Features
Presents current developments in chemical techniques for production and characterization of state-of-the-art ceramic materials in a truly interdisciplinary fashion Discusses specific examples of classes of ceramic materials, such as thin films, membranes, ferroelectrics, dielectrics, bioceramics, and superconductors Draws on the expertise of the international materials community with chapter authors from Australia, Japan, Germany, Korea, France, Switzerland, Russia, and the US Updates and expands coverage to reflect advances made and changes in focus during the ten years since the publication of the first edition Examines why some of the interesting results from chemical processing have not yet made their way into real applications of ceramic materials and how their potential can be realized
Summary
Many believe that the silicon/information age is heading to the Age of Biology and that the next frontier in ceramics will most likely require molecular level or nanoscale control. What, then, is the role of ceramics in the age of biology? As we change from an energy-rich society to an energy-declining society, how can ceramic materials appease the problem? This new edition of Chemical Processing of Ceramics offers a scientific and technological framework for achieving creative solutions to these questions.
Edited by experts and containing chapters by leading researchers in the field, the book uses an interdisciplinary approach to cover topics ranging from starting materials to device applications. The book begins with a discussion of starting material, highlighting how to prepare and modify them in the nanoscale range. The chapter authors discuss the synthesis, characterization, and behavior of ceramic powders, the processing of ceramic films via sol-gel technique, and the fabrication of nonoxide ceramics. They also present coverage of several specific thin films, membranes, ferroelectrics, bioceramics, dieletrics, batteries, and superconductors.
Although the book is edited, it is organized to reflect the chemical sequence of ceramic processing and the coherent theme of chemical processing for advanced ceramic materials. The coverage of molecular/nanoprocessing techniques that result in new materials will enable researchers and engineers to meet the challenge of producing inorganic materials for use in the applications of the future.
Table of Contents
Powder Synthesis and Characterization
Hydrothermal Synthesis of Ceramic Oxide Powders,
S. Somiya, R. Roy, and S. Komarneni Solvothermal Synthesis,
M. Inoue Mechanochemical Synthesis of Ceramics,
A.C. Dodd Cryochemical Synthesis of Materials,
O.A. Shlyakhtin, N.N. Oleynikov, and Y.D. Tretyakov Environmentally Benign Approach to Synthesis of Titanium-Based Oxides by Use of Water-Soluble Titanium Complex,
K. Tomita, D. Dey, V. Petrykin, and M. Kakihana Peroxoniobium-Mediated Route toward the Low-Temperature Synthesis of Alkali Metal Niobates Free from Organics and Chlorides
, D. Dey and M. Kakihana Synthesis and Modification of Submicron Barium Titanate Powders,
B.I. Lee, M. Wang, D.H. Yoon, P. Badheka, L. Qi, and L.-Q. Wang Magnetic Particles: Synthesis and Characterization,
M. Ozaki Synthesis and Surface Modification of Zinc Sulfide-Based Phosphors,
L. Qi, B.I. Lee, D. Morton, and E. Forsythe Characterization of Fine Dry Powders,
H.K. Kammler and L. Mädler Powder Processing at Nanoscale
Theory and Applications of Colloidal Processing,
W. Sigmund, G. Pyrgiotakis, and A. Daga Nanomicrostructure and Property Control of Single and Multiphase Materials,
P. Colomban Nanocomposite Materials,
S. Komarneni Molecular Engineering Route to Two Dimensional Heterostructural Nanohybrid Materials,
J.-H. Choy and M. Park Nanoceramic Particulates for Chemical Mechanical Planarization in the Ultra Large Scale Integration Fabrication Process,
U. Paik, S.K. Kim, T. Katoh, and J.G. Park Sol-Gel Processing Chemical Control of Defect Formation During Spin-Coating of Sol-Gels,
D.P. Birnie, III Preparation and Properties of SiO2 Thin Films by the Sol-Gel Method Using Photoirradiation and Its Application to Surface Coating for Display,
T. Ohishi Ceramic Via Polymers
Organosilicon Polymers as Precursors for Ceramics,
M. Weinmann Polymer Pyrolysis,
M. Narisawa Processing of Specialty Ceramics
Chemical Vapor Deposition of Ceramics,
G. Cao and Y. Wang Ceramic Photonic Crystals: Materials, Synthesis, and Applications,
J. DiMaio and J. Ballato Tailoring Dielectric Properties of Perovskite Ceramics at Microwave Frequencies,
E.S. Kim, K.H. Yoon, and B.I. Lee Synthesis and Processing of High-Temperature Superconductors,
T. Doi Synthesis of Bone-Like Hydroxyapatite/Collagen Self-Organized Nanocomposites in Chemical Processing of Ceramics,
M. Kikuchi Ceramic Membrane Processing: New Approaches in Design and Applications,
A. Ayral, A. Julbe, and C. Guizard Ceramic Materials for Lithium-Ion Battery Applications,
J.P. Maranchi, O.I. Velikokhatnyi, M.K. Datta, I.-S. Kim, and P.N. Kumta Chemical Solution Deposition of Ferroelectric Thin Films,
R. Schwartz, T. Schneller, R. Waser, and H. Dobberstein Index