A uranyl-based luminescent dosimeter for ultralow-dose tracking of UV and X-ray radiation
Herein, we report a novel uranyl-based organic-inorganic hybrid dosimeter, designated as U-OX-PIP . Remarkably, U-OX-PIP exhibits UV/X-ray-induced fluorescence quenching responses, which are characterized by a gradual suppression of the uranyl emission signature. The pronounced fluorescence quenchin...
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Published in | Chemical communications (Cambridge, England) Vol. 61; no. 51; pp. 9322 - 9325 |
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Main Authors | , , , , , , , |
Format | Journal Article |
Language | English |
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Royal Society of Chemistry
19.06.2025
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Abstract | Herein, we report a novel uranyl-based organic-inorganic hybrid dosimeter, designated as
U-OX-PIP
. Remarkably,
U-OX-PIP
exhibits UV/X-ray-induced fluorescence quenching responses, which are characterized by a gradual suppression of the uranyl emission signature. The pronounced fluorescence quenching behavior of
U-OX-PIP
enables its application as a highly sensitive radiation-responsive material. Furthermore, the identification of radiation-induced C-O&z.rad; radical species establishes
U-OX-PIP
as an ultrasensitive quenching-type dosimetric material.
A uranyl-based dosimeter exhibits ultralow-dose sensitivity and visual fluorescence quenching, enabling offline detection of UV and X-ray radiation
via
a radical-mediated mechanism. |
---|---|
AbstractList | Herein, we report a novel uranyl-based organic-inorganic hybrid dosimeter, designated as U-OX-PIP. Remarkably, U-OX-PIP exhibits UV/X-ray-induced fluorescence quenching responses, which are characterized by a gradual suppression of the uranyl emission signature. The pronounced fluorescence quenching behavior of U-OX-PIP enables its application as a highly sensitive radiation-responsive material. Furthermore, the identification of radiation-induced C-O˙ radical species establishes U-OX-PIP as an ultrasensitive quenching-type dosimetric material.Herein, we report a novel uranyl-based organic-inorganic hybrid dosimeter, designated as U-OX-PIP. Remarkably, U-OX-PIP exhibits UV/X-ray-induced fluorescence quenching responses, which are characterized by a gradual suppression of the uranyl emission signature. The pronounced fluorescence quenching behavior of U-OX-PIP enables its application as a highly sensitive radiation-responsive material. Furthermore, the identification of radiation-induced C-O˙ radical species establishes U-OX-PIP as an ultrasensitive quenching-type dosimetric material. Herein, we report a novel uranyl-based organic-inorganic hybrid dosimeter, designated as U-OX-PIP . Remarkably, U-OX-PIP exhibits UV/X-ray-induced fluorescence quenching responses, which are characterized by a gradual suppression of the uranyl emission signature. The pronounced fluorescence quenching behavior of U-OX-PIP enables its application as a highly sensitive radiation-responsive material. Furthermore, the identification of radiation-induced C-O&z.rad; radical species establishes U-OX-PIP as an ultrasensitive quenching-type dosimetric material. A uranyl-based dosimeter exhibits ultralow-dose sensitivity and visual fluorescence quenching, enabling offline detection of UV and X-ray radiation via a radical-mediated mechanism. Herein, we report a novel uranyl-based organic–inorganic hybrid dosimeter, designated as U-OX-PIP. Remarkably, U-OX-PIP exhibits UV/X-ray-induced fluorescence quenching responses, which are characterized by a gradual suppression of the uranyl emission signature. The pronounced fluorescence quenching behavior of U-OX-PIP enables its application as a highly sensitive radiation-responsive material. Furthermore, the identification of radiation-induced C–O· radical species establishes U-OX-PIP as an ultrasensitive quenching-type dosimetric material. Herein, we report a novel uranyl-based organic–inorganic hybrid dosimeter, designated as U-OX-PIP. Remarkably, U-OX-PIP exhibits UV/X-ray-induced fluorescence quenching responses, which are characterized by a gradual suppression of the uranyl emission signature. The pronounced fluorescence quenching behavior of U-OX-PIP enables its application as a highly sensitive radiation-responsive material. Furthermore, the identification of radiation-induced C–O˙ radical species establishes U-OX-PIP as an ultrasensitive quenching-type dosimetric material. |
Author | Deng, Wenjie Lu, Huangjie Gu, Qinyan Xie, Jian Hu, Baowei Zhang, Zhi-Hui Lei, Ji Zhang, Heyao |
AuthorAffiliation | Jiangsu Key Laboratory of Advanced Catalytic Materials and Technology School of Life and Environmental Sciences Wang Zheng School of Microelectronics Changzhou University Shaoxing University |
AuthorAffiliation_xml | – name: Jiangsu Key Laboratory of Advanced Catalytic Materials and Technology – name: Shaoxing University – name: Changzhou University – name: School of Life and Environmental Sciences – name: Wang Zheng School of Microelectronics |
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Snippet | Herein, we report a novel uranyl-based organic-inorganic hybrid dosimeter, designated as
U-OX-PIP
. Remarkably,
U-OX-PIP
exhibits UV/X-ray-induced fluorescence... Herein, we report a novel uranyl-based organic–inorganic hybrid dosimeter, designated as U-OX-PIP. Remarkably, U-OX-PIP exhibits UV/X-ray-induced fluorescence... Herein, we report a novel uranyl-based organic-inorganic hybrid dosimeter, designated as U-OX-PIP. Remarkably, U-OX-PIP exhibits UV/X-ray-induced fluorescence... |
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SubjectTerms | Dosimeters Fluorescence Quenching Radiation effects |
Title | A uranyl-based luminescent dosimeter for ultralow-dose tracking of UV and X-ray radiation |
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