Fundamentals of Optical Waveguides/ (Record no. 176709)
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000 -LEADER | |
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fixed length control field | 00382nam a2200145Ia 4500 |
020 ## - INTERNATIONAL STANDARD BOOK NUMBER | |
International Standard Book Number | 9780125250962 |
040 ## - CATALOGING SOURCE | |
Transcribing agency | CUS |
082 ## - DEWEY DECIMAL CLASSIFICATION NUMBER | |
Classification number | 621.38275 |
Item number | OKA/F |
100 ## - MAIN ENTRY--PERSONAL NAME | |
Personal name | Okamoto, Katsunari |
245 #0 - TITLE STATEMENT | |
Title | Fundamentals of Optical Waveguides/ |
Statement of responsibility, etc. | Katsunari Okamoto |
250 ## - EDITION STATEMENT | |
Edition statement | 2nd ed. |
260 ## - PUBLICATION, DISTRIBUTION, ETC. (IMPRINT) | |
Place of publication, distribution, etc. | Amsterdam: |
Name of publisher, distributor, etc. | Elsevier, |
Date of publication, distribution, etc. | 2006. |
300 ## - PHYSICAL DESCRIPTION | |
Extent | xvi, 561p. |
505 ## - FORMATTED CONTENTS NOTE | |
Formatted contents note | <br/><br/>1 Wave Theory of Optical Waveguides 1<br/>1.1 Waveguide Structure 1<br/>1.2 Formation of Guided Modes 2<br/>1.3 Maxwell's Equations 7<br/>1.4 Propagating Power 10<br/>2 Planar Optical Waveguides 13<br/>2.1 Slab Waveguides 13<br/>2.1.1 Derivation of Basic Equations 13<br/>2.1.2 Dispersion Equations for TE and TM Modes 16<br/>2.1.3 Computation of Propagation Constant 19<br/>2.1.4 Electric Field Distribution 22<br/>2.1.5 Dispersion Equation for TM Mode 25<br/>2.2 Rectangular Waveguides 27<br/>2.2.1 Basic Equations 27<br/>2.2.2 Dispersion Equations for and Modes 29<br/>2.2.3 Kumar's Method 31<br/>2.2.4 Effective Index Method 37<br/>2.3 Radiation Field from Waveguide 41<br/>2.3.1 Fresnel and Fraunhofer Regions 41<br/>2.3.2 Radiation Pattern of Gaussian Beam 43<br/>2.4 Multimode Interference(MMI)Device 46<br/>3 Optical Fibers 57<br/>3.1 Basic Equations 57<br/>3.2 Wave Theory of Step-index Fibers 58<br/>3.2.1 TE Modes 58<br/>3.2.2 TM Modes 62<br/>3.2.3 Hybrid Modes 63<br/>Vllvni<br/>Contents<br/>3.3 Optical Power Carried by Each Mode 67<br/>3.3.1 TE Modes 68<br/>3.3.2 TM Modes 69<br/>3.3.3 Hybrid Modes 70<br/>3.4 Linearly Polarized(LP) Modes 71<br/>3.4.1 Unified Dispersion Equation for LP Modes 71<br/>3.4.2 Dispersion Characteristics of LP Modes 75<br/>3.4.3 Propagating Power of LP Modes 78<br/>3.5 Fundamental HE,, Mode 80<br/>3.6 Dispersion Characteristics of Step-index Fibers 83<br/>3.6.1 Signal Distortion Caused by Group Velocity Dispersion 83<br/>3.6.2 Mechanisms Causing Dispersion 88<br/>3.6.3 Derivation of Delay-time Formula 92<br/>3.6.4 Chromatic Dispersion 96<br/>3.6.5 Zero-dispersion Wavelength 102<br/>3.7 Wave Theory of Graded-index Fibers 103<br/>3.7.1 Basic Equations and Mode Concepts in<br/>Graded-index Fibers 103<br/>3.7.2 Analysis of Graded-index Fibers by the WKB Method 108<br/>3.7.3 Dispersion Characteristics of Graded-index Fibers 113<br/>3.8 Relation Between Di.spersion and Transmission Capacity 117<br/>3.8.1 Multimode Fiber 119<br/>3.8.2 Single-mode Fiber 119<br/>3.9 Birefringent Optical Fibers 120<br/>3.9.1 Two Orthogonally-polarized Modes in Nominally<br/>Single-mode Fibers 120<br/>3.9.2 Derivation of Basic Equations 123<br/>3.9.3 Elliptical-core Fibers 126<br/>3.9.4 Modal Birefringence 127<br/>3.9.5 Polarization Mode Dispersion 130<br/>3.10 Dispersion Control in Single-Mode Optical Fibers 134<br/>3.10.1 Dispersion Compensating Fibers 134<br/>3.10.2 Dispersion-shifted Fibers 135<br/>3.10.3 Dispersion Flattened Fibers 139<br/>3.10.4 Broadly Dispersion Compensating Fibers 142<br/>3.11 Photonic