基于等离子体的光纤锥形钻机

IF 2 Q3 ENGINEERING, ELECTRICAL & ELECTRONIC HardwareX Pub Date : 2024-09-01 DOI:10.1016/j.ohx.2024.e00578
L.F. Granados-Zambrano , J.P. Korterik , J.M. Estudillo-Ayala , R. Rojas Laguna , D. Jauregui-Vazquez , H.L. Offerhaus , J.A. Alvarez-Chavez
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引用次数: 0

摘要

光纤锥体作为可靠的光纤结构已被广泛提出和证明,可用于传感、激光和超连续发生等应用。本文提出了一种利用等离子体作为热源制造光纤锥体的创新方法。根据我们查阅的文献,就我们所知,这是首次使用等离子体作为热源来制造光纤锥体。该系统并不复杂,复制起来也很简单。此外,该设备所涉及的要素对致力于光纤研究的团体也很有吸引力。该装置可持续生成坚固的双锥光纤锥体。典型的腰围为 ∼8 μm,锥度长度为 3 至 15 mm。我们的研究结果表明,从 1465 纳米到 1599 纳米,锥形光纤的干涉条纹可达 12 dB。此外,统计评估表明,我们的锥形工艺具有良好的可重复性。
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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Plasma-based optical fiber tapering rig

Optical fiber tapers have been widely proposed and demonstrated as reliable optical fiber structures for sensing, lasers, and supercontinuum generation applications. This paper proposes an innovative approach to fabricating optical fiber tapers using plasma as the heat source. From our literature review, and to the best of our knowledge, this is the first time that plasma has been used as the heat source for producing optical fiber tapers. The system is not intricate and simple to replicate. Moreover, the elements involved make this machine attractive to research groups devoted to optical fibers. The setup consistently generates robust biconical optical fiber tapers. A typical waist of ∼8 μm and taper lengths ranging from 3 to 15 mm are achieved. Our results showed tapers with interference fringes up to 12 dB, from 1465 nm to 1599 nm. Furthermore, the statistical evaluation presented demonstrates a good level of reproducibility in our tapering process.

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来源期刊
HardwareX
HardwareX Engineering-Industrial and Manufacturing Engineering
CiteScore
4.10
自引率
18.20%
发文量
124
审稿时长
24 weeks
期刊介绍: HardwareX is an open access journal established to promote free and open source designing, building and customizing of scientific infrastructure (hardware). HardwareX aims to recognize researchers for the time and effort in developing scientific infrastructure while providing end-users with sufficient information to replicate and validate the advances presented. HardwareX is open to input from all scientific, technological and medical disciplines. Scientific infrastructure will be interpreted in the broadest sense. Including hardware modifications to existing infrastructure, sensors and tools that perform measurements and other functions outside of the traditional lab setting (such as wearables, air/water quality sensors, and low cost alternatives to existing tools), and the creation of wholly new tools for either standard or novel laboratory tasks. Authors are encouraged to submit hardware developments that address all aspects of science, not only the final measurement, for example, enhancements in sample preparation and handling, user safety, and quality control. The use of distributed digital manufacturing strategies (e.g. 3-D printing) is encouraged. All designs must be submitted under an open hardware license.
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