激光烧结材料可加工性试验的有限元分析

A. S. Jamaludin, A. Yassin, Mohd. Shahril bin Osman
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引用次数: 0

摘要

本文用预测切削力和温度分布的平均值对激光烧结材料的可加工性进行了有限元分析。采用二维热机械平面应变模型进行二维正交下切铣削加工。采用更新的拉格朗日公式,切割模拟不涉及单元分离,而是在单元严重变形时自动网格划分。采用AISI1055低碳钢进行性能比较。为了得到精确的结果,采用了不同类型的摩擦模型。预测的切削力和切削刃温度与前人的实验值进行了验证。仿真结果表明,将AISI1055低碳钢径向深度增大的有限元分析结果与实验方法进行比较,得到的最佳摩擦模型为0.8,误差为10%。与AISI1055相比,由于杨氏模量较低,预测激光烧结材料的切削力较低。与AISI1055相比,由于激光烧结材料的导热系数较低,因此预测的切割边缘温度更高。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Finite Element Analysis for Machinability Test of Laser Sintered Material
In this paper, finite element analysis (FEA) on machinability of laser sintered material with mean of predicted cutting force and temperature distribution is explained. The process involved 2D orthogonal down-cut milling with the application of two dimension thermo mechanical plane strain model. The updated Lagrangian formulation was used where cutting simulation does not involve element separation but remesh automatically when element distorted critically. AISI1055 mild steel properties were used as the comparison. Various types of friction models were adopted in obtaining precise results. Predicted cutting force and cutting edge temperature are validated against corresponding experimental values by previous researchers. From the simulations, the shear friction model of 0.8 is the best friction model where 10% errors were obtained for comparison mild steel AISI1055 FEA results with the experimental approach for increasing radial depth. Lower cutting force predicted for laser sintered materials compared to AISI1055 due to lower Young modulus. Cutting edge temperature predicted for laser sintered material is higher due to its low thermal conductivity compared to AISI1055.
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