@proceedings {53515,
	title = {Response of Chlamydomonas reinhardtii to naphthenic acid exposure},
	year = {2011},
	note = {IN: Proceedings of the 37th Annual Aquatic Toxicity Workshop October 3-6, 2010 Toronto Ontario.  Fletcher T. D. Holdway D. Simmons M. Dutton and L.E. Burridge (Eds).  Fisheries and Oceans Canada St. Andrews New Brunswick.  Canadian Technical Report of Fisheries},
	month = {10/2010},
	address = {Toronto, ON },
	abstract = {This study examined the feasibility of using a model organism for the algal bioremediation of oil sands process water (OSPW), a highly toxic mixture of sediments, bitumen, ions, and organic and inorganic compounds. Naphthenic acids (NAs) are a contaminant class of particular concern. Bioremediation techniques may mitigate toxicity of OSPW in general, and NAs in particular. Although most studies on the biodegradation of NAs focus on the role of bacteria, fungi, and emergent macrophytes, studies have indicated that algae may also play a key role through direct degradation, biosequestration, or photosynthetic aeration of waters to promote other biological reactions. Chlamydomonas frigida is of particular interest, but no cultures are currently available. Therefore, this study used C. reinhardtii, a well-characterized model organism, to begin analysis of potential algal bioremediation of OSPW. Cultures of C. reinhardtii were grown heterotrophically in nutrient media spiked with a dilution series of NAs. Culture densities were measured to compile growth curves over time, changes in rate of growth, and survivability. Negative ion electrospray mass spectrometry was used to determine the concentration of NAs in solution in relation to growth rate and culture density. The study determined the tolerance of C. reinhardtii to NAs. A mechanism for this tolerance was then proposed.},
	keywords = {Biodegradation, bioremediation, federal government, laboratory, naphthenic acids, tailings water},
	author = {Goff, K. and Headley, J. and Wilson, K.}
}
