Design, Implementation and Evaluation of a Potato Yield Monitoring System

In this paper the design, implementation, and evaluation of an experimental-scale potato yield monitoring system is presented. The main objective of this research was to develop a method for accurate mapping of potato yield. At the first stage an instantaneous yield monitoring system was mounted on...

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Main Authors: D Mohammad Zamani, A Taghavi, M Gholami Pareshkoohi, J Massah
Format: Article
Language:English
Published: Ferdowsi University of Mashhad 2014-04-01
Series:Journal of Agricultural Machinery
Subjects:
Online Access:https://jame.um.ac.ir/index.php/jame/article/view/33164
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spelling doaj-cb45a86266cc4dc5aa70b1aa1296d8df2021-03-02T10:18:52ZengFerdowsi University of MashhadJournal of Agricultural Machinery2228-68292423-39432014-04-0141505610.22067/jam.v4i1.331647291Design, Implementation and Evaluation of a Potato Yield Monitoring SystemD Mohammad ZamaniA TaghaviM Gholami PareshkoohiJ MassahIn this paper the design, implementation, and evaluation of an experimental-scale potato yield monitoring system is presented. The main objective of this research was to develop a method for accurate mapping of potato yield. At the first stage an instantaneous yield monitoring system was mounted on a potato harvesting machine. This system consisted of a weighing tray, two load cells, a shaft rpm encoder, a PLC controller and a mobile computer. The PLC controller, which was able to communicate with the mobile computing unit through the control applications developed in Visual Basic and Win-Proladder, was capable of encoding the load cells and other sensors and making decisions by analyzing the obtained records. Laboratory tests were conducted on a potato harvesting machine to evaluate the performance of the system. The independent variables were: forward speed, tray angle, and the thickness of shock absorber plate. To analyze and compare the results of the laboratory data, Duncan's test with confidence level of 95% was used. In order to investigate the interactions of various factors the factorial experiment with completely randomized design was used. In examining the interactions of tray angle, forward speed and performance-related shock absorber on the system performance, the highest performance (with 2.81% error) only was found to be at the tray angel of 37 degrees, forward speed of 2 km h-1 and without shock absorber.https://jame.um.ac.ir/index.php/jame/article/view/33164Crop yield monitorTray weighingLoad cellEncoderPLC controller
collection DOAJ
language English
format Article
sources DOAJ
author D Mohammad Zamani
A Taghavi
M Gholami Pareshkoohi
J Massah
spellingShingle D Mohammad Zamani
A Taghavi
M Gholami Pareshkoohi
J Massah
Design, Implementation and Evaluation of a Potato Yield Monitoring System
Journal of Agricultural Machinery
Crop yield monitor
Tray weighing
Load cell
Encoder
PLC controller
author_facet D Mohammad Zamani
A Taghavi
M Gholami Pareshkoohi
J Massah
author_sort D Mohammad Zamani
title Design, Implementation and Evaluation of a Potato Yield Monitoring System
title_short Design, Implementation and Evaluation of a Potato Yield Monitoring System
title_full Design, Implementation and Evaluation of a Potato Yield Monitoring System
title_fullStr Design, Implementation and Evaluation of a Potato Yield Monitoring System
title_full_unstemmed Design, Implementation and Evaluation of a Potato Yield Monitoring System
title_sort design, implementation and evaluation of a potato yield monitoring system
publisher Ferdowsi University of Mashhad
series Journal of Agricultural Machinery
issn 2228-6829
2423-3943
publishDate 2014-04-01
description In this paper the design, implementation, and evaluation of an experimental-scale potato yield monitoring system is presented. The main objective of this research was to develop a method for accurate mapping of potato yield. At the first stage an instantaneous yield monitoring system was mounted on a potato harvesting machine. This system consisted of a weighing tray, two load cells, a shaft rpm encoder, a PLC controller and a mobile computer. The PLC controller, which was able to communicate with the mobile computing unit through the control applications developed in Visual Basic and Win-Proladder, was capable of encoding the load cells and other sensors and making decisions by analyzing the obtained records. Laboratory tests were conducted on a potato harvesting machine to evaluate the performance of the system. The independent variables were: forward speed, tray angle, and the thickness of shock absorber plate. To analyze and compare the results of the laboratory data, Duncan's test with confidence level of 95% was used. In order to investigate the interactions of various factors the factorial experiment with completely randomized design was used. In examining the interactions of tray angle, forward speed and performance-related shock absorber on the system performance, the highest performance (with 2.81% error) only was found to be at the tray angel of 37 degrees, forward speed of 2 km h-1 and without shock absorber.
topic Crop yield monitor
Tray weighing
Load cell
Encoder
PLC controller
url https://jame.um.ac.ir/index.php/jame/article/view/33164
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AT mgholamipareshkoohi designimplementationandevaluationofapotatoyieldmonitoringsystem
AT jmassah designimplementationandevaluationofapotatoyieldmonitoringsystem
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