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T. Canfield, N. Kemble, W. Brumbaugh, F. Dwyer, C. Ingersoll, J. Fairchild (1994)
Use of benthic invertebrate community structure and the sediment quality triad to evaluate metal‐contaminated sediment in the upper clark fork river, montanaEnvironmental Toxicology and Chemistry, 13
D. Nordstrom, E. Jenne, J. Ball (1979)
Redox Equilibria of Iron in Acid Mine Waters
R. Pennak (1989)
Fresh-Water Invertebrates of the United States: Protozoa to Mollusca
(1971)
Water Pollution Control Series. Project 18050-EEC, Contract 53-342-26
M. Griffith, S. Perry, W. Perry (1995)
Macroinvertebrate Communities in Headwater Streams Affected by Acidic Precipitation in the Central AppalachiansJournal of Environmental Quality, 24
C. Ingersoll, G. Ankley, G. Burton, F. Dwyer, R. Hoke, T. Norberg-King, P. Winger (1994)
Methods for measuring the toxicity and bioaccumulation of sediment-associated contaminants with freshwater invertebrates
Winterbourn Winterbourn, McDiffet McDiffet (1996)
Benthic faunas of streams of low pH but contrasting water chemistry in New ZealandHy‐drobiologia, 341
E. Whiting, S. Mathieu, D. Parker (1994)
Effects of Drainage from a Molybdenum Mine and Mill on Stream Macroinvertebrate CommunitiesJournal of Freshwater Ecology, 9
Dawn Kobuszewski, S. Perry (1993)
Aquatic Insect Community Structure in an Acidic and a Circumneutral Stream in the Appalachian Mountains of West VirginiaJournal of Freshwater Ecology, 8
E. Long, P. Chapman (2001)
]V3easures of Sediment Contamination, Toxicity and Infaunal Community Composition in Puget Sound
(1984)
Responses of aquatic insects to environmental pollution
R. Smith, D. Frey (1971)
Acid mine pollution effects on lake biology
B. Tan, R. Coler (1986)
Effects of coal pile leachate on Taylor Brook in western MassachusettsEnvironmental Toxicology and Chemistry, 5
N. Kemble, W. Brumbaugh, E. Brunson, F. Dwyer, C. Ingersoll, D. Monda, D. Woodward (1994)
Toxicity of metal-contaminated sediments from the upper Clark Fork River, Montana, to aquatic invertebrates and fish in laboratory exposuresEnvironmental Toxicology and Chemistry, 13
R. Griffiths, W. Keller (1992)
Benthic Macroinvertebrate Changes in Lakes near Sudbury, Ontario, following a Reduction in Acid EmissionsCanadian Journal of Fisheries and Aquatic Sciences, 49
Rutherford Rutherford, Mellow Mellow (1994)
The effects of an abandoned roast yard on the fish and macroinvertebrate communities of surrounding beaver pondsHydrobiologia, 294
Nelson Nelson, Roline Roline (1996)
Recovery of a stream macroin‐vertebrate community from mine drainage disturbanceHydro‐biologia, 339
(1969)
The effects of acid mine drainage on aquatic insects
(1995)
Appalachian clean streams initiative. Information Bulletin 1995-618-289
With or without reform, mining cleanup could cost $71 billion
G. Vinyard (1996)
A Chemical and Biological Assessment of Water Quality Impacts from Acid Mine Drainage in a First Order Mountain Stream, and a Comparison of Two Bioassay TechniquesEnvironmental Technology, 17
(1989)
Rapid bioassessment protocols for use in streams and rivers: Benthic macroinvertebrates and fish
F. Doherty, D. Cherry (1988)
Tolerance of the Asiatic clam Corbicula spp. to lethal level of toxic stressors-a review.Environmental pollution, 51 4
(1995)
Report to Powell River Project Reach and Education Program. Virginia Polytechnic Institute and State University
J. Flannagan (1979)
An Introduction to the Aquatic Insects of North America.Wsq: Women's Studies Quarterly, 36
Armitage Armitage (1980)
The effects of mine drainage and organic enrichment on benthos in the River Nent system, northern Pen‐ninesHydrobiologia, 74
J. Wallace, J. Grubaugh, M. Whiles (1996)
Biotic Indices and Stream Ecosystem Processes: Results from an Experimental StudyEcological Applications, 6
M. McCann (1993)
Toxicity of zinc, copper, and sediments to early life stages of freshwater mussels in the Powell River, Virginia
K. Fucik, J. Herron, D. Fink (1991)
The Role of Biomonitoring in Measuring the Success of Reclamation at a Hazardous Waste Site
E. Herricks, J. Cairns, Joanne Johnson (1974)
Rehabilitation of streams receiving acid mine drainage
(1995)
Acidic pH and heavy metal impact into stream watersheds and river ecosystems by abandoned mined lands, Powell River, Virginia
(1996)
Statistical Analysis System Institute
American Water Works Association
E. Long, P. Chapman (1985)
A Sediment Quality Triad: Measures of sediment contamination, toxicity and infaunal community composition in Puget SoundMarine Pollution Bulletin, 16
A. Nebeker, M. Cairns, J. Gakstatter, K. Malueg, G. Schuytema, D. Krawczyk (1984)
Biological methods for determining toxicity of contaminated freshwater sediments to invertebratesEnvironmental Toxicology and Chemistry, 3
D. Becker, T. Ginn, G. Bilyard (1990)
Comparisons between sediment bioassays and alterations of benthic macroinvertebrate assemblages at a marine superfund site: Commencement bay, WashingtonEnvironmental Toxicology and Chemistry, 9
An integrative assessment was conducted in the Puckett's Creek watershed of southwestern Virginia, USA, to investigate the environmental impacts of acid mine drainage (AMD) inputs. Twenty‐one sampling stations were categorized into groups based on five degrees of AMD input: (1) none, (2) intermittent acidic/circum‐neutral AMD, (3) continuous acidic AMD, (4) continuous circum‐neutral AMD, and (5) receiving system stations with at least two levels of dilution. Bioassessment techniques included water/sediment chemistry, benthic macroinvertebrate sampling, laboratory acute water column toxicity testing, laboratory chronic sediment toxicity testing, and in situ toxicity testing with Asian clams (Corbicula fluminea (Müller)). Group 3 stations had significantly altered water chemistry (low pH, high conductivity, and high water column metals) relative to the other groups and significantly higher sediment iron concentrations. Both group 3 and group 4 stations had significantly decreased ephemeroptera‐plecoptera‐trichoptera richness and percent ephemeroptera abundance relative to unimpacted stations. Group 3 stations also had decreased total taxon richness. Water column toxicity testing was sensitive to AMD impacts, with samples from group 3 stations being significantly more toxic than those from groups 2 and 4, which in turn were more toxic than those from groups 1 and 5. Similar results were observed for in situ toxicity testing. No differences in sediment toxicity test survival and impairment results were observed among the station groups. Stepwise multiple linear regression and simple bivariate correlation analyses were used to select parameters for use in an ecotoxicologic rating system, which was successful in differentiating between two levels of environmental impact relative to stations receiving no AMD input.
Environmental Toxicology and Chemistry – Oxford University Press
Published: Apr 1, 2000
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