Laser & Optoelectronics Progress, Volume. 56, Issue 5, 051404(2019)
Numerical Simulation and Experimental Research of Laser Cladding Based on Thermo-Mechanical Coupling
Fig. 1. Cross section of cladding layer and meshing. (a) Cross section of cladding layer; (b) meshing
Fig. 4. Comparison between temperature field and metallographic structure of test piece
Fig. 5. Temperature fields of laser cladding. (a) Initial; (b) middle; (c) final; (d) cooling after 20 s
Fig. 7. Von Mises stress nephogram and displacement nephogram. (a) Von Mises stress; (b) displacement
Fig. 8. Stress distribution curves along different paths. (a) Along the Z axis in the middle of the bonding surface of the cladding layer and the matrix; (b) along the X axis in the middle of the matrix undersurface; (c) along the Y axis in the middle of the free end
Fig. 9. Temperature-time curves for different laser processing parameters. (a) Group A; (b) group B; (c) group C; (d) group D; (e) group E; (f) group F
Fig. 10. Stress distribution curves of different laser processing parameters along path 1
Fig. 12. Deformation of cladding specimens. (a) Photos; (b) deformation comparison
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Zhonghe Ren, Meiping Wu, Youhong Tang, Jitai Han, Yuling Gong. Numerical Simulation and Experimental Research of Laser Cladding Based on Thermo-Mechanical Coupling[J]. Laser & Optoelectronics Progress, 2019, 56(5): 051404
Category: Lasers and Laser Optics
Received: Aug. 6, 2018
Accepted: Sep. 12, 2018
Published Online: Jul. 31, 2019
The Author Email: Meiping Wu (wmp169@jiangnan.edu.cn)