Analysis of Rough Porous Inclined Slider Bearing Lubricated With a Ferrofluid Considering Slip Velocity

Abstract

The current study focuses on performance of the ferrofluid, Slider bearing which inclined through the porosity with lubrication based rough surface to examine the impacts of slip velocity. The magnetic fluid flow is directed by the Neuringer and Rosensweig model. The Christensen and Tonder models have been taken to derive the transverse roughness stochastically. The impacts of slip velocity are studied by using the Beavers and Joseph model. While the distribution of pressure measured by cracking from the equation of Reynolds which is stochastic. This is followed by a numerically using Simpson's 1/3 rule of the expression for the dimensionless load carrying capacity to study its correlation with the bearing system. A graphical study demonstrates the efficacy of load on magnetic, roughness and slip parameter. The outcome show, there is a positive correlation among the ability of load as well as left-ward skewed surface. The results were more prominent in the case of negative variance. This study focuses on finding a possible way of increasing load capacity by decreasing the slip parameter and porosity. An appropriate selection of magnetic strength may lead to some compensation for poor effect of porosity, slip and roughness.

Three-Dimensional Hydro-Magnetic Flow Arising in a Long Porous Slider and a Circular Porous Slider with Velocity Slip

“…Prawal Sinha analyzed the thermal effects of a long porous rough slider bearing [6]. Mohmmadrayian analyzed a rough porous inclined slider bearing lubricated with a ferrofluid in consideration of slip velocity [7]. Ji Lang both theoretically and experimentally investigated the transient squeezing flow in a highly porous film [8].…”