Engineering Multifunctionality in Textiles and Polymers through Nanomaterials and Coatings
My research focuses on developing functional polymer nanocomposites and coatings using nanomaterials such as nanoclays, graphene, MXenes and nanocellulose. These studies investigate how nanomaterial dispersion, interfacial interactions, and processing conditions influence mechanical properties, flexibility, thermal stability, durability, weather resistance, and barrier performance. Another research direction involves the functionalization of textiles using conductive polymers and nanomaterials to develop smart textiles with electrical conductivity, Joule-heating capabilities and EMI shielding. Collaborative research also extends to cellulose-based composites, biodegradable polymers, and sustainable functional coatings. Building on these studies, future research will integrate polymer engineering, nanotechnology, and environmentally responsible coating processes to develop durable, multifunctional textiles and advanced materials for practical applications.
≪研究から広がる未来≫
The integration of advanced nanomaterials, polymers, and functional coating technologies offers opportunities to transform conventional textiles and other materials into high-performance, multifunctional systems. Future research will explore smart textiles with capabilities such as thermal management, sensing, UV protection, and electromagnetic interference shielding, alongside advanced coatings with improved durability, protective functionalities and an application-specific balance between breathability and barrier performance. Emphasis will also be placed on renewable materials, environmentally responsible processing, and long-term performance to develop sustainable functional materials for applications in wearable technologies, healthcare, protective textiles, and various industrial sectors.