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Library | Item Barcode | Call Number | Material Type | Item Category 1 | Status |
|---|---|---|---|---|---|
Searching... | 30000010057645 | TK7888.4.K36 R36 1994 | Open Access Book | Book | Searching... |
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Summary
Summary
A modern introduction to logic design. Complementing the presentation of logic design theory with discussion of current design technologies, the text introduces readers to a wide range of software tools and demonstrates how they fit in the hardware design process. The text also encourages hands-on experimentation with software tools such as LogicWorks to bolster understanding of practical design methods. Annotation copyright by Book News, Inc., Portland, OR
Author Notes
Randy Katz is a Professor of Electrical Engineering and Computer Science at the University of California, Berkeley. He recently received a Distinguished Teaching Award for his contributions to engineering education, and he is coinvestigator on a multicampus NSF-sponsored project to restructure education. His research interests include I/O controller design and high performance striped disk and tape subsystems. He has served on the White House Technology Task Force andVice President Gore's "Reinventing Government" Task Force.
Table of Contents
| 1 Introduction |
| The Process of Design |
| Digital Hardware Systems |
| Multiple Representations of a Digital Design Rapid |
| Electronic System Prototyping |
| 2 Two-Level Combinational Logic |
| Logic Functions and Switches |
| Gate Logic |
| Two-Level Simplification |
| CAD Tools for Simplification |
| Practical Matters |
| 3 Multilevel Combinational Logic |
| Multilevel Logic |
| CAD Tools for Multilevel Logic Synthesis |
| Time Response in Combinational Networks |
| Hazards/Glitches and How to Avoid Them |
| Practical Matters |
| 4 Programmable And Steering Logic |
| Programmable Arrays of Logic Gates |
| Beyond Simple Logic Gates |
| Combinational Logic |
| Word Problems |
| Case Study: A Simple Process Line Control Problem |
| Case Study: BCD-to-Seven-Segment Display Controller |
| Case Study: A Logic Function Unit Case Study: An Eight-Input |
| Barrel Shifter |
| 5 Arithmetic Circuits |
| Number Systems |
| Networks for Binary Addition |
| Arithmetic Logic Unit Design |
| BCD Addition |
| Combinational Multiplier Case Study: An 8 by 8 Bit Multiplier |
| 6 Sequential Logic Design |
| Sequential Switching Networks |
| Timing Methodologies |
| Realizing Circuits with Different Kinds of Flip-Flops |
| Metastability and Asynchronous Inputs |
| Self- Timed and Speed-Independent Circuits |
| Practical Matters |
| 7 Sequential Logic |
| Case Studies Kinds of Registers and Counters |
| Counter Design Procedure |
| Self-Starting Counters |
| Implementation with Different Kinds of Flip-Flops |
| Asynchronous Versus Synchronous Counters |
| Random Access Memories |
| 8 Finite State Machine Design |
| The Concept of the State Machine |
| Basic Design Approach |
| Alternative State Machine Representations |
| Moore and Mealy Machine Design Procedure |
| Finite State Machine Word Problems |
| 9 Finite State Machine Optimization |
| Motivation for Optimization State |
| Minimization/Reduction State Assignment |
| Choice of Flip-Flops |
| Finite State Machine Partitioning |
| 10 Finite State Machine Implementation |
| FSM Design with Programmable Logic |
| FSM Design with Counters |
| FSM Design with More Sophisticated Programmable Logic |
| Devices. Case Study: Traffic Light Controller |
| 11 Computer Organization |
| Structure of a Computer |
| Busing Strategies |
| Finite State Machines for Simple CPUs |
| 12 Controller Implementation |
| Random Logic |
| Time State (Divide & Conquer) |
| Jump Counter Branch Sequencers |
| Microprogramming |
| Appendix A Number Systems |
| Appendix B Basic Electronic Components |
