Laboratory studies of oil spill bioremediation; Toward understanding field behavior

R. C. Prince(ExxonMobil (Germany)), Stephen Hinton(ExxonMobil (Germany)), David L. Elmendorf(ExxonMobil (Germany)), James R. Lute(ExxonMobil (Germany)), Matthew J. Grossman(ExxonMobil (Germany)), Winston K. Robbins(ExxonMobil (Germany)), Chang Samuel Hsu(ExxonMobil (Germany)), Benedict Richard(ExxonMobil (Germany)), Copper E. Haith(ExxonMobil (Germany)), James D. Senius(ExxonMobil (Germany)), V. Minak-Bernero(ExxonMobil (Germany)), Russell R. Chianelli(ExxonMobil (United States)), James R. Bragg(ExxonMobil (United States)), Gregory S. Douglas(Battelle)
Preprints - American Chemical Society. Division of Petroleum Chemistry
December 31, 1993
Cited by 5

Abstract

Oil spill remediation aims to enhance the natural process of microbial hydrocarbon biodegradation. The microbial foundations have been studied throughout this century, but the focus of most of this work has been on the degradation of well defined compounds by well defined microbial species. This paper addresses laboratory studies on crude oil biodegradation by microbial consortia obtained from oiled beaches in Prince William Sound, Alaska following the spill from the Exxon Valdez. It demonstrates that oil degradation is indeed likely to be nitrogen-limited in Prince William Sound, the different molecular classes in crude oil that are subjected to biodegradation, the identification of conserved species in the oil that can be used for assessing biodegradation and bioremediation in the field, the effectiveness of fertilizers in stimulating sub-surface biodegradation, the role of the olephilic fertilizer Inipol EAP22, and the identification of the oil-degrading microorganisms in Prince William Sound. Together, these laboratory studies provided guidance and important insights into the microbial phenomena underlying the successful bioremediation of the oiled shorelines.


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