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#include "DQM/HcalTasks/interface/DigiRunSummary.h"
namespace hcaldqm {
using namespace constants;
DigiRunSummary::DigiRunSummary(std::string const& name,
std::string const& taskname,
edm::ParameterSet const& ps,
edm::ConsumesCollector& iC)
: DQClient(name, taskname, ps, iC), _booked(false) {
_thresh_unihf = ps.getUntrackedParameter<double>("thresh_unihf", 0.2);
std::vector<uint32_t> vrefDigiSize = ps.getUntrackedParameter<std::vector<uint32_t>>("refDigiSize");
_refDigiSize[HcalBarrel] = vrefDigiSize[0];
_refDigiSize[HcalEndcap] = vrefDigiSize[1];
_refDigiSize[HcalOuter] = vrefDigiSize[2];
_refDigiSize[HcalForward] = vrefDigiSize[3];
}
/* virtual */ void DigiRunSummary::beginRun(edm::Run const& r, edm::EventSetup const& es) {
DQClient::beginRun(r, es);
if (_ptype != fOffline)
return;
// INITIALIZE WHAT NEEDS TO BE INITIALIZE ONLY ONCE!
_ehashmap.initialize(_emap, electronicsmap::fD2EHashMap);
_vhashVME.push_back(
HcalElectronicsId(constants::FIBERCH_MIN, constants::FIBER_VME_MIN, SPIGOT_MIN, CRATE_VME_MIN).rawId());
_vhashuTCA.push_back(HcalElectronicsId(CRATE_uTCA_MIN, SLOT_uTCA_MIN, FIBER_uTCA_MIN1, FIBERCH_MIN, false).rawId());
_filter_VME.initialize(filter::fFilter, hashfunctions::fElectronics,
_vhashVME); // filter out VME
_filter_uTCA.initialize(filter::fFilter, hashfunctions::fElectronics,
_vhashuTCA); // filter out uTCA
_vhashFEDHF.push_back(HcalElectronicsId(22, SLOT_uTCA_MIN, FIBER_uTCA_MIN1, FIBERCH_MIN, false).rawId());
_vhashFEDHF.push_back(HcalElectronicsId(29, SLOT_uTCA_MIN, FIBER_uTCA_MIN1, FIBERCH_MIN, false).rawId());
_vhashFEDHF.push_back(HcalElectronicsId(32, SLOT_uTCA_MIN, FIBER_uTCA_MIN1, FIBERCH_MIN, false).rawId());
_vhashFEDHF.push_back(HcalElectronicsId(22, SLOT_uTCA_MIN + 6, FIBER_uTCA_MIN1, FIBERCH_MIN, false).rawId());
_vhashFEDHF.push_back(HcalElectronicsId(29, SLOT_uTCA_MIN + 6, FIBER_uTCA_MIN1, FIBERCH_MIN, false).rawId());
_vhashFEDHF.push_back(HcalElectronicsId(32, SLOT_uTCA_MIN + 6, FIBER_uTCA_MIN1, FIBERCH_MIN, false).rawId());
_filter_FEDHF.initialize(filter::fPreserver, hashfunctions::fFED,
_vhashFEDHF); // preserve only HF FEDs
_xDead.initialize(hashfunctions::fFED);
_xDigiSize.initialize(hashfunctions::fFED);
_xUni.initialize(hashfunctions::fFED);
_xUniHF.initialize(hashfunctions::fFEDSlot);
_xDead.book(_emap);
_xDigiSize.book(_emap);
_xUniHF.book(_emap);
_xUni.book(_emap, _filter_FEDHF);
_xNChs.initialize(hashfunctions::fFED);
_xNChsNominal.initialize(hashfunctions::fFED);
_xNChs.book(_emap);
_xNChsNominal.book(_emap);
_cOccupancy_depth.initialize(_name,
"Occupancy",
hashfunctions::fdepth,
new quantity::DetectorQuantity(quantity::fieta),
new quantity::DetectorQuantity(quantity::fiphi),
new quantity::ValueQuantity(quantity::fN),
0);
// GET THE NOMINAL NUMBER OF CHANNELS PER FED
std::vector<HcalGenericDetId> gids = _emap->allPrecisionId();
for (std::vector<HcalGenericDetId>::const_iterator it = gids.begin(); it != gids.end(); ++it) {
if (!it->isHcalDetId())
continue;
HcalDetId did(it->rawId());
HcalElectronicsId eid = HcalElectronicsId(_ehashmap.lookup(did));
_xNChsNominal.get(eid)++;
}
}
/*
