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.
Nuclear Physics in the Era of Quantum Computing and Quantum Machine Learning
1 Pith paper cite this work. Polarity classification is still indexing.
abstract
In this paper, the application of quantum simulations and quantum machine learning to solve low-energy nuclear physics problems is explored. The use of quantum computing to deal with nuclear physics problems is, in general, in its infancy and, in particular, the use of quantum machine learning in the realm of nuclear physics at low energy is almost nonexistent. We present here three specific examples where the use of quantum computing and quantum machine learning provides, or could provide in the future, a possible computational advantage: i) the determination of the phase/shape in schematic nuclear models, ii) the calculation of the ground state energy of a nuclear shell model-type Hamiltonian and iii) the identification of particles or the determination of trajectories in nuclear physics experiments.
citation-role summary
citation-polarity summary
fields
nucl-th 1years
2024 1verdicts
REJECT 1roles
background 1polarities
unclear 1representative citing papers
citing papers explorer
-
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.