• 综述 •
方莹莹, 王颖, 史建波, 阴永光, 蔡勇, 江桂斌. 大气中活性气态汞的分析方法和赋存转化[J]. 化学进展, 2021, 33(1): 151-161.
Yingying Fang, Ying Wang, Jianbo Shi, Yongguang Yin, Yong Cai, Guibin Jiang. Analysis Methods, Occurrence, and Transformation of Reactive Gaseous Mercury in the Atmosphere[J]. Progress in Chemistry, 2021, 33(1): 151-161.
活性气态汞(Reactive gaseous mercury, RGM),在大气环境中通常被认为是气态的氧化汞,主导大气汞沉降过程,对汞的全球循环至关重要。本文详细介绍了RGM的多种采样和分析方法,讨论并比较了当前技术的优势和局限性;对RGM在大气中的生成、赋存、清除等环境过程以及相关的机制进行了梳理,并探究各过程在大气汞循环过程中的贡献。针对当前RGM分析的难点(如赋存浓度低、采集困难)与关键科学问题(如赋存形态与转化),需着力发展实际环境中RGM采集和形态分析的可行方法,进而深入探究其环境行为。大气中RGM的分析方法和环境行为研究是极具挑战性的任务,将是未来大气汞研究的重要内容之一,对于深入理解RGM在大气汞循环过程中的作用具有重要的意义。
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Sampling methods | Material types | Analysis | Speciation | Time | Flow rate (L·min-1) | LOD (pg·) | Application | Comments | ref |
---|---|---|---|---|---|---|---|---|---|
KCl-coated denuder | KCl | Acid rinse, SnCl2-CVAFS/Thermal desorption, CVAFS | Total RGM | 1~12 h | 10 | 0.5~6.2 | Tekran? 1130 | Automated, easy operation | |
Multi-membrane filter | CEM | Acid digestion, SnCl2-CVAFS | Total RGM | 2 w | NA | 0.02~ 0.19a | Aerohead plate | Passive, easy operation | |
2 w | NA | 5 | Box sampler | Passive, easy operation | |||||
2 w | 1 | 15 | UNR-RMAS | Manual, easy operation | |||||
Nylon membrane | Temperature programmed desorption, CVAFS | Total RGM, and possible species (HgBr2, HgCl2, HgSO4, HgO, Hg(NO3)2) | 2 w | 1 | NA | UNR-RMAS | Manual, species identification | ||
Mist chamber | HCl/NaCl | SnCl2-CVAFS | Total RGM | 1 h | 15~20 | 4 | NA | Manual, complicated operation | |
Others | MnO2 sorbent | Solvent trapping, injection, GC-MS | Hg(NO3)2 | 1 h | NA | NA | NA | Species identification | |
Particle-based sorbent trap | Thermal desorption, APCI-MS | HgBr2, HgCl2 | 24 h | ~1 | 4~11 | NA | Species identification |
Year | Sampling methods | RGM (pg·m-3) | Flow rate (L·min-1) (Sampling time) | Blank | MDL | ref |
---|---|---|---|---|---|---|
1998 | Mist chamber with 0.1 M HCl | 16 | 12(23 h) | NA | NA | |
Tubular KCl-coated denuders | 22±3 | 1(23 h) | NA | NA | ||
Annular KCl-coated denuders | 14.1 | 5(23 h) | NA | NA | ||
1999 | Multistage filter packs | 54.2 | 3~5(6、24 h) | NA | 7 pg | |
Refluxing mist chambers | 16.9 | 10(75~120 min) | NA | 5 pg | ||
KCl-coated denuders | 44.4 | 10(100~120 min) | NA | 15 pg | ||
2011 | KCl-coated denuders | 13.6 | 4(1 h) | <5 pg·m-3 | <5 pg·m-3 | |
Cation exchange membranes | 38.3 | 1(2 w) | 310±230 pg | NA | ||
Nylon membranes | 25.6 | 1(2 w) | 20±40 pg | NA | ||
2014 | Tekran?1130 | 22.3±4.7 | 7(1 h) | NA | NA | |
UNR-RMAS(cation exchange membrane) | 82.5±30.0 | 1(1~2 w) | 0.2±0.3 ng(n=96) | 0.3 ng | ||
UNR-RMAS(nylon membrane) | 14.2±10.3 | 1(1~2 w) | 0.006±0.02 ng (n=80) | 0.006 ng | ||
2019 | Tekran?1130 | 3 | 5.5(2 h) | NA | NA | |
