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26 // 26 //
>> 27 // $Id: G4OpRayleigh.cc 92045 2015-08-14 07:21:23Z gcosmo $
27 // 28 //
28 // << 29 //
29 ////////////////////////////////////////////// 30 ////////////////////////////////////////////////////////////////////////
30 // Optical Photon Rayleigh Scattering Class Im 31 // Optical Photon Rayleigh Scattering Class Implementation
31 ////////////////////////////////////////////// 32 ////////////////////////////////////////////////////////////////////////
32 // 33 //
33 // File: G4OpRayleigh.cc 34 // File: G4OpRayleigh.cc
34 // Description: Discrete Process -- Rayleigh s 35 // Description: Discrete Process -- Rayleigh scattering of optical
35 // photons 36 // photons
36 // Version: 1.0 37 // Version: 1.0
37 // Created: 1996-05-31 38 // Created: 1996-05-31
38 // Author: Juliet Armstrong 39 // Author: Juliet Armstrong
39 // Updated: 2014-10-10 - This version cal << 40 // Updated: 2014-10-10 - This version calculates the Rayleigh scattering
40 // length for more materials than 41 // length for more materials than just Water (although the Water
41 // default is kept). To do this t 42 // default is kept). To do this the user would need to specify the
42 // ISOTHERMAL_COMPRESSIBILITY as 43 // ISOTHERMAL_COMPRESSIBILITY as a material property and
43 // optionally an RS_SCALE_LENGTH 44 // optionally an RS_SCALE_LENGTH (useful for testing). Code comes
44 // from Philip Graham (Queen Mary 45 // from Philip Graham (Queen Mary University of London).
45 // 2010-06-11 - Fix Bug 207; Than 46 // 2010-06-11 - Fix Bug 207; Thanks to Xin Qian
46 // (Kellogg Radiation Lab of Calt 47 // (Kellogg Radiation Lab of Caltech)
47 // 2005-07-28 - add G4ProcessType 48 // 2005-07-28 - add G4ProcessType to constructor
48 // 2001-10-18 by Peter Gumplinger 49 // 2001-10-18 by Peter Gumplinger
49 // eliminate unused variable warn 50 // eliminate unused variable warning on Linux (gcc-2.95.2)
50 // 2001-09-18 by mma 51 // 2001-09-18 by mma
51 // >numOfMaterials=G4Material::Ge << 52 // >numOfMaterials=G4Material::GetNumberOfMaterials() in BuildPhy
52 // 2001-01-30 by Peter Gumplinger 53 // 2001-01-30 by Peter Gumplinger
53 // > allow for positiv and negati 54 // > allow for positiv and negative CosTheta and force the
54 // > new momentum direction to be 55 // > new momentum direction to be in the same plane as the
55 // > new and old polarization vec 56 // > new and old polarization vectors
56 // 2001-01-29 by Peter Gumplinger 57 // 2001-01-29 by Peter Gumplinger
57 // > fix calculation of SinTheta 58 // > fix calculation of SinTheta (from CosTheta)
58 // 1997-04-09 by Peter Gumplinger 59 // 1997-04-09 by Peter Gumplinger
59 // > new physics/tracking scheme 60 // > new physics/tracking scheme
>> 61 // mail: gum@triumf.ca
60 // 62 //
61 ////////////////////////////////////////////// 63 ////////////////////////////////////////////////////////////////////////
62 64
63 #include "G4OpRayleigh.hh" 65 #include "G4OpRayleigh.hh"
>> 66
64 #include "G4ios.hh" 67 #include "G4ios.hh"
65 #include "G4PhysicalConstants.hh" 68 #include "G4PhysicalConstants.hh"
66 #include "G4SystemOfUnits.hh" 69 #include "G4SystemOfUnits.hh"
67 #include "G4OpticalParameters.hh" <<
