ATLAS Offline Software
eFEXFPGA.cxx
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1 /*
2  Copyright (C) 2002-2023 CERN for the benefit of the ATLAS collaboration
3 */
4 
5 //***************************************************************************
6 // eFEXFPGA - description
7 // -------------------
8 // begin : 15 10 2019
9 // email : jacob.julian.kempster@cern.ch
10 // ***************************************************************************/
11 #include "eFEXFPGA.h"
12 #include "L1CaloFEXSim/eTowerContainer.h"
13 #include "L1CaloFEXSim/eFEXegAlgo.h"
14 #include "L1CaloFEXSim/eFEXegTOB.h"
15 #include "L1CaloFEXSim/eFEXOutputCollection.h"
16 #include "eFEXtauAlgo.h"
17 #include "L1CaloFEXSim/eFEXtauTOB.h"
18 #include <vector>
19 #include "StoreGate/ReadHandle.h"
20 #include "TrigConfData/L1Menu.h"
21 #include <unordered_map>
22 
23 #include <iostream>
24 #include <fstream>
25 
26 namespace LVL1 {
27 
28  // default constructor for persistency
29 
30 eFEXFPGA::eFEXFPGA(const std::string& type,const std::string& name,const IInterface* parent):
31  AthAlgTool(type,name,parent)
32 {
33  declareInterface<eFEXFPGA>(this);
34 }
35 
36 
38  eFEXFPGA::~eFEXFPGA()
39  {
40  }
41 
42 //---------------- Initialisation -------------------------------------------------
43 
44 StatusCode eFEXFPGA::initialize()
45 {
46 
47  ATH_CHECK(m_eTowerContainerKey.initialize());
48  ATH_CHECK( m_eFEXegAlgoTool.retrieve() );
49  ATH_CHECK( m_eFEXtauAlgoTool.retrieve() );
50  ATH_CHECK( m_eFEXtauBDTAlgoTool.retrieve() );
51 
52 
53  ATH_CHECK(m_l1MenuKey.initialize());
54 
55  return StatusCode::SUCCESS;
56 }
57 
58 
59 StatusCode eFEXFPGA::init(int id, int efexid)
60 {
61  m_id = id;
62  m_efexid = efexid;
63 
64  return StatusCode::SUCCESS;
65 }
66 
67 void eFEXFPGA::reset(){
68 
69  m_id = -1;
70  m_efexid = -1;
71 }
72 
73 StatusCode eFEXFPGA::execute(eFEXOutputCollection* inputOutputCollection){
74  m_emTobObjects.clear();
75  m_tauHeuristicTobObjects.clear();
76  m_tauBDTTobObjects.clear();
77 
78  SG::ReadHandle<eTowerContainer> eTowerContainer(m_eTowerContainerKey/*,ctx*/);
79  if(!eTowerContainer.isValid()){
80  ATH_MSG_FATAL("Could not retrieve container " << m_eTowerContainerKey.key() );
81  return StatusCode::FAILURE;
82  }
83 
84  // Retrieve the L1 menu configuration
85  SG::ReadHandle<TrigConf::L1Menu> l1Menu (m_l1MenuKey/*, ctx*/);
86  ATH_CHECK(l1Menu.isValid());
87 
88  auto & thr_eEM = l1Menu->thrExtraInfo().eEM();
89  auto & thr_eTAU = l1Menu->thrExtraInfo().eTAU();
90 
91  auto emAlgoVersion = thr_eEM.algoVersion();
92  auto tauAlgoVersion = thr_eTAU.algoVersion();
93 
94 
95  // Define eta range to consider extra towers in edge cases
96  int min_eta;
97  int overflow_eta;
98  if ((m_efexid%3 == 0) && (m_id == 0)) {
99  min_eta = 0;
100  } else {
101  min_eta = 1;
102  }
103  if ((m_efexid%3 == 2) && (m_id == 3)) {
104  overflow_eta = 6;
105  } else {
106  overflow_eta = 5;
107  }
108 
109  for(int ieta = min_eta; ieta < overflow_eta; ieta++) {
110  for(int iphi = 1; iphi < 9; iphi++) {
111 
112  int tobtable[3][3]={
113  {ieta > 0 ? m_eTowersIDs[iphi-1][ieta-1] : 0,
114  m_eTowersIDs[iphi-1][ieta],
115  ieta < 5 ? m_eTowersIDs[iphi-1][ieta+1] : 0},
116 
117  {ieta > 0 ? m_eTowersIDs[iphi][ieta-1] : 0,
118  m_eTowersIDs[iphi][ieta],
119  ieta < 5 ? m_eTowersIDs[iphi][ieta+1] : 0},
120 
121  {ieta > 0 ? m_eTowersIDs[iphi+1][ieta-1] : 0,
122  m_eTowersIDs[iphi+1][ieta],
123  ieta < 5 ? m_eTowersIDs[iphi+1][ieta+1] : 0},
124  };
125 
126 
127  ATH_CHECK( m_eFEXegAlgoTool->safetyTest() );
128  m_eFEXegAlgoTool->setup(tobtable, m_efexid, m_id, ieta);
129 
130  // ignore any tobs without a seed, move on to the next window
131  if (m_eFEXegAlgoTool->hasSeed() == false) continue;
132  unsigned int seed = m_eFEXegAlgoTool->getSeed();
133  unsigned int und = (m_eFEXegAlgoTool->getUnD() ? 1 : 0);
134 
135  // the minimum energy to send to topo (not eta dependent yet, but keep inside loop as it will be eventually?)