Crystal Fibers 144<br/>Coupled Mode Theory 159<br/>4.1 Derivation of Coupled Mode Equations Based<br/>on Perturbation Theory 159<br/>4.2 Codirectional Couplers 166Contents<br/>IX<br/>4.3 Contradirectional Coupling in Comigaied Waveguides 169<br/>4.3.1 Transmission and Reflection Characteristics in<br/>Uniform Gratings 169<br/>4.3.2 Phase-shift Grating I75<br/>4.4 Derivation of Coupling Coefficients I77<br/>4.4.1 Coupling Coefficients for Slab Waveguides 177<br/>4.4.2 Coupling Coefficients for Rectangular Waveguides 178<br/>4.4.3 Derivation of Coupling Coefficients Based on Mode<br/>Interference 1go<br/>4.4.4 Coupling Coefficients for Optical Fibers 183<br/>4.4.5 Coupling Coefficients for Corrugated Waveguides 187<br/>4.5 Optical Waveguide Devices using Directional Couplers 195<br/>4.5.1 Mach-Zehnder Interferometers I95<br/>4.5.2 Ring Resonators I97<br/>4.5.3 Bistable Devices 200<br/>4.6 Fiber Bragg Gratings 203<br/>5 Nonlinear Optical Effects in Optical Fibers 209<br/>5.1 Figure of Merit for Nonlinear Effects 209<br/>5.2 Optical Kerr Effect 211<br/>5.2.1 Self-phase Modulation 211<br/>5.2.2 Nonlinear Schrodinger Equation 213<br/>5.3 Optical Solitons 217<br/>5.3.1 Fundamental and Higher-Order Solitons 217<br/>5.3.2 Fiber Loss Compensation by Optical Amplification 223<br/>5.3.3 Modulational Instability 225<br/>5.3.4 Dark Solitons 229<br/>5.4 Optical Pulse Compression 230<br/>5.5 Light Scattering in Isotropic Media 233<br/>5.5.1 Vibration of One-Dimensional Lattice 233<br/>5.5.2 Selection Rules for Light Scattering by Phonons 236<br/>5.6 Stimulated Raman Scattering 240<br/>5.7 Stimulated Brillouin Scattering 243<br/>5.8 Second-Harmonic Generation 246<br/>5.9 Erbium-doped Fiber Amplifier 250<br/>5.10 Four-wave Mixing in Optical Fiber 252<br/>5 Finite Element Method 261<br/>6.1 Introduction 261<br/>6.2 Finite Element Method Analysis of Slab Waveguides 262<br/>6.2.1 Variational Formulation 262<br/>6.2.2 Discretization of the Functional 264Cotttciits<br/>6.2.3 Dispersion Equation Based on the Stationar>' Condition 266<br/>6.2.4 Dispersion Characteristics of Graded-index<br/>Slab Waveguides 269<br/>6.3 Finite Element Method Analysis of Optical Fibers 273<br/>6.3.1 Variational Formulation 273<br/>6.3.2 Discretization of the Functional 275<br/>6.3.3 Dispersion Equation Ba.sed on the Stationary Condition 275<br/>6.3.4 Single-mode Conditions of Graded-index Fibers 277<br/>6.3.5 Variational Expression for the Delay Time 279<br/>6.4 Finite Element Method Analysis of Rectangular Waveguides 284<br/>6.4.1 Vector and Scalar Analyses 284<br/>6.4.2 Variational Formulation and Discretization into Finite<br/>Number of Elements 284<br/>6.4.3 Dispersion Equation Based on the Stationary' Condition 289<br/>6.5 Stress Analysis of Optical Waveguides 298<br/>6.5.1 Energy Principle 298<br/>6.5.2 Plane Strain and Plane Stress 301<br/>6.5.3 Basic Equations for Di.splacement,<br/>Strain and Stress 301<br/>6.5.4 Formulation of the Total Potential Energy 303<br/>6.5.5 Solution of the Problem by the Stationary Condition 308<br/>6.5.6 Combination of Finite-Element Waveguide and<br/>Stress Analysis 309<br/>6.6 Semi-Vector FEM Analysis of High-Index Contrast<br/>Waveguides 315<br/>6.6.1 E-field Formulation 316<br/>6.6.2 H-field Formulation 317<br/>6.6.3 Steady State Mode Analysis 318<br/>Beam Propagation Method 329<br/>7.1 Basic Equations for Beam Propagation Method Based on the EFT 329<br/>7.1.1 Wave Propagation in Optical Waveguides 329<br/>7.1.2 Pulse Propagation in Optical Fibers 331<br/>7.2 FFTBPM Analysis of Optical Wave Propagation 332<br/>7.2.1 Formal Solution Using Operators 332<br/>7.2.2 Concrete Numerical Procedures Using