Attributed metadata history
Up to 100 retained publisher events per page for 97f972082aee62813269770c2cd95f79ef0b395297e5d78136dddcddc710c7ff. Withdrawals and unavailable references remain attributed to their publishers.
intelligence_src_5dceb224d3618ef333
observed · 2026-10-12 10:19:03 UTC
available
Fingerprint: ee4471e48e9d6ad5cd7b3b51f38e0f360d1a48bf5bc53484698cc7c758d86df0
intelligence_src_5dceb224d3618ef333
observed · 2026-10-12 10:19:03 UTC
Scientists at the University of Chicago have uncovered a surprising quantum state in the layered magnetic material Fe5GeTe2, where huge numbers of electrons move together unusually slowly while remaining quantum coherent. The behavior contradicts existing theoretical predictions about how the material’s magnetism should work and suggests scientists may need to rethink its underlying physics.
Fingerprint: 5bd9828429809b480affd1963d01270ae83587c14936f3d144d3445965604c59
intelligence_src_5664c27502ed6f6dcc
observed · 2026-10-12 10:03:03 UTC
available
Fingerprint: 2da632ad3d12e9a7141064e97894938f80a43739ee76a43c0e15a3401f109989
intelligence_src_5664c27502ed6f6dcc
observed · 2026-10-12 10:03:03 UTC
Scientists at the University of Chicago have uncovered a surprising quantum state in the layered magnetic material Fe5GeTe2, where huge numbers of electrons move together unusually slowly while remaining quantum coherent. The behavior contradicts existing theoretical predictions about how the material’s magnetism should work and suggests scientists may need to rethink its underlying physics.
Fingerprint: 5bd9828429809b480affd1963d01270ae83587c14936f3d144d3445965604c59