A new way to watch heat move through electronics
MIT researchers can now precisely measure how heat moves through multilayered materials like computer chips.
MIT researchers can now precisely measure how heat moves through multilayered materials like computer chips.
MIT engineers introduce an adaptive physical therapy system that uses generative AI to learn from physical therapists and interactively support stroke patients.
The “ShiftLens” design and fabrication system creates objects that change their surface appearance based on user interactions, without any electronics.
Melt it, spin it, use it again. This new recyclable yarn is as strong and stretchy as spandex-based yarns.
PhD student Lauren Fortier is building on the experience she gained operating a nuclear plant for the Navy to solve a critical hurdle in the wider adoption of the energy source.
Initial research projects advance national priorities across natural resources, manufacturing, nuclear physics, and more.
The MIT community celebrated the talent, dedication, and impact of its staff.
Researchers developed an automated framework that helps AI models generate CAD programs more accurately and efficiently.
MIT students designed, built, and tested a jet engine with AI copilots, assessing AI’s usefulness in developing high-performance aerospace systems.
Gently stretching and pulling a “blood vessel on a chip” encourages controlled sprouting of new vessels, for possible use in artificial tissues or organs.
MIT engineers’ design could lead to a new class of aerial-aquatic vehicles for ocean exploration.
An MIT mechanical engineering course explores entrepreneurship through lessons and stories shared by alumni startup founders.
The “TOSSIT” device, developed at MIT Lincoln Laboratory, can warn service members and first responders of dangerous vapors and aerosols.
MIT and Tec de Monterrey will expand FrED curriculum to universities across Mexico.
The new aerated material could enable longer-lasting bandages, implants, and wearable sensors.