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This research investigates how multi-level quantum emitters alter collective light-matter states, revealing new interference effects and separation bounds distinct from standard two-level models. The study proposes specific molecular candidates for optical lattices where these regimes could be experimentally realized to advance fundamental understanding of superradiance.
Collective states of multi-level emitters: The role of multi-level interferences
arXiv:2607.25547v1 Announce Type: new Abstract: We explore how collective states of light and matter differ when the multi-level nature of the quantum emitters is fully taken into account. For closely spaced emitters, interferences between near-resonant transitions completely change the character of the collective states compared to two-level approximations. In particular, we find a lower bound on the emitter separation for superradiance to occur which does not exist for two-level emitters. By contrast, for larger separations between the emitters, the collective states resemble those obtained within the widely used two-level approximation of the emitters. Both regimes may be realized by molecules trapped in optical lattices. We therefore propose molecular candidates and describe experimental signatures of emerging multi-level interference.
Abstract:We explore how collective states of light and matter differ when the multi-level nature of the quantum emitters is fully taken into account. For closely spaced emitters, interferences between near-resonant transitions completely change the character of the collective states compared to two-level approximations. In particular, we find a lower bound on the emitter separation for superradiance to occur which does not exist for two-level emitters. By contrast, for larger separations between the emitters, the collective states resemble those obtained within the widely used two-level approximation of the emitters. Both regimes may be realized by molecules trapped in optical lattices. We therefore propose molecular candidates and describe experimental signatures of emerging multi-level interference.
arXiv:2607.25547 [quant-ph]
(or arXiv:2607.25547v1 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2607.25547 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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