Abstract
AbstractThe impact of motion on the CP force is studied. In a leading-order relativistic approximation, three effects are seen to contribute to the velocity-dependent CP force: a vacuum Doppler shift; the delay between emission and reabsorption of photons by the moving atom; and the Röntgen interaction of the atomic current density with the magnetic field. The results are applied to determine the quantum friction experienced by an atom moving parallel to a plate. In the nonretarded limit, the force is entirely due to the delay effect.KeywordsExcited AtomMarkov ApproximationReduce Matrix ElementAtomic Transition FrequencyOnsager ReciprocityThese keywords were added by machine and not by the authors. This process is experimental and the keywords may be updated as the learning algorithm improves.
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