Engineering in situ growth of Au nanoclusters on hydrophilic paper fibres for fluorescence calligraphy-based chemical logic gates and information encryption

Gold nanoclusters (AuNCs) are a type of rising-star fluorescence nanomaterials, but their properties and applications are hindered by the multi-step synthesis and purification routes, as well as the lack of desired supporting substrates. To enhance optical performance and working efficiency, the syn...

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Veröffentlicht in:Nanoscale horizons 2024-10, Vol.9 (11), p.2007-2015
Hauptverfasser: Luo, Jun Jiang, Guo, Dun Ying, Qu, Zi Bo, Luo, Hong Qun, Li, Nian Bing, Zou, Hao Lin, Li, Bang Lin
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container_end_page 2015
container_issue 11
container_start_page 2007
container_title Nanoscale horizons
container_volume 9
creator Luo, Jun Jiang
Guo, Dun Ying
Qu, Zi Bo
Luo, Hong Qun
Li, Nian Bing
Zou, Hao Lin
Li, Bang Lin
description Gold nanoclusters (AuNCs) are a type of rising-star fluorescence nanomaterials, but their properties and applications are hindered by the multi-step synthesis and purification routes, as well as the lack of desired supporting substrates. To enhance optical performance and working efficiency, the synthesis and applications of AuNCs are suggested to be merged with emerging substrates. Herein, glutathione-modified hydrophilic rice papers are incubated in chloroauric acid aqueous solutions, and the oxidation-reduction reaction between glutathione and Au ions enables the formation of fluorescent AuNCs on the solid fibres of rice papers. The growth of fluorescent AuNCs on rice papers resulted in eye-catching fluorescence tracks, similar to traditional Chinese conventional calligraphy; thus, this fluoresence calligraphy is defined in this work. The entire process, including synthesis and signal responses, is extremely simple, rapid, and repeatable. Moreover, the diversity of additive chemical reagents in the studied rice papers resulted in responsive fluorescence calligraphy, and the as-synthesized AuNC materials exhibited high reliability and optical stability. Significantly, with the integration of synchronous formation and application of Au nanoclusters on hydrophilic paper substrates, high-performance logical gates and information encryption systems were constructed, remarkably facilitating the progress of molecular sensing and important information transmission.
doi_str_mv 10.1039/d4nh00307a
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source Royal Society Of Chemistry Journals 2008-
subjects Aqueous solutions
Astrochemistry
Calligraphy
Chemical reduction
Chemical synthesis
Chloroauric acid
Encryption
Fluorescence
Glutathione
Hydrophilicity
Logic circuits
Nanoclusters
Nanomaterials
Optical properties
Oxidation
Reagents
title Engineering in situ growth of Au nanoclusters on hydrophilic paper fibres for fluorescence calligraphy-based chemical logic gates and information encryption
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