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Yunfeng TAN


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Journal of Zhejiang University SCIENCE A 2023 Vol.24 No.12 P.1043-1064


Key technologies and development trends of the soft abrasive flow finishing method

Author(s):  Yunfeng TAN, Yesha NI, Weixin XU, Yuanshen XIE, Lin LI, Dapeng TAN

Affiliation(s):  Key Lab of E&M, Ministry of Education & Zhejiang Province, Zhejiang University of Technology, Hangzhou 310014, China; more

Corresponding email(s):   tandapeng@zjut.edu.cn, linli@zjut.edu.cn, weixinxu@zjut.edu.cn

Key Words:  Soft abrasive flow finishing (SAF), Dynamic modeling, Material removal mechanism, Processing optimization, Strengthening finishing control technology

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Yunfeng TAN, Yesha NI, Weixin XU, Yuanshen XIE, Lin LI, Dapeng TAN. Key technologies and development trends of the soft abrasive flow finishing method[J]. Journal of Zhejiang University Science A, 2023, 24(12): 1043-1064.

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publisher="Zhejiang University Press & Springer",

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%T Key technologies and development trends of the soft abrasive flow finishing method
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%D 2023
%I Zhejiang University Press & Springer
%DOI 10.1631/jzus.A2300038

T1 - Key technologies and development trends of the soft abrasive flow finishing method
A1 - Yunfeng TAN
A1 - Yesha NI
A1 - Weixin XU
A1 - Yuanshen XIE
A1 - Lin LI
A1 - Dapeng TAN
J0 - Journal of Zhejiang University Science A
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PB - Zhejiang University Press & Springer
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DOI - 10.1631/jzus.A2300038

This paper reviews recent developments of the soft abrasive flow finishing (SAF) method in constraint space. The multiphase fluid dynamics modeling, material removal mechanism, auxiliary strengthening finishing techniques, and observation of surface impact effects by abrasive particles and cavitation bubbles are presented in brief. Development prospects and challenges are given for four aspects: thin-walled curved surfaces, biomedical functions, electronic information, and precise optical components.




Darkslateblue:Affiliate; Royal Blue:Author; Turquoise:Article


[1]BrinksmeierE, RiemerO, GessenharterA, et al., 2004. Polishing of structured molds. CIRP Annals, 53(1):‍247-250.

[2]BrinksmeierE, RiemerO, GessenharterA, 2006. Finishing of structured surfaces by abrasive polishing. Precision Engineering, 30(3):325-336.

[3]ChenXY, GuY, LinJQ, et al., 2020. Study on subsurface damage and surface quality of silicon carbide ceramic induced by a novel non-resonant vibration-assisted roll-type polishing. Journal of Materials Processing Technology, 282:116667.

[4]ChuKW, WangB, YuAB, et al., 2009. CFD-DEM modelling of multiphase flow in dense medium cyclones. Powder Technology, 193(3):235-247.

[5]FähnleOW, van BrugH, FrankenaHJ, 1998. Fluid jet polishing of optical surfaces. Applied Optics, 37(28):6771-6773.

[6]FanXH, TanDP, LiL, et al., 2021. Modeling and solution method of gas-liquid-solid three-phase flow mixing. Acta Physica Sinica, 70(12):124501 (in Chinese).

[7]GaoH, WuMY, FuYZ, et al., 2015. Development of theory and technology in fluid abrasive finishing technology. Journal of Mechanical Engineering, 51(7):‍174-187 (in Chinese).

[8]GeJQ, JiSM, TanDP, 2018. A gas-liquid-solid three-phase abrasive flow processing method based on bubble collapsing. The International Journal of Advanced Manufacturing Technology, 95(1-4):1069-1085.

[9]GeJQ, LiC, GaoZY, et al., 2021a. Softness abrasive flow polishing method using constrained boundary vibration. Powder Technology, 382:173-187.

