Uncovering how cells allocate space to make way for new growth
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Updates every hour. Last Updated: 19-Jun-2025 23:10 ET (20-Jun-2025 03:10 GMT/UTC)
Famed for its deep purple berries and potent antioxidant properties, black wolfberry (Lycium ruthenicum) thrives in harsh desert climates and holds significant nutritional and medicinal value.
A new study from Waseda University reveals that the motor protein myosin XI is essential for helping plants absorb boron under nutrient-deficient conditions. Researchers found that myosin XI maintains the correct positioning of the boric acid channel AtNIP5;1 in root cells by supporting endocytosis. Without myosin XI, plants fail to localize this channel properly, leading to poor boron uptake and stunted growth. The findings could inform strategies to improve crop resilience in boron-deficient soils.
To enhance existing strategies for controlling the Aedes aegypti mosquito, geoinformation scientist Dr Steffen Knoblauch has created a high-resolution environmental suitability map for Rio de Janeiro (Brazil) that can help identify areas most conducive to breeding. It is based on advanced geospatial big data methods – leveraging openly available geodata such as satellite imagery, street view images, and climate data – that the researcher developed at Heidelberg University’s Interdisciplinary Center for Scientific Computing (IWR) and at HeiGIT (Heidelberg Institute for Geoinformation Technology).
Buzz pollination, a process where bees vibrate flowers to release pollen, occurs in more than 20,000 plant species, including tomatoes and blueberries. The most extreme cases occur in Pedicularis (Orobanchaceae) wildflowers, whose “Elephant-Nose” shaped flowers depend on bumblebees’ buzzing them for pollination. Although different elephant nose species bloom together and share the same bumblebees, hybridization among co-blooming Pedicularis species is rare. How do bumblebees harvest pollen from elephant-nose flowers? In a multidisciplinary research article published in SCIENCE CHINA Life Sciences, researchers from the Kunming Institute of Botany (Chinese Academy of Sciences) and Sun Yat-sen University, along with researchers from the United States and Sweden, unveiled the biomechanical secrets behind their fascinating interactions.
New research finds a brain region critical for navigation uses distinct neural activity patterns to encode multiple hypotheses that help distinguish between ambiguous landmarks. These representations not only encode spatial hypotheses, but can be used for computations related to navigation.