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The influence of water level and salinity on plant assemblages of a seasonally flooded Mediterranean wetland

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Abstract

We studied the key environmental variables shaping plant assemblages in Mediterranean abandoned ricefields with contrasting freshwater inputs over saline sediments. Plant species cover, water levels and soil variables were studied following a stratified random sampling design. Multivariate analysis identified water regime, particularly summer and autumn irrigation, as the most important environmental variable associated with vegetation composition. Distribution of annual and emergent macrophytes was not associated to salinity as found at the study site (0.57–4.1 mS/cm). Increased soil salinity, caused by summer irrigation near the soil surface did affect shallow-marsh assemblage distribution. These key environmental characteristics allowed us to identify six main assemblages. Annual macrophytes (such as Zannichellia  palustris) were defined by high (over 10 cm) annual mean water level (MWL) and early successional conditions; emergent macrophytes (such as Typha spp., Scirpus  lacustris) by annual MWL of 10 to − 25 cm and continuous shallow flooding in summer and autumn (MWL of 0–10 cm). The shallow-marsh group, correlated with annual MWL  − 25 to  − 100 cm, separated into two subgroups by salinity: grassland (including Paspalum distichum) with summer and autumn MWL below  − 25 cm and brackish (with Juncus  subulatus or Agrostis  stolonifera) with summer and autumn MWL just below the soil surface (0 to − 25 cm). Water levels for the grassland subgroup may equate with a salinity ‘refuge’ for P. distichum. Time was a further determinant of variation in the full data set. Abundance of a large group of agricultural annuals (such as Sonchus  tenerrimus) and damp ground annuals (including ricefield weeds such as Ammania  robusta) decreased with time as bare ground disappeared. Maintenance of spatial vegetation heterogeneity in abandoned ricefields is contingent on continued water regime management.

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Acknowledgements

We thank G. Pardini for use of the soil laboratory, Tete and Esther for all their help there, M. Poch for use of the Chemical Engineering laboratory, and Xavi Quintana and Joan Bach for access to unpublished data. The research was partly supported by Aiguamolls de l’Empordà Natural Park (AENP). We are indebted to colleagues at the AENP for their helpful support: J. Espigulé, J. Sargatal, S. Romero, E. Brunso, A. Colomer, Biel for technical advice and field measurements; J. Martí with bird observations; and Gemma, Christopher and Maite for field assistance.

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  1. S. C. L. Watt

    Present address: Scottish Natural Heritage, Great Glen House, Inverness, Scotland

Authors and Affiliations

  1. Department of Environmental Sciences, University of Girona, E-17071, Girona, Spain

    S. C. L. Watt, E. García-Berthou & L. Vilar

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  1. S. C. L. Watt
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Correspondence to S. C. L. Watt.

 

 

Appendix 1 Mean Species Cover Values (1995–1998) with acronyms used for ordination plots
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Watt, S.C.L., García-Berthou, E. & Vilar, L. The influence of water level and salinity on plant assemblages of a seasonally flooded Mediterranean wetland. Plant Ecol 189, 71–85 (2007). https://doi.org/10.1007/s11258-006-9167-7

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