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Modern eolian and fluvial processes and their interactions in an ephemeral desert stream in Inner Mongolia, China



Floods and eolian activities are the dominant external agents to shape the topographic forms in ephemeral desert streams of drylands. So far, few studies have discussed the modern processes of eolian–fluvial interactions. To bridge this gap, we studied the modern interactions of eolian and fluvial process in a desert ephemeral river, the Maobula Gully in Inner Mongolia, which exhibits typical eolian–fluvial interactions.

Materials and methods

Multisource data such as integrated particle size data, hydrological data from the Tugerige Hydrological Station, high-spatial-resolution satellite images, and an eolian sediment saltation emission model were integrated to analyze the effects of eolian and fluvial delivery to the sediment on the riverbed, the eolian sediment feeding rate to the gully, the transport of sediment in flood events, and the interactions between eolian and fluvial processes.

Results and discussion

The desert reach of the Maobula Gully is a replacement reach between coarse sediment from the upper reaches and eolian sediment from the Kubuqi Desert. The annual eolian sediment feeding into the gully exhibited a significant decreasing trend. The eolian sediment into the gully increases the available sediment and the bed roughness, affecting the transport of sediment during floods. The sediment concentration and yields in flood events are mainly decided by the discharge and water yield, respectively. Through a comparison of the channel forms between 1970 and 2013, a recovery mechanism in the Maobula Gully was identified, which involves the equilibrium state between abrupt flood erosion and continuous dune migration.


This study analyzed the modern processes of eolian and fluvial processes and their interactions in a typical ephemeral desert stream named the Maobula Gully, and some interesting results were found. We believe that the methodology and results could provide references and evidence for understanding the mechanisms of fluvial and eolian interactions in other ephemeral desert streams around the world.

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  1. Al-Masrahy MA, Mountney NP (2015) A classification scheme for fluvial-aeolian system interaction in desert-margin settings. Aeolian Res 17:67–88

  2. Anderson SP, Anderson RS (1990) Debris-flow benches: dune-contact deposits record paleo-sand dune positions in north Panamint Valley, Inyo County, California. Geol 18:227–242

  3. Bagnold RA (1941) The physics of blown sand and desert dunes. Chapman and Hall, London

  4. Baker VR (1977) Stream-channel response to floods, with example from central Texas. Geol Soc Am Bull 88:1057–1071

  5. Baker VR, Kochel RC, Patton PC (1988) Flood geomorphology. Wiley, New York

  6. Beven K, Carling P (1989) Floods: hydrological, sedimentological and geomorphological implications. Wiley, Chichester

  7. Bourke MC, Pickup G (1999) Fluvial form variability in arid central Australia. In: Miller AJ, Gupta A (eds) Varieties of fluvial form. Wiley, Chichester, pp 249–271

  8. Bullard JE, Livingstone I (2002) Interactions between aeolian and fluvial system in dryland environments. Area 34:5–16

  9. Bullard JE, McTainsh GH (2003) Aeolian-fluvial interaction in dryland environments: example, concept and Australia case study. Prog Phys Geogr 27:471–501

  10. Burkham DE (1972) Channel changes of the Gila River in Safford Valley, Arizona 1846-1970. United States Geological Survey Professional Paper, 655-G, Washington, DC, USA

  11. Chen Y, Yang Q, Luo Y, Shen Y, Pan X (2012) Ponder on the issues of water resources in the arid region of northwest China. Arid Land Geog 35(1):1–9

  12. Du H, Xue X, Wang T (2014) Estimation of saltation emission in the Kubuqi Desert, North China. Sci Total Environ 479-480:77–92

  13. Du H, Xue X, Wang T, Deng X (2015) Assessment of wind-erosion risk in the watershed of the Ningxia-Inner Mongolia Reach of the Yellow River, northern China. Aeolian Res 17:193–204

  14. Fecan F, Marticorena B, Bergametti G (1998) Parametrization of the increase of the aeolian erosion threshold wind friction velocity due to soil moisture for arid and semi-arid areas. Ann Geophy-Germany 17:149–157

  15. Field JP, Breshears DD, Whicker JJ (2009) Toward a more holistic perspective of soil erosion: why aeolian research needs to expolicityly consider fluvial processes and interactions. Aeolian Res 1:9–17

  16. Graf WL (1983a) Flood-related channel change in an arid region river. Earth Surf Process Landf 8:125–139

  17. Graf WL (1983b) Downstream changes in stream power in the Henry Mountains, Utah. Ann Assoc Am Geogr 73:373–387

  18. Graf WL (1988) Fluvial processes in dryland river. Springer, Berlin

  19. Jacobberger PA (1988) Mapping abandoned river channels in Mali through directional filtering of thematic mapper data. Remote Sens Environ 26:161–170

