Multi-modal denoised data-driven milling chatter detection using an optimized hybrid neural network architecture

Abstract Chatter, a type of self-excited vibration, deteriorates surface quality and reduces tool life and machining efficiency. Chatter detection serves as an effective approach to achieve stable cutting. To address the low accuracy in chatter detection caused by the limitations of both one-dimensi...

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Main Authors: Haining Gao, Haoyu Wang, Hongdan Shen, Shule Xing, Yong Yang, Yinlin Wang, Wenfu Liu, Lei Yu, Mazhar Ali, Imran Ali Khan
Format: Article
Language:English
Published: Nature Portfolio 2025-01-01
Series:Scientific Reports
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Online Access:https://doi.org/10.1038/s41598-025-88242-7
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author Haining Gao
Haoyu Wang
Hongdan Shen
Shule Xing
Yong Yang
Yinlin Wang
Wenfu Liu
Lei Yu
Mazhar Ali
Imran Ali Khan
author_facet Haining Gao
Haoyu Wang
Hongdan Shen
Shule Xing
Yong Yang
Yinlin Wang
Wenfu Liu
Lei Yu
Mazhar Ali
Imran Ali Khan
author_sort Haining Gao
collection DOAJ
description Abstract Chatter, a type of self-excited vibration, deteriorates surface quality and reduces tool life and machining efficiency. Chatter detection serves as an effective approach to achieve stable cutting. To address the low accuracy in chatter detection caused by the limitations of both one-dimensional temporal and two-dimensional image modal information, this study proposes a multi-modal denoised data-driven milling chatter detection method using an optimized hybrid neural network architecture. A data denoising model combining Complementary Ensemble Empirical Mode Decomposition (CEEMD) and Singular Value Decomposition (SVD) is established. The Ivy algorithm is employed to optimize the hyperparameters of CEEMD-SVD. Multi-modal data features of different machining states are then obtained using time–frequency domain methods and Markov transition field methods. Sensitivity analysis of time–frequency domain features is conducted using Pearson correlation coefficient analysis. A hybrid neural network model (DBMA) for chatter detection is constructed by integrating dual-scale parallel convolutional neural networks, bidirectional gated recurrent units, and multi-head attention mechanisms. The Ivy algorithm is utilized to optimize the hyperparameters of DBMA. The t-SNE algorithm is employed to visualize features extracted from different network layers of the chatter detection model. Results demonstrate that effective denoising of machining signals and the use of multi-modal data can significantly improve the accuracy of state detection. Compared with other methods, the proposed model exhibits superior stability and robustness.
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spelling doaj-art-57c4c0384311422092e6dbebcaf6dce82025-02-02T12:20:28ZengNature PortfolioScientific Reports2045-23222025-01-0115111810.1038/s41598-025-88242-7Multi-modal denoised data-driven milling chatter detection using an optimized hybrid neural network architectureHaining Gao0Haoyu Wang1Hongdan Shen2Shule Xing3Yong Yang4Yinlin Wang5Wenfu Liu6Lei Yu7Mazhar Ali8Imran Ali Khan9School of Mechanical and Power Engineering, Hennan Polytechnic UniversityModo Institute of Technology, Henan University of Science and TechnologyHenan Province International Joint Laboratory of New Energy Digitalization Technology, Huanghuai UniversityHenan Province International Joint Laboratory of New Energy Digitalization Technology, Huanghuai UniversityHenan Province International Joint Laboratory of New Energy Digitalization Technology, Huanghuai UniversityHenan Province International Joint Laboratory of New Energy Digitalization Technology, Huanghuai UniversityHenan Province International Joint Laboratory of New Energy Digitalization Technology, Huanghuai UniversityHenan Province International Joint Laboratory of New Energy Digitalization Technology, Huanghuai UniversityDepartment of Computer Science, COMSATS University IslamabadDepartment of Computer Science, COMSATS University IslamabadAbstract Chatter, a type of self-excited vibration, deteriorates surface quality and reduces tool life and machining efficiency. Chatter detection serves as an effective approach to achieve stable cutting. To address the low accuracy in chatter detection caused by the limitations of both one-dimensional temporal and two-dimensional image modal information, this study proposes a multi-modal denoised data-driven milling chatter detection method using an optimized hybrid neural network architecture. A data denoising model combining Complementary Ensemble Empirical Mode Decomposition (CEEMD) and Singular Value Decomposition (SVD) is established. The Ivy algorithm is employed to optimize the hyperparameters of CEEMD-SVD. Multi-modal data features of different machining states are then obtained using time–frequency domain methods and Markov transition field methods. Sensitivity analysis of time–frequency domain features is conducted using Pearson correlation coefficient analysis. A hybrid neural network model (DBMA) for chatter detection is constructed by integrating dual-scale parallel convolutional neural networks, bidirectional gated recurrent units, and multi-head attention mechanisms. The Ivy algorithm is utilized to optimize the hyperparameters of DBMA. The t-SNE algorithm is employed to visualize features extracted from different network layers of the chatter detection model. Results demonstrate that effective denoising of machining signals and the use of multi-modal data can significantly improve the accuracy of state detection. Compared with other methods, the proposed model exhibits superior stability and robustness.https://doi.org/10.1038/s41598-025-88242-7Chatter detectionMulti-modal dataOptimized hybrid neural networkData denoising
spellingShingle Haining Gao
Haoyu Wang
Hongdan Shen
Shule Xing
Yong Yang
Yinlin Wang
Wenfu Liu
Lei Yu
Mazhar Ali
Imran Ali Khan
Multi-modal denoised data-driven milling chatter detection using an optimized hybrid neural network architecture
Scientific Reports
Chatter detection
Multi-modal data
Optimized hybrid neural network
Data denoising
title Multi-modal denoised data-driven milling chatter detection using an optimized hybrid neural network architecture
title_full Multi-modal denoised data-driven milling chatter detection using an optimized hybrid neural network architecture
title_fullStr Multi-modal denoised data-driven milling chatter detection using an optimized hybrid neural network architecture
title_full_unstemmed Multi-modal denoised data-driven milling chatter detection using an optimized hybrid neural network architecture
title_short Multi-modal denoised data-driven milling chatter detection using an optimized hybrid neural network architecture
title_sort multi modal denoised data driven milling chatter detection using an optimized hybrid neural network architecture
topic Chatter detection
Multi-modal data
Optimized hybrid neural network
Data denoising
url https://doi.org/10.1038/s41598-025-88242-7
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