Hurricane ecology research reveals critical vulnerabilities of coastal ecosystems
Peer-Reviewed Publication
Updates every hour. Last Updated: 20-Oct-2025 18:11 ET (20-Oct-2025 22:11 GMT/UTC)
A recently published article in the journal BioScience reveals that endangered longleaf pine ecosystems—among North America's most biodiverse habitats—face mounting threats from intensifying hurricane regimes driven by climate change. An interdisciplinary team of authors headed by Nicole Zampieri (Tall Timbers and The Jones Center at Ichauway) describe the urgent situation: The North American Coastal Plain was once characterized by extensive longleaf pine savannas covering approximately 36 million hectares. Today, these ecosystems "now occupy less than 5% of their historic distribution, primarily because of habitat fragmentation, widespread unsustainable logging, land-use conversion, and fire suppression during the past half millennium."
Virginia Tech researchers have discovered a clever new way to detect an invasive pest — by letting ants lead the way.
Researchers are pioneering a new approach to treating glioblastoma by targeting the gene MBLAC1 for the first time. This gene regulates copper levels and influences mitochondrial function—both essential to cancer cell survival. Disrupting MBLAC1 could impair tumor growth and open a new path for therapy. The study breaks new ground by revealing a molecular pathway that drives cancer through a gene tied to copper regulation and glioblastoma risk. Glioblastoma is a highly aggressive brain cancer with one of the highest mortality rates.
A recent study involving researchers from the University of Basel reveals that slowing down the intracellular transport of RNA-based drugs can significantly enhance their effectiveness. These promising therapeutics are currently used to treat rare genetic diseases.
Senescent cells, which are damaged and inflammatory, contribute significantly to ageing. Researchers at the Max Planck Institute for Biology of Ageing have found that worms can enter a senescent-like state, similar to that observed in mammals. This discovery provides a simple yet powerful model to study senescence at the whole organism level, enabling the identification of new ways to prevent or reverse senescence. These findings hold promise for developing therapies targeting age-related conditions and cancer dormancy.