Abstract

The Sawada-Kotera equations illustrate the non-linear wave phenomena in shallow water, ion-acoustic waves in plasmas, fluid dynamics, etc. In this article, the two-mode Sawada-Kotera equation (tmSKE) occurring in fluid dynamics is considered which is important model equations for shallow water waves, the capillary waves, the waves of foam density, the electro-hydro-dynamical model. The improved F-expansion and generalized exp $(-\phi (\zeta))$ -expansion methods are utilized in this model and abundant of solitary wave solutions of different kinds such as bright and dark solitons, multi-peak soliton, breather type waves, periodic solutions, and other wave results are obtained. These achieved novel solitary and other wave results have significant applications in fluid dynamics, applied sciences and engineering. By granting appropriate values to parameters, the structures of few results are presented in which many structures are novel. The graphical moments of the results are provided to signify the impact of the parameters. To explain the novelty between the present results and the previously attained results, a comparative study has been carried out. The restricted conditions are also added on solutions to avoid singularities. Furthermore, the executed techniques can be employed for further studies to explain the realistic phenomena arising in fluid dynamics correlated with any physical and engineering problems.

Highlights

  • T HE dynamic complexity of physical phenomena in the real world can be expressed by the changes in temporal and spatial events

  • PORTRAYAL OF PROPOSED METHODS Here, we reveal the algorithms of suggested techniques namely as improved F-expansion and generalized exp(−φ(ζ))-expansion methods for constructing the wave results of two-mode Sawada-Kotera model

  • The Sawada-Kotera equations illustrating the non-linear wave phenomena in shallow water, ion-acoustic waves in plasmas, fluid dynamics, etc., and two-mode Sawada-Kotera equation (tmSKE) arising in fluid dynamics is addressed in this article

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Summary

Introduction

T HE dynamic complexity of physical phenomena in the real world can be expressed by the changes in temporal and spatial events. The nonlinear PDEs are utilized for expressing various physical phenomena in the real world to get an insight through qualitative and quantitative features of many models that arise in diverse fields. The finding wave results of all kinds of PDEs are a major problem, such as the present direction of non-linear science, which originated from the research of chemistry, physics, material science, biology, and many more, and has a burly practical backdrop. They have significant realistic applications and theoretical study in mathematics

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