-cluster structure above double-shell closures and -decay of Te
arXiv:1904.06657 · doi:10.1016/j.physletb.2019.04.019
Abstract
An analysis of the + core properties of Te along with a global discussion on the -cluster structure above the double-shell closures is presented from the viewpoint of the local potential model. The + core interaction is described by a nuclear potential of (1 + Gaussian)(W.S. + W.S.) shape with two free parameters, which has been successfully tested in nuclei of different mass regions. The model produces values and -decay half-lives for Te in agreement with the 2018 experimental data of Auranen et al. in the energy range using an preformation factor . The comparison of the calculated reduced -widths for the ground state bands of Te, Mo and Po indicates that Te has an -cluster degree significantly higher than Mo and much higher than Po. These results point to Te as a preferential nucleus for -clustering in the region and corroborate the statement on the superallowed -decay in Te.
arXiv comment11 pages, 3 figures. Accepted for publication in Physics Letters B
References in corpus (6)
- Microscopic Clustering in Light Nuclei
- Super-allowed alpha-decay above doubly-magic 100Sn and properties of 104Te = 100Sn otimes alpha
- Alpha-cluster structure in even-even nuclei around Mo
- Clustering slightly above Sn in the Light of the New Experimental Data on the Superallowed Decay
- Search for -cluster states in even-even Cr isotopes
- -cluster states in Cr from double-folding potentials
Cited by in corpus (6)
- Resonant and Scattering States in the System from the Non-Localized Cluster Model
- -cluster structures above double shell closures via double-folding potentials from chiral effective field theory
- Search for the + core structure in the ground state bands of even-even nuclei
- Cross sections at sub-Coulomb energies: full optical model vs.\ barrier transmission for Ca +
- + core structure described with an additional interaction in the nuclear matter saturation region
- Signatures of an + core structure in Ti + Ti collisions at TeV by a multiphase transport model