Contents -- 1 Introduction -- 2 Electronic states in high magnetic fields -- 2.1 Free electrons in magnetic fields -- 2.2 Landau levels -- 2.3 Bloch electrons in magnetic fields -- 2.3.1 Effective mass approximation -- 2.3.2 Semiclassical treatment -- 2.4 Landau levels in semiconductors -- 2.4.1 Two-band model -- 2.4.2 Conduction bands -- 2.4.3 Valence bands -- 2.4.4 Pidgeon-Brown model -- 2.5 Low dimensional systems -- 2.5.1 MOS-FET and heterostructure -- 2.5.2 Quantum well -- 2.5.3 Superlattice -- 2.5.4 Quantum wire and quantum dot -- 2.6 Electronic states in magnetic fields and electric fields -- 2.6.1 Crossed magnetic and electric fields -- 2.6.2 Edge states -- 2.7 High magnetic field effects on Bloch electrons -- 2.7.1 Breakdown of effective mass theory -- 2.7.2 Magnetic breakdown -- 2.8 Bound electron states in magnetic fields -- 2.8.1 Donor states -- 2.8.2 Exciton states -- 3 Magneto-transport phenomena -- 3.1 Magneto-transport in high magnetic fields -- 3.1.1 Magneto-conductivity and magneto-resistance -- 3.1.2 Effect of scattering -- 3.1.3 Quantum theory of transport phenomena in high magnetic fields -- 3.2 Shubnikov-de Haas effect -- 3.2.1 Shubnikov-de Haas effect in bulk semiconductors and semimetals -- 3.2.2 Shubnikov-de Haas effect in two-dimensional systems -- 3.3 Quantum Hall effect -- 3.3.1 Integer quantum Hall effect -- 3.3.2 Fractional quantum Hall effect -- 3.3.3 Measurement of quantum Hall effect in pulsed magnetic fields -- 3.4 Magneto-tunneling phenomena -- 3.4.1 Magneto-tunneling in tunnel diodes -- 3.4.2 Magneto-tunneling for B ⊥ barrier layers -- 3.4.3 Magneto-tunneling for B

3.5.3 Hot electron magenetophonon resonance -- 3.5.4 Magnetophonon resonance in multi-valley semiconductors -- 3.6 Angular dependent magneto-oscillation -- 4 Cyclotron resonance and far-infrared spectroscopy -- 4.1 Fundamentals of cyclotron resonance -- 4.1.1 Observation of classical cyclotron resonance -- 4.1.2 Quantum theory of cyclotron resonance -- 4.1.3 Cyclotron resonance in anisotropic bands -- 4.1.4 Cyclotron resonance in two-dimensional systems -- 4.1.5 Impurity cyclotron resonance and impurity transition -- 4.2 Non-parabolicity and spin splitting -- 4.2.1 Cyclotron resonance in non-parabolic bands -- 4.2.2 Spin-split cyclotron resonance -- 4.3 Resonance line-width -- 4.3.1 Spin relaxation -- 4.4 Electron-electron interaction -- 4.4.1 Kohn's theorem -- 4.4.2 Mode coupling in spin-split cyclotron resonance -- 4.4.3 Filling factor dependence of effective mass and line-width -- 4.5 Polaron effects -- 4.6 Temperature dependence of effective mass -- 4.7 Spin resonance and combined resonance -- 4.8 Structural phase transitions -- 4.9 Cyclotron resonance in valence bands -- 4.9.1 Hole cyclotron resonance in bulk crystals -- 4.9.2 Hole cyclotron resonance in two-dimensional systems -- 4.10 Unusual band structures and phenomena -- 4.10.1 Camel's back structure -- 4.10.2 Semiconducting diamond -- 4.10.3 Graphite -- 4.10.4 Bi[sub(2)]Se[sub(3)] family -- 4.11 Interplay between magnetic and quantum potentials -- 4.11.1 Short period superlattices with parallel magnetic fields -- 4.11.2 Angular dependence of the effective mass in quantum wells -- 4.11.3 Cyclotron resonance in quantum dots -- 4.12 Magnetic field-induced band cross-over -- 4.12.1 Γ-L cross-over in GaSb -- 4.12.2 Γ-X cross-over in GaAs/AlAs superlattices -- 4.12.3 Semimetal-semiconductor transition -- 4.13 Magneto-plasma phenomena -- 4.13.1 Magneto-plasma.

4.13.2 Helicon wave and Alfvén wave -- 5 Magneto-optical spectroscopy -- 5.1 Interband magneto-optical transition -- 5.1.1 Density of states and the absorption coefficient -- 5.1.2 Magneto-absorption spectra -- 5.2 Exciton spectra -- 5.2.1 Exciton spectra in magnetic fields -- 5.2.2 Dielectric constant -- 5.2.3 Quasi-two-dimensional excitons in quantum wells -- 5.2.4 Magneto-photoluminescence -- 5.3 Magneto-optics of excitons in doped quantum wells -- 5.3.1 Magneto-optical spectra in doped quantum wells -- 5.3.2 Fermi edge singularity -- 5.3.3 Anomalies at integer and fractional filling of the Landau levels -- 5.4 Magneto-optical spectra of short-period superlattices -- 5.4.1 Γ-X cross-over for B ⊥ layers -- 5.4.2 Photoluminescence in type II short-period superlattices and quantum wells -- 5.4.3 Magneto-optics for B

6.4.3 Magnetic field-induced type I - type II transition -- 6.5 Cyclotron resonance in DMS -- 6.5.1 Effect of magnetic ions on the effective mass -- 6.5.2 Cyclotron resonance in III-V magnetic semiconductors -- 7 Experimental techniques for high magnetic fields -- 7.1 Generation of high magnetic fields -- 7.1.1 Steady magnetic fields -- 7.1.2 Pulsed high magnetic fields -- 7.1.3 Ultra-high magnetic fields -- 7.2 Measurement of magnetic fields -- 7.3 Experiments in high magnetic fields -- 7.3.1 Transport measurement -- 7.3.2 Optical measurement -- 7.3.3 Infrared and far-infrared laser spectroscopy -- 7.3.4 Magnetic measurement -- 8 General references -- References -- Index -- A -- B -- C -- D -- E -- F -- G -- H -- I -- J -- K -- L -- M -- N -- O -- P -- Q -- R -- S -- T -- U -- V -- W -- Y -- Z.