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25 // 25 //
26 #ifndef PAR04HIT_HH 26 #ifndef PAR04HIT_HH
27 #define PAR04HIT_HH 27 #define PAR04HIT_HH
28 28
29 #include "G4Allocator.hh" // for G4Allocator << 29 #include <stddef.h> // for size_t
30 #include "G4RotationMatrix.hh" // for G4Rotat << 30 #include <G4Types.hh> // for G4int, G4double
31 #include "G4THitsCollection.hh" // for G4THit << 31 #include <map> // for map
32 #include "G4ThreeVector.hh" // for G4ThreeVec << 32 #include <tls.hh> // for G4ThreadLocal
33 #include "G4VHit.hh" // for G4VHit << 33 #include <vector> // for vector
34 << 34 #include "G4Allocator.hh" // for G4Allocator
35 #include <G4Types.hh> // for G4int, G4double << 35 #include "G4RotationMatrix.hh" // for G4RotationMatrix
36 #include <map> // for map << 36 #include "G4THitsCollection.hh" // for G4THitsCollection
37 #include <stddef.h> // for size_t << 37 #include "G4ThreeVector.hh" // for G4ThreeVector
38 #include <tls.hh> // for G4ThreadLocal << 38 #include "G4VHit.hh" // for G4VHit
39 #include <vector> // for vector <<
40 class G4AttDef; 39 class G4AttDef;
41 class G4AttValue; 40 class G4AttValue;
42 class G4LogicalVolume; 41 class G4LogicalVolume;
43 class G4String; 42 class G4String;
44 43
45 /** 44 /**
46 * @brief Hit class to store energy deposited 45 * @brief Hit class to store energy deposited in the sensitive detector.
47 * 46 *
48 * Hit class registers position and energy dep 47 * Hit class registers position and energy deposited within the sensitive
49 * detector. Cell ID is stored using identifie 48 * detector. Cell ID is stored using identifiers of readout segmentation (z,
50 * phi, rho). Additionally, pointer to cell lo 49 * phi, rho). Additionally, pointer to cell logical volume, its position and
51 * rotation are saved for visualisation purpos 50 * rotation are saved for visualisation purposes. Time allows to filter hits in
52 * visualisation. Type of hit allows to distin 51 * visualisation. Type of hit allows to distinguish between hits originating
53 * from full simulation (type 0) and fast simu 52 * from full simulation (type 0) and fast simulation (type 1).
54 * 53 *
55 */ 54 */
56 55
57 class Par04Hit : public G4VHit 56 class Par04Hit : public G4VHit
58 { 57 {
59 public: << 58 public:
60 Par04Hit(); << 59 Par04Hit();
61 Par04Hit(const Par04Hit& aRight); << 60 Par04Hit(const Par04Hit& aRight);
62 virtual ~Par04Hit(); << 61 virtual ~Par04Hit();
63 << 62
64 const Par04Hit& operator=(const Par04Hit& << 63 const Par04Hit& operator=(const Par04Hit& aRight);
65 int operator==(const Par04Hit& aRight) con << 64 int operator==(const Par04Hit& aRight) const;
66 << 65
67 inline void* operator new(size_t); << 66 inline void* operator new(size_t);
68 inline void operator delete(void* aHit); << 67 inline void operator delete(void* aHit);
69 /// Visualise hits. If pointer to the logi << 68 /// Visualise hits. If pointer to the logical volume was set, cell shape is
70 /// drawn taking into account proper radia << 69 /// drawn taking into account proper radial position (taken from fRhoId)
71 virtual void Draw() final; << 70 virtual void Draw() final;
72 /// Retrieve atributes' names in order to << 71 /// Retrieve atributes' names in order to allow filtering
73 virtual const std::map<G4String, G4AttDef> << 72 virtual const std::map<G4String, G4AttDef>* GetAttDefs() const final;
74 /// Create attributes for the visualisatio << 73 /// Create attributes for the visualisation.
75 virtual std::vector<G4AttValue>* CreateAtt << 74 virtual std::vector<G4AttValue>* CreateAttValues() const final;
76 /// Print hit properties. << 75 /// Print hit properties.
