Researchers at Tufts University School of Medicine are studying C. diff at multiple levels, from how individual bacterial cells behave inside the gut to the molecular switches that help them survive and spread. Together, these approaches are revealing hidden vulnerabilities that could lead to better ways to prevent new or recurrent infections, predict severe disease, or stop the bacterium before it causes harm. 

To better understand how microplastics move through the body, researchers at Tokyo University of Science, Japan, have developed fluorescent nano-sized microplastics that can be tracked in real time using deep-tissue imaging. By loading common plastics with a fluorescent dye, they observed how particles of varying shapes and sizes travel through the digestive tract before being excreted in mice. These realistic microplastic models provide a powerful platform for studying their behavior and assessing potential health risks.

Premature ovarian insufficiency (POI) affects 1–3% of women and has limited treatment options. Researchers report that ovarian fibrosis may restrict follicle development and that the antifibrotic drug finerenone reduced collagen deposition and promoted follicle growth in mice and in a small exploratory study of women with POI. While larger trials are needed, the findings suggest that repurposing antifibrotic therapy could offer a new, less invasive treatment approach.

A giant database of over 2000 ant species in 3D, generated from micro-CT scans at micrometer resolution, democratizes access to extremely detailed morphology for researchers, artists, and educators.

Antscan used high-throughput X-ray micro-CT scanning powered by a synchrotron particle accelerator. These 3D images don’t merely show the exterior exoskeleton of the ants, but also reveal their internal structures like muscles, nervous system, digestive system, and stingers in extreme detail. A new Nature Methods paper presents both the data and the workflow that acquired it, providing a blueprint for large-scale quantification projects in the future. The database has already been used to answer fundamental questions about ant biology, and many more projects are underway.

Researchers leveraged advanced technologies and artificial intelligence to hasten the process of generating 2,000 3D digital ant images. Now, a class of UMD computer science majors is working to bring the data to life.

gathering in unusually large groups and engaging in mating behaviour.

The footage, gathered between 2019 and 2023, provides one of the most detailed records of harbour porpoise mating behaviour ever documented in UK waters.

Scientists from across Scotland and Shetland residents worked on the project and reported their findings in the Journal of the Marine Biological Association.

Why does a Caribbean angelfish sometimes resemble its Indo-Pacific cousin, even though they have never lived in the same ocean? Why do coral reefs harbour such a wide range of stripes, spots and patterns? A study conducted by the University of Liège reveals that this explosion of colour patterns is not the result of chance. The more species a reef is home to, the more varied the patterns, and fish from different oceans often end up looking alike, guided by the same deep biological constraints.

A new study reveals that habitat fragmentation can lead to sudden "tipping points" where a species' genetic health unexpectedly collapses after appearing stable for long periods. By merging network theory with population genetics, the research identifies detectable "early warning signals" in genetic data that can alert conservationists to an approaching crisis before it becomes irreversible. These findings provide a practical toolkit for monitoring wildlife populations and protecting the genetic diversity essential for animals to survive a changing environment.