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Graphene-based high-performance pseudo-ductile glass-carbon/epoxy composites

Graphene-based high-performance pseudo-ductile glass-carbon/epoxy composites
Graphene-based high-performance pseudo-ductile glass-carbon/epoxy composites

High-performance fibre-reinforced polymer (FRP) composites offer outstanding specific strength and stiffness. However, their inherent brittleness can result in sudden and catastrophic failure without adequate warning, making them unsuitable for many applications. To overcome this limitation, we developed graphene-based glass-carbon FRP hybrid composites with excellent pseudo-ductile properties. Our method involves coating glass and carbon fibre fabrics with graphene-based materials using a scalable pad-dry-cure technique, followed by epoxy matrix reinforcement via vacuum-assisted resin infusion (VARI). Tensile and flexural tests reveal remarkable pseudo-ductile behaviour, with 1 wt% GNP-coated composites showing approximately ∼ 17.05 % higher Young's modulus, ∼18.52 % higher ultimate failure stress, and ∼ 31.73 % higher strain% compared to glass-carbon/epoxy hybrids. By enabling the manufacture of high-performance pseudo-ductile composites at scale using a cost-effective manufacturing method, these composites hold significant potential for next-generation applications.

And hybrid composites, Fibre reinforced polymer (FRP), Graphene, Pseudo-ductility
1359-835X
Islam, Mohammad Hamidul
0f06ff06-88ad-488a-a838-b85e2cf16ff4
Afroj, Shaila
9b4a7a26-01db-40c7-a933-f07a7ed58a73
Karim, Nazmul
31555bd6-2dc7-4359-b717-3b2fe223df36
Islam, Mohammad Hamidul
0f06ff06-88ad-488a-a838-b85e2cf16ff4
Afroj, Shaila
9b4a7a26-01db-40c7-a933-f07a7ed58a73
Karim, Nazmul
31555bd6-2dc7-4359-b717-3b2fe223df36

Islam, Mohammad Hamidul, Afroj, Shaila and Karim, Nazmul (2024) Graphene-based high-performance pseudo-ductile glass-carbon/epoxy composites. Composites Part A: Applied Science and Manufacturing, 180, [108086]. (doi:10.1016/j.compositesa.2024.108086).

Record type: Article

Abstract

High-performance fibre-reinforced polymer (FRP) composites offer outstanding specific strength and stiffness. However, their inherent brittleness can result in sudden and catastrophic failure without adequate warning, making them unsuitable for many applications. To overcome this limitation, we developed graphene-based glass-carbon FRP hybrid composites with excellent pseudo-ductile properties. Our method involves coating glass and carbon fibre fabrics with graphene-based materials using a scalable pad-dry-cure technique, followed by epoxy matrix reinforcement via vacuum-assisted resin infusion (VARI). Tensile and flexural tests reveal remarkable pseudo-ductile behaviour, with 1 wt% GNP-coated composites showing approximately ∼ 17.05 % higher Young's modulus, ∼18.52 % higher ultimate failure stress, and ∼ 31.73 % higher strain% compared to glass-carbon/epoxy hybrids. By enabling the manufacture of high-performance pseudo-ductile composites at scale using a cost-effective manufacturing method, these composites hold significant potential for next-generation applications.

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Accepted/In Press date: 9 February 2024
e-pub ahead of print date: 15 February 2024
Published date: 20 February 2024
Keywords: And hybrid composites, Fibre reinforced polymer (FRP), Graphene, Pseudo-ductility

Identifiers

Local EPrints ID: 496164
URI: http://eprints.soton.ac.uk/id/eprint/496164
ISSN: 1359-835X
PURE UUID: dd1fae68-0fb7-46bd-9566-db762f4d93bb
ORCID for Nazmul Karim: ORCID iD orcid.org/0000-0002-4426-8995

Catalogue record

Date deposited: 05 Dec 2024 17:52
Last modified: 06 Dec 2024 03:13

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Contributors

Author: Mohammad Hamidul Islam
Author: Shaila Afroj
Author: Nazmul Karim ORCID iD

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