Pan morphology, Distribution and formation in Kazakhstan and Neighbouring areas of the Russian federation

Document Type : Research Paper

Authors

Oxford University School of Geography and the Environment, South Parks Road, Oxford, OX1 3QY, United Kingdom

Abstract

  In northern Kazakhstan and neighbouring parts of the West Siberian Plain of Russia is one of the world’s biggest concentrations of pans. The area has thousands of them. Landsat imagery and Google Earth images indicate their distribution within this semi-arid area and their forms and associated lunette dunes. Many of the pans, most of which are small, wet and shallow, show a characteristic shape and orientation and some have developed in Pleistocene dune fields. Others have developed in old river channels and from the deflation of lake floors. The pans are in a low-relief area developed on Palaeogene, Neogene and Quaternary beds and have been shaped by winds coming from the south west. They occur in an area which is predominantly steppe grassland. Comparisons can be made with other global pan areas in terms of their number, densities, areas, and depths and in terms of the materials on which they have developed, and the climatic conditions that occur here they are found.
Highlights

One of the world’s biggest, previously unstudied, areas of aeolian pans
Data are presented on the main pan morphologies and their morphometry
The pans have morphological similarities to those observed in areas like the High Plains of the USA, South Africa, the Pampas of Argentina and Australia

Keywords

References

Akhmetyev, M.A., A.E. Dodoniv, M.V. Somikova, I.I. Spasskaya, K.V. Kremenetsky, V.A. Klimanov, 2005. Kazakhstan and Central Asia (plains and foothills). Geol. Soc. Am. Special Papers, 382; 139-161.
Boggs, D.A., G.S. Boggs, I. Eliot, B. Knott, 2006. Regional patterns of salt lake morphology in the lower Yarra Yarra drainage system of Western Australia. J. Arid Environ, 64; 97-115.
Bourne, J.A., C.R. Twidale, 2010. Playas of inland Australia. Cadernos do Laboratorio Xeolóxico de Laxe. Revista de Xeoloxía Galega e do Hercínico Peninsular, 35; 71-97.
Bowen, M.W., 2011. Spatial distribution and geomorphic evolution of playa-lunette systems of the central High Plains of Kansas. Ph.D. thesis, University of Kansas.
Bowen, M.W., W.C. Johnson, S.L. Egbert, S.T. Klopfenstein, 2010. A GIS-based approach to identify and map playa wetlands on the High Plains, Kansas, USA. Wetlands, 30; 675-684.
Campbell, E.M., 1968. Lunettes in South Australia. Trans. Roy. Soc. S. Australia, 92; 83-109.
Doi, H., E. Kikuchi, C. Mizota, N. Satoh, S. Shikano, N. Yurlova, E. Zuykova, 2004. Carbon, nitrogen, and sulfur isotope changes and hydro-geological processes in a saline lake chain. Hydrobiologia, 529; 225-235.
Fucks, E., F. Pisano, J. Carbonari, R. Huarte, 2012. Aspectos geomorfologicos del sector medio e inferior de la Pampa Deprimida, Provincia de Buenos Aires. Rev. Soc. Geol. España, 25; 107-118.
Goudie, A.S., 1999. Wind erosional landforms: yardangs and pans. In Goudie, A.S., Livingstone, I., Stokes, S. (Eds.) Aeolian Environments, Sediments and Landforms. Wiley, Chichester; 167-80.
Goudie, A.S., D.S.G. Thomas, 1985. Pans in southern Africa with particular reference to South Africa and Zimbabwe. Z. Geomorph. 29; 1-19.
