Agroecological assessment of fluorine in soils and agricultural plants of steppe landscapes of Odessa region
Keywords:
fluorine, southern chernozem, agricultural plants, ecological assessment
Abstract
The materials of long-term research of the features of the content and distribution of fluorine in southern chernozems are highlighted. The purpose of this work is to investigate the effects of irrigation and chemical meliorants on the fluorine accumulation in soils and crops. To achieve this goal, the following tasks were set: to determine the content of fluorine in soils and plants in conditions of irrigation and application of phosphorus fertilizers (phosphogypsum); to carry out ecological assessment of southern chernozems in terms of accumulation and migration of fluorine in soil, plant resistance to fluorine accumulationand translocation. The research was conducted within the irrigation areas of Odessa region. Bulk and movable forms of fluorine were determined by the potentiometric method in the southern chernozems of different reclamation state (non-irrigated, irrigated and irrigated reclaimed). The content of movable fluorine in agricultural plants was determined by the author’s method. It was established that the contest of bulk fluorine is the highest in the non-irrigated chernozems, but does not exceed the MPC. In irrigation, the number of bulk forms of fluorine decreases due to their dissolution and migration from the top layer to the depth of the soil profile. The content of soluble forms of fluorine increases significantly in all components of agrolandscape under the influence of irrigation and especially the introduction of phosphogypsum. It was determined that the combined application of phosphorous fertilizers and manure leads toa decrease of the fluorine content in soils, lysimetric waters and agricultural plants. The degree of mobility of fluorine compounds in the studied chernozems during irrigation and especially the introduction of phosphogypsum increases. The level of fluorine content in lysimetric waters and the coefficient of water migration correlate with its content in soils. A positive correlation was found between the fluorine content in the roots of maize, oats, wheat ear and soil while its absence between the content of fluorine in the stems and leaves. The introduction of mineral and organic fertilizers together enhances the ability of plants to absorb fluorine from chernozem soils. The active contamination rate for all tested plants is higher than one, which can cause their inhibition. When resuming irrigation of chernozem soils, there will be a need for increased doses of mineral, including phosphorus fertilizers. Despite the low solubility of fluorine compounds, conducted research has shown that irrigation and application of phosphogypsum significantly increases the soluble forms of fluorine, which can adversely affect the pollution of agrolandscapes and public health.References
1. Baliuk, S.A., Ladnykh, V.Ya., Vorotintseva, L.I., Nedotyuk, O.A., Vernichenko G.A. 2013. Ocinka stijkosti agrolandshaftiv i g’runtiv do vplyvu zroshennja: rekomendacii’ [Estimation of stability of agricultural landscapes and soils to the influence of irrigation: recommendations]. Kharkiv (in Ukrainian).
2. Baranovsky, A.Z., Pankrutskaya, L.I. 1992. Nakoplenie ftora v biologicheskih obektah pri dlitel’nom primenenii fosfornyh udobrenij na torfjanobolotnyh pochvah [Fluorine accumulation in biological objects with long-term use of phosphorus fertilizers on peat-bog soils]. Agrochemistry, 12, 27-34 (in Russian).
3. Brindha, K., Rajesh, R., Murugan, R., Elango L. 2011. Fluoride contamination in groundwater in parts of Nalgonda District, Andhra Pradesh, India. Environmental Monitoring and Assessment, 172, 481-492. https://doi.org/10.1007/s10661-010- 1348-0
4. Chornozemy` masy`viv zroshennya Odeshhy`ny`: monografiya, 2016. [Chernozems of irrigation arrays of Odessa region: monograph]. Edited by Dr. Biol. Sciences, Professor E.N. Krasekha and Candidate of Geographical Sciences, Assoc. Yu.M. Bilanchin. Odessa National University named after I.I. Mechnikov, Odessa (in Ukrainian).
5. Davis, R.D. 1995. Uptake of fluoride by ryegrass grown in soil treated with sewage sludge. Agr. Ecosyst. Environ. 52(2-3), 205-211.
