|Department:||Mechanical and Aerospace Engineering|
Shawn Putnam joined the UCF Department of Mechanical and Aerospace Engineering in 2012. A native of the northern logging town of Cloquet, Minnesota, Putnam received his Ph.D. in materials science and engineering with a focus on the thermodiffusion and thermal conductivity of nanoparticle suspensions. Following his doctoral studies, Putnam served as the lead thermal and materials scientist at the Air Force Research Laboratory at Wright-Patterson AFB in Dayton, Ohio. His postdoctoral work at AFRL broadened the use of optical pump-probe diagnostics for micro-/nano-scale studies of thermo-fluid transport at liquid interfaces. His current research at UCF focuses on interfacial phenomena using optical diagnostics to characterize biomolecular binding and heat and mass transport at materials interfaces.
Research Interests: Interfacial heat and mass transport, Optical diagnostics, Phase-change, Alternative energy, Biosensors
Ph.D. University of Illinois, Urbana-Champaign, 2007 Materials Science and Engineering
B.S. University of Minnesota Duluth, 2001 Physics & Applied Mathematics
Mehrdad Mehrvand and Shawn A. Putnam, “Transient and local two-phase heat transport at macro-scales to nano-scales.” Comm. Phys. (Nature) 1, 21 (2018).
Armando. A. Arends, Thomas M. Germain, James F. Owens, and Shawn A. Putnam, “Simultaneous reflectometry and interferometry for measuring thin-film thickness and curvature.” Rev. Sci. Instrum. 89, 055117 (2018).
Richard J. Murdock, Shawn A. Putnam, Soumen Das, Ankur Gupta, Elyse D. Z. Chase, and Sudipta Seal, “High-throughput, protein-targeted biomolecular detection using frequency-domain faraday rotation spectroscopy.” Small [cover page], 1602862 (2017).
Shawn A. Putnam, Alejandro M. Briones, Jamie S. Ervin, Larry W. Byrd, John G. Jones, Michael S. Hanchak, and Ashley White, “Microdroplet evaporation on superheated surfaces.” Int. J. Heat & Mass Transfer 55, 5793 (2012).
Shawn A. Putnam, and David G. Cahill, "Transport of nanoscale latex spheres in a temperature gradient.” Langmuir 21, 5317 (2005).