Title : ( Fischer-Tropsch synthesis in a bottom split reactive dividing wall column )
Authors: Alireza Arjomand , Mehdi Panahi , Ahmad Rafiee ,Access to full-text not allowed by authors
Abstract
This paper aims to investigate if Fischer-Tropsch Synthesis (FTS) is feasible in a bottom split reactive dividing wall column (BS-RDWC) from a theoretical viewpoint. In-built thermodynamic procedures of Aspen Plus, along with a detail kinetic model proposed by Iglesia et al. that predicts the consumption rate of CO and production rate of methane, and the Anderson-Schulz-Flory (ASF) model that relates products distribution to chain growth probability are used in carrying out the simulations. The chain growth probability depends on partial pressures of H2 and CO and temperature of each stage of the BS-RDWC. The rigorous simulation results show that the BSRDWC has a product yield of 3.92 kg/hr for syngas mass flow of 12.23 kg/hr, CO conversion of 86 %, H2 conversion of 93 %, and carbon efficiency of 0.59. Simulation results of the BS-RDWC are compared with a conventional FT reactor followed by a distillation column. The results showed that the BS-RDWC configuration has higher total product yield and produces hydrocabon products with a higher purity than the conventional configuration.
Keywords
, Fischer, Tropsch synthesis (FTS) Gas, to, liquids (GTL) Bottom split reactive dividing wall column (BSRDWC) Chain growth probability@article{paperid:1078020,
author = {علیرضا ارجمند and Panahi, Mehdi and Rafiee, Ahmad},
title = {Fischer-Tropsch synthesis in a bottom split reactive dividing wall column},
journal = {Chemical Engineering and Processing},
year = {2020},
volume = {148},
month = {February},
issn = {0255-2701},
pages = {107798--107810},
numpages = {12},
keywords = {Fischer-Tropsch synthesis (FTS)
Gas-to-liquids (GTL)
Bottom split reactive dividing wall column (BSRDWC)
Chain growth probability},
}
%0 Journal Article
%T Fischer-Tropsch synthesis in a bottom split reactive dividing wall column
%A علیرضا ارجمند
%A Panahi, Mehdi
%A Rafiee, Ahmad
%J Chemical Engineering and Processing
%@ 0255-2701
%D 2020