辉光、电弧和磁控管直流放电的比较

A. Abrahamyan, A. Mkrtchyan, R. Chilingaryan
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引用次数: 0

摘要

比较了管内辉光放电、无外源阴极加热的电弧放电和平面磁控管中的磁控管放电。在每个放电中,特征区域被区分开来。在MD中,被困在近阴极区域的电子不直接参与电离过程,但沿着拉莫尔轨道移动的电子对慢离子的“尾流”加速是可能的,这给离子向阴极移动提供了额外的能量。在GD近阴极区,射出电子的平均能量在几个电子伏特数量级,离子和中性离子的能量小于0.1 eV。在MD近阴极区,被敲除的电子、离子和中性的平均能量在几十电子伏特的数量级上。GD的差分电阻通常为负,AD的差分电阻通常为负,MD的差分电阻通常为正。磁控管等离子体中离子的能量可以大于电子的能量,这为声等离子体控制MD和创建合适的仪器和设备提供了新的可能性。
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COMPARISON OF GLOW, ARC, AND MAGNETRON DIRECT CURRENT DISCHARGES
Glow discharge (GD) in a tube, arc discharge (AD) without cathode heating from an external source, and magnetron discharge (MD) in a planar magnetron are compared. In each of the discharges, characteristic areas are distinguished. In MD, electrons trapped in the near-cathode region are not directly involved in ionization processes, but “wake” acceleration of slow ions by electrons that move along Larmor orbits is possible, which gives additional energy to ions moving toward the cathode. In GD in the near-cathode region, the average energy of the ejected electrons is on the order of several electron volts, and the energy of the ions and neutrals is less than 0.1 eV. In MD in the near-cathode region, the average energy of knocked-out electrons, ions, and neutrals is on the order of tens of electron volts. The differential resistance of GD is negative, that of AD is usually negative, and that of MD is positive. The energy of ions in the magnetron plasma can be greater than that of electrons, which gives new possibilities for acoustoplasma control of MD and the creation of appropriate instruments and devices.
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审稿时长
7 weeks
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