#include <G4BinaryCascade.hh>

Inheritance diagram for G4BinaryCascade:

Collaboration diagram for G4BinaryCascade:

Public Member Functions
	G4BinaryCascade (G4VPreCompoundModel *ptr=0)

virtual	~G4BinaryCascade ()

G4HadFinalState *	ApplyYourself (const G4HadProjectile &aTrack, G4Nucleus &theNucleus)

virtual G4ReactionProductVector *	Propagate (G4KineticTrackVector , G4V3DNucleus )

virtual void	ModelDescription (std::ostream &) const

virtual void	PropagateModelDescription (std::ostream &) const

Public Member Functions inherited from G4VIntraNuclearTransportModel
	G4VIntraNuclearTransportModel (const G4String &mName="CascadeModel", G4VPreCompoundModel *ptr=nullptr)

virtual	~G4VIntraNuclearTransportModel ()

virtual G4ReactionProductVector *	PropagateNuclNucl (G4KineticTrackVector theSecondaries, G4V3DNucleus theNucleus, G4V3DNucleus *theProjectileNucleus)

void	SetDeExcitation (G4VPreCompoundModel *ptr)

void	Set3DNucleus (G4V3DNucleus *const value)

void	SetPrimaryProjectile (const G4HadProjectile &aPrimary)

const G4String &	GetModelName () const

Public Member Functions inherited from G4HadronicInteraction
	G4HadronicInteraction (const G4String &modelName="HadronicModel")

virtual	~G4HadronicInteraction ()

virtual G4double	SampleInvariantT (const G4ParticleDefinition *p, G4double plab, G4int Z, G4int A)

virtual G4bool	IsApplicable (const G4HadProjectile &aTrack, G4Nucleus &targetNucleus)

G4double	GetMinEnergy () const

G4double	GetMinEnergy (const G4Material aMaterial, const G4Element anElement) const

void	SetMinEnergy (G4double anEnergy)

void	SetMinEnergy (G4double anEnergy, const G4Element *anElement)

void	SetMinEnergy (G4double anEnergy, const G4Material *aMaterial)

G4double	GetMaxEnergy () const

G4double	GetMaxEnergy (const G4Material aMaterial, const G4Element anElement) const

void	SetMaxEnergy (const G4double anEnergy)

void	SetMaxEnergy (G4double anEnergy, const G4Element *anElement)

void	SetMaxEnergy (G4double anEnergy, const G4Material *aMaterial)

G4int	GetVerboseLevel () const

void	SetVerboseLevel (G4int value)

const G4String &	GetModelName () const

void	DeActivateFor (const G4Material *aMaterial)

void	ActivateFor (const G4Material *aMaterial)

void	DeActivateFor (const G4Element *anElement)

void	ActivateFor (const G4Element *anElement)

G4bool	IsBlocked (const G4Material *aMaterial) const

G4bool	IsBlocked (const G4Element *anElement) const

void	SetRecoilEnergyThreshold (G4double val)

G4double	GetRecoilEnergyThreshold () const

virtual const std::pair < G4double, G4double >	GetFatalEnergyCheckLevels () const

virtual std::pair< G4double, G4double >	GetEnergyMomentumCheckLevels () const

void	SetEnergyMomentumCheckLevels (G4double relativeLevel, G4double absoluteLevel)

virtual void	BuildPhysicsTable (const G4ParticleDefinition &)

virtual void	InitialiseModel ()

Additional Inherited Members
Protected Member Functions inherited from G4VIntraNuclearTransportModel
G4V3DNucleus *	Get3DNucleus () const

G4VPreCompoundModel *	GetDeExcitation () const

const G4HadProjectile *	GetPrimaryProjectile () const

Protected Member Functions inherited from G4HadronicInteraction
void	SetModelName (const G4String &nam)

G4bool	IsBlocked () const

void	Block ()

Protected Attributes inherited from G4VIntraNuclearTransportModel
G4String	theTransportModelName

G4V3DNucleus *	the3DNucleus

G4VPreCompoundModel *	theDeExcitation

const G4HadProjectile *	thePrimaryProjectile

Protected Attributes inherited from G4HadronicInteraction
G4HadFinalState	theParticleChange

G4int	verboseLevel

G4double	theMinEnergy

G4double	theMaxEnergy

G4bool	isBlocked

Detailed Description

Definition at line 70 of file G4BinaryCascade.hh.

