毫焦耳级超大芯掺镱脉冲光纤放大器工作在980纳米

IF 2.5 3区 工程技术 Q2 ENGINEERING, ELECTRICAL & ELECTRONIC
Pablo G. Rojas Hernandez;Shankar Pidishety;Mohammad Belal;Johan Nilsson
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引用次数: 0

摘要

我们报告了在980 nm处创纪录的5.5 mj放大脉冲能量,在共向放大器配置中使用1米长的超大模面积($290~\mu $ m芯)镱光纤实现了0.55 kW的峰值功率。在915 nm处泵浦,由调制的980 nm激光二极管播种。我们提供详细的光纤光谱分析,优化关键参数,如种子和泵重复率,以减轻热负荷和其他有害影响(如再吸收),实现高能量输出。该放大器的性能突出了其在高亮度紫外和可见光产生方面的应用,以及作为掺铒光纤系统的高效泵浦,提高了其在荧光成像、海洋工程和生物光子学方面的性能。据我们所知,5.5 mJ的输出能量是迄今为止报道的980纳米掺镱光纤放大器中最高的输出能量,同时与其他类似波长的光纤系统相比,它提供了更简单的制造、配置和增强的兼容性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Millijoule-Level Ultra-Large Core Ytterbium-Doped Pulsed Fiber Amplifier Operating at 980 nm
We report a record-high 5.5-mJ amplified pulse energy at 980 nm, achieving 0.55 kW peak power using a 1-meter long ultra-large-mode-area ( $290~\mu $ m core) ytterbium fiber in a co-directional, amplifier configuration. Pumped at 915 nm and seeded by a modulated 980-nm laser diode. We provide a detailed fiber spectroscopy analysis, optimizing key parameters—such as seed and pump repetition rates to mitigate thermal load and other detrimental effects (e.g., re-absorption), enabling high-energy output. The amplifier’s performance highlights its applications for high-brightness ultraviolet and visible light generation, and as an efficient pump for erbium-doped fiber systems, advancing their performances in fluorescence imaging, marine engineering and biophotonics. To the best of our knowledge, the achieved output energy of 5.5 mJ is the highest reported to date in an ytterbium-doped-fiber amplifier at 980-nm, while offering simpler fabrication, configuration and enhanced compatibility compared to other fiber systems at similar wavelengths.
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来源期刊
IEEE Photonics Technology Letters
IEEE Photonics Technology Letters 工程技术-工程:电子与电气
CiteScore
5.00
自引率
3.80%
发文量
404
审稿时长
2.0 months
期刊介绍: IEEE Photonics Technology Letters addresses all aspects of the IEEE Photonics Society Constitutional Field of Interest with emphasis on photonic/lightwave components and applications, laser physics and systems and laser/electro-optics technology. Examples of subject areas for the above areas of concentration are integrated optic and optoelectronic devices, high-power laser arrays (e.g. diode, CO2), free electron lasers, solid, state lasers, laser materials'' interactions and femtosecond laser techniques. The letters journal publishes engineering, applied physics and physics oriented papers. Emphasis is on rapid publication of timely manuscripts. A goal is to provide a focal point of quality engineering-oriented papers in the electro-optics field not found in other rapid-publication journals.
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