Automatic chard area detection

This work combines three traditional approaches: segmentation, detection, and classification, and was evaluated to automatically identify the vegetative area of chard in images. A technique was applied to enable farmers to efficiently detect vegetative regions and assess the overall health of the crop, reducing the subjectivity associated with manual inspections. The proposed deep learning model integrates the YOLOv11 object detector, K-means clustering, and the superpixel segmentation method. To optimise the labelling process, bounding boxes were used instead of detailed contour labels, significantly reducing the time and effort required for data preparation. The technique, referred to as YKMS, simplifies model training and facilitates precise identification of the vegetative area of chard, improving both efficiency and accuracy. The model was trained using 138 images captured in a real-world chard field. As a reference, YOLOv11 achieved recall, precision, and mAP values of 99.7%, 97%, and 77.2%, respectively.

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Publication Details

Published
2025-05-23
DOI
https://doi.org/10.1109/icmlt65785.2025.11193387
Primary Topic
Transportation Safety and Impact Analysis
Type
article
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article

Automatic chard area detection

F. Martínez, Pablo Millán, James Romaine, Princy Johnson et al.
Transportation Safety and Impact Analysis
article

Automatic chard area detection

F. Martínez, Pablo Millán, James Romaine, Princy Johnson, Adrián Cardona
article en

Abstract

This work combines three traditional approaches: segmentation, detection, and classification, and was evaluated to automatically identify the vegetative area of chard in images. A technique was applied to enable farmers to efficiently detect vegetative regions and assess the overall health of the crop, reducing the subjectivity associated with manual inspections. The proposed deep learning model integrates the YOLOv11 object detector, K-means clustering, and the superpixel segmentation method. To optimise the labelling process, bounding boxes were used instead of detailed contour labels, significantly reducing the time and effort required for data preparation. The technique, referred to as YKMS, simplifies model training and facilitates precise identification of the vegetative area of chard, improving both efficiency and accuracy. The model was trained using 138 images captured in a real-world chard field. As a reference, YOLOv11 achieved recall, precision, and mAP values of 99.7%, 97%, and 77.2%, respectively.

Universidad Loyola Andalucía (ES), Liverpool John Moores University (GB)
Openalex Percentile: Top 70%
Transportation Safety and Impact Analysis
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