Feature Stories
Updates every hour. Last Updated: 18-Nov-2025 07:11 ET (18-Nov-2025 12:11 GMT/UTC)
Breaking the ice: why study Antarctica?
University of New South WalesFrom unique wildlife to resilient microbes, world-changing climate dynamics to untapped biotechnological potential – four UNSW scientists outline what makes Antarctica a laboratory like no other.
Research evaluates plant compounds to boost disease resilience in catfish
Texas A&M AgriLife CommunicationsResearchers at Texas A&M AgriLife are studying plant-based compounds as alternatives to antibiotics to strengthen the health, sustainability and economic resilience of U.S. catfish production, the nation’s largest aquaculture industry.
The work is supported by a grant from the U.S. Department of Agriculture Southern Regional Aquaculture Center and brings together scientists from Mississippi State University, Auburn University and Texas A&M University.
Climate, crisis, and crops: Why gene and seed banks are more essential than ever
Aarhus UniversityAdvanced AI links atomic structure to quantum tech
DOE/Oak Ridge National Laboratory- Journal
- npj Computational Materials
Regulatory loopholes, endangered wild salmon and suffering farmed salmon
Norwegian University of Science and Technology- Journal
- Marine Policy
Further, higher, longer: how batteries are driving growth in the drone market
University of BirminghamPioneering recipe for conductive plastics – paves the way for your body to go online
Chalmers University of TechnologyIt’s mouldable, biocompatible and glitters like gold. Plastic that can conduct an electric charge is a material that can be used for everything from sensors that can monitor our health to self-cooling clothing or electronic adhesive plasters that can be applied to the skin and send data directly to a mobile phone. Researchers at Chalmers University of Technology in Sweden recently presented a ground-breaking ‘recipe’ that makes it easier to manufacture this kind of sought-after electrically conductive plastic in larger quantities – without the use of harmful chemicals, and in a much more cost-effective way.
“Once higher production volumes are achieved, it is possible to work with the material in a completely different way. Larger quantities are needed to enable the development of a range of applications, for example in biotechnology, energy storage, and wearable electronics,” says Christian Müller, Professor at the Department of Chemistry and Chemical Engineering at Chalmers and co-author of a study recently published in Science Advances.
- Journal
- Science Advances
- Funder
- European Union’s Horizon 2020 research and innovation programme through the Marie Skłodowska-Curie grant agreement, European Research Council (ERC), The Wallenberg Initiative Materials Science for Sustainability (WISE) funded by the Knut and Alice Wallenberg Foundation., The Knut and Alice Wallenberg Foundation