Evaluating nuclear physics inputs in core-collapse supernova models
Eric J. Lentz, W. Raphael Hix, Mark L. Baird, O. E. Bronson Messer,, Anthony Mezzacappa

TL;DR
This paper compares how different nuclear physics inputs, like the equation of state and neutrino interactions, influence core-collapse supernova models using advanced simulation codes.
Contribution
It provides preliminary insights into the impact of nuclear and weak interaction physics inputs on supernova modeling, highlighting areas for further detailed study.
Findings
Nuclear EoS significantly affects supernova dynamics.
Improved neutrino-nucleon interaction data alters simulation outcomes.
Preliminary results guide future detailed comparisons.
Abstract
Core-collapse supernova models depend on the details of the nuclear and weak interaction physics inputs just as they depend on the details of the macroscopic physics (transport, hydrodynamics, etc.), numerical methods, and progenitors. We present preliminary results from our ongoing comparison studies of nuclear and weak interaction physics inputs to core collapse supernova models using the spherically-symmetric, general relativistic, neutrino radiation hydrodynamics code Agile-Boltztran. We focus on comparisons of the effects of the nuclear EoS and the effects of improving the opacities, particularly neutrino--nucleon interactions.
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