Volume 3 Issue 1
Oct.  2022
Turn off MathJax
Article Contents
Yanbin ZHANG, Wenyi LI, Lizhi TANG, Changhe LI, Xiaoliang LIANG, Shuaiqiang XU, Zafar SAID, Shubham SHARMA, Yun CHEN, Bo LIU, Zongming ZHOU. Abrasive water jet tool passivation: from mechanism to application[J]. Journal of Advanced Manufacturing Science and Technology , 2023, 3(1): 2022018. doi: 10.51393/j.jamst.2022018
Citation: Yanbin ZHANG, Wenyi LI, Lizhi TANG, Changhe LI, Xiaoliang LIANG, Shuaiqiang XU, Zafar SAID, Shubham SHARMA, Yun CHEN, Bo LIU, Zongming ZHOU. Abrasive water jet tool passivation: from mechanism to application[J]. Journal of Advanced Manufacturing Science and Technology , 2023, 3(1): 2022018. doi: 10.51393/j.jamst.2022018

Abrasive water jet tool passivation: from mechanism to application

doi: 10.51393/j.jamst.2022018
Funds:

This study was financially supported by the National Natural Science Foundation of China (Grant Nos. 51905289 and 51975305), Young Talent of Lifting Engineering for Science and Technology in Shandong, China (Grant Nos. SDAST2021qt12), 2020 Science and Technology Special Plan in West Coast New District, Qingdao(2020-97).

  • Received Date: 2022-08-02
  • Rev Recd Date: 2022-08-24
  • Available Online: 2022-09-14
  • Publish Date: 2022-10-09
  • The passivation process of a tool is a necessary step in the manufacturing process, which could improve tool life and machining efficiency by removing microscopic defects of in tool surface (such as burrs and micro cracks) after grinding or polishing. The abrasive water jet passivation (AWJP) is one of the most commonly used processes for carbide, ceramic and steel materials tools. Nevertheless, the complex action law from passivation to machining performance is indistinct, which makes passivation parameters rely on empirical summaries. To fill this gap, this paper concentrates on the detailed review of AWJP and comprehensive assessment between machining performance and AWJP parameters. Firstly, the mechanism of AWJP is analyzed, and the influence law of jet parameters on the tool nose radius is investigated. Secondly, the effect of tool nose radius on the force in turning and milling are summarized and analyzed. The jet pressure, abrasive concentration and jet time are positively correlated with the tool nose radius. Additionally, then the tool nose radius is positively and negatively correlated with cutting force and tool wear, respectively. Finally, future directions regarding the different parameters in AWJP and the machine tool for tool passivation are proposed: to reveal the complex nonlinear relationships between the parameters in AWJP. Develop economical, practical and efficient tool passivation machine tools to improve passivation efficiency and passivation accuracy and apply them to domestic tool passivation technology.

  • loading
  • [1]
    . Li LX. Research and development of integral tool automatic passivation equipment. Tool Eng 2014;48(11):57–59 [Chinese].
    [2]
    . Xu SQ, Zhang YB, Zhou ZM, et al. Design of automated and cleaner production line for wheel hub in automobile manufacturing. Manuf Technol Mach Tool 2022;(4):32–37 [Chinese].
    [3]
    . Mu DF, Liu XL, Yue CX, et al. On-line tool wear monitoring based on machine learning. J Adv Manuf Science Technol 2021;1(2):2021002.
    [4]
    . Hughes JI, Sharman ARC, Ridgway K. The effect of tool edge preparation on tool life and workpiece surface integrity. Proc Inst Mech Eng B J Eng Manuf 2004;218(9):1113–1123.
    [5]
    . Duan ZJ, Li CH, Ding WF, et al. Milling force model for aviation aluminum alloy: academic insight and perspective analysis. Chin J Mech Eng 2021;34(1):18.
    [6]
    . Gao T, Zhang YB, Li CH, et al. Fiber-reinforced composites in milling and grinding: machining bottlenecks and advanced strategies. Front Mech Eng 2022;17(2):24.
    [7]
    . Wu SJ, Lin JP, An QL, et al. Research on residual stress optimization of micro-cutting inconel 718 based on minimum quantity lubrication. Tool Eng 2022;56(7):26–33 [Chinese].
    [8]
    . Yin QG, Li CH, Zhang YB, et al. Spectral analysis and power spectral density evaluation in Al2O3 nanofluid minimum quantity lubrication milling of 45 steel. Int J Adv Manuf Technol 2018;97(1):129– 145.
    [9]
    . Li CH, Zhao HY, Ma HL, et al. Simulation study on effect of cutting parameters and cooling mode on bone-drilling temperature field of superhard drill. Int J Adv Manuf Technol 2015;81(9):2027–2038.
    [10]
    . Niu JB, Xu JT, Ren F, et al. A short review on milling dynamics in low-stiffness cutting conditions: Modeling and analysis. J Adv Manuf Science Technol 2021;1(1):2020004.
