Core polarizability of rubidium using spectroscopy of the ng to nh, ni Rydberg transitions
arXiv:2004.08226 · doi:10.1103/PhysRevA.102.062818
Abstract
We present a precise measurement of the rubidium ionic core polarizability. The results can be useful for interpreting experiments such as parity violation or black-body radiation shifts in atomic clocks since the ionic core electrons contribute significantly to the total electrical polarizability of rubidium. We report a dipole polarizability = and quadrupole polarizability = derived from microwave and radio-frequency spectroscopy measurements of Rydberg states with large angular momentum. By using a relatively low principal quantum number () and high angular momentum (), systematic effects are reduced compared to previous experiments. We develop an empirical approach to account for non-adiabatic corrections to the polarizability model. The corrections have less than a 1\% effect on but almost double from its adiabatic value, bringing it into much better agreement with theoretical values.
10 pages, 7 figures, 6 tables, to be submitted to physical review a
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