Quantum Theory of the Optical and Electronic Properties of Semiconductors

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World Scientific Publishing Company, Apr 16, 1993 - Science - 492 pages

This substantially revised second edition of the Quantum Theory of the Optical and Electronic Properties of Semiconductors presents the basic elements needed to understand and engage in research in semiconductor physics. In this edition misprints have been corrected and new and more detailed material has been added. In order to treat the valence-band structure of semiconductors, an introduction to the k.p theory and the related description in terms of the Luttinger Hamiltonian was included. An introductory chapter on mesoscopic semiconductor structures was added which discusses the envelope function approximation and the modification caused by the spatial quantum confinement. In many chapters the results are developed in parallel first for bulk material, and then for quasi-two-dimensional quantum wells, and for quasi-one-dimensional quantum wires. Semiconductor quantum dots are treated in a separate chapter.

The discussion of time-dependent and coherent phenomena in semiconductors has been considerably extended by including a section dealing with the theoretical description of photon echoes in semiconductors. After the discussion of semiconductor laser physics, optical bistability, and electroabsorption in semiconductors, a new chapter on magneto-absorption has been added, in which magneto-excitons and magneto-plasmas in two-dimensional systems are discussed. The chapter on electron kinetics due to the interaction with longitudinal-optical phonons has been extended and a discussion on carrier-carrier collisions has been added to the chapter dealing with the semiconductor bloch equations. The material is presented in sufficient detail for graduate students and researchers who have a general background in quantum mechanics.

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Contents: Oscillator ModelAtom in a Classical Light FieldPeriodic Lattice of AtomsFree Carrier TransitionsMesoscopic Semiconductor StructuresIdeal Quantum GasesInteracting Electron GasPlasmons and Plasma ScreeningRetarded Green's Function for ElectronsExcitonsPolaritonsSemiconductor Bloch EquationsOptical Quasi-Equilibrium NonlinearitiesOptical BistabilityThe Semiconductor LaserCoherent Effects in SemiconductorsFree-Carrier ElectroabsorptionExciton ElectroabsorptionMagneto — OpticsSemiconductor Quantum DotsKinetics with Phonon ScatteringAppendix A: Field QuantizationAppendix B: Nonequilibrium Green's Functions
Readership: Solid state physicists, engineers, materials and optical scientists.
 

Contents

Chapter 1 OSCILLATOR MODEL
1
Chapter 2 ATOM IN A CLASSICAL LIGHT FIELD
17
Chapter 3 PERIODIC LATTICE OF ATOMS
30
Chapter 4 MESOSCOPIC SEMICONDUCTOR STRUCTURES
56
Chapter 5 FREE CARRIER TRANSITIONS
69
Chapter 6 IDEAL QUANTUM GASES
90
Chapter 7 INTERACTING ELECTRON GAS
111
Chapter 8 PLASMONS AND PLASMA SCREENING
133
Chapter 14 OPTICAL BISTABILITY
264
Chapter 15 THE SEMICONDUCTOR LASER
283
Chapter 16 COHERENT EFFECTS IN SEMICONDUCTORS
306
Chapter 17 FREECARRIER ELECTROABSORPTION
336
Chapter 18 EXCITON ELECTROABSORPTION
350
Chapter 19 MAGNETOOPTICS
364
Chapter 20 SEMICONDUCTOR QUANTUM DOTS
381
Chapter 21 KINETICS WITH PHONON SCATTERING
400

Chapter 9 RETARDED GREEN S FUNCTION FOR ELECTRONS
155
Chapter 10 EXCITONS
169
Chapter 11 POLARITONS
202
Chapter 12 SEMICONDUCTOR BLOCH EQUATIONS
218
Chapter 13 OPTICAL QUASIEQUILIBRIUM NONLINEARITIES
240
Appendix A FIELD QUANTIZATION
422
Appendix B NONEQUILIBRIUM GREEN S FUNCTIONS
439
INDEX
466
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