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Tidal hydrology and habitat utilization by resident nekton inPragmites and Non-Phragmites Marshes

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Abstract

We compared nekton densities over a range of measured flooding conditions and locations withinPhragmites australis andSpartina alterniflora (salt marsh cordgrass) at the Charles Wheeler Salt Marsh, located on the lower Housatonic River estuary in southwestern Connecticut. Nekton were sampled on nine spring high tide events from May to October 2000 using bottomless lift nets positioned between 0–5 and 10–20 m from the creek edge. Flooding depth, duration, and frequency were measured from each vegetation type during each sampling month. Benthic macroinvertebrate density was also measured within each vegetation type in May, July, and September. Frequency of flooding was 52% lower and flooding depth and duration were also significantly reduced inP. australis relative toS. alterniflora. A total of 4,197 individuals representing 7 species, mostlyPalaemonetes pugio (dagger-blade grass shrimp) andFundulus heteroclitus (common mummichog), were captured.P. pugio densities were significantly greater inS. alterniflora as were benthic macroinvertebrate density and taxa richness during May, but not during June or October. Total fish density was not significantly different betweenP. australis andS. alterniflora and was independent of location on the marsh. Significantly more juvenileF. heteroclitus were collected withinS. alterniflora relative toP. australis in June and July, suggesting that recruitment of this species may be lower inP. australis habitat. Fish density generally did not vary predictably across the range of flooding depth and duration; there was a positive relationship between flooding depth and fish density inS. alterniflora. The measured reduction in flooding frequency (52%) withinP. australis at the Housatonic site would result in an average total monthly fish use, expressed as density, of 447 ind m−2 forP. australis and 947 ind m−2 forS. alterniflora. WhenP. australis expansion results in reduction of flooding frequency and duration, nekton community composition can change, access to the marsh surface is reduced twofold, and nursery habitat function may be impaired.

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Authors and Affiliations

  1. Department of Biology, Albright College, P.O. Box 15234, 19612-5234, Reading, Pennsylvania

    David T. Osgood

  2. Barry A Vittor & Associates, Inc., 656 Aaron Court, Building 6, 12401, Kingston, New York

    David J. Yozzo

  3. Department of Biology, College of William & Mary, 23185, Williamsburg, Virginia

    Randy M. Chambers

  4. Department of Biology and Environmental Science, University of New Haven, 06516, West Haven, Connecticut

    Dana Jacobson, Timothy Hoffman & Jason Wnek

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  1. David T. Osgood
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  2. David J. Yozzo
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  3. Randy M. Chambers
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Correspondence to David T. Osgood.

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Osgood, D.T., Yozzo, D.J., Chambers, R.M. et al. Tidal hydrology and habitat utilization by resident nekton inPragmites and Non-Phragmites Marshes. Estuaries 26, 522–533 (2003). https://doi.org/10.1007/BF02823728

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