.side = true;
adr.mask.station = adr.mask.ring = adr.mask.chamber = adr.mask.layer = adr.mask.cfeb = adr.mask.hv = false;
adr.side = 1;
summary.SetValue(adr, STANDBY, (standby.MeP ? 1 : 0));
if (!standby.MeP) {
summary.SetValue(adr, WAS_ON);
}
adr.side = 2;
summary.SetValue(adr, STANDBY, (standby.MeM ? 1 : 0));
if (!standby.MeM) {
summary.SetValue(adr, WAS_ON);
}
MonitorObject *me = 0;
if (getEMUHisto(h::EMU_CSC_STANDBY, me)){
LockType lock(me->mutex);
TH2* tmp = dynamic_cast<TH2*>(me->getTH1Lock());
// All standby
summary.WriteChamberState(tmp, 0x1000, 5);
// Temporary in standby (was ON)
summary.WriteChamberState(tmp, 0x3000, 1, false);
}
}
| void cscdqm::EventProcessor::updateEfficiencyHistos | ( | ) |
Update Efficiency MOs.
Get CSC Reporting reference histogram
If reference for CSC_Reporting is defined - use it Else - do it flat way
Write summary information
Looping via addresses (scope: side->station->ring) and filling in HW efficiencies
Definition at line 26 of file CSCDQM_EventProcessor_updateEffHistos.cc.
References cscdqm::AddressMask::cfeb, cscdqm::CFEB_BWORDS, cscdqm::AddressMask::chamber, config, cscdqm::FIFOFULL_ERR, cscdqm::MonitorObject::Fill(), cscdqm::FORMAT_ERR, cscdqm::Summary::getDetector(), cscdqm::Summary::GetEfficiencyHW(), getEMUHisto(), cscdqm::Configuration::getNEvents(), getParHisto(), cscdqm::MonitorObject::getRefRootObject(), cscdqm::MonitorObject::getTH1(), cscdqm::MonitorObject::getTH1Lock(), cscdqm::AddressMask::hv, cscdqm::INPUTTO_ERR, cscdqm::L1SYNC_ERR, cscdqm::AddressMask::layer, CommonMethods::lock(), cscdqm::Address::mask, cscdqm::Lock::mutex, N_SIDES, N_STATIONS, cscdqm::NODATA_ALCT, cscdqm::NODATA_CFEB, cscdqm::NODATA_CLCT, cscdqm::Detector::NumberOfChambers(), cscdqm::Detector::NumberOfRings(), Parameters::parameters, cscdqm::Summary::ReadErrorChambers(), cscdqm::Summary::ReadReportingChambers(), cscdqm::Summary::ReadReportingChambersRef(), cscdqm::AddressMask::ring, cscdqm::Address::ring, cscdqm::Address::side, cscdqm::AddressMask::side, cscdqm::Address::station, cscdqm::AddressMask::station, summary, tmp, cscdqm::Summary::Write(), cscdqm::Summary::WriteMap(), and writeShifterHistograms().
Referenced by cscdqm::EventProcessorMutex::updateFractionAndEfficiencyHistos().
