自组织GaN纳米针尖的抗反射结构

H. Yoshida, Y. Terada, H. Miyake, K. Hiramatsu
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引用次数: 1

摘要

采用氯等离子体反应离子刻蚀法制备了具有纳米级尖端柱状结构的自组织GaN纳米尖。傅里叶变换分析发现该结构具有二维各向同性分布,具有从紫外区到可见光区亚波长的宽带周期性。在GaN表面上,纳米尖端的直径约为20 nm,最频繁的周期性为96 nm,高度约为200 nm。在紫外区,纳米针尖表面的反射率被显著抑制在0.01以下,而光滑表面的反射率为0.3。在较长波长处(/spl sim/365 nm)透射率也提高了约12%。我们发现纳米尖端表面提供了抗反射和增强从UV到VIS区域(300 nm至900 nm)的传输效果。这些优异的抗反射性能有望提高自组织GaN纳米尖端的发光和光电探测器件的性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Antireflection structure of self-organized GaN nanotips
Self-organized GaN nanotips, which were nanoscale tip-shaped pillar structure, were fabricated by reactive ion etching using chlorine plasma. It has been found that the structure has a two-dimensional isotropic distribution with broadband periodicity of subwavelength from the ultraviolet (UV) to the visible (VIS) region by Fourier transform analysis. The nanotips exhibited a diameter of approximately 20 nm, a most frequent periodicity of 96 nm and a height of approximately 200 nm on the GaN surface. The reflectance of the nanotip surface was significantly suppressed to less than 0.01 compared with 0.3 of the smooth surface in UV region. The transmittance was also improved approximately 12% at longer wavelength than the band edge (/spl sim/365 nm). We have found that the nanotip surface provides antireflection and enhanced transmission effects from the UV to the VIS region (300 nm to 900 nm). These excellent antireflective-properties of the self-organized GaN nanotips are expected to improve the performances of light-emitting and photo-detective devices.
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