Maier J
Max-Planck-Institut für Festkörperforschung, 70569 Stuttgart, Germany.
Nat Mater. 2005 Nov;4(11):805-15. doi: 10.1038/nmat1513.
The past two decades have shown that the exploration of properties on the nanoscale can lead to substantially new insights regarding fundamental issues, but also to novel technological perspectives. Simultaneously it became so fashionable to decorate activities with the prefix 'nano' that it has become devalued through overuse. Regardless of fashion and prejudice, this article shows that the crystallizing field of 'nanoionics' bears the conceptual and technological potential that justifies comparison with the well-acknowledged area of nanoelectronics. Demonstrating this potential implies both emphasizing the indispensability of electrochemical devices that rely on ion transport and complement the world of electronics, and working out the drastic impact of interfaces and size effects on mass transfer, transport and storage. The benefits for technology are expected to lie essentially in the field of room-temperature devices, and in particular in artificial self-sustaining structures to which both nanoelectronics and nanoionics might contribute synergistically.
过去二十年表明,对纳米尺度特性的探索不仅能带来关于基本问题的全新见解,还能开拓新的技术视野。与此同时,用“纳米”前缀来修饰各种活动变得如此流行,以至于这个词因过度使用而贬值。抛开时尚潮流和偏见不谈,本文表明,“纳米离子学”这个正在形成的领域具有概念和技术潜力,足以与公认的纳米电子学领域相媲美。要证明这种潜力,既要强调依赖离子传输且补充电子世界的电化学装置的不可或缺性,又要阐明界面和尺寸效应在质量传递、传输和存储方面的巨大影响。预计该技术的优势主要体现在室温设备领域,尤其是在人工自持结构方面,纳米电子学和纳米离子学可能会协同发挥作用。