Please use this identifier to cite or link to this item: http://10.1.7.192:80/jspui/handle/123456789/1694
Title: Development of Compound Specific Cohesion Function Relationship for SRK Equation of State
Authors: Joshipura, M. H., Dabke, S. P.
Subrahmanyam, N.
Keywords: α/Cohesion Function
Equation of State
SRK EOS
Vapour Pressure
Chemical Faculty Paper
Faculty Paper
ITFCH011
Issue Date: Apr-2010
Publisher: Taylor and Francis
Series/Report no.: ITFCH011-6
Abstract: Chemical industries have undergone a paradigm shift in the designing process in the last decade, and most of them now rely on process simulators for designing and optimisation. Simulators are heavily dependent on thermodynamic models for the proper outcome of any simulation problem, in general, and phase equilibrium problem, in particular. Equations of state (EOS) have gained wide popularity due to their simplicity. Cubic equations of state (CEOS) can very accurately predict various thermophysical properties with minimum requirement of data. One of the key factors for obtaining accurate results from CEOS is its temperature dependency of cohesion factor relationship. In the present study, a new compound specific cohesion factor relationship is proposed for the Soave Redlich Kwong (SRK) EOS. The new model was compared with the original SRK EOS and its modified versions for accuracy in estimating vapour pressure for a large number of compounds representing various classes of families. It was found that the new relationship works better for almost all the families considered, especially, improving the vapour pressure prediction in the range of reduced temperature below 0.7.
Description: Indian Chemical Engineer, 52 (2) Apr-Jun, 2010, Page No. 116-127
URI: http://hdl.handle.net/123456789/1694
ISSN: 0019-4506
Appears in Collections:Faculty Papers, Chemical

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