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Principles of the theory of solids /
Professor Ziman's classic textbook on the theory of solids was first pulished in 1964. This paperback edition is a reprint of the second edition, which was substantially revised and enlarged in 1972. The value and popularity of this textbook is well attested by reviewers' opinions and by t...
| Clasificación: | Libro Electrónico |
|---|---|
| Autor principal: | |
| Formato: | Electrónico eBook |
| Idioma: | Inglés |
| Publicado: |
Cambridge :
Cambridge University Press,
1972.
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| Edición: | 2nd ed. |
| Temas: | |
| Acceso en línea: | Texto completo |
Tabla de Contenidos:
- Cover; Title; Copyright; Preface; Contents; Chapter 1. Periodic Structures; 1.1 Translational symmetry; 1.2 Periodic functions; 1.3 Properties of the reciprocal lattice; 1.4 Bloch's theorem; 1.5 Reduction to a Brillouin zone; 1.6 Boundary conditions: counting states; Chapter 2. Lattice Waves; 2.1 Lattice dynamics; 2.2 Properties of lattice waves; 2.3 Lattice sums; 2.4 Lattice specific heat; 2.5 Lattice spectrum; 2.6 Diffraction by an ideal crystal; 2.7 Diffraction by crystal with lattice vibrations; 2.8 Phonons; 2.9 The Debye-Waller factor; 2.10 Anharmonicity and thermal expansion.
- 2.11 Phonon-phonon interaction2.12 Vibrations of imperfect lattices; Chapter 3. Electron States; 3.1 Free electrons; 3.2 Diffraction of valence electrons; 3.3 The nearly-free-electron model; 3.4 The tight-binding method; 3.5 Cellular methods; 3.6 Orthogonalized plane waves; 3.7 Augrnented plane waves; 3.8 The Green function method; 3.9 Model pseudo-potentials; 3.10 Resonance bands; 3.11 Crystal symmetry and spin-orbit interaction; Chapter 4. Static Properties of Solids; 4.1 Types of solid: band picture; 4.2 Types of solid: bond picture; 4.3 Cohesion; 4.4 Rigid band model and density of states.
- 4.5 Fermi statistics of electrons4.6 Statistics of carriers in a semiconductor; 4.7 Electronic specific heat; Chapter 5. Electron-Electron Interaction; 5.1 Perturbation formulation; 5.2 Static screening; 5.3 Screened impurities and neutral pseudo-atoms; 5.4 The singularity in the screening: Kohn effect; 5.5 The Friedel sum rule; 5.6 Dielectric constant of a semiconductor; 5.7 Plasma oscillations; 5.8 Quasi-particles and cohesive energy; 5.9 The Mott transition; Chapter 6. Dynamics of Electrons; 6.1 General principles; 6.2 Wannier functions.
- 6.3 Equations of motion in the Wannier representation6.4 The equivalent Hamiltonian: impurity levels; 6.5 Quasi-classical dynamics; 6.6 The mass tensor: electrons and holes; 6.7 Excitons; 6.8 Zener breakdown: tunnelling; 6.9 Electrons at a surface; 6.10 Scattering of electrons by impurities; 6.11 Adiabatic principle; 6.12 Renormalization of velocity of sound; 6.13 The electron-phonon interaction; 6.14 Deformation potentials; Chapter 7. Transport Properties; 7.1 The Boltzmann equation; 7.2 Electrical conductivity; 7.3 Calculation of relaxation time; 7.4 Impurity scattering.
- 7.5 'Ideal' resistance7.6 Carrier mobility; 7.7 General transport coefficients; 7.8 Thermal conductivity; 7.9 Thermo-electric effects; 7.10 Lattice conduction; 7.11 Phonon drag; 7.12 The Hall effect; 7.13 The two-band model: magneto-resistance; Chapter 8. Optical Properties; 8.1 Macroscopic theory; 8.2 Dispersion and absorption; 8.3 Optical modes in ionic crystals; 8.4 Photon-phonon transitions; 8.5 Interband transitions; 8.6 Interaction with conduction electrons; 8.7 The anomalous skin effect; 8.8 Ultrasonic attenuation; Chapter 9. The Fermi Surface; 9.1 High magnetic fields.