Researchers utilize AI to engineer plants combatting climate change. Deep learning software, SLEAP, analyzes plant traits, expediting the design of carbon-capturing plants. By optimizing root systems, plants draw more carbon dioxide from the atmosphere.
Bioscientists contribute to a global study, creating a comprehensive “tree of life” for flowering plants, including crucial insights into the evolution of cruciferous plants. Drawing from extensive botanical collections and genetic analyses, researchers shed light on plant origins and relationships, aiding conservation efforts amidst climate change.
In Arabidopsis thaliana leaves, lipid droplets (LDs) are not just storage units but hubs for essential molecular functions. Research unveiled proteins crucial for intracellular movements and furan fatty acid biosynthesis within LDs, hinting at novel roles beyond mere lipid storage. This study sheds light on plant biology and lipid production technology.
Researchers have developed sensors using carbon nanotubes to detect plant signaling molecules like hydrogen peroxide and salicylic acid. These sensors could serve as an early warning system for farmers, detecting stresses like heat, light, insect attacks, or bacterial infections in crops.
New study explores forests that experience “cold-airpooling,” a phenomenon where cold air at higher elevations drains down into lower-lying valleys, reversing the expected temperatures—warm at the bottom, cold at the top—that typically occurs in mountainous areas. That is, the air temperature drops with descent from mountain to valley.
Plants with multiple sets of chromosomes have advantages over their relatives with a double set. But why they often start out infertile was only partially understood. Biologists have now discovered a new reason for the initial difficulties.
Vitamin B1 is an essential micronutrient for human beings. Its deficiency is the cause of numerous diseases of the nervous and cardiovascular systems. Researchers have achieved a significant advance in the fight against vitamin B1deficiency, frequently associated with a rice-based diet.
Researchers have pinpointed a gene, FUL, governing flower and fruit production in legumes, potentially revolutionizing agriculture. By extending the reproductive phase in peas, chickpeas, lentils, and beans, using FUL as a biotechnological tool, yields could double without altering nutritional quality. Traditional mutation methods or CRISPR gene editing offer promising avenues for application, offering hope for sustainable crop improvement amid climate challenges.
Researchers collaborated on a study investigating the symbiotic relationship between legume plants and mycorrhizal fungi, crucial for nutrient exchange. Using advanced sequencing techniques, they identified key genes facilitating this interaction, offering insights for genetic engineering and potential biofuel crop optimization. Future studies aim to expand this research to other plant species.
In a new study, scientists unraveled the mystery behind how wounded plants coordinate their healing. By investigating the role of the hormone Auxin and pressure changes, they discovered the intricate cellular mechanisms guiding plant regeneration. This understanding sheds light on how plants adapt and survive in challenging environments.
