Abstract
This study aims to present a comparison of all the three magnetic fluid flow models (Neuringer–Rosensweig model, Shliomis model, Jenkins model) regarding the behaviour of a ferrofluid based curved rough porous circular squeeze film with slip velocity. The Beaver’s and Joseph’s slip model has been adopted to evaluate the effect of slip velocity. Further, the stochastic model of Christensen and Tonder has been used to study the effect of surface roughness. The concerned stochastically averaged Reynolds type equation is solved with appropriate boundary conditions to get the pressure distribution lead thus leading to the calculation of load carrying capacity. The graphical representations ensure that Shliomis model may be preferred for designing the bearing system with enhanced life period. However, for lower to moderate values of slip even Neuringer–Rosensweig model may be adopted. In addition, when the slip is at minimum the Jenkin’s model may be deployed when the roughness is at lower level.
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References
Abhangi ND, Deheri GM (2012) Numerical modelling of squeeze film performance between rotating transversely rough curved circular plates under the presence of a magnetic fluid lubricant. ISRN Mech Eng 2012:1–9
Adamu G, Sinha P (2012) Thermal and roughness effects in a tilted pad slider bearing considering heat conduction through the pad and slider. Proc Natl Acad Sci India Sect A Phys Sci 82(4):323–333
Agrawal VK (1986) Magnetic-fluid-based porous inclined slider bearing. Wear 107(2):133–139
Ahmad N, Singh JP (2007) Magnetic fluid lubrication of porous pivoted slider bearing with slip velocity. Proc Inst Mech Eng Part J J Eng Tribol 221(5):609–613
Bhat MV (1978) Hydrodynamic lubrication of porous composite slider bearings. JPN J Appl Phys 17(3):479–481
Bhat MV (2003) Lubrication with a magnetic fluid. Team Spirit (India) Pvt. Ltd, Ahmedabad
Bhat MV, Deheri GM (1995) Porous slider bearing with squeeze film formed by a magnetic fluid. Pure Appl Math Sci 39(1–2):39–43
Christensen H, Tonder KC (1969a) Tribology of rough surfaces: stochastic models of hydrodynamic lubrication. SINTEF Report No. 10/69-18
Christensen H, Tonder KC (1969b) Tribology of rough surfaces: parametric study and comparison of lubrication models. SINTEF Report No. 22/69-18
Christensen H, Tonder KC (1970) The hydrodynamic lubrication of rough bearing surfaces of finite width. In: ASME-ASLE Lubrication Conference, Paper no. 70-lub-7
Deheri GM, Abhangi ND (2011) Numerical modelling of a magnetic fluid-based squeeze film between rotating transversely rough curved circular plates. Int J Comput Mater Sci Surf Eng 4(3):185–204
Deheri GM, Patel JR (2011) Magnetic fluid based squeeze film in a rough porous parallel plate slider bearing. Ann Fac Eng Hunedoara Int J Eng 3:443–448
Deheri GM, Andharia PI, Patel RM (2005) Transversely rough slider bearings with squeeze film formed by a magnetic fluid. Int J Appl Mech Eng 10(1):53–76
Gadelmawla ES, Koura MM, Maksoud TMA, Elewa IM, Sollman HH (2002) Roughness parameters. J Mater Process Technol 123(1):133–145
Guha SK (1993) Analysis of dynamic characteristics of hydrodynamic journal bearings with isotropic roughness effects. Wear 167(2):173–179
Gururajan K, Prakash J (2000) Effect of surface roughness in a narrow porous journal bearing. J Tribol 122(2):472–475
Jao H-C, Chang K-M, Chu L-M, Li W-L (2016) A modified average Reynolds equation for rough bearings with anisotropic slip. J Tribol 138(1):011702
Jenkins JT (1972) A theory of magnetic fluids. Arch Ration Mech Anal 46:42–60
Kumar D, Sinha P, Chandra P (1992) Ferrofluid squeeze film for spherical and comical bearings. Int J Eng Sci 30(5):645–656
Lin JR (2013) Fluid inertia effects in ferrofluid squeeze film between a sphere and a plate. Appl Math Model 37(7):5528–5535
Nada GS, Osman TA (2007) Static performance of finite hydrodynamic journal bearings lubricated by magnetic fluids with couple stresses. Tribol Lett 27(3):261–268
Neuringer JL, Rosensweig RE (1964) Magnetic fluids. Phys Fluids 7(12):1927