* END LUMI. EVALUATE LUMI BASED FLAGS
*/
/* virtual */ void DigiRunSummary::endLuminosityBlock(DQMStore::IBooker& ib,
DQMStore::IGetter& ig,
edm::LuminosityBlock const& lb,
edm::EventSetup const& es) {
DQClient::endLuminosityBlock(ib, ig, lb, es);
if (_ptype != fOffline)
return;
LSSummary lssum;
lssum._LS = _currentLS;
_xDigiSize.reset();
_xNChs.reset();
// INITIALIZE LUMI BASED HISTOGRAMS
Container2D cDigiSize_Crate, cOccupancy_depth;
cDigiSize_Crate.initialize(_taskname,
"DigiSize",
hashfunctions::fCrate,
new quantity::ValueQuantity(quantity::fDigiSize),
new quantity::ValueQuantity(quantity::fN),
0);
cOccupancy_depth.initialize(_taskname,
"Occupancy",
hashfunctions::fdepth,
new quantity::DetectorQuantity(quantity::fieta),
new quantity::DetectorQuantity(quantity::fiphi),
new quantity::ValueQuantity(quantity::fN),
0);
// LOAD LUMI BASED HISTOGRAMS
cOccupancy_depth.load(ig, _emap, _subsystem);
cDigiSize_Crate.load(ig, _emap, _subsystem);
MonitorElement* meNumEvents = ig.get(_subsystem + "/RunInfo/NumberOfEvents");
int numEvents = meNumEvents->getBinContent(1);
bool unknownIdsPresent = ig.get(_subsystem + "/" + _taskname + "/UnknownIds")->getBinContent(1) > 0;
// book the Numer of Events - set axis extendable
if (!_booked) {
ib.setCurrentFolder(_subsystem + "/" + _taskname);
_meNumEvents = ib.book1DD("NumberOfEvents", "NumberOfEvents", 1000, 1, 1001); // 1000 to start with
_meNumEvents->getTH1()->SetCanExtend(TH1::kXaxis);
_cOccupancy_depth.book(ib, _emap, _subsystem);
_booked = true;
}
_meNumEvents->setBinContent(_currentLS, numEvents);
// ANALYZE THIS LS for LS BASED FLAGS
std::vector<HcalGenericDetId> gids = _emap->allPrecisionId();
for (std::vector<HcalGenericDetId>::const_iterator it = gids.begin(); it != gids.end(); ++it) {
if (!it->isHcalDetId())
continue;
HcalDetId did = HcalDetId(it->rawId());
HcalElectronicsId eid = HcalElectronicsId(_ehashmap.lookup(did));
cOccupancy_depth.getBinContent(did) > 0 ? _xNChs.get(eid)++ : _xNChs.get(eid) += 0;
_cOccupancy_depth.fill(did, cOccupancy_depth.getBinContent(did));
// digi size
cDigiSize_Crate.getMean(eid) != _refDigiSize[did.subdet()] ? _xDigiSize.get(eid)++ : _xDigiSize.get(eid) += 0;
cDigiSize_Crate.getRMS(eid) != 0 ? _xDigiSize.get(eid)++ : _xDigiSize.get(eid) += 0;
}
// GENERATE SUMMARY AND STORE IT
std::vector<flag::Flag> vtmpflags;
vtmpflags.resize(nLSFlags);
vtmpflags[fDigiSize] = flag::Flag("DigiSize");
vtmpflags[fNChsHF] = flag::Flag("NChsHF");
vtmpflags[fUnknownIds] = flag::Flag("UnknownIds");
vtmpflags[fLED] = flag::Flag("LEDMisfire");
for (std::vector<uint32_t>::const_iterator it = _vhashCrates.begin(); it != _vhashCrates.end(); ++it) {
HcalElectronicsId eid(*it);
// skip monitoring for ZDC crate for now (Oct. 1 2023), the Hcal DQM group need to discuss with the ZDC group on the monitoring flags settings.
if (HcalGenericDetId(_emap->lookup(eid)).isHcalZDCDetId()) {
for (std::vector<flag::Flag>::iterator ft = vtmpflags.begin(); ft != vtmpflags.end(); ++ft)
ft->reset();
lssum._vflags.push_back(vtmpflags);
continue;
}
HcalDetId did = HcalDetId(_emap->lookup(eid));
// reset all the tmp flags to fNA
// MUST DO IT NOW! AS NCDAQ MIGHT OVERWRITE IT!
