A unified topological analysis of variable growth Kirchhoff-type equations

Abstract We consider the nonlocal differential equation \begin{equation*} -A\left(\int_0^1b(1-s)\big(u(s)\big)^{p(s)}\ ds\right)u''(t)=\lambda f\big(t,u(t)\big)\text{, }t\in(0,1), \end{equation*} which is a one-dimensional Kirchhoff-like equation with a nonlocal convolution coefficient. The novelty of our work involves allowing a variable growth term in the nonlocal coefficient. By relating the variable growth problem to a constant growth problem, we are able to deduce the existence of at least one positive solution to the differential equation when equipped with boundary data. Our methodology relies on topological fixed point theory. Because our results treat both the convex and concave regimes, together with both the variable growth and constant growth regimes, our results provide a unified framework for one-dimensional Kirchhoff-type problems.

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Publication Details

Journal
Proceedings of the Royal Society of Edinburgh Section A Mathematics
Published
2025-09-09
DOI
https://doi.org/10.1017/prm.2025.10073
Primary Topic
Advanced Mathematical Modeling in Engineering
Type
article
Field-Weighted Citation Impact
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article

A unified topological analysis of variable growth Kirchhoff-type equations

Christopher S. Goodrich, Gabriel Nakhl
Proceedings of the Royal Society of Edinburgh Section A Mathematics
Advanced Mathematical Modeling in Engineering
article

A unified topological analysis of variable growth Kirchhoff-type equations

Christopher S. Goodrich, Gabriel Nakhl
article en

Abstract

Abstract We consider the nonlocal differential equation \begin{equation*} -A\left(\int_0^1b(1-s)\big(u(s)\big)^{p(s)}\ ds\right)u''(t)=\lambda f\big(t,u(t)\big)\text{, }t\in(0,1), \end{equation*} which is a one-dimensional Kirchhoff-like equation with a nonlocal convolution coefficient. The novelty of our work involves allowing a variable growth term in the nonlocal coefficient. By relating the variable growth problem to a constant growth problem, we are able to deduce the existence of at least one positive solution to the differential equation when equipped with boundary data. Our methodology relies on topological fixed point theory. Because our results treat both the convex and concave regimes, together with both the variable growth and constant growth regimes, our results provide a unified framework for one-dimensional Kirchhoff-type problems.

Proceedings of the Royal Society of Edinburgh Section A Mathematics
UNSW Sydney (AU)
Openalex Percentile: Top 74%
Advanced Mathematical Modeling in Engineering
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