Hexachlorobenzene uptake by Fathead minnows and macroinvertebrates in recirculating sediment/water systems

  • Gerald S. Schuytema
  • Daniel F. Krawczyk
  • William L. Griffis
  • Alan V. Nebeker
  • Merline L. Robideaux
Article

Abstract

Fathead minnows (Pimephales promelas), the worm,Lumbriculus variegatus, and the amphipodsHyalella azteca andGammarus lacustris were exposed to hexachlorobenzene (HCB) in water with and without a bed of HCB-spiked sediment. Water HCB concentrations were maintained by recirculation through HCB-packed columns. Recirculating HCB-bound particulates and possibly eroded HCB particulates were an added source of HCB in addition to the sediment bed. Significant bioaccumulation of HCB in animal tissues was observed in water-only and water-sediment exposures. The presence of the HCB-spiked sediment did not result in a significant increase in the uptake of HCB by the organisms, but there was a substantial increase in sediment HCB levels over time. Higher tissue HCB levels in aquaria without sediment suggest that the sediment was a more efficient sink for HCB than the organisms.

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References

  1. Adams WJ, Kimerle RA, Mosher RG (1985) Aquatic safety assessment of chemicals sorbed to sediments. In: Cardwell RD, Purdy R, Bahner RC (eds) Aquatic Toxicology and Hazard Assessment: Seventh Symposium. ASTM STP 854. American Society for Testing and Materials, Philadelphia, PA, pp 429–453Google Scholar
  2. Allison LE, Moodie CD (1965) Carbonate. In: Black CA (ed) Methods of Soil Analysis. Part 2. American Society of Agronomy, Madison, WI. Monograph No. 9, p 1Google Scholar
  3. American Public Health Association, American Water Works Association, Water Pollution Control Federation (1985) Standard Methods for the Examination of Water and Wastewater, 16th Ed. Washington, DC, p 700Google Scholar
  4. American Society for Testing and Materials (1982) Standard test method for total and organic carbon in water oxidation by coulometric detection. D4129-82. Philadelphia, PA. pp 1–8Google Scholar
  5. American Society for Testing and Materials (1984a) Proposed new standard practice for conducting bioconcentration tests with fishes and saltwater bivalve molluscs. Draft No. 8, E47.01. Philadelphia, PA, pp 1–54Google Scholar
  6. - (1984b) Annual Book of ASTM Standards. Selection 11, Volume 11.01. Philadelphia, PA. pp 371–391Google Scholar
  7. Branson DR, Blau GE, Alexander HC, Neely WB (1975) Bioconcentration of 2,2′,4,4′-tetrachlorobiphenyl in rainbow trout as measured by an accelerated test. Trans Am Fish Soc 104:785–792Google Scholar
  8. Bruggeman WA, Opperhuizen A, Wijbenga A, Hutzinger O (1984) Bioaccumulation of super-lilophilic chemicals in fish. Toxicol Environ Chem 7:173–189Google Scholar
  9. Carlson AR, Kosian PA (1987) Toxicity of chlorinated benzenes to fathead minnows (Pimephales promelas). Arch Environ Toxicol 16:129–135Google Scholar
  10. Chiou CT, Schmedding DW, Manes M (1982) Partitioning of organic compounds in octanol-water systems. Environ Sci Technol 16:4–10Google Scholar
  11. Courney KD (1979) Hexachlorobenzene (HCB): A review. Environ Res 20:225–266Google Scholar
  12. Ekelund R, Granmo A, Berggren M, Renberg L, Wahlberg C (1987) Influence of suspended solids on the bioavailability of hexachlorobenzene and lindane to the deposit feeding marine bivalve,Abra nitida (Müller). Bull Environ Contam Toxicol 38:500–508Google Scholar
  13. Federal Register (1973) US Environmental Protection Agency, Part III, Guidelines Establishing Test Procedures for the Analysis of Pollutants, Proposed Regulations 44(233):69464–69575, Washington, DCGoogle Scholar
  14. Giam CS, Murray HE, Ray LE, Kira S (1980) Bioaccumulation of hexachlorobenzene in killifish (Fundulus similis). Bull Environ Contam Toxicol 25:891–897Google Scholar
  15. Landrum PF, Scavia D (1983) Influence of sediment on anthracene uptake, dupuration, and biotransformation by the amphipodHyalella azteca. Can J Fish Aquat Sci 40:298–305Google Scholar
