2019
DOI: 10.1016/j.cej.2019.06.025
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Direct formation of amphiphilic crosslinked networks based on PVP as a marine anti-biofouling coating

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Cited by 62 publications
(25 citation statements)
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“…Therefore, in this work, a synergistic strategy was proposed and achieved by copolymerizing several functional monomers. MMA, EA, and BA were used to render the coating with durability and strong mechanical and adhesion properties. TBSM can render the coating a stable hydrolysis rate for stable eugenol release. PVP is a neutrally charged polymer with strong hydrophilicity and antifouling properties, as well as stability against oxidation . EM can covalently incorporate eugenol moieties into the coating, render coating contact inhibition properties.…”
Section: Results and Discussionmentioning
confidence: 99%
“…Therefore, in this work, a synergistic strategy was proposed and achieved by copolymerizing several functional monomers. MMA, EA, and BA were used to render the coating with durability and strong mechanical and adhesion properties. TBSM can render the coating a stable hydrolysis rate for stable eugenol release. PVP is a neutrally charged polymer with strong hydrophilicity and antifouling properties, as well as stability against oxidation . EM can covalently incorporate eugenol moieties into the coating, render coating contact inhibition properties.…”
Section: Results and Discussionmentioning
confidence: 99%
“…Another eco-friendly approach to antifouling is the fouling-releasing coating [210][211][212][213]. For example, silicone-based polymers can be developed into a fouling-releasing coating to release attached bio-foulings easily from the coating surface [214].…”
Section: Antifouling Coatingsmentioning
confidence: 99%
“…Ideal marine coatings should be able to simultaneously resist the initial settlement of marine organisms (antifouling property) and have low adhesion strength with the organisms (fouling-release property) without environmental threats. ,, Recently, many nontoxic strategies have been extensively explored to meet the challenge of marine biofoulings. For example, the controlled surface topography is applied to influence the settlement behavior of marine organisms; the surfaces are modified by fouling-deterrent bioactive molecules, or antifouling zwitterionic groups, and so forth. Modifications of zwitterionic materials have achieved excellent mechanical stability, tunable elasticity, or long-term anti-biofilm properties. In recent years, amphiphilic materials presenting both antifouling and fouling-release properties have been a promising marine coating. , The amphiphilic coating surfaces incorporate the hydrophilic segments (e.g., polyethylene glycol, PEG) to resist organism attachment with the hydrophobic segments (e.g., polydimethylsiloxane, PDMS) to reduce the adhesion strength. However, the ether linkage in PEG is susceptible to thermal/oxidative chain scission, significantly reducing the protein resistance. Moreover, hydrophobic PDMS cannot prevent the formation of marine slime layers (mainly composed of protein, bacteria, and diatoms) because of the hydrophobic interaction between slime-based marine organisms and PDMS materials. , …”
Section: Introductionmentioning
confidence: 99%
“…Subsequently, the amphiphilic copolymer is blended into a crosslinked PDMS matrix to develop a highly efficient marine antifouling coating. Because the pyrrolidone units can tightly bind water molecules, PVP presents a high hydrophilicity to form a strong hydration layer, which can eliminate the electrostatic force and hydrophobic interaction between the coating surface and biomolecules. , Therefore, hydrophilic PVP segments in PVP–PFA–PDMS copolymer can effectively resist the settlement of fouling organisms. More importantly, PVP has been reported to possess a superior long-term stability even in harsh conditions (e.g., 3% of H 2 O 2 solution for 100 h at 60 °C) .…”
Section: Introductionmentioning
confidence: 99%