Fabrics are the future
Professor Yoel Fink is helping MIT lead the way in transforming the fabric materials in our lives.
Professor Yoel Fink is helping MIT lead the way in transforming the fabric materials in our lives.
Efficient method for making single-atom-thick, wafer-scale materials opens up opportunities in flexible electronics.
Cost-effective method produces semiconducting films from materials that outperform silicon.
Technique could be used to scale-up self-assembled materials for use as optical sensors, color displays, and light-guided electronics.
“The reason 5G is so different is that what exactly it will look like is still up in the air. Everyone agrees the phrase is a bit of a catch-all.”
Design can “learn” to identify plugged-in appliances, distinguish dangerous electrical spikes from benign ones.
Device uses ultrafast “frequency hopping” and data encryption to protect signals from being intercepted and jammed.
Technique would allow addition of optical communication components to existing chips with little modification of their designs.
Technique could prevent overheating of laptops, mobile phones, and other electronics.
Cutting kirigami-style slits in stretchy films could make for bandages, heat pads, and wearable electronics that adhere to flexible surfaces.
The Tata Center is building a high-efficiency, affordable electric motor that could have a huge impact in India, home to as many as half a billion ceiling fans.
New chip reduces neural networks’ power consumption by up to 95 percent, making them practical for battery-powered devices.
Special-purpose chip reduces power consumption of public-key encryption by 99.75 percent, increases speed 500-fold.
Design is major stepping stone toward portable artificial-intelligence devices.
Assistant professor is honored for her work on energy storage systems and safer, solid-state lithium electrolyte batteries.