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Plant and Soil

, Volume 315, Issue 1–2, pp 3–17 | Cite as

Histosol as an ecologically active constituent of peatland: a case study from Estonia

  • Raimo Kõlli
  • Alar Astover
  • Merrit Noormets
  • Tõnu Tõnutare
  • Lech Szajdak
Regular Article

Abstract

This study clarifies the area distribution of Estonian peat soils by three factors: main peat soil groups, peat thickness and peat decomposition degree. A digital soil map (1:10,000) and supplementary database were used for summarizing the distribution of peat soils. From the combined database with 859,701 polygons the soil mapping unit code, formula of soil texture (including peat) and formula of epipedon fabric were compiled using the MapInfo software. Peat soils form altogether 10,038 km2 or 23.5% of the total Estonian soil cover. From the peat soils the fen soils form 59.0%, bog soils 21.7% and transitional bog soils 14.7%. 45% of peat soils are well, 26% moderately and 29% slightly decomposed, by the peat thickness 13% are very shallow, 21% shallow and 66% thick. The general ecological characterization of peat soils and their mutual relationship with plant cover are given for the main peat soil taxa. The dominant natural ecosystems formed on peatlands are: (1) mixed birch, alder, spruce and pine forests on thin (<100 cm) well decomposed eutrophic fen soils, and (2) a sparse pine forests and hummock-ridge-hollow raised bogs wooded sparsely by pine on thick (>100 cm) slightly decomposed oligotrophic bog soils. The accumulation of organic carbon in peatlands soil cover (0–50 cm) totals 269.4±12.7 Tg and in epipedon layer (as superficial part of soil cover; 0–30 cm) 129.9±5.8 Tg. The former is sequestrated into 543.7 Tg of peat, which forms 22.9% of the total Estonian peat resources (2.37 Pg).

Keywords

Bog soil Carbon sequestration Fen soil Peatland Soil classification Transitional bog 

Notes

Acknowledgements

Funding for the research was provided by the Estonian Scientific Foundation (Grant No. 4991) and by the Estonian Ministry of Education and Research (Project No. 0172613AGML03), for which all authors are very thankful.

