- Shopping Bag ( 0 items )
Ships from: Pueblo West, CO
Usually ships in 1-2 business days
Ships from: Fort Mill, SC
Usually ships in 1-2 business days
Ships from: College Park, MD
Usually ships in 1-2 business days
Ships from: College Park, MD
Usually ships in 1-2 business days
Ships from: College Park, MD
Usually ships in 1-2 business days
1. Number Systems and Codes.
Digital Versus Analog. Digital Representations of Analog Quantities. Decimal Numbering System (Base 10). Binary Numbering System (Base 2). Decimal-to-Binary Conversion. Octal Numbering System (Base 8). Octal Conversions. Hexadecimal Numbering System (Base 16). Hexadecimal Conversions. Binary-Coded-Decimal System. Comparison of Numbering Systems. The ASCII Code. Applications of the Numbering Systems.
2. Digital Electronic Signals and Switches.
Digital Signals. Clock Waveform Timing. Serial Representation. Parallel Representation. Switches in Electronic Circuits. A Relay as a Switch. A Diode as a Switch. A Transistor as a Switch. The TTL Integrated Circuit. MultiSIM Simulation of Switching Circuits. The CMOS Integrated Circuit. Surface-Mount Devices.
3. Basic Logic Gates.
The AND Gate. The OR Gate. Timing Analysis. Enable and Disable Functions. Using IC Logic Gates. Introduction to Troubleshooting Techniques. The Inverter. The NAND Gate. The NOR Gate. Logic Gate Waveform Generation. Using IC Logic Gates. Summary of the Basic Logic Gates and IEEE/IEC Standard Logic Symbols.
4. Programmable Logic Devices: Altera and Xilinx CPLDs and FPGAs.
PLD Design Flow. PLD Architecture. Using PLDs to Solve Basic Logic Designs. CPLD Problems.
5. Boolean Algebra and Reduction Techniques.
Combinational Logic. Boolean Algebra Laws and Rules. Simplification of Combinational Logic Circuits Using Boolean Algebra. De Morgan's Theorem. The Universal Capability of NAND and NOR Gates. AND-OR-INVERT Gates for Implementing Sum-of-Products Expressions. Karnaugh Mapping. System Design Applications. CPLD Design Applications. CPLD Problems.
6. Exclusive-OR and Exclusive-NOR Gates.
The Exclusive-OR Gate. The Exclusive-NOR Gate. Parity Generator/Checker. System Design Applications. CPLD Design Applications. CPLD Problems.
7. Arithmetic Operations and Circuits.
Binary Arithmetic. Two's-Complement Representation. Two's-Complement Arithmetic. Hexadecimal Arithmetic. BCD Arithmetic. Arithmetic Circuits. Four-Bit Full-Adder ICs. System Design Applications. Arithmetic/Logic Units. CPLD Design Applications. CPLD Problems.
8. Code Converters, Multiplexers, and Demultiplexers.
Comparators. Decoding. Encoding. Code Converters. Multiplexers. Demultiplexers. System Design Applications. CPLD Design Applications. CPLD Problems.
9. Logic Families and Their Characteristics.
The TTL Family. TTL Voltage and Current Ratings. Other TTL Considerations. Improved TTL Series. The CMOS Family. Emitter-Coupled Logic. Comparing Logic Families. Interfacing Logic Families.
10. Flip-Flops and Registers.
S-R Flip-Flop. Gated S-R Flip-Flop. Gated D Flip-Flop. Integrated-Circuit D Latch (7475). Integrated-Circuit D Flip-Flop (7474). Master-Slave J-K Flip-Flop. Edge-Triggered J-K Flip-Flop. Integrated-Circuit J-K Flip-Flop (7476, 74LS76). Using an Octal D Flip-Flop in a Microcontroller Application. CPLD Problems.
