具有垂直耗散的不可压3D Boussinesq方程组的粘性消失极限问题
The Vanishing Viscosity Limit Problem for the Incompressible 3D Boussinesq Equations with Vertical Dissipation
摘要: 三维Boussinesq方程组在地球物理科学中占据核心地位。本文研究了半平面 ℝ + 3 中具有垂直粘性耗散和Navier边界条件的三维不可压Boussinesq方程组的粘性消失极限问题。通过构造高阶近似解,结合共形Sobolev空间中的线性稳定性分析和非线性项估计,证明了当粘性系数 ε→0 ,系统的解在 L 2 和 L ∞ 范数下收敛到理想三维Boussinesq系统的解,收敛速度为 Ο( ε ) 。
Abstract: The three-dimensional Boussinesq equations occupy a central position in geophysical science. In this paper, we investigate the vanishing viscosity limit problem for the three-dimensional incompressible Boussinesq equations with vertical viscous dissipation and Navier boundary conditions in the half-space ℝ + 3 By constructing high-order approximate solutions and combining linear stability analysis in conformal Sobolev spaces with nonlinear estimates, we prove that as the viscosity coefficient ε→0 the solutions of the system converge to the solutions of the ideal three-dimensional Boussinesq system in both the L 2 and L ∞ norms, with a convergence rate of Ο( ε ) .
文章引用:陈婧. 具有垂直耗散的不可压3D Boussinesq方程组的粘性消失极限问题[J]. 理论数学, 2026, 16(4): 123-135. https://doi.org/10.12677/pm.2026.164097

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