A wireless technique enables a super-cold quantum computer to send and receive data without generating too much error-causing heat.

The method enables a model to determine its confidence in a prediction, while using no additional data and far fewer computing resources than other methods.

“Squeezing” noise over a broad frequency bandwidth in a quantum system could lead to faster and more accurate quantum measurements.

Stacking light-emitting diodes instead of placing them side by side could enable fully immersive virtual reality displays and higher-resolution digital screens.

Their technique could allow chip manufacturers to produce next-generation transistors based on materials other than silicon.

Study shows that if autonomous vehicles are widely adopted, hardware efficiency will need to advance rapidly to keep computing-related emissions in check.

Researchers have demonstrated directional photon emission, the first step toward extensible quantum interconnects.

A new method can produce a hundredfold increase in light emissions from a type of electron-photon coupling, which is key to electron microscopes and other technologies.

Researchers develop a scalable fabrication technique to produce ultrathin, lightweight solar cells that can be seamlessly added to any surface.

New technique could diminish errors that hamper the performance of super-fast analog optical neural networks.