Scintillating Glass Fiber Arrays Enable Remote Radiation Detection and Pixelated Imaging.

Adv Mater

State Key Laboratory of Luminescent Materials and Devices, School of Materials Science and Engineering, South China University of Technology, Guangzhou, 510640, China.

Published: December 2024

AI Article Synopsis

  • Emerging metal halide perovskites are showing promise as alternatives to traditional scintillators in radiation detection, but currently lack capabilities for remote monitoring in difficult environments.
  • A new inorganic scintillating glass fiber that incorporates perovskite quantum dots (QDs) allows for efficient radiation detection while also acting as a low-loss waveguide for long-distance X-ray detection.
  • These glass fibers can be configured into an array to improve X-ray imaging and offer potential uses as wearable radiation indicators due to their multi-color emissions and variable sensitivity.

Article Abstract

The emerging metal halide perovskites are challenging the traditional scintillators in the field of radiation detection and radiography. However, they lack the capability for remote and real-time radiation monitoring and imaging in confined and hostile conditions. To address this issue, details on an inorganic scintillating glass fiber incorporating perovskite quantum dots (QDs) as highly efficient pixelated radiation emitters are reported, while the glass fibers themselves serve at the same time as low-loss waveguides, enabling long-distance and underwater X-ray detection. The multi-color emissions and controllable radiation sensitivities endow CsPbX (X = Cl, Br, I) QD scintillating glass fibers with the potential as wearable and visualized radiation indicators. Furthermore, these scintillating glass fibers can be regularly arranged into a fiber array plate with a thickness of 7.5 mm to enhance X-ray absorption for X-ray imaging. Leveraging the light-guiding character of glass fibers, a 5 × 5 fiber array with fiber lengths up to 11 cm has demonstrated the potential of remote pixelated X-ray imaging. This study offers a novel platform for the development of remote detectors and imagers for X-ray radiation.

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Source
http://dx.doi.org/10.1002/adma.202405499DOI Listing

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