T. M. Lawrie, T. A. Starkey, G. Tanner, D. B. Moore, P. Savage, G. J. Chaplain
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Application of Quantum Graph Theory to Metamaterial Design: Negative Refraction of Acoustic Waveguide Modes
We leverage quantum graph theory to quickly and accurately characterise
acoustic metamaterials comprising networks of interconnected pipes. Anisotropic
bond lengths are incorporated in the model that correspond to space-coiled
acoustic structures to exhibit dispersion spectra reminiscent of hyperbolic
metamaterials. We construct two metasurfaces with embedded graph structure and,
motivated by the graph theory, infer and fine-tune their dispersive properties
to engineer non-resonant negative refraction of acoustic surface waves at their
interface. Agreement between the graph model, full wave simulations, and
experiments bolsters quantum graph theory as a new paradigm for metamaterial
design.