Constructor & Destructor Documentation

G4BinaryCascade::G4BinaryCascade ( G4VPreCompoundModel * ptr = 0 )

Definition at line 115 of file G4BinaryCascade.cc.

                                                          :
 G4VIntraNuclearTransportModel("Binary Cascade", ptr)
 {
     // initialise the resonance sector
     G4ShortLivedConstructor ShortLived;
     ShortLived.ConstructParticle();
 
     theCollisionMgr = new G4CollisionManager;
     theDecay=new G4BCDecay;
     theImR.push_back(theDecay);
     theLateParticle= new G4BCLateParticle;
     G4MesonAbsorption * aAb=new G4MesonAbsorption;
     theImR.push_back(aAb);
     G4Scatterer * aSc=new G4Scatterer;
     theH1Scatterer = new G4Scatterer;
     theImR.push_back(aSc);
 
     thePropagator = new G4RKPropagation;
     theCurrentTime = 0.;
     theBCminP = 45*MeV;
     theCutOnP = 90*MeV;
     theCutOnPAbsorb= 0*MeV;   // No Absorption of slow Mesons, other than above G4MesonAbsorption
 
     // reuse existing pre-compound model
     if(!ptr) {
       G4HadronicInteraction* p =
     G4HadronicInteractionRegistry::Instance()->FindModel("PRECO");
       G4VPreCompoundModel* pre = static_cast<G4VPreCompoundModel*>(p);
       if(!pre) { pre = new G4PreCompoundModel(); }
       SetDeExcitation(pre);
     }
     theExcitationHandler = GetDeExcitation()->GetExcitationHandler();
     SetMinEnergy(0.0*GeV);
     SetMaxEnergy(10.1*GeV);
     //PrintWelcomeMessage();
     thePrimaryEscape = true;
     thePrimaryType = 0;
 
     SetEnergyMomentumCheckLevels(1.0*perCent, 1.0*MeV);
 
     // init data members
     currentA=currentZ=0;
     lateA=lateZ=0;
     initialA=initialZ=0;
     projectileA=projectileZ=0;
     currentInitialEnergy=initial_nuclear_mass=0.;
     massInNucleus=0.;
     theOuterRadius=0.;
 }

Here is the call graph for this function:

G4BinaryCascade::~G4BinaryCascade ( )

virtual

Definition at line 172 of file G4BinaryCascade.cc.

 {
     ClearAndDestroy(&theTargetList);
     ClearAndDestroy(&theSecondaryList);
     ClearAndDestroy(&theCapturedList);
     delete thePropagator;
     delete theCollisionMgr;
     std::for_each(theImR.begin(), theImR.end(), Delete<G4BCAction>());
     delete theLateParticle;
     //delete theExcitationHandler;
     delete theH1Scatterer;
 }

Member Function Documentation

G4HadFinalState * G4BinaryCascade::ApplyYourself	(	const G4HadProjectile &	aTrack,
		G4Nucleus &	theNucleus
	)

virtual

Implements G4HadronicInteraction.

Definition at line 253 of file G4BinaryCascade.cc.

