High-quality and fast crack segmentation in solar cell electroluminescence images with heterogeneously textured background disturbance is challenging. We propose an end-to-end Efficient and Refined Deep Convolutional Features Network (ERDCF-Net) for precise and efficient crack segmentation. Firstly, we design a lightweight, efficient deep convolutional features (EDCF) encoder by adopting multilevel deep convolutional features to generate a discriminative feature representation of cracks. Moreover, some complicated background disturbance is restrained by reusing rich crack and background features. Secondly, we present a refined side output (RS) decoder by automatically refining side outputs from the EDCF encoder. The experiments demonstrate that the proposed network excellently performs on the solar cell cracks (MIoU of 92.82%, F -measure of 93.58%, and 89 FPS) and open crack datasets (MIoU of 85.6%, F -measure of 84.1%, and 90 FPS).

Efficient and Refined Deep Convolutional Features Network for the Crack Segmentation of Solar Cell Electroluminescence Images / Wang, C.; Chen, H.; Zhao, S.; Rahman, M. R. U.. - In: IEEE TRANSACTIONS ON SEMICONDUCTOR MANUFACTURING. - ISSN 0894-6507. - (2022). [10.1109/TSM.2022.3197933]

Efficient and Refined Deep Convolutional Features Network for the Crack Segmentation of Solar Cell Electroluminescence Images

Rahman M. R. U.
2022

Abstract

High-quality and fast crack segmentation in solar cell electroluminescence images with heterogeneously textured background disturbance is challenging. We propose an end-to-end Efficient and Refined Deep Convolutional Features Network (ERDCF-Net) for precise and efficient crack segmentation. Firstly, we design a lightweight, efficient deep convolutional features (EDCF) encoder by adopting multilevel deep convolutional features to generate a discriminative feature representation of cracks. Moreover, some complicated background disturbance is restrained by reusing rich crack and background features. Secondly, we present a refined side output (RS) decoder by automatically refining side outputs from the EDCF encoder. The experiments demonstrate that the proposed network excellently performs on the solar cell cracks (MIoU of 92.82%, F -measure of 93.58%, and 89 FPS) and open crack datasets (MIoU of 85.6%, F -measure of 84.1%, and 90 FPS).
2022
convolutional neural network; Crack segmentation; Decoding; deep convolutional features; deep learning; Feature extraction; Image segmentation; Photovoltaic cells; Production; quality classification of solar cells; Semantics; solar cells; Sorting
01 Pubblicazione su rivista::01a Articolo in rivista
Efficient and Refined Deep Convolutional Features Network for the Crack Segmentation of Solar Cell Electroluminescence Images / Wang, C.; Chen, H.; Zhao, S.; Rahman, M. R. U.. - In: IEEE TRANSACTIONS ON SEMICONDUCTOR MANUFACTURING. - ISSN 0894-6507. - (2022). [10.1109/TSM.2022.3197933]
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11573/1657716
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