G4INCLEventInfo.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"
 
/** \file G4INCLEventInfo.hh
 * \brief Simple container for output of event results.
 *
 * Contains the results of an INCL cascade.
 *
 * \date 21 January 2011
 * \author Davide Mancusi
 */
 
#ifndef G4INCLEVENTINFO_HH_HH
#define G4INCLEVENTINFO_HH_HH 1
 
#include "G4INCLParticleType.hh"
#ifdef INCL_ROOT_USE
#include <Rtypes.h>
#endif
#include <string>
#include <vector>
#include <algorithm>
 
namespace G4INCL {
#ifndef INCL_ROOT_USE
    typedef G4int Int_t;
    typedef short Short_t;
    typedef G4float Float_t;
    typedef G4double Double_t;
    typedef G4bool Bool_t;
#endif
 
    struct EventInfo {
      EventInfo() :
        nParticles(0),
        eventBias((Float_t)0.0),
        nRemnants(0),
        projectileType(0),
        At(0),
        Zt(0),
        St(0),
        Ap(0),
        Zp(0),
        Sp(0),
        Ep((Float_t)0.0),
        impactParameter((Float_t)0.0),
        nCollisions(0),
        stoppingTime((Float_t)0.0),
        EBalance((Float_t)0.0),
        pLongBalance((Float_t)0.0),
        pTransBalance((Float_t)0.0),
        nCascadeParticles(0),
        transparent(false),
        forcedCompoundNucleus(false),
        nucleonAbsorption(false),
        pionAbsorption(false),
        nDecays(0),
        nBlockedCollisions(0),
        nBlockedDecays(0),
        effectiveImpactParameter((Float_t)0.0),
        deltasInside(false),
        sigmasInside(false),
        kaonsInside(false),
        antikaonsInside(false),
        lambdasInside(false),
        forcedDeltasInside(false),
        forcedDeltasOutside(false),
        forcedPionResonancesOutside(false),
        absorbedStrangeParticle(false),
        forcedSigmaOutside(false),
        forcedStrangeInside(false),
        emitLambda(0),
        emitKaon(false),
        clusterDecay(false),
        firstCollisionTime((Float_t)0.0),
        firstCollisionXSec((Float_t)0.0),
        firstCollisionSpectatorPosition((Float_t)0.0),
        firstCollisionSpectatorMomentum((Float_t)0.0),
        firstCollisionIsElastic(false),
        nReflectionAvatars(0),
        nCollisionAvatars(0),
        nDecayAvatars(0),
        nUnmergedSpectators(0),
        nEnergyViolationInteraction(0),
        event(0)
 
      {
        std::fill_n(A, maxSizeParticles, 0);
        std::fill_n(Z, maxSizeParticles, 0);
        std::fill_n(S, maxSizeParticles, 0);
        std::fill_n(PDGCode, maxSizeParticles, 0);
        std::fill_n(ParticleBias, maxSizeParticles, (Float_t)0.0);
        std::fill_n(EKin, maxSizeParticles, (Float_t)0.0);
        std::fill_n(px, maxSizeParticles, (Float_t)0.0);
        std::fill_n(py, maxSizeParticles, (Float_t)0.0);
        std::fill_n(pz, maxSizeParticles, (Float_t)0.0);
        std::fill_n(theta, maxSizeParticles, (Float_t)0.0);
        std::fill_n(phi, maxSizeParticles, (Float_t)0.0);
        std::fill_n(origin, maxSizeParticles, 0);
        std::fill_n(emissionTime, maxSizeParticles, (Float_t)0.0);
        std::fill_n(ARem, maxSizeRemnants, 0);
        std::fill_n(ZRem, maxSizeRemnants, 0);
        std::fill_n(SRem, maxSizeRemnants, 0);
        std::fill_n(EStarRem, maxSizeRemnants, (Float_t)0.0);
        std::fill_n(JRem, maxSizeRemnants, (Float_t)0.0);
        std::fill_n(EKinRem, maxSizeRemnants, (Float_t)0.0);
        std::fill_n(pxRem, maxSizeRemnants, (Float_t)0.0);
        std::fill_n(pyRem, maxSizeRemnants, (Float_t)0.0);
        std::fill_n(pzRem, maxSizeRemnants, (Float_t)0.0);
        std::fill_n(thetaRem, maxSizeRemnants, (Float_t)0.0);
        std::fill_n(phiRem, maxSizeRemnants, (Float_t)0.0);
        std::fill_n(jxRem, maxSizeRemnants, (Float_t)0.0);
        std::fill_n(jyRem, maxSizeRemnants, (Float_t)0.0);
        std::fill_n(jzRem, maxSizeRemnants, (Float_t)0.0);
        std::fill_n(EKinPrime, maxSizeParticles, (Float_t)0.0);
        std::fill_n(pzPrime, maxSizeParticles, (Float_t)0.0);
        std::fill_n(thetaPrime, maxSizeParticles, (Float_t)0.0);
      }
 
