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9780750309592

Classical and Quantum Nonlinear Integrable Systems: Theory and Application

by ;
  • ISBN13:

    9780750309592

  • ISBN10:

    0750309598

  • Format: Hardcover
  • Copyright: 2003-09-01
  • Publisher: CRC Press

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Summary

Covering both classical and quantum models, nonlinear integrable systems are of considerable theoretical and practical interest, with applications over a wide range of topics, including water waves, pin models, nonlinear optics, correlated electron systems, plasma physics, and reaction-diffusion processes. Comprising one part on classical theories and applications and another on quantum aspects, Classical and Quantum Nonlinear Integrable Systems: Theory and Application reviews the advances made in nonlinear integrable systems, with emphasis on the underlying concepts rather than technical details. It forms an outstanding introductory textbook as well as a useful reference for specialists.

Table of Contents

Preface xi
PART I Classical Systems
1(146)
A journey through the Korteweg--de Vries equation
3(36)
M Lakshmanan
Introduction
3(1)
Nonlinear dispersive waves: Scott Russell phenomenon and solitary waves
4(3)
KdV equation and cnoidal waves and the solitary waves
6(1)
The Fermi--Pasta--Ulam (FPU) numerical experiments on anharmonic lattices
7(3)
The FPU lattice and recurrence phenomenon
8(2)
The KdV equation again!
10(2)
Asymptotic analysis and the KdV equation
10(2)
Numerical experiments of Zabusky and Kruskal: the birth of solitons
12(3)
Periodic boundary conditions
12(1)
Initial condition with just two solitary waves
13(2)
Hirota's bilinearization method: explicit soliton solutions
15(3)
One-soliton solution
16(1)
Two-soliton solution
16(1)
N-soliton solutions
17(1)
Asymptotic analysis
17(1)
The Miura transformation and linearization of KdV: the Lax pair
18(3)
The Miura transformation
18(1)
Galilean invariance and the Schrodinger eigenvalue problem
19(1)
Linearization of the KdV equation
20(1)
Lax pair
20(1)
Lax pair and the method of inverse scattering
21(4)
The IST method for the KdV equation
21(4)
Explicit soliton solutions
25(5)
One-soliton solution (N = 1)
25(1)
Two-soliton solution
26(1)
N-soliton solution
27(2)
Soliton interaction
29(1)
Non-reflectionless potentials
29(1)
Hamiltonian structure of KdV equation: complete integrability
30(2)
KdV as a Hamiltonian dynamical system
30(1)
Complete integrability of the KdV equation
31(1)
Infinite number of conserved densities
32(2)
Backlund transformations
34(1)
The Painleve property for the KdV equations
35(1)
Lie and Lie--Backlund symmetries
35(1)
Conclusion
36(3)
The Painleve methods
39(25)
R Conte
M Musette
The classical programme of the Painleve school and its achievements
39(3)
Integrability and Painleve property for partial differential equations
42(2)
The Painleve test for ODEs and PDEs
44(7)
The Fuchsian perturbative method
49(1)
The non-Fuchsian perturbative method
50(1)
Singularity-based methods towards integrability
51(7)
Linearizable equations
51(1)
Auto-Backlund transformation of a PDE: the singular manifold method
52(2)
Single-valued solutions of the Bianchi IX cosmological model
54(1)
Polynomial first integrals of a dynamical system
55(1)
Solitary waves from truncations
56(1)
First-degree birational transformations of Painleve equations
57(1)
Liouville integrability and Painleve integrability
58(1)
Discretization and discrete Painleve equations
59(1)
Conclusion
60(4)
Discrete integrability
64(31)
K M Tamizhmani
A Ramani
B Grammaticos
T Tamizhmani
Introduction: who is afraid of discrete systems?
64(1)
The detector gallery
65(10)
Singularity confinement
66(2)
The perturbative Painleve approach to discrete integrability
68(2)
Algebraic entropy
70(2)
The Nevanlinna theory approach
72(3)
The showcase
75(11)
The discrete KdV and its de-autonomization
75(2)
The discrete Painleve equations
77(6)
Linearizable systems
83(3)
Beyond the discrete horizon
86(5)
Differential-difference systems
86(3)
Ultra-discrete systems
89(2)
Parting words
91(4)
The dbar method: a tool for solving two-dimensional integrable evolution PDEs
95(12)
A S Fokas
Introduction
95(4)
The dbar method
95(1)
