Benthic invertebrate fauna of Lake Erie 1979: distribution, abundance and biomass

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Fisheries and Oceans, Canada , Burlington, Ont
Freshwater an
Statementby R. Dermott
SeriesCanadian technical report of fisheries and aquatic sciences -- no. 2018, Canadian technical report of fisheries and aquatic sciences -- no. 2018
ContributionsCanada. Dept. of Fisheries and Oceans, Canada. Great Lakes Fisheries Research Branch
The Physical Object
Paginationvi, 82 p. :
ID Numbers
Open LibraryOL22847537M

To determine the species composition, abundance, distribution, and year-to-year variability of the Lake Erie zoobenthos community, a total of benthic samples were collected in western, central, and eastern basins in, and Cited by:   Distribution and abundance of total oligochaetes and total chironomids in the Okanagan lake system.

Influence of eutrophication on deep lake benthic invertebrate communities prolonged periods of oxygen exhaustion and the most likely explanation is the influence of some toxic by: Biomass and density of nondreissenid benthic invertebrates did not change further between (MacDougall et al.although the spatial distribution of benthic invertebrates may have changed.

In Lake Erie, significant temporal change in benthic algal abundance has been associated with: 1) eutrophication (prior to ), 2) oligotrophication following the Great Lakes Water Quality. Benthic Invertebrate Fauna of Lake Erie Distribution, Abundance and Biomass.

Canada Center for Inland Waters, Burlington, Ontario, 82 pp. (corrected appendices, personal communication, R. Dermott). Google ScholarCited by:   Significant seasonal changes were found in macrozoobenthic diversity and abundance in Fuxian Lake. The benthic fauna in the lake was the richest in summer, while those of Yangtze shallow lakes were richer in spring and autumn (Liang et al., ).

In Fuxian Lake the density and biomass varied in different ways. Of the approximately non-indigenous species that have invaded the Great Lakes since the early s, few have had greater effects on this ecosystem than the zebra and quagga mussel (Dreissena polymorpha and D.

bugensis, respectively).In this study the effects of these bivalves on macroinver-tebrates inhabiting hard substrates in western Lake Erie were. Quantitative samples of the benthic macrofauna inhabiting bedrock substrates in the wave zone (0- to 2-m depth) at a site on Lake Huron and one on Lake Erie were collected in.

Abstract. Two profundal sediment sites at the same depth (MO 1 and MO 7) in Lake Mondsee differed considerably in their trophic on organic carbon (weight loss on ignition) and redox values, MO 1 sediments could be classified as eutrophic, MO 7 sediment as oligo- to mesotrophic.

Investigations on abundance, diversity and vertical distribution of meio- and. Two profundal sediment sites at the same depth (MO1 and MO7) in Lake Mondsee differed considerably in their trophic conditions.

Based on organic carbon (weight loss on ignition) and redox values, MO1 sediments could be classified as eutrophic, MO7 sediment as oligo- to mesotrophic. Investigations on abundance, diversity and vertical distribution of meio- and.

Clostridium botulinum type E in Lake Erie: Inter-annual differences and role of benthic invertebrates Article in Journal of Great Lakes Research 37(2). Benthic and pelagic secondary production were measured at nearshore and offshore sites in the western, west-central, and eastern basins of Lake Erie in to determine the relative importance of benthic and pelagic foodwebs to the fish community after dreissenid colonization.

Benthic biomass increased greatly between and because of the presence of dreissenids, and >90% of benthic. Sediment cores taken at 15 sites within the three main depositional basins of Lake Erie from to were sectioned in 1-cm intervals and analyzed for the abundance and vertical distribution.

The size frequency distribution of the amphipods was examined in the samples from Gibraltar and Pelee islands, eastern Lake Erie, western Lake On tario, the Welland Canal, and Niagara River to de termine age structure of the populations by measuring either all the amphipods present or sub samples where abundance was greater than J.

King, ABUNDANCE, BIOMASS AND DIVERSITY OF BENTHIC MACRO-INVERTEBRATES IN A WESTERN CAPE RIVER, SOUTH AFRICA, Transactions of the Royal Society of South Africa, /, 45, 1, (), ().

To compare the results from two overlapping but unpaired synoptic surveys, a method using a geographic information system is proposed. The new method uses a GIS to create (i) minimum convex polygons (MCP) enclosing each set of survey data and (ii) Voronoi tesselations assigning area weights to each datum.

The pairs of MCP and Voronoi maps are overlaid to produce a. The influences of productivity, vegetation coverage, and benthivorous fish abundance on macroinvertebrate abundance and mean size were examined in Midwestern USA impoundments.

Details Benthic invertebrate fauna of Lake Erie 1979: distribution, abundance and biomass PDF

While impoundment productivity was not strongly related to total abundance and mean size of macroinvertebrates, it was related to specific taxa.

