Effect of Indenter Nose Shape and Layer Configuration on the Quasi-Static Perforation Behaviour of Metal–Plastic Laminates

This study investigated the perforation resistance behaviour of metal–plastic laminates (MPLs) when they are indented by different nose shapes. Aluminium (Al) and HDPE (high-density polyethylene) layers were bonded with a suitable adhesive in an alternative manner to prepare bilayer and trilayer MPL...

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Main Authors: Mohammad Uddin, Graham Stevens, Daniel Williams
Format: Article
Language:English
Published: MDPI AG 2022-08-01
Series:Materials
Subjects:
Online Access:https://www.mdpi.com/1996-1944/15/17/5879
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author Mohammad Uddin
Graham Stevens
Daniel Williams
author_facet Mohammad Uddin
Graham Stevens
Daniel Williams
author_sort Mohammad Uddin
collection DOAJ
description This study investigated the perforation resistance behaviour of metal–plastic laminates (MPLs) when they are indented by different nose shapes. Aluminium (Al) and HDPE (high-density polyethylene) layers were bonded with a suitable adhesive in an alternative manner to prepare bilayer and trilayer MPL configurations. Quasi-static perforation experiments were performed with hemispherical, conical and blunt indenters. The effects of nose shape, layer configuration and adhesive on the force–deformation profile, perforation resistance capacity and failure mechanisms were evaluated. The results indicate that for a monolithic layer, the blunt indenter showed the highest perforation energy capacity. The conical and blunt indenters facing Al backed by HDPE gave higher perforation energy. The hemispherical indenter facing HDPE backed by Al was found to be more effective in perforation resistance. Trilayer Al–HDPE–Al showed higher perforation resistance than HDPE–Al–HDPE. Circumferential cracking, radial symmetric cracking and shear plugging were the main failure modes for Al under hemispherical, conical and blunt indenters, respectively. The adhesive contributed to an increase in the perforation energy and peak force to failure in laminates. The adhesive was shown to detach from the Al surface after Al fracturing through crack propagation, and this effect was more pronounced when the indenter faced HDPE at the front of the laminate.
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spelling doaj.art-35bdc235e0ff4c8fa24e1d759b5b00dd2023-11-23T13:31:42ZengMDPI AGMaterials1996-19442022-08-011517587910.3390/ma15175879Effect of Indenter Nose Shape and Layer Configuration on the Quasi-Static Perforation Behaviour of Metal–Plastic LaminatesMohammad Uddin0Graham Stevens1Daniel Williams2UniSA STEM, University of South Australia, Mawson Lakes Campus, Mawson Lakes, SA 5095, AustraliaSt Vens Pty Ltd., Toowoomba, QLD 4350, AustraliaFuture Industries Institute, University of South Australia, Mawson Lakes Campus, Mawson Lakes, SA 5095, AustraliaThis study investigated the perforation resistance behaviour of metal–plastic laminates (MPLs) when they are indented by different nose shapes. Aluminium (Al) and HDPE (high-density polyethylene) layers were bonded with a suitable adhesive in an alternative manner to prepare bilayer and trilayer MPL configurations. Quasi-static perforation experiments were performed with hemispherical, conical and blunt indenters. The effects of nose shape, layer configuration and adhesive on the force–deformation profile, perforation resistance capacity and failure mechanisms were evaluated. The results indicate that for a monolithic layer, the blunt indenter showed the highest perforation energy capacity. The conical and blunt indenters facing Al backed by HDPE gave higher perforation energy. The hemispherical indenter facing HDPE backed by Al was found to be more effective in perforation resistance. Trilayer Al–HDPE–Al showed higher perforation resistance than HDPE–Al–HDPE. Circumferential cracking, radial symmetric cracking and shear plugging were the main failure modes for Al under hemispherical, conical and blunt indenters, respectively. The adhesive contributed to an increase in the perforation energy and peak force to failure in laminates. The adhesive was shown to detach from the Al surface after Al fracturing through crack propagation, and this effect was more pronounced when the indenter faced HDPE at the front of the laminate.https://www.mdpi.com/1996-1944/15/17/5879metal–plastic laminatesindenter shapeadhesiveperforation energy capacitydeformationbonding interfacial failure mechanisms
spellingShingle Mohammad Uddin
Graham Stevens
Daniel Williams
Effect of Indenter Nose Shape and Layer Configuration on the Quasi-Static Perforation Behaviour of Metal–Plastic Laminates
Materials
metal–plastic laminates
indenter shape
adhesive
perforation energy capacity
deformation
bonding interfacial failure mechanisms
title Effect of Indenter Nose Shape and Layer Configuration on the Quasi-Static Perforation Behaviour of Metal–Plastic Laminates
title_full Effect of Indenter Nose Shape and Layer Configuration on the Quasi-Static Perforation Behaviour of Metal–Plastic Laminates
title_fullStr Effect of Indenter Nose Shape and Layer Configuration on the Quasi-Static Perforation Behaviour of Metal–Plastic Laminates
title_full_unstemmed Effect of Indenter Nose Shape and Layer Configuration on the Quasi-Static Perforation Behaviour of Metal–Plastic Laminates
title_short Effect of Indenter Nose Shape and Layer Configuration on the Quasi-Static Perforation Behaviour of Metal–Plastic Laminates
title_sort effect of indenter nose shape and layer configuration on the quasi static perforation behaviour of metal plastic laminates
topic metal–plastic laminates
indenter shape
adhesive
perforation energy capacity
deformation
bonding interfacial failure mechanisms
url https://www.mdpi.com/1996-1944/15/17/5879
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AT grahamstevens effectofindenternoseshapeandlayerconfigurationonthequasistaticperforationbehaviourofmetalplasticlaminates
AT danielwilliams effectofindenternoseshapeandlayerconfigurationonthequasistaticperforationbehaviourofmetalplasticlaminates