ESTONIAN ACADEMY
PUBLISHERS
eesti teaduste
akadeemia kirjastus
PUBLISHED
SINCE 1952
 
Earth Science cover
Estonian Journal of Earth Sciences
ISSN 1736-7557 (Electronic)
ISSN 1736-4728 (Print)
Impact Factor (2022): 1.1
Soil formation on reddish-brown calcareous till under herbaceous vegetation during forty years; pp. 65–84
PDF | https://doi.org/10.3176/earth.2007.11

Author
Loit Reintam
Abstract

A special experiment was established in 1963 and initiated in 1964 at Eerika, Tartu County, Estonia (58°22’ N, 26°36’ E) to study pedogenesis and its continuous development under grass-herbaceous vegetation on reddish-brown calcareous till which was practically free from organic carbon (0.6 g kg–1) and nitrogen (0.2 g kg–1). The results of the study of three earlier decades have been discussed earlier. This paper deals with the processes of synchronous production and soil formation as well as with pedogenetic activity during the fourth decade of the experiment and during the total period of 40 years. An intensive humus-accumulative process, wavy and cyclic in intensity, has continued, accompanied by the breakdown of skeletal carbonates, partial leaching of products, formation and accumulation of amorphous and crystalline nonsiliceous products of weathering, progress of argillization in situ, and slight lessivage of fine silt and clay within the thin top of enriched humus solum. Net accumulation of organic carbon and nitrogen was obtained by nearly equivalent amounts of humifiable issues of the production process. As these are temporally dynamic, the temporal periodicity of mineralization and humification relationships is also characteristic of synchronous pedogenesis. The low C : N ratio indicates an excellent quality of the humus formed since the beginning of primary soil formation. Against the background of the decadewise dynamic fulvicity of the humus and evident decrease in its total solubility, the transformation of Ca-humates into humins and the formation of R2O3-humic-fulvic complexes at the expense of RO-humic-fulvic complexes already during the third decade were ascertained. Intensification of the bonds of the humic-fulvic complexes with inactive sesquioxides and clay minerals and decrease in the amount of fulvic acids in the interlayeral structure of clay progressed during the fourth decade. Due to the weathering of sand fractions, an accumulation of silty-clayey particles, accompanied by an increase in the cation exchange capacity and in the specific surface area, progressed in the formed soils. The progress of Calcaric Cambisol (Rendollic Eutrochrept) can be diagnosed on the basis of data obtained during 40 years.

References

Aleksandrova, L. N. 1980. Organicheskoe veshchestvo pochvy i protsessy ego transformatsii [Soil organic matter and processes of its transformation]. Nauka, Leningrad, 287 pp. [in Russian].

 Arnold, R. W. 1965. Multiple working hypothesis in soil genesis. Soil Science Society of America Proceedings, 29, 717–724.

Arnold, R. W., Szabolcs, I. & Targulian, V. O. (eds). 1990. Global Soil Change. Report of an IIASA–ISSS–UNEP Task Force on the Role of Soil in Global Change. IIASA, Laxenburg, Austria, 110 pp.

Arvisto, E. 1970. Decomposition and transformation of organic matter in rendzina and brown forest soils. In Soil Regimes and Processes (Reintam, L., ed.), Transactions of Estonian Agricultural Academy, 65, 106–143.

Arvisto, E. 1971. Decomposition of plant residues in soils. In Biological Productivity and Regimes of Soils (Reintam, L., ed.), Transactions of Estonian Agricultural Academy, 75, 203–240.

Batjes, N. H. & van Engelen, V. W. P. 1997. Guidelines for the Compilation of a 1 : 2 500 000 SOTER Database (SOVEUR Project). Report 97/06. International Soil Reference and Information Centre, Wageningen, 64 pp.

Beschow, H., Gransee, A. & Merbach, W. 2000. Soil develop­ment on loess substrate in central Germany – results of a long-term trial on soil formation. Journal of Plant Nutrition and Soil Science, 163, 359–366.

doi:10.1002/1522-2624(200008)163:4<359::AID-JPLN359>3.0.CO;2-O

Beyer, L., Blume, H.-P. & Irmler, U. 1991. The humus of a “Parabraunerde” (Orthic Luvisol) under Fagus sylvatica L. and Quercus robur L. and its modification in 25 years. Annales des Sciences Forestières, 48, 267–278.

