Existence and approximation of nonlocal optimal design problems driven by parabolic equations

Abstract

This work is a follow-up to a series of articles by the authors where the same topic for the elliptic case is analyzed. In this article, a class of nonlocal optimal design problem driven by parabolic equations is examined. After a review of results concerning existence and uniqueness for the state equation, a detailed formulation of the nonlocal optimal design is given. The state equation is of nonlocal parabolic type, and the associated cost functional belongs to a broad class of nonlocal integrals. In the first part of the work, a general result on the existence of nonlocal optimal design is proved. The second part is devoted to analyzing the convergence of nonlocal optimal design problems toward the corresponding classical problem of optimal design. After a slight modification of the problem, either on the cost functional or by considering a new set of admissibility, the G-convergence for the state equation and, consequently, the convergence of the nonlocal optimal design problem are proved.

The Galerkin–Fourier method for the study of nonlocal parabolic equations

“…See also [16] for the H-convergence study of the nonlocal elliptic operator. [5] is a work that deals with the existence and asymptotic analysis of optimal designs in the context of parabolic equations.…”