Optical Detection Theory for Laser Applications
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Optical Detection Theory for Laser Applications
Osche, Gregory R.
John Wiley & Sons Inc
08/2002
424
Dura
Inglês
9780471224112
15 a 20 dias
800
Descrição não disponível.
Preface.
Chapter 1. Introduction and Background.
1.1. Overview of Laser Systems.
1.2. Review of Statistical Methods.
1.3. Decision-Making Processes.
1.4. Optical Detection Techniques.
References.
Chapter 2. Signal and Noise Analysis.
2.1. Introduction.
2.2. Review of Diffraction Theory.
2.3. Free-Space Propagation.
2.4. Truncated and Obscured Gaussian Beams.
2.5. Fourier Optics and the Array Theorem.
2.6. Antenna and Mixing Theorems.
2.7. Analysis of Coherent Detection Systems.
2.8. Analysis of Direct-Detection Systems.
2.9. Receiver and Clutter Noise.
2.10. Power Signal-to-Noise-Ratio.
References.
Chapter 3. Random Processes in Beam Propagation.
3.1. Introduction.
3.2. Review of Optical Coherence Theory.
3.3. Surface Scattering.
3.4. Propagation through Turbulent Media.
References.
Chapter 4. Single-Pulse Direct-Detection Statistics.
4.1. Introduction.
4.2. Single-Point Statistics of Fully Developed Speckle.
4.3. Summed Statistics of Fully Developed Speckle.
4.4. Poisson Signal in Poisson Noise.
4.5. Negative Binomial Signal in Poisson Noise.
4.6. Noncentral Negative Binomial Signal in Poisson Noise.
4.7. Parabolic-Cylinder Signal in Gaussian Noise.
4.8. Detection of Signals in APD Excess Noise.
4.9. Detection in Atmospheric Turbulence.
4.10. Detection in Atmospheric Clutter.
4.11. Polarization Diversity.
4.12. Multiple Uncorrelated Signals.
References.
Chapter 5. Single-Pulse Coherent Detection Statistics.
5.1. Introduction.
5.2. Constant-Amplitude Signal in Gaussian Noise.
5.3. Rayleigh Fluctuating Signal in Gaussian Noise.
5.4. One-Dominant-Plus-Rayleigh Signal in Gaussian Noise.
5.5. Rician Signal in Gaussian Noise.
5.6. Detection in Atmospheric Turbulence.
5.7. Coherent versus Noncoherent Performance.
References.
Chapter 6. Multiple-Pulse Detection.
6.1. Introduction.
6.2. Direct-Detection Systems.
6.3. Coherent Detection Systems.
6.4. Binary Integration.
References.
Appendix A. Advanced Mathematical Functions.
A.1. Dirac Delta and Unit Step Functions.
A.2. Gamma Function.
A.3. Confluent Hypergeometric Function.
A.4. Parabolic Cylinder Functions.
A.5. Toronto Function.
References.
Appendix B. Additional Derivations.
B.1. Gamma Distribution.
B.2. Burgess Variance Theorem.
References.
Index.
Chapter 1. Introduction and Background.
1.1. Overview of Laser Systems.
1.2. Review of Statistical Methods.
1.3. Decision-Making Processes.
1.4. Optical Detection Techniques.
References.
Chapter 2. Signal and Noise Analysis.
2.1. Introduction.
2.2. Review of Diffraction Theory.
2.3. Free-Space Propagation.
2.4. Truncated and Obscured Gaussian Beams.
2.5. Fourier Optics and the Array Theorem.
2.6. Antenna and Mixing Theorems.
2.7. Analysis of Coherent Detection Systems.
2.8. Analysis of Direct-Detection Systems.
2.9. Receiver and Clutter Noise.
2.10. Power Signal-to-Noise-Ratio.
References.
Chapter 3. Random Processes in Beam Propagation.
3.1. Introduction.
3.2. Review of Optical Coherence Theory.
3.3. Surface Scattering.
3.4. Propagation through Turbulent Media.
References.
