接触线边界条件:Navier滑移、超滑移和广义Navier边界条件的流函数解

IF 2.9 3区 综合性期刊 Q1 MULTIDISCIPLINARY SCIENCES Proceedings of the Royal Society A: Mathematical, Physical and Engineering Sciences Pub Date : 2023-10-01 DOI:10.1098/rspa.2023.0141
Yash Kulkarni, Tomas Fullana, Stephane Zaleski
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引用次数: 1

摘要

考虑了三种不同的边界条件:Navier滑移边界条件(NBC)、超滑移边界条件和广义Navier边界条件(GNBC),导出了三点附近局部平面运动流体界面内区域Stokes流动的流函数解。在三相动态接触线问题中,包含滑移长度参数λ的NBC是一种众所周知的正则化方法。结果表明,在该边界条件下,速度场解在接触线上保持c0连续性,从而导致接触线上的压力呈对数发散。而在超滑移边界条件下,壁面速度与剪应力法向导数成正比关系,形成c1速度场。此外,GNBC引入了一个未补偿的杨氏应力来驱动接触线,产生了一个c2速度场。显性项被明确地推导出来,这里提出的解析方法也可以推广到其他双调和问题。
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Stream function solutions for some contact line boundary conditions: Navier slip, super slip and the generalized Navier boundary condition
The stream function solution for the inner region Stokes flow, for a locally plane moving fluid interface near the triple point, is derived considering three different boundary conditions: the Navier slip boundary condition (NBC), the super-slip boundary condition and the generalized Navier boundary condition (GNBC). The NBC, incorporating a slip length parameter λ , is a well-known method for regularization in the context of the three-phase dynamic contact line problem. It is demonstrated that the velocity field solution under this boundary condition maintains a C 0 continuity at the contact line, resulting in a logarithmic divergence of the pressure at the contact line. By contrast, the super-slip boundary condition establishes a proportional relationship between the wall velocity and the normal derivative of the shear stress, leading to a C 1 velocity field. Furthermore, the GNBC, which introduces an uncompensated Young stress to drive the contact line, yields a C 2 velocity field. The dominant terms are explicitly derived, and the analytical approach presented here can be extended to other bi-harmonic problems as well.
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来源期刊
CiteScore
6.40
自引率
5.70%
发文量
227
审稿时长
3.0 months
期刊介绍: Proceedings A has an illustrious history of publishing pioneering and influential research articles across the entire range of the physical and mathematical sciences. These have included Maxwell"s electromagnetic theory, the Braggs" first account of X-ray crystallography, Dirac"s relativistic theory of the electron, and Watson and Crick"s detailed description of the structure of DNA.
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