初步退火条件对Si(100)表面同外延阶跃运动的影响

Michael Yu. Yesin, A. Nikiforov, A. Deryabin, V. Timofeev
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摘要

本文研究了Si分子束外延(MBE)过程中SA和SB在Si(100)表面的运动。通过(2×1)和(1×2)重构对应的反射高能电子衍射(RHEED)的反射强度依赖行为分析进行了研究。从两畴表面到单畴表面的上层结构重排与双层台阶的形成有关,这是由于台阶SA和SB的运动速率不同而发生的。在此基础上,确定了台阶加倍发生的条件。衍射反射强度依赖性的行为分析表明,初始退火时间和温度的增加有利于SA和SB步的更快收敛,但有利于初始表面的更慢恢复。实验结果表明,阶跃移动速率差取决于阶跃A边扭结密度。
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Influence of the Preliminary Annealing Conditions on Step Motion at the Homoepitaxy on the Si(100) Surface
In this paper, the motion of steps SA and SB on the Si(100) surface in the process of Si Molecular beam epitaxy (MBE) is explored. The study was carried out by means of the reflection intensity dependence behavior analysis of reflection high-energy electron diffraction (RHEED) corresponding to the (2×1) and (1×2) reconstructions. Superstructural rearrangement from a two-domain to a single-domain surface is associated with the bilayer step formation, which occurs due to the different motion rates of the steps SA and SB. Based on the research conducted, the conditions under which the step doubling occurs were determined. A behavior analysis of the diffraction reflection intensity dependences showed that an increasing of preliminary annealing time and temperature facilitates to the faster convergence of the steps SA and SB, but to the slower recovery of the initial surface. The presented experimental results indicate that step movement rate difference depends on the step A edge kink density.
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