Dielectric nanoantennas: from passive to active functionalities (Conference Presentation)

A. Kuznetsov
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Abstract

Dielectric nanoantennas and metasurfaces have recently become a new trend in nanophotonics thanks to their low-loss resonant behaviour based on both electric and magnetic resonant modes [1]. Most of the recent developments in this field are related to silicon nanostructures, which demonstrate excellent resonances in the visible and near-IR parts of the spectrum. Other material platforms such as titanium dioxide (TiO2), gallium nitride (GaN), gallium arsenide (GaAs) and gallium phosphide (GaP) have also been explored to generate low-loss resonances at visible frequencies and explore linear and nonlinear optical effects. Though some of these materials (e.g. GaAs, GaN and GaP) are well-known active semiconductors famous for their emission properties, so far, only passive nanoantenna-based device functionalities have been realized. In this presentation, I will first review the recent progress of our team in the field of dielectric nanoantennas and metasurfaces demonstrating some unique passive device functionalities related to high-angle light bending and focusing. Then I will discuss active light-emitting devices based on the nanoantenna concepts. In particular, I will demonstrate the first optically-pumped laser based on semiconductor nanoantenna structures. Finally I will present active tuning of nanoantenna characteristics using external electrical signals. References: 1) A. I. Kuznetsov et al., “Optically resonant dielectric nanostructures”, Science 354, aag2472 (2016).
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介电纳米天线:从被动到主动功能(会议报告)
介质纳米天线和超表面由于其基于电谐振和磁谐振模式的低损耗谐振特性而成为纳米光子学研究的新趋势[1]。该领域的最新进展主要与硅纳米结构有关,硅纳米结构在光谱的可见和近红外部分表现出优异的共振。其他材料平台,如二氧化钛(TiO2),氮化镓(GaN),砷化镓(GaAs)和磷化镓(GaP)也被探索在可见光频率下产生低损耗共振,并探索线性和非线性光学效应。虽然其中一些材料(例如GaAs, GaN和GaP)是众所周知的以其发射特性而闻名的有源半导体,但到目前为止,仅实现了基于无源纳米天线的器件功能。在这次演讲中,我将首先回顾我们团队在介质纳米天线和超表面领域的最新进展,展示一些与高角度光弯曲和聚焦相关的独特无源器件功能。然后我将讨论基于纳米天线概念的有源发光器件。特别地,我将展示第一个基于半导体纳米天线结构的光泵浦激光器。参考文献:A. I. Kuznetsov et al.,“光学谐振介质纳米结构”,Science 354, aag2472(2016)。
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