Design of a Novel Gripping Mechanism and Dual Manipulator Robotic System for Apple Harvesting Using Tractor

ABSTRACT The architecture of apple orchards can be converted to easier operation by implementing the use of a low‐cost, tractor‐mounted, dual manipulator based on a robotic harvesting system with lower degrees of freedom (DoF). To accurately avoid injuries by detecting apples, an efferent, real‐time vision system that includes a new gripping mechanism was developed. In this context, by introducing a new gripping system, spindle wall‐type apple orchard architectures have high potential for easy harvesting using a robotic platform. Therefore, this study was conducted to design and develop a tractor‐mounted, machine vision‐based, 3‐DoF, dual telescopic robotic cartesian system with a novel 2‐DoF gripping mechanism for apple harvesting. The machine vision system was developed using the EfficientDet object detection deep neural network with a [email protected] of 0.775. The tracking algorithm DeepSORT was selected to track the localized apples and transfer the G ‐code to the robotic arm system. The developed novel gripping mechanism consists of three vacuum‐powered, (400 mmHg) spring‐loaded, silicone fingers that provide 0.73 N.m (±0.1) twisting torque to apples in a natural orientation (90°) and a dragging force of 17.65 N (±0.5). The average harvesting cycle time was approximately eleven seconds for both robotic arms, including detection and completion of the harvesting cycle.

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Publication Details

Journal
Journal of Field Robotics
Published
2026-08-20
DOI
https://doi.org/10.1002/rob.70316
Primary Topic
Smart Agriculture and AI
Type
article
Field-Weighted Citation Impact
0.00
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article

Design of a Novel Gripping Mechanism and Dual Manipulator Robotic System for Apple Harvesting Using Tractor

R. M. Rasika D. Abeyrathna, Victor Massaki Nakaguchi, Zifu Liu, Tofael Ahamed
Journal of Field Robotics
Smart Agriculture and AI
article

Design of a Novel Gripping Mechanism and Dual Manipulator Robotic System for Apple Harvesting Using Tractor

R. M. Rasika D. Abeyrathna, Victor Massaki Nakaguchi, Zifu Liu, Tofael Ahamed
article en

Abstract

ABSTRACT The architecture of apple orchards can be converted to easier operation by implementing the use of a low‐cost, tractor‐mounted, dual manipulator based on a robotic harvesting system with lower degrees of freedom (DoF). To accurately avoid injuries by detecting apples, an efferent, real‐time vision system that includes a new gripping mechanism was developed. In this context, by introducing a new gripping system, spindle wall‐type apple orchard architectures have high potential for easy harvesting using a robotic platform. Therefore, this study was conducted to design and develop a tractor‐mounted, machine vision‐based, 3‐DoF, dual telescopic robotic cartesian system with a novel 2‐DoF gripping mechanism for apple harvesting. The machine vision system was developed using the EfficientDet object detection deep neural network with a [email protected] of 0.775. The tracking algorithm DeepSORT was selected to track the localized apples and transfer the G ‐code to the robotic arm system. The developed novel gripping mechanism consists of three vacuum‐powered, (400 mmHg) spring‐loaded, silicone fingers that provide 0.73 N.m (±0.1) twisting torque to apples in a natural orientation (90°) and a dragging force of 17.65 N (±0.5). The average harvesting cycle time was approximately eleven seconds for both robotic arms, including detection and completion of the harvesting cycle.

Journal of Field Robotics
University of Tsukuba (JP), Hainan University (CN)
Openalex Percentile: Top 12%
Smart Agriculture and AI
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