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AFP_SensitiveDetector Class Reference

#include <AFP_SensitiveDetector.h>

Inheritance diagram for AFP_SensitiveDetector:
Collaboration diagram for AFP_SensitiveDetector:

Public Member Functions

 AFP_SensitiveDetector (const std::string &name, const std::string &TDhitCollectionName, const std::string &SIDhitCollectionName)
 
 ~AFP_SensitiveDetector ()
 
void StartOfAthenaEvent ()
 
void Initialize (G4HCofThisEvent *) override final
 
G4bool ProcessHits (G4Step *, G4TouchableHistory *) override final
 
void EndOfAthenaEvent ()
 

Static Public Attributes

static constexpr double TDMaxQEff = 0.15
 Templated method to stuff a single hit into the sensitive detector class. More...
 
static constexpr int TDMaxCnt = 4000
 
static constexpr int SiDMaxCnt = 1000
 

Private Member Functions

 FRIEND_TEST (AFP_SensitiveDetectortest, Initialize)
 
 FRIEND_TEST (AFP_SensitiveDetectortest, ProcessHits1)
 
 FRIEND_TEST (AFP_SensitiveDetectortest, ProcessHits2)
 
 FRIEND_TEST (AFP_SensitiveDetectortest, StartOfAthenaEvent)
 
 FRIEND_TEST (AFP_SensitiveDetectortest, EndOfAthenaEvent)
 

Private Attributes

int m_nHitID
 
int m_nEventNumber
 
int m_nNumberOfTDSimHits
 
int m_nNumberOfSIDSimHits
 
int m_nNOfTDSimHits [4][32]
 
int m_nNOfSIDSimHits [4]
 
float m_delta_pixel_x
 
float m_delta_pixel_y
 
float m_death_edge [4][10]
 
float m_lower_edge [4][10]
 
SG::WriteHandle< AFP_TDSimHitCollection > m_pTDSimHitCollection
 
SG::WriteHandle< AFP_SIDSimHitCollection > m_pSIDSimHitCollection
 

Detailed Description

Definition at line 24 of file AFP_SensitiveDetector.h.

Constructor & Destructor Documentation

◆ AFP_SensitiveDetector()

AFP_SensitiveDetector::AFP_SensitiveDetector ( const std::string &  name,
const std::string &  TDhitCollectionName,
const std::string &  SIDhitCollectionName 
)

Definition at line 31 of file AFP_SensitiveDetector.cxx.

32  : G4VSensitiveDetector( name )
33  , m_nHitID(-1)
34  , m_nEventNumber(0)
35  , m_nNumberOfTDSimHits(0)
36  , m_nNumberOfSIDSimHits(0)
37  , m_pTDSimHitCollection(TDhitCollectionName)
38  , m_pSIDSimHitCollection(SIDhitCollectionName)
39 {
40  m_delta_pixel_x = AFP_CONSTANTS::SiT_Pixel_length_x;
41  m_delta_pixel_y = AFP_CONSTANTS::SiT_Pixel_length_y;
42 
43  for( int i=0; i < 4; i++){
44  m_nNOfSIDSimHits[i] = 0;
45  for( int j=0; j < 32; j++){
46  m_nNOfTDSimHits[i][j] = 0;
47  }
48  for( int j=0; j < 10; j++){
49  m_death_edge[i][j] = AFP_CONSTANTS::SiT_DeathEdge; //in mm, it is left edge as the movement is horizontal
50  m_lower_edge[i][j] = AFP_CONSTANTS::SiT_LowerEdge; //in mm,
51  }
52  }
53 }

◆ ~AFP_SensitiveDetector()

AFP_SensitiveDetector::~AFP_SensitiveDetector ( )
inline

Definition at line 37 of file AFP_SensitiveDetector.h.

37 { /* I don't own myHitColl if all has gone well */ }

Member Function Documentation

◆ EndOfAthenaEvent()

void AFP_SensitiveDetector::EndOfAthenaEvent ( )

Definition at line 774 of file AFP_SensitiveDetector.cxx.

775 {
776  if(verboseLevel>5)
777  {
778  G4cout << "AFP_SensitiveDetector::EndOfAthenaEvent: Total number of hits in TD: " << m_nNumberOfTDSimHits << G4endl;
779  G4cout << "AFP_SensitiveDetector::EndOfAthenaEvent: Total number of hits in SiD: " << m_nNumberOfSIDSimHits << G4endl;
780  G4cout << "AFP_SensitiveDetector::EndOfAthenaEvent: *************************************************************" << G4endl;
781  }
782  m_nEventNumber++;
783  m_nNumberOfTDSimHits=0;
784  m_nNumberOfSIDSimHits=0;
785 
786  for( int i=0; i < 4; i++){
787  m_nNOfSIDSimHits[i] = 0;
788  for( int j=0; j < 32; j++){
789  m_nNOfTDSimHits[i][j] = 0;
790  }
791  }
792 }

◆ FRIEND_TEST() [1/5]

AFP_SensitiveDetector::FRIEND_TEST ( AFP_SensitiveDetectortest  ,
EndOfAthenaEvent   
)
private

◆ FRIEND_TEST() [2/5]

AFP_SensitiveDetector::FRIEND_TEST ( AFP_SensitiveDetectortest  ,
Initialize   
)
private

◆ FRIEND_TEST() [3/5]

AFP_SensitiveDetector::FRIEND_TEST ( AFP_SensitiveDetectortest  ,
ProcessHits1   
)
private

◆ FRIEND_TEST() [4/5]

AFP_SensitiveDetector::FRIEND_TEST ( AFP_SensitiveDetectortest  ,
ProcessHits2   
)
private

◆ FRIEND_TEST() [5/5]

AFP_SensitiveDetector::FRIEND_TEST ( AFP_SensitiveDetectortest  ,
StartOfAthenaEvent   
)
private

◆ Initialize()

void AFP_SensitiveDetector::Initialize ( G4HCofThisEvent *  )
finaloverride

Definition at line 78 of file AFP_SensitiveDetector.cxx.

79 {
80  if (!m_pTDSimHitCollection.isValid()) m_pTDSimHitCollection = std::make_unique<AFP_TDSimHitCollection>();
81  if (!m_pSIDSimHitCollection.isValid())m_pSIDSimHitCollection = std::make_unique<AFP_SIDSimHitCollection>();
82 }

◆ ProcessHits()

bool AFP_SensitiveDetector::ProcessHits ( G4Step *  pStep,
G4TouchableHistory *   
)
finaloverride

Definition at line 86 of file AFP_SensitiveDetector.cxx.

