University of Utah, National Laboratory of the Rockies partner to advance energy resilience, critical minerals and data-enabled science
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Updates every hour. Last Updated: 31-Oct-2026 08:15 ET (31-Oct-2026 12:15 GMT/UTC)
The agreement enables collaborative research on the country’s most urgent national security and energy priorities, from water security, critical minerals and advanced manufacturing to AI-driven science and high-performance computing. University of Utah President Taylor Randall and NLR Director Jud Virden signed the MOU on May 4 at the NLR facility in Golden, Colorado. The following day, DOE’s Assistant Secretary for Critical Minerals and Energy Innovation Audrey Robertson celebrated the agreement during the laboratory’s annual partner forum, a flagship gathering of energy leaders focused on critical minerals.
Mass General Brigham study tested advanced footwear technology on elite distance runners
Researchers at Mass General Brigham have found that although advanced footwear technology (AFT), commonly known as “super shoes,” may improve performance in elite runners, they also cause subtle changes in running mechanics linked to bone stress injuries. The findings are published in PM&R, the official scientific journal of the American Academy of Physical Medicine and Rehabilitation.
For the first time, scientists at University of Leeds reveal a complex mechanism behind blood clotting.
The findings, published in Science Advances, visualise a key component of blood clotting - platelet myosin – and how it is activated.
Using the powerful cryo-EM technology imaging equipment housed in the University's Astbury Biostructure Laboratory, scientists found key regions of the myosin which are responsible for keeping it inactive. In doing so, they also revealed hotspots for inherited disease mutations, such as bleeding disorders. Mutations in this type of myosin also cause deafness and kidney disorders.
As researchers seek better batteries beyond today’s lithium-ion technology, black phosphorus is drawing growing attention as a high-capacity anode material for lithium-, sodium-, and potassium-ion storage. A new Science Bulletin review examines both the promise and the practical barriers of this material, from structural instability to interfacial degradation, and highlights emerging strategies to address them. The article provides a clear roadmap for developing more durable, scalable, and higher-energy battery anodes for future energy-storage systems.