Projected 21st century shifts in fish growth potential in the California Current Ecosystem

We present a modeling framework that quantifies 21st Century climate change impacts on early-marine fish growth potential along the central U.S. west coast using juvenile Chinook salmon as a case-study species. A bioenergetic model responding to future scenarios for krill concentrations and temperatures was used to calculate future growth potential for two ocean entry locations along the U.S. west coast from 2000-2100. Our results indicate that climate change impacts will vary by latitude and entry time, with increased future growth potential in the north regardless of entry time and reduced growth potential in the south for late entry fish. In addition, northern ocean locations will likely experience an increase in anomalously positive growth years over the course of the 21st century. Overall, our scenario reflects a warming ocean that causes spatiotemporal shifts in growth potentialfor juvenile salmon along the U.S. west coast and highlights the benefits of using such modeling frameworks to explore climate change impacts on early growth of marine fishes.

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Publication Details

Journal
PLOS Climate
Published
2025-12-26
DOI
https://doi.org/10.1371/journal.pclm.0000788
Primary Topic
Marine and fisheries research
Type
article
Field-Weighted Citation Impact
0.00
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article

Projected 21st century shifts in fish growth potential in the California Current Ecosystem

Jerome Fiechter, Jarrod A. Santora, Brian K. Wells, N. J. Mantua et al.
PLOS Climate
Marine and fisheries research
article

Projected 21st century shifts in fish growth potential in the California Current Ecosystem

Jerome Fiechter, Jarrod A. Santora, Brian K. Wells, N. J. Mantua, Kelly Vasbinder, David D. Huff, Steven Lindley
article en

Abstract

We present a modeling framework that quantifies 21st Century climate change impacts on early-marine fish growth potential along the central U.S. west coast using juvenile Chinook salmon as a case-study species. A bioenergetic model responding to future scenarios for krill concentrations and temperatures was used to calculate future growth potential for two ocean entry locations along the U.S. west coast from 2000-2100. Our results indicate that climate change impacts will vary by latitude and entry time, with increased future growth potential in the north regardless of entry time and reduced growth potential in the south for late entry fish. In addition, northern ocean locations will likely experience an increase in anomalously positive growth years over the course of the 21st century. Overall, our scenario reflects a warming ocean that causes spatiotemporal shifts in growth potentialfor juvenile salmon along the U.S. west coast and highlights the benefits of using such modeling frameworks to explore climate change impacts on early growth of marine fishes.

PLOS ClimateVol. 4(12)
Life below water, Climate action
Openalex Percentile: Top 36%
Marine and fisheries research
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