Optimal convergence rates for elliptic homogenization problems in nondivergence-form: analysis and numerical illustrations
arXiv:2009.11259 · doi:10.1137/20M137121X
Abstract
We study optimal convergence rates in the periodic homogenization of linear elliptic equations of the form subject to a homogeneous Dirichlet boundary condition. We show that the optimal rate for the convergence of to the solution of the corresponding homogenized problem in the -norm is . We further obtain optimal gradient and Hessian bounds with correction terms taken into account in the -norm. We then provide an explicit -bad diffusion matrix and use it to perform various numerical experiments, which demonstrate the optimality of the obtained rates.
arXiv comment20 pages; added Section 4.2
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- Mixed finite element approximation of periodic Hamilton--Jacobi--Bellman problems with application to numerical homogenization
- Discontinuous Galerkin and -IP finite element approximation of periodic Hamilton--Jacobi--Bellman--Isaacs problems with application to numerical homogenization
- Characterizations of diffusion matrices in homogenization of elliptic equations in nondivergence-form
- Computational multiscale methods for nondivergence-form elliptic partial differential equations
- Optimal convergence rates in stochastic homogenization in a balanced random environment