[10]GeJQ, HuWP, XiYX, et al., 2021b. Gas-liquid-solid swirling flow polishing and bubble collapse impact characteristics. Powder Technology, 390:315-329.

[11]GeJQ, RenYL, XuXS, et al., 2021c. Numerical and experimental study on the ultrasonic-assisted soft abrasive flow polishing characteristics. The International Journal of Advanced Manufacturing Technology, 112(11-12):‍3215-3233.

[12]GeJQ, ZhouHT, LiC, et al., 2022. Soft abrasive flow polishing method and optimization research on the constrained space. The International Journal of Advanced Manufacturing Technology, 118(5-6):1673-1688.

[13]GeJQ, RenYL, LiC, et al., 2023. Ultrasonic coupled abrasive jet polishing (UC-AJP) of glass-based micro-channel for micro-fluidic chip. International Journal of Mechanical Sciences, 244:108055.

[14]GeM, JiSM, TanDP, et al., 2021. Erosion analysis and experimental research of gas-liquid-solid soft abrasive flow polishing based on cavitation effects. The International Journal of Advanced Manufacturing Technology, 114(11-12):3419-3436.

[15]HanSF, 2017. Multi-Field Coupling Modeling and Regulation Method for Gas-Liquid-Solid Three-Phase Abrasive Flow. MS Thesis, Zhejiang University of Technology, Hangzhou, China(in Chinese).

[16]HashishM, 1989. Pressure effects in abrasive-waterjet (AWJ) machining. Journal of Engineering Materials and Technology, 111(3):221-228.

[17]JiSM, XiaoFQ, TanDP, 2010a. Analytical method for softness abrasive flow field based on discrete phase model. Science China Technological Sciences, 53(10):2867-2877.

[18]JiSM, TangB, TanDP, et al., 2010b. Structured surface softness abrasive flow precision finish machining and its abrasive flow dynamic numerical analysis. Journal of Mechanical Engineering, 46(15):178-184 (in Chinese).

[19]JiSM, WengXX, TanDP, 2011a. Analysis on characteristics of softness abrasive two-phase flow field based on level set method. Journal of Zhejiang University (Engineering Science), 45(12):2222-2228 (in Chinese).

[20]JiSM, LiC, TanDP, et al., 2011b. Study on machinability of softness abrasive flow based on Preston equation. Journal of Mechanical Engineering, 47(17):156-163 (in Chinese).

[21]JiSM, WengXX, TanDP, et al., 2012a. Analytical method of softness abrasive two-phase flow field based on 2D model of LSM. Acta Physica Sinica, 61(1):010205 (in Chinese).

[22]JiSM, ZhongJQ, TanDP, et al., 2012b. Distribution and dynamic characteristic of particle group with different concentration in structural flow passage. Transactions of the Chinese Society of Agricultural Engineering, 28(4):‍45-53 (in Chinese).

[23]JiSM, ChiYW, TanDP, 2012c. Research of abrasive injection process to the wall and machining characteristic of soft abrasive flow machining. Journal of Mechanical Engineering, 48(13):174-183 (in Chinese).

[24]JiSM, QiuY, CaiYJ, et al., 2014. Research on mechanism of ultrasound enhancing and the experiment based on softness abrasive flow. Journal of Mechanical Engineering, 50(7):84-93 (in Chinese).

[25]JiSM, TanYF, TanDP, et al., 2017a. Swirling flow field numerical analysis and processing experiment of gas-liquid-solid three phase abrasive flow machining. Journal of Basic Science and Engineering, 25(6):‍1193-1210 (in Chinese).

[26]JiSM, GeJQ, TanDP, 2017b. Wall contact effects of particle-wall collision process in a two-phase particle fluid. Journal of Zhejiang University-SCIENCE A (Applied Physics & Engineering), 18(12):958-973.

[27]JiSM, CaoHQ, ZhaoJ, et al., 2019. Soft abrasive flow polishing based on the cavitation effect. The International Journal of Advanced Manufacturing Technology, 101(5-8):1865-1878.

