양극과 고체전해질의 설계·합성·반응 메커니즘을 연구하고, AI·계산·실험을 연결하여 소재와 계면을 함께 이해합니다.
리튬이온전지와 소듐이온전지용 저가형 고성능 양극을 설계합니다. 조성·결정구조·산화환원 반응을 분석해 에너지밀도·출력·수명을 높이는 원리를 규명합니다.
Cost-effective, high-performance cathodes for lithium-ion and sodium-ion batteries.02 / CORE EXPERTISE전고체전지용 고체전해질의 이온 전도와 구조·화학적 안정성을 이해하고, 양극과 맞닿는 계면까지 함께 설계합니다.
Solid electrolytes for all-solid-state batteries: ion transport, stability, and cathode interfaces.
View full size · 크게 보기We study layered oxides, olivine-type cathodes, and disordered rocksalt materials. Our research connects composition and crystal structure with redox behavior, ion transport, and electrochemical performance.
양이온 배열 제어를 통한 Li 이동 경로 개선
View full size · 크게 보기We investigate sodium- and potassium-ion electrode materials and aqueous zinc systems. Materials design and mechanistic analysis guide our work on reversible reactions, structural stability, and ion transport.
전자구조·산소 산화환원 반응을 활용한 소듐 양극 설계
View full size · 크게 보기We study solid electrolytes and their compatibility with cathode materials, connecting ion transport and electrolyte stability with interfacial reactions. Experiments and calculations guide electrolyte design, cathode coatings, and interface control for all-solid-state batteries.
접착력 강화 코팅을 통한 전극–고체전해질 계면 안정화
Synthesis, electrode preparation, and electrochemical measurements connect a material’s structure with its battery behavior.
AI supports data-driven materials exploration, while first-principles calculations reveal structural stability, operating voltage, and ion-diffusion pathways. Together, they connect materials design with atomic-scale understanding.
X-ray and neutron methods, X-ray absorption spectroscopy, and electron microscopy reveal how materials change during battery operation.
