New study has unveiled a new method to cost-effectively and practically test for “forever chemicals” in water.

In a recent article, researchers from the University of Jyväskylä, Finland, emphasize the importance of multiscale modeling of catalysis in understanding and developing (electro)chemical processes. Modern computational tools enable the examination of catalytic reactions from the atomic level to the reactor scale, opening up new possibilities for predicting and designing complex chemical processes.

The Yong Loo Lin School of Medicine, National University of Singapore (NUS Medicine) today announced a research partnership with MitoQ New Zealand to examine the potential role of MitoQ® (mitoquinol mesylate), a mitochondria-targeted antioxidant, in supporting healthy ageing. Building on existing scientific literature, the partnership aims to generate evidence on whether MitoQ® can slow or improve markers of biological ageing and support longevity potential. The joint study will also evaluate the effectiveness of biological ageing clocks in assessing health supplements and other interventions more rapidly than conventional long-term clinical trials.

The UK‑led OpenBind initiative has reached a major milestone with the release of its first publicly available dataset , a groundbreaking step toward accelerating the discovery of new medicines using artificial intelligence. The release makes high‑quality, standardised experimental data freely accessible to researchers worldwide, providing AI-ready data to address the most persistent barriers in AI‑driven therapeutic development.

Inside every human cell, proteins are constantly being tagged with small chemical modifications after they’re produced. Known as post-translational modifications, or PTMs, these can change how a protein folds, where it travels and how it behaves. Now, scientists at Scripps Research have shown that PTMs also play a major role in determining whether proteins can bind to drug-like molecules.

A new model to predict how language changes over time has been developed by a statistical physicist at the University of Portsmouth.  

New research, led by Penn State physicists, demonstrates that ordinary adhesive tape has a specialized type of material memory capable of storing a sequence of multiple memories that can be fine-tuned to have different strengths or be erased to make way for new memories.