This breakthrough in two-dimensional layers could lead to better data storage technologies and new insights into how magnets work at tiny scales.

This discovery of a stable silicon version of an aromatic compound could open new paths to advanced materials and catalysts in chemistry and industry.

A MIT team created logic gates using large molecules that carry electricity (conductive polymers) instead of semiconductors.

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.

Researchers at the University of Hong Kong create soft transistors that mimic brain cells, opening new ways to blend electronics with living tissues for health and tech advances.

Scientists create adaptable tiny devices using ruthenium molecules that can switch functions for better AI hardware, blending chemistry with brain-inspired technology for efficient information processing.

Scientists precisely attach organic rings that hold metals to narrow carbon strips, creating systems that combine magnetism, light emission, and sensing for quantum applications.

The advance uses a new three-dimensional transistor structure to raise computing performance and reduce energy use in future electronic systems.

Researchers have discovered a specific method to predict which layered materials can be successfully turned into thin sheets for use in flexible and printable electronic devices.

Scientists at Oregon State University have built a single device that detects light, stores information, and adjusts memory strength electronically, offering a path to faster and lower-power artificial intelligence systems.