Examination of coexistence of symmetric mass and asymmetric charge distributions of fission fragments

מידע ביבליוגרפי
Parent link:Physical Review C
Vol. 101, iss. 6.— 2020.— [064604, 11 р.]
מחבר תאגידי: Национальный исследовательский Томский политехнический университет Школа базовой инженерной подготовки Отделение математики и информатики
מחברים אחרים: Pasca H. Horia, Andreev A. V. Aleksandr, Adamyan G. G. Gurgen Grigorjevich, Antonenko N. V. Nikolay Viktorovich
סיכום:Title screen
Using the improved scission-point model, the mass and charge distributions of fission fragments of the compound nuclei 180,182,190,198Hg and 202Pb formed in complete fusion reactions 36Ar+144Sm, 40Ca+142Nd, 36Ar+154Sm, [alpha]+194Pt, and 48Ca+154Sm are studied and compared with available experimental data. The transition is explained from the mass-asymmetric distribution in fissioning 180,182,190Hg to the mass-symmetric distribution found in fissioning 198Hg and 202Pb. The retention of the asymmetric mass distributions is treated in the case of fissioning 180,182,190Hg with increasing excitation energy. In the fissioning 198Hg and 182Hg, completely different shapes are predicted for charge and mass yields.
יצא לאור: 2020
נושאים:
גישה מקוונת:https://doi.org/10.1103/PhysRevC.101.064604
פורמט: אלקטרוני Book Chapter
KOHA link:https://koha.lib.tpu.ru/cgi-bin/koha/opac-detail.pl?biblionumber=665135
תיאור
סיכום:Title screen
Using the improved scission-point model, the mass and charge distributions of fission fragments of the compound nuclei 180,182,190,198Hg and 202Pb formed in complete fusion reactions 36Ar+144Sm, 40Ca+142Nd, 36Ar+154Sm, [alpha]+194Pt, and 48Ca+154Sm are studied and compared with available experimental data. The transition is explained from the mass-asymmetric distribution in fissioning 180,182,190Hg to the mass-symmetric distribution found in fissioning 198Hg and 202Pb. The retention of the asymmetric mass distributions is treated in the case of fissioning 180,182,190Hg with increasing excitation energy. In the fissioning 198Hg and 182Hg, completely different shapes are predicted for charge and mass yields.
DOI:10.1103/PhysRevC.101.064604