Search engine for discovering works of Art, research articles, and books related to Art and Culture
ShareThis
Javascript must be enabled to continue!

Third-Order Differential Subordinations Using Fractional Integral of Gaussian Hypergeometric Function

View through CrossRef
Sanford S. Miller and Petru T. Mocanu’s theory of second-order differential subordinations was extended for the case of third-order differential subordinations by José A. Antonino and Sanford S. Miller in 2011. In this paper, new results are proved regarding third-order differential subordinations that extend the ones involving the classical second-order differential subordination theory. A method for finding a dominant of a third-order differential subordination is provided when the behavior of the function is not known on the boundary of the unit disc. Additionally, a new method for obtaining the best dominant of a third-order differential subordination is presented. This newly proposed method essentially consists of finding the univalent solution for the differential equation that corresponds to the differential subordination considered in the investigation; previous results involving third-order differential subordinations have been obtained mainly by investigating specific classes of admissible functions. The fractional integral of the Gaussian hypergeometric function, previously associated with the theory of fuzzy differential subordination, is used in this paper to obtain an interesting third-order differential subordination by involving a specific convex function. The best dominant is also provided, and the example presented proves the importance of the theoretical results involving the fractional integral of the Gaussian hypergeometric function.
Title: Third-Order Differential Subordinations Using Fractional Integral of Gaussian Hypergeometric Function
Description:
Sanford S.
Miller and Petru T.
Mocanu’s theory of second-order differential subordinations was extended for the case of third-order differential subordinations by José A.
Antonino and Sanford S.
Miller in 2011.
In this paper, new results are proved regarding third-order differential subordinations that extend the ones involving the classical second-order differential subordination theory.
A method for finding a dominant of a third-order differential subordination is provided when the behavior of the function is not known on the boundary of the unit disc.
Additionally, a new method for obtaining the best dominant of a third-order differential subordination is presented.
This newly proposed method essentially consists of finding the univalent solution for the differential equation that corresponds to the differential subordination considered in the investigation; previous results involving third-order differential subordinations have been obtained mainly by investigating specific classes of admissible functions.
The fractional integral of the Gaussian hypergeometric function, previously associated with the theory of fuzzy differential subordination, is used in this paper to obtain an interesting third-order differential subordination by involving a specific convex function.
The best dominant is also provided, and the example presented proves the importance of the theoretical results involving the fractional integral of the Gaussian hypergeometric function.

Related Results

Solving Undamped and Damped Fractional Oscillators via Integral Rohit Transform
Solving Undamped and Damped Fractional Oscillators via Integral Rohit Transform
Background: The dynamics of fractional oscillators are generally described by fractional differential equations, which include the fractional derivative of the Caputo or Riemann-Li...
Odd version Mathieu-Gaussian beam based on Green function
Odd version Mathieu-Gaussian beam based on Green function
Like the theoretical pattern of non-diffracting Bessel beams, ideal non-diffracting Mathieu beams also carry infinite energy, but cannot be generated as a physically realizable ent...
ON THE CONSTRUCTION OF (p,k)-HYPERGEOMETRIC FUNCTION AND APPLICATIONS
ON THE CONSTRUCTION OF (p,k)-HYPERGEOMETRIC FUNCTION AND APPLICATIONS
In this paper, we construct a [Formula: see text]-hypergeometric function by using the Hadamard product, which we call the generalized [Formula: see text]-hypergeometric function. ...
Soham Transform in Fractional Differential Equations
Soham Transform in Fractional Differential Equations
Objectives: Soham transforms is one of the appropriate tools for solving fractional differential equations that are flexible enough to adapt to different purposes. Methods: Integra...
Λ-fractional Analysis. Basic Theory and Applications
Λ-fractional Analysis. Basic Theory and Applications
Fractional Analysis is a mathematical method based on different principles from those governing the well-known mathematical principles of differential and integral calculus. The ma...
Gohar Fractional Derivative: Theory and Applications
Gohar Fractional Derivative: Theory and Applications
The local fractional derivatives marked the beginning of a new era in fractional calculus. Due to their that have never been observed before in the field, they are able to fill in ...
Several fractional integral formulas and integral transforms of the hypergeometric supercosine function
Several fractional integral formulas and integral transforms of the hypergeometric supercosine function
In this paper, we propose fractional integral formulas of the hypergeometric supercosine involving Gauss hypergeometric series, derived from the Riemann- -Liouville, Erdelyi-...
Analysis of Fractional-Order Physical Models via Shehu Transform
Analysis of Fractional-Order Physical Models via Shehu Transform
In this study, an innovative analytical analysis of fractional-order partial differential equations is presented by Shehu transformation method. Fractional-order differential equat...

Back to Top