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Temperature drives seagrass recovery across the Western North Atlantic

pmid: 40223617
pmc: PMC11995252
AbstractClimate-driven shifts in herbivores, temperature and nutrient runoff threaten coastal ecosystem resilience. However, our understanding of ecological resilience, particularly for foundation species, remains limited due to a rarity of field experiments that are conducted across appropriate spatial and temporal scales and that investigate multiple stressors. This study aimed to evaluate the resilience of a widespread tropical marine plant (turtlegrass) to disturbances across its geographic range and how this is impacted by environmental gradients in (a)biotic factors. We assessed the resilience (i.e. recovery) of turtlegrass to a simulated disturbance (complete above- and belowground biomass removal) over a year. Contrary to temperate studies, higher temperature generally enhanced seagrass recovery. While nutrients and light availability had minimal impact, combined high levels of nutrients and herbivore grazing (meso and megaherbivore) reduced aboveground recovery. Our results suggest that the resilience of some tropical species, especially in cooler subtropical waters, may initially increase with warming.
- University of California System United States
- Centre for Ocean Research and Education Bahamas
- Dauphin Island Sea Lab United States
- Florida Gulf Coast University United States
- Florida International University United States
disturbance, Ecology, plant‐herbivore interactions, Climate Change, latitudinal gradient, Temperature, recovery, eutrophication, Life Science, Animals, Thalassia testudinum, Herbivory, Biomass, plant-herbivore interactions, resilience, Atlantic Ocean, Ecosystem, Research Article
disturbance, Ecology, plant‐herbivore interactions, Climate Change, latitudinal gradient, Temperature, recovery, eutrophication, Life Science, Animals, Thalassia testudinum, Herbivory, Biomass, plant-herbivore interactions, resilience, Atlantic Ocean, Ecosystem, Research Article
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