[28]KeCH, ShuS, ZhangH, et al., 2017. LBM-IBM-DEM modelling of magnetic particles in a fluid. Powder Technology, 314:264-280.

[29]KotroczK, MouazenAM, KerényiG, 2016. Numerical simulation of soil-cone penetrometer interaction using discrete element method. Computers and Electronics in Agriculture, 125:63-73.

[30]KumarSS, HiremathSS, 2016. A review on abrasive flow machining (AFM). Procedia Technology, 25:1297-1304.

[31]LaggerHG, BierwischC, KorvinkJG, et al., 2014. Discrete element study of viscous flow in magnetorheological fluids. Rheologica Acta, 53(5-6):417-443.

[32]LauterbornW, OhlCD, 1997. Cavitation bubble dynamics. Ultrasonics Sonochemistry, 4(2):65-75.

[33]LehrF, MilliesM, MewesD, 2002. Bubble-size distributions and flow fields in bubble columns. AIChE Journal, 48(11):2426-2443.

[34]LiC, 2022. Modeling and Control of Gas-Liquid-Solid Three-Phase Flow in Microchannels Based on Magnetohydrodynamics. MS Thesis, Zhejiang University of Technology, Hangzhou, China(in Chinese).

[35]LiC, JiSM, TanDP, 2012. Softness abrasive flow method oriented to tiny scale mold structural surface. The International Journal of Advanced Manufacturing Technology, 61(9-12):975-987.

[36]LiC, JiSM, TanDP, et al., 2014. Study of near wall area micro-cutting mechanism and finishing characteristics for softness abrasive flow finishing. Journal of Mechanical Engineering, 50(9):161-168 (in Chinese).

[37]LiC, XuQD, GeJQ, et al., 2020. Study of soft abrasive flow field measurement based on particle image velocimetry. The International Journal of Advanced Manufacturing Technology, 109(7-8):2039-2047.

[38]LiJ, JiSM, TanDP, 2017. Improved soft abrasive flow finishing method based on turbulent kinetic energy enhancing. Chinese Journal of Mechanical Engineering, 30(2):‍301-309.

[39]LiJ, ZhuFM, YuJY, 2019. An ultrasonic-assisted soft abrasive flow processing method for mold structured surfaces. Advances in Mechanical Engineering, 11(1):1-17.

[40]LiJY, WeiLL, ZhangXM, et al., 2017. Impact of abrasive flow polishing temperature on nozzle quality under mesoscopic scale. Acta Armamentarii, 38(10):‍2010-2018 (in Chinese).

[41]LiL, QiH, YinZC, et al., 2020a. Investigation on the multiphase sink vortex Ekman pumping effects by CFD-DEM coupling method. Powder Technology, 360:462-480.

[42]LiL, LuJF, FangH, et al., 2020b. Lattice Boltzmann method for fluid-thermal systems: status, hotspots, trends and outlook. IEEE Access, 8:27649-27675.

[43]LiL, TanDP, YinZC, et al., 2021a. Investigation on the multiphase vortex and its fluid-solid vibration characters for sustainability production. Renewable Energy, 175:887-909.

[44]LiL, TanDP, WangT, et al., 2021b. Multiphase coupling mechanism of free surface vortex and the vibration-based sensing method. Energy, 216:119136.

[45]LiL, YangYS, XuWX, et al., 2022. Advances in the multiphase vortex-induced vibration detection method and its vital technology for sustainable industrial production. Applied Sciences, 12(17):8538.

[46]LiL, TanYF, XuWX, et al., 2023a. Fluid-induced transport dynamics and vibration patterns of multiphase vortex in the critical transition states. International Journal of Mechanical Sciences, 252:108376.

[47]LiL, XuWX, TanYF, et al., 2023b. Fluid-induced vibration evolution mechanism of multiphase free sink vortex and the multi-source vibration sensing method. Mechanical Systems and Signal Processing, 189:110058.

