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Collective changes in tiny magnetic textures produce stable artificial synapses at room temperature and could cut the energy used by neural-network operations.

Scientists at Virginia Commonwealth University create a method with nanomagnets and acoustic waves to manage electron spins more precisely for scalable quantum computing.

Chinese scientists achieve electrical control of exchange bias below 10 nanometers—a breakthrough that could revolutionize data storage and spintronic devices.

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.

Researchers develop a thin layer that combines two magnetic forces, slashing power needs for memory in AI and devices by ten times while boosting reliability.

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

Researchers at MIT have invented a transistor using magnetic materials instead of silicon, promising smaller, faster, and more energy-efficient electronic circuits.

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