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Impacts of salinity and freshwater inflow on oyster-reef communities in Southwest Florida

  • S. Gregory Tolley (a1), Aswani K. Volety (a1), Michael Savarese (a1), Laura D. Walls (a1), Christi Linardich (a1) and Edwin M. Everham III (a1)...

Abstract

When assessing oyster-reef habitat in estuaries it is important to understand the influence of salinity on the spatial and temporal variability of associated organisms. How comparable is community structure among stations located at different points along the salinity gradients of estuaries or among tidal tributaries that experience different levels of freshwater inflow? Do assemblages vary seasonally in response to changing salinity and freshwater inflow? To address these questions, multivariate techniques were employed to analyze decapod crustacean and fish abundance data. Organisms were collected at three reefs along the salinity gradient of three estuaries: the Caloosahatchee River and estuary, Estero River and Bay, and Faka Union Canal and Bay. Additional collections were made from reefs located near the mouths of Estero Bay's five tidal tributaries. Samples were dominated by the decapods Eurypanopeus depressus and Petrolisthes armatus. Commonly occurring species included the decapods Panopeus obesus, Alpheus heterochaelis and Rhithropanopeus harrisii and the fishes Gobiosoma robustum, Lophogobius cyprinoides and Gobiesox strumosus. Analysis of similarities suggested differences among stations located along the salinity gradients of all three estuaries. Community structure also varied among stations located near the mouths of the tidal tributaries of Estero Bay. Multidimensional scaling identified community structure present at upper stations as distinct from that downstream and at high-flow tributaries as distinct from that near low-flow tributaries. Upper stations and stations near high-flow tributaries were typified by E. depressus and gobiid fishes. Downstream stations and stations near low-flow tributaries were typified by E. depressus and P. armatus. Percent dissimilarity was greatest when upper and lower stations were compared along the salinity gradient or when low salinity and high-salinity sites were compared among tributaries. Within-station sample variability tended to be higher upstream or in association with high-flow tributaries.

