Noninvasive imaging method can penetrate deeper into living tissue
Using high-powered lasers, this new method could help biologists study the body’s immune responses and develop new medicines.
Using high-powered lasers, this new method could help biologists study the body’s immune responses and develop new medicines.
This new device uses light to perform the key operations of a deep neural network on a chip, opening the door to high-speed processors that can learn in real-time.
Researchers are leveraging quantum mechanical properties to overcome the limits of silicon semiconductor technology.
By snugly wrapping around neurons, these devices could help scientists probe subcellular regions of the brain, and might even help restore some brain function.
By emulating a magnetic field on a superconducting quantum computer, researchers can probe complex properties of materials.
“MouthIO” is an in-mouth device that users can digitally design and 3D print with integrated sensors and actuators to capture health data and interact with a computer or phone.
By fabricating semiconductor-free logic gates, which can be used to perform computation, researchers hope to streamline the manufacture of electronics.
The technique leverages quantum properties of light to guarantee security while preserving the accuracy of a deep-learning model.
Lightwave electronics aim to integrate optical and electronic systems at incredibly high speeds, leveraging the ultrafast oscillations of light fields.
Mechatronics combines electrical and mechanical engineering, but above all else it’s about design.
Electronic waste is a rapidly growing problem, but this degradable material could allow the recycling of parts from many single-use and wearable devices.
The work on excitons, originating from ultrathin materials, could impact future electronics and establishes a new way to study these particles through a powerful instrument at the Brookhaven National Laboratory.
Ultrathin material whose properties “already meet or exceed industry standards” enables superfast switching, extreme durability.
This tiny, biocompatible sensor may overcome one of the biggest hurdles that prevent the devices from being completely implanted.
The newly synthesized material could be the basis for wearable thermoelectric and spintronic devices.