  16. Larsson P (1985) Contaminated sediments of lakes and oceans act as sources of chlorinated hydrocarbons for release to water and atmosphere. Nature 317:347–349Google Scholar
  17. — (1986) Zooplankton and fish accumulate chlorinated hydrocarbons from contaminated sediments. Can J Fish Aquat Sci 43:1463–1466Google Scholar
  18. Malueg KW, Schuytema GS, Krawczyk DF (1986) Effects of sample storage on a copper-spiked freshwater sediment. Environ Toxicol Chem 5:245–253Google Scholar
  19. McQuaker NP, Kluckner PD, Chang GN (1979) Calibration of an inductively coupled plasma-atomic emission spectrometer for the analysis of environmental materials. Anal Chem 51:888–895Google Scholar
  20. Muir DC, Baker BE (1976) Detection of triazine herbicides and their degradation products in tile-drain water from fields under intensive corn (maize) production. J Agric Food Chem 24:122–125Google Scholar
  21. Neff JM (1984) Bioaccumulation of organic micropollutants from sediments and suspended particulates by aquatic animals. Fresenius Z Anal Chem 319:132–136Google Scholar
  22. Oliver BG (1984) Uptake of chlorinated organics from anthropogenically contaminated sediments by oligochaete worms. Can J Fish Aquat Sci 41:878–883Google Scholar
  23. Paterson RK (1973) Automated Pregl-Dumas technique for determining total carbon, hydrogen, and nitrogen in atmospheric aerosols. Anal Chem 65:605–609Google Scholar
  24. Pavlou SP, Weston DP (1983) Initial development of alternatives for development of sediment related criteria for toxic contaminants in marine waters (Puget Sound). Phase I: Development of conceptual framework. Report submitted to U.S. Environmental Protection Agency, Region X, Seattle, WA. JRB Associates. EPA Contract No. 68-01-6388Google Scholar
  25. Ripley BD, Wilkinson JW, Chau ASY (1974) Multiresidue analysis of fourteen organophosphorus pesticides in natural waters. J Assoc Offic Anal Chem 57:1033–1042Google Scholar
  26. Ryan BF, Joiner BL, Ryan RA (1985) Minitab Handbook. Second Edition. Duxbury press, Boston, 379 ppGoogle Scholar
  27. Scheele B (1980) Reference chemicals as aids in evaluating a research programme—Selection aims and criteria. Chemosphere 9:293–309Google Scholar
  28. Smith PW (1979) The fishes of Illinois. University of Illinois Press, Urbana, IL., pp 141–142Google Scholar
  29. Staples CA, Dickson KL, Rodgers JH Jr, Saleh FY (1985) A model for predicting the influence of suspended sediments on the bioavailability of neutral organic chemicals in the water compartment. In: Cardwell RD, Purdy R, Bahner RC (eds) Aquatic Toxicology and Hazard Assessment: Seventh Symposium. ASTM STP 854. American Society for Testing and Materials, Philadelphia, PA, pp 417–428Google Scholar
  30. U.S. Environmental Protection Agency (1973) Biological field and laboratory methods for measuring the quality of surface waters and effluents. EPA/670/4-73-001. Office of Research and Development, Cincinnati, OHGoogle Scholar
  31. — (1976) Quality criteria for water. Ammonia. Office of Planning and Standards, Washington, DC, pp 10–13Google Scholar
  32. — (1979) Methods for chemical analysis of water and wastes. EPA-600/4-79-020. Environmental Monitoring and Support Laboratory, Cincinnati, OHGoogle Scholar
  33. — (1980) Manual of analytical methods for the analysis of pesticides in humans and environmental samples. EPA-600/8-80-038. Health Effects Research Laboratory, Research Triangle Park, NCGoogle Scholar
  34. — (1985) Ambient water quality criteria for ammonia-1985. EPA-440/5-85-001. Office of Water Regulations and Standards, Washington, DCGoogle Scholar

Copyright information

© Springer-Verlag 1990

Authors and Affiliations

  • Gerald S. Schuytema
    • 1
  • Daniel F. Krawczyk
    • 1
  • William L. Griffis
    • 1
  • Alan V. Nebeker
    • 1
  • Merline L. Robideaux
    • 1
  1. 1.Corvallis Environmental Research LaboratoryU.S. Environmental Protection AgencyCorvallisUSA

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