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Dark Matter Direct Detection on the Moon

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arxiv 2305.04943 v1 pith:RQKPSJP5 submitted 2023-05-08 hep-ph hep-ex

classification hep-phhep-ex
keywords darkmattermoonneutrinoneutrinosatmospherebackgroundsbecome
verification ladder T0 review T1 audit T2 compute T3 formal
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Direct searches for dark matter with large-scale noble liquid detectors have become sensitive enough to detect the coherent scattering of local neutrinos. This will become a very challenging background to dark matter discovery in planned future detectors. For dark matter with mass above 10 GeV, the dominant neutrino backgrounds on the Earth are atmospheric neutrinos created by cosmic ray collisions with the atmosphere. In contrast, the Moon has almost no atmosphere and nearly all cosmic rays incident on the Moon first collide with the lunar surface, producing a very different neutrino spectrum. In this work we estimate the total flux and spectrum of neutrinos near the surface of the Moon. We then use this to show that a large-scale liquid xenon or argon detector located on the Moon could potentially have significantly greater sensitivity to dark matter compared to an equivalent detector on the Earth due to effectively reduced neutrino backgrounds.

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  1. The lowest-radiation environments in the Solar System: new opportunities for underground rare-event searches

    hep-ex 2024-11 conditional novelty 6.0 of 10

    Atmospherless bodies in the Solar System suppress cosmic-ray-induced neutrino and muon fluxes by about three to four orders of magnitude, opening new sites for ultra-low-background rare-event searches.

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