Physical Review Letters · 1991 · 266 citations · 16 references
Natural SciencesPhysicsNuclear PhysicsParticle PhysicsRadiation PhysicsAtomic CollisionsCollision TheoryHeavy-ion PhysicsNuclear DecayEnergyFragmentation ReactionsHigh-energy Collision DynamicsRelativistic Heavy-ion CollisionsSpectator ModelUltra-relativistic Nuclear Collisions
We have studied multifragment decays of Au projectiles after collisions with C, Al, and Cu targets at a bombarding energy of 600 MeV nucleon. We find that with increasing violence of the collision, measured via the multiplicity of light particles, the mean multiplicity of intermediate-mass fragments originating from the projectile first increases to a maximum 〈${\mathit{M}}_{\mathrm{IMF}}$〉\ensuremath{\simeq}3 and then decreases again. Calculations using the Boltzmann-Uehling-Uhlenbeck model suggest that the fragmentation is governed by the energy ${\mathit{E}}_{\mathrm{dep}}$ deposited into the projectile spectator and that 〈${\mathit{M}}_{\mathrm{IMF}}$〉 reaches its maximum around ${\mathit{E}}_{\mathrm{dep}}$\ensuremath{\simeq}8 MeV/nucleon.
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Systematics of complex fragment emission in niobium-induced reactions
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