136  unsigned int ptMinToTopoCounts = thr_eEM.ptMinToTopoCounts();
137 
138  //returns a unsigned integer et value corresponding to the... eFEX EM cluster in 25 MeV internal calculation scale
139  unsigned int eEMTobEt = m_eFEXegAlgoTool->getET();
140 
141  // thresholds from Trigger menu
142  // the menu eta runs from -25 to 24
143  int menuEta = m_id*4 + (m_efexid%3)*16 + ieta - 25;
144  auto iso_loose = thr_eEM.isolation(TrigConf::Selection::WP::LOOSE, menuEta);
145  auto iso_medium = thr_eEM.isolation(TrigConf::Selection::WP::MEDIUM, menuEta);
146  auto iso_tight = thr_eEM.isolation(TrigConf::Selection::WP::TIGHT, menuEta);
147 
148  std::vector<unsigned int> threshReta;
149  threshReta.push_back(iso_loose.reta_fw());
150  threshReta.push_back(iso_medium.reta_fw());
151  threshReta.push_back(iso_tight.reta_fw());
152 
153  std::vector<unsigned int> threshRhad;
154  threshRhad.push_back(iso_loose.rhad_fw());
155  threshRhad.push_back(iso_medium.rhad_fw());
156  threshRhad.push_back(iso_tight.rhad_fw());
157 
158  std::vector<unsigned int> threshWstot;
159  threshWstot.push_back(iso_loose.wstot_fw());
160  threshWstot.push_back(iso_medium.wstot_fw());
161  threshWstot.push_back(iso_tight.wstot_fw());
162 
163  ATH_MSG_DEBUG("ieta=" << ieta << " loose => reta_fw=" << threshReta[0] << ", rhad_fw=" << threshRhad[0] << ", wstot_fw=" << threshWstot[0]);
164  ATH_MSG_DEBUG("ieta=" << ieta << " medium => reta_fw=" << threshReta[1] << ", rhad_fw=" << threshRhad[1] << ", wstot_fw=" << threshWstot[1]);
165  ATH_MSG_DEBUG("ieta=" << ieta << " tight => reta_fw=" << threshReta[2] << ", rhad_fw=" << threshRhad[2] << ", wstot_fw=" << threshWstot[2]);
166 
167  // Get Reta and Rhad outputs
168  std::vector<unsigned int> RetaCoreEnv;
169  m_eFEXegAlgoTool->getReta(RetaCoreEnv);
170  std::vector<unsigned int> RhadEMHad;
171  m_eFEXegAlgoTool->getRhad(RhadEMHad);
172  std::vector<unsigned int> WstotDenNum;
173  m_eFEXegAlgoTool->getWstot(WstotDenNum);
174 
175  // Set Reta, Rhad and Wstot WP
176  unsigned int RetaWP = 0;
177  unsigned int RhadWP = 0;
178  unsigned int WstotWP = 0;
179 
180  // bitshifts for the different iso vars
181  unsigned int RetaBitS = 3;
182  unsigned int RhadBitS = 3;
183  unsigned int WstotBitS = 5;
184 
185  unsigned int maxEtCountsEm = thr_eEM.maxEtCounts(m_eFexStep);
186  if (eEMTobEt >= maxEtCountsEm){
187  RetaWP = 3;
188  RhadWP = 3;
189  WstotWP = 3;
190  }
191  else{
192  SetIsoWP(RetaCoreEnv,threshReta,RetaWP,RetaBitS);
193  SetIsoWP(RhadEMHad,threshRhad,RhadWP,RhadBitS);
194  SetIsoWP(WstotDenNum,threshWstot,WstotWP,WstotBitS);
195  }
196  int eta_ind = ieta; // No need to offset eta index with new 0-5 convention
197  int phi_ind = iphi - 1;
198 
199  //form the egamma tob word and xTOB words
