Classical and Quantum Nonlinear Integrable System Theory and Applications - A.Kundu.pdf

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Classical and Quantum Nonlinear Integrable Systems Theory and Applications
Classical and Quantum Nonlinear Integrable Systems
Theory and Applications
Edited by
A Kundu
Saha Institute of Nuclear Physics
Calcutta, India
Institute of Physics Publishing
Bristol and Philadelphia
Copyright © 2003 IOP Publishing Ltd.
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IOP Publishing Ltd 2003
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British Library Cataloguing-in-Publication Data
A catalogue record for this book is available from the British Library.
ISBN 0 7503 0959 8
Library of Congress Cataloging-in-Publication Data are available
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Published by Institute of Physics Publishing, wholly owned by The Institute of
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Contents
Preface
PA R T I
Cla ssic a l Sy st e ms
1 A journey through the Korteweg–de Vries equa tion
M Lakshmanan
1.1 Introduction
1.2 Nonlinear dispersive waves: Scott Russell phenomenon and
solitary waves
1.2.1 KdV equation and cnoidal waves and the solitary waves
1.3 The Fermi–Pasta–Ulam (FPU) numerical experiments on
anharmonic lattices
1.3.1 The FPU lattice and recurrence phenomenon
1.4 The KdV equation again!
1.4.1 Asymptotic analysis and the KdV equation
1.5 Numerical experiments of Zabusky and Kruskal: the birth of
solitons
1.5.1 Periodic boundary conditions
1.5.2 Initial condition with just two solitary waves
1.6 Hirota’s bilinearization method: explicit soliton solutions
1.6.1 One-soliton solution
1.6.2 Two-soliton solution
1.6.3 N -soliton solutions
1.6.4 Asymptotic analysis
1.7 The Miura transformation and linearization of KdV: the Lax pair
1.7.1 The Miura transformation
1.7.2 Galilean invariance and the Schr¨odinger eigenvalue
problem
1.7.3 Linearization of the KdV equation
1.7.4 Lax pair
1.8 Lax pair and the method of inverse scattering
1.8.1 The IST method for the KdV equation
1.9 Explicit soliton solutions
1.9.1 One-soliton solution (N
1 )
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1.9.2 Two-soliton solution
1.9.3 N -soliton solution
1.9.4 Soliton interaction
1.9.5 Non-reflectionless potentials
1.10 Hamiltonian structure of KdV equation: complete integrability
1.10.1 KdV as a Hamiltonian dynamical system
1.10.2 Complete integrability of the KdV equation
1.11 Infinite number of conserved densities
1.12 B¨acklund transformations
1.13 The Painlev´e property for the KdV equations
1.14 Lie and Lie–B¨acklund symmetries
1.15 Conclusion
2 The Pa inlev ´e met ho ds
R Co nte a nd M Musette
2.1 The classical programme of the Painlev´e school and its
achievements
2.2 Integrability and Painlev´e property for partial differential equations
2.3 The Painlev´e test for ODEs and PDEs
2.3.1 The Fuchsian perturbative method
2.3.2 The non-Fuchsian perturbative method
2.4 Singularity-based methods towards integrability
2.4.1 Linearizable equations
2.4.2 Auto-B¨acklund transformation of a PDE: the singular
manifold method
2.4.3 Single-valued solutions of the Bianchi IX cosmological
model
2.4.4 Polynomial first integrals of a dynamical system
2.4.5 Solitary waves from truncations
2.4.6 First-degree birational transformations of Painlev´e
equations
2.5 Liouville integrability and Painlev´e integrability
2.6 Discretization and discrete Painlev´e equations
2.7 Conclusion
3 Discret e int eg ra bilit y
K M Tamizhmani, A Ramani, B Grammaticos and T Tamizhmani
3.1 Introduction: who is afraid of discrete systems?
3.2 The detector gallery
3.2.1 Singularity confinement
3.2.2 The perturbative Painlev´e approach to discrete integrability
3.2.3 Algebraic entropy
3.2.4 The Nevanlinna theory approach
3.3 The showcase
3.3.1 The discrete KdV and its de-autonomization
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3.3.2 The discrete Painlev´e equations
3.3.3 Linearizable systems
3.4 Beyond the discrete horizon
3.4.1 Differential-difference systems
3.4.2 Ultra-discrete systems
3.5 Parting words
4 The dba r met ho d: a t o o l fo r so lv ing t wo - dimensio na l int eg ra ble
evo l u t i o n P D E s
A S Fokas
4.1 Introduction
4.1.1 The dbar method
4.1.2 Coherent structures
4.1.3 Organization of this chapter
4.2 The KPI equation
4.3 The DSII equation
4.3.1 The defocusing DS equation
4.4 Summary
5 Int ro duct io n t o so lva ble la t t ice mo dels in st a t ist ica l a nd ma t hema t ica l
phy sics
Te t s u o D e g u c h i
5.1 Introduction
5.2 Solvable vertex models
5.2.1 The six-vertex model
5.2.2 The partition function and the transfer matrix
5.2.3 Diagonalization of the transfer matrix
5.2.4 The free energy of the six-vertex model
5.2.5 Critical singularity in the antiferroelectric regime near
the phase boundary
5.2.6 XXZ spin chain and the transfer matrix
5.2.7 Low-lying excited spectrum of the transfer matrix and
conformal field theory
5.3 Various integrable models on two-dimensional lattices
5.3.1 Ising model and Potts model
5.3.2 Chiral Potts model
5.3.3 The eight-vertex model
5.3.4 IRF models
5.4 Yang–Baxter equation and the algebraic Bethe ansatz
5.4.1 Solutions to the Yang–Baxter equation
5.4.2 Algebraic Bethe ansatz
5.5 Mathematical structures of integrable lattice models
5.5.1 Braid group
5.5.2 Quantum groups (Hopf algebras)
Appendix. Commuting transfer matrices and the Yang–Baxter equations
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