Design, development, and testing of a cassava storage root-cutting robot utilizing a Stewart platform and mask R-CNN for precision agriculture

• Developed a Cassava Storage Root-Cutting Robot (CSRCR) with a Stewart platform for precision harvesting. • Integrated Mask R-CNN for accurate detection and alignment of cassava storage root cutting. • Optimized cutting performance with ELA speed of 22 mm/sec and CU rotational speed of 882 rpm. • Achieved an average cutting alignment error of only 0.65 degrees in roll and pitch directions. • Demonstrated significant reduction in harvesting loss (1.44%), trash (0.66%), and cutting time (4.05 sec/stem). Separating cassava storage root from its stem, known as cassava storage root cutting, represents a pivotal stage in cassava harvesting. It has become increasingly challenging due to a shortage of skilled labor. This research introduces an innovative solution: a cassava storage root-cutting robot (CSRCR) utilizing computer vision technology. The Mask-RCNN model is employed for precise cutting alignment detection. The moving mechanism utilizes a Stewart platform, and the cutting action is performed by a cylinder saw integrated into the robot. The specifications of these components, including dimensions, load capacity, and speed, were meticulously defined and calculated based on a physical survey of cassava plants. The robot's performance was evaluated through a three-step process. First, motion performance was assessed, and the results demonstrated acceptable levels of accuracy, repeatability, and workspace. Second, the optimal moving speed and the cutter's speed were determined. In the third step, the robot was integrated with computer vision technology. The integration achieved a remarkable success rate of 100%. The average loss and trash were minimized to 1.44% and 0.66%, respectively, and the cycle time was 32.43 seconds. This successful integration not only demonstrates the robot's ability to cut cassava stems accurately in various orientations but also significantly improves efficiency by reducing loss and trash. The research findings pave the way for enhanced traditional cassava harvesting practices.

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Publication Details

Journal
Smart Agricultural Technology
Published
2024-12-01
DOI
https://doi.org/10.1016/j.atech.2024.100687
Citations
3
Primary Topic
Smart Agriculture and AI
Type
article
Field-Weighted Citation Impact
1.80
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article

Design, development, and testing of a cassava storage root-cutting robot utilizing a Stewart platform and mask R-CNN for precision agriculture

Poramate Banterng, Arthit Phuphaphud, Thanaporn Singhpoo, Kanda Runapongsa Saikaew et al.
3 citations
Smart Agricultural Technology
Smart Agriculture and AI
1.80
article

Design, development, and testing of a cassava storage root-cutting robot utilizing a Stewart platform and mask R-CNN for precision agriculture

Poramate Banterng, Arthit Phuphaphud, Thanaporn Singhpoo, Kanda Runapongsa Saikaew, Jetsada Posom, Seree Wongpichet
article en
3 citations

Abstract

• Developed a Cassava Storage Root-Cutting Robot (CSRCR) with a Stewart platform for precision harvesting. • Integrated Mask R-CNN for accurate detection and alignment of cassava storage root cutting. • Optimized cutting performance with ELA speed of 22 mm/sec and CU rotational speed of 882 rpm. • Achieved an average cutting alignment error of only 0.65 degrees in roll and pitch directions. • Demonstrated significant reduction in harvesting loss (1.44%), trash (0.66%), and cutting time (4.05 sec/stem). Separating cassava storage root from its stem, known as cassava storage root cutting, represents a pivotal stage in cassava harvesting. It has become increasingly challenging due to a shortage of skilled labor. This research introduces an innovative solution: a cassava storage root-cutting robot (CSRCR) utilizing computer vision technology. The Mask-RCNN model is employed for precise cutting alignment detection. The moving mechanism utilizes a Stewart platform, and the cutting action is performed by a cylinder saw integrated into the robot. The specifications of these components, including dimensions, load capacity, and speed, were meticulously defined and calculated based on a physical survey of cassava plants. The robot's performance was evaluated through a three-step process. First, motion performance was assessed, and the results demonstrated acceptable levels of accuracy, repeatability, and workspace. Second, the optimal moving speed and the cutter's speed were determined. In the third step, the robot was integrated with computer vision technology. The integration achieved a remarkable success rate of 100%. The average loss and trash were minimized to 1.44% and 0.66%, respectively, and the cycle time was 32.43 seconds. This successful integration not only demonstrates the robot's ability to cut cassava stems accurately in various orientations but also significantly improves efficiency by reducing loss and trash. The research findings pave the way for enhanced traditional cassava harvesting practices.

Smart Agricultural TechnologyVol. 9
Khon Kaen University (TH), North Eastern University (TH)
Zero hunger
Openalex Percentile: Top 12%
Smart Agriculture and AI
1.80
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