Harnessing plasma’s potential to provide near-limitless energy
Merging plasma physics and engineering for fusion applications
Unraveling the behavior of the fourth state of matter
Understanding and counteracting plasma’s effects on materials
Studying plasma’s reactions to extreme conditions
Drawing practical solutions from lab science
Ph.D., Yale University, Department of Engineering and Applied Science (1972)
M.S. and B.S., Massachusetts Institute of Technology, Electrical Engineering (1967)
A.S., Wentworth Institute, Mechanical (1962)
Kinetic theory of plasmas; gyrokinetics and neoclassical transport in the core of tokamaks and stellarators; neoclassical transport in the pedestal of a tokamak.
Theoretical plasma physicist with research experience in tokamak, dipole, mirror, and bumpy torus magnetic confinement devices and laser ignited fusion. My most recent research interests include electric fields, flows, and profile evolution in turbulent tokamaks; background ion and impurity behavior in the pedestal of diverted tokamak plasmas; gyrokinetic descriptions of the background ions in a tokamak pedestal; finite Larmor radius effects on the parallel current on a three dimensional rational surface; optimized stellarators; and gravitationally confined equilibria and their stability.
Recent talks include a contributed presentation at the European Physical Society meeting in Lisbon (June 24, 2015) and a invited talk at the 8th Plasma Kinetics Working Group Meeting in Vienna (July 27, 2015). Both talks were on three-dimensional magnetized and rotating hot plasma equilibria confined by a gravitational field. In addition, he presented a tutorial on "Profile evolution and momentum transport in the core and pedestal" at the recent European Fusion Theory Conference in Lisbon (Oct. 5, 2015).