|
|
|
#include <DQM/SiStripMonitorHardware/plugins/CnBAnalyzer.h>
Definition at line 33 of file CnBAnalyzer.h.
| CnBAnalyzer::CnBAnalyzer | ( | const edm::ParameterSet & | iConfig | ) |
Definition at line 22 of file CnBAnalyzer.cc.
References buildAllHistograms_, cabling_, doDetailedHistos_, dqm_, fedIdBoundaries_, edm::ParameterSet::getUntrackedParameter(), NULL, outputFileDir_, outputFileName_, preSwapOn_, swapOn_, totalNumberOfFeds_, and useCablingDb_.
00022 { 00023 00024 // Dqm private object 00025 dqm_ = NULL; 00026 00027 // Parameters for working with S-link and dumping the hex buffer 00028 swapOn_ = iConfig.getUntrackedParameter<bool>("swapOn"); 00029 preSwapOn_ = iConfig.getUntrackedParameter<bool>("preSwapOn", false); 00030 00031 // Parameters to write a debug root file 00032 outputFileName_ = iConfig.getUntrackedParameter<string>("rootFile", ""); 00033 outputFileDir_ = iConfig.getUntrackedParameter<string>("rootFileDirectory",""); 00034 doDetailedHistos_ = iConfig.getUntrackedParameter<bool>("detailedHistograms",false); 00035 00036 // Decides whether to build histograms also for FEDs without any error 00037 #ifdef CNBANALYZER_BUILD_ALL_HISTOS 00038 buildAllHistograms_ = iConfig.getUntrackedParameter<bool>("buildAllHistograms",false); 00039 #endif 00040 00041 // FED address mapping is obtained through 00042 // FEDNumberting object: use and throw ! 00043 FEDNumbering fedNum; 00044 00045 // valid FedIds for the tracker 00046 fedIdBoundaries_ = fedNum.getSiStripFEDIds(); 00047 totalNumberOfFeds_ = fedIdBoundaries_.second - fedIdBoundaries_.first + 1; 00048 00049 // Whether we should use the cabling database 00050 useCablingDb_ = iConfig.getUntrackedParameter<bool>("useCablingDb",false); 00051 cabling_ = NULL; 00052 }
| CnBAnalyzer::~CnBAnalyzer | ( | ) |
Definition at line 54 of file CnBAnalyzer.cc.
References DQMStore::cd(), dqm(), and DQMStore::removeContents().
00054 { 00055 // Go to top directory 00056 dqm()->cd(); 00057 // and remove MEs at top directory 00058 dqm()->removeContents(); 00059 }
| void CnBAnalyzer::analyze | ( | const edm::Event & | iEvent, | |
| const edm::EventSetup & | iSetup | |||
| ) | [private, virtual] |
Implements edm::EDAnalyzer.
Definition at line 61 of file CnBAnalyzer.cc.
References badApv_, buildAllHistograms_, cabling_, chanErrOOS_, chanErrUnlock_, SiStripFedCabling::connections(), GenMuonPlsPt100GeV_cfg::cout, createDetailedFedHistograms(), FEDRawData::data(), doDetailedHistos_, lat::endl(), faultyChannels_, feAPVAddr_, fedBx_, fedCorruptBuffers_, fedFreeze_, fedGenericErrors_, fedIdBoundaries_, fedIds_, fedL1AEmpty_, fedL1AFull_, fedL1APartialFull_, fedQDREmpty_, fedQDRFull_, fedQDRPartialFull_, fedSLinkFull_, feOverFlow_, MonitorElement::Fill(), edm::Event::getByType(), edm::Event::id(), iggi_31X_cfg::input, NULL, preSwapOn_, FEDRawData::size(), std, swapOn_, and totalChannels_.
