Attributed metadata history
Up to 100 retained publisher events per page for 95264bc7ed8f53333b9516d7dea7ee8b1b7efb3c3e1fb15edda9e823076a03b4. Withdrawals and unavailable references remain attributed to their publishers.
intelligence_src_5dceb224d3618ef333
observed · 2026-10-12 10:19:03 UTC
Researchers at Harvard have demonstrated a way to protect quantum information using microscopic sound waves. By continuously surrounding a diamond-based qubit with mechanical vibrations, they extended its coherence time by roughly threefold. The same phonons could eventually both transmit and protect quantum information, opening the door to compact sound-based quantum networks on chips.
Fingerprint: 41f238b3b1eeea46f293b7bde4ad4f71caa5d2494c96e878f2d58d880678fdce
intelligence_src_5dceb224d3618ef333
observed · 2026-10-12 10:19:03 UTC
available
Fingerprint: ee4471e48e9d6ad5cd7b3b51f38e0f360d1a48bf5bc53484698cc7c758d86df0
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
Researchers at Harvard have demonstrated a way to protect quantum information using microscopic sound waves. By continuously surrounding a diamond-based qubit with mechanical vibrations, they extended its coherence time by roughly threefold. The same phonons could eventually both transmit and protect quantum information, opening the door to compact sound-based quantum networks on chips.
Fingerprint: 41f238b3b1eeea46f293b7bde4ad4f71caa5d2494c96e878f2d58d880678fdce