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A Novel MoCo-Based Self-Supervised Learning Framework for Solar Panel Defect Detection
DOI:10.1109/ACCESS.2025.3529701.png)
Abstract
En 中文
Defect detection in solar panels remains constrained by the limitations of manual labeling and the inefficiency of traditional inspection methods, which often struggle with large, high-resolution imagery. This study presents a novel self-supervised learning approach using the Momentum Contrast (MoCo) framework to address these challenges without relying on annotated datasets. Leveraging MoCo's robust feature extraction and K-Nearest Neighbors (KNN) clustering, our method achieves accurate defect identification, bypassing the dependency on labeled data. Evaluated on the ELPV dataset, our approach attained a notable 96.95% accuracy, demonstrating significant improvement over existing unsupervised methods like KDAD, SAOE, DRA, and BGAD-FAS, and even outperforming some supervised models such as Adapted VGG19, Adapted VGG16, and ShuffleNet. Additionally, our model achieved 99.44% accuracy on the EL dataset, underscoring its adaptability and robustness across different environments. This framework offers a scalable, automated solution for image-level defect detection, poised to enhance efficiency and reduce manual intervention in industrial applications.
Keywords:
Defect detection
Feature extraction
Solar panels
Accuracy
Attention mechanisms
Adaptation models
Nearest neighbor methods
Photovoltaic cells
Computational efficiency
Training
Solar panel defect detection
self-supervised learning
MoCo
Journal
IF:
3.6
Papers:
9.8W
Citations:
29.4W

