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From all-dieletric nanoresonators to extended quasi-static plasmonic resonators

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arxiv 2312.15149 v1 pith:JOFMISOU submitted 2023-12-23 math.AP physics.optics

classification math.APphysics.optics
keywords all-dielectricclusterextendedfrequenciesincidentplasmonicquasi-staticdistributed
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abstract

We derive the electromagnetic medium equivalent to a cluster of all-dielectric nanoparticles (i.e. enjoying high refractive indices), distributed periodically in a smooth domain $\Omega$, while excited at nearly resonating dielectric incident frequencies (i.e. subwavelength Mie-resonant frequencies). This effective medium is an alteration of the permeability that keeps the permittivity unchanged. We provide regimes under which the effective permeability can be positive or negative valued. In addition, if the incident frequency is close to any of the subwavelength all-dielectric resonances, then the distributed cluster behaves as an extended quasi-static plasmonic resonator. Therefore, exciting the cluster of all-dielectric nanoresonators with nearly resonating incident frequencies, we can generate an extended quasi-static plasmonic resonator which creates giant electromagnetic fields in its surrounding.

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Cited by 2 Pith papers

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  1. Electromagnetic waves generated by a hybrid dielectric-plasmonic dimer

    math.AP 2024-12 conditional novelty 6.0 of 10

    A rigorous asymptotic expansion shows a hybrid dielectric-plasmonic dimer simultaneously polarizes incident electric and magnetic fields when the two particles share a resonant frequency.

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    math.AP 2024-11 conditional novelty 6.0 of 10

    A rigorous asymptotic derivation shows that heat generation in plasmonic nanoparticle clusters obeys a coupled Volterra and Foldy-Lax system, which becomes an effective parabolic equation driven by a homogenized Maxwe...

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