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1.

図書

図書
Gerald D. Mahan
出版情報: New York : Plenum Press, c1990  xiv, 1032 p. ; 24 cm
シリーズ名: Physics of solids and liquids
所蔵情報: loading…
目次情報: 続きを見る
Introductory Material / 1.:
Harmonic Oscillators and Phonons / 1.1.:
Second Quantization for Particles / 1.2.:
Electron-Phonon Interactions / 1.3.:
Interaction Hamiltonian / 1.3.1.:
Localized Electron / 1.3.2.:
Deformation Potential / 1.3.3.:
Piezoelectric Interaction / 1.3.4.:
Polar Coupling / 1.3.5.:
Spin Hamiltonians / 1.4.:
Homogeneous Spin Systems / 1.4.1.:
Impurity Spin Models / 1.4.2.:
Photons / 1.5.:
Gauges / 1.5.1.:
Lagrangian / 1.5.2.:
Hamiltonian / 1.5.3.:
Pair Distribution Function / 1.6.:
Problems
Green's Functions at Zero Temperature / 2.:
Interaction Representation / 2.1.:
Schrodinger / 2.1.1.:
Heisenberg / 2.1.2.:
Interaction / 2.1.3.:
S Matrix / 2.2.:
Green's Functions / 2.3.:
Wick's Theorem / 2.4.:
Feynman Diagrams / 2.5.:
Vacuum Polarization Graphs / 2.6.:
Dyson's Equation / 2.7.:
Rules for Constructing Diagrams / 2.8.:
Time-Loop S Matrix / 2.9.:
Six Green's Functions / 2.9.1.:
Photon Green's Functions / 2.9.2.:
Nonzero Temperatures / 3.:
Introduction / 3.1.:
Matsubara Green's Functions / 3.2.:
Retarded and Advanced Green's Functions / 3.3.:
Frequency Summations / 3.4.:
Linked Cluster Expansions / 3.6.:
Thermodynamic Potential / 3.6.1.:
Real-Time Green's Functions / 3.6.2.:
Wigner Distribution Function / 3.7.1.:
Kubo Formula for Electrical Conductivity / 3.8.:
Transverse Fields, Zero Temperature / 3.8.1.:
Zero Frequency / 3.8.2.:
Photon Self-Energy / 3.8.4.:
Other Kubo Formulas / 3.9.:
Pauli Paramagnetic Susceptibility / 3.9.1.:
Thermal Currents and Onsager Relations / 3.9.2.:
Correlation Functions / 3.9.3.:
Exactly Solvable Models / 4.:
Potential Scattering / 4.1.:
Reaction Matrix / 4.1.1.:
T Matrix / 4.1.2.:
Friedel's Theorem / 4.1.3.:
Impurity Scattering / 4.1.4.:
Ground State Energy / 4.1.5.:
Localized State in the Continuum / 4.2.:
Independent Boson Models / 4.3.:
Solution by Canonical Transformation / 4.3.1.:
Feynman Disentangling of Operators / 4.3.2.:
Einstein Model / 4.3.3.:
Optical Absorption and Emission / 4.3.4.:
Sudden Switching / 4.3.5.:
Linked Cluster Expansion / 4.3.6.:
Bethe Lattice / 4.4.:
Electron Green's Function / 4.4.1.:
Ising Model / 4.4.2.:
Tomonaga Model / 4.5.:
Spin Waves / 4.5.1.:
Luttinger Model / 4.5.3.:
Single-Particle Properties / 4.5.4.:
Interacting System of Spinless Fermions / 4.5.5.:
Polaritons / 4.6.:
Semiclassical Discussion / 4.6.1.:
Phonon-Photon Coupling / 4.6.2.:
Exciton-Photon Coupling / 4.6.3.:
Homogeneous Electron Gas / 5.:
Exchange and Correlation / 5.1.:
Kinetic Energy / 5.1.1.:
Hartree / 5.1.2.:
Exchange / 5.1.3.:
Seitz's Theorem / 5.1.4.:
[Sigma superscript (2a)] / 5.1.5.:
[Sigma superscript (2b)] / 5.1.6.:
[Sigma superscript (2c)] / 5.1.7.:
High-Density Limit / 5.1.8.:
Wigner Lattice / 5.1.9.:
Metallic Hydrogen / 5.3.:
Linear Screening / 5.4.:
Model Dielectric Functions / 5.5.:
Thomas-Fermi / 5.5.1.:
Lindhard, or RPA / 5.5.2.:
Hubbard / 5.5.3.:
Singwi-Sjolander / 5.5.4.:
Local Field Corrections / 5.5.5.:
Vertex Corrections / 5.5.6.:
Properties of the Electron Gas / 5.6.:
Screening Charge / 5.6.1.:
Correlation Energies / 5.6.3.:
Compressibility / 5.6.4.:
Sum Rules / 5.6.5.:
One-Electron Properties / 5.8.:
Renormalization Constant Z[subscript F] / 5.8.1.:
Effective Mass / 5.8.2.:
Mean-Free-Path / 5.8.3.:
Strong Correlations / 6.:
Kondo Model / 6.1.:
High-Temperature Scattering / 6.1.1.:
Low-Temperature State / 6.1.2.:
Kondo Temperature / 6.1.3.:
Kondo Resonance / 6.1.4.:
Single-Site Anderson Model / 6.2.:
No Hybridization / 6.2.1.:
With Hybridization / 6.2.2.:
Self-Energy of Electrons / 6.2.3.:
Hubbard Model / 6.3.:
Spin and Charge Separation / 6.3.1.:
Exchange Graphs / 6.3.2.:
Hubbard Model: Magnetic Phases / 6.4.:
Ferromagnetism / 6.4.1.:
Antiferromagnetism / 6.4.2.:
An Example / 6.4.3.:
Electron-Phonon Interaction / 6.4.4.:
Frohlich Hamiltonian / 7.1.:
Brillouin-Wigner Perturbation Theory / 7.1.1.:
Rayleigh-Schrodinger Perturbation Theory / 7.1.2.:
Strong Coupling Theory / 7.1.3.:
Linked Cluster Theory / 7.1.4.:
Small Polaron Theory / 7.2.:
Large Polarons / 7.2.1.:
Small Polarons / 7.2.2.:
Diagonal Transitions / 7.2.3.:
Nondiagonal Transitions / 7.2.4.:
Kubo Formula / 7.2.5.:
Heavily Doped Semiconductors / 7.3.:
Screened Interaction / 7.3.1.:
Experimental Verifications / 7.3.2.:
Electron Self-Energies / 7.3.3.:
Metals / 7.4.:
Phonons in Metals / 7.4.1.:
dc Conductivities / 7.4.2.:
Electron Scattering by Impurities / 8.1.:
Boltzmann Equation / 8.1.1.:
Kubo Formula: Approximate Solution / 8.1.2.:
Ward Identities / 8.1.3.:
Mobility of Frohlich Polarons / 8.2.:
Electron-Phonon Relaxation Times / 8.3.:
Semiconductors / 8.3.1.:
Temperature Relaxation / 8.3.3.:
