#include <G4NeutronHPInelasticBaseFS.hh>

Inheritance diagram for G4NeutronHPInelasticBaseFS:

Public Member Functions
	G4NeutronHPInelasticBaseFS ()

virtual	~G4NeutronHPInelasticBaseFS ()

void	Init (G4double A, G4double Z, G4int M, G4String &dirName, G4String &bit)

void	BaseApply (const G4HadProjectile &theTrack, G4ParticleDefinition **theDefs, G4int nDef)

void	InitGammas (G4double AR, G4double ZR)

virtual G4HadFinalState *	ApplyYourself (const G4HadProjectile &theTrack)=0

virtual G4NeutronHPFinalState *	New ()=0

virtual G4double	GetXsec (G4double anEnergy)

virtual G4NeutronHPVector *	GetXsec ()

Public Member Functions inherited from G4NeutronHPFinalState
	G4NeutronHPFinalState ()

virtual	~G4NeutronHPFinalState ()

void	Init (G4double A, G4double Z, G4String &dirName, G4String &aFSType)

G4bool	HasXsec ()

G4bool	HasFSData ()

G4bool	HasAnyData ()

void	SetA_Z (G4double anA, G4double aZ, G4int aM=0)

G4double	GetZ ()

G4double	GetN ()

G4int	GetM ()

Protected Attributes
G4NeutronHPVector *	theXsection

G4NeutronHPEnergyDistribution *	theEnergyDistribution

G4NeutronHPAngular *	theAngularDistribution

G4NeutronHPEnAngCorrelation *	theEnergyAngData

G4NeutronHPPhotonDist *	theFinalStatePhotons

G4double	theNuclearMassDifference

G4NeutronHPDeExGammas	theGammas

G4String	gammaPath

Protected Attributes inherited from G4NeutronHPFinalState
G4bool	hasXsec

G4bool	hasFSData

G4bool	hasAnyData

G4NeutronHPNames	theNames

G4HadFinalState	theResult

G4double	theBaseA

G4double	theBaseZ

G4int	theBaseM

G4int	theNDLDataZ

G4int	theNDLDataA

G4int	theNDLDataM

Additional Inherited Members
Protected Member Functions inherited from G4NeutronHPFinalState
void	SetAZMs (G4double anA, G4double aZ, G4int aM, G4NeutronHPDataUsed used)

void	adjust_final_state (G4LorentzVector)

G4bool	DoNotAdjustFinalState ()

Detailed Description

Definition at line 41 of file G4NeutronHPInelasticBaseFS.hh.

Constructor & Destructor Documentation

G4NeutronHPInelasticBaseFS::G4NeutronHPInelasticBaseFS ( )

inline

Definition at line 45 of file G4NeutronHPInelasticBaseFS.hh.

References G4NeutronHPFinalState::hasXsec, theAngularDistribution, theEnergyAngData, theEnergyDistribution, theFinalStatePhotons, and theXsection.

   {
     hasXsec = true; 
     theXsection = new G4NeutronHPVector;
     
     theEnergyDistribution = 0;
     theFinalStatePhotons = 0;
     theEnergyAngData = 0;
     theAngularDistribution = 0;
 
   }

virtual G4NeutronHPInelasticBaseFS::~G4NeutronHPInelasticBaseFS ( )

inlinevirtual

Definition at line 56 of file G4NeutronHPInelasticBaseFS.hh.

References theAngularDistribution, theEnergyAngData, theEnergyDistribution, theFinalStatePhotons, and theXsection.

   {
     delete theXsection;
     if(theEnergyDistribution!=0) delete theEnergyDistribution;
     if(theFinalStatePhotons!=0) delete theFinalStatePhotons;
     if(theEnergyAngData!=0) delete theEnergyAngData;
     if(theAngularDistribution!=0) delete theAngularDistribution;
   }

Member Function Documentation

virtual G4HadFinalState* G4NeutronHPInelasticBaseFS::ApplyYourself ( const G4HadProjectile & theTrack )

pure virtual

Reimplemented from G4NeutronHPFinalState.

void G4NeutronHPInelasticBaseFS::BaseApply	(	const G4HadProjectile &	theTrack,
		G4ParticleDefinition **	theDefs,
		G4int	nDef
	)

Definition at line 173 of file G4NeutronHPInelasticBaseFS.cc.

