Abstract
The paper presents an assessment of the rates of erosion and sedimentation in hollows of the Temeva Rechka small dry valley catchment, dominated by forest-steppe gray forest soils (Luvic Retic Greyzemic Phaeozems), over the past 55–60 years with the use of the radiocesium technique. This catchment is located in the Myosha River basin (Republic of Tatarstan, European Russia). The hollows have been grouped by the catchment’s slope aspects, hollow length, hollow bottom gradient, and shape of the thalweg profile of the hollow bottoms; origin and age, as well as by the specifics of erosion/sedimentation processes. Short agrogenic hollows with a small catchment area on relatively steep western slopes of the Temeva Rechka small dry valley, probably formed after human deforestation, have been identified. The shape of their catchments contributes to the formation of surface runoff, sufficient for the erosion of a significant part of their bottoms at a rate of about 2–4 t/ha per year. Older, polygenetic, and relatively long hollows with a slightly sloping bottom and larger catchments serve as sediment transit zones between plowed areas and the Temeva Rechka small dry valley bottom. They are characterized by alternating areas of soil erosion and sediment accumulation. The average rate of soil erosion in these landforms is 0.8 t/ha per year. In some hollows, when several small tributaries (smaller hollows) flow into their lower parts, soil erosion loss increases to 3 t/ha per year. The average soil erosion loss is 6 t/ha per year on short slopes of the hollows; in their upper parts, it can reach 11 t/ha per year. There is a general decrease in the rates of soil erosion and accumulation of eroded material in recent decades due to changes in climate and land use.
Similar content being viewed by others
REFERENCES
A. V. Apukhtin and M. V. Kumani, “Recent changes in the conditions of spring floods of rivers in Kursk oblast,” Uch. Zap. Kursk. Gos. Univ., No. 1, 23–38 (2012).
Atlas of Radioactive Contamination of the European Part of Russia, Belarus, and Ukraine, Ed. by Yu. A. Izrael’ (Roskartografiya, Moscow, 1998) [in Russian].
Yu. R. Belyaev, T. M. Grigor’eva, S. A. Sycheva, and E. D. Sheremetskaya, “The development of balka headwaters in the central part of Middle-Russian highland during the end of Middle-Late Pleistocene,” Geomorfologiya, No. 1, 43–55 (2008).
O. N. Bulygina, V. N. Razuvaev, L. T. Trofimenko, and N. V. Shvets, RF Inventor’s Certificate no. 2014621485. http://meteo.ru/data/156-temperature#oпиcaниe-мaccивa-дaнныx. Cited May 18, 2020.
G. P. Butakov, A. P. Dvinskikh, N. N. Nazarov, and I. I. Rysin, “Modern gully erosion in the east of the Russian Plain,” Geomorfologiya, No. 2, 43–46 (1987).
V. N. Golosov, Erosion and Deposition Processes in River Basins of Cultivated Plains (GEOS, Moscow, 2006) [in Russian].
A. P. Dedkov, Neotectonics and Geomorphology of Tatarstan in Geology of Tatarstan: Stratigraphy and tectonics. Ed. by B.V.Burov (GEOS, Moscow, 2003), pp. 337–364 [in Russian].
Documents for the Building of Erosion-Control Structures (Tatmelioratsiya, Kazan, 1989) [in Russian].
N. S. Evseeva, Z. N. Kvasnikova, M. A. Kashiro, A. S. Batmanova, and V. V. Aleev, “Soil washout by snowmelt on the slopes with complex microrelief” Geomorfologiya, No. 1, 45–54 (2016).
E. A. Eremenko and A. V. Panin, “Genesis of linear depressions network in the central and southern regions of the East-European plain,” Vestn. Mosk. Univ., Ser. 5: Geogr., No. 3, 59–66 (2011).
N. N. Ivanova, V. N. Golosov, A. V. Zhokhova, and E. V. Tishkina, “Agrogenic transformation of the soil cover within a small catchment area (by the example of the forest-steppe part of the Oka–Don plain),” Eurasian Soil Sci. 31, 197–204 (1998).
N. N. Ivanova and E. V. Tishkina, “Transformation of an agrogray soil on a slope complicated by hollows in the Zusha River basin,” Eurasian Soil Sci. 41, 774–784 (2008).
Yu. A. Izrael’, Radioactive Fallout after Nuclear Explosions and Accidents (Progress-Pogoda, St. Petersburg, 1996) [in Russian].
I. L. Kalyuzhnyi and S. A. Lavrov, “Effect of climate changes on the soil freezing depth in the Volga River basin,” Led i Sneg, No. 56 (2), 207–220 (2016).
L. M. Kitaev, L. B. Trofimova, E. V. Komarovskaya, I. S. Danilovich, and A. A. Bil’dyug, “Long-term variability of precipitation and snow cover formation of the East European Plain,” Earth’s Cryosphere, No. 3 (14), 77–81 (2010).
