In the news – DUNE media

From Science, April 15, 2020: Neutrinos behave differently from their antimatter counterparts, antineutrinos, report physicists on the T2K experiment. The result is far from conclusive, but the asymmetry, known as CP violation, could help explain how the newborn universe generated more matter than antimatter. NOvA spokesperson Patricia Vahle of William & Mary comments on the T2K result and NOvA’s measurements of CP violation. When the international Deep Underground Neutrino Experiment, hosted by Fermilab, comes online, it will be able to make more precise measurements of neutrinos’ behavior.

From New Scientist, April 15, 2020: Differences between matter and antimatter, called CP violation, have been measured in some particles, called quarks, but the level isn’t nearly enough to explain the observed imbalance between matter and antimatter. The T2K collaboration has observed hints that CP violation in neutrinos may be able to make up the difference. DUNE spokesperson Ed Blucher of the University of Chicago comments on the result.

From Nature, April 15, 2020: In a mirror world, antiparticles should behave in the same way as particles. But it emerges that neutrinos, electrons and their more exotic cousins might not obey this expected pattern. Fermilab scientist Jessica Turner and Durham University scientist Silvia Pascoli provide a commentary on T2K’s recent neutrino result, CP violation, and how other neutrino experiments, including the international Deep Underground Neutrino Experiment, hosted by Fermilab, will make more precise measurements of the mysterious neutrino’s behavior.

From The New York Times, April 15, 2020: An international team of 500 physicists from 12 countries, known as the T2K collaboration, reported that they had measured a slight but telling difference between neutrinos and their opposites, antineutrinos. Fermilab Deputy Director Joe Lykken comments on the result and how the international Deep Underground Neutrino Experiment, hosted by Fermilab, may be able to make a definitive discovery of CP violation.

From eldogomes.com.br, March 10, 2020: Durante a comissão, as delegações dos EUA e do Brasil adotaram um plano de trabalho para aprimorar a já excelente cooperação em STEAM. A FAPESP e a Fermilab assinaram um memorando de entendimento para aprofundar a cooperação científica e técnica em Física de Altas Energias. A Unicamp e Fermilab também assinaram um acordo de pesquisa e desenvolvimento cooperativo para o sistema criogênico LNBF de última geração.

From Brazilian Space, March 10, 2020: Durante a 5ª Comista, os dois países adotaram um Plano de Trabalho em Ciência e Tecnologia para o período de 2020 a 2023. Também foram firmados acordos de cooperação na área de cooperação científica em Física de Partículas de Alta Energia entre o Fermilab e a Fundação de Amparo à Pesquisa do Estado de São Paulo e outro acordo na mesma área entre o Fermilab e a Universidade de Campinas.

From Black Hills Pioneer, Feb. 19, 2020: Data from the Deep Underground Neutrino Experiment could help physicists explain the origin of matter, witness a never-before-seen particle decay and better understand how black holes form in space. To prepare for this groundbreaking science, a major construction project is under way to ready the Sanford Underground Research Facility for its role as the far site of Fermilab’s Long-Baseline Neutrino Facility.

From Labmate, Feb. 19, 2020: UK Research and Innovation representatives and the U.S. Department of Energy have signed an agreement outlining £65 million in contributions by UK research institutions and scientists to the international Deep Underground Neutrino Experiment and related projects hosted by Fermilab.

From Cambridge Network, Feb. 3, 2020: Representatives from UK Research and Innovation and the US Department of Energy have signed an agreement that outlines £65 million worth of contributions that UK research institutions and scientists will make to the international Deep Underground Neutrino Experiment and related projects hosted by Fermilab. DUNE will study the properties of mysterious particles called neutrinos, which could help explain more about how the universe works and why matter exists at all.

From Quanta Magazine, Nov. 13, 2019: Fermilab physicist Stephen Parke, University of Chicago physicist Xining Zhang and Brookhaven National Laboratory physicist Peter Denton wanted to calculate how neutrinos change. They ended up discovering an unexpected relationship between some of the most ubiquitous objects in math.