Intertwined quantum phase transitions in odd-mass Nb isotopes
arXiv:2311.17127 · doi:10.1051/epjconf/202532902012
Abstract
A detailed analysis of odd-mass Nb isotopes, in the framework of the interacting boson-fermion model with configuration mixing, discloses the effects of an abrupt crossing of states in normal and intruder configurations (Type~II QPT), on top of which superimposed a gradual evolution from spherical- to deformed-core shapes within the intruder configuration (Type~I QPT). The pronounced presence of both types of QPTs demonstrates, for the first time, the occurrence of intertwined QPTs in odd-mass nuclei.
arXiv comment5 pages, 5 figures, Proceedings 17th International Symposium on Capture Gamma-Ray Spectroscopy and Related Topics (CGS17), July 17-21, 2023, Grenoble, France
References in corpus (14)
- Structural evolution in nuclei within the mapped interacting boson model based on the Gogny energy density functional
- Nuclear shape coexistence: A study of the even-even Hg isotopes using the interacting boson model with configuration mixing
- The quest of shape coexistence in Zr isotopes
- Effect of a fermion on quantum phase transitions in bosonic systems
- Intertwined Quantum Phase Transitions in the Zr Isotopes
- Quantum phase transitions in Bose-Fermi systems
- Shape evolution in Yttrium and Niobium neutron-rich isotopes
- Beyond mean-field boson-fermion model for odd-mass nuclei
- Quadrupole Phonons in the Cadmium Isotopes
- Zr Isotopes as a region of intertwined quantum phase transitions
- Pairing vibrations in the interacting boson model based on density functional theory
- Interplay between shape-phase transitions and shape coexistence in the Zr isotopes
- Mixed configurations and intertwined quantum phase transitions in odd-mass nuclei
- Configuration mixing and intertwined quantum phase transitions in odd-mass niobium isotopes