 {
     if(getenv("BCDEBUG") ) G4cerr << " ######### Binary Cascade Reaction starts ######### "<< G4endl;
 
     G4LorentzVector initial4Momentum = aTrack.Get4Momentum();
     const G4ParticleDefinition * definition = aTrack.GetDefinition();
 
     if(initial4Momentum.e()-initial4Momentum.m()<theBCminP &&
             ( definition==G4Neutron::NeutronDefinition() || definition==G4Proton::ProtonDefinition() ) )
     {
         return theDeExcitation->ApplyYourself(aTrack, aNucleus);
     }
 
     theParticleChange.Clear();
     // initialize the G4V3DNucleus from G4Nucleus
     the3DNucleus = new G4Fancy3DNucleus;
 
     // Build a KineticTrackVector with the G4Track
     G4KineticTrackVector * secondaries;// = new G4KineticTrackVector;
     G4ThreeVector initialPosition(0., 0., 0.); // will be set later
 
     if(!getenv("I_Am_G4BinaryCascade_Developer") )
     {
         if(definition!=G4Neutron::NeutronDefinition() &&
                 definition!=G4Proton::ProtonDefinition() &&
                 definition!=G4PionPlus::PionPlusDefinition() &&
                 definition!=G4PionMinus::PionMinusDefinition() )
         {
             G4cerr << "You are trying to use G4BinaryCascade with " <<definition->GetParticleName()<<" as projectile."<<G4endl;
             G4cerr << "G4BinaryCascade should not be used for projectiles other than nucleons or pions."<<G4endl;
             G4cerr << "If you want to continue, please switch on the developer environment: "<<G4endl;
             G4cerr << "setenv I_Am_G4BinaryCascade_Developer 1 "<<G4endl<<G4endl;
             throw G4HadronicException(__FILE__, __LINE__, "G4BinaryCascade - used for unvalid particle type - Fatal");
         }
     }
 
     // keep primary
     thePrimaryType = definition;
     thePrimaryEscape = false;
 
     // try until an interaction will happen
     G4ReactionProductVector * products=0;
     G4int interactionCounter = 0,collisionLoopMaxCount;
     do
     {
         // reset status that could be changed in previous loop event
         theCollisionMgr->ClearAndDestroy();
 
         if(products != 0)
         {  // free memory from previous loop event
             ClearAndDestroy(products);
             delete products;
             products=0;
         }
 
         G4int massNumber=aNucleus.GetA_asInt();
         the3DNucleus->Init(massNumber, aNucleus.GetZ_asInt());
         thePropagator->Init(the3DNucleus);
         G4KineticTrack * kt;
           collisionLoopMaxCount = 200;
         do                  // sample impact parameter until collisions are found
         {
             theCurrentTime=0;
             G4double radius = the3DNucleus->GetOuterRadius()+3*fermi;
             initialPosition=GetSpherePoint(1.1*radius, initial4Momentum);  // get random position
             kt = new G4KineticTrack(definition, 0., initialPosition, initial4Momentum);
             kt->SetState(G4KineticTrack::outside);
             // secondaries has been cleared by Propagate() in the previous loop event
             secondaries= new G4KineticTrackVector;
             secondaries->push_back(kt);
             if(massNumber > 1) // 1H1 is special case
             {
                 products = Propagate(secondaries, the3DNucleus);
             } else {
                 products = Propagate1H1(secondaries,the3DNucleus);
             }
                     // until we FIND a collision ... or give up
         } while(! products && --collisionLoopMaxCount>0);   /* Loop checking, 31.08.2015, G.Folger */
 
         if(++interactionCounter>99) break;
             // ...until we find an ALLOWED collision ... or give up
     } while(products && products->size() == 0);   /* Loop checking, 31.08.2015, G.Folger */
 
     if(products && products->size()>0)
     {
         //  G4cout << "BIC Applyyourself: number of products " << products->size() << G4endl;
 
         // Fill the G4ParticleChange * with products
         theParticleChange.SetStatusChange(stopAndKill);
         G4ReactionProductVector::iterator iter;
 
         for(iter = products->begin(); iter != products->end(); ++iter)
         {
             G4DynamicParticle * aNew =
                     new G4DynamicParticle((*iter)->GetDefinition(),
                             (*iter)->GetTotalEnergy(),
                             (*iter)->GetMomentum());
             theParticleChange.AddSecondary(aNew);
         }
 
          //DebugFinalEpConservation(aTrack, products);
 
