Experimental evaluation demonstrates high-precision small defect recognition in electrical insulators, indicating improved automated maintenance for smart grids.
In recent years, smart grid systems have rapidly advanced through the integration of sophisticated artificial intelligence (AI) technologies, leading to significant improvements in intelligence, efficiency, and sustainability. Insulators play a crucial role in the smart grid domain, yet accurately detecting small target defects remains a challenge for current detection technologies. This paper introduces a Multi-Scale Feature Fusion Transformer (MSFFT) model specifically developed to address the insufficient feature extraction capabilities in recognizing small insulator defects. This model employs a unique multi-scale feature fusion method combined with an enhanced transformer framework, enabling it to capture and process information across various scales. To further improve detection accuracy, the model incorporates a novel multi-head mixture attention mechanism. This mechanism optimizes the model’s focus on critical areas by balancing attention between fine-grained details and broader contextual features. Furthermore, this study refines the Insulator Defect Detection dataset by including annotations in both You Only Look Once (YOLO) and Common Objects in Context (COCO) formats, covering images of normal, damaged, and flashover insulators. The MSFFT model’s performance was compared with advanced insulator detection models, with experimental results demonstrating its impressive capabilities, achieving a mean average precision (mAP50:95) of 80.9% and an average recall (AR50:95) of 87.4%. These results underscore the model’s state-of-the-art performance and exceptional precision in detecting the smallest defects in insulators.
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Xu et al. (2025) studied this question.
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