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Flexible manufacturing systems --- Industrial design --- Modularity (Engineering) --- Product design
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Design reuse techniques have become the subject of books, conferences, and podium discussions over the last few years. However, most discussions focus on higher-level abstraction like RTL descriptions, which can be synthesized. Design reuse is often seen as an add-on to normal design activity, or a special design task that is not an integrated part of the existing design flow. This may all be true for the ASIC world, but not for high-speed, high-performance microprocessors. In the field of high-speed microprocessors, design reuse is an integrated part of the design flow. The method of choice in this demanding field was, and is always, physical design reuse at the layout level. In the past, the practical implementations of this method were linear shrinks and the lambda approach. With the scaling of process technology down to 0.18 micron and below, this approach lost steam and became inefficient. The only viable solution is a method, which is now called Automatic Layout Modification (ALM). It combines compaction, mask manipulation, and correction with powerful capabilities. Automatic Layout Modification, Including design reuse of the Alpha CPU in 0.13 micron SOI technology is a welcome effort to improving some of the practices in chip design today.
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Features of the Third Edition: UP TO DATE STATE OF THE ART REUSE AS A SOLUTION FOR CIRCUIT DESIGNERS A CHRONICLE OF "BEST PRACTICES" ALL CHAPTERS UPDATED AND REVISED GENERIC GUIDELINES-NON TOOL SPECIFIC EMPHASIS ON HARD IP AND PHYSICAL DESIGN Reuse Methodology Manual for System-on-a-Chip Designs, Third Edition outlines a set of best practices for creating reusable designs for use in a SoC design methodology. These practices are based on the authors' experience in developing reusable designs, as well as the experience of design teams in many companies around the world. Silicon and tool technologies move so quickly that many of the details of design-for-reuse will undoubtedly continue to evolve over time. But the fundamental aspects of the methodology described in this book have become widely adopted and are likely to form the foundation of chip design for some time to come. Development methodology necessarily differs between system designers and processor designers, as well as between DSP developers and chipset developers. However, there is a common set of problems facing everyone who is designing complex chips. In response to these problems, design teams have adopted a block-based design approach that emphasizes design reuse. Reusing macros (sometimes called "cores") that have already been designed and verified helps to address all of the problems above. However, in adopting reuse-based design, design teams have run into a significant problem. Reusing blocks that have not been explicitly designed for reuse has often provided little or no benefit to the team. The effort to integrate a pre-existing block into new designs can become prohibitively high, if the block does not provide the right views, the right documentation, and the right functionality. From this experience, design teams have realized that reuse-based design requires an explicit methodology for developing reusable macros that are easy to integrate into SoC designs. This manual focuses on describing these techniques.
Application-specific integrated circuits --- Systems on a chip --- Modularity (Engineering) --- Circuits intégrés à la demande --- Systèmes sur une puce --- Conception modulaire (Ingénierie) --- Design and construction --- Conception et construction --- Application specific integrated circuits. --- Computer aided design. --- Computer engineering. --- Computer hardware. --- Engineering. --- Modularity (Engineering). --- Systems engineering. --- Application specific integrated circuits --- Electrical & Computer Engineering --- Engineering & Applied Sciences --- Electrical Engineering --- Systems on a chip. --- Design and construction. --- Computer-aided engineering. --- Electrical engineering. --- Electronic circuits. --- Circuits and Systems. --- Computer-Aided Engineering (CAD, CAE) and Design. --- Electrical Engineering. --- Computer Hardware. --- Electric engineering --- Engineering --- CAE --- Electron-tube circuits --- Electric circuits --- Electron tubes --- Electronics --- Data processing
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