Encyclopedia of Materials: Science and Technology
Published on 19. September 2001
Book
Hardback
10388 pages
978-0-08-043152-9 (ISBN)
Description
The study of materials is interdisciplinary in nature and requires knowledge of research in many related fields, such as physics, chemistry, engineering and even biomedical science. Scientists and engineers working with materials increasingly need a medium for gathering relevant information from the growing amount of literature available.
The Encyclopedia of Materials: Science and Technology presents around 1,800 articles written by experts in their fields, resulting in a comprehensive coverage of this broad and wide-ranging subject. It is the only encyclopedia available that covers all of materials science and technology, focussing on the following areas:
Functional Phenomena
Structural Phenomena
Fundamental Core Theory
Structural Materials
Polymers and Materials Chemistry
Functional Materials
This title is also available online via ScienceDirect - featuring extensive browsing, searching, and internal cross-referencing between articles in the work, plus dynamic linking to journal articles and abstract databases, making navigation flexible and easy. Please contact your librarian for more information about access to these products within your institution.
The Encyclopedia of Materials: Science and Technology presents around 1,800 articles written by experts in their fields, resulting in a comprehensive coverage of this broad and wide-ranging subject. It is the only encyclopedia available that covers all of materials science and technology, focussing on the following areas:
Functional Phenomena
Structural Phenomena
Fundamental Core Theory
Structural Materials
Polymers and Materials Chemistry
Functional Materials
This title is also available online via ScienceDirect - featuring extensive browsing, searching, and internal cross-referencing between articles in the work, plus dynamic linking to journal articles and abstract databases, making navigation flexible and easy. Please contact your librarian for more information about access to these products within your institution.
More details
Language
English
Place of publication
London
United Kingdom
Publishing group
Elsevier Science & Technology
Target group
Professional and scholarly
Dimensions
Height: 225 mm
Width: 149 mm
Weight
23420 gr
ISBN-13
978-0-08-043152-9 (9780080431529)
Copyright in bibliographic data and cover images is held by Nielsen Book Services Limited or by the publishers or by their respective licensors: all rights reserved.
Schweitzer Classification
Persons
Professor Kurt Heinz Juergen Buschow is a member of the Experimental Physics Department of the University of Amsterdam, where he teaches Magnetism and Magnetic Materials. He studied Physical Chemistry at the Free University of Amsterdam, starting in 1954.After having received his M.Sc. degree in 1960 he prepared his thesis work dealing with "Ion-pair Formation with Polyacene Mono and Dinegative Ions?. He received his Ph.D. degree at the Free University in 1963.
In 1964 he held a research position at the Philips Research Laboratories in Eindhoven. He was appointed Senior Scientist in 1976 and Chief Scientist in 1988. His research activities comprised fundamental as well as applied aspects. During this period he stayed for one year (1977) as a guest scientist at the Bell Laboratories, Murray Hill, N.Y. In March 1994 he left the Philips Research Laboratories, taking a position at the Van der Waals-Zeeman Institute, University of Amsterdam and having simultaneously a part-time professorship at the University of Leiden.
His teaching activities are in the field of Metal Physics and Magnetic Materials. He has published more than 1100 papers in international scientific journals and is author of several review papers and handbook chapters on magnetic materials, metal hydrides and amorphous alloys. He is Editor-in-Chief of the Journal of Alloys and Compounds, Advisory Editor of the Journal of Magnetism and Magnetic Materials and is also Editor of the Series Handbook Magnetic Materials. Recently he became one of the Editors-in-Chief of the Encyclopedia of Materials: Science and Technology. Robert S. Cahn received his B.S. from the University of Chicago in 1966 and his Ph.D. in Mathematics from Yale University in 1970. From 1970 until 1982, he was a member of the Department of Mathematics and Computer Science of the University of Miami and of the Mathematics Department of Lehman College from 1983-1985. In 1986 he joined the IBM Communications Department working on network design algorithms and network design tools. He has also designed a number of very large, high-speed networks for both IBM and IBM customers. He is the author or over 20 research articles spanning his various interests. He is adjunct professor of Computer Science at Polytechnic University and regularly teaches about network design.
In 1964 he held a research position at the Philips Research Laboratories in Eindhoven. He was appointed Senior Scientist in 1976 and Chief Scientist in 1988. His research activities comprised fundamental as well as applied aspects. During this period he stayed for one year (1977) as a guest scientist at the Bell Laboratories, Murray Hill, N.Y. In March 1994 he left the Philips Research Laboratories, taking a position at the Van der Waals-Zeeman Institute, University of Amsterdam and having simultaneously a part-time professorship at the University of Leiden.
His teaching activities are in the field of Metal Physics and Magnetic Materials. He has published more than 1100 papers in international scientific journals and is author of several review papers and handbook chapters on magnetic materials, metal hydrides and amorphous alloys. He is Editor-in-Chief of the Journal of Alloys and Compounds, Advisory Editor of the Journal of Magnetism and Magnetic Materials and is also Editor of the Series Handbook Magnetic Materials. Recently he became one of the Editors-in-Chief of the Encyclopedia of Materials: Science and Technology. Robert S. Cahn received his B.S. from the University of Chicago in 1966 and his Ph.D. in Mathematics from Yale University in 1970. From 1970 until 1982, he was a member of the Department of Mathematics and Computer Science of the University of Miami and of the Mathematics Department of Lehman College from 1983-1985. In 1986 he joined the IBM Communications Department working on network design algorithms and network design tools. He has also designed a number of very large, high-speed networks for both IBM and IBM customers. He is the author or over 20 research articles spanning his various interests. He is adjunct professor of Computer Science at Polytechnic University and regularly teaches about network design.
