介质真空中磁介质涂层的电子束沉积

Y. Yushkov, A. Tyunkov, E. Oks, D. Zolotukhin, A. Klimov
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引用次数: 0

摘要

结合介电和磁性能的材料在射频电子和航空航天工业等工业领域非常有吸引力,可用于制造无线电吸收涂层。各种设备(如无人驾驶飞行器)的小型化趋势要求沉积薄而轻的结合磁性和介电性能的薄膜。在这项工作中,我们提出了一种先进的方法来形成这种薄磁介质涂层-通过使用前真空等离子体阴极电子源。利用介质真空(几Pa)中电介质(氧化铝陶瓷)和磁性目标的电子束蒸发,我们创造了密集的多组分等离子体,它提供了气体颗粒和目标材料的通量,允许在金属基板上沉积磁介质涂层,具有非常高的沉积速率(约每分钟微米)和高度的涂层均匀性。本文给出了陶瓷靶和磁性靶的电子束蒸发的初步结果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Electron-Beam Deposition of Magneto-Dielectric Coatings in Medium Vacuum
Materials, combining dielectric and magnetic properties, are very attractive to use in such fields of industry as RF electronics and aerospace industry, for the manufacturing of radio-absorbing coatings. The emerging trend towards miniaturization of the various devices such as unmanned aerial vehicles requires deposition of thin and light-weight films that combine magnetic and dielectric properties. In this work we propose an advanced approach to formation of such thin magneto-dielectric coatings – by the use of a fore-vacuum plasma-cathode electron source. Using the electron-beam evaporation of dielectric (alumina ceramics) and magnetic targets in medium vacuum (several Pa), we create dense multicomponent plasma, which provides the flux of the particles of gas and the target materials, allowing to deposit magneto-dielectric coatings on a metallic substrate with a very high deposition rate (approximately microns per minute), and high degree of coating uniformity. We present here our preliminary results on the electron-beam evaporation of ceramic and magnetic targets.
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