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Naked-eye detection of C1–C4 alcohols based on ground-state intramolecular proton transfer
作者:Li, Z. X.; Liu, X. J.; Zhao, W. Y.; Wang, S.; Zhou, W.; Wei, L. H.; Yu, M. M.
關(guān)鍵字:RATIONAL DESIGN; CHARGE-TRANSFER; FLUORESCENT; CHEMOSENSORS; RECOGNITION; ROTAMERISM; CHEMISTRY; CAVITAND; SENSORS; PROBE
論文來源:期刊
具體來源:Anal. Chem., 2014, 86, 2521?2525
發(fā)表時間:2014年
Previous reports of fluorescent sensors for alcohols based on charge-transfer character of their excited state are based on mono-, di-, and tetra-phosphonate cavitands, which are capable of selecting analytes through shape/size selection and various specific H-bonding, CH-pi, and cation dipole interactions. To contrast, color changes based on absorption properties of the ground state are more suitable for direct observation with the naked eye. Three sensitive and selective colorimetric sensors for C1-C4 alcohols have been developed on the basis of alcohol-mediated ground-state intramolecular proton transfer. Reverse proton transfer induced by water achieves a fully reversible reaction. In addition, the solvent color indicates alcohol concentration.
關(guān)鍵字:RATIONAL DESIGN; CHARGE-TRANSFER; FLUORESCENT; CHEMOSENSORS; RECOGNITION; ROTAMERISM; CHEMISTRY; CAVITAND; SENSORS; PROBE
論文來源:期刊
具體來源:Anal. Chem., 2014, 86, 2521?2525
發(fā)表時間:2014年
Previous reports of fluorescent sensors for alcohols based on charge-transfer character of their excited state are based on mono-, di-, and tetra-phosphonate cavitands, which are capable of selecting analytes through shape/size selection and various specific H-bonding, CH-pi, and cation dipole interactions. To contrast, color changes based on absorption properties of the ground state are more suitable for direct observation with the naked eye. Three sensitive and selective colorimetric sensors for C1-C4 alcohols have been developed on the basis of alcohol-mediated ground-state intramolecular proton transfer. Reverse proton transfer induced by water achieves a fully reversible reaction. In addition, the solvent color indicates alcohol concentration.