The authoritative reference on catalytic chemical vapor deposition, written by the inventor of the technology. This comprehensive book covers a wide scope of Cat-CVD and related technologies from the fundamentals to the many applications, including the design of a Cat-CVD apparatus. Featuring contributions from four senior leaders in the field, including the father of catalytic chemical vapor deposition, it also introduces some of the techniques used in the observation of Cat-CVD related phenomena so that readers can understand the concepts of such techniques. Catalytic Chemical Vapor Deposition: Technology and Applications of Cat-CVD begins by reviewing the analytical tools for elucidating the chemical reactions in Cat-CVD, such as laser-induced fluorescence and deep ultra-violet absorption, and explains in detail the underlying physics and chemistry of the Cat-CVD technology. Subsequently it provides an overview of the synthesis and properties of Cat-CVD-prepared inorganic and organic thin films. The last parts of this unique book are devoted to the design and operation of Cat-CVD apparatuses and the applications. Provides coherent coverage of the fundamentals and applications of catalytic chemical vapor deposition (Cat-CVD) Assembles in one place the state of the art of this rapidly growing field, allowing new researchers to get an overview that is difficult to obtain solely from journal articles Presents comparisons of different Cat-CVD methods which are usually not found in research papers Bridges academic and industrial research, showing how CVD can be scaled up from the lab to large-scale industrial utilization in the high-tech industry. Catalytic Chemical Vapor Deposition: Technology and Applications is an excellent one-stop resource for researchers and engineers working on or entering the field of Cat-CVD, Hot-Wire CVD, iCVD, and related technologies.

From 1995-2000, researchers at The University of Texas at Austin and the University of Wisconsin, Madison investigated and demonstrated new, intelligent manufacturing processes for growing epitaxial silicon alloy thin films that employ input from in situ optical process sensors to maintain precise control of film composition and thickness. The research team accomplished what was set forth in the original proposal. Significant progress was made in understanding the fundamental chemistry and physics of thin alloy films that affects the sensor operation and growth models, in developing and implementing state estimation and model predictive control techniques, in advancing optical sensors that can provide a complete description of the film properties, and in the design and demonstration of strained SiGe/Si and SiGeC/Si heterostructures with significant device performance enhancements over Si-based devices.

This book on amorphous silicon technology shows a trend towards technologies based on amorphous and heterogeneous silicon (solar cells, TFTs, imaging arrays, sensors, etc.) and brings together researchers from around the world to share their expanding expertise. The book contains eleven chapters and focuses on basic mechanisms of growth (as well as new approaches to film growth); hot wire, CVD-produced amorphous and microcrystalline films and related subjects of film crystallization and recrystallization; the electronic structure and transport properties of silicon-based thin films are discussed, together with hydrogen microstructure and metastability. Silicon nitride, four on alloys with germanium, and two dealing predominantly with silicon carbide are looked at. There is also focus on photovoltaic devices based on either amorphous or microcrystalline (or mixed phase) materials. It also offers a look at thin-film transistors, as well as related types of imaging and sensing arrays and there are papers on novel device structures and new types of technologies being developed using amorphous/heterogeneous thin film, silicon-based materials.

Amorphous silicon technology has been the subject of symposia every year since 1984. This remarkable longevity is due to the continuous emergence of new scientific questions and new technological challenges for silicon thin films. Earlier there was a strong emphasis on methods to achieve high deposition rates using plasma or hot-wire chemical vapor deposition, and on the properties and applications of nanocrystalline silicon films, which for example have been incorporated into stacked a-Si:H/nc-Si:H solar cells. The papers appearing in this book are sorted under six chapter headings on the basis of subject matter. Chapter I is concerned with amorphous network structures, electronic metastability, defects, and photoluminescence. Chapter II focuses on thin-film transistors and imager arrays. Chapter III covers solar cells. Chapter IV addresses growth mechanisms, hot-filament CVD, and nc-Si:H growth. Chapter V contains all remaining topics in film growth, especially those related to devices. Finally, Chapter VI focuses on crystallized film.