Under the right conditions, duckweed essentially farms itself. Wastewater, ponds, puddles, swamps—you name it. If there’s enough sunlight and carbon dioxide, the aquatic plant can grow freely. But that’s not all that makes it intriguing. Packed inside duckweed’s tiny fronds is enormous potential as a soil enricher, a fuel source, protein-rich foods, and more. New findings could help bring all that potential to life.
From the very first presentation to the final wrap-up, the workshop was a deep dive into the challenges—and opportunities—plant science faces in the changing world of today… and probably the one of tomorrow.
Parasitic weeds devastate crops in food-insecure regions by hijacking plant signals. Scientists have found a way to trick these weeds into germinating when no host is present, causing them to die. Using engineered microbes, they’re producing key plant hormones to potentially turn this natural system into a powerful defense.
A genomic analysis of fine aroma cocoa from northern Peru revealed genetic divergence and evolutionary patterns within Theobroma cacao. The study identified 3 distinct genetic groups and estimated divergence times, suggesting that fine aroma cocoa diversified during the Pleistocene. The findings offer insights into cacao’s genetic structure and could aid in breeding and conservation efforts.
A research team has uncovered a shared stress response network in algae and plants, spanning 600 million years of evolution. Using advanced bioinformatics, they identified key genetic ‘hubs’ that shape responses to terrestrial stressors. This comprehensive dataset offers insights into the early adaptations of land plants.
An international study has found that forests with many tree species can store significantly more carbon than those with only one species.
A study reveals that sustainable agricultural practices can future-proof cocoa production. By enhancing pollination and mitigating climate risks, cocoa yields can increase without expanding plantations, supporting millions of farmers and the USD 100 billion chocolate industry while safeguarding biodiversity.
Ancient tree rings reveal how climate influenced Chinese dynastic history. Research on Qilian Juniper trees on the Tibetan Plateau shows arid periods coincided with dynastic upheavals. Understanding past climate impacts helps address current global climate change. The study highlights links between climate stress and societal unrest over millennia.
The Rubisco enzyme, responsible for capturing significant carbon from the atmosphere, is crucial for photosynthesis. Recent research has mapped mutant Rubisco molecules, unveiling potential enhancements in its function, which could revolutionize plant CO2 assimilation and adapt to future climates.
New study reveals that solar parks can enhance biodiversity through vegetation succession, where diverse plant species evolve over time. The study shows solar parks not only accommodate energy needs but also support ecosystems, highlighting a need for sustainable management practices, like grazing, to control plant growth and sustain biodiversity.
