Redesign of Cover Lower Dies on Compaction Tool in Sealface Manufacturing Based on Powder Metallurgy Process

<em>The cover lower dies constitute a vital component of the ejector compaction tool system employed in the powder metallurgy process for sealface production. However, a failure occurred in the compaction process, leading to the deformation of the component after the production of more than el...

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Main Authors: Riona Ihsan Media, Otto Purnawarman, Hanif Azis Budiarto, Daffa Caesario
Format: Article
Language:English
Published: Department of Mechanical Engineering, Faculty of Engineering, Universitas Andalas 2024-06-01
Series:Metal: Jurnal Sistem Mekanik dan Termal
Subjects:
Online Access:https://metal.ft.unand.ac.id/index.php/metal/article/view/273
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author Riona Ihsan Media
Otto Purnawarman
Hanif Azis Budiarto
Daffa Caesario
author_facet Riona Ihsan Media
Otto Purnawarman
Hanif Azis Budiarto
Daffa Caesario
author_sort Riona Ihsan Media
collection DOAJ
description <em>The cover lower dies constitute a vital component of the ejector compaction tool system employed in the powder metallurgy process for sealface production. However, a failure occurred in the compaction process, leading to the deformation of the component after the production of more than eleven sealfaces. This study investigates the ejector compaction tool system, with a specific focus on the cover lower dies, aiming to optimize the tool's construction. Employing the Pahl &amp; Beitz design methodology, the research encompasses discussions with previous researchers, observation of existing tools, disassembly of current tools, and simulation analysis. Emphasizing static analysis to assess stress, deflection, and safety factor values, the research aims for a safety factor exceeding 2.00 in the redesigned cover lower dies. The optimal solution involves changing the material to AISI D2 with a hardness of 62 HRC, modifying the cover lower dies thickness by 13mm, and increasing springs and retained pins from 2 to 4 pieces. Consequently, the redesigned ejector compaction tool system is deemed operationally safe, signifying a successful improvement in its construction for enhanced reliability and performance.</em>
format Article
id doaj-art-692284f17286458c83ee3e9e6b59f674
institution Kabale University
issn 2598-1137
2597-4483
language English
publishDate 2024-06-01
publisher Department of Mechanical Engineering, Faculty of Engineering, Universitas Andalas
record_format Article
series Metal: Jurnal Sistem Mekanik dan Termal
spelling doaj-art-692284f17286458c83ee3e9e6b59f6742025-02-01T10:20:38ZengDepartment of Mechanical Engineering, Faculty of Engineering, Universitas AndalasMetal: Jurnal Sistem Mekanik dan Termal2598-11372597-44832024-06-0181253810.25077/metal.8.1.25-38.2024146Redesign of Cover Lower Dies on Compaction Tool in Sealface Manufacturing Based on Powder Metallurgy ProcessRiona Ihsan Media0Otto Purnawarman1Hanif Azis Budiarto2Daffa Caesario3Politeknik Manufaktur BandungPoliteknik Manufaktur BandungPoliteknik Manufaktur BandungPoliteknik Manufaktur Bandung<em>The cover lower dies constitute a vital component of the ejector compaction tool system employed in the powder metallurgy process for sealface production. However, a failure occurred in the compaction process, leading to the deformation of the component after the production of more than eleven sealfaces. This study investigates the ejector compaction tool system, with a specific focus on the cover lower dies, aiming to optimize the tool's construction. Employing the Pahl &amp; Beitz design methodology, the research encompasses discussions with previous researchers, observation of existing tools, disassembly of current tools, and simulation analysis. Emphasizing static analysis to assess stress, deflection, and safety factor values, the research aims for a safety factor exceeding 2.00 in the redesigned cover lower dies. The optimal solution involves changing the material to AISI D2 with a hardness of 62 HRC, modifying the cover lower dies thickness by 13mm, and increasing springs and retained pins from 2 to 4 pieces. Consequently, the redesigned ejector compaction tool system is deemed operationally safe, signifying a successful improvement in its construction for enhanced reliability and performance.</em>https://metal.ft.unand.ac.id/index.php/metal/article/view/273powder metallurgycompactionejector systemcover lower dies
spellingShingle Riona Ihsan Media
Otto Purnawarman
Hanif Azis Budiarto
Daffa Caesario
Redesign of Cover Lower Dies on Compaction Tool in Sealface Manufacturing Based on Powder Metallurgy Process
Metal: Jurnal Sistem Mekanik dan Termal
powder metallurgy
compaction
ejector system
cover lower dies
title Redesign of Cover Lower Dies on Compaction Tool in Sealface Manufacturing Based on Powder Metallurgy Process
title_full Redesign of Cover Lower Dies on Compaction Tool in Sealface Manufacturing Based on Powder Metallurgy Process
title_fullStr Redesign of Cover Lower Dies on Compaction Tool in Sealface Manufacturing Based on Powder Metallurgy Process
title_full_unstemmed Redesign of Cover Lower Dies on Compaction Tool in Sealface Manufacturing Based on Powder Metallurgy Process
title_short Redesign of Cover Lower Dies on Compaction Tool in Sealface Manufacturing Based on Powder Metallurgy Process
title_sort redesign of cover lower dies on compaction tool in sealface manufacturing based on powder metallurgy process
topic powder metallurgy
compaction
ejector system
cover lower dies
url https://metal.ft.unand.ac.id/index.php/metal/article/view/273
work_keys_str_mv AT rionaihsanmedia redesignofcoverlowerdiesoncompactiontoolinsealfacemanufacturingbasedonpowdermetallurgyprocess
AT ottopurnawarman redesignofcoverlowerdiesoncompactiontoolinsealfacemanufacturingbasedonpowdermetallurgyprocess
AT hanifazisbudiarto redesignofcoverlowerdiesoncompactiontoolinsealfacemanufacturingbasedonpowdermetallurgyprocess
AT daffacaesario redesignofcoverlowerdiesoncompactiontoolinsealfacemanufacturingbasedonpowdermetallurgyprocess