In Physics of Fluids, researchers propose a novel system that uses standing surface acoustic waves to separate circulating tumor cells from red blood cells with unprecedented precision and efficiency. The platform integrates advanced computational modeling, experimental analysis, and artificial intelligence algorithms to analyze complex acoustofluidic phenomena. The researchers included an innovative use of dualized pressure acoustic fields and strategically located them at critical channel geometry positions on a lithium niobate substrate. By means of acoustic pressure applied within the microchannel, the system design provides for the generation of reliable datasets.

Researchers from Kyushu University, Japan have revealed how a special type of force within an atom’s nucleus, known as the three-nucleon force, impacts nuclear stability. The study, published in Physics Letters B, provides insight into why certain nuclei are more stable than others and may help explain astrophysical processes, such as the formation of heavy elements within stars.

Researchers at the Terasaki Institute for Biomedical Innovation have developed an innovative delivery system that could significantly improve the effectiveness of peptide-based cancer vaccines, according to a new study published in Advanced Functional Materials. The breakthrough centers on a new class of materials called lipopeptide hydrogels (LPHs), which show promise in boosting immune responses and possess adjuvant-like properties.

A new class of lipids developed by Penn Engineers improve the rates at which lipid nanoparticles (LNPs) successfully deliver RNA therapeutics and gene editing tools, promising to increase their effectiveness of such treatments.

How fast the level of atmospheric carbon dioxide — and with it, the temperature — goes up matters for the ability of humans and ecosystems to adjust. A slower increase gives humans time to move away from low-lying coasts and animals time to move to new habitats. It turns out the rate of that increase matters for non-living systems, too. Camille Hankel, a postdoctoral researcher at the Cooperative Institute for Climate, Ocean and Ecosystem Studies, discusses her recent paper on Atlantic Ocean circulation.

What if you could break apart a network like grating cheese—isolating its most crucial elements, fragmenting it into disconnected pieces to reveal where disruptions would be most devastating? That’s the power of fitness centrality, a new method introduced by researchers at the Complexity Science Hub (CSH) in a recent study published in Journal of Physics: Complexity.