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Lecture
MHD: The Magnetohydrodynamic Description
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Related lectures (32)
MHD Equilibrium & Stability
Explores Magnetohydrodynamic equilibrium and stability, ideal MHD solutions, 'hairy ball' theorem, and boundary conditions.
Magnetohydrodynamics: Modeling and Equations
Covers magnetohydrodynamics, focusing on modeling challenges and MHD equations in plasma physics.
Magnetohydrodynamics: Two-Fluid Model
Explores magnetohydrodynamics, emphasizing the two-fluid model, Alfvén's theorem, solar wind, dynamos, and magnetic reconnection.
MHD Equilibrium: Equations and Applications
MOOC: Plasma Physics: Introduction
Covers the equations for static ideal MHD equilibrium and force-free and force-balanced equilibria in plasma physics.
MHD Dynamo: Plasma Flow to Magnetic Fields
MOOC: Plasma Physics: Applications
Explores MHD dynamo theory, covering magnetic field generation by conductive fluid and the Babcock-Leighton mechanism.
MHD Equilibrium Stability
MOOC: Plasma Physics: Introduction
Delves into the stability of Magnetohydrodynamic equilibria in plasmas, analyzing various instabilities and methods for stability analysis.
Magnetic Reconnection
MOOC: Plasma Physics: Applications
Covers magnetic reconnection, rising flux tubes, the Sweet-Parker model, energy balance, and open questions in plasma physics.
MHD Stability and Equilibrium
Explores MHD equilibrium and stability, emphasizing energy considerations for determining stability.
MHD Stability and Operational Limits
Explores MHD stability, instabilities, and operational limits in tokamak plasmas, emphasizing the importance of understanding equilibrium stability and the impact of instabilities on plasma confinement.
Magnetohydrodynamics: Plasma Physics
Covers the physics of plasmas, emphasizing magnetohydrodynamics and energy conversion processes.
MHD Equilibrium Configurations
Explores MHD equilibrium configurations in 2D, focusing on tokamaks and stellarators for magnetic confinement.
Introduction to Plasma Physics
Covers high-confinement regimes, induced current density, fusion plasma self-sustainment, and MHD ideal conditions.
Stellarators: Confinement Concepts
MOOC: Plasma Physics: Applications
Explores stellarators as alternatives to tokamaks, discussing 3D magnetic configurations, pros and cons, history, and other confinement concepts.
Ideal MHD Waves
Covers the concept of Ideal MHD waves and the behavior of plasma under different conditions.
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Magnetic Fields in Astrophysical Fluids
Explores the dynamics of astrophysical fluids, focusing on cosmic magnetic fields, synchrotron emission, and plasma stability.
Burning Plasmas: Fast Ions Role
MOOC: Plasma Physics: Applications
Explores burning plasma specifics, fast ions role, losses, MHD modes, turbulence, Alfvén waves interaction, and burn stability.
Plasma Waves in MHD Model
MOOC: Plasma Physics: Introduction
Covers ideal MHD waves, including the shear Alfvén wave and compressional waves with a longitudinal component.
Astrophysical Fluids & Plasmas
Explores astrophysical fluids, plasmas, MHD, turbulence, and plasma oscillations, including Faraday rotation for measuring cosmic magnetic fields.
Tokamak Concept: Main Elements and Properties
MOOC: Plasma Physics: Applications
Explores the main elements and properties of a tokamak, including shaping, safety factor, equilibrium, and the JET tokamak.
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