Research on Robot Control Technology of Tomato Plant Lowering in Greenhouses

Currently, tomato plant lowering is performed manually, which is both inefficient and costly. The manual process presents challenges in terms of efficiency and cost, creating a need for automated solutions in greenhouse environments. This paper addresses this issue by presenting the design and development of a tomato-plant-lowering robot utilizing machine vision and deep learning techniques. The study includes the design of an end effector optimized for plant-lowering operations based on the physical characteristics of tomato vines and roller hooks; precise positioning of roller hooks achieved through kinematic analysis and a custom dataset; integration of the RepC3 module from RT-DETR with YOLOv5s for enhanced object detection and positioning; and real-time camera feed display through an integrated application. Performance evaluation through experimental tests shows improvements in recognition accuracy, positioning precision, and operational efficiency, although the robot’s success rate in leaf removal needs further enhancement. This research provides a solid foundation for future developments in plant-lowering robots and offers practical insights and technical guidance.

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Institutions

Publication Details

Journal
Agronomy
Published
2024-08-30
DOI
https://doi.org/10.3390/agronomy14091966
Citations
3
Primary Topic
Greenhouse Technology and Climate Control
Type
article
Field-Weighted Citation Impact
1.80

Funders

Controls
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article

Research on Robot Control Technology of Tomato Plant Lowering in Greenhouses

Wei Li, Ziming Xiong, Hao Qin, Ting Yuan et al.
3 citations
Agronomy
Greenhouse Technology and Climate Control
1.80
article

Research on Robot Control Technology of Tomato Plant Lowering in Greenhouses

Wei Li, Ziming Xiong, Hao Qin, Ting Yuan, Shuhao Xu, Xinyi Ai, Bin Zhang
article en
3 citations

Abstract

Currently, tomato plant lowering is performed manually, which is both inefficient and costly. The manual process presents challenges in terms of efficiency and cost, creating a need for automated solutions in greenhouse environments. This paper addresses this issue by presenting the design and development of a tomato-plant-lowering robot utilizing machine vision and deep learning techniques. The study includes the design of an end effector optimized for plant-lowering operations based on the physical characteristics of tomato vines and roller hooks; precise positioning of roller hooks achieved through kinematic analysis and a custom dataset; integration of the RepC3 module from RT-DETR with YOLOv5s for enhanced object detection and positioning; and real-time camera feed display through an integrated application. Performance evaluation through experimental tests shows improvements in recognition accuracy, positioning precision, and operational efficiency, although the robot’s success rate in leaf removal needs further enhancement. This research provides a solid foundation for future developments in plant-lowering robots and offers practical insights and technical guidance.

AgronomyVol. 14(9)
China Agricultural University (CN)
National Key Research and Development Program of China
Openalex Percentile: Top 13%
Greenhouse Technology and Climate Control
1.80
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Research on Robot Control Technology of Tomato Plant Lowering in Greenhouses — Wei Li, Ziming Xiong, et al. · Agronomy (2024) | TGRS Research Map | TGRS