87 {
88  if(verboseLevel>5)
89  {
90  G4cout << "AFP_SensitiveDetector::ProcessHits" << G4endl;
91  }
92 
93  bool bRes=false;
94  int nTrackID=-1;
95  int nParticleEncoding=-1;
96  float fKineticEnergy=0.0;
97  float fEnergyDeposit=0.0;
98  float fWaveLength=0.0;
99  float fPreStepX=0.0;
100  float fPreStepY=0.0;
101  float fPreStepZ=0.0;
102  float fPostStepX=0.0;
103  float fPostStepY=0.0;
104  float fPostStepZ=0.0;
105  float fGlobalTime=0.0;
106  int nStationID=-1;
107  int nDetectorID=-1;
108  int nQuarticID=-1;
109  // int nPixelRow=-1;
110  // int nPixelCol=-1;
111 
112  bool bIsSIDAuxVSID=false;
113 
114  // step, track and particle info
115  G4Track* pTrack = pStep->GetTrack();
116  G4ParticleDefinition* pParticleDefinition = pTrack->GetDefinition();
117  G4StepPoint* pPreStepPoint = pStep->GetPreStepPoint();
118  G4StepPoint* pPostStepPoint = pStep->GetPostStepPoint();
119  G4ThreeVector PreStepPointPos = pPreStepPoint->GetPosition();
120  G4ThreeVector PostStepPointPos = pPostStepPoint->GetPosition();
121 
122  nTrackID=pTrack->GetTrackID();
123  fKineticEnergy = pPreStepPoint->GetKineticEnergy();
124  fEnergyDeposit = pStep->GetTotalEnergyDeposit();
125 
126  fPreStepX = PreStepPointPos.x();
127  fPreStepY = PreStepPointPos.y();
128  fPreStepZ = PreStepPointPos.z();
129  fPostStepX = PostStepPointPos.x();
130  fPostStepY = PostStepPointPos.y();
131  fPostStepZ = PostStepPointPos.z();
132  nParticleEncoding = pParticleDefinition->GetPDGEncoding();
133  fGlobalTime = pStep->GetPreStepPoint()->GetGlobalTime()/CLHEP::picosecond; // time w.r.t. prestep or poststep ??
134 
135  // name of physical volume
136  G4TouchableHandle touch1 = pPreStepPoint->GetTouchableHandle();
137  G4VPhysicalVolume* volume = touch1->GetVolume();
138  G4String VolumeName = volume->GetName();
139 
140  if(verboseLevel>5)
141  {
142  G4cout << "hit volume name is " << VolumeName << G4endl;
143  G4cout << "particle code is " << nParticleEncoding << "kinetic energy " << fKineticEnergy << G4endl;
144  G4cout << "global, x_pre: " << fPreStepX << ", y_pre: " << fPreStepY << ", z_pre: " << fPreStepZ << G4endl;
145  G4cout << "global, x_post: " << fPostStepX << ", y_post: " << fPostStepY << ", z_post: " << fPostStepZ << G4endl;
146  }
147  //scan station and detector id
148  char* ppv1, *ppv2;
149  char szbuff[32];
150  memset(&szbuff[0],0,sizeof(szbuff));
151  strncpy(szbuff,VolumeName.data(),sizeof(szbuff));
152  szbuff[sizeof(szbuff)-1] = '\0'; // idiomatic use of strncpy...
153  ppv1=strchr(szbuff,'[');
154  ppv2=strchr(szbuff,']');
155  if(!ppv2 || !ppv1){
156  G4cout << "ERROR: Invalid format of volume name " << VolumeName << G4endl;
157  return false;
158  }
159  else *ppv2='\0';
160 
161  nStationID=10*(szbuff[3]-0x30)+(szbuff[4]-0x30);
162  nDetectorID=atoi(ppv1+1);
163 
164  m_nHitID++;
165 
166 #if G4VERSION_NUMBER < 1100
167  if ( (VolumeName.contains("TDSensor")) )
168 #else
169  if ( (G4StrUtil::contains(VolumeName, "TDSensor")) )
170 #endif
171  {
172  nQuarticID=szbuff[7]-0x30;
173  if ( pStep->GetPostStepPoint()->GetProcessDefinedStep() == 0 ) return 1;
174  if ( (pStep->GetPostStepPoint()->GetProcessDefinedStep())->GetProcessName()!="OpAbsorption" ) return 1;
175  fWaveLength = 2.*M_PI*CLHEP::hbarc/(CLHEP::MeV*CLHEP::nm)/fKineticEnergy;
176  if (fWaveLength > 800. || fWaveLength < 200.) return 1; // 200-800 nm cut
177 
178  m_pTDSimHitCollection->Emplace(m_nHitID,nTrackID,nParticleEncoding,fKineticEnergy,fEnergyDeposit,
179  fWaveLength,fPreStepX,fPreStepY,fPreStepZ,fPostStepX,fPostStepY,
180  fPostStepZ,fGlobalTime,nStationID,nDetectorID,(1+2*nQuarticID));//Q1: 1-2, Q2: 3-4
181  m_nNumberOfTDSimHits++;
182  }
183 
185 #if G4VERSION_NUMBER < 1100
186  if ( (bRes=VolumeName.contains("TDQuarticBar[")) )
187 #else
188  if ( (bRes=G4StrUtil::contains(VolumeName, "TDQuarticBar[")) )
189 #endif
190  {
191  nQuarticID=szbuff[7]-0x30;
192 
193  // Cut on maximum number of generated photons/bar
194  if (nStationID==0 && nQuarticID==0){ if (m_nNOfTDSimHits[0][nDetectorID] >= TDMaxCnt) return 1;}
195  else if(nStationID==0 && nQuarticID==1){ if (m_nNOfTDSimHits[1][nDetectorID] >= TDMaxCnt) return 1;}
196  else if(nStationID==3 && nQuarticID==0){ if (m_nNOfTDSimHits[2][nDetectorID] >= TDMaxCnt) return 1;}
197  else if(nStationID==3 && nQuarticID==1){ if (m_nNOfTDSimHits[3][nDetectorID] >= TDMaxCnt) return 1;}
198 
199  // Get the Touchable History:
200  const G4TouchableHistory* myTouch = static_cast<const G4TouchableHistory*>(pPreStepPoint->GetTouchable());
201  // Calculate the local step position.
202  // From a G4 FAQ:
203  // http://geant4-hn.slac.stanford.edu:5090/HyperNews/public/get/geometry/17/1.html
204  const G4AffineTransform transformation = myTouch->GetHistory()->GetTopTransform();
205  G4ThreeVector PreStepPointPos2 = transformation.TransformPoint(PreStepPointPos);
