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Dual-wavelength narrow-linewidth linearly polarized seed source and stimulated Brillouin scattering suppression in its high-power fiber amplification

机译:高功率光纤放大中的双波长窄线宽线性偏振种子源和受激布里渊散射抑制

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In this paper, we demonstrate a dual-wavelength narrow-linewidth linearly polarized all-fiber amplifier emitting 1035 and 1030 nm wavelengths with a high power of 80.0 W. The seed source features two sets of fiber Bragg gratings fabricated on polarization maintaining fibers and a ytterbium-doped fiber as the gain medium. Two wavelengths propagate in one overlapping cavity and the power ratio can be tuned by a coiling fiber setup. A master oscillator power amplifier system consisting of a two-stage amplifier is employed. Longitudinally varied strains are applied on the gain fiber to suppress the back-scattered Stokes light in the main amplifier stage. With an appropriate seed power ratio, we are able to generate amplification power to 80.0 W comprised of 1035 and 1030 nm light while achieving an increase of at least six times that of the stimulated Brillouin scattering threshold. Since both frequencies are propagating in one cavity and amplified in one gain medium, the 1035 and 1030 nm lasers have good temporal and spatial overlapping characteristics. This high-power MHz-level linearly polarized structure affords a compact, novel, and high-efficiency approach to different frequency generation of mid-infrared or terahertz emission. (C) 2015 Optical Society of America
机译:在本文中,我们演示了一个双波长窄线宽线性偏振全光纤放大器,该放大器发射1035和1030 nm波长,具有80.0 W的高功率。种子源的特征是在保偏光纤和光纤上制造了两组光纤布拉格光栅。掺fiber光纤作为增益介质。两个波长在一个重叠的腔中传播,并且可以通过盘绕光纤的设置来调整功率比。采用了由两级放大器组成的主振荡器功率放大器系统。纵向变化的应变施加在增益光纤上,以抑制主放大器级中的反向散射斯托克斯光。通过适当的种子功率比,我们能够产生由1035和1030 nm的光组成的80.0 W的放大功率,同时使受激布里渊散射阈值增加至少六倍。由于两个频率都在一个腔中传播并在一种增益介质中放大,因此1035和1030 nm激光器具有良好的时间和空间重叠特性。这种高功率MHz级线性极化结构为中红外或太赫兹发射的不同频率产生提供了一种紧凑,新颖且高效的方法。 (C)2015年美国眼镜学会

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