Researchers from Kunming University of Science and Technology have discovered that certain soil minerals can trap dissolved organic matter released from biochar, keeping more carbon in the soil and potentially enhancing its long-term storage. Their study, published in Biochar, reveals that low-intensity rainfall helps retain this dissolved carbon within mineral-rich soils, limiting its downward movement and loss.

In a groundbreaking study that explores the complex interactions between cyanobacterial blooms and aquatic ecosystems, researchers are examining the effects of cyanobacterial growth and decline on dissolved organic matter and endogenous nutrient release at the sediment–water interface. The study, titled "Effects of Cyanobacterial Growth and Decline on Dissolved Organic Matter and Endogenous Nutrients Release at the Sediment–Water Interface," is led by Prof. Tao Huang from the School of Resources and Environmental Engineering at Anhui University in Hefei, China, and the Anhui Province Key Laboratory of Wetland Ecosystem Protection and Restoration. This research offers valuable insights into the ecological and environmental impacts of cyanobacterial blooms.

Researchers from Princeton engineering drove a moble lab across the country and found that emissions of methane and nitrous oxide, powerful greenhouse gases, are twice as high as national estimates. 

By integrating key advances from multiple laboratories and disciplines, researchers provide a framework for understanding how nanomedicine can transform cancer immunotherapy, a step toward next-generation patient treatments. 

Simulation results highlight how team composition shapes stress, health, performance, and cohesion in long-duration space missions, according to a study published October 8, 2025, in the open-access journal PLOS One by Iser Pena and Hao Chen of the Stevens Institute of Technology, U.S. In particular, team diversity in personality traits may contribute to greater resilience under extended isolation and operational load.

Combing through 20 years of images from the European Space Agency’s Mars Express and ExoMars Trace Gas Orbiter spacecraft, scientists have tracked 1039 tornado-like whirlwinds to reveal how dust is lifted into the air and swept around Mars’s surface.

Published today in Science Advances, their findings – including that the strongest winds on Mars blow much faster than we thought – give us a much clearer picture of the Red Planet’s weather and climate.

And with these ‘dust devils’ collected into a single public catalogue, this research is just the beginning. Besides pure science, it will be useful for planning future missions, for example incorporating provisions for the irksome dust that settles on the solar panels of our robotic rovers.