You are here

Role of microorganisms of the aquatic environment in the formation of the ecological and sanitary state of water bodies

Due recent years, humanity has faced the problem of lack of clean water for its needs, so the main goals of science are to increase the efficiency of natural resources that would not impair the quality of water. Chemical and biological methods have traditionally been used to assess water quality, but biological methods are more efficient because they are less costly and more informative. Biological control of water quality has a number of advantages over chemical and physical methods, since the grouping of living organisms mirrors all changes in the ecological state of the aquatic environment, while responding to a complex of various factors and pollutants. The method makes it possible to assess the consequences of both permanent and volley contamination. One of the most important biological methods for assessing the ecological state of reservoirs is the assessment of water quality by microbiological indicators, which is the first and most informative component of biota that responds to the allochthonous introduction of organic substances. Microorganisms are involved in optimizing the conditions of the aquatic environment, namely in the building of hydrological and gas regimes and in the self-cleaning of reservoirs, which ultimately determines the quality of water. Therefore, the assessment of the mechanisms of microbiocenosis formation makes it possible to determine the sanitary state of reservoirs by ensuring the functioning of the ecosystem with a bacterial link. The introduction of new technologies should not bring or form any threats to the environment, health and safety of human life, which is why an important task today is to study the impact of microorganisms on the formation of the ecological and sanitary state of aquatic ecosystems.

Key words: microorganisms, aquatic environment, water classes, bioindication, sapidity zones, heterotrophic bacteria.

