| Main areas that will be explored are: | |
| (I) Variational methods in plasma physics | |
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i) Constructing variational principles:
Euler equations and Lagrangian A general methodology (Lecture 1) |
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ii) Examples and applications of variational principles:
Power dissipation in a passive resistive network Energy eigenvalues in quantum mechanics (Lecture 2) |
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iii) Shear Alfvén waves in tokamaks.
Variational formulation and variational principle Integral form of the dispersion relation (Lecture 3) |
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| (II) Wave propagation in slowly varying, weakly non-uniform media | |
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iv) Eikonal formulation of wave equations.
Wave-packet amplitude evolution equation. (Lecture 4) |
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v) The wave kinetic equation.
Bound states and Schrödinger equation. (Lecture 5) |
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| (III) Description of Alfvén waves in tokamaks | |
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vi) Global eigenvalue problem in toroidal plasmas.
The formation of meso-scales. (Lecture 6) |
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vii) Time asymptotic solution and WKB
dispersion relation. (Lecture 7) |
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