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FIBER-OPTIC COMMUNICATION SYSTEMS FOURTH EDITIONPDF电子书下载

外文

• 作 者：
• 出 版 社：WILEY
• 出版年份：2010
• ISBN：0470505117
• 页数：608 页

图书介绍： 查看图书目录点击购买PDF全本电子书 上一篇：CONTEMPORARY BUSINESS SEVENTH EDITION下一篇：INGRID WEAVER 《FIBER-OPTIC COMMUNICATION SYSTEMS FOURTH EDITION》目录 标签：

1 Introduction1

1.1 Historical Perspective1

1.1.1 Need for Fiber-Optic Communications2

1.1.2 Evolution of Lightwave Systems4

1.2 Basic Concepts8

1.2.1 Analog and Digital Signals8

1.2.2 Channel Multiplexing11

1.2.3 Modulation Formats13

1.3 Optical Communication Systems16

1.4 Lightwave System Components17

1.4.1 Optical Fibers as a Communication Channel18

1.4.2 Optical Transmitters18

1.4.3 Optical Receivers19

Problems20

References21

2 Optical Fibers24

2.1 Geometrical-Optics Description24

2.1.1 Step-Index Fibers25

2.1.2 Graded-Index Fibers27

2.2 Wave Propagation29

2.2.1 Maxwell’s Equations29

2.2.2 Fiber Modes31

2.2.3 Single-Mode Fibers34

2.3 Dispersion in Single-Mode Fibers38

2.3.1 Group-Velocity Dispersion39

2.3.2 Material Dispersion40

2.3.3 Waveguide Dispersion41

2.3.4 Higher-Order Dispersion43

2.3.5 Polarization-Mode Dispersion44

2.4 Dispersion-Induced Limitations46

2.4.1 Basic Propagation Equation46

2.4.2 Chirped Gaussian Pulses47

2.4.3 Limitations on the Bit Rate50

2.4.4 Fiber Bandwidth54

2.5 Fiber Losses55

2.5.1 Attenuation Coefficient55

2.5.2 Material Absorption57

2.5.3 Rayleigh Scattering58

2.5.4 Waveguide Imperfections58

2.6 Nonlinear Optical Effects59

2.6.1 Stimulated Light Scattering59

2.6.2 Nonlinear Phase Modulation64

2.6.3 Four-Wave Mixing67

2.7 Fiber Design and Fabrication67

2.7.1 Silica Fibers68

2.7.2 Plastic Optical Fibers71

2.7.3 Cables and Connectors72

Problems74

References75

3 Optical Transmitters79

3.1 Semiconductor Laser Physics79

3.1.1 Spontaneous and Stimulated Emissions80

3.1.2 Nonradiative Recombination81

3.1.3 Optical Gain82

3.1.4 Feedback and Laser Threshold84

3.1.5 Longitudinal Modes85

3.1.6 Laser Structures86

3.2 Single-Mode Semiconductor Lasers87

3.2.1 Distributed Feedback Lasers88

3.2.2 Coupled-Cavity Semiconductor Lasers90

3.2.3 Tunable Semiconductor Lasers91

3.2.4 Vertical-Cavity Surface-Emitting Lasers93

3.3 Laser Characteristics94

3.3.1 CW Characteristics95

3.3.2 Modulation Bandwidth98

3.3.3 Relative Intensity Noise100

3.3.4 Spectral Linewidth102

3.4 Optical Signal Generation104

3.4.1 Direct Modulation104

3.4.2 External Modulation106

3.5 Light-Emitting Diodes110

3.5.1 CW Characteristics110

3.5.2 Modulation Response112

3.5.3 LED Structures113

3.6 Transmitter Design115

3.6.1 Source-Fiber Coupling115

3.6.2 Driving Circuitry118

3.6.3 Reliability and Packaging119

Problems121

References122

4 Optical Receivers128

4.1 Basic Concepts128

4.1.1 Responsivity and Quantum Efficiency128

4.1.2 Rise Time and Bandwidth130

4.2 Common Photodetectors131

4.2.1 p-n Photodiodes132

4.2.2 p-i-n Photodiodes133

4.2.3 Avalanche Photodiodes137

4.2.4 MSM Photodetectors143

4.3 Receiver Design144

4.3.1 Front End144

