Relativistic recoil effects in a muonic atom within a Grotch-type approach: General approach
arXiv:1311.5789 · doi:10.1103/PhysRevA.89.022102
Abstract
Recently we calculated relativistic recoil corrections to the energy levels of the low lying states in muonic hydrogen induced by electron vacuum polarization effects. The results were obtained by Breit-type and Grotch-type calculations. The former were described in our previous papers in detail, and here we present the latter. The Grotch equation was originally developed for pure Coulomb systems and allowed to express the relativistic recoil correction in order in terms of the relativistic non-recoil contribution . Certain attempts to adjust the method to electronic vacuum polarization took place in the past, however, the consideration was incomplete and the results were incorrect. Here we present a Groth-type approach to the problem and in a series of papers consider relativistic recoil effects in order and . That is the first paper of the series and it presents a general approach, while two other papers present results of calculations of the and contributions in detail. In contrast to our previous calculation, we address now a variety of states in muonic atoms with a certain range of the nuclear charge .
Submitted to Phys.Rev.A; cross refs are added in v.2&3
References in corpus (5)
- High-precision determination of the electric and magnetic form factors of the proton
- Two-photon laser spectroscopy of antiprotonic helium and the antiproton-to-electron mass ratio
- The contributions to the Lamb shift and the fine structure in light muonic atoms
- Vacuum polarization in muonic atoms: the Lamb shift at low and medium Z
- Relativistic recoil effects for energy levels in a muonic atom within a Grotch-type approach: An application to the one-loop electronic vacuum polarization