68 #include "G4OpProcessSubType.hh" 70 #include "G4OpProcessSubType.hh"
69 71
70 //....oooOO0OOooo........oooOO0OOooo........oo << 72 /////////////////////////
>> 73 // Class Implementation
>> 74 /////////////////////////
>> 75
>> 76 //////////////
>> 77 // Operators
>> 78 //////////////
>> 79
>> 80 // G4OpRayleigh::operator=(const G4OpRayleigh &right)
>> 81 // {
>> 82 // }
>> 83
>> 84 /////////////////
>> 85 // Constructors
>> 86 /////////////////
>> 87
71 G4OpRayleigh::G4OpRayleigh(const G4String& pro 88 G4OpRayleigh::G4OpRayleigh(const G4String& processName, G4ProcessType type)
72 : G4VDiscreteProcess(processName, type) << 89 : G4VDiscreteProcess(processName, type)
73 { 90 {
74 Initialise(); << 91 SetProcessSubType(fOpRayleigh);
75 SetProcessSubType(fOpRayleigh); <<
76 thePhysicsTable = nullptr; <<
77 92
78 if(verboseLevel > 0) << 93 thePhysicsTable = NULL;
79 { <<
80 G4cout << GetProcessName() << " is created <<
81 } <<
82 } <<
83 94
84 //....oooOO0OOooo........oooOO0OOooo........oo << 95 if (verboseLevel>0) {
85 G4OpRayleigh::~G4OpRayleigh() << 96 G4cout << GetProcessName() << " is created " << G4endl;
86 { << 97 }
87 // VI: inside this PhysicsTable all properti <<
88 // it is not possible to destroy <<
89 delete thePhysicsTable; <<
90 } 98 }
91 99
92 //....oooOO0OOooo........oooOO0OOooo........oo << 100 // G4OpRayleigh::G4OpRayleigh(const G4OpRayleigh &right)
93 void G4OpRayleigh::PreparePhysicsTable(const G << 101 // {
94 { << 102 // }
95 Initialise(); << 103
96 } << 104 ////////////////
>> 105 // Destructors
>> 106 ////////////////
97 107
98 //....oooOO0OOooo........oooOO0OOooo........oo << 108 G4OpRayleigh::~G4OpRayleigh()
99 void G4OpRayleigh::Initialise() <<
100 { 109 {
101 SetVerboseLevel(G4OpticalParameters::Instanc << 110 if (thePhysicsTable) {
>> 111 thePhysicsTable->clearAndDestroy();
>> 112 delete thePhysicsTable;
>> 113 }
102 } 114 }
103 115
104 //....oooOO0OOooo........oooOO0OOooo........oo << 116 ////////////
105 G4VParticleChange* G4OpRayleigh::PostStepDoIt( << 117 // Methods
106 << 118 ////////////
107 { <<
108 aParticleChange.Initialize(aTrack); <<
109 const G4DynamicParticle* aParticle = aTrack. <<
110 <<
111 if(verboseLevel > 1) <<
112 { <<
113 G4cout << "OpRayleigh: Scattering Photon!" <<
114 << "Old Momentum Direction: " << aP <<
115 << G4endl << "Old Polarization: " < <<
116 << G4endl; <<
117 } <<
118 <<
119 G4double cosTheta; <<
120 G4ThreeVector oldMomDir, newMomDir; <<
121 G4ThreeVector oldPol, newPol; <<
122 G4double rand; <<
123 G4double cost, sint, sinphi, cosphi; <<
124 119
125 do << 120 // PostStepDoIt
126 { << 121 // -------------
127 // Try to simulate the scattered photon mo << 122 //
128 // w.r.t. the initial photon momentum dire << 123 G4VParticleChange*
129 cost = G4UniformRand(); << 124 G4OpRayleigh::PostStepDoIt(const G4Track& aTrack, const G4Step& aStep)
130 sint = std::sqrt(1. - cost * cost); << 125 {
131 // consider for the angle 90-180 degrees << 126 aParticleChange.Initialize(aTrack);
132 if(G4UniformRand() < 0.5) <<
133 cost = -cost; <<
134 <<
135 // simulate the phi angle <<
136 rand = twopi * G4UniformRand(); <<
137 sinphi = std::sin(rand); <<
138 cosphi = std::cos(rand); <<
139 <<
140 // construct the new momentum direction <<
