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There are an array of experiments, like the Muon g-2 experiment at Fermilab, that are looking to see if an elusive fifth force might be at work.

Rice University recently hosted its first DUNE-TECH camp to prepare students with hands-on experience and training using cutting-edge tools and technologies needed to contribute to the DUNE experiment and to neutrino physics experiments.

Experiments that uncover the possibility of new forces, like the Muon g-2 experiment at Fermilab, might help researchers examine the trajectories of well-documented asteroids in hopes of detecting anomalies that could provide evidence of such a fifth force.

Fermilab directors and technicians were at Unicamp recently as part of the technical visit schedule of the research program for neutrino identification called LBNF/DUNE. The Brazilian team is developing the technology for photodetection of the light generated by the particle detectors and the production of highly pure liquid argon.

As the Quantum Science Center prepares to move forward into the next era of research, QSC Director Travis Humble highlighted the Quantum Instrumentation Control Kit developed at Fermilab as a significant accomplishment.

A NEWTON project is in partnership with Argonne and Fermilab to develop a practical approach to reduce the size and cost of superconducting linear accelerators while simultaneously improving their reliability.

In South Dakota, at SURF, scientists have built three huge tunnels about 1,500 meters below the ground. Here, a massive experiment called DUNE is taking place with more than 1,400 scientists from 35 countries.

When theory and experiment disagree, it could mean new physics. With the recent announcement of the most precise measurement of the magnetic moment of the muon, the anomaly is no more.

Argonne and Fermilab were granted the funding as part of ARPA-E’s Nuclear Energy Waste Transmutation Optimized Now program to design a compact, cost-effective accelerator that can transmute long-lived nuclear waste into safer material.

The SQMS Center is working on reproducible and scalable realization of highly coherent superconducting qubits to open the way to more complex and scalable quantum computing operations. These capabilities could be used in Fermilab’s core particle physics research and fundamental physics more generally over time.