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Progress in Chemistry 2023, Vol. 35 Issue (8): 1258-1265 DOI: 10.7536/PC221214 Previous Articles   Next Articles

• Review •

Peracetic Acid-Based Advanced Oxidation Processes and Its Applications in Water Disinfection

Yining Li, Minghao Sui()   

  1. College of Environment Science and Engineering, Tongji University,Shanghai 200092, China
  • Received: Revised: Online: Published:
  • Contact: *e-mail: minghaosui@tongji.edu.cn
  • Supported by:
    National Natural Science Foundation of China(2019YFC0408801)
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Recent research has revealed that PAA-based advanced oxidation processes (AOP) can simultaneously destroy developing micropollutants in water while having a greater disinfection efficacy than PAA alone. This paper summarizes the activation mechanism of PAA-based AOP and its use in water disinfection. According to recent study, UV/PAA has a good treatment effect in the cutting-edge problems of water disinfection, such as the removal of algae and algal toxins, the inactivation of fungus and antibiotic-resistant bacteria, etc. It is awaiting more investigation. There are few AOPs in the realm of water disinfection that activate PAA in other ways, but they have significant research promise. Identification of potential disinfection by-products found in AOP of PAA may also become a focus of future research.

Contents

1 Introduction

2 Peracetic acid-based advanced oxidation processes and activation mechanism

2.1 Radiation activation

2.2 Metal catalysts activation

2.3 Activated carbon catalysts activation

3 Recent advances of peracetic acid-based advanced oxidation processes in water disinfection

3.1 Recent advances of bacterial inactivation

3.2 Recent advances of fungus and algae inactivation

3.3 Recent advances of virus inactivation

3.4 Recent advances of DBPs

4 Conclusion and outlook

Key words: peracetic acid, advanced oxidation processes, activation mechanism, water disinfection
Fig.1 Mechanism of Ultraviolet Activation of PAA[23].Copyright 2020, American Chemical Society
Fig.2 Mechanism of Thermal Activation of PAA[17].Copyright 2020, American Chemical Society
Table 1 Overview of studies employing PAA-based AOPs for removing organic compounds
Precesses Target Contamiants pH kobs Priaary Radicals ref
UV/PAA BZF 7.1 (2.40± 0.06)×10-2 min-1 HO· 46
UV/PAA DCF 7.1 1.38± 0.03 min-1HO· 46
UV/PAA CA 7.1 (2.30±0.03)×10-1 min-1 HO· 46
UV/PAA IBP 7.1 (8.83±0.15)×10-2 min-1 HO· 46
UV/PAA NAP 7.1 (3.07±0.07)×10-1 min-1 HO· 46
UV/PAA CBZ 7.1 (8.25±0.31)×10-2 min-1 HO· 46
Fe2+/PAA MB 3.0~8.2 0.17~1.75 s-1 HO· 27
Fe2+/PAA NPX 3.0~8.2 0.45~2.33 s-1 HO· 27
Fe2+/PAA BPA 3.0~8.2 0.21~0.75 s-1 HO· 27
nCuO/PAA CBZ 7 0.07 min-1 CH3C(O)OO· 33
ZVC/PAA DCF 2.0~11.0 0.1034~0.0017 min-1 HO· 35
Cu2+-HCO3-
(CO32-)/PAA		 DCF 9.3 0.0835 min-1 RO· 36
nCo3O4/PAA CBZ 7 0.03 min-1 RO· 42
Co2+/PAA SMX 7 0.1322 min-1 CHSC(O)OO· 37
Co2+/PAA BPA 7 (2.98±0.01)×10-4
(3.34±0.24)×10-2s-1		 CH3C(O)
OO·		 38
Co2+/PAA NAP 7 (4.05±0.01)×10-4
(8.12±0.38)×10-2s-1		 CH3C(O)
OO·		 38
Co2+/PAA SMX 7 (1.60±0.00)×10-4
(1.95±0.08)×10-2s-1		 CH3C(O)
OO·		 38
Co2+/PAA CBZ 7 (2.32±0.03)×10-4
(3.23±0.07)×10-3s-1		 CH3C(O)
OO·		 38
Mn2+/PAA Orange Ⅱ 7 6.05×10-2s-1 MnⅣ=O 41
MoS2/PAA SMX 7 0.128 min-1 HO· 26
US/MnO2/PAA Phenol 7 0.89 min-1 - 24
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