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26 /// \file runAndEvent/RE02/src/RE02DetectorCon 26 /// \file runAndEvent/RE02/src/RE02DetectorConstruction.cc
27 /// \brief Implementation of the RE02DetectorC 27 /// \brief Implementation of the RE02DetectorConstruction class
28 // 28 //
29 // 29 //
30 // 30 //
31 << 31
32 #include "RE02DetectorConstruction.hh" 32 #include "RE02DetectorConstruction.hh"
33 33
34 #include "RE02NestedPhantomParameterisation.hh <<
35 <<
36 #include "G4Box.hh" <<
37 #include "G4Colour.hh" <<
38 #include "G4LogicalVolume.hh" <<
39 #include "G4Material.hh" <<
40 #include "G4NistManager.hh" <<
41 #include "G4PSCellFlux3D.hh" <<
42 #include "G4PSEnergyDeposit3D.hh" 34 #include "G4PSEnergyDeposit3D.hh"
43 #include "G4PSFlatSurfaceCurrent3D.hh" <<
44 #include "G4PSFlatSurfaceFlux3D.hh" <<
45 #include "G4PSNofStep3D.hh" 35 #include "G4PSNofStep3D.hh"
>> 36 #include "G4PSCellFlux3D.hh"
46 #include "G4PSPassageCellFlux3D.hh" 37 #include "G4PSPassageCellFlux3D.hh"
47 #include "G4PVParameterised.hh" << 38 #include "G4PSFlatSurfaceFlux3D.hh"
48 #include "G4PVPlacement.hh" << 39 #include "G4PSFlatSurfaceCurrent3D.hh"
>> 40
>> 41 #include "G4SDParticleWithEnergyFilter.hh"
>> 42 #include "G4SDParticleFilter.hh"
49 #include "G4SDChargedFilter.hh" 43 #include "G4SDChargedFilter.hh"
>> 44
>> 45 #include "G4NistManager.hh"
>> 46 #include "G4Material.hh"
>> 47 #include "G4Box.hh"
>> 48 #include "G4LogicalVolume.hh"
>> 49 #include "G4PVPlacement.hh"
50 #include "G4SDManager.hh" 50 #include "G4SDManager.hh"
51 #include "G4SDParticleFilter.hh" << 51
52 #include "G4SDParticleWithEnergyFilter.hh" << 52 #include "G4PVParameterised.hh"
53 #include "G4SystemOfUnits.hh" << 53 #include "RE02NestedPhantomParameterisation.hh"
>> 54
54 #include "G4VisAttributes.hh" 55 #include "G4VisAttributes.hh"
>> 56 #include "G4Colour.hh"
>> 57
>> 58 #include "G4SystemOfUnits.hh"
55 #include "G4ios.hh" 59 #include "G4ios.hh"
56 60
57 //============================================ 61 //=======================================================================
58 // RE02DetectorConstruction 62 // RE02DetectorConstruction
59 // 63 //
60 // (Description) 64 // (Description)
61 // 65 //
62 // Detector construction for example RE02. 66 // Detector construction for example RE02.
63 // << 67 //
64 // [Geometry] << 68 // [Geometry]
65 // The world volume is defined as 200 cm x 69 // The world volume is defined as 200 cm x 200 cm x 200 cm box with Air.
66 // Water phantom is defined as 200 mm x 200 70 // Water phantom is defined as 200 mm x 200 mm x 400 mm box with Water.
67 // The water phantom is divided into 100 seg 71 // The water phantom is divided into 100 segments in x,y plane using
68 // replication, 72 // replication,
69 // and then divided into 200 segments perpen << 73 // and then divided into 200 segments perpendicular to z axis using nested
70 // parameterised volume. << 74 // parameterised volume.
71 // These values are defined at constructor, 75 // These values are defined at constructor,
72 // e.g. the size of water phantom (fPhantom 76 // e.g. the size of water phantom (fPhantomSize), and number of segmentation
73 // of water phantom (fNx, fNy, fNz). 77 // of water phantom (fNx, fNy, fNz).
