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Self-Consistent Quantum Field Theory and Bosonization for Strongly Correlated Electron Systems,9783540658122
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Self-Consistent Quantum Field Theory and Bosonization for Strongly Correlated Electron Systems


Author(s): Haussmann, Rudolf
ISBN10:  3540658122
ISBN13:  9783540658122
Format:  Hardcover
Pub. Date:  6/1/1999
Publisher(s): Springer Verlag

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SummaryTable of Contents
This research monograph offers an introduction to advanced quantum field theoretical techniques for many-particle systems beyond perturbation theory. Several schemes for resummation of the Feynman diagrams are described. The resulting approximations are especially well suited for strongly correlated fermion and boson systems. Also considered is the crossover from BCS superconductivity to Bose--Einstein condensation in fermion systems with strong attractive interaction. In particular, a field theoretic formulation of "bosonization" is presented; it is published here for the first time. This method is applied to the fractional quantum Hall effect, to the Coulomb plasma, and to several exactly solvable models.

Offers an introduction to advanced quantum field theoretical techniques for many-particle systems beyond perturbation theory.
1. Introduction
1(6)
2. Self-consistent quantum-field theory
7(20)
2.1 Legendre transformation
9(3)
2.2 Perturbation series expansion
12(5)
2.3 Conserving approximations
17(3)
2.4 Two-particle functions and Ward identities
20(7)
3. Superconductivity and pairing of electrons in three dimensions
27(46)
3.1 Derivation of the self-consistent equations for a superfluid Fermi system with s-wave pairing
31(15)
3.2 Discussion of the self-consistent equations, weak- and strong-coupling limit
46(15)
3.3 Numerical results for T = T(c) and discussion
61(12)
4. Gauge transformation and bosonization
73(44)
4.1 Conventional bosonization for one- and higher-dimensional fermion systems
76(5)
4.2 Modification of the self-consistent quantum-field theory by gauge transformation
81(20)
4.3 Application to the Luttinger model
101(10)
4.4 Application to the independent-boson model
111(6)
5. Two-dimensional electron systems in the FQHE regime
117(44)
5.1 Theory of the FQHE
118(10)
5.2 General properties of the spectral functions for FQHE systems
128(5)
5.3 Modified SC-RPA theory for the two-dimensional electron system in a homogeneous magnetic field
133(10)
5.4 Electronic excitation spectrum of the partially filled lowest Landau level
143(10)
5.5 Magnetization of FQHE electron systems
153(8)
6. Further applications
161(8)
6.1 Coulomb plasma
161(3)
6.2 Interacting boson systems
164(5)
References 169(4)
Index 173

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