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Mechanics of Magnetic Fusion Reactors  Chapter | 12    385


             the mechanical stability of the MS. This type of destabilisation is not regulated
             by industrial C&S.
                The ITER Magnet Structural Design Criteria cover the metal and insulation
             materials.
                The SDC-IC regulatory framework is based on the general industrial RCC-
             MR codes adapted to the MFR. The most important modification is related to
             the neutron irradiation effects on material properties. The latest SDC-IC ver-
             sion was issued in 2012. It contains the main Design Criteria and appendices.
             The main document includes definitions and classifications of different dam-
             ages and failures, type of stresses, design rules, and accounting for materi-
             als creepage and fatigue resistivity. The rules cover single-layer homogeneous
             structures exposed to low and elevated temperatures, as well as welded joints
             and bolts. The appendices explain why SDC-IC are preferable compared with
             other C&S, specify the computational algorithm and summarise the methods
             for adjusting the in-vessel components based on experiments with full-scale
             mockups.




             REFERENCES

               [1]  A.B. Аlekseev, A.A. Malkov, Yu.V. Spirchenko,
                 (The mechanics of tokamak magnet systems), Probl. At. Sci.  Technol., Ser: Electrophys.
                 Appar. 5 (31) (2010) 203–212 (in Russian).
               [2]  Yu.V. Spirchenko,              (The problems of tokamak mechanics),
                 in: V.A. Chuyanov (Ed.),                 Tokamak (Engineering Prob-
                 lems of Tokamak Facilities), Collection of papers, Energoatomizdat, Moscow, 1986, pp. 144
                 (in Russian).
               [3]  Y. Song, W. Wu, Sh. Du, et al. Tokamak Engineering Mechanics, Springer-Verlag, Berlin,
                 Heidelberg,  (2014) p. 241.
               [4]  A.B. Аlekseev, I.V. Malakhovsky, A.A. Malkov, Yu.V. Spirchenko,
                                                                     (ITER central
                 solenoid: the strength of support structures and pre-compression systems), Probl. At. Sci.
                 Technol., Ser: Electrophys. Appar. 4 (30) (2006) 11–20 (in Russian).
               [5]  V.V. Eliseev,         (Mechanics of Elastic Solids), SPbGTU Publishers,
                 St. Petersburg,  (1999) pp. 1–341 (in Russian).
               [6]  A. Alekseev, A. Arneman, M. Huguet, et al. Structural assessment of the ITER magnet system,
                 In: Proceedings of the 20th SOFT vol. 1, 1998.
               [7]  A.B.  Alekseev,                                  (Superposi-
                 tion method application to analysis using strength criteria for acceptable current combinations
                 in ITER magnet system), Probl. At. Sci. Technol., Ser: Electrophys. Appar. 5 (31) (2010)
                 219–224 (in Russian).
               [8]  A. Alekseev, N. Mitchel, R. Gallix, et al. Magnet safety assessment for ITER, J. Fusion
                 Energy 16 (1997) 25–35.
               [9]  A.B. Alekseev, V.M. Sorin, AT Analysis of magneto-mechanical stability of ITER magnet,
                 Plasma Devices Oper. 5 (1998) 335–344.
               [10]  F.C. Moon, Magneto-Solid Mechanics, Wiley, New York,  (1984).
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