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We generalize to the setting of 1-sided chord-arc domains, that is, to domains satisfying the interior Corkscrew and Harnack Chain conditions (these are respectively scale-invariant/quantitative versions of the openness and path-connectedness) and which have an Ahlfors regular boundary, a result of Kenig-Kirchheim-Pipher-Toro, in which Carleson measure estimates for bounded solutions of the equation L u = − div ( A ∇ u ) = 0 Lu=-\operatorname {div}(A\nabla u) = 0 with A A being a real (not necessarily symmetric) uniformly elliptic matrix imply that the corresponding elliptic measure belongs to the Muckenhoupt A ∞ A_\infty class with respect to surface measure on the boundary. We present two applications of this result. In the first one we extend a perturbation result recently proved by Cavero-Hofmann-Martell presenting a simpler proof and allowing non-symmetric coefficients. Second, we prove that if an operator L L as above has locally Lipschitz coefficients satisfying certain Carleson measure condition, then ω L ∈ A ∞ \omega _L\in A_\infty if and only if ω L ⊤ ∈ A ∞ \omega _{L^\top }\in A_\infty . As a consequence, we can remove one of the main assumptions in the non-symmetric case of a result of Hofmann-Martell-Toro and show that if the coefficients satisfy a slightly stronger Carleson measure condition the membership of the elliptic measure associated with L L to the class A ∞ A_\infty yields that the domain is indeed a chord-arc domain.
Maximal functions, Littlewood-Paley theory, \(A_\infty\) Muckenhoupt weights, Poisson kernel, elliptic measure, Green's functions for elliptic equations, Harmonic, subharmonic, superharmonic functions in higher dimensions, Harmonic analysis and PDEs, Mathematics - Analysis of PDEs, Boundary value problems for second-order elliptic equations, Harmonic analysis in several variables, Mathematics - Classical Analysis and ODEs, Classical Analysis and ODEs (math.CA), FOS: Mathematics, Carleson measures, 31B05, 35J08, 35J25, 42B99, 42B25, 42B37, Analysis of PDEs (math.AP)
Maximal functions, Littlewood-Paley theory, \(A_\infty\) Muckenhoupt weights, Poisson kernel, elliptic measure, Green's functions for elliptic equations, Harmonic, subharmonic, superharmonic functions in higher dimensions, Harmonic analysis and PDEs, Mathematics - Analysis of PDEs, Boundary value problems for second-order elliptic equations, Harmonic analysis in several variables, Mathematics - Classical Analysis and ODEs, Classical Analysis and ODEs (math.CA), FOS: Mathematics, Carleson measures, 31B05, 35J08, 35J25, 42B99, 42B25, 42B37, Analysis of PDEs (math.AP)
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