"Radioisotope Thin-Film Powered Microsystems" describes high energy density microbatteries required for compact long lifetime wireless sensor Microsystems. These microbatteries are presented alongside theories employing high energy density radioisotope thin films in actuating novel electromechanical energy converters. Also discussed are novel wireless sensor architectures that enable long lifetime wireless sensors Microsystems with minimal amounts of radioisotope fuel used. Ultra low-power beta radiation counting clocks are described in order to illustrate the application of radioisotope thin films in realizing the deployment of various components of Microsystems. "Radioisotope Thin-Film Powered Microsystems" also presents the latest work on 3D silicon electrovoltaic converters and energy density microbatteries required for high-power Microsystems.

NTMS 2007 was the first IFIP International Conference on New Technologies, Mobility and Security that was held from May 2 to May 4, 2007 in Paris, France. It was aimed at fostering advances in the areas such as New Technologies, Wireless Networks, Mobile Computing, Ad hoc and Ambient Networks, QoS, Network Security and E-commerce. It provided a dynamic forum for researchers, students and professionals to present their research and development in these areas.

Two-phase microchannel cooling is one of the most promising thermal-management technologies for future high-power IC chips. Understanding the boiling process and the two-phase-flow behavior in microchannels is the key to successful implementation of a microchannel heat sink. This book focuses on the phase-change phenomena and the heat transfer in sub-150 nm diameter silicon microchannels, with emphasis on thermal measurement and modeling, and the impact of small dimensions on two-phase flow regimes. Scientists and engineers tackling thermal and MEMS problems will find the discussion in this book inspiring for their future design of microscale heat transfer experiments. This book will also contribute to the study of two-phase microchannel flows by providing extensive experimental data which are otherwise difficult to access.

Hardware Design and Petri Nets presents a summary of the state of the art in the applications of Petri nets to designing digital systems and circuits. The area of hardware design has traditionally been a fertile field for research in concurrency and Petri nets. Many new ideas about modelling and analysis of concurrent systems, and Petri nets in particular, originated in theory of asynchronous digital circuits. Similarly, the theory and practice of digital circuit design have always recognized Petri nets as a powerful and easy-to-understand modelling tool. The ever-growing demand in the electronic industry for design automation to build various types of computer-based systems creates many opportunities for Petri nets to establish their role of a formal backbone in future tools for constructing systems that are increasingly becoming distributed, concurrent and asynchronous. Petri nets have already proved very effective in supporting algorithms for solving key problems in synthesis of hardware control circuits. However, since the front end to any realistic design flow in the future is likely to rely on more pragmatic Hardware Description Languages (HDLs), such as VHDL and Verilog, it is crucial that Petri nets are well interfaced to such languages. Hardware Design and Petri Nets is divided into five parts, which cover aspects of behavioral modelling, analysis and verification, synthesis from Petri nets and STGs, design environments based on high-level Petri nets and HDLs, and finally performance analysis using Petri nets. Hardware Design and Petri Nets serves as an excellent reference source and may be used as a text for advanced courses on the subject.

In the last few decades, multiscale algorithms have become a dominant trend in large-scale scientific computation. Researchers have successfully applied these methods to a wide range of simulation and optimization problems. This book gives a general overview of multiscale algorithms; applications to general combinatorial optimization problems such as graph partitioning and the traveling salesman problem; and VLSICAD applications, including circuit partitioning, placement, and VLSI routing. Additional chapters discuss optimization in reconfigurable computing, convergence in multilevel optimization, and model problems with PDE constraints.

Audience Written at the graduate level, the book is intended for engineers and mathematical and computational scientists studying large-scale optimization in electronic design automation.

This book comprises peer-reviewed contributions presented at the 5th International Conference on Electronics, Communications and Networks (CECNet 2015), held in Shanghai, China, 12-15 December, 2015. It includes new multi-disciplinary topics spanning a unique depth and breadth of cutting-edge research areas in Electronic Engineering, Communications and Networks, and Computer Technology. More generally, it is of interest to academics, students and professionals involved in Consumer Electronics Technology, Communication Engineering and Technology, Wireless Communication Systems and Technology, and Computer Engineering and Technology.