Electron-Phonon Interactions in Metals / 8.4.:
Force-Force Correlation Function / 8.4.1.:
Mass Enhancement / 8.4.2.:
Thermoelectric Power / 8.4.4.:
Quantum Boltzmann Equation / 8.5.:
Derivation of the QBE / 8.5.1.:
Gradient Expansion / 8.5.2.:
Quantum Dot Tunneling / 8.5.3.:
Electron Tunneling / 8.6.1.:
Quantum Dots / 8.6.2.:
Rate Equations / 8.6.3.:
Quantum Conductance / 8.6.4.:
Optical Properties of Solids / 9.:
Nearly Free-Electron Systems / 9.1.:
General Properties / 9.1.1.:
Force-Force Correlation Functions / 9.1.2.:
Frohlich Polarons / 9.1.3.:
Interband Transitions / 9.1.4.:
Phonons / 9.1.5.:
Wannier Excitons / 9.2.:
The Model / 9.2.1.:
Solution by Green's Functions / 9.2.2.:
Core-Level Spectra / 9.2.3.:
X-ray Spectra in Metals / 9.3.:
Physical Model / 9.3.1.:
Edge Singularities / 9.3.2.:
Orthogonality Catastrophe / 9.3.3.:
MND Theory / 9.3.4.:
XPS Spectra / 9.3.5.:
Superconductivity / 10.:
Cooper Instability / 10.1.:
BCS Theory / 10.1.1.:
Superconducting Tunneling / 10.2.:
Normal-Superconductor / 10.2.1.:
Two Superconductors / 10.2.2.:
Josephson Tunneling / 10.2.3.:
Infrared Absorption / 10.2.4.:
Transition Temperature / 10.3.:
Superfluids / 11.:
Liquid [superscript 4]He / 11.1.:
Hartree and Exchange / 11.1.1.:
Bogoliubov Theory of [superscript 4]He / 11.1.2.:
Off-Diagonal Long-Range Order / 11.1.3.:
Correlated Basis Functions / 11.1.4.:
Experiments on n[subscript k] / 11.1.5.:
Bijl-Feynman Theory / 11.1.6.:
Improved Excitation Spectra / 11.1.7.:
Superfluidity / 11.1.8.:
Liquid [superscript 3]He / 11.2.:
Fermi Liquid Theory / 11.2.1.:
Experiments and Microscopic Theories / 11.2.2.:
Interaction Between Quasiparticles: Excitations / 11.2.3.:
Quasiparticle Transport / 11.2.4.:
Superfluid [superscript 3]He / 11.2.5.:
Quantum Hall Effects / 11.3.:
Landau Levels / 11.3.1.:
Classical Hall Effect / 11.3.2.:
Quantum Hall Effect / 11.3.3.:
Fixed Density / 11.3.3.1.:
Fixed Chemical Potential / 11.3.3.2.:
Impurity Dominated / 11.3.3.3.:
Laughlin Wave Function / 11.3.4.:
Collective Excitations / 11.3.5.:
Magnetorotons / 11.3.5.1.:
Quasiholes / 11.3.5.2.:
References
Author Index
Subject Index
Introductory Material / 1.:
Harmonic Oscillators and Phonons / 1.1.:
Second Quantization for Particles / 1.2.:
2.

図書

図書
Gerald D. Mahan and K.R. Subbaswamy
出版情報: New York : Plenum Press, c1990  ix, 255 p. ; 26 cm
シリーズ名: Physics of solids and liquids
所蔵情報: loading…
3.

