Scientists optimized wastewater use for green hydrogen production through artificial intelligence
Peer-Reviewed Publication
Updates every hour. Last Updated: 10-May-2026 12:16 ET (10-May-2026 16:16 GMT/UTC)
Scientists from the Departments of Inorganic Chemistry and Chemical Engineering of the University of Malaga participate in an international collaboration which has optimized, through artificial intelligence, the process of producing bio-hydrogen from wastewater.
POSTECH Professor Junsuk Rho’s Team Develops the World’s First Multi-Frequency Elastic Wave Control Technology.
Researchers have re-determined the two-neutron separation energy S2n (0.265–0.656 MeV) by employing the root-mean-square matter radius derived from experimental measurements as a key constraint. Utilizing the three-body Faddeev method, the team revealed a weakly bound system dominated by an s-wave configuration and identified signatures of Efimov-like excited states. This study offers deeper insight into exotic nuclear structure and provides valuable data support for the refinement of astrophysics and nuclear physics models.
On November 2, 2025, the research group led by Dr. Zeng Ling from Army Medical University systematically elucidated the molecular mechanisms, pathological processes, and latest clinical advances in sepsis-induced endothelial barrier dysfunction from the perspective of vascular endothelial cells. This work provides novel insights for precise intervention in sepsis and septic shock. The findings were published in Research under the title "Sepsis-Induced Endothelial Barrier Dysfunction: Mechanisms, Pathology, and Therapeutic Advances" (Research, 2025, Article ID: 0997, DOI: 10.34133/research.0997).
An international research team led by The University of Osaka has demonstrated that two-faced Janus nanoparticles can restore the effectiveness of antibiotics against drug-resistant bacteria. These particles disrupt the protective outer membrane of Gram-negative bacteria, which normally blocks antibiotics. This allows conventional drugs to regain access and kill the once-resistant microbes. This synergistic strategy restores the effectiveness of existing antibiotics, offering a new line of defense against the growing threat of superbugs and extending the utility of our current medical arsenal.
Liquid-liquid phase separation (LLPS) is a unique phenomenon that occurs during crystallization. In a new study, a group of researchers from Doshisha University, Japan, have investigated the non-equilibrium phase behavior of localized LLPS driven by initial solute concentration and antisolvent addition rate in a ternary water/ethanol/butylparaben system. The present findings provide insights that may help regulate LLPS in turn potentially paving the way for improved product quality in the pharmaceutical, agrochemical, and food industries.