Abstract

We consider a fractional boundary value problem involving a fractional derivative with respect to a certain function g. A Hartman-Wintner-type inequality is obtained for such problem. Next, several Lyapunov-type inequalities are deduced for different choices of the function g. Moreover, some applications to eigenvalue problems are presented.

Highlights

  • In this work, we are concerned with the following fractional boundary value problem:(Daα,gu) (t) + q (t) u (t) = 0, a < t < b, (1)u (a) = u (b) = 0, where (a, b) ∈ R2, a < b, α ∈ (1, 2), q : [a, b] → R is a continuous function, and Daα,g is the fractional derivative operator of order α with respect to a certain nondecreasing function g ∈ C1([a, b]; R) with g󸀠(x) > 0, for all x ∈ (a, b)

  • We are concerned with the following fractional boundary value problem: (Daα,gu) (t) + q (t) u (t) = 0, a < t < b, (1)

  • Several Lyapunov-type inequalities are deduced for different types of fractional derivatives

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Summary

Introduction

We are concerned with the following fractional boundary value problem:. In [8], Hartman and Wintner proved that if boundary value problem (2) has a nontrivial solution, b. Due to the positive impact of fractional calculus on several applied sciences (see, for instance, [23]), several authors investigated Lyapunov-type inequalities for various classes of fractional boundary value problems. The main result obtained in [24] is the following fractional version of Theorem 1. If fractional boundary value problem (7) has a nontrivial solution, b. If fractional boundary value problem (9) has a nontrivial solution, e λ1−α In the same paper [37], the authors formulated the following question: How to get the Lyapunov inequality for the following Hadamard fractional boundary value problem:. Note that one of our obtained results is an answer to the above question

Preliminaries
Lyapunov-Type Inequalities for Different Choices of the Function g
Applications to Eigenvalue Problems
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