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The Japan Society of Applied Physics

Unidirectional photon transfer between cavities based on adiabatic and half-adiabatic processes

Kazuki Inoue, Takashi Asano, Susumu Noda

Published Jan 26, 2021• 0 citations
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Ultra-high-quality factor photonic crystal nanocavities are attracting much attention because they can confine light into an ultra-small region and enable strong interaction between light and matter. One important step toward the realization of quantum information processing with cavity quantum electrodynamics approaches is a robust method that transfers photons among such cavities. We propose and theoretically investigate a scheme to transfer photons between strongly coupled, distant photonic crystal nanocavities by an adiabatic change in the cavity characteristics in the time domain. Adding one intermediate nanocavity for control allows efficient light transfer between objective nanocavities. Because our scheme utilizes adiabatic transfer, its operation is robust for both the control parameters and the control timing.
A robust quantum protocol has been developed that achieves highly efficient entanglement transfer from a three-atom Rydberg system, initially in a W-state ( | r r g 〉 + | r g r 〉 + | g r r 〉 ) / 3 , to an equivalent photonic W-state ( | 101 〉 + | 110 〉 + | 011 〉 ) / 3 . The entanglement transfer is achieved by dynamically adjusting the cavity mode frequencies and modulating the coupling rates, simplifying the complex transfer process into a sequence of processes involving two-level avoided crossings. We demonstrate that entanglement transfer can be achieved using either a fully adiabatic protocol or a quasi-adiabatic one with controlled nonadiabatic transitions at avoided crossings, generated by continuously chirping the cavity modes. Our adiabatic protocol uses the fractional stimulated Raman adiabatic passage method to facilitate the partial population transfer required for generation of the photonic W-state. In comparison, the quasi-adiabatic protocol uses nonadiabatic transitions to achieve the required partial population transfer. Furthermore, we propose two strategies for experimental implementation of our protocols.
This study employs a non-Hermitian process that effectively balances coherent and dissipative channels, ensuring the unidirectional transfer of photonic qubits. The significance of this approach lies in its applicability to unidirectional routing in both the classical and quantum domains, which is currently challenging to achieve in the synthesis of qubit unidirectional routers and spin-wave diodes. Additionally, this system's fully optical tunable properties can reverse the direction of qubit transfer. This scheme is expected to greatly impact the design of unidirectional devices in quantum communication and information processing.