77 virtual void Print() final; << 76 virtual void Print() final;
78 /// Set position << 77 /// Set position
79 inline void SetPos(G4ThreeVector aXYZ) { f << 78 inline void SetPos(G4ThreeVector aXYZ) { fPos = aXYZ; }
80 /// Get position << 79 /// Get position
81 inline G4ThreeVector GetPos() const { retu << 80 inline G4ThreeVector GetPos() const { return fPos; }
82 /// Set rotation << 81 /// Set rotation
83 inline void SetRot(G4RotationMatrix aXYZ) << 82 inline void SetRot(G4RotationMatrix aXYZ) { fRot = aXYZ; }
84 /// Get rotation << 83 /// Get rotation
85 inline G4RotationMatrix GetRot() const { r << 84 inline G4RotationMatrix GetRot() const { return fRot; }
86 /// Set energy << 85 /// Set energy
87 inline void SetEdep(G4double aEdep) { fEde << 86 inline void SetEdep(G4double aEdep) { fEdep = aEdep; }
88 /// Add energy to previous value << 87 /// Add energy to previous value
89 inline void AddEdep(G4double aEdep) { fEde << 88 inline void AddEdep(G4double aEdep) { fEdep += aEdep; }
90 /// Get energy << 89 /// Get energy
91 inline G4double GetEdep() const { return f << 90 inline G4double GetEdep() const { return fEdep; }
92 /// Set number of deposits per hit/cell << 91 /// Set Z id of the cell in the readout segmentation
93 inline void SetNdep(G4int aNdep) { fNdep = << 92 inline void SetZid(G4int aZ) { fZId = aZ; }
94 /// Add number of deposits to previous val << 93 /// Get Z id of the cell in the readout segmentation
95 inline void AddNdep(G4int aNdep = 1) { fNd << 94 inline G4int GetZid() const { return fZId; }
96 /// Get number of deposits per hit/cell << 95 /// Set Rho id of the cell in the readout segmentation
97 inline G4int GetNdep() const { return fNde << 96 inline void SetRhoId(G4int aRho) { fRhoId = aRho; }
98 /// Set Z id of the cell in the readout se << 97 /// Get rho id of the cell in the readout segmentation
99 inline void SetZid(G4int aZ) { fZId = aZ; << 98 inline G4int GetRhoId() const { return fRhoId; }
100 /// Get Z id of the cell in the readout se << 99 /// Set phi id of the cell in the readout segmentation
101 inline G4int GetZid() const { return fZId; << 100 inline void SetPhiId(G4int aPhi) { fPhiId = aPhi; }
102 /// Set Rho id of the cell in the readout << 101 /// Get phi id of the cell in the readout segmentation
103 inline void SetRhoId(G4int aRho) { fRhoId << 102 inline G4int GetPhiId() const { return fPhiId; }
104 /// Get rho id of the cell in the readout << 103 /// Set time
105 inline G4int GetRhoId() const { return fRh << 104 inline void SetTime(G4double aTime) { fTime = aTime; }
106 /// Set phi id of the cell in the readout << 105 /// Get time
107 inline void SetPhiId(G4int aPhi) { fPhiId << 106 inline G4double GetTime() const { return fTime; }
108 /// Get phi id of the cell in the readout << 107 /// Set type (0 = full sim, 1 = fast sim)
109 inline G4int GetPhiId() const { return fPh << 108 inline void SetType(G4int aType) { fType = aType; }
110 /// Set time << 109 /// Get type (0 = full sim, 1 = fast sim)
111 inline void SetTime(G4double aTime) { fTim << 110 inline G4int GetType() const { return fType; }
112 /// Get time << 111 // Set pointer to cell logical volume
113 inline G4double GetTime() const { return f << 112 inline void SetLogV(G4LogicalVolume* aLogVol) { fLogVol = aLogVol; }
114 /// Set type (0 = full sim, 1 = fast sim) << 113 // Get pointer to cell logical volume
115 inline void SetType(G4int aType) { fType = << 114 inline const G4LogicalVolume* GetLogVol() { return fLogVol; }
116 /// Get type (0 = full sim, 1 = fast sim) << 115
117 inline G4int GetType() const { return fTyp << 116 public:
118 // Set pointer to cell logical volume << 117 /// Energy deposit
119 inline void SetLogV(G4LogicalVolume* aLogV << 118 G4double fEdep = 0;
120 // Get pointer to cell logical volume << 119 /// Z ID of readout cell
121 inline const G4LogicalVolume* GetLogVol() << 120 G4int fZId = -1;
122 << 121 /// Rho ID of readout cell
123 public: << 122 G4int fRhoId = -1;
124 /// Energy deposit << 123 /// Phi ID of readout cell
125 G4double fEdep = 0; << 124 G4int fPhiId = -1;
126 /// Counter of deposits in a hit/cell << 125 /// Position
127 G4int fNdep = 0; << 126 G4ThreeVector fPos = { -1, -1, -1 };
128 /// Z ID of readout cell << 127 /// Rotation
129 G4int fZId = -1; << 128 G4RotationMatrix fRot;
130 /// Rho ID of readout cell << 129 /// Time
131 G4int fRhoId = -1; << 130 G4double fTime = -1;
132 /// Phi ID of readout cell << 131 /// Type: 0 = full sim, 1 = fast sim
133 G4int fPhiId = -1; << 132 G4int fType = -1;
134 /// Position << 133 /// Pointer to logical volume for visualisation
135 G4ThreeVector fPos = {-1, -1, -1}; << 134 G4LogicalVolume* fLogVol = nullptr;
136 /// Rotation <<
137 G4RotationMatrix fRot; <<
138 /// Time <<
139 G4double fTime = -1; <<
140 /// Type: 0 = full sim, 1 = fast sim <<
141 G4int fType = -1; <<
142 /// Pointer to logical volume for visualis <<
143 G4LogicalVolume* fLogVol = nullptr; <<
144 }; 135 };
145 136
146 typedef G4THitsCollection<Par04Hit> Par04HitsC 137 typedef G4THitsCollection<Par04Hit> Par04HitsCollection;
147 138
148 extern G4ThreadLocal G4Allocator<Par04Hit>* Pa 139 extern G4ThreadLocal G4Allocator<Par04Hit>* Par04HitAllocator;
149 140
150 inline void* Par04Hit::operator new(size_t) 141 inline void* Par04Hit::operator new(size_t)
151 { 142 {
152 if (!Par04HitAllocator) Par04HitAllocator = << 143 if(!Par04HitAllocator)
153 return (void*)Par04HitAllocator->MallocSingl << 144 Par04HitAllocator = new G4Allocator<Par04Hit>;
>> 145 return (void*) Par04HitAllocator->MallocSingle();
154 } 146 }
155 147
156 inline void Par04Hit::operator delete(void* aH 148 inline void Par04Hit::operator delete(void* aHit)
157 { 149 {
158 Par04HitAllocator->FreeSingle((Par04Hit*)aHi << 150 Par04HitAllocator->FreeSingle((Par04Hit*) aHit);
159 } 151 }
160 152
161 #endif /* PAR04HIT_HH */ 153 #endif /* PAR04HIT_HH */
162 154