Probing New Forces with Nuclear Clocks

Fuente: arXiv
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Autori principali: Delaunay, Cédric, Lee, Seung J., Ozeri, Roee, Perez, Gilad, Ratzinger, Wolfram, Yu, Bingrong
Natura: Preprint
Pubblicazione: 2025
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author Delaunay, Cédric
Lee, Seung J.
Ozeri, Roee
Perez, Gilad
Ratzinger, Wolfram
Yu, Bingrong
author_facet Delaunay, Cédric
Lee, Seung J.
Ozeri, Roee
Perez, Gilad
Ratzinger, Wolfram
Yu, Bingrong
contents Clocks based on nuclear isomer transitions promise exceptional stability and precision. The low transition energy of the thorium-229 isomer makes it an ideal candidate, as it has been excited by a vacuum-ultraviolet laser and is highly sensitive to subtle interactions. This enables the development of powerful tools for probing new forces, which we call {\it quintessometers}. In this work, we demonstrate the potential of nuclear clocks, particularly solid-state variants, to surpass existing limits on scalar field couplings, exceeding the sensitivity of current fifth-force searches at submicron distances and significantly improving equivalence-principle tests at kilometer scales and beyond. Additionally, we highlight the capability of transportable nuclear clocks to detect scalar interactions at distances beyond $10\,$km, complementing space-based missions.
format Preprint
id arxiv_https___arxiv_org_abs_2503_02932
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Probing New Forces with Nuclear Clocks
Delaunay, Cédric
Lee, Seung J.
Ozeri, Roee
Perez, Gilad
Ratzinger, Wolfram
Yu, Bingrong
High Energy Physics - Phenomenology
Nuclear Experiment
Atomic Physics
Quantum Physics
Clocks based on nuclear isomer transitions promise exceptional stability and precision. The low transition energy of the thorium-229 isomer makes it an ideal candidate, as it has been excited by a vacuum-ultraviolet laser and is highly sensitive to subtle interactions. This enables the development of powerful tools for probing new forces, which we call {\it quintessometers}. In this work, we demonstrate the potential of nuclear clocks, particularly solid-state variants, to surpass existing limits on scalar field couplings, exceeding the sensitivity of current fifth-force searches at submicron distances and significantly improving equivalence-principle tests at kilometer scales and beyond. Additionally, we highlight the capability of transportable nuclear clocks to detect scalar interactions at distances beyond $10\,$km, complementing space-based missions.
title Probing New Forces with Nuclear Clocks
topic High Energy Physics - Phenomenology
Nuclear Experiment
Atomic Physics
Quantum Physics
url https://arxiv.org/abs/2503.02932