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Time-Frequency/Time-Scale Analysis,9780122598708
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Time-Frequency/Time-Scale Analysis


Author(s): Flandrin
ISBN10:  0122598709
ISBN13:  9780122598708
Format:  Hardcover
Pub. Date:  9/21/1998
Publisher(s): Elsevier Science & Technology

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SummaryTable of Contents
This highly acclaimed work has so far been available only in French. It is a detailed survey of a variety of techniques for time-frequency/time-scale analysis (the essence of "Wavelet Analysis"). This book has broad and comprehensive coverage of a topic of keen interest to a variety of engineers, especially those concerned with signal and image processing. Flandrin provides a discussion of numerous issues and problems that arise from a mixed description in time and frequency, as well as problems in interpretation inherent in signal theory.

Key Features
* Detailed coverage of both linear and quadratic solutions
* Various techniques for both random and deterministic signals
Preface xi
Foreword 1(8)
Chapter 1. The Time-Frequency Problem
9(40)
1.1. The Time-Frequency Duality and Its Bars
10(16)
1.1.1. Fourier Analysis
10(1)
Limitations
10(1)
Citations
11(1)
1.1.2. Heisenberg-Gabor Uncertainty Principle
12(2)
The time-frequency inequality
14(2)
Interpretations
16(2)
1.1.3. Slepian-Pollak-Landau Theory
18(1)
Concentrations
18(1)
Sampling
19(2)
The eigenvalue equation
21(2)
Approximation of bandlimited signals
23(1)
Approximative dimension of a signal
24(1)
Inequality of the concentrations
24(2)
1.2. Leaving Fourier?
26(16)
1.2.1. Local Quantities
26(1)
Instantaneous frequency
27(4)
Group delay
31(1)
Interpretative remarks
31(1)
An example
32(4)
1.2.2. Nonstationary Signals
36(1)
Definition
36(2)
Generalizations
38(2)
Variations
40(2)
1.3. Towards Time-Frequency: Several Approaches
42(4)
1.3.1. The Time-Frequency Plane and Its Three Readings
43(1)
Frequency (time)
43(1)
Time (frequency)
43(1)
Time-frequency
43(1)
1.3.2. Decompositions, Distributions, Models
43(1)
Decompositions
44(1)
Distributions
44(1)
Models
44(1)
1.3.3. Moving and Joint, Adaptive and Evolutionary Methods
45(1)
Moving and joint
45(1)
Adaptive and evolutionary
45(1)
Chapter 1 Notes
46(3)
Chapter 2. Classes of Solutions
49(134)
2.1. An Introduction with Historical Landmarks
50(16)
2.1.1. Short-Time Fourier and Instantaneous Spectrum
50(1)
Sonagram and spectrogram
51(1)
Restrictions
52(2)
2.1.2. Atomic Decompositions
54(1)
Gabor
54(1)
Variations
55(1)
Wavelets
56(1)
2.1.3. Pseudo-Densities
57(1)
Wigner-Ville
58(2)
Page
60(1)
Rihaczek
60(2)
Extensions
62(1)
Unification
62(2)
2.1.4. The Parallel to Quantum Mechanics
64(1)
Different concerns
64(1)
Some intersections
65(1)
2.2. Atomic Decompositions
66(37)
2.2.1. Projections and Bases -- General Principles
66(1)
Discrete bases
66(1)
Continuous bases
67(2)
Frames
69(1)
2.2.2. Time-Frequency Examples
70(1)
Short-time Fourier
70(3)
Obstruction established by Balian-Low Theorem
73(2)
Gabor and variants
75(1)
2.2.3. Time-Scale Examples
76(1)
Continuous wavelets
76(4)
Discrete wavelets
80(3)
Multiresolution analyses and orthonormal bases
83(6)
Pyramidal algorithms
89(3)
Some wavelet bases
92(5)
2.2.4. A "Detection-Estimation" Viewpoint
97(1)
Ambiguity functions
97(4)
Atoms and matched filtering
101(2)
2.3. The Energy Distributions
103(47)
General setting
103(1)
Covariance principles
104(1)
2.3.1. Construction of the Bilinear Classes
104(1)
Time-frequency
104(3)
Time-scale
107(2)
2.3.2. The Troika of Parameterizations-Definitions-Properties
109(1)
Definitions
110(4)
Constraints
114(2)
Cohen's class
116(16)
Affine class
132(10)
2.3.3. Results of Exclusion and Conditional Uniqueness
142(1)
Wigner's Theorem
143(2)
Some results of exclusion
145(2)
Some results on conditional uniqueness
147(3)
2.4. The Power Distributions
150(24)
2.4.1. From Deterministic to Random Signals
150(1)
Decompositions and fluctuations
