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Photodetectors and Fiber Optics

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ISBN-10: 012513908X

ISBN-13: 9780125139083

Edition: 2002

Authors: Hari Singh Nalwa

List price: $265.00
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Description:

This guide to photodetectors and optical fibres covers a broad spectrum of photodetectors and optical fibres and includes types of materials, their fabrication, physical properties and industrial applications.
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Book details

List price: $265.00
Copyright year: 2002
Publisher: Elsevier Science & Technology
Publication date: 3/26/2001
Binding: Hardcover
Pages: 500
Size: 8.50" wide x 10.98" long x 0.47" tall
Weight: 1.958
Language: English

Preface
About the Editor
Contributors
Semiconductor Photoconductors for Visible to Far-Infrared Detection
Introduction
Mechanisms of Photon Absorption
Interaction with High-Energy Radiation
Intrinsic Absorption
Extrinsic Absorption Mechanisms
Absorption in Quantum Wells and Superlattices
Intrinsic Photoconductors
Figures of Merit
Conventional Intrinsic Photoconductors
Photoconductors for Ultrafast Optoelectronics
Alternate Modes of Operation and Device Design
Extrinsic Photoconductors
Operation of Extrinsic Photoconductors
Figures of Merit
Device Construction
Extending the Wavelength Response
Transient Behavior of Extrinsic Photoconductors
Blocked Impurity Band Detectors and the Solid-State Photomultiplier
Solid-State Photomultiplier
Quantum-Well Infrared Photodetectors
Conclusion
Acknowledgments
References
Resonant Cavity Enhanced Photodetectors
Introduction
Historical Perspective--Prior to the 1990s
Organization of the Chapter
Theoretical Formulation of Resonant Cavity Enhanced Photodetector Parameters
Analytical Formulation of the Quantum Efficiency for Resonant Cavity Enhanced Photodetectors
Standing Wave Effect
Resonant Cavity Enhancement of Quantum Efficiency
Wavelength Selectivity of Resonant Cavity Enhanced Photodetection
Angle Dependence of Quantum Efficiency
Nearly Unity Quantum Efficiency Photodetection
Limitations of Analytical Formulation
Numerical Calculation of Optical Response
Recursive Formulation
Scattering Matrix Method
High-Speed Properties of Resonant Cavity Enhanced Photodiodes
Theoretical Considerations
High-Speed Capabilities of Resonant Cavity Enhanced Photodetectors
External Circuitry and Packaging
Transient Simulation of Resonant Cavity Enhanced Photodiodes
Design Criteria for Resonant Cavity Enhanced Photodetectors
Evaluation of Various Resonant Cavity Enhanced Designs
Material Requirements for Resonant Cavity Enhanced Photodetection
Material System Combinations for Resonant Cavity Enhanced Photodetection
Review of Experimental Results
Characterization of Quantum Efficiency and Electrical Performance
Classification of Resonant Cavity Enhanced Photodetector Categories
Resonant Cavity Enhanced Photodetectors with High/Unity Efficiency
Resonant Cavity Enhanced Photodetectors for Optical Communications
Wavelength Selective Resonant Cavity Enhanced Photodetectors
Polarization Sensing with Resonant Cavity Enhanced Photodetectors
Resonant Cavity Enhanced Photodiodes Integrated with Light Emitters
Advanced Designs--Flat Spectral Response
Conclusions
Acknowledgments
References
Silicon and GaAs as Far-Infrared Detector Material
Introduction
Silicon Far-Infrared Detectors
GaAs Far-Infrared Detectors
Far-Infrared Absorption
Far-Infrared Absorption in GaAs
Far-Infrared Absorption in Silicon
Homojunction Interfacial Workfunction Internal Photoemission Detectors
Type-I Homojunction Interfacial Workfunction Internal Photoemission Detectors: N[subscript a] [ N[subscript c] (E[subscript F] ] E[superscript n]+[subscript c])
Type-II Homojunction Interfacial Workfunction Internal Photoemission Detector: N[subscript c] [ N[subscript a] [ N[subscript 0] (E[superscript p]+[subscript v] ] E[subscript F] ] E[superscript i subscript v])
Performance Improvements in Homojunction Interfacial Workfunction Internal Photoemission Detectors
Type-II Silicon Homojunction Interfacial Workfunction Internal Photoemission Detector
Type-III Homojunction Internal Photoemission Detector: N[subscript a] ] N[subscript 0] (E[subscript F] [ E[superscript i subscript v])
Summary
Acknowledgment
References
Bulk Semiconductors for Infrared Applications
Overview
Material Preparation and Basic Characterization
Materials for Infrared Detection
Transition Metal-Doped II-VI Compounds for Tunable Midinfrared Lasers
Electro-optic and Nonlinear Optic Materials
Material Properties Relevant for Infrared Devices
Photorefractives
Optical Limiters
Solid-State Midinfrared Tunable Lasers
Optical Parametric Oscillators (OPO)
Infrared Optical Components
Conclusions
References
Photodetectors for Optical Fiber Communications
Introduction
Basic Principles
p-i-n Photodetectors
Introduction
Vertically Illuminated p-i-n Photodiode Structure
Edge-Illuminated Waveguide Photodiodes
Resonance Cavity-Enhanced Photodiodes
Effect of Packaging
Reliability
Schottky Barrier Photodetectors
Metal-Semiconductor-Metal Photodetectors
Introduction
Metal-Semiconductor-Metal Photodiode Structure and Performance
Avalanche Photodiodes
Introduction
Separate Absorption Grading Charge Sheet and Multiplication APDs
Superlattice APD
Resonant Cavity Encapsulated APD
Si-Based Photodetectors
InGaAs on Si-Based Photodetectors
Ge[subscript 1-x]C[subscript x]/Si-Based Photodetectors
Optical Receiver
Introduction
Hybrid Photoreceiver
Monolithic Photoreceiver
Summary
Acknowledgments
References
Germanium Dioxide-Based Glasses as Advanced Optical Sensors Materials
Introduction
Properties and Structure of Glass-Forming GeO[subscript 2]
X-Ray and Neutron Scattering Studies of GeO[subscript 2]
Infrared Spectroscopy Studies
Electron Paramagnetic Resonance Studies
Optical Properties
Properties and Structure of Binary Germanate Glasses
Properties and Structure of Ternary Germanate Glasses
Pseudoternary Fluoride-Containing Germanate Systems
Germanium Dioxide Based Glasses in Applications
References
High-Bandwidth Optical Networks and Communication
Introduction
Networks
Local Area Networks
Metropolitan Area and Wide Area Networks
Internet Protocol
Network Layers
Enabling Technologies and Transmission Systems
Optical Amplifiers
Transmission Systems Design
Computer Aided Design
Transmission
Linear Propagation
Single-Mode Dispersion and Dispersion Penalties
Nonlinear Propagation and the Nonlinear Schrodinger Equation
Wavelength-Division Multiplexing
Solitons
Soliton Optical Communications
Solitons and Polarization
Solitons and Amplification
Gordon-Haus Jitter and Timing Jitter Control
Dispersion Management and Dispersion-Managed Solitons
Wavelength-Division Multiplexing and Solitons
Systems Experiments
Femtosecond Propagation
Switching
Switches in Communications
Soliton All-Optical Switching
Coupled Higher-Order Equations
All-Optical Networks
Multihop Networks
Wavelength Routing Networks
Node Design
Crosstalk
Traffic Patterns and Demands
Routing and Wavelength Assignment
Free-Space Optical Propagation
Self-Focusing
Gigabit/sec Propagation
Terabit/sec Propagation
Summary
Acknowledgments
References
Index