Slip flow through a non-uniform channel under the influence of transverse magnetic field

Farooq, Javaria; Mushtaq, Muhammad; Munir, Sadaf; Ramzan, Muhammad; Chung, Jae Dong; Farooq, Umer

doi:10.1038/s41598-018-31538-8

Cited by 13 publications

(6 citation statements)

References 32 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…Hence, to enhance the mixing in micro-channels it is essential to put Re < 1 as described in [21,22]. In the presence of a magnetic field, a slip flow was studied [23] for the fluid flow and heat transfer problem where the governing partial differential equation first converted in to fourth order differential equation and then a numerical solution obtained by Adomain decomposition. The two models for the hybrid nano-fluid were compared for a rotating channel with porous medium under the surface catalytic reaction [24].…”

Section: Nomenclaturementioning

confidence: 99%

Hydrodynamics and Heat Transfer Analysis of Airflow in a Sinusoidally Curved Channel

Memon¹,

Memon²,

Bhatti³

et al. 2022

Computers, Materials &Amp; Continua

View full text Add to dashboard Cite

For heat transfer enhancement in heat exchangers, different types of channels are often tested. The performance of heat exchangers can be made better by considering geometry composed of sinusoidally curved walls. This research studies the modeling and simulation of airflow through a 2π units long sinusoidally curved wavy channel. For the purpose, two-dimensional Navier Stokes equations along with heat equations are under consideration. To simulate the fluid flow problem, the finite element-based software COM-SOL Multiphysics 5.4 is used. The parametric study for Reynolds number from Re = 100 to Re = 1000 and the period of vibration P from 0 to 5 are observed. The surface plots, streamline patterns, contours, and graphs are presented for the velocity field magnitude, temperature, and pressure against the Reynolds number as well as period of vibration. The results are compared with various literature. It is found that due to the creation of periodic contraction regions the velocity magnitude of the flow is continuously increasing with the increase of Reynolds number, on the contrary the pressure is decreasing from inlet to outlet of the channel. Also, a periodic variation in the pressure distribution along the vibrating boundaries has been found with an average increase of 500% for the high Reynolds number. A novel work was done by expressing the rotation rate per second in terms of local Reynolds number for the recirculating regions found due to the periodic oscillation of the boundaries. The average temperature near the outlet where a fixed temperature is imposed initially is decreasing with an increase in Reynolds number. The convection process is weakened due to an increase of periodic vibration of boundaries.

show abstract

Section: Nomenclaturementioning

confidence: 99%

Hydrodynamics and Heat Transfer Analysis of Airflow in a Sinusoidally Curved Channel

Memon¹,

Memon²,

Bhatti³

et al. 2022

Computers, Materials &Amp; Continua

View full text Add to dashboard Cite

show abstract

“…They found the expressions for velocity components, flow rate and pressure drop inside the porous channel. Farooq et al [14] also extended the work of Muthu et al [10] to slip flow condition considering Newtonian fluid flow inside the wavy channel.…”

Section: Introductionmentioning

confidence: 98%

Wall reabsorption effects on heat and mass transfer of viscous fluid in a narrow leaky tube

Shahzad

Khan

2021

SN Appl. Sci.

View full text Add to dashboard Cite

The steady heat and mass transfer problem of flow of an incompressible Newtonian fluid is investigated in this study. The axisymmetric flow of a non-isothermal and highly viscous fluid is considered through a narrow leaky tube of uniform cross-section with linear reabsorption across the wall. The Navier–Stokes equations are solved for axially symmetric and slow flow in the tube. The effects of linear reabsorption parameter on the dimensionless radial and axial velocities, temperature, concentration, shear stress, leakage flux, fractional reabsorption, pressure drop across the tube as well as the Nusselt and Sherwood numbers have been investigated analytically. For 50% fractional reabsorption, inlet radial velocity is half of the reabsorption velocity along the tube. It has been shown that increase in the strength of linear reabsorption parameter considerably reduces the radial velocity, while, axial velocity shows opposite behaviour. At the exit region ($$z=0.9$$ z = 0.9 ), reverse flow phenomenon is observed for higher values of reabsorption parameter. The pressure, flow rate and wall shear stress decreases after entrance region ($$z=0.1$$ z = 0.1 ) of the tube. Nusselt number and Sherwood number show opposite behaviour inside the tube. At $$z=0.1$$ z = 0.1 the magnitude of Nusselt number is maximum, while the Sherwood number is minimum at the exit region with higher value of reabsorption parameter.

show abstract

“…A number of expedient learning in this topic is cited over in references. 26,[30][31][32][33][34][35][36][37][38][39][40][41] The increased amount of applications in biophysiological and industrialized flows handled with suitable analysis is deliberated diversely and extensively. Observing and keeping in focus the research literature, the aim of present study is to investigate the flow hydrodynamics under the simultaneous influences of velocity slip and transverse magnetic field on the peristaltic motion of incompressible, viscous nanomaterial over a flexible porous channel of varying crosssectional area.…”

Section: Introductionmentioning

confidence: 99%

“…A number of expedient learning in this topic is cited over in references. 26,30–41…”

Section: Introductionmentioning

confidence: 99%

Porosity and dissipative effects in Peristalsis of hydro-magneto nanomaterial: Application of biomedical treatment

Sheriff

Mir

Ahmad

et al. 2021

Advances in Mechanical Engineering

View full text Add to dashboard Cite

The non-uniformity value which currently many applications of magneto-hydrodynamics are found in medicine where drug deliverance happens through peristaltic pumping phenomena, various magnetic drugs are released to target tumor diseases and to control the drug flow movement to the desired area. Owing to these facts, the aims of this article is to examine the simultaneous influence of magneto-hydrodynamics (MHD) and slip effect on unsteady peristaltic nanofluid flow in a non-uniform porous channel of finite length. The constituent governing equations for the model have been examined under the approximation of long wave length and small Reynolds value. Keeping kerosene oil and ethylene glycol as base fluids with polystyrene chosen as nanoparticle. The current analysis is carried out for the peristaltic flow transferal which carries innumerable industrialized employments. The incompressible, viscous, electrically conducting flow is studied in wave form. Here, exact method is employed to obtained closed form solutions. We have implemented computational software packages “Mathematica” as a main tool in order to obtain explicit expressions for axial velocity, temperature, stream function, pumping phenomenon and bolus formation. Obtained solutions are used for graphical analysis against different physical parameters. It is concluded that axial velocity increments for higher Hartmann number and slip parameter near the walls. The porosity effects increases the temperature whereas the temperature field shows increasing behavior for larger Brinkman number.

show abstract

Slip flow through a non-uniform channel under the influence of transverse magnetic field

Cited by 13 publications

References 32 publications

Hydrodynamics and Heat Transfer Analysis of Airflow in a Sinusoidally Curved Channel

Hydrodynamics and Heat Transfer Analysis of Airflow in a Sinusoidally Curved Channel

Wall reabsorption effects on heat and mass transfer of viscous fluid in a narrow leaky tube

Porosity and dissipative effects in Peristalsis of hydro-magneto nanomaterial: Application of biomedical treatment

Contact Info

Product

Resources

About