Abstract:Abstract. We consider a (generally, non-coercive) mixed boundary value problem in a bounded domain D of R n for a second order elliptic differential operator A(x, ∂). The differential operator is assumed to be of divergent form in D and the boundary operator B(x, ∂) is of Robin type on ∂D. The boundary of D is assumed to be a Lipschitz surface. Besides, we distinguish a closed subset Y ⊂ ∂D and control the growth of solutions near Y . We prove that the pair (A, B) induces a Fredholm operator L in suitable weig… Show more
“…In this case the problem (2.2) is called non-coercive. However, in many situations one may successfully use non-coercive forms to study boundary value problems (see, for instance, [11], [19], [20]). We follow these examples.…”
Section: Bumentioning
confidence: 99%
“…), see, for instance, [5], [6], [2], [12], [3], [4], [8], [22] and many others. Recently the approach was adopted to a wide class of non-coercive mixed boundary problems, see [19], [20].…”
We consider Zaremba type boundary value problem for the Laplace operator in the unit circle on the complex plane. Using the theorem on the exponential representation for solutions to equations with constant coefficients we indicate a way to find eigenvalues of the problem and to construct its eigenfunctions
“…In this case the problem (2.2) is called non-coercive. However, in many situations one may successfully use non-coercive forms to study boundary value problems (see, for instance, [11], [19], [20]). We follow these examples.…”
Section: Bumentioning
confidence: 99%
“…), see, for instance, [5], [6], [2], [12], [3], [4], [8], [22] and many others. Recently the approach was adopted to a wide class of non-coercive mixed boundary problems, see [19], [20].…”
We consider Zaremba type boundary value problem for the Laplace operator in the unit circle on the complex plane. Using the theorem on the exponential representation for solutions to equations with constant coefficients we indicate a way to find eigenvalues of the problem and to construct its eigenfunctions
“…for almost all x ∈ D (see, for instance, [14]). For example, one could take the standard non-negative self-adjoint square root D(x) = A(x) of the matrix A(x).…”
We consider initial boundary value problem for uniformly 2-parabolic differential operator of second order in cylinder domain in R n with non-coercive boundary conditions. In this case there is a loss of smoothness of the solution in Sobolev type spaces compared with the coercive situation. Using by Faedo-Galerkin method we prove that problem has unique solution in special Bochner space.
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