In the news

Big Picture Science discusses the breakthroughs around the detection of cosmic neutrinos with Kate Shaw, experimental particle physicist at the University of Sussex who works on DUNE.

Wisconsin Public Radio interviewed Francis Halzen on winning the Nobel Prize in Physics and the importance of neutrino research.

A more precise result can expose a new problem or resolve an apparent discrepancy. That is the case with the Muon g-2 experiment with the most precise measurement of the muon and with the mass of the W boson.

Researchers from the Fermilab-led SQMS Center identified material and fabrication features associated with variations in superconducting qubit performance. It is one of the most comprehensive studies ever conducted, linking materials and their structures to variations in quantum device performance.

Two new awards will expand Fermilab’s critical role in the Genesis Mission by developing custom microelectronics and advancing quantum information science.

Fermilab is joining Microsoft Quantum as an initial partner in a new quantum hardware makerspace at Microsoft’s quantum research center in the University of Maryland’s Discovery District. As part of its broader collaboration with Microsoft, the QICK kit will have expanded tools to broaden access to quantum-control technologies across hardware platforms.

A profile on Brendan Casey, a senior scientist at Fermilab and member of the Muon g-2 collaboration, by his alma mater University of Mary Washington.

Researchers from all over the world gathered recently at Unicamp for the Dune Collaboration Meeting to to discuss progress of the Dune Project led by Fermilab.

Crews at the Sanford Underground Research Facility have moved about 39% of the I-beam steel needed to construct the cryotat for the Deep Underground Neutrino Experiment. That represents nearly 2 million pounds of steel that completely fills the south cavern that is 500 feet long, 65 feet wide, and about 7 stories tall.

Bosonic quantum error-correction devices at Fermilab’s SQMS Center use multiple quantum states within harmonic oscillators, a departure from traditional two-level qubit systems and a potential pathway to increased fault tolerance.