74 // 78 //
75 // By default, lead plates are inserted into << 79 // By default, lead plates are inserted into the position of even order
76 // segments. 80 // segments.
77 // NIST database is used for materials. 81 // NIST database is used for materials.
78 // 82 //
79 // 83 //
80 // [Scorer] 84 // [Scorer]
81 // Assignment of G4MultiFunctionalDetector << 85 // Assignment of G4MultiFunctionalDetector and G4PrimitiveScorer
82 // is demonstrated in this example. 86 // is demonstrated in this example.
83 // ------------------------------------- 87 // -------------------------------------------------
84 // The collection names of defined Primi 88 // The collection names of defined Primitives are
85 // 0 PhantomSD/totalEDep << 89 // 0 PhantomSD/totalEDep
86 // 1 PhantomSD/protonEDep 90 // 1 PhantomSD/protonEDep
87 // 2 PhantomSD/protonNStep 91 // 2 PhantomSD/protonNStep
88 // 3 PhantomSD/chargedPassCellFlu 92 // 3 PhantomSD/chargedPassCellFlux
89 // 4 PhantomSD/chargedCellFlux << 93 // 4 PhantomSD/chargedCellFlux
90 // 5 PhantomSD/chargedSurfFlux << 94 // 5 PhantomSD/chargedSurfFlux
91 // 6 PhantomSD/gammaSurfCurr000 95 // 6 PhantomSD/gammaSurfCurr000
92 // 7 PhantomSD/gammaSurfCurr001 96 // 7 PhantomSD/gammaSurfCurr001
93 // 9 PhantomSD/gammaSurdCurr002 97 // 9 PhantomSD/gammaSurdCurr002
94 // 10 PhantomSD/gammaSurdCurr003 98 // 10 PhantomSD/gammaSurdCurr003
95 // -------------------------------------- 99 // -------------------------------------------------
96 // Please see README for detail descripti 100 // Please see README for detail description.
97 // 101 //
98 //============================================ 102 //=======================================================================
99 103
100 //....oooOO0OOooo........oooOO0OOooo........oo 104 //....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
101 RE02DetectorConstruction::RE02DetectorConstruc << 105 RE02DetectorConstruction::RE02DetectorConstruction()
>> 106 : G4VUserDetectorConstruction()
102 { 107 {
103 // Default size of water phantom,and segment 108 // Default size of water phantom,and segmentation.
104 fPhantomSize.setX(200. * mm); << 109 fPhantomSize.setX(200.*mm);
105 fPhantomSize.setY(200. * mm); << 110 fPhantomSize.setY(200.*mm);
106 fPhantomSize.setZ(400. * mm); << 111 fPhantomSize.setZ(400.*mm);
107 fNx = fNy = fNz = 100; << 112 fNx = fNy = fNz = 100;
108 fInsertLead = TRUE; << 113 fInsertLead = TRUE;
109 } 114 }
110 115
111 //....oooOO0OOooo........oooOO0OOooo........oo 116 //....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
112 RE02DetectorConstruction::~RE02DetectorConstru 117 RE02DetectorConstruction::~RE02DetectorConstruction()
113 { << 118 {;}
114 ; <<
115 } <<
116 119
117 //....oooOO0OOooo........oooOO0OOooo........oo 120 //....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
118 G4VPhysicalVolume* RE02DetectorConstruction::C << 121 G4VPhysicalVolume* RE02DetectorConstruction::Construct()
119 { 122 {
120 //===================== 123 //=====================
121 // Material Definitions 124 // Material Definitions
122 //===================== 125 //=====================
123 // << 126 //
124 //-------- NIST Materials ------------------ 127 //-------- NIST Materials ----------------------------------------------------
125 // Material Information imported from NIST 128 // Material Information imported from NIST database.