{
MonitorObject *me = 0, *me1 = 0;
if (config->getNEvents() > 0) {
if (getEMUHisto(h::EMU_CSC_REPORTING, me)) {
const TH2* rep = dynamic_cast<const TH2*>(me->getTH1());
const TObject *tobj = me->getRefRootObject();
if (tobj) {
const TH2* ref = dynamic_cast<const TH2*>(tobj);
summary.ReadReportingChambersRef(rep, ref, config->getEFF_COLD_THRESHOLD(), config->getEFF_COLD_SIGFAIL(), config->getEFF_HOT_THRESHOLD(), config->getEFF_HOT_SIGFAIL());
} else {
summary.ReadReportingChambers(rep, 1.0);
}
if (getEMUHisto(h::EMU_CSC_FORMAT_ERRORS, me1)) {
const TH2* err = dynamic_cast<const TH2*>(me1->getTH1());
summary.ReadErrorChambers(rep, err, FORMAT_ERR, config->getEFF_ERR_THRESHOLD(), config->getEFF_ERR_SIGFAIL());
}
if (getEMUHisto(h::EMU_CSC_L1A_OUT_OF_SYNC, me1)) {
const TH2* err = dynamic_cast<const TH2*>(me1->getTH1());
summary.ReadErrorChambers(rep, err, L1SYNC_ERR, config->getEFF_ERR_THRESHOLD(), config->getEFF_ERR_SIGFAIL());
}
if (getEMUHisto(h::EMU_CSC_DMB_INPUT_FIFO_FULL, me1)) {
const TH2* err = dynamic_cast<const TH2*>(me1->getTH1());
summary.ReadErrorChambers(rep, err, FIFOFULL_ERR, config->getEFF_ERR_THRESHOLD(), config->getEFF_ERR_SIGFAIL());
}
if (getEMUHisto(h::EMU_CSC_DMB_INPUT_TIMEOUT, me1)) {
const TH2* err = dynamic_cast<const TH2*>(me1->getTH1());
summary.ReadErrorChambers(rep, err, INPUTTO_ERR, config->getEFF_ERR_THRESHOLD(), config->getEFF_ERR_SIGFAIL());
}
if (getEMUHisto(h::EMU_CSC_WO_ALCT, me1)) {
const TH2* err = dynamic_cast<const TH2*>(me1->getTH1());
summary.ReadErrorChambers(rep, err, NODATA_ALCT, config->getEFF_NODATA_THRESHOLD(), config->getEFF_NODATA_SIGFAIL());
}
if (getEMUHisto(h::EMU_CSC_WO_CLCT, me1)) {
const TH2* err = dynamic_cast<const TH2*>(me1->getTH1());
summary.ReadErrorChambers(rep, err, NODATA_CLCT, config->getEFF_NODATA_THRESHOLD(), config->getEFF_NODATA_SIGFAIL());
}
if (getEMUHisto(h::EMU_CSC_WO_CFEB, me1)) {
const TH2* err = dynamic_cast<const TH2*>(me1->getTH1());
summary.ReadErrorChambers(rep, err, NODATA_CFEB, config->getEFF_NODATA_THRESHOLD(), config->getEFF_NODATA_SIGFAIL());
}
if (getEMUHisto(h::EMU_CSC_FORMAT_WARNINGS, me1)) {
const TH2* err = dynamic_cast<const TH2*>(me1->getTH1());
summary.ReadErrorChambers(rep, err, CFEB_BWORDS, config->getEFF_NODATA_THRESHOLD(), config->getEFF_NODATA_SIGFAIL());
}
}
writeShifterHistograms();
if (getEMUHisto(h::EMU_PHYSICS_ME1, me)){
LockType lock(me->mutex);
TH2* tmp = dynamic_cast<TH2*>(me->getTH1Lock());
summary.Write(tmp, 1);
}
if (getEMUHisto(h::EMU_PHYSICS_ME2, me)){
LockType lock(me->mutex);
TH2* tmp = dynamic_cast<TH2*>(me->getTH1Lock());
summary.Write(tmp, 2);
}
if (getEMUHisto(h::EMU_PHYSICS_ME3, me)){
LockType lock(me->mutex);
TH2* tmp = dynamic_cast<TH2*>(me->getTH1Lock());
summary.Write(tmp, 3);
}
if (getEMUHisto(h::EMU_PHYSICS_ME4, me)){
LockType lock(me->mutex);
TH2* tmp = dynamic_cast<TH2*>(me->getTH1Lock());
summary.Write(tmp, 4);
}
