Applications of Controlled Pore Inert Materials as Immobilizing Surfaces for Microbial Consortia in Wastewater Treatment

  • Ralph J. Portier
Part of the Industry-University Cooperative Chemistry Program Symposia book series (IUCC)

Abstract

Bioprocess technology, in the form of immobilized cells and organelles, is rapidly coming to the forefront in the third industrial revolution, as the platform upon which new “biotech” industries will be based. The number of organic compounds introduced into the environment by humans has increased dramatically in recent years (Pfaender and Bartholomew, 1982). As a consequence of this xenobiotic, i.e., man-made, pollution, the fate of these compounds, such as pesticides, in the environment is an important issue. Of particular concern is disappearance, persistence, and/or partial transformation of such compounds and their potential hazardous effect. While many are readily biodegradable, others have proven to be recalcitrant and persistent in soil and water. In recent years, a great deal of research has been done on the biochemistry and genetics of toxicant-degrading microorganisms. Both the newer literature on biotechnology, and the older literature on industrial microbiology, describe commercial processes in which microorganisms play important roles. Although some bacteria can cause adverse effects, most species are benign, and many are involved in processes of direct benefit to man.

Keywords

Diatomaceous Earth Immobilize Cell Microbial Consortium Citric Acid Production Citric Acid Fermentation 
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. Chakrabarty, A. 1982. Biodegradation and detoxification of environmental pollutants. CRC Press, Inc., Boca Raton, Florida.Google Scholar
  2. Chibata, I. 1979. Immobilized microbial cells with polyacrylamine gel and carageenan, and their industrial applications. American Chemical Symposium Series 106, pp 187–202CrossRefGoogle Scholar
  3. Edgehill, R. U. and R.K. Finn, 1983. Activated sludge treatment of synthetic wastewater containing pentachlorophenol. Biotechnology and Bioengineering, Vol. XXV, pp. 2165–2176.CrossRefGoogle Scholar
  4. Hood, M.A., 1973. Chitin degradation in the salt marsh environment. Ph.D. Dissertation Louisiana State University, Baton Rouge, 158 p.Google Scholar
  5. Lewis, D.L., H. W. Holm and R. E. Hudson, 1984. Application of single and multiphasic Michaelis-Menten kinetics to predictive modeling for aquatic ecosystems. Environ. Toxicology and Chemistry, Vol. 3, pp. 563–574.Google Scholar
  6. Mosbach, R., Koch-Smidt and K. Mosbach, 1976. Immobilization of enzymes to various acrylic copolymers. Enzymol. 44, 53–65.Google Scholar
  7. Mathiasson, B., 1983. Immobilization methods. In Immobilized Cells and Organelles (B. Mattiasson, Ed.) CRC Press, Inc., Boca Raton, Fla., pp. 4–25.Google Scholar
  8. McGhee, J. E. and J. Grant, 1982. Continuous and static fermentation of glucose to ethanol by immobilized Saccharomycetes cerevisiae cells of different ages. Appl. and Environ. Microbiol. 44(1): 19–22Google Scholar
  9. Messing, R.A., Opperman, R.A. and Kolot, F.B., 1979. Pore dimensions for accumulating biomass in Immobilized Microbial Cells, ACS’ Symp. Vol. 106, American Chemical Society, Washington.Google Scholar
  10. Pfaender F.K. and G.W. Bartholomew, 1982. Measurement of aquatic degradation rates by determining heterotrophic uptake of radiolabelled pollutants. Appl. and Environ. Microbiol. 44(1): 159–164Google Scholar
  11. Portier, R.J., 1982. Correlative field and laboratory microcosm approaches in ascertaining xenobiotic fate and effect in diverse aquatic environments. Ph.D. Dissertation, Louisiana State Universtiy, Baton Rouge, 205 pages.Google Scholar
  12. Portier, R.J., H.M. Chen and S.P. Meyers, 1983. Environmental effect and fate of selected phenols in aquatic ecosystems using microcosm approaches. Developments in Indust. Microbiol., Vol. 24, pp. 409–424.Google Scholar
  13. Portier, R.J. and S.P. Meyers, 1984. Coupling of in situ and laboratory microcosm protocols for ascertaining fate and effect of xenobiotics. In. Toxicity Screening Procedures Using Bacterial Systems (D. Liu, B.J. Dutka, Eds.). Marcel Dekker, Inc., New York, pp. 345–379.Google Scholar
  14. Portier, R.J., 1986. Chitin immobilization systems for hazardous waste detoxification and biodegradation. In Immobilization of Ions by Naturally Occurring Materials. (H. Eccles, Editor) Ellis Horwood Limited, Publishers, London. Chapter 6, 230–243.Google Scholar
  15. Portier, RJ., 1987. Enhanced biotransformation and biodegradation of polychlorinated biphenyls in the presence of aminopolysaccharides. American Society for Testing and Materials Special Technical Publication 971, Aquatic Toxicology. 10th volume)., pp503-516Google Scholar
  16. Portier, R.J. A. L. Zoeller and K. Fugisaki, 1990 Remediation of pesticide-contaminated ground water using immobilized microbe biotreatment systems. Remediation., Vol 1, No 1, pp 41–60CrossRefGoogle Scholar
  17. Rosevear, A. 1982. Improvements in or relating to composite materials. Eur Pat Appl 81304001.1Google Scholar

Copyright information

© Springer Science+Business Media New York 1991

Authors and Affiliations

  • Ralph J. Portier
    • 1
  1. 1.Institute For Environmental StudiesLouisiana State UniversityBaton RougeUSA

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