@inproceedings{oai:repo.qst.go.jp:00054710,
 author = {本多, 充 and 佐竹, 真介 and 鈴木, 康浩 and 篠原, 孝司 and 吉田, 麻衣子 and 相羽, 信行 and 白石, 淳也 and 林, 伸彦 and 松永, 剛 and 仲田, 資季 and 松山, 顕之 and 井手, 俊介 and 本多 充 and 篠原 孝司 and 吉田 麻衣子 and 相羽 信行 and 白石 淳也 and 林 伸彦 and 松永 剛 and 松山 顕之 and 井手 俊介},
 book = {Proceedings of 26th IAEA Fusion Energy Conference},
 month = {Feb},
 note = {Capabilities of the integrated framework consisting of TOPICS, OFMC, VMEC and FORTEC-3D, have been extended to calculate toroidal rotation in fully non-axisymmetric perturbed magnetic fields for demonstrating operation scenarios in actual tokamak geometry and conditions. It was found for the first time that the toroidally localized perturbed fields due to the test blanket modules and the tangential neutral beam ports in ITER augment the neoclassical toroidal viscosity (NTV) significantly, while do not influence confinement of beam ions and alpha particles in an ITER L-mode discharge. The NTV takes up a large portion of total torque in ITER and fairly decelerates toroidal rotation. It was found that varying the numerical coefficient added to the intrinsic torque model by the residual stress within a factor of unity improves the reproducibility of toroidal rotation in JT-60U H-mode plasmas. This fact opens up access to reliable rotation predictions in H-mode plasmas.},
 title = {Predictions of toroidal rotation and torque sources arising in non-axisymmetric perturbed magnetic fields in tokamaks},
 year = {2017}
}