Graphene’s behavior depends on where it sits
New findings show that the material beneath the thin carbon sheets determines how they react chemically and electrically.
New findings show that the material beneath the thin carbon sheets determines how they react chemically and electrically.
Researchers find new method for making spherical particles, from nanoscale to pinhead-sized — including complex beach-ball-like shapes.
Graphene sheets with precisely controlled pores have potential to purify water more efficiently than existing methods.
New type of photovoltaic device harnesses heat radiation that most solar cells ignore.
Jing Kong’s research focuses on how to make and control novel forms of thin-film carbon.
Thin films of bismuth-antimony have potential for new semiconductor chips, thermoelectric devices.
Donald Sadoway’s radical rethinking of electricity storage could revitalize renewable-power technologies.
Surface coatings developed by MIT researchers could inhibit buildup of methane hydrates that can block deep-sea oil and gas wells.
Technology developed at MIT can control the composition and structure of these tiny wires as they grow.
Strengthens core, opens boundaries; seeks better integration of technical and societal issues.
Finding could lead to new photodetectors or energy-harvesting devices.
MIT simulation accurately reconstructs pipe fractures formed in the 2010 Deepwater Horizon accident.
Method holds promise for making two- or three-tier graphene films that could be used for new electronic devices.
New sensor developed by MIT chemical engineers can detect tiny traces of explosives.