Download PDF Hardware Design Verification: Simulation and Formal Method-Based Approaches By William K. Lam

Living in this brand-new age will certainly mean you to always take on others. One of the modal to complete is the thought, mind, and knowledge consisted of experience that on by a person. To handle this problem, everyone needs to have better expertise, minds, and also assumed. It is to really feel taken on the others, obviously in doing the kindness as well as this life to be much better. One of the ways that can be done is by reading.

Hardware Design Verification: Simulation and Formal Method-Based Approaches By William K. Lam

Download PDF Hardware Design Verification: Simulation and Formal Method-Based Approaches By William K. Lam

Just how if there is a site that enables you to search for referred book Hardware Design Verification: Simulation And Formal Method-Based Approaches By William K. Lam from all over the globe author? Immediately, the site will be unbelievable finished. Numerous book collections can be located. All will be so easy without complicated point to move from website to site to get the book Hardware Design Verification: Simulation And Formal Method-Based Approaches By William K. Lam wanted. This is the website that will certainly provide you those requirements. By following this site you could get whole lots numbers of publication Hardware Design Verification: Simulation And Formal Method-Based Approaches By William K. Lam collections from versions sorts of author and also author popular in this globe. Guide such as Hardware Design Verification: Simulation And Formal Method-Based Approaches By William K. Lam and also others can be obtained by clicking nice on link download.

When you feel hard to obtain this book, you can take it based upon the link in this article. This is not only concerning exactly how you get the book to read. It is about the crucial thing that you can accumulate when being in this globe. Hardware Design Verification: Simulation And Formal Method-Based Approaches By William K. Lam as a way to understand it is not offered in this site. By clicking the link, you could discover the new book to review. Yeah, this is it!

Hardware Design Verification: Simulation And Formal Method-Based Approaches By William K. Lam that we recommend in this web site has great deal with the discussion of making better individual. In this location, you can see just how the existence of this publication very crucial. You can take much better book to accompany you. When you require the book, you could take it conveniently. This publication will certainly show you a brand-new experience to understand more about the future. Also the book is really excellent; you will not really feel difficult to appreciate the web content

Loving this book implies caring your hobby. Reading this book will certainly imply leading life top quality to be better. Better in al point may not be achieved in other words time. Yet, this publication will certainly assist you to constantly improve the generosity and also spirit of far better life. When finding the Hardware Design Verification: Simulation And Formal Method-Based Approaches By William K. Lam to download, you may not neglect this. You need to get it currently and read it quicker. Sooner you read this book, quicker you will certainly be extra success from previous! This is your option and also we constantly consider it!

Sales Rank: #3360514 in Books
Published on: 2005-03-13
Original language: English
Number of items: 1
Dimensions: 9.36" h x 1.33" w x 7.20" l, 2.42 pounds
Binding: Hardcover
624 pages

From the Back Cover

The Practical, Start-to-Finish Guide to Modern Digital Design Verification

As digital logic designs grow larger and more complex, functional verification has become the number one bottleneck in the design process. Reducing verification time is crucial to project success, yet many practicing engineers have had little formal training in verification, and little exposure to the newest solutions. Hardware Design Verification systematically presents today's most valuable simulation-based and formal verification techniques, helping test and design engineers choose the best approach for each project, quickly gain confidence in their designs, and move into fabrication far more rapidly. College students will find that coverage of verification principles and common industry practices will help them prepare for jobs as future verification engineers.

Author William K. Lam, one of the world's leading experts in design verification, is a recent winner of the Chairman's Award for Innovation, Sun Microsystems' most prestigious technical achievement award. Drawing on his wide-ranging experience, he introduces the foundational principles of verification, presents traditional techniques that have survived the test of time, and introduces emerging techniques for today's most challenging designs. Throughout, Lam emphasizes practical examples rather than mathematical proofs; wherever advanced math is essential, he explains it clearly and accessibly.

Coverage includes

Simulation-based versus formal verification: advantages, disadvantages, and tradeoffs

Coding for verification: functional and timing correctness, syntactical and structure checks, simulation performance, and more

Simulator architectures and operations, including event-driven, cycle-based, hybrid, and hardware-based simulators

Testbench organization, design, and tools: creating a fast, efficient test environment

Test scenarios and assertion: planning, test cases, test generators, commercial and Verilog assertions, and more

Ensuring complete coverage, including code, parameters, functions, items, and cross-coverage

The verification cycle: failure capture, scope reduction, bug tracking, simulation data dumping, isolation of underlying causes, revision control, regression, release mechanisms, and tape-out criteria

An accessible introduction to the mathematics and algorithms of formal verification, from Boolean functions to state-machine equivalence and graph algorithms

Decision diagrams, equivalence checking, and symbolic simulation

Model checking and symbolic computation

Simply put, Hardware Design Verification will help you improve and accelerate your entire verification process--from planning through tape-out--so you can get to market faster with higher quality designs.

