Abstract
A component distribution model is proposed for three-component functionally gradient cemented carbide (FGCC) based on electron probe microanalysis results obtained for gradient layer thickness, microstructure, and elemental distribution. The residual surface stress of FGCC-T5 tools occurring during the fabrication process is analyzed using an ANSYS-implemented finite element method (FEM) and X-ray diffraction. A comparison of the experimental and calculated values verifies the feasibility of using FEM to analyze the residual surface stress in FGCC-T5 tools. The effects of the distribution index, geometrical shape, substrate thickness, gradient layer thickness, and position of the cobalt-rich layer on residual surface stress are studied in detail.
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Su, C., Liu, D., Tang, S., Li, P., & Qiu, X. (2018). Finite Element Analysis of Surface Residual Stress in Functionally Gradient Cemented Carbide Tool. High Temperature Materials and Processes, 37(3), 233–243. https://doi.org/10.1515/htmp-2016-0085
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