Improvements on the Leighton‐type oscillation criteria for impulsive differential equations and extension to non‐canonical case

We investigate the oscillatory behavior of solutions of second‐order linear differential equations with impulses. These equations can be categorized into two types: canonical and non‐canonical. This study examines the canonical and non‐canonical impulsive differential equations in connection with the famous Leighton‐type oscillation theorem. The well‐known theorem states that every solution of where and are continuous with , is oscillatory if and This pioneering work of Leighton has received considerable attention since its inception, and hence, it has been extended to various types of equations, including delay differential equations, dynamic equations, and impulsive differential equations. There are also studies generalizing the Leighton oscillation theorem when the condition fails, that is, when the equation is of non‐canonical type. Our work focuses on refining the Leighton oscillation theorem to treat the canonical and non‐canonical cases. By doing so, we correct, supplement, and enhance the current literature on the oscillation theory of differential equations with impulses. Examples are also given to illustrate the significance of the obtained results.

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Publication Details

Journal
Mathematical Methods in the Applied Sciences
Published
2024-11-11
DOI
https://doi.org/10.1002/mma.10605
Primary Topic
Nonlinear Differential Equations Analysis
Type
article
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article

Improvements on the Leighton‐type oscillation criteria for impulsive differential equations and extension to non‐canonical case

Sı̇bel Doğru Akgöl, A. Zafer
Mathematical Methods in the Applied Sciences
Nonlinear Differential Equations Analysis
article

Improvements on the Leighton‐type oscillation criteria for impulsive differential equations and extension to non‐canonical case

Sı̇bel Doğru Akgöl, A. Zafer
article en

Abstract

We investigate the oscillatory behavior of solutions of second‐order linear differential equations with impulses. These equations can be categorized into two types: canonical and non‐canonical. This study examines the canonical and non‐canonical impulsive differential equations in connection with the famous Leighton‐type oscillation theorem. The well‐known theorem states that every solution of where and are continuous with , is oscillatory if and This pioneering work of Leighton has received considerable attention since its inception, and hence, it has been extended to various types of equations, including delay differential equations, dynamic equations, and impulsive differential equations. There are also studies generalizing the Leighton oscillation theorem when the condition fails, that is, when the equation is of non‐canonical type. Our work focuses on refining the Leighton oscillation theorem to treat the canonical and non‐canonical cases. By doing so, we correct, supplement, and enhance the current literature on the oscillation theory of differential equations with impulses. Examples are also given to illustrate the significance of the obtained results.

Mathematical Methods in the Applied SciencesVol. 48(4)
American University of the Middle East (KW), Cukurova University (TR)
Openalex Percentile: Top 67%
Nonlinear Differential Equations Analysis
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