This book provides a hands-on, application-oriented guide to the entire IEEE standard 1800 SystemVerilog language. Readers will benefit from the step-by-step approach to learning the language and methodology nuances, which will enable them to design and verify complex ASIC/SoC and CPU chips. The author covers the entire spectrum of the language, including random constraints, SystemVerilog Assertions, Functional Coverage, Class, checkers, interfaces, and Data Types, among other features of the language. Written by an experienced, professional end-user of ASIC/SoC/CPU and FPGA designs, this book explains each concept with easy to understand examples, simulation logs and applications derived from real projects. Readers will be empowered to tackle the complex task of multi-million gate ASIC designs.

This book presents a set of low-cost physics experiments, making use of the new technologies available (data collection and analysis systems by computers, Internet, video, commercial electronics, smartphones, etc.), while highlighting the methodological aspects of physics and science in general. The projects are aimed at university students of science and engineering, although some may be used in high schools. The experiments would enable students to answer the questions: How do we know this? Why do we believe in that? These questions illustrate the nature of scientific thinking process. This book is complemented by the site www.fisicarecreativa.com, where several of the projects presented here were carried out by students from different universities. We hope it can be used as an innovative STEM learning tools.

Nathaniel Kleitman and his research student make their way down the seventy-one steps leading to the mouth of Mammoth Cave. They are about to embark on one of the most intrepid and bizarre experiments in medical history, one which will change our understanding of sleep forever. Undisturbed by natural light, they will investigate what happens when you overturn one of the fundamental rhythms of the human body. Together, they enter the darkness. When Kleitman first arrived in New York, a penniless twenty-year-old refugee, few would have guessed that in just a few decades he would revolutionise the field of sleep science. In Mapping the Darkness, Kenneth Miller weaves science and history to tell the story of the outsider scientists who took sleep science from the fringes to a mainstream obsession. Reliving the spectacular experiments, technological innovation, imaginative leaps and single-minded commitment of these early pioneers, Miller provides a tantalising glimpse into the most mysterious third of our lives.

This book is valuable for laboratory developers, researchers and teachers who would like to recreate a similar suite of experiments for students and early career researchers. These experiments enliven theoretical descriptions of key ideas from quantum information and quantum computing, providing accessible means to generate, manipulate and measure quantum states, and understand their implications for the foundations of quantum mechanics. This new edition features additional experiments related to quantum entanglement and non-local quantum erasure and has restructured previous descriptions. Data processing in an open-source language is described. The appendix on programming FGPAs is considerably enhanced.

This book introduces the reader to FPGA based design for RTL synthesis. It describes simple to complex RTL design scenarios using SystemVerilog. The book builds the story from basic fundamentals of FPGA based designs to advance RTL design and verification concepts using SystemVerilog. It provides practical information on the issues in the RTL design and verification and how to overcome these. It focuses on writing efficient RTL codes using SystemVerilog, covers design for the Xilinx FPGAs and also includes implementable code examples. The contents of this book cover improvement of design performance, assertion based verification, verification planning, and architecture and system testing using FPGAs. The book can be used for classroom teaching or as a supplement in lab work for undergraduate and graduate coursework as well as for professional development and training programs. It will also be of interest to researchers and professionals interested in the RTL design for FPGA and ASIC.

In this groundbreaking new approach to the evolution of all life, Richard Dawkins shows how the body, behaviour, and genes of every living creature can be read as a book – an archive of the worlds of its ancestors. A perfectly camouflaged desert lizard has a desiccated landscape of sand and stones 'painted' on its back. Its skin can be read as a description of ancient deserts in which its ancestors survived – and, before that, of the worlds of its more remote ancestors: a genetic book of the dead. But such descriptions are more than skin-deep. The fine chisels of Darwinian natural selection carve their way through the very warp and woof of the body, into every biochemical nook and corner, into every cell of every living creature. A zoologist of the future, presented with a hitherto-unknown animal, will be able to reconstruct the worlds that shaped its ancestors, to read its unique 'book of the dead'. The book is filled with fascinating examples of the power of Darwinian natural selection to build exquisite perfection, paradoxically accompanied by what look like gross blunders. Along the way, Dawkins dismantles influential criticisms of the 'gene's-eye-view' of life. And, to end with a provocative sting in the tail, the author asks there is a sense in which all our 'own' genes can be seen as a gigantic colony of cooperating viruses? From the author of The Selfish Gene and The Ancestor's Tale comes a revolutionary, richly illustrated book that unlocks the door to an ancient past, seen through wholly new eyes.