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[1] Anger, K., Riesebeck, K., Püschel, C., 2000, Effects of salinity on larval and early juvenile growth of an extremely euryhaline crab species, Armases miersii (Decapoda: Grapsidae). Hydrobiologia 426, 161-168.
[2] Bergquist, D.C., Hale, J.A., Baker, P., Baker, S.M., 2006, Development of ecosystem indicators for the Suwannee River estuary: oyster reef habitat quality along a salinity gradient. Estuar. Coasts 29, 353-360.
[3] Biber, P.D., Irlandi, E.A., 2006, Temporal and spatial dynamics of macroalgal communities along an anthropogenic salinity gradient in Biscayne Bay (Florida, USA). Aquat. Bot. 85, 65-77.
[4] Blasco, E., Forward, R.B Jr., 1988, Osmoregulation of the xanthid crab, Panopeus herbstii. Comp. Biochem. Physiol. 90A, 135-139.
[5] Boesch, D.F., Diaz, R.J., Virnstein, R.W., 1976, Effects of tropical storm Agnes on soft-bottom macrobenthic communities of the James and York estuaries and the lower Chesapeake Bay. Chesap. Sci. 17, 246-259.
[6] Boyd S.E., Cooper K.M., Limpenny D.S., Kilbride R., Rees H.L., Dearnaley M.P., Stevenson J., Meadows W.J., Morris C.D., 2004, Assessment of the re-habilitation of the seabed following marine aggregate dredging. Sci. Ser. Tech. Rep., CEFAS Lowestoft, 121, 154p.
[7] Breitburg D.L., 1999, Are three-dimensional structure and healthy oyster populations the keys to an ecologically interesting and important fish community? In: Luckenbach, M.W., Mann, R., Wesson, J. (Eds.) Oyster reef habitat restoration: a synopsis and synthesis of approaches. Gloucester Point, Virginia Institute of Marine Science Press, pp. 239-250.
[8] Chapman, M.G., Underwood, A.J., Skilleter, G.A., 1995, Variability at different spatial scales between a subtidal assemblage exposed to the discharge of sewage and two control assemblages. J. Exp. Mar. Biol. Ecol. 189, 103-122.
[9] Chou, W-R., Tew, K.S., Fang, L-S., 2002, Long-term monitoring of the demersal fish community in a steel-slag disposal area in the coastal waters of Kaohsiung, Taiwan. ICES J. Mar. Sci. 59, S238-S242.
[10] Clarke K.R. 1993. Non-parametric multivariate analyses of changes in community structure. Aust. J. Ecol. 18, 117-143.
[11] Clarke K.R., Warwick R.M., 2001, Change in marine communities: an approach to statistical analysis and interpretation. 2nd edition, Plymouth, PRIMER-E Ltd.
[12] Coen, L.D., Luckenbach, M.W., Breitburg, D.L., 1999, The role of oyster reefs as essential fish habitat: a review of current knowledge and some new perspectives. Am. Fish. Soc. Symp. 22, 438-454.
[13] Costlow, J.D Jr., Bookhout, C.G., Monroe, R., 1962, Salinity-temperature effects on the larval development of the crab, Panopeus herbstii Milne-Edwards, reared in the laboratory. Physiol. Zool. 35, 79-93.
[14] Crabtree, R.E., Dean, J.M., 1982, The structure of two South Carolina estuarine tide pool fish assemblages. Estuaries 5, 2-9.
[15] Crossett K.M., Culliton T.J., Wiley P.C., Goodspeed T. R., 2004, Population trends along the coastal United States: 1980-2008. Washington, D.C., National Oceanographic and Atmospheric Administration.
[16] Day, R.W., Quinn, G.P., 1989, Comparisons of treatments after an analysis of variance in ecology. Ecol. Monogr. 59, 433-463.
[17] Dimock, R.V., Groves, K.H., 1975, Interaction of temperature and salinity on oxygen consumption of the estuarine crab Panopeus herbstii. Mar. Biol. 33, 301-308.
[18] Eby, L.A., Crowder, L.B., 2004, Effects of hypoxic disturbances on an estuarine nekton assemblage across multiple scales. Estuaries 27, 342-351.
[19] Eggleston, D.B., Elis, W.E., Etherington, L.L., Dahlgren, C.P., Posey, M.H., 1999, Organism responses to habitat fragmentation and diversity: habitat colonization by estuarine macrofauna. J. Exp. Mar. Biol. Ecol. 236, 107-132.
[20] Garcia, A.M., Vieira, J.P., Winemiller, K.O., Grimm, A.M., 2004, Comparison of 1982-1983 and 1997-1998 El Niño effects on the shallow-water fish assemblage of the Patos Lagoon estuary (Brazil). Estuaries 27, 905-914.
