lars/geant4
1
0
Fork 0
Code Issues Pull Requests Actions Packages Projects Releases Wiki Activity

Import Geant4 3.0.0 source tree

Browse Source
This commit is contained in:
Gabriele Cosmo
2016-06-08 15:55:53 +02:00
parent e7d7193284
commit cfcb558cfe
3050 changed files with 91703 additions and 48310 deletions
Download Patch File Download Diff File Expand all files Collapse all files
source/processes/hadronic/models/radiative_decay/src/G4NuclearDecayChannel.cc
+172 -127
View File
@@ -1,6 +1,6 @@
// %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
//
// MODULE: G4NuclearDecayChannel.cc
// MODULES: G4NuclearDecayChannel.cc
//
// Version: 0.b.4
// Date: 14/04/00
@@ -38,11 +38,11 @@
#include "G4PhotonEvaporation.hh"
#include "G4VGammaDeexcitation.hh"
#include "G4Gamma.hh"
#include "Randomize.hh"
const G4double G4NuclearDecayChannel:: pTolerance = 0.001;
const G4double G4NuclearDecayChannel:: levelTolerance = 2.0*keV;
const G4bool G4NuclearDecayChannel:: FermiOn = true;
//const G4bool G4NuclearDecayChannel:: FermiOn = true;
///////////////////////////////////////////////////////////////////////////////
//
@@ -87,7 +87,7 @@ G4NuclearDecayChannel::G4NuclearDecayChannel
G4int Z,
G4double theDaughterExcitation,
const G4String theDaughterName1) :
G4GeneralPhaseSpaceDecay(Verbose), decayMode(theMode)
G4GeneralPhaseSpaceDecay(Verbose), decayMode(theMode)
{
#ifdef G4VERBOSE
if (GetVerboseLevel()>1)
@@ -113,13 +113,17 @@ G4NuclearDecayChannel::G4NuclearDecayChannel
const G4ParticleDefinition *theParentNucleus,
G4double theBR,
G4double theFFN,
G4bool betaS,
RandGeneral* randBeta,
G4double theQtransition,
G4int A,
G4int Z,
G4double theDaughterExcitation,
const G4String theDaughterName1,
const G4String theDaughterName2) :
G4GeneralPhaseSpaceDecay(Verbose), decayMode(theMode)
G4GeneralPhaseSpaceDecay(Verbose), decayMode(theMode)
//,BetaSimple(betaS),
// RandomEnergy(randBeta), Qtransition(theQtransition),FermiFN(theFFN)
{
#ifdef G4VERBOSE
if (GetVerboseLevel()>1)
@@ -133,6 +137,8 @@ G4NuclearDecayChannel::G4NuclearDecayChannel
SetDaughter(0, theDaughterName1);
SetDaughter(2, theDaughterName2);
FillDaughterNucleus(1, A, Z, theDaughterExcitation);
BetaSimple = betaS;
RandomEnergy = randBeta;
Qtransition = theQtransition;
FermiFN = theFFN;
}
@@ -383,6 +389,7 @@ G4DecayProducts *G4NuclearDecayChannel::DecayIt (G4double theParentMass)
G4DecayProducts *G4NuclearDecayChannel::BetaDecayIt()
{
if (GetVerboseLevel()>1) G4cout << "G4Decay::BetaDecayIt()"<<G4endl;
@@ -404,134 +411,172 @@ G4DecayProducts *G4NuclearDecayChannel::BetaDecayIt()
G4DecayProducts *products = new G4DecayProducts(*parentparticle);
delete parentparticle;
//calculate daughter momentum
// Generate two
G4double rd1, rd2, rd;
G4double daughtermomentum[3];
G4double daughterenergy[3];
G4double momentummax=0.0, momentumsum = 0.0;
G4double Q = pmass - sumofdaughtermass;
G4double fermif;
G4BetaFermiFunction* aBetaFermiFunction;
if (decayMode == 1) {
// beta-decay
aBetaFermiFunction = new G4BetaFermiFunction (daughterA, daughterZ);
G4double Q = pmass - sumofdaughtermass;
if (BetaSimple == true) {
// Use the histogramed distribution to generate the beta energy
G4double daughtermomentum[2];
G4double daughterenergy[2];
daughterenergy[0] = RandomEnergy->shoot() * Q;
daughtermomentum[0] = sqrt(daughterenergy[0]*daughterenergy[0] +
2.0*daughterenergy[0] * daughtermass[0]);
// the recoil neuleus is asummed to have a maximum energy of Q/daughterA/1000.
