Our Visions:
- In-depth understanding of matter and energy at the nano/atomic level
- Manipulating and creating materials atom(s) by atom(s)
- Carbon builds the future technology
Research Interests
- In situ electron microscopy and its applications to nanotechnology and methodology
- Developing new in situ TEM/SEM techniques to explore and tailor the electrical, mechanical, optical, thermal, and electrochemical properties of individual nanostructures.
- TEM-based additive, subtractive and equal material nano-manufacturing; Atomic Manufacturing.
- "Simulative" TEM characterization based on artifical strcutral models to reveal the evolution of battery materials in confined spaces.
We have two cutting-edge in situ characterization platforms based on TEM and SEM respectively, which allow for a comprehensive study of materials from structural visualization/analysis to property measurement/tailoring, and even nanoarchitecture creation.
- Advanced energy storage materials and devices
- Design and fabrication of novel micro-nano materials for electrochemical energy storage
- Electrochemical energy storage devices (such as Li, Na, K-ion batteries, metal batteries, solid-state batteries, supercapacitors)
- Micro-device fabrication and test based on in-situ TEM/SEM techniques.
Research strategy and roadmap
研究愿景:
- 纳米/原子尺度上对物质和能量现象的深层理解
- 材料的原子级精度加工与创制
- 碳构筑未来科技
研究方向:
- 原位电镜表征方法学与精准纳米/原子制造
- 发展基于透射和扫描电镜的原位物性测量和调控技术,用于单个纳米结构的电,力,光,热及电化学等性能的表征和精确控制。
- TEM纳米增材,减材,等材制造;TEM原子制造
- 利用人工结构模型来模拟限域空间中电池材料演变的“模型化”原位电镜研究方法。
- 先进储能材料和器件
- 用于电化学储能的新型微纳米材料的设计和制备
- 电化学储能器件(锂/钠/钾离子电池,金属电池,固态电池,超级电容器)
- 基于原位透射和扫描电镜的超微器件的制备及其构效关系研究研究策略和路径:
代表性成果: