Based on domain adversarial neural network with multiple loss collaborative optimization for milling tool wear state monitoring under different machining conditions
Qiang Liu , Jiaqi Liu , Xianli Liu , Jing Ma , Bowen Zhang
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引用次数: 0
Abstract
In machining, it is crucial to monitor the tool wear status in real time to guarantee the quality of the workpiece being machined. Tool wear monitoring technology mainly reflects the tool state through the physical signals generated during the machining. At present, the technology faces many challenges in practical applications. When facing different machining scenarios, the model is difficult to adapt to new machining scenarios. Therefore, this study proposes a method to monitoring the tool wear state under different machining conditions based on Domain Adversarial Neural Network with multiple loss collaborative optimization (MLCODANN). This method takes the domain adversarial neural network as the framework and uses a multiple loss collaborative optimization method to adjust the optimization direction of the loss. It avoids the problem of conflict between the domain alignment and the classification loss, improves the convergence of model loss. In addition, this study used ResNet18 as a feature extraction network to extract features of the cutting signal. Meanwhile, the horizontal and vertical convolutional kernels and are used instead of the convolutional kernel , which reduces model parameters and training time the and improves the model performance. Finally, through comparative experiments, it is proved that MLCODANN model has high accuracy in recognizing tool wear state under different machining conditions.
期刊介绍:
Precision Engineering - Journal of the International Societies for Precision Engineering and Nanotechnology is devoted to the multidisciplinary study and practice of high accuracy engineering, metrology, and manufacturing. The journal takes an integrated approach to all subjects related to research, design, manufacture, performance validation, and application of high precision machines, instruments, and components, including fundamental and applied research and development in manufacturing processes, fabrication technology, and advanced measurement science. The scope includes precision-engineered systems and supporting metrology over the full range of length scales, from atom-based nanotechnology and advanced lithographic technology to large-scale systems, including optical and radio telescopes and macrometrology.