TU/e Innovates with Compact High-Quality X-Ray Machine

TU/e Innovates with Compact High-Quality X-Ray Machine

2025-02-28 semicon

Eindhoven, Friday, 28 February 2025.
Technische Universiteit Eindhoven has developed a compact X-ray machine, promising advancements in medical imaging through precision and accessibility, overcoming limitations of large synchrotrons.

Breakthrough in Compact X-Ray Technology

In a significant development announced in late November 2024, Professor Jom Luiten and his team at Eindhoven University of Technology (TU/e) successfully demonstrated a compact hard X-ray machine measuring just 1.5 x 3 meters [1]. This innovation represents a dramatic reduction from traditional synchrotron facilities, which typically require kilometer-scale installations [1]. The breakthrough came after years of dedicated research, with the project initially launching in 2018 through Interreg Flanders-Netherlands funding [1].

Technical Capabilities and Applications

The machine’s distinguishing feature is its ability to generate tunable, high-intensity hard X-rays that can be precisely adjusted to detect specific elements [1]. This capability makes it particularly valuable for examining paintings, silicon wafers, and biological materials without causing damage [1]. The technology demonstrates significant potential for medical imaging applications, as evidenced by recent developments in X-ray imaging integrity verification systems at TU/e achieving a 96.2% average accuracy rate in detection capabilities [2].

Research Impact and Future Directions

The development team, including PhD students Ids van Elk and Coen Sweers, is now working towards creating a proof of concept, specifically focusing on applications such as examining paintings’ internal structures [1]. This advancement comes at a crucial time when medical imaging technology is facing increasing scrutiny for accuracy and reliability [3]. The project has garnered interest from multiple research partners, including TU Delft, University of Antwerp, and Ghent University, who will collaborate on advancing targeted radiation techniques and data analysis [1].

Broader Industry Context

This innovation emerges against a backdrop of growing demand for accessible medical imaging solutions. While conventional hadron therapy facilities remain limited globally [5], compact technologies like TU/e’s X-ray machine could potentially democratize access to advanced imaging capabilities. The development aligns with broader industry trends toward creating more efficient, accessible medical imaging solutions while maintaining high precision and reliability standards [1][2].

Bronnen


X-ray Imaging