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基于高分辨率高分子自组装和纳米压印转移技术制备的含亚 20nm 纳米孔阵列的可转移等离子体金薄膜。

Transferrable Plasmonic Au Thin Film Containing Sub-20 nm Nanohole Array Constructed via High-Resolution Polymer Self-Assembly and Nanotransfer Printing.

机构信息

Department of Materials Science and Engineering, Korea Advanced Institute of Science and Technology (KAIST) , 291 Daehak-ro, Yuseong-gu, Daejeon 305-701, Republic of Korea.

出版信息

ACS Appl Mater Interfaces. 2018 Jan 24;10(3):2216-2223. doi: 10.1021/acsami.7b16401. Epub 2018 Jan 10.

DOI:10.1021/acsami.7b16401
PMID:29304281
Abstract

The fabrication and characterization of nanoscale hole arrays (NHA) have been extensively performed for a variety of unique characteristics including extraordinary optical transmission phenomenon observed for plasmonic NHAs. Although the size miniaturization and hole densification are strongly required for enhancement of high-frequency optical responses, from a practical point-of-view, it is still not straightforward to manufacture NHA using conventional lithography techniques. Herein, a facile, cost-effective, and transferrable fabrication route for high-resolution and high-density NHA with sub-50 nm periodicity is demonstrated. Solvent-assisted nanotransfer printing with ultrahigh-resolution combined with block copolymer self-assembly is used to fabricate well-defined Si nanomesh master template with 4-fold symmetry. An Au NHA film on quartz substrate is then obtained by thermal-evaporation on the Si master and subsequent transfer of the sample, resulting in NHA structure having a hole with a diameter of 18 nm and a density over 400 holes/μm. A resonance peak at the wavelength of 650 nm, which is not present in the transmittance spectrum of a flat Au film, is observed for the Au NHA film. Finite-difference time-domain (FDTD) simulation results propose that the unexpected peak appears because of plasmonic surface guiding mode. The position of the resonance peak shows the sensitivity toward the change of the refractive index of surrounding medium, suggesting it as a promising label-free sensor application. In addition, other types of Au nanostructure arrays such as geometry-controlled NHA and nanoparticle arrays (NPAs) shows the outstanding versatility of our approach.

摘要

纳米孔阵列(NHA)的制造和特性研究已经得到了广泛的开展,其具有许多独特的特性,包括等离子体 NHA 观察到的非凡光传输现象。尽管为了增强高频光响应,需要进行尺寸小型化和孔密集化,但从实际角度来看,使用传统光刻技术制造 NHA 仍然不容易。本文展示了一种简单、经济且可转移的制造高分辨率和高密度、亚 50nm 周期 NHA 的方法。采用超高分辨率的溶剂辅助纳米转印与嵌段共聚物自组装相结合的方法,制造具有 4 重对称性的 Si 纳米网母版。然后通过在 Si 母版上进行热蒸发,并随后转移样品,在石英衬底上获得 Au NHA 薄膜,其具有 18nm 直径和超过 400 个孔/μm 的密度的孔。在 Au NHA 薄膜中观察到在平坦 Au 膜的透射谱中不存在的 650nm 波长处的共振峰。有限差分时域(FDTD)模拟结果表明,由于等离子体表面导波模式,出现了意外的峰。共振峰的位置对周围介质折射率的变化表现出敏感性,表明其在无标记传感器应用方面具有很大的潜力。此外,其他类型的 Au 纳米结构阵列,如几何形状可控的 NHA 和纳米颗粒阵列(NPA),也证明了我们方法的出色通用性。

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