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Fermilab researchers have provided expertise and leadership in developing an open-source framework that enables the design of hardware capable of making split-second decisions. These advances aim to prioritize the enormous volumes of data produced by some of humanity’s most ambitious physics experiments.
Deep inside a converted gold mine in South Dakota, researchers are tackling a colossal engineering challenge — building massive, super-cooled containers to hold liquid argon for a flagship physics experiment hosted by Fermilab for the international DUNE collaboration.
Construction of a laser laboratory that will house state-of-the-art lasers necessary to run the experiment’s 100-meter atom interferometer is complete. This is an important step in building a quantum sensing device capable of seeing tiniest of signals emanating from the farthest reaches of the universe to discover new physics phenomena.
Magnetic resonance imaging, commonly known as MRI, is a cornerstone of modern medical diagnostics. Now, a collaboration from Fermilab and NYU Langone Health, both partners in the Superconducting Quantum Materials and Systems Center, takes this technology a step further with Quantitative MRI.
Gray Putnam, James Mott, Lauren Yates and Chris Jensen are this year’s recipients of the URA Honorary Awards. The awards are presented each year to recognize significant contributions to research at Fermilab.
Throughout this year, Fermilab’s dedicated scientists, engineers, technicians and operations staff came together to drive discoveries, advance American innovation and prepare the lab for a bright future.
The experiment demonstrated the power of liquid-argon time projection chamber technology for neutrino research, and to date, the collaboration has published more than 80 scientific papers, helping lay the foundation for Fermilab’s neutrino research program.
Fermilab is hosting a national symposium that brings together experts from across the quantum information science community. The event comes as the United States expands its leadership in quantum technology and underscores Fermilab’s increasing emphasis on QIS research.
Scientists at Fermilab and Caltech have demonstrated the feasibility of their method of using squeezed light to dramatically increase the rate at which quantum networks can generate entangled particle pairs over long distances. This advance addresses a critical bottleneck in building large-scale quantum networks.
In its quest to understand why matter exists, the flagship neutrino experiment hosted by Fermilab is constructing an enormous next-generation liquid-argon-based detector a mile underground. The Deep Underground Neutrino Experiment is building on the successes of previous liquid-argon experiments, promising measurements of unprecedented precision over a wide range of energies that will bring significant new insights into the nature of the universe.