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Equations --- Matrices --- Algebras, Linear --- Algèbre linéaire --- Numerical solutions --- Solutions numériques --- 519.61 --- 519.61 Numerical methods of algebra --- Numerical methods of algebra
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Numerical solutions of differential equations --- Integral equations --- Equations intégrales --- Numerical solutions --- Solutions numériques --- 519.61 --- -Equations, Integral --- Functional equations --- Functional analysis --- Numerical methods of algebra --- Numerical solution --- Numerical solutions. --- -Numerical methods of algebra --- Numerical solution. --- 519.61 Numerical methods of algebra --- -519.61 Numerical methods of algebra --- Equations, Integral --- Equations intégrales --- Solutions numériques --- Numerical analysis --- Analyse numérique. --- Analyse numérique --- Numerical analysis. --- Integral equations - Numerical solutions --- Equations integrales --- Methodes numeriques
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This book examines the solution of some of the most common problems of numerical computation. By concentrating on one effective algorithm for each basic task, it develops the fundamental theory in a brief, elementary way. There are ample exercises, and codes are provided to reduce the time otherwise required for programming and debugging. Exposes readers to art of numerical computing as well as the science. Readers need only a familiarity with either FORTRAN or C. Applications are taken from a variety of disciplines including engineering, physics, and chemistry.
Numerical analysis --- Analyse numérique --- Data processing --- Informatique --- 519.61 --- -519.62 --- Mathematical analysis --- Numerical methods of algebra --- Numerical methods for solution of ordinary differential equations --- Data processing. --- 519.62 Numerical methods for solution of ordinary differential equations --- 519.61 Numerical methods of algebra --- Analyse numérique --- 519.62 --- Numerical analysis - Data processing
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Analyse des erreurs (Mathématiques) --- Error analysis (Mathematics) --- Foutenanalyse (Wiskunde) --- Erreurs, Théorie des --- 519.61 --- Errors, Theory of --- Instrumental variables (Statistics) --- Mathematical statistics --- Numerical analysis --- Statistics --- Numerical methods of algebra --- Error analysis (Mathematics). --- 519.61 Numerical methods of algebra --- Erreurs, Théorie des
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Numerical mathematics is the branch of mathematics that proposes, develops, analyzes and applies methods from scientific computing to several fields including analysis, linear algebra, geometry, approximation theory, functional equations, optimization and differential equations. Other disciplines, such as physics, the natural and biological sciences, engineering, and economics and the financial sciences frequently give rise to problems that need scientific computing for their solutions. As such, numerical mathematics is the crossroad of several disciplines of great relevance in modern applied sciences, and can become a crucial tool for their qualitative and quantitative analysis. One of the purposes of this book is to provide the mathematical foundations of numerical methods, to analyze their basic theoretical properties (stability, accuracy, computational complexity) and demonstrate their performance on examples and counterexamples which outline their pros and cons. This is done using the MATLABTM software environment which is user-friendly and widely adopted. Within any specific class of problems, the most appropriate scientific computing algorithms are reviewed, their theoretical analyses are carried out and the expected results are verified on a MATLABTM computer implementation. Every chapter is supplied with examples, exercises and applications of the discussed theory to the solution of real-life problems. This book is addressed to senior undergraduate and graduate students with particular focus on degree courses in engineering, mathematics, physics and computer sciences. The attention which is paid to the applications and the related development of software makes it valuable also for researchers and users of scientific computing in a large variety of professional fields. In this second edition, the readability of pictures, tables and program headings has been improved. Several changes in the chapters on iterative methods and on polynomial approximation have also been added. From the reviews of the first edition: "This is an excellent and modern textbook in numerical mathematics! It is primarily addressed to undergraduate students in mathematics, physics, computer science and engineering. But you will need a weekly 4 hour lecture for 3 terms lecture to teach all topics treated in this book! Well known methods as well as very new algorithms are given. The methods and their performances are demonstrated by illustrative examples and computer examples. Exercises shall help the reader to understand the theory and to apply it. MATLAB-software satisfies the need of user-friendliness. [....] In the reviewers opinion, the presented book is the best textbook in numerical mathematics edited in the last ten years." Zentralblatt für Mathematik 2001, 991.38387.
Numerical analysis --- 519.61 --- 519.61 Numerical methods of algebra --- Numerical methods of algebra --- Mathematical analysis --- Mathematical Sciences --- Applied Mathematics --- Mathematics. --- Applied mathematics. --- Engineering mathematics. --- Numerical analysis. --- Applications of Mathematics. --- Mathematics, general. --- Numerical Analysis. --- Appl.Mathematics/Computational Methods of Engineering. --- wiskunde --- Mathematics --- Mathematical and Computational Engineering. --- Engineering --- Engineering analysis --- Math --- Science --- Numerical analysis - Textbooks --- Analyse numérique. --- Manuels d'enseignement
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Sparse matrices --- Linear systems --- Matrices éparses --- Systèmes linéaires --- 519.61 --- 681.3*G13 --- Numerical methods of algebra --- Numerical linear algebra: conditioning; determinants; eigenvalues and eigenvectors; error analysis; linear systems; matrix inversion; pseudoinverses; singular value decomposition; sparse, structured, and very large systems (direct and iterative methods) --- 519.61 Numerical methods of algebra --- Matrices éparses --- Systèmes linéaires --- Spare matrix techniques --- Matrices --- Systems, Linear --- Differential equations, Linear --- System theory
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Nonlinear inverse problems appear in many applications, and typically they lead to mathematical models that are ill-posed, i.e., they are unstable under data perturbations. Those problems require a regularization, i.e., a special numerical treatment. This book presents regularization schemes which are based on iteration methods, e.g., nonlinear Landweber iteration, level set methods, multilevel methods and Newton type methods.
