• Chinese Journal of Lasers
  • Vol. 47, Issue 8, 802009 (2020)
Hao Yunbo1、*, Wang Jiang1, Yang Ping1, Wang Yuling1, Liang Xudong1, and Gao Jiali2
Author Affiliations
  • 1Shanghai Aerospace Equipment Manufacturer, Shanghai 200245, China
  • 2University of Shanghai for Science and Technology, Shanghai 200093, China
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    DOI: 10.3788/CJL202047.0802009 Cite this Article Set citation alerts
    Hao Yunbo, Wang Jiang, Yang Ping, Wang Yuling, Liang Xudong, Gao Jiali. Microstructures and Properties of Tin-Based Babbitt Metal Prepared by Laser Cladding Deposition[J]. Chinese Journal of Lasers, 2020, 47(8): 802009 Copy Citation Text show less
    Laser cladding deposition equipment
    Fig. 1. Laser cladding deposition equipment
    Macroscopic appearances of tin-based Babbitt metal. (a) Laser cladding deposition process; (b) tin-based Babbitt metal obtained by laser cladding deposition; (c) tin-based Babbitt metal obtained by static casting; (d) tin-based Babbitt metal obtained by centrifugal casting
    Fig. 2. Macroscopic appearances of tin-based Babbitt metal. (a) Laser cladding deposition process; (b) tin-based Babbitt metal obtained by laser cladding deposition; (c) tin-based Babbitt metal obtained by static casting; (d) tin-based Babbitt metal obtained by centrifugal casting
    Microstructures of three kinds of tin-based Babbitt metals imaged by optical microscope. (a) Tin-based Babbitt metal obtained by laser cladding deposition; (b) tin-based Babbitt metal obtained by static casting; (c) tin-based Babbitt metal obtained by centrifugal casting
    Fig. 3. Microstructures of three kinds of tin-based Babbitt metals imaged by optical microscope. (a) Tin-based Babbitt metal obtained by laser cladding deposition; (b) tin-based Babbitt metal obtained by static casting; (c) tin-based Babbitt metal obtained by centrifugal casting
    Size of β-phase in three kinds of tin-based Babbitt metals and statistical mean size. (a) Tin-based Babbitt metal obtained by laser cladding deposition; (b) tin-based Babbitt metal obtained by static casting; (c) tin-based Babbitt metal obtained by centrifugal casting; (d) mean diameter
    Fig. 4. Size of β-phase in three kinds of tin-based Babbitt metals and statistical mean size. (a) Tin-based Babbitt metal obtained by laser cladding deposition; (b) tin-based Babbitt metal obtained by static casting; (c) tin-based Babbitt metal obtained by centrifugal casting; (d) mean diameter
    Microstructures of three kinds of tin-based Babbitt metals about 7 mm from the interface. (a) Tin-based Babbitt metal obtained by laser cladding deposition; (b) tin-based Babbitt metal obtained by static casting; (c) tin-based Babbitt metal obtained by centrifugal casting
    Fig. 5. Microstructures of three kinds of tin-based Babbitt metals about 7 mm from the interface. (a) Tin-based Babbitt metal obtained by laser cladding deposition; (b) tin-based Babbitt metal obtained by static casting; (c) tin-based Babbitt metal obtained by centrifugal casting
    SEM microstructures and element distribution of three kinds tin-based Babbitt metals. (a) SEM microstructure of laser cladded tin-based Babbitt metal/steel interface; (b) elements map scanning of laser cladded tin-based Babbitt metal/steel interface; (c) SEM microstructure of statically cast tin-based Babbitt metal/steel interface; (d) element line scanning of statically cast tin-based Babbitt metal/steel interface; (e) SEM microstructure of centrifugally cast tin-based Babbitt metal/steel inter
    Fig. 6. SEM microstructures and element distribution of three kinds tin-based Babbitt metals. (a) SEM microstructure of laser cladded tin-based Babbitt metal/steel interface; (b) elements map scanning of laser cladded tin-based Babbitt metal/steel interface; (c) SEM microstructure of statically cast tin-based Babbitt metal/steel interface; (d) element line scanning of statically cast tin-based Babbitt metal/steel interface; (e) SEM microstructure of centrifugally cast tin-based Babbitt metal/steel inter
    Indentation and mean micro-hardness of three kinds of tin-based Babbitt metal and SnSb in centrifugally cast tin-based Babbitt metal. (a) Laser cladded tin-based Babbitt metal; (b) statically cast tin-based Babbitt metal; (c) centrifugally cast tin-based Babbitt metal; (d) SnSb; (e) microhardness mean
    Fig. 7. Indentation and mean micro-hardness of three kinds of tin-based Babbitt metal and SnSb in centrifugally cast tin-based Babbitt metal. (a) Laser cladded tin-based Babbitt metal; (b) statically cast tin-based Babbitt metal; (c) centrifugally cast tin-based Babbitt metal; (d) SnSb; (e) microhardness mean
    Friction coefficient and wear morphology of three kinds of tin-based Babbitt metals. (a) Friction coefficient; (b) laser cladded tin-based Babbitt metal; (c) statically cast tin-based Babbitt metal; (d) centrifugally cast tin-based Babbitt metal
    Fig. 8. Friction coefficient and wear morphology of three kinds of tin-based Babbitt metals. (a) Friction coefficient; (b) laser cladded tin-based Babbitt metal; (c) statically cast tin-based Babbitt metal; (d) centrifugally cast tin-based Babbitt metal
    Nondestructive inspection of tin-based Babbitt metal. (a) Ultrasonic test; (b) coloring; (c) developing
    Fig. 9. Nondestructive inspection of tin-based Babbitt metal. (a) Ultrasonic test; (b) coloring; (c) developing
    ElementSbCuFeAsBiAlSn
    Mass fraction /%11.296.030.0290.0020.0050.001Bal.
    Table 1. Chemical composition of tin-based Babbitt metal ZSnSb11Cu6
    LayernumberLaserpower /WScanning speed /(mm·min-1)Spotdiameter /mmMonolayerheight /mmPowder feedingrate /(g·min-1)Overlaprate /%
    12000120031.1319.9750
    1+N800120030.7919.9750
    Table 2. Process parameters for LCD of tin-based Babbitt metal
    Hao Yunbo, Wang Jiang, Yang Ping, Wang Yuling, Liang Xudong, Gao Jiali. Microstructures and Properties of Tin-Based Babbitt Metal Prepared by Laser Cladding Deposition[J]. Chinese Journal of Lasers, 2020, 47(8): 802009
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