aiqbench analysis
This study demonstrates a novel all-optical method to achieve nonreciprocal multiquanta emission using directional quantum squeezing in coupled resonator systems. By harnessing intrinsic dissipation, the research enables selective two-photon bundle emission from one direction while prohibiting it from the other, effectively creating backscattering-immune pathways. These findings advance the theoretical framework for chiral quantum emitters and could inform future designs for secure photonic communication networks.
Nonreciprocal photon bundle emission
arXiv:2606.10379v1 Announce Type: new Abstract: Quantum squeezing, a cornerstone of quantum optics and photonics, has played a key role in achieving ultra-precision sensing and realizing nonreciprocal engineering. However, the nonreciprocal multiquanta emission has remained largely unexplored by using directional quantum squeezing. Here, the one-way photon-photon bundle emission in a compound system consisted of two coupled optical resonators and a two-level atom is investigated. It is found that the directional quantum squeezing induces the asymmetric frequency detuning and photon hopping interaction between the two resonators, leading to the directional excitation of the two-photon super-Rabi oscillation. In particular, by harnessing intrinsic dissipation of the system, two types of two-photon bundle emission can be selectively induced for the probe field input from one direction while it is prohibited with the probe from the other direction. This finding bridges the broad fields ranging from nonreciprocal physics to quantum squeezing optics and multiquanta emission control through an all-optical approach, which can enable potential applications in chiral quantum emitters and backscattering-immune photonic communications.
Abstract:Quantum squeezing, a cornerstone of quantum optics and photonics, has played a key role in achieving ultra-precision sensing and realizing nonreciprocal engineering. However, the nonreciprocal multiquanta emission has remained largely unexplored by using directional quantum squeezing. Here, the one-way photon-photon bundle emission in a compound system consisted of two coupled optical resonators and a two-level atom is investigated. It is found that the directional quantum squeezing induces the asymmetric frequency detuning and photon hopping interaction between the two resonators, leading to the directional excitation of the two-photon super-Rabi oscillation. In particular, by harnessing intrinsic dissipation of the system, two types of two-photon bundle emission can be selectively induced for the probe field input from one direction while it is prohibited with the probe from the other direction. This finding bridges the broad fields ranging from nonreciprocal physics to quantum squeezing optics and multiquanta emission control through an all-optical approach, which can enable potential applications in chiral quantum emitters and backscattering-immune photonic communications.
arXiv:2606.10379 [quant-ph]
(or arXiv:2606.10379v1 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2606.10379 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
https://doi.org/10.1002/lpor.71360 Focus to learn more DOI(s) linking to related resources
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