      /** \brief Number of the event */
      static G4ThreadLocal Int_t eventNumber;
 
      /** \brief Maximum array size for remnants */
      static const Short_t maxSizeRemnants = 10;
 
      /** \brief Maximum array size for emitted particles */
      static const Short_t maxSizeParticles = 1000;
 
      /** \brief Number of particles in the final state */
      Short_t nParticles;
      /** \brief Particle mass number */
      Short_t A[maxSizeParticles];
      /** \brief Particle charge number */
      Short_t Z[maxSizeParticles];
      /** \brief Particle strangeness number */
      Short_t S[maxSizeParticles];
      /** \brief PDG numbering of the particles */
      Int_t PDGCode[maxSizeParticles];
      /** \brief Particle weight due to the bias */
      Float_t ParticleBias[maxSizeParticles];
      /** \brief Event bias */
      Float_t eventBias;
      /** \brief Particle kinetic energy [MeV] */
      Float_t EKin[maxSizeParticles];
      /** \brief Particle momentum, x component [MeV/c] */
      Float_t px[maxSizeParticles];
      /** \brief Particle momentum, y component [MeV/c] */
      Float_t py[maxSizeParticles];
      /** \brief Particle momentum, z component [MeV/c] */
      Float_t pz[maxSizeParticles];
      /** \brief Particle momentum polar angle [radians] */
      Float_t theta[maxSizeParticles];
      /** \brief Particle momentum azimuthal angle [radians] */
      Float_t phi[maxSizeParticles];
      /** \brief Origin of the particle
       *
       * Should be -1 for cascade particles, or the number of the remnant for
       * de-excitation particles. */
      Short_t origin[maxSizeParticles];
      /** \brief Emission time [fm/c] */
      Float_t emissionTime[maxSizeParticles];
      /** \brief History of the particle
       *
       * Condensed information about the de-excitation chain of a particle. For
       * cascade particles, it is just an empty string. For particles arising
       * from the de-excitation of a cascade remnant, it is a string of
       * characters. Each character represents one or more identical steps in
       * the de-excitation process. The currently defined possible character
       * values and their meanings are the following:
       *
       * e: evaporation product
       * E: evaporation residue
       * m: multifragmentation
       * a: light partner in asymmetric fission or IMF emission
       * A: heavy partner in asymmetric fission or IMF emission
       * f: light partner in fission
       * F: heavy partner in fission
       * s: saddle-to-scission emission
       * n: non-statistical emission (decay) */
      std::vector<std::string> history;
      /** \brief Number of remnants */
      Short_t nRemnants;
      /** \brief Remnant mass number */
      Short_t ARem[maxSizeRemnants];
      /** \brief Remnant charge number */
      Short_t ZRem[maxSizeRemnants];
      /** \brief Remnant strangeness number */
      Short_t SRem[maxSizeRemnants];
      /** \brief Remnant excitation energy [MeV] */
      Float_t EStarRem[maxSizeRemnants];
      /** \brief Remnant spin [\f$\hbar\f$] */
      Float_t JRem[maxSizeRemnants];
      /** \brief Remnant kinetic energy [MeV] */
      Float_t EKinRem[maxSizeRemnants];
      /** \brief Remnant momentum, x component [MeV/c] */
      Float_t pxRem[maxSizeRemnants];
      /** \brief Remnant momentum, y component [MeV/c] */
      Float_t pyRem[maxSizeRemnants];
      /** \brief Remnant momentum, z component [MeV/c] */
      Float_t pzRem[maxSizeRemnants];
      /** \brief Remnant momentum polar angle [radians] */
      Float_t thetaRem[maxSizeRemnants];
      /** \brief Remnant momentum azimuthal angle [radians] */
      Float_t phiRem[maxSizeRemnants];
      /** \brief Remnant angular momentum, x component [\f$\hbar\f$] */
      Float_t jxRem[maxSizeRemnants];
      /** \brief Remnant angular momentum, y component [\f$\hbar\f$] */
      Float_t jyRem[maxSizeRemnants];
      /** \brief Remnant angular momentum, z component [\f$\hbar\f$] */
      Float_t jzRem[maxSizeRemnants];
      /** \brief Projectile particle type */
      Int_t projectileType;
      /** \brief Mass number of the target nucleus */
      Short_t At;
      /** \brief Charge number of the target nucleus */
      Short_t Zt;
      /** \brief Strangeness number of the target nucleus */
      Short_t St;
      /** \brief Mass number of the projectile nucleus */
      Short_t Ap;
      /** \brief Charge number of the projectile nucleus */
      Short_t Zp;
