The influence of fertilization with fresh sewage sludge with the addition of calcium oxide and lignite ash in the proportions dry mass 6:1, 4:1, 3:1 and 2:1 on the content of chromium and copper in plants and soil and uptake of these elements was investigated in pot experiment. Sewage sludge were taken from Siedlce (sludge after methane fermentation) and Łuków (sludge stabilized in oxygenic conditions), eastern Poland. The chromium content in the biomass of the test plants (maize, sunflower and oat) was higher following the application of mixtures of sewage sludge with ash than of the mixtures with CaO. The copper content in plants most often did not significantly depend on the type of additives to the sludge. Various amounts of additives to the sewage sludge did not have a significant effect on the contents of either of the studied trace elements in plants. The contents of chromium and copper in soil after 3 years of cultivation of plants were higher than before the experiment, but these amounts were not significantly differentiated depending on the type and the amount of the used additive (i.e. CaO vs. ash) to sewage sludge.
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Basu M., Pande M., Phadoria P.B.S., Mahapatra S.C., 2009. Potential fly-ash utilization in agriculture: A global review. Progress in Natural Science 19: 1173–1186.
Czekała J., Jakubus M., Mocek A., 2002. Selected properties of sewage sludge from sewage treatments plants in Wielkopolska. Part III. Heavy metals and polycycling aromatic hydrocarbons. Acta Agrophysica 70: 91–98 (in Polish).
Gadepalle V.P., Ouki S.K., Herwijnen R., Hutchings T., 2008. Effects of amended compost on mobility and uptake of arsenic by rye grass in contaminated soil. Chemosphere 72: 1056–1061.
Gorlach E., Gambuś F., 1991. The effect of liming adding peat, and phosphorus fertilization on uptake of heavy metals by plants. Polish Journal of Soil Sciences 24/2: 199–204.
Grzywnowicz I., Strutyński J., 2000. Agricultural use of sewage sludge as a source of soil contamination with heavy metals. Advances of Agricultural Sciences Problem Issues 472: 297–304 (in Polish).
Hooda P.S., Alloway B.J., 1994. Changes in operational fractions of trace metals in two soils during two – years of reaction time following sewage sludge treatment. International Journal of Environmental Analytical Chemistry 57: 289–311.
Jakubas M., Czekała J., 2001. Heavy metal speciation in sewage sludge. Polish Journal of Environmental Studies 10(4): 245–250.
Jezierska-Tys S., Frąc M., 2008. Influence of fertilization with dairy sewage sludge sanitised with coal fly ash on microbiological activity and concentration of heavy metals in grey-brown podzolic soil. Journal of Elementology 13(4): 535–544.
Polish Soil Classification (Systematyka Gleb Polski), 2011. Roczniki Gleboznawcze – Soil Science Annual 62(3): 1–193 (in Polish with English summary).
Rosik-Dulewska C., 2000. Sanitation of wastewater sludge with mineral wastes as metals speciation forms. Archives of Environmental Protection 26(3): 29–42.
Rosik-Dulewska C., 2001. Heavy metals and their fractions in sewage sludge sanitized using lignite ash. Advances of Agricultural Sciences Problem Issues 475: 349–356.
Rozporządzenie Ministra Środowiska z dnia 09 września 2002 r. w sprawie standardów jakości gleby oraz standardów jakości ziemi (Dz.U. 2002, nr 165, poz. 1359).
Rutkowska B., Szulc W., Łabętowicz J., 2004. Soil environment hazard evaluation under condition of immission of heavy metals contained in the municipal sewage sludge. Soil Science Annual 55(1): 203–208.
Saarsalmi A., Levula T., 2007. Wood Ash Application and Liming: Effects on Soil Chemical Properties and Growth of Scots Pine Transplants. Baltic Forestry 13(2): 149–157.
Sanerbeck D.R., 1991. Plant, element and soil properties governing uptake and availability of heavy metals derived from sewage sludge. Water Air Soil Pollution 57/58: 227–237.
Singh R.P., Agrawal M., 2008. Potential benefits and risks of land application of sewage sludge. Waste Management 28(2): 347–358.
Smith S.R., 1996. Agricultural Recycling of Sewage Sludge and the Environment. CAB International: pp. 382.
Tiruneh A.T., Fadiran A.O., Mtshali J.S., 2014. Evaluation of the risk of heavy metals in sewage sludge intended for agricultural application in Swaziland. International Journal of Environmental Sciences 5(1): 197–216. doi: 10.6088/ijes.2014050100017.
Usman K., Khan S., Ghulam S., Khan M.U., Khan N., Khan M.A., Khalil S.K., 2012. Sewage Sludge: An Important Biological Resource for Sustainable Agriculture and Its Environmental Implications. America Journal of Plant Sciences 3: 1708–1721, doi.org/10.4236/ajps.2012.312209
Ustawa z dnia 27 kwietnia 2001 r. Prawo ochrony środowiska (tekst jedn.: Dz.U. 2013, poz. 1232 z późn. zm.).
Wierzbowska J., Sienkiewicz S., Krzebietke S., Sternik P., 2016. Content of selected heavy metals in soil and in Virginia mallow (Sida hermaphrodita) fertilised with sewage sludge. Journal of Elementology 21(1): 247–258 doi: 10.5601/jelem.2015.20.3.975
Wołejko E., Wydro U., Butarewicz A., Łoboda T., 2013. Effects of sewage sludge on the accumulation of heavy metals in soil and in mixtures of lawn grasses. Environment Protection Engineering 39(2): 67–76. doi: 10.5277/EPE130207
Yilmaz D.D., Temizgul A., 2012. Assessment of arsenic and selenium concentration with chlorophyll contents of sugar beet (Beta vulgaris var. saccharifera) and wheat (Triticumaestivum) exposed to municipal sewage sludge doses. Water Air Soil Pollution 223: 3057–3066.