The influence of soil microelements on sulphur content in the spring wheat

  • 1 Rumokai Experimental Station, Lithuanian Research Centre for Agriculture and Forestry
  • 2 UAB “Agrodema”2, Lithuania


The aim of this research was to identify the impact of soil microelements on sulphur absorption in the spring wheat. The field experiment was conducted in 2011-2015 at the Rumokai Experimental Station of the Lithuanian Research Centre for Agriculture and Forestry on a Bathihypogleyi-Calc(ar)ic Luvisol (LVk-gld-w) with predominant silt loam on clay loam. During the years the research has shown that the sulphur content in leaves and straw was positively influenced by these soil microelements: manganese (correlation coefficients of 0.973**, 0.98** and 0.959**, respectively), molybdenum (correlation coefficients of 0.977**, 0.955** and 0.929**, respectively) and zinc (correlation coefficients of 0.794**, 0.847**, 0.840**, respectively). Larger boron quantity in the soil reduced the sulphur content in the leaves of wheat (correlation coefficients -0.739**, -0.771**, -0.781**). The impact of soil microelements on sulphur content in the grains of spring wheat was not identified in this research. The sulphur content in the grains was strongly influenced by precipitation in June and July months.



  1. Adomaitis T., J. Maţvila, Z. Vaišvila. Ilgalaikio tręšimo įtaka anijonų išplovimui. Ţemdirbystė – Agriculture, 97 (1). 2010. P. 71- 82. (In Lithuanian)
  2. An Y. J., Y.M. Kim, T. I. Kwon, S.W. Jeong. Combined effect of copper, cadmium, lead upon Cucumis sativus growth and bioaccumulation. Science of the Total Environment. 326(1-3). 2004. P. 85-93.
  3. Camberato J., S. Casteel. Sulfur deficiency. Soil. Fertility Update. Purdue Universitety, West Lafayette. 2017. P. 1-6.
  4. Dewal, G.S., R.G. Pareek. Effect of phosphorus, sulphur and zinc on growth yield and nutrient uptake of wheat (Triticum aestivum L.). Indian Journal of Agronomy. 49(3). 2004. P.160–164.
  5. Fitzpatrick K. L., S. D. Tyerman, B. N. Kaiser. Molybdate transport through the plant sulfate transporter SHST1. FEBS Ltters. 582 (10). 2008. P.1508-1513.
  6. Hayat Y., Z. Hussain, S.K. Shad Khan Khalil, A. M. Ikramullah, T. Shah, F. Shah. Effect of nitrogen and foliar sulphur applications on the growth and yield of two wheat varieties grown in Northern Pakistan. ARPN Journal of Agricultural and Biological Science. 10 (4). 2016. P. 139-145.
  7. Jankowski K., L. Kijewski, M. Skwierawska, S. Krzebietke, E. Mackiewicz-Walec. Effect of sulfur fertilization on the concentrations of copper, zinc and manganese in the roots, straw and oil cake of rapeseed (Brassica napus L. ssp. Oleifera Metzg). Journal of Elementology. 2014. P. 433-446.
  8. Juchnevičienė A., I. Vagusevičienė, A. Kaminskaitė, A. Brazaitytė, P. Duchovskis. Ţieminių kviečių grūdų kokybinių rodiklių priklausomumas nuo tręšimo azoto trąšomis. Ţemės ūkio mokslai. 23 (2). 2016. P. 47–55. (In Lithuanian)
  9. Lewandowski I. Landwirtschaftlich produzierte Biomasse. Energie aus Biomasse. 2016. P. 167-247.
  10. Mašauskas V., A. Mašauskienė. The impact of the long-therm application of superphosphate as sulphur containing fertilizer on the yield of crops in the rotation. Ţemdirbystė- Agriculture. 92 (4). 2005. P. 36-51 (In Lithuanian)
  11. Maţvila J., Z. Vaišvila, J. Lubytė, T. Adomaitis. Sieros kiekio pokyčiai dirvoţemyje ir augaluose dėl ilgalaikio tręšimo poveikio. Ţemdirbystė – Agriculture. 94 (1). 2007. P. 51-63. (In Lithuanian)
  12. Olfs H. W., M. Fuchs, U. Ortseifen, L. Schintling-Horny, A. Chappuis, W. Zerulla, K. Erdle. Schwefel-Düngung effiziert gestalten. Fachzentrum Land- und Ernährungwirtschaft. DLG 373. 5. 2012. P.4-26 (in German)
  13. Pekarskas J., A. Gavenauskas, A. Dautartė. Biologinio preparato Fertenat įtaka vasarinių kviečių derlingumui ir kokybei. Ţemės ūkio mokslai. T. 24. Nr. 1., 2017, P. 10–19. (In Lithuanian)
  14. Piotrowska-Długosza A., A. Siwik-Ziomek, J. Długosz, D. Gozdowski. Spatiotemporal variability of soil sulfur content and arylsulfatase activity at a conventionally managed arable field. Geoderma. 295. 2017. P. 107-118.
  15. Raudonius S. Application of statistics in plant and crop research:important issues. Zemdirbyste-Agriculture. 104 (4). 2017. P. 377-382
  16. Reid R. J. Boron Toxicity and Tolerance in Crop Plants. Crop Improvement Under Adverse Conditions. 2012. P. 333-346.
  17. Rietra R. P. J. J., M. Heinen, Ch.O. Dimkpa, P. S. Bindraban. Effects of Nutrient Antagonism and Synergism on Yield and Fertilizer Use Efficiency. Communications in soil science and plant analysis. 48 (16). 2017. P. 1895-1920.
  18. Šlapakauskas V.A. Ecophysiology of plants. Kaunas. Lututė. 2006. 413 p. (In Lithuanian)
  19. Staugaitienė R., A. Šlepetienė, L. Ţičkienė. Tręšimo siera poveikis vasarinių kviečių derlingumui ir kokybei. Ţemės ūkio mokslai. 20 (4). 2013. P. 266-275.(In Lithuanian)
  20. Staugaitis G., A. Pečkytė. Effect of Mineral Fertilisers with Different Composition on Yield, Grain Size Parameters and Quality of Malting Barley. Vagos. 80 (33). 2008. P. 108–116.
  21. Staugaitis G., L. Aleknavičienė, Z. Brazienė, A. Marcinkevičius, V. Paltanavičius. The influence of foliar fertilization with nitrogen, sulphur, amino acids and microelements on spring wheat. Zemdirbyste-Agriculture. 104 (2). 2017. P. 123- 130.
  22. Staugaitis G., L. Aleknavičienė, Z. Brazienė, A. Marcinkevičius, V. Paltanavičius. The influence of foliar fertilization with nitrogen, sulphur, amino acids and microelements on spring wheat. Zemdirbyste-Agriculture. 104 (2). 2017. P. 123- 130.
  23. Staugaitis G., Z. Brazienė, A. Marcinkevičius, R. Maţeika, Š. Antanaitis, R. Staugaitienė. Spring barley as affected by nitrogen and sulphur fertiliser rates calculated using different diagnostic methods. Ţemdirbyste-Agriculture. 101(4). 2014. P. 373-380.
  24. Vanek V., J. Balik, D. Pavlikova, P. Tlustos. (2007). Vyziva polnich a zahradnich plodin. Praha: Profi Press. 2007. 167 p. (In Czech).

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