An Investigation into the Grinding Characteristics and Wear Evolution of Micro-Elastic Composite Grinding Pads

Feng-Che Tsai
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Abstract

This paper introduces a novel micro-elastic composite grinding pad for material removal. The study also developed a new grinding wear formula grounded in microcontact mechanics, which is crucial in examining the evolution of interface characteristics under optimal parameter combinations. The results showed that the MRR, reduction of roughness height (σ), and peak curvature radius (ρ) increase were the highest in the initial stage, followed by a slight increase in the real contact area in the second stage. This research suggests that abrasive particles primarily detach from the elastic pad in the second stage. The plasticity index (ψ) decreases during grinding, which suggests a transition from an elastic-plastic mixed contact interface to a predominantly elastic contact interface. This shift in the interface mechanics explains the gradual reduction in wear at the grinding interface. Both the plasticity index and the MRR are consistent throughout the grinding process. However, the plasticity index is a more effective index of interface wear than the conventional H/E ratio because it considers the surface roughness's shape and size, which is essential in mild grinding operations. The findings of this study can be used to improve the design and performance of micro-elastic composite grinding pads and to optimize the grinding process for improved efficiency and sustainability.
微弹性复合材料研磨垫的研磨特性和磨损演变研究
本文介绍了一种用于材料去除的新型微弹性复合研磨垫。研究还根据微接触力学建立了新的磨削磨损公式,这对研究最佳参数组合下界面特性的演变至关重要。结果表明,在初始阶段,MRR、粗糙度高度减小(σ)和峰值曲率半径(ρ)的增幅最大,随后在第二阶段,实际接触面积略有增加。这项研究表明,磨料颗粒主要是在第二阶段脱离弹性垫的。塑性指数(ψ)在磨削过程中降低,这表明从弹性-塑性混合接触界面过渡到以弹性为主的接触界面。界面力学的这种转变解释了磨削界面磨损逐渐减少的原因。塑性指数和 MRR 在整个磨削过程中都是一致的。不过,塑性指数是比传统的 H/E 比更有效的界面磨损指数,因为它考虑到了表面粗糙度的形状和大小,这在温和磨削操作中至关重要。本研究的结果可用于改进微弹性复合磨片的设计和性能,并优化磨削过程,以提高效率和可持续性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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