    [11]
    . Sun W, Duan CZ, Yin WD. Development of a dynamic constitutive model with particle damage and thermal softening for Al/SiCp composites. Compos Struct 2020;236:111856.
    [12]
    . Wang XM, Li CH, Zhang YB, et al. Tribology of enhanced turning using biolubricants: a comparative assessment. Tribol Int 2022;174:107766.
    [13]
    . Li HN, Wang JP, Wu CQ, et al. Damage behaviors of unidirectional CFRP in orthogonal cutting: a comparison between single- and multiple-pass strategies. Compos B Eng 2020;185:107774.
    [14]
    . Zhuang KJ, Fu CN, Weng J, et al. Cutting edge microgeometries in metal cutting: a review. Int J Adv Manuf Technol 2021;116(7):2045–2092.
    [15]
    . Peter P, Boris P, Tomáš V, et al. Cutting edge radius preparation. Mater Today Proc 2020;22:212–218.
    [16]
    . Wang T, Wu XY, Zhang GQ, et al. An experimental study on single-point diamond turning of a 55vol% SiCp/Al composite below the ductile brittle transition depth of SiC. Int J Adv Manuf Technol 2020;108(7):2255–2268.
    [17]
    . Zhao Q, Lai ZW, Liu XJ, et al. Research progress on the Influence of tool edge preparation on cutting performance. Cemented Carbide 2020;37(5):378– 389 [Chinese].
    [18]
    . Hu C, Wang J, Lin LL, et al. Effects of asymmetric passivation of tool cutting edge on microstructure evolution when cutting Inconel 718 alloy. Procedia CIRP 2022;108:141–146.
    [19]
    . Niu QL, Jing L, Li CP, et al. Study on effects of tool nose radius on the formation mechanism of edge defects during milling SiCp/Al composites. Int J Adv Manuf Technol 2021;114(7):2261–2269.
    [20]
    . Chen CN, Liao CH, Liao YS. A method for determining the nose radius of an unequal nose radius multi-point threading tool. J Adv Mech Des Syst Manuf 2013;7(2):205–218.
    [21]
    . Abdellaoui L, Bouzid W. Thermomechanical modeling of oblique turning in relation to tool-nose radius. Mach Sci Technol 2016;20(4):586–614.
    [22]
    . Bordin FM, Zeilmann RP. Effect of the cutting edge preparation on the surface integrity after dry drilling. Procedia CIRP 2014;13:103–107.
    [23]
    . Shao GP, Ren JX, Tian RX, et al. Influence of cutting tool blade passivation on surface roughness while milling GH4169. Aviat Precis Manuf Technol 2013;49(2):1–3 [Chinese].
    [24]
    . Luo X, Kou ZL, Liu T, et al. Edge preparation of PCD cutting tools and influence on surface roughness while turning aluminum. Tool Eng 2016;(5):17–20 [Chinese].
    [25]
    . Peng LZ, Zhang XM, Wen GH, et al. Effect of edge preparation on the surface roughness and tool life PCD cutting tools milling titanium alloy. Cemented Carbides 2018;35(4):285–290 [Chinese].
    [26]
    . Liu S, Liu Y, Yang HQ, et al. Analysis on influence of PCD tool edge strengthening on tool performance. Tool Eng 2020,54(4):36-39 [Chinese].
    [27]
    . Júnior MG, de Angelo Sanchez LE, França TV, et al. Analysis of the tool nose radius influence in the machining of a green ceramic material. Int J Adv Manuf Technol 2019;105(7):3117–3125.
    [28]
    . Hua Y, Liu ZQ. Effects of cutting parameters and tool nose radius on surface roughness and work hardening during dry turning Inconel 718. Int J Adv Manuf Technol 2018;96(5):2421–2430.
    [29]
    . Chou YK, Song H. Tool nose radius effects on finish hard turning. J Mater Process Technol 2004;148(2):259–268.
    [30]
    . Bhardwaj B, Kumar R, Singh PK. Effect of machining parameters on surface roughness in end milling of AISI 1019 steel. Proc Inst Mech Eng B J Eng Manuf 2014;228(5):704–714.
    [31]
    . Fulemova J, Janda Z. Influence of the cutting edge radius and the cutting edge preparation on tool life and cutting forces at inserts with wiper geometry. Procedia Eng 2014;69:565–573.
    [32]
    . Bakar HA, Ghani J, Haron C. Influence of rounded cutting-edge radius and machining parameters on surface roughness and tool wear in milling AISI H13 steel under dry and cryogenic machining. J Tribologi, 2020;22:52–64.
    [33]
    . Özel T, Hsu TK, Zeren E. Effects of cutting edge geometry, workpiece hardness, feed rate and cutting speed on surface roughness and forces in finish turning of hardened AISI H13 steel. Int J Adv Manuf Technol 2005;25(3):262–269.
    [34]
    . Kuram E. Nose radius and cutting speed effects during milling of AISI 304 material. Mater Manuf Process 2017;32(2):185–192.
    [35]
    . Guo J, Wang XY, Zhao Y, et al. On-machine measurement of tool nose radius and wear during precision/ultra-precision machining. Adv Manuf 2022;10(3):368–381.
    [36]
    . Luo G, Liu WZ, Hu JH, et al. Edge passivation research of carbide-type milling cutter. Dongfang Turbine, 2017;(1): 42–48 [Chinese].
    [37]
    . Zhou JM, Walter H, Andersson M, et al. Effect of chamfer angle on wear of PCBN cutting tool. Int J Mach Tools Manuf 2003;43(3):301–305.
    [38]
    . Vopát T, Sahul M, Haršáni M, et al. The tool life and coating-substrate adhesion of AlCrSiN-coated carbide cutting tools prepared by LARC with respect to the edge preparation and surface finishing. Micromachines 2020;11(2):166.
    [39]
    . Pereira O Celaya A, González H, Gómez-Escudero G, et al. Influence of cutting edge radius on tool life in milling Inconel 718. In: AIP Conference Proceedings; 2019;2113(1):080019.
    [40]
    . An S, Foest R, Fricke K, et al. Pretreatment of cutting tools by plasma electrolytic polishing (PEP) for enhanced adhesion of hard coatings. Surf Coat Technol 2021;405:126504.
    [41]
    . Liu HT, Li NM, Zhang HT. Research on influence of edge preparation to cutting property of PCBN cutting tools. Tool Eng 2011;45(4):29–32 [Chinese].
    [42]
    . Khalili K, Safaei M. FEM analysis of edge preparation for chamfered tools. Int J Mater Form 2009;2(4):217.
    [43]
    . Yen YC, Jain A, Altan T. A finite element analysis of orthogonal machining using different tool edge geometries. J Mater Process Technol 2004;146(1):72–81.
    [44]
    . Zhao X, Yang Y, He L, et al. Experiment and modeling of milling force based on tool edge preparation. Exp Tech 2022;46(5):761–773.
    [45]
    . Jia XJ, Li JF, Sun J. Influence of cutting tool blade passivation on cutting force and surface roughness. Comput Integr Manuf Syst 2011;17(7):1430–1434 [Chinese].
    [46]
    . Tagiuri ZAM, Dao TM, Samuel AM, et al. A numerical model for predicting the effect of tool nose radius on machining process performance during orthogonal cutting of AISI 1045 steel. Materials (Basel) 2022;15(9):3369.
    [47]
    . Dai X, Zhuang KJ, Ding H. A systemic investigation of tool edge geometries and cutting parameters on cutting forces in turning of Inconel 718. Int J Adv Manuf Technol 2019;105(1):531–543.
    [48]
    . Xu Y, Ren J, Liang Y, et al. Cutting forces, tool life, and size effect of passivated cutters in milling of Inconel 718. Proceedings of the 2014 International Conference on Innovative Design and Manufacturing. 2014.p.149-154.
    [49]
    . Wyen CF, Wegener K. Influence of cutting edge radius on cutting forces in machining titanium. CIRP Ann 2010;59(1):93–6.
    [50]
    . Yang SC, Tong X, Liu XL, et al. Investigation on the characteristic of forces of the tool edge in finish machining of titanium alloys. Int J Adv Manuf Technol 2018;96(5):2431–2441.
    [51]
    . Khlifi H, Abdellaoui L, Sai WB. An equivalent geometry model for turning tool with nose and edge radii. Int J Adv Manuf Technol 2019;103(9):4233– 4251
    [52]
    . Chen G, Chen S, Caudill J, et al. Effect of cutting edge radius and cooling strategies on surface integrity in orthogonal machining of Ti-6Al-4V alloy. Procedia CIRP 2019;82:148–153.
    [53]
    . Liu HX, Li ZY, Zhang W, et al. Experimental study of twist drill performance with negative chamfered and rounded honing edge. Tool Eng 2019;53(5):42– 45 [Chinese].
    [54]
    . Liu ZH, Liao ZR, Wang D, et al. Recent advances in soft biological tissue manipulating technologies. Chin J Mech Eng–EN 2022;35(1):1–34.
    [55]
    . Zhang WW, Zhuang KJ, Pu DL. A novel finite element investigation of cutting force in orthogonal cutting considering plough mechanism with rounded edge tool. Int J Adv Manuf Technol 2020;108(9):3323–3234.
    [56]
    . Kishawy HA, Rogers RJ, Balihodzic N. A numerical investigation of the chip tool interface in orthogonal machining. Mach Sci Technol 2002;6(3):397–414.
    [57]
    . Tong X, Ren YX, Shen JN, et al. Chip formation and the interaction of mesoscopic geometric features of cutter. Proc Inst Mech Eng B J Eng Manuf 2022;236(3):270–280.
