In the past decade, much research has explored the neutron-sensing properties and potential applications of lithium-containing semiconductors in neutron imaging. These semiconductors offer the possibility of achieving high spatial and temporal resolution, superior gamma discrimination, and excellent neutron detection efficiency. Such a combination of features is rare in neutron detection systems. In this paper, the promise of lithium-containing semiconductors to significantly advance neutron radiography, tomography, and energy-resolved imaging is demonstrated. The fundamental properties of lithium-containing semiconductors and their basic electronic pulse processing requirements are examined. Ongoing efforts to enhance the performance of ultrahigh-resolution neutron imaging systems, including improvements in imaging speed and the development of detectors with larger active areas for neutron diffraction facilities, are discussed.

错误:搜索内容不能为空,请输入英文关键词
错误:关键词超出字数限制,请精简
高级检索

Lithium-Containing Semiconductors for Neutron Imaging

  • M. A. Benkechkache,
  • E. Hoegberg,
  • J. Gallagher,
  • R. Golduber,
  • A. Kargar,
  • H. Hong,
  • J. Christian,
  • M. Kanatzidis,
  • E. Qian,
  • K. Saheb,
  • S. Imam,
  • E. Lukosi

摘要

In the past decade, much research has explored the neutron-sensing properties and potential applications of lithium-containing semiconductors in neutron imaging. These semiconductors offer the possibility of achieving high spatial and temporal resolution, superior gamma discrimination, and excellent neutron detection efficiency. Such a combination of features is rare in neutron detection systems. In this paper, the promise of lithium-containing semiconductors to significantly advance neutron radiography, tomography, and energy-resolved imaging is demonstrated. The fundamental properties of lithium-containing semiconductors and their basic electronic pulse processing requirements are examined. Ongoing efforts to enhance the performance of ultrahigh-resolution neutron imaging systems, including improvements in imaging speed and the development of detectors with larger active areas for neutron diffraction facilities, are discussed.