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<br />nl.,{" <br /> <br />Toxicity of Shale Oil to Fish and Food Chain Organisms <br /> <br />.ln 01 I, <br />cnll,lt., <br /> <br />many of the same genera sampled in baseline <br />studies of the oil-shale regions in Colorado (Erman <br />1981; Pollard and Kinney 1979). The taxa common <br />to all studies were the Chironomidae and the genera <br />Ephemerella, Baetis, Rithrogena, Isoperla, Hy- <br />dropsyche, and Hydroptila, Among these, Chirono- <br />midae, Baetis, and Isoperla were selected for study <br />because of their ubiquitous occurrence in field plate <br />samples and their sensitivity to low concentrations <br />of oil. Inasmuch as Baetis and Isoperla were the <br />most sensitive genera, their absence could provide <br />an early warning in the field of the occurrence of <br />low levels (0.5-1.0 mg/L) of shale oil contamina- <br />tion. Although fish mortality would be unlikely at <br />these concentrations, impaired swimming perfor- <br />mance and decreased predator success might be <br />expected. Thus, the use of aquatic insects and fish <br />behavior in this manner may provide a meaningful <br />and realistic means of relating laboratory results to <br />environmental effects monitored in the field. <br />Actual concentrations of hydrocarbon contami- <br />nants in a stream after a pipeline break or acci- <br />dental spill depend on many factors. Under a simu- <br />lated oil spill of 100 mg/L and the conditions <br />presented in this study, an impact on aquatic or- <br />ganisms was observed. The database needs to be <br />expanded, but combined field and laboratory ap- <br />proaches used in the present study provide a tech- <br />nique useful in the field assessment of biological <br />damage from shale oil spills. Benthic organisms <br />avoid stress by drifting; and their relatively slow <br />rate ofrecolonization after stress, gives this assess- <br />lIent technique the advantage of being applicable <br />days after contamination has occurred. A measure <br />''or the degree of contamination could be estimated <br />from the insect species affected, and contaminant <br />stress to higher organisms of more economic or <br />aesthetic value could be predicted. <br /> <br />DIICh <br />01 <br /> <br />[;1\', <br /> <br />~.q <br /> <br />" - <br /> <br />.' ..: <br /> <br />1, ,- <br /> <br />~,' <br />I' <br /> <br />',r <br /> <br />, ' <br /> <br />~ . f. <br /> <br />, , <br /> <br />:' : <br /> <br />S I!\ .. <br /> <br />,till \ \" <br /> <br />)r'_' , <br /> <br />1I1+: <br /> <br />~ C!'It;... <br /> <br />11l1lLT, <br /> <br />lent... I <br /> <br />:~ <br /> <br />cnl II <br /> <br />,Ii <br /> <br />Acknowledgments. We thank Jim Johnson and Bob Knowlton <br />'ilr their respective assistance in chemical analysis and toxicity <br />5ludies of the shale oils, <br /> <br />l'~d .: ~ "- <br /> <br />:ll"<)k" <br />cd I: <br />)lilL: ' <br />II) \\, <br />It:: ! <br />I k,'<I <br /> <br />~"I;.:: ; <br />'3 <br /> <br />References <br />'''l(: <br /> <br />:,.,- <br />American Society for Testing and Materials (1980) Standard <br />practice for conducting acute toxicity tests with fishes, mac- <br />, roinvertebrates, and amphibians, American Society for <br />- Testing Materials Report E-729, Philadelphia, PA, 25 pp <br />,Cada GC, Kenna M (1985) Effectiveness of hydrotreatment in <br />reducing the toxicity of a coal liquefaction product to juve- <br />nile channel catfish, Bull Environ Con tam Toxicol 34:746- <br />. 753 <br /> <br />:toleman WE, Munch JW, Streicher RP, Ringhand HP, Kopfer <br />FC (1984) Identification and measurement of components in <br /> <br />J Ii ~ ' <br /> <br />)::'-~ " ,: <br />s;tlln, ' <br /> <br /> <br />al \..'\:' <br /> <br />i d;illt" <br />'\)11,,1\ <br />lrd , : <br />\, <br />Ire'" I',' <br /> <br /> <br />245 <br /> <br />gasoline, kerosene. and No.2 fuel oil that partition into the <br />aqueous phase after mixing. 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