[21] Gorzelany J., 1986, Oyster associated fauna, Volume V: A data collection program for selected coastal estuaries in Hernando, Citrus, and Levy counties, Florida. Southwest Florida Water Management District.
[22] Hoffmeyer, M.S., 2004, Decadal change in zooplankton seasonal succession in the Bahía Blanca estuary, Argentina, following introduction of two zooplankton species. J. Plankton Res. 26, 181-189.
[23] Hopkinson, C.S Jr., Vallino, J.J., 1995, The relationships among man's activities in watersheds and estuaries: a model of runoff effects on patterns of estuarine community metabolism. Estuaries 18, 598-621.
[24] Hovel, K.A., 2003, Habitat fragmentation in marine landscapes: relative effects of habitat cover and configuration on juvenile crab survival in California and North Carolina seagrass beds. Biol. Conserv. 110, 401-412.
[25] Jaureguizar, A.J., Menni, R., Guerrero, R., Lasta, C., 2004, Environmental factors structuring fish communities of the Rio de la Plata estuary. Fish. Res. 66, 195-211.
[26] Kaiser, M.J., Spencer, B.E., 1996, The effects of beam-trawl disturbance on infaunal communities in different habitats. J. Anim. Ecol. 65, 348-358.
[27] Kreutzweiser, D.P., Capell, S.S., Good, K.P., 2005, Effects of fine sediment inputs from a logging road on stream insect communities: a large-scale experimental approach in a Canadian headwater stream. Aquat. Ecol. 39, 55-66.
[28] La Peyre, M.K., Nickens, A.D., Volety, A.K., Tolley, S.G., La Peyre, J.F., 2003, Environmental significance of freshets in reducing Perkinsus marinus infection in eastern oysters Crassostrea virginica: potential management applications. Mar. Ecol. Prog. Ser. 248, 165-176.
[29] Lenihan, H.S., Peterson, C.H., Byers, J.E., Grabowski, J.H., Thayer, G.W., Colby, D.R., 2001, Cascading of habitat degradation: oyster reefs invaded by refugee fishes escaping stress. Ecol. Appl. 11, 764-782.
[30] Levin, L.A., Gage, J.D., Martin, C., Lamont, P.A., 2000, Macrobenthic community structure within and beneath the oxygen minimum zone, NW Arabian Sea. Deep-Sea Res. Part II. 47, 189-226.
[31] Mannino, A., Montagna, P.A., 1997, Small-scale spatial variation of macrobenthic community structure. Estuaries 20, 159-173.
[32] Matheson, R.E Jr., Camp, D.K., Sogard, S.M., Bjorgo, K.A., 1999, Changes in seagrass-associated fish and crustacean communities on Florida Bay mud banks: the effects of recent ecosystem changes? Estuaries 22, 534-551.
[33] Maurer, D., Watling, L., 1973, Studies on the oyster community in Delaware: the effects of the estuarine environment on the associated fauna. Int. Rev. Gesamten Hydrobiol. 58, 161-201.
[34] May, E.B., 1972, The effect of floodwater on oysters in Mobile Bay. Proc. Natl. Shellfish Assoc. 62, 67-71.
[35] McGaw, I.J., Reiber, C.L., 1998, Circulatory modification in the blue crab Callinectes sapidus, during exposure and acclimation to low salinity. Comp. Biochem. Physiol. 121A, 67-76.
[36] McRae, G., Camp, D.K., Lyons, W.G., Dix, T.L., 1998, Relating benthic infaunal community structure to environmental variables in estuaries using nonmetric multidimensional scaling and similarity analysis. Environ. Monit. Assess. 51, 233-246.
[37] Palmer, T.A., Montagna, P.A., Kalke, R.D., 2002, Downstream effects of restored freshwater inflow to Rincon Bayou, Neuces delta, Texas, USA. Estuaries 25, 1448-1456.
[38] Pérez-Pinzón, M.A., Lutz, P.L., 1991, Activity related cost of osmoregulation in the juvenile snook (Centropomus undecimalis). Bull. Mar. Sci. 48, 58-66.
[39] Posey M.H., Alphin T.D., Powell C.M., Townsend E., 1999, Use of oyster reefs as habitat for epibenthic fish and decapods. In: Luckenbach, M. W., Mann, R., Wesson, J. (Eds.) Oyster reef habitat restoration: a synopsis and synthesis of approaches. Gloucester Point, Virginia Institute of Marine Science Press, pp. 133-159.
