In order to study the effects of solid lubricants and texture synergy on the machining performance of GGr15 bearing steel. Using the non-smooth, wear-resistant groove patterns on the surfaces of shellfish and sharks as bionic models, a combined groove-type micro-texture is prepared on the front surface of the lathe tool. The changes in cutting force and equivalent stress of the tool under different working conditions are simulated and predicted using the finite element numerical simulation software AdvantEdge. Verification is conducted through cutting experiments, and a comprehensive evaluation is performed by combining tool wear and surface quality.The optimal texture parameters obtained through orthogonal experiments are a spacing of 250 µm, a width of 60 µm, and a depth of 44 µm. The results show that under the synergistic effect of solid lubricants and textures, the surface roughness of the workpiece is reduced by 1.06% to 14.08%, and the cutting force is reduced by 0.6% to 19.7%. The research results of this paper have important reference significance for realizing the efficient processing and high quality manufacturing of GCr 15 bearing steel.
SuYMiaoLJYuXF, et al. Effect of isothermal quenching on microstructure and hardness of GCr15 steel. J Mater Res Technol2021; 15: 2820–2827.
2.
ZhangWLiWLiuH, et al. Microstructure effects on improving rolling contact fatigue by a double-quenching heat treatment process for GCr15 steel. Tribol Int2024; 194: 109519.
3.
YangLDingYChengB, et al. Investigations on femtosecond laser modified micro-textured surface with anti-friction property on bearing steel GCr15. Appl Surf Sci2018; 434: 831-842.
4.
LiuXLWenDHLiZJ, et al. Cutting temperature and tool wear of hard turning hardened bearing steel. J Mater Process Technol2002; 129(1-3): 200-206.
5.
ChenGKongLLiuX.Finite element analysis and experiments of saw chip formation for bearing steel GCr15 in hard cutting process. J Vibroeng2014; 16(6): 2834-2842.
6.
ChenTLiSHanB, et al. Study on cutting force and surface micro-topography of hard turning of GCr15 steel. Int J Adv Manuf Technol2014; 72(9-12): 1639-1645.
7.
HussainGAlkahtaniMAlsultanM, et al. Chip formation, cutting temperature and forces measurements in hard turning of GCr15 under the influence of PcBN chamfering parameters. Measurement2022; 204: 112130.
8.
FatimaAWhiteheadDJMativengaPT.Femtosecond laser surface structuring of carbide tooling for modifying contact phenomena. Proc Inst Mech Eng Part B: J Eng Manuf2014; 228(11): 1325–1337.
9.
TongXZhangYShenJ, et al. Design of surface micro texture in the cutter-chip contact area of a cemented carbide cutter. Proc Inst Mech Eng Part B: J Eng Manuf2022; 237(10): 1497–1508.
10.
PatelDJainVRamkumarJ.Micro texturing on metallic surfaces: State of the art. Proc Inst Mech Eng Part B: J Eng Manuf2016; 232(6): 941–964.
11.
DuanZChenLLiB. Effect of micro-textured morphology with different wettabilities on tool cutting performance. Int J Adv Manuf Technol2022; 123(5–6): 1745–1754.
12.
TongXRenYShenJ, et al. Chip formation and the interaction of mesoscopic geometric features of cutter. Proc Inst Mech Eng Part B: J Eng Manuf2021; 236(3): 270–280.
13.
RajurkarAChinchanikarS.Investigations on homothetic and hybrid micro-textured tools during turning Inconel-718. Mater Manuf Process2023; 39(4): 1–17.
14.
YuZChenGXuanW, et al. Machining performance of micro-pit and micro-groove composite textured tools in tungsten alloy turning. Proc Inst Mech Eng Part B: J Eng Manuf2024; 239(4): 418–427.
15.
WuZBaoHLiuL, et al. Numerical investigation of the performance of micro-textured cutting tools in cutting of Ti-6Al-4V alloys. Int J Adv Manuf Technol2020; 108(1–2): 463–474.
16.
ZhengKYangFZhangN, et al. Study on the cutting performance of micro textured tools on cutting Ti-6Al-4V titanium alloy. Micromachines2020; 11(2): 137.
TorresHPanaitescuIGanglR, et al. Laser metal deposition of self-lubricating alloys on selective laser melting maraging tools for the high temperature forming of aluminium. Wear2023; 524–525: 204883.
19.
MaddamasettyABodduruKBevaraS, et al. Performance evaluation of graphene added nanofluids and self-lubricating tools in machining Inconel 718. World J Eng2021; 19(4): 583–593.
20.
LianYChenHMuC, et al. Experimental investigation and mechanism analysis of tungsten disulfide soft coated micro-nano textured self-lubricating dry cutting tools. Int J Precis Eng Manuf Green Technol2018; 5(2): 219–230.
21.
SharmaVPandeyPM.Comparative study of turning of 4340 hardened steel with hybrid textured self-lubricating cutting inserts. Mater Manuf Process2016; 31(14): 1904–1916.
22.
ChenJLiuDJinT, et al. A novel bionic micro-textured tool with the function of directional cutting-fluid transport for cutting titanium alloy. J Mater Process Technol2023; 311: 117816.
23.
LiangYWangCWangW, et al. Effect of composite bionic micro-texture on bearing lubrication and cavitation characteristics of slipper pair. J Mar Sci Eng2023; 11(3): 582.
24.
XuTMaCShiH, et al. Effect of composite bionic micro-texture on cutting performance of tools. Lubricants2023; 12(1): 4.
25.
YuSRLiuJADiaoW, et al. Preparation of a bionic microtexture on X52 pipeline steels and its superhydrophobic behavior. J Alloys Compd2014; 585: 689–695.
26.
SokolovDSobynaVVambolS, et al. Substantiation of the choice of the cutter material and method of its hardening, working under the action of friction and cyclic loading. Arch Mater Sci Eng2018; 2(94): 49–54.
27.
DeanBBhushanB.Shark-skin surfaces for fluid-drag reduction in turbulent flow: a review. Philos Trans R Soc A Math Phys Eng Sci2010; 368: 4775–4806.
28.
TianLTianXWangY, et al. Anti-wear properties of the molluscan shell Scapharca subcrenata: influence of surface morphology, structure and organic material on the elementary wear process. Mater Sci Eng C2014; 42: 7–14.
29.
LiuXZhuHXieY, et al. Optimization of microstructural morphology via laser processing to enhance the bond strength of Al-CFRP. J Reinf Plast Compos2020; 40(11–12): 463–473.
30.
PalSLojenGHudákR, et al. As-fabricated surface morphologies of Ti-6Al-4V samples fabricated by different laser processing parameters in selective laser melting. Addit Manuf2020; 33: 101147.
31.
RostamsowlatIEvansBSaroutJRostamiJKwonHJ.Determination of internal friction angle of rocks using scratch test with a blunt PDC cutter. Rock Mech Rock Eng2022;55(12):7859–7880.
32.
KumarRHussainovaIRahmaniRAntonovM.Solid lubrication at high-temperatures—a review. Materials2022;15(5):1695.
33.
RosenkranzACostaHLBaykaraMZMartiniA.Synergetic effects of surface texturing and solid lubricants to tailor friction and wear: a review. Tribol Int2021;155:106792.
34.
HuaiWZhangCWenS.Graphite-based solid lubricant for high-temperature lubrication. Friction2020;9(6):1660–1672.
