表面去除轮廓在刀片砂带磨削中的应用模型

Yun Huang, Yajie Wang, Haining Li, Yaxiong Chen, Zhongsheng Yang
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引用次数: 2

摘要

为了提高航空发动机叶片边缘的尺寸精度,将表面去除轮廓(SRC)模型应用于发动机叶片磨削。首先,根据发动机叶片的变曲率特性,采用半赫兹接触理论对磨削接触状态进行仿真。其次,在材料去除率(MRR)非线性模型的基础上推导出表面去除轮廓模型,提出了考虑路径间隔影响的最终磨削深度模型;再次,为确定MRR非线性和线性模型的参数,进行了砂带磨削实验,结果表明,MRR非线性模型的相对误差为-1.1↓~1.4↓。采用砂带对叶片进行磨削,加工误差在0.05 mm以内,砂带磨削工艺系统稳定。
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Application model of surface removal contour to blade abrasive belt grinding
In order to improve dimensional accuracy of aero-engine blade edges, surface removal contour (SRC) model is applied to the engine blade grinding in this study. Firstly, according to variable curvature of characteristics the engine blades, this paper adopts the semi-Hertz contact theory to simulate grinding contact state. Secondly, surface removal contour model was deduced from the material removal rate (MRR) nonlinear model, and the model of the final grinding depth is proposed, and the model consider the influence of path interval. Thirdly, for determining the parameters of MRR nonlinear and linear model, abrasive belt grinding experiment is carried out, which shows the relative error of MRR nonlinear model to be -1.1↓~1.4↓. The application of abrasive belt grinding on the blade showed the maximum error of the processing is within 0.05 mm and the abrasive belt grinding process system is stable.
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来源期刊
International Journal of Abrasive Technology
International Journal of Abrasive Technology Engineering-Industrial and Manufacturing Engineering
CiteScore
0.90
自引率
0.00%
发文量
13
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