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25 // 25 //
26 // G4ProductionCutsTable <<
27 // 26 //
28 // Class description: << 27 // $Id: G4ProductionCutsTable.hh 70369 2013-05-29 14:59:24Z gcosmo $
29 // 28 //
30 // G4ProductionCutsTable is a singleton class << 29 //
31 // G4ProductionCuts objects. This class manage << 30 // ------------------------------------------------------------
32 // cuts and energy cuts for each particle type << 31 // GEANT 4 class header file
33 << 32 //
34 // Author: M.Asai, 5 October 2002 - First impl << 33 // Class Description
35 // Modifications: H.Kurashige, 2004-2008 << 34 // G4ProductionCutsTable is a static singleton class of a table of
36 // ------------------------------------------- << 35 // G4ProductionCuts objects. This class also manages tables of
37 #ifndef G4ProductionCutsTable_hh << 36 // production cut and energy cut for each particle type.
38 #define G4ProductionCutsTable_hh 1 << 37 //
>> 38 // ------------------------------------------------------------
>> 39 // First Implementation 05 Oct. 2002 M.Asai
>> 40 //
>> 41 // Modified 03 Feb 2004 H.Kurashige
>> 42 // Modify RetrieveCutsTable to allow ordering of materials and
>> 43 // couples can be different from one in file (i.e. at storing)
>> 44 // Modified 20 Aug. 2004 H.Kurashige
>> 45 // Modify RetrieveCutsTable to allow materials and
>> 46 // couples can be different from one in file (i.e. at storing)
>> 47 // Modified 2 Mar. 2008 H.Kurashige
>> 48 // add messenger
>> 49 // ------------------------------------------------------------
39 50
40 #include <cmath> << 51 #ifndef G4ProductionCutsTable_h
41 #include <vector> << 52 #define G4ProductionCutsTable_h 1
42 <<
43 #include "globals.hh" <<
44 #include "G4ios.hh" <<
45 #include "G4MaterialCutsCouple.hh" <<
46 #include "G4MCCIndexConversionTable.hh" <<
47 #include "G4Region.hh" <<
48 53
49 class G4RegionStore; 54 class G4RegionStore;
50 class G4VRangeToEnergyConverter; 55 class G4VRangeToEnergyConverter;
51 class G4LogicalVolume; 56 class G4LogicalVolume;
52 class G4VPhysicalVolume; 57 class G4VPhysicalVolume;
53 class G4ProductionCuts; 58 class G4ProductionCuts;
>> 59
54 class G4ProductionCutsTableMessenger; 60 class G4ProductionCutsTableMessenger;
55 61
>> 62 #include "globals.hh"
>> 63 #include <cmath>
>> 64 #include "G4ios.hh"
>> 65 #include <vector>
>> 66 #include "G4MaterialCutsCouple.hh"
>> 67 #include "G4MCCIndexConversionTable.hh"
>> 68 #include "G4Region.hh"
>> 69
>> 70
56 class G4ProductionCutsTable 71 class G4ProductionCutsTable
57 { 72 {
58 public: << 73 public: // with description
59 <<
60 static G4ProductionCutsTable* GetProductio 74 static G4ProductionCutsTable* GetProductionCutsTable();
61 // This static method returns the single << 75 // This static method returns the singleton pointer of this class object.
62 // At first invocation, the singleton ob << 76 // At the first invokation of this method, the singleton object is instantiated.
63 77
64 G4ProductionCutsTable(const G4ProductionCu << 78 protected:
65 G4ProductionCutsTable& operator=(const G4P << 79 G4ProductionCutsTable();
>> 80 private:
>> 81 G4ProductionCutsTable(const G4ProductionCutsTable& right);
66 82
>> 83 public:
67 virtual ~G4ProductionCutsTable(); 84 virtual ~G4ProductionCutsTable();
68 85
69 void CreateCoupleTables(); << 86 public: // with description
70 // Creates material cuts couples table a <<
71 <<
72 void UpdateCoupleTable(G4VPhysicalVolume* 87 void UpdateCoupleTable(G4VPhysicalVolume* currentWorld);
73 // Triggers an update of the table of G4 << 88 // This method triggers an update of the table of G4ProductionCuts objects.
