| 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 // G4RKFieldIntegrator 26 // G4RKFieldIntegrator
27 #include "G4RKFieldIntegrator.hh" 27 #include "G4RKFieldIntegrator.hh"
28 #include "G4PhysicalConstants.hh" 28 #include "G4PhysicalConstants.hh"
29 #include "G4SystemOfUnits.hh" 29 #include "G4SystemOfUnits.hh"
30 #include "G4NucleiProperties.hh" 30 #include "G4NucleiProperties.hh"
31 #include "G4FermiMomentum.hh" 31 #include "G4FermiMomentum.hh"
32 #include "G4NuclearFermiDensity.hh" 32 #include "G4NuclearFermiDensity.hh"
33 #include "G4NuclearShellModelDensity.hh" 33 #include "G4NuclearShellModelDensity.hh"
34 #include "G4Nucleon.hh" 34 #include "G4Nucleon.hh"
35 #include "G4Exp.hh" 35 #include "G4Exp.hh"
36 #include "G4Log.hh" 36 #include "G4Log.hh"
37 #include "G4Pow.hh" 37 #include "G4Pow.hh"
38 38
39 // Class G4RKFieldIntegrator 39 // Class G4RKFieldIntegrator
40 //******************************************** 40 //*************************************************************************************************************************************
41 41
42 // only theActive are propagated, nothing else 42 // only theActive are propagated, nothing else
43 // only theSpectators define the field, nothin 43 // only theSpectators define the field, nothing else
44 44
45 void G4RKFieldIntegrator::Transport(G4KineticT 45 void G4RKFieldIntegrator::Transport(G4KineticTrackVector &theActive, const G4KineticTrackVector &theSpectators, G4double theTimeStep)
46 { 46 {
47 (void)theActive; 47 (void)theActive;
48 (void)theSpectators; 48 (void)theSpectators;
49 (void)theTimeStep; 49 (void)theTimeStep;
50 } 50 }
51 51
52 52
53 G4double G4RKFieldIntegrator::CalculateTotalEn 53 G4double G4RKFieldIntegrator::CalculateTotalEnergy(const G4KineticTrackVector& Barions)
54 { 54 {
55 const G4double Alpha = 0.25/fermi/fermi; 55 const G4double Alpha = 0.25/fermi/fermi;
56 const G4double t1 = -7264.04*fermi*ferm 56 const G4double t1 = -7264.04*fermi*fermi*fermi;
57 const G4double tGamma = 87.65*fermi*fermi* 57 const G4double tGamma = 87.65*fermi*fermi*fermi*fermi*fermi*fermi;
58 // const G4double Gamma = 1.676; 58 // const G4double Gamma = 1.676;
59 const G4double Vo = -0.498*fermi; 59 const G4double Vo = -0.498*fermi;
60 const G4double GammaY = 1.4*fermi; 60 const G4double GammaY = 1.4*fermi;
61 61
62 G4double Etot = 0; 62 G4double Etot = 0;
63 G4int nBarion = (G4int)Barions.size(); << 63 G4int nBarion = Barions.size();
64 for(G4int c1 = 0; c1 < nBarion; ++c1) << 64 for(G4int c1 = 0; c1 < nBarion; c1++)
65 { 65 {
66 G4KineticTrack* p1 = Barions.operator[]( 66 G4KineticTrack* p1 = Barions.operator[](c1);
67 // Ekin 67 // Ekin
68 Etot += p1->Get4Momentum().e(); 68 Etot += p1->Get4Momentum().e();
69 for(G4int c2 = c1 + 1; c2 < nBarion; ++c << 69 for(G4int c2 = c1 + 1; c2 < nBarion; c2++)
70 { 70 {
71 G4KineticTrack* p2 = Barions.operator 71 G4KineticTrack* p2 = Barions.operator[](c2);
72 G4double r12 = (p1->GetPosition() - p 72 G4double r12 = (p1->GetPosition() - p2->GetPosition()).mag()*fermi;
73 73
74 // Esk2 74 // Esk2