daughterenergy[1] = G4UniformRand() * Q/(1000.*daughterA);
daughtermomentum[1] = sqrt(daughterenergy[1]*daughterenergy[1] +
2.0*daughterenergy[1] * daughtermass[1]);
//
//create daughter G4DynamicParticle
G4double costheta, sintheta, phi, sinphi, cosphi;
G4double costhetan, sinthetan, phin, sinphin, cosphin;
costheta = 2.*G4UniformRand()-1.0;
sintheta = sqrt((1.0-costheta)*(1.0+costheta));
phi = 2.0*M_PI*G4UniformRand()*rad;
sinphi = sin(phi);
cosphi = cos(phi);
G4ParticleMomentum direction0(sintheta*cosphi,sintheta*sinphi,costheta);
G4DynamicParticle * daughterparticle
= new G4DynamicParticle( daughters[0], direction0*daughtermomentum[0]);
products->PushProducts(daughterparticle);
// The two products are independent in directions
costheta = 2.*G4UniformRand()-1.0;
sintheta = sqrt((1.0-costheta)*(1.0+costheta));
phi = 2.0*M_PI*G4UniformRand()*rad;
sinphi = sin(phi);
cosphi = cos(phi);
G4ParticleMomentum direction1(sintheta*cosphi,sintheta*sinphi,costheta);
daughterparticle
= new G4DynamicParticle( daughters[1], direction1*daughtermomentum[1]);
products->PushProducts(daughterparticle);
// the neutrino is igored in this case
} else {
// beta+decay
aBetaFermiFunction = new G4BetaFermiFunction (daughterA, -daughterZ);
//calculate daughter momentum
// Generate two
G4double rd1, rd2, rd;
G4double daughtermomentum[3];
G4double daughterenergy[3];
G4double momentummax=0.0, momentumsum = 0.0;
G4double fermif;
G4BetaFermiFunction* aBetaFermiFunction;
if (decayMode == 1) {
// beta-decay
aBetaFermiFunction = new G4BetaFermiFunction (daughterA, daughterZ);
} else {
// beta+decay
aBetaFermiFunction = new G4BetaFermiFunction (daughterA, -daughterZ);
}
if (GetVerboseLevel()>1) {
G4cout<< " Q = " <<Q<<G4endl;
G4cout<< " daughterA = " <<daughterA<<G4endl;
G4cout<< " daughterZ = " <<daughterZ<<G4endl;
G4cout<< " decayMode = " <<decayMode << G4endl;
G4cout<< " FermiFN = " <<FermiFN<<G4endl;
}
do
{
rd1 = G4UniformRand();
rd2 = G4UniformRand();
momentummax = 0.0;
momentumsum = 0.0;
// daughter 0
// energy = rd2*(pmass - sumofdaughtermass);
daughtermomentum[0] = sqrt(rd2) * sqrt((Q + 2.0*daughtermass[0])*Q);
daughterenergy[0] = sqrt(daughtermomentum[0]*daughtermomentum[0] +
daughtermass[0] * daughtermass[0]) - daughtermass[0];
if ( daughtermomentum[0] >momentummax )momentummax = daughtermomentum[0];
momentumsum += daughtermomentum[0];
// daughter 2
// energy = (1.-rd1)*(pmass - sumofdaughtermass);
daughtermomentum[2] = sqrt(rd1)*sqrt((Q + 2.0*daughtermass[2])*Q);
daughterenergy[2] = sqrt(daughtermomentum[2]*daughtermomentum[2] +
daughtermass[2] * daughtermass[2]) - daughtermass[2];
if ( daughtermomentum[2] >momentummax )momentummax = daughtermomentum[2];
momentumsum += daughtermomentum[2];
// daughter 1
daughterenergy[1] = Q - daughterenergy[0] - daughterenergy[2];
if (daughterenergy[1] > 0.0) {
daughtermomentum[1] = sqrt(daughterenergy[1]*daughterenergy[1] +
2.0*daughterenergy[1] * daughtermass[1]);
if ( daughtermomentum[1] >momentummax ) momentummax =
daughtermomentum[1];
momentumsum += daughtermomentum[1];
} else {
momentummax = momentumsum = Q;
}
// beta particles is sampled with no coulomb effects applied above. Now
// apply the Fermi function using rejection method.
