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Superassembled MXene-carboxymethyl chitosan nanochannels for the highly sensitive recognition and detection of copper ions

Copper ions (Cu 2+ ), as a crucial trace element, play a vital role in living organisms. Thus, the detection of Cu 2+ is of great significance for disease prevention and diagnosis. Nanochannel devices with an excellent nanoconfinement effect show great potential in recognizing and detecting Cu 2+ io...

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Published in:Analyst (London) 2024-02, Vol.149 (5), p.1464-1472
Main Authors: Hu, Xiaomeng, Zhou, Shan, Zhang, Xin, Zeng, Hui, Guo, Yaxin, Xu, Yeqing, Liang, Qirui, Wang, Jinqiang, Jiang, Lei, Kong, Biao
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container_issue 5
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container_title Analyst (London)
container_volume 149
creator Hu, Xiaomeng
Zhou, Shan
Zhang, Xin
Zeng, Hui
Guo, Yaxin
Xu, Yeqing
Liang, Qirui
Wang, Jinqiang
Jiang, Lei
Kong, Biao
description Copper ions (Cu 2+ ), as a crucial trace element, play a vital role in living organisms. Thus, the detection of Cu 2+ is of great significance for disease prevention and diagnosis. Nanochannel devices with an excellent nanoconfinement effect show great potential in recognizing and detecting Cu 2+ ions. However, these devices often require complicated modification and treatment, which not only damages the membrane structure, but also induces nonspecific, low-sensitivity and non-repeatable detection. Herein, a 2D MXene-carboxymethyl chitosan (MXene/CMC) freestanding membrane with ordered lamellar channels was developed by a super-assembly strategy. The introduction of CMC provides abundant space charges, improving the nanoconfinement effect of the nanochannel. Importantly, the CMC can chelate with Cu 2+ ions, endowing the MXene/CMC with the ability to detect Cu 2+ . The formation of CMC-Cu 2+ complexes decreases the space charges, leading to a discernible variation in the current signal. Therefore, MXene/CMC can achieve highly sensitive and stable Cu 2+ detection based on the characteristics of nanochannel composition. The linear response range for Cu 2+ detection is 10 −9 to 10 −5 M with a low detection limit of 0.095 nM. Notably, MXene/CMC was successfully applied for Cu 2+ detection in real water and fetal bovine serum samples. This work provides a simple, highly sensitive and stable detection platform based on the properties of the nanochannel composition. We demonstrate a freestanding MXene/carboxymethyl chitosan nanochannel (MXene/CMC) membrane by a simple super-assembly strategy, which can achieve highly sensitive and stable detection of Cu 2+ ions with a limit of detection of 0.095 nM.
doi_str_mv 10.1039/d3an02190d
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Therefore, MXene/CMC can achieve highly sensitive and stable Cu 2+ detection based on the characteristics of nanochannel composition. The linear response range for Cu 2+ detection is 10 −9 to 10 −5 M with a low detection limit of 0.095 nM. Notably, MXene/CMC was successfully applied for Cu 2+ detection in real water and fetal bovine serum samples. This work provides a simple, highly sensitive and stable detection platform based on the properties of the nanochannel composition. 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subjects Chitosan
Composition
Copper
Membrane structures
Membranes
MXenes
Nanochannels
Trace elements
title Superassembled MXene-carboxymethyl chitosan nanochannels for the highly sensitive recognition and detection of copper ions
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