Energy & Fuels · 2010 · 109 citations · 19 references
EngineeringChemical EngineeringMaterials EngineeringCatalysisEnhanced Oil RecoveryReaction EngineeringCatalyst DesignCatalytic MaterialsCatalytic Reaction EngineeringChemical Enhanced Oil RecoveryIndustrial CatalysisSupported CatalystsBitumen CompositionBitumen Viscosity ReductionCatalytic UpgradingCoke FormationIn-situ UpgradingResidue ConversionTotal PressureViscosity
NiWMo submicronic catalysts from emulsified metallic aqueous solutions were tested for Athabasca bitumen upgrading. The experiments were performed in a batch reactor (100 mL capacity) at a total pressure of 3.45 MPa, a stirring speed of 500 rpm, reaction times of 3−70 h, and temperatures from 320 to 380 °C. Ultradispersed (UD) catalysts enhanced the upgrading of Athabasca bitumen by increasing the hydrogen/carbon ratio and reducing both viscosity and coke formation. The conversion of bitumen increased with both the temperature and reaction time, whereas viscosity, sulfur, and microcarbon residue (MCR) in the reaction products decreased. Catalytic particles tend to agglomerate and become incorporated within the incipient coke matrix that develops at a residue conversion beyond 50 wt %. Nevertheless, good properties of upgraded oil (API gravity, 16°; viscosity at 40 °C, 60 cP; and MCR, 11.1 wt %) are obtained during processing before the onset of solids precipitation.
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Petroleum residue upgrading with dispersed catalysts
N. Panariti, A. Del Bianco, G. Del Piero et al. · Applied Catalysis A General · 2000 · 151 citations
Natural Sciences, Chemical Engineering, Petroleum Engineering +12
Thermal cracking of petroleum residues
A. Del Bianco, N. Panariti, M. Anelli et al. · Fuel · 1993 · 110 citations
Petroleum residue upgrading with dispersed catalysts
N. Panariti, A. Del Bianco, G. Del Piero et al. · Applied Catalysis A General · 2000 · 110 citations
Natural Sciences, Chemical Engineering, Petroleum Engineering +12