Q-TAGG: Quantum Trapped-Atom Gravity Gradiometer
ENERGY, DEPARTMENT OF
Place of performance: Los Alamos, NM
Don't lose track of this one
We'll email you once about this listing. No list, no cadence.
Free. Verify your email, then we send one reminder only.
- Posted
- Oct 28, 2026
- Responses due
- Nov 17, 2026 (in 20 days)
Similar opportunities open now
- Quantum Benchmarking Initiative Topic (QBIT) Stage AOpenDEPT OF DEFENSECloses Nov 30, 2026 (in 33 days)
- QBI Topic Independent Verification and Validation (IV&V)OpenDEPT OF DEFENSECloses Dec 30, 2026 (in 63 days)
- QBI 2026OpenDefense Advanced Research Projects Agency (DARPA)Closes Dec 30, 2026 (in 63 days)
- LPS Qubit Collaboratory (LQC)OpenDEPT OF DEFENSECloses Apr 2027
- Quantum Benchmarking Initiative (QBI) 2026 AnnouncementOpenDEPT OF DEFENSECloses Nov 14, 2026 (in 17 days)
See more open contract opportunities like this
Get new bids for the work you do
Choose your keywords and state, then confirm a weekly email alert.
Choose my bid alertAt a glance
This is a government contract opportunity posted by ENERGY, DEPARTMENT OF in the other measuring and controlling device manufacturing category. Work is performed in Los Alamos, NM.
Classification and identifiers
- Industry (NAICS)
- Other Measuring and Controlling Device Manufacturing (334519)
- Product or service (PSC)
- Health R&D Services; Health Care Services; Applied Research (AN12)
- Solicitation number
- S-195094
- Contracting office
- TRIAD - DOE CONTRACTOR
Who can apply
About this opportunity
The Quantum Trapped-Atom Gravity Gradiometer (Q?TAGG), developed at Los Alamos National Laboratory, is a compact sensing platform designed to achieve extended atom interferometer interrogation times without the height required by conventional free?fall instruments. Ultracold atoms remain guided during interferometric evolution, providing a pathway to increased sensitivity within a compact architecture. The platform uses spatially multiplexed sensing, with multiple atomic sensing sites across one or more sensor heads operated under common or phase-referenced interrogation conditions. The resulting site-resolved phase measurements support estimation of spatially varying gravitational signals and differential processing of correlated disturbances. By combining a compact guided-atom architectu...