Abstract

Fractional optimal control problems via a wide class of fractional operators with a general analytic kernel are introduced. Necessary optimality conditions of Pontryagin type for the considered problem are obtained after proving a Gronwall type inequality as well as results on continuity and differentiability of perturbed trajectories. Moreover, a Mangasarian type sufficient global optimality condition for the general analytic kernel fractional optimal control problem is proved. An illustrative example is discussed.

Highlights

  • Fractional Calculus, as a generalization of the traditional calculus through derivation and integration of an arbitrary order, is a rapidly growing field of mathematical research

  • Since this seminal work of 2019, several interesting results appeared, e.g., determination of source terms for fractional Rayleigh–Stokes equations with random data [2], new analytic properties of tempered fractional calculus [3], simulation of nonlinear dynamics with fractional neural networks arising in the modeling of cognitive decision making processes [4], new numerical methods for variable order fractional nonlinear quadratic integro-differential equations [5], and analysis of impulsive φ-Hilfer fractional differential equations [6]

  • We prove several important results: continuity of solutions to optimal control problems (Lemma 8), which is an application of our Gronwall’s inequality (Theorem 1); differentiability of the perturbed trajectories (Corollary 1); and a necessary optimality condition of Pontryagin type to problem (8) (Theorem 2), which happens to be an application of the results on continuity, differentiability, and integration by parts

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Summary

Introduction

Fractional Calculus, as a generalization of the traditional calculus through derivation and integration of an arbitrary order, is a rapidly growing field of mathematical research. This is important in the sense that with a general framework of operators it might be possible to establish a mathematical theory for this general formalism, rather than considering specific models with particular results In this direction, Fernandez, Özarslan and Baleanu proposed in 2019 a fractional integral operator, based on a general analytic kernel, that includes a number of existing and known operators [1]. We investigate, for the first time in the literature, optimal control problems that involve a combined Caputo fractional derivative with a general analytic kernel in the sense of Fernandez, Özarslan and Baleanu.

Preliminaries
Main Results
Gronwall’s Inequality
Applications
Sufficient Condition for Global Optimality
Conclusions
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