As third-generation synchrotron facilities are constructed and go online in both the United States and around the world, increasingly more applications of synchrotron radiation will be realized. Both basic and applied research possibilities are manyfold, and include studies of solid surfaces and interfaces, electronic materials, metal oxides, glasses, thin films, superconductors, polymers, alloys, multilayer metal systems and intermetallic compounds. In addition, the combination of synchrotron-based spectroscopic techniques, with ever increasing high-resolution microscopy, allows researchers to study very small domains of materials in an attempt to understand their chemical and electronic properties. This book from MRS focuses on the various types of information that can be obtained from synchrotron-related techniques in order to expand the use of this unique and powerful experimental approach to materials research. Topics include: structure of reduced dimensional materials; magnetic materials; microscopy, topography and tomography; X-ray probes of solids; and materials characterization with X-ray absorption.

The MRS Symposium Proceeding series is an internationally recognised reference suitable for researchers and practitioners.

The 57 papers update the status of characterization techniques that use synchrotron radiation since the previous symposium on the subject in the spring of 1996. The techniques considered include X-ray absorption and scattering, imaging, tomography, microscopy, and topographic methods. Among the materials are surfaces, interfaces, electronic materials, metal oxides, solar cells, thin films, carbides, polymers, alloys, nanoparticles, and graphitic materials. Some of the papers are doubled spaced. Annotation copyrighted by Book News, Inc., Portland, OR

Much like earlier books in the series, this collection of papers, first published in 2001, brings together the materials science community and the characterization techniques that use synchrotron radiation. Surfaces, interfaces, electronic materials, thin films, carbides, polymers and alloys are all addressed. And while the editors did not anticipate that the cluster of papers treating cementitious materials would necessitate a separate section, it is interesting to see the application of cutting-edge techniques to Portland cement, a very complex materials system long used in engineering structures. Topics include: X-ray diffraction - structures and transformations; X-ray diffraction - stress, strain and texture; microtomography and microdiffraction; SR methods applied to cementitious materials; magnetic materials; X-ray absorption and photoemission; and X-ray scattering and interfaces.

This is an easily-accessible two-volume encyclopedia summarizing all the articles in the main volumes Kirk-Othmer Encyclopedia of Chemical Technology, Fifth Edition organized alphabetically. Written by prominent scholars from industry, academia, and research institutions, the Encyclopedia presents a wide scope of articles on chemical substances, properties, manufacturing, and uses; on industrial processes, unit operations in chemical engineering; and on fundamentals and scientific subjects related to the field.

Based on an international gathering of scientists and engineers from 17 countries, this book, the fifth in a continuing series, assesses microwave processing of materials as an emerging technology. Significant advances in understanding and control of microwave energy and its use in the processing and testing of materials are outlined. Future research and development needs are also explored. Topics include: scale-up and commercialization; microwave nondestructive testing; microwave processing; microwave system design; dielectric properties measurements and analysis; modelling of microwave heating; microwave interactions and mechanisms; microwave processing using variable frequency sources; alternate microwave sources; remediation of hazardous waste; temperature modelling and measurements; microwave processing of polymers; and plasma processing.