This paper presents the theoretical study of squeeze film lubrication between porous parallel stepped plates with couple stress fluids. The lubricant with additives in the film region and also in the porous region in modeled as Stokes couple stress fluid. The modified Reynolds equation is derived for porous parallel stepped plates with couple stress fluids. The closed form expressions are obtained. According to the results obtained, the influence of couple stresses enhances the squeeze film pressure, load carrying capacity and decreases the response time as compared to the classical Newtonian-lubricant case. The load carrying capacity decreases as the step height increases
In tribology, the Rayleigh step bearing has the maximum load capacity of any feasible bearing geomet...
The paper presents analytical solution of squeeze film characteristics in wide parallel rectangular ...
The theoretical investigation made in this paper is to study the effect of transverse magnetic field...
In this paper, the theoretical study of squeeze film characteristics between porous parallel stepped...
In this paper, we study squeeze film lubrication characteristics between two rectangular plates, of ...
This paper describes the combined effect of surface roughness and couple stress fluid on the perform...
In this paper, the effect of PDV on the couple stress squeeze film lubrication between rough porous ...
Abstract: In this paper, the squeeze-®lm lubrication theory between two isotropic porous rectangular...
In this paper, a theoretical study of the effect of pressure dependent viscosity on couple stress sq...
This investigation purposes to study the magnetic fluid based squeeze film behavior on transversely ...
A method for investigating the pure squeeze action in an isothermal elastohydrodynamically lubricati...
Purpose: This paper aims to present a detailed analysis to explore the various properties of non-New...
In high pressure fluid flows applications such as fluid film lubrication, microfluidics and geophysi...
A theoretical study of the effects of Magneto-hydrodynamic (MHD) and surface roughness on squeeze fi...
A generalized form of Reynolds equation for two surfaces is taken by considering surface roughness a...
In tribology, the Rayleigh step bearing has the maximum load capacity of any feasible bearing geomet...
The paper presents analytical solution of squeeze film characteristics in wide parallel rectangular ...
The theoretical investigation made in this paper is to study the effect of transverse magnetic field...
In this paper, the theoretical study of squeeze film characteristics between porous parallel stepped...
In this paper, we study squeeze film lubrication characteristics between two rectangular plates, of ...
This paper describes the combined effect of surface roughness and couple stress fluid on the perform...
In this paper, the effect of PDV on the couple stress squeeze film lubrication between rough porous ...
Abstract: In this paper, the squeeze-®lm lubrication theory between two isotropic porous rectangular...
In this paper, a theoretical study of the effect of pressure dependent viscosity on couple stress sq...
This investigation purposes to study the magnetic fluid based squeeze film behavior on transversely ...
A method for investigating the pure squeeze action in an isothermal elastohydrodynamically lubricati...
Purpose: This paper aims to present a detailed analysis to explore the various properties of non-New...
In high pressure fluid flows applications such as fluid film lubrication, microfluidics and geophysi...
A theoretical study of the effects of Magneto-hydrodynamic (MHD) and surface roughness on squeeze fi...
A generalized form of Reynolds equation for two surfaces is taken by considering surface roughness a...
In tribology, the Rayleigh step bearing has the maximum load capacity of any feasible bearing geomet...
The paper presents analytical solution of squeeze film characteristics in wide parallel rectangular ...
The theoretical investigation made in this paper is to study the effect of transverse magnetic field...