References

  1. Andresmaa E (1997) Peatlands. In: Raukas A, Teedumäe A (eds) Geology and mineral resources of Estonia. Estonian Academy, Tallinn, pp 395–397Google Scholar
  2. Arold I (2005) Estonian landscapes. Tartu University, TartuGoogle Scholar
  3. Aug E, Kokk R (1983) Distribution and yielding of the native grasslands of Estonian SSR. ATK IJV, TallinnGoogle Scholar
  4. Allikvee H, Ilomets M (1995) Peatlands and their development. In: Raukas A (ed) Estonia. Nature. Valgus, Tallinn, pp 327–347Google Scholar
  5. Abolnis M, Gurtaja L (2006) Vaccinium spp. production techniques in Latvia. Acta Hortic 715:185–190Google Scholar
  6. Berube M-E, Lavoie C (2000) The natural revegetation of a vacuum-mined peatland: eight years of monitoring. Can Field Nat 114(2):279–286Google Scholar
  7. Bugnon J-L, Rochefort L, Price JS (1997) Field experiment of Sphagnum reintroduction on a dry abandoned peatland in eastern Canada. Wetlands 4:513–517CrossRefGoogle Scholar
  8. Cobbaert D, Rochefort L (2002) Restoration of a natural fen community following peat extraction in eastern Canada. In: Peat in Horticulture. Proc. Int. Conf. Pärnu, Estonia, Sept 3–6, 2002, pp 202–211Google Scholar
  9. Cleary J, Roulet NT, Moore TR (2005) Greenhouse gas emissions from Canadian peat extraction, 1990–2000: a life-cycle analysis. Ambio 6:456–461 doi: 10.1639/0044-7447(2005)034[0456:GGEFCP]2.0.CO;2 CrossRefGoogle Scholar
  10. Estonian Agri-Project (1982) List of soil inventory units of Estonian SSR. Short diagnostics of soil mapping units. Manuscript, 19 pGoogle Scholar
  11. Estonian Geological Survey (1993) Estonian Mires 1:400,000. Regio, TallinnGoogle Scholar
  12. ESBN EC (2005) Soil Atlas of Europe. OOPC EC, LuxembourgGoogle Scholar
  13. Estonian Land Board (2008) System of map sheets. http://www.maaamet.ee/
  14. FAO (2006) World reference base for soil resources 2006. World soil resources reports 103, RomeGoogle Scholar
  15. FAO ISRIC, ISSS (1998) World reference base for soil resources. World soil resources reports, 84. RomeGoogle Scholar
  16. Gierlach-Hladon T, Migala-Zavada J, Szajdak L (2006) Antioxidant properties of therapeutic peat extracts. In: Bombalov N (ed) Peat in solution of energy, agriculture and ecology problems. Proceedings of the International Conference. Minsk 29 May-02 June 2006, pp 257–258Google Scholar
  17. Gronlund A, Sveistrup TE, Sovik AK, Rasse DP, Klove B (2006) Degradation of cultivated peat soils in Northern Norway based on field scale CO2, N2O and CH4 emission measurements. Arch Agron Soil Sci 52(2):149–159 doi: 10.1080/03650340600581968 CrossRefGoogle Scholar
  18. Hainla V (1967) About spruce stands on drained peatland. Forest researches V:131–147Google Scholar
  19. Heinsalu A, Niine H, Veber K (1992) The influence of amelioration on the properties of peat soil. Trans EMTUI LXX :32–41Google Scholar
  20. Ilomets M (1997) Genesis and development of mires. In: Raukas A, Teedumäe A (eds) Geology and mineral resources of estonia. Estonian Academy, Tallinn, pp 293–298Google Scholar
  21. Ilomets M (2001) What will become of abandoned peatlands? Eesti Loodus 6:218–221Google Scholar
  22. Ilnicki P (2002) Peatlands and peats. Wydawnictwo Akademii Rolniczej im. A. Cieszkowskiego, PoznanGoogle Scholar
  23. Ilomets M (2003) Account what we mine the peat? Eesti Loodus 2/3:20–24Google Scholar
  24. Ilomets M, Animägi J, Kallas R (1995) Estonian peatlands, a brief review of their development, state, conservation, peat resources and management. Ministry of Environment, TallinnGoogle Scholar
  25. Kollist P (1969) On nutrient content of muck site type peat. For Res VII:118–127Google Scholar
  26. Kõlli RK (1992) Production and ecological characteristics of organic matter of forest soils. Eurasian Soil Sci 24(6):78–91Google Scholar
  27. Kokk R (1995) Distribution and properties of soils. In: Raukas A (ed) Estonia. Nature. Valgus, Tallinn, pp 430–439Google Scholar
  28. Kõlli R (2002a) Large-scale digital soil map of Estonia and its application for soil conservation purposes. ESSC Newsl 2:7–9Google Scholar
  29. Kõlli R (2002b) Matrix tables for identification and characterization of soils. EAU, TartuGoogle Scholar
  30. Kõlli R (2003) Guide for identification of Estonian soils. EAU, TartuGoogle Scholar
  31. Kokk R, Rooma I, Valler V (1968) Methodology of large scale mapping of soils. Estonian Agricultural Academy, TartuGoogle Scholar
  32. Krall E, Pork K, Aug E, Püss Õ, Rooma I, Teras T (1980) Native grasslands types of Estonian SSR and main plant associations. Ministry of agriculture ESSR, IJV, TallinnGoogle Scholar
  33. Kobec AC, Stepchenko LM, Komisarov ID, Naumova GB, Orru G, Szajdak L, Sotnikova OP, Sedih NJ (2008) Achievements and prospects of humic substances application in agriculture. The ministry of agriculture of Ukraine, Agriculture University of DnipropetrovskGoogle Scholar
  34. Laasimer L (1965) Vegetation of the Estonian S.S.R. Valgus, TallinnGoogle Scholar
  35. Lõhmus E (1974) Forests from bogs to heaths and alvars. In: Valk U, Eilart J (eds) Estonian Forests. Valgus, Tallinn, pp 60–98Google Scholar
  36. Lõhmus E (2006) Estonian forest site types. Eesti Loodusfoto, TartuGoogle Scholar
