Optical Waves in Crystals. Propagation and Control of Laser Radiation / Оптические волны в кристаллах. Распространение и управление лазерным излучением
Год издания: 1984
Автор: Amnon Yariv, Pochi Yeh
Издательство: A Wiley-Interscience Publication - John Wiley & Sons - New York / Chichester / Brisbane / Toronto / Singapore
ISBN: 0-471-09142-1
Язык: Английский
Формат: DjVu
Качество: Отсканированные страницы + слой распознанного текста
Интерактивное оглавление: Нет
Количество страниц: 601
Описание: This book, intended as a text for a course in electro-optics for electrical-engineering or applied-physics students, has two primary objectives: to present a clear physical picture of the propagation of laser radiation in various optical media and to teach the reader how to analyze and design electro-optical devices.
Примеры страниц (скриншоты)
Оглавление
Chapter 1. Electromagnetic Fields 1
1.1. Maxwell's Equations and Boundary Conditions 1
1.2. Poynting's Theorem and Conservation Laws 5
1.3. Complex-Function Formalism 6
1.4. Wave Equations and Monochromatic Plane Waves 8
1.5. Propagation of a Laser Pulse; Group Velocity 13
Problems 18
References and Suggested Reading 21
Chapter 2. Propagation of Laser Beams 22
2.1. Scalar Wave Equation 22
2.2. Gaussian Beams in a Homogeneous Medium 25
2.3. Fundamental Gaussian Beam in a Lenslike Medium—The ABCD Law 29
2.4. High-Order Gaussian Beam Modes in a Homogeneous Medium 37
2.5. Gaussian Beam Modes in Quadratic-Index Media 38
Problems 50
References 53
Chapter 3. Polarization of Light Waves 54
3.1. The Concept of Polarization 54
3.2. Polarization of Monochromatic Plane Waves 55
3.3. Complex-Number Representation 61
3.4. Jones-Vector Representation 62
Problems 64
References and Suggested Reading 68
Chapter 4. Electromagnetic Propagation in Anisotropic Media 69
4.1. The Dielectric Tensor of an Anisotropic Medium 69
4.2. Plane-Wave Propagation in Anisotropic Media 71
4.3. The Index Ellipsoid 77
4.4. Phase Velocity, Group Velocity, and Energy Velocity 79
4.5. Classification of Anisotropic Media (Crystals) 82
4.6. Light Propagation in Uniaxial Crystals 84
4.7. Double Refraction at a Boundary 88
4.8. Light Propagation in Biaxial Crystals 89
4.9. Optical Activity 94
4.10. Faraday Rotation 103
4.11. Coupled-Mode Analysis of Wave Propagation in Anisotropic Media 104
4.12. Equation of Motion for the Polarization State 110
Problems 113
References 120
Chapter 5. Jones Calculus and its Application to Birefringent Optical Systems 121
5.1. Jones Matrix Formulation 121
5.2. Intensity Transmission 127
5.3. Polarization Interference Filters 131
5.4. Light Propagation in Twisted Anisotropic Media 143
5.5. The Problem of Fresnel Reflection and Phase Shift 147
Problems 148
References 154
Chapter 6. Electromagnetic Propagation in Periodic Media 155
6.1. Periodic Media 155
6.2. Periodic Layered Media 165
6.3. Bragg Reflection 174
6.4. Coupled-Mode Theory 177
6.5. Coupled-Mode Theory of Sole Filters 189
6.6. Coupled-Mode Theory of Bragg Reflectors 194
6.7. Phase Velocity, Group Velocity, and Energy Velocity 201
6.8. Form Birefringence 205
6.9. Electromagnetic Surface Waves 209
Problems 214
References 219
Chapter 7. Electro-optics 220
7.1. The Electro-optic Effect 220
7.2. Linear Electro-optic Effect 223
7.3. Electro-optic Modulation 238
7.4. Wave Propagation in Electro-optic Crystals 245
7.5. Quadratic Electro-optic Effect 256
7.6. Physical Properties of Electro-optic Coefficients 264
7.7. Electro-optic Effects in Liquid Crystals 266
Problems 270
References 275
Chapter 8. Electro-optic Devices 276
8.1. Electro-optic Light Modulators 276
8.2. Electro-optic Fabry-Perot Modulators 288
8.3. Some Design Considerations 293
8.4. Bistable Electro-optic Devices 298
8.5. Electro-optic Frequency Shifting and Pulse Compression 303
8.6. Electro-optic Beam Deflectors 309
Problems 312
References 316
Chapter 9. Acousto-optics 318
9.1. The Photoelastic Effect 318
9.2. Basic Concepts of Acousto-optic Interactions 329
9.3. Particle Picture of Acousto-optic Interactions 332
9.4. Bragg Diffraction in an Anisotropic Medium 333
9.5. Coupled-Mode Analysis of Bragg Diffraction 337
9.6. Raman-Nath Diffraction 354
9.7. Surface Acousto-optics 358
Problems 363
References and Suggested Reading 365
Chapter 10. Acousto-optic Devices 366
10.1. Acousto-optic Modulators 366
10.2. Acousto-optic Deflectors 379
10.3. Acousto-optic Tunable Filters (AOTF) 387
10.4. Acousto-optic Spectrum Analyzers 396
10.5. Acousto-optic Signal Correlators 398
Problems 401
References 404
Chapter 11. Guided Waves and Integrated Optics 405
11.1. General Properties of Dielectric Waveguides 405
11.2. TE and TM Modes in an Asymmetric Waveguide 416
11.3. Dielectric Perturbation and Mode Coupling 425
11.4. Periodic Waveguide—Bragg Reflection 429
11.5. Ccdirectional Coupling in a Periodic Waveguide 436
11.6. Distributed-Feedback Lasers 439
11.7. Electro-optic Modulation and Mode Coupling 447
11.8. Directional Coupling 459
11.9. Frequency Multiplexers 469
11.10. Other Planar Waveguides 473
11.11. Leaky Dielectric Waveguide 482
11.12. Electromagnetic Surface Waves (Surface Plasmons) 489
Problems 495
References 502
Chapter 12. Nonlinear Optics 504
12.1. Introduction 504
12.2. Second-Order Nonlinear Phenomena—General Methodology 505
12.3. Electromagnetic Formulation of Nonlinear Interaction 516
12.4. Optical Second-Harmonic Generation 518
12.5. Second-Harmonic Generation with a Depleted Input 526
12.6. Second-Harmonic Generation with Gaussian Beams 528
12.7. Parametric Amplification 531
12.8. Parametric Oscillation 533
12.9. Frequency Tuning in Parametric Oscillation 538
12.10. Frequency Upconversion 542
Problems 545
References 547
Chapter 13. Phase-Conjugate Optics 549
13.1. Introduction 549
13.2. Propagation through a Distorting Medium 549
13.3. Image Transmission in Fibers 551
13.4. Theory of Phase Conjugation by Four-Wave Mixing 553
Author Index 569
Subject Index 573