4.3.2 Linear Channel145

4.3.3 Decision Circuit147

4.3.4 Integrated Receivers148

4.4 Receiver Noise151

4.4.1 Noise Mechanisms151

4.4.2 p-i-n Receivers153

4.4.3 APD Receivers154

4.5 Coherent Detection158

4.5.1 Local Oscillator158

4.5.2 Homodyne Detection159

4.5.3 Heterodyne Detection160

4.5.4 Signal-to-Noise Ratio160

4.6 Receiver Sensitivity161

4.6.1 Bit-Error Rate162

4.6.2 Minimum Received Power164

4.6.3 Quantum Limit of Photodetection166

4.7 Sensitivity Degradation167

4.7.1 Extinction Ratio167

4.7.2 Intensity Noise169

4.7.3 Timing Jitter171

4.8 Receiver Performance173

Problems175

References177

5 Lightwave Systems182

5.1 System Architectures182

5.1.1 Point-to-Point Links182

5.1.2 Distribution Networks184

5.1.3 Local-Area Networks185

5.2 Design Guidelines187

5.2.1 Loss-Limited Lightwave Systems187

5.2.2 Dispersion-Limited Lightwave Systems189

5.2.3 Power Budget190

5.2.4 Rise-Time Budget191

5.3 Long-Haul Systems194

5.3.1 Performance-Limiting Factors194

5.3.2 Terrestrial Lightwave Systems196

5.3.3 Undersea Lightwave Systems198

5.4 Sources of Power Penalty200

5.4.1 Modal Noise201

5.4.2 Mode-Partition Noise202

5.4.3 Reflection Feedback and Noise204

5.4.4 Dispersive Pulse Broadening208

5.4.5 Frequency Chirping209

5.4.6 Eye-Closure Penalty210

5.5 Forward Error Correction212

5.5.1 Error-Correcting Codes212

5.5.2 Coding Gain213

5.6 Computer-Aided Design214

Problems216

References218

6 Multichannel Systems223

6.1 WDM Lightwave Systems223

6.1.1 High-Capacity Point-to-Point Links224

6.1.2 Wide-Area and Metro-Area Networks228

6.1.3 Multiple-Access WDM Networks230

6.2 WDM Components232

6.2.1 Tunable Optical Filters233

6.2.2 Multiplexers and Demultiplexers238

6.2.3 Add-Drop Multiplexers and Filters242

6.2.4 Star Couplers244

6.2.5 Wavelength Routers246

6.2.6 WDM Transmitters and Receivers248

6.3 System Performance Issues251

6.3.1 Heterowavelength Linear Crosstalk251

6.3.2 Homowavelength Linear Crosstalk253

6.3.3 Nonlinear Raman Crosstalk255

6.3.4 Stimulated Brillouin Scattering257

6.3.5 Cross-Phase Modulation259

6.3.6 Four-Wave Mixing261

6.3.7 Other Design Issues262

6.4 Time-Division Multiplexing264

6.4.1 Channel Multiplexing264

6.4.2 Channel Demultiplexing266

6.4.3 System Performance268

6.5 Subcarrier Multiplexing269

6.5.1 Analog and Digital SCM Systems270

6.5.2 Multiwavelength SCM Systems273

6.5.3 Orthogonal Frequency-Division multiplexing275

6.6 Code-Division Multiplexing277

6.6.1 Time-Domain Encoding278

6.6.2 Frequency-Domain Encoding280

6.6.3 Frequency Hopping281

Problems283

References285

7 Loss Management295

7.1 Compensation of Fiber Losses295

7.1.1 Periodic Amplification Scheme296

7.1.2 Lumped Versus Distributed Amplification298

7.1.3 Bidirectional Pumping Scheme299

7.2 Erbium-Doped Fiber Amplifiers300

7.2.1 Pumping and Gain Spectrum300

7.2.2 Two-Level Model302

7.2.3 Amplifier Noise305

7.2.4 Multichannel Amplification307

7.3 Raman Amplifiers310

7.3.1 Raman Gain and Bandwidth310

7.3.2 Raman-Induced Signal Gain312

7.3.3 Multiple-Pump Raman Amplification313

