Comparative Analysis of Mechanical Performance of Woven based Thermoplastic and Thermoset Composites
Loading...
Date
item.page.authors
Journal Title
Journal ISSN
Volume Title
Publisher
Abstract
This research work presents a comprehensive comparative analysis of the mechanical
newlineperformance of woven-based thermoplastic and thermoset composites, addressing various
newlineobjectives aimed at understanding their response to quasi-static and dynamic impact loads.
newlineThe study systematically evaluates the mechanical properties of woven fabric-reinforced
newlinecomposites, integrating various fibre types including natural fibres like flax and jute, as well
newlineas high-performance fibres like basalt and glass, within both thermoplastic and thermoset
newlinematrices. The research investigates the influence of reinforcement materials and matrix types
newlineon the mechanical behaviour of advanced composites. Hybrid yarns, known as co-wrapped
newlineyarns (CWYs), have been developed to enhance the characteristics of complex-shaped
newlinecomposite parts, showing potential for cost-effective production.
newlineThermoset composites demonstrate superior performance in low-strain rate (quasi-
newlinestatic) mechanical tests. This advantage is attributed to the crosslinked molecular structure of
newlinethermosets, which provides high stiffness and dimensional stability. These properties make
newlinethermoset composites particularly suitable for applications where rigidity and stability under
newlinesustained loads are critical. In contrast, thermoplastic composites excel in dynamic impact
newlinescenarios, particularly out-of-plane and edge-wise impacts. Their higher ductility and
newlinetoughness allow them to absorb and dissipate impact energy more effectively than thermosets,
newlinemaking them ideal for applications where impact resistance is essential.
newlineThe research includes a comparative study of woven-based thermoplastic and
newlinethermoset composites reinforced with glass, flax, and jute fibres. E-glass fibres consistently
newlineoutperform natural fibres (flax and jute) in both thermoplastic and thermoset matrices.