Primary and secondary masses of heavy reaction products have been deduced from kinematics and energy–time-of-flight measurements, respectively, for the direct and reverse collisions of 100Mo with 120Sn at 14.1AMeV. Direct experimental evidence of the correlation of energy sharing with net mass transfer and model-independent results on the evolution of the average excitation from equal-energy to equal-temperature partition are presented.
Direct experimental evidence of nonequilibrium energy sharing in dissipative collisions / Casini, G., Maurenzig, P.R., Olmi, A., Bini, M., Calamai, S., Meucci, F., Pasquali, G., Poggi, G., Stefanini, A.A., Gobbi, A., Hildenbrand, K.D.. - In: PHYSICAL REVIEW LETTERS. - ISSN 0031-9007. - STAMPA. - 78:(1997), pp. 828-831.
Direct experimental evidence of nonequilibrium energy sharing in dissipative collisions
CASINI, GIOVANNI;MAURENZIG, PAOLO;OLMI, ALESSANDRO;BINI, MAURIZIO;PASQUALI, GABRIELE;POGGI, GIACOMO;STEFANINI, ANDREA;
1997
Abstract
Primary and secondary masses of heavy reaction products have been deduced from kinematics and energy–time-of-flight measurements, respectively, for the direct and reverse collisions of 100Mo with 120Sn at 14.1AMeV. Direct experimental evidence of the correlation of energy sharing with net mass transfer and model-independent results on the evolution of the average excitation from equal-energy to equal-temperature partition are presented.
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