Water, Air, & Soil Pollution

, Volume 223, Issue 9, pp 5727–5744 | Cite as

The Impact of Industrial SO2 Pollution on North Bohemia Conifers

  • Miloš RydvalEmail author
  • Rob Wilson


Conifer forests in the Jizerské Mountains, Czech Republic have experienced widespread and long-lasting effects related to industrial SO2 pollution. To explore the spatial and temporal impact of this phenomenon on Norway spruce stands, a transect of sites was sampled to the southeast of the Polish coal-fired power station Turów. Tree growth at all sites displayed a significant reduction around 1980, which could not be explained by climate alone. However, by incorporating both climate and SO2 variables in multiple regression models, the chronology trends could be explained well. The lowest growth rates were found to coincide with the period of greatest atmospheric SO2 concentrations and the degree of suppression decreased with increasing distance from the power station. The period of growth suppression in a Silver fir site appeared to be more severe and longer in duration than for the spruce, although differing site conditions prevented a direct comparison. Fir trees also appeared to be affected by SO2 pollution earlier in the twentieth century compared to spruce. Growth of both species, however, did not return to predicted levels following the reduction of pollution levels in the 1990s. A comparison with spruce and fir data from the Bavarian Forest, a region also affected by pollution in the past, revealed a temporal difference in growth suppression, likely related to different timings and loadings of SO2 emissions between both regions. This study highlights pollution as another potential causal factor for the ‘divergence problem’ and dendroclimatic reconstructions in polluted regions should be developed with caution.


Dendrochronology Ring width Atmospheric pollution SO2 emissions Tree growth modelling Divergence 



The authors wish to thank Dr. Jana Nováková and Dr. Josef Křeček for their cooperation and provision of useful information related to the study area and fieldwork logistics. We also thank Jana Rydvalová and Ing. Miloš Rydval Sr. for their assistance during fieldwork. Finally, we also wish to acknowledge the help of Oldřich Kober, who proved to be a valuable source of local knowledge.