 {
 
 // prepare neutron
   theResult.Clear();
   G4double eKinetic = theTrack.GetKineticEnergy();
   const G4HadProjectile *incidentParticle = &theTrack;
   G4ReactionProduct theNeutron( const_cast<G4ParticleDefinition *>(incidentParticle->GetDefinition()) );
   theNeutron.SetMomentum( incidentParticle->Get4Momentum().vect() );
   theNeutron.SetKineticEnergy( eKinetic );
 
 // prepare target
   G4double targetMass;
   G4double eps = 0.0001;
   targetMass = ( G4NucleiProperties::GetNuclearMass(static_cast<G4int>(theBaseA+eps), static_cast<G4int>(theBaseZ+eps))) /
                G4Neutron::Neutron()->GetPDGMass();
 
   if(theEnergyAngData!=0)
      { targetMass = theEnergyAngData->GetTargetMass(); }
   if(theAngularDistribution!=0)
      { targetMass = theAngularDistribution->GetTargetMass(); }
 
 //080731a
 //110512 TKDB ENDF-VII.0 21Sc45 has trouble in MF4MT22 (n,np) targetMass is not properly recorded.
 //if ( targetMass == 0 ) G4cout << "080731a It looks like something wrong value in G4NDL, please update the latest version. If you use the latest, then please report this problem to Geant4 Hyper news." << G4endl;
   if ( targetMass == 0 ) 
   {
      //G4cout << "TKDB targetMass = 0; ENDF-VII.0 21Sc45 has trouble in MF4MT22 (n,np) targetMass is not properly recorded. This could be a similar situation." << G4endl;
      targetMass = ( G4NucleiProperties::GetNuclearMass(static_cast<G4int>(theBaseA+eps), static_cast<G4int>(theBaseZ+eps))) / G4Neutron::Neutron()->GetPDGMass();
   }
 
   G4Nucleus aNucleus;
   G4ReactionProduct theTarget; 
   G4ThreeVector neuVelo = (1./incidentParticle->GetDefinition()->GetPDGMass())*theNeutron.GetMomentum();
   theTarget = aNucleus.GetBiasedThermalNucleus( targetMass, neuVelo, theTrack.GetMaterial()->GetTemperature());
 
 // prepare energy in target rest frame
   G4ReactionProduct boosted;
   boosted.Lorentz(theNeutron, theTarget);
   eKinetic = boosted.GetKineticEnergy();
   G4double orgMomentum = boosted.GetMomentum().mag();
   
 // Take N-body phase-space distribution, if no other data present.
   if(!HasFSData()) // adding the residual is trivial here @@@
   {
     G4NeutronHPNBodyPhaseSpace thePhaseSpaceDistribution;
     G4double aPhaseMass=0;
     G4int ii;
     for(ii=0; ii<nDef; ii++) 
     {
       aPhaseMass+=theDefs[ii]->GetPDGMass();
     }
     thePhaseSpaceDistribution.Init(aPhaseMass, nDef);
     thePhaseSpaceDistribution.SetNeutron(&theNeutron);
     thePhaseSpaceDistribution.SetTarget(&theTarget);
     for(ii=0; ii<nDef; ii++) 
     {
       G4double massCode = 1000.*std::abs(theDefs[ii]->GetPDGCharge());
       massCode += theDefs[ii]->GetBaryonNumber(); 
       G4double dummy = 0;
       G4ReactionProduct * aSec = thePhaseSpaceDistribution.Sample(eKinetic, massCode, dummy);
       aSec->Lorentz(*aSec, -1.*theTarget);
       G4DynamicParticle * aPart = new G4DynamicParticle();
       aPart->SetDefinition(aSec->GetDefinition());
       aPart->SetMomentum(aSec->GetMomentum());
       delete aSec;
       theResult.AddSecondary(aPart);     
     }   
     theResult.SetStatusChange(stopAndKill);
 
