Spanning surface interaction length scales for the design of industrial antifouling materials

Abstract Fouling of surfaces introduces significant operational and economic challenges in marine and membrane systems. While empirical fouling assays and surface science methodologies have independently introduced fouling resistant methodologies and functionalities within each of these respective application spaces, they remain limited by their inability to extrapolate findings across length scales and inform materials design strategies. This perspective emphasizes the need to bridge the macroscale fouling assays conducted in the marine community and molecular‐scale insights obtained from the membranes community. By uniting these approaches, generalized design strategies can be developed across applications, leading to the realization of effective antifouling materials over a wide spectrum of operating conditions and foulant types. Standardized and high‐throughput methodologies are proposed as tools to unify research efforts to drive the development of next‐generation antifouling coatings and treatments.

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Institutions

Publication Details

Journal
AIChE Journal
Published
2025-08-25
DOI
https://doi.org/10.1002/aic.70054
Citations
1
Primary Topic
Marine Biology and Environmental Chemistry
Type
article
Field-Weighted Citation Impact
1.15

Funders

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article

Spanning surface interaction length scales for the design of industrial antifouling materials

Rachel A. Segalman, Christopher K. Ober, Jonathan Aubuchon Ouimet, Shawn D. Mengel
1 citations
AIChE Journal
Marine Biology and Environmental Chemistry
1.15
article

Spanning surface interaction length scales for the design of industrial antifouling materials

Rachel A. Segalman, Christopher K. Ober, Jonathan Aubuchon Ouimet, Shawn D. Mengel
article en
1 citations

Abstract

Abstract Fouling of surfaces introduces significant operational and economic challenges in marine and membrane systems. While empirical fouling assays and surface science methodologies have independently introduced fouling resistant methodologies and functionalities within each of these respective application spaces, they remain limited by their inability to extrapolate findings across length scales and inform materials design strategies. This perspective emphasizes the need to bridge the macroscale fouling assays conducted in the marine community and molecular‐scale insights obtained from the membranes community. By uniting these approaches, generalized design strategies can be developed across applications, leading to the realization of effective antifouling materials over a wide spectrum of operating conditions and foulant types. Standardized and high‐throughput methodologies are proposed as tools to unify research efforts to drive the development of next‐generation antifouling coatings and treatments.

AIChE JournalVol. 72(1)
University of California, Santa Barbara (US), Cornell University (US)
U.S. Department of Energy, Office of Naval Research
Openalex Percentile: Top 19%
Marine Biology and Environmental Chemistry
1.15
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