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首页> 外文期刊>Journal of Advanced Mechanical Design, Systems, and Manufacturing >Surface hardness improvement in surface grinding process using combined Taguchi method and regression analysis
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Surface hardness improvement in surface grinding process using combined Taguchi method and regression analysis

机译:结合Taguchi方法和回归分析提高表面磨削过程中的表面硬度

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This study has implemented a combined Taguchi method and regression analysis to optimize grinding parameters to enhance the superficial hardness of workpiece. The workpiece material is AISI1045 annealed steel and the process parameters include depth of cut, wheel speed, workpiece speed, cross feed, and mode of dressing. The DOE technique is used to find out the number of experiments by using Taguchi’s L27 which includes five parameters (depth of cut, wheel speed, workpiece speed, cross feed, and mode of dressing) at three levels. By applying the mean response and signal to noise ratio (SNR), the best optimal grinding condition has been reached at D3/S3/W2/F2/M1 i.e. depth of cut is 0.03 mm, wheel speed is 32 m/s, workpiece speed is 10 m/min, cross feed is 5 mm/rev, and mode of dressing is fine. Based on the ANOVA, the significance and percentage contribution of each parameter is determined. It has been revealed that depth of cut has maximum contribution on surface hardness. The mathematical model of surface hardness has been developed using regression analysis as a function of the above mentioned independent variables. A confirmation experiment, as final step, has been carried out with 94.5% confidence level to certify optimized result.
机译:这项研究已经实现了Taguchi方法和回归分析的组合,以优化磨削参数以提高工件的表面硬度。工件材料为AISI1045退火钢,工艺参数包括切削深度,砂轮速度,工件速度,交叉进给和修整模式。通过使用Taguchi的L27,DOE技术可以找出实验数量,其中包括三个级别的五个参数(切削深度,砂轮速度,工件速度,交叉进给和修整模式)。通过应用平均响应和信噪比(SNR),在D3 / S3 / W2 / F2 / M1处达到了最佳的最佳磨削条件,即切削深度为0.03 mm,砂轮速度为32 m / s,工件速度是10 m / min,交叉进给是5 mm / rev,修整模式很好。基于方差分析,确定每个参数的显着性和百分比贡献。已经发现切深对表面硬度有最大的贡献。表面硬度的数学模型是根据上述自变量使用回归分析开发的。作为最后一步的确认实验已以94.5%的置信度进行,以证明优化结果。

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