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Main Authors: Jain, Samyak, Bhagwat, A.
Format: Preprint
Published: 2023
Subjects:
Online Access:https://arxiv.org/abs/2311.14293
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author Jain, Samyak
Bhagwat, A.
author_facet Jain, Samyak
Bhagwat, A.
contents A geometrical analysis of the stability of nuclei against deformations is presented. In particular, we use Catastrophe Theory to illustrate discontinuous changes in the behavior of nuclei with respect to deformations as one moves in the N - Z space. We construct a minimalistic deformation model using the microscopic-macroscopic approach. A third-order phase transition is found in the liquid-drop model, which translates to a complete loss of stability (using the Fold catastrophe) when shell effects are included. The analysis is found to explain the instability of known fissile nuclei and also justify known decay chains of heavy nuclei.
format Preprint
id arxiv_https___arxiv_org_abs_2311_14293
institution arXiv
publishDate 2023
record_format arxiv
spellingShingle Nuclear stability and the Fold Catastrophe
Jain, Samyak
Bhagwat, A.
Nuclear Theory
Mathematical Physics
A geometrical analysis of the stability of nuclei against deformations is presented. In particular, we use Catastrophe Theory to illustrate discontinuous changes in the behavior of nuclei with respect to deformations as one moves in the N - Z space. We construct a minimalistic deformation model using the microscopic-macroscopic approach. A third-order phase transition is found in the liquid-drop model, which translates to a complete loss of stability (using the Fold catastrophe) when shell effects are included. The analysis is found to explain the instability of known fissile nuclei and also justify known decay chains of heavy nuclei.
title Nuclear stability and the Fold Catastrophe
topic Nuclear Theory
Mathematical Physics
url https://arxiv.org/abs/2311.14293