This field focuses on the fundamental electrochemical principles of energy conversion and storage,
aiming to develop high-performance materials and innovative architectures for the next generation of energy
devices. Our faculty are dedicated to addressing global energy challenges through molecular-level engineering
and system integration. Our faculty have pioneered 1) the development of high-capacity electrode materials
and stable electrolytes for advanced lithium-ion and post-lithium battery systems, 2) the design of high-power
supercapacitors and hybrid energy storage devices, and 3) the investigation of interfacial phenomena to enhance
the safety and cycle life of large-scale energy storage applications.

This area explores the intersection of materials science and life sciences, focusing on the design and
synthesis of biocompatible materials that interact harmoniously with biological systems. By leveraging the
versatility of organic and polymeric materials, we aim to provide cutting-edge solutions for healthcare and
biotechnology. Our faculty have pioneered 1) the engineering of functional scaffolds and hydrogels for tissue
engineering and regenerative medicine, 2) the development of smart, stimuli-responsive carriers for targeted
drug and gene delivery, and 3) the creation of high-sensitivity biosensors and diagnostic platforms for
real-time health monitoring.

This field emphasizes environmental responsibility and the circular economy by developing eco-friendly
materials and "green" manufacturing processes to minimize the ecological footprint of industrial products.
We focus on the entire lifecycle of materials, from renewable sourcing to end-of-life management. Our faculty
have pioneered 1) the synthesis of bio-based and biodegradable polymers to replace petroleum-derived plastics,
2) the development of advanced recycling technologies and upcycling strategies for polymer composites, and
3) the implementation of sustainable processing methods that reduce energy consumption and hazardous waste.

This research area advances the traditional foundations of fiber science and composites into the realm of high-performance and multifunctionality for diverse industrial applications. We combine innovative spinning, coating, and assembly techniques to create materials with extraordinary mechanical and functional properties. Our faculty have pioneered 1) the fabrication of high-performance, lightweight fibers for advanced structural and industrial components, 2) the development of organic–inorganic hybrid composites for strategic applications in the aerospace, automotive, and defense industries, and 3) the integration of electronic and sensing capabilities into textiles to realize next-generation smart wearable systems.