  After constructing yield tensors with three dimensions for 851 fission
products and filling the tensors with the independent yield data from the
ENDF/B-VIII.0 database, the tensor decomposition algorithm is applied to
predict the independent isotopic yield in fission, which resulting in the
Fission Yield Tensor Decomposition (FYTD) model. The fission yields of 235U and
239Pu are set as missing values and then predicted. The predictions for235U
fissions by the FYTD model agree with the ENDF/B-VIII.0 data and are better
than those by the Talys and BNN+Talys models. Furthermore, we predict not only
the mass distribution but also the isotopic yields in the fissions. For fast
neutron-induced fission of 239Pu, 98% predictions of the isotopic yields by the
FYTD model agree with the ENDF/B-VIII.0 data within 1 order of magnitude. The
fission yields of 238Np, 243Am, and 236Np that do not exist in the
ENDF/B-VIII.0 database are predicted and compared with those in the JEFF-3.3
database, as well as the experimental data. Good agreement demonstrates the
predictive ability of the FYTD model for the target nucleus dependence. The
scalability of the yield tensor decomposition model over the incident neutron
energy degrees of freedom is examined. After adding a set of 2 MeV
neutron-induced 239Pu fission yield data into the yield tensor, the 2 MeV
neutron-induced fission yields of 235U and 239Pu are predicted. The comparison
with the experimental data shows that the predictions are similar to those by
the GEF model in the peak area but more accurate in the valley area. Finally,
the yields of the ratio of isomeric states and neutron excess of the products
as a function of product charge number are also studied. The FYTD model can
capture the multi-dimensional dependence of the fission yield data and make
reasonable predictions.
