Abstract
A heavy ion reaction ({sup 19}F+{sup 209}Bi) is selected. The reaction produces neutron-deficient {sup 228}U which is compound nucleus with a pair of Rb(z=37) and Cs(Z=55). Energy dissipation problem of nucleus was studied by measuring the isotope distribution of two fissile nuclides. Bismuth metal evaporated on aluminium foil was irradiated by {sup 19}F with the incident energy of 105-128 MeV. We concluded from the results that the excess energy of reaction system obtained with increasing the incident energy is consumed by (1) light Rb much more than Cs and (2) about 60% of energy is given to two fission fragments and the rest 40% to the translational kinetic energy or unknown anomalous {gamma}-ray irradiation. (S.Y.)
Sueki, Keisuke;
Nakahara, Hiromichi;
[1]
Tanase, Masakazu;
Nagame, Yuichiro;
Shinohara, Nobuo;
Tsukada, Kazuaki
- Tokyo Metropolitan Univ., Hachioji (Japan). Faculty of Science
Citation Formats
Sueki, Keisuke, Nakahara, Hiromichi, Tanase, Masakazu, Nagame, Yuichiro, Shinohara, Nobuo, and Tsukada, Kazuaki.
Mechanism of fission of neutron-deficient actinoids nuclides.
Japan: N. p.,
1996.
Web.
Sueki, Keisuke, Nakahara, Hiromichi, Tanase, Masakazu, Nagame, Yuichiro, Shinohara, Nobuo, & Tsukada, Kazuaki.
Mechanism of fission of neutron-deficient actinoids nuclides.
Japan.
Sueki, Keisuke, Nakahara, Hiromichi, Tanase, Masakazu, Nagame, Yuichiro, Shinohara, Nobuo, and Tsukada, Kazuaki.
1996.
"Mechanism of fission of neutron-deficient actinoids nuclides."
Japan.
@misc{etde_506244,
title = {Mechanism of fission of neutron-deficient actinoids nuclides}
author = {Sueki, Keisuke, Nakahara, Hiromichi, Tanase, Masakazu, Nagame, Yuichiro, Shinohara, Nobuo, and Tsukada, Kazuaki}
abstractNote = {A heavy ion reaction ({sup 19}F+{sup 209}Bi) is selected. The reaction produces neutron-deficient {sup 228}U which is compound nucleus with a pair of Rb(z=37) and Cs(Z=55). Energy dissipation problem of nucleus was studied by measuring the isotope distribution of two fissile nuclides. Bismuth metal evaporated on aluminium foil was irradiated by {sup 19}F with the incident energy of 105-128 MeV. We concluded from the results that the excess energy of reaction system obtained with increasing the incident energy is consumed by (1) light Rb much more than Cs and (2) about 60% of energy is given to two fission fragments and the rest 40% to the translational kinetic energy or unknown anomalous {gamma}-ray irradiation. (S.Y.)}
place = {Japan}
year = {1996}
month = {Jan}
}
title = {Mechanism of fission of neutron-deficient actinoids nuclides}
author = {Sueki, Keisuke, Nakahara, Hiromichi, Tanase, Masakazu, Nagame, Yuichiro, Shinohara, Nobuo, and Tsukada, Kazuaki}
abstractNote = {A heavy ion reaction ({sup 19}F+{sup 209}Bi) is selected. The reaction produces neutron-deficient {sup 228}U which is compound nucleus with a pair of Rb(z=37) and Cs(Z=55). Energy dissipation problem of nucleus was studied by measuring the isotope distribution of two fissile nuclides. Bismuth metal evaporated on aluminium foil was irradiated by {sup 19}F with the incident energy of 105-128 MeV. We concluded from the results that the excess energy of reaction system obtained with increasing the incident energy is consumed by (1) light Rb much more than Cs and (2) about 60% of energy is given to two fission fragments and the rest 40% to the translational kinetic energy or unknown anomalous {gamma}-ray irradiation. (S.Y.)}
place = {Japan}
year = {1996}
month = {Jan}
}