Quantum Fluctuation Effects on Nuclear Fragment Formation
arXiv:nucl-th/9611003 · doi:10.1016/S0370-2693(97)00032-4
Abstract
Multifragmentation in Au+Au collisions is investigated at incident energies in the range 100-400 MeV per nucleon by means of a recently developed quantal Langevin model. The inclusion of quantum fluctuations enhances the average multiplicity of intermediate mass fragments, especially in central collisions. This is mainly because the excitation energies of fragments are reduced due to the quantal behavior of intrinsic specific heat.
15 Pages, LaTeX with epsf, and embedded 4 ps figures
Cited by in corpus (13)
- Antisymmetrized molecular dynamics with quantum branching processes for collisions of heavy nuclei
- Temperatures of Exploding Nuclei
- Transition from participant to spectator fragmentation in Au+Au reaction between 60 AMeV and 150 AMeV
- Liquid-Gas Phase Transition of Supernova Matter and Its Relation to Nucleosynthesis
- Fragmentation path of excited nuclear systems
- Thermodynamics of the harmonic oscillator using coherent states
- Statistical Models of Nuclear Fragmentation
- Quantum fluctuation effects on hyperfragment formation from Xi^- absorption at rest on 12C
- Quantum Statistical Model of Nuclear Multifragmentation in the Canonical Ensemble Method
- Breakup Conditions of Projectile Spectators from Dynamical Observables
- Sideward Peak of Intermediate Mass Fragments in High Energy Proton Induced Reactions
- Fragment Multiplicity Distributions, a Signal of True Nuclear Multifragmentation
- Size Matters: Origin of Binomial Scaling in Nuclear Fragmentation Experiments