Hardware World

This book constitutes the refereed proceedings of the International Conference on Architecture of Computing Systems, ARCS 2004, held in Augsburg, Germany, in March 2004. The 22 revised full papers presented together with the abstracts of two invited lectures were carefully reviewed and selected from 50 submissions. The papers are organized in topical sections on organic computing, peer-to-peer computing, reconfigurable hardware, hardware, wireless architectures and networking, and applications.

"Who are we to suppose we are capable of comprehending the world of which we are a part, and what is the world to suppose it can be understood by us, minuscule and insignificant spatiotemporal warps contained within it?" This provocative question opens Floyd Merrell's study of postmodernism and the thought of Charles Sanders Peirce, part of the author's ongoing effort to understand our contemporary cultural and intellectual environment. The specific focus in this interdisciplinary study is the modernism/postmodernism dichotomy and Peirce's precocious realization that the world does not lend itself to the simplistic binarism of modernist thought. In Merrell's examination of postmodern phenomena, the reader is taken through various facets of the cognitive sciences, philosophy of science, mathematics, and literary theory. Merrell's consideration of Peirce's complex and inadequately understood concept of the sign is enhanced through numerous charts and figures. Theories, hypotheses, and speculation in the physical sciences are then brought to bear on Peircean semiotics. The final chapter critiques the often undiscriminating acceptance of postmodern practices in today's academic world.

Virtual platforms are finding widespread use in both pre- and post-silicon computer software and system development. They reduce time to market, improve system quality, make development more efficient, and enable truly concurrent hardware/software design and bring-up. Virtual platforms increase productivity with unparalleled inspection, configuration, and injection capabilities. In combination with other types of simulators, they provide full-system simulations where computer systems can be tested together with the environment in which they operate. This book is not only about what simulation is and why it is important, it will also cover the methods of building and using simulators for computer-based systems. Inside you’ll find a comprehensive book about simulation best practice and design patterns, using Simics as its base along with real-life examples to get the most out of your Simics implementation. You’ll learn about: Simics architecture, model-driven development, virtual platform modelling, networking, contiguous integration, debugging, reverse execution, simulator integration, workflow optimization, tool automation, and much more. Distills decades of experience in using and building virtual platforms to help readers realize the full potential of virtual platform simulation Covers modeling related use-cases including devices, systems, extensions, and fault injection Explains how simulations can influence software development, debugging, system configuration, networking, and more Discusses how to build complete full-system simulation systems from a mix of simulators

This book investigates the characteristics of simple versus complex systems, and what the properties of a cyber-physical system design are that contribute to an effective implementation and make the system understandable, simple to use, and easy to maintain. The targeted audience is engineers, managers and advanced students who are involved in the design of cyber-physical systems and are willing to spend some time outside the silo of their daily work in order to widen their background and appreciation for the pervasive problems of system complexity. In the past, design of a process-control system (now called cyber-physical systems) was more of an art than an engineering endeavor. The software technology of that time was concerned primarily with functional correctness and did not pay much attention to the temporal dimension of program execution, which is as important as functional correctness when a physical process must be controlled. In the ensuing years, many problems in the design of cyber-physical systems were simplified. But with an increase in the functional requirements and system size, the complexity problems have appeared again in a different disguise. A sound understanding of the complexity problem requires some insight in cognition, human problem solving, psychology, and parts of philosophy. This book presents the essence of the author’s thinking about complexity, accumulated over the past forty years.