The effects of elevated temperature and dissolved ÏCO2 on a marine foundation species

Understanding how climate change and other environmental stressors will affect species is a fundamental concern of modern ecology. Indeed , numerous studies have documented how climate stressors affect species distributions and population persistence. However , relatively few studies have investigat...

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Main Authors: McCoy, Michael W., NC DOCKS at East Carolina University, Silliman, Brian R., Speights, Cori J.
Language:English
Published: 2017
Subjects:
Online Access:http://libres.uncg.edu/ir/ecu/f/0000-embargo-holder.txt
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spelling ftunivnorthcag:oai:libres.uncg.edu/29645 2024-09-09T20:01:14+00:00 The effects of elevated temperature and dissolved ÏCO2 on a marine foundation species McCoy, Michael W. NC DOCKS at East Carolina University Silliman, Brian R. Speights, Cori J. 2017 http://libres.uncg.edu/ir/ecu/f/0000-embargo-holder.txt English eng http://libres.uncg.edu/ir/ecu/f/0000-embargo-holder.txt 2017 ftunivnorthcag 2024-08-27T00:34:27Z Understanding how climate change and other environmental stressors will affect species is a fundamental concern of modern ecology. Indeed , numerous studies have documented how climate stressors affect species distributions and population persistence. However , relatively few studies have investigated how multiple climate stressors might affect species. In this study , we investigate the impacts of how two climate change factors affect an important foundation species. Specifically , we tested how ocean acidification from dissolution of CO2 and increased sea surface temperatures affect multiple characteristics of juvenile eastern oysters (Crassostrea virginica). We found strong impacts of each stressor , but no interaction between the two. Simulated warming to mimic heat stressed summers reduced oyster growth , survival , and filtration rates. Additionally , we found that CO2-induced acidification reduced strength of oyster shells , which could potentially facilitate crab predation. As past studies have detected few impacts of these stressors on adult oysters , these results indicate that early life stages of calcareous marine organisms may be more susceptible to effects of ocean acidification and global warming. Overall , these data show that predicted changes in temperature and CO2 can differentially influence direct effects on individual species , which could have important implications for the nature of their trophic interactions. Other/Unknown Material Ocean acidification University of North Carolina: NC DOCKS (Digital Online Collection of Knowledge and Scholarship)
institution Open Polar
collection University of North Carolina: NC DOCKS (Digital Online Collection of Knowledge and Scholarship)
op_collection_id ftunivnorthcag
language English
description Understanding how climate change and other environmental stressors will affect species is a fundamental concern of modern ecology. Indeed , numerous studies have documented how climate stressors affect species distributions and population persistence. However , relatively few studies have investigated how multiple climate stressors might affect species. In this study , we investigate the impacts of how two climate change factors affect an important foundation species. Specifically , we tested how ocean acidification from dissolution of CO2 and increased sea surface temperatures affect multiple characteristics of juvenile eastern oysters (Crassostrea virginica). We found strong impacts of each stressor , but no interaction between the two. Simulated warming to mimic heat stressed summers reduced oyster growth , survival , and filtration rates. Additionally , we found that CO2-induced acidification reduced strength of oyster shells , which could potentially facilitate crab predation. As past studies have detected few impacts of these stressors on adult oysters , these results indicate that early life stages of calcareous marine organisms may be more susceptible to effects of ocean acidification and global warming. Overall , these data show that predicted changes in temperature and CO2 can differentially influence direct effects on individual species , which could have important implications for the nature of their trophic interactions.
author McCoy, Michael W.
NC DOCKS at East Carolina University
Silliman, Brian R.
Speights, Cori J.
spellingShingle McCoy, Michael W.
NC DOCKS at East Carolina University
Silliman, Brian R.
Speights, Cori J.
The effects of elevated temperature and dissolved ÏCO2 on a marine foundation species
author_facet McCoy, Michael W.
NC DOCKS at East Carolina University
Silliman, Brian R.
Speights, Cori J.
author_sort McCoy, Michael W.
title The effects of elevated temperature and dissolved ÏCO2 on a marine foundation species
title_short The effects of elevated temperature and dissolved ÏCO2 on a marine foundation species
title_full The effects of elevated temperature and dissolved ÏCO2 on a marine foundation species
title_fullStr The effects of elevated temperature and dissolved ÏCO2 on a marine foundation species
title_full_unstemmed The effects of elevated temperature and dissolved ÏCO2 on a marine foundation species
title_sort effects of elevated temperature and dissolved ïco2 on a marine foundation species
publishDate 2017
url http://libres.uncg.edu/ir/ecu/f/0000-embargo-holder.txt
genre Ocean acidification
genre_facet Ocean acidification
op_relation http://libres.uncg.edu/ir/ecu/f/0000-embargo-holder.txt
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