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This study is devoted to investigation of total deposition and loading patterns for population of the North-West Russia and Scandinavian countries due to continuous emissions (following “mild emission scenario”) of sulphates from the Cu-Ni smelters (Severonikel enterprise, Murmansk region, Russia). The Lagrangian long-range dispersion model (Danish Emergency Response Model for Atmosphere) was run in a long-term mode to simulate atmospheric transport, dispersion and deposition over the Northern Hemispheric’s domain north of 10°N, and results were integrated and analyzed in the GIS environment. Analysis was performed on annual and seasonal scales, including depositions, impact on urban areas and calculating individual and collective loadings on population in selected regions ofRussiaand Scandinavian countries.

It was found that wet deposition dominates, and it is higher in winter. The North-West Russia is more influenced by the Severonikel emissions compared with the Scandinavian countries. Among urban areas, the Russian cities ofMurmansk(due to its proximity to the source) andArkhangelsk(due to dominating atmospheric flows) are under the highest impact. The yearly individual loadings on population are the largest (up to 120 kg/person) for theMurmanskregion; lower (15 kg/person) for territories of the northernNorway, and the smallest (less than 5 kg/person) for the easternFinland,KareliaRepublic, andArkhangelskregion. These loadings have distinct seasonal variability with a largest contribution during winter-spring for Russia, spring – for Norway, and autumn – for Finland and Sweden; and the lowest during summer (i.e. less than 10 and 1 kg/person for the Russia and Scandinavian countries, respectively). The yearly collective loadings for population living on the impacted territories inRussia,Finland,Norway, and Swedenare 2628, 140.4, 13, and 10.7 tonnes, respectively.

About the Authors

Alexander Mahura
University of Helsinki

Alexander Mahura, PhD (Phys&Math., Atm.Sci.), MSc (Env. Mod., Atm.Sci.), BSc. (Atm.Sci.); 

Institute for Atmospheric and Earth System Research (INAR) / Physics, Faculty of Science

Iraxte Gonzalez-Aparicio
European Commission
DG-Joint Research Centre (EC, DG-JRC), Energy, Transport and Climate Directorate

Roman Nuterman
University of Copenhagen
Niels Bohr Institute

Alexander Baklanov
World Meteorological Organization
Research Department


1. Baklanov A. and Mahura A. (2004). Assessment of possible airborne impact from risk sites: methodology for probabilistic atmospheric studies, Atmospheric Chemistry and Physics, 4, pp. 485-495.

2. Baklanov A. and Sørensen J. (2001). Parameterisation of radionuclide deposition in atmospheric long-range transport modelling. Physics and Chemistry of the Earth: (B), 26(10), pp. 787-799.

3. Baklanov A., Sørensen J., and Mahura A. (2008). Methodology for Probabilistic Atmospheric Studies using Long-Term Dispersion Modelling. Environ. Model Assess., 13, pp. 541-552.

4. Baklanov A., Korsholm U.S., Nuterman R., Mahura A., Nielsen K.P., Sass B.H., Rasmussen A., Zakey A., Kaas E., Kurganskiy A., Sørensen J., and González-Aparicio I. (2017). Enviro-HIRLAM online integrated meteorology–chemistry modelling system: strategy, methodology, developments and applications (v7.2), Geosci. Model Dev., 10, pp. 2971-2999.

5. Berglen T.F., Dauge F., Andersen E., Nilsson L.O., Svendby T.M., Tønnesen D., Vadset M. and Våler R.L. (2016). Air Quality Monitoring in the Border Areas of Norway and Russia-Progress Report April 2015–March 2016. NILU-Norsk Institut for Luftforskning; Kjeller, Norway: 2016- 16. p. 112

6. Blagodatskaya E.V., Pampura T.V., Bogomolova I.N., Koptsik G.N. and Lukina N.V. (2008). Effect of emissions from a Copper-Nickel Smelter on soil microbial communities in forest biogeocenoses of the Kola Peninsula. Ecology, 35 (2), pp. 202-210.

7. Dauvalter V., Moiseenko T., and Kagan L. (2003). Global Change in Respect to Tendency to Acidification of Subarctic Mountain Lakes. Advances in Global Change Research, 9(2), pp. 187-194.

8. Ekimov S.V., Samodova I.V., Petrov I.M., Troitsky V.V., and Burstein M.A. (2001). Russian smelter emissions, «Mining Journal», London, November 23, p 393.

9. Golubeva N.I., Burtseva L.V., and Ginzburg V.A. (2010). Heavy metals in the atmospheric precipitation on the Barents Sea coast. Russ. Meteorol. Hydrol. 35: 333.

10. González-Aparicio I., Nuterman R., Korsholm U.S., Mahura A., Acero J.A., Hidalgo J., and Baklanov A. (2010). Land-Use Database Processing Approach for Meso-Scale Urban NWP Model Initialization. DMI Scientific Report 10-02, 34 p. ISBN: 978-87-7478-593-4.

11. Gutarsky M.L., Karaban R. T., and Nazarov I.M. (1997). On the Assessment of Sulphur Deposition on Forests Growing Over the Areas of Industrial Impact. Environmental Monitoring and Assessment, 48(2), pp. 125-137.

