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Characterisation of Silicon Nanolayers Deposited by Plasma Enhanced Chemical Vapor Deposition on 3-D ZnO Templates for Hollow Silicon Microstructures

机译:基于三维硅模板上的等离子体增强化学气相沉积沉积硅纳米组的表征中空硅微结构

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Hollow inorganic microstructures have gained much interest in nowadays research fields as they offer unique properties (high specific area, thermal conductivity or density) when compared to their bulk equivalents. On the other hand, for many applications, e.g. as anode material in lithium ion batteries, crystalline silicon microstructures (c-Si) would be of great interest. The development of thin hollow Si microparticles based on t- ZnO would therefore offer a new class of Si structures which are of special interest as they combine suitable physico-chemical properties with high porosity caused by their special morphology. One approach for the realization of these Si microstructures includes the usage of plasma enhanced chemical vapor deposition based on argon diluted silane source gases as it provides the opportunity to fabricate homogeneous nanolayers at relatively low temperatures. In order to obtain the desired morphology combined with an adequate deposition rate, in this work the process was optimized by parameter variations and subsequent investigations of the films by Raman spectroscopy, scanning electron microscopy and profilometry. First experiments for the deposition of Si onto t-ZnO were implemented and promising results were obtained.
机译:与其散装当量相比,中空无机微观结构在如今的研究领域获得了许多研究领域,因为它们提供独特的性质(高特定区域,导热性或密度)。另一方面,对于许多应用,例如许多应用程序。作为锂离子电池中的阳极材料,晶体硅微结构(C-Si)将是极大的兴趣。因此,基于T- ZnO的薄空心Si微粒的发展将提供新的Si结构,这些Si结构具有特殊兴趣,因为它们将合适的物理化学性质与其特殊形态引起的高孔隙率结合起来。实现这些Si微结构的一种方法包括基于氩稀释的硅烷源气体使用等离子体增强的化学气相沉积,因为它提供了在相对低的温度下制造均匀纳米组的机会。为了获得所需的形态与足够的沉积速率结合,在该工作中,通过参数变化,随后通过拉曼光谱,扫描电子显微镜和轮廓测定法对薄膜进行了优化的过程。第一次将Si沉积到T-ZnO上的实验并获得了有希望的结果。

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