Mapping the future of metamaterials
Mechanical metamaterials research demands interdisciplinary collaboration and innovation, say researchers from MechE's Portela Lab.
Mechanical metamaterials research demands interdisciplinary collaboration and innovation, say researchers from MechE's Portela Lab.
A new international collaboration unites MIT and maritime industry leaders to develop nuclear propulsion technologies, alternative fuels, data-powered strategies for operation, and more.
The Tactile Vega-Lite system, developed at MIT CSAIL, streamlines the tactile chart design process; could help educators efficiently create these graphics and aid designers in making precise changes.
With the new system, farmers could significantly cut their use of pesticides and fertilizers, saving money and reducing runoff.
Using tech tools and a human touch, Arthur Bahr sheds light on the original volume containing “Sir Gawain and the Green Knight” and “Pearl.”
Investment in analytics may also benefit college teams and fields beyond sports, a new study shows.
The findings could help planners design safer, more efficient pedestrian thoroughfares.
The research may enable the design of synthetic, light-activated cells for wound healing or drug delivery.
With tinier needles and fewer injections, the approach may enable new options for long-term delivery of contraceptives or treatments for diseases such as HIV.
MIT researchers developed a photon-shuttling “interconnect” that can facilitate remote entanglement, a key step toward a practical quantum computer.
Researchers fuse the best of two popular methods to create an image generator that uses less energy and can run locally on a laptop or smartphone.
“Xstrings” method enables users to produce cable-driven objects, automatically assembling bionic robots, sculptures, and dynamic fashion designs.
A new study finds natural and invented languages elicit similar responses in the brain’s language-processing network.
The system uses reconfigurable electromechanical building blocks to create structural electronics.
MIT engineers developed a way to grow artificial tissues that look and act like their natural counterparts.