首页> 外文期刊>Independent Journal of Management & Production >Combination of Machining Parameters to Optimize Surface Roughness and Chip Thickness during End Milling Process on Aluminium 6351-T6 Alloy Using Taguchi Design Method
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Combination of Machining Parameters to Optimize Surface Roughness and Chip Thickness during End Milling Process on Aluminium 6351-T6 Alloy Using Taguchi Design Method

机译:使用Taguchi设计方法组合加工参数以优化6351-T6铝铝合金端面铣削过程中的表面粗糙度和切屑厚度

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摘要

In any machining operations, quality is the important conflicting objective. In order to give assurance for high productivity, some extent of quality has to be compromised. Similarly productivity will be decreased while the efforts are channelized to enhance quality. In this study, the experiments were carried out on a CNC vertical machining center to perform 10mm slots on Al 6351-T6 alloy work piece by K10 carbide, four flute end milling cutter. Furthermore the cutting speed, the feed rate and depth of cut are regulated in this experiment. Each experiment was conducted three times and the surface roughness and chip thickness was measured by a surface analyser of Surf Test-211 series (Mitutoyo) and Digital Micrometer (Mitutoyo) with least count 0.001 mm respectively. The selection of orthogonal array is concerned with the total degree of freedom of process parameters. Total degree of freedom (DOF) associated with three parameters is equal to 6 (3X2).The degree of freedom for the orthogonal array should be greater than or at least equal to that of the process parameters. There by, a L9 orthogonal array having degree of freedom equal to (9-1= 8) 8 has been considered .But in present case each experiment is conducted three times, therefore total degree of freedom (9X3-1=26) 26 has been considered. Finally, confirmation test (ANOVA) was conducted to compare the predicted values with the experimental values confirm its effectiveness in the analysis of surface roughness and chip thickness. Surface Roughness (Ra) is greatly reduced from 0.145 μm to 0.1326 μm and the chip thickness (Ct) is slightly reduced from 0.1 mm to 0.085 mm, because of in the measurement collected the chips after machining of every experiment, from that randomly selected a few chips for measuring of their thickness using digital micrometer.
机译:在任何机加工操作中,质量都是重要的相互矛盾的目标。为了保证高生产率,必须在一定程度上降低质量。同样,在努力提高质量的同时,生产率也会下降。在这项研究中,实验是在CNC立式加工中心上进行的,用K10硬质合金,四刃端铣刀在Al 6351-T6合金工件上加工10mm的槽。此外,在该实验中调节切削速度,进给速度和切削深度。每个实验进行三次,并通过Surf Test-211系列(Mitutoyo)和Digital Micrometer(Mitutoyo)的表面分析仪分别测量最小计数为0.001mm的表面粗糙度和切屑厚度。正交阵列的选择与过程参数的总自由度有关。与三个参数关联的总自由度(DOF)等于6(3X2)。正交阵列的自由度应大于或至少等于过程参数的自由度。因此,考虑了自由度等于(9-1 = 8)8的L9正交阵列,但是在目前情况下,每个实验进行了3次,因此总自由度(9X3-1 = 26)26为被考虑。最后,进行确认测试(ANOVA)以将预测值与实验值进行比较,从而证实其在分析表面粗糙度和切屑厚度方面的有效性。表面粗糙度(Ra)从0.145μm大大减小到0.1326μm,切屑厚度(Ct)从0.1 mm减小到0.085 mm,这是因为在每个实验的加工之后收集的切屑的测量中,随机选择使用数字千分尺测量厚度的芯片很少。

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