AI Article Synopsis

  • The paper presents a novel graphene-hBN metamaterial that enables tunable multi-wavelength absorption through hybrid plasmon-phonon interactions.
  • The simulation indicates that coupling between plasmon polaritons in graphene and phonons in hBN results in triple-band absorption, making the absorption peaks adjustable by changing the Fermi level of the graphene patterns.
  • Additionally, the study explores how varying structural parameters influences the absorption spectra, offering a new approach for optimizing plasmon-phonon polariton interactions.

Article Abstract

In this paper, we present a patterned graphene-hBN metamaterial structure and theoretically demonstrate the tunable multi-wavelength absorption within the hybrid structure. The simulation results show that the hybrid plasmon-phonon polariton modes originate from the coupling between plasmon polaritons in graphene and phonons in hBN, which are responsible for the triple-band absorption. By varying the Fermi level of graphene patterns, the absorption peaks can be tuned dynamically and continuously, and the surface plasmon-phonon polariton modes in the proposed structure enable high absorption and wideband tunability. In addition, how different structural parameters affect the absorption spectra is discussed. This work provides us a new method for the control and enhancement of plasmon-phonon polariton interactions.

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Source
http://dx.doi.org/10.1364/OE.27.023576DOI Listing

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