Written the way the material is taught, enabling a bottom-up approach to learning which culminates with a high-level of learning, with a solid foundation

Emphasizes examples from which students can learn: contains a solved example for nearly every section in the book

Includes more than 600 exercise problems, as well as concept check questions for each section, tied directly to specific learning outcomes

This fun guide shows how to get started with FPGA technology using the popular Mojo, Papilio One, and Elbert 2 boards. Written by electronics guru Simon Monk, Programming FPGAs: Getting Started with Verilog features clear explanations, easy-to-follow examples, and downloadable sample programs.

Provides readers with an overview and practical examples of OpenCL-based design methodologies for FPGA-based computing systems

Helps software engineers to understand systematically patterns of parallel processing and implement such patterns using OpenCL for FPGAs

Includes a variety of design examples of embedded applications such as image processing, and high-performance computing

All the design and development inspiration and direction a harware engineer needs in one blockbuster book! Clive "Max" Maxfield renowned author, columnist, and editor of PL DesignLine has selected the very best FPGA design material from the Newnes portfolio and has compiled it into this volume. The result is a book covering the gamut of FPGA design from design fundamentals to optimized layout techniques with a strong pragmatic emphasis. In addition to specific design techniques and practices, this book also discusses various approaches to solving FPGA design problems and how to successfully apply theory to actual design tasks.

This book provides the basic knowledge necessary to understand how to design and analyze basic digital logic systems and to know how to simulate these systems using hardware description languages. The systems here include digital logic circuits such as: adders, multiplexers, decoders, multipliers, flip-flops, latches, counters, sequential state machines, cache memories, and basic computers, simplified biological mechanisms that describe the operation of organs such as the kidney, mathematical models (e.g., factorial, greatest of N numbers, multiplication algorithms, polynomials), and artificial intelligence (e.g., artificial neural networks).