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Progress in Chemistry 2022, Vol. 34 Issue (12): 2700-2714 DOI: 10.7536/220501 Previous Articles   Next Articles

• CONTENTS •

Advanced Oxidation Processes (AOPs) for Bacteria Removal over MOFs-Based Materials

Hongyu Chu1,2, Tianyu Wang1,2, Chong-Chen Wang1,2()   

  1. 1 Beijing Key Laboratory of Functional Materials for Building Structure and Environment Remediation, Beijing University of Civil Engineering and Architecture,Beijing 100044, China
    2 Key Laboratory of Urban Stormwater System and Water Environment (Ministry of Education), Beijing University of Civil Engineering and Architecture,Beijing 100044, China
  • Received: Revised: Online: Published:
  • Contact: Chong-Chen Wang
  • Supported by:
    National Natural Science Foundation of China(22176012); Beijing Natural Science Foundation(8202016)
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The pathogenic bacteria have exerted great threat to the safety of human being. Conventional antibacterial agents like antibiotics suffer from some limitations against drug-resistant bacteria. Thus, it is imperative to design novel antibacterial agents for efficient bacteria removal. Due to the tunable pores, abundant surface charge, periodically dispersed metal clusters and rich active sites, metal-organic frameworks (MOFs) can efficiently remove bacteria not only via the slowly released metal ions, but also via the corresponding advanced oxidation processes (AOPs) including photocatalysis, persulfate activation, Fenton-like reaction and photo-electrocatalysis. This review summarizes recent progress of antibacterial performances over MOFs-based AOPs catalysts (pristine MOFs, MOFs composites, MOFs derivatives and MOFs monoliths), in which the design strategies, antibacterial properties and antibacterial mechanisms are discussed. Finally, the challenges and the potential applications of MOFs-based catalysts are proposed.

