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The future of artificial intelligence is no longer being decided only in laboratories of algorithmic design. It is also being decided in wafer fabs, high-voltage grids and server rooms.

New ferroelectric NAND flash technology withstands extreme radiation to support artificial intelligence data processing on spacecraft far from Earth.

Scientists from the University of Ottawa and MIT review more than 20 years of research and identify pathways to room-temperature devices that could make electronics faster and more energy efficient.

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

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 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.

New memory technology promises faster, more efficient AI with stable performance across a temperature range.

Scientists achieve a breakthrough by combining electronics, light manipulation, and quantum effects on a single semiconductor chip to produce stable quantum light for advanced technologies.

Researchers at the University of Southern California develop a memristor that functions at 700 degrees Celsius, far beyond the limits of conventional electronics.