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This research proposal outlines the MOLeQuTE experiment, which aims to detect ultralight dark matter by utilizing optically levitated macroscopic sensors operating at the standard quantum limit. By optimizing for specific vector B-L dark matter interactions, the project seeks to advance detection limits across a broad frequency range using current off-the-shelf technologies. The work represents a significant intersection of precision measurement techniques and fundamental physics inquiries relevant to next-generation sensing platforms.
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Searching for Ultralight Dark Matter with MOLeQuTE: a Massive Optically Levitated Quantum Tabletop Experiment

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arXiv:2512.00166v2 Announce Type: replace-cross Abstract: Many well theoretically motivated models of ultralight dark matter are expected to give rise to feeble oscillatory forces on macroscopic objects. Optically trapped sensors have high force sensitivities but have remained relatively unexplored in this context. In this work we propose a new, tunable, optically trapped sensor specifically designed to detect such forces. Our design features a high-mass ($\sim$ mg) plate whose high aspect ratio allows its weight to be supported by a vertical beam without excessive heating. We present the first systematic analysis and optimisation of quantum noises in optically trapped systems and show that our setup has the potential to operate at the standard quantum limit with current off-the-shelf technologies. We demonstrate that our sensor could offer unique access to large regions of uncharted parameter space of vector B-L dark matter, with projected sensitivities that could advance existing limits by several orders of magnitude over a broad range of frequencies.

Abstract:Many well theoretically motivated models of ultralight dark matter are expected to give rise to feeble oscillatory forces on macroscopic objects. Optically trapped sensors have high force sensitivities but have remained relatively unexplored in this context. In this work we propose a new, tunable, optically trapped sensor specifically designed to detect such forces. Our design features a high-mass ($\sim$ mg) plate whose high aspect ratio allows its weight to be supported by a vertical beam without excessive heating. We present the first systematic analysis and optimisation of quantum noises in optically trapped systems and show that our setup has the potential to operate at the standard quantum limit with current off-the-shelf technologies. We demonstrate that our sensor could offer unique access to large regions of uncharted parameter space of vector B-L dark matter, with projected sensitivities that could advance existing limits by several orders of magnitude over a broad range of frequencies.

arXiv:2512.00166 [hep-ph]

(or arXiv:2512.00166v2 [hep-ph] for this version)

https://doi.org/10.48550/arXiv.2512.00166 Focus to learn more arXiv-issued DOI via DataCite

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