Systematic shell-model study of Cd isotopes and isomers in neutron-rich In isotopes
arXiv:2401.04001 · doi:10.1103/PhysRevC.109.014310
Abstract
Systematic shell-model calculations are presented for odd-mass Cd isotopes with utilizing a combination of a -matrix interaction and a semiempirical one. The excited energy spectra and electromagnetic transition probabilities are compared with the recently available experimental data. We have found that the observed quadrupole moments in the states that linearly change with the neutron number are well accounted for by the dominance of prolate shapes throughout the Cd isotope chain. We have also described the properties of several isomeric states in neutron-rich In isotopes that were recently observed in Jyväskylä.
arXiv comment16 pages, 13 figures
References in corpus (17)
- Tables of E2 Transition Probabilities from the first States in Even-Even Nuclei
- Thick-Restart Block Lanczos Method for Large-Scale Shell-Model Calculations
- Z=50 shell gap near Sn from intermediate-energy Coulomb excitations in even-mass Sn isotopes
- Spins, Electromagnetic Moments, and Isomers of 107-129Cd
- Novel shape evolution in Sn isotopes from magic numbers 50 to 82
- Atlas of Nuclear Isomers -- Second Edition
- First glimpse of the shell closure below from masses of neutron-rich cadmium isotopes and isomers
- Structure of even-even Cadmium isotopes from the beyond-mean-field interacting boson model
- Large-scale shell-model calculations for unnatural-parity high-spin states in neutron-rich Cr and Fe isotopes
- Novel Penning-trap techniques reveal isomeric states in In and In for the first time
- Quadrupole dominance in the light Sn and in the Cd isotopes
- In-beam fast-timing measurements in 103,105,107Cd
- Lifetime Measurements in the Even-Even Cd Isotopes
- Spectroscopy and excited-state ~factors in weakly collective Cd: confronting collective and microscopic models
- Persistent vibrational structure in Cd
- Different seniority states of Sn isotopes: shell model description
- Systematic shell-model study of Cd isotopes and isomeric states