Influence of liquid hydrogen and nitrogen on MHD triple diffusive mixed convection nanoliquid flow in presence of surface roughness

Patil, P.M.; Shashikant, A.; Hiremath, P. S.

doi:10.1016/j.ijhydene.2018.09.033

Cited by 46 publications

(21 citation statements)

References 35 publications

Supporting

Mentioning

Contrasting

Order By: Relevance

“…The density differences owing to temperature differences are considered in the momentum equation through Boussinesq approximation. 42 As a result, the current flow problem's governing equations are as follows 15,43 :…”

Section: Mathematical Formulationmentioning

confidence: 99%

A study of convective nanofluid flow over a rough slender cylinder under the influence of magnetic field and species diffusion

2021

View full text Add to dashboard Cite

The present work explores the analysis of magnetohydrodynamics nonlinear mixed conv ective nanofluid flow over a vertical slender cylinder in the presence of surface roughness. The application of the present study can be found in the process of coating wires. In fact, during such a process, thin wires in the slender cylinder need to be cooled, and also heat and mass transfer rates need to be controlled through nanofluid and liquid hydrogen to yield better results. By employing nonsimilar transformations, the partial differential equations governing the flow problem are reduced to dimensionless equations. Furthermore, the Quasilinearization technique and implicit finite difference scheme are used to solve the dimensionless governing equations. The novelty of the analysis is the impacts of surface roughness, diffusion of liquid hydrogen, and the presence of nonlinear mixed convective flow over a slender cylinder. The numerical results reveal that the energy transport strength and surface drag coefficient enhance with the roughness parameter values. The nanoparticle volume fraction profile reduces, while nanoparticle Sherwood number enhances with increasing values of velocity ratio parameter. The presence of nanoparticles in the conventional fluid diminishes the energy transfer value significantly for both smooth and rough surfaces. The velocity of the

show abstract

Section: Mathematical Formulationmentioning

confidence: 99%

A study of convective nanofluid flow over a rough slender cylinder under the influence of magnetic field and species diffusion

2021

View full text Add to dashboard Cite

show abstract

“…Among these mechanisms, thermophoresis and Brownian diffusion effects are dominant in the absence of turbulent flow, and hence, we have considered these effects in the present analysis by employing the former model [24]. Thus, the suitable governing equations are [3,[25][26][27][28].…”

Section: Mathematical Formulationmentioning

confidence: 99%

Nonlinear mixed convective nanofluid flow along moving vertical rough plate

Patil

Kulkarni

2020

Rev. Mex. Fís.

View full text Add to dashboard Cite

The objective of the current research paper is to investigate the effects of surface roughness on magnetohydrodynamic nonlinear mixed convection nanofluid flow over vertically moving plate. The highly coupled dimensional nonlinear partial differential equations (NPDE) are converted into dimensionless NPDE along with the boundary conditions with the help of non-similar transformations. The resulting set of dimensionless nonlinear PDE’s are solved by using Quasilinearization technique and implicit finite difference method. Impacts of various dimensionless parameters, namely, Brownian diffusion (Nb), nonlinear mixed convection ( ), nanoparticle buoyancy ratio (Nr), Lewis number (Le), thermophoresis (Nt), frequency (n), magnetic (M) and small parameter ( ) are studied in detail on profiles as well as gradients. The results reveal that increasing values of increase the velocity profile, while increasing values of Nr decrease the same. Further, increasing values of and n exhibit sinusoidal variations on skin-friction coefficient, heat and nanoparticle mass transfer rates. Moreover, the presence of nonlinear mixed convection parameter has significant effects on fluid flow compared to its absence. In addition to this, rate of heat transfer is analyzed in presence and absence of nanoparticles.

show abstract

“…Accordingly, to aid the cooling processes in the mixed convection regime, the diffusion of liquid oxygen and hydrogen into the neighboring fluid (water) has been considered in the present analysis. [36][37][38][39][40] Our motto is to cool the moving polymer fiber or glass, and because of this, the proposed liquid gases can increase the cooling rate of extruded hot fiber in its final shapes. This study aims to explore the effects of the yaw angle (created due to the inclination of the circular cylinder) on surface friction, energy and mass transport.…”

Section: Introductionmentioning

confidence: 99%

Quadratic mixed convective nanofluid flow past a moving yawed cylinder in the presence of thermal radiation and diffusive liquids

2022

View full text Add to dashboard Cite

The fluid flow around a yawed cylinder helps to understand the practical implications for undersea applications, such as managing transference, separating the boundary layer above submerged blocks, and suppressing recirculating bubbles. As many authors such as Roy, Chiu and Lienhard, Roy and Saikrishnan, and Revathi et al. have analyzed a boundary layer flow over a yawed cylinder, and their work sticks to only forced convection, we are interested to work on mixed convection flow. Therefore, the work of these researchers has stimulated us to work on the present article. As a result, we have examined the work on triple diffusion quadratic mixed convective nanofluid flow over a moving yawed cylinder. The impact of yaw angle, which exists due to the inclination of a vertically moving cylinder away from the origin, is mathematically investigated in the present paper by converting the governing equations into a compatible form using appropriate nonsimilar transformations and the quasilinearization technique. Nanofluids have crucial usages in science and technology, marine engineering, and applications in industries such as plastic, polymer industries, cancer home therapy, and building sciences. Many processes in new engineering areas occur at high temperatures, and knowledge of radiation heat transfer becomes very important for designing the pertinent equipment. Nuclear power plants, gas turbines, and the various propulsion devices for aircraft, missiles, satellites, and space vehicles are examples of such engineering areas. The finite difference approximation is employed to solve the resulting equations. Enhancing the magnitude of thermal radiation enhances the temperature of the liquid and the energy transport strength. However, liquid hydrogen and liquid oxygen species concentration patterns are reduced in nanofluid compared to traditional liquids. At the same time, the outcomes behave conversely in the case of their wall gradients. Furthermore, the temperature of the liquid enhances the enhancing values of Brownian motion and thermophoresis characteristics. Moreover, nanoparticle mass transport augments with enhancing yaw angle and Lewis number values. Both species' concentration profiles decrease for increasing values of yaw angle. The velocity profiles increase for increasing values of velocity ratio parameter in the spanwise and chordwise directions.

show abstract

Influence of liquid hydrogen and nitrogen on MHD triple diffusive mixed convection nanoliquid flow in presence of surface roughness

Cited by 46 publications

References 35 publications

A study of convective nanofluid flow over a rough slender cylinder under the influence of magnetic field and species diffusion

A study of convective nanofluid flow over a rough slender cylinder under the influence of magnetic field and species diffusion

Nonlinear mixed convective nanofluid flow along moving vertical rough plate

Quadratic mixed convective nanofluid flow past a moving yawed cylinder in the presence of thermal radiation and diffusive liquids

Contact Info

Product

Resources

About