Stability for the 2D magnetic Bénard system with partial dissipation and thermal damping near an equilibrium

In this paper, we focus on the Boussinesq equations with magnetohydrodynamics convection, in which the temperature obeys degenerate damped wave equations. Under the influence of an equilibrium, we prove that the 2D magnetic Bénard system remains stable in the whole space . In particular, we obtain the decay rate and large‐time behavior. Without the coupling, the 2D MHD system with only vertical dissipation is not known to be stable. It is revealed that both the thermal damping and the horizontal background magnetic field are indispensable.

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Publication Details

Journal
Mathematical Methods in the Applied Sciences
Published
2024-11-12
DOI
https://doi.org/10.1002/mma.10611
Citations
1
Primary Topic
Navier-Stokes equation solutions
Type
article
Field-Weighted Citation Impact
0.97

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article

Stability for the 2D magnetic Bénard system with partial dissipation and thermal damping near an equilibrium

Jingjing Mao
1 citations
Mathematical Methods in the Applied Sciences
Navier-Stokes equation solutions
0.97
article

Stability for the 2D magnetic Bénard system with partial dissipation and thermal damping near an equilibrium

Jingjing Mao
article en
1 citations

Abstract

In this paper, we focus on the Boussinesq equations with magnetohydrodynamics convection, in which the temperature obeys degenerate damped wave equations. Under the influence of an equilibrium, we prove that the 2D magnetic Bénard system remains stable in the whole space . In particular, we obtain the decay rate and large‐time behavior. Without the coupling, the 2D MHD system with only vertical dissipation is not known to be stable. It is revealed that both the thermal damping and the horizontal background magnetic field are indispensable.

Mathematical Methods in the Applied SciencesVol. 48(5)
Chinese Academy of Sciences (CN), Academy of Mathematics and Systems Science (CN)
China Postdoctoral Science Foundation
Openalex Percentile: Top 23%
Navier-Stokes equation solutions
0.97
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