A Prospective Way to Achieve Ballistic Impact Resistance of Lightweight Magnesium Alloys

The ballistic impact resistance of lightweight magnesium alloys is an eye-catching material for the military and aerospace industries, which can decrease the cost of a project and the fuel consumption. The shockwave mitigation ability of a magnesium alloy is 100 times stronger than an aluminum alloy...

Full description

Bibliographic Details
Main Authors: Abdul Malik, Faisal Nazeer, Yangwei Wang
Format: Article
Language:English
Published: MDPI AG 2022-01-01
Series:Metals
Subjects:
Online Access:https://www.mdpi.com/2075-4701/12/2/241
_version_ 1797478046832263168
author Abdul Malik
Faisal Nazeer
Yangwei Wang
author_facet Abdul Malik
Faisal Nazeer
Yangwei Wang
author_sort Abdul Malik
collection DOAJ
description The ballistic impact resistance of lightweight magnesium alloys is an eye-catching material for the military and aerospace industries, which can decrease the cost of a project and the fuel consumption. The shockwave mitigation ability of a magnesium alloy is 100 times stronger than an aluminum alloy; nonetheless, ballistic impact resistance has still not been achieved against blunt and API projectiles. The major obstacles are the low hardness, low mechanical strength, basal texture and strain hardening ability under loading along the normal direction of the sheet. The high yield strength and ultimate strength can be achieved for a specific loading condition (tensile or compression) by adjusting the texture in magnesium alloys. The projectile impact along the normal direction in a strong basal-textured magnesium alloy can only produce a slip-induced deformation or minor twinning activity. Here, we propose a practical technique that can be valuable for altering the texture from <i>c</i>-<i>axes</i>//<i>ND</i> to <i>c</i>-<i>axes</i>//<i>ED</i> or <i>TD</i>, and can produce high strain hardening and high strength through a twinning and de-twinning activity. Subsequently, it can improve the ballistic impact resistance of magnesium alloys. The effect of the technique on the evolution of the microstructure and possible anticipated deformation mechanisms after ballistic impact is proposed and discussed.
first_indexed 2024-03-09T21:26:29Z
format Article
id doaj.art-5385b79098b04973b78b4e32e5f3c130
institution Directory Open Access Journal
issn 2075-4701
language English
last_indexed 2024-03-09T21:26:29Z
publishDate 2022-01-01
publisher MDPI AG
record_format Article
series Metals
spelling doaj.art-5385b79098b04973b78b4e32e5f3c1302023-11-23T21:07:17ZengMDPI AGMetals2075-47012022-01-0112224110.3390/met12020241A Prospective Way to Achieve Ballistic Impact Resistance of Lightweight Magnesium AlloysAbdul Malik0Faisal Nazeer1Yangwei Wang2School of Mechanical Engineering, Dongguan University of Technology, Dongguan 523808, ChinaSchool of Mechanical Engineering, Dongguan University of Technology, Dongguan 523808, ChinaSchool of Material Science and Engineering, Beijing Institute of Technology, Beijing 100081, ChinaThe ballistic impact resistance of lightweight magnesium alloys is an eye-catching material for the military and aerospace industries, which can decrease the cost of a project and the fuel consumption. The shockwave mitigation ability of a magnesium alloy is 100 times stronger than an aluminum alloy; nonetheless, ballistic impact resistance has still not been achieved against blunt and API projectiles. The major obstacles are the low hardness, low mechanical strength, basal texture and strain hardening ability under loading along the normal direction of the sheet. The high yield strength and ultimate strength can be achieved for a specific loading condition (tensile or compression) by adjusting the texture in magnesium alloys. The projectile impact along the normal direction in a strong basal-textured magnesium alloy can only produce a slip-induced deformation or minor twinning activity. Here, we propose a practical technique that can be valuable for altering the texture from <i>c</i>-<i>axes</i>//<i>ND</i> to <i>c</i>-<i>axes</i>//<i>ED</i> or <i>TD</i>, and can produce high strain hardening and high strength through a twinning and de-twinning activity. Subsequently, it can improve the ballistic impact resistance of magnesium alloys. The effect of the technique on the evolution of the microstructure and possible anticipated deformation mechanisms after ballistic impact is proposed and discussed.https://www.mdpi.com/2075-4701/12/2/241<i>Mg</i> alloyspre-compressiontexturehardnessballistic performance
spellingShingle Abdul Malik
Faisal Nazeer
Yangwei Wang
A Prospective Way to Achieve Ballistic Impact Resistance of Lightweight Magnesium Alloys
Metals
<i>Mg</i> alloys
pre-compression
texture
hardness
ballistic performance
title A Prospective Way to Achieve Ballistic Impact Resistance of Lightweight Magnesium Alloys
title_full A Prospective Way to Achieve Ballistic Impact Resistance of Lightweight Magnesium Alloys
title_fullStr A Prospective Way to Achieve Ballistic Impact Resistance of Lightweight Magnesium Alloys
title_full_unstemmed A Prospective Way to Achieve Ballistic Impact Resistance of Lightweight Magnesium Alloys
title_short A Prospective Way to Achieve Ballistic Impact Resistance of Lightweight Magnesium Alloys
title_sort prospective way to achieve ballistic impact resistance of lightweight magnesium alloys
topic <i>Mg</i> alloys
pre-compression
texture
hardness
ballistic performance
url https://www.mdpi.com/2075-4701/12/2/241
work_keys_str_mv AT abdulmalik aprospectivewaytoachieveballisticimpactresistanceoflightweightmagnesiumalloys
AT faisalnazeer aprospectivewaytoachieveballisticimpactresistanceoflightweightmagnesiumalloys
AT yangweiwang aprospectivewaytoachieveballisticimpactresistanceoflightweightmagnesiumalloys
AT abdulmalik prospectivewaytoachieveballisticimpactresistanceoflightweightmagnesiumalloys
AT faisalnazeer prospectivewaytoachieveballisticimpactresistanceoflightweightmagnesiumalloys
AT yangweiwang prospectivewaytoachieveballisticimpactresistanceoflightweightmagnesiumalloys