CFD modelling for extraction of chromium from effluent in a hollow fiber membrane, S. Dash, P.P. Patra, K. Sarangi, and S. Mohanty

The Southern African Institute of Mining and Metallurgy
S. Dash P. P. Patra K. Sarangi S. Mohanty
Organization:
The Southern African Institute of Mining and Metallurgy
Pages:
13
File Size:
1453 KB
Publication Date:
Jan 1, 2020

Abstract

Industrial effluent from various industries contains heavy metals that are a serious threat to humans, flora and fauna in water bodies, and the environment. The heavy metals are dumped after precipitation, which has serious environmental consequences. In this paper, a 2D axi-symmetry CFD model has been developed to study the extraction of chromium ion from industrial effluent, in a hollow fibre membrane, using Alamine 336 as the carrier and kerosene as the diluent. The Navier Stokes equation was used to predict the velocity profile of the aqueous and organic phases, and species transport equation, which considers both convective and diffusive mass transfer, was used to predict the concentration profile of the chromium ion in the computational domain. The distribution coefficient was experimentally determined at a pH 4, which was found to be the optimum pH. Numerical simulations were performed considering 11.11 mol/m3 of initial feed concentration for chromium ions and extractant concentration of 0.2 M. Simulations were carried out with various aqueous and organic flow rates, and validated with experimental data. Keywords: CFD, metal extraction, hollow fibre membrane, heavy metals
Citation

APA: S. Dash P. P. Patra K. Sarangi S. Mohanty  (2020)  CFD modelling for extraction of chromium from effluent in a hollow fiber membrane, S. Dash, P.P. Patra, K. Sarangi, and S. Mohanty

MLA: S. Dash P. P. Patra K. Sarangi S. Mohanty CFD modelling for extraction of chromium from effluent in a hollow fiber membrane, S. Dash, P.P. Patra, K. Sarangi, and S. Mohanty. The Southern African Institute of Mining and Metallurgy, 2020.

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