if (getEMUHisto(h::EMU_PHYSICS_EMU, me)) {
LockType lock(me->mutex);
TH2* tmp = dynamic_cast<TH2*>(me->getTH1Lock());
summary.WriteMap(tmp);
}
}
if (config->getPROCESS_EFF_PARAMETERS()) {
{ // Compute DQM information parameters
Address adr;
adr.mask.side = adr.mask.station = adr.mask.ring = true;
adr.mask.chamber = adr.mask.layer = adr.mask.cfeb = adr.mask.hv = false;
double e_detector = 0.0, e_side = 0.0, e_station = 0.0, e_ring = 0.0;
uint32_t e_detector_ch = 0, e_side_ch = 0, e_station_ch = 0;
const HistoId parameters [] = {
h::PAR_CSC_SIDEPLUS_STATION01_RING01,
h::PAR_CSC_SIDEPLUS_STATION01_RING02,
h::PAR_CSC_SIDEPLUS_STATION01_RING03,
h::PAR_CSC_SIDEPLUS_STATION01,
h::PAR_CSC_SIDEPLUS_STATION02_RING01,
h::PAR_CSC_SIDEPLUS_STATION02_RING02,
h::PAR_CSC_SIDEPLUS_STATION02,
h::PAR_CSC_SIDEPLUS_STATION03_RING01,
h::PAR_CSC_SIDEPLUS_STATION03_RING02,
h::PAR_CSC_SIDEPLUS_STATION03,
h::PAR_CSC_SIDEPLUS_STATION04_RING01,
h::PAR_CSC_SIDEPLUS_STATION04_RING02,
h::PAR_CSC_SIDEPLUS_STATION04,
h::PAR_CSC_SIDEPLUS,
h::PAR_CSC_SIDEMINUS_STATION01_RING01,
h::PAR_CSC_SIDEMINUS_STATION01_RING02,
h::PAR_CSC_SIDEMINUS_STATION01_RING03,
h::PAR_CSC_SIDEMINUS_STATION01,
h::PAR_CSC_SIDEMINUS_STATION02_RING01,
h::PAR_CSC_SIDEMINUS_STATION02_RING02,
h::PAR_CSC_SIDEMINUS_STATION02,
h::PAR_CSC_SIDEMINUS_STATION03_RING01,
h::PAR_CSC_SIDEMINUS_STATION03_RING02,
h::PAR_CSC_SIDEMINUS_STATION03,
h::PAR_CSC_SIDEMINUS_STATION04_RING01,
h::PAR_CSC_SIDEMINUS_STATION04_RING02,
h::PAR_CSC_SIDEMINUS_STATION04,
h::PAR_CSC_SIDEMINUS
};
bool calc = (config->getNEvents() > 0);
if (!calc) {
e_detector = e_side = e_station = e_ring = -1.0;
}
unsigned int parameter = 0;
for (adr.side = 1; adr.side <= N_SIDES; adr.side++) {
if (calc) {
e_side = 0.0;
e_side_ch = 0;
}
adr.mask.station = true;
for (adr.station = 1; adr.station <= N_STATIONS; adr.station++) {
if (calc) {
e_station = 0.0;
e_station_ch = 0;
}
adr.mask.ring = true;
for (adr.ring = 1; adr.ring <= summary.getDetector().NumberOfRings(adr.station); adr.ring++) {
if (calc) {
e_ring = summary.GetEfficiencyHW(adr);
uint32_t ch = summary.getDetector().NumberOfChambers(adr.station, adr.ring);
e_station += (e_ring * ch);
e_station_ch += ch;
}
if (summary.getDetector().NumberOfRings(adr.station) > 1) {
if (getParHisto(parameters[parameter++], me)) me->Fill(e_ring);
}
}
adr.mask.ring = false;
if (calc) {
e_side += e_station;
e_side_ch += e_station_ch;
e_station = e_station / e_station_ch;
}
if (getParHisto(parameters[parameter++], me)) me->Fill(e_station);
}
adr.mask.station = false;
if (calc) {
e_detector += e_side;
e_detector_ch += e_side_ch;
e_side = e_side / e_side_ch;
}
if (getParHisto(parameters[parameter++], me)) me->Fill(e_side);
}
if (calc) {
e_detector = e_detector / e_detector_ch;
}
if (getParHisto(h::PAR_REPORT_SUMMARY, me)) me->Fill(e_detector);
}
}
}
| void cscdqm::EventProcessor::updateFractionHistos | ( | ) |
Update Fractional MOs.