75 Etot += t1*G4Pow::GetInstance()->A23( 75 Etot += t1*G4Pow::GetInstance()->A23(Alpha/pi)*G4Exp(-Alpha*r12*r12);
76 76
77 // Eyuk 77 // Eyuk
78 Etot += Vo*0.5/r12*G4Exp(1/(4*Alpha*G 78 Etot += Vo*0.5/r12*G4Exp(1/(4*Alpha*GammaY*GammaY))*
79 (G4Exp(-r12/GammaY)*(1 - Erf(0.5/G 79 (G4Exp(-r12/GammaY)*(1 - Erf(0.5/GammaY/std::sqrt(Alpha) - std::sqrt(Alpha)*r12)) -
80 G4Exp( r12/GammaY)*(1 - Erf(0.5/G 80 G4Exp( r12/GammaY)*(1 - Erf(0.5/GammaY/std::sqrt(Alpha) + std::sqrt(Alpha)*r12)));
81 81
82 // Ecoul 82 // Ecoul
83 Etot += 1.44*p1->GetDefinition()->Get 83 Etot += 1.44*p1->GetDefinition()->GetPDGCharge()*p2->GetDefinition()->GetPDGCharge()/r12*Erf(std::sqrt(Alpha)*r12);
84 84
85 // Epaul 85 // Epaul
86 Etot = 0; 86 Etot = 0;
87 87
88 for(G4int c3 = c2 + 1; c3 < nBarion; 88 for(G4int c3 = c2 + 1; c3 < nBarion; c3++)
89 { 89 {
90 G4KineticTrack* p3 = Barions.opera 90 G4KineticTrack* p3 = Barions.operator[](c3);
91 G4double r13 = (p1->GetPosition() 91 G4double r13 = (p1->GetPosition() - p3->GetPosition()).mag()*fermi;
92 92
93 // Esk3 93 // Esk3
94 Etot = tGamma*G4Pow::GetInstance( 94 Etot = tGamma*G4Pow::GetInstance()->powA(4*Alpha*Alpha/3/pi/pi, 1.5)*G4Exp(-Alpha*(r12*r12 + r13*r13));
95 } 95 }
96 } 96 }
97 } 97 }
98 return Etot; 98 return Etot;
99 } 99 }
100 100
101 //******************************************** 101 //************************************************************************************************
102 // originated from the Numerical recipes error 102 // originated from the Numerical recipes error function
103 G4double G4RKFieldIntegrator::Erf(G4double X) 103 G4double G4RKFieldIntegrator::Erf(G4double X)
104 { 104 {
105 const G4double Z1 = 1; 105 const G4double Z1 = 1;
106 const G4double HF = Z1/2; 106 const G4double HF = Z1/2;
107 const G4double C1 = 0.56418958; 107 const G4double C1 = 0.56418958;
108 108
109 const G4double P10 = +3.6767877; 109 const G4double P10 = +3.6767877;
110 const G4double Q10 = +3.2584593; 110 const G4double Q10 = +3.2584593;
111 const G4double P11 = -9.7970465E-2; 111 const G4double P11 = -9.7970465E-2;
112 112
113 // static G4ThreadLocal G4double P2[5] = { 7 113 // static G4ThreadLocal G4double P2[5] = { 7.3738883, 6.8650185, 3.0317993, 0.56316962, 4.3187787e-5 };
114 // static G4ThreadLocal G4double Q2[5] = { 7 114 // static G4ThreadLocal G4double Q2[5] = { 7.3739609, 15.184908, 12.79553, 5.3542168, 1. };
115 const G4double P2[5] = { 7.3738883, 6.86501 115 const G4double P2[5] = { 7.3738883, 6.8650185, 3.0317993, 0.56316962, 4.3187787e-5 };
116 const G4double Q2[5] = { 7.3739609, 15.1849 116 const G4double Q2[5] = { 7.3739609, 15.184908, 12.79553, 5.3542168, 1. };
117 117
118 const G4double P30 = -1.2436854E-1; 118 const G4double P30 = -1.2436854E-1;
119 const G4double Q30 = +4.4091706E-1; 119 const G4double Q30 = +4.4091706E-1;
120 const G4double P31 = -9.6821036E-2; 120 const G4double P31 = -9.6821036E-2;
121 121
122 G4double V = std::abs(X); 122 G4double V = std::abs(X);
123 G4double H; 123 G4double H;
124 G4double Y; 124 G4double Y;
125 G4int c1; 125 G4int c1;
126 126
127 if(V < HF) 127 if(V < HF)
128 { 128 {
