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Environmental Conditions Of Zakamensk Town (Dzhida River Basin Hotspot)

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Ecological problems of Zakamensk town are associated with sand deposits that were formed as a result of mining activities of former Dzhidinsky tungstenmolybdenum plant. Sands are accumulated in large quantities and they contain dangerous concentrations of heavy metals. Desertification in an urbanized area is manifested locally, but it differs from agricultural desertification by a profound and comprehensive destructive change in the components of the environment. Maps of soils, vegetation, types of lands, as well as ecological zoning maps of Zakamensk were created. The basis for the creation of electronic maps using GIS were stock, archive and own materials, topographic maps and remote sensing data. Urbanized desertification in Zakamensk is caused by chemical contamination of sandy eluvium, the spreading of pollutants by water flows and wind currents. Erosion occurs both in the form of flat flushing and linear erosion. The most intensive is gully erosion. Quantitative parameters of temporal variability of the erosive rainfall potential for the Zakamensk town are received. The quantitative characteristics of loads of pollutants on the territory of the town are determined on the basis of the erosion-deflation models. The calculations showed that 204 tons/ha of contaminated sand annually falls into the settlement area with water-erosion flows (Pb – 3.7 tons, W – 4.3 tons). Moreover, active wind activity led to the deposition of more metals (Pb – 5.6 tons, W – 6.5 tons) in the town.

About the Authors

Endon Zh. Garmaev
Baikal Institute of Nature Management SB RAS
Russian Federation

Anatoly I. Kulikov
Institute of General and Experimental Biology SB RAS
Russian Federation

Bair Z. Tsydypov
Baikal Institute of Nature Management SB RAS
Russian Federation

Bator V. Sodnomov
Baikal Institute of Nature Management SB RAS
Russian Federation

Alexander A. Ayurzhanaev
Baikal Institute of Nature Management SB RAS
Russian Federation


1. Bazhenova O.I., Lyubtsova E.M., Ryzhov Yu.V., Makarov S.A. (1997). Spatio-temporal analysis of the dynamics of erosion processes in the south of Eastern Siberia. Novosibirsk: Nauka. 203 p. (in Russian with English summary)

2. Belotserkovskiy M.Yu. and Topunov M.V. (1996). The cost of anti-erosion measures to preserve soil fertility with the existing agricultural use of arable land. In: R.S. Chalov, ed., Erosion and channel processes. Issue 2. Materials of coordination meetings of universities in 1991-1995, Moscow: MSU, pp. 48-54. (in Russian with English summary)

3. Chalov S., Jarsjö J., Kasimov N. Romanchenko A., Pietroń J., Thorslund J., Promakhova E. (2015). Spatio-temporal variation of sediment transport in the Selenga River Basin, Mongolia and Russia. Environmental Earth Sciences, 73, pp. 663-680. doi: 10.1007/s12665-014-3106-z

4. Chalov S., Kasimov N., Lychagin M., Alexeevsky N., Belozerova E., Theuring P., Shinkareva G., Romanchenko A., Garmaev E. (2013). Water resources assessment of the Selenga–Baikal river system. Geoöko, 34, pp. 77-102.

5. Chepil W.S., Siddoway F.N., Armbrust D.V. (1963). Climatic index of wind erosion conditions in the Great Plains. Soil Science Society of America Journal, 27, pp. 449-452.

6. Dolgilevich M.I. (1978). Dust storms and agroforestry meliorative events. Moscow: Kolos. 159 p. (in Russian with English summary)

7. Environmental Atlas-monograph “Selenga-Baikal” (2019). Edited by N. Kasimov. M.: Faculty of Geography, MSU. 208 p. Available at:

8. GOST 25100-95. Soils. Classification (2001). Moscow. 23 p. (in Russian)

9. Implementation of environmental measures related to the shutdown of the Dzhidinsky tungsten-molybdenum plant in Zakamensk: assessment of the environmental situation in the adjacent area of the former DTMP: economic agreement report (interim) (2007). In: A.I. Kulikov, ed., Ulan-Ude: Buryat State Academy of Agriculture. (in Russian)

10. Ivanov A.D. (1971). Some results of studying of aeolian sands and soil deflation in Transbaikalia. Wind erosion and control measures. Bulletin of Institute of natural sciences of Buryat subbranch of Siberian branch of USSR Academy of sciences, 9, pp. 131-137. (in Russian with English summary)

11. Karthe, D., Kasimov, N., Chalov, S., Shinkareva, G., Malsy, M., Menzel, L., Theuring, P., Hartwig, M., Schweitzer, C., Hofmann, J., Priess, J., Lychagin, M. (2014) Integrating Multi-Scale Data for the Assessment of Water Availability and Quality in the Kharaa - Orkhon - Selenga River System. Geography, Environment, Sustainability, 3(7) pp. 65-86. doi: 10.24057/2071-9388-2014-7-3-40-49

12. Karthe D., Chalov S., Moreido V., Pashkina M., Romanchenko A., Batbayar G., Kalugin A., Westphal K., Malsy M., Flörke M. (2017). Assessment of runoff, water and sediment quality in the Selenga River basin aided by a web-based geoservice. Water Resources, 44 (3), pp. 399-416. doi: 10.1134/S0097807817030113

