We present a nonperturbative numerical evaluation of the one-photon electron self energy for hydrogenlike ions with low nuclear charge numbers Z=1 to 5. Our calculation for the 1S state has a numerical uncertainty of 0.8 Hz for hydrogen and 13 Hz for singly-ionized helium. Resummation and convergence acceleration techniques that reduce the computer time by about three orders of magnitude were employed in the calculation. The numerical results are compared to results based on known terms in the expansion of the self energy in powers of (Z alpha)
A high-precision numerical calculation is reported for the self-energy correction to the hyperfine s...
The fine-structure interval of P states in hydrogenlike systems can be determined theoretically with...
A first testing ground for QED in the combined presence of a strong Coulomb field and a strong magne...
We present a nonperturbative numerical evaluation of the one-photon electron self-energy for hydroge...
A nonperturbative numerical evaluation of the one-photon electron self-energy for the K- and L-shell...
We describe a nonperturbative (in Z α ) numerical evaluation of the one-photon electron self-energy ...
A nonperturbative numerical evaluation of the one-photon electron self-energy for the 3S and 4S stat...
Quantum electrodynamics has been the first theory to emerge from the ideas of regularization and ren...
We describe a nonperturbative (in Zalpha) numerical evaluation of the one-photon electron self-energ...
Quantum electrodynamics has been the first theory to emerge from the ideas of regularization and ren...
A reliable and precise theoretical understanding of quantum electrodynamic effects in atoms is of cr...
We present results on the self-energy correction to the energy levels of hydrogen and hydrogenlike i...
The method and status of a study to provide numerical, high-precision values of the self-energy leve...
The method and status of a study to provide numerical, high-precision values of the self-energy leve...
The radiative self-energy correction to the bound-electron g factor of 2P1/2 and 2P3/2 states in one...
A high-precision numerical calculation is reported for the self-energy correction to the hyperfine s...
The fine-structure interval of P states in hydrogenlike systems can be determined theoretically with...
A first testing ground for QED in the combined presence of a strong Coulomb field and a strong magne...
We present a nonperturbative numerical evaluation of the one-photon electron self-energy for hydroge...
A nonperturbative numerical evaluation of the one-photon electron self-energy for the K- and L-shell...
We describe a nonperturbative (in Z α ) numerical evaluation of the one-photon electron self-energy ...
A nonperturbative numerical evaluation of the one-photon electron self-energy for the 3S and 4S stat...
Quantum electrodynamics has been the first theory to emerge from the ideas of regularization and ren...
We describe a nonperturbative (in Zalpha) numerical evaluation of the one-photon electron self-energ...
Quantum electrodynamics has been the first theory to emerge from the ideas of regularization and ren...
A reliable and precise theoretical understanding of quantum electrodynamic effects in atoms is of cr...
We present results on the self-energy correction to the energy levels of hydrogen and hydrogenlike i...
The method and status of a study to provide numerical, high-precision values of the self-energy leve...
The method and status of a study to provide numerical, high-precision values of the self-energy leve...
The radiative self-energy correction to the bound-electron g factor of 2P1/2 and 2P3/2 states in one...
A high-precision numerical calculation is reported for the self-energy correction to the hyperfine s...
The fine-structure interval of P states in hydrogenlike systems can be determined theoretically with...
A first testing ground for QED in the combined presence of a strong Coulomb field and a strong magne...