Abstract
Valuable biological information can be obtained by monitoring the movement of organisms. However, the choice of monitoring method becomes highly restricted when following small organisms (<100 mm), especially in aquatic ecosystems. Stable isotopes are being increasingly used in this respect but rarely at the local spatial scale, i.e. 10–1000 s of metres. We sought to identify movement of small fishes between a main river channel and its tributary. Little overlap in isotope baseline was detected between the two channels despite some temporal variability in δ15N of baseline indicator organisms in the main river. The individuals of two small cyprinid fish species (Leuciscus souffia and Alburnoides bipunctatus) of all the size classes (40–100 mm) caught within the tributary showed considerable heterogeneity in δ15N values. Classification and discriminant analysis on isotope-derived data distinguished two significantly different groups. Moreover, this result was supported by further sampling of fish caught in the main river (in May and December 2006). Alternative hypotheses, such as dietary differences, biological factors, temporal shifts and spatial differences in diet, did not explain δ15N variability. This application of stable isotopes at a relatively small spatial and temporal scales further demonstrates its potential as a tool for ecologists.
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Acknowledgments
The authors would like to thank D. Salducci, B. Barascud, F. Martel, G. Morello-Fenouillet and T. Reynier for their invaluable help provided during sampling. This study received financial support from EDF (Electricité de France). EDF funded the PhD studies of M.D.
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Durbec, M., Cavalli, L., Grey, J. et al. The use of stable isotopes to trace small-scale movements by small fish species. Hydrobiologia 641, 23–31 (2010). https://doi.org/10.1007/s10750-009-0051-z
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DOI: https://doi.org/10.1007/s10750-009-0051-z