  1. Ardö, J., Barkman, A., & Arvidsson, P. (2000). Critical levels of SO2 in Northern Czech Republic—uncertainty and relationship to regional forest decline. Geographical and Environmental Modelling, 4(2), 131–161.CrossRefGoogle Scholar
  2. Bäck, J., Huttunen, S., Turunen, M., & Lamppu, J. (1995). Effects of acid rain on growth and nutrient concentrations in Scots pine and Norway spruce seedlings grown in a nutrient-rich soil. Environmental Pollution, 89(2), 177–187.CrossRefGoogle Scholar
  3. Benner, R. C., & O'Connor, J. J., Jr. (1913). The smoke nuisance; a question of conservation. Industrial and Engineering Chemistry, 5(7), 587–593.CrossRefGoogle Scholar
  4. Briffa, K. R. (1995). Statistical aspects of the interpretation of high-resolution proxy climate data: The example of dendroclimatology. In H. Storch & A. Navarra (Eds.), Analysis of climate variability: Applications of statistical techniques (pp. 77–94). Berlin: Springer.Google Scholar
  5. Büntgen, U., Brázdil, R., Heussner, K.-U., Hofmann, J., Kontic, R., Kyncl, T., et al. (2011). Combined dendro-documentary evidence of Central European hydroclimatic springtime extremes over the last millennium. Quaternary Science Reviews, 30, 3947–3959.CrossRefGoogle Scholar
  6. Cook, E. R. (1985). A time series analysis approach to tree ring standardization. PhD Thesis. University of Arizona, Tucson.Google Scholar
  7. Cook, E., Briffa, K., Shiyatov, S., & Mazepa, V. (1990). Tree-ring standardization and growth-trend estimation. In E. R. Cook & L. A. Kairiukstis (Eds.), Methods of dendrochronology: Applications in the environmental sciences (pp. 104–123). Dordrecht: Kluwer Academic.Google Scholar
  8. Cook, E. R., & Peters, K. (1997). Calculating unbiased tree-ring indices for the study of climatic and environmental change. The Holocene, 7, 361–370.CrossRefGoogle Scholar
  9. D’Arrigo, R., Wilson, R., Liepert, B., & Cherubini, P. (2008). On the ‘divergence problem’ in northern forests: a review of the tree-ring evidence and possible causes. Global and Planetary Change, 60, 289–305.CrossRefGoogle Scholar
  10. Danek, M. (2007). The influence of industry on Scots pine stands in the south-eastern part of the Silesia-Krakow Upland (Poland) on the basis of dendrochronological analysis. Water, Air, and Soil Pollution, 185, 265–277.CrossRefGoogle Scholar
  11. Dittmar, C., & Elling, W. (2004). Radial growth of Norway spruce [Picea abies (L.) Karst.] at the Coulissenheib site in relation to environmental conditions and comparison with sites in the Fichtelgebirge and Erzgebirge. In E. Matzner (Ed.), Biogeochemistry of forested catchments in a changing environment: A German case study (pp. 291–311). Berlin: Springer.Google Scholar
  12. Eckstein, D., & Sass, U. (1989). Dendroecological assessment of decline and recovery of fir and spruce in the Bavarian Forest. In Bucher, J. B., & Bucher-Wallin, I. (Eds.), Air pollution and forest decline. Proceedings of the 14 th International Meeting for specialists in Air Pollution Effects on Forest Ecosystems (pp. 255–260), October 2–8 1988, IUFRO P2.05, Interlaken, Switzerland.Google Scholar
  13. Elling, W. (1993). Immissionen im Ursachnkomplex von Tannenschädigung und Tannensterben. Allgemeine Forst Zeitschrift, 48, 87–95.Google Scholar
  14. Elling, W. (2001). Emissions of power plants and growth of silver fir. In Kaennel Dobbertin, M., & Bräker, O. U. (Eds.), International Conference Tree Rings and People, 22-26 September 2001, Davos, Birmenscorf, Swiss Federal Research Institute WSL (Abstracts).Google Scholar
  15. Elling, W., Dittmar, C., Pfaffelmoser, K., & Rötzer, T. (2009). Dendroecological assessment of the complex causes of decline and recovery of the growth of silver fir (Abies alba Mill.) in Southern Germany. Forest Ecosystem Management, 257, 1175–1187.CrossRefGoogle Scholar
  16. Filipiak, M., & Ufnalski, K. (2004). Growth reaction of European Silver fir [Abies alba Mill.] associated with air quality improvement in the Sudeten Mountains. Polish Journal of Environmental Studies, 13(3), 267–273.Google Scholar
  17. Fürst, C., Mengistu, A., Makeschin, F. (2005). Reaction of forest systems in the industrial triangle Leipzig-Halle-Bitterfeld on a changing immission regime—state of the art. In Neuhöferová, P. (Ed.), Restoration of forest ecosystems of the Jizerské hory Mts. Proceedings of Extended Summaries (pp. 67-72), 26 September, 2005, Kostelec nad Černými lesy, CUA FFE Prague, Department of Silviculture and FGMRI Jíloviště-Strnady, RS Opočno.Google Scholar
