Intelligent computing through neural networks for numerical treatment of non-Newtonian wire coating analysis model
Abstract In the current study, a modern implementation of intelligent numerical computational solver introduced using the Levenberg Marquardt algorithm based trained neural networks (LMA-TNN) to analyze the wire coating system (WCS) for the elastic-viscous non-Newtonian Eyring–Powell fluid (EPF) wit...
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2021
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oai:doaj.org-article:343765989dce4b12959ae4fd897e4c712021-12-02T13:41:23ZIntelligent computing through neural networks for numerical treatment of non-Newtonian wire coating analysis model10.1038/s41598-021-88499-82045-2322https://doaj.org/article/343765989dce4b12959ae4fd897e4c712021-04-01T00:00:00Zhttps://doi.org/10.1038/s41598-021-88499-8https://doaj.org/toc/2045-2322Abstract In the current study, a modern implementation of intelligent numerical computational solver introduced using the Levenberg Marquardt algorithm based trained neural networks (LMA-TNN) to analyze the wire coating system (WCS) for the elastic-viscous non-Newtonian Eyring–Powell fluid (EPF) with the impacts of Joule heating, magnetic parameter and heat transfer scenarios in the permeable medium. The nonlinear PDEs describing the WCS-EPF are converted into dimensionless nonlinear ODEs containing the heat and viscosity parameters. The reference data for the designed LMA-TNN is produced for various scenarios of WCS-EPF representing with porosity parameter, non-Newtonian parameter, heat transfer parameter and magnetic parameter for the proposed analysis using the state of the art explicit Runge–Kutta technique. The training, validation, and testing operations of LMA-TNN are carried out to obtain the numerical solution of WCS-EPF for various cases and their comparison with the approximate outcomes certifying the reasonable accuracy and precision of LMA-TNN approach. The outcomes of LMA-TNN solver in terms of state transition (ST) index, error-histograms (EH) illustration, mean square error, and regression (R) studies further established the worth for stochastic numerical solution of the WCS-EPF. The strong correlation between the suggested and the reference outcomes indicates the structure’s validity, for all four cases of WCS-EPF, fitting of the precision $$10^{-5}$$ 10 - 5 to $$10^{-9}$$ 10 - 9 is also accomplished.Jawaher Lafi AljohaniEman Salem AlaidarousMuhammad Asif Zahoor RajaMuhammad ShoaibMuhammed Shabab AlhothualiNature PortfolioarticleMedicineRScienceQENScientific Reports, Vol 11, Iss 1, Pp 1-32 (2021) |
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Medicine R Science Q Jawaher Lafi Aljohani Eman Salem Alaidarous Muhammad Asif Zahoor Raja Muhammad Shoaib Muhammed Shabab Alhothuali Intelligent computing through neural networks for numerical treatment of non-Newtonian wire coating analysis model |
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Abstract In the current study, a modern implementation of intelligent numerical computational solver introduced using the Levenberg Marquardt algorithm based trained neural networks (LMA-TNN) to analyze the wire coating system (WCS) for the elastic-viscous non-Newtonian Eyring–Powell fluid (EPF) with the impacts of Joule heating, magnetic parameter and heat transfer scenarios in the permeable medium. The nonlinear PDEs describing the WCS-EPF are converted into dimensionless nonlinear ODEs containing the heat and viscosity parameters. The reference data for the designed LMA-TNN is produced for various scenarios of WCS-EPF representing with porosity parameter, non-Newtonian parameter, heat transfer parameter and magnetic parameter for the proposed analysis using the state of the art explicit Runge–Kutta technique. The training, validation, and testing operations of LMA-TNN are carried out to obtain the numerical solution of WCS-EPF for various cases and their comparison with the approximate outcomes certifying the reasonable accuracy and precision of LMA-TNN approach. The outcomes of LMA-TNN solver in terms of state transition (ST) index, error-histograms (EH) illustration, mean square error, and regression (R) studies further established the worth for stochastic numerical solution of the WCS-EPF. The strong correlation between the suggested and the reference outcomes indicates the structure’s validity, for all four cases of WCS-EPF, fitting of the precision $$10^{-5}$$ 10 - 5 to $$10^{-9}$$ 10 - 9 is also accomplished. |
format |
article |
author |
Jawaher Lafi Aljohani Eman Salem Alaidarous Muhammad Asif Zahoor Raja Muhammad Shoaib Muhammed Shabab Alhothuali |
author_facet |
Jawaher Lafi Aljohani Eman Salem Alaidarous Muhammad Asif Zahoor Raja Muhammad Shoaib Muhammed Shabab Alhothuali |
author_sort |
Jawaher Lafi Aljohani |
title |
Intelligent computing through neural networks for numerical treatment of non-Newtonian wire coating analysis model |
title_short |
Intelligent computing through neural networks for numerical treatment of non-Newtonian wire coating analysis model |
title_full |
Intelligent computing through neural networks for numerical treatment of non-Newtonian wire coating analysis model |
title_fullStr |
Intelligent computing through neural networks for numerical treatment of non-Newtonian wire coating analysis model |
title_full_unstemmed |
Intelligent computing through neural networks for numerical treatment of non-Newtonian wire coating analysis model |
title_sort |
intelligent computing through neural networks for numerical treatment of non-newtonian wire coating analysis model |
publisher |
Nature Portfolio |
publishDate |
2021 |
url |
https://doaj.org/article/343765989dce4b12959ae4fd897e4c71 |
work_keys_str_mv |
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