Fermilab features

Mingzhi Shen’s career started in finance. Then he discovered that he enjoyed working with numbers in a different way, and he joined Fermilab as a network analyst.

Come and hear McDonald talk about how deep underground experiments help address fundamental questions about neutrino properties and search for dark matter, which makes up 26% of our universe.

On Nov. 14, Fermilab held a ceremony to break ground on a new beamline for the Long-Baseline Neutrino Facility. Members of U.S. Congress from Illinois sent their congratulations to Fermilab, LBNF/DUNE collaborators and the Department of Energy via short video messages. View the three videos.

What began as an experiment in a nine-ounce cup of water has been developed into a full-scale technology that recently became a finalist for a 2019 R&D 100 Award. Achieving the honor was E-MOP™ — electromagnetic oil spill remediation technology — developed from patents owned by Fermilab. The technology uses materials that are environmentally safe, reusable and natural.

In October, leaders of the Deep Underground Neutrino Experiment met with a delegation in the country of Georgia to discuss possible collaboration on the experiment’s near-site particle detector at Fermilab.

The Accelerator Neutrino Neutron Interaction Experiment, equipped with a novel light detection technology and water enhancement that distinguish it from other high-energy neutrino experiments, will start taking data next month.

ADMX has ruled out a region where a hypothetical dark matter particle called an axion could have been hiding. The new results are drawn from four times more data than the previous results and will serve as an important guide for other experiments on where to look for this elusive particle.

Five Fermilab scientists, along with their partners at other national laboratories, universities and in industry, are recognized for advancing accelerator technologies for fundamental science and everyday applications.

Fermilab scientist Alexey Burov has discovered that accelerator scientists misinterpreted a certain collection of phenomena found in intense proton beams for decades. Researchers had misidentified these beam instabilities, assigning them to particular class when, in fact, they belong to a new type of class: convective instabilities. In a paper published this year, Burov explains the problem and proposes a more effective suppression of the unwanted beam disorder.

The Deep Underground Neutrino Experiment will tackle some of the biggest mysteries in physics — and to do so, it will need the most intense high-energy beam of neutrinos ever created. Engineers are up to the complicated task, which will need extreme versions of some common-sounding ingredients: magnets and pencil lead.