From greenhouse gas to carbonate beneath the seafloor
Reports and Proceedings
Updates every hour. Last Updated: 20-Sep-2025 10:11 ET (20-Sep-2025 14:11 GMT/UTC)
Are basaltic rocks along continental margins suitable for the permanent and safe storage of carbon dioxide? This is the question a team of German and Norwegian researchers will be pursuing on board the research vessel MARIA S. MERIAN. Expedition MSM140 led by Dr. Ingo Klaucke from the GEOMAR Helmholtz Centre for Ocean Research Kiel will investigate geological structures on the Vøring Plateau off the Norwegian coast until 9 October. The aim is to determine whether basalt formations below the seabed are suitable for the long-term geological storage of CO2. The expedition is part of the multinational PERBAS project.
Asia and the developing Pacific region are emerging as the largest contributors to global methane emissions, driven by rapid industrialisation and population growth.
New research from Michigan State University reveals that photorespiration – long considered a wasteful process – is essential for producing a crucial nutrient for preventing birth defects.
For the first time, scientists have measured how much carbon flows through photorespiration to make folates, a class of compounds that includes vitamin B9 – known for its importance as a prenatal vitamin. According to the study, led by MSU researcher Berkley Walker, about 6 percent of the carbon absorbed by plants is used to make folates. That number plummets by fivefold when photorespiration is suppressed.
These findings, published in Nature Plants, could help scientists engineer plants to boost production of the nutrient important for human health. They also shed light on how a high-carbon dioxide world caused by climate change could make plants less nutritious.
A research team from Songshan Lake Materials Laboratory introduced a new, eco-friendly method to transform carbon dioxide (CO₂, a major greenhouse gas) into useful high-performance plastics using a simple copper-based catalyst. Conducted under mild conditions at room temperature and ambient pressure, this process efficiently incorporates CO₂ into polymer materials that can be used in packaging, sensors, biomedical devices and more. The developed polymers are highly soluble, customizable, and can be quickly modified to create multifunctional materials. This innovative approach not only offers a sustainable way to recycle CO₂ but also opens new possibilities for producing advanced materials that support environmentally friendly manufacturing and help combat climate change.
AI Predicts More "Super Floods" and "Extreme Droughts" for Pakistan.
A new study shows there is something of value to be found and learned from in the remnants of wildfires, says professor and co-author Pei Chiu. Wildfires lead to the production of a large quantity of carbon-rich material known as wildfire char that can reduce methane, a potent greenhouse gas.