导波电路中的非对称透射率和非互斥性:基础知识和集成电路拓扑

Luhong Su;Heijun Jeong;Hwaseob Lee;Lorry Chang;Tingyi Gu
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引用次数: 0

摘要

在互惠系统中,所有波的后向传播方式与前向传播方式相同。当光源和探测器之间的交换导致不同的透射率时,就会产生非互易性,但需要仔细评估非互易性。虽然大多数集成电路都是互惠的,但系统中可能会出现意想不到的非互惠响应,尤其是包含非对称耦合谐振器、行波电极和滞后响应的可调元件。非互易性可能会导致电气和光子网络模拟电路中出现意外的信号分布、失真和误差。通过适当的工程设计,非互易性可作为隔离器用于抑制光子系统中的激光噪声,作为环行器用于减少电路重复。射频非互易性可用于保护高功率放大器免受振荡和损坏。非对称耦合还有助于简化电路复杂性,减少光互连收发器电路中的串扰。
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Asymmetric Transmittance and Nonreciprocity in Guided Wave Circuits: Fundamentals and IC topology
In a reciprocal system, all the wave travels in the same way backward as forward. When the exchange between the source and detectors result in different transmittance, non-Hermiticity is granted but the nonreciprocity needs to be carefully evaluated. Although most of the integrated circuits are reciprocal, unexpected nonreciprocal response may emerge in the system, especially the tunable components containing asymmetrically coupled resonators, traveling wave electrodes and hysteresis response. The nonreciprocity may result in unexpected signal distribution, distortion and errors in analogue circuits of electrical and photonic networks. With proper engineering, the nonreciprocity can be leveraged and optimized for suppressing the laser noise in photonic systems as isolators, reducing the circuits duplication as circulators. The radio-frequency nonreciprocity can be used for protecting the high power amplifiers from oscillation and damage. Asymmetric coupling can also be useful in simplifying the circuit complexity and reducing crosstalk in the optical interconnect transceiver circuits.
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