瑞士农业的氨排放及其对大气化学和生态系统的影响。

IF 1.1 4区 化学 Q3 CHEMISTRY, MULTIDISCIPLINARY Chimia Pub Date : 2024-11-27 DOI:10.2533/chimia.2024.771
Christof Ammann, Alex Valach
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引用次数: 0

摘要

氨(NH3)是一种重要的大气污染物,它有助于二次无机气溶胶的形成及其对(半)自然生态系统的沉积和影响。因此,人们做出了各种努力来限制向大气中的排放。瑞士的主要排放源是畜牧业,其中NH3是从动物粪便中含有的铵挥发出来的。虽然基于农业活动数据的NH3排放模型显示自2000年以来略有下降,但浓度测量并未反映出这一趋势。这至少可以部分归因于过去十年中氧化氮和硫化合物排放的显著减少,导致NH3向颗粒铵的转化减少。气相和颗粒相之间的划分也决定了沉积途径(干沉积或湿沉积),从而决定了平均寿命和在大气中的传输距离。气态NH3受到快速干沉积的影响,并优先沉积到靠近源的生态系统。NH3一旦进入生态系统,就会导致水体和土壤的富营养化和酸化,从而改变植物群落组成和微生物功能,特别是在氮敏感生态系统中。虽然NH3也会对植物产生直接毒性,但对生态系统影响的评估通常采用临界负荷方法,其中包括所有N化合物的输入。这些数据显示,到2020年,瑞士87%的森林、94%的沼泽、74%的沼泽和42%的干旱山地草原可能会受到氮超标的不利影响。为了改善这种状况,未来需要大量的NH3排放减排工作。
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Ammonia Emissions from Swiss Agriculture and their Effects on Atmospheric Chemistry and Ecosystems.

Ammonia (NH3) is an important atmospheric pollutant due to its contribution to secondary inorganic aerosol formation and its deposition and impacts on (semi-)natural ecosystems. Therefore various efforts have been made to limit emissions to the atmosphere. The predominant emission source in Switzerland is livestock agriculture, wherein NH3 is volatilised from ammonium contained in animal manure. While modelled NH3 emissions based on agricultural activity data indicate a minor decrease since 2000, concentration measurements do not reflect this trend. This can at least partly be attributed to a decline in the transformation of NH3 to particulate ammonium due to significantly decreased emission of oxidised nitrogen and sulfur compounds in the past decade. The partitioning between the gaseous and the particulate phase also determines the deposition pathway (dry or wet deposition) and thus the average lifetime and transport distance in the atmosphere. Gaseous NH3 is subject to fast dry deposition and is deposited preferentially to ecosystems close to the source. Once deposited into an ecosystem, NH3 leads to eutrophication and acidification of water and soils, which change the plant community composition and microbial functioning, especially in N-sensitive ecosystems. Although NH3 can also cause direct toxicity to plants, assessments of ecosystem impacts are generally collated using the critical load approach, which includes the input of all N compounds. These reveal that in 2020, 87% of forests, 94% of raised bogs, 74% of fens, and 42% of dry mountain grasslands likely experienced adverse impacts from N exceedances in Switzerland. To improve this situation, considerable NH3 emission abatement efforts are needed in the future.

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来源期刊
Chimia
Chimia 化学-化学综合
CiteScore
1.60
自引率
0.00%
发文量
144
审稿时长
2 months
期刊介绍: CHIMIA, a scientific journal for chemistry in the broadest sense covers the interests of a wide and diverse readership. Contributions from all fields of chemistry and related areas are considered for publication in the form of Review Articles and Notes. A characteristic feature of CHIMIA are the thematic issues, each devoted to an area of great current significance.
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