Setting the limit: cold rather than hot temperatures limit intertidal distribution of a coastal foundation species.

Fuente: PubMed
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Hauptverfasser: Wasson, Kerstin, Cressman, Kim, Beheshti, Kathryn, Herder, Erin C, Endris, Charlie, Harley, Christopher D G, Abadía-Cardoso, Alicia, Beas-Luna, Rodrigo, Carolsfeld, Joachim, Chang, Andrew L, Crooks, Jeffrey A, Ferner, Matthew C, Grosholz, Edwin D, Harrington, Neil, Harris, Jacob, Hayford, Hilary, Helms, Alicia R, Lorda, Julio, Ruesink, Jennifer L, Ruiz de Alegría-Arzaburu, Amaia, Rumrill, Steven S, Schmitt, Jenni, Smith, Rachel S, Walker, Janet B, Whitcraft, Christine R, Yang, Sylvia, Zacherl, Danielle, Zabin, Chela J
Format: Artículo científico
Sprache:en
Veröffentlicht: Marine environmental research 2025
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author Wasson, Kerstin
Cressman, Kim
Beheshti, Kathryn
Herder, Erin C
Endris, Charlie
Harley, Christopher D G
Abadía-Cardoso, Alicia
Beas-Luna, Rodrigo
Carolsfeld, Joachim
Chang, Andrew L
Crooks, Jeffrey A
Ferner, Matthew C
Grosholz, Edwin D
Harrington, Neil
Harris, Jacob
Hayford, Hilary
Helms, Alicia R
Lorda, Julio
Ruesink, Jennifer L
Ruiz de Alegría-Arzaburu, Amaia
Rumrill, Steven S
Schmitt, Jenni
Smith, Rachel S
Walker, Janet B
Whitcraft, Christine R
Yang, Sylvia
Zacherl, Danielle
Zabin, Chela J
author_facet Wasson, Kerstin
Cressman, Kim
Beheshti, Kathryn
Herder, Erin C
Endris, Charlie
Harley, Christopher D G
Abadía-Cardoso, Alicia
Beas-Luna, Rodrigo
Carolsfeld, Joachim
Chang, Andrew L
Crooks, Jeffrey A
Ferner, Matthew C
Grosholz, Edwin D
Harrington, Neil
Harris, Jacob
Hayford, Hilary
Helms, Alicia R
Lorda, Julio
Ruesink, Jennifer L
Ruiz de Alegría-Arzaburu, Amaia
Rumrill, Steven S
Schmitt, Jenni
Smith, Rachel S
Walker, Janet B
Whitcraft, Christine R
Yang, Sylvia
Zacherl, Danielle
Zabin, Chela J
Wasson, Kerstin
Cressman, Kim
Beheshti, Kathryn
Herder, Erin C
Endris, Charlie
Harley, Christopher D G
Abadía-Cardoso, Alicia
Beas-Luna, Rodrigo
Carolsfeld, Joachim
Chang, Andrew L
Crooks, Jeffrey A
Ferner, Matthew C
Grosholz, Edwin D
Harrington, Neil
Harris, Jacob
Hayford, Hilary
Helms, Alicia R
Lorda, Julio
Ruesink, Jennifer L
Ruiz de Alegría-Arzaburu, Amaia
Rumrill, Steven S
Schmitt, Jenni
Smith, Rachel S
Walker, Janet B
Whitcraft, Christine R
Yang, Sylvia
Zacherl, Danielle
Zabin, Chela J
collection PubMed - marine biology
contents Setting the limit: cold rather than hot temperatures limit intertidal distribution of a coastal foundation species. Wasson, Kerstin Cressman, Kim Beheshti, Kathryn Herder, Erin C Endris, Charlie Harley, Christopher D G Abadía-Cardoso, Alicia Beas-Luna, Rodrigo Carolsfeld, Joachim Chang, Andrew L Crooks, Jeffrey A Ferner, Matthew C Grosholz, Edwin D Harrington, Neil Harris, Jacob Hayford, Hilary Helms, Alicia R Lorda, Julio Ruesink, Jennifer L Ruiz de Alegría-Arzaburu, Amaia Rumrill, Steven S Schmitt, Jenni Smith, Rachel S Walker, Janet B Whitcraft, Christine R Yang, Sylvia Zacherl, Danielle Zabin, Chela J Animals Climate Change Hot Temperature Cold Temperature Ecosystem Animal Distribution Ostrea Temperature Environmental Monitoring British Columbia Long-lasting restoration success of foundation species requires understanding their responses to climate change. For species with broad distributions, lower latitudes may serve as a proxy for future warming at higher latitudes. Such space-for-time substitutions are a powerful tool for developing climate change predictions for species distributed along steep elevational gradients. To understand climate resilience of a key coastal foundation species, we examined the upper elevational limit of the native Olympia oyster (Ostrea lurida) along its entire range at 26 sites spanning 21° latitude, from British Columbia to Baja California. Counter to our expectations, high air temperatures did not affect variation in the upper limit of Olympia oysters. Indeed, Olympia oysters extended high into the intertidal zone at the warmer southern sites, and shading did not influence the upper limit. Our models indicated instead that extreme low temperatures set the upper limit for Olympia oysters at higher latitudes. In contrast, neither the Pacific oyster (Magallana gigas), a co-occurring global invader, nor barnacles exhibited clear latitudinal patterns. These findings suggest that Olympia oysters and restoration projects aimed at supporting their recovery will be resilient to increased temperatures projected by climate change models. Our results also illustrate the importance of testing the assumption that species on steep elevational gradients are living close to their upper thermal limits and will be negatively impacted by warming; for this foundation species, the assumption was false. Latitudinal studies enhance understanding of species response to climate stressors and are key to the design of climate-resilient conservation strategies.
