TY - JOUR
T1 - A low wall-loading DEMO reactor design with high priority for early and reliable realization of a tokamak fusion reactor over the cost performance
AU - Ogawa, Yuichi
AU - Inoue, Nobuyuki
AU - Wang, Jifang
AU - Yamamoto, Takashi
AU - Okano, Kunihiko
PY - 1995/12
Y1 - 1995/12
N2 - Based on scientific databases adopted for designing ITER plasmas and on the advancement of fusion nuclear technology from the recent R&D program, a low wall-loading DEMO fusion reactor has been designed, where high priority has been given to the early and reliable realization of a tokamak fusion plasma over the cost performance. Since the major radius of this DEMO reactor is chosen to be 10 m, plasma ignition is achievable with a low fusion power of 0.8 GW and an operation period of 4-5 hours is available only with inductive current drive. The low ignition power makes it possible to adopt a first wall with an austenitic stainless steel, for which significant databases and operating experience exists, due to its use in the presence of neutron irradiation in fission reactors. In step with development of advanced materials, a step-wise increase of the fusion power seems to be feasible and realistic, because this DEMO reactor has the potential to produce a fusion power of ∼5 GW.
AB - Based on scientific databases adopted for designing ITER plasmas and on the advancement of fusion nuclear technology from the recent R&D program, a low wall-loading DEMO fusion reactor has been designed, where high priority has been given to the early and reliable realization of a tokamak fusion plasma over the cost performance. Since the major radius of this DEMO reactor is chosen to be 10 m, plasma ignition is achievable with a low fusion power of 0.8 GW and an operation period of 4-5 hours is available only with inductive current drive. The low ignition power makes it possible to adopt a first wall with an austenitic stainless steel, for which significant databases and operating experience exists, due to its use in the presence of neutron irradiation in fission reactors. In step with development of advanced materials, a step-wise increase of the fusion power seems to be feasible and realistic, because this DEMO reactor has the potential to produce a fusion power of ∼5 GW.
KW - DEMO fusion reactor
KW - austenitic stainless steel
KW - inductively-driven long-pulse tokamak (IDLT) reactor
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U2 - 10.1007/BF02214513
DO - 10.1007/BF02214513
M3 - Article
AN - SCOPUS:0029428769
SN - 0164-0313
VL - 14
SP - 353
EP - 359
JO - Journal of Fusion Energy
JF - Journal of Fusion Energy
IS - 4
ER -