daughterenergy[0] = daughterenergy[0]*MeV/0.511;
fermif = aBetaFermiFunction->GetFF(daughterenergy[0])/FermiFN;
// fermif: normalised Fermi factor
if (G4UniformRand() > fermif) momentummax = momentumsum = Q;
// rejection method
} while (momentummax > momentumsum - momentummax );
delete aBetaFermiFunction;
// output message
if (GetVerboseLevel()>1) {
G4cout <<" daughter 0:" <<daughtermomentum[0]/GeV <<"[GeV/c]" <<G4endl;
G4cout <<" daughter 1:" <<daughtermomentum[1]/GeV <<"[GeV/c]" <<G4endl;
G4cout <<" daughter 2:" <<daughtermomentum[2]/GeV <<"[GeV/c]" <<G4endl;
G4cout <<" momentum sum:" <<momentumsum/GeV <<"[GeV/c]" <<G4endl;
}
//create daughter G4DynamicParticle
G4double costheta, sintheta, phi, sinphi, cosphi;
G4double costhetan, sinthetan, phin, sinphin, cosphin;
costheta = 2.*G4UniformRand()-1.0;
sintheta = sqrt((1.0-costheta)*(1.0+costheta));
phi = 2.0*M_PI*G4UniformRand()*rad;
sinphi = sin(phi);
cosphi = cos(phi);
G4ParticleMomentum direction0(sintheta*cosphi,sintheta*sinphi,costheta);
G4DynamicParticle * daughterparticle
= new G4DynamicParticle( daughters[0], direction0*daughtermomentum[0]);
products->PushProducts(daughterparticle);
costhetan = (daughtermomentum[1]*daughtermomentum[1]-
daughtermomentum[2]*daughtermomentum[2]-
daughtermomentum[0]*daughtermomentum[0])/
(2.0*daughtermomentum[2]*daughtermomentum[0]);
sinthetan = sqrt((1.0-costhetan)*(1.0+costhetan));
phin = 2.0*M_PI*G4UniformRand()*rad;
sinphin = sin(phin);
cosphin = cos(phin);
G4ParticleMomentum direction2;
direction2.setX( sinthetan*cosphin*costheta*cosphi -
sinthetan*sinphin*sinphi + costhetan*sintheta*cosphi);
direction2.setY( sinthetan*cosphin*costheta*sinphi +
sinthetan*sinphin*cosphi + costhetan*sintheta*sinphi);
direction2.setZ( -sinthetan*cosphin*sintheta +
costhetan*costheta);
daughterparticle = new G4DynamicParticle
( daughters[2], direction2*(daughtermomentum[2]/direction2.mag()));
products->PushProducts(daughterparticle);
daughterparticle =
new G4DynamicParticle (daughters[1],
(direction0*daughtermomentum[0] +
direction2*(daughtermomentum[2]/direction2.mag()))*(-1.0));
products->PushProducts(daughterparticle);
}
if (GetVerboseLevel()>1) {
G4cout<< " Q = " <<Q<<G4endl;
G4cout<< " daughterA = " <<daughterA<<G4endl;
G4cout<< " daughterZ = " <<daughterZ<<G4endl;
G4cout<< " decayMode = " <<decayMode << G4endl;
G4cout<< " FermiFN = " <<FermiFN<<G4endl;
}
do
{
rd1 = G4UniformRand();
rd2 = G4UniformRand();
momentummax = 0.0;
momentumsum = 0.0;
// daughter 0
// energy = rd2*(pmass - sumofdaughtermass);
daughtermomentum[0] = sqrt(rd2) * sqrt((Q + 2.0*daughtermass[0])*Q);
daughterenergy[0] = sqrt(daughtermomentum[0]*daughtermomentum[0] +
daughtermass[0] * daughtermass[0]) - daughtermass[0];
if ( daughtermomentum[0] >momentummax )momentummax = daughtermomentum[0];
momentumsum += daughtermomentum[0];
// daughter 2
// energy = (1.-rd1)*(pmass - sumofdaughtermass);
daughtermomentum[2] = sqrt(rd1)*sqrt((Q + 2.0*daughtermass[2])*Q);
daughterenergy[2] = sqrt(daughtermomentum[2]*daughtermomentum[2] +
daughtermass[2] * daughtermass[2]) - daughtermass[2];
if ( daughtermomentum[2] >momentummax )momentummax = daughtermomentum[2];
momentumsum += daughtermomentum[2];
// daughter 1
daughterenergy[1] = Q - daughterenergy[0] - daughterenergy[2];
if (daughterenergy[1] > 0.0) {
daughtermomentum[1] = sqrt(daughterenergy[1]*daughterenergy[1] +
2.0*daughterenergy[1] * daughtermass[1]);
if ( daughtermomentum[1] >momentummax ) momentummax =
daughtermomentum[1];
momentumsum += daughtermomentum[1];
} else {
momentummax = momentumsum = Q;
}
// beta particles is sampled with no coulomb effects applied above. Now
// apply the Fermi function using rejection method.