6. Cui, X., Wang, X., Fan, W., Wang, J., Cui, K. 2011. Effects of fluoride on soil properties and yield and quality of maize. Chin J Eco-Agric. 19 (4), 897-901. doi:
DOI: 10.3724/SP.J.1011.2011.00897
7. Elrashidi, M. A., Lindsay, W. L. 1986. Chemical equilibria of fluoride in soils: a theoretical development. Soil Science, 141 (4), 274-280.
https://doi.org/10.1097/00010694-198604000-00004
8. Gogolev, I.N., Baer, R.A., Coulibabine, A.G. Scientific Ed. Gogolev I.N., Druziak V.G. 1992. Oroshenie na Odesshhine. Pochvenno-jekologicheskie i agrotehnicheskie aspekty [Irrigation in the Odessa region. Soil-ecological and agrotechnical aspects]. Red. Publ. Department, Odessa (in Russian).
9. Haidouti C., Chronopoulou A., Chronopoulos J., 1993. Effects of fluoride emissions from industry on the fluoride concentration of soils and vegetation. Biochem. Syst. Ecol. 21(2), 195-208.
10. Holevas C., I960. Fluoride air pollution In relation to injury and fluorine content of cultivated plants. SJCOPN International Colloquium Control Plant, Nutrition 5th Treviao, 1, 196-203.
11. Ilyin V.B., Stepanova M.D., 1979. Otnositel’nye pokazateli zagrjaznenija v sisteme pochva-rastenie [Relative indices of pollution in the soil-plant system]. Soil science, 11:61 (in Russian).
12. Jha S.K., Nayak A.K., Sharma Y. K., 2009. Fluoride occurrenceand assessment of exposure dose of fluoride in shallow aquifers of Makur, Unnao district Uttar Pradesh, India. Environmental Monitoring and Assessment. 156, 561-566. https://doi.org/10.1007/s10661-008-0505-1
13. Kabata-Pendias A., Pendias H., 1989. Mikrojelementy v pochvah i rastenijah [Microelements in soils and plants].Trans. from. Mir, Moscow (in Russian).
14. Kovda V.A., 1973. Osnovy uchenija o pochvah. Obshhaja teorija pochvoobrazovatel’nogo processa [Basics of soil science. General theory of soil-forming process]. Nauka, Moscow (in Russian).
15. Kudzin Yu. K., Pashova V.G., 1970. O soderzhanii ftora v pochve i rastenijah pri dlitel’nom primenenii udobrenij [About the content of fluorine in soil and plants with prolonged use of fertilizers]. Pochvovedenie. 2, 30-35 (in Russian).
16. Lakshmi D., Rao K., Ramprakash T., Reddy A., 2016. Monitoring of fluoride content in surface soils used for crop cultivation in Ramannapet Mandal of Nalgonda district, Telangana, India. Society for Environment and Development, India. 11(2-4), 59-67.
17. Loganathan P., Hedley M., Wallace G., Roberts A., 2001. Fluoride accumulation in pasture forages and soils following long-term applications of phosphorus fertilizers. Environ. Pollut. 115(2), 275-282.
18. Metodicheskiye ukazaniya po provedeniyu issledovaniy v dlitel’nykh opytakh s udobreniyami: pod obshch. red. akad. V. D. Pannikova, 1975 [Methodical instructions for conducting research in longterm experiments with fertilizers. V.D. Pannikov (Ed.)]. VIUA, Moscow (in Russian).
19. Mourad, N., Sharshar T., Elnimr T., Mousa M., 2009. Radioactivity and fluoride contamination derived from a phosphate fertilizer plant in Egypt. Applied Radiation and Isotopes. 67, 1259–1268. https://doi.org/10.1016/j. apradiso.2009.02.025
20. Naukovі osnovi ohoroni ta racіonal’nogo vikoristannja zroshuvanih zemel’ Ukraїni. 2009. [Scientific bases of protection and rational use of irrigated lands of Ukraine]. Agrarna Nauka, Kyiv (in Ukrainian).
21. Nowak J, Kuran B, Smolik B., 2000. Dynamics of fluorine conversion from soluble forms into insoluble water compounds in various soil. Folia Univ Agric Stetin 209 Agricultura. 83, 125–130.
22. Orlov D.S., Sadovnikova L.K., Lozanovskaya I.N., 2002. Jekologija i ohrana biosfery pri himicheskom zagrjaznenii [Ecology and protection of the biosphere in chemical pollution]. Vysshaja Shkola, Moscow (in Russian).
