Rigorous Numerics using Conley Index Theory
By (author) Ulrich Miller
Paperback (Published)
(March 2005)
ISBN: 9783832508548
5.75 x 8.31 inches
Price: $61.00
On back order
Conley index theory as a tool to qualitatively study dynamical systems has been around already for several decades. In recent years more and more applications emerge concerning stable numerical computations. The Conley index is predestined for those applications since it is robust against perturbations. The rigorous numerics method presented in this book is one of these new applications and goes back to an idea of K. Mischaikow and P. Zgliczy ‘nski. It allows to determine steady states of a dynamical system given as a partial differential equation (PDE). The method is called rigorous since the calculation does not only give approximations but also implies existence (and sometimes even uniqueness) of these steady states within a small box neighborhood delivered by the algorithm. In this book this method is generalized to PDE with two-dimensional domains and combined with a path-following algorithm in order to rigorously calculate branches of equilibria of parameter dependent equations. All numerical computations are given within the Cahn-Hilliard equation, but the general method and in particular the necessary estimates for cubical nonlinearities generalizes easily to other PDE.
- By (author) Ulrich Miller
Other Titles in this Series
The Lifted Root Number Conjecture for small sets of places and an application to CM-extensions
Volume 12
Effective Theories for Brittle Materials
A Derivation of Cleavage Laws and Linearized Griffith Energies from Atomistic and Continuum Nonlinear Models
Volume 28
Multiscale modeling and homogenization of reaction-diffusion systems involving biological surfaces
Volume 21
Decoherence and Time-Resolved Readout in Superconducting Quantum Circuits (Dekoharenz und zeitaufgelosste Quantenmessung in supraleitenden Schaltkreisen)
Volume 16
Connecting Atomistic and Continuum Models of Nonlinear Elasticity Theory
Rigorous Existence and Convergence Results for the Boundary Value Problems
Volume 31