    [58]
    . Teng XY, Huo DH, Chen WQ, et al. Finite element modelling on cutting mechanism of nano Mg/SiC metal matrix composites considering cutting edge radius. J Manuf Process 2018;32:116–126.
    [59]
    . Wang L, Shao Q, Ran CQ, et al. Influence of carbide drill edge preparation on drilling 42CrMo. Tool Eng 2018;52(3):91–94 [Chinese].
    [60]
    . Lin KY, Wang WH, Jiang RS, et al. Effect of tool nose radius and tool wear on residual stresses distribution while turning in situ TiB2/7050 Al metal matrix composites. Int J Adv Manuf Technol 2019;100(1):143–151.
    [61]
    . Rech J, Claudin C. Influence of cutting tool constitutive parameters on residual stresses induced by hard turning. Int J Mach Mach Mater 2008;4(1):39–50.
    [62]
    . Chang YY, Sun T, Li ZQ. Effect of geometric parameter of diamond tool on residual stress. Tool Eng 2015;49(9):33–37 [Chinese].
    [63]
    . Fan N, Chen M, Guo PQ. Simulation of cutting tool geometry parameters impact on residual stress. In 2009 Chinese Control and Decision Conference. 2009.p.5472–5475.
    [64]
    . Sun JK. Study on surface integrity of titanium alloy under tool mesoscopic characteristics[dissertation]. Harbin: Harbin University of Science and Technology Press, 2021 [Chinese].
    [65]
    . Shen Q. Research on effect of cutting edge microgeometry on GH4169 machined residual stress[dissertation]. Jinan: Shandong University Press, 2019 [Chinese].
    [66]
    . Zheng PF. Effect of passivation morphology on cutting performance of cemented carbide tools[dissertation]. Guiyang: Guizhou University Press, 2020 [Chinese].
    [67]
    . Wu ZP. Study on the influence of tool passivation asymmetric cutting edge on cutting performance[dissertation]. Guiyang: Guizhou University Press, 2019 [Chinese].
    [68]
    . Byrne G, Dornfeld D, Denkena B. Advancing cutting technology. CIRP Ann 2003;52(2):483–507.
    [69]
    . Denkena B, Biermann D. Cutting edge geometries. CIRP Ann 2014;63(2):631–653.
    [70]
    . Denkena B, Köhler J, Ventura CEH. Customized cutting edge preparation by means of grinding. Precis Eng 2013;37(3):590–598.
    [71]
    . Gu ZW, Zhang Q. Prospect of the technology of cutter blade passivation. Tool Eng 2009;43(8):78-80 [Chinese].
    [72]
    . Denkena B, Köhler J, Breidenstein B, et al. Influence of the cutting edge preparation method on characteristics and performance of PVD coated carbide inserts in hard turning. Surf Coat Technol 2014;254:447–454.
    [73]
    . Sui MH, Li CH, Wu WT, et al. Temperature of grinding carbide with castor oil-based MoS2 nanofluid minimum quantity lubrication. J Therm Sci Eng Appl 2021;13(5):1–30 [Chinese].
    [74]
    . Jia DZ, Li CH, Zhang YB, et al. Specific energy and surface roughness of minimum quantity lubrication grinding Ni-based alloy with mixed vegetable oil-based nanofluids. Precis Eng 2017;50:248–262.
    [75]
    . Jia DZ, Li CH, Zhang YB, et al. Experimental research on the influence of the jet parameters of minimum quantity lubrication on the lubricating property of Ni-based alloy grinding. Int J Adv Manuf Technol 2016;82(1):617–630.
    [76]
    . Huang BT, Zhang YB, Wang XM. Experimental evaluation of wear mechanism and grinding performance of SG wheel in machining nickel-based alloy GH4169. Surf Technol 2021;50(12):62–70 [Chinese].
    [77]
    . Zhang ZC, Sui MH, Li CH, et al. Residual stress of grinding cemented carbide using MoS2 nanolubricant. Int J Adv Manuf Technol 2022;119(9):5671–5685.
    [78]
    . Wang H. Edge preparation methods for cemented carbide cutting tools[dissertation]. Ningbo: Ningbo University Press, 2012 [Chinese].
    [79]
    . Ma JC. The relationship between tools and burrs in mechanical processing. Machinery 1988;(4):19–21 [Chinese].
    [80]
    . Gao H, Guo TP, Peng C, et al. Research on deburring and passivation polishing technology of tap tool with rotary abrasive flow. Surf Technol 2022:1–11 [Chinese].
    [81]
    . Liu YH. Experimental research on the enhanced cutting edges of HSS TAPS with the method of electrolysis[dissertation]. Harbin: Harbin Institute of Technology, 2011 [Chinese].
    [82]
    . Zhang S, Zong WJ. Micro defects on diamond tool cutting edge affecting the ductile-mode machining of KDP crystal. Micromachines 2020;11(12):1102.