  18. Grissino-Mayer, H. D. (2001). Evaluating crossdating accuracy: a manual and tutorial for the computer program COFECHA. Tree-Ring Research, 57(2), 205–221.Google Scholar
  19. Grissino-Mayer, H. D. (2003). A manual and tutorial for the proper use of an increment borer. Tree-Ring Research, 59(2), 63–79.Google Scholar
  20. Kandler, O. (1992). No relationship between fir decline and air pollution in the Bavarian Forest. Forest Science, 38(4), 866–869.Google Scholar
  21. Kandler, O. (1993). Development of the recent episode of Tannensterben (Fir Decline) in Eastern Bavaria and the Bavarian Alps. In R. F. Huettl & D. Mueller-Dombois (Eds.), Forest decline in the Atlantic and Pacific region (pp. 216–226). Berlin: Springer.CrossRefGoogle Scholar
  22. Kandler, O., & Innes, J. L. (1995). Air pollution and forest decline in Central Europe. Environmental Pollution, 90(2), 171–180.CrossRefGoogle Scholar
  23. Kasztelewicz, Z., & Ptak, M. (2009). Condition of the mining and energy sectors based on brown coal and conditionings of their development in Poland. Gospodarka Surowcami Mineralnymi, 25(3), 137–152.Google Scholar
  24. Kroupová, A. (2002). Dendroecological study of spruce growth in regions under long-term air pollution load. Journal of Forest Science, 48(12), 536–548.Google Scholar
  25. Larsson, L. (2008). Cdendro program of the Cdendro package version 7.1. URL: Accessed 15 Dec 2011.
  26. Lefohn, A. S., Husar, J. D., & Husar, R. B. (1999). Estimating historical anthropogenic global sulfur emission patterns for the period 1850–1990. Atmospheric Environment, 33, 3435–3444.CrossRefGoogle Scholar
  27. Lloyd, A. H., & Bunn, A. G. (2007). Responses of the circumpolar boreal forest to the 20th century climate variability. Environmental Research Letters, 2. doi: 10.1088/1748-9326/2/4/045013.
  28. Macel, P., & Sakai, M. (2003). Changes in the species composition in the forests of the Czech Republic in response to changing policies and their consequences. Journal of the Faculty of Agriculture Kyushu University, 48(1·2), 375–403.Google Scholar
  29. Metcalfe, C. R. (1941). Damage to greenhouse plants caused by town fogs with special reference to sulphur dioxide and light. Annals of Applied Biology, 28, 301–315. doi: 10.1111/j.1744-7348.1941.tb07563.x.CrossRefGoogle Scholar
  30. Mládková, L., Borůvka, L., Drábek, O., & Vašát, R. (2006). Factors affecting distribution of different Al forms in forest soils of the Jizerské hory Mts. Journal of Forest Science, 52(special issue), 87–92.Google Scholar
  31. Mooi, J. (1976). Verslag van onderzoek naar de invloed van SO 2 , O 3 en C 2 H 4 op houtige gewassen met behulp van langdurende, kunstmatige begassingen gedurende de jaren 1973-1974-1975 (pp. 1-43). IPO Report R157, Wageningen.Google Scholar
  32. Neuhöferová, P. (Ed.) (2005). Restoration of forest ecosystems of the Jizerské hory Mts., Proceedings of Extended Summaries, 26 September, 2005, Kostelec nad Černými lesy, CUA FFE Prague, Department of Silviculture and FGMRI Jíloviště-Strnady, RS Opočno.Google Scholar
  33. New, M., Lister, D., Hulme, M., & Makin, I. (2002). A high-resolution data set of surface climate over global land areas. Climate Research, 21, 1–25.CrossRefGoogle Scholar
  34. Němeček, J., Kozák, J., et al. (2001). Soil map of the Czech Republic 1:250 000. Prague: CULS.Google Scholar
  35. Nordic Investment Bank (2005). July Bulletin: cross-border cooperation. URL: Accessed 15 Dec 2011.
  36. Osborn, T. J., Briffa, K. R., & Jones, P. D. (1997). Adjusting variance for sample-size in tree-ring chronologies and other regional mean timeseries. Dendrochronologia, 15, 89–99.Google Scholar
  37. Pitelka, L. F., & Raynal, D. J. (1989). Forest decline and acidic deposition. Ecology, 70(1), 2–10.CrossRefGoogle Scholar
  38. Price, P. W., Denno, R. F., Eubanks, M. D., Finke, D. L., & Kaplan, I. (2011). Insect ecology: behavior, populations and communities. Cambridge: Cambridge University Press.CrossRefGoogle Scholar
  39. Ruston, A. G. (1921). The plant as an index of smoke pollution. Annals of Applied Biology, 7, 390–402. doi: 10.1111/j.1744-7348.1921.tb05526.x.CrossRefGoogle Scholar
  40. Sander, C., Eckstein, D., Kyncl, J., & Dobrý, J. (1995). The growth of spruce (Picea abies (L.) Karst.) in the Krkonose-(Giant) Mountain as indicated by ring width and wood density. Annales des Sciences Forestières, 52, 401–410.CrossRefGoogle Scholar