Contents

1 Introduction

2 MOFs-based AOPs catalysts for bacteria removal

2.1 Pristine MOFs

2.2 Photosensitized MOFs

2.3 MOFs photo-electrodes

2.4 MOFs heterojunctions

2.5 MOFs derivatives

2.6 MOFs monoliths

3 Conclusions and outlooks

Key words: metal-organic framework, advanced oxidation process, catalyst, antibacterial, mechanism
Fig. 1 (a) Illustration of antibacterial mechanism of the ultrathin Cu-TCPP(BA)-MOF[49] (Copyright 2022, Elsevier); (b) The synthetic process of Zn50Co50-ZIF[47] (Copyright 2019, Springer Nature); (c) Illustration of the enhanced bactericidal mechanism over PCN-224(Zr/Ti) and the application of PCN-224(Zr/Ti) for wound healing[54] (Copyright 2020, John Wiley and Sons); (d) Illustration of the proposed ROS production mechanisms over PCN-224-Zn[55] (Copyright 2022, Elsevier)
Fig. 2 (a) Schematic illustration of the disinfection mechanism of Polydopamine (PDA)-modified MOF-PDA[57] (Copyright 2021, Elsevier); (b) Schematic illustration of fabrication and photo-inspired disinfection of Chlorin e6-modified ZIF-8[58] (Copyright 2020, Elsevier)
Fig. 3 The solar-driven photo-electrocatalytic antibacterial mechanism over Zr-NDC-2NH2 [61] (Copyright 2022, Elsevier)
Fig. 4 The construction strategies for MOFs-based heterojunctions (MOF is represented by A, the precursor of MOFs is represented by A’, other materials are represented by B or C, and the precursor of other materials is represented by B’ or C’)
Fig. 5 (a) Photoinduced antibacterial mechanisms of Ag/Ag3PO4-IRMOF-1 under visible light[68] (Copyright 2020, John Wiley and Sons); (b) Possible mechanisms of ROS generation and sterilization process over MIL-88B@COF-200@10%PANI under visible light[72] (Copyright 2021, Elsevier); (c) Proposed mechanisms of E. coli removal over Ag/ZIF-67@GO and PMS under visible light[74] (Copyright 2021, Elsevier)
Fig. 6 (a) The ROS generation process and photothermal effects against bacteria over PB-PCN-224 under 660 nm light[79] (Copyright 2021, Elsevier); (b) The core-shell structure, the bacteria killing processes, and rational photocatalytic mechanism for PB@TCPP@UiO-66[80] (Copyright 2019, American Chemical Society); (c) The photogenerated charges transfer/separation mechanisms over Zn0.05TiOxNy@SCN/Zn0.05TiOxNy@MOF-5[82] (Copyright 2020, Elsevier); (d) The plausible mechanism of MnO2/ZIF-8 against E. coli under solar light[85] (Copyright 2021, Elsevier); (e) The antibacterial mechanism of ZIF-8@Zn-MoS2 heterojunction under 660 nm light[87] (Copyright 2022, Elsevier)
Table 1 AOPs disinfection over different MOFs heterojunctions
MOFs-based materials Applications Performances ref
Ag/Ag3PO4/MOF-5 E.coli inhibition under visible light 100% removal in 120 min 68
MIL-100(Fe)/PANI E.coli inhibition under visible light 100% removal in 60 min 88
MIL-88B/COF/PANI E.coli and S. aureus inhibition under visible light > 90% removal in 60 min 72
Ag/ZIF-67/GO E.coli inhibition under visible light 100% removal in 15 min 74
PB/PCN-224 S. aureus inhibition under visible light 99.84% removal in 15 min 79
PB@TCPP@UiO-66 E.coli and S. aureus inhibition under visible light and NIR light 99.31% removal of S. aureus and
98.68% removal of E.coli in 10 min		 80
Zn0.05TiOxNy@MOF-5 E.coli, S. aureus and C. albicans inhibition under LED visible light 97% ~ 99.3% removal in 48 h 82
MnO2/ZIF-8 Multi-drug resistant E.coli inhibition under simulated sunlight 100% removal in 30 min 85
ZIF-8@Zn-MoS2 S. aureus inhibition under visible light 99.9% removal in 20 min 87
Ag/ZnO@C E.coli inhibition under simulated sunlight 100% removal in 120 min 89
Ag-ZnO-C E.coli inhibition under visible light 100% removal in 20 min 90
CdS@MIL-101 E.coli and S. aureus inhibition under LED visible light 92% ~ 95% removal in 180 min 91
Fig. 7 (a) Mechanism for the enhanced E. coli inactivation over Ag/ZnO@C[89] (Copyright 2020, Elsevier); (b) Photocatalytic mechanisms of caterpillar-like Ag-ZnO-C and its membrane[90] (Copyright 2022, Royal Society of Chemistry); (c) The TEM image of C-Ti-MOF[95] (Copyright 2022, Elsevier); (d) Photothermal and photodynamic mechanism of CuS@HKUST-1 under NIR light[97] (Copyright 2020, Elsevier)
Table 2 AOPs for disinfection over MOFs derivatives
MOFs-based materials Applications Performance ref
Ag/ZnO@C E.coli inhibition under simulated sunlight 100% removal in 120 min 89
Ag-ZnO-C E.coli inhibition under visible light 100% removal in 20 min 90
C1-MIL-125
C2-MIL-125		 E.coli inhibition under visible light > 98% removal in 20 min 94
C-Ti-MOF S. aureus inhibition under visible light and NIR light Nearly 100% removal in 10 min 95
CuS@HKUST-1 E.coli and S. aureus inhibition under NIR light 99.7% removal of S. aureus and 99.8% removal of E.coli in 20 min 97
Fig. 8 (a) The disinfection mechanism of PCN-224/GQD composites[112] (Copyright 2020, Elsevier); (b) In situ anti-biofouling properties and charge transfer of CdS@MIL-101 membranes[91] (Copyright 2020, Elsevier); (c) Photocatalytic disinfection mechanisms toward Fe mesh @MIL-100(Fe)/PANI under visible light[88] (Copyright 2020, Elsevier); (d) Schematic illustration of fabrication process, photo-generated charge transfer routes, and the disinfection mechanism of UiO-66 films[117] (Copyright 2020, American Chemical Society)
Fig. 9 (a) Plausible disinfection mechanisms of KCT containing PCN-224 and Ag-NPs[118] (Copyright 2021, Elsevier); (b) Schematic illustration for the synthesis and antimicrobial activity of zirconium-based MOFs/PCL mixed-matrix membranes[119] (Copyright 2017, American Chemical Society)
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