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CalibrationSummaryFactory.cc
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1 #include "DQM/SiStripCommissioningSummary/interface/CalibrationSummaryFactory.h"
2 #include "CondFormats/SiStripObjects/interface/CalibrationAnalysis.h"
3 #include "DataFormats/SiStripCommon/interface/SiStripEnumsAndStrings.h"
4 #include "FWCore/MessageLogger/interface/MessageLogger.h"
5 #include <iostream>
6 #include <sstream>
7 
8 using namespace sistrip;
9 
10 // -----------------------------------------------------------------------------
11 //
12 void CalibrationSummaryFactory::extract(Iterator iter) {
13  CalibrationAnalysis* anal = dynamic_cast<CalibrationAnalysis*>(iter->second);
14  if (!anal) {
15  return;
16  }
17 
18  std::vector<float> temp(128, 1. * sistrip::invalid_);
19  std::vector<std::vector<float> > amplitude(2, temp);
20  std::vector<std::vector<float> > baseline(2, temp);
21  std::vector<std::vector<float> > riseTime(2, temp);
22  std::vector<std::vector<float> > turnOn(2, temp);
23  std::vector<std::vector<float> > peakTime(2, temp);
24  std::vector<std::vector<float> > undershoot(2, temp);
25  std::vector<std::vector<float> > tail(2, temp);
26  std::vector<std::vector<float> > decayTime(2, temp);
27  std::vector<std::vector<float> > smearing(2, temp);
28  std::vector<std::vector<float> > chi2(2, temp);
29 
30  std::vector<std::vector<float> > value(2, temp);
31 
32  amplitude[0] = anal->amplitude()[0];
33  amplitude[1] = anal->amplitude()[1];
34  baseline[0] = anal->baseline()[0];
35  baseline[1] = anal->baseline()[1];
36  tail[0] = anal->tail()[0];
37  tail[1] = anal->tail()[1];
38  riseTime[0] = anal->riseTime()[0];
39  riseTime[1] = anal->riseTime()[1];
40  decayTime[0] = anal->decayTime()[0];
41  decayTime[1] = anal->decayTime()[1];
42  peakTime[0] = anal->peakTime()[0];
43  peakTime[1] = anal->peakTime()[1];
44  turnOn[0] = anal->turnOn()[0];
45  turnOn[1] = anal->turnOn()[1];
46  undershoot[0] = anal->undershoot()[0];
47  undershoot[1] = anal->undershoot()[1];
48  smearing[0] = anal->smearing()[0];
49  smearing[1] = anal->smearing()[1];
50  chi2[0] = anal->chi2()[0];
51  chi2[1] = anal->chi2()[1];
52 
53  SiStripFecKey lldKey = SiStripFecKey(iter->first);
54 
55  uint32_t key1 = SiStripFecKey(lldKey.fecCrate(),
56  lldKey.fecSlot(),
57  lldKey.fecRing(),
58  lldKey.ccuAddr(),
59  lldKey.ccuChan(),
60  lldKey.lldChan(),
61  lldKey.i2cAddr(lldKey.lldChan(), true))
62  .key();
63 
64  uint32_t key2 = SiStripFecKey(lldKey.fecCrate(),
65  lldKey.fecSlot(),
66  lldKey.fecRing(),
67  lldKey.ccuAddr(),
68  lldKey.ccuChan(),
69  lldKey.lldChan(),
70  lldKey.i2cAddr(lldKey.lldChan(), false))
71  .key();
72 
73  bool all_strips = false;
74  if (mon_ == sistrip::CALIBRATION_AMPLITUDE_ALL_STRIPS) {
75  all_strips = true;
76  uint16_t bins = amplitude[amplitude[0].size() < amplitude[1].size() ? 1 : 0].size();
77  for (uint16_t i = 0; i < bins; i++) {
78  value[0][i] = amplitude[0][i];
79  value[1][i] = amplitude[1][i];
80  }
81  } else if (mon_ == sistrip::CALIBRATION_BASELINE_ALL_STRIPS) {
82  all_strips = true;
83  uint16_t bins = baseline[baseline[0].size() < baseline[1].size() ? 1 : 0].size();
84  for (uint16_t i = 0; i < bins; i++) {
85  value[0][i] = baseline[0][i];
86  value[1][i] = baseline[1][i];
87  }
