Manufacturing and investigating the load, energy and failure attributes of thin ply carbon/Elium® thermoplastic hollow composites under low-velocity impact

Current research investigates the low-velocity impact response of the hollow rectangular tubular structures manufactured using Bladder Resin Transfer Moulding (B-RTM) process with novel thermoplastic Elium® (EL) resin as a matrix system and thin ply carbon fibre as the reinforcement. Manufacturing p...

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Main Authors: Somen K. Bhudolia, Goram Gohel, Jayaram Kantipudi, Kah Fai Leong, Pierre Gerard
Format: Article
Language:English
Published: Elsevier 2021-08-01
Series:Materials & Design
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S0264127521003671
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spelling doaj-2c447ad5979f4cf0b248cd83f157be2b2021-06-17T04:45:18ZengElsevierMaterials & Design0264-12752021-08-01206109814Manufacturing and investigating the load, energy and failure attributes of thin ply carbon/Elium® thermoplastic hollow composites under low-velocity impactSomen K. Bhudolia0Goram Gohel1Jayaram Kantipudi2Kah Fai Leong3Pierre Gerard4School of Mechanical and Aerospace Engineering, Nanyang Technological University, 50, Nanyang Avenue, 639798, Singapore; Corresponding author.School of Mechanical and Aerospace Engineering, Nanyang Technological University, 50, Nanyang Avenue, 639798, SingaporeSchool of Mechanical and Aerospace Engineering, Nanyang Technological University, 50, Nanyang Avenue, 639798, SingaporeSchool of Mechanical and Aerospace Engineering, Nanyang Technological University, 50, Nanyang Avenue, 639798, SingaporeGroupement de Recherche de Lacq, Arkema, Route Départementale 817, BP 34, 64170 Lacq, FranceCurrent research investigates the low-velocity impact response of the hollow rectangular tubular structures manufactured using Bladder Resin Transfer Moulding (B-RTM) process with novel thermoplastic Elium® (EL) resin as a matrix system and thin ply carbon fibre as the reinforcement. Manufacturing process parameters are optimised and injection schemes and the moldability zones are defined. Low-velocity impact (LVI) tests has been carried out at 5 different energy levels and the failure mechanisms were deduced using an in-situ high-speed camera and microscopic examination. Thin ply carbon/Elium® (TPC/EL) tubular configuration has shown a maximum increase of 18.3% in peak load compared to Thin ply carbon/Epoxy (TPC/EP) composite. TPC/EL composite has shown significantly higher absorbed energies 70.1%, 109.3% and 170% compared to TPC/EP composites while comparing the results at 12.5 J, 14.5 J and 17.5 J respectively. TPC/EL composite has also shown up to 70% higher major damage energy when impacted at significantly higher impact energies. The details of the failure mechanisms and understanding on the load and energy attributes of tubular composite structures are deliberated in this paper.http://www.sciencedirect.com/science/article/pii/S0264127521003671Bladder Resin Transfer Moulding (B-RTM)Thermoplastic resinImpact behaviourOptical microscopy
collection DOAJ
language English
format Article
sources DOAJ
author Somen K. Bhudolia
Goram Gohel
Jayaram Kantipudi
Kah Fai Leong
Pierre Gerard
spellingShingle Somen K. Bhudolia
Goram Gohel
Jayaram Kantipudi
Kah Fai Leong
Pierre Gerard
Manufacturing and investigating the load, energy and failure attributes of thin ply carbon/Elium® thermoplastic hollow composites under low-velocity impact
Materials & Design
Bladder Resin Transfer Moulding (B-RTM)
Thermoplastic resin
Impact behaviour
Optical microscopy
author_facet Somen K. Bhudolia
Goram Gohel
Jayaram Kantipudi
Kah Fai Leong
Pierre Gerard
author_sort Somen K. Bhudolia
title Manufacturing and investigating the load, energy and failure attributes of thin ply carbon/Elium® thermoplastic hollow composites under low-velocity impact
title_short Manufacturing and investigating the load, energy and failure attributes of thin ply carbon/Elium® thermoplastic hollow composites under low-velocity impact
title_full Manufacturing and investigating the load, energy and failure attributes of thin ply carbon/Elium® thermoplastic hollow composites under low-velocity impact
title_fullStr Manufacturing and investigating the load, energy and failure attributes of thin ply carbon/Elium® thermoplastic hollow composites under low-velocity impact
title_full_unstemmed Manufacturing and investigating the load, energy and failure attributes of thin ply carbon/Elium® thermoplastic hollow composites under low-velocity impact
title_sort manufacturing and investigating the load, energy and failure attributes of thin ply carbon/elium® thermoplastic hollow composites under low-velocity impact
publisher Elsevier
series Materials & Design
issn 0264-1275
publishDate 2021-08-01
description Current research investigates the low-velocity impact response of the hollow rectangular tubular structures manufactured using Bladder Resin Transfer Moulding (B-RTM) process with novel thermoplastic Elium® (EL) resin as a matrix system and thin ply carbon fibre as the reinforcement. Manufacturing process parameters are optimised and injection schemes and the moldability zones are defined. Low-velocity impact (LVI) tests has been carried out at 5 different energy levels and the failure mechanisms were deduced using an in-situ high-speed camera and microscopic examination. Thin ply carbon/Elium® (TPC/EL) tubular configuration has shown a maximum increase of 18.3% in peak load compared to Thin ply carbon/Epoxy (TPC/EP) composite. TPC/EL composite has shown significantly higher absorbed energies 70.1%, 109.3% and 170% compared to TPC/EP composites while comparing the results at 12.5 J, 14.5 J and 17.5 J respectively. TPC/EL composite has also shown up to 70% higher major damage energy when impacted at significantly higher impact energies. The details of the failure mechanisms and understanding on the load and energy attributes of tubular composite structures are deliberated in this paper.
topic Bladder Resin Transfer Moulding (B-RTM)
Thermoplastic resin
Impact behaviour
Optical microscopy
url http://www.sciencedirect.com/science/article/pii/S0264127521003671
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