About the Author

William K. Lam is senior engineering manager at Sun Microsystems Laboratories and the 2002 winner of the Chairman's Award for Innovation, Sun's highest award for technical achievement. He holds a Ph.D. in electrical engineering and computer science from the University of California, Berkeley, where he won the 1994 David J. Sakrison Memorial Award for distinguished Ph.D. thesis.

0131433474AB02072005

Two groups of people are essential to a successful design project: a design team and a verification team. Designers usually have formal training from schools. Many colleges have comprehensive curricula on logic design, ranging from introduction to digital design to advanced computer architecture. On the contrary, most verification engineers learn their trade on the job; few were educated as verification engineers in academia, although many schools are beginning to teach verification curriculum. In fact, a majority of verification engineers started out as designers and gradually transitioned to design verification. Unlike design techniques and methodologies, a broad range of verification knowledge is loosely organized and informally acquired through hands-on experience. Furthermore, the horizon of verification has been expanding at a rapid pace: The verification landscape is evolving every six months with new techniques, standards, and tools. Nevertheless, there are principles and techniques that have survived the test of time and prove to be cornerstones of verification.

This book collects and organizes a wide range of digital design verification techniques and methodologies commonly used in industry and presents them in a systematic fashion. The focus of the book is on digital logic design and verification. It does not cover verification of circuits with mixed-signal or radio frequency components. A goal of the book is to pass the vast amount of verification knowledge to college students and engineers so that they are better prepared for the workforce, and to speed up their learning pace. It is tempting to write a ten-minute verification engineering book that lists detailed practical tips that can be used immediately on the job. These quick-fix tips often become obsolete over a short period of time. On the other hand, presenting the principles only will not be immensely useful for practicing engineers. Thus, I decided to strike a balance between the two and present verification principles as well as common practices. It is my belief that only by understanding the principles can one truly grasp the essence of the practices and be creative about using them.

To the Audience

One targeted audience for this book includes undergraduate students at the junior or senior level or first-level graduate students. I will assume that these readers have a sound understanding of a hardware descriptive language, preferably Verilog, because Verilog is used for illustration purposes in most parts of the book. In addition, a rudimentary knowledge of logic design is beneficial. This book is an introduction to design verification. Through its study, students will learn the main ideas, tools, and methodologies used in simulation-based verification, and the principles behind formal verification. The materials presented are industry tested and widely used. At the end of each chapter, problems are presented as a means of refreshing the knowledge covered in the chapter. For those who want to explore certain topics in more depth, please refer to the citations listed in the bibliography.

The other targeted audience includes verification professionals who may have some verification experience but would like to get a systematic overview of the different areas in verification and an understanding of the basic principles behind formal verification. The prerequisites for this audience are similar to those for the first group: basic design knowledge and a hardware descriptive language. The first part of the book provides a comprehensive treatment of simulation-based verification methodology and serves as a refresher or an introduction to verification professionals. For many practicing engineers, formal verification tools appear to be a form of black magic that requires a doctorate in mathematics to comprehend. This book explains these tools and the working principles of formal verification. Before formal verification is discussed in depth, Chapter 7 reviews the basics of mathematics and computer algorithms required to understand verification algorithms fully.

As with every technology, there is no substitution for hands-on experience. I encourage you to get acquainted with verification tools by running some of the examples and problems in the book or designing a project that makes use of the tools described. Free CAD tools such as Verilog simulator, test bench development aid, and waveform viewer are available at www.verilog.net/free.html.

To the Instructor

This book is comprised of two parts. The first part addresses the conventional verification strategy-simulation-based verification-whereas the second part addresses the aspects of formal verification that are well established in academia and tested in industry. The two parts are self-contained and thus can be taught independently as deemed fit.