7.3.4 Noise Figure of Raman Amplifiers316

7.4 Optical Signal-To-Noise Ratio318

7.4.1 Lumped Amplification318

7.4.2 Distributed Amplification319

7.5 Electrical Signal-To-Noise Ratio321

7.5.1 ASE-Induced Current Fluctuations321

7.5.2 Impact of ASE on SNR322

7.5.3 Noise Buildup in an Amplifier Chain323

7.6 Receiver Sensitivity and Q Factor325

7.6.1 Bit-Error Rate325

7.6.2 Relation between Q Factor and Optical SNR327

7.7 Role of Dispersive and Nonlinear Effects328

7.7.1 Noise Growth through Modulation Instability328

7.7.2 Noise-Induced Signal Degradation330

7.7.3 Noise-Induced Energy Fluctuations332

7.7.4 Noise-Induced Timing Jitter333

7.8 Periodically Amplified Lightwave Systems334

7.8.1 Numerical Approach335

7.8.2 Optimum Launched Power337

Problems339

References340

8 Dispersion Management345

8.1 Dispersion Problem and Its Solution345

8.2 Dispersion-Compensating Fibers347

8.2.1 Conditions for Dispersion Compensation348

8.2.2 Dispersion Maps349

8.2.3 DCF Designs350

8.3 Fiber Bragg Gratings354

8.3.1 Constant-Period Gratings354

8.3.2 Chirped Fiber Gratings356

8.3.3 Sampled Gratings360

8.4 Dispersion-Equalizing Filters363

8.4.1 Gires-Tournois Filters363

8.4.2 Mach-Zehnder Filters366

8.4.3 Other All-Pass Filters367

8.5 Optical Phase Conjugation369

8.5.1 Principle of Operation369

8.5.2 Compensation of Self-Phase Modulation370

8.5.3 Generation of Phase-Conjugated Signal371

8.6 Channels at High Bit Rates375

8.6.1 Tunable Dispersion Compensation375

8.6.2 Higher-Order Dispersion Management379

8.6.3 PMD Compensation382

8.7 Electronic Dispersion Compensation385

8.7.1 Basic Idea behind GVD Precompensation385

8.7.2 Precompensation at the Transmitter386

8.7.3 Dispersion Compensation at the Receiver392

Problems397

References399

9 Control of Nonlinear Effects407

9.1 Impact of Fiber Nonlinearity407

9.1.1 System Design Issues408

9.1.2 Semianalytic Approach411

9.1.3 Soliton and Pseudo-linear Regimes414

9.2 Solitons in Optical Fibers416

9.2.1 Properties of Optical Solitons416

9.2.2 Loss-Managed Solitons419

9.3 Dispersion-Managed Solitons423

9.3.1 Dispersion-Decreasing Fibers423

9.3.2 Periodic Dispersion Maps424

9.3.3 Design Issues427

9.3.4 Timing Jitter430

9.3.5 Control of Timing Jitter432

9.4 Pseudo-linear Lightwave Systems434

9.4.1 Origin of Intrachannel Nonlinear Effects435

9.4.2 Intrachannel Cross-Phase Modulation437

9.4.3 Intrachannel Four-Wave Mixing441

9.5 Control of Intrachannel Nonlinear Effects444

9.5.1 Optimization of Dispersion Maps444

9.5.2 Phase-Alternation Techniques448

9.5.3 Polarization Bit Interleaving449

Problems451

References453

10 Advanced Lightwave Systems459

10.1 Advanced Modulation Formats460

10.1.1 Encoding of Optical Signals460

10.1.2 Amplitude and Phase Modulators462

10.2 Demodulation Schemes464

10.2.1 Synchronous Heterodyne Demodulation464

10.2.2 Asynchronous Heterodyne Demodulation466

10.2.3 Optical Delay Demodulation467

10.3 Shot Noise and Bit-Error Rate470

10.3.1 Synchronous Heterodyne Receivers470

10.3.2 Asynchronous Heterodyne Receivers472

