• Chinese Journal of Lasers
  • Vol. 51, Issue 4, 0402301 (2024)
Yanzhe Zhao, Zhi Dong, Di Wang, Changhui Song, Yongqiang Yang, and Changjun Han*
Author Affiliations
  • School of Mechanical and Automotive Engineering, South China University of Technology, Guangzhou 510641, Guangdong , China
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    DOI: 10.3788/CJL231539 Cite this Article Set citation alerts
    Yanzhe Zhao, Zhi Dong, Di Wang, Changhui Song, Yongqiang Yang, Changjun Han. Anisotropy in Microstructure and Mechanical Properties of Pure Zinc Fabricated by Laser Additive Manufacturing (Invited)[J]. Chinese Journal of Lasers, 2024, 51(4): 0402301 Copy Citation Text show less
    Characteristics of pure Zn powder. (a) SEM morphology; (b) particle size distribution
    Fig. 1. Characteristics of pure Zn powder. (a) SEM morphology; (b) particle size distribution
    Pure Zn samples formed by SLM. (a) Dimensional diagram of tensile specimen; (b) Zn sample formed along horizontal plane; (c) Zn sample formed along vertical plane
    Fig. 2. Pure Zn samples formed by SLM. (a) Dimensional diagram of tensile specimen; (b) Zn sample formed along horizontal plane; (c) Zn sample formed along vertical plane
    Microstructures of Zn samples formed by SLM on different planes. (a)(b) OM images and (c) SEM image on horizontal plane; (d)(e) OM images and (f) SEM image on vertical plane
    Fig. 3. Microstructures of Zn samples formed by SLM on different planes. (a)(b) OM images and (c) SEM image on horizontal plane; (d)(e) OM images and (f) SEM image on vertical plane
    EBSD results of Zn samples formed by SLM on different planes. (a) Orientation map and (c) grain size distribution map of EBSD grains on vertical plane; (b) orientation map and (d) grain size distribution map of EBSD grains on horizontal plane
    Fig. 4. EBSD results of Zn samples formed by SLM on different planes. (a) Orientation map and (c) grain size distribution map of EBSD grains on vertical plane; (b) orientation map and (d) grain size distribution map of EBSD grains on horizontal plane
    Pole and inverse pole figures of Zn samples formed by SLM on different planes. (a) Inverse polar figures and (b) polar figure on vertical plane; (c) inverse polar figures and (d) polar figure on horizontal plane
    Fig. 5. Pole and inverse pole figures of Zn samples formed by SLM on different planes. (a) Inverse polar figures and (b) polar figure on vertical plane; (c) inverse polar figures and (d) polar figure on horizontal plane
    Grain boundary misorientation angles of Zn samples formed by SLM on different planes. (a) Distribution and (b) statistical diagram of grain boundary misorientation angle on vertical plane; (c) distribution and (d) statistical diagram of grain boundary misorientation angle on horizontal plane
    Fig. 6. Grain boundary misorientation angles of Zn samples formed by SLM on different planes. (a) Distribution and (b) statistical diagram of grain boundary misorientation angle on vertical plane; (c) distribution and (d) statistical diagram of grain boundary misorientation angle on horizontal plane
    KAM analysis results of Zn samples formed by SLM on different planes. (a) Distribution and (b) corresponding histogram of KAM on vertical direction; (c) distribution and (d) corresponding histogram of KAM on horizontal plane
    Fig. 7. KAM analysis results of Zn samples formed by SLM on different planes. (a) Distribution and (b) corresponding histogram of KAM on vertical direction; (c) distribution and (d) corresponding histogram of KAM on horizontal plane
    Tensile properties of Zn samples formed by SLM. (a) Stress-strain curves; (b) strain hardening rate curves; (c) ultimate strength, yield strength, and elongation; (d) comparison of mechanical properties of different Zn samples
    Fig. 8. Tensile properties of Zn samples formed by SLM. (a) Stress-strain curves; (b) strain hardening rate curves; (c) ultimate strength, yield strength, and elongation; (d) comparison of mechanical properties of different Zn samples
    Tensile fracture morphologies of Zn samples formed by SLM on horizontal and vertical planes. (a)(b) Vertical plane; (c)(d) horizontal plane
    Fig. 9. Tensile fracture morphologies of Zn samples formed by SLM on horizontal and vertical planes. (a)(b) Vertical plane; (c)(d) horizontal plane
    Yanzhe Zhao, Zhi Dong, Di Wang, Changhui Song, Yongqiang Yang, Changjun Han. Anisotropy in Microstructure and Mechanical Properties of Pure Zinc Fabricated by Laser Additive Manufacturing (Invited)[J]. Chinese Journal of Lasers, 2024, 51(4): 0402301
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