Cambridge: Cambridge University Press, 2008. — 696 p. — ISBN13: 978-0521061759.
What makes some computers slow? What makes some digital systems operate reliably for years while others fail mysteriously every few hours? Why do some systems dissipate kilowatts while others operate off batteries? These questions of speed, reliability, and power are all determined by the system-level electrical design of a digital system. Digital Systems Engineering presents a comprehensive treatment of these topics. It combines a rigorous development of the fundamental principles in each area with down-to-earth examples of circuits and methods that work in practice. The book not only can serve as an undergraduate textbook, filling the gap between circuit design and logic design, but also can help practicing digital designers keep up with the speed and power of modern integrated circuits. The techniques described in this book, which were once used only in supercomputers, are now essential to the correct and efficient operation of any type of digital system.
Introduction to digital system engineering.Why Study Digital Systems Engineering?
An Engineering View of a Digital System.
Technology Trends and Digital Systems Engineering.
Organization of this Book.
Bibliographic Notes.
Exercises.
Packaging of digital systems.A Typical Digital System.
Digital Integrated Circuits - On-Chip Wiring.
Integrated Circuit Packages.
Printed Circuit Boards.
Chassis and Cabinets.
Backplanes and Mother Boards.
Wire and Cable.
Connectors.
Optical Communication.
Radio Communication.
Bibliographic Notes.
Exercises.
Modeling and analysis of wires.Geometry and Electrical Properties.
Electrical Models of Wires.
Simple Transmission Lines.
Special Transmission Lines.
Wire Cost Models.
Measurement Techniques.
Some Experimental Measurements.
Bibliographic Notes.
Exercises.
Circuits.MOS Transistors.
Parasitic Circuit Elements.
Basic Circuit Forms.
Circuit Analysis.
Bibliographic Notes.
Exercises.
Power distribution.The Power Supply Network.
Local Regulation.
Logic Loads and On-Chip Power Supply Distribution.
Power Supply Isolation.
Bypass Capacitors.
Example Power Distribution System.
Bibliographic Notes.
Exercises.
Noise in digital systems.Noise Sources in a Digital System.
Power Supply Noise.
Cross Talk.
Intersymbol Interference.
Other Noise Sources.
Managing Noise.
Bibliographic Notes.
Exercises.
Signaling conventions.A Comparison of Two Transmission Systems.
Considerations in Transmission System Design.
Signaling Modes for Transmission Lines.
Signaling Over Lumped Transmission Media.
Signal Encoding.
Bibliographic Notes.
Exercises.
Advanced signaling techniques.Signaling over RC Interconnect.
Driving Lossy LC Lines.
Simultaneous Bidirectional Signaling.
AC and N of M Balanced Signaling.
Examples.
Bibliographic Notes.
Exercises.
Timing conventions.A Comparison of Two Timing Conventions.
Considerations in Timing Design.
Timing Fundamentals.
Encoding Timing: Signals and Events.
Open-Loop Synchronous Timing.
Closed-Loop Timing.
Clock Distribution.
Bibliographic Notes.
Exercises.
Synchronization.A Comparison of Three Synchronization Strategies.
Synchronization Fundamentals.
Synchronizer Design.
Asynchronous Design.
Bibliographic Notes.
Exercises.
Signaling circuits.Terminations.
Transmitter Circuits.
Receiver Circuits.
Electrostatic Discharge (ESD) Protection.
An Example Signaling System.
Bibliographic Notes.
Exercises.
Timing circuits.Latches and Flip-Flops.
Delay Line Circuits.
Voltage-Controlled Oscillators.
Phase Comparators.
Loop Filters.
Clock Aligners.
Bibliographic Notes.
Problems.