      /** \brief Strangeness number of the projectile nucleus */
      Short_t Sp;
      /** \brief Projectile kinetic energy given as input */
      Float_t Ep;
      /** \brief Impact parameter [fm] */
      Float_t impactParameter;
      /** \brief Number of accepted two-body collisions */
      Int_t nCollisions;
      /** \brief Cascade stopping time [fm/c] */
      Float_t stoppingTime;
      /** \brief Energy-conservation balance [MeV] */
      Float_t EBalance;
      /** \brief Longitudinal momentum-conservation balance [MeV/c] */
      Float_t pLongBalance;
      /** \brief Transverse momentum-conservation balance [MeV/c] */
      Float_t pTransBalance;
      /** \brief Number of cascade particles */
      Short_t nCascadeParticles;
      /** \brief True if the event is transparent */
      Bool_t transparent;
      /** \brief True if the event is a forced CN */
      Bool_t forcedCompoundNucleus;
      /** \brief True if the event is a nucleon absorption */
      Bool_t nucleonAbsorption;
      /** \brief True if the event is a pion absorption */
      Bool_t pionAbsorption;
      /** \brief Number of accepted Delta decays */
      Int_t nDecays;
      /** \brief Number of two-body collisions blocked by Pauli or CDPP */
      Int_t nBlockedCollisions;
      /** \brief Number of decays blocked by Pauli or CDPP */
      Int_t nBlockedDecays;
      /** \brief Effective (Coulomb-distorted) impact parameter [fm] */
      Float_t effectiveImpactParameter;
      /** \brief Event involved deltas in the nucleus at the end of the cascade */
      Bool_t deltasInside;
      /** \brief Event involved sigmas in the nucleus at the end of the cascade */
      Bool_t sigmasInside;
      /** \brief Event involved kaons in the nucleus at the end of the cascade */
      Bool_t kaonsInside;
      /** \brief Event involved antikaons in the nucleus at the end of the cascade */
      Bool_t antikaonsInside;
      /** \brief Event involved lambdas in the nucleus at the end of the cascade */
      Bool_t lambdasInside;
      /** \brief Event involved forced delta decays inside the nucleus */
      Bool_t forcedDeltasInside;
      /** \brief Event involved forced delta decays outside the nucleus */
      Bool_t forcedDeltasOutside;
      /** \brief Event involved forced eta/omega decays outside the nucleus */
      Bool_t forcedPionResonancesOutside;
      /** \brief Event involved forced strange absorption inside the nucleus */
      Bool_t absorbedStrangeParticle;
      /** \brief Event involved forced Sigma Zero decays outside the nucleus */
      Bool_t forcedSigmaOutside;
      /** \brief Event involved forced antiKaon/Sigma absorption inside the nucleus */
      Bool_t forcedStrangeInside;
      /** \brief Number of forced Lambda emit out of the nucleus */
      Int_t emitLambda;
      /** \brief Event involved forced Kaon emission */
      Bool_t emitKaon;
      /** \brief Event involved cluster decay */
      Bool_t clusterDecay;
      /** \brief Time of the first collision [fm/c] */
      Float_t firstCollisionTime;
      /** \brief Cross section of the first collision (mb) */
      Float_t firstCollisionXSec;
      /** \brief Position of the spectator on the first collision (fm) */
      Float_t firstCollisionSpectatorPosition;
      /** \brief Momentum of the spectator on the first collision (fm) */
      Float_t firstCollisionSpectatorMomentum;
      /** \brief True if the first collision was elastic */
      Bool_t firstCollisionIsElastic;
      /** \brief Number of reflection avatars */
      Int_t nReflectionAvatars;
      /** \brief Number of collision avatars */
      Int_t nCollisionAvatars;
      /** \brief Number of decay avatars */
      Int_t nDecayAvatars;
      /** \brief Number of dynamical spectators that were merged back into the projectile remnant */
      Int_t nUnmergedSpectators;
      /** \brief Number of attempted collisions/decays for which the energy-conservation algorithm failed to find a solution. */
      Int_t nEnergyViolationInteraction;
      /** \brief Sequential number of the event in the event loop */
      Int_t event;
      /** \brief Particle kinetic energy, in inverse kinematics [MeV] */
      Float_t EKinPrime[maxSizeParticles];
      /** \brief Particle momentum, z component, in inverse kinematics [MeV/c] */
      Float_t pzPrime[maxSizeParticles];
      /** \brief Particle momentum polar angle, in inverse kinematics [radians] */
      Float_t thetaPrime[maxSizeParticles];
 
