Soil contamination near non-ferrous metal smelters: A review
This review summarizes over 160 studies focused on soil contamination near non-ferrous metal smelters. The methods of these investigations were examined with an emphasis on the combinations of traditional (geo)chemical approaches with various mineralogical and metal isotope techniques that are parti...
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Published in | Applied geochemistry Vol. 64; pp. 56 - 74 |
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Main Author | |
Format | Journal Article |
Language | English |
Published |
Elsevier Ltd
01.01.2016
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Subjects | |
Online Access | Get full text |
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Abstract | This review summarizes over 160 studies focused on soil contamination near non-ferrous metal smelters. The methods of these investigations were examined with an emphasis on the combinations of traditional (geo)chemical approaches with various mineralogical and metal isotope techniques that are particularly helpful for depicting the fate of smelter-derived contamination in the soil. Differences in the distributions and binding of metal(loid)s in smelter-affected soils from temperate and (sub)tropical climatic zones indicate the greater vulnerability of the latter. Prevailing wind direction is a key factor affecting the dispersion of smelter emissions and their subsequent deposition into the soils, with greater importance found especially in arid areas. Whereas the greatest contamination is generally observed in the surface soil layers, downward migration of metal(loid)s in the soil profiles has been documented at numerous sites. Contamination of smelter soils significantly affects both plants and soil organisms, but suitable remediation techniques (such as chemical stabilization of soils by amendments) can be used for reducing the bioavailability of contaminants.
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•High levels of metal(loid)s in topsoils affected by non-ferrous metal smelters.•Contamination hotspots in soils near smelters reflect prevailing wind direction.•Fate of contaminants in soils controlled by the mineralogy of smelter particulates.•Multi-isotope techniques enable tracing the smelter-related contamination in soils.•Remediation techniques reduce contaminant bioavailability from smelter soils. |
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AbstractList | This review summarizes over 160 studies focused on soil contamination near non-ferrous metal smelters. The methods of these investigations were examined with an emphasis on the combinations of traditional (geo)chemical approaches with various mineralogical and metal isotope techniques that are particularly helpful for depicting the fate of smelter-derived contamination in the soil. Differences in the distributions and binding of metal(loid)s in smelter-affected soils from temperate and (sub)tropical climatic zones indicate the greater vulnerability of the latter. Prevailing wind direction is a key factor affecting the dispersion of smelter emissions and their subsequent deposition into the soils, with greater importance found especially in arid areas. Whereas the greatest contamination is generally observed in the surface soil layers, downward migration of metal(loid)s in the soil profiles has been documented at numerous sites. Contamination of smelter soils significantly affects both plants and soil organisms, but suitable remediation techniques (such as chemical stabilization of soils by amendments) can be used for reducing the bioavailability of contaminants. This review summarizes over 160 studies focused on soil contamination near non-ferrous metal smelters. The methods of these investigations were examined with an emphasis on the combinations of traditional (geo)chemical approaches with various mineralogical and metal isotope techniques that are particularly helpful for depicting the fate of smelter-derived contamination in the soil. Differences in the distributions and binding of metal(loid)s in smelter-affected soils from temperate and (sub)tropical climatic zones indicate the greater vulnerability of the latter. Prevailing wind direction is a key factor affecting the dispersion of smelter emissions and their subsequent deposition into the soils, with greater importance found especially in arid areas. Whereas the greatest contamination is generally observed in the surface soil layers, downward migration of metal(loid)s in the soil profiles has been documented at numerous sites. Contamination of smelter soils significantly affects both plants and soil organisms, but suitable remediation techniques (such as chemical stabilization of soils by amendments) can be used for reducing the bioavailability of contaminants. [Display omitted] •High levels of metal(loid)s in topsoils affected by non-ferrous metal smelters.•Contamination hotspots in soils near smelters reflect prevailing wind direction.•Fate of contaminants in soils controlled by the mineralogy of smelter particulates.•Multi-isotope techniques enable tracing the smelter-related contamination in soils.•Remediation techniques reduce contaminant bioavailability from smelter soils. |
Author | Ettler, Vojtěch |
Author_xml | – sequence: 1 givenname: Vojtěch surname: Ettler fullname: Ettler, Vojtěch email: ettler@natur.cuni.cz organization: Institute of Geochemistry, Mineralogy, and Mineral Resources, Faculty of Science, Charles University in Prague, Albertov 6, Prague 2, 128 43, Czech Republic |
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Snippet | This review summarizes over 160 studies focused on soil contamination near non-ferrous metal smelters. The methods of these investigations were examined with... |
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SubjectTerms | bioavailability climatic zones emissions geochemistry isotopes Metal(loid)s Non-ferrous metal smelting Pollution remediation Soil soil biota soil pollution soil profiles soil surface layers wind direction |
Title | Soil contamination near non-ferrous metal smelters: A review |
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