Abstract

We introduce a truncated $M$-fractional derivative type for $\alpha$-differentiable functions that generalizes four other fractional derivatives types recently introduced by Khalil et al., Katugampola and Sousa et al., the so-called conformable fractional derivative, alternative fractional derivative, generalized alternative fractional derivative and $M$-fractional derivative, respectively. We denote this new differential operator by $_{i}\mathscr{D}_{M}^{\alpha,\beta }$, where the parameter $\alpha$, associated with the order of the derivative is such that $ 0 0$ and $ M $ is the notation to designate that the function to be derived involves the truncated Mittag-Leffler function with one parameter. The definition of this truncated $M$-fractional derivative type satisfies the properties of the integer-order calculus. We also present, the respective fractional integral from which emerges, as a natural consequence, the result, which can be interpreted as an inverse property. Finally, we obtain the analytical solution of the $M$-fractional heat equation and present a graphical analysis.

Highlights

  • The non integer-order calculus or fractional calculus, as it is largely diffused, is as important and ancient as the integer-order calculus, and for many years the scientific community didn’t know it

  • This paper is organized as follows: in section 2, our main result, we introduce the concept of truncated M -fractional derivative type involving a truncated Mittag-Leffler function, as well as several theorems

  • We will discuss the relationship between the fractional conformable derivative proposed by Khalil et al [7], the alternative fractional derivative and the generalized alternative fractional derivative proposed by Katugampola [8] and the M -fractional derivative proposed by Sousa and Oliveira [9], with our truncated M -fractional derivative type

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Summary

Introduction

The non integer-order calculus or fractional calculus, as it is largely diffused, is as important and ancient as the integer-order calculus, and for many years the scientific community didn’t know it. Natural systems over time, become more complex and more than differential equations, provides a rough and simplified description of the actual process, it is necessary that new and more refined mathematical tools are presented and studied. In this sense, fractional derivatives are used to propose modeling in order to obtain more precise results in the studies and applications involving differential equations [11]. This paper is organized as follows: in section 2, our main result, we introduce the concept of truncated M -fractional derivative type involving a truncated Mittag-Leffler function, as well as several theorems.

Truncated M -fractional derivative type
Relation with other fractional derivatives types
Application
Concluding remarks
Full Text
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