COLLISIONAL PLASMA PHYSICS

Oxford Master Course in Mathematical and Theoretical Physics

("MMathPhys")

&

Centre for Postgraduate Training in Plasma Physics and High Energy Density Science

Lecturer: Felix I. Parra

Teaching Assistant: Michael Hardman

This is an MMathPhys course which we expect to be of interest to graduate students specialising in the physics (or applied mathematics) of gases and plasmas, and astrophysics.

Trinity Term 2017

LECTURES

Fisher Room (Denys Wilkinson Building)

Mondays 14:00-16:00 weekly

Seminar Room (Denys Wilkinson Building)

Tue 24 April and Tue 1 May 16:30-17:30

CLASSES

Time and place TBD

Course materials, reading suggestions, scheduling notices,

problem sets to appear below shortly.

Syllabus currently given below is subject to revision.

This is a new course, with a new set of notes and problems. There will be typos,

muddy points... Any feedback is welcome!

LECTURES

Fisher Room (Denys Wilkinson Building)

Mondays 14:00-16:00 weekly

Seminar Room (Denys Wilkinson Building)

Tue 24 April and Tue 1 May 16:30-17:30

CLASSES

Time and place TBD

Course materials, reading suggestions, scheduling notices,

problem sets to appear below shortly.

Syllabus currently given below is subject to revision.

This is a new course, with a new set of notes and problems. There will be typos,

muddy points... Any feedback is welcome!

FOKKER-PLANCK COLLISION OPERATOR |
Lecture I
(Mon 23-April-18) Boltzmann collision operator. Coulomb collisions. Lecture II (Tue 24-April-18) Fokker-Planck collision operator. Lecture III (Mon 30-April-18) Conservation properties and H-theorem of the Fokker-Planck collision operator. Electron-ion collisions. Lecture IV (Tue 1-May-18) Effect on ions of electron-ion collisions. Linearized collision operator. Lecture V (Mon 7-May-18) Properties of the linearized collision operator. Spitzer-Harm problem. Notes about the Fokker-Planck collision operator 1. Fokker-Planck collision operator 2. Collisions between electrons and ions 3. The linearized Fokker-Planck collision operator and the Spitzer-Harm problem |

BRAGINSKII EQUATIONS |
Lecture VI
(Mon 14-May-18) Derivation of plasma fluid equations. Lecture VII (Mon 21-May-18) Derivation of Braginskii closure for electrons. Notes about Braginskii equations Braginskii fluid equations |

RESISTIVE MHD |
Lecture VIII
(Mon 28-May-18) Braginskii closure for ions. MHD and resistive MHD. Lecture IX (Mon 4-June-18) Resistive tearing modes. Notes about resistive MHD Resistive MHD, reconnection and resistive tearing modes |

TOKAMAK PHYSICS |
Lecture X
(Mon 11-June-18) Introduction to tokamaks. Pfirsch-Schlueter transport for electrons. Notes about tokamak physics Tokamak physics: Pfirsch-Schlueter regime |

PROBLEM SETS |
Problem Set I
(Due Tue 15-May-18)
Problem Set II (Due Tue 5-June-18) |

BOOKS

- P. Helander & D. J. Sigmar, Collisional Transport in Magnetized Plasmas (Cambridge University Press 2002) (Amazon)

- R. D. Hazeltine & F. L. Waelbroeck, The Framework of Plasma Physics (Westview Press 2004) (Amazon)

- R. D. Hazeltine & J. D. Meiss, Plasma Confinement (Dover Publications 2003) (Amazon)

- R. Fitzpatrick, Plasma Physics: An Introduction (CRC Press 2014) (Amazon)

- R. J. Goldston & P. H. Rutherford, Introduction to Plasma Physics (CRC Press 1995) (Amazon)