[48]LiL, LuB, XuWX, et al., 2023c. Mechanism of multiphase coupling transport evolution of free sink vortex. Acta Physica Sinica, 72(3):034702 (in Chinese).

[49]LiL, GuZH, XuWX, et al., 2023d. Mixing mass transfer mechanism and dynamic control of gas-liquid-solid multiphase flow based on VOF-DEM coupling. Energy, 272:127015.

[50]LiYB, ChenQ, ZhangL, 2021. Titanium alloy thin-walled curved surface liquid metal-abrasive flow machining simulation and experimental research. Journal of Mechanical Engineering, 57(23):220-231 (in Chinese).

[51]LuJF, WangT, LiL, et al., 2020. Dynamic characteristics and wall effects of bubble bursting in gas-liquid-solid three-phase particle flow. Processes, 8(7):760.

[52]LyuHP, ZhangLB, TanDP, et al., 2022. The AAPF fault-tolerant method for small and complex product assembly. Proceedings of the Institution of Mechanical Engineers, Part B: Journal of Engineering Manufacture, 236(8):1007-1021.

[53]LyuHP, ZhangLB, TanDP, et al., 2023. A collaborative assembly for low-voltage electrical apparatuses. Frontiers of Information Technology & Electronic Engineering, 24(6):890-905.

[54]MarkauskasD, Kruggel-EmdenH, SivanesapillaiR, et al., 2017. Comparative study on mesh-based and mesh-less coupled CFD-DEM methods to model particle-laden flow. Powder Technology, 305:78-88.

[55]Mohseni-MofidiS, PastewkaL, TeschnerM, et al., 2022. Magnetic-assisted soft abrasive flow machining studied with smoothed particle hydrodynamics. Applied Mathematical Modelling, 101:38-54.

[56]MolitorisM, PiteľJ, HošovskýA, et al., 2016. A review of research on water jet with slurry injection. Procedia Engineering, 149:333-339.

[57]NguyenT, WangJ, 2019. A review on the erosion mechanisms in abrasive waterjet micromachining of brittle materials. International Journal of Extreme Manufacturing, 1(1):012006.

[58]NiBY, ZhangAM, WangQX, et al., 2012. Experimental and numerical study on the growth and collapse of a bubble in a narrow tube. Acta Mechanica Sinica, 28(5):1248-1260.

[59]PanY, JiSM, TanDP, et al., 2020. Cavitation-based soft abrasive flow processing method. The International Journal of Advanced Manufacturing Technology, 109(9-12):‍2587-2602.

[60]PeruriSR, ChagantiPK, 2019. A review of magnetic-assisted machining processes. Journal of the Brazilian Society of Mechanical Sciences and Engineering, 41(10):450.

[61]SadeghiO, Bakhtiari-NejadM, YazdandoostF, et al., 2018. Dissipation of cavitation-induced shock waves energy through phase transformation in NiTi alloys. International Journal of Mechanical Sciences, 137:304-314.

[62]TanDP, ZhangLB, 2014. A WP-based nonlinear vibration sensing method for invisible liquid steel slag detection. Sensors and Actuators B: Chemical, 202:1257-1269.

[63]TanDP, LiPY, JiYX, et al., 2013. SA-ANN-based slag carry-over detection method and the embedded WME platform. IEEE Transactions on Industrial Electronics, 60(10):4702-4713.

[64]TanDP, YangT, ZhaoJ, et al., 2016a. Free sink vortex Ekman suction-extraction evolution mechanism. Acta Physica Sinica, 65(5):054701 (in Chinese).

[65]TanDP, JiSM, FuYZ, 2016b. An improved soft abrasive flow finishing method based on fluid collision theory. The International Journal of Advanced Manufacturing Technology, 85(5-8):1261-1274.

[66]TanDP, NiYS, ZhangLB, 2017. Two-phase sink vortex suction mechanism and penetration dynamic characteristics in ladle teeming process. Journal of Iron and Steel Research International, 24(7):669-677.

