Forces on alkali Rydberg atoms due to non-linearly polarized light

Fuente: arXiv
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Main Authors: Bhowmik, A., Blume, D.
Format: Preprint
Published: 2025
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author Bhowmik, A.
Blume, D.
author_facet Bhowmik, A.
Blume, D.
contents Trapped Rydberg atoms are highly promising candidates for quantum science experiments. While several approaches have been put forward to exert (trapping) forces on isolated Rydberg atoms, a widely applicable lossless technique is lacking. This paper proposes a robust versatile alternative technique that avoids lifetime compromising losses. Our proposal leverages the vector polarizability, which is induced by non-linearly polarized light and is shown to be several orders of magnitude larger than the usual scalar and tensor polarizabilities for commonly used alkali Rydberg series such as the $nS$, $nP$, and $nD$ series with principal quantum number $n$ as low as 30. The resulting force can be used to trap isolated Rydberg atoms over long times, which constitutes a key advance that is expected to impact quantum simulation applications, as well as to generate large light--Rydberg-atom hybrid states, which possess non-trivial position-dependent forces.
format Preprint
id arxiv_https___arxiv_org_abs_2505_01071
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Forces on alkali Rydberg atoms due to non-linearly polarized light
Bhowmik, A.
Blume, D.
Atomic Physics
Quantum Gases
Trapped Rydberg atoms are highly promising candidates for quantum science experiments. While several approaches have been put forward to exert (trapping) forces on isolated Rydberg atoms, a widely applicable lossless technique is lacking. This paper proposes a robust versatile alternative technique that avoids lifetime compromising losses. Our proposal leverages the vector polarizability, which is induced by non-linearly polarized light and is shown to be several orders of magnitude larger than the usual scalar and tensor polarizabilities for commonly used alkali Rydberg series such as the $nS$, $nP$, and $nD$ series with principal quantum number $n$ as low as 30. The resulting force can be used to trap isolated Rydberg atoms over long times, which constitutes a key advance that is expected to impact quantum simulation applications, as well as to generate large light--Rydberg-atom hybrid states, which possess non-trivial position-dependent forces.
title Forces on alkali Rydberg atoms due to non-linearly polarized light
topic Atomic Physics
Quantum Gases
url https://arxiv.org/abs/2505.01071