Hilbert space

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Noun1.Hilbert space - a metric space that is linear and complete and (usually) infinite-dimensional
metric space - a set of points such that for every pair of points there is a nonnegative real number called their distance that is symmetric and satisfies the triangle inequality
Translations
HilbertraumHilbert-Raum
Hilbertin avaruus
espace de Hilbert
Hilbert-tér
spazio di Hilbertspazio hilbertiano
ヒルベルト空間
Hilbertrum
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References in periodicals archive ?
2] and called the topological tensor product of the Hilbert spaces [H.
offer more than 100 exercise while covering linear spaces, topological spaces, metric spaces, normed linear spaces and Banach spaces, inner product spaces and Hilbert spaces, linear functionals, types of convergence in function space, reproducing kernel Hilbert spaces, order relations in function spaces, operators in function space, completely continuous operators, approximation methods for linear operator equations, interval methods for operator equations, contraction mappings and iterative methods, Newton's method in Banach spaces, variants of Newton's methods, and homotopy and continuation methods and a hybrid method for a free-boundary problem.
Harmonic Hilbert spaces were introduced as an extension of periodic Hilbert spaces introduced by Babuska [1] to the non-periodic case [6].
His chapters could also serve professionals needing specific information or reminders as he covers infinite sequences and series, finite-dimensional vector spaces, geometry in physics, functions of a complex variable, differential equations and related analytical methods, Hilbert spaces, linear operators on Hilbert space, partial differential equations, finite groups, Lie groups and Lie algebras.
See also [5] for an abstract setting of the oversampling and recovering of missing samples in general reproducing kernel Hilbert spaces.
Delvos investigates approximation by minimum norm interpolation in harmonic Hilbert spaces.
Along with the astounding 390 exercises, Treves fully topological vector spaces and spaces of function, with forays into Cauchy filters and Frechet spaces, Hilbert spaces and partitions of unity, then moves to duality and spaces of distribution with radon measures, the continuous linear map and Sobolev spaces, then into tensor products and kernals, which includes very interesting commentary on nuclear mapping.
He includes background materials on Hilbert spaces and Fourier series in appendices along with exercises for each chapter.
With applications, examples and accessible text this covers such background material as Brownian motions and Martingales, stochastic integrals and stochastic differential equations, then moves to scalar equations of first order, stochastic parabolic equations, stochastic parabolic equations in the whole space, stochastic hyperbolic equations, stochastic evolution equations in Hilbert spaces, asymptotic behaviors of solutions, further applications such as random Schrodinger equations and nonlinear stochastic beam equations and diffusion equations in infinite dimensions.
Individual paper topics include Sobolev constants in disconnected domains, the minimum energy problem for a semilinear control system in Hilbert spaces, and exact convergence rate in the Gauss-Kuzmin-Levy problems, bifurcation in coupled Hopf oscillators, and ground states and multiple solutions for the Henon equation.
He introduces his results and also introduces their application to gradient-like system in Hilbert spaces and to the stability problem, then covers gradient inequality and abstract convergence results, closing by apply results to semilinear gradient-like systems in Hilbert spaces.
Work presented here details the latest work on areas such as invariant subspaces for the backward shift on Hilbert spaces, operators in weighted Bergman spaces, extensions of the asymptotic maximum principle, and singularity resolution of weighted Bergman kernels.