 
     } else {  // no interaction, return primary
         if(getenv("BCDEBUG") ) G4cerr << " ######### Binary Cascade Reaction void, return intial state ######### "<< G4endl;
         theParticleChange.SetStatusChange(isAlive);
         theParticleChange.SetEnergyChange(aTrack.GetKineticEnergy());
         theParticleChange.SetMomentumChange(aTrack.Get4Momentum().vect().unit());
     }
 
     if ( products ) 
      {
         ClearAndDestroy(products);
        delete products;
     }
      
     delete the3DNucleus;
     the3DNucleus = NULL;
 
     if(getenv("BCDEBUG") ) G4cerr << " ######### Binary Cascade Reaction ends ######### "<< G4endl;
 
     return &theParticleChange;
 }

Here is the call graph for this function:

void G4BinaryCascade::ModelDescription ( std::ostream & outFile ) const

virtual

Reimplemented from G4VIntraNuclearTransportModel.

Definition at line 185 of file G4BinaryCascade.cc.

 {
     outFile << "G4BinaryCascade is an intra-nuclear cascade model in which\n"
             << "an incident hadron collides with a nucleon, forming two\n"
             << "final-state particles, one or both of which may be resonances.\n"
             << "The resonances then decay hadronically and the decay products\n"
             << "are then propagated through the nuclear potential along curved\n"
             << "trajectories until they re-interact or leave the nucleus.\n"
             << "This model is valid for incident pions up to 1.5 GeV and\n"
             << "nucleons up to 10 GeV.\n"
             << "The remaining excited nucleus is handed on to ";
             if (theDeExcitation)                // pre-compound
             {
               outFile << theDeExcitation->GetModelName() << " : \n ";
               theDeExcitation->DeExciteModelDescription(outFile);
             }
             else if (theExcitationHandler)    // de-excitation
             {
                outFile << "G4ExcitationHandler";    //theExcitationHandler->GetModelName();
                theExcitationHandler->ModelDescription(outFile);
             }
             else
             {
                outFile << "void.\n";
             }
     outFile<< " \n";
 }

Here is the call graph for this function:

G4ReactionProductVector * G4BinaryCascade::Propagate	(	G4KineticTrackVector *	secondaries,
		G4V3DNucleus *	aNucleus
	)

virtual

Implements G4VIntraNuclearTransportModel.

Definition at line 379 of file G4BinaryCascade.cc.

 {
     G4ping debug("debug_G4BinaryCascade");
 #ifdef debug_BIC_Propagate
     G4cout << "G4BinaryCascade Propagate starting -------------------------------------------------------" <<G4endl;
 #endif
 
     the3DNucleus=aNucleus;
     G4ReactionProductVector * products = new G4ReactionProductVector;
     theOuterRadius = the3DNucleus->GetOuterRadius();
     theCurrentTime=0;
     theProjectile4Momentum=G4LorentzVector(0,0,0,0);
     theMomentumTransfer=G4ThreeVector(0,0,0);
     // build theSecondaryList, theProjectileList and theCapturedList
     ClearAndDestroy(&theCapturedList);
     ClearAndDestroy(&theSecondaryList);
     theSecondaryList.clear();
     ClearAndDestroy(&theFinalState);
     std::vector<G4KineticTrack *>::iterator iter;
     theCollisionMgr->ClearAndDestroy();
 
     theCutOnP=90*MeV;
     if(the3DNucleus->GetMass()>30) theCutOnP = 70*MeV;
     if(the3DNucleus->GetMass()>60) theCutOnP = 50*MeV;
     if(the3DNucleus->GetMass()>120) theCutOnP = 45*MeV;
 
 
     BuildTargetList();
 
 #ifdef debug_BIC_GetExcitationEnergy
     G4cout << "ExcitationEnergy0 " << GetExcitationEnergy() << G4endl;
 #endif
 
     thePropagator->Init(the3DNucleus);
 
     G4bool success = BuildLateParticleCollisions(secondaries);
     if (! success )   // fails if no excitation energy left....
     {
        products=HighEnergyModelFSProducts(products, secondaries);
        ClearAndDestroy(secondaries);
        delete secondaries;
 
 #ifdef debug_G4BinaryCascade
        G4cout << "G4BinaryCascade::Propagate: warning - high energy model failed energy conservation, returning unchanged high energy final state" << G4endl;
 #endif
 
        return products;
     }
     // check baryon and charge ...
 
