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Cover image for Elements of wavelets for engineers and scientists
Title:
Elements of wavelets for engineers and scientists
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Publication Information:
Hoboken, N.J. : Wiley-Interscience, 2003
ISBN:
9780471466178
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30000010045580 QA403.3 M59 2003 Open Access Book Book
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Summary

Summary

An indispensable guide to understanding wavelets
Elements of Wavelets for Engineers and Scientists is a guide to wavelets for "the rest of us"-practicing engineers and scientists, nonmathematicians who want to understand and apply such tools as fast Fourier and wavelet transforms. It is carefully designed to help professionals in nonmathematical fields comprehend this very mathematically sophisticated topic and be prepared for further study on a more mathematically rigorous level.
Detailed discussions, worked-out examples, drawings, and drill problems provide step-by-step guidance on fundamental concepts such as vector spaces, metric, norm, inner product, basis, dimension, biorthogonality, and matrices.
Chapters explore . . .
* Functions and transforms
* The sampling theorem
* Multirate processing
* The fast Fourier transform
* The wavelet transform
* QMF filters
* Practical wavelets and filters
. . . as well as many new wavelet applications-image compression, turbulence, and pattern recognition, for instance-that have resulted from recent synergies in fields such as quantum physics and seismic geology.
Elements of Wavelets for Engineers and Scientists is a must for every practicing engineer, scientist, computer programmer, and student needing a practical, top-to-bottom grasp of wavelets.


Author Notes

DWIGHT F. MIX, PhD, PE, is Professor Emeritus at the University of Arkansas, where he taught from 1965 to 1998 in the Department of Electrical Engineering.
Kraig J. Olejniczak, PhD, PE, is Dean of the College of Engineering at Valparaiso University. He served on the faculty of the University of Arkansas Department of Electrical Energy from 1991 to 2002.


Table of Contents

Prefacep. vii
1. Functions and Transformsp. 1
1.1. Wavelet Transformp. 1
1.2. Transformsp. 5
1.3. Power and Energy Signalsp. 9
1.4. Deterministic and Random Signalsp. 16
1.5. Fourier and Haar Transformsp. 18
2. Vectorsp. 25
2.1. Vector Spacep. 26
2.2. Metric Spacep. 31
2.3. Normp. 36
2.4. Inner Productp. 39
2.5. Orthogonalityp. 45
3. Basis and Dimensionp. 47
3.1. Linear Independencep. 48
3.2. Basisp. 51
3.3. Dimension and Spanp. 54
3.4. Reciprocal Basesp. 56
4. Linear Transformationsp. 65
4.1. Component Vectorsp. 65
4.2. Matricesp. 69
5. Sampling Theoremp. 80
5.1. Nyquist Ratep. 80
5.2. Nonperiodic Samplingp. 88
5.3. Quantization and Pulse Code Modulationp. 90
5.4. Compandingp. 93
6. Multirate Processingp. 95
6.1. Downsamplingp. 95
6.2. Upsamplingp. 103
6.3. Fractional Rate Changep. 104
6.4. Downsampling and Correlationp. 110
6.5. Upsampling and Convolutionp. 116
7. Fast Fourier Transformp. 121
7.1. Discrete-Time Fourier Seriesp. 121
7.2. Matrix Decomposition Viewp. 125
7.3. Signal Flow Graph Representationp. 128
7.4. Downsampling Viewp. 139
8. Wavelet Transformp. 145
8.1. Scaling Functions and Waveletsp. 145
8.2. Discrete Wavelet Transformp. 162
9. Quadrature Mirror Filtersp. 170
9.1. Allpass Networksp. 170
9.2. Quadrature Mirror Filtersp. 181
9.3. Filter Banksp. 186
10. Practical Wavelets and Filtersp. 195
10.1. Practical Waveletsp. 195
10.2. The Magic Partp. 201
10.3. Other Waveletsp. 208
10.4. Matrix of Transformationp. 213
11. Using Waveletsp. 219
11.1. Top-Down Approachp. 219
11.2. Pattern Recognitionp. 227
11.3. Hidden Singularitiesp. 230
11.4. Data Compressionp. 232
Indexp. 235
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