     //TK120607
     //Final momentum check should be done before return
     G4ParticleDefinition* targ_pd = G4IonTable::GetIonTable()->GetIon ( (G4int)theBaseZ , (G4int)theBaseA , 0.0 );
     G4LorentzVector targ_4p_lab ( theTarget.GetMomentum() , std::sqrt( targ_pd->GetPDGMass()*targ_pd->GetPDGMass() + theTarget.GetMomentum().mag2() ) );
     G4LorentzVector proj_4p_lab = theTrack.Get4Momentum();
     G4LorentzVector init_4p_lab = proj_4p_lab + targ_4p_lab;
     adjust_final_state ( init_4p_lab );
 
     return;
   }
 
 // set target and neutron in the relevant exit channel
   if(theAngularDistribution!=0) 
   {
     theAngularDistribution->SetTarget(theTarget);
     theAngularDistribution->SetNeutron(theNeutron);
   }
   else if(theEnergyAngData!=0)
   {
     theEnergyAngData->SetTarget(theTarget);
     theEnergyAngData->SetNeutron(theNeutron);
   }
   
   G4ReactionProductVector * tmpHadrons = 0;
   G4int ii, dummy;
   unsigned int i;
   if(theEnergyAngData != 0)
   {
     tmpHadrons = theEnergyAngData->Sample(eKinetic);
   }
   else if(theAngularDistribution!= 0)
   {
     G4bool * Done = new G4bool[nDef];
     G4int i0;
     for(i0=0; i0<nDef; i0++) Done[i0] = false;
     if(tmpHadrons == 0) 
     {
       tmpHadrons = new G4ReactionProductVector;
     }
     else
     {
       for(i=0; i<tmpHadrons->size(); i++)
       {
     for(ii=0; ii<nDef; ii++)
           if(!Done[ii] && tmpHadrons->operator[](i)->GetDefinition() == theDefs[ii]) 
               Done[ii] = true;
       }
     }
     G4ReactionProduct * aHadron;
     G4double localMass = ( G4NucleiProperties::GetNuclearMass(static_cast<G4int>(theBaseA+eps), static_cast<G4int>(theBaseZ+eps)));
     G4ThreeVector bufferedDirection(0,0,0);
     for(i0=0; i0<nDef; i0++)
     {
       if(!Done[i0])
       {
         aHadron = new G4ReactionProduct;
     if(theEnergyDistribution!=0)
     {
       aHadron->SetDefinition(theDefs[i0]);
       aHadron->SetKineticEnergy(theEnergyDistribution->Sample(eKinetic, dummy));
     }
     else if(nDef == 1)
     {
       aHadron->SetDefinition(theDefs[i0]);
       aHadron->SetKineticEnergy(eKinetic);
     }
     else if(nDef == 2)
     {
       aHadron->SetDefinition(theDefs[i0]);
       aHadron->SetKineticEnergy(50*MeV);
     }
     else
     {
       throw G4HadronicException(__FILE__, __LINE__, "No energy distribution to sample from in InelasticBaseFS::BaseApply");
     }
     theAngularDistribution->SampleAndUpdate(*aHadron);
     if(theEnergyDistribution==0 && nDef == 2)
     {
       if(i0==0)
       {
         G4double mass1 = theDefs[0]->GetPDGMass();
         G4double mass2 = theDefs[1]->GetPDGMass();
         G4double massn = G4Neutron::Neutron()->GetPDGMass();
         G4int z1 = static_cast<G4int>(theBaseZ+eps-theDefs[0]->GetPDGCharge()-theDefs[1]->GetPDGCharge());
         G4int a1 = static_cast<G4int>(theBaseA+eps)-theDefs[0]->GetBaryonNumber()-theDefs[1]->GetBaryonNumber();
         G4double concreteMass = G4NucleiProperties::GetNuclearMass(a1, z1);
         G4double availableEnergy = eKinetic+massn+localMass-mass1-mass2-concreteMass;
         // available kinetic energy in CMS (non relativistic)
         G4double emin = availableEnergy+mass1+mass2 - std::sqrt((mass1+mass2)*(mass1+mass2)+orgMomentum*orgMomentum);
         G4double p1=std::sqrt(2.*mass2*emin);
         bufferedDirection = p1*aHadron->GetMomentum().unit();
         if(getenv("HTOKEN")) // @@@@@ verify the nucleon counting...
         { 
           G4cout << "HTOKEN "<<z1<<" "<<theBaseZ<<" "<<a1<<" "<<theBaseA<<" "<<availableEnergy<<" "
                  << emin<<G4endl;
             }
       }
       else
       {
         bufferedDirection = -bufferedDirection;
       }
       // boost from cms to lab
       if(getenv("HTOKEN")) 
       {
         G4cout << " HTOKEN "<<bufferedDirection.mag2()<<G4endl;
       }
       aHadron->SetTotalEnergy( std::sqrt(aHadron->GetMass()*aHadron->GetMass()
                                   +bufferedDirection.mag2()) );
       aHadron->SetMomentum(bufferedDirection);
           aHadron->Lorentz(*aHadron, -1.*(theTarget+theNeutron)); 
       if(getenv("HTOKEN")) 
       {
         G4cout << "  HTOKEN "<<aHadron->GetTotalEnergy()<<" "<<aHadron->GetMomentum()<<G4endl;
       }
     }
     tmpHadrons->push_back(aHadron);
       }
     }
     delete [] Done;
   }
   else
   {
     throw G4HadronicException(__FILE__, __LINE__, "No data to create the neutrons in NInelasticFS");
   }
 