12. Hagner O. and Rigina O. (1998). Detection of Forest Decline in Monchegorsk Area. Remote Sensing of Environment, 63 (1), 1998, pp. 11-23

13. Hansen M. D., Nøst T. H., Heimstad E. S., Evenset A., Dudarev A.A., Rautio A., Myllynen P., Dushkina E.V., Jagodic M., Christensen G.N., Anda E.E., Brustad M. and Sandanger T.M. (2017). The Impact of a Nickel-Copper Smelter on Concentrations of Toxic Elements in Local Wild Food from the Norwegian, Finnish, and Russian Border Regions. International Journal of Environmental Research and Public Health, 14(7), 694.

14. IPCC (2001). Aerosols, their Direct and Indirect Effects// IPCC, 2001: Climate Change 2001: The Scientific Basis. Contribution of Working Group I to the Third Assessment Report of the Intergovernmental Panel on Climate Change. Cambridge University Press, Cambridge, United Kingdom and New York, NY, USA, 302 p.

15. Karaban R. T. and M. L. Gutarsky (1995). Studies of precipitation contamination levels over the north-western forests of Russia subject to emissions from the two nickel smelters. Water, Air, & Soil Pollution, 85(4), pp. 2071-2076.

16. Lappalainen A., Tammi J. and Puro-Tahvanainen A. (2007). The effects of nickel smelters on water quality and littoral fish species composition in small watercourses in the border area of Finland, Norway and Russia. Boreal Environ. Res. (12), pp. 455–466.

17. Mahura A., Baklanov A. and Sørensen J.H. (2006a). Influence of long-range and long-term continuous and accidental anthropogenic emissions from Eurasian sources on Greenland environment. Proceedings of the International Conference «The Greenlandic Environment: Pollution and Solutions», 21-23 Feb 2006, Sisimiut in Greenland, pp. 15-22.

18. Mahura A., Baklanov A., Sorensen J.H. and Tridvornov A. (2006b). Long-term modelling for estimation of man-induced environmental risks. Abstracts of the European Geosciences Union (EGU) General Assembly, 2-7 April 2006,Vienna, Austria, EGU06-A-03781.

19. Mahura A., Baklanov A., Sørensen J.H., Svetlov A. and Koshkin V. (2007). Assessment of Long-Range Transport and Deposition from Cu-Ni Smelters of Russian North. In «Air, Water and Soil Quality Modelling for Risk and Impact Assessment», Security Through Science, Series C - Environmental Security. Eds. A. Ebel, T. Davitashvili, Springer Elsevier Publishers, pp. 115-124.

20. Mahura A., Baklanov A. and Søorensen J.H. (2008). Enviro-RISKS: Overview of Applications for Short- and Long-Term Modelling and Assessment for Atmospheric Pollutants. Abstracts of the International Conference on Environmental Observations, Modelling and Information Systems, ENVIROMIS-2008, 28 June – 5 July 2008, Tomsk, Russia, p.106.

21. Moiseenko T.I., Voinov A.A, Megorsky V.V., Gashkina N.A., Kudriavtseva L.P., Vandish O.I., Sharov A.N., Sharova Yu. and Koroleva I.N. (2006). Ecosystem and human health assessment to define environmental management strategies: The case of long-term human impacts on an Arctic lake. Sci. Total Environ.,, 369(1-3), pp. 1-20.

22. Reimann C., Halleraker J.H., Kashulina G. and Bogatyrev I. (1999). Comparison of plant and precipitation chemistry in catchments with different levels of pollution on the Kola Peninsula, Russia. Sci. Total Environ., 243, pp.169–191.

23. Søorensen J.H. (1998). Sensitivity of the DERMA long-range Gaussian dispersion model to meteorological input and diffusion parameters. Atmospheric Environment, 32 (24), pp. 4195–4206.

24. (2017). Official Website of the FP6 EC Enviro-RISKS project (Enviro– RISKS - Man-induced Environmental Risks: Monitoring, Management and Remediation of Man-made Changes in Siberia). [online] Available at: [Accessed 11 Mar 2017].

25. (2017). Official Website of the Pan-Eurasian EXperiment (PEEX) programme. [online] Available at: [Accessed 11 Mar 2017].

26. (2017). Official Website of the Public Joint Stock Company “Mining and Metallurgical Company “NORILSK NICKEL” [online] Available at: [Accessed 11 Mar 2017].

27. (2017). Official Website of the Kola Mining and Metallurgical Company (Kola MMC) [online] Available at: [Accessed 11 Mar 2017] (in Russian).

28. (2017). Official Website of the ArcGIS geospatial processing software [online] Available at: [Accessed 11 Mar 2017].

29. (2017). Website of the GIS-LAB independent online resource specializing in GIS and remote sensing [online] Available at: [Accessed 11 Mar 2017] (in Russian).

30. (2017). Website of the DIVA-GIS free computer program and data archives for mapping and geographic data analysis in GIS. [online] Available at: [Accessed 11 Mar 2017].

31. (2017). Website of the Center for International Earth Science Information Network with data and information products and resources [online] Available at: http:/ [Accessed 11 Mar 2017].

32. (2017). Website of the Hawth’s analysis tools for ArcGIS [online] Available at: [Accessed 11 Mar 2017].


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ISSN 2071-9388 (Print)
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