Neutron imaging (NI) is a crucial non-destructive technique widely used in industrial, medical, and scientific fields. Improving the spatial resolution of NI detectors has been a long-standing challenge. The University of Wah, in collaboration with RIKEN Japan, has achieved a groundbreaking milestone in neutron imaging by developing an NI device with a record-breaking resolution of 887 nm in 2024.
Background: Evolution of Neutron Imaging
Neutron imaging technology has been evolving over the years with significant advancements in spatial resolution:
Year | Resolution | Institution |
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2017 | 2000 nm | National Institute of Standards and Technology, USA |
2022 | 945 nm | University of Wah & RIKEN Japan |
2024 | 887 nm | University of Wah & RIKEN Japan |
This progression highlights the remarkable contributions made by researchers in pushing the boundaries of imaging precision.
Research and Development
Project Overview
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The research was led by Dr. Abdul Muneem under the supervision of Prof. Dr. Jameel-Un Nabi, Vice Chancellor of the University of Wah.
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The co-supervision was provided by Prof. Dr. Takehiko R. Saito, Chief Scientist at RIKEN, Japan.
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The project focused on utilizing fluorescent nuclear track detectors (FNTD)-based NI techniques to enhance resolution.
Key Achievements
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2022: Achieved 945 nm resolution, setting a new world record.
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2024: Further improved to 887 nm using advanced NI techniques.
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Patent Submission: A patent was filed on December 25, 2024, for the newly developed FNTD-based NI device.
Collaborative Efforts
This milestone was made possible through research and development conducted at multiple leading institutions in Japan:
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High Energy Nuclear Physics Laboratory, RIKEN
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Japan Proton Accelerator Research Complex (J-PARC)
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Nishina Center at RIKEN
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RIKEN CBS-Olympus Collaboration Center (RIKEN BOCC)
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Center for Advanced Photonics, RIKEN
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Nagoya University
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Research Reactor Institute, Kyoto University
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Tohoku University
Significance of RIKEN’s Role
RIKEN Japan played a pivotal role in providing state-of-the-art facilities, research expertise, and support for this pioneering achievement.
Impact on Scientific Community
The groundbreaking work by the University of Wah and RIKEN Japan has significant implications:
1. Industrial & Medical Applications
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Enhanced imaging precision benefits non-destructive testing (NDT) in aerospace, automotive, and nuclear industries.
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Advanced neutron imaging can be used for early disease detection in medical sciences.
2. Advancing Research in Nuclear Physics
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The improved resolution allows better visualization of subatomic structures.
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Facilitates research in high-energy physics and material sciences.
3. Strengthening Pakistan’s Position in Scientific Innovation
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Positions Pakistan as a leader in high-precision imaging technologies.
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Opens doors for future international collaborations in nuclear physics and advanced imaging.
Press Releases & Recognitions
The achievement was widely acknowledged, with press releases issued by:
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RIKEN Japan: Press Release (Japanese)
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Tohoku University: Press Release (Japanese)
References
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Hussey et al., Nuclear Instruments and Methods in Physics Research 866 (2017) 9
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Muneem et al., Journal of Applied Physics 133 (2023) 054902
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Muneem et al., Scientific Reports (2025) 15:2103
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