Abstract

A delayed perturbation of the Mittag-Leffler type matrix function with logarithm is proposed. This combines the classic Mittag–Leffler type matrix function with a logarithm and delayed Mittag–Leffler type matrix function. With the help of this introduced delayed perturbation of the Mittag–Leffler type matrix function with a logarithm, we provide an explicit form for solutions to non-homogeneous Hadamard-type fractional time-delay linear differential equations. We also examine the existence, uniqueness, and Ulam–Hyers stability of Hadamard-type fractional time-delay nonlinear equations.

Highlights

  • PreliminariesLet 0 < a < b < ∞ and C [ a, b] be the Banach space of all continuous functions y : [ a, b] → Rn with the norm kykC := max {ky (t)k : t ∈ [ a, b]}

  • A delayed perturbation of the Mittag-Leffler type matrix function with logarithm is proposed

  • The unification of differential equations with delay and differential equations with fractional derivatives is provided by differential equations including both delay and non-integer derivatives, so called time-delay fractional differential equations

Read more

Summary

Preliminaries

Let 0 < a < b < ∞ and C [ a, b] be the Banach space of all continuous functions y : [ a, b] → Rn with the norm kykC := max {ky (t)k : t ∈ [ a, b]}. M-L type matrix function with two parameters eα,β (A; t) : R → Rn×n is defined by. We introduce a definition of delayed M-L type matrix function Eh,α,β (ln t) : R+ → Rn×n with logarithm generated by B. Two parameters delayed M-L type matrix function Eh,α,β (ln t) : R+ → Rn×n with logarithm generated by B is defined by. Our definition of the two-parameter delayed M-L type matrix function with logarithm differs substantially from the definition given in [33]. In order to give a definition of delayed perturbation of the M-L type matrix functions with logarithm, we introduce the following matrices Yα,β,k , k = 0, 1, 2,. According to Lemma 3 in the case AB = BA delayed M-L type function Yh,α,β (t, s) has a simple form: Ai i =0. Combining Theorems 1 and 2 together we get the following result

Existence Uniqueness and Stability
Existence Result
Example
Conclusions
Full Text
Published version (Free)

Talk to us

Join us for a 30 min session where you can share your feedback and ask us any queries you have

Schedule a call