  20. Jones LS, Blakey RC (1997) Eolian–fluvial interaction in the Page Sandstone (Middle Jurassic) in south-central Utah, USA—a case study of erg-margin processes. Sediment Geol 109:181–198

  21. Knighton AD, Nanson GG (1994) Waterholes and their significance in the anastomosing channel system of Cooper Creek, Australia. Geomorphol 9:311–324

  22. Kushwaha AP, Pandey AC, Mahto SS (2018) Assessment of runoff pattern and relationship to sediment yield of Bhagirathi-Alaknanda River Basin using geospatial techniques. J Geovis Spat Anal 2:1–11

  23. Lisle TE (1989) Channel-dynamic control on the establishment of riparian trees after large floods in Northwestern California. Proceedings of the California Riparian Systems Conference, 22-24, September 1988. USDA Forest Service General Technical Report PSW-110. Davis, California, USA, pp 8–13

  24. Marker ME (1977) A long-return geomorphic event in the Namib Desert, South-West Africa. Area 9:209–213

  25. Martínez-Graña AM, Goy JL, Zazo C (2014) Water and wind erosion risk in natural parks. A case study in “Las Batuecas-Sierra de Francia” and “Quilamas” protected parks (Central System, Spain). Int J Environ Res 8(1):61–68

  26. Martínez-Graña AM, Goy JL, Zazo C (2015) Cartographic procedure for the analysis of eolian erosion hazard in natural parks (Central System, Spain). Land Degrad Dev 26:110–117

  27. Mason JP, Swinehart JB, Loope DB (1997) Holocene history of lacustrine and marsh sediments in a dune-blocked drainage, south-western Nebraska Sand Hills, USA. J Palaeolim 17:67–83

  28. Mayer L, Nash D (1987) Catastrophic flooding. Binghampton Symposium in Geomorphology Vol. 18. Allen and Unwin, Boston

  29. Mc Intosh RJ (1983) Floodplain geomorphology and human occupation of the upper inland delta of the Niger. Geogr J 149:182–201

  30. Nanson GC, Chen XY, Price DM (1995) Aeolian and fluvial evidence of changing climate and wind pattern during the past 100 ka in the western Simpson Desert, Australia. Palaeogeogr Palaeocl 113:87–102

  31. Osterkamp WP, Costa JE (1987) Changes accompanying an extraordinary flood on a sand-bed stream. In: Mayer L, Nash D (eds) Catastrophic flooding, Binghampton symposium in geomorphology, vol 18. Allen and Unwin, Boston, pp 201–224

  32. Owen RP (1964) Saltation of uniform grains in air. J Fluid Mech 20:225–242

  33. Pitlick J (1993) Response and recovery of a subalpine stream following a catastrophic flood. Geol Soc Am Bull 105:657–670

  34. Raupach MR, Gillette DA, Leys JF (1993) The effect of roughness elements on wind erosion threshold. J Geophys Res 98(D2):3023–3029

  35. Sankey JB, Draut AE (2014) Gully annealing by aeolian sediment: field and remote-sensing investigation of aeolian-hillslope-fluvial interactions, Colorado River corridor, Arizona, USA. Geomorphology 220:68–80

  36. Schumm SA, Lichty RW (1963) Channel widening and flood-plain construction along Cimarron River in southwestern Kansas. United States Geological Survey Professional Paper, 352-D, Washington, DC, USA, pp 71–88

  37. Shao Y (2001) A model for mineral dust emission. J Geophys Res 106(20):239–254

  38. Shao Y (2008) Physical and modeling of wind erosion. Springer, Berlin

  39. Sheikh V, Visser S, Stroosnijder L (2009) A simple model to predict soil moisture: bridging event and continuous hydrological (BEACH) modeling. Environ Model Softw 24:542–556

  40. Smith ND, Smith DG (1984) William River: an outstanding example of channel widening and braiding caused by bed-load addition. Geology 12(2):78–82

  41. Ta W, Yang G, Qu J, Wang T, Dai F (2003) The effect of the coarse aeolian sand on siltation of the Inner Mongolian Reach of the Yellow River. Environ Geol 43:493–502

  42. Ta W, Wang H, Jia X (2011) Downstream fining in contrasting reaches of the sand-bedded Yellow River. Hydrol Process 25(24):3693–3700

  43. Ta W, Jia X, Wang H (2013a) Channel deposition induced by bank erosion in response to decreased flows in the sand-banked reach of the upstream Yellow River. Catena 105:62–68

  44. Ta W, Wang H, Jia X (2013b) The contribution of aeolian processes to fluvial sediment yield from a desert watershed in the Ordos Plateau, China. Hydrol Process 29:80–89