129 Y = V*V; 129 Y = V*V;
130 H = X*(P10 + P11*Y)/(Q10+Y); 130 H = X*(P10 + P11*Y)/(Q10+Y);
131 } 131 }
132 else 132 else
133 { 133 {
134 if(V < 4) 134 if(V < 4)
135 { 135 {
136 G4double AP = P2[4]; 136 G4double AP = P2[4];
137 G4double AQ = Q2[4]; 137 G4double AQ = Q2[4];
138 for(c1 = 3; c1 >= 0; c1--) 138 for(c1 = 3; c1 >= 0; c1--)
139 { 139 {
140 AP = P2[c1] + V*AP; 140 AP = P2[c1] + V*AP;
141 AQ = Q2[c1] + V*AQ; 141 AQ = Q2[c1] + V*AQ;
142 } 142 }
143 H = 1 - G4Exp(-V*V)*AP/AQ; 143 H = 1 - G4Exp(-V*V)*AP/AQ;
144 } 144 }
145 else 145 else
146 { 146 {
147 Y = 1./V*V; 147 Y = 1./V*V;
148 H = 1 - G4Exp(-V*V)*(C1+Y*(P30 + P31*Y 148 H = 1 - G4Exp(-V*V)*(C1+Y*(P30 + P31*Y)/(Q30 + Y))/V;
149 } 149 }
150 if (X < 0) 150 if (X < 0)
151 H = -H; 151 H = -H;
152 } 152 }
153 return H; 153 return H;
154 } 154 }
155 155
156 //******************************************** 156 //************************************************************************************************
157 //This is a QMD version to calculate excitatio 157 //This is a QMD version to calculate excitation energy of a fragment,
158 //which consists from G4KTV &the Particles 158 //which consists from G4KTV &the Particles
159 /* 159 /*
160 G4double G4RKFieldIntegrator::GetExcitationEne 160 G4double G4RKFieldIntegrator::GetExcitationEnergy(const G4KineticTrackVector &theParticles)
161 { 161 {
162 // Excitation energy of a fragment consisti 162 // Excitation energy of a fragment consisting from A nucleons and Z protons
163 // is Etot - Z*Mp - (A - Z)*Mn - B(A, Z), w 163 // is Etot - Z*Mp - (A - Z)*Mn - B(A, Z), where B(A,Z) is the binding energy of fragment
164 // and Mp, Mn are proton and neutron mass, 164 // and Mp, Mn are proton and neutron mass, respectively.
165 G4int NZ = 0; 165 G4int NZ = 0;
166 G4int NA = 0; 166 G4int NA = 0;
167 G4double Etot = CalculateTotalEnergy(thePar 167 G4double Etot = CalculateTotalEnergy(theParticles);
168 for(G4int cParticle = 0; cParticle < thePar 168 for(G4int cParticle = 0; cParticle < theParticles.length(); cParticle++)
169 { 169 {
170 G4KineticTrack* pKineticTrack = theParti 170 G4KineticTrack* pKineticTrack = theParticles.at(cParticle);
171 G4int Encoding = std::abs(pKineticTrack 171 G4int Encoding = std::abs(pKineticTrack->GetDefinition()->GetPDGEncoding());
172 if (Encoding == 2212) 172 if (Encoding == 2212)
173 NZ++, NA++; 173 NZ++, NA++;
174 if (Encoding == 2112) 174 if (Encoding == 2112)
175 NA++; 175 NA++;
176 Etot -= pKineticTrack->GetDefinition()-> 176 Etot -= pKineticTrack->GetDefinition()->GetPDGMass();
177 } 177 }
178 return Etot - G4NucleiProperties::GetBindin 178 return Etot - G4NucleiProperties::GetBindingEnergy(NZ, NA);
179 } 179 }
180 */ 180 */
181 181
182 //******************************************** 182 //*************************************************************************************************************************************
183 //This is a simplified method to get excitatio 183 //This is a simplified method to get excitation energy of a residual
184 // nucleus with nHitNucleons. 184 // nucleus with nHitNucleons.
