Control System of a Motor-Driven Precision No-Tillage Maize Planter Based on the CANopen Protocol

To reduce the cost of machinery and manual operation, greatly improve the efficiency of maize sowing, and solve the problems of slow sowing speed, unstable operation quality, and the difficult monitoring of the sowing process of traditional seeders, a control system for an electrically driven precis...

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Main Authors: Jincheng Chen, Hui Zhang, Feng Pan, Mujun Du, Chao Ji
Format: Article
Language:English
Published: MDPI AG 2022-06-01
Series:Agriculture
Subjects:
Online Access:https://www.mdpi.com/2077-0472/12/7/932
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author Jincheng Chen
Hui Zhang
Feng Pan
Mujun Du
Chao Ji
author_facet Jincheng Chen
Hui Zhang
Feng Pan
Mujun Du
Chao Ji
author_sort Jincheng Chen
collection DOAJ
description To reduce the cost of machinery and manual operation, greatly improve the efficiency of maize sowing, and solve the problems of slow sowing speed, unstable operation quality, and the difficult monitoring of the sowing process of traditional seeders, a control system for an electrically driven precision maize seeder based on the CANopen protocol was designed. In this system, an STM32 is used as the main controller, and the vehicle terminal is used to set the operating parameters, such as the spacing of sowing plants and the number of holes in the metering plate. The GPS receiver is used to collect the forward speed of the tractor. An infrared photoelectric sensor is used to monitor the working state of the seeder. In this study, tests were conducted on different evaluation indices. The results showed that the detection accuracy of the photoelectric sensor reached 99.8% and the fault alarm rate reached 100%. The qualified rate of sowing was more than 91.0%. Based on indoor test results, the qualified rate was higher when the grain spacing was larger. The field test showed, in terms of the seeding performance, that the control system had good stability. When the grain spacing was set to 20 cm and the operating speed was 6~12 km/h, the qualified index was more than 89% and the reseeding index was less than 1.93%. The variation in sowing performance between different monomers was small, and the seeding performance was good. The control system helps to improve the performance of the seeder.
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spelling doaj.art-b27bf1e247384145a78190080760f2622023-11-30T22:36:50ZengMDPI AGAgriculture2077-04722022-06-0112793210.3390/agriculture12070932Control System of a Motor-Driven Precision No-Tillage Maize Planter Based on the CANopen ProtocolJincheng Chen0Hui Zhang1Feng Pan2Mujun Du3Chao Ji4Institute of Mechanical Equipment, Xinjiang Academy of Agricultural and Reclamation Science, Shihezi 832003, ChinaInstitute of Mechanical Equipment, Xinjiang Academy of Agricultural and Reclamation Science, Shihezi 832003, ChinaInstitute of Mechanical Equipment, Xinjiang Academy of Agricultural and Reclamation Science, Shihezi 832003, ChinaHeilongjiang dewo Science & Technology Development Co., Ltd., Harbin 150030, ChinaInstitute of Mechanical Equipment, Xinjiang Academy of Agricultural and Reclamation Science, Shihezi 832003, ChinaTo reduce the cost of machinery and manual operation, greatly improve the efficiency of maize sowing, and solve the problems of slow sowing speed, unstable operation quality, and the difficult monitoring of the sowing process of traditional seeders, a control system for an electrically driven precision maize seeder based on the CANopen protocol was designed. In this system, an STM32 is used as the main controller, and the vehicle terminal is used to set the operating parameters, such as the spacing of sowing plants and the number of holes in the metering plate. The GPS receiver is used to collect the forward speed of the tractor. An infrared photoelectric sensor is used to monitor the working state of the seeder. In this study, tests were conducted on different evaluation indices. The results showed that the detection accuracy of the photoelectric sensor reached 99.8% and the fault alarm rate reached 100%. The qualified rate of sowing was more than 91.0%. Based on indoor test results, the qualified rate was higher when the grain spacing was larger. The field test showed, in terms of the seeding performance, that the control system had good stability. When the grain spacing was set to 20 cm and the operating speed was 6~12 km/h, the qualified index was more than 89% and the reseeding index was less than 1.93%. The variation in sowing performance between different monomers was small, and the seeding performance was good. The control system helps to improve the performance of the seeder.https://www.mdpi.com/2077-0472/12/7/932precision plantermotor-drivenCANopen protocolphotoelectric sensorno-tillage
spellingShingle Jincheng Chen
Hui Zhang
Feng Pan
Mujun Du
Chao Ji
Control System of a Motor-Driven Precision No-Tillage Maize Planter Based on the CANopen Protocol
Agriculture
precision planter
motor-driven
CANopen protocol
photoelectric sensor
no-tillage
title Control System of a Motor-Driven Precision No-Tillage Maize Planter Based on the CANopen Protocol
title_full Control System of a Motor-Driven Precision No-Tillage Maize Planter Based on the CANopen Protocol
title_fullStr Control System of a Motor-Driven Precision No-Tillage Maize Planter Based on the CANopen Protocol
title_full_unstemmed Control System of a Motor-Driven Precision No-Tillage Maize Planter Based on the CANopen Protocol
title_short Control System of a Motor-Driven Precision No-Tillage Maize Planter Based on the CANopen Protocol
title_sort control system of a motor driven precision no tillage maize planter based on the canopen protocol
topic precision planter
motor-driven
CANopen protocol
photoelectric sensor
no-tillage
url https://www.mdpi.com/2077-0472/12/7/932
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