Within the last 10-13 years Binary Decision Diagrams (BDDs) have become the state-of-the-art data structure in VLSI CAD for representation and manipulation of Boolean functions. Today, BDDs are widely used and in the meantime have also been integrated in commercial tools, especially in the area of verification and synthesis. The interest in BDDs results from the fact that the data structure is generally accepted as providing a good compromise between conciseness of representation and efficiency of manipulation. With increasing numbers of applications, also in non-CAD areas, classical methods of handling BDDs are being improved and new questions and problems evolve and have to be solved. Binary Decision Diagrams: Theory and Implementation is intended both for newcomers to BDDs and for researchers and practitioners who need to implement them. Apart from giving a quick start for the reader who is not familiar with BDDs (or DDs in general), it also discusses several new aspects of BDDs, e.g. with respect to minimization and implementation of a package. It is an essential bookshelf item for any CAD designer or researcher working with BDDs.

Driven by applications such as telecommunications, computing and consumer/multimedia and facilitated by the progress in CMOS ULSI technology, the microelectronics IC market is characterized by an ever-increasing level of integration complexity. Today complete systems, that previously occupied one or more boards, are integrated on a few chips or even on one single multi-million transistor chip - a so called System-on-Chip (SoC). Although most functions in such integrated systems are implemented with digital or digital signal processing circuitry, the analog circuits needed at the interface between the electronic system and the continuous-valued outside world are also being integrated on the same die for reasons of cost and performance.

Unfortunately, the integration of both analog & RF circuits and digital circuits on the same die not only offers many benefits, but also creates some technical difficulties. Since the analog circuits exploit the low-level physics of the fabrication process, they remain difficult and costly to design, but they are also vulnerable to any kind of noise or crosstalk signals. The higher levels of integration (moving towards 100 million transistors per chip clocked at ever higher frequencies) make the mixed-signal signal integrity problem increasingly challenging. One of the most important problems is the parasitic supply and substrate noise coupling, caused by the fast switching of the digital circuitry that then propagates to the sensitive analog circuitry via the common substrate. It is therefore important to be able to predict the impact of digital switching noise on the analog circuit performance at the design stage of the integrated system, beforethe chip is taped out for fabrication, and to understand how this problem can be reduced.

The purpose of Substrate Noise Coupling in Mixed-Signal ASICs is to provide an overview of very recent research results in the field of substrate noise analysis and reduction techniques. Much of the reported work has been established as part of the Mixed-Signal Initiative of the European Union. It is a representative sampling of the current state of the art in this area. All the different aspects of the substrate noise coupling problem are covered. Some chapters describe techniques to model and reduce the digital switching noise injected in the substrate. Other chapters describe methods to analyse the propagation of the noise from the source (the digital circuitry) to the reception point (the embedded analog circuitry) through the substrate considered as a resistive/capacitive mesh. Finally, the remaining chapters describe techniques to model and especially to reduce the impact of substrate noise on the analog side. This is illustrated with several practical design examples and measurement results.

Information technology is the enabling foundation for all of human activity at the beginning of the 21st century, and advances in this area are crucial to all of us. These advances are taking place all over the world and can only be followed and perceived when researchers from all over the world assemble, and exchange their ideas in conferences such as the one presented in this proceedings volume regarding the 26th International Symposium on Computer and Information Systems, held at the Royal Society in London on 26th to 28th September 2011. Computer and Information Sciences II contains novel advances in the state of the art covering applied research in electrical and computer engineering and computer science, across the broad area of information technology. It provides access to the main innovative activities in research across the world, and points to the results obtained recently by some of the most active teams in both Europe and Asia.

This single source encyclopedic volume contains the answers to numerous complex shielding problems. It integrates basic concepts with hands-on techniques and practical recommendations on a broad range of EMC and shielding-related subjects: the role and significance of the shielding discipline, electromagnetic energy coupling and transfer mechanisms, shielding cables, enclosures, systems, sound shielding design, evaluation, measurement practices and other timely shielding topics. The handbook suggests original methods of cost-effective and optimal design selections and solutions to shielding systems and their elements. It spans all shielding levels: single chip, printed circuit board, cables and cable assemblies, whole products and systems - up to complex networks. This new handbook is based on more than 30 years of the author's experience in the electromagnetic shielding and EMC field. It significantly expands upon Cable Shield for Electromagnetic Compatibility - a previous book by the same author. A number of important new non-cable' topics are included, and a more general introduction to the subject is given, in addition to providing a wealth of detailed and useful material. It will be a resource for answers to numerous difficult shielding-related questions, as well as especially valuable to the EMI and EMC community at large. Professional engineers, researchers and students interested in electromagnetic interference, compatibility and its biological safety will find this handbook invaluable.

