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26 Clean and secure energy from domestic oil shale and oil sands resources: Quarterly progress report: July 2012 to September 20122012-10ICSE; Kerogen liquefaction; Oil shale thermal treatment; Trondheim, Norway; Statoil; Uinta Basin; Greenhouse gases; Well drilling; White River oil shale samples; Demineralized kerogen pyrolysis; Oil shale; Char; American Shale Oil; AMSO; Genie Energy; TOTALThe Clean and Secure Energy from Domestic Oil Shale and Oil Sands Resources program is part of the research agenda of the Institute for Clean and Secure Energy (ICSE) at the University of Utah. In its outreach efforts this quarter, ICSE finalized materials for a short course on kerogen liquefaction ...
27 Clean and secure energy from domestic oil shale and oil sands resources: Quarterly progress report: July 2013 to September 20132013Quarterly progress report; July 2013 to September 2013; DE-FE0001243; CO2 management; oxyfiring; CO2 capture; Unconventional fuels; Uinta Basin; Utah; Oil shale; Oil sands; Greenhouse gas control; NER; NEER; GHG; In situ; Ex situDisclaimer: "This report was prepared as an account of work sponsored by an agency of the United States Government. Neither the United States Government nor any agency thereof, nor any of their employees, makes any warranty, express or implied, or assumes any legal liability or responsibility for th...
28 Clean and secure energy from domestic oil shale and oil sands resources: Quarterly progress report: October 2009 to December 20092010-02-03ICSE; Clean and Secure Energy program; CASE; Itasca Group; Red Leaf Resources; Enshale's; Vernal, Utah; oxy-fuel; CO2 capture; Oil shale; Oil sands; Crude oil; CO2 emissions; International Flame Research Foundation; Pyrolysis; Lattice Boltzmann; Kerogen; Oil recovery simulation; TGA; Dry shale; Pyro...The Clean and Secure Energy from Domestic Oil Shale and Oil Sands Resources program is part of the research agenda of the Institute for Clean and Secure Energy (ICSE) at the University of Utah. The program was officially launched on October 1, 2009. The project management plan was submitted for revi...
29 Clean and secure energy from domestic oil shale and oil sands resources: Quarterly progress report: October 2010 to December 20102011-01ICSE; Oil shale; Oil sands; University of Utah; Marriott Library; Macroscale CO2 analysis; CO2 capture; Flameless oxy-gas process heaters; Liquid fuel production; In-situ thermal processingThe Clean and Secure Energy from Domestic Oil Shale and Oil Sands Resources program is part of the research agenda of the Institute for Clean and Secure Energy (ICSE) at the University of Utah. In this quarter, the Clean and Secure Energy program circulated External Advisory Board recommendations an...
30 Clean and secure energy from domestic oil shale and oil sands resources: Quarterly progress report: October 2012 to December 20122013-01ICSE; Oil shale; oil sands; CO2 management; Uinta Basin; Liquid fuel production; In-situ thermal processing; White River oil shale; Green River Formation; American Shale Oil; AMSO; X-ray flourescence; Pyrolysis; Demineralized kerogenThe Clean and Secure Energy from Domestic Oil Shale and Oil Sands Resources program, part of the research agenda of the Institute for Clean and Secure Energy (ICSE) at the University of Utah, is focused on engineering, scientific, and legal research surrounding the development of these resources in ...
31 Clean and secure energy from domestic oil shale and oil sands resources: Quarterly progress report: October 2013 to December 20132014ICSE; Quarterly report; Clean and secure energy; Oil shale; Oil sands; Uinta Basin; CO2 management; AMSO; Greenhouse gas control; Shale formation; In situ; Ex situ; TEA-CEXECUTIVE SUMMARY The Clean and Secure Energy from Domestic Oil Shale and Oil Sands Resources program, part of the research agenda of the Institute for Clean and Secure Energy (ICSE) at the University of Utah, is focused on engineering, scientific, and legal research surrounding the development of t...
32 Coking contaminated oil shale or tar sand oil on retorted solid fines1985-03-26Patent; Heavy oil; Oil shale; Tar sand oil; Coking; Pyrolysis oil vapors; Retorted solid fines; Pyrolysis oil; Inert stripping gas; Coking contaminatedHeavy oil fraction of pyrolysis oil vapors containing concentrated contaminants is coked on retorted fine solids contained in a coking zone separate from a retorting vessel characterized by the presence of an inert stripping gas of a rate sufficient to lower the dew point of the pyrolysis oil.
33 Commercial oil shale leasing under the energy policy act: An analysis of when, where, and how2008-03-12Oil shale; Oil sands; PEIS; EPA; BLM; FLPMA; RD&D; Research, Demonstration, & Development; Tar sands; Utah; Colorado; WyomingDiscussion of the alternatives for oil shale development outlined in the Draft Programmatic Environmental Impact Statement issued by the Bureau of Land Management.
34 Conjunctive surface and groundwater management in Utah: Implications for oil shale and oil sands development2011-12-31Unconventional fuel development; Conjunctive water use; Surface water; Groundwater; Utah; Utah water law; Oil shale; Oil sandsUnconventional fuel development will require scarce water resources. In an environment characterized by scarcity, and where most water resources are fully allocated, prospective development will require minimizing water use and seeking to use water resources in the most efficient manner. Conjunctive...
35 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 ...
36 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...
37 Depositional heterogeneity and fluid flow modeling of the oil shale interval of the Upper Green River Formation, Eastern Uinta Basin, Utah2008-03-12Green River Formation; Eastern Uinta Basin; Utah; Oil shale; Sedimentology; Sequence stratigraphy; Mahogany zone; Depositional heterogeneity; Fluid flow modelingDiscussion of depositional and sequence stratigraphic characterization of the upper Green River Formation based on core and well log correlation and production modeling of the richest zone (Mahogany) based on sedimentological and other information.
38 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...
39 Economic impacts of U.S. liquid fuel mitigation options2006-07-08Oil; Oil shortages; United States dependence on oil imports; Energy Security; Vehicle fuel efficiency (VFE); Coal liquefaction; Coal-to-liquids (CTL); Oil shale; Enhanced oil recovery (EOR); Oil peaking; Liquid fuelsThe world is consuming more oil than it is finding, and at some point within the next decade or two, world production of conventional oil will likely peak. Peaking will lead to shortages and greatly increased prices and price volatility. In addition to peaking and its consequences, there are widespr...
40 Ecoshale: Environmental alternative fuels2008-11-13Unconventional fuel; Oil industry; Oil shale; Utah; Colorado; Wyoming; Tar sand; Red Leaf; Duchesne County; Uintah Basin; Carbon County; Emery County; Grand County; Ecoshale; In-capsule process; Kerogen; Alternative Fule; Environmental; In-capsule; Economic
41 Energy resources map of Utah (no. 68)1983-05Map 68; Utah; Energy Resources map; Gilsonite; Oil shale; Oil-impregnated rock; Geology; Oil and natural gas
42 Microstructural distribution of sulfur during the retorting and oxidation of oil shale1982-11Oil shale; Retorting; Combustion; Sulfur; Microstructural distributionWe report here the first direct observations of the mineralogical and chemical changes in oil shale caused by retorting and combustion. Electron microprobe and scanning electron microscopy techniques were used to examine a portion of the surface area of a sample in the raw shale state, the same area...
43 Mineralogy of oil shale in the upper part of Parachute Creek member of the Green River Formation in the Eastern Uinta Basin, Utah1976Parachute Creek; Green River Formation; Uinta Basin; Utah; X-ray diffraction; Oil shale; Curly bed; Wavy bed tuffs; Mahogany zone; Naval Oil Shale Reserve No. 2; Federal Prototype Oil Shale Leas Tract Ua; Smectite; MineralogyThe relative abundance and distribution of major and minor minerals have been determined by X-ray diffraction for samples of Green River Formation oil shale in three drill cores from the eastern part of the Uinta Basin, Utah. The samples in each core are from the same rock stratigraphic interval bet...
44 Oil and gas evolution kinetics for oil shale and petroleum source rocks determined from pyrolysis-TQMS data at multiple heating rates1991-11Evolution kinetics; Oil shale; Petroleum source rocks; Pyrolysis-TQMS data; Programmed-temperature pyrolysis; Triple-quadrupole mass spectrometry; Hydrous pyrolysisSeven oil shales and petroleum source rocks were subjected to programmed-temperature pyrolysis at heating rates of 1 and 10 °C/min using triple-quadrupole mass spectrometry to monitor volatile compound evolution. Kinetic parameters were determined for evolution of hydrocarbons and various heteroato...
45 Oil shale project run summary, large retort: Run L-11981-11-23Oil yield loss; Combustion retorting; Oil shale; Rubble bed; Run L-1; Lawrence Livermore National LaboratoryThe overall goals were to study oil yield loss and operating characteristics in combustion retorting of a rubble bed with physical characteristics comparable to some of those anticipated in field retorts. Shale particle size range and bed porosity were the two parameters selected for simulation (alo...
46 Oil shale project run summary, large retort: Run L-21981-08-10Oil shale; Retorting behavior; Modified in-situ combustion retorting; MIS; Lawrence Livermore National LaboratoryA. Run Objective. To determine the retorting behavior of individual oil shale blocks in a shale rubble matrix during simulated modified in-situ (MIS) combustion retorting. B. Conclusions. The interiors of large particles are delayed in retorting (compared to a surrounding matrix of small particles) ...
47 Oil shale project run summary, small retort: Run S-241981-10-07Oil shale; MIS; Modified in-situ oil shale retorting; Lawrence Livermore National LaboratoryA. Objective. Previous Lawrence Livermore National Laboratory pilot retort experiments, simulating modified in-situ (MIS) oil shale retorting, have employed relatively high (1-3 m/day) retorting rates. Such rates not only would have an obvious commercial economic advantage but, in pilot retort trial...
48 Oil shale project run summary, small retort: Run S-71981-12-11Oil shale; Combustion run; Retorting; Lawrence Livermore National LaboratoryRun S-7 went smoothly except for loss of nitrogen flow for a short period early in the run. The thermal front developed rapidly and appeared to travel through the bed in a stable and uniform fashion. The exit gas composition stayed relatively constant for most of the last 3/4 of the run. The traveli...
49 Oil shale report run summary, small retort: Run S-191981-04Retort performance; Oil shale; Lawrence Livermore National LaboratorySmall retort run S-19 was designed to demonstrate the effects of increased steam rate on retort performance. Reduction in peak temperatures and possibly greater separation of the retort and combustion zones were expected. Greater oil yield (reduced oil losses) and more effective use of process heat ...
50 Organic and pyritic sulfur determination in oil shale1983-03-01H2S; Pyritic sulfur; Oil shale; Kentucky; Ohio; Colorado; Utah; Wyoming; Oil shale deposits; SulfurSulfur forms in oil shale are defined according to their reduction rates to H2S in the presence of hydrogen-donor solvents. A linear increase in temperature with time is applied to a reaction system of oil shale and hydrogen-donor solvents. The different temperatures at which H2S is detected corresp...
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