Zeeman effect of the hyperfine structure levels in lithiumlike ions
arXiv:0712.3640 · doi:10.1103/PhysRevA.77.063421
Abstract
The fully relativistic theory of the Zeeman splitting of the hyperfine-structure levels in lithiumlike ions with is considered for the magnetic field magnitude in the range from 1 to 10 T. The second-order corrections to the Breit -- Rabi formula are calculated and discussed including the one-electron contributions as well as the interelectronic-interaction effects of order 1/Z. The 1/Z corrections are evaluated within a rigorous QED approach. These corrections are combined with other interelectronic-interaction, QED, nuclear recoil, and nuclear size corrections to obtain high-precision theoretical values for the Zeeman splitting in Li-like ions with nonzero nuclear spin. The results can be used for a precise determination of nuclear magnetic moments from -factor experiments.
25 pages, 5 figures
References in corpus (17)
- Dual kinetic balance approach to basis set expansions for the Dirac equation
- Two-time Green function method in quantum electrodynamics of high-Z few-electron atoms
- Complete two-loop correction to the bound-electron g factor
- Recoil correction to the bound-electron g factor in H-like atoms to all orders in
- Self-energy correction to the bound-electron g factor in H-like ions
- Evaluation of the self-energy correction to the g-factor of S states in H-like ions
- QED theory of the nuclear recoil effect on the atomic g factor
- Relativistic and QED corrections to the g factor of Li-like ions
- Finite nuclear size correction to the bound-electron g factor in a hydrogenlike atom
- Nuclear-polarization correction to the bound-electron g factor in heavy hydrogenlike ions
- Anomalous magnetic moment of a bound electron
- Screened QED corrections to the g factor of Li-like ions
- Mass Measurements and the Bound--Electron g Factor
- Zeeman effect of the hyperfine structure levels in hydrogenlike ions
- QED Effects in Heavy Few-Electron Ions
- g factor in a light two body atomic system: a determination of fundamental constants to test QED
- g factor of Li-like ions with nonzero nuclear spin