Botanic gardens play a crucial role in conservation, especially with wild-collected plants, which support research and climate adaptation. Climate change threatens species survival, requiring a global network approach. Genetic diversity is key for resilience, and ethical plant collection is essential. Collaborative efforts ensure conservation success while maintaining biodiversity and sustainability.
A new study finds that, of the three large-scale, plant-based climate mitigation strategies, reforestation stands out as most beneficial for biodiversity. In addition to reforestation (restoring forests in places where they have historically grown), the team of scientists modeled the impacts of afforestation (adding forests in places like grasslands and savannas) and bioenergy cropping (farming plants such as switchgrass for renewable energy) on more than 14,000 animal species.
Septoria tritici blotch, caused by Zymoseptoria tritici, threatens wheat production. Researchers and breeders, studied 285 elite French wheat varieties, identifying 57 resistance QTLs and at least 11 known Stb genes. Their findings aid breeding for resistance and support the future meta-analysis.
Researchers discovered that different photoreceptors control distinct regions of a seedling’s stem. The photoreceptor cry1 reserves energy for later elongation, helping plants reemerge if buried. Using machine learning and genetic editing, the team’s findings could inform crop innovation, making plants more resilient and improving agricultural success.
Pollinators boost both crop yield and quality, yet their species-specific behavior and crop distribution patterns are often overlooked. Researchers stress the need to enhance cross-pollination to improve nutrient content. Optimizing landscape design and plant variety interactions can maximize benefits for both agriculture and consumer health.
Scientists purified a bacterial enzyme to study its role in plant immunity suppression. Their findings suggest soil bacteria use similar enzymes to either aid plant growth or help pathogens evade detection. Understanding this balance could inform agricultural applications, ensuring plants grow efficiently without compromising disease resistance.
Scientists have successfully increased protein content in crops, even under high CO₂ conditions, by enhancing the serine biosynthesis pathway through genetic engineering. This breakthrough improves plant nutrition, reduces reliance on resource-intensive animal products, and supports sustainable diets. The research, involving European institutions, could revolutionize food security and environmental sustainability.
Scientists have uncovered a genetic mechanism in walnuts and their ancestors that has remained stable for 40 million years. Male-first or female-first flowering, balanced by a single genetic locus, parallels sex determination in animals. This evolutionary trait ensures genetic diversity, with distinct pathways evolving independently in walnuts and pecans.
Raking dead grass (thatch) helps native plants grow by improving light access, according to a study. In three-year tests, raking increased plant diversity, reduced invasive grasses, and boosted wildflowers. While it also raised some invasive wildflowers, raking offers a low-cost, eco-friendly method for restoring native ecosystems and reducing wildfire risks.
Established in 2015 and recently updated, MIBiG sets a global standard for annotating biosynthetic gene clusters (BGCs) and their products. Its online, open-access database now catalogs ~2,500 pathways, with contributions from 288 scientists worldwide. Updates include verified entries, biosynthesis steps, and evidence linking BGCs to metabolites.
