The advanced tokamak (AT) capability of the Fusion Ignition Research Experiment (FIRE) burning plasma experiment is examined with 0-D systems analysis, equilibrium and ideal-MHD stability, radio-frequency current-drive analysis, and full discharge dynamic simulations. These analyses have identified the required parameters for attractive burning advanced tokamak plasmas, and indicate that these are feasible with the present progress on existing experimental tokamaks
Significant progress in the development of burning plasma scenarios, steady-state scenarios at high ...
The Fusion Advanced Studies Torus (FAST) conceptual study has been proposed [A. Pizzuto on behalf of...
This paper describes the current status of the FIRE configuration and the integration of the major s...
The Advanced Tokamak (AT) capability of the Fusion Ignition Research Experiment (FIRE) burning plasm...
The FIRE [Fusion Ignition Research Experiment] design for a burning plasma experiment is described i...
The buming plasma regime will exhibit a number of complex phenomena that must be studied and underst...
The overall vision for FIRE [Fusion Ignition Research Experiment] is to develop and test the fusion ...
Burning plasma science is recognized widely as the next frontier in fusion research. The Fusion Igni...
The next major frontier in magnetic fusion physics is to explore and understand the strong nonlinear...
A new reduced size ITER-RC superconducting tokamak concept is proposed with the goals of studying bu...
FIRE is a compact, high field tokamak being studied as an option for the next step in the US magneti...
The FIRE (Fusion Ignition Research Experiment) device is a compact copper magnet experiment to explo...
The successful validation of theory-based models of transport, MHD stability, heating and current dr...
In this paper we present the fusion advanced studies torus (FAST) plasma scenarios and equilibrium c...
A burning plasma experiment is a key step in developing fusion. The realization of fusion, however, ...
Significant progress in the development of burning plasma scenarios, steady-state scenarios at high ...
The Fusion Advanced Studies Torus (FAST) conceptual study has been proposed [A. Pizzuto on behalf of...
This paper describes the current status of the FIRE configuration and the integration of the major s...
The Advanced Tokamak (AT) capability of the Fusion Ignition Research Experiment (FIRE) burning plasm...
The FIRE [Fusion Ignition Research Experiment] design for a burning plasma experiment is described i...
The buming plasma regime will exhibit a number of complex phenomena that must be studied and underst...
The overall vision for FIRE [Fusion Ignition Research Experiment] is to develop and test the fusion ...
Burning plasma science is recognized widely as the next frontier in fusion research. The Fusion Igni...
The next major frontier in magnetic fusion physics is to explore and understand the strong nonlinear...
A new reduced size ITER-RC superconducting tokamak concept is proposed with the goals of studying bu...
FIRE is a compact, high field tokamak being studied as an option for the next step in the US magneti...
The FIRE (Fusion Ignition Research Experiment) device is a compact copper magnet experiment to explo...
The successful validation of theory-based models of transport, MHD stability, heating and current dr...
In this paper we present the fusion advanced studies torus (FAST) plasma scenarios and equilibrium c...
A burning plasma experiment is a key step in developing fusion. The realization of fusion, however, ...
Significant progress in the development of burning plasma scenarios, steady-state scenarios at high ...
The Fusion Advanced Studies Torus (FAST) conceptual study has been proposed [A. Pizzuto on behalf of...
This paper describes the current status of the FIRE configuration and the integration of the major s...