Pioneering research reveals Arctic matter pathways poised for major shifts amidst climate change
Peer-Reviewed Publication
Updates every hour. Last Updated: 7-Jul-2025 20:10 ET (8-Jul-2025 00:10 GMT/UTC)
A new study has shed unprecedented light on the highly variable and climate-sensitive routes that substances from Siberian rivers use to travel across the Arctic Ocean. The findings raise fresh concerns about the increasing spread of pollutants and the potential consequences for fragile polar ecosystems as climate change accelerates.
For the highly populated coastal country of Bangladesh, once-in-a-century storm tides could strike every 10 years — or more often — by the end of the century, scientists report.
11 April 2025 / Brussels / Kiel. Led by Professor Dr Sylvia Sander of the GEOMAR Helmholtz Centre for Ocean Research Kiel, a group of internationally renowned marine scientists has published a Future Science Brief on deep-sea research. The report provides a comprehensive analysis of the current state of knowledge and offers recommendations for how both the exploration and management of the deep sea can be made more sustainable. The scientists issue a clear warning: without a thorough understanding of ecosystem processes and biodiversity, informed decisions on the sustainable use and protection of the deep sea are not possible. They are now calling for targeted research to close these knowledge gaps and ensure long-term preservation of the deep sea. The report is aimed at policymakers, researchers and international organisations and is being launched today [11. April, 2 PM (14:00) CET] in a dedicated online webinar.
Urgent action is needed to protect endangered species, human health and industry from the impacts of the Caspian Sea shrinking, research led by the University of Leeds has found.
A recent study in Engineering delves into cyclic CO2 injection in unconventional reservoirs. The research, integrating multiple factors like microseismic events and geochemistry, aims to understand its impact on oil recovery and CO2 storage. Findings show that after ten cycles, there’s a rise in oil recovery and underground CO2 storage, along with changes in reservoir properties.
New research suggests conservation efforts could more effectively identify and protect bird species at greatest risk from climate change by better understanding the range of specific conditions they need to thrive.
The study, led by the University of East Anglia (UEA), examined the relationship between the extent of the climatic conditions that species tolerate and in which populations can survive - known as climatic niche breadth - and their likelihood of declining in response to climate change.