Issue 2, 2025

A flexible and energy independent fluorescence radiation fiber film dosimeter fabricated by electrostatic spinning

Abstract

Doping fluorescent substances in polymer matrices has shown promising applications in radiation dose sensing. In this work, quinoline dye based polyvinyl chloride fibrous films with fiber diameters of 123 nm, 540 nm and 864 nm were obtained by electrostatic spinning. The introduction of the fiber film structure makes the fluorescent film dosimeter flexible and lightweight compared to normal solid fluorescent films and further extends the linear range of X-ray detection to 0–350 Gy. Furthermore, the dosimeter shows energy and dose rate independence, and the sensitivity of the dosimeter can be improved by the application of fiber films with thinner diameters. This flexible fiber membrane provides a candidate material for wearable visual dosimeters.

Graphical abstract: A flexible and energy independent fluorescence radiation fiber film dosimeter fabricated by electrostatic spinning

Supplementary files

Article information

Article type
Paper
Submitted
18 Aug 2024
Accepted
13 Nov 2024
First published
14 Nov 2024

Nanoscale, 2025,17, 846-854

A flexible and energy independent fluorescence radiation fiber film dosimeter fabricated by electrostatic spinning

M. Tang, Z. He, Z. Wang and Y. Wang, Nanoscale, 2025, 17, 846 DOI: 10.1039/D4NR03392B

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