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Billen G. (1974)
219Water Research, 8
Kushner D.J. (1974)
59Proc. Int. Conf. on Transport of Persistent Chemicals in Aquatic Ecosystems
B.H. Olson, R.C. Cooper (1976)
Comparison of Aerobic and Anaerobic Methylation of Mercuric Chloride by San Francisco Bay Sediments, 10
J. Starý, B. Valter, K. Kratzer, J. Prášilová (1977)
Determination of Traces of Inorganic Mercury using Isotope Exchange, 30
Havlík B. (1979)
401Acta Hydroehim. Hydrobiol., 7
J. Starý, J. Prášilová (1976)
Determination of Phenylmercury Chloride in the Presence of Methylmercury Chloride, 26
P.D. Bartlett, P.J. Craig, S.F. Morton (1977)
Behaviour of Mercury Species in Isolated Estuarine Sediment Samples — Growth and Decay of Methyl Mercury during Storage, 276
Olson B.H. (1976)
113Water Research, 10
B. Havlík, J. Starý, J. Prášilová, K. Kratzer, J. Hanušová (1979)
Mercury Circulation in Aquatic Biocenoses. Part 1: Hg(II) Metabolism in Phytoplankton, 7
S. Jensen, A. Jernelöv (1969)
Biological Methylation of Mercury in Aquatic Organism, 223
J. Starý, J. Prášilová (1976b)
Radiochemical Determination of Methylmercury Chloride. II. Exchange Reaction with Labelled Iodide, 27
Havlík B. (1979)
215Acta Hydroehim. Hydrobiol., 7
Jensen S. (1969)
753Nature, 223
Starý J. (1977)
281Radiochem. Radioanal. Lett., 30
G. Billen, C. Joiris, R. Wollast (1974)
A Bacterial Methylmercury‐Mineralizing Activity in River Sediments, 8
Bartlett P.D. (1977)
606Nature, 276
B. Havlík, J. Starý, J. Prášilová, K. Kratzer, J. Hanušová (1979)
Mercury Circulation in Aquatic Biocenoses. Part 2: Metabolism of Methylmercury and Phenylmercury in Phytoplankton, 7
D.J. Kushner (1974)
Microbial Dealings with Heavy Metals, II
Starý J. (1976)
33Radiochem. Radioanal. Lett., 26
Starý J. (1976)
51Radiochem. Radioanal. Lett., 27
Two types of sediments, one of them highly polluted by the pulp and chemical industry and the other one polluted by the urban type of sewage, have been analysed for their content of methylmercury and inorganic mercury. The rate of the formation of methylmercury in sediment from inorganic mercury (II) and the decomposition of methylmercury and phenylmercury have been investigated using 203mercury compounds. It has been found that the rates of both processes depend on the experimental conditions. The quickest formation of methylmercury has been observed under the Procedure C which simulates the natural conditions. The lower the rate of demethylation of methylmercury the higher the equilibrium concentration of methylmercury which has been found in sediments.
Acta hydrochimica et hydrobiologica – Wiley
Published: Jan 1, 1980
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