| Geant4 Cross Reference |
1 // 1 //
2 // ******************************************* 2 // ********************************************************************
3 // * License and Disclaimer 3 // * License and Disclaimer *
4 // * 4 // * *
5 // * The Geant4 software is copyright of th 5 // * The Geant4 software is copyright of the Copyright Holders of *
6 // * the Geant4 Collaboration. It is provided 6 // * the Geant4 Collaboration. It is provided under the terms and *
7 // * conditions of the Geant4 Software License 7 // * conditions of the Geant4 Software License, included in the file *
8 // * LICENSE and available at http://cern.ch/ 8 // * LICENSE and available at http://cern.ch/geant4/license . These *
9 // * include a list of copyright holders. 9 // * include a list of copyright holders. *
10 // * 10 // * *
11 // * Neither the authors of this software syst 11 // * Neither the authors of this software system, nor their employing *
12 // * institutes,nor the agencies providing fin 12 // * institutes,nor the agencies providing financial support for this *
13 // * work make any representation or warran 13 // * work make any representation or warranty, express or implied, *
14 // * regarding this software system or assum 14 // * regarding this software system or assume any liability for its *
15 // * use. Please see the license in the file 15 // * use. Please see the license in the file LICENSE and URL above *
16 // * for the full disclaimer and the limitatio 16 // * for the full disclaimer and the limitation of liability. *
17 // * 17 // * *
18 // * This code implementation is the result 18 // * This code implementation is the result of the scientific and *
19 // * technical work of the GEANT4 collaboratio 19 // * technical work of the GEANT4 collaboration. *
20 // * By using, copying, modifying or distri 20 // * By using, copying, modifying or distributing the software (or *
21 // * any work based on the software) you ag 21 // * any work based on the software) you agree to acknowledge its *
22 // * use in resulting scientific publicati 22 // * use in resulting scientific publications, and indicate your *
23 // * acceptance of all terms of the Geant4 Sof 23 // * acceptance of all terms of the Geant4 Software license. *
24 // ******************************************* 24 // ********************************************************************
25 // 25 //
26 // G4VScoringMesh <<
27 // 26 //
28 // Class description: <<
29 // 27 //
30 // This class represents a multi-functional de << 28
31 // command-based scorer for parallel world sco <<
32 // parallel world mesh geometry <<
33 // <<
34 // Author: Makoto Asai <<
35 // ------------------------------------------- <<
36 #ifndef G4VScoringMesh_h 29 #ifndef G4VScoringMesh_h
37 #define G4VScoringMesh_h 1 30 #define G4VScoringMesh_h 1
38 31
39 #include "globals.hh" 32 #include "globals.hh"
40 #include "G4THitsMap.hh" 33 #include "G4THitsMap.hh"
41 #include "G4RotationMatrix.hh" 34 #include "G4RotationMatrix.hh"
42 #include "G4StatDouble.hh" 35 #include "G4StatDouble.hh"
43 36
44 #include <map> <<
45 <<
46 class G4VPhysicalVolume; 37 class G4VPhysicalVolume;
47 class G4LogicalVolume; 38 class G4LogicalVolume;
48 class G4MultiFunctionalDetector; 39 class G4MultiFunctionalDetector;
49 class G4VPrimitiveScorer; 40 class G4VPrimitiveScorer;
50 class G4VSDFilter; 41 class G4VSDFilter;
51 class G4VScoreColorMap; 42 class G4VScoreColorMap;
52 class G4ParallelWorldProcess; 43 class G4ParallelWorldProcess;
53 44
>> 45 #include <map>
>> 46
>> 47 // class description:
>> 48 //
>> 49 // This class represents a multi-functional detector to be used by command-based scorer
>> 50 // For parallel world scorer, this class creates a parallel world mesh geometry
>> 51 //
>> 52
54 class G4VScoringMesh 53 class G4VScoringMesh
55 { 54 {
56 public: << 55 public:
57 enum class MeshShape << 56 enum class MeshShape { box, cylinder, sphere, realWorldLogVol, undefined = -1};
58 { << 57 using EventScore = G4THitsMap< G4double >;
59 box, << 58 using RunScore = G4THitsMap< G4StatDouble >;
60 cylinder, << 59 using MeshScoreMap = std::map< G4String, RunScore* >;
61 sphere, <<
62 realWorldLogVol, <<
63 probe, <<
64 undefined = -1 <<
65 }; <<
66 using EventScore = G4THitsMap<G4double>; <<
67 using RunScore = G4THitsMap<G4StatDouble <<
68 using MeshScoreMap = std::map<G4String, RunS <<
69 <<
70 public: <<
71 60
>> 61 public:
72 G4VScoringMesh(const G4String& wName); 62 G4VScoringMesh(const G4String& wName);
73 virtual ~G4VScoringMesh() = default; << 63 virtual ~G4VScoringMesh();
74 64
75 virtual void Construct(G4VPhysicalVolume* fW << 65 public: // with description
76 virtual void WorkerConstruct(G4VPhysicalVolu << 66 // a pure virtual function to construct this mesh geometry
>> 67 void Construct(G4VPhysicalVolume* fWorldPhys);
77 68
78 // list infomration of this mesh << 69 void WorkerConstruct(G4VPhysicalVolume* fWorldPhys);
79 virtual void List() const; << 70
>> 71 protected:
>> 72 virtual void SetupGeometry(G4VPhysicalVolume * fWorldPhys) = 0;
80 73
>> 74 public: // with description
>> 75 // list infomration of this mesh
>> 76 virtual void List() const;
>> 77
>> 78 public: // with description
81 // get the world name 79 // get the world name
82 // If this ScoringMesh is for parallel world << 80 // If this ScoringMesh is for parallel world, it returns the name of the parallel world
83 // parallel world If this ScoringMesh is for << 81 // If this ScoringMesh is for real world logical volume, it returns name of logical volume
84 // returns name of logical volume << 82 inline const G4String& GetWorldName() const
85 inline const G4String& GetWorldName() const << 83 { return fWorldName; }
86 // get whether this mesh is active or not 84 // get whether this mesh is active or not
87 inline G4bool IsActive() const { return fAct << 85 inline G4bool IsActive() const
>> 86 { return fActive; }
88 // set an activity of this mesh 87 // set an activity of this mesh
89 inline void Activate(G4bool vl = true) { fAc << 88 inline void Activate(G4bool vl = true)
>> 89 { fActive = vl; }
90 // get the shape of this mesh 90 // get the shape of this mesh
91 inline MeshShape GetShape() const { return f << 91 inline MeshShape GetShape() const
>> 92 { return fShape; }
92 // accumulate hits in a registered primitive 93 // accumulate hits in a registered primitive scorer
93 void Accumulate(G4THitsMap<G4double>* map); << 94 void Accumulate(G4THitsMap<G4double> * map);
94 void Accumulate(G4THitsMap<G4StatDouble>* ma << 95 void Accumulate(G4THitsMap<G4StatDouble> * map);
95 // merge same kind of meshes 96 // merge same kind of meshes
96 void Merge(const G4VScoringMesh* scMesh); << 97 void Merge(const G4VScoringMesh * scMesh);
97 // dump information of primitive socrers reg 98 // dump information of primitive socrers registered in this mesh
98 void Dump(); 99 void Dump();
99 // draw a projected quantity on a current vi 100 // draw a projected quantity on a current viewer