[67]TanDP, LiL, ZhuYL, et al., 2018a. An embedded cloud database service method for distributed industry monitoring. IEEE Transactions on Industrial Informatics, 14(7):‍2881-2893.

[68]TanDP, ChenST, BaoGJ, et al., 2018b. An embedded lightweight GUI component library and ergonomics optimization method for industry process monitoring. Frontiers of Information Technology & Electronic Engineering, 19(5):604-625.

[69]TanDP, LiL, ZhuYL, et al., 2019a. Critical penetration condition and Ekman suction-extraction mechanism of a sink vortex. Journal of Zhejiang University-SCIENCE A (Applied Physics & Engineering), 20(1):61-72.

[70]TanDP, ZhangLB, AiQL, 2019b. An embedded self-adapting network service framework for networked manufacturing system. Journal of Intelligent Manufacturing, 30(2):539-556.

[71]TanDP, LiL, YinZC, et al., 2020. Ekman boundary layer mass transfer mechanism of free sink vortex. International Journal of Heat and Mass Transfer, 150:119250.

[72]TanYF, NiYS, WuJF, et al., 2023. Machinability evolution of gas-liquid-solid three-phase rotary abrasive flow finishing. The International Journal of Advanced Manufacturing Technology, in press.

[73]van WijngaardenL, 2016. Mechanics of collapsing cavitation bubbles. Ultrasonics Sonochemistry, 29:524-527.

[74]WaliaRS, ShanHS, KumarP, 2006. Abrasive flow machining with additional centrifugal force applied to the media. Machining Science and Technology, 10(3):341-354.

[75]WangH, LuDG, LiuYZ, 2020. PIV measurement and CFD analysis of the turbulent flow in a 3×3 rod bundle. Annals of Nuclear Energy, 140:107135.

[76]WangJX, GaoSB, TangZJ, et al., 2023. A context-aware recommendation system for improving manufacturing process modeling. Journal of Intelligent Manufacturing, 34(3):1347-1368.

[77]WangT, LiL, YinZC, et al., 2022. Investigation on the flow field regulation characteristics of the right-angled channel by impinging disturbance method. Proceedings of the Institution of Mechanical Engineers, Part C: Journal of Mechanical Engineering Science, 236(23):‍11196-11210.

[78]WangT, WangCY, YinYX, et al., 2023. Analytical approach for nonlinear vibration response of the thin cylindrical shell with a straight crack. Nonlinear Dynamics, 111(12):10957-10980.

[79]WangTF, WangJF, JinY, 2003. A novel theoretical breakup kernel function for bubbles/droplets in a turbulent flow. Chemical Engineering Science, 58(20):4629-4637.

[80]WangYY, ZhangYL, TanDP, et al., 2021. Key technologies and development trends in advanced intelligent sawing equipments. Chinese Journal of Mechanical Engineering, 34(1):30.

[81]YangSL, LuoK, FangMM, et al., 2014. Parallel CFD-DEM modeling of the hydrodynamics in a lab-scale double slot-rectangular spouted bed with a partition plate. Chemical Engineering Journal, 236:158-170.

[82]YinZC, LuJF, LiL, et al., 2020. Optimized scheme for accelerating the slagging reaction and slag-metal-gas emulsification in a basic oxygen furnace. Applied Sciences, 10(15):5101.

[83]YinZC, WanYH, FangH, et al., 2022a. Bibliometric analysis on Brain-computer interfaces in a 30-year period. Applied Intelligence, 53:16205-16225.

[84]YinZC, NiYS, LiL, et al., 2022b. Numerical modeling and experimental investigation of a two-phase sink vortex and its fluid-solid vibration characteristics. Journal of Zhejiang University-SCIENCE A (Applied Physics & Engineering), in press.

[85]YuDW, LiuMM, LiuJB, et al., 2020. Effects of mixed-liquor rheology on vibration of hollow-fiber membrane via particle image velocimetry and computational fluid dynamics. Separation and Purification Technology, 239:116590.