S. G. Kurbanova, The Influence of Economic Activity on the Change in the Hydrological Network and the Accumulation of Alluvium on Small Rivers in the East of the Russian Plain (Kazan State Univ., Kazan, 1992), pp. 108–113.
M. V. Markelov, V. N. Golosov, and V. R. Belyaev, “Changes in the sedimentation rates on the floodplains of small rivers in the Central Russian Plain,” Vestn. Mosk. Univ., Ser. 5: Geogr., No. 5, 70–76 (2012).
M. V. Markov, Vegetation of Tatarstan (Tatgosizdat, Kazan, 1948) [in Russian].
Economics of Tatar ASSR over 60 Years: Jubilee Statistical Handbook (Tatarsk. Knizhn. Izd., Kazan, 1980) [in Russian].
Meteorological data, All-Russia Research Institute of Hydrometeorological Information–World Data Centre. https://www.meteo.ru. Cited March 21, 2020.
Gully Erosion of the East of the Russian Plain (Kazan State Univ., Kazan, 1990) [in Russian].
Yu. P. Perevedentsev, The Climate of Kazan and Its Changes in the Modern Period (Kazan, 2006) [in Russian].
Yu. P. Perevedentsev, K. M. Shantalinskii, and N. A. Vazhnova, “Spatiotemporal variations of major parameters of temperature and humidity regime in the Volga Federal District,” Russ. Meteorol. Hydrol. 39, 228–239 (2014).
Cabinet of Ministers of the Republic of Tatarstan Resolution No. 216 of March 12, 1997 “On the Comprehensive Programme for Improving of Soil Fertility and Its Protection from Erosion in the Republic of Tatarstan for 1997–2005” (Kazan, 1997) [in Russian].
Soil Map of the Tatar ASSR, Scale 1 : 600 000 (State Agroindustrial Committee of the RSFSR, Moscow, 1985) [in Russian].
G. R. Safina and V. N. Golosov, “The Effect of Climate Change on the Annual Flow Distribution of Small Rivers in the Southern Half of the European Territory of Russia,” Uch. Zap. Kazan. Univ., Ser. Estestv. Nauki, No. 1 (160), 111–125 (2018).
Landsat images, US Geological Survey. http://landsatlook.usgs.gov/. Cited July 17, 2020.
A. V. Stupishin, V. A. Duglav, and N. N. Lapteva, Geographic Analysis of Gully and Small Dry Valley Systems within the Tatar ASSR (Kazan State Univ., Kazan, 1980) [in Russian].
L. N. Trofimets and E. A. Panidin, “Application of radio-cesium method to the research of the processes of washout and accumulation on arable slopes, which are complicated with ravine meso- and micro-reliefs: methodological approach and technique,” Probl. Reg. Ekol. No. 4, 147–152 (2014).
Database of indicators of municipalities: agriculture, Russian Federal State Statistics Service. https://rosstat. gov.ru/dbscripts/munst/munst92/DBInet.cgi. Cited July 17, 2020.
A. G. Sharifullin, A. V. Gusarov, and V. N. Golosov, “Assessment of contemporary erosion/sedimentation trend within a small cultivated catchment in the Republic of Tatarstan (European Russia),” Geomorfologiya, No. 3, 93–108 (2018).
A. T. Barabanov, S. V. Dolgov, N. I. Koronkevich, V. I. Panov, and A. I. Petel’ko, “Surface runoff and snowmelt infiltration into the soil on plowlands in the forest-steppe and steppe zones of the East European Plain,” Eurasian Soil Sci. 51, 66–72 (2018).
V. R. Belyaev, P. J. Wallbrink, V. N. Golosov, A. S. Murray, and A. Y. Sidorchuk, “A comparison of methods for evaluating soil redistribution in the severely eroded Stavropol region, southern European Russia,” Geomorphology 65 (3–4), 173–193 (2005).
A. Cremers, A. Elsen, P. De Preter, and A. Maes, “Quantitative analysis of radiocaesium retention in soils,” Nature 335 (6187), 247–249 (1988).
P. J. J. Desmet and G. Govers, “Two-dimensional modeling of the within-field variation in rill and gully geometry and location related to topography,” Catena 29 (3–4), 283–306 (1997.
V. N. Golosov, “Special considerations for areas affected by Chernobyl fallout,” in Handbook for the Assessment of Soil Erosion and Sedimentation Using Environmental Radionuclides (Springer-Verlag, Dordrecht, 2003), pp. 165–183.
V. N. Golosov, A. L. Collins, N. G. Dobrovolskaya, O. I. Bazhenova, Y. V. Ryzhov, and A. Y. Sidorchuk, “Soil loss on the arable lands of the forest-steppe and steppe zones of European Russia and Siberia during the period of intensive agriculture,” Geoderma 381, 114678 (2021).
G. Govers, T. A. Quine, P. J. J. Desmet, and D. E. Walling, “The relative contribution of soil tillage and overland flow erosion to soil redistribution on agricultural land,” Earth Surf. Process. Landforms 21 (10), 929–946 (1996).