150(1)
Distributions and expectation values
151(1)
Cramer and beyond
152(1)
2.4.2. The Orthogonal (or Almost Orthogonal) Solutions
153(1)
Karhunen decompositions
153(1)
Priestley spectrum
154(2)
Tjostheim, Melard, Grenier approach
156(4)
2.4.3. The Frequency Solutions
160(1)
Harmonizable signals
160(5)
Wigner-Ville spectrum
165(5)
2.4.4. Some Links Between the Different Spectra
170(1)
Continuous time
170(1)
Discrete time
171(3)
Chapter 2 Notes
174(9)
Chapter 3. Issues of Interpretation
183(126)
3.1. About the Bilinear Classes
185(28)
3.1.1. The Different Parameterizations
185(2)
Time-frequency
187(1)
Time-time
188(3)
Frequency-frequency
191(1)
Frequency-time
191(3)
3.1.2. Parameterizations, Operators and Correspondence Rules
194(1)
Why operators?
194(1)
The operator of time-frequency shifts
195(2)
Correspondence rules
197(2)
Kernels
199(1)
Weyl calculus
200(1)
Moments
201(4)
Dilations and ambiguities
205(3)
3.1.3. Time-Frequency or Time-Scale?
208(1)
Fourier scale
208(2)
Mellin scale
210(3)
Analysis and decision statistics
213(1)
3.2. The Wigner-Ville Distribution and Its Geometry
213(76)
3.2.1. Wigner-Ville versus Spectrogram
213(1)
Structure of the distributions
213(2)
Pseudo-Wigner-Ville
215(1)
Supports
216(1)
Localization to chirps
217(4)
Spectrogram and reassignment
221(4)
Discretization
225(1)
3.2.2. The Mechanism of Interferences
226(2)
Construction principle
228(3)
A different perspective from the ambiguity plane
231(1)
Inner and outer interferences
232(2)
Approximation by the method of stationary phase
234(3)
Singularities and catastrophes
237(6)
Interferences, localization, and symmetries
243(2)
Generalization to the s-Wigner distribution
245(2)
Generalization to the affine distributions
247(5)
3.2.3. Reduction of the Interferences
252(1)
Analytic signal
252(1)
Wigner-Ville and atomic decompositions
252(2)
Smoothing
254(1)
Coupled smoothing
255(1)
Separable smoothing
256(5)
Joint smoothing
261(8)
Variable and/or adapted smoothing
269(5)
"Image" approaches
274(1)
3.2.4. Usefulness of the Interferences
274(1)
Unitarity
274(1)
Phase information
275(2)
What is a component?
277(2)
3.2.5. Statistical Estimation of the Wigner-Ville Spectrum
279(1)
Assumptions
280(1)
Classes of estimators
281(1)
Bias
282(1)
Variance
283(1)
Examples
284(5)
3.3. About the Positivity
289(12)
3.3.1. Some Problems Caused by the Nonpositivity
289(4)
3.3.2. Positivity by the Signal
293(1)
An example
293(1)
Hudson's theorem
294(1)
Random signals and positive spectra
295(1)
3.3.3. Positivity by the Distribution
296(1)
Positive distributions
296(1)
Positive smoothing
297(3)
A stochastic interpretation
300(1)
Chapter 3 Notes
301(8)
Chapter 4. Time-Frequency as a Paradigm
309(50)
4.1. Localization
311(16)
4.1.1. Heisenberg-Gabor Revisited
311(1)
Example 1
311(2)
Example 2
313(2)
4.1.2. Energy Concentration
315(1)
Problem formulation
315(1)
The general eigenvalue equation
316(1)
Restriction to ellipsoidal domains
316(7)
Interpretations and conjecture
323(1)
4.1.3. Other Time-Frequency Inequalities
323(1)
L(p)-norms
324(1)
Localization and stationary phase
325(2)
4.2. Signal Analysis
327(15)
4.2.1. Time-Frequency, Time-Scale, and Spectral Analysis
327(1)
Paving and marginal distributions
328(1)
The example of "1/f-noise"
329(1)
Analysis of self-similar processes
330(4)
4.2.2. Nonstationary Characteristics
334(1)
Distance from the stationary case
334(2)
Demodulation
336(2)
Local singularities
338(2)
Evolutionary singularities
340(2)
4.3. Decision Statistics
342(12)
4.3.1. Matched Time-Frequency Filtering
343(2)
4.3.2. Maximum Likelihood Estimators for Gaussian Processes
345(1)
Classical solution
345(1)
Time-frequency formulation
346(1)
4.3.3. Some Examples
347(1)
Rayleigh channel
347(1)
Detection of chirps and Doppler tolerance
347(2)
Locally optimal detection
349(1)
Time-frequency jitter
350(1)
A broader class of time-frequency receptors
351(3)
Chapter 4 Notes
354(5)
Bibliography 359(22)
Index 381

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