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Hector Carranza Jr. of the University of Texas at Arlington has received the prestigious Department of Energy Office of Science Graduate Student Research award, or SCGSR, to conduct his research at Fermilab. DOE awarded the fellowship to 62 students from U.S. universities. He will work on light-mass dark matter searches at the ICARUS neutrino experiment.

The detector for the international Deep Underground Neutrino Experiment will collect massive amounts of data from star-born and terrestrial neutrinos. A single supernova burst could provide as much as 100 terabytes of data. A worldwide network of computers will provide the infrastructure and bandwidth to help store and analyze it. Using artificial intelligence and machine learning, scientists are writing software to mine the data – to better understand supernovae and the evolution of our universe.

Hard to believe you can play pool with neutrinos, but certain neutrino events are closer to the game than you think. These special interactions involve a neutrino — famously elusive — striking a particle inside a nucleus like a billiard ball. MINERvA scientists study the dynamics of this subatomic ricochet to learn about the neutrino that triggered the collision. Now they have measured the probability of these quasielastic interactions using Fermilab’s medium-energy neutrino beam. Such measurements are important for current and future neutrino experiments.

On April 28, baby bison season officially began. The first calf of the year was born in the late morning, and mother and baby are doing well. Fermilab is expecting between 12 and 14 new calves this spring.

An ensemble of soprano, strings, piano and electronics gives voice to the mysterious neutrino in David Ibbett’s latest musical work as Fermilab guest composer. Mapping the waves of neutrino oscillation onto melodies played by the strings, Ibbett sonifies a neutrino phenomenon typically represented in abstract mathematical expressions. Hear the performance and Ibbett’s comments in this four-minute video.

When scientists begin taking data with the Deep Underground Neutrino Experiment in the mid-2020s, they’ll be able to peer 13.8 billion years into the past and address one of the biggest unanswered questions in physics: Why is there more matter than antimatter? To do this, they’ll send a beam of neutrinos on an 800-mile journey from Fermilab to Sanford Underground Research Facility in South Dakota. To detect neutrinos, researchers at several DOE national laboratories, including Fermilab, are developing integrated electronic circuitry that can operate in DUNE’s detectors — at temperatures around minus 200 degrees Celsius. They plan to submit their designs this summer.