Goudie, A.S., D.S.G. Thomas, 1986. Lunette dunes in Southern Africa. J.  Arid Environ, 10; 1-12.
Goudie, A.S., G.L. Wells, 1995. The nature, distribution and formation of pans in arid zones. Earth-Sci. Rev, 38; 1-69.
Gusskov, S.A., A.V. Kanygin, Y.V. Kuzmin, G.S. Burr, A.J. Jull, L.B. Khazin, 2008. Ingression of the Aral Sea water to southern West Siberia in the Holocene: paleontological evidence and chronology. Doklady Earth Sci, 418; 24-27.
Gutiérrez, F., B. Valero-Garcés, G. Desir, P. González-Sampériz, M. Gutiérrez, R. Linares, M. Demuro, 2013. Late Holocene evolution of playa lakes in the central Ebro depression based on geophysical surveys and morpho-stratigraphic analysis of lacustrine terraces. Geomorphology, 196; 177-197.
Harper, R.J., R.J. Gilkes, 2004. Aeolian influences on the soils and landforms of the southern Yilgarn Craton of semi-arid, southwestern Australia.  Geomorphology, 59; 215-35.
Holliday, V.T., S.D. Hovorka, T.C. Gustavson, 1996. Lithostratigraphy and geochronology of fills in small playa basins on the Southern High Plains, United States. Geol. Soc. Am. Bull, 108; 953-965.
Holmes, P.J., M.D. Bateman, D.S. Thomas, M.W. Telfer, C.H. Barker, M.P. Lawson, 2008. A Holocene–late Pleistocene aeolian record from lunette dunes of the western Free State panfield, South Africa. The Holocene, 18; 1193-1205.
Indoitu, R., L. Orlovsky, N. Orlovsky, 2012. Dust storms in Central Asia: spatial and temporal variations. J. Arid Environ, 85; 62-70.
Inyutina, V., I. Smbaev, R. Sabitov, Y. Bragin, 2009. Solution of Hydrological Problems at Naurzum Lake System through Integrated Water Resources Management. Conservation of Flyway Wetlands in East and West/Central Asia. Proceedings of the Project Completion Workshop of the UNEP/GEF Siberian Crane Wetland Project.
Kent, P., 2006. A study of pan morphology, distribution and formation in Central Asia. Unpublished BA dissertation, School of Geography and the Environment, University of Oxford, UK.
Kliment’ev, A. I., E.V. Pavleichik, 2013. Soil deflation and desertization of steppes in Ural-Caspian subregion. Arid Ecosystems, 3; 92-100.
Kremenetski, C.V., P.E. Tarasov, A.E. Cherkinsky, 1997. The latest Pleistocene in southwestern Siberia and Kazakhstan. Quat. Internat, 41; 125-134.
Latrubesse, E.M., B.W. Nelson, 2001. Evidence for Late Quaternary aeolian activity in the Roraima–Guyana region. Catena, 43(1); 63-80.
Lombardo, U., H. Veit, 2014. The origin of oriented lakes: Evidence from the Bolivian Amazon. Geomorphology, 204; 502-509.
Mangerud, J., V. Astakhov, M. Jakobsson, J.I. Svendsen, 2001. Huge Ice‐age lakes in Russia. J. Quat. Sci, 16; 773-777.
Mazzoni, E., 2001. Distribución espacial y caracterización geomorfológica de pequeñas cuencas endorreicas de la Patagonia austral. An. Inst. Patagonia, serie Ciencias Naturales, 29; 5-24.
Mohamedou, A.O., A. Aventurier, L. Barbiero, R. Caruba, V. Valles, 1999.  Geochemistry of clay dunes and associated pans in the Senegal delta, Mauritania.  Arid Soil Res. Rehab, 13; 265-80.
Nagumanova, N.G., 2007. Spatial differentiation of invertebrates in soils of the Transural Steppe Region. Entomol. Rev, 87; 692-700.
Orlovsky, N.S., L. Orlovsky, R. Indoitu, 2013. Severe dust storms in Central Asia. Arid Ecosystems, 3; 227-234.
