An Automatic Recognition Method of Electrical Wiring Diagrams Based on Optimized YOLO11 and CAD Automatic Recognition Technology

Diagram-model consistency of electrical wiring diagrams remains a core challenge for multi-source data collaboration in smart substations, with structural discrepancies between SVG diagrams (design institutes) and CIM/E models (dispatch systems) causing 22% manual comparison errors. To address limitations of existing methods in small-target detection (e.g., 0.08%-area isolating switches), imbalanced component distribution (<10 samples for rare components), and joint topology-text parsing, this work proposes an intelligent framework integrating enhanced YOLO11 with CAD parsing. Key contributions include: an adaptive sliding window mechanism for small-target recognition, hierarchical feature fusion with CBAM attention to distinguish geometrically similar elements, and a DXF spatial rule engine for connection extraction. Evaluations on real-world grid datasets achieve 93.6% mAP@50 (21.1-point improvement over baseline YOLO11), 86% rare-component recognition, 100% text extraction accuracy, 99.4% connection accuracy, and 5.2s/image processing (3.04× faster than conventional approaches). This framework enables comprehensive collaborative parsing of 28 component categories with topological relationships, providing effective technical support for power system digitalization.

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Publication Details

Journal
IEEE Access
Published
2025-01-01
DOI
https://doi.org/10.1109/access.2025.3616365
Citations
1
Primary Topic
Power Systems and Technologies
Type
article
Field-Weighted Citation Impact
0.73
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article

An Automatic Recognition Method of Electrical Wiring Diagrams Based on Optimized YOLO11 and CAD Automatic Recognition Technology

Qun Wang, Lijing Ma, Yiming Xu, Yizhuo Wang
1 citations
IEEE Access
Power Systems and Technologies
0.73
article

An Automatic Recognition Method of Electrical Wiring Diagrams Based on Optimized YOLO11 and CAD Automatic Recognition Technology

Qun Wang, Lijing Ma, Yiming Xu, Yizhuo Wang
article en
1 citations

Abstract

Diagram-model consistency of electrical wiring diagrams remains a core challenge for multi-source data collaboration in smart substations, with structural discrepancies between SVG diagrams (design institutes) and CIM/E models (dispatch systems) causing 22% manual comparison errors. To address limitations of existing methods in small-target detection (e.g., 0.08%-area isolating switches), imbalanced component distribution (<10 samples for rare components), and joint topology-text parsing, this work proposes an intelligent framework integrating enhanced YOLO11 with CAD parsing. Key contributions include: an adaptive sliding window mechanism for small-target recognition, hierarchical feature fusion with CBAM attention to distinguish geometrically similar elements, and a DXF spatial rule engine for connection extraction. Evaluations on real-world grid datasets achieve 93.6% mAP@50 (21.1-point improvement over baseline YOLO11), 86% rare-component recognition, 100% text extraction accuracy, 99.4% connection accuracy, and 5.2s/image processing (3.04× faster than conventional approaches). This framework enables comprehensive collaborative parsing of 28 component categories with topological relationships, providing effective technical support for power system digitalization.

IEEE AccessVol. 13
Chinese Academy of Sciences (CN), Shenyang Institute of Computing Technology (China) (CN), Shanghai Electric (China) (CN)
Openalex Percentile: Top 23%
Power Systems and Technologies
0.73
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