Through a 20-year experiment, investigators have shown how different trees adjust their strategies for acquiring nutrients through their roots as soil warms with climate change.

The research, which is published in Global Change Biology, included trees that associate with different fungi that help roots absorb nutrients. Measurements showed that when exposed to warmer soils, oak trees associated with ectomycorrhizal fungi reduce interactions with soil microbes while increasing fine root exploration, whereas maple trees that associate with arbuscular mycorrhizal largely maintain their belowground patterns.

The findings suggest that the root systems of arbuscular mycorrhizal trees may not need to adjust their belowground foraging strategies as much as ectomycorrhizal trees to remain competitive as global temperatures rise.

“The structure of future forests under global warming will probably be influenced by the ability of tree roots and their fungal partners to compete belowground in warmer soils,” said corresponding author Nikhil R. Chari, a PhD student at Harvard University.

Journal Reference:
Nikhil R. Chari, Thomas J. Muratore, Serita D. Frey, Cristina L. Winters, Gabriela Martinez, Benton N. Taylor, ‘Long-Term Soil Warming Drives Different Belowground Responses in Arbuscular Mycorrhizal and Ectomycorrhizal Trees’, Global Change Biology 30, 11, e17550 (2024). DOI: 10.1111/gcb.17550

Article Source:
Press Release/Material by Wiley
Featured image credit: wirestock | Freepik

Image: Town of Aasiaat (Greenland) during winter season
Scientists warn of underestimated threats to Arctic coasts amid climate changeScience

Scientists warn of underestimated threats to Arctic coasts amid climate change

As climate change accelerates, the Arctic's marine systems are undergoing rapid transformation, with sea ice retreating and permafrost thawing at alarming rates. The image of…
Adrian AlexandreAdrian AlexandreOctober 1, 2024 Full article
Image: Thaw slump on the Peel Plateau
Rising temperatures accelerate CO2 release from rocks in Arctic Canada, study findsScience

Rising temperatures accelerate CO2 release from rocks in Arctic Canada, study finds

Researchers from the University of Oxford’s Department of Earth Sciences have discovered that rising temperatures in the Canadian Arctic could significantly accelerate the release of…
Adrian AlexandreAdrian AlexandreOctober 10, 2024 Full article
Image
Revolutionizing acetaldehyde production with CO₂: A greener path for industryScience

Revolutionizing acetaldehyde production with CO₂: A greener path for industry

An innovative catalyst for greater efficiency 'Fascinating chemistry' The keys to success Acetaldehyde, a key ingredient in products ranging from plastics to perfumes, has long…
SourceSourceJanuary 4, 2025 Full article