The Fate of Zn in Agricultural Soils: A Stable Isotope Approach to Anthropogenic Impact, Soil Formation, and Soil–Plant Cycling

The supplementation of Zn to farm animal feed and the excretion via manure leads to an unintended Zn input to agricultural systems, which might compromise the long-term soil fertility. The Zn fluxes at three grassland sites in Switzerland were determined by a detailed analysis of relevant inputs (at...

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Veröffentlicht in:Environmental science & technology 2019-04, Vol.53 (8), p.4140-4149
Hauptverfasser: Imseng, Martin, Wiggenhauser, Matthias, Müller, Michael, Keller, Armin, Frossard, Emmanuel, Wilcke, Wolfgang, Bigalke, Moritz
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container_end_page 4149
container_issue 8
container_start_page 4140
container_title Environmental science & technology
container_volume 53
creator Imseng, Martin
Wiggenhauser, Matthias
Müller, Michael
Keller, Armin
Frossard, Emmanuel
Wilcke, Wolfgang
Bigalke, Moritz
description The supplementation of Zn to farm animal feed and the excretion via manure leads to an unintended Zn input to agricultural systems, which might compromise the long-term soil fertility. The Zn fluxes at three grassland sites in Switzerland were determined by a detailed analysis of relevant inputs (atmospheric deposition, manure, weathering) and outputs (seepage water, biomass harvest) during one hydrological year. The most important Zn input occurred through animal manure (1076–1857 g ha–1 yr–1) and Zn mass balances revealed net Zn accumulations (456–1478 g ha–1 yr–1). We used Zn stable isotopes to assess the importance of anthropogenic impacts and natural long-term processes on the Zn distribution in soils. Soil–plant cycling and parent material weathering were identified as the most important processes, over the entire period of soil formation (13 700 years), whereas the soil pH strongly affected the direction of Zn isotopic fractionation. Recent anthropogenic inputs of Zn only had a smaller influence compared to the natural processes of the past 13 700 years. However, this will probably change in the future, as Zn stocks in the 0–20 cm layer will increase by 22–68% in the next 100 years, if Zn inputs remain on the same level as today.
doi_str_mv 10.1021/acs.est.8b03675
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source ACS Publications
subjects Agricultural land
Animal feed
Animal manures
Animal wastes
Anthropogenic factors
Atmospheric pollution deposition
Cycles
Excretion
Farms
Fluxes
Fractionation
Grasslands
Human influences
Hydrology
Isotope fractionation
Isotopes
Manures
Seepage
Soil chemistry
Soil fertility
Soil formation
Soil pH
Soils
Stable isotopes
Water seepage
Weathering
Zinc
title The Fate of Zn in Agricultural Soils: A Stable Isotope Approach to Anthropogenic Impact, Soil Formation, and Soil–Plant Cycling
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