126 // 129 //
127 G4NistManager* NISTman = G4NistManager::Inst 130 G4NistManager* NISTman = G4NistManager::Instance();
128 G4Material* air = NISTman->FindOrBuildMateri << 131 G4Material* air = NISTman->FindOrBuildMaterial("G4_AIR");
129 G4Material* water = NISTman->FindOrBuildMate << 132 G4Material* water = NISTman->FindOrBuildMaterial("G4_WATER");
130 G4Material* lead = NISTman->FindOrBuildMater 133 G4Material* lead = NISTman->FindOrBuildMaterial("G4_Pb");
131 134
132 // 135 //
133 // Print all the materials defined. 136 // Print all the materials defined.
134 G4cout << G4endl << "The materials defined a 137 G4cout << G4endl << "The materials defined are : " << G4endl << G4endl;
135 G4cout << *(G4Material::GetMaterialTable()) 138 G4cout << *(G4Material::GetMaterialTable()) << G4endl;
136 139
137 //========================================== 140 //============================================================================
138 // Definitions of Solids, Logical Volum << 141 // Definitions of Solids, Logical Volumes, Physical Volumes
139 //========================================== 142 //============================================================================
140 143
141 //------------- 144 //-------------
142 // World Volume << 145 // World Volume
143 //------------- 146 //-------------
144 147
145 G4ThreeVector worldSize = G4ThreeVector(200 << 148 G4ThreeVector worldSize = G4ThreeVector(200*cm, 200*cm, 200*cm);
>> 149
>> 150 G4Box * solidWorld
>> 151 = new G4Box("world", worldSize.x()/2., worldSize.y()/2., worldSize.z()/2.);
>> 152 G4LogicalVolume * logicWorld
>> 153 = new G4LogicalVolume(solidWorld, air, "World", 0, 0, 0);
146 154
147 G4Box* solidWorld = << 155 //
148 new G4Box("world", worldSize.x() / 2., wor <<
149 G4LogicalVolume* logicWorld = new G4LogicalV <<
150 <<
151 // <<
152 // Must place the World Physical volume unr 156 // Must place the World Physical volume unrotated at (0,0,0).
153 G4VPhysicalVolume* physiWorld = new G4PVPlac << 157 G4VPhysicalVolume * physiWorld
154 << 158 = new G4PVPlacement(0, // no rotation
155 << 159 G4ThreeVector(), // at (0,0,0)
156 << 160 logicWorld, // its logical volume
157 << 161 "World", // its name
158 << 162 0, // its mother volume
159 << 163 false, // no boolean operations
160 << 164 0); // copy number
>> 165
161 //--------------- 166 //---------------
162 // Water Phantom 167 // Water Phantom
163 //--------------- 168 //---------------
164 169
165 //................................ 170 //................................
166 // Mother Volume of Water Phantom 171 // Mother Volume of Water Phantom
167 //................................ 172 //................................
168 173
169 //-- Default size of water phantom is defin 174 //-- Default size of water phantom is defined at constructor.
170 G4ThreeVector phantomSize = fPhantomSize; << 175 G4ThreeVector phantomSize = fPhantomSize;
171 << 176
172 G4Box* solidPhantom = << 177 G4Box * solidPhantom
173 new G4Box("phantom", phantomSize.x() / 2., << 178 = new G4Box("phantom",
174 G4LogicalVolume* logicPhantom = new G4Logica << 179 phantomSize.x()/2., phantomSize.y()/2., phantomSize.z()/2.);
>> 180 G4LogicalVolume * logicPhantom
>> 181 = new G4LogicalVolume(solidPhantom, water, "Phantom", 0, 0, 0);
175 182
176 G4RotationMatrix* rot = new G4RotationMatrix 183 G4RotationMatrix* rot = new G4RotationMatrix();
177 // rot->rotateY(30.*deg); << 184 //rot->rotateY(30.*deg);
178 G4ThreeVector positionPhantom; 185 G4ThreeVector positionPhantom;
179 // G4VPhysicalVolume * physiPhantom = << 186 //G4VPhysicalVolume * physiPhantom =
180 new G4PVPlacement(rot, // no rotation << 187 new G4PVPlacement(rot, // no rotation
181 positionPhantom, // at (x << 188 positionPhantom, // at (x,y,z)
182 logicPhantom, // its logi << 189 logicPhantom, // its logical volume
183 "Phantom", // its name << 190 "Phantom", // its name
184 logicWorld, // its mother << 191 logicWorld, // its mother volume
185 false, // no boolean oper << 192 false, // no boolean operations
186 0); // copy number << 193 0); // copy number
187 194
188 //.......................................... 195 //..............................................
