TY - JOUR
T1 - Predicting the future of our oceans - Evaluating genomic forecasting approaches in marine species
AU - Layton, Kara K. S.
AU - Servane Brieuc, Marine
AU - Castilho, Rita
AU - Diaz-Arce, Natalia
AU - Estévez-Barcia, Daniel
AU - Fonseca, Vera
AU - Fuentes Pardo, Angela
AU - Jeffery, Nick
AU - Jiménez Mena, Belén
AU - Junge, Claudia
AU - Kaufmann, Joshka
AU - Leinonen, Tuomas
AU - Maes, Sarah
AU - McGinnity, Philip
AU - Reed, Thomas
AU - Reisser, Celine MO
AU - Silva, Goncalo
AU - Vasemagi, Anti
AU - Bradbury, Ian R.
PY - 2024/3
Y1 - 2024/3
N2 - Climate change is restructuring biodiversity on multiple scales and there is a pressing need to understand the downstream ecological and genomic consequences of this change. Recent advancements in the field of eco-evolutionary genomics have sought to include evolutionary processes in forecasting species' responses to climate change (e.g., genomic offset), but to date, much of this work has focused on terrestrial species. Coastal and offshore species, and the fisheries they support, may be even more vulnerable to climate change than their terrestrial counterparts, warranting a critical appraisal of these approaches in marine systems. First, we synthesize knowledge about the genomic basis of adaptation in marine species, and then we discuss the few examples where genomic forecasting has been applied in marine systems. Next, we identify the key challenges in validating genomic offset estimates in marine species, and we advocate for the inclusion of historical sampling data and hindcasting in the validation phase. Lastly, we describe a workflow to guide marine managers in incorporating these predictions into the decision-making process.
AB - Climate change is restructuring biodiversity on multiple scales and there is a pressing need to understand the downstream ecological and genomic consequences of this change. Recent advancements in the field of eco-evolutionary genomics have sought to include evolutionary processes in forecasting species' responses to climate change (e.g., genomic offset), but to date, much of this work has focused on terrestrial species. Coastal and offshore species, and the fisheries they support, may be even more vulnerable to climate change than their terrestrial counterparts, warranting a critical appraisal of these approaches in marine systems. First, we synthesize knowledge about the genomic basis of adaptation in marine species, and then we discuss the few examples where genomic forecasting has been applied in marine systems. Next, we identify the key challenges in validating genomic offset estimates in marine species, and we advocate for the inclusion of historical sampling data and hindcasting in the validation phase. Lastly, we describe a workflow to guide marine managers in incorporating these predictions into the decision-making process.
KW - adaptation
KW - climate change
KW - genomic offset
KW - marine species
KW - validation
UR - https://www.mendeley.com/catalogue/5ea87568-1b48-3f39-b536-b8a82eed4b4b/
U2 - 10.1111/gcb.17236
DO - 10.1111/gcb.17236
M3 - A1: Web of Science-article
SN - 1354-1013
VL - 30
JO - Global Change Biology
JF - Global Change Biology
IS - 3
ER -