Title :
Colliding beam fusion reactor
Author :
Rostoker, N. ; Binderbauer, M.W. ; Monkhorst, H.J.
Author_Institution :
California Univ., Irvine, CA, USA
fDate :
6/20/1905 12:00:00 AM
Abstract :
In this paper aspects of conceptual reactor designs are investigated that are based on the FRC configuration for D-T, D-He3 , and p-B11 reactions. The fuel ions are of sufficient energy that the orbit size is large enough so that classical transport should prevail in the absence of long wavelength instabilities. We begin by reviewing briefly some evidence for classical confinement in such a system. Next we address the key issue of current maintenance by injecting beams of neutral atoms into an FRC. Although there are many theoretical papers on this subject, there are no experiments. Our investigation of this issue starts with a discussion of FRC experiments, the current carried by ions and the decay of current due to Coulomb interactions of electrons and ions. We then consider periodic pulses of injected neutrals in order to maintain a steady state ion current in the FRC. The injected neutrals constitute a source of ions and electrons and for a steady state there must be a sink. For a burning plasma the dominant sink is the fusion reactions
Keywords :
fusion reactor design; fusion reactor ignition; fusion reactor theory; plasma beam injection heating; plasma transport processes; reversed field pinch; Coulomb interactions; DHe; DT; FRC configuration; burning plasma; classical confinement; classical transport; colliding beam fusion reactor; conceptual reactor designs; current maintenance; field reversed configuration; neutral atom beam injection; steady state ion current; Electrons; Fusion reactor design; Fusion reactors; Inductors; Plasma confinement; Plasma sources; Plasma transport processes; Plasma waves; Steady-state; Tokamaks;
Conference_Titel :
High-Power Particle Beams, 1998. BEAMS '98. Proceedings of the 12th International Conference on
Conference_Location :
Haifa
Print_ISBN :
0-7803-4287-9
DOI :
10.1109/BEAMS.1998.822414