Abstract

In this paper, we examine the consequences of existence, uniqueness and stability of a multi-point boundary value problem defined by a system of coupled fractional differential equations involving Hadamard derivatives. To prove the existence and uniqueness, we use the techniques of fixed point theory. Stability of Hyers-Ulam type is also discussed. Furthermore, we investigate variations of the problem in the context of different boundary conditions. The current results are verified by illustrative examples.

Highlights

  • Due to its broad applications in mathematical modeling of many complex and non-local nonlinear systems, fractional calculus has emerged as an important field of investigation

  • The Hadamard fractional derivative contains a logarithmic function of an arbitrary exponent in the integral kernel, which appears in its description

  • We extend the boundary value problem of Wang et al [36] to nonlinear coupled system of Hadamard fractional differential equations having the Hadamard derivative value of the unknown function at T is propositional to the sum of Hadamard integral values of the unknown function on the strips (1, υ), (1, θ ) and multi-points values of the unknown functions with different strip lengths (1, υ), (1, θ ) and with different multipoint δj, γj, j = 1, 2, . . . , k – 2

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Summary

Open Access

Uniqueness and stability analysis of a coupled fractional-order differential systems involving Hadamard derivatives and associated with multi-point boundary conditions.

Introduction
Subramanian et al Advances in Difference Equations
The Hadamard derivative of fractional order for a function h
Likewise we obtain
Note that
The two above inequalities contribute to the assumption that
It follows that
Discussion
Supporting informations
Full Text
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