Book contents
- Frontmatter
- Dedication
- Contents
- Preface
- Introduction
- 1 Global Attraction to Stationary States
- 2 Global Attraction to Solitons
- 3 Global Attraction to Stationary Orbits
- 4 Asymptotic Stability of Stationary Orbits and Solitons
- 5 Adiabatic Effective Dynamics of Solitons
- 6 Numerical Simulation of Solitons
- 7 Dispersive Decay
- 8 Attractors and Quantum Mechanics
- Bibliography
- Index
1 - Global Attraction to Stationary States
Published online by Cambridge University Press: 17 September 2021
- Frontmatter
- Dedication
- Contents
- Preface
- Introduction
- 1 Global Attraction to Stationary States
- 2 Global Attraction to Solitons
- 3 Global Attraction to Stationary Orbits
- 4 Asymptotic Stability of Stationary Orbits and Solitons
- 5 Adiabatic Effective Dynamics of Solitons
- 6 Numerical Simulation of Solitons
- 7 Dispersive Decay
- 8 Attractors and Quantum Mechanics
- Bibliography
- Index
Summary
We present in detailthe resultsonglobal attraction to stationary states for nonlinear Hamiltonian PDEs in infinite space: for 1Dwave equations coupled to one nonlinear oscillator (the "Lamb system"), for a 1D wave equation coupled to several nonlinearoscillators andfor a 1D wave equation coupled to a continuum of nonlinear oscillators, and for a 3Dwave equation and Maxwell’s equationscoupled to a charged relativistic particle with density of charge satisfying the Wiener condition. In particular, the radiation damping in classical electrodynamics is rigorously proved for the first time. The proofs rely on calculation of energy radiation to infinity and use the concept of omega-limit trajectories and the Wiener Tauberian theorem. The last sectionconcerns3D wave equations with concentrated nonlinearities. The key step in the proof is an investigation of a nonlinear integro-differential equation.
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- Publisher: Cambridge University PressPrint publication year: 2021