Performance Research on Bionic Tools Based on Surface Microstructures of Blood Clams in Dry Cutting of GH4169

doi:10.3901/JME.2021.13.242

Abstract

Abstract: GH4169 has excellent anti-fatigue, anti-oxidation and corrosion resistance properties, so it is widely used in aerospace, nuclear energy, petroleum industry and other fields. However, the cutting characteristics such as large cutting force, high cutting temperature and severe tool bonding wear during the cutting process make it becomes a typical difficult-to-process material. In order to improve the harsh environment of cutting GH4169, utilize the anti-friction and wear-resistant properties of the surface microstructure of blood clams, it was applied to the tool-chip contact area of the tool rake face. And the bionic cutting tool was prepared by laser processing. Using cutting simulation to optimize the surface microstructure parameters of the bionic tool, three groups of bionic cutting tools and a group of ordinary tools were selected for dry cutting comparison tests. The research results showed that, compared with ordinary tools, the optimized bionic tools T8 and T20 can improve the cutting force, cutting temperature, adhesive wear and other aspects to a certain extent when dry cutting GH4169, while the improvement effect of the non-optimized bionic tool T25 was not significant.

Key words: bionic tool, dry cutting, microstructures, cutting performance, GH4169

CLC Number:

LIAN Yunsong, XIE Chaoping, ZHOU Wei, CHU Xuyang, ZHAO Guolong. Performance Research on Bionic Tools Based on Surface Microstructures of Blood Clams in Dry Cutting of GH4169[J]. Journal of Mechanical Engineering, 2021, 57(13): 242-251.

References

[1] NARESH N, SANDRA C, TATIANA M, et al. Effect of hatch length on the development of microstructure, texture and residual stresses in selective laser melted superalloy Inconel 718[J]. Material & Design, 2017, 134:139-150.
[2] ZHAO Jinfu, LIU Zhanqiang. Influences of coating thickness on cutting temperature for dry hard turning Inconel 718 with PVD TiAlN coated carbide tools in initial tool wear stage[J]. Journal of Manufacturing Processes, 2020, 56:1155-1165.
[3] SAHARNAZ M, MARYAM A, STEPHEN C V. Novel application of ultra-soft and lubricious materials for cutting tool protection and enhancement of machining induced surface integrity of Inconel 718[J]. Journal of Manufacturing Processes, 2020, 57:431-443.
[4] GRZEGORZ K, PIOTR N, RADOSLAW W M, et al. Dry cutting effect in turning of a duplex stainless steel as a key factor in clean production[J]. Journal of Cleaner Production, 2017, 142(4):3343-3354.
[5] MUSFIRAH A H, JAHARAH A G, CHE H C H. Tool wear and surface integrity of Inconel 718 in dry and cryogenic coolant at high cutting speed[J]. Wear, 2017, 376-377:125-133.
[6] ZHAO Jinfu, LIU Zhanqiang, WANG Bing, et al. PVD AlTiN coating effects on tool-chip heat partition coefficient and cutting temperature rise in orthogonal cutting Inconel 718[J]. International Journal of Heat And Mass Transfer, 2020, 163:120449.
[7] ARMANDO M, MAURO P S, WISLEY F S. Turning of Inconel 718 with whisker-reinforced ceramic tools applying vegetable-based cutting fluid mixed with solid lubricants by MQL[J]. Journal of Materials Processing Technology, 2019, 266:530-543.
[8] CUI Enzhao, ZHAO Jun, WANG Xuchao, et al. Cutting performance, failure mechanisms and tribological properties of GNPs reinforced Al₂O₃/Ti(C, N) ceramic tool in high speed turning of Inconel 718[J]. Ceramics Interantional, 2020, 46(11):18859-18867.
[9] XING Youqiang, LIU Lei, WU Ze, et al. Fabrication and characterization of micro-channels on Al₂O₃/TiC ceramic produced by nanosecond laser[J]. Ceramics Interantional, 2018, 44(18):23035-23044.
[10] PANG Kang, WANG Dazhong. Study on the performances of the drilling process of nickel-based superalloy Inconel 718 with differently micro-textured drilling tools[J]. Interantional Journal of Mechanical Sciences, 2020, 180:105658.
[11] TOSHIYUKI O, MASASHI Y. Suppression of notch wear of a whisker reinforced ceramic tool inair-jet-assisted high-speed machining of Inconel 718[J]. Precision Engineering, 2015, 39:143-151.
[12] XU Yingshuai, GAO Fei, ZOU Ping, et al. Theoretical and experimental investigations of surface roughness, surface topography, and chip shape in ultrasonic vibration-assisted turning of Inconel 718[J]. Journal of Mechanical Science and Technology, 2020, 34(9):3791-3806.
[13] HSU C Y, LIN Y Y, LEE W S, et al. Machining characteristics of Inconel 718 using ultrasonic and high temperature-aided cutting[J]. Journal of Materials Processing Technology, 2008, 198:359-365.
[14] FANG Zhenglong, TOSHIYUKI O. Turning of Inconel 718 using inserts with cooling channels under high pressure jet coolant assistance[J]. Journal of Materials Processing Technology, 2017, 247:19-28.
[15] NAVNEET K, CHETAN A, MANU D, et al. Evaluation of tool wear, energy consumption, and surface roughness during turning of Inconel 718 using sustainable machining technique[J]. Journal of Materials Research and Technology, 2020, 9(3):5794-5804.
[16] HUA Xin, ZHANG Chunhua, WEI Jinda, et al. Wind turbine bionic blade design and performance analysis[J]. Journal of Visual Communication and Image Representation, 2019, 180:105658.
[17] JIANG Zhenxi, SUN Jie, XIONG Qingchun, et al. Structural design of groove and micro-blade of the end mill in aluminum alloys machining based on bionics[J]. The International Journal of Advanced Manufacturing Technology, 2016, 88(9-12):1-14.
[18] WANG Chuanliu. Bionic design and test of polycrystalline diamond compact bit for hard rock drilling in coal mine[J]. Advances in Mechanical Engineering, 2020, 12(5):1-6.
[19] FU Yonghong, XIAO Kailong, HUA Xijun, et al. Cutting trial and performance analysis of surface micro-groove turning tools[J]. China Surface Engineering, 2013, 26(6):106-111.
[20] LU Juncheng, WANG Xingsheng, HUANG Yuke, et al. Fabrication and cutting performance of bionic micro-serrated scalpels based on the miscanthus leaves[J]. Tribology International, 2020, 145:106162.
[21] TATSUYA S, TOSHIYUKI E. Improving anti-adhesion in aluminum alloy cutting by micro stripe texture[J]. Precision Engineering, 2012, 36(2):229-237.
[22] ZHAO Jiale, GUO Mingzhuo, LU Yun, et al. Design of bionic locust mouthparts stubble cutting device[J]. International Journal of Agricultural and Biological Engineering, 2020, 13(1):20-28.
[23] ZHANG Wei, ZHANG Lei, WANG Ben, et al. Finite element simulation analysis of bionic ball-end milling cutter[J]. The International Journal of Advanced Manufacturing Technology, 2019, 103:3151-3161.
[24] LEI Shuting, SASIKUMAR D, ZENGHU C. A study of micropool lubricated cutting tool in machining of mild steel[J]. Journal of Materials Processing Technology, 2009, 209(3):1612-1620.