2022
DOI: 10.48550/arxiv.2203.07992
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Carleson Perturbations for the Regularity Problem

Abstract: We prove that the solvability of the regularity problem in L q (∂Ω) is stable under Carleson perturbations. If the perturbation is small, then the solvability is preserved in the same L q , and if the perturbation is large, the regularity problem is solvable in L r for some other r ∈ (1, ∞). We extend an earlier result from Kenig and Pipher to very general unbounded domains, possibly with lower dimensional boundaries as in the theory developed by Guy David and the last two authors. To be precise, we only need … Show more

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Cited by 2 publications
(2 citation statements)
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“…Corollary 1.22 fully answers the question of the solvability of (R L p ) for some p > 1 when L is a DKP operator on a bounded rough domain, but we mention again that this problem had been open even when Ω is the unit ball. If in addition to the hypothesis of Corollary 1.22 we have that Ω satisfies the Harnack chain condition, then Ω is a chord-arc domain [AHMNT17] (see Section 2.1.2 for definitions), and in this case we can use the theory of Carleson perturbations for the regularity problem [KP95,DFM] to deduce the following improvement to Corollary 1.22.…”
Section: Hu Dmmentioning
confidence: 99%
“…Corollary 1.22 fully answers the question of the solvability of (R L p ) for some p > 1 when L is a DKP operator on a bounded rough domain, but we mention again that this problem had been open even when Ω is the unit ball. If in addition to the hypothesis of Corollary 1.22 we have that Ω satisfies the Harnack chain condition, then Ω is a chord-arc domain [AHMNT17] (see Section 2.1.2 for definitions), and in this case we can use the theory of Carleson perturbations for the regularity problem [KP95,DFM] to deduce the following improvement to Corollary 1.22.…”
Section: Hu Dmmentioning
confidence: 99%
“…Finally, we give one reference for the perturbation results for the Regularity theory that are needed. There were several advances in perturbation in rougher domains than Lipschitz, but the latest one can be found in [9]. There, the authors show that the solvability of the Dirichlet problem for an operator L 1 which is a Carleson perturbation of L 0 , leads to a comparison of the nontangential maximal function of gradients of solutions with the same boundary values.…”
Section: Weaker Geometric Conditions On the Boundary Of The Domainmentioning
confidence: 99%