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CCalG4Ecal.cc
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27 // File: CCalG4Ecal.cc
28 // Description: CCalG4Ecal Factory class to construct the G4 geometry of the
29 // electromagnetic calorimeter
31 
32 #include <cmath>
33 
34 #include "CCalG4Ecal.hh"
35 
36 #include "CCalMaterialFactory.hh"
39 
40 #include "CCalutils.hh"
41 
42 #include "G4SystemOfUnits.hh"
43 #include "G4ThreeVector.hh"
44 #include "G4Box.hh"
45 #include "G4Trd.hh"
46 
47 #include "G4LogicalVolume.hh"
48 #include "G4PVPlacement.hh"
49 
50 //#define debug
51 //#define ddebug
52 //#define pdebug
53 //#define sdebug
54 
55 //Initialize static logical volumes
57 
58 //Initialize static prefix name
59 G4String CCalG4Ecal::idName = "CrystalMatrix";
60 
62 // CCalG4Ecal constructor & destructor...
64 
66  CCalEcal(name), CCalG4Able(name), type(module1) {}
67 
69 
71 // CCalG4Ecal methods...
73 
75  G4cout << "==>> Constructing CCalG4Ecal..." << G4endl;
76 
78  // Construction of global volume as a Box
79 
80  if (!crystalmatrixLog) {
82  }
84 
85  G4double x, y, z;
86  if (mother != 0) {
87  x = getXpos()*mm;
88  y = getYpos()*mm;
89  z = getZpos()*mm;
90  } else {
91  x = y = z = 0;
92  }
93 
94  int num;
95  if (type == module2) {
96  num = 2;
97  } else {
98  num = 1;
99  }
100 #ifdef pdebug
101  G4String name("Null");
102  if (mother != 0) name = mother->GetName();
103  G4cout << crystalmatrixLog->GetName() << " Number " << num << " positioned in "
104  << name << " at (" << x << ", " << y << ", " << z << ")";
105 #endif
106 
107  G4RotationMatrix* cmrot = 0;
108  if (mother != 0) {
109  G4String rotstr = idName + num;
110  cmrot = rotfact->findMatrix(rotstr);
111  if (!cmrot) {
112 #ifdef ddebug
113  G4cout << "Creating a new rotation: " << rotstr << tab
114  << getThetaX()*deg << "," << getPhiX()*deg << ","
115  << getThetaY()*deg << "," << getPhiY()*deg << ","
116  << getThetaZ()*deg << "," << getPhiZ()*deg << G4endl;
117 #endif
118  cmrot = rotfact->AddMatrix(rotstr, getThetaX()*deg, getPhiX()*deg,
119  getThetaY()*deg, getPhiY()*deg,
120  getThetaZ()*deg, getPhiZ()*deg);
121  } // if !cmrot
122 #ifdef pdebug
123  G4cout << " rotation by (" << getThetaX() << ", " << getPhiX() << ", "
124  << getThetaY() << "," << getPhiY() << ", " << getThetaZ() << ", "
125  << getPhiZ() << ")" << G4endl;
126 #endif
127  } else {
128 #ifdef pdebug
129  G4cout << " without rotation..." << G4endl;
130 #endif
131  }
132 
133  G4PVPlacement* crystalmatrix;
134  if (mother != 0) {
135  crystalmatrix = new G4PVPlacement(cmrot, G4ThreeVector(x,y,z),
137  mother->GetLogicalVolume(), false, num);
138  } else {
139  crystalmatrix = new G4PVPlacement(cmrot, G4ThreeVector(x,y,z),
141  mother, false, num);
142  }
143  G4cout << "<<== End of CCalG4Ecal construction ..." << G4endl;
144 
145  return crystalmatrix;
146 }
147 
148 
150 
151  //Pointers to the Materials and Rotation Matrix factory
154 
155  G4Material* matter = matfact->findMaterial(getGenMat());
156  G4VSolid* solid = new G4Box (idName, 0.5*getWidBox()*mm, 0.5*getWidBox()*mm,
157  0.5*getLengBox()*mm);
158 #ifdef debug
159  G4cout << tab << idName << " Box made of " << getGenMat() << " of dimension "
160  << 0.5*getWidBox()*mm << ", " << 0.5*getWidBox()*mm << ", "
161  << 0.5*getLengBox()*mm << G4endl;
162 #endif
163  G4LogicalVolume* glog = new G4LogicalVolume (solid, matter, idName);
165 
166  //Now the layers
167  G4String name = idName + "Layer";
168  matter = matfact->findMaterial(getLayMat());
169  solid = new G4Trd(name, getLayPar(0)*mm, getLayPar(1)*mm, getLayPar(2)*mm,
170  getLayPar(3)*mm, getLayPar(4)*mm);
171 #ifdef debug
172  G4cout << tab << name << " Trd made of " << getLayMat() << " of dimension "
173  << getLayPar(0)*mm << ", " << getLayPar(1)*mm << ", " << getLayPar(2)*mm
