PBDWNet: a multi-scale porcelain surface bubble segmentation network based on frequency-domain fusion and deformable feature awareness

Microscopic bubbles within porcelain glazes encapsulate critical parameters of ancient ceramic production techniques. These bubbles are small, low-contrast, and poorly defined against complex backgrounds, making detail preservation and noise suppression challenging for existing methods. To address these limitations, this study employs a three-branch PBDWNet to extract the intrinsic structural information of bubbles. In the structure-preserving pathway, deformable feature awareness integrates deformable convolution with channel attention to adaptively capture bubble morphology and enhance multi-scale feature interaction. The detail enhancement branch applies wavelet feature fusion to decompose images into high- and low-frequency components, strengthening edge textures while suppressing background noise. The backbone network achieves unified representation of global and local information through cross-scale feature fusion. Experiments on the PRMI dataset show that PBDWNet outperforms mainstream segmentation models, surpassing the second best by 0.79% in bubble IoU and achieving the highest mean F1-score of 91.70%, demonstrating superior accuracy in complex scenarios.

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Publication Details

Journal
npj Heritage Science
Published
2026-04-17
DOI
https://doi.org/10.1038/s40494-026-02440-8
Primary Topic
Advanced Neural Network Applications
Type
article
Field-Weighted Citation Impact
0.00

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article

PBDWNet: a multi-scale porcelain surface bubble segmentation network based on frequency-domain fusion and deformable feature awareness

Ruichao Zhang, Jinwen Xing, Pengbo Zhou, Yangyang Liu et al.
npj Heritage Science
Advanced Neural Network Applications
article

PBDWNet: a multi-scale porcelain surface bubble segmentation network based on frequency-domain fusion and deformable feature awareness

Ruichao Zhang, Jinwen Xing, Pengbo Zhou, Yangyang Liu, Guohua Geng, Qi Zhang, Jingfan Xu
article en

Abstract

Microscopic bubbles within porcelain glazes encapsulate critical parameters of ancient ceramic production techniques. These bubbles are small, low-contrast, and poorly defined against complex backgrounds, making detail preservation and noise suppression challenging for existing methods. To address these limitations, this study employs a three-branch PBDWNet to extract the intrinsic structural information of bubbles. In the structure-preserving pathway, deformable feature awareness integrates deformable convolution with channel attention to adaptively capture bubble morphology and enhance multi-scale feature interaction. The detail enhancement branch applies wavelet feature fusion to decompose images into high- and low-frequency components, strengthening edge textures while suppressing background noise. The backbone network achieves unified representation of global and local information through cross-scale feature fusion. Experiments on the PRMI dataset show that PBDWNet outperforms mainstream segmentation models, surpassing the second best by 0.79% in bubble IoU and achieving the highest mean F1-score of 91.70%, demonstrating superior accuracy in complex scenarios.

npj Heritage ScienceVol. 14(1)
Beijing Normal University (CN), Northwest University (CN), Shaanxi Normal University (CN)
National Natural Science Foundation of China
Decent work and economic growth
Openalex Percentile: Top 7%
Advanced Neural Network Applications
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