Ice age cycles had minimal impact on the genetic diversity of European trees, finds a new study. High diversity arose from traits like long lifespans and pollen traveling vast distances. This resilience offers hope for forests adapting to today’s rapid climate changes.
Phytoplankton blooms in Antarctic waters help slow ice shelf melting by 7%. These marine microbes trap heat near the surface and provide shade, cooling deeper waters and reducing the impact of sunlight. However, a feedback loop with iron from melting ice limits their growth, highlighting a complex climate interaction.
Researchers have uncovered genetic traits in wild tomatoes, specifically *Solanum pimpinellifolium*, that enhance salt stress tolerance. By analyzing plant vigor, shoot mass, and transpiration rates, they identified new genes linked to resilience in salty soils. These findings could inform breeding strategies to create more salt-tolerant crops, boosting agricultural sustainability.
The first continent-wide mapping study of plant life across Antarctica reveals growth in previously uncharted areas and is set to inform conservation measures across the region.
Scientists have developed drought and salt-resistant tomato plants by discovering a new stress-response mechanism. By engineering these plants to produce a synthetic molecule that activates this mechanism, they enhance the plants’ resilience. This breakthrough could ensure stable tomato production despite adverse climate conditions, supporting global food security.
Europe’s forests face a hidden crisis due to climate change, threatening tree species extinction. Research predicts only three out of 69 native species will thrive by 2090, impacting timber, carbon storage, and biodiversity. This calls for adaptable forest management to ensure future resilience and continued ecosystem services.
The SPS-CEPLAS Summer School 2024, united young scientists and researchers to address climate change through plant science. The Global Plant Council led a workshop on science communication for emphasizing the importance of conveying complex research to broader audiences effectively.
Scientists have uncovered how the enzyme carboxysomal carbonic anhydrase (CsoSCA) works in cyanobacteria. This discovery could lead to engineering crops that capture carbon dioxide more efficiently, boosting yields and resilience to climate change.
“Glowing” plants may predict flash droughts by emitting solar-induced fluorescence (SIF), detected by NASA satellites. Increased plant productivity before a drought reduces soil moisture, indicating risk. These early signals, visible from space, could provide up to three months’ warning, aiding mitigation efforts and improving agricultural planning.
Scientists developed a system to create tomato plants with the full genetic material of both parents. By replacing meiosis with mitosis, they produced clonal sex cells, enabling offspring with complete parental genomes. This technique promises more robust, high-yield crops, potentially transforming agricultural practices.
