Solar cells (SCs) are prone to various defects, which affect energy conversion efficiency and even cause fatal damage to photovoltaic modules. In this paper,
This study presents an advanced defect detection approach for solar cells using the YOLOv10 deep learning model. Leveraging a comprehensive dataset of 10,500 solar cell images annotated with 12 distinct defect types, our
Automatic defect detection is gaining huge importance in photovoltaic (PV) field due to limited application of manual/visual inspection and rising production quantities of PV modules.This study is conducted for automatic detection of PV module defects in electroluminescence (EL) images. We presented a novel approach using light convolutional
Photovoltaic cells are optimized for absorbing light and converting it into quality assessment and defect detection in solar cells and modules of different
In the photovoltaic industry, imaging is a widely established tool to assess and inspect the quality of PV modules and solar cells. For a general overview and references to established methods aiming at detecting certain defects and issues such as micro-crack detection using anisotropic diffusion as in machine vision [] or inspection of electrical contacts [], we refer to [].
A photovoltaic cell defect detection model capable of topological holding significant potential to substantially improve quality control throughout the PV cell manufacturing
Quality inspection applications in industry are required to move towards a zero-defect manufacturing scenario, withnon-destructive inspection and traceability of 100 % of produced parts. Developing robust fault detection and classification modelsfrom the start-up of the lines is challenging due to the difficulty in getting enough representative samples of the faulty
The anomaly detection in photovoltaic (PV) cell electroluminescence (EL) image is of great significance for the vision-based fault diagnosis. Many researchers are committed to solving this problem
In this paper, we propose a deep-learning-based defect detection method for photovoltaic cells, which addresses two technical challenges: (1) to propose a method
Emphasis is given in the second part of this paper to PL imaging applications in solar cell manufacturing at an early stage of the PV value chain, specifically the characterisation of silicon bricks and ingots prior to wafer cutting and of as-cut wafers prior to solar cell processing. are some possible outcomes of such wafer quality rating
The image processing approach that is presented in this work is quite straightforward, and the cell detection worked robustly even though only a small number of
This paper presents a deep-learning-based automatic detection model SeMaCNN for classification and anomaly detection of electroluminescent images for solar cell quality evaluation.
We analyzed the performance metrics, frames per second (FPS), and model size of various PV defect detection algorithms, demonstrating that our proposed method achieves
Electroluminescence (EL) imaging is a powerful and established technique for assessing the quality of photovoltaic (PV) modules, which consist of many electrically connected solar cells arranged in a grid. The analysis of imperfect real-world images requires reliable methods for preprocessing, detection and extraction of the cells.
1. Introduction. The benefits and prospects of clean and renewable solar energy are obvious. One of the primary ways solar energy is converted into electricity is through photovoltaic (PV) power systems [].Although solar cells (SCs) are the smallest unit in this system, their quality greatly influences the system [].The presence of internal and external defects in
Detecting defects on photovoltaic panels using electroluminescence images can significantly enhance the production quality of these panels. Nonetheless, in the process of defect detection, there
An improved hybrid solar cell defect detection approach using Generative Adversarial Networks and weighted classification. 2024, Expert Systems with Applications (EL) imaging is one of the main non-destructive inspection methods for quality assessment in the Photovoltaic (PV) module production industry. EL test reveals PV cell defects such
Photovoltaic (PV) cell defect detection has become a prominent problem in the development of the PV industry; however, the entire industry lacks effective technical
Highlights • We propose a novel method for efficient detection of PV cell defects using EL images. • We use CLAHE algorithm to improve EL image contrast. • We propose
Electroluminescence (EL) imaging is a powerful and established technique for assessing the quality of photovoltaic (PV) modules, which consist of many electrically connected solar cells arranged in a grid. The analysis of imperfect real-world images requires reliable methods for preprocessing, detection and extraction of the cells.
EL test reveals PV cell defects such as micro cracks, broken cells, finger interruptions and provides detailed information about production quality. In recent years, automated detection and classification systems using deep neural networks for PV module inspection have gained increasing attention.
A photovoltaic power plant consists of photovoltaic modules that are made up of photovoltaic cells and connected sequentially (in series) using unipolar cables to constitute photovoltaic strings. These panels or modules are equipped with secure elements located inside the junction box and power components inside the static converter.
We propose a photovoltaic cell defect detection model capable of extracting topological knowledge, aggregating local multi-order dynamic contexts, and effectively...
Stoicescu, " Automated Detection of Solar Cell Defects with Deep Learning," in 2018 26th European Signal Processing Conference (EUSIPCO), 2018, pp. 2035–2039.
Photovoltaic (PV) system performance and reliability can be improved through the detection of defects in PV modules and the evaluation of their effects on system operation. In this paper, a novel system is proposed to detect and classify defects based on electroluminescence (EL) images. This system is called Fault Detection and Classification
2 天之前· Detecting defects in photovoltaic cells is essential for maintaining the reliability and efficiency of solar power systems. Existing methods face challenges such as (1) the interaction
Many methods have been proposed for detecting defects in PV cells [9], among which electroluminescence (EL) imaging is a mature non-destructive, non-contact defect detection method for PV modules, which has high resolution and has become the main method for defect detection in PV cells [10].However, manual visual assessment of EL images is time
The improved image quality achieved through histogram equalization not only facilitates the initial detection of anomalies but also enhances the performance of subsequent image processing and machine learning algorithms. Zhu C, Zhao X, Ahmad A (2019) CNN based automatic detection of photovoltaic cell defects in electroluminescence images
for Photovoltaic Cell Defect Detection Binyi Su, Haiyong Chen, and Zhong Zhou, Member, IEEE defects in EL images, which can meet the high-quality requirements of PV cell industrial production. This paper is organized as follows: Section II presents an overview of the related works. Section III gives the details of
To address this issue, we propose a novel method for efficient PV cell defect detection. Firstly, we utilize Contrast Limited Adaptive Histogram Equalization (CLAHE)
2.1 EL Test in photovoltaic cell defect detection . The principle of EL test in photovoltaic cell defect detection is that when a photovoltaic cell is electrifying positively, the electron and hole recombination releases power by emergent photon and an electroluminescent spectrum with 700-1200 nm wavelength is formed. Then the defect part of
15 Solar photovoltaic cells play a vital and primary role in converting solar energy into electrical 16 energy [4]. Therefore, ensuring the production of high-quality products in this domain is 17 exceptionally important. Any flaws in photovoltaic cells can negatively impact the efficiency of 18 electricity generation. Furthermore, defective
To address these challenges, we propose a novel deep convolutional neural network (CNN) model for effectively identifying small target defects in polycrystalline PV cells.
New Delhi: Gautam Solar on Monday said it has sought patent for its artificial intelligence (AI)-based system to detect defects in solar panels.This innovative solution integrates advanced imaging and AI
This is a repository copy of Enhancing solar photovoltaic modules quality assurance 81 This work represents a novel approach to automated PV defect detection techniques as it inspection: the cell level inspection and the module level inspection. 83 This is accomplished by inspecting each solar cell separately, and based on the results
In recent years, the global energy landscape has witnessed a significant shift toward renewable energy sources, driven by the increasing awareness of environmental issues and the depletion of non-renewable resources such as fossil fuels (Zhang et al., 2023; Wei et al., 2022).Solar photovoltaic (PV) technology has emerged as a leading solution to address these
We propose a photovoltaic cell defect detection model capable of extracting topological knowledge, aggregating local multi-order dynamic contexts, and effectively capturing diverse defect features, particularly for small flaws.
PV cell defects are diverse in nature. While some defects are easily detectable, others present a challenge. To improve detection accuracy for these hard-to-classify defects, we utilize Focal Loss during the training of our detector.
Many methods have been proposed for detecting defects in PV cells , among which electroluminescence (EL) imaging is a mature non-destructive, non-contact defect detection method for PV modules, which has high resolution and has become the main method for defect detection in PV cells .
However, traditional object detection models prove inadequate for handling photovoltaic cell electroluminescence (EL) images, which are characterized by high levels of noise. To address this challenge, we developed an advanced defect detection model specifically designed for photovoltaic cells, which integrates topological knowledge extraction.
To demonstrate the performance of our proposed model, we compared our model with the following methods for PV cell defect detection: (1) CNN, (2) VGG16, (3) MobileNetV2, (4) InceptionV3, (5) DenseNet121 and (6) InceptionResNetV2. The quantitative results are shown in Table 5.
This limitation is particularly critical in the context of photovoltaic (PV) cell defect detection, where accurate detection requires resolving small-scale target information loss and suppressing noise interference.
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