100 void DrawMesh(const G4String& psName, G4VSco << 101 void DrawMesh(const G4String& psName,G4VScoreColorMap* colorMap,G4int axflg=111);
101 G4int axflg = 111); <<
102 // draw a column of a quantity on a current 102 // draw a column of a quantity on a current viewer
103 void DrawMesh(const G4String& psName, G4int << 103 void DrawMesh(const G4String& psName,G4int idxPlane,G4int iColumn,G4VScoreColorMap* colorMap);
104 G4VScoreColorMap* colorMap); <<
105 // draw a projected quantity on a current vi 104 // draw a projected quantity on a current viewer
106 virtual void Draw(RunScore* map, G4VScoreCol << 105 virtual void Draw(RunScore * map, G4VScoreColorMap* colorMap, G4int axflg=111) = 0;
107 G4int axflg = 111) = 0; <<
108 // draw a column of a quantity on a current 106 // draw a column of a quantity on a current viewer
109 virtual void DrawColumn(RunScore* map, G4VSc << 107 virtual void DrawColumn(RunScore * map, G4VScoreColorMap* colorMap,
110 G4int idxProj, G4int << 108 G4int idxProj, G4int idxColumn) = 0;
111 // reset registered primitive scorers 109 // reset registered primitive scorers
112 void ResetScore(); 110 void ResetScore();
113 111
114 // Following set/get methods make sense only 112 // Following set/get methods make sense only for parallel world scoring mesh
115 // set size of this mesh 113 // set size of this mesh
116 void SetSize(G4double size[3]); 114 void SetSize(G4double size[3]);
117 // get size of this mesh 115 // get size of this mesh
118 G4ThreeVector GetSize() const; 116 G4ThreeVector GetSize() const;
119 // set starting and span angles (used only f <<
120 void SetAngles(G4double, G4double); <<
121 // get angles (used only for tube segment) <<
122 inline G4double GetStartAngle() const { retu <<
123 inline G4double GetAngleSpan() const { retur <<
124 // set position of center of this mesh 117 // set position of center of this mesh
125 void SetCenterPosition(G4double centerPositi 118 void SetCenterPosition(G4double centerPosition[3]);
126 // get position of center of this mesh 119 // get position of center of this mesh
127 G4ThreeVector GetTranslation() const { retur << 120 G4ThreeVector GetTranslation() const {return fCenterPosition;}
128 // set a rotation angle around the x axis 121 // set a rotation angle around the x axis
129 void RotateX(G4double delta); 122 void RotateX(G4double delta);
130 // set a rotation angle around the y axis 123 // set a rotation angle around the y axis
131 void RotateY(G4double delta); 124 void RotateY(G4double delta);
132 // set a rotation angle around the z axis 125 // set a rotation angle around the z axis
133 void RotateZ(G4double delta); 126 void RotateZ(G4double delta);
134 // get a rotation matrix 127 // get a rotation matrix
135 inline G4RotationMatrix GetRotationMatrix() << 128 G4RotationMatrix GetRotationMatrix() const {
136 { << 129 if(fRotationMatrix) return *fRotationMatrix;
137 if(fRotationMatrix != nullptr) << 130 else return G4RotationMatrix::IDENTITY;
138 return *fRotationMatrix; <<
139 return G4RotationMatrix::IDENTITY; <<
140 } 131 }
141 132
142 // set number of segments of this mesh 133 // set number of segments of this mesh
143 void SetNumberOfSegments(G4int nSegment[3]); 134 void SetNumberOfSegments(G4int nSegment[3]);
144 // get number of segments of this mesh 135 // get number of segments of this mesh
145 void GetNumberOfSegments(G4int nSegment[3]); 136 void GetNumberOfSegments(G4int nSegment[3]);
146 137
147 // register a primitive scorer to the MFD & << 138 // register a primitive scorer to the MFD & set it to the current primitive scorer
