Carbon nanomaterials can transfer their excellent electrical conductivity to polymers while enhancing or maintaining their original mechanical properties. Conductive polymer composites based on carbon nanomaterials are finding increasing applications in aerospace, automotive, and electronic industries when flexibility or lightweight is required. Carbon-Based Conductive Polymer Composites: Processing, Properties, and Applications in Flexible Strain Sensors summarizes recent remarkable achievements in the processing–structure–property relationship of conductive polymer composites based on carbon nanomaterials. It also discusses research developments for their application in flexible strain sensors and novel processing methods like additive manufacturing. Presents the state of the art in conductive composite materials and their application in flexible strain sensors. Uniquely combines the processing, structure, properties, and applications of conductive polymer composites. Integrates theory and practice. Benefits plastics converters who wish to take full advantage of the potential of conductive plastic materials. This book is written for material scientists and engineers researching and applying these advanced materials for a variety of applications.

Carbon nanomaterials can transfer their excellent electrical conductivity to polymers while enhancing or maintaining their original mechanical properties. Conductive polymer composites based on carbon nanomaterials are finding increasing applications in aerospace, automotive, and electronic industries when flexibility or lightweight is required. Carbon-Based Conductive Polymer Composites: Processing, Properties, and Applications in Flexible Strain Sensors summarizes recent remarkable achievements in the processing–structure–property relationship of conductive polymer composites based on carbon nanomaterials. It also discusses research developments for their application in flexible strain sensors and novel processing methods like additive manufacturing. Presents the state of the art in conductive composite materials and their application in flexible strain sensors. Uniquely combines the processing, structure, properties, and applications of conductive polymer composites. Integrates theory and practice. Benefits plastics converters who wish to take full advantage of the potential of conductive plastic materials. This book is written for material scientists and engineers researching and applying these advanced materials for a variety of applications.

Electrical Conductivity in Polymer-Based Composites: Experiments, Modelling and Applications offers detailed information on all aspects of conductive composites. These composites offer many benefits in comparison to traditional conductive materials, and have a broad range of applications, including electronic packaging, capacitors, thermistors, fuel cell devices, dielectrics, piezoelectric functions and ferroelectric memories. Sections cover the theory of electrical conductivity and the different categories of conductive composites, describing percolation threshold, tunneling effect and other phenomena in the field. Subsequent chapters present thorough coverage of the key phases in the development and use of conductive composites, including manufacturing methods, external parameters, applications, modelling and testing methods. This is an essential source of information for materials scientists and engineers working in the fields of polymer technology, processing and engineering, enabling them to improve manufacture and testing methods, and to benefit fully from applications. The book also provides industrial and academic researchers with a comprehensive and up-to-date understanding of conductive composites and related issues. - Explains the methods used in the manufacture and testing of conductive composites, and in the modeling of electrical conductivity - Contains specialized information on the full range of applications for conductive composites, including conductive adhesives or pastes - Brings scientists, engineers and researchers up-to-date with the latest advances in the field

This book discusses the methods synthesizing various carbon materials, like graphite, carbon blacks, carbon fibers, carbon nanotubes, and graphene. It also details different functionalization and modification processes used to improve the properties of these materials and composites. From a geometrical–structural point of view, it examines different properties of the composites, such as mechanical, electrical, dielectric, thermal, rheological, morphological, spectroscopic, electronic, optical, and toxic, and describes the effects of carbon types and their geometrical structure on the properties and applications of composites.

The aim of the present edited book is to furnish scientific information about manufacturing, properties, and application of clay and carbon based polymer nanocomposites. It can be used as handbook for undergraduate and post graduate courses (for example material science and engineering, polymer science and engineering, rubber technology, manufacturing engineering, etc.) as well as as reference book for research fellows and professionals. Polymer nanocomposites have received outstanding importance in the present decade because of their broad range of high-performance applications in various areas of engineering and technology due to their special material properties. A great interest is dedicated to nanofiller based polymeric materials, which exhibit excellent enhancement in macroscopic material properties (mechanical, thermal, dynamic mechanical, electrical and many more) at very low filler contents and can therefore be used for the development of next-generation composite materials.

A comprehensive and up-to-date overview of the latest research trends in conductive polymers and polymer hybrids, summarizing recent achievements. The book begins by introducing conductive polymer materials and their classification, while subsequent chapters discuss the various syntheses, resulting properties and up-scaling as well as the important applications in biomedical and biotechnological fields, including biosensors and biodevices. The whole is rounded off by a look at future technological advances. The result is a well-structured, essential reference for beginners as well as experienced researchers.

This book is derived from the findings of an EU-funded project. The objective ofthe project was to develop conductive plastic composites that are eco-friendly,cost effective and of high added value. This was achieved through an ambitiousmultidisciplinary approach developing new, radically innovative, knowledge-basedand sustainable products for protection against the effects of electromagneticinterference (EMI) and electrostatic discharge (ESD).Research was based on the compounding of engineering polymers and inherentlyconductive polymers (ICP) with improved conductivity, or hybrid systems of ICPwith conductive nanotubes and other fibrous conductors. Innovative processingtechnologies specifically tailored to the new materials were also developed. theproject aimed to dramatically extend the current performance and processabilityof ICP and alternative materials to enable significant replacement of metals in EMIshielding and ESD protection applications.This book will benefit plastics converters who wish to take full advantage of thepotential of conductive plastic materials.

Until about 30 years ago all carbon-based polymers were regarded strictly as insulators, and hence were extensively utilized by the electronics industry for this very property. They have been used as inactive packaging and insulating material. This very narrow perspective has rapidly changed with the emergence of intrinsically conducting polymers. The combination of conventional polymers with conductive polymers or fillers is an important alternative to obtaining new polymeric materials with designed properties. Through the combination of conventional polymers with conductive polymers such as polyaniline, polypyrrole, and so on, the mechanical properties of conducting polymers can be improved. The insulating polymer removes the brittleness and lack of processibility that are the main drawbacks hindering conducting polymers. Blend applications require that conductivity is achieved at a small weight fraction of conducting polymer. There is also an increased requirement for polymeric materials whose electrical conductivity can be tailored. The aim this chapter is to describe conducting polymer blend systems to identify characteristic trends that might be useful for the investigation of their potential application in various electronic and optoelectronic devices.

This volume in the "New Concepts in Polymer Science" series is devoted to various aspects of the structure and properties of electrically conductive polymer composites.