88  } else if (mon_ == sistrip::CALIBRATION_TURNON_ALL_STRIPS) {
89  all_strips = true;
90  uint16_t bins = turnOn[turnOn[0].size() < turnOn[1].size() ? 1 : 0].size();
91  for (uint16_t i = 0; i < bins; i++) {
92  value[0][i] = turnOn[0][i];
93  value[1][i] = turnOn[1][i];
94  }
95  } else if (mon_ == sistrip::CALIBRATION_RISETIME_ALL_STRIPS) {
96  all_strips = true;
97  uint16_t bins = riseTime[riseTime[0].size() < riseTime[1].size() ? 1 : 0].size();
98  for (uint16_t i = 0; i < bins; i++) {
99  value[0][i] = riseTime[0][i];
100  value[1][i] = riseTime[1][i];
101  }
102  } else if (mon_ == sistrip::CALIBRATION_DECAYTIME_ALL_STRIPS) {
103  all_strips = true;
104  uint16_t bins = decayTime[decayTime[0].size() < decayTime[1].size() ? 1 : 0].size();
105  for (uint16_t i = 0; i < bins; i++) {
106  value[0][i] = decayTime[0][i];
107  value[1][i] = decayTime[1][i];
108  }
109  } else if (mon_ == sistrip::CALIBRATION_PEAKTIME_ALL_STRIPS) {
110  all_strips = true;
111  uint16_t bins = peakTime[peakTime[0].size() < peakTime[1].size() ? 1 : 0].size();
112  for (uint16_t i = 0; i < bins; i++) {
113  value[0][i] = peakTime[0][i];
114  value[1][i] = peakTime[1][i];
115  }
116  } else if (mon_ == sistrip::CALIBRATION_UNDERSHOOT_ALL_STRIPS) {
117  all_strips = true;
118  uint16_t bins = undershoot[undershoot[0].size() < undershoot[1].size() ? 1 : 0].size();
119  for (uint16_t i = 0; i < bins; i++) {
120  value[0][i] = undershoot[0][i];
121  value[1][i] = undershoot[1][i];
122  }
123  } else if (mon_ == sistrip::CALIBRATION_TAIL_ALL_STRIPS) {
124  all_strips = true;
125  uint16_t bins = tail[tail[0].size() < tail[1].size() ? 1 : 0].size();
126  for (uint16_t i = 0; i < bins; i++) {
127  value[0][i] = tail[0][i];
128  value[1][i] = tail[1][i];
129  }
130  } else if (mon_ == sistrip::CALIBRATION_SMEARING_ALL_STRIPS) {
131  all_strips = true;
132  uint16_t bins = smearing[smearing[0].size() < smearing[1].size() ? 1 : 0].size();
133  for (uint16_t i = 0; i < bins; i++) {
134  value[0][i] = smearing[0][i];
135  value[1][i] = smearing[1][i];
136  }
137  } else if (mon_ == sistrip::CALIBRATION_CHI2_ALL_STRIPS) {
138  all_strips = true;
139  uint16_t bins = chi2[chi2[0].size() < chi2[1].size() ? 1 : 0].size();
140  for (uint16_t i = 0; i < bins; i++) {
141  value[0][i] = chi2[0][i];
142  value[1][i] = chi2[1][i];
143  }
144  }
146  else if (mon_ == sistrip::CALIBRATION_AMPLITUDE_MEAN) {
147  value[0][0] = anal->amplitudeMean()[0];
148  value[1][0] = anal->amplitudeMean()[1];
149  } else if (mon_ == sistrip::CALIBRATION_BASELINE_MEAN) {
150  value[0][0] = anal->baselineMean()[0];
151  value[1][0] = anal->baselineMean()[1];
152  } else if (mon_ == sistrip::CALIBRATION_TURNON_MEAN) {
153  value[0][0] = anal->turnOnMean()[0];
154  value[1][0] = anal->turnOnMean()[1];
155  } else if (mon_ == sistrip::CALIBRATION_RISETIME_MEAN) {
156  value[0][0] = anal->riseTimeMean()[0];
157  value[1][0] = anal->riseTimeMean()[1];
158  } else if (mon_ == sistrip::CALIBRATION_DECAYTIME_MEAN) {
159  value[0][0] = anal->decayTimeMean()[0];
160  value[1][0] = anal->decayTimeMean()[1];
161  } else if (mon_ == sistrip::CALIBRATION_PEAKTIME_MEAN) {
162  value[0][0] = anal->peakTimeMean()[0];
163  value[1][0] = anal->peakTimeMean()[1];
164  } else if (mon_ == sistrip::CALIBRATION_UNDERSHOOT_MEAN) {
165  value[0][0] = anal->undershootMean()[0];
166  value[1][0] = anal->undershootMean()[1];