23. Pashova V.T., 1980. Nakoplenie ftora v pochve i sel’skohozjajstvennyh rastenijah pri dlitel’nom primenenii superfosfata [Accumulation of fluorine in soil and agricultural plants with long-term use of superphosphate] Intensification of agricultural production and problems of environmental protection. Nauka, Moscow, 84-90 (in Russian).
24. Perelman A.I., 1989. Geohimija. [Geochemistry]. Vysshaja Shkola, Moscow (in Russian).
25. Perez–Lopez R., Nieto J., Coto I., Aguado J., Bolivar J., Santisteban M., 2010. Dynamics of contaminants in phosphogypsum of the fertilizer industry of Biological Communications, 64 (4). https://doi.org/10.21638/spbu03.2019.406
26. Pickering, W.F., 1985. The mobility of soluble fluoride in soils. Environmental Pollution Series B, Chemical and Physical, 9(4), 281-308.
https://doi.org/10.1016/0143-148X(85)90004-7
27. Piotrowska M., Miacek К., 1975. Zawartosc fluoru w niektorych glebach Polski. [Fluorine content in some Polish soils]. Roc. Z. Nauk rol. 101 (2), 93- 106 (in Polish).
28. Pomazkina L.V., 2004. Novyj integral’nyj podhod k ocenke rezhimov funkcionirovanija agrojekosistem i jekologicheskomu normirovaniju antropogennoj nagruzki, vkljuchaja tehnogennoe zagrjaznenija pochv [A new integrated approach to assessing the functioning modes of agroecosystems and environmental regulation of anthropogenic load, including technogenic pollution of soils]. Uspehi sovremennoj biologii, 1 (124), 66-76 (in Russian).
29. Rezaei M., Nikbakht M., Shakeri A., 2017. Geochemistry and sources of fluoride and nitrate contamination of ground water in Lar area, south Iran. Environmental Science and Pollution Research, 24(18), 15471-15487. https://doi.org/10.1007/s11356-017-9108-0
30. Smidt G., Koschinsky A., De Carvalho L., Monserrat J., Schnug E., 2011. Heavy metal concentrations in soils in the vicinity of a fertilizer factory in Southern Brazil. Landbauforschung, 61(4), 353-364.
31. Tandelov Yu. P., 2012. Ftor v sisteme pochva-rastenie. [Fluorine in the soil-plant system]. Krasnoyarsk (in Russian).
32. Tayibi H., Choura M., Lopez F., Alguacil F., Lopez-Delgado A., 2009. Environmental impact and management of phosphogypsum. Journal of Environmental Management, 90(8), 2377-2386. https://doi.org/10.1016/j.jenvman. 2009.03.007
33. Thompson, L.К., Sidhu, S.S., Roberts, B.A. 1979. Fluoride accumulations in soil and vegetation in the vicinity of a phosphorus plant. II Environmental. Pollution, 18(3), 221-234.
34. Topchiyev, O.G., Sych, V.A., Yavorskaya, V.V., Dolynskaya, O.O. 2019. Ekologichnyj imperatyv u koncepcijah social’no-ekonomichnogo rozvytku i jogo geografichni skladovi [The ecological imperative in the concepts of socio-economic development and its geographical components]. Visn. Odessa Nat. Univ. Ser. Geogr. and Geolog.
Sc. 24(2), 96-108 (in Ukrainian).
35. Trigub, V.I., Poznyak, S.P. 2008. Ftor u chornozemah pivdennogo zahodu Ukrai’ny: monohrafiia [Fluorine in chernozems of southwestern Ukraine: monograph]. VC LNU, Lviv (in Ukrainian).
36. Trigub, V.I. 2014. Ocinka ekologichnogo normuvannja granychno-dopustymyh koncentracij ftoru v systemi «pryrodne seredovyshhe-ljudyna» [Estimation of ecological normalization of the maximum permissible concentrations of fluorine in the system “natural environment-human”]. Visn. Odessa Nat. Univ. Ser. Geogr. and Geolog. Sc. 19 (1), 139-149 (in Ukrainian)
37. Trigub, V., Poznyak, S. 2014. Impact of phosphogypsum on accumulation and migration of fluorine in soils and soil Solutions. Polish journal of Soil Science, XLVII (1), 27-33. PL ISSN 0079-2985.
