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Influence of Blade Profile of Disc Cutter on Numerical Simulation of The Disc Slitting Process

机译:椎间盘刀片叶片轮廓对盘切割过程数值模拟的影响

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The disc slitting machining experiments for electrical steel sheet were conducted to investigate the wear process of carbide alloy disc cutter and the slitting quality in the disc slitting process, and the blade contour shape of disc cutter in different slitting distance was measured by the surface profiler. A DEFORM-2D model, where the real blade profile or arc fitting profile was used as the blade contour of the cutter, was built to simulate the disc slitting process. Results show that the blade wear of disc cutter increases. The blade wear presents uneven in the side surface and cylindrical surface of the cutter, and the side wear is more serious with the increase of the slitting distance of electrical steel sheet. As the blade wear increases, the height of the rollover increases gradually, the height of the shear area increases at first and then decreases, but the height of the fracture area decreases at first and then increases. Compared with the arc fitting profile, the simulation surface morphology using the real blade profile is in good agreement with the experimental result. The variation of blade profile can change the distribution of the hydrostatic stress of sheet metal and the occurring and propagating of the crack, and the maximum hydrostatic stress can be used to estimate the change tendency of the fracture area.
机译:对电钢板的盘切割加工实验进行了研究,以研究碳化物合金椎间盘切割器的磨损过程和盘切割过程中的切割质量,并通过表面分析器测量不同切割距离中的盘式切割器的叶片轮廓形状。建立了一种变形-2D模型,其中真正的刀片轮廓或电弧装配轮廓作为切割器的叶片轮廓,以模拟盘切割过程。结果表明,盘式切割器的刀片磨损增加。刀片磨损在切割器的侧面和圆柱形表面中不均匀,并且侧面磨损在电钢板的分接距离的增加中更严重。随着叶片磨损的增加,滚动的高度逐渐增加,剪切区域的高度首先增加,然后减小,但是裂缝区域的高度首先减小,然后增加然后增加。与电弧拟合轮廓相比,使用真实刀片轮廓的模拟表面形态与实验结果吻合良好。叶片轮廓的变化可以改变金属板的静压应力的分布以及裂缝的发生和传播,并且最大的静压应力可用于估计裂缝区域的变化趋势。

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