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首页> 外文期刊>Journal of Applied Physics >Remotely floating wire-assisted generation of high-density atmospheric pressure plasma and SF_6-added plasma etching of quartz glass
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Remotely floating wire-assisted generation of high-density atmospheric pressure plasma and SF_6-added plasma etching of quartz glass

机译:高密度大气压等离子体的远程浮动线辅助产生和SF_6添加的石英玻璃等离子蚀刻

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摘要

High-density and large-volume atmospheric pressure plasma can be extended remotely by placing a long floating wire inside an Ar-gas flowing quartz tube connected with an inductively coupled coil. The discharge quartz tubes were categorized into three I-shaped tubes and one L-shaped tube. The influence of the geometrical design on plasma properties was investigated. Using the floating wire-assisted L tube, an electron density of 10(14) cm(-3) and a gas temperature less than 850 K were obtained at the downstream remote region. That is where the Ar plasma plume blew out from the slit at the bottom of the floating wire-assisted L tube at a distance of 140 mm from the coil center, when 100 W of a very high-frequency power (100 MHz) was applied to the inductively coupled coil. The applicability of this new L-type plasma source for large-area glass etching with a high etch rate was explored. At the remote region where the Ar plasma plume blew out of the slit of the L tube, SF6 gas was added for etching a quartz glass plate. Glass etching could be obtained over a large area of 15 mm x 20 mm with a maximum etch rate of 2 mu m/min and a volume etch rate of 0.3 mm(3)/min. Published under license by AIP Publishing.
机译:通过将长浮线放置在与电感耦合线圈连接的AR气体流动的石英管内,可以远程延伸高密度和大容量大气压等离子体。将放电石英管分为三个I形管和一个L形管。研究了几何设计对血浆性质的影响。使用浮动线辅助L管,在下游偏远地区获得10(14 )cm(-3)的电子密度和小于850k的气体温度。也就是说,当距离线圈中心的距离140mm的浮动线辅助L管的距离从浮动线辅助L管底部的狭缝吹出时,当施加100W W时到电感耦合线圈。探索了这种新的L型等离子源的适用性,具有高蚀刻速率的大面积玻璃蚀刻。在偏远地区,其中AR等离子体羽流出L管的狭缝,加入SF6气体以蚀刻石英玻璃板。可以在15mm×20mm的大面积为2μm/ min的大面积为15mm×20mm的大面积上获得玻璃蚀刻,并且体积蚀刻速率为0.3mm(3)/ min。通过AIP发布在许可证下发布。

著录项

  • 来源
    《Journal of Applied Physics》 |2019年第6期|063304.1-063304.11|共11页
  • 作者单位

    Nagoya Univ Nagoya Aichi 4648603 Japan;

    Toyota Technol Inst Nagoya Aichi 4688511 Japan;

    AGC Inc Yokohama Kanagawa 2300045 Japan;

    Nagoya Univ Nagoya Aichi 4648603 Japan;

    Nagoya Univ Nagoya Aichi 4648603 Japan;

    Nagoya Univ Nagoya Aichi 4648603 Japan;

  • 收录信息 美国《科学引文索引》(SCI);美国《工程索引》(EI);美国《生物学医学文摘》(MEDLINE);
  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类
  • 关键词

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