Can graphene oxide improve the performance of biocatalytic membrane?

Hao Zhang, Jianquan Luo*, Sushuang Li, John M. Woodley, Yinhua Wan

*Corresponding author for this work

Research output: Contribution to journalJournal articleResearchpeer-review

Abstract

The presence of micropollutants in water results in serious effects on public health and aquatic ecosystems. Biocatalytic membrane technology has shown great potential for micropollutant removal. However, the efficiency and stability still need to be further improved. In this work, we introduced graphene oxide (GO) and GO derivates into a biocatalytic membrane by reverse filtration and co-deposition methods respectively, in order to explore the role of GO in the biocatalytic membrane. The enrichment effect and catalytic functions of GO improved both the activity and stability of the laccase. Although the bisphenol A (BPA) removal efficiency was not promoted with such a GO-based biocatalytic membrane under flow-through mode, the incorporation of GO in the membrane increased the enzyme loading and its storage stability, which has great potential in BPA detection. Apart from offering a novel strategy to prepare GO-based biocatalytic membranes for micropollutant removal and detection, this work further clarifies the interaction mechanism between GO, laccase and micropollutants, especially in a polymeric membrane matrix.
Original languageEnglish
JournalChemical Engineering Journal
Volume359
Pages (from-to)982-993
ISSN1369-703X
DOIs
Publication statusPublished - 2019

Keywords

  • Micropollutants
  • Biocatalytic membrane
  • Graphene oxide
  • Polydopamine
  • Laccase immobilization

Cite this

Zhang, Hao ; Luo, Jianquan ; Li, Sushuang ; Woodley, John M. ; Wan, Yinhua. / Can graphene oxide improve the performance of biocatalytic membrane?. In: Chemical Engineering Journal. 2019 ; Vol. 359. pp. 982-993.
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title = "Can graphene oxide improve the performance of biocatalytic membrane?",
abstract = "The presence of micropollutants in water results in serious effects on public health and aquatic ecosystems. Biocatalytic membrane technology has shown great potential for micropollutant removal. However, the efficiency and stability still need to be further improved. In this work, we introduced graphene oxide (GO) and GO derivates into a biocatalytic membrane by reverse filtration and co-deposition methods respectively, in order to explore the role of GO in the biocatalytic membrane. The enrichment effect and catalytic functions of GO improved both the activity and stability of the laccase. Although the bisphenol A (BPA) removal efficiency was not promoted with such a GO-based biocatalytic membrane under flow-through mode, the incorporation of GO in the membrane increased the enzyme loading and its storage stability, which has great potential in BPA detection. Apart from offering a novel strategy to prepare GO-based biocatalytic membranes for micropollutant removal and detection, this work further clarifies the interaction mechanism between GO, laccase and micropollutants, especially in a polymeric membrane matrix.",
keywords = "Micropollutants, Biocatalytic membrane, Graphene oxide, Polydopamine, Laccase immobilization",
author = "Hao Zhang and Jianquan Luo and Sushuang Li and Woodley, {John M.} and Yinhua Wan",
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journal = "Biochemical Engineering Journal",
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Can graphene oxide improve the performance of biocatalytic membrane? / Zhang, Hao; Luo, Jianquan; Li, Sushuang; Woodley, John M.; Wan, Yinhua.

In: Chemical Engineering Journal, Vol. 359, 2019, p. 982-993.

Research output: Contribution to journalJournal articleResearchpeer-review

TY - JOUR

T1 - Can graphene oxide improve the performance of biocatalytic membrane?

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AU - Luo, Jianquan

AU - Li, Sushuang

AU - Woodley, John M.

AU - Wan, Yinhua

PY - 2019

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N2 - The presence of micropollutants in water results in serious effects on public health and aquatic ecosystems. Biocatalytic membrane technology has shown great potential for micropollutant removal. However, the efficiency and stability still need to be further improved. In this work, we introduced graphene oxide (GO) and GO derivates into a biocatalytic membrane by reverse filtration and co-deposition methods respectively, in order to explore the role of GO in the biocatalytic membrane. The enrichment effect and catalytic functions of GO improved both the activity and stability of the laccase. Although the bisphenol A (BPA) removal efficiency was not promoted with such a GO-based biocatalytic membrane under flow-through mode, the incorporation of GO in the membrane increased the enzyme loading and its storage stability, which has great potential in BPA detection. Apart from offering a novel strategy to prepare GO-based biocatalytic membranes for micropollutant removal and detection, this work further clarifies the interaction mechanism between GO, laccase and micropollutants, especially in a polymeric membrane matrix.

AB - The presence of micropollutants in water results in serious effects on public health and aquatic ecosystems. Biocatalytic membrane technology has shown great potential for micropollutant removal. However, the efficiency and stability still need to be further improved. In this work, we introduced graphene oxide (GO) and GO derivates into a biocatalytic membrane by reverse filtration and co-deposition methods respectively, in order to explore the role of GO in the biocatalytic membrane. The enrichment effect and catalytic functions of GO improved both the activity and stability of the laccase. Although the bisphenol A (BPA) removal efficiency was not promoted with such a GO-based biocatalytic membrane under flow-through mode, the incorporation of GO in the membrane increased the enzyme loading and its storage stability, which has great potential in BPA detection. Apart from offering a novel strategy to prepare GO-based biocatalytic membranes for micropollutant removal and detection, this work further clarifies the interaction mechanism between GO, laccase and micropollutants, especially in a polymeric membrane matrix.

KW - Micropollutants

KW - Biocatalytic membrane

KW - Graphene oxide

KW - Polydopamine

KW - Laccase immobilization

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