Accumulation of trace elements, pesticides, and polychlorinated biphenyls in sediments and the clamCorbicula manilensis of the Apalachicola River, Florida

  • John F. Elder
  • Harold C. MattrawJr.


A survey of trace element and synthetic organic compound concentrations in bottom materials was conducted on the Apalachicola River in northwest Florida in 1979–80 as part of the Apalachicola River Quality Assessment. Substances analyzed included trace elements (predominantly heavy metals), organochlorine insecticides, organophosphorus insecticides, chlorinated phenoxy-acid herbicides, and poly chlorinated biphenyls (PCBs). Three kinds of materials were surveyed: finegrained sediments, whole-body tissue of the Asiatic clamCorbicula manilensis, and bottom-load organic detritus. No hazardous levels of any of the substances were found. Concentrations in the finegrained sediments and clams were generally at least ten times lower than maximum limits considered safe for biota of aquatic systems. A comparison of trace-substance data from the Apalachicola River with data from Lake Seminole (upstream) and Apalachicola Bay (downstream) showed lower concentrations in riverine clams. Sediment concentrations in all parts of the system were comparable. Most trace substances in the Apalachicola River enter the river from the upstream part of the basin (the Chattahoochee and Flint Rivers in Georgia and Alabama) and from nonpoint sources throughout the basin. There are no major point discharges along the Apalachicola. Trend analysis was limited by the scope of the study, but did not reveal any spatial or temporal trends in concentrations of any of the substances analyzed. Concentrations of organic compounds and most metals inCorbicula manilensis did not correlate with those in sediments.


