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J. Ohtsubo
Semiconductor Lasers
Stability, Instability and Chaos
2. Auflage, 475 Seiten, 169 schw.-w. Abb., 66 schw.-w. und 3 farb. Fotos, 100 schw.-w. Zeichn., 5 schw.-w. Tabellen, Gebunden
Springer-Verlag GmbH & Co. KG | ISBN: 3540726470
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| VORWORT | öffnen |
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PrefacePreface for the second edition Chaos research in laser physics, especially in semiconductor lasers, has developed further even after completion of the first edition of this book in the late summer of 2004, and it is still growing rapidly. For example, various forms of chaotic dynamics have been applied in newly developed semiconductor lasers, such as in vertical-cavity surface-emitting semiconductor lasers and broad-area semiconductor lasers. Chaotic dynamics plays an important role in th...
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Springer Series in Optical Sciences 111 J. Ohtsubo Semiconductor Lasers Stability, Instability and Chaos Second Edition This monograph describes fascinating recent progress in the field of chaos, stability and instability of semiconductor lasers. Applications and future prospects are discussed in detail. The book emphasizes the various dynamics induced in semiconductor lasers by optical and electronic feedback, optical injection, and injection current modulation. Recent results of both th... [weiter lesen] |
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| AUTOR | öffnen |
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Professor Junji Ohtsubo Faculty of Engineering Shizuoka University Johoku Chome 3-5-1 432-8561 Hamamatsu, Shizuika Japan Email: tajohts@ipc.shizuoka.ac.jp [weiter lesen] |
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| INHALTSVERZEICHNIS | öffnen |
Contents 1 Introduction 1 1.1 Chaos and Lasers 1 1.2 Historical Perspectives of Chaos in Semiconductor Lasers 3 1.3 Outline of This Book 6 2 Chaos in Laser Systems 11 2.1 Laser Model and Bloch Equations 11 2.1.1 Laser Model in a Ring Resonator 11 2.1.2 Light Emission and Absorption in Two-Level Atoms 13 2.1.3 Maxwell-Bloch Equations 14 2.2 Lorenz-Haken Equations 15 2.2.1 Lorenz-Haken Equations 15 2.2.2 First Laser Threshold 16 2.2.3 Second Laser Threshold 18 2.3 Classifications of Lasers 20 2.3.1 Classes of Lasers 20 2.3.2 Class C Lasers 20 2.3.3 Class B Lasers 23 2.3.4 Class A Lasers 24 3 Semiconductor Lasers and Theory 25 3.1 Semiconductor Lasers 25 3.2 Oscillation Conditions of Semiconductor Lasers 26 3.2.1 Laser Oscillation Conditions 26 3.2.2 Laser Oscillation Frequency 28 3.2.3 Dependence of Oscillation Frequency on Carrier Density 29 3.3 Derivation of Rate Equations 29 3.3.1 Gain at Laser Oscillation 29 3.3.2 Rate Equation for the Field 30 3.3.3 Linewidth Enhancement Factor 32 3.3.4 Laser Rate Equations 33 3.4 Linear Stability Analysis and Relaxation Oscillation 37 3.4.1 Linear Stability Analysis 37 3.4.2 Relaxation Oscillation 38 3.5 Langevin Noises 40 3.5.1 Rate Equations Including Langevin Noises 40 3.5.2 Langevin Noises 41 3.5.3 Noise Spectrum 43 3.5.4 Relative Intensity Noise (RIN)43 3.5.5 Phase Noise and Spectral Linewidth 44 3.6 Modulation Characteristics 47 3.6.1 Injection Current Modulation 47 3.6.2 Intensity Modulation Characteristics 48 3.6.3 Phase Modulation Characteristics 50 3.7 Waveguide Models of Semiconductor Lasers 51 3.7.1 Index- and Gain-Guided Structures 51 3.7.2 Waveguide Models 53 3.7.3 Spatial Modes of Gain- and Index-Guided Lasers 54 3.7.4 Effects of Spontaneous Emission in Gain- and Index-Guided Lasers 56 3.7.5 Laser Types 58 4 Theory of Optical Feedback in Semiconductor Lasers 63 4.1 Theory of Optical Feedback 63 4.1.1 Optical Feedback Effects and Classifications of Optical Feedback Phenom... 4.1.2 Theoretical Model 66 4.2 Linear Stability Analysis for Optical Feedback Systems 68 4.2.1 Linear Stability Analysis 68 4.2.2 Linear Mode, and Stability and Instability in Semiconductor Lasers 73 4.2.3 Gain Reduction Due to Optical Feedback 75 4.2.4 Linewidth in the Presence of Optical Feedback 76 4.3 Feedback from a Grating Mirror 77 4.4 Phase-Conjugate Feedback 79 4.5 Incoherent Feedback and Polarization-Rotated Optical Feedback 82 4.5.1 Incoherent Feedback 82 4.5.2 Polarization-Rotated Optical Feedback 83 4.6 Filtered Feedback 85 5 Dynamics of Semiconductor Lasers with Optical Feedback 87 5.1 Optical Feedback from a Conventional Reflector 87 5.1.1 Optical Feedback Effects 87 5.1.2 Potential Model in Feedback Induced Instability 88 5.1.3 Optical Spectrum in Stable and Unstable Feedback Regimes 90
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| REGISTER | öffnen |