00061 { 00062 00063 using namespace edm; 00064 using namespace std; 00065 00066 // TODO: refuse to run if we are in Scope mode 00067 00068 // Retrieve FED raw data ("source" label is now fixed by framework) 00069 edm::Handle<FEDRawDataCollection> buffers; 00070 iEvent.getByType( buffers ); 00071 00072 fedIds_.clear(); 00073 for (uint16_t ifed = fedIdBoundaries_.first ; ifed <= fedIdBoundaries_.second; ifed++ ) { 00074 if ( buffers->FEDData( static_cast<int>(ifed) ).size() >= Fed9U::Fed9UDebugEvent::MinimumBufferSize ) { 00075 fedIds_.push_back(ifed); 00076 } 00077 } 00078 00079 #ifdef CNBANALYZER_DEBUG 00080 LogInfo("FEDBuffer") << "Number of Tracker Fed Buffers:" << fedIds_.size(); 00081 LogInfo("FEDBuffer") << "EVENTNUMB: " << iEvent.id().event(); 00082 #endif 00083 00084 00085 /**************************/ 00086 /* */ 00087 /* Main cycle over FEDs */ 00088 /* */ 00089 /**************************/ 00090 00091 // Counter for total number of enabled / faulty 00092 // channels in this event 00093 int total_enabled_channels = 0; 00094 int total_faulty_channels = 0; 00095 00096 // Retrieve FED all found fedIds and iterate through 00097 vector<uint16_t>::const_iterator ifed; 00098 for (ifed = fedIds_.begin() ; ifed != fedIds_.end(); ifed++ ) { 00099 00100 #ifdef CNBANALYZER_DEBUG 00101 LogInfo("FEDBuffer") << "A FED event: "; 00102 #endif 00103 #ifdef CNBANALYZER_BUILD_ALL_HISTOS 00104 if (buildAllHistograms_) createDetailedFedHistograms((*ifed)); 00105 #endif 00106 00107 // Retrieve FED raw data for given FED... there it is :) 00108 const FEDRawData& input = buffers->FEDData( static_cast<int>(*ifed) ); 00109 Fed9U::u32* data_u32 = 0; 00110 Fed9U::u32 size_u32 = 0; 00111 00112 data_u32 = reinterpret_cast<Fed9U::u32*>( const_cast<unsigned char*>( input.data() ) ); 00113 size_u32 = static_cast<Fed9U::u32>( input.size() / 4 ); // Number of words of 32 bits (=4*8) input.size() being the size of an unsigned char vector 00114 00115 Fed9UEventAnalyzer myEventAnalyzer(fedIdBoundaries_, swapOn_, preSwapOn_); 00116 00117 // The Initialize function is true if we have a good 00118 // non-corrupted tracker buffer 00119 if (myEventAnalyzer.Initialize(data_u32, size_u32)) { 00120 00121 #ifdef CNBANALYZER_DEBUG 00122 LogInfo("FEDBuffer") << "FEDevent correctly initialized"; 00123 #endif 00124 00125 // The Fed9UErrorCondition structure may cointain all the relevant 00126 // errors specific to the event 00127 Fed9UErrorCondition thisFedEventErrs; 00128 00129 // The actual checkout of the buffer: 00130 if (cabling_) { 00131 const std::vector<FedChannelConnection> conns = cabling_->connections(static_cast<int>(*ifed)); 00132 // TODO: check here if the connections are actually there. 00133 // if not you should fill a corresponding error 00134 00135 #undef CNBANALYZER_CABLING_DEBUG 00136 #ifdef CNBANALYZER_CABLING_DEBUG 00137 // TODO: remove this bad debug :-) 00138 // ???????????????????????????????? 00139 if ( iEvent.id().event() == 1 ) { 00140 std::cout << "analyzing event 1 with cabling for FED " << std::dec << (*ifed) << std::endl; 00141 for (int channelIndex=0; channelIndex<96; channelIndex++) { 00142 std::cout << std::dec << std::setfill('0') << std::setw(2) 00143 << (channelIndex+1) << " " 00144 << ((conns.at(95-channelIndex)).isConnected() ? "-" : "X" ) 00145 << std::endl; 00146 } 00147 } 00148 // ???????????????????????????????? 