This book provides an easy to understand overview of nonlinear behavior in digital filters, showing how it can be utilized or avoided when operating nonlinear digital filters. It gives techniques for analyzing discrete-time systems with discontinuous linearity, enabling the analysis of other nonlinear discrete-time systems, such as sigma delta modulators, digital phase lock loops and turbo coders.
Features: Uses new methods based on symbolic dynamics, enabling the engineer more easily to operate reliable nonlinear digital filters Gives practical, ‘real-world’ applications of nonlinear digital filter Includes many examples, together with Matlab source code available on an accompanying website
Nonlinear Digital Filters: Analysis and Applications is ideal for professional engineers working with signal processing applications, as well as advanced undergraduates and graduates conducting a nonlinear filter analysis project.
Companion website at http://books.elsevier.com/9780123725363
· Uses new methods based on symbolic dynamics, enabling the engineer more easily to operate reliable nonlinear digital filters · Gives practical, ‘real-world' applications of nonlinear digital filter · Includes many examples, together with Matlab source code available on an accompanying website
Electrical and electronic engineers working in digital signal processing and communications engineers.
Final year undergraduate and graduate level electrical and electronic engineering students studying a course in digital signal processing (a general course or a course on nonlinear signal processing); academic researchers
Contents Chapter 1 Introduction 1.1 Why are digital filters associated with nonlinearities? 1.2 Challenges for the analysis and design of digital filters associated with nonlinearities 1.3 An overview of the book
Chapter 2 Mathematical reviews 2.1 Mathematical preliminary 2.2 Backgrounds on signals and systems 2.3 Backgrounds on sampling theorem 2.4 Backgrounds on bifurcation theorem 2.5 Absolute stability theorem
Chapter 3 Quantization in digital filters 3.1 Model of quantizer 3.2 Quantization noise analysis 3.3 Optimal code design 3.4 Summary 3.5 Exercises
Chapter 4 Saturation in digital filters 4.1 System model 4.2 Oscillation of digital filters associated with saturation nonlinearity 4.3 Stability of oscillations associated with saturation nonlinearity 4.4 Summary 4.5 Exercises
Chapter 5 Autonomous response of digital filters with two's complement arithmetic 5.1 System model 5.2 Linear and affine linear behaviors 5.3 Limit cycle behavior 5.4 Chaotic behavior 5.5 Summary 5.6 Exercises
Chapter 6 Step response of digital filters with two's complement arithmetic 6.1 Affine linear behaviors 6.2 Limit cycle behavior 6.3 Fractal behavior 6.4 Summary 6.5 Exercises
Chapter 7 Sinusoidal response of digital filters with two's complement arithmetic 7.1 No overflow case 7.2 Overflow case 7.3 Summary 7.4 Exercises
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- © Academic Press 2007
- 30th March 2007
- Academic Press
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Dr. Ling received the B.Eng.(Hons) and M.Phil. degrees from the department of Electrical and Electronic Engineering, the Hong Kong University of Science and Technology, in 1997 and 2000, respectively, and a Ph.D. degree in the department of Electronic and Information Engineering from the Hong Kong Polytechnic University in 2003. In 2004, he joined the King's College London as a Lecturer. His research interests include discontinuous nonlinear system theory with applications to digital filters with two's complement arithmetic and sigma delta modulators, continuous constrained optimization theory with applications to filters, filter banks and sigma delta modulators design, filter banks and wavelets theory with applications to multimedia and biomedical signal processing, and fuzzy, impulsive and optimal control theory with applications to sigma delta modulators and power electronics.
King's College London