This book reports on advanced theories and methods in three related fields of research: applied physics, system science and computers. It is organized in two main parts, the first of which covers applied physics topics, including lasers and accelerators; condensed matter, soft matter and materials science; nanoscience and quantum engineering; atomic, molecular, optical and plasma physics; as well as nuclear and high-energy particle physics. It also addresses astrophysics, gravitation, earth and environmental science, as well as medical and biological physics. The second part focuses on advances in system science and computers, exploring automatic circuit control, power systems, computer communication, fluid mechanics, simulation and modeling, software engineering, data structures and applications of artificial intelligence among other areas. Offering a collection of contributions presented at the 1st International Conference on Applied Physics, System Science and Computers (APSAC 2016), the book bridges the gap between applied physics and electrical engineering. It not only to presents new methods, but also promotes collaborations between different communities working on related topics at the interface between physics and engineering, with a special focus on communication, data modeling and visualization, quantum information, applied mechanics as well as bio and geophysics.

This book provides the basics of odor, odor analysis techniques, sensors used in odor analysis and overview of odor measurement techniques. For beginners as well researchers this book is a brief guide for odor measurement and analysis. The book includes a special chapter dedicated to practical implementation of e-nose sensor devices with software utility, which guides students to prepare projects and work in practical analysis. It also includes material from early to latest technology research available in the market of e-nose era. Students and researchers who want to learn the basics of biomedical engineering and sensor measurement technology will find this book useful.

This volume is a brief, yet comprehensive account of new development, tools, techniques and solutions in the broadly perceived "intelligent systems". New concepts and ideas concern the development of effective and efficient models which would make it possible to effectively and efficiently describe and solve processes in various areas of science and technology. Special emphasis is on the dealing with uncertainty and imprecision that permeates virtually all real world processes and phenomena, and has to properly be modeled by formal and algorithmic tools and techniques so that they be adequate and useful. The papers in this volume concern a wide array of possible techniques exemplified by, on the one hand, logic, probabilistic, fuzzy, intuitionistic fuzzy, neuro-fuzzy, etc. approaches. On the other hand, they represent the use of such systems modeling tools as generalized nets, optimization and control models, systems analytic models, etc. They concerns a variety of approaches, from pattern recognition, image analysis, education system modeling, biological and medical systems modeling, etc.

This book describes a cross-domain architecture and design tools for networked complex systems where application subsystems of different criticality coexist and interact on networked multi-core chips. The architecture leverages multi-core platforms for a hierarchical system perspective of mixed-criticality applications. This system perspective is realized by virtualization to establish security, safety and real-time performance. The impact further includes a reduction of time-to-market, decreased development, deployment and maintenance cost, and the exploitation of the economies of scale through cross-domain components and tools. Describes an end-to-end architecture for hypervisor-level, chip-level, and cluster level. Offers a solution for different types of resources including processors, on-chip communication, off-chip communication, and I/O. Provides a cross-domain approach with examples for wind-power, health-care, and avionics. Introduces hierarchical adaptation strategies for mixed-criticality systems Provides modular verification and certification methods for the seamless integration of mixed-criticality systems. Covers platform technologies, along with a methodology for the development process. Presents an experimental evaluation of technological results in cooperation with industrial partners. The information in this book will be extremely useful to industry leaders who design and manufacture products with distributed embedded systems in mixed-criticality use-cases. It will also benefit suppliers of embedded components or development tools used in this area. As an educational tool, this material can be used to teach students and working professionals in areas including embedded systems, computer networks, system architecture, dependability, real-time systems, and avionics, wind-power and health-care systems.

Fieldwork for Design looks at why ethnographic approaches have been turned to in the design of computing devices for the workplace, for the home and elsewhere. It presents a history of ethnography, both as it was practiced before computer science picked it up and since, most especially in the CSCW and HCI domains. It examines, further, the various ethnographic or a ~fieldworka (TM) frameworks currently popular, explaining and examining what each claims and entails. The focus of the book throughout is on the practical relationship between theory and practice, a relationship that is often misunderstood yet fundamental to successful design.

