MODELING AND SIMULATION OF GAS DEHYDRATION USING CUBIC PLUS ASSOCIATION EQUATION OF STATE MODEL

Authors

Chemical Engineering Department, Minya University, Egypt

Abstract

         Dehydration process is an important focal unit in offshore gas processing to avoid industrial problems accompanied by hydrated gas processing and pipeline transport system such as corrosion and hydrates formation. The gas dehydration process has been entirely simulated and optimized in Aspen HYSYS V8.8 using cubic plus association equation of state thermodynamic package and compared to the simulation results obtained by using glycol package which is developed particularly for gas dehydration modeling. 

Keywords

Main Subjects


[1]        Aspentech, NaturalGasDehydrationWithTEG. © AspenTech. All Rights Reserved.
            EA1031.31.05, 2003 Retrieved from  https://www.scribd.com/document/38783981/09-NaturalGasDehydrationWithTEG.
[2]        Christensen, D.L., Gas Dehydration Thermodynamic simulation of the water/glycol mixture. Esbjerg, Denmark, February 2009 Retrieved from https://projekter.aau.dk/projekter/files/17059482/Gas_Dehydration.pdf.
[3]        Aspentech, Aspen HYSYS Property Packages, Overview and Best Practices for Optimum Simulations. Aspen Process Engineering Webinar, October, 2006 Retrieved from http://sites.poli.usp.br/d/pqi2408/BestPracticesOptimumSimulationsHYSYSPropertyPackages.pdf.
[4]        Abdulrahman, R., I. Sebastine, and F. Hanna, Natural gas dehydration process simulation and optimization: a case study of Khurmala field in Iraqi Kurdistan region. International Journal of chemical, molecular nuclear, material and metallurgical engineering 6 (7)(2013) 350, 2014. 353 Retrieved from.
[5]        Sayed, A.E.-R., I. Ashour, and M. Gadalla, Integrated process development for an optimum gas processing plant. Chemical Engineering Research and Design, 2017. 124: p. 114-123 Retrieved from.
[6]        Aspentech, Dehydration Process Optimization. [Online], available:, 2015 Retrieved from https://www.aspentech.com/en/applications/engineering/dehydration-process-optimization.
[7]        Tsuji, T., T. Hiaki, and M. Hongo, Vapor− Liquid Equilibria of the Three Binary Systems: Water+ Tetraethylene Glygol (TEG), Ethanol+ TEG, and 2-Propanol+ TEG. Industrial & engineering chemistry research, 1998. 37(5): p. 1685-1691 Retrieved from.
[8]        Aspentech, Dehydration with Aspen HYSYS: Validation of the CPA Property Package. [Online] Available, 2018 Retrieved from https://www.aspentech.com/en/resources/white-papers/dehydration-with-aspen-hysys-validation-of-the-cpa-property-package.