A new twist on nanowires
Technology developed at MIT can control the composition and structure of these tiny wires as they grow.
Technology developed at MIT can control the composition and structure of these tiny wires as they grow.
Richard Braatz applies math to design new materials and processes for drug manufacturing.
A new kind of high-temperature photonic crystal could someday power everything from smartphones to spacecraft.
Multi-scale material may have applications in heat transfer, potentially helping powerplants be more efficient.
Finding could lead to new photodetectors or energy-harvesting devices.
New cardiac patch uses gold nanowires to enhance electrical signaling between cells, a promising step toward better treatment for heart-attack patients.
Liquid processing method developed at MIT can control the shapes of nanowires and produce complete electronic devices.
Combining top-down and bottom-up approaches, new low-cost method could be a boon to research with a variety of applications.
Method holds promise for making two- or three-tier graphene films that could be used for new electronic devices.
MIT-designed nanoparticles communicate with each other inside the body to target tumors more efficiently.'
Succeeds Grimson as leader of MIT's largest academic department
New sensor developed by MIT chemical engineers can detect tiny traces of explosives.
New MIT particles could be used to deliver cancer drugs to nearly any type of tumor.