Product Description
From the Author's PrefaceThe rapid advances in Materials Science and Engineering . . . have convinced many that the design, production and use of advanced materials will shape future manufacturing industries. Competitive advantage within entire industries is shaped by the quality of the materials available to the manufacturers; the early availability of a new material can be leveraged manyfold. In addition, advanced materials or advanced materials processing can signal the birth or death of entire industries, and access to higher quality and lower cost material has permitted some countries to obtain market dominance in several key industries. Much of the new strategy entails harnessing the potential of innovative technology, that is, going back to the nano and molecular states of materials and new, effective ways to create, process, and eventually use them. Rather than being concerned with a relatively small number of generic materials, each possessing a broad range of uses, the materials sector is increasingly concerned with tailoring a growing list of ever more specialized materials for narrow niche applications. New products with better growth prospects such as high-performance alloys, composites, laminates, and a variety of coatings have been emphasized. Materials firms also have sought ways to overcome the weaknesses of ceramics and fully exploit their formidable strengths. "Functional materials" that do more than support structures have been developed for use in sophisticated electronic, optical, magnetic, and biotech applications. This book will . . . show what materials will be available in the next decade or two, in addition to those currently available and their effect on material design, start-up, and production processes. ... Read more

Product Description

This is the first book worldwide about extrusion in ceramics to cover the complete subject. For the first time, readers find the principles of extrusion of ceramics, the history of extrusion in the ceramic industry, rheology of ceramic bodies, simulation for ceramic extrusion, wear and contamination in extrusion, additives for extrusion and more in 20 chapters, each chapter written by well known experts. Extrusion in Ceramics is written for advanced students in Material Sciences as well as for scientists, for experienced managers in the ceramic industry, as well as for newcomers who want to broaden their knowledge about the possibilities of this technology . The essential literature is cited for each chapter as well as for the whole field. Extrusion in Ceramics is a must for everybody who is involved in the extrusion of structural ceramics like bricks and tiles as well as in the extrusion of honeycombs and catalysts in advanced ceramics.

Customer Reviews (1)

A great disappointment
The claims to cover "the principles of extrusion of ceramics", "rheology of ceramic bodies", and "additives for extrusion" among other subjects.The coverage is superficial, selects a few isolated topics and is of little use to an engineer or scientist.The book lacks an overall connecting narrative or underlying theoretical framework.Some of the contributors have published far more useful material elsewhere.I have worked in ceramic extrusion for 15 years and this is one of the least helpful books on the subject that I have ever seen. ... Read more

Product Description
First how-to handbook to cover the nuts and bolts of starting and running a successful SMT operation. Shows step-by-step how to set up and operate any SMT procedure. DLC: Printed circuits Design and construction. ... Read more

Product Description

Fiber Reinforced Plastics (FRP) are widely used for the design of load-bearing structures. Life time prediction based on failure analysis is therefore essential for many applications in Aeronautics, Automotive and Civil Engineering. Analysis of Failure in Fiber Polymer Laminates presents Alfred Puck´s failure model, which, among several other theories, predicts fracture limits best and describes the failure phenomena in FRP most realistically – as confirmed within the “World-wide Failure Exercise”. Using Puck´s model the composite engineer can follow the gradual failure process in a laminate and deduce from the results of the analysis how to improve the laminate design. This capability distinguishes the model from other phenomenological and global models. It thus reduces the number of required component tests and iteration loops in the design process and paves the way to sorely needed software for crash-simulation of FRP-structures.