519.61 --- Numerical methods of algebra --- Differential equations, Partial --- Iterative methods (Mathematics) --- Improperly posed problems. --- Iterative methods (Mathematics). --- Differential equations, Partial -- Improperly posed problems. --- Mathematics. --- Calculus --- Mathematics --- Physical Sciences & Mathematics --- Improperly posed problems --- 519.61 Numerical methods of algebra --- Iteration (Mathematics) --- Improperly posed problems in partial differential equations --- Ill-posed problems --- Inkorrekt gestelltes Problem. --- Regularisierungsverfahren. --- Iteration. --- Nichtlineares inverses Problem. --- Numerical analysis --- Iterative Regularization. --- Nonlinear Ill-Posed Problems. --- Nonlinear Inverse Problems.
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Computational simulation of scientific phenomena and engineering problems often depends on solving linear systems with a large number of unknowns. This book gives insight into the construction of iterative methods for the solution of such systems and helps the reader to select the best solver for a given class of problems. The emphasis is on the main ideas and how they have led to efficient solvers such as CG, GMRES, and BI-CGSTAB. The author also explains the main concepts behind the construction of preconditioners. The reader is encouraged to gain experience by analysing numerous examples that illustrate how best to exploit the methods. The book also hints at many open problems and as such it will appeal to established researchers. There are many exercises that motivate the material and help students to understand the essential steps in the analysis and construction of algorithms.
Iterative methods (Mathematics) --- Numerical solutions of algebraic equations --- 519.61 --- 681.3*G13 --- 519.61 Numerical methods of algebra --- Numerical methods of algebra --- 681.3*G13 Numerical linear algebra: conditioning; determinants; Eigenvalues; error analysis; linear systems; matrix inversion; pseudoinverses; sparse and very largesystems --- Numerical linear algebra: conditioning; determinants; Eigenvalues; error analysis; linear systems; matrix inversion; pseudoinverses; sparse and very largesystems --- Linear systems. --- Itération (Mathématiques) --- Systèmes linéaires --- Linear systems --- Systems, Linear --- Differential equations, Linear --- System theory --- Iteration (Mathematics) --- Numerical analysis
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Algebras, Linear --- Numerical calculations --- Numerical calculations. --- Algèbre linéaire --- Calculs numériques --- Algebra, Universal --- Generalized spaces --- Calculus of operations --- Line geometry --- Calculs numériques --- lineaire algebra --- #TELE:SISTA --- 512.64 --- 519.61 --- 512.64 Linear and multilinear algebra. Matrix theory --- Linear and multilinear algebra. Matrix theory --- Numerical analysis --- Linear algebra --- Mathematical analysis --- Topology --- 519.61 Numerical methods of algebra --- Numerical methods of algebra --- Algebras, Linear. --- Algebra --- Algèbre linéaire
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The book with contributions from the joint interdisciplinary workshop covers important numerical bottleneck problems from lattice quantum chromodynamics: 1) The computation of Green's functions from huge sparse linear systems and the determination of flavor-singlet observables by stochastic estimates of matrix traces can both profit from novel preconditioning techniques and algebraic multi-level algorithms. 2) The exciting overlap fermion formulation requires the solution of linear systems including a matrix sign function, an extremely demanding numerical task that is tackled by Lanczos/projection methods. 3) Realistic simulations of QCD must include three light dynamical quark flavors with non-degenerate masses. Algorithms using polynomial approximations of the matrix determinant can deal with this situation. The volume aims at stimulating synergism and creating new links between lattice quantum and numerical analysis.
Lattice gauge theories --- Quantum chromodynamics --- Théories de jauge sur réseau --- Chromodynamique quantique --- Mathematical models --- Congresses --- Modèles mathématiques --- Congrès --- 519.61 --- 519.245 --- Numerical analysis --- Mathematical analysis --- 519.245 Stochastic approximation. Monte Carlo methods --- Stochastic approximation. Monte Carlo methods --- 519.61 Numerical methods of algebra --- Numerical methods of algebra --- Numerical analysis. --- Mathematical physics. --- Algorithms. --- Numerical Analysis. --- Theoretical, Mathematical and Computational Physics. --- Algorism --- Algebra --- Arithmetic --- Physical mathematics --- Physics --- Foundations --- Mathematics
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