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Ability of Eelgrass to Alter Oyster Growth and Physiology Is Spatially Limited and Offset by Increasing Predation Risk

  • Alexander T. Lowe
  • Julia Kobelt
  • Micah Horwith
  • Jennifer Ruesink
Article

Abstract

Marine foundation species have strong effects on sympatric species, but the strength may vary along environmental gradients. Climate change is shifting the distribution and magnitude of environmental gradients, making identification of when and where foundation species effects occur necessary for effective management. We reviewed existing work to identify expected mechanisms by which seagrass affect suspension feeding bivalves, then tested whether these effects shifted across estuarine conditions for two species of oysters (native Ostrea lurida and non-native Crassostrea gigas) grown in and out of eelgrass (Zostera marina) at six estuarine sites in Washington state. Hypothesized mechanisms of eelgrass influence include reduced predation pressure, reduced or altered food availability, and amelioration of environmental (pH) stress. We analyzed oyster survival, shell and tissue growth, shell strength, and stable isotope (SI) and fatty acid (FA) biomarkers. Oyster survival was > 20% lower in eelgrass at lower-estuary sites, but not up-estuary sites. Both species grew faster in eelgrass at one low-estuary (higher pH) site, but not elsewhere. Shell strength in eelgrass increased by 21.1% for native but decreased by 12.6% for non-native oysters. FA and SI biomarkers only differed in eelgrass at one site but correlated significantly to growth among individuals. No measurement showed a consistent response to eelgrass across estuarine conditions and taxa, and responses were often opposite of expectations based on published literature. These results have important implications for management and restoration of oysters in areas with eelgrass.

Keywords

Foundation species Habitat modification Food availability Ocean acidification Stable isotopes Fatty acids Ostrea lurida Crassostrea gigas Oysters 

Notes

Acknowledgments

This work could not have been completed without the field and lab assistance of A. Lee, M. Payne, J. Aspée, H. Hayford, S. Von Reis, P. Stamp, and A. Trimble. We thank B. Taylor and Taylor Shellfish for providing oysters and the Padilla Bay National Estuarine Research Reserve (NERR) staff for field and logistical support. M. Dethier, C. Gross, and M. Turner provided valuable feedback on the manuscript. This work was authorized by Washington Fish and Wildlife Shellfish transfer permit no. 15-1105.

Funding

Funding for this research was provided by the Padilla Bay NERR Assistantship and Washington Department of Natural Resources.

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Copyright information

© Coastal and Estuarine Research Federation 2018

Authors and Affiliations

  1. 1.Department of BiologyUniversity of WashingtonSeattleUSA
  2. 2.Department of BiologyMontclair State UniversityMontclairUSA
  3. 3.Washington Department of Natural ResourcesOlympiaUSA

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