Nuclear deformation effect on the binding energies in heavy ions
arXiv:0711.4607 · doi:10.1103/PhysRevA.77.032501
Abstract
Nuclear deformation effects on the binding energies in heavy ions are investigated. Approximate formulas for the nuclear-size correction and the isotope shift for deformed nuclei are derived. Combined with direct numerical evaluations, these formulas are employed to reanalyse experimental data on the nuclear-charge-distribution parameters in and to revise the nuclear-size corrections to the binding energies in H- and Li-like . As a result, the theoretical uncertainties for the ground-state Lamb shift in and for the transition energy in are significantly reduced. The isotope shift of the transition energies for and is also evaluated including nuclear size and nuclear recoil effects within a full QED treatment.
19 pages, 5 tables
References in corpus (15)
- Two-time Green function method in quantum electrodynamics of high-Z few-electron atoms
- QED calculation of the n=1 and n=2 energy levels in He-like ions
- Relativistic nuclear recoil corrections to the energy levels of hydrogen-like and high lithium like atoms in all orders in
- Relativistic calculations of isotope shifts in highly charged ions
- Isotope shift in the dielectronic recombination of three-electron ^{A}Nd^{57+}
- QED theory of the nuclear recoil effect in atoms
- Two-loop self-energy correction in high-Z hydrogen-like ions
- Magnetic-dipole transition probabilities in B-like and Be-like ions
- Non-perturbative calculation of the two-loop Lamb shift in Li-like ions
- Recoil correction to the ground state energy of hydrogenlike atoms
- QED treatment of electron correlation in Li-like ions
- Nuclear recoil corrections to the state energy of hydrogen-like and high lithium like atoms in all orders in
- QED Effects in Heavy Few-Electron Ions
- QED calculation of the 2p1/2-2s and 2p3/2-2s transition energies and the ground-state hyperfine splitting in lithiumlike scandium
- Renormalization of the two-photon vacuum polarization and the self energy vacuum polarization for a tightly bound electron
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