Research2 sources
Heat drives electron orbital currents, revealing first experimental evidence of orbital Nernst effect
Phys.org ·
The Brief · written from 2 sources
- Researchers detected heat-driven orbital currents for the first time in oxidized copper films, where temperature gradients generate electron orbital angular momentum.
- The phenomenon is called the orbital Nernst effect; the work was carried out at National Taiwan University and reported in Nature.
- The reported effect is a potential route to harnessing waste heat in spintronic devices.
Why it matters
The result provides first experimental evidence of a heat-to-orbital-angular-momentum effect, which could open a route to using waste heat in future spintronic devices.
Who’s affected
- researchers in spintronics and condensed matter physics
- engineers interested in waste-heat recovery in electronic devices
- #orbital nernst effect
- #spintronics
- #copper films
- #waste heat
- #orbital angular momentum
Researchers at National Taiwan University (NTU) have reported the first experimental evidence of heat-current-driven transverse accumulation of electrons' orbital angular momentum, a phenomenon known as the orbital Nernst effect. The study was recently published in Nature…
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Heat drives electron orbital currents, revealing first experimental evidence of orbital Nernst effect
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Nanowerk Nanotechnology and Emerging Technologies News
Heat-driven orbital currents detected for the first time in copper films