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Highly Stable and NIR Luminescent Ru-LPMSN Hybrid Materials for Sensitive Detection of Cu 2+ in Vivo

Herein, new near-infrared (NIR) luminescent ruthenium complexes were prepared for detecting Cu ions. Then, ruthenium complex hybrid nanomaterials (Ru-LPMSNs) were fabricated successfully by imbedding the ruthenium complex into mesoporous silica nanoparticles. Benefiting from the novel large-pore mes...

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Published in:ACS applied materials & interfaces 2018-08, Vol.10 (32), p.26964-26971
Main Authors: Chen, Fangman, Xiao, Fangnan, Zhang, Weibing, Lin, Chentao, Wu, Yunkun
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Language:English
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creator Chen, Fangman
Xiao, Fangnan
Zhang, Weibing
Lin, Chentao
Wu, Yunkun
description Herein, new near-infrared (NIR) luminescent ruthenium complexes were prepared for detecting Cu ions. Then, ruthenium complex hybrid nanomaterials (Ru-LPMSNs) were fabricated successfully by imbedding the ruthenium complex into mesoporous silica nanoparticles. Benefiting from the novel large-pore mesoporous structure and good adsorbility of LPMSNs, Ru-LPMSN hybrid materials showed a significantly enhanced fluorescence intensity and stability. NIR fluorescence of Ru-LPMSNs was rapidly quenched by Cu ions. Ru-LPMSNs also showed high Cu ion selectivity and sensitivity as a sensor. The detection limit of Cu ions was 10 nM with a wide linear relationship between the fluorescence intensity of Ru-LPMSNs and the concentration of Cu ions. The mechanism of fluorescence quenching might be that the combination of the ruthenium complex and Cu ions constrained the photoinduced electron-transfer process. Furthermore, Ru-LPMSNs dramatically increased the fluorescence signals in cells and achieved Cu -ion detection. Ru-LPMSNs had different tissue affinities and could monitor distribution of exogenous Cu ions in vivo. Moreover, Ru-LPMSNs realized direct and rapid detection of Cu -ion content in serum. These results indicated the potential applications of the prepared nanomaterials as Cu detection agents.
doi_str_mv 10.1021/acsami.8b08887
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source American Chemical Society:Jisc Collections:American Chemical Society Read & Publish Agreement 2022-2024 (Reading list)
subjects Cations, Divalent
Copper
Limit of Detection
Nanoparticles
Ruthenium - chemistry
Silicon Dioxide
title Highly Stable and NIR Luminescent Ru-LPMSN Hybrid Materials for Sensitive Detection of Cu 2+ in Vivo
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