Split-step<br/>Fourier Algorithm 334<br/>7.3 FFTBPM Analysis of Optical Pulse Propagation 336<br/>7.4 Di.screte Fourier Transform 339<br/>7.5 Fast Fourier Transform 346<br/>7.6 Formulation of Numerical Procedures Using Discrete<br/>Fourier Transform 348Contents<br/>XI<br/>7.7 Application.s of FFTBPM 35O<br/>7.8 Finite Difference Method Analysi.s of Planar Optical<br/>Waveguides 354<br/>7.8.1 Derivation of Basic Equations 364<br/>7.8.2 Tran.sparent Boundary Conditions 366<br/>7.8.3 Solution of Tri-diagonal Equations 368<br/>7.9 FDMBPM Analysis of Rectangular Waveguides 370<br/>7.10 FDMBPM Analysis of Optical Pulse Propagation 373<br/>7.11 Semi-Vector FDMBPM Analysis of High-Index<br/>Contrast Waveguides 377<br/>7.11.1 Quasi-TE Modes 373<br/>7.11.2 Quasi-TM Modes 3gO<br/>7.11.3 Polarization Splitter Using Silicon-on-Insulator<br/>(SO!)Waveguide 382<br/>7.12 Finite Difference Time Domain(FDTD)Method 383<br/>8 Staircase Concatenation Method 399<br/>8.1 Staircase Approximation of Waveguide Boundary 399<br/>8.2 Amplitudes and Phases Between the Connecting Interfaces 403<br/>8.3 Wavelength Division Multiplexing Couplers 408<br/>8.4 Wavelength-flattened Couplers 408<br/>9 Planar Lightwave Circuits 417<br/>9.1 Waveguide Fabrication 41g<br/>9.2 N X N Star Coupler 419<br/>9.3 Arrayed-waveguide Grating 423<br/>9.3.1 Principle of Operation and Fundamental<br/>Characteristics 423<br/>9.3.2 Analytical Treatment of AWG Demultiplexing<br/>Properties 42g<br/>9.3.3 Waveguide Layout of AWG 434<br/>9.3.4 Gaussian Spectral Response AWG 436<br/>9.3.5 Polarization Dependence of Pass Wavelength 439<br/>9.3.6 Vernier Technique for the Center Wavelength<br/>Adjustment 442<br/>9.4 Crosstalk and Dispersion^Characteristics of AWGs 443<br/>9.4.1 Crosstalk of AWGs 443<br/>9.4.2 Dispersion Characteristics of AWGs 448<br/>9.5 Functional AWGs 453<br/>9.5.1 Flat Spectral Response AWG 458<br/>9.5.2 Loss Reduction in AWG 473<br/>9.5.3 Unequal Channel Spacing AWG 476Xll<br/>Contents<br/>9.5.4 Variable Bandwidth AWG 478<br/>9.5.5 Unilorm-loss and Cyclic-frequency(ULCF)AWG 479<br/>9.5.6 Alhermal (Temperature Insensitive) AWG 484<br/>9.5.7 Multiwaveiength Simultaneous Monitoring Device<br/>Using AWG 490<br/>9.5.8 Pha.se Error Compensation of AWG 495<br/>9.5.9 Tandem AWG Configuration 499<br/>9.6 Reconfigurabie Optical Add/Drop Multiplexer(ROADM) 500<br/>9.7 N X N Matrix Switches 505<br/>9.8 Lattice-form Programmable Dispersion Equalizers 508<br/>9.9 Temporal Pulse Waveform Shapers 511<br/>9.10 Coherent Optical Transversal Filters 515<br/>9.1 1 Optical Label Recognition Circuit for Photonic Label<br/>Switch Router<br/>9.12 Polarization Mode Dispersion Compensator 522<br/>9.13 Hybrid Integration Technology Using PLC Platforms 524<br/>10 Several Important Theorems and Formulas 535<br/>10.1 Gauss's Theorem ^55<br/>10.2 Green's Theorem ^59<br/>10.3 Stokes' Theorem ^40<br/>10.4 Integral Theorem of Helmholtz and Kirchhoff 545<br/>10.5 Fre.snel-Kirchhoff Diffraction Formula 547<br/>10.6 Formulas for Vector Analysis 551<br/>10.7 Formulas in Cylindrical and Spherical Coordinates 553<br/>10.7.1 Cylindrical Coordinates 553<br/>10.7.2 Spherical Coordinates 554<br/> |
942 ## - ADDED ENTRY ELEMENTS (KOHA) | |
Koha item type | General Books |
Withdrawn status | Lost status | Damaged status | Not for loan | Home library | Current library | Shelving location | Date acquired | Full call number | Accession number | Date last seen | Koha item type |
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Central Library, Sikkim University | Central Library, Sikkim University | General Book Section | 29/08/2016 | 621.38275 OKA/F | P31711 | 29/08/2016 | General Books |