189 // Phantom segmentation using Parameterisati 196 // Phantom segmentation using Parameterisation
190 //.......................................... 197 //..............................................
191 // 198 //
192 G4cout << "<-- RE02DetectorConstruction::Con << 199 G4cout << "<-- RE02DetectorConstruction::Construct-------" <<G4endl;
193 G4cout << " Water Phantom Size " << fPhanto << 200 G4cout << " Water Phantom Size " << fPhantomSize/mm << G4endl;
194 G4cout << " Segmentation (" << fNx << "," << 201 G4cout << " Segmentation ("<< fNx<<","<<fNy<<","<<fNz<<")"<< G4endl;
195 G4cout << " Lead plate at even copy # (0-Fa << 202 G4cout << " Lead plate at even copy # (0-False,1-True): " << IsLeadSegment()
196 G4cout << "<-------------------------------- << 203 << G4endl;
>> 204 G4cout << "<---------------------------------------------"<< G4endl;
197 // Number of segmentation. 205 // Number of segmentation.
198 // - Default number of segmentation is defin 206 // - Default number of segmentation is defined at constructor.
199 G4int nxCells = fNx; 207 G4int nxCells = fNx;
200 G4int nyCells = fNy; 208 G4int nyCells = fNy;
201 G4int nzCells = fNz; 209 G4int nzCells = fNz;
202 210
203 G4ThreeVector sensSize; 211 G4ThreeVector sensSize;
204 sensSize.setX(phantomSize.x() / (G4double)nx << 212 sensSize.setX(phantomSize.x()/(G4double)nxCells);
205 sensSize.setY(phantomSize.y() / (G4double)ny << 213 sensSize.setY(phantomSize.y()/(G4double)nyCells);
206 sensSize.setZ(phantomSize.z() / (G4double)nz << 214 sensSize.setZ(phantomSize.z()/(G4double)nzCells);
207 // i.e Voxel size will be 2.0 x 2.0 x 2.0 mm 215 // i.e Voxel size will be 2.0 x 2.0 x 2.0 mm3 cube by default.
208 // << 216 //
209 217
210 // Replication of Water Phantom Volume. 218 // Replication of Water Phantom Volume.
211 // Y Slice 219 // Y Slice
212 G4String yRepName("RepY"); 220 G4String yRepName("RepY");
213 G4VSolid* solYRep = 221 G4VSolid* solYRep =
214 new G4Box(yRepName, phantomSize.x() / 2., << 222 new G4Box(yRepName,phantomSize.x()/2.,sensSize.y()/2.,phantomSize.z()/2.);
215 G4LogicalVolume* logYRep = new G4LogicalVolu << 223 G4LogicalVolume* logYRep =
216 // G4PVReplica* yReplica = << 224 new G4LogicalVolume(solYRep,water,yRepName);
217 new G4PVReplica(yRepName, logYRep, logicPhan << 225 //G4PVReplica* yReplica =
>> 226 new G4PVReplica(yRepName,logYRep,logicPhantom,kYAxis,fNy,sensSize.y());
218 // X Slice 227 // X Slice
219 G4String xRepName("RepX"); 228 G4String xRepName("RepX");
220 G4VSolid* solXRep = 229 G4VSolid* solXRep =
221 new G4Box(xRepName, sensSize.x() / 2., sen << 230 new G4Box(xRepName,sensSize.x()/2.,sensSize.y()/2.,phantomSize.z()/2.);
222 G4LogicalVolume* logXRep = new G4LogicalVolu << 231 G4LogicalVolume* logXRep =
223 // G4PVReplica* xReplica = << 232 new G4LogicalVolume(solXRep,water,xRepName);
224 new G4PVReplica(xRepName, logXRep, logYRep, << 233 //G4PVReplica* xReplica =
>> 234 new G4PVReplica(xRepName,logXRep,logYRep,kXAxis,fNx,sensSize.x());
225 235
226 // 236 //
227 //.................................. 237 //..................................
