Korea Institute of Machinery & Materials (KIMM) has developed magnetic 3D printing technology capable of manufacturing high-performance motors, a first in South Korea. By developing dedicated magnetic material 3D printing equipment and specialized designs, the technology enables the creation of complex motor structures without molds.

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. 

Pennington Biomedical Research Center’s Dr. Steven Heymsfield and Dr. Peter Katzmarzyk are among the most influential researchers in the world who demonstrate significant and broad influence in their fields, according to Clarivate Analytics’ 2024 List of Highly Cited Researchers.

This honor highlights researchers whose work has had significant global influence, as evidenced by their exceptional citation records in leading scientific publications. The 2024 Highly Cited Researchers hail from more than 1,200 institutions in 59 nations and regions.

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.”

Chemistry researchers at the University of Cincinnati are developing better biosensors they hope will replace diagnostics such as the nearly 1 billion COVID tests distributed to homes in the United States during the pandemic.