for (std::vector<flag::Flag>::iterator ft = vtmpflags.begin(); ft != vtmpflags.end(); ++ft)
ft->reset();
if (_xDigiSize.get(eid) > 0)
vtmpflags[fDigiSize]._state = flag::fBAD;
else
vtmpflags[fDigiSize]._state = flag::fGOOD;
if (did.subdet() == HcalForward) {
if (_xNChs.get(eid) != _xNChsNominal.get(eid))
vtmpflags[fNChsHF]._state = flag::fBAD;
else
vtmpflags[fNChsHF]._state = flag::fGOOD;
} else {
vtmpflags[fNChsHF]._state = flag::fNA;
}
if (unknownIdsPresent)
vtmpflags[fUnknownIds]._state = flag::fBAD;
else
vtmpflags[fUnknownIds]._state = flag::fGOOD;
if ((did.subdet() == HcalBarrel) || (did.subdet() == HcalBarrel) || (did.subdet() == HcalBarrel) ||
(did.subdet() == HcalBarrel)) {
std::string ledHistName = _subsystem + "/" + _taskname + "/LED_CUCountvsLS/Subdet/";
if (did.subdet() == HcalBarrel) {
ledHistName += "HB";
} else if (did.subdet() == HcalEndcap) {
ledHistName += "HE";
} else if (did.subdet() == HcalOuter) {
ledHistName += "HO";
} else if (did.subdet() == HcalForward) {
ledHistName += "HF";
}
MonitorElement* ledHist = ig.get(ledHistName);
if (ledHist) {
bool ledSignalPresent = (ledHist->getEntries() > 0);
if (ledSignalPresent)
vtmpflags[fLED]._state = flag::fBAD;
else
vtmpflags[fLED]._state = flag::fGOOD;
} else {
vtmpflags[fLED]._state = flag::fNA;
}
} else {
vtmpflags[fLED]._state = flag::fNA;
}
// push all the flags for this crate
lssum._vflags.push_back(vtmpflags);
}
// push all the flags for all FEDs for this LS
_vflagsLS.push_back(lssum);
cDigiSize_Crate.reset();
cOccupancy_depth.reset();
}
/*
* End Job
*/
/* virtual */ std::vector<flag::Flag> DigiRunSummary::endJob(DQMStore::IBooker& ib, DQMStore::IGetter& ig) {
if (_ptype != fOffline)
return std::vector<flag::Flag>();
_xDead.reset();
_xUniHF.reset();
_xUni.reset();
// PREPARE LS AND RUN BASED FLAGS TO USE IT FOR BOOKING
std::vector<flag::Flag> vflagsPerLS;
std::vector<flag::Flag> vflagsPerRun;
vflagsPerLS.resize(nLSFlags);
vflagsPerRun.resize(nDigiFlag - nLSFlags + 1);
vflagsPerLS[fDigiSize] = flag::Flag("DigiSize");
vflagsPerLS[fNChsHF] = flag::Flag("NChsHF");
vflagsPerLS[fUnknownIds] = flag::Flag("UnknownIds");
vflagsPerLS[fLED] = flag::Flag("LEDMisfire");
vflagsPerRun[fDigiSize] = flag::Flag("DigiSize");
vflagsPerRun[fNChsHF] = flag::Flag("NChsHF");
vflagsPerRun[fUniHF - nLSFlags + 1] = flag::Flag("UniSlotHF");
vflagsPerRun[fDead - nLSFlags + 1] = flag::Flag("Dead");
// INITIALIZE SUMMARY CONTAINERS
ContainerSingle2D cSummaryvsLS;
Container2D cSummaryvsLS_Crate;
cSummaryvsLS.initialize(_name,
"SummaryvsLS",
new quantity::LumiSection(_maxProcessedLS),
new quantity::CrateQuantity(_emap),
new quantity::ValueQuantity(quantity::fState),
0);
cSummaryvsLS.book(ib, _subsystem);
cSummaryvsLS_Crate.initialize(_name,
"SummaryvsLS",
hashfunctions::fCrate,
new quantity::LumiSection(_maxProcessedLS),
new quantity::FlagQuantity(vflagsPerLS),
new quantity::ValueQuantity(quantity::fState),
0);
cSummaryvsLS_Crate.book(ib, _emap, _subsystem);
// INITIALIZE CONTAINERS WE NEED TO LOAD or BOOK
Container2D cOccupancyCut_depth;
Container2D cDead_depth, cDead_Crate;
cOccupancyCut_depth.initialize(_taskname,
"OccupancyCut",
hashfunctions::fdepth,
new quantity::DetectorQuantity(quantity::fieta),
