Abstract

By using the lower and upper solution method, the existence of an iterative solution for a class of fractional periodic boundary value problems, $$\begin{aligned}& D_{0+}^{\alpha}u(t)=f\bigl(t, u(t)\bigr),\quad t \in(0, h),\\& \lim_{t \to0^{+}}t^{1-\alpha}u(t) = h^{1-\alpha}u(h), \end{aligned}$$ is discussed, where $0< h<+\infty$ , $f\in C([0, h]\times R, R)$ , $D_{0+}^{\alpha}u (t) $ is the Riemann-Liouville fractional derivative, $0<\alpha< 1$ . Different from other well-known results, a new condition on the nonlinear term is given to guarantee the equivalence between the solution of the periodic boundary value problem and the fixed point of the corresponding operator. Moreover, the existence of extremal solutions for the problem is given.

Highlights

  • 1 Introduction Differential equations of fractional order have played a significant role in engineering, science, and pure and applied mathematics in recent years

  • In [ ], by using the fixed point theorem of Schaeffer and the Banach contraction principle, Belmekki et al obtained the Green’s function and gave some existence results for the nonlinear fractional periodic problem

  • In [ ], Wei et al discussed the properties of the well-known Mittag-Leffler function, and consider the existence and uniqueness of the solution of the periodic boundary value problem for a fractional differential equation involving a Riemann-Liouville fractional derivative

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Summary

Introduction

Differential equations of fractional order have played a significant role in engineering, science, and pure and applied mathematics in recent years. Some researchers paid attention to the existence results of the solution of the periodic boundary value problem for fractional differential equations, such as [ – ]. In [ ], Wei et al discussed the properties of the well-known Mittag-Leffler function, and consider the existence and uniqueness of the solution of the periodic boundary value problem for a fractional differential equation involving a Riemann-Liouville fractional derivative

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