Tuning the Photoinduced Electron Transfer in a Zr‐MOF: Toward Solid‐State Fluorescent Molecular Switch and Turn‐On Sensor

The immobilization of fluorescent photoinduced electron transfer (PET) switches/sensors into solid state, which usually cannot maintain their identical properties in solution, has remained a big challenge. Herein, a water‐stable anthracene and maleimide appended zirconium‐based‐metal–organic framewo...

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Veröffentlicht in:Advanced materials (Weinheim) 2018-08, Vol.30 (34), p.e1802329-n/a
Hauptverfasser: Gui, Bo, Meng, Yi, Xie, Yang, Tian, Jianwu, Yu, Ge, Zeng, Weixuan, Zhang, Guanxin, Gong, Shaolong, Yang, Chuluo, Zhang, Deqing, Wang, Cheng
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container_title Advanced materials (Weinheim)
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creator Gui, Bo
Meng, Yi
Xie, Yang
Tian, Jianwu
Yu, Ge
Zeng, Weixuan
Zhang, Guanxin
Gong, Shaolong
Yang, Chuluo
Zhang, Deqing
Wang, Cheng
description The immobilization of fluorescent photoinduced electron transfer (PET) switches/sensors into solid state, which usually cannot maintain their identical properties in solution, has remained a big challenge. Herein, a water‐stable anthracene and maleimide appended zirconium‐based‐metal–organic framework (Zr‐MOF; UiO‐68‐An/Ma) is reported. Unlike the regular intramolecular “fluorophore–spacer–receptor” format, the separated immobilization of fluorescent (anthracene) and acceptor (maleimide) groups into the framework of a multivariate MOF can also favor a pseudo‐intramolecular fluorescent PET process, resulting in UiO‐68‐An/Ma with very weak fluorescence. Interestingly, after Diels–Alder reaction or thiol‐ene reaction of maleimide groups, the pseudo‐intramolecular fluorescent PET process in UiO‐68‐An/Ma fails and the solid‐state fluorescence of the crystals is recovered. In addition, UiO‐68‐An/Ma shows an interesting application as solid‐state fluorescent turn‐on sensor for biothiols, with the naked eye response at a low concentration of 50 µmol L−1 within 5 min. This study represents a general strategy to enable the efficient tuning of fluorescent PET switches/sensors in solid state, and considering the fluorescence of the PET‐based MOFs can be restored after addition of analyte/target species, this research will definitely inspire to construct stimuli‐responsive fluorescent MOFs for interesting applications (e.g., logic gate) in future. A solid‐state fluorescent photoinduced electron transfer (PET) switch/sensor: Unlike the regular intramolecular “fluorophore–spacer–receptor” format, the separated immobilization of fluorescent and acceptor groups into the framework of a crystalline porous multivarite metal–organic framework can also favor a pseudo‐intramolecular fluorescent PET process. Moreover, by tuning the electron‐accepting ability of the acceptor in the framework, the fluorescent PET switch/sensor can be efficiently tuned in the solid state.
doi_str_mv 10.1002/adma.201802329
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source Wiley Online Library Journals Frontfile Complete
subjects Anthracene
Electron transfer
Fluorescence
fluorescent photoinduced electron transfer
Immobilization
Logic circuits
Metal-organic frameworks
Molecular machines
molecular switches
Sensors
Solid state
stimuli‐responsive metal‐organic framework
Switches
Tuning
turn‐on sensors
Zirconium
title Tuning the Photoinduced Electron Transfer in a Zr‐MOF: Toward Solid‐State Fluorescent Molecular Switch and Turn‐On Sensor
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