Fundamentals of modern manufacturing: materials, processes, and systems

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Wiley, 2002 - Technology & Engineering - 1008 pages
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Most introductory books on manufacturing processes focus almost exclusively on metals. Although metals are certainly important, ceramics, polymers, composites, and silicon are increasingly important as engineering and manufacturing materials today. The second edition of Fundamentals of Modern Manufacturing provides a comprehensively treatment of these other materials and their processing, without sacrificing its solid coverage of metals and metal processing. In addition, new chapters have been included on Rapid Prototyping and Microfabrication. And new sections have been added on a variety of other topics, including High Speed Machining and Nanofabrication. Other features of Fundamentals of Modern Manufacturing Materials, Processes, and Systems include: Emphasis on how material properties relate to the process variables in a given process. Emphasis on manufacturing science and quantitative engineering analysis of manufacturing processes. More than 500 quantitative problems are included as end of chapter exercises. Multiple choice quizzes in all but one chapter (approximately 500 questions). Coverage of electronics manufacturing, one of the most commercially important areas in today's technology oriented economy. Historical notes are included to introduce manufacturing from the earliest materials and processes, like woodworking, to the most recent.

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User Review  - all4metals - LibraryThing

I love this book for manufacturing. Kalpakjian is the standard, but the recent additions have been dumbed down. Groover does an excellent job of cover almost every manufacturing process and some of ... Read full review

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User Review  - safina1 - LibraryThing

this is a good book Read full review

Contents

INTRODUCTION
2
Material Properties and Product Attributes
24
MECHANICAL PROPERTIES
39
Copyright

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Common terms and phrases

abrasive alloys aluminum aluminum oxide angle annealing applications arc welding assembly austenite blow molding bonding boron nitride brazing carbide carbon carbon steel cast iron casting cavity centrifugal casting ceramics cermets chemical chemical vapor deposition chip chromium coating coefficient of friction components composite composite material copper cutting fluid cutting speed cutting tool deformation diameter drill ductility Elastic modulus elastomers electric discharge machining electrical electrical resistance electrode electronic electroplating engineering epoxy extrusion fabrication feed fibers filler metal flow flow stress forging friction geometry glass grinding grinding wheel heat heat treatment high-speed steel hole However illustrated in Figure industrial robot injection molding integrated circuits ion implantation layer leadscrew lithography machine tool machining magnesium manufacturing martensite material mechanical melting melting point metal methods milling milling cutter milling machine Modulus of elasticity mold processes molten operation oxide oxyfuel welding phase diagram phenolic photolithography photoresist physical vapor deposition plastic plate polyester polyethylene polymer polystyrene polyurethane powder metallurgy powders printed circuit board production properties pultrusion rake angle rapid prototyping resistance resistance welding rolling rotating rotational molding rubber sand casting Section shape shear shear strength shear stress sheet sheet metal silicon silicon carbide silicon dioxide sintering soldering Specific gravity spot welding steel stereolithography strain hardening strength stress stress-strain curve superalloys surface temperature tensile tensile strength tensile stresses thermal thermal conductivity thermoforming thermoplastic thermosetting thickness tion titanium tool steel tungsten carbide types typical viscoelastic viscosity wave soldering welding wheel workpart yield strength zinc

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About the author (2002)

Mikell P. Groover is Professor of Industrial and Manufacturing Systems Engineering and Director of the George E. Kane Manufacturing Technology Laboratory at Lehigh University. His industrial experience includes several years as a manufacturing engineer with Eastman Kodak and extensive consulting, research, and project work. His technical articles and papers have been widely published in trade journals, and his six previous books on manufacturing are use throughout the world. The first edition of Fundamentals of Modern Manufacturing received the 1996 IIE Joint Publishers Award and the 1996 M. Eugene Merchant Manufacturing Textbook Award from the Society of Manufacturing Engineers.

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