     _CheckChargeAndBaryonNumber_("lateparticles");
     _DebugEpConservation(" be4 findcollisions");
 
     // if called stand alone find first collisions
     FindCollisions(&theSecondaryList);
 
 
     if(theCollisionMgr->Entries() == 0 )      //late particles ALWAYS create Entries
     {
         //G4cout << " no collsions -> return 0" << G4endl;
         delete products;
 #ifdef debug_BIC_return
         G4cout << "return @ begin2,  no collisions "<< G4endl;
 #endif
         return 0;
     }
 
     // end of initialization: do the job now
     // loop until there are no more collisions
 
 
     G4bool haveProducts = false;
     G4int collisionCount=0;
      G4int collisionLoopMaxCount=1000000;
     while(theCollisionMgr->Entries() > 0 && currentZ && --collisionLoopMaxCount>0)  /* Loop checking, 31.08.2015, G.Folger */  
     {
       if(Absorb()) {  // absorb secondaries, pions only
             haveProducts = true;
       }
       if(Capture()) { // capture secondaries, nucleons only
             haveProducts = true;
         }
 
         // propagate to the next collision if any (collisions could have been deleted
         // by previous absorption or capture)
         if(theCollisionMgr->Entries() > 0)
         {
             G4CollisionInitialState *
             nextCollision = theCollisionMgr->GetNextCollision();
 #ifdef debug_BIC_Propagate_Collisions
             G4cout << " NextCollision  * , Time, curtime = " << nextCollision << " "
                     <<nextCollision->GetCollisionTime()<< " " <<
                     theCurrentTime<< G4endl;
 #endif
             if (!DoTimeStep(nextCollision->GetCollisionTime()-theCurrentTime) )
             {
                 // Check if nextCollision is still valid, ie. particle did not leave nucleus
                 if (theCollisionMgr->GetNextCollision() != nextCollision )
                 {
                     nextCollision = 0;
                 }
             }
            //_DebugEpConservation("Stepped");
 
             if( nextCollision )
             {
                 if (ApplyCollision(nextCollision))
                 {
                     //G4cerr << "ApplyCollision success " << G4endl;
                     haveProducts = true;
                     collisionCount++;
                     //_CheckChargeAndBaryonNumber_("ApplyCollision");
                     //_DebugEpConservation("ApplyCollision");
 
                 } else {
                     //G4cerr << "ApplyCollision failure " << G4endl;
                     theCollisionMgr->RemoveCollision(nextCollision);
                 }
             }
         }
     }
 
     //--------- end of on Collisions
     //G4cout << "currentZ @ end loop " << currentZ << G4endl;
     G4int nProtons(0);
     for(iter = theTargetList.begin(); iter != theTargetList.end(); ++iter)
     {
         if ( (*iter)->GetDefinition() == G4Proton::Proton() ) ++nProtons;
     }
     if ( ! theTargetList.size() || ! nProtons ){
         // nucleus completely destroyed, fill in ReactionProductVector
        products = FillVoidNucleusProducts(products);
 #ifdef debug_BIC_return
         G4cout << "return @ Z=0 after collision loop "<< G4endl;
         PrintKTVector(&theSecondaryList,std::string(" theSecondaryList"));
         G4cout << "theTargetList size: " << theTargetList.size() << G4endl;
         PrintKTVector(&theTargetList,std::string(" theTargetList"));
         PrintKTVector(&theCapturedList,std::string(" theCapturedList"));
 
