source: trunk/source/processes/hadronic/models/de_excitation/evaporation/include/G4EvaporationChannel.hh @ 1196

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//J.M. Quesada (August2008). Based on:
//
// Hadronic Process: Nuclear De-excitations
// by V. Lara (Oct 1998)
//


#ifndef G4EvaporationChannel_h
#define G4EvaporationChannel_h 1

#include "G4VEvaporationChannel.hh"
#include "G4VEmissionProbability.hh"
#include "G4EvaporationProbability.hh"
#include "G4NeutronEvaporationProbability.hh"
#include "G4ProtonEvaporationProbability.hh"
#include "G4DeuteronEvaporationProbability.hh"
#include "G4TritonEvaporationProbability.hh"
#include "G4He3EvaporationProbability.hh"
#include "G4AlphaEvaporationProbability.hh"
#include "G4VLevelDensityParameter.hh"
#include "G4VCoulombBarrier.hh"
#include "G4EvaporationLevelDensityParameter.hh"
#include "G4NucleiProperties.hh"
#include "Randomize.hh"
#include "G4ParticleTable.hh"
#include "G4IonTable.hh"


class G4EvaporationChannel : public G4VEvaporationChannel
{
public:
  // constructor


  G4EvaporationChannel(const G4int theA, const G4int theZ, const G4String & aName,
                       G4VEmissionProbability * aEmissionStrategy,
                       G4VCoulombBarrier * aCoulombBarrier);
public:
  // destructor
  ~G4EvaporationChannel();
  
  void SetEmissionStrategy(G4VEmissionProbability * aEmissionStrategy)
  {theEvaporationProbabilityPtr = aEmissionStrategy;}

  void SetCoulombBarrierStrategy(G4VCoulombBarrier * aCoulombBarrier)
  {theCoulombBarrierPtr = aCoulombBarrier;} 
  

  
protected:
  // default constructor
  G4EvaporationChannel() {};
  
private:
  // copy constructor
  G4EvaporationChannel(const G4EvaporationChannel & right);
  
private:
  const G4EvaporationChannel & operator=(const G4EvaporationChannel & right);
  
public:
  G4bool operator==(const G4EvaporationChannel & right) const;
  G4bool operator!=(const G4EvaporationChannel & right) const;

public:
  void Initialize(const G4Fragment & fragment);

  G4FragmentVector * BreakUp(const G4Fragment & theNucleus);

  // void SetLevelDensityParameter(G4VLevelDensityParameter * aLevelDensity);
 
public:


  inline G4double GetEmissionProbability(void) const 
  {return EmissionProbability;}
  
  
  inline G4double GetMaximalKineticEnergy(void) const 
  { return MaximalKineticEnergy; }
  
private: 
  
  // Calculate Binding Energy for separate fragment from nucleus
  G4double CalcBindingEnergy(const G4int anA, const G4int aZ);

  // Calculate maximal kinetic energy that can be carried by fragment (in MeV)
  G4double CalcMaximalKineticEnergy(const G4double U);

  // Samples fragment kinetic energy.
    G4double  GetKineticEnergy(const G4Fragment & aFragment);

  // This has to be removed and put in Random Generator
  G4ThreeVector IsotropicVector(const G4double Magnitude  = 1.0);

        // Data Members
        // ************
private:

  // This data member define the channel. 
  // They are intializated at object creation (constructor) time.

  // Atomic Number of ejectile
  G4int theA;

  // Charge of ejectile
  G4int theZ;


  // For evaporation probability calcualation
  G4VEmissionProbability * theEvaporationProbabilityPtr;

  // For Level Density calculation
 // G4bool MyOwnLevelDensity;
  G4VLevelDensityParameter * theLevelDensityPtr;


  // For Coulomb Barrier calculation
  G4VCoulombBarrier * theCoulombBarrierPtr;
  G4double CoulombBarrier;
  
 
  //---------------------------------------------------

  // These values depend on the nucleus that is being evaporated.
  // They are calculated through the Initialize method which takes as parameters 
  // the atomic number, charge and excitation energy of nucleus.

  // Residual Mass Number
  G4int ResidualA;

  // Residual Charge
  G4int ResidualZ;
        
  // Emission Probability
  G4double EmissionProbability;


  // Maximal Kinetic Energy that can be carried by fragment
  G4double MaximalKineticEnergy;


};


#endif