‘Artificial leaf’ makes fuel from sunlight
Solar cell bonded to recently developed catalyst can harness the sun, splitting water into hydrogen and oxygen.
Solar cell bonded to recently developed catalyst can harness the sun, splitting water into hydrogen and oxygen.
New cardiac patch uses gold nanowires to enhance electrical signaling between cells, a promising step toward better treatment for heart-attack patients.
Tiny particles that measure microRNA levels in tissue samples could help diagnose and monitor many diseases.
New MIT technology could lead to better drug delivery and artificial tissues that imitate natural tissue.
New method allows a dramatic boost in capacity for a given weight.
MIT and Harvard researchers are developing a synthetic material to revitalize damaged vocal cords.
Modified carbon nanotubes can store solar energy indefinitely, then be recharged by exposure to the sun.
New MIT-developed materials make it possible to produce photovoltaic cells on paper or fabric, nearly as simply as printing a document.
Method holds promise for making two- or three-tier graphene films that could be used for new electronic devices.
Vaccines that target newly identified viral protein sequences could be more effective than previous efforts.
MIT researchers provide a simple principle to predict which materials will perform best in fuel cells and metal air batteries.
MIT researchers develop a device that combines a solar cell with a catalyst to split water molecules and generate energy.