Definition at line 26 of file CSCDQM_EventProcessor_updateFracHistos.cc.
References calcEMUFractionHisto(), config, cscdqm::DMB_EVENTS, cscdqm::Configuration::fnNextBookedCSC, cscdqm::Configuration::getChamberCounterValue(), getCSCHisto(), cscdqm::MonitorObject::getTH1(), CommonMethods::lock(), and cscdqm::MonitorObject::SetEntries().
Referenced by cscdqm::EventProcessorMutex::updateFractionAndEfficiencyHistos().
{
calcEMUFractionHisto(h::EMU_DMB_FORMAT_ERRORS_FRACT, h::EMU_DMB_REPORTING, h::EMU_DMB_FORMAT_ERRORS);
calcEMUFractionHisto(h::EMU_CSC_FORMAT_ERRORS_FRACT, h::EMU_CSC_REPORTING, h::EMU_CSC_FORMAT_ERRORS);
calcEMUFractionHisto(h::EMU_DMB_FORMAT_WARNINGS_FRACT, h::EMU_DMB_REPORTING, h::EMU_DMB_FORMAT_WARNINGS);
calcEMUFractionHisto(h::EMU_CSC_FORMAT_WARNINGS_FRACT, h::EMU_CSC_REPORTING, h::EMU_CSC_FORMAT_WARNINGS);
calcEMUFractionHisto(h::EMU_DMB_UNPACKED_FRACT, h::EMU_DMB_REPORTING, h::EMU_DMB_UNPACKED);
calcEMUFractionHisto(h::EMU_CSC_UNPACKED_FRACT, h::EMU_CSC_REPORTING, h::EMU_CSC_UNPACKED);
calcEMUFractionHisto(h::EMU_DMB_WO_ALCT_FRACT, h::EMU_DMB_REPORTING, h::EMU_DMB_WO_ALCT);
calcEMUFractionHisto(h::EMU_CSC_WO_ALCT_FRACT, h::EMU_CSC_REPORTING, h::EMU_CSC_WO_ALCT);
calcEMUFractionHisto(h::EMU_DMB_WO_CLCT_FRACT, h::EMU_DMB_REPORTING, h::EMU_DMB_WO_CLCT);
calcEMUFractionHisto(h::EMU_CSC_WO_CLCT_FRACT, h::EMU_CSC_REPORTING, h::EMU_CSC_WO_CLCT);
calcEMUFractionHisto(h::EMU_DMB_WO_CFEB_FRACT, h::EMU_DMB_REPORTING, h::EMU_DMB_WO_CFEB);
calcEMUFractionHisto(h::EMU_CSC_WO_CFEB_FRACT, h::EMU_CSC_REPORTING, h::EMU_CSC_WO_CFEB);
calcEMUFractionHisto(h::EMU_CSC_DMB_INPUT_FIFO_FULL_FRACT, h::EMU_CSC_REPORTING, h::EMU_CSC_DMB_INPUT_FIFO_FULL);
calcEMUFractionHisto(h::EMU_DMB_INPUT_FIFO_FULL_FRACT, h::EMU_DMB_REPORTING, h::EMU_DMB_INPUT_FIFO_FULL);
calcEMUFractionHisto(h::EMU_CSC_DMB_INPUT_TIMEOUT_FRACT, h::EMU_CSC_REPORTING, h::EMU_CSC_DMB_INPUT_TIMEOUT);
