Quantum information breaks the rules of classical information in a way that could allow us to answer questions that a classical computer cannot.
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Quantum computers go beyond the binary.
Inventions like the transistor and laser changed the world. What changes will the second quantum revolution bring?
From Wonderful Engineering, January 10, 2022: A video trip of the 17-ton superconducting magnet ring designed to be the focal point of Fermilab’s Muon g-2 subatomic particle experiment that was moved from Brookhaven, New York to Batavia, Illinois.
Uncertainty, entanglement, spooky action: On the quantum scale, the universe doesn’t work the way you might expect.
This month, Symmetry presents a series of articles on the past, present and future of quantum research—and its many connections to particle physics, astrophysics and computing.
From Engineering Update, January 6, 2022: Illinois-based Caldwell Group Inc. has customized a lifting frame that may be used in the summer of 2022 during transatlantic transportation of cryomodules to Fermilab for the Proton Improvement Program II (PIP-II) project. STFC-UKRI in the UK designed and assembled the lifting frame to meet impact, vibration, lifting, and transport load requirements in both the United States and Europe.
From The Big Think, January 6, 2022: Particle physics needs a new collider to supersede the Large Hadron Collider. Muons, not electrons or protons, might hold the key.
From Business AM (Belgium), January 1, 2022: In 2021, physicists around the world conducted some interesting experiments examining the Standard Model and ways it can’t explain every mystery of the universe. Last April, members of the Muon g-2 experiment at Fermilab announced their first measurement of the muon’s magnetic moment. This experiment was important was because the measurement did not perfectly match the Standard Model’s prediction of the magnetic moment.
Physicists are revisiting what they previously assumed about how dark matter interacts with itself.