Quadrupole properties of the eight algebras in space
arXiv:2005.08174 · doi:10.1140/epjst/e2020-000088-4
Abstract
With nucleons occupying an oscillator shell , there are number of algebras; is the integer part of . Analyzing the first non trivial situation with four algebras in space, demonstrated recently is that they generate quite different quadrupole properties though they all generate the same spectrum. More complex situation is with eight algebras in space. In the present work, quadrupole properties generated by these eight algebras are analyzed first using the more analytically tractable interacting boson model. In addition, shell model and the closely related deformed shell model are used with three examples of nucleons in space. It is found that in general six of the algebras generate prolate shape and two oblate shape. Out of all these, one of the algebra generates quite small quadrupole moments for the low-lying states.
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