Abstract
Gas metal arc welding (GMAW) is widely used in the fields of precision, high-efficiency welding, and wire arc additive manufacturing. The significance of the research on metal transfer is to fundamentally improve the stability and welding quality of the GMAW process so that the process has high-quality and high-efficiency properties at the same time, which is suitable for modern precision welding and rapid additive manufacturing. To achieve precise control of heat transfer, mass transfer, and force transfer in the welding process, it is necessary to optimize and control the metal transfer process. This paper briefly introduces the basic principles and process characteristics of several current advanced metal transfer control processes. Based on the difference in metal transfer control method or welding process, it is divided into three categories: additional external force–driven metal transfer, precision regulation based on the current waveform, hybrid welding, and multi-electrode arc welding control. Based on the development of current welding processes, the future trends of droplet transfer control and welding systems are prospected.
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References
Lin SY, Guan Q (2004) Present situation and development strategy of welding production in China’s manufacturing industry. Metal Form 5:10–15
Kammerhuber CH, Sommerfeld R (1996) High deposition mag welding: used for welding bridges and structures. Weld Word 38:227–343
Sadler H (1999) A look at the fundamentals of gas arc metal welding. Weld J 78(5):45–50
Xiong J, Xue YG, Chen H (2015) Status and development prospects of forming control technology in arc-based additive manufacturing. Electric Weld Mach 45(09):45–50
Kim YS (1998) Metal transfer in gas metal arc welding. Mass Inst Technol
Fan HG, Kovacevic R (1999) Droplet formation, detachment, and impingement on the molten pool in gas metal arc welding. Metall Mater Trans B 30(8):791–801
Feng JC, Zhang HT et al (2009) The CMT short-circuiting metal transfer process and its use in thin aluminum sheets welding. Mater Des 30(5):1850–1852
Pickin CG, Williams SW, Lunt M (2011) Characterisation of the cold metal transfer (CMT) process and its application for low dilution cladding. J Mater Process Technol 211(3):496–502
Pickin CG, Young K (2006) Evaluation of cold metal transfer (CMT) process for welding aluminum alloy. Sci Technol Weld Join 11(5):583–585
Lin SB, Fan CL, Song JL et al (2007) Research on CMT welding of nickel-based alloy with stainless steel. China Weld 16(3):23–26
Zeng YB (2017) Piezoelectric actuation and arc force based control of metal transfer in CO2 welding. Beijing University of Technology
Chen SJ, Zeng YB, Xiao J et al (2018) Excitation of droplet oscillation in CO2 shielded welding based on arc force regulating. Trans China Weld Inst (08):1–5+65
Zhang XC, Gao HM, Zhang GJ (2020) Current-independent metal transfer by utilizing droplet resonance in gas metal arc welding. J Mater Process Tech 279:116571
Huang Y, Zhang YM (2010) Laser-enhanced GMAW. Weld J 89(9):181–188
Huang Y, Shao Y, Zhang YM (2012) Nonlinear modeling of dynamic metal transfer in laser enhanced GMAW. Weld J 91(5):140–148
Xiao J, Chen SJ, Zhang GJ, Zhang YM (2016) Current independent metal transfer by using pulsed laser irradiation part 1: system and verification. Weld J 95(3):93–100
Xiao J, Chen SJ, Zhang GJ, Zhang YM (2016) Current independent metal transfer by using pulsed laser irradiation part 2: affecting factors. Weld J 95(6):194–201
Zhu JL, Li WQ, Jiao XD (2017) Experiment on metal transfer control of laser enhanced hyperbaric underwater MIG welding. Trans China Weld Inst 38(02):33–36+2
