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26 // 26 //
27 // $Id: G4NeutrinoNucleusModel.hh 90228 2015-0 27 // $Id: G4NeutrinoNucleusModel.hh 90228 2015-05-21 08:49:57Z gcosmo $
28 // 28 //
29 // Geant4 Header : G4NeutrinoNucleusModel 29 // Geant4 Header : G4NeutrinoNucleusModel
30 // 30 //
31 // Author : V.Grichine 12.2.19 31 // Author : V.Grichine 12.2.19
32 // 32 //
33 // Modified: 33 // Modified:
34 // 34 //
35 // Class Description 35 // Class Description
36 // Default model for muon neutrino-nucleus cha 36 // Default model for muon neutrino-nucleus charge current scattering;
37 // Class Description - End 37 // Class Description - End
38 38
39 #ifndef G4NeutrinoNucleusModel_h 39 #ifndef G4NeutrinoNucleusModel_h
40 #define G4NeutrinoNucleusModel_h 1 40 #define G4NeutrinoNucleusModel_h 1
41 41
42 #include "globals.hh" 42 #include "globals.hh"
43 #include "G4HadronicInteraction.hh" 43 #include "G4HadronicInteraction.hh"
44 #include "G4HadProjectile.hh" 44 #include "G4HadProjectile.hh"
45 #include "G4Nucleus.hh" 45 #include "G4Nucleus.hh"
46 #include "G4NucleiProperties.hh" 46 #include "G4NucleiProperties.hh"
47 #include "G4LorentzVector.hh" 47 #include "G4LorentzVector.hh"
48 48
49 class G4ParticleDefinition; 49 class G4ParticleDefinition;
50 class G4PreCompoundModel; 50 class G4PreCompoundModel;
51 // class G4CascadeInterface; 51 // class G4CascadeInterface;
52 // class G4BinaryCascade; 52 // class G4BinaryCascade;
53 // class G4TheoFSGenerator; 53 // class G4TheoFSGenerator;
54 // class G4LundStringFragmentation; 54 // class G4LundStringFragmentation;
55 // class G4ExcitedStringDecay; 55 // class G4ExcitedStringDecay;
56 // class G4INCLXXInterface; 56 // class G4INCLXXInterface;
57 class G4Nucleus; 57 class G4Nucleus;
58 class G4Fragment; 58 class G4Fragment;
59 class G4GeneratorPrecompoundInterface; 59 class G4GeneratorPrecompoundInterface;
60 class G4ExcitationHandler; 60 class G4ExcitationHandler;
61 61
62 class G4NeutrinoNucleusModel : public G4Hadron 62 class G4NeutrinoNucleusModel : public G4HadronicInteraction
63 { 63 {
64 public: 64 public:
65 65
66 G4NeutrinoNucleusModel(const G4String& name 66 G4NeutrinoNucleusModel(const G4String& name = "neutrino-nucleus");
67 67
68 virtual ~G4NeutrinoNucleusModel(); 68 virtual ~G4NeutrinoNucleusModel();
69 69
70 virtual G4bool IsApplicable(const G4HadProje 70 virtual G4bool IsApplicable(const G4HadProjectile & aTrack,
71 G4Nucleus & targetNucleus); 71 G4Nucleus & targetNucleus);
72 72
73 G4double SampleXkr(G4double energy); 73 G4double SampleXkr(G4double energy);
74 G4double GetXkr(G4int iEnergy, G4double prob 74 G4double GetXkr(G4int iEnergy, G4double prob);
75 G4double SampleQkr(G4double energy, G4double 75 G4double SampleQkr(G4double energy, G4double xx);
76 G4double GetQkr(G4int iE, G4int jX, G4double 76 G4double GetQkr(G4int iE, G4int jX, G4double prob);
77 77
78 virtual G4HadFinalState * ApplyYourself(cons 78 virtual G4HadFinalState * ApplyYourself(const G4HadProjectile & aTrack,
79 G4Nucleus & targetNucleus)=0; 79 G4Nucleus & targetNucleus)=0;
80 80
81 //////// fragmentation functions //////////// 81 //////// fragmentation functions /////////////////////////
82 82
83 void ClusterDecay( G4LorentzVector & lvX, G4 83 void ClusterDecay( G4LorentzVector & lvX, G4int qX);
84 84
85 void MesonDecay( G4LorentzVector & lvX, G4in 85 void MesonDecay( G4LorentzVector & lvX, G4int qX);
86 86
87 void FinalBarion( G4LorentzVector & lvB, G4i 87 void FinalBarion( G4LorentzVector & lvB, G4int qB, G4int pdgB);
88 88
89 void RecoilDeexcitation( G4Fragment& fragmen 89 void RecoilDeexcitation( G4Fragment& fragment);
90 90
91 void FinalMeson( G4LorentzVector & lvM, G4in 91 void FinalMeson( G4LorentzVector & lvM, G4int qM, G4int pdgM);
92 92
