+ Zr cluster structure in Mo
arXiv:2303.17777 · doi:10.1103/PhysRevC.107.034317
Abstract
In the evaluation of the half-life of the neutrinoless double- decay () of a doubly closed-subshell nucleus Zr, the structure of the nucleus Mo is essentially important. The -clustering aspects of Mo are investigated for the first time. By studying the nuclear rainbows in scattering from Zr at high energies and the characteristic structure of the excitation functions at the extreme backward angle at the low-energy region, the interaction potential between the particle and the Zr nucleus is determined well in the double folding model. The validity of the double folding model was reinforced by studying scattering from neighboring nuclei Zr, Zr, and Zr. The double-folding-model calculations reproduced well all the observed angular distributions over a wide range of incident energies and the characteristic excitation functions. By using the obtained potential the +Zr cluster structure of Mo is investigated in the spirit of a unified description of scattering and structure. The existence of the second-higher nodal band states with the + Zr cluster structure, in which two more nodes are excited in the relative motion compared with the ground band, is demonstrated. The calculation reproduces well the ground-band states of Mo in agreement with experiment. The experimental value of the transition in the ground band is also reproduced well. The effect of clustering in Mo on the the half-life of the double- decay of Zr is discussed.
arXiv comment11 pages, 9 figures
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