• 综述 •
谷麟, 章凯, 俞海祥, 董光霞, 乔兴博, 闻海峰. 污泥碳基催化材料的合成及在水环境中的应用[J]. 化学进展, 2020, 32(9): 1412-1426.
Lin Gu, Kai Zhang, Haixiang Yu, Guangxia Dong, Xingbo Qiao, Haifeng Wen. Synthesis of Sludge Carbon-Based Catalytic Materials and Their Application in Water Environment[J]. Progress in Chemistry, 2020, 32(9): 1412-1426.
污泥是城市污水处理厂的副产物,是一种典型的固体废弃物,具有污染与资源的双重属性。以污泥作为原材料制备碳基催化材料并用于水环境催化是一种新型的污泥减量化和资源化利用方式。由于污泥是生物质有机质和多种无机氧化物、金属离子的混合物,因此以其制备的碳基催化剂或载体材料具有原料易得、活性位点分散、表面化学官能团易于调控、比表面积高等特点,并被广泛地用于多相Fenton催化、电催化、光催化、湿式氧化和臭氧氧化等水环境催化领域。本文将阐述污泥碳基催化剂材料的制备和改性方法,通过材料物理、化学性质与催化作用的构效关系并结合其在水环境催化领域的应用特点,说明碳基催化剂参与水中污染物吸附、电子转移和有机物降解的作用机制,同时对提高污泥基材料的稳定性、可重复利用性和催化活性提出新的展望。
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Catalyst | Preparation procedure | Method | BET surface area(m2/g) | Catalytic components | ref |
---|---|---|---|---|---|
FeSC | Dried sludge impregnated into 0.5 M FeSO4 solution and subsequently carbonized at 800 ℃ in the presence of N2 | Wetness impregnation | 14.3 | Magnetite, Quartz, Al2O3 | 19 |
SC | Dried sludge carbonized at 800 ℃ in the presence of N2 | Direct pyrolysis | 57.6 | Carbon, ash | 14, 22 |
SBC | Dried sludge impregnated into 3 M ZnCl2 solution and carbonized at 700 ℃ in the presence of N2 wash: 3 M HCl | Wetness chemical activation | 363 | Carbon | 23 |
FMSAC | Carbonized sludge(by ZnCl2 pre-activation) was co-precipitated with Fe2+ and Fe3+ with NaOH addition | Chemical activation plus co-precipitation | 880~940 | Fe3O4, CaO, Quiz | 24 |
R1 | Solid mixing of dried sludge with FeCl3(w/w=1∶1) and subsequently carbonized at 700 ℃ wash: 3 M HCl | Solid chemical activation | 517~836 | Fe species | 25 |
szSAC | Dried sludge impregnated into the mixture of 3 M H2SO4 and ZnCl2 and then carbonized at 550 ℃ wash: 10% HCl | Wetness chemical activation | 179.9 | Surface-OH | 18 |
szSAC/Mn | szSAC impregnated into KMnO4 solution and carbonized at 550 ℃ in the presence of N2 | Wetness impregnation | 3.7~11.7 | Mn(Ⅱ), Mn(Ⅲ), Mn(Ⅳ), surface-OH | 18 |
DR-SA-A | Dried sludge was firstly carbonized with N2 and then activated with steam at 838 ℃, acid washed. | Steam activation | 497.4 | Dissolved organic matters and iron | 26 |
nO x /SBAC FeO x /SBAC | Dried sludge was firstly activated with ZnCl2 and carbonized at 700 ℃ and had acid washed, then the carbonized products was impregnated into Mn/Fe solutions and re-carbonized at 600 ℃ | Chemical activation and wetness impregnation | 327~339 | Mn3O4, Fe3O4 | 15 |
CFA/SC | Combined ZnCl2 activation and carbonization at 800 ℃ for the mixture of sewage sludge and fly ash(3 M HCl wash) | Chemical activation | 415 | Fe2O3, SiO2, Al2O3 | 27 |
SS-Ti-700 | Combined hydrothermal reaction with TiOSO4 and carbonization at 700 ℃ | Hydrothermal reaction | 35.46 | TiO2, α-Fe2O3 | 28 |
FAS-1-350 | Dried sludge impregnated into(NH4)2Fe(SO4)2 solutions, separated and calcined at 350 ℃ in the air | Wetness impregnation | 15.17 | α-Fe2O3, SiO2 crystallites | 29 |
MC600 | Combined microwave digestion and KOH activation, then carbonized in the N2 | Chemical activation | 378 | O-containing groups, Fe3O4, α-Fe | 30 |
SC-F-0.2 | Combined Fenton’s activation and carbonization at 600 ℃ | Radical activation | 46.3 | Fe3O4, α-Fe | 31 |
Leaching Species | Leaching Concentration | Reaction | Recyclability | ref |
---|---|---|---|---|
Fe | 0.6 g/L(2.5%of the total Fe load) | CWPO | 14.2% of the Fe load | 25 |
Fe | not detectable | CWPO | 96% degradation efficiency obtained in third cycles of reaction | 92 |
Fe | 0.037 mg/L(0.14% of total Fe loaded) Ca: 0.813 Cu: 0.029 Mg: 0.271 Zn: 0.027 | CWPO | 97% removal of AOII until at least 600 min | 19 |
Fe | 1.9 mg/L for HNO3 treated SW 2.1 mg/L for H2SO4 treated SW 1.2mg/L for HCl treated SW 0.7 mg/L for SW | CWPO | 26.3% conversion of cresol for HCl-SW at 432 h 100% conversion of cresol for H2SO4-SW at 432 h 85.1% conversion of cresol for HNO3-SW at 432 h 40% to lower than 10% conversion rate for SW | 52 |
Fe | 10.8 mg/L for HNO3 treated SW 11.7 mg/L for H2SO4 treated SW 0.8 mg/L for HCl treated SW 1.2 mg/L for SW | CWAO | Not mentioned | 7 |
Fe | Fe: 18 mg/L Ni: 12 mg/L Zn: 4 mg/L Mn: 3 mg/L Cr: 3mg/L Mg: 2 mg/L | CWAO | For the fourth experiment, the differences after 4 h of reaction only amounted to 2.2% for phenol conversion and 9% for TOC conversion. | 26 |
Fe | 27 mg/L(7% of the total Fe load) | CWAO | After 4 runs, the 2-CP conversion and the TOC removal were still very high. | 14 |
Fe | 4.32 mg/L for SS-Fe-105 after 60 min 0.66 mg/L for SS-Fe-350 after 30min | Photo-Fenton | No obvious deactivation of the SS-Fe-350 catalyst in the six repetitive experiments was observed when compared with the first cycle. | 28 |
Zn, Cu | 0.014 mg/L | PMS | The distributions of these heavy metals were unchanged though the MnO x /HCAS catalyst was reused up to 5 cycles. | 93 |
Fe | pH 2.03:4.69 mg/L(2.14% of total iron) pH 3.01:3.06 mg/L | PS | three times for the oxidative degradation of AO7 | 65 |
Fe | total Fe: 3.01 mg/L; Fe3+: 2.12mg/L | CWPO | It was observed that the mineralization rate decreased from 60.6 to 46.5% when the degradation rate of NOR decreased from 98.8 to 76.4%. | 94 |
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