Prokaryote Fouling Communities on Novel Electrochemically Active Coatings after Submersion in Port Adelaide River Harbor Basin

Marine fouling has a detrimental effect not only on structures but also is a source of ongoing economic losses. However, controlling marine fouling is complex, as multiple factors influence organism settlement. Currently, a majority of the antifouling coatings in use are hazardous to the environment. This study presents an effective novel electrochemically active method for preventing the settling of macrofouling organisms and reducing microfouling attachment. Painted coupons were submerged in the Port Adelaide River harbor basin (Osborne, South Australia) for 55 days. Scanning electron microscopy, flow cytometry, and 16S amplicon sequencing were undertaken to assess the antifouling efficacy of the coatings. Our results show that no macrofouling was present on any coatings that were the subject of electrochemical parameters. A reduction in the number of attached microorganisms was evident on the electrochemical coatings. The development of an environmentally friendly antifouling treatment could revolutionize the shipping industry and eliminate any biosecurity risks.

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Publication Details

Journal
ACS ES&T Water
Published
2025-09-15
DOI
https://doi.org/10.1021/acsestwater.5c00794
Primary Topic
Marine Biology and Environmental Chemistry
Type
article
Field-Weighted Citation Impact
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article

Prokaryote Fouling Communities on Novel Electrochemically Active Coatings after Submersion in Port Adelaide River Harbor Basin

Richard F. Piola, Giles Best, Sait Elmas, Sophie C. Leterme et al.
ACS ES&T Water
Marine Biology and Environmental Chemistry
article

Prokaryote Fouling Communities on Novel Electrochemically Active Coatings after Submersion in Port Adelaide River Harbor Basin

Richard F. Piola, Giles Best, Sait Elmas, Sophie C. Leterme, Tamar Jamieson, Mohsen Chitsaz, Mats R. Andersson, Andrew Scardino
article en

Abstract

Marine fouling has a detrimental effect not only on structures but also is a source of ongoing economic losses. However, controlling marine fouling is complex, as multiple factors influence organism settlement. Currently, a majority of the antifouling coatings in use are hazardous to the environment. This study presents an effective novel electrochemically active method for preventing the settling of macrofouling organisms and reducing microfouling attachment. Painted coupons were submerged in the Port Adelaide River harbor basin (Osborne, South Australia) for 55 days. Scanning electron microscopy, flow cytometry, and 16S amplicon sequencing were undertaken to assess the antifouling efficacy of the coatings. Our results show that no macrofouling was present on any coatings that were the subject of electrochemical parameters. A reduction in the number of attached microorganisms was evident on the electrochemical coatings. The development of an environmentally friendly antifouling treatment could revolutionize the shipping industry and eliminate any biosecurity risks.

ACS ES&T WaterVol. 5(10)
Defence Science and Technology Group (AU), Flinders University (AU), Arctic Research Centre (SE), Australian Health Practitioner Regulation Agency (AU), Flometrics (United States) (US)
Openalex Percentile: Top 70%
Marine Biology and Environmental Chemistry
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Prokaryote Fouling Communities on Novel Electrochemically Active Coatings after Submersion in Port Adelaide River Harbor Basin — Richard F. Piola, Giles Best, et al. · ACS ES&T Water (2025) | TGRS Research Map | TGRS