Copper nanowires/cellulose biodegradable flexible transparent conductor with improved thermal stability and its application

Jian Sun, Xiaoxin Li, Zequn Chen, Shenghui Yan, Li Qin, Jie Zeng, Sen Wang, Jianmei Xu, Ling Zhao, Wei Zhou, Qing Wang, Hao Gong, Ang Lu, Jingbo Yu

Research output: Contribution to journalArticle

1 Citation (Scopus)

Abstract

Copper nanowires/cellulose degradable flexible transparent conductor are processed at room temperature (RT) and systematically studied. The achieved copper nanowires/cellulose sample can have a sheet resistance of 9.4 Ω/sq and transmittance of 78%, comparable to the commercial ITO/PET, better than copper nanowires/PET. This RT sheet resistance is very stable before and after bending. Compared to copper nanowires/PET curled and invalid at 150 °C, copper nanowires/cellulose can bake 250 °C and the according sheet resistance becomes 12.2 Ω/sq, showing the an outstanding heat stability. Moreover, the cellulose could be applied as dielectric layer and Cu nanowires were acted as back electrodes in the MoS2 field effect transistors (FETs) with a field effect mobility of 52.44cm2v−1s−1, extremely promising for a practical application in electronic devices.

Original languageEnglish (US)
Pages (from-to)392-397
Number of pages6
JournalOrganic Electronics
Volume63
DOIs
StatePublished - Dec 1 2018

Fingerprint

cellulose
Cellulose
Nanowires
Copper
Thermodynamic stability
nanowires
thermal stability
conductors
copper
Sheet resistance
room temperature
Field effect transistors
ITO (semiconductors)
transmittance
field effect transistors
heat
Temperature
Electrodes
electrodes
electronics

All Science Journal Classification (ASJC) codes

  • Electronic, Optical and Magnetic Materials
  • Biomaterials
  • Chemistry(all)
  • Condensed Matter Physics
  • Materials Chemistry
  • Electrical and Electronic Engineering

Cite this

Sun, Jian ; Li, Xiaoxin ; Chen, Zequn ; Yan, Shenghui ; Qin, Li ; Zeng, Jie ; Wang, Sen ; Xu, Jianmei ; Zhao, Ling ; Zhou, Wei ; Wang, Qing ; Gong, Hao ; Lu, Ang ; Yu, Jingbo. / Copper nanowires/cellulose biodegradable flexible transparent conductor with improved thermal stability and its application. In: Organic Electronics. 2018 ; Vol. 63. pp. 392-397.
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title = "Copper nanowires/cellulose biodegradable flexible transparent conductor with improved thermal stability and its application",
abstract = "Copper nanowires/cellulose degradable flexible transparent conductor are processed at room temperature (RT) and systematically studied. The achieved copper nanowires/cellulose sample can have a sheet resistance of 9.4 Ω/sq and transmittance of 78{\%}, comparable to the commercial ITO/PET, better than copper nanowires/PET. This RT sheet resistance is very stable before and after bending. Compared to copper nanowires/PET curled and invalid at 150 °C, copper nanowires/cellulose can bake 250 °C and the according sheet resistance becomes 12.2 Ω/sq, showing the an outstanding heat stability. Moreover, the cellulose could be applied as dielectric layer and Cu nanowires were acted as back electrodes in the MoS2 field effect transistors (FETs) with a field effect mobility of 52.44cm2v−1s−1, extremely promising for a practical application in electronic devices.",
author = "Jian Sun and Xiaoxin Li and Zequn Chen and Shenghui Yan and Li Qin and Jie Zeng and Sen Wang and Jianmei Xu and Ling Zhao and Wei Zhou and Qing Wang and Hao Gong and Ang Lu and Jingbo Yu",
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Sun, J, Li, X, Chen, Z, Yan, S, Qin, L, Zeng, J, Wang, S, Xu, J, Zhao, L, Zhou, W, Wang, Q, Gong, H, Lu, A & Yu, J 2018, 'Copper nanowires/cellulose biodegradable flexible transparent conductor with improved thermal stability and its application', Organic Electronics, vol. 63, pp. 392-397. https://doi.org/10.1016/j.orgel.2018.09.020

Copper nanowires/cellulose biodegradable flexible transparent conductor with improved thermal stability and its application. / Sun, Jian; Li, Xiaoxin; Chen, Zequn; Yan, Shenghui; Qin, Li; Zeng, Jie; Wang, Sen; Xu, Jianmei; Zhao, Ling; Zhou, Wei; Wang, Qing; Gong, Hao; Lu, Ang; Yu, Jingbo.

In: Organic Electronics, Vol. 63, 01.12.2018, p. 392-397.

Research output: Contribution to journalArticle

TY - JOUR

T1 - Copper nanowires/cellulose biodegradable flexible transparent conductor with improved thermal stability and its application

AU - Sun, Jian

AU - Li, Xiaoxin

AU - Chen, Zequn

AU - Yan, Shenghui

AU - Qin, Li

AU - Zeng, Jie

AU - Wang, Sen

AU - Xu, Jianmei

AU - Zhao, Ling

AU - Zhou, Wei

AU - Wang, Qing

AU - Gong, Hao

AU - Lu, Ang

AU - Yu, Jingbo

PY - 2018/12/1

Y1 - 2018/12/1

N2 - Copper nanowires/cellulose degradable flexible transparent conductor are processed at room temperature (RT) and systematically studied. The achieved copper nanowires/cellulose sample can have a sheet resistance of 9.4 Ω/sq and transmittance of 78%, comparable to the commercial ITO/PET, better than copper nanowires/PET. This RT sheet resistance is very stable before and after bending. Compared to copper nanowires/PET curled and invalid at 150 °C, copper nanowires/cellulose can bake 250 °C and the according sheet resistance becomes 12.2 Ω/sq, showing the an outstanding heat stability. Moreover, the cellulose could be applied as dielectric layer and Cu nanowires were acted as back electrodes in the MoS2 field effect transistors (FETs) with a field effect mobility of 52.44cm2v−1s−1, extremely promising for a practical application in electronic devices.

AB - Copper nanowires/cellulose degradable flexible transparent conductor are processed at room temperature (RT) and systematically studied. The achieved copper nanowires/cellulose sample can have a sheet resistance of 9.4 Ω/sq and transmittance of 78%, comparable to the commercial ITO/PET, better than copper nanowires/PET. This RT sheet resistance is very stable before and after bending. Compared to copper nanowires/PET curled and invalid at 150 °C, copper nanowires/cellulose can bake 250 °C and the according sheet resistance becomes 12.2 Ω/sq, showing the an outstanding heat stability. Moreover, the cellulose could be applied as dielectric layer and Cu nanowires were acted as back electrodes in the MoS2 field effect transistors (FETs) with a field effect mobility of 52.44cm2v−1s−1, extremely promising for a practical application in electronic devices.

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JO - Organic Electronics: physics, materials, applications

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SN - 1566-1199

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