Physiological Responses of Five Seagrass Species to Trace Metals

By J. Prange, W. Dennison. 2000

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Classifying Ecological Quality and Integrity of Estuaries (2011, background): “Likewise, seagrass species can suffer from toxic effects of trace metal contamination (Prange and Dennison, 2000) or, in other cases, bioaccumulate it, which can have ramifications for gra zers.”
Use of fluorescence-based ecotoxicological bioassays in monitoring toxicants and pollution in aquatic systems: Review (2007, unknown): “In physiological investigations, often only two treatment concentrations were assessed [42,45] and sometimes only one was used [59], so there is insufficient information to derive an EC50 value.”
Seagrass Conservation Biology: An Interdisciplinary Science for Protection of the Seagrass Biome (2007, background): “, Chapter 24), and although metals are probably not biomagnified (Ward, 1989), transfer of metal toxicity to consumers has been suggested (Prange and Dennison, 2000).”
Ecophysiology of the marine cyanobacterium, Lyngbya majuscula (Oscillatoriaceae) in Moreton Bay, Australia (2005, background): “Seagrass and sediment iron content values were also based on one homogenous sample, however, Prange (1999) demonstrated negligible variation between replicate seagrass samples within sites in Moreton Bay.”