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The flexible-transparent p-n junction film device of N-doped Cu2O/SnO2 orderly nanowire arrays towards highly photovoltaic conversion and stability

[Display omitted] •The N-doping could regulate the band gap to increase the transmittance.•The N-doping could improve the charge carriers transport and lifetime.•The orderly SnO2 nano-arrays could increase the flexible stability. The flexible-transparent N-doped Cu2O/SnO2 p-n junction film device is...

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Published in:Chemical engineering journal (Lausanne, Switzerland : 1996) Switzerland : 1996), 2020-02, Vol.382, p.122813, Article 122813
Main Authors: Pan, Jiaqi, Li, Shi, Liu, Yanyan, Ou, Wei, Li, Hongli, Zhao, Weijie, Wang, Jingjing, Song, Changsheng, Zheng, Yingying, Li, Chaorong
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Language:English
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cited_by cdi_FETCH-LOGICAL-c400t-c3741228a26117e1eba1afced62e44ed17d62b4b58caf2a5cc950c87af876ad43
cites cdi_FETCH-LOGICAL-c400t-c3741228a26117e1eba1afced62e44ed17d62b4b58caf2a5cc950c87af876ad43
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container_start_page 122813
container_title Chemical engineering journal (Lausanne, Switzerland : 1996)
container_volume 382
creator Pan, Jiaqi
Li, Shi
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Li, Hongli
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Li, Chaorong
description [Display omitted] •The N-doping could regulate the band gap to increase the transmittance.•The N-doping could improve the charge carriers transport and lifetime.•The orderly SnO2 nano-arrays could increase the flexible stability. The flexible-transparent N-doped Cu2O/SnO2 p-n junction film device is prepared via a simple hybrid hydrothermal-sputtering method. There, the SnO2 nanowire arrays are induced by the pre-sputtered seeds and grown on the flexible PEN substrate via hydrothermal method, and subsequently the N-doped Cu2O film is deposited via radio-frequency sputtering. As revealed, the flexible-transparent device exhibits highly transmittance of about ~85% in visible light, obvious photovoltaic conversion enhancement of about ~1500 folds than the undoped device, and decent flexible stability of about ~91% during the 1000 times bending, which is regarded as a decent flexible-transparent photovoltaic device and can be mainly ascribed to the N-doping can regulate the band gap to increase the transmittance, reduce the crystal defect to improve the charge carriers, including the interface transport rate and lifetime, the orderly SnO2 nano-arrays can release the interfacial stress to increase the flexible stability.
doi_str_mv 10.1016/j.cej.2019.122813
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subjects Flexible
p-n Junction device
Photovoltaic performance
Transparent
title The flexible-transparent p-n junction film device of N-doped Cu2O/SnO2 orderly nanowire arrays towards highly photovoltaic conversion and stability
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