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9781580536103

Statistical and Adaptive Signal Processing : Spectral Estimation, Signal Modeling, Adaptive Filtering and Array Processing

by ; ;
  • ISBN13:

    9781580536103

  • ISBN10:

    1580536107

  • Format: Hardcover
  • Copyright: 2005-04-30
  • Publisher: Artech House on Demand
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Supplemental Materials

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Summary

This authoritative volume on statistical and adaptive signal processing offers you a unified, comprehensive and practical treatment of spectral estimation, signal modeling, adaptive filtering, and array processing. Packed with over 3,000 equations and more than 300 illustrations, this unique resource provides you with balanced coverage of implementation issues, applications, and theory, making it a smart choice for professional engineers and students alike.

Author Biography

Stephen M. Kogon is a member of the technical staff at M.I.T. Lincoln Laboratory, and has been associated with Raytheon Co., Boston College, and Georgia Tech Research Institute. Vinay K. Ingle is an associate professor of electrical and computer engineering at Northeastern University. Dimitris G. Manolakis is a member of the technical staff at M.I.T. Lincoln Laboratory and taught at the University of Athens, Northeastern University, Boston College, and Worcester Polytechnic Institute.

Table of Contents

Preface xvii
Introduction
1(32)
Random Signals
1(7)
Spectral Estimation
8(3)
Signal Modeling
11(5)
Rational or Pole-Zero Models
Fractional Pole-Zero Models and Fractal Models
Adaptive Filtering
16(9)
Applications of Adaptive Filters
Features of Adaptive Filters
Array Processing
25(4)
Spatial Filtering or Beamforming
Adaptive Interference Mitigation in Radar Systems
Adaptive Sidelobe Canceler
Organization of the Book
29(4)
Fundamentals of Discrete-Time Signal Processing
33(42)
Discrete-Time Signals
33(4)
Continuous-Time, Discrete-Time, and Digital Signals
Mathematical Description of Signals
Real-World Signals
Transform-Domain Representation of Deterministic Signals
37(10)
Fourier Transforms and Fourier Series
Sampling of Continuous-Time Signals
The Discrete Fourier Transform
The z-Transform
Representation of Narrowband Signals
Discrete-Time Systems
47(7)
Analysis of Linear, Time-Invariant Systems
Response to Periodic Inputs
Correlation Analysis and Spectral Density
Minimum-Phase and System Invertibility
54(10)
System Invertibility and Minimum-Phase Systems
All-Pass Systems
Minimum-Phase and All-Pass Decomposition
Spectral Factorization
Lattice Filter Realizations
64(6)
All-Zero Lattice Structures
All-Pole Lattice Structures
Summary
70(5)
Problems
70(5)
Random Variables, Vectors, and Sequences
75(74)
Random Variables
75(8)
Distribution and Density Functions
Statistical Averages
Some Useful Random Variables
Random Vectors
83(14)
Definitions and Second-Order Moments
Linear Transformations of Random Vectors
Normal Random Vectors
Sums of Independent Random Variables
Discrete-Time Stochastic Processes
97(18)
Description Using Probability Functions
Second-Order Statistical Description
Stationarity
Ergodicity
Random Signal Variability
Frequency-Domain Description of Stationary Processes
Linear Systems with Stationary Random Inputs
115(10)
Time-Domain Analysis
Frequency-Domain Analysis
Random Signal Memory
General Correlation Matrices
Correlation Matrices from Random Processes
Whitening and Innovations Representation
125(8)
Transformations Using Eigen-decomposition
Transformations Using Triangular Decomposition
The Discrete Karhunen-Loeve Transform
Principles of Estimation Theory
133(9)
Properties of Estimators
Estimation of Mean
Estimation of Variance
Summary
142(7)
Problems
143(6)
Linear Signal Models
149(46)
Introduction
149(7)
Linear Nonparametric Signal Models
Parametric Pole-Zero Signal Models
Mixed Processes and the Wold Decomposition
All-Pole Models
156(16)
Model Properties
All-Pole Modeling and Linear Prediction
Autoregressive Models
Lower-Order Models
All-Zero Models
172(5)
Model Properties
Moving-Average Models
Lower-Order Models
Pole-Zero Models
177(5)
Model Properties
Autoregressive Moving-Average Models
The First-Order Pole-Zero Model 1: PZ (1,1)
Summary and Dualities
Models with Poles on the Unit Circle
182(2)
Cepstrum of Pole-Zero Models
184(5)
Pole-Zero Models
All-Pole Models
All-Zero Models
Summary
189(6)
Problems
189(6)
Nonparametric Power Spectrum Estimation
195(66)
Spectral Analysis of Deterministic Signals
196(13)
Effect of Signal Sampling
Windowing, Periodic Extension, and Extrapolation
