A trapped ion in a spin-motion entangled state can detect kinetically mixed dark photon dark matter in the 10^{-15} to 10^{-14} eV mass range through Aharonov-Bohm phase shifts with parametrically enhanced sensitivity.
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Long-baseline atom interferometers can probe supersymmetric hidden sectors by mapping ultralight moduli and dilatons to derivatives of gauge kinetic functions, Kähler metrics, and other SUSY parameters.
The paper formulates dark matter detection in matter-wave interferometers as an open-system problem using Schwinger-Keldysh effective field theory, revealing channel asymmetries and Bose/Pauli factors for elastic scattering.
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Ultralight dark matter detection with trapped-ion interferometry
A trapped ion in a spin-motion entangled state can detect kinetically mixed dark photon dark matter in the 10^{-15} to 10^{-14} eV mass range through Aharonov-Bohm phase shifts with parametrically enhanced sensitivity.
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Testing Supersymmetric Hidden Sectors with Long-Baseline Atom Interferometers
Long-baseline atom interferometers can probe supersymmetric hidden sectors by mapping ultralight moduli and dilatons to derivatives of gauge kinetic functions, Kähler metrics, and other SUSY parameters.
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Matter-Wave Interferometers as Open-System Dark Matter Detectors
The paper formulates dark matter detection in matter-wave interferometers as an open-system problem using Schwinger-Keldysh effective field theory, revealing channel asymmetries and Bose/Pauli factors for elastic scattering.