G4INCLNuclearDensity.hh

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//
// INCL++ intra-nuclear cascade model
// Alain Boudard, CEA-Saclay, France
// Joseph Cugnon, University of Liege, Belgium
// Jean-Christophe David, CEA-Saclay, France
// Pekka Kaitaniemi, CEA-Saclay, France, and Helsinki Institute of Physics, Finland
// Sylvie Leray, CEA-Saclay, France
// Davide Mancusi, CEA-Saclay, France
//
#define INCLXX_IN_GEANT4_MODE 1
 
#include "globals.hh"
 
#ifndef G4INCLNuclearDensity_hh
#define G4INCLNuclearDensity_hh 1
 
#include <vector>
#include <map>
// #include <cassert>
#include "G4INCLThreeVector.hh"
#include "G4INCLIFunction1D.hh"
#include "G4INCLParticle.hh"
#include "G4INCLGlobals.hh"
#include "G4INCLRandom.hh"
#include "G4INCLINuclearPotential.hh"
#include "G4INCLInterpolationTable.hh"
 
namespace G4INCL {
 
  class NuclearDensity {
  public:
    NuclearDensity(const G4int A, const G4int Z, const G4int S, InterpolationTable const * const rpCorrelationTableProton, InterpolationTable const * const rpCorrelationTableNeutron, InterpolationTable const * const rpCorrelationTableLambda);
    ~NuclearDensity();
 
    /// \brief Copy constructor
    NuclearDensity(const NuclearDensity &rhs);
 
    /// \brief Assignment operator
    NuclearDensity &operator=(const NuclearDensity &rhs);
 
    /// \brief Helper method for the assignment operator
    void swap(NuclearDensity &rhs);
 
    /** \brief Get the maximum allowed radius for a given momentum.
     *  \param t type of the particle
     *  \param p absolute value of the particle momentum, divided by the
     *           relevant Fermi momentum.
     *  \return maximum allowed radius.
     */
    G4double getMaxRFromP(const ParticleType t, const G4double p) const;
 
    G4double getMinPFromR(const ParticleType t, const G4double r) const;
 
    G4double getMaximumRadius() const { return theMaximumRadius; };
 
    /** \brief The radius used for calculating the transmission coefficient.
     *
     * \return the radius
     */
    G4double getTransmissionRadius(Particle const * const p) const {
      const ParticleType t = p->getType();
// assert(t!= antiLambda && t!=antiNeutron && t!=Neutron && t!=PiZero && t!=DeltaZero && t!=Eta && t!=Omega && t!=EtaPrime && t!=Photon && t!= Lambda && t!=SigmaZero && t!=KZero && t!=KZeroBar && t!=KShort && t!=KLong); // no neutral particles here
      if(t==Composite) {
        return transmissionRadius[t] +
          ParticleTable::getNuclearRadius(t, p->getA(), p->getZ());
      } else
        return transmissionRadius[t];
    };
 
    /** \brief The radius used for calculating the transmission coefficient.
     *
     * \return the radius
     */
    G4double getTransmissionRadius(ParticleType type) const {
// assert(type!=Composite);
      return transmissionRadius[type];
    };
 
    /// \brief Get the mass number.
    G4int getA() const { return theA; }
 
    /// \brief Get the charge number.
    G4int getZ() const { return theZ; }
 
    /// \brief Get the strange number.
    G4int getS() const { return theS; }
 
    G4double getProtonNuclearRadius() const { return theProtonNuclearRadius; }
    void setProtonNuclearRadius(const G4double r) { theProtonNuclearRadius = r; }
 
  private:
 
    /** \brief Initialize the transmission radius. */
    void initializeTransmissionRadii();
 
    G4int theA, theZ, theS;
    G4double theMaximumRadius;
    /// \brief Represents INCL4.5's R0 variable
    G4double theProtonNuclearRadius;
 
    /* \brief map of transmission radii per particle type */
    G4double transmissionRadius[UnknownParticle];
 
    InterpolationTable const *rFromP[UnknownParticle];
    InterpolationTable const *pFromR[UnknownParticle];
  };
 
}
 
#endif