Content
Subject areas:
Functional Phenomena.
Electrical and thermal transport in normal solids.
Physics and application of superconductors.
Lattice properties and thermodynamics.
Metal-gas reactions and electrochemistry.
Magnetism and electronic properties and bulk solids.
Hard and soft magnetic materials, manufacturing and applications.
Magneto-optical and optical recording.
Magnetic recording; magnetic fluids.
Physical properties of thin films and artificial multilayers.
Optical and dielectric phenomena.
Fundamental Core Theory.
Fundamentals of materials science.
Amorphous materials.
Nuclear materials and irradiation effects.
Biomedical and dental materials.
Natural products and biomimetics.
Carbon.
Wood and paper.
Characterization of materials.
Surfaces: structure and properties.
Miscellaneous.
Structural Materials.
Metal extraction, melting and refining.
Metal processing.
Structure, transformations and properties, light metals.
Structure, transformations and properties, ferrous metals.
Ceramic processing.
Structure, transformations, properties in ceramics.
Composites: MMC, CMC, PMC.
Applications: aerospace automotive, sports, other.
Applications: building. Modeling: atomic, microscale, large scale.
Materials selection, life cycle costs, environmental tradeoffs, etc.
Corrosion.
Structural Phenomena.
Elasticity-residual stress.
Brittle fracture.
Plastic deformation in static loading.
Microscopic models of plasticity.
Deformation and damage under cyclic load.
Creep, strength and fatigue at elevated temperature.
Mechanical properties of surfaces and in micro-dimensions.
Deformation-related processing.
Mechanical testing and nondestructive inspection.
Polymers and Materials Chemistry.
Crystalline polymers.
Glassy amorphous and liquid crystalline polymers.
Conducting and semiconducting polymers and organics.
Elastomers, networks and gels.
Block copolymers.
Industrial polymerization chemistry.
New synthesis methods for speciality polymers.
Polymer processing.
Inorganic materials chemistry.
Organic/inorganic hybrid materials.
Self-assembling materials chemistry.
Liquid crystals.
Functional Materials.
Physics and chemistry of semiconductors.
Semiconducting devices.
Defects in semiconductors.
Evaluation of semiconductors.
Crystal growth.
Epitaxial growth.
Semiconductor processing and IC fabrication.
Nonlinear optical materials.
Electroceramics.
Packaging.
Functional Phenomena.
Electrical and thermal transport in normal solids.
Physics and application of superconductors.
Lattice properties and thermodynamics.
Metal-gas reactions and electrochemistry.
Magnetism and electronic properties and bulk solids.
Hard and soft magnetic materials, manufacturing and applications.
Magneto-optical and optical recording.
Magnetic recording; magnetic fluids.
Physical properties of thin films and artificial multilayers.
Optical and dielectric phenomena.
Fundamental Core Theory.
Fundamentals of materials science.
Amorphous materials.
Nuclear materials and irradiation effects.
Biomedical and dental materials.
Natural products and biomimetics.
Carbon.
Wood and paper.
Characterization of materials.
Surfaces: structure and properties.
Miscellaneous.
Structural Materials.
Metal extraction, melting and refining.
Metal processing.
Structure, transformations and properties, light metals.
Structure, transformations and properties, ferrous metals.
Ceramic processing.
Structure, transformations, properties in ceramics.
Composites: MMC, CMC, PMC.
Applications: aerospace automotive, sports, other.
Applications: building. Modeling: atomic, microscale, large scale.
Materials selection, life cycle costs, environmental tradeoffs, etc.
Corrosion.
Structural Phenomena.
Elasticity-residual stress.
Brittle fracture.
Plastic deformation in static loading.
Microscopic models of plasticity.
Deformation and damage under cyclic load.
Creep, strength and fatigue at elevated temperature.
Mechanical properties of surfaces and in micro-dimensions.
Deformation-related processing.
Mechanical testing and nondestructive inspection.
Polymers and Materials Chemistry.
Crystalline polymers.
Glassy amorphous and liquid crystalline polymers.
Conducting and semiconducting polymers and organics.
Elastomers, networks and gels.
Block copolymers.
Industrial polymerization chemistry.
New synthesis methods for speciality polymers.
Polymer processing.
Inorganic materials chemistry.
Organic/inorganic hybrid materials.
Self-assembling materials chemistry.
Liquid crystals.
Functional Materials.
Physics and chemistry of semiconductors.
Semiconducting devices.
Defects in semiconductors.
Evaluation of semiconductors.
Crystal growth.
Epitaxial growth.
Semiconductor processing and IC fabrication.
Nonlinear optical materials.
Electroceramics.
Packaging.