The brain power behind sustainable AI
PhD student Miranda Schwacke explores how computing inspired by the human brain can fuel energy-efficient artificial intelligence.
PhD student Miranda Schwacke explores how computing inspired by the human brain can fuel energy-efficient artificial intelligence.
An alternative to massive particle colliders, the approach could reveal insights into the universe’s starting ingredients.
The DIGIT imaging tool could enable the design of quantum devices and shed light on atomic-scale processes in cells and tissues.
Researchers find that design elements of data visualizations influence viewers’ assumptions about the source of the information and its trustworthiness.
Scientists identified how circuit connections in fruit flies tune to the right size and degree of signal transmission capability. Understanding this could lead to a way to tweak abnormal signal transmission in certain disorders.
How the MIT-IBM Watson AI Lab is shaping AI-sociotechnical systems for the future.
Launched in 2008, the program has expanded exponentially and spent $30 million on high-impact research.
To reduce waste, the Refashion program helps users create outlines for adaptable clothing, such as pants that can be reconfigured into a dress. Each component of these pieces can be replaced, rearranged, or restyled.
Enabled by a new high-resolution mapping technique, the findings overturn a long-held belief that the genome loses its 3D structure when cells divide.
After being trained with this technique, vision-language models can better identify a unique item in a new scene.
McRose, an environmental microbiologist, is recognized for researching the ecological roles of antibiotics in shaping ecosystems, agriculture, and health.
A decade-plus alliance between MIT’s AgeLab and Toyota’s Collaborative Safety Research Center is recognized as a key contributor to advancements in automotive safety and human-machine interaction.
Their system uses electrochemically generated bubbles to detach cells from surfaces, which could accelerate the growth of carbon-absorbing algae and lifesaving cell therapies.
In a new study, MIT researchers evaluated quantum materials’ potential for scalable commercial success — and identified promising candidates.
While the Earth’s upper crust recovers quickly from seismic activity, new research finds the mid-crust recovers much more slowly, if at all.