On global instability of solutions to hyperbolic equations with non-Lipschitz nonlinearity

IF 0.5 Q3 MATHEMATICS Ufa Mathematical Journal Pub Date : 2017-01-01 DOI:10.13108/2017-9-4-44
Y. Il'yasov, E. E. Kholodnov
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引用次数: 1

Abstract

In a bounded domain Ω ⊂ Rn, we consider the following hyperbolic equation {︃ vtt = Δpv + λ|v|p−2v − |v|α−2v, x ∈ Ω, v ⃒⃒ ∂Ω = 0. We assume that 1 < α < p < +∞; this implies that the nonlinearity in the right hand side of the equation is of a non-Lipschitz type. As a rule, this type of nonlinearity prevent us from applying standard methods from the theory of nonlinear differential equations. An additional difficulty arises due to the presence of the p-Laplacian Δp(·) := div(|∇(·)|p−2∇(·)) in the equation. In the first result, the theorem on the existence of the so-called stationary ground state of the equation is proved. The proof of this result is based on the Nehari manifold method. In the main result of the paper we state that each stationary ground state is unstable globally in time. The proof is based on the development of an approach by Payne and Sattinger introduced for studying the stability of solutions to hyperbolic equations.
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非lipschitz非线性双曲型方程解的全局不稳定性
在有界域Ω∧Rn中,我们考虑如下双曲方程{︃vtt = Δpv + λ|v|p−2v−|v|α−2v, x∈Ω, v∂Ω = 0。我们假设1 < α < p < +∞;这意味着方程右侧的非线性是非lipschitz型的。通常,这种非线性使我们不能应用非线性微分方程理论中的标准方法。由于方程中存在p-拉普拉斯算子Δp(·):= div(|∇(·)|p−2∇(·)),产生了额外的困难。在第一个结果中,证明了方程中所谓稳态基态存在的定理。用Nehari流形方法证明了这一结果。在本文的主要结果中,我们指出每一个静止基态在全局时间上是不稳定的。该证明是基于Payne和Sattinger为研究双曲方程解的稳定性而引入的一种方法的发展。
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