✓ Loading an atomic array of 1,200+ qubits.
✓ Keeping an atomic array fully populated with #qubits.
✓ Solving a major technical challenge for #quantumcomputers that use neutral atoms as qubits.
rb.gy/nuqvlg
Our peer-reviewed paper on mid-circuit measurement dropped! This represents another step toward fault-tolerant #quantum computing.
Phys. Rev. X 13, 041034 (2023) - Midcircuit Qubit Measurement and Rearrangement in a $^{171}\mathrm{Yb}$ Atomic Array (aps.org)
1,180 qubits and counting!
Today, we became the first company developing universal, gate-based #quantum computers to exceed the 1,000-qubit threshold. Learn more about this accomplishment and our quest to build a fault-tolerant #quantumcomputer.
atom-computing.com/quantum-s…
The☀️summer of #quantum! @QSAcenter welcomed high school students & teachers in New Mexico & California for QCaMP this past June. In its 2nd year w/ numerous partners & sponsors, QCaMP is already launching new educational pathways in a fast-growing field.🙌bit.ly/QCaMP
ALT QCaMP teacher cohort Summer 2023 (Credit: Sandia Labs)
ALT QCaMP student cohort Summer 2023 (Credit: Sandia Labs)
Mid-circuit measurement is a critical capability for developers and achieving fault-tolerant quantum computing. It provides a glimpse inside a calculation, enabling developers to use conditional branching to determine which actions to take based on results of the measurement.
Here are links to the arXiv papers: *Mid-circuit qubit measurement and rearrangement in a $^{171}$Yb atomic array (arxiv.org) *Mid-circuit operations using the omg-architecture in neutral atom arrays (arxiv.org)