11. Practical Considerations for Digital Design.
Flip-Flop Time Parameters. Automatic Reset. Schmitt Trigger ICs. Switch Debouncing. Sizing Pull-Up Resistors. Practical Input and Output Considerations.
12. Counter Circuits and VHDL State Machines.
Analysis of Sequential Circuits. Ripple Counters. Design of Divide-by-N Counters. Ripple Counter ICs. System Design Applications. Seven-Segment LED Display Decoders. Synchronous Counters. Synchronous Up/Down-Counter ICs. Applications of Synchronous Counter ICs. CPLD Design Applications. CPLD Problems. Implementing State Machines in VHDL.
13. Shift Registers.
Shift Register Basics. Parallel-to-Serial Conversion. Recirculating Register. Serial-to-Parallel Conversion. Ring Shift Counter and Johnson Shift Counter. Shift Register ICs. System Design Applications for Shift Registers. Driving a Stepper Motor with a Shift Register. Three-State Buffers, Latches, and Transceivers. CPLD Design Applications. CPLD Problems.
14. Multivibrators and the 555 Timer.
Multivibrators. Capacitor Charge and Discharge Rates. Astable Multivibrators. Monostable Multivibrators. Integrated Circuit Monostable Multivibrators. Retriggerable Monostable Multivibrators. Astable Operation of the 555 IC Timer. Monostable Operation of the 555 IC Timer. Crystal Oscillators.
15. Interfacing to the Analog World.
Digital and Analog Representations. Operational Amplifier Basics. Binary-Weighted D/A Converters. R/2R Ladder D/A Converters. Integrated-Circuit D/A Converters. Integrated-Circuit Data Converter Specifications. Parallel-Encoded A/D Converters. Counter-Ramp A/D Converters. Successive-Approximation A/D Conversion. Integrated-Circuit A/D Converters. Data Acquisition System Application. Transducers and Signal Conditioning.
16. Semiconductor, Magnetic and Optical Memory.
Memory Concepts. Static RAMs. Dynamic RAMs. Read-Only Memories. Memory Expansion and Address Decoding Applications. Magnetic and Optical Storage.
17. Microprocessor Fundamentals.
Introduction to System Components and Buses. Software Control of Microprocessor Systems. Internal Architecture of a Microprocessor. Instruction Execution Within a Microprocessor. Hardware Requirements for Basic I/O Programming. Writing Assembly Language and Machine Language Programs. Survey of Microprocessors and Manufacturers. Summary of Instructions.
18. The 8051 Microcontroller.
The 8051 Family of Microcontrollers. 8051 Architecture. Interfacing to External Memory. The 8051 Instruction Set. 8051 Applications. Data Acquisition and Control System Application.
Appendix A. WWW Sites.
Appendix B. Manufacturers' Data Sheets.
Appendix C. Explanation of the IEEE/IEC Standard for Logic Symbols (Dependency Notation).
Appendix D. Answers to Odd-Numbered Problems.
Appendix E. CPLD Software Tutorials.
Appendix F. Review of Basic Electricity Principles.
Appendix G. Schematic Diagrams for Chapter-End Problems.
Appendix H. 8051 Instruction Set Summary.
Supplementary Index of ICs.
It is time to reevaluate the way that digital electronics is taught. At first, digital electronics was a theoretical science, but now it is a down-to-earth, workable technology that can be taught using a practical approach.
Digital Electronics: A Practical Approach, Sixth Edition, emphasizes analytical reasoning and basic digital design using the standard integrated circuits (ICs) that are used in industry today. Throughout the text, actual ICs are used, and reference is made to the appropriate manufacturers' data sheets. Because of this approach, students become proficient at using the terminology and timing diagrams that are the standard in manufacturers' data manuals and industrial settings.
I have strived to make the text easy to read and understand, so that motivated students can teach themselves topics that require extra work without the constant attention of the instructor. Several digital system design applications and troubleshooting exercises are included. Also, there are ample illustrations, examples, and review questions to help students reach a point where they can reason out the end-of-chapter problems on their own. After all, that is the main goal of this book—to help students to think and reason on their own.