  41. Savva, Y., & Berninger, F. (2010). Sulphur deposition causes a large-scale growth decline in boreal forests in Eurasia. Global Biogeochemical Cycles, 24(3), GB3002.CrossRefGoogle Scholar
  42. Sherman, R. E., & Fahey, T. J. (1994). The effects of acid deposition on the biogeochemical cycles of major nutrients in miniature red spruce ecosystems. Biogeochemistry, 24, 85–114.CrossRefGoogle Scholar
  43. Slodičák, M., & Novák, J., (2005). Health condition and stability of air polluted Norway spruce stands with different thinning regimes in the Jizerské hory Mts. In Neuhöferová, P. (Ed.), Restoration of forest ecosystems of the Jizerské hory Mts. Proceedings of Extended Summaries (pp. 19-22), 26 September, 2005, Kostelec nad Černými lesy, CUA FFE Prague, Department of Silviculture and FGMRI Jíloviště-Strnady, RS Opočno.Google Scholar
  44. Slovik, S., Siegmund, A., Führer, H.-W., & Heber, U. (1996). Stomatal uptake of SO2, NOX and O3 by spruce crowns (Picea abies) and canopy damage in Central Europe. New Phytologist, 132, 661–676.CrossRefGoogle Scholar
  45. Stokes, M. A., & Smiley, T. L. (1968). An introduction to tree ring dating. Chicago: University of Chicago Press.Google Scholar
  46. Swain, R. E. (1923). Atmospheric pollution by industrial wastes. Industrial and Engineering Chemistry, 15(3), 296–301.CrossRefGoogle Scholar
  47. Ulbrichová, I., & Šimková, V. (2005). Spruce natural regeneration evaluation on the Černá jezírka locality in Jizerské Mts.—preliminary results. In Neuhöferová, P. (Ed.), Restoration of forest ecosystems of the Jizerské hory Mts. Proceedings of Extended Summaries (pp. 61-66), 26 September, 2005, Kostelec nad Černými lesy, CUA FFE Prague, Department of Silviculture and FGMRI Jíloviště-Strnady, RS Opočno.Google Scholar
  48. Vacek, S., & Lepš, J. (1996). Spatial dynamics of forest decline: the role of neighbouring trees. Journal of Vegetation Science, 7(6), 789–798.CrossRefGoogle Scholar
  49. Visser, H., & Molenaar, J. (1992a). Estimating trends and stochastic response functions in dendroecology with an application to fir decline. Forest Science, 39, 221–234.Google Scholar
  50. Visser, H., & Molenaar, J. (1992b). Air pollution stress in the Bavarian Forest?: response. Forest Science, 38(4), 870–872.Google Scholar
  51. Wigley, T. M. L., Briffa, K. R., & Jones, P. D. (1984). On the average value of correlated time series, with applications in dendroclimatology and hydrometeorology. American Meteorological Society, 23, 201–213.Google Scholar
  52. Wilczyński, S. (2006). The variation of tree-ring widths of Scots pine (Pinus sylvestris L.) affected by air pollution. European Journal of Forest Research, 125, 213–219.CrossRefGoogle Scholar
  53. Wilczyński, S., & Feliksik, E. (2005). Disturbances in variation of the annual ring width of Norway spruce in the Polish Western Beskids Mountains. Journal of Forest Science, 51(12), 539–547.Google Scholar
  54. Wilson, R., & Elling, W. (2004). Temporal instability in tree-growth/climate response in the Lower Bavarian Forest region: implications for dendroclimatic reconstruction. Trees, 18, 19–28.CrossRefGoogle Scholar
  55. Wilson, R. J. S., & Hopfmueller, M. (2001). Dendrochronological investigations of Norway spruce along an elevational transect in the Bavarian Forest, Germany. Dendrochronologia, 19(1), 67–79.Google Scholar
  56. Wilson, R. J. S., Miles, D., Loader, N., Melvin, T. M., Cunningham, L., Cooper, R. J., et al. (2012). A millennial long March–July precipitation reconstruction for southern-central England. Climate Dynamics. doi: 10.1007/s00382-012-1318-z.
  57. Zemek, F., Heřman, M., Kierdorf, H., Kierdorf, U., & Sedláček, F. (2006). Spatial distribution of dental fluorosis in roe deer (Capreolus capreolus) from North Bohemia (Czech Republic) and its relationships with environmental factors. The Science of the Total Environment, 370(2–3), 491–505.CrossRefGoogle Scholar
  58. Žid, T., & Čermák, P. (2007). Health condition of spruce stands in the Orlické hory Mts. in relation to climatic, anthropogenic and stand factors. Journal of Forest Science, 53(1), 1–12.Google Scholar

Copyright information

© Springer Science+Business Media B.V. 2012

Authors and Affiliations

  1. 1.School of Geography & GeosciencesUniversity of St AndrewsSt AndrewsUK

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