141 newMomDir.set(sint * cosphi, sint * sinphi <<
142 oldMomDir = aParticle->GetMomentumDirectio <<
143 newMomDir.rotateUz(oldMomDir); <<
144 <<
145 // calculate the new polarization directio <<
146 // The new polarization needs to be in the <<
147 // momentum direction and the old polariza <<
148 oldPol = aParticle->GetPolarization(); <<
149 newPol = (oldPol - newMomDir.dot(oldPol) * <<
150 <<
151 // There is a corner case, where the new m <<
152 // is the same as old polarization directi <<
153 // random generate the azimuthal angle w.r <<
154 if(newPol.mag() == 0.) <<
155 { <<
156 rand = G4UniformRand() * twopi; <<
157 newPol.set(std::cos(rand), std::sin(rand <<
158 newPol.rotateUz(newMomDir); <<
159 } <<
160 else <<
161 { <<
162 // There are two directions perpendicula <<
163 if(G4UniformRand() < 0.5) <<
164 newPol = -newPol; <<
165 } <<
166 <<
167 // simulate according to the distribution <<
168 cosTheta = newPol.dot(oldPol); <<
169 // Loop checking, 13-Aug-2015, Peter Gumpl <<
170 } while(std::pow(cosTheta, 2) < G4UniformRan <<
171 127
172 aParticleChange.ProposePolarization(newPol); << 128 const G4DynamicParticle* aParticle = aTrack.GetDynamicParticle();
173 aParticleChange.ProposeMomentumDirection(new <<
174 129
175 if(verboseLevel > 1) << 130 if (verboseLevel>0) {
176 { << 131 G4cout << "Scattering Photon!" << G4endl;
177 G4cout << "New Polarization: " << newPol < << 132 G4cout << "Old Momentum Direction: "
178 << "Polarization Change: " << *(aPa << 133 << aParticle->GetMomentumDirection() << G4endl;
179 << G4endl << "New Momentum Directio << 134 G4cout << "Old Polarization: "
180 << "Momentum Change: " << *(aPartic << 135 << aParticle->GetPolarization() << G4endl;
181 << G4endl; << 136 }
182 } << 137
>> 138 G4double cosTheta;
>> 139 G4ThreeVector OldMomentumDirection, NewMomentumDirection;
>> 140 G4ThreeVector OldPolarization, NewPolarization;
>> 141
>> 142 G4double rand, constant;
>> 143 G4double CosTheta, SinTheta, SinPhi, CosPhi, unit_x, unit_y, unit_z;
>> 144
>> 145 do {
>> 146 // Try to simulate the scattered photon momentum direction
>> 147 // w.r.t. the initial photon momentum direction
>> 148
>> 149 CosTheta = G4UniformRand();
>> 150 SinTheta = std::sqrt(1.-CosTheta*CosTheta);
>> 151 // consider for the angle 90-180 degrees
>> 152 if (G4UniformRand() < 0.5) CosTheta = -CosTheta;
>> 153
>> 154 // simulate the phi angle
>> 155 rand = twopi*G4UniformRand();
>> 156 SinPhi = std::sin(rand);
>> 157 CosPhi = std::cos(rand);
>> 158
>> 159 // start constructing the new momentum direction
>> 160 unit_x = SinTheta * CosPhi;
>> 161 unit_y = SinTheta * SinPhi;
>> 162 unit_z = CosTheta;
>> 163 NewMomentumDirection.set (unit_x,unit_y,unit_z);
>> 164
>> 165 // Rotate the new momentum direction into global reference system
>> 166 OldMomentumDirection = aParticle->GetMomentumDirection();
>> 167 OldMomentumDirection = OldMomentumDirection.unit();
>> 168 NewMomentumDirection.rotateUz(OldMomentumDirection);
>> 169 NewMomentumDirection = NewMomentumDirection.unit();
>> 170
>> 171 // calculate the new polarization direction
>> 172 // The new polarization needs to be in the same plane as the new
>> 173 // momentum direction and the old polarization direction