      /** \brief Reset the EventInfo members */
      void reset() {
        nParticles = 0;
        eventBias = (Float_t)0.0;
        history.clear();
        nRemnants = 0;
        projectileType = 0;
        At = 0;
        Zt = 0;
        St = 0;
        Ap = 0;
        Zp = 0;
        Sp = 0;
        Ep = (Float_t)0.0;
        impactParameter = (Float_t)0.0;
        nCollisions = 0;
        stoppingTime = (Float_t)0.0;
        EBalance = (Float_t)0.0;
        pLongBalance = (Float_t)0.0;
        pTransBalance = (Float_t)0.0;
        nCascadeParticles = 0;
        transparent = false;
        forcedCompoundNucleus = false;
        nucleonAbsorption = false;
        pionAbsorption = false;
        nDecays = 0;
        nBlockedCollisions = 0;
        nBlockedDecays = 0;
        effectiveImpactParameter = (Float_t)0.0;
        deltasInside = false;
        sigmasInside = false;
        kaonsInside = false;
        antikaonsInside = false;
        lambdasInside = false;
        forcedDeltasInside = false;
        forcedDeltasOutside = false;
        forcedPionResonancesOutside = false;
        absorbedStrangeParticle = false;
        forcedSigmaOutside = false;
        forcedStrangeInside = false;
        emitLambda = 0;
        emitKaon = false;
        clusterDecay = false;
        firstCollisionTime = (Float_t)0.0;
        firstCollisionXSec = (Float_t)0.0;
        firstCollisionSpectatorPosition = (Float_t)0.0;
        firstCollisionSpectatorMomentum = (Float_t)0.0;
        firstCollisionIsElastic = false;
        nReflectionAvatars = 0;
        nCollisionAvatars = 0;
        nDecayAvatars = 0;
        nUnmergedSpectators = 0;
        nEnergyViolationInteraction = 0;
        event = 0;
 
      }
 
      /// \brief Move a remnant to the particle array
      void remnantToParticle(const G4int remnantIndex);
 
      /// \brief Fill the variables describing the reaction in inverse kinematics
      void fillInverseKinematics(const Double_t gamma);
    };
}
 
#endif /* G4INCLEVENTINFO_HH_HH */