Effects of plant traits and their divergence on runoff and sediment retention in herbaceous vegetation

  • Léa KervroëdanEmail author
  • Romain Armand
  • Mathieu Saunier
  • Michel-Pierre Faucon
Regular Article



Plant species diversity impacts ecosystem processes, but its effects on runoff and soil erosion are not fully understood. Herbaceous vegetation control concentrated runoff and soil erosion through the increase of hydraulic roughness which leads to sediment retention. This study aims to investigate the effect of aboveground traits and their divergence (i.e., stem diameter and density, and leaf area and density) on hydraulic roughness and sediment retention in plant communities.


Runoff experimentations were performed, using a sediment input, on three mono-specific and one multi-specific conditions composed of plant species with contrasting traits furthering hydraulic roughness and sediment retention.


No effect of trait diversity was found on the hydraulic roughness and sediment retention; which would be explained by the absence of an optimal space use by the traits involved in the increase of the hydraulic roughness. The dominant effect of the community-weighted traits in the plant community drives the effects of the vegetation on the hydraulic roughness and sediment retention.


This absence of positive effects of the trait diversity on hydraulic roughness and sediment retention constitutes an important knowledge to model runoff and soil erosion processes and to design herbaceous infrastructures for soil erosion control.


Aboveground functional traits Plant-soil-runoff interactions Sediment transport Sediment trapping and deposition Soil erosion control 



The authors thank the funders of this study: Agence de l’Eau Seine-Normandie (Seine-Normandie Catchment Agency), Région Normandie (Normandy council) and ANRT (National Association for Technological Research). Special acknowledgements are given to Dr. Yves le Bissonnais and Dr. Freddy Rey for their scientific comments on the methods of our study and to Dr. Jean-François Ouvry and Mr. Jean-Baptiste Richet for their insightful comments and technical advices.

Authors’ contributions

Léa Kervroëdan, Michel-Pierre Faucon and Romain Armand conceived the objectives and designed the methodology; Léa Kervroëdan and Mathieu Saunier collected the data; Léa Kervroëdan analysed the data; Léa Kervroëdan and Michel-Pierre Faucon led the writing of the manuscript. All authors contributed critically to the drafts and gave final approval for publication.

Supplementary material

11104_2019_4142_MOESM1_ESM.docx (13.8 mb)
ESM 1 (DOCX 14104 kb)


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Copyright information

© Springer Nature Switzerland AG 2019

Authors and Affiliations

  1. 1.AGHYLE (SFR Condorcet FR CNRS 3417)UniLaSalleBeauvaisFrance
  2. 2.AREASSt Valéry en CauxFrance

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