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Cellulose-based fluorescent chemosensor with controllable sensitivity for Fe3+ detection

Polymer-based sensors, particularly those derived from renewable polymers, are gaining attention for their superior properties compared to organic small molecules. However, their complex preparation and poor, uncontrollable sensitivity have hindered further development. Herein, cellulose-based polym...

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Published in:Carbohydrate polymers 2024-12, Vol.346, p.122620, Article 122620
Main Authors: Qiu, Changjing, Liu, Hongchen, Wang, Xijun, Tao, Shenming, Mo, Jilong, Chen, Pinhong, Xiao, He, Qi, Haisong
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container_title Carbohydrate polymers
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creator Qiu, Changjing
Liu, Hongchen
Wang, Xijun
Tao, Shenming
Mo, Jilong
Chen, Pinhong
Xiao, He
Qi, Haisong
description Polymer-based sensors, particularly those derived from renewable polymers, are gaining attention for their superior properties compared to organic small molecules. However, their complex preparation and poor, uncontrollable sensitivity have hindered further development. Herein, cellulose-based polymer photoluminescence (PL) chemosensors were fabricated using a straightforward and adjustable strategy. Specifically, water-soluble cellulose acetoacetate (CAA) was used as the substance for the in-situ synthesis of 1,4-dihydropyridine (DHPs) fluorescent rings on cellulose chains via a catalyst-free, room-temperature Hantzsch reaction. Benefiting from the synergetic through-space conjugation of DHPs rings and semi-rigid cellulose chains with heteroatoms, the sensors exhibit bright and stable PL properties. Based on this performance, the cellulose-based sensor excels in the specific recognition of Fe3+ in aqueous systems, showing exceptional selectivity, stability, and anti-interference performance due to the synergy between the inner filter effect (IFE) and intramolecular charge transfer (ICT). Theoretical calculations confirm the role of the extended π-conjugated structure at the DHPs-4 position in modulating the sensor sensitivity, achieving a low limit of detection (LOD) of 0.48 μM. Furthermore, the versatility of the Hantzsch reaction shows the potential of this strategy for developing a new generation of biomass-based polymer portable sensors for real-time and on-site detection. [Display omitted]
doi_str_mv 10.1016/j.carbpol.2024.122620
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subjects Cellulose
Clusterization-triggered emission
Fe3+ detection
Hantzsch reaction
Photoluminescence sensor
title Cellulose-based fluorescent chemosensor with controllable sensitivity for Fe3+ detection
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