if (FermiOn) {
daughterenergy[0] = daughterenergy[0]*MeV/0.511;
fermif = aBetaFermiFunction->GetFF(daughterenergy[0])/FermiFN;
// fermif: normalised Fermi factor
if (G4UniformRand() > fermif) momentummax = momentumsum = Q;
// rejection method
}
} while (momentummax > momentumsum - momentummax );
delete aBetaFermiFunction;
// output message
if (GetVerboseLevel()>1) {
G4cout <<" daughter 0:" <<daughtermomentum[0]/GeV <<"[GeV/c]" <<G4endl;
G4cout <<" daughter 1:" <<daughtermomentum[1]/GeV <<"[GeV/c]" <<G4endl;
G4cout <<" daughter 2:" <<daughtermomentum[2]/GeV <<"[GeV/c]" <<G4endl;
G4cout <<" momentum sum:" <<momentumsum/GeV <<"[GeV/c]" <<G4endl;
}
//create daughter G4DynamicParticle
G4double costheta, sintheta, phi, sinphi, cosphi;
G4double costhetan, sinthetan, phin, sinphin, cosphin;
costheta = 2.*G4UniformRand()-1.0;
sintheta = sqrt((1.0-costheta)*(1.0+costheta));
phi = 2.0*M_PI*G4UniformRand()*rad;
sinphi = sin(phi);
cosphi = cos(phi);
G4ParticleMomentum direction0(sintheta*cosphi,sintheta*sinphi,costheta);
G4DynamicParticle * daughterparticle
= new G4DynamicParticle( daughters[0], direction0*daughtermomentum[0]);
products->PushProducts(daughterparticle);
costhetan = (daughtermomentum[1]*daughtermomentum[1]-
daughtermomentum[2]*daughtermomentum[2]-
daughtermomentum[0]*daughtermomentum[0])/
(2.0*daughtermomentum[2]*daughtermomentum[0]);
sinthetan = sqrt((1.0-costhetan)*(1.0+costhetan));
phin = 2.0*M_PI*G4UniformRand()*rad;
sinphin = sin(phin);
cosphin = cos(phin);
G4ParticleMomentum direction2;
direction2.setX( sinthetan*cosphin*costheta*cosphi -
sinthetan*sinphin*sinphi + costhetan*sintheta*cosphi);
direction2.setY( sinthetan*cosphin*costheta*sinphi +
sinthetan*sinphin*cosphi + costhetan*sintheta*sinphi);
direction2.setZ( -sinthetan*cosphin*sintheta +
costhetan*costheta);
daughterparticle = new G4DynamicParticle
( daughters[2], direction2*(daughtermomentum[2]/direction2.mag()));
products->PushProducts(daughterparticle);
daughterparticle =
new G4DynamicParticle (daughters[1],
(direction0*daughtermomentum[0] +
direction2*(daughtermomentum[2]/direction2.mag()))*(-1.0));
products->PushProducts(daughterparticle);
// delete daughterparticle;
if (GetVerboseLevel()>1) {
G4cout << "G4NuclearDecayChannel::BetaDecayIt ";
G4cout << " create decay products in rest frame " <<G4endl;
products->DumpInfo();
G4cout << "G4NuclearDecayChannel::BetaDecayIt ";
G4cout << " create decay products in rest frame " <<G4endl;
products->DumpInfo();
}
return products;}
return products;
}
source/processes/hadronic/models/radiative_decay/src/G4RIsotopeTable.cc
+2 -1
View File
@@ -30,6 +30,7 @@
#include "G4ParticleTable.hh"
#include "G4IsotopeProperty.hh"
#include "G4RIsotopeTable.hh"
/*
#include "G4RadioactiveDecayMode.hh"
#include "G4ITDecayChannel.hh"
#include "G4BetaMinusDecayChannel.hh"
@@ -37,7 +38,7 @@
#include "G4KshellECDecayChannel.hh"
#include "G4LshellECDecayChannel.hh"
#include "G4AlphaDecayChannel.hh"
*/
#include "G4ios.hh"
#include "globals.hh"
#include "g4std/iomanip"
source/processes/hadronic/models/radiative_decay/src/G4RadioactiveDecay.cc
+64 -11
View File
@@ -2,26 +2,45 @@
//
// MODULE: G4RadioactiveDecay.cc
//
// Version: 0.b.4
// Date: 14/04/00
// Author: F Lei & P R Truscott
// Organisation: DERA UK
// Customer: ESA/ESTEC, NOORDWIJK
// Contract: 12115/96/JG/NL Work Order No. 3
//
// Documentation avaialable at http://www.space.dera.gov.uk/space_env/rdm.html
// These include:
// User Requirement Document (URD)
// Software Specification Documents (SSD)
// Software User Manual (SUM)
// Technical Note (TN) on the physics and algorithms
//
// The test and example programs are not included in the public release of
// G4 but they can be downloaded from
// http://www.space.dera.gov.uk/space_env/rdm.html
//
// %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
//
// CHANGE HISTORY
// --------------
//
// 29 February 2000, P R Truscott, DERA UK
// 0.b.3 release.
