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This paper proposes a novel protocol using single electron states adhered to levitated nanoparticles to create mesoscopic mechanical superpositions, effectively bypassing traditional decoherence challenges in optically trapped systems. By enabling the observation of interference fringes through near-Heisenberg limited interferometry without complex release-and-recapture mechanisms, this work offers a streamlined pathway for testing quantum mechanics at unprecedented scales.
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Mesoscopic mechanical superpositions by gluing individual quantum systems

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arXiv:2607.20195v1 Announce Type: new Abstract: We propose a protocol for preparing mechanical Schr\"odinger kittens -- mesoscopic quantum superpositions of coherent motional states of an optically levitated nanoparticle -- by adhering single electron time-bin states to its surface. Over short protocol timescales, coherence of the mesoscopic superposition survives the dominant decoherence mechanisms afflicting levitated systems, and can be observed by varying the phase of the time-bin electrons. Interference fringes can be detected with real-time, near-Heisenberg limited interferometry of photons scattered from the particle. This approach eliminates the need for coherent state expansion, dark potentials, and particle release-and-recapture mechanisms, providing a new route to test quantum mechanics in unprecedented scales.

Abstract:We propose a protocol for preparing mechanical Schrödinger kittens -- mesoscopic quantum superpositions of coherent motional states of an optically levitated nanoparticle -- by adhering single electron time-bin states to its surface. Over short protocol timescales, coherence of the mesoscopic superposition survives the dominant decoherence mechanisms afflicting levitated systems, and can be observed by varying the phase of the time-bin electrons. Interference fringes can be detected with real-time, near-Heisenberg limited interferometry of photons scattered from the particle. This approach eliminates the need for coherent state expansion, dark potentials, and particle release-and-recapture mechanisms, providing a new route to test quantum mechanics in unprecedented scales.

arXiv:2607.20195 [quant-ph]

(or arXiv:2607.20195v1 [quant-ph] for this version)

https://doi.org/10.48550/arXiv.2607.20195 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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