基于谐振器的高转换效率克尔频率梳的研究进展

Xucheng Zhang, Chunxue Wang, Zhibo Cheng, Congyu Hu, Xingchen Ji, Yikai Su
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摘要

基于谐振器的克尔频率梳的最新发展有望在生物传感、光谱学、光通信、光探测与测距(LiDAR)、频率合成、天文探测和量子光学等广泛领域得到出色应用。克尔频率梳的一个关键性能指标(FOM)是泵浦到梳的转换效率,这对于需要足够梳功率和低功耗的应用来说至关重要。在这篇综述中,我们首先根据反常色散微谐振器的基本物理特性,讨论了耗散克尔孤子在反常色散微谐振器中的有限转换效率。然后,我们总结了在反常色散和正常色散状态下具有高转换效率的克尔频率梳的最新进展。我们根据各种孤子状态、激发方法以及新型材料平台对它们进行了分类。论文的最后一部分概述了当前的研究进展,并展望了未来研究的潜在方向。
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Advances in resonator-based Kerr frequency combs with high conversion efficiencies
Recent developments in resonator-based Kerr frequency combs promise excellent applications in a wide range of fields such as biosensing, spectroscopy, optical communications, light detection and ranging (LiDAR), frequency synthesis, astronomical detection, and quantum optics. A key figure of merit (FOM) for Kerr frequency combs is the pump-to-comb conversion efficiency, which is critical for applications requiring sufficient comb power and low power consumption. In this review, we first discuss the limited conversion efficiency of dissipative Kerr soliton in an anomalous dispersion microresonator based on its underlying physical characteristics. And then, we summarize the recent advances in Kerr frequency combs with high conversion efficiencies in both anomalous and normal dispersion regimes. We classify them according to various soliton states, excitation methods as well as novel material platforms. The final section of the paper presents an overview of current progress and glances at potential directions for future research.
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