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We performed the calculations of de-excitation of the primary fission fragments by the Hauser-Feshbach statistical decay followed by the β decay of de-excited fission products. We used the primary fission fragment mass distributions  Y P  ( A ), total kinetic energy TKE( A ), and its width σ  TKE  ( A ) as input, which were calculated with the Langevin model using macroscopic-microscopic models of the potential energy surface. The prompt neutron multiplicity  v ̅ and the independent fission product yield (FPY)  Y I (Z, A, M)  and cumulative FPY  Y C (Z, A, M)  are calculated by the Hauser-Feshbach statistical decay and  β  decay calculations, respectively. The calculated  v ̅ was overestimated approximately 17% compared to the evaluated data. The decay heats from  β  and  γ  were in accordance with the experimental results. The  β  delayed neutrons yieild was also overestimated.

The fission yield calculations with Langevin model, Hauser-Feshbach statistical decay, and beta decay