Most of the fusion Experimental Power Reactor (EPR) and commercial power reactor designs have been limited to low-[beta] (ratio of plasma pressure to magnetic field pressure), low power density Tokamak systems. In an effort to redesign a viable, economically attractive power reactor that could meet the electric utilities needs, the flux-conserving Tokamak concept has emerged as a leading contender.In this paper, we examine the operating characteristics of an FCT reactor and show that such a system would be comparable in size to an EPR but produce more than five times the fusion power. It will be seen that the FCT concept could provide the utility industry with compact reactor systems of moderate electrical output (between 500 and 1000 MWe) ...
Some of the main plasma physics challenges associated with achieving the conditions for commercial f...
The potential of resistive magnet tokamaks as commercial electricity pro-ducing power plants is inve...
Thesis: S.B., Massachusetts Institute of Technology, Department of Nuclear Science and Engineering, ...
Abstract-Most of the fusion Experimental Power Reactor (EPR) and ~mrnercial power reactor designs ha...
A conceptual design has been developed for a moderate size (R = 6.0 m) high field (B = 13.1 T at the...
Nuclear fusion has long been touted as a future source of low-carbon energy. Whether or not fusion e...
Recent advances in tokamak physics indicate the spherical tokamak may offer a magnetic fusion develo...
Evaluation of plasma parameters of driven and ignited Tokamaks for use in experimental power reactor...
This paper attempts to bridge the gap between tokamak reactor design and plasma physics. The analysi...
Nuclear Power has been available as a relatively clean and reliable energy source for several decade...
It is quite possible that nuclear fusion will be the only source that can provide the prodigious pow...
Significant reductions in the size and cost of a fusion power plant core can be realized if simultan...
Abstract. Analysis of tokamak fusion power plants such as the EU power plant conceptual study (PPCS)...
This electronic version was submitted by the student author. The certified thesis is available in th...
This study sets out to determine which fusion power generator design is most suitable for centralise...
Some of the main plasma physics challenges associated with achieving the conditions for commercial f...
The potential of resistive magnet tokamaks as commercial electricity pro-ducing power plants is inve...
Thesis: S.B., Massachusetts Institute of Technology, Department of Nuclear Science and Engineering, ...
Abstract-Most of the fusion Experimental Power Reactor (EPR) and ~mrnercial power reactor designs ha...
A conceptual design has been developed for a moderate size (R = 6.0 m) high field (B = 13.1 T at the...
Nuclear fusion has long been touted as a future source of low-carbon energy. Whether or not fusion e...
Recent advances in tokamak physics indicate the spherical tokamak may offer a magnetic fusion develo...
Evaluation of plasma parameters of driven and ignited Tokamaks for use in experimental power reactor...
This paper attempts to bridge the gap between tokamak reactor design and plasma physics. The analysi...
Nuclear Power has been available as a relatively clean and reliable energy source for several decade...
It is quite possible that nuclear fusion will be the only source that can provide the prodigious pow...
Significant reductions in the size and cost of a fusion power plant core can be realized if simultan...
Abstract. Analysis of tokamak fusion power plants such as the EU power plant conceptual study (PPCS)...
This electronic version was submitted by the student author. The certified thesis is available in th...
This study sets out to determine which fusion power generator design is most suitable for centralise...
Some of the main plasma physics challenges associated with achieving the conditions for commercial f...
The potential of resistive magnet tokamaks as commercial electricity pro-ducing power plants is inve...
Thesis: S.B., Massachusetts Institute of Technology, Department of Nuclear Science and Engineering, ...