228 // Voxel solid and logical volumes 238 // Voxel solid and logical volumes
229 //.................................. 239 //..................................
230 // Z Slice 240 // Z Slice
231 G4String zVoxName("phantomSens"); 241 G4String zVoxName("phantomSens");
232 G4VSolid* solVoxel = new G4Box(zVoxName, sen << 242 G4VSolid* solVoxel =
233 fLVPhantomSens = new G4LogicalVolume(solVoxe << 243 new G4Box(zVoxName,sensSize.x()/2.,sensSize.y()/2.,sensSize.z()/2.);
>> 244 fLVPhantomSens = new G4LogicalVolume(solVoxel,water,zVoxName);
234 // 245 //
235 // 246 //
236 std::vector<G4Material*> phantomMat(2, water << 247 std::vector<G4Material*> phantomMat(2,water);
237 if (IsLeadSegment()) phantomMat[1] = lead; << 248 if ( IsLeadSegment() ) phantomMat[1]=lead;
238 // 249 //
239 // Parameterisation for transformation of vo 250 // Parameterisation for transformation of voxels.
240 // (voxel size is fixed in this example. << 251 // (voxel size is fixed in this example.
241 // e.g. nested parameterisation handles mat 252 // e.g. nested parameterisation handles material and transfomation of voxels.)
242 RE02NestedPhantomParameterisation* paramPhan << 253 RE02NestedPhantomParameterisation* paramPhantom
243 new RE02NestedPhantomParameterisation(sens << 254 = new RE02NestedPhantomParameterisation(sensSize/2.,nzCells,phantomMat);
244 // G4VPhysicalVolume * physiPhantomSens = << 255 //G4VPhysicalVolume * physiPhantomSens =
245 new G4PVParameterised("PhantomSens", // the << 256 new G4PVParameterised("PhantomSens", // their name
246 fLVPhantomSens, // th << 257 fLVPhantomSens, // their logical volume
247 logXRep, // Mother lo << 258 logXRep, // Mother logical volume
248 kUndefined, // Are pl << 259 kUndefined, // Are placed along this axis
249 nzCells, // Number of << 260 nzCells, // Number of cells
250 paramPhantom); // Par << 261 paramPhantom); // Parameterisation.
251 // Optimization flag is avaiable for, 262 // Optimization flag is avaiable for,
252 // kUndefined, kXAxis, kYAxis, kZAxis. 263 // kUndefined, kXAxis, kYAxis, kZAxis.
