EHL线接触问题双电层和表面粗糙度的牛顿GMRES方法

IF 1.1 Q4 ENGINEERING, MECHANICAL
V. Awati, Parashuram Obannavar, M. N.
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引用次数: 0

摘要

在水-液条件下,固体界面上存在双电层现象。水分子被离子化并粘附在界面上,形成旋流层是一种扩散层,其中分子可以随着大量分子的运动而移动。由于这两个特点,水分子的边界层被称为电双层。本研究的目的是探讨双电层(EDL)在薄水润滑膜上的两个分数表面对表面粗糙度为正弦的弹性流体动力润滑(EHL)线接触问题的影响。在非对称双电层电粘度数学模型的基础上,对控制修正雷诺数方程和膜厚方程进行了数值分析。详细讨论了水的粘压关系以及双电层对线接触水膜EHL膜厚和压力分布影响的理论评价。以Daubechies D6小波为预处理,采用牛顿- gmres方法确定了zeta电位对膜厚和压力的影响。结果表明,EDL对压力分布的影响较小,对膜厚的影响较大。所得结果与具有可比性的Dowson和Higginson的结果进行了比较。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Newton-GMRES-Method for the Scritinization of electric double layer and surface roughness on EHL line contact problem
The electric double layer phenomenon exists on the solid interface under the water-liquid condition. The water molecules are ionized and adhered in the interface forming the sturn layer is a diffused layer in which molecules can move with the movement of bulk of molecules. Because of these two characteristics, the boundary layer of water molecules is called the electric double layer. The aim of present study is to explore the impact of two fraction surfaces of electric double layer (EDL) on a thin water lubricating film on an elastohydrodynamic lubrication (EHL) line contact problem with a sinusoidal surface roughness. The governing modified Reynolds and film thickness equations are based on mathematical model of electro-viscosity of asymmetrical electrical double layer is analyzed numerically. The viscosity-pressure relation of water and theoretical evaluation pertaining to the effect of electric double layer on film-thickness and pressure distribution of EHL with water film of line contact problem is discussed in detail. The effect of zeta potential on film thickness and pressure is determined using Newton’s-GMRES method with Daubechies D6 wavelet as a pre-conditioner. The results predict that, EDL has less impact on pressure distribution and significant impact on film thickness.  The obtained results are compared with results of Dowson and Higginson which are comparable.
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来源期刊
自引率
0.00%
发文量
42
审稿时长
20 weeks
期刊介绍: The Journal of Mechanical Engineering & Sciences "JMES" (ISSN (Print): 2289-4659; e-ISSN: 2231-8380) is an open access peer-review journal (Indexed by Emerging Source Citation Index (ESCI), WOS; SCOPUS Index (Elsevier); EBSCOhost; Index Copernicus; Ulrichsweb, DOAJ, Google Scholar) which publishes original and review articles that advance the understanding of both the fundamentals of engineering science and its application to the solution of challenges and problems in mechanical engineering systems, machines and components. It is particularly concerned with the demonstration of engineering science solutions to specific industrial problems. Original contributions providing insight into the use of analytical, computational modeling, structural mechanics, metal forming, behavior and application of advanced materials, impact mechanics, strain localization and other effects of nonlinearity, fluid mechanics, robotics, tribology, thermodynamics, and materials processing generally from the core of the journal contents are encouraged. Only original, innovative and novel papers will be considered for publication in the JMES. The authors are required to confirm that their paper has not been submitted to any other journal in English or any other language. The JMES welcome contributions from all who wishes to report on new developments and latest findings in mechanical engineering.
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