The K-Theoretic Bulk-Boundary Principle for Dynamically Patterned Resonators
arXiv:1805.10629 · doi:10.1016/j.geomphys.2018.10.005
Abstract
Starting from a dynamical system , with a generic topological group, we devise algorithms that generate families of patterns in the Euclidean space, which densely embed and on which acts continuously by rigid shifts. We refer to such patterns as being dynamically generated. For , we adopt Bellissard's -algebraic formalism to analyze the dynamics of coupled resonators arranged in dynamically generated point patterns. We then use the standard connecting maps of -theory to derive precise conditions that assure the existence of topological boundary modes when a sample is halved. We supply four examples for which the calculations can be carried explicitly. The predictions are supported by many numerical experiments.
arXiv comment52 pages, 27 Figures
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