Surface Alloying of Hardox 600 Steel Using a Fiber Laser

The features of surface alloying of Hardox 600 steel using B4C, WC, and Ni powders based on exposure to ytterbium fiber laser radiation are studied. The study of the geometric dimensions, quality, and structure of the surface layers was carried out. The laser-processing modes for steel were selected depending on the power density of the laser radiation of the installation, the linear velocities of the beam, and the diameter of the laser spot. It is shown that the doping process is critical to the regimes of laser action. At a radiation power of ~2 kW, high-quality doping zones can be observed more stably over the entire range of laser beam scanning speeds under study. With an increase in the depth of the alloying zone when using B4C, the microhardness decreases, which is associated with a decrease in the concentration of introduced alloying elements. The microhardness of the layer can vary in the range of 7300–16 000 MPa.

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Publication Details

Journal
Surface Engineering and Applied Electrochemistry
Published
2025-05-01
DOI
https://doi.org/10.3103/s1068375525700206
Citations
1
Primary Topic
Laser and Thermal Forming Techniques
Type
article
Field-Weighted Citation Impact
1.33
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Surface Alloying of Hardox 600 Steel Using a Fiber Laser

I. I. Vegera, В. С. Голубев, O. V. D’yachenko, V. E. Hodyush et al.
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article

Surface Alloying of Hardox 600 Steel Using a Fiber Laser

I. I. Vegera, В. С. Голубев, O. V. D’yachenko, V. E. Hodyush, K. V. Protasevich
article en
1 citations

Abstract

The features of surface alloying of Hardox 600 steel using B4C, WC, and Ni powders based on exposure to ytterbium fiber laser radiation are studied. The study of the geometric dimensions, quality, and structure of the surface layers was carried out. The laser-processing modes for steel were selected depending on the power density of the laser radiation of the installation, the linear velocities of the beam, and the diameter of the laser spot. It is shown that the doping process is critical to the regimes of laser action. At a radiation power of ~2 kW, high-quality doping zones can be observed more stably over the entire range of laser beam scanning speeds under study. With an increase in the depth of the alloying zone when using B4C, the microhardness decreases, which is associated with a decrease in the concentration of introduced alloying elements. The microhardness of the layer can vary in the range of 7300–16 000 MPa.

Surface Engineering and Applied ElectrochemistryVol. 61(3)
National Academy of Sciences of Belarus (BY), Institute of Physiology National Academy of Sciences of Belarus (BY), Belarusian National Technical University (BY)
Affordable and clean energy
Openalex Percentile: Top 21%
Laser and Thermal Forming Techniques
1.33
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