206  G4ThreeVector PostStepPointPos2 = transformation.TransformPoint(PostStepPointPos);
207 
208  G4String shape( myTouch->GetSolid()->GetEntityType() );
209 
210  G4ThreeVector normpX( 1., 0., 0.);
211  G4ThreeVector normnX(-1., 0., 0.);
212  G4ThreeVector normpY( 0., 1., 0.);
213  G4ThreeVector normnY( 0.,-1., 0.);
214  G4ThreeVector normpZ( 0., 0., 1.);
215  G4ThreeVector normnZ( 0., 0.,-1.);
216 
217  G4double PreProtonX = PreStepPointPos2.x();
218  G4double PreProtonY = PreStepPointPos2.y();
219  G4double PreProtonZ = PreStepPointPos2.z();
220 
221  G4double PostProtonX = PostStepPointPos2.x();
222  G4double PostProtonY = PostStepPointPos2.y();
223  G4double PostProtonZ = PostStepPointPos2.z();
224 
225  G4ThreeVector p0 = pStep->GetDeltaPosition().unit();
226 
227  G4Material* mat = pStep->GetTrack()->GetMaterial();
228  G4MaterialPropertiesTable *matPropTable = mat->GetMaterialPropertiesTable();
229  // Refractive index
230  G4MaterialPropertyVector* Rind = matPropTable->GetProperty("RINDEX");
231  // Absorbtion length
232  G4MaterialPropertyVector* Alen = matPropTable->GetProperty("ABSLENGTH");
233 
234  const G4double charge = pParticleDefinition->GetPDGCharge();
235  const G4double beta = (pPreStepPoint->GetBeta() + pPostStepPoint->GetBeta()) / 2.;
236  G4double BetaInverse = 1. / beta;
237 
238  //G4int Rsize = Rind->Entries() - 1;
239  //G4double Pmin = Rind->GetMinPhotonEnergy(); // 800 nm
240 #if G4VERSION_NUMBER < 1100
241  G4double Pmin = Rind->GetMinLowEdgeEnergy();
242  //G4double Pmax = Rind->GetMaxPhotonEnergy(); // 200 nm
243  G4double Pmax = Rind->GetMaxLowEdgeEnergy();
244 #else
245  G4double Pmin = Rind->GetMinEnergy();
246  G4double Pmax = Rind->GetMaxEnergy();
247 #endif
248  G4double dp = Pmax - Pmin;
249  //G4double maxCosTheta = BetaInverse / Rind->GetMinProperty();
250  G4double maxCosTheta = BetaInverse / Rind->GetMinValue();
251  G4double maxSin2Theta = (1.0 - maxCosTheta) * (1.0 + maxCosTheta);
252 
253  //G4double meanRI = .5*(Rind->GetMinProperty() + Rind->GetMaxProperty());
254  G4double meanRI = .5*(Rind->GetMinValue() + Rind->GetMaxValue());
255 
256  // Formula taken from G4 docu (to be changed since the integral approximation)
257  G4double MeanNumberOfPhotons = 370.*(charge/CLHEP::eplus)*(charge/CLHEP::eplus)* (1.0 - 1.0/(beta * meanRI * beta * meanRI)) / (CLHEP::cm*CLHEP::eV);
258  if (MeanNumberOfPhotons <= 0.0) return 1;
259 
260  G4double step_length = pStep->GetStepLength();
261 
262  MeanNumberOfPhotons = MeanNumberOfPhotons * step_length * dp;
263  G4int NumPhotons = (G4int) G4Poisson( MeanNumberOfPhotons );
264  if (NumPhotons <= 0) return 1;
265  //ATH_MSG_INFO("number of photons: " << NumPhotons);
266 
267  G4int NumPhotonsCuts=0;
268  for (G4int I = 0; I < NumPhotons; I++) {
269 
270  G4double rand;
271  G4double sampledEnergy, sampledRI;
272  G4double cosTheta, sin2Theta;
273 
274  // Sample an energy for photon (using MC elimination method)
275  do {
276  rand = G4UniformRand();
277  sampledEnergy = Pmin + rand * dp;
278  //sampledRI = Rind->GetProperty(sampledEnergy);
279  sampledRI = Rind->Value(sampledEnergy);
280  cosTheta = BetaInverse / sampledRI;
281 
282  sin2Theta = (1.0 - cosTheta)*(1.0 + cosTheta);
283  rand = G4UniformRand();
284 
285  } while (rand * maxSin2Theta > sin2Theta);
286 
287  // Generate random position of photon on the cone surface defined by Theta
288  rand = G4UniformRand();
289  G4double phi = 2.*M_PI*rand;
290  G4double sinPhi = sin(phi);
291  G4double cosPhi = cos(phi);
292 
293  // Calculate x,y,z coordinates of photon momentum
294  // in coordinate system with primary particle direction aligned with the z-axis
295  // + Rotate momentum direction back to the global coordinate system
296  G4double sinTheta = std::sqrt(sin2Theta);
297  G4double px = sinTheta*cosPhi;
298  G4double py = sinTheta*sinPhi;
299  G4double pz = cosTheta;
300  G4ParticleMomentum photonMomentum(px, py, pz);
301  photonMomentum.rotateUz(p0);
302 
303  G4double PX = photonMomentum.getX();
304  G4double PY = photonMomentum.getY();
305  G4double PZ = photonMomentum.getZ();
306 
307  // calculate projections coordinates
308  //G4double PXp = PX/std::sqrt(PX*PX+PY*PY+PZ*PZ);
309  G4double PYp = PY/std::sqrt(PX*PX+PY*PY+PZ*PZ);
310  G4double PZp = PZ/std::sqrt(PX*PX+PY*PY+PZ*PZ);
311 
312  G4double PYt = PY/std::sqrt(PY*PY+PZ*PZ);
313  G4double PZt = PZ/std::sqrt(PY*PY+PZ*PZ);
314 
315  // Cosines (alpha, delta)
316  cosPhi = (PYp*PYt + PZp*PZt);
317  if (nStationID == 0) cosTheta = ( -PYt*sin(48.*CLHEP::deg) + PZt*cos(48.*CLHEP::deg) );
318  else cosTheta = ( -PYt*sin(48.*CLHEP::deg) - PZt*cos(48.*CLHEP::deg) );
319 
320  // Total internal reflection conditions
321  G4double cosThetaC = std::sqrt(1.-1./sampledRI/sampledRI);
322  if (std::sqrt(1.-cosPhi*cosPhi)>cosThetaC) continue;
323  if (std::sqrt(1.-cosTheta*cosTheta)*cosPhi>cosThetaC) continue;
324 
