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New Edition Up-Dates Proven Reference, December 7, 2004
This review is from: Inorganic Materials Chemistry Desk Reference, Second Edition (Hardcover)
Inorganic Materials Chemistry Desk Reference, 2nd Edition by D. Sangeeta, John R. Lagraff (CRC Press) excerpt: The primary purpose of this second edition of Inorganic Materials Chemistry Desk Reference remains its value as a resource to assist in the preparation of solid state inorganic materials by chemical processing techniques. The idea for a second edition was conceived several years ago in an effort to both add new chemical precursors available to the Materials Scientists and to include existing or emerging topics where materials chemistry plays an important role, such as microelectronics, surface science, and nanotechnology. Additions to Chapter 1 include discussion of the role of materials chemistry in micro- and nano-fabrication, surface materials chemistry, self-assembly, scanning probe microscopy, and carbon fullerenes. The glossary in Chapter 2 contains over 200 new definitions related to the aforementioned topics. Chapter 3 has been greatly expanded to include 50% more new chemical precursors and their properties. The reader is referred to the preface of the first edition (following page) for more information regarding this book.
This Inorganic Materials Chemistry Desk Reference is meant to be a resource to assist in the preparation of solid state inorganic materials by chemical processing techniques. Ceramic materials can be prepared by a variety of chemical routes and this handbook provides a brief introduction to inorganic materials chemistry and these processing routes, along with definitions of most commonly used terms in the field. The focus of the desk reference is a compilation of property data on inorganic precursors and on inorganic solids to assist in the selection of candidate precursors and materials for a variety of applications.
The idea for such a resource for inorganic materials chemistry was conceived from my personal experience with initiating new materials chemistry-related projects, all of which began by necessity with the painstaking effort required to collect relevant information from a multitude of sources, including textbooks, handbooks, journals, proceedings, and magazines. Beginning with my thesis and postdoctoral work on sol-gel processing at the University of Illinois with Professors W. G. Klemperer and D. A. Payne, I found myself devoting a considerable fraction of my efforts to collecting relevant information in the area of materials chemistry. During my work at Battelle in Columbus, Ohio, and subsequently following my move to the General Electric Corporate Research and Development Center, it was clear to my colleagues and to me that there is a pressing need for a resource that not only explains the terms frequently used in the inorganic materials chemistry field, but also provides data on the physical properties of the precursors available for use in chemical processing techniques. Such questions as "What precursor can I select to prepare this inorganic solid?" and "Which precursor (from the processing point of view) is suitable or viable for this process?" are the types of questions that scientists and engineers need quick answers to in order to initiate a successful materials chemistry project. This resource provides a rapid reference to help answer these and other such questions. In addition, it provides physical property data on inorganic solids to answer questions such as "What kind of properties should I expect from this or similar materials?"
The desk reference begins with a general introduction to the area of inorganic materials chemistry with an emphasis on chemical processing routes. Several sources of additional information are provided for newcomers to the field and for the experienced practitioners as well. The second chapter provides a quick reference to many commonly used terms in the field of inorganic materials chemistry. The primary purpose of the desk reference, that of providing data on inorganic precursors and ceramic materials, is served in Chapter 3 and Chapter 4. The third chapter is a compilation of physical property data on various organometallic, metal organic, and inorganic salt precursors used in the processes described in Chapter 1. The fourth chapter consists of seven sections detailing physical property data on inorganic solids, including oxides, carbides, nitrides, borides, selenides, tellurides, and sulfides, among others.
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