167  } else if (mon_ == sistrip::CALIBRATION_TAIL_MEAN) {
168  value[0][0] = anal->tailMean()[0];
169  value[1][0] = anal->tailMean()[1];
170  } else if (mon_ == sistrip::CALIBRATION_SMEARING_MEAN) {
171  value[0][0] = anal->smearingMean()[0];
172  value[1][0] = anal->smearingMean()[1];
173  } else if (mon_ == sistrip::CALIBRATION_CHI2_MEAN) {
174  value[0][0] = anal->chi2Mean()[0];
175  value[1][0] = anal->chi2Mean()[1];
176  }
178  else if (mon_ == sistrip::CALIBRATION_AMPLITUDE_MIN) {
179  value[0][0] = anal->amplitudeMin()[0];
180  value[1][0] = anal->amplitudeMin()[1];
181  } else if (mon_ == sistrip::CALIBRATION_BASELINE_MIN) {
182  value[0][0] = anal->baselineMin()[0];
183  value[1][0] = anal->baselineMin()[1];
184  } else if (mon_ == sistrip::CALIBRATION_TURNON_MIN) {
185  value[0][0] = anal->turnOnMin()[0];
186  value[1][0] = anal->turnOnMin()[1];
187  } else if (mon_ == sistrip::CALIBRATION_RISETIME_MIN) {
188  value[0][0] = anal->riseTimeMin()[0];
189  value[1][0] = anal->riseTimeMin()[1];
190  } else if (mon_ == sistrip::CALIBRATION_DECAYTIME_MIN) {
191  value[0][0] = anal->decayTimeMin()[0];
192  value[1][0] = anal->decayTimeMin()[1];
193  } else if (mon_ == sistrip::CALIBRATION_PEAKTIME_MIN) {
194  value[0][0] = anal->peakTimeMin()[0];
195  value[1][0] = anal->peakTimeMin()[1];
196  } else if (mon_ == sistrip::CALIBRATION_UNDERSHOOT_MIN) {
197  value[0][0] = anal->undershootMin()[0];
198  value[1][0] = anal->undershootMin()[1];
199  } else if (mon_ == sistrip::CALIBRATION_TAIL_MIN) {
200  value[0][0] = anal->tailMin()[0];
201  value[1][0] = anal->tailMin()[1];
202  } else if (mon_ == sistrip::CALIBRATION_SMEARING_MIN) {
203  value[0][0] = anal->smearingMin()[0];
204  value[1][0] = anal->smearingMin()[1];
205  } else if (mon_ == sistrip::CALIBRATION_CHI2_MIN) {
206  value[0][0] = anal->chi2Min()[0];
207  value[1][0] = anal->chi2Min()[1];
208  }
210  else if (mon_ == sistrip::CALIBRATION_AMPLITUDE_MAX) {
211  value[0][0] = anal->amplitudeMax()[0];
212  value[1][0] = anal->amplitudeMax()[1];
213  } else if (mon_ == sistrip::CALIBRATION_BASELINE_MAX) {
214  value[0][0] = anal->baselineMax()[0];
215  value[1][0] = anal->baselineMax()[1];
216  } else if (mon_ == sistrip::CALIBRATION_TURNON_MAX) {
217  value[0][0] = anal->turnOnMax()[0];
218  value[1][0] = anal->turnOnMax()[1];
219  } else if (mon_ == sistrip::CALIBRATION_RISETIME_MAX) {
220  value[0][0] = anal->riseTimeMax()[0];
221  value[1][0] = anal->riseTimeMax()[1];
222  } else if (mon_ == sistrip::CALIBRATION_DECAYTIME_MAX) {
223  value[0][0] = anal->decayTimeMax()[0];
224  value[1][0] = anal->decayTimeMax()[1];
225  } else if (mon_ == sistrip::CALIBRATION_PEAKTIME_MAX) {
226  value[0][0] = anal->peakTimeMax()[0];
227  value[1][0] = anal->peakTimeMax()[1];
228  } else if (mon_ == sistrip::CALIBRATION_UNDERSHOOT_MAX) {
229  value[0][0] = anal->undershootMax()[0];
230  value[1][0] = anal->undershootMax()[1];
231  } else if (mon_ == sistrip::CALIBRATION_TAIL_MAX) {
232  value[0][0] = anal->tailMax()[0];
233  value[1][0] = anal->tailMax()[1];
234  } else if (mon_ == sistrip::CALIBRATION_SMEARING_MAX) {
235  value[0][0] = anal->smearingMax()[0];
236  value[1][0] = anal->smearingMax()[1];
237  } else if (mon_ == sistrip::CALIBRATION_CHI2_MAX) {
238  value[0][0] = anal->chi2Max()[0];
239  value[1][0] = anal->chi2Max()[1];
