Temporally controlled wideband optical frequency comb generation based on recirculating frequency shifting

Cheng Lei, Ying Yu, Minghua Chen, Hong-wei Chen, Sigang Yang, S. Xie
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引用次数: 2

Abstract

In this paper, the temporal limitation factors of further broadening the bandwidth of the optical frequency comb (OFC) based on recirculating frequency shifting (RFS) is for the first investigated. It is found that the signal evolution in the RFS loop is not just simply the same as the straight-line transmission, but the resonance effect of the loop will dramatically affect the property of the generated OFC. Keeping the frequencies of tones away from the resonance frequencies of the loop as much as possible would avoid the phases of the tones synchronously locked, which could greatly decrease the temporal peak power of the generated OFC. This will relieve the influences caused by the instantaneous effect of erbium doped fiber amplifier (EDFA) and fiber nonlinearity, which, in return, would contribute to expand the spectral range of the OFC without much quality degradation. Finally, as an experimental verification, by adjusting the length of the RFS loop to minimize the resonance, a record 100-tone OFC with 10GHz frequency spacing by just single RFS loop is also successfully realized.
基于循环频移的时域可控宽带光频梳生成
本文首次研究了基于循环频移(RFS)的光频梳(OFC)带宽进一步扩大的时间限制因素。研究发现,信号在RFS回路中的演化并不仅仅是简单地与直线传输相同,回路的共振效应会极大地影响产生的OFC的特性。使音调的频率尽可能远离环路的共振频率,可以避免音调的相位同步锁定,这可以大大降低产生的OFC的时间峰值功率。这将减轻掺铒光纤放大器(EDFA)的瞬时效应和光纤非线性带来的影响,从而有助于扩大OFC的光谱范围,而不会造成很大的质量下降。最后,作为实验验证,通过调整RFS环的长度来减小谐振,也成功地实现了单RFS环在10GHz频率间隔下的100音OFC。
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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