Creating new opportunities from nanoscale materials
MIT Professor Frances Ross is pioneering new techniques to study materials growth and how structure relates to performance.
MIT Professor Frances Ross is pioneering new techniques to study materials growth and how structure relates to performance.
MIT researchers have demonstrated that a tungsten ditelluride-based transistor combines two different electronic states of matter.
Efficient method for making single-atom-thick, wafer-scale materials opens up opportunities in flexible electronics.
When rotated at a "magic angle," graphene sheets can form an insulator or a superconductor.
Summer Scholar Jennifer Coulter works on computer simulations with associate professor of materials science Alfredo Alexander-Katz.
Four new projects and one renewal receive $150,000 in funding for 2016-2017.
Method to stack hundreds of nanoscale layers could open new vistas in materials science.
Researchers demonstrate room-temperature ferroelectric states in ultra-thin films of tin and tellurium.
Some “forbidden” light emissions are in fact possible, could enable new sensors and light-emitting devices.
By slowing down light to a speed slower than flowing electrons, researchers create a kind of optical “sonic boom.”
Study points the way to new photonic devices with one-way traffic lanes.
Experimental physicist explores the wild frontiers of graphene and other ultrathin materials.
Depositing different materials within a single chip layer could lead to more efficient computers.
Diamond spintronics and graphene-based infrared detectors are among leading-edge technologies reported at annual Materials Day Symposium at MIT.
Jeffrey Grossman applies new materials research to making desalination cheaper and more efficient.