Bifurcation of a Limit Cycle for Planar Piecewise Smooth Quadratic Differential System via Averaging Theory

In this article, the focus is on exploring planar piecewise smooth quadratic systems, a significant class of dynamical systems that exhibit changes in behavior under different conditions but with smooth transitions between these states. The main objective is to introduce a second-order averaged method designed specifically to identify limit cycles, repeating trajectories in a system's phase space indicative of periodic behavior. This innovative method not only allows for the detection of these cycles but also quantifies their number, providing a deeper understanding of the system's long-term behavior. The paper highlights its applicability by demonstrating the maximum number of limit cycles that can exist in two distinct systems, offering valuable insights into the dynamics of such systems and contributing to the broader field of mathematical modeling and analysis.

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Publication Details

Journal
WSEAS TRANSACTIONS ON MATHEMATICS
Published
2025-03-14
DOI
https://doi.org/10.37394/23206.2025.24.10
Primary Topic
Advanced Differential Equations and Dynamical Systems
Type
article
Field-Weighted Citation Impact
0.00
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article

Bifurcation of a Limit Cycle for Planar Piecewise Smooth Quadratic Differential System via Averaging Theory

Inna Samuilik, W. W. Ahmed, Imran Shabir Chuhan, Muhammad Fahim Aslam
WSEAS TRANSACTIONS ON MATHEMATICS
Advanced Differential Equations and Dynamical Systems
article

Bifurcation of a Limit Cycle for Planar Piecewise Smooth Quadratic Differential System via Averaging Theory

Inna Samuilik, W. W. Ahmed, Imran Shabir Chuhan, Muhammad Fahim Aslam
article en

Abstract

In this article, the focus is on exploring planar piecewise smooth quadratic systems, a significant class of dynamical systems that exhibit changes in behavior under different conditions but with smooth transitions between these states. The main objective is to introduce a second-order averaged method designed specifically to identify limit cycles, repeating trajectories in a system's phase space indicative of periodic behavior. This innovative method not only allows for the detection of these cycles but also quantifies their number, providing a deeper understanding of the system's long-term behavior. The paper highlights its applicability by demonstrating the maximum number of limit cycles that can exist in two distinct systems, offering valuable insights into the dynamics of such systems and contributing to the broader field of mathematical modeling and analysis.

WSEAS TRANSACTIONS ON MATHEMATICSVol. 24
Shanxi University (CN), Daugavpils University (LV), Beijing University of Technology (CN), Al-Khair University (PK)
Openalex Percentile: Top 91%
Advanced Differential Equations and Dynamical Systems
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