Articles tagged with Plant Respiration
A new study found that even as oak trees continue to photosynthesize late into the year, their growth stops by mid-summer. This decoupling between photosynthesis and growth suggests that increased carbon uptake may not translate to greater wood production, reducing long-term carbon storage in forests.
Researchers propose a new biochemical pathway, the 'Bloom cycle,' which converts nitrogen into essential compounds, boosting crop production and nutritional quality. This discovery suggests that photorespiration is not a waste of energy, but rather a vital process for plant survival.
A new review evaluates biological strategies to improve the efficiency of photosynthesis, highlighting promising solutions such as engineering Rubisco enzyme and developing cooperative crops. The research aims to address global challenges in agriculture and ensure food security for the world's population.
Researchers at the University of Missouri discovered that soybeans employ differential transpiration as a natural defense strategy to cool reproductive tissues under extreme weather conditions. This adaptation allows plants to save significant amounts of water while protecting their flowers and seed pods.
A new study published in Conservation Physiology identifies the critical limits of plant function under stress, enabling more effective conservation strategies. By understanding these limits, conservationists can identify vulnerable species and allocate resources more wisely.
Researchers develop new approach to quantify respiration and its temperature sensitivity in terrestrial ecosystems. Their findings suggest lower temperature sensitivities than previously thought, but caution that natural components alone cannot mitigate climate change.
Researchers found plant respiration releases 30% more carbon dioxide than previously estimated, posing a significant threat to the Earth's ability to absorb fossil fuel emissions. The study's findings are based on comprehensive data from over 10,000 measurements and suggest that as temperatures rise, plant respiration will increase sig...
New research suggests that plant respiration could be up to 30% higher than previously estimated, leading to reduced ability of the Earth's land surface to absorb fossil fuel-related emissions. This finding has significant implications for modeling carbon cycles and understanding the impact of climate change.
A comprehensive global study suggests that plant respiration rates slow predictably with increasing temperatures, reducing estimates of carbon release from plants. The research found uniform patterns across various habitats and plant types, shedding light on the complex planetary carbon cycle.