00149 #endif 00150 thisFedEventErrs = myEventAnalyzer.Analyze(true, &conns); 00151 } else { 00152 thisFedEventErrs = myEventAnalyzer.Analyze(false, NULL); 00153 } 00154 00155 total_enabled_channels += thisFedEventErrs.totalChannels; 00156 total_faulty_channels += thisFedEventErrs.problemsSeen; 00157 00158 if (thisFedEventErrs.internalFreeze) fedFreeze_->Fill(*ifed); 00159 if (thisFedEventErrs.bxError) fedBx_->Fill(*ifed); 00160 if (thisFedEventErrs.qdrFull) fedQDRFull_->Fill(*ifed); 00161 if (thisFedEventErrs.qdrPartialFull) fedQDRPartialFull_->Fill(*ifed); 00162 if (thisFedEventErrs.qdrEmpty) fedQDREmpty_->Fill(*ifed); 00163 if (thisFedEventErrs.l1aFull) fedL1AFull_->Fill(*ifed); 00164 if (thisFedEventErrs.l1aPartialFull) fedL1APartialFull_->Fill(*ifed); 00165 if (thisFedEventErrs.l1aEmpty) fedL1AEmpty_->Fill(*ifed); 00166 if (thisFedEventErrs.slinkFull) fedSLinkFull_->Fill(*ifed); 00167 if (thisFedEventErrs.corruptBuffer) fedCorruptBuffers_->Fill(*ifed); 00168 if (thisFedEventErrs.problemsSeen) { 00169 // Update counters for FEDs 00170 fedGenericErrors_->Fill(*ifed, thisFedEventErrs.problemsSeen); 00171 } 00172 if (doDetailedHistos_ && thisFedEventErrs.problemsSeen) { 00173 createDetailedFedHistograms((*ifed)); 00174 00175 00176 #ifdef CNBANALYZER_DEBUG 00177 LogInfo("FEDBuffer") << "FED number" << (*ifed) << std::endl 00178 << "enabled = " << thisFedEventErrs.totalChannels << std::endl 00179 << "faulty = " << thisFedEventErrs.problemsSeen << std::endl 00180 << "internalFreeze = " << thisFedEventErrs.internalFreeze << std::endl 00181 << "bxError = " << thisFedEventErrs.bxError; 00182 #endif 00183 00184 // Fill the Front-end failure counters 00185 for (unsigned int iFrontEnd=0; iFrontEnd<8; iFrontEnd++) { 00186 #ifdef CNBANALYZER_DEBUG 00187 LogInfo("FEDBuffer") << "feOverflow[" << iFrontEnd << "] = " << thisFedEventErrs.feOverflow[iFrontEnd]; 00188 LogInfo("FEDBuffer") << "apvAddressError[" << iFrontEnd << "] = " << thisFedEventErrs.apvAddressError[iFrontEnd]; 00189 #endif 00190 00191 if (thisFedEventErrs.feOverflow[iFrontEnd]) 00192 feOverFlow_[*ifed]->Fill(iFrontEnd); 00193 if (thisFedEventErrs.apvAddressError[iFrontEnd]) 00194 feAPVAddr_[*ifed]->Fill(iFrontEnd); 00195 00196 } 00197 00198 // Fill the channel failure counters 00199 for (unsigned int iChannel=0; iChannel<96; iChannel++) { 00200 00201 #ifdef CNBANALYZER_DEBUG 00202 LogInfo("FEDBuffer") << "channel[" << iChannel << "] = " << hex << thisFedEventErrs.channel[iChannel]; 00203 #endif 00204 00205 if (thisFedEventErrs.channel[iChannel]==Fed9UEventAnalyzer::FIBERUNLOCKED) 00206 chanErrUnlock_[*ifed]->Fill(iChannel); 00207 if (thisFedEventErrs.channel[iChannel]==Fed9UEventAnalyzer::FIBEROUTOFSYNCH) 00208 chanErrOOS_[*ifed]->Fill(iChannel); 00209 } 00210 00211 00212 // apv[96*2] 00213 for (unsigned int iApv=0; iApv<192; iApv++) { 00214 #ifdef CNBANALYZER_DEBUG 00215 LogInfo("FEDBuffer") << "apv[" << iApv << "] = " << hex << thisFedEventErrs.apv[iApv]; 00216 #endif 00217 if (thisFedEventErrs.apv[iApv]) 00218 badApv_[*ifed]->Fill(iApv); 00219 } 00220 } 00221 } 00222 00223 } // End of the ifed loop 00224 00225 #ifdef CNBANALYZER_DEBUG 00226 LogInfo("FEDBuffer") << "Event summary:" << std::endl 00227 << "total_enabled = " << total_enabled_channels << std::endl 00228 << "total_faulty = " << total_faulty_channels; 00229 #endif 00230 00231 // TODO: find a better solution to this (and remove the explicit 1000) 00232 if ( iEvent.id().event()<1000) { 00233 totalChannels_->Fill( iEvent.id().event(), total_enabled_channels); 00234 faultyChannels_->Fill( iEvent.id().event(), total_faulty_channels); 00235 } 00236 00237 } // End of the Event Loop (analyze: called once per event)
| void CnBAnalyzer::beginJob | ( | const edm::EventSetup & | iSetup | ) | [private, virtual] |
Reimplemented from edm::EDAnalyzer.
Definition at line 242 of file CnBAnalyzer.cc.
References createRootFedHistograms(), dqm(), dqm_, and DQMStore::setVerbose().