240  }
242  else if (mon_ == sistrip::CALIBRATION_AMPLITUDE_SPREAD) {
243  value[0][0] = anal->amplitudeSpread()[0];
244  value[1][0] = anal->amplitudeSpread()[1];
245  } else if (mon_ == sistrip::CALIBRATION_BASELINE_SPREAD) {
246  value[0][0] = anal->baselineSpread()[0];
247  value[1][0] = anal->baselineSpread()[1];
248  } else if (mon_ == sistrip::CALIBRATION_TURNON_SPREAD) {
249  value[0][0] = anal->turnOnSpread()[0];
250  value[1][0] = anal->turnOnSpread()[1];
251  } else if (mon_ == sistrip::CALIBRATION_RISETIME_SPREAD) {
252  value[0][0] = anal->riseTimeSpread()[0];
253  value[1][0] = anal->riseTimeSpread()[1];
254  } else if (mon_ == sistrip::CALIBRATION_DECAYTIME_SPREAD) {
255  value[0][0] = anal->decayTimeSpread()[0];
256  value[1][0] = anal->decayTimeSpread()[1];
257  } else if (mon_ == sistrip::CALIBRATION_PEAKTIME_SPREAD) {
258  value[0][0] = anal->peakTimeSpread()[0];
259  value[1][0] = anal->peakTimeSpread()[1];
260  } else if (mon_ == sistrip::CALIBRATION_UNDERSHOOT_SPREAD) {
261  value[0][0] = anal->undershootSpread()[0];
262  value[1][0] = anal->undershootSpread()[1];
263  } else if (mon_ == sistrip::CALIBRATION_TAIL_SPREAD) {
264  value[0][0] = anal->tailSpread()[0];
265  value[1][0] = anal->tailSpread()[1];
266  } else if (mon_ == sistrip::CALIBRATION_SMEARING_SPREAD) {
267  value[0][0] = anal->smearingSpread()[0];
268  value[1][0] = anal->smearingSpread()[1];
269  } else if (mon_ == sistrip::CALIBRATION_CHI2_SPREAD) {
270  value[0][0] = anal->chi2Spread()[0];
271  value[1][0] = anal->chi2Spread()[1];
272  } else {
273  edm::LogWarning(mlSummaryPlots_) << "[SummaryPlotFactory::" << __func__ << "]"
274  << " Unexpected monitorable: "
275  << SiStripEnumsAndStrings::monitorable(SummaryPlotFactoryBase::mon_);
276  return;
277  }
278 
279  if (!all_strips) {
280  SummaryPlotFactoryBase::generator_->fillMap(
281  SummaryPlotFactoryBase::level_, SummaryPlotFactoryBase::gran_, key1, value[0][0]);
282 
283  SummaryPlotFactoryBase::generator_->fillMap(
284  SummaryPlotFactoryBase::level_, SummaryPlotFactoryBase::gran_, key2, value[1][0]);
285  } else {
286  for (uint16_t istr = 0; istr < value[0].size(); istr++)
287  SummaryPlotFactoryBase::generator_->fillMap(
288  SummaryPlotFactoryBase::level_, SummaryPlotFactoryBase::gran_, key1, value[0][istr]);
289 
290  for (uint16_t istr = 0; istr < value[1].size(); istr++)
291  SummaryPlotFactoryBase::generator_->fillMap(
292  SummaryPlotFactoryBase::level_, SummaryPlotFactoryBase::gran_, key2, value[1][istr]);
293  }
294 
295  format();
296 }
297 
298 //------------------------------------------------------------------------------
299 //
300 void CalibrationSummaryFactory::format() {
301  // Histogram formatting
302  if (mon_ == sistrip::CALIBRATION_AMPLITUDE_MEAN or mon_ == sistrip::CALIBRATION_AMPLITUDE_ALL_STRIPS or
303  mon_ == sistrip::CALIBRATION_AMPLITUDE_MIN or mon_ == sistrip::CALIBRATION_AMPLITUDE_MAX or
304  mon_ == sistrip::CALIBRATION_AMPLITUDE_SPREAD)
305  generator_->axisLabel("Amplitude (ADC)");
306 
307  else if (mon_ == sistrip::CALIBRATION_BASELINE_MEAN or mon_ == sistrip::CALIBRATION_BASELINE_ALL_STRIPS or
308  mon_ == sistrip::CALIBRATION_BASELINE_MIN or mon_ == sistrip::CALIBRATION_BASELINE_MAX or
309  mon_ == sistrip::CALIBRATION_BASELINE_SPREAD)
310  generator_->axisLabel("Baseline (ADC)");
311 