PCBs Biphenyl Detritus Sediment Concentration Flint 
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  1. Baker RA (ed) (1980a) Contaminants and sediments, vol 1, Fate and transport, case studies, modeling, toxicity. Ann Arboi Sci, Ann Arbor MI, 558 ppGoogle Scholar
  2. Baker RA (ed) (1980b) Contaminants and sediments, vol 2, Analysis, chemistry, biology. Ann Arbor Sci, Ann Arbor MI, 627 ppGoogle Scholar
  3. Bradford WL, Luoma SN (1980) Some perspectives on heavy metal concentrations in shellfish and sediment in San Francisco Bay, California In: Baker RA (1980b) pp. 501–532Google Scholar
  4. Bryan GW, Uysal H (1978) Heavy metals in the burrowing bivalveScrobicularia plana from the Tamar estuary in relation to environmental levels. J Mar Biol Assn UK 58:89–108Google Scholar
  5. Christensen ER, Scherfig J, Dixon PS (1979) Effects of manganese, copper, and lead onSelenastrum capricornutum andChlorella stigmatophora. Water Res 13:79–82Google Scholar
  6. Clewell AF, McAninch H (1977) Effects of a fill operation on tree vitality in the Apalachicola River floodplain, Florida. In: Livingston RJ, Joyce EA (1977) pp. 16–19Google Scholar
  7. Cremlyn RJ (1978) Pesticides-Preparation and mode of action. John Wiley, New York, 240 ppGoogle Scholar
  8. Dethier DP (1979) Atmospheric contributions to stream water chemistry in the North Cascade Range, Washington. Water Resour Res 15:787–794Google Scholar
  9. Elder JF, Cairns DJ (1982) Production and decomposition of forest litter fall on the Apalachicola River flood plain, Florida. US Geol Sur Water-Supply Paper 2196-B, Alexandria, VA, 42 ppGoogle Scholar
  10. Elder JF, Home AJ (1978) Ephemeral cyanophycean blooms and their relationships to micronutrient chemistry in a southern California reservoir. Sanit Engin Res Lab Report 78-1, Univ of Calif, Berkeley, 182 ppGoogle Scholar
  11. Feltz HR (1980) Significance of bottom material data in evaluating water quality. In: Baker (1980a) pp 271–287Google Scholar
  12. Gibbs RJ (1973) Mechanisms of trace metal transport in rivers. Science 180:71–73Google Scholar
  13. Glooschenko WA, Strachan WMJ, Sampson RCJ (1976) Distribution of pesticides and polychlorinated biphenyls in water, sediments and seston of the upper Great Lakes-1974. Pest Monit J 10:61–67Google Scholar
  14. Guy HP, Norman VW (1970) Field methods for measurement of fluvial sediment. US Geol Sur Tech Water-Res Invest Book 3 Chapter C2, Alexandria, VA, 59 ppGoogle Scholar
  15. Heard WH (1977) Freshwater mollusca of the Apalachicola drainage. In: Livingston RJ, Joyce EA (1977) pp 20–21Google Scholar
  16. Helz GR, Huggett RJ, Hill JM (1975) Behavior of Mn, Fe, Cu, Zn, Cd, and Pb discharged from a wastewater treatment plant into an estuarine environment. Water Res 9:631–636Google Scholar
  17. Hern SC, Lambou VW, Tai H (1979) Pesticides and polychlorinated biphenyls in the Atchafalaya Basin, Louisiana. US EPA Report 600/4-79-061, NTIS, Springfield, VA, 80 ppGoogle Scholar
  18. Hutchinson NE (ed) (1975) WATSTORE users guide. US Geol Sur Open-File Report 75-426, v 1, Denver, 300 ppGoogle Scholar
  19. Irwin GA, Kirkland RT (1980) Chemical and physical characteristics of precipitation at selected sites in Florida. US Geol Sur Water-Resources Invest 80-81, Springfield, VA, 70 ppGoogle Scholar
  20. Jenne EA, Kennedy VC, Burchard JM, Ball JW (1980) Sediment collection and processing for selective extraction and for total trace element analyses. In: Baker RA (1980b) pp 169-190Google Scholar
  21. Jenne EA, Luoma SN (1977) Forms of trace elements in soils sediments and associated waters-an overview of their determination and biological availability. In: Drucker H, Wildung RE (eds) Biological implications of metals in the environment. Ener Res and Develop Admin CONF-750929, NTIS, Springfield, VA pp 110–143Google Scholar
  22. Klumpp DW, Peterson PJ (1979) Arsenic and other trace elements in the waters and organisms of an estuary in southwest England. Environ Pollut 19:11–20Google Scholar
  23. Leckie JO, James RO (1974) Control mechanisms for trace metals in natural waters. In: Rubin AJ (ed) Aqueous-environmental chemistry of metals. Ann Arbor Sci, Ann Arbor MI, pp 1–76Google Scholar
  24. Leitman HM (1978) Correlation of Apalachicola River floodplain tree communities with water levels, elevation, and soils. Fla State Univ Masters Thesis, Tallahassee, FL, 57 ppGoogle Scholar
  25. Leitman HM, Sohm JE, Franklin MA (1983) Wetland hydrology and tree distribution of the Apalachicola River flood plain, Florida. US Geol Sur Water-Supply Paper 2196-A, Alexandria, VA, 52 ppGoogle Scholar
  26. Livingston RJ (1977) Time as a factor in biomonitoring estuarine systems with reference to benthic macrophytes and epibenthic fishes and invertebrates. In: Cairns John Jr, Dickson KL, Westlake GF (eds) Biological monitoring of water and effluent quality. Amer Soc Test Mat, Philadelphia, STP 607, pp 212–234Google Scholar
  27. Livingston RJ, Iverson RL, Estabrook RH, Keys VE, Taylor J (1974) Major features of the Apalachicola Bay systemphysiography, biota, and resource management. Fla Sci 37:245–271Google Scholar
  28. Livingston RJ, Joyce EA (eds) (1977) Proc Conf Apalachicola drainage system. Fla Dept Nat Resources Mar Res Lab Res Pub 26, St. Petersburg, FL, 177 ppGoogle Scholar
  29. Livingston RJ, Thompson NP, Meeter DA (1978) Long-term variation of organochlorine residues and assemblages of epibenthic organisms in a shallow north Florida (USA) estuary. Mar Biol 46:355–372Google Scholar
