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Main Authors: Huang, Yi, Han, Feng, Liu, Wenyi, Yi, Jingang, Guo, Yuebin
Format: Preprint
Published: 2025
Subjects:
Online Access:https://arxiv.org/abs/2511.17894
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author Huang, Yi
Han, Feng
Liu, Wenyi
Yi, Jingang
Guo, Yuebin
author_facet Huang, Yi
Han, Feng
Liu, Wenyi
Yi, Jingang
Guo, Yuebin
contents Chatter is a self-excited vibration in milling that degrades surface quality and accelerates tool wear. This paper presents an adaptive process controller that suppresses chatter by leveraging machine learning-based online estimation of the Stability Lobe Diagram (SLD) and surface roughness in the process. Stability analysis is conducted using the semi-discretization method for milling dynamics modeled by delay differential equations. An integrated machine learning framework estimates the SLD from sensor data and predicts surface roughness for chatter detection in real time. These estimates are integrated into an optimal controller that adaptively adjusts spindle speed to maintain process stability and improve surface finish. Simulations and experiments are performed to demonstrate the superior performance compared to the existing approaches.
format Preprint
id arxiv_https___arxiv_org_abs_2511_17894
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Machine Learning-based Online Stability Lobe Diagram Estimation and Chatter Suppression Control in Milling Process
Huang, Yi
Han, Feng
Liu, Wenyi
Yi, Jingang
Guo, Yuebin
Systems and Control
Chatter is a self-excited vibration in milling that degrades surface quality and accelerates tool wear. This paper presents an adaptive process controller that suppresses chatter by leveraging machine learning-based online estimation of the Stability Lobe Diagram (SLD) and surface roughness in the process. Stability analysis is conducted using the semi-discretization method for milling dynamics modeled by delay differential equations. An integrated machine learning framework estimates the SLD from sensor data and predicts surface roughness for chatter detection in real time. These estimates are integrated into an optimal controller that adaptively adjusts spindle speed to maintain process stability and improve surface finish. Simulations and experiments are performed to demonstrate the superior performance compared to the existing approaches.
title Machine Learning-based Online Stability Lobe Diagram Estimation and Chatter Suppression Control in Milling Process
topic Systems and Control
url https://arxiv.org/abs/2511.17894