200  uint32_t tobword = m_eFEXFormTOBsTool->formEmTOBWord(m_id,eta_ind,phi_ind,RhadWP,WstotWP,RetaWP,seed,und,eEMTobEt,ptMinToTopoCounts, emAlgoVersion);
201  std::vector<uint32_t> xtobwords = m_eFEXFormTOBsTool->formEmxTOBWords(m_efexid,m_id,eta_ind,phi_ind,RhadWP,WstotWP,RetaWP,seed,und,eEMTobEt,ptMinToTopoCounts, emAlgoVersion);
202 
203  std::unique_ptr<eFEXegTOB> tmp_tob = m_eFEXegAlgoTool->geteFEXegTOB();
204 
205  tmp_tob->setFPGAID(m_id);
206  tmp_tob->seteFEXID(m_efexid);
207  tmp_tob->setEta(ieta);
208  tmp_tob->setPhi(iphi);
209  tmp_tob->setTobword(tobword);
210  tmp_tob->setxTobword0(xtobwords[0]);
211  tmp_tob->setxTobword1(xtobwords[1]);
212 
213  // for plotting
214  if (inputOutputCollection->getdooutput() && (tobword != 0) && (eEMTobEt != 0)) {
215  inputOutputCollection->addeFexNumber(m_efexid);
216  inputOutputCollection->addEMtob(tobword);
217  inputOutputCollection->addValue_eg("WstotNum", tmp_tob->getWstotNum());
218  inputOutputCollection->addValue_eg("WstotDen", tmp_tob->getWstotDen());
219  inputOutputCollection->addValue_eg("RetaNum", tmp_tob->getRetaCore());
220  inputOutputCollection->addValue_eg("RetaDen", tmp_tob->getRetaEnv());
221  inputOutputCollection->addValue_eg("RhadNum", tmp_tob->getRhadEM());
222  inputOutputCollection->addValue_eg("RhadDen", tmp_tob->getRhadHad());
223  inputOutputCollection->addValue_eg("haveSeed", m_eFEXegAlgoTool->hasSeed());
224  inputOutputCollection->addValue_eg("ET", m_eFEXegAlgoTool->getET());
225  float eta = 9999;
226  m_eFEXegAlgoTool->getRealEta(eta);
227  inputOutputCollection->addValue_eg("eta", eta);
228  float phi = 9999;
229  m_eFEXegAlgoTool->getRealPhi(phi);
230  inputOutputCollection->addValue_eg("phi", phi);
231  unsigned int em_et = 9999;
232  m_eFEXegAlgoTool->getCoreEMTowerET(em_et);
233  inputOutputCollection->addValue_eg("em", em_et);
234  unsigned int had_et = 9999;
235  m_eFEXegAlgoTool->getCoreHADTowerET(had_et);
236  inputOutputCollection->addValue_eg("had", had_et);
237  inputOutputCollection->fill_eg();
238  }
239 
240  // Now we've finished with that object we can move it into the class results store
241  if ( (tobword != 0) && (eEMTobEt != 0) ) m_emTobObjects.push_back(std::move(tmp_tob));
242 
243  }
244  }
245 
246  // --------------- TAU -------------
247  for(int ieta = min_eta; ieta < overflow_eta; ieta++)
248  {
249  for(int iphi = 1; iphi < 9; iphi++)
250  {
251  int tobtable[3][3]={
252  {ieta > 0 ? m_eTowersIDs[iphi-1][ieta-1] : 0,
253  m_eTowersIDs[iphi-1][ieta],
254  ieta < 5 ? m_eTowersIDs[iphi-1][ieta+1] : 0},
255 
256  {ieta > 0 ? m_eTowersIDs[iphi][ieta-1] : 0,
257  m_eTowersIDs[iphi][ieta],
258  ieta < 5 ? m_eTowersIDs[iphi][ieta+1] : 0},
259 
260  {ieta > 0 ? m_eTowersIDs[iphi+1][ieta-1] : 0,
261  m_eTowersIDs[iphi+1][ieta],
262  ieta < 5 ? m_eTowersIDs[iphi+1][ieta+1] : 0},
263  };
264 
265  ATH_CHECK( m_eFEXtauAlgoTool->safetyTest() );
