Detection Welding Performance of Industrial Robot Using Machine Learning

Onjira Duongthipthewa, K. Meesublak, Atsushi Takahashi, C. Mitsantisuk
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Abstract

Automated welding robots have become an essential component in manufacturing industries due to their precision and increased productivity. Furthermore, they eliminate the need for human workers to be exposed to toxic fumes and bright light during welding processes, ensuring worker safety. However, any failure in welding robots can lead to poor product quality and impact a company's credibility. Therefore, it is critical to predict the welding performance of these machines to maintain product quality. This study proposes the use of spectrogram image classification to classify the quality of welding products. Using a TM-1400 WGIII welding robot, 180 welding datasets were collected to determine the conditions of the welding robot based on different welding wire lengths. Current and voltage signals of the welding robot were studied to identify suitable input parameters and machine learning algorithms were utilized to improve the accuracy of the predictive welding quality. The experiment resulted in an accuracy of 89% based on a 70% training sets and 30% testing sets of data, indicating that spectrogram image classification is an effective technique to monitor the condition of welding robots, improve welding quality, and increase product quality control. This method can be beneficial for both small- and large-scale industries such as automotive, energy, and construction.
基于机器学习的工业机器人焊接性能检测
自动化焊接机器人由于其精度和生产率的提高,已成为制造业的重要组成部分。此外,它们消除了人类工人在焊接过程中暴露在有毒烟雾和强光下的需要,确保了工人的安全。然而,焊接机器人的任何故障都可能导致产品质量差,并影响公司的信誉。因此,预测这些机器的焊接性能对保持产品质量至关重要。本研究提出利用光谱图图像分类对焊接产品的质量进行分类。采用TM-1400型WGIII型焊接机器人,收集180组焊接数据,根据不同的焊丝长度确定焊接机器人的焊接条件。研究了焊接机器人的电流和电压信号,确定了合适的输入参数,并利用机器学习算法提高了预测焊接质量的准确性。实验结果表明,在70%的训练集和30%的测试集数据基础上,光谱图图像分类的准确率达到89%,这表明光谱图图像分类是一种有效的焊接机器人状态监测技术,可以提高焊接质量,加强产品质量控制。这种方法对汽车、能源和建筑等小型和大型行业都是有益的。
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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