new quantity::DetectorQuantity(quantity::fiphi),
new quantity::ValueQuantity(quantity::fN),
0);
cDead_depth.initialize(_name,
"Dead",
hashfunctions::fdepth,
new quantity::DetectorQuantity(quantity::fieta),
new quantity::DetectorQuantity(quantity::fiphi),
new quantity::ValueQuantity(quantity::fN),
0);
cDead_Crate.initialize(_name,
"Dead",
hashfunctions::fCrate,
new quantity::ElectronicsQuantity(quantity::fSpigot),
new quantity::ElectronicsQuantity(quantity::fFiberVMEFiberCh),
new quantity::ValueQuantity(quantity::fN),
0);
// LOAD
cOccupancyCut_depth.load(ig, _emap, _subsystem);
cDead_depth.book(ib, _emap, _subsystem);
cDead_Crate.book(ib, _emap, _subsystem);
// ANALYZE RUN BASED QUANTITIES
std::vector<HcalGenericDetId> gids = _emap->allPrecisionId();
for (std::vector<HcalGenericDetId>::const_iterator it = gids.begin(); it != gids.end(); ++it) {
if (!it->isHcalDetId())
continue;
HcalDetId did = HcalDetId(it->rawId());
HcalElectronicsId eid = HcalElectronicsId(_ehashmap.lookup(did));
if (_cOccupancy_depth.getBinContent(did) < 1) {
_xDead.get(eid)++;
cDead_depth.fill(did);
cDead_Crate.fill(eid);
}
if (did.subdet() == HcalForward)
_xUniHF.get(eid) += cOccupancyCut_depth.getBinContent(did);
}
// ANALYZE FOR HF SLOT UNIFORMITY
for (uintCompactMap::const_iterator it = _xUniHF.begin(); it != _xUniHF.end(); ++it) {
uint32_t hash1 = it->first;
HcalElectronicsId eid1(hash1);
double x1 = it->second;
for (uintCompactMap::const_iterator jt = _xUniHF.begin(); jt != _xUniHF.end(); ++jt) {
if (jt == it)
continue;
double x2 = jt->second;
if (x2 == 0)
continue;
if (x1 / x2 < _thresh_unihf)
_xUni.get(eid1)++;
}
}
/*
* Iterate over each crate
* Iterate over each LS Summary
* Iterate over all flags
* set...
*/
// iterate over all crates
std::vector<flag::Flag> sumflags;
int icrate = 0;
for (auto& it_crate : _vhashCrates) {
flag::Flag fSumRun("DIGI"); // summary flag for this FED
flag::Flag ffDead("Dead");
flag::Flag ffUniSlotHF("UniSlotHF");
HcalElectronicsId eid(it_crate);
// skip monitoring for ZDC crate for now (Oct. 1 2023), the Hcal DQM group need to discuss with the ZDC group on the monitoring flags settings.
if (HcalGenericDetId(_emap->lookup(eid)).isHcalZDCDetId()) {
sumflags.push_back(fSumRun);
continue;
}
HcalDetId did = HcalDetId(_emap->lookup(eid));
// ITERATE OVER EACH LS
for (std::vector<LSSummary>::const_iterator itls = _vflagsLS.begin(); itls != _vflagsLS.end(); ++itls) {
int iflag = 0;
flag::Flag fSumLS("DIGI");
for (std::vector<flag::Flag>::const_iterator ft = itls->_vflags[icrate].begin();
ft != itls->_vflags[icrate].end();
++ft) {
cSummaryvsLS_Crate.setBinContent(eid, itls->_LS, int(iflag), ft->_state);
fSumLS += (*ft);
iflag++;
}
cSummaryvsLS.setBinContent(eid, itls->_LS, fSumLS._state);
fSumRun += fSumLS;
}
// EVALUATE RUN BASED FLAGS
if (_xDead.get(eid) > 0)
ffDead._state = flag::fBAD;
else
ffDead._state = flag::fGOOD;
if (did.subdet() == HcalForward) {
if (_xUni.get(eid) > 0)
ffUniSlotHF._state = flag::fBAD;
else
ffUniSlotHF._state = flag::fGOOD;
}
fSumRun += ffDead + ffUniSlotHF;
// push the summary flag for this FED for the Whole Run
sumflags.push_back(fSumRun);
// increment fed
icrate++;
}
return sumflags;
}
} // namespace hcaldqm
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