10.3.3 Receivers with Delay Demodulation475

10.4 Sensitivity Degradation Mechanisms476

10.4.1 Intensity Noise of Lasers476

10.4.2 Phase Noise of Lasers478

10.4.3 Signal Polarization Fluctuations480

10.4.4 Noise Added by Optical Amplifiers483

10.4.5 Fiber Dispersion484

10.5 Impact of Nonlinear Effects485

10.5.1 Nonlinear Phase Noise486

10.5.2 Effect of Fiber Dispersion489

10.5.3 Compensation of Nonlinear Phase Noise490

10.6 Recent Progress494

10.6.1 Systems with the DBPSK format494

10.6.2 Systems with the DQPSK format496

10.6.3 QAM and Related formats497

10.6.4 Systems Employing Orthogonal FDM499

10.7 Ultimate Channel Capacity501

Problems503

References504

11 Optical Signal Processing511

11.1 Nonlinear Techniques and Devices511

11.1.1 Nonlinear Optical Loop Mirrors512

11.1.2 Parametric Amplifiers516

11.1.3 Nonlinear Effects in Semiconductor Optical Amplifiers522

11.1.4 Bistable Optical Devices526

11.2 All-Optical Flip-Flops529

11.2.1 Semiconductor Lasers and SOAs529

11.2.2 Coupled Semiconductor Lasers and SOAs531

11.3 Wavelength Converters533

11.3.1 XPM-Based Wavelength Converters533

11.3.2 FWM-Based Wavelength Converters537

11.3.3 Passive Semiconductor Waveguides540

11.3.4 SOA-Based Wavelength Converters542

11.4 Ultrafast Optical Switching544

11.4.1 Time-Domain Demultiplexing545

11.4.2 Data-Format Conversion549

11.4.3 Packet Switching552

11.5 Optical Regenerators553

11.5.1 Fiber-Based 2R Regenerators553

11.5.2 SOA-Based 2R Regenerators559

11.5.3 Fiber-Based 3R Regenerators560

11.5.4 SOA-Based 3R Regenerators562

11.5.5 Regeneration of Phase-Encoded Signals565

Problems568

References569

A System of Units578

B Acronyms580

C General Formula for Pulse Broadening584

D Software Package587

Index589

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摘要：本文详细介绍了《FIBER-OPTIC COMMUNICATION SYSTEMS FOURTH EDITION.pdf》电子书版文档下载，从其内容、特点、应用和前景四个方面进行了全面剖析，旨在为读者提供一份关于光纤通信系统领域的权威参考资料。

1、内容概述

《FIBER-OPTIC COMMUNICATION SYSTEMS FOURTH EDITION.pdf》是一本关于光纤通信系统的权威著作，全书共分为四个部分。第一部分介绍了光纤通信系统的基础知识，包括光纤、光发射器、光接收器和光纤传输系统等；第二部分详细阐述了光纤通信系统的关键技术，如调制、解调、放大、中继和复用等；第三部分分析了光纤通信系统的应用领域，如通信、传感、医疗和能源等；第四部分展望了光纤通信系统的未来发展趋势。

全书内容丰富，结构严谨，语言通俗易懂，适合广大光纤通信领域的研究人员、工程技术人员和高校师生阅读。

此外，本书还提供了大量的实例和图表，有助于读者更好地理解和掌握光纤通信系统的相关知识。

2、特点分析

《FIBER-OPTIC COMMUNICATION SYSTEMS FOURTH EDITION.pdf》具有以下特点：

（1）全面性：本书涵盖了光纤通信系统的各个方面，从基础知识到关键技术，从应用领域到未来发展趋势，为读者提供了一本全面的光纤通信系统参考书。

（2）实用性：本书内容紧密结合实际应用，提供了大量的实例和图表，有助于读者在实际工作中解决实际问题。

（3）新颖性：本书在介绍光纤通信系统的新技术、新应用和新趋势方面具有前瞻性，有助于读者把握行业动态。

3、应用领域

光纤通信系统在以下领域具有广泛的应用：

（1）通信领域：光纤通信系统已成为现代通信的主要传输手段，广泛应用于长途通信、城域网和接入网等领域。

（2）传感领域：光纤通信系统具有高灵敏度、抗干扰能力强等特点，在传感领域具有广泛的应用前景。

（3）医疗领域：光纤通信系统在医疗领域的应用主要包括远程医疗、医学成像和生物传感等。

（4）能源领域：光纤通信系统在能源领域的应用主要包括电力传输、油气管道监测和新能源开发等。

4、前景展望

随着科技的不断发展，光纤通信系统在未来将呈现出以下发展趋势：

（1）高速率、大容量：未来光纤通信系统将朝着更高速度、更大容量的方向发展。

（2）智能化：光纤通信系统将实现智能化管理，提高通信效率和可靠性。

（3）绿色环保：光纤通信系统将更加注重环保，降低能耗和污染。

总结：

《FIBER-OPTIC COMMUNICATION SYSTEMS FOURTH EDITION.pdf》作为一本关于光纤通信系统的权威著作，为读者提供了全面、实用、新颖的知识体系。本书在内容、特点、应用和前景等方面进行了深入剖析，有助于读者全面了解光纤通信系统领域的发展动态。

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