Abstract
A synchrotron light source dedicated to medical applications is required to be compact for installation in limited spaces at hospitals. The NIRS storage ring, with a circumference of 44.8 m, is designed to accelerate electrons up to 1.8 GeV and to store a beam of 400 mA. The ring is composed of superconducting bending magnets for downsizing. A beam of 300 MeV is injected into the ring from a microtron operated at an L-band RF frequency. There are two superconducting multipole wigglers with nine poles and a maximum field of 8 T, which can produce a photon flux of about 1.4 x 10{sup 13} photons s{sup -1} mrad{sup -1} (0.1% bandwidth){sup -1} at 33 keV used for coronary angiography. 8 refs.
Torikoshi, M;
Endo, M;
Kumada, M;
Noda, K;
Yamada, S;
Kawachi, K
[1]
- National Inst. of Radiological Sciences, Chiba (Japan)
Citation Formats
Torikoshi, M, Endo, M, Kumada, M, Noda, K, Yamada, S, and Kawachi, K.
Design of a compact synchrotron light source for medical applications at NIRS.
Denmark: N. p.,
1998.
Web.
doi:10.1107/S0909049597013770.
Torikoshi, M, Endo, M, Kumada, M, Noda, K, Yamada, S, & Kawachi, K.
Design of a compact synchrotron light source for medical applications at NIRS.
Denmark.
https://doi.org/10.1107/S0909049597013770
Torikoshi, M, Endo, M, Kumada, M, Noda, K, Yamada, S, and Kawachi, K.
1998.
"Design of a compact synchrotron light source for medical applications at NIRS."
Denmark.
https://doi.org/10.1107/S0909049597013770.
@misc{etde_293799,
title = {Design of a compact synchrotron light source for medical applications at NIRS}
author = {Torikoshi, M, Endo, M, Kumada, M, Noda, K, Yamada, S, and Kawachi, K}
abstractNote = {A synchrotron light source dedicated to medical applications is required to be compact for installation in limited spaces at hospitals. The NIRS storage ring, with a circumference of 44.8 m, is designed to accelerate electrons up to 1.8 GeV and to store a beam of 400 mA. The ring is composed of superconducting bending magnets for downsizing. A beam of 300 MeV is injected into the ring from a microtron operated at an L-band RF frequency. There are two superconducting multipole wigglers with nine poles and a maximum field of 8 T, which can produce a photon flux of about 1.4 x 10{sup 13} photons s{sup -1} mrad{sup -1} (0.1% bandwidth){sup -1} at 33 keV used for coronary angiography. 8 refs.}
doi = {10.1107/S0909049597013770}
journal = []
issue = {pt.3}
volume = {5}
journal type = {AC}
place = {Denmark}
year = {1998}
month = {May}
}
title = {Design of a compact synchrotron light source for medical applications at NIRS}
author = {Torikoshi, M, Endo, M, Kumada, M, Noda, K, Yamada, S, and Kawachi, K}
abstractNote = {A synchrotron light source dedicated to medical applications is required to be compact for installation in limited spaces at hospitals. The NIRS storage ring, with a circumference of 44.8 m, is designed to accelerate electrons up to 1.8 GeV and to store a beam of 400 mA. The ring is composed of superconducting bending magnets for downsizing. A beam of 300 MeV is injected into the ring from a microtron operated at an L-band RF frequency. There are two superconducting multipole wigglers with nine poles and a maximum field of 8 T, which can produce a photon flux of about 1.4 x 10{sup 13} photons s{sup -1} mrad{sup -1} (0.1% bandwidth){sup -1} at 33 keV used for coronary angiography. 8 refs.}
doi = {10.1107/S0909049597013770}
journal = []
issue = {pt.3}
volume = {5}
journal type = {AC}
place = {Denmark}
year = {1998}
month = {May}
}