This book can be used for a one- or two-semester course in digital electronics and is intended for students of technology, computer science, or engineering programs. Although not mandatory, it is helpful if students using this text have an understanding of, or are concurrently enrolled in, a basic electricity course. A laboratory component to provide hands-on reinforcement of the materialpresented in this book can be very helpful. Laboratory exercises can be developed by building, testing, debugging, and analyzing the operation of any of the examples or system design applications that are provided within the text.
What is it that students really need to learn to function in the modern digital electronics field? That is the question that I ask myself every time I teach a digital course from my textbook or visit an electronics facility. The answer is that students need to learn the practical skills required to design and troubleshoot actual digital circuitry that they will see on the job. Practical means that the circuits that they study must be made up of actual ICs and the specifications that they learn about are taken from actual manufacturers' data sheets. It also means that the students must be taught how to think on their own and how to reason out new concepts as they come up on the job. They must also be able to teach themselves new material as new developments in the field arise.
To address these needs, this book makes a strong effort to use actual ICs and data sheets in its examples. The text covers the basic fundamentals of any circuit design so that the students, knowing the basic building blocks, can teach themselves the newest technology when faced with it on the job. Also, material has been added to help reduce the anxiety that students feel when they first start a new job and are faced with schematics of large systems to analyze. To get students used to these large-scale circuit diagrams, I have included four "real-world" schematics that contain several of the ICs and circuits described in this text. By working the Schematic Interpretation problems at the end of each chapter and referencing the schematics in Appendix G, students are forced to dig into the complex diagrams a bit deeper in each successive chapter, so that by the end of the text, they will have covered almost all of the complete circuits.
A key part of learning any technical subject matter is for the student to have practice solving problems of varying difficulty. The problems at the end of each chapter are grouped together by section number. Within each section are several basic problems designed to get the student to solve a problem using the fundamental information presented in the chapter. In addition to the basic problems, there are four other problem types:
D (Design) Problems designated with the letter D ask the students to modify an existing circuit or to design an original circuit to perform a specific task. This type of exercise stimulates creative thinking and instills a feeling of accomplishment on successful completion of a circuit design.
T (Troubleshooting) Problems designated with the letter T present the student with a malfunctioning circuit to be diagnosed or ask for a procedure to follow to test for proper circuit operation. This develops the student's analytical skills and prepares him or her for troubleshooting tasks that would typically be faced on the job.
C (Challenging) Problems designated with the letter C are the most challenging to solve. They require a thorough understanding of the material covered and go a step beyond by requiring the student to develop some of his or her own strategies to solve a problem that is different from the examples presented in the chapter. This also expands the student's analytical skills and develops critical thinking techniques.
S (Schematic interpretation) Problems designated with the letter S are designed to give the student experience interpreting circuits and ICs in complete system schematic diagrams. The student is asked to identify certain components in the diagram, describe their operation, modify circuit elements, and design new circuit interfaces. This gives the student experience working with real-world, large-scale schematics like the ones that he or she will see on the job.
Several EWB exercises are included at the end of each chapter. One of the CDs included in the back of this textbook contains all of the circuit files and instructions needed to solve each problem. There are three types of problems: (1) circuit interaction problems require the student to change input values and take measurements at the outputs to verify circuit operation, (2) design problems require the student to design, or modify, a circuit to perform a particular task, and (3) troubleshooting problems require the student to find and fix the fault that exists in the circuit that is given.
Complex Programmable Logic Device (CPLD) problems are included at the end of several chapters. Designing digital logic with CPLDs is becoming very popular in situations where high complexity and programmability are important. The CPLD problems use manufacturers' software to solve designs that were previously implemented using 7400-series ICs. Examples of circuit design are provided within the chapters, and Appendix E contains tutorials for using the software.
