Feature Stories

The Quantum Instrumentation Control Kit now features updated software and firmware and new companion hardware called QICK box. This Fermilab-developed system combines everything a scientist might need to conduct mind-bending research in a pizza-box-sized case. Expanding on QICK’s ability to drastically improve quantum computer performance, QICK box offers flexibility for users to customize the system to their needs.

A team of Oak Ridge National Laboratory researchers reached a significant milestone by building and testing an entire 6.5-foot turbine blade tip using fully recyclable materials that can withstand lightning voltage. ORNL’s recent demonstration highlighted the possibilities of a new approach to protecting blades using conductive materials or coatings.

Argonne scientists will be part of the new APEX materials research center led by the National Renewable Energy Laboratory (NREL).

ORNL's Peter Fuhr continues pushes boundaries of optical and sensor technology in applications ranging from fighting wildfires to operating the immense floodgates protecting Venice, Italy. Fuhr’s path is marked by an oddball creativity that can’t confine itself to challenges in a single field. No idea is too far out to try out. His many inventions and start-ups before joining ORNL proved his ability to bring bold ideas to life. His influence is likely to be lasting, as his imagination and infectious zeal have driven him to mentor generations of new engineers. 

Mark Kevin Jones is a true Renaissance man in nuclear physics. Throughout his career, he has garnered many accomplishments, and he’s even worn quite a few hats in his three decades at Jefferson Lab. Now, Jones has been recognized for his work by his peers by being named a Fellow of the American Physical Society “For scientific leadership in experimental studies of the fundamental nucleon electromagnetic form factors, including the surprising discovery of significant variation in the large momentum behavior of the proton electric form factor, and for developing new detection systems enabling the studies.”

Check out the second of a two-part series exploring how artificial intelligence helps researchers from around the world perform cutting-edge science with the lab’s state-of-the-art facilities and instruments. In this part you’ll learn how AI is playing a key role in helping SLAC researchers find new galaxies and tiny neutrinos, and discover new drugs.

Check out the first of a two-part series exploring how artificial intelligence helps researchers from around the world perform cutting-edge science with the lab’s state-of-the-art facilities and instruments. In this part you’ll learn how SLAC researchers collaborate to develop AI tools to make molecular movies, speeding up the discovery process in the era of big data.

Particle accelerator scientists have made the measurements, crunched the numbers and consolidated the data on the performance of the brightest electron accelerator for nuclear physics research. In a new study, more than 100 authors have detailed the original and current operating parameters, main systems and subsystems, and capabilities and limits of Jefferson Lab’s main particle accelerator, the Continuous Electron Beam Accelerator Facility (CEBAF).

Throughout its history, the Argonne Hispanic/Latino Employee Resource Group has regularly partnered with local schools in underserved communities, inviting students to visit the lab and inspiring them to build a sustained interest in their STEM studies.

Walt Akers, chief systems engineer for experimental nuclear physics at Jefferson Lab was tasked with creating a 3D-printed model of a section of the Electron-Ion Collider (EIC), a next-generation particle accelerator being built at the DOE’s Brookhaven National Laboratory in partnership with Jefferson Lab. He took his inspiration from toy building blocks.