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Disturbance, diversity and phytoplankton production in a reservoir affected by inter-basin water transfers

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Abstract

The effect of water transfers between two reservoirs on the phytoplankton community of the receiving reservoir was investigated over a 9-year period. Canonical correspondence analysis was used to demonstrate the significance of water transfers as an anthropogenic disturbance to the phytoplankton community and its diversity. A mass balance associated with a Granger causality test was applied to discriminate between the cell transport effect from the upstream reservoir and internal processes within the receiving reservoir, and to quantify the net phytoplankton growth in the receiving reservoir. Low and high disturbance regimes were identified and diversity was maximised during low disturbance conditions. The decrease of diversity during high disturbance conditions was explained by decreasing retention time, increasing silica loads and by the transport of specific phytoplankton genera, i.e. diatoms, from the upstream reservoir. Disturbance regimes significantly affected the relationship between phytoplankton production and diversity. Low disturbance regimes were described by phytoplankton dynamics likely influenced by complementarity effects, while high disturbance regimes were characterised by a phytoplankton community dominated by highly productive species and increased productivity, thus indicating an advantage of selection behaviour over complementarity effects. The phytoplankton diversity, expressed as evenness, was identified as a key variable explaining the relationship disturbance-diversity-phytoplankton production.

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Acknowledgments

The first author was the recipient of a Scholarship for International Research Fees from the University of Western Australia and of a University International Stipend from the Centre for Water Research. We are very grateful to Professor David Hamilton and Dr. Tamar Zohary for their precious feedback, to Ryan Alexander for his accurate suggestions, and to two anonymous reviewers for their appropriate and constructive suggestions and for their proposed corrections to improve the paper. We gratefully acknowledge the support of the Sydney Catchment Authority for providing access to the data. The findings, opinions and conclusions expressed herein are those of the authors and do not represent the views or opinions of the Sydney Catchment Authority or any person employed in the Sydney Catchment Authority Division. This article represents the Centre for Water Research reference 2414-RF.

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  1. Centre for Water Research, The University of Western Australia, M023, 35 Stirling Hwy, Crawley, WA, 6009, Australia

    Roberta Fornarelli & Clelia L. Marti

  2. Hatch Associates, 144 Stirling St, Perth, WA, 6000, Australia

    Jason P. Antenucci

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  1. Roberta Fornarelli
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Correspondence to Roberta Fornarelli.

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Fornarelli, R., Antenucci, J.P. & Marti, C.L. Disturbance, diversity and phytoplankton production in a reservoir affected by inter-basin water transfers. Hydrobiologia 705, 9–26 (2013). https://doi.org/10.1007/s10750-012-1351-2

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