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

Type 2 Interval Valued Caputo Fractional Differential Equations

View through CrossRef
This paper introduces the Caputo fractional differential equation for interval valued functions. A fractional differential equation incorporates memory sense through an iterated kernel for describing dynamical systems. Impreciseness exists in the process of quantification and analysis of the involved variables influencing such physical processes. In other words, memory and imprecision may coexist, necessitating the study of an imprecise fractional differential equation. Interval numbers and interval valued functions are mathematical tools to manifest uncertainty due to the variance of decision parameters between ranges. In this paper, an imprecise fractional differential equation is studied under Type 2 interval uncertainty, a generalization of interval uncertainty. This paper analyzes conditions for the existence of a unique solution of the Type 2 interval valued Caputo fractional differential equations. Riemann–Liouville fractional integral equations and metric spaces for Type 2 interval numbers and interval valued functions are employed for establishing results. Examples of linear and nonlinear Type 2 interval valued Caputo fractional differential equations are discussed, ensuring a smooth extension of the interval fractional differential equation to a wider domain. Economic and biological models are hinted at as possible applications of this proposed theory.
World Scientific Pub Co Pte Ltd
Title: Type 2 Interval Valued Caputo Fractional Differential Equations
Description:
This paper introduces the Caputo fractional differential equation for interval valued functions.
A fractional differential equation incorporates memory sense through an iterated kernel for describing dynamical systems.
Impreciseness exists in the process of quantification and analysis of the involved variables influencing such physical processes.
In other words, memory and imprecision may coexist, necessitating the study of an imprecise fractional differential equation.
Interval numbers and interval valued functions are mathematical tools to manifest uncertainty due to the variance of decision parameters between ranges.
In this paper, an imprecise fractional differential equation is studied under Type 2 interval uncertainty, a generalization of interval uncertainty.
This paper analyzes conditions for the existence of a unique solution of the Type 2 interval valued Caputo fractional differential equations.
Riemann–Liouville fractional integral equations and metric spaces for Type 2 interval numbers and interval valued functions are employed for establishing results.
Examples of linear and nonlinear Type 2 interval valued Caputo fractional differential equations are discussed, ensuring a smooth extension of the interval fractional differential equation to a wider domain.
Economic and biological models are hinted at as possible applications of this proposed theory.

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...
Series Solution Method for Solving Sequential Caputo Fractional Differential Equations
Series Solution Method for Solving Sequential Caputo Fractional Differential Equations
Computing the solution of the Caputo fractional differential equation plays an important role in using the order of the fractional derivative as a parameter to enhance the model. I...
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...
On α-Fractional Bregman Divergence to study α-Fractional Minty’s Lemma
On α-Fractional Bregman Divergence to study α-Fractional Minty’s Lemma
In this paper fractional variational inequality problems (FVIP) and dual fractional variational inequality problems (DFVIP), Fractional minimization problems are defined with the h...
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...
On applications of Caputo k-fractional derivatives
On applications of Caputo k-fractional derivatives
Abstract This research explores Caputo k-fractional integral inequalities for functions whose nth order derivatives are absolutely continuous and possess Grüss type v...
On Λ-Fractional fluid mechanics
On Λ-Fractional fluid mechanics
Λ-fractional analysis has already been presented as the only fractional analysis conforming with the Differential Topology prerequisites. That is, the Leibniz rule and chain rule d...
Bernstein Polynomials for Solving Fractional Differential Equations with Two Parameters
Bernstein Polynomials for Solving Fractional Differential Equations with Two Parameters
This work presents a general framework for solving generalized fractional differential equations based on operational matrices of the generalized Bernstein polynomials. This method...

Back to Top