K-TURB: High-Frequency Turbulence

Full Code Description

K-TURB simulates high-frequency turbulence in plasmas, analyzing the effects of turbulent fluctuations on plasma stability and energy retention

Models high-frequency turbulence in fusion reactors to predict its effects on plasma confinement and energy loss

Reducing the negative effects of high-frequency turbulence to improve plasma stability and energy retention in fusion reactors

Frequency of turbulence, Plasma density, Magnetic field strength, Ion temperature

Frequency spectrum of turbulence, Plasma energy loss, Turbulence-induced instabilities

1.High-frequency turbulence model for plasma confinement

2.Spectral method for turbulence frequency spectrum analysis

3.Finite element analysis for high-frequency turbulence simulations

4.Crank-Nicolson scheme for time-evolving turbulence effects

5.Monte Carlo simulations for turbulence-induced instabilities

6.Finite volume method for turbulence energy dissipation

7.Adaptive mesh refinement for high-frequency turbulence analysis

8.Implicit-explicit solver for turbulence energy calculations

9.Time-domain solver for high-frequency turbulence effects

10.Fast Fourier Transform for turbulence frequency spectrum optimization

11.Spectral element method for turbulence-induced energy loss

12.Boundary layer analysis for high-frequency plasma instabilities

13.Least squares method for turbulence frequency spectrum optimization

14.Semi-Lagrangian method for high-frequency turbulence simulations

15.Particle-in-cell (PIC) method for turbulence interactions

16.Time-stepping method for turbulence frequency calculations

17.Spectral decomposition for turbulence-induced instabilities

18.Finite difference method for turbulence frequency spectrum analysis

19.High-order finite element solver for turbulence energy dissipation

20.Radiative transfer solver for turbulence frequency spectrum analysis