One-molecule-thick material has big advantages
MIT researchers produce complex electronic circuits from molybdenum disulfide, a material that could have many more applications.
MIT researchers produce complex electronic circuits from molybdenum disulfide, a material that could have many more applications.
New process developed at MIT could enable better LED displays, solar cells and biosensors — and foster basic physics research.
Particles that shut off cancer genes could also allow researchers to screen potential drug targets more rapidly.
Biological structures may help engineers design new materials.
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.
Tiny cylinders help reveal how natural-light-harvesting antennae collect light with exceptional efficiency.
Graphene sheets with precisely controlled pores have potential to purify water more efficiently than existing methods.
MIT team finds new approach to trapping light efficiently in thin-film silicon solar cells.
MIT researchers produce 3-D configurations that could lead to new microchips and other devices.
Pared-down nucleic acid nanoparticle poses less risk of side effects, offers better targeting.
Biennial prizes in astrophysics, nanoscience and neuroscience include a $1 million cash award in each field.
Jing Kong’s research focuses on how to make and control novel forms of thin-film carbon.
Materials science and engineering professor studies nanophotonics and electronics.
Engineers design nanoparticles that deliver high doses of antibiotics directly to bacteria.