Senior Projects Conference
Chemical Engineering Presentations
Presentation Schedules and Abstract
Room 212: Join us on Zoom.
1:00 p.m. |
Economic Optimization and Hazard Analysis of a Vacuum Gas Oil Hydrocracker ProcessTeam Members: Hannah Lilly, Mitchell Porche, Brandon Stewart |
1:20 p.m. |
Economic Optimization and Hazard Analysis of a Vacuum Gas Oil Hydrocracker ProcessTeam Members: Christie Johnson, Parker Reneau, Michael Voss |
1:40 p.m. |
Economic Optimization and Hazard Analysis of a Vacuum Gas Oil Hydrocracker ProcessTeam Members: Andrew Montgomery, Tally Moore, Kyle Ypya |
2:20 p.m. |
Economic Optimization and Hazard Analysis of a Vacuum Gas Oil Hydrocracker ProcessTeam Members: Chance Donohue, Elizabeth Ezell, Pravesh Pokhrel |
2:40 p.m. |
Economic Optimization and Hazard Analysis of a Vacuum Gas Oil Hydrocracker ProcessTeam Members: De’Quinton Gie, Darrius Smith, Alex Zayed |
3:00 p.m. |
Economic Optimization and Hazard Analysis of a Vacuum Gas Oil Hydrocracker ProcessTeam Members: Rhett Firmin |
Room 224: Join us on Zoom.
1:00 p.m. |
Economic Optimization and Hazard Analysis of a Vacuum Gas Oil Hydrocracker ProcessTeam Members: Erin Geohegan, Adam Ramachandran, Kacie Stringer, Elizabeth Talbot |
1:20 p.m. |
Economic Optimization and Hazard Analysis of a Vacuum Gas Oil Hydrocracker ProcessTeam Members: Sierra Matthews, Ashley Riddick, Holden Zugger |
1:40 p.m. |
Economic Optimization and Hazard Analysis of a Vacuum Gas Oil Hydrocracker ProcessTeam Members: Clayton Kerek, Austin Wills |
2:20 p.m. |
Economic Optimization and Hazard Analysis of a Vacuum Gas Oil Hydrocracker ProcessTeam Members: Matthew Bullock, Rafael Lopez Martinez, Travis Shaw |
2:40 p.m. |
Economic Optimization and Hazard Analysis of a Vacuum Gas Oil Hydrocracker ProcessTeam Members: Zachary Call, Travis King, Tyler Libert, Jackson McCullough |
Abstract
Economic Optimization and Hazard Analysis of a Vacuum Gas Oil Hydrocracker Process
A vacuum gas oil hydrocracker process was modeled using a number of series and parallel reactions (between 10 to 28) pathways to produce gas (Liquefied Petroleum Gas), naphtha, kerosene, and diesel. The number of real species needed to accurately simulate the respective product fractions was justified based on separator behavior. The kinetics of the reactions were justified from literature data. The system was modeled using the process simulator ChemCAD and priced using cost equations from Turton, Shaeiwitz, Bhattacharyya, and Whiting (2018). Both topological and parametric optimizations were considered. The recycle streams increased the complexity of the simulator significantly but were required to accurately model the concentration build-up in the system. The impact of reactor residence time, temperature, separator recycle purity, and feed ratio on the economics will be presented. Process hazards will be identified and suggestions to mitigate hazards will be presented.