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首页> 外文期刊>Advanced Optical Materials >Self-Assembled Ag–TiN Hybrid Plasmonic Metamaterial: Tailorable Tilted Nanopillar and Optical Properties
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Self-Assembled Ag–TiN Hybrid Plasmonic Metamaterial: Tailorable Tilted Nanopillar and Optical Properties

机译:自组装AG-TIN混合等级超材料:可批定倾斜的纳米玻璃和光学性质

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摘要

Key challenges limiting the adoption of metallic plasmonic nanostructures for practical devices include structural stability and the ease of large-scale fabrication. Overcoming these issues may require novel metamaterial fabrication with potentials for improved durability under extreme conditions. Here, a self-assembled growth of a hybrid plasmonic metamaterial in thin-film form is reported, with epitaxial Ag nanopillars embedded in TiN, a mechanically strong and chemically inert matrix. One of the key achievements lies in the successful control of the tilt angle of the Ag nanopillars (from 0 degrees to 50 degrees), which is attributed to the interplay between the growth kinetics and thermodynamics during deposition. Such an anisotropic nature offered by the tilted Ag nanopillars in TiN matrix is crucial for achieving broadband, asymmetric optical selectivity. Optical spectra coupled with numerical simulations demonstrate strong plasmonic resonance, as well as angular selectivity in a broad UV-vis to near-infrared regime. The nanostructured metamaterials in this work, which consist of highly conductive metallic nanopillars in a durable nitride matrix, have the potential to serve as a novel hybrid material platform for highly tailorable nanoscale metamaterial designs, suitable for high temperature optical applications.
机译:关键挑战限制了实际装置的金属等离子体纳米结构的采用包括结构稳定性和大规模制造的易于舒适性。克服这些问题可能需要具有在极端条件下提高耐用性的电位的新型超材料制造。这里,报道了薄膜形式的混合等离子体超材料的自组装生长,外延Ag纳米粒子嵌入锡,机械强,化学惰性基质中。其中一个关键成果在于成功地控制Ag纳米纳米石榴石(从0度至50度)的倾斜角度,这归因于在沉积期间生长动力学和热力学之间的相互作用。由锡矩阵中的倾斜Ag纳米钠提供的这种各向异性性质对于实现宽带,不对称光学选择性至关重要。与数值模拟耦合的光学光谱展示了强的等离子体共振,以及广泛的UV-VI中的角度选择性到近红外线。该工作中的纳米结构超材料包括耐用的氮化物基质中的高导电金属纳米粒子,具有用于高温光学应用的高度可定制的纳米材料设计的新型混合材料平台。

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