4.7 Article

Analysis of self-regulating tribological functions of the MgAl microchannels prepared in the Ti alloys

Journal

TRIBOLOGY INTERNATIONAL
Volume 154, Issue -, Pages -

Publisher

ELSEVIER SCI LTD
DOI: 10.1016/j.triboint.2020.106717

Keywords

Ti-alloys; Friction interface; MgAl microchannels; Tribology regulation

Funding

  1. China Postdoctoral Science Foundation [2019M662484]
  2. Henan postdoctoral Foundation
  3. postdoctoral Foundation of Anyang Institute of Technology [BHJ2019006]
  4. Henan Educational Committee [19A460011]
  5. Project for Science and Technology Plan of Henan Province [192102210010]
  6. Tribology Science Fund of State Key Laboratory of Tribology [SKLTKF18B09]
  7. Sichuan Provincial Key Lab of Process Equipment and Control [GK201901]
  8. Provincial College Students Innovation and Entrepreneurship Training Program of Henan Province [S202011330001]
  9. Anyang Institute of Technology [BSJ2018005]

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The self-regulating tribological behavior of Ti-component using MA microchannels was investigated, showing improved tribological properties compared to Ti alloys. The contributions of Al2O3 and graphene significantly enhanced MA deformation and self-recovery, leading to favorable self-healing morphology for excellent tribological self-regulation in laser additive manufacturing samples.
Self-regulating tribological behavior of the Ti-component is investigated by preparing MgAl (MA) microchannels to extend their application scope while retaining their longevity and high accuracy. Considering a ball-on-flat tribo-pair system, MA self-regulation improved the tribological behaviors of Ti-MA compared to that of Ti alloys. Notably, MA deformation fluidity, which was enhanced with spherical Al2O3 and multilayer graphene, enabled the excellent MA self-regulation, and improved Ti-MA-graphene and Ti-MA-Al2O3 tribological properties compared to Ti-MA. Al2O3 and graphene contributions significantly accelerated the MA deformation, and enhanced self-recovery of the interface and led to acquisition of favorable self-healing morphology for the excellent tribological self-regulation, among the laser additive manufacturing samples. The obtained results are helpful in evaluating tribological characteristics for commercial application and conceptualizing possible solutions.

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