Research

Fiber-reinforced thermoplastic (FRTP) composites are increasingly used in Next-Gen engineering structures where components are subjected to fatigue, impact, & high-rate loading conditions. Improving their performance and damage tolerance is therefore critical. Our research group focuses on enhancing the fatigue and impact performance of FRTP composites. By integrating nano/micro fillers (CNTs, graphene, CSPs, in-house synthesized fillers), we aim to improve fatigue life, impact damage resistance, & structural performance under realistic loading conditions. 

This research direction focuses on the development of multifunctional FRTP composites that combine high mechanical performance with EMI shielding, fire retardance, and thermal protection. Through tailored composite architectures and the integration of functional nano/micro fillers, we aim to enable FRTP composites with enhanced EMI shielding, thermal stability, and fire/flame resistance. These materials are targeted for advanced aerospace, defense, and space structures requiring both structural integrity and extreme environment protection.

This research direction focuses on the automated manufacturing of FRTP composites using tape laying and filament winding techniques. A key aspect of the work is understanding how manufacturing process parameters influence mechanical performance under service-like loading conditions. The research includes the design and development of FRTP composite pipes, pressure vessels, and sports safety products, with a clear focus on real, application-ready composite structures.