>> 174 OldPolarization = aParticle->GetPolarization();
>> 175 constant = -NewMomentumDirection.dot(OldPolarization);
>> 176
>> 177 NewPolarization = OldPolarization + constant*NewMomentumDirection;
>> 178 NewPolarization = NewPolarization.unit();
>> 179
>> 180 // There is a corner case, where the Newmomentum direction
>> 181 // is the same as oldpolariztion direction:
>> 182 // random generate the azimuthal angle w.r.t. Newmomentum direction
>> 183 if (NewPolarization.mag() == 0.) {
>> 184 rand = G4UniformRand()*twopi;
>> 185 NewPolarization.set(std::cos(rand),std::sin(rand),0.);
>> 186 NewPolarization.rotateUz(NewMomentumDirection);
>> 187 } else {
>> 188 // There are two directions which are perpendicular
>> 189 // to the new momentum direction
>> 190 if (G4UniformRand() < 0.5) NewPolarization = -NewPolarization;
>> 191 }
>> 192
>> 193 // simulate according to the distribution cos^2(theta)
>> 194 cosTheta = NewPolarization.dot(OldPolarization);
>> 195 // Loop checking, 13-Aug-2015, Peter Gumplinger
>> 196 } while (std::pow(cosTheta,2) < G4UniformRand());
>> 197
>> 198 aParticleChange.ProposePolarization(NewPolarization);
>> 199 aParticleChange.ProposeMomentumDirection(NewMomentumDirection);
>> 200
>> 201 if (verboseLevel>0) {
>> 202 G4cout << "New Polarization: "
>> 203 << NewPolarization << G4endl;
>> 204 G4cout << "Polarization Change: "
>> 205 << *(aParticleChange.GetPolarization()) << G4endl;
>> 206 G4cout << "New Momentum Direction: "
>> 207 << NewMomentumDirection << G4endl;
>> 208 G4cout << "Momentum Change: "
>> 209 << *(aParticleChange.GetMomentumDirection()) << G4endl;
>> 210 }
183 211
184 return G4VDiscreteProcess::PostStepDoIt(aTra << 212 return G4VDiscreteProcess::PostStepDoIt(aTrack, aStep);
185 } 213 }
186 214
187 //....oooOO0OOooo........oooOO0OOooo........oo << 215 // BuildPhysicsTable for the Rayleigh Scattering process
>> 216 // --------------------------------------------------------
188 void G4OpRayleigh::BuildPhysicsTable(const G4P 217 void G4OpRayleigh::BuildPhysicsTable(const G4ParticleDefinition&)
189 { 218 {
190 if(thePhysicsTable) << 219 if (thePhysicsTable) {
191 { << 220 thePhysicsTable->clearAndDestroy();
192 // thePhysicsTable->clearAndDestroy(); << 221 delete thePhysicsTable;
193 delete thePhysicsTable; << 222 thePhysicsTable = NULL;
194 thePhysicsTable = nullptr; <<
195 } 223 }
196 224
197 const G4MaterialTable* theMaterialTable = G4 225 const G4MaterialTable* theMaterialTable = G4Material::GetMaterialTable();
198 const size_t numOfMaterials = G4 << 226 const G4int numOfMaterials = G4Material::GetNumberOfMaterials();
199 thePhysicsTable = ne <<
200 227
201 for(size_t i = 0; i < numOfMaterials; ++i) << 228 thePhysicsTable = new G4PhysicsTable( numOfMaterials );
202 { << 229
203 G4Material* material = (*the << 230 for( G4int iMaterial = 0; iMaterial < numOfMaterials; iMaterial++ )
204 G4MaterialPropertiesTable* matProp = mater << 231 {
205 G4PhysicsFreeVector* rayleigh = nullptr; << 232 G4Material* material = (*theMaterialTable)[iMaterial];
206 if(matProp) << 233 G4MaterialPropertiesTable* materialProperties =
207 { << 234 material->GetMaterialPropertiesTable();
208 rayleigh = matProp->GetProperty(kRAYLEIG << 235 G4PhysicsOrderedFreeVector* rayleigh = NULL;
209 if(rayleigh == nullptr) << 236 if ( materialProperties != NULL ) {
210 rayleigh = CalculateRayleighMeanFreePa << 237 rayleigh = materialProperties->GetProperty( "RAYLEIGH" );
211 } << 238 if ( rayleigh == NULL ) rayleigh =
212 thePhysicsTable->insertAt(i, rayleigh); << 239 CalculateRayleighMeanFreePaths( material );
>> 240 }
>> 241 thePhysicsTable->insertAt( iMaterial, rayleigh );
213 } 242 }
214 } 243 }
215 244
216 //....oooOO0OOooo........oooOO0OOooo........oo << 245 // GetMeanFreePath()
217 G4double G4OpRayleigh::GetMeanFreePath(const G << 246 // -----------------
218 G4Force << 247 //
>> 248 G4double G4OpRayleigh::GetMeanFreePath(const G4Track& aTrack,
>> 249 G4double ,
>> 250 G4ForceCondition* )
219 { 251 {
220 auto rayleigh = static_cast<G4PhysicsFreeVec << 252 const G4DynamicParticle* particle = aTrack.GetDynamicParticle();
221 (*thePhysicsTable)(aTrack.GetMaterial()- << 253 const G4double photonMomentum = particle->GetTotalMomentum();
222 << 254 const G4Material* material = aTrack.GetMaterial();
>> 255
>> 256 G4PhysicsOrderedFreeVector* rayleigh =
>> 257 static_cast<G4PhysicsOrderedFreeVector*>
>> 258 ((*thePhysicsTable)(material->GetIndex()));
>> 259
223 G4double rsLength = DBL_MAX; 260 G4double rsLength = DBL_MAX;
224 if(rayleigh) << 261 if( rayleigh != NULL ) rsLength = rayleigh->Value( photonMomentum );
225 { <<
226 rsLength = rayleigh->Value(aTrack.GetDynam <<
227 idx_rslength); <<
228 } <<
229 return rsLength; 262 return rsLength;
230 } 263 }
231 264
232 //....oooOO0OOooo........oooOO0OOooo........oo << 265 // CalculateRayleighMeanFreePaths()
233 G4PhysicsFreeVector* G4OpRayleigh::CalculateRa << 266 // --------------------------------
234 const G4Material* material) const << 267 // Private method to compute Rayleigh Scattering Lengths
>> 268 G4PhysicsOrderedFreeVector*
>> 269 G4OpRayleigh::CalculateRayleighMeanFreePaths( const G4Material* material ) const
235 { 270 {
236 G4MaterialPropertiesTable* MPT = material->G << 271 G4MaterialPropertiesTable* materialProperties =
>> 272 material->GetMaterialPropertiesTable();
237 273
238 // Retrieve the beta_T or isothermal compres 274 // Retrieve the beta_T or isothermal compressibility value. For backwards
239 // compatibility use a constant if the mater 275 // compatibility use a constant if the material is "Water". If the material
240 // doesn't have an ISOTHERMAL_COMPRESSIBILIT 276 // doesn't have an ISOTHERMAL_COMPRESSIBILITY constant then return
241 G4double betat; 277 G4double betat;
242 if(material->GetName() == "Water") << 278 if ( material->GetName() == "Water" )
243 { << 279 betat = 7.658e-23*m3/MeV;
244 betat = 7.658e-23 * m3 / MeV; << 280 else if(materialProperties->ConstPropertyExists("ISOTHERMAL_COMPRESSIBILITY"))
245 } << 281 betat = materialProperties->GetConstProperty("ISOTHERMAL_COMPRESSIBILITY");
246 else if(MPT->ConstPropertyExists(kISOTHERMAL <<
247 { <<
248 betat = MPT->GetConstProperty(kISOTHERMAL_ <<
249 } <<
250 else 282 else
251 { << 283 return NULL;
252 return nullptr; <<
253 } <<
254 284
255 // If the material doesn't have a RINDEX pro 285 // If the material doesn't have a RINDEX property vector then return