  1. Zhadan, T., Greek, A.M., Shevtsova, O. (2007). Microbiological pollution of water sources and problems of its control. System data processing systems. Vol. 65 (7), рр. 109–115. (in Ukrainian)
  2. Olejnyk, G., Starosila, E. (2005). Microbiological characteristics of water bodies with high anthropogenic load. Hydrobiol. Journal, Vol. 41 (4), рр. 70–81. (in Ukrainian)
  3. Shcherbak, V., Ponomarenko, N. (2011). Ecological state and water quality of cultivation ponds according to bacteriological indicators when applying organic fertilizers. Tavrian scientific bulletin. Vol. 76, рр. 329–333. (in Ukrainian)
  4. Zelena, P., Molozhava, O., Rudyk,M, Skyvka, L., Yumina, Y. (2019). Physical and chemical methods in microbiological and immunological research. Textbook. K: Publisher Ya.O. Kravchenko, 167 p. (in Ukrainian)
  5. Antypchuk, A., Kireyeva, I. (2003). Water microbiology. K.: NAU Publishing Center, 224 p. (in Ukrainian)
  6. Kuznetsov, S.I. (1952). The role of microorganisms in the circulation of substances in lakes. L.: Nauka, 300 p. (in Russian)
  7. Chub, I. (2019). Methodological recommendations for the organization of independent work, laboratory work and practical classes in the discipline "Microbiology and water chemistry" (for students of 1–2 years of full-time and correspondence forms of education in the field of knowledge 19 - Architecture and construction, specialties 192 Construction and civil engineering specialization (educational program) "Hydrotechnics" (Water resources). Kharkiv. national university named by O. Beketova; agreement, 94 p. (in Ukrainian)
  8. Khyzhniak, M., Yevtushenko, M., Krazhan, S. (2014). Biological methods of studying reservoirs. Kyiv: Ukrainian Phytosociological Center, 405 p. (in Ukrainian)
  9. DSanPiN 383/1940 (z0136-97) Drinking water. Hygienic requirements for water quality of centralized drinking water supply. Collection of important official documents on sanitary and anti-epidemic issues. K., 1999, Vol. 5, Part 3.
  10. Shyrobokova, V. P. (2011). Medical microbiology, virology and immunology: textbook. Vinnytsia: New book, 952 p. (in Ukrainian)
  11. Pokrovsky, M.(2001). Medical microbiology / edited by acad. RAMS V.: GEOTAR-MED, 768 p. (in Russian)
  12. Maltsev, V., Karpova, G., Zub, L. (2011). Determination of water quality by bioindication methods: scientific and methodological manual. K.: Scientific Center for Ecomonitoring and Biodiversity of the Megapolis of the National Academy of Sciences of Ukraine, Non-governmental scientific institution Institute of Ecology (INEKO) of the National Ecological Center of Ukraine. 112 p. (in Ukrainian)
  13. Karpova, G., Zub, L., Melnychuk, V., Protsiv, G. (2010). Assessment of the ecological state of reservoirs by bioindication methods. The first steps to assessing water quality. Berezhany, 32 p. (in Ukrainian)
  14. Lysenko, N. (1996). Bioindication and biotesting of water bodies. Biology in School, Vol. 5, рр. 62–66. (in Russian)
  15. Romanenko, V. D. (1998). Methods of environmental assessment of surface water quality by relevant categories. Kyiv, 28 p. (in Ukrainian)
  16. Dvoretskyi, A., Yemets, H., Baziorkina, S. (2000). Water microbiology. Dnipropetrovsk, 91 p. (in Ukrainian)
  17. Water of fishery enterprises. General requirements and norms: SOU-05.01.-37-385:2006. Official view. Kyiv: Ministry of Agrarian Policy of Ukraine, 2006, 7 p. (in Ukrainian)
  18. Melekhova, O., Sarapultseva, E. (2010). Biological Environmental Control: Bioindication and Bio-Testing. M: Academy Publishing Center, 288 p. (in Russian)
  19. Moskalenko, N. (2014). Influence of non-traditional types of fertilizers on the development of bacterioplankton in fish farms: author's abstract. thesis. ... Candidated of Agricultural Sciences: 06.02.03, Kyiv. Institute of Fisheries. Kyiv, 21 p. (in Ukrainian)
  20. Kutsenko, S. (2004). Fundamentals of Toxicology. St. Petersburg: Foliant, 716 p. (in Russian)
  21. Prysyazhnyuk, N., Hrynevych, N., Kunovskyi, Y., Mykhalskyi, O. (2017). Pat. No. 119573 Ukraine IPC G01N 33/12 C12Q 1/12. Method of bioindication of reservoirs ;Applicant and owner of the BilaTserkva National Agrarian University. № u 2017 04189; decl. 27.04.2017; publ. 25.09.2017, Bul. No. 18. 4 p. (in Ukrainian)
  22. Prysyazhniuk, N., Slobodeniuk, O., Hrynevych, N. (2019). Aboriginal fish species as testobjects for the study of the current state of hydroecosystems. Agroecological Journal, Vol. 1, pp. 97–102. DOI:10.33730/2077-4893.1.2019.163277. (in Ukrainian)
  23. Basin management of water resources of the Rosriver. Available at: http://rosbuvr.com.ua/
  24. Andrusyak, N. (2011). Methodology of integrated assessment of the ecological state of water recreational resources. Scientific notes of the V.I. Vernadsky Taurida National University. Ser.: Geography, Vol. 24 (63), pp. 3–7. (in Ukrainian)
  25. Scardi, M. (2006). Monitoring methods based on fish. Biological monitoring of rivers. Chichester: John Wiley & Sons, pp. 135–153.
  26. Demchenko, V., Antonovsky, A., Demchenko, N. (2008). Bioindication of water quality and the state of hydroecosystems using the characteristics of individuals, populations and groups of fish. Modern problems of theoretical and practical ichthyology. Kaniv, pp. 52–56. (in Ukrainian)
  27. Karpova, E., Zub, L. (2010). Assessment of the ecological state of reservoirs by bioindication methods. The first steps to assessing water quality. 32 p. (in Ukrainian)
  28. Rudneva, I. (2006). Application of fish biomarkers for ecotoxicological diagnostics of the aquatic environment. Fisheries of Ukraine, Vol. 1 (42), pp. 20–24. (in Ukrainian)
  29. Hryb, Y., Klymenko, M., Sondak, V. (1999). Restorative hydroecology of disturbed river and lake systems. Rivne: VolynOberegi, Vol. 1, 347 p. (in Ukrainian)
  30. Romanenko, V. (2004). Bases of Hydroecology. Kyiv: Genesa, 663 p. (in Ukrainian)
AttachmentSize
PDF icon savenko_2_2022.pdf359.01 KB