
Most Nonlinear Differential Equations Arising In Natural Sciences Admit Chaotic Behaviour And Cannot Be Solved Analytically. Integrable Systems Lie On The Other Extreme. They Possess Regular, Stable, And Well-behaved Solutions Known As Solitons And Instantons. These Solutions Play Important Roles In Pure And Applied Mathematics As Well As In Theoretical Physics Where They Describe Configurations Topologically Different From Vacuum. While Integrable Equations In Lower Space-time Dimensions Can Be Solved Using Inverse Scattering Transform, Higher-dimensional Examples Of Anti-self-dual Yang-mills And Einstein Equations Require Twistor Theory. Both Techniques Rely On An Ability To Represent Nonlinear Equations As Compatibility Conditions For Overdetermined Systems Of Linear Differential Equations. This Book Provides A Self-contained And Accessible Introduction To The Subject.
This book investigates the mathematical framework of integrable systems, specifically focusing on how solitons, instantons, and twistor theory provide analytical solutions to nonlinear differential equations. Maciej Dunajski, a researcher in mathematical physics, synthesizes complex concepts from geometry and analysis to demonstrate how nonlinear equations in higher dimensions can be represented as compatibility conditions for linear systems. The text serves as a bridge between pure mathematics and theoretical physics, utilizing the specific tools of inverse scattering and twistor geometry to address configurations that deviate from vacuum states.
What You Will Find
Scope Limits
Experts recognize this work as a structured introduction to the intersection of geometry and integrable systems. Readers frequently note the technical density of the prose, which is intended for graduate-level students and researchers in mathematical physics.
Page Count:
0
Publication Date:
1900-01-01
Publisher:
Oxford University Press,
ISBN-10:
0191983632
ISBN-13:
9780191983634
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