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2011
DOI: 10.1080/00036811.2011.602635
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Averaging of variational inequalities for the Laplacian with nonlinear restrictions along manifolds

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Cited by 21 publications
(25 citation statements)
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References 13 publications
(4 reference statements)
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“…[17] considers a boundary value problem for the p-Laplacian for the particular relation α = (n − 1)/(n − p) and κ = (p − 1)(n − 1)/(n − p). Here, we complete the results in [6,7] when p = 2 and extend them for the p-Laplacian and for all the possible relations between parameters. We refer to [5,7] for an extensive bibliography on variational inequalities in homogenization problems and to [4,5] for that on applications of the p-Laplacian to different models arising, e.g., in Newtonian fluids, glaciology and flows through porous media.…”
Section: Introductionmentioning
confidence: 78%
See 1 more Smart Citation
“…[17] considers a boundary value problem for the p-Laplacian for the particular relation α = (n − 1)/(n − p) and κ = (p − 1)(n − 1)/(n − p). Here, we complete the results in [6,7] when p = 2 and extend them for the p-Laplacian and for all the possible relations between parameters. We refer to [5,7] for an extensive bibliography on variational inequalities in homogenization problems and to [4,5] for that on applications of the p-Laplacian to different models arising, e.g., in Newtonian fluids, glaciology and flows through porous media.…”
Section: Introductionmentioning
confidence: 78%
“…In fact, similar geometrical configurations for linear and nonlinear boundary value problems, as well as for variational inequalities, have been considered in many previous papers for operators different from the p-Laplacian (cf. [1,6,7,8,9,16,17,23] for further references). Comparing with the present paper, [23] studies variational inequalities for the biharmonic operator; [1,8,9,16,17] consider the Laplace operator and linear problems; [1] contains an extra advection term related with the flow velocity; [6,7] consider variational inequalities for the Laplace operator for certain relations between κ and α.…”
Section: Introductionmentioning
confidence: 99%
“…We focus on the possible change of character of the partial differential equation from linear to nonlinear and from nonlinear with an averaged term containing the given function .x, u/ to the very particular case (the most critical situation) of the averaged term containing the nonlinear function H.x, u/ defined implicitly from through (35). These kinds of changes have been already detected in several papers for the case of perforations that are balls along N 1 dimensional manifolds with N 1, but with the averaged term arising in the equation on the manifold: in this connection, we refer to [2] and [3] for variational inequalities, [1] and [4] for nonlinear equations, and [1,5] and [6] for associated spectral problems.…”
Section: Introductionmentioning
confidence: 82%
“…We also note that the above mentioned fact (on the double contribution for the strange term) has already been detected in [17,23] for variational inequalities for the Laplacian (p = 2) in perforated media depending on whether the perforations are placed over the whole domain or along a manifold. We mention [17] for an extensive bibliography on variational inequalities in homogenization problems.…”
Section: The Homogenized Problemsmentioning
confidence: 96%
“…We mention [17] for an extensive bibliography on variational inequalities in homogenization problems. Also, [21] should be mentioned as the first work in the literature where a nonlinear strange term appears defined implicitly via a functional equation, and [24,25] as works which consider for the first time homogenization problems for the Laplace operator and semilinear boundary conditions leaving as an open question the most critical case (namely, the one homologous to the big point in Figure 2 when p = 2), problem which remained unsolved for a long time even for the Laplace operator (cf.…”
Section: The Homogenized Problemsmentioning
confidence: 99%