The effects of atomic physics processes such as ionization, charge exchange, and radiation on the linear stability of dissipative drift waves are investigated in toroidal geometry both numerically and analytically. For typical TFTR and TEXT edge parameters, overall linear stability is determined by the competition between the destabilizing influence of ionization and the stabilizing effect due to the electron temperature gradient. An analytical expression for the linear marginal stability condition, {eta}{sub e}{sup crit}, is derived. The instability is most likely to occur at the extreme edge of tokamaks with a significant ionization source and a steep electron density gradient
The temporal evolution of linear toroidal ion temperature gradient (ITG) modes is studied based on a...
Verifying drift wave linear theory by external excitation of drift waves in collision plasm
In advanced devices, such as a spherical torus, can reach a very high value, e.g. in the START [1]...
An electron density gradient driven instability identified as the toroidal branch of the universal d...
A local linear stability theory of the interchange mode, the drift-resistive interchange mode and th...
The theory of the rippling instability is developed for axisymnetric toroidal plasmas including ion ...
One of the main concerns in fusion research is to understand the anomalously high transport in magne...
The influence of plasma geometry on the linear stability of electrostatic ion-temperature-gradient d...
In this paper, we demonstrate the importance of the details of the equilibria on the stability of el...
The linear stability of high-toroidal-number drift-ballooning modes in tokamaks is investigated with...
The role of impurity radiation in influencing the toroidal flow and radial electric fields (paramete...
The linear stability of dissipative drift electrostatic modes in tokamak plasmas is studied numerica...
The presence of plasma density gradient is one of the main sources of Rayleigh–Taylor instability (R...
The influence of sheared poloidal flow and of a phase sensitive feedback source on the various edge ...
Collisionless and dissipative drift waves, driven by gradients in the plasma density and/or temperat...
The temporal evolution of linear toroidal ion temperature gradient (ITG) modes is studied based on a...
Verifying drift wave linear theory by external excitation of drift waves in collision plasm
In advanced devices, such as a spherical torus, can reach a very high value, e.g. in the START [1]...
An electron density gradient driven instability identified as the toroidal branch of the universal d...
A local linear stability theory of the interchange mode, the drift-resistive interchange mode and th...
The theory of the rippling instability is developed for axisymnetric toroidal plasmas including ion ...
One of the main concerns in fusion research is to understand the anomalously high transport in magne...
The influence of plasma geometry on the linear stability of electrostatic ion-temperature-gradient d...
In this paper, we demonstrate the importance of the details of the equilibria on the stability of el...
The linear stability of high-toroidal-number drift-ballooning modes in tokamaks is investigated with...
The role of impurity radiation in influencing the toroidal flow and radial electric fields (paramete...
The linear stability of dissipative drift electrostatic modes in tokamak plasmas is studied numerica...
The presence of plasma density gradient is one of the main sources of Rayleigh–Taylor instability (R...
The influence of sheared poloidal flow and of a phase sensitive feedback source on the various edge ...
Collisionless and dissipative drift waves, driven by gradients in the plasma density and/or temperat...
The temporal evolution of linear toroidal ion temperature gradient (ITG) modes is studied based on a...
Verifying drift wave linear theory by external excitation of drift waves in collision plasm
In advanced devices, such as a spherical torus, can reach a very high value, e.g. in the START [1]...