An EPFL device spreads high voltage along its length instead of letting it pile up at one weak point, while keeping resistance low.

A reconfigurable silicon ring turns a steady laser into one-way optical pulses and uses a weak return beam to excite, quiet, or synchronize a neighbor.

DOE, Oak Ridge produce ultra-enriched silane for quantum computers. Silicon-28, germanium-74 isotopes boost qubit coherence, securing domestic quantum supply chain.

Elon Musk's AI startup gets more money than planned, including from chipmaker Nvidia, to speed up its work on powerful data centers.

Edinburgh physicists show that carefully shaped magnetic pulses could bring memory chips much closer to the lowest energy cost allowed by physics.

A breakthrough in low-power, high-efficiency neural processing for generative AI clouds.

Scientists built an AI-powered spectrometer smaller than a grain of sand, replacing bulky optical hardware with neural networks to analyze light and chemical signatures on a tiny silicon chip.

Researchers create a semiconductor that copies how brain cells adjust to repeated signals, improving energy use and reliability in artificial intelligence systems.

Researchers at TU Wien create a silicon-germanium transistor by doping the oxide layer, leading to smaller, faster devices that save energy and suit quantum chips.

Scientists find that small bends in flat materials can keep electron spins stable, leading to smaller and more efficient devices for future computing.