Relativistic corrections to transition frequencies of Ag I, Dy I, Ho I, Yb II, Yb III, Au I and Hg II and search for variation of the fine structure constant

Abstract

Dependence of transition frequencies on the fine structure constant $\alpha =e^2/\hslash c$ is calculated for several many-electron systems which are used or planned to be used in the laboratory search for the time variation of the fine structure constant. In systems with a large number of electrons in open shells (from 11 to 15) the relative effects of the variation may be strongly enhanced. For the transitions which were considered before the results are in good agreement with previous calculations.

6 pages, 5 tables

References in corpus (4)

• Limit on the Temporal Variation of the Fine-Structure Constant Using Atomic Dysprosium
• Variation of fundamental constants: theory and observations
• Core-valence correlations for atoms with open shells
• Relativistic corrections to transition frequencies of Fe I and search for variation of the fine structure constant

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