• Review •
Fei Wu, Wei Ren, Cheng Cheng, Yan Wang, Heng Lin, Hui Zhang. Biochar-Based Advanced Oxidation Processes for the Degradation of Organic Contaminants in Water[J]. Progress in Chemistry, 2022, 34(4): 992-1010.
Biomass | Oxidant | Preparation | Mechanism | Active sites | Reactive species | Reaction condition | Performance | ref | |||||||||||||||
---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
Lignocellulose biomass | |||||||||||||||||||||||
Wheat; straw; hardwood | H2O2 | Pyrolysis | Radical | Ash (Fe、Cu、Mn、Ni、Mo); —OH; —COOH | ·OH (main), HO2·、·O2- | Catalyst = 1 g/L H2O2 = 5 mM 1-Methyl-1-cyclohexanecarboxylic acid = 500 mg/L pH = 7 | 99% mineralization of 1-Methyl-1-cyclohexanecarboxylic acid in 4 h | ||||||||||||||||
Valorized Olive Stones | PDS | Pyrolysis | Radical | N/A | ·OH (main), ·SO4- both in solution and in the vicinity of BC surface | Catalyst = 200 mg/L PDS = 1000 mg/L Sulfamethoxazole = 500 μg/L Inherent pH | 70% degradation of sulfamethoxazole in 75 min | ||||||||||||||||
Corn stalk | PDS | Pyrolysis | Nonradical | Oxygen-containing functional groups | ·OH, ·SO4- mainly on the surface or boundary layer of BC | Catalyst = 0.8 g/L PDS/norfloxacin = 120/1 Norfloxacin = 10 mg/L Initial pH = 6.5 | 94% degradation of norfloxacin in 300 min | ||||||||||||||||
Sunflower | PDS | Pyrolysis | Radical | Defects | ·OH, ·SO4- | Catalyst = 5 g/L PDS = 10 mM p-Nitrophenol = 0.72 mM Initial pH = 2.58 Temperature = 60 ℃ | 86% degradation of p-nitrophenol in 180 min | ||||||||||||||||
Sawdust | PDS | Pyrolysis | Radical | —OH π-π* | Surface-bound ·OH, ·SO4- (main); ·OH, ·SO4- in solution | Catalyst = 0.5 g/L PDS = 10 mM Clofibric acid = 1 g/L Initial pH = 4 | 98% degradation of clofibric acid in 60 min | ||||||||||||||||
Wood | PDS | Pyrolysis | Nonradical | —OH π-π* | Surface-bounded ·OH, ·SO4- (main) | Catalyst = 0.5 g/L PDS = 10 mM AO7 = 20 mg/L Initial pH = 6 | 99% degradation of AO7 in 14 min | ||||||||||||||||
Rice straw | PDS | Pyrolysis | Nonradical | N/A | Holes | Catalyst = 0.6 g/L PDS = 90 mg/L Aniline = 10 mg/L Initial pH = 3 | 94% degradation of aniline in 80 min | ||||||||||||||||
Sawdust | PDS | Pyrolysis | Radical and Nonradical | N/A | Holes, ·SO4-,·OH | Catalyst = 1.5 g/L PDS = 9 mM AO7 = 50 mg/L | 90% degradation of AO7 in 180 min | ||||||||||||||||
Biomass | Oxidant | Preparation | Mechanism | Active sites | Reactive species | Reaction condition | Performance | ref | |||||||||||||||
Pine needle | PMS | Pyrolysis | Radical | Defects | ·OH(main),· SO4- | Catalyst = 1 g/L PMS = 8 mM 1,4-dioxane = 20 μmol/L Initial pH = 6.5 | 84%degradation of 1,4-dioxane in 180 min | ||||||||||||||||
Sludge | |||||||||||||||||||||||
Sludge | H2O2 | Pyrolysis | Radical | sp2C, C=O, pyridonic N and pyridinic N of PFRs | ·OH | Catalyst = 0.4 g/L H2O2 = 1 mM Ciprofloxacin = 10 mg/L pH = 7 | 93% degradation of ciprofloxacin in 24 h | ||||||||||||||||
Sludge | PDS | Pyrolysis | Nonradical | N/A | Electron transfer pathway | Catalyst = 0.5 g/L PDS = 10 mM Sulfathiazole = 20 mg/L pH = 6 | 100% removal of sulfathiazole in 90 min | ||||||||||||||||
Sludge | PMS | Pyrolysis | Radical and Nonradical | Fe(Ⅱ); C=O; defects | ·OH, ·SO4-,1O2 | Catalyst = 1 g/L PMS = 0.8 mM triclosan = 0.034 mM Initial pH = 7.2 | 99% degradation of triclosan in 240 min | ||||||||||||||||
Sludge | PMS | Hydrothermal coupled Pyrolysis | Nonradical | C=O | 1O2 | Catalyst = 0.4 g/L; PMS = 0.4 g/L sulfamethoxazole = 0.01 g/L | 100% degradation of sulfamethoxazole in 15 min | ||||||||||||||||
Sludge | PMS | Pyrolysis | Nonradical | C=O | 1O2 | Catalyst = 0.5 g/L; PMS = 1 mM Bisphenol A = 1 g/L pH = 6 | ~80% mineralization of bisphenol A in 30 min | ||||||||||||||||
Food waste | |||||||||||||||||||||||
Shrimp shell | PDS | Pyrolysis | Radical and Nonradical | sp2C | Electron transfer pathway (main), ·O2- | Catalyst = 0.2 g/L PDS= 0.5 g/L 2,4-Dichlorophenol = 100 mg/L Initial pH = 5.82 | 76% mineralization of 2,4-dichlorophenol in 120 min | ||||||||||||||||
Swine bone | PDS | Pyrolysis | Radical and Nonradical | C=O for 1O2; —OH for radicals | ·OH (main),1O2, ·O2-, Electron transfer pathway | Catalyst = 0.2 g/L PDS= 2 g/L 2,4-Dichlorophenol = 20 mg/L | 100% degradation of 2,4-dichlorophenol in 120 min | ||||||||||||||||
Swine bone | PDS | Pyrolysis | Radical and Nonradical | —OH, —COOH for ·SO4-,·OH; Defects, inorganic component for 1O2, ·O2-; C=O for ·OH, electron transfer process | ·SO4-,·OH,1O2, ·O2-, Electron transfer process | Catalyst = 0.1 g/L PDS = 1 g/L Acetaminophen = 20 mg/L | 100% degradation of acetaminophen in 120 min | ||||||||||||||||
Biomass | Oxidant | Preparation | Mechanism | Active sites | Reactive species | Reaction condition | Performance | ref | |||||||||||||||
Food waste digestate | PMS | Pyrolysis | Radical and Nonradical | sp2C; graphitic N; pyridinium N; C=O | 1O2, ·O2-,·OH, ·SO4- | Catalyst = 0.5 g/L; PMS= 1 mM Reactive brilliant red X-3B = 1 g/L Initial pH = 3.78 | >99%degradation of X-3B in 1 min | ||||||||||||||||
Egg shell | PDS | Pyrolysis | Radical and Nonradical | Defects and oxygen functional groups | 1O2, ·O2-,·OH, ·SO4-, Electron transfer pathway | Catalyst = 0.167 g/L PDS= 1 g/L 2,4-dichlorophenol= 100 mg/L | 90% removal of 2,4-Dichlorophenol in 2 h | ||||||||||||||||
Manure | |||||||||||||||||||||||
Swine manure | H2O2 | Pyrolysis | Radical | PFRs | ·OH(main), ·O2- | Catalyst = 0.5 g/L H2O2 = 10 mM Sulfamethazine = 35.9 μmol/L pH = 7.4 | > 85% degradation of sulfamethazine in 30 min | ||||||||||||||||
Pig manure | H2O2 | Pyrolysis | Radical | PFRs | ·OH | Catalyst = 0.5 g/L H2O2 = 5 mM Tetracycline = 67.5 μmol/L pH = 7.4 | Nearly 100% degradation of tetracycline in 240 min | ||||||||||||||||
Alage | |||||||||||||||||||||||
Enteromorpha | PDS | Pyrolysis | Radical and Nonradical | graphitic N | 1O2, ·O2-, Electron transfer pathway | Catalyst = 0.05 g/L PDS = 4 mM Sulfamethoxazole = 5 mg/L | >95% degradation of sulfamethoxazole in 90 min | ||||||||||||||||
Spirulina residue | PDS | Pyrolysis | Nonradical | Positively charged O near N-dopants | Electron transfer pathway | Catalyst = 0.5 g/L PDS = 6 mM Sulfamethoxazole = 20 mg/L | 100% degradation of sulfamethoxazole in 45 min | ||||||||||||||||
Yeast | |||||||||||||||||||||||
Yeast cell (dry weight) | PMS | Cacination in molten salt | Radical and Nonradical | C=O for 1O2; sp2C, graphitic N and pyridinic N for ·OH, ·SO4- | 1O2(main),·OH, ·SO4- | Catalyst = 0.4 g/L PMS = 0.4 g/L Bisphenol A = 20 mg/L pH = 7 | 100% degradation of bisphenol A in 6 min | ||||||||||||||||
Yeast extract | PMS | Pyrolysis | Radical and Nonradical | N/A | 1O2, ·O2-,·OH, ·SO4-, Electron transfer pathway | Catalyst = 0.05 g/L PMS= 5.7 mM p-Hydroxybenzoic acid = 10 ppm pH = 4.5 | Nearly 100% degradation of p-hydroxybenzoic acid in 90 min |
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