    [83]
    . Yuan YG, Zhu SG. Failure analysis of hard alloy cutter blades for cutting chemical fibers. J Text Res 2005;26(1):20-21 [Chinese].
    [84]
    . Zhang HY, Chen W, Liu YL, et al. Experimental research on the cutting of high nitrogen austenitic stainless steel. Acta Armamentarii 2010;31(8):1067 [Chinese].
    [85]
    . Cheung FY, Zhou ZF, Geddam A, et al. Cutting edge preparation using magnetic polishing and its influence on the performance of high-speed steel drills. J Mater Process Technol 2008;208(1–3):196– 204.
    [86]
    . Wu G, Li JP. Development and application of low frequency pulse magnetization processing machine for tools. Coal Mine Mod 2006;(4):51–52 [Chinese].
    [87]
    . Zheng QD, Zhuang XC, Gao ZS, et al. Investigation on wear-induced edge passivation of fine-blanking punch. Int J Adv Manuf Technol 2019;104(9–12):4129–4141.
    [88]
    . Breidenstein B, Denkena B. Significance of residual stress in PVD-coated carbide cutting tools. CIRP Ann 2013;62(1):67–70.
    [89]
    . Liu J. Effects of magnetization on the performance and residual stress of tool[dissertation]. Changchun: Changchun University of Technology, 2014 [Chinese].
    [90]
    . Uhlmann E, Oberschmidt D, Kuche Y, et al. Cutting edge preparation of micro milling tools. Procedia CIRP 2014;14:349–354.
    [91]
    . Mao ZX, Cai CT, Qi JX. Analysis and Research of the Technology Based on Carbide Tool Passivation. Appl Mech Mater 2014;541:579–583.
    [92]
    . Zhao XF, Li H, He L, et al. Modeling and detection of the prepared tool edge radius. Sci Prog 2020;103(3):36850420957903.
    [93]
    . Woon KS, Rahman M. The effect of tool edge radius on the chip formation behavior of tool-based micromachining. Int J Adv Manuf Technol 2010;50(9):961–977.
    [94]
    . He Y, Yang BX, Gao YH, et al. Manufacture and application of PCD tool. Tool Eng 2018;52(11): 53– 58 [Chinese].
    [95]
    . Yu JG. Discussion on the key technology of mechanical cutting tool production. Technol Innov Appl 2015;(27):136 [Chinese].
    [96]
    . Zhao CS. Study on reliability of NC tool in mass production. Plant Main Eng 2020;(12):47–49 [Chinese].
    [97]
    . Denkena B, Krüger M, Schmidt J. Condition-based tool management for small batch production. Int J Adv Manuf Technol 2014;74(1):471–480.
    [98]
    . Schultheiss F, Zhou JM, Gröntoft E, et al. Sustainable machining through increasing the cutting tool utilization. J Clean Prod 2013;59: 298– 307.
    [99]
    . Ventura CEH, Köhler J, Denkena B. Cutting edge preparation of PCBN inserts by means of grinding and its application in hard turning. CIRP J Manuf Sci Technol 2013;6(4):246–253.
    [100]
    . Zeng W, Shi KH, Gu JB, et al. Review of cutting edge passivation and detection technology of cemented carbide blade. Tool Eng 2019;53(9): 14– 17[Chinese].
    [101]
    . Gui YP, Yu QX. Exploration of tool edge passivation technology. Metal Working(Metal Cutting) 2004;(6): 43–44 [Chinese].
    [102]
    . Hartig J, Kirsch B, Aurich JC. Analysis of the grinding wheel wear and machining result during cutting edge preparation with elastic bonded grinding wheels. J Manuf Process 2022;75: 181– 202.
    [103]
    . Wang MB, Wang RH. Advances in the process control of abrasive water jet. Lubr Eng 2005;(06):204–207 [Chinese].
    [104]
    . Liu YN, Zhou B, Zhang S. Study on edge preparation of cemented carbide inserts based on micro-blasting Jet technology. Tool Eng 2017;51(11):16–20 [Chinese].
    [105]
    . Wang XF, Zhang GF. Application of CNC brushing-polishing machine on edge radiusing for heavy milling inserts. Tool Eng 2011;45(5):68–70 [Chinese].
    [106]
    . Li ZY, Wang HY, Su HY, et al. Application of abrasive electrochemical machining inc arbide tool edge honing. J Dalian Polytech Univ 2019;38(02):141–145 [Chinese].
    [107]
    . Liu W. Research on the influence of planetary motion preparation on the tool edge contour[dissertation]. Guiyang: Guizhou University, 2017 [Chinese].
    [108]
    . Wang LJ, Zhang W, Gan WM, et al. Cemented carbide tool edge passivation contrast experimental research. Tool Eng 2013;47(12):25–28 [Chinese].
