Discussing every aspect of the fabrication, properties, and use of metal-filled polymers, this unique single-source reference covers the full range of current and potential applications -- from the insulation to the conduction level. Metal-Filled Polymers describes the most recent experimentation in determining the shielding effectiveness of plastics filled with metal ... compares the advantages of metal fillers over conventional nonmetallic fillers ... delineates the concept of interphase (which has recently found importance in predicting the mechanism of crack growth) ... and shows how the geometry and orientation of filler particles affect conduction, strength, and stiffness under various loading conditions. In addition, the book explains how the filler interacts with the matrix to improve composite properties ... and details the theoretical development of both mechanical and thermal properties. Encompassing the entire literature on their respective topics, contributions by eminent researchers focus on the very latest state-of-the-art data and relate findings directly to practical uses in current technology. Metal-Filled Polymers will prove a vital reference for plastics, materials, process, chemical, design, and mechanical engineers and managers in the plastics and metals industries. It will also be a useful resource for manufacturers of conductive composites for EMI shielding, and professional seminars and graduate-level courses in composite materials. Book jacket.

The commercial use of polymers in plastics, elastomers, coatings and adhesives almost always involves the use of additives to enhance their properties. Thousands of years natural polymers have been blended with naturally occurring fillers, fibers and many other substances. In this century, the development of synthetic polymers has led to the development of high performance polymer composites. This volume is the only text describing origin and use of additives and their function in polymeric composites. A panel of outstanding specialists in the field of additives have placed this in a historic perspective. Apart from this, up-to-date information on all fillers, reinforcing agents, stabilizers, plasticizers, flame retardants, accelerators, etc. can be found in the volume.

The result of decades of research by a pioneer in the field, this is the first book to deal exclusively with achieving high-performance metal-polymer composites by chemical bonding. Covering both the academic and practical aspects, the author focuses on the chemistry of interfaces between metals and polymers with a particular emphasis on the chemical bonding between the different materials. He elucidates the various approaches to obtaining a stable interface, including, but not limited to, thermodynamically driven redox reactions, bond protection to prevent hydrolysis, the introduction of barrier layers, and stabilization by spacer molecules. Throughout, chemical bonding is promoted as a simple and economically viable alternative to adhesion based on reversible weak physical interaction. Consequently, the text equips readers with the practical tools necessary for designing high-strength metal-polymer composites with such desired properties as resilience, flexibility, rigidity or degradation resistance.

The reduction of greenhouse gas emissions—particularly from fossil fuel-powered vehicles and airplanes by means of weight savings and leaner fuel consumption, helps to restrain environmental impacts. In general, for a variety of industries, and specifically in the case of transport, where both weight savings and increased energy efficiency are pursued, the use of metal–polymer multi-material structures has been growing at an increasing and particularly fast pace in recent years. Several manufacturing techniques have been, or are being, developed, with the aim of being used for producing dissimilar materials in cost-efficient manners. This book presents recent developments in the state of the art of advanced additive manufacturing and the joining of metal–polymer multi-material structures in transportation. This publication mainly focuses on the correlations between microstructure, manufacturing process (i.e., AddJoining, adhesive bonding, friction riveting, friction-based staking and friction spot joining) properties, and the mechanical performance of metal–polymer multi-material structures.

Fusion bonding is one of the three methods available for joining composite and dissimilar materials. While the other two, mechanical fastening and adhesion bonding, have been the subject of wide coverage both in textbooks and monographs, fusion bonding is covered here substantially for the first time. Fusion bonding offers a number of advantages over traditional joining techniques and it is anticipated that its use will increase dramatically in the future because of the rise in the use of thermoplastic matrix composites and the growing necessity for recyclability of engineering assemblies. Fusion Bonding of Polymer Composites provides an in-depth understanding of the physical mechanisms involved in the fusion bonding process, covering such topics as: - heat transfer in fusion bonding; - modelling thermal degradation; - consolidation mechanisms; - crystallisation kinetics; - processing-microstructure-property relationship; - full-scale fusion bonding; - fusion bonding of thermosetting composite/thermoplastic composite and metal/thermoplastic joints. The book focuses on one practical case study using the resistance welding process. This example exposes the reader to the development of processing windows for a novel manufacturing process including the use of experimental test programmes and modelling strategies.

A unique guide to an essential area of nanoscience Interest in nano-sized metals has increased greatly due to theirspecial characteristics and suitability for a number of advancedapplications. As technology becomes more refined-including theability to effectively manipulate and stabilize metals at thenanoscale-these materials present ever-more workable solutions to agrowing range of problems. Metal-Polymer Nanocomposites provides the first guidesolely devoted to the unique properties and applications of thisessential area of nanoscience. It offers a truly multidisciplinaryapproach, making the text accessible to readers in physical,chemical, and materials science as well as areas such asengineering and topology. The thorough coverage includes: The chemical and physical properties of nano-sized metals Different approaches to the synthesis of metal-polymernanocomposites (MPN) Advanced characterization techniques and methods for study ofMPN Real-world applications, including color filters, polarizers,optical sensors, nonlinear optical devices, and more An extensive list of references on the topics covered A unique, cutting-edge resource for a vital area of nanosciencedevelopment, Metal-Polymer Nanocomposites is an invaluabletext for students and practitioners of materials science,engineering, polymer science, chemical engineering, electricalengineering, and optics.

The problem of developing metal matrix (MCM) and metal-polymer (MPCM) composite materials is one of the most important in present day materials technology, for its solution is pivotal to the development of a number of leading technologies. The development of new fibrous and lamellar composite materials with improved physico-chemical, electrical, thermal and other properties is a springboard for qualitative scientific and technological advances not only in aerospace and shipbuilding technologies, but also in mechanical, power, electronic, electrical, radio engineering, transport, construction and other industries. The volume reviews the results of research programmes ac complished in recent years by Soviet scientists in the development of composite materials based on aluminium and magnesium matrices, polymatrix composites (composite materials) with metal and polymeric matrices reinforced with boron and carbon fibres, steel wire, fibre glass and other fillers. The volume also reviews present-day physico-chemical fundamen tals and basic principles for developing and optimizing metal matrix composites, and describes the most expedient and efficient methods of MCM and MPCM manufacturing. Special attention is devoted to the issue of manufacturing MCM structural members, and their machin ing and plastic working, as well as to coupling techniques.

No detailed description available for "Polymer Composites".