The examples and problems used in the text are based on both Altera,SM and Xilinx products. The CPLD design software for their products can be downloaded from their websites (listed in Appendix A).
Several annotations are given in the page margins throughout the text. These are intended to highlight particular points that were made on the page. They can be used as the catalyst to develop a rapport between the instructor and the students and to initiate team discussions among the students. Four different icons are used to distinguish between the annotations.
Common Misconception: These annotations point out areas of digital electronics that have typically been stumbling blocks for students and need careful attention. Pointing out these potential problem areas helps students avoid making that mistake.
Team Discussion: These annotations are questions that tend to initiate a discussion about a particular topic. The instructor can use them as means to develop cooperative learning by encouraging student interaction.
Helpful Hint: These annotations offer suggestions for circuit analysis and highlight critical topics presented in that area of the text. Students use these tips to gain insights regarding important concepts.
Inside Your PC: These annotations are used to illustrate practical applications of the theory in that section as it is applied inside of a modern PC. This will help the student to understand many of the terms used to describe the features that define the capability of a PC.
I would like to share with you some teaching strategies that I've developed from using this text for the past 14 years. Needless to say, students have become very excited about learning digital electronics because of the increasing popularity of the digital computer and the expanding job opportunities for digital technicians and engineers. Students are also attracted to the subject area because of the availability of inexpensive digital ICs, which have enabled them to construct useful digital circuits in the lab or at home at a minimal cost.
Student Projects: I always encourage the students to build some of the fundamental building-block circuits that are presented in this text. The circuits that I recommend are the S-V power supply in Figure 11-39, the 60-Hz pulse generator in Figure 11-40, the cross-NAND switch debouncer in Figure 11-37, and the seven-segment LED display in Figure 12-42. Having these circuits provides a starting point for the student to test many of the other circuits in the text at his or her own pace, at home.
Team Discussions: As early as possible in the course, I take advantage of the Team Discussion margin annotations. These are cooperative learning exercises where the students are allowed to form teams, discuss the problem, and present their conclusion to the class. These activities give them a sense of team cooperation and create a student network connection that will carry on throughout the rest of their studies.
Laboratory Component: Giving the students the opportunity for hands-on laboratory experience is a very useful component of any digital course. An important feature of this text is that there is enough information given for any of the circuits so that they can be built and tested in the lab and that you can be certain they will give the same response as shown in the text.
Circuit Illustrations: Almost every topic in the text has an illustration associated with it. Because of the extensive art program, I normally lecture directly from illustration to illustration. To do this, I have an overhead transparency made of every figure in the text. All figures and tables in the text are available in PowerPoint® format for instructors adopting the text.
Testing: Rather than let a long period of time elapse between tests, I try to give a half-hour quiz each week. Besides the daily homework, this forces the students to study at least once per week. I also believe that it is appropriate to allow them to have a formula sheet for the quiz or test (along with a TTL or CMOS databook). This sheet can have anything they want to write on it. Making up the formula sheet is a good way for them to study and eliminates a lot of routine memorization that they would not normally have to do on the job.
The Learning Process: The student's knowledge is generally developed by learning the theory and the tools required to understand a particular topic, working through the examples provided, answering the review questions at the end of each section, and finally, solving the problems at the end of the chapter. I always encourage the students to rework the solutions given in the examples without looking at the solutions in the book until they are done. This gives them extra practice and a secure feeling of knowing the detailed solution is right there at their disposal.
Basically, the text can be divided into two halves: Chapters 1 to 8 cover basic digital logic and combinational logic, and Chapters 9 to 17 cover sequential logic and digital systems. Chapters 1 and 2 provide the procedures for converting between the various number systems and introduce the student to the electronic signals and switches used in digital circuitry. Chapter 3 covers the basic logic gates and introduces the student to timing analysis and troubleshooting techniques. Chapter 4 explains how to implement designs using CPLDs. Chapter 5 shows how several of the basic gates can be connected together to form combinational logic. Boolean algebra, De Morgan's theorem, and Karnaugh mapping are used to reduce the logic to its simplest form. Chapters 6, 7, and 8 discuss combinational logic used to provide more advanced functions like parity checking, arithmetic operations, and code converting.