256 G4MaterialPropertyVector* rIndex = MPT->GetP << 286 G4MaterialPropertyVector* rIndex = materialProperties->GetProperty("RINDEX");
257 if(rIndex == nullptr) << 287 if ( rIndex == NULL ) return NULL;
258 return nullptr; <<
259 288
260 // Retrieve the optional scale factor (scale << 289 // Retrieve the optional scale factor, (this just scales the scattering length
261 G4double scaleFactor = 1.0; 290 G4double scaleFactor = 1.0;
262 if(MPT->ConstPropertyExists(kRS_SCALE_FACTOR << 291 if( materialProperties->ConstPropertyExists( "RS_SCALE_FACTOR" ) )
263 { << 292 scaleFactor= materialProperties->GetConstProperty("RS_SCALE_FACTOR" );
264 scaleFactor = MPT->GetConstProperty(kRS_SC <<
265 } <<
266 293
267 // Retrieve the material temperature. For ba << 294 // Retrieve the material temperature. For backwards compatibility use a
268 // constant if the material is "Water" 295 // constant if the material is "Water"
269 G4double temperature; 296 G4double temperature;
270 if(material->GetName() == "Water") << 297 if( material->GetName() == "Water" )
271 { << 298 temperature = 283.15*kelvin; // Temperature of water is 10 degrees celsius
272 temperature = <<
273 283.15 * kelvin; // Temperature of wate <<
274 } <<
275 else 299 else
276 { <<
277 temperature = material->GetTemperature(); 300 temperature = material->GetTemperature();
278 } <<
279 301
280 auto rayleighMFPs = new G4PhysicsFreeVector( << 302 G4PhysicsOrderedFreeVector* rayleighMeanFreePaths =
>> 303 new G4PhysicsOrderedFreeVector();
281 // This calculates the meanFreePath via the 304 // This calculates the meanFreePath via the Einstein-Smoluchowski formula
282 const G4double c1 = << 305 const G4double c1 = scaleFactor * betat * temperature * k_Boltzmann /
283 scaleFactor * betat * temperature * k_Bolt << 306 ( 6.0 * pi );
284 307
285 for(size_t uRIndex = 0; uRIndex < rIndex->Ge << 308 for( size_t uRIndex = 0; uRIndex < rIndex->GetVectorLength(); uRIndex++ )
286 { 309 {
287 const G4double energy = rIndex->Ene << 310 const G4double energy = rIndex->Energy( uRIndex );
288 const G4double rIndexSquared = (*rIndex)[u << 311 const G4double rIndexSquared = (*rIndex)[uRIndex] * (*rIndex)[uRIndex];
289 const G4double xlambda = h_Planck * << 312 const G4double xlambda = h_Planck * c_light / energy;
290 const G4double c2 = std::pow(tw << 313 const G4double c2 = std::pow(twopi/xlambda,4);
291 const G4double c3 = << 314 const G4double c3 =
292 std::pow(((rIndexSquared - 1.0) * (rInde << 315 std::pow(((rIndexSquared-1.0)*(rIndexSquared+2.0 )/3.0),2);
293 <<
294 const G4double meanFreePath = 1.0 / (c1 * <<
295 <<
296 if(verboseLevel > 0) <<
297 { <<
298 G4cout << energy << "MeV\t" << meanFreeP <<
299 } <<
300 316
301 rayleighMFPs->InsertValues(energy, meanFre << 317 const G4double meanFreePath = 1.0 / ( c1 * c2 * c3 );
302 } <<
303 318
304 return rayleighMFPs; << 319 if( verboseLevel>0 )
305 } << 320 G4cout << energy << "MeV\t" << meanFreePath << "mm" << G4endl;
306 321
307 //....oooOO0OOooo........oooOO0OOooo........oo << 322 rayleighMeanFreePaths->InsertValues( energy, meanFreePath );
308 void G4OpRayleigh::SetVerboseLevel(G4int verbo << 323 }
309 { << 324
310 verboseLevel = verbose; << 325 return rayleighMeanFreePaths;
311 G4OpticalParameters::Instance()->SetRayleigh <<
312 } 326 }
313 327