Effect of Spectrum Sampling
Effects of Windowing: Leakage and Loss of Resolution
Summary
Estimation of the Autocorrelation of Stationary Random Signals
209(3)
Estimation of the Power Spectrum of Stationary Random Signals
212(25)
Power Spectrum Estimation Using the Periodogram
Power Spectrum Estimation by Smoothing a Single Periodogram---The Blackman-Tukey Method
Power Spectrum Estimation by Averaging Multiple Periodograms---The Welch-Bartlett Method
Some Practical Considerations and Examples
Joint Signal Analysis
237(9)
Estimation of Cross-Power Spectrum
Estimation of Frequency Response Functions
Multitaper Power Spectrum Estimation
246(8)
Estimation of Auto Power Spectrum
Estimation of Cross Power Spectrum
Summary
254(7)
Problems
255(6)
Optimum Linear Filters
261(72)
Optimum Signal Estimation
261(3)
Linear Mean Square Error Estimation
264(10)
Error Performance Surface
Derivation of the Linear MMSE Estimator
Principal-Component Analysis of the Optimum Linear Estimator
Geometric Interpretations and the Principle of Orthogonality
Summary and Further Properties
Solution of the Normal Equations
274(4)
Optimum Finite Impulse Response Filters
278(8)
Design and Properties
Optimum FIR Filters for Stationary Processes
Frequency-Domain Interpretations
Linear Prediction
286(9)
Linear Signal Estimation
Forward Linear Prediction
Backward Linear Prediction
Stationary Processes
Properties
Optimum Infinite Impulse Response Filters
295(11)
Noncausal IIR Filters
Causal IIR Filters
Filtering of Additive Noise
Linear Prediction Using the Infinite Past---Whitening
Inverse Filtering and Deconvolution
306(4)
Channel Equalization in Data Transmission Systems
310(9)
Nyquist's Criterion for Zero ISI
Equivalent Discrete-Time Channel Model
Linear Equalizers
Zero-Forcing Equalizers
Minimum MSE Equalizers
Matched Filters and Eigenfilters
319(6)
Deterministic Signal in Noise
Random Signal in Noise
Summary
325(8)
Problems
325(8)
Algorithms and Structures for Optimum Linear Filters
333(62)
Fundamentals of Order-Recursive Algorithms
334(9)
Matrix Partitioning and Optimum Nesting
Inversion of Partitioned Hermitian Matrices
Levinson Recursion for the Optimum Estimator
Order-Recursive Computation of the LDLH Decomposition
Order-Recursive Computation of the Optimum Estimate
Interpretations of Algorithmic Quantities
343(4)
Innovations and Backward Prediction
Partial Correlation
Order Decomposition of the Optimum Estimate
Gram-Schmidt Orthogonalization
Order-Recursive Algorithms for Optimum FIR Filters
347(8)
Order-Recursive Computation of the Optimum Filter
Lattice-Ladder Structure
Simplifications for Stationary Stochastic Processes
Algorithms Based on the UDUH Decomposition
Algorithms of Levinson and Levinson-Durbin
355(6)
Lattice Structures for Optimum FIR Filters and Predictors
361(7)
Lattice-Ladder Structures
Some Properties and Interpretations
Parameter Conversions
Algorithm of Schur
368(6)
Direct Schur Algorithm
Implementation Considerations
Inverse Schur Algorithm
Triangularization and Inversion of Toeplitz Matrices
374(4)
LDLH Decomposition of Inverse of a Toeplitz Matrix
LDLH Decomposition of a Toeplitz Matrix
Inversion of Real Toeplitz Matrices
Kalman Filter Algorithm
378(9)
Preliminary Development
Development of Kalman Filter
Summary
387(8)
Problems
389(6)
Least-Squares Filtering and Prediction
395(50)
The Principle of Least Squares
395(1)
Linear Least-Squares Error Estimation
396(10)
Derivation of the Normal Equations
Statistical Properties of Least-Squares Estimators
Least-Squares FIR Filters
406(5)
Linear Least-Squares Signal Estimation
411(5)
Signal Estimation and Linear Prediction
Combined Forward and Backward Linear Prediction (FBLP)
Narrowband Interference Cancelation
LS Computations Using the Normal Equations
416(6)
Linear LSE Estimation
LSE FIR Filtering and Prediction
LS Computations Using Orthogonalization Techniques
422(9)
Householder Reflections
The Givens Rotations
Gram-Schmidt Orthogonalization
LS Computations Using the Singular Value Decomposition
431(7)
Singular Value Decomposition
Solution of the LS Problem
Rank-Deficient LS Problems
Summary
438(7)
Problems
439(6)
Signal Modeling and Parametric Spectral Estimation
445(54)
The Modeling Process: Theory and Practice
445(4)
Estimation of All-Pole Models
449(13)
Direct Structures
Lattice Structures
Maximum Entropy Method
Excitations with Line Spectra
Estimation of Pole-Zero Models
462(5)
Known Excitation
Unknown Excitation
Nonlinear Least-Squares Optimization
Applications
467(4)
Spectral Estimation
Speech Modeling
Minimum-Variance Spectrum Estimation
471(7)