185 G4double G4RKFieldIntegrator::GetExcitationEne 185 G4double G4RKFieldIntegrator::GetExcitationEnergy(G4int nHitNucleons, const G4KineticTrackVector &)
186 { 186 {
187 const G4double MeanE = 50; 187 const G4double MeanE = 50;
188 G4double Sum = 0; 188 G4double Sum = 0;
189 for(G4int c1 = 0; c1 < nHitNucleons; ++c1) << 189 for(G4int c1 = 0; c1 < nHitNucleons; c1++)
190 { 190 {
191 Sum += -MeanE*G4Log(G4UniformRand()); 191 Sum += -MeanE*G4Log(G4UniformRand());
192 } 192 }
193 return Sum; 193 return Sum;
194 } 194 }
195 //******************************************** 195 //*************************************************************************************************************************************
196 196
197 /* 197 /*
198 //This is free propagation of particles for CA 198 //This is free propagation of particles for CASCADE mode. Target nucleons should be frozen
199 void G4RKFieldIntegrator::Integrate(G4KineticT 199 void G4RKFieldIntegrator::Integrate(G4KineticTrackVector& theParticles)
200 { 200 {
201 for(G4int cParticle = 0; cParticle < thePar << 201 for(G4int cParticle = 0; cParticle < theParticles.length(); cParticle++)
202 { 202 {
203 G4KineticTrack* pKineticTrack = theParti 203 G4KineticTrack* pKineticTrack = theParticles.at(cParticle);
204 pKineticTrack->SetPosition(pKineticTrack 204 pKineticTrack->SetPosition(pKineticTrack->GetPosition() + theTimeStep*pKineticTrack->Get4Momentum().boostVector());
205 } 205 }
206 } 206 }
207 */ 207 */
208 //******************************************** 208 //*************************************************************************************************************************************
209 209
210 void G4RKFieldIntegrator::Integrate(const G4Ki 210 void G4RKFieldIntegrator::Integrate(const G4KineticTrackVector& theBarions, G4double theTimeStep)
211 { 211 {
212 for(std::size_t cParticle = 0; cParticle < << 212 for(size_t cParticle = 0; cParticle < theBarions.size(); cParticle++)
213 { 213 {
214 G4KineticTrack* pKineticTrack = theBario 214 G4KineticTrack* pKineticTrack = theBarions[cParticle];
215 pKineticTrack->SetPosition(pKineticTrack 215 pKineticTrack->SetPosition(pKineticTrack->GetPosition() + theTimeStep*pKineticTrack->Get4Momentum().boostVector());
216 } 216 }
217 } 217 }
218 218
219 //******************************************** 219 //*************************************************************************************************************************************
220 220
221 // constant to calculate theCoulomb barrier 221 // constant to calculate theCoulomb barrier
222 const G4double G4RKFieldIntegrator::coulomb = 222 const G4double G4RKFieldIntegrator::coulomb = 1.44 / 1.14 * MeV;
223 223
224 // kaon's potential constant (real part only) 224 // kaon's potential constant (real part only)
225 // 0.35 + i0.82 or 0.63 + i0.89 fermi 225 // 0.35 + i0.82 or 0.63 + i0.89 fermi
226 const G4double G4RKFieldIntegrator::a_kaon = 0 226 const G4double G4RKFieldIntegrator::a_kaon = 0.35;
227 227
228 // pion's potential constant (real part only) 228 // pion's potential constant (real part only)
229 //!! for pions it has todiffer from kaons 229 //!! for pions it has todiffer from kaons
