QED self-energy contribution to highly-excited atomic states
arXiv:physics/0105018 · doi:10.1103/PhysRevA.64.052508
Abstract
We present numerical values for the self-energy shifts predicted by QED (Quantum Electrodynamics) for hydrogenlike ions (nuclear charge ) with an electron in an , 4 or 5 level with high angular momentum (). Applications include predictions of precision transition energies and studies of the outer-shell structure of atoms and ions.
20 pages, 5 figures
References in corpus (1)
Cited by in corpus (16)
- QED tests with highly-charged ions
- QED and relativistic corrections in superheavy elements
- Atomic many-body effects and Lamb shifts in alkali metals
- Photoionization of metastable heliumlike C4+(1s 2s 3S1) ions: Precision study of intermediate doubly excited states
- High-precision measurements of transition energies and level widths in He- and Be-like Argon Ions
- One-loop self-energy correction in a strong binding field
- Perturbation Approach to the Self Energy of non-S Hydrogenic States
- Calculations of QED effects with the Dirac Green function
- Benchmarking calculations with spectroscopic accuracy of level energies and wavelengths in W LVII - W LXII tungsten ions
- Detailed opacity calculations for astrophysical applications
- Relativistic transition wavelenghts and probabilities for spectral lines of Ne II
- Benchmarking calculations with spectroscopic accuracy of excitation energies and wavelengths in sulfur-like tungsten
- One-loop electron self-energy with accelerated partial-wave expansion in Coulomb gauge
- K-shell spectroscopy in hot plasmas: Stark effect, Breit interaction and QED corrections
- Breit and QED effects on the 3d9 2D3/2 - 2D5/2 transition energy in Co-like ions
- Toward high-precision values of the self energy of non-S states in hydrogen and hydrogen-like ions