13. Kasimov N., Kosheleva N., Gunin P., Korlyakov I., Sorokina O., Timofeev I. (2016). State of the environment of urban and mining areas in the Selenga Transboundary River Basin (Mongolia Russia). Environmental Earth Sciences, 75 (1283), pp. 1-20. doi: 10.1007/s12665-016-6088-1

14. Kasimov N.S. (2013). Landscape Ecogeochemistry. Moscow: publisher Filimonov M.V. 208 p. (in Russian with English summary)

15. Khamnaeva G.G., Kulikov A.I., Tsydypov, B.Z. (2013). Current ecological state of the Zakamensk city environment and its adjacent territory. Bulletin of Buryat State Academy of Agriculture, 3(32), pp. 79-85. (in Russian with English summary)

16. Kovalev S.N. (2009). Development of gully in urban areas. Ph.D. author's abstract. Moscow. 25 p. (in Russian)

17. Kulikov A.I., Mangataev A.Ts., Kulikov M.A., Hamnaeva G.G., Plyusnin A.M. (2012). Ecological zoning and statistical parameters of ecologically dangerous zones of Zakamensk (the Republic of Buryatia). ESSUTM bulletin, 3 (38). pp. 221-227. (in Russian with English summary)

18. Kuznetsov M.S. and Glazunov G.P. (2004). Soil erosion and protection. Moscow: MSU. 352 p. (in Russian with English summary)

19. Larionov G.A. (1993). Soil erosion and deflation: basic patterns and quantitative assessments. Moscow: MSU. 198 p. (in Russian with English summary)

20. Litvin L.F. and Kiryukhina Z.P. (2002). Erosion dangerous lands and spatio-temporal patterns of soil erosion. Natural-anthropogenic processes and environmental risk, Moscow: Gorodets. pp. 196-202. (in Russian with English summary)

21. Litvin L.F. and Kiryukhina Z.P. (2004). Soil-erosion migration of nutrients and pollution of surface waters. Soil erosion and channel processes, 14, pp. 45-64. (in Russian with English summary)

22. Osintseva N.V. (2001). Physico-geographical factors of development of gully erosion of urban lands. Ph.D. author's abstract. Tomsk. (in Russian)

23. Pushkarev M.F. (1984) Soil Erosion (Translation from English); Kolos: Moscow, Russia. 415 p. (in Russian)

24. Qu John, Hao Xianjun, Kafatos Menas, Wang Lingli (2006). Asian Dust Storm Monitoring Combining Terra and Aqua MODIS SRB Measurement. IEEE Geoscience and Rernote Sensing Letters, 3(4), pp. 284-486.

25. Timofeev I., Kosheleva N., Kasimov N. (2018). Contamination of soils by potentially toxic elements in the impact zone of tungsten-molybdenum ore mine in the Baikal region: A survey and risk assessment. Science of the Total Environment, 642, pp. 63-76. doi: 10.1016/j.scitotenv.2018.06.042

26. Tolchelnikov Yu.S. (1990). Soil erosion and deflation. Ways to control. Moscow: Agropromizdat. 158 p. (in Russian with English summary)

27. Tulokhonov A.K., Tsydypov B.Z., Sodnomov B.V., Gurzhapov B.O., Ayurzhanaev A.A., Batotsyrenov E.A., Togmidon V.V., Ayusheev Ch.Yu., Zharnikova M.A., Alymbaeva Zh.B., Garmaev E.Zh. (2018). Assessment of the linear erosion development through the example of a gully in the Selenga Middle Mountains. Izvestiya vuzov «Geodeziya i aerofotosyemka». Izvestia vuzov «Geodesy and Aerophotosurveying», 62 (3): 327-336. (in Russian with English summary)

28. Tyumentseva E.M. (2013). The use of statistical methods in the study of aeolian processes. Bulletin of the Department of Geography of ESSAE, 1-2 (7), pp. 38-46. (in Russian with English summary)

29. Vinogradov A.P. (1962). The average content of chemical elements in the main types of igneous rocks of the earth's crust. Geochemistry, 7, pp. 555-571. (in Russian with English summary)

30. Wischmeier W.H. (1959). A rainfall erosion index for universal soil-loss equation. Soil Science Society of America Journal, 23, pp. 246-249. doi: 10.2136/sssaj1959.03615995002300030027x

31. Wischmeier W.H. and Smith D.D. (1958). Rainfall energy and its relationship to soil loss. Eos, Transactions American Geophysical Union, 39, pp. 285-291. doi: 10.1029/TR039i002p00285

32. Wischmeier W.H. and Smith D.D. (1978). Predicting rainfall erosion losses. USDA Agr. Handbook 537, Washington. 65 p.

For citation:

Garmaev E.Z., Kulikov A.I., Tsydypov B.Z., Sodnomov B.V., Ayurzhanaev A.A. Environmental Conditions Of Zakamensk Town (Dzhida River Basin Hotspot). GEOGRAPHY, ENVIRONMENT, SUSTAINABILITY. 2019;12(3):224-239.

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ISSN 2071-9388 (Print)
ISSN 2542-1565 (Online)