迈向低损耗、红外和太赫兹纳米光子学和超材料:极性介电晶体中的表面声子极化子模式(演讲记录)

J. Caldwell, L. Lindsey, V. Giannini, I. Vurgaftman, T. Reinecke, S. Maier, O. Glembocki
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引用次数: 0

摘要

纳米光子学领域是基于将光限制在亚衍射维度的能力。直到最近,这一领域的研究主要集中在等离子体金属的使用上。然而,这种金属基表面等离子体材料固有的高光学损耗导致人们不断努力寻找能够支持亚衍射约束的低损耗替代材料。一个非常有前途的替代方案是极性介电晶体,通过在全介电介质中刺激表面声子极化子来实现光的亚衍射限制,从而实现低损耗材料系统。SiC和六方BN是两种典型的SPhP系统,它们与一系列替代材料一起有望在中红外到太赫兹光谱范围内转换纳米光子学和超材料。除了较低的损耗外,这些材料还提供了传统等离子体所没有的新机会,例如hBN等天然材料中的双曲光学行为,无需复杂的制造就可以实现超分辨率成像。本讲座将概述SPhP现象,讨论什么是“好的”SPhP材料,以及我们研究小组在SiC和天然双曲材料hBN方面的最新成果。
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Towards low-loss, infrared and THz nanophotonics and metamaterials: surface phonon polariton modes in polar dielectric crystals (Presentation Recording)
The field of nanophotonics is based on the ability to confine light to sub-diffractional dimensions. Up until recently, research in this field has been primarily focused on the use of plasmonic metals. However, the high optical losses inherent in such metal-based surface plasmon materials has led to an ever-expanding effort to identify, low-loss alternative materials capable of supporting sub-diffractional confinement. One highly promising alternative are polar dielectric crystals whereby sub-diffraction confinement of light can be achieved through the stimulation of surface phonon polaritons within an all-dielectric, and thus low loss material system. Both SiC and hexagonal BN are two exemplary SPhP systems, which along with a whole host of alternative materials promise to transform nanophotonics and metamaterials in the mid-IR to THz spectral range. In addition to the lower losses, these materials offer novel opportunities not available with traditional plasmonics, for instance hyperbolic optical behavior in natural materials such as hBN, enabling super-resolution imaging without the need for complex fabrication. This talk will provide an overview of the SPhP phenomenon, a discussion of what makes a ‘good’ SPhP material and recent results from SiC and the naturally hyperbolic material, hBN from our research group.
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