312  else if (mon_ == sistrip::CALIBRATION_TURNON_MEAN or mon_ == sistrip::CALIBRATION_TURNON_ALL_STRIPS or
313  mon_ == sistrip::CALIBRATION_TURNON_MIN or mon_ == sistrip::CALIBRATION_TURNON_MAX or
314  mon_ == sistrip::CALIBRATION_TURNON_SPREAD)
315  generator_->axisLabel("Turn-On (ns)");
316 
317  else if (mon_ == sistrip::CALIBRATION_TAIL_MEAN or mon_ == sistrip::CALIBRATION_TAIL_ALL_STRIPS or
318  mon_ == sistrip::CALIBRATION_TAIL_MIN or mon_ == sistrip::CALIBRATION_TAIL_MAX or
319  mon_ == sistrip::CALIBRATION_TAIL_SPREAD)
320  generator_->axisLabel("Tail (%)");
321 
322  else if (mon_ == sistrip::CALIBRATION_RISETIME_MEAN or mon_ == sistrip::CALIBRATION_RISETIME_ALL_STRIPS or
323  mon_ == sistrip::CALIBRATION_RISETIME_MIN or mon_ == sistrip::CALIBRATION_RISETIME_MAX or
324  mon_ == sistrip::CALIBRATION_RISETIME_SPREAD)
325  generator_->axisLabel("Rise Time (ns)");
326 
327  else if (mon_ == sistrip::CALIBRATION_PEAKTIME_MEAN or mon_ == sistrip::CALIBRATION_PEAKTIME_ALL_STRIPS or
328  mon_ == sistrip::CALIBRATION_PEAKTIME_MIN or mon_ == sistrip::CALIBRATION_PEAKTIME_MAX or
329  mon_ == sistrip::CALIBRATION_PEAKTIME_SPREAD)
330  generator_->axisLabel("Peak Time (ns)");
331 
332  else if (mon_ == sistrip::CALIBRATION_DECAYTIME_MEAN or mon_ == sistrip::CALIBRATION_DECAYTIME_ALL_STRIPS or
333  mon_ == sistrip::CALIBRATION_DECAYTIME_MIN or mon_ == sistrip::CALIBRATION_DECAYTIME_MAX or
334  mon_ == sistrip::CALIBRATION_DECAYTIME_SPREAD)
335  generator_->axisLabel("Decay Time (ns)");
336 
337  else if (mon_ == sistrip::CALIBRATION_SMEARING_MEAN or mon_ == sistrip::CALIBRATION_SMEARING_ALL_STRIPS or
338  mon_ == sistrip::CALIBRATION_SMEARING_MIN or mon_ == sistrip::CALIBRATION_SMEARING_MAX or
339  mon_ == sistrip::CALIBRATION_SMEARING_SPREAD)
340  generator_->axisLabel("Smearing (ns)");
341 
342  else if (mon_ == sistrip::CALIBRATION_CHI2_MEAN or mon_ == sistrip::CALIBRATION_CHI2_ALL_STRIPS or
343  mon_ == sistrip::CALIBRATION_CHI2_MIN or mon_ == sistrip::CALIBRATION_CHI2_MAX or
344  mon_ == sistrip::CALIBRATION_CHI2_SPREAD)
345  generator_->axisLabel("Chi2/ndf");
346 
347  else if (mon_ == sistrip::CALIBRATION_UNDERSHOOT_MEAN or mon_ == sistrip::CALIBRATION_UNDERSHOOT_ALL_STRIPS or
348  mon_ == sistrip::CALIBRATION_UNDERSHOOT_MIN or mon_ == sistrip::CALIBRATION_UNDERSHOOT_MAX or
349  mon_ == sistrip::CALIBRATION_UNDERSHOOT_SPREAD)
350  generator_->axisLabel("Undershoot (%)");
351 
352  else {
353  edm::LogWarning(mlSummaryPlots_) << "[SummaryPlotFactory::" << __func__ << "]"
354  << " Unexpected SummaryHisto value:"
355  << SiStripEnumsAndStrings::monitorable(SummaryPlotFactoryBase::mon_);
356  }
357 }
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Definition: ConstantsForMonitorable.h:321
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Definition: SummaryPlotFactoryBase.h:32
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Definition: ConstantsForMonitorable.h:328
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Definition: ConstantsForMonitorable.h:340
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Definition: ConstantsForMonitorable.h:310
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Definition: ConstantsForMonitorable.h:312
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Definition: Constants.h:16
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Definition: CalibrationSummaryFactory.cc:12
