A chip-based Brillouin laser gyroscope

Y. Lai, M. Suh, Jiang Li, Yu-Kun Lu, B. Shen, Qifan Yang, Heming Wang, K. Yang, K. Vahala
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Abstract

Inspired by the success of semiconductor-chip-based MEMs rotation sensors, there has long been interest in the possible realization of chip-based optical gyroscopes. Such devices could potentially be lightweight and rugged, while featuring some of the sensitivity advantages of Sagnac-based sensing devices. However, the performance of integrated-optical gyroscopes has lagged behind MEMS devices on account of difficult-to-achieve requirements for low-optical-loss chip-based waveguides and optical resonators. Here, a chip-based ring laser gyroscope is described. Its sensitivity is high enough to measure the Earth's rotation. The physical principles of its operation and its current performance will be reviewed.
基于芯片的布里渊激光陀螺仪
受到基于半导体芯片的MEMs旋转传感器成功的启发,长期以来人们一直对基于芯片的光学陀螺仪的可能实现感兴趣。这种设备可能重量轻,坚固耐用,同时具有sagnaca传感设备的一些灵敏度优势。然而,由于难以实现基于低光损耗芯片的波导和光谐振器的要求,集成光学陀螺仪的性能落后于MEMS器件。本文介绍了一种基于芯片的环形激光陀螺仪。它的灵敏度高到足以测量地球的自转。将审查其运行的物理原理和目前的性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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