TY - JOUR
T1 - Generation of radioisotopes with accelerator neutrons by deuterons
AU - Nagai, Yasuki
AU - Hashimoto, Kazuyuki
AU - Hatsukawa, Yuichi
AU - Saeki, Hideya
AU - Motoishi, Shoji
AU - Sato, Nozomi
AU - Kawabata, Masako
AU - Harada, Hideo
AU - Kin, Tadahiro
AU - Tsukada, Kazuaki
AU - Sato, Tetsuya K.
AU - Minato, Futoshi
AU - Iwamoto, Osamu
AU - Iwamoto, Nobuyuki
AU - Seki, Yohji
AU - Yokoyama, Kenji
AU - Shiina, Takehiko
AU - Ohta, Akio
AU - Takeuchi, Nobuhiro
AU - Kawauchi, Yukimasa
AU - Sato, Norihito
AU - Yamabayashi, Hisamichi
AU - Adachi, Yoshitsugu
AU - Kikuchi, Yuji
AU - Mitsumoto, Toshinori
AU - Igarashi, Takashi
N1 - Copyright:
Copyright 2013 Elsevier B.V., All rights reserved.
PY - 2013/6
Y1 - 2013/6
N2 - A new system proposed for the generation of radioisotopes with accelerator neutrons by deuterons (GRAND) is described by mainly discussing the production of 99Mo used for nuclear medicine diagnosis. A prototype facility of this system consists of a cyclotron to produce intense accelerator neutrons from the natC(d,n) reaction with 40MeV 2mA deuteron beams, and a sublimation system to separate 99mTc from an irradiated 100MoO3 sample. About 8.1 TBq/week of 99Mo is produced by repeating irradiation on an enriched 100Mo sample (251 g) with accelerator neutrons for two days three times. It meets about 10% of the 99Mo demand in Japan. The characteristic feature of the system lies in its capability to reliably produce a wide variety of high-quality, carrier-free, carrier-added radioisotopes with a minimum level of radioactive waste without using uranium. The system is compact in size, and easy to operate; therefore it could be used worldwide to produce radioisotopes for medical, research, and industrial applications.
AB - A new system proposed for the generation of radioisotopes with accelerator neutrons by deuterons (GRAND) is described by mainly discussing the production of 99Mo used for nuclear medicine diagnosis. A prototype facility of this system consists of a cyclotron to produce intense accelerator neutrons from the natC(d,n) reaction with 40MeV 2mA deuteron beams, and a sublimation system to separate 99mTc from an irradiated 100MoO3 sample. About 8.1 TBq/week of 99Mo is produced by repeating irradiation on an enriched 100Mo sample (251 g) with accelerator neutrons for two days three times. It meets about 10% of the 99Mo demand in Japan. The characteristic feature of the system lies in its capability to reliably produce a wide variety of high-quality, carrier-free, carrier-added radioisotopes with a minimum level of radioactive waste without using uranium. The system is compact in size, and easy to operate; therefore it could be used worldwide to produce radioisotopes for medical, research, and industrial applications.
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U2 - 10.7566/JPSJ.82.064201
DO - 10.7566/JPSJ.82.064201
M3 - Article
AN - SCOPUS:84878954486
SN - 0031-9015
VL - 82
JO - journal of the physical society of japan
JF - journal of the physical society of japan
IS - 6
M1 - 064201
ER -