纳米尺度下,低维材料本身的局域场与力、电、磁、流等外物理场的耦合变得十分突出,形成纳米尺度特有的多场耦合调控行为。本方向结合传统牛顿力学、量子力学与固体物理等方法,发现低维碳、氮化硼等材料一系列奇特的力-电-磁-热耦合效应以及基于固液耦合的水伏效应等新现象和新规律。
![1.jpg 1.jpg](//ins.nuaa.edu.cn/attached/upload/image/20201228/6374475116264876446835247.jpg)
Coupling between local and external fields (F-force, E-electric field, M-magnetic field, O-optical, T-thermal) at nanoscale
And tunable properties of typical low-dimensional materials by mechano-electro-magnetic coupling
![无标题.png 无标题.png](//ins.nuaa.edu.cn/attached/upload/image/20201226/6374461244307823589395335.png)
Substrate‐dependent 2D boron structures
![2.png 2.png](//ins.nuaa.edu.cn/attached/upload/image/20201228/6374475033456637446019155.png)
Generating electricity by moving a droplet of ionic liquid along graphene
![image.png image.png](//ins.nuaa.edu.cn/attached/upload/image/20201227/6374469193270265956556723.png)
Waving potential in graphene
![5.png 5.png](//ins.nuaa.edu.cn/attached/upload/image/20201228/6374475038375216031213794.png)
Mechanisms and applications of emerging hydrovoltaic technology