format Artículo científico
id pubmed_40262482
institution PubMed
language en
publishDate 2025
publisher Marine environmental research
record_format pubmed
spellingShingle Setting the limit: cold rather than hot temperatures limit intertidal distribution of a coastal foundation species.
Wasson, Kerstin
Cressman, Kim
Beheshti, Kathryn
Herder, Erin C
Endris, Charlie
Harley, Christopher D G
Abadía-Cardoso, Alicia
Beas-Luna, Rodrigo
Carolsfeld, Joachim
Chang, Andrew L
Crooks, Jeffrey A
Ferner, Matthew C
Grosholz, Edwin D
Harrington, Neil
Harris, Jacob
Hayford, Hilary
Helms, Alicia R
Lorda, Julio
Ruesink, Jennifer L
Ruiz de Alegría-Arzaburu, Amaia
Rumrill, Steven S
Schmitt, Jenni
Smith, Rachel S
Walker, Janet B
Whitcraft, Christine R
Yang, Sylvia
Zacherl, Danielle
Zabin, Chela J
Animals
Climate Change
Hot Temperature
Cold Temperature
Ecosystem
Animal Distribution
Ostrea
Temperature
Environmental Monitoring
British Columbia
Setting the limit: cold rather than hot temperatures limit intertidal distribution of a coastal foundation species. Wasson, Kerstin Cressman, Kim Beheshti, Kathryn Herder, Erin C Endris, Charlie Harley, Christopher D G Abadía-Cardoso, Alicia Beas-Luna, Rodrigo Carolsfeld, Joachim Chang, Andrew L Crooks, Jeffrey A Ferner, Matthew C Grosholz, Edwin D Harrington, Neil Harris, Jacob Hayford, Hilary Helms, Alicia R Lorda, Julio Ruesink, Jennifer L Ruiz de Alegría-Arzaburu, Amaia Rumrill, Steven S Schmitt, Jenni Smith, Rachel S Walker, Janet B Whitcraft, Christine R Yang, Sylvia Zacherl, Danielle Zabin, Chela J Animals Climate Change Hot Temperature Cold Temperature Ecosystem Animal Distribution Ostrea Temperature Environmental Monitoring British Columbia Long-lasting restoration success of foundation species requires understanding their responses to climate change. For species with broad distributions, lower latitudes may serve as a proxy for future warming at higher latitudes. Such space-for-time substitutions are a powerful tool for developing climate change predictions for species distributed along steep elevational gradients. To understand climate resilience of a key coastal foundation species, we examined the upper elevational limit of the native Olympia oyster (Ostrea lurida) along its entire range at 26 sites spanning 21° latitude, from British Columbia to Baja California. Counter to our expectations, high air temperatures did not affect variation in the upper limit of Olympia oysters. Indeed, Olympia oysters extended high into the intertidal zone at the warmer southern sites, and shading did not influence the upper limit. Our models indicated instead that extreme low temperatures set the upper limit for Olympia oysters at higher latitudes. In contrast, neither the Pacific oyster (Magallana gigas), a co-occurring global invader, nor barnacles exhibited clear latitudinal patterns. These findings suggest that Olympia oysters and restoration projects aimed at supporting their recovery will be resilient to increased temperatures projected by climate change models. Our results also illustrate the importance of testing the assumption that species on steep elevational gradients are living close to their upper thermal limits and will be negatively impacted by warming; for this foundation species, the assumption was false. Latitudinal studies enhance understanding of species response to climate stressors and are key to the design of climate-resilient conservation strategies.
title Setting the limit: cold rather than hot temperatures limit intertidal distribution of a coastal foundation species.
topic Animals
Climate Change
Hot Temperature
Cold Temperature
Ecosystem
Animal Distribution
Ostrea
Temperature
Environmental Monitoring
British Columbia
url https://pubmed.ncbi.nlm.nih.gov/40262482/