// 01 November 2000, F.Lei
// added " ee = e0 +1. ;" as line 763
// tagged as "radiative_decay-V02-00-02"
// 28 October 2000, F Lei
// added fast beta decay mode. Many files have been changed.
// tagged as "radiative_decay-V02-00-01"
//
// 25 October 2000, F Lei, DERA UK
// 1) line 1185 added 'const' to work with tag "Track-V02-00-00"
// tagged as "radiative_decay-V02-00-00"
// 14 April 2000, F Lei, DERA UK
// 0.b.4 release. Changes are:
// 1) Use PhotonEvaporation instead of DiscreteGammaDeexcitation
// 2) VR: Significant efficiency inprovement
//
//
// 29 February 2000, P R Truscott, DERA UK
// 0.b.3 release.
//
// %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
///////////////////////////////////////////////////////////////////////////////
//
@@ -64,7 +83,7 @@ const G4double G4RadioactiveDecay::levelTolerance =2.0*keV;
G4RadioactiveDecay::G4RadioactiveDecay
(const G4String& processName)
:G4VRestDiscreteProcess(processName, fDecay), HighestBinValue(10.0),
LowestBinValue(1.0e-3), TotBin(200), verboseLevel(1)
LowestBinValue(1.0e-3), TotBin(200), verboseLevel(1)
{
#ifdef G4VERBOSE
if (GetVerboseLevel()>1) {
@@ -106,6 +125,7 @@ G4RadioactiveDecay::G4RadioactiveDecay
DProfile[1] = 0.;
NSplit = 1;
AnalogueMC = true ;
FBeta = false ;
BRBias = true ;
//
// RDM applies to xall logical volumes as default
@@ -698,11 +718,28 @@ G4DecayTable *G4RadioactiveDecay::LoadDecayTable (G4ParticleDefinition
e0 = c*MeV/0.511;
n = aBetaFermiFunction->GetFFN(e0);
// now to work out the histogram and initialise the random generator
G4int npti = 100;
G4double* pdf = new G4double[npti];
G4int ptn;
G4double g,e,ee,f;
ee = e0+1.;
for (ptn=0; ptn<npti; ptn++) {
e =e0*(ptn+1.)/102.;
g = e+1.;
f = sqrt(g*g-1)*(ee-g)*(ee-g)*g;
pdf[ptn] = f*aBetaFermiFunction->GetFF(e);
}
RandGeneral* aRandomEnergy = new RandGeneral( pdf, npti);
G4BetaMinusDecayChannel *aBetaMinusChannel = new
G4BetaMinusDecayChannel (GetVerboseLevel(), &theParentNucleus,
b, c*MeV, a*MeV, n);
b, c*MeV, a*MeV, n, FBeta, aRandomEnergy);
theDecayTable->Insert(aBetaMinusChannel);
modeSumBR[1] += b;
delete[] pdf;
delete aBetaFermiFunction;
}
break;
@@ -718,11 +755,27 @@ G4DecayTable *G4RadioactiveDecay::LoadDecayTable (G4ParticleDefinition
G4BetaFermiFunction* aBetaFermiFunction = new G4BetaFermiFunction (A, -(Z-1));
e0 = c*MeV/0.511;
n = aBetaFermiFunction->GetFFN(e0);
// now to work out the histogram and initialise the random generator
G4int npti = 100;
G4double* pdf = new G4double[npti];
G4int ptn;
G4double g,e,ee,f;
ee = e0+1.;
for (ptn=0; ptn<npti; ptn++) {
e =e0*(ptn+1.)/102.;
g = e+1.;
f = sqrt(g*g-1)*(ee-g)*(ee-g)*g;
pdf[ptn] = f*aBetaFermiFunction->GetFF(e);
}
RandGeneral* aRandomEnergy = new RandGeneral( pdf, npti);
G4BetaPlusDecayChannel *aBetaPlusChannel = new
G4BetaPlusDecayChannel (GetVerboseLevel(), &theParentNucleus,
b, c*MeV, a*MeV, n);
b, c*MeV, a*MeV, n, FBeta, aRandomEnergy);
theDecayTable->Insert(aBetaPlusChannel);
modeSumBR[2] += b;
delete[] pdf;
delete aBetaFermiFunction;
}
break;
@@ -1004,7 +1057,7 @@ void G4RadioactiveDecay::AddDecayRateTable(const G4ParticleDefinition &theParent
// Decay mode is beta-.
