Cargando…

Photoelectrochemical UV Detector Based on High-Temperature Resistant ITO Nanowire Network Transparent Conductive Electrodes: Both the Response Range and Responsivity Are Improved

UV transparent conductive electrodes based on transferable ITO nanowire networks were prepared to solve the problem of low UV light utilization in conventional photoelectrochemical UV detectors. The mutually cross-linked ITO nanowire network achieved good electrical conductivity and light transmissi...

Descripción completa

Detalles Bibliográficos
Autores principales: Xiang, Ying, Li, Baoping, Fan, Yitao, Zhang, Miaomiao, Wu, Wenxuan, Wang, Ze, Liu, Minghui, Qiao, Hu, Wang, Youqing
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2023
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10383712/
https://www.ncbi.nlm.nih.gov/pubmed/37513097
http://dx.doi.org/10.3390/nano13142086
_version_ 1785080978302042112
author Xiang, Ying
Li, Baoping
Fan, Yitao
Zhang, Miaomiao
Wu, Wenxuan
Wang, Ze
Liu, Minghui
Qiao, Hu
Wang, Youqing
author_facet Xiang, Ying
Li, Baoping
Fan, Yitao
Zhang, Miaomiao
Wu, Wenxuan
Wang, Ze
Liu, Minghui
Qiao, Hu
Wang, Youqing
author_sort Xiang, Ying
collection PubMed
description UV transparent conductive electrodes based on transferable ITO nanowire networks were prepared to solve the problem of low UV light utilization in conventional photoelectrochemical UV detectors. The mutually cross-linked ITO nanowire network achieved good electrical conductivity and light transmission, and the novel electrode had a transmission rate of more than 80% throughout the near-UV and visible regions. Compared to Ag nanowire electrodes with similar functionality, the chemical stability of the ITO nanowire transparent conductive electrode ensured that the device worked stably in iodine-based electrolytes. More importantly, ITO electrodes composed of oxides could withstand temperatures above 800 °C, which is extremely critical for photoelectrochemical devices. After the deposition of a TiO(2) active layer using the high-temperature method, the response range of the photoelectrochemical UV detector was extended from a peak-like response between 300–400 nm to a plateau-like response between 200–400 nm. The responsivity was significantly increased to 56.1 mA/W. The relationship between ITO nanowire properties and device performance, as well as the reasons for device performance enhancement, were intensively investigated.
format Online
Article
Text
id pubmed-10383712
institution National Center for Biotechnology Information
language English
publishDate 2023
publisher MDPI
record_format MEDLINE/PubMed
spelling pubmed-103837122023-07-30 Photoelectrochemical UV Detector Based on High-Temperature Resistant ITO Nanowire Network Transparent Conductive Electrodes: Both the Response Range and Responsivity Are Improved Xiang, Ying Li, Baoping Fan, Yitao Zhang, Miaomiao Wu, Wenxuan Wang, Ze Liu, Minghui Qiao, Hu Wang, Youqing Nanomaterials (Basel) Article UV transparent conductive electrodes based on transferable ITO nanowire networks were prepared to solve the problem of low UV light utilization in conventional photoelectrochemical UV detectors. The mutually cross-linked ITO nanowire network achieved good electrical conductivity and light transmission, and the novel electrode had a transmission rate of more than 80% throughout the near-UV and visible regions. Compared to Ag nanowire electrodes with similar functionality, the chemical stability of the ITO nanowire transparent conductive electrode ensured that the device worked stably in iodine-based electrolytes. More importantly, ITO electrodes composed of oxides could withstand temperatures above 800 °C, which is extremely critical for photoelectrochemical devices. After the deposition of a TiO(2) active layer using the high-temperature method, the response range of the photoelectrochemical UV detector was extended from a peak-like response between 300–400 nm to a plateau-like response between 200–400 nm. The responsivity was significantly increased to 56.1 mA/W. The relationship between ITO nanowire properties and device performance, as well as the reasons for device performance enhancement, were intensively investigated. MDPI 2023-07-17 /pmc/articles/PMC10383712/ /pubmed/37513097 http://dx.doi.org/10.3390/nano13142086 Text en © 2023 by the authors. https://creativecommons.org/licenses/by/4.0/Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Xiang, Ying
Li, Baoping
Fan, Yitao
Zhang, Miaomiao
Wu, Wenxuan
Wang, Ze
Liu, Minghui
Qiao, Hu
Wang, Youqing
Photoelectrochemical UV Detector Based on High-Temperature Resistant ITO Nanowire Network Transparent Conductive Electrodes: Both the Response Range and Responsivity Are Improved
title Photoelectrochemical UV Detector Based on High-Temperature Resistant ITO Nanowire Network Transparent Conductive Electrodes: Both the Response Range and Responsivity Are Improved
title_full Photoelectrochemical UV Detector Based on High-Temperature Resistant ITO Nanowire Network Transparent Conductive Electrodes: Both the Response Range and Responsivity Are Improved
title_fullStr Photoelectrochemical UV Detector Based on High-Temperature Resistant ITO Nanowire Network Transparent Conductive Electrodes: Both the Response Range and Responsivity Are Improved
title_full_unstemmed Photoelectrochemical UV Detector Based on High-Temperature Resistant ITO Nanowire Network Transparent Conductive Electrodes: Both the Response Range and Responsivity Are Improved
title_short Photoelectrochemical UV Detector Based on High-Temperature Resistant ITO Nanowire Network Transparent Conductive Electrodes: Both the Response Range and Responsivity Are Improved
title_sort photoelectrochemical uv detector based on high-temperature resistant ito nanowire network transparent conductive electrodes: both the response range and responsivity are improved
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10383712/
https://www.ncbi.nlm.nih.gov/pubmed/37513097
http://dx.doi.org/10.3390/nano13142086
work_keys_str_mv AT xiangying photoelectrochemicaluvdetectorbasedonhightemperatureresistantitonanowirenetworktransparentconductiveelectrodesboththeresponserangeandresponsivityareimproved
AT libaoping photoelectrochemicaluvdetectorbasedonhightemperatureresistantitonanowirenetworktransparentconductiveelectrodesboththeresponserangeandresponsivityareimproved
AT fanyitao photoelectrochemicaluvdetectorbasedonhightemperatureresistantitonanowirenetworktransparentconductiveelectrodesboththeresponserangeandresponsivityareimproved
AT zhangmiaomiao photoelectrochemicaluvdetectorbasedonhightemperatureresistantitonanowirenetworktransparentconductiveelectrodesboththeresponserangeandresponsivityareimproved
AT wuwenxuan photoelectrochemicaluvdetectorbasedonhightemperatureresistantitonanowirenetworktransparentconductiveelectrodesboththeresponserangeandresponsivityareimproved
AT wangze photoelectrochemicaluvdetectorbasedonhightemperatureresistantitonanowirenetworktransparentconductiveelectrodesboththeresponserangeandresponsivityareimproved
AT liuminghui photoelectrochemicaluvdetectorbasedonhightemperatureresistantitonanowirenetworktransparentconductiveelectrodesboththeresponserangeandresponsivityareimproved
AT qiaohu photoelectrochemicaluvdetectorbasedonhightemperatureresistantitonanowirenetworktransparentconductiveelectrodesboththeresponserangeandresponsivityareimproved
AT wangyouqing photoelectrochemicaluvdetectorbasedonhightemperatureresistantitonanowirenetworktransparentconductiveelectrodesboththeresponserangeandresponsivityareimproved