Micro Chemical Vapor Deposition System: Design and Verification

Q. Zhou, L. Lin
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引用次数: 8

Abstract

The conventional chemical vapor deposition system has been miniaturized to the micro scale, leading to several potential advantages for the synthesis of nanostructures. First, minute heat capacity leads to fast temperature stabilization. Second, tiny chamber volume helps for rapid gas species exchanges. Third, small Reynolds number ensures laminar flow for better control of deposition sources. Forth, small diffusion length near the chemical reaction surface enhances efficient gas mass transfer. As a demonstration of principle, high-quality single-walled carbon nanotubes (SWNTs) are synthesized while similar experimental parameters in a large scale system fail to construct good quality SWNTs.
微化学气相沉积系统:设计与验证
传统的化学气相沉积系统已经小型化到微尺度,为纳米结构的合成带来了许多潜在的优势。首先,微小的热容量导致快速的温度稳定。其次,微小的腔体体积有助于快速的气体种类交换。第三,小雷诺数保证层流,更好地控制沉积源。第四,化学反应表面附近较小的扩散长度提高了气体传质效率。作为一个原理论证,高质量的单壁碳纳米管(SWNTs)被合成,而类似的实验参数在大规模系统中无法构建出高质量的SWNTs。
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