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Official PDF TranslationSCIENCE CHINA Materials

Functional Antifouling Hydrogel Surface Engineering: Insight into Mechanisms, Interfacial Regulation and Marine Protection

Authors: CHEN Wenxian; JIA Xuemin; LIU Ziqiang; GAO Feng; WANG Lei; HU Jiankun; LU Jianguo; HOU Yang; ZHAN Xiaoli; ZHANG Qinghua

DOI: 10.1007/s40843-025-3479-9Status: Verified Translated Edition
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Key Findings in This Report

• • Zwitterionic hydrogel coatings achieve a 99.9% reduction in marine bacterial attachment (e.g., Langmuir 2025, 41: 3464–3474), directly addressing the $150 billion annual biofouling cost to the shipping industry by minimizing fuel penalty and dry-docking frequency. • • Interpenetrating network (IPN) hydrogels exhibit tensile strengths up to 1.2 MPa and toughness of 8 MJ/m³ (Colloids Surfs A 2009, 346: 91–98), enabling durable coatings that withstand mechanical abrasion during in-service cleaning and extend operational lifetimes beyond 5 years. • • Poly(vinyl alcohol)–glycerol hydrogels demonstrate adhesion strength of 1.5 MPa on metal substrates (Soft Matter 2020, 16: 709–717), ensuring robust interfacial bonding to ship hulls and offshore platforms under cyclic hydrodynamic shear. • • Capsaicin-derivative functionalized hydrogel coatings reduce biofouling coverage by 85% after 6 months of field immersion (J Cleaner Production 2023, 429: 139538), offering a non-toxic alternative to copper-based paints that leach at rates exceeding 5 µg/cm²/day.