calcEMUFractionHisto(h::EMU_DMB_INPUT_TIMEOUT_FRACT, h::EMU_DMB_REPORTING, h::EMU_DMB_INPUT_TIMEOUT);
calcEMUFractionHisto(h::EMU_CSC_L1A_OUT_OF_SYNC_FRACT, h::EMU_CSC_REPORTING, h::EMU_CSC_L1A_OUT_OF_SYNC);
calcEMUFractionHisto(h::EMU_DMB_L1A_OUT_OF_SYNC_FRACT, h::EMU_DMB_REPORTING, h::EMU_DMB_L1A_OUT_OF_SYNC);
calcEMUFractionHisto(h::EMU_FED_DDU_L1A_MISMATCH_FRACT, h::EMU_FED_ENTRIES, h::EMU_FED_DDU_L1A_MISMATCH);
calcEMUFractionHisto(h::EMU_FED_DDU_L1A_MISMATCH_WITH_CSC_DATA_FRACT, h::EMU_FED_ENTRIES, h::EMU_FED_DDU_L1A_MISMATCH_WITH_CSC_DATA);
unsigned int iter = 0, crateId = 0, dmbId = 0;
MonitorObject *mo = 0, *mof = 0;
while (config->fnNextBookedCSC(iter, crateId, dmbId)) {
uint32_t dmbEvents = config->getChamberCounterValue(DMB_EVENTS, crateId, dmbId);
if (getCSCHisto(h::CSC_BINCHECK_DATAFLOW_PROBLEMS_TABLE, crateId, dmbId, mo) &&
getCSCHisto(h::CSC_BINCHECK_DATAFLOW_PROBLEMS_FREQUENCY, crateId, dmbId, mof)) {
LockType lock(mof->mutex);
TH1* th = mof->getTH1Lock();
th->Reset();
th->Add(mo->getTH1());
th->Scale(1. / dmbEvents);
mof->SetMaximum(1.);
mof->SetEntries(dmbEvents);
mo->SetEntries(dmbEvents);
}
if (getCSCHisto(h::CSC_BINCHECK_ERRORSTAT_TABLE, crateId, dmbId, mo) &&
getCSCHisto(h::CSC_BINCHECK_ERRORS_FREQUENCY, crateId, dmbId, mof)) {
LockType lock(mof->mutex);
TH1* th = mof->getTH1Lock();
th->Reset();
th->Add(mo->getTH1());
th->Scale(1. / dmbEvents);
mof->SetMaximum(1.);
mof->SetEntries(dmbEvents);
mo->SetEntries(dmbEvents);
}
}
}
| void cscdqm::EventProcessor::writeShifterHistograms | ( | ) |
Definition at line 247 of file CSCDQM_EventProcessor_updateEffHistos.cc.
References config, getEMUHisto(), cscdqm::MonitorObject::getTH1Lock(), HWSTATUSERRORBITS, CommonMethods::lock(), cscdqm::Lock::mutex, summary, tmp, and cscdqm::Summary::WriteChamberState().
Referenced by cscdqm::EventProcessorMutex::processStandby(), and updateEfficiencyHistos().
