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首页> 外文期刊>Journal of Applied Physics >Mechanism of Inert Gas Cleanup in a Gaseous Discharge
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Mechanism of Inert Gas Cleanup in a Gaseous Discharge

机译:气体排放中惰性气体净化的机理

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An investigation has been made of the cleanup of inert gases by a gas discharge. The cleanup of rare gases in a tube in which metal is being sputtered is governed largely by two factors. First, the rate at which the metal is sputtered, and second, the potential of the surface on which the metal lands. At small negative or positive potentials on the surface collecting sputtered metal there is a slow cleanup rate caused by uncharged species being buried by sputtered metal. At more negative potentials burial of ions becomes important, and cleanup is much more rapid. Recovery has been effected by heating to the evaporation temperatures of the metal. As the metal evaporates the buried gas is liberated. Hundreds of equivalent monolayers of argon have been cleaned up with only a total recovery of about one equivalent monolayer by heating at 1500°C. This shows that even with a forced ``solubility'' of the order of one per cent we find no evidence for significant diffusion of argon in metals. An electrode collecting ions at a uniform current density over the surface will have a net cleanup rate of zero on that surface after the initial cleanup of a small amount of gas. After the initial disappearance of some gas, resputtering will occur liberating the cleaned up gas as fast as it is being cleaned up.
机译:已经进行了通过排气来净化惰性气体的研究。溅射金属的管中稀有气体的净化主要由两个因素决定。首先是金属溅射的速率,其次是金属着陆表面的电势。在收集溅射金属的表面上的负电势或正电势较小时,由于不带电物质被溅射金属掩埋而导致清洁速度变慢。在负电势更大时,离子的埋葬变得很重要,并且清理要快得多。通过加热到金属的蒸发温度已经实现了回收。当金属蒸发时,释放出埋藏的气体。通过在1500℃加热,已净化了数百当量的氩单层,总回收率仅为约一个当量单层。这表明即使强制性的``溶解度​​''约为1%,我们也没有发现氩在金属中显着扩散的证据。在最初清除少量气体之后,在表面上以均匀电流密度收集离子的电极在该表面上的净清除率为零。在一些气体最初消失之后,将发生重新溅射,从而使净化后的气体与被净化的气体一样快地释放出来。

著录项

  • 来源
    《Journal of Applied Physics》 |1960年第6期|共7页
  • 作者单位

    General Electric Research Laboratory, Schenectady, New York;

  • 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
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