Q. He and D. E. Walling, “The distribution of fallout 137Cs and 210Pb in undisturbed and cultivated soils,” Appl. Radiat. Isot. 48 (5), 677–690 (1997).
Q. He and D. E. Walling, “Interpreting particle size effects in the adsorption of 137Cs and unsupported 210Pb by mineral soils and sediments,” J. Environ. Radioact. 30 (2), 117–137 (1996).
E. de Jong, C. B. M. Begg, and R. G. Kachanoski, “Estimates of soil erosion and deposition for some Saskatchewan soils,” Can. J. Soil Sci. 63 (3), 607–617 (1983).
I. D. Moore and G. J. Burch, “Modeling erosion and deposition: topographic effects,” Trans. ASAE 29 (6), 1624–1630 (1986).
C. D. Morris and R. J. Loughran, “Distribution of caesium-137 in soils across a hillslope hollow,” Hydrol. Process. 8 (6), 531–541 (1994).
L. Øygarden, “Rill and gully development during an extreme winter runoff event in Norway,” Catena 50 (2–4), 217–242 (2003).
A. V. Panin, D. E. Walling, and V. N. Golosov, “The role of soil erosion and fluvial processes in the post-fallout redistribution of Chernobyl-derived caesium-137: a case study of the Lapki catchment, Central Russia,” Geomorphology 40 (3–4), 185–204 (2001).
A. Panin, O. Borisova, E. Konstantinov, Y. Belyaev, E. Eremenko, A. Zakharov, and A. Sidorchuk, “The Late Quaternary evolution of the upper reaches of fluvial systems in the southern East European Plain,” Quaternary 3 (4), 31 (2020).
E. Platoncheva, O. Yermolaev, and B. Essuman-Quainoo, “Spatial-temporal dynamics of the ephemeral gully belt on the plowed slopes of river basins in natural and anthropogenic landscapes of the east of the Russian Plain,” Geosciences 10 (5), 167 (2020).
P. Porto, D. E. Walling, C. Alewell, G. Callegari, L. Mabit, N. Mallimo, K. Meusburger, and M. Zehringer, “Use of a 137Cs re-sampling technique to investigate temporal changes in soil erosion and sediment mobilisation for a small forested catchment in southern Italy,” J. Environ. Radioact. 138, 137–148 (2014).
S. S. Shin, S. D. Park, and K. S. Lee, “Sediment and hydrological response to vegetation recovery following wildfire on hillslopes and the hollow of a small watershed,” J. Hydrol. 499, 154–166 (2013).
C. Stefano, V. Ferro, and P. Porto, “Linking sediment yield and caesium-137 spatial distribution at basin scale,” J. Agric. Eng. Res. 74 (1), 41–62 (1999).
P. Tarolli and G. Dalla Fontana, “Hillslope-to-valley transition morphology: New opportunities from high resolution DTMs,” Geomorphology 113 (1–2), 47–56 (2009).
P. Tsymbarovich, G. Kust, M. Kumani, V. Golosov, and O. Andreeva, “Soil erosion: an important indicator for the assessment of land degradation neutrality in Russia,” Int. Soil Water Conserv. Res. 8 (4), 418–429 (2020).
L. Vandekerckhove, J. Poesen, D. O. Wijdenes, and T. De Figueiredo, “Topographical thresholds for ephemeral gully initiation in intensively cultivated areas of the Mediterranean,” Catena 33 (3–4), 271–292 (1998).
D. E. Walling, Q. He, and T. A. Quine, “Use of caesium-137 and lead-210 as tracers in soil erosion investigations,” IAHS Publ. 229, 163–172 (1995).
K. Yoo, R. Amundson, A. M. Heimsath, and W. E. Dietrich, “Erosion of upland hillslope soil organic carbon: Coupling field measurements with a sediment transport model,” Global Biogeochem. Cycles 19 (3), (2005).
ACKNOWLEDGMENTS
The authors are grateful to V.N. Golosov (Lomonosov Moscow State University, Institute of Geography of the Russian Academy of Sciences) for the assistance in field studies and some consultations while writing the paper.
Funding
This work was supported by the Russian Scientific Foundation, project no. 19-17-00064, and by the Strategic Academic Leadership Program of Kazan (Volga Region) Federal University (Research Laboratory for paleoclimatology, paleoecology, and paleomagnetism).
Author information
Authors and Affiliations
Corresponding author
Ethics declarations
The authors declare that they have no conflicts of interest.
Additional information
Translated by I. Bel’chenko
Rights and permissions
About this article
Cite this article
Sharifullin, A.G., Gusarov, A.V. Contemporary Erosion and Sedimentation on Gray Forest Soils in Hollows of Small Catchments of the Republic of Tatarstan, European Russia. Eurasian Soil Sc. 55, 115–125 (2022). https://doi.org/10.1134/S1064229322010112
Received:
Revised:
Accepted:
Published:
Issue Date:
DOI: https://doi.org/10.1134/S1064229322010112