Abstract
Proliferations of benthic mats dominated by anatoxin-producing Microcoleus autumnalis (basionym Phormidium autumnale) pose an increasing health risk to human and animals worldwide. This study assessed M. autumnalis mats in two in situ experiments undertaken at three spatial scales: (1) reach-scale along a river; (2) reach-scale, focusing on two sites upstream and downstream of a tributary with substantial differences in naturally occurring M. autumnalis; and (3) patch-scale differences in light intensity. Most studies exploring drivers of proliferation have surveyed natural populations with correlative analyses; these in situ experiments aimed to validate previously hypothesised drivers. In experiment one, M. autumnalis mat area and expansion tended to increase downstream. This longitudinal variation was partially associated with increases in dissolved inorganic nitrogen, fine sediment and associated biologically available phosphorus. M. autumnalis mat area differed markedly at sites above and below the most downstream tributary. A second experiment with additional parameters (metals, grazing and light) was undertaken in this reach. None of the parameters conclusively explained differences in mat area, although numerous metals were identified for further investigation with a controlled experimental approach. These results posit that there are multiple non-linear drivers of M. autumnalis proliferation and their hierarchy of importance varies amongst sites.
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Acknowledgements
The authors acknowledge Annabel Tidy (University of Birmingham) and Bethany Bucknall (University of Birmingham) for sample collection and field assistance, Sean Waters (Cawthron Institute) for advice on phosphorus extractions, Laura Kelly (Cawthron) for reviewing earlier versions of the draft, Jonathan Puddick (Cawthron Institute) for input on pigment analysis and Karen Shearer (Cawthron Institute) for assistance with macroinvertebrates identification. This work received funding from the Nelson City Council and the authors thank Joanna Wilson (Nelson City Council) and Paul Fisher (Nelson City Council) for their support throughout the project. SAW received support for this study from the National Institute of Water and Atmospheric Research Ltd. under the causes and effects of water quality degradation: eutrophication risk assessment programme.
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SW and GTL contributed to the conception and design of the study. RW-W and ND acquired the samples and data. GT-L and SW contributed to the analysis and interpretation of the data. GT-L and SW wrote the first draft of the manuscript. All authors contributed to the manuscript revision, read, and approved the submitted version.
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Thomson-Laing, G., Dyer, N., Whyte-Wilding, R. et al. In situ river experiments to explore variability in Microcoleus autumnalis mat expansion. Hydrobiologia 848, 445–467 (2021). https://doi.org/10.1007/s10750-020-04453-1
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DOI: https://doi.org/10.1007/s10750-020-04453-1