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Title | Date | Subject | Description |
301 |
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Investigation of the ROPE® process performance on Sunnyside tar sand | 1990-07 | ROPE process; Sunnyside tar sand; Western Research Institute; WRI; recycle oil pyrolysis and extraction process; in situ recovery process economics; tar sand | Western Research Institute (WRI) is developing the Recycle Oil Pyrolysis and Extraction (ROPE®) process. Results to date indicate that this process could assist existing surface recovery process economics by producing higher yields of feedstocks from tar sand for the production of unleaded gasoline... |
302 |
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Investigative approach to address thermoacoustic vibration in gas-fired heaters and boilers | 2022 | | Industrial gas-fired boilers, furnaces and heaters occasionally encounter low-frequency vibrations generated by dynamic feedback between the burner (or burners) and acoustic modes in adjacent cavities in the main combustion chamber or ductwork. Feedback occurs when pressure pulses associated with ac... |
303 |
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Ion chromatographic analysis of oil shale leachates | 1990-10-01 | ion chromatography; oil shale leachates; anions | Ion chromatography can be used for the rapid separation and determination of ions in aqueous solutions that would otherwise require a plethora of classical wet chemical techniques. Ion chromatography is finding increasing use in environmental analysis as well as the petroleum and fossil fuel industr... |
304 |
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Is tar sand development part of our future? | 1995-04 | tar sand development; tar sand; oil production | What a difference a decade makes. It has been almost 10 years since the last of several attempts to produce oil from the tar sands at Asphalt Ridge near Vernal, Utah. The only activity since that time has been mining the tar sand for road repair and paving material. The problem is not availability, ... |
305 |
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Isothermal pyrolysis and char combustion of oil shales | 1988-02-03 | isothermal pyrolysis; char combustion; oil shale; hydrocarbon product formation; flash-pyrolysis oil | Yields and rates of hydrocarbons evolved during pyrolysis of oil shales have been measured with improved accuracy. Green River and New Albany oil shales were heated in a fluidized sand bed, and volatile pyrolysis products were transferred to a combustion tube and burned. Resulting H20 and C02 were d... |
306 |
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Issues of fertility in Utah | 1988-08 | | The recent decline in births in Utah has generated much interest. Local newspapers have reported the decline and speculated about possible reason, and demographic researchers have struggled to explain the trend. The question is why, after 15 years of increases, did births begin to decline in the ear... |
307 |
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Kerogen oil value enhancement research | 2002-05-22 | Kerogen; Kerogen oil; oil value enhancement; pure compounds; broad range concentrates; sweet refinery feedstock. | Three general categories of products from the Estonia Kukersite kerogen oil were defined: pure compounds, broad range concentrates, and sweet refinery feedstock. Product development and market research center on these three categories. Further attempts were made to identify and test chemical approac... |
308 |
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Kinetics of Colorado oil shale pyrolysis in a fluidized-bed reactor | 1985-05 | kinetics of Colorado oil shale pyrolysis; fluidized-bed reactor; oil shale pyrolysis; oil shale; hydrocarbon evolution | The hydrocarbon evolution data of Richardson et al. (1982) is reanalyzed to determine improved rate expressions for oil generation from Colorado oil shale under rapid pyrolysis conditions. Contributions from low molecular weight gases are subtracted from flame ionization detector data to obtain the ... |
309 |
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Labor force participation rates | 1970 | | |
310 |
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Laboratory and modeling investigation of a Colorado oil-shale block heated to 900°C | 1979-12 | modeling investigation; Colorado oil-shale block; oil shale; retorting; in-situ retort | A cylinder of oil-shale, 17.2 by 17.0 cm diameter, was heated in a retort from 23 to 900°C at a rate of 18°C h-1. Total mass loss, oil yield and evolution of individual products are monitored. A one-dimensional model is developed to simulate the heating of the cylinder of oil-shale and the chemist... |
311 |
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Lands with wilderness characteristics, Resource Management Plan constraints, and land exchanges: Cross-jurisdictional management and impacts on unconventional fuel development in Utah's Uinta Basin | 2012-03 | Utah oil shale; oil sands; unconventional fuel resources; land exchanges; land rights | Utah is rich in oil shale and oil sands resources. Chief among the challenges facing prospective unconventional fuel developers is the ability to access these resources. Access is heavily dependent upon land ownership and applicable management requirements. Understanding constraints on resource acce... |
312 |
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Lawrence Livermore National Laboratory oil shale | 1983-08-09 | oil shale; oil shale project; pyrolysis; quarterly report. | Our general chemical kinetic model for oil shale pyrolysis has been further developed. The reactions included in tne model are primary pyrolysis of kerogen, vaporization of liquid oil, coking of liquid oil, hydrogenation of liquid oil, cracking of liquid oil, cracking of oil vapor, secondary and ter... |
