All-dielectric Mie-resonant nanophotonics and meta-optics (Conference Presentation)

Y. Kivshar
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Abstract

Metamaterials---artificial electromagnetic media that are structured on the subwavelength scale---were initially suggested for the realisation of negative-index media, and later they became a paradigm for engineering electromagnetic space and control¬ling propagation of waves. However, applications of metamaterials in optics are limited due to inherent losses in metals employed for the realisation of artificial optical magnetism. Recently, we observe the emergence of a new field of all-dielectric resonant meta-optics aiming at the manipulation of strong optically-induced electric and magnetic Mie-type resonances in dielectric and semiconductor nanostructures with relatively high refractive index. Unique advantages of dielectric resonant nanostructures over their metallic counterparts are low dissipative losses and the enhancement of both electric and magnetic fields that provide competitive alternatives for plasmonic structures including optical nanoantennas, efficient biosensors, passive and active metasurfaces, and functional metadevices. This talk will summarize the most recent advances in all-dielectric Mie-resonant meta-optics including active nanophotonics as well as the recently emerged fields of topological photonics and nonlinear metasurfaces.
全介电mie谐振纳米光子学和元光学(会议报告)
超材料——在亚波长尺度上构建的人造电磁介质——最初被建议用于实现负折射率介质,后来它们成为工程电磁空间和控制波传播的范例。然而,由于用于实现人造光磁的金属的固有损耗,超材料在光学中的应用受到限制。最近,我们观察到出现了一个新的全介质谐振元光学领域,旨在操纵具有相对高折射率的介质和半导体纳米结构中的强光诱导的电和磁mie型共振。电介质谐振纳米结构相对于金属共振纳米结构的独特优势是耗散损耗低,电场和磁场的增强,为等离子体结构提供了有竞争力的替代品,包括光学纳米天线、高效生物传感器、无源和有源超表面以及功能元器件。本讲座将总结包括主动纳米光子学在内的全介电谐振元光学的最新进展,以及最近出现的拓扑光子学和非线性超表面领域。
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