A deep neural network extends the DRHBc nuclear mass table to odd-Z nuclei, and r-process simulations show that the resulting mass differences, attributed to deformation, strongly affect abundances around A=80-120.
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Deep learning for nuclear masses in deformed relativistic Hartree-Bogoliubov theory in continuum
A deep neural network extends the DRHBc nuclear mass table to odd-Z nuclei, and r-process simulations show that the resulting mass differences, attributed to deformation, strongly affect abundances around A=80-120.