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通过表面粘合剂导向的电解质组装制备的具有高面数密度的单片集成微型超级电容器。

Monolithically integrated micro-supercapacitors with high areal number density produced by surface adhesive-directed electrolyte assembly.

作者信息

Wang Sen, Zheng Shuanghao, Shi Xiaoyu, Das Pratteek, Li Linmei, Zhu Yuanyuan, Lu Yao, Feng Xinliang, Wu Zhong-Shuai

机构信息

State Key Laboratory of Catalysis, Dalian Institute of Chemical Physics, Chinese Academy of Sciences, 457 Zhongshan Road, Dalian, 116023, China.

Department of Biotechnology, Dalian Institute of Chemical Physics, Chinese Academy of Sciences, 457 Zhongshan Road, Dalian, 116023, China.

出版信息

Nat Commun. 2024 Apr 2;15(1):2850. doi: 10.1038/s41467-024-47216-5.

Abstract

Accurately placing very small amounts of electrolyte on tiny micro-supercapacitors (MSCs) arrays in close proximity is a major challenge. This difficulty hinders the development of densely-compact monolithically integrated MSCs (MIMSCs). To overcome this grand challenge, we demonstrate a controllable electrolyte directed assembly strategy for precise isolation of densely-packed MSCs at micron scale, achieving scalable production of MIMSCs with ultrahigh areal number density and output voltage. We fabricate a patterned adhesive surface across MIMSCs, that induce electrolyte directed assembly on 10,000 highly adhesive MSC regions, achieving a 100 µm-scale spatial separation between each electrolyte droplet within seconds. The resultant MIMSCs achieve an areal number density of 210 cells cm and a high areal voltage of 555 V cm. Further, cycling the MIMSCs at 190 V over 9000 times manifests no performance degradation. A seamlessly integrated system of ultracompact wirelessly-chargeable MIMSCs is also demonstrated to show its practicality and versatile applicability.

摘要

在紧密相邻的微小微型超级电容器(MSC)阵列上精确放置极少量电解质是一项重大挑战。这一困难阻碍了密集紧凑的单片集成MSC(MIMSC)的发展。为了克服这一巨大挑战,我们展示了一种可控的电解质定向组装策略,用于在微米尺度上精确隔离密集排列的MSC,实现具有超高面数密度和输出电压的MIMSC的可扩展生产。我们在MIMSC上制造了一个图案化的粘性表面,该表面在10000个高粘性MSC区域上诱导电解质定向组装,在几秒钟内实现每个电解质液滴之间100微米尺度的空间分离。所得的MIMSC实现了210个细胞/平方厘米的面数密度和555 V/cm的高面电压。此外,在190 V下对MIMSC进行9000次循环显示其性能没有下降。还展示了一个超紧凑的无线可充电MIMSC无缝集成系统,以展示其实用性和广泛的适用性。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/97de/10987489/062a4c69a8e9/41467_2024_47216_Fig1_HTML.jpg

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