This text provides the interval analysis community with surveys of important recent developments in the creation of validated numerical algorithms. In addition, the publication informs the numerical analysts and appliers of numerical software about the enormous variety of problem-solving algorithms now available, even for sophisticated problems which were beyond reach at the beginning of research some two decades ago. Contributions are sourced from a variety of international experts and together these form a textbook collection of 14 non-overlapping multidisciplinary sections. The introductory chapter contains basic notations, definitions and properties in interval arithmetic, whilst the concluding chapter offers instructions on how to implement interval algorithms. Other problem areas addressed in the bulk of the volume include: systems of nonlinear equations, simultaneous methods for polynomial zeros, linear systems, matrix inversion, matrix eigenvalue problems, eigenvalues of selfadjoint problems, ODE's, PDE's, optimization, problems in engineering, and complexity considerations in linear interval problems.
This text provides the interval analysis community with surveys of important recent developments in the creation of validated numerical algorithms. In addition, the publication informs the numerical analysts and appliers of numerical software about the enormous variety of problem-solving algorithms now available, even for sophisticated problems which were beyond reach at the beginning of research some two decades ago. Contributions are sourced from a variety of international experts and together these form a textbook collection of 14 non-overlapping multidisciplinary sections. The introductory chapter contains basic notations, definitions and properties in interval arithmetic, whilst the concluding chapter offers instructions on how to implement interval algorithms. Other problem areas addressed in the bulk of the volume include: systems of nonlinear equations, simultaneous methods for polynomial zeros, linear systems, matrix inversion, matrix eigenvalue problems, eigenvalues of selfadjoint problems, ODE's, PDE's, optimization, problems in engineering, and complexity considerations in linear interval problems.
Reihe
Sprache
Verlagsort
Verlagsgruppe
Elsevier Science & Technology
Zielgruppe
Für höhere Schule und Studium
Für Beruf und Forschung
Maße
ISBN-13
978-0-444-81685-6 (9780444816856)
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Schweitzer Klassifikation
Basic definitions and properties of interval arithmetic, J. Herzberger; inclusion methods for systems of nonlinear equations - the interval Newton method and modifications, G. Alefeld; validated computation of polynomial zeros by the Durand-Kerner method, T. Yamamoto et al; validated computation of polynomial zeros by the Durand-Kerner method II, S. Kanno and T. Yamamoto; verification methods for dense and sparse systems for equations, S.M. Rump; iterative methods for the inclusion of the inverse of a matrix, J. Herzberger; interval methods for initial value problems in ODE's, R. Rihm; result verification for eigenvectors and eigenvalues, G. Mayer; inclusions for eigenvalues of selfadjoint problems, H. Behnke and F. Goerisch; inclusion methods for elliptic boundary value problems, M. Plum; on self-validating methods for optimization problems, C. Jansson; inclusion methods in solving engineering problems, G. Heindl; NP-hardness results for linear algebraic problems with interval data, J. Rohn; interval arithmetic on computers, C. Ullrich.