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Don't spend time reading about theory, components and old ham radios - that's history! Industry veteran, Louis Frenzel, gives you the real scoop on electronic product fundamentals as they are today. Rather than tearing electronics apart and looking at every little piece, the author takes a systems-level view. For example, you will not learn how to make a circuit but how a signal flows from one integrated circuit (IC) to the next and so on to the ultimate goal. This practical application-driven viewpoint and breadth of coverage is unprecedented. This book touches upon TV, audio, satteli
Electronic systems --- Design and construction --- Electronics --- Study and teaching. --- Electrical engineering --- Physical sciences --- Electronic systems: design.
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"This book provides innovative behavior models currently used for developing embedded systems, accentuating on graphical and visual notations"--Provided by publisher.
Programming --- Computer architecture. Operating systems --- embedded systems --- Embedded computer systems --- Mathematical models --- System design --- Design, System --- Systems design --- Electronic data processing --- System analysis --- Models, Mathematical --- Simulation methods --- Embedded systems (Computer systems) --- Computer systems --- Architecture Analysis and Design Language
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Faced with the steadily increasing complexity and rapidly shortening time-to-market requirements designing electronic systems is a very challenging task. To manage this situation effectively the level of abstraction in modeling has been raised during the past years in the computer aided design community. Meanwhile, for the so-called system-level design the system description language SystemC has become the de facto standard. However, while modeling from abstract to synthesizable descriptions in combination with specification concepts like Transaction Level Modeling (TLM) leads to very good results, the verification quality is poor. The two main reasons are that (1) the existing SystemC verification techniques do not escort the different abstraction levels effectively and (2) in particular the resulting quality in terms of the covered functionality is only checked manually. Hence, due to the increasing design complexity the number of undetected errors is growing rapidly. Therefore a quality-driven design and verification flow for digital systems is developed and presented in Quality-Driven SystemC Design. Two major enhancements characterize the new flow: First, dedicated verification techniques are integrated which target the different levels of abstraction. Second, each verification technique is complemented by an approach to measure the achieved verification quality. The new flow distinguishes three levels of abstraction (namely system level, top level and block level) and can be incorporated in existing approaches. After reviewing the preliminary concepts, in the following chapters the three levels for modeling and verification are considered in detail. At each level the verification quality is measured. In summary, following the new design and verification flow a high overall quality results.
C (Computer program language). --- System design. --- System design --- C (Computer program language) --- Computer Science --- Electrical Engineering --- Electrical & Computer Engineering --- Engineering & Applied Sciences --- Design, System --- Systems design --- Engineering. --- Microprocessors. --- Software engineering. --- Electronic circuits. --- Circuits and Systems. --- Software Engineering/Programming and Operating Systems. --- Register-Transfer-Level Implementation. --- Electronic data processing --- System analysis
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This volume presents papers from the fourth biennial Information Systems Foundation Workshop, held at The Australian National University in Canberra from 2-3 October, 2008.
Information technology industries --- Management information systems --- Information resources management --- System design --- Information resources management. --- Management information systems. --- System design. --- Design, System --- Systems design --- Electronic data processing --- System analysis --- Computer-based information systems --- EIS (Information systems) --- Executive information systems --- MIS (Information systems) --- Information storage and retrieval systems --- Management --- Corporations --- Information resource management --- Information systems management --- IRM (Information resources management) --- Communication systems --- Sociotechnical systems
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Human-computer interaction --- Interactive computer systems --- User interfaces (Computer systems) --- Design --- Interfaces, User (Computer systems) --- Human-machine systems --- Computer systems --- Online data processing --- Computer-human interaction --- Human factors in computing systems --- Interaction, Human-computer --- Human engineering --- User-centered system design --- Interactive computer systems - Design
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This paper presents evidence of the importance of electronics global value chains (GVCs) in the global economy, and discusses the effects of the recent economic crisis on the industry. The analysis focuses on how information is exchanged and introduces the concept of "value chain modularity." The authors identify three key firm level actors - lead firms, contract manufacturers, and platform leaders - and discuss their development, or "co-evolution" in the context of global integration. Company, cluster, and country case studies are then presented to illustrate how supplier capabilities in various places have developed in the context of electronics global value chains. The findings identify some of the persistent limits to upgrading experienced by even the most successful firms in the developing world. Four models used by developing country firms to overcome these limitations are presented: (1) global expansion though acquisition of declining brands (emerging multinationals); (2) separation of branded product divisions from contract manufacturing (original design manufacturing (ODM) spinoffs); (3) successful mixing of contract manufacturing and branded products (platform brands) for contractors with customers not in the electronic hardware business; and (4) the founding of factory-less product firms that rely on global value chains for a range of inputs, including production (emerging factory-less start-ups).
Accessories --- Automotive --- Basic --- Codes --- Components --- Computer systems --- Computers --- Data processing --- E-Business --- Electronics --- Electronics industry --- Finance and Financial Sector Development --- Hardware --- Industry --- Information services --- Information technologies --- Information technology --- Macroeconomics and Economic Growth --- Markets and Market Access --- Microfinance --- Outsourcing --- Printed circuit boards --- Private Sector Development --- Publishing --- Semiconductors --- Systems design --- Technology Industry --- Telecommunications --- Water and Industry --- Water Resources
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This paper presents evidence of the importance of electronics global value chains (GVCs) in the global economy, and discusses the effects of the recent economic crisis on the industry. The analysis focuses on how information is exchanged and introduces the concept of "value chain modularity." The authors identify three key firm level actors - lead firms, contract manufacturers, and platform leaders - and discuss their development, or "co-evolution" in the context of global integration. Company, cluster, and country case studies are then presented to illustrate how supplier capabilities in various places have developed in the context of electronics global value chains. The findings identify some of the persistent limits to upgrading experienced by even the most successful firms in the developing world. Four models used by developing country firms to overcome these limitations are presented: (1) global expansion though acquisition of declining brands (emerging multinationals); (2) separation of branded product divisions from contract manufacturing (original design manufacturing (ODM) spinoffs); (3) successful mixing of contract manufacturing and branded products (platform brands) for contractors with customers not in the electronic hardware business; and (4) the founding of factory-less product firms that rely on global value chains for a range of inputs, including production (emerging factory-less start-ups).
