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Effect of larval fish and nutrient enrichment on plankton dynamics in experimental ponds

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Abstract

The hypotheses that larval fish density may potentially affect phytoplankton abundance through regulating zooplankton community structure, and that fish effect may also depend on nutrient levels were tested experimentally in ponds with three densities of larval walleye, Stizostedion vitreum (0, 25, and 50 fish m−3), and two fertilizer types (inorganic vs organic fertilizer). A significant negative relationship between larval fish density and large zooplankton abundance was observed despite fertilizer types. Larval walleye significantly reduced the abundances of Daphnia, Bosmina, and Diaptomus but enhanced the abundance of various rotifer species (Brachionus, Polyarthra, and Keratella). When fish predation was excluded, Daphnia became dominant, but Daphnia grazing did not significantly suppress blue-green algae. Clearly, larval fish can be an important regulator for zooplankton community. Algal composition and abundance were affected more by fertilizer type than by fish density. Inorganic fertilizer with a high N:P ratio (20:1) enhanced blue-green algal blooms, while organic fertilizer with a lower N:P ratio (10:1) suppressed the abundance of blue-green algae. This result may be attributed to the high density of blue-green algae at the beginning of the experiment and the fertilizer type. Our data suggest that continuous release of nutrients from suspended organic fertilizer at a low rate may discourage the development of blue-green algae. Nutrient inputs at a low N:P ratio do not necessarily result in the dominance of blue-green algae.

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Author notes

  1. Jianguang Qin

    Present address: Hawaii Institute of Marine Biology, P.O.Box 1346, 96744, Kaneohe, HI, USA

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  1. Department of Zoology, The Ohio State University, 43210, Columbus, OH, USA

    Jianguang Qin & David A. Culver

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  1. Jianguang Qin
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  2. David A. Culver
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Qin, J., Culver, D.A. Effect of larval fish and nutrient enrichment on plankton dynamics in experimental ponds. Hydrobiologia 321, 109–118 (1996). https://doi.org/10.1007/BF00023168

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  • DOI: https://doi.org/10.1007/BF00023168

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