The greenhouse gas trapped in the Black Sea
Peer-Reviewed Publication
Updates every hour. Last Updated: 15-Jan-2026 18:11 ET (15-Jan-2026 23:11 GMT/UTC)
Microorganisms in the Black Sea can produce large amounts of the potent greenhouse gas nitrous oxide (N2O). However, this gas never reaches the atmosphere because it is swiftly consumed by other microorganisms, which convert it to harmless dinitrogen gas (N2). Scientists from the Max Planck Institute for Marine Microbiology have now investigated this process and identified the key players involved.
A new monitoring method created by UC Irvine scientists provides a cost-effective method for cities to measure their greenhouse gas emissions. It involves sampling turfgrass, which is shown to be a reliable recorder of fossil carbon dioxide concentrations. Cities without expensive gas monitoring equipment may find the tool useful.
In many parts of the world, staple crops such as maize and wheat are dependent on rainfall recycled from land rather than oceans, making them more vulnerable to drought. Researchers at Stanford and the University of California San Diego identified a critical threshold in atmospheric moisture sources that could help predict and prevent future crop failures.
Air pollution is a major environmental challenge of this century. In a recent Journal of Environmental Sciences review paper, scientists from the Research Center for Eco-Environmental Sciences, Chinese Academy of Sciences, have highlighted potential technologies for direct purification of air pollutants in the environment, including photocatalysis and ambient non-photocatalytic approaches. They also propose the novel concept of an ‘Environmental Catalytic City.’
Silver iodide is the material of choice to make clouds release rain and snow. For decades, its remarkable ability to trigger precipitation has been used in cloud seeding to prevent hail damage and mitigate droughts. Now, for the first time, researchers at TU Wien have revealed in atomic detail how this process works.
Tokyo, Japan – Researchers from Tokyo Metropolitan University have developed a new atomically layered material which experiences a five order of magnitude resistivity reduction when oxidized, more than a hundred times the reduction seen in similar, non-layered materials. By analyzing the structure, the team discovered a synergy between oxidation and structural modification which drives dramatic changes in physical properties. The new material promises more power efficient next-generation devices, like memristors in AI computing.