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Handbook of distributed feedback laser diodes /
Since the first edition of this book was published in 1997, the photonics landscape has evolved considerably and so has the role of distributed feedback (DFB) laser diodes. Although tunable laser diodes continue to be introduced in advanced optical communication systems, DFB laser diodes are still w...
| Clasificación: | Libro Electrónico |
|---|---|
| Autores principales: | , |
| Formato: | Electrónico eBook |
| Idioma: | Inglés |
| Publicado: |
Boston :
Artech House,
[2013]
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| Edición: | Second edition. |
| Colección: | Artech House applied photonics series.
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| Temas: | |
| Acceso en línea: | Texto completo |
Tabla de Contenidos:
- Intro; Title; Contents; Preface; CH01 Introduction to Fabry-Perot and Distributed Feedback Laser Diodes; CH02 Rate Equation Theory of Laser Diodes; CH03 Coupled-Mode Theory of DFB Laser Diodes; CH04 Applying the Coupled Mode Theory; CH05 A Closer Look at the Carrier Injection; CH06 The Spectrum of DFB Laser Diodes; CH07 The IM and FM Behavior of DFB Laser Diodes; CH08 Harmonic and Intermodulation Distortion in DFB Laser Diodes; CH09 Noise Characteristics of DFB Laser Diodes; CH10 Wavelength Tunable DFB Laser Diodes; CH11 Bistable and Self-Pulsating DFB Laser Diodes
- CH12 Fabrication and Packaging of DFB Laser DiodesCH13 Epilogue; Appendix A: Noise, Auto-Correlations, and Spectral Densities; Appendix B: Derivation of (9.13) from (4.41); About the Authors; Index; 1.1 Historical Background; 1.2 Laser Diode Device Structure; 1.3 Operation of the Laser Diode; 1.4 Essential Laser Diode Characteristics; 1.5 Use of Laser Diodes in Optical CommunicationsSystems; 1.6 Dynamic Single-Mode Laser Diodes; 1.7 Organization of This Book; 2.1 Introduction; 2.2 Carrier Density Rate Equation; 2.3 Photon Density Rate Equation; 2.4 Phase Equations
- 2.5 Introducing Noise in the Rate Equations2.6 Optical Gain and Absorption; 2.7 Some Well-Known Solutions of the Rate Equations; 2.8 The Influence of External Reflections; 2.9 Summary; 3.1 The Physical Processes Inside a Laser Diode; 3.2 The Need for Simplification; 3.3 Assumptions about the Modeled Laser Structure; 3.4 Optical Wave Propagation; 3.5 Discussion of the Coupled-Mode Wave Equations; 3.6 The Electrical Transport Problem; 3.7 The Standing-Wave Effect in Gain-Coupled Lasers; 3.8 Boundary Conditions; 4.1 Introduction; 4.2 Threshold Solutions for Simple DFB Lasers
- 4.3 Numerical Solutions of the Coupled Mode Model4.4 The Narrowband Approach for Solving the CoupledMode Model; 4.5 The Broadband Approach for Solving the CoupledMode Model; 4.6 Coupling Coefficients for DFB Lasers; 4.6 Coupling Coefficients for DFB Lasers; 4.7 Derivation of the Rate Equations for DFB Lasers; 4.8 Longitudinal Spatial Hole Burning; 5.1 Introduction; 5.2 Heterojunctions and Semi-Insulating Materials; 5.3 Carrier Leakage Over Heterobarriers; 5.4 Carrier Injection in Gain-Guided and Weakly Index-Guided Lasers; 5.5 Lateral Current Leakage in Index-Guided Structures
- 5.6 Parasitic Elements5.7 Microwave Effects; 5.8 Circuit Modeling of Leakage and Parasitic Elements; 5.9 Summary; 6.1 Amplified Spontaneous Emission; 6.2 Side-Mode Rejection and Yield of DFB Lasers; 6.3 Degradation of the SMSR by Spatial Hole Burning; 6.4 DFB Lasers with Reduced Spatial Hole Burning; 6.5 Measurement of the ASE Spectrum of DFB Lasers; 6.6 Extraction of Device Parameters from the Spectrum; 7.1 Measuring the IM Response of Laser Diodes; 7.2 Measuring the FM Response of Laser Diodes; 7.3 The IM Response; 7.4 The FM Response; 7.5 Lateral Spatial Hole Burning