266  ATH_CHECK( m_eFEXtauBDTAlgoTool->safetyTest() );
267  m_eFEXtauAlgoTool->setup(tobtable, m_efexid, m_id, ieta);
268  m_eFEXtauBDTAlgoTool->setup(tobtable, m_efexid, m_id, ieta);
269 
270  if ( m_eFEXtauAlgoTool->isCentralTowerSeed() != m_eFEXtauBDTAlgoTool->isCentralTowerSeed() )
271  {
272  ATH_MSG_FATAL("BDT tau algo and heuristic tau algo should agree on seeding for all TOBs");
273  return StatusCode::FAILURE;
274  }
275 
276  if (!m_eFEXtauAlgoTool->isCentralTowerSeed()){ continue; }
277 
278  // the minimum energy to send to topo (not eta dependent yet, but keep inside loop as it will be eventually?)
279  unsigned int ptTauMinToTopoCounts = thr_eTAU.ptMinToTopoCounts();
280 
281  unsigned int ptTauMinToTopoInEfexCounts = TrigConf::energyInCounts(thr_eTAU.ptMinToTopoMeV(), m_eFexStep);
282 
283  // Get Et of eFEX tau object in internal units (25 MeV)
284  unsigned int eTauTobEt = m_eFEXtauAlgoTool->getEt();
285  unsigned int eTauBDTTobEt = m_eFEXtauBDTAlgoTool->getEt();
286 
287  // thresholds from Trigger menu
288  // the menu eta runs from -25 to 24
289  int menuEta = m_id*4 + (m_efexid%3)*16 + ieta - 25;
290  auto iso_loose = thr_eTAU.isolation(TrigConf::Selection::WP::LOOSE, menuEta);
291  auto iso_medium = thr_eTAU.isolation(TrigConf::Selection::WP::MEDIUM, menuEta);
292  auto iso_tight = thr_eTAU.isolation(TrigConf::Selection::WP::TIGHT, menuEta);
293 
294  std::vector<unsigned int> threshRCore;
295  threshRCore.push_back(iso_loose.rCore_fw());
296  threshRCore.push_back(iso_medium.rCore_fw());
297  threshRCore.push_back(iso_tight.rCore_fw());
298 
299  std::vector<unsigned int> threshRHad;
300  threshRHad.push_back(iso_loose.rHad_fw());
301  threshRHad.push_back(iso_medium.rHad_fw());
302  threshRHad.push_back(iso_tight.rHad_fw());
303 
304  // Get isolation values
305  std::vector<unsigned int> rCoreVec;
306  m_eFEXtauAlgoTool->getRCore(rCoreVec);
307 
308  std::vector<unsigned int> rHadVec;
309  m_eFEXtauAlgoTool->getRHad(rHadVec);
310 
311  // BDT-based tau algorithm outputs (both 0 for heuristic algorithm)
312  unsigned int bdtScore = 0;
313  unsigned int bdtCondition = 0;
314  unsigned int bdtRHadWP = 0;
315 
316  // Set isolation WP
317  unsigned int rCoreWP = 0;
318  unsigned int rHadWP = 0;
319 
320  // Isolation bitshift value
321  unsigned int RcoreBitS = 3;
322  unsigned int RhadBitS = 3;
323 
324  unsigned int maxEtCountsTau = thr_eTAU.maxEtCounts(m_eFexStep);
325  unsigned int bdtMinEtCounts = thr_eTAU.minIsoEtCounts(m_eFexStep);
326  if (eTauTobEt >= maxEtCountsTau) {
327  rCoreWP = 3;
328  rHadWP = 3;
329  } else {
330  SetIsoWP(rCoreVec,threshRCore,rCoreWP,RcoreBitS);
331  SetIsoWP(rHadVec,threshRHad,rHadWP,RhadBitS);
332  }
333 
334  // Only one tau algorithm may be active and this is controlled by the L1 menu.
