NEWS RELEASES

Researchers at the University of Pennsylvania, Brookhaven National Laboratory, and Waters Corporation have revealed that lipid nanoparticles (LNPs) — the delivery vehicles for RNA therapies — come in a surprising range of shapes and structures. Reported in Nature Biotechnology, the study shows that these structural differences directly influence how well LNPs deliver their therapeutic cargo, offering a blueprint for tailoring nanoparticles to specific diseases. The findings open the door to a new era of precision design for RNA medicines, moving beyond today’s trial-and-error approach.

A team of UC Riverside engineering scholars have discovered why a key solid-state battery ceramic material stays remarkably cool during operation — a breakthrough that could help make the next generation of lithium batteries  deliver higher energy density while reducing overheating and fire risks.

Researchers at the UW have created a recyclable, flexible and self-healing composite material that could replace traditional circuit boards in future generations of wearable electronics. 

Inspired by an artist’s stencils, researchers have developed atomic-level precision patterning on nanoparticle surfaces, allowing them to “paint” gold nanoparticles with polymers to give them an array of new shapes and functions. The “patchy nanoparticles” developed by University of Illinois Urbana-Champaign researchers and collaborators at the University of Michigan and Penn State University can be made in large batches, used for a variety of electronic, optical or biomedical applications, or used as building blocks for new complex materials and metamaterials. 

The Princeton Plasma Physics Laboratory will provide critical measurement technology for the world’s largest fusion machine, JT-60SA. It is among the first contributions to the fusion system from an institution outside of Japan and Europe.

Breakthrough from Princeton team reveals exotic quantum state that coherently blends many-body correlation and quantum topology—two key concepts of modern quantum physics in a single material.