Design Omnidirectional Movement Screw Blade of An Unmanned Mini Tiller

Rotary tiller commonly used effectively to process the soil before planting in a terrain area. The design of the blade in rotary tiller was a significant factor in achieving soil breakup and more efficient inversion evenmore soil-fertilizer mixing. The blades design for an unmanned tiller with omnid...

Full description

Bibliographic Details
Main Authors: Sukmaji Cahyono, Ari Prasetyo
Format: Article
Language:English
Published: Teknik mesin, Fakultas Teknik, Universitas Sebelas Maret 2020-04-01
Series:Mekanika
Online Access:https://jurnal.uns.ac.id/mekanika/article/view/40355
id doaj-44ccce43cadf4ce59d2607e6e79b09d8
record_format Article
spelling doaj-44ccce43cadf4ce59d2607e6e79b09d82020-11-25T02:54:26ZengTeknik mesin, Fakultas Teknik, Universitas Sebelas MaretMekanika1412-79622579-31442020-04-0119110.20961/mekanika.v19i1.4035526645Design Omnidirectional Movement Screw Blade of An Unmanned Mini TillerSukmaji Cahyono0Ari PrasetyoUniversitas Sebelas MaretRotary tiller commonly used effectively to process the soil before planting in a terrain area. The design of the blade in rotary tiller was a significant factor in achieving soil breakup and more efficient inversion evenmore soil-fertilizer mixing. The blades design for an unmanned tiller with omnidirectional movement was required intensive research. A prototype unmanned tiller was manufactured, and it has four screw wheel blade that required optimal design and high accuracy movement for soil processing application.  In the present research, the design of the screw blade is investigated by mathematical and simulation method. The model was reverse engineering from commercial blades become screw-like blade wheel design. The calculation of the screw wheel design performance uses a mathematical approach identical to that of a screw conveyor and also it is supported by simulations to find the critical point of the structure and maximum defection in the screw wheel structure. Meanwhile, to study the lift-motion and moving of soil particles, simulations were carried out with variations in the depth of the screw blades on the ground surface, namely 20%, 40% and 50%. From the calculation result, the optimal rotational speed and power are found at the intersection point the percentage of soil depth and vortek efficiency, they are 350 rpm at 1.5 kW power.https://jurnal.uns.ac.id/mekanika/article/view/40355
collection DOAJ
language English
format Article
sources DOAJ
author Sukmaji Cahyono
Ari Prasetyo
spellingShingle Sukmaji Cahyono
Ari Prasetyo
Design Omnidirectional Movement Screw Blade of An Unmanned Mini Tiller
Mekanika
author_facet Sukmaji Cahyono
Ari Prasetyo
author_sort Sukmaji Cahyono
title Design Omnidirectional Movement Screw Blade of An Unmanned Mini Tiller
title_short Design Omnidirectional Movement Screw Blade of An Unmanned Mini Tiller
title_full Design Omnidirectional Movement Screw Blade of An Unmanned Mini Tiller
title_fullStr Design Omnidirectional Movement Screw Blade of An Unmanned Mini Tiller
title_full_unstemmed Design Omnidirectional Movement Screw Blade of An Unmanned Mini Tiller
title_sort design omnidirectional movement screw blade of an unmanned mini tiller
publisher Teknik mesin, Fakultas Teknik, Universitas Sebelas Maret
series Mekanika
issn 1412-7962
2579-3144
publishDate 2020-04-01
description Rotary tiller commonly used effectively to process the soil before planting in a terrain area. The design of the blade in rotary tiller was a significant factor in achieving soil breakup and more efficient inversion evenmore soil-fertilizer mixing. The blades design for an unmanned tiller with omnidirectional movement was required intensive research. A prototype unmanned tiller was manufactured, and it has four screw wheel blade that required optimal design and high accuracy movement for soil processing application.  In the present research, the design of the screw blade is investigated by mathematical and simulation method. The model was reverse engineering from commercial blades become screw-like blade wheel design. The calculation of the screw wheel design performance uses a mathematical approach identical to that of a screw conveyor and also it is supported by simulations to find the critical point of the structure and maximum defection in the screw wheel structure. Meanwhile, to study the lift-motion and moving of soil particles, simulations were carried out with variations in the depth of the screw blades on the ground surface, namely 20%, 40% and 50%. From the calculation result, the optimal rotational speed and power are found at the intersection point the percentage of soil depth and vortek efficiency, they are 350 rpm at 1.5 kW power.
url https://jurnal.uns.ac.id/mekanika/article/view/40355
work_keys_str_mv AT sukmajicahyono designomnidirectionalmovementscrewbladeofanunmannedminitiller
AT ariprasetyo designomnidirectionalmovementscrewbladeofanunmannedminitiller
_version_ 1724721268420247552