Stay clean: direct steam exposure to manage biofouling risks

Biofouling by marine organisms can result in a variety of negative environmental and economic consequences, with decontamination procedures remaining problematic, costly and labour-intensive. Here, we examined the efficacy of direct steam exposure to induce mortality of selected biofouling species:...

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Veröffentlicht in:Marine pollution bulletin 2019-05, Vol.142, p.465-469
Hauptverfasser: Joyce, Patrick W.S., Cuthbert, Ross N., Kregting, Louise, Crane, Kate, Vong, Gina Y.W., Cunningham, Eoghan M., Dick, Jaimie T.A., Coughlan, Neil E.
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container_end_page 469
container_issue
container_start_page 465
container_title Marine pollution bulletin
container_volume 142
creator Joyce, Patrick W.S.
Cuthbert, Ross N.
Kregting, Louise
Crane, Kate
Vong, Gina Y.W.
Cunningham, Eoghan M.
Dick, Jaimie T.A.
Coughlan, Neil E.
description Biofouling by marine organisms can result in a variety of negative environmental and economic consequences, with decontamination procedures remaining problematic, costly and labour-intensive. Here, we examined the efficacy of direct steam exposure to induce mortality of selected biofouling species: Mytilus edulis; Magallana gigas; Semibalanus balanoides; Fucus vesiculosus; and an Ulva sp. Total mortality occurred at 60-sec of steam exposure for M. edulis and juvenile M. gigas, at 30-sec for S. balanoides, while 300-sec was required for adult M. gigas. Application of steam reduced the biomass of F. vesiculosus and significantly reduced Ulva sp. biomass, with complete degradation being observed for Ulva sp. following 120-sec of exposure. Accordingly, it appears that steam exposure can cause mortality of biofouling organisms through thermal shock. Although preliminary, our novel and promising results suggest that steam applications could potentially be used to decontaminate niche areas and equipment. •Steam exposure can cause mortality and biodegradation through thermal shock.•Direct exposure to steam caused total mortality of biofouling bivalve species.•Complete mortality can be achieved with short exposure times of ≤60 sec.•Larger-bodied bivalves, e.g. adult Magallana gigas, required longer exposure times.•Steam significantly reduced the biomass of Ulva sp.
doi_str_mv 10.1016/j.marpolbul.2019.04.011
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subjects Animals
Aquatic Organisms
Barnacle
Biodegradation
Biofouling
Biofouling - prevention & control
Biomass
Biosecurity
Bivalve
Decontamination
Economics
Exposure
Fouling
Fucus
Fucus vesiculosus
Invasive species
Labour
Macroalgae
Marine molluscs
Marine organisms
Mortality
Mytilus edulis
Niches
Ostreidae
Procedures
Risk management
Semibalanus balanoides
Spread-prevention
Steam
Thermal shock
Thoracica
Time Factors
Total mortality
Ulva
title Stay clean: direct steam exposure to manage biofouling risks
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