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Tuning the Surface Plasmon Resonance of Lanthanum Hexaboride to Absorb Solar Heat: A Review

机译:调整六硼化镧的表面等离子体共振以吸收太阳热:综述

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摘要

While traditional noble metal (Ag, Au, and Cu) nanoparticles are well known for their plasmonic properties, they typically only absorb in the ultraviolet and visible regions. The study of metal hexaborides, lanthanum hexaboride (LaB6) in particular, expands the available absorbance range of these metals well into the near-infrared. As a result, LaB6 has become a material of interest for its energy and heat absorption properties, most notably to those trying to absorb solar heat. Given the growing popularity of LaB6, this review focuses on the advances made in the past decade with respect to controlling the plasmonic properties of LaB6 nanoparticles. This review discusses the fundamental structure of LaB6 and explains how decreasing the nanoparticle size changes the atomic vibrations on the surface and thus the plasmonic absorbance band. We explain how doping LaB6 nanoparticles with lanthanide metals (Y, Sm, and Eu) red-shifts the absorbance band and describe research focusing on the correlation between size dependent and morphological effects on the surface plasmon resonance. This work also describes successes that have been made in dispersing LaB6 nanoparticles for various optical applications, highlighting the most difficult challenges encountered in this field of study.
机译:尽管传统的贵金属(Ag,Au和Cu)纳米粒子具有等离子特性,但它们通常仅在紫外线和可见光区域吸收。对六硼化金属,尤其是六硼化镧(LaB6)的研究,将这些金属的有效吸收范围扩展到了近红外范围。结果,LaB6已成为其能量和热吸收特性的重要材料,尤其是那些试图吸收太阳热的材料。鉴于LaB6的日益普及,本综述着重于过去十年在控制LaB6纳米粒子的等离子体性能方面取得的进展。这篇综述讨论了LaB6的基本结构,并解释了减小纳米颗粒尺寸如何改变表面上的原子振动,从而改变等离子体吸收带。我们解释了用镧系金属(Y,Sm和Eu)掺杂LaB6纳米颗粒如何使吸收谱带红移,并描述了集中于尺寸依赖性与表面等离子体共振的形态效应之间相关性的研究。这项工作还描述了在分散LaB6纳米颗粒以用于各种光学应用方面所取得的成功,突出了该研究领域遇到的最困难的挑战。

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