335  // When the BDT algorithm is active, the rCore field contains the BDT L/M/T thresholds.
336  std::vector<unsigned int> threshBDT;
337  threshBDT.push_back(iso_loose.rCore_fw());
338  threshBDT.push_back(iso_medium.rCore_fw());
339  threshBDT.push_back(iso_tight.rCore_fw());
340  // in tau algoVersion 2, the autopass threshold for rhad frac (last parameter) is hardcoded
341  m_eFEXtauBDTAlgoTool->setThresholds(threshRHad, threshBDT, ptTauMinToTopoInEfexCounts, maxEtCountsTau, bdtMinEtCounts, (tauAlgoVersion==2) ? 0x0ff0 : maxEtCountsTau);
342  // Re-compute after setting thresholds.
343  // Threshold bits in the BDT algorithm's implementation are computed inside the algorithm class
344  m_eFEXtauBDTAlgoTool->compute();
345  eTauBDTTobEt = m_eFEXtauBDTAlgoTool->getEt();
346  bdtScore = m_eFEXtauBDTAlgoTool->getBDTScore();
347  bdtCondition = m_eFEXtauBDTAlgoTool->getBDTCondition();
348  bdtRHadWP = m_eFEXtauBDTAlgoTool->getBDTHadFracCondition();
349 
350  unsigned int seed = m_eFEXtauAlgoTool->getSeed();
351  // Heuristic seed as returned is supercell value within 3x3 area, here want it within central cell
352  seed = seed - 4;
353 
354  unsigned int und = (m_eFEXtauAlgoTool->getUnD() ? 1 : 0);
355 
356  unsigned int bdtSeed = m_eFEXtauBDTAlgoTool->getSeed();
357 
358  int eta_ind = ieta; // No need to offset eta index with new 0-5 convention
359  int phi_ind = iphi - 1;
360 
361  // Form the tau TOB word and xTOB words
362  std::vector<uint32_t> xtobwords;
363  std::vector<uint32_t> xtobwordsBDT;
364 
365  ATH_MSG_DEBUG("m_id: " << m_id << ", eta_ind: " << eta_ind << ", phi_ind: "
366  << phi_ind << ", eTauBDTTobEt: " << eTauBDTTobEt
367  << ", eTauTobEt: " << eTauTobEt << ", ptTauMinToTopoCounts: "
368  << ptTauMinToTopoCounts << ", maxEtCountsTau: " << maxEtCountsTau
369  << ", bdtScore: " << bdtScore << " bdtMinEtCounts: " << bdtMinEtCounts << " bdtRHadWP " << bdtRHadWP);
370 
371  uint32_t tobwordBDT = m_eFEXFormTOBsTool->formTauTOBWord(m_id, eta_ind, phi_ind, eTauBDTTobEt, bdtRHadWP, bdtCondition, bdtSeed,0, ptTauMinToTopoCounts, tauAlgoVersion);
372  xtobwordsBDT = m_eFEXFormTOBsTool->formTauxTOBWords(m_efexid, m_id, eta_ind, phi_ind, eTauBDTTobEt, bdtRHadWP, bdtCondition, bdtSeed, 0, ptTauMinToTopoCounts, tauAlgoVersion, bdtScore);
373  uint32_t tobword = m_eFEXFormTOBsTool->formTauTOBWord(m_id, eta_ind, phi_ind, eTauTobEt, rHadWP, rCoreWP, seed, und, ptTauMinToTopoCounts, 0);
374  xtobwords = m_eFEXFormTOBsTool->formTauxTOBWords(m_efexid, m_id, eta_ind, phi_ind, eTauTobEt, rHadWP, rCoreWP, seed, und, ptTauMinToTopoCounts, 0, 0);
375 
376  std::unique_ptr<eFEXtauTOB> tmp_tau_tob = m_eFEXtauAlgoTool->getTauTOB();
377  tmp_tau_tob->setFPGAID(m_id);
378  tmp_tau_tob->seteFEXID(m_efexid);
379  tmp_tau_tob->setEta(ieta);
380  tmp_tau_tob->setPhi(iphi);
381  tmp_tau_tob->setTobword(tobword);
382  tmp_tau_tob->setxTobword0(xtobwords[0]);
383  tmp_tau_tob->setxTobword1(xtobwords[1]);
384 
385  std::unique_ptr<eFEXtauTOB> tmp_tau_tob_bdt = m_eFEXtauBDTAlgoTool->getTauTOB();
386  tmp_tau_tob_bdt->setFPGAID(m_id);
387  tmp_tau_tob_bdt->seteFEXID(m_efexid);
388  tmp_tau_tob_bdt->setEta(ieta);
389  tmp_tau_tob_bdt->setPhi(iphi);
390  tmp_tau_tob_bdt->setTobword(tobwordBDT);
391  tmp_tau_tob_bdt->setxTobword0(xtobwordsBDT[0]);
392  tmp_tau_tob_bdt->setxTobword1(xtobwordsBDT[1]);
393 
394  // for plotting
395  if ((inputOutputCollection->getdooutput()) && ( tobword != 0 )) {
