Fermilab is currently upgrading its accelerator complex to produce the world’s most powerful beam of high-energy neutrinos. To generate these particles, the accelerators will send an intense beam of protons traveling near the speed of light through a maze of particle accelerator components before passing through metallic “windows” and colliding with a stationary target. Researchers are testing the endurance of windows made of a titanium alloy, exposing samples to high-intensity proton beams to see how well the material will perform.
PIP-II Project Director Lia Merminga gives a comprehensive presentation about PIP-II in One West on Jan. 28.
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.
Representatives from UK Research and Innovation and the U.S. Department of Energy 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.
From PBS Space Time, Jan. 6, 2020: Why is there something rather than nothing? The answer may be found in the weakest particle in the universe: the neutrino. In this 10-minute video, PBS Space Time host Matt O’Dowd and Fermilab scientist Don Lincoln explore the mysteries of the neutrino and how Fermilab is tackling them. The elusive neutrino may hold powerful secrets, from the unification of the forces of nature to the biggest question of all: Why is there something rather than nothing?
The first major superconducting section of the PIP-II accelerator has come to Fermilab: the first of 23 cryomodules for the future accelerator. The cryomodules’ job is to get the lab’s powerful proton beam up and moving, sending it to higher and higher energies, approaching the speed of light. This first cryomodule also represents a successful joint effort between Argonne National Laboratory and Fermilab to design and produce a critical accelerator component for the future heart of Fermilab.