8 results for Dreissena bugensis (quagga mussel)

Impact ID Scientific Name Impact Type Study Type Study Location Impact Description Geographic Location Reference
8235 Dreissena bugensis Environmental Water Quality Observational Field In Lake Michigan, the fraction of water column cleared (FC) was measured experimentally for quagga mussels (Dreissena bugensis) in 2007-2008 and determined to exceed the phytoplankton growth rate at depths of 30-50 m, likely by a factor of five. This excessive filtration is hypothesized to cause a mid-depth sink of carbon and phosphorous; this is similar to the nearshore phosphorous shunt caused by zebra mussels, except that it occurs at mid-depth levels where quagga mussel densities are high. Lake Michigan, USA 24635
8236 Dreissena bugensis Environmental Water Quality Observational Field In Lake Michigan, total phosphorus (TP) and mean chlorophyll a concentrations both markedly fell in spring seasons after the expansion of quagga mussels (Dreissena bugensis), and TP levels remained low into summer. Lake Michigan, USA 24629
8237 Dreissena bugensis Environmental Water Quality Observational Field Dramatic increases in summer silica were initiated in the early 2000s in Lake Huron and in 2004 in Lake Michigan and seem to be associated with the expansion of quagga mussel (Dreissena bugensis) populations in the lakes at those times Lake Michigan, USA 24582
8238 Dreissena bugensis Environmental Water Quality Observational Field Lake Michigan water transparency, which ranged from 74-85% at deepwater sites in 2001, increased to 94-96% in 2008 following quagga mussel (Dreissena bugensis) expansion Lake Michigan, USA 24627
8239 Dreissena bugensis Environmental Water Quality Anecdotal N/A High water filtration rates and high dreissenid (Dreissena bugensis) abundances have also lead to the accumulation of pseudofeces 13247
8240 Dreissena bugensis Environmental Water Quality Experimental Laboratory Through nitrogen and phosphorus remineralization, the production of biodeposits from Dreissena bugensis may increase and redirect nutrient supply and turnover in colonized areas 24623
8241 Dreissena bugensis Environmental Water Quality Experimental Field When high-density dreissenid (Dreissena bugensis) colonies form, nitrate (NO3-) concentrations may significantly increase in the interstitial water at the colony base while dissolved oxygen concentrations drop, creating potentially detrimental conditions for some benthic organisms 20415
8242 Dreissena bugensis Environmental Water Quality Experimental Laboratory Concurrently, dreissenid metabolic activity may lower the nitrogen:phosphorus ratio in the water column, which (along with selective feeding behavior of dreissenids) appears to favor the growth of toxic cyanobacteria (Microcystis spp.) 24580

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