Design, structural analysis and development of a walk-behind type electric cabbage harvester

This study aimed to improve small-scale cabbage harvesting, which usually depends on labour-intensive methods. To solve this issue, an electric cabbage harvester for single-row applications was designed and developed. The harvester integrates different units, such as cutting, conveying, precise cabb...

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Main Authors: Pranay Sarkar, Hifjur Raheman
Format: Article
Language:English
Published: Taylor & Francis Group 2024-12-01
Series:International Journal of Sustainable Engineering
Subjects:
Online Access:https://www.tandfonline.com/doi/10.1080/19397038.2024.2409164
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author Pranay Sarkar
Hifjur Raheman
author_facet Pranay Sarkar
Hifjur Raheman
author_sort Pranay Sarkar
collection DOAJ
description This study aimed to improve small-scale cabbage harvesting, which usually depends on labour-intensive methods. To solve this issue, an electric cabbage harvester for single-row applications was designed and developed. The harvester integrates different units, such as cutting, conveying, precise cabbage pushing, propelling, power supply (lead acid batteries), storage bin, and handle. The study involved selecting appropriate driving motors, optimising transmission in each unit, and designing the power supply. Critical components, including the cutter, pusher, and propelling shafts, were designed and subjected to static and dynamic analysis using ANSYS R18.0. In the static analysis torque values of 27.52 Nm, 40.99 Nm, and 888.35 Nm were used for the cutter, pusher, and propelling shafts, respectively, with dynamic analysis assuming peak torques 1.5 times higher. Maximum equilibrium stresses in the static analysis were 14.20 MPa, 7.35 MPa, and 36.36 MPa, while the dynamic analysis recorded 22.996 MPa, 9.145 MPa, and 66.88 MPa, all below the material’s yield stress. The results confirmed the safety and reliability of these components during field operations. A 2571 × 880 × 742 mm prototype was developed, with hand vibration and noise levels measured at 2.098 m/s2 and 78 dB(A), ensuring ergonomic safety. The harvester presents a promising solution for mechanising small-scale cabbage harvesting.
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spelling doaj-art-d9305e5bf79c4cb5bfb07f10c2180e242025-08-20T02:34:20ZengTaylor & Francis GroupInternational Journal of Sustainable Engineering1939-70381939-70462024-12-0117180682810.1080/19397038.2024.2409164Design, structural analysis and development of a walk-behind type electric cabbage harvesterPranay Sarkar0Hifjur Raheman1Agricultural and Food Engineering Department, Indian Institute of Technology Kharagpur, Kharagpur, IndiaAgricultural and Food Engineering Department, Indian Institute of Technology Kharagpur, Kharagpur, IndiaThis study aimed to improve small-scale cabbage harvesting, which usually depends on labour-intensive methods. To solve this issue, an electric cabbage harvester for single-row applications was designed and developed. The harvester integrates different units, such as cutting, conveying, precise cabbage pushing, propelling, power supply (lead acid batteries), storage bin, and handle. The study involved selecting appropriate driving motors, optimising transmission in each unit, and designing the power supply. Critical components, including the cutter, pusher, and propelling shafts, were designed and subjected to static and dynamic analysis using ANSYS R18.0. In the static analysis torque values of 27.52 Nm, 40.99 Nm, and 888.35 Nm were used for the cutter, pusher, and propelling shafts, respectively, with dynamic analysis assuming peak torques 1.5 times higher. Maximum equilibrium stresses in the static analysis were 14.20 MPa, 7.35 MPa, and 36.36 MPa, while the dynamic analysis recorded 22.996 MPa, 9.145 MPa, and 66.88 MPa, all below the material’s yield stress. The results confirmed the safety and reliability of these components during field operations. A 2571 × 880 × 742 mm prototype was developed, with hand vibration and noise levels measured at 2.098 m/s2 and 78 dB(A), ensuring ergonomic safety. The harvester presents a promising solution for mechanising small-scale cabbage harvesting.https://www.tandfonline.com/doi/10.1080/19397038.2024.2409164Machinery designcabbage harvesterfinite element analysisSolidWorkselectric machines; transient analysis
spellingShingle Pranay Sarkar
Hifjur Raheman
Design, structural analysis and development of a walk-behind type electric cabbage harvester
International Journal of Sustainable Engineering
Machinery design
cabbage harvester
finite element analysis
SolidWorks
electric machines; transient analysis
title Design, structural analysis and development of a walk-behind type electric cabbage harvester
title_full Design, structural analysis and development of a walk-behind type electric cabbage harvester
title_fullStr Design, structural analysis and development of a walk-behind type electric cabbage harvester
title_full_unstemmed Design, structural analysis and development of a walk-behind type electric cabbage harvester
title_short Design, structural analysis and development of a walk-behind type electric cabbage harvester
title_sort design structural analysis and development of a walk behind type electric cabbage harvester
topic Machinery design
cabbage harvester
finite element analysis
SolidWorks
electric machines; transient analysis
url https://www.tandfonline.com/doi/10.1080/19397038.2024.2409164
work_keys_str_mv AT pranaysarkar designstructuralanalysisanddevelopmentofawalkbehindtypeelectriccabbageharvester
AT hifjurraheman designstructuralanalysisanddevelopmentofawalkbehindtypeelectriccabbageharvester