253 // 264 //
254 265
255 //=============================== << 266 //===============================
256 // Visualization attributes << 267 // Visualization attributes
257 //=============================== 268 //===============================
258 269
259 G4VisAttributes* boxVisAtt = new G4VisAttrib << 270 G4VisAttributes* boxVisAtt = new G4VisAttributes(G4Colour(1.0,1.0,1.0));
260 logicWorld->SetVisAttributes(boxVisAtt); << 271 logicWorld ->SetVisAttributes(boxVisAtt);
261 // logicWorld->SetVisAttributes(G4VisAttribu << 272 //logicWorld->SetVisAttributes(G4VisAttributes::GetInvisible());
262 273
263 // Mother volume of WaterPhantom 274 // Mother volume of WaterPhantom
264 G4VisAttributes* phantomVisAtt = new G4VisAt << 275 G4VisAttributes* phantomVisAtt = new G4VisAttributes(G4Colour(1.0,1.0,0.0));
265 logicPhantom->SetVisAttributes(phantomVisAtt 276 logicPhantom->SetVisAttributes(phantomVisAtt);
266 << 277
267 // Replica 278 // Replica
268 G4VisAttributes* yRepVisAtt = new G4VisAttri << 279 G4VisAttributes* yRepVisAtt = new G4VisAttributes(G4Colour(0.0,1.0,0.0));
269 logYRep->SetVisAttributes(yRepVisAtt); 280 logYRep->SetVisAttributes(yRepVisAtt);
270 G4VisAttributes* xRepVisAtt = new G4VisAttri << 281 G4VisAttributes* xRepVisAtt = new G4VisAttributes(G4Colour(0.0,1.0,0.0));
271 logXRep->SetVisAttributes(xRepVisAtt); 282 logXRep->SetVisAttributes(xRepVisAtt);
272 << 283
273 // Skip the visualization for those voxels. 284 // Skip the visualization for those voxels.
274 fLVPhantomSens->SetVisAttributes(G4VisAttrib 285 fLVPhantomSens->SetVisAttributes(G4VisAttributes::GetInvisible());
275 286
>> 287
276 return physiWorld; 288 return physiWorld;
277 } 289 }
278 290
279 void RE02DetectorConstruction::ConstructSDandF << 291 void RE02DetectorConstruction::ConstructSDandField() {
280 { << 292
281 //========================================== 293 //================================================
282 // Sensitive detectors : MultiFunctionalDete 294 // Sensitive detectors : MultiFunctionalDetector
283 //========================================== 295 //================================================
284 // 296 //
285 // Sensitive Detector Manager. 297 // Sensitive Detector Manager.
286 G4SDManager* pSDman = G4SDManager::GetSDMpoi 298 G4SDManager* pSDman = G4SDManager::GetSDMpointer();
287 // 299 //
288 // Sensitive Detector Name 300 // Sensitive Detector Name
289 G4String phantomSDname = "PhantomSD"; 301 G4String phantomSDname = "PhantomSD";
290 << 302
291 //------------------------ 303 //------------------------
292 // MultiFunctionalDetector 304 // MultiFunctionalDetector
293 //------------------------ 305 //------------------------
294 // 306 //
295 // Define MultiFunctionalDetector with name. 307 // Define MultiFunctionalDetector with name.
296 G4MultiFunctionalDetector* mFDet = new G4Mul << 308 G4MultiFunctionalDetector* mFDet
297 pSDman->AddNewDetector(mFDet); // Register << 309 = new G4MultiFunctionalDetector(phantomSDname);
298 fLVPhantomSens->SetSensitiveDetector(mFDet); << 310 pSDman->AddNewDetector( mFDet ); // Register SD to SDManager.
299 << 311 fLVPhantomSens->SetSensitiveDetector(mFDet); // Assign SD to the logical volume.
>> 312
300 //--------------------------------------- 313 //---------------------------------------
301 // SDFilter : Sensitive Detector Filters 314 // SDFilter : Sensitive Detector Filters
302 //--------------------------------------- 315 //---------------------------------------
303 // 316 //
304 // Particle Filter for Primitive Scorer with 317 // Particle Filter for Primitive Scorer with filter name(fltName)
305 // and particle name(particleName), 318 // and particle name(particleName),
306 // or particle names are given by add("parti 319 // or particle names are given by add("particle name"); method.