148 // scorer << 139 void SetPrimitiveScorer(G4VPrimitiveScorer * ps);
149 void SetPrimitiveScorer(G4VPrimitiveScorer* <<
150 // register a filter to a current primtive s 140 // register a filter to a current primtive scorer
151 void SetFilter(G4VSDFilter* filter); << 141 void SetFilter(G4VSDFilter * filter);
152 // set a primitive scorer to the current one 142 // set a primitive scorer to the current one by the name
153 void SetCurrentPrimitiveScorer(const G4Strin << 143 void SetCurrentPrimitiveScorer(const G4String & name);
154 // find registered primitive scorer by the n 144 // find registered primitive scorer by the name
155 G4bool FindPrimitiveScorer(const G4String& p << 145 G4bool FindPrimitiveScorer(const G4String & psname);
156 // get whether current primitive scorer is s 146 // get whether current primitive scorer is set or not
157 inline G4bool IsCurrentPrimitiveScorerNull() << 147 G4bool IsCurrentPrimitiveScorerNull() {
158 { << 148 if(fCurrentPS == nullptr) return true;
159 return fCurrentPS == nullptr; << 149 else return false;
160 } 150 }
161 // get unit of primitive scorer by the name 151 // get unit of primitive scorer by the name
162 G4String GetPSUnit(const G4String& psname); << 152 G4String GetPSUnit(const G4String & psname);
163 // get unit of current primitive scorer 153 // get unit of current primitive scorer
164 G4String GetCurrentPSUnit(); 154 G4String GetCurrentPSUnit();
165 // set unit of current primitive scorer 155 // set unit of current primitive scorer
166 void SetCurrentPSUnit(const G4String& unit); 156 void SetCurrentPSUnit(const G4String& unit);
167 // get unit value of primitive scorer by the 157 // get unit value of primitive scorer by the name
168 G4double GetPSUnitValue(const G4String& psna << 158 G4double GetPSUnitValue(const G4String & psname);
169 // set PS name to be drawn 159 // set PS name to be drawn
170 inline void SetDrawPSName(const G4String& ps << 160 void SetDrawPSName(const G4String & psname) {fDrawPSName = psname;}
171 161
172 // get axis names of the hierarchical divisi 162 // get axis names of the hierarchical division in the divided order
173 void GetDivisionAxisNames(G4String divisionA 163 void GetDivisionAxisNames(G4String divisionAxisNames[3]);
174 164
175 // set current primitive scorer to NULL 165 // set current primitive scorer to NULL
176 void SetNullToCurrentPrimitiveScorer() { fCu << 166 void SetNullToCurrentPrimitiveScorer() {fCurrentPS = nullptr;}
177 // set verbose level 167 // set verbose level
178 inline void SetVerboseLevel(G4int vl) { verb << 168 inline void SetVerboseLevel(G4int vl)
>> 169 { verboseLevel = vl; }
179 // get the primitive scorer map 170 // get the primitive scorer map
180 inline MeshScoreMap GetScoreMap() const { re << 171 inline MeshScoreMap GetScoreMap() const
>> 172 { return fMap; }
181 // get whether this mesh setup has been read 173 // get whether this mesh setup has been ready
182 inline G4bool ReadyForQuantity() const { ret << 174 inline G4bool ReadyForQuantity() const
>> 175 { return (sizeIsSet && nMeshIsSet); }
183 176
184 // protected: << 177 protected:
185 // get registered primitive socrer by the na 178 // get registered primitive socrer by the name
186 G4VPrimitiveScorer* GetPrimitiveScorer(const << 179 G4VPrimitiveScorer * GetPrimitiveScorer(const G4String & name);
187 <<
188 inline void SetMeshElementLogical(G4LogicalV <<
189 { <<
190 fMeshElementLogical = val; <<
191 } <<
192 inline G4LogicalVolume* GetMeshElementLogica <<