230 // 0.35 + i0.82 or 0.63 + i0.89 fermi 230 // 0.35 + i0.82 or 0.63 + i0.89 fermi
231 const G4double G4RKFieldIntegrator::a_pion = 0 231 const G4double G4RKFieldIntegrator::a_pion = 0.35;
232 232
233 // antiproton's potential constant (real part 233 // antiproton's potential constant (real part only)
234 // 1.53 + i2.50 fermi 234 // 1.53 + i2.50 fermi
235 const G4double G4RKFieldIntegrator::a_antiprot 235 const G4double G4RKFieldIntegrator::a_antiproton = 1.53;
236 236
237 // methods for calculating potentials for diff 237 // methods for calculating potentials for different types of particles
238 // aPosition is relative to the nucleus center 238 // aPosition is relative to the nucleus center
239 G4double G4RKFieldIntegrator::GetNeutronPotent 239 G4double G4RKFieldIntegrator::GetNeutronPotential(G4double )
240 { 240 {
241 /* 241 /*
242 const G4double Mn = 939.56563 * MeV; // ma 242 const G4double Mn = 939.56563 * MeV; // mass of nuetron
243 243
244 G4VNuclearDensity *theDencity; 244 G4VNuclearDensity *theDencity;
245 if(theA < 17) theDencity = new G4NuclearShe 245 if(theA < 17) theDencity = new G4NuclearShellModelDensity(theA, theZ);
246 else theDencity = new G4NuclearFer 246 else theDencity = new G4NuclearFermiDensity(theA, theZ);
247 247
248 // GetDencity() accepts only G4ThreeVector 248 // GetDencity() accepts only G4ThreeVector so build it:
249 G4ThreeVector aPosition(0.0, 0.0, radius); 249 G4ThreeVector aPosition(0.0, 0.0, radius);
250 G4double density = theDencity->GetDensity(a 250 G4double density = theDencity->GetDensity(aPosition);
251 delete theDencity; 251 delete theDencity;
252 252
253 G4FermiMomentum *fm = new G4FermiMomentum() 253 G4FermiMomentum *fm = new G4FermiMomentum();
254 fm->Init(theA, theZ); 254 fm->Init(theA, theZ);
255 G4double fermiMomentum = fm->GetFermiMoment 255 G4double fermiMomentum = fm->GetFermiMomentum(density);
256 delete fm; 256 delete fm;
257 257
258 return sqr(fermiMomentum)/(2 * Mn) 258 return sqr(fermiMomentum)/(2 * Mn)
259 + G4CreateNucleus::GetBindingEnergy(theZ 259 + G4CreateNucleus::GetBindingEnergy(theZ, theA)/theA;
260 //+ G4NucleiProperties::GetBindingEnergy 260 //+ G4NucleiProperties::GetBindingEnergy(theZ, theA)/theA;
261 */ 261 */
262 262
263 return 0.0; 263 return 0.0;
264 } 264 }
265 265
266 G4double G4RKFieldIntegrator::GetProtonPotenti 266 G4double G4RKFieldIntegrator::GetProtonPotential(G4double )
267 { 267 {
268 /* 268 /*
269 // calculate Coulomb barrier value 269 // calculate Coulomb barrier value
270 G4double theCoulombBarrier = coulomb * theZ 270 G4double theCoulombBarrier = coulomb * theZ/(1. + G4Pow::GetInstance()->Z13(theA));
271 const G4double Mp = 938.27231 * MeV; // ma 271 const G4double Mp = 938.27231 * MeV; // mass of proton
272 272
273 G4VNuclearDensity *theDencity; 273 G4VNuclearDensity *theDencity;
274 if(theA < 17) theDencity = new G4NuclearShe 274 if(theA < 17) theDencity = new G4NuclearShellModelDensity(theA, theZ);
275 else theDencity = new G4NuclearFer 275 else theDencity = new G4NuclearFermiDensity(theA, theZ);
276 276
277 // GetDencity() accepts only G4ThreeVector 277 // GetDencity() accepts only G4ThreeVector so build it:
278 G4ThreeVector aPosition(0.0, 0.0, radius); 278 G4ThreeVector aPosition(0.0, 0.0, radius);