Dell’Abate, M. T., Benedetti, A., Trinchera, A. & Dazzi, C. 2002. Humic substances along the profile of two Typic Haploxerts. Geoderma, 107, 281–296.

Denef, K. & Six, J. 2005. Clay mineralogy determines the importance of biological versus abiotic processes for macroaggregate formation and stabilization. European Journal of Soil Science, 56, 469–479.

doi:10.1111/j.1365-2389.2004.00682.x

Eusterhues, K., Rumpel, C. & Kögel-Knabner, I. 2005. Organo-mineral associations in sandy acid forest soils: importance of specific surface area, iron oxides and micropores. European Journal of Soil Science, 56, 753–763.

Flaig, W. 1971. Organic compounds in soil. Soil Science, 111, 19–33.

Graham, R. C., Ervin, J. O. & Wood, H. B. 1995. Aggregate stability under oak and pine after four decades of soil development. Soil Science Society of America Journal, 59, 1740–1744.

Grishina, L. A. 1974. Biologicheskij krugovorot i ego rol¢ v pochvoobrazovanii [Biological turnover and its role in soil formation]. Moscow State University Publisher, Moscow [in Russian].

Grishina, L. A. & Orlov, D. S. 1977. System of indices of soil humus state. In Problems of Soil Science. Soviet Pedologists to the XI International Congress of Soil Science. Nauka, Moscow, pp. 68–79.

Hartge, K. H. 1994. Anwendbarkeit des Konzeptes “Normal-verdichtung : Überverdichtung” als Ersatz für andere Verdichtungs­konzepte in Ackerböden. Landbauforscung Völkenrode, Sonderheft, 147, 113–127.

Kahle, M., Kleber, M. & Jahn, R. 2002. Predicting carbon content in illitic clay fractions from surface area, cation exchange capacity and dithionite-extractable iron. European Journal of Soil Science, 53, 639–644.

doi:10.1046/j.1365-2389.2002.00487.x

Kleber, M., Mikutta, R., Torn, M. S. & Jahn, R. 2005. Poorly crystalline mineral phases protect organic matter in acid subsoil horizons. European Journal of Soil Science, 56, 717–725.

Martin, J. P. & Haider, K. 1971. Microbial activity in relation to soil humus formation. Soil Science, 111, 1, 54–63.

Mermut, A. R. & St. Arnaud, R. J. 1981. Microband fabric in seasonally frozen soils. Soil Science Society of America Journal, 45, 578–586.

Pogorelova, T. A. 1989. Osobennosti nachal´nogo pochvo­obrazovaniya na karbonatnoj krasno-buroj morene v sovremennykh usloviyakh [Peculiarities of primary soil formation on reddish-brown calcareous till in modern conditions]. Abstract of PhD thesis, Kharkov Agrarian University, Kharkov, 23 pp. [in Russian].

Ponomareva, V. V. 1957. To the method for the study of soil humus after I. V. Tyurin’s scheme. Pochvovedenie (Soviet Soil Science), 8, 66–71.

Ponomareva, V. V. 1964. Teoriya podzoloobrazovaniya [Theory of podzolization]. Nauka, Moscow–Leningrad, 379 pp. [in Russian].

Pucheta, E., Bonamici, I., Cabido, M. & Diaz, S. 2004. Below-ground biomass and productivity of a grazed site and a neighbouring ungrazed exclosure in a grassland in central Argentina. Austral Ecology, 29, 201–208.

doi:10.1111/j.1442-9993.2004.01337.x

Reintam, L. 1982. Changes in the balance of substances within the pedogenesis under the herbaceous vegetation. In Soil Properties and Biological Productivity (Reintam, L., ed.), Transactions of Estonian Agricultural Academy, 143, 3–18.

Reintam, L. 1995. Temporal and spatial changes in organic agents in the progress of primary pedogenesis during thirty years. Proceedings of the Estonian Academy of Sciences, Ecology, 5, 61–76.

Reintam, L. 1997. Pedogenetic changes in the quantity and distribution of textural and chemical soil constituents during thirty years. Proceedings of the Estonian Academy of Sciences, Biology, Ecology, 46, 174–190.