The book is illustrated with real examples from the authorsa (TM) various experiences in academic and commercial settings, reporting on the use of ethnography before, during and after design innovation and implementation. The result is a book that provides the working knowledge necessary for using any kind of ethnographic approach in the design of computer technologies.

Written to provide an overview of the topic for researchers and graduates, as well as practitioners, this book will prove an invaluable resource for all in the field.

As an HCI researcher and practitioner, I am delighted to see, at last, a balanced view about the practice of ethnography within our field.

Gary Marsden, Associate Professor of HCI, University of Cape Town, South Africa

Dr Dave Randall is Senior Lecturer at Manchester Metropolitan University, UK

Professor Richard Harper is a Senior Researcher for Microsoft

Mark Rouncefield is a Senior Research Fellow at Lancaster University

ZigBee is a short-range wireless networking standard backed by such industry leaders as Motorola, Texas Instruments, Philips, Samsung, Siemens, Freescale, etc. It supports mesh networking, each node can transmit and receive data, offers high security and robustness, and is being rapidly adopted in industrial, control/monitoring, and medical applications. This book will explain the ZigBee protocol, discuss the design of ZigBee hardware, and describe how to design and implement ZigBee networks. The book has a dedicated website for the latest technical updates, ZigBee networking calculators, and additional materials. Dr. Farahani is a ZigBee system engineer for Freescale semiconductors Inc. The book comes with a dedicated website that contains additional resources and calculators: http: //www.learnZigBee.com

Table of Contents
Chapter 1: ZigBee Basics
Chapter 2: ZigBee / IEEE 802.15.4 Networking Examples
Chapter 3: ZigBee / IEEE 802.15.4 Protocol Layers
Chapter 4: Transceiver Requirements
Chapter 5: RF Propagation, Antennas, and Regulatory Requirements
Chapter 6: Battery Life Analysis
Chapter 7: Location Estimating Using ZigBee
Chapter 8: ZigBee Coexistence
Chapter 9: Related Technologies
Appendices
KEY FEATURES
* Provides a comprehensive overview of ZigBee technology and networking, from RF/physical layer considerations to application layer development.
* Discusses ZigBee security features such as encryption.
* Describes how ZigBee can be used in location detection applications.
* Explores techniques for ZigBee co-existence with other wireless technologies such as 802.11 and Bluetooth.
* The book comes with a dedicated website that contains additional resources and calculators: http: //www.learnZigBee.com"

The methodology described in this book is the result of many years of research experience in the field of synthesizable VHDL design targeting FPGA based platforms. VHDL was first conceived as a documentation language for ASIC designs. Afterwards, the language was used for the behavioral simulation of ASICs, and also as a design input for synthesis tools. VHDL is a rich language, but just a small subset of it can be used to write synthesizable code, from which a physical circuit can be obtained. Usually VHDL books describe both, synthesis and simulation aspects of the language, but in this book the reader is conducted just through the features acceptable by synthesis tools. The book introduces the subjects in a gradual and concise way, providing just enough information for the reader to develop their synthesizable digital systems in VHDL. The examples in the book were planned targeting an FPGA platform widely used around the world.

"Wireless is coming" was the message received by VLSI designers in the early 1990's. They believed it. But they never imagined that the wireless wave would be coming with such intensity and speed. Today one of the most challenging areas for VLSI designers is VLSI circuit and system design for wireless applications. New generation of wireless systems, which includes multimedia, put severe constraints on performance, cost, size, power and energy. The challenge is immense and the need for new generation of VLSI designers, who are fluent in wireless communication and are masters of mixed signal design, is great. No single text or reference book contains the necessary material to educate such needed new generation of VLSIdesigners. There are gaps. Excellent books exist on communication theory and systems, including wireless applications and others treat well basic digital, analog and mixed signal VLSI design. We feel that this book is the first of its kind to fill that gap. In the first half of this book we offer the reader (the VLSI designer) enough material to understand wireless communication systems. We start with a historical account. And then we present an overview of wireless communication systems. This is followed by detailed treatment of related topics; the mobile radio, digital modulation and schemes, spread spectrum and receiver architectures. The second half of the book deals with VLSI design issues related to mixed-signal design. These include analog-to-digital conversion, transceiver design, digital low-power techniques, amplifier design, phase locked loops and frequency synthesizers.

