Preparation of exfoliated montmorillonite nanocomposites with catechol/zwitterionic quaternized polymer for an antifouling coating

Here, we report the fabrication of montmorillonite (MMT) to incorporate an antifouling capability using 2‐chloro‐3′, 4′‐dihydroxyacetophenone (CCDP), and 1,3‐propanesultone quaternized poly(dimethyl amino)ethyl methacrylate [(C/S)‐q‐PDMA]. The dispersibility of MMT was improved through an ion exchan...

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Veröffentlicht in:Polymer engineering and science 2015-09, Vol.55 (9), p.2111-2117
Hauptverfasser: Jeong, Chan Jin, Kang, Eun Bi, Park, Soo Jung, choi, Kyung Ho, Shin, Gyojic, In, Insik, Park, Sung Young
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container_end_page 2117
container_issue 9
container_start_page 2111
container_title Polymer engineering and science
container_volume 55
creator Jeong, Chan Jin
Kang, Eun Bi
Park, Soo Jung
choi, Kyung Ho
Shin, Gyojic
In, Insik
Park, Sung Young
description Here, we report the fabrication of montmorillonite (MMT) to incorporate an antifouling capability using 2‐chloro‐3′, 4′‐dihydroxyacetophenone (CCDP), and 1,3‐propanesultone quaternized poly(dimethyl amino)ethyl methacrylate [(C/S)‐q‐PDMA]. The dispersibility of MMT was improved through an ion exchange reaction between MMT and (C/S)‐q‐PDMA. The developed MMT with (C/S)‐q‐PDMA, consisting of catechol for adhesive properties, and this combination [(C/S)‐q‐PDMA] worked as a zwitterionic surfactants to enhance chain mobility in an aqueous medium. The d‐space interval is easy to enlarge and exfoliated the clay layers between MMT and different ratios of [(C/S)‐q‐PDMA] (1, 5, and 10 wt%). The degradation temperature of modified MMT composites is higher than that of the pure polymer without clay. The remaining CCDP moiety of MMT [(C/S)‐q‐PDMA] allowed easy access to surface coatings, which have been confirmed in terms of contact angle, XPS measurements, and antifouling effects through HeLa cell detachment. Finally, the beneficial influence of a coated polypropylene (PP) surface on the oxygen transmission rate and water vapor transmission suggest an emerging future for (C/S)‐q‐PDMA with an MMT hybrid coating composite. POLYM. ENG. SCI., 55:2111–2117, 2015. © 2014 Society of Plastics Engineers
doi_str_mv 10.1002/pen.24052
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The dispersibility of MMT was improved through an ion exchange reaction between MMT and (C/S)‐q‐PDMA. The developed MMT with (C/S)‐q‐PDMA, consisting of catechol for adhesive properties, and this combination [(C/S)‐q‐PDMA] worked as a zwitterionic surfactants to enhance chain mobility in an aqueous medium. The d‐space interval is easy to enlarge and exfoliated the clay layers between MMT and different ratios of [(C/S)‐q‐PDMA] (1, 5, and 10 wt%). The degradation temperature of modified MMT composites is higher than that of the pure polymer without clay. The remaining CCDP moiety of MMT [(C/S)‐q‐PDMA] allowed easy access to surface coatings, which have been confirmed in terms of contact angle, XPS measurements, and antifouling effects through HeLa cell detachment. Finally, the beneficial influence of a coated polypropylene (PP) surface on the oxygen transmission rate and water vapor transmission suggest an emerging future for (C/S)‐q‐PDMA with an MMT hybrid coating composite. POLYM. 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The dispersibility of MMT was improved through an ion exchange reaction between MMT and (C/S)‐q‐PDMA. The developed MMT with (C/S)‐q‐PDMA, consisting of catechol for adhesive properties, and this combination [(C/S)‐q‐PDMA] worked as a zwitterionic surfactants to enhance chain mobility in an aqueous medium. The d‐space interval is easy to enlarge and exfoliated the clay layers between MMT and different ratios of [(C/S)‐q‐PDMA] (1, 5, and 10 wt%). The degradation temperature of modified MMT composites is higher than that of the pure polymer without clay. The remaining CCDP moiety of MMT [(C/S)‐q‐PDMA] allowed easy access to surface coatings, which have been confirmed in terms of contact angle, XPS measurements, and antifouling effects through HeLa cell detachment. Finally, the beneficial influence of a coated polypropylene (PP) surface on the oxygen transmission rate and water vapor transmission suggest an emerging future for (C/S)‐q‐PDMA with an MMT hybrid coating composite. POLYM. 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subjects Analysis
Antifouling coatings
Catechol
Chemical reactions
Clay (material)
Coating
Coatings
Contact angle
Dispersion
Exfoliation
Montmorillonite
Nanocomposites
Polymer matrix composites
Polymethyl methacrylate
Polypropylene
Polypropylenes
Properties
Protective coatings
title Preparation of exfoliated montmorillonite nanocomposites with catechol/zwitterionic quaternized polymer for an antifouling coating
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