Curriculum: Accelerator Science and Engineering Traineeship
Train for specialized careers in in-demand fields
Develop the skills needed for a successful career in accelerator science. The Accelerator Science and Engineering Traineeship (ASET) program was developed by Michigan State University in response to a national shortage in accelerator scientists and engineers. This unique program combines classroom learning with hands-on training in some of America’s most advanced national labs, while supporting student’s graduate research.
Michigan State University Master’s and PhD students will complete:
- specialized coursework in accelerator science and areas with critical workforce needs
- practical training at the Facility for Rare Isotope Beams (FRIB) at Michigan State University
- advanced training at U.S. Department of Energy (DOE) national laboratories
ASET curriculum
Graduate students in FRIB’s ASET program at Michigan State University complete five courses as part of the curriculum:
- Accelerator Systems (an orientation course)
- Accelerator Physics
- Accelerator Technology
- Two electives emphasizing major areas where there are critical workforce needs:
- Physics and engineering of large accelerators
- Superconducting radio frequency accelerator physics and engineering
- Radio frequency power engineering
- Large-scale cryogenic systems
In addition to the core curriculum, ASET students also learn about relevant topics such as project management and radiation safety. They are exposed to a broad range of ASET topics through regular seminars and presentations to enhance their training.
Course | Title (Faculty) | ||
PHY 862 | Accelerator Systems | ||
PHY 905-006 | Accelerator Physics | ||
PHY 864 | Accelerator Technology | ||
PHY 861 | Introduction to Beam Physics | ||
PHY 961 | Nonlinear Beam Dynamics | ||
PHY 962 | Particle Accelerators | ||
PHY 964 | Seminar in Beam Physics Research | ||
PHY 963 | US Particle Accelerator School (repeat credit if allowed) | ||
ECE 802 | Plasma Simulation | ||
ECE 802-604 | RF Power Engineering | ||
ECE 837 | Computational Methods in Electromagnetics | ||
ECE 850 | Electrodynamics of Plasmas | ||
ECE 989 | Advanced Applications of Plasmas | ||
ME 413 | Cryogenic Thermal Systems (Spring) | ||
ME 414 | Mechanical Design of Cryogenic Systems (Fall) | ||
ME 8xx | Cryogenic Process Engineering |
Ready to apply or have questions?
Please apply and inquire through the FRIB graduate studies page.