FaultFace: Deep Convolutional Generative Adversarial Network (DCGAN) based Ball-Bearing Failure Detection Method
Jairo Viola, YangQuan Chen, Jing Wang

TL;DR
FaultFace leverages DCGANs to generate balanced datasets from unbalanced vibration data, improving failure detection accuracy in industrial ball-bearing systems using deep learning.
Contribution
This paper introduces FaultFace, a novel methodology that uses DCGANs to create balanced datasets from unbalanced industrial vibration data for fault detection.
Findings
FaultFace achieves high accuracy in failure detection.
It outperforms other deep learning methods on unbalanced datasets.
Generated faceportraits effectively represent failure behaviors.
Abstract
Failure detection is employed in the industry to improve system performance and reduce costs due to unexpected malfunction events. So, a good dataset of the system is desirable for designing an automated failure detection system. However, industrial process datasets are unbalanced and contain little information about failure behavior due to the uniqueness of these events and the high cost for running the system just to get information about the undesired behaviors. For this reason, performing correct training and validation of automated failure detection methods is challenging. This paper proposes a methodology called FaultFace for failure detection on Ball-Bearing joints for rotational shafts using deep learning techniques to create balanced datasets. The FaultFace methodology uses 2D representations of vibration signals denominated faceportraits obtained by time-frequency…
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Taxonomy
TopicsMachine Fault Diagnosis Techniques · Gear and Bearing Dynamics Analysis · Advanced machining processes and optimization