   G4ReactionProductVector * thePhotons = 0;
   if(theFinalStatePhotons!=0) 
   {
     // the photon distributions are in the Nucleus rest frame.
     G4ReactionProduct boosted_tmp;
     boosted_tmp.Lorentz(theNeutron, theTarget);
     G4double anEnergy = boosted_tmp.GetKineticEnergy();
     thePhotons = theFinalStatePhotons->GetPhotons(anEnergy);
     if(thePhotons!=0)
     {
       for(i=0; i<thePhotons->size(); i++)
       {
         // back to lab
         thePhotons->operator[](i)->Lorentz(*(thePhotons->operator[](i)), -1.*theTarget);
       }
     }
   }
   else if(theEnergyAngData!=0)
   {
 
     G4double theGammaEnergy = theEnergyAngData->GetTotalMeanEnergy();
     G4double anEnergy = boosted.GetKineticEnergy();
     theGammaEnergy = anEnergy-theGammaEnergy;
     theGammaEnergy += theNuclearMassDifference;
     G4double eBindProducts = 0;
     G4double eBindN = 0;
     G4double eBindP = 0;
     G4double eBindD = G4NucleiProperties::GetBindingEnergy(2,1);
     G4double eBindT = G4NucleiProperties::GetBindingEnergy(3,1);
     G4double eBindHe3 = G4NucleiProperties::GetBindingEnergy(3,2);
     G4double eBindA = G4NucleiProperties::GetBindingEnergy(4,2);
     G4int ia=0;
     for(i=0; i<tmpHadrons->size(); i++)
     {
       if(tmpHadrons->operator[](i)->GetDefinition() == G4Neutron::Neutron())
       {
         eBindProducts+=eBindN;
       }
       else if(tmpHadrons->operator[](i)->GetDefinition() == G4Proton::Proton())
       {
         eBindProducts+=eBindP;
       }
       else if(tmpHadrons->operator[](i)->GetDefinition() == G4Deuteron::Deuteron())
       {
         eBindProducts+=eBindD;
       }
       else if(tmpHadrons->operator[](i)->GetDefinition() == G4Triton::Triton())
       {
         eBindProducts+=eBindT;
       }
       else if(tmpHadrons->operator[](i)->GetDefinition() == G4He3::He3())
       {
         eBindProducts+=eBindHe3;
       }
       else if(tmpHadrons->operator[](i)->GetDefinition() == G4Alpha::Alpha())
       {
         eBindProducts+=eBindA;
         ia++; 
       }
     }
 
     theGammaEnergy += eBindProducts;
 
