Generative AI improves a wireless vision system that sees through obstructions
With this new technique, a robot could more accurately detect hidden objects or understand an indoor scene using reflected Wi-Fi signals.
With this new technique, a robot could more accurately detect hidden objects or understand an indoor scene using reflected Wi-Fi signals.
From early motion-sensing platforms to environmental monitoring, the professor and head of the Program in Media Arts and Sciences has turned decades of cross-disciplinary research into real-world impact.
MIT researchers created microscopic wireless electronic devices that travel through blood and implant in target brain regions, where they provide electrical stimulation.
The technology would allow battery-free, minimally invasive, scalable bioelectronic implants such as pacemakers, neuromodulators, and body process monitors.
Professors Facundo Batista and Dina Katabi, along with three additional MIT alumni, are honored for their outstanding professional achievement and commitment to service.
You can adjust the frequency range of this durable, inexpensive antenna by squeezing or stretching its structure.
The flexible chip could boost the performance of current electronics and meet the more stringent efficiency requirements of future 6G technologies.
By leveraging reflections from wireless signals like Wi-Fi, the system could allow robots to find and manipulate items that are blocked from view.
Researchers designed a tiny receiver chip that is more resilient to interference, which could enable smaller 5G “internet of things” devices with longer battery lives.
By performing deep learning at the speed of light, this chip could give edge devices new capabilities for real-time data analysis.
Researchers share the design and implementation of an incentive-based Space Sustainability Rating.
Researchers developed a scalable, low-cost device that can generate high-power terahertz waves on a chip, without bulky silicon lenses.
A new low-power system using radio frequency waves takes a major step toward autonomous, indoor drone navigation.
As part of a high-resolution biosensing device without wires, the antennas could help researchers decode intricate electrical signals sent by cells.
By snugly wrapping around neurons, these devices could help scientists probe subcellular regions of the brain, and might even help restore some brain function.