279 G4double density = theDencity->GetDensity(a 279 G4double density = theDencity->GetDensity(aPosition);
280 delete theDencity; 280 delete theDencity;
281 281
282 G4FermiMomentum *fm = new G4FermiMomentum() 282 G4FermiMomentum *fm = new G4FermiMomentum();
283 fm->Init(theA, theZ); 283 fm->Init(theA, theZ);
284 G4double fermiMomentum = fm->GetFermiMoment 284 G4double fermiMomentum = fm->GetFermiMomentum(density);
285 delete fm; 285 delete fm;
286 286
287 return sqr(fermiMomentum)/ (2 * Mp) 287 return sqr(fermiMomentum)/ (2 * Mp)
288 + G4CreateNucleus::GetBindingEnergy(theZ 288 + G4CreateNucleus::GetBindingEnergy(theZ, theA)/theA;
289 //+ G4NucleiProperties::GetBindingEnergy 289 //+ G4NucleiProperties::GetBindingEnergy(theZ, theA)/theA
290 + theCoulombBarrier; 290 + theCoulombBarrier;
291 */ 291 */
292 292
293 return 0.0; 293 return 0.0;
294 } 294 }
295 295
296 G4double G4RKFieldIntegrator::GetAntiprotonPot 296 G4double G4RKFieldIntegrator::GetAntiprotonPotential(G4double )
297 { 297 {
298 /* 298 /*
299 //G4double theM = G4NucleiProperties::GetAt 299 //G4double theM = G4NucleiProperties::GetAtomicMass(theA, theZ);
300 G4double theM = theZ * G4Proton::Proton()-> 300 G4double theM = theZ * G4Proton::Proton()->GetPDGMass()
301 + (theA - theZ) * G4Neutron::Neutron()-> 301 + (theA - theZ) * G4Neutron::Neutron()->GetPDGMass()
302 + G4CreateNucleus::GetBindingEnergy(theZ 302 + G4CreateNucleus::GetBindingEnergy(theZ, theA);
303 303
304 const G4double Mp = 938.27231 * MeV; // ma 304 const G4double Mp = 938.27231 * MeV; // mass of proton
305 G4double mu = (theM * Mp)/(theM + Mp); 305 G4double mu = (theM * Mp)/(theM + Mp);
306 306
307 // antiproton's potential coefficient 307 // antiproton's potential coefficient
308 // V = coeff_antiproton * nucleus_density 308 // V = coeff_antiproton * nucleus_density
309 G4double coeff_antiproton = -2.*pi/mu * (1. 309 G4double coeff_antiproton = -2.*pi/mu * (1. + Mp) * a_antiproton;
310 310
311 G4VNuclearDensity *theDencity; 311 G4VNuclearDensity *theDencity;
312 if(theA < 17) theDencity = new G4NuclearShe 312 if(theA < 17) theDencity = new G4NuclearShellModelDensity(theA, theZ);
313 else theDencity = new G4NuclearFer 313 else theDencity = new G4NuclearFermiDensity(theA, theZ);
314 314
315 // GetDencity() accepts only G4ThreeVector 315 // GetDencity() accepts only G4ThreeVector so build it:
316 G4ThreeVector aPosition(0.0, 0.0, radius); 316 G4ThreeVector aPosition(0.0, 0.0, radius);
317 G4double density = theDencity->GetDensity(a 317 G4double density = theDencity->GetDensity(aPosition);
318 delete theDencity; 318 delete theDencity;
319 319
320 return coeff_antiproton * density; 320 return coeff_antiproton * density;
321 */ 321 */
322 322
323 return 0.0; 323 return 0.0;
324 } 324 }
325 325
326 G4double G4RKFieldIntegrator::GetKaonPotential 326 G4double G4RKFieldIntegrator::GetKaonPotential(G4double )
327 { 327 {
328 /* 328 /*
329 //G4double theM = G4NucleiProperties::GetAt 329 //G4double theM = G4NucleiProperties::GetAtomicMass(theA, theZ);
330 G4double theM = theZ * G4Proton::Proton()-> 330 G4double theM = theZ * G4Proton::Proton()->GetPDGMass()
331 + (theA - theZ) * G4Neutron::Neutron()-> 331 + (theA - theZ) * G4Neutron::Neutron()->GetPDGMass()