    [109]
    . Zou YL. Research on key technology of ultrasonic vibration rounding with flat end milling cutter[dissertation]. Hangzhou: Zhejiang University of Technology, 2019 [Chinese].
    [110]
    . Huang B, Wang WH, Jiang RS, et al. Experimental study on ultrasonic vibration-assisted drilling micro-hole of SiCf/SiC ceramic matrix composites. Int J Adv Manuf Technol 2022;120(11):8031–8044.
    [111]
    . Qi H, Qin SK, Cheng ZC, et al. DEM and experimental study on the ultrasonic vibrationassisted abrasive finishing of WC-8Co cemented carbide cutting edge. Powder Technol 2021;378:716–723.
    [112]
    . Zhao XF, Qin H, Yang Y, et al. The influence of double disk magnetic passivation parameters on cutting edge. Modular Mach Tool Automat 2021;(8):52–61 [Chinese].
    [113]
    . Karpuschewski B, Byelyayev O, Maiboroda VS. Magneto-abrasive machining for the mechanical preparation of high-speed steel twist drills. CIRP Ann 2009;58(1):295–298.
    [114]
    . Denkena B, Köhler J, Schindler A. Behavior of the magnetic abrasive tool for cutting edge preparation of cemented carbide end Mills. Prod Eng Res Devel 2014;8(5):627–633.
    [115]
    . Biermann D, Aßmuth R, Schumann S, et al. Wet abrasive jet machining to prepare and design the cutting edge micro shape. Procedia CIRP 2016;45:195–198.
    [116]
    . Krebs E, Wolf M, Biermann D, et al. High-quality cutting edge preparation of micromilling tools using wet abrasive jet machining process. Prod Eng Res Devel 2018;12(1):45–51.
    [117]
    . Edem IF, Balogun VA. Sustainability analyses of cutting edge radius on specific cutting energy and surface finish in side milling processes. Int J Adv Manuf Technol 2018;95(9):3381–3391.
    [118]
    . Zhao XF, Zheng PF, He L, et al. Cutting edge preparation using the discrete element software EDEM. J Braz Soc Mech Sci Eng 2020;42(4):163.
    [119]
    . Zhao XF, Du YC, Wu ZP. Research on the influence of the edge preparation parameters on the edge radius. Mach Design Manuf 2020;(3):131–133, 137 [Chinese].
    [120]
    . Zhao XF, He L. Influence of cutting edge preparation parameter on edge radius. Tool Eng 2017;51(5):71–73 [Chinese].
    [121]
    . Liu MZ, Li CH, Cao HJ, et al. Research progresses and application of CMQL machining technology. China Mech Eng 2022;33(5):529–550 [Chinese].
    [122]
    . Zhang YB, Li CH, Jia DZ. Experimental evaluation into lubricating property of nanoparticles jet MQL grinding nickel base alloy. Modular Mach Tool Automat Manuf Tech 2015;(6):113–117 [Chinese].
    [123]
    . Yang M, Li CH, Zhang YB, et al. Theoretical analysis and experimental research on temperature field of microscale bone grinding under nanoparticle jet mist cooling. J Mech Eng 2018;54(18):194–203 [Chinese].
    [124]
    . Jia DZ, Li CH, Zhang YB. Numerical simulation and experimental research about downstream flow field of atomizing nozzle in nanoparticle jet MQL grinding. Modular Mach Tool Automatic Manuf Tech 2015;(9):5–9 [Chinese].
    [125]
    . Zhang YB, Li CH. Grinding mechanism, force prediction model and experimental validation of vegetable oil based nanofluids minimum quantity lubrication. J Mech Eng 2020;56(9):44 [Chinese].
    [126]
    . Wang WT, Saifullah MK, Aßmuth R, et al. Effect of edge preparation technologies on cutting edge properties and tool performance. Int J Adv Manuf Technol 2020;106(5):1823–1838.
    [127]
    . Bouzakis KD, Bouzakis E, Skordaris G, et al. Effect of PVD films wet micro-blasting by various Al2O3 grain sizes on the wear behaviour of coated tools. Surf Coat Technol 2011;205:S128–S132.
    [128]
    . Wan QF, Lei YY, Liu KF, et al. Research on model of tool edge preparation based on micro abrasive water jet. Mod Manuf Eng 2013;(9):95–99 [Chinese].
    [129]
    . Yang Z. Research on machine tool for edge preparation using micro abrasive water jet[dissertation]. Chengdu: Xihua University, 2012 [Chinese].
    [130]
    . Sauer K, Witt M, Putz M. Influence of cutting edge radius on process forces in orthogonal machining of carbon fibre reinforced plastics (CFRP). Procedia CIRP 2019;85: 218–223.
    [131]
    . Yu Z, Zheng GM, Cheng X, et al. Review on micro-blasting surface treatment technology for coated tool. Mach Tool Hydraulics 2021;49(18):166–72, 176 [Chinese].