Design and Test of Integrated Inductors for RF Applications is the result of several years of research in the field of Radio-Frequency Integrated Circuit Design, specifically in the Inductor design for RF applications in conventional technologies.
One of the key elements today in the wireless industry, especially in the silicon RF integrated circuits field, is the design of high-quality passive elements. The performance of several basic circuit blocks such as low noise amplifiers, mixers and voltage controlled oscillators depends on the quality of these elements.
The work done establishes the design guidelines for the definition of the inductor's geometrical characteristics and new techniques to improve their quality. It also covers their measurement and characterisation. This fact is not always taken into account by the designers due to the lack of information in bibliography regarding to this topic. The novelty of this work lies in that it covers and studies the whole design flow of an inductor. From the definition and analysis of the physical effects that appear in them to their modelization, it covers issues such as the maximization of the quality by a correct definition of the geometry, novel aggressive design rules, a design flow for the definition of the inductor's geometry, selection of the measurement equipment, de-embedding, determination of the relation that exists between the measurement configuration and the circuit model used in the characterization, source of errors, etc.
Design and Test of Integrated Inductors for RF Applications is intended for engineers who are starting out in the design of integrated inductors, this due to the fact that it describes thewhole design flow, basic selection of the geometry, optimisation of the quality by redesigning the geometry, measurement and de-embedding and characterisation. Secondly it will help the designer with much experience in this field, this due to the fact that, based on empirical data, some design rules that have been widely used by the design community have been proved to be really conservative and breaking them leads up to higher quality designs.

Selected from papers presented at the 8th Scientific Computation in Electrical Engineering conference in Toulouse in 2010, the contributions to this volume cover every angle of numerically modelling electronic and electrical systems, including computational electromagnetics, circuit theory and simulation and device modelling.

On computational electromagnetics, the chapters examine cutting-edge material ranging from low-frequency electrical machine modelling problems to issues in high-frequency scattering. Regarding circuit theory and simulation, the book details the most advanced techniques for modelling networks with many thousands of components. Modelling devices at microscopic levels is covered by a number of fundamental mathematical physics papers, while numerous papers on model order reduction help engineers and systems designers to bring their modelling of industrial-scale systems within the reach of present-day computational power. Complementing these more specific papers, the volume also contains a selection of mathematical methods which can be used in any application domain.

"

Everyone is familiar with the amazing performance of a modern laptop, powered by more than a billion nanotransistors, each having an active region that is barely a few hundred atoms long.

These lectures, however, are about a less-appreciated by-product of the microelectronics revolution, namely the deeper understanding of current flow, energy exchange and device operation that it has enabled, which forms the basis for what we call the bottom-up approach.

The book assumes very little background beyond linear algebra and differential equations, and is intended to be accessible to anyone in any branch of science or engineering.

These lectures represent our attempt to make these lessons broadly accessible to those who are not experts in device physics or transport theory, and would like to keep it that way. At the same time, we hope the experts too will enjoy taking a fresh new look at their favorite subject, emphasizing fundamental insights of general validity.

This book considers signal processing and physical modeling meth ods for sound synthesis. Such methods are useful for example in mu sic synthesizers, computer sound cards, and computer games. Physical modeling synthesis has been commercialized for the first time about 10 years ago. Recently, it has been one of the most active research topics in musical acoustics and computer music. The authors of this book, Dr. Lutz Trautmann and Dr. Rudolf Rabenstein, are active researchers and inventors in the field of sound synthesis. Together they have developed a new synthesis technique, called the functional transformation method, which can be used for pro ducing musical sound in real time. Before this book, they have published over 20 papers on the topic in journals and conference proceedings. In this excellent textbook, the results are combined in a single volume. I believe that this will be considered an important step forward for the whole community."

In this revised and expanded edition, Howard E. Jordan explains-in a clear manner-the technology of energy efficient electric motors including motor losses, testing, and efficiency labeling. He also discusses how to calculate the return on investment for an energy efficient motor in addition to several other subjects related to effective motor applications. New chapters explore permanent magnet synchronous motors and transistor pulse-width-modulated inverters. Engineers, purchasing managers, and executives who make decisions on motor selection will find this an invaluable reference.