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Production of ultrafiltration membranes exhibiting antibacterial properties by the incorporation of novel N‐halamine copolymers

Antibacterial PVDF flat sheet membranes are produced with the directly incorporation of novel synthesized N‐halamine copolymers having high chlorine loading capacity and compatible with the base polymer. FTIR and 1H NMR analysis are applied to the synthesized polymers and the presence of the polymer...

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Published in:Journal of applied polymer science 2022-08, Vol.139 (31), p.n/a
Main Authors: Demirci, Fatma, Aydın, Ahmet, Orhan, Mehmet, Koçer, Hasan Basri
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Language:English
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description Antibacterial PVDF flat sheet membranes are produced with the directly incorporation of novel synthesized N‐halamine copolymers having high chlorine loading capacity and compatible with the base polymer. FTIR and 1H NMR analysis are applied to the synthesized polymers and the presence of the polymers in the produce membrane structures are determined with FTIR and XPS analysis. To get information about phase separation behavior of the membrane solutions, ternary phase diagrams of the synthesized copolymers, PVDF, and their mixed solutions are prepared. The effect of synthesized polymers on membrane pore formation is revealed with ternary phase diagrams, water flux performance, BSA rejection performance, and SEM images of the produced membranes. Two different biocidal tests are applied to the membranes to determine the effectiveness of the membrane surfaces against biofilm formation, the speed of antibacterial efficiency and the duration of the biocidal activity of the membranes. The tests results show that only a small amount of copolymer incorporation into PVDF membranes solutions enables to production of antibacterial membranes with a long‐term and rapid efficacy against S. aureus and E. coli bacteria.
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subjects Biocides
Chlorine
Copolymers
E coli
Incorporation
Materials science
Membrane structures
Membranes
NMR
Nuclear magnetic resonance
Phase diagrams
Phase separation
Polymers
Pore formation
synthesis and processing techniques
Ternary systems
Ultrafiltration
X ray photoelectron spectroscopy
title Production of ultrafiltration membranes exhibiting antibacterial properties by the incorporation of novel N‐halamine copolymers
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