図書

図書
Gerald D. Mahan
出版情報: New York : Plenum Press, c1981  xiv, 1003 p. ; 24 cm
シリーズ名: Physics of solids and liquids
所蔵情報: loading…
目次情報: 続きを見る
Introductory Material / 1.:
Harmonic Oscillators and Phonons / 1.1.:
Second Quantization for Particles / 1.2.:
Electron-Phonon Interactions / 1.3.:
Interaction Hamiltonian / 1.3.1.:
Localized Electron / 1.3.2.:
Deformation Potential / 1.3.3.:
Piezoelectric Interaction / 1.3.4.:
Polar Coupling / 1.3.5.:
Spin Hamiltonians / 1.4.:
Homogeneous Spin Systems / 1.4.1.:
Impurity Spin Models / 1.4.2.:
Photons / 1.5.:
Gauges / 1.5.1.:
Lagrangian / 1.5.2.:
Hamiltonian / 1.5.3.:
Pair Distribution Function / 1.6.:
Problems
Green's Functions at Zero Temperature / 2.:
Interaction Representation / 2.1.:
Schrodinger / 2.1.1.:
Heisenberg / 2.1.2.:
Interaction / 2.1.3.:
S Matrix / 2.2.:
Green's Functions / 2.3.:
Wick's Theorem / 2.4.:
Feynman Diagrams / 2.5.:
Vacuum Polarization Graphs / 2.6.:
Dyson's Equation / 2.7.:
Rules for Constructing Diagrams / 2.8.:
Time-Loop S Matrix / 2.9.:
Six Green's Functions / 2.9.1.:
Photon Green's Functions / 2.9.2.:
Nonzero Temperatures / 3.:
Introduction / 3.1.:
Matsubara Green's Functions / 3.2.:
Retarded and Advanced Green's Functions / 3.3.:
Frequency Summations / 3.4.:
Linked Cluster Expansions / 3.6.:
Thermodynamic Potential / 3.6.1.:
Real-Time Green's Functions / 3.6.2.:
Wigner Distribution Function / 3.7.1.:
Kubo Formula for Electrical Conductivity / 3.8.:
Transverse Fields, Zero Temperature / 3.8.1.:
Zero Frequency / 3.8.2.:
Photon Self-Energy / 3.8.4.:
Other Kubo Formulas / 3.9.:
Pauli Paramagnetic Susceptibility / 3.9.1.:
Thermal Currents and Onsager Relations / 3.9.2.:
Correlation Functions / 3.9.3.:
Exactly Solvable Models / 4.:
Potential Scattering / 4.1.:
Reaction Matrix / 4.1.1.:
T Matrix / 4.1.2.:
Friedel's Theorem / 4.1.3.:
Impurity Scattering / 4.1.4.:
Ground State Energy / 4.1.5.:
Localized State in the Continuum / 4.2.:
Independent Boson Models / 4.3.:
Solution by Canonical Transformation / 4.3.1.:
Feynman Disentangling of Operators / 4.3.2.:
Einstein Model / 4.3.3.:
Optical Absorption and Emission / 4.3.4.:
Sudden Switching / 4.3.5.:
Linked Cluster Expansion / 4.3.6.:
Bethe Lattice / 4.4.:
Electron Green's Function / 4.4.1.:
Ising Model / 4.4.2.:
Tomonaga Model / 4.5.:
Spin Waves / 4.5.1.:
Luttinger Model / 4.5.3.:
Single-Particle Properties / 4.5.4.:
Interacting System of Spinless Fermions / 4.5.5.:
Polaritons / 4.6.:
Semiclassical Discussion / 4.6.1.:
Phonon-Photon Coupling / 4.6.2.:
Exciton-Photon Coupling / 4.6.3.:
Homogeneous Electron Gas / 5.:
Exchange and Correlation / 5.1.:
Kinetic Energy / 5.1.1.:
Hartree / 5.1.2.:
Exchange / 5.1.3.:
Seitz's Theorem / 5.1.4.:
[Sigma superscript (2a)] / 5.1.5.:
[Sigma superscript (2b)] / 5.1.6.:
[Sigma superscript (2c)] / 5.1.7.:
