Coral-Inspired Polyrotaxane Dynamic Antifouling Membrane Simultaneously Enhances Flux and Antifouling Performance

Inspired by soft coral's self-cleaning properties, a polyrotaxane-based membrane (EVOH-PR) with sliding α-cyclodextrin rings was designed to enhance flux and antifouling performance. The sliding-ring structure, synthesized via click chemistry, mimics coral's dynamic motion to induce hydration layers and steric hindrance. Molecular dynamics simulations confirmed the dynamic behavior of PR and the dynamic antifouling mechanism. The EVOH-PR membrane achieved a high flux recovery rate (95.1%), low flux decline rate (7.54%), and maximum flux (720 L/(m<sup>2</sup>·h)). Stability tests showed unchanged hydrophilicity and separation efficiency after multiple cycles. Synergy between movable rings, hydration layers, and steric hindrance enabled dynamic antifouling. This work provides a proactive dynamic antifouling strategy through coral-inspired molecular motion.

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Publication Details

Journal
Biomacromolecules
Published
2025-09-25
DOI
https://doi.org/10.1021/acs.biomac.5c00948
Citations
1
Primary Topic
Marine Biology and Environmental Chemistry
Type
article
Field-Weighted Citation Impact
1.15
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article

Coral-Inspired Polyrotaxane Dynamic Antifouling Membrane Simultaneously Enhances Flux and Antifouling Performance

Linlin Du, Sisi Ma, Yingbo Zhang, Hongbin Li et al.
1 citations
Biomacromolecules
Marine Biology and Environmental Chemistry
1.15
article

Coral-Inspired Polyrotaxane Dynamic Antifouling Membrane Simultaneously Enhances Flux and Antifouling Performance

Linlin Du, Sisi Ma, Yingbo Zhang, Hongbin Li, Mingwen Wang, W. S. Shi
article en
1 citations

Abstract

Inspired by soft coral's self-cleaning properties, a polyrotaxane-based membrane (EVOH-PR) with sliding α-cyclodextrin rings was designed to enhance flux and antifouling performance. The sliding-ring structure, synthesized via click chemistry, mimics coral's dynamic motion to induce hydration layers and steric hindrance. Molecular dynamics simulations confirmed the dynamic behavior of PR and the dynamic antifouling mechanism. The EVOH-PR membrane achieved a high flux recovery rate (95.1%), low flux decline rate (7.54%), and maximum flux (720 L/(m<sup>2</sup>·h)). Stability tests showed unchanged hydrophilicity and separation efficiency after multiple cycles. Synergy between movable rings, hydration layers, and steric hindrance enabled dynamic antifouling. This work provides a proactive dynamic antifouling strategy through coral-inspired molecular motion.

BiomacromoleculesVol. 26(10)
Henan University of Engineering (CN), Department of Physics, Mathematics and Informatics (BY)
Openalex Percentile: Top 18%
Marine Biology and Environmental Chemistry
1.15
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