         G4cout << " ExcitE be4 Correct : " <<GetExcitationEnergy() << G4endl;
         G4cout << " Mom Transfered to nucleus : " << theMomentumTransfer << " " << theMomentumTransfer.mag() << G4endl;
         PrintKTVector(&theFinalState,std::string(" FinalState uncorrected"));
         G4cout << "returned products: " << products->size() << G4endl;
         _CheckChargeAndBaryonNumber_("destroyed Nucleus");
         _DebugEpConservation("destroyed Nucleus");
 #endif
 
         return products;
     }
 
     // No more collisions: absorb, capture and propagate the secondaries out of the nucleus
     if(Absorb()) {
         haveProducts = true;
         // G4cout << "Absorb sucess " << G4endl;
     }
 
     if(Capture()) {
         haveProducts = true;
         // G4cout << "Capture sucess " << G4endl;
     }
 
     if(!haveProducts)  // no collisions happened. Return an empty vector.
     {
 #ifdef debug_BIC_return
         G4cout << "return 3, no products "<< G4endl;
 #endif
         return products;
     }
 
 
 #ifdef debug_BIC_Propagate
     G4cout << " Momentum transfer to Nucleus " << theMomentumTransfer << " " << theMomentumTransfer.mag() << G4endl;
     G4cout << "  Stepping particles out...... " << G4endl;
 #endif
 
     StepParticlesOut();
     _DebugEpConservation("stepped out");
 
 
     if ( theSecondaryList.size() > 0 )
     {
 #ifdef debug_G4BinaryCascade
         G4cerr << "G4BinaryCascade: Warning, have active particles at end" << G4endl;
         PrintKTVector(&theSecondaryList, "active particles @ end  added to theFinalState");
 #endif
         //  add left secondaries to FinalSate
         for ( iter =theSecondaryList.begin(); iter != theSecondaryList.end(); ++iter)
         {
             theFinalState.push_back(*iter);
         }
         theSecondaryList.clear();
 
     }
     while ( theCollisionMgr->Entries() > 0 )                /* Loop checking, 31.08.2015, G.Folger */
     {
 #ifdef debug_G4BinaryCascade
         G4cerr << " Warning: remove left over collision(s) " << G4endl;
 #endif
         theCollisionMgr->RemoveCollision(theCollisionMgr->GetNextCollision());
     }
 
 #ifdef debug_BIC_Propagate_Excitation
 
     PrintKTVector(&theSecondaryList,std::string(" theSecondaryList"));
     G4cout << "theTargetList size: " << theTargetList.size() << G4endl;
     //  PrintKTVector(&theTargetList,std::string(" theTargetList"));
     PrintKTVector(&theCapturedList,std::string(" theCapturedList"));
 
     G4cout << " ExcitE be4 Correct : " <<GetExcitationEnergy() << G4endl;
     G4cout << " Mom Transfered to nucleus : " << theMomentumTransfer << " " << theMomentumTransfer.mag() << G4endl;
     PrintKTVector(&theFinalState,std::string(" FinalState uncorrected"));
 #endif
 
     //
 
 
     G4double ExcitationEnergy=GetExcitationEnergy();
 
 #ifdef debug_BIC_Propagate_finals
     PrintKTVector(&theFinalState,std::string(" FinalState be4 corr"));
     G4cout << " Excitation Energy prefinal,  #collisions:, out, captured  "
             << ExcitationEnergy << " "
             << collisionCount << " "
             << theFinalState.size() << " "
             << theCapturedList.size()<<G4endl;
 #endif
 
     if (ExcitationEnergy < 0 )
     {
         G4int maxtry=5, ntry=0;
         do {
             CorrectFinalPandE();
             ExcitationEnergy=GetExcitationEnergy();
         } while ( ++ntry < maxtry && ExcitationEnergy < 0 );       /* Loop checking, 31.08.2015, G.Folger */
     }
     _DebugEpConservation("corrected");
 
