Neural networking analysis of thermally magnetized mass transfer coefficient (MTC) for Carreau fluid flow: A comparative study

The non-Newtonian fluids are used in several operations, including the transportation of crude oil, drilling fluids, and hydraulic fracturing fluids. These fluids' flow characteristics can be described by the Carreau model, which helps with the planning and improvement of manufacturing and tran...

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Main Authors: Ur Rehman, Khalil, Shatanawi, Wasfi, Asghar, Zeeshan, Abdul Rahman, Mohd Kasim
Format: Article
Language:English
Published: Elsevier B.V. 2025
Subjects:
Online Access:http://umpir.ump.edu.my/id/eprint/43751/
http://umpir.ump.edu.my/id/eprint/43751/1/Neural%20networking%20analysis%20of%20thermally%20magnetized%20mass%20transfer%20coefficient.pdf
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author Ur Rehman, Khalil
Shatanawi, Wasfi
Asghar, Zeeshan
Abdul Rahman, Mohd Kasim
author_facet Ur Rehman, Khalil
Shatanawi, Wasfi
Asghar, Zeeshan
Abdul Rahman, Mohd Kasim
author_sort Ur Rehman, Khalil
building UMP Institutional Repository
collection Online Access
description The non-Newtonian fluids are used in several operations, including the transportation of crude oil, drilling fluids, and hydraulic fracturing fluids. These fluids' flow characteristics can be described by the Carreau model, which helps with the planning and improvement of manufacturing and transportation procedures. Owing to such motivation we have considered the Carreau fluid flow subject to a magnetized flat surface with porosity, heat generation, temperature slip, chemical reaction, and velocity slip effects. The problem is formulated as coupled differential equations. For solution purposes, the order of equations is reduced by performing Lie symmetry analysis. The compact equations are further solved by the shooting method. The evaluation of the mass transfer coefficient for the Carreau fluid model is done by using an Artificial Intelligence based neural model. The Schmidt number, porosity, magnetic, Weissenberg number, and chemical reaction parameters are treated as inputs while the mass transfer rate is taken as output. Owing to 10 neurons in the hidden layer, the network is trained by the Levenberg-Marquardt algorithm. It is found that the mass transfer rate exhibits a direct relation with the Schmidt number and chemical reaction parameter. The magnitude of the Carreau concentration is perceived to be higher for non-porous surfaces when the chemical reaction parameter and Schmidt number exhibit positive change.
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spelling ump-437512025-02-06T04:42:44Z http://umpir.ump.edu.my/id/eprint/43751/ Neural networking analysis of thermally magnetized mass transfer coefficient (MTC) for Carreau fluid flow: A comparative study Ur Rehman, Khalil Shatanawi, Wasfi Asghar, Zeeshan Abdul Rahman, Mohd Kasim QA Mathematics The non-Newtonian fluids are used in several operations, including the transportation of crude oil, drilling fluids, and hydraulic fracturing fluids. These fluids' flow characteristics can be described by the Carreau model, which helps with the planning and improvement of manufacturing and transportation procedures. Owing to such motivation we have considered the Carreau fluid flow subject to a magnetized flat surface with porosity, heat generation, temperature slip, chemical reaction, and velocity slip effects. The problem is formulated as coupled differential equations. For solution purposes, the order of equations is reduced by performing Lie symmetry analysis. The compact equations are further solved by the shooting method. The evaluation of the mass transfer coefficient for the Carreau fluid model is done by using an Artificial Intelligence based neural model. The Schmidt number, porosity, magnetic, Weissenberg number, and chemical reaction parameters are treated as inputs while the mass transfer rate is taken as output. Owing to 10 neurons in the hidden layer, the network is trained by the Levenberg-Marquardt algorithm. It is found that the mass transfer rate exhibits a direct relation with the Schmidt number and chemical reaction parameter. The magnitude of the Carreau concentration is perceived to be higher for non-porous surfaces when the chemical reaction parameter and Schmidt number exhibit positive change. Elsevier B.V. 2025-03 Article PeerReviewed pdf en cc_by_nc_nd_4 http://umpir.ump.edu.my/id/eprint/43751/1/Neural%20networking%20analysis%20of%20thermally%20magnetized%20mass%20transfer%20coefficient.pdf Ur Rehman, Khalil and Shatanawi, Wasfi and Asghar, Zeeshan and Abdul Rahman, Mohd Kasim (2025) Neural networking analysis of thermally magnetized mass transfer coefficient (MTC) for Carreau fluid flow: A comparative study. International Journal of Thermofluids, 26 (101069). pp. 1-11. ISSN 2666-2027. (Published) https://doi.org/10.1016/j.ijft.2025.101069 https://doi.org/10.1016/j.ijft.2025.101069
spellingShingle QA Mathematics
Ur Rehman, Khalil
Shatanawi, Wasfi
Asghar, Zeeshan
Abdul Rahman, Mohd Kasim
Neural networking analysis of thermally magnetized mass transfer coefficient (MTC) for Carreau fluid flow: A comparative study
title Neural networking analysis of thermally magnetized mass transfer coefficient (MTC) for Carreau fluid flow: A comparative study
title_full Neural networking analysis of thermally magnetized mass transfer coefficient (MTC) for Carreau fluid flow: A comparative study
title_fullStr Neural networking analysis of thermally magnetized mass transfer coefficient (MTC) for Carreau fluid flow: A comparative study
title_full_unstemmed Neural networking analysis of thermally magnetized mass transfer coefficient (MTC) for Carreau fluid flow: A comparative study
title_short Neural networking analysis of thermally magnetized mass transfer coefficient (MTC) for Carreau fluid flow: A comparative study
title_sort neural networking analysis of thermally magnetized mass transfer coefficient (mtc) for carreau fluid flow: a comparative study
topic QA Mathematics
url http://umpir.ump.edu.my/id/eprint/43751/
http://umpir.ump.edu.my/id/eprint/43751/
http://umpir.ump.edu.my/id/eprint/43751/
http://umpir.ump.edu.my/id/eprint/43751/1/Neural%20networking%20analysis%20of%20thermally%20magnetized%20mass%20transfer%20coefficient.pdf