74 89
75 void SetEnergyRange(G4double lowedge, G4do 90 void SetEnergyRange(G4double lowedge, G4double highedge);
76 // Sets the limits of energy cuts for al << 91 // This method sets the limits of energy cuts for all particles.
77 92
78 G4double GetLowEdgeEnergy() const; 93 G4double GetLowEdgeEnergy() const;
79 G4double GetHighEdgeEnergy() const; 94 G4double GetHighEdgeEnergy() const;
80 // Get the limits of energy cuts for all << 95 // These methods get the limits of energy cuts for all particles.
81 96
>> 97 // get/set max cut energy of RangeToEnergy Converter for all particle type
82 G4double GetMaxEnergyCut(); 98 G4double GetMaxEnergyCut();
83 void SetMaxEnergyCut(G4double value); 99 void SetMaxEnergyCut(G4double value);
84 // Get/set max cut energy of RangeToEner << 100
85 // for all particle types <<
86 101
87 void DumpCouples() const; 102 void DumpCouples() const;
88 // Displays a list of registered couples << 103 // Display a list of registored couples
89 104
90 const G4MCCIndexConversionTable* GetMCCInd 105 const G4MCCIndexConversionTable* GetMCCIndexConversionTable() const;
91 // Gives the pointer to the MCCIndexConv << 106 // gives the pointer to the MCCIndexConversionTable
92 107
93 const std::vector<G4double>* GetRangeCutsV << 108 private:
94 const std::vector<G4double>* GetEnergyCuts <<
95 <<
96 std::size_t GetTableSize() const; <<
97 // Returns the size of the couple table <<
98 109
99 const G4MaterialCutsCouple* GetMaterialCut << 110 static G4ProductionCutsTable* fG4ProductionCutsTable;
100 // Returns the pointer to the couple <<
101 111
102 const G4MaterialCutsCouple* GetMaterialCut << 112 typedef std::vector<G4MaterialCutsCouple*> G4CoupleTable;
103 co << 113 typedef std::vector<G4MaterialCutsCouple*>::const_iterator CoupleTableIterator;
104 // Returns the pointer to the couple << 114 typedef std::vector<G4double> G4CutVectorForAParticle;
105 << 115 typedef std::vector<G4CutVectorForAParticle*> G4CutTable;
106 G4int GetCoupleIndex(const G4MaterialCutsC << 116 G4CoupleTable coupleTable;
107 G4int GetCoupleIndex(const G4Material* aMa << 117 G4CutTable rangeCutTable;
108 const G4ProductionCut << 118 G4CutTable energyCutTable;
109 // Return the index of the couple. << 119
110 // -1 is returned if index is not found << 120 G4RegionStore* fG4RegionStore;
>> 121 G4VRangeToEnergyConverter* converters[NumberOfG4CutIndex];
>> 122
>> 123 G4ProductionCuts* defaultProductionCuts;
>> 124
>> 125 G4MCCIndexConversionTable mccConversionTable;
>> 126
>> 127 // These two vectors are for the backward comparibility
>> 128 G4double* rangeDoubleVector[NumberOfG4CutIndex];
>> 129 G4double* energyDoubleVector[NumberOfG4CutIndex];
>> 130
>> 131 public:
>> 132 const std::vector<G4double>* GetRangeCutsVector(size_t pcIdx) const;
>> 133 const std::vector<G4double>* GetEnergyCutsVector(size_t pcIdx) const;
>> 134
>> 135 // These two vectors are for the backward comparibility
>> 136 G4double* GetRangeCutsDoubleVector(size_t pcIdx) const;
>> 137 G4double* GetEnergyCutsDoubleVector(size_t pcIdx) const;
>> 138
>> 139 public: // with description
>> 140 size_t GetTableSize() const;
>> 141 // This method returns the size of the couple table.
>> 142
>> 143 const G4MaterialCutsCouple* GetMaterialCutsCouple(G4int i) const;
>> 144 // This method returns the pointer to the couple.
