1st Edition
Modeling of Processes and Reactors for Upgrading of Heavy Petroleum
Part I Properties and Upgrading of Heavy Oils
Heavy Petroleum
Definition
Classification
Properties
Assay of Heavy Petroleum
Problems during Upgrading and Refining of Heavy Petroleum
Technologies for Upgrading of Heavy Petroleum
General Classification
Current Situation of Residue Upgrading
Hydrogen Addition Technologies
Carbon Rejection Technologies
Emerging Technologies
Combination of Upgrading Technologies
Combination of Both Hydrogen Addition and Carbon Rejection Technologies
Part II Modeling of Noncatalytic Processes
Modeling of Visbreaking
Introduction
Process Description
Types of Visbreaking
Process Variables
Chemistry
Kinetics
Reactor Modeling
Modeling of Gasification
Introduction
Types of Gasifiers
Process Variables
Process Description
Chemistry and Thermodynamics
Modeling of the Gasifier
Simulation of the Gasifier
Modeling of Coking
Introduction
Coking Processes
Process Description
Process Variables
Fundamentals of Coking
Kinetics of Coking
Correlations to Predict Coking Yields
Noncatalytic (Thermal) Hydrotreating
Introduction
Experimental
Results and Discussion
Part III Modeling of Catalytic Processes
Modeling of Catalytic Hydroprocessing
Introduction
Process Description
Types of Reactors
Fundamentals
Process Variables
Modeling of Hydrotreating of Heavy-Oil-Derived Gas Oil
Modeling and Simulation of Heavy Oil Hydroprocessing
Introduction
Description of the IMP Heavy Oil Upgrading Technology
Experimental Studies
Modeling Approach
Data Fitting
Simulation of the Bench-Scale Unit
Scale-Up of Bench-Unit Kinetic Data
Simulation of the Commercial Unit
Modeling of Bench-Scale Reactor for HDM and HDS of Maya Crude Oil
Introduction
The Model
Experimental
Results
Modeling of Ebullated-Bed and Slurry-Phase Reactors
Introduction
Characteristics of Ebullated-Bed Reactor
EBR Commercial Technologies
Modeling of Ebullated-Bed Reactor
Modeling of Slurry-Phase Reactors
Kinetic Study for Hydrocracking of Heavy Oil in CSTR
Final Remarks
Modeling of Hydrocracking by Continuous Kinetic Lumping Approach
Introduction
Continuous Kinetic Lumping Model
Experimental
Step-By-Step Example for Application of The Model
Modeling Hydrocracking of Maya Crude Oil
Modeling the Effect of Pressure and Temperature on the Hydrocracking of Maya Crude Oil
Modeling Simultaneous HDS and HDC of Heavy Oil
Significance of Parameters of Continuous Kinetic Lumping Model
Correlations and Other Aspects of Hydroprocessing
Correlations to Predict Product Properties during Hydrotreating of Heavy Oils
Hydrogen Consumption during Catalytic Hydrotreating
Real Conversion and Yields from Hydroprocessing of Heavy Oils Plants
Calculation of Fresh-Basis Composition from Spent Catalyst Analysis
Use of Probability Distribution Functions for Fitting Distillation Curves of Petroleum
Biography
Jorge Ancheyta is Research and Development Project Leader at the Mexican Institute of Petroleum (IMP). He works on the development and application of petroleum refining catalysts, kinetic and reactor models, and process technologies—mainly in catalytic cracking, catalytic reforming, middle distillate hydrotreating, and heavy oils upgrading.