Chapter 4. Single-Pulse Direct-Detection Statistics.
4.1. Introduction.
4.2. Single-Point Statistics of Fully Developed Speckle.
4.3. Summed Statistics of Fully Developed Speckle.
4.4. Poisson Signal in Poisson Noise.
4.5. Negative Binomial Signal in Poisson Noise.
4.6. Noncentral Negative Binomial Signal in Poisson Noise.
4.7. Parabolic-Cylinder Signal in Gaussian Noise.
4.8. Detection of Signals in APD Excess Noise.
4.9. Detection in Atmospheric Turbulence.
4.10. Detection in Atmospheric Clutter.
4.11. Polarization Diversity.
4.12. Multiple Uncorrelated Signals.
References.
Chapter 5. Single-Pulse Coherent Detection Statistics.
5.1. Introduction.
5.2. Constant-Amplitude Signal in Gaussian Noise.
5.3. Rayleigh Fluctuating Signal in Gaussian Noise.
5.4. One-Dominant-Plus-Rayleigh Signal in Gaussian Noise.
5.5. Rician Signal in Gaussian Noise.
5.6. Detection in Atmospheric Turbulence.
5.7. Coherent versus Noncoherent Performance.
References.
Chapter 6. Multiple-Pulse Detection.
6.1. Introduction.
6.2. Direct-Detection Systems.
6.3. Coherent Detection Systems.
6.4. Binary Integration.
References.
Appendix A. Advanced Mathematical Functions.
A.1. Dirac Delta and Unit Step Functions.
A.2. Gamma Function.
A.3. Confluent Hypergeometric Function.
A.4. Parabolic Cylinder Functions.
A.5. Toronto Function.
References.
Appendix B. Additional Derivations.
B.1. Gamma Distribution.
B.2. Burgess Variance Theorem.
References.
Index.
Este título pertence ao(s) assunto(s) indicados(s). Para ver outros títulos clique no assunto desejado.
detection; laser; fundamentals; optical; treatment; numerous; comprehensive; system; theory; applications; fields; particularly; communications; significant gap; literature; aspects; theoretical; fundamental
Preface.
Chapter 1. Introduction and Background.
1.1. Overview of Laser Systems.
1.2. Review of Statistical Methods.
1.3. Decision-Making Processes.
1.4. Optical Detection Techniques.
References.
Chapter 2. Signal and Noise Analysis.
2.1. Introduction.
2.2. Review of Diffraction Theory.
2.3. Free-Space Propagation.
2.4. Truncated and Obscured Gaussian Beams.
2.5. Fourier Optics and the Array Theorem.
2.6. Antenna and Mixing Theorems.
2.7. Analysis of Coherent Detection Systems.
2.8. Analysis of Direct-Detection Systems.
2.9. Receiver and Clutter Noise.
2.10. Power Signal-to-Noise-Ratio.
References.
Chapter 3. Random Processes in Beam Propagation.
3.1. Introduction.
3.2. Review of Optical Coherence Theory.
3.3. Surface Scattering.
3.4. Propagation through Turbulent Media.
References.
Chapter 4. Single-Pulse Direct-Detection Statistics.
4.1. Introduction.
4.2. Single-Point Statistics of Fully Developed Speckle.
4.3. Summed Statistics of Fully Developed Speckle.
4.4. Poisson Signal in Poisson Noise.
4.5. Negative Binomial Signal in Poisson Noise.
4.6. Noncentral Negative Binomial Signal in Poisson Noise.
4.7. Parabolic-Cylinder Signal in Gaussian Noise.
4.8. Detection of Signals in APD Excess Noise.
4.9. Detection in Atmospheric Turbulence.
4.10. Detection in Atmospheric Clutter.
4.11. Polarization Diversity.
4.12. Multiple Uncorrelated Signals.
References.
Chapter 5. Single-Pulse Coherent Detection Statistics.