Ma ZZ, Zhu JL, Zhou CF (2017) Control on droplet size and metal transfer frequency based on pulsed laser in GMAW. Trans China Weld Inst 38 (05):49–52+57+131
Jia YZ, Chen SJ, Xiao J (2018) Laser enhanced short-circuiting metal transfer in GMAW. Trans China Weld Inst 39(7):51–54
Chen SJ, Jia YZ, Xiao J (2020) Double-sided pulsed laser driven metal transfer in GMAW - ScienceDirect. J Manuf Process 49:196–203
Chen SJ, Jia YZ, Huang WH, Xiao J (2020) Laser-driven programmable metal transfer in GMAW. Weld J 99:93–100
Yang SY (1998) Droplet transfer control of additional mechanical force in MIG / MAG welding. Harbin Inst Technol
Selyanenkov VN (1975) Formation of the weld in a longitudinal magnetic field in argon arc welding. Weld Prod 22(11):50–53
Jackson J (1972) Magnetic control of gas tungsten arc welding process. Weld J 75(8):377–385
Brown DC (1962) The effect of electromagnetic stirring and mechanical vibration on arc welding. Weld J 41(2):241–250
Han Q (2018) Study on the behavior of arc and droplet transfer in MIG welding with external magnetic field. Nanchang Hangkong University
Xu LN (2002) Study on the magnetic control mechanism of high deposition rates MAG process. Beijing University of Technology
Chen SJ, Zhang XL, Hua AB (2009) Study on arc movement characteristics of MAG welding in a rotating magnetic field. Electric Weld Mach 39(6):1–4
Yang WY (2019) Experimental study on magnetic field control high efficiency GMAW welding technology. Lanzhou University of Technology
Chang YL, Niu Y, Babkin AS (2015) Influence of external longitudinal low frequency magnetic field on transition frequency of CO2 welding. J Shenyang Univ Technol 37(3):283–288
Fan CL, Chen QH, Lin SB (2018) Application of ultrasonic in arc welding. J Netshape Form Eng 10(01):57–66
Fan CL, Yao QT, Xie WF (2017) Characteristics of droplet transfer during ultrasound-MAG hybrid welding. Trans China Weld Inst 38(11):11–15+31+129
Stava EK (1993) The surface-tension-transfer power source: a new low-spatter arc welding machine. Weld J 72(1):25–29
Deruntz BD (2003) Assessing the benefits of surface tension transfer welding to industry. J Ind Technol 19(4):55–62
Wu D, Xie WM, Wang YL (2009) Application of RMD root welding technique. Electric Weld Mach 39(5):178–180
Zhang BW, Zhang LQ (2017) Research progress of ac cold metal transfer technology (advanced CMT) and its application in additive manufacturing. J New Industrialization 7(11):82–88
Guo B, Zhang LC (2016) The difference of CMT and CMT advanced. J Netshape Form Eng 8(02):50–54
Kim YS, Eagar T (1993) Metal transfer in pulsed current gas metal arc welding. Weld J 72(7):279s–287s
Zhang YM, Liguo E, Kovacevic R (1998) Active metal transfer control by monitoring excited droplet oscillation. Weld J 77(9):388–395
Xiao J (2014) Active control of metal transfer in GMAW by pulsing laser and arc force. Harbin Inst Technol
Xiao J, Zhang GJ, Zhang WJ et al (2014) Active metal transfer control by using enhanced droplet oscillation part 1: experimental study. Weld J 93(8):282–291
Zheng H, Qi B, Yang M (2021) Dynamic analysis of the ultrasonic-frequency pulsed GMAW metal transfer process. J Manuf Process 62(9–12):283–290
Cui ZS, Qi BJ, Wang Q (2019) Effect of ultra-high frequency pulsed MIG welding parameters on weld formation of 5A06 aluminum alloy. Hot Work Technol 48(01):26–29
Essers WQ, Liefkens AC (1972) Plasma-MIG welding developed by Philips. Mach Prod Eng 121(3129):631–634
Song YX (2017) Study of pulsed plasma-MIG coupling principle and droplet transfer. Beijing University Technology
Tani G, Campana G, Fortunato A (2007) The influence of shielding gas in hybrid LASER–MIG welding. Appl Surf Sci 253(19):8050–8053
Ribic B, Palmer T, DebRoy T (2009) Problems and issues in laser-arc hybrid welding. Int Mater Rev 54(4):223–244
