The ecology of Lepas-based biofouling communities on moored and drifting objects, with applications for marine forensic science

Pelagic biofoulers such as barnacles or bryozoans settle and raft on natural debris like pumice or seeds. Recent influxes of marine debris into the world’s oceans, especially plastic, have increased habitat availability for these biofoulers. Goose barnacles in the genus Lepas are some of the most co...

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Veröffentlicht in:Marine biology 2021-02, Vol.168 (2), Article 21
Hauptverfasser: Mesaglio, Thomas P., Schilling, Hayden T., Adler, Lewis, Ahyong, Shane T., Maslen, Ben, Suthers, Iain M.
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Adler, Lewis
Ahyong, Shane T.
Maslen, Ben
Suthers, Iain M.
description Pelagic biofoulers such as barnacles or bryozoans settle and raft on natural debris like pumice or seeds. Recent influxes of marine debris into the world’s oceans, especially plastic, have increased habitat availability for these biofoulers. Goose barnacles in the genus Lepas are some of the most common biofouling taxa globally, and play an important role in biofouling communities as foundation species. We examined community succession, growth rates and isotopic composition in Lepas and their associated biofouling communities in coastal waters of eastern Australia. Community succession on a fixed surface mooring showed an increase in species diversity over 25 weeks. Using the abundances of L. anserifera , L. anatifera , and the amphipods Caprella danilevskii and Jassa slatteryi , we created an equation to estimate minimum duration at sea. Predators such as the polychaete Amphinome rostrata may influence the biofouling community, as can beach scavengers once floating debris is cast ashore. We report a new maximum growth rate for L. anserifera of 1.45 mm −1 , and our study is the first to report growth rates for any species of Lepas faster than 1 mm day −1 . Lepas were larger on moored floats than on smaller, free-floating drifters. δ 18 O content of Lepas shells was a robust predictor of sea surface temperatures during formation for L. anatifera and L. anserifera . Our findings have important applications for estimating drift duration and trajectories of marine debris. Graphic abstract
doi_str_mv 10.1007/s00227-021-03822-1
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Recent influxes of marine debris into the world’s oceans, especially plastic, have increased habitat availability for these biofoulers. Goose barnacles in the genus Lepas are some of the most common biofouling taxa globally, and play an important role in biofouling communities as foundation species. We examined community succession, growth rates and isotopic composition in Lepas and their associated biofouling communities in coastal waters of eastern Australia. Community succession on a fixed surface mooring showed an increase in species diversity over 25 weeks. Using the abundances of L. anserifera , L. anatifera , and the amphipods Caprella danilevskii and Jassa slatteryi , we created an equation to estimate minimum duration at sea. Predators such as the polychaete Amphinome rostrata may influence the biofouling community, as can beach scavengers once floating debris is cast ashore. We report a new maximum growth rate for L. anserifera of 1.45 mm −1 , and our study is the first to report growth rates for any species of Lepas faster than 1 mm day −1 . Lepas were larger on moored floats than on smaller, free-floating drifters. δ 18 O content of Lepas shells was a robust predictor of sea surface temperatures during formation for L. anatifera and L. anserifera . Our findings have important applications for estimating drift duration and trajectories of marine debris. 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subjects Aquatic birds
Aquatic crustaceans
Biodiversity
Biofouling
Biomedical and Life Sciences
Cirripedia
Coastal waters
Debris
Deep sea moorings
Drift estimation
Drifters
Ecology
Floating
Floats
Forensic biology
Forensic science
Forensic sciences
Fouling
Freshwater & Marine Ecology
Growth rate
Habitat availability
Lepas anatifera
Lepas anserifera
Life Sciences
Marine & Freshwater Sciences
Marine biology
Marine crustaceans
Marine debris
Marine forensics
Methods
Microbiology
Museums
Oceanography
Oceans
Original Paper
Predation
Predators
Pumice
Sea surface
Sea surface temperature
Seeds
Species diversity
Waterfowl
Zoology
title The ecology of Lepas-based biofouling communities on moored and drifting objects, with applications for marine forensic science
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