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A better device for measuring electromagnetic radiation
New bolometer is faster, simpler, and covers more wavelengths.
Researchers devise new way to make light interact with matter
Reducing the wavelength of light could allow it to be absorbed or emitted by a semiconductor, study suggests.
A graphene roll-out
Scalable manufacturing process spools out strips of graphene for use in ultrathin membranes.
Timothy Swager receives Vannevar Bush Faculty Fellowship
The fellowship supports top-tier researchers at U.S. universities whose high-risk, high-payoff work is of strategic importance to the Department of Defense.
Insulator or superconductor? Physicists find graphene is both
When rotated at a "magic angle," graphene sheets can form an insulator or a superconductor.
System draws power from daily temperature swings
Technology developed at MIT can harness temperature fluctuations of many kinds to produce electricity.
New nanowires are just a few atoms thick
Subnanometer-scale channels in 2-D materials could point toward future electronics, solar cells.
Celebrating Millie
Symposium commemorates the life and career of pioneering professor and beloved mentor Mildred Dresselhaus.
Researchers develop flexible, stretchable photonic devices
Light-based devices could be used as biomedical sensors or as flexible connectors for electronics.
Interdisciplinary materials science a key to progress
Bringing together researchers from different science and engineering fields for Materials Day Symposium promises solutions to energy, health, and other needs.
Why researchers should step out of the lab
Project reveals benefits of communicating with industry when conducting research.
The Engine announces investments in first group of startups
New venture launched by MIT will support “tough-tech” companies at work on transformative ideas that take time to commercialize.
Glassy carbon, now with less heat
Carbon nanotubes lower the transformation temperature of glassy carbon, possibly aiding manufacturers, MIT researchers report.
Experiments confirm theory of “superballistic” electron flow
Behaving like particles in a viscous fluid can help bunches of electrons squeeze through a tight space.