00243 { 00244 // ---------- DQM back-end interface ---------- 00245 dqm_ = edm::Service<DQMStore>().operator->(); 00246 dqm()->setVerbose(0); 00247 00248 // Summary histograms 00249 createRootFedHistograms(); 00250 }
| void CnBAnalyzer::beginRun | ( | const edm::Run & | r, | |
| const edm::EventSetup & | iSetup | |||
| ) | [private, virtual] |
Reimplemented from edm::EDAnalyzer.
Definition at line 253 of file CnBAnalyzer.cc.
References cabling_, edm::EventSetup::get(), and useCablingDb_.
00254 { 00255 // Create and populate the FED cabling object if needed 00256 if (useCablingDb_) { 00257 edm::ESHandle<SiStripFedCabling> myCabling; 00258 iSetup.get<SiStripFedCablingRcd>().get(myCabling); 00259 cabling_ = new SiStripFedCabling (*myCabling); 00260 } 00261 }
| void CnBAnalyzer::createDetailedFedHistograms | ( | const uint16_t & | fed_id | ) | [private] |
Definition at line 405 of file CnBAnalyzer.cc.
References badApv_, DQMStore::book1D(), chanErrOOS_, chanErrUnlock_, dir, dqm(), feAPVAddr_, feOverFlow_, foundFeds_, i, SiStripKey::path(), and DQMStore::setCurrentFolder().
Referenced by analyze().
00405 { 00406 00407 std::map<uint16_t, bool>::iterator itFeds; 00408 00409 itFeds=foundFeds_.find(fed_id); 00410 00411 if (itFeds==foundFeds_.end()) { 00412 00413 SiStripFedKey thisFedKey(fed_id, 0, 0, 0); 00414 00415 foundFeds_[fed_id]=true; 00416 00417 stringstream fedNumber; 00418 fedNumber << fed_id; 00419 00420 // Set working directory prior to booking histograms 00421 std::string dir = thisFedKey.path(); 00422 dqm()->setCurrentFolder( dir ); 00423 00424 std::stringstream binNameS; 00425 00426 00427 // All the following histograms are such that thay can be plot together 00428 // In fact the boundaries of the plots are 1, 192 (or actually 0.5, 192,5) 00429 // They have a different binning, though, which reflect the granularity of the system. 00430 00431 // When filling these plots one can access directly the bin (for example feOverFlow, bin number 8 00432 // to address the front-end unit number 8) or one can make use of the x axis, which correspond 00433 // to the APV index (1, 192). 00434 00435 00436 // bool feOverflow[8]; 00437 feOverFlow_[fed_id] = dqm()->book1D( "FeUnitOverflow_FED"+fedNumber.str(), 00438 "FeUnit Overflow for FED #"+fedNumber.str(), 00439 8, 0, 8 ); 00440 feOverFlow_[fed_id]->setAxisTitle("Number of errors", 2); 00441 feOverFlow_[fed_id]->setAxisTitle("Front-End Unit", 1); 00442 for(unsigned int i=1; i<=8; i++) { binNameS.str(""); binNameS << i; feOverFlow_[fed_id]->setBinLabel(i, binNameS.str(), 1); } 00443 00444 // bool apvAddressError[8]; 00445 feAPVAddr_[fed_id] = dqm()->book1D( "APVAddresserror_FED"+fedNumber.str(), 00446 "FedUnit APV Address error for FED #"+fedNumber.str(), 00447 8, 0, 8 ); 00448 feAPVAddr_[fed_id]->setAxisTitle("Number of errors", 2); 00449 feAPVAddr_[fed_id]->setAxisTitle("Front-End Unit", 1); 00450 for(unsigned int i=1; i<=8; i++) { binNameS.str(""); binNameS << i; feAPVAddr_[fed_id]->setBinLabel(i, binNameS.str(), 1); } 00451 00452 // Channel[96] 00453 chanErrUnlock_[fed_id] = dqm()->book1D( "UnlockError_FED"+fedNumber.str(), 00454 "Unlocked Fiber error for FED #"+fedNumber.str(), 00455 96, 0, 96); 00456 chanErrUnlock_[fed_id]->setAxisTitle("Number of errors", 2); 00457 chanErrUnlock_[fed_id]->setAxisTitle("Channel", 1); 00458 for(unsigned int i=1; i<=96; i++) { binNameS.str(""); if (i%6==0) binNameS << i; chanErrUnlock_[fed_id]->setBinLabel(i, binNameS.str(), 1); } 00459 00460 00461 chanErrOOS_[fed_id] = dqm()->book1D( "OOSerror_FED"+fedNumber.str(), 00462 "OutOfSynch Fiber error for FED #"+fedNumber.str(), 00463 96, 0, 96); 00464 chanErrOOS_[fed_id]->setAxisTitle("Number of errors", 2); 00465 chanErrOOS_[fed_id]->setAxisTitle("Channel", 1); 00466 for(unsigned int i=1; i<=96; i++) { binNameS.str(""); if (i%6==0) binNameS << i; chanErrOOS_[fed_id]->setBinLabel(i, binNameS.str(), 1); } 00467 00468 // apv[96*2] 00469 badApv_[fed_id] = dqm()->book1D( "BadAPVerror_FED"+fedNumber.str(), 00470 "Bad APV error for FED #"+fedNumber.str(), 00471 192, 0, 192); 00472 badApv_[fed_id]->setAxisTitle("Number of errors", 2); 00473 badApv_[fed_id]->setAxisTitle("APV", 1); 00474 for(unsigned int i=1; i<=192; i++) { binNameS.str(""); if (i%12==0) binNameS << i; badApv_[fed_id]->setBinLabel(i, binNameS.str(), 1); } 00475 00476 00477 } // Otherwise we have nothing to do 00478 00479 }
| void CnBAnalyzer::createRootFedHistograms | ( | ) | [private] |
Definition at line 265 of file CnBAnalyzer.cc.
