Dissolution-Recrystallization: A Novel Mechanism for Fluorochromic Detection of Th 4+ Using Color-Tunable Luminescent Metal-Organic Frameworks

Thorium, a predominant actinide in the Earth's crust, presents significant environmental and health risks due to its radioactive nature. These risks are particularly pronounced during the mining and processing of monazite for rare earth elements (REEs), which contain substantial thorium concent...

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Veröffentlicht in:Angewandte Chemie International Edition 2024-11, Vol.63 (46), p.e202410453
Hauptverfasser: Cui, Yunyi, Lu, Huangjie, Hou, Huiliang, Bai, Yaoyao, Yang, Junpu, Li, Yarui, Qiu, Jie, Wang, Shuao, Lin, Jian
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container_issue 46
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container_title Angewandte Chemie International Edition
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creator Cui, Yunyi
Lu, Huangjie
Hou, Huiliang
Bai, Yaoyao
Yang, Junpu
Li, Yarui
Qiu, Jie
Wang, Shuao
Lin, Jian
description Thorium, a predominant actinide in the Earth's crust, presents significant environmental and health risks due to its radioactive nature. These risks are particularly pronounced during the mining and processing of monazite for rare earth elements (REEs), which contain substantial thorium concentrations. Current instrumental analysis methods for thorium, offer high accuracy but require laborious sample preparations and expensive instruments, making them unsuitable for on-site analysis. Herein, we present a class of color-tunable luminescent lanthanide-based metal-organic frameworks (Ln-MOFs) as fluorochromic sensors for Th cations. Utilizing a heterobimetallic Eu /Tb doping strategy, the luminescence colors of Eu Tb -BDC-OH can be finely tuned from red, to orange, and to green. More intriguingly, the higher Lewis acidity of Th facilitates the transformation of Eu Tb -BDC-OH into a UiO-type Th-MOF via a dissolution-recrystallization mechanism. This process results in a gradual reduction of characteristic Ln emissions and the emergence of blue color ligand-based fluorescence, thereby leading to selective fluorochromic responses with increasing Th concentrations and enabling visible detection of Th cations. Additionally, a custom-built portable optoelectronic device is fabricated, which directly converts luminescence colors into red-green-blue (RGB) values. This device enables easy quantification of Th concentrations without the need for complex instrumentation.
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title Dissolution-Recrystallization: A Novel Mechanism for Fluorochromic Detection of Th 4+ Using Color-Tunable Luminescent Metal-Organic Frameworks
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