Ion beam assisted thin film deposition

James K. Hirvonen
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引用次数: 109

Abstract

Ion beam technologies have made tremendous gains in the commercial sector over the past two decades. The ion implantation of semiconductors rapidly became an accepted technology in the 1970s because of its ability to produce superior electronic devices or devices unobtainable by any other process. Ion beam modification of non-semiconductor materials for enhancing surface sensitive properties has been actively pursued in the international R&D community since the mid 1970s and continues to find selected industrial applications. This review briefly describes the status of ion implantation, ion beam mixing, and ion cluster beam deposition technologies and the directions in which they are currently being pursued. The hybrid use of ion beams in conjunction with physical vapor deposition, commonly termed ion beam assisted deposition (IBAD), combines many of the attributes of these ion beam treatments and conventional coating technologies. These include high density, superior adhesion, and the ability to produce arbitrarily thick coatings. Perhaps the most important feature of the IBAD technology is the frequently demonstrated ability to control many coatings properties such as morphology, adhesion, stress, as well as stoichiometry. This control is achieved by suitable variation of the relative arrival rates of energetic ions to that of the neutral species, as well as by control of substrate temperature. Many of these energetic ion effects on thin film formation are described and recent examples of research in the areas of: metastable compound formation, optical and electronic coatings, and tribological and corrosion-resistant coatings are presented. The review concludes with a description of pertinent equipment and an assessment of required future research and commercialization possibilities.

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离子束辅助薄膜沉积
在过去的二十年里,离子束技术在商业领域取得了巨大的进步。半导体离子注入在20世纪70年代迅速成为一种公认的技术,因为它能够生产出卓越的电子器件或其他任何工艺都无法获得的器件。自20世纪70年代中期以来,离子束修饰非半导体材料以提高表面敏感性能一直是国际研发界积极追求的目标,并继续找到选定的工业应用。本文简要介绍了离子注入、离子束混合和离子束沉积技术的研究现状和发展方向。将离子束与物理气相沉积相结合,通常称为离子束辅助沉积(IBAD),结合了这些离子束处理和传统涂层技术的许多特性。这些优点包括高密度、优异的附着力和产生任意厚度涂层的能力。也许IBAD技术最重要的特点是它经常被证明能够控制许多涂层性能,如形貌、附着力、应力以及化学计量学。这种控制是通过将高能离子的相对到达率适当地改变为中性离子的相对到达率以及通过控制底物温度来实现的。本文描述了许多高能离子对薄膜形成的影响,并介绍了最近在亚稳化合物形成、光学和电子涂层、摩擦学和耐腐蚀涂层等领域的研究实例。审查结束时描述了有关设备,并评估了未来所需的研究和商业化可能性。
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