1. Functional Materials Research:

• We investigate various functional materials, including energy storage materials, catalysts, and adsorbents, for potential applications in the energy sector.

2. Battery Materials Research:

• We are committed to developing next-generation battery materials, including sodium-based anodes, solid-state electrolytes, and aqueous-based materials, to improve battery performance, safety, and sustainability.

3. Energy Conversion Systems Research:

• We explore innovative energy conversion systems, including next-generation battery systems like seawater battery, energy storage systems (ESS), seawater resource utilization, and battery recycling/reuse technologies, to promote a sustainable and carbon-neutral future.

1. Next-Generation Material Development:

• We are developing next-generation electrode and electrolyte materials for sustainable energy solutions, focusing on sodium-ion batteries (Na-ion) and solid-state batteries. This includes the synthesis and structural control of alternative electrode materials , as well as the design of porous electrode structures and interfaces to enhance reactivity and stability. We also aim to secure technology for controlling ion conductivity in solid and hybrid electrolytes.

2. System Integration and Optimization:

• We focus on the application and optimization of energy systems at the cell level. This involves designing and optimizing next-generation material-based cells , developing electrode manufacturing processes such as slurry formulation and coating , and integrating energy storage and conversion technologies.

3. Advanced Analysis and Modeling:

• We utilize advanced diagnostic techniques like electrochemical impedance spectroscopy (EIS) and GITT to elucidate reaction mechanisms. Our research also involves multi-scale simulations (e.g., DFT, COMSOL) to predict material properties and optimize electrode design. We aim to establish an integrated platform that links experimental data with simulation to optimize design and predict lifespan