Litcius/Paper detail

Analysis and simulation of arbitrary order shallow water and Drinfeld–Sokolov–Wilson equations: Natural transform decomposition method

Nasir Ali, Laiq Zada, Rashid Nawaz, Wasim Jamshed, Rabha W. Ibrahim, Kamel Guedri, Hamiden Abd El‐Wahed Khalifa

2023International Journal of Modern Physics B10 citationsDOI

Abstract

Within the context of fractional calculus, we investigate novel mathematical possibilities. In this context, using the fractional dispersion relations for the fractional wave equation, we explore a class of the generalized fractional wave equation numerically. Some important classes of differential equations in the theory of wave studies are Drinfeld–Sokolov–Wilson and Shallow Water equations. In this effort, the natural transform decomposition technique has been implemented to investigate the explicit result of fractional-order coupled schemes of Drinfeld–Sokolov–Wilson and Shallow Water coupled systems. The proposed method is obtained by coupling the Natural transform with the Adomian decomposition process. The current technique significantly works to find the approximate solution without any discretization or constraining parameter assumptions. The obtained numerical and graphical outcomes by the devised technique are compared with the available exact result to verify the convergence of the method. For mathematical calculations, the Mathematica software package is used.

Topics & Concepts

Adomian decomposition methodContext (archaeology)DiscretizationDecomposition method (queueing theory)Convergence (economics)Applied mathematicsPartial differential equationFractional calculusDifferential equationMathematicsComputer scienceMathematical analysisEconomic growthDiscrete mathematicsEconomicsBiologyPaleontologyFractional Differential Equations SolutionsNonlinear Waves and SolitonsAdvanced Differential Equations and Dynamical Systems