    [132]
    . Melentiev R, Fang FZ. Investigation of erosion temperature in micro-blasting. Wear 2019;420–421: 123–132.
    [133]
    . Lin HJ, Meng XL, Zhang HY. Subsurface deformation and residual stress in aluminum alloys subjected to Al2O3-particles impacting. Mod Paint Finish 2010;13(4):41–44 [Chinese].
    [134]
    . Gadge M, Lohar G, Chinchanikar S. A review on micro-blasting as surface treatment technique for improved cutting tool performance. Mater Today Proc 2022;64:725–730.
    [135]
    . Fu XS, Zou B, Liu YN, et al. Edge micro-creation of Ti(C, N) cermet inserts by micro-abrasive blasting process and its tool performance. Mach Sci Technol 2019;23(6):951–970.
    [136]
    . Zhang S, Zou B, Liu YN, et al. Edge passivation and quality of carbide cutting inserts treated by wet micro-abrasive blasting. Int J Adv Manuf Technol 2018;96(5):2307–2318.
    [137]
    . Bassett E, Köhler J, Denkena B. On the honed cutting edge and its side effects during orthogonal turning operations of AISI1045 with coated WC-Co inserts. CIRP J Manuf Sci Technol 2012;5(2):108– 126.
    [138]
    . Xu FF, Wang JS, Fang FZ, et al. A study on the tool edge geometry effect on nano-cutting. Int J Adv Manuf Technol 2017;91(5):2787–2797.
    [139]
    . Wang L, Zhang W. Test and study of brushpolishing machine to edge hones of carbide drill. Coal Mine Mach 2012;33(12):58-59 [Chinese].
    [140]
    . Vopát T, Podhorský Š, Sahul M, et al. Cutting edge preparation of cutting tools using plasma discharges in electrolyte. J Manuf Process 2019;46: 234–240.
    [141]
    . Wu YJ, Li ZY, Zhang W, et al. Research of indentation cathode for electrochemical edge honing to carbide drill with curved cutting edge. Tool Eng 2021;55(05):38–42 [Chinese].
    [142]
    . Wang LJ, Zhang W, Gan WM, et al. Experimental study on CNC electrolysis mechanical edge passivation. Mach Tool Hydraulics 2014;42(19):76– 77, 45 [Chinese].
    [143]
    . Su HY, Zhang W, Shen YL, et al. Experimental of electrolytic-abrasive edge honing process for cemented carbide tool. Tool Eng 2014;9:198–200 [Chinese].
    [144]
    . Yan XG, Li JL, Guo R, et al. Study on passivation process of high-speed steel taps' cutting edge. Tool Eng 2018;52(09):55–60 [Chinese].
    [145]
    . Denkena B, Lucas A, Bassett E. Effects of the cutting edge microgeometry on tool wear and its thermo-mechanical load. CIRP Ann 2011;60(1):73– 76.
    [146]
    . Wan QF. Research on coated cutting tool processing using micro abrasive water jet[dissertation]. Chengdu: Xihua University, 2014 [Chinese].
    [147]
    . Liu HL, Chen SQ. Experimental study on passivation method of carbide blade edge. Tool Eng 2014;48(6):50–53 [Chinese].
    [148]
    . Ventura CEH, Magalhães FC, Abrão AM, et al. Performance evaluation of the edge preparation of tungsten carbide inserts applied to hard turning. Int J Adv Manuf Technol 2021;112(11):3515–3527.
    [149]
    . Khan SA, Umar M, Saleem MQ, et al. Experimental investigations on wiper inserts’ edge preparation, workpiece hardness and operating parameters in hard turning of AISI D2 steel. J Manuf Process 2018;34:187–196.
    [150]
    . Karpuschewski B, Schmidt K, Beňo J, et al. Measuring procedures of cutting edge preparation when hard turning with coated ceramics tool inserts. Measurement 2014;55:627–640.
    [151]
    . Lefi A, Hassen K, Wassila BS, et al. Tool nose radius effects in turning process. Mach Sci Technol 2020;25(1):1-30.
    [152]
    . Wang WT, Biermann D, Aßmuth R, et al. Effects on tool performance of cutting edge prepared by pressurized air wet abrasive jet machining (PAWAJM). J Mater Process Technol 2020;277:116456.
    [153]
    . Parida AK, Maity K. Effect of nose radius on forces, and process parameters in hot machining of Inconel 718 using finite element analysis. Eng Sci Technol Int J 2017;20(2):687–693.
    [154]
    . Heidari M, Akbari J, Yan JW. Effects of tool rake angle and tool nose radius on surface quality of ultraprecision diamond-turned porous silicon. J Manuf Process 2019;37:321–331.
    [155]
    . Zhao T, Zhou JM, Bushlya V, et al. Effect of cutting edge radius on surface roughness and tool wear in hard turning of AISI 52100 steel. Int J Adv Manuf Technol 2017;91(9):3611–3618.
