Mobility and distribution of barium and strontium in profiles of podzolic soils

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Abstract

The study was aimed at determining the content, distribution and mobility of barium and strontium in various forest podzol soils. Samples with a wide range of chemical and physical properties were collected from typical uncontaminated soils of south-western Poland. The total metal content in the analyzed soils was considered as the geochemical background thanks to the natural features of the study site. Sequential chemical extraction procedure were used to provide information on the mobility and bioavailability of the studied metals in the soil. Fractions of Ba and Sr were determined using the five-step procedure of Tessier et al. (1979). The results show that heavy metals were generally represented by the exchangeable fraction (F1 . barium) and the residual fraction (F5 . strontium) with the average values at 53 and 69%, respectively. The mobility of barium in all soil profiles was very high, ranging within 52.54% and indicating a generally high availability and mobility. Relatively very low levels of the trace elements were found in the fraction bound to organic matter (F4: 3.8%). Very low levels of strontium were found also in the fraction bound to carbonates (F2: 2.3%). Humic-eluvial, illuvial and sideric horizons were enriched in the fractions of barium and strontium bound to iron and manganese oxides (F3).

Czêpiñska-Kamiñska D., 1992. Wpływ procesów glebotwórczych na rozmieszczenie mineralnych zwi¹zków fosforu w glebach. Wyd. SGGW.

IUSS Working Group WRB, 2006. World reference base for soil resources. First update 2007, 2nd ed. World Soil Resources Reports, 103. FAO, Rome: p. 128.

Klasyfikacja gleb le.nych Polski, 2000. Praca zbiorowa. Zespół Klasyfikacji Gleb Le.nych, Warszawa.

Kabata-Pendias A., Pendias H., 1993. Biogeochemia pierwiastk ów .ladowych. Wyd. Nauk. PWN, Warszawa: 117.125 pp.

Madeyski M., Tarnawski M., Jasiewicz C., Baran A., 2009. Fractionation of chosen heavy metals in bottom sediments of smallwater reservoirs. Arch. Environ. Prot. 35(3): 47.57.

Magalhães M.O.L., Sobrinho N.M.B.D.A., Zonta E., Carvalho M.M.D., Tolon-Becerra A., 2012. Effect of variations in the redox potential of Gleysol on barium mobility and absorption in rice plants. Chemosphere. 89(1): 121.127.

Pasieczna A., 2003. Atlas of urban soils contamination in Poland. Pañstwowy Instytut Geologiczny.

Pichtel J.K., Kuroiwa., Sawyerr H.T., 2000. Distribution of Pb, Cd and Ba in soils and plants of two contaminated sites. Environ. Pollut. 110: 171.178.

Polañski A., Smulikowski K., 1969. Geochemia. Wyd. Geologiczne: 117.125.

Reddy K.R., Danda S., Yukselen-Aksoy Y. and Al-Hamdan A.Z., 2010. Sequestration of heavy metals in soils from two polluted industrial sites: implications for remediation. Land Contamination& Reclamation 18(1): 13.23.

Tessier A., Campbell P.G.C, Bisson M., 1979. Sequential extraction procedure for the speciation of particular trace elements. Anal. Chem. 5: 884.850.

Trampler T., Kliczkowska A., Dmyterko E., Sierpiñska A., 1990. Regionalizacja przyrodniczo- le.na na podstawach ekologiczno- fizjograficznych. PWRiL Warszawa.

Vodyanitskii Y.N., Savichev A. T., A.A. Vasilev E.S., Lobanova E.S., Chashchin A.N., Prokopovich E.V., 2010. Contents of Heavy Alkaline Earth (Sr, Ba) and Rare Earth (Y, La, Ce) Metals in Technogenically Contaminated Soils. Eurasian SoilSci. 43(7): 822.832.

Soil Science Annual

formerly Roczniki Gleboznawcze

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CiteScore 2017: 1.13

SCImago Journal Rank (SJR) 2017: 0.468
Source Normalized Impact per Paper (SNIP) 2017: 0.781

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