2018•arXiv (Cornell University)Open access

Quasi-1D Electromagnetic Resonators

Carlo Forestiere, Giovanni Miano, Mariano Pascale, Roberto Tricarico

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Abstract

We show that a long and narrow conducting sheet of finite length may behave as a one dimensional electromagnetic resonator. The induced current along the resonator is a standing wave, and it is solution of a one dimensional integro-differential equation with homogeneous boundary conditions. The corresponding charge distribution exhibits strong accumulation at the two ends of the resonator. As a consequence, the electric field scattered in proximity of the two ends undergoes a strong enhancement and may be exploited for sensing or light-matter applications. Eventually, an example of a quasi-one dimensional resonator based on graphene is discussed.

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What this paper is about

We show that a long and narrow conducting sheet of finite length may behave as a one dimensional electromagnetic resonator. The induced current along the resonator is a standing wave, and it is solution of a one dimensional integro-differential equation with homogeneous boundary conditions. The corresponding charge distribution exhibits strong accumulation at the two ends of the resonator. As a consequence, the electric field scattered in proximity of the two ends undergoes a strong enhancement and may be exploited for sensing or light-matter applications. Eventually, an example of a quasi-one dimensional resonator based on graphene is discussed.

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Available abstract

We show that a long and narrow conducting sheet of finite length may behave as a one dimensional electromagnetic resonator. The induced current along the resonator is a standing wave, and it is solution of a one dimensional integro-differential equation with homogeneous boundary conditions. The corresponding charge distribution exhibits strong accumulation at the two ends of the resonator. As a consequence, the electric field scattered in proximity of the two ends undergoes a strong enhancement and may be exploited for sensing or light-matter applications. Eventually, an example of a quasi-one dimensional resonator based on graphene is discussed.

Key concepts: Resonator, Physics, Electromagnetic field, Homogeneous, Electric field, Boundary value problem, Graphene, Boundary (topology)

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