离子束合成外延硅化物:制备、表征及应用

S. Mantl
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引用次数: 192

摘要

综述了高剂量离子注入和高温退火法制备埋藏外延硅化物的技术。这种被称为mesotaxy的技术是目前生产高质量(100)Si中埋外延CoSi2和(111)Si中埋α-和β-FeSi2的最佳方法。本文综述了中观生物学头四年的实验工作。本文首先简要介绍了外延硅化物、离子束合成和介层结构。接着讨论了高剂量离子注入的模拟。接下来描述了中轴层生长过程中的微观结构,包括其对注入和退火参数的依赖。在总结了微观结构的实验结果后,重点讨论了微观结构的生长过程,并对辐照和粗化过程中析出相的成核和生长、退火过程中的聚结和层形成等中轴过程有了基本的了解。综述和讨论了(100)和(111)Si中埋藏的CoSi2和NiSi2层的性质。总结了埋藏型NiSi2、(Ni1−xCox)Si2、α-和β-FeSi2、CrSi2和ErSi2层的形成情况。报道了离子束合成在器件应用中比其他技术具有显著的优势。
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Ion beam synthesis of epitaxial silicides: fabrication, characterization and applications

The technique of synthesizing buried epitaxial silicides by high-dose ion implantation and subsequent high-temperature annealing is reviewed. This technique, called mesotaxy, is at present the best way to produce high-quality buried epitaxial CoSi2 in (100) Si and buried α- and β-FeSi2 in (111) Si. In this report the experimental work of the first four years of mesotaxy is reviewed. The review begins with a brief introduction to epitaxial silicides, ion beam synthesis, and mesotaxy. This is followed by a discussion of the simulation of high-dose ion implantation. Next the microstructure during mesotaxial layer growth is described, including its dependence on implantation and annealing parameters. After the summary of the experimental results of the microstructure, particular emphasis is placed on discussing the growth process and developing a basic understanding of the mesotaxial process including nucleation and growth of precipitates during irradiation and coarsening, coalescence, and layer formation during annealing. Properties of buried CoSi2 and NiSi2 layers in (100) and (111) Si are reviewed and discussed. Results on the formation of buried NiSi2, (Ni1−xCox)Si2, α- and β-FeSi2, CrSi2 and ErSi2 layers are also summarized. The first device applications are reported in which ion beam synthesis provides significant advantages over other techniques.

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