38. Trigub, V.I., Lyashkova, O.O. 2018. Fluorine in natural components of the Odessa Region: medical - environmental (ecological) evaluation. Ekology and human health. Educator, Czestochowa, 131-141. ISBN 978-83-7542-129-3
39. Trigub, V. 2019 Sposib vyznachennja aktyvnogo ftoru v roslynah. [Method of determining active fluorine in plants] Pat. na korysnu model 134872 UA
40. Weinstein, L.H., Davidson, A.W., 2004. Fluorides in the Environment. Newcastle: CABI Publishing.
41. Yakist gruntu. Vidbyrannia prob: DSTU 4287, 2004. [The quality of the soil. Sampling: State Standard 4287:2004]. [Effective from 2004-04-30]. Derzhspozhyvstandart of Ukraine (National standards of Ukraine), Kyiv (in Ukranian).
42. Zeidelman, F.R. 2008. Metody jekologo-meliorativnyh izyskanij i issledovanij pochv. [Methods of ecological and reclamation research and soil research.]: Kolos, Moscow (in Russian).
2. Baranovsky, A.Z., Pankrutskaya, L.I. 1992. Nakoplenie ftora v biologicheskih obektah pri dlitel’nom primenenii fosfornyh udobrenij na torfjanobolotnyh pochvah [Fluorine accumulation in biological objects with long-term use of phosphorus fertilizers on peat-bog soils]. Agrochemistry, 12, 27-34 (in Russian).
3. Brindha, K., Rajesh, R., Murugan, R., Elango L. 2011. Fluoride contamination in groundwater in parts of Nalgonda District, Andhra Pradesh, India. Environmental Monitoring and Assessment, 172, 481-492. https://doi.org/10.1007/s10661-010- 1348-0
4. Chornozemy` masy`viv zroshennya Odeshhy`ny`: monografiya, 2016. [Chernozems of irrigation arrays of Odessa region: monograph]. Edited by Dr. Biol. Sciences, Professor E.N. Krasekha and Candidate of Geographical Sciences, Assoc. Yu.M. Bilanchin. Odessa National University named after I.I. Mechnikov, Odessa (in Ukrainian).
5. Davis, R.D. 1995. Uptake of fluoride by ryegrass grown in soil treated with sewage sludge. Agr. Ecosyst. Environ. 52(2-3), 205-211.
6. Cui, X., Wang, X., Fan, W., Wang, J., Cui, K. 2011. Effects of fluoride on soil properties and yield and quality of maize. Chin J Eco-Agric. 19 (4), 897-901. doi:
DOI: 10.3724/SP.J.1011.2011.00897
7. Elrashidi, M. A., Lindsay, W. L. 1986. Chemical equilibria of fluoride in soils: a theoretical development. Soil Science, 141 (4), 274-280.
https://doi.org/10.1097/00010694-198604000-00004
8. Gogolev, I.N., Baer, R.A., Coulibabine, A.G. Scientific Ed. Gogolev I.N., Druziak V.G. 1992. Oroshenie na Odesshhine. Pochvenno-jekologicheskie i agrotehnicheskie aspekty [Irrigation in the Odessa region. Soil-ecological and agrotechnical aspects]. Red. Publ. Department, Odessa (in Russian).
9. Haidouti C., Chronopoulou A., Chronopoulos J., 1993. Effects of fluoride emissions from industry on the fluoride concentration of soils and vegetation. Biochem. Syst. Ecol. 21(2), 195-208.
10. Holevas C., I960. Fluoride air pollution In relation to injury and fluorine content of cultivated plants. SJCOPN International Colloquium Control Plant, Nutrition 5th Treviao, 1, 196-203.
11. Ilyin V.B., Stepanova M.D., 1979. Otnositel’nye pokazateli zagrjaznenija v sisteme pochva-rastenie [Relative indices of pollution in the soil-plant system]. Soil science, 11:61 (in Russian).
12. Jha S.K., Nayak A.K., Sharma Y. K., 2009. Fluoride occurrenceand assessment of exposure dose of fluoride in shallow aquifers of Makur, Unnao district Uttar Pradesh, India. Environmental Monitoring and Assessment. 156, 561-566. https://doi.org/10.1007/s10661-008-0505-1
13. Kabata-Pendias A., Pendias H., 1989. Mikrojelementy v pochvah i rastenijah [Microelements in soils and plants].Trans. from. Mir, Moscow (in Russian).
14. Kovda V.A., 1973. Osnovy uchenija o pochvah. Obshhaja teorija pochvoobrazovatel’nogo processa [Basics of soil science. General theory of soil-forming process]. Nauka, Moscow (in Russian).
15. Kudzin Yu. K., Pashova V.G., 1970. O soderzhanii ftora v pochve i rastenijah pri dlitel’nom primenenii udobrenij [About the content of fluorine in soil and plants with prolonged use of fertilizers]. Pochvovedenie. 2, 30-35 (in Russian).
16. Lakshmi D., Rao K., Ramprakash T., Reddy A., 2016. Monitoring of fluoride content in surface soils used for crop cultivation in Ramannapet Mandal of Nalgonda district, Telangana, India. Society for Environment and Development, India. 11(2-4), 59-67.
17. Loganathan P., Hedley M., Wallace G., Roberts A., 2001. Fluoride accumulation in pasture forages and soils following long-term applications of phosphorus fertilizers. Environ. Pollut. 115(2), 275-282.
18. Metodicheskiye ukazaniya po provedeniyu issledovaniy v dlitel’nykh opytakh s udobreniyami: pod obshch. red. akad. V. D. Pannikova, 1975 [Methodical instructions for conducting research in longterm experiments with fertilizers. V.D. Pannikov (Ed.)]. VIUA, Moscow (in Russian).
19. Mourad, N., Sharshar T., Elnimr T., Mousa M., 2009. Radioactivity and fluoride contamination derived from a phosphate fertilizer plant in Egypt. Applied Radiation and Isotopes. 67, 1259–1268. https://doi.org/10.1016/j. apradiso.2009.02.025
20. Naukovі osnovi ohoroni ta racіonal’nogo vikoristannja zroshuvanih zemel’ Ukraїni. 2009. [Scientific bases of protection and rational use of irrigated lands of Ukraine]. Agrarna Nauka, Kyiv (in Ukrainian).
21. Nowak J, Kuran B, Smolik B., 2000. Dynamics of fluorine conversion from soluble forms into insoluble water compounds in various soil. Folia Univ Agric Stetin 209 Agricultura. 83, 125–130.
22. Orlov D.S., Sadovnikova L.K., Lozanovskaya I.N., 2002. Jekologija i ohrana biosfery pri himicheskom zagrjaznenii [Ecology and protection of the biosphere in chemical pollution]. Vysshaja Shkola, Moscow (in Russian).
23. Pashova V.T., 1980. Nakoplenie ftora v pochve i sel’skohozjajstvennyh rastenijah pri dlitel’nom primenenii superfosfata [Accumulation of fluorine in soil and agricultural plants with long-term use of superphosphate] Intensification of agricultural production and problems of environmental protection. Nauka, Moscow, 84-90 (in Russian).
24. Perelman A.I., 1989. Geohimija. [Geochemistry]. Vysshaja Shkola, Moscow (in Russian).
25. Perez–Lopez R., Nieto J., Coto I., Aguado J., Bolivar J., Santisteban M., 2010. Dynamics of contaminants in phosphogypsum of the fertilizer industry of Biological Communications, 64 (4). https://doi.org/10.21638/spbu03.2019.406
26. Pickering, W.F., 1985. The mobility of soluble fluoride in soils. Environmental Pollution Series B, Chemical and Physical, 9(4), 281-308.
https://doi.org/10.1016/0143-148X(85)90004-7
27. Piotrowska M., Miacek К., 1975. Zawartosc fluoru w niektorych glebach Polski. [Fluorine content in some Polish soils]. Roc. Z. Nauk rol. 101 (2), 93- 106 (in Polish).
28. Pomazkina L.V., 2004. Novyj integral’nyj podhod k ocenke rezhimov funkcionirovanija agrojekosistem i jekologicheskomu normirovaniju antropogennoj nagruzki, vkljuchaja tehnogennoe zagrjaznenija pochv [A new integrated approach to assessing the functioning modes of agroecosystems and environmental regulation of anthropogenic load, including technogenic pollution of soils]. Uspehi sovremennoj biologii, 1 (124), 66-76 (in Russian).