313 |
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Lawrence Livermore National Laboratory oil shale (May 1989) | 1989-05 | isothermal pyrolisis kinetics; dust; oil shale; oil generation; micropyrolysis | I. Isothermal Pyrolysis Kinetics. II. Dust. |
314 |
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Lawrence Livermore National Laboratory oil shale (Oct 1988) | 1988-10 | Pyrolzer reactions; oil shale; pyrite decomposition; Green River Formation oil shale; water vapor concentrations in oil shale | I. Secondary Reactions in the Pyrolzer, H2S Release from Devonian Oil Shale. II. Pyrite Decomposition in Oil Shale. III. More on Organic/Inorganic Nitrogen in Green River Formation Oil Shale. IV. Fast and Accurate Measurements of Water Vapor Concentrations. V. References. |
315 |
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Lawrence Livermore National Laboratory oil shale project (Apr 1986) | 1986-04 | ammonia evolution; triple quadruple mass spectrometer; biomaker identification; oil shale; ammonia emissions | I. Ammonia Evolution. II. Development of the Use of a Triple Quadruple Mass Spectrometer as an On-Line Ammonia Monitor. III. Biomarker Identification by TQMS Improved by Artificial-Intelligence Tuning, IV. Products from Contact of Oil Shale with Reactive Gases. |
316 |
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Lawrence Livermore National Laboratory oil shale project (Feb 1985) | 1985-02 | retort modeling; Retort Oil Collection System; pyrolysis gas; oxidized oil shale; oil shale | I. Retort Modeling. II.Toulene to be Used in Retort Oil Collection System. III. Sulfur Species in Pyrolysis Gas by Triple Quadruple Mass Spectrometry. IV. Rate of Reaction of Oxidized Oil Shale with Hydrogen Sulfide. V. Visitors. |
317 |
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Lawrence Livermore National Laboratory oil shale project (Jul 1986) | 1986-07 | enthalpy relations; oil shale; chemical reaction modeling; generic pyrolysis modeling; heat capacities for oil shale | I. Enthalpy Relations for Oil Shale. II. Chemical Reaction Modeling. III. Generic Pyrolysis Modeling. |
318 |
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Lawrence Livermore National Laboratory oil shale project (Jun 1982) | 1982-06-04 | oil shale; retorted shale; retort modeling; oil hold up; fluidized-bed pyrolysis; saline zone oil shale; recycle chemistry | I. Fluidized-bed Combustion of Retorted Shale. II. Retort Modeling. III. Oil Holdup. IV. Fluidized-bed Pyrolysis. V. Saline Zone Oil Shale. VI. Biological Markers for Retort Diagnostics. VII. Recycle Chemistry. VIII. The Application of Triple Quadruple MS/MS (TQMS) to the Determination of Trace Sulp... |
319 |
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Lawrence Livermore National Laboratory oil shale project (Jun 1984) | 1984-06 | oil shale processing; solids-recycle retort system; sulfur gas analysis; oil shale; sulfur and nitrogen in oil shale; above ground retorting | I. Sulfur and Nitrogen in Oil Shale Processing. II Initial Operation of the Solids-Recycle Retort System. III. Sulfur Gas Analysis by Triple Quadruple Mass Spectrometry. IV. Retort Modeling. V. Publications and Presentations. VI. Visitors. |
320 |
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Lawrence Livermore National Laboratory oil shale project (Jun 1987) | 1987-06 | isomerization of alkenes; shale oil by kaolinite; oil shale enthalpy relations; fluid-bed pyrolzer; retorting; oil shale | I. Isomerization of Alkenes in the Shale Oil by Kaolinite. II. Oil Shale Enthalpy Relations. III. Simulation of Fluid-bed Pyrolzer/Lift-pipe Combustor Retort. IV. Yields from the Cross-swept, Packed-bed Pyrolzer Depend on Sweep, Run Conditions, and Shale Type |
321 |
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Lawrence Livermore National Laboratory oil shale project (Mar 1987) | 1987-03 | n-Butane pyrolysis; Ammonia from pyrolysis; Devonian oil shale; oil shale; dust | I. Dust. II. Pyrolysis of n-Butane. Ammonia from Pyrolysis of Devonian Oil Shale. |
322 |
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Lawrence Livermore National Laboratory oil shale project (May 1985) | 1985-05 | oil shale; inorganic nitrogen; retort modeling | I. Determination of Inorganic Nitrogen in Shale II. Retort Modeling III. Reduced Volume Sampling System Installed on Triple Quadruple Mass Spectrometer IV. Visitors V. Publications |
323 |
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Lawrence Livermore National Laboratory oil shale project (Nov 1981) | 1981-11-02 | gas-combustion retort system; flowsheet data; retort model | A preliminary process flowsheet for a commercial-size, aboveground, countercurrent, gas-combustion retort system has been developed. Flowsheet data are based on an overall mass and energy balance code which uses the Lawrence Livermore National Laboratory one-dimensional retort model in conjunction w... |
324 |
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Lawrence Livermore National Laboratory oil shale project (Nov 1983) | 1983-11 | oil shale; pyrolysis on sulfer gases; nitric oxide formation; sulfur gas production | I. Effect of Pyrolysis Conditions on Sulfur Gases. II. Nitric Oxide Formation During Combustion. III Process Modeling. |
325 |
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Lawrence Livermore National Laboratory oil shale project (Nov 1984) | 1984-11 | retort modeling; oil shale; sulfur containing gases; TQMS; recycle gas | I. Retort Modeling. II. Sulfur Containing Gases by Triple Quadruple Mass Spectrometer (TQMS), both Grab and On-Line Analysis. III. Visitors. |