A technique for synthesizing many “white graphene” nanotubes at a time paves the way for stronger, heat-resistant composites, and membranes for renewable energy.

Now in its second year, the Rise program targets exceptional teenage scholars from around the world for their potential as future change-makers.

Researchers develop a technique for precisely arranging nanoscale particles on a surface, such as a silicon chip, that doesn’t damage the material.

With NEET, Sherry Nyeo is discovering MIT’s undergraduate research community at the intersection of computer science and biological engineering.

Simple microparticles can beat rhythmically together, generating an oscillating electrical current that could be used to power microrobotic devices.

The technique could be used to fabricate computer chips that won’t get too hot while operating, or materials that can convert waste heat to energy.

The ceramic-based material could be used for highly efficient actuators for aircraft or other uses, with minimal moving parts.

MIT researchers demonstrate an intracellular antenna that's compatible with 3D biological systems and can operate wirelessly inside a living cell.

By providing researchers with financial and strategic support from the early stages, the Innovation Center hopes to bring new and disruptive technologies to market.

The device senses and wirelessly transmits signals related to pulse, sweat, and ultraviolet exposure, without bulky chips or batteries.