Construction of a multimodal intelligent agent for live-line operation monitoring in distribution networks via first-person lightweight object detection fusion
|更新时间:2026-06-18
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Construction of a multimodal intelligent agent for live-line operation monitoring in distribution networks via first-person lightweight object detection fusion
Power System Protection and ControlVol. 54, Issue 11, (2026)
LIU Zihao, LIU Youbo, GONG Haochen, et al. Construction of a multimodal intelligent agent for live-line operation monitoring in distribution networks via first-person lightweight object detection fusion[J]. Power System Protection and Control, 2026, 54(11).
DOI:
LIU Zihao, LIU Youbo, GONG Haochen, et al. Construction of a multimodal intelligent agent for live-line operation monitoring in distribution networks via first-person lightweight object detection fusion[J]. Power System Protection and Control, 2026, 54(11).DOI: 10.19783/j.cnki.pspc.251328.
Construction of a multimodal intelligent agent for live-line operation monitoring in distribution networks via first-person lightweight object detection fusion
To address the limitations in live-line operation monitoring for distribution networks
including restricted field of view
insufficient edge computing capability
and the lack of dedicated lightweight intelligent solutions for accurate operation analysis
a construction method for multimodal intelligent agent integrating first-person lightweight object detection is proposed. First
built on the YOLO11 model
an improved architecture incorporating multi-scale attention mechanisms
windmill-shaped convolution
and cross-view interaction modules is introduced to enhance multi-scale feature extraction
lightweight low-contrast feature representation
and view robustness. The model adopts minimum point distance intersection over union (MPDIoU) loss function to refine bounding box regression. Then
first-person view information is extracted from detection results to generate structured prompts. Finally
a multimodal intelligent agent is constructed by integrating the optimized detection model with DeepSeek-V3
enabling the fusion of visual outputs for quantitative risk assessment and operation analysis. Experimental results show that the proposed method reduces computational complexity to 7.3 G FLOPs
and achieves up to a 9.44% improvement in mean precision for multi-class detection with IoU thresholds below 0.5 compared to mainstream single-stage models. The generated outputs outperform leading open-source multimodal models in state judgment accuracy
structuring degree
and interpretability
providing an efficient and scalable solution for multimodal monitoring of live-line operations in distribution networks.
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references
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