325  // Parametric equation of line where photons are generated
326  rand = G4UniformRand();
327  G4double PhotonX = PreProtonX + (PostProtonX-PreProtonX)*rand;
328  G4double PhotonY = PreProtonY + (PostProtonY-PreProtonY)*rand;
329  G4double PhotonZ = PreProtonZ + (PostProtonZ-PreProtonZ)*rand;
330  G4ThreeVector PhotonPos(PhotonX,PhotonY,PhotonZ);
331  G4double PhotonR = std::sqrt( (PreProtonX-PhotonX)*(PreProtonX-PhotonX) + (PreProtonY-PhotonY)*(PreProtonY-PhotonY) + (PreProtonZ-PhotonZ)*(PreProtonZ-PhotonZ) );
332 
333  G4double Y0;
334  // including the scattering from the top edge of the bar (perfect absorber now)
335  if (cosTheta>=0)
336  {
337  Y0 = ((G4ReflectedSolid *)(myTouch->GetSolid()))->DistanceToOut(PhotonPos, normnY);
338  Y0 = Y0/cosTheta/cosPhi;
339  }
340  else
341  {
342  continue;
343  }
344 
345  // absorption of photons inside the crystal
346  //float Pabs = 1. - exp( - Y0/Alen->GetProperty(sampledEnergy) );
347  float Pabs = 1. - exp( - Y0/Alen->Value(sampledEnergy) );
348  rand = G4UniformRand();
349  if (Pabs>rand) continue;
350 
351  // maximum PMT efficiency cut (15%) to to avoid crashes due to the too large memory consumption
352  rand = G4UniformRand();
353  if (rand>TDMaxQEff) continue;
355 
356  NumPhotonsCuts++;
357 
358  float fGlobalTime2 = fGlobalTime;
359  fGlobalTime2 += ( PhotonR * BetaInverse / CLHEP::c_light )/CLHEP::picosecond;
360 
361  // for group velocity of light: Edn/dE
362  float EdndE;
363 
364  if (sampledEnergy > (Pmin+.5*dp)) EdndE = (sampledRI - Rind->Value(sampledEnergy-0.0001*CLHEP::eV))/0.0001*sampledEnergy/CLHEP::eV;
365  else EdndE = (Rind->Value(sampledEnergy+0.0001*CLHEP::eV) - sampledRI)/0.0001*sampledEnergy/CLHEP::eV;
366  fGlobalTime2 += ( (sampledRI + EdndE)* Y0 * BetaInverse / CLHEP::c_light )/CLHEP::picosecond;
367 
368  if (verboseLevel>5)
369  {
370  G4cout << "FastCher EdndE: " << EdndE << G4endl;
371  }
372  fWaveLength = 2.*M_PI*CLHEP::hbarc/sampledEnergy/(CLHEP::MeV*CLHEP::nm);
373 
374  // Cut on maximum number of generated photons/bar
375  if (nStationID==0 && nQuarticID==0){ if (m_nNOfTDSimHits[0][nDetectorID] >= TDMaxCnt) return 1;}
376  else if(nStationID==0 && nQuarticID==1){ if (m_nNOfTDSimHits[1][nDetectorID] >= TDMaxCnt) return 1;}
377  else if(nStationID==3 && nQuarticID==0){ if (m_nNOfTDSimHits[2][nDetectorID] >= TDMaxCnt) return 1;}
378  else if(nStationID==3 && nQuarticID==1){ if (m_nNOfTDSimHits[3][nDetectorID] >= TDMaxCnt) return 1;}
379 
380  int nSensitiveElementID=-1;
381  if(nQuarticID==0) { nSensitiveElementID=1; }
382  else if(nQuarticID==1) { nSensitiveElementID=3; }
383 
384  m_pTDSimHitCollection->Emplace(m_nHitID,nTrackID,nParticleEncoding,fKineticEnergy,fEnergyDeposit,
385  fWaveLength,PhotonX,PhotonY,PhotonZ,(PhotonX+PX),(PhotonY+PY),(PhotonZ+PZ),
386  fGlobalTime2,nStationID,nDetectorID,nSensitiveElementID);
387  m_nNumberOfTDSimHits++;
388 
389  if (nStationID==0 && nQuarticID==0) m_nNOfTDSimHits[0][nDetectorID]++;
390  else if(nStationID==0 && nQuarticID==1) m_nNOfTDSimHits[1][nDetectorID]++;
391  else if(nStationID==3 && nQuarticID==0) m_nNOfTDSimHits[2][nDetectorID]++;
392  else if(nStationID==3 && nQuarticID==1) m_nNOfTDSimHits[3][nDetectorID]++;
393  }
394  if(verboseLevel>5)
395  {
396  G4cout << "FastCher number of photons: " << NumPhotonsCuts << G4endl;
397  }
398  }
400 #if G4VERSION_NUMBER < 1100
401  else if (VolumeName.contains("SIDSensor") || (bIsSIDAuxVSID=VolumeName.contains("SIDVacuumSensor"))){
402 #else
403  else if (G4StrUtil::contains(VolumeName, "SIDSensor") || (bIsSIDAuxVSID=G4StrUtil::contains(VolumeName, "SIDVacuumSensor"))){
404 #endif
405  if(!bIsSIDAuxVSID && !(fEnergyDeposit>0.0))
406  {
407  //hit in SID sensor but with zero deposited energy (transportation)
408  }
409  else
410  {
411  if (bIsSIDAuxVSID)
412  {
413  m_pSIDSimHitCollection->Emplace(m_nHitID,nTrackID,nParticleEncoding,fKineticEnergy,fEnergyDeposit,
414  fPreStepX,fPreStepY,fPreStepZ,fPostStepX,fPostStepY,fPostStepZ,
415  fGlobalTime,nStationID,nDetectorID,bIsSIDAuxVSID,-1,-1);
416  }
417  else
418  {
419  // Cut on maximum number of SID hits/station
420  if(m_nNOfSIDSimHits[nStationID] >= SiDMaxCnt) return 1;
421 
422  // Get the Touchable History:
423  const G4TouchableHistory* myTouch = static_cast<const G4TouchableHistory*>(pPreStepPoint->GetTouchable());
424  // Calculate the local step position.
425  // From a G4 FAQ:
426  // http://geant4-hn.slac.stanford.edu:5090/HyperNews/public/get/geometry/17/1.html
427 
428  const G4AffineTransform transformation = myTouch->GetHistory()->GetTopTransform();
429  G4ThreeVector localPosition_pre = transformation.TransformPoint(PreStepPointPos);
430  G4ThreeVector localPosition_post = transformation.TransformPoint(PostStepPointPos);
431 
432  G4ThreeVector normpX( 1., 0., 0.);
433  G4ThreeVector normnX(-1., 0., 0.);
434  G4ThreeVector normpY( 0., 1., 0.);
435  G4ThreeVector normnY( 0.,-1., 0.);
