In the quantum realm, getting electrons to march to the same beat is famously ...
In most everyday materials, such as copper, silver and silicon, the behavior of electrons is relatively predictable. In ...
A research team from NIMS, Tohoku University and AIST has developed a new technique for controlling the nanostructures and magnetic domain structures of iron-based soft amorphous ribbons, achieving ...
Modern electronics are a far cry from what Michael Faraday, the pioneer of electrical gadgetry, can ever have imagined possible. But he’d surely be pleased, if only because the magnet, the component ...
New processing tunes nanostructure and magnetic domains in iron-based amorphous ribbons, cutting core loss by over 50% for high-frequency power electronics. (Nanowerk News) In power electronics - the ...
Decades ago, the entrance to the somewhat sleepy Francis Bitter National Magnet Lab at MIT was decorated with a movie poster from The Magnetic Monster, a 1953 American science fiction film. Since then ...
“Magnets, how do they work?” asked Insane Clown Posse, a hip-hop duo, in their 2009 song “Miracles”. A flurry of recent papers suggests physicists did not quite have the full picture either. A new ...
Magnetocaloric materials exhibit a reversible temperature change under varying magnetic fields, a phenomenon known as the magnetocaloric effect (MCE). This effect stems from the coupling between ...