等离子体纳米结构的单次激光辅助纳米加工

A.V. Nepomnyashchii , A.A. Kuchmizhak , S.O. Gurbatov , O.B. Vitrik , Yu.N. Kulchin
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引用次数: 4

摘要

提出了一种简单高效的两步法,用于在玻璃和硅衬底上制备不同功能的等离子体纳米结构,包括纳米棒、分离纳米结构和交叉纳米结构,以及更复杂的杂化结构。在该技术中,用单次紧密聚焦的纳秒激光脉冲照射覆盖大块玻璃或硅衬底的贵金属薄膜,然后用加速氩离子(Ar+)束对制备的纳米结构进行缓慢抛光。纳秒激光脉冲通过引发超快熔化和随后的流体动力学过程局部改变其金属膜的初始厚度,而随后的Ar+抛光仅显示其形貌特征-玻璃/Si衬底上的等离子体结构。我们证明了所得到的功能性等离子体纳米结构的类型和横向尺寸都是由脉冲能量、金属膜厚度以及光学光斑大小决定的,而随后的Ar+抛光允许改变所得到的纳米结构的高度。提出的简单的两步高通量技术代表了直接激光诱导制造复杂功能等离子体纳米结构的下一步,并且非常适合由数百个纳米元素组成的有序阵列和样品表面上给定点的单个纳米结构的大规模制造。
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Single-shot Laser-assisted Nanofabrication of Plasmonic Nanorings

Simple high-performing two-step technique for fabrication different functional plasmonic nanostructures including nanorods, separated and crossed nanorings, as well as more complex hybrid structures on both glass and silicon substrates was proposed. In this technique the noble metal film covering bulk glass or silicon substrates is irradiated by single tightly focused nanosecond laser pulse followed by slow polishing of the fabricated nanostructures by accelerated argon ion (Ar+) beam. Nanosecond laser pulse locally modifies its initial thickness of metal film through the initiation of ultrafast melting and subsequent hydrodynamic processes, while the following Ar+ polishing reveals only the features of its topography - plasmonic structures on the glass/Si substrate. We demonstrate that both the type and lateral size of the resulting functional plasmonic nanostructure are determined by the pulse energy, metal film thickness as well as the optical spot size, while subsequent Ar+ polishing allows varying the height of the resulting nanostructures. The proposed simple two-step high-throughput technique represents the next step towards direct lased-induced fabrication of complex functional plasmonic nanostructures and is well-suited for both large-scale fabrication of ordered arrays comprising hundreds of nanoelements and single nanostructure at a given point on the sample surface.

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