Attractors for Equations of Mathematical Physics ( Colloquium Publications )

Publication series :Colloquium Publications

Author: Vladimir V. Chepyzhov;Mark I. Vishik  

Publisher: American Mathematical Society‎

Publication year: 2001

E-ISBN: 9781470431952

P-ISBN(Hardback):  9780821829509

Subject: O175.2 Partial Differential Equations

Keyword: 暂无分类

Language: ENG

Access to resources Favorite

Disclaimer: Any content in publications that violate the sovereignty, the constitution or regulations of the PRC is not accepted or approved by CNPIEC.

Attractors for Equations of Mathematical Physics

Description

One of the major problems in the study of evolution equations of mathematical physics is the investigation of the behavior of the solutions to these equations when time is large or tends to infinity. The related important questions concern the stability of solutions or the character of the instability if a solution is unstable. In the last few decades, considerable progress in this area has been achieved in the study of autonomous evolution partial differential equations. For a number of basic evolution equations of mathematical physics, it was shown that the long time behavior of their solutions can be characterized by a very important notion of a global attractor of the equation. In this book, the authors study new problems related to the theory of infinite-dimensional dynamical systems that were intensively developed during the last 20 years. They construct the attractors and study their properties for various non-autonomous equations of mathematical physics: the 2D and 3D Navier-Stokes systems, reaction-diffusion systems, dissipative wave equations, the complex Ginzburg-Landau equation, and others. Since, as it is shown, the attractors usually have infinite dimension, the research is focused on the Kolmogorov $\varepsilon$-entropy of attractors. Upper estimates for the $\varepsilon$-entropy of uniform attractors of non-autonomous equations in terms of $\varepsilon$-entropy of time-dependent coefficients are proved. Also, the authors construct attractors for those equat

Chapter

Title page

Dedication

Contents

Introduction

Attractors of autonomous equations

Attractors of autonomous ordinary differential equations

Attractors of autonomous partial differential equations

Dimension of attractors

Attractors of non-autonomous equations

Processes and attractors

Translation compact functions

Attractors of non-autonomous partial differential equations

Semiprocesses and attractors

Kernels of processes

Kolmogorov 𝜖-entropy of attractors

Trajectory attractors

Trajectory attractors of autonomous ordinary differential equations

Attractors in Hausdorff spaces

Trajectory attractors of autonomous equations

Trajectory attractors of autonomous partial differential equations

Trajectory attractors of non-autonomous equations

Trajectory attractors of non-autonomous partial differential equations

Approximation of trajectory attractors

Perturbation of trajectory attractors

Averaging of attractors of evolution equations with rapidly oscillating terms

Appendix A. Proofs of Theorems II.1.4 and II.1.5

Appendix B. Lattices and coverings

Bibliography

Index

Back Cover

The users who browse this book also browse


No browse record.