Title :
Electromagnetic loads on ITER in-vessel components
Author :
Williamson, D.E. ; Conner, D.L. ; Nelson, B.E. ; Sayer, R.O. ; Yugo, J.J.
Author_Institution :
Martin Marietta Energy Systems Inc., Oak Ridge, TN, USA
fDate :
30 Sep-3 Oct 1991
Abstract :
Design of the vacuum vessel and internal blanket/shield modules for the International Thermonuclear Experimental Reactor (ITER) is strongly influenced by the magnitude of electromagnetic loads due to plasma disruption. Calculations with the finite element code EddyCuFF have been performed to quantify these loads and incorporate them into the design process. A multifilament model of plasma motion and current decay has been developed using data generated by the Tokamak Simulation Code. Comparison with calculations using single-filament plasma models illustrates the need to use self-consistent, distributed plasma scenarios when analyzing toroidally segmented components. Application is made to design and analysis of the high-aspect-ratio design (HARD) option vessel and blanket/shield modules. Variations in geometry, response characteristics, and electromagnetic loads are compared to the reference design values
Keywords :
Tokamak devices; fusion reactor theory and design; ITER in-vessel components; International Thermonuclear Experimental Reactor; current decay; electromagnetic loads; finite element code EddyCuFF; multifilament model; plasma disruption; plasma motion; response characteristics; tokamak fusion reactor; Coils; Electromagnetic forces; Finite element methods; Geometry; Magnetic analysis; Performance analysis; Plasma applications; Plasma properties; Plasma simulation; Tokamaks;
Conference_Titel :
Fusion Engineering, 1991. Proceedings., 14th IEEE/NPSS Symposium on
Conference_Location :
San Diego, CA
Print_ISBN :
0-7803-0132-3
DOI :
10.1109/FUSION.1991.218782