• Chinese Journal of Lasers
  • Vol. 47, Issue 1, 0102008 (2020)
Zhihong Liu1, Yuanfu Liu1、2、*, Lele Zhang1, Deqiang Chen2, Chenxiao Shi1, Fugang Lu1, Zhicheng Feng1, and Jie Jin1
Author Affiliations
  • 1School of Mechanical, Electronic and Control Engineering, Beijing Jiaotong University, Beijing 100044, China
  • 2National and Local Joint Engineering Laboratory for High-End Bearing Tribology Technology and Application, Henan University of Science and Technology, Henan, Luoyang 471023, China
  • show less
    DOI: 10.3788/CJL202047.0102008 Cite this Article Set citation alerts
    Zhihong Liu, Yuanfu Liu, Lele Zhang, Deqiang Chen, Chenxiao Shi, Fugang Lu, Zhicheng Feng, Jie Jin. Microstructure and High-Temperature Friction and Wear Properties of TiC/CaF2/Inconel 718 Composite Fabricated Using Laser Melting Deposition Technique[J]. Chinese Journal of Lasers, 2020, 47(1): 0102008 Copy Citation Text show less
    X-ray diffraction pattern of laser-melting- deposited composite
    Fig. 1. X-ray diffraction pattern of laser-melting- deposited composite
    SEM images of typical microstructure of laser-melting-deposited composite. (a) SEM image with low magnification; (b) SEM image with high magnification; (c) local-magnified SEM image
    Fig. 2. SEM images of typical microstructure of laser-melting-deposited composite. (a) SEM image with low magnification; (b) SEM image with high magnification; (c) local-magnified SEM image
    Average microhardnesses of laser-melting-deposited composite and reference specimen
    Fig. 3. Average microhardnesses of laser-melting-deposited composite and reference specimen
    Wear rate and relative wear-resistance as functions of test load for laser-melting-deposited composite and reference specimen
    Fig. 4. Wear rate and relative wear-resistance as functions of test load for laser-melting-deposited composite and reference specimen
    Friction-coefficient curves of laser-melting-deposited composite and reference specimen
    Fig. 5. Friction-coefficient curves of laser-melting-deposited composite and reference specimen
    Cross-section profile curves of wear scars of laser-melting-deposited composite and reference specimen
    Fig. 6. Cross-section profile curves of wear scars of laser-melting-deposited composite and reference specimen
    Worn-surface morphologies of laser-melting-deposited composite and reference specimen.(a) Reference specimen; (b) laser-melting-deposited composite
    Fig. 7. Worn-surface morphologies of laser-melting-deposited composite and reference specimen.(a) Reference specimen; (b) laser-melting-deposited composite
    SEM image of worn subsurface of laser-melting-deposited composite
    Fig. 8. SEM image of worn subsurface of laser-melting-deposited composite
    ElementMass fraction /%
    Al0.2-0.8
    Ti0.65-1.15
    Mo2.8-3.3
    Nb4.75-5.50
    Cr17-21
    Ni50-55
    Mn0.35
    Si0.35
    Cu0.30
    Co1.00
    C0.08
    FeBal.
    Table 1. Chemical compositions of Inconel 718 powder
    ZoneMass fraction /%Possible phase
    TiCCaFNiFeNbCrMoTotal
    A47.146.8--0.60.24.20.80.3100TiC
    B11.611.721.451.50.70.22.00.30.6100CaF2 and TiC
    C2.413.1--50.521.7-11.90.5100γ-(Ni, Fe)
    Table 2. Results of EDS analysis corresponding to different regions in Fig. 2(c)
    Zhihong Liu, Yuanfu Liu, Lele Zhang, Deqiang Chen, Chenxiao Shi, Fugang Lu, Zhicheng Feng, Jie Jin. Microstructure and High-Temperature Friction and Wear Properties of TiC/CaF2/Inconel 718 Composite Fabricated Using Laser Melting Deposition Technique[J]. Chinese Journal of Lasers, 2020, 47(1): 0102008
    Download Citation