174  << ", " << getLayPar(3)*mm << ", " << getLayPar(4)*mm << G4endl;
175 #endif
176  G4LogicalVolume* laylog = new G4LogicalVolume (solid, matter, name);
178 
179  G4int i = 0;
180  G4String rotstr;
181  G4double xp, yp, zp, angle;
182  G4double zshift = -0.5 * (getLengBox() - getCrystLength()) + getLengFront();
183  G4RotationMatrix* rot = 0;
184  for (i = 0; i < getLayNum(); i++) {
185  angle = 0.5 * getLayAngle() * (2*i + 1 - getLayNum());
186  xp = angle * (getLayPar(4) + getLayRadius()) * mm;
187  zp = (zshift + getLayPar(0)*std::abs(std::sin(angle))) * mm;
188  rotstr = idName + "Layer" + i;
189  rot = rotfact->findMatrix(rotstr);
190  if (!rot) {
191 #ifdef ddebug
192  G4cout << "Creating a new rotation: " << rotstr << tab
193  << (90.0*deg+angle) << "," << 0.0*deg << "," << 90.0*deg << ","
194  << 90.0*deg << "," << angle << "," << 0.0*deg << G4endl;
195 #endif
196  rot = rotfact->AddMatrix(rotstr, (90.0*deg+angle), 0.0*deg, 90.0*deg,
197  90.0*deg, angle, 0.0*deg);
198  }
199  new G4PVPlacement(rot, G4ThreeVector(xp,0.,zp), laylog, name, glog,
200  false, i+1);
201 #ifdef pdebug
202  G4cout << laylog->GetName() << " number " << i+1 << " positioned in "
203  << glog->GetName() << " at (" << xp << ", 0," << zp
204  << ") with rotation angle " << angle/deg << G4endl;
205 #endif
206  }
207 
208  //Now the crystals
209  name = idName + "Crystal";
210  matter = matfact->findMaterial(getCrystMat());
211  solid = new G4Trd(name, getCrystPar(0)*mm, getCrystPar(1)*mm,
213 #ifdef debug
214  G4cout << tab << name << " Trd made of " << getCrystMat() << " of dimension "
215  << getCrystPar(0)*mm << ", " << getCrystPar(1)*mm << ", "
216  << getCrystPar(2)*mm << ", " << getCrystPar(3)*mm << ", "
217  << getCrystPar(4)*mm << G4endl;
218 #endif
219 
220  G4LogicalVolume* detLog = new G4LogicalVolume (solid, matter, name);
222  sensitiveLogs.push_back(detLog);
223  for (i = 0; i < getCrystNum(); i++) {
224  angle = 0.5 * getLayAngle() * (2*i + 1 - getCrystNum());
225  yp = angle * (getCrystPar(4) + getLayRadius()) * mm;
226  zp = (getCrystPar(0)*std::abs(std::sin(angle)) - getCrystTol()) * mm;
227  rotstr = idName + "Crystal" + i;
228  rot = rotfact->findMatrix(rotstr);
229  if (!rot) {
230 #ifdef ddebug
231  G4cout << "Creating a new rotation: " << rotstr << tab << 90.0*deg << ","
232  << 0.0*deg << "," << (90.0*deg+angle) << "," << 0.0*deg << ","
233  << angle << "," << 90.0*deg << G4endl;
234 #endif
235  rot = rotfact->AddMatrix(rotstr, 90.0*deg, 0.0*deg, (90.0*deg+angle),
236  90.0*deg, angle, 90.0*deg);
237  }
238  new G4PVPlacement(rot, G4ThreeVector(0,yp,zp), detLog, name, laylog,
239  false, i+1);
240 #ifdef pdebug
241  G4cout << detLog->GetName() << " number " << i+1 << " positioned in "
242  << laylog->GetName() << " at (0," << yp << "," << zp
243  << ") with rotation angle " << angle/deg << G4endl;
244 #endif
245  }
246 
247  //Support boxes
248  name = idName + "Support";
249  matter = matfact->findMaterial(getSuppMat());
250  solid = new G4Box (name, 0.5*getDxSupp()*mm, 0.5*getDySupp()*mm,
251  0.5*getDzSupp()*mm);
252 #ifdef debug
253  G4cout << tab << name << " Box made of " << getSuppMat() << " of dimension "
254  << 0.5*getDxSupp()*mm << ", " << 0.5*getDySupp()*mm << ", "
255  << 0.5*getDzSupp()*mm << G4endl;
256 #endif
257  G4LogicalVolume* slog = new G4LogicalVolume (solid, matter, name);
259 
260  zp = (-0.5 * getLengBox() + getCrystLength() + getLengFront() +
261  0.5 * getDzSupp() + getDistSupp()) * mm;
262  for (i = 0; i < getCrystNum(); i++) {
263  yp = getLayPar(1) * (2*i + 1 - getCrystNum()) * mm;
264  new G4PVPlacement(0, G4ThreeVector(0,yp,zp), slog, name, glog,
265  false, i+1);
266 #ifdef pdebug
267  G4cout << slog->GetName() << " number " << i+1 << " positioned in "
268  << glog->GetName() << " at (0," << yp << "," << zp
