Study of the nucleon-induced preequilibrium reactions in terms of the Quantum Molecular Dynamics
Satoshi Chiba, Mark B. Chadwick, Koji Niita, Toshiki Maruyama, Tomoyuki Maruyama, Akira Iwamoto
Abstract
The preequilibrium (nucleon-in, nucleon-out) angular distributions of 27Al, 58Ni and 90Zr have been analyzed in the energy region from 90 to 200 MeV in terms of the Quantum Moleculear Dynamics (QMD) theory. First, we show that the present approach can reproduce the measured (p,xp') and (p,xn) angular distributions leading to continuous final states without adjusing any parameters. Second, we show the results of the detailed study of the preequilibrium reaction processes; the step-wise contribution to the angular distribution, comparison with the quantum-mechanical Feshbach-Kerman-Koonin theory, the effects of momentum distribution and surface refraction/reflection to the quasifree scattering. Finally, the present method was used to assess the importance of multiple preequilibrium particle emission as a function of projectile energy up to 1 GeV.
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