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- Title
A time fractional model of Brinkman-type nanofluid with ramped wall temperature and concentration.
- Authors
Hasin, Faiza; Ahmad, Zubair; Ali, Farhad; Khan, Naveed; Khan, Ilyas
- Abstract
Nanofluid is an innovative heat transfer fluid with the potential to significantly enhance the heat transfer performance of traditional fluids. By adding various types of nanoparticles to ordinary base fluids, several attempts have been made to boost the rate of heat transfer and thermal conductivity. The unsteady electrically conducting flow of Brinkman-type nanofluid over an infinite vertical plate with ramping wall temperature and concentration is investigated in this article. Water is taken as the base fluid, and multi-walled carbon nanotubes are distributed equally throughout it. The Caputo-Fabrizio fractional derivative, which has a non-singular kernel, is used to generalize the classical model. The Laplace transform technique has been utilized to achieve exact solutions. Furthermore, various graphs for fractional and physical parameters are used to represent the solutions. All figures are drawn for both conditions, that is, ramped and isothermal wall temperature and concentration. The velocity field increases for greater values of thermal and mass Grashof numbers while the reverse effect is observed for Hartman number, Brinkman parameter and volume fraction. Moreover, the obtained results are also reduced to the already published results in order to show the validation of the present results. The results are used to calculate the skin friction, Nusselt number, and Sherwood number. The heat transfer of pure water is increased by 17.03% when 4% of nanoparticles are added to it which will of course increase the efficiency of solar collectors and solar pools. Moreover, the mass transfer decreases by 3.18% when 4% of nanoparticles which are dispersed in it.
- Subjects
NANOFLUIDS; FREE convection; HEAT transfer fluids; MULTIWALLED carbon nanotubes; CONVECTIVE flow; ISOTHERMAL temperature; SOLAR collectors; NUSSELT number
- Publication
Advances in Mechanical Engineering (Sage Publications Inc.), 2022, Vol 14, Issue 5, p1
- ISSN
1687-8132
- Publication type
Article
- DOI
10.1177/16878132221096012