>> 145
>> 146 const G4MaterialCutsCouple*
>> 147 GetMaterialCutsCouple(const G4Material* aMat,
>> 148 const G4ProductionCuts* aCut) const;
>> 149 // This method returns the pointer to the couple.
>> 150
>> 151 G4int GetCoupleIndex(const G4MaterialCutsCouple* aCouple) const;
>> 152 G4int GetCoupleIndex(const G4Material* aMat,
>> 153 const G4ProductionCuts* aCut) const;
>> 154 // These methods return the index of the couple.
>> 155 // -1 is returned if index is not found.
111 156
112 G4bool IsModified() const; << 157 G4bool IsModified() const;
113 // Returns TRUE if at least one producti << 158 // This method returns TRUE if at least one production cut value is modified.
114 159
115 void PhysicsTableUpdated(); << 160 void PhysicsTableUpdated();
116 // Resets the status of IsModified(). Th << 161 // This method resets the status of IsModified(). This method must
117 // used by the RunManager when physics t << 162 // be exclusively used by RunManager when physics tables are built.
118 163
119 G4ProductionCuts* GetDefaultProductionCuts << 164 G4ProductionCuts* GetDefaultProductionCuts() const;
120 // Returns the default production cuts << 165 // This method returns the default production cuts.
121 166
122 G4double ConvertRangeToEnergy(const G4Part << 167 G4double ConvertRangeToEnergy(const G4ParticleDefinition* particle,
123 const G4Mate << 168 const G4Material* material,
124 G4doub << 169 G4double range );
125 // Gives energy corresponding to range v << 170 // This method gives energy corresponding to range value
126 // -1 is returned if particle or materia << 171 //
127 << 172 // -1 is returned if particle or material is not found.
128 void ResetConverters(); << 173
129 // Resets all range to energy converters << 174 void ResetConverters();
130 << 175 // reset all Range To Energy Converters
131 G4bool StoreCutsTable(const G4String& dire << 176
132 G4bool ascii = false <<
133 // Stores cuts and material information <<
134 // the specified directory <<
135 <<
136 G4bool RetrieveCutsTable(const G4String& d <<
137 G4bool ascii = fa <<
138 // Retrieve material cut couple informat <<
139 // in files under the specified director <<
140 <<
141 G4bool CheckForRetrieveCutsTable(const G4S <<
142 G4bool as <<
143 // Checks stored material and cut values <<
144 // with the current detector setup <<
145 <<
146 G4double* GetRangeCutsDoubleVector(std::si <<
147 G4double* GetEnergyCutsDoubleVector(std::s <<
148 // Methods for backward compatibility <<
149 <<
150 void SetEnergyCutVector(const std::vector< <<
151 // User defined cut vectors (idx < 4) ra <<
152 // to avoid inconsistency in physics <<
153 <<
154 void SetVerboseLevel(G4int value); <<
155 G4int GetVerboseLevel() const; <<
156 // Control flag for output message <<
157 // 0: Silent <<
158 // 1: Warning message <<
159 // 2: More <<
160 <<
161 protected: <<
162 <<
163 G4ProductionCutsTable(); <<
164 <<
165 virtual G4bool StoreMaterialInfo(const G4S <<
166 G4bool as <<
167 // Stores material information in files <<
168 <<
169 virtual G4bool CheckMaterialInfo(const G4S <<
170 G4bool as <<
171 // Checks stored material is consistent <<
172 <<
173 virtual G4bool StoreMaterialCutsCoupleInfo <<
174 <<
175 // Stores materialCutsCouple information <<
176 // specified directory <<
177 <<
178 virtual G4bool CheckMaterialCutsCoupleInfo <<
179 <<
180 // Checks stored materialCutsCouple is c <<
181 // the current detector setup <<
182 <<
183 virtual G4bool StoreCutsInfo(const G4Strin <<
184 G4bool ascii <<
185 // Stores cut values information in file <<
186 <<
187 virtual G4bool RetrieveCutsInfo(const G4S <<
188 G4bool as <<
189 // Retrieves cut values information in f <<
190 // specified directory <<
191 <<
192 private: 177 private:
193 <<
194 void ScanAndSetCouple(G4LogicalVolume* aLV 178 void ScanAndSetCouple(G4LogicalVolume* aLV,
195 G4MaterialCutsCouple << 179 G4MaterialCutsCouple* aCouple,
196 G4Region* aRegion); << 180 G4Region* aRegion);
197 <<
198 G4bool IsCoupleUsedInTheRegion(const G4Mat <<
199 const G4Reg <<
200 181
>> 182 bool IsCoupleUsedInTheRegion(const G4MaterialCutsCouple* aCouple,
>> 183 const G4Region* aRegion) const;
201 184
202 private: << 185 public: // with description
203 << 186 // Store cuts and material information in files under the specified directory.
