Richard Fair
| Position |
Department / Business Unit |
| Fellow of the IEEE and a Fellow of the Electrochemical Society, Professor |
Electrical and Computer Engineering |
| Institution |
Disciplines |
| Duke University |
Nanofluidics |
| City |
State / Provence |
| Durham |
North Carolina |
| Country |
Website |
| USA |
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Dr. Richard Fair is working with other researchers from Duke University and University of California (Riverside) to develop an inexpensive field diagnostic to detect active malaria infection in a remote field setting where little electricity or medical expertise is available. The diagnostic tool uses microfluidics, nanotechnology, and genomics to diagnose the type and drug resistance of malaria parasites in humans.
Dr. Fair is a Fellow of the IEEE and a Fellow of the Electrochemical Society. He has served as Associate Editor of the IEEE Transactions on Electron Devices (1990-1993) and is past Editor-In-Chief of the Proceedings of the IEEE (1993-2000). He received the IEEE Third Millennium Medal in 2000, and the 2003 Solid State Science and Technology Award from the Electrochemical Society. His nano-related research interests include
- Droplet-based microfluidics
- Biomedical applications of microfluidics
- Semiconductor devices and processing
- Semiconductor process modeling
Awards
- "Outstanding Young Electrical Engineer of the Year" Award, 1974 -National Award from Eta Kappa Nu.
- Fellow Award, IEEE, 1990 Fellow Award, Electrochemical Society, 1994
- Professor James F. Gibbons Achievement Award, 4th International Conference on Advanced Thermal Processing, 1996
- Third Millennium Medal, IEEE, 2000
- Solid State Science and Technology Award – The Electrochemical Society, 2003
Important Articles
Richard Fair has published 150 papers in technical journals, contributed chapters to 10 books, edited eight more books, and given over 115 invited talks.
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Related Content
NanoScienceWorks.org speaks with co-editor of the just-published Microfluidics and Nanofluidics Handbook. Prof. Sushanta Mitra, Director of the Micro and Nanoscale Transport Laboratory at the University of Alberta (Canada). His excellent oversight on this 2-volume masterwork’s 600 pages captures the cross-disciplinary breadth of micro- and nanofluidics, with expert contributions from more than two dozen esteemed researchers across biological sciences, chemistry, physics and engineering.
A team at Oregon State University is using magnetic nanobeads to assemble a microfluidic sensor to boost potency and speed of portable sensors for detecting chemical and biological agents.
Researchers at Harvard and MIT have designed and built a sensitive new microfluidic device to detect single cancer cells in a blood sample. The work, based on carbon nanotubes, could better allow doctors to quickly determine the spread of cancers, HIV and other viruses.
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