离子键合
化学物理
氧化物
材料科学
导电体
扩散
扩散层
格子(音乐)
普遍性(动力系统)
纳米技术
离子
化学工程
图层(电子)
化学
热力学
凝聚态物理
复合材料
物理
有机化学
冶金
工程类
声学
作者
Liang Li,Min Hu,Changlong Hu,Bowen Li,Shanguang Zhao,Ting Zhou,Jinglin Zhu,Meiling Liu,Liangbin Li,Jun Jiang,Chongwen Zou
出处
期刊:Nano Letters
[American Chemical Society]
日期:2023-04-27
卷期号:23 (16): 7297-7302
被引量:11
标识
DOI:10.1021/acs.nanolett.3c01139
摘要
Mass storage and removal in solids always play a vital role in technological applications such as modern batteries and neuronal computations. However, they were kinetically limited by the slow diffusional process in the lattice, which made it challenging to fabricate applicable conductors with high electronic and ionic conductivities at room temperature. Here, we proposed an acid solution/WO 3 /ITO sandwich structure and achieved ultrafast H transport in the WO 3 layer by interfacial job-sharing diffusion, which means the spatially separated transport of the H + and e – in different layers. From the color change of WO 3, the effective diffusion coefficient ( D eff ) was estimated, dramatically increasing ≤10 6 times and overwhelming values from previous reports. The experiments and simulations also revealed the universality of extending this approach to other atoms and oxides, which could stimulate systematic studies of ultrafast mixed conductors in the future.
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