4.7 Article

Effect of temperature-dependent internal heat generation over exponential and dovetail convective-radiative porous fin wetted in hybrid nanofluid

Journal

CASE STUDIES IN THERMAL ENGINEERING
Volume 49, Issue -, Pages -

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ELSEVIER
DOI: 10.1016/j.csite.2023.103214

Keywords

Hybrid nanofluid; Permeable fin; Inverted trapezoidal fin; Differential transformation method (DTM) &; non-linear internal heat generation

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The main objective of this research is to compare the thermal variations in a dovetail and exponential fin under fully wet conditions, ternary nanofluid, and internal heat generation, while considering the influence of a magnetic field. Mathematical modeling is conducted using dimensionless transformations and the Differential transformation method. The study focuses on examining the effects of important thermal parameters on the temperature profile and finds that ternary nanoliquid exhibits higher thermal response and non-linear forms of heat generation result in a higher rate of heat transfer.
The main objective of this research is to conduct a comparative study of the thermal variations in a dovetail and exponential fin, considering fully wet conditions, ternary nanofluid, and internal heat generation in the form of both linear and non-linear functions. Additionally, the influence of a magnetic field as a driving force for heat transfer systems is taken into account. The mathematical modelling involves the use of dimensionless transformations to convert the energy equation into an ordinary differential equation, which is then analytically solved using the Differential transformation method (DTM). The study focuses on exploring the effects of significant thermal parameters such as radiation conduction, wet factor, heat generation, and ambient temperature on the temperature profile. Graphical analysis is employed to investigate the thermal performance. The main findings indicate that ternary nanoliquid exhibits a higher thermal response compared to nano and hybrid nanoliquid. Moreover, the nonlinear forms of internal heat generation and ternary nanofluids demonstrate a higher rate of heat transfer.

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