29. Rezaei M., Nikbakht M., Shakeri A., 2017. Geochemistry and sources of fluoride and nitrate contamination of ground water in Lar area, south Iran. Environmental Science and Pollution Research, 24(18), 15471-15487. https://doi.org/10.1007/s11356-017-9108-0
30. Smidt G., Koschinsky A., De Carvalho L., Monserrat J., Schnug E., 2011. Heavy metal concentrations in soils in the vicinity of a fertilizer factory in Southern Brazil. Landbauforschung, 61(4), 353-364.
31. Tandelov Yu. P., 2012. Ftor v sisteme pochva-rastenie. [Fluorine in the soil-plant system]. Krasnoyarsk (in Russian).
32. Tayibi H., Choura M., Lopez F., Alguacil F., Lopez-Delgado A., 2009. Environmental impact and management of phosphogypsum. Journal of Environmental Management, 90(8), 2377-2386. https://doi.org/10.1016/j.jenvman. 2009.03.007
33. Thompson, L.К., Sidhu, S.S., Roberts, B.A. 1979. Fluoride accumulations in soil and vegetation in the vicinity of a phosphorus plant. II Environmental. Pollution, 18(3), 221-234.
34. Topchiyev, O.G., Sych, V.A., Yavorskaya, V.V., Dolynskaya, O.O. 2019. Ekologichnyj imperatyv u koncepcijah social’no-ekonomichnogo rozvytku i jogo geografichni skladovi [The ecological imperative in the concepts of socio-economic development and its geographical components]. Visn. Odessa Nat. Univ. Ser. Geogr. and Geolog.
Sc. 24(2), 96-108 (in Ukrainian).
35. Trigub, V.I., Poznyak, S.P. 2008. Ftor u chornozemah pivdennogo zahodu Ukrai’ny: monohrafiia [Fluorine in chernozems of southwestern Ukraine: monograph]. VC LNU, Lviv (in Ukrainian).
36. Trigub, V.I. 2014. Ocinka ekologichnogo normuvannja granychno-dopustymyh koncentracij ftoru v systemi «pryrodne seredovyshhe-ljudyna» [Estimation of ecological normalization of the maximum permissible concentrations of fluorine in the system “natural environment-human”]. Visn. Odessa Nat. Univ. Ser. Geogr. and Geolog. Sc. 19 (1), 139-149 (in Ukrainian)
37. Trigub, V., Poznyak, S. 2014. Impact of phosphogypsum on accumulation and migration of fluorine in soils and soil Solutions. Polish journal of Soil Science, XLVII (1), 27-33. PL ISSN 0079-2985.
38. Trigub, V.I., Lyashkova, O.O. 2018. Fluorine in natural components of the Odessa Region: medical - environmental (ecological) evaluation. Ekology and human health. Educator, Czestochowa, 131-141. ISBN 978-83-7542-129-3
39. Trigub, V. 2019 Sposib vyznachennja aktyvnogo ftoru v roslynah. [Method of determining active fluorine in plants] Pat. na korysnu model 134872 UA
40. Weinstein, L.H., Davidson, A.W., 2004. Fluorides in the Environment. Newcastle: CABI Publishing.
41. Yakist gruntu. Vidbyrannia prob: DSTU 4287, 2004. [The quality of the soil. Sampling: State Standard 4287:2004]. [Effective from 2004-04-30]. Derzhspozhyvstandart of Ukraine (National standards of Ukraine), Kyiv (in Ukranian).
42. Zeidelman, F.R. 2008. Metody jekologo-meliorativnyh izyskanij i issledovanij pochv. [Methods of ecological and reclamation research and soil research.]: Kolos, Moscow (in Russian).
Published
2020-12-28
How to Cite
Trigub, V., Yavorska, V., Hevko, I., & Kyrylchuk, A. (2020). Agroecological assessment of fluorine in soils and agricultural plants of steppe landscapes of Odessa region. Journal of Geology, Geography and Geoecology, 29(4), 805-816. https://doi.org/https://doi.org/10.15421/112073
Section
Статьи
