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Extremely flexible and mechanically durable planar supercapacitors: High energy density and low-cost power source for E-skin electronics
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- Title
- Extremely flexible and mechanically durable planar supercapacitors: High energy density and low-cost power source for E-skin electronics
- Issued Date
- 2020-12
- Citation
- Yun, Younghun. (2020-12). Extremely flexible and mechanically durable planar supercapacitors: High energy density and low-cost power source for E-skin electronics. Nano Energy, 78, 105356. doi: 10.1016/j.nanoen.2020.105356
- Type
- Article
- Author Keywords
- Graphene ; Porous structures ; Supercapacitors ; Flexible devices ; E-skin devices ; Power-sources
- Keywords
- Biocompatible substrates ; Complicated surface ; Healthcare technology ; High energy densities ; High specific capacitances ; Micro supercapacitors ; Multifunctional devices ; Operating flexibility ; Flexible electronics ; Biocompatibility ; Capacitance ; Costs ; Energy storage ; Mechanical stability ; Substrates ; Supercapacitor ; Wearable technology
- ISSN
- 2211-2855
- Abstract
-
The development of multifunctional devices on highly flexible and biocompatible substrates has received great attention in the field of wearable and healthcare technologies. To realize such a unique technology typically on a single platform, it is very crucial to adopt highly-flexible and embeddable energy storage devices with adequate efficiencies as power sources. In this direction, we introduce a versatile and scalable approach to fabricate planar and symmetric micro-supercapacitors, which can be mounted on any complicated surface. The micro-supercapacitors developed on highly flexible and ultrathin substrates by the angular spray of graphene-ink showed excellent performance with a maximum areal capacitance of ~8.38 mF/cm2 and operating flexibility for a bending radius of 1.8 mm. The devices also displayed outstanding mechanical stability for 10,000 bending cycles with a high specific capacitance (~22 F/g) and power density (~1.13 kW/kg) typically at a scan rate of 100 mV/s. Further, the demonstrations on skin-mountable and wrappable characteristics of mSCs emphasized their adaptability as embeddable power sources for various epidermal and wearable devices. © 2020 Published by Elsevier Ltd.
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- Publisher
- Elsevier Ltd
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