    [156]
    . Du YZ, Zhou L. Influence of tool corner radius on edge defects in machining of SiCp /Al composites. Tool Eng 2014;(5):45–48 [Chinese].
    [157]
    . Ji MM, Jian XD, Geng GS. FEM simulation of effect of cutting parameters on cutting quality. Acta Agr Jiangxi 2010;22(10):104–106 [Chinese].
    [158]
    . Gao T, Miao HB, Jiang M, et al. Effect of tool nose radius to difficult cutting material on surface roughness. Coal Mine Mach 2013;34(8):149–150 [Chinese].
    [159]
    . Nath C, Rahman M, Neo KS. A study on the effect of tool nose radius in ultrasonic elliptical vibration cutting of tungsten carbide. J Mater Process Technol 2009;209(17):5830–5836.
    [160]
    . Brown I, Schoop J. The effect of cutting edge geometry, nose radius and feed on surface integrity in finish turning of Ti-6Al4V. Procedia CIRP 2020; 87: 142-147.
    [161]
    . Barbosa MGCB, Hassui A, de Oliveira PA. Effect of cutting parameters and cutting edge preparation on milling of VP20TS steel. Int J Adv Manuf Technol 2021;116(9):2929–2942.
    [162]
    . Zeilmann RP, Ost CA, Fontanive F. Characterization of edge preparation processes and the impact on surface integrity after milling of AISI P20 steel. J Braz Soc Mech Sci Eng 2018;40(9):421.
    [163]
    . Bouzakis KD, Bouzakis E, Kombogiannis S, et al. Effect of cutting edge preparation of coated tools on their performance in milling various materials. CIRP J Manuf Sci Technol 2014;7(3):264–273.
    [164]
    . Dong GJ, Wang L, Li C, et al. Investigation on ultrasonic elliptical vibration boring of deep holes with large depth-diameter ratio for high-strength steel 18Cr2Ni4WA. Int J Adv Manuf Technol 2020;108(5):1527–1539.
    [165]
    . Guo X, Ge YF, Fu XQ, et al. Research on tool life and wear of heavy milling aluminum thin-walled hollow structural. Tool Eng 2014;48(8): 43–47 [Chinese].
    [166]
    . Li L. High speed rough machining-high feed milling of titanium alloys. Aeronaut Manuf Technol 2014;(12):32–35 [Chinese].
    [167]
    . Feng WW. Research on cutting force and its relationship with tool tip radius in laser assisted micro milling[dissertation]. Harbin: Harbin Institute of Technology, 2015 [Chinese].
    [168]
    . Zhao XF, Zhou ZC, Shi HY, et al. Analysis of influence of geometric parameters of micro milling cutter on milling titanium alloy TC4. Modular Mach Tool & Autom 2020;(10):9–13 [Chinese].
    [169]
    . Zhou T, He L, Zou ZF, et al. Three-dimensional turning force prediction based on hybrid finite element and predictive machining theory considering edge radius and nose radius. J Manuf Process 2020;58:1304–1317.
    [170]
    . Wang XY. High-speed milling process of aircraft structural part. Aeronaut Manuf Technol 2013;(14):64–69 [Chinese].
    [171]
    . Cong PQ. Theoretical and experimental research on high speed milling SiCp/Al-MMC by PCD tools[dissertation]. Beijing: Beijing Institute of Technology, 2015 [Chinese].
    [172]
    . Cong PQ, Xie LJ, Peng S. Experimental study on high-speed milling of high volume fraction of SiCp/Al composites by PCD tools. New Technol New Process 2015;(6):138-142 [Chinese].
    [173]
    . Zhou HB, Zhang JJ, Yan H, et al. Research on tool wear mechanism and forecast method of titanium alloy high speed milling. Tool Eng 2014;48(3):18– 22 [Chinese].
    [174]
    . Liu LJ. Experimental study on milling surface integrity of nuclear power cast steel[dissertation]. Shanghai: Shanghai Jiao Tong University, 2012 [Chinese].
    [175]
    . Wang X. Mechinability investigation for milling of TC11 and TC17 titanium alloys[dissertation]. Jinan: Shandong University, 2010 [Chinese].
    [176]
    . Huang ST, Guo L, Yang HC, et al. Study on characteristics in high-speed milling SiCp/Al composites with small particles and high volume fraction by adopting PCD cutters with different grain sizes. Int J Adv Manuf Technol 2019;102(9):3563–3571.
  • 加载中

Catalog

    通讯作者: 陈斌, bchen63@163.com
    • 1. 

      沈阳化工大学材料科学与工程学院 沈阳 110142

    1. 本站搜索
    2. 百度学术搜索
    3. 万方数据库搜索
    4. CNKI搜索

    Figures(1)

    Article Metrics

    Article views (1209) PDF downloads(167) Cited by()
    Proportional views
    Related

    /

    DownLoad:  Full-Size Img  PowerPoint
    Return
    Return