Patel JR, Deheri G (2013) Shliomis model based magnetic fluid lubrication of a squeeze film in rotating rough curved circular plates. Carib J Sci Technol 1:138–150
Patel JR, Deheri G (2014a) Shliomis model-based magnetic squeeze film in rotating rough curved circular plates: a comparison of two different porous structures. Int J Comput Mater Sci Surf Eng 6(1):29–49
Patel JR, Deheri GM (2014b) Effect of various porous structures on the Shliomis model based ferrofluid lubrication of the film squeezed between rotating rough curved circular plates. Facta Univ Ser Mech Eng 12(3):305–323
Patel J, Deheri G (2014c) Combined effect of surface roughness and slip velocity on Jenkins model based magnetic squeeze film in curved rough circular plates. Int J Comput Math 2014:1–9
Patel JR, Deheri G (2015) Jenkins model based ferrofluid lubrication of a curved rough annular squeeze film with slip velocity. Tribol Ind 37(2):129–141
Patel JR, Deheri G (2016a) Performance of a ferrofluid based rough parallel plate slider bearing: a comparison of three magnetic fluid flow models. Adv Tribol 2016:1–9
Patel JR, Deheri GM (2016b) Numerical modeling of Jenkins model based ferrofluid lubrication squeeze film performance in rough curved annular plates under the presence of slip velocity. Facta Univ Ser Math Inform 31(1):11–31
Patel JR, Deheri G (2016c) A study of thin film lubrication at nanoscale for a ferrofluid based infinitely long rough porous slider bearing. Facta Univ Ser Mech Eng 14(1):89–99
Patel NS, Vakharia DP, Deheri GM (2012) A study on the performance of a magnetic-fluid-based hydrodynamic short journal bearing. ISRN Mech Eng 2012:1–7
Prajapati BL (1995) On certain theoretical studies in hydrodynamic and electro-magneto hydrodynamic lubrication. Ph.D. Thesis S. P. University
Prakash J, Tiwari K (1983) Roughness effects in porous circular squeeze-plates with arbitrary wall thickness. J Lubr Technol 105(1):90–95
Prakash J, Vij SK (1973) Hydrodynamic lubrication of porous slider. J Mech Eng Sci 15:232–234
Ram P, Verma PDS (1999) Ferrofluid lubrication in porous inclined slider bearing. Indian J Pure Appl Math 30(12):1273–1281
Shah RC, Bhat MV (2000) Squeeze film based on magnetic fluid in curved porous rotating circular plates. J Magn Magn Mater 208(1):115–119
Shah RC, Bhat MV (2002) Ferrofluid lubrication in porous inclined slider bearing with velocity slip. Int J Mech Sci 44(12):2495–2502
Shah RC, Bhat MV (2003) Magnetic fluid based porous inclined slider bearing with velocity slip. Int J Appl Mech Eng 18(2):331–336
Shimpi ME, Deheri GM (2014) Effect of slip velocity and bearing deformation on the performance of a magnetic fluid based rough porous truncated conical plates. IJST Trans Mech Eng 38(M1):195–206
Shliomis MI (1972) Effective viscosity of magnetic suspensions. Sov Phys JETP 34(6):1291–1294
Singh UP, Gupta RS (2012) Dynamic performance characteristics of a curved slider bearing operating with ferrofluid. Adv Tribol 2012:1–6
Sinha P, Adamu G (2009) THD analysis for slider bearing with roughness: special reference to load generation in parallel sliders. Acta Mech 207:11–27
Ting LL (1972) A mathematical analog for determination of porous annular disk squeeze film behavior including the fluid inertia effect. J Basic Eng Trans ASME 94:417–421
Tipei N (1982) Theory of lubrication with ferrofluids: application to short bearings. Trans ASME 104:510–515
Turaga R, Sekhar AS, Majumdar BC (1997) Stochastic FEM analysis of finite hydrodynamic bearings with rough surfaces. Tribol Trans 40(4):605–612
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The authors acknowledge with thanks the in depth comments and fruitful suggestions of the reviewers and the editor.
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Patel, J.R., Deheri, G.M. A Comparison of Magnetic Fluid Flow Models on the Behavior of a Ferrofluid Squeeze Film in Curved Rough Porous Circular Plates Considering Slip Velocity. Iran J Sci Technol Trans Sci 42, 2053–2061 (2018). https://doi.org/10.1007/s40995-017-0365-z
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DOI: https://doi.org/10.1007/s40995-017-0365-z