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To detect the rare and subtle interactions of dark matter with ordinary matter, the particle detectors for the SuperCDMS experiment must be cooled to temperatures near absolute zero and surrounded by ultrapure copper. From the mine all the way to deployment at SNOLAB, researchers are going to great lengths to ensure the purity of the copper.
For five years, a recycled MRI magnet has provided strong magnetic fields for cross-calibration and testing of equipment used in major physics experiments, including the Muon g-2 and Mu2e Fermilab experiments.
Scientists working on experiments at the LHC are continually refining our understanding of the fundamental constituents of our universe. Every measurement, every new, uncovered facet of a subatomic particle comes only after a thorough and rigorous analysis of the data. The way they access that data may soon get an upgrade at Fermilab, where CMS collaborators recently installed a new solid-state technology at its computing facility. The technology will complement the standard spinning-disk hard drives that have been the dominant computer storage devices for the last several decades.
All summer long, progress on preparing the Fermilab site for the construction of the Long-Baseline Neutrino Facility has been proceeding at a healthy clip. Now, as summer winds down, that site prep is nearing completion.
Here’s how physicists calculate g-2, the value that will determine whether the muon is giving us a sign of new physics.
A precise calibration for measurements of electric current has long eluded scientists. Last year, the ampere was redefined based on the charge of a single electron. The next generation of charge-coupled devices, known as skipper CCDs, could provide the sensitivity needed to calibrate the new definition.
Fermilab joins the global celebration of Dark Matter Day. Hear from Fermilab scientists during a special webinar on Saturday, Oct. 31, at 1 p.m. CT. Take a virtual tour of the lab’s dark matter experiments and detectors, and learn how Fermilab is helping answer questions about the mysterious stuff that makes up 25% of our universe.
Bernstein is overseeing the Fermilab Mu2e experiment as it moves from its construction to installation phase and into a running experiment. A collaboration of nearly 250 scientists at 40 institutions that had to invent technology to get to this point, Mu2e is in an exciting phase, especially for early-career researchers who will not only construct the experiment, but also analyze the data.
The red supergiant Betelgeuse is one of the best candidates for a nearby supernova in the coming decades. The star’s proximity to Earth would present a unique opportunity for studying the physics of supernovae and neutrinos. If Betelgeuse does explode, DUNE will be ready.
Next week, scientists with connections to U.S. particle physics will make their morning coffee, boot up their computers and log in to a virtual community planning meeting with over 1,500 colleagues. The four-day gathering will set the stage for a process known as Snowmass, during which scientists will develop a collective vision for the next decade of U.S. particle physics research. The Snowmass process seeks to identify the most promising questions to explore in future research.