UNR-DCS(cation exchange membrane) | 20 | 2(1 w) | NA | 40 pg | ||
UNR-RMAS(cation exchange membrane) | 49 | 1(1 w) | NA | 40 pg | ||
UNR-RMAS(nylon membrane) | 8 | 1(1 w) | NA | 40 pg | ||
2014 | Tekran?1130 | 2.0±3.6 | 10(1 h) | NA | 1.5 pg·m-3 | |
UNR-RMAS(cation exchange membrane) | 24±15 | 1(2 w) | 0.37±0.26 ng (n=77) | 2~68 pg·m-3 | ||
UNR-RMAS(nylon membrane) | 0.6±0.5 | 1(2 w) | 0.03±0.03 ng (n=69) | 0.01~14.6 pg·m-3 | ||
2017 | KCl-coated denuder | 9.92±17.44 | ~1(3 h) | 27.6±2.9 pg(n=11) | 3 pg | |
KCl-coated glass fiber filter | 87.25±101.29 | ~1(3 h) | 57.3±5.2 pg(n=11) | 3 pg | ||
KCl-coated quartz sand tube | 203.75±139.09 | ~1(3 h) | 29.8±4.5 pg(n=11) | 3 pg | ||
Cation exchange membrane | 264.78±130.19 | ~1(3 h) | 79.8±9.5 pg(n=8) | 3 pg |
Continent | Site | Region | Type | Period | RGM(pg·m-3) | ref |
---|---|---|---|---|---|---|
Northern Hemisphere | ||||||
Asia | Beijing | North China | Urban | 2015~2016 | 18.47±22.27 | |
Miyun | North China | Remote | 12/2008~11/2009 | 10.1±18.8 | ||
Ningbo | Yangtze River Delta | Urban | 7/2013~1/2014 | 197±246 | ||
Guiyang | Southwest China | Urban | 8~12/2009 | 35.7±43.9 | ||
Xiamen | Southeast China | Coastal | 3/2012~2/2013 | 61.05±69.41 | ||
Chongming | East China | Coastal | 2009~2012 | 8.0±8.8 | ||
Taoyuan | Taiwan, China | Remote | 10/2017~9/2018 | 12.1±34.3 | ||
Bohai Sea/Yellow Sea | Northeast China | Sea | Spring/2014 | 2.5±1.7 | ||
Fall/2014 | 4.3±2.5 | |||||
South China Sea | South China | Sea | 9/2015 | 6.1±5.8 | ||
Mt. Changbai | Northeast China | Mountain | 7/2013~7/2014 | 5.4±6.4 | ||
Mt. Waliguan | Northwest China | Mountain | 9/2007~9/2008 | 7.4±4.8 | ||
North America | Nevada | Reno | Urban | 2/2007~1/2009 | 18±22 | |
Michigan | Detroit | Urban | 2004 | 15.5±54.9 | ||
Dexter | Rural | 2004 | 3.8±6.6 | |||
Canada | Toronto | Remote | 12/2003~11/2004 | 14.2±13.2 | ||
Mexico | Mexico City | Urban | 3/2006 | 62±64 | ||
Oregon, U.S.A. | Mt. Bachelor | Mountain | 5~8/2005 | 43 | ||
Colorado, U.S.A. | Mt. Rocky | Mountain | 4~7/2008 | 20 | ||
Alaska, U.S.A. | Beaufort Sea | Sea ice | 3~4/2009 | 30.1 | ||
Europe | Mediterranean Sea | - | Coastal/Sea | Summer/2015 | 11.8±15.0 | |
Southern Hemisphere | ||||||
Amsterdam Island | - | Ocean | 1/2012~12/2013 | 0.34 | ||
Africa | South Africa | - | Ocean | 10/2006 | 3.4±4 |
Depletion ways | RGM behaviors | Influencing factors |
---|---|---|
Deposit to land surface | Dry deposition | RGM species Environmental conditions Land surface types |
Gas-liquid partition | Wet deposition | RGM species Temperature Precipitation types |
Gas-particle partition | Transform to PBM | RGM species Temperature Aerosol compositions |
Photochemical reduction | Transform to GEM | RGM species Solar radiation |
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