Effect of deformation on alpha decay of super-heavy nuclei within a Woods-Saxon model

In this research, alpha decay study of super-heavy nuclei has been carried out by employing the Woods-Saxon model potential. The spherical and deformed Woods-Saxon model have been employed to investigate the effect of deformation on the super-heavy nuclei via alpha decay. When compared with experimental data, the two models are found to perform very well in describing the experimental half-life data. Moreover, results obtained by considering deformation is found to give better agreement with the experimental data than the results using spherical configuration. This is mainly because the super-heavy nuclei have non-zero deformation parameters. The study concludes that deformation should be considered when studying super-heavy nuclei, and that the deformed Woods-Saxon model is more complete in describing the interaction between the alpha decay and the daughter nuclei as it has a low standard deviation value of 0.5012 compared to 0.6260 when only sphericity is considered.

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Publication Details

Journal
Proceedings of the Nigerian Society of Physical Sciences
Published
2025-03-23
DOI
https://doi.org/10.61298/pnspsc.2025.2.177
Primary Topic
Nuclear physics research studies
Type
article
Field-Weighted Citation Impact
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article

Effect of deformation on alpha decay of super-heavy nuclei within a Woods-Saxon model

Surajudeen Shittu, Hammed Mustapha
Proceedings of the Nigerian Society of Physical Sciences
Nuclear physics research studies
article

Effect of deformation on alpha decay of super-heavy nuclei within a Woods-Saxon model

Surajudeen Shittu, Hammed Mustapha
article en

Abstract

In this research, alpha decay study of super-heavy nuclei has been carried out by employing the Woods-Saxon model potential. The spherical and deformed Woods-Saxon model have been employed to investigate the effect of deformation on the super-heavy nuclei via alpha decay. When compared with experimental data, the two models are found to perform very well in describing the experimental half-life data. Moreover, results obtained by considering deformation is found to give better agreement with the experimental data than the results using spherical configuration. This is mainly because the super-heavy nuclei have non-zero deformation parameters. The study concludes that deformation should be considered when studying super-heavy nuclei, and that the deformed Woods-Saxon model is more complete in describing the interaction between the alpha decay and the daughter nuclei as it has a low standard deviation value of 0.5012 compared to 0.6260 when only sphericity is considered.

Proceedings of the Nigerian Society of Physical Sciences
Kwara State University (NG)
Openalex Percentile: Top 97%
Nuclear physics research studies
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Effect of deformation on alpha decay of super-heavy nuclei within a Woods-Saxon model — Surajudeen Shittu, Hammed Mustapha · Proceedings of the Nigerian Society of Physical Sciences (2025) | TGRS Research Map | TGRS