5.1. Introduction.
5.2. Constant-Amplitude Signal in Gaussian Noise.
5.3. Rayleigh Fluctuating Signal in Gaussian Noise.
5.4. One-Dominant-Plus-Rayleigh Signal in Gaussian Noise.
5.5. Rician Signal in Gaussian Noise.
5.6. Detection in Atmospheric Turbulence.
5.7. Coherent versus Noncoherent Performance.
References.
Chapter 6. Multiple-Pulse Detection.
6.1. Introduction.
6.2. Direct-Detection Systems.
6.3. Coherent Detection Systems.
6.4. Binary Integration.
References.
Appendix A. Advanced Mathematical Functions.
A.1. Dirac Delta and Unit Step Functions.
A.2. Gamma Function.
A.3. Confluent Hypergeometric Function.
A.4. Parabolic Cylinder Functions.
A.5. Toronto Function.
References.
Appendix B. Additional Derivations.
B.1. Gamma Distribution.
B.2. Burgess Variance Theorem.
References.
Index.
Chapter 1. Introduction and Background.
1.1. Overview of Laser Systems.
1.2. Review of Statistical Methods.
1.3. Decision-Making Processes.
1.4. Optical Detection Techniques.
References.
Chapter 2. Signal and Noise Analysis.
2.1. Introduction.
2.2. Review of Diffraction Theory.
2.3. Free-Space Propagation.
2.4. Truncated and Obscured Gaussian Beams.
2.5. Fourier Optics and the Array Theorem.
2.6. Antenna and Mixing Theorems.
2.7. Analysis of Coherent Detection Systems.
2.8. Analysis of Direct-Detection Systems.
2.9. Receiver and Clutter Noise.
2.10. Power Signal-to-Noise-Ratio.
References.
Chapter 3. Random Processes in Beam Propagation.
3.1. Introduction.
3.2. Review of Optical Coherence Theory.
3.3. Surface Scattering.
3.4. Propagation through Turbulent Media.
References.
Chapter 4. Single-Pulse Direct-Detection Statistics.
4.1. Introduction.
4.2. Single-Point Statistics of Fully Developed Speckle.
4.3. Summed Statistics of Fully Developed Speckle.
4.4. Poisson Signal in Poisson Noise.
4.5. Negative Binomial Signal in Poisson Noise.
4.6. Noncentral Negative Binomial Signal in Poisson Noise.
4.7. Parabolic-Cylinder Signal in Gaussian Noise.
4.8. Detection of Signals in APD Excess Noise.
4.9. Detection in Atmospheric Turbulence.
4.10. Detection in Atmospheric Clutter.
4.11. Polarization Diversity.
4.12. Multiple Uncorrelated Signals.
References.
Chapter 5. Single-Pulse Coherent Detection Statistics.
5.1. Introduction.
5.2. Constant-Amplitude Signal in Gaussian Noise.
5.3. Rayleigh Fluctuating Signal in Gaussian Noise.
5.4. One-Dominant-Plus-Rayleigh Signal in Gaussian Noise.
5.5. Rician Signal in Gaussian Noise.
5.6. Detection in Atmospheric Turbulence.
5.7. Coherent versus Noncoherent Performance.
References.
Chapter 6. Multiple-Pulse Detection.
6.1. Introduction.
6.2. Direct-Detection Systems.
6.3. Coherent Detection Systems.
6.4. Binary Integration.
References.
Appendix A. Advanced Mathematical Functions.
A.1. Dirac Delta and Unit Step Functions.
A.2. Gamma Function.
A.3. Confluent Hypergeometric Function.
A.4. Parabolic Cylinder Functions.
A.5. Toronto Function.
References.
Appendix B. Additional Derivations.
B.1. Gamma Distribution.
B.2. Burgess Variance Theorem.
References.
Index.
Este título pertence ao(s) assunto(s) indicados(s). Para ver outros títulos clique no assunto desejado.
