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8 September 1995 Glass-fiber-based neutron detectors for high- and low-flux environments
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Pacific Northwest Laboratory (PNL) has fabricated cerium-activated lithium silicate scintillating fibers via a hot-downdraw process. These fibers typically have a operational transmission length (e-1 length) of greater than 2 meters. This permits the fabrication of devices which were not possible to consider. Scintillating fibers permit conformable devices, large-area devices, and extremely small devices; in addition, as the thermal-neutron sensitive elements in a fast neutron detection system, scintillating fibers can be dispersed within moderator, improving neutron economy, over that possible with commercially available 3He or BF3 proportional counters. These fibers can be used for national-security applications, in medical applications, in the nuclear-power industry, and for personnel protection at experimental facilities. Data are presented for devices based on single fibers and devices made up of ribbons containing many fibers under high-and low-flux conditions.
© (1995) COPYRIGHT Society of Photo-Optical Instrumentation Engineers (SPIE). Downloading of the abstract is permitted for personal use only.
Mary Bliss, Ronald L. Brodzinski, Richard A. Craig, Bruce D. Geelhood, Michael A. Knopf, Harry S. Miley, Richard W. Perkins, Paul L. Reeder, Debra S. Sunberg, Ray A. Warner, and Ned A. Wogman "Glass-fiber-based neutron detectors for high- and low-flux environments", Proc. SPIE 2551, Photoelectronic Detectors, Cameras, and Systems, (8 September 1995);


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