204 static G4ProductionCutsTable* fProductionC << 187 G4bool StoreCutsTable(const G4String& directory,
205 << 188 G4bool ascii = false);
206 std::vector<G4MaterialCutsCouple*> coupleT << 189
207 std::vector<std::vector<G4double>*> rangeC << 190 // Retrieve material cut couple information
208 std::vector<std::vector<G4double>*> energy << 191 // in files under the specified directory.
209 << 192 G4bool RetrieveCutsTable(const G4String& directory,
210 std::vector<G4double>* userEnergyCuts[4] = << 193 G4bool ascii = false);
>> 194
>> 195 // check stored material and cut values are consistent with the current detector setup.
>> 196 G4bool CheckForRetrieveCutsTable(const G4String& directory,
>> 197 G4bool ascii = false);
211 198
212 G4RegionStore* fG4RegionStore = nullptr; << 199 protected:
213 G4VRangeToEnergyConverter* converters[Numb <<
214 200
215 G4ProductionCuts* defaultProductionCuts = << 201 // Store material information in files under the specified directory.
>> 202 virtual G4bool StoreMaterialInfo(const G4String& directory,
>> 203 G4bool ascii = false);
>> 204
>> 205 // check stored material is consistent with the current detector setup.
>> 206 virtual G4bool CheckMaterialInfo(const G4String& directory,
>> 207 G4bool ascii = false);
>> 208
>> 209 // Store materialCutsCouple information in files under the specified directory.
>> 210 virtual G4bool StoreMaterialCutsCoupleInfo(const G4String& directory,
>> 211 G4bool ascii = false);
>> 212
>> 213 // check stored materialCutsCouple is consistent with the current detector setup.
>> 214 virtual G4bool CheckMaterialCutsCoupleInfo(const G4String& directory,
>> 215 G4bool ascii = false);
>> 216
>> 217 // Store cut values information in files under the specified directory.
>> 218 virtual G4bool StoreCutsInfo(const G4String& directory,
>> 219 G4bool ascii = false);
>> 220
>> 221 // Retrieve cut values information in files under the specified directory.
>> 222 virtual G4bool RetrieveCutsInfo(const G4String& directory,
>> 223 G4bool ascii = false);
216 224
217 G4MCCIndexConversionTable mccConversionTab << 225 private:
>> 226 G4bool firstUse;
>> 227 enum { FixedStringLengthForStore = 32 };
218 228
219 // These two vectors are for backward comp << 229 public: // with description
220 G4double* rangeDoubleVector[NumberOfG4CutI << 230 void SetVerboseLevel(G4int value);
221 G4double* energyDoubleVector[NumberOfG4Cut << 231 G4int GetVerboseLevel() const;
>> 232 // controle flag for output message
>> 233 // 0: Silent
>> 234 // 1: Warning message
>> 235 // 2: More
222 236
223 enum { FixedStringLengthForStore = 32 }; << 237 private:
>> 238 G4int verboseLevel;
>> 239 G4ProductionCutsTableMessenger* fMessenger;
224 240
225 G4ProductionCutsTableMessenger* fMessenger <<
226 G4int verboseLevel = 1; <<
227 G4bool firstUse = true; <<
228 }; 241 };
229 242
230 // ------------------ <<
231 // Inline methods <<
232 // ------------------ <<
233 <<
234 inline 243 inline
235 const std::vector<G4double>* << 244 const std::vector<G4double>* G4ProductionCutsTable::GetRangeCutsVector(size_t pcIdx) const
