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Sediment-Water Interrelationship

  • Yoram Avnimelech
Part of the Environmental Series book series (ESE)

Abstract

The bottom soil of water bodies such as reservoirs, ponds, and shallow lakes acts as the storage, regulation and buffer organ of the system. As an illustration, the quantities of several components in the bottom soil can be compared to the equivalent terms in the water. The range of concentrations in the water of organic carbon, nitrogen and phosphorus of shallow lakes reservoirs and impoundments are in the order of 10-102, 0.1-101 and 10-2-10-1 ppm (parts per million) respectively. The equivalent concentrations in bottom soils are in the order of 104-105 ppm organic carbon, 103 ppm total nitrogen and 103 to 104 ppm of total phosphorus. Thus, the concentrations in the bottom soil are about 3 orders of magnitude higher than those in the water. The concentration of phosphorus in the soil may be up to 5 orders of magnitude higher than in the water. Total phosphorus concentration in the water of the Sea of Galilee, Israel, is in the order of 10-2 ppm, while that in the sediment is in the order of 103 ppm (about 0.3%). Putting this differently, the amount of C or N in 1 cm deep bottom soil layer is equivalent to that found in a water column of about 10 m or, in the case of P, in a water column 1000 m deep! Very similar data are relevant for the distribution of other components, such as heavy metals.

Keywords

Rice Straw Sediment Trap Total Phosphorus Concentration Nutrient Balance Fish Pond 
These keywords were added by machine and not by the authors. This process is experimental and the keywords may be updated as the learning algorithm improves.

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References

  1. Avnimelech Y (1984) Reactions in fish pond sediments as inferred from sediment cores data. In: Rosenthal H, Sarig S (eds) Research on aquaculture. European Mariculture Soc Apec Publ N° 8, Bredene, Belgium, pp 41–54Google Scholar
  2. Avnimelech Y (1989) Modelling the accumulation of organic matter in the sediments of a newly constructed reservoir. Wat Res 23:1327–1329CrossRefGoogle Scholar
  3. Avnimelech Y, McHenry JR (1984) Enrichment of transported sediments with organic carbon, nutrients and clay. Soil Sci Soc Am J 48:259–266CrossRefGoogle Scholar
  4. Avnimelech Y, Wodka M (1988) Accumulation of nutrients in the sediments of Ma’aleh HaKishon reclaimed effluents reservoir. Water Res 22:1437–1442CrossRefGoogle Scholar
  5. Avnimelech Y, McHenry JR, Ross JD (1984) Decomposition of organic matter in lake sediments. Envir Sci Technol 18:5–11CrossRefGoogle Scholar
  6. Berner RA (1980) A rate model for organic matter decomposition during bacterial sulfate reduction in marine sediments. In: Biogeochemistry of organic matter at the sediment water interface, pp 35-44, CNRS Int. ColloqGoogle Scholar
  7. Dor I, Kalinsky I, Eren J, Dimentman C (1987) Deep wastewater reservoirs in Israel. I. Limnological changes following self-purification. Water Sci Technol 19(12)317–322Google Scholar
  8. Eren Y, Tsur R, Avnimelech Y (1977) Phosphorus fertilization of fish ponds in the Upper Galilee. Bamidgeh, Israel J Aquaculture 31:3–8Google Scholar
  9. Farington JW, Henrichs SM, Anderson R (1977) Fatty acids and lead-210 geochronology of sediment core from the Buzzard Bay, Massachusetts. Geochim Cosmochim Acta 41:289–296CrossRefGoogle Scholar
  10. Gunnison D, Brannon JM, Smith I, Burton GA (1980) Changes in respiration and anaerobic nutrient regeneration during the transition phase of reservoir development. In: Barica J, Mur LR (eds) Hypertrophic ecosystems. Dev Hydrobiol 2:151–158Google Scholar
  11. Johnson TC, Evans JE, Eisenreich SJ (1982) Total organic carbon in Lake Superior sediments: Comparison with hemipelagic and pelagic marine environments. Limnol Oceanogr 27:481–491CrossRefGoogle Scholar
  12. Murray JW, Grundmanis V, Smethie WM (1978) Interstitial water chemistry in the sediments of Saanich inlet. Geochim Cosmochim Acta 42:1011–1026CrossRefGoogle Scholar
  13. Reddy KR,Khaleel R, Overcash MR (1980) Nitrogen, phosphorus and carbon transformations in a coastal plain soil treated with animal wastes. Agric Waste Intern J 2:225–238CrossRefGoogle Scholar
  14. Reddy RC, Feijtel TC, Patrick WH (1986) Effects of redox conditions on microbial oxidation of organic matter. In: Chen Y, Avnimelech Y (eds) The role of organic matter in modern agriculture. Martinus Nijhoff PublGoogle Scholar
  15. Serruya C (1971) Lake Kinneret. Nutrient chemistry of the sediments. Limnol Oceanogr 16:510-521Google Scholar
  16. Serruya C (1978) Sediment chemistry. In: Serruya C (ed) Lake Kinneret W. Junk bv Publ. The Hague, pp 205-215Google Scholar
  17. Waring SA, Bremner JM (1964) Ammonium production in soil under waterlogged conditions as an index of nitrogen availability. Nature 201:951–952CrossRefGoogle Scholar
  18. Williams WA, Mikkelsen DS, Mueller KE, Ruckman JE (1968) Nitrogen immobilization by rice straw incorporated in lowland rice production. Plant Soil 28:49–60CrossRefGoogle Scholar

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© Springer-Verlag Berlin Heidelberg 1999

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  • Yoram Avnimelech

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