Abstract

Motivated by the work of Boulaaras and Haiour in [7], we provide a maximum norm analysis of Schwarz alternating method for parabolic p(x)-Laplacien equation, where an optimal error analysis each subdomain between the discrete Schwarz sequence and the continuous solution of the presented problem is established

Highlights

  • The constant α is assumed to be nonnegative satisfies f is a regular function such that α

  • According to Lipschitz assumption, they proved that for each subdomain an optimal error has been estimated by applying uniform norm between the discrete Schwarz sequence and the exact solution of a nonlinear parabolic partial differential equations

  • The same approach can be extended to other types as a linear parabolic partial differential equations see [2] and singularly perturbed advection-diffusion equations using the overlapping domain decomposition method, where we applied it in a full discrete

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Summary

Nonlinear parabolic equation with function independent with solution

We consider the parabolic problem and transform it into elliptic system and give some definitions and classical results related to nonlinear elliptic equations with the function f is a regular and independent of the solution u. Where p− = min p(x) and p+ = max. Lp(·) = u : Ω → R measurable : |u(x)|p(x) dx. Parabolic p(x)-Laplacian Equation endowed with Luxembourg norm :. P(·)) is a reflexive Banach space, uniformly convex and its dual space is isomorphic to (Lp(·)(Ω), . Q(x)) where and W 1,p(x)(Ω) = {u ∈ Lp(x)(Ω), |∇u| ∈ Lp(x)(Ω)}, with the norm u = u p(x) + ∇u p(x), u ∈ W 1,p(x)(Ω). We denote by W01,p(x)(Ω) the closure of C0∞ in W 1,p(x)(Ω)

The semi-discrete of parabolic equation
Nonlinear elliptic equation
Nonlinear parabolic equation with nonlinear function
Schwarz alternating methods for parabolic equation
The discrete Schwartz sequences
Maximum norm analysis of asymptotic behavior
Iterative discrete algorithm
Asymptotic behavior
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