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Siu-Wai Chan studies size-dependent properties of nano-ceramics and crystalline interfaces. Chan’s research has focused on nano-ceramics and crystalline interfaces. Many working devices such as varistors use novel electrical transport properties of grain boundaries which is a type of crystalline interface.
- Prof. Chan's Research Group
Siu-Wai Chan. Professor of Materials Science and Metallurgy....
- Professor Siu-Wai Chan
Professor Siu-Wai Chan. Size-dependent Properties of...
- Prof. Chan's Research Group
Siu-Wai Chan. Professor of Materials Science, Columbia University. Verified email at columbia.edu - Homepage. Nano-particles Thin films Grain boundaries and Interfaces.
Oct 8, 2005 · Siu-Wai Chan. Professor of Materials Science and Metallurgy. Tel: (212) 854-8519. Fax: (212) 854-8257. E-mail: sc174@columbia.edu. Education. Massachusetts Institute of Technology, Sc. D. (Materials Science and Metallurgy) - 1985. Columbia University, B. S. (Materials Science and Metallurgy) - 1980. Professional Activities.
Apr 20, 2015 · Experienced Professor with a demonstrated history of working in the higher education. Skilled in research on Thin Films, Epitaxial stress issues, Semiconductors, Superconducting Oxides, Materials...
- 500+
- 1.8K
- Columbia University
- New York, New York, United States
Professor Siu-Wai Chan. Size-dependent Properties of Nano-Oxides, Grain Boundaries, Interfaces, and Defects in Thin Films, Super-Ionic and Superconducting Oxides as well as Materials for Energy and Environment . Full Professor since 2002, Co-Chair of the Solid State Program since Jan 2001, Co-chair of Materials Science and Engineering Program ...
Siu-Wai Chan. Professor of Materials Science and Engineering Dept. of Applied Physics and Applied Mathematics. Henry Krumb School of Mines, School of Engineering and Applied Science, Columbia University, New York, NY 10027 212-854-8519(tel), 212-854-8257(fax), email: sc174@columbia.edu.
Siu-Wai Chan We have acquired positive results in controlled study to investigate the effects of substrate surface modification on the growth-induced flux-pinning nanostructures in YBCO films.
