• 综述 •
田景晨, 吴功德, 刘雁军, 万杰, 王晓丽, 邓琳. 负载型廉价金属催化剂在低温催化氧化甲醛中的应用[J]. 化学进展, 2021, 33(11): 2069-2084.
Jingchen Tian, Gongde Wu, Yanjun Liu, Jie Wan, Xiaoli Wang, Lin Deng. Application of Supported Non-Noble Metal Catalysts for Formaldehyde Oxidation at Low Temperature[J]. Progress in Chemistry, 2021, 33(11): 2069-2084.
甲醛是室内常见的挥发性有机污染物之一,长期接触会严重危害人体健康。负载型廉价金属催化剂在甲醛去除和实际应用方面表现出优异性能,引起研究人员的广泛关注。本文阐述了低温条件下负载型廉价金属催化剂在甲醛热催化氧化、光催化氧化和等离子协同催化氧化方面的研究进展,介绍了甲醛低温催化的影响因素,并讨论了反应机理。反应条件、载体类型和制备方式是影响甲醛低温催化活性的重要因素。虽然负载型廉价金属催化剂在甲醛光催化氧化和热催化氧化方面均表现出良好性能,但仍须进一步探究提升其在可见光和室温下的催化活性。对于甲醛等离子协同催化氧化,降低反应过程所产生的副产物和能耗仍是研究重点。此外,本文还对负载型廉价金属催化剂在甲醛催化应用中的发展方向进行了展望。
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Categories | Catalysts | Temperature/℃ | Reaction conditions | HCHO removal/conversion | ref | |
---|---|---|---|---|---|---|
Single non-noble metal catalysts | MnO2/PET | ~25 | 2 pieces, 4×6 cm, ~200 ppm HCHO 3.5 L static reactor | ~84% HCHO removal4 within 60 min | ||
MnOx/PET | RT1 | ~0.6 mg/m3 HCHO, GHSV2 60 000 h-1 | >95% removal of HCHO within 240 min | |||
MnOx/AC | 25 | ~10 ppm HCHO, GHSV ~65 000 h-1, RH3~50% | 100% HCHO removal within 1000 min | |||
MnO2/ACF | 25 | 15 ppm HCHO, GHSV ~60 000 h-1,RH 20%±2% | 100% HCHO removal within 500 min | |||
MnOx/PG | 25 | 1 ppm HCHO, GHSV 300 000 h-1 | >95% HCHO removal within 600 min | |||
50~250 | 1200 ppm HCHO, GHSV 60 000 h-1 | 100% HCHO conversion5 at 150 ℃ | ||||
MnO2/PG | 25 | 1 ppm HCHO, 20 vol % O2, GHSV 150 000 h-1 | 100% HCHO removal efficiency within 1500 min | |||
MnOx/Hal | 100~300 | 1500 ppm HCHO, 20 vol % O2, GHSV 60 000 h-1 | 90% HCHO removal at 90 ℃ | |||
MnO2/Cellulose | 60~180 | 100 ppm HCHO, 20 vol % O2, GHSV 50 000 h-1 | 99.1% HCHO removal at 140 ℃ | |||
MnOx/Diatomite | 25~250 | 1 ppm HCHO, GHSV 120 000 h-1 | >80% HCHO removal at 25 ℃ within 10 h | |||
300 ppm HCHO, GHSV 120 000 h-1 | 90% HCHO conversion at 128 ℃ | |||||
MnOx/AC | RT | 0.5 mg/m3 HCHO, GHSV 120 000 h-1, RH 45%±5% | >70% HCHO removal within 80 h | |||
5 mg/m3, GHSV 120 000 h-1, RH 45%±5% | >70% HCHO removal within 30 h | |||||
MnOx/ACS-O | 25 | 2.61 mg/m3, GHSV 80 000 h-1 | >95% HCHO removal within 1500 min | |||
MnOx@PAN-ACNF | 30 | 10 ppm HCHO, GHSV 50 000 h-1 | >95% HCHO removal in 12 h | |||
Mn/TiO2 | 20~150 | 100 mg/m3, 20 vol % O2, GHSV 300 000 h-1 | <20% HCHO removal efficiency at 150 ℃ | |||
OMS-2/SiO2 | 25 | 100mg, 200 ppm HCHO, RH 50% ± 5%, 1 L static reactor | 52.3% HCHO removal within 2 h | |||
MnOx/SBA-15 | 30~180 | 120 ppm HCHO, 20 vol% O2, GHSV 30 000 h-1 | 90% HCHO conversion at 121 ℃ | |||
MnO2@SiO2-TiO2 | 25 | 2 pieces, 10×10 cm, 200 ppm HCHO, RH 40%±5%, 5 L static reactor | 100% HCHO removal after 20 min | |||
Co@NC | RT | ~100 ppm HCHO, GHSV 80 000 h-1 | >85% HCHO removal within 60 min | |||
Multiple non- noble metals catalysts | CoxMnyO4/Carbon textile | 20~200 | 50 ppm HCHO, 25 vol.% O2, GHSV 120 000 h-1, RH 50% | 100% HCHO removal at 95 ℃ | ||
Mn1-xCex/PG | 100~180 | 300 ppm HCHO, GHSV 20 000 h-1 | 100% HCHO conversion at 160 ℃ | |||
Mn/PG | 100% HCHO conversion at 180 ℃ | |||||
CeO2/PG | 6.9% HCHO conversion at 180 ℃ | |||||
CuMn/Pal | 150~350 | 1500 ppm HCHO, 20 vol % O2, 5% H2O, GHSV 32 500 h-1 | 100% HCHO conversion at 200 ℃ | |||
