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Vegetation Succession and its Consequences for Slope Stability in SE Spain

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Abstract

The effect of land abandonment as a result of changing land-use policies is becoming more and more important throughout Europe. In this case study, the role of vegetation succession and landslide activity on steep abandoned slopes was investigated. The influence of vegetation succession on soil properties over time, as well as how developing root systems affect soil reinforcement was determined. The study was carried out in the Alcoy basin in SE Spain, where the marl substratum is prone to landsliding along steep ravines. The bench-terraced slopes have been abandoned progressively over the last 50 years and show various stages of revegetation. The study was carried out at two scales; at the catchment scale long-term evolution of land-use, vegetation succession and slope failure processes were investigated. At a more detailed scale, vegetation cover, soil properties and rooting effects on soil strength were determined.

Results showed that the soil has changed over a period of 50 years with respect to soil properties, vegetation cover and rooting, which is reflected in the activity of geomorphological processes. Vegetation succession progressively limits surface processes (sheet wash and concentrated overland flow) over time, whereas slopes affected by mass wasting processes increase in number.

The spatial heterogeneity of infiltration increases over time, leading to increased macro-pore flow towards the regolith zone, enhancing the potential risk of fast wetting of the regolith directly above the potential plane of failure, as was concluded from rainfall simulations. In situ experiments to determine soil shear strength in relation to rooting indicated that roots contributed to soil strength, but only in the upper 0.4 m of the soil. Most failures however, occur at greater depths (1.0–1.2 m) as anchorage by deeper roots was not effective or absent. The observed initial increase in mass wasting processes after land abandonment can therefore be explained in two ways: (1) the limited contribution of anchorage by root systems at potential slip planes which cannot counterbalance the initial decline of the terrace walls, and (2) the fast transfer of rainfall to the potential slip plane by macro-pores enhancing mass movements. However, after approximately 40 years of abandonment, mass wasting processes decline.

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Authors and Affiliations

  1. Institute for Biodiversity and Ecosystem Dynamics-Physical Geography, Nieuwe Achtergracht 166, 1018, Amsterdam, WV, The Netherlands

    Erik Cammeraat & Annemieke Kooijman

  2. Department of Physical Geography, Utrecht University, P.O. Box 80115, 3508, Utrecht, TC, The Netherlands

    Rens van Beek

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  1. Erik Cammeraat
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  2. Rens van Beek
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  3. Annemieke Kooijman
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Correspondence to Erik Cammeraat.

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Cammeraat, E., van Beek, R. & Kooijman, A. Vegetation Succession and its Consequences for Slope Stability in SE Spain. Plant Soil 278, 135–147 (2005). https://doi.org/10.1007/s11104-005-5893-1

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