Application of machine learning to investigation of heat and mass transfer over a cylinder surrounded by porous media—the radial basic function network
Application of machine learning to investigation of heat and mass transfer over a cylinder surrounded by porous media—the radial basic function network
This paper investigates heat and mass transport around a cylinder featuring non-isothermal homogenous and heterogeneous chemical reactions in a surrounding porous medium. The system is subject to an impinging flow, while local thermal non-equilibrium, non-linear thermal radiation within the porous region, and the temperature dependency of the reaction rates are considered. Further, non-equilibrium thermodynamics, including Soret and Dufour effects are taken into account. The governing equations are numerically solved using a finite-difference method after reducing them to a system of non-linear ordinary differential equations. Since the current problem contains a large number of parameters with complex interconnections, low-cost models such as those based on artificial intelligence are desirable for the conduction of extensive parametric studies. Therefore, the simulations are used to train an artificial neural network. Comparing various algorithms of the artificial neural network, the radial basic function network is selected. The results show that variations in radiative heat transfer as well as those in Soret and Dufour effects can significantly change the heat and mass transfer responses. Within the investigated parametric range, it is found that the diffusion mechanism is dominantly responsible for heat and mass transfer. Importantly, it is noted that the developed predictor algorithm offers a considerable saving of the computational burden.
Alizadeh, Rasool
f3a5f9c2-2165-4ef9-bbc9-a27f68209687
Abad, Javad Mohebbi Najm
df470b49-0c1b-43d0-9aaa-4c140c43b75e
Fattahi, Abolfazl
f93dde21-9655-4ea3-961b-544b44adfd61
Alhajri, Ebrahim
eba2efca-ad8e-468f-aa63-d467d2846693
Karimi, Nader
620646d6-27c9-4e1e-948f-f23e4a1e773a
Alizadeh, Rasool
f3a5f9c2-2165-4ef9-bbc9-a27f68209687
Abad, Javad Mohebbi Najm
df470b49-0c1b-43d0-9aaa-4c140c43b75e
Fattahi, Abolfazl
f93dde21-9655-4ea3-961b-544b44adfd61
Alhajri, Ebrahim
eba2efca-ad8e-468f-aa63-d467d2846693
Karimi, Nader
620646d6-27c9-4e1e-948f-f23e4a1e773a
Alizadeh, Rasool, Abad, Javad Mohebbi Najm, Fattahi, Abolfazl, Alhajri, Ebrahim and Karimi, Nader
(2020)
Application of machine learning to investigation of heat and mass transfer over a cylinder surrounded by porous media—the radial basic function network.
Journal of Energy Resources Technology, 142 (11).
(doi:10.1115/1.4047402).
Abstract
This paper investigates heat and mass transport around a cylinder featuring non-isothermal homogenous and heterogeneous chemical reactions in a surrounding porous medium. The system is subject to an impinging flow, while local thermal non-equilibrium, non-linear thermal radiation within the porous region, and the temperature dependency of the reaction rates are considered. Further, non-equilibrium thermodynamics, including Soret and Dufour effects are taken into account. The governing equations are numerically solved using a finite-difference method after reducing them to a system of non-linear ordinary differential equations. Since the current problem contains a large number of parameters with complex interconnections, low-cost models such as those based on artificial intelligence are desirable for the conduction of extensive parametric studies. Therefore, the simulations are used to train an artificial neural network. Comparing various algorithms of the artificial neural network, the radial basic function network is selected. The results show that variations in radiative heat transfer as well as those in Soret and Dufour effects can significantly change the heat and mass transfer responses. Within the investigated parametric range, it is found that the diffusion mechanism is dominantly responsible for heat and mass transfer. Importantly, it is noted that the developed predictor algorithm offers a considerable saving of the computational burden.
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Accepted/In Press date: 19 May 2020
e-pub ahead of print date: 25 June 2020
Identifiers
Local EPrints ID: 509119
URI: http://eprints.soton.ac.uk/id/eprint/509119
ISSN: 0195-0738
PURE UUID: 38f32676-f2ab-428c-bed7-2d7d67b4d236
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Date deposited: 11 Feb 2026 17:51
Last modified: 07 Mar 2026 04:28
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Author:
Rasool Alizadeh
Author:
Javad Mohebbi Najm Abad
Author:
Abolfazl Fattahi
Author:
Ebrahim Alhajri
Author:
Nader Karimi
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