Semiconductor Opto-Electronics
Published on 22. October 2013
454 pages
978-1-4831-6130-3 (ISBN)
Description
Semiconductor Opto-Electronics focuses on opto-electronics, covering the basic physical phenomena and device behavior that arise from the interaction between electromagnetic radiation and electrons in a solid. The first nine chapters of this book are devoted to theoretical topics, discussing the interaction of electromagnetic waves with solids, dispersion theory and absorption processes, magneto-optical effects, and non-linear phenomena. Theories of photo-effects and photo-detectors are treated in detail, including the theories of radiation generation and the behavior of semiconductor lasers and lamps. The rest of this text deals with the group IV elements, III-V compounds, and selection of the most important chalcogenides. This publication is intended primarily for physicists engaged in academic research or commercial device development and for honors students specializing in solid-state physics.
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T.S. Moss | G.J. Burrell | B. Ellis
Semiconductor Opto-Electronics
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12/1972
Architectural Press
€54.46
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Content
UnitsChapter 1 Optical Constants of Solids 1.1 Electromagnetic Waves 1.2 Behavior at an Interface 1.3 Reflection at an Air/Conductor Surface 1.4 Refraction at an Air/Conductor Surface 1.5 Multiple Reflections in Thin Films 1.6 Interference Effects in Semiconductor LasersChapter 2 Dispersion Theory 2.1 Classical Theory of Dispersion in Dielectrics 2.2 Behavior of a Single Classical Oscillator 2.3 Quantum-Mechanical Theory of Dispersion 2.4 Inter-Relation of Optical Constants 2.5 Free-Carrier Absorption and Dispersion 2.6 Plasma-Edge ReflectionChapter 3 Absorption Processes in Semiconductors 3.1 Absorption and Reflection Spectra 3.2 Direct Optical Transitions 3.3 Indirect Transitions 3.4 Absorption Due to Excitons 3.5 Pressure and Temperature Dependence of the Absorption Edge 3.6 Absorption and Reflection in an Electric Field 3.7 Absorption in Heavily Doped Semiconductors 3.8 Absorption by Localized ImpuritiesChapter 4 Magneto-Optical Effects 4.1 Electrons in a Magnetic Field 4.2 Free-Carrier Magneto-Optics 4.3 Quantum-Mechanical Description of Energy States in a Magnetic Field 4.4 Miscellaneous Cyclotron-Resonance Effects 4.5 Effect of a Magnetic Field on States in the Forbidden GapChapter 5 Photo-Effects 5.1 Introduction 5.2 Transport Equations with Optical Generation 5.3 Photo-Diffusion Effects 5.4 Photoconductivity (PC) 5.5 Photo-Electro-Magnetic Effect (PEM) 5.6 Recombination 5.7 Photovoltaic Effects (PV) 5.8 External Photoemission of Electrons 5.9 Photon Pressure Effects (Photon Drag)Chapter 6 Semiconductor Photodetectors 6.1 General Considerations 6.2 Figures of Merit 6.3 Noise in Photodetectors 6.4 Photoconductive Detectors 6.5 Photovoltaic Detectors 6.6 PEM-Effect Detectors 6.7 Photoconductive Gain 6.8 Solar CellsChapter 7 Emission of Radiation from Semiconductors 7.1 Emission Processes in Semiconductors 7.2 Emissivity of Thermal Radiation 7.3 Interband Radiative Recombination 7.4 Radiative Recombination at Localized Energy States 7.5 Non-Radiative Recombination ProcessesChapter 8 Semiconductor Lasers and Lamps 8.1 Physical Processes in Semiconductor Lasers 8.2 Injection and Recombination at p-n Junctions 8.3 Interdependence of Spontaneous- and Stimulated-Emission Rates 8.4 Evaluation of the Gain Coefficient and the Spontaneous-Emission Rate 8.5 Conditions for Oscillation in Injection Lasers 8.6 Quantum Efficiency of the Injection Laser 8.7 Close-Confinement Lasers 8.8 The Potential of Indirect-Gap Semiconductors as Laser Materials 8.9 Light-Emitting DiodesChapter 9 Non-Linear Optical Effects 9.1 Introduction 9.2 Quadratic Polarization Effects 9.3 Cubic Polarization Effects 9.4 Generation of a New Electromagnetic WaveChapter 10 Group IV Semiconductors 10.1 Introduction 10.2 Germanium 10.3 Silicon 10.4 Silicon CarbideChapter 11 III-V Compounds 11.1 General Survey 11.2 Indium Antimonide 11.3 Indium Arsenide 11.4 Gallium Arsenide 11.5 Gallium Phosphide 11.6 Ternary Alloys of III-V CompoundsChapter 12 Lead, Tin, and Mercurycadmium Chalcogenides 12.1 Introduction 12.2 Lead Sulphide, Selenide, and Telluride 12.3 Lead-Tin Chalcogenide Alloys 12.4 Mercury-Cadmium Telluride 12.5 Future Developments in 8-14 µm DetectorsAppendixReference List and Author IndexSubject Index