{
MonitorObject *me = 0;
//const int COLOR_WHITE = 0;
const int COLOR_GREEN = 1;
const int COLOR_RED = 2;
const int COLOR_BLUE = 3;
const int COLOR_GREY = 4;
const int COLOR_STANDBY = 5;
if (getEMUHisto(h::EMU_CSC_STATS_SUMMARY, me)) {
LockType lock(me->mutex);
TH2* tmp = dynamic_cast<TH2*>(me->getTH1Lock());
if (!config->getIN_FULL_STANDBY()) {
summary.WriteChamberState(tmp, 0x1, COLOR_GREEN, true, false);
summary.WriteChamberState(tmp, HWSTATUSERRORBITS, COLOR_RED, false, true);
}
summary.WriteChamberState(tmp, 0x1000, COLOR_STANDBY, false);
summary.WriteChamberState(tmp, 0x2, COLOR_GREY, false);
}
if (getEMUHisto(h::EMU_CSC_STATS_OCCUPANCY, me)){
LockType lock(me->mutex);
TH2* tmp = dynamic_cast<TH2*>(me->getTH1Lock());
if (!config->getIN_FULL_STANDBY()) {
summary.WriteChamberState(tmp, 0x4, COLOR_RED, true, false);
summary.WriteChamberState(tmp, 0x8, COLOR_BLUE, false, false);
}
summary.WriteChamberState(tmp, 0x1000, COLOR_STANDBY, false);
summary.WriteChamberState(tmp, 0x2, COLOR_GREY, false, false);
}
if (getEMUHisto(h::EMU_CSC_STATS_FORMAT_ERR, me)){
LockType lock(me->mutex);
TH2* tmp = dynamic_cast<TH2*>(me->getTH1Lock());
if (!config->getIN_FULL_STANDBY()) {
summary.WriteChamberState(tmp, 0x10, COLOR_RED, true, false);
}
summary.WriteChamberState(tmp, 0x1000, COLOR_STANDBY, false);
summary.WriteChamberState(tmp, 0x2, COLOR_GREY, false, false);
}
if (getEMUHisto(h::EMU_CSC_STATS_L1SYNC_ERR, me)){
LockType lock(me->mutex);
TH2* tmp = dynamic_cast<TH2*>(me->getTH1Lock());
if (!config->getIN_FULL_STANDBY()) {
summary.WriteChamberState(tmp, 0x20, COLOR_RED, true, false);
}
summary.WriteChamberState(tmp, 0x1000, COLOR_STANDBY, false);
summary.WriteChamberState(tmp, 0x2, COLOR_GREY, false, false);
}
if (getEMUHisto(h::EMU_CSC_STATS_FIFOFULL_ERR, me)){
LockType lock(me->mutex);
TH2* tmp = dynamic_cast<TH2*>(me->getTH1Lock());
if (!config->getIN_FULL_STANDBY()) {
summary.WriteChamberState(tmp, 0x40, COLOR_RED, true, false);
}
summary.WriteChamberState(tmp, 0x1000, COLOR_STANDBY, false);
summary.WriteChamberState(tmp, 0x2, COLOR_GREY, false, false);
}
if (getEMUHisto(h::EMU_CSC_STATS_INPUTTO_ERR, me)){
LockType lock(me->mutex);
TH2* tmp = dynamic_cast<TH2*>(me->getTH1Lock());
if (!config->getIN_FULL_STANDBY()) {
summary.WriteChamberState(tmp, 0x80, COLOR_RED, true, false);
}
summary.WriteChamberState(tmp, 0x1000, COLOR_STANDBY, false);
summary.WriteChamberState(tmp, 0x2, COLOR_GREY, false, false);
}
if (getEMUHisto(h::EMU_CSC_STATS_WO_ALCT, me)){
LockType lock(me->mutex);
TH2* tmp = dynamic_cast<TH2*>(me->getTH1Lock());
if (!config->getIN_FULL_STANDBY()) {
summary.WriteChamberState(tmp, 0x100, COLOR_RED, true, false);
}
summary.WriteChamberState(tmp, 0x1000, COLOR_STANDBY, false);
summary.WriteChamberState(tmp, 0x2, COLOR_GREY, false, false);
}
if (getEMUHisto(h::EMU_CSC_STATS_WO_CLCT, me)){
LockType lock(me->mutex);
TH2* tmp = dynamic_cast<TH2*>(me->getTH1Lock());
if (!config->getIN_FULL_STANDBY()) {
summary.WriteChamberState(tmp, 0x200, COLOR_RED, true, false);
}
summary.WriteChamberState(tmp, 0x1000, COLOR_STANDBY, false);
summary.WriteChamberState(tmp, 0x2, COLOR_GREY, false, false);
}
if (getEMUHisto(h::EMU_CSC_STATS_WO_CFEB, me)){
LockType lock(me->mutex);
TH2* tmp = dynamic_cast<TH2*>(me->getTH1Lock());
if (!config->getIN_FULL_STANDBY()) {
summary.WriteChamberState(tmp, 0x400, COLOR_RED, true, false);
}
summary.WriteChamberState(tmp, 0x1000, COLOR_STANDBY, false);
summary.WriteChamberState(tmp, 0x2, COLOR_GREY, false, false);
}
if (getEMUHisto(h::EMU_CSC_STATS_CFEB_BWORDS, me)){
LockType lock(me->mutex);
TH2* tmp = dynamic_cast<TH2*>(me->getTH1Lock());
if (!config->getIN_FULL_STANDBY()) {
summary.WriteChamberState(tmp, 0x800, COLOR_RED, true, false);
}
summary.WriteChamberState(tmp, 0x1000, COLOR_STANDBY, false);
summary.WriteChamberState(tmp, 0x2, COLOR_GREY, false, false);
}
}
uint32_t cscdqm::EventProcessor::BXN [private] |
Definition at line 165 of file CSCDQM_EventProcessor.h.
