A study of dual stratification on stagnation point Walters' B nanofluid flow via radiative Riga plate: a statistical approach

Features of double stratification on stagnation point flow of Walter's B nanoliquid driven through Riga surface are examined in the current study. Via solutal stratification, radiation and thermal effects, heat and mass phenomena are evaluated. The novelty of the proposed investigation is focus...

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Published in	European physical journal plus Vol. 136; no. 4; p. 407
Main Authors	Shafiq, Anum, Mebarek-Oudina, Fateh, Sindhu, Tabassum Naz, Abidi, Awatef
Format	Journal Article
Language	English
Published	Berlin/Heidelberg Springer Berlin Heidelberg 01.04.2021 Springer Nature B.V
Subjects	Applied and Technical Physics Approximation Atomic Coefficient of friction Complex Systems Condensed Matter Physics Differential equations Dimensionless numbers Error analysis Fluid flow Hartmann number Heat generation Heat transfer Heat transport Homotopy theory Investigations Liquid flow Lorentz force Magnetic fields Mass transport Mathematical and Computational Physics Molecular Nanofluids Optical and Plasma Physics Optimization Parameters Particle deposition Physics Physics and Astronomy Probable error Radiation Regular Article Rheological properties Rheology Skin friction Solidification Stagnation point Temperature effects Theoretical Thermal stratification Thermophoresis Transport equations Transport rate
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ISSN	2190-5444 2190-5444
DOI	10.1140/epjp/s13360-021-01394-z

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Abstract	Features of double stratification on stagnation point flow of Walter's B nanoliquid driven through Riga surface are examined in the current study. Via solutal stratification, radiation and thermal effects, heat and mass phenomena are evaluated. The novelty of the proposed investigation is focused on the important effect of melting phenomenon and EMHD Lorentz force along with stratification and heat generation over the rheology of the liquid flow. The influence of Brownian and thermophoresis particle deposition is included in transport equations involved in the analysis. Transformation is incorporated by the basic laws of mass, energy and linear momentum to acquire nonlinear differential system of equations. Utilizing Optimal Homotopy Analysis Method through BVPh2.0.0, optimum value of convergence control factors is estimated. Graphical findings for the dimensionless temperature, velocity and concentration for different pertinent parameters are explained. Numerical values of physical interest like skin friction coefficient, local Sherwood number and local Nusselt number are computed and visualized graphically. The heat generation and advanced modified Hartmann number improve the speed of flow. It is also observed that weaker thermal stratification upraises the rate of heat transport, and mass transport rate lessens for stronger mass stratification. In addition, contour graphs of velocity for ratio parameter A describe the accurate perception of flow. The intensity of temperature and concentration field is low owing to double stratification, whereas the stronger radiation corresponds the significantly rise in temperature. Reliability of outcomes assured by means of probable error analysis.
AbstractList	Features of double stratification on stagnation point flow of Walter's B nanoliquid driven through Riga surface are examined in the current study. Via solutal stratification, radiation and thermal effects, heat and mass phenomena are evaluated. The novelty of the proposed investigation is focused on the important effect of melting phenomenon and EMHD Lorentz force along with stratification and heat generation over the rheology of the liquid flow. The influence of Brownian and thermophoresis particle deposition is included in transport equations involved in the analysis. Transformation is incorporated by the basic laws of mass, energy and linear momentum to acquire nonlinear differential system of equations. Utilizing Optimal Homotopy Analysis Method through BVPh2.0.0, optimum value of convergence control factors is estimated. Graphical findings for the dimensionless temperature, velocity and concentration for different pertinent parameters are explained. Numerical values of physical interest like skin friction coefficient, local Sherwood number and local Nusselt number are computed and visualized graphically. The heat generation and advanced modified Hartmann number improve the speed of flow. It is also observed that weaker thermal stratification upraises the rate of heat transport, and mass transport rate lessens for stronger mass stratification. In addition, contour graphs of velocity for ratio parameter A describe the accurate perception of flow. The intensity of temperature and concentration field is low owing to double stratification, whereas the stronger radiation corresponds the significantly rise in temperature. Reliability of outcomes assured by means of probable error analysis. Features of double stratification on stagnation point flow of Walter's B nanoliquid driven through Riga surface are examined in the current study. Via solutal stratification, radiation and thermal effects, heat and mass phenomena are evaluated. The novelty of the proposed investigation is focused on the important effect of melting phenomenon and EMHD Lorentz force along with stratification and heat generation over the rheology of the liquid flow. The influence of Brownian and thermophoresis particle deposition is included in transport equations involved in the analysis. Transformation is incorporated by the basic laws of mass, energy and linear momentum to acquire nonlinear differential system of equations. Utilizing Optimal Homotopy Analysis Method through BVPh2.0.0, optimum value of convergence control factors is estimated. Graphical findings for the dimensionless temperature, velocity and concentration for different pertinent parameters are explained. Numerical values of physical interest like skin friction coefficient, local Sherwood number and local Nusselt number are computed and visualized graphically. The heat generation and advanced modified Hartmann number improve the speed of flow. It is also observed that weaker thermal stratification upraises the rate of heat transport, and mass transport rate lessens for stronger mass stratification. In addition, contour graphs of velocity for ratio parameter A describe the accurate perception of flow. The intensity of temperature and concentration field is low owing to double stratification, whereas the stronger radiation corresponds the significantly rise in temperature. Reliability of outcomes assured by means of probable error analysis.
ArticleNumber	407
Author	Mebarek-Oudina, Fateh Sindhu, Tabassum Naz Abidi, Awatef Shafiq, Anum
Author_xml	– sequence: 1 givenname: Anum surname: Shafiq fullname: Shafiq, Anum organization: School of Mathematics and Statistics, Nanjing University of Information Science and Technology – sequence: 2 givenname: Fateh orcidid: 0000-0001-6145-8195 surname: Mebarek-Oudina fullname: Mebarek-Oudina, Fateh email: oudina2003@yahoo.fr, f.mebarek_oudina@univ-skikda.dz organization: Department of Physics, Faculty of Sciences, University of 20 Août 1955-Skikda – sequence: 3 givenname: Tabassum Naz surname: Sindhu fullname: Sindhu, Tabassum Naz organization: Department of Statistics, Quaid-i-Azam University, Department of Sciences and Humanities, FAST - National University – sequence: 4 givenname: Awatef surname: Abidi fullname: Abidi, Awatef organization: Physics Department, College of Sciences Abha, King Khalid University, Research Laboratory of Metrology and Energy Systems, National Engineering School, Energy Engineering Department, Monastir University, Higher School of Sciences and Technology of Hammam Sousse, Sousse University
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Snippet	Features of double stratification on stagnation point flow of Walter's B nanoliquid driven through Riga surface are examined in the current study. Via solutal...
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SubjectTerms	Applied and Technical Physics Approximation Atomic Coefficient of friction Complex Systems Condensed Matter Physics Differential equations Dimensionless numbers Error analysis Fluid flow Hartmann number Heat generation Heat transfer Heat transport Homotopy theory Investigations Liquid flow Lorentz force Magnetic fields Mass transport Mathematical and Computational Physics Molecular Nanofluids Optical and Plasma Physics Optimization Parameters Particle deposition Physics Physics and Astronomy Probable error Radiation Regular Article Rheological properties Rheology Skin friction Solidification Stagnation point Temperature effects Theoretical Thermal stratification Thermophoresis Transport equations Transport rate
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Title	A study of dual stratification on stagnation point Walters' B nanofluid flow via radiative Riga plate: a statistical approach
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