Coherent structures
96(2)
Organization of this chapter
98(1)
The KPI equation
99(3)
The DSII equation
102(3)
The defocusing DS equation
105(1)
Summary
105(2)
Introduction to solvable lattice models in statistical and mathematical physics
107(40)
Tetsuo Deguchi
Introduction
107(2)
Solvable vertex models
109(16)
The six-vertex model
109(2)
The partition function and the transfer matrix
111(1)
Diagonalization of the transfer matrix
112(3)
The free energy of the six-vertex model
115(3)
Critical singularity in the antiferroelectric regime near the phase boundary
118(2)
XXZ spin chain and the transfer matrix
120(1)
Low-lying excited spectrum of the transfer matrix and conformal field theory
120(5)
Various integrable models on two-dimensional lattices
125(5)
Ising model and Potts model
125(1)
Chiral Potts model
126(1)
The eight-vertex model
127(1)
IRF models
128(2)
Yang--Baxter equation and the algebraic Bethe ansatz
130(6)
Solutions to the Yang--Baxter equation
130(2)
Algebraic Bethe ansatz
132(4)
Mathematical structures of integrable lattice models
136(11)
Braid group
136(2)
Quantum groups (Hopf algebras)
138(1)
Appendix. Commuting transfer matrices and the Yang--Baxter equations
139(8)
PART II Quantum Systems
147(141)
Unifying approaches in integrable systems: quantum and statistical, ultralocal and non-ultralocal
149(33)
Anjan Kundu
Introduction
149(2)
Integrable structures in ultralocal models
151(5)
List of well-known ultralocal models
152(4)
Unifying algebraic approach in ultralocal models
156(11)
Generation of models
157(6)
Fundamental and regular models
163(3)
Fusion method
166(1)
Construction of classical models
166(1)
Integrable statistical systems: vertex models
167(1)
Directions for constructing new classes of ultralocal models
168(2)
Inhomogeneous models
168(1)
Hybrid models
169(1)
Non-fundamental statistical models
169(1)
Unified Bethe ansatz solution
170(3)
Quantum integrable non-ultralocal models
173(5)
Braided extensions of QYBE
173(2)
List of quantum integrable non-ultralocal models
175(2)
Algebraic Bethe ansatz
177(1)
Open directions in non-ultralocal models
177(1)
Concluding remarks
178(4)
The physical basis of integrable spin models
182(26)
Indrani Bose
Introduction
182(2)
Spin models in one dimension
184(11)
Ladder models
195(8)
Concluding remarks
203(5)
Exact solvability in contemporary physics
208(26)
Angela Foerster
Jon Links
Huan-Qiang Zhou
Introduction
208(1)
Quantum inverse scattering method
209(3)
Realizations of the Yang--Baxter algebra
211(1)
Algebraic Bethe ansatz method of solution
212(2)
Scalar products of states
213(1)
A model for two coupled Bose--Einstein condensates
214(6)
Asymptotic analysis of the solution
216(4)
A model for atomic--molecular Bose--Einstein condensation
220(6)
Asymptotic analysis of the solution
223(1)
Computing the energy spectrum
224(2)
The BCS Hamiltonian
226(8)
A universally integrable system
227(3)
Asymptotic analysis of the solution
230(4)
The thermodynamics of the spin-1/2 XXX chain: free energy and low-temperature singularities of correlation lengths
234(22)
Andreas Klumper
Christian Scheeren
Introduction
234(2)
Lattice path integral and quantum transfer matrix
236(4)
Mapping to a classical model
237(2)
Bethe ansatz equations
239(1)
Manipulation of the Bethe ansatz equations
240(3)
Derivation of nonlinear integral equations
240(2)
Integral expressions for the eigenvalue
242(1)
Numerical results
243(2)
Low-temperature asymptotics
245(7)
Calculation to order O (β) and O(1)
247(3)
O(1/β) corrections
250(1)
O(1/β) corrections to the nonlinear integral equations
251(1)
O(1/β) corrections to the eigenvalue
251(1)
Summary and discussion
252(4)
Appendix
253(3)
Reaction--diffusion processes and their connection with integrable quantum spin chains
256(32)
Malte Henkel
Reaction--diffusion processes
256(4)
Quantum Hamiltonian formulation
260(2)
Hecke algebra and integrability
262(3)
Single-species models
265(5)
The seven-vertex model
270(2)
Further applications
272(9)
Spectral integrability
273(1)
Similarity transformations
273(2)
Free fermions
275(1)
Partial integrability
276(2)
Multi-species models
278(2)
Diffusion algebras
280(1)
Outlook: local scale-invariance
281(7)
Index 288

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