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Highly stable low-voltage operating mobile transparent heaters based on spray-coated MXene/silver nanowire nanocomposite electrodes powered by indoor solar cells.

Authors :
Park, Se-Ryong
Park, Sang-Joon
Kim, Joohoon
Ha, Tae-Jun
Source :
Applied Surface Science. Nov2024, Vol. 674, pN.PAG-N.PAG. 1p.
Publication Year :
2024

Abstract

[Display omitted] • We demonstrated all-solution-processed transparent heaters based on Ag NWs incorporated with MXenes. • Heating temperature, response time, and operational stability were analyzed to investigate the improved performance. • The feasibility of replacing the ITO film with the MXene/Ag NWs nanocomposite was investigated. • Self-powered mobile THs integrated with indoor solar cells was demonstrated to remove water droplets. Herein, we demonstrate one-dimensional (1D) silver nanowires (Ag NWs) incorporated with 2D MXenes as a functional nanocomposite to develop transparent electrodes for highly stable low-voltage operating transparent heaters (THs) fabricated by all-solution processes. The nanocomposite-based transparent electrode on glass exhibits a low sheet resistance and high optical transmittance of 10.3 Ω/sq and 82 %, respectively, comparable to those of indium tin oxides (ITOs) as conventional transparent conductive films. Furthermore, the TH based on MXene/Ag NWs/ITO, exhibits a significantly low sheet resistance of 2.8 Ω/sq, thereby achieving high heating temperatures of over 300 °C within 80 s at an applied voltage of 5 V. Additionally, we demonstrate a self-powered mobile TH integrated with an indoor solar cell to effectively remove water droplets without an external power source as a sustainable heating technology. In addition to high heating temperatures at the relatively low operating voltages, exceptional long-term durability of 10 d and operational reliability after 500 repeated cycles are achieved; this can be attributed to the incorporation with MXene, which acts as a protective coating layer, suppressing the oxidation of Ag NWs while maintaining low sheet resistance. [ABSTRACT FROM AUTHOR]

Details

Language :
English
ISSN :
01694332
Volume :
674
Database :
Academic Search Index
Journal :
Applied Surface Science
Publication Type :
Academic Journal
Accession number :
179089153
Full Text :
https://doi.org/10.1016/j.apsusc.2024.160929