Optimization of carbon electrodes for solid-state E-textile supercapacitors
Optimization of carbon electrodes for solid-state E-textile supercapacitors
The integration of flexible supercapacitors (FSC) into electronic textiles (e-textiles) offers a promising power source, capable of fast charge-discharge rates, high-power density and long lifetimes. The design parameters for such a device are varied and complicated, with the need for low weight, cheap production, breathability and low toxicity. This work presents the optimization of the carbon electrodes within a solid-state, single-layer textile supercapacitor that meets these device requirements. Three commercial activated carbons are investigated with different ratios of activated carbon to Carbon Black, at differing loading levels. The maximum areal capacitance observed was 23.6 mF.cm-2
Hillier, Nick
6bde7893-a2db-4edd-9e12-a8ab17aa3702
Yong, Sheng
dfeeadf1-7268-4b52-b32d-74ca38a4dd20
Beeby, Stephen
ba565001-2812-4300-89f1-fe5a437ecb0d
2019
Hillier, Nick
6bde7893-a2db-4edd-9e12-a8ab17aa3702
Yong, Sheng
dfeeadf1-7268-4b52-b32d-74ca38a4dd20
Beeby, Stephen
ba565001-2812-4300-89f1-fe5a437ecb0d
Hillier, Nick, Yong, Sheng and Beeby, Stephen
(2019)
Optimization of carbon electrodes for solid-state E-textile supercapacitors.
Journal of Physics: Conference Series, 1407 (1), [012059].
(doi:10.1088/1742-6596/1407/1/012059).
Abstract
The integration of flexible supercapacitors (FSC) into electronic textiles (e-textiles) offers a promising power source, capable of fast charge-discharge rates, high-power density and long lifetimes. The design parameters for such a device are varied and complicated, with the need for low weight, cheap production, breathability and low toxicity. This work presents the optimization of the carbon electrodes within a solid-state, single-layer textile supercapacitor that meets these device requirements. Three commercial activated carbons are investigated with different ratios of activated carbon to Carbon Black, at differing loading levels. The maximum areal capacitance observed was 23.6 mF.cm-2
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Hillier_2019_J._Phys.__Conf._Ser._1407_012059
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Accepted/In Press date: 25 September 2018
e-pub ahead of print date: December 2018
Published date: 2019
Venue - Dates:
Micro and Nanotechnology for Power Generation<br/>and Energy Conversion Applications, Hilton Daytona Beach Oceanfront Resort, Daytona Beach, United States, 2018-12-04 - 2018-12-07
Identifiers
Local EPrints ID: 428804
URI: http://eprints.soton.ac.uk/id/eprint/428804
ISSN: 1742-6588
PURE UUID: 64afc16f-d6e6-49fd-8b64-174282d70b6f
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Date deposited: 08 Mar 2019 17:30
Last modified: 17 Mar 2024 02:39
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Author:
Nick Hillier
Author:
Sheng Yong
Author:
Stephen Beeby
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