High-Density Limit / 5.1.8.:
Wigner Lattice / 5.1.9.:
Metallic Hydrogen / 5.3.:
Linear Screening / 5.4.:
Model Dielectric Functions / 5.5.:
Thomas-Fermi / 5.5.1.:
Lindhard, or RPA / 5.5.2.:
Hubbard / 5.5.3.:
Singwi-Sjolander / 5.5.4.:
Local Field Corrections / 5.5.5.:
Vertex Corrections / 5.5.6.:
Properties of the Electron Gas / 5.6.:
Screening Charge / 5.6.1.:
Correlation Energies / 5.6.3.:
Compressibility / 5.6.4.:
Sum Rules / 5.6.5.:
One-Electron Properties / 5.8.:
Renormalization Constant Z[subscript F] / 5.8.1.:
Effective Mass / 5.8.2.:
Mean-Free-Path / 5.8.3.:
Strong Correlations / 6.:
Kondo Model / 6.1.:
High-Temperature Scattering / 6.1.1.:
Low-Temperature State / 6.1.2.:
Kondo Temperature / 6.1.3.:
Kondo Resonance / 6.1.4.:
Single-Site Anderson Model / 6.2.:
No Hybridization / 6.2.1.:
With Hybridization / 6.2.2.:
Self-Energy of Electrons / 6.2.3.:
Hubbard Model / 6.3.:
Spin and Charge Separation / 6.3.1.:
Exchange Graphs / 6.3.2.:
Hubbard Model: Magnetic Phases / 6.4.:
Ferromagnetism / 6.4.1.:
Antiferromagnetism / 6.4.2.:
An Example / 6.4.3.:
Electron-Phonon Interaction / 6.4.4.:
Frohlich Hamiltonian / 7.1.:
Brillouin-Wigner Perturbation Theory / 7.1.1.:
Rayleigh-Schrodinger Perturbation Theory / 7.1.2.:
Strong Coupling Theory / 7.1.3.:
Linked Cluster Theory / 7.1.4.:
Small Polaron Theory / 7.2.:
Large Polarons / 7.2.1.:
Small Polarons / 7.2.2.:
Diagonal Transitions / 7.2.3.:
Nondiagonal Transitions / 7.2.4.:
Kubo Formula / 7.2.5.:
Heavily Doped Semiconductors / 7.3.:
Screened Interaction / 7.3.1.:
Experimental Verifications / 7.3.2.:
Electron Self-Energies / 7.3.3.:
Metals / 7.4.:
Phonons in Metals / 7.4.1.:
dc Conductivities / 7.4.2.:
Electron Scattering by Impurities / 8.1.:
Boltzmann Equation / 8.1.1.:
Kubo Formula: Approximate Solution / 8.1.2.:
Ward Identities / 8.1.3.:
Mobility of Frohlich Polarons / 8.2.:
Electron-Phonon Relaxation Times / 8.3.:
Semiconductors / 8.3.1.:
Temperature Relaxation / 8.3.3.:
Electron-Phonon Interactions in Metals / 8.4.:
Force-Force Correlation Function / 8.4.1.:
Mass Enhancement / 8.4.2.:
Thermoelectric Power / 8.4.4.:
Quantum Boltzmann Equation / 8.5.:
Derivation of the QBE / 8.5.1.:
Gradient Expansion / 8.5.2.:
Quantum Dot Tunneling / 8.5.3.:
Electron Tunneling / 8.6.1.:
Quantum Dots / 8.6.2.:
Rate Equations / 8.6.3.:
Quantum Conductance / 8.6.4.:
Optical Properties of Solids / 9.:
Nearly Free-Electron Systems / 9.1.:
General Properties / 9.1.1.:
Force-Force Correlation Functions / 9.1.2.:
Frohlich Polarons / 9.1.3.:
Interband Transitions / 9.1.4.:
Phonons / 9.1.5.:
Wannier Excitons / 9.2.:
The Model / 9.2.1.:
Solution by Green's Functions / 9.2.2.:
Core-Level Spectra / 9.2.3.:
X-ray Spectra in Metals / 9.3.:
Physical Model / 9.3.1.:
Edge Singularities / 9.3.2.:
Orthogonality Catastrophe / 9.3.3.:
MND Theory / 9.3.4.:
