The Superresonance: The Discovery That Was Not Done More Than One Hundred Years Ago

IF 0.9 Q4 OPTICS Atmospheric and Oceanic Optics Pub Date : 2024-09-05 DOI:10.1134/S1024856024700544
I. V. Minin, O. V. Minin
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Abstract

The Lorentz–Mie theory describing light scattering by spherical particles was created in 1908. Nevertheless, most of the discoveries made during the last 30 years (e.g., photon jets, Fano resonance, optical anapoles, optical vortices, and acoustic jets) can be described within the framework of this theory. They were “encoded” in the Lorenz–Mie formulas and were just waiting for someone to decipher them. The article briefly discusses a new effect—the superresonance (and the accompanying Fano resonance of an extremely high order) in dielectric mesoscale spheres. Superresonance allows to generate magnetic fields with giant intensity at “hot points” (poles) of a dielectric sphere. This effect also can be explained using the Lorentz–Mie theory. However, this effect remained hidden inside the exact solution of this theory for almost 120 years!

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超共振一百多年前未完成的发现
摘要描述球形粒子光散射的洛伦兹-米理论创立于 1908 年。尽管如此,过去 30 年中的大多数发现(如光子射流、法诺共振、光学无极点、光学旋涡和声学射流)都可以在该理论的框架内进行描述。它们被 "编码 "在洛伦兹-米氏公式中,正等待着有人去破译。文章简要讨论了介电球中的一种新效应--超共振(以及随之产生的极高阶法诺共振)。超共振可以在介电球的 "热点"(极点)产生强度巨大的磁场。这种效应也可以用洛伦兹-米氏理论来解释。然而,近 120 年来,这种效应一直隐藏在这一理论的精确解中!
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来源期刊
CiteScore
2.40
自引率
42.90%
发文量
84
期刊介绍: Atmospheric and Oceanic Optics  is an international peer reviewed journal that presents experimental and theoretical articles relevant to a wide range of problems of atmospheric and oceanic optics, ecology, and climate. The journal coverage includes: scattering and transfer of optical waves, spectroscopy of atmospheric gases, turbulent and nonlinear optical phenomena, adaptive optics, remote (ground-based, airborne, and spaceborne) sensing of the atmosphere and the surface, methods for solving of inverse problems, new equipment for optical investigations, development of computer programs and databases for optical studies. Thematic issues are devoted to the studies of atmospheric ozone, adaptive, nonlinear, and coherent optics, regional climate and environmental monitoring, and other subjects.
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