Effects of ocean acidification on learning in coral reef fishes

Ocean acidification has the potential to cause dramatic changes in marine ecosystems. Larval damselfish exposed to concentrations of CO(2) predicted to occur in the mid- to late-century show maladaptive responses to predator cues. However, there is considerable variation both within and between spec...

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Veröffentlicht in:PloS one 2012-02, Vol.7 (2), p.e31478
Hauptverfasser: Ferrari, Maud C O, Manassa, Rachel P, Dixson, Danielle L, Munday, Philip L, McCormick, Mark I, Meekan, Mark G, Sih, Andrew, Chivers, Douglas P
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container_issue 2
container_start_page e31478
container_title PloS one
container_volume 7
creator Ferrari, Maud C O
Manassa, Rachel P
Dixson, Danielle L
Munday, Philip L
McCormick, Mark I
Meekan, Mark G
Sih, Andrew
Chivers, Douglas P
description Ocean acidification has the potential to cause dramatic changes in marine ecosystems. Larval damselfish exposed to concentrations of CO(2) predicted to occur in the mid- to late-century show maladaptive responses to predator cues. However, there is considerable variation both within and between species in CO(2) effects, whereby some individuals are unaffected at particular CO(2) concentrations while others show maladaptive responses to predator odour. Our goal was to test whether learning via chemical or visual information would be impaired by ocean acidification and ultimately, whether learning can mitigate the effects of ocean acidification by restoring the appropriate responses of prey to predators. Using two highly efficient and widespread mechanisms for predator learning, we compared the behaviour of pre-settlement damselfish Pomacentrus amboinensis that were exposed to 440 µatm CO(2) (current day levels) or 850 µatm CO(2), a concentration predicted to occur in the ocean before the end of this century. We found that, regardless of the method of learning, damselfish exposed to elevated CO(2) failed to learn to respond appropriately to a common predator, the dottyback, Pseudochromis fuscus. To determine whether the lack of response was due to a failure in learning or rather a short-term shift in trade-offs preventing the fish from displaying overt antipredator responses, we conditioned 440 or 700 µatm-CO(2) fish to learn to recognize a dottyback as a predator using injured conspecific cues, as in Experiment 1. When tested one day post-conditioning, CO(2) exposed fish failed to respond to predator odour. When tested 5 days post-conditioning, CO(2) exposed fish still failed to show an antipredator response to the dottyback odour, despite the fact that both control and CO(2)-treated fish responded to a general risk cue (injured conspecific cues). These results indicate that exposure to CO(2) may alter the cognitive ability of juvenile fish and render learning ineffective.
doi_str_mv 10.1371/journal.pone.0031478
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Larval damselfish exposed to concentrations of CO(2) predicted to occur in the mid- to late-century show maladaptive responses to predator cues. However, there is considerable variation both within and between species in CO(2) effects, whereby some individuals are unaffected at particular CO(2) concentrations while others show maladaptive responses to predator odour. Our goal was to test whether learning via chemical or visual information would be impaired by ocean acidification and ultimately, whether learning can mitigate the effects of ocean acidification by restoring the appropriate responses of prey to predators. Using two highly efficient and widespread mechanisms for predator learning, we compared the behaviour of pre-settlement damselfish Pomacentrus amboinensis that were exposed to 440 µatm CO(2) (current day levels) or 850 µatm CO(2), a concentration predicted to occur in the ocean before the end of this century. We found that, regardless of the method of learning, damselfish exposed to elevated CO(2) failed to learn to respond appropriately to a common predator, the dottyback, Pseudochromis fuscus. To determine whether the lack of response was due to a failure in learning or rather a short-term shift in trade-offs preventing the fish from displaying overt antipredator responses, we conditioned 440 or 700 µatm-CO(2) fish to learn to recognize a dottyback as a predator using injured conspecific cues, as in Experiment 1. When tested one day post-conditioning, CO(2) exposed fish failed to respond to predator odour. When tested 5 days post-conditioning, CO(2) exposed fish still failed to show an antipredator response to the dottyback odour, despite the fact that both control and CO(2)-treated fish responded to a general risk cue (injured conspecific cues). These results indicate that exposure to CO(2) may alter the cognitive ability of juvenile fish and render learning ineffective.</abstract><cop>United States</cop><pub>Public Library of Science</pub><pmid>22328936</pmid><doi>10.1371/journal.pone.0031478</doi><tpages>e31478</tpages><oa>free_for_read</oa></addata></record>
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subjects Acidification
Adaptation
Animal behavior
Animal cognition
Animals
Anti-predator behavior
Biology
Carbon dioxide
Carbon Dioxide - toxicity
Carbon dioxide concentration
Carbon dioxide effects
Climate change
Cognitive ability
Conditioning
Coral Reefs
Cues
Environmental changes
Environmental science
Exposure
Fish
Fishes
Fishes - physiology
Health risks
Learning
Marine
Marine ecosystems
Ocean acidification
Oceans
Oceans and Seas
Pisces
Pomacentrus amboinensis
Predators
Predatory Behavior - drug effects
Prey
Pseudochromis
Seawater - adverse effects
Seawater - chemistry
Studies
Visual discrimination learning
Visual perception
title Effects of ocean acidification on learning in coral reef fishes
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