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Definition: CalibrationSummaryFactory.cc:300
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Definition: ConstantsForMonitorable.h:304
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Definition: SiStripEnumsAndStrings.cc:547
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Definition: ConstantsForMonitorable.h:347
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Definition: ConstantsForMonitorable.h:315
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Definition: ConstantsForMonitorable.h:298
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Definition: SummaryPlotFactoryBase.h:29
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Definition: ConstantsForMonitorable.h:299
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const uint16_t & i2cAddr() const
Definition: SiStripFecKey.h:204
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Definition: ConstantsForMonitorable.h:317
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Definition: ConstantsForMonitorable.h:308
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Definition: ConstantsForMonitorable.h:320
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Definition: ConstantsForMonitorable.h:342
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Definition: ConstantsForLogger.h:26
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Definition: relativeConstraints.py:53
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Definition: SiStripFecKey.h:201
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Definition: ConstantsForMonitorable.h:319
or
The Signals That Services Can Subscribe To This is based on ActivityRegistry and is current per Services can connect to the signals distributed by the ActivityRegistry in order to monitor the activity of the application Each possible callback has some defined which we here list in angle e< void, edm::EventID const &, edm::Timestamp const & > We also list in braces which AR_WATCH_USING_METHOD_ is used for those or
Definition: Activities.doc:12
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Definition: ConstantsForMonitorable.h:334
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Definition: ConstantsForMonitorable.h:323
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Definition: trigObjTnPSource_cfi.py:20
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Definition: SiStripQualityHelpers.h:14
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Definition: conversion_template_cfg.py:16
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Definition: SiStripFecKey.h:199
CalibrationAnalysis
Analysis for calibration runs.
Definition: CalibrationAnalysis.h:16
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Definition: ConstantsForMonitorable.h:337
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Definition: ConstantsForMonitorable.h:307
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Definition: ConstantsForMonitorable.h:318
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Definition: ConstantsForMonitorable.h:324
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Definition: ConstantsForMonitorable.h:330
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Definition: ConstantsForMonitorable.h:309
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