4.5 Article

MTI-YOLO: A Light-Weight and Real-Time Deep Neural Network for Insulator Detection in Complex Aerial Images

Journal

ENERGIES
Volume 14, Issue 5, Pages -

Publisher

MDPI
DOI: 10.3390/en14051426

Keywords

insulator detection; image processing; convolution neural networks; aerial image; YOLO network; complex background

Categories

Funding

  1. National Nature Science Founding of China [61573183]
  2. Open Project Program of the National Laboratory of Pattern Recognition (NLPR) [201900029]
  3. Excellent Young Talents support plan in Colleges of Anhui Province [gxyq 2019109, gxgnfx 2019056]

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The study proposes the MTI-YOLO network for insulator detection in complex aerial images, achieving improved accuracy through techniques such as multi-scale feature detection and spatial pyramid pooling. Experimental results show that the proposed network outperforms traditional methods in both complex backgrounds and bright illumination conditions.
Insulator detection is an essential task for the safety and reliable operation of intelligent grids. Owing to insulator images including various background interferences, most traditional image-processing methods cannot achieve good performance. Some You Only Look Once (YOLO) networks are employed to meet the requirements of actual applications for insulator detection. To achieve a good trade-off among accuracy, running time, and memory storage, this work proposes the modified YOLO-tiny for insulator (MTI-YOLO) network for insulator detection in complex aerial images. First of all, composite insulator images are collected in common scenes and the CCIN_detection (Chinese Composite INsulator) dataset is constructed. Secondly, to improve the detection accuracy of different sizes of insulator, multi-scale feature detection headers, a structure of multi-scale feature fusion, and the spatial pyramid pooling (SPP) model are adopted to the MTI-YOLO network. Finally, the proposed MTI-YOLO network and the compared networks are trained and tested on the CCIN_detection dataset. The average precision (AP) of our proposed network is 17% and 9% higher than YOLO-tiny and YOLO-v2. Compared with YOLO-tiny and YOLO-v2, the running time of the proposed network is slightly higher. Furthermore, the memory usage of the proposed network is 25.6% and 38.9% lower than YOLO-v2 and YOLO-v3, respectively. Experimental results and analysis validate that the proposed network achieves good performance in both complex backgrounds and bright illumination conditions.

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