Get Free PDF of Digital Principles and Design by Donald D. Givone: Tips and Tricks for Using the Book Effectively
Digital Principles and Design by Donald D. Givone: A Comprehensive Guide for Students and Professionals
If you are interested in learning about digital electronics, logic design, and computer engineering, you might want to check out the book Digital Principles and Design by Donald D. Givone. This book is a popular textbook that covers the fundamental concepts and techniques of digital systems, from basic logic gates to complex sequential circuits. It also provides practical examples and applications of digital design using modern hardware and software tools.
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In this article, we will give you an overview of what this book is about, who is the author, how to get the PDF version of the book for free, and how to use it effectively for your learning or professional purposes. Let's get started!
What is Digital Principles and Design?
Digital Principles and Design is a book that teaches you how to design and analyze digital circuits and systems using Boolean algebra, combinational and sequential logic, state machines, programmable logic devices, and computer arithmetic. It also introduces you to some advanced topics such as asynchronous circuits, fault detection and correction, memory devices, microprocessors, and computer architecture.
The book is divided into nine chapters, each with its own objectives, summaries, examples, exercises, and references. Here are the main topics covered in each chapter:
The main topics covered in the book
Chapter 1: Introduction - This chapter gives you an overview of digital systems, number systems, arithmetic operations, codes, binary logic, truth tables, logic symbols, and circuit diagrams.
Chapter 2: Number Systems, Arithmetic, and Codes - This chapter explains how to perform arithmetic operations on binary, octal, hexadecimal, and decimal numbers, how to convert between different number systems, how to use different types of codes such as BCD, ASCII, Gray code, parity code, Hamming code, etc., and how to perform error detection and correction using codes.
Chapter 3: Boolean Algebra and Combinational Networks - This chapter teaches you how to use Boolean algebra to manipulate and simplify logic expressions, how to use De Morgan's laws, Karnaugh maps, Quine-McCluskey method, etc., to minimize logic functions, how to design combinational networks such as adders, subtractors, comparators, multiplexers, demultiplexers, decoders, encoders, etc., using logic gates.
Chapter 4: Simplification of Boolean Expressions - This chapter shows you how to use algebraic methods, tabular methods, and graphical methods to simplify Boolean expressions further, how to use don't care conditions, and how to implement logic functions using NAND and NOR gates.
Chapter 5: Logic Design with MSI Components and Programmable Logic Devices - This chapter introduces you to some medium-scale integrated (MSI) components such as arithmetic logic units (ALUs), parity generators and checkers, code converters, etc., and how to design them using logic gates. It also explains how to use programmable logic devices (PLDs) such as programmable logic arrays (PLAs), programmable array logic (PALs), and complex programmable logic devices (CPLDs) to implement logic functions.
Chapter 6: Flip-flops and Simple Flip-flop Applications - This chapter describes the characteristics and operation of different types of flip-flops such as SR, D, JK, T, and master-slave flip-flops, how to analyze and design flip-flop circuits using timing diagrams and state tables, and how to use flip-flops for simple applications such as registers, counters, shift registers, etc.
Chapter 7: Synchronous Sequential Networks - This chapter explains how to design and analyze synchronous sequential networks using state diagrams, state equations, state assignments, and state reduction techniques, how to use different types of counters such as ripple counters, synchronous counters, up-down counters, ring counters, Johnson counters, etc., and how to use different types of shift registers such as serial-in serial-out (SISO), serial-in parallel-out (SIPO), parallel-in serial-out (PISO), parallel-in parallel-out (PIPO), universal shift registers, etc.
Chapter 8: Algorithmic State Machines - This chapter introduces you to the concept of algorithmic state machines (ASMs) as a graphical tool for designing synchronous sequential networks, how to represent ASMs using ASM charts and ASM tables, how to derive state diagrams and state equations from ASMs, and how to implement ASMs using flip-flops and combinational logic.
Chapter 9: Asynchronous Sequential Networks - This chapter covers the basics of asynchronous sequential networks such as fundamental mode operation, hazards, races, essential hazards, etc., how to analyze and design asynchronous sequential networks using transition tables, flow tables, race-free state assignments, etc., and how to use asynchronous sequential networks for applications such as pulse-mode circuits, asynchronous counters, etc.
The benefits of learning digital principles and design
Learning digital principles and design can help you gain a solid foundation in digital electronics, logic design, and computer engineering. It can also help you develop your analytical, problem-solving, and creative skills. Some of the benefits of learning digital principles and design are:
You can understand how digital systems work and how they are designed using various hardware and software tools.
You can apply your knowledge of digital principles and design to various fields such as robotics, artificial intelligence, embedded systems, communication systems, biomedical engineering, etc.
You can enhance your career prospects and opportunities by acquiring a valuable skill set that is in high demand in the industry and academia.
You can pursue further studies or research in digital electronics, logic design, computer engineering, or related disciplines.
Who is Donald D. Givone?
Donald D. Givone is the author of Digital Principles and Design. He is a professor emeritus of electrical engineering at the University at Buffalo, State University of New York. He has over 40 years of teaching and research experience in digital electronics, logic design, computer engineering, and related fields. He has also authored or co-authored several other books and papers on these topics.
His academic background and achievements
Donald D. Givone received his B.S.E.E. degree from Rensselaer Polytechnic Institute in 1958, his M.S.E.E. degree from the University of Pittsburgh in 1960, and his Ph.D. degree from Carnegie Mellon University in 1967. He joined the faculty of the University at Buffalo in 1967 as an assistant professor of electrical engineering. He became an associate professor in 1971 and a full professor in 1977. He served as the chair of the Department of Electrical Engineering from 1995 to 1999. He retired from the university in 2005.
During his academic career, Donald D. Givone received several awards and honors for his teaching and research excellence. Some of them are:
The Chancellor's Award for Excellence in Teaching from the State University of New York in 1977.
The IEEE Education Society's Mac E. Van Valkenburg Award for outstanding contributions to electrical engineering education in 1999.
The IEEE Circuits and Systems Society's Education Award for distinguished contributions to education in circuits and systems in 2000.
The IEEE Computer Society's Taylor L. Booth Education Award for significant contributions to computer science and engineering education in 2004.
His teaching and research interests 71b2f0854b