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首页> 外文期刊>Proceedings of the Institution of Mechanical Engineers, Part B: Journal of Engineering Manufacture >Optimization of micro-grinding process with compressed air using response surface methodology
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Optimization of micro-grinding process with compressed air using response surface methodology

机译:响应面法优化压缩空气微粉碎工艺

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摘要

This paper addresses the optimization of a micro-grinding process using compressed air to minimize specific grinding forces and surface roughness while maximizing specific material removal rate (MRR). The design-of-experiments (DOE) approach and response surface methodology (RSM) are introduced to obtain the optimal grinding conditions. In the DOE approach, a central composite design approach is used for experimental design. Micro-grinding experiments are conducted, and the experimental results are used to obtain response surface models of specific grinding forces and surface roughness in terms of depth of cut, feed rate and air temperature. Multi-objective optimization is then conducted by introducing desirability functions, and the optimal values of depth of cut, feed rate and air temperature are obtained for minimum specific grinding forces and surface roughness and maximum specific MRR. The experimental results under the optimal grinding conditions are similar to those estimated from the response surface models, and thus the validity of the models is verified.
机译:本文探讨了使用压缩空气的微研磨工艺的优化,以最大程度地降低比磨削力和表面粗糙度,同时最大化比材料去除率(MRR)。引入了实验设计(DOE)方法和响应面方法(RSM)以获取最佳研磨条件。在DOE方法中,中央复合设计方法用于实验设计。进行了微研磨实验,并利用实验结果获得了在切削深度,进给速度和空气温度方面特定研磨力和表面粗糙度的响应表面模型。然后通过引入期望函数进行多目标优化,并获得最小切削比,最小表面磨削度和最大比MRR的切削深度,进给速度和空气温度的最佳值。最佳磨削条件下的实验结果与响应面模型估算的结果相似,从而验证了模型的有效性。

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