Biochar-Assisted Phytostabilization for Potentially Toxic Element Immobilization

In response to the growing threat to the quality of the soil environment, new technologies are being developed to protect and remediate contaminated sites. A new approach, namely, assisted phytostabilization, has been used in areas contaminated with high levels of potentially toxic elements (PTEs),...

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Veröffentlicht in:Sustainability 2022-01, Vol.14 (1), p.445
Hauptverfasser: Radziemska, Maja, Gusiatin, Zygmunt Mariusz, Mazur, Zbigniew, Hammerschmiedt, Tereza, Bęś, Agnieszka, Kintl, Antonin, Galiova, Michaela Vasinova, Holatko, Jiri, Blazejczyk, Aurelia, Kumar, Vinod, Brtnicky, Martin
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container_title Sustainability
container_volume 14
creator Radziemska, Maja
Gusiatin, Zygmunt Mariusz
Mazur, Zbigniew
Hammerschmiedt, Tereza
Bęś, Agnieszka
Kintl, Antonin
Galiova, Michaela Vasinova
Holatko, Jiri
Blazejczyk, Aurelia
Kumar, Vinod
Brtnicky, Martin
description In response to the growing threat to the quality of the soil environment, new technologies are being developed to protect and remediate contaminated sites. A new approach, namely, assisted phytostabilization, has been used in areas contaminated with high levels of potentially toxic elements (PTEs), using various soil additives. This paper determined the effectiveness of biochar-assisted phytostabilization using Dactylis glomerata L. of soil contaminated with high concentrations of the selected PTEs (in mg/kg soil): Cu (780 ± 144), Cd (25.9 ± 2.5), Pb (13,540 ± 669) and Zn (8433 ± 1376). The content of the selected PTEs in the roots and above-ground parts of the tested grass, and in the soil, was determined by atomic absorption spectrometry (AAS). The addition of biochar to the contaminated soil led to an increase in plant biomass and caused an increase in soil pH values. Concentrations of Cu, Cd, Pb and Zn were higher in the roots than in the above-ground parts of Dactylis glomerata L. The application of biochar significantly reduced the total content of PTEs in the soil after finishing the phytostabilization experiment, as well as reducing the content of bioavailable forms extracted from the soil using CaCl2 solution, which was clearly visible with respect to Cd and Pb. It is concluded that the use of biochar in supporting the processes of assisted phytostabilization of soils contaminated with PTEs is justified.
doi_str_mv 10.3390/su14010445
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The application of biochar significantly reduced the total content of PTEs in the soil after finishing the phytostabilization experiment, as well as reducing the content of bioavailable forms extracted from the soil using CaCl2 solution, which was clearly visible with respect to Cd and Pb. 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The application of biochar significantly reduced the total content of PTEs in the soil after finishing the phytostabilization experiment, as well as reducing the content of bioavailable forms extracted from the soil using CaCl2 solution, which was clearly visible with respect to Cd and Pb. 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subjects Additives
Atomic absorption spectroscopy
Bioavailability
Biomass
Bioremediation
Cadmium
Calcium chloride
Charcoal
Chemical properties
Control
Dactylis glomerata
Environmental aspects
Experiments
Heavy metals
Immobilization
Laboratories
Lead
Methods
Microscopy
Moisture content
New technology
Particle size
Plant biomass
Plant growth
Polyethylene
Precipitation
Roots
Sediment pollution
Soil contamination
Soil environment
Soil pH
Soil pollution
Soil remediation
Soils
Spectral analysis
Spectrometry
Sustainability
Zinc
title Biochar-Assisted Phytostabilization for Potentially Toxic Element Immobilization
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