What's this AOP thing anyway, really-when you get right down to it-and can someone please explain what an aspect actually is?
Aspect-Oriented Programming with the e Verification Language takes a pragmatic, example based, and fun approach to unraveling the mysteries of AOP. In this book, you'll learn how to:
- Use AOP to organize your code in a way that makes it easy to deal with the things you really care about in your verification environments. Forget about organizing by classes, and start organizing by functionality, layers, components, protocols, functional coverage, checking, or anything that you decide is important to you
- Easily create flexible code that eases your development burden, and gives your users the power to quickly do what they need to do with your code
- Truly create a plug-and-play environment that allows you to add and remove functionality without modifying your code. Examples include how to use AOP to create pluggable debug modules, and a pluggable module that lets you check that your testbench is still working before you begin a regression
- Utilize AOP to sidestep those productivity roadblocks that seem to plague all projects at the most inconvenient of times
- Discover why "return" is evil, and some other "gotchas" with the AOP features of e
All of the methodologies, tips, and techniques described in this book have been developed and tested on real projects, with real people, real schedules and all of the associated problems that come with these. Only the ones that worked, and worked well, have made it in, so by following the advice given in this book, you'll gain access to the true power of AOP while neatly avoiding the effort of workingit all out yourself.
- Use AOP to organize your code in a way that makes it easy to deal with the things you really care about in your verification environments. Forget about organizing by classes, and start organizing by functionality, layers, components, protocols, functional coverage, checking, or anything that you decide is important to you
- Easily create flexible code that eases your development burden, and gives your users the power to quickly do what they need to do with your code
- Truly create a plug-and-play environment that allows you to add and remove functionality without modifying your code. Examples include how to use AOP to create pluggable debug modules, and a pluggable module that lets you check that your testbench is still working before you begin a regression
- Utilize AOP to sidestep those productivity roadblocks that seem to plague all projects at the most inconvenient of times
- Discover why "return" is evil, and some other "gotchas" with the AOP features of e

The past few years have seen significant change in the landscape of high-end network processing. In response to the formidable challenges facing this emerging field, the editors of this series set out to survey the latest research and practices in the design, programming, and use of network processors.
Through chapters on hardware, software, performance and modeling, Volume 3 illustrates the potential for new NP applications, helping to lay a theoretical foundation for the architecture, evaluation, and programming of networking processors.
Like Volume 2 of the series, Volume 3 further shifts the focus from achieving higher levels of packet processing performance to addressing other critical factors such as ease of programming, application developments, power, and performance prediction. In addition, Volume 3 emphasizes forward-looking, leading-edge research in the areas of architecture, tools and techniques, and applications such as high-speed intrusion detection and prevention system design, and the implementation of new interconnect standards.
*Investigates current applications of network processor technology at Intel; Infineon Technologies; and NetModule.
Presents current research in network processor design in three distinct areas:
*Architecture at Washington University, St. Louis; Oregon Health and Science University; University of Georgia; and North Carolina State University.
*Tools and Techniques at University of Texas, Austin; Academy of Sciences, China; University of Paderborn, Germany; and University of Massachusetts, Amherst.
*Applications at University of California, Berkeley; Universidad Complutense de Madrid, Spain; ETH Zurich, Switzerland; Georgia Institute of Technology; Vrije Universiteit, the Netherlands; and Universiteit Leiden, the Netherlands.

Richard Munden demonstrates how to create and use simulation models for verifying ASIC and FPGA designs and board-level designs that use off-the-shelf digital components. Based on the VHDL/VITAL standard, these models include timing constraints and propagation delays that are required for accurate verification of today s digital designs.
ASIC and FPGA Verification: A Guide to Component Modeling expertly illustrates how ASICs and FPGAs can be verified in the larger context of a board or a system. It is a valuable resource for any designer who simulates multi-chip digital designs.
*Provides numerous models and a clearly defined methodology for performing board-level simulation.
*Covers the details of modeling for verification of both logic and timing.
*First book to collect and teach techniques for using VHDL to model "off-the-shelf" or "IP" digital components for use in FPGA and board-level design verification.

With VLSI chip transistors getting smaller and smaller, today's digital systems are more complex than ever before. This increased complexity leads to more cross-talk, noise, and other sources of transient errors during normal operation. Traditional off-line testing strategies cannot guarantee detection of these transient faults. And with critical applications relying on faster, more powerful chips, fault-tolerant, self-checking mechanisms must be built in to assure reliable operation.

"Self-Checking and Fault-Tolerant Digital Design" deals extensively with self-checking design techniques and is the only book that emphasizes major techniques for hardware fault tolerance. Graduate students in VLSI design courses as well as practicing designers will appreciate this balanced treatment of the concepts and theory underlying fault tolerance along with the practical techniques used to create fault-tolerant systems.
* Introduces reliability theory and the importance of maintainability
* Presents coding and the construction of several error detecting and correcting codes
* Discusses in depth, the available techniques for fail-safe design of combinational circuits
* Details checker design techniques for detecting erroneous bits and encoding output of self-checking circuits
* Demonstrates how to design self-checking sequential circuits, including a technique for fail-safe state machine design

"Physically-Based Modeling for Computer Graphics: A Structured Approach" addresses the challenge of designing and managing the complexity of physically-based models. This book will be of interest to researchers, computer graphics practitioners, mathematicians, engineers, animators, software developers and those interested in computer implementation and simulation of mathematical models.
* Presents a philosophy and terminology for "Structured Modeling"
* Includes mathematicl and programming techniques to support and implement the methodology
* Covers a library of model components, including rigid-body kinematics, rigid-body dynamics, and force-based constraint methods
* Includes illustrations of several ample models created from these components
* Foreword by Al Barr

This is a practical perspective on simulation aimed at working scientists and engineers. Amply illustrated, the book provides many examples with computer coding. New topics, such as animation, concept modeling, and logic transfer are covered in detail.

This practical handbook provides a broad overview of the major elements of pattern recognition and image processing (PRIP). Currently the only handbook in the field, it is designed as a source of "quick answers" for those interested in the theoretical development and practical applications of PRIP techniques.
Twenty years of research, development, and innovations in applications are documented in this comprehensive work. Written by leading researchers in the field, chapters deal with
statistical and syntactic pattern recognition
feature selection and extraction
cluster analysis
image enhancement and restoration
shapes, texture, and motion
computer vision
computer systems and architectures for image processing and various industrial and biomedical applications.
Engineers, computer scientists, other professionals, and students interested in applying PRIP techniques will find the Handbook of Pattern Recognition and Image Processing to be an invaluable reference source.

"The Student's Guide to VHDL" is a condensed edition of "The Designer's Guide to VHDL, " the most widely used textbook on VHDL for digital system modeling. "The Student's Guide" is targeted as a supplemental reference book for computer organization and digital design courses.
Since publication of the first edition of "The Student's Guide, " the IEEE VHDL and related standards have been revised. The "Designer's Guide" has been revised to reflect the changes, so it is appropriate that "The Student's Guide" also be revised.
"In The Student's Guide to VHDL, 2nd Edition, " we have included a design case study illustrating an FPGA-based design flow. The aim is to show how VHDL modeling fits into a design flow, starting from high-level design and proceeding through detailed design and verification, synthesis, FPGA place and route, and final timing verification. Inclusion of the case study helps to better serve the educational market. Currently, most college courses do not formally address the details of design flow. Students may be given informal guidance on how to proceed with lab projects. In many cases, it is left to students to work it out for themselves. The case study in "The Student's Guide" provides a reference design flow that can be adapted to a variety of lab projects.