2021
DOI: 10.1007/s00039-021-00566-4
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Uniform Rectifiability and Elliptic Operators Satisfying a Carleson Measure Condition

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Cited by 21 publications
(14 citation statements)
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“…Under such background hypothesis, for the Laplacian, [5,11,19,26] give a characterization of ω ∈ A ∞ (σ) in terms of uniform rectifiablility of the boundary (a quantitative version of rectifiability), which is also equivalent to the fact that Ω satisfies an exterior corkscrew condition and hence Ω is a chord-arc domain. Recently, in [23] (see also [24] and [28]), these characterizations have been extended to the so-called Kenig-Pipher operators, that is, elliptic operators with variable coefficients whose gradient satisfies an L 2 -Carleson condition. On the other hand, in the setting of 1-sided chordarc domains it has been established that for general elliptic operators one can characterize ω L ∈ A ∞ (σ) in terms of the fact that all bounded null solutions satisfy Carleson estimates (cf.…”
Section: Introduction and Main Resultsmentioning
confidence: 99%
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“…Under such background hypothesis, for the Laplacian, [5,11,19,26] give a characterization of ω ∈ A ∞ (σ) in terms of uniform rectifiablility of the boundary (a quantitative version of rectifiability), which is also equivalent to the fact that Ω satisfies an exterior corkscrew condition and hence Ω is a chord-arc domain. Recently, in [23] (see also [24] and [28]), these characterizations have been extended to the so-called Kenig-Pipher operators, that is, elliptic operators with variable coefficients whose gradient satisfies an L 2 -Carleson condition. On the other hand, in the setting of 1-sided chordarc domains it has been established that for general elliptic operators one can characterize ω L ∈ A ∞ (σ) in terms of the fact that all bounded null solutions satisfy Carleson estimates (cf.…”
Section: Introduction and Main Resultsmentioning
confidence: 99%
“…Proof of Theorem 1.6 for the operators in (b). Much as in [23,Corollary 10.3] one can regularize A so that the new matrix A is one of the operators considered in (a) and, moreover, A is a Fefferman-Kenig-Pipher perturbation of A. Thus, Theorem 1.2 and the fact that we have already taken care of the operators in (a) give the desired equivalences.…”
Section: Proof Of Theorem 16mentioning
confidence: 95%
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“…Indeed, in a first attempt to generalize this to the class of Kenig-Pipher operators, Hofmann, the third author of the present paper, and Toro [31] were able to consider variable coefficients whose gradient satisfies some L 1 -Carleson condition (in turn, stronger than the one in [41]). The general case, on which the operators are in the optimal Kenig-Pipher-class (that is, the gradient of the coefficients satisfies an L 2 -Carleson condition) has been recently solved by Hofmann et al [30].…”
Section: Introductionmentioning
confidence: 99%
“…Later, Kenig, Koch, Pipher and Toro [30] applied "approximation to more general elliptic boundary value problems and proved that on any Lipschitz domain elliptic harmonic measure is A 1 equivalent to boundary surface measure. Further connections between "-approximation, Carleson measure estimates, square functions, maximal functions, and A 1 conditions for elliptic measures have been obtained on Lipschitz domains by several authors, including [13,19,28,29,33], and then on domains with Ahlfors regular boundaries by [3,[20][21][22][23], and most recently by [2,4,5,18,24,25].…”
Section: Introductionmentioning
confidence: 99%