 #ifdef debug_BIC_Propagate_finals
     PrintKTVector(&theFinalState,std::string(" FinalState corrected"));
     G4cout << " Excitation Energy final,  #collisions:, out, captured  "
             << ExcitationEnergy << " "
             << collisionCount << " "
             << theFinalState.size() << " "
             << theCapturedList.size()<<G4endl;
 #endif
 
 
     if ( ExcitationEnergy < 0. )
     {
             #ifdef debug_G4BinaryCascade
                   G4cerr << "G4BinaryCascade-Warning: negative excitation energy ";
                   G4cerr <<ExcitationEnergy<<G4endl;
                    PrintKTVector(&theFinalState,std::string("FinalState"));
                    PrintKTVector(&theCapturedList,std::string("captured"));
                   G4cout << "negative ExE:Final 4Momentum .mag: " << GetFinal4Momentum()
                           << " "<< GetFinal4Momentum().mag()<< G4endl
                           << "negative ExE:FinalNucleusMom  .mag: " << GetFinalNucleusMomentum()
                       << " "<< GetFinalNucleusMomentum().mag()<< G4endl;
             #endif
             #ifdef debug_BIC_return
                     G4cout << "  negative Excitation E return empty products " << products << G4endl;
                     G4cout << "return 4, excit < 0 "<< G4endl;
             #endif
 
         ClearAndDestroy(products);
         return products;   // return empty products- FIXME
     }
 
     G4ReactionProductVector * precompoundProducts=DeExcite();
 
 
     G4DecayKineticTracks decay(&theFinalState);
     _DebugEpConservation("decayed");
 
     products= ProductsAddFinalState(products, theFinalState);
 
     products= ProductsAddPrecompound(products, precompoundProducts);
 
 //    products=ProductsAddFakeGamma(products);
 
 
     thePrimaryEscape = true;
 
     #ifdef debug_BIC_return
     G4cout << "BIC: return @end, all ok "<< G4endl;
     //G4cout << "  return products " << products << G4endl;
     #endif
 
     return products;
 }

Here is the call graph for this function:

Here is the caller graph for this function:

void G4BinaryCascade::PropagateModelDescription ( std::ostream & outFile ) const

virtual

Reimplemented from G4VIntraNuclearTransportModel.

Definition at line 212 of file G4BinaryCascade.cc.

 {
     outFile << "G4BinaryCascade propagtes secondaries produced by a high\n"
             << "energy model through the wounded nucleus.\n"
             << "Secondaries are followed after the formation time and if\n"
             << "within the nucleus are propagated through the nuclear\n"
             << "potential along curved trajectories until they interact\n"
             << "with a nucleon, decay, or leave the nucleus.\n"
             << "An interaction of a secondary with a nucleon produces two\n"
             << "final-state particles, one or both of which may be resonances.\n"
             << "Resonances decay hadronically and the decay products\n"
             << "are in turn propagated through the nuclear potential along curved\n"
             << "trajectories until they re-interact or leave the nucleus.\n"
             << "This model is valid for pions up to 1.5 GeV and\n"
             << "nucleons up to about 3.5 GeV.\n"
             << "The remaining excited nucleus is handed on to ";
     if (theDeExcitation)                // pre-compound
     {
       outFile << theDeExcitation->GetModelName() << " : \n ";
       theDeExcitation->DeExciteModelDescription(outFile);
     }
     else if (theExcitationHandler)    // de-excitation
     {
        outFile << "G4ExcitationHandler";    //theExcitationHandler->GetModelName();
        theExcitationHandler->ModelDescription(outFile);
     }
     else
     {
        outFile << "void.\n";
     }
 outFile<< " \n";
 }

Here is the call graph for this function:

The documentation for this class was generated from the following files:

source/geant4.10.03.p02/source/processes/hadronic/models/binary_cascade/include/G4BinaryCascade.hh
source/geant4.10.03.p02/source/processes/hadronic/models/binary_cascade/src/G4BinaryCascade.cc

Public Member Functions

Additional Inherited Members

Detailed Description

Constructor & Destructor Documentation

Member Function Documentation