Harmonic Models and Frequency Estimation Techniques
478(15)
Harmonic Model
Pisarenko Harmonic Decomposition
Music Algorithm
Minimum-Norm Method
Esprit Algorithm
Summary
493(6)
Problems
494(5)
Adaptive Filters
499(122)
Typical Applications of Adaptive Filters
500(6)
Echo Cancelation in Communications
Equalization of Data Communications Channels
Linear Predictive Coding
Noise Cancelation
Principles of Adaptive Filters
506(10)
Features of Adaptive Filters
Optimum versus Adaptive Filters
Stability and Steady-State Performance of Adaptive Filters
Some Practical Considerations
Method of Steepest Descent
516(8)
Least-Mean-Square Adaptive Filters
524(24)
Derivation
Adaptation in a Stationary SOE
Summary and Design Guidelines
Applications of the LMS Algorithm
Some Practical Considerations
Recursive Least-Squares Adaptive Filters
548(12)
LS Adaptive Filters
Conventional Recursive Least-Squares Algorithm
Some Practical Considerations
Convergence and Performance Analysis
RLS Algorithms for Array Processing
560(13)
LS Computations Using the Cholesky and QR Decompositions
Two Useful Lemmas
The QR-RLS Algorithm
Extended QR-RLS Algorithm
The Inverse QR-RLS Algorithm
Implementation of QR-RLS Algorithm Using the Givens Rotations
Implementation of Inverse QR-RLS Algorithm Using the Givens Rotations
Classification of RLS Algorithms for Array Processing
Fast RLS Algorithms for FIR Filtering
573(17)
Fast Fixed-Order RLS FIR Filters
RLS Lattice-Ladder Filters
RLS Lattice-Ladder Filters Using Error Feedback Updatings
Givens Rotation--Based LS Lattice-Ladder Algorithms
Classification of RLS Algorithms for FIR Filtering
Tracking Performance of Adaptive Algorithms
590(17)
Approaches for Nonstationary SOE
Preliminaries in Performance Analysis
The LMS Algorithm
The RLS Algorithm with Exponential Forgetting
Comparison of Tracking Performance
Summary
607(14)
Problems
608(13)
Array Processing
621(70)
Array Fundamentals
622(9)
Spatial Signals
Modulation-Demodulation
Array Signal Model
The Sensor Array: Spatial Sampling
Conventional Spatial Filtering: Beamforming
631(10)
Spatial Matched Filter
Tapered Beamforming
Optimum Array Processing
641(11)
Optimum Beamforming
Eigenanalysis of the Optimum Beamformer
Interference Cancelation Performance
Tapered Optimum Beamforming
The Generalized Sidelobe Canceler
Performance Considerations for Optimum Beamformers
652(7)
Effect of Signal Mismatch
Effect of Bandwidth
Adaptive Beamforming
659(12)
Sample Matrix Inversion
Diagonal Loading with the SMI Beamformer
Implementation of the SMI Beamformer
Sample-by-Sample Adaptive Methods
Other Adaptive Array Processing Methods
671(7)
Linearly Constrained Minimum-Variance Beamformers
Partially Adaptive Arrays
Sidelobe Cancelers
Angle Estimation
678(5)
Maximum-Likelihood Angle Estimation
Cramer-Rao Lower Bound on Angle Accuracy
Beamsplitting Algorithms
Model-Based Methods
Space-Time Adaptive Processing
683(2)
Summary
685(6)
Problems
686(5)
Further Topics
691(54)
Higher-Order Statistics in Signal Processing
691(6)
Moments, Cumulants, and Polyspectra
Higher-Order Moments and LTI Systems
Higher-Order Moments of Linear Signal Models
Blind Deconvolution
697(5)
Unsupervised Adaptive Filters---Blind Equalizers
702(7)
Blind Equalization
Symbol Rate Blind Equalizers
Constant-Modulus Algorithm
Fractionally Spaced Equalizers
709(7)
Zero-Forcing Fractionally Spaced Equalizers
MMSE Fractionally Spaced Equalizers
Blind Fractionally Spaced Equalizers
Fractional Pole-Zero Signal Models
716(9)
Fractional Unit-Pole Model
Fractional Pole-Zero Models: FPZ (p, d, q)
Symmetric α-Stable Fractional Pole-Zero Processes
Self-Similar Random Signal Models
725(16)
Self-Similar Stochastic Processes
Fractional Brownian Motion
Fractional Gaussian Noise
Simulation of Fractional Brownian Motions and Fractional Gaussian Noises
Estimation of Long Memory
Fractional Levy Stable Motion
Summary
741(4)
Problems
742(3)
Appendix A Matrix Inversion Lemma
745(2)
Appendix B Gradients and Optimization in Complex Space
747(6)
Gradient
747(2)
Lagrange Multipliers
749(4)
Appendix C Matlab Functions
753(2)
Appendix D Useful Results from Matrix Algebra
755(12)
Complex-Valued Vector Space
755(1)
Some Definitions
Matrices
756(4)
Some Definitions
Properties of Square Matrices
Determinant of a Square Matrix
760(2)
Properties of the Determinant
Condition Number
Unitary Matrices
762(2)
Hermitian Forms after Unitary Transformations
Significant Integral of Quadratic and Hermitian Forms
Positive Definite Matrices
764(3)
Appendix E Minimum Phase Test for Polynomials
767(2)
Bibliography 769(18)
Index 787

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