The rechargeable battery can be woven and washed, and could provide power for fiber-based electronic devices and sensors.

Mathematical simulations show the new approach may offer faster, cheaper, and more accurate detection, including identifying new variants.

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

MIT researchers develop a new way to control and measure energy levels in a diamond crystal; could improve qubits in quantum computers.

New superconducting magnet breaks magnetic field strength records, paving the way for practical, commercial, carbon-free power.

In a study that could benefit quantum computing, researchers show a superlattice embedded with nanodots may be immune from dissipating energy to the environment.

The commonplace phenomenon, now quantified for the first time, could be harnessed for many useful applications.

MIT-led research team fashions graphene foam into device that can extract uranium and other heavy metals from tap water.

After decades of plasma physics research, Senior Research Scientist Brian LaBombard is taking on magnets for MIT’s new fusion effort.

MIT researchers train a neural network to predict a “boiling crisis,” with potential applications for cooling computer chips and nuclear reactors.