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TitleDateSubjectDescription
126 Core-based integrated sedimentologic, stratigraphic, and geochemical analysis of the oil shale bearing Green River Formation, Uinta Basin, Utah2011-04Utah; Green River Formation; Lake Uinta; Mahogany zone; Lake evolution; Oil shale development; Uinta BasinAn integrated detailed sedimentologic, stratigraphic, and geochemical study of Utah's Green River Formation has found that Lake Uinta evolved in three phases 1) a freshwater rising lake phase below the Mahogany zone, 2) an anoxic deep lake phase above the base of the Mahogany zone and 3) a hypersali...
127 Coring and testing wells Asphalt Ridge, Utah1957-10-21A second well was cored and some injection and production tests were made using this well and the well that already existed on Gulf's Palmer lease at Asphalt Ridge, Utah. The formation that has been tested is the Duchesne River, which is more lenticular and erratic than the Mesa Verde which contains...
128 CRS report for Congress: Developments in oil shale2008-11-17Green River; Oil shale formation; Colorado; Utah; Wyoming; Oil; Oil shale; Diesel; Jet fuel; Department of Energy; DOE; Synthetic fuels; Petroleum; Energy Policy Act of 2005; EPAct; BLM; Oil research, development, and demonstration; RD&D; Programmatic Environmental Impact Statement; PEIS; Oil shale ...The Green River oil shale formation in Colorado, Utah, and Wyoming is estimated to hold the equivalent of 1.38 trillion barrels of oil equivalent in place. The shale is generally acknowledged as a rich potential resource; however, it has not generally proved to be economically recoverable. Thus, it ...
129 Current activity in oil production from U.S. tar sands1979-06-12Oil Production; U.S. tar sands; UNITAR; Oil shale; Tar sands; Utah; Oil recovery; Heavy oil; Gas; Hydrocarbon material; Viscous crudes; Oil deposits; Texas; California; New Mexico; KentuckyIn a 1978 paper "Important for the Future" issued by UNITAR, reference was made to a quotation from a study by Resources for the Future, entitled "Energy in the American Economy: 1850-1975," by Messrs. Schurr and Netschert. The quotation is: "Relatively simple calculations of the volume of oil shale...
130 Definition and world resources of natural bitumens1990Natural bitumens, semisolid or solid mixtures of hydrocarbons and as much as 50 percent heterocyclic compounds, are composed largely of carbon and hydrogen but have substituents of nitrogen, oxygen, sulfur, and trace metals, especially iron, nickel, and vanadium. Bitumens are soluble in organic solv...
131 Depositional setting and preliminary oil-shale resource potential, southwestern Uinta Basin, Utah1982Oil shale; Uinta Basin; Utah; Green River; Oil yield; Lake Uinta; Mohogany zone; Kerogen; Sheep Pass; Elko Basins; Nevada; Strawberry Structure; Strawberry ReservoirThis report characterizes the potential oil-shale resources underlying those lands west of the Green River in the southwestern Uinta Basin, Utah. The principal evaluation technique has been the calculation of oil yield from oil-well sonic and density log data available in this area. Subsurface corre...
132 Determination of oil shale potential Green River Formation, Uinta Basin northeast Utah1967-11-03
133 Determination of sulfur anions in spent oil shale leachates by ion chromatography1989-07The leaching and transport of chemical constituents from spent oil shale disposal areas is an area of environmental concern at the present time. Sulfur-containing compounds are prevalent in spent oil shales and have the potential to leach into aqueous systems surrounding disposal sites. Computer mod...
134 Determination of the major elements and trace metals present in bitumen from several tar sand deposits1985-01The results of the analyses of 14 tar sand samples for the concentration of major elements and trace metals are presented. Ten samples were obtained from the Uinta Basin of Utah, three from the southeastern part of Utah, and one from New Mexico. In general, the major element composition of the bitum...
135 Development of an inclined liquid fluidized bed for tar sand processing1989-12An inclined liquid fluidized-bed reactor (ILFBR) system has been developed and successfully operated for 24 hours. Modifications to the previously tested ILFBR systems include incorporation of a oil fluidizing zone in the front of the fluid bed, an increase in the angle of the fluid bed to -12 (the ...
136 Development of the IIT Research Institute RF heating process for in situ oil shale/tar sand fuel extraction--an overview1981-04The history and current status of development of IITRI's RF process for in situ oil shale/tar sand fuel extraction is described . A brief description of the salient features of IITRI's RF process is given, together with a review of past laboratory development activities. Activities with in IITRI's ...
137 Development of Utah tar sands--a status report1977The hydrocarbon resource locked in Utah's tar sands has been estimated to be in excess of 25 billion barrels. Tar sands, known variously as oil sands, bituminous sandstone, or oil-impregnated sandstone, cannot be recovered by conventional primary or secondary petroleum recovery techniques because of...
138 Diagenetic and burial history of the Lower Permian White Rim Sandstone in the Tar Sand Triangle, Paradox Basin, southeastern Utah1995Subsurface petrologic study and burial history reconstruction of the Lower Permian White Rim Sandstone in the Tar Sand triangle on the western edge of the Paradox Basin in southeastern Utah suggest that oil migrated into White Rim reservoirs after significant burial during the early Tertiary. Primar...
139 Digitized log file, API Number 43013104202009This log was digitized by the Utah Geological Survey from image files (.tiff) compiled by the Utah Division of Oil, Gas, and Mining
140 Digitized log file, API Number 43013104842009This log was digitized by the Utah Geological Survey from image files (.tiff) compiled by the Utah Division of Oil, Gas, and Mining
141 Digitized log file, API Number 43013107562009This log was digitized by the Utah Geological Survey from image files (.tiff) compiled by the Utah Division of Oil, Gas, and Mining
142 Digitized log file, API Number 43013107572009This log was digitized by the Utah Geological Survey from image files (.tiff) compiled by the Utah Division of Oil, Gas, and Mining
143 Digitized log file, API Number 43013108212009This log was digitized by the Utah Geological Survey from image files (.tiff) compiled by the Utah Division of Oil, Gas, and Mining
144 Digitized log file, API Number 43013108232009This log was digitized by the Utah Geological Survey from image files (.tiff) compiled by the Utah Division of Oil, Gas, and Mining
145 Digitized log file, API Number 43013108982009This log was digitized by the Utah Geological Survey from image files (.tiff) compiled by the Utah Division of Oil, Gas, and Mining
146 Digitized log file, API Number 43013110872009This log was digitized by the Utah Geological Survey from image files (.tiff) compiled by the Utah Division of Oil, Gas, and Mining
147 Digitized log file, API Number 43013201002009This log was digitized by the Utah Geological Survey from image files (.tiff) compiled by the Utah Division of Oil, Gas, and Mining
148 Digitized log file, API Number 43013201792009This log was digitized by the Utah Geological Survey from image files (.tiff) compiled by the Utah Division of Oil, Gas, and Mining
149 Digitized log file, API Number 43013202462009This log was digitized by the Utah Geological Survey from image files (.tiff) compiled by the Utah Division of Oil, Gas, and Mining
150 Digitized log file, API Number 43013202692009This log was digitized by the Utah Geological Survey from image files (.tiff) compiled by the Utah Division of Oil, Gas, and Mining
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