Numerical simulation of temperature field and stress field of laser cladding Stellite6

To comprehensively investigate the evolution of the stress field, a three-dimensional thermodynamic model of laser cladding was developed in this paper. By analyzing the physical process and constructing a mathematical model, the temperature transfer and stress distribution were calculated. The simulation examined the evolution and distribution of stress at various scanning speeds, discussing the interplay between the temperature field and the stress field during rapid heating and cooling. Residual stress was measured through X-ray diffraction in experiments, and the crack distribution within the cladding layer was observed. The findings indicated that the stress values calculated from the simulation model aligned well with the experimental results. By combining experimental data, we conducted a qualitative analysis of the distribution of residual stresses and the trends of crack initiation, leading to the proposal of an optimized processing scheme that significantly enhances the quality and reliability of the cladding layer.

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Publication Details

Journal
Next Materials
Published
2024-09-30
DOI
https://doi.org/10.1016/j.nxmate.2024.100385
Citations
14
Primary Topic
Additive Manufacturing Materials and Processes
Type
article
Field-Weighted Citation Impact
2.98

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article

Numerical simulation of temperature field and stress field of laser cladding Stellite6

Yan Xing, Qing Chai, Hang Zhang, Shuo Yin et al.
14 citations
Next Materials
Additive Manufacturing Materials and Processes
2.98
article

Numerical simulation of temperature field and stress field of laser cladding Stellite6

Yan Xing, Qing Chai, Hang Zhang, Shuo Yin, Danyang Zhang
article en
14 citations

Abstract

To comprehensively investigate the evolution of the stress field, a three-dimensional thermodynamic model of laser cladding was developed in this paper. By analyzing the physical process and constructing a mathematical model, the temperature transfer and stress distribution were calculated. The simulation examined the evolution and distribution of stress at various scanning speeds, discussing the interplay between the temperature field and the stress field during rapid heating and cooling. Residual stress was measured through X-ray diffraction in experiments, and the crack distribution within the cladding layer was observed. The findings indicated that the stress values calculated from the simulation model aligned well with the experimental results. By combining experimental data, we conducted a qualitative analysis of the distribution of residual stresses and the trends of crack initiation, leading to the proposal of an optimized processing scheme that significantly enhances the quality and reliability of the cladding layer.

Next MaterialsVol. 7
Tianjin University of Technology (CN), Trinity College Dublin (IE), Southeast University (CN), Yangzhou University (CN)
National Natural Science Foundation of China
Climate action
Openalex Percentile: Top 8%
Additive Manufacturing Materials and Processes
2.98
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Numerical simulation of temperature field and stress field of laser cladding Stellite6 — Yan Xing, Qing Chai, et al. · Next Materials (2024) | TGRS Research Map | TGRS