Springer, 2023. — 390 p. — (Unitext, 148). — ISBN 3031313429.
This book is focused on the
numerical discretization of ordinary differential equations (ODEs), under several perspectives. The attention is first conveyed to providing
accurate numerical solutions of deterministic problems. Then, the presentation moves to a more modern vision of numerical approximation, oriented to reproducing
qualitative properties of the continuous problem along the discretized dynamics over long times. The book finally performs some steps in the direction of
stochastic differential equations (SDEs), with the intention of offering useful tools to generalize the techniques introduced for the numerical approximation of ODEs to the stochastic case, as well as of presenting numerical issues natively introduced for SDEs. The book is the result of an
intense teaching experience as well as of the research carried out in the last decade by the author. It is both intended
for students and instructors: for the students, this book is comprehensive and rather self-contained; for the instructors, there is material for one or more
monographic courses on ODEs and related topics. In this respect, the book can be followed in its designed path and includes motivational aspects, historical background, examples and a software programs, implemented in
MatLAB, that can be useful for the laboratory part of a course on numerical ODEs/SDEs. The book also contains the portraits of several pioneers in the numerical discretization of differential problems, useful to provide a framework to understand their contributes in the presented fields. Last, but not least,
rigor joins readability in the book.
Preface.
Ordinary Differential Equations.
Discretization of the Problem.
Linear Multistep Methods.
Runge-Kutta Methods.
Multivalue Methods.
Linear Stability.
Stiff Problems.
Geometric Numerical Integration.
Numerical Methods for Stochastic Differential Equations.
A Summary of Test Problems.
Bibliography.
Index.
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