Fusion Undergraduate Scholars (FUSars) program offers students in-depth research opportunities in fusion science and energy.

New research explores how Dyson maps are putting quantum computers to work in designing fusion energy devices.

Unique PSFC-designed spectrometer provides crucial data about the implosion that yielded an historic fusion energy gain.

A new approach sheds light on the behavior of turbulent structures that can affect the energy generated during fusion reactions, with implications for reactor design.

Students are part of large team that achieved fusion ignition for the first time in a laboratory.

In a residency supported by the Department of Energy, the MIT PhD candidate will explore the high-field side of the DIII-D tokamak.

New five-year agreement will support SPARC science, increase graduate students and postdocs, and support interdisciplinary work toward fusion power plants.

Linking techniques from machine learning with advanced numerical simulations, MIT researchers take an important step in state-of-the-art predictions for fusion plasmas.

After four decades at the Plasma Science and Fusion Center, Deputy Director Martin Greenwald embodies a brief history of fusion at MIT.

By incorporating the scattering of RF waves into fusion simulations, MIT physicists improve heating and current drive predictions for fusion plasmas.