The Idaho National Laboratory (INL) is the hub of collaboration among Western states to advance nuclear energy. This effort, anchored in legislative frameworks, strategic investments, collaborations and partnerships, is positioning the region as a leader in nuclear innovation.

Korean researchers won second place at the Semantic Segmentation International Challenge at ICRA 2025, the world’s most prestigious robotics conference. This raises expectations for the researchers’ performance in the field of future robot eyes that see through images.

Researchers from the UCLA Broad Stem Cell Research Center have received a $3.5 million grant from the National Institutes of Health to study and develop treatments for mpox. 

Although only a handful of cases from a new, more infectious strain of mpox have been reported in the U.S. so far, primarily in travelers, experts say the virus is rapidly evolving in ways that could eventually make it far more dangerous and widespread. 

With this new grant, the UCLA-led team will work toward three goals: 

Understanding how mpox virus spreads and causes injury within skin and eye tissue through studies using human stem cell-based models.

Identifying the genetic mutations that are making newer strains of mpox virus more infectious and lethal.

Developing new classes of antiviral drugs to treat mpox infection and stop viral transmission.

The Texas A&M University Cyclotron Institute-led medical isotope program has perfected routine production and distribution of astatine-211, a short-lived alpha-emitting radioisotope that shows promise as a strategic therapeutic weapon against cancer.

Instead of a tempest in a teapot, imagine the cosmos in a canister. Scientists have performed experiments using nested, spinning cylinders to confirm that an uneven wobble in a ring of electrically conductive fluid like liquid metal or plasma causes particles on the inside of the ring to drift inward. Since revolving rings of plasma also occur around stars and black holes, these new findings imply that the wobbles can cause matter in those rings to fall toward the central mass and form planets.

The scientists found that the wobble could grow in a new, unexpected way. Researchers already knew that wobbles could grow from the interaction between plasma and magnetic fields in a gravitational field. But these new results show that wobbles can more easily arise in a region between two jets of fluid with different velocities, an area known as a free shear layer.