XPS Spectra / 9.3.5.:
Superconductivity / 10.:
Cooper Instability / 10.1.:
BCS Theory / 10.1.1.:
Superconducting Tunneling / 10.2.:
Normal-Superconductor / 10.2.1.:
Two Superconductors / 10.2.2.:
Josephson Tunneling / 10.2.3.:
Infrared Absorption / 10.2.4.:
Transition Temperature / 10.3.:
Superfluids / 11.:
Liquid [superscript 4]He / 11.1.:
Hartree and Exchange / 11.1.1.:
Bogoliubov Theory of [superscript 4]He / 11.1.2.:
Off-Diagonal Long-Range Order / 11.1.3.:
Correlated Basis Functions / 11.1.4.:
Experiments on n[subscript k] / 11.1.5.:
Bijl-Feynman Theory / 11.1.6.:
Improved Excitation Spectra / 11.1.7.:
Superfluidity / 11.1.8.:
Liquid [superscript 3]He / 11.2.:
Fermi Liquid Theory / 11.2.1.:
Experiments and Microscopic Theories / 11.2.2.:
Interaction Between Quasiparticles: Excitations / 11.2.3.:
Quasiparticle Transport / 11.2.4.:
Superfluid [superscript 3]He / 11.2.5.:
Quantum Hall Effects / 11.3.:
Landau Levels / 11.3.1.:
Classical Hall Effect / 11.3.2.:
Quantum Hall Effect / 11.3.3.:
Fixed Density / 11.3.3.1.:
Fixed Chemical Potential / 11.3.3.2.:
Impurity Dominated / 11.3.3.3.:
Laughlin Wave Function / 11.3.4.:
Collective Excitations / 11.3.5.:
Magnetorotons / 11.3.5.1.:
Quasiholes / 11.3.5.2.:
References
Author Index
Subject Index
Introductory Material / 1.:
Harmonic Oscillators and Phonons / 1.1.:
Second Quantization for Particles / 1.2.:
4.

図書

図書
Gerald D. Mahan
出版情報: New York : Kluwer Academic/Plenum, c2000  xii, 785 p. ; 26 cm
シリーズ名: Physics of solids and liquids
所蔵情報: loading…
目次情報: 続きを見る
Introductory Material / 1.:
Harmonic Oscillators and Phonons / 1.1.:
Second Quantization for Particles / 1.2.:
Electron-Phonon Interactions / 1.3.:
Interaction Hamiltonian / 1.3.1.:
Localized Electron / 1.3.2.:
Deformation Potential / 1.3.3.:
Piezoelectric Interaction / 1.3.4.:
Polar Coupling / 1.3.5.:
Spin Hamiltonians / 1.4.:
Homogeneous Spin Systems / 1.4.1.:
Impurity Spin Models / 1.4.2.:
Photons / 1.5.:
Gauges / 1.5.1.:
Lagrangian / 1.5.2.:
Hamiltonian / 1.5.3.:
Pair Distribution Function / 1.6.:
Problems
Green's Functions at Zero Temperature / 2.:
Interaction Representation / 2.1.:
Schrodinger / 2.1.1.:
Heisenberg / 2.1.2.:
Interaction / 2.1.3.:
S Matrix / 2.2.:
Green's Functions / 2.3.:
Wick's Theorem / 2.4.:
Feynman Diagrams / 2.5.:
Vacuum Polarization Graphs / 2.6.:
Dyson's Equation / 2.7.:
Rules for Constructing Diagrams / 2.8.:
Time-Loop S Matrix / 2.9.:
Six Green's Functions / 2.9.1.:
Photon Green's Functions / 2.9.2.:
Nonzero Temperatures / 3.:
Introduction / 3.1.:
Matsubara Green's Functions / 3.2.:
Retarded and Advanced Green's Functions / 3.3.:
Frequency Summations / 3.4.:
Linked Cluster Expansions / 3.6.:
Thermodynamic Potential / 3.6.1.:
Real-Time Green's Functions / 3.6.2.:
Wigner Distribution Function / 3.7.1.:
Kubo Formula for Electrical Conductivity / 3.8.:
Transverse Fields, Zero Temperature / 3.8.1.:
Zero Frequency / 3.8.2.:
Photon Self-Energy / 3.8.4.:
Other Kubo Formulas / 3.9.:
Pauli Paramagnetic Susceptibility / 3.9.1.:
Thermal Currents and Onsager Relations / 3.9.2.:
Correlation Functions / 3.9.3.:
Exactly Solvable Models / 4.:
Potential Scattering / 4.1.:
Reaction Matrix / 4.1.1.:
T Matrix / 4.1.2.:
Friedel's Theorem / 4.1.3.:
Impurity Scattering / 4.1.4.:
Ground State Energy / 4.1.5.:
Localized State in the Continuum / 4.2.:
Independent Boson Models / 4.3.:
Solution by Canonical Transformation / 4.3.1.:
Feynman Disentangling of Operators / 4.3.2.:
Einstein Model / 4.3.3.:
Optical Absorption and Emission / 4.3.4.:
Sudden Switching / 4.3.5.:
Linked Cluster Expansion / 4.3.6.:
Bethe Lattice / 4.4.:
Electron Green's Function / 4.4.1.:
Ising Model / 4.4.2.:
Tomonaga Model / 4.5.:
Spin Waves / 4.5.1.:
Luttinger Model / 4.5.3.:
Single-Particle Properties / 4.5.4.:
Interacting System of Spinless Fermions / 4.5.5.:
Polaritons / 4.6.:
Semiclassical Discussion / 4.6.1.:
Phonon-Photon Coupling / 4.6.2.:
Exciton-Photon Coupling / 4.6.3.:
Homogeneous Electron Gas / 5.:
Exchange and Correlation / 5.1.:
Kinetic Energy / 5.1.1.:
Hartree / 5.1.2.:
Exchange / 5.1.3.:
Seitz's Theorem / 5.1.4.:
[Sigma superscript (2a)] / 5.1.5.:
[Sigma superscript (2b)] / 5.1.6.:
[Sigma superscript (2c)] / 5.1.7.:
High-Density Limit / 5.1.8.:
Wigner Lattice / 5.1.9.:
Metallic Hydrogen / 5.3.:
Linear Screening / 5.4.:
Model Dielectric Functions / 5.5.:
Thomas-Fermi / 5.5.1.:
Lindhard, or RPA / 5.5.2.:
Hubbard / 5.5.3.:
Singwi-Sjolander / 5.5.4.:
Local Field Corrections / 5.5.5.:
Vertex Corrections / 5.5.6.:
Properties of the Electron Gas / 5.6.:
Screening Charge / 5.6.1.:
Correlation Energies / 5.6.3.:
Compressibility / 5.6.4.:
Sum Rules / 5.6.5.:
One-Electron Properties / 5.8.:
Renormalization Constant Z[subscript F] / 5.8.1.:
Effective Mass / 5.8.2.:
Mean-Free-Path / 5.8.3.:
Strong Correlations / 6.:
Kondo Model / 6.1.:
High-Temperature Scattering / 6.1.1.:
Low-Temperature State / 6.1.2.:
Kondo Temperature / 6.1.3.:
Kondo Resonance / 6.1.4.:
Single-Site Anderson Model / 6.2.:
No Hybridization / 6.2.1.:
With Hybridization / 6.2.2.:
Self-Energy of Electrons / 6.2.3.:
Hubbard Model / 6.3.:
Spin and Charge Separation / 6.3.1.:
Exchange Graphs / 6.3.2.:
Hubbard Model: Magnetic Phases / 6.4.:
Ferromagnetism / 6.4.1.:
Antiferromagnetism / 6.4.2.:
An Example / 6.4.3.:
Electron-Phonon Interaction / 6.4.4.:
Frohlich Hamiltonian / 7.1.:
Brillouin-Wigner Perturbation Theory / 7.1.1.:
Rayleigh-Schrodinger Perturbation Theory / 7.1.2.:
Strong Coupling Theory / 7.1.3.:
Linked Cluster Theory / 7.1.4.:
Small Polaron Theory / 7.2.:
Large Polarons / 7.2.1.:
Small Polarons / 7.2.2.:
Diagonal Transitions / 7.2.3.:
Nondiagonal Transitions / 7.2.4.:
