ENT-YOLO: An improved lightweight YOLO for cotton organ detection in mulched drip irrigation systems in southern Xinjiang

The quantity and spatial distribution of cotton organs reflect the plant’s growth responses to soil water, fertilizer, and salinity conditions. Precise organ detection can provide a scientific basis for the regulation of water, fertilizer and salt in mulched drip irrigation. However, cotton organ detection in field environments remains challenging owing to the presence of complex occlusions and the highly variable morphology of target organs, with these difficulties being particularly pronounced in arid regions such as southern Xinjiang. To address these challenges, this study proposes ENT-YOLO, a compact yet high precision detection model built upon the YOLOv11n. First, the CSP-EDLAN module is introduced to replace the original C3k2 structure, effectively reducing model parameters. Second, CIoU loss is integrated with NWD loss to enhance bounding box regression accuracy. Finally, a TADDH detection head is incorporated to enhance feature representation and localization robustness for organs exhibiting variable morphology and blurred texture. Experimental results on the self-constructed cotton organ detection dataset (COD-DS) show that ENT-YOLO achieves 76.36 % precision, 73.44 % recall, and 79.77 % [email protected], with only 8.4 GFLOPs and 2.10 M parameters. The AP for the bud-flower class and the boll class increases by 3.13 % and 1.17 %, respectively, compared with the baseline model. The overall model size is merely 4.2 MB, representing a 19.2 % reduction relative to YOLOv11n. In comparison with mainstream detectors, ENT-YOLO demonstrates an improved balance between accuracy and compactness. Moreover, the spatial distribution map of the target organs is constructed using ENT-YOLO detection outputs, it lays a methodological foundation for the subsequent quantitative analysis of the spatial distribution and quantity of key organs such as buds, flowers and bolls. The results provide useful references for cotton growth stage determination and irrigation management. • ENT-YOLO is a lightweight model, with a model size of only 4.2MB, which is a 19.2 % reduction compared to the baseline. • ENT-YOLO attains 76.36 % precision, 73.44 % recall, and 79.77 % [email protected] with only 8.4 GFLOPs and 2.10 M parameters. • ENT-YOLO’s organ spatial distribution map provides data support for variable mulched drip irrigation in cotton fields of southern Xinjiang.

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Publication Details

Journal
Agricultural Water Management
Published
2025-12-07
DOI
https://doi.org/10.1016/j.agwat.2025.110054
Primary Topic
Smart Agriculture and AI
Type
article
Field-Weighted Citation Impact
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article

ENT-YOLO: An improved lightweight YOLO for cotton organ detection in mulched drip irrigation systems in southern Xinjiang

Zhi Gong, Xinlei Guo, Jingcui Shao, Qingqing Zhao et al.
Agricultural Water Management
Smart Agriculture and AI
article

ENT-YOLO: An improved lightweight YOLO for cotton organ detection in mulched drip irrigation systems in southern Xinjiang

Zhi Gong, Xinlei Guo, Jingcui Shao, Qingqing Zhao, Dongwei Li, Zhaoyang Li, S. Geng
article en

Abstract

The quantity and spatial distribution of cotton organs reflect the plant’s growth responses to soil water, fertilizer, and salinity conditions. Precise organ detection can provide a scientific basis for the regulation of water, fertilizer and salt in mulched drip irrigation. However, cotton organ detection in field environments remains challenging owing to the presence of complex occlusions and the highly variable morphology of target organs, with these difficulties being particularly pronounced in arid regions such as southern Xinjiang. To address these challenges, this study proposes ENT-YOLO, a compact yet high precision detection model built upon the YOLOv11n. First, the CSP-EDLAN module is introduced to replace the original C3k2 structure, effectively reducing model parameters. Second, CIoU loss is integrated with NWD loss to enhance bounding box regression accuracy. Finally, a TADDH detection head is incorporated to enhance feature representation and localization robustness for organs exhibiting variable morphology and blurred texture. Experimental results on the self-constructed cotton organ detection dataset (COD-DS) show that ENT-YOLO achieves 76.36 % precision, 73.44 % recall, and 79.77 % [email protected], with only 8.4 GFLOPs and 2.10 M parameters. The AP for the bud-flower class and the boll class increases by 3.13 % and 1.17 %, respectively, compared with the baseline model. The overall model size is merely 4.2 MB, representing a 19.2 % reduction relative to YOLOv11n. In comparison with mainstream detectors, ENT-YOLO demonstrates an improved balance between accuracy and compactness. Moreover, the spatial distribution map of the target organs is constructed using ENT-YOLO detection outputs, it lays a methodological foundation for the subsequent quantitative analysis of the spatial distribution and quantity of key organs such as buds, flowers and bolls. The results provide useful references for cotton growth stage determination and irrigation management. • ENT-YOLO is a lightweight model, with a model size of only 4.2MB, which is a 19.2 % reduction compared to the baseline. • ENT-YOLO attains 76.36 % precision, 73.44 % recall, and 79.77 % [email protected] with only 8.4 GFLOPs and 2.10 M parameters. • ENT-YOLO’s organ spatial distribution map provides data support for variable mulched drip irrigation in cotton fields of southern Xinjiang.

Agricultural Water ManagementVol. 323
Openalex Percentile: Top 72%
Smart Agriculture and AI
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