332 + G4CreateNucleus::GetBindingEnergy(theZ 332 + G4CreateNucleus::GetBindingEnergy(theZ, theA);
333 333
334 const G4double Mk = 496. * MeV; // ma 334 const G4double Mk = 496. * MeV; // mass of "kaon"
335 G4double mu = (theM * Mk)/(theM + Mk); 335 G4double mu = (theM * Mk)/(theM + Mk);
336 336
337 // kaon's potential coefficient 337 // kaon's potential coefficient
338 // V = coeff_kaon * nucleus_density 338 // V = coeff_kaon * nucleus_density
339 G4double coeff_kaon = -2.*pi/mu * (1. + Mk/ 339 G4double coeff_kaon = -2.*pi/mu * (1. + Mk/theM) * a_kaon;
340 340
341 G4VNuclearDensity *theDencity; 341 G4VNuclearDensity *theDencity;
342 if(theA < 17) theDencity = new G4NuclearShe 342 if(theA < 17) theDencity = new G4NuclearShellModelDensity(theA, theZ);
343 else theDencity = new G4NuclearFer 343 else theDencity = new G4NuclearFermiDensity(theA, theZ);
344 344
345 // GetDencity() accepts only G4ThreeVector 345 // GetDencity() accepts only G4ThreeVector so build it:
346 G4ThreeVector aPosition(0.0, 0.0, radius); 346 G4ThreeVector aPosition(0.0, 0.0, radius);
347 G4double density = theDencity->GetDensity(a 347 G4double density = theDencity->GetDensity(aPosition);
348 delete theDencity; 348 delete theDencity;
349 349
350 return coeff_kaon * density; 350 return coeff_kaon * density;
351 */ 351 */
352 352
353 return 0.0; 353 return 0.0;
354 } 354 }
355 355
356 G4double G4RKFieldIntegrator::GetPionPotential 356 G4double G4RKFieldIntegrator::GetPionPotential(G4double )
357 { 357 {
358 /* 358 /*
359 //G4double theM = G4NucleiProperties::GetAt 359 //G4double theM = G4NucleiProperties::GetAtomicMass(theA, theZ);
360 G4double theM = theZ * G4Proton::Proton()-> 360 G4double theM = theZ * G4Proton::Proton()->GetPDGMass()
361 + (theA - theZ) * G4Neutron::Neutron()-> 361 + (theA - theZ) * G4Neutron::Neutron()->GetPDGMass()
362 + G4CreateNucleus::GetBindingEnergy(theZ 362 + G4CreateNucleus::GetBindingEnergy(theZ, theA);
363 363
364 const G4double Mpi = 139. * MeV; // ma 364 const G4double Mpi = 139. * MeV; // mass of "pion"
365 G4double mu = (theM * Mpi)/(theM + Mpi); 365 G4double mu = (theM * Mpi)/(theM + Mpi);
366 366
367 // pion's potential coefficient 367 // pion's potential coefficient
368 // V = coeff_pion * nucleus_density 368 // V = coeff_pion * nucleus_density
369 G4double coeff_pion = -2.*pi/mu * (1. + Mpi 369 G4double coeff_pion = -2.*pi/mu * (1. + Mpi) * a_pion;
370 370
371 G4VNuclearDensity *theDencity; 371 G4VNuclearDensity *theDencity;
372 if(theA < 17) theDencity = new G4NuclearShe 372 if(theA < 17) theDencity = new G4NuclearShellModelDensity(theA, theZ);
373 else theDencity = new G4NuclearFer 373 else theDencity = new G4NuclearFermiDensity(theA, theZ);
374 374
375 // GetDencity() accepts only G4ThreeVector 375 // GetDencity() accepts only G4ThreeVector so build it:
376 G4ThreeVector aPosition(0.0, 0.0, radius); 376 G4ThreeVector aPosition(0.0, 0.0, radius);
377 G4double density = theDencity->GetDensity(a 377 G4double density = theDencity->GetDensity(aPosition);
378 delete theDencity; 378 delete theDencity;
379 379
380 return coeff_pion * density; 380 return coeff_pion * density;
381 */ 381 */
382 382
383 return 0.0; 383 return 0.0;
384 } 384 }
385 385