  30. Luoma SN, Bryan GW (1979) Trace metal bioavailability-modeling chemical and biological interactions of sediment-bound zinc. In: Jenne EA (ed) Chemical modeling in aqueous systems. Amer Chem Soc Symp Ser 93, Washington, DC, pp 577–609Google Scholar
  31. Manahan SE (1972) Environmental Chemistry. Willard Grant Press, Boston, 339 ppGoogle Scholar
  32. Mathis BJ, Cummings TF (1973) Selected metals in sediments, water, and biota in the Illinois River. J Water Pollut Control Fed 45:1573–1583PubMedGoogle Scholar
  33. Mattraw HC (1975) Occurrence of chlorinated hydrocarbon insecticides, southern Florida, 1968–72. Pest Monit J 9:106–114Google Scholar
  34. Mattraw HC, Elder JF (1980) Nutrient yield of the Apalachicola River flood plain, Florida-river-quality assessment plan. US Geol Sur Water-Resources Invest 80-51, Springfield, VA, 21 ppGoogle Scholar
  35. -(1983) Nutrient and detritus transport in the Apalachicola River, Florida. US Geol Sur Open-File Report 83–130, Denver, 107 ppGoogle Scholar
  36. Menasveta P, Cheevaparanapiwat V (1981) Heavy metals, organochlorine pesticides and PCBs in green mussels, mullets, and sediments of river mouths in Thailand. Mar Pollut Bull 12:19–25Google Scholar
  37. Moore JW, Sutherland DJ (1981) Distribution of heavy metals and radionuclides in sediments, water and fish in an area of Great Bear Lake contaminated with mine waters. Arch Environ Contam Toxicol 10:329–338PubMedGoogle Scholar
  38. National Academy of Sciences and National Academy of Engineering (NAS-NAE) (1972) Section III-Freshwater aquatic life and wildlife, water quality criteria. Ecol Research Ser Environ Pro Agency EPA-R3-73-033, Washington DC, pp 106-213Google Scholar
  39. Patrick R, Cram B, Coles J (1969) Temperature and manganese as determining factors in the presence of diatom or bluegreen algal floras in streams. Proc Nat Acad Sci 64:472–478Google Scholar
  40. Pojasek RB (1979) Disposing of hazardous chemical wastes. Environ Sci Technol 13:810–814Google Scholar
  41. Popham JD, D'Auria JM (1983) Combined effect of body size, season, and location on trace element levels in mussels (Mytilus edulis). Arch Environ Contam Toxicol 12:1–14PubMedGoogle Scholar
  42. Presley BJ, Trefry JH, Stokes RF (1980) Heavy metal inputs to Mississippi delta sediments. Water Air Soil Pollut 13:481–494Google Scholar
  43. Rickert DA, Kennedy VC, McKenzie SW, Hines WG (1977) A synoptic survey of trace metals in bottom sediments of the Willamette River, Oregon. US Geol Sur Cir 715-F, Arlington, VA, 27 ppGoogle Scholar
  44. Rudd RL (1964) Pesticides and the living landscape. Univ Wisconsin Press, Madison, 320 ppGoogle Scholar
  45. Sanders JG (1978) Enrichment of estuarine phytoplankton by the addition of dissolved manganese. Mar Environ Res 1:59–66Google Scholar
  46. Schnable JE, Goodell HG (1968) Pleistocene-Recent stratigraphy, evolution, and development of the Apalachicola coast, Florida. Geol Soc Amer Spec Paper 112, Boulder, CO, 72 ppGoogle Scholar
  47. Skougstad MW, Fishman MJ, Friedman LC, Erdmann DE, Duncan SS (1979) Methods for determination of inorganic substances in water and fluvial sediments. US Geol Sur Tech Water-Resources Invest Book 5 Chap Al, Alexandria, VA, 626 ppGoogle Scholar
  48. Stamer JK, Cherry RN, Faye RE, Kleckner RL (1979) Magnitudes, nature, and effects of point and nonpoint discharges in the Chattahoochee River basin, Atlanta to West Point Dam, Georgia. US Geol Sur Water-Supply Paper 2059, Alexandria, VA, 65 ppGoogle Scholar
  49. Stamer JK, Yorke TH, Pederson GL (1983) Distribution and transport of trace substances in the Schuylkill River basin from Berne to Philadelphia, Pennsylvania. US Geol Sur Open-File Report 83-265 Denver, 94 ppGoogle Scholar
  50. Steele KF, Wagner GH (1975) Trace metal relationships in bottom sediments of a freshwater stream-the Buffalo River, Arkansas. J Sed Petrol 45:310–319Google Scholar
  51. US Army Corps of Engineers (1980) Water quality management study, Lake Seminole, phase I, April through November 1978. Tech Report Mobile, AL, ACF-80-1 91 ppGoogle Scholar
  52. US Geological Survey (1981) Water-resources data for Florida, v 4, northwest Florida US Geol Sur Water-Data Report Fl-80-4, Springfield, VA, 697 ppGoogle Scholar
  53. Walsh DF, Berger BL, Bean JR (1977) Mercury, arsenic, lead, cadmium, and selenium residues in fish, 1971-73, National Pesticide Monitoring Program. Pest Monit J 11:5–34Google Scholar
  54. Wershaw RL, Fishman MJ, Grabbe RR, Lowe LE (1983) Methods for the determination of organic substances in water and fluvial sediments. US Geol Sur Tech Water-Resources Invest Book 5 Chap Al, Open-File Report 82-1004, Denver, 173 ppGoogle Scholar
  55. Wharton CH, Kitchens WM, Pendleton EC, Sipe TW (1982) The ecology of bottomland hardwood swamps of the southeasta community profile. US Fish Wildlife Serv FWS/OBS-81/ 37 Washington DC, 133 ppGoogle Scholar
  56. Wood JM (1974) Biological cycles for toxic elements in the environment. Science 183:1049–1052PubMedGoogle Scholar

Copyright information

© Springer-Verlag New York Inc. 1984

Authors and Affiliations

  • John F. Elder
    • 1
  • Harold C. MattrawJr.
    • 1
  1. 1.Water Resources DivisionU.S. Department of the Interior, Geological SurveyTallahassee

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