436  G4ThreeVector normpZ( 0., 0., 1.);
437  G4ThreeVector normnZ( 0., 0.,-1.);
438 
439  G4double BarpX = ((G4ReflectedSolid *)(myTouch->GetSolid()))->DistanceToOut(localPosition_pre, normpX);
440  G4double BarnX = ((G4ReflectedSolid *)(myTouch->GetSolid()))->DistanceToOut(localPosition_pre, normnX);
441  G4double BarpY = ((G4ReflectedSolid *)(myTouch->GetSolid()))->DistanceToOut(localPosition_pre, normpY);
442  G4double BarnY = ((G4ReflectedSolid *)(myTouch->GetSolid()))->DistanceToOut(localPosition_pre, normnY);
443  G4double BarpZ = ((G4ReflectedSolid *)(myTouch->GetSolid()))->DistanceToOut(localPosition_pre, normpZ);
444  G4double BarnZ = ((G4ReflectedSolid *)(myTouch->GetSolid()))->DistanceToOut(localPosition_pre, normnZ);
445 
446  G4double BarHalfX = .5 * (BarpX+BarnX);
447  G4double BarHalfY = .5 * (BarpY+BarnY);
448  G4double BarHalfZ = .5 * (BarpZ+BarnZ);
449 
450  // x should be 50 mu, y should be 250 mu, z should be 250mu
451 
452  G4double x_det = BarHalfX + localPosition_pre.x(); // we will remove death edge later - death_edge[nStationID][nDetectorID];
453  G4double y_det = BarHalfY + localPosition_pre.y(); // we will remove lower edge later - lower_edge[nStationID][nDetectorID];
454  G4double z_det = BarHalfZ + localPosition_pre.z();
455 
456  G4double x_det_post = BarHalfX + localPosition_post.x(); //- death_edge[nStationID][nDetectorID];
457  G4double y_det_post = BarHalfY + localPosition_post.y(); //- lower_edge[nStationID][nDetectorID];
458  G4double z_det_post = BarHalfZ + localPosition_post.z();
459 
460  G4double track_length_XY = std::sqrt(pow(x_det_post-x_det,2)+pow(y_det_post-y_det,2));
461 
462  G4double angle_phi_global = atan2(fPostStepY-fPreStepY,fPostStepX-fPreStepX);
463  G4double angle_phi = atan2(y_det_post-y_det,x_det_post-x_det);
464 
465  G4double tan_phi = (y_det_post-y_det)/(x_det_post-x_det);
466 
467  if(verboseLevel>5)
468  {
469  G4cout << "AFP_SensitiveDetector::ProcessHits: local, x_det: " << x_det << ", y_det: " << y_det << ", z_det: " << z_det << G4endl;
470  G4cout << "AFP_SensitiveDetector::ProcessHits: local, x_det_post: " << x_det_post << ", y_det_post: " << y_det_post << ", z_det_post: " << z_det_post << G4endl;
471  G4cout << "AFP_SensitiveDetector::ProcessHits: angle_phi_global in -pi:pi = " << angle_phi_global << G4endl;
472  }
473  if (angle_phi_global < 0.) angle_phi_global = 2.*M_PI + angle_phi_global;
474  if(verboseLevel>5)
475  {
476  G4cout << "AFP_SensitiveDetector::ProcessHits: angle_phi_global in 0:2pi = " << angle_phi_global << G4endl;
477  G4cout << "AFP_SensitiveDetector::ProcessHits: angle_phi in -pi:pi = " << angle_phi << G4endl;
478  }
479  if (angle_phi < 0.) angle_phi = 2.*M_PI + angle_phi;
480  if(verboseLevel>5)
481  {
482  G4cout << "AFP_SensitiveDetector::ProcessHits: angle_phi in 0:2pi = " << angle_phi << G4endl;
483  }
484  signed int pre_pixel_x = (signed int)(x_det / m_delta_pixel_x);
485  signed int pre_pixel_y = (signed int)(y_det / m_delta_pixel_y);
486  signed int post_pixel_x = (signed int)(x_det_post / m_delta_pixel_x);
487  signed int post_pixel_y = (signed int)(y_det_post / m_delta_pixel_y);
488 
489  signed int sign_pixels_x = 0;
490  signed int sign_pixels_y = 0;
491 
492  int number_pixels_x = (int) (abs((post_pixel_x-pre_pixel_x)*1.0));
493  int number_pixels_y = (int) (abs((post_pixel_y-pre_pixel_y)*1.0));
494 
495  if (number_pixels_x > 0)
496  {
497  sign_pixels_x = (post_pixel_x-pre_pixel_x)/number_pixels_x;
498  }
499  if (number_pixels_y > 0)
500  {
501  sign_pixels_y = (post_pixel_y-pre_pixel_y)/number_pixels_y;
502  }
503 
504  int n_death_pixels = (int)(m_death_edge[nStationID][nDetectorID]/m_delta_pixel_x);
505  int n_lower_pixels = (int)(m_lower_edge[nStationID][nDetectorID]/m_delta_pixel_y);
506 
507  if(verboseLevel>5)
508  {
509  G4cout << "AFP_SensitiveDetector::ProcessHits: pre: pixel["<< pre_pixel_x - n_death_pixels <<"]["<< pre_pixel_y - n_lower_pixels <<"] was hit" << G4endl;
510  G4cout << "AFP_SensitiveDetector::ProcessHits: post: pixel["<< post_pixel_x - n_death_pixels<<"]["<< post_pixel_y - n_lower_pixels<<"] was hit" << G4endl;
511  G4cout << "AFP_SensitiveDetector::ProcessHits: chip's length in x: " << 2.*BarHalfX << ", in y: " << 2.*BarHalfY << ", in z: " << 2.*BarHalfZ << G4endl;
512  }
513  signed int first = -1;
514 
515  G4double x_next_pixel = -9999.;
516  G4double y_next_pixel = -9999.;
517 
518  G4double x_border = -9999.;
519  G4double y_border = -9999.;
520 
521  G4double pixel_track_length_XY = -1.;
522  G4double angle_2pixel = 10.;
523 
524  //number of pixel in death and lower edge
525 
526  int act_pixel_x = pre_pixel_x;
527  int act_pixel_y = pre_pixel_y;
528 
529  if(verboseLevel>5)
530  {
531  G4cout << "AFP_SensitiveDetector::ProcessHits: actual pixel in x = " << act_pixel_x << ", in y = " << act_pixel_y << G4endl;
