微谐振腔中反向传播光的相位对称性破缺用于开关和逻辑门
Phase Symmetry Breaking of Counterpropagating Light in Microresonators for Switches and Logic Gates
AI总结：
该研究在高Q值环形谐振腔中发现了反向传播光波的相位对称性破缺现象，并利用该相位突变实现了光开关和逻辑门，同时提供了配套的理论模型。
摘要：
快速发展的集成光子学领域正在为光数据处理、神经形态计算和量子光子学电路提供大量新型器件。尽管许多光子器件基于线性光学，但低阈值功率下的非线性响应对光开关和计算极具吸引力。对于反向传播光，非线性相互作用可用于片上隔离器和逻辑门。在我们的工作中，我们在高Q值环形谐振腔中发现了反向传播光波相位的对称性破缺。相位的这种突变可用于光开关和逻辑门。除了实验结果外，我们还提供了描述环形谐振腔中反向传播光相位对称性破缺的理论模型。
英文摘要：
The rapidly growing field of integrated photonics is enabling a large number of novel devices for optical data processing, neuromorphic computing and circuits for quantum photonics. While many photonic devices are based on linear optics, nonlinear responses at low threshold power are of high interest for optical switching and computing. In the case of counterpropagating light, nonlinear interactions can be utilized for chip-based isolators and logic gates. In our work we find a symmetry breaking of the phases of counterpropagating light waves in high-Q ring resonators. This abrupt change in the phases can be used for optical switches and logic gates. In addition to our experimental results, we provide theoretical models that describe the phase symmetry breaking of counterpropagating light in ring resonators.
机构、总结、中文摘要均由AI分析而来，可能存在错误，请以论文正文为准。