Kubo Formula / 7.2.5.:
Heavily Doped Semiconductors / 7.3.:
Screened Interaction / 7.3.1.:
Experimental Verifications / 7.3.2.:
Electron Self-Energies / 7.3.3.:
Metals / 7.4.:
Phonons in Metals / 7.4.1.:
dc Conductivities / 7.4.2.:
Electron Scattering by Impurities / 8.1.:
Boltzmann Equation / 8.1.1.:
Kubo Formula: Approximate Solution / 8.1.2.:
Ward Identities / 8.1.3.:
Mobility of Frohlich Polarons / 8.2.:
Electron-Phonon Relaxation Times / 8.3.:
Semiconductors / 8.3.1.:
Temperature Relaxation / 8.3.3.:
Electron-Phonon Interactions in Metals / 8.4.:
Force-Force Correlation Function / 8.4.1.:
Mass Enhancement / 8.4.2.:
Thermoelectric Power / 8.4.4.:
Quantum Boltzmann Equation / 8.5.:
Derivation of the QBE / 8.5.1.:
Gradient Expansion / 8.5.2.:
Quantum Dot Tunneling / 8.5.3.:
Electron Tunneling / 8.6.1.:
Quantum Dots / 8.6.2.:
Rate Equations / 8.6.3.:
Quantum Conductance / 8.6.4.:
Optical Properties of Solids / 9.:
Nearly Free-Electron Systems / 9.1.:
General Properties / 9.1.1.:
Force-Force Correlation Functions / 9.1.2.:
Frohlich Polarons / 9.1.3.:
Interband Transitions / 9.1.4.:
Phonons / 9.1.5.:
Wannier Excitons / 9.2.:
The Model / 9.2.1.:
Solution by Green's Functions / 9.2.2.:
Core-Level Spectra / 9.2.3.:
X-ray Spectra in Metals / 9.3.:
Physical Model / 9.3.1.:
Edge Singularities / 9.3.2.:
Orthogonality Catastrophe / 9.3.3.:
MND Theory / 9.3.4.:
XPS Spectra / 9.3.5.:
Superconductivity / 10.:
Cooper Instability / 10.1.:
BCS Theory / 10.1.1.:
Superconducting Tunneling / 10.2.:
Normal-Superconductor / 10.2.1.:
Two Superconductors / 10.2.2.:
Josephson Tunneling / 10.2.3.:
Infrared Absorption / 10.2.4.:
Transition Temperature / 10.3.:
Superfluids / 11.:
Liquid [superscript 4]He / 11.1.:
Hartree and Exchange / 11.1.1.:
Bogoliubov Theory of [superscript 4]He / 11.1.2.:
Off-Diagonal Long-Range Order / 11.1.3.:
Correlated Basis Functions / 11.1.4.:
Experiments on n[subscript k] / 11.1.5.:
Bijl-Feynman Theory / 11.1.6.:
Improved Excitation Spectra / 11.1.7.:
Superfluidity / 11.1.8.:
Liquid [superscript 3]He / 11.2.:
Fermi Liquid Theory / 11.2.1.:
Experiments and Microscopic Theories / 11.2.2.:
Interaction Between Quasiparticles: Excitations / 11.2.3.:
Quasiparticle Transport / 11.2.4.:
Superfluid [superscript 3]He / 11.2.5.:
Quantum Hall Effects / 11.3.:
Landau Levels / 11.3.1.:
Classical Hall Effect / 11.3.2.:
Quantum Hall Effect / 11.3.3.:
Fixed Density / 11.3.3.1.:
Fixed Chemical Potential / 11.3.3.2.:
Impurity Dominated / 11.3.3.3.:
Laughlin Wave Function / 11.3.4.:
Collective Excitations / 11.3.5.:
Magnetorotons / 11.3.5.1.:
Quasiholes / 11.3.5.2.:
References
Author Index
Subject Index
Introductory Material / 1.:
Harmonic Oscillators and Phonons / 1.1.:
Second Quantization for Particles / 1.2.:
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