  37. Laasimer L, Masing V (1995) Flora and Plant Cover. In: Raukas A (ed) Estonia. Nature. Valgus, Tallinn, pp 364–396Google Scholar
  38. Lavoie C, Rochefort L (1996) The natural revegetation of a harvested peatland in southern Quebec: A spatial and dendroecological analysis. Ecoscience 3(1):101–111Google Scholar
  39. Masing V (1975) Mire typology of the Estonian SSR. In: Laasimer L (ed) Some aspects of botanical research in the Estonian SSR. Tartu, pp 122–136Google Scholar
  40. Masing V (1984) Estonian bogs: plant cover, succession and classification. In: Moore PO (ed) European Mires. London, pp 119–148Google Scholar
  41. Meiner A (1999) Land cover of Estonia. Implementation of CORINE land cover project in Estonia. EEIC, TallinnGoogle Scholar
  42. Montanarella L, Jones RJA, Hiederer R (2006) The distribution of peatland in Europe. Mires Peat 1:1–10Google Scholar
  43. Nowak J (2006) Pronciples of methods of the physical properties determination of horticultural substances established by European Union. In: Brandyk T, Szajdak L, Sztylowicz J (eds) Physical and chemical properties of organic soils. SGGW Warszawa, pp. 115–126Google Scholar
  44. Noormets M, Karp K, Paal T (2003) Recultivation of opencast peat pits with Vaccinium culture in Estonia. In: Tiezzi E, Brebbia CA (eds) Ecosystems and sustainable development IV, Wessex Institute of Technology, UK and J-L USO, Universitat Jaume I, Spain, 2:1005–1014Google Scholar
  45. Orru M (1992) Estonian Peat resources. Geological survey of Estonia, TallinnGoogle Scholar
  46. Orru M (1995) Handbook Estonian mires. Estonian geological survey, TallinnGoogle Scholar
  47. Orru M (1997) Peat. In: Raukas A, Teedumäe A (eds) Geology and mineral resources of Estonia. Estonian Academy Publishers, Tallinn, pp 337–346Google Scholar
  48. Orru M (2003) Estonian peat resources and their sustainable use. Eesti Loodus 2/3:12–13Google Scholar
  49. Orru M, Orru H (2006) The balneological peat resources in Estonia. In: Bombalov N (ed) Peat in solution of energy, agriculture and ecology problems. Proceedings of the International Conference. Minsk 29 May-02 June, pp 261–264Google Scholar
  50. Oleszczuk R, Regina K, Szajdak L, Maryganova V (2008) Impacts of agricultural utilization of peat-soil on the greenhouse gas balance. In: Strack M.(ed) Peatlands and climate change, International Peat Society. pp. 70–97Google Scholar
  51. Paal J (1997) Classification of Estonian vegetation site types. EV KKM ITK, TallinnGoogle Scholar
  52. Paal J (2005) Estonian mires. Stapfia 85, zugleich Kataloge der OÖ. Landesmuseen Neue Ser 35:117–146Google Scholar
  53. Pahkala K, Pihala M (2000) Different plant parts as raw material for fuel and pulp production. Ind Crops Prod 11:119–128 doi: 10.1016/S0926-6690(99)00050-3 CrossRefGoogle Scholar
  54. Paal J, Ilomets M, Fremstad E, Moen A, Borset E, Kuusemets V, Truus L, Leibak E (1999) Estonian Wetland Inventory 1997. Publication of the project “Estonian Wetlands Conservation and Management”.fs Eesti Loodusfoto, TartuGoogle Scholar
  55. Raudsep R, Räägel V, Savitskaja L, Orru M, Kattai V (1993) Estonian Natural Resources. RE Eesti Geoloogiakeskus, TallinnGoogle Scholar
  56. Reintam L, Kull A, Palang H, Rooma I (2003) Large-scale soil maps and supplementary database for land use planning in Estonia. J Plant Nutr Soil Sci 166:225–231 doi: 10.1002/jpln.200390033 CrossRefGoogle Scholar
  57. Szajdak L, Sokolov GA (1997) Impact of different fertilizers on the bound amino acids content in soils. Int Peat J 7:29–32Google Scholar
  58. Szajdak L, Maryganova M (2007) Occurrence of auxin in some organic soils. Agron Res 5(2):175–187Google Scholar
  59. Salonen V, Penttinen A, Särkkä A (1992) Plant colonization of a bare peat surface: population changes and spatial patterns. J Veg Sci 3:113–118 doi: 10.2307/3236005 CrossRefGoogle Scholar
  60. Stackevichiene E, Butkus V, Butkiene Z (1997) Introduction of large cranberries, blueberries and lingonberries and their cultivation basis in Lithuania. Agric Sci 2:58–70Google Scholar
  61. Sokolowska Z, Szajdak L, Matyka-Sarzynska D (2004) Impact of the degree of secondary transformation on acid-base properties of organic compounds in mucks. Geoderma 127:80–90 doi: 10.1016/j.geoderma.2004.11.013 CrossRefGoogle Scholar
  62. Truu A, Kurm H, Veber K (1964) Mires of Estonian SSR and their utilization in agriculture. Trans EMTUI 4:3–136Google Scholar
  63. Valk U (1969) On the age of swamps and peat increment during the Holocene. For Res VII:80–117Google Scholar
  64. Valk U (1988) Estonian Peatlands. Valgus, TallinnGoogle Scholar
  65. Valk U (2005) Estonian Bogs: Ecological-Silvicultural Research. Halo Kirjastus, TallinnGoogle Scholar

Copyright information

© Springer Science+Business Media B.V. 2008

Authors and Affiliations

  • Raimo Kõlli
    • 1
  • Alar Astover
    • 1
  • Merrit Noormets
    • 1
  • Tõnu Tõnutare
    • 1
  • Lech Szajdak
    • 2
  1. 1.Estonian University of Life SciencesTartuEstonia
  2. 2.Research Centre for Agricultural and Forest EnvironmentPoznanPoland

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