93 void CoherentPion( G4LorentzVector & lvP, G4 93 void CoherentPion( G4LorentzVector & lvP, G4int pdgP, G4Nucleus & targetNucleus);
94 94
95 95
96 // set/get class fields 96 // set/get class fields
97 97
98 void SetCutEnergy(G4double ec){fCutEnergy=ec 98 void SetCutEnergy(G4double ec){fCutEnergy=ec;};
99 G4double GetCutEnergy(){return fCutEnergy;}; 99 G4double GetCutEnergy(){return fCutEnergy;};
100 100
101 G4double GetNuEnergy(){return fNuEnergy;}; 101 G4double GetNuEnergy(){return fNuEnergy;};
102 G4double GetQtransfer(){return fQtransfer;}; 102 G4double GetQtransfer(){return fQtransfer;};
103 G4double GetQ2(){return fQ2;}; 103 G4double GetQ2(){return fQ2;};
104 G4double GetXsample(){return fXsample;}; 104 G4double GetXsample(){return fXsample;};
105 105
106 G4int GetPDGencoding(){return fPDGencodin 106 G4int GetPDGencoding(){return fPDGencoding;};
107 G4bool GetCascade(){return fCascade;}; 107 G4bool GetCascade(){return fCascade;};
108 G4bool GetString(){return fString;}; 108 G4bool GetString(){return fString;};
109 109
110 G4double GetCosTheta(){return fCosTheta;}; 110 G4double GetCosTheta(){return fCosTheta;};
111 G4double GetEmu(){return fEmu;}; 111 G4double GetEmu(){return fEmu;};
112 G4double GetEx(){return fEx;}; 112 G4double GetEx(){return fEx;};
113 G4double GetMuMass(){return fMu;}; 113 G4double GetMuMass(){return fMu;};
114 G4double GetW2(){return fW2;}; 114 G4double GetW2(){return fW2;};
115 G4double GetM1(){return fM1;}; 115 G4double GetM1(){return fM1;};
116 G4double GetMr(){return fMr;}; 116 G4double GetMr(){return fMr;};
117 G4double GetTr(){return fTr;}; 117 G4double GetTr(){return fTr;};
118 G4double GetDp(){return fDp;}; 118 G4double GetDp(){return fDp;};
119 119
120 G4bool GetfBreak() {return fBreak;}; 120 G4bool GetfBreak() {return fBreak;};
121 G4bool GetfCascade(){return fCascade;}; 121 G4bool GetfCascade(){return fCascade;};
122 G4bool GetfString() {return fString;}; 122 G4bool GetfString() {return fString;};
123 123
124 G4LorentzVector GetLVl(){return fLVl;}; 124 G4LorentzVector GetLVl(){return fLVl;};
125 G4LorentzVector GetLVh(){return fLVh;}; 125 G4LorentzVector GetLVh(){return fLVh;};
126 G4LorentzVector GetLVt(){return fLVt;}; 126 G4LorentzVector GetLVt(){return fLVt;};
127 G4LorentzVector GetLVcpi(){return fLVcpi;}; 127 G4LorentzVector GetLVcpi(){return fLVcpi;};
128 128
129 G4double GetMinNuMuEnergy(){ return fMu + 0. 129 G4double GetMinNuMuEnergy(){ return fMu + 0.5*fMu*fMu/fM1 + 4.*CLHEP::MeV; }; // kinematics + accuracy for sqrts
130 130
131 G4double ThresholdEnergy(G4double mI, G4doub 131 G4double ThresholdEnergy(G4double mI, G4double mF, G4double mP) // for cluster decay
132 { 132 {
133 G4double w = std::sqrt(fW2); 133 G4double w = std::sqrt(fW2);
134 return w + 0.5*( (mP+mF)*(mP+mF)-(w+mI)*(w 134 return w + 0.5*( (mP+mF)*(mP+mF)-(w+mI)*(w+mI) )/mI;
135 }; 135 };
136 G4double GetQEratioA(){ return fQEratioA; }; <<
137 void SetQEratioA( G4double qea ){ fQErat <<
138 <<
139 <<
140 G4double FinalMomentum(G4double mI, G4double 136 G4double FinalMomentum(G4double mI, G4double mF, G4double mP, G4LorentzVector lvX); // for cluster decay
141 137
142 // nucleon binding 138 // nucleon binding
143 139
144 G4double FermiMomentum( G4Nucleus & targetNu 140 G4double FermiMomentum( G4Nucleus & targetNucleus);
145 G4double NucleonMomentum( G4Nucleus & target 141 G4double NucleonMomentum( G4Nucleus & targetNucleus);
146 142
147 G4double GetEx( G4int A, G4bool fP ); 143 G4double GetEx( G4int A, G4bool fP );
148 G4double GgSampleNM(G4Nucleus & nucl); 144 G4double GgSampleNM(G4Nucleus & nucl);
149 145
150 G4int GetEnergyIndex(G4double energy); 146 G4int GetEnergyIndex(G4double energy);
151 G4double GetNuMuQeTotRat(G4int index, G4doub 147 G4double GetNuMuQeTotRat(G4int index, G4double energy);
152 148
