@informaq.bsky.socialHarvard researchers achieved a 3.2× extension of silicon-vacancy qubit dephasing time using continuous acoustic fields instead of microwave pulses, enabling coherence protection compatible with phononic cavity networks for quantum information storage.
@xeedq-gmbh.bsky.socialYou build affordable quantum computers by working with the physics you have, not fighting it.
@xeedq-gmbh.bsky.socialFull paper linked in the comments.
(“Paper, Decoded” is a series where we unpack the physics papers that shaped how XeedQ's quantum computers actually work, one landmark study at a time.)
@xeedq-gmbh.bsky.socialAt XeedQ, we're pursuing methods aimed at sub-10 nm — turning a supposed dead end into a roadmap.
Solving readout at scale is part of making quantum hardware something the whole field can build on.