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Biogeochemistry of uranium in the soil-plant and water-plant systems in an old uranium mine

The present study highlights the uranium (U) concentrations in water–soil–plant matrices and the efficiency considering a heterogeneous assemblage of terrestrial and aquatic native plant species to act as the biomonitor and phytoremediator for environmental U-contamination in the Sevilha mine (urani...

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Published in:The Science of the total environment 2016-10, Vol.568, p.350-368
Main Authors: Favas, Paulo J.C., Pratas, João, Mitra, Soumita, Sarkar, Santosh Kumar, Venkatachalam, Perumal
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creator Favas, Paulo J.C.
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description The present study highlights the uranium (U) concentrations in water–soil–plant matrices and the efficiency considering a heterogeneous assemblage of terrestrial and aquatic native plant species to act as the biomonitor and phytoremediator for environmental U-contamination in the Sevilha mine (uraniferous region of Beiras, Central Portugal). A total of 53 plant species belonging to 22 families was collected from 24 study sites along with ambient soil and/or water samples. The concentration of U showed wide range of variations in the ambient medium: 7.5 to 557mgkg−1 for soil and 0.4 to 113μgL−1 for water. The maximum potential of U accumulation was recorded in roots of the following terrestrial plants: Juncus squarrosus (450mgkg−1 DW), Carlina corymbosa (181mgkg−1 DW) and Juncus bufonius (39.9mgkg−1 DW), followed by the aquatic macrophytes, namely Callitriche stagnalis (55.6mgkg−1 DW) Lemna minor (53.0mgkg−1 DW) and Riccia fluitans (50.6mgkg−1 DW). Accumulation of U in plant tissues exhibited the following decreasing trend: root>leaves>stem>flowers/fruits and this confirms the unique efficiency of roots in accumulating this radionuclide from host soil/sediment (phytostabilization). Overall, the accumulation pattern in the studied aquatic plants (L. minor, R. fluitans, C. stagnalis and Lythrum portula) dominated over most of the terrestrial counterpart. Among terrestrial plants, the higher mean bioconcentration factor (≈1 in roots/rhizomes of C. corymbosa and J. squarrosus) and translocation factor (31 in Andryala integrifolia) were encountered in the representing families Asteraceae and Juncaceae. Hence, these terrestrial plants can be treated as the promising candidates for the development of the phytostabilization or phytoextraction methodologies based on the accumulation, abundance and biomass production. [Display omitted] •The uranium (U) accumulation efficiency of terrestrial and aquatic plants was studied.•The maximum potential of U-accumulation was recorded in the terrestrial plants.•Preferential accumulation in roots/rhizomes contributes to U fixation in rhizosphere.•Terrestrial plants perform a natural attenuation of contamination by phytostabilization.
doi_str_mv 10.1016/j.scitotenv.2016.06.024
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A total of 53 plant species belonging to 22 families was collected from 24 study sites along with ambient soil and/or water samples. The concentration of U showed wide range of variations in the ambient medium: 7.5 to 557mgkg−1 for soil and 0.4 to 113μgL−1 for water. The maximum potential of U accumulation was recorded in roots of the following terrestrial plants: Juncus squarrosus (450mgkg−1 DW), Carlina corymbosa (181mgkg−1 DW) and Juncus bufonius (39.9mgkg−1 DW), followed by the aquatic macrophytes, namely Callitriche stagnalis (55.6mgkg−1 DW) Lemna minor (53.0mgkg−1 DW) and Riccia fluitans (50.6mgkg−1 DW). Accumulation of U in plant tissues exhibited the following decreasing trend: root&gt;leaves&gt;stem&gt;flowers/fruits and this confirms the unique efficiency of roots in accumulating this radionuclide from host soil/sediment (phytostabilization). Overall, the accumulation pattern in the studied aquatic plants (L. minor, R. fluitans, C. stagnalis and Lythrum portula) dominated over most of the terrestrial counterpart. Among terrestrial plants, the higher mean bioconcentration factor (≈1 in roots/rhizomes of C. corymbosa and J. squarrosus) and translocation factor (31 in Andryala integrifolia) were encountered in the representing families Asteraceae and Juncaceae. Hence, these terrestrial plants can be treated as the promising candidates for the development of the phytostabilization or phytoextraction methodologies based on the accumulation, abundance and biomass production. 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A total of 53 plant species belonging to 22 families was collected from 24 study sites along with ambient soil and/or water samples. The concentration of U showed wide range of variations in the ambient medium: 7.5 to 557mgkg−1 for soil and 0.4 to 113μgL−1 for water. The maximum potential of U accumulation was recorded in roots of the following terrestrial plants: Juncus squarrosus (450mgkg−1 DW), Carlina corymbosa (181mgkg−1 DW) and Juncus bufonius (39.9mgkg−1 DW), followed by the aquatic macrophytes, namely Callitriche stagnalis (55.6mgkg−1 DW) Lemna minor (53.0mgkg−1 DW) and Riccia fluitans (50.6mgkg−1 DW). Accumulation of U in plant tissues exhibited the following decreasing trend: root&gt;leaves&gt;stem&gt;flowers/fruits and this confirms the unique efficiency of roots in accumulating this radionuclide from host soil/sediment (phytostabilization). Overall, the accumulation pattern in the studied aquatic plants (L. minor, R. fluitans, C. stagnalis and Lythrum portula) dominated over most of the terrestrial counterpart. Among terrestrial plants, the higher mean bioconcentration factor (≈1 in roots/rhizomes of C. corymbosa and J. squarrosus) and translocation factor (31 in Andryala integrifolia) were encountered in the representing families Asteraceae and Juncaceae. Hence, these terrestrial plants can be treated as the promising candidates for the development of the phytostabilization or phytoextraction methodologies based on the accumulation, abundance and biomass production. 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subjects Asteraceae
Bioaccumulation
Biodegradation, Environmental
Bioindicator
Callitriche stagnalis
Carlina
Environmental Monitoring
Environmental Restoration and Remediation
Geologic Sediments - analysis
Juncaceae
Juncus bufonius
Juncus squarrosus
Lemna minor
Lythrum portula
Mining
Natural attenuation
Phytoremediation
Phytostabilization
Plants - metabolism
Portugal
Riccia fluitans
Sevilha mine
Soil Pollutants, Radioactive - analysis
Soil Pollutants, Radioactive - metabolism
Uranium - analysis
Uranium - metabolism
Water Pollutants, Radioactive - analysis
Water Pollutants, Radioactive - metabolism
title Biogeochemistry of uranium in the soil-plant and water-plant systems in an old uranium mine
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