Carbon nanotube-based flexible electrothermal film heaters with a high heating rate

High-performance, flexible film heaters with carbon nanotube transparent conducting films are easily fabricated by both a rod-coating method and a spraying method. The main conclusion we have reached is that the film demonstrates a heating rate of 6.1°C s−1 at 35 V and sheet resistance as low as 94....

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Main Authors: Song-Lin Jia, Hong-Zhang Geng, Luda Wang, Ying Tian, Chun-Xia Xu, Pei-Pei Shi, Ze-Zeng Gu, Xue-Shuang Yuan, Li-Chao Jing, Zhi-Ying Guo, Jing Kong
Format: Article
Language:English
Published: The Royal Society 2018-01-01
Series:Royal Society Open Science
Subjects:
Online Access:https://royalsocietypublishing.org/doi/pdf/10.1098/rsos.172072
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spelling doaj-8efe6170c8ec4d1899534d1ce07e6e7f2020-11-25T04:00:47ZengThe Royal SocietyRoyal Society Open Science2054-57032018-01-015610.1098/rsos.172072172072Carbon nanotube-based flexible electrothermal film heaters with a high heating rateSong-Lin JiaHong-Zhang GengLuda WangYing TianChun-Xia XuPei-Pei ShiZe-Zeng GuXue-Shuang YuanLi-Chao JingZhi-Ying GuoJing KongHigh-performance, flexible film heaters with carbon nanotube transparent conducting films are easily fabricated by both a rod-coating method and a spraying method. The main conclusion we have reached is that the film demonstrates a heating rate of 6.1°C s−1 at 35 V and sheet resistance as low as 94.7 Ω sq−1 with 72.04% optical transmittance at a wavelength of 550 nm by the spraying method after a series of post-treatment processes with acid and distilled water. Then, we adopt a mathematical method of nonlinear fitting to simulate the collected experimental data and the functions effectively. Furthermore, through analysis of the formula, the correlation between temperature and time is well explained. Therefore, carbon nanotube-based, flexible, transparent heaters exhibit high electrothermal performance and are expected to find different applications, e.g. various functional devices such as heating materials, heatable smart windows or dining tables.https://royalsocietypublishing.org/doi/pdf/10.1098/rsos.172072carbon nanomaterialstransparent conducting filmsfilm heaterselectrothermal performanceheating rate
collection DOAJ
language English
format Article
sources DOAJ
author Song-Lin Jia
Hong-Zhang Geng
Luda Wang
Ying Tian
Chun-Xia Xu
Pei-Pei Shi
Ze-Zeng Gu
Xue-Shuang Yuan
Li-Chao Jing
Zhi-Ying Guo
Jing Kong
spellingShingle Song-Lin Jia
Hong-Zhang Geng
Luda Wang
Ying Tian
Chun-Xia Xu
Pei-Pei Shi
Ze-Zeng Gu
Xue-Shuang Yuan
Li-Chao Jing
Zhi-Ying Guo
Jing Kong
Carbon nanotube-based flexible electrothermal film heaters with a high heating rate
Royal Society Open Science
carbon nanomaterials
transparent conducting films
film heaters
electrothermal performance
heating rate
author_facet Song-Lin Jia
Hong-Zhang Geng
Luda Wang
Ying Tian
Chun-Xia Xu
Pei-Pei Shi
Ze-Zeng Gu
Xue-Shuang Yuan
Li-Chao Jing
Zhi-Ying Guo
Jing Kong
author_sort Song-Lin Jia
title Carbon nanotube-based flexible electrothermal film heaters with a high heating rate
title_short Carbon nanotube-based flexible electrothermal film heaters with a high heating rate
title_full Carbon nanotube-based flexible electrothermal film heaters with a high heating rate
title_fullStr Carbon nanotube-based flexible electrothermal film heaters with a high heating rate
title_full_unstemmed Carbon nanotube-based flexible electrothermal film heaters with a high heating rate
title_sort carbon nanotube-based flexible electrothermal film heaters with a high heating rate
publisher The Royal Society
series Royal Society Open Science
issn 2054-5703
publishDate 2018-01-01
description High-performance, flexible film heaters with carbon nanotube transparent conducting films are easily fabricated by both a rod-coating method and a spraying method. The main conclusion we have reached is that the film demonstrates a heating rate of 6.1°C s−1 at 35 V and sheet resistance as low as 94.7 Ω sq−1 with 72.04% optical transmittance at a wavelength of 550 nm by the spraying method after a series of post-treatment processes with acid and distilled water. Then, we adopt a mathematical method of nonlinear fitting to simulate the collected experimental data and the functions effectively. Furthermore, through analysis of the formula, the correlation between temperature and time is well explained. Therefore, carbon nanotube-based, flexible, transparent heaters exhibit high electrothermal performance and are expected to find different applications, e.g. various functional devices such as heating materials, heatable smart windows or dining tables.
topic carbon nanomaterials
transparent conducting films
film heaters
electrothermal performance
heating rate
url https://royalsocietypublishing.org/doi/pdf/10.1098/rsos.172072
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