A novel method to calculate the neoclassical radial electric field in stellarator plasmas is described. The method, which does not have the inconvenience of large statistical fluctuations (noise) of standard Monte Carlo technique, is based on the variation of the combined parallel and perpendicular pressures on a magnetic surface. Using a three-dimensional gyrokinetic delta f code, the calculation of the radial electric field in the National Compact Stellarator Experiment has been carried out. It is shown that a direct evaluation of radial electric field based on a direct calculation of the radial particle flux is not tractable due to the considerable noise
The radial electric field Er at the tokamak plasma edge is simulated both with a two-dimensional (2D...
"In order to clarify geometrical effects of the magnetic field on neoclassical theory, the neoclassi...
Electromagnetic plasma turbulence at hyperfine (i.e., electron gyroradius) scales is studied in the ...
Traditional electrostatic gyrokinetic treatments consist of a gyrokinetic Fokker-Planck equation and...
In the advanced stellarator W7-AS the radial electric field d is measured by active charge ex-change...
A Monte Carlo neoclassical transport code has been developed to solve for the equilibrium ambi-polar...
Radial structures of plasma rotation and radial electric field are experimentally studied in tokamak...
Gyrokinetic simulations have greatly improved our theoretical understanding of turbulent transport i...
The ultimate goal of magnetic confinement fusion research is to develop an electricity producing pow...
The neoclassical electric field in a tokamak is determined by the conservation of toroidal angular m...
Theoretical model is developed to determine the radial electric field and the fast ion loss simultan...
The ambipolarity constraint and the parallel momentum balance equation of neoclassical theory, accou...
Theoretical model is developed to determine the radial electric field and the fast ion loss simultan...
fusion devices is to obtain information about the radial electric field. Neoclassical theory suggest...
The component of the neoclassical electrostatic potential that is non-constant on the magnetic surfa...
The radial electric field Er at the tokamak plasma edge is simulated both with a two-dimensional (2D...
"In order to clarify geometrical effects of the magnetic field on neoclassical theory, the neoclassi...
Electromagnetic plasma turbulence at hyperfine (i.e., electron gyroradius) scales is studied in the ...
Traditional electrostatic gyrokinetic treatments consist of a gyrokinetic Fokker-Planck equation and...
In the advanced stellarator W7-AS the radial electric field d is measured by active charge ex-change...
A Monte Carlo neoclassical transport code has been developed to solve for the equilibrium ambi-polar...
Radial structures of plasma rotation and radial electric field are experimentally studied in tokamak...
Gyrokinetic simulations have greatly improved our theoretical understanding of turbulent transport i...
The ultimate goal of magnetic confinement fusion research is to develop an electricity producing pow...
The neoclassical electric field in a tokamak is determined by the conservation of toroidal angular m...
Theoretical model is developed to determine the radial electric field and the fast ion loss simultan...
The ambipolarity constraint and the parallel momentum balance equation of neoclassical theory, accou...
Theoretical model is developed to determine the radial electric field and the fast ion loss simultan...
fusion devices is to obtain information about the radial electric field. Neoclassical theory suggest...
The component of the neoclassical electrostatic potential that is non-constant on the magnetic surfa...
The radial electric field Er at the tokamak plasma edge is simulated both with a two-dimensional (2D...
"In order to clarify geometrical effects of the magnetic field on neoclassical theory, the neoclassi...
Electromagnetic plasma turbulence at hyperfine (i.e., electron gyroradius) scales is studied in the ...