Study of structure and radii for Na isotopes using microscopic interactions
arXiv:2211.04133 · doi:10.1016/j.nuclphysa.2023.122618
Abstract
In this work, Na isotopes with mass varying from 20 to 31 have been studied using DJ16A, JISP16 and N3LO microscopic effective interactions in the -shell. These effective interactions are derived for -shell using no-core shell model wavefunctions and a unitary transformation method. We have also performed calculation with IMSRG effective interactions targeted for a particular nucleus. The studies include a detailed analysis of ground state binding energy, low-lying spectra, and electromagnetic properties such as reduced electric quadrupole transition strengths, quadrupole and magnetic dipole moments of the Na chain. The results obtained from these microscopic effective interactions were compared with the experimental data as well as with the results of phenomenological interaction USDB. The charge radii of Na isotopes are evaluated using shell model harmonic oscillator wave functions. In addition to charge radii, matter radii and neutron skin thickness in the Na chain are discussed with a focus on neutron-deficient Na isotopes.
26 pages, 6 figures
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- Ab initio no-core shell-model study of Na isotopes