Climate change is on track to shift key tree species like beech and Norway spruce north: European forests will be completely changed by the year 2100
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Updates every hour. Last Updated: 21-Sep-2025 09:11 ET (21-Sep-2025 13:11 GMT/UTC)
In just a few decades, the climate in many of the world’s forests will be so changed that many trees will have difficulty surviving. For example, in wide parts of lowland Central Europe, there is a risk that species such as European beech and Norway spruce will be squeezed out, according to new research from Aarhus University.
A new global analysis reveals a critical oversight in sustainable coffee and carbon-capture initiatives. These programs incentivize the planting of new trees yet fail to reward the preservation of mature shade trees in existing agroforestry farms, despite their far greater carbon storage potential. To maximize the potential of coffee farming to fight climate change and boost biodiversity, the study authors call for creating carbon payment programs that reward protecting existing shade trees and ensuring these payments are accessible to small farms. For tree-planting efforts, researchers recommend explicitly prioritizing tree diversity in all planting initiatives to support biodiversity. Without these changes, global coffee agriculture may continue to lose carbon and biodiversity despite investments in tree planting.
The dengue early warning system was piloted in Barbados in June 2024 for the Cricket World Cup, prompting public health interventions to mitigate potential outbreak risk in advance of the tournament.
Led by researchers at the Barcelona Supercomputing Center and co-developed with Caribbean health and meteorological agencies and an international team of researchers, the study marks a milestone in disease prediction modelling with climate information.
A recent study published in National Science Review has revealed forests modulate biogenic secondary organic aerosol cooling effects through biogeophysical processes—but direction depends critically on local climate. Where dark canopies dominate, reforestation typically amplifies cooling by warming surfaces and boosting natural aerosol formation. Yet where enhanced airflow creates more clouds, it often suppresses cooling by reducing sunlight and biogenic emissions. This hidden "lever" creates striking regional contrasts, proving that identical forest cover can produce opposite aerosol-mediated climate outcomes. The findings demand location-specific reforestation plans to maximize climate benefits.
New research finds that Marine Protected Areas can boost the recovery of globally important kelp forests following marine heatwaves. The findings are published in the British Ecological Society’s Journal of Applied Ecology.
In the era of global climate change, personal thermoregulation has become critical to addressing the growing demands for thermoadaptability, comfort, health, and work efficiency in dynamic environments. Here, we introduce an innovative three-dimensional (3D) self-folding knitted fabric that achieves dual thermal regulation modes through architectural reconfiguration. In the warming mode, the fabric maintains its natural 3D structure, trapping still air with extremely low thermal conductivity to provide high thermal resistance (0.06 m2 K W−1), effectively minimizing heat loss. In the cooling mode, the fabric transitions to a 2D flat state via stretching, with titanium dioxide (TiO2) and polydimethylsiloxane (PDMS) coatings that enhance solar reflectivity (89.5%) and infrared emissivity (93.5%), achieving a cooling effect of 4.3 °C under sunlight. The fabric demonstrates exceptional durability and washability, enduring over 1000 folding cycles, and is manufactured using scalable and cost-effective knitting techniques. Beyond thermoregulation, it exhibits excellent breathability, sweat management, and flexibility, ensuring wear comfort and tactile feel under diverse conditions. This study presents an innovative solution for next-generation adaptive textiles, addressing the limitations of static thermal fabrics and advancing personal thermal management with wide applications for wearable technology, extreme environments, and sustainable fashion.
A new study, led by University of Hawai‘i at Mānoa oceanographers, revealed that the ocean is acidifying even more rapidly below the surface in the open waters of the North Pacific near Hawai‘i.