307 // 320 //
308 G4String fltName, particleName; << 321 G4String fltName,particleName;
309 // 322 //
310 //-- proton filter 323 //-- proton filter
311 G4SDParticleFilter* protonFilter = 324 G4SDParticleFilter* protonFilter =
312 new G4SDParticleFilter(fltName = "protonFi << 325 new G4SDParticleFilter(fltName="protonFilter", particleName="proton");
313 // 326 //
314 //-- electron filter 327 //-- electron filter
315 G4SDParticleFilter* electronFilter = new G4S << 328 G4SDParticleFilter* electronFilter =
316 electronFilter->add(particleName = "e+"); / << 329 new G4SDParticleFilter(fltName="electronFilter");
317 electronFilter->add(particleName = "e-"); / << 330 electronFilter->add(particleName="e+"); // accept electrons.
>> 331 electronFilter->add(particleName="e-"); // accept positorons.
318 // 332 //
319 //-- charged particle filter 333 //-- charged particle filter
320 G4SDChargedFilter* chargedFilter = new G4SDC << 334 G4SDChargedFilter* chargedFilter =
321 << 335 new G4SDChargedFilter(fltName="chargedFilter");
>> 336
322 //------------------------ 337 //------------------------
323 // PS : Primitive Scorers 338 // PS : Primitive Scorers
324 //------------------------ 339 //------------------------
325 // Primitive Scorers are used with SDFilters 340 // Primitive Scorers are used with SDFilters according to your purpose.
326 // 341 //
327 // 342 //
328 //-- Primitive Scorer for Energy Deposit. 343 //-- Primitive Scorer for Energy Deposit.
329 // Total, by protons, by electrons. 344 // Total, by protons, by electrons.
330 G4String psName; 345 G4String psName;
331 G4PSEnergyDeposit3D* scorer0 = new G4PSEnerg << 346 G4PSEnergyDeposit3D * scorer0 = new G4PSEnergyDeposit3D(psName="totalEDep",
332 G4PSEnergyDeposit3D* scorer1 = new G4PSEnerg << 347 fNx,fNy,fNz);
>> 348 G4PSEnergyDeposit3D * scorer1 = new G4PSEnergyDeposit3D(psName="protonEDep",
>> 349 fNx,fNy,fNz);
333 scorer1->SetFilter(protonFilter); 350 scorer1->SetFilter(protonFilter);
334 << 351
335 // 352 //
336 //-- Number of Steps for protons 353 //-- Number of Steps for protons
337 G4PSNofStep3D* scorer2 = new G4PSNofStep3D(p << 354 G4PSNofStep3D * scorer2 =
>> 355 new G4PSNofStep3D(psName="protonNStep",fNx,fNy,fNz);
338 scorer2->SetFilter(protonFilter); 356 scorer2->SetFilter(protonFilter);
339 << 357
340 // 358 //
341 //-- CellFlux for charged particles 359 //-- CellFlux for charged particles
342 G4PSPassageCellFlux3D* scorer3 = << 360 G4PSPassageCellFlux3D * scorer3 =
343 new G4PSPassageCellFlux3D(psName = "charge << 361 new G4PSPassageCellFlux3D(psName="chargedPassCellFlux", fNx,fNy,fNz);
344 G4PSCellFlux3D* scorer4 = new G4PSCellFlux3D << 362 G4PSCellFlux3D * scorer4 =
345 G4PSFlatSurfaceFlux3D* scorer5 = << 363 new G4PSCellFlux3D(psName="chargedCellFlux", fNx,fNy,fNz);
346 new G4PSFlatSurfaceFlux3D(psName = "charge << 364 G4PSFlatSurfaceFlux3D * scorer5 =
>> 365 new G4PSFlatSurfaceFlux3D(psName="chargedSurfFlux", fFlux_InOut,fNx,fNy,fNz);
347 scorer3->SetFilter(chargedFilter); 366 scorer3->SetFilter(chargedFilter);
348 scorer4->SetFilter(chargedFilter); 367 scorer4->SetFilter(chargedFilter);
349 scorer5->SetFilter(chargedFilter); 368 scorer5->SetFilter(chargedFilter);
350 << 369
351 // 370 //
352 //------------------------------------------ 371 //------------------------------------------------------------
353 // Register primitive scorers to MultiFunct 372 // Register primitive scorers to MultiFunctionalDetector
354 //------------------------------------------ 373 //------------------------------------------------------------
355 mFDet->RegisterPrimitive(scorer0); 374 mFDet->RegisterPrimitive(scorer0);
356 mFDet->RegisterPrimitive(scorer1); 375 mFDet->RegisterPrimitive(scorer1);
357 mFDet->RegisterPrimitive(scorer2); 376 mFDet->RegisterPrimitive(scorer2);
358 mFDet->RegisterPrimitive(scorer3); 377 mFDet->RegisterPrimitive(scorer3);
359 mFDet->RegisterPrimitive(scorer4); 378 mFDet->RegisterPrimitive(scorer4);
360 mFDet->RegisterPrimitive(scorer5); 379 mFDet->RegisterPrimitive(scorer5);
361 << 380
362 //======================== 381 //========================
363 // More additional Primitive Scoreres 382 // More additional Primitive Scoreres
364 //======================== 383 //========================
365 // 384 //
366 //--- Surface Current for gamma with energy 385 //--- Surface Current for gamma with energy bin.