269  << ") with no rotation" << G4endl;
270 #endif
271  }
272 
273  return glog;
274 }
275 
277 
278 #ifdef debug
279  G4cout << "Now registering CrystalMatrix LogicalVolume's to SD's:" << G4endl;
280 #endif
281  if (sensitiveLogs.size()>0) {
283  G4String SDname = idName;
284  for(std::vector<ptrG4Log>::iterator iter=sensitiveLogs.begin();
285  iter<sensitiveLogs.end(); iter++) {
286  sensDets->registerVolume(SDname, (*iter));
287 #ifdef sdebug
288  G4cout << "Register volume " << (*iter)->GetName() << " for" << SDname
289  << G4endl;
290 #endif
291  }
292  }
293 
294 }
295 
296 
Float_t x
Definition: compare.C:6
const XML_Char * name
Definition: expat.h:151
int getCrystNum() const
Definition: CCalEcal.hh:62
CLHEP::Hep3Vector G4ThreeVector
double getCrystPar(unsigned int i) const
Definition: CCalEcal.hh:65
G4LogicalVolume * GetLogicalVolume() const
void registerVolume(const G4String &name, G4LogicalVolume *)
double getLayRadius() const
Definition: CCalEcal.hh:57
static constexpr double mm
Definition: G4SIunits.hh:115
G4String getSuppMat() const
Definition: CCalEcal.hh:66
#define G4endl
Definition: G4ios.hh:61
Float_t y
Definition: compare.C:6
Double_t z
double getLengBox() const
Definition: CCalEcal.hh:45
double getDxSupp() const
Definition: CCalEcal.hh:67
static G4String idName
Definition: CCalG4Ecal.hh:51
G4RotationMatrix * findMatrix(const G4String &)
std::vector< ptrG4Log > sensitiveLogs
Definition: CCalG4Ecal.hh:73
double getWidBox() const
Definition: CCalEcal.hh:44
CCalG4Ecal(const G4String &name)
Definition: CCalG4Ecal.cc:65
double getDistSupp() const
Definition: CCalEcal.hh:70
double getLayPar(unsigned int i) const
Definition: CCalEcal.hh:60
double getDySupp() const
Definition: CCalEcal.hh:68
G4LogicalVolume * constructGlobal()
Definition: CCalG4Ecal.cc:149
double getPhiX() const
Definition: CCalEcal.hh:50
double getCrystLength() const
Definition: CCalEcal.hh:63
static CCalRotationMatrixFactory * getInstance()
double G4double
Definition: G4Types.hh:76
double getThetaZ() const
Definition: CCalEcal.hh:53
void setVisType(CCalVisualisable::visType, G4LogicalVolume *)
Definition: CCalG4Able.cc:104
int getLayNum() const
Definition: CCalEcal.hh:56
G4String getGenMat() const
Definition: CCalEcal.hh:43
static constexpr double deg
Definition: G4SIunits.hh:152
double getDzSupp() const
Definition: CCalEcal.hh:69
double getThetaY() const
Definition: CCalEcal.hh:51
G4String getLayMat() const
Definition: CCalEcal.hh:55
Definition: G4Box.hh:64
double getZpos() const
Definition: CCalEcal.hh:48
G4Material * findMaterial(const G4String &) const
double getCrystTol() const
Definition: CCalEcal.hh:64
CMType type
Definition: CCalG4Ecal.hh:67
double getLayAngle() const
Definition: CCalEcal.hh:58
std::ostream & tab(std::ostream &)
Definition: CCalutils.cc:89
int G4int
Definition: G4Types.hh:78
double getYpos() const
Definition: CCalEcal.hh:47
double getPhiZ() const
Definition: CCalEcal.hh:54
G4RotationMatrix * AddMatrix(const G4String &name, G4double th1, G4double phi1, G4double th2, G4double phi2, G4double th3, G4double phi3)
Definition: G4Trd.hh:72
static CCalSensitiveDetectors * getInstance()
double getXpos() const
Definition: CCalEcal.hh:46
G4GLOB_DLL std::ostream G4cout
double getLengFront() const
Definition: CCalEcal.hh:59
virtual void constructSensitive()
Definition: CCalG4Ecal.cc:276
G4String getCrystMat() const
Definition: CCalEcal.hh:61
double getPhiY() const
Definition: CCalEcal.hh:52
virtual ~CCalG4Ecal()
Definition: CCalG4Ecal.cc:68
const G4String & GetName() const
double getThetaX() const
Definition: CCalEcal.hh:49
virtual G4VPhysicalVolume * constructIn(G4VPhysicalVolume *)
Definition: CCalG4Ecal.cc:74
const G4String & GetName() const
static G4LogicalVolume * crystalmatrixLog
Definition: CCalG4Ecal.hh:70
static CCalMaterialFactory * getInstance()