Microstructure examination and tensile properties of Al-20%Mg2Si-XZRO2 hybrid composites

Due to the unique properties of aluminium hybrid metal matrix composites (Al hybrid MMC) such as physical, mechanical, and tribological properties, these materials recently achieved considerable attention particularly in automotive and aerospace applications. These unique properties are the result o...

Full description

Bibliographic Details
Main Authors: Ghandvar, Hamidreza, Abu Bakar, Tuty Asma, Jabbar, Mostafa Abbas
Format: Article
Language:English
Published: Microscopy Society of Malaysia 2023
Subjects:
Online Access:http://eprints.utm.my/107608/1/TutyAsmaAbu2023_MicrostructureExaminationandTensileProperties.pdf
_version_ 1811132566746431488
author Ghandvar, Hamidreza
Abu Bakar, Tuty Asma
Jabbar, Mostafa Abbas
author_facet Ghandvar, Hamidreza
Abu Bakar, Tuty Asma
Jabbar, Mostafa Abbas
author_sort Ghandvar, Hamidreza
collection ePrints
description Due to the unique properties of aluminium hybrid metal matrix composites (Al hybrid MMC) such as physical, mechanical, and tribological properties, these materials recently achieved considerable attention particularly in automotive and aerospace applications. These unique properties are the result of the presence of two or more reinforcement particles in the composite matrix. In the present study, various concentrations of Zirconium oxide (ZrO2) particles were introduced to the Al-Mg2Si composite via stir casting technique. The influence of various concentrations of ZrO2 on the structural and tensile properties of the Al-Mg2Si composite was examined using Scanning Electron Microscope (SEM) and tensile tests, respectively. The findings showed that the introduction of ZrO2 to Al-Mg2Si decreased the average mean size of primary Mg2Si particulates. Adding ZrO2 particles up to 10 wt.% had a decent distribution in the Al-Mg2Si matrix; however, increasing the ZrO2 content to 15 % led to agglomeration of ZrO2 particles. Furthermore, tensile results demonstrated that Al-Mg2Si composite with 10% ZrO2 addition demonstrated the highest Ultimate Tensile Strength, UTS (75.35 MPa) and elongation, El % (0.69 %) compared to other fabricated composites. Hybrid composite fracture surface with 10% ZrO2 revealed a more ductile fracture mode compared to other fabricated composites. This study can be beneficial to tailor new composites with refine structure and high mechanical properties.
first_indexed 2024-09-24T00:06:22Z
format Article
id utm.eprints-107608
institution Universiti Teknologi Malaysia - ePrints
language English
last_indexed 2024-09-24T00:06:22Z
publishDate 2023
publisher Microscopy Society of Malaysia
record_format dspace
spelling utm.eprints-1076082024-09-23T06:23:41Z http://eprints.utm.my/107608/ Microstructure examination and tensile properties of Al-20%Mg2Si-XZRO2 hybrid composites Ghandvar, Hamidreza Abu Bakar, Tuty Asma Jabbar, Mostafa Abbas Q Science (General) TJ Mechanical engineering and machinery Due to the unique properties of aluminium hybrid metal matrix composites (Al hybrid MMC) such as physical, mechanical, and tribological properties, these materials recently achieved considerable attention particularly in automotive and aerospace applications. These unique properties are the result of the presence of two or more reinforcement particles in the composite matrix. In the present study, various concentrations of Zirconium oxide (ZrO2) particles were introduced to the Al-Mg2Si composite via stir casting technique. The influence of various concentrations of ZrO2 on the structural and tensile properties of the Al-Mg2Si composite was examined using Scanning Electron Microscope (SEM) and tensile tests, respectively. The findings showed that the introduction of ZrO2 to Al-Mg2Si decreased the average mean size of primary Mg2Si particulates. Adding ZrO2 particles up to 10 wt.% had a decent distribution in the Al-Mg2Si matrix; however, increasing the ZrO2 content to 15 % led to agglomeration of ZrO2 particles. Furthermore, tensile results demonstrated that Al-Mg2Si composite with 10% ZrO2 addition demonstrated the highest Ultimate Tensile Strength, UTS (75.35 MPa) and elongation, El % (0.69 %) compared to other fabricated composites. Hybrid composite fracture surface with 10% ZrO2 revealed a more ductile fracture mode compared to other fabricated composites. This study can be beneficial to tailor new composites with refine structure and high mechanical properties. Microscopy Society of Malaysia 2023 Article PeerReviewed application/pdf en http://eprints.utm.my/107608/1/TutyAsmaAbu2023_MicrostructureExaminationandTensileProperties.pdf Ghandvar, Hamidreza and Abu Bakar, Tuty Asma and Jabbar, Mostafa Abbas (2023) Microstructure examination and tensile properties of Al-20%Mg2Si-XZRO2 hybrid composites. Malaysian Journal of Microscopy, 19 (2). pp. 163-172. ISSN 1823-7010 https://malaysianjournalofmicroscopy.org/ojs/index.php/mjm/article/view/767 NA
spellingShingle Q Science (General)
TJ Mechanical engineering and machinery
Ghandvar, Hamidreza
Abu Bakar, Tuty Asma
Jabbar, Mostafa Abbas
Microstructure examination and tensile properties of Al-20%Mg2Si-XZRO2 hybrid composites
title Microstructure examination and tensile properties of Al-20%Mg2Si-XZRO2 hybrid composites
title_full Microstructure examination and tensile properties of Al-20%Mg2Si-XZRO2 hybrid composites
title_fullStr Microstructure examination and tensile properties of Al-20%Mg2Si-XZRO2 hybrid composites
title_full_unstemmed Microstructure examination and tensile properties of Al-20%Mg2Si-XZRO2 hybrid composites
title_short Microstructure examination and tensile properties of Al-20%Mg2Si-XZRO2 hybrid composites
title_sort microstructure examination and tensile properties of al 20 mg2si xzro2 hybrid composites
topic Q Science (General)
TJ Mechanical engineering and machinery
url http://eprints.utm.my/107608/1/TutyAsmaAbu2023_MicrostructureExaminationandTensileProperties.pdf
work_keys_str_mv AT ghandvarhamidreza microstructureexaminationandtensilepropertiesofal20mg2sixzro2hybridcomposites
AT abubakartutyasma microstructureexaminationandtensilepropertiesofal20mg2sixzro2hybridcomposites
AT jabbarmostafaabbas microstructureexaminationandtensilepropertiesofal20mg2sixzro2hybridcomposites