References DQMStore::book1D(), dqm(), faultyChannels_, fedBx_, fedCorruptBuffers_, fedFreeze_, fedGenericErrors_, fedIdBoundaries_, fedL1AEmpty_, fedL1AFull_, fedL1APartialFull_, fedQDREmpty_, fedQDRFull_, fedQDRPartialFull_, fedSLinkFull_, i, SiStripKey::path(), MonitorElement::setAxisTitle(), MonitorElement::setBinLabel(), DQMStore::setCurrentFolder(), totalChannels_, and totalNumberOfFeds_.
Referenced by beginJob().
00265 { 00266 00267 stringstream binNameS; 00268 00269 SiStripFedKey thisFedKey(0, 0, 0, 0); 00270 std::string baseFolder = thisFedKey.path() + "FedMonitoringSummary"; 00271 dqm()->setCurrentFolder(baseFolder); 00272 00273 // This Histogram will be filled with 00274 // problemsSeen / totalChannels 00275 fedGenericErrors_ = dqm()->book1D( "FedGenericErrors","Fed Generic Errors vs. FED #", 00276 totalNumberOfFeds_, 00277 fedIdBoundaries_.first, 00278 fedIdBoundaries_.second + 1 ); 00279 fedGenericErrors_->setAxisTitle("Number of errors", 2); 00280 fedGenericErrors_->setAxisTitle("Front-End Driver", 1); 00281 for (int i=fedIdBoundaries_.first; i<=fedIdBoundaries_.second; i++) { 00282 binNameS.str(""); if (i%10==0) binNameS << i; fedGenericErrors_->setBinLabel(i-fedIdBoundaries_.first+1, binNameS.str(), 1); 00283 } 00284 00285 00286 // bool internalFreeze 00287 fedFreeze_ = dqm()->book1D( "FedFreeze","Fed Freeze vs. FED #", 00288 totalNumberOfFeds_, 00289 fedIdBoundaries_.first, 00290 fedIdBoundaries_.second + 1 ); 00291 fedFreeze_->setAxisTitle("Number of errors", 2); 00292 fedFreeze_->setAxisTitle("Front-End Driver", 1); 00293 for (int i=fedIdBoundaries_.first; i<=fedIdBoundaries_.second; i++) { 00294 binNameS.str(""); if (i%10==0) binNameS << i; fedFreeze_->setBinLabel(i-fedIdBoundaries_.first+1, binNameS.str(), 1); 00295 } 00296 00297 // bool bxError 00298 fedBx_ = dqm()->book1D( "FedBxError","Fed Bx Error vs. FED #", 00299 totalNumberOfFeds_, 00300 fedIdBoundaries_.first, 00301 fedIdBoundaries_.second + 1 ); 00302 fedBx_->setAxisTitle("Number of errors", 2); 00303 fedBx_->setAxisTitle("Front-End Driver", 1); 00304 for (int i=fedIdBoundaries_.first; i<=fedIdBoundaries_.second; i++) { 00305 binNameS.str(""); if (i%10==0) binNameS << i; fedBx_->setBinLabel(i-fedIdBoundaries_.first+1, binNameS.str(), 1); 00306 } 00307 00308 //corrupt buffers 00309 fedCorruptBuffers_ = dqm()->book1D( "FedCorruptBuffer","Corrupt buffers vs. FED #", 00310 totalNumberOfFeds_, 00311 fedIdBoundaries_.first, 00312 fedIdBoundaries_.second + 1 ); 00313 fedCorruptBuffers_->setAxisTitle("Number of errors", 2); 00314 fedCorruptBuffers_->setAxisTitle("Front-End Driver", 1); 00315 for (int i=fedIdBoundaries_.first; i<=fedIdBoundaries_.second; i++) { 00316 binNameS.str(""); if (i%10==0) binNameS << i; fedCorruptBuffers_->setBinLabel(i-fedIdBoundaries_.first+1, binNameS.str(), 1); 00317 } 00318 00319 //BE Buffer status 00320 //QDR Full 00321 fedQDRFull_ = dqm()->book1D( "FedQDRFull","Full QDR buffer events vs. FED #", 00322 totalNumberOfFeds_, 00323 fedIdBoundaries_.first, 00324 fedIdBoundaries_.second + 1 ); 00325 