Optimization of heat transfer in a double lid-driven cavity with isoperimetric heated blocks using GFEM

Abstract This article is concerned with the examination of flow dynamics and heat transfer characteristics in a 1:4 double lid driven cavity in presence of isoperimetric heated blocks of various shapes. The focus is to identify the optimal shape that enhances the heat transfer in a tall cavity. The...

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Published in:Scientific Reports
Main Authors: Ahmed Refaie Ali, Rashid Mahmood, Maria Ishfaq, Nusrat Rehman, Afraz Hussain Majeed
Format: Article
Language:English
Published: Nature Portfolio 2024-11-01
Subjects:
Online Access:https://doi.org/10.1038/s41598-024-78525-w
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author Ahmed Refaie Ali
Rashid Mahmood
Maria Ishfaq
Nusrat Rehman
Afraz Hussain Majeed
author_facet Ahmed Refaie Ali
Rashid Mahmood
Maria Ishfaq
Nusrat Rehman
Afraz Hussain Majeed
author_sort Ahmed Refaie Ali
collection DOAJ
container_title Scientific Reports
description Abstract This article is concerned with the examination of flow dynamics and heat transfer characteristics in a 1:4 double lid driven cavity in presence of isoperimetric heated blocks of various shapes. The focus is to identify the optimal shape that enhances the heat transfer in a tall cavity. The parametric settings are chosen in such a way that all the convection regimes including natural, forced and mixed convection could be generated. This cavity has lids positioned at the top and bottom, moving in opposite directions along the x-axis. The physical system is represented as a set of coupled partial differential equations incorporating the rheological properties of the power-law fluids (PL). The governing equations in conjunction with various non-dimensional physical parameters are simulated via Galerkin’s Finite Element Method (GFEM) on a very fine hybrid grid. The study includes the computation of the Kinetic Energy and Average Nusselt number to determine the optimal shape. It is concluded that the circular block is superior to the other two in terms of heat transmission efficiency.
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spelling doaj-art-91caf9ba8815462e9d0bb4fbbcabfb2b2025-08-20T00:46:55ZengNature PortfolioScientific Reports2045-23222024-11-0114111410.1038/s41598-024-78525-wOptimization of heat transfer in a double lid-driven cavity with isoperimetric heated blocks using GFEMAhmed Refaie Ali0Rashid Mahmood1Maria Ishfaq2Nusrat Rehman3Afraz Hussain Majeed4Department of Mathematics and Computer Science, Faculty of Science, Menoufia UniversityDepartment of Mathematics, Air UniversityDepartment of Mathematics, Air UniversityDepartment of Mathematics, Air UniversitySchool of Energy and Power Engineering, Jiangsu UniversityAbstract This article is concerned with the examination of flow dynamics and heat transfer characteristics in a 1:4 double lid driven cavity in presence of isoperimetric heated blocks of various shapes. The focus is to identify the optimal shape that enhances the heat transfer in a tall cavity. The parametric settings are chosen in such a way that all the convection regimes including natural, forced and mixed convection could be generated. This cavity has lids positioned at the top and bottom, moving in opposite directions along the x-axis. The physical system is represented as a set of coupled partial differential equations incorporating the rheological properties of the power-law fluids (PL). The governing equations in conjunction with various non-dimensional physical parameters are simulated via Galerkin’s Finite Element Method (GFEM) on a very fine hybrid grid. The study includes the computation of the Kinetic Energy and Average Nusselt number to determine the optimal shape. It is concluded that the circular block is superior to the other two in terms of heat transmission efficiency.https://doi.org/10.1038/s41598-024-78525-wMixed convectionLid driven cavityNon-Newtonian fluidIsoperimetricFEM computationKinetic energy
spellingShingle Ahmed Refaie Ali
Rashid Mahmood
Maria Ishfaq
Nusrat Rehman
Afraz Hussain Majeed
Optimization of heat transfer in a double lid-driven cavity with isoperimetric heated blocks using GFEM
Mixed convection
Lid driven cavity
Non-Newtonian fluid
Isoperimetric
FEM computation
Kinetic energy
title Optimization of heat transfer in a double lid-driven cavity with isoperimetric heated blocks using GFEM
title_full Optimization of heat transfer in a double lid-driven cavity with isoperimetric heated blocks using GFEM
title_fullStr Optimization of heat transfer in a double lid-driven cavity with isoperimetric heated blocks using GFEM
title_full_unstemmed Optimization of heat transfer in a double lid-driven cavity with isoperimetric heated blocks using GFEM
title_short Optimization of heat transfer in a double lid-driven cavity with isoperimetric heated blocks using GFEM
title_sort optimization of heat transfer in a double lid driven cavity with isoperimetric heated blocks using gfem
topic Mixed convection
Lid driven cavity
Non-Newtonian fluid
Isoperimetric
FEM computation
Kinetic energy
url https://doi.org/10.1038/s41598-024-78525-w
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