Development of control system for robotic apple harvesting device

This article focuses on the control system of a robotic device designed for efficient apple harvesting with minimal fruit damage. The developed device is equipped with specialized mechanisms and sensors aimed at reducing negative impacts on fruits during harvesting. A control system for the robotic...

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Main Authors: Pupin Daniil, Chilikin Andrey
Format: Article
Language:English
Published: EDP Sciences 2023-01-01
Series:E3S Web of Conferences
Online Access:https://www.e3s-conferences.org/articles/e3sconf/pdf/2023/95/e3sconf_emmft2023_10022.pdf
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author Pupin Daniil
Chilikin Andrey
author_facet Pupin Daniil
Chilikin Andrey
author_sort Pupin Daniil
collection DOAJ
description This article focuses on the control system of a robotic device designed for efficient apple harvesting with minimal fruit damage. The developed device is equipped with specialized mechanisms and sensors aimed at reducing negative impacts on fruits during harvesting. A control system for the robotic device was developed, incorporating various sensors and modules. A module for determining the position of the grip arms was designed, consisting of a polymeric magnetic strip attached to a spiral-shaped cutout. A module to track the position of the grip arms was also developed, capable of indicating the current position of the grip arms, fully open and closed grip, as well as intermediate values. A module to monitor the grip force was designed, used to control the gripping force applied to the fruit. A current sensor was connected to the winding of the linear actuator motor to measure the force. Increasing the force applied by the grip arms to the fruit results in higher current flowing through the linear actuator motor winding. By reading the current sensor data, the degree of compression on the fruit is determined. During testing of the control system modules and sensors, it was found that the grip arm angle position module has the highest sensitivity in the range of 0 to 90 degrees. The obtained data after calibration enable the control of the degree of grip arm opening. The grip arm position module allowed controlling and adjusting the grip arm position with an accuracy of up to 2 mm. A control system for a robotic grip for apple harvesting was developed. Various modules contributing to efficient apple harvesting were designed. One of the key modules is the grip force control module, which regulates the degree of fruit compression during robotic fruit harvesting, thus minimizing fruit damage.
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spelling doaj.art-cf3d08836775440499023f6cadf773292024-01-26T10:36:37ZengEDP SciencesE3S Web of Conferences2267-12422023-01-014581002210.1051/e3sconf/202345810022e3sconf_emmft2023_10022Development of control system for robotic apple harvesting devicePupin Daniil0Chilikin Andrey1Federal Scientific Agroengineering Center VIMFederal Scientific Agroengineering Center VIMThis article focuses on the control system of a robotic device designed for efficient apple harvesting with minimal fruit damage. The developed device is equipped with specialized mechanisms and sensors aimed at reducing negative impacts on fruits during harvesting. A control system for the robotic device was developed, incorporating various sensors and modules. A module for determining the position of the grip arms was designed, consisting of a polymeric magnetic strip attached to a spiral-shaped cutout. A module to track the position of the grip arms was also developed, capable of indicating the current position of the grip arms, fully open and closed grip, as well as intermediate values. A module to monitor the grip force was designed, used to control the gripping force applied to the fruit. A current sensor was connected to the winding of the linear actuator motor to measure the force. Increasing the force applied by the grip arms to the fruit results in higher current flowing through the linear actuator motor winding. By reading the current sensor data, the degree of compression on the fruit is determined. During testing of the control system modules and sensors, it was found that the grip arm angle position module has the highest sensitivity in the range of 0 to 90 degrees. The obtained data after calibration enable the control of the degree of grip arm opening. The grip arm position module allowed controlling and adjusting the grip arm position with an accuracy of up to 2 mm. A control system for a robotic grip for apple harvesting was developed. Various modules contributing to efficient apple harvesting were designed. One of the key modules is the grip force control module, which regulates the degree of fruit compression during robotic fruit harvesting, thus minimizing fruit damage.https://www.e3s-conferences.org/articles/e3sconf/pdf/2023/95/e3sconf_emmft2023_10022.pdf
spellingShingle Pupin Daniil
Chilikin Andrey
Development of control system for robotic apple harvesting device
E3S Web of Conferences
title Development of control system for robotic apple harvesting device
title_full Development of control system for robotic apple harvesting device
title_fullStr Development of control system for robotic apple harvesting device
title_full_unstemmed Development of control system for robotic apple harvesting device
title_short Development of control system for robotic apple harvesting device
title_sort development of control system for robotic apple harvesting device
url https://www.e3s-conferences.org/articles/e3sconf/pdf/2023/95/e3sconf_emmft2023_10022.pdf
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