Referenced by processCSC(), and processDDU().
uint32_t cscdqm::EventProcessor::cntALCTs [private] |
Total Number of CFEBs per event from DMB DAV.
Definition at line 168 of file CSCDQM_EventProcessor.h.
Referenced by processExaminer().
uint32_t cscdqm::EventProcessor::cntCFEBs [private] |
Total Number of DMBs per event from DDU Header DAV.
Definition at line 167 of file CSCDQM_EventProcessor.h.
Referenced by processExaminer().
uint32_t cscdqm::EventProcessor::cntDMBs [private] |
Definition at line 166 of file CSCDQM_EventProcessor.h.
Referenced by processExaminer().
uint32_t cscdqm::EventProcessor::cntTMBs [private] |
Total Number of ALCTs per event from DMB DAV.
Definition at line 169 of file CSCDQM_EventProcessor.h.
Referenced by processExaminer().
Configuration* cscdqm::EventProcessor::config [private] |
Pointer to Global Configuration
Definition at line 157 of file CSCDQM_EventProcessor.h.
Referenced by EventProcessor(), getCSCFromMap(), getCSCHisto(), getDDUHisto(), getEMUHisto(), getFEDHisto(), getParHisto(), preProcessEvent(), processCSC(), processDDU(), processExaminer(), updateEfficiencyHistos(), updateFractionHistos(), and writeShifterHistograms().
bool cscdqm::EventProcessor::EmuEventDisplayWasReset [private] |
Definition at line 174 of file CSCDQM_EventProcessor.h.
Referenced by preProcessEvent(), and resetEmuEventDisplays().
bool cscdqm::EventProcessor::fCloseL1As [private] |
Total Number of TMBs per event from DMB DAV.
Definition at line 173 of file CSCDQM_EventProcessor.h.
Referenced by EventProcessor(), processCSC(), and processDDU().
std::map<uint32_t, bool> cscdqm::EventProcessor::fNotFirstEvent [private] |
Definition at line 163 of file CSCDQM_EventProcessor.h.
Referenced by processDDU().
uint32_t cscdqm::EventProcessor::L1ANumber [private] |
Definition at line 164 of file CSCDQM_EventProcessor.h.
Referenced by processCSC(), and processDDU().
std::map<uint32_t, uint32_t> cscdqm::EventProcessor::L1ANumbers [private] |
Definition at line 162 of file CSCDQM_EventProcessor.h.
Referenced by processDDU().
Summary cscdqm::EventProcessor::summary [private] |
Detector efficiency manipulation object
Definition at line 160 of file CSCDQM_EventProcessor.h.
Referenced by maskHWElements(), processCSC(), standbyEfficiencyHistos(), updateEfficiencyHistos(), and writeShifterHistograms().
1.7.3