基于混合等离子体微光纤谐振腔的高重复频率脉冲掺镱光纤激光器

Zi-xuan Ding, Yingzhong Ma, Kang Zhou, Fei Xu
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引用次数: 0

摘要

基于耗散四波混频(DFWM)的模式锁定是产生重复频率为千兆赫的脉冲的基础,其中梳状滤波器和长非线性分量是基本要素。在这里,我们展示了一种基于混合等离子体微光纤结谐振器装置的千兆赫稳定脉冲掺镱光纤激光器。在1 μm波段和2.27 ps脉宽下实现了54.8 GHz的重复频率输出。与以前的脉冲产生机制不同,该操作利用器件的偏振相关特性引入的非线性偏振旋转(NPR)效应来增加腔内功率,以促进DFWM模式锁定。该器件易于制造,可同时作为偏振器、梳状滤波器和非线性元件,从而为超快和非线性光子学中的微光纤谐振器器件引入了新的应用。
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High-Repetition-Rate Pulsed Yb-Doped Fiber Laser Based on Hybrid Plasmonic Microfiber Resonator
Mode-locking based on dissipative four-wave-mixing (DFWM) has been fundamental in producing pulses with repetition rates on the order of gigahertz, where comb filters and long nonlinear components are elemental. Here we demonstrate a gigahertz stable pulsed Yb-doped fiber laser based on the hybrid plasmonic microfiber knot resonator device. Output with repetition rate of 54.8 GHz at 1 μm waveband and 2.27 ps pulse-width is achieved. Unlike previous pulse generation mechanisms, the operation utilizes the nonlinear-polarization-rotation (NPR) effect introduced by the polarization-dependent feature of the device to increase intracavity power for boosting DFWM mode-locking. The easily fabricated versatile device acts as a polarizer, comb filter, and nonlinear component simultaneously, thereby introducing a novel application of microfiber resonator devices in ultrafast and nonlinear photonics.
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