Climate-assisted persistence of tropical fish vagrants in temperate marine ecosystems

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作者
Laura Gajdzik
Thomas M. DeCarlo
Adam Koziol
Mahsa Mousavi-Derazmahalleh
Megan Coghlan
Matthew W. Power
Michael Bunce
David V. Fairclough
Michael J. Travers
Glenn I. Moore
Joseph D. DiBattista
机构
[1] Curtin University,Trace and Environmental DNA Laboratory, School of Molecular and Life Sciences
[2] King Abdullah University of Science and Technology,Reef Ecology Laboratory, Red Sea Research Center
[3] Hawaiʻi Pacific University,College of Natural and Computational Sciences
[4] University of Copenhagen,The GLOBE Institute, Faculty of Health and Medical Sciences
[5] Institute of Environmental Science and Research,Western Australian Fisheries and Marine Research Laboratories, Department of Primary Industries and Regional Development
[6] Government of Western Australia,Collections and Research
[7] Western Australian Museum,School of Biological Sciences
[8] University of Western Australia,Australian Museum Research Institute
[9] Australian Museum,undefined
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摘要
Rising temperatures and extreme climate events are propelling tropical species into temperate marine ecosystems, but not all species can persist. Here, we used the heatwave-driven expatriation of tropical Black Rabbitfish (Siganus fuscescens) to the temperate environments of Western Australia to assess the ecological and evolutionary mechanisms that may entail their persistence. Population genomic assays for this rabbitfish indicated little genetic differentiation between tropical residents and vagrants to temperate environments due to high migration rates, which were likely enhanced by the marine heatwave. DNA metabarcoding revealed a diverse diet for this species based on phytoplankton and algae, as well as an ability to feed on regional resources, including kelp. Irrespective of future climate scenarios, these macroalgae-consuming vagrants may self-recruit in temperate environments and further expand their geographic range by the year 2100. This expansion may compromise the health of the kelp forests that form Australia’s Great Southern Reef. Overall, our study demonstrates that projected favourable climate conditions, continued large-scale genetic connectivity between populations, and diet versatility are key for tropical range-shifting fish to establish in temperate ecosystems.
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