//
theBetaMinusChannel = new G4BetaMinusDecayChannel (0, aParentNucleus,
brs[1], 0.*MeV, 0.*MeV, 1);
brs[1], 0.*MeV, 0.*MeV, 1, false, NULL);
theDecayTable->Insert(theBetaMinusChannel);
break;
@@ -1015,7 +1068,7 @@ void G4RadioactiveDecay::AddDecayRateTable(const G4ParticleDefinition &theParent
// Decay mode is beta+ + EC.
//
theBetaPlusChannel = new G4BetaPlusDecayChannel (GetVerboseLevel(), aParentNucleus,
brs[2], 0.*MeV, 0.*MeV, 1);
brs[2], 0.*MeV, 0.*MeV, 1, false, NULL);
theDecayTable->Insert(theBetaPlusChannel);
break;
@@ -1182,7 +1235,7 @@ G4VParticleChange* G4RadioactiveDecay::DecayIt(const G4Track& theTrack, const G4
// decay table.
//
fParticleChangeForRadDecay.Initialize(theTrack);
G4DynamicParticle* theParticle = theTrack.GetDynamicParticle();
const G4DynamicParticle* theParticle = theTrack.GetDynamicParticle();
G4ParticleDefinition *theParticleDef = theParticle->GetDefinition();
// First check whether RDM applies to the current logical volume
source/processes/hadronic/models/radiative_decay/src/G4RadioactiveDecaymessenger.cc
+15
View File
@@ -35,6 +35,14 @@ G4RadioactiveDecaymessenger::G4RadioactiveDecaymessenger
analoguemcCmd->SetGuidance("false: variance reduction method; true: analogue method");
analoguemcCmd->SetParameterName("AnalogueMC",true);
analoguemcCmd->SetDefaultValue(true);
//
// The next command contols whether beta decay will be treated faithfully or
// in fast mode
//
fbetaCmd = new G4UIcmdWithABool ("/grdm/fBeta",this);
fbetaCmd->SetGuidance("false: use 3-body decay, true: use histogram method");
fbetaCmd->SetParameterName("fBeta",true);
fbetaCmd->SetDefaultValue(false);
//
//
@@ -131,6 +139,7 @@ G4RadioactiveDecaymessenger::~G4RadioactiveDecaymessenger ()
delete sourcetimeprofileCmd;
delete decaybiasprofileCmd;
delete analoguemcCmd;
delete fbetaCmd;
delete brbiasCmd;
delete splitnucleiCmd;
delete verboseCmd;
@@ -151,6 +160,12 @@ void G4RadioactiveDecaymessenger::SetNewValue (G4UIcommand *command, G4String ne
G4std::istrstream is((char*)t);
is >> vl;
theRadioactiveDecayContainer->SetAnalogueMonteCarlo(vl!=0);}
else if (command==fbetaCmd) {
G4int vl;
const char* t = newValues;
G4std::istrstream is((char*)t);
is >> vl;
theRadioactiveDecayContainer->SetFBeta(vl!=0);}
else if (command==avolumeCmd) {theRadioactiveDecayContainer->
SelectAVolume(newValues);}
else if (command==deavolumeCmd) {theRadioactiveDecayContainer->