Computational analysis of exergy loss of laminar nanomaterial flow by including magnetic effect has been implemented in current research. CVFEM was incorporated to solve the describing equations. The influences of Darcy, Hartmann numbers as well as buoyancy impact on irreversibility have been explored. Lower temperature of walls occurs with higher Rayleigh number. Stronger magnetic field produces resistance to nanofluid transportation which reduces the Nusselt number. Boundary layer reconstructs more with augment of Darcy number
The free convective hybrid nanofluid (Fe3O4+MWCNT/H2O) magnetized non-Darcy flow over a porous cylin...
Ferrofluid convective heat transfer in a cavity with sinusoidal cold wall is examined under the infl...
In this article, Control volume based finite element method (CVFEM) is employed to simulate magnetoh...
An investigation has been conducted to study Lorentz effect on nanomaterial behavior within a permea...
In this study, the entropy treatment of a nanomaterial flow in the existence of Lorenz forces within...
The current study scrutinized a two dimensional CVFEM modeling for convective flow inside a cylindri...
This paper numerically investigates the forced convection and entropy generation of Fe3O4 water nano...
In the current paper, natural convection of ferrofluid through a permeable medium has been simulated...
Fe3O4–water nanofluid flow in a cavity with constant heat flux is investigated using a control volum...
Through their exciting features, hybrid nanofluids have found a key role in energy transport applica...
The magnetic field can act as a suitable control parameter for heat transfer and fluid flow. It can ...
The hydrothermal features of (Al2O3 + H2O) nanofluid motion through a porous enclosure are examined ...
In current text, we developed CVFEM code for nanomaterial hydrothermal management through a permeabl...
Numerical simulation is performed to explore the convective heat transfer characteristics of Fe3O4-H...
In current text, we developed CVFEM code for nanomaterial hydrothermal management through a permeabl...
The free convective hybrid nanofluid (Fe3O4+MWCNT/H2O) magnetized non-Darcy flow over a porous cylin...
Ferrofluid convective heat transfer in a cavity with sinusoidal cold wall is examined under the infl...
In this article, Control volume based finite element method (CVFEM) is employed to simulate magnetoh...
An investigation has been conducted to study Lorentz effect on nanomaterial behavior within a permea...
In this study, the entropy treatment of a nanomaterial flow in the existence of Lorenz forces within...
The current study scrutinized a two dimensional CVFEM modeling for convective flow inside a cylindri...
This paper numerically investigates the forced convection and entropy generation of Fe3O4 water nano...
In the current paper, natural convection of ferrofluid through a permeable medium has been simulated...
Fe3O4–water nanofluid flow in a cavity with constant heat flux is investigated using a control volum...
Through their exciting features, hybrid nanofluids have found a key role in energy transport applica...
The magnetic field can act as a suitable control parameter for heat transfer and fluid flow. It can ...
The hydrothermal features of (Al2O3 + H2O) nanofluid motion through a porous enclosure are examined ...
In current text, we developed CVFEM code for nanomaterial hydrothermal management through a permeabl...
Numerical simulation is performed to explore the convective heat transfer characteristics of Fe3O4-H...
In current text, we developed CVFEM code for nanomaterial hydrothermal management through a permeabl...
The free convective hybrid nanofluid (Fe3O4+MWCNT/H2O) magnetized non-Darcy flow over a porous cylin...
Ferrofluid convective heat transfer in a cavity with sinusoidal cold wall is examined under the infl...
In this article, Control volume based finite element method (CVFEM) is employed to simulate magnetoh...