 //101111 
 //Special treatment for Be9 + n -> 2n + Be8 -> 2n + a + a
 if ( (G4int)(theBaseZ+eps) == 4 && (G4int)(theBaseA+eps) == 9 )
 {
    // This only valid for G4NDL3.13,,,
    if ( std::abs( theNuclearMassDifference -   
         ( G4NucleiProperties::GetBindingEnergy( 8 , 4 ) -
         G4NucleiProperties::GetBindingEnergy( 9 , 4 ) ) ) < 1*keV 
       && ia == 2 )
    {
       theGammaEnergy -= (2*eBindA);
    }
 }
     
     G4ReactionProductVector * theOtherPhotons = 0;
     G4int iLevel;
     while(theGammaEnergy>=theGammas.GetLevelEnergy(0))
     {
       for(iLevel=theGammas.GetNumberOfLevels()-1; iLevel>=0; iLevel--)
       {
     if(theGammas.GetLevelEnergy(iLevel)<theGammaEnergy) break;
       }
       if(iLevel==0||iLevel==theGammas.GetNumberOfLevels()-1)
       {
     theOtherPhotons = theGammas.GetDecayGammas(iLevel);
       }
       else
       {
     G4double random = G4UniformRand();
     G4double eLow  = theGammas.GetLevelEnergy(iLevel);
     G4double eHigh = theGammas.GetLevelEnergy(iLevel+1);
     if(random > (eHigh-eLow)/(theGammaEnergy-eLow)) iLevel++;
     theOtherPhotons = theGammas.GetDecayGammas(iLevel);
       }
       if(thePhotons==0) thePhotons = new G4ReactionProductVector;
       if(theOtherPhotons != 0)
       {
         for(unsigned int iii=0; iii<theOtherPhotons->size(); iii++)
         {
           thePhotons->push_back(theOtherPhotons->operator[](iii));
         }
         delete theOtherPhotons; 
       }
       theGammaEnergy -= theGammas.GetLevelEnergy(iLevel);
       if(iLevel == -1) break;
     }
   }
   
 // fill the result
   unsigned int nSecondaries = tmpHadrons->size();
   unsigned int nPhotons = 0;
   if(thePhotons!=0) { nPhotons = thePhotons->size(); }
   nSecondaries += nPhotons;
   G4DynamicParticle * theSec;
 
   for(i=0; i<nSecondaries-nPhotons; i++)
   {
     theSec = new G4DynamicParticle;    
     theSec->SetDefinition(tmpHadrons->operator[](i)->GetDefinition());
     theSec->SetMomentum(tmpHadrons->operator[](i)->GetMomentum());
     theResult.AddSecondary(theSec); 
     delete tmpHadrons->operator[](i);
   }
   if(thePhotons != 0)
   {
     for(i=0; i<nPhotons; i++)
     {
       theSec = new G4DynamicParticle;    
       theSec->SetDefinition(thePhotons->operator[](i)->GetDefinition());
       theSec->SetMomentum(thePhotons->operator[](i)->GetMomentum());
       theResult.AddSecondary(theSec); 
       delete thePhotons->operator[](i);
     }
   }
   
 // some garbage collection
   delete thePhotons;
   delete tmpHadrons;
 
 //080721 
    G4ParticleDefinition* targ_pd = G4IonTable::GetIonTable()->GetIon ( (G4int)theBaseZ , (G4int)theBaseA , 0.0 );
    G4LorentzVector targ_4p_lab ( theTarget.GetMomentum() , std::sqrt( targ_pd->GetPDGMass()*targ_pd->GetPDGMass() + theTarget.GetMomentum().mag2() ) );
    G4LorentzVector proj_4p_lab = theTrack.Get4Momentum();
    G4LorentzVector init_4p_lab = proj_4p_lab + targ_4p_lab;
    adjust_final_state ( init_4p_lab ); 
 
 // clean up the primary neutron
   theResult.SetStatusChange(stopAndKill);
 }

virtual G4double G4NeutronHPInelasticBaseFS::GetXsec ( G4double anEnergy )

inlinevirtual

Reimplemented from G4NeutronHPFinalState.

Definition at line 71 of file G4NeutronHPInelasticBaseFS.hh.