The second half of this book begins with a discussion of the operating characteristics and specifications of the TTL and CMOS logic families (Chapter 9). Chapter 10 introduces flip-flops and the concept of sequential timing analysis. Chapter 11 makes the reader aware of the practical limitations of digital ICs and some common circuits that are used in later chapters to facilitate the use of medium-scale ICs. Chapters 12 and 13 expose the student to the operation and use of several common medium-scale ICs used to implement counter and shift register systems. Chapter 14 deals with oscillator and timing circuits built with digital ICs and with the 555 timer IC. Chapter 15 teaches the theory behind analog and digital conversion schemes and the practical implementation of ADC and DAC IC converters. Chapter 16 covers semiconductor, magnetic, and optical memory as it applies to PCs and microprocessor systems. Chapter 17 introduces microprocessor hardware and software to form a bridge between digital electronics and a follow-up course in microprocessors. The book concludes with several appendices used to supplement the chapter material.
If time constraints only allow for a single-semester course, then the following sections should be covered to provide a coherent overview of digital electronics:
Sections 1.1-1.5, 1.8-1.13
Sections 3.1-3.3, 3.5-3.9
Sections 15.1, 15.5, 15.6, 15.10
Sections 16.1, 16.2, 16.4
Also, if the course is intended for nonelectrical technology students, then the following sections could be omitted to eliminate any basic electricity requirements:
Sections 9.1-9.3, 9.8
Sections 15.2-15.4, 15.12
Special features included in this textbook to enhance the learning and comprehension process are:
An extensive package of supplementary material is available to aid in the teaching and learning process.
The first five editions were developed from an accumulation of 18 years of class notes. Teaching from the fifth edition for the past 3 years has given me the opportunity to review several suggestions from my students and other faculty regarding such things as ways to improve a circuit diagram, clarifying an explanation, and redesigning an application to make it easier to duplicate in lab.
More than 120 schools have adopted the fifth edition. To write the sixth edition, I have taken advantage of the comments from these schools as well as my own experience and market research to develop an even more practical and easier-to-learn-from textbook. Besides rewriting several of the examples and applications based on my classroom experience, I have added the following material:
Digital electronics is the foundation of computers and microprocessor-based systems found in automobiles, industrial control systems, and home entertainment systems. You are beginning your study of digital electronics at a good time. Technological advances made during the past 25 years have provided us with ICs that can perform complex tasks with a minimum amount of abstract theory and complicated circuitry. Before you are through this book, you'll be developing exciting designs that you've always wondered about but can now experience firsthand.
The study of digital electronics also provides the prerequisite background for your future studies in microprocessors and microcomputer interfacing. It also provides the job skills to become a computer service technician, production test technician, or digital design technician, or to fill a multitude of other positions related to computer and microprocessor-based systems.
This book is written as a learning tool, not just as a reference. The concept and theory of each topic is presented first. Then, an explanation of its operation is given. This is followed by several worked-out examples and, in some cases, a system design application. The review questions at the end of each chapter will force you to dig back into the reading to see that you have met the learning objectives given at the beginning of the chapter. The problems at the end of each chapter will require more analytical reasoning, but the procedures for their solutions were already given to you in the examples. One good way to prepare for homework problems and tests is to cover up the solutions to the examples and try to work them out yourself. If you get stuck, you've got the answer and an explanation for the answer right there.
I also suggest that you take advantage of your Electronics Workbench® problems. The more practice you get, the easier the course will be. I wish you the best of luck in your studies and future employment.
Posted November 25, 2002
Posted October 22, 2009
No text was provided for this review.