Accessories --- Automotive --- Basic --- Codes --- Components --- Computer systems --- Computers --- Data processing --- E-Business --- Electronics --- Electronics industry --- Finance and Financial Sector Development --- Hardware --- Industry --- Information services --- Information technologies --- Information technology --- Macroeconomics and Economic Growth --- Markets and Market Access --- Microfinance --- Outsourcing --- Printed circuit boards --- Private Sector Development --- Publishing --- Semiconductors --- Systems design --- Technology Industry --- Telecommunications --- Water and Industry --- Water Resources
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It is impossible to control another person’s motivation. But much of the instructor’s job involves stimulating learner motivation, and learning environments should ideally be designed toward this goal. Motivational Design for Learning and Performance introduces readers to the core concepts of motivation and motivational design and applies this knowledge to the design process in a systematic step-by-step format. The ARCS model—theoretically robust, rooted in best practices, and adaptable to a variety of practical uses—forms the basis of this problem-solving approach. Separate chapters cover each component of the model—attention, relevance, confidence, and satisfaction—and offer strategies for promoting each one in learners. From there, the motivational design process is explained in detail, supplemented by real-world examples and ready-to-use worksheets. The methods are applied to traditional and alternative settings, including gifted classes, elementary grades, self-directed learning, and corporate training. And the book is geared toward the non-specialist reader, making it accessible to those without a psychology or teaching background. With this guide, the reader learns how to: Identify motivation problems and goals Decide whether the environment or the learners need changing Generate attention, relevance, confidence, and satisfaction in learners Integrate motivational design and instructional design Select, develop, and evaluate motivational materials Plus a wealth of tables, worksheets, measures, and other valuable tools aid in the design process Comprehensive and enlightening, Motivational Design for Learning and Performance furnishes an eminently practical body of knowledge to researchers and professionals in performance technology and instructional design as well as educational psychologists, teachers and trainers.
Instructional systems -- Design. --- Learning, Psychology of. --- Motivation (Psychology). --- Motivation in education. --- Instructional systems --- Motivation (Psychology) --- Motivation in education --- Learning, Psychology of --- Education --- Theory & Practice of Education --- Social Sciences --- Design --- Psychology. --- Behavioral sciences --- Mental philosophy --- Mind --- Science, Mental --- Academic motivation --- Education. --- Educational psychology. --- Educational Psychology. --- Learning & Instruction. --- Human biology --- Philosophy --- Soul --- Mental health --- Academic achievement --- Psychology, Educational --- Psychology --- Child psychology --- Education—Psychology. --- Learning. --- Instruction. --- Learning process --- Comprehension
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A Practical Introduction to Hardware/Software Codesign addresses the problem of combining software and hardware in a single system design process - such problems can be solved with hardware/software codesign. When used properly, hardware/software codesign improves the overall performance of digital systems, and it can shorten design time. The book covers four topics in hardware/software codesign: fundamentals, the design space of custom architectures, the hardware/software interface and application examples. The book comes with an associated design environment that helps the reader to perform experiments in hardware/software codesign. Each chapter also comes with exercises and further reading suggestions. A Practical Introduction to Hardware/Software Codesign is a great resource for engineers and students.
Engineering. --- Circuits and Systems. --- Computer-Aided Engineering (CAD, CAE) and Design. --- Software Engineering/Programming and Operating Systems. --- Software engineering. --- Computer aided design. --- Systems engineering. --- Ingénierie --- Génie logiciel --- Conception assistée par ordinateur --- Ingénierie des systèmes --- 681.3*D2 --- 681.3*B --- Software engineering: protection mechanisms; standards--See also {681.3*K63}; {681.3*K51} --- Hardware --- System design. --- 681.3*B Hardware --- 681.3*D2 Software engineering: protection mechanisms; standards--See also {681.3*K63}; {681.3*K51} --- System design --- Systems engineering --- Engineering systems --- System engineering --- Engineering --- Industrial engineering --- System analysis --- Design, System --- Systems design --- Electronic data processing --- Design and construction
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VHDL (Computer hardware description language) --- Electronic circuit design. --- System design. --- VHDL (Langage de description de matériel informatique) --- Circuits électroniques --- Systèmes, Conception de --- Calcul --- VHDL --- schakelingen --- Electronic circuit design --- System design --- Design, System --- Systems design --- Electronic data processing --- System analysis --- Electronic circuits --- Very High Speed Integrated Circuits Hardware Description Language (Computer hardware description language) --- VHSIC Hardware Description Language (Computer hardware description language) --- Computer hardware description languages --- Integrated circuits --- Design --- Computer simulation --- VHDL (Computer hardware description language). --- VHDL (Langage de description de matériel informatique) --- Circuits électroniques --- Systèmes, Conception de
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