Research on thermal characteristics modeling of CNC machine tools based on submodel method

IF 1.9 3区 工程技术 Q3 ENGINEERING, MANUFACTURING
Liang Peng, Leilei Cheng, Liangguo Cheng, Zhenlei Chen
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引用次数: 0

Abstract

To improve the accuracy of thermal characteristics analysis of CNC machine tools, a modeling method for the thermal characteristics of CNC machine tools based on submodel method is proposed in this paper. In this method, the thermal-structural coupling calculation of the feed system and spindle system is initially completed in ABAQUS to obtain temperature and deformation results of the submodels. Subsequently, User Define Function (UDF) in Fluent is used to extract the temperature information from the surface of the submodels. The obtained surface temperature data is then imported into the overall machine model for fluid-structure coupling heat transfer calculation. The model developed in this study takes into account factors such as the dynamic heat generation of the heat source, the cooling fan system, and the secondary heat source effect of the cutting fluid. To validate the approach, a thermal characteristics experiment was conducted, and the research results demonstrate that the thermal analysis model established in this paper exhibits both high accuracy and efficiency. During the 180 min of machine operation, the thermal displacement between the tool tip and the workpiece increased. The maximum thermal deformation of the machine tool tip was 40.83 [Formula: see text], primarily observed in the X and Y directions.
基于子模型方法的数控机床热特性建模研究
为了提高数控机床热特性分析的精度,本文提出了一种基于子模型方法的数控机床热特性建模方法。在该方法中,首先在 ABAQUS 中完成进给系统和主轴系统的热结构耦合计算,得到子模型的温度和变形结果。随后,使用 Fluent 中的用户定义函数(UDF)提取子模型表面的温度信息。然后将获得的表面温度数据导入整个机器模型,进行流固耦合传热计算。本研究开发的模型考虑了热源的动态发热、冷却风扇系统和切削液的二次热源效应等因素。为验证该方法,进行了热特性实验,研究结果表明本文建立的热分析模型具有较高的精度和效率。在机床运行的 180 分钟内,刀尖与工件之间的热位移不断增加。机床刀尖的最大热变形为 40.83 [计算公式:见正文],主要在 X 和 Y 方向上观察到。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
5.10
自引率
30.80%
发文量
167
审稿时长
5.1 months
期刊介绍: Manufacturing industries throughout the world are changing very rapidly. New concepts and methods are being developed and exploited to enable efficient and effective manufacturing. Existing manufacturing processes are being improved to meet the requirements of lean and agile manufacturing. The aim of the Journal of Engineering Manufacture is to provide a focus for these developments in engineering manufacture by publishing original papers and review papers covering technological and scientific research, developments and management implementation in manufacturing. This journal is also peer reviewed. Contributions are welcomed in the broad areas of manufacturing processes, manufacturing technology and factory automation, digital manufacturing, design and manufacturing systems including management relevant to engineering manufacture. Of particular interest at the present time would be papers concerned with digital manufacturing, metrology enabled manufacturing, smart factory, additive manufacturing and composites as well as specialist manufacturing fields like nanotechnology, sustainable & clean manufacturing and bio-manufacturing. Articles may be Research Papers, Reviews, Technical Notes, or Short Communications.
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