Simulating neutron behavior in nuclear reactors
Amelia Trainer’s work is fundamental to understanding how nuclear reactors operate. A passion for computer modeling and poetry have stood her in good stead through her research career.
Amelia Trainer’s work is fundamental to understanding how nuclear reactors operate. A passion for computer modeling and poetry have stood her in good stead through her research career.
The MIT Schwarzman College of Computing welcomes four new faculty members engaged in research and teaching that address climate risks and other environmental issues.
Students are part of large team that achieved fusion ignition for the first time in a laboratory.
Fusion physics pioneer and MIT climate change leader Anne White hopes to help “save the world with nuclear.”
The materials’ stiffness increases up to 40 percent, in a reversible effect, the researchers report in a study that also explains the phenomenon's atomic origins.
Hailing from a small town in Italy, Matteo Bucci is determined to address some of the unknowns plaguing fundamental science.
More complete than existing methods, the new approach might enable longer operational lifetimes for nuclear reactors.
Engineers working on “analog deep learning” have found a way to propel protons through solids at unprecedented speeds.
Faculty members recognized for excellence via a diverse array of honors, grants, and prizes.
High school student Tuba Balta engages new audiences through her MIT internship.
The MIT School of Engineering recently honored outstanding faculty, graduate, and undergraduate students with its 2022 awards.
Longtime MIT researcher and former associate director of the Plasma Science and Fusion Center contributed to fusion energy progress on campus and around the world.
The School of Engineering honors the associate professor of nuclear science and engineering for his experiential approach to teaching.
Nuclear Systems Design Project students tackle the real problem of bringing small-angle neutron scattering (SANS) technology to campus.
MIT engineers expand the capabilities of these ultrasensitive nanoscale detectors, with potential uses for quantum computing and biological sensing.