Analytical analysis and heat transfer of CuO and MgO engine oil base nanofluid with the influence of dynamic viscosity, magnetic field, and convective boundary conditions

This research work investigates the semi‐numerical analysis and heat transfer of MHD 2D, Copper Oxide, and Magnesium oxide engine oil base nanofluid with the consider effect of dynamic viscosity and convective boundary conditions (BCs). The convective BCs and the effect of dynamic viscosity on an ex...

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Bibliographic Details
Published in:Zeitschrift für angewandte Mathematik und Mechanik 2024-06, Vol.104 (6), p.n/a
Main Authors: Rehman, Ali, Khun, Ma Chau, Rezapour, Shahram, Inc, Mustafa, Garalleh, Hakim A. L., Muhammad, Taseer
Format: Article
Language:English
Subjects:
Boundary conditions
Copper oxides
Electrons
Heat
Heat transfer
Heat transmission
Magnesium oxide
Magnetic properties
Nanofluids
Numerical analysis
Parameters
Superconductors (materials)
Temperature profiles
Thermal management
Velocity distribution
Viscosity
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Summary:This research work investigates the semi‐numerical analysis and heat transfer of MHD 2D, Copper Oxide, and Magnesium oxide engine oil base nanofluid with the consider effect of dynamic viscosity and convective boundary conditions (BCs). The convective BCs and the effect of dynamic viscosity on an extensible surface are considered by the flow system. We converted a set of PDEs into NODEs by applying the appropriate transformations. Using the HAM, we solve this dimensionless coupled equation one for temperature and other for velocity. The impact of various parameters for both temperature and velocity are demonstrated, such as the slip parameter, magnetic parameter (MP), Eckert number (EN), PN, and dynamic viscosity. In response to changes in developing factors, the flow features, such as temperature profiles (TPs) and velocity profiles (VPs), are analyzed and simulated using a physical description. The results of this study add to our knowledge of how engine oil‐based nanofluids promote heat transmission and offer practical advice for thermal management and engineering applications.
ISSN:0044-2267
1521-4001
DOI:10.1002/zamm.202300510