Page 458 - Fundamentals of Magnetic Thermonuclear Reactor Design
P. 458

Index     435


             Energy discharge units, 342         divertor assembly adjustment and
             Enterprise Quality Management System, 62  reconfiguration, 230
             Equivalent dose, 424                divertor design, 226
             Error field correction              divertor target, 226
               field perturbation harmonic analysis, 271  start-up and final stages, 227
               ITER correction coils, 273        start-up limiters, 227
               plasma processes, 270             technological and testing facilities, 230
               European EN 13445-6, 384          tokamak first wall configuration, 229
                European blanketsHCPB, 301       vertical targets, 227
                HCLL, 302                      long-cycle reactors, 215
                TAURO, 309                     material selection, 222
             EVOLVE blanket (United States), 309  next-generation reactor
             Extra protective make switch (EPMS),   cooling mode optimisation, 242
                  332, 348                       DEMO reactor plasma, 236
                                                 engineering techniques, 240
                                                 eroded surface extension, 238
             F                                   erosion lifetime issue, 237
             Fast discharge resistor (FDR), 332, 333  heat load increasing methods, 239
             Fast discharge units (FDU), 330, 331, 344  liquid metals, 242
               MCB, 331                          multichannel target, 238
               parameters, 332, 340              sputtered atoms deposit, 238
               PB, 331                           tokamak divertor operating conditions, 237
             Fast disconnect switch (FDS), 346  operation mode optimisation and
             Fast make switch (FMS), 344, 346      transition, 215
             Fast-open switch (FOS), 338–340, 345  optical integrity and cooling system, 212
             FE Meshing                        physical and technological ability, 215
               3D FE meshes, massive conducting   plasma characteristics, 212
                  structures, 113              short-cycle experimental devices, 215
               shell models, for ITER components, 111  strength and fatigue lifetime, 225
               TORNADO FE mesh, 113            structural materials and design solutions, 211
               TORNADO code, 104               thickness criteria and temperature field, 222
             Ferritic steels, 391              tritium accumulation, 215
             Ferritic martensitic steels, 391  French Quality Order, 64
             FFHR-2 blanket (Japan), 309      French RCC-MR design rules, 64
             Finite-element method (FEM)      Fusion power plant (FPP), 13
               global, 356                    Fusion reactor safety
               KSTAR tokamak CS, 361           ABDB, 405
               periodicity cell, 356, 357      AWDB, 405
               PF1 coil segment, 358           definition, 405
             First wall (FW)                   safety of, 422
               armour erosion lifetime, 224    general purpose, 406
               Coolant’s parameter determination, 221  harmful factors, 402, 403
               design algorithm, 216           incident conditions, 405
               ELM effects, 212                ITER radiation safety
               first-wall technologies, 245      design principles for normal and off-
               fuel capacitance problem, 215       normal situations, 414
               heat load estimation, 221         normal operation, 415, 419
               inertness, 215                  radiation protection principles
               initial stage design, 219         depth protection principle, defence in,
               ITER                                407, 408
                carbon composite material (CFC), 230  expediency substantiation principle, 407
                destructive events, prevention of, 234  optimisation principle, 407
                discharge chamber area, 229    radiation safety criteria, 406
   453   454   455   456   457   458   459   460   461   462   463