367 // This example creates four primitive score 386 // This example creates four primitive scorers.
368 // 4 bins with energy --- Primitive Sco 387 // 4 bins with energy --- Primitive Scorer Name
369 // 1. to 10 KeV, gammaSurfCur 388 // 1. to 10 KeV, gammaSurfCurr000
370 // 10 keV to 100 KeV, gammaSurfCur 389 // 10 keV to 100 KeV, gammaSurfCurr001
371 // 100 keV to 1 MeV, gammaSurfCur 390 // 100 keV to 1 MeV, gammaSurfCurr002
372 // 1 MeV to 10 MeV. gammaSurfCur 391 // 1 MeV to 10 MeV. gammaSurfCurr003
373 // 392 //
374 for (G4int i = 0; i < 4; i++) { << 393 char name[17];
375 std::ostringstream name; << 394 for ( G4int i = 0; i < 4; i++){
376 name << "gammaSurfCurr" << std::setfill('0 << 395 std::sprintf(name,"gammaSurfCurr%03d",i);
377 G4String psgName = name.str(); << 396 G4String psgName(name);
378 G4double kmin = std::pow(10., (G4double)i) << 397 G4double kmin = std::pow(10.,(G4double)i)*keV;
379 G4double kmax = std::pow(10., (G4double)(i << 398 G4double kmax = std::pow(10.,(G4double)(i+1))*keV;
380 //-- Particle with kinetic energy filter. 399 //-- Particle with kinetic energy filter.
381 G4SDParticleWithEnergyFilter* pkinEFilter 400 G4SDParticleWithEnergyFilter* pkinEFilter =
382 new G4SDParticleWithEnergyFilter(fltName << 401 new G4SDParticleWithEnergyFilter(fltName="gammaE filter",kmin,kmax);
383 pkinEFilter->add("gamma"); // Accept only 402 pkinEFilter->add("gamma"); // Accept only gamma.
384 pkinEFilter->show(); // Show accepting co << 403 pkinEFilter->show(); // Show accepting condition to stdout.
385 //-- Surface Current Scorer which scores 404 //-- Surface Current Scorer which scores number of tracks in unit area.
386 G4PSFlatSurfaceCurrent3D* scorer = << 405 G4PSFlatSurfaceCurrent3D * scorer =
387 new G4PSFlatSurfaceCurrent3D(psgName, fC << 406 new G4PSFlatSurfaceCurrent3D(psgName,fCurrent_InOut,fNx,fNy,fNz);
388 scorer->SetFilter(pkinEFilter); // Assign << 407 scorer->SetFilter(pkinEFilter); // Assign filter.
389 mFDet->RegisterPrimitive(scorer); // Regi 408 mFDet->RegisterPrimitive(scorer); // Register it to MultiFunctionalDetector.
390 } 409 }
>> 410
391 } 411 }
>> 412
392 413