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Kagalou, I.; Tsimarakis, G.; Bezirtzoglou, E. (2011)
Publisher: Microbial Ecology in Health and Disease
Journal: Microbial Ecology in Health and Disease
Languages: English
Types: Article
Subjects:
The relationships between indicator bacteria and the organic load were conducted over a year in Lake Pamvotis, in northwest Greece. Total coliforms (TC) and fecal coliforms (FC) were found in water samples from five different sampling stations. Organic load was estimated using biological oxygen demand (BOD) and chemical oxygen demand (COD) parameters. Increased TC and FC levels were found close to heavily polluted areas. Near-bottom samples had higher levels of bacteria and the numbers of TC and FC were increased during rainfall periods. Low or negative correlations were also observed between the bacteriological indices and BOD and COD levels, thus strengthening the hypothesis that indicator bacteria mainly depend upon the origin of pollution rather than the amount of the organic load. It is conceivable that systematic bacteriological and chemical indices must be monitored in order to evaluate the ecosystem and to protect public health.Keywords: bacteriological and chemical inter-relationships, coliforms, hygienic quality.
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    • 1. Bezirtzoglou E, Panagiou A, Savvaidis I, Theodorou D, Tsolas O, Antoniadis G. A new and rapid method for identi cation of C. perfringens in cave waters. Microecol Ther 1995; 23: 188 - 94.
    • 2. Panagiou A, Savaidis I, Theodoroy D, Bezirtzoglou E. In uence of light on the presence of C. perfringens in caves. Clin Infect Dis 1995; 20 (2): 380 -1.
    • 3. Bezirtzoglou E, Panagiou A, Savvaidis I, Maipa V. Distribution of C. perfringens in polluted lake environments. Anaerobe 1997; 3: 172 - 96.
    • 4. Bezirtzoglou E, Dimitriou D, Panagiou A, Kagalou I, Demoliates Y. Distribution of C. perfringens in different aquatic environments in Greece. Microbial Res 1994; 149: 129 - 34.
    • 5. Bezirtzoglou E, Dimitriou D, Panagiou A. Occurrence of C. perfringens in river water by using a new procedure. Anaerobe 1996; 2: 169 - 73.
    • 6. Hiraishi A, Saheki K, Horie S. Relationships of total coliforms, fecal coliform and organic pollution levels in the Tamagawa River. Bull J Soc Sci Fisheries 1984; 50 (6): 991 - 7.
    • 7. Anagnostidis K, Economou-Amilli A. Limnological studies on Lake Pamvotis (Ioannina), Greece. Arch Hydrobiol 1989; 89 (3): 313 - 342.
    • 8. APHA, 1985. Standard methods for the examination of water and wastewater. 16th edition, Washington.
    • 9. Hammer MJ. Water and Wastewater Technology. New York: John Wiley, 1997.
    • 10. Heddle JF, Russell JM. Some sources of error in the 5 day biochemical oxygen demand (BOD) test, a note. NZ J Sci 1982; 25: 47 - 51.
    • 11. Romero JR, Imberger J. Lake Pamvotis Project, Final Report. Western Australia: CWR, 1999.
    • 12. Morozzi G, Cenci G, Scarabattoli P. Bacteriological and chemical variations and their inter-relationships in a slightly polluted water-body. Intern. J Environ Studies 1984; 23: 121 - 9.
    • 13. Matsumoto J, Omura I. Some factors affecting the survival of fecal indicator bacteria in sea water. Technology Reports, Tohokw University, vol. 45, no. 2. 1980.
    • 14. Lee S, Fuhrman JA. DNA hybridation to compare species compositions of natural bacterioplankton assemblages. Appl Environ Microbiol 1990; 56: 739 - 46.
    • 15. Ho e MG, Brettar I. Genotyping of heterotrophe bacteria from the central Baltic Sea use of low-molecular weight RNA pro les. Appl Environ Microbiol 1996; 62: 1383 - 90.
    • 16. Hiru J, Viljamaa H, Raevuori M. The effect of physicochemical phytoplankton and seasonal factors on fecal indicator bacteria in northern brackish water. Water Res 1980; 19 (3): 279 - 85.
    • 17. Gordon RC. Winter survival of fecal bacteria in a subarctic Alaskan river. US Environmental Protection Agency, Corvallis, Ore. EPA-R2-72-013. 1985.
    • 18. Vaatanen P. Factor Analysis of the import of the environment on microbial communities in the Tvarminne area, southern coast of Finland. Appl Environ Microbiol 1980: 55- 61.
    • 19. Paschos I, Kagalou I, Natsis L. Management plan for Lake Pamvotis. Ioannina, Greece: D.E.L.I, 1995.
    • 20. Panagiou A, Savaidis I, Bezirtzoglou E. Effect of chlorination upon detection of C. perfringens. Anaerobic Pathogens. UK: Shel eld Academic Press, 1994.
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