Enhancing the fire-resistance performance of composite laminates via multi-scale hybridisation: A review

Author:

Dalfi Hussein Kommur1ORCID,Jan Khayale2,Al-Badri Alaa1,Peerzada Mazhar3,Yousaf Zeshan4ORCID,Parnell William4,Morrison Neil4,Bari Klaudio5

Affiliation:

1. Department of Mechanical Engineering, University of Wasit, Wasit, Iraq

2. Faculty of Engineering, Bahauddin Zakariya University, Multan, Pakistan

3. Centre of Future Materials, University of Southern Queensland, Toowoomba, QLD, Australia

4. School of Materials, The University of Manchester, Manchester, UK

5. Faculty of Science and Engineering, School of Engineering, University of Wolverhampton, Wolverhampton, UK

Abstract

Fibre-reinforced composites laminates (FRCLs) are employed in various applications such as in marine, aerospace, automotive, and civil industries due to their lightweight nature, design tailorability, and superior specific mechanical properties. However, they possess extremely low flame resistance mainly due to the inherent flammability of the polymer matrix. Various treatments have been applied to improve the fire resistance of FRCLs. In particular, hybridisation (fibre hybridisation and polymer hybridisation) is an important technique which is becoming very popular to enhance the thermal performance and flame resistance of FRCLs. This article is a comprehensive review of the recent developments that broadly cover the improvements in fire resistance of composite laminates via multi-scale hybridisation; the characteristics of thermal decomposition of FRCLs have been presented to comprehend the need for flame retardancy. Approaches for improving the fire resistance of FRCLs and thermal stability, both in polymer and in fibre systems, are discussed. Enhancing the fire resistance has been significant through additives to the matrix, use of flame-retardant modified fibres at interfacial regions and by way of multi-layered hybrid laminates besides hybridization at fibre, yarn and layer level. Finally, a review is presented on the modelling of fire resistance of composite laminates by considering thermo-mechanical models for the prediction of decomposition and failure of laminates at elevated temperatures.

Publisher

SAGE Publications

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