532  G4cout << "AFP_SensitiveDetector::ProcessHits: actual compensated pixel in x = " << act_pixel_x - n_death_pixels << ", in y = " << act_pixel_y - n_lower_pixels << G4endl;
533  }
534  if ((number_pixels_x == 0) && (number_pixels_y == 0))
535  {
536 
537  if(verboseLevel>5)
538  {
539  G4cout << "AFP_SensitiveDetector::ProcessHits: pre and post in the same pixel " << G4endl;
540  }
541  if (( pre_pixel_y - n_lower_pixels <= 80) && (pre_pixel_x -n_death_pixels <= 336) && ( pre_pixel_y - n_lower_pixels > 0) && (pre_pixel_x - n_death_pixels > 0))
542  {
543  m_pSIDSimHitCollection->Emplace(m_nHitID,nTrackID,nParticleEncoding,fKineticEnergy,fEnergyDeposit,
544  fPreStepX,fPreStepY,fPreStepZ,fPostStepX,fPostStepY,fPostStepZ,
545  fGlobalTime,nStationID,nDetectorID,bIsSIDAuxVSID,
546  (pre_pixel_y - n_lower_pixels - 1),
547  (pre_pixel_x - n_death_pixels - 1));
548  m_nNumberOfSIDSimHits++;
549 
550  m_nNOfSIDSimHits[nStationID]++;
551  }
552  else if(verboseLevel>5)
553  {
554  G4cout << "AFP_SensitiveDetector::ProcessHits: hit outside of pixel's sensitive area " << G4endl;
555  }
556  }
557  else
558  {
559  if(verboseLevel>5)
560  {
561  G4cout << "AFP_SensitiveDetector::ProcessHits: pre and post in diferent pixels " << G4endl;
562  }
563  // still not complete logic, last step must be cut
564 
565  while ( (number_pixels_x >= 0) && (number_pixels_y >= 0) )
566  {
567 
568  if ((angle_phi >= 0.) && (angle_phi < M_PI_2))
569  {
570  x_next_pixel = (act_pixel_x+1)*m_delta_pixel_x; //- death_edge[nStationID][nDetectorID];
571  y_next_pixel = (act_pixel_y+1)*m_delta_pixel_y; //- death_edge[nStationID][nDetectorID];
572  angle_2pixel = atan2(y_next_pixel-y_det,x_next_pixel-x_det);
573 
574  if (angle_2pixel < 0.) angle_2pixel = 2*M_PI + angle_2pixel;
575  if(verboseLevel>5) { G4cout << "AFP_SensitiveDetector::ProcessHits: angle_2pixel in 0:2pi = " << angle_2pixel << G4endl; }
576 
577  if (angle_2pixel > angle_phi)
578  {
579  first = 0; // x border will be hit first
580  }
581  else
582  {
583  first = 1;
584  }
585  }
586 
587  else if ((angle_phi >= M_PI_2) && (angle_phi < M_PI))
588  {
589  x_next_pixel = (act_pixel_x+0)*m_delta_pixel_x; //- death_edge[nStationID][nDetectorID];
590  y_next_pixel = (act_pixel_y+1)*m_delta_pixel_y; //- death_edge[nStationID][nDetectorID];
591  angle_2pixel = atan2(y_next_pixel-y_det,x_next_pixel-x_det);
592 
593  if (angle_2pixel < 0.) angle_2pixel = 2*M_PI + angle_2pixel;
594  if(verboseLevel>5) { G4cout << "AFP_SensitiveDetector::ProcessHits: angle_2pixel in 0:2pi = " << angle_2pixel << G4endl; }
595 
596  if (angle_2pixel > angle_phi)
597  {
598  first = 1; // y border will be hit first
599  }
600  else
601  {
602  first = 0;
603  }
604  }
605 
606  else if ((angle_phi >= M_PI) && (angle_phi < 3.*M_PI_2))
607  {
608  x_next_pixel = (act_pixel_x+0)*m_delta_pixel_x; //- death_edge[nStationID][nDetectorID];
609  y_next_pixel = (act_pixel_y+0)*m_delta_pixel_y; //- death_edge[nStationID][nDetectorID];
610  if(verboseLevel>5) { G4cout << "AFP_SensitiveDetector::ProcessHits: next pixel corner, x = " << x_next_pixel << ", y =" << y_next_pixel << G4endl; }
611 
612  angle_2pixel = atan2(y_next_pixel-y_det,x_next_pixel-x_det);
613 
614  if (angle_2pixel < 0.) angle_2pixel = 2*M_PI + angle_2pixel;
615  if(verboseLevel>5) { G4cout << "AFP_SensitiveDetector::ProcessHits: angle_2pixel in 0:2pi = " << angle_2pixel << G4endl; }
616 
617  if (angle_2pixel > angle_phi)
618  {
619  first = 0; // x border will be hit first
620  }
621  else
622  {
623  first = 1;
624  }
625  }
626 
627  else if ((angle_phi >= 3.*M_PI_2) && (angle_phi < 2.*M_PI))
628  {
629  x_next_pixel = (act_pixel_x+1)*m_delta_pixel_x; //- death_edge[nStationID][nDetectorID];
630  y_next_pixel = (act_pixel_y+0)*m_delta_pixel_y; //- death_edge[nStationID][nDetectorID];
631  angle_2pixel = atan2(y_next_pixel-y_det,x_next_pixel-x_det);
632 
633  if (angle_2pixel < 0.) angle_2pixel = 2*M_PI + angle_2pixel;
634  if(verboseLevel>5) { G4cout << "AFP_SensitiveDetector::ProcessHits: angle_2pixel in 0:2pi = " << angle_2pixel << G4endl; }
635 
636  if (angle_2pixel > angle_phi)
637  {
638  first = 1; // y border will be hit first
639  }
640  else
641  {
642  first = 0;
643  }
644  }
645 
646  else
647  {
648  if(verboseLevel>5) { G4cout << "AFP_SensitiveDetector::ProcessHits: something is wrong here!!! " << G4endl; }
649  }
650 
651 
652  if (first == -1 ) {
653  if(verboseLevel>5) { G4cout << "AFP_SensitiveDetector::ProcessHits: something is wrong here!!! " << G4endl; }
654  throw std::runtime_error("AFP_SensitiveDetector::ProcessHits: something is wrong here");
655  }
656 
657  if(verboseLevel>5)
658  {
659  G4cout << "AFP_SensitiveDetector::ProcessHits: actual pixel in x = " << act_pixel_x << ", in y = " << act_pixel_y << G4endl;
660  G4cout << "AFP_SensitiveDetector::ProcessHits: actual compensated pixel in x = " << act_pixel_x - n_death_pixels << ", in y = " << act_pixel_y - n_lower_pixels << G4endl;
