巴拉诺瓦角西伯利亚高纬度北极地区气溶胶碳质、元素和离子组成的变化及其起源

M. Manousakas, O. Popovicheva, N. Evangeliou, E. Diapouli, N. Sitnikov, N. Shonija, K. Eleftheriadis
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引用次数: 12

摘要

气溶胶粒子是主要的短期气候驱动因子,因为它们能够与入射太阳辐射相互作用。因此,由于北极放大效应,解决北极气溶胶的平均水平和来源在应对气候变化的斗争中具有重要意义。在北极东部,从芬兰到阿拉斯加,只有一个监测站(HMO Tiksi),北极气溶胶的水平通常是通过零星的活动来记录的,而加拿大、芬兰和欧洲也有其他监测站。2015年4月至2016年12月,位于西伯利亚北极高纬度布尔什维克岛的“冰基地巴拉诺瓦角”(79°16.82'N, 101°37.05'E)科考站建立。对样品进行等效黑碳(eBC)、有机碳(OC)、元素碳(EC)、水溶性离子和元素分析。利用潜在源贡献函数(PSCF)与FLEXPART发射灵敏度相结合的方法来识别源的空间来源。OC是冰角巴拉诺瓦站最主要的PM化合物,主要来自低纬度地区的天然气燃烧和其他工业区,以及夏季生物质燃烧。硫酸盐浓度在寒冷季节受人为源的影响,在温暖季节受自然源的影响,表现出明显的季节特征。K+和Mg2+冬季来源于海盐,夏季来源于森林火灾。eBC的年际变化与北极季节总体趋势一致,主要受天然气燃烧、低纬度工业源和生物质燃烧排放的影响。Cl−耗损很低,Na+和Cl−来源于局部形成的海雾。
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Aerosol carbonaceous, elemental and ionic composition variability and origin at the Siberian High Arctic, Cape Baranova
Abstract Aerosol particles are major short-lived climate forcers, because of their ability to interact with incoming solar radiation. Therefore, addressing mean levels and sources of Arctic aerosols is of high importance in the battle against climate change, due to the Arctic amplification. In the Eastern Arctic, from Finland to Alaska, only one monitoring station exists (HMO Tiksi) and the levels of the Arctic aerosols are usually recorded by sporadic campaigns, while other stations exist in Canada, Finland and Europe. From April 2015 to December 2016, the research station "Ice Base Cape Baranova" (79°16.82'N, 101°37.05'E), located on the Bolshevik island was established in the Siberian high Arctic. Samples were analyzed for equivalent Black Carbon (eBC), Organic Carbon (OC), Elemental Carbon (EC), water-soluble ions, and elements. To identify the spatial origin of the sources, the Potential Source Contributions Function (PSCF) was used in combination with FLEXPART emission sensitivities. OC is the most dominant PM compound in the Ice Cape Baranova station and mostly originates from gas flaring and other industrial regions at lower latitudes, as well as from biomass burning during summertime. Sulfate concentrations were affected by anthropogenic sources in the cold seasons and by natural sources in the warm ones showing distinct seasonal patterns. K+ and Mg2+ originate from sea-salt in winter and from forest fires in summer. The interannual variability of eBC was in good agreement with the general Arctic seasonal trends and was mainly affected by gas flaring, low latitude industrial sources and from biomass burning emissions. Cl− depletion was very low, while Na+ and Cl− originated from the locally formed sea spray.
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