In-gas-cell laser ionization spectroscopy in the vicinity of 100Sn: Magnetic moments and mean-square charge radii of N=50-54 Ag
arXiv:1311.6913 · doi:10.1016/j.physletb.2013.11.055
Abstract
In-gas-cell laser ionization spectroscopy studies on the neutron deficient 97-101Ag isotopes have been performed with the LISOL setup. Magnetic dipole moments and mean-square charge radii have been determined for the first time with the exception of 101Ag, which was found in good agreement with previous experimental values. The reported results allow tentatively assigning the spin of 97,99Ag to 9/2 and confirming the presence of an isomeric state in these two isotopes, whose collapsed hyperfine structure suggests a spin of 1/2 . The effect of the N=50 shell closure is not only manifested in the magnetic moments but also in the evolution of the mean-square charge radii of the isotopes investigated, in accordance with the spherical droplet model predictions.
References in corpus (8)
- Precision Atomic Physics Techniques for Nuclear Physics with Radioactive Beams
- Spins, Electromagnetic Moments, and Isomers of 107-129Cd
- Orbital dependent nucleonic pairing in the lightest known isotopes of tin
- Early onset of ground-state deformation in the neutron-deficient polonium isotopes
- The in-gas-jet laser ion source: resonance ionization spectroscopy of radioactive atoms in supersonic gas jets
- Magnetic dipole moment of 57,59Cu measured by in-gas-cell laser spectroscopy
- Dual Chamber Laser Ion Source at Lisol
- Magnetic moment of Ag-104(m) and the hyperfine magnetic field of Ag in Fe using nuclear magnetic resonance on oriented nuclei
Cited by in corpus (6)
- Laser Spectroscopy for the Study of Exotic Nuclei
- In-gas-cell laser spectroscopy for magnetic dipole moment of Pt toward 126
- Nuclear charge radii of Na isotopes: A tale of two theories
- Effective shell-model interaction for nuclei southeast of Sn
- Binding energies, charge radii, spins and moments: odd-odd Ag isotopes and discovery of a new isomer
- Electromagnetic Properties of the N=50 Isotones with the p35-i3 Hamiltonian