Research on Material Removal of a New Micro Machining Technology Based on the Magnetorheological Effect of Abrasive Slurry


Article Preview

Based on the magnetorheological (MR) effect of abrasive slurry, the particle-dispersed MR fluid is used as a special instantaneous bond to cohere abrasive particles and magnetic particles so as to form a dynamic, flexible tiny-grinding wheel to polish optical glass, ceramic and other brittle materials of millimeter or sub-millimeter scale with a high efficiency. Experiments were conducted to reveal the effects of different process parameters, such as grain sizes of abrasive particles, machining time, machining gap between the workpiece and the rotation tool, and rotation speed of the tool, on material removal rate of glass surface. The results indicate the following conclusions: material removal rate increases when the grain size of abrasives is similar to that of magnetic particles; machining time is directly proportional to material removal, but inversely proportional to material removal rate; machining gap is inversely proportional to material removal; polishing speed has both positive and negative influence on material removal rate, and greater material removal rate can be obtained at a certain rotation speed. In addition, the difference of the machining characteristics between this new method and the traditional fixed-abrasive machining method is analyzed.



Key Engineering Materials (Volumes 364-366)

Edited by:

Guo Fan JIN, Wing Bun LEE, Chi Fai CHEUNG and Suet TO




J. Yu et al., "Research on Material Removal of a New Micro Machining Technology Based on the Magnetorheological Effect of Abrasive Slurry", Key Engineering Materials, Vols. 364-366, pp. 914-919, 2008

Online since:

December 2007




[1] J. Yu, Q.S. Yan and J.B. Lu: Diamond & Abrasives Engineering, Vol. 149 (2007), in press. (in Chinese).

[2] J.B. Lu, J. Yu, Q.S. Yan and et al: Materials Science Forum, Vols. 532-533 (2006), p.145.

[3] J.B. Lu, Q.S. Yan, J. Yu and W.Q. Gao: Int. J. Materials and Product Technology, in press.

[4] W. Kordonski and D. Golini: Int. J. Modern Physics B, Vol. 13 (1999), p.2209.

Fetching data from Crossref.
This may take some time to load.