193 { <<
194 return fMeshElementLogical; <<
195 } <<
196 180
197 inline void SetParallelWorldProcess(G4Parall << 181 protected:
198 { << 182 G4String fWorldName;
199 fParallelWorldProcess = proc; << 183 G4VPrimitiveScorer * fCurrentPS;
200 } << 184 G4bool fConstructed;
201 inline G4ParallelWorldProcess* GetParallelWo << 185 G4bool fActive;
202 { <<
203 return fParallelWorldProcess; <<
204 } <<
205 inline void GeometryHasBeenDestroyed() <<
206 { <<
207 fGeometryHasBeenDestroyed = true; <<
208 fMeshElementLogical = nullptr; <<
209 } <<
210 <<
211 // Geometry hirarchy level (bottom = 0) to b <<
212 // This is used only for real-world scorer <<
213 inline void SetCopyNumberLevel(G4int val) { <<
214 inline G4int GetCopyNumberLevel() const { re <<
215 <<
216 inline G4bool LayeredMassFlg() { return laye <<
217 <<
218 protected: <<
219 <<
220 // a pure virtual function to construct this <<
221 virtual void SetupGeometry(G4VPhysicalVolume <<
222 <<
223 protected: <<
224 <<
225 G4String fWorldName; <<
226 G4VPrimitiveScorer* fCurrentPS; <<
227 G4bool fConstructed; <<
228 G4bool fActive; <<
229 MeshShape fShape; 186 MeshShape fShape;
230 187
231 G4double fSize[3]; 188 G4double fSize[3];
232 G4double fAngle[2]; <<
233 G4ThreeVector fCenterPosition; 189 G4ThreeVector fCenterPosition;
234 G4RotationMatrix* fRotationMatrix; << 190 G4RotationMatrix * fRotationMatrix;
235 G4int fNSegment[3]; 191 G4int fNSegment[3];
236 192
237 MeshScoreMap fMap; 193 MeshScoreMap fMap;
238 G4MultiFunctionalDetector* fMFD; << 194 G4MultiFunctionalDetector * fMFD;
239 195
240 G4int verboseLevel; 196 G4int verboseLevel;
241 197
242 G4bool sizeIsSet; 198 G4bool sizeIsSet;
243 G4bool nMeshIsSet; 199 G4bool nMeshIsSet;
244 200
245 G4String fDrawUnit; 201 G4String fDrawUnit;
246 G4double fDrawUnitValue; 202 G4double fDrawUnitValue;
247 G4String fDrawPSName; 203 G4String fDrawPSName;
248 204
249 G4String fDivisionAxisNames[3]; 205 G4String fDivisionAxisNames[3];
250 206
251 G4LogicalVolume* fMeshElementLogical; << 207 G4LogicalVolume * fMeshElementLogical;
252 208
>> 209 public:
>> 210 inline void SetMeshElementLogical(G4LogicalVolume* val)
>> 211 { fMeshElementLogical = val; }
>> 212 inline G4LogicalVolume* GetMeshElementLogical() const
>> 213 { return fMeshElementLogical; }
>> 214
>> 215 protected:
253 G4ParallelWorldProcess* fParallelWorldProces 216 G4ParallelWorldProcess* fParallelWorldProcess;
254 G4bool fGeometryHasBeenDestroyed; 217 G4bool fGeometryHasBeenDestroyed;
255 << 218 public:
256 G4int copyNumberLevel; << 219 inline void SetParallelWorldProcess(G4ParallelWorldProcess* proc)
>> 220 { fParallelWorldProcess = proc; }
>> 221 inline G4ParallelWorldProcess* GetParallelWorldProcess() const
>> 222 { return fParallelWorldProcess; }
>> 223 inline void GeometryHasBeenDestroyed()
>> 224 {
>> 225 fGeometryHasBeenDestroyed = true;
>> 226 fMeshElementLogical = nullptr;
>> 227 }
257 228
258 // This flag may be set to true for Probe sc << 229 protected:
259 // There is no public set method for this bo << 230 G4int copyNumberLevel;
260 // to true through SetMaterial() method of P << 231 public:
261 G4bool layeredMassFlg; << 232 // Geometry hirarchy level (bottom = 0) to be used as the copy number
>> 233 // This is used only for real-world scorer
>> 234 inline void SetCopyNumberLevel(G4int val)
>> 235 { copyNumberLevel = val; }
>> 236 inline G4int GetCopyNumberLevel() const
>> 237 { return copyNumberLevel; }
262 }; 238 };
263 239
264 #endif 240 #endif
>> 241
265 242