396  inputOutputCollection->addValue_tau("isCentralTowerSeed", m_eFEXtauAlgoTool->isCentralTowerSeed());
397  inputOutputCollection->addValue_tau("Et", m_eFEXtauAlgoTool->getEt());
398  inputOutputCollection->addValue_tau("EtBDT", m_eFEXtauBDTAlgoTool->getEt());
399  inputOutputCollection->addValue_tau("Eta", ieta);
400  inputOutputCollection->addValue_tau("Phi", iphi);
401  const LVL1::eTower * centerTower = eTowerContainer->findTower(m_eTowersIDs[iphi][ieta]);
402  const LVL1::eTower * oneOffEtaTower = ieta < 5 ? eTowerContainer->findTower(m_eTowersIDs[iphi][ieta+1]) : nullptr;
403  const LVL1::eTower * oneBelowEtaTower = ieta > 0 ? eTowerContainer->findTower(m_eTowersIDs[iphi][ieta-1]) : nullptr;
404  inputOutputCollection->addValue_tau("CenterTowerEt", centerTower->getTotalET());
405  inputOutputCollection->addValue_tau("OneOffEtaTowerEt", oneOffEtaTower ? oneOffEtaTower->getTotalET() : 0);
406  inputOutputCollection->addValue_tau("OneBelowEtaTowerEt", oneBelowEtaTower ? oneBelowEtaTower->getTotalET() : 0);
407  inputOutputCollection->addValue_tau("FloatEta", centerTower->eta() * centerTower->getPosNeg());
408  inputOutputCollection->addValue_tau("FloatPhi", centerTower->phi());
409  inputOutputCollection->addValue_tau("RCoreCore", rCoreVec[0]);
410  inputOutputCollection->addValue_tau("RCoreEnv", rCoreVec[1]);
411  inputOutputCollection->addValue_tau("RealRCore", m_eFEXtauAlgoTool->getRealRCore());
412  inputOutputCollection->addValue_tau("RCoreWP", rCoreWP);
413  inputOutputCollection->addValue_tau("RHadCore", rHadVec[0]);
414  inputOutputCollection->addValue_tau("RHadEnv", rHadVec[1]);
415  inputOutputCollection->addValue_tau("RealRHad", m_eFEXtauAlgoTool->getRealRHad());
416  inputOutputCollection->addValue_tau("RealRHadBDT", m_eFEXtauBDTAlgoTool->getRealRHad());
417  inputOutputCollection->addValue_tau("RHadWP", rHadWP);
418  inputOutputCollection->addValue_tau("Seed", seed);
419  inputOutputCollection->addValue_tau("UnD", und);
420  inputOutputCollection->addValue_tau("BDTScore", bdtScore);
421  inputOutputCollection->addValue_tau("BDTCondition", bdtCondition);
422  inputOutputCollection->addValue_tau("eFEXID", m_efexid);
423  inputOutputCollection->addValue_tau("FPGAID", m_id);
424 
425 
426  inputOutputCollection->fill_tau();
427  }
428  // Now we've finished with that object we can move it into the class results store
429  if ( tobword != 0 ) m_tauHeuristicTobObjects.push_back(std::move(tmp_tau_tob));
430  if ( tobwordBDT != 0 ) m_tauBDTTobObjects.push_back(std::move(tmp_tau_tob_bdt));
431 
432  }
433  }
434 
435  return StatusCode::SUCCESS;
436 }
437 
438 
439 
440 std::vector<std::unique_ptr<eFEXegTOB>> eFEXFPGA::getEmTOBs()
441 {
442  // TOB sorting moved to eFEXSysSim to simplify xTOB production
443  // But leave this here in case more subtle requirement is uncovered in future
444  /*
445  auto tobsSort = m_emTobObjects;
446 
447  ATH_MSG_DEBUG("number of tobs: " <<tobsSort.size() << " in FPGA: " << m_id << " before truncation");
448 
449  // sort tobs by their et (last 12 bits of the 32 bit tob word)
450  std::sort (tobsSort.begin(), tobsSort.end(), TOBetSort<eFEXegTOB>);
451 
452  // return the top 6 highest ET TOBs from the FPGA
453  if (tobsSort.size() > 6) tobsSort.resize(6);
454  return tobsSort;
455  */
456 
457  /* Returning a vector of unique_pointers means this class will lose ownership.