Reintam, L. 1998. Dynamics of aboveground phytomass, nitrogen, and ash elements in a long-term experiment of pedogenesis. Proceedings of the Estonian Academy of Sciences, Biology, Ecology, 47, 163–187.

Reintam, L. 2003. Current primary pedogenesis on Devonian sandstone in southern Estonia. Proceedings of the Estonian Academy of Sciences, Geology, 52, 28–41.

Reintam, L. 2004. Rehabilitated quarry detritus as parent material for current pedogenesis. Oil Shale, 21, 183–193.

Reintam, L. J. & Pogorelova, T. A. 1986. Primary pedogenesis on red-brown calcareous till under the grass-herbaceous vegetation. Pochvovedenie (Soviet Soil Science), 12, 24–36.

Reintam, L. Yu. & Pogorelova, T. A. 1987. Initial soil formation on red-brown calcareous moraine under herbaceous vegetation. Soviet Soil Science, 19, 2, 1–13.

Reuter, G. 1998. Experimental pedogenesis on humus-free geosubstrates. In 16th World Congress of Soil Science. Actes/Proceedings. Symposium 18, 7 pp. CD-ROM.

Rodin, L. E., Remezov, N. P. & Bazilevich, N. I. 1968. Metodicheskie ukazaniya k izucheniyu dinamiki i biologicheskogo krugovorota v fitotsenozakh [Methodical instructions for the study of dynamics and biological turnover in phytocoenosis]. Nauka, Moscow, 143 pp. [in Russian].

Sau, A. 1979. The intensity of the humus-accumulative process on reddish brown calcareous moraine. In Soils and Their Biological Production (Oja, A., ed.), pp. 17–18, 207. Estonian Agricultural Academy, Tartu.

Sau, A. 1983. The intensity of soil formation process under the influence of perennial herbage. In Theoretical Problems of the Intensification of Grassland Husbandry (Sau, A., ed.), Transactions of Estonian Agricultural Academy, 140, 27–46.

Sau, A., Kirspuu, E., Grünbaum, R., Laidna, T. & Mandel, M. 1980. On the formation of the root mass of perennial grasses under the intensive use of cultural meadows. In Põllumajanduskultuuride produktiivsuse tõstmine [Increase in the productivity of agricultural crops] (Sau, A., ed.), pp. 75–76. Estonian agricultural Academy, Tartu [in Russian].

Scurlock, J. M. O., Johnson, K. & Olson, J. 2002. Estimating net primary productivity from grassland biomass dynamics measurements. Global Change Biology, 8, 736–753.

doi:10.1046/j.1365-2486.2002.00512.x

Simonson, R. W. 1959. Outline of a generalized theory of soil genesis. Soil Science Society of America Proceedings, 23, 152–156.

Tice, K. R., Graham, R. C. & Wood, H. B. 1996. Transfor­mations of 2 : 1 phyllosilicates in 41-year-old soils under oak and pine. Geoderma, 70, 49–62.

doi:10.1016/0016-7061(95)00070-4

van Ranst, E., Verloo, M., Demeyer, A. & Pauwels, J. M. 1999. Manual for the Soil Chemistry and Fertility Laboratory. Analytical Methods for Soils and Plants. Equipment and Management of Consumables. University of Ghent, Gent, Belgium, 243 pp.

Viiralt, R. 2005. The production process in grassland. In Foundation and Use of Particular Type Grasslands, I (Bender, A., comp.), pp. 283–297. University of Tartu Publisher, Tartu.

Viiralt, R. & Kabanen, N. 1985. Effect and interaction of nitrogen fertilization and irrigation on the grass and clover-grass swards. In Rol¢ i perspektivy biologicheskogo i mineral¢nogo azota v intensivnom lugovodstve [Role and perspectives of biological and mineral nitrogen in the intensive grassland husbandry] (Kovacs, D. & Loid, H., eds), pp. 50–53. Estonian Agricultural Academy, Tartu [in Russian].

Walter, H. 1955. Die Klimagramma als Mittel zur Beurteilung der Klimaverhältnisse für ökologische, vegetationkundliche und landwirtscaftliche Zwecke. Berichte der Deutschen botanishen Gesellschaft, 68, 7–10, 331–344.

Back to Issue