236 G4ProductionCutsTable::GetRangeCutsVector(std: <<
237 { 245 {
238 return rangeCutTable[pcIdx]; 246 return rangeCutTable[pcIdx];
239 } 247 }
240 248
241 inline 249 inline
242 const std::vector<G4double>* << 250 const std::vector<G4double>* G4ProductionCutsTable::GetEnergyCutsVector(size_t pcIdx) const
243 G4ProductionCutsTable::GetEnergyCutsVector(std <<
244 { 251 {
245 return energyCutTable[pcIdx]; << 252 return energyCutTable[pcIdx];
246 } 253 }
247 254
248 inline 255 inline
249 std::size_t G4ProductionCutsTable::GetTableSiz << 256 size_t G4ProductionCutsTable::GetTableSize() const
250 { 257 {
251 return coupleTable.size(); 258 return coupleTable.size();
252 } 259 }
253 260
254 inline 261 inline
255 const G4MaterialCutsCouple* << 262 const G4MaterialCutsCouple* G4ProductionCutsTable::GetMaterialCutsCouple(G4int i) const
256 G4ProductionCutsTable::GetMaterialCutsCouple(G <<
257 { 263 {
258 return coupleTable[std::size_t(i)]; << 264 return coupleTable[size_t(i)];
259 } 265 }
260 266
261 inline 267 inline
262 G4bool G4ProductionCutsTable::IsModified() con << 268 G4bool G4ProductionCutsTable::IsModified() const
263 { 269 {
264 if(firstUse) return true; 270 if(firstUse) return true;
265 for(auto itr=coupleTable.cbegin(); itr!=coup << 271 for(G4ProductionCutsTable::CoupleTableIterator itr=coupleTable.begin();
266 { << 272 itr!=coupleTable.end();itr++){
267 if((*itr)->IsRecalcNeeded()) 273 if((*itr)->IsRecalcNeeded())
268 { 274 {
269 return true; 275 return true;
270 } 276 }
271 } 277 }
272 return false; 278 return false;
273 } 279 }
274 280
275 inline 281 inline
276 void G4ProductionCutsTable::PhysicsTableUpdate << 282 void G4ProductionCutsTable::PhysicsTableUpdated()
277 { 283 {
278 for(auto itr=coupleTable.cbegin(); itr!=coup << 284 for(G4ProductionCutsTable::CoupleTableIterator itr=coupleTable.begin();itr!=coupleTable.end();itr++){
279 { <<
280 (*itr)->PhysicsTableUpdated(); 285 (*itr)->PhysicsTableUpdated();
281 } 286 }
282 } 287 }
283 288
284 inline 289 inline
285 G4double* << 290 G4double* G4ProductionCutsTable::GetRangeCutsDoubleVector(size_t pcIdx) const
286 G4ProductionCutsTable::GetRangeCutsDoubleVecto << 291 { return rangeDoubleVector[pcIdx]; }
287 { <<
288 return rangeDoubleVector[pcIdx]; <<
289 } <<
290 292
291 inline 293 inline
292 G4double* << 294 G4double* G4ProductionCutsTable::GetEnergyCutsDoubleVector(size_t pcIdx) const
293 G4ProductionCutsTable::GetEnergyCutsDoubleVect << 295 { return energyDoubleVector[pcIdx]; }
294 { <<
295 return energyDoubleVector[pcIdx]; <<
296 } <<
297 296
298 inline 297 inline
299 G4ProductionCuts* G4ProductionCutsTable::GetDe << 298 G4ProductionCuts* G4ProductionCutsTable::GetDefaultProductionCuts() const
300 { << 299 { return defaultProductionCuts; }
301 return defaultProductionCuts; <<
302 } <<
303 300
304 inline 301 inline
305 G4bool G4ProductionCutsTable::IsCoupleUsedInTh << 302 bool G4ProductionCutsTable::IsCoupleUsedInTheRegion(
306 const G4Mater 303 const G4MaterialCutsCouple* aCouple,
307 const G4Regio 304 const G4Region* aRegion) const