458  This shouldn't be an issue since all this class does is create and return the
459  objects, but you should bear it in mind if you make changes */
460 
461  // This copy seems to be needed - it won't let me pass m_emTobOjects directly (to do with being a class member?)
462  std::vector<std::unique_ptr<eFEXegTOB>> tobsSort;
463  for(auto &j : m_emTobObjects){
464  tobsSort.push_back(std::move(j));
465  }
466 
467  return tobsSort;
468 }
469 
470 std::vector<std::unique_ptr<eFEXtauTOB>> eFEXFPGA::getTauTOBs(std::vector< std::unique_ptr<eFEXtauTOB> >& tauTobObjects)
471 {
472  // TOB sorting moved to eFEXSysSim to simplify xTOB production
473  // But leave this here in case more subtle requirement is uncovered in future
474  /*
475  auto tobsSort = tauTobObjects;
476 
477  ATH_MSG_DEBUG("number of tobs: " <<tobsSort.size() << " in FPGA: " << m_id << " before truncation");
478 
479  // sort tobs by their et (last 12 bits of the 32 bit tob word)
480  std::sort (tobsSort.begin(), tobsSort.end(), TOBetSort<eFEXtauTOB>);
481 
482  // return the top 6 highest ET TOBs from the FPGA
483  if (tobsSort.size() > 6) tobsSort.resize(6);
484  return tobsSort;
485  */
486 
487  /* Returning a vector of unique_pointers means this class will lose ownership.
488  This shouldn't be an issue since all this class does is create and return the
489  objects, but you should bear it in mind if you make changes */
490 
491  // This copy seems to be needed - it won't let me pass m_tauTobOjects directly (to do with being a class member?)
492  std::vector<std::unique_ptr<eFEXtauTOB>> tobsSort;
493  for(auto &j : tauTobObjects){
494  tobsSort.push_back(std::move(j));
495  }
496 
497  return tobsSort;
498 }
499 
500 std::vector<std::unique_ptr<eFEXtauTOB>> eFEXFPGA::getTauHeuristicTOBs()
501 {
502  return getTauTOBs(m_tauHeuristicTobObjects);
503 }
504 
505 std::vector<std::unique_ptr<eFEXtauTOB>> eFEXFPGA::getTauBDTTOBs()
506 {
507  return getTauTOBs(m_tauBDTTobObjects);
508 }
509 
510 void eFEXFPGA::SetTowersAndCells_SG(int tmp_eTowersIDs_subset[][6]){
511 
512  int rows = 10;
513  int cols = sizeof tmp_eTowersIDs_subset[0] / sizeof tmp_eTowersIDs_subset[0][0];
514 
515  std::copy(&tmp_eTowersIDs_subset[0][0], &tmp_eTowersIDs_subset[0][0]+(10*6),&m_eTowersIDs[0][0]);
516 
517  if(false){ //this prints out the eTower IDs that each FPGA is responsible for
518  ATH_MSG_DEBUG("\n---- eFEXFPGA --------- eFEX (" << m_efexid << " ----- FPGA (" << m_id << ") IS RESPONSIBLE FOR eTOWERS :");
519  for (int thisRow=rows-1; thisRow>=0; thisRow--){
520  for (int thisCol=0; thisCol<cols; thisCol++){
521  if(thisCol != cols-1){ ATH_MSG_DEBUG("| " << m_eTowersIDs[thisRow][thisCol] << " "); }
522  else { ATH_MSG_DEBUG("| " << m_eTowersIDs[thisRow][thisCol] << " |"); }
523  }
524  }
525  }
526 
527 
528  //-----------------------------------------------------------
529  // Set up a the second CSV file if necessary (should only need to be done if the mapping changes, which should never happen unless major changes to the simulation are required)
530  if(false){ // CSV CODE TO BE RE-INTRODUCED VERY SOON
531  SG::ReadHandle<eTowerContainer> eTowerContainer(m_eTowerContainerKey);
532  if(!eTowerContainer.isValid()){
533  ATH_MSG_FATAL("Could not retrieve container " << m_eTowerContainerKey.key() );
534  }
535 
536  std::ofstream tower_fpga_efex_map;
537  tower_fpga_efex_map.open ("./tower_fpga_efex_map.csv", std::ios_base::app);
538 
539  for (int thisRow=rows-1; thisRow>=0; thisRow--){
540  for (int thisCol=0; thisCol<cols; thisCol++){
541 