Rao Z, Liao S, Tsai H (2011) Modelling of hybrid laser-GMA welding: review and challenges. Sci Technol Weld Join 16(4):300–305
Naito Y, Mizutani M, Katayama S (2006) Effect of oxygen in ambient atmosphere on penetration characteristics in single yttrium–aluminum–garnet laser and hybrid welding. J Laser Appl 18(1):21–2
Zhao L, Sugino T, Arakane G (2009) Influence of welding parameters on distribution of wire feeding elements in CO2 laser GMA hybrid welding. Sci Technol Weld Join 14(5):457–467
Su ZT, Li H, Wei HL (2016) Improvement of laser on metal transfer in pulsed MIG welding. Trans China Weld Inst 37 (09):91–95+133
Wei HL, Li H, Wang XY (2011) Hybrid interaction of laser and pulsed MIG arc and its influence on metal transfer. Trans China Weld Inst 32 (11):41–44+115
Kim YP, Alam N, Bang HS (2006) Observation of hybrid (cw Nd: YAG laser+MIG) welding phenomenon in AA 5083 butt joints with different gap condition. Sci Technol Weld Join 11(3):295–307
Xue C, Zhang H, Yang RX (2015) Effect of the laser-arc distance on droplet transfer bead shape and melt flow on impurity distribution in CO2-MAG hybrid welding. Appl laser 35(04):445–450
Xu CY, Liu SY, Zhang H (2018) Study on the characteristics and mechanics of droplet transfer in laser arc hybrid welding process. J Mech Eng 54(06):154–161
Li KH (2007) Double-electrode gas metal arc welding: process, modeling and control. University of Kentucky
Li KH, Zhang YM (2008) Consumable double-electrode GMAW part 1: the process. Weld J 87(1):11–17
Shi Y, Liu XP, Zhang YM (2008) Analysis of metal transfer and correlated influences in dual-bypass GMAW of aluminum. Weld J 87(12):229–236
Shi Y, Wang Z, Dong BT et al (2012) Test of thermal cycling curve of pulsed melting-soldering welding DE-GMAW and CMT for bonding steel with aluminum. J Lanzhou Univ Technol 38(4):10–13
Wang LW (2017) Behavior and mechanism of laser-assisted metal transfer in alternating current inter-wire indirect arc. Beijing University of Technology
Chen SJ, Zhang L, Bai LL (2014) Welding method of alternating bypass of double wire indirect arc. Beijing: CN103521885A 01–22
Zhang L (2016) Study on the thermo-dynamic transmission mechanisms in cross arc welding process. Beijing University of Technology
Sun R, Li L, Zhu Y (2018) Microstructure, residual stress and tensile properties control of wire-arc additive manufactured 2319 aluminum alloy with laser shock peening. J Alloy Compd 747:255–265
Acherjee B (2018) Hybrid laser arc welding: state-of-art review. Opt Laser Technol 99:60–71
Sarila VK, Cheepu MM, Babu TV et al (2019) Cold metal transfer (CMT) welding of dissimilar materials: an overview. Mater Sci Forum 969(1):685–690
Lu DQ, Cui L, Chen HX et al (2019) Laser-MIG hybrid keyhole welded 6mm steel/aluminum butt joints. Mater Sci Forum 944:581–592
Zhang L, Su S, Wang J et al (2019) Investigation of arc behaviour and metal transfer in cross arc welding. J Manuf Process 37:124–129
Funding
The authors are grateful for the support from the Beijing Nova Program, Z201100006820101; Natural Science Foundation of Hebei Province under grant No. E2021409029; Youth Fund for Science and Technology Research in Colleges and Universities of Hebei Province, QN2022111; Hebei Provincial Special Commissioner for Science and Technology, KJTPY20220622214006; and Doctoral research start-up fund, BKY202101 and GFCCJJ202304.
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Jia, Y., Huang, N., Zhang, J. et al. Current research status and prospect of metal transfer process control methods in gas metal arc welding. Int J Adv Manuf Technol 128, 2797–2811 (2023). https://doi.org/10.1007/s00170-023-12028-2
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DOI: https://doi.org/10.1007/s00170-023-12028-2