(HC)3™ Hydrocracking Technology

Lott, Roger; Lee, Theo; Quinn, Jim

doi:10.2523/98058-ms

Cited by 4 publications

(1 citation statement)

References 1 publication

(1 reference statement)

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“…As for aboveground, several process options have been studied and applied at industrial level to improve the bottom barrel conversion. The main processes are as follows: thermal processing [1][2][3] (delayed coking, fluid coking, flexicoking, visbreaking), hydroprocessing [4][5][6][7] (fixed-bed, ebullating bed, slurry phase), and extractive Processes [8][9][10] (FW solvent deasphalting, Demex). However, all these processes are focused on converting the atmospheric and vacuum oil residues (1000+ °F) to more valuable products such as gasoline, middle distillates and FCC feed stock.…”

Section: Introductionmentioning

confidence: 99%

Effect of CoMo/HSO3-functionalized MCM-41 over Heavy Oil

et al. 2019

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The potential of Co-Mo metals supported on functionalized MCM-41 as catalyst to hydrodesulfurization of heavy oil has been explored in this work. The MCM-41 functionalized sample was synthesized according to methods previously reported in the literature. Co and Mo metals were incorporated into the support by simultaneous impregnation. The catalyst was characterized by specific Surface area and X-Ray Diffraction. The pore channel of MCM-41 was confirmedby transmission electronic microscopy and infra red spectroscopy. Catalytic activity tests were carried out using heavy oil from Gulf of Mexico. The API gravity was increased from 12.5 to 20.2, the kinematics viscosity was decreased from 18,700 to 110 cSt at 298 K, the contents of asphaltene and sulfur were also reduced.

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Section: Introductionmentioning

confidence: 99%

Effect of CoMo/HSO3-functionalized MCM-41 over Heavy Oil

et al. 2019

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Greenhouse gas reduction in oil sands upgrading and extraction operations with thermochemical hydrogen production

Wang¹,

Naterer²

2010

International Journal of Hydrogen Energy

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Novel Deep Eutectic Solvent-Dissolved Molybdenum Oxide Catalyst for the Upgrading of Heavy Crude Oil

Shuwa

Al‐Hajri

Jibril

et al. 2015

Ind. Eng. Chem. Res.

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A MoO 3 /deep eutectic solvent (DES) catalyst precursor solution was prepared by dissolving molybdenum trioxide in a DES based on choline chloride/urea. The catalyst precursor solution was characterized for its physical and chemical properties. The characterization results showed almost no change in the DES properties after the addition of MoO 3 . The solution was used in the catalytic upgrading reaction of heavy crude oil. The performance of the catalyst was analyzed by gas chromatography−mass spectrometry, Fourier transform infrared, and viscosity measurements of the heavy oil before and after the reaction. The use of the catalyst in the catalytic aquathermolysis showed an increase in the oil viscosity. In the presence of hydrogen and catalyst, the results showed a 43% reduction in the heavy oil viscosity, a 2.5°increase in the API gravity, and 32 wt % sulfur reduction.

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(HC)3™ Hydrocracking Technology

Cited by 4 publications

References 1 publication

Effect of CoMo/HSO3-functionalized MCM-41 over Heavy Oil

Effect of CoMo/HSO3-functionalized MCM-41 over Heavy Oil

Greenhouse gas reduction in oil sands upgrading and extraction operations with thermochemical hydrogen production

Novel Deep Eutectic Solvent-Dissolved Molybdenum Oxide Catalyst for the Upgrading of Heavy Crude Oil

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