Self-healing metal oxides could protect against corrosion
Researchers find an ultrathin layer of aluminum oxide, though solid, can flow like a liquid instead of cracking.
Researchers find an ultrathin layer of aluminum oxide, though solid, can flow like a liquid instead of cracking.
Technique could prevent overheating of laptops, mobile phones, and other electronics.
Cutting kirigami-style slits in stretchy films could make for bandages, heat pads, and wearable electronics that adhere to flexible surfaces.
Design principles could point to better electrolytes for next-generation lithium batteries.
Graduate engineering program is No. 1 in the nation; MIT Sloan is No. 5.
With an atomic structure resembling a Japanese basketweaving pattern, “kagome metal” exhibits exotic, quantum behavior.
An early calling for clean energy propels undergraduate Ka-Yen Yau’s research on the next generation of nuclear technology.
When rotated at a "magic angle," graphene sheets can form an insulator or a superconductor.
MIT ranked within top 5 in 19 out of 48 subject areas.
Polina Anikeeva explores ways to make neural probes that are compatible with delicate biological tissues.
New members have made advances in the development of plasticity, novel genetic evolution methods, systems modeling, and clean energy.
Technology developed at MIT can harness temperature fluctuations of many kinds to produce electricity.
MIT researchers create predictable patterns from unpredictable carbon nanotubes.
Assistant professor in EECS is developing materials with novel structures and useful applications, including renewable energy and information storage.