Fluorescent-based micellar incorporated hydrogel materials for selective determination of long-chain aldehydes

A highly sensitive micelle-induced sensory has been developed for detection of long-chain aldehydes as potential biomarkers of respiratory cancers. The micelle-like sensor was fabricated through the partial self-assembly of CTAB and S2 surfactants, containing a fluorescent hydrazine-functionalized d...

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Veröffentlicht in:Mikrochimica acta (1966) 2024-07, Vol.191 (7), p.372, Article 372
Hauptverfasser: Pranee, Piyanan, Kongwutthivech, Jaturong, Chaicham, Chiraporn, Pudhom, Khanitha, Tuntulani, Thawatchai, Tomapatanaget, Boosayarat
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container_issue 7
container_start_page 372
container_title Mikrochimica acta (1966)
container_volume 191
creator Pranee, Piyanan
Kongwutthivech, Jaturong
Chaicham, Chiraporn
Pudhom, Khanitha
Tuntulani, Thawatchai
Tomapatanaget, Boosayarat
description A highly sensitive micelle-induced sensory has been developed for detection of long-chain aldehydes as potential biomarkers of respiratory cancers. The micelle-like sensor was fabricated through the partial self-assembly of CTAB and S2 surfactants, containing a fluorescent hydrazine-functionalized dye (Naph-NH 2 ). In principle, long-chain aldehydes with amphiphilic character act as the induced-fit surfactants to form well-entrapped micellar particles, as well as react with Naph-NH 2 to form hydrazone derivatives resulting in fluorescent enhancement. The limit of detection (LOD) of micellar Naph-NH 2 /CTAB/S2 platform was calculated to be ∼  64.09–80.98 µM for detection of long-chain aldehydes, which showed fluorescent imaging in lung cancer cells (A549). This micellar sensory probe demonstrated practical applicability for long-chain aldehyde sensing in human blood samples with an accepted percent recovery of ~ 94.02–102.4%. Beyond Naph-NH 2 /CTAB/S2 sensor, the milcellar hybrid sensor was successfully developed by incorporating a micelle-like platform with supramolecular gel regarding to carboxylate-based gelators (Gel1), which showed a tenfold improvement in sensitivity. Expectedly, the determination of long-chain aldehydes through these sensing platforms holds significant promise for point-of-care cancer diagnosis and therapy. Graphical Abstract
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subjects A549 Cells
Aldehydes
Aldehydes - chemistry
Analytical Chemistry
Biomarkers
Cetrimonium - chemistry
Characterization and Evaluation of Materials
Chemistry
Chemistry and Materials Science
Fluorescent Dyes - chemistry
Fluoroscopic imaging
Gels
Humans
Hydrazines
Hydrazines - chemistry
Hydrazones
Hydrogels - chemistry
Limit of Detection
Micelles
Microengineering
Nanochemistry
Nanotechnology
Original Paper
Self-assembly
Sensors
Supramolecular compounds
Surface-Active Agents - chemistry
Surfactants
title Fluorescent-based micellar incorporated hydrogel materials for selective determination of long-chain aldehydes
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