激光器
材料科学
计量学
花招
光电子学
半导体激光器理论
半导体光学增益
相位噪声
实现(概率)
色散(光学)
非线性光学
光抽运
干涉测量
可调谐激光器
噪音(视频)
光学
半导体
激光线宽
光放大器
量子点激光器
光子学
光纤激光器
光学腔
光学物理学
谐振器
激光泵浦
半导体器件制造
光学参量振荡器
分布反馈激光器
光参量放大器
光力学
光学微腔
光纤
法布里-珀罗干涉仪
量子噪声
光通信
作者
Warren Jin,Qi-Fan Yang,Lin Chang,Boqiang Shen,Heming Wang,Mark A. Leal,Lue Wu,Maodong Gao,Avi Feshali,Mario Paniccia,Kerry J. Vahala,John E. Bowers
出处
期刊:Nature Photonics
[Nature Portfolio]
日期:2021-02-11
卷期号:15 (5): 346-353
被引量:528
标识
DOI:10.1038/s41566-021-00761-7
摘要
Driven by narrow-linewidth bench-top lasers, coherent optical systems spanning optical communications, metrology and sensing provide unrivalled performance. To transfer these capabilities from the laboratory to the real world, a key missing ingredient is a mass-produced integrated laser with superior coherence. Here, we bridge conventional semiconductor lasers and coherent optical systems using CMOS-foundry-fabricated microresonators with record high $Q$ factor over 260 million and finesse over 42,000. Five orders-of-magnitude noise reduction in the pump laser is demonstrated, and for the first time, fundamental noise below 1 Hz$^2$ Hz$^{-1}$ is achieved in an electrically-pumped integrated laser. Moreover, the same configuration is shown to relieve dispersion requirements for microcomb generation that have handicapped certain nonlinear platforms. The simultaneous realization of record-high $Q$ factor, highly coherent lasers and frequency combs using foundry-based technologies paves the way for volume manufacturing of a wide range of coherent optical systems.
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