Second-order analysis of an optimal control problem in a phase field tumor growth model with singular potentials and chemotaxis
arXiv:2009.07574 · doi:10.1051/cocv/2021072
Abstract
This paper concerns a distributed optimal control problem for a tumor growth model of Cahn-Hilliard type including chemotaxis with possibly singular potentials, where the control and state variables are nonlinearly coupled. First, we discuss the weak well-posedness of the system under very general assumptions for the potentials, which may be singular and nonsmooth. Then, we establish the strong well-posedness of the system in a reduced setting, which however admits the logarithmic potential: this analysis will lay the foundation for the study of the corresponding optimal control problem. Concerning the optimization problem, we address the existence of minimizers and establish both first-order necessary and second-order sufficient conditions for optimality. The mathematically challenging second-order analysis is completely performed here, after showing that the solution mapping is twice continuously differentiable between suitable Banach spaces via the implicit function theorem. Then, we completely identify the second-order Fréchet derivative of the control-to-state operator and carry out a thorough and detailed investigation about the related properties.
arXiv commentPlease note that the formula (6.5), in both the arXiv preprint and in the journal article, contains three sign errors: indeed, the term in the second line of (6.5) involving P'' should carry a `plus' sign, while the two terms in the third line should carry `minus' signs. These sign errors, however, do not have an impact on the validity of the results
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