fedQDRFull_->setAxisTitle("Number of events with full QDR buffer", 2); 00326 fedQDRFull_->setAxisTitle("Front-End Driver", 1); 00327 for (int i=fedIdBoundaries_.first; i<=fedIdBoundaries_.second; i++) { 00328 binNameS.str(""); if (i%10==0) binNameS << i; fedQDRFull_->setBinLabel(i-fedIdBoundaries_.first+1, binNameS.str(), 1); 00329 } 00330 //QDR Partial full 00331 fedQDRPartialFull_ = dqm()->book1D( "FedQDRPartialFull","Partialy full QDR buffer events vs. FED #", 00332 totalNumberOfFeds_, 00333 fedIdBoundaries_.first, 00334 fedIdBoundaries_.second + 1 ); 00335 fedQDRPartialFull_->setAxisTitle("Number of events with partial full QDR buffer", 2); 00336 fedQDRPartialFull_->setAxisTitle("Front-End Driver", 1); 00337 for (int i=fedIdBoundaries_.first; i<=fedIdBoundaries_.second; i++) { 00338 binNameS.str(""); if (i%10==0) binNameS << i; fedQDRPartialFull_->setBinLabel(i-fedIdBoundaries_.first+1, binNameS.str(), 1); 00339 } 00340 //QDR Empty 00341 fedQDREmpty_ = dqm()->book1D( "FedQDREmpty","Empty QDR buffer events vs. FED #", 00342 totalNumberOfFeds_, 00343 fedIdBoundaries_.first, 00344 fedIdBoundaries_.second + 1 ); 00345 fedQDREmpty_->setAxisTitle("Number of events with empty QDR buffer", 2); 00346 fedQDREmpty_->setAxisTitle("Front-End Driver", 1); 00347 for (int i=fedIdBoundaries_.first; i<=fedIdBoundaries_.second; i++) { 00348 binNameS.str(""); if (i%10==0) binNameS << i; fedQDREmpty_->setBinLabel(i-fedIdBoundaries_.first+1, binNameS.str(), 1); 00349 } 00350 //L1A Full 00351 fedL1AFull_ = dqm()->book1D( "FedL1AFull","Full L1A buffer events vs. FED #", 00352 totalNumberOfFeds_, 00353 fedIdBoundaries_.first, 00354 fedIdBoundaries_.second + 1 ); 00355 fedL1AFull_->setAxisTitle("Number of events with full L1A buffer", 2); 00356 fedL1AFull_->setAxisTitle("Front-End Driver", 1); 00357 for (int i=fedIdBoundaries_.first; i<=fedIdBoundaries_.second; i++) { 00358 binNameS.str(""); if (i%10==0) binNameS << i; fedL1AFull_->setBinLabel(i-fedIdBoundaries_.first+1, binNameS.str(), 1); 00359 } 00360 //L1A Partial full 00361 fedL1APartialFull_ = dqm()->book1D( "FedL1APartialFull","Partialy full L1A buffer events vs. FED #", 00362 totalNumberOfFeds_, 00363 fedIdBoundaries_.first, 00364 fedIdBoundaries_.second + 1 ); 00365 fedL1APartialFull_->setAxisTitle("Number of events with partial full L1A buffer", 2); 00366 fedL1APartialFull_->setAxisTitle("Front-End Driver", 1); 00367 for (int i=fedIdBoundaries_.first; i<=fedIdBoundaries_.second; i++) { 00368 binNameS.str(""); if (i%10==0) binNameS << i; fedL1APartialFull_->setBinLabel(i-fedIdBoundaries_.first+1, binNameS.str(), 1); 00369 } 00370 //L1A Empty 00371 fedL1AEmpty_ = dqm()->book1D( "FedL1AEmpty","Empty L1A buffer events vs. FED #", 00372 totalNumberOfFeds_, 00373 fedIdBoundaries_.first, 00374 fedIdBoundaries_.second + 1 ); 00375 fedL1AEmpty_->setAxisTitle("Number of events with empty L1A buffer", 2); 00376 fedL1AEmpty_->setAxisTitle("Front-End Driver", 1); 00377 for (int i=fedIdBoundaries_.first; i<=fedIdBoundaries_.second; i++) { 00378 binNameS.str(""); if (i%10==0) binNameS << i; fedL1AEmpty_->setBinLabel(i-fedIdBoundaries_.first+1, binNameS.str(), 1); 00379 } 00380 //SLink Full 00381 fedSLinkFull_ = dqm()->book1D( "FedSLinkFull","Full SLink buffer events vs. FED #", 00382 totalNumberOfFeds_, 00383 fedIdBoundaries_.first, 00384 fedIdBoundaries_.second + 1 ); 00385 fedSLinkFull_->setAxisTitle("Number of events with full SLink buffer", 2); 00386 fedSLinkFull_->setAxisTitle("Front-End Driver", 1); 00387 for (int i=fedIdBoundaries_.first; i<=fedIdBoundaries_.second; i++) { 00388 binNameS.str(""); if (i%10==0) binNameS << i; fedSLinkFull_->setBinLabel(i-fedIdBoundaries_.first+1, binNameS.str(), 1); 00389 } 00390 00391 00392 // TODO: missing connections ? 00393 00394 // Trend plots: 00395 totalChannels_ = dqm()->book1D( "TotalChannelsVsEvent", 00396 "Total channels vs. Event for all FEDs", 00397 1001, 0.5, 1000.5); 00398 00399 faultyChannels_ = dqm()->book1D( "FaultyChannelsVsEvent", 00400 "Faulty channels vs. Event for all FEDs", 00401 1001, 0.5, 1000.5); 00402 00403 }
| DQMStore *const CnBAnalyzer::dqm | ( | std::string | method = "" |
) | const [private] |
Definition at line 494 of file CnBAnalyzer.cc.
References dqm_, lat::endl(), and ss.
Referenced by beginJob(), createDetailedFedHistograms(), createRootFedHistograms(), endJob(), and ~CnBAnalyzer().
00494 { 00495 if ( !dqm_ ) { 00496 std::stringstream ss; 00497 if ( method != "" ) { ss << "[CnBAnalyzer::" << method << "]" << std::endl; } 00498 else { ss << "[CnBAnalyzer]" << std::endl; } 00499 ss << " NULL pointer to DQMStore"; 00500 edm::LogWarning("SiStripMonitorHardware") << ss.str(); 00501 return 0; 00502 } else { return dqm_; } 00503 }
Reimplemented from edm::EDAnalyzer.
Definition at line 483 of file CnBAnalyzer.cc.
References dqm(), outputFileDir_, outputFileName_, DQMStore::save(), and DQMStore::showDirStructure().
00483 { 00484 00485 if (outputFileName_!="") { 00486 dqm()->showDirStructure(); 00487 std::string completeFileName = outputFileDir_ + std::string("/test_") + outputFileName_; 00488 dqm()->save(completeFileName); 00489 } 00490 00491 }
MonitorElement* CnBAnalyzer::AddConstPerEvent [private] |
Definition at line 63 of file CnBAnalyzer.h.
MonitorElement* CnBAnalyzer::ApvAddConstPerEvent [private] |
Definition at line 64 of file CnBAnalyzer.h.
MonitorElement* CnBAnalyzer::ApvAddConstPerEvent1 [private] |
Definition at line 65 of file CnBAnalyzer.h.
MonitorElement* CnBAnalyzer::ApvAddConstPerEvent2 [private] |
Definition at line 66 of file CnBAnalyzer.h.
std::map<int, MonitorElement* > CnBAnalyzer::badApv_ [private] |
Definition at line 131 of file CnBAnalyzer.h.
Referenced by analyze(), and createDetailedFedHistograms().
MonitorElement* CnBAnalyzer::BadHead [private] |
Definition at line 68 of file CnBAnalyzer.h.
bool CnBAnalyzer::buildAllHistograms_ [private] |
const SiStripFedCabling* CnBAnalyzer::cabling_ [private] |
Definition at line 47 of file CnBAnalyzer.h.
Referenced by analyze(), beginRun(), and CnBAnalyzer().
std::map<int, MonitorElement* > CnBAnalyzer::chanErrOOS_ [private] |
Definition at line 130 of file CnBAnalyzer.h.