153 G4int GetOnePionIndex(G4double energy); 149 G4int GetOnePionIndex(G4double energy);
154 G4double GetNuMuOnePionProb(G4int index, G4d 150 G4double GetNuMuOnePionProb(G4int index, G4double energy);
155 <<
156 G4double CalculateQEratioA( G4int Z, G4int A <<
157 151
158 virtual void ModelDescription(std::ostream&) 152 virtual void ModelDescription(std::ostream&) const;
159 153
160 protected: 154 protected:
161 155
162 G4ParticleDefinition* theMuonMinus; 156 G4ParticleDefinition* theMuonMinus;
163 G4ParticleDefinition* theMuonPlus; 157 G4ParticleDefinition* theMuonPlus;
164 158
165 G4double fSin2tW; // sin^2theta_Weinberg 159 G4double fSin2tW; // sin^2theta_Weinberg
166 G4double fCutEnergy; // minimal recoil elect 160 G4double fCutEnergy; // minimal recoil electron energy detected
167 161
168 G4int fNbin, fIndex, fEindex, fXindex, fQind 162 G4int fNbin, fIndex, fEindex, fXindex, fQindex, fOnePionIndex, fPDGencoding;
169 G4bool fCascade, fString, fProton, f2p2h, fB 163 G4bool fCascade, fString, fProton, f2p2h, fBreak;
170 164
171 G4double fNuEnergy, fQ2, fQtransfer, fXsampl 165 G4double fNuEnergy, fQ2, fQtransfer, fXsample;
172 166
173 G4double fM1, fM2, fMt, fMu, fW2, fMpi, fW2 167 G4double fM1, fM2, fMt, fMu, fW2, fMpi, fW2pi, fMinNuEnergy, fDp, fTr;
174 168
175 G4double fEmu, fEmuPi, fEx, fMr, fCosTheta, << 169 G4double fEmu, fEmuPi, fEx, fMr, fCosTheta, fCosThetaPi; // final lepton
176 170
177 G4LorentzVector fLVh, fLVl, fLVt, fLVcpi; 171 G4LorentzVector fLVh, fLVl, fLVt, fLVcpi;
178 172
179 G4GeneratorPrecompoundInterface* fPrecoInter 173 G4GeneratorPrecompoundInterface* fPrecoInterface;
180 G4PreCompoundModel* fPreCompoun 174 G4PreCompoundModel* fPreCompound;
181 G4ExcitationHandler* fDeExcitati 175 G4ExcitationHandler* fDeExcitation;
182 176
>> 177
183 G4Nucleus* fRecoil; 178 G4Nucleus* fRecoil;
184 179
185 G4int fSecID; // Creator model ID for the s <<
186 <<
187 static const G4int fResNumber; 180 static const G4int fResNumber;
188 static const G4double fResMass[6]; // [fResN 181 static const G4double fResMass[6]; // [fResNumber];
189 182
190 static const G4int fClustNumber; 183 static const G4int fClustNumber;
191 184
192 static const G4double fMesMass[4]; 185 static const G4double fMesMass[4];
193 static const G4int fMesPDG[4]; 186 static const G4int fMesPDG[4];
194 187
195 static const G4double fBarMass[4]; 188 static const G4double fBarMass[4];
196 static const G4int fBarPDG[4]; 189 static const G4int fBarPDG[4];
197 190
198 static const G4double fNuMuResQ[50][50]; 191 static const G4double fNuMuResQ[50][50];
199 192
200 193
201 static const G4double fNuMuEnergy[50]; 194 static const G4double fNuMuEnergy[50];
202 static const G4double fNuMuQeTotRat[50]; 195 static const G4double fNuMuQeTotRat[50];
203 static const G4double fOnePionEnergy[58]; 196 static const G4double fOnePionEnergy[58];
204 static const G4double fOnePionProb[58]; 197 static const G4double fOnePionProb[58];
205 198
206 static const G4double fNuMuEnergyLogVector[5 199 static const G4double fNuMuEnergyLogVector[50];
207 200
208 // KR sample distributions, X at E_nu and Q2 201 // KR sample distributions, X at E_nu and Q2 at E_nu and X
209 202
210 static G4double fNuMuXarrayKR[50][51]; 203 static G4double fNuMuXarrayKR[50][51];
211 static G4double fNuMuXdistrKR[50][50]; 204 static G4double fNuMuXdistrKR[50][50];
212 static G4double fNuMuQarrayKR[50][51][51]; 205 static G4double fNuMuQarrayKR[50][51][51];
213 static G4double fNuMuQdistrKR[50][51][50]; 206 static G4double fNuMuQdistrKR[50][51][50];
214 207
215 // QEratio(Z,A,Enu) <<
216 <<
217 static const G4double fQEnergy[50]; <<
218 static const G4double fANeMuQEratio[50]; <<
219 static const G4double fNeMuQEratio[50]; <<
220 208
221 }; 209 };
222 210
223 211
224 212
225 #endif 213 #endif
226 214