Key Laboratory of Advanced Energy Materials Chemistry (Ministry of Education), College of Chemistry, Nankai University , Tianjin 300071, P. R. China.
Collaborative Innovation Center of Chemical Science and Engineering (Tianjin), Nankai University , Tianjin 300071, P. R. China.
ACS Appl Mater Interfaces. 2017 Aug 30;9(34):28612-28619. doi: 10.1021/acsami.7b08833. Epub 2017 Aug 17.
The rapid development of printable electronic devices with flexible and wearable characteristics requires supercapacitor devices to be printable, light, thin, integrated macro- and micro-devices with flexibility. Herein, we developed a consecutive spray printing strategy to controllably construct and integrate diverse supercapacitors on various substrates. In such a strategy, all supercapacitor components are fully printable, and their thicknesses and shapes are well controlled. As a result, supercapacitors obtained by this strategy achieve diverse structures and shapes. In addition, different nanocarbon and pseudocapacitive materials are applicable for the fabrication of these diverse supercapacitors. Furthermore, the diverse supercapacitors can be readily constructed on various objects with planar, curved, or even rough surfaces (e.g., plastic film, glass, cloth, and paper). More importantly, the consecutive spray printing process can integrate several supercapacitors together in the perpendicular and parallel directions of one substrate by designing the structure of electrodes and separators. This enlightens the construction and integration of fully printable supercapacitors with diverse configurations to be compatible with fully printable electronics on various substrates.
具有灵活可穿戴特性的可打印电子设备的快速发展要求超级电容器设备具有可打印性、轻便、超薄、集成的宏观和微观器件以及灵活性。在此,我们开发了一种连续喷涂印刷策略,可在各种基底上可控地构建和集成各种超级电容器。在这种策略中,所有超级电容器组件都是完全可打印的,并且它们的厚度和形状可以得到很好的控制。结果,通过该策略获得的超级电容器具有多种结构和形状。此外,不同的纳米碳和赝电容材料可适用于制造这些不同的超级电容器。此外,各种超级电容器可以很容易地构建在各种具有平面、弯曲甚至粗糙表面的物体上(例如塑料薄膜、玻璃、布和纸)。更重要的是,通过设计电极和隔板的结构,连续喷涂印刷工艺可以在一个基底的垂直和平行方向上将几个超级电容器集成在一起。这启发了具有各种配置的全打印超级电容器的构建和集成,使其与各种基底上的全打印电子产品兼容。