使用苔藓袋技术评估乌兰巴托的空气污染状况。

IF 3.7 4区 环境科学与生态学 Q2 ENVIRONMENTAL SCIENCES Archives of Environmental Contamination and Toxicology Pub Date : 2024-02-08 DOI:10.1007/s00244-024-01050-4
Inga Zinicovscaia, Jargalan Narmandakh, Nikita Yushin, Alexandra Peshkova, Omari Chaligava, Tsog-ochir Tsendsuren, Bolortamir Tserendorj, Tsolmon Tsogbadrakh
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引用次数: 0

摘要

在许多国家广泛应用的主动苔藓生物监测,即所谓的苔藓袋技术,首次被用于评估乌兰巴托(蒙古)的空气质量。装有 Sphagnum girgensohnii Russow 的苔藓袋一式三份,在三个不同时期暴露:12 月至 2 月、3 月至 5 月和 12 月至 5 月,在位于热电厂和居民区附近的 13 个政府空气质量监测站进行暴露。采用电感耦合等离子体-光发射光谱法测定植物组织中铝、钡、钴、镉、铬、铜、铁、锰、磷、铅、锶、硒、钒、砷和锌的含量,并采用直接汞分析仪测定汞含量。在冬季暴露 3 个月和 6 个月(冬季到春季)的居民区和热电厂附近的样本中,这些元素的累积量最高。在春季暴露的苔藓袋中,居民区和主干道附近的样品中被测定元素的累积量最大。无论暴露时间长短如何,位于高速公路附近的 Dambadarjaa 空气质量站的 Al、Fe 和 V 的累积量最高,而 Amgalan 发电厂附近的 Hg 的累积量最高。不同季节的元素积累量存在显著差异,因此,春季的 Al、Ba、As、Co、Cr、Fe、Pb、V 和 Zn 的积累量较高,而冬季暴露的苔藓样本中 P 和 S 的含量较高。暴露 6 个月期间的元素累积量是暴露 3 个月期间的 1.1-6.7 倍。因此,6 个月的暴露期可被视为一个可靠的部署期,因为它能确保在污染物富集方面发出足够的信号。采用因子分析来突出元素之间的关联,并将它们与可能的排放源联系起来。确定了三个因子,第一个因子包括 Al、As、Ba、Co、Cr、Fe、Mn、Pb、Sr 和 V,被确定为地质-人为因素,第二个(Cu、P 和 S)和第三个(Cd 和 Zn)因子表明是人为因素。通过计算相对累积因子和富集因子来评估空气污染程度和可能的元素来源。造成空气污染的主要元素是锌、铁、砷、钒、铬和铝,它们可能来自空气中的地壳物质土壤颗粒或运输,以及用于取暖和烹饪的燃煤。
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Assessment of Air Pollution in Ulaanbaatar Using the Moss Bag Technique

Active moss biomonitoring, the so-called moss bag technique, widely applied in many countries, for the first time, was applied to assess the air quality in Ulaanbaatar (Mongolia). Moss bags with Sphagnum girgensohnii Russow were exposed in triplicate in three different periods: December–February, March–May, and December–May at 13 governmental air quality monitoring stations located in the vicinity of thermal power plants and residential areas. The plant tissue content of Al, Ba, Co, Cd, Cr, Cu, Fe, Mn, P, Pb, Sr, S, V, As, and Zn was determined using inductively coupled plasma-optical emission spectrometry, and a direct mercury analyzer was used to determine the Hg content. The samples in residential areas and near thermal power plants that were exposed for 3 months in winter and for 6 months (winter to spring) were characterized by the highest accumulation of the elements. In the moss bags exposed during spring, maximum accumulation of the determined elements was noted in residential areas and near main roads. Regardless of the exposure time and duration, the highest accumulation of Al, Fe, and V was determined at Dambadarjaa air quality station located near a highway and of Hg near the Amgalan power plant. Significant differences in element accumulation between seasons were observed, thus, the accumulation of Al, Ba, As, Co, Cr, Fe, Pb, V, and Zn was higher in spring, while P and S had higher content in the moss samples exposed during winter. The accumulation of elements over the 6-month exposure period was 1.1–6.7 times higher than that of the 3-month periods. Thus, the 6-month exposure can be considered a reliable deployment period as it ensures an adequate signal in terms of enrichment of pollutants. Factor analysis was applied to highlight the association of elements and to link them with possible sources of emission. Three factors were determined, the first one included Al, As, Ba, Co, Cr, Fe, Mn, Pb, Sr, and V and was identified as a geogenic–anthropogenic, the second (Cu, P, and S) and third (Cd and Zn) factors suggested anthropogenic origin. The Relative accumulation factor and enrichment factor were calculated to evaluate the level of air pollution and possible element sources. Considerable contributors to air pollution were Zn, Fe, As, V, Cr, and Al, which may originate from airborne soil particles of crustal matter or transport, as well as coal combustion for heating and cooking.

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来源期刊
CiteScore
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自引率
2.50%
发文量
63
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期刊介绍: Archives of Environmental Contamination and Toxicology provides a place for the publication of timely, detailed, and definitive scientific studies pertaining to the source, transport, fate and / or effects of contaminants in the environment. The journal will consider submissions dealing with new analytical and toxicological techniques that advance our understanding of the source, transport, fate and / or effects of contaminants in the environment. AECT will now consider mini-reviews (where length including references is less than 5,000 words), which highlight case studies, a geographic topic of interest, or a timely subject of debate. AECT will also consider Special Issues on subjects of broad interest. The journal strongly encourages authors to ensure that their submission places a strong emphasis on ecosystem processes; submissions limited to technical aspects of such areas as toxicity testing for single chemicals, wastewater effluent characterization, human occupation exposure, or agricultural phytotoxicity are unlikely to be considered.
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