Deformation Parameters and Electric Intrinsic Quadrupole Moment for Even- Even Cerium Isotopes

Authors

  • A.E Ezwam Tripoli University Tripoli-Libya
  • S.A. Sallam Tripoli University Tripoli-Libya

DOI:

https://doi.org/10.37375/foej.v3i1.2587

Keywords:

Distortion parameter, Deformation parameter Intrinsic electric quadrupole moment, Reduced electric transition probability, Mean squared charge distribution radius

Abstract

 In this work  we focused on the studying of even – even nuclei forms for .The study of deformation parameter derived from the reduced electric transition probability for transitions, and distortion parameter is calculated from intrinsic electric quadrupole moment .The relationship between two deformation parameters .  and neutron magic number  was studied through plotting the deformation parameters  as a function of neutrons number. The results show that the deformation parameters and intrinsic electric quadrupole moment of nucleus decreased when the neutrons number approaches to magic number. In the present work, another relationship was studied; this was getting the ratio of  .

In this paper also the major and the minor  ellipsoid axis were calculated, and the different between them have been determined.

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Published

2024-01-01

How to Cite

A.E Ezwam, & S.A. Sallam. (2024). Deformation Parameters and Electric Intrinsic Quadrupole Moment for Even- Even Cerium Isotopes. Faculty of Education Scientific Journal, 3(1), 372–363. https://doi.org/10.37375/foej.v3i1.2587