The first part describes many verification tools. Because the specifics of these tools differ from vendor to vendor and change from time to time, only pseudo common commands are used in this book. To reinforce learning these tools, I recommend that industrial tools be part of a verification laboratory (for instance, a simulator, a waveform viewer, a coverage tool, a bug tracking system, and a revision control system). Similarly, to solidify the knowledge of formal verification, commercial formal verification tools such as an HDL linter, a model checker, and an equivalence checker should be used during lab sessions.

This book has a companion instructor's manual that contains the solutions to all the problems at the end of each chapter. The instructor's manual is available on request to the publisher.

Organization of the Book

Again, this book is intended as an introduction to design verification. I will assume that you have an understanding of basic Verilog constructs. Even though the book is written using Verilog as the hardware description language, I made an effort to present ideas independent of Verilog. When the use of Verilog is unavoidable, the simplest Verilog constructs are used to allow readers unfamiliar with the language to grasp the main ideas.

As previously stated, this book consists of two parts. The first part is devoted to simulation-based verification and the second part discusses formal verification. Simulation-based verification is by far the most widely used methodology and is a necessary requirement for all verification engineers. Formal verification is a relatively new technology and it complements simulation-based verification. I believe that to utilize a technology best, one must first be equipped with an in-depth understanding of the internal working principles of that technology. As a result, instead of just studying a verification tool's operations at the user level-a topic better suited for user manuals-this book spends much time studying the fundamental principles of simulation and formal technology.

The first part--simulation technology--consists of Chapters 2 through 6, and these chapters are ordered similar to the usual sequence of operations encountered during a simulation verification process. We start with Chapter 2, checking for static errors. These are errors that can be detected without input vectors and must be eliminated before extensive simulation begins. In Chapter 3, we study the basic architectures of simulators. Event-driven and cycle-based simulation algorithms are presented first, followed by simulator operations and applications for which we discuss cosimulation, design profiling, common simulator options, and the user interface.

Before one can begin a simulation, one must construct a test bench to host the design. Chapter 4 discusses test bench design, initialization, stimuli generation, clock network, error injection, result assessment, and test configuration. After a design is free of static errors and is embedded in a test bench, it is ready to be simulated. But how should the design be simulated? Chapter 5 addresses the issues of what to simulate and how to measure the quality of the simulation. We will look at test plan design, generation of tests for the items in the test plan, output response assessment, assertion (particularly, SystemVerilog assertions), and verification coverage.

After a circuit is simulated and the bugs are discovered, the next step is to debug problems found during simulation. Chapter 6 presents widely used debugging techniques, including case reduction, check pointing, error tracing, trace dumping, and forward and backward debugging. In addition, Chapter 6 examines the four basic views of design: source code, schematic, waveform, and finite-state machine. We then examine the scenario after the bugs are fixed. The tools and methodology discussed include the revision control system, regression mechanism, and tape-out criteria.

The second part of the book--formal verification--consists of Chapters 7 through 9. Several chapters in the first part of the book can be studied in conjunction with the second. For example, Chapters 2, 4, 5, and 6 are also applicable to formal verification.

The key to understanding formal verification lies in an understanding of the theory behind it. Chapter 7 provides the basic mathematical background for the later chapters. The materials cover Boolean functions and representations, symmetric Boolean functions, finite-state machines and the equivalence algorithm, and graphic algorithms such as depth-first search and breadth-first search, and strongly connected components.

Chapter 8 presents a survey of decision diagrams, with an emphasis on binary decision diagrams. We then review SAT (satisfiability) as an alternative to decision diagrams. The chapter concludes with a look at applications of decision diagrams and SAT in equivalence checking and symbolic simulation.

Chapter 9 presents an in-depth study of symbolic model checking. First it presents automata and computational tree logic as a means of modeling temporal behavior with fairness constraints. It then discusses algorithms for checking a model against a temporal specification. Based on the model-checking algo...

Hardware Design Verification: Simulation and Formal Method-Based Approaches By William K. Lam PDF
Hardware Design Verification: Simulation and Formal Method-Based Approaches By William K. Lam EPub
Hardware Design Verification: Simulation and Formal Method-Based Approaches By William K. Lam Doc
Hardware Design Verification: Simulation and Formal Method-Based Approaches By William K. Lam iBooks
Hardware Design Verification: Simulation and Formal Method-Based Approaches By William K. Lam rtf
Hardware Design Verification: Simulation and Formal Method-Based Approaches By William K. Lam Mobipocket
Hardware Design Verification: Simulation and Formal Method-Based Approaches By William K. Lam Kindle