Production of Propylene from Methanol

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Presentation transcript:

Production of Propylene from Methanol Khalid Almansoori, Abdullah Kurdi, Nasser Almakhmari Faculty Advisor: Dr. Jonathan Whitlow, Dept. of Chemical Engineering, Florida Institute of Technology Abstract The goal of this project is to design and simulate a chemical plant that will produce polymer grade propylene. The following proposed production plant is to produce 500,000 tons of propylene annually using methanol as the feed and mordenite zeolite (HMOR) catalyst in the MTP reactor. Simulation of the plant was performed using Aspen Plus V8.8. Block Flow Diagram: Specification: Feed of Methanol = 350,000 kg/hr Propylene Production = 56,624 kg/hr Ethylene Production = 6,586 kg/hr LPG Production = 32,066 kg/hr Gasoline Production = 56,617 kg/hr Equipment ID Name P-101 Pump E-110 Condenser E-101 Vaporizer E-111 Reboiler E-102 Heat Exchanger R-101 DME Reactor E-103 R-102 MTP Reactor E-104 Cooler V-101 Flash Separator E-105 Heater C-101 Compressor E-106 C-102 Multi-stage Compressor E-107 T-101 C4--C5+ Splitter E-108 T-102 Deethanizer Column E-109 T-103 Propylene-LPG Splitter Acknowledgments: Special thanks to Dr. Whitlow, Dr. Tomadakis, and Dr. Brenner for their help. We also extend our gratitude to the rest of the chemical engineering department for their support.

Propylene-LPG Splitter Equipment ID Name P-101 Pump E-101 Vaporizer E-102 Heat Exchanger E-103 E-104 Cooler E-105 Heater E-106 E-107 E-108 Condenser E-109 Reboiler E-110 E-111 E-112 E-113 R-101 DME Reactor R-102 MTP Reactor V-101 Flash Separator C-101 Compressor C-102 C-103 T-101 C4--C5+ Splitter T-102 Deethanizer Column T-103 Propylene-LPG Splitter