Referenced by analyze(), and createDetailedFedHistograms().
std::map<int, MonitorElement* > CnBAnalyzer::chanErrUnlock_ [private] |
Definition at line 129 of file CnBAnalyzer.h.
Referenced by analyze(), and createDetailedFedHistograms().
bool CnBAnalyzer::doDetailedHistos_ [private] |
DQMStore* CnBAnalyzer::dqm_ [private] |
MonitorElement* CnBAnalyzer::faultyChannels_ [private] |
Definition at line 124 of file CnBAnalyzer.h.
Referenced by analyze(), and createRootFedHistograms().
std::map<int, MonitorElement* > CnBAnalyzer::feAPVAddr_ [private] |
Definition at line 128 of file CnBAnalyzer.h.
Referenced by analyze(), and createDetailedFedHistograms().
MonitorElement* CnBAnalyzer::fedBx_ [private] |
Definition at line 112 of file CnBAnalyzer.h.
Referenced by analyze(), and createRootFedHistograms().
MonitorElement* CnBAnalyzer::fedCorruptBuffers_ [private] |
Definition at line 120 of file CnBAnalyzer.h.
Referenced by analyze(), and createRootFedHistograms().
MonitorElement* CnBAnalyzer::fedFreeze_ [private] |
Definition at line 111 of file CnBAnalyzer.h.
Referenced by analyze(), and createRootFedHistograms().
MonitorElement* CnBAnalyzer::fedGenericErrors_ [private] |
Definition at line 110 of file CnBAnalyzer.h.
Referenced by analyze(), and createRootFedHistograms().
std::pair<int,int> CnBAnalyzer::fedIdBoundaries_ [private] |
Definition at line 106 of file CnBAnalyzer.h.
Referenced by analyze(), CnBAnalyzer(), and createRootFedHistograms().
std::vector<uint16_t> CnBAnalyzer::fedIds_ [private] |
MonitorElement* CnBAnalyzer::fedL1AEmpty_ [private] |
Definition at line 118 of file CnBAnalyzer.h.
Referenced by analyze(), and createRootFedHistograms().
MonitorElement* CnBAnalyzer::fedL1AFull_ [private] |
Definition at line 116 of file CnBAnalyzer.h.
Referenced by analyze(), and createRootFedHistograms().
MonitorElement* CnBAnalyzer::fedL1APartialFull_ [private] |
Definition at line 117 of file CnBAnalyzer.h.
Referenced by analyze(), and createRootFedHistograms().
MonitorElement* CnBAnalyzer::fedQDREmpty_ [private] |
Definition at line 115 of file CnBAnalyzer.h.
Referenced by analyze(), and createRootFedHistograms().
MonitorElement* CnBAnalyzer::fedQDRFull_ [private] |
Definition at line 113 of file CnBAnalyzer.h.
Referenced by analyze(), and createRootFedHistograms().
MonitorElement* CnBAnalyzer::fedQDRPartialFull_ [private] |
Definition at line 114 of file CnBAnalyzer.h.
Referenced by analyze(), and createRootFedHistograms().
MonitorElement* CnBAnalyzer::fedSLinkFull_ [private] |
Definition at line 119 of file CnBAnalyzer.h.
Referenced by analyze(), and createRootFedHistograms().
std::map<int, MonitorElement* > CnBAnalyzer::feOverFlow_ [private] |
Definition at line 127 of file CnBAnalyzer.h.
Referenced by analyze(), and createDetailedFedHistograms().
std::map<uint16_t, bool> CnBAnalyzer::foundFeds_ [private] |
MonitorElement* CnBAnalyzer::NoLock [private] |
Definition at line 67 of file CnBAnalyzer.h.
MonitorElement* CnBAnalyzer::NoSynch [private] |
Definition at line 69 of file CnBAnalyzer.h.
std::string CnBAnalyzer::outputFileDir_ [private] |
std::string CnBAnalyzer::outputFileName_ [private] |
bool CnBAnalyzer::preSwapOn_ [private] |
bool CnBAnalyzer::swapOn_ [private] |
MonitorElement* CnBAnalyzer::totalChannels_ [private] |
Definition at line 123 of file CnBAnalyzer.h.
Referenced by analyze(), and createRootFedHistograms().
int CnBAnalyzer::totalNumberOfFeds_ [private] |
Definition at line 107 of file CnBAnalyzer.h.
Referenced by CnBAnalyzer(), and createRootFedHistograms().
bool CnBAnalyzer::useCablingDb_ [private] |
1.5.4