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An Insensitizing control problem involving tangential gradient terms for a reaction-diffusion equation with dynamic boundary conditions
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In this article, we study the existence of insensitizing controls for a nonlinear reaction-diffusion equation with dynamic boundary conditions. Here, we have a partially unknown data of the system, and the problem consists in finding controls such that a specific functional is insensitive for small perturbations of the initial data. More precisely, the functional considered here depends on the norm of the state in a subset of the bulk together with the norm of the tangential gradient of the state on the boundary. This problem is equivalent to a (relaxed) null controllability problem for an optimality system of cascade type, with a zeroth-order coupling term in the bulk and a second-order coupling term on the boundary. To achieve this result, we linearize the system around the origin and analyze it by the duality approach and we prove a new Carleman estimate for the corresponding adjoint system. Then, a local null controllability result for the nonlinear system is proven by using an inverse function theorem.
Forward citations
Cited by 2 Pith papers
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Insensitizing controls for stochastic parabolic equations with dynamic boundary conditions
The authors attempt to prove existence of insensitizing controls for a stochastic heat equation with dynamic boundary conditions, but a key Carleman-to-observability step in the proof is invalid.
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Insensitizing controls of a volume-surface reaction-diffusion equation with dynamic boundary conditions
Local insensitizing controllability is established for a quasilinear volume-surface reaction-diffusion system with dynamic boundary conditions.
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