Analysis of tool-chip interface characteristics of self-lubricating tools with nanotextures and WS2/Zr coatings in dry cutting

The environmental obligations of manufacturing industries have resulted in the development of new cutting tools during metal machining without cutting fluids. According to the green manufacturing principles and to further improve the cutting performance of tools in dry cutting, novel cutting tools c...

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Veröffentlicht in:International journal of advanced manufacturing technology 2018-07, Vol.97 (5-8), p.1637-1647
Hauptverfasser: Xing, Youqiang, Deng, Jianxin, Wu, Ze, Liu, Lei, Huang, Peng, Jiao, Anqiang
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container_end_page 1647
container_issue 5-8
container_start_page 1637
container_title International journal of advanced manufacturing technology
container_volume 97
creator Xing, Youqiang
Deng, Jianxin
Wu, Ze
Liu, Lei
Huang, Peng
Jiao, Anqiang
description The environmental obligations of manufacturing industries have resulted in the development of new cutting tools during metal machining without cutting fluids. According to the green manufacturing principles and to further improve the cutting performance of tools in dry cutting, novel cutting tools combined with nanotextures and WS 2 /Zr coatings (AN-AW) are developed, and cutting tests without cutting fluids on hardened steel exhibit that the AN-AW tool is the most effective in reducing the cutting forces compared with the WS 2 /Zr-coated tool (AS-W) and conventional tool (AS). Based on the experiments and theoretical models, the tool-chip interface characteristics are further investigated quantitatively to analyze the mechanism of the AN-AW tool. Results show that the AN-AW tool has a significant effect on the tool-chip interface characteristics. The AN-AW tool is the most effective in reducing the friction coefficient and tool-chip contact length; meanwhile, it changes the stress distribution at the tool-chip interface. The reduced tool-chip contact length and sticking-total contact length ratio as well as the lubricant film formed by the WS 2 /Zr coatings at the tool-chip interface may be responsible for the changes of friction and stress distribution for the AN-AW tool.
doi_str_mv 10.1007/s00170-018-2054-2
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According to the green manufacturing principles and to further improve the cutting performance of tools in dry cutting, novel cutting tools combined with nanotextures and WS 2 /Zr coatings (AN-AW) are developed, and cutting tests without cutting fluids on hardened steel exhibit that the AN-AW tool is the most effective in reducing the cutting forces compared with the WS 2 /Zr-coated tool (AS-W) and conventional tool (AS). Based on the experiments and theoretical models, the tool-chip interface characteristics are further investigated quantitatively to analyze the mechanism of the AN-AW tool. Results show that the AN-AW tool has a significant effect on the tool-chip interface characteristics. The AN-AW tool is the most effective in reducing the friction coefficient and tool-chip contact length; meanwhile, it changes the stress distribution at the tool-chip interface. 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subjects CAE) and Design
Coatings
Coefficient of friction
Computational fluid dynamics
Computer-Aided Engineering (CAD
Contact stresses
Cutting fluids
Cutting force
Cutting parameters
Cutting tools
Engineering
Friction reduction
Industrial and Production Engineering
Lubricants
Lubrication
Machining
Mechanical Engineering
Media Management
Original Article
Self lubrication
Stress concentration
Stress distribution
Zirconium
title Analysis of tool-chip interface characteristics of self-lubricating tools with nanotextures and WS2/Zr coatings in dry cutting
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