661  }
662 
663  if (first == 0 )
664  {
665 
666  if(verboseLevel>5) { G4cout << "AFP_SensitiveDetector::ProcessHits: cross is x, " << G4endl; }
667  x_border = x_next_pixel;
668 
669  if ((sign_pixels_x >= 0) && (x_border > x_det_post)) x_border = x_det_post;
670  if ((sign_pixels_x < 0) && (x_border < x_det_post)) x_border = x_det_post;
671 
672  y_border = tan_phi*(x_border-x_det) + y_det;
673 
674  if (( act_pixel_y - n_lower_pixels <= 80) && (act_pixel_x -n_death_pixels <= 336) && ( act_pixel_y - n_lower_pixels > 0) && (act_pixel_x - n_death_pixels > 0))
675  {
676  pixel_track_length_XY = std::sqrt(pow(x_border-x_det,2)+pow(y_border-y_det,2));
677 
678  if(verboseLevel>5)
679  {
680  G4cout << "AFP_SensitiveDetector::ProcessHits: overall energy = " << fEnergyDeposit << G4endl;
681  G4cout << "AFP_SensitiveDetector::ProcessHits: track XY length = " << track_length_XY << G4endl;
682  G4cout << "AFP_SensitiveDetector::ProcessHits: actual XY length = " << pixel_track_length_XY << G4endl;
683  G4cout << "AFP_SensitiveDetector::ProcessHits: deposited energy = " << fEnergyDeposit*(pixel_track_length_XY/track_length_XY) << G4endl;
684  }
685 
686  // this logic has to be still checked, tracks is necessary fully in sensitive area, but logic is probably ok
687  m_pSIDSimHitCollection->Emplace(m_nHitID,nTrackID,nParticleEncoding,fKineticEnergy,
688  fEnergyDeposit*(pixel_track_length_XY/track_length_XY),
689  fPreStepX,fPreStepY,fPreStepZ,fPostStepX,fPostStepY,fPostStepZ,
690  fGlobalTime,nStationID,nDetectorID,bIsSIDAuxVSID,
691  (act_pixel_y - n_lower_pixels - 1),
692  (act_pixel_x - n_death_pixels - 1));
693 
694  if(verboseLevel>5) { G4cout << "AFP_SensitiveDetector::ProcessHits:pixel["<< act_pixel_x - n_death_pixels <<"]["<< act_pixel_y - n_lower_pixels <<"] will be stored, with energy "
695  << fEnergyDeposit*(pixel_track_length_XY/track_length_XY) << G4endl; }
696 
697  m_nNumberOfSIDSimHits++;
698 
699  m_nNOfSIDSimHits[nStationID]++;
700  }
701 
702  x_det = x_border;
703  y_det = y_border;
704 
705  x_next_pixel = x_next_pixel + sign_pixels_x*m_delta_pixel_x;
706  number_pixels_x = number_pixels_x - 1;
707 
708  if(verboseLevel>5) { G4cout << "AFP_SensitiveDetector::ProcessHits: remaining number of pixels in x = " << number_pixels_x << ", in y = " << number_pixels_y << G4endl; }
709 
710  act_pixel_x = act_pixel_x + sign_pixels_x;
711  }
712 
713  if (first == 1 )
714  {
715 
716  if(verboseLevel>5) { G4cout << "AFP_SensitiveDetector::ProcessHits: cross is y, " << G4endl; }
717  y_border = y_next_pixel;
718 
719  if ((sign_pixels_y >= 0) && (y_border > y_det_post)) y_border = y_det_post;
720  if ((sign_pixels_y < 0) && (y_border < y_det_post)) y_border = y_det_post;
721 
722  x_border = (y_border-y_det)/tan_phi + x_det;
723 
724  if (( act_pixel_y - n_lower_pixels <= 80) && (act_pixel_x -n_death_pixels <= 336) && ( act_pixel_y - n_lower_pixels > 0) && (act_pixel_x - n_death_pixels > 0))
725  {
726  pixel_track_length_XY = std::sqrt(pow(x_border-x_det,2)+pow(y_border-y_det,2));
727 
728  if(verboseLevel>5)
729  {
730  G4cout << "AFP_SensitiveDetector::ProcessHits: overall energy = " << fEnergyDeposit << G4endl;
731  G4cout << "AFP_SensitiveDetector::ProcessHits: track XY length = " << track_length_XY << G4endl;
732  G4cout << "AFP_SensitiveDetector::ProcessHits: actual XY length = " << pixel_track_length_XY << G4endl;
733  G4cout << "AFP_SensitiveDetector::ProcessHits: deposited energy = " << fEnergyDeposit*(pixel_track_length_XY/track_length_XY) << G4endl;
734  }
735 
736  // this logic has to be still checked, tracks is necessary fully in sensitive area, but logic is probably ok
737  m_pSIDSimHitCollection->Emplace(m_nHitID,nTrackID,nParticleEncoding,fKineticEnergy,
738  fEnergyDeposit*(pixel_track_length_XY/track_length_XY),
739  fPreStepX,fPreStepY,fPreStepZ,fPostStepX,fPostStepY,fPostStepZ,
740  fGlobalTime,nStationID,nDetectorID,bIsSIDAuxVSID,
741  (act_pixel_y - n_lower_pixels - 1),
742  (act_pixel_x - n_death_pixels - 1));
743 
744  if(verboseLevel>5) { G4cout << "AFP_SensitiveDetector::ProcessHits:pixel["<< act_pixel_x - n_death_pixels <<"]["<< act_pixel_y - n_lower_pixels <<"] will be stored, with energy "
745  << fEnergyDeposit*(pixel_track_length_XY/track_length_XY) << G4endl; }
746 
747  m_nNumberOfSIDSimHits++;
748 
749  m_nNOfSIDSimHits[nStationID]++;
750  }
751 
752  y_det = y_border;
753  x_det = x_border;
754 
755  y_next_pixel = y_next_pixel + sign_pixels_y*m_delta_pixel_y;
756  number_pixels_y = number_pixels_y - 1;
757 
758  if(verboseLevel>5) { G4cout << "AFP_SensitiveDetector::ProcessHits: remaining number of pixels in x = " << number_pixels_x << ", in y = " << number_pixels_y << G4endl; }
759 
760 
761  act_pixel_y = act_pixel_y + sign_pixels_y;
762  }
763  }
764  }
765  }
766  }
767  }
768 
769  return true;
770 }

