// This code implementation is the intellectual property of // the GEANT4 collaboration. // // By copying, distributing or modifying the Program (or any work // based on the Program) you indicate your acceptance of this statement, // and all its terms. // // $Id: G4ExcitedLambdaConstructor.hh,v 1.4 2000/02/27 07:48:50 kurasige Exp $ // GEANT4 tag $Name: geant4-03-00 $ // // // -------------------------------------------------------------- // GEANT 4 class implementation file // // For information related to this code contact: // CERN, IT Division, ASD Group // History: first implementation, based on object model of // 10 oct 1998 H.Kurashige // --------------------------------------------------------------- #ifndef G4ExcitedLambdaConstructor_h #define G4ExcitedLambdaConstructor_h 1 #include "globals.hh" #include "G4ios.hh" #include "G4ExcitedBaryonConstructor.hh" class G4ExcitedLambdaConstructor: public G4ExcitedBaryonConstructor { //This class is a utility class for construction //short lived particles public: G4ExcitedLambdaConstructor(); virtual ~G4ExcitedLambdaConstructor(); protected: virtual G4bool Exist( G4int ){return true;} virtual G4int GetQuarkContents(G4int, G4int); virtual G4String GetName(G4int iIso3, G4int iState); virtual G4String GetMultipletName(G4int iState); virtual G4double GetMass(G4int iState); virtual G4double GetWidth(G4int iState); virtual G4int GetiSpin(G4int iState); virtual G4int GetiParity(G4int iState); virtual G4int GetEncodingOffset(G4int iState); virtual G4DecayTable* CreateDecayTable(const G4String& name, G4int iIso3, G4int iState, G4bool fAnti = false); private: G4DecayTable* AddNKMode( G4DecayTable* table, const G4String& name, G4double br, G4int iIso3, G4bool fAnti); G4DecayTable* AddNKStarMode( G4DecayTable* table, const G4String& name, G4double br, G4int iIso3, G4bool fAnti); G4DecayTable* AddSigmaPiMode( G4DecayTable* table, const G4String& name, G4double br, G4int iIso3, G4bool fAnti); G4DecayTable* AddSigmaStarPiMode( G4DecayTable* table, const G4String& name, G4double br, G4int iIso3, G4bool fAnti); G4DecayTable* AddLambdaGammaMode( G4DecayTable* table, const G4String& name, G4double br, G4int iIso3, G4bool fAnti); G4DecayTable* AddLambdaEtaMode( G4DecayTable* table, const G4String& name, G4double br, G4int iIso3, G4bool fAnti); G4DecayTable* AddLambdaOmegaMode( G4DecayTable* table, const G4String& name, G4double br, G4int iIso3, G4bool fAnti); public: enum { NStates = 12 }; private: enum { LambdaIsoSpin = 0 }; private: static const char* name[ NStates ]; static const G4double mass[ NStates ]; static const G4double width[ NStates ]; static const G4int iSpin[ NStates ]; static const G4int iParity[ NStates ]; static const G4int encodingOffset[ NStates ]; public: enum { NumberOfDecayModes = 7 }; private: enum { NK=0, NKStar=1, SigmaPi=2, SigmaStarPi=3, LambdaGamma=4, LambdaEta=5, LambdaOmega=6 }; private: static const G4double bRatio[ NStates ][ NumberOfDecayModes]; }; inline G4double G4ExcitedLambdaConstructor::GetMass(G4int iState) { return mass[iState]; } inline G4double G4ExcitedLambdaConstructor::GetWidth(G4int iState) { return width[iState]; } inline G4int G4ExcitedLambdaConstructor::GetiSpin(G4int iState) { return iSpin[iState]; } inline G4int G4ExcitedLambdaConstructor::GetiParity(G4int iState) { return iParity[iState]; } inline G4int G4ExcitedLambdaConstructor::GetEncodingOffset(G4int iState) { return encodingOffset[iState]; } inline G4int G4ExcitedLambdaConstructor::GetQuarkContents(G4int iQ, G4int iIso3) { G4int quark=0; if ( iQ == 0 ){ // s-quark quark = 3; } else if ( iQ == 1 ){ // u-quark quark = 2; } else if ( iQ == 2 ){ // d-quark quark = 1; } return quark; } inline G4String G4ExcitedLambdaConstructor::GetMultipletName(G4int iState) { return name[iState]; } inline G4String G4ExcitedLambdaConstructor::GetName(G4int iIso3, G4int iState) { G4String particle = name[iState]; return particle; } #endif