Potentials in Roumieu Classes -- 7.3 Boundary Value Problems for the Poisson Equation in Schauder Spaces -- 7.3.1 The Interior Dirichlet Problem for the Poisson Equation in Schauder Spaces -- 7.3.2 The Interior Neumann Problem for the Poisson Equation in Schauder Spaces -- 7.3.3 The Interior Robin Problem for the Poisson Equation in Schauder Spaces -- 8 A Dirichlet Problem in a Domain with a Small Hole -- 8.1 The Geometric Setting -- 8.2 A Dirichlet Problem for the Laplace Equation -- 8.3 Analysis for n≥3 -- 8.4 Analysis for n=2 -- 8.4.1 Analysis of System (8.32) -- 8.4.2 Analysis of System (8.33) -- 8.4.3 Real Analytic Representation of the Map εuε. -- 8.4.4 Some Remarks on the Logarithmic Behavior -- 8.5 How to Compute the Coefficients (in Dimension 2) -- 8.5.1 Series Expansions of (Φi[ε],Φo[ε]) and (Ψi[ε],Ψo[ε]) -- 8.5.2 Series Expansion of uε -- 8.5.3 Principal Terms in the Series Expansion of uε -- 8.5.4 Series Expansion for the Energy of uε -- 8.5.5 Series Expansions in a Circular Annulus -- 9 Other Problems with Linear Boundary Conditions in a Domain with a Small Hole -- 9.1 The Geometric Setting -- 9.2 A Mixed Boundary Value Problem for the Laplace Equation -- 9.3 A Mixed Boundary Value Problem for the Poisson Equation -- 9.4 A Steklov Eigenvalue Problem -- 9.4.1 Some Basic Facts on Steklov Eigenvaluesand Eigenfunctions -- 9.4.2 Formulation of the Steklov Problem (9.31) in Terms of Integral Equations -- 9.4.3 Real Analytic Representations for the Simple Steklov Eigenvalues and Eigenfunctions -- 10 A Dirichlet Problem in a Domain with Two Small Holes -- 10.1 The Geometric Setting -- 10.2 A Dirichlet Problem in Ω(ε1,ε2). |
10.3 Close and Moderately Close Holes in Dimension n≥3 -- 10.3.1 Moderately Close Holes in Dimension n≥3 -- 10.3.2 Close Holes in Dimension n≥3 -- 10.4 Moderately Close Holes in Dimension n=2 -- 10.4.1 Integral Representation of the Solution -- 10.4.2 Analysis of System (10.39) -- 10.4.3 Analysis of System (10.40) -- 10.4.4 The Auxiliary Functions HξΩ1, HξΩ2, and HΩox -- 10.4.5 Representation of uε1,ε2 in Terms of Analytic Maps -- 10.4.6 Asymptotic Behavior of uε1,ε2 as (ε1,ε2)(0,0) -- 11 Nonlinear Boundary Value Problems in Domains witha Small Hole -- 11.1 The Geometric Setting -- 11.2 A Nonlinear Robin Problem -- 11.2.1 Formulation of a Nonlinear Robin Problem in Terms of Integral Equations -- 11.2.2 Formulation of Problems (11.1) and (11.2) in Terms of Integral Equations -- 11.2.3 Analytic Representation for the Family { u(ε,·)}ε]0,ε'[ -- 11.2.4 Local Uniqueness of the Family { u(ε,·)}ε]0,ε0[ -- 11.2.5 Analytic Representation for the Energy Integral of the Family { u(ε,·)}ε]0,ε'[ -- 11.3 A Nonlinear Transmission Problem -- 11.3.1 Formulation of the Nonlinear Transmission Problem in Terms of Integral Equations -- 11.3.2 Analytic Representation for the Family of Solutions {(ui(ε,·),uo(ε,·))}ε]0,ε'[ -- 11.3.3 A Property of Local Uniqueness for the Family of Solutions {(ui(ε,·),uo(ε,·))}ε]0,ε'[ -- 11.3.4 Analytic Representation for the Energy Integrals of the Family of Solutions {(ui(ε,·),uo(ε,·))}ε]0,ε'[ -- 12 Boundary Value Problems in Periodic Domains, a Potential Theoretic Approach -- 12.1 A Periodic Analog of the Fundamental Solution -- 12.2 Periodic Layer Potentials for the Laplace Equation -- 12.2.1 Geometric Setting -- 12.2.2 Definition and Properties of the Periodic Layer Potentials -- 12.3 Uniqueness Results for Periodic Boundary Value Problems -- 12.4 Mapping Properties of 12I+Wq, ΩQ and 12I+Wtq, ΩQ. |