This project involves the extraction and characterization of novel natural fibers from different plant sources, focusing on their physical, mechanical, and chemical properties. The study aims to evaluate the suitability of these fibers as reinforcement materials in composite development. Based on the observed performance, potential applications are proposed for use in engineering, industrial, and sustainable material fields.  

The development of fiber-reinforced composite materials using bamboo, jute, coir, jackfruit, and glass fibers focuses on creating strong, lightweight, and sustainable alternatives to conventional materials. By combining natural and synthetic fibers, these composites are engineered to enhance mechanical performance while reducing environmental impact. The resulting materials are suitable for a wide range of structural, industrial, and engineering applications. 

This research focuses on the eco-friendly synthesis and application of functional nanoparticles for advanced textile and material applications. Bio-derived nanoparticles, including silk fibroin, silver, and chitosan nanoparticles, are developed to enhance antibacterial, antistatic, and functional properties of textile substrates. These nanomaterial-based treatments demonstrate significant potential for use in smart, protective, and high-performance textile systems. 

This research focuses on the development of sustainable and functional nonwoven materials using natural, recycled, and hybrid fibers. Emphasis is placed on improving mechanical strength, filtration efficiency, and surface functionality through eco-friendly processing and material design. The developed nonwoven structures demonstrate potential applications in packaging, filtration, medical, and technical textile sectors. 

This project explores the development of antimicrobial textiles through sustainable and bio-based functionalization techniques. Natural agents such as plant extracts, essential oils, and bio-derived emulsions are applied to cellulosic and blended fabrics to impart antibacterial and UV-protective properties. The resulting functional textiles demonstrate enhanced durability, safety, and effectiveness, making them suitable for applications in healthcare, protective clothing, and hygienic textile products.