542  const LVL1::eTower * tmpTower = eTowerContainer->findTower(m_eTowersIDs[thisRow][thisCol]);
543 
544  tower_fpga_efex_map << m_efexid << "," << m_id << "," << m_eTowersIDs[thisRow][thisCol] << "," << tmpTower->eta() << "," << tmpTower->phi() << "\n";
545 
546  }
547  }
548  }
549  //------------------------------------------------------------
550 
551 
552 }
553 
554 
555 void eFEXFPGA::SetIsoWP(const std::vector<unsigned int>& CoreEnv, const std::vector<unsigned int>& thresholds, unsigned int & workingPoint, unsigned int bitshift) const {
556  // Working point evaluted by Core * 2^bitshift > Threshold * Environment conditions
557  std::unordered_map<unsigned int, unsigned int> bsmap { {3, 8}, {5, 32}};
558 
559  // if core (denom) has overflowed, automatically pass all thresholds
560  if (CoreEnv[0] > 0xffff) {
561  workingPoint = 3;
562  return;
563  }
564 
565  unsigned int large = CoreEnv[0]*bsmap[bitshift]; // core
566  unsigned int small = CoreEnv[1]; // env
567 
568  // Word length conditions
569  if (large > 0xffff ) large = 0xffff;
570  if (small > 0xffff ) small = 0xffff;
571 
572  // Fail all if env sum overflows
573  if (small == 0xffff) {
574  workingPoint = 0;
575  return;
576  }
577 
578  // Otherwise test thresholds in firmware order
579  // i.e. check lowest threshold failed rather than highest passed
580  if ( large < small*thresholds[0] ) {
581  workingPoint = 0;
582  return;
583  }
584  if ( large < small*thresholds[1] ) {
585  workingPoint = 1;
586  return;
587  }
588  if ( large < small*thresholds[2] ) {
589  workingPoint = 2;
590  return;
591  }
592  workingPoint = 3;
593  return;
594 }
595 
596 } // end of namespace bracket
LVL1::eFEXFPGA::getTauBDTTOBs
virtual std::vector< std::unique_ptr< eFEXtauTOB > > getTauBDTTOBs()
Definition: eFEXFPGA.cxx:505
LVL1::eFEXFPGA::init
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Definition: eFEXFPGA.cxx:59
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@ LOOSE
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Get ET sum of all cells in the eTower in MeV.
Definition: eTower.cxx:194
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phi method
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add a value related to the e-gamma algorithm for a TOB
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add the eEFX number of a TOB
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const L1ThrExtraInfo_eEM & eEM() const
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virtual void SetTowersAndCells_SG(int[][6])
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Internal data.
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StatusCode definition for legacy code.
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Save all tau values. Use only after finishing defining all tau values for one TOB.
Definition: eFEXOutputCollection.cxx:50
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If this object is used as a property, then this should be called during the initialize phase.
Definition: AthToolSupport/AsgDataHandles/Root/VarHandleKey.cxx:103
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Definition: eFEXOutputCollection.cxx:102
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Definition: eFEXOutputCollection.h:23
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define a value related to the tau algorithm for a TOB
Definition: eFEXOutputCollection.cxx:38
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Definition: eFEXOutputCollection.cxx:87
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Definition: eFEXFPGA.cxx:73
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