[86]YuTB, ZhangTQ, YangT, et al., 2019a. CFD simulation and experimental studies of suspension flow field in ultrasonic polishing. Journal of Materials Processing Technology, 266:715-725.

[87]YuTB, ZhangTQ, YuXM, et al., 2019b. Study on optimization of ultrasonic-vibration-assisted polishing process parameters. Measurement, 135:651-660.

[88]YuanQL, QiH, WenDH, 2016. Numerical and experimental study on the spiral-rotating abrasive flow in polishing of the internal surface of 6061 aluminium alloy cylinder. Powder Technology, 302:153-159.

[89]ZhangCH, GengX, LiZW, et al., 2020. An overview of research on contact state in chemical mechanical polishing. Surface Technology, 49(3):50-56 (in Chinese).

[90]ZhangL, DengB, XieY, et al., 2015. Curved surface turbulence precision machining method for artificial joint complex of titanium alloy. Materials Research Innovations, 19(sup8):S8-55-S8-59.

[91]ZhangL, WangJS, TanDP, et al., 2017. Gas compensation-based abrasive flow processing method for complex titanium alloy surfaces. The International Journal of Advanced Manufacturing Technology, 92(9-12):‍3385-3397.

[92]ZhangL, YuanZM, QiZJ, et al., 2018a. CFD-based study of the abrasive flow characteristics within constrained flow passage in polishing of complex titanium alloy surfaces. Powder Technology, 333:209-218.

[93]ZhangL, YuanZM, TanDP, et al., 2018b. An improved abrasive flow processing method for complex geometric surfaces of titanium alloy artificial joints. Applied Sciences, 8(7):1037.

[94]ZhangLB, LvHP, TanDP, et al., 2018. Adaptive quantum genetic algorithm for task sequence planning of complex assembly systems. Electronics Letters, 54(14):870-872.

[95]ZhangP, DongYZ, ChoiHJ, et al., 2020. Reciprocating magnetorheological polishing method for borosilicate glass surface smoothness. Journal of Industrial and Engineering Chemistry, 84:243-251.

[96]ZhangYL, YeoKS, KhooBC, et al., 2001. 3D jet impact and toroidal bubbles. Journal of Computational Physics, 116(2):336-360.

[97]ZhaoJ, HuangJF, WangR, et al., 2020a. Investigation of the optimal parameters for the surface finish of K9 optical glass using a soft abrasive rotary flow polishing process. Journal of Manufacturing Processes, 49:26-34.

[98]ZhaoJ, JiangEY, QiH, et al., 2020b. A novel polishing method for single-crystal silicon using the cavitation rotary abrasive flow. Precision Engineering, 61:72-81.

[99]ZhaoJ, WangR, JiangEY, et al., 2021. Research on a new method for optimizing surface roughness of cavitation abrasive flow polishing monocrystalline silicon. The International Journal of Advanced Manufacturing Technology, 113(5-6):1649-1661.

[100]ZhaoJ, XiangYC, FanC, 2022. A new method for polishing the inner wall of a circular tube with a soft abrasive rotating jet. Powder Technology, 398:117068.

[101]ZhengGA, GuZH, XuWX, et al., 2023a. Gravitational surface vortex formation and suppression control: a review from hydrodynamic characteristics. Processes, 11(1):42.

[102]ZhengGA, ShiJL, LiL, et al., 2023b. Fluid-solid coupling-based vibration generation mechanism of the multiphase vortex. Processes, 11(2):568.

[103]ZhengSH, YuYK, QiuMZ, et al., 2021. A modal analysis of vibration response of a cracked fluid-filled cylindrical shell. Applied Mathematical Modelling, 91:934-958.

[104]ZhuHP, ZhouZY, YangRY, et al., 2008. Discrete particle simulation of particulate systems: a review of major applications and findings. Chemical Engineering Science, 63(23):5728-5770.

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