Plasma Instabilities: Microinstabilities in Magnetized Plasmas

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Explores Magnetohydrodynamic equilibrium and stability, ideal MHD solutions, 'hairy ball' theorem, and boundary conditions.

Plasma Instabilities: Non-Linear Effects in Plasmas

Explores non-linear effects in plasmas, focusing on weakly coupled plasmas, Maxwell's equations, collisional effects, and parametric instabilities.

Burning Plasmas: Fast Ions Role

Explores burning plasma specifics, fast ions role, losses, MHD modes, turbulence, Alfvén waves interaction, and burn stability.

Plasma Waves: Damping and Resonance

Explores plasma waves, emphasizing damping and resonance effects on energy exchange within the system.

Plasma Waves in MHD Model

Covers ideal MHD waves, including the shear Alfvén wave and compressional waves with a longitudinal component.

Ideal MHD Waves

Covers the concept of Ideal MHD waves and the behavior of plasma under different conditions.

Heating and Current Drive by Waves

Explores the use of waves for heating and current drive in tokamaks, focusing on ICRH and LH waves, their mechanisms, and antenna features.

Magnetohydrodynamics: Modeling and Equations

Covers magnetohydrodynamics, focusing on modeling challenges and MHD equations in plasma physics.

Electron Cyclotron Resonance Heating

Explores Electron Cyclotron Resonance Heating for plasma heating and current drive, focusing on wave-particle resonances, ECRH system components, and applications in TCV tokamak and ITER.

Turbulence in Tokamak Plasmas

Explores the limitations of classical transport models in tokamak plasmas, the impact of turbulence on plasma confinement, and the empirical transport scaling for ITER design.