Index Aaberration correction 296 absolute position measurement 329 accuracy of synchronization 409 active feedback interferometer 334 active region 28 additive active phase-tracking method 327 additive modulation 401 Adlertype frequency pulling 154 α -parameter 33 amplitude anisotropy 237 amplitude reflectivity 64, 67 angle measurement 330 angular momentum numbers of electron 236 angular oscillation frequency 12 anti-modes 70, 120, 123 anti-phase correlation effect 375 anti-phase oscillations 241, 249 anti-resonant reflecting optical waveguide 308 anticipating chaos synchronization 347, 359 ARROW 308 astigmatism 57, 234 atomic detuning 15 attractor 270, 419, 423 attractor ruins 124 Auger recombination 35 averaged coherence 100 a TM mode 84 Bbad-cavity condition 2, 19, 21 band-filling effects 214 basin of the attractor 273 beam profiles 239 beam quality factor 259, 316 beating 216 bifurcation cascade 288 bifurcation diagram 95, 131, 278, 421 birefringence 237, 240 bistability 160 bistable states 320 bit rate error (BER) 394, 405 Bloch equation 11, 13 Bragg wavelength 61 broad-area semiconductor laser 255 bursts 406 Butterworth electronic filter 391 C C parameter 65, 320 capacity dimension 430 carrier density 29 carrier diffusion 36, 221, 234, 255 carrier hole burning 256 carrier hole-burning 242 carrier lifetime 34 carrier recombination 35 carrier recombination rate 26 carrier relaxation rate 160 catastrophic optical damage 265 causality principle 144 cavity decay rate 160 channel errors 406 channel noise 404, 405 channel SNR 405 channeled spectrum 194 chaos 1, 93, 419, 420, 429 chaos CDMA 380 chaos control 6, 269, 338, 432 chaos islands 182 chaos map 157 chaos masking (CMA) 381 chaos masking system 397 chaos masking video signal transmissions 412 chaos modulation (CMO) 381, 383 chaos shift keying (CSK) 381, 383 chaos synchronization 6, 341, 437 chaos targeting 288 chaos-pass filtering 388, 396 chaotic associative memory 338 chaotic attractor 94, 429 chaotic bifurcation diagram 421 chaotic bifurcations 95, 153 chaotic bursts 395 chaotic carrier 381 chaotic carrier frequency 174 chaotic coexistent states 125 chaotic communications 379 chaotic dimension 424 chaotic evolutions 421 chaotic itinerary 115, 118 chaotic oscillation 6, 94, 421 chaotic pulsing states 182 chaotic receiver 437 chaotic route 112, 421 chaotic scenario 97 chaotic signal transmissions through public data link 414 chaotic transmitter 437 characteristic equation 18, 38, 72, 182 chirp to the power ratio (CPR) 172 circular dichroism 237 class A lasers 24 class B lasers 23 class C lasers 20 classes of lasers 20 cleaved facets 27, 64 closed-loop system 348 CMA 388 CMO 393 code scrambling 409 code-division multiplexing 410 coefficient of spontaneous emissions 34 coexistence of chaotic attractors 161 coexistence states 153, 162, 203 coherence collapse 65 coherence collapse regime 91 coherence collapse state 111, 211, 330 coherence length 100 competitions of linear modes 103 complete chaos synchronization 346, 351 complex electric permittivity 32 complex refractivity 32 complex susceptibility 32 composite reflectivity 292 conditional Lyapunov exponent 370 confinement factor 28, 36, 234 constructive interference 102 continuous control 273, 435 continuous control method 270 continuous response function 402 continuous systems 422 controlling chaos 432 convective fluids 1 conversion coefficient 97 conversion efficiency 184 correlation dimension 430 correlation function 430 coupled map lattice (CML) 267 cross-gain saturation 216 cross-saturation coefficient 152 CSK 394 Ddamping oscillations 14 death by delay 376 delay differential equation 67 delay differential system 345, 424 delay time 435 depletion of carriers 222 desynchronization 406 desynchronization bursts 406 desynchronized bit error rate (DBER) 406 deterministic chaos 114 deterministic equations 1, 15, 419 detuning frequency 18 Devil's staircase 189 DFB laser 65 differential equations 424 differential relaxation rate 160 differential systems 347 diffraction coefficient of light 256 diffraction of light 255, 258 diffusion coefficient 257 diffusion length 257 digital Chbyshev Type I filter 407 discrete difference equations 420 discrete systems 420 discrete-sequence optical CDMA 409 dispersion 391 displacement 325 dissipative system 19, 423 distributed Bragg reflector 233 distributed feedback (DFB) lasers 60 distributed fiber grating 127 divergence angles 259 Doppler shift 328 Duffing model 423 Duffing's equations 429 Eeffective linewidth enhancement factor 172 effective refractive index 28 eigen-function 234 eigenstates 13 eigenvalues 433 eigenvectors 433 electric field 12 electron spin 235 electron-hole recombination 26 embedding space 430 enhancement of modulation bandwidth 164, 410 equilibrium points 427 error correction 410 excess noise factor 303 external modes 70, 119, 123 eye pattern 170, 404 FFabry-Perot 391 Fabry-Perot filter 85 Fabry-Perot lasers 11, 58 Fabry-Perot resonator 11, 26, 299 far-field pattern 259 far-infrared lasers 20 fast response phase-conjugate mirro 296 feedback coefficient 67 feedback gain 186, 271 feedback noises 64 fiber Bragg grating 295 filamentation 259, ... Filtered Feedback 85 filtered optical feedback 140 finite difference time domain (FDT... finite response phase-conjugate feedback 133 first laser threshold 16 fixed point 94, 269 fixed state 94 flared broad-area lasers 9 flared laser 261 FM feedback noise 302
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