Numerical Simulation and Experimental Verification of Laser Multi-Section Welding

被引:0
作者
Jia Liu
Tao Jiang
Yan Shi
Hongyin Zhu
Yuchi Dai
机构
[1] Changchun University of Science and Technology,School of Electromechanical Engineering
[2] Engineering Research Center of Laser Processing for Universities of Jilin Province,undefined
[3] National Base of International Science and Technology Cooperation in Optics,undefined
来源
Chinese Journal of Mechanical Engineering | 2022年 / 35卷
关键词
Laser multi-section welding; SYSWELD; Finite element analysis; Mechanical properties;
D O I
暂无
中图分类号
学科分类号
摘要
To address the problems of large welding deformation and splashing in the resistance spot welding of the lubricating oil cooler plate, the laser spot welding was employed, instead of the resistance spot welding, and a novel laser spot welding was proposed, i.e., laser multi-section welding. The major processes involved in this study referred to a finite element model of pulsed laser lap welding built by adopting SYSWELD simulation software, as well as the laser welding of various welding methods. The effect of different welding methods on the welding quality was studied, the parameters of the average power and the duty cycle were optimized in line with the comparative analysis of the experimentally achieved results and the numerical simulation. As indicated from the experimentally achieved results, when the new 6-sections welding method was adopted, the resulting welded joint achieved the most uniform heat input and the largest welding fusion area, and the tensile properties exhibited by the welded joints were significantly enhanced, whereas some pores remained. By altering the duty cycle, pores could be eliminated to further improve the quality of the joint. The mentioned process method could tackle down the problems facing conventional resistance spot welding. Furthermore, it was capable of improving the uneven heat input of the laser spot welding.
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