Effects of future climate on coral-coral competition

As carbon dioxide (CO.sub.2) levels increase, coral reefs and other marine systems will be affected by the joint stressors of ocean acidification (OA) and warming. The effects of these two stressors on coral physiology are relatively well studied, but their impact on biotic interactions between cora...

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Veröffentlicht in:PloS one 2020-08, Vol.15 (8), p.e0235465
Hauptverfasser: Johnston, Nicole K, Campbell, Justin E, Paul, Valerie J, Hay, Mark E
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Hay, Mark E
description As carbon dioxide (CO.sub.2) levels increase, coral reefs and other marine systems will be affected by the joint stressors of ocean acidification (OA) and warming. The effects of these two stressors on coral physiology are relatively well studied, but their impact on biotic interactions between corals are poorly understood. While coral-coral interactions are less common on modern reefs, it is important to document the nature of these interactions to better inform restoration strategies in the face of climate change. Using a mesocosm study, we evaluated whether the combined effects of ocean acidification and warming alter the competitive interactions between the common coral Porites astreoides and two other mounding corals (Montastraea cavernosa or Orbicella faveolata) common in the Caribbean. After 7 days of direct contact, P. astreoides suppressed the photosynthetic potential of M. cavernosa by 100% in areas of contact under both present (~28.5°C and ~400 [mu]atm pCO.sub.2) and predicted future (~30.0°C and ~1000 [mu]atm pCO.sub.2) conditions. In contrast, under present conditions M. cavernosa reduced the photosynthetic potential of P. astreoides by only 38% in areas of contact, while under future conditions reduction was 100%. A similar pattern occurred between P. astreoides and O. faveolata at day 7 post contact, but by day 14, each coral had reduced the photosynthetic potential of the other by 100% at the point of contact, and O. faveolata was generating larger lesions on P. astreoides than the reverse. In the absence of competition, OA and warming did not affect the photosynthetic potential of any coral. These results suggest that OA and warming can alter the severity of initial coral-coral interactions, with potential cascading effects due to corals serving as foundation species on coral reefs.
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In contrast, under present conditions M. cavernosa reduced the photosynthetic potential of P. astreoides by only 38% in areas of contact, while under future conditions reduction was 100%. A similar pattern occurred between P. astreoides and O. faveolata at day 7 post contact, but by day 14, each coral had reduced the photosynthetic potential of the other by 100% at the point of contact, and O. faveolata was generating larger lesions on P. astreoides than the reverse. In the absence of competition, OA and warming did not affect the photosynthetic potential of any coral. 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subjects Acidification
Alkalinity
Biological research
Biology and Life Sciences
Carbon dioxide
Chemical ecology
Climate change
Climate effects
Competition
Competition (Biology)
Coral reefs
Corals
Design
Earth Sciences
Ecology and Environmental Sciences
Environmental aspects
Factorial experiments
Future climates
Marine systems
Ocean acidification
Ocean warming
Oceans
Osteoarthritis
Photosynthesis
Physical Sciences
Physiological aspects
Physiology
Porites astreoides
Research and Analysis Methods
Restoration strategies
Salinity
Supervision
Taxonomy
title Effects of future climate on coral-coral competition
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