Numerical simulations demonstrate effective control of Turing patterns in network systems, suggesting new engineering possibilities.
Extending a framework originally proposed by Cencetti et al. [Eur. Phys. J. B 90, 1 (2017)], we investigate a topological control mechanism for mediating Turing patterns on unweighted, undirected networks. Our primary contribution is proving boundedness results involved in targeted destabilization, in which we map Laplacian mode shifts to structural interventions. Through numerical simulations, we show the efficacy of this control scheme on a range of graph models, establishing theoretical expectations for the special case of the ring lattice. This work stands against a backdrop of real-world applications, moving the needle toward better understanding and engineering of network-driven pattern formation.
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Nicholas Hayes (2026) studied this question.
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