[40] Reisser, C.E., Forward, R.B Jr., 1991, Effect of salinity on osmoregulation and survival of a rhizocephalan parasite, Loxothylacus panopaei, and its host crab, Rhithropanopeus harrisii. Estuaries 14, 102-106.
[41] Ritter, C., Montagna, P.A., Applebaum, S., 2005, Short-term succession dynamics of macrobenthos in a salinity-stressed estuary. J. Exp. Mar. Biol. Ecol. 323, 57-69.
[42] Ryan, E.P., 1956, Observations on the life histories and the distribution of the Xanthidae (mud crabs) of Chesapeake Bay. Am. Midl. Nat. 56, 138-162.
[43] Shirley M.A., McKenney C.L., 1981, Influence of Lindane on survival and osmoregulatory/metabolic responses of the larvae and adults of the estuarine crab, Eurypanopeus depressus. In: Vernberg, W.B. (Ed.) Pollution Physiology of Estuarine Organisms, Columbia, University of South Carolina Press, pp. 275-297.
[44] Shumway, S.E., 1983, Oxygen consumption and salinity tolerance in four Brazilian crabs. Crustaceana 44, 76-82.
[45] Sklar, F.H., Browder, J A., 1998, Coastal environmental impacts brought about by alterations to freshwater inflow in the Gulf of Mexico. Environ. Manage. 22, 547-262.
[46] Smith, S.D.A., Simpson, R.D., 2002, Spatial variation in the community structure of intertidal habitats at Macquarie Island (sub-Antarctic). Antarct. Sci. 14, 374-384.
[47] Somerfield, P.J., Clarke, K.R., 1997, A comparison of some methods commonly used for the collection of sublittoral sediments and their associated fauna. Mar. Environ. Res. 43, 145-156.
[48] Tolley, S.G., Volety, A.K., Savarese, M., 2005, Influence of salinity on the habitat use of oyster reefs in three Southwest Florida estuaries. J. Shellfish Res. 24, 127-137.
[49] Tsou, T-S., Matheson, R.E Jr, 2002, Seasonal changes in the nekton community of the Suwannee river estuary and the potential impacts of freshwater withdrawal. Estuaries 25, 1372-1381.
[50] Villard, M., Kurtis, M., Merriam, G., 1999, Fragmentation effects on forest birds: relative influence of woodland cover and configuration on landscape occupancy. Cons. Biol. 13, 774-783.
[51] Vopel, K., Thiel, H., 2001, Abyssal nematode assemblages in physically disturbed and adjacent sites of the eastern equatorial Pacific. Dee-Sea Res. II 48, 3795-3808.
[52] Walker, G., Clare, A.S., 1994, The effect of salinity on the development of Loxothylacus panopaei larvae (Crustacea: Cirripedia: Rhizocephala). Estuaries 17, 276-282.
[53] Walls L.D., 2006, Physiological responses to salinity stress in the flatback mud crab Eurypanopeus depressus. Thesis, Florida Gulf Coast University, Fort Myers, Florida.
[54] Walters, K, Coen, L.D., 2006, A comparison of statistical approaches to analyzing community convergence between natural and constructed oyster reefs. J. Exp. Mar. Biol. Ecol. 330, 81-95.
[55] Warwick, R.M., McEvoy, A.J., Thrush, S.F., 1997, The influence of Atrina zelandica Gray on meiobenthic nematode diversity and community structure. J. Exp. Mar. Biol. Ecol. 214, 231-247.
[56] Warwick, R.M., Clarke, K.R., 1993, Increased variability as a symptom of stress in marine communities. J. Exp. Mar. Biol. Ecol. 172, 215-226.
[57] Weinstein M.P., Weiss S.L., Walters M.F., 1980. Multiple determinants of community structure in shallow marsh habitats, Cape Fear estuary, North Carolina, USA. Mar. Biol. 58, 227-243.
[58] Wells, H.W., 1961, The fauna of oyster beds, with special reference to the salinity factor. Ecol. Monogr. 31, 239-266.
[59] Ysebaert, T., Herman, P.M.J., 2002, Spatial and temporal variation in benthic macrofauna and relationships with environmental variables in an estuarine, intertidal soft-sediment environment. Mar. Ecol. Prog. Ser. 244, 105-124.

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Impacts of salinity and freshwater inflow on oyster-reef communities in Southwest Florida

  • S. Gregory Tolley (a1), Aswani K. Volety (a1), Michael Savarese (a1), Laura D. Walls (a1), Christi Linardich (a1) and Edwin M. Everham III (a1)...

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