Persits, F.M., G.F. Ulmishek, D.W. Steinshouer, 1997. Maps showing geology, oil and gas fields and geologic provinces of the former Soviet Union. USGS Open-File Report 97-470E. Available from http://pubs.usgs.gov/of/1997/ofr-97-470/OF97-470E.
Perthuisot, J.P., A. Jauzein, 1975. Sebkhas et dunes d’argile: l’enclave endoreique de pont du Fahs, Tunisie. Rev. Géogr. Phys. Géol. Dynam, 17; 295-306.
Rachkovskaya, E.I., T.M. Bragina, 2012. Steppes of Kazakhstan: diversity and present state. In Werger, M. J., van Staalduinen, M. A., (Eds.) Eurasian Steppes. Ecological Problems and Livelihoods in a Changing World. Springer, Netherlands, pp.103-148.
Rebollal, B. M., A. Pérez-González, 2008. Inland aeolian deposits of the Iberian Peninsula: Sand dunes and clay dunes of the Duero Basin and the Manchega Plain. Palaeoclimatic considerations. Geomorphology, 102; 207-220.
Sabin, T.J., V.T. Holliday, 1995. Playas and lunettes on the Southern High Plains: morphometric and spatial relationships. Ann. Assoc. Am. Geogr, 85; 286-305.
Sazhin, A.N., 1988. Regional aspects of dust storms in steppe regions of the east European and West Siberian plains. Soviet Geogr, 29; 935-946.
Shaw, P.A., D.S.G. Thomas, 1997.  Pans, playas and salt lakes. In Thomas, D.S.G., (Ed.) Arid Zone Geomorphology, Process, Form and Change in Drylands (2nd edition), Wiley, Chichester, pp.293-317.
Shikano, S., K. Kawano, J.I. Kudoh, A.K. Yurlov, E. Kikuchi, 2006. Intraannual and interannual changes in the surface area of a closed lake complex in southwestern Siberia using NOAA images. Limnology, 7; 123-128.
Soares, A.P., P.C. Soares, M.L. Assine, 2003. Areiais e lagoas do pantanal, Brasil: herança paleoclimática? Brazilian Journal of Geology, 33(2); 211-224.
Sorrel, P., S.M. Popescu, S. Klotz, J.P. Suc, H. Oberhänsli, 2007. Climate variability in the Aral Sea basin (Central Asia) during the late Holocene based on vegetation changes. Quat. Res. 67, 357-370.
 Stephens, C.G., Crocker, R.L., 1946. Composition and genesis of lunettes.  Trans. Roy. Soc. S. Australia, 70; 302-12.
Stevaux, J.C., 2000. Climatic events during the late Pleistocene and Holocene in the upper Parana River: Correlation with NE Argentina and South-Central Brazil. Quat. Internat, 72; 73-85.
Vasil’ev, O.F., V.M. Savkin, Y.V. Saprykina, 2006. Analysis of water level fluctuations in Lake Chany. Doklady Earth Sci, 407; 446-449.
Volkov, I.A., V.S. Zykina, 1984. Loess stratigraphy in southwestern Siberia, in Velichko, A, A. (Ed.), Late Quaternary Environments of the Soviet Union. University of Minnesota Press, Minneapolis, pp.119-124.
Wellington, J.H., 1943. The Lake Chrissie problem. S. Afr. Geogr. J, 25; 50-64.
Yermolaeva, N.I., 2013. Some results of studying zooplankton in lakes of northern Kazakhstan. Arid Ecosystems, 3; 263-275.
Zakh, V.A., N.E. Ryabogina, J. Chlachula, 2010. Climate and environmental dynamics of the mid-to late Holocene settlement in the Tobol–Ishim forest-steppe region, West Siberia. Quat. Internat, 220; 95-101.
Zaklinskaya, Y.D., 1962. Outline of the geology and paleogeography of the Pablodar section of the Irtysh Valley, the Northern Aral Region and the Turgai Lowland. Internat. Geol. Rev, 4; 310-335.
Zhirkov, K.F., 1964. Dust storms in the steppes of western Siberia and Kazakhstan. Soviet Geogr, 5(5); 33-41.
Zhumangalieva, Z., 2014. Water resources of Kazakhstan: the lakes’ fund. Eur. Sci. J, 9(10); ISSN 1857-7881.

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