308 { 305 {
309 G4ProductionCuts* fProductionCut = aRegion-> 306 G4ProductionCuts* fProductionCut = aRegion->GetProductionCuts();
310 auto mItr = aRegion->GetMaterialIterator(); << 307 std::vector<G4Material*>::const_iterator mItr = aRegion->GetMaterialIterator();
311 std::size_t nMaterial = aRegion->GetNumberOf << 308 size_t nMaterial = aRegion->GetNumberOfMaterials();
312 for(std::size_t iMate=0;iMate<nMaterial; ++i << 309 for(size_t iMate=0;iMate<nMaterial;iMate++, mItr++){
313 { <<
314 if(aCouple->GetMaterial()==(*mItr) && 310 if(aCouple->GetMaterial()==(*mItr) &&
315 aCouple->GetProductionCuts()==fProducti << 311 aCouple->GetProductionCuts()==fProductionCut){
316 { <<
317 return true; 312 return true;
318 } 313 }
319 } 314 }
320 return false; 315 return false;
321 } 316 }
322 317
323 inline 318 inline
324 const G4MaterialCutsCouple* 319 const G4MaterialCutsCouple*
325 G4ProductionCutsTable::GetMaterialCutsCouple(c << 320 G4ProductionCutsTable::GetMaterialCutsCouple(const G4Material* aMat,
326 c << 321 const G4ProductionCuts* aCut) const
327 { << 322 {
328 for(auto cItr=coupleTable.cbegin(); cItr!=co << 323 for(CoupleTableIterator cItr=coupleTable.begin();cItr!=coupleTable.end();cItr++)
329 { 324 {
330 if((*cItr)->GetMaterial()!=aMat) continue; 325 if((*cItr)->GetMaterial()!=aMat) continue;
331 if((*cItr)->GetProductionCuts()==aCut) ret 326 if((*cItr)->GetProductionCuts()==aCut) return (*cItr);
332 } 327 }
333 return nullptr; << 328 return 0;
334 } 329 }
335 330
336 inline 331 inline
337 G4int << 332 G4int G4ProductionCutsTable::GetCoupleIndex(const G4MaterialCutsCouple* aCouple) const
338 G4ProductionCutsTable::GetCoupleIndex(const G4 <<
339 { 333 {
340 G4int idx = 0; 334 G4int idx = 0;
341 for(auto cItr=coupleTable.cbegin(); cItr!=co << 335 for(CoupleTableIterator cItr=coupleTable.begin();cItr!=coupleTable.end();cItr++)
342 { 336 {
343 if((*cItr)==aCouple) return idx; 337 if((*cItr)==aCouple) return idx;
344 ++idx; << 338 idx++;
345 } 339 }
346 return -1; 340 return -1;
347 } 341 }
348 342
349 inline 343 inline
350 G4int G4ProductionCutsTable::GetCoupleIndex(co << 344 G4int G4ProductionCutsTable:: GetCoupleIndex(const G4Material* aMat,
351 co << 345 const G4ProductionCuts* aCut) const
352 { 346 {
353 const G4MaterialCutsCouple* aCouple = GetMat 347 const G4MaterialCutsCouple* aCouple = GetMaterialCutsCouple(aMat,aCut);
354 return GetCoupleIndex(aCouple); 348 return GetCoupleIndex(aCouple);
355 } 349 }
356 350
357 inline 351 inline
358 G4int G4ProductionCutsTable::GetVerboseLevel() << 352 G4int G4ProductionCutsTable::GetVerboseLevel() const
359 { 353 {
360 return verboseLevel; << 354 return verboseLevel;
361 } 355 }
362 356
363 inline 357 inline
364 const G4MCCIndexConversionTable* << 358 const G4MCCIndexConversionTable*
365 G4ProductionCutsTable::GetMCCIndexConversionTa << 359 G4ProductionCutsTable::GetMCCIndexConversionTable() const
366 { 360 {
367 return &mccConversionTable; 361 return &mccConversionTable;
368 } 362 }
369 363
370 #endif 364 #endif
>> 365
>> 366
>> 367
>> 368
>> 369
>> 370
371 371