This book describes the operation of a particular technique for the production of compound semiconductor materials. It describes how the technique works, how it can be used for the growth of particular materials and structures, and the application of these materials for specific devices. It contains not only a fundamental description of the operation of the technique but also contains lists of data useful for the everyday operation of OMVPE reactors. It also offers specific recipes that can be used to produce a wide range of specific materials, structures, and devices.
@introbul:Key Features @bul:* Updated with new emphasis on the semiconducting nitride materials—GaN and its alloys with In and Al
- Emphasizes the newly understood aspects of surface processes
- Contains a new chapter, as well as several new sections in chapters on thermodynamics and kinetics
Graduate students and upper level undergraduates planning to pursue a career in research, development, or production of materials, structures, and devices using the OMVPE technique.
Overview of the OMVPE Process. Thermodynamics. Physical Processes Occurring on the Surface. Source Molecules. Kinetics. Hydrodynamics and Mass Transport. Design of the OMVPE Process. Specific Materials. Superlattice Structures. Devices.
- No. of pages:
- © Academic Press 1999
- 9th December 1998
- Academic Press
- eBook ISBN:
- Hardcover ISBN:
Stringfellow was among the pioneers of the organometallic vapor phase epitaxial (OMVPE) growth technique, beginning his work in this area in 1975. He has published over 150 papers on this subject and delivered 30 invited papers at national and international conferences during the last 5 years. This work emphasizes the materials science aspects of OMVPE growth, including the thermodynamic and kinetic aspects of the process, the development of new source materials, and the growth of metastable alloys. The first epitaxial layers of InAsSb in the range of solid immiscibility. InPSb, GaPSb, GaInPSb, GaInAsSb, InAsBi, InSbBi, and InAsSbBi, inside the miscibility gap, were produced in Stringfellow’s group. The growth of immiscible alloys has led to the discovery of atomic scale ordering in many III/V alloys. He and his students recently demonstrated the control of domain size in these ordered materials by using grooves photolithographically produced on the (001) surface. This had resulted in the largest ordered domains ever produced in semiconductor materials. Current research focuses on the ordering mechanism, particularly the effects of surface structure on ordering.Other important work is involved with the development of new procedures for OMVPE. He and his students pioneered the now widely-used tertiarybutylarsine and tertiarybutylphosphine. They also used several other precursors for the first time, including: ethyldimethylindium, triisopropylantimony, triallylantimony, trivinylantimony, and tertiarybutyldimethylantimony.
University of Utah, Salt Lake City, U.S.A.