Neutrinos hint at why antimatter didn’t blow up the universe
From New Scientist, July 4, 2016: A new result from the NOvA and T2K experiments sheds light on the matter/antimatter imbalance in the early universe.
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From New Scientist, July 4, 2016: A new result from the NOvA and T2K experiments sheds light on the matter/antimatter imbalance in the early universe.
The 27th International Conference on Neutrino Physics and Astrophysics, commonly called Neutrino 2016, will bring together scientists from experiments around the world. Scientists working with the U.S. Department of Energy’s Fermi National Accelerator Laboratory will give numerous presentations at Neutrino 2016 and unveil some significant results.
Project Poltergeist led to the discovery of the ghostly particle. Sixty years later, scientists are confronted with more neutrino mysteries than ever before.
Neutrinos are a puzzling mixture of three flavors and three masses. Scientists want to measure it down to the last drop.
Simulations are key to showing how neutrinos help stars go supernova.
From Cosmos Magazine, May 19, 2016: The most elusive particles in the universe – neutrinos – might not stay hidden for much longer. Testing for the Deep Underground Neutrino Experiment, or DUNE, began earlier this year.
Physicists up and down the Western Hemisphere are fans of neutrinos, and experiments to study the subtle particle are flourishing at Fermilab and throughout Latin America.
On April 27, Fermilab broke ground on the building that will house the future Short-Baseline Near Detector. The particle detector is one of three that, together, Fermilab scientists and collaborators will use to search for the sterile neutrino.
The recently installed ANNIE neutrino experiment at Fermilab will use a new kind of detector to get a fine-grain view of neutrino-nucleon interactions.
One: The Deep Underground Neutrino Experiment will look for more than just neutrinos.