Dual-Unloading Mode Autonomous Operation Strategy and Cotransporter System for Rice Harvester and Transporter

To achieve an unmanned rice farm, in this study, a cotransporter system was developed using a tracked rice harvester and transporter for autonomous harvesting, unloading, and transportation. Additionally, two unloading and transportation modes—harvester waiting for unloading (HWU) and transporter following for unloading (TFU)—were proposed, and a harvesting–unloading–transportation (HUT) strategy was defined. By breaking down the main stages of the collaborative operation, designing module-state machines (MSMs), and constructing state-transition chains, a HUT collaborative operation logic framework suitable for the embedded navigation controller was designed using the concept and method of the finite-state machine (FSM). This method addresses the multiple-stage, nonsequential, and complex processes in HUT collaborative operations. Simulations and field-harvesting experiments were performed to evaluate the applicability of this proposed strategy and system. The experimental results showed that the HUT collaborative operation strategy effectively integrated path planning, path-tracking control, inter-vehicle communication, collaborative operation control, and implementation control. The cotransporter system completed the entire process of harvesting, unloading, and transportation. The field-harvesting experiment revealed that a harvest efficiency of 0.42 hm 2 ∙h −1 was achieved. This study can provide insight into collaborative harvesting and solutions for the harvesting process of unmanned farms.

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Publication Details

Journal
Engineering
Published
2024-11-19
DOI
https://doi.org/10.1016/j.eng.2024.11.006
Citations
2
Primary Topic
Advanced Manufacturing and Logistics Optimization
Type
article
Field-Weighted Citation Impact
0.70
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article

Dual-Unloading Mode Autonomous Operation Strategy and Cotransporter System for Rice Harvester and Transporter

Bingxuan Yuan, Lian Hu, Fan Ding, Jiarui Zhang et al.
2 citations
Engineering
Advanced Manufacturing and Logistics Optimization
0.70
article

Dual-Unloading Mode Autonomous Operation Strategy and Cotransporter System for Rice Harvester and Transporter

Bingxuan Yuan, Lian Hu, Fan Ding, Jiarui Zhang, Wenyu Zhang, Zhigang Zhang, Xinluo Wu, Xiwen Luo, Kaiyuan Bao
article en
2 citations

Abstract

To achieve an unmanned rice farm, in this study, a cotransporter system was developed using a tracked rice harvester and transporter for autonomous harvesting, unloading, and transportation. Additionally, two unloading and transportation modes—harvester waiting for unloading (HWU) and transporter following for unloading (TFU)—were proposed, and a harvesting–unloading–transportation (HUT) strategy was defined. By breaking down the main stages of the collaborative operation, designing module-state machines (MSMs), and constructing state-transition chains, a HUT collaborative operation logic framework suitable for the embedded navigation controller was designed using the concept and method of the finite-state machine (FSM). This method addresses the multiple-stage, nonsequential, and complex processes in HUT collaborative operations. Simulations and field-harvesting experiments were performed to evaluate the applicability of this proposed strategy and system. The experimental results showed that the HUT collaborative operation strategy effectively integrated path planning, path-tracking control, inter-vehicle communication, collaborative operation control, and implementation control. The cotransporter system completed the entire process of harvesting, unloading, and transportation. The field-harvesting experiment revealed that a harvest efficiency of 0.42 hm 2 ∙h −1 was achieved. This study can provide insight into collaborative harvesting and solutions for the harvesting process of unmanned farms.

EngineeringVol. 48
South China Agricultural University (CN)
Zero hunger
Openalex Percentile: Top 25%
Advanced Manufacturing and Logistics Optimization
0.70
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