Plasmonic nanostructures fabricated via cost-effective method: plasmonic color pigment and microfluid device

S. Matsushita
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Abstract

The demand for the fabrication of nanostructures consisting of metal and dielectric is increasing with the development of new plasmonic optics. Since 1997, the presenter has produced various dielectric nanostructures by the bottom-up method and reported their optical and electrochemical properties such as light propagation in two-dimensional polystyrene colloidal crystals[1], the electron emission of diamond nanorods arrays[2], photochemical micro beakers composed of TiO2[3], etc. The advantages of the bottom-up method are that you can easily try various materials in addition to being able to easily perform experiments at the laboratory level. In this presentation, we will report about the various nanostructures fabricated using thermal dewetting process of metal/dielectric interface[4], focusing on the application to the plasmonic color pigment and microfluid devices. 1 Chem. Commun. 2004, 506. 2 Chem. Lett. 2000, 29, 534. 3 Chem. Lett. 1997, 925. 4 Nanoscale Adv., 2020, 2, 2271.
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用低成本的方法制备等离子体纳米结构:等离子体颜色颜料和微流体装置
随着新型等离子体光学技术的发展,对金属介质纳米结构的需求日益增加。自1997年以来,主讲人采用自下而上的方法制备了各种介电纳米结构,并报道了它们的光学和电化学性能,如光在二维聚苯乙烯胶体晶体中的传播[1],金刚石纳米棒阵列的电子发射[2],由TiO2组成的光化学微烧杯[3]等。自底向上方法的优点是,除了能够轻松地在实验室级别进行实验外,您还可以轻松地尝试各种材料。在本报告中,我们将介绍利用金属/介电界面热脱湿工艺制备的各种纳米结构[4],重点介绍其在等离子体彩色颜料和微流体器件中的应用。1化学。common . 2004,506。2化学。左2000,29,534。3化学。左。1997,925。[4]纳米材料学报,2020,22(2):2271。
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