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Yong Min Lee
个人简介
暂无内容
教育背景
2002.01 – 2007.12
Korea Advanced Institute of Science and Technology (KAIST) Ph.D. Chemical and Biomolecular Engineering
2000.01 – 2002.12
KAIST M.S. Chemical and Biomolecular Engineering
1997.01 – 2000.12
KAIST B.S. Chemical Engineering
工作经历
2026.03 – 至今
Yonsei University
Associate Dean for research, School of Engineering
2024.03 – 至今
Yonsei University
Professor, Department of Chemical and Biomolecular Engineering
2023.04 – 2024.01
DGIST
Dept. Chair, Department of Energy Science and Engineering
2022.03 – 2024.02
DGIST
Professor, Energy Science and Engineering
2017.03 – 2022.02
DGIST
Associate Professor, Department of Energy Science and Engineering
2009.09 – 2017.02
Hanbat National University
Full-time Lecturer, Assistant Professor, Associate Professor, and Professor (Tenure) Department of Chemical and Biological Engineering
2007.09 – 2009.08
SK Innovation Co., Ltd (Former, SK Energy Co., Ltd.)
Researcher
2007.02 – 2007.08
KAIST
Research Fellow (Post.Doc.), Applied Science Research Institute
2000.09 – 2007.02
KAIST
Research and Teaching Assistant, Department of Chemical and Biomolecular Engineering
荣誉奖项
- Award from the Ministry of Trade, Industry and Resources (산업통상부 장관상)（2025）｜Ministry of Trade, Industry and Resources
- PBFC Research Award (The Korean Electrochemical Society, PBFC 학술상)（2025）｜The Korean Electrochemical Society
- Award from the Ministry of Science and ICT (과학기술정보통신부 장관상)（2022）｜Ministry of Science and ICT
- Research Award, DGIST (디지스트 우수 연구상)（2020）｜DGIST
- Best Lecture Award, DGIST (디지스트 최우수 교육상)（2019）｜DGIST
- Outstanding Researcher in KEPCO Basic Research Projects（2018）｜KEPCO
- Research Award, Hanbat Nat’l Univ.（2016）｜Hanbat Nat’l Univ.
- Korea Battery Industry Association Prize (한국전지산업협회 포상)（2014）｜Korea Battery Industry Association
- Academic Scholarship, KAIST Graduate School（2000~2007）｜KAIST Graduate School
- Academic Excellence Scholarship, KAIST（1997~2000）｜KAIST
正极废料对软包锂离子电池中锂枝晶形成和快速充电退化的影响
通过多孔石墨烯网络辅助，解锁高负载和高密度锂离子电池电极的三维电子和离子传输
通过3D微结构解析分析揭示硫化物基全固态电池中PTFE基干法电极的结构优势
重新审视锂离子电池中鲁棒干电极-集流体界面的引层设计
SiOx表面优化碳涂层实现了离子/电子传输平衡和均匀分散的SiOx/石墨复合电极
用于无PFAS、高负载锂电池正极的电荷工程纤维素纳米纤丝粘合剂
架构三维空气电极中基于微观结构的反应物传输工程用于高性能锂-氧电池
用于锂金属全电池的具有阴离子助熔和Li离子导电性能的二维聚合金属酞菁
通过响应湿度除湿隔膜实现对高镍正极的H2O触发的电化学降解的保护
揭示了由数字孪生模型支持的硫化物基复合阴极的降解机理: 干粘合剂与湿粘合剂
双峰复合阴极提高了全固态电池的化学机械完整性和动力学
纳米结构铌掺杂富镍多相正极活性材料，用于高功率锂基电池
毛细桥接浆料工程实现了可扩展的锂离子电池电极，其容量达到27 mAh cm–2
通过从2D图像生成随机3D微观结构，揭示电池聚合物隔膜的微观结构和电化学性能
数字孪生驱动的机械退化诊断: 解开硅基锂离子电池阳极的微观结构演变
规则排列的微孔结构能够促进SiOx/人工石墨复合电极中锂离子的有效传输
高性能、卷对卷制备的支架支撑固体电解质隔膜，用于实际全固态电池 (Small 38/2025)
基于金属-绝缘体相变的三元薄膜晶体管，采用纳米晶-溶液法工艺制备
验证虚拟涂布过程与3D重建复合电极：电极设计的优化框架 (Small 27/2025)