◆ StartOfAthenaEvent()

void AFP_SensitiveDetector::StartOfAthenaEvent ( )

Definition at line 57 of file AFP_SensitiveDetector.cxx.

58 {
59  m_nNumberOfTDSimHits=0;
60  m_nNumberOfSIDSimHits=0;
61 
62  for( int i=0; i < 4; i++)
63  {
64  m_nNOfSIDSimHits[i] = 0;
65  }
66 
67  for( int i=0; i < 4; i++)
68  {
69  for( int j=0; j < 32; j++)
70  {
71  m_nNOfTDSimHits[i][j] = 0;
72  }
73  }
74 }

Member Data Documentation

◆ m_death_edge

float AFP_SensitiveDetector::m_death_edge[4][10]
private

Definition at line 66 of file AFP_SensitiveDetector.h.

◆ m_delta_pixel_x

float AFP_SensitiveDetector::m_delta_pixel_x
private

Definition at line 65 of file AFP_SensitiveDetector.h.

◆ m_delta_pixel_y

float AFP_SensitiveDetector::m_delta_pixel_y
private

Definition at line 65 of file AFP_SensitiveDetector.h.

◆ m_lower_edge

float AFP_SensitiveDetector::m_lower_edge[4][10]
private

Definition at line 67 of file AFP_SensitiveDetector.h.

◆ m_nEventNumber

int AFP_SensitiveDetector::m_nEventNumber
private

Definition at line 58 of file AFP_SensitiveDetector.h.

◆ m_nHitID

int AFP_SensitiveDetector::m_nHitID
private

Definition at line 57 of file AFP_SensitiveDetector.h.

◆ m_nNOfSIDSimHits

int AFP_SensitiveDetector::m_nNOfSIDSimHits[4]
private

Definition at line 63 of file AFP_SensitiveDetector.h.

◆ m_nNOfTDSimHits

int AFP_SensitiveDetector::m_nNOfTDSimHits[4][32]
private

Definition at line 62 of file AFP_SensitiveDetector.h.

◆ m_nNumberOfSIDSimHits

int AFP_SensitiveDetector::m_nNumberOfSIDSimHits
private

Definition at line 60 of file AFP_SensitiveDetector.h.

◆ m_nNumberOfTDSimHits

int AFP_SensitiveDetector::m_nNumberOfTDSimHits
private

Definition at line 59 of file AFP_SensitiveDetector.h.

◆ m_pSIDSimHitCollection

SG::WriteHandle<AFP_SIDSimHitCollection> AFP_SensitiveDetector::m_pSIDSimHitCollection
private

Definition at line 71 of file AFP_SensitiveDetector.h.

◆ m_pTDSimHitCollection

SG::WriteHandle<AFP_TDSimHitCollection> AFP_SensitiveDetector::m_pTDSimHitCollection
private

Definition at line 70 of file AFP_SensitiveDetector.h.

◆ SiDMaxCnt

constexpr int AFP_SensitiveDetector::SiDMaxCnt = 1000
staticconstexpr

Definition at line 54 of file AFP_SensitiveDetector.h.

◆ TDMaxCnt

constexpr int AFP_SensitiveDetector::TDMaxCnt = 4000
staticconstexpr

Definition at line 53 of file AFP_SensitiveDetector.h.

◆ TDMaxQEff

constexpr double AFP_SensitiveDetector::TDMaxQEff = 0.15
staticconstexpr

Templated method to stuff a single hit into the sensitive detector class.

This could get rather tricky, but the idea is to allow fast simulations to use the very same SD classes as the standard simulation.

Definition at line 52 of file AFP_SensitiveDetector.h.

The documentation for this class was generated from the following files:
TileDCSDataPlotter.dp
dp
Definition: TileDCSDataPlotter.py:840
AFP_CONSTANTS::SiT_Pixel_length_x
static constexpr double SiT_Pixel_length_x
Definition: AFP_constants.h:58
test_pyathena.px
px
Definition: test_pyathena.py:18
AFP_SensitiveDetector::m_nNOfTDSimHits
int m_nNOfTDSimHits[4][32]
Definition: AFP_SensitiveDetector.h:62
phi
Scalar phi() const
phi method
Definition: AmgMatrixBasePlugin.h:67
CaloCellPos2Ntuple.int
int
Definition: CaloCellPos2Ntuple.py:24
AFP_CONSTANTS::SiT_Pixel_length_y
static constexpr double SiT_Pixel_length_y
Definition: AFP_constants.h:59
mat
GeoMaterial * mat
Definition: LArDetectorConstructionTBEC.cxx:55
conifer::pow
constexpr int pow(int x)
Definition: conifer.h:20
python.SystemOfUnits.MeV
int MeV
Definition: SystemOfUnits.py:154
AFP_SensitiveDetector::m_nNumberOfTDSimHits
int m_nNumberOfTDSimHits
Definition: AFP_SensitiveDetector.h:59
M_PI
#define M_PI
Definition: ActiveFraction.h:11
deg
#define deg
Definition: SbPolyhedron.cxx:17
AFP_SensitiveDetector::m_delta_pixel_y
float m_delta_pixel_y
Definition: AFP_SensitiveDetector.h:65
AFP_CONSTANTS::SiT_LowerEdge
static constexpr double SiT_LowerEdge
Definition: AFP_constants.h:68
drawFromPickle.cos
cos
Definition: drawFromPickle.py:36
drawFromPickle.exp
exp
Definition: drawFromPickle.py:36
AFP_SensitiveDetector::m_pTDSimHitCollection
SG::WriteHandle< AFP_TDSimHitCollection > m_pTDSimHitCollection
Definition: AFP_SensitiveDetector.h:70
AFP_SensitiveDetector::m_nNOfSIDSimHits
int m_nNOfSIDSimHits[4]
Definition: AFP_SensitiveDetector.h:63
cm
const double cm
Definition: Simulation/ISF/ISF_FastCaloSim/ISF_FastCaloSimParametrization/tools/FCAL_ChannelMap.cxx:25
AFP_SensitiveDetector::m_nHitID
int m_nHitID
Definition: AFP_SensitiveDetector.h:57
LArG4FSStartPointFilter.rand
rand
Definition: LArG4FSStartPointFilter.py:80
python.PhysicalConstants.hbarc
float hbarc
Definition: PhysicalConstants.py:73
AFP_SensitiveDetector::m_nEventNumber
int m_nEventNumber
Definition: AFP_SensitiveDetector.h:58
lumiFormat.i
int i
Definition: lumiFormat.py:85
AFP_SensitiveDetector::TDMaxCnt
static constexpr int TDMaxCnt
Definition: AFP_SensitiveDetector.h:53
contains
bool contains(const std::string &s, const std::string &regx)
does a string contain the substring
Definition: hcg.cxx:111
Amg::pz
@ pz
Definition: GeoPrimitives.h:40
AFP_SensitiveDetector::m_pSIDSimHitCollection
SG::WriteHandle< AFP_SIDSimHitCollection > m_pSIDSimHitCollection
Definition: AFP_SensitiveDetector.h:71
AFP_SensitiveDetector::m_lower_edge
float m_lower_edge[4][10]
Definition: AFP_SensitiveDetector.h:67
Amg::py
@ py
Definition: GeoPrimitives.h:39
AFP_SensitiveDetector::SiDMaxCnt
static constexpr int SiDMaxCnt
Definition: AFP_SensitiveDetector.h:54
name
std::string name
Definition: Control/AthContainers/Root/debug.cxx:221
python.SystemOfUnits.eV
int eV
Definition: SystemOfUnits.py:155
AFP_CONSTANTS::SiT_DeathEdge
static constexpr double SiT_DeathEdge
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