Simonenko Tatiana L, Simonenko Nikolay P, Gorobtsov Philipp Yu, Simonenko Elizaveta P, Kuznetsov Nikolay T
Kurnakov Institute of General and Inorganic Chemistry, Russian Academy of Sciences, 119991 Moscow, Russia.
Materials (Basel). 2023 Sep 9;16(18):6133. doi: 10.3390/ma16186133.
The development of scientific and technological foundations for the creation of high-performance energy storage devices is becoming increasingly important due to the rapid development of microelectronics, including flexible and wearable microelectronics. Supercapacitors are indispensable devices for the power supply of systems requiring high power, high charging-discharging rates, cyclic stability, and long service life and a wide range of operating temperatures (from -40 to 70 °C). The use of printing technologies gives an opportunity to move the production of such devices to a new level due to the possibility of the automated formation of micro-supercapacitors (including flexible, stretchable, wearable) with the required type of geometric implementation, to reduce time and labour costs for their creation, and to expand the prospects of their commercialization and widespread use. Within the framework of this review, we have focused on the consideration of the key commonly used supercapacitor electrode materials and highlighted examples of their successful printing in the process of assembling miniature energy storage devices.
随着包括柔性和可穿戴微电子在内的微电子技术的快速发展,开发用于制造高性能储能设备的科学技术基础变得越来越重要。超级电容器对于需要高功率、高充放电速率、循环稳定性、长使用寿命以及宽工作温度范围(从 -40 到 70 °C)的系统供电而言是不可或缺的设备。由于能够自动形成具有所需几何结构类型的微型超级电容器(包括柔性、可拉伸、可穿戴的),印刷技术的应用为将此类设备的生产提升到一个新水平提供了机会,可减少其制造的时间和劳动力成本,并扩大其商业化和广泛应用的前景。在本综述的框架内,我们着重考虑了常用的关键超级电容器电极材料,并突出了它们在组装微型储能设备过程中成功印刷的实例。