Open Access Article
International Journal of Mechanical Engineering. 2025; 4: (3) ; 42-45 ; DOI: 10.12208/j.ijme.20250066.
Research on error compensation technology for high-precision CNC machine tools in automated production lines
高精度数控机床在自动化生产线中的误差补偿技术研究
作者:
罗元清 *
重庆远凌机电有限公司 重庆
*通讯作者:
罗元清,单位:重庆远凌机电有限公司 重庆;
发布时间: 2025-06-22 总浏览量: 128
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摘要
高精度数控机床在自动化生产线中的应用广泛,但由于其固有误差,生产精度无法达到理想水平。为了提高生产效率和产品质量,研究数控机床的误差补偿技术显得尤为重要。本文主要探讨了高精度数控机床在自动化生产线中的误差来源及其补偿方法。通过分析机床的几何误差、热误差、动力误差等,提出了基于模型的误差补偿、传感器反馈控制等技术的应用方案。结合实际生产线的需求,设计了一种高效的误差补偿系统,并对其精度提升效果进行了实验验证。采用该误差补偿技术后,机床的加工精度大幅度提升,生产效率显著提高。本文为高精度数控机床在自动化生产线中的应用提供了有力的技术支持和理论依据。
关键词: 高精度数控机床;自动化生产线;误差补偿;模型补偿;热误差
Abstract
High-precision CNC machine tools are widely used in automated production lines. However, due to inherent errors, production accuracy cannot reach the ideal level. To improve production efficiency and product quality, researching error compensation technology for CNC machine tools is particularly important. This paper mainly discusses the sources of errors in high-precision CNC machine tools within automated production lines and their compensation methods. By analyzing geometric errors, thermal errors, and dynamic errors of the machine tools, application schemes for model-based error compensation and sensor feedback control technologies are proposed. According to the requirements of actual production lines, an efficient error compensation system is designed, and its effectiveness in improving accuracy is experimentally verified. After implementing this error compensation technology, the machining accuracy of the machine tools is significantly enhanced, and production efficiency is considerably improved. This paper provides strong technical support and theoretical basis for the application of high-precision CNC machine tools in automated production lines.
Key words: High-precision CNC machine tools; Automated production lines; Error compensation; Model-based compensation; Thermal errors
参考文献 References
[1] 杨超锋.基于自适应控制的高精度数控机床动态误差补偿方法[J].现代制造技术与装备,2025,61(02):210-212.
[2] 张旭.数控机床误差综合补偿技术要点及其应用实践[J].中国机械,2024,(22):73-76.
[3] 王宏斌.数控机床误差综合补偿技术要点及其应用实践[J].机械管理开发,2024,39(02):100-103.
[4] 杨超锋.基于自适应控制的高精度数控机床动态误差补偿方法[J].现代制造技术与装备,2025,61(02):210-212.
[5] 李昌,程剑锋.数控机床加工精度的影响因素及提高方法研究[J].时代汽车,2025,(02):148-150.
[6] 朱航科.高精度数控机床液压控制系统故障诊断试验研究[J].液压气动与密封,2024,44(05):102-106.
[7] 张鹏飞.数控机床精度检测与误差补偿技术研究[J].自动化应用,2024,65(09):184-189.
[8] 陈佩娜.数控机床定位精度监测及补偿方法的应用研究[J].中国金属通报,2023,(12):156-158.
引用本文
罗元清, 高精度数控机床在自动化生产线中的误差补偿技术研究[J]. 国际机械工程, 2025; 4: (3) : 42-45.