Temperature Dependence of 3С-SiC Growth During Rapid Vacuum Thermal Silicon Treatment

M. V. Labanok, P. Gaiduk
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引用次数: 0

Abstract

The paper presents the results of a study of the structure, phase composition, and growth kinetics of silicon carbide epitaxial layers on silicon substrates during their rapid vacuum thermal treatment. Transmission electron microscopy revealed the formation of layers of the cubic polytype SiC (3C-SiC) on silicon during carbidization in the temperature range of 1000–1300 °C. It was found that the formation of SiC layers proceeds in two stages, characterized by different activation energies. In the lower temperature range from 1000 to 1150 °C, the activation energy of the SiC growth process is Ea = 0.67 eV, while in the temperature range from 1150 to 1300 °C, the activation energy increases by almost an order of magnitude (Ea = 6.3 eV), which indicates a change in the limiting physical process. It has been established that the type of conductivity and the orientation of the substrate affect the thickness of the formed SiC layers. In this case, the greatest thickness of silicon carbide layers is achieved on silicon substrates with (111) orientation of p-type conductivity.
快速真空热硅处理过程中3С-SiC生长的温度依赖性
本文介绍了硅衬底上碳化硅外延层在快速真空热处理过程中的结构、相组成和生长动力学的研究结果。透射电子显微镜显示,在1000–1300°C的温度范围内,在碳化过程中,硅上形成了立方多型SiC(3C-SiC)层。研究发现,SiC层的形成分为两个阶段,其特征是活化能不同。在1000至1150°C的较低温度范围内,SiC生长过程的活化能为Ea=0.67eV,而在1150至1300°C的温度范围内的活化能增加了几乎一个数量级(Ea=6.3eV),这表明极限物理过程发生了变化。已经确定,导电性的类型和衬底的取向影响所形成的SiC层的厚度。在这种情况下,在具有p型导电性的(111)取向的硅衬底上实现了碳化硅层的最大厚度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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