AIChE Journal · 2011 · 95 citations · 57 references
EngineeringChemical EngineeringPetroleum EngineeringReaction EngineeringReservoir EngineeringThermal AnalysisChemical Kinetics ModelingChemical ThermodynamicsKinetic ModelingShale Oil ReservoirsThermogravimetric AnalysisActivation EnergyActivation Energy AnalysisActivation Energy DeterminationActivation Energy DistributionAlternative FuelsHydrocarbon KineticsKerogen CharacterizationThermogravimetric Data Analysis
Abstract There are significant resources of oil shale in the western United States, which if exploited in an environmentally responsible manner would provide secure access to transportation fuels. Understanding the kinetics of kerogen decomposition to oil is critical to designing a viable process. A dataset of thermogravimetric analysis (TGA) of the Green River oil shale is provided and two distinct data analysis approaches—advanced isoconversional method and parameter fitting are used to analyze the data. Activation energy distributions with conversion calculated using the isoconversional method (along with uncertainties) ranged between 93 and 245 kJ/mol. Root mean square errors between the model and experimental data were the lowest for the isoconversional method, but the distributed reactivity models also produced reasonable results. When using parameter fitting approaches, a number of models produce similar results making model choice difficult. Advanced isoconversional method is better in this regard, but maybe applicable to a limited number of reaction pathways. © 2011 American Institute of Chemical Engineers AIChE J, 2012
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Kerogen origin, evolution and structure
M. Vandenbroucke, Claude Largeau · Organic Geochemistry · 2007 · 1.2K citations
Computational aspects of kinetic analysis
Michael E. Brown, M. Maciejewski, Sergey Vyazovkin et al. · Thermochimica Acta · 2000 · 874 citations
Natural Sciences, Chemical Engineering, Mechanical Engineering +14