  45. Ta W, Wang H, Jia X (2014) Aeolian process-induced hyper-concentrated flow in a desert watershed. J Hydrol 511:220–228

  46. Teller JT, Lancaster N (1986) Lacustrine sediments at Narabeb in the central Namib Desert, Namibia. Palaeogeogr Palaeocl 56:177–195

  47. Thomas DSG, Stokes S, Shaw PA (1997) Holocene aeolian activity in the southwestern Kalahari Desert, southern Africa: significance and relationships to late-Pleistocene dune-building events. Holocene 7(3):273–281

  48. Thornes JB (1977) Channel changes in ephemeral streams: observation, problems and models. In: Gregory KG (ed) River channel changes. Wiley, Chichester, pp 317–335

  49. Tooth S (1999) Downstream changes in floodplain character on the Northern Plains of arid central Australia. In: Smith ND, Rogers J (ed) Fluvial sedimentology VI. Oxford: Blackwell. International Association of Sedimentologists, Special Publication No. 28:93-112

  50. Tooth S (2000) Process, form, and change in dryland rivers: a review of recent research. Earth-Sci Rev 51:67–107

  51. Von Bülow K (1930) General-geological observations in the moving dune area of the Leba lake Nehrung in East Pomerania. Jahrbuch der Preussischen Geologischen Lande Sanstalt 50(2):592–606 (in German)

  52. Von Bülow K (1934) Four years of observations at the wandering dunes on the Nehrung of Leba lake. Provisional report. Jahrb Preuss Geol Landesanst 54(1):151–159 (in German)

  53. Wang Z, Ta W (2016) Hyper-concentrated flow response to aeolian and fluvial interactions from a desert watershed upstream of the Yellow River. Catena 147:258–268

  54. Wang Y, Fen X, Wang L (1996) The effect of a reservoir on the siltation of the Inner Mongolia Reach of the Yellow River. Yellow River 1:5–10

  55. Wang P, Tian Y, Hou S, Zhang Y (2012) Analysis on characteristics of flow and sediment of the hyperconcentration tributaries of Inner-Mongolia Reach of the Yellow River. Yellow River 34(11):39–42

  56. Wells LE (1990) Holocene history of the El Ninõ phenomenon as recorded in flood sediments of northern coastal Peru. Geology 18:1134–1137

  57. Wolman MG, Gerson R (1978) Relative scales of time and effectiveness of climate in watershed geomorphology. Earth Surf Process Landf 3:189–208

  58. Xu J (2013) Erosion and sediment yield of 10 small tributaries joining Inner Mongolia Reach of upper Yellow River in relation with coupled wind-water processes and hyperconcentrated flows. J Sediment Res 6:28–37

  59. Yao H, Shi C, Shao W, Bai J, Yang H (2015) Impacts of climate change and human activities on runoff and sediment load of the Xiliugou Basin in the upper Yellow River. Adv Meteorol. https://doi.org/10.1155/2015/481713

  60. Yao H, Shi C, Shao W, Bai J, Yang H (2016) Changes and influencing factors of the sediment loadub the Xiliugou basin of the upper Yellow River, China. Catena 142:1–10

  61. Yasrebi J, Saffari M, Fathi H, Karimian N, Moazallahi M, Gazni R (2009) Evaluation and comparison of ordinary kriging and inverse distance weighting methods for prediction of spatial variability of some soil chemical parameters. Res J Biol Sci 4(1):93–102

  62. Zawada PK, Smith AM (1991) The 1988 Orange River flood, Upington region, northwestern Cape Province, RSA. Terra Nova 3:317–324

  63. Zhi J, Shi M (2002) Cross-river sand dam formation response to confluence of extreme sediment loading flow into the Yellow River in July 21, 1989. In: Wang F (ed) Change in water and sediment of the Yellow River. Yellow River Conservancy Press, Zhengzhou, pp 460–471

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Some of the data was provided by the Environmental and Ecological Science Data Center for West China, the National Natural Science Foundation of China (http://westdc.westgis.ac.cn).


This work was financially supported by the National Nature Science Foundation of China (Grant No. 41601009) and the National Key Research and Development Program of China (Grant No. 2016YFC0500902).

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Correspondence to Heqiang Du.

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Du, H., Wang, T., Xue, X. et al. Modern eolian and fluvial processes and their interactions in an ephemeral desert stream in Inner Mongolia, China. J Soils Sediments 20, 1140–1156 (2020). https://doi.org/10.1007/s11368-019-02452-x

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  • Eolian and fluvial processes
  • Ephemeral desert stream
  • Recovery mechanism
  • Sediment replacement