References G4NeutronHPVector::GetY(), G4INCL::Math::max(), and theXsection.

   {
     return std::max(0., theXsection->GetY(anEnergy));
   }

virtual G4NeutronHPVector* G4NeutronHPInelasticBaseFS::GetXsec ( )

inlinevirtual

Reimplemented from G4NeutronHPFinalState.

Definition at line 75 of file G4NeutronHPInelasticBaseFS.hh.

References theXsection.

75 { return theXsection; }

G4NeutronHPInelasticBaseFS::theXsection

G4NeutronHPVector * theXsection

Definition: G4NeutronHPInelasticBaseFS.hh:79

void G4NeutronHPInelasticBaseFS::Init	(	G4double	A,
		G4double	Z,
		G4int	M,
		G4String &	dirName,
		G4String &	bit
	)

virtual

Implements G4NeutronHPFinalState.

Reimplemented in G4NeutronHPN2AInelasticFS, G4NeutronHPN2PInelasticFS, G4NeutronHPN3AInelasticFS, G4NeutronHPNAInelasticFS, G4NeutronHPND2AInelasticFS, G4NeutronHPNDInelasticFS, G4NeutronHPNHe3InelasticFS, G4NeutronHPNPAInelasticFS, G4NeutronHPNPInelasticFS, G4NeutronHPNT2AInelasticFS, G4NeutronHPNTInelasticFS, G4NeutronHPNXInelasticFS, G4NeutronHPPAInelasticFS, G4NeutronHPPDInelasticFS, G4NeutronHPPTInelasticFS, and G4NeutronHPT2AInelasticFS.

Definition at line 72 of file G4NeutronHPInelasticBaseFS.cc.

References python.hepunit::eV, G4cout, G4endl, gammaPath, G4NeutronHPManager::GetDataStream(), G4NeutronHPManager::GetInstance(), G4NeutronHPNames::GetName(), G4NeutronHPDataUsed::GetName(), G4NeutronHPFinalState::hasAnyData, G4NeutronHPFinalState::hasFSData, G4NeutronHPFinalState::hasXsec, G4NeutronHPEnAngCorrelation::Init(), G4NeutronHPAngular::Init(), G4NeutronHPEnergyDistribution::Init(), G4NeutronHPVector::Init(), G4NeutronHPPhotonDist::InitAngular(), G4NeutronHPPhotonDist::InitEnergies(), G4NeutronHPPhotonDist::InitMean(), G4NeutronHPPhotonDist::InitPartials(), INT_MAX, G4NeutronHPFinalState::SetAZMs(), theAngularDistribution, theEnergyAngData, theEnergyDistribution, theFinalStatePhotons, G4NeutronHPFinalState::theNames, G4NeutronHPFinalState::theNDLDataA, G4NeutronHPFinalState::theNDLDataZ, theXsection, and G4INCL::CrossSections::total().

 {
   gammaPath = "/Inelastic/Gammas/";
     if(!getenv("G4NEUTRONHPDATA")) 
        throw G4HadronicException(__FILE__, __LINE__, "Please setenv G4NEUTRONHPDATA to point to the neutron cross-section files.");
   G4String tBase = getenv("G4NEUTRONHPDATA");
   gammaPath = tBase+gammaPath;
   G4String tString = dirName;
   G4bool dbool;
   G4NeutronHPDataUsed aFile = theNames.GetName(static_cast<G4int>(A), static_cast<G4int>(Z), M,tString, bit, dbool);
   G4String filename = aFile.GetName();
   SetAZMs( A, Z, M, aFile); 
   //theBaseA = aFile.GetA();
   //theBaseZ = aFile.GetZ();
   // theNDLDataA = (int)aFile.GetA();
   // theNDLDataZ = aFile.GetZ();
   //if(!dbool || ( Z<2.5 && ( std::abs(theBaseZ - Z)>0.0001 || std::abs(theBaseA - A)>0.0001)))
   if ( !dbool || ( Z<2.5 && ( std::abs(theNDLDataZ - Z)>0.0001 || std::abs(theNDLDataA - A)>0.0001)) )
   {
     if(getenv("NeutronHPNamesLogging")) G4cout << "Skipped = "<< filename <<" "<<A<<" "<<Z<<G4endl;
     hasAnyData = false;
     hasFSData = false; 
     hasXsec = false;
     return;
   }
   //theBaseA = A;
   //theBaseZ = G4int(Z+.5);
   //std::ifstream theData(filename, std::ios::in);
    //130205 For compressed data files 
    std::istringstream theData(std::ios::in);
    G4NeutronHPManager::GetInstance()->GetDataStream(filename,theData);
    //130205 END
   if(!theData) //"!" is a operator of ios
   {
     hasAnyData = false;
     hasFSData = false; 
     hasXsec = false;
     //theData.close();
     return; // no data for exactly this isotope and FS
   }
   // here we go
   G4int infoType, dataType, dummy=INT_MAX;
   hasFSData = false; 
   while (theData >> infoType)
   {
     theData >> dataType;
     if(dummy==INT_MAX) theData >> dummy >> dummy;
     if(dataType==3) 
     {
       G4int total;
       theData >> total;
       theXsection->Init(theData, total, eV);
     }
     else if(dataType==4)
     {
       theAngularDistribution = new G4NeutronHPAngular;
       theAngularDistribution->Init(theData);
       hasFSData = true; 
     }
     else if(dataType==5)
     {
       theEnergyDistribution = new G4NeutronHPEnergyDistribution;
       theEnergyDistribution->Init(theData);
       hasFSData = true; 
     }
     else if(dataType==6)
     {
       theEnergyAngData = new G4NeutronHPEnAngCorrelation;
       theEnergyAngData->Init(theData);
       hasFSData = true; 
     }
     else if(dataType==12)
     {
       theFinalStatePhotons = new G4NeutronHPPhotonDist;
       theFinalStatePhotons->InitMean(theData);
       hasFSData = true; 
     }
     else if(dataType==13)
     {
       theFinalStatePhotons = new G4NeutronHPPhotonDist;
       theFinalStatePhotons->InitPartials(theData);
       hasFSData = true; 
     }
     else if(dataType==14)
     {
       theFinalStatePhotons->InitAngular(theData);
       hasFSData = true; 
     }
     else if(dataType==15)
     {
       theFinalStatePhotons->InitEnergies(theData);
       hasFSData = true; 
     }
     else
     {
       throw G4HadronicException(__FILE__, __LINE__, "Data-type unknown to G4NeutronHPInelasticBaseFS");
     }
   }
   //theData.close();
 }

void G4NeutronHPInelasticBaseFS::InitGammas	(	G4double	AR,
		G4double	ZR
	)

Definition at line 47 of file G4NeutronHPInelasticBaseFS.cc.

References gammaPath, G4NucleiProperties::GetBindingEnergy(), G4NeutronHPDeExGammas::Init(), G4NeutronHPFinalState::theBaseA, G4NeutronHPFinalState::theBaseZ, theGammas, and theNuclearMassDifference.

 {
   //   char the[100] = {""};
   //   std::ostrstream ost(the, 100, std::ios::out);
   //   ost <<gammaPath<<"z"<<ZR<<".a"<<AR;
   //   G4String * aName = new G4String(the);
   //   std::ifstream from(*aName, std::ios::in);
 
    std::ostringstream ost;
    ost <<gammaPath<<"z"<<ZR<<".a"<<AR;
    G4String aName = ost.str();
    std::ifstream from(aName, std::ios::in);
 
    if(!from) return; // no data found for this isotope
    //   std::ifstream theGammaData(*aName, std::ios::in);
    std::ifstream theGammaData(aName, std::ios::in);
     
    G4double eps = 0.001;
    theNuclearMassDifference = 
        G4NucleiProperties::GetBindingEnergy(static_cast<G4int>(AR+eps),static_cast<G4int>(ZR+eps)) -
        G4NucleiProperties::GetBindingEnergy(static_cast<G4int>(theBaseA+eps), static_cast<G4int>(theBaseZ+eps));
    theGammas.Init(theGammaData);
    //   delete aName;
 }