2015
DOI: 10.1002/mma.3484
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Elliptic and parabolic regularity for second‐ order divergence operators with mixed boundary conditions

Abstract: Communicated by M. DaugeWe study second-order equations and systems on non-Lipschitz domains including mixed boundary conditions. The key result is interpolation for suitable function spaces. From this, elliptic and parabolic regularity results are deduced by means of Šneȋberg's isomorphism theorem.

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Cited by 34 publications
(47 citation statements)
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“…We close this gap by establishing a full interpolation theory under geometric assumptions in the spirit of what has become standard for treating mixed boundary value problems [3,8,17,24]. In particular, we confirm the formula for the complex interpolation spaces that was conjectured in connection with fractional powers of divergence form operators in [3,Rem.…”
Section: Introduction and Main Resultssupporting
confidence: 65%
See 1 more Smart Citation
“…We close this gap by establishing a full interpolation theory under geometric assumptions in the spirit of what has become standard for treating mixed boundary value problems [3,8,17,24]. In particular, we confirm the formula for the complex interpolation spaces that was conjectured in connection with fractional powers of divergence form operators in [3,Rem.…”
Section: Introduction and Main Resultssupporting
confidence: 65%
“…This leads to the problem of identifying such interpolation spaces in the presence of rough boundaries to the fractional Sobolev-and Bessel potential spaces, in analogy with what is long known for function spaces on R d or on smooth domains with pure Dirichet boundary condition [6,36,40]. Interpolation theory related to the spaces W 1,p D (O) has recently been studied in [3,4,8,15,19,24], but mostly with a focus on interpolating with respect to integrability. Interpolation in differentiability appears only in [4,15] for p = 2 and in [19] for general p on certain model sets.…”
Section: Introduction and Main Resultsmentioning
confidence: 99%
“…Hence, establishing the existence of a solution to the variational problem (3.4) is equivalent to showing that the operator T R n : X p (R n ) → X ′ p ′ (R n ) is an isomorphism (see also [11,Proposition 7.2], [30,Theorem 5.6], and [53, Theorem 3.1] for the standard Stokes system).…”
Section: )mentioning
confidence: 99%
“….3],[30, Theorem 5.6],[53, Theorem 3.1]).Consequently, whenever condition (3.3) holds and for all given data (ξ, ζ) ∈ H −1 p (R n ) n × L p (R n ), there exists a unique solution (u, π) ∈ H 1 p (R n ) n × L p (R n ) of the equation T R n (u, π) = (ξ, ζ) or, equivalently, of the variational problem (3.4), satisfying inequality (3.5).Next we use Lemma 3.1 and show the well-posedness of the L ∞ -coefficient Stokes system in the space H 1 p (R n ) n × L p (R n ) for any p ∈ R(p * , n) (cf [38,. Theorem 4.2] for p = 2 with A(x) = µ(x)I, [42, Proposition 2.9] and [2, Theorem 3] for p ∈ (1, n) in the constant-coefficient case).…”
mentioning
confidence: 99%
“…The existence of p > 2 was proved in the work of Meyers. 12 See the work of Haller-Dintelmann et al 22 for advanced recent progresses on the topic. Lemma 7.…”
Section: The Hoelder Exponent In Three Dimensionsmentioning
confidence: 99%