AI Article Synopsis

  • The study explores tunable surface plasmons at the interface of a specific atomic medium, highlighting the connection between electric and magnetic components of the plasmonic field.
  • The unique chirality due to quantum coherence results in surface plasmon modes being present even when both sides of the medium have positive permittivity and permeability, unlike traditional systems.
  • This phenomenon, termed "electromagnetically induced plasmon," allows for manipulation of surface plasmon properties through control of the intensity and phase of the field applied.

Article Abstract

Tunable surface plasmons on the interface of a multilevel atomic medium with a cross coupling of the electric and magnetic components of a plasmonic field are investigated. The strong chirality resulting from the quantum coherence leads to some exciting properties of the surface plasmons. Compared to the traditional chiral-metal interface, surface plasmonic mode can still be found at the interface between such atomic media and a dielectric even when both the permittivity and the permeability of the medium are positive. This is in contrast to the conventional plasmonic systems where the signs of the permittivities or permeabilities on the two sides of the interface are opposite. We call this phenomenon an electromagnetically induced plasmon. Additionally, as the chirality and effective refractive index of the atomic medium are dependent on the intensity and phase of the controlling field, we can conveniently manipulate the properties of the surface plasmons.

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Source
http://dx.doi.org/10.1364/OE.27.000322DOI Listing

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