Nodal solutions for Neumann systems with gradient dependence
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2024
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| author | Saoudi, Kamel Alzahrani, Eadah Repovš, Dušan D. |
| author_facet | Saoudi, Kamel Alzahrani, Eadah Repovš, Dušan D. |
| contents | We consider the following convective Neumann systems:\begin{equation*}\left(\mathrm{S}\right)\qquad\left\{\begin{array}{ll}-Δ_{p_1}u_1+\frac{|\nabla u_1|^{p_1}}{u_1+δ_1}=f_1(x,u_1,u_2,\nabla u_1,\nabla u_2) & \text{in}\;Ω,\\ -Δ_{p_2}u_2+\frac{|\nabla u_2|^{p_2}}{u_2+δ_2}=f_2(x,u_1,u_2,\nabla u_1,\nabla u_2)&\text{in}\;Ω, \\ |\nabla u_1|^{p_1-2}\frac{\partial u_1}{\partial η}=0=|\nabla u_2|^{p_2-2}\frac{\partial u_2}{\partial η}&\text{on}\;\partialΩ,\end{array}\right.\end{equation*}where $Ω$ is a bounded domain in $\mathbb{R}^{N}$ ($N\geq 2$) with a smooth boundary $\partialΩ$,$δ_1,\,δ_2 >0$ are small parameters, $η$ is the outward unit vector normal to $\partial Ω,$ $f_1,\,f_2:Ω\times\mathbb{R}^2\times\mathbb{R}^{2N}\rightarrow \mathbb{R}$ are Carathéodory functions that satisfy certain growth conditions, and $Δ_{p_i}$ ($1<p_i<N,$ for $i=1,2$) are the $p$-Laplace operators $Δ_{p_i}u_i=\mathrm{div}(|\nabla u_i|^{p_i-2}\nabla u_i)$,for every $\,u_i\in W^{1,p_i}(Ω).$ In order to prove the existence of solutions to such systems, we use a sub-supersolution method. We also obtain nodal solutions by constructing appropriate sub-solution and super-solution pairs. To the best of our knowledge, such systems have not been studied yet. |
| format | Preprint |
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arxiv_https___arxiv_org_abs_2401_01213 |
| institution | arXiv |
| publishDate | 2024 |
| record_format | arxiv |
| spellingShingle | Nodal solutions for Neumann systems with gradient dependence Saoudi, Kamel Alzahrani, Eadah Repovš, Dušan D. Analysis of PDEs 35J62, 35J92 We consider the following convective Neumann systems:\begin{equation*}\left(\mathrm{S}\right)\qquad\left\{\begin{array}{ll}-Δ_{p_1}u_1+\frac{|\nabla u_1|^{p_1}}{u_1+δ_1}=f_1(x,u_1,u_2,\nabla u_1,\nabla u_2) & \text{in}\;Ω,\\ -Δ_{p_2}u_2+\frac{|\nabla u_2|^{p_2}}{u_2+δ_2}=f_2(x,u_1,u_2,\nabla u_1,\nabla u_2)&\text{in}\;Ω, \\ |\nabla u_1|^{p_1-2}\frac{\partial u_1}{\partial η}=0=|\nabla u_2|^{p_2-2}\frac{\partial u_2}{\partial η}&\text{on}\;\partialΩ,\end{array}\right.\end{equation*}where $Ω$ is a bounded domain in $\mathbb{R}^{N}$ ($N\geq 2$) with a smooth boundary $\partialΩ$,$δ_1,\,δ_2 >0$ are small parameters, $η$ is the outward unit vector normal to $\partial Ω,$ $f_1,\,f_2:Ω\times\mathbb{R}^2\times\mathbb{R}^{2N}\rightarrow \mathbb{R}$ are Carathéodory functions that satisfy certain growth conditions, and $Δ_{p_i}$ ($1<p_i<N,$ for $i=1,2$) are the $p$-Laplace operators $Δ_{p_i}u_i=\mathrm{div}(|\nabla u_i|^{p_i-2}\nabla u_i)$,for every $\,u_i\in W^{1,p_i}(Ω).$ In order to prove the existence of solutions to such systems, we use a sub-supersolution method. We also obtain nodal solutions by constructing appropriate sub-solution and super-solution pairs. To the best of our knowledge, such systems have not been studied yet. |
| title | Nodal solutions for Neumann systems with gradient dependence |
| topic | Analysis of PDEs 35J62, 35J92 |
| url | https://arxiv.org/abs/2401.01213 |