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Keyword：ionizing radiation detection
U.S. Research Team Discovers Strong Ultrafast Optical Response Induced by Ionizing Radiation, Potentially Advancing Medical Imaging and Sensing Technologies
September 3 news, Stanford University and the U.S. Department of Energy's SLAC National Accelerator Laboratory research team used ultrafast electron and laser pulses to observe a strong ultrafast optical response triggered by ionization processes in semiconductor materials. The related research has been published in Nature Photonics. The researchers believe this discovery could provide new insights for radiography and sensing technologies, and also offer experimental evidence for understanding the fundamental behavior of materials under high-energy particle interactions. Radiation detection is a key technology in particle accelerators, scientific instruments, medical imaging, and security screening equipment. Existing detectors typically face a trade-off between signal strength and response speed: processes with stronger signals tend to be slower, while those with faster response may produce weaker signals...
2026-09-08
Russian Far Eastern Federal University Develops Ultrafast Ceramic Scintillators for Rapid Ionizing Radiation Detection
On August 21, 2026, scientists at the Russian Far Eastern Federal University, with support from the Russian Science Foundation, are developing ceramic materials for ultrafast detection of ionizing radiation. The results could be used in the future for medical diagnostics, baggage and cargo security screening, radiation monitoring, and scientific equipment requiring fast, precise radiation detection. The project, titled "Ultrafast Ceramic Scintillators for Ionizing Radiation Detection," is led by Anastasia Vonovskikh, a researcher at the Research and Education Center for Advanced Ceramic Materials, Department of Industrial Safety, Polytechnic Institute, Far Eastern Federal University. Scintillators are a class of materials that emit light when exposed to ionizing radiation. Detectors record these light signals to determine radiation intensity and energy. Currently, most related equipment uses single-crystal scintillators, but their production typically requires significant energy and resource inputs. The Far Eastern Federal University team proposes special ceramic materials as an alternative, aiming to improve detection speed and efficiency, making them more suitable for detecting trace amounts of radiation.
2026-08-25