As productivity increased, Ephemeroptera and Odonata abundance. Diversity of macrobenthic invertebrate fauna in some water bodies of Jammu Bibliography Beaty, S.R., Fortino, K. and Hershey, A. Distribution and growth of benthic macroinvertebrates among different patch types of the littoral zones of two arctic lakes.

Freshwater Biology. – The Distribution of Invertebrates on Submerged Aquatic Plant Surfaces in Muskee Lake, Colorado. Lake Erie, Journal of Freshwater Ecology, /, 23, 3, Fluctuations in the relative abundance of the weed fauna of a tropical freshwater fish pond, Hydrobiologia, /BF @article{osti_, title = {Changes in the deep-water benthos of eastern Lake Erie between and }, author = {Dermott, R and Kerec, D}, abstractNote = {In order to examine changes of the benthic community and benthic biomass as a result of mussel colonization, a survey of the deep-water benthic fauna in eastern Lake Erie was repeated in using the.

Descriptors: Aquatic Life, Benthos, Benthic fauna, Benthic flora, Biological communities, Ecological distribution, Marine biology, and Oceans. USING BENTHIC BIOTA IN WATER QUALITY EVALUATION I BENTHOS ARE ORGANISMS GROWING ON OR ASSOCIATED PRINCIPALLY WITH THE BOTTOM OF WATERWAYS Benthos is the noun.

Fig. Average daily numbers of mute swan (Cygnus olor), coot (Fulica atra) and diving and dabbling ducks in Lake Krakesjon in June-July –(From Hargeby et al., ). Invasion of Currituck Sound, North Carolina, by Myriophyllum spicatum increased the total biomass of submersed macrophytes, and this in turn led to an increase in numbers of dabbling ducks.

They listed 30 species of benthic fauna and flora of the lagoon.[2] mentioned that the benthic community consists mainly of members of Annelida, Arthropoda and Mollusca.[4] studied the community structure, biodiversity, biomass and abundance of macrobenthos in the lake in relation to changes in some abiotic and biotic variables.[10] studied the.

Abundance and distribution of benthic macroinvertebrates in the Lake Huron system: Saginaw Bay,and Lake Huron, including Georgian Bay and North Channel, and NOAA Technical Memorandon GLERL One possible explanation is that wave disturbance could have reduced benthic invertebrate abundance in very shallow water (Barton and Hynes a, b).

Description Benthic invertebrate fauna of Lake Erie 1979: distribution, abundance and biomass FB2

Rasmussen and Kalff () noted a decrease in benthic invertebrate biomass as steepness in slope of the sides of the lake basin increased.

Steep slopes occur in Lakes GTH and I Specimens resembling H. anomala have also been found in the stomach contents of a white perch collected near Port Dover, Lake Erie in August (T. MacDougall, Ontario Ministry of Natural Resources, pers, comm.).

The species is probably present at other locations in the Great Lakes basin, but has escaped detection. Length‐frequency distribution of quagga mussels from littoral (benthic profundal (> 40 m) zones in Lake Erie.

Data from Karatayev et al. ( a), and authors unpublished data, including Lake Erie CSMI study and data from the four EPA GLNPO Long‐term monitoring stations in eastern basin (station ER09, 49 m depth; station ER15M, 63 m depth; station.

Dermott, Benthic Diversity and Substrate-Fauna Associations in Lake Superior, Journal of Great Lakes Research, /S(78), 4,(), (). Crossref T.F.

Nalepa, N.A. Thomas, Distribution of Macrobenthic Species in Lake Ontario in Relation to Sources of Pollution and Sediment Parameters, Journal of Great Lakes.

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Abundance and distribution of benthic macroinvertebrate populations in Lake Huron in and NOAA Technical Memorandum GLERL NOAA, Great Lakes Environmental Research Laboratory, Ann Arbor, MI, 33 pp. The distribution and abundance of Dreissena species (Dreissenidae) in Lake Erie, Journal of Great Lakes Research – Journal of Great Lakes Research – [9] Barbiero, R.

P., and M. Tuchman. Hiltunen, J.K. Distribution of oligochaetes in western Lake Erie, Limnology and Oceanography 14(2) Johnson, M.G., and R.O. Brinkhurst. Associations and species diversity in benthic macroinvertebrates of Bay of Quinte and Lake Ontario.

Journal of the Fisheries Research Board of Canada Lang, C. Lake Erie supported the great- est number of taxa overall (40), while benthic invertebrate communities in Lake Superior rela- tively taxa poor, with a total of 12 taxa found in the lake. Depth appeared to be an important factor in de- termining the number of taxa found at a site.examining only benthic distributions in the field.

Both trophic contaminants (or- ganic carbon, total phosphorus) and chemical contaminants may interact in defin- ing benthic community structure (Lang and Lang-Dobler, ). Throughout the Great Lakes, changes in the benthic community in response to polluting influences are relatively predictable.