Recent Progress on Fabrication Technologies and Machining Performance of Textured Cutting Tools

doi:10.3901/JME.2021.13.172

Abstract

Abstract: The manufacturing industry has faced more challenges in recent years with the rise of sustainable development. Since cutting is a common machining method in manufacturing industry, the performance of cutting tools has become a critical issue. Fabricate texture on the surface of cutting tools is an advanced technology which can improve the cutting performance, thus improve the surface quality of substrate and prolong the life of cutting tools. Relevant research has shown that textured tools can reduce the contact length of tool-chip and improve the friction conditions, which results in reducing the cutting force and cutting temperature. In addition, because of the function of lubricant storage by the textures, minimal quantity lubrication can be achieved which leads to more environmentally friendly process. Therefore, the problems of excessive cutting heat and serious pollution can be alleviated by using textured tools. This paper presents a systematically review on recent progress in the field of textured cutting tools, including the technologies used in fabricating textures and the cutting mechanism of textured tools. Besides, the effects of surface texture on tool performance, cutting performance and machined surface quality as well as the application of textured cutting tools are summarized. Finally, the future trends of textured tools are forecasted. This study provides a reference for futher in-deep study of textured tools. Key words:textured tool; texture fabrication; tool performance; cutting performance; surface quality

Key words: textured tool, texture fabrication, tool performance, cutting performance, surface quality

CLC Number:

TG506
TG712

GUO Jiang, WANG Xingyu, ZHAO Yong, XU Yongbo, CUI Hailong, WEI Zhaocheng, JIN Zhuji, KANG Renke. Recent Progress on Fabrication Technologies and Machining Performance of Textured Cutting Tools[J]. Journal of Mechanical Engineering, 2021, 57(13): 172-200.

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