ERROR-CONTROL BLOCK CODES FOR COMMUNICATIONS ENGINEERS
Ouvrage 1-58053-032-X : ERROR-CONTROL BLOCK CODES FOR COMMUNICATIONS ENGINEERS
Put the latest practical information available on error-control block
coding and decoding to work for you with this handy new reference. It
examines in detail linear block codes, cyclic codes, BCH codes, RS
codes, and mutlilevel block-coded modulation and provides valuable
simulation results to save you time in understanding and using
error-control block codes.
Featuring real-world applications to such technologies as space and
mobile communications, and compact disks, as well as many clear
illustrations of technique, this is a one-stop tool for designing and
engineering coded transmissions for reliable digital communications.
The book helps you...
ùDecode on erasure channels with block codes or BCH and RS codes ùDesign
efficient coded modulation schemes for bandwidth-constraint channels
ùDecode BCH and RS codes with Euclid's algorithm ùGenerate BCH and RS
codes
Preface
Error-control coding covers a large class of codes and decoding
techniques. Block codes and convolutional codes are commonly used in
digital communication systems for reliable transmission of data. The
book departs from the usual format in one major respect: it is devoted
to the theory of error-control block codes and their related topics.
Emphasis is on random error-control block codes. Burst error-control
block codes are briefly discussed. Every effort has been made to explain
the material as simply as possible, with examples and illustrations
whenever possible. Of course, this book is by no means complete. New
error-comuol codes and decoding methods are the result of ongoing
research activities in digital communications. Naturally, a completion
of the book also signals and demands the beginning of new materials.
I assume that the reader has a sound knowledge of probability theory. I
have been teaching much of the material presented here in universities
over the last few years. The book can be used as a text for a final-year
undergraduate or first-year graduate course on error-control block
coding. It can also serve engineers who acquire knowledge of
error-control block codes.
Each of the eight chapters begins with an introductory section and is
organized as follows:
Chapter 1 is a general review of digital communication systems. The
concepts, presented at an elementary level, describe the model and
elements of a digital communication system.
Chapter 2 gives an introduction of abstract algebra, vector spaces, and
matrices.
Chapter 3 examines the encoding and decoding of linear block codes. This
is followed by a brief analysis of their performance with coherent
binary phase-shift keying signals.
Chapter 4 is concerned with the encoding and error-trapping decoding of
cyclic codes.
Chapter 5 focuses on the encoding and decoding of
Bose-Chaudhuri-Hocquenghem codes.
Chapter 6 is concerned with the encoding and decoding of Reed-Solomon
codes.
Chapter 7 describes the transmission of block-coded signals over
bandwidth-constrained channels. The design theory of multilevel
block-coded modulation with M-ary phase-shift keying signals is
described. Optimum and suboptimum decoding techniques are also
presented.
Finally, Chapter 8 explores the applications of block codes to modern
communication and noncommunication systems.
A final-year undergraduate course on error-control block coding would
cover Chapters I, 2, 3, 4, 5, 6, and 8 and a brief introduction of
Chapter 7. A first-year graduate course on error-control block coding
would cover all the material in the book. A comprehensive reference
section is included at the end of each chapter. It is hoped that the
reader will benefit from the text and pursue further study on the topics
of error-control coding.
I am grateful to the reviewer at Artech House, who thoroughly read the
manuscript and made many valuable suggestions. I would also like to
thank Professor Patrick G. Farrell, who taught me error-control coding,
and many others who helped throughout the preparation of this book. The
contributions of students who pointed out several errors are greatly
appreciated.
The guidance I received from Dr. Julie Lancashire, Mr. Michael Webb, and
Ms. Susanna Taggart at Artech House, is particularly appreciated.
Finally, I thank my parents and my wife, Wendy, for their continuing
support throughout the writing of this book.
L. H. Charles Lee
L.H. Charles Lee is a lecturer at MacQuarie University in Sydney,
Australia. He received his Ph.D. in Electrical Engineering from
Manchester University (UK) and his B.Sc. in Electrical & Electronic
Engineering from Loughborough University (UK). He is a member of the
IEEE and the IEE.
Table of Contents
Introduction to Coded Digital Communication Systems
Introduction to Abstract Algebra
Linear Block Codes
Reed-Muller Codes
Cyclic Codes
Bose-Chaudhuri-Hocquenham Codes
Reed-Solomon Codes
Multilevel Block-Coded Modulation
Appendices
Auteur : LEE
Editeur : ARTECH HOUSE
Nombre de pages : 245
Date de publication : 02 2000
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