Q-switched pulse generation by stimulated Brillouin scattering assisted four-wave mixing effect in erbium–bismuth co-doped multi-elements silica glass based optical fiber laser

IF 1.2 4区 物理与天体物理 Q4 OPTICS
A Ghosh, H N A Ali, N Arsad, U K Samanta, S Das, A Dhar, A H A Rosol, M Yasin, S W Harun, M C Paul
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Abstract

Abstract We demonstrate Q-switched pulse generation at the 1562.5 nm region by using a 70 cm long erbium–bismuth co-doped alumina–germania–hafnium–yttria silica glass-based fiber as a gain medium in a simple ring resonator configured without saturable absorber and optical isolator devices. The Q-switching was obtained based on a stimulated Brillouin scattering assisted four-wave mixing effect in the gain medium, which induced the intensity modulation mechanism. The laser produced a multi-wavelength output comb centered at 1562.6 nm with a peak-to-peak spacing of about 0.09 nm due to nonlinear effects. Stable Q-switched operation of a hafnia–bismuth–erbium co-doped fiber laser was obtained at a pump power range of 129–319 mW with the repetition rate varying from 45.9 kHz to 89.3 kHz and the pulse width ranging from 8.8 µ s to 3.58 µ s. A maximum pulse energy of 26.9 nJ at an average output power of 2.4 dBm was achieved. This demonstrates a new passive technique based on a highly nonlinear gain medium for realizing Q-switched all-fiber laser sources.
铒铋共掺多元素硅玻璃基光纤激光器中受激布里渊散射辅助四波混频产生调q脉冲
摘要:在一个简单的环形谐振腔中,利用70 cm长的铒铋共掺铝锗铪钇硅玻璃基光纤作为增益介质,在1562.5 nm区域实现了调q脉冲的产生,该环形谐振腔不配置可饱和吸收器和光隔离器。在增益介质中利用受激布里渊散射辅助下的四波混频效应实现了q开关,并诱导了强度调制机制。由于非线性效应,激光器产生了以1562.6 nm为中心的多波长输出梳状结构,峰间距约为0.09 nm。在泵浦功率为129 ~ 319 mW,重复频率为45.9 ~ 89.3 kHz,脉冲宽度为8.8 ~ 3.58µs的条件下,实现了铪铋铒共掺光纤激光器的稳定调q工作,最大脉冲能量为26.9 nJ,平均输出功率为2.4 dBm。本文提出了一种基于高度非线性增益介质的无源技术,用于实现调q全光纤激光源。
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来源期刊
Laser Physics
Laser Physics 物理-光学
CiteScore
2.60
自引率
8.30%
发文量
127
审稿时长
2.2 months
期刊介绍: Laser Physics offers a comprehensive view of theoretical and experimental laser research and applications. Articles cover every aspect of modern laser physics and quantum electronics, emphasizing physical effects in various media (solid, gaseous, liquid) leading to the generation of laser radiation; peculiarities of propagation of laser radiation; problems involving impact of laser radiation on various substances and the emerging physical effects, including coherent ones; the applied use of lasers and laser spectroscopy; the processing and storage of information; and more. The full list of subject areas covered is as follows: -physics of lasers- fibre optics and fibre lasers- quantum optics and quantum information science- ultrafast optics and strong-field physics- nonlinear optics- physics of cold trapped atoms- laser methods in chemistry, biology, medicine and ecology- laser spectroscopy- novel laser materials and lasers- optics of nanomaterials- interaction of laser radiation with matter- laser interaction with solids- photonics
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