A Kinetic Model for Catalytic Cracking of Vacuum Gas Oil Using a Structure-oriented Lumping Method
Rongshu Zhu, Boxiong Shen, Jinyi Liu, X. Chen
Abstract
Rongshu Zhu, Boxiong Shen, Jinyi Liu, X. Chen
Abstract
A kinetic model was proposed to describe fluid catalytic cracking of vacuum gas oil on a molecular level by the structure-oriented lumping method. The structure-oriented lumping method was applied to construct a feedstock matrix and reaction networks. All totaled, 391 kinds of molecules were selected to represent feedstock composition, and a non-linear least squares method was used to calculate the content of each kind of molecule. Sixty-six kinds of reaction rules were established to produce the networks for the reactions of vacuum gas oil. Product distribution and properties can be predicted by the structure-oriented lumping model, which are in good agreement with the experimental data.
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A kinetic model was proposed to describe fluid catalytic cracking of vacuum gas oil on a molecular level by the structure-oriented lumping method. The structure-oriented lumping method was applied to construct a feedstock matrix and reaction networks. All totaled, 391 kinds of molecules were selected to represent feedstock composition, and a non-linear least squares method was used to calculate the content of each kind of molecule. Sixty-six kinds of reaction rules were established to produce the networks for the reactions of vacuum gas oil. Product distribution and properties can be predicted by the structure-oriented lumping model, which are in good agreement with the experimental data.
Key concepts: Fluid catalytic cracking, Raw material, Cracking, Molecule, Matrix (chemical analysis), Kinetic energy, Catalysis, Product distribution