Complex Generalized Representation of Gamma Function Leading to the Distributional Solution of a Singular Fractional Integral Equation

Abstract

Firstly, a basic question to find the Laplace transform using the classical representation of gamma function makes no sense because the singularity at the origin nurtures so rapidly that Γze−sz cannot be integrated over positive real numbers. Secondly, Dirac delta function is a linear functional under which every function f is mapped to f(0). This article combines both functions to solve the problems that have remained unsolved for many years. For instance, it has been demonstrated that the power law feature is ubiquitous in theory but challenging to observe in practice. Since the fractional derivatives of the delta function are proportional to the power law, we express the gamma function as a complex series of fractional derivatives of the delta function. Therefore, a unified approach is used to obtain a large class of ordinary, fractional derivatives and integral transforms. All kinds of q-derivatives of these transforms are also computed. The most general form of the fractional kinetic integrodifferential equation available in the literature is solved using this particular representation. We extend the models that were valid only for a class of locally integrable functions to a class of singular (generalized) functions. Furthermore, we solve a singular fractional integral equation whose coefficients have infinite number of singularities, being the poles of gamma function. It is interesting to note that new solutions were obtained using generalized functions with complex coefficients.

New Inequalities Using Multiple Erdélyi–Kober Fractional Integral Operators

“…As a result, as was discussed in Section 2 of this article, these inequalities can be reduced in terms of the other non-trivial integral inequalities involving Saigo, M-S-M, R-L [5,10], and so forth. M-E-K fractional integral operators have been effectively used by authors to investigate a novel special function representation [29,30]. These operators' smart characteristics compel us to look at more outcomes for them including the classes of differential and integral equations, geometric function theory, special functions, integral transformations, and operational calculus.…”