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April 17, 2026Electronics0 citationsOpen Access

Transmission Equipment Segmentation via Cross-Directional Convolution and Hierarchical Attention Mechanisms

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CYCongcong YinKZKe ZhangYZYuqian Zhang

Key Points

  • This research aims to improve the segmentation of transmission equipment for better power grid monitoring.
  • Integrates cross-directional convolutions with multi-layer attention within the YOLO11 framework.
  • Uses a C3x module to enhance feature extraction along horizontal and vertical dimensions.
  • Employs a Multi-Layer Cascaded Attention (MLCA) for spatial and channel attention fusion.
  • Evaluates on the TTPLA dataset containing 1232 images.
  • Bounding box detection achieved 72.56% mAP@0.5, a 2.97% improvement over the baseline.
  • Mask segmentation reached 68.37% mAP@0.5, improving by 4.52%.
  • Mask F1 score increased from 67.85% to 71.76%, validating segmentation enhancements.

Abstract

Precise segmentation of transmission equipment is crucial for ensuring secure power grid operation, yet practical deployment faces substantial challenges including the preservation of elongated morphological characteristics of transmission lines and accurate boundary localization for complex transmission tower structures. This paper proposes a novel segmentation method that synergistically integrates cross-directional convolutions with multi-layer attention mechanisms within the YOLO11 framework. The designed C3x cross-directional convolution module incorporates orthogonal convolutional operations during feature extraction, enabling independent enhancement of feature responses along horizontal and vertical dimensions. This architecture effectively captures continuous morphological characteristics of elongated targets while mitigating fragmentation artifacts. Additionally, the proposed Multi-Layer Cascaded Attention (MLCA) module employs a progressive fusion strategy combining spatial and channel attention, significantly augmenting the network’s capacity to extract multi-scale semantic information while maintaining computational efficiency. This design particularly enhances boundary detail preservation for structurally complex targets. Experimental evaluations on the TTPLA dataset (comprising 1232 images across 4 categories) demonstrate remarkable performance improvements: bounding box detection achieves 72.56% mAP@0.5 and mask segmentation reaches 68.37% mAP@0.5, representing gains of 2.97% and 4.52% respectively over the baseline YOLO11 model. The Mask F1 score improves from 67.85% to 71.76%, comprehensively validating the proposed method’s effectiveness in enhancing segmentation capabilities for both elongated and morphologically complex targets. These results substantiate the practical applicability of the proposed approach for intelligent transmission infrastructure monitoring systems.

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Cite This Study

Yin et al. (2026) studied this question.

synapsesocial.com/papers/69e1cecc5cdc762e9d857c73https://doi.org/10.3390/electronics15081657
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Also Consider

Synapse has enriched 5 closely related papers on similar clinical questions. Consider them for comparative context:

  1. 1Application of Enhanced YOLOv8 in Multi-object Detection for Autonomous Inspection of Transmission Lines2025
  2. 2An Optimized Algorithm for Transmission Line Anomaly Detection Based on Improved YOLOv11n2026
  3. 3TLDD-YOLO: An Improved YOLO for Transmission Line Component and Defect Detection2026 · 1 citations
  4. 4An Enhanced YOLOv8-Based Approach for Foreign Object Detection on Transmission Lines2026
  5. 5Efficient target detection method based on wavelet transform and progressive feature pyramid network: a case study of power grid inspection2026 · 1 citations