Mn/Pal | 90% HCHO conversion at 248 ℃ | |||||
Cu/Pal | 100% HCHO conversion at 276 ℃ | |||||
Non-noble/noble metal catalysts | AgCo/APTES@ MCM-41 | 30~200 | 500 ppm HCHO, GHSV 9000 h-1 | 100% HCHO conversion at 90 ℃ | ||
Ag/CeO2/SiO2 | 100~200 | 10,000~22,000 ppm HCHO, GHSV 69 000 h-1 | 100% HCHO removal at 175 ℃ | |||
Pt-FeOx/Al2O3 | 25~100 | 400 ppm HCHO, 20 vol% O2, RH 30%, GHSV 60 000 h-1 | 100% HCHO removal at 25 ℃ | |||
AuPt/MnO2/Cotton | 20~200 | 460 ppm HCHO, GHSV 20 000 h-1 | 100% HCHO conversion at 120 ℃ | |||
PtNi/Al2O3 | 30~80 | ~30 ppm HCHO, GHSV 24 000 h-1, RH ~35% | 100% HCHO removal at 30 ℃ | |||
Pt/MnO2-CF | 25 | 100 mg, 200 ppm HCHO, static reactor | 90% HCHO removal after 60 min | |||
Pt-Fe/Al2O3 | 25 | 375 mg/m3, 20 vol % O2, RH 30%, GHSV 60 000 h-1 | 100% HCHO conversion within 60 h | |||
Pt/Fex/α-AlOOH | 25~50 | 200 ppm HCHO, GHSV 95 000 h-1 | 100% HCHO conversion at 30 ℃ | |||
200×200×0.4 mm3, 21.7 g catalysts, 1 ppm HCHO, RH 55%, 3 m3 static reactor | <0.08 ppm HCHO concentration after 60 min |
Categories | Catalyst | Temperature | Reaction conditions | HCHO removal/conversion | ref |
---|---|---|---|---|---|
Single non-noble metal photocatalysts | TiO2/Diatomite | RT1 | 1.0 g photocatalyst, 0.974±0.05 mg/m3 HCHO, 250 L photo-catalytic reactor, RH2 60%, UV light(λ = 365 nm) | 90.9% HCHO removal4 after 180 min | |
TiO2/ACF | RT | 0.8 ppm HCHO, RH 33%, GHSV3 230 000 h-1, UV light(8 W, λ=254 nm) | >80% HCHO removal | ||
TiO2/Tourmaline | RT | 2 g photocatalyst, 14 L photo-catalytic reactor, RH 60%, 2 UV lamps(15 W, λ = 365 nm) | 95% HCHO removal after 350 min | ||
TiO2/Sepiolite | RT | 2 g photocatalyst, 10 μL of 38% formaldehyde solution,14 L photo-catalytic reactor, RH 60%, 2 UV lamps(20 W, λ=365 nm) | 91.8% HCHO removal after 120 min | ||
TiO2/PET | RT | 3.3±0.3 ppm HCHO, Q=1 L/min, 20 vol% O2, RH 60%, visible-light(I=10 000 lux) | >60% HCHO removal | ||
TiO2/Polyester-cotton(65/35) fabrics | RT | 0.04 m2 photocatalyst, 1.5 mg/m3 HCHO, 324 L photo-catalytic reactor, UV light/visible-light | 99% HCHO removal under UV irradiation; 77% HCHO removal under visible light irradiation | ||
Multiple non- noble metals photocatalysts | BiOCl/TiO2/Sepiolite | RT | 1 g photocatalyst, 30 mg/m3 HCHO, simulated solar(100 W)/visible light (150 W) | 88% HCHO removal under solar irradiation after 60 min; 72% HCHO removal under visible irradiation after 180 min | |
Zr-TiO2/Glass fiber | RT | 216 L photo-catalytic reactor, 1.0~1.2 mg/m3 HCHO, visible light | 94% HCHO removal after 12 h |
Catalyst | Temperature | Reaction conditions | HCHO removal/conversion | ref |
---|---|---|---|---|
Cu/HZSM-5 | RT1 | 26.2 ppm HCHO, 20 vol% O2, RH2 50%, GHSV3 12 000 h-1 | 100% HCHO removal4 within 163 min | |
MnOx/Al2O3 | RT | 2.2±0.1 ppm HCHO, 15.0 g catalyst, residence time 0.21s, 20 vol% O2, RH 30%, GHSV 12 000 h-1 | 100% HCHO removal at 180 J/L | |
TiO2/Zeolite | RT | 12 mg/m3 HCHO, U=35 kV, f=70 Hz | 80% HCHO removal at 180 J/L | |
Mn/TiO2-molecular | RT | 270 mg/m3, Q=500 mL/min, HCHO, U=20 kV, f=40 Hz | 94.4% HCHO removal | |
Fe/TiO2-molecular | 88% HCHO removal | |||
Cu/TiO2-molecular | 90% HCHO removal |
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