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Graduate Program in Plasma Physics

Introduction

The Graduate Program in Plasma Physics is a program within the Department of Astrophysical Sciences at Princeton University. Students are admitted directly to the Program and are granted degrees through the Department of Astrophysical Sciences. The Program is based at the Princeton Plasma Physics Laboratory, which is on the James Forrestal Campus of Princeton University, a few miles up US Route 1 from main campus.

Graduate students Clayton Myers (left) and Jongsoo Yoo (right) work on the Magnetic Reconnection Experiment (MRX).

The Plasma Physics Program was first offered at Princeton University in 1959 and two years later was incorporated into the Department of Astrophysical Sciences. In an environment that, over the past few decades, has seen enormous changes in the fields of plasma physics and controlled fusion, the Program has consistently focused on fundamentals in physics and mathematics and on intense exposure to contemporary experimental and theoretical research in plasma physics. With 257 graduates since 1959, the Program in Plasma Physics has provided many of today's leaders in the field of plasma physics. Students in the program, presently 38, engage in active research, attend conferences, and publish their findings in scientific journals. Graduates of the program find employment in research in industry, in national laboratories, and in academia.

The faculty responsible for the teaching program hold positions within the Department of Astrophysical Sciences. Recognizable on the list of faculty are many names associated with classic textbooks or research papers in the field of plasma physics. Students pursue research with the teaching faculty, with associated faculty in other departments, or with any of the nearly one hundred scientists at PPPL. The Program in Plasma Physics emphasizes both basic physics and applications. There are opportunities for research projects in the physics of the very hot plasmas necessary for controlled fusion, as well as for projects in solar, magnetospheric and ionospheric physics, plasma processing, plasma devices, nonneutral plasmas, lasers, materials research, and in other emerging areas of plasma physics. With the field of fusion energy entering an exciting phase of burning plasma and technological implementation, increasing attention is paid to the practical engineering issues that will allow fusion reactors to become economically competitive.

Graduate students entering the Plasma Physics Program at Princeton spend the first two years in classroom study, acquiring a foundation in the many disciplines that make up plasma physics: classical and quantum mechanics, electricity and magnetism, fluid dynamics, hydrodynamics, atomic physics, applied mathematics, statistical mechanics, and kinetic theory. Courses offered in the Program are taught by the members of the Princeton Plasma Physics Laboratory's research staff who also comprise the plasma physics faculty. The curriculum is supplemented by courses offered in other departments of the University and by a student-run seminar series in which PPPL physicists share their expertise and graduate students present their research.

In addition to formal class work, first- and second-year graduate students work directly with the research staff, have full access to Laboratory and computer facilities, and learn firsthand the job of a research physicist. First-year students typically assist in experimental research areas, and second-year students usually undertake a theoretical research project. There are two exams that must be passed as a graduate student in the Program, the Physics Department Preliminary Exam, usually in the first year, and the Program's General Examination, usually in the second year. After passing the General Exam, students concentrate on the research and writing of a doctoral thesis.

Admission to the program is highly competitive. Successful applicants generally present strong undergraduate training, with concentrations in mathematics, physics, or engineering, and high scores on the Graduate Record Exam (GRE), both on the GRE General Test and the GRE Subject Test in physics. Students accepted to the program are normally offered research assistantships, which include tuition expenses and a generous stipend. Prospective students are encouraged, however, to apply for any outside fellowships for which they may qualify.


Recent Graduate Theses

Name Thesis Title Advisor(s)
wedge2012
Zhmolginov, Andrey I.
Resonant Wave-particle Manipulation Techniques N.J. Fisch
Fetterman, Abe
Wave-driven Rotation and Mass Separation in Rotating Magnetic Mirrors N.J. Fisch
Dorfman, Seth E.
Experimental Study of 3-D, Impulsive Reconnection Events in a Laboratory Plasma H. Ji
Lundberg, Daniel P.
Fueling Studies on the Lithium Tokamak Experiment R. Majeski, R. Kaita

wedge2011
Raburn, Daniel
Efficient Numerical Calculation of MHD Equilibria with Magnetic Islands, with Particular Application to Saturated Neoclassical Tearing Modes A. Reiman, D. Monticello
Kallman, Joshua B.
Determination of Sheath Heat Transmission Coefficient in NSTX Discharges with Applied Lithium Coatings R. Kaita
Peterson, Jayson D. L.
Relating Gyrokinetic Electron Turbulence to Plasma Confinement in the NSTX G.W. Hammett,
D. Mikkelsen

wedge2010
Smith, Sterling
Magnetohydrodynamic Stability Spectrum With Flow and a Resistive Wall S.C. Jardin
Ross, Patrick W.
Ion Power Balance in Neutral Beam Heated Discharges on the NSTX D. Gates, R. White
Dorf, Mikhail
Transport Properties of intense Ion Beam Pulse Propagation for High Energy Density Physics and Inertial Confinement Fusion Application R.C. Davidson
Berzak, Laura
Plasma Start-up in a Spherical Tokamak With Close-fitting Conducting Walls R. Majeski, R. Kaita
Wang, Yansong
Nonlinear Heating of the Reconnection Layer by Strong Lower Hybrid Instabilities H. Ji, R. Kulsrud

wedge2009
Stoltzfus-Dueck, Timothy
Tokamak edge turbulence and the approach to adiabatic response J.A. Krommes,
S. Zweben
Yampolsky, Nikolai A.
Plasma waves in parametric interactions N.J. Fisch
Park, Jong-kyu
Ideal Perturbed Equilibria in Tokamaks J. Menard, A. Boozer
Smith, David R.
Investigation of electron gyro-scale fluctuations in the National Spherical Torus Experiment E. Mazzucato
wedge2008
Lukin, Vyacheslav
Computational Study of the Interna; Kink Mode Evolution and Associated Magnetic Reconnection Phenomena S. Jardin
Gray, Timothy G.
Demonstration of Low Recucling on a Spherical Torus with Lithium Plasma Facing Components R. Kaita, R. Majeski
Schartman, Ethan
Laboratory Study of angular momentum transport in rotating shear flow H. Ji
Chung, Moses
Studies of charged particle beam dynamics on the Paul Trap simulator experiment pure ion plasma R.C. Davidson